Ramon Diaz-Uriarte
| Snapshot Date: 2018-04-11 16:45:18 -0400 (Wed, 11 Apr 2018) |
| URL: https://git.bioconductor.org/packages/OncoSimulR |
| Branch: RELEASE_3_6 |
| Last Commit: 4e3de2b |
| Last Changed Date: 2017-10-30 12:40:20 -0400 (Mon, 30 Oct 2017) |
| Back to Multiple platform build/check report for BioC 3.6 |
|
This page was generated on 2018-04-12 13:12:26 -0400 (Thu, 12 Apr 2018).
| Package 971/1472 | Hostname | OS / Arch | INSTALL | BUILD | CHECK | BUILD BIN | ||||||
| OncoSimulR 2.8.0 Ramon Diaz-Uriarte
| malbec1 | Linux (Ubuntu 16.04.1 LTS) / x86_64 | NotNeeded | OK | [ OK ] | | ||||||
| tokay1 | Windows Server 2012 R2 Standard / x64 | NotNeeded | OK | WARNINGS | OK | | ||||||
| veracruz1 | OS X 10.11.6 El Capitan / x86_64 | NotNeeded | OK | OK | OK | |
| Package: OncoSimulR |
| Version: 2.8.0 |
| Command: /home/biocbuild/bbs-3.6-bioc/R/bin/R CMD check --no-vignettes --timings OncoSimulR_2.8.0.tar.gz |
| StartedAt: 2018-04-12 01:34:09 -0400 (Thu, 12 Apr 2018) |
| EndedAt: 2018-04-12 01:41:15 -0400 (Thu, 12 Apr 2018) |
| EllapsedTime: 425.9 seconds |
| RetCode: 0 |
| Status: OK |
| CheckDir: OncoSimulR.Rcheck |
| Warnings: 0 |
##############################################################################
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###
### Running command:
###
### /home/biocbuild/bbs-3.6-bioc/R/bin/R CMD check --no-vignettes --timings OncoSimulR_2.8.0.tar.gz
###
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* using log directory ‘/home/biocbuild/bbs-3.6-bioc/meat/OncoSimulR.Rcheck’
* using R version 3.4.4 (2018-03-15)
* using platform: x86_64-pc-linux-gnu (64-bit)
* using session charset: UTF-8
* using option ‘--no-vignettes’
* checking for file ‘OncoSimulR/DESCRIPTION’ ... OK
* checking extension type ... Package
* this is package ‘OncoSimulR’ version ‘2.8.0’
* checking package namespace information ... OK
* checking package dependencies ... OK
* checking if this is a source package ... OK
* checking if there is a namespace ... OK
* checking for hidden files and directories ... OK
* checking for portable file names ... OK
* checking for sufficient/correct file permissions ... OK
* checking whether package ‘OncoSimulR’ can be installed ... OK
* checking installed package size ... NOTE
installed size is 11.2Mb
sub-directories of 1Mb or more:
doc 5.3Mb
libs 5.3Mb
* checking package directory ... OK
* checking ‘build’ directory ... OK
* checking DESCRIPTION meta-information ... OK
* checking top-level files ... OK
* checking for left-over files ... OK
* checking index information ... OK
* checking package subdirectories ... OK
* checking R files for non-ASCII characters ... OK
* checking R files for syntax errors ... OK
* checking whether the package can be loaded ... OK
* checking whether the package can be loaded with stated dependencies ... OK
* checking whether the package can be unloaded cleanly ... OK
* checking whether the namespace can be loaded with stated dependencies ... OK
* checking whether the namespace can be unloaded cleanly ... OK
* checking loading without being on the library search path ... OK
* checking dependencies in R code ... OK
* checking S3 generic/method consistency ... OK
* checking replacement functions ... OK
* checking foreign function calls ... OK
* checking R code for possible problems ... OK
* checking Rd files ... OK
* checking Rd metadata ... OK
* checking Rd cross-references ... OK
* checking for missing documentation entries ... OK
* checking for code/documentation mismatches ... OK
* checking Rd \usage sections ... OK
* checking Rd contents ... OK
* checking for unstated dependencies in examples ... OK
* checking contents of ‘data’ directory ... OK
* checking data for non-ASCII characters ... OK
* checking data for ASCII and uncompressed saves ... OK
* checking line endings in C/C++/Fortran sources/headers ... OK
* checking line endings in Makefiles ... OK
* checking compilation flags in Makevars ... OK
* checking for GNU extensions in Makefiles ... OK
* checking for portable use of $(BLAS_LIBS) and $(LAPACK_LIBS) ... OK
* checking compiled code ... OK
* checking installed files from ‘inst/doc’ ... OK
* checking files in ‘vignettes’ ... OK
* checking examples ... OK
Examples with CPU or elapsed time > 5s
user system elapsed
oncoSimulIndiv 6.996 0.58 5.686
* checking for unstated dependencies in ‘tests’ ... OK
* checking tests ...
Running ‘testthat.R’
OK
* checking for unstated dependencies in vignettes ... OK
* checking package vignettes in ‘inst/doc’ ... OK
* checking running R code from vignettes ... SKIPPED
* checking re-building of vignette outputs ... SKIPPED
* checking PDF version of manual ... OK
* DONE
Status: 1 NOTE
See
‘/home/biocbuild/bbs-3.6-bioc/meat/OncoSimulR.Rcheck/00check.log’
for details.
OncoSimulR.Rcheck/00install.out
* installing *source* package ‘OncoSimulR’ ... ** libs g++ -std=gnu++11 -I/home/biocbuild/bbs-3.6-bioc/R/include -DNDEBUG -I"/home/biocbuild/bbs-3.6-bioc/R/library/Rcpp/include" -I/usr/local/include -fpic -g -O2 -c BNB_nr.cpp -o BNB_nr.o g++ -std=gnu++11 -I/home/biocbuild/bbs-3.6-bioc/R/include -DNDEBUG -I"/home/biocbuild/bbs-3.6-bioc/R/library/Rcpp/include" -I/usr/local/include -fpic -g -O2 -c BNB_v1.cpp -o BNB_v1.o gcc -I/home/biocbuild/bbs-3.6-bioc/R/include -DNDEBUG -I"/home/biocbuild/bbs-3.6-bioc/R/library/Rcpp/include" -I/usr/local/include -fpic -g -O2 -Wall -c OncoSimulR_init.c -o OncoSimulR_init.o g++ -std=gnu++11 -I/home/biocbuild/bbs-3.6-bioc/R/include -DNDEBUG -I"/home/biocbuild/bbs-3.6-bioc/R/library/Rcpp/include" -I/usr/local/include -fpic -g -O2 -c RcppExports.cpp -o RcppExports.o g++ -std=gnu++11 -I/home/biocbuild/bbs-3.6-bioc/R/include -DNDEBUG -I"/home/biocbuild/bbs-3.6-bioc/R/library/Rcpp/include" -I/usr/local/include -fpic -g -O2 -c accessible_genotypes.cpp -o accessible_genotypes.o g++ -std=gnu++11 -I/home/biocbuild/bbs-3.6-bioc/R/include -DNDEBUG -I"/home/biocbuild/bbs-3.6-bioc/R/library/Rcpp/include" -I/usr/local/include -fpic -g -O2 -c bnb_common.cpp -o bnb_common.o g++ -std=gnu++11 -I/home/biocbuild/bbs-3.6-bioc/R/include -DNDEBUG -I"/home/biocbuild/bbs-3.6-bioc/R/library/Rcpp/include" -I/usr/local/include -fpic -g -O2 -c new_restrict.cpp -o new_restrict.o g++ -std=gnu++11 -I/home/biocbuild/bbs-3.6-bioc/R/include -DNDEBUG -I"/home/biocbuild/bbs-3.6-bioc/R/library/Rcpp/include" -I/usr/local/include -fpic -g -O2 -c new_restrict_former_print_utils.cpp -o new_restrict_former_print_utils.o g++ -std=gnu++11 -shared -L/home/biocbuild/bbs-3.6-bioc/R/lib -L/usr/local/lib -o OncoSimulR.so BNB_nr.o BNB_v1.o OncoSimulR_init.o RcppExports.o accessible_genotypes.o bnb_common.o new_restrict.o new_restrict_former_print_utils.o -L/home/biocbuild/bbs-3.6-bioc/R/lib -lR installing to /home/biocbuild/bbs-3.6-bioc/meat/OncoSimulR.Rcheck/OncoSimulR/libs ** R ** data ** inst ** preparing package for lazy loading ** help *** installing help indices ** building package indices ** installing vignettes ** testing if installed package can be loaded * DONE (OncoSimulR)
OncoSimulR.Rcheck/tests/testthat.Rout
R version 3.4.4 (2018-03-15) -- "Someone to Lean On"
Copyright (C) 2018 The R Foundation for Statistical Computing
Platform: x86_64-pc-linux-gnu (64-bit)
R is free software and comes with ABSOLUTELY NO WARRANTY.
You are welcome to redistribute it under certain conditions.
Type 'license()' or 'licence()' for distribution details.
R is a collaborative project with many contributors.
Type 'contributors()' for more information and
'citation()' on how to cite R or R packages in publications.
Type 'demo()' for some demos, 'help()' for on-line help, or
'help.start()' for an HTML browser interface to help.
Type 'q()' to quit R.
> library(testthat)
> # library(OncoSimulR)
>
> test_check("OncoSimulR")
Loading required package: OncoSimulR
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
... output from mue11
Individual OncoSimul trajectory with call:
oncoSimulIndiv(fp = fe31, model = "McFL", mu = 1e-06, detectionSize = 5e+06,
initSize = 1e+05, finalTime = 5, onlyCancer = FALSE)
NumClones TotalPopSize LargestClone MaxNumDrivers MaxDriversLast
1 7 99552 99538 1 0
NumDriversLargestPop TotalPresentDrivers FinalTime NumIter HittedWallTime
1 0 1 5 206 FALSE
HittedMaxTries errorMF minDMratio minBMratio OccurringDrivers
1 FALSE 0.001230723 99677.1 1e+05 g2
Final population composition:
Genotype N
1 99538
2 g2 0
3 g3 5
4 g6 0
5 g8 1
6 g9 0
7 g10 8
Hitted wall time. Exiting.
Hitting wall time is regarded as an error.
Using 17400 as seed for C++ generator
*** Looping through 5.2. Iter = 1
iteration 1; minNextMutationTime = 11; timeNextPopSample = 1; popParams.size() = 1
We are SAMPLING at time 1
*** Looping through 5.2. Iter = 2
iteration 2; minNextMutationTime = 12; timeNextPopSample = 2; popParams.size() = 1
We are SAMPLING at time 2
*** Looping through 5.2. Iter = 3
iteration 3; minNextMutationTime = 13; timeNextPopSample = 3; popParams.size() = 1
We are SAMPLING at time 3
*** Looping through 5.2. Iter = 4
iteration 4; minNextMutationTime = 14; timeNextPopSample = 4; popParams.size() = 1
We are SAMPLING at time 4
*** Looping through 5.2. Iter = 5
iteration 5; minNextMutationTime = 15; timeNextPopSample = 5; popParams.size() = 1
We are SAMPLING at time 5
*** Looping through 5.2. Iter = 6
iteration 6; minNextMutationTime = 16; timeNextPopSample = 6; popParams.size() = 1
We are SAMPLING at time 6
*** Looping through 5.2. Iter = 7
iteration 7; minNextMutationTime = 17; timeNextPopSample = 7; popParams.size() = 1
We are SAMPLING at time 7
*** Looping through 5.2. Iter = 8
iteration 8; minNextMutationTime = 18; timeNextPopSample = 8; popParams.size() = 1
We are SAMPLING at time 8
*** Looping through 5.2. Iter = 9
iteration 9; minNextMutationTime = 19; timeNextPopSample = 9; popParams.size() = 1
We are SAMPLING at time 9
*** Looping through 5.2. Iter = 10
iteration 10; minNextMutationTime = 20; timeNextPopSample = 10; popParams.size() = 1
We are SAMPLING at time 10
*** Looping through 5.2. Iter = 11
iteration 11; minNextMutationTime = 21; timeNextPopSample = 11; popParams.size() = 1
We are SAMPLING at time 11
*** Looping through 5.2. Iter = 12
iteration 12; minNextMutationTime = 22; timeNextPopSample = 12; popParams.size() = 1
We are SAMPLING at time 12
*** Looping through 5.2. Iter = 13
iteration 13; minNextMutationTime = 23; timeNextPopSample = 13; popParams.size() = 1
We are SAMPLING at time 13
*** Looping through 5.2. Iter = 14
iteration 14; minNextMutationTime = 24; timeNextPopSample = 14; popParams.size() = 1
We are SAMPLING at time 14
*** Looping through 5.2. Iter = 15
iteration 15; minNextMutationTime = 25; timeNextPopSample = 15; popParams.size() = 1
We are SAMPLING at time 15
*** Looping through 5.2. Iter = 16
iteration 16; minNextMutationTime = 26; timeNextPopSample = 16; popParams.size() = 1
We are SAMPLING at time 16
*** Looping through 5.2. Iter = 17
iteration 17; minNextMutationTime = 27; timeNextPopSample = 17; popParams.size() = 1
We are SAMPLING at time 17
*** Looping through 5.2. Iter = 18
iteration 18; minNextMutationTime = 28; timeNextPopSample = 18; popParams.size() = 1
We are SAMPLING at time 18
*** Looping through 5.2. Iter = 19
iteration 19; minNextMutationTime = 29; timeNextPopSample = 19; popParams.size() = 1
We are SAMPLING at time 19
*** Looping through 5.2. Iter = 20
iteration 20; minNextMutationTime = 30; timeNextPopSample = 20; popParams.size() = 1
We are SAMPLING at time 20
*** Looping through 5.2. Iter = 21
iteration 21; minNextMutationTime = 31; timeNextPopSample = 21; popParams.size() = 1
We are SAMPLING at time 21
*** Looping through 5.2. Iter = 22
iteration 22; minNextMutationTime = 32; timeNextPopSample = 22; popParams.size() = 1
We are SAMPLING at time 22
*** Looping through 5.2. Iter = 23
iteration 23; minNextMutationTime = 33; timeNextPopSample = 23; popParams.size() = 1
We are SAMPLING at time 23
*** Looping through 5.2. Iter = 24
iteration 24; minNextMutationTime = 34; timeNextPopSample = 24; popParams.size() = 1
We are SAMPLING at time 24
*** Looping through 5.2. Iter = 25
iteration 25; minNextMutationTime = 35; timeNextPopSample = 25; popParams.size() = 1
We are SAMPLING at time 25
*** Looping through 5.2. Iter = 26
iteration 26; minNextMutationTime = 36; timeNextPopSample = 26; popParams.size() = 1
We are SAMPLING at time 26
*** Looping through 5.2. Iter = 27
iteration 27; minNextMutationTime = 37; timeNextPopSample = 27; popParams.size() = 1
We are SAMPLING at time 27
*** Looping through 5.2. Iter = 28
iteration 28; minNextMutationTime = 27.4816; timeNextPopSample = 28; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 29
iteration 29; minNextMutationTime = 38; timeNextPopSample = 28; popParams.size() = 2
We are SAMPLING at time 28
*** Looping through 5.2. Iter = 30
iteration 30; minNextMutationTime = 39; timeNextPopSample = 29; popParams.size() = 2
We are SAMPLING at time 29
*** Looping through 5.2. Iter = 31
iteration 31; minNextMutationTime = 40; timeNextPopSample = 30; popParams.size() = 1
We are SAMPLING at time 30
*** Looping through 5.2. Iter = 32
iteration 32; minNextMutationTime = 30.8538; timeNextPopSample = 31; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 33
iteration 33; minNextMutationTime = 41; timeNextPopSample = 31; popParams.size() = 2
We are SAMPLING at time 31
*** Looping through 5.2. Iter = 34
iteration 34; minNextMutationTime = 42; timeNextPopSample = 32; popParams.size() = 2
We are SAMPLING at time 32
*** Looping through 5.2. Iter = 35
iteration 35; minNextMutationTime = 43; timeNextPopSample = 33; popParams.size() = 1
We are SAMPLING at time 33
*** Looping through 5.2. Iter = 36
iteration 36; minNextMutationTime = 44; timeNextPopSample = 34; popParams.size() = 1
We are SAMPLING at time 34
*** Looping through 5.2. Iter = 37
iteration 37; minNextMutationTime = 45; timeNextPopSample = 35; popParams.size() = 1
We are SAMPLING at time 35
*** Looping through 5.2. Iter = 38
iteration 38; minNextMutationTime = 46; timeNextPopSample = 36; popParams.size() = 1
We are SAMPLING at time 36
*** Looping through 5.2. Iter = 39
iteration 39; minNextMutationTime = 47; timeNextPopSample = 37; popParams.size() = 1
We are SAMPLING at time 37
*** Looping through 5.2. Iter = 40
iteration 40; minNextMutationTime = 37.6018; timeNextPopSample = 38; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 41
iteration 41; minNextMutationTime = 48; timeNextPopSample = 38; popParams.size() = 2
We are SAMPLING at time 38
*** Looping through 5.2. Iter = 42
iteration 42; minNextMutationTime = 49; timeNextPopSample = 39; popParams.size() = 2
We are SAMPLING at time 39
*** Looping through 5.2. Iter = 43
iteration 43; minNextMutationTime = 50; timeNextPopSample = 40; popParams.size() = 2
We are SAMPLING at time 40
*** Looping through 5.2. Iter = 44
iteration 44; minNextMutationTime = 51; timeNextPopSample = 41; popParams.size() = 2
We are SAMPLING at time 41
*** Looping through 5.2. Iter = 45
iteration 45; minNextMutationTime = 52; timeNextPopSample = 42; popParams.size() = 1
We are SAMPLING at time 42
*** Looping through 5.2. Iter = 46
iteration 46; minNextMutationTime = 53; timeNextPopSample = 43; popParams.size() = 1
We are SAMPLING at time 43
*** Looping through 5.2. Iter = 47
iteration 47; minNextMutationTime = 43.5756; timeNextPopSample = 44; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 48
iteration 48; minNextMutationTime = 54; timeNextPopSample = 44; popParams.size() = 2
We are SAMPLING at time 44
*** Looping through 5.2. Iter = 49
iteration 49; minNextMutationTime = 55; timeNextPopSample = 45; popParams.size() = 2
We are SAMPLING at time 45
*** Looping through 5.2. Iter = 50
iteration 50; minNextMutationTime = 56; timeNextPopSample = 46; popParams.size() = 1
We are SAMPLING at time 46
*** Looping through 5.2. Iter = 51
iteration 51; minNextMutationTime = 46.7129; timeNextPopSample = 47; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 52
iteration 52; minNextMutationTime = 57; timeNextPopSample = 47; popParams.size() = 2
We are SAMPLING at time 47
*** Looping through 5.2. Iter = 53
iteration 53; minNextMutationTime = 58; timeNextPopSample = 48; popParams.size() = 1
We are SAMPLING at time 48
*** Looping through 5.2. Iter = 54
iteration 54; minNextMutationTime = 59; timeNextPopSample = 49; popParams.size() = 1
We are SAMPLING at time 49
*** Looping through 5.2. Iter = 55
iteration 55; minNextMutationTime = 60; timeNextPopSample = 50; popParams.size() = 1
We are SAMPLING at time 50
*** Looping through 5.2. Iter = 56
iteration 56; minNextMutationTime = 61; timeNextPopSample = 51; popParams.size() = 1
We are SAMPLING at time 51
*** Looping through 5.2. Iter = 57
iteration 57; minNextMutationTime = 62; timeNextPopSample = 52; popParams.size() = 1
We are SAMPLING at time 52
*** Looping through 5.2. Iter = 58
iteration 58; minNextMutationTime = 63; timeNextPopSample = 53; popParams.size() = 1
We are SAMPLING at time 53
*** Looping through 5.2. Iter = 59
iteration 59; minNextMutationTime = 64; timeNextPopSample = 54; popParams.size() = 1
We are SAMPLING at time 54
*** Looping through 5.2. Iter = 60
iteration 60; minNextMutationTime = 65; timeNextPopSample = 55; popParams.size() = 1
We are SAMPLING at time 55
*** Looping through 5.2. Iter = 61
iteration 61; minNextMutationTime = 66; timeNextPopSample = 56; popParams.size() = 1
We are SAMPLING at time 56
*** Looping through 5.2. Iter = 62
iteration 62; minNextMutationTime = 67; timeNextPopSample = 57; popParams.size() = 1
We are SAMPLING at time 57
*** Looping through 5.2. Iter = 63
iteration 63; minNextMutationTime = 68; timeNextPopSample = 58; popParams.size() = 1
We are SAMPLING at time 58
*** Looping through 5.2. Iter = 64
iteration 64; minNextMutationTime = 69; timeNextPopSample = 59; popParams.size() = 1
We are SAMPLING at time 59
*** Looping through 5.2. Iter = 65
iteration 65; minNextMutationTime = 70; timeNextPopSample = 60; popParams.size() = 1
We are SAMPLING at time 60
*** Looping through 5.2. Iter = 66
iteration 66; minNextMutationTime = 60.5645; timeNextPopSample = 61; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 67
iteration 67; minNextMutationTime = 71; timeNextPopSample = 61; popParams.size() = 2
We are SAMPLING at time 61
*** Looping through 5.2. Iter = 68
iteration 68; minNextMutationTime = 72; timeNextPopSample = 62; popParams.size() = 2
We are SAMPLING at time 62
*** Looping through 5.2. Iter = 69
iteration 69; minNextMutationTime = 73; timeNextPopSample = 63; popParams.size() = 2
We are SAMPLING at time 63
*** Looping through 5.2. Iter = 70
iteration 70; minNextMutationTime = 74; timeNextPopSample = 64; popParams.size() = 2
We are SAMPLING at time 64
*** Looping through 5.2. Iter = 71
iteration 71; minNextMutationTime = 75; timeNextPopSample = 65; popParams.size() = 2
We are SAMPLING at time 65
*** Looping through 5.2. Iter = 72
iteration 72; minNextMutationTime = 76; timeNextPopSample = 66; popParams.size() = 1
We are SAMPLING at time 66
*** Looping through 5.2. Iter = 73
iteration 73; minNextMutationTime = 77; timeNextPopSample = 67; popParams.size() = 1
We are SAMPLING at time 67
*** Looping through 5.2. Iter = 74
iteration 74; minNextMutationTime = 78; timeNextPopSample = 68; popParams.size() = 1
We are SAMPLING at time 68
*** Looping through 5.2. Iter = 75
iteration 75; minNextMutationTime = 79; timeNextPopSample = 69; popParams.size() = 1
We are SAMPLING at time 69
*** Looping through 5.2. Iter = 76
iteration 76; minNextMutationTime = 80; timeNextPopSample = 70; popParams.size() = 1
We are SAMPLING at time 70
*** Looping through 5.2. Iter = 77
iteration 77; minNextMutationTime = 81; timeNextPopSample = 71; popParams.size() = 1
We are SAMPLING at time 71
*** Looping through 5.2. Iter = 78
iteration 78; minNextMutationTime = 82; timeNextPopSample = 72; popParams.size() = 1
We are SAMPLING at time 72
*** Looping through 5.2. Iter = 79
iteration 79; minNextMutationTime = 83; timeNextPopSample = 73; popParams.size() = 1
We are SAMPLING at time 73
*** Looping through 5.2. Iter = 80
iteration 80; minNextMutationTime = 84; timeNextPopSample = 74; popParams.size() = 1
We are SAMPLING at time 74
*** Looping through 5.2. Iter = 81
iteration 81; minNextMutationTime = 85; timeNextPopSample = 75; popParams.size() = 1
We are SAMPLING at time 75
*** Looping through 5.2. Iter = 82
iteration 82; minNextMutationTime = 86; timeNextPopSample = 76; popParams.size() = 1
We are SAMPLING at time 76
*** Looping through 5.2. Iter = 83
iteration 83; minNextMutationTime = 87; timeNextPopSample = 77; popParams.size() = 1
We are SAMPLING at time 77
*** Looping through 5.2. Iter = 84
iteration 84; minNextMutationTime = 88; timeNextPopSample = 78; popParams.size() = 1
We are SAMPLING at time 78
*** Looping through 5.2. Iter = 85
iteration 85; minNextMutationTime = 89; timeNextPopSample = 79; popParams.size() = 1
We are SAMPLING at time 79
*** Looping through 5.2. Iter = 86
iteration 86; minNextMutationTime = 90; timeNextPopSample = 80; popParams.size() = 1
We are SAMPLING at time 80
*** Looping through 5.2. Iter = 87
iteration 87; minNextMutationTime = 91; timeNextPopSample = 81; popParams.size() = 1
We are SAMPLING at time 81
*** Looping through 5.2. Iter = 88
iteration 88; minNextMutationTime = 92; timeNextPopSample = 82; popParams.size() = 1
We are SAMPLING at time 82
*** Looping through 5.2. Iter = 89
iteration 89; minNextMutationTime = 93; timeNextPopSample = 83; popParams.size() = 1
We are SAMPLING at time 83
*** Looping through 5.2. Iter = 90
iteration 90; minNextMutationTime = 94; timeNextPopSample = 84; popParams.size() = 1
We are SAMPLING at time 84
*** Looping through 5.2. Iter = 91
iteration 91; minNextMutationTime = 95; timeNextPopSample = 85; popParams.size() = 1
We are SAMPLING at time 85
*** Looping through 5.2. Iter = 92
iteration 92; minNextMutationTime = 96; timeNextPopSample = 86; popParams.size() = 1
We are SAMPLING at time 86
*** Looping through 5.2. Iter = 93
iteration 93; minNextMutationTime = 86.7149; timeNextPopSample = 87; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 94
iteration 94; minNextMutationTime = 97; timeNextPopSample = 87; popParams.size() = 2
We are SAMPLING at time 87
*** Looping through 5.2. Iter = 95
iteration 95; minNextMutationTime = 98; timeNextPopSample = 88; popParams.size() = 2
We are SAMPLING at time 88
*** Looping through 5.2. Iter = 96
iteration 96; minNextMutationTime = 99; timeNextPopSample = 89; popParams.size() = 1
We are SAMPLING at time 89
*** Looping through 5.2. Iter = 97
iteration 97; minNextMutationTime = 89.7251; timeNextPopSample = 90; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 98
iteration 98; minNextMutationTime = 100; timeNextPopSample = 90; popParams.size() = 2
We are SAMPLING at time 90
*** Looping through 5.2. Iter = 99
iteration 99; minNextMutationTime = 90.3587; timeNextPopSample = 91; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 100
iteration 100; minNextMutationTime = 101; timeNextPopSample = 91; popParams.size() = 3
We are SAMPLING at time 91
*** Looping through 5.2. Iter = 101
iteration 101; minNextMutationTime = 102; timeNextPopSample = 92; popParams.size() = 2
We are SAMPLING at time 92
*** Looping through 5.2. Iter = 102
iteration 102; minNextMutationTime = 103; timeNextPopSample = 93; popParams.size() = 2
We are SAMPLING at time 93
*** Looping through 5.2. Iter = 103
iteration 103; minNextMutationTime = 104; timeNextPopSample = 94; popParams.size() = 2
We are SAMPLING at time 94
*** Looping through 5.2. Iter = 104
iteration 104; minNextMutationTime = 105; timeNextPopSample = 95; popParams.size() = 2
We are SAMPLING at time 95
*** Looping through 5.2. Iter = 105
iteration 105; minNextMutationTime = 106; timeNextPopSample = 96; popParams.size() = 1
We are SAMPLING at time 96
*** Looping through 5.2. Iter = 106
iteration 106; minNextMutationTime = 107; timeNextPopSample = 97; popParams.size() = 1
We are SAMPLING at time 97
*** Looping through 5.2. Iter = 107
iteration 107; minNextMutationTime = 108; timeNextPopSample = 98; popParams.size() = 1
We are SAMPLING at time 98
*** Looping through 5.2. Iter = 108
iteration 108; minNextMutationTime = 109; timeNextPopSample = 99; popParams.size() = 1
We are SAMPLING at time 99
*** Looping through 5.2. Iter = 109
iteration 109; minNextMutationTime = 110; timeNextPopSample = 100; popParams.size() = 1
We are SAMPLING at time 100
*** Looping through 5.2. Iter = 110
iteration 110; minNextMutationTime = 111; timeNextPopSample = 101; popParams.size() = 1
We are SAMPLING at time 101
*** Looping through 5.2. Iter = 111
iteration 111; minNextMutationTime = 112; timeNextPopSample = 102; popParams.size() = 1
We are SAMPLING at time 102
*** Looping through 5.2. Iter = 112
iteration 112; minNextMutationTime = 113; timeNextPopSample = 103; popParams.size() = 1
We are SAMPLING at time 103
*** Looping through 5.2. Iter = 113
iteration 113; minNextMutationTime = 114; timeNextPopSample = 104; popParams.size() = 1
We are SAMPLING at time 104
*** Looping through 5.2. Iter = 114
iteration 114; minNextMutationTime = 115; timeNextPopSample = 105; popParams.size() = 1
We are SAMPLING at time 105
*** Looping through 5.2. Iter = 115
iteration 115; minNextMutationTime = 116; timeNextPopSample = 106; popParams.size() = 1
We are SAMPLING at time 106
*** Looping through 5.2. Iter = 116
iteration 116; minNextMutationTime = 117; timeNextPopSample = 107; popParams.size() = 1
We are SAMPLING at time 107
*** Looping through 5.2. Iter = 117
iteration 117; minNextMutationTime = 118; timeNextPopSample = 108; popParams.size() = 1
We are SAMPLING at time 108
*** Looping through 5.2. Iter = 118
iteration 118; minNextMutationTime = 119; timeNextPopSample = 109; popParams.size() = 1
We are SAMPLING at time 109
*** Looping through 5.2. Iter = 119
iteration 119; minNextMutationTime = 120; timeNextPopSample = 110; popParams.size() = 1
We are SAMPLING at time 110
*** Looping through 5.2. Iter = 120
iteration 120; minNextMutationTime = 121; timeNextPopSample = 111; popParams.size() = 1
We are SAMPLING at time 111
*** Looping through 5.2. Iter = 121
iteration 121; minNextMutationTime = 111.921; timeNextPopSample = 112; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 122
iteration 122; minNextMutationTime = 122; timeNextPopSample = 112; popParams.size() = 2
We are SAMPLING at time 112
*** Looping through 5.2. Iter = 123
iteration 123; minNextMutationTime = 123; timeNextPopSample = 113; popParams.size() = 2
We are SAMPLING at time 113
*** Looping through 5.2. Iter = 124
iteration 124; minNextMutationTime = 124; timeNextPopSample = 114; popParams.size() = 1
We are SAMPLING at time 114
*** Looping through 5.2. Iter = 125
iteration 125; minNextMutationTime = 125; timeNextPopSample = 115; popParams.size() = 1
We are SAMPLING at time 115
*** Looping through 5.2. Iter = 126
iteration 126; minNextMutationTime = 126; timeNextPopSample = 116; popParams.size() = 1
We are SAMPLING at time 116
*** Looping through 5.2. Iter = 127
iteration 127; minNextMutationTime = 116.291; timeNextPopSample = 117; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 128
iteration 128; minNextMutationTime = 127; timeNextPopSample = 117; popParams.size() = 2
We are SAMPLING at time 117
*** Looping through 5.2. Iter = 129
iteration 129; minNextMutationTime = 128; timeNextPopSample = 118; popParams.size() = 2
We are SAMPLING at time 118
*** Looping through 5.2. Iter = 130
iteration 130; minNextMutationTime = 129; timeNextPopSample = 119; popParams.size() = 1
We are SAMPLING at time 119
*** Looping through 5.2. Iter = 131
iteration 131; minNextMutationTime = 119.614; timeNextPopSample = 120; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 132
iteration 132; minNextMutationTime = 130; timeNextPopSample = 120; popParams.size() = 2
We are SAMPLING at time 120
*** Looping through 5.2. Iter = 133
iteration 133; minNextMutationTime = 131; timeNextPopSample = 121; popParams.size() = 2
We are SAMPLING at time 121
*** Looping through 5.2. Iter = 134
iteration 134; minNextMutationTime = 121.049; timeNextPopSample = 122; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 135
iteration 135; minNextMutationTime = 132; timeNextPopSample = 122; popParams.size() = 2
We are SAMPLING at time 122
*** Looping through 5.2. Iter = 136
iteration 136; minNextMutationTime = 133; timeNextPopSample = 123; popParams.size() = 1
We are SAMPLING at time 123
*** Looping through 5.2. Iter = 137
iteration 137; minNextMutationTime = 134; timeNextPopSample = 124; popParams.size() = 1
We are SAMPLING at time 124
*** Looping through 5.2. Iter = 138
iteration 138; minNextMutationTime = 135; timeNextPopSample = 125; popParams.size() = 1
We are SAMPLING at time 125
*** Looping through 5.2. Iter = 139
iteration 139; minNextMutationTime = 136; timeNextPopSample = 126; popParams.size() = 1
We are SAMPLING at time 126
*** Looping through 5.2. Iter = 140
iteration 140; minNextMutationTime = 137; timeNextPopSample = 127; popParams.size() = 1
We are SAMPLING at time 127
*** Looping through 5.2. Iter = 141
iteration 141; minNextMutationTime = 138; timeNextPopSample = 128; popParams.size() = 1
We are SAMPLING at time 128
*** Looping through 5.2. Iter = 142
iteration 142; minNextMutationTime = 139; timeNextPopSample = 129; popParams.size() = 1
We are SAMPLING at time 129
*** Looping through 5.2. Iter = 143
iteration 143; minNextMutationTime = 140; timeNextPopSample = 130; popParams.size() = 1
We are SAMPLING at time 130
*** Looping through 5.2. Iter = 144
iteration 144; minNextMutationTime = 141; timeNextPopSample = 131; popParams.size() = 1
We are SAMPLING at time 131
*** Looping through 5.2. Iter = 145
iteration 145; minNextMutationTime = 142; timeNextPopSample = 132; popParams.size() = 1
We are SAMPLING at time 132
*** Looping through 5.2. Iter = 146
iteration 146; minNextMutationTime = 143; timeNextPopSample = 133; popParams.size() = 1
We are SAMPLING at time 133
*** Looping through 5.2. Iter = 147
iteration 147; minNextMutationTime = 133.209; timeNextPopSample = 134; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 148
iteration 148; minNextMutationTime = 144; timeNextPopSample = 134; popParams.size() = 2
We are SAMPLING at time 134
*** Looping through 5.2. Iter = 149
iteration 149; minNextMutationTime = 145; timeNextPopSample = 135; popParams.size() = 2
We are SAMPLING at time 135
*** Looping through 5.2. Iter = 150
iteration 150; minNextMutationTime = 146; timeNextPopSample = 136; popParams.size() = 1
We are SAMPLING at time 136
*** Looping through 5.2. Iter = 151
iteration 151; minNextMutationTime = 147; timeNextPopSample = 137; popParams.size() = 1
We are SAMPLING at time 137
*** Looping through 5.2. Iter = 152
iteration 152; minNextMutationTime = 148; timeNextPopSample = 138; popParams.size() = 1
We are SAMPLING at time 138
*** Looping through 5.2. Iter = 153
iteration 153; minNextMutationTime = 149; timeNextPopSample = 139; popParams.size() = 1
We are SAMPLING at time 139
*** Looping through 5.2. Iter = 154
iteration 154; minNextMutationTime = 150; timeNextPopSample = 140; popParams.size() = 1
We are SAMPLING at time 140
*** Looping through 5.2. Iter = 155
iteration 155; minNextMutationTime = 151; timeNextPopSample = 141; popParams.size() = 1
We are SAMPLING at time 141
*** Looping through 5.2. Iter = 156
iteration 156; minNextMutationTime = 141.895; timeNextPopSample = 142; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 157
iteration 157; minNextMutationTime = 152; timeNextPopSample = 142; popParams.size() = 2
We are SAMPLING at time 142
*** Looping through 5.2. Iter = 158
iteration 158; minNextMutationTime = 153; timeNextPopSample = 143; popParams.size() = 2
We are SAMPLING at time 143
*** Looping through 5.2. Iter = 159
iteration 159; minNextMutationTime = 154; timeNextPopSample = 144; popParams.size() = 2
We are SAMPLING at time 144
*** Looping through 5.2. Iter = 160
iteration 160; minNextMutationTime = 155; timeNextPopSample = 145; popParams.size() = 2
We are SAMPLING at time 145
*** Looping through 5.2. Iter = 161
iteration 161; minNextMutationTime = 156; timeNextPopSample = 146; popParams.size() = 2
We are SAMPLING at time 146
*** Looping through 5.2. Iter = 162
iteration 162; minNextMutationTime = 157; timeNextPopSample = 147; popParams.size() = 2
We are SAMPLING at time 147
*** Looping through 5.2. Iter = 163
iteration 163; minNextMutationTime = 158; timeNextPopSample = 148; popParams.size() = 2
We are SAMPLING at time 148
*** Looping through 5.2. Iter = 164
iteration 164; minNextMutationTime = 148.65; timeNextPopSample = 149; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 165
iteration 165; minNextMutationTime = 159; timeNextPopSample = 149; popParams.size() = 3
We are SAMPLING at time 149
*** Looping through 5.2. Iter = 166
iteration 166; minNextMutationTime = 160; timeNextPopSample = 150; popParams.size() = 3
We are SAMPLING at time 150
*** Looping through 5.2. Iter = 167
iteration 167; minNextMutationTime = 161; timeNextPopSample = 151; popParams.size() = 3
We are SAMPLING at time 151
*** Looping through 5.2. Iter = 168
iteration 168; minNextMutationTime = 162; timeNextPopSample = 152; popParams.size() = 2
We are SAMPLING at time 152
*** Looping through 5.2. Iter = 169
iteration 169; minNextMutationTime = 163; timeNextPopSample = 153; popParams.size() = 2
We are SAMPLING at time 153
*** Looping through 5.2. Iter = 170
iteration 170; minNextMutationTime = 164; timeNextPopSample = 154; popParams.size() = 1
We are SAMPLING at time 154
*** Looping through 5.2. Iter = 171
iteration 171; minNextMutationTime = 165; timeNextPopSample = 155; popParams.size() = 1
We are SAMPLING at time 155
*** Looping through 5.2. Iter = 172
iteration 172; minNextMutationTime = 166; timeNextPopSample = 156; popParams.size() = 1
We are SAMPLING at time 156
*** Looping through 5.2. Iter = 173
iteration 173; minNextMutationTime = 167; timeNextPopSample = 157; popParams.size() = 1
We are SAMPLING at time 157
*** Looping through 5.2. Iter = 174
iteration 174; minNextMutationTime = 157.14; timeNextPopSample = 158; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 175
iteration 175; minNextMutationTime = 157.689; timeNextPopSample = 158; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 176
iteration 176; minNextMutationTime = 157.878; timeNextPopSample = 158; popParams.size() = 3
Creating new species 3 from species 0
*** Looping through 5.2. Iter = 177
iteration 177; minNextMutationTime = 168; timeNextPopSample = 158; popParams.size() = 4
We are SAMPLING at time 158
*** Looping through 5.2. Iter = 178
iteration 178; minNextMutationTime = 169; timeNextPopSample = 159; popParams.size() = 4
We are SAMPLING at time 159
*** Looping through 5.2. Iter = 179
iteration 179; minNextMutationTime = 159.023; timeNextPopSample = 160; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 180
iteration 180; minNextMutationTime = 170; timeNextPopSample = 160; popParams.size() = 3
We are SAMPLING at time 160
*** Looping through 5.2. Iter = 181
iteration 181; minNextMutationTime = 160.19; timeNextPopSample = 161; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 182
iteration 182; minNextMutationTime = 171; timeNextPopSample = 161; popParams.size() = 2
We are SAMPLING at time 161
*** Looping through 5.2. Iter = 183
iteration 183; minNextMutationTime = 172; timeNextPopSample = 162; popParams.size() = 2
We are SAMPLING at time 162
*** Looping through 5.2. Iter = 184
iteration 184; minNextMutationTime = 173; timeNextPopSample = 163; popParams.size() = 2
We are SAMPLING at time 163
*** Looping through 5.2. Iter = 185
iteration 185; minNextMutationTime = 174; timeNextPopSample = 164; popParams.size() = 2
We are SAMPLING at time 164
*** Looping through 5.2. Iter = 186
iteration 186; minNextMutationTime = 175; timeNextPopSample = 165; popParams.size() = 2
We are SAMPLING at time 165
*** Looping through 5.2. Iter = 187
iteration 187; minNextMutationTime = 176; timeNextPopSample = 166; popParams.size() = 2
We are SAMPLING at time 166
*** Looping through 5.2. Iter = 188
iteration 188; minNextMutationTime = 177; timeNextPopSample = 167; popParams.size() = 2
We are SAMPLING at time 167
*** Looping through 5.2. Iter = 189
iteration 189; minNextMutationTime = 178; timeNextPopSample = 168; popParams.size() = 2
We are SAMPLING at time 168
*** Looping through 5.2. Iter = 190
iteration 190; minNextMutationTime = 179; timeNextPopSample = 169; popParams.size() = 2
We are SAMPLING at time 169
*** Looping through 5.2. Iter = 191
iteration 191; minNextMutationTime = 180; timeNextPopSample = 170; popParams.size() = 2
We are SAMPLING at time 170
*** Looping through 5.2. Iter = 192
iteration 192; minNextMutationTime = 181; timeNextPopSample = 171; popParams.size() = 2
We are SAMPLING at time 171
*** Looping through 5.2. Iter = 193
iteration 193; minNextMutationTime = 182; timeNextPopSample = 172; popParams.size() = 2
We are SAMPLING at time 172
*** Looping through 5.2. Iter = 194
iteration 194; minNextMutationTime = 183; timeNextPopSample = 173; popParams.size() = 2
We are SAMPLING at time 173
*** Looping through 5.2. Iter = 195
iteration 195; minNextMutationTime = 184; timeNextPopSample = 174; popParams.size() = 2
We are SAMPLING at time 174
*** Looping through 5.2. Iter = 196
iteration 196; minNextMutationTime = 185; timeNextPopSample = 175; popParams.size() = 2
We are SAMPLING at time 175
*** Looping through 5.2. Iter = 197
iteration 197; minNextMutationTime = 186; timeNextPopSample = 176; popParams.size() = 2
We are SAMPLING at time 176
*** Looping through 5.2. Iter = 198
iteration 198; minNextMutationTime = 187; timeNextPopSample = 177; popParams.size() = 2
We are SAMPLING at time 177
*** Looping through 5.2. Iter = 199
iteration 199; minNextMutationTime = 188; timeNextPopSample = 178; popParams.size() = 2
We are SAMPLING at time 178
*** Looping through 5.2. Iter = 200
iteration 200; minNextMutationTime = 189; timeNextPopSample = 179; popParams.size() = 2
We are SAMPLING at time 179
*** Looping through 5.2. Iter = 201
iteration 201; minNextMutationTime = 190; timeNextPopSample = 180; popParams.size() = 2
We are SAMPLING at time 180
*** Looping through 5.2. Iter = 202
iteration 202; minNextMutationTime = 191; timeNextPopSample = 181; popParams.size() = 2
We are SAMPLING at time 181
*** Looping through 5.2. Iter = 203
iteration 203; minNextMutationTime = 192; timeNextPopSample = 182; popParams.size() = 2
We are SAMPLING at time 182
*** Looping through 5.2. Iter = 204
iteration 204; minNextMutationTime = 193; timeNextPopSample = 183; popParams.size() = 2
We are SAMPLING at time 183
*** Looping through 5.2. Iter = 205
iteration 205; minNextMutationTime = 183.736; timeNextPopSample = 184; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 206
iteration 206; minNextMutationTime = 194; timeNextPopSample = 184; popParams.size() = 3
We are SAMPLING at time 184
*** Looping through 5.2. Iter = 207
iteration 207; minNextMutationTime = 184.219; timeNextPopSample = 185; popParams.size() = 3
Creating new species 3 from species 0
*** Looping through 5.2. Iter = 208
iteration 208; minNextMutationTime = 195; timeNextPopSample = 185; popParams.size() = 4
We are SAMPLING at time 185
*** Looping through 5.2. Iter = 209
iteration 209; minNextMutationTime = 196; timeNextPopSample = 186; popParams.size() = 3
We are SAMPLING at time 186
*** Looping through 5.2. Iter = 210
iteration 210; minNextMutationTime = 197; timeNextPopSample = 187; popParams.size() = 3
We are SAMPLING at time 187
*** Looping through 5.2. Iter = 211
iteration 211; minNextMutationTime = 198; timeNextPopSample = 188; popParams.size() = 2
We are SAMPLING at time 188
*** Looping through 5.2. Iter = 212
iteration 212; minNextMutationTime = 199; timeNextPopSample = 189; popParams.size() = 2
We are SAMPLING at time 189
*** Looping through 5.2. Iter = 213
iteration 213; minNextMutationTime = 200; timeNextPopSample = 190; popParams.size() = 2
We are SAMPLING at time 190
*** Looping through 5.2. Iter = 214
iteration 214; minNextMutationTime = 201; timeNextPopSample = 191; popParams.size() = 2
We are SAMPLING at time 191
*** Looping through 5.2. Iter = 215
iteration 215; minNextMutationTime = 202; timeNextPopSample = 192; popParams.size() = 2
We are SAMPLING at time 192
*** Looping through 5.2. Iter = 216
iteration 216; minNextMutationTime = 203; timeNextPopSample = 193; popParams.size() = 2
We are SAMPLING at time 193
*** Looping through 5.2. Iter = 217
iteration 217; minNextMutationTime = 204; timeNextPopSample = 194; popParams.size() = 2
We are SAMPLING at time 194
*** Looping through 5.2. Iter = 218
iteration 218; minNextMutationTime = 205; timeNextPopSample = 195; popParams.size() = 2
We are SAMPLING at time 195
*** Looping through 5.2. Iter = 219
iteration 219; minNextMutationTime = 206; timeNextPopSample = 196; popParams.size() = 2
We are SAMPLING at time 196
*** Looping through 5.2. Iter = 220
iteration 220; minNextMutationTime = 207; timeNextPopSample = 197; popParams.size() = 1
We are SAMPLING at time 197
*** Looping through 5.2. Iter = 221
iteration 221; minNextMutationTime = 208; timeNextPopSample = 198; popParams.size() = 1
We are SAMPLING at time 198
*** Looping through 5.2. Iter = 222
iteration 222; minNextMutationTime = 209; timeNextPopSample = 199; popParams.size() = 1
We are SAMPLING at time 199
*** Looping through 5.2. Iter = 223
iteration 223; minNextMutationTime = 210; timeNextPopSample = 200; popParams.size() = 1
We are SAMPLING at time 200
*** Looping through 5.2. Iter = 224
iteration 224; minNextMutationTime = 211; timeNextPopSample = 201; popParams.size() = 1
We are SAMPLING at time 201
*** Looping through 5.2. Iter = 225
iteration 225; minNextMutationTime = 212; timeNextPopSample = 202; popParams.size() = 1
We are SAMPLING at time 202
*** Looping through 5.2. Iter = 226
iteration 226; minNextMutationTime = 213; timeNextPopSample = 203; popParams.size() = 1
We are SAMPLING at time 203
*** Looping through 5.2. Iter = 227
iteration 227; minNextMutationTime = 214; timeNextPopSample = 204; popParams.size() = 1
We are SAMPLING at time 204
*** Looping through 5.2. Iter = 228
iteration 228; minNextMutationTime = 204.52; timeNextPopSample = 205; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 229
iteration 229; minNextMutationTime = 215; timeNextPopSample = 205; popParams.size() = 2
We are SAMPLING at time 205
*** Looping through 5.2. Iter = 230
iteration 230; minNextMutationTime = 216; timeNextPopSample = 206; popParams.size() = 2
We are SAMPLING at time 206
*** Looping through 5.2. Iter = 231
iteration 231; minNextMutationTime = 217; timeNextPopSample = 207; popParams.size() = 2
We are SAMPLING at time 207
*** Looping through 5.2. Iter = 232
iteration 232; minNextMutationTime = 218; timeNextPopSample = 208; popParams.size() = 1
We are SAMPLING at time 208
*** Looping through 5.2. Iter = 233
iteration 233; minNextMutationTime = 219; timeNextPopSample = 209; popParams.size() = 1
We are SAMPLING at time 209
*** Looping through 5.2. Iter = 234
iteration 234; minNextMutationTime = 220; timeNextPopSample = 210; popParams.size() = 1
We are SAMPLING at time 210
*** Looping through 5.2. Iter = 235
iteration 235; minNextMutationTime = 221; timeNextPopSample = 211; popParams.size() = 1
We are SAMPLING at time 211
*** Looping through 5.2. Iter = 236
iteration 236; minNextMutationTime = 222; timeNextPopSample = 212; popParams.size() = 1
We are SAMPLING at time 212
*** Looping through 5.2. Iter = 237
iteration 237; minNextMutationTime = 223; timeNextPopSample = 213; popParams.size() = 1
We are SAMPLING at time 213
*** Looping through 5.2. Iter = 238
iteration 238; minNextMutationTime = 224; timeNextPopSample = 214; popParams.size() = 1
We are SAMPLING at time 214
*** Looping through 5.2. Iter = 239
iteration 239; minNextMutationTime = 214.117; timeNextPopSample = 215; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 240
iteration 240; minNextMutationTime = 225; timeNextPopSample = 215; popParams.size() = 2
We are SAMPLING at time 215
*** Looping through 5.2. Iter = 241
iteration 241; minNextMutationTime = 226; timeNextPopSample = 216; popParams.size() = 2
We are SAMPLING at time 216
*** Looping through 5.2. Iter = 242
iteration 242; minNextMutationTime = 227; timeNextPopSample = 217; popParams.size() = 2
We are SAMPLING at time 217
*** Looping through 5.2. Iter = 243
iteration 243; minNextMutationTime = 228; timeNextPopSample = 218; popParams.size() = 2
We are SAMPLING at time 218
*** Looping through 5.2. Iter = 244
iteration 244; minNextMutationTime = 229; timeNextPopSample = 219; popParams.size() = 2
We are SAMPLING at time 219
*** Looping through 5.2. Iter = 245
iteration 245; minNextMutationTime = 230; timeNextPopSample = 220; popParams.size() = 2
We are SAMPLING at time 220
*** Looping through 5.2. Iter = 246
iteration 246; minNextMutationTime = 231; timeNextPopSample = 221; popParams.size() = 2
We are SAMPLING at time 221
*** Looping through 5.2. Iter = 247
iteration 247; minNextMutationTime = 232; timeNextPopSample = 222; popParams.size() = 2
We are SAMPLING at time 222
*** Looping through 5.2. Iter = 248
iteration 248; minNextMutationTime = 233; timeNextPopSample = 223; popParams.size() = 2
We are SAMPLING at time 223
*** Looping through 5.2. Iter = 249
iteration 249; minNextMutationTime = 234; timeNextPopSample = 224; popParams.size() = 2
We are SAMPLING at time 224
*** Looping through 5.2. Iter = 250
iteration 250; minNextMutationTime = 235; timeNextPopSample = 225; popParams.size() = 1
We are SAMPLING at time 225
*** Looping through 5.2. Iter = 251
iteration 251; minNextMutationTime = 236; timeNextPopSample = 226; popParams.size() = 1
We are SAMPLING at time 226
*** Looping through 5.2. Iter = 252
iteration 252; minNextMutationTime = 237; timeNextPopSample = 227; popParams.size() = 1
We are SAMPLING at time 227
*** Looping through 5.2. Iter = 253
iteration 253; minNextMutationTime = 238; timeNextPopSample = 228; popParams.size() = 1
We are SAMPLING at time 228
*** Looping through 5.2. Iter = 254
iteration 254; minNextMutationTime = 239; timeNextPopSample = 229; popParams.size() = 1
We are SAMPLING at time 229
*** Looping through 5.2. Iter = 255
iteration 255; minNextMutationTime = 229.597; timeNextPopSample = 230; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 256
iteration 256; minNextMutationTime = 240; timeNextPopSample = 230; popParams.size() = 2
We are SAMPLING at time 230
*** Looping through 5.2. Iter = 257
iteration 257; minNextMutationTime = 241; timeNextPopSample = 231; popParams.size() = 2
We are SAMPLING at time 231
*** Looping through 5.2. Iter = 258
iteration 258; minNextMutationTime = 242; timeNextPopSample = 232; popParams.size() = 1
We are SAMPLING at time 232
*** Looping through 5.2. Iter = 259
iteration 259; minNextMutationTime = 243; timeNextPopSample = 233; popParams.size() = 1
We are SAMPLING at time 233
*** Looping through 5.2. Iter = 260
iteration 260; minNextMutationTime = 244; timeNextPopSample = 234; popParams.size() = 1
We are SAMPLING at time 234
*** Looping through 5.2. Iter = 261
iteration 261; minNextMutationTime = 245; timeNextPopSample = 235; popParams.size() = 1
We are SAMPLING at time 235
*** Looping through 5.2. Iter = 262
iteration 262; minNextMutationTime = 246; timeNextPopSample = 236; popParams.size() = 1
We are SAMPLING at time 236
*** Looping through 5.2. Iter = 263
iteration 263; minNextMutationTime = 247; timeNextPopSample = 237; popParams.size() = 1
We are SAMPLING at time 237
*** Looping through 5.2. Iter = 264
iteration 264; minNextMutationTime = 248; timeNextPopSample = 238; popParams.size() = 1
We are SAMPLING at time 238
*** Looping through 5.2. Iter = 265
iteration 265; minNextMutationTime = 249; timeNextPopSample = 239; popParams.size() = 1
We are SAMPLING at time 239
*** Looping through 5.2. Iter = 266
iteration 266; minNextMutationTime = 250; timeNextPopSample = 240; popParams.size() = 1
We are SAMPLING at time 240
*** Looping through 5.2. Iter = 267
iteration 267; minNextMutationTime = 251; timeNextPopSample = 241; popParams.size() = 1
We are SAMPLING at time 241
*** Looping through 5.2. Iter = 268
iteration 268; minNextMutationTime = 252; timeNextPopSample = 242; popParams.size() = 1
We are SAMPLING at time 242
*** Looping through 5.2. Iter = 269
iteration 269; minNextMutationTime = 253; timeNextPopSample = 243; popParams.size() = 1
We are SAMPLING at time 243
*** Looping through 5.2. Iter = 270
iteration 270; minNextMutationTime = 254; timeNextPopSample = 244; popParams.size() = 1
We are SAMPLING at time 244
*** Looping through 5.2. Iter = 271
iteration 271; minNextMutationTime = 255; timeNextPopSample = 245; popParams.size() = 1
We are SAMPLING at time 245
*** Looping through 5.2. Iter = 272
iteration 272; minNextMutationTime = 256; timeNextPopSample = 246; popParams.size() = 1
We are SAMPLING at time 246
*** Looping through 5.2. Iter = 273
iteration 273; minNextMutationTime = 246.805; timeNextPopSample = 247; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 274
iteration 274; minNextMutationTime = 257; timeNextPopSample = 247; popParams.size() = 2
We are SAMPLING at time 247
*** Looping through 5.2. Iter = 275
iteration 275; minNextMutationTime = 258; timeNextPopSample = 248; popParams.size() = 1
We are SAMPLING at time 248
*** Looping through 5.2. Iter = 276
iteration 276; minNextMutationTime = 259; timeNextPopSample = 249; popParams.size() = 1
We are SAMPLING at time 249
*** Looping through 5.2. Iter = 277
iteration 277; minNextMutationTime = 260; timeNextPopSample = 250; popParams.size() = 1
We are SAMPLING at time 250
*** Looping through 5.2. Iter = 278
iteration 278; minNextMutationTime = 261; timeNextPopSample = 251; popParams.size() = 1
We are SAMPLING at time 251
*** Looping through 5.2. Iter = 279
iteration 279; minNextMutationTime = 262; timeNextPopSample = 252; popParams.size() = 1
We are SAMPLING at time 252
*** Looping through 5.2. Iter = 280
iteration 280; minNextMutationTime = 263; timeNextPopSample = 253; popParams.size() = 1
We are SAMPLING at time 253
*** Looping through 5.2. Iter = 281
iteration 281; minNextMutationTime = 253.651; timeNextPopSample = 254; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 282
iteration 282; minNextMutationTime = 264; timeNextPopSample = 254; popParams.size() = 2
We are SAMPLING at time 254
*** Looping through 5.2. Iter = 283
iteration 283; minNextMutationTime = 265; timeNextPopSample = 255; popParams.size() = 1
We are SAMPLING at time 255
*** Looping through 5.2. Iter = 284
iteration 284; minNextMutationTime = 266; timeNextPopSample = 256; popParams.size() = 1
We are SAMPLING at time 256
*** Looping through 5.2. Iter = 285
iteration 285; minNextMutationTime = 267; timeNextPopSample = 257; popParams.size() = 1
We are SAMPLING at time 257
*** Looping through 5.2. Iter = 286
iteration 286; minNextMutationTime = 257.043; timeNextPopSample = 258; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 287
iteration 287; minNextMutationTime = 268; timeNextPopSample = 258; popParams.size() = 2
We are SAMPLING at time 258
*** Looping through 5.2. Iter = 288
iteration 288; minNextMutationTime = 269; timeNextPopSample = 259; popParams.size() = 2
We are SAMPLING at time 259
*** Looping through 5.2. Iter = 289
iteration 289; minNextMutationTime = 270; timeNextPopSample = 260; popParams.size() = 2
We are SAMPLING at time 260
*** Looping through 5.2. Iter = 290
iteration 290; minNextMutationTime = 271; timeNextPopSample = 261; popParams.size() = 2
We are SAMPLING at time 261
*** Looping through 5.2. Iter = 291
iteration 291; minNextMutationTime = 272; timeNextPopSample = 262; popParams.size() = 2
We are SAMPLING at time 262
*** Looping through 5.2. Iter = 292
iteration 292; minNextMutationTime = 273; timeNextPopSample = 263; popParams.size() = 2
We are SAMPLING at time 263
*** Looping through 5.2. Iter = 293
iteration 293; minNextMutationTime = 274; timeNextPopSample = 264; popParams.size() = 2
We are SAMPLING at time 264
*** Looping through 5.2. Iter = 294
iteration 294; minNextMutationTime = 264.958; timeNextPopSample = 265; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 295
iteration 295; minNextMutationTime = 275; timeNextPopSample = 265; popParams.size() = 3
We are SAMPLING at time 265
*** Looping through 5.2. Iter = 296
iteration 296; minNextMutationTime = 276; timeNextPopSample = 266; popParams.size() = 3
We are SAMPLING at time 266
*** Looping through 5.2. Iter = 297
iteration 297; minNextMutationTime = 277; timeNextPopSample = 267; popParams.size() = 2
We are SAMPLING at time 267
*** Looping through 5.2. Iter = 298
iteration 298; minNextMutationTime = 278; timeNextPopSample = 268; popParams.size() = 2
We are SAMPLING at time 268
*** Looping through 5.2. Iter = 299
iteration 299; minNextMutationTime = 279; timeNextPopSample = 269; popParams.size() = 2
We are SAMPLING at time 269
*** Looping through 5.2. Iter = 300
iteration 300; minNextMutationTime = 280; timeNextPopSample = 270; popParams.size() = 2
We are SAMPLING at time 270
*** Looping through 5.2. Iter = 301
iteration 301; minNextMutationTime = 281; timeNextPopSample = 271; popParams.size() = 2
We are SAMPLING at time 271
*** Looping through 5.2. Iter = 302
iteration 302; minNextMutationTime = 282; timeNextPopSample = 272; popParams.size() = 2
We are SAMPLING at time 272
*** Looping through 5.2. Iter = 303
iteration 303; minNextMutationTime = 283; timeNextPopSample = 273; popParams.size() = 2
We are SAMPLING at time 273
*** Looping through 5.2. Iter = 304
iteration 304; minNextMutationTime = 284; timeNextPopSample = 274; popParams.size() = 2
We are SAMPLING at time 274
*** Looping through 5.2. Iter = 305
iteration 305; minNextMutationTime = 285; timeNextPopSample = 275; popParams.size() = 2
We are SAMPLING at time 275
*** Looping through 5.2. Iter = 306
iteration 306; minNextMutationTime = 286; timeNextPopSample = 276; popParams.size() = 2
We are SAMPLING at time 276
*** Looping through 5.2. Iter = 307
iteration 307; minNextMutationTime = 287; timeNextPopSample = 277; popParams.size() = 2
We are SAMPLING at time 277
*** Looping through 5.2. Iter = 308
iteration 308; minNextMutationTime = 288; timeNextPopSample = 278; popParams.size() = 2
We are SAMPLING at time 278
*** Looping through 5.2. Iter = 309
iteration 309; minNextMutationTime = 289; timeNextPopSample = 279; popParams.size() = 2
We are SAMPLING at time 279
*** Looping through 5.2. Iter = 310
iteration 310; minNextMutationTime = 290; timeNextPopSample = 280; popParams.size() = 2
We are SAMPLING at time 280
*** Looping through 5.2. Iter = 311
iteration 311; minNextMutationTime = 291; timeNextPopSample = 281; popParams.size() = 2
We are SAMPLING at time 281
*** Looping through 5.2. Iter = 312
iteration 312; minNextMutationTime = 292; timeNextPopSample = 282; popParams.size() = 2
We are SAMPLING at time 282
*** Looping through 5.2. Iter = 313
iteration 313; minNextMutationTime = 293; timeNextPopSample = 283; popParams.size() = 2
We are SAMPLING at time 283
*** Looping through 5.2. Iter = 314
iteration 314; minNextMutationTime = 294; timeNextPopSample = 284; popParams.size() = 2
We are SAMPLING at time 284
*** Looping through 5.2. Iter = 315
iteration 315; minNextMutationTime = 295; timeNextPopSample = 285; popParams.size() = 2
We are SAMPLING at time 285
*** Looping through 5.2. Iter = 316
iteration 316; minNextMutationTime = 296; timeNextPopSample = 286; popParams.size() = 2
We are SAMPLING at time 286
*** Looping through 5.2. Iter = 317
iteration 317; minNextMutationTime = 297; timeNextPopSample = 287; popParams.size() = 1
We are SAMPLING at time 287
*** Looping through 5.2. Iter = 318
iteration 318; minNextMutationTime = 298; timeNextPopSample = 288; popParams.size() = 1
We are SAMPLING at time 288
*** Looping through 5.2. Iter = 319
iteration 319; minNextMutationTime = 299; timeNextPopSample = 289; popParams.size() = 1
We are SAMPLING at time 289
*** Looping through 5.2. Iter = 320
iteration 320; minNextMutationTime = 289.691; timeNextPopSample = 290; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 321
iteration 321; minNextMutationTime = 300; timeNextPopSample = 290; popParams.size() = 2
We are SAMPLING at time 290
*** Looping through 5.2. Iter = 322
iteration 322; minNextMutationTime = 290.2; timeNextPopSample = 291; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 323
iteration 323; minNextMutationTime = 301; timeNextPopSample = 291; popParams.size() = 3
We are SAMPLING at time 291
*** Looping through 5.2. Iter = 324
iteration 324; minNextMutationTime = 302; timeNextPopSample = 292; popParams.size() = 2
We are SAMPLING at time 292
*** Looping through 5.2. Iter = 325
iteration 325; minNextMutationTime = 303; timeNextPopSample = 293; popParams.size() = 1
We are SAMPLING at time 293
*** Looping through 5.2. Iter = 326
iteration 326; minNextMutationTime = 304; timeNextPopSample = 294; popParams.size() = 1
We are SAMPLING at time 294
*** Looping through 5.2. Iter = 327
iteration 327; minNextMutationTime = 305; timeNextPopSample = 295; popParams.size() = 1
We are SAMPLING at time 295
*** Looping through 5.2. Iter = 328
iteration 328; minNextMutationTime = 306; timeNextPopSample = 296; popParams.size() = 1
We are SAMPLING at time 296
*** Looping through 5.2. Iter = 329
iteration 329; minNextMutationTime = 307; timeNextPopSample = 297; popParams.size() = 1
We are SAMPLING at time 297
*** Looping through 5.2. Iter = 330
iteration 330; minNextMutationTime = 308; timeNextPopSample = 298; popParams.size() = 1
We are SAMPLING at time 298
*** Looping through 5.2. Iter = 331
iteration 331; minNextMutationTime = 298.63; timeNextPopSample = 299; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 332
iteration 332; minNextMutationTime = 309; timeNextPopSample = 299; popParams.size() = 2
We are SAMPLING at time 299
*** Looping through 5.2. Iter = 333
iteration 333; minNextMutationTime = 310; timeNextPopSample = 300; popParams.size() = 2
We are SAMPLING at time 300
*** Looping through 5.2. Iter = 334
iteration 334; minNextMutationTime = 311; timeNextPopSample = 301; popParams.size() = 2
We are SAMPLING at time 301
*** Looping through 5.2. Iter = 335
iteration 335; minNextMutationTime = 312; timeNextPopSample = 302; popParams.size() = 2
We are SAMPLING at time 302
*** Looping through 5.2. Iter = 336
iteration 336; minNextMutationTime = 313; timeNextPopSample = 303; popParams.size() = 1
We are SAMPLING at time 303
*** Looping through 5.2. Iter = 337
iteration 337; minNextMutationTime = 314; timeNextPopSample = 304; popParams.size() = 1
We are SAMPLING at time 304
*** Looping through 5.2. Iter = 338
iteration 338; minNextMutationTime = 304.339; timeNextPopSample = 305; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 339
iteration 339; minNextMutationTime = 315; timeNextPopSample = 305; popParams.size() = 2
We are SAMPLING at time 305
*** Looping through 5.2. Iter = 340
iteration 340; minNextMutationTime = 305.871; timeNextPopSample = 306; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 341
iteration 341; minNextMutationTime = 316; timeNextPopSample = 306; popParams.size() = 2
We are SAMPLING at time 306
*** Looping through 5.2. Iter = 342
iteration 342; minNextMutationTime = 306.671; timeNextPopSample = 307; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 343
iteration 343; minNextMutationTime = 317; timeNextPopSample = 307; popParams.size() = 3
We are SAMPLING at time 307
*** Looping through 5.2. Iter = 344
iteration 344; minNextMutationTime = 307.134; timeNextPopSample = 308; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 345
iteration 345; minNextMutationTime = 307.761; timeNextPopSample = 308; popParams.size() = 3
Creating new species 3 from species 0
*** Looping through 5.2. Iter = 346
iteration 346; minNextMutationTime = 318; timeNextPopSample = 308; popParams.size() = 4
We are SAMPLING at time 308
*** Looping through 5.2. Iter = 347
iteration 347; minNextMutationTime = 319; timeNextPopSample = 309; popParams.size() = 3
We are SAMPLING at time 309
*** Looping through 5.2. Iter = 348
iteration 348; minNextMutationTime = 320; timeNextPopSample = 310; popParams.size() = 3
We are SAMPLING at time 310
*** Looping through 5.2. Iter = 349
iteration 349; minNextMutationTime = 321; timeNextPopSample = 311; popParams.size() = 2
We are SAMPLING at time 311
*** Looping through 5.2. Iter = 350
iteration 350; minNextMutationTime = 322; timeNextPopSample = 312; popParams.size() = 2
We are SAMPLING at time 312
*** Looping through 5.2. Iter = 351
iteration 351; minNextMutationTime = 323; timeNextPopSample = 313; popParams.size() = 2
We are SAMPLING at time 313
*** Looping through 5.2. Iter = 352
iteration 352; minNextMutationTime = 324; timeNextPopSample = 314; popParams.size() = 1
We are SAMPLING at time 314
*** Looping through 5.2. Iter = 353
iteration 353; minNextMutationTime = 314.403; timeNextPopSample = 315; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 354
iteration 354; minNextMutationTime = 325; timeNextPopSample = 315; popParams.size() = 2
We are SAMPLING at time 315
*** Looping through 5.2. Iter = 355
iteration 355; minNextMutationTime = 326; timeNextPopSample = 316; popParams.size() = 2
We are SAMPLING at time 316
*** Looping through 5.2. Iter = 356
iteration 356; minNextMutationTime = 327; timeNextPopSample = 317; popParams.size() = 2
We are SAMPLING at time 317
*** Looping through 5.2. Iter = 357
iteration 357; minNextMutationTime = 328; timeNextPopSample = 318; popParams.size() = 1
We are SAMPLING at time 318
*** Looping through 5.2. Iter = 358
iteration 358; minNextMutationTime = 329; timeNextPopSample = 319; popParams.size() = 1
We are SAMPLING at time 319
*** Looping through 5.2. Iter = 359
iteration 359; minNextMutationTime = 319.208; timeNextPopSample = 320; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 360
iteration 360; minNextMutationTime = 330; timeNextPopSample = 320; popParams.size() = 2
We are SAMPLING at time 320
*** Looping through 5.2. Iter = 361
iteration 361; minNextMutationTime = 331; timeNextPopSample = 321; popParams.size() = 2
We are SAMPLING at time 321
*** Looping through 5.2. Iter = 362
iteration 362; minNextMutationTime = 332; timeNextPopSample = 322; popParams.size() = 2
We are SAMPLING at time 322
*** Looping through 5.2. Iter = 363
iteration 363; minNextMutationTime = 333; timeNextPopSample = 323; popParams.size() = 2
We are SAMPLING at time 323
*** Looping through 5.2. Iter = 364
iteration 364; minNextMutationTime = 334; timeNextPopSample = 324; popParams.size() = 2
We are SAMPLING at time 324
*** Looping through 5.2. Iter = 365
iteration 365; minNextMutationTime = 335; timeNextPopSample = 325; popParams.size() = 2
We are SAMPLING at time 325
*** Looping through 5.2. Iter = 366
iteration 366; minNextMutationTime = 336; timeNextPopSample = 326; popParams.size() = 2
We are SAMPLING at time 326
*** Looping through 5.2. Iter = 367
iteration 367; minNextMutationTime = 337; timeNextPopSample = 327; popParams.size() = 2
We are SAMPLING at time 327
*** Looping through 5.2. Iter = 368
iteration 368; minNextMutationTime = 338; timeNextPopSample = 328; popParams.size() = 2
We are SAMPLING at time 328
*** Looping through 5.2. Iter = 369
iteration 369; minNextMutationTime = 339; timeNextPopSample = 329; popParams.size() = 2
We are SAMPLING at time 329
*** Looping through 5.2. Iter = 370
iteration 370; minNextMutationTime = 340; timeNextPopSample = 330; popParams.size() = 2
We are SAMPLING at time 330
*** Looping through 5.2. Iter = 371
iteration 371; minNextMutationTime = 341; timeNextPopSample = 331; popParams.size() = 1
We are SAMPLING at time 331
*** Looping through 5.2. Iter = 372
iteration 372; minNextMutationTime = 342; timeNextPopSample = 332; popParams.size() = 1
We are SAMPLING at time 332
*** Looping through 5.2. Iter = 373
iteration 373; minNextMutationTime = 343; timeNextPopSample = 333; popParams.size() = 1
We are SAMPLING at time 333
*** Looping through 5.2. Iter = 374
iteration 374; minNextMutationTime = 344; timeNextPopSample = 334; popParams.size() = 1
We are SAMPLING at time 334
*** Looping through 5.2. Iter = 375
iteration 375; minNextMutationTime = 345; timeNextPopSample = 335; popParams.size() = 1
We are SAMPLING at time 335
*** Looping through 5.2. Iter = 376
iteration 376; minNextMutationTime = 335.414; timeNextPopSample = 336; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 377
iteration 377; minNextMutationTime = 346; timeNextPopSample = 336; popParams.size() = 2
We are SAMPLING at time 336
*** Looping through 5.2. Iter = 378
iteration 378; minNextMutationTime = 347; timeNextPopSample = 337; popParams.size() = 1
We are SAMPLING at time 337
*** Looping through 5.2. Iter = 379
iteration 379; minNextMutationTime = 348; timeNextPopSample = 338; popParams.size() = 1
We are SAMPLING at time 338
*** Looping through 5.2. Iter = 380
iteration 380; minNextMutationTime = 349; timeNextPopSample = 339; popParams.size() = 1
We are SAMPLING at time 339
*** Looping through 5.2. Iter = 381
iteration 381; minNextMutationTime = 350; timeNextPopSample = 340; popParams.size() = 1
We are SAMPLING at time 340
*** Looping through 5.2. Iter = 382
iteration 382; minNextMutationTime = 351; timeNextPopSample = 341; popParams.size() = 1
We are SAMPLING at time 341
*** Looping through 5.2. Iter = 383
iteration 383; minNextMutationTime = 352; timeNextPopSample = 342; popParams.size() = 1
We are SAMPLING at time 342
*** Looping through 5.2. Iter = 384
iteration 384; minNextMutationTime = 353; timeNextPopSample = 343; popParams.size() = 1
We are SAMPLING at time 343
*** Looping through 5.2. Iter = 385
iteration 385; minNextMutationTime = 354; timeNextPopSample = 344; popParams.size() = 1
We are SAMPLING at time 344
*** Looping through 5.2. Iter = 386
iteration 386; minNextMutationTime = 355; timeNextPopSample = 345; popParams.size() = 1
We are SAMPLING at time 345
*** Looping through 5.2. Iter = 387
iteration 387; minNextMutationTime = 356; timeNextPopSample = 346; popParams.size() = 1
We are SAMPLING at time 346
*** Looping through 5.2. Iter = 388
iteration 388; minNextMutationTime = 357; timeNextPopSample = 347; popParams.size() = 1
We are SAMPLING at time 347
*** Looping through 5.2. Iter = 389
iteration 389; minNextMutationTime = 358; timeNextPopSample = 348; popParams.size() = 1
We are SAMPLING at time 348
*** Looping through 5.2. Iter = 390
iteration 390; minNextMutationTime = 359; timeNextPopSample = 349; popParams.size() = 1
We are SAMPLING at time 349
*** Looping through 5.2. Iter = 391
iteration 391; minNextMutationTime = 360; timeNextPopSample = 350; popParams.size() = 1
We are SAMPLING at time 350
*** Looping through 5.2. Iter = 392
iteration 392; minNextMutationTime = 361; timeNextPopSample = 351; popParams.size() = 1
We are SAMPLING at time 351
*** Looping through 5.2. Iter = 393
iteration 393; minNextMutationTime = 362; timeNextPopSample = 352; popParams.size() = 1
We are SAMPLING at time 352
*** Looping through 5.2. Iter = 394
iteration 394; minNextMutationTime = 363; timeNextPopSample = 353; popParams.size() = 1
We are SAMPLING at time 353
*** Looping through 5.2. Iter = 395
iteration 395; minNextMutationTime = 364; timeNextPopSample = 354; popParams.size() = 1
We are SAMPLING at time 354
*** Looping through 5.2. Iter = 396
iteration 396; minNextMutationTime = 365; timeNextPopSample = 355; popParams.size() = 1
We are SAMPLING at time 355
*** Looping through 5.2. Iter = 397
iteration 397; minNextMutationTime = 366; timeNextPopSample = 356; popParams.size() = 1
We are SAMPLING at time 356
*** Looping through 5.2. Iter = 398
iteration 398; minNextMutationTime = 367; timeNextPopSample = 357; popParams.size() = 1
We are SAMPLING at time 357
*** Looping through 5.2. Iter = 399
iteration 399; minNextMutationTime = 368; timeNextPopSample = 358; popParams.size() = 1
We are SAMPLING at time 358
*** Looping through 5.2. Iter = 400
iteration 400; minNextMutationTime = 369; timeNextPopSample = 359; popParams.size() = 1
We are SAMPLING at time 359
*** Looping through 5.2. Iter = 401
iteration 401; minNextMutationTime = 370; timeNextPopSample = 360; popParams.size() = 1
We are SAMPLING at time 360
*** Looping through 5.2. Iter = 402
iteration 402; minNextMutationTime = 371; timeNextPopSample = 361; popParams.size() = 1
We are SAMPLING at time 361
*** Looping through 5.2. Iter = 403
iteration 403; minNextMutationTime = 372; timeNextPopSample = 362; popParams.size() = 1
We are SAMPLING at time 362
*** Looping through 5.2. Iter = 404
iteration 404; minNextMutationTime = 373; timeNextPopSample = 363; popParams.size() = 1
We are SAMPLING at time 363
*** Looping through 5.2. Iter = 405
iteration 405; minNextMutationTime = 374; timeNextPopSample = 364; popParams.size() = 1
We are SAMPLING at time 364
*** Looping through 5.2. Iter = 406
iteration 406; minNextMutationTime = 364.118; timeNextPopSample = 365; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 407
iteration 407; minNextMutationTime = 375; timeNextPopSample = 365; popParams.size() = 2
We are SAMPLING at time 365
*** Looping through 5.2. Iter = 408
iteration 408; minNextMutationTime = 376; timeNextPopSample = 366; popParams.size() = 2
We are SAMPLING at time 366
*** Looping through 5.2. Iter = 409
iteration 409; minNextMutationTime = 377; timeNextPopSample = 367; popParams.size() = 1
We are SAMPLING at time 367
*** Looping through 5.2. Iter = 410
iteration 410; minNextMutationTime = 378; timeNextPopSample = 368; popParams.size() = 1
We are SAMPLING at time 368
*** Looping through 5.2. Iter = 411
iteration 411; minNextMutationTime = 379; timeNextPopSample = 369; popParams.size() = 1
We are SAMPLING at time 369
*** Looping through 5.2. Iter = 412
iteration 412; minNextMutationTime = 380; timeNextPopSample = 370; popParams.size() = 1
We are SAMPLING at time 370
*** Looping through 5.2. Iter = 413
iteration 413; minNextMutationTime = 381; timeNextPopSample = 371; popParams.size() = 1
We are SAMPLING at time 371
*** Looping through 5.2. Iter = 414
iteration 414; minNextMutationTime = 382; timeNextPopSample = 372; popParams.size() = 1
We are SAMPLING at time 372
*** Looping through 5.2. Iter = 415
iteration 415; minNextMutationTime = 383; timeNextPopSample = 373; popParams.size() = 1
We are SAMPLING at time 373
*** Looping through 5.2. Iter = 416
iteration 416; minNextMutationTime = 384; timeNextPopSample = 374; popParams.size() = 1
We are SAMPLING at time 374
*** Looping through 5.2. Iter = 417
iteration 417; minNextMutationTime = 385; timeNextPopSample = 375; popParams.size() = 1
We are SAMPLING at time 375
*** Looping through 5.2. Iter = 418
iteration 418; minNextMutationTime = 375.289; timeNextPopSample = 376; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 419
iteration 419; minNextMutationTime = 386; timeNextPopSample = 376; popParams.size() = 2
We are SAMPLING at time 376
*** Looping through 5.2. Iter = 420
iteration 420; minNextMutationTime = 387; timeNextPopSample = 377; popParams.size() = 2
We are SAMPLING at time 377
*** Looping through 5.2. Iter = 421
iteration 421; minNextMutationTime = 388; timeNextPopSample = 378; popParams.size() = 2
We are SAMPLING at time 378
*** Looping through 5.2. Iter = 422
iteration 422; minNextMutationTime = 389; timeNextPopSample = 379; popParams.size() = 1
We are SAMPLING at time 379
*** Looping through 5.2. Iter = 423
iteration 423; minNextMutationTime = 390; timeNextPopSample = 380; popParams.size() = 1
We are SAMPLING at time 380
*** Looping through 5.2. Iter = 424
iteration 424; minNextMutationTime = 391; timeNextPopSample = 381; popParams.size() = 1
We are SAMPLING at time 381
*** Looping through 5.2. Iter = 425
iteration 425; minNextMutationTime = 392; timeNextPopSample = 382; popParams.size() = 1
We are SAMPLING at time 382
*** Looping through 5.2. Iter = 426
iteration 426; minNextMutationTime = 393; timeNextPopSample = 383; popParams.size() = 1
We are SAMPLING at time 383
*** Looping through 5.2. Iter = 427
iteration 427; minNextMutationTime = 394; timeNextPopSample = 384; popParams.size() = 1
We are SAMPLING at time 384
*** Looping through 5.2. Iter = 428
iteration 428; minNextMutationTime = 395; timeNextPopSample = 385; popParams.size() = 1
We are SAMPLING at time 385
*** Looping through 5.2. Iter = 429
iteration 429; minNextMutationTime = 396; timeNextPopSample = 386; popParams.size() = 1
We are SAMPLING at time 386
*** Looping through 5.2. Iter = 430
iteration 430; minNextMutationTime = 397; timeNextPopSample = 387; popParams.size() = 1
We are SAMPLING at time 387
*** Looping through 5.2. Iter = 431
iteration 431; minNextMutationTime = 398; timeNextPopSample = 388; popParams.size() = 1
We are SAMPLING at time 388
*** Looping through 5.2. Iter = 432
iteration 432; minNextMutationTime = 399; timeNextPopSample = 389; popParams.size() = 1
We are SAMPLING at time 389
*** Looping through 5.2. Iter = 433
iteration 433; minNextMutationTime = 389.199; timeNextPopSample = 390; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 434
iteration 434; minNextMutationTime = 400; timeNextPopSample = 390; popParams.size() = 2
We are SAMPLING at time 390
*** Looping through 5.2. Iter = 435
iteration 435; minNextMutationTime = 401; timeNextPopSample = 391; popParams.size() = 2
We are SAMPLING at time 391
*** Looping through 5.2. Iter = 436
iteration 436; minNextMutationTime = 402; timeNextPopSample = 392; popParams.size() = 1
We are SAMPLING at time 392
*** Looping through 5.2. Iter = 437
iteration 437; minNextMutationTime = 403; timeNextPopSample = 393; popParams.size() = 1
We are SAMPLING at time 393
*** Looping through 5.2. Iter = 438
iteration 438; minNextMutationTime = 404; timeNextPopSample = 394; popParams.size() = 1
We are SAMPLING at time 394
*** Looping through 5.2. Iter = 439
iteration 439; minNextMutationTime = 405; timeNextPopSample = 395; popParams.size() = 1
We are SAMPLING at time 395
*** Looping through 5.2. Iter = 440
iteration 440; minNextMutationTime = 406; timeNextPopSample = 396; popParams.size() = 1
We are SAMPLING at time 396
*** Looping through 5.2. Iter = 441
iteration 441; minNextMutationTime = 407; timeNextPopSample = 397; popParams.size() = 1
We are SAMPLING at time 397
*** Looping through 5.2. Iter = 442
iteration 442; minNextMutationTime = 397.439; timeNextPopSample = 398; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 443
iteration 443; minNextMutationTime = 408; timeNextPopSample = 398; popParams.size() = 2
We are SAMPLING at time 398
*** Looping through 5.2. Iter = 444
iteration 444; minNextMutationTime = 409; timeNextPopSample = 399; popParams.size() = 1
We are SAMPLING at time 399
*** Looping through 5.2. Iter = 445
iteration 445; minNextMutationTime = 410; timeNextPopSample = 400; popParams.size() = 1
We are SAMPLING at time 400
*** Looping through 5.2. Iter = 446
iteration 446; minNextMutationTime = 411; timeNextPopSample = 401; popParams.size() = 1
We are SAMPLING at time 401
*** Looping through 5.2. Iter = 447
iteration 447; minNextMutationTime = 412; timeNextPopSample = 402; popParams.size() = 1
We are SAMPLING at time 402
*** Looping through 5.2. Iter = 448
iteration 448; minNextMutationTime = 413; timeNextPopSample = 403; popParams.size() = 1
We are SAMPLING at time 403
*** Looping through 5.2. Iter = 449
iteration 449; minNextMutationTime = 414; timeNextPopSample = 404; popParams.size() = 1
We are SAMPLING at time 404
*** Looping through 5.2. Iter = 450
iteration 450; minNextMutationTime = 415; timeNextPopSample = 405; popParams.size() = 1
We are SAMPLING at time 405
*** Looping through 5.2. Iter = 451
iteration 451; minNextMutationTime = 416; timeNextPopSample = 406; popParams.size() = 1
We are SAMPLING at time 406
*** Looping through 5.2. Iter = 452
iteration 452; minNextMutationTime = 417; timeNextPopSample = 407; popParams.size() = 1
We are SAMPLING at time 407
*** Looping through 5.2. Iter = 453
iteration 453; minNextMutationTime = 418; timeNextPopSample = 408; popParams.size() = 1
We are SAMPLING at time 408
*** Looping through 5.2. Iter = 454
iteration 454; minNextMutationTime = 419; timeNextPopSample = 409; popParams.size() = 1
We are SAMPLING at time 409
*** Looping through 5.2. Iter = 455
iteration 455; minNextMutationTime = 420; timeNextPopSample = 410; popParams.size() = 1
We are SAMPLING at time 410
*** Looping through 5.2. Iter = 456
iteration 456; minNextMutationTime = 421; timeNextPopSample = 411; popParams.size() = 1
We are SAMPLING at time 411
*** Looping through 5.2. Iter = 457
iteration 457; minNextMutationTime = 422; timeNextPopSample = 412; popParams.size() = 1
We are SAMPLING at time 412
*** Looping through 5.2. Iter = 458
iteration 458; minNextMutationTime = 423; timeNextPopSample = 413; popParams.size() = 1
We are SAMPLING at time 413
*** Looping through 5.2. Iter = 459
iteration 459; minNextMutationTime = 424; timeNextPopSample = 414; popParams.size() = 1
We are SAMPLING at time 414
*** Looping through 5.2. Iter = 460
iteration 460; minNextMutationTime = 414.539; timeNextPopSample = 415; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 461
iteration 461; minNextMutationTime = 425; timeNextPopSample = 415; popParams.size() = 2
We are SAMPLING at time 415
*** Looping through 5.2. Iter = 462
iteration 462; minNextMutationTime = 426; timeNextPopSample = 416; popParams.size() = 2
We are SAMPLING at time 416
*** Looping through 5.2. Iter = 463
iteration 463; minNextMutationTime = 427; timeNextPopSample = 417; popParams.size() = 1
We are SAMPLING at time 417
*** Looping through 5.2. Iter = 464
iteration 464; minNextMutationTime = 428; timeNextPopSample = 418; popParams.size() = 1
We are SAMPLING at time 418
*** Looping through 5.2. Iter = 465
iteration 465; minNextMutationTime = 429; timeNextPopSample = 419; popParams.size() = 1
We are SAMPLING at time 419
*** Looping through 5.2. Iter = 466
iteration 466; minNextMutationTime = 430; timeNextPopSample = 420; popParams.size() = 1
We are SAMPLING at time 420
*** Looping through 5.2. Iter = 467
iteration 467; minNextMutationTime = 431; timeNextPopSample = 421; popParams.size() = 1
We are SAMPLING at time 421
*** Looping through 5.2. Iter = 468
iteration 468; minNextMutationTime = 432; timeNextPopSample = 422; popParams.size() = 1
We are SAMPLING at time 422
*** Looping through 5.2. Iter = 469
iteration 469; minNextMutationTime = 433; timeNextPopSample = 423; popParams.size() = 1
We are SAMPLING at time 423
*** Looping through 5.2. Iter = 470
iteration 470; minNextMutationTime = 434; timeNextPopSample = 424; popParams.size() = 1
We are SAMPLING at time 424
*** Looping through 5.2. Iter = 471
iteration 471; minNextMutationTime = 435; timeNextPopSample = 425; popParams.size() = 1
We are SAMPLING at time 425
*** Looping through 5.2. Iter = 472
iteration 472; minNextMutationTime = 436; timeNextPopSample = 426; popParams.size() = 1
We are SAMPLING at time 426
*** Looping through 5.2. Iter = 473
iteration 473; minNextMutationTime = 437; timeNextPopSample = 427; popParams.size() = 1
We are SAMPLING at time 427
*** Looping through 5.2. Iter = 474
iteration 474; minNextMutationTime = 438; timeNextPopSample = 428; popParams.size() = 1
We are SAMPLING at time 428
*** Looping through 5.2. Iter = 475
iteration 475; minNextMutationTime = 439; timeNextPopSample = 429; popParams.size() = 1
We are SAMPLING at time 429
*** Looping through 5.2. Iter = 476
iteration 476; minNextMutationTime = 440; timeNextPopSample = 430; popParams.size() = 1
We are SAMPLING at time 430
*** Looping through 5.2. Iter = 477
iteration 477; minNextMutationTime = 441; timeNextPopSample = 431; popParams.size() = 1
We are SAMPLING at time 431
*** Looping through 5.2. Iter = 478
iteration 478; minNextMutationTime = 442; timeNextPopSample = 432; popParams.size() = 1
We are SAMPLING at time 432
*** Looping through 5.2. Iter = 479
iteration 479; minNextMutationTime = 443; timeNextPopSample = 433; popParams.size() = 1
We are SAMPLING at time 433
*** Looping through 5.2. Iter = 480
iteration 480; minNextMutationTime = 444; timeNextPopSample = 434; popParams.size() = 1
We are SAMPLING at time 434
*** Looping through 5.2. Iter = 481
iteration 481; minNextMutationTime = 445; timeNextPopSample = 435; popParams.size() = 1
We are SAMPLING at time 435
*** Looping through 5.2. Iter = 482
iteration 482; minNextMutationTime = 446; timeNextPopSample = 436; popParams.size() = 1
We are SAMPLING at time 436
*** Looping through 5.2. Iter = 483
iteration 483; minNextMutationTime = 447; timeNextPopSample = 437; popParams.size() = 1
We are SAMPLING at time 437
*** Looping through 5.2. Iter = 484
iteration 484; minNextMutationTime = 448; timeNextPopSample = 438; popParams.size() = 1
We are SAMPLING at time 438
*** Looping through 5.2. Iter = 485
iteration 485; minNextMutationTime = 449; timeNextPopSample = 439; popParams.size() = 1
We are SAMPLING at time 439
*** Looping through 5.2. Iter = 486
iteration 486; minNextMutationTime = 450; timeNextPopSample = 440; popParams.size() = 1
We are SAMPLING at time 440
*** Looping through 5.2. Iter = 487
iteration 487; minNextMutationTime = 451; timeNextPopSample = 441; popParams.size() = 1
We are SAMPLING at time 441
*** Looping through 5.2. Iter = 488
iteration 488; minNextMutationTime = 452; timeNextPopSample = 442; popParams.size() = 1
We are SAMPLING at time 442
*** Looping through 5.2. Iter = 489
iteration 489; minNextMutationTime = 453; timeNextPopSample = 443; popParams.size() = 1
We are SAMPLING at time 443
*** Looping through 5.2. Iter = 490
iteration 490; minNextMutationTime = 454; timeNextPopSample = 444; popParams.size() = 1
We are SAMPLING at time 444
*** Looping through 5.2. Iter = 491
iteration 491; minNextMutationTime = 455; timeNextPopSample = 445; popParams.size() = 1
We are SAMPLING at time 445
*** Looping through 5.2. Iter = 492
iteration 492; minNextMutationTime = 456; timeNextPopSample = 446; popParams.size() = 1
We are SAMPLING at time 446
*** Looping through 5.2. Iter = 493
iteration 493; minNextMutationTime = 457; timeNextPopSample = 447; popParams.size() = 1
We are SAMPLING at time 447
*** Looping through 5.2. Iter = 494
iteration 494; minNextMutationTime = 458; timeNextPopSample = 448; popParams.size() = 1
We are SAMPLING at time 448
*** Looping through 5.2. Iter = 495
iteration 495; minNextMutationTime = 459; timeNextPopSample = 449; popParams.size() = 1
We are SAMPLING at time 449
*** Looping through 5.2. Iter = 496
iteration 496; minNextMutationTime = 460; timeNextPopSample = 450; popParams.size() = 1
We are SAMPLING at time 450
*** Looping through 5.2. Iter = 497
iteration 497; minNextMutationTime = 461; timeNextPopSample = 451; popParams.size() = 1
We are SAMPLING at time 451
*** Looping through 5.2. Iter = 498
iteration 498; minNextMutationTime = 462; timeNextPopSample = 452; popParams.size() = 1
We are SAMPLING at time 452
*** Looping through 5.2. Iter = 499
iteration 499; minNextMutationTime = 463; timeNextPopSample = 453; popParams.size() = 1
We are SAMPLING at time 453
*** Looping through 5.2. Iter = 500
iteration 500; minNextMutationTime = 464; timeNextPopSample = 454; popParams.size() = 1
We are SAMPLING at time 454
*** Looping through 5.2. Iter = 501
iteration 501; minNextMutationTime = 465; timeNextPopSample = 455; popParams.size() = 1
We are SAMPLING at time 455
*** Looping through 5.2. Iter = 502
iteration 502; minNextMutationTime = 466; timeNextPopSample = 456; popParams.size() = 1
We are SAMPLING at time 456
*** Looping through 5.2. Iter = 503
iteration 503; minNextMutationTime = 467; timeNextPopSample = 457; popParams.size() = 1
We are SAMPLING at time 457
*** Looping through 5.2. Iter = 504
iteration 504; minNextMutationTime = 468; timeNextPopSample = 458; popParams.size() = 1
We are SAMPLING at time 458
*** Looping through 5.2. Iter = 505
iteration 505; minNextMutationTime = 469; timeNextPopSample = 459; popParams.size() = 1
We are SAMPLING at time 459
*** Looping through 5.2. Iter = 506
iteration 506; minNextMutationTime = 470; timeNextPopSample = 460; popParams.size() = 1
We are SAMPLING at time 460
*** Looping through 5.2. Iter = 507
iteration 507; minNextMutationTime = 471; timeNextPopSample = 461; popParams.size() = 1
We are SAMPLING at time 461
*** Looping through 5.2. Iter = 508
iteration 508; minNextMutationTime = 472; timeNextPopSample = 462; popParams.size() = 1
We are SAMPLING at time 462
*** Looping through 5.2. Iter = 509
iteration 509; minNextMutationTime = 473; timeNextPopSample = 463; popParams.size() = 1
We are SAMPLING at time 463
*** Looping through 5.2. Iter = 510
iteration 510; minNextMutationTime = 474; timeNextPopSample = 464; popParams.size() = 1
We are SAMPLING at time 464
*** Looping through 5.2. Iter = 511
iteration 511; minNextMutationTime = 475; timeNextPopSample = 465; popParams.size() = 1
We are SAMPLING at time 465
*** Looping through 5.2. Iter = 512
iteration 512; minNextMutationTime = 476; timeNextPopSample = 466; popParams.size() = 1
We are SAMPLING at time 466
*** Looping through 5.2. Iter = 513
iteration 513; minNextMutationTime = 477; timeNextPopSample = 467; popParams.size() = 1
We are SAMPLING at time 467
*** Looping through 5.2. Iter = 514
iteration 514; minNextMutationTime = 478; timeNextPopSample = 468; popParams.size() = 1
We are SAMPLING at time 468
*** Looping through 5.2. Iter = 515
iteration 515; minNextMutationTime = 479; timeNextPopSample = 469; popParams.size() = 1
We are SAMPLING at time 469
*** Looping through 5.2. Iter = 516
iteration 516; minNextMutationTime = 480; timeNextPopSample = 470; popParams.size() = 1
We are SAMPLING at time 470
*** Looping through 5.2. Iter = 517
iteration 517; minNextMutationTime = 481; timeNextPopSample = 471; popParams.size() = 1
We are SAMPLING at time 471
*** Looping through 5.2. Iter = 518
iteration 518; minNextMutationTime = 482; timeNextPopSample = 472; popParams.size() = 1
We are SAMPLING at time 472
*** Looping through 5.2. Iter = 519
iteration 519; minNextMutationTime = 483; timeNextPopSample = 473; popParams.size() = 1
We are SAMPLING at time 473
*** Looping through 5.2. Iter = 520
iteration 520; minNextMutationTime = 484; timeNextPopSample = 474; popParams.size() = 1
We are SAMPLING at time 474
*** Looping through 5.2. Iter = 521
iteration 521; minNextMutationTime = 474.208; timeNextPopSample = 475; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 522
iteration 522; minNextMutationTime = 485; timeNextPopSample = 475; popParams.size() = 2
We are SAMPLING at time 475
*** Looping through 5.2. Iter = 523
iteration 523; minNextMutationTime = 486; timeNextPopSample = 476; popParams.size() = 1
We are SAMPLING at time 476
*** Looping through 5.2. Iter = 524
iteration 524; minNextMutationTime = 487; timeNextPopSample = 477; popParams.size() = 1
We are SAMPLING at time 477
*** Looping through 5.2. Iter = 525
iteration 525; minNextMutationTime = 488; timeNextPopSample = 478; popParams.size() = 1
We are SAMPLING at time 478
*** Looping through 5.2. Iter = 526
iteration 526; minNextMutationTime = 489; timeNextPopSample = 479; popParams.size() = 1
We are SAMPLING at time 479
*** Looping through 5.2. Iter = 527
iteration 527; minNextMutationTime = 490; timeNextPopSample = 480; popParams.size() = 1
We are SAMPLING at time 480
*** Looping through 5.2. Iter = 528
iteration 528; minNextMutationTime = 491; timeNextPopSample = 481; popParams.size() = 1
We are SAMPLING at time 481
*** Looping through 5.2. Iter = 529
iteration 529; minNextMutationTime = 492; timeNextPopSample = 482; popParams.size() = 1
We are SAMPLING at time 482
*** Looping through 5.2. Iter = 530
iteration 530; minNextMutationTime = 493; timeNextPopSample = 483; popParams.size() = 1
We are SAMPLING at time 483
*** Looping through 5.2. Iter = 531
iteration 531; minNextMutationTime = 494; timeNextPopSample = 484; popParams.size() = 1
We are SAMPLING at time 484
*** Looping through 5.2. Iter = 532
iteration 532; minNextMutationTime = 495; timeNextPopSample = 485; popParams.size() = 1
We are SAMPLING at time 485
*** Looping through 5.2. Iter = 533
iteration 533; minNextMutationTime = 496; timeNextPopSample = 486; popParams.size() = 1
We are SAMPLING at time 486
*** Looping through 5.2. Iter = 534
iteration 534; minNextMutationTime = 497; timeNextPopSample = 487; popParams.size() = 1
We are SAMPLING at time 487
*** Looping through 5.2. Iter = 535
iteration 535; minNextMutationTime = 498; timeNextPopSample = 488; popParams.size() = 1
We are SAMPLING at time 488
*** Looping through 5.2. Iter = 536
iteration 536; minNextMutationTime = 499; timeNextPopSample = 489; popParams.size() = 1
We are SAMPLING at time 489
*** Looping through 5.2. Iter = 537
iteration 537; minNextMutationTime = 500; timeNextPopSample = 490; popParams.size() = 1
We are SAMPLING at time 490
*** Looping through 5.2. Iter = 538
iteration 538; minNextMutationTime = 501; timeNextPopSample = 491; popParams.size() = 1
We are SAMPLING at time 491
*** Looping through 5.2. Iter = 539
iteration 539; minNextMutationTime = 502; timeNextPopSample = 492; popParams.size() = 1
We are SAMPLING at time 492
*** Looping through 5.2. Iter = 540
iteration 540; minNextMutationTime = 503; timeNextPopSample = 493; popParams.size() = 1
We are SAMPLING at time 493
*** Looping through 5.2. Iter = 541
iteration 541; minNextMutationTime = 504; timeNextPopSample = 494; popParams.size() = 1
We are SAMPLING at time 494
*** Looping through 5.2. Iter = 542
iteration 542; minNextMutationTime = 505; timeNextPopSample = 495; popParams.size() = 1
We are SAMPLING at time 495
*** Looping through 5.2. Iter = 543
iteration 543; minNextMutationTime = 506; timeNextPopSample = 496; popParams.size() = 1
We are SAMPLING at time 496
*** Looping through 5.2. Iter = 544
iteration 544; minNextMutationTime = 507; timeNextPopSample = 497; popParams.size() = 1
We are SAMPLING at time 497
*** Looping through 5.2. Iter = 545
iteration 545; minNextMutationTime = 508; timeNextPopSample = 498; popParams.size() = 1
We are SAMPLING at time 498
*** Looping through 5.2. Iter = 546
iteration 546; minNextMutationTime = 509; timeNextPopSample = 499; popParams.size() = 1
We are SAMPLING at time 499
*** Looping through 5.2. Iter = 547
iteration 547; minNextMutationTime = 510; timeNextPopSample = 500; popParams.size() = 1
We are SAMPLING at time 500
*** Looping through 5.2. Iter = 548
iteration 548; minNextMutationTime = 511; timeNextPopSample = 501; popParams.size() = 1
We are SAMPLING at time 501
*** Looping through 5.2. Iter = 549
iteration 549; minNextMutationTime = 512; timeNextPopSample = 502; popParams.size() = 1
We are SAMPLING at time 502
*** Looping through 5.2. Iter = 550
iteration 550; minNextMutationTime = 513; timeNextPopSample = 503; popParams.size() = 1
We are SAMPLING at time 503
*** Looping through 5.2. Iter = 551
iteration 551; minNextMutationTime = 514; timeNextPopSample = 504; popParams.size() = 1
We are SAMPLING at time 504
*** Looping through 5.2. Iter = 552
iteration 552; minNextMutationTime = 515; timeNextPopSample = 505; popParams.size() = 1
We are SAMPLING at time 505
*** Looping through 5.2. Iter = 553
iteration 553; minNextMutationTime = 516; timeNextPopSample = 506; popParams.size() = 1
We are SAMPLING at time 506
*** Looping through 5.2. Iter = 554
iteration 554; minNextMutationTime = 517; timeNextPopSample = 507; popParams.size() = 1
We are SAMPLING at time 507
*** Looping through 5.2. Iter = 555
iteration 555; minNextMutationTime = 518; timeNextPopSample = 508; popParams.size() = 1
We are SAMPLING at time 508
*** Looping through 5.2. Iter = 556
iteration 556; minNextMutationTime = 519; timeNextPopSample = 509; popParams.size() = 1
We are SAMPLING at time 509
*** Looping through 5.2. Iter = 557
iteration 557; minNextMutationTime = 509.923; timeNextPopSample = 510; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 558
iteration 558; minNextMutationTime = 520; timeNextPopSample = 510; popParams.size() = 2
We are SAMPLING at time 510
*** Looping through 5.2. Iter = 559
iteration 559; minNextMutationTime = 521; timeNextPopSample = 511; popParams.size() = 2
We are SAMPLING at time 511
*** Looping through 5.2. Iter = 560
iteration 560; minNextMutationTime = 522; timeNextPopSample = 512; popParams.size() = 2
We are SAMPLING at time 512
*** Looping through 5.2. Iter = 561
iteration 561; minNextMutationTime = 523; timeNextPopSample = 513; popParams.size() = 2
We are SAMPLING at time 513
*** Looping through 5.2. Iter = 562
iteration 562; minNextMutationTime = 524; timeNextPopSample = 514; popParams.size() = 2
We are SAMPLING at time 514
*** Looping through 5.2. Iter = 563
iteration 563; minNextMutationTime = 525; timeNextPopSample = 515; popParams.size() = 2
We are SAMPLING at time 515
*** Looping through 5.2. Iter = 564
iteration 564; minNextMutationTime = 526; timeNextPopSample = 516; popParams.size() = 2
We are SAMPLING at time 516
*** Looping through 5.2. Iter = 565
iteration 565; minNextMutationTime = 527; timeNextPopSample = 517; popParams.size() = 2
We are SAMPLING at time 517
*** Looping through 5.2. Iter = 566
iteration 566; minNextMutationTime = 528; timeNextPopSample = 518; popParams.size() = 2
We are SAMPLING at time 518
*** Looping through 5.2. Iter = 567
iteration 567; minNextMutationTime = 529; timeNextPopSample = 519; popParams.size() = 2
We are SAMPLING at time 519
*** Looping through 5.2. Iter = 568
iteration 568; minNextMutationTime = 530; timeNextPopSample = 520; popParams.size() = 2
We are SAMPLING at time 520
*** Looping through 5.2. Iter = 569
iteration 569; minNextMutationTime = 531; timeNextPopSample = 521; popParams.size() = 2
We are SAMPLING at time 521
*** Looping through 5.2. Iter = 570
iteration 570; minNextMutationTime = 532; timeNextPopSample = 522; popParams.size() = 2
We are SAMPLING at time 522
*** Looping through 5.2. Iter = 571
iteration 571; minNextMutationTime = 533; timeNextPopSample = 523; popParams.size() = 2
We are SAMPLING at time 523
*** Looping through 5.2. Iter = 572
iteration 572; minNextMutationTime = 534; timeNextPopSample = 524; popParams.size() = 2
We are SAMPLING at time 524
*** Looping through 5.2. Iter = 573
iteration 573; minNextMutationTime = 535; timeNextPopSample = 525; popParams.size() = 2
We are SAMPLING at time 525
*** Looping through 5.2. Iter = 574
iteration 574; minNextMutationTime = 536; timeNextPopSample = 526; popParams.size() = 2
We are SAMPLING at time 526
*** Looping through 5.2. Iter = 575
iteration 575; minNextMutationTime = 537; timeNextPopSample = 527; popParams.size() = 2
We are SAMPLING at time 527
*** Looping through 5.2. Iter = 576
iteration 576; minNextMutationTime = 538; timeNextPopSample = 528; popParams.size() = 2
We are SAMPLING at time 528
*** Looping through 5.2. Iter = 577
iteration 577; minNextMutationTime = 539; timeNextPopSample = 529; popParams.size() = 2
We are SAMPLING at time 529
*** Looping through 5.2. Iter = 578
iteration 578; minNextMutationTime = 540; timeNextPopSample = 530; popParams.size() = 2
We are SAMPLING at time 530
*** Looping through 5.2. Iter = 579
iteration 579; minNextMutationTime = 541; timeNextPopSample = 531; popParams.size() = 2
We are SAMPLING at time 531
*** Looping through 5.2. Iter = 580
iteration 580; minNextMutationTime = 531.183; timeNextPopSample = 532; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 581
iteration 581; minNextMutationTime = 542; timeNextPopSample = 532; popParams.size() = 3
We are SAMPLING at time 532
*** Looping through 5.2. Iter = 582
iteration 582; minNextMutationTime = 543; timeNextPopSample = 533; popParams.size() = 2
We are SAMPLING at time 533
*** Looping through 5.2. Iter = 583
iteration 583; minNextMutationTime = 544; timeNextPopSample = 534; popParams.size() = 2
We are SAMPLING at time 534
*** Looping through 5.2. Iter = 584
iteration 584; minNextMutationTime = 545; timeNextPopSample = 535; popParams.size() = 2
We are SAMPLING at time 535
*** Looping through 5.2. Iter = 585
iteration 585; minNextMutationTime = 546; timeNextPopSample = 536; popParams.size() = 2
We are SAMPLING at time 536
*** Looping through 5.2. Iter = 586
iteration 586; minNextMutationTime = 547; timeNextPopSample = 537; popParams.size() = 2
We are SAMPLING at time 537
*** Looping through 5.2. Iter = 587
iteration 587; minNextMutationTime = 548; timeNextPopSample = 538; popParams.size() = 2
We are SAMPLING at time 538
*** Looping through 5.2. Iter = 588
iteration 588; minNextMutationTime = 549; timeNextPopSample = 539; popParams.size() = 2
We are SAMPLING at time 539
*** Looping through 5.2. Iter = 589
iteration 589; minNextMutationTime = 550; timeNextPopSample = 540; popParams.size() = 2
We are SAMPLING at time 540
*** Looping through 5.2. Iter = 590
iteration 590; minNextMutationTime = 551; timeNextPopSample = 541; popParams.size() = 2
We are SAMPLING at time 541
*** Looping through 5.2. Iter = 591
iteration 591; minNextMutationTime = 541.778; timeNextPopSample = 542; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 592
iteration 592; minNextMutationTime = 541.818; timeNextPopSample = 542; popParams.size() = 3
Mutated to existing species 2 (Genotype = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 1)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 1)
New popSize = 2
*** Looping through 5.2. Iter = 593
iteration 593; minNextMutationTime = 552; timeNextPopSample = 542; popParams.size() = 3
We are SAMPLING at time 542
*** Looping through 5.2. Iter = 594
iteration 594; minNextMutationTime = 553; timeNextPopSample = 543; popParams.size() = 3
We are SAMPLING at time 543
*** Looping through 5.2. Iter = 595
iteration 595; minNextMutationTime = 554; timeNextPopSample = 544; popParams.size() = 3
We are SAMPLING at time 544
*** Looping through 5.2. Iter = 596
iteration 596; minNextMutationTime = 555; timeNextPopSample = 545; popParams.size() = 3
We are SAMPLING at time 545
*** Looping through 5.2. Iter = 597
iteration 597; minNextMutationTime = 545.268; timeNextPopSample = 546; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 598
iteration 598; minNextMutationTime = 556; timeNextPopSample = 546; popParams.size() = 3
We are SAMPLING at time 546
*** Looping through 5.2. Iter = 599
iteration 599; minNextMutationTime = 546.63; timeNextPopSample = 547; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 600
iteration 600; minNextMutationTime = 546.811; timeNextPopSample = 547; popParams.size() = 3
Creating new species 3 from species 0
*** Looping through 5.2. Iter = 601
iteration 601; minNextMutationTime = 557; timeNextPopSample = 547; popParams.size() = 4
We are SAMPLING at time 547
*** Looping through 5.2. Iter = 602
iteration 602; minNextMutationTime = 558; timeNextPopSample = 548; popParams.size() = 3
We are SAMPLING at time 548
*** Looping through 5.2. Iter = 603
iteration 603; minNextMutationTime = 559; timeNextPopSample = 549; popParams.size() = 3
We are SAMPLING at time 549
*** Looping through 5.2. Iter = 604
iteration 604; minNextMutationTime = 560; timeNextPopSample = 550; popParams.size() = 2
We are SAMPLING at time 550
*** Looping through 5.2. Iter = 605
iteration 605; minNextMutationTime = 561; timeNextPopSample = 551; popParams.size() = 2
We are SAMPLING at time 551
*** Looping through 5.2. Iter = 606
iteration 606; minNextMutationTime = 551.65; timeNextPopSample = 552; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 607
iteration 607; minNextMutationTime = 562; timeNextPopSample = 552; popParams.size() = 3
We are SAMPLING at time 552
*** Looping through 5.2. Iter = 608
iteration 608; minNextMutationTime = 563; timeNextPopSample = 553; popParams.size() = 3
We are SAMPLING at time 553
*** Looping through 5.2. Iter = 609
iteration 609; minNextMutationTime = 564; timeNextPopSample = 554; popParams.size() = 3
We are SAMPLING at time 554
*** Looping through 5.2. Iter = 610
iteration 610; minNextMutationTime = 565; timeNextPopSample = 555; popParams.size() = 3
We are SAMPLING at time 555
*** Looping through 5.2. Iter = 611
iteration 611; minNextMutationTime = 555.315; timeNextPopSample = 556; popParams.size() = 3
Creating new species 3 from species 0
*** Looping through 5.2. Iter = 612
iteration 612; minNextMutationTime = 566; timeNextPopSample = 556; popParams.size() = 4
We are SAMPLING at time 556
*** Looping through 5.2. Iter = 613
iteration 613; minNextMutationTime = 567; timeNextPopSample = 557; popParams.size() = 2
We are SAMPLING at time 557
*** Looping through 5.2. Iter = 614
iteration 614; minNextMutationTime = 568; timeNextPopSample = 558; popParams.size() = 2
We are SAMPLING at time 558
*** Looping through 5.2. Iter = 615
iteration 615; minNextMutationTime = 558.352; timeNextPopSample = 559; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 616
iteration 616; minNextMutationTime = 569; timeNextPopSample = 559; popParams.size() = 3
We are SAMPLING at time 559
*** Looping through 5.2. Iter = 617
iteration 617; minNextMutationTime = 570; timeNextPopSample = 560; popParams.size() = 3
We are SAMPLING at time 560
*** Looping through 5.2. Iter = 618
iteration 618; minNextMutationTime = 571; timeNextPopSample = 561; popParams.size() = 2
We are SAMPLING at time 561
*** Looping through 5.2. Iter = 619
iteration 619; minNextMutationTime = 572; timeNextPopSample = 562; popParams.size() = 2
We are SAMPLING at time 562
*** Looping through 5.2. Iter = 620
iteration 620; minNextMutationTime = 573; timeNextPopSample = 563; popParams.size() = 2
We are SAMPLING at time 563
*** Looping through 5.2. Iter = 621
iteration 621; minNextMutationTime = 574; timeNextPopSample = 564; popParams.size() = 2
We are SAMPLING at time 564
*** Looping through 5.2. Iter = 622
iteration 622; minNextMutationTime = 575; timeNextPopSample = 565; popParams.size() = 2
We are SAMPLING at time 565
*** Looping through 5.2. Iter = 623
iteration 623; minNextMutationTime = 576; timeNextPopSample = 566; popParams.size() = 2
We are SAMPLING at time 566
*** Looping through 5.2. Iter = 624
iteration 624; minNextMutationTime = 577; timeNextPopSample = 567; popParams.size() = 2
We are SAMPLING at time 567
*** Looping through 5.2. Iter = 625
iteration 625; minNextMutationTime = 578; timeNextPopSample = 568; popParams.size() = 2
We are SAMPLING at time 568
*** Looping through 5.2. Iter = 626
iteration 626; minNextMutationTime = 579; timeNextPopSample = 569; popParams.size() = 2
We are SAMPLING at time 569
*** Looping through 5.2. Iter = 627
iteration 627; minNextMutationTime = 580; timeNextPopSample = 570; popParams.size() = 2
We are SAMPLING at time 570
*** Looping through 5.2. Iter = 628
iteration 628; minNextMutationTime = 581; timeNextPopSample = 571; popParams.size() = 2
We are SAMPLING at time 571
*** Looping through 5.2. Iter = 629
iteration 629; minNextMutationTime = 582; timeNextPopSample = 572; popParams.size() = 2
We are SAMPLING at time 572
*** Looping through 5.2. Iter = 630
iteration 630; minNextMutationTime = 583; timeNextPopSample = 573; popParams.size() = 2
We are SAMPLING at time 573
*** Looping through 5.2. Iter = 631
iteration 631; minNextMutationTime = 584; timeNextPopSample = 574; popParams.size() = 2
We are SAMPLING at time 574
*** Looping through 5.2. Iter = 632
iteration 632; minNextMutationTime = 574.936; timeNextPopSample = 575; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 633
iteration 633; minNextMutationTime = 585; timeNextPopSample = 575; popParams.size() = 3
We are SAMPLING at time 575
*** Looping through 5.2. Iter = 634
iteration 634; minNextMutationTime = 586; timeNextPopSample = 576; popParams.size() = 3
We are SAMPLING at time 576
*** Looping through 5.2. Iter = 635
iteration 635; minNextMutationTime = 587; timeNextPopSample = 577; popParams.size() = 3
We are SAMPLING at time 577
*** Looping through 5.2. Iter = 636
iteration 636; minNextMutationTime = 588; timeNextPopSample = 578; popParams.size() = 3
We are SAMPLING at time 578
*** Looping through 5.2. Iter = 637
iteration 637; minNextMutationTime = 589; timeNextPopSample = 579; popParams.size() = 3
We are SAMPLING at time 579
*** Looping through 5.2. Iter = 638
iteration 638; minNextMutationTime = 590; timeNextPopSample = 580; popParams.size() = 3
We are SAMPLING at time 580
*** Looping through 5.2. Iter = 639
iteration 639; minNextMutationTime = 580.273; timeNextPopSample = 581; popParams.size() = 3
Creating new species 3 from species 0
*** Looping through 5.2. Iter = 640
iteration 640; minNextMutationTime = 591; timeNextPopSample = 581; popParams.size() = 4
We are SAMPLING at time 581
*** Looping through 5.2. Iter = 641
iteration 641; minNextMutationTime = 592; timeNextPopSample = 582; popParams.size() = 4
We are SAMPLING at time 582
*** Looping through 5.2. Iter = 642
iteration 642; minNextMutationTime = 593; timeNextPopSample = 583; popParams.size() = 4
We are SAMPLING at time 583
*** Looping through 5.2. Iter = 643
iteration 643; minNextMutationTime = 583.62; timeNextPopSample = 584; popParams.size() = 3
Creating new species 3 from species 0
*** Looping through 5.2. Iter = 644
iteration 644; minNextMutationTime = 594; timeNextPopSample = 584; popParams.size() = 4
We are SAMPLING at time 584
*** Looping through 5.2. Iter = 645
iteration 645; minNextMutationTime = 595; timeNextPopSample = 585; popParams.size() = 4
We are SAMPLING at time 585
*** Looping through 5.2. Iter = 646
iteration 646; minNextMutationTime = 596; timeNextPopSample = 586; popParams.size() = 3
We are SAMPLING at time 586
*** Looping through 5.2. Iter = 647
iteration 647; minNextMutationTime = 597; timeNextPopSample = 587; popParams.size() = 2
We are SAMPLING at time 587
*** Looping through 5.2. Iter = 648
iteration 648; minNextMutationTime = 598; timeNextPopSample = 588; popParams.size() = 2
We are SAMPLING at time 588
*** Looping through 5.2. Iter = 649
iteration 649; minNextMutationTime = 599; timeNextPopSample = 589; popParams.size() = 2
We are SAMPLING at time 589
*** Looping through 5.2. Iter = 650
iteration 650; minNextMutationTime = 589.353; timeNextPopSample = 590; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 651
iteration 651; minNextMutationTime = 600; timeNextPopSample = 590; popParams.size() = 3
We are SAMPLING at time 590
*** Looping through 5.2. Iter = 652
iteration 652; minNextMutationTime = 601; timeNextPopSample = 591; popParams.size() = 3
We are SAMPLING at time 591
*** Looping through 5.2. Iter = 653
iteration 653; minNextMutationTime = 602; timeNextPopSample = 592; popParams.size() = 3
We are SAMPLING at time 592
*** Looping through 5.2. Iter = 654
iteration 654; minNextMutationTime = 603; timeNextPopSample = 593; popParams.size() = 3
We are SAMPLING at time 593
*** Looping through 5.2. Iter = 655
iteration 655; minNextMutationTime = 604; timeNextPopSample = 594; popParams.size() = 3
We are SAMPLING at time 594
*** Looping through 5.2. Iter = 656
iteration 656; minNextMutationTime = 605; timeNextPopSample = 595; popParams.size() = 3
We are SAMPLING at time 595
*** Looping through 5.2. Iter = 657
iteration 657; minNextMutationTime = 606; timeNextPopSample = 596; popParams.size() = 3
We are SAMPLING at time 596
*** Looping through 5.2. Iter = 658
iteration 658; minNextMutationTime = 607; timeNextPopSample = 597; popParams.size() = 3
We are SAMPLING at time 597
*** Looping through 5.2. Iter = 659
iteration 659; minNextMutationTime = 608; timeNextPopSample = 598; popParams.size() = 3
We are SAMPLING at time 598
*** Looping through 5.2. Iter = 660
iteration 660; minNextMutationTime = 609; timeNextPopSample = 599; popParams.size() = 3
We are SAMPLING at time 599
*** Looping through 5.2. Iter = 661
iteration 661; minNextMutationTime = 610; timeNextPopSample = 600; popParams.size() = 3
We are SAMPLING at time 600
*** Looping through 5.2. Iter = 662
iteration 662; minNextMutationTime = 611; timeNextPopSample = 601; popParams.size() = 3
We are SAMPLING at time 601
*** Looping through 5.2. Iter = 663
iteration 663; minNextMutationTime = 612; timeNextPopSample = 602; popParams.size() = 3
We are SAMPLING at time 602
*** Looping through 5.2. Iter = 664
iteration 664; minNextMutationTime = 613; timeNextPopSample = 603; popParams.size() = 3
We are SAMPLING at time 603
*** Looping through 5.2. Iter = 665
iteration 665; minNextMutationTime = 614; timeNextPopSample = 604; popParams.size() = 3
We are SAMPLING at time 604
*** Looping through 5.2. Iter = 666
iteration 666; minNextMutationTime = 604.893; timeNextPopSample = 605; popParams.size() = 3
Creating new species 3 from species 0
*** Looping through 5.2. Iter = 667
iteration 667; minNextMutationTime = 615; timeNextPopSample = 605; popParams.size() = 4
We are SAMPLING at time 605
*** Looping through 5.2. Iter = 668
iteration 668; minNextMutationTime = 616; timeNextPopSample = 606; popParams.size() = 4
We are SAMPLING at time 606
*** Looping through 5.2. Iter = 669
iteration 669; minNextMutationTime = 617; timeNextPopSample = 607; popParams.size() = 4
We are SAMPLING at time 607
*** Looping through 5.2. Iter = 670
iteration 670; minNextMutationTime = 618; timeNextPopSample = 608; popParams.size() = 3
We are SAMPLING at time 608
*** Looping through 5.2. Iter = 671
iteration 671; minNextMutationTime = 619; timeNextPopSample = 609; popParams.size() = 3
We are SAMPLING at time 609
*** Looping through 5.2. Iter = 672
iteration 672; minNextMutationTime = 620; timeNextPopSample = 610; popParams.size() = 3
We are SAMPLING at time 610
*** Looping through 5.2. Iter = 673
iteration 673; minNextMutationTime = 621; timeNextPopSample = 611; popParams.size() = 2
We are SAMPLING at time 611
*** Looping through 5.2. Iter = 674
iteration 674; minNextMutationTime = 622; timeNextPopSample = 612; popParams.size() = 2
We are SAMPLING at time 612
*** Looping through 5.2. Iter = 675
iteration 675; minNextMutationTime = 623; timeNextPopSample = 613; popParams.size() = 2
We are SAMPLING at time 613
*** Looping through 5.2. Iter = 676
iteration 676; minNextMutationTime = 613.156; timeNextPopSample = 614; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 677
iteration 677; minNextMutationTime = 624; timeNextPopSample = 614; popParams.size() = 3
We are SAMPLING at time 614
*** Looping through 5.2. Iter = 678
iteration 678; minNextMutationTime = 625; timeNextPopSample = 615; popParams.size() = 2
We are SAMPLING at time 615
*** Looping through 5.2. Iter = 679
iteration 679; minNextMutationTime = 626; timeNextPopSample = 616; popParams.size() = 2
We are SAMPLING at time 616
*** Looping through 5.2. Iter = 680
iteration 680; minNextMutationTime = 627; timeNextPopSample = 617; popParams.size() = 2
We are SAMPLING at time 617
*** Looping through 5.2. Iter = 681
iteration 681; minNextMutationTime = 628; timeNextPopSample = 618; popParams.size() = 2
We are SAMPLING at time 618
*** Looping through 5.2. Iter = 682
iteration 682; minNextMutationTime = 629; timeNextPopSample = 619; popParams.size() = 2
We are SAMPLING at time 619
*** Looping through 5.2. Iter = 683
iteration 683; minNextMutationTime = 630; timeNextPopSample = 620; popParams.size() = 2
We are SAMPLING at time 620
*** Looping through 5.2. Iter = 684
iteration 684; minNextMutationTime = 631; timeNextPopSample = 621; popParams.size() = 2
We are SAMPLING at time 621
*** Looping through 5.2. Iter = 685
iteration 685; minNextMutationTime = 621.118; timeNextPopSample = 622; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 686
iteration 686; minNextMutationTime = 632; timeNextPopSample = 622; popParams.size() = 3
We are SAMPLING at time 622
*** Looping through 5.2. Iter = 687
iteration 687; minNextMutationTime = 633; timeNextPopSample = 623; popParams.size() = 2
We are SAMPLING at time 623
*** Looping through 5.2. Iter = 688
iteration 688; minNextMutationTime = 634; timeNextPopSample = 624; popParams.size() = 2
We are SAMPLING at time 624
*** Looping through 5.2. Iter = 689
iteration 689; minNextMutationTime = 635; timeNextPopSample = 625; popParams.size() = 2
We are SAMPLING at time 625
*** Looping through 5.2. Iter = 690
iteration 690; minNextMutationTime = 636; timeNextPopSample = 626; popParams.size() = 2
We are SAMPLING at time 626
*** Looping through 5.2. Iter = 691
iteration 691; minNextMutationTime = 637; timeNextPopSample = 627; popParams.size() = 2
We are SAMPLING at time 627
*** Looping through 5.2. Iter = 692
iteration 692; minNextMutationTime = 638; timeNextPopSample = 628; popParams.size() = 2
We are SAMPLING at time 628
*** Looping through 5.2. Iter = 693
iteration 693; minNextMutationTime = 639; timeNextPopSample = 629; popParams.size() = 2
We are SAMPLING at time 629
*** Looping through 5.2. Iter = 694
iteration 694; minNextMutationTime = 640; timeNextPopSample = 630; popParams.size() = 2
We are SAMPLING at time 630
*** Looping through 5.2. Iter = 695
iteration 695; minNextMutationTime = 641; timeNextPopSample = 631; popParams.size() = 2
We are SAMPLING at time 631
*** Looping through 5.2. Iter = 696
iteration 696; minNextMutationTime = 642; timeNextPopSample = 632; popParams.size() = 2
We are SAMPLING at time 632
*** Looping through 5.2. Iter = 697
iteration 697; minNextMutationTime = 632.578; timeNextPopSample = 633; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 698
iteration 698; minNextMutationTime = 643; timeNextPopSample = 633; popParams.size() = 3
We are SAMPLING at time 633
*** Looping through 5.2. Iter = 699
iteration 699; minNextMutationTime = 644; timeNextPopSample = 634; popParams.size() = 3
We are SAMPLING at time 634
*** Looping through 5.2. Iter = 700
iteration 700; minNextMutationTime = 645; timeNextPopSample = 635; popParams.size() = 3
We are SAMPLING at time 635
*** Looping through 5.2. Iter = 701
iteration 701; minNextMutationTime = 646; timeNextPopSample = 636; popParams.size() = 3
We are SAMPLING at time 636
*** Looping through 5.2. Iter = 702
iteration 702; minNextMutationTime = 647; timeNextPopSample = 637; popParams.size() = 3
We are SAMPLING at time 637
*** Looping through 5.2. Iter = 703
iteration 703; minNextMutationTime = 648; timeNextPopSample = 638; popParams.size() = 3
We are SAMPLING at time 638
*** Looping through 5.2. Iter = 704
iteration 704; minNextMutationTime = 649; timeNextPopSample = 639; popParams.size() = 3
We are SAMPLING at time 639
*** Looping through 5.2. Iter = 705
iteration 705; minNextMutationTime = 650; timeNextPopSample = 640; popParams.size() = 2
We are SAMPLING at time 640
*** Looping through 5.2. Iter = 706
iteration 706; minNextMutationTime = 651; timeNextPopSample = 641; popParams.size() = 2
We are SAMPLING at time 641
*** Looping through 5.2. Iter = 707
iteration 707; minNextMutationTime = 652; timeNextPopSample = 642; popParams.size() = 2
We are SAMPLING at time 642
*** Looping through 5.2. Iter = 708
iteration 708; minNextMutationTime = 653; timeNextPopSample = 643; popParams.size() = 2
We are SAMPLING at time 643
*** Looping through 5.2. Iter = 709
iteration 709; minNextMutationTime = 654; timeNextPopSample = 644; popParams.size() = 2
We are SAMPLING at time 644
*** Looping through 5.2. Iter = 710
iteration 710; minNextMutationTime = 655; timeNextPopSample = 645; popParams.size() = 2
We are SAMPLING at time 645
*** Looping through 5.2. Iter = 711
iteration 711; minNextMutationTime = 656; timeNextPopSample = 646; popParams.size() = 2
We are SAMPLING at time 646
*** Looping through 5.2. Iter = 712
iteration 712; minNextMutationTime = 657; timeNextPopSample = 647; popParams.size() = 2
We are SAMPLING at time 647
*** Looping through 5.2. Iter = 713
iteration 713; minNextMutationTime = 658; timeNextPopSample = 648; popParams.size() = 2
We are SAMPLING at time 648
*** Looping through 5.2. Iter = 714
iteration 714; minNextMutationTime = 659; timeNextPopSample = 649; popParams.size() = 2
We are SAMPLING at time 649
*** Looping through 5.2. Iter = 715
iteration 715; minNextMutationTime = 660; timeNextPopSample = 650; popParams.size() = 2
We are SAMPLING at time 650
*** Looping through 5.2. Iter = 716
iteration 716; minNextMutationTime = 661; timeNextPopSample = 651; popParams.size() = 2
We are SAMPLING at time 651
*** Looping through 5.2. Iter = 717
iteration 717; minNextMutationTime = 662; timeNextPopSample = 652; popParams.size() = 2
We are SAMPLING at time 652
*** Looping through 5.2. Iter = 718
iteration 718; minNextMutationTime = 663; timeNextPopSample = 653; popParams.size() = 2
We are SAMPLING at time 653
*** Looping through 5.2. Iter = 719
iteration 719; minNextMutationTime = 664; timeNextPopSample = 654; popParams.size() = 2
We are SAMPLING at time 654
*** Looping through 5.2. Iter = 720
iteration 720; minNextMutationTime = 665; timeNextPopSample = 655; popParams.size() = 2
We are SAMPLING at time 655
*** Looping through 5.2. Iter = 721
iteration 721; minNextMutationTime = 666; timeNextPopSample = 656; popParams.size() = 2
We are SAMPLING at time 656
*** Looping through 5.2. Iter = 722
iteration 722; minNextMutationTime = 667; timeNextPopSample = 657; popParams.size() = 2
We are SAMPLING at time 657
*** Looping through 5.2. Iter = 723
iteration 723; minNextMutationTime = 668; timeNextPopSample = 658; popParams.size() = 2
We are SAMPLING at time 658
*** Looping through 5.2. Iter = 724
iteration 724; minNextMutationTime = 669; timeNextPopSample = 659; popParams.size() = 2
We are SAMPLING at time 659
*** Looping through 5.2. Iter = 725
iteration 725; minNextMutationTime = 670; timeNextPopSample = 660; popParams.size() = 2
We are SAMPLING at time 660
*** Looping through 5.2. Iter = 726
iteration 726; minNextMutationTime = 671; timeNextPopSample = 661; popParams.size() = 2
We are SAMPLING at time 661
*** Looping through 5.2. Iter = 727
iteration 727; minNextMutationTime = 672; timeNextPopSample = 662; popParams.size() = 2
We are SAMPLING at time 662
*** Looping through 5.2. Iter = 728
iteration 728; minNextMutationTime = 673; timeNextPopSample = 663; popParams.size() = 2
We are SAMPLING at time 663
*** Looping through 5.2. Iter = 729
iteration 729; minNextMutationTime = 674; timeNextPopSample = 664; popParams.size() = 2
We are SAMPLING at time 664
*** Looping through 5.2. Iter = 730
iteration 730; minNextMutationTime = 675; timeNextPopSample = 665; popParams.size() = 2
We are SAMPLING at time 665
*** Looping through 5.2. Iter = 731
iteration 731; minNextMutationTime = 676; timeNextPopSample = 666; popParams.size() = 2
We are SAMPLING at time 666
*** Looping through 5.2. Iter = 732
iteration 732; minNextMutationTime = 677; timeNextPopSample = 667; popParams.size() = 2
We are SAMPLING at time 667
*** Looping through 5.2. Iter = 733
iteration 733; minNextMutationTime = 678; timeNextPopSample = 668; popParams.size() = 2
We are SAMPLING at time 668
*** Looping through 5.2. Iter = 734
iteration 734; minNextMutationTime = 679; timeNextPopSample = 669; popParams.size() = 2
We are SAMPLING at time 669
*** Looping through 5.2. Iter = 735
iteration 735; minNextMutationTime = 680; timeNextPopSample = 670; popParams.size() = 2
We are SAMPLING at time 670
*** Looping through 5.2. Iter = 736
iteration 736; minNextMutationTime = 681; timeNextPopSample = 671; popParams.size() = 2
We are SAMPLING at time 671
*** Looping through 5.2. Iter = 737
iteration 737; minNextMutationTime = 682; timeNextPopSample = 672; popParams.size() = 2
We are SAMPLING at time 672
*** Looping through 5.2. Iter = 738
iteration 738; minNextMutationTime = 683; timeNextPopSample = 673; popParams.size() = 2
We are SAMPLING at time 673
*** Looping through 5.2. Iter = 739
iteration 739; minNextMutationTime = 684; timeNextPopSample = 674; popParams.size() = 2
We are SAMPLING at time 674
*** Looping through 5.2. Iter = 740
iteration 740; minNextMutationTime = 674.179; timeNextPopSample = 675; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 741
iteration 741; minNextMutationTime = 685; timeNextPopSample = 675; popParams.size() = 3
We are SAMPLING at time 675
*** Looping through 5.2. Iter = 742
iteration 742; minNextMutationTime = 686; timeNextPopSample = 676; popParams.size() = 3
We are SAMPLING at time 676
*** Looping through 5.2. Iter = 743
iteration 743; minNextMutationTime = 687; timeNextPopSample = 677; popParams.size() = 3
We are SAMPLING at time 677
*** Looping through 5.2. Iter = 744
iteration 744; minNextMutationTime = 688; timeNextPopSample = 678; popParams.size() = 3
We are SAMPLING at time 678
*** Looping through 5.2. Iter = 745
iteration 745; minNextMutationTime = 689; timeNextPopSample = 679; popParams.size() = 2
We are SAMPLING at time 679
*** Looping through 5.2. Iter = 746
iteration 746; minNextMutationTime = 690; timeNextPopSample = 680; popParams.size() = 2
We are SAMPLING at time 680
*** Looping through 5.2. Iter = 747
iteration 747; minNextMutationTime = 691; timeNextPopSample = 681; popParams.size() = 2
We are SAMPLING at time 681
*** Looping through 5.2. Iter = 748
iteration 748; minNextMutationTime = 692; timeNextPopSample = 682; popParams.size() = 2
We are SAMPLING at time 682
*** Looping through 5.2. Iter = 749
iteration 749; minNextMutationTime = 693; timeNextPopSample = 683; popParams.size() = 2
We are SAMPLING at time 683
*** Looping through 5.2. Iter = 750
iteration 750; minNextMutationTime = 683.963; timeNextPopSample = 684; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 751
iteration 751; minNextMutationTime = 694; timeNextPopSample = 684; popParams.size() = 3
We are SAMPLING at time 684
*** Looping through 5.2. Iter = 752
iteration 752; minNextMutationTime = 695; timeNextPopSample = 685; popParams.size() = 3
We are SAMPLING at time 685
*** Looping through 5.2. Iter = 753
iteration 753; minNextMutationTime = 696; timeNextPopSample = 686; popParams.size() = 2
We are SAMPLING at time 686
*** Looping through 5.2. Iter = 754
iteration 754; minNextMutationTime = 697; timeNextPopSample = 687; popParams.size() = 2
We are SAMPLING at time 687
*** Looping through 5.2. Iter = 755
iteration 755; minNextMutationTime = 698; timeNextPopSample = 688; popParams.size() = 2
We are SAMPLING at time 688
*** Looping through 5.2. Iter = 756
iteration 756; minNextMutationTime = 699; timeNextPopSample = 689; popParams.size() = 2
We are SAMPLING at time 689
*** Looping through 5.2. Iter = 757
iteration 757; minNextMutationTime = 700; timeNextPopSample = 690; popParams.size() = 2
We are SAMPLING at time 690
*** Looping through 5.2. Iter = 758
iteration 758; minNextMutationTime = 701; timeNextPopSample = 691; popParams.size() = 2
We are SAMPLING at time 691
*** Looping through 5.2. Iter = 759
iteration 759; minNextMutationTime = 702; timeNextPopSample = 692; popParams.size() = 2
We are SAMPLING at time 692
*** Looping through 5.2. Iter = 760
iteration 760; minNextMutationTime = 703; timeNextPopSample = 693; popParams.size() = 2
We are SAMPLING at time 693
*** Looping through 5.2. Iter = 761
iteration 761; minNextMutationTime = 704; timeNextPopSample = 694; popParams.size() = 2
We are SAMPLING at time 694
*** Looping through 5.2. Iter = 762
iteration 762; minNextMutationTime = 705; timeNextPopSample = 695; popParams.size() = 2
We are SAMPLING at time 695
*** Looping through 5.2. Iter = 763
iteration 763; minNextMutationTime = 706; timeNextPopSample = 696; popParams.size() = 2
We are SAMPLING at time 696
*** Looping through 5.2. Iter = 764
iteration 764; minNextMutationTime = 707; timeNextPopSample = 697; popParams.size() = 2
We are SAMPLING at time 697
*** Looping through 5.2. Iter = 765
iteration 765; minNextMutationTime = 708; timeNextPopSample = 698; popParams.size() = 2
We are SAMPLING at time 698
*** Looping through 5.2. Iter = 766
iteration 766; minNextMutationTime = 709; timeNextPopSample = 699; popParams.size() = 2
We are SAMPLING at time 699
*** Looping through 5.2. Iter = 767
iteration 767; minNextMutationTime = 710; timeNextPopSample = 700; popParams.size() = 2
We are SAMPLING at time 700
*** Looping through 5.2. Iter = 768
iteration 768; minNextMutationTime = 711; timeNextPopSample = 701; popParams.size() = 2
We are SAMPLING at time 701
*** Looping through 5.2. Iter = 769
iteration 769; minNextMutationTime = 712; timeNextPopSample = 702; popParams.size() = 2
We are SAMPLING at time 702
*** Looping through 5.2. Iter = 770
iteration 770; minNextMutationTime = 713; timeNextPopSample = 703; popParams.size() = 2
We are SAMPLING at time 703
*** Looping through 5.2. Iter = 771
iteration 771; minNextMutationTime = 714; timeNextPopSample = 704; popParams.size() = 2
We are SAMPLING at time 704
*** Looping through 5.2. Iter = 772
iteration 772; minNextMutationTime = 715; timeNextPopSample = 705; popParams.size() = 2
We are SAMPLING at time 705
*** Looping through 5.2. Iter = 773
iteration 773; minNextMutationTime = 716; timeNextPopSample = 706; popParams.size() = 2
We are SAMPLING at time 706
*** Looping through 5.2. Iter = 774
iteration 774; minNextMutationTime = 717; timeNextPopSample = 707; popParams.size() = 2
We are SAMPLING at time 707
*** Looping through 5.2. Iter = 775
iteration 775; minNextMutationTime = 718; timeNextPopSample = 708; popParams.size() = 2
We are SAMPLING at time 708
*** Looping through 5.2. Iter = 776
iteration 776; minNextMutationTime = 719; timeNextPopSample = 709; popParams.size() = 2
We are SAMPLING at time 709
*** Looping through 5.2. Iter = 777
iteration 777; minNextMutationTime = 720; timeNextPopSample = 710; popParams.size() = 2
We are SAMPLING at time 710
*** Looping through 5.2. Iter = 778
iteration 778; minNextMutationTime = 721; timeNextPopSample = 711; popParams.size() = 2
We are SAMPLING at time 711
*** Looping through 5.2. Iter = 779
iteration 779; minNextMutationTime = 722; timeNextPopSample = 712; popParams.size() = 2
We are SAMPLING at time 712
*** Looping through 5.2. Iter = 780
iteration 780; minNextMutationTime = 723; timeNextPopSample = 713; popParams.size() = 2
We are SAMPLING at time 713
*** Looping through 5.2. Iter = 781
iteration 781; minNextMutationTime = 724; timeNextPopSample = 714; popParams.size() = 2
We are SAMPLING at time 714
*** Looping through 5.2. Iter = 782
iteration 782; minNextMutationTime = 725; timeNextPopSample = 715; popParams.size() = 2
We are SAMPLING at time 715
*** Looping through 5.2. Iter = 783
iteration 783; minNextMutationTime = 726; timeNextPopSample = 716; popParams.size() = 2
We are SAMPLING at time 716
*** Looping through 5.2. Iter = 784
iteration 784; minNextMutationTime = 727; timeNextPopSample = 717; popParams.size() = 2
We are SAMPLING at time 717
*** Looping through 5.2. Iter = 785
iteration 785; minNextMutationTime = 717.879; timeNextPopSample = 718; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 786
iteration 786; minNextMutationTime = 728; timeNextPopSample = 718; popParams.size() = 3
We are SAMPLING at time 718
*** Looping through 5.2. Iter = 787
iteration 787; minNextMutationTime = 729; timeNextPopSample = 719; popParams.size() = 3
We are SAMPLING at time 719
*** Looping through 5.2. Iter = 788
iteration 788; minNextMutationTime = 730; timeNextPopSample = 720; popParams.size() = 3
We are SAMPLING at time 720
*** Looping through 5.2. Iter = 789
iteration 789; minNextMutationTime = 731; timeNextPopSample = 721; popParams.size() = 2
We are SAMPLING at time 721
*** Looping through 5.2. Iter = 790
iteration 790; minNextMutationTime = 732; timeNextPopSample = 722; popParams.size() = 2
We are SAMPLING at time 722
*** Looping through 5.2. Iter = 791
iteration 791; minNextMutationTime = 733; timeNextPopSample = 723; popParams.size() = 2
We are SAMPLING at time 723
*** Looping through 5.2. Iter = 792
iteration 792; minNextMutationTime = 734; timeNextPopSample = 724; popParams.size() = 2
We are SAMPLING at time 724
*** Looping through 5.2. Iter = 793
iteration 793; minNextMutationTime = 735; timeNextPopSample = 725; popParams.size() = 2
We are SAMPLING at time 725
*** Looping through 5.2. Iter = 794
iteration 794; minNextMutationTime = 736; timeNextPopSample = 726; popParams.size() = 2
We are SAMPLING at time 726
*** Looping through 5.2. Iter = 795
iteration 795; minNextMutationTime = 737; timeNextPopSample = 727; popParams.size() = 2
We are SAMPLING at time 727
*** Looping through 5.2. Iter = 796
iteration 796; minNextMutationTime = 727.114; timeNextPopSample = 728; popParams.size() = 2
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000100000; sp_id = 32)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 32)
New popSize = 151
*** Looping through 5.2. Iter = 797
iteration 797; minNextMutationTime = 738; timeNextPopSample = 728; popParams.size() = 2
We are SAMPLING at time 728
*** Looping through 5.2. Iter = 798
iteration 798; minNextMutationTime = 739; timeNextPopSample = 729; popParams.size() = 2
We are SAMPLING at time 729
*** Looping through 5.2. Iter = 799
iteration 799; minNextMutationTime = 740; timeNextPopSample = 730; popParams.size() = 2
We are SAMPLING at time 730
*** Looping through 5.2. Iter = 800
iteration 800; minNextMutationTime = 741; timeNextPopSample = 731; popParams.size() = 2
We are SAMPLING at time 731
*** Looping through 5.2. Iter = 801
iteration 801; minNextMutationTime = 742; timeNextPopSample = 732; popParams.size() = 2
We are SAMPLING at time 732
*** Looping through 5.2. Iter = 802
iteration 802; minNextMutationTime = 743; timeNextPopSample = 733; popParams.size() = 2
We are SAMPLING at time 733
*** Looping through 5.2. Iter = 803
iteration 803; minNextMutationTime = 744; timeNextPopSample = 734; popParams.size() = 2
We are SAMPLING at time 734
*** Looping through 5.2. Iter = 804
iteration 804; minNextMutationTime = 745; timeNextPopSample = 735; popParams.size() = 2
We are SAMPLING at time 735
*** Looping through 5.2. Iter = 805
iteration 805; minNextMutationTime = 746; timeNextPopSample = 736; popParams.size() = 2
We are SAMPLING at time 736
*** Looping through 5.2. Iter = 806
iteration 806; minNextMutationTime = 747; timeNextPopSample = 737; popParams.size() = 2
We are SAMPLING at time 737
*** Looping through 5.2. Iter = 807
iteration 807; minNextMutationTime = 748; timeNextPopSample = 738; popParams.size() = 2
We are SAMPLING at time 738
*** Looping through 5.2. Iter = 808
iteration 808; minNextMutationTime = 749; timeNextPopSample = 739; popParams.size() = 2
We are SAMPLING at time 739
*** Looping through 5.2. Iter = 809
iteration 809; minNextMutationTime = 750; timeNextPopSample = 740; popParams.size() = 2
We are SAMPLING at time 740
*** Looping through 5.2. Iter = 810
iteration 810; minNextMutationTime = 751; timeNextPopSample = 741; popParams.size() = 2
We are SAMPLING at time 741
*** Looping through 5.2. Iter = 811
iteration 811; minNextMutationTime = 752; timeNextPopSample = 742; popParams.size() = 2
We are SAMPLING at time 742
*** Looping through 5.2. Iter = 812
iteration 812; minNextMutationTime = 753; timeNextPopSample = 743; popParams.size() = 2
We are SAMPLING at time 743
*** Looping through 5.2. Iter = 813
iteration 813; minNextMutationTime = 754; timeNextPopSample = 744; popParams.size() = 2
We are SAMPLING at time 744
*** Looping through 5.2. Iter = 814
iteration 814; minNextMutationTime = 755; timeNextPopSample = 745; popParams.size() = 2
We are SAMPLING at time 745
*** Looping through 5.2. Iter = 815
iteration 815; minNextMutationTime = 756; timeNextPopSample = 746; popParams.size() = 2
We are SAMPLING at time 746
*** Looping through 5.2. Iter = 816
iteration 816; minNextMutationTime = 757; timeNextPopSample = 747; popParams.size() = 2
We are SAMPLING at time 747
*** Looping through 5.2. Iter = 817
iteration 817; minNextMutationTime = 758; timeNextPopSample = 748; popParams.size() = 2
We are SAMPLING at time 748
*** Looping through 5.2. Iter = 818
iteration 818; minNextMutationTime = 759; timeNextPopSample = 749; popParams.size() = 2
We are SAMPLING at time 749
*** Looping through 5.2. Iter = 819
iteration 819; minNextMutationTime = 760; timeNextPopSample = 750; popParams.size() = 2
We are SAMPLING at time 750
*** Looping through 5.2. Iter = 820
iteration 820; minNextMutationTime = 761; timeNextPopSample = 751; popParams.size() = 2
We are SAMPLING at time 751
*** Looping through 5.2. Iter = 821
iteration 821; minNextMutationTime = 762; timeNextPopSample = 752; popParams.size() = 2
We are SAMPLING at time 752
*** Looping through 5.2. Iter = 822
iteration 822; minNextMutationTime = 763; timeNextPopSample = 753; popParams.size() = 2
We are SAMPLING at time 753
*** Looping through 5.2. Iter = 823
iteration 823; minNextMutationTime = 764; timeNextPopSample = 754; popParams.size() = 2
We are SAMPLING at time 754
*** Looping through 5.2. Iter = 824
iteration 824; minNextMutationTime = 765; timeNextPopSample = 755; popParams.size() = 2
We are SAMPLING at time 755
*** Looping through 5.2. Iter = 825
iteration 825; minNextMutationTime = 766; timeNextPopSample = 756; popParams.size() = 2
We are SAMPLING at time 756
*** Looping through 5.2. Iter = 826
iteration 826; minNextMutationTime = 756.947; timeNextPopSample = 757; popParams.size() = 2
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000100000; sp_id = 32)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 32)
New popSize = 78
*** Looping through 5.2. Iter = 827
iteration 827; minNextMutationTime = 767; timeNextPopSample = 757; popParams.size() = 2
We are SAMPLING at time 757
*** Looping through 5.2. Iter = 828
iteration 828; minNextMutationTime = 768; timeNextPopSample = 758; popParams.size() = 2
We are SAMPLING at time 758
*** Looping through 5.2. Iter = 829
iteration 829; minNextMutationTime = 769; timeNextPopSample = 759; popParams.size() = 2
We are SAMPLING at time 759
*** Looping through 5.2. Iter = 830
iteration 830; minNextMutationTime = 770; timeNextPopSample = 760; popParams.size() = 2
We are SAMPLING at time 760
*** Looping through 5.2. Iter = 831
iteration 831; minNextMutationTime = 771; timeNextPopSample = 761; popParams.size() = 2
We are SAMPLING at time 761
*** Looping through 5.2. Iter = 832
iteration 832; minNextMutationTime = 772; timeNextPopSample = 762; popParams.size() = 2
We are SAMPLING at time 762
*** Looping through 5.2. Iter = 833
iteration 833; minNextMutationTime = 773; timeNextPopSample = 763; popParams.size() = 2
We are SAMPLING at time 763
*** Looping through 5.2. Iter = 834
iteration 834; minNextMutationTime = 774; timeNextPopSample = 764; popParams.size() = 2
We are SAMPLING at time 764
*** Looping through 5.2. Iter = 835
iteration 835; minNextMutationTime = 764.994; timeNextPopSample = 765; popParams.size() = 2
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000100000; sp_id = 32)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 32)
New popSize = 28
*** Looping through 5.2. Iter = 836
iteration 836; minNextMutationTime = 775; timeNextPopSample = 765; popParams.size() = 2
We are SAMPLING at time 765
*** Looping through 5.2. Iter = 837
iteration 837; minNextMutationTime = 776; timeNextPopSample = 766; popParams.size() = 2
We are SAMPLING at time 766
*** Looping through 5.2. Iter = 838
iteration 838; minNextMutationTime = 777; timeNextPopSample = 767; popParams.size() = 2
We are SAMPLING at time 767
*** Looping through 5.2. Iter = 839
iteration 839; minNextMutationTime = 778; timeNextPopSample = 768; popParams.size() = 2
We are SAMPLING at time 768
*** Looping through 5.2. Iter = 840
iteration 840; minNextMutationTime = 779; timeNextPopSample = 769; popParams.size() = 2
We are SAMPLING at time 769
*** Looping through 5.2. Iter = 841
iteration 841; minNextMutationTime = 780; timeNextPopSample = 770; popParams.size() = 2
We are SAMPLING at time 770
*** Looping through 5.2. Iter = 842
iteration 842; minNextMutationTime = 781; timeNextPopSample = 771; popParams.size() = 2
We are SAMPLING at time 771
*** Looping through 5.2. Iter = 843
iteration 843; minNextMutationTime = 782; timeNextPopSample = 772; popParams.size() = 2
We are SAMPLING at time 772
*** Looping through 5.2. Iter = 844
iteration 844; minNextMutationTime = 783; timeNextPopSample = 773; popParams.size() = 2
We are SAMPLING at time 773
*** Looping through 5.2. Iter = 845
iteration 845; minNextMutationTime = 784; timeNextPopSample = 774; popParams.size() = 2
We are SAMPLING at time 774
*** Looping through 5.2. Iter = 846
iteration 846; minNextMutationTime = 785; timeNextPopSample = 775; popParams.size() = 2
We are SAMPLING at time 775
*** Looping through 5.2. Iter = 847
iteration 847; minNextMutationTime = 786; timeNextPopSample = 776; popParams.size() = 2
We are SAMPLING at time 776
*** Looping through 5.2. Iter = 848
iteration 848; minNextMutationTime = 787; timeNextPopSample = 777; popParams.size() = 2
We are SAMPLING at time 777
*** Looping through 5.2. Iter = 849
iteration 849; minNextMutationTime = 788; timeNextPopSample = 778; popParams.size() = 2
We are SAMPLING at time 778
*** Looping through 5.2. Iter = 850
iteration 850; minNextMutationTime = 789; timeNextPopSample = 779; popParams.size() = 2
We are SAMPLING at time 779
*** Looping through 5.2. Iter = 851
iteration 851; minNextMutationTime = 779.742; timeNextPopSample = 780; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 852
iteration 852; minNextMutationTime = 790; timeNextPopSample = 780; popParams.size() = 3
We are SAMPLING at time 780
*** Looping through 5.2. Iter = 853
iteration 853; minNextMutationTime = 791; timeNextPopSample = 781; popParams.size() = 3
We are SAMPLING at time 781
*** Looping through 5.2. Iter = 854
iteration 854; minNextMutationTime = 792; timeNextPopSample = 782; popParams.size() = 2
We are SAMPLING at time 782
*** Looping through 5.2. Iter = 855
iteration 855; minNextMutationTime = 793; timeNextPopSample = 783; popParams.size() = 2
We are SAMPLING at time 783
*** Looping through 5.2. Iter = 856
iteration 856; minNextMutationTime = 794; timeNextPopSample = 784; popParams.size() = 2
We are SAMPLING at time 784
*** Looping through 5.2. Iter = 857
iteration 857; minNextMutationTime = 795; timeNextPopSample = 785; popParams.size() = 2
We are SAMPLING at time 785
*** Looping through 5.2. Iter = 858
iteration 858; minNextMutationTime = 796; timeNextPopSample = 786; popParams.size() = 2
We are SAMPLING at time 786
*** Looping through 5.2. Iter = 859
iteration 859; minNextMutationTime = 797; timeNextPopSample = 787; popParams.size() = 2
We are SAMPLING at time 787
*** Looping through 5.2. Iter = 860
iteration 860; minNextMutationTime = 787.86; timeNextPopSample = 788; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 861
iteration 861; minNextMutationTime = 798; timeNextPopSample = 788; popParams.size() = 3
We are SAMPLING at time 788
*** Looping through 5.2. Iter = 862
iteration 862; minNextMutationTime = 799; timeNextPopSample = 789; popParams.size() = 3
We are SAMPLING at time 789
*** Looping through 5.2. Iter = 863
iteration 863; minNextMutationTime = 800; timeNextPopSample = 790; popParams.size() = 3
We are SAMPLING at time 790
*** Looping through 5.2. Iter = 864
iteration 864; minNextMutationTime = 801; timeNextPopSample = 791; popParams.size() = 3
We are SAMPLING at time 791
*** Looping through 5.2. Iter = 865
iteration 865; minNextMutationTime = 802; timeNextPopSample = 792; popParams.size() = 3
We are SAMPLING at time 792
*** Looping through 5.2. Iter = 866
iteration 866; minNextMutationTime = 803; timeNextPopSample = 793; popParams.size() = 3
We are SAMPLING at time 793
*** Looping through 5.2. Iter = 867
iteration 867; minNextMutationTime = 804; timeNextPopSample = 794; popParams.size() = 3
We are SAMPLING at time 794
*** Looping through 5.2. Iter = 868
iteration 868; minNextMutationTime = 805; timeNextPopSample = 795; popParams.size() = 3
We are SAMPLING at time 795
*** Looping through 5.2. Iter = 869
iteration 869; minNextMutationTime = 806; timeNextPopSample = 796; popParams.size() = 3
We are SAMPLING at time 796
*** Looping through 5.2. Iter = 870
iteration 870; minNextMutationTime = 807; timeNextPopSample = 797; popParams.size() = 3
We are SAMPLING at time 797
*** Looping through 5.2. Iter = 871
iteration 871; minNextMutationTime = 808; timeNextPopSample = 798; popParams.size() = 2
We are SAMPLING at time 798
*** Looping through 5.2. Iter = 872
iteration 872; minNextMutationTime = 809; timeNextPopSample = 799; popParams.size() = 2
We are SAMPLING at time 799
*** Looping through 5.2. Iter = 873
iteration 873; minNextMutationTime = 810; timeNextPopSample = 800; popParams.size() = 1
We are SAMPLING at time 800
*** Looping through 5.2. Iter = 874
iteration 874; minNextMutationTime = 811; timeNextPopSample = 801; popParams.size() = 1
We are SAMPLING at time 801
*** Looping through 5.2. Iter = 875
iteration 875; minNextMutationTime = 801.033; timeNextPopSample = 802; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 876
iteration 876; minNextMutationTime = 812; timeNextPopSample = 802; popParams.size() = 2
We are SAMPLING at time 802
*** Looping through 5.2. Iter = 877
iteration 877; minNextMutationTime = 813; timeNextPopSample = 803; popParams.size() = 2
We are SAMPLING at time 803
*** Looping through 5.2. Iter = 878
iteration 878; minNextMutationTime = 814; timeNextPopSample = 804; popParams.size() = 2
We are SAMPLING at time 804
*** Looping through 5.2. Iter = 879
iteration 879; minNextMutationTime = 815; timeNextPopSample = 805; popParams.size() = 1
We are SAMPLING at time 805
*** Looping through 5.2. Iter = 880
iteration 880; minNextMutationTime = 816; timeNextPopSample = 806; popParams.size() = 1
We are SAMPLING at time 806
*** Looping through 5.2. Iter = 881
iteration 881; minNextMutationTime = 817; timeNextPopSample = 807; popParams.size() = 1
We are SAMPLING at time 807
*** Looping through 5.2. Iter = 882
iteration 882; minNextMutationTime = 818; timeNextPopSample = 808; popParams.size() = 1
We are SAMPLING at time 808
*** Looping through 5.2. Iter = 883
iteration 883; minNextMutationTime = 819; timeNextPopSample = 809; popParams.size() = 1
We are SAMPLING at time 809
*** Looping through 5.2. Iter = 884
iteration 884; minNextMutationTime = 820; timeNextPopSample = 810; popParams.size() = 1
We are SAMPLING at time 810
*** Looping through 5.2. Iter = 885
iteration 885; minNextMutationTime = 821; timeNextPopSample = 811; popParams.size() = 1
We are SAMPLING at time 811
*** Looping through 5.2. Iter = 886
iteration 886; minNextMutationTime = 822; timeNextPopSample = 812; popParams.size() = 1
We are SAMPLING at time 812
*** Looping through 5.2. Iter = 887
iteration 887; minNextMutationTime = 823; timeNextPopSample = 813; popParams.size() = 1
We are SAMPLING at time 813
*** Looping through 5.2. Iter = 888
iteration 888; minNextMutationTime = 813.758; timeNextPopSample = 814; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 889
iteration 889; minNextMutationTime = 824; timeNextPopSample = 814; popParams.size() = 2
We are SAMPLING at time 814
*** Looping through 5.2. Iter = 890
iteration 890; minNextMutationTime = 825; timeNextPopSample = 815; popParams.size() = 2
We are SAMPLING at time 815
*** Looping through 5.2. Iter = 891
iteration 891; minNextMutationTime = 826; timeNextPopSample = 816; popParams.size() = 2
We are SAMPLING at time 816
*** Looping through 5.2. Iter = 892
iteration 892; minNextMutationTime = 827; timeNextPopSample = 817; popParams.size() = 1
We are SAMPLING at time 817
*** Looping through 5.2. Iter = 893
iteration 893; minNextMutationTime = 828; timeNextPopSample = 818; popParams.size() = 1
We are SAMPLING at time 818
*** Looping through 5.2. Iter = 894
iteration 894; minNextMutationTime = 829; timeNextPopSample = 819; popParams.size() = 1
We are SAMPLING at time 819
*** Looping through 5.2. Iter = 895
iteration 895; minNextMutationTime = 830; timeNextPopSample = 820; popParams.size() = 1
We are SAMPLING at time 820
*** Looping through 5.2. Iter = 896
iteration 896; minNextMutationTime = 831; timeNextPopSample = 821; popParams.size() = 1
We are SAMPLING at time 821
*** Looping through 5.2. Iter = 897
iteration 897; minNextMutationTime = 832; timeNextPopSample = 822; popParams.size() = 1
We are SAMPLING at time 822
*** Looping through 5.2. Iter = 898
iteration 898; minNextMutationTime = 822.31; timeNextPopSample = 823; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 899
iteration 899; minNextMutationTime = 833; timeNextPopSample = 823; popParams.size() = 2
We are SAMPLING at time 823
*** Looping through 5.2. Iter = 900
iteration 900; minNextMutationTime = 834; timeNextPopSample = 824; popParams.size() = 2
We are SAMPLING at time 824
*** Looping through 5.2. Iter = 901
iteration 901; minNextMutationTime = 835; timeNextPopSample = 825; popParams.size() = 1
We are SAMPLING at time 825
*** Looping through 5.2. Iter = 902
iteration 902; minNextMutationTime = 836; timeNextPopSample = 826; popParams.size() = 1
We are SAMPLING at time 826
*** Looping through 5.2. Iter = 903
iteration 903; minNextMutationTime = 837; timeNextPopSample = 827; popParams.size() = 1
We are SAMPLING at time 827
*** Looping through 5.2. Iter = 904
iteration 904; minNextMutationTime = 838; timeNextPopSample = 828; popParams.size() = 1
We are SAMPLING at time 828
*** Looping through 5.2. Iter = 905
iteration 905; minNextMutationTime = 839; timeNextPopSample = 829; popParams.size() = 1
We are SAMPLING at time 829
*** Looping through 5.2. Iter = 906
iteration 906; minNextMutationTime = 840; timeNextPopSample = 830; popParams.size() = 1
We are SAMPLING at time 830
*** Looping through 5.2. Iter = 907
iteration 907; minNextMutationTime = 841; timeNextPopSample = 831; popParams.size() = 1
We are SAMPLING at time 831
*** Looping through 5.2. Iter = 908
iteration 908; minNextMutationTime = 842; timeNextPopSample = 832; popParams.size() = 1
We are SAMPLING at time 832
*** Looping through 5.2. Iter = 909
iteration 909; minNextMutationTime = 843; timeNextPopSample = 833; popParams.size() = 1
We are SAMPLING at time 833
*** Looping through 5.2. Iter = 910
iteration 910; minNextMutationTime = 844; timeNextPopSample = 834; popParams.size() = 1
We are SAMPLING at time 834
*** Looping through 5.2. Iter = 911
iteration 911; minNextMutationTime = 834.396; timeNextPopSample = 835; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 912
iteration 912; minNextMutationTime = 845; timeNextPopSample = 835; popParams.size() = 2
We are SAMPLING at time 835
*** Looping through 5.2. Iter = 913
iteration 913; minNextMutationTime = 846; timeNextPopSample = 836; popParams.size() = 2
We are SAMPLING at time 836
*** Looping through 5.2. Iter = 914
iteration 914; minNextMutationTime = 847; timeNextPopSample = 837; popParams.size() = 1
We are SAMPLING at time 837
*** Looping through 5.2. Iter = 915
iteration 915; minNextMutationTime = 848; timeNextPopSample = 838; popParams.size() = 1
We are SAMPLING at time 838
*** Looping through 5.2. Iter = 916
iteration 916; minNextMutationTime = 849; timeNextPopSample = 839; popParams.size() = 1
We are SAMPLING at time 839
*** Looping through 5.2. Iter = 917
iteration 917; minNextMutationTime = 850; timeNextPopSample = 840; popParams.size() = 1
We are SAMPLING at time 840
*** Looping through 5.2. Iter = 918
iteration 918; minNextMutationTime = 851; timeNextPopSample = 841; popParams.size() = 1
We are SAMPLING at time 841
*** Looping through 5.2. Iter = 919
iteration 919; minNextMutationTime = 852; timeNextPopSample = 842; popParams.size() = 1
We are SAMPLING at time 842
*** Looping through 5.2. Iter = 920
iteration 920; minNextMutationTime = 853; timeNextPopSample = 843; popParams.size() = 1
We are SAMPLING at time 843
*** Looping through 5.2. Iter = 921
iteration 921; minNextMutationTime = 854; timeNextPopSample = 844; popParams.size() = 1
We are SAMPLING at time 844
*** Looping through 5.2. Iter = 922
iteration 922; minNextMutationTime = 855; timeNextPopSample = 845; popParams.size() = 1
We are SAMPLING at time 845
*** Looping through 5.2. Iter = 923
iteration 923; minNextMutationTime = 856; timeNextPopSample = 846; popParams.size() = 1
We are SAMPLING at time 846
*** Looping through 5.2. Iter = 924
iteration 924; minNextMutationTime = 857; timeNextPopSample = 847; popParams.size() = 1
We are SAMPLING at time 847
*** Looping through 5.2. Iter = 925
iteration 925; minNextMutationTime = 858; timeNextPopSample = 848; popParams.size() = 1
We are SAMPLING at time 848
*** Looping through 5.2. Iter = 926
iteration 926; minNextMutationTime = 859; timeNextPopSample = 849; popParams.size() = 1
We are SAMPLING at time 849
*** Looping through 5.2. Iter = 927
iteration 927; minNextMutationTime = 860; timeNextPopSample = 850; popParams.size() = 1
We are SAMPLING at time 850
*** Looping through 5.2. Iter = 928
iteration 928; minNextMutationTime = 861; timeNextPopSample = 851; popParams.size() = 1
We are SAMPLING at time 851
*** Looping through 5.2. Iter = 929
iteration 929; minNextMutationTime = 862; timeNextPopSample = 852; popParams.size() = 1
We are SAMPLING at time 852
*** Looping through 5.2. Iter = 930
iteration 930; minNextMutationTime = 863; timeNextPopSample = 853; popParams.size() = 1
We are SAMPLING at time 853
*** Looping through 5.2. Iter = 931
iteration 931; minNextMutationTime = 864; timeNextPopSample = 854; popParams.size() = 1
We are SAMPLING at time 854
*** Looping through 5.2. Iter = 932
iteration 932; minNextMutationTime = 865; timeNextPopSample = 855; popParams.size() = 1
We are SAMPLING at time 855
*** Looping through 5.2. Iter = 933
iteration 933; minNextMutationTime = 866; timeNextPopSample = 856; popParams.size() = 1
We are SAMPLING at time 856
*** Looping through 5.2. Iter = 934
iteration 934; minNextMutationTime = 867; timeNextPopSample = 857; popParams.size() = 1
We are SAMPLING at time 857
*** Looping through 5.2. Iter = 935
iteration 935; minNextMutationTime = 868; timeNextPopSample = 858; popParams.size() = 1
We are SAMPLING at time 858
*** Looping through 5.2. Iter = 936
iteration 936; minNextMutationTime = 869; timeNextPopSample = 859; popParams.size() = 1
We are SAMPLING at time 859
*** Looping through 5.2. Iter = 937
iteration 937; minNextMutationTime = 870; timeNextPopSample = 860; popParams.size() = 1
We are SAMPLING at time 860
*** Looping through 5.2. Iter = 938
iteration 938; minNextMutationTime = 871; timeNextPopSample = 861; popParams.size() = 1
We are SAMPLING at time 861
*** Looping through 5.2. Iter = 939
iteration 939; minNextMutationTime = 861.086; timeNextPopSample = 862; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 940
iteration 940; minNextMutationTime = 872; timeNextPopSample = 862; popParams.size() = 2
We are SAMPLING at time 862
*** Looping through 5.2. Iter = 941
iteration 941; minNextMutationTime = 873; timeNextPopSample = 863; popParams.size() = 2
We are SAMPLING at time 863
*** Looping through 5.2. Iter = 942
iteration 942; minNextMutationTime = 874; timeNextPopSample = 864; popParams.size() = 1
We are SAMPLING at time 864
*** Looping through 5.2. Iter = 943
iteration 943; minNextMutationTime = 875; timeNextPopSample = 865; popParams.size() = 1
We are SAMPLING at time 865
*** Looping through 5.2. Iter = 944
iteration 944; minNextMutationTime = 876; timeNextPopSample = 866; popParams.size() = 1
We are SAMPLING at time 866
*** Looping through 5.2. Iter = 945
iteration 945; minNextMutationTime = 877; timeNextPopSample = 867; popParams.size() = 1
We are SAMPLING at time 867
*** Looping through 5.2. Iter = 946
iteration 946; minNextMutationTime = 867.905; timeNextPopSample = 868; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 947
iteration 947; minNextMutationTime = 878; timeNextPopSample = 868; popParams.size() = 2
We are SAMPLING at time 868
*** Looping through 5.2. Iter = 948
iteration 948; minNextMutationTime = 879; timeNextPopSample = 869; popParams.size() = 2
We are SAMPLING at time 869
*** Looping through 5.2. Iter = 949
iteration 949; minNextMutationTime = 869.039; timeNextPopSample = 870; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 950
iteration 950; minNextMutationTime = 869.861; timeNextPopSample = 870; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 951
iteration 951; minNextMutationTime = 880; timeNextPopSample = 870; popParams.size() = 3
We are SAMPLING at time 870
*** Looping through 5.2. Iter = 952
iteration 952; minNextMutationTime = 881; timeNextPopSample = 871; popParams.size() = 3
We are SAMPLING at time 871
*** Looping through 5.2. Iter = 953
iteration 953; minNextMutationTime = 882; timeNextPopSample = 872; popParams.size() = 3
We are SAMPLING at time 872
*** Looping through 5.2. Iter = 954
iteration 954; minNextMutationTime = 883; timeNextPopSample = 873; popParams.size() = 3
We are SAMPLING at time 873
*** Looping through 5.2. Iter = 955
iteration 955; minNextMutationTime = 873.131; timeNextPopSample = 874; popParams.size() = 3
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000000010; sp_id = 2)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 2)
New popSize = 10
*** Looping through 5.2. Iter = 956
iteration 956; minNextMutationTime = 884; timeNextPopSample = 874; popParams.size() = 3
We are SAMPLING at time 874
*** Looping through 5.2. Iter = 957
iteration 957; minNextMutationTime = 885; timeNextPopSample = 875; popParams.size() = 3
We are SAMPLING at time 875
*** Looping through 5.2. Iter = 958
iteration 958; minNextMutationTime = 886; timeNextPopSample = 876; popParams.size() = 3
We are SAMPLING at time 876
*** Looping through 5.2. Iter = 959
iteration 959; minNextMutationTime = 887; timeNextPopSample = 877; popParams.size() = 2
We are SAMPLING at time 877
*** Looping through 5.2. Iter = 960
iteration 960; minNextMutationTime = 888; timeNextPopSample = 878; popParams.size() = 2
We are SAMPLING at time 878
*** Looping through 5.2. Iter = 961
iteration 961; minNextMutationTime = 889; timeNextPopSample = 879; popParams.size() = 2
We are SAMPLING at time 879
*** Looping through 5.2. Iter = 962
iteration 962; minNextMutationTime = 890; timeNextPopSample = 880; popParams.size() = 2
We are SAMPLING at time 880
*** Looping through 5.2. Iter = 963
iteration 963; minNextMutationTime = 891; timeNextPopSample = 881; popParams.size() = 2
We are SAMPLING at time 881
*** Looping through 5.2. Iter = 964
iteration 964; minNextMutationTime = 892; timeNextPopSample = 882; popParams.size() = 2
We are SAMPLING at time 882
*** Looping through 5.2. Iter = 965
iteration 965; minNextMutationTime = 893; timeNextPopSample = 883; popParams.size() = 2
We are SAMPLING at time 883
*** Looping through 5.2. Iter = 966
iteration 966; minNextMutationTime = 894; timeNextPopSample = 884; popParams.size() = 2
We are SAMPLING at time 884
*** Looping through 5.2. Iter = 967
iteration 967; minNextMutationTime = 895; timeNextPopSample = 885; popParams.size() = 1
We are SAMPLING at time 885
*** Looping through 5.2. Iter = 968
iteration 968; minNextMutationTime = 896; timeNextPopSample = 886; popParams.size() = 1
We are SAMPLING at time 886
*** Looping through 5.2. Iter = 969
iteration 969; minNextMutationTime = 886.704; timeNextPopSample = 887; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 970
iteration 970; minNextMutationTime = 897; timeNextPopSample = 887; popParams.size() = 2
We are SAMPLING at time 887
*** Looping through 5.2. Iter = 971
iteration 971; minNextMutationTime = 898; timeNextPopSample = 888; popParams.size() = 2
We are SAMPLING at time 888
*** Looping through 5.2. Iter = 972
iteration 972; minNextMutationTime = 899; timeNextPopSample = 889; popParams.size() = 2
We are SAMPLING at time 889
*** Looping through 5.2. Iter = 973
iteration 973; minNextMutationTime = 900; timeNextPopSample = 890; popParams.size() = 2
We are SAMPLING at time 890
*** Looping through 5.2. Iter = 974
iteration 974; minNextMutationTime = 901; timeNextPopSample = 891; popParams.size() = 2
We are SAMPLING at time 891
*** Looping through 5.2. Iter = 975
iteration 975; minNextMutationTime = 902; timeNextPopSample = 892; popParams.size() = 1
We are SAMPLING at time 892
*** Looping through 5.2. Iter = 976
iteration 976; minNextMutationTime = 903; timeNextPopSample = 893; popParams.size() = 1
We are SAMPLING at time 893
*** Looping through 5.2. Iter = 977
iteration 977; minNextMutationTime = 893.289; timeNextPopSample = 894; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 978
iteration 978; minNextMutationTime = 904; timeNextPopSample = 894; popParams.size() = 2
We are SAMPLING at time 894
*** Looping through 5.2. Iter = 979
iteration 979; minNextMutationTime = 905; timeNextPopSample = 895; popParams.size() = 2
We are SAMPLING at time 895
*** Looping through 5.2. Iter = 980
iteration 980; minNextMutationTime = 906; timeNextPopSample = 896; popParams.size() = 1
We are SAMPLING at time 896
*** Looping through 5.2. Iter = 981
iteration 981; minNextMutationTime = 907; timeNextPopSample = 897; popParams.size() = 1
We are SAMPLING at time 897
*** Looping through 5.2. Iter = 982
iteration 982; minNextMutationTime = 908; timeNextPopSample = 898; popParams.size() = 1
We are SAMPLING at time 898
*** Looping through 5.2. Iter = 983
iteration 983; minNextMutationTime = 909; timeNextPopSample = 899; popParams.size() = 1
We are SAMPLING at time 899
*** Looping through 5.2. Iter = 984
iteration 984; minNextMutationTime = 899.022; timeNextPopSample = 900; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 985
iteration 985; minNextMutationTime = 910; timeNextPopSample = 900; popParams.size() = 2
We are SAMPLING at time 900
*** Looping through 5.2. Iter = 986
iteration 986; minNextMutationTime = 911; timeNextPopSample = 901; popParams.size() = 2
We are SAMPLING at time 901
*** Looping through 5.2. Iter = 987
iteration 987; minNextMutationTime = 912; timeNextPopSample = 902; popParams.size() = 2
We are SAMPLING at time 902
*** Looping through 5.2. Iter = 988
iteration 988; minNextMutationTime = 913; timeNextPopSample = 903; popParams.size() = 2
We are SAMPLING at time 903
*** Looping through 5.2. Iter = 989
iteration 989; minNextMutationTime = 914; timeNextPopSample = 904; popParams.size() = 2
We are SAMPLING at time 904
*** Looping through 5.2. Iter = 990
iteration 990; minNextMutationTime = 904.131; timeNextPopSample = 905; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 991
iteration 991; minNextMutationTime = 915; timeNextPopSample = 905; popParams.size() = 3
We are SAMPLING at time 905
*** Looping through 5.2. Iter = 992
iteration 992; minNextMutationTime = 905.884; timeNextPopSample = 906; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 993
iteration 993; minNextMutationTime = 916; timeNextPopSample = 906; popParams.size() = 3
We are SAMPLING at time 906
*** Looping through 5.2. Iter = 994
iteration 994; minNextMutationTime = 906.893; timeNextPopSample = 907; popParams.size() = 3
Creating new species 3 from species 0
*** Looping through 5.2. Iter = 995
iteration 995; minNextMutationTime = 917; timeNextPopSample = 907; popParams.size() = 4
We are SAMPLING at time 907
*** Looping through 5.2. Iter = 996
iteration 996; minNextMutationTime = 918; timeNextPopSample = 908; popParams.size() = 3
We are SAMPLING at time 908
*** Looping through 5.2. Iter = 997
iteration 997; minNextMutationTime = 919; timeNextPopSample = 909; popParams.size() = 2
We are SAMPLING at time 909
*** Looping through 5.2. Iter = 998
iteration 998; minNextMutationTime = 920; timeNextPopSample = 910; popParams.size() = 2
We are SAMPLING at time 910
*** Looping through 5.2. Iter = 999
iteration 999; minNextMutationTime = 921; timeNextPopSample = 911; popParams.size() = 2
We are SAMPLING at time 911
... iteration 1000
... currentTime 911
*** Looping through 5.2. Iter = 1000
iteration 1000; minNextMutationTime = 911.969; timeNextPopSample = 912; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1001
iteration 1001; minNextMutationTime = 922; timeNextPopSample = 912; popParams.size() = 3
We are SAMPLING at time 912
*** Looping through 5.2. Iter = 1002
iteration 1002; minNextMutationTime = 923; timeNextPopSample = 913; popParams.size() = 3
We are SAMPLING at time 913
*** Looping through 5.2. Iter = 1003
iteration 1003; minNextMutationTime = 924; timeNextPopSample = 914; popParams.size() = 2
We are SAMPLING at time 914
*** Looping through 5.2. Iter = 1004
iteration 1004; minNextMutationTime = 925; timeNextPopSample = 915; popParams.size() = 2
We are SAMPLING at time 915
*** Looping through 5.2. Iter = 1005
iteration 1005; minNextMutationTime = 926; timeNextPopSample = 916; popParams.size() = 2
We are SAMPLING at time 916
*** Looping through 5.2. Iter = 1006
iteration 1006; minNextMutationTime = 927; timeNextPopSample = 917; popParams.size() = 2
We are SAMPLING at time 917
*** Looping through 5.2. Iter = 1007
iteration 1007; minNextMutationTime = 928; timeNextPopSample = 918; popParams.size() = 2
We are SAMPLING at time 918
*** Looping through 5.2. Iter = 1008
iteration 1008; minNextMutationTime = 929; timeNextPopSample = 919; popParams.size() = 2
We are SAMPLING at time 919
*** Looping through 5.2. Iter = 1009
iteration 1009; minNextMutationTime = 930; timeNextPopSample = 920; popParams.size() = 2
We are SAMPLING at time 920
*** Looping through 5.2. Iter = 1010
iteration 1010; minNextMutationTime = 931; timeNextPopSample = 921; popParams.size() = 2
We are SAMPLING at time 921
*** Looping through 5.2. Iter = 1011
iteration 1011; minNextMutationTime = 921.067; timeNextPopSample = 922; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1012
iteration 1012; minNextMutationTime = 932; timeNextPopSample = 922; popParams.size() = 3
We are SAMPLING at time 922
*** Looping through 5.2. Iter = 1013
iteration 1013; minNextMutationTime = 933; timeNextPopSample = 923; popParams.size() = 3
We are SAMPLING at time 923
*** Looping through 5.2. Iter = 1014
iteration 1014; minNextMutationTime = 934; timeNextPopSample = 924; popParams.size() = 3
We are SAMPLING at time 924
*** Looping through 5.2. Iter = 1015
iteration 1015; minNextMutationTime = 935; timeNextPopSample = 925; popParams.size() = 2
We are SAMPLING at time 925
*** Looping through 5.2. Iter = 1016
iteration 1016; minNextMutationTime = 925.089; timeNextPopSample = 926; popParams.size() = 2
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000001000; sp_id = 8)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 8)
New popSize = 21
*** Looping through 5.2. Iter = 1017
iteration 1017; minNextMutationTime = 936; timeNextPopSample = 926; popParams.size() = 2
We are SAMPLING at time 926
*** Looping through 5.2. Iter = 1018
iteration 1018; minNextMutationTime = 937; timeNextPopSample = 927; popParams.size() = 2
We are SAMPLING at time 927
*** Looping through 5.2. Iter = 1019
iteration 1019; minNextMutationTime = 938; timeNextPopSample = 928; popParams.size() = 2
We are SAMPLING at time 928
*** Looping through 5.2. Iter = 1020
iteration 1020; minNextMutationTime = 939; timeNextPopSample = 929; popParams.size() = 2
We are SAMPLING at time 929
*** Looping through 5.2. Iter = 1021
iteration 1021; minNextMutationTime = 940; timeNextPopSample = 930; popParams.size() = 2
We are SAMPLING at time 930
*** Looping through 5.2. Iter = 1022
iteration 1022; minNextMutationTime = 941; timeNextPopSample = 931; popParams.size() = 2
We are SAMPLING at time 931
*** Looping through 5.2. Iter = 1023
iteration 1023; minNextMutationTime = 942; timeNextPopSample = 932; popParams.size() = 2
We are SAMPLING at time 932
*** Looping through 5.2. Iter = 1024
iteration 1024; minNextMutationTime = 943; timeNextPopSample = 933; popParams.size() = 2
We are SAMPLING at time 933
*** Looping through 5.2. Iter = 1025
iteration 1025; minNextMutationTime = 933.896; timeNextPopSample = 934; popParams.size() = 2
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000001000; sp_id = 8)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 8)
New popSize = 80
*** Looping through 5.2. Iter = 1026
iteration 1026; minNextMutationTime = 944; timeNextPopSample = 934; popParams.size() = 2
We are SAMPLING at time 934
*** Looping through 5.2. Iter = 1027
iteration 1027; minNextMutationTime = 945; timeNextPopSample = 935; popParams.size() = 2
We are SAMPLING at time 935
*** Looping through 5.2. Iter = 1028
iteration 1028; minNextMutationTime = 946; timeNextPopSample = 936; popParams.size() = 2
We are SAMPLING at time 936
*** Looping through 5.2. Iter = 1029
iteration 1029; minNextMutationTime = 947; timeNextPopSample = 937; popParams.size() = 2
We are SAMPLING at time 937
*** Looping through 5.2. Iter = 1030
iteration 1030; minNextMutationTime = 948; timeNextPopSample = 938; popParams.size() = 2
We are SAMPLING at time 938
*** Looping through 5.2. Iter = 1031
iteration 1031; minNextMutationTime = 949; timeNextPopSample = 939; popParams.size() = 2
We are SAMPLING at time 939
*** Looping through 5.2. Iter = 1032
iteration 1032; minNextMutationTime = 950; timeNextPopSample = 940; popParams.size() = 2
We are SAMPLING at time 940
*** Looping through 5.2. Iter = 1033
iteration 1033; minNextMutationTime = 951; timeNextPopSample = 941; popParams.size() = 2
We are SAMPLING at time 941
*** Looping through 5.2. Iter = 1034
iteration 1034; minNextMutationTime = 952; timeNextPopSample = 942; popParams.size() = 2
We are SAMPLING at time 942
*** Looping through 5.2. Iter = 1035
iteration 1035; minNextMutationTime = 953; timeNextPopSample = 943; popParams.size() = 2
We are SAMPLING at time 943
*** Looping through 5.2. Iter = 1036
iteration 1036; minNextMutationTime = 954; timeNextPopSample = 944; popParams.size() = 2
We are SAMPLING at time 944
*** Looping through 5.2. Iter = 1037
iteration 1037; minNextMutationTime = 955; timeNextPopSample = 945; popParams.size() = 2
We are SAMPLING at time 945
*** Looping through 5.2. Iter = 1038
iteration 1038; minNextMutationTime = 956; timeNextPopSample = 946; popParams.size() = 2
We are SAMPLING at time 946
*** Looping through 5.2. Iter = 1039
iteration 1039; minNextMutationTime = 957; timeNextPopSample = 947; popParams.size() = 2
We are SAMPLING at time 947
*** Looping through 5.2. Iter = 1040
iteration 1040; minNextMutationTime = 958; timeNextPopSample = 948; popParams.size() = 2
We are SAMPLING at time 948
*** Looping through 5.2. Iter = 1041
iteration 1041; minNextMutationTime = 959; timeNextPopSample = 949; popParams.size() = 2
We are SAMPLING at time 949
*** Looping through 5.2. Iter = 1042
iteration 1042; minNextMutationTime = 960; timeNextPopSample = 950; popParams.size() = 2
We are SAMPLING at time 950
*** Looping through 5.2. Iter = 1043
iteration 1043; minNextMutationTime = 961; timeNextPopSample = 951; popParams.size() = 2
We are SAMPLING at time 951
*** Looping through 5.2. Iter = 1044
iteration 1044; minNextMutationTime = 962; timeNextPopSample = 952; popParams.size() = 2
We are SAMPLING at time 952
*** Looping through 5.2. Iter = 1045
iteration 1045; minNextMutationTime = 952.302; timeNextPopSample = 953; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1046
iteration 1046; minNextMutationTime = 963; timeNextPopSample = 953; popParams.size() = 3
We are SAMPLING at time 953
*** Looping through 5.2. Iter = 1047
iteration 1047; minNextMutationTime = 964; timeNextPopSample = 954; popParams.size() = 3
We are SAMPLING at time 954
*** Looping through 5.2. Iter = 1048
iteration 1048; minNextMutationTime = 965; timeNextPopSample = 955; popParams.size() = 3
We are SAMPLING at time 955
*** Looping through 5.2. Iter = 1049
iteration 1049; minNextMutationTime = 966; timeNextPopSample = 956; popParams.size() = 3
We are SAMPLING at time 956
*** Looping through 5.2. Iter = 1050
iteration 1050; minNextMutationTime = 967; timeNextPopSample = 957; popParams.size() = 3
We are SAMPLING at time 957
*** Looping through 5.2. Iter = 1051
iteration 1051; minNextMutationTime = 968; timeNextPopSample = 958; popParams.size() = 2
We are SAMPLING at time 958
*** Looping through 5.2. Iter = 1052
iteration 1052; minNextMutationTime = 969; timeNextPopSample = 959; popParams.size() = 2
We are SAMPLING at time 959
*** Looping through 5.2. Iter = 1053
iteration 1053; minNextMutationTime = 970; timeNextPopSample = 960; popParams.size() = 2
We are SAMPLING at time 960
*** Looping through 5.2. Iter = 1054
iteration 1054; minNextMutationTime = 971; timeNextPopSample = 961; popParams.size() = 2
We are SAMPLING at time 961
*** Looping through 5.2. Iter = 1055
iteration 1055; minNextMutationTime = 972; timeNextPopSample = 962; popParams.size() = 2
We are SAMPLING at time 962
*** Looping through 5.2. Iter = 1056
iteration 1056; minNextMutationTime = 973; timeNextPopSample = 963; popParams.size() = 2
We are SAMPLING at time 963
*** Looping through 5.2. Iter = 1057
iteration 1057; minNextMutationTime = 974; timeNextPopSample = 964; popParams.size() = 2
We are SAMPLING at time 964
*** Looping through 5.2. Iter = 1058
iteration 1058; minNextMutationTime = 975; timeNextPopSample = 965; popParams.size() = 2
We are SAMPLING at time 965
*** Looping through 5.2. Iter = 1059
iteration 1059; minNextMutationTime = 976; timeNextPopSample = 966; popParams.size() = 2
We are SAMPLING at time 966
*** Looping through 5.2. Iter = 1060
iteration 1060; minNextMutationTime = 977; timeNextPopSample = 967; popParams.size() = 2
We are SAMPLING at time 967
*** Looping through 5.2. Iter = 1061
iteration 1061; minNextMutationTime = 978; timeNextPopSample = 968; popParams.size() = 2
We are SAMPLING at time 968
*** Looping through 5.2. Iter = 1062
iteration 1062; minNextMutationTime = 979; timeNextPopSample = 969; popParams.size() = 2
We are SAMPLING at time 969
*** Looping through 5.2. Iter = 1063
iteration 1063; minNextMutationTime = 980; timeNextPopSample = 970; popParams.size() = 2
We are SAMPLING at time 970
*** Looping through 5.2. Iter = 1064
iteration 1064; minNextMutationTime = 981; timeNextPopSample = 971; popParams.size() = 2
We are SAMPLING at time 971
*** Looping through 5.2. Iter = 1065
iteration 1065; minNextMutationTime = 982; timeNextPopSample = 972; popParams.size() = 2
We are SAMPLING at time 972
*** Looping through 5.2. Iter = 1066
iteration 1066; minNextMutationTime = 983; timeNextPopSample = 973; popParams.size() = 2
We are SAMPLING at time 973
*** Looping through 5.2. Iter = 1067
iteration 1067; minNextMutationTime = 984; timeNextPopSample = 974; popParams.size() = 2
We are SAMPLING at time 974
*** Looping through 5.2. Iter = 1068
iteration 1068; minNextMutationTime = 985; timeNextPopSample = 975; popParams.size() = 2
We are SAMPLING at time 975
*** Looping through 5.2. Iter = 1069
iteration 1069; minNextMutationTime = 975.024; timeNextPopSample = 976; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1070
iteration 1070; minNextMutationTime = 986; timeNextPopSample = 976; popParams.size() = 3
We are SAMPLING at time 976
*** Looping through 5.2. Iter = 1071
iteration 1071; minNextMutationTime = 987; timeNextPopSample = 977; popParams.size() = 2
We are SAMPLING at time 977
*** Looping through 5.2. Iter = 1072
iteration 1072; minNextMutationTime = 988; timeNextPopSample = 978; popParams.size() = 2
We are SAMPLING at time 978
*** Looping through 5.2. Iter = 1073
iteration 1073; minNextMutationTime = 989; timeNextPopSample = 979; popParams.size() = 2
We are SAMPLING at time 979
*** Looping through 5.2. Iter = 1074
iteration 1074; minNextMutationTime = 990; timeNextPopSample = 980; popParams.size() = 2
We are SAMPLING at time 980
*** Looping through 5.2. Iter = 1075
iteration 1075; minNextMutationTime = 991; timeNextPopSample = 981; popParams.size() = 2
We are SAMPLING at time 981
*** Looping through 5.2. Iter = 1076
iteration 1076; minNextMutationTime = 992; timeNextPopSample = 982; popParams.size() = 2
We are SAMPLING at time 982
*** Looping through 5.2. Iter = 1077
iteration 1077; minNextMutationTime = 993; timeNextPopSample = 983; popParams.size() = 2
We are SAMPLING at time 983
*** Looping through 5.2. Iter = 1078
iteration 1078; minNextMutationTime = 994; timeNextPopSample = 984; popParams.size() = 1
We are SAMPLING at time 984
*** Looping through 5.2. Iter = 1079
iteration 1079; minNextMutationTime = 984.996; timeNextPopSample = 985; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1080
iteration 1080; minNextMutationTime = 995; timeNextPopSample = 985; popParams.size() = 2
We are SAMPLING at time 985
*** Looping through 5.2. Iter = 1081
iteration 1081; minNextMutationTime = 996; timeNextPopSample = 986; popParams.size() = 2
We are SAMPLING at time 986
*** Looping through 5.2. Iter = 1082
iteration 1082; minNextMutationTime = 997; timeNextPopSample = 987; popParams.size() = 2
We are SAMPLING at time 987
*** Looping through 5.2. Iter = 1083
iteration 1083; minNextMutationTime = 998; timeNextPopSample = 988; popParams.size() = 2
We are SAMPLING at time 988
*** Looping through 5.2. Iter = 1084
iteration 1084; minNextMutationTime = 999; timeNextPopSample = 989; popParams.size() = 2
We are SAMPLING at time 989
*** Looping through 5.2. Iter = 1085
iteration 1085; minNextMutationTime = 1000; timeNextPopSample = 990; popParams.size() = 1
We are SAMPLING at time 990
*** Looping through 5.2. Iter = 1086
iteration 1086; minNextMutationTime = 1001; timeNextPopSample = 991; popParams.size() = 1
We are SAMPLING at time 991
*** Looping through 5.2. Iter = 1087
iteration 1087; minNextMutationTime = 1002; timeNextPopSample = 992; popParams.size() = 1
We are SAMPLING at time 992
*** Looping through 5.2. Iter = 1088
iteration 1088; minNextMutationTime = 1003; timeNextPopSample = 993; popParams.size() = 1
We are SAMPLING at time 993
*** Looping through 5.2. Iter = 1089
iteration 1089; minNextMutationTime = 1004; timeNextPopSample = 994; popParams.size() = 1
We are SAMPLING at time 994
*** Looping through 5.2. Iter = 1090
iteration 1090; minNextMutationTime = 1005; timeNextPopSample = 995; popParams.size() = 1
We are SAMPLING at time 995
*** Looping through 5.2. Iter = 1091
iteration 1091; minNextMutationTime = 1006; timeNextPopSample = 996; popParams.size() = 1
We are SAMPLING at time 996
*** Looping through 5.2. Iter = 1092
iteration 1092; minNextMutationTime = 1007; timeNextPopSample = 997; popParams.size() = 1
We are SAMPLING at time 997
*** Looping through 5.2. Iter = 1093
iteration 1093; minNextMutationTime = 1008; timeNextPopSample = 998; popParams.size() = 1
We are SAMPLING at time 998
*** Looping through 5.2. Iter = 1094
iteration 1094; minNextMutationTime = 1009; timeNextPopSample = 999; popParams.size() = 1
We are SAMPLING at time 999
*** Looping through 5.2. Iter = 1095
iteration 1095; minNextMutationTime = 1010; timeNextPopSample = 1000; popParams.size() = 1
We are SAMPLING at time 1000
*** Looping through 5.2. Iter = 1096
iteration 1096; minNextMutationTime = 1011; timeNextPopSample = 1001; popParams.size() = 1
We are SAMPLING at time 1001
*** Looping through 5.2. Iter = 1097
iteration 1097; minNextMutationTime = 1012; timeNextPopSample = 1002; popParams.size() = 1
We are SAMPLING at time 1002
*** Looping through 5.2. Iter = 1098
iteration 1098; minNextMutationTime = 1013; timeNextPopSample = 1003; popParams.size() = 1
We are SAMPLING at time 1003
*** Looping through 5.2. Iter = 1099
iteration 1099; minNextMutationTime = 1014; timeNextPopSample = 1004; popParams.size() = 1
We are SAMPLING at time 1004
*** Looping through 5.2. Iter = 1100
iteration 1100; minNextMutationTime = 1015; timeNextPopSample = 1005; popParams.size() = 1
We are SAMPLING at time 1005
*** Looping through 5.2. Iter = 1101
iteration 1101; minNextMutationTime = 1016; timeNextPopSample = 1006; popParams.size() = 1
We are SAMPLING at time 1006
*** Looping through 5.2. Iter = 1102
iteration 1102; minNextMutationTime = 1017; timeNextPopSample = 1007; popParams.size() = 1
We are SAMPLING at time 1007
*** Looping through 5.2. Iter = 1103
iteration 1103; minNextMutationTime = 1018; timeNextPopSample = 1008; popParams.size() = 1
We are SAMPLING at time 1008
*** Looping through 5.2. Iter = 1104
iteration 1104; minNextMutationTime = 1019; timeNextPopSample = 1009; popParams.size() = 1
We are SAMPLING at time 1009
*** Looping through 5.2. Iter = 1105
iteration 1105; minNextMutationTime = 1009.43; timeNextPopSample = 1010; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1106
iteration 1106; minNextMutationTime = 1020; timeNextPopSample = 1010; popParams.size() = 2
We are SAMPLING at time 1010
*** Looping through 5.2. Iter = 1107
iteration 1107; minNextMutationTime = 1021; timeNextPopSample = 1011; popParams.size() = 1
We are SAMPLING at time 1011
*** Looping through 5.2. Iter = 1108
iteration 1108; minNextMutationTime = 1022; timeNextPopSample = 1012; popParams.size() = 1
We are SAMPLING at time 1012
*** Looping through 5.2. Iter = 1109
iteration 1109; minNextMutationTime = 1023; timeNextPopSample = 1013; popParams.size() = 1
We are SAMPLING at time 1013
*** Looping through 5.2. Iter = 1110
iteration 1110; minNextMutationTime = 1024; timeNextPopSample = 1014; popParams.size() = 1
We are SAMPLING at time 1014
*** Looping through 5.2. Iter = 1111
iteration 1111; minNextMutationTime = 1025; timeNextPopSample = 1015; popParams.size() = 1
We are SAMPLING at time 1015
*** Looping through 5.2. Iter = 1112
iteration 1112; minNextMutationTime = 1015.35; timeNextPopSample = 1016; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1113
iteration 1113; minNextMutationTime = 1026; timeNextPopSample = 1016; popParams.size() = 2
We are SAMPLING at time 1016
*** Looping through 5.2. Iter = 1114
iteration 1114; minNextMutationTime = 1027; timeNextPopSample = 1017; popParams.size() = 2
We are SAMPLING at time 1017
*** Looping through 5.2. Iter = 1115
iteration 1115; minNextMutationTime = 1017.79; timeNextPopSample = 1018; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1116
iteration 1116; minNextMutationTime = 1028; timeNextPopSample = 1018; popParams.size() = 3
We are SAMPLING at time 1018
*** Looping through 5.2. Iter = 1117
iteration 1117; minNextMutationTime = 1029; timeNextPopSample = 1019; popParams.size() = 2
We are SAMPLING at time 1019
*** Looping through 5.2. Iter = 1118
iteration 1118; minNextMutationTime = 1030; timeNextPopSample = 1020; popParams.size() = 2
We are SAMPLING at time 1020
*** Looping through 5.2. Iter = 1119
iteration 1119; minNextMutationTime = 1031; timeNextPopSample = 1021; popParams.size() = 2
We are SAMPLING at time 1021
*** Looping through 5.2. Iter = 1120
iteration 1120; minNextMutationTime = 1032; timeNextPopSample = 1022; popParams.size() = 2
We are SAMPLING at time 1022
*** Looping through 5.2. Iter = 1121
iteration 1121; minNextMutationTime = 1033; timeNextPopSample = 1023; popParams.size() = 2
We are SAMPLING at time 1023
*** Looping through 5.2. Iter = 1122
iteration 1122; minNextMutationTime = 1034; timeNextPopSample = 1024; popParams.size() = 2
We are SAMPLING at time 1024
*** Looping through 5.2. Iter = 1123
iteration 1123; minNextMutationTime = 1024.79; timeNextPopSample = 1025; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1124
iteration 1124; minNextMutationTime = 1035; timeNextPopSample = 1025; popParams.size() = 3
We are SAMPLING at time 1025
*** Looping through 5.2. Iter = 1125
iteration 1125; minNextMutationTime = 1036; timeNextPopSample = 1026; popParams.size() = 3
We are SAMPLING at time 1026
*** Looping through 5.2. Iter = 1126
iteration 1126; minNextMutationTime = 1037; timeNextPopSample = 1027; popParams.size() = 3
We are SAMPLING at time 1027
*** Looping through 5.2. Iter = 1127
iteration 1127; minNextMutationTime = 1038; timeNextPopSample = 1028; popParams.size() = 2
We are SAMPLING at time 1028
*** Looping through 5.2. Iter = 1128
iteration 1128; minNextMutationTime = 1039; timeNextPopSample = 1029; popParams.size() = 2
We are SAMPLING at time 1029
*** Looping through 5.2. Iter = 1129
iteration 1129; minNextMutationTime = 1040; timeNextPopSample = 1030; popParams.size() = 2
We are SAMPLING at time 1030
*** Looping through 5.2. Iter = 1130
iteration 1130; minNextMutationTime = 1041; timeNextPopSample = 1031; popParams.size() = 2
We are SAMPLING at time 1031
*** Looping through 5.2. Iter = 1131
iteration 1131; minNextMutationTime = 1042; timeNextPopSample = 1032; popParams.size() = 2
We are SAMPLING at time 1032
*** Looping through 5.2. Iter = 1132
iteration 1132; minNextMutationTime = 1043; timeNextPopSample = 1033; popParams.size() = 2
We are SAMPLING at time 1033
*** Looping through 5.2. Iter = 1133
iteration 1133; minNextMutationTime = 1044; timeNextPopSample = 1034; popParams.size() = 2
We are SAMPLING at time 1034
*** Looping through 5.2. Iter = 1134
iteration 1134; minNextMutationTime = 1045; timeNextPopSample = 1035; popParams.size() = 2
We are SAMPLING at time 1035
*** Looping through 5.2. Iter = 1135
iteration 1135; minNextMutationTime = 1046; timeNextPopSample = 1036; popParams.size() = 2
We are SAMPLING at time 1036
*** Looping through 5.2. Iter = 1136
iteration 1136; minNextMutationTime = 1047; timeNextPopSample = 1037; popParams.size() = 1
We are SAMPLING at time 1037
*** Looping through 5.2. Iter = 1137
iteration 1137; minNextMutationTime = 1048; timeNextPopSample = 1038; popParams.size() = 1
We are SAMPLING at time 1038
*** Looping through 5.2. Iter = 1138
iteration 1138; minNextMutationTime = 1049; timeNextPopSample = 1039; popParams.size() = 1
We are SAMPLING at time 1039
*** Looping through 5.2. Iter = 1139
iteration 1139; minNextMutationTime = 1050; timeNextPopSample = 1040; popParams.size() = 1
We are SAMPLING at time 1040
*** Looping through 5.2. Iter = 1140
iteration 1140; minNextMutationTime = 1051; timeNextPopSample = 1041; popParams.size() = 1
We are SAMPLING at time 1041
*** Looping through 5.2. Iter = 1141
iteration 1141; minNextMutationTime = 1052; timeNextPopSample = 1042; popParams.size() = 1
We are SAMPLING at time 1042
*** Looping through 5.2. Iter = 1142
iteration 1142; minNextMutationTime = 1053; timeNextPopSample = 1043; popParams.size() = 1
We are SAMPLING at time 1043
*** Looping through 5.2. Iter = 1143
iteration 1143; minNextMutationTime = 1054; timeNextPopSample = 1044; popParams.size() = 1
We are SAMPLING at time 1044
*** Looping through 5.2. Iter = 1144
iteration 1144; minNextMutationTime = 1055; timeNextPopSample = 1045; popParams.size() = 1
We are SAMPLING at time 1045
*** Looping through 5.2. Iter = 1145
iteration 1145; minNextMutationTime = 1056; timeNextPopSample = 1046; popParams.size() = 1
We are SAMPLING at time 1046
*** Looping through 5.2. Iter = 1146
iteration 1146; minNextMutationTime = 1057; timeNextPopSample = 1047; popParams.size() = 1
We are SAMPLING at time 1047
*** Looping through 5.2. Iter = 1147
iteration 1147; minNextMutationTime = 1058; timeNextPopSample = 1048; popParams.size() = 1
We are SAMPLING at time 1048
*** Looping through 5.2. Iter = 1148
iteration 1148; minNextMutationTime = 1059; timeNextPopSample = 1049; popParams.size() = 1
We are SAMPLING at time 1049
*** Looping through 5.2. Iter = 1149
iteration 1149; minNextMutationTime = 1060; timeNextPopSample = 1050; popParams.size() = 1
We are SAMPLING at time 1050
*** Looping through 5.2. Iter = 1150
iteration 1150; minNextMutationTime = 1061; timeNextPopSample = 1051; popParams.size() = 1
We are SAMPLING at time 1051
*** Looping through 5.2. Iter = 1151
iteration 1151; minNextMutationTime = 1062; timeNextPopSample = 1052; popParams.size() = 1
We are SAMPLING at time 1052
*** Looping through 5.2. Iter = 1152
iteration 1152; minNextMutationTime = 1063; timeNextPopSample = 1053; popParams.size() = 1
We are SAMPLING at time 1053
*** Looping through 5.2. Iter = 1153
iteration 1153; minNextMutationTime = 1064; timeNextPopSample = 1054; popParams.size() = 1
We are SAMPLING at time 1054
*** Looping through 5.2. Iter = 1154
iteration 1154; minNextMutationTime = 1065; timeNextPopSample = 1055; popParams.size() = 1
We are SAMPLING at time 1055
*** Looping through 5.2. Iter = 1155
iteration 1155; minNextMutationTime = 1066; timeNextPopSample = 1056; popParams.size() = 1
We are SAMPLING at time 1056
*** Looping through 5.2. Iter = 1156
iteration 1156; minNextMutationTime = 1067; timeNextPopSample = 1057; popParams.size() = 1
We are SAMPLING at time 1057
*** Looping through 5.2. Iter = 1157
iteration 1157; minNextMutationTime = 1068; timeNextPopSample = 1058; popParams.size() = 1
We are SAMPLING at time 1058
*** Looping through 5.2. Iter = 1158
iteration 1158; minNextMutationTime = 1069; timeNextPopSample = 1059; popParams.size() = 1
We are SAMPLING at time 1059
*** Looping through 5.2. Iter = 1159
iteration 1159; minNextMutationTime = 1070; timeNextPopSample = 1060; popParams.size() = 1
We are SAMPLING at time 1060
*** Looping through 5.2. Iter = 1160
iteration 1160; minNextMutationTime = 1060.67; timeNextPopSample = 1061; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1161
iteration 1161; minNextMutationTime = 1071; timeNextPopSample = 1061; popParams.size() = 2
We are SAMPLING at time 1061
*** Looping through 5.2. Iter = 1162
iteration 1162; minNextMutationTime = 1072; timeNextPopSample = 1062; popParams.size() = 2
We are SAMPLING at time 1062
*** Looping through 5.2. Iter = 1163
iteration 1163; minNextMutationTime = 1073; timeNextPopSample = 1063; popParams.size() = 2
We are SAMPLING at time 1063
*** Looping through 5.2. Iter = 1164
iteration 1164; minNextMutationTime = 1074; timeNextPopSample = 1064; popParams.size() = 1
We are SAMPLING at time 1064
*** Looping through 5.2. Iter = 1165
iteration 1165; minNextMutationTime = 1075; timeNextPopSample = 1065; popParams.size() = 1
We are SAMPLING at time 1065
*** Looping through 5.2. Iter = 1166
iteration 1166; minNextMutationTime = 1076; timeNextPopSample = 1066; popParams.size() = 1
We are SAMPLING at time 1066
*** Looping through 5.2. Iter = 1167
iteration 1167; minNextMutationTime = 1066.55; timeNextPopSample = 1067; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1168
iteration 1168; minNextMutationTime = 1077; timeNextPopSample = 1067; popParams.size() = 2
We are SAMPLING at time 1067
*** Looping through 5.2. Iter = 1169
iteration 1169; minNextMutationTime = 1078; timeNextPopSample = 1068; popParams.size() = 2
We are SAMPLING at time 1068
*** Looping through 5.2. Iter = 1170
iteration 1170; minNextMutationTime = 1079; timeNextPopSample = 1069; popParams.size() = 1
We are SAMPLING at time 1069
*** Looping through 5.2. Iter = 1171
iteration 1171; minNextMutationTime = 1080; timeNextPopSample = 1070; popParams.size() = 1
We are SAMPLING at time 1070
*** Looping through 5.2. Iter = 1172
iteration 1172; minNextMutationTime = 1081; timeNextPopSample = 1071; popParams.size() = 1
We are SAMPLING at time 1071
*** Looping through 5.2. Iter = 1173
iteration 1173; minNextMutationTime = 1082; timeNextPopSample = 1072; popParams.size() = 1
We are SAMPLING at time 1072
*** Looping through 5.2. Iter = 1174
iteration 1174; minNextMutationTime = 1083; timeNextPopSample = 1073; popParams.size() = 1
We are SAMPLING at time 1073
*** Looping through 5.2. Iter = 1175
iteration 1175; minNextMutationTime = 1084; timeNextPopSample = 1074; popParams.size() = 1
We are SAMPLING at time 1074
*** Looping through 5.2. Iter = 1176
iteration 1176; minNextMutationTime = 1085; timeNextPopSample = 1075; popParams.size() = 1
We are SAMPLING at time 1075
*** Looping through 5.2. Iter = 1177
iteration 1177; minNextMutationTime = 1086; timeNextPopSample = 1076; popParams.size() = 1
We are SAMPLING at time 1076
*** Looping through 5.2. Iter = 1178
iteration 1178; minNextMutationTime = 1087; timeNextPopSample = 1077; popParams.size() = 1
We are SAMPLING at time 1077
*** Looping through 5.2. Iter = 1179
iteration 1179; minNextMutationTime = 1088; timeNextPopSample = 1078; popParams.size() = 1
We are SAMPLING at time 1078
*** Looping through 5.2. Iter = 1180
iteration 1180; minNextMutationTime = 1089; timeNextPopSample = 1079; popParams.size() = 1
We are SAMPLING at time 1079
*** Looping through 5.2. Iter = 1181
iteration 1181; minNextMutationTime = 1090; timeNextPopSample = 1080; popParams.size() = 1
We are SAMPLING at time 1080
*** Looping through 5.2. Iter = 1182
iteration 1182; minNextMutationTime = 1091; timeNextPopSample = 1081; popParams.size() = 1
We are SAMPLING at time 1081
*** Looping through 5.2. Iter = 1183
iteration 1183; minNextMutationTime = 1092; timeNextPopSample = 1082; popParams.size() = 1
We are SAMPLING at time 1082
*** Looping through 5.2. Iter = 1184
iteration 1184; minNextMutationTime = 1093; timeNextPopSample = 1083; popParams.size() = 1
We are SAMPLING at time 1083
*** Looping through 5.2. Iter = 1185
iteration 1185; minNextMutationTime = 1094; timeNextPopSample = 1084; popParams.size() = 1
We are SAMPLING at time 1084
*** Looping through 5.2. Iter = 1186
iteration 1186; minNextMutationTime = 1095; timeNextPopSample = 1085; popParams.size() = 1
We are SAMPLING at time 1085
*** Looping through 5.2. Iter = 1187
iteration 1187; minNextMutationTime = 1096; timeNextPopSample = 1086; popParams.size() = 1
We are SAMPLING at time 1086
*** Looping through 5.2. Iter = 1188
iteration 1188; minNextMutationTime = 1086.48; timeNextPopSample = 1087; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1189
iteration 1189; minNextMutationTime = 1097; timeNextPopSample = 1087; popParams.size() = 2
We are SAMPLING at time 1087
*** Looping through 5.2. Iter = 1190
iteration 1190; minNextMutationTime = 1098; timeNextPopSample = 1088; popParams.size() = 1
We are SAMPLING at time 1088
*** Looping through 5.2. Iter = 1191
iteration 1191; minNextMutationTime = 1099; timeNextPopSample = 1089; popParams.size() = 1
We are SAMPLING at time 1089
*** Looping through 5.2. Iter = 1192
iteration 1192; minNextMutationTime = 1100; timeNextPopSample = 1090; popParams.size() = 1
We are SAMPLING at time 1090
*** Looping through 5.2. Iter = 1193
iteration 1193; minNextMutationTime = 1101; timeNextPopSample = 1091; popParams.size() = 1
We are SAMPLING at time 1091
*** Looping through 5.2. Iter = 1194
iteration 1194; minNextMutationTime = 1102; timeNextPopSample = 1092; popParams.size() = 1
We are SAMPLING at time 1092
*** Looping through 5.2. Iter = 1195
iteration 1195; minNextMutationTime = 1103; timeNextPopSample = 1093; popParams.size() = 1
We are SAMPLING at time 1093
*** Looping through 5.2. Iter = 1196
iteration 1196; minNextMutationTime = 1104; timeNextPopSample = 1094; popParams.size() = 1
We are SAMPLING at time 1094
*** Looping through 5.2. Iter = 1197
iteration 1197; minNextMutationTime = 1105; timeNextPopSample = 1095; popParams.size() = 1
We are SAMPLING at time 1095
*** Looping through 5.2. Iter = 1198
iteration 1198; minNextMutationTime = 1106; timeNextPopSample = 1096; popParams.size() = 1
We are SAMPLING at time 1096
*** Looping through 5.2. Iter = 1199
iteration 1199; minNextMutationTime = 1107; timeNextPopSample = 1097; popParams.size() = 1
We are SAMPLING at time 1097
*** Looping through 5.2. Iter = 1200
iteration 1200; minNextMutationTime = 1108; timeNextPopSample = 1098; popParams.size() = 1
We are SAMPLING at time 1098
*** Looping through 5.2. Iter = 1201
iteration 1201; minNextMutationTime = 1109; timeNextPopSample = 1099; popParams.size() = 1
We are SAMPLING at time 1099
*** Looping through 5.2. Iter = 1202
iteration 1202; minNextMutationTime = 1099.68; timeNextPopSample = 1100; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1203
iteration 1203; minNextMutationTime = 1110; timeNextPopSample = 1100; popParams.size() = 2
We are SAMPLING at time 1100
*** Looping through 5.2. Iter = 1204
iteration 1204; minNextMutationTime = 1111; timeNextPopSample = 1101; popParams.size() = 2
We are SAMPLING at time 1101
*** Looping through 5.2. Iter = 1205
iteration 1205; minNextMutationTime = 1112; timeNextPopSample = 1102; popParams.size() = 2
We are SAMPLING at time 1102
*** Looping through 5.2. Iter = 1206
iteration 1206; minNextMutationTime = 1113; timeNextPopSample = 1103; popParams.size() = 2
We are SAMPLING at time 1103
*** Looping through 5.2. Iter = 1207
iteration 1207; minNextMutationTime = 1114; timeNextPopSample = 1104; popParams.size() = 2
We are SAMPLING at time 1104
*** Looping through 5.2. Iter = 1208
iteration 1208; minNextMutationTime = 1115; timeNextPopSample = 1105; popParams.size() = 2
We are SAMPLING at time 1105
*** Looping through 5.2. Iter = 1209
iteration 1209; minNextMutationTime = 1116; timeNextPopSample = 1106; popParams.size() = 1
We are SAMPLING at time 1106
*** Looping through 5.2. Iter = 1210
iteration 1210; minNextMutationTime = 1117; timeNextPopSample = 1107; popParams.size() = 1
We are SAMPLING at time 1107
*** Looping through 5.2. Iter = 1211
iteration 1211; minNextMutationTime = 1118; timeNextPopSample = 1108; popParams.size() = 1
We are SAMPLING at time 1108
*** Looping through 5.2. Iter = 1212
iteration 1212; minNextMutationTime = 1119; timeNextPopSample = 1109; popParams.size() = 1
We are SAMPLING at time 1109
*** Looping through 5.2. Iter = 1213
iteration 1213; minNextMutationTime = 1120; timeNextPopSample = 1110; popParams.size() = 1
We are SAMPLING at time 1110
*** Looping through 5.2. Iter = 1214
iteration 1214; minNextMutationTime = 1121; timeNextPopSample = 1111; popParams.size() = 1
We are SAMPLING at time 1111
*** Looping through 5.2. Iter = 1215
iteration 1215; minNextMutationTime = 1122; timeNextPopSample = 1112; popParams.size() = 1
We are SAMPLING at time 1112
*** Looping through 5.2. Iter = 1216
iteration 1216; minNextMutationTime = 1123; timeNextPopSample = 1113; popParams.size() = 1
We are SAMPLING at time 1113
*** Looping through 5.2. Iter = 1217
iteration 1217; minNextMutationTime = 1124; timeNextPopSample = 1114; popParams.size() = 1
We are SAMPLING at time 1114
*** Looping through 5.2. Iter = 1218
iteration 1218; minNextMutationTime = 1125; timeNextPopSample = 1115; popParams.size() = 1
We are SAMPLING at time 1115
*** Looping through 5.2. Iter = 1219
iteration 1219; minNextMutationTime = 1126; timeNextPopSample = 1116; popParams.size() = 1
We are SAMPLING at time 1116
*** Looping through 5.2. Iter = 1220
iteration 1220; minNextMutationTime = 1127; timeNextPopSample = 1117; popParams.size() = 1
We are SAMPLING at time 1117
*** Looping through 5.2. Iter = 1221
iteration 1221; minNextMutationTime = 1117.16; timeNextPopSample = 1118; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1222
iteration 1222; minNextMutationTime = 1128; timeNextPopSample = 1118; popParams.size() = 2
We are SAMPLING at time 1118
*** Looping through 5.2. Iter = 1223
iteration 1223; minNextMutationTime = 1129; timeNextPopSample = 1119; popParams.size() = 1
We are SAMPLING at time 1119
*** Looping through 5.2. Iter = 1224
iteration 1224; minNextMutationTime = 1130; timeNextPopSample = 1120; popParams.size() = 1
We are SAMPLING at time 1120
*** Looping through 5.2. Iter = 1225
iteration 1225; minNextMutationTime = 1120.57; timeNextPopSample = 1121; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1226
iteration 1226; minNextMutationTime = 1131; timeNextPopSample = 1121; popParams.size() = 2
We are SAMPLING at time 1121
*** Looping through 5.2. Iter = 1227
iteration 1227; minNextMutationTime = 1132; timeNextPopSample = 1122; popParams.size() = 1
We are SAMPLING at time 1122
*** Looping through 5.2. Iter = 1228
iteration 1228; minNextMutationTime = 1133; timeNextPopSample = 1123; popParams.size() = 1
We are SAMPLING at time 1123
*** Looping through 5.2. Iter = 1229
iteration 1229; minNextMutationTime = 1134; timeNextPopSample = 1124; popParams.size() = 1
We are SAMPLING at time 1124
*** Looping through 5.2. Iter = 1230
iteration 1230; minNextMutationTime = 1135; timeNextPopSample = 1125; popParams.size() = 1
We are SAMPLING at time 1125
*** Looping through 5.2. Iter = 1231
iteration 1231; minNextMutationTime = 1136; timeNextPopSample = 1126; popParams.size() = 1
We are SAMPLING at time 1126
*** Looping through 5.2. Iter = 1232
iteration 1232; minNextMutationTime = 1137; timeNextPopSample = 1127; popParams.size() = 1
We are SAMPLING at time 1127
*** Looping through 5.2. Iter = 1233
iteration 1233; minNextMutationTime = 1138; timeNextPopSample = 1128; popParams.size() = 1
We are SAMPLING at time 1128
*** Looping through 5.2. Iter = 1234
iteration 1234; minNextMutationTime = 1128.24; timeNextPopSample = 1129; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1235
iteration 1235; minNextMutationTime = 1128.5; timeNextPopSample = 1129; popParams.size() = 2
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 1)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 1)
New popSize = 2
*** Looping through 5.2. Iter = 1236
iteration 1236; minNextMutationTime = 1128.73; timeNextPopSample = 1129; popParams.size() = 2
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 1)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 1)
New popSize = 3
*** Looping through 5.2. Iter = 1237
iteration 1237; minNextMutationTime = 1139; timeNextPopSample = 1129; popParams.size() = 2
We are SAMPLING at time 1129
*** Looping through 5.2. Iter = 1238
iteration 1238; minNextMutationTime = 1140; timeNextPopSample = 1130; popParams.size() = 1
We are SAMPLING at time 1130
*** Looping through 5.2. Iter = 1239
iteration 1239; minNextMutationTime = 1141; timeNextPopSample = 1131; popParams.size() = 1
We are SAMPLING at time 1131
*** Looping through 5.2. Iter = 1240
iteration 1240; minNextMutationTime = 1142; timeNextPopSample = 1132; popParams.size() = 1
We are SAMPLING at time 1132
*** Looping through 5.2. Iter = 1241
iteration 1241; minNextMutationTime = 1143; timeNextPopSample = 1133; popParams.size() = 1
We are SAMPLING at time 1133
*** Looping through 5.2. Iter = 1242
iteration 1242; minNextMutationTime = 1144; timeNextPopSample = 1134; popParams.size() = 1
We are SAMPLING at time 1134
*** Looping through 5.2. Iter = 1243
iteration 1243; minNextMutationTime = 1145; timeNextPopSample = 1135; popParams.size() = 1
We are SAMPLING at time 1135
*** Looping through 5.2. Iter = 1244
iteration 1244; minNextMutationTime = 1146; timeNextPopSample = 1136; popParams.size() = 1
We are SAMPLING at time 1136
*** Looping through 5.2. Iter = 1245
iteration 1245; minNextMutationTime = 1147; timeNextPopSample = 1137; popParams.size() = 1
We are SAMPLING at time 1137
*** Looping through 5.2. Iter = 1246
iteration 1246; minNextMutationTime = 1148; timeNextPopSample = 1138; popParams.size() = 1
We are SAMPLING at time 1138
*** Looping through 5.2. Iter = 1247
iteration 1247; minNextMutationTime = 1149; timeNextPopSample = 1139; popParams.size() = 1
We are SAMPLING at time 1139
*** Looping through 5.2. Iter = 1248
iteration 1248; minNextMutationTime = 1150; timeNextPopSample = 1140; popParams.size() = 1
We are SAMPLING at time 1140
*** Looping through 5.2. Iter = 1249
iteration 1249; minNextMutationTime = 1151; timeNextPopSample = 1141; popParams.size() = 1
We are SAMPLING at time 1141
*** Looping through 5.2. Iter = 1250
iteration 1250; minNextMutationTime = 1152; timeNextPopSample = 1142; popParams.size() = 1
We are SAMPLING at time 1142
*** Looping through 5.2. Iter = 1251
iteration 1251; minNextMutationTime = 1153; timeNextPopSample = 1143; popParams.size() = 1
We are SAMPLING at time 1143
*** Looping through 5.2. Iter = 1252
iteration 1252; minNextMutationTime = 1154; timeNextPopSample = 1144; popParams.size() = 1
We are SAMPLING at time 1144
*** Looping through 5.2. Iter = 1253
iteration 1253; minNextMutationTime = 1155; timeNextPopSample = 1145; popParams.size() = 1
We are SAMPLING at time 1145
*** Looping through 5.2. Iter = 1254
iteration 1254; minNextMutationTime = 1156; timeNextPopSample = 1146; popParams.size() = 1
We are SAMPLING at time 1146
*** Looping through 5.2. Iter = 1255
iteration 1255; minNextMutationTime = 1157; timeNextPopSample = 1147; popParams.size() = 1
We are SAMPLING at time 1147
*** Looping through 5.2. Iter = 1256
iteration 1256; minNextMutationTime = 1158; timeNextPopSample = 1148; popParams.size() = 1
We are SAMPLING at time 1148
*** Looping through 5.2. Iter = 1257
iteration 1257; minNextMutationTime = 1159; timeNextPopSample = 1149; popParams.size() = 1
We are SAMPLING at time 1149
*** Looping through 5.2. Iter = 1258
iteration 1258; minNextMutationTime = 1160; timeNextPopSample = 1150; popParams.size() = 1
We are SAMPLING at time 1150
*** Looping through 5.2. Iter = 1259
iteration 1259; minNextMutationTime = 1161; timeNextPopSample = 1151; popParams.size() = 1
We are SAMPLING at time 1151
*** Looping through 5.2. Iter = 1260
iteration 1260; minNextMutationTime = 1162; timeNextPopSample = 1152; popParams.size() = 1
We are SAMPLING at time 1152
*** Looping through 5.2. Iter = 1261
iteration 1261; minNextMutationTime = 1152.22; timeNextPopSample = 1153; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1262
iteration 1262; minNextMutationTime = 1163; timeNextPopSample = 1153; popParams.size() = 2
We are SAMPLING at time 1153
*** Looping through 5.2. Iter = 1263
iteration 1263; minNextMutationTime = 1164; timeNextPopSample = 1154; popParams.size() = 2
We are SAMPLING at time 1154
*** Looping through 5.2. Iter = 1264
iteration 1264; minNextMutationTime = 1165; timeNextPopSample = 1155; popParams.size() = 1
We are SAMPLING at time 1155
*** Looping through 5.2. Iter = 1265
iteration 1265; minNextMutationTime = 1166; timeNextPopSample = 1156; popParams.size() = 1
We are SAMPLING at time 1156
*** Looping through 5.2. Iter = 1266
iteration 1266; minNextMutationTime = 1167; timeNextPopSample = 1157; popParams.size() = 1
We are SAMPLING at time 1157
*** Looping through 5.2. Iter = 1267
iteration 1267; minNextMutationTime = 1168; timeNextPopSample = 1158; popParams.size() = 1
We are SAMPLING at time 1158
*** Looping through 5.2. Iter = 1268
iteration 1268; minNextMutationTime = 1169; timeNextPopSample = 1159; popParams.size() = 1
We are SAMPLING at time 1159
*** Looping through 5.2. Iter = 1269
iteration 1269; minNextMutationTime = 1170; timeNextPopSample = 1160; popParams.size() = 1
We are SAMPLING at time 1160
*** Looping through 5.2. Iter = 1270
iteration 1270; minNextMutationTime = 1160.18; timeNextPopSample = 1161; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1271
iteration 1271; minNextMutationTime = 1171; timeNextPopSample = 1161; popParams.size() = 2
We are SAMPLING at time 1161
*** Looping through 5.2. Iter = 1272
iteration 1272; minNextMutationTime = 1172; timeNextPopSample = 1162; popParams.size() = 1
We are SAMPLING at time 1162
*** Looping through 5.2. Iter = 1273
iteration 1273; minNextMutationTime = 1173; timeNextPopSample = 1163; popParams.size() = 1
We are SAMPLING at time 1163
*** Looping through 5.2. Iter = 1274
iteration 1274; minNextMutationTime = 1174; timeNextPopSample = 1164; popParams.size() = 1
We are SAMPLING at time 1164
*** Looping through 5.2. Iter = 1275
iteration 1275; minNextMutationTime = 1175; timeNextPopSample = 1165; popParams.size() = 1
We are SAMPLING at time 1165
*** Looping through 5.2. Iter = 1276
iteration 1276; minNextMutationTime = 1176; timeNextPopSample = 1166; popParams.size() = 1
We are SAMPLING at time 1166
*** Looping through 5.2. Iter = 1277
iteration 1277; minNextMutationTime = 1177; timeNextPopSample = 1167; popParams.size() = 1
We are SAMPLING at time 1167
*** Looping through 5.2. Iter = 1278
iteration 1278; minNextMutationTime = 1178; timeNextPopSample = 1168; popParams.size() = 1
We are SAMPLING at time 1168
*** Looping through 5.2. Iter = 1279
iteration 1279; minNextMutationTime = 1179; timeNextPopSample = 1169; popParams.size() = 1
We are SAMPLING at time 1169
*** Looping through 5.2. Iter = 1280
iteration 1280; minNextMutationTime = 1180; timeNextPopSample = 1170; popParams.size() = 1
We are SAMPLING at time 1170
*** Looping through 5.2. Iter = 1281
iteration 1281; minNextMutationTime = 1181; timeNextPopSample = 1171; popParams.size() = 1
We are SAMPLING at time 1171
*** Looping through 5.2. Iter = 1282
iteration 1282; minNextMutationTime = 1182; timeNextPopSample = 1172; popParams.size() = 1
We are SAMPLING at time 1172
*** Looping through 5.2. Iter = 1283
iteration 1283; minNextMutationTime = 1183; timeNextPopSample = 1173; popParams.size() = 1
We are SAMPLING at time 1173
*** Looping through 5.2. Iter = 1284
iteration 1284; minNextMutationTime = 1184; timeNextPopSample = 1174; popParams.size() = 1
We are SAMPLING at time 1174
*** Looping through 5.2. Iter = 1285
iteration 1285; minNextMutationTime = 1185; timeNextPopSample = 1175; popParams.size() = 1
We are SAMPLING at time 1175
*** Looping through 5.2. Iter = 1286
iteration 1286; minNextMutationTime = 1186; timeNextPopSample = 1176; popParams.size() = 1
We are SAMPLING at time 1176
*** Looping through 5.2. Iter = 1287
iteration 1287; minNextMutationTime = 1187; timeNextPopSample = 1177; popParams.size() = 1
We are SAMPLING at time 1177
*** Looping through 5.2. Iter = 1288
iteration 1288; minNextMutationTime = 1188; timeNextPopSample = 1178; popParams.size() = 1
We are SAMPLING at time 1178
*** Looping through 5.2. Iter = 1289
iteration 1289; minNextMutationTime = 1178.26; timeNextPopSample = 1179; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1290
iteration 1290; minNextMutationTime = 1189; timeNextPopSample = 1179; popParams.size() = 2
We are SAMPLING at time 1179
*** Looping through 5.2. Iter = 1291
iteration 1291; minNextMutationTime = 1190; timeNextPopSample = 1180; popParams.size() = 1
We are SAMPLING at time 1180
*** Looping through 5.2. Iter = 1292
iteration 1292; minNextMutationTime = 1191; timeNextPopSample = 1181; popParams.size() = 1
We are SAMPLING at time 1181
*** Looping through 5.2. Iter = 1293
iteration 1293; minNextMutationTime = 1192; timeNextPopSample = 1182; popParams.size() = 1
We are SAMPLING at time 1182
*** Looping through 5.2. Iter = 1294
iteration 1294; minNextMutationTime = 1193; timeNextPopSample = 1183; popParams.size() = 1
We are SAMPLING at time 1183
*** Looping through 5.2. Iter = 1295
iteration 1295; minNextMutationTime = 1194; timeNextPopSample = 1184; popParams.size() = 1
We are SAMPLING at time 1184
*** Looping through 5.2. Iter = 1296
iteration 1296; minNextMutationTime = 1195; timeNextPopSample = 1185; popParams.size() = 1
We are SAMPLING at time 1185
*** Looping through 5.2. Iter = 1297
iteration 1297; minNextMutationTime = 1196; timeNextPopSample = 1186; popParams.size() = 1
We are SAMPLING at time 1186
*** Looping through 5.2. Iter = 1298
iteration 1298; minNextMutationTime = 1197; timeNextPopSample = 1187; popParams.size() = 1
We are SAMPLING at time 1187
*** Looping through 5.2. Iter = 1299
iteration 1299; minNextMutationTime = 1198; timeNextPopSample = 1188; popParams.size() = 1
We are SAMPLING at time 1188
*** Looping through 5.2. Iter = 1300
iteration 1300; minNextMutationTime = 1199; timeNextPopSample = 1189; popParams.size() = 1
We are SAMPLING at time 1189
*** Looping through 5.2. Iter = 1301
iteration 1301; minNextMutationTime = 1189.53; timeNextPopSample = 1190; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1302
iteration 1302; minNextMutationTime = 1200; timeNextPopSample = 1190; popParams.size() = 2
We are SAMPLING at time 1190
*** Looping through 5.2. Iter = 1303
iteration 1303; minNextMutationTime = 1201; timeNextPopSample = 1191; popParams.size() = 2
We are SAMPLING at time 1191
*** Looping through 5.2. Iter = 1304
iteration 1304; minNextMutationTime = 1202; timeNextPopSample = 1192; popParams.size() = 1
We are SAMPLING at time 1192
*** Looping through 5.2. Iter = 1305
iteration 1305; minNextMutationTime = 1203; timeNextPopSample = 1193; popParams.size() = 1
We are SAMPLING at time 1193
*** Looping through 5.2. Iter = 1306
iteration 1306; minNextMutationTime = 1204; timeNextPopSample = 1194; popParams.size() = 1
We are SAMPLING at time 1194
*** Looping through 5.2. Iter = 1307
iteration 1307; minNextMutationTime = 1205; timeNextPopSample = 1195; popParams.size() = 1
We are SAMPLING at time 1195
*** Looping through 5.2. Iter = 1308
iteration 1308; minNextMutationTime = 1206; timeNextPopSample = 1196; popParams.size() = 1
We are SAMPLING at time 1196
*** Looping through 5.2. Iter = 1309
iteration 1309; minNextMutationTime = 1196.32; timeNextPopSample = 1197; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1310
iteration 1310; minNextMutationTime = 1207; timeNextPopSample = 1197; popParams.size() = 2
We are SAMPLING at time 1197
*** Looping through 5.2. Iter = 1311
iteration 1311; minNextMutationTime = 1197.63; timeNextPopSample = 1198; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1312
iteration 1312; minNextMutationTime = 1208; timeNextPopSample = 1198; popParams.size() = 3
We are SAMPLING at time 1198
*** Looping through 5.2. Iter = 1313
iteration 1313; minNextMutationTime = 1209; timeNextPopSample = 1199; popParams.size() = 2
We are SAMPLING at time 1199
*** Looping through 5.2. Iter = 1314
iteration 1314; minNextMutationTime = 1210; timeNextPopSample = 1200; popParams.size() = 1
We are SAMPLING at time 1200
*** Looping through 5.2. Iter = 1315
iteration 1315; minNextMutationTime = 1211; timeNextPopSample = 1201; popParams.size() = 1
We are SAMPLING at time 1201
*** Looping through 5.2. Iter = 1316
iteration 1316; minNextMutationTime = 1212; timeNextPopSample = 1202; popParams.size() = 1
We are SAMPLING at time 1202
*** Looping through 5.2. Iter = 1317
iteration 1317; minNextMutationTime = 1213; timeNextPopSample = 1203; popParams.size() = 1
We are SAMPLING at time 1203
*** Looping through 5.2. Iter = 1318
iteration 1318; minNextMutationTime = 1214; timeNextPopSample = 1204; popParams.size() = 1
We are SAMPLING at time 1204
*** Looping through 5.2. Iter = 1319
iteration 1319; minNextMutationTime = 1215; timeNextPopSample = 1205; popParams.size() = 1
We are SAMPLING at time 1205
*** Looping through 5.2. Iter = 1320
iteration 1320; minNextMutationTime = 1205.91; timeNextPopSample = 1206; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1321
iteration 1321; minNextMutationTime = 1216; timeNextPopSample = 1206; popParams.size() = 2
We are SAMPLING at time 1206
*** Looping through 5.2. Iter = 1322
iteration 1322; minNextMutationTime = 1217; timeNextPopSample = 1207; popParams.size() = 2
We are SAMPLING at time 1207
*** Looping through 5.2. Iter = 1323
iteration 1323; minNextMutationTime = 1218; timeNextPopSample = 1208; popParams.size() = 1
We are SAMPLING at time 1208
*** Looping through 5.2. Iter = 1324
iteration 1324; minNextMutationTime = 1219; timeNextPopSample = 1209; popParams.size() = 1
We are SAMPLING at time 1209
*** Looping through 5.2. Iter = 1325
iteration 1325; minNextMutationTime = 1220; timeNextPopSample = 1210; popParams.size() = 1
We are SAMPLING at time 1210
*** Looping through 5.2. Iter = 1326
iteration 1326; minNextMutationTime = 1221; timeNextPopSample = 1211; popParams.size() = 1
We are SAMPLING at time 1211
*** Looping through 5.2. Iter = 1327
iteration 1327; minNextMutationTime = 1222; timeNextPopSample = 1212; popParams.size() = 1
We are SAMPLING at time 1212
*** Looping through 5.2. Iter = 1328
iteration 1328; minNextMutationTime = 1223; timeNextPopSample = 1213; popParams.size() = 1
We are SAMPLING at time 1213
*** Looping through 5.2. Iter = 1329
iteration 1329; minNextMutationTime = 1224; timeNextPopSample = 1214; popParams.size() = 1
We are SAMPLING at time 1214
*** Looping through 5.2. Iter = 1330
iteration 1330; minNextMutationTime = 1225; timeNextPopSample = 1215; popParams.size() = 1
We are SAMPLING at time 1215
*** Looping through 5.2. Iter = 1331
iteration 1331; minNextMutationTime = 1226; timeNextPopSample = 1216; popParams.size() = 1
We are SAMPLING at time 1216
*** Looping through 5.2. Iter = 1332
iteration 1332; minNextMutationTime = 1216.8; timeNextPopSample = 1217; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1333
iteration 1333; minNextMutationTime = 1227; timeNextPopSample = 1217; popParams.size() = 2
We are SAMPLING at time 1217
*** Looping through 5.2. Iter = 1334
iteration 1334; minNextMutationTime = 1228; timeNextPopSample = 1218; popParams.size() = 2
We are SAMPLING at time 1218
*** Looping through 5.2. Iter = 1335
iteration 1335; minNextMutationTime = 1229; timeNextPopSample = 1219; popParams.size() = 2
We are SAMPLING at time 1219
*** Looping through 5.2. Iter = 1336
iteration 1336; minNextMutationTime = 1230; timeNextPopSample = 1220; popParams.size() = 2
We are SAMPLING at time 1220
*** Looping through 5.2. Iter = 1337
iteration 1337; minNextMutationTime = 1231; timeNextPopSample = 1221; popParams.size() = 1
We are SAMPLING at time 1221
*** Looping through 5.2. Iter = 1338
iteration 1338; minNextMutationTime = 1232; timeNextPopSample = 1222; popParams.size() = 1
We are SAMPLING at time 1222
*** Looping through 5.2. Iter = 1339
iteration 1339; minNextMutationTime = 1233; timeNextPopSample = 1223; popParams.size() = 1
We are SAMPLING at time 1223
*** Looping through 5.2. Iter = 1340
iteration 1340; minNextMutationTime = 1234; timeNextPopSample = 1224; popParams.size() = 1
We are SAMPLING at time 1224
*** Looping through 5.2. Iter = 1341
iteration 1341; minNextMutationTime = 1235; timeNextPopSample = 1225; popParams.size() = 1
We are SAMPLING at time 1225
*** Looping through 5.2. Iter = 1342
iteration 1342; minNextMutationTime = 1236; timeNextPopSample = 1226; popParams.size() = 1
We are SAMPLING at time 1226
*** Looping through 5.2. Iter = 1343
iteration 1343; minNextMutationTime = 1237; timeNextPopSample = 1227; popParams.size() = 1
We are SAMPLING at time 1227
*** Looping through 5.2. Iter = 1344
iteration 1344; minNextMutationTime = 1238; timeNextPopSample = 1228; popParams.size() = 1
We are SAMPLING at time 1228
*** Looping through 5.2. Iter = 1345
iteration 1345; minNextMutationTime = 1239; timeNextPopSample = 1229; popParams.size() = 1
We are SAMPLING at time 1229
*** Looping through 5.2. Iter = 1346
iteration 1346; minNextMutationTime = 1240; timeNextPopSample = 1230; popParams.size() = 1
We are SAMPLING at time 1230
*** Looping through 5.2. Iter = 1347
iteration 1347; minNextMutationTime = 1241; timeNextPopSample = 1231; popParams.size() = 1
We are SAMPLING at time 1231
*** Looping through 5.2. Iter = 1348
iteration 1348; minNextMutationTime = 1242; timeNextPopSample = 1232; popParams.size() = 1
We are SAMPLING at time 1232
*** Looping through 5.2. Iter = 1349
iteration 1349; minNextMutationTime = 1243; timeNextPopSample = 1233; popParams.size() = 1
We are SAMPLING at time 1233
*** Looping through 5.2. Iter = 1350
iteration 1350; minNextMutationTime = 1244; timeNextPopSample = 1234; popParams.size() = 1
We are SAMPLING at time 1234
*** Looping through 5.2. Iter = 1351
iteration 1351; minNextMutationTime = 1245; timeNextPopSample = 1235; popParams.size() = 1
We are SAMPLING at time 1235
*** Looping through 5.2. Iter = 1352
iteration 1352; minNextMutationTime = 1246; timeNextPopSample = 1236; popParams.size() = 1
We are SAMPLING at time 1236
*** Looping through 5.2. Iter = 1353
iteration 1353; minNextMutationTime = 1236.28; timeNextPopSample = 1237; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1354
iteration 1354; minNextMutationTime = 1247; timeNextPopSample = 1237; popParams.size() = 2
We are SAMPLING at time 1237
*** Looping through 5.2. Iter = 1355
iteration 1355; minNextMutationTime = 1248; timeNextPopSample = 1238; popParams.size() = 2
We are SAMPLING at time 1238
*** Looping through 5.2. Iter = 1356
iteration 1356; minNextMutationTime = 1249; timeNextPopSample = 1239; popParams.size() = 2
We are SAMPLING at time 1239
*** Looping through 5.2. Iter = 1357
iteration 1357; minNextMutationTime = 1250; timeNextPopSample = 1240; popParams.size() = 2
We are SAMPLING at time 1240
*** Looping through 5.2. Iter = 1358
iteration 1358; minNextMutationTime = 1251; timeNextPopSample = 1241; popParams.size() = 2
We are SAMPLING at time 1241
*** Looping through 5.2. Iter = 1359
iteration 1359; minNextMutationTime = 1252; timeNextPopSample = 1242; popParams.size() = 2
We are SAMPLING at time 1242
*** Looping through 5.2. Iter = 1360
iteration 1360; minNextMutationTime = 1253; timeNextPopSample = 1243; popParams.size() = 2
We are SAMPLING at time 1243
*** Looping through 5.2. Iter = 1361
iteration 1361; minNextMutationTime = 1254; timeNextPopSample = 1244; popParams.size() = 1
We are SAMPLING at time 1244
*** Looping through 5.2. Iter = 1362
iteration 1362; minNextMutationTime = 1255; timeNextPopSample = 1245; popParams.size() = 1
We are SAMPLING at time 1245
*** Looping through 5.2. Iter = 1363
iteration 1363; minNextMutationTime = 1245.59; timeNextPopSample = 1246; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1364
iteration 1364; minNextMutationTime = 1256; timeNextPopSample = 1246; popParams.size() = 2
We are SAMPLING at time 1246
*** Looping through 5.2. Iter = 1365
iteration 1365; minNextMutationTime = 1246.64; timeNextPopSample = 1247; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1366
iteration 1366; minNextMutationTime = 1257; timeNextPopSample = 1247; popParams.size() = 3
We are SAMPLING at time 1247
*** Looping through 5.2. Iter = 1367
iteration 1367; minNextMutationTime = 1258; timeNextPopSample = 1248; popParams.size() = 1
We are SAMPLING at time 1248
*** Looping through 5.2. Iter = 1368
iteration 1368; minNextMutationTime = 1248.35; timeNextPopSample = 1249; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1369
iteration 1369; minNextMutationTime = 1259; timeNextPopSample = 1249; popParams.size() = 2
We are SAMPLING at time 1249
*** Looping through 5.2. Iter = 1370
iteration 1370; minNextMutationTime = 1260; timeNextPopSample = 1250; popParams.size() = 1
We are SAMPLING at time 1250
*** Looping through 5.2. Iter = 1371
iteration 1371; minNextMutationTime = 1261; timeNextPopSample = 1251; popParams.size() = 1
We are SAMPLING at time 1251
*** Looping through 5.2. Iter = 1372
iteration 1372; minNextMutationTime = 1262; timeNextPopSample = 1252; popParams.size() = 1
We are SAMPLING at time 1252
*** Looping through 5.2. Iter = 1373
iteration 1373; minNextMutationTime = 1263; timeNextPopSample = 1253; popParams.size() = 1
We are SAMPLING at time 1253
*** Looping through 5.2. Iter = 1374
iteration 1374; minNextMutationTime = 1264; timeNextPopSample = 1254; popParams.size() = 1
We are SAMPLING at time 1254
*** Looping through 5.2. Iter = 1375
iteration 1375; minNextMutationTime = 1265; timeNextPopSample = 1255; popParams.size() = 1
We are SAMPLING at time 1255
*** Looping through 5.2. Iter = 1376
iteration 1376; minNextMutationTime = 1266; timeNextPopSample = 1256; popParams.size() = 1
We are SAMPLING at time 1256
*** Looping through 5.2. Iter = 1377
iteration 1377; minNextMutationTime = 1267; timeNextPopSample = 1257; popParams.size() = 1
We are SAMPLING at time 1257
*** Looping through 5.2. Iter = 1378
iteration 1378; minNextMutationTime = 1268; timeNextPopSample = 1258; popParams.size() = 1
We are SAMPLING at time 1258
*** Looping through 5.2. Iter = 1379
iteration 1379; minNextMutationTime = 1269; timeNextPopSample = 1259; popParams.size() = 1
We are SAMPLING at time 1259
*** Looping through 5.2. Iter = 1380
iteration 1380; minNextMutationTime = 1270; timeNextPopSample = 1260; popParams.size() = 1
We are SAMPLING at time 1260
*** Looping through 5.2. Iter = 1381
iteration 1381; minNextMutationTime = 1271; timeNextPopSample = 1261; popParams.size() = 1
We are SAMPLING at time 1261
*** Looping through 5.2. Iter = 1382
iteration 1382; minNextMutationTime = 1272; timeNextPopSample = 1262; popParams.size() = 1
We are SAMPLING at time 1262
*** Looping through 5.2. Iter = 1383
iteration 1383; minNextMutationTime = 1273; timeNextPopSample = 1263; popParams.size() = 1
We are SAMPLING at time 1263
*** Looping through 5.2. Iter = 1384
iteration 1384; minNextMutationTime = 1274; timeNextPopSample = 1264; popParams.size() = 1
We are SAMPLING at time 1264
*** Looping through 5.2. Iter = 1385
iteration 1385; minNextMutationTime = 1275; timeNextPopSample = 1265; popParams.size() = 1
We are SAMPLING at time 1265
*** Looping through 5.2. Iter = 1386
iteration 1386; minNextMutationTime = 1265.29; timeNextPopSample = 1266; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1387
iteration 1387; minNextMutationTime = 1276; timeNextPopSample = 1266; popParams.size() = 2
We are SAMPLING at time 1266
*** Looping through 5.2. Iter = 1388
iteration 1388; minNextMutationTime = 1277; timeNextPopSample = 1267; popParams.size() = 2
We are SAMPLING at time 1267
*** Looping through 5.2. Iter = 1389
iteration 1389; minNextMutationTime = 1278; timeNextPopSample = 1268; popParams.size() = 2
We are SAMPLING at time 1268
*** Looping through 5.2. Iter = 1390
iteration 1390; minNextMutationTime = 1268.91; timeNextPopSample = 1269; popParams.size() = 2
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000100000; sp_id = 32)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 32)
New popSize = 2
*** Looping through 5.2. Iter = 1391
iteration 1391; minNextMutationTime = 1279; timeNextPopSample = 1269; popParams.size() = 2
We are SAMPLING at time 1269
*** Looping through 5.2. Iter = 1392
iteration 1392; minNextMutationTime = 1280; timeNextPopSample = 1270; popParams.size() = 2
We are SAMPLING at time 1270
*** Looping through 5.2. Iter = 1393
iteration 1393; minNextMutationTime = 1281; timeNextPopSample = 1271; popParams.size() = 2
We are SAMPLING at time 1271
*** Looping through 5.2. Iter = 1394
iteration 1394; minNextMutationTime = 1271.52; timeNextPopSample = 1272; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1395
iteration 1395; minNextMutationTime = 1282; timeNextPopSample = 1272; popParams.size() = 3
We are SAMPLING at time 1272
*** Looping through 5.2. Iter = 1396
iteration 1396; minNextMutationTime = 1283; timeNextPopSample = 1273; popParams.size() = 3
We are SAMPLING at time 1273
*** Looping through 5.2. Iter = 1397
iteration 1397; minNextMutationTime = 1284; timeNextPopSample = 1274; popParams.size() = 2
We are SAMPLING at time 1274
*** Looping through 5.2. Iter = 1398
iteration 1398; minNextMutationTime = 1274.46; timeNextPopSample = 1275; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1399
iteration 1399; minNextMutationTime = 1285; timeNextPopSample = 1275; popParams.size() = 2
We are SAMPLING at time 1275
*** Looping through 5.2. Iter = 1400
iteration 1400; minNextMutationTime = 1286; timeNextPopSample = 1276; popParams.size() = 2
We are SAMPLING at time 1276
*** Looping through 5.2. Iter = 1401
iteration 1401; minNextMutationTime = 1287; timeNextPopSample = 1277; popParams.size() = 2
We are SAMPLING at time 1277
*** Looping through 5.2. Iter = 1402
iteration 1402; minNextMutationTime = 1288; timeNextPopSample = 1278; popParams.size() = 1
We are SAMPLING at time 1278
*** Looping through 5.2. Iter = 1403
iteration 1403; minNextMutationTime = 1289; timeNextPopSample = 1279; popParams.size() = 1
We are SAMPLING at time 1279
*** Looping through 5.2. Iter = 1404
iteration 1404; minNextMutationTime = 1279.38; timeNextPopSample = 1280; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1405
iteration 1405; minNextMutationTime = 1290; timeNextPopSample = 1280; popParams.size() = 2
We are SAMPLING at time 1280
*** Looping through 5.2. Iter = 1406
iteration 1406; minNextMutationTime = 1291; timeNextPopSample = 1281; popParams.size() = 1
We are SAMPLING at time 1281
*** Looping through 5.2. Iter = 1407
iteration 1407; minNextMutationTime = 1292; timeNextPopSample = 1282; popParams.size() = 1
We are SAMPLING at time 1282
*** Looping through 5.2. Iter = 1408
iteration 1408; minNextMutationTime = 1293; timeNextPopSample = 1283; popParams.size() = 1
We are SAMPLING at time 1283
*** Looping through 5.2. Iter = 1409
iteration 1409; minNextMutationTime = 1294; timeNextPopSample = 1284; popParams.size() = 1
We are SAMPLING at time 1284
*** Looping through 5.2. Iter = 1410
iteration 1410; minNextMutationTime = 1295; timeNextPopSample = 1285; popParams.size() = 1
We are SAMPLING at time 1285
*** Looping through 5.2. Iter = 1411
iteration 1411; minNextMutationTime = 1296; timeNextPopSample = 1286; popParams.size() = 1
We are SAMPLING at time 1286
*** Looping through 5.2. Iter = 1412
iteration 1412; minNextMutationTime = 1286.98; timeNextPopSample = 1287; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1413
iteration 1413; minNextMutationTime = 1297; timeNextPopSample = 1287; popParams.size() = 2
We are SAMPLING at time 1287
*** Looping through 5.2. Iter = 1414
iteration 1414; minNextMutationTime = 1298; timeNextPopSample = 1288; popParams.size() = 2
We are SAMPLING at time 1288
*** Looping through 5.2. Iter = 1415
iteration 1415; minNextMutationTime = 1299; timeNextPopSample = 1289; popParams.size() = 2
We are SAMPLING at time 1289
*** Looping through 5.2. Iter = 1416
iteration 1416; minNextMutationTime = 1289.37; timeNextPopSample = 1290; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1417
iteration 1417; minNextMutationTime = 1300; timeNextPopSample = 1290; popParams.size() = 3
We are SAMPLING at time 1290
*** Looping through 5.2. Iter = 1418
iteration 1418; minNextMutationTime = 1301; timeNextPopSample = 1291; popParams.size() = 2
We are SAMPLING at time 1291
*** Looping through 5.2. Iter = 1419
iteration 1419; minNextMutationTime = 1302; timeNextPopSample = 1292; popParams.size() = 2
We are SAMPLING at time 1292
*** Looping through 5.2. Iter = 1420
iteration 1420; minNextMutationTime = 1303; timeNextPopSample = 1293; popParams.size() = 1
We are SAMPLING at time 1293
*** Looping through 5.2. Iter = 1421
iteration 1421; minNextMutationTime = 1304; timeNextPopSample = 1294; popParams.size() = 1
We are SAMPLING at time 1294
*** Looping through 5.2. Iter = 1422
iteration 1422; minNextMutationTime = 1305; timeNextPopSample = 1295; popParams.size() = 1
We are SAMPLING at time 1295
*** Looping through 5.2. Iter = 1423
iteration 1423; minNextMutationTime = 1306; timeNextPopSample = 1296; popParams.size() = 1
We are SAMPLING at time 1296
*** Looping through 5.2. Iter = 1424
iteration 1424; minNextMutationTime = 1307; timeNextPopSample = 1297; popParams.size() = 1
We are SAMPLING at time 1297
*** Looping through 5.2. Iter = 1425
iteration 1425; minNextMutationTime = 1308; timeNextPopSample = 1298; popParams.size() = 1
We are SAMPLING at time 1298
*** Looping through 5.2. Iter = 1426
iteration 1426; minNextMutationTime = 1309; timeNextPopSample = 1299; popParams.size() = 1
We are SAMPLING at time 1299
*** Looping through 5.2. Iter = 1427
iteration 1427; minNextMutationTime = 1310; timeNextPopSample = 1300; popParams.size() = 1
We are SAMPLING at time 1300
*** Looping through 5.2. Iter = 1428
iteration 1428; minNextMutationTime = 1311; timeNextPopSample = 1301; popParams.size() = 1
We are SAMPLING at time 1301
*** Looping through 5.2. Iter = 1429
iteration 1429; minNextMutationTime = 1312; timeNextPopSample = 1302; popParams.size() = 1
We are SAMPLING at time 1302
*** Looping through 5.2. Iter = 1430
iteration 1430; minNextMutationTime = 1313; timeNextPopSample = 1303; popParams.size() = 1
We are SAMPLING at time 1303
*** Looping through 5.2. Iter = 1431
iteration 1431; minNextMutationTime = 1303.66; timeNextPopSample = 1304; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1432
iteration 1432; minNextMutationTime = 1314; timeNextPopSample = 1304; popParams.size() = 2
We are SAMPLING at time 1304
*** Looping through 5.2. Iter = 1433
iteration 1433; minNextMutationTime = 1315; timeNextPopSample = 1305; popParams.size() = 2
We are SAMPLING at time 1305
*** Looping through 5.2. Iter = 1434
iteration 1434; minNextMutationTime = 1316; timeNextPopSample = 1306; popParams.size() = 1
We are SAMPLING at time 1306
*** Looping through 5.2. Iter = 1435
iteration 1435; minNextMutationTime = 1317; timeNextPopSample = 1307; popParams.size() = 1
We are SAMPLING at time 1307
*** Looping through 5.2. Iter = 1436
iteration 1436; minNextMutationTime = 1318; timeNextPopSample = 1308; popParams.size() = 1
We are SAMPLING at time 1308
*** Looping through 5.2. Iter = 1437
iteration 1437; minNextMutationTime = 1308.94; timeNextPopSample = 1309; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1438
iteration 1438; minNextMutationTime = 1319; timeNextPopSample = 1309; popParams.size() = 2
We are SAMPLING at time 1309
*** Looping through 5.2. Iter = 1439
iteration 1439; minNextMutationTime = 1320; timeNextPopSample = 1310; popParams.size() = 2
We are SAMPLING at time 1310
*** Looping through 5.2. Iter = 1440
iteration 1440; minNextMutationTime = 1321; timeNextPopSample = 1311; popParams.size() = 2
We are SAMPLING at time 1311
*** Looping through 5.2. Iter = 1441
iteration 1441; minNextMutationTime = 1322; timeNextPopSample = 1312; popParams.size() = 1
We are SAMPLING at time 1312
*** Looping through 5.2. Iter = 1442
iteration 1442; minNextMutationTime = 1323; timeNextPopSample = 1313; popParams.size() = 1
We are SAMPLING at time 1313
*** Looping through 5.2. Iter = 1443
iteration 1443; minNextMutationTime = 1324; timeNextPopSample = 1314; popParams.size() = 1
We are SAMPLING at time 1314
*** Looping through 5.2. Iter = 1444
iteration 1444; minNextMutationTime = 1325; timeNextPopSample = 1315; popParams.size() = 1
We are SAMPLING at time 1315
*** Looping through 5.2. Iter = 1445
iteration 1445; minNextMutationTime = 1326; timeNextPopSample = 1316; popParams.size() = 1
We are SAMPLING at time 1316
*** Looping through 5.2. Iter = 1446
iteration 1446; minNextMutationTime = 1316.08; timeNextPopSample = 1317; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1447
iteration 1447; minNextMutationTime = 1327; timeNextPopSample = 1317; popParams.size() = 2
We are SAMPLING at time 1317
*** Looping through 5.2. Iter = 1448
iteration 1448; minNextMutationTime = 1328; timeNextPopSample = 1318; popParams.size() = 1
We are SAMPLING at time 1318
*** Looping through 5.2. Iter = 1449
iteration 1449; minNextMutationTime = 1329; timeNextPopSample = 1319; popParams.size() = 1
We are SAMPLING at time 1319
*** Looping through 5.2. Iter = 1450
iteration 1450; minNextMutationTime = 1330; timeNextPopSample = 1320; popParams.size() = 1
We are SAMPLING at time 1320
*** Looping through 5.2. Iter = 1451
iteration 1451; minNextMutationTime = 1331; timeNextPopSample = 1321; popParams.size() = 1
We are SAMPLING at time 1321
*** Looping through 5.2. Iter = 1452
iteration 1452; minNextMutationTime = 1332; timeNextPopSample = 1322; popParams.size() = 1
We are SAMPLING at time 1322
*** Looping through 5.2. Iter = 1453
iteration 1453; minNextMutationTime = 1333; timeNextPopSample = 1323; popParams.size() = 1
We are SAMPLING at time 1323
*** Looping through 5.2. Iter = 1454
iteration 1454; minNextMutationTime = 1323.97; timeNextPopSample = 1324; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1455
iteration 1455; minNextMutationTime = 1334; timeNextPopSample = 1324; popParams.size() = 2
We are SAMPLING at time 1324
*** Looping through 5.2. Iter = 1456
iteration 1456; minNextMutationTime = 1335; timeNextPopSample = 1325; popParams.size() = 2
We are SAMPLING at time 1325
*** Looping through 5.2. Iter = 1457
iteration 1457; minNextMutationTime = 1336; timeNextPopSample = 1326; popParams.size() = 1
We are SAMPLING at time 1326
*** Looping through 5.2. Iter = 1458
iteration 1458; minNextMutationTime = 1337; timeNextPopSample = 1327; popParams.size() = 1
We are SAMPLING at time 1327
*** Looping through 5.2. Iter = 1459
iteration 1459; minNextMutationTime = 1338; timeNextPopSample = 1328; popParams.size() = 1
We are SAMPLING at time 1328
*** Looping through 5.2. Iter = 1460
iteration 1460; minNextMutationTime = 1339; timeNextPopSample = 1329; popParams.size() = 1
We are SAMPLING at time 1329
*** Looping through 5.2. Iter = 1461
iteration 1461; minNextMutationTime = 1340; timeNextPopSample = 1330; popParams.size() = 1
We are SAMPLING at time 1330
*** Looping through 5.2. Iter = 1462
iteration 1462; minNextMutationTime = 1341; timeNextPopSample = 1331; popParams.size() = 1
We are SAMPLING at time 1331
*** Looping through 5.2. Iter = 1463
iteration 1463; minNextMutationTime = 1342; timeNextPopSample = 1332; popParams.size() = 1
We are SAMPLING at time 1332
*** Looping through 5.2. Iter = 1464
iteration 1464; minNextMutationTime = 1343; timeNextPopSample = 1333; popParams.size() = 1
We are SAMPLING at time 1333
*** Looping through 5.2. Iter = 1465
iteration 1465; minNextMutationTime = 1344; timeNextPopSample = 1334; popParams.size() = 1
We are SAMPLING at time 1334
*** Looping through 5.2. Iter = 1466
iteration 1466; minNextMutationTime = 1345; timeNextPopSample = 1335; popParams.size() = 1
We are SAMPLING at time 1335
*** Looping through 5.2. Iter = 1467
iteration 1467; minNextMutationTime = 1346; timeNextPopSample = 1336; popParams.size() = 1
We are SAMPLING at time 1336
*** Looping through 5.2. Iter = 1468
iteration 1468; minNextMutationTime = 1347; timeNextPopSample = 1337; popParams.size() = 1
We are SAMPLING at time 1337
*** Looping through 5.2. Iter = 1469
iteration 1469; minNextMutationTime = 1348; timeNextPopSample = 1338; popParams.size() = 1
We are SAMPLING at time 1338
*** Looping through 5.2. Iter = 1470
iteration 1470; minNextMutationTime = 1349; timeNextPopSample = 1339; popParams.size() = 1
We are SAMPLING at time 1339
*** Looping through 5.2. Iter = 1471
iteration 1471; minNextMutationTime = 1350; timeNextPopSample = 1340; popParams.size() = 1
We are SAMPLING at time 1340
*** Looping through 5.2. Iter = 1472
iteration 1472; minNextMutationTime = 1351; timeNextPopSample = 1341; popParams.size() = 1
We are SAMPLING at time 1341
*** Looping through 5.2. Iter = 1473
iteration 1473; minNextMutationTime = 1352; timeNextPopSample = 1342; popParams.size() = 1
We are SAMPLING at time 1342
*** Looping through 5.2. Iter = 1474
iteration 1474; minNextMutationTime = 1353; timeNextPopSample = 1343; popParams.size() = 1
We are SAMPLING at time 1343
*** Looping through 5.2. Iter = 1475
iteration 1475; minNextMutationTime = 1354; timeNextPopSample = 1344; popParams.size() = 1
We are SAMPLING at time 1344
*** Looping through 5.2. Iter = 1476
iteration 1476; minNextMutationTime = 1355; timeNextPopSample = 1345; popParams.size() = 1
We are SAMPLING at time 1345
*** Looping through 5.2. Iter = 1477
iteration 1477; minNextMutationTime = 1356; timeNextPopSample = 1346; popParams.size() = 1
We are SAMPLING at time 1346
*** Looping through 5.2. Iter = 1478
iteration 1478; minNextMutationTime = 1357; timeNextPopSample = 1347; popParams.size() = 1
We are SAMPLING at time 1347
*** Looping through 5.2. Iter = 1479
iteration 1479; minNextMutationTime = 1358; timeNextPopSample = 1348; popParams.size() = 1
We are SAMPLING at time 1348
*** Looping through 5.2. Iter = 1480
iteration 1480; minNextMutationTime = 1359; timeNextPopSample = 1349; popParams.size() = 1
We are SAMPLING at time 1349
*** Looping through 5.2. Iter = 1481
iteration 1481; minNextMutationTime = 1360; timeNextPopSample = 1350; popParams.size() = 1
We are SAMPLING at time 1350
*** Looping through 5.2. Iter = 1482
iteration 1482; minNextMutationTime = 1361; timeNextPopSample = 1351; popParams.size() = 1
We are SAMPLING at time 1351
*** Looping through 5.2. Iter = 1483
iteration 1483; minNextMutationTime = 1362; timeNextPopSample = 1352; popParams.size() = 1
We are SAMPLING at time 1352
*** Looping through 5.2. Iter = 1484
iteration 1484; minNextMutationTime = 1363; timeNextPopSample = 1353; popParams.size() = 1
We are SAMPLING at time 1353
*** Looping through 5.2. Iter = 1485
iteration 1485; minNextMutationTime = 1364; timeNextPopSample = 1354; popParams.size() = 1
We are SAMPLING at time 1354
*** Looping through 5.2. Iter = 1486
iteration 1486; minNextMutationTime = 1354.71; timeNextPopSample = 1355; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1487
iteration 1487; minNextMutationTime = 1365; timeNextPopSample = 1355; popParams.size() = 2
We are SAMPLING at time 1355
*** Looping through 5.2. Iter = 1488
iteration 1488; minNextMutationTime = 1366; timeNextPopSample = 1356; popParams.size() = 2
We are SAMPLING at time 1356
*** Looping through 5.2. Iter = 1489
iteration 1489; minNextMutationTime = 1367; timeNextPopSample = 1357; popParams.size() = 1
We are SAMPLING at time 1357
*** Looping through 5.2. Iter = 1490
iteration 1490; minNextMutationTime = 1368; timeNextPopSample = 1358; popParams.size() = 1
We are SAMPLING at time 1358
*** Looping through 5.2. Iter = 1491
iteration 1491; minNextMutationTime = 1369; timeNextPopSample = 1359; popParams.size() = 1
We are SAMPLING at time 1359
*** Looping through 5.2. Iter = 1492
iteration 1492; minNextMutationTime = 1370; timeNextPopSample = 1360; popParams.size() = 1
We are SAMPLING at time 1360
*** Looping through 5.2. Iter = 1493
iteration 1493; minNextMutationTime = 1371; timeNextPopSample = 1361; popParams.size() = 1
We are SAMPLING at time 1361
*** Looping through 5.2. Iter = 1494
iteration 1494; minNextMutationTime = 1372; timeNextPopSample = 1362; popParams.size() = 1
We are SAMPLING at time 1362
*** Looping through 5.2. Iter = 1495
iteration 1495; minNextMutationTime = 1373; timeNextPopSample = 1363; popParams.size() = 1
We are SAMPLING at time 1363
*** Looping through 5.2. Iter = 1496
iteration 1496; minNextMutationTime = 1374; timeNextPopSample = 1364; popParams.size() = 1
We are SAMPLING at time 1364
*** Looping through 5.2. Iter = 1497
iteration 1497; minNextMutationTime = 1375; timeNextPopSample = 1365; popParams.size() = 1
We are SAMPLING at time 1365
*** Looping through 5.2. Iter = 1498
iteration 1498; minNextMutationTime = 1376; timeNextPopSample = 1366; popParams.size() = 1
We are SAMPLING at time 1366
*** Looping through 5.2. Iter = 1499
iteration 1499; minNextMutationTime = 1366.51; timeNextPopSample = 1367; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1500
iteration 1500; minNextMutationTime = 1377; timeNextPopSample = 1367; popParams.size() = 2
We are SAMPLING at time 1367
*** Looping through 5.2. Iter = 1501
iteration 1501; minNextMutationTime = 1378; timeNextPopSample = 1368; popParams.size() = 2
We are SAMPLING at time 1368
*** Looping through 5.2. Iter = 1502
iteration 1502; minNextMutationTime = 1379; timeNextPopSample = 1369; popParams.size() = 2
We are SAMPLING at time 1369
*** Looping through 5.2. Iter = 1503
iteration 1503; minNextMutationTime = 1380; timeNextPopSample = 1370; popParams.size() = 2
We are SAMPLING at time 1370
*** Looping through 5.2. Iter = 1504
iteration 1504; minNextMutationTime = 1381; timeNextPopSample = 1371; popParams.size() = 2
We are SAMPLING at time 1371
*** Looping through 5.2. Iter = 1505
iteration 1505; minNextMutationTime = 1382; timeNextPopSample = 1372; popParams.size() = 2
We are SAMPLING at time 1372
*** Looping through 5.2. Iter = 1506
iteration 1506; minNextMutationTime = 1383; timeNextPopSample = 1373; popParams.size() = 2
We are SAMPLING at time 1373
*** Looping through 5.2. Iter = 1507
iteration 1507; minNextMutationTime = 1384; timeNextPopSample = 1374; popParams.size() = 2
We are SAMPLING at time 1374
*** Looping through 5.2. Iter = 1508
iteration 1508; minNextMutationTime = 1385; timeNextPopSample = 1375; popParams.size() = 2
We are SAMPLING at time 1375
*** Looping through 5.2. Iter = 1509
iteration 1509; minNextMutationTime = 1386; timeNextPopSample = 1376; popParams.size() = 2
We are SAMPLING at time 1376
*** Looping through 5.2. Iter = 1510
iteration 1510; minNextMutationTime = 1376.47; timeNextPopSample = 1377; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1511
iteration 1511; minNextMutationTime = 1387; timeNextPopSample = 1377; popParams.size() = 3
We are SAMPLING at time 1377
*** Looping through 5.2. Iter = 1512
iteration 1512; minNextMutationTime = 1388; timeNextPopSample = 1378; popParams.size() = 3
We are SAMPLING at time 1378
*** Looping through 5.2. Iter = 1513
iteration 1513; minNextMutationTime = 1389; timeNextPopSample = 1379; popParams.size() = 3
We are SAMPLING at time 1379
*** Looping through 5.2. Iter = 1514
iteration 1514; minNextMutationTime = 1390; timeNextPopSample = 1380; popParams.size() = 2
We are SAMPLING at time 1380
*** Looping through 5.2. Iter = 1515
iteration 1515; minNextMutationTime = 1391; timeNextPopSample = 1381; popParams.size() = 2
We are SAMPLING at time 1381
*** Looping through 5.2. Iter = 1516
iteration 1516; minNextMutationTime = 1392; timeNextPopSample = 1382; popParams.size() = 2
We are SAMPLING at time 1382
*** Looping through 5.2. Iter = 1517
iteration 1517; minNextMutationTime = 1393; timeNextPopSample = 1383; popParams.size() = 2
We are SAMPLING at time 1383
*** Looping through 5.2. Iter = 1518
iteration 1518; minNextMutationTime = 1394; timeNextPopSample = 1384; popParams.size() = 2
We are SAMPLING at time 1384
*** Looping through 5.2. Iter = 1519
iteration 1519; minNextMutationTime = 1384.9; timeNextPopSample = 1385; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1520
iteration 1520; minNextMutationTime = 1395; timeNextPopSample = 1385; popParams.size() = 3
We are SAMPLING at time 1385
*** Looping through 5.2. Iter = 1521
iteration 1521; minNextMutationTime = 1396; timeNextPopSample = 1386; popParams.size() = 3
We are SAMPLING at time 1386
*** Looping through 5.2. Iter = 1522
iteration 1522; minNextMutationTime = 1397; timeNextPopSample = 1387; popParams.size() = 2
We are SAMPLING at time 1387
*** Looping through 5.2. Iter = 1523
iteration 1523; minNextMutationTime = 1398; timeNextPopSample = 1388; popParams.size() = 1
We are SAMPLING at time 1388
*** Looping through 5.2. Iter = 1524
iteration 1524; minNextMutationTime = 1399; timeNextPopSample = 1389; popParams.size() = 1
We are SAMPLING at time 1389
*** Looping through 5.2. Iter = 1525
iteration 1525; minNextMutationTime = 1400; timeNextPopSample = 1390; popParams.size() = 1
We are SAMPLING at time 1390
*** Looping through 5.2. Iter = 1526
iteration 1526; minNextMutationTime = 1401; timeNextPopSample = 1391; popParams.size() = 1
We are SAMPLING at time 1391
*** Looping through 5.2. Iter = 1527
iteration 1527; minNextMutationTime = 1402; timeNextPopSample = 1392; popParams.size() = 1
We are SAMPLING at time 1392
*** Looping through 5.2. Iter = 1528
iteration 1528; minNextMutationTime = 1403; timeNextPopSample = 1393; popParams.size() = 1
We are SAMPLING at time 1393
*** Looping through 5.2. Iter = 1529
iteration 1529; minNextMutationTime = 1404; timeNextPopSample = 1394; popParams.size() = 1
We are SAMPLING at time 1394
*** Looping through 5.2. Iter = 1530
iteration 1530; minNextMutationTime = 1405; timeNextPopSample = 1395; popParams.size() = 1
We are SAMPLING at time 1395
*** Looping through 5.2. Iter = 1531
iteration 1531; minNextMutationTime = 1395.37; timeNextPopSample = 1396; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1532
iteration 1532; minNextMutationTime = 1406; timeNextPopSample = 1396; popParams.size() = 2
We are SAMPLING at time 1396
*** Looping through 5.2. Iter = 1533
iteration 1533; minNextMutationTime = 1396.17; timeNextPopSample = 1397; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1534
iteration 1534; minNextMutationTime = 1407; timeNextPopSample = 1397; popParams.size() = 2
We are SAMPLING at time 1397
*** Looping through 5.2. Iter = 1535
iteration 1535; minNextMutationTime = 1408; timeNextPopSample = 1398; popParams.size() = 2
We are SAMPLING at time 1398
*** Looping through 5.2. Iter = 1536
iteration 1536; minNextMutationTime = 1409; timeNextPopSample = 1399; popParams.size() = 1
We are SAMPLING at time 1399
*** Looping through 5.2. Iter = 1537
iteration 1537; minNextMutationTime = 1410; timeNextPopSample = 1400; popParams.size() = 1
We are SAMPLING at time 1400
*** Looping through 5.2. Iter = 1538
iteration 1538; minNextMutationTime = 1411; timeNextPopSample = 1401; popParams.size() = 1
We are SAMPLING at time 1401
*** Looping through 5.2. Iter = 1539
iteration 1539; minNextMutationTime = 1412; timeNextPopSample = 1402; popParams.size() = 1
We are SAMPLING at time 1402
*** Looping through 5.2. Iter = 1540
iteration 1540; minNextMutationTime = 1413; timeNextPopSample = 1403; popParams.size() = 1
We are SAMPLING at time 1403
*** Looping through 5.2. Iter = 1541
iteration 1541; minNextMutationTime = 1414; timeNextPopSample = 1404; popParams.size() = 1
We are SAMPLING at time 1404
*** Looping through 5.2. Iter = 1542
iteration 1542; minNextMutationTime = 1415; timeNextPopSample = 1405; popParams.size() = 1
We are SAMPLING at time 1405
*** Looping through 5.2. Iter = 1543
iteration 1543; minNextMutationTime = 1416; timeNextPopSample = 1406; popParams.size() = 1
We are SAMPLING at time 1406
*** Looping through 5.2. Iter = 1544
iteration 1544; minNextMutationTime = 1417; timeNextPopSample = 1407; popParams.size() = 1
We are SAMPLING at time 1407
*** Looping through 5.2. Iter = 1545
iteration 1545; minNextMutationTime = 1407.73; timeNextPopSample = 1408; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1546
iteration 1546; minNextMutationTime = 1418; timeNextPopSample = 1408; popParams.size() = 2
We are SAMPLING at time 1408
*** Looping through 5.2. Iter = 1547
iteration 1547; minNextMutationTime = 1419; timeNextPopSample = 1409; popParams.size() = 2
We are SAMPLING at time 1409
*** Looping through 5.2. Iter = 1548
iteration 1548; minNextMutationTime = 1420; timeNextPopSample = 1410; popParams.size() = 1
We are SAMPLING at time 1410
*** Looping through 5.2. Iter = 1549
iteration 1549; minNextMutationTime = 1421; timeNextPopSample = 1411; popParams.size() = 1
We are SAMPLING at time 1411
*** Looping through 5.2. Iter = 1550
iteration 1550; minNextMutationTime = 1411.53; timeNextPopSample = 1412; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1551
iteration 1551; minNextMutationTime = 1422; timeNextPopSample = 1412; popParams.size() = 2
We are SAMPLING at time 1412
*** Looping through 5.2. Iter = 1552
iteration 1552; minNextMutationTime = 1423; timeNextPopSample = 1413; popParams.size() = 2
We are SAMPLING at time 1413
*** Looping through 5.2. Iter = 1553
iteration 1553; minNextMutationTime = 1424; timeNextPopSample = 1414; popParams.size() = 1
We are SAMPLING at time 1414
*** Looping through 5.2. Iter = 1554
iteration 1554; minNextMutationTime = 1425; timeNextPopSample = 1415; popParams.size() = 1
We are SAMPLING at time 1415
*** Looping through 5.2. Iter = 1555
iteration 1555; minNextMutationTime = 1426; timeNextPopSample = 1416; popParams.size() = 1
We are SAMPLING at time 1416
*** Looping through 5.2. Iter = 1556
iteration 1556; minNextMutationTime = 1427; timeNextPopSample = 1417; popParams.size() = 1
We are SAMPLING at time 1417
*** Looping through 5.2. Iter = 1557
iteration 1557; minNextMutationTime = 1428; timeNextPopSample = 1418; popParams.size() = 1
We are SAMPLING at time 1418
*** Looping through 5.2. Iter = 1558
iteration 1558; minNextMutationTime = 1429; timeNextPopSample = 1419; popParams.size() = 1
We are SAMPLING at time 1419
*** Looping through 5.2. Iter = 1559
iteration 1559; minNextMutationTime = 1430; timeNextPopSample = 1420; popParams.size() = 1
We are SAMPLING at time 1420
*** Looping through 5.2. Iter = 1560
iteration 1560; minNextMutationTime = 1431; timeNextPopSample = 1421; popParams.size() = 1
We are SAMPLING at time 1421
*** Looping through 5.2. Iter = 1561
iteration 1561; minNextMutationTime = 1432; timeNextPopSample = 1422; popParams.size() = 1
We are SAMPLING at time 1422
*** Looping through 5.2. Iter = 1562
iteration 1562; minNextMutationTime = 1433; timeNextPopSample = 1423; popParams.size() = 1
We are SAMPLING at time 1423
*** Looping through 5.2. Iter = 1563
iteration 1563; minNextMutationTime = 1434; timeNextPopSample = 1424; popParams.size() = 1
We are SAMPLING at time 1424
*** Looping through 5.2. Iter = 1564
iteration 1564; minNextMutationTime = 1435; timeNextPopSample = 1425; popParams.size() = 1
We are SAMPLING at time 1425
*** Looping through 5.2. Iter = 1565
iteration 1565; minNextMutationTime = 1436; timeNextPopSample = 1426; popParams.size() = 1
We are SAMPLING at time 1426
*** Looping through 5.2. Iter = 1566
iteration 1566; minNextMutationTime = 1437; timeNextPopSample = 1427; popParams.size() = 1
We are SAMPLING at time 1427
*** Looping through 5.2. Iter = 1567
iteration 1567; minNextMutationTime = 1438; timeNextPopSample = 1428; popParams.size() = 1
We are SAMPLING at time 1428
*** Looping through 5.2. Iter = 1568
iteration 1568; minNextMutationTime = 1439; timeNextPopSample = 1429; popParams.size() = 1
We are SAMPLING at time 1429
*** Looping through 5.2. Iter = 1569
iteration 1569; minNextMutationTime = 1440; timeNextPopSample = 1430; popParams.size() = 1
We are SAMPLING at time 1430
*** Looping through 5.2. Iter = 1570
iteration 1570; minNextMutationTime = 1430.8; timeNextPopSample = 1431; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1571
iteration 1571; minNextMutationTime = 1441; timeNextPopSample = 1431; popParams.size() = 2
We are SAMPLING at time 1431
*** Looping through 5.2. Iter = 1572
iteration 1572; minNextMutationTime = 1442; timeNextPopSample = 1432; popParams.size() = 2
We are SAMPLING at time 1432
*** Looping through 5.2. Iter = 1573
iteration 1573; minNextMutationTime = 1443; timeNextPopSample = 1433; popParams.size() = 2
We are SAMPLING at time 1433
*** Looping through 5.2. Iter = 1574
iteration 1574; minNextMutationTime = 1444; timeNextPopSample = 1434; popParams.size() = 2
We are SAMPLING at time 1434
*** Looping through 5.2. Iter = 1575
iteration 1575; minNextMutationTime = 1445; timeNextPopSample = 1435; popParams.size() = 2
We are SAMPLING at time 1435
*** Looping through 5.2. Iter = 1576
iteration 1576; minNextMutationTime = 1446; timeNextPopSample = 1436; popParams.size() = 2
We are SAMPLING at time 1436
*** Looping through 5.2. Iter = 1577
iteration 1577; minNextMutationTime = 1436.46; timeNextPopSample = 1437; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1578
iteration 1578; minNextMutationTime = 1447; timeNextPopSample = 1437; popParams.size() = 3
We are SAMPLING at time 1437
*** Looping through 5.2. Iter = 1579
iteration 1579; minNextMutationTime = 1448; timeNextPopSample = 1438; popParams.size() = 3
We are SAMPLING at time 1438
*** Looping through 5.2. Iter = 1580
iteration 1580; minNextMutationTime = 1449; timeNextPopSample = 1439; popParams.size() = 3
We are SAMPLING at time 1439
*** Looping through 5.2. Iter = 1581
iteration 1581; minNextMutationTime = 1450; timeNextPopSample = 1440; popParams.size() = 3
We are SAMPLING at time 1440
*** Looping through 5.2. Iter = 1582
iteration 1582; minNextMutationTime = 1451; timeNextPopSample = 1441; popParams.size() = 3
We are SAMPLING at time 1441
*** Looping through 5.2. Iter = 1583
iteration 1583; minNextMutationTime = 1452; timeNextPopSample = 1442; popParams.size() = 3
We are SAMPLING at time 1442
*** Looping through 5.2. Iter = 1584
iteration 1584; minNextMutationTime = 1453; timeNextPopSample = 1443; popParams.size() = 3
We are SAMPLING at time 1443
*** Looping through 5.2. Iter = 1585
iteration 1585; minNextMutationTime = 1454; timeNextPopSample = 1444; popParams.size() = 2
We are SAMPLING at time 1444
*** Looping through 5.2. Iter = 1586
iteration 1586; minNextMutationTime = 1455; timeNextPopSample = 1445; popParams.size() = 2
We are SAMPLING at time 1445
*** Looping through 5.2. Iter = 1587
iteration 1587; minNextMutationTime = 1456; timeNextPopSample = 1446; popParams.size() = 1
We are SAMPLING at time 1446
*** Looping through 5.2. Iter = 1588
iteration 1588; minNextMutationTime = 1446.57; timeNextPopSample = 1447; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1589
iteration 1589; minNextMutationTime = 1457; timeNextPopSample = 1447; popParams.size() = 2
We are SAMPLING at time 1447
*** Looping through 5.2. Iter = 1590
iteration 1590; minNextMutationTime = 1458; timeNextPopSample = 1448; popParams.size() = 1
We are SAMPLING at time 1448
*** Looping through 5.2. Iter = 1591
iteration 1591; minNextMutationTime = 1459; timeNextPopSample = 1449; popParams.size() = 1
We are SAMPLING at time 1449
*** Looping through 5.2. Iter = 1592
iteration 1592; minNextMutationTime = 1460; timeNextPopSample = 1450; popParams.size() = 1
We are SAMPLING at time 1450
*** Looping through 5.2. Iter = 1593
iteration 1593; minNextMutationTime = 1461; timeNextPopSample = 1451; popParams.size() = 1
We are SAMPLING at time 1451
*** Looping through 5.2. Iter = 1594
iteration 1594; minNextMutationTime = 1462; timeNextPopSample = 1452; popParams.size() = 1
We are SAMPLING at time 1452
*** Looping through 5.2. Iter = 1595
iteration 1595; minNextMutationTime = 1463; timeNextPopSample = 1453; popParams.size() = 1
We are SAMPLING at time 1453
*** Looping through 5.2. Iter = 1596
iteration 1596; minNextMutationTime = 1464; timeNextPopSample = 1454; popParams.size() = 1
We are SAMPLING at time 1454
*** Looping through 5.2. Iter = 1597
iteration 1597; minNextMutationTime = 1465; timeNextPopSample = 1455; popParams.size() = 1
We are SAMPLING at time 1455
*** Looping through 5.2. Iter = 1598
iteration 1598; minNextMutationTime = 1466; timeNextPopSample = 1456; popParams.size() = 1
We are SAMPLING at time 1456
*** Looping through 5.2. Iter = 1599
iteration 1599; minNextMutationTime = 1467; timeNextPopSample = 1457; popParams.size() = 1
We are SAMPLING at time 1457
*** Looping through 5.2. Iter = 1600
iteration 1600; minNextMutationTime = 1468; timeNextPopSample = 1458; popParams.size() = 1
We are SAMPLING at time 1458
*** Looping through 5.2. Iter = 1601
iteration 1601; minNextMutationTime = 1458.83; timeNextPopSample = 1459; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1602
iteration 1602; minNextMutationTime = 1469; timeNextPopSample = 1459; popParams.size() = 2
We are SAMPLING at time 1459
*** Looping through 5.2. Iter = 1603
iteration 1603; minNextMutationTime = 1470; timeNextPopSample = 1460; popParams.size() = 2
We are SAMPLING at time 1460
*** Looping through 5.2. Iter = 1604
iteration 1604; minNextMutationTime = 1471; timeNextPopSample = 1461; popParams.size() = 1
We are SAMPLING at time 1461
*** Looping through 5.2. Iter = 1605
iteration 1605; minNextMutationTime = 1472; timeNextPopSample = 1462; popParams.size() = 1
We are SAMPLING at time 1462
*** Looping through 5.2. Iter = 1606
iteration 1606; minNextMutationTime = 1473; timeNextPopSample = 1463; popParams.size() = 1
We are SAMPLING at time 1463
*** Looping through 5.2. Iter = 1607
iteration 1607; minNextMutationTime = 1474; timeNextPopSample = 1464; popParams.size() = 1
We are SAMPLING at time 1464
*** Looping through 5.2. Iter = 1608
iteration 1608; minNextMutationTime = 1475; timeNextPopSample = 1465; popParams.size() = 1
We are SAMPLING at time 1465
*** Looping through 5.2. Iter = 1609
iteration 1609; minNextMutationTime = 1476; timeNextPopSample = 1466; popParams.size() = 1
We are SAMPLING at time 1466
*** Looping through 5.2. Iter = 1610
iteration 1610; minNextMutationTime = 1466.22; timeNextPopSample = 1467; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1611
iteration 1611; minNextMutationTime = 1477; timeNextPopSample = 1467; popParams.size() = 2
We are SAMPLING at time 1467
*** Looping through 5.2. Iter = 1612
iteration 1612; minNextMutationTime = 1467.56; timeNextPopSample = 1468; popParams.size() = 2
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000001000; sp_id = 8)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 8)
New popSize = 1
*** Looping through 5.2. Iter = 1613
iteration 1613; minNextMutationTime = 1478; timeNextPopSample = 1468; popParams.size() = 2
We are SAMPLING at time 1468
*** Looping through 5.2. Iter = 1614
iteration 1614; minNextMutationTime = 1479; timeNextPopSample = 1469; popParams.size() = 2
We are SAMPLING at time 1469
*** Looping through 5.2. Iter = 1615
iteration 1615; minNextMutationTime = 1480; timeNextPopSample = 1470; popParams.size() = 2
We are SAMPLING at time 1470
*** Looping through 5.2. Iter = 1616
iteration 1616; minNextMutationTime = 1481; timeNextPopSample = 1471; popParams.size() = 2
We are SAMPLING at time 1471
*** Looping through 5.2. Iter = 1617
iteration 1617; minNextMutationTime = 1482; timeNextPopSample = 1472; popParams.size() = 2
We are SAMPLING at time 1472
*** Looping through 5.2. Iter = 1618
iteration 1618; minNextMutationTime = 1483; timeNextPopSample = 1473; popParams.size() = 2
We are SAMPLING at time 1473
*** Looping through 5.2. Iter = 1619
iteration 1619; minNextMutationTime = 1484; timeNextPopSample = 1474; popParams.size() = 2
We are SAMPLING at time 1474
*** Looping through 5.2. Iter = 1620
iteration 1620; minNextMutationTime = 1485; timeNextPopSample = 1475; popParams.size() = 2
We are SAMPLING at time 1475
*** Looping through 5.2. Iter = 1621
iteration 1621; minNextMutationTime = 1486; timeNextPopSample = 1476; popParams.size() = 2
We are SAMPLING at time 1476
*** Looping through 5.2. Iter = 1622
iteration 1622; minNextMutationTime = 1487; timeNextPopSample = 1477; popParams.size() = 2
We are SAMPLING at time 1477
*** Looping through 5.2. Iter = 1623
iteration 1623; minNextMutationTime = 1488; timeNextPopSample = 1478; popParams.size() = 2
We are SAMPLING at time 1478
*** Looping through 5.2. Iter = 1624
iteration 1624; minNextMutationTime = 1489; timeNextPopSample = 1479; popParams.size() = 2
We are SAMPLING at time 1479
*** Looping through 5.2. Iter = 1625
iteration 1625; minNextMutationTime = 1490; timeNextPopSample = 1480; popParams.size() = 2
We are SAMPLING at time 1480
*** Looping through 5.2. Iter = 1626
iteration 1626; minNextMutationTime = 1491; timeNextPopSample = 1481; popParams.size() = 1
We are SAMPLING at time 1481
*** Looping through 5.2. Iter = 1627
iteration 1627; minNextMutationTime = 1492; timeNextPopSample = 1482; popParams.size() = 1
We are SAMPLING at time 1482
*** Looping through 5.2. Iter = 1628
iteration 1628; minNextMutationTime = 1493; timeNextPopSample = 1483; popParams.size() = 1
We are SAMPLING at time 1483
*** Looping through 5.2. Iter = 1629
iteration 1629; minNextMutationTime = 1494; timeNextPopSample = 1484; popParams.size() = 1
We are SAMPLING at time 1484
*** Looping through 5.2. Iter = 1630
iteration 1630; minNextMutationTime = 1495; timeNextPopSample = 1485; popParams.size() = 1
We are SAMPLING at time 1485
*** Looping through 5.2. Iter = 1631
iteration 1631; minNextMutationTime = 1496; timeNextPopSample = 1486; popParams.size() = 1
We are SAMPLING at time 1486
*** Looping through 5.2. Iter = 1632
iteration 1632; minNextMutationTime = 1497; timeNextPopSample = 1487; popParams.size() = 1
We are SAMPLING at time 1487
*** Looping through 5.2. Iter = 1633
iteration 1633; minNextMutationTime = 1498; timeNextPopSample = 1488; popParams.size() = 1
We are SAMPLING at time 1488
*** Looping through 5.2. Iter = 1634
iteration 1634; minNextMutationTime = 1499; timeNextPopSample = 1489; popParams.size() = 1
We are SAMPLING at time 1489
*** Looping through 5.2. Iter = 1635
iteration 1635; minNextMutationTime = 1500; timeNextPopSample = 1490; popParams.size() = 1
We are SAMPLING at time 1490
*** Looping through 5.2. Iter = 1636
iteration 1636; minNextMutationTime = 1490.15; timeNextPopSample = 1491; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1637
iteration 1637; minNextMutationTime = 1490.23; timeNextPopSample = 1491; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1638
iteration 1638; minNextMutationTime = 1501; timeNextPopSample = 1491; popParams.size() = 3
We are SAMPLING at time 1491
*** Looping through 5.2. Iter = 1639
iteration 1639; minNextMutationTime = 1491.05; timeNextPopSample = 1492; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1640
iteration 1640; minNextMutationTime = 1491.6; timeNextPopSample = 1492; popParams.size() = 3
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000001000000; sp_id = 64)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 64)
New popSize = 2
*** Looping through 5.2. Iter = 1641
iteration 1641; minNextMutationTime = 1502; timeNextPopSample = 1492; popParams.size() = 3
We are SAMPLING at time 1492
*** Looping through 5.2. Iter = 1642
iteration 1642; minNextMutationTime = 1503; timeNextPopSample = 1493; popParams.size() = 2
We are SAMPLING at time 1493
*** Looping through 5.2. Iter = 1643
iteration 1643; minNextMutationTime = 1504; timeNextPopSample = 1494; popParams.size() = 1
We are SAMPLING at time 1494
*** Looping through 5.2. Iter = 1644
iteration 1644; minNextMutationTime = 1494.09; timeNextPopSample = 1495; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1645
iteration 1645; minNextMutationTime = 1505; timeNextPopSample = 1495; popParams.size() = 2
We are SAMPLING at time 1495
*** Looping through 5.2. Iter = 1646
iteration 1646; minNextMutationTime = 1506; timeNextPopSample = 1496; popParams.size() = 1
We are SAMPLING at time 1496
*** Looping through 5.2. Iter = 1647
iteration 1647; minNextMutationTime = 1507; timeNextPopSample = 1497; popParams.size() = 1
We are SAMPLING at time 1497
*** Looping through 5.2. Iter = 1648
iteration 1648; minNextMutationTime = 1508; timeNextPopSample = 1498; popParams.size() = 1
We are SAMPLING at time 1498
*** Looping through 5.2. Iter = 1649
iteration 1649; minNextMutationTime = 1509; timeNextPopSample = 1499; popParams.size() = 1
We are SAMPLING at time 1499
*** Looping through 5.2. Iter = 1650
iteration 1650; minNextMutationTime = 1510; timeNextPopSample = 1500; popParams.size() = 1
We are SAMPLING at time 1500
*** Looping through 5.2. Iter = 1651
iteration 1651; minNextMutationTime = 1511; timeNextPopSample = 1501; popParams.size() = 1
We are SAMPLING at time 1501
*** Looping through 5.2. Iter = 1652
iteration 1652; minNextMutationTime = 1512; timeNextPopSample = 1502; popParams.size() = 1
We are SAMPLING at time 1502
*** Looping through 5.2. Iter = 1653
iteration 1653; minNextMutationTime = 1513; timeNextPopSample = 1503; popParams.size() = 1
We are SAMPLING at time 1503
*** Looping through 5.2. Iter = 1654
iteration 1654; minNextMutationTime = 1503.82; timeNextPopSample = 1504; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1655
iteration 1655; minNextMutationTime = 1514; timeNextPopSample = 1504; popParams.size() = 2
We are SAMPLING at time 1504
*** Looping through 5.2. Iter = 1656
iteration 1656; minNextMutationTime = 1515; timeNextPopSample = 1505; popParams.size() = 2
We are SAMPLING at time 1505
*** Looping through 5.2. Iter = 1657
iteration 1657; minNextMutationTime = 1516; timeNextPopSample = 1506; popParams.size() = 1
We are SAMPLING at time 1506
*** Looping through 5.2. Iter = 1658
iteration 1658; minNextMutationTime = 1517; timeNextPopSample = 1507; popParams.size() = 1
We are SAMPLING at time 1507
*** Looping through 5.2. Iter = 1659
iteration 1659; minNextMutationTime = 1518; timeNextPopSample = 1508; popParams.size() = 1
We are SAMPLING at time 1508
*** Looping through 5.2. Iter = 1660
iteration 1660; minNextMutationTime = 1519; timeNextPopSample = 1509; popParams.size() = 1
We are SAMPLING at time 1509
*** Looping through 5.2. Iter = 1661
iteration 1661; minNextMutationTime = 1520; timeNextPopSample = 1510; popParams.size() = 1
We are SAMPLING at time 1510
*** Looping through 5.2. Iter = 1662
iteration 1662; minNextMutationTime = 1521; timeNextPopSample = 1511; popParams.size() = 1
We are SAMPLING at time 1511
*** Looping through 5.2. Iter = 1663
iteration 1663; minNextMutationTime = 1522; timeNextPopSample = 1512; popParams.size() = 1
We are SAMPLING at time 1512
*** Looping through 5.2. Iter = 1664
iteration 1664; minNextMutationTime = 1523; timeNextPopSample = 1513; popParams.size() = 1
We are SAMPLING at time 1513
*** Looping through 5.2. Iter = 1665
iteration 1665; minNextMutationTime = 1524; timeNextPopSample = 1514; popParams.size() = 1
We are SAMPLING at time 1514
*** Looping through 5.2. Iter = 1666
iteration 1666; minNextMutationTime = 1525; timeNextPopSample = 1515; popParams.size() = 1
We are SAMPLING at time 1515
*** Looping through 5.2. Iter = 1667
iteration 1667; minNextMutationTime = 1526; timeNextPopSample = 1516; popParams.size() = 1
We are SAMPLING at time 1516
*** Looping through 5.2. Iter = 1668
iteration 1668; minNextMutationTime = 1516.52; timeNextPopSample = 1517; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1669
iteration 1669; minNextMutationTime = 1527; timeNextPopSample = 1517; popParams.size() = 2
We are SAMPLING at time 1517
*** Looping through 5.2. Iter = 1670
iteration 1670; minNextMutationTime = 1528; timeNextPopSample = 1518; popParams.size() = 2
We are SAMPLING at time 1518
*** Looping through 5.2. Iter = 1671
iteration 1671; minNextMutationTime = 1529; timeNextPopSample = 1519; popParams.size() = 2
We are SAMPLING at time 1519
*** Looping through 5.2. Iter = 1672
iteration 1672; minNextMutationTime = 1530; timeNextPopSample = 1520; popParams.size() = 2
We are SAMPLING at time 1520
*** Looping through 5.2. Iter = 1673
iteration 1673; minNextMutationTime = 1531; timeNextPopSample = 1521; popParams.size() = 2
We are SAMPLING at time 1521
*** Looping through 5.2. Iter = 1674
iteration 1674; minNextMutationTime = 1532; timeNextPopSample = 1522; popParams.size() = 2
We are SAMPLING at time 1522
*** Looping through 5.2. Iter = 1675
iteration 1675; minNextMutationTime = 1533; timeNextPopSample = 1523; popParams.size() = 2
We are SAMPLING at time 1523
*** Looping through 5.2. Iter = 1676
iteration 1676; minNextMutationTime = 1534; timeNextPopSample = 1524; popParams.size() = 2
We are SAMPLING at time 1524
*** Looping through 5.2. Iter = 1677
iteration 1677; minNextMutationTime = 1535; timeNextPopSample = 1525; popParams.size() = 2
We are SAMPLING at time 1525
*** Looping through 5.2. Iter = 1678
iteration 1678; minNextMutationTime = 1536; timeNextPopSample = 1526; popParams.size() = 2
We are SAMPLING at time 1526
*** Looping through 5.2. Iter = 1679
iteration 1679; minNextMutationTime = 1526.12; timeNextPopSample = 1527; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1680
iteration 1680; minNextMutationTime = 1537; timeNextPopSample = 1527; popParams.size() = 3
We are SAMPLING at time 1527
*** Looping through 5.2. Iter = 1681
iteration 1681; minNextMutationTime = 1538; timeNextPopSample = 1528; popParams.size() = 3
We are SAMPLING at time 1528
*** Looping through 5.2. Iter = 1682
iteration 1682; minNextMutationTime = 1539; timeNextPopSample = 1529; popParams.size() = 3
We are SAMPLING at time 1529
*** Looping through 5.2. Iter = 1683
iteration 1683; minNextMutationTime = 1540; timeNextPopSample = 1530; popParams.size() = 3
We are SAMPLING at time 1530
*** Looping through 5.2. Iter = 1684
iteration 1684; minNextMutationTime = 1541; timeNextPopSample = 1531; popParams.size() = 2
We are SAMPLING at time 1531
*** Looping through 5.2. Iter = 1685
iteration 1685; minNextMutationTime = 1542; timeNextPopSample = 1532; popParams.size() = 2
We are SAMPLING at time 1532
*** Looping through 5.2. Iter = 1686
iteration 1686; minNextMutationTime = 1543; timeNextPopSample = 1533; popParams.size() = 2
We are SAMPLING at time 1533
*** Looping through 5.2. Iter = 1687
iteration 1687; minNextMutationTime = 1544; timeNextPopSample = 1534; popParams.size() = 2
We are SAMPLING at time 1534
*** Looping through 5.2. Iter = 1688
iteration 1688; minNextMutationTime = 1545; timeNextPopSample = 1535; popParams.size() = 2
We are SAMPLING at time 1535
*** Looping through 5.2. Iter = 1689
iteration 1689; minNextMutationTime = 1546; timeNextPopSample = 1536; popParams.size() = 2
We are SAMPLING at time 1536
*** Looping through 5.2. Iter = 1690
iteration 1690; minNextMutationTime = 1547; timeNextPopSample = 1537; popParams.size() = 2
We are SAMPLING at time 1537
*** Looping through 5.2. Iter = 1691
iteration 1691; minNextMutationTime = 1548; timeNextPopSample = 1538; popParams.size() = 2
We are SAMPLING at time 1538
*** Looping through 5.2. Iter = 1692
iteration 1692; minNextMutationTime = 1549; timeNextPopSample = 1539; popParams.size() = 2
We are SAMPLING at time 1539
*** Looping through 5.2. Iter = 1693
iteration 1693; minNextMutationTime = 1550; timeNextPopSample = 1540; popParams.size() = 2
We are SAMPLING at time 1540
*** Looping through 5.2. Iter = 1694
iteration 1694; minNextMutationTime = 1551; timeNextPopSample = 1541; popParams.size() = 2
We are SAMPLING at time 1541
*** Looping through 5.2. Iter = 1695
iteration 1695; minNextMutationTime = 1552; timeNextPopSample = 1542; popParams.size() = 2
We are SAMPLING at time 1542
*** Looping through 5.2. Iter = 1696
iteration 1696; minNextMutationTime = 1553; timeNextPopSample = 1543; popParams.size() = 2
We are SAMPLING at time 1543
*** Looping through 5.2. Iter = 1697
iteration 1697; minNextMutationTime = 1543.3; timeNextPopSample = 1544; popParams.size() = 2
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000001000000; sp_id = 64)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 64)
New popSize = 23
*** Looping through 5.2. Iter = 1698
iteration 1698; minNextMutationTime = 1554; timeNextPopSample = 1544; popParams.size() = 2
We are SAMPLING at time 1544
*** Looping through 5.2. Iter = 1699
iteration 1699; minNextMutationTime = 1555; timeNextPopSample = 1545; popParams.size() = 2
We are SAMPLING at time 1545
*** Looping through 5.2. Iter = 1700
iteration 1700; minNextMutationTime = 1556; timeNextPopSample = 1546; popParams.size() = 2
We are SAMPLING at time 1546
*** Looping through 5.2. Iter = 1701
iteration 1701; minNextMutationTime = 1557; timeNextPopSample = 1547; popParams.size() = 2
We are SAMPLING at time 1547
*** Looping through 5.2. Iter = 1702
iteration 1702; minNextMutationTime = 1558; timeNextPopSample = 1548; popParams.size() = 2
We are SAMPLING at time 1548
*** Looping through 5.2. Iter = 1703
iteration 1703; minNextMutationTime = 1559; timeNextPopSample = 1549; popParams.size() = 2
We are SAMPLING at time 1549
*** Looping through 5.2. Iter = 1704
iteration 1704; minNextMutationTime = 1560; timeNextPopSample = 1550; popParams.size() = 2
We are SAMPLING at time 1550
*** Looping through 5.2. Iter = 1705
iteration 1705; minNextMutationTime = 1561; timeNextPopSample = 1551; popParams.size() = 2
We are SAMPLING at time 1551
*** Looping through 5.2. Iter = 1706
iteration 1706; minNextMutationTime = 1562; timeNextPopSample = 1552; popParams.size() = 2
We are SAMPLING at time 1552
*** Looping through 5.2. Iter = 1707
iteration 1707; minNextMutationTime = 1563; timeNextPopSample = 1553; popParams.size() = 2
We are SAMPLING at time 1553
*** Looping through 5.2. Iter = 1708
iteration 1708; minNextMutationTime = 1564; timeNextPopSample = 1554; popParams.size() = 2
We are SAMPLING at time 1554
*** Looping through 5.2. Iter = 1709
iteration 1709; minNextMutationTime = 1565; timeNextPopSample = 1555; popParams.size() = 2
We are SAMPLING at time 1555
*** Looping through 5.2. Iter = 1710
iteration 1710; minNextMutationTime = 1566; timeNextPopSample = 1556; popParams.size() = 2
We are SAMPLING at time 1556
*** Looping through 5.2. Iter = 1711
iteration 1711; minNextMutationTime = 1556.18; timeNextPopSample = 1557; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1712
iteration 1712; minNextMutationTime = 1567; timeNextPopSample = 1557; popParams.size() = 3
We are SAMPLING at time 1557
*** Looping through 5.2. Iter = 1713
iteration 1713; minNextMutationTime = 1568; timeNextPopSample = 1558; popParams.size() = 2
We are SAMPLING at time 1558
*** Looping through 5.2. Iter = 1714
iteration 1714; minNextMutationTime = 1569; timeNextPopSample = 1559; popParams.size() = 2
We are SAMPLING at time 1559
*** Looping through 5.2. Iter = 1715
iteration 1715; minNextMutationTime = 1570; timeNextPopSample = 1560; popParams.size() = 2
We are SAMPLING at time 1560
*** Looping through 5.2. Iter = 1716
iteration 1716; minNextMutationTime = 1571; timeNextPopSample = 1561; popParams.size() = 1
We are SAMPLING at time 1561
*** Looping through 5.2. Iter = 1717
iteration 1717; minNextMutationTime = 1572; timeNextPopSample = 1562; popParams.size() = 1
We are SAMPLING at time 1562
*** Looping through 5.2. Iter = 1718
iteration 1718; minNextMutationTime = 1573; timeNextPopSample = 1563; popParams.size() = 1
We are SAMPLING at time 1563
*** Looping through 5.2. Iter = 1719
iteration 1719; minNextMutationTime = 1574; timeNextPopSample = 1564; popParams.size() = 1
We are SAMPLING at time 1564
*** Looping through 5.2. Iter = 1720
iteration 1720; minNextMutationTime = 1575; timeNextPopSample = 1565; popParams.size() = 1
We are SAMPLING at time 1565
*** Looping through 5.2. Iter = 1721
iteration 1721; minNextMutationTime = 1576; timeNextPopSample = 1566; popParams.size() = 1
We are SAMPLING at time 1566
*** Looping through 5.2. Iter = 1722
iteration 1722; minNextMutationTime = 1566.34; timeNextPopSample = 1567; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1723
iteration 1723; minNextMutationTime = 1577; timeNextPopSample = 1567; popParams.size() = 2
We are SAMPLING at time 1567
*** Looping through 5.2. Iter = 1724
iteration 1724; minNextMutationTime = 1578; timeNextPopSample = 1568; popParams.size() = 2
We are SAMPLING at time 1568
*** Looping through 5.2. Iter = 1725
iteration 1725; minNextMutationTime = 1579; timeNextPopSample = 1569; popParams.size() = 1
We are SAMPLING at time 1569
*** Looping through 5.2. Iter = 1726
iteration 1726; minNextMutationTime = 1580; timeNextPopSample = 1570; popParams.size() = 1
We are SAMPLING at time 1570
*** Looping through 5.2. Iter = 1727
iteration 1727; minNextMutationTime = 1570.49; timeNextPopSample = 1571; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1728
iteration 1728; minNextMutationTime = 1581; timeNextPopSample = 1571; popParams.size() = 2
We are SAMPLING at time 1571
*** Looping through 5.2. Iter = 1729
iteration 1729; minNextMutationTime = 1582; timeNextPopSample = 1572; popParams.size() = 2
We are SAMPLING at time 1572
*** Looping through 5.2. Iter = 1730
iteration 1730; minNextMutationTime = 1583; timeNextPopSample = 1573; popParams.size() = 2
We are SAMPLING at time 1573
*** Looping through 5.2. Iter = 1731
iteration 1731; minNextMutationTime = 1584; timeNextPopSample = 1574; popParams.size() = 1
We are SAMPLING at time 1574
*** Looping through 5.2. Iter = 1732
iteration 1732; minNextMutationTime = 1585; timeNextPopSample = 1575; popParams.size() = 1
We are SAMPLING at time 1575
*** Looping through 5.2. Iter = 1733
iteration 1733; minNextMutationTime = 1586; timeNextPopSample = 1576; popParams.size() = 1
We are SAMPLING at time 1576
*** Looping through 5.2. Iter = 1734
iteration 1734; minNextMutationTime = 1587; timeNextPopSample = 1577; popParams.size() = 1
We are SAMPLING at time 1577
*** Looping through 5.2. Iter = 1735
iteration 1735; minNextMutationTime = 1588; timeNextPopSample = 1578; popParams.size() = 1
We are SAMPLING at time 1578
*** Looping through 5.2. Iter = 1736
iteration 1736; minNextMutationTime = 1589; timeNextPopSample = 1579; popParams.size() = 1
We are SAMPLING at time 1579
*** Looping through 5.2. Iter = 1737
iteration 1737; minNextMutationTime = 1590; timeNextPopSample = 1580; popParams.size() = 1
We are SAMPLING at time 1580
*** Looping through 5.2. Iter = 1738
iteration 1738; minNextMutationTime = 1591; timeNextPopSample = 1581; popParams.size() = 1
We are SAMPLING at time 1581
*** Looping through 5.2. Iter = 1739
iteration 1739; minNextMutationTime = 1581.91; timeNextPopSample = 1582; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1740
iteration 1740; minNextMutationTime = 1592; timeNextPopSample = 1582; popParams.size() = 2
We are SAMPLING at time 1582
*** Looping through 5.2. Iter = 1741
iteration 1741; minNextMutationTime = 1593; timeNextPopSample = 1583; popParams.size() = 2
We are SAMPLING at time 1583
*** Looping through 5.2. Iter = 1742
iteration 1742; minNextMutationTime = 1594; timeNextPopSample = 1584; popParams.size() = 1
We are SAMPLING at time 1584
*** Looping through 5.2. Iter = 1743
iteration 1743; minNextMutationTime = 1595; timeNextPopSample = 1585; popParams.size() = 1
We are SAMPLING at time 1585
*** Looping through 5.2. Iter = 1744
iteration 1744; minNextMutationTime = 1596; timeNextPopSample = 1586; popParams.size() = 1
We are SAMPLING at time 1586
*** Looping through 5.2. Iter = 1745
iteration 1745; minNextMutationTime = 1597; timeNextPopSample = 1587; popParams.size() = 1
We are SAMPLING at time 1587
*** Looping through 5.2. Iter = 1746
iteration 1746; minNextMutationTime = 1598; timeNextPopSample = 1588; popParams.size() = 1
We are SAMPLING at time 1588
*** Looping through 5.2. Iter = 1747
iteration 1747; minNextMutationTime = 1599; timeNextPopSample = 1589; popParams.size() = 1
We are SAMPLING at time 1589
*** Looping through 5.2. Iter = 1748
iteration 1748; minNextMutationTime = 1600; timeNextPopSample = 1590; popParams.size() = 1
We are SAMPLING at time 1590
*** Looping through 5.2. Iter = 1749
iteration 1749; minNextMutationTime = 1601; timeNextPopSample = 1591; popParams.size() = 1
We are SAMPLING at time 1591
*** Looping through 5.2. Iter = 1750
iteration 1750; minNextMutationTime = 1602; timeNextPopSample = 1592; popParams.size() = 1
We are SAMPLING at time 1592
*** Looping through 5.2. Iter = 1751
iteration 1751; minNextMutationTime = 1603; timeNextPopSample = 1593; popParams.size() = 1
We are SAMPLING at time 1593
*** Looping through 5.2. Iter = 1752
iteration 1752; minNextMutationTime = 1604; timeNextPopSample = 1594; popParams.size() = 1
We are SAMPLING at time 1594
*** Looping through 5.2. Iter = 1753
iteration 1753; minNextMutationTime = 1605; timeNextPopSample = 1595; popParams.size() = 1
We are SAMPLING at time 1595
*** Looping through 5.2. Iter = 1754
iteration 1754; minNextMutationTime = 1595.51; timeNextPopSample = 1596; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1755
iteration 1755; minNextMutationTime = 1606; timeNextPopSample = 1596; popParams.size() = 2
We are SAMPLING at time 1596
*** Looping through 5.2. Iter = 1756
iteration 1756; minNextMutationTime = 1596.14; timeNextPopSample = 1597; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1757
iteration 1757; minNextMutationTime = 1607; timeNextPopSample = 1597; popParams.size() = 3
We are SAMPLING at time 1597
*** Looping through 5.2. Iter = 1758
iteration 1758; minNextMutationTime = 1608; timeNextPopSample = 1598; popParams.size() = 3
We are SAMPLING at time 1598
*** Looping through 5.2. Iter = 1759
iteration 1759; minNextMutationTime = 1609; timeNextPopSample = 1599; popParams.size() = 3
We are SAMPLING at time 1599
*** Looping through 5.2. Iter = 1760
iteration 1760; minNextMutationTime = 1610; timeNextPopSample = 1600; popParams.size() = 3
We are SAMPLING at time 1600
*** Looping through 5.2. Iter = 1761
iteration 1761; minNextMutationTime = 1611; timeNextPopSample = 1601; popParams.size() = 3
We are SAMPLING at time 1601
*** Looping through 5.2. Iter = 1762
iteration 1762; minNextMutationTime = 1612; timeNextPopSample = 1602; popParams.size() = 3
We are SAMPLING at time 1602
*** Looping through 5.2. Iter = 1763
iteration 1763; minNextMutationTime = 1613; timeNextPopSample = 1603; popParams.size() = 3
We are SAMPLING at time 1603
*** Looping through 5.2. Iter = 1764
iteration 1764; minNextMutationTime = 1614; timeNextPopSample = 1604; popParams.size() = 3
We are SAMPLING at time 1604
*** Looping through 5.2. Iter = 1765
iteration 1765; minNextMutationTime = 1615; timeNextPopSample = 1605; popParams.size() = 3
We are SAMPLING at time 1605
*** Looping through 5.2. Iter = 1766
iteration 1766; minNextMutationTime = 1616; timeNextPopSample = 1606; popParams.size() = 3
We are SAMPLING at time 1606
*** Looping through 5.2. Iter = 1767
iteration 1767; minNextMutationTime = 1617; timeNextPopSample = 1607; popParams.size() = 3
We are SAMPLING at time 1607
*** Looping through 5.2. Iter = 1768
iteration 1768; minNextMutationTime = 1618; timeNextPopSample = 1608; popParams.size() = 3
We are SAMPLING at time 1608
*** Looping through 5.2. Iter = 1769
iteration 1769; minNextMutationTime = 1619; timeNextPopSample = 1609; popParams.size() = 3
We are SAMPLING at time 1609
*** Looping through 5.2. Iter = 1770
iteration 1770; minNextMutationTime = 1620; timeNextPopSample = 1610; popParams.size() = 3
We are SAMPLING at time 1610
*** Looping through 5.2. Iter = 1771
iteration 1771; minNextMutationTime = 1621; timeNextPopSample = 1611; popParams.size() = 3
We are SAMPLING at time 1611
*** Looping through 5.2. Iter = 1772
iteration 1772; minNextMutationTime = 1622; timeNextPopSample = 1612; popParams.size() = 3
We are SAMPLING at time 1612
*** Looping through 5.2. Iter = 1773
iteration 1773; minNextMutationTime = 1623; timeNextPopSample = 1613; popParams.size() = 3
We are SAMPLING at time 1613
*** Looping through 5.2. Iter = 1774
iteration 1774; minNextMutationTime = 1624; timeNextPopSample = 1614; popParams.size() = 3
We are SAMPLING at time 1614
*** Looping through 5.2. Iter = 1775
iteration 1775; minNextMutationTime = 1625; timeNextPopSample = 1615; popParams.size() = 3
We are SAMPLING at time 1615
*** Looping through 5.2. Iter = 1776
iteration 1776; minNextMutationTime = 1626; timeNextPopSample = 1616; popParams.size() = 3
We are SAMPLING at time 1616
*** Looping through 5.2. Iter = 1777
iteration 1777; minNextMutationTime = 1627; timeNextPopSample = 1617; popParams.size() = 2
We are SAMPLING at time 1617
*** Looping through 5.2. Iter = 1778
iteration 1778; minNextMutationTime = 1628; timeNextPopSample = 1618; popParams.size() = 2
We are SAMPLING at time 1618
*** Looping through 5.2. Iter = 1779
iteration 1779; minNextMutationTime = 1618.64; timeNextPopSample = 1619; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1780
iteration 1780; minNextMutationTime = 1629; timeNextPopSample = 1619; popParams.size() = 3
We are SAMPLING at time 1619
*** Looping through 5.2. Iter = 1781
iteration 1781; minNextMutationTime = 1630; timeNextPopSample = 1620; popParams.size() = 3
We are SAMPLING at time 1620
*** Looping through 5.2. Iter = 1782
iteration 1782; minNextMutationTime = 1631; timeNextPopSample = 1621; popParams.size() = 2
We are SAMPLING at time 1621
*** Looping through 5.2. Iter = 1783
iteration 1783; minNextMutationTime = 1632; timeNextPopSample = 1622; popParams.size() = 2
We are SAMPLING at time 1622
*** Looping through 5.2. Iter = 1784
iteration 1784; minNextMutationTime = 1633; timeNextPopSample = 1623; popParams.size() = 2
We are SAMPLING at time 1623
*** Looping through 5.2. Iter = 1785
iteration 1785; minNextMutationTime = 1634; timeNextPopSample = 1624; popParams.size() = 2
We are SAMPLING at time 1624
*** Looping through 5.2. Iter = 1786
iteration 1786; minNextMutationTime = 1635; timeNextPopSample = 1625; popParams.size() = 2
We are SAMPLING at time 1625
*** Looping through 5.2. Iter = 1787
iteration 1787; minNextMutationTime = 1636; timeNextPopSample = 1626; popParams.size() = 2
We are SAMPLING at time 1626
*** Looping through 5.2. Iter = 1788
iteration 1788; minNextMutationTime = 1637; timeNextPopSample = 1627; popParams.size() = 2
We are SAMPLING at time 1627
*** Looping through 5.2. Iter = 1789
iteration 1789; minNextMutationTime = 1638; timeNextPopSample = 1628; popParams.size() = 2
We are SAMPLING at time 1628
*** Looping through 5.2. Iter = 1790
iteration 1790; minNextMutationTime = 1639; timeNextPopSample = 1629; popParams.size() = 2
We are SAMPLING at time 1629
*** Looping through 5.2. Iter = 1791
iteration 1791; minNextMutationTime = 1640; timeNextPopSample = 1630; popParams.size() = 2
We are SAMPLING at time 1630
*** Looping through 5.2. Iter = 1792
iteration 1792; minNextMutationTime = 1641; timeNextPopSample = 1631; popParams.size() = 2
We are SAMPLING at time 1631
*** Looping through 5.2. Iter = 1793
iteration 1793; minNextMutationTime = 1642; timeNextPopSample = 1632; popParams.size() = 2
We are SAMPLING at time 1632
*** Looping through 5.2. Iter = 1794
iteration 1794; minNextMutationTime = 1643; timeNextPopSample = 1633; popParams.size() = 2
We are SAMPLING at time 1633
*** Looping through 5.2. Iter = 1795
iteration 1795; minNextMutationTime = 1633.78; timeNextPopSample = 1634; popParams.size() = 2
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000000010; sp_id = 2)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 2)
New popSize = 7
*** Looping through 5.2. Iter = 1796
iteration 1796; minNextMutationTime = 1644; timeNextPopSample = 1634; popParams.size() = 2
We are SAMPLING at time 1634
*** Looping through 5.2. Iter = 1797
iteration 1797; minNextMutationTime = 1645; timeNextPopSample = 1635; popParams.size() = 2
We are SAMPLING at time 1635
*** Looping through 5.2. Iter = 1798
iteration 1798; minNextMutationTime = 1646; timeNextPopSample = 1636; popParams.size() = 2
We are SAMPLING at time 1636
*** Looping through 5.2. Iter = 1799
iteration 1799; minNextMutationTime = 1647; timeNextPopSample = 1637; popParams.size() = 2
We are SAMPLING at time 1637
*** Looping through 5.2. Iter = 1800
iteration 1800; minNextMutationTime = 1648; timeNextPopSample = 1638; popParams.size() = 2
We are SAMPLING at time 1638
*** Looping through 5.2. Iter = 1801
iteration 1801; minNextMutationTime = 1649; timeNextPopSample = 1639; popParams.size() = 2
We are SAMPLING at time 1639
*** Looping through 5.2. Iter = 1802
iteration 1802; minNextMutationTime = 1639.12; timeNextPopSample = 1640; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1803
iteration 1803; minNextMutationTime = 1650; timeNextPopSample = 1640; popParams.size() = 2
We are SAMPLING at time 1640
*** Looping through 5.2. Iter = 1804
iteration 1804; minNextMutationTime = 1651; timeNextPopSample = 1641; popParams.size() = 1
We are SAMPLING at time 1641
*** Looping through 5.2. Iter = 1805
iteration 1805; minNextMutationTime = 1652; timeNextPopSample = 1642; popParams.size() = 1
We are SAMPLING at time 1642
*** Looping through 5.2. Iter = 1806
iteration 1806; minNextMutationTime = 1653; timeNextPopSample = 1643; popParams.size() = 1
We are SAMPLING at time 1643
*** Looping through 5.2. Iter = 1807
iteration 1807; minNextMutationTime = 1654; timeNextPopSample = 1644; popParams.size() = 1
We are SAMPLING at time 1644
*** Looping through 5.2. Iter = 1808
iteration 1808; minNextMutationTime = 1655; timeNextPopSample = 1645; popParams.size() = 1
We are SAMPLING at time 1645
*** Looping through 5.2. Iter = 1809
iteration 1809; minNextMutationTime = 1656; timeNextPopSample = 1646; popParams.size() = 1
We are SAMPLING at time 1646
*** Looping through 5.2. Iter = 1810
iteration 1810; minNextMutationTime = 1646.25; timeNextPopSample = 1647; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1811
iteration 1811; minNextMutationTime = 1657; timeNextPopSample = 1647; popParams.size() = 2
We are SAMPLING at time 1647
*** Looping through 5.2. Iter = 1812
iteration 1812; minNextMutationTime = 1658; timeNextPopSample = 1648; popParams.size() = 1
We are SAMPLING at time 1648
*** Looping through 5.2. Iter = 1813
iteration 1813; minNextMutationTime = 1659; timeNextPopSample = 1649; popParams.size() = 1
We are SAMPLING at time 1649
*** Looping through 5.2. Iter = 1814
iteration 1814; minNextMutationTime = 1649.62; timeNextPopSample = 1650; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1815
iteration 1815; minNextMutationTime = 1660; timeNextPopSample = 1650; popParams.size() = 2
We are SAMPLING at time 1650
*** Looping through 5.2. Iter = 1816
iteration 1816; minNextMutationTime = 1650.49; timeNextPopSample = 1651; popParams.size() = 2
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000000010; sp_id = 2)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 2)
New popSize = 2
*** Looping through 5.2. Iter = 1817
iteration 1817; minNextMutationTime = 1661; timeNextPopSample = 1651; popParams.size() = 2
We are SAMPLING at time 1651
*** Looping through 5.2. Iter = 1818
iteration 1818; minNextMutationTime = 1662; timeNextPopSample = 1652; popParams.size() = 2
We are SAMPLING at time 1652
*** Looping through 5.2. Iter = 1819
iteration 1819; minNextMutationTime = 1663; timeNextPopSample = 1653; popParams.size() = 2
We are SAMPLING at time 1653
*** Looping through 5.2. Iter = 1820
iteration 1820; minNextMutationTime = 1664; timeNextPopSample = 1654; popParams.size() = 2
We are SAMPLING at time 1654
*** Looping through 5.2. Iter = 1821
iteration 1821; minNextMutationTime = 1665; timeNextPopSample = 1655; popParams.size() = 2
We are SAMPLING at time 1655
*** Looping through 5.2. Iter = 1822
iteration 1822; minNextMutationTime = 1666; timeNextPopSample = 1656; popParams.size() = 2
We are SAMPLING at time 1656
*** Looping through 5.2. Iter = 1823
iteration 1823; minNextMutationTime = 1667; timeNextPopSample = 1657; popParams.size() = 2
We are SAMPLING at time 1657
*** Looping through 5.2. Iter = 1824
iteration 1824; minNextMutationTime = 1668; timeNextPopSample = 1658; popParams.size() = 2
We are SAMPLING at time 1658
*** Looping through 5.2. Iter = 1825
iteration 1825; minNextMutationTime = 1658.36; timeNextPopSample = 1659; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1826
iteration 1826; minNextMutationTime = 1669; timeNextPopSample = 1659; popParams.size() = 2
We are SAMPLING at time 1659
*** Looping through 5.2. Iter = 1827
iteration 1827; minNextMutationTime = 1670; timeNextPopSample = 1660; popParams.size() = 1
We are SAMPLING at time 1660
*** Looping through 5.2. Iter = 1828
iteration 1828; minNextMutationTime = 1671; timeNextPopSample = 1661; popParams.size() = 1
We are SAMPLING at time 1661
*** Looping through 5.2. Iter = 1829
iteration 1829; minNextMutationTime = 1672; timeNextPopSample = 1662; popParams.size() = 1
We are SAMPLING at time 1662
*** Looping through 5.2. Iter = 1830
iteration 1830; minNextMutationTime = 1662.41; timeNextPopSample = 1663; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1831
iteration 1831; minNextMutationTime = 1673; timeNextPopSample = 1663; popParams.size() = 2
We are SAMPLING at time 1663
*** Looping through 5.2. Iter = 1832
iteration 1832; minNextMutationTime = 1674; timeNextPopSample = 1664; popParams.size() = 1
We are SAMPLING at time 1664
*** Looping through 5.2. Iter = 1833
iteration 1833; minNextMutationTime = 1675; timeNextPopSample = 1665; popParams.size() = 1
We are SAMPLING at time 1665
*** Looping through 5.2. Iter = 1834
iteration 1834; minNextMutationTime = 1676; timeNextPopSample = 1666; popParams.size() = 1
We are SAMPLING at time 1666
*** Looping through 5.2. Iter = 1835
iteration 1835; minNextMutationTime = 1677; timeNextPopSample = 1667; popParams.size() = 1
We are SAMPLING at time 1667
*** Looping through 5.2. Iter = 1836
iteration 1836; minNextMutationTime = 1678; timeNextPopSample = 1668; popParams.size() = 1
We are SAMPLING at time 1668
*** Looping through 5.2. Iter = 1837
iteration 1837; minNextMutationTime = 1679; timeNextPopSample = 1669; popParams.size() = 1
We are SAMPLING at time 1669
*** Looping through 5.2. Iter = 1838
iteration 1838; minNextMutationTime = 1680; timeNextPopSample = 1670; popParams.size() = 1
We are SAMPLING at time 1670
*** Looping through 5.2. Iter = 1839
iteration 1839; minNextMutationTime = 1681; timeNextPopSample = 1671; popParams.size() = 1
We are SAMPLING at time 1671
*** Looping through 5.2. Iter = 1840
iteration 1840; minNextMutationTime = 1682; timeNextPopSample = 1672; popParams.size() = 1
We are SAMPLING at time 1672
*** Looping through 5.2. Iter = 1841
iteration 1841; minNextMutationTime = 1683; timeNextPopSample = 1673; popParams.size() = 1
We are SAMPLING at time 1673
*** Looping through 5.2. Iter = 1842
iteration 1842; minNextMutationTime = 1684; timeNextPopSample = 1674; popParams.size() = 1
We are SAMPLING at time 1674
*** Looping through 5.2. Iter = 1843
iteration 1843; minNextMutationTime = 1685; timeNextPopSample = 1675; popParams.size() = 1
We are SAMPLING at time 1675
*** Looping through 5.2. Iter = 1844
iteration 1844; minNextMutationTime = 1675.57; timeNextPopSample = 1676; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1845
iteration 1845; minNextMutationTime = 1686; timeNextPopSample = 1676; popParams.size() = 2
We are SAMPLING at time 1676
*** Looping through 5.2. Iter = 1846
iteration 1846; minNextMutationTime = 1687; timeNextPopSample = 1677; popParams.size() = 1
We are SAMPLING at time 1677
*** Looping through 5.2. Iter = 1847
iteration 1847; minNextMutationTime = 1688; timeNextPopSample = 1678; popParams.size() = 1
We are SAMPLING at time 1678
*** Looping through 5.2. Iter = 1848
iteration 1848; minNextMutationTime = 1689; timeNextPopSample = 1679; popParams.size() = 1
We are SAMPLING at time 1679
*** Looping through 5.2. Iter = 1849
iteration 1849; minNextMutationTime = 1679.28; timeNextPopSample = 1680; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1850
iteration 1850; minNextMutationTime = 1690; timeNextPopSample = 1680; popParams.size() = 2
We are SAMPLING at time 1680
*** Looping through 5.2. Iter = 1851
iteration 1851; minNextMutationTime = 1691; timeNextPopSample = 1681; popParams.size() = 1
We are SAMPLING at time 1681
*** Looping through 5.2. Iter = 1852
iteration 1852; minNextMutationTime = 1692; timeNextPopSample = 1682; popParams.size() = 1
We are SAMPLING at time 1682
*** Looping through 5.2. Iter = 1853
iteration 1853; minNextMutationTime = 1693; timeNextPopSample = 1683; popParams.size() = 1
We are SAMPLING at time 1683
*** Looping through 5.2. Iter = 1854
iteration 1854; minNextMutationTime = 1694; timeNextPopSample = 1684; popParams.size() = 1
We are SAMPLING at time 1684
*** Looping through 5.2. Iter = 1855
iteration 1855; minNextMutationTime = 1695; timeNextPopSample = 1685; popParams.size() = 1
We are SAMPLING at time 1685
*** Looping through 5.2. Iter = 1856
iteration 1856; minNextMutationTime = 1696; timeNextPopSample = 1686; popParams.size() = 1
We are SAMPLING at time 1686
*** Looping through 5.2. Iter = 1857
iteration 1857; minNextMutationTime = 1697; timeNextPopSample = 1687; popParams.size() = 1
We are SAMPLING at time 1687
*** Looping through 5.2. Iter = 1858
iteration 1858; minNextMutationTime = 1698; timeNextPopSample = 1688; popParams.size() = 1
We are SAMPLING at time 1688
*** Looping through 5.2. Iter = 1859
iteration 1859; minNextMutationTime = 1699; timeNextPopSample = 1689; popParams.size() = 1
We are SAMPLING at time 1689
*** Looping through 5.2. Iter = 1860
iteration 1860; minNextMutationTime = 1700; timeNextPopSample = 1690; popParams.size() = 1
We are SAMPLING at time 1690
*** Looping through 5.2. Iter = 1861
iteration 1861; minNextMutationTime = 1701; timeNextPopSample = 1691; popParams.size() = 1
We are SAMPLING at time 1691
*** Looping through 5.2. Iter = 1862
iteration 1862; minNextMutationTime = 1702; timeNextPopSample = 1692; popParams.size() = 1
We are SAMPLING at time 1692
*** Looping through 5.2. Iter = 1863
iteration 1863; minNextMutationTime = 1703; timeNextPopSample = 1693; popParams.size() = 1
We are SAMPLING at time 1693
*** Looping through 5.2. Iter = 1864
iteration 1864; minNextMutationTime = 1704; timeNextPopSample = 1694; popParams.size() = 1
We are SAMPLING at time 1694
*** Looping through 5.2. Iter = 1865
iteration 1865; minNextMutationTime = 1705; timeNextPopSample = 1695; popParams.size() = 1
We are SAMPLING at time 1695
*** Looping through 5.2. Iter = 1866
iteration 1866; minNextMutationTime = 1706; timeNextPopSample = 1696; popParams.size() = 1
We are SAMPLING at time 1696
*** Looping through 5.2. Iter = 1867
iteration 1867; minNextMutationTime = 1707; timeNextPopSample = 1697; popParams.size() = 1
We are SAMPLING at time 1697
*** Looping through 5.2. Iter = 1868
iteration 1868; minNextMutationTime = 1708; timeNextPopSample = 1698; popParams.size() = 1
We are SAMPLING at time 1698
*** Looping through 5.2. Iter = 1869
iteration 1869; minNextMutationTime = 1709; timeNextPopSample = 1699; popParams.size() = 1
We are SAMPLING at time 1699
*** Looping through 5.2. Iter = 1870
iteration 1870; minNextMutationTime = 1710; timeNextPopSample = 1700; popParams.size() = 1
We are SAMPLING at time 1700
*** Looping through 5.2. Iter = 1871
iteration 1871; minNextMutationTime = 1711; timeNextPopSample = 1701; popParams.size() = 1
We are SAMPLING at time 1701
*** Looping through 5.2. Iter = 1872
iteration 1872; minNextMutationTime = 1712; timeNextPopSample = 1702; popParams.size() = 1
We are SAMPLING at time 1702
*** Looping through 5.2. Iter = 1873
iteration 1873; minNextMutationTime = 1713; timeNextPopSample = 1703; popParams.size() = 1
We are SAMPLING at time 1703
*** Looping through 5.2. Iter = 1874
iteration 1874; minNextMutationTime = 1714; timeNextPopSample = 1704; popParams.size() = 1
We are SAMPLING at time 1704
*** Looping through 5.2. Iter = 1875
iteration 1875; minNextMutationTime = 1715; timeNextPopSample = 1705; popParams.size() = 1
We are SAMPLING at time 1705
*** Looping through 5.2. Iter = 1876
iteration 1876; minNextMutationTime = 1716; timeNextPopSample = 1706; popParams.size() = 1
We are SAMPLING at time 1706
*** Looping through 5.2. Iter = 1877
iteration 1877; minNextMutationTime = 1717; timeNextPopSample = 1707; popParams.size() = 1
We are SAMPLING at time 1707
*** Looping through 5.2. Iter = 1878
iteration 1878; minNextMutationTime = 1718; timeNextPopSample = 1708; popParams.size() = 1
We are SAMPLING at time 1708
*** Looping through 5.2. Iter = 1879
iteration 1879; minNextMutationTime = 1719; timeNextPopSample = 1709; popParams.size() = 1
We are SAMPLING at time 1709
*** Looping through 5.2. Iter = 1880
iteration 1880; minNextMutationTime = 1720; timeNextPopSample = 1710; popParams.size() = 1
We are SAMPLING at time 1710
*** Looping through 5.2. Iter = 1881
iteration 1881; minNextMutationTime = 1721; timeNextPopSample = 1711; popParams.size() = 1
We are SAMPLING at time 1711
*** Looping through 5.2. Iter = 1882
iteration 1882; minNextMutationTime = 1711.77; timeNextPopSample = 1712; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1883
iteration 1883; minNextMutationTime = 1722; timeNextPopSample = 1712; popParams.size() = 2
We are SAMPLING at time 1712
*** Looping through 5.2. Iter = 1884
iteration 1884; minNextMutationTime = 1723; timeNextPopSample = 1713; popParams.size() = 1
We are SAMPLING at time 1713
*** Looping through 5.2. Iter = 1885
iteration 1885; minNextMutationTime = 1724; timeNextPopSample = 1714; popParams.size() = 1
We are SAMPLING at time 1714
*** Looping through 5.2. Iter = 1886
iteration 1886; minNextMutationTime = 1725; timeNextPopSample = 1715; popParams.size() = 1
We are SAMPLING at time 1715
*** Looping through 5.2. Iter = 1887
iteration 1887; minNextMutationTime = 1726; timeNextPopSample = 1716; popParams.size() = 1
We are SAMPLING at time 1716
*** Looping through 5.2. Iter = 1888
iteration 1888; minNextMutationTime = 1727; timeNextPopSample = 1717; popParams.size() = 1
We are SAMPLING at time 1717
*** Looping through 5.2. Iter = 1889
iteration 1889; minNextMutationTime = 1728; timeNextPopSample = 1718; popParams.size() = 1
We are SAMPLING at time 1718
*** Looping through 5.2. Iter = 1890
iteration 1890; minNextMutationTime = 1729; timeNextPopSample = 1719; popParams.size() = 1
We are SAMPLING at time 1719
*** Looping through 5.2. Iter = 1891
iteration 1891; minNextMutationTime = 1730; timeNextPopSample = 1720; popParams.size() = 1
We are SAMPLING at time 1720
*** Looping through 5.2. Iter = 1892
iteration 1892; minNextMutationTime = 1731; timeNextPopSample = 1721; popParams.size() = 1
We are SAMPLING at time 1721
*** Looping through 5.2. Iter = 1893
iteration 1893; minNextMutationTime = 1732; timeNextPopSample = 1722; popParams.size() = 1
We are SAMPLING at time 1722
*** Looping through 5.2. Iter = 1894
iteration 1894; minNextMutationTime = 1733; timeNextPopSample = 1723; popParams.size() = 1
We are SAMPLING at time 1723
*** Looping through 5.2. Iter = 1895
iteration 1895; minNextMutationTime = 1734; timeNextPopSample = 1724; popParams.size() = 1
We are SAMPLING at time 1724
*** Looping through 5.2. Iter = 1896
iteration 1896; minNextMutationTime = 1735; timeNextPopSample = 1725; popParams.size() = 1
We are SAMPLING at time 1725
*** Looping through 5.2. Iter = 1897
iteration 1897; minNextMutationTime = 1736; timeNextPopSample = 1726; popParams.size() = 1
We are SAMPLING at time 1726
*** Looping through 5.2. Iter = 1898
iteration 1898; minNextMutationTime = 1737; timeNextPopSample = 1727; popParams.size() = 1
We are SAMPLING at time 1727
*** Looping through 5.2. Iter = 1899
iteration 1899; minNextMutationTime = 1738; timeNextPopSample = 1728; popParams.size() = 1
We are SAMPLING at time 1728
*** Looping through 5.2. Iter = 1900
iteration 1900; minNextMutationTime = 1739; timeNextPopSample = 1729; popParams.size() = 1
We are SAMPLING at time 1729
*** Looping through 5.2. Iter = 1901
iteration 1901; minNextMutationTime = 1729.24; timeNextPopSample = 1730; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1902
iteration 1902; minNextMutationTime = 1740; timeNextPopSample = 1730; popParams.size() = 2
We are SAMPLING at time 1730
*** Looping through 5.2. Iter = 1903
iteration 1903; minNextMutationTime = 1741; timeNextPopSample = 1731; popParams.size() = 2
We are SAMPLING at time 1731
*** Looping through 5.2. Iter = 1904
iteration 1904; minNextMutationTime = 1742; timeNextPopSample = 1732; popParams.size() = 1
We are SAMPLING at time 1732
*** Looping through 5.2. Iter = 1905
iteration 1905; minNextMutationTime = 1743; timeNextPopSample = 1733; popParams.size() = 1
We are SAMPLING at time 1733
*** Looping through 5.2. Iter = 1906
iteration 1906; minNextMutationTime = 1733.34; timeNextPopSample = 1734; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1907
iteration 1907; minNextMutationTime = 1744; timeNextPopSample = 1734; popParams.size() = 2
We are SAMPLING at time 1734
*** Looping through 5.2. Iter = 1908
iteration 1908; minNextMutationTime = 1745; timeNextPopSample = 1735; popParams.size() = 2
We are SAMPLING at time 1735
*** Looping through 5.2. Iter = 1909
iteration 1909; minNextMutationTime = 1746; timeNextPopSample = 1736; popParams.size() = 1
We are SAMPLING at time 1736
*** Looping through 5.2. Iter = 1910
iteration 1910; minNextMutationTime = 1747; timeNextPopSample = 1737; popParams.size() = 1
We are SAMPLING at time 1737
*** Looping through 5.2. Iter = 1911
iteration 1911; minNextMutationTime = 1748; timeNextPopSample = 1738; popParams.size() = 1
We are SAMPLING at time 1738
*** Looping through 5.2. Iter = 1912
iteration 1912; minNextMutationTime = 1749; timeNextPopSample = 1739; popParams.size() = 1
We are SAMPLING at time 1739
*** Looping through 5.2. Iter = 1913
iteration 1913; minNextMutationTime = 1750; timeNextPopSample = 1740; popParams.size() = 1
We are SAMPLING at time 1740
*** Looping through 5.2. Iter = 1914
iteration 1914; minNextMutationTime = 1740.19; timeNextPopSample = 1741; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1915
iteration 1915; minNextMutationTime = 1751; timeNextPopSample = 1741; popParams.size() = 2
We are SAMPLING at time 1741
*** Looping through 5.2. Iter = 1916
iteration 1916; minNextMutationTime = 1752; timeNextPopSample = 1742; popParams.size() = 1
We are SAMPLING at time 1742
*** Looping through 5.2. Iter = 1917
iteration 1917; minNextMutationTime = 1753; timeNextPopSample = 1743; popParams.size() = 1
We are SAMPLING at time 1743
*** Looping through 5.2. Iter = 1918
iteration 1918; minNextMutationTime = 1754; timeNextPopSample = 1744; popParams.size() = 1
We are SAMPLING at time 1744
*** Looping through 5.2. Iter = 1919
iteration 1919; minNextMutationTime = 1755; timeNextPopSample = 1745; popParams.size() = 1
We are SAMPLING at time 1745
*** Looping through 5.2. Iter = 1920
iteration 1920; minNextMutationTime = 1756; timeNextPopSample = 1746; popParams.size() = 1
We are SAMPLING at time 1746
*** Looping through 5.2. Iter = 1921
iteration 1921; minNextMutationTime = 1757; timeNextPopSample = 1747; popParams.size() = 1
We are SAMPLING at time 1747
*** Looping through 5.2. Iter = 1922
iteration 1922; minNextMutationTime = 1747.69; timeNextPopSample = 1748; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1923
iteration 1923; minNextMutationTime = 1758; timeNextPopSample = 1748; popParams.size() = 2
We are SAMPLING at time 1748
*** Looping through 5.2. Iter = 1924
iteration 1924; minNextMutationTime = 1759; timeNextPopSample = 1749; popParams.size() = 2
We are SAMPLING at time 1749
*** Looping through 5.2. Iter = 1925
iteration 1925; minNextMutationTime = 1760; timeNextPopSample = 1750; popParams.size() = 2
We are SAMPLING at time 1750
*** Looping through 5.2. Iter = 1926
iteration 1926; minNextMutationTime = 1761; timeNextPopSample = 1751; popParams.size() = 2
We are SAMPLING at time 1751
*** Looping through 5.2. Iter = 1927
iteration 1927; minNextMutationTime = 1762; timeNextPopSample = 1752; popParams.size() = 1
We are SAMPLING at time 1752
*** Looping through 5.2. Iter = 1928
iteration 1928; minNextMutationTime = 1763; timeNextPopSample = 1753; popParams.size() = 1
We are SAMPLING at time 1753
*** Looping through 5.2. Iter = 1929
iteration 1929; minNextMutationTime = 1764; timeNextPopSample = 1754; popParams.size() = 1
We are SAMPLING at time 1754
*** Looping through 5.2. Iter = 1930
iteration 1930; minNextMutationTime = 1765; timeNextPopSample = 1755; popParams.size() = 1
We are SAMPLING at time 1755
*** Looping through 5.2. Iter = 1931
iteration 1931; minNextMutationTime = 1766; timeNextPopSample = 1756; popParams.size() = 1
We are SAMPLING at time 1756
*** Looping through 5.2. Iter = 1932
iteration 1932; minNextMutationTime = 1767; timeNextPopSample = 1757; popParams.size() = 1
We are SAMPLING at time 1757
*** Looping through 5.2. Iter = 1933
iteration 1933; minNextMutationTime = 1768; timeNextPopSample = 1758; popParams.size() = 1
We are SAMPLING at time 1758
*** Looping through 5.2. Iter = 1934
iteration 1934; minNextMutationTime = 1769; timeNextPopSample = 1759; popParams.size() = 1
We are SAMPLING at time 1759
*** Looping through 5.2. Iter = 1935
iteration 1935; minNextMutationTime = 1770; timeNextPopSample = 1760; popParams.size() = 1
We are SAMPLING at time 1760
*** Looping through 5.2. Iter = 1936
iteration 1936; minNextMutationTime = 1771; timeNextPopSample = 1761; popParams.size() = 1
We are SAMPLING at time 1761
*** Looping through 5.2. Iter = 1937
iteration 1937; minNextMutationTime = 1761.31; timeNextPopSample = 1762; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1938
iteration 1938; minNextMutationTime = 1772; timeNextPopSample = 1762; popParams.size() = 2
We are SAMPLING at time 1762
*** Looping through 5.2. Iter = 1939
iteration 1939; minNextMutationTime = 1773; timeNextPopSample = 1763; popParams.size() = 2
We are SAMPLING at time 1763
*** Looping through 5.2. Iter = 1940
iteration 1940; minNextMutationTime = 1774; timeNextPopSample = 1764; popParams.size() = 1
We are SAMPLING at time 1764
*** Looping through 5.2. Iter = 1941
iteration 1941; minNextMutationTime = 1775; timeNextPopSample = 1765; popParams.size() = 1
We are SAMPLING at time 1765
*** Looping through 5.2. Iter = 1942
iteration 1942; minNextMutationTime = 1776; timeNextPopSample = 1766; popParams.size() = 1
We are SAMPLING at time 1766
*** Looping through 5.2. Iter = 1943
iteration 1943; minNextMutationTime = 1777; timeNextPopSample = 1767; popParams.size() = 1
We are SAMPLING at time 1767
*** Looping through 5.2. Iter = 1944
iteration 1944; minNextMutationTime = 1778; timeNextPopSample = 1768; popParams.size() = 1
We are SAMPLING at time 1768
*** Looping through 5.2. Iter = 1945
iteration 1945; minNextMutationTime = 1779; timeNextPopSample = 1769; popParams.size() = 1
We are SAMPLING at time 1769
*** Looping through 5.2. Iter = 1946
iteration 1946; minNextMutationTime = 1780; timeNextPopSample = 1770; popParams.size() = 1
We are SAMPLING at time 1770
*** Looping through 5.2. Iter = 1947
iteration 1947; minNextMutationTime = 1781; timeNextPopSample = 1771; popParams.size() = 1
We are SAMPLING at time 1771
*** Looping through 5.2. Iter = 1948
iteration 1948; minNextMutationTime = 1782; timeNextPopSample = 1772; popParams.size() = 1
We are SAMPLING at time 1772
*** Looping through 5.2. Iter = 1949
iteration 1949; minNextMutationTime = 1783; timeNextPopSample = 1773; popParams.size() = 1
We are SAMPLING at time 1773
*** Looping through 5.2. Iter = 1950
iteration 1950; minNextMutationTime = 1784; timeNextPopSample = 1774; popParams.size() = 1
We are SAMPLING at time 1774
*** Looping through 5.2. Iter = 1951
iteration 1951; minNextMutationTime = 1785; timeNextPopSample = 1775; popParams.size() = 1
We are SAMPLING at time 1775
*** Looping through 5.2. Iter = 1952
iteration 1952; minNextMutationTime = 1786; timeNextPopSample = 1776; popParams.size() = 1
We are SAMPLING at time 1776
*** Looping through 5.2. Iter = 1953
iteration 1953; minNextMutationTime = 1787; timeNextPopSample = 1777; popParams.size() = 1
We are SAMPLING at time 1777
*** Looping through 5.2. Iter = 1954
iteration 1954; minNextMutationTime = 1788; timeNextPopSample = 1778; popParams.size() = 1
We are SAMPLING at time 1778
*** Looping through 5.2. Iter = 1955
iteration 1955; minNextMutationTime = 1778.55; timeNextPopSample = 1779; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1956
iteration 1956; minNextMutationTime = 1789; timeNextPopSample = 1779; popParams.size() = 2
We are SAMPLING at time 1779
*** Looping through 5.2. Iter = 1957
iteration 1957; minNextMutationTime = 1790; timeNextPopSample = 1780; popParams.size() = 2
We are SAMPLING at time 1780
*** Looping through 5.2. Iter = 1958
iteration 1958; minNextMutationTime = 1791; timeNextPopSample = 1781; popParams.size() = 1
We are SAMPLING at time 1781
*** Looping through 5.2. Iter = 1959
iteration 1959; minNextMutationTime = 1792; timeNextPopSample = 1782; popParams.size() = 1
We are SAMPLING at time 1782
*** Looping through 5.2. Iter = 1960
iteration 1960; minNextMutationTime = 1782.76; timeNextPopSample = 1783; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1961
iteration 1961; minNextMutationTime = 1793; timeNextPopSample = 1783; popParams.size() = 2
We are SAMPLING at time 1783
*** Looping through 5.2. Iter = 1962
iteration 1962; minNextMutationTime = 1783.67; timeNextPopSample = 1784; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1963
iteration 1963; minNextMutationTime = 1794; timeNextPopSample = 1784; popParams.size() = 3
We are SAMPLING at time 1784
*** Looping through 5.2. Iter = 1964
iteration 1964; minNextMutationTime = 1795; timeNextPopSample = 1785; popParams.size() = 2
We are SAMPLING at time 1785
*** Looping through 5.2. Iter = 1965
iteration 1965; minNextMutationTime = 1796; timeNextPopSample = 1786; popParams.size() = 2
We are SAMPLING at time 1786
*** Looping through 5.2. Iter = 1966
iteration 1966; minNextMutationTime = 1797; timeNextPopSample = 1787; popParams.size() = 1
We are SAMPLING at time 1787
*** Looping through 5.2. Iter = 1967
iteration 1967; minNextMutationTime = 1798; timeNextPopSample = 1788; popParams.size() = 1
We are SAMPLING at time 1788
*** Looping through 5.2. Iter = 1968
iteration 1968; minNextMutationTime = 1799; timeNextPopSample = 1789; popParams.size() = 1
We are SAMPLING at time 1789
*** Looping through 5.2. Iter = 1969
iteration 1969; minNextMutationTime = 1800; timeNextPopSample = 1790; popParams.size() = 1
We are SAMPLING at time 1790
*** Looping through 5.2. Iter = 1970
iteration 1970; minNextMutationTime = 1790.72; timeNextPopSample = 1791; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1971
iteration 1971; minNextMutationTime = 1801; timeNextPopSample = 1791; popParams.size() = 2
We are SAMPLING at time 1791
*** Looping through 5.2. Iter = 1972
iteration 1972; minNextMutationTime = 1802; timeNextPopSample = 1792; popParams.size() = 2
We are SAMPLING at time 1792
*** Looping through 5.2. Iter = 1973
iteration 1973; minNextMutationTime = 1803; timeNextPopSample = 1793; popParams.size() = 2
We are SAMPLING at time 1793
*** Looping through 5.2. Iter = 1974
iteration 1974; minNextMutationTime = 1804; timeNextPopSample = 1794; popParams.size() = 2
We are SAMPLING at time 1794
*** Looping through 5.2. Iter = 1975
iteration 1975; minNextMutationTime = 1805; timeNextPopSample = 1795; popParams.size() = 2
We are SAMPLING at time 1795
*** Looping through 5.2. Iter = 1976
iteration 1976; minNextMutationTime = 1806; timeNextPopSample = 1796; popParams.size() = 2
We are SAMPLING at time 1796
*** Looping through 5.2. Iter = 1977
iteration 1977; minNextMutationTime = 1807; timeNextPopSample = 1797; popParams.size() = 2
We are SAMPLING at time 1797
*** Looping through 5.2. Iter = 1978
iteration 1978; minNextMutationTime = 1808; timeNextPopSample = 1798; popParams.size() = 2
We are SAMPLING at time 1798
*** Looping through 5.2. Iter = 1979
iteration 1979; minNextMutationTime = 1798.59; timeNextPopSample = 1799; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1980
iteration 1980; minNextMutationTime = 1798.85; timeNextPopSample = 1799; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 1981
iteration 1981; minNextMutationTime = 1809; timeNextPopSample = 1799; popParams.size() = 3
We are SAMPLING at time 1799
*** Looping through 5.2. Iter = 1982
iteration 1982; minNextMutationTime = 1810; timeNextPopSample = 1800; popParams.size() = 2
We are SAMPLING at time 1800
*** Looping through 5.2. Iter = 1983
iteration 1983; minNextMutationTime = 1811; timeNextPopSample = 1801; popParams.size() = 1
We are SAMPLING at time 1801
*** Looping through 5.2. Iter = 1984
iteration 1984; minNextMutationTime = 1812; timeNextPopSample = 1802; popParams.size() = 1
We are SAMPLING at time 1802
*** Looping through 5.2. Iter = 1985
iteration 1985; minNextMutationTime = 1813; timeNextPopSample = 1803; popParams.size() = 1
We are SAMPLING at time 1803
*** Looping through 5.2. Iter = 1986
iteration 1986; minNextMutationTime = 1814; timeNextPopSample = 1804; popParams.size() = 1
We are SAMPLING at time 1804
*** Looping through 5.2. Iter = 1987
iteration 1987; minNextMutationTime = 1815; timeNextPopSample = 1805; popParams.size() = 1
We are SAMPLING at time 1805
*** Looping through 5.2. Iter = 1988
iteration 1988; minNextMutationTime = 1816; timeNextPopSample = 1806; popParams.size() = 1
We are SAMPLING at time 1806
*** Looping through 5.2. Iter = 1989
iteration 1989; minNextMutationTime = 1817; timeNextPopSample = 1807; popParams.size() = 1
We are SAMPLING at time 1807
*** Looping through 5.2. Iter = 1990
iteration 1990; minNextMutationTime = 1818; timeNextPopSample = 1808; popParams.size() = 1
We are SAMPLING at time 1808
*** Looping through 5.2. Iter = 1991
iteration 1991; minNextMutationTime = 1819; timeNextPopSample = 1809; popParams.size() = 1
We are SAMPLING at time 1809
*** Looping through 5.2. Iter = 1992
iteration 1992; minNextMutationTime = 1820; timeNextPopSample = 1810; popParams.size() = 1
We are SAMPLING at time 1810
*** Looping through 5.2. Iter = 1993
iteration 1993; minNextMutationTime = 1810.2; timeNextPopSample = 1811; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 1994
iteration 1994; minNextMutationTime = 1821; timeNextPopSample = 1811; popParams.size() = 2
We are SAMPLING at time 1811
*** Looping through 5.2. Iter = 1995
iteration 1995; minNextMutationTime = 1822; timeNextPopSample = 1812; popParams.size() = 1
We are SAMPLING at time 1812
*** Looping through 5.2. Iter = 1996
iteration 1996; minNextMutationTime = 1823; timeNextPopSample = 1813; popParams.size() = 1
We are SAMPLING at time 1813
*** Looping through 5.2. Iter = 1997
iteration 1997; minNextMutationTime = 1824; timeNextPopSample = 1814; popParams.size() = 1
We are SAMPLING at time 1814
*** Looping through 5.2. Iter = 1998
iteration 1998; minNextMutationTime = 1825; timeNextPopSample = 1815; popParams.size() = 1
We are SAMPLING at time 1815
*** Looping through 5.2. Iter = 1999
iteration 1999; minNextMutationTime = 1826; timeNextPopSample = 1816; popParams.size() = 1
We are SAMPLING at time 1816
... iteration 2000
... currentTime 1816
*** Looping through 5.2. Iter = 2000
iteration 2000; minNextMutationTime = 1827; timeNextPopSample = 1817; popParams.size() = 1
We are SAMPLING at time 1817
*** Looping through 5.2. Iter = 2001
iteration 2001; minNextMutationTime = 1828; timeNextPopSample = 1818; popParams.size() = 1
We are SAMPLING at time 1818
*** Looping through 5.2. Iter = 2002
iteration 2002; minNextMutationTime = 1829; timeNextPopSample = 1819; popParams.size() = 1
We are SAMPLING at time 1819
*** Looping through 5.2. Iter = 2003
iteration 2003; minNextMutationTime = 1819.7; timeNextPopSample = 1820; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 2004
iteration 2004; minNextMutationTime = 1830; timeNextPopSample = 1820; popParams.size() = 2
We are SAMPLING at time 1820
*** Looping through 5.2. Iter = 2005
iteration 2005; minNextMutationTime = 1831; timeNextPopSample = 1821; popParams.size() = 2
We are SAMPLING at time 1821
*** Looping through 5.2. Iter = 2006
iteration 2006; minNextMutationTime = 1832; timeNextPopSample = 1822; popParams.size() = 1
We are SAMPLING at time 1822
*** Looping through 5.2. Iter = 2007
iteration 2007; minNextMutationTime = 1833; timeNextPopSample = 1823; popParams.size() = 1
We are SAMPLING at time 1823
*** Looping through 5.2. Iter = 2008
iteration 2008; minNextMutationTime = 1834; timeNextPopSample = 1824; popParams.size() = 1
We are SAMPLING at time 1824
*** Looping through 5.2. Iter = 2009
iteration 2009; minNextMutationTime = 1835; timeNextPopSample = 1825; popParams.size() = 1
We are SAMPLING at time 1825
*** Looping through 5.2. Iter = 2010
iteration 2010; minNextMutationTime = 1836; timeNextPopSample = 1826; popParams.size() = 1
We are SAMPLING at time 1826
*** Looping through 5.2. Iter = 2011
iteration 2011; minNextMutationTime = 1837; timeNextPopSample = 1827; popParams.size() = 1
We are SAMPLING at time 1827
*** Looping through 5.2. Iter = 2012
iteration 2012; minNextMutationTime = 1838; timeNextPopSample = 1828; popParams.size() = 1
We are SAMPLING at time 1828
*** Looping through 5.2. Iter = 2013
iteration 2013; minNextMutationTime = 1839; timeNextPopSample = 1829; popParams.size() = 1
We are SAMPLING at time 1829
*** Looping through 5.2. Iter = 2014
iteration 2014; minNextMutationTime = 1840; timeNextPopSample = 1830; popParams.size() = 1
We are SAMPLING at time 1830
*** Looping through 5.2. Iter = 2015
iteration 2015; minNextMutationTime = 1841; timeNextPopSample = 1831; popParams.size() = 1
We are SAMPLING at time 1831
*** Looping through 5.2. Iter = 2016
iteration 2016; minNextMutationTime = 1842; timeNextPopSample = 1832; popParams.size() = 1
We are SAMPLING at time 1832
*** Looping through 5.2. Iter = 2017
iteration 2017; minNextMutationTime = 1843; timeNextPopSample = 1833; popParams.size() = 1
We are SAMPLING at time 1833
*** Looping through 5.2. Iter = 2018
iteration 2018; minNextMutationTime = 1833.68; timeNextPopSample = 1834; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 2019
iteration 2019; minNextMutationTime = 1844; timeNextPopSample = 1834; popParams.size() = 2
We are SAMPLING at time 1834
*** Looping through 5.2. Iter = 2020
iteration 2020; minNextMutationTime = 1834.32; timeNextPopSample = 1835; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 2021
iteration 2021; minNextMutationTime = 1845; timeNextPopSample = 1835; popParams.size() = 2
We are SAMPLING at time 1835
*** Looping through 5.2. Iter = 2022
iteration 2022; minNextMutationTime = 1846; timeNextPopSample = 1836; popParams.size() = 2
We are SAMPLING at time 1836
*** Looping through 5.2. Iter = 2023
iteration 2023; minNextMutationTime = 1847; timeNextPopSample = 1837; popParams.size() = 2
We are SAMPLING at time 1837
*** Looping through 5.2. Iter = 2024
iteration 2024; minNextMutationTime = 1848; timeNextPopSample = 1838; popParams.size() = 2
We are SAMPLING at time 1838
*** Looping through 5.2. Iter = 2025
iteration 2025; minNextMutationTime = 1849; timeNextPopSample = 1839; popParams.size() = 2
We are SAMPLING at time 1839
*** Looping through 5.2. Iter = 2026
iteration 2026; minNextMutationTime = 1850; timeNextPopSample = 1840; popParams.size() = 2
We are SAMPLING at time 1840
*** Looping through 5.2. Iter = 2027
iteration 2027; minNextMutationTime = 1851; timeNextPopSample = 1841; popParams.size() = 2
We are SAMPLING at time 1841
*** Looping through 5.2. Iter = 2028
iteration 2028; minNextMutationTime = 1852; timeNextPopSample = 1842; popParams.size() = 2
We are SAMPLING at time 1842
*** Looping through 5.2. Iter = 2029
iteration 2029; minNextMutationTime = 1853; timeNextPopSample = 1843; popParams.size() = 2
We are SAMPLING at time 1843
*** Looping through 5.2. Iter = 2030
iteration 2030; minNextMutationTime = 1854; timeNextPopSample = 1844; popParams.size() = 1
We are SAMPLING at time 1844
*** Looping through 5.2. Iter = 2031
iteration 2031; minNextMutationTime = 1855; timeNextPopSample = 1845; popParams.size() = 1
We are SAMPLING at time 1845
*** Looping through 5.2. Iter = 2032
iteration 2032; minNextMutationTime = 1856; timeNextPopSample = 1846; popParams.size() = 1
We are SAMPLING at time 1846
*** Looping through 5.2. Iter = 2033
iteration 2033; minNextMutationTime = 1857; timeNextPopSample = 1847; popParams.size() = 1
We are SAMPLING at time 1847
*** Looping through 5.2. Iter = 2034
iteration 2034; minNextMutationTime = 1858; timeNextPopSample = 1848; popParams.size() = 1
We are SAMPLING at time 1848
*** Looping through 5.2. Iter = 2035
iteration 2035; minNextMutationTime = 1859; timeNextPopSample = 1849; popParams.size() = 1
We are SAMPLING at time 1849
*** Looping through 5.2. Iter = 2036
iteration 2036; minNextMutationTime = 1860; timeNextPopSample = 1850; popParams.size() = 1
We are SAMPLING at time 1850
*** Looping through 5.2. Iter = 2037
iteration 2037; minNextMutationTime = 1861; timeNextPopSample = 1851; popParams.size() = 1
We are SAMPLING at time 1851
*** Looping through 5.2. Iter = 2038
iteration 2038; minNextMutationTime = 1862; timeNextPopSample = 1852; popParams.size() = 1
We are SAMPLING at time 1852
*** Looping through 5.2. Iter = 2039
iteration 2039; minNextMutationTime = 1863; timeNextPopSample = 1853; popParams.size() = 1
We are SAMPLING at time 1853
*** Looping through 5.2. Iter = 2040
iteration 2040; minNextMutationTime = 1864; timeNextPopSample = 1854; popParams.size() = 1
We are SAMPLING at time 1854
*** Looping through 5.2. Iter = 2041
iteration 2041; minNextMutationTime = 1865; timeNextPopSample = 1855; popParams.size() = 1
We are SAMPLING at time 1855
*** Looping through 5.2. Iter = 2042
iteration 2042; minNextMutationTime = 1866; timeNextPopSample = 1856; popParams.size() = 1
We are SAMPLING at time 1856
*** Looping through 5.2. Iter = 2043
iteration 2043; minNextMutationTime = 1867; timeNextPopSample = 1857; popParams.size() = 1
We are SAMPLING at time 1857
*** Looping through 5.2. Iter = 2044
iteration 2044; minNextMutationTime = 1857.21; timeNextPopSample = 1858; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 2045
iteration 2045; minNextMutationTime = 1868; timeNextPopSample = 1858; popParams.size() = 2
We are SAMPLING at time 1858
*** Looping through 5.2. Iter = 2046
iteration 2046; minNextMutationTime = 1869; timeNextPopSample = 1859; popParams.size() = 1
We are SAMPLING at time 1859
*** Looping through 5.2. Iter = 2047
iteration 2047; minNextMutationTime = 1859.74; timeNextPopSample = 1860; popParams.size() = 1
Creating new species 1 from species 0
*** Looping through 5.2. Iter = 2048
iteration 2048; minNextMutationTime = 1870; timeNextPopSample = 1860; popParams.size() = 2
We are SAMPLING at time 1860
*** Looping through 5.2. Iter = 2049
iteration 2049; minNextMutationTime = 1871; timeNextPopSample = 1861; popParams.size() = 2
We are SAMPLING at time 1861
*** Looping through 5.2. Iter = 2050
iteration 2050; minNextMutationTime = 1872; timeNextPopSample = 1862; popParams.size() = 2
We are SAMPLING at time 1862
*** Looping through 5.2. Iter = 2051
iteration 2051; minNextMutationTime = 1873; timeNextPopSample = 1863; popParams.size() = 2
We are SAMPLING at time 1863
*** Looping through 5.2. Iter = 2052
iteration 2052; minNextMutationTime = 1874; timeNextPopSample = 1864; popParams.size() = 2
We are SAMPLING at time 1864
*** Looping through 5.2. Iter = 2053
iteration 2053; minNextMutationTime = 1864.18; timeNextPopSample = 1865; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 2054
iteration 2054; minNextMutationTime = 1875; timeNextPopSample = 1865; popParams.size() = 3
We are SAMPLING at time 1865
*** Looping through 5.2. Iter = 2055
iteration 2055; minNextMutationTime = 1876; timeNextPopSample = 1866; popParams.size() = 3
We are SAMPLING at time 1866
*** Looping through 5.2. Iter = 2056
iteration 2056; minNextMutationTime = 1877; timeNextPopSample = 1867; popParams.size() = 2
We are SAMPLING at time 1867
*** Looping through 5.2. Iter = 2057
iteration 2057; minNextMutationTime = 1878; timeNextPopSample = 1868; popParams.size() = 2
We are SAMPLING at time 1868
*** Looping through 5.2. Iter = 2058
iteration 2058; minNextMutationTime = 1879; timeNextPopSample = 1869; popParams.size() = 2
We are SAMPLING at time 1869
*** Looping through 5.2. Iter = 2059
iteration 2059; minNextMutationTime = 1880; timeNextPopSample = 1870; popParams.size() = 2
We are SAMPLING at time 1870
*** Looping through 5.2. Iter = 2060
iteration 2060; minNextMutationTime = 1881; timeNextPopSample = 1871; popParams.size() = 2
We are SAMPLING at time 1871
*** Looping through 5.2. Iter = 2061
iteration 2061; minNextMutationTime = 1882; timeNextPopSample = 1872; popParams.size() = 2
We are SAMPLING at time 1872
*** Looping through 5.2. Iter = 2062
iteration 2062; minNextMutationTime = 1883; timeNextPopSample = 1873; popParams.size() = 2
We are SAMPLING at time 1873
*** Looping through 5.2. Iter = 2063
iteration 2063; minNextMutationTime = 1884; timeNextPopSample = 1874; popParams.size() = 2
We are SAMPLING at time 1874
*** Looping through 5.2. Iter = 2064
iteration 2064; minNextMutationTime = 1885; timeNextPopSample = 1875; popParams.size() = 2
We are SAMPLING at time 1875
*** Looping through 5.2. Iter = 2065
iteration 2065; minNextMutationTime = 1886; timeNextPopSample = 1876; popParams.size() = 2
We are SAMPLING at time 1876
*** Looping through 5.2. Iter = 2066
iteration 2066; minNextMutationTime = 1876.2; timeNextPopSample = 1877; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 2067
iteration 2067; minNextMutationTime = 1887; timeNextPopSample = 1877; popParams.size() = 3
We are SAMPLING at time 1877
*** Looping through 5.2. Iter = 2068
iteration 2068; minNextMutationTime = 1888; timeNextPopSample = 1878; popParams.size() = 2
We are SAMPLING at time 1878
*** Looping through 5.2. Iter = 2069
iteration 2069; minNextMutationTime = 1889; timeNextPopSample = 1879; popParams.size() = 2
We are SAMPLING at time 1879
*** Looping through 5.2. Iter = 2070
iteration 2070; minNextMutationTime = 1890; timeNextPopSample = 1880; popParams.size() = 2
We are SAMPLING at time 1880
*** Looping through 5.2. Iter = 2071
iteration 2071; minNextMutationTime = 1891; timeNextPopSample = 1881; popParams.size() = 2
We are SAMPLING at time 1881
*** Looping through 5.2. Iter = 2072
iteration 2072; minNextMutationTime = 1892; timeNextPopSample = 1882; popParams.size() = 2
We are SAMPLING at time 1882
*** Looping through 5.2. Iter = 2073
iteration 2073; minNextMutationTime = 1893; timeNextPopSample = 1883; popParams.size() = 2
We are SAMPLING at time 1883
*** Looping through 5.2. Iter = 2074
iteration 2074; minNextMutationTime = 1894; timeNextPopSample = 1884; popParams.size() = 2
We are SAMPLING at time 1884
*** Looping through 5.2. Iter = 2075
iteration 2075; minNextMutationTime = 1895; timeNextPopSample = 1885; popParams.size() = 2
We are SAMPLING at time 1885
*** Looping through 5.2. Iter = 2076
iteration 2076; minNextMutationTime = 1896; timeNextPopSample = 1886; popParams.size() = 2
We are SAMPLING at time 1886
*** Looping through 5.2. Iter = 2077
iteration 2077; minNextMutationTime = 1897; timeNextPopSample = 1887; popParams.size() = 2
We are SAMPLING at time 1887
*** Looping through 5.2. Iter = 2078
iteration 2078; minNextMutationTime = 1898; timeNextPopSample = 1888; popParams.size() = 2
We are SAMPLING at time 1888
*** Looping through 5.2. Iter = 2079
iteration 2079; minNextMutationTime = 1899; timeNextPopSample = 1889; popParams.size() = 2
We are SAMPLING at time 1889
*** Looping through 5.2. Iter = 2080
iteration 2080; minNextMutationTime = 1900; timeNextPopSample = 1890; popParams.size() = 2
We are SAMPLING at time 1890
*** Looping through 5.2. Iter = 2081
iteration 2081; minNextMutationTime = 1901; timeNextPopSample = 1891; popParams.size() = 2
We are SAMPLING at time 1891
*** Looping through 5.2. Iter = 2082
iteration 2082; minNextMutationTime = 1902; timeNextPopSample = 1892; popParams.size() = 2
We are SAMPLING at time 1892
*** Looping through 5.2. Iter = 2083
iteration 2083; minNextMutationTime = 1903; timeNextPopSample = 1893; popParams.size() = 2
We are SAMPLING at time 1893
*** Looping through 5.2. Iter = 2084
iteration 2084; minNextMutationTime = 1904; timeNextPopSample = 1894; popParams.size() = 2
We are SAMPLING at time 1894
*** Looping through 5.2. Iter = 2085
iteration 2085; minNextMutationTime = 1894.47; timeNextPopSample = 1895; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 2086
iteration 2086; minNextMutationTime = 1905; timeNextPopSample = 1895; popParams.size() = 3
We are SAMPLING at time 1895
*** Looping through 5.2. Iter = 2087
iteration 2087; minNextMutationTime = 1906; timeNextPopSample = 1896; popParams.size() = 3
We are SAMPLING at time 1896
*** Looping through 5.2. Iter = 2088
iteration 2088; minNextMutationTime = 1907; timeNextPopSample = 1897; popParams.size() = 2
We are SAMPLING at time 1897
*** Looping through 5.2. Iter = 2089
iteration 2089; minNextMutationTime = 1897.22; timeNextPopSample = 1898; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 2090
iteration 2090; minNextMutationTime = 1897.39; timeNextPopSample = 1898; popParams.size() = 3
Creating new species 3 from species 0
*** Looping through 5.2. Iter = 2091
iteration 2091; minNextMutationTime = 1908; timeNextPopSample = 1898; popParams.size() = 4
We are SAMPLING at time 1898
*** Looping through 5.2. Iter = 2092
iteration 2092; minNextMutationTime = 1909; timeNextPopSample = 1899; popParams.size() = 4
We are SAMPLING at time 1899
*** Looping through 5.2. Iter = 2093
iteration 2093; minNextMutationTime = 1910; timeNextPopSample = 1900; popParams.size() = 4
We are SAMPLING at time 1900
*** Looping through 5.2. Iter = 2094
iteration 2094; minNextMutationTime = 1911; timeNextPopSample = 1901; popParams.size() = 3
We are SAMPLING at time 1901
*** Looping through 5.2. Iter = 2095
iteration 2095; minNextMutationTime = 1901.25; timeNextPopSample = 1902; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 2096
iteration 2096; minNextMutationTime = 1912; timeNextPopSample = 1902; popParams.size() = 3
We are SAMPLING at time 1902
*** Looping through 5.2. Iter = 2097
iteration 2097; minNextMutationTime = 1913; timeNextPopSample = 1903; popParams.size() = 3
We are SAMPLING at time 1903
*** Looping through 5.2. Iter = 2098
iteration 2098; minNextMutationTime = 1914; timeNextPopSample = 1904; popParams.size() = 3
We are SAMPLING at time 1904
*** Looping through 5.2. Iter = 2099
iteration 2099; minNextMutationTime = 1915; timeNextPopSample = 1905; popParams.size() = 2
We are SAMPLING at time 1905
*** Looping through 5.2. Iter = 2100
iteration 2100; minNextMutationTime = 1916; timeNextPopSample = 1906; popParams.size() = 2
We are SAMPLING at time 1906
*** Looping through 5.2. Iter = 2101
iteration 2101; minNextMutationTime = 1917; timeNextPopSample = 1907; popParams.size() = 2
We are SAMPLING at time 1907
*** Looping through 5.2. Iter = 2102
iteration 2102; minNextMutationTime = 1918; timeNextPopSample = 1908; popParams.size() = 2
We are SAMPLING at time 1908
*** Looping through 5.2. Iter = 2103
iteration 2103; minNextMutationTime = 1919; timeNextPopSample = 1909; popParams.size() = 2
We are SAMPLING at time 1909
*** Looping through 5.2. Iter = 2104
iteration 2104; minNextMutationTime = 1920; timeNextPopSample = 1910; popParams.size() = 2
We are SAMPLING at time 1910
*** Looping through 5.2. Iter = 2105
iteration 2105; minNextMutationTime = 1921; timeNextPopSample = 1911; popParams.size() = 2
We are SAMPLING at time 1911
*** Looping through 5.2. Iter = 2106
iteration 2106; minNextMutationTime = 1922; timeNextPopSample = 1912; popParams.size() = 2
We are SAMPLING at time 1912
*** Looping through 5.2. Iter = 2107
iteration 2107; minNextMutationTime = 1923; timeNextPopSample = 1913; popParams.size() = 2
We are SAMPLING at time 1913
*** Looping through 5.2. Iter = 2108
iteration 2108; minNextMutationTime = 1913.12; timeNextPopSample = 1914; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 2109
iteration 2109; minNextMutationTime = 1924; timeNextPopSample = 1914; popParams.size() = 3
We are SAMPLING at time 1914
*** Looping through 5.2. Iter = 2110
iteration 2110; minNextMutationTime = 1925; timeNextPopSample = 1915; popParams.size() = 2
We are SAMPLING at time 1915
*** Looping through 5.2. Iter = 2111
iteration 2111; minNextMutationTime = 1926; timeNextPopSample = 1916; popParams.size() = 2
We are SAMPLING at time 1916
*** Looping through 5.2. Iter = 2112
iteration 2112; minNextMutationTime = 1927; timeNextPopSample = 1917; popParams.size() = 2
We are SAMPLING at time 1917
*** Looping through 5.2. Iter = 2113
iteration 2113; minNextMutationTime = 1917.13; timeNextPopSample = 1918; popParams.size() = 2
Creating new species 2 from species 0
*** Looping through 5.2. Iter = 2114
iteration 2114; minNextMutationTime = 1928; timeNextPopSample = 1918; popParams.size() = 3
We are SAMPLING at time 1918
*** Looping through 5.2. Iter = 2115
iteration 2115; minNextMutationTime = 1918.11; timeNextPopSample = 1919; popParams.size() = 3
Creating new species 3 from species 0
*** Looping through 5.2. Iter = 2116
iteration 2116; minNextMutationTime = 1929; timeNextPopSample = 1919; popParams.size() = 4
We are SAMPLING at time 1919
*** Looping through 5.2. Iter = 2117
iteration 2117; minNextMutationTime = 1930; timeNextPopSample = 1920; popParams.size() = 4
We are SAMPLING at time 1920
*** Looping through 5.2. Iter = 2118
iteration 2118; minNextMutationTime = 1931; timeNextPopSample = 1921; popParams.size() = 3
We are SAMPLING at time 1921
*** Looping through 5.2. Iter = 2119
iteration 2119; minNextMutationTime = 1921.55; timeNextPopSample = 1922; popParams.size() = 3
Creating new species 3 from species 0
*** Looping through 5.2. Iter = 2120
iteration 2120; minNextMutationTime = 1932; timeNextPopSample = 1922; popParams.size() = 4
We are SAMPLING at time 1922
*** Looping through 5.2. Iter = 2121
iteration 2121; minNextMutationTime = 1933; timeNextPopSample = 1923; popParams.size() = 4
We are SAMPLING at time 1923
*** Looping through 5.2. Iter = 2122
iteration 2122; minNextMutationTime = 1934; timeNextPopSample = 1924; popParams.size() = 4
We are SAMPLING at time 1924
*** Looping through 5.2. Iter = 2123
iteration 2123; minNextMutationTime = 1924.06; timeNextPopSample = 1925; popParams.size() = 4
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 1)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 1)
New popSize = 14717
*** Looping through 5.2. Iter = 2124
iteration 2124; minNextMutationTime = 1935; timeNextPopSample = 1925; popParams.size() = 4
We are SAMPLING at time 1925
*** Looping through 5.2. Iter = 2125
iteration 2125; minNextMutationTime = 1936; timeNextPopSample = 1926; popParams.size() = 4
We are SAMPLING at time 1926
*** Looping through 5.2. Iter = 2126
iteration 2126; minNextMutationTime = 1937; timeNextPopSample = 1927; popParams.size() = 4
We are SAMPLING at time 1927
*** Looping through 5.2. Iter = 2127
iteration 2127; minNextMutationTime = 1938; timeNextPopSample = 1928; popParams.size() = 3
We are SAMPLING at time 1928
*** Looping through 5.2. Iter = 2128
iteration 2128; minNextMutationTime = 1928.6; timeNextPopSample = 1929; popParams.size() = 3
Creating new species 3 from species 1
*** Looping through 5.2. Iter = 2129
iteration 2129; minNextMutationTime = 1939; timeNextPopSample = 1929; popParams.size() = 4
We are SAMPLING at time 1929
*** Looping through 5.2. Iter = 2130
iteration 2130; minNextMutationTime = 1940; timeNextPopSample = 1930; popParams.size() = 4
We are SAMPLING at time 1930
*** Looping through 5.2. Iter = 2131
iteration 2131; minNextMutationTime = 1930.06; timeNextPopSample = 1931; popParams.size() = 3
Creating new species 3 from species 1
*** Looping through 5.2. Iter = 2132
iteration 2132; minNextMutationTime = 1941; timeNextPopSample = 1931; popParams.size() = 4
We are SAMPLING at time 1931
*** Looping through 5.2. Iter = 2133
iteration 2133; minNextMutationTime = 1931.24; timeNextPopSample = 1932; popParams.size() = 4
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 2
*** Looping through 5.2. Iter = 2134
iteration 2134; minNextMutationTime = 1942; timeNextPopSample = 1932; popParams.size() = 4
We are SAMPLING at time 1932
*** Looping through 5.2. Iter = 2135
iteration 2135; minNextMutationTime = 1943; timeNextPopSample = 1933; popParams.size() = 4
We are SAMPLING at time 1933
*** Looping through 5.2. Iter = 2136
iteration 2136; minNextMutationTime = 1933.75; timeNextPopSample = 1934; popParams.size() = 4
Creating new species 4 from species 1
*** Looping through 5.2. Iter = 2137
iteration 2137; minNextMutationTime = 1944; timeNextPopSample = 1934; popParams.size() = 5
We are SAMPLING at time 1934
*** Looping through 5.2. Iter = 2138
iteration 2138; minNextMutationTime = 1934.56; timeNextPopSample = 1935; popParams.size() = 5
Creating new species 5 from species 0
*** Looping through 5.2. Iter = 2139
iteration 2139; minNextMutationTime = 1945; timeNextPopSample = 1935; popParams.size() = 6
We are SAMPLING at time 1935
*** Looping through 5.2. Iter = 2140
iteration 2140; minNextMutationTime = 1946; timeNextPopSample = 1936; popParams.size() = 5
We are SAMPLING at time 1936
*** Looping through 5.2. Iter = 2141
iteration 2141; minNextMutationTime = 1936.11; timeNextPopSample = 1937; popParams.size() = 4
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 42
*** Looping through 5.2. Iter = 2142
iteration 2142; minNextMutationTime = 1947; timeNextPopSample = 1937; popParams.size() = 4
We are SAMPLING at time 1937
*** Looping through 5.2. Iter = 2143
iteration 2143; minNextMutationTime = 1948; timeNextPopSample = 1938; popParams.size() = 4
We are SAMPLING at time 1938
*** Looping through 5.2. Iter = 2144
iteration 2144; minNextMutationTime = 1949; timeNextPopSample = 1939; popParams.size() = 4
We are SAMPLING at time 1939
*** Looping through 5.2. Iter = 2145
iteration 2145; minNextMutationTime = 1950; timeNextPopSample = 1940; popParams.size() = 4
We are SAMPLING at time 1940
*** Looping through 5.2. Iter = 2146
iteration 2146; minNextMutationTime = 1940.32; timeNextPopSample = 1941; popParams.size() = 4
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 1)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 1)
New popSize = 76258
*** Looping through 5.2. Iter = 2147
iteration 2147; minNextMutationTime = 1951; timeNextPopSample = 1941; popParams.size() = 4
We are SAMPLING at time 1941
*** Looping through 5.2. Iter = 2148
iteration 2148; minNextMutationTime = 1952; timeNextPopSample = 1942; popParams.size() = 4
We are SAMPLING at time 1942
*** Looping through 5.2. Iter = 2149
iteration 2149; minNextMutationTime = 1953; timeNextPopSample = 1943; popParams.size() = 4
We are SAMPLING at time 1943
*** Looping through 5.2. Iter = 2150
iteration 2150; minNextMutationTime = 1954; timeNextPopSample = 1944; popParams.size() = 4
We are SAMPLING at time 1944
*** Looping through 5.2. Iter = 2151
iteration 2151; minNextMutationTime = 1955; timeNextPopSample = 1945; popParams.size() = 4
We are SAMPLING at time 1945
*** Looping through 5.2. Iter = 2152
iteration 2152; minNextMutationTime = 1945.21; timeNextPopSample = 1946; popParams.size() = 4
Creating new species 4 from species 1
*** Looping through 5.2. Iter = 2153
iteration 2153; minNextMutationTime = 1945.55; timeNextPopSample = 1946; popParams.size() = 5
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 2
*** Looping through 5.2. Iter = 2154
iteration 2154; minNextMutationTime = 1956; timeNextPopSample = 1946; popParams.size() = 5
We are SAMPLING at time 1946
*** Looping through 5.2. Iter = 2155
iteration 2155; minNextMutationTime = 1957; timeNextPopSample = 1947; popParams.size() = 5
We are SAMPLING at time 1947
*** Looping through 5.2. Iter = 2156
iteration 2156; minNextMutationTime = 1958; timeNextPopSample = 1948; popParams.size() = 5
We are SAMPLING at time 1948
*** Looping through 5.2. Iter = 2157
iteration 2157; minNextMutationTime = 1959; timeNextPopSample = 1949; popParams.size() = 5
We are SAMPLING at time 1949
*** Looping through 5.2. Iter = 2158
iteration 2158; minNextMutationTime = 1949.3; timeNextPopSample = 1950; popParams.size() = 5
Creating new species 5 from species 1
*** Looping through 5.2. Iter = 2159
iteration 2159; minNextMutationTime = 1960; timeNextPopSample = 1950; popParams.size() = 6
We are SAMPLING at time 1950
*** Looping through 5.2. Iter = 2160
iteration 2160; minNextMutationTime = 1950.07; timeNextPopSample = 1951; popParams.size() = 6
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 111
*** Looping through 5.2. Iter = 2161
iteration 2161; minNextMutationTime = 1950.15; timeNextPopSample = 1951; popParams.size() = 6
Creating new species 6 from species 1
*** Looping through 5.2. Iter = 2162
iteration 2162; minNextMutationTime = 1950.55; timeNextPopSample = 1951; popParams.size() = 7
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 126
*** Looping through 5.2. Iter = 2163
iteration 2163; minNextMutationTime = 1950.83; timeNextPopSample = 1951; popParams.size() = 7
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 6
*** Looping through 5.2. Iter = 2164
iteration 2164; minNextMutationTime = 1961; timeNextPopSample = 1951; popParams.size() = 7
We are SAMPLING at time 1951
*** Looping through 5.2. Iter = 2165
iteration 2165; minNextMutationTime = 1951.13; timeNextPopSample = 1952; popParams.size() = 7
Creating new species 7 from species 1
*** Looping through 5.2. Iter = 2166
iteration 2166; minNextMutationTime = 1951.28; timeNextPopSample = 1952; popParams.size() = 8
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 2
*** Looping through 5.2. Iter = 2167
iteration 2167; minNextMutationTime = 1951.95; timeNextPopSample = 1952; popParams.size() = 8
Mutated to existing species 2 (Genotype = 0000000000000000000000000000000000000000000000000000000000001000; sp_id = 8)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 8)
New popSize = 66
*** Looping through 5.2. Iter = 2168
iteration 2168; minNextMutationTime = 1962; timeNextPopSample = 1952; popParams.size() = 8
We are SAMPLING at time 1952
*** Looping through 5.2. Iter = 2169
iteration 2169; minNextMutationTime = 1952.62; timeNextPopSample = 1953; popParams.size() = 7
Creating new species 7 from species 1
*** Looping through 5.2. Iter = 2170
iteration 2170; minNextMutationTime = 1952.66; timeNextPopSample = 1953; popParams.size() = 8
Mutated to existing species 1 (Genotype = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 1)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 1)
New popSize = 259294
*** Looping through 5.2. Iter = 2171
iteration 2171; minNextMutationTime = 1952.96; timeNextPopSample = 1953; popParams.size() = 8
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 12
*** Looping through 5.2. Iter = 2172
iteration 2172; minNextMutationTime = 1963; timeNextPopSample = 1953; popParams.size() = 8
We are SAMPLING at time 1953
*** Looping through 5.2. Iter = 2173
iteration 2173; minNextMutationTime = 1953.1; timeNextPopSample = 1954; popParams.size() = 8
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 2
*** Looping through 5.2. Iter = 2174
iteration 2174; minNextMutationTime = 1953.35; timeNextPopSample = 1954; popParams.size() = 8
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 2
*** Looping through 5.2. Iter = 2175
iteration 2175; minNextMutationTime = 1953.54; timeNextPopSample = 1954; popParams.size() = 8
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 205
*** Looping through 5.2. Iter = 2176
iteration 2176; minNextMutationTime = 1964; timeNextPopSample = 1954; popParams.size() = 8
We are SAMPLING at time 1954
*** Looping through 5.2. Iter = 2177
iteration 2177; minNextMutationTime = 1954.38; timeNextPopSample = 1955; popParams.size() = 8
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 3
*** Looping through 5.2. Iter = 2178
iteration 2178; minNextMutationTime = 1954.54; timeNextPopSample = 1955; popParams.size() = 8
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 5
*** Looping through 5.2. Iter = 2179
iteration 2179; minNextMutationTime = 1954.55; timeNextPopSample = 1955; popParams.size() = 8
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 13
*** Looping through 5.2. Iter = 2180
iteration 2180; minNextMutationTime = 1954.81; timeNextPopSample = 1955; popParams.size() = 8
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 16
*** Looping through 5.2. Iter = 2181
iteration 2181; minNextMutationTime = 1965; timeNextPopSample = 1955; popParams.size() = 8
We are SAMPLING at time 1955
*** Looping through 5.2. Iter = 2182
iteration 2182; minNextMutationTime = 1966; timeNextPopSample = 1956; popParams.size() = 8
We are SAMPLING at time 1956
*** Looping through 5.2. Iter = 2183
iteration 2183; minNextMutationTime = 1956.56; timeNextPopSample = 1957; popParams.size() = 7
Creating new species 7 from species 1
*** Looping through 5.2. Iter = 2184
iteration 2184; minNextMutationTime = 1967; timeNextPopSample = 1957; popParams.size() = 8
We are SAMPLING at time 1957
*** Looping through 5.2. Iter = 2185
iteration 2185; minNextMutationTime = 1957.12; timeNextPopSample = 1958; popParams.size() = 8
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 15
*** Looping through 5.2. Iter = 2186
iteration 2186; minNextMutationTime = 1968; timeNextPopSample = 1958; popParams.size() = 8
We are SAMPLING at time 1958
*** Looping through 5.2. Iter = 2187
iteration 2187; minNextMutationTime = 1958.47; timeNextPopSample = 1959; popParams.size() = 7
Creating new species 7 from species 1
*** Looping through 5.2. Iter = 2188
iteration 2188; minNextMutationTime = 1969; timeNextPopSample = 1959; popParams.size() = 8
We are SAMPLING at time 1959
*** Looping through 5.2. Iter = 2189
iteration 2189; minNextMutationTime = 1959.47; timeNextPopSample = 1960; popParams.size() = 8
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 28
*** Looping through 5.2. Iter = 2190
iteration 2190; minNextMutationTime = 1959.73; timeNextPopSample = 1960; popParams.size() = 8
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 32
*** Looping through 5.2. Iter = 2191
iteration 2191; minNextMutationTime = 1970; timeNextPopSample = 1960; popParams.size() = 8
We are SAMPLING at time 1960
*** Looping through 5.2. Iter = 2192
iteration 2192; minNextMutationTime = 1960.11; timeNextPopSample = 1961; popParams.size() = 8
Creating new species 8 from species 1
*** Looping through 5.2. Iter = 2193
iteration 2193; minNextMutationTime = 1960.48; timeNextPopSample = 1961; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 1
*** Looping through 5.2. Iter = 2194
iteration 2194; minNextMutationTime = 1960.63; timeNextPopSample = 1961; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 31
*** Looping through 5.2. Iter = 2195
iteration 2195; minNextMutationTime = 1960.74; timeNextPopSample = 1961; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 23
*** Looping through 5.2. Iter = 2196
iteration 2196; minNextMutationTime = 1971; timeNextPopSample = 1961; popParams.size() = 9
We are SAMPLING at time 1961
*** Looping through 5.2. Iter = 2197
iteration 2197; minNextMutationTime = 1961.11; timeNextPopSample = 1962; popParams.size() = 8
Mutated to existing species 2 (Genotype = 0000000000000000000000000000000000000000000000000000000000001000; sp_id = 8)
from species 0 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000000; sp_id = 8)
New popSize = 82
*** Looping through 5.2. Iter = 2198
iteration 2198; minNextMutationTime = 1961.4; timeNextPopSample = 1962; popParams.size() = 8
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 952
*** Looping through 5.2. Iter = 2199
iteration 2199; minNextMutationTime = 1972; timeNextPopSample = 1962; popParams.size() = 8
We are SAMPLING at time 1962
*** Looping through 5.2. Iter = 2200
iteration 2200; minNextMutationTime = 1962.12; timeNextPopSample = 1963; popParams.size() = 8
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 2
*** Looping through 5.2. Iter = 2201
iteration 2201; minNextMutationTime = 1962.45; timeNextPopSample = 1963; popParams.size() = 8
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 34
*** Looping through 5.2. Iter = 2202
iteration 2202; minNextMutationTime = 1962.53; timeNextPopSample = 1963; popParams.size() = 8
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 48
*** Looping through 5.2. Iter = 2203
iteration 2203; minNextMutationTime = 1962.57; timeNextPopSample = 1963; popParams.size() = 8
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 23
*** Looping through 5.2. Iter = 2204
iteration 2204; minNextMutationTime = 1962.85; timeNextPopSample = 1963; popParams.size() = 8
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 36
*** Looping through 5.2. Iter = 2205
iteration 2205; minNextMutationTime = 1973; timeNextPopSample = 1963; popParams.size() = 8
We are SAMPLING at time 1963
*** Looping through 5.2. Iter = 2206
iteration 2206; minNextMutationTime = 1963.05; timeNextPopSample = 1964; popParams.size() = 8
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 56
*** Looping through 5.2. Iter = 2207
iteration 2207; minNextMutationTime = 1963.06; timeNextPopSample = 1964; popParams.size() = 8
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 55
*** Looping through 5.2. Iter = 2208
iteration 2208; minNextMutationTime = 1963.28; timeNextPopSample = 1964; popParams.size() = 8
Creating new species 8 from species 1
*** Looping through 5.2. Iter = 2209
iteration 2209; minNextMutationTime = 1963.29; timeNextPopSample = 1964; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 47
*** Looping through 5.2. Iter = 2210
iteration 2210; minNextMutationTime = 1963.38; timeNextPopSample = 1964; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 1131
*** Looping through 5.2. Iter = 2211
iteration 2211; minNextMutationTime = 1963.6; timeNextPopSample = 1964; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 1176
*** Looping through 5.2. Iter = 2212
iteration 2212; minNextMutationTime = 1963.6; timeNextPopSample = 1964; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 1179
*** Looping through 5.2. Iter = 2213
iteration 2213; minNextMutationTime = 1963.82; timeNextPopSample = 1964; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 85
*** Looping through 5.2. Iter = 2214
iteration 2214; minNextMutationTime = 1963.84; timeNextPopSample = 1964; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 1
*** Looping through 5.2. Iter = 2215
iteration 2215; minNextMutationTime = 1964; timeNextPopSample = 1964; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 1
*** Looping through 5.2. Iter = 2216
iteration 2216; minNextMutationTime = 1974; timeNextPopSample = 1964; popParams.size() = 9
We are SAMPLING at time 1964
*** Looping through 5.2. Iter = 2217
iteration 2217; minNextMutationTime = 1964.51; timeNextPopSample = 1965; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 1
*** Looping through 5.2. Iter = 2218
iteration 2218; minNextMutationTime = 1964.7; timeNextPopSample = 1965; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 2
*** Looping through 5.2. Iter = 2219
iteration 2219; minNextMutationTime = 1964.78; timeNextPopSample = 1965; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 3
*** Looping through 5.2. Iter = 2220
iteration 2220; minNextMutationTime = 1964.78; timeNextPopSample = 1965; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 53
*** Looping through 5.2. Iter = 2221
iteration 2221; minNextMutationTime = 1964.93; timeNextPopSample = 1965; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 91
*** Looping through 5.2. Iter = 2222
iteration 2222; minNextMutationTime = 1965; timeNextPopSample = 1965; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 1
*** Looping through 5.2. Iter = 2223
iteration 2223; minNextMutationTime = 1975; timeNextPopSample = 1965; popParams.size() = 9
We are SAMPLING at time 1965
*** Looping through 5.2. Iter = 2224
iteration 2224; minNextMutationTime = 1965.13; timeNextPopSample = 1966; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 4
*** Looping through 5.2. Iter = 2225
iteration 2225; minNextMutationTime = 1965.34; timeNextPopSample = 1966; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 2
*** Looping through 5.2. Iter = 2226
iteration 2226; minNextMutationTime = 1965.92; timeNextPopSample = 1966; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 1399
*** Looping through 5.2. Iter = 2227
iteration 2227; minNextMutationTime = 1965.92; timeNextPopSample = 1966; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 3
*** Looping through 5.2. Iter = 2228
iteration 2228; minNextMutationTime = 1976; timeNextPopSample = 1966; popParams.size() = 9
We are SAMPLING at time 1966
*** Looping through 5.2. Iter = 2229
iteration 2229; minNextMutationTime = 1966.14; timeNextPopSample = 1967; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 5
*** Looping through 5.2. Iter = 2230
iteration 2230; minNextMutationTime = 1966.16; timeNextPopSample = 1967; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 3
*** Looping through 5.2. Iter = 2231
iteration 2231; minNextMutationTime = 1966.18; timeNextPopSample = 1967; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 1438
*** Looping through 5.2. Iter = 2232
iteration 2232; minNextMutationTime = 1966.52; timeNextPopSample = 1967; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 1556
*** Looping through 5.2. Iter = 2233
iteration 2233; minNextMutationTime = 1966.73; timeNextPopSample = 1967; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 100
*** Looping through 5.2. Iter = 2234
iteration 2234; minNextMutationTime = 1966.81; timeNextPopSample = 1967; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 3
*** Looping through 5.2. Iter = 2235
iteration 2235; minNextMutationTime = 1966.83; timeNextPopSample = 1967; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 62
*** Looping through 5.2. Iter = 2236
iteration 2236; minNextMutationTime = 1966.86; timeNextPopSample = 1967; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 5
*** Looping through 5.2. Iter = 2237
iteration 2237; minNextMutationTime = 1966.95; timeNextPopSample = 1967; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 100
*** Looping through 5.2. Iter = 2238
iteration 2238; minNextMutationTime = 1977; timeNextPopSample = 1967; popParams.size() = 9
We are SAMPLING at time 1967
*** Looping through 5.2. Iter = 2239
iteration 2239; minNextMutationTime = 1967.13; timeNextPopSample = 1968; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 1563
*** Looping through 5.2. Iter = 2240
iteration 2240; minNextMutationTime = 1967.16; timeNextPopSample = 1968; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 48
*** Looping through 5.2. Iter = 2241
iteration 2241; minNextMutationTime = 1967.33; timeNextPopSample = 1968; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 4
*** Looping through 5.2. Iter = 2242
iteration 2242; minNextMutationTime = 1967.66; timeNextPopSample = 1968; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 53
*** Looping through 5.2. Iter = 2243
iteration 2243; minNextMutationTime = 1967.69; timeNextPopSample = 1968; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 5
*** Looping through 5.2. Iter = 2244
iteration 2244; minNextMutationTime = 1967.8; timeNextPopSample = 1968; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 3
*** Looping through 5.2. Iter = 2245
iteration 2245; minNextMutationTime = 1967.85; timeNextPopSample = 1968; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 65
*** Looping through 5.2. Iter = 2246
iteration 2246; minNextMutationTime = 1978; timeNextPopSample = 1968; popParams.size() = 9
We are SAMPLING at time 1968
*** Looping through 5.2. Iter = 2247
iteration 2247; minNextMutationTime = 1968.04; timeNextPopSample = 1969; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 70
*** Looping through 5.2. Iter = 2248
iteration 2248; minNextMutationTime = 1968.06; timeNextPopSample = 1969; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 59
*** Looping through 5.2. Iter = 2249
iteration 2249; minNextMutationTime = 1968.06; timeNextPopSample = 1969; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 61
*** Looping through 5.2. Iter = 2250
iteration 2250; minNextMutationTime = 1968.21; timeNextPopSample = 1969; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 116
*** Looping through 5.2. Iter = 2251
iteration 2251; minNextMutationTime = 1968.46; timeNextPopSample = 1969; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 70
*** Looping through 5.2. Iter = 2252
iteration 2252; minNextMutationTime = 1968.53; timeNextPopSample = 1969; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 1614
*** Looping through 5.2. Iter = 2253
iteration 2253; minNextMutationTime = 1968.75; timeNextPopSample = 1969; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 3
*** Looping through 5.2. Iter = 2254
iteration 2254; minNextMutationTime = 1968.81; timeNextPopSample = 1969; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 5
*** Looping through 5.2. Iter = 2255
iteration 2255; minNextMutationTime = 1979; timeNextPopSample = 1969; popParams.size() = 9
We are SAMPLING at time 1969
*** Looping through 5.2. Iter = 2256
iteration 2256; minNextMutationTime = 1969.01; timeNextPopSample = 1970; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 70
*** Looping through 5.2. Iter = 2257
iteration 2257; minNextMutationTime = 1969.09; timeNextPopSample = 1970; popParams.size() = 9
Creating new species 9 from species 0
*** Looping through 5.2. Iter = 2258
iteration 2258; minNextMutationTime = 1969.31; timeNextPopSample = 1970; popParams.size() = 10
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 1939
*** Looping through 5.2. Iter = 2259
iteration 2259; minNextMutationTime = 1969.36; timeNextPopSample = 1970; popParams.size() = 10
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 3
*** Looping through 5.2. Iter = 2260
iteration 2260; minNextMutationTime = 1969.4; timeNextPopSample = 1970; popParams.size() = 10
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 4
*** Looping through 5.2. Iter = 2261
iteration 2261; minNextMutationTime = 1969.42; timeNextPopSample = 1970; popParams.size() = 10
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 2016
*** Looping through 5.2. Iter = 2262
iteration 2262; minNextMutationTime = 1969.47; timeNextPopSample = 1970; popParams.size() = 10
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 76
*** Looping through 5.2. Iter = 2263
iteration 2263; minNextMutationTime = 1969.61; timeNextPopSample = 1970; popParams.size() = 10
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 93
*** Looping through 5.2. Iter = 2264
iteration 2264; minNextMutationTime = 1969.63; timeNextPopSample = 1970; popParams.size() = 10
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 2113
*** Looping through 5.2. Iter = 2265
iteration 2265; minNextMutationTime = 1969.66; timeNextPopSample = 1970; popParams.size() = 10
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 2137
*** Looping through 5.2. Iter = 2266
iteration 2266; minNextMutationTime = 1969.7; timeNextPopSample = 1970; popParams.size() = 10
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 97
*** Looping through 5.2. Iter = 2267
iteration 2267; minNextMutationTime = 1969.94; timeNextPopSample = 1970; popParams.size() = 10
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 11
*** Looping through 5.2. Iter = 2268
iteration 2268; minNextMutationTime = 1969.99; timeNextPopSample = 1970; popParams.size() = 10
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 2306
*** Looping through 5.2. Iter = 2269
iteration 2269; minNextMutationTime = 1980; timeNextPopSample = 1970; popParams.size() = 10
We are SAMPLING at time 1970
*** Looping through 5.2. Iter = 2270
iteration 2270; minNextMutationTime = 1970.18; timeNextPopSample = 1971; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 105
*** Looping through 5.2. Iter = 2271
iteration 2271; minNextMutationTime = 1970.25; timeNextPopSample = 1971; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 15
*** Looping through 5.2. Iter = 2272
iteration 2272; minNextMutationTime = 1970.3; timeNextPopSample = 1971; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 16
*** Looping through 5.2. Iter = 2273
iteration 2273; minNextMutationTime = 1970.38; timeNextPopSample = 1971; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 2339
*** Looping through 5.2. Iter = 2274
iteration 2274; minNextMutationTime = 1970.4; timeNextPopSample = 1971; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 2
*** Looping through 5.2. Iter = 2275
iteration 2275; minNextMutationTime = 1970.41; timeNextPopSample = 1971; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 17
*** Looping through 5.2. Iter = 2276
iteration 2276; minNextMutationTime = 1970.55; timeNextPopSample = 1971; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 3
*** Looping through 5.2. Iter = 2277
iteration 2277; minNextMutationTime = 1981; timeNextPopSample = 1971; popParams.size() = 9
We are SAMPLING at time 1971
*** Looping through 5.2. Iter = 2278
iteration 2278; minNextMutationTime = 1971; timeNextPopSample = 1972; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 107
*** Looping through 5.2. Iter = 2279
iteration 2279; minNextMutationTime = 1971.04; timeNextPopSample = 1972; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 212
*** Looping through 5.2. Iter = 2280
iteration 2280; minNextMutationTime = 1971.05; timeNextPopSample = 1972; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 5
*** Looping through 5.2. Iter = 2281
iteration 2281; minNextMutationTime = 1971.11; timeNextPopSample = 1972; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 76
*** Looping through 5.2. Iter = 2282
iteration 2282; minNextMutationTime = 1971.22; timeNextPopSample = 1972; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 77
*** Looping through 5.2. Iter = 2283
iteration 2283; minNextMutationTime = 1971.25; timeNextPopSample = 1972; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 18
*** Looping through 5.2. Iter = 2284
iteration 2284; minNextMutationTime = 1971.49; timeNextPopSample = 1972; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 78
*** Looping through 5.2. Iter = 2285
iteration 2285; minNextMutationTime = 1971.72; timeNextPopSample = 1972; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 107
*** Looping through 5.2. Iter = 2286
iteration 2286; minNextMutationTime = 1971.86; timeNextPopSample = 1972; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 233
*** Looping through 5.2. Iter = 2287
iteration 2287; minNextMutationTime = 1982; timeNextPopSample = 1972; popParams.size() = 9
We are SAMPLING at time 1972
*** Looping through 5.2. Iter = 2288
iteration 2288; minNextMutationTime = 1972.02; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 2673
*** Looping through 5.2. Iter = 2289
iteration 2289; minNextMutationTime = 1972.11; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 25
*** Looping through 5.2. Iter = 2290
iteration 2290; minNextMutationTime = 1972.12; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 26
*** Looping through 5.2. Iter = 2291
iteration 2291; minNextMutationTime = 1972.17; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 6
*** Looping through 5.2. Iter = 2292
iteration 2292; minNextMutationTime = 1972.2; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 114
*** Looping through 5.2. Iter = 2293
iteration 2293; minNextMutationTime = 1972.25; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 8
*** Looping through 5.2. Iter = 2294
iteration 2294; minNextMutationTime = 1972.42; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 9
*** Looping through 5.2. Iter = 2295
iteration 2295; minNextMutationTime = 1972.58; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 71
*** Looping through 5.2. Iter = 2296
iteration 2296; minNextMutationTime = 1972.66; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 251
*** Looping through 5.2. Iter = 2297
iteration 2297; minNextMutationTime = 1972.7; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 116
*** Looping through 5.2. Iter = 2298
iteration 2298; minNextMutationTime = 1972.73; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 118
*** Looping through 5.2. Iter = 2299
iteration 2299; minNextMutationTime = 1972.77; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 114
*** Looping through 5.2. Iter = 2300
iteration 2300; minNextMutationTime = 1972.83; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 70
*** Looping through 5.2. Iter = 2301
iteration 2301; minNextMutationTime = 1972.92; timeNextPopSample = 1973; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 121
*** Looping through 5.2. Iter = 2302
iteration 2302; minNextMutationTime = 1983; timeNextPopSample = 1973; popParams.size() = 9
We are SAMPLING at time 1973
*** Looping through 5.2. Iter = 2303
iteration 2303; minNextMutationTime = 1973; timeNextPopSample = 1974; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 2718
*** Looping through 5.2. Iter = 2304
iteration 2304; minNextMutationTime = 1973.12; timeNextPopSample = 1974; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 128
*** Looping through 5.2. Iter = 2305
iteration 2305; minNextMutationTime = 1973.15; timeNextPopSample = 1974; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 71
*** Looping through 5.2. Iter = 2306
iteration 2306; minNextMutationTime = 1973.18; timeNextPopSample = 1974; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 254
*** Looping through 5.2. Iter = 2307
iteration 2307; minNextMutationTime = 1973.3; timeNextPopSample = 1974; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 248
*** Looping through 5.2. Iter = 2308
iteration 2308; minNextMutationTime = 1973.43; timeNextPopSample = 1974; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 2801
*** Looping through 5.2. Iter = 2309
iteration 2309; minNextMutationTime = 1973.47; timeNextPopSample = 1974; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 8
*** Looping through 5.2. Iter = 2310
iteration 2310; minNextMutationTime = 1973.6; timeNextPopSample = 1974; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 31
*** Looping through 5.2. Iter = 2311
iteration 2311; minNextMutationTime = 1973.67; timeNextPopSample = 1974; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 2825
*** Looping through 5.2. Iter = 2312
iteration 2312; minNextMutationTime = 1973.8; timeNextPopSample = 1974; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 33
*** Looping through 5.2. Iter = 2313
iteration 2313; minNextMutationTime = 1973.86; timeNextPopSample = 1974; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 136
*** Looping through 5.2. Iter = 2314
iteration 2314; minNextMutationTime = 1984; timeNextPopSample = 1974; popParams.size() = 9
We are SAMPLING at time 1974
*** Looping through 5.2. Iter = 2315
iteration 2315; minNextMutationTime = 1974.01; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 11
*** Looping through 5.2. Iter = 2316
iteration 2316; minNextMutationTime = 1974.04; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 141
*** Looping through 5.2. Iter = 2317
iteration 2317; minNextMutationTime = 1974.05; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 12
*** Looping through 5.2. Iter = 2318
iteration 2318; minNextMutationTime = 1974.09; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 75
*** Looping through 5.2. Iter = 2319
iteration 2319; minNextMutationTime = 1974.24; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 35
*** Looping through 5.2. Iter = 2320
iteration 2320; minNextMutationTime = 1974.37; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 47
*** Looping through 5.2. Iter = 2321
iteration 2321; minNextMutationTime = 1974.44; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 260
*** Looping through 5.2. Iter = 2322
iteration 2322; minNextMutationTime = 1974.49; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 2985
*** Looping through 5.2. Iter = 2323
iteration 2323; minNextMutationTime = 1974.66; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 53
*** Looping through 5.2. Iter = 2324
iteration 2324; minNextMutationTime = 1974.69; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 262
*** Looping through 5.2. Iter = 2325
iteration 2325; minNextMutationTime = 1974.7; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 77
*** Looping through 5.2. Iter = 2326
iteration 2326; minNextMutationTime = 1974.72; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 13
*** Looping through 5.2. Iter = 2327
iteration 2327; minNextMutationTime = 1974.79; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 142
*** Looping through 5.2. Iter = 2328
iteration 2328; minNextMutationTime = 1974.87; timeNextPopSample = 1975; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 57
*** Looping through 5.2. Iter = 2329
iteration 2329; minNextMutationTime = 1985; timeNextPopSample = 1975; popParams.size() = 9
We are SAMPLING at time 1975
*** Looping through 5.2. Iter = 2330
iteration 2330; minNextMutationTime = 1975.12; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 142
*** Looping through 5.2. Iter = 2331
iteration 2331; minNextMutationTime = 1975.32; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 51
*** Looping through 5.2. Iter = 2332
iteration 2332; minNextMutationTime = 1975.37; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 15
*** Looping through 5.2. Iter = 2333
iteration 2333; minNextMutationTime = 1975.43; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 17
*** Looping through 5.2. Iter = 2334
iteration 2334; minNextMutationTime = 1975.48; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3109
*** Looping through 5.2. Iter = 2335
iteration 2335; minNextMutationTime = 1975.58; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 288
*** Looping through 5.2. Iter = 2336
iteration 2336; minNextMutationTime = 1975.64; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 84
*** Looping through 5.2. Iter = 2337
iteration 2337; minNextMutationTime = 1975.74; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 151
*** Looping through 5.2. Iter = 2338
iteration 2338; minNextMutationTime = 1975.77; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 148
*** Looping through 5.2. Iter = 2339
iteration 2339; minNextMutationTime = 1975.77; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3108
*** Looping through 5.2. Iter = 2340
iteration 2340; minNextMutationTime = 1975.78; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 290
*** Looping through 5.2. Iter = 2341
iteration 2341; minNextMutationTime = 1975.82; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 149
*** Looping through 5.2. Iter = 2342
iteration 2342; minNextMutationTime = 1975.9; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 153
*** Looping through 5.2. Iter = 2343
iteration 2343; minNextMutationTime = 1975.94; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3124
*** Looping through 5.2. Iter = 2344
iteration 2344; minNextMutationTime = 1975.94; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 18
*** Looping through 5.2. Iter = 2345
iteration 2345; minNextMutationTime = 1975.96; timeNextPopSample = 1976; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 291
*** Looping through 5.2. Iter = 2346
iteration 2346; minNextMutationTime = 1986; timeNextPopSample = 1976; popParams.size() = 9
We are SAMPLING at time 1976
*** Looping through 5.2. Iter = 2347
iteration 2347; minNextMutationTime = 1976.01; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3166
*** Looping through 5.2. Iter = 2348
iteration 2348; minNextMutationTime = 1976.06; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 159
*** Looping through 5.2. Iter = 2349
iteration 2349; minNextMutationTime = 1976.11; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 22
*** Looping through 5.2. Iter = 2350
iteration 2350; minNextMutationTime = 1976.19; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 300
*** Looping through 5.2. Iter = 2351
iteration 2351; minNextMutationTime = 1976.25; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 24
*** Looping through 5.2. Iter = 2352
iteration 2352; minNextMutationTime = 1976.31; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3190
*** Looping through 5.2. Iter = 2353
iteration 2353; minNextMutationTime = 1976.35; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 165
*** Looping through 5.2. Iter = 2354
iteration 2354; minNextMutationTime = 1976.37; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 52
*** Looping through 5.2. Iter = 2355
iteration 2355; minNextMutationTime = 1976.42; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 88
*** Looping through 5.2. Iter = 2356
iteration 2356; minNextMutationTime = 1976.47; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 25
*** Looping through 5.2. Iter = 2357
iteration 2357; minNextMutationTime = 1976.65; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3354
*** Looping through 5.2. Iter = 2358
iteration 2358; minNextMutationTime = 1976.68; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3383
*** Looping through 5.2. Iter = 2359
iteration 2359; minNextMutationTime = 1976.71; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 88
*** Looping through 5.2. Iter = 2360
iteration 2360; minNextMutationTime = 1976.72; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 54
*** Looping through 5.2. Iter = 2361
iteration 2361; minNextMutationTime = 1976.74; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 91
*** Looping through 5.2. Iter = 2362
iteration 2362; minNextMutationTime = 1976.75; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 164
*** Looping through 5.2. Iter = 2363
iteration 2363; minNextMutationTime = 1976.77; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3404
*** Looping through 5.2. Iter = 2364
iteration 2364; minNextMutationTime = 1976.86; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 25
*** Looping through 5.2. Iter = 2365
iteration 2365; minNextMutationTime = 1976.88; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 165
*** Looping through 5.2. Iter = 2366
iteration 2366; minNextMutationTime = 1976.96; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 53
*** Looping through 5.2. Iter = 2367
iteration 2367; minNextMutationTime = 1976.97; timeNextPopSample = 1977; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 95
*** Looping through 5.2. Iter = 2368
iteration 2368; minNextMutationTime = 1987; timeNextPopSample = 1977; popParams.size() = 9
We are SAMPLING at time 1977
*** Looping through 5.2. Iter = 2369
iteration 2369; minNextMutationTime = 1977.04; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 169
*** Looping through 5.2. Iter = 2370
iteration 2370; minNextMutationTime = 1977.05; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 30
*** Looping through 5.2. Iter = 2371
iteration 2371; minNextMutationTime = 1977.15; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 31
*** Looping through 5.2. Iter = 2372
iteration 2372; minNextMutationTime = 1977.26; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 33
*** Looping through 5.2. Iter = 2373
iteration 2373; minNextMutationTime = 1977.27; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 170
*** Looping through 5.2. Iter = 2374
iteration 2374; minNextMutationTime = 1977.29; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3455
*** Looping through 5.2. Iter = 2375
iteration 2375; minNextMutationTime = 1977.39; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3459
*** Looping through 5.2. Iter = 2376
iteration 2376; minNextMutationTime = 1977.51; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 162
*** Looping through 5.2. Iter = 2377
iteration 2377; minNextMutationTime = 1977.52; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3462
*** Looping through 5.2. Iter = 2378
iteration 2378; minNextMutationTime = 1977.52; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 55
*** Looping through 5.2. Iter = 2379
iteration 2379; minNextMutationTime = 1977.54; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 35
*** Looping through 5.2. Iter = 2380
iteration 2380; minNextMutationTime = 1977.55; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 95
*** Looping through 5.2. Iter = 2381
iteration 2381; minNextMutationTime = 1977.57; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 163
*** Looping through 5.2. Iter = 2382
iteration 2382; minNextMutationTime = 1977.61; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 97
*** Looping through 5.2. Iter = 2383
iteration 2383; minNextMutationTime = 1977.66; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 36
*** Looping through 5.2. Iter = 2384
iteration 2384; minNextMutationTime = 1977.73; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 56
*** Looping through 5.2. Iter = 2385
iteration 2385; minNextMutationTime = 1977.74; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 37
*** Looping through 5.2. Iter = 2386
iteration 2386; minNextMutationTime = 1977.74; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 98
*** Looping through 5.2. Iter = 2387
iteration 2387; minNextMutationTime = 1977.83; timeNextPopSample = 1978; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 40
*** Looping through 5.2. Iter = 2388
iteration 2388; minNextMutationTime = 1988; timeNextPopSample = 1978; popParams.size() = 9
We are SAMPLING at time 1978
*** Looping through 5.2. Iter = 2389
iteration 2389; minNextMutationTime = 1978.06; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 296
*** Looping through 5.2. Iter = 2390
iteration 2390; minNextMutationTime = 1978.09; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 301
*** Looping through 5.2. Iter = 2391
iteration 2391; minNextMutationTime = 1978.25; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 322
*** Looping through 5.2. Iter = 2392
iteration 2392; minNextMutationTime = 1978.36; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3583
*** Looping through 5.2. Iter = 2393
iteration 2393; minNextMutationTime = 1978.44; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 179
*** Looping through 5.2. Iter = 2394
iteration 2394; minNextMutationTime = 1978.47; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 105
*** Looping through 5.2. Iter = 2395
iteration 2395; minNextMutationTime = 1978.5; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 180
*** Looping through 5.2. Iter = 2396
iteration 2396; minNextMutationTime = 1978.53; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 185
*** Looping through 5.2. Iter = 2397
iteration 2397; minNextMutationTime = 1978.58; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 110
*** Looping through 5.2. Iter = 2398
iteration 2398; minNextMutationTime = 1978.62; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 109
*** Looping through 5.2. Iter = 2399
iteration 2399; minNextMutationTime = 1978.69; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3600
*** Looping through 5.2. Iter = 2400
iteration 2400; minNextMutationTime = 1978.69; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 319
*** Looping through 5.2. Iter = 2401
iteration 2401; minNextMutationTime = 1978.73; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 57
*** Looping through 5.2. Iter = 2402
iteration 2402; minNextMutationTime = 1978.75; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3605
*** Looping through 5.2. Iter = 2403
iteration 2403; minNextMutationTime = 1978.82; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 110
*** Looping through 5.2. Iter = 2404
iteration 2404; minNextMutationTime = 1978.86; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3638
*** Looping through 5.2. Iter = 2405
iteration 2405; minNextMutationTime = 1978.88; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 60
*** Looping through 5.2. Iter = 2406
iteration 2406; minNextMutationTime = 1978.89; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 62
*** Looping through 5.2. Iter = 2407
iteration 2407; minNextMutationTime = 1978.9; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 320
*** Looping through 5.2. Iter = 2408
iteration 2408; minNextMutationTime = 1978.91; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 111
*** Looping through 5.2. Iter = 2409
iteration 2409; minNextMutationTime = 1978.92; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 61
*** Looping through 5.2. Iter = 2410
iteration 2410; minNextMutationTime = 1978.93; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 188
*** Looping through 5.2. Iter = 2411
iteration 2411; minNextMutationTime = 1978.94; timeNextPopSample = 1979; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 61
*** Looping through 5.2. Iter = 2412
iteration 2412; minNextMutationTime = 1989; timeNextPopSample = 1979; popParams.size() = 9
We are SAMPLING at time 1979
*** Looping through 5.2. Iter = 2413
iteration 2413; minNextMutationTime = 1979.08; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 332
*** Looping through 5.2. Iter = 2414
iteration 2414; minNextMutationTime = 1979.13; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 114
*** Looping through 5.2. Iter = 2415
iteration 2415; minNextMutationTime = 1979.13; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 43
*** Looping through 5.2. Iter = 2416
iteration 2416; minNextMutationTime = 1979.15; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 114
*** Looping through 5.2. Iter = 2417
iteration 2417; minNextMutationTime = 1979.23; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 68
*** Looping through 5.2. Iter = 2418
iteration 2418; minNextMutationTime = 1979.25; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 198
*** Looping through 5.2. Iter = 2419
iteration 2419; minNextMutationTime = 1979.29; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 205
*** Looping through 5.2. Iter = 2420
iteration 2420; minNextMutationTime = 1979.33; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 338
*** Looping through 5.2. Iter = 2421
iteration 2421; minNextMutationTime = 1979.43; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 74
*** Looping through 5.2. Iter = 2422
iteration 2422; minNextMutationTime = 1979.43; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3695
*** Looping through 5.2. Iter = 2423
iteration 2423; minNextMutationTime = 1979.52; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 42
*** Looping through 5.2. Iter = 2424
iteration 2424; minNextMutationTime = 1979.55; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 342
*** Looping through 5.2. Iter = 2425
iteration 2425; minNextMutationTime = 1979.6; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 117
*** Looping through 5.2. Iter = 2426
iteration 2426; minNextMutationTime = 1979.63; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 211
*** Looping through 5.2. Iter = 2427
iteration 2427; minNextMutationTime = 1979.68; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 78
*** Looping through 5.2. Iter = 2428
iteration 2428; minNextMutationTime = 1979.78; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 215
*** Looping through 5.2. Iter = 2429
iteration 2429; minNextMutationTime = 1979.78; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 342
*** Looping through 5.2. Iter = 2430
iteration 2430; minNextMutationTime = 1979.83; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3751
*** Looping through 5.2. Iter = 2431
iteration 2431; minNextMutationTime = 1979.85; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 342
*** Looping through 5.2. Iter = 2432
iteration 2432; minNextMutationTime = 1979.87; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 44
*** Looping through 5.2. Iter = 2433
iteration 2433; minNextMutationTime = 1979.87; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 45
*** Looping through 5.2. Iter = 2434
iteration 2434; minNextMutationTime = 1979.89; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 48
*** Looping through 5.2. Iter = 2435
iteration 2435; minNextMutationTime = 1979.92; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 351
*** Looping through 5.2. Iter = 2436
iteration 2436; minNextMutationTime = 1979.95; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 51
*** Looping through 5.2. Iter = 2437
iteration 2437; minNextMutationTime = 1979.98; timeNextPopSample = 1980; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 353
*** Looping through 5.2. Iter = 2438
iteration 2438; minNextMutationTime = 1990; timeNextPopSample = 1980; popParams.size() = 9
We are SAMPLING at time 1980
*** Looping through 5.2. Iter = 2439
iteration 2439; minNextMutationTime = 1980.01; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3787
*** Looping through 5.2. Iter = 2440
iteration 2440; minNextMutationTime = 1980.04; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 354
*** Looping through 5.2. Iter = 2441
iteration 2441; minNextMutationTime = 1980.11; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 222
*** Looping through 5.2. Iter = 2442
iteration 2442; minNextMutationTime = 1980.17; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3856
*** Looping through 5.2. Iter = 2443
iteration 2443; minNextMutationTime = 1980.19; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 356
*** Looping through 5.2. Iter = 2444
iteration 2444; minNextMutationTime = 1980.27; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3925
*** Looping through 5.2. Iter = 2445
iteration 2445; minNextMutationTime = 1980.29; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 223
*** Looping through 5.2. Iter = 2446
iteration 2446; minNextMutationTime = 1980.34; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 3967
*** Looping through 5.2. Iter = 2447
iteration 2447; minNextMutationTime = 1980.43; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 117
*** Looping through 5.2. Iter = 2448
iteration 2448; minNextMutationTime = 1980.44; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 79
*** Looping through 5.2. Iter = 2449
iteration 2449; minNextMutationTime = 1980.5; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 370
*** Looping through 5.2. Iter = 2450
iteration 2450; minNextMutationTime = 1980.56; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4018
*** Looping through 5.2. Iter = 2451
iteration 2451; minNextMutationTime = 1980.57; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 225
*** Looping through 5.2. Iter = 2452
iteration 2452; minNextMutationTime = 1980.59; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 78
*** Looping through 5.2. Iter = 2453
iteration 2453; minNextMutationTime = 1980.61; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 117
*** Looping through 5.2. Iter = 2454
iteration 2454; minNextMutationTime = 1980.65; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 121
*** Looping through 5.2. Iter = 2455
iteration 2455; minNextMutationTime = 1980.7; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 219
*** Looping through 5.2. Iter = 2456
iteration 2456; minNextMutationTime = 1980.72; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4051
*** Looping through 5.2. Iter = 2457
iteration 2457; minNextMutationTime = 1980.73; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 122
*** Looping through 5.2. Iter = 2458
iteration 2458; minNextMutationTime = 1980.78; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 51
*** Looping through 5.2. Iter = 2459
iteration 2459; minNextMutationTime = 1980.81; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4094
*** Looping through 5.2. Iter = 2460
iteration 2460; minNextMutationTime = 1980.89; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 206
*** Looping through 5.2. Iter = 2461
iteration 2461; minNextMutationTime = 1980.92; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 375
*** Looping through 5.2. Iter = 2462
iteration 2462; minNextMutationTime = 1981; timeNextPopSample = 1981; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 204
*** Looping through 5.2. Iter = 2463
iteration 2463; minNextMutationTime = 1991; timeNextPopSample = 1981; popParams.size() = 9
We are SAMPLING at time 1981
*** Looping through 5.2. Iter = 2464
iteration 2464; minNextMutationTime = 1981.01; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 377
*** Looping through 5.2. Iter = 2465
iteration 2465; minNextMutationTime = 1981.03; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 378
*** Looping through 5.2. Iter = 2466
iteration 2466; minNextMutationTime = 1981.08; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 207
*** Looping through 5.2. Iter = 2467
iteration 2467; minNextMutationTime = 1981.11; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 53
*** Looping through 5.2. Iter = 2468
iteration 2468; minNextMutationTime = 1981.13; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 52
*** Looping through 5.2. Iter = 2469
iteration 2469; minNextMutationTime = 1981.34; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 348
*** Looping through 5.2. Iter = 2470
iteration 2470; minNextMutationTime = 1981.35; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 122
*** Looping through 5.2. Iter = 2471
iteration 2471; minNextMutationTime = 1981.35; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 123
*** Looping through 5.2. Iter = 2472
iteration 2472; minNextMutationTime = 1981.36; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 80
*** Looping through 5.2. Iter = 2473
iteration 2473; minNextMutationTime = 1981.39; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4146
*** Looping through 5.2. Iter = 2474
iteration 2474; minNextMutationTime = 1981.41; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 52
*** Looping through 5.2. Iter = 2475
iteration 2475; minNextMutationTime = 1981.41; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 353
*** Looping through 5.2. Iter = 2476
iteration 2476; minNextMutationTime = 1981.45; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 122
*** Looping through 5.2. Iter = 2477
iteration 2477; minNextMutationTime = 1981.45; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 124
*** Looping through 5.2. Iter = 2478
iteration 2478; minNextMutationTime = 1981.47; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 84
*** Looping through 5.2. Iter = 2479
iteration 2479; minNextMutationTime = 1981.52; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4180
*** Looping through 5.2. Iter = 2480
iteration 2480; minNextMutationTime = 1981.54; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4182
*** Looping through 5.2. Iter = 2481
iteration 2481; minNextMutationTime = 1981.61; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 361
*** Looping through 5.2. Iter = 2482
iteration 2482; minNextMutationTime = 1981.63; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4203
*** Looping through 5.2. Iter = 2483
iteration 2483; minNextMutationTime = 1981.68; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 51
*** Looping through 5.2. Iter = 2484
iteration 2484; minNextMutationTime = 1981.69; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 52
*** Looping through 5.2. Iter = 2485
iteration 2485; minNextMutationTime = 1981.7; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 212
*** Looping through 5.2. Iter = 2486
iteration 2486; minNextMutationTime = 1981.72; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 87
*** Looping through 5.2. Iter = 2487
iteration 2487; minNextMutationTime = 1981.75; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4226
*** Looping through 5.2. Iter = 2488
iteration 2488; minNextMutationTime = 1981.8; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 89
*** Looping through 5.2. Iter = 2489
iteration 2489; minNextMutationTime = 1981.87; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4281
*** Looping through 5.2. Iter = 2490
iteration 2490; minNextMutationTime = 1981.91; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 124
*** Looping through 5.2. Iter = 2491
iteration 2491; minNextMutationTime = 1981.93; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 125
*** Looping through 5.2. Iter = 2492
iteration 2492; minNextMutationTime = 1981.96; timeNextPopSample = 1982; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 219
*** Looping through 5.2. Iter = 2493
iteration 2493; minNextMutationTime = 1992; timeNextPopSample = 1982; popParams.size() = 9
We are SAMPLING at time 1982
*** Looping through 5.2. Iter = 2494
iteration 2494; minNextMutationTime = 1982; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 128
*** Looping through 5.2. Iter = 2495
iteration 2495; minNextMutationTime = 1982.02; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 127
*** Looping through 5.2. Iter = 2496
iteration 2496; minNextMutationTime = 1982.11; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 48
*** Looping through 5.2. Iter = 2497
iteration 2497; minNextMutationTime = 1982.11; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 361
*** Looping through 5.2. Iter = 2498
iteration 2498; minNextMutationTime = 1982.13; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 91
*** Looping through 5.2. Iter = 2499
iteration 2499; minNextMutationTime = 1982.18; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 367
*** Looping through 5.2. Iter = 2500
iteration 2500; minNextMutationTime = 1982.18; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 225
*** Looping through 5.2. Iter = 2501
iteration 2501; minNextMutationTime = 1982.22; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 92
*** Looping through 5.2. Iter = 2502
iteration 2502; minNextMutationTime = 1982.23; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 129
*** Looping through 5.2. Iter = 2503
iteration 2503; minNextMutationTime = 1982.24; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4326
*** Looping through 5.2. Iter = 2504
iteration 2504; minNextMutationTime = 1982.28; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 222
*** Looping through 5.2. Iter = 2505
iteration 2505; minNextMutationTime = 1982.29; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4337
*** Looping through 5.2. Iter = 2506
iteration 2506; minNextMutationTime = 1982.31; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 129
*** Looping through 5.2. Iter = 2507
iteration 2507; minNextMutationTime = 1982.32; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 129
*** Looping through 5.2. Iter = 2508
iteration 2508; minNextMutationTime = 1982.32; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 224
*** Looping through 5.2. Iter = 2509
iteration 2509; minNextMutationTime = 1982.36; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 88
*** Looping through 5.2. Iter = 2510
iteration 2510; minNextMutationTime = 1982.36; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 89
*** Looping through 5.2. Iter = 2511
iteration 2511; minNextMutationTime = 1982.4; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 232
*** Looping through 5.2. Iter = 2512
iteration 2512; minNextMutationTime = 1982.47; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 48
*** Looping through 5.2. Iter = 2513
iteration 2513; minNextMutationTime = 1982.47; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 369
*** Looping through 5.2. Iter = 2514
iteration 2514; minNextMutationTime = 1982.48; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 232
*** Looping through 5.2. Iter = 2515
iteration 2515; minNextMutationTime = 1982.5; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 91
*** Looping through 5.2. Iter = 2516
iteration 2516; minNextMutationTime = 1982.54; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 49
*** Looping through 5.2. Iter = 2517
iteration 2517; minNextMutationTime = 1982.57; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 52
*** Looping through 5.2. Iter = 2518
iteration 2518; minNextMutationTime = 1982.58; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 233
*** Looping through 5.2. Iter = 2519
iteration 2519; minNextMutationTime = 1982.59; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 237
*** Looping through 5.2. Iter = 2520
iteration 2520; minNextMutationTime = 1982.61; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 237
*** Looping through 5.2. Iter = 2521
iteration 2521; minNextMutationTime = 1982.64; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 235
*** Looping through 5.2. Iter = 2522
iteration 2522; minNextMutationTime = 1982.64; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 129
*** Looping through 5.2. Iter = 2523
iteration 2523; minNextMutationTime = 1982.65; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 128
*** Looping through 5.2. Iter = 2524
iteration 2524; minNextMutationTime = 1982.71; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4374
*** Looping through 5.2. Iter = 2525
iteration 2525; minNextMutationTime = 1982.73; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 53
*** Looping through 5.2. Iter = 2526
iteration 2526; minNextMutationTime = 1982.76; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 130
*** Looping through 5.2. Iter = 2527
iteration 2527; minNextMutationTime = 1982.77; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 55
*** Looping through 5.2. Iter = 2528
iteration 2528; minNextMutationTime = 1982.8; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 234
*** Looping through 5.2. Iter = 2529
iteration 2529; minNextMutationTime = 1982.81; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 91
*** Looping through 5.2. Iter = 2530
iteration 2530; minNextMutationTime = 1982.82; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4388
*** Looping through 5.2. Iter = 2531
iteration 2531; minNextMutationTime = 1982.93; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 84
*** Looping through 5.2. Iter = 2532
iteration 2532; minNextMutationTime = 1982.97; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 132
*** Looping through 5.2. Iter = 2533
iteration 2533; minNextMutationTime = 1982.99; timeNextPopSample = 1983; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 83
*** Looping through 5.2. Iter = 2534
iteration 2534; minNextMutationTime = 1993; timeNextPopSample = 1983; popParams.size() = 9
We are SAMPLING at time 1983
*** Looping through 5.2. Iter = 2535
iteration 2535; minNextMutationTime = 1983.04; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 384
*** Looping through 5.2. Iter = 2536
iteration 2536; minNextMutationTime = 1983.08; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 242
*** Looping through 5.2. Iter = 2537
iteration 2537; minNextMutationTime = 1983.14; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4443
*** Looping through 5.2. Iter = 2538
iteration 2538; minNextMutationTime = 1983.17; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 242
*** Looping through 5.2. Iter = 2539
iteration 2539; minNextMutationTime = 1983.17; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4447
*** Looping through 5.2. Iter = 2540
iteration 2540; minNextMutationTime = 1983.29; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 80
*** Looping through 5.2. Iter = 2541
iteration 2541; minNextMutationTime = 1983.33; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 139
*** Looping through 5.2. Iter = 2542
iteration 2542; minNextMutationTime = 1983.39; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4522
*** Looping through 5.2. Iter = 2543
iteration 2543; minNextMutationTime = 1983.4; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4535
*** Looping through 5.2. Iter = 2544
iteration 2544; minNextMutationTime = 1983.43; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 83
*** Looping through 5.2. Iter = 2545
iteration 2545; minNextMutationTime = 1983.44; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 141
*** Looping through 5.2. Iter = 2546
iteration 2546; minNextMutationTime = 1983.5; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 58
*** Looping through 5.2. Iter = 2547
iteration 2547; minNextMutationTime = 1983.52; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4562
*** Looping through 5.2. Iter = 2548
iteration 2548; minNextMutationTime = 1983.53; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4564
*** Looping through 5.2. Iter = 2549
iteration 2549; minNextMutationTime = 1983.57; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 251
*** Looping through 5.2. Iter = 2550
iteration 2550; minNextMutationTime = 1983.73; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 64
*** Looping through 5.2. Iter = 2551
iteration 2551; minNextMutationTime = 1983.73; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 385
*** Looping through 5.2. Iter = 2552
iteration 2552; minNextMutationTime = 1983.78; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 257
*** Looping through 5.2. Iter = 2553
iteration 2553; minNextMutationTime = 1983.86; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4649
*** Looping through 5.2. Iter = 2554
iteration 2554; minNextMutationTime = 1983.88; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 63
*** Looping through 5.2. Iter = 2555
iteration 2555; minNextMutationTime = 1983.89; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 63
*** Looping through 5.2. Iter = 2556
iteration 2556; minNextMutationTime = 1983.91; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 86
*** Looping through 5.2. Iter = 2557
iteration 2557; minNextMutationTime = 1983.91; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 142
*** Looping through 5.2. Iter = 2558
iteration 2558; minNextMutationTime = 1983.92; timeNextPopSample = 1984; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 88
*** Looping through 5.2. Iter = 2559
iteration 2559; minNextMutationTime = 1994; timeNextPopSample = 1984; popParams.size() = 9
We are SAMPLING at time 1984
*** Looping through 5.2. Iter = 2560
iteration 2560; minNextMutationTime = 1984.01; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4782
*** Looping through 5.2. Iter = 2561
iteration 2561; minNextMutationTime = 1984.02; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 266
*** Looping through 5.2. Iter = 2562
iteration 2562; minNextMutationTime = 1984.04; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 399
*** Looping through 5.2. Iter = 2563
iteration 2563; minNextMutationTime = 1984.07; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 94
*** Looping through 5.2. Iter = 2564
iteration 2564; minNextMutationTime = 1984.1; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 271
*** Looping through 5.2. Iter = 2565
iteration 2565; minNextMutationTime = 1984.11; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 267
*** Looping through 5.2. Iter = 2566
iteration 2566; minNextMutationTime = 1984.13; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 265
*** Looping through 5.2. Iter = 2567
iteration 2567; minNextMutationTime = 1984.13; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 65
*** Looping through 5.2. Iter = 2568
iteration 2568; minNextMutationTime = 1984.16; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 97
*** Looping through 5.2. Iter = 2569
iteration 2569; minNextMutationTime = 1984.17; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4772
*** Looping through 5.2. Iter = 2570
iteration 2570; minNextMutationTime = 1984.17; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 98
*** Looping through 5.2. Iter = 2571
iteration 2571; minNextMutationTime = 1984.19; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 65
*** Looping through 5.2. Iter = 2572
iteration 2572; minNextMutationTime = 1984.2; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 145
*** Looping through 5.2. Iter = 2573
iteration 2573; minNextMutationTime = 1984.21; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 401
*** Looping through 5.2. Iter = 2574
iteration 2574; minNextMutationTime = 1984.23; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 98
*** Looping through 5.2. Iter = 2575
iteration 2575; minNextMutationTime = 1984.25; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 144
*** Looping through 5.2. Iter = 2576
iteration 2576; minNextMutationTime = 1984.27; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 67
*** Looping through 5.2. Iter = 2577
iteration 2577; minNextMutationTime = 1984.27; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 68
*** Looping through 5.2. Iter = 2578
iteration 2578; minNextMutationTime = 1984.27; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 145
*** Looping through 5.2. Iter = 2579
iteration 2579; minNextMutationTime = 1984.29; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 100
*** Looping through 5.2. Iter = 2580
iteration 2580; minNextMutationTime = 1984.38; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4825
*** Looping through 5.2. Iter = 2581
iteration 2581; minNextMutationTime = 1984.39; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 146
*** Looping through 5.2. Iter = 2582
iteration 2582; minNextMutationTime = 1984.42; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 146
*** Looping through 5.2. Iter = 2583
iteration 2583; minNextMutationTime = 1984.48; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 406
*** Looping through 5.2. Iter = 2584
iteration 2584; minNextMutationTime = 1984.51; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 404
*** Looping through 5.2. Iter = 2585
iteration 2585; minNextMutationTime = 1984.58; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 102
*** Looping through 5.2. Iter = 2586
iteration 2586; minNextMutationTime = 1984.6; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 68
*** Looping through 5.2. Iter = 2587
iteration 2587; minNextMutationTime = 1984.62; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 68
*** Looping through 5.2. Iter = 2588
iteration 2588; minNextMutationTime = 1984.62; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 266
*** Looping through 5.2. Iter = 2589
iteration 2589; minNextMutationTime = 1984.64; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 69
*** Looping through 5.2. Iter = 2590
iteration 2590; minNextMutationTime = 1984.64; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 70
*** Looping through 5.2. Iter = 2591
iteration 2591; minNextMutationTime = 1984.65; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 103
*** Looping through 5.2. Iter = 2592
iteration 2592; minNextMutationTime = 1984.66; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 73
*** Looping through 5.2. Iter = 2593
iteration 2593; minNextMutationTime = 1984.67; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 75
*** Looping through 5.2. Iter = 2594
iteration 2594; minNextMutationTime = 1984.69; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 74
*** Looping through 5.2. Iter = 2595
iteration 2595; minNextMutationTime = 1984.7; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 397
*** Looping through 5.2. Iter = 2596
iteration 2596; minNextMutationTime = 1984.71; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 268
*** Looping through 5.2. Iter = 2597
iteration 2597; minNextMutationTime = 1984.72; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 103
*** Looping through 5.2. Iter = 2598
iteration 2598; minNextMutationTime = 1984.76; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 72
*** Looping through 5.2. Iter = 2599
iteration 2599; minNextMutationTime = 1984.78; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 106
*** Looping through 5.2. Iter = 2600
iteration 2600; minNextMutationTime = 1984.78; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 397
*** Looping through 5.2. Iter = 2601
iteration 2601; minNextMutationTime = 1984.81; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 397
*** Looping through 5.2. Iter = 2602
iteration 2602; minNextMutationTime = 1984.81; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 108
*** Looping through 5.2. Iter = 2603
iteration 2603; minNextMutationTime = 1984.81; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 146
*** Looping through 5.2. Iter = 2604
iteration 2604; minNextMutationTime = 1984.82; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 72
*** Looping through 5.2. Iter = 2605
iteration 2605; minNextMutationTime = 1984.82; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 74
*** Looping through 5.2. Iter = 2606
iteration 2606; minNextMutationTime = 1984.84; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 268
*** Looping through 5.2. Iter = 2607
iteration 2607; minNextMutationTime = 1984.84; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 109
*** Looping through 5.2. Iter = 2608
iteration 2608; minNextMutationTime = 1984.86; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 114
*** Looping through 5.2. Iter = 2609
iteration 2609; minNextMutationTime = 1984.88; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 401
*** Looping through 5.2. Iter = 2610
iteration 2610; minNextMutationTime = 1984.89; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 75
*** Looping through 5.2. Iter = 2611
iteration 2611; minNextMutationTime = 1984.89; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 402
*** Looping through 5.2. Iter = 2612
iteration 2612; minNextMutationTime = 1984.9; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 115
*** Looping through 5.2. Iter = 2613
iteration 2613; minNextMutationTime = 1984.91; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 118
*** Looping through 5.2. Iter = 2614
iteration 2614; minNextMutationTime = 1984.92; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 269
*** Looping through 5.2. Iter = 2615
iteration 2615; minNextMutationTime = 1984.92; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 148
*** Looping through 5.2. Iter = 2616
iteration 2616; minNextMutationTime = 1984.97; timeNextPopSample = 1985; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4844
*** Looping through 5.2. Iter = 2617
iteration 2617; minNextMutationTime = 1995; timeNextPopSample = 1985; popParams.size() = 9
We are SAMPLING at time 1985
*** Looping through 5.2. Iter = 2618
iteration 2618; minNextMutationTime = 1985; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 144
*** Looping through 5.2. Iter = 2619
iteration 2619; minNextMutationTime = 1985.04; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4882
*** Looping through 5.2. Iter = 2620
iteration 2620; minNextMutationTime = 1985.08; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 152
*** Looping through 5.2. Iter = 2621
iteration 2621; minNextMutationTime = 1985.15; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 282
*** Looping through 5.2. Iter = 2622
iteration 2622; minNextMutationTime = 1985.17; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 115
*** Looping through 5.2. Iter = 2623
iteration 2623; minNextMutationTime = 1985.22; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4967
*** Looping through 5.2. Iter = 2624
iteration 2624; minNextMutationTime = 1985.23; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 78
*** Looping through 5.2. Iter = 2625
iteration 2625; minNextMutationTime = 1985.25; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 81
*** Looping through 5.2. Iter = 2626
iteration 2626; minNextMutationTime = 1985.26; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 284
*** Looping through 5.2. Iter = 2627
iteration 2627; minNextMutationTime = 1985.27; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 285
*** Looping through 5.2. Iter = 2628
iteration 2628; minNextMutationTime = 1985.28; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 157
*** Looping through 5.2. Iter = 2629
iteration 2629; minNextMutationTime = 1985.28; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 82
*** Looping through 5.2. Iter = 2630
iteration 2630; minNextMutationTime = 1985.3; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 156
*** Looping through 5.2. Iter = 2631
iteration 2631; minNextMutationTime = 1985.3; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 83
*** Looping through 5.2. Iter = 2632
iteration 2632; minNextMutationTime = 1985.32; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 114
*** Looping through 5.2. Iter = 2633
iteration 2633; minNextMutationTime = 1985.41; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 290
*** Looping through 5.2. Iter = 2634
iteration 2634; minNextMutationTime = 1985.43; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 116
*** Looping through 5.2. Iter = 2635
iteration 2635; minNextMutationTime = 1985.44; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4968
*** Looping through 5.2. Iter = 2636
iteration 2636; minNextMutationTime = 1985.61; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 77
*** Looping through 5.2. Iter = 2637
iteration 2637; minNextMutationTime = 1985.66; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 294
*** Looping through 5.2. Iter = 2638
iteration 2638; minNextMutationTime = 1985.67; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 297
*** Looping through 5.2. Iter = 2639
iteration 2639; minNextMutationTime = 1985.69; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 116
*** Looping through 5.2. Iter = 2640
iteration 2640; minNextMutationTime = 1985.69; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4970
*** Looping through 5.2. Iter = 2641
iteration 2641; minNextMutationTime = 1985.73; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 412
*** Looping through 5.2. Iter = 2642
iteration 2642; minNextMutationTime = 1985.79; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 293
*** Looping through 5.2. Iter = 2643
iteration 2643; minNextMutationTime = 1985.82; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 293
*** Looping through 5.2. Iter = 2644
iteration 2644; minNextMutationTime = 1985.84; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 121
*** Looping through 5.2. Iter = 2645
iteration 2645; minNextMutationTime = 1985.84; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 413
*** Looping through 5.2. Iter = 2646
iteration 2646; minNextMutationTime = 1985.85; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 156
*** Looping through 5.2. Iter = 2647
iteration 2647; minNextMutationTime = 1985.88; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 118
*** Looping through 5.2. Iter = 2648
iteration 2648; minNextMutationTime = 1985.93; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 4986
*** Looping through 5.2. Iter = 2649
iteration 2649; minNextMutationTime = 1985.96; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 122
*** Looping through 5.2. Iter = 2650
iteration 2650; minNextMutationTime = 1985.98; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 158
*** Looping through 5.2. Iter = 2651
iteration 2651; minNextMutationTime = 1985.99; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 413
*** Looping through 5.2. Iter = 2652
iteration 2652; minNextMutationTime = 1985.99; timeNextPopSample = 1986; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 78
*** Looping through 5.2. Iter = 2653
iteration 2653; minNextMutationTime = 1996; timeNextPopSample = 1986; popParams.size() = 9
We are SAMPLING at time 1986
*** Looping through 5.2. Iter = 2654
iteration 2654; minNextMutationTime = 1986.02; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 418
*** Looping through 5.2. Iter = 2655
iteration 2655; minNextMutationTime = 1986.06; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 121
*** Looping through 5.2. Iter = 2656
iteration 2656; minNextMutationTime = 1986.06; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 296
*** Looping through 5.2. Iter = 2657
iteration 2657; minNextMutationTime = 1986.07; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 80
*** Looping through 5.2. Iter = 2658
iteration 2658; minNextMutationTime = 1986.08; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 80
*** Looping through 5.2. Iter = 2659
iteration 2659; minNextMutationTime = 1986.1; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 85
*** Looping through 5.2. Iter = 2660
iteration 2660; minNextMutationTime = 1986.13; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 123
*** Looping through 5.2. Iter = 2661
iteration 2661; minNextMutationTime = 1986.14; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 297
*** Looping through 5.2. Iter = 2662
iteration 2662; minNextMutationTime = 1986.15; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5014
*** Looping through 5.2. Iter = 2663
iteration 2663; minNextMutationTime = 1986.16; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 125
*** Looping through 5.2. Iter = 2664
iteration 2664; minNextMutationTime = 1986.16; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 86
*** Looping through 5.2. Iter = 2665
iteration 2665; minNextMutationTime = 1986.17; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 298
*** Looping through 5.2. Iter = 2666
iteration 2666; minNextMutationTime = 1986.18; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 421
*** Looping through 5.2. Iter = 2667
iteration 2667; minNextMutationTime = 1986.2; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5043
*** Looping through 5.2. Iter = 2668
iteration 2668; minNextMutationTime = 1986.22; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 157
*** Looping through 5.2. Iter = 2669
iteration 2669; minNextMutationTime = 1986.28; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 84
*** Looping through 5.2. Iter = 2670
iteration 2670; minNextMutationTime = 1986.29; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 418
*** Looping through 5.2. Iter = 2671
iteration 2671; minNextMutationTime = 1986.29; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5044
*** Looping through 5.2. Iter = 2672
iteration 2672; minNextMutationTime = 1986.29; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5047
*** Looping through 5.2. Iter = 2673
iteration 2673; minNextMutationTime = 1986.3; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 420
*** Looping through 5.2. Iter = 2674
iteration 2674; minNextMutationTime = 1986.31; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 159
*** Looping through 5.2. Iter = 2675
iteration 2675; minNextMutationTime = 1986.31; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 85
*** Looping through 5.2. Iter = 2676
iteration 2676; minNextMutationTime = 1986.34; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 87
*** Looping through 5.2. Iter = 2677
iteration 2677; minNextMutationTime = 1986.37; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 91
*** Looping through 5.2. Iter = 2678
iteration 2678; minNextMutationTime = 1986.39; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 96
*** Looping through 5.2. Iter = 2679
iteration 2679; minNextMutationTime = 1986.41; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 127
*** Looping through 5.2. Iter = 2680
iteration 2680; minNextMutationTime = 1986.45; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 127
*** Looping through 5.2. Iter = 2681
iteration 2681; minNextMutationTime = 1986.46; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 160
*** Looping through 5.2. Iter = 2682
iteration 2682; minNextMutationTime = 1986.54; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 160
*** Looping through 5.2. Iter = 2683
iteration 2683; minNextMutationTime = 1986.56; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 98
*** Looping through 5.2. Iter = 2684
iteration 2684; minNextMutationTime = 1986.57; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 159
*** Looping through 5.2. Iter = 2685
iteration 2685; minNextMutationTime = 1986.59; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 128
*** Looping through 5.2. Iter = 2686
iteration 2686; minNextMutationTime = 1986.6; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5061
*** Looping through 5.2. Iter = 2687
iteration 2687; minNextMutationTime = 1986.63; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 98
*** Looping through 5.2. Iter = 2688
iteration 2688; minNextMutationTime = 1986.66; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5113
*** Looping through 5.2. Iter = 2689
iteration 2689; minNextMutationTime = 1986.67; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 430
*** Looping through 5.2. Iter = 2690
iteration 2690; minNextMutationTime = 1986.68; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 435
*** Looping through 5.2. Iter = 2691
iteration 2691; minNextMutationTime = 1986.71; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 434
*** Looping through 5.2. Iter = 2692
iteration 2692; minNextMutationTime = 1986.73; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5116
*** Looping through 5.2. Iter = 2693
iteration 2693; minNextMutationTime = 1986.74; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 437
*** Looping through 5.2. Iter = 2694
iteration 2694; minNextMutationTime = 1986.74; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 297
*** Looping through 5.2. Iter = 2695
iteration 2695; minNextMutationTime = 1986.82; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 458
*** Looping through 5.2. Iter = 2696
iteration 2696; minNextMutationTime = 1986.84; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 96
*** Looping through 5.2. Iter = 2697
iteration 2697; minNextMutationTime = 1986.86; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 131
*** Looping through 5.2. Iter = 2698
iteration 2698; minNextMutationTime = 1986.9; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5195
*** Looping through 5.2. Iter = 2699
iteration 2699; minNextMutationTime = 1986.91; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 299
*** Looping through 5.2. Iter = 2700
iteration 2700; minNextMutationTime = 1986.92; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5190
*** Looping through 5.2. Iter = 2701
iteration 2701; minNextMutationTime = 1986.92; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 301
*** Looping through 5.2. Iter = 2702
iteration 2702; minNextMutationTime = 1986.95; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 132
*** Looping through 5.2. Iter = 2703
iteration 2703; minNextMutationTime = 1986.95; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 133
*** Looping through 5.2. Iter = 2704
iteration 2704; minNextMutationTime = 1986.95; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 302
*** Looping through 5.2. Iter = 2705
iteration 2705; minNextMutationTime = 1986.95; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 459
*** Looping through 5.2. Iter = 2706
iteration 2706; minNextMutationTime = 1986.95; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 460
*** Looping through 5.2. Iter = 2707
iteration 2707; minNextMutationTime = 1986.96; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 135
*** Looping through 5.2. Iter = 2708
iteration 2708; minNextMutationTime = 1986.98; timeNextPopSample = 1987; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 98
*** Looping through 5.2. Iter = 2709
iteration 2709; minNextMutationTime = 1997; timeNextPopSample = 1987; popParams.size() = 9
We are SAMPLING at time 1987
*** Looping through 5.2. Iter = 2710
iteration 2710; minNextMutationTime = 1987; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 309
*** Looping through 5.2. Iter = 2711
iteration 2711; minNextMutationTime = 1987.03; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 102
*** Looping through 5.2. Iter = 2712
iteration 2712; minNextMutationTime = 1987.04; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 309
*** Looping through 5.2. Iter = 2713
iteration 2713; minNextMutationTime = 1987.04; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 134
*** Looping through 5.2. Iter = 2714
iteration 2714; minNextMutationTime = 1987.04; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 135
*** Looping through 5.2. Iter = 2715
iteration 2715; minNextMutationTime = 1987.08; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 160
*** Looping through 5.2. Iter = 2716
iteration 2716; minNextMutationTime = 1987.09; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 468
*** Looping through 5.2. Iter = 2717
iteration 2717; minNextMutationTime = 1987.13; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 101
*** Looping through 5.2. Iter = 2718
iteration 2718; minNextMutationTime = 1987.13; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 310
*** Looping through 5.2. Iter = 2719
iteration 2719; minNextMutationTime = 1987.16; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 167
*** Looping through 5.2. Iter = 2720
iteration 2720; minNextMutationTime = 1987.19; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 466
*** Looping through 5.2. Iter = 2721
iteration 2721; minNextMutationTime = 1987.19; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 310
*** Looping through 5.2. Iter = 2722
iteration 2722; minNextMutationTime = 1987.21; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5293
*** Looping through 5.2. Iter = 2723
iteration 2723; minNextMutationTime = 1987.23; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 139
*** Looping through 5.2. Iter = 2724
iteration 2724; minNextMutationTime = 1987.3; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 172
*** Looping through 5.2. Iter = 2725
iteration 2725; minNextMutationTime = 1987.31; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5317
*** Looping through 5.2. Iter = 2726
iteration 2726; minNextMutationTime = 1987.34; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 145
*** Looping through 5.2. Iter = 2727
iteration 2727; minNextMutationTime = 1987.35; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 312
*** Looping through 5.2. Iter = 2728
iteration 2728; minNextMutationTime = 1987.38; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 466
*** Looping through 5.2. Iter = 2729
iteration 2729; minNextMutationTime = 1987.39; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 145
*** Looping through 5.2. Iter = 2730
iteration 2730; minNextMutationTime = 1987.4; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 104
*** Looping through 5.2. Iter = 2731
iteration 2731; minNextMutationTime = 1987.42; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 317
*** Looping through 5.2. Iter = 2732
iteration 2732; minNextMutationTime = 1987.44; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 172
*** Looping through 5.2. Iter = 2733
iteration 2733; minNextMutationTime = 1987.44; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5322
*** Looping through 5.2. Iter = 2734
iteration 2734; minNextMutationTime = 1987.47; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 171
*** Looping through 5.2. Iter = 2735
iteration 2735; minNextMutationTime = 1987.49; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5360
*** Looping through 5.2. Iter = 2736
iteration 2736; minNextMutationTime = 1987.5; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5373
*** Looping through 5.2. Iter = 2737
iteration 2737; minNextMutationTime = 1987.51; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 105
*** Looping through 5.2. Iter = 2738
iteration 2738; minNextMutationTime = 1987.51; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 318
*** Looping through 5.2. Iter = 2739
iteration 2739; minNextMutationTime = 1987.56; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 147
*** Looping through 5.2. Iter = 2740
iteration 2740; minNextMutationTime = 1987.58; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 104
*** Looping through 5.2. Iter = 2741
iteration 2741; minNextMutationTime = 1987.6; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 465
*** Looping through 5.2. Iter = 2742
iteration 2742; minNextMutationTime = 1987.63; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 110
*** Looping through 5.2. Iter = 2743
iteration 2743; minNextMutationTime = 1987.64; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5393
*** Looping through 5.2. Iter = 2744
iteration 2744; minNextMutationTime = 1987.67; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 146
*** Looping through 5.2. Iter = 2745
iteration 2745; minNextMutationTime = 1987.68; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 470
*** Looping through 5.2. Iter = 2746
iteration 2746; minNextMutationTime = 1987.69; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 470
*** Looping through 5.2. Iter = 2747
iteration 2747; minNextMutationTime = 1987.71; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 467
*** Looping through 5.2. Iter = 2748
iteration 2748; minNextMutationTime = 1987.71; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5394
*** Looping through 5.2. Iter = 2749
iteration 2749; minNextMutationTime = 1987.74; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 459
*** Looping through 5.2. Iter = 2750
iteration 2750; minNextMutationTime = 1987.74; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 147
*** Looping through 5.2. Iter = 2751
iteration 2751; minNextMutationTime = 1987.74; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 111
*** Looping through 5.2. Iter = 2752
iteration 2752; minNextMutationTime = 1987.74; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 460
*** Looping through 5.2. Iter = 2753
iteration 2753; minNextMutationTime = 1987.75; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 149
*** Looping through 5.2. Iter = 2754
iteration 2754; minNextMutationTime = 1987.76; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 464
*** Looping through 5.2. Iter = 2755
iteration 2755; minNextMutationTime = 1987.76; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 112
*** Looping through 5.2. Iter = 2756
iteration 2756; minNextMutationTime = 1987.76; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 150
*** Looping through 5.2. Iter = 2757
iteration 2757; minNextMutationTime = 1987.79; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 173
*** Looping through 5.2. Iter = 2758
iteration 2758; minNextMutationTime = 1987.8; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 152
*** Looping through 5.2. Iter = 2759
iteration 2759; minNextMutationTime = 1987.81; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 467
*** Looping through 5.2. Iter = 2760
iteration 2760; minNextMutationTime = 1987.81; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5393
*** Looping through 5.2. Iter = 2761
iteration 2761; minNextMutationTime = 1987.82; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 317
*** Looping through 5.2. Iter = 2762
iteration 2762; minNextMutationTime = 1987.84; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5415
*** Looping through 5.2. Iter = 2763
iteration 2763; minNextMutationTime = 1987.85; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 113
*** Looping through 5.2. Iter = 2764
iteration 2764; minNextMutationTime = 1987.89; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5445
*** Looping through 5.2. Iter = 2765
iteration 2765; minNextMutationTime = 1987.9; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 149
*** Looping through 5.2. Iter = 2766
iteration 2766; minNextMutationTime = 1987.93; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 175
*** Looping through 5.2. Iter = 2767
iteration 2767; minNextMutationTime = 1987.93; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 114
*** Looping through 5.2. Iter = 2768
iteration 2768; minNextMutationTime = 1987.93; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 176
*** Looping through 5.2. Iter = 2769
iteration 2769; minNextMutationTime = 1987.95; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 148
*** Looping through 5.2. Iter = 2770
iteration 2770; minNextMutationTime = 1987.95; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5446
*** Looping through 5.2. Iter = 2771
iteration 2771; minNextMutationTime = 1987.98; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 115
*** Looping through 5.2. Iter = 2772
iteration 2772; minNextMutationTime = 1987.99; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 470
*** Looping through 5.2. Iter = 2773
iteration 2773; minNextMutationTime = 1988; timeNextPopSample = 1988; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 149
*** Looping through 5.2. Iter = 2774
iteration 2774; minNextMutationTime = 1998; timeNextPopSample = 1988; popParams.size() = 9
We are SAMPLING at time 1988
*** Looping through 5.2. Iter = 2775
iteration 2775; minNextMutationTime = 1988; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 114
*** Looping through 5.2. Iter = 2776
iteration 2776; minNextMutationTime = 1988; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5450
*** Looping through 5.2. Iter = 2777
iteration 2777; minNextMutationTime = 1988.02; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 475
*** Looping through 5.2. Iter = 2778
iteration 2778; minNextMutationTime = 1988.04; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 179
*** Looping through 5.2. Iter = 2779
iteration 2779; minNextMutationTime = 1988.04; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 474
*** Looping through 5.2. Iter = 2780
iteration 2780; minNextMutationTime = 1988.06; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 313
*** Looping through 5.2. Iter = 2781
iteration 2781; minNextMutationTime = 1988.06; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 115
*** Looping through 5.2. Iter = 2782
iteration 2782; minNextMutationTime = 1988.07; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 315
*** Looping through 5.2. Iter = 2783
iteration 2783; minNextMutationTime = 1988.08; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 149
*** Looping through 5.2. Iter = 2784
iteration 2784; minNextMutationTime = 1988.09; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 114
*** Looping through 5.2. Iter = 2785
iteration 2785; minNextMutationTime = 1988.1; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 114
*** Looping through 5.2. Iter = 2786
iteration 2786; minNextMutationTime = 1988.12; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5464
*** Looping through 5.2. Iter = 2787
iteration 2787; minNextMutationTime = 1988.14; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 153
*** Looping through 5.2. Iter = 2788
iteration 2788; minNextMutationTime = 1988.14; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 154
*** Looping through 5.2. Iter = 2789
iteration 2789; minNextMutationTime = 1988.18; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5478
*** Looping through 5.2. Iter = 2790
iteration 2790; minNextMutationTime = 1988.2; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 114
*** Looping through 5.2. Iter = 2791
iteration 2791; minNextMutationTime = 1988.22; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 156
*** Looping through 5.2. Iter = 2792
iteration 2792; minNextMutationTime = 1988.23; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 115
*** Looping through 5.2. Iter = 2793
iteration 2793; minNextMutationTime = 1988.23; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 318
*** Looping through 5.2. Iter = 2794
iteration 2794; minNextMutationTime = 1988.24; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 181
*** Looping through 5.2. Iter = 2795
iteration 2795; minNextMutationTime = 1988.24; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 116
*** Looping through 5.2. Iter = 2796
iteration 2796; minNextMutationTime = 1988.25; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 318
*** Looping through 5.2. Iter = 2797
iteration 2797; minNextMutationTime = 1988.27; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 321
*** Looping through 5.2. Iter = 2798
iteration 2798; minNextMutationTime = 1988.28; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 156
*** Looping through 5.2. Iter = 2799
iteration 2799; minNextMutationTime = 1988.29; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5474
*** Looping through 5.2. Iter = 2800
iteration 2800; minNextMutationTime = 1988.29; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 323
*** Looping through 5.2. Iter = 2801
iteration 2801; minNextMutationTime = 1988.29; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 117
*** Looping through 5.2. Iter = 2802
iteration 2802; minNextMutationTime = 1988.35; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 486
*** Looping through 5.2. Iter = 2803
iteration 2803; minNextMutationTime = 1988.37; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 155
*** Looping through 5.2. Iter = 2804
iteration 2804; minNextMutationTime = 1988.41; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 338
*** Looping through 5.2. Iter = 2805
iteration 2805; minNextMutationTime = 1988.44; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 345
*** Looping through 5.2. Iter = 2806
iteration 2806; minNextMutationTime = 1988.47; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 488
*** Looping through 5.2. Iter = 2807
iteration 2807; minNextMutationTime = 1988.49; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 346
*** Looping through 5.2. Iter = 2808
iteration 2808; minNextMutationTime = 1988.51; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 345
*** Looping through 5.2. Iter = 2809
iteration 2809; minNextMutationTime = 1988.52; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 120
*** Looping through 5.2. Iter = 2810
iteration 2810; minNextMutationTime = 1988.54; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 179
*** Looping through 5.2. Iter = 2811
iteration 2811; minNextMutationTime = 1988.54; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 181
*** Looping through 5.2. Iter = 2812
iteration 2812; minNextMutationTime = 1988.57; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 498
*** Looping through 5.2. Iter = 2813
iteration 2813; minNextMutationTime = 1988.57; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 158
*** Looping through 5.2. Iter = 2814
iteration 2814; minNextMutationTime = 1988.58; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 182
*** Looping through 5.2. Iter = 2815
iteration 2815; minNextMutationTime = 1988.58; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 120
*** Looping through 5.2. Iter = 2816
iteration 2816; minNextMutationTime = 1988.59; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 122
*** Looping through 5.2. Iter = 2817
iteration 2817; minNextMutationTime = 1988.59; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 122
*** Looping through 5.2. Iter = 2818
iteration 2818; minNextMutationTime = 1988.63; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5542
*** Looping through 5.2. Iter = 2819
iteration 2819; minNextMutationTime = 1988.65; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 123
*** Looping through 5.2. Iter = 2820
iteration 2820; minNextMutationTime = 1988.66; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5565
*** Looping through 5.2. Iter = 2821
iteration 2821; minNextMutationTime = 1988.67; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5572
*** Looping through 5.2. Iter = 2822
iteration 2822; minNextMutationTime = 1988.71; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 155
*** Looping through 5.2. Iter = 2823
iteration 2823; minNextMutationTime = 1988.71; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 346
*** Looping through 5.2. Iter = 2824
iteration 2824; minNextMutationTime = 1988.72; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 122
*** Looping through 5.2. Iter = 2825
iteration 2825; minNextMutationTime = 1988.76; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 152
*** Looping through 5.2. Iter = 2826
iteration 2826; minNextMutationTime = 1988.76; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 348
*** Looping through 5.2. Iter = 2827
iteration 2827; minNextMutationTime = 1988.77; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 351
*** Looping through 5.2. Iter = 2828
iteration 2828; minNextMutationTime = 1988.79; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 501
*** Looping through 5.2. Iter = 2829
iteration 2829; minNextMutationTime = 1988.79; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5573
*** Looping through 5.2. Iter = 2830
iteration 2830; minNextMutationTime = 1988.81; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5568
*** Looping through 5.2. Iter = 2831
iteration 2831; minNextMutationTime = 1988.82; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 155
*** Looping through 5.2. Iter = 2832
iteration 2832; minNextMutationTime = 1988.83; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 182
*** Looping through 5.2. Iter = 2833
iteration 2833; minNextMutationTime = 1988.83; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 352
*** Looping through 5.2. Iter = 2834
iteration 2834; minNextMutationTime = 1988.83; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 503
*** Looping through 5.2. Iter = 2835
iteration 2835; minNextMutationTime = 1988.87; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 157
*** Looping through 5.2. Iter = 2836
iteration 2836; minNextMutationTime = 1988.88; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 158
*** Looping through 5.2. Iter = 2837
iteration 2837; minNextMutationTime = 1988.89; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 159
*** Looping through 5.2. Iter = 2838
iteration 2838; minNextMutationTime = 1988.91; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 509
*** Looping through 5.2. Iter = 2839
iteration 2839; minNextMutationTime = 1988.94; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5653
*** Looping through 5.2. Iter = 2840
iteration 2840; minNextMutationTime = 1988.96; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 124
*** Looping through 5.2. Iter = 2841
iteration 2841; minNextMutationTime = 1988.96; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 125
*** Looping through 5.2. Iter = 2842
iteration 2842; minNextMutationTime = 1988.96; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 510
*** Looping through 5.2. Iter = 2843
iteration 2843; minNextMutationTime = 1988.96; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 511
*** Looping through 5.2. Iter = 2844
iteration 2844; minNextMutationTime = 1988.97; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5683
*** Looping through 5.2. Iter = 2845
iteration 2845; minNextMutationTime = 1988.98; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5702
*** Looping through 5.2. Iter = 2846
iteration 2846; minNextMutationTime = 1988.99; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 186
*** Looping through 5.2. Iter = 2847
iteration 2847; minNextMutationTime = 1988.99; timeNextPopSample = 1989; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 514
*** Looping through 5.2. Iter = 2848
iteration 2848; minNextMutationTime = 1999; timeNextPopSample = 1989; popParams.size() = 9
We are SAMPLING at time 1989
*** Looping through 5.2. Iter = 2849
iteration 2849; minNextMutationTime = 1989.01; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5697
*** Looping through 5.2. Iter = 2850
iteration 2850; minNextMutationTime = 1989.03; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 157
*** Looping through 5.2. Iter = 2851
iteration 2851; minNextMutationTime = 1989.03; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 128
*** Looping through 5.2. Iter = 2852
iteration 2852; minNextMutationTime = 1989.03; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 519
*** Looping through 5.2. Iter = 2853
iteration 2853; minNextMutationTime = 1989.04; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 156
*** Looping through 5.2. Iter = 2854
iteration 2854; minNextMutationTime = 1989.04; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 129
*** Looping through 5.2. Iter = 2855
iteration 2855; minNextMutationTime = 1989.06; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5695
*** Looping through 5.2. Iter = 2856
iteration 2856; minNextMutationTime = 1989.07; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 159
*** Looping through 5.2. Iter = 2857
iteration 2857; minNextMutationTime = 1989.09; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 193
*** Looping through 5.2. Iter = 2858
iteration 2858; minNextMutationTime = 1989.11; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 157
*** Looping through 5.2. Iter = 2859
iteration 2859; minNextMutationTime = 1989.11; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5694
*** Looping through 5.2. Iter = 2860
iteration 2860; minNextMutationTime = 1989.14; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 165
*** Looping through 5.2. Iter = 2861
iteration 2861; minNextMutationTime = 1989.15; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 354
*** Looping through 5.2. Iter = 2862
iteration 2862; minNextMutationTime = 1989.16; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 516
*** Looping through 5.2. Iter = 2863
iteration 2863; minNextMutationTime = 1989.17; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 164
*** Looping through 5.2. Iter = 2864
iteration 2864; minNextMutationTime = 1989.17; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 355
*** Looping through 5.2. Iter = 2865
iteration 2865; minNextMutationTime = 1989.18; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 518
*** Looping through 5.2. Iter = 2866
iteration 2866; minNextMutationTime = 1989.18; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 520
*** Looping through 5.2. Iter = 2867
iteration 2867; minNextMutationTime = 1989.19; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 131
*** Looping through 5.2. Iter = 2868
iteration 2868; minNextMutationTime = 1989.19; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 132
*** Looping through 5.2. Iter = 2869
iteration 2869; minNextMutationTime = 1989.21; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 193
*** Looping through 5.2. Iter = 2870
iteration 2870; minNextMutationTime = 1989.23; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 365
*** Looping through 5.2. Iter = 2871
iteration 2871; minNextMutationTime = 1989.25; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 369
*** Looping through 5.2. Iter = 2872
iteration 2872; minNextMutationTime = 1989.25; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 5697
*** Looping through 5.2. Iter = 2873
iteration 2873; minNextMutationTime = 1989.26; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 194
*** Looping through 5.2. Iter = 2874
iteration 2874; minNextMutationTime = 1989.26; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 520
*** Looping through 5.2. Iter = 2875
iteration 2875; minNextMutationTime = 1989.29; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 164
*** Looping through 5.2. Iter = 2876
iteration 2876; minNextMutationTime = 1989.3; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 525
*** Looping through 5.2. Iter = 2877
iteration 2877; minNextMutationTime = 1989.32; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 525
*** Looping through 5.2. Iter = 2878
iteration 2878; minNextMutationTime = 1989.33; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 524
*** Looping through 5.2. Iter = 2879
iteration 2879; minNextMutationTime = 1989.33; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 371
*** Looping through 5.2. Iter = 2880
iteration 2880; minNextMutationTime = 1989.35; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 375
*** Looping through 5.2. Iter = 2881
iteration 2881; minNextMutationTime = 1989.37; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 197
*** Looping through 5.2. Iter = 2882
iteration 2882; minNextMutationTime = 1989.4; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 167
*** Looping through 5.2. Iter = 2883
iteration 2883; minNextMutationTime = 1989.41; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 377
*** Looping through 5.2. Iter = 2884
iteration 2884; minNextMutationTime = 1989.41; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 526
*** Looping through 5.2. Iter = 2885
iteration 2885; minNextMutationTime = 1989.42; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 531
*** Looping through 5.2. Iter = 2886
iteration 2886; minNextMutationTime = 1989.43; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 535
*** Looping through 5.2. Iter = 2887
iteration 2887; minNextMutationTime = 1989.44; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 203
*** Looping through 5.2. Iter = 2888
iteration 2888; minNextMutationTime = 1989.45; timeNextPopSample = 1990; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 205
*** Looping through 5.2. Iter = 2889
iteration 2889; minNextMutationTime = 1989.52; timeNextPopSample = 1990; popParams.size() = 9
Creating new species 9 from species 0
*** Looping through 5.2. Iter = 2890
iteration 2890; minNextMutationTime = 1989.55; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 536
*** Looping through 5.2. Iter = 2891
iteration 2891; minNextMutationTime = 1989.55; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 538
*** Looping through 5.2. Iter = 2892
iteration 2892; minNextMutationTime = 1989.56; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 131
*** Looping through 5.2. Iter = 2893
iteration 2893; minNextMutationTime = 1989.56; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 404
*** Looping through 5.2. Iter = 2894
iteration 2894; minNextMutationTime = 1989.58; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 534
*** Looping through 5.2. Iter = 2895
iteration 2895; minNextMutationTime = 1989.58; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 131
*** Looping through 5.2. Iter = 2896
iteration 2896; minNextMutationTime = 1989.62; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 540
*** Looping through 5.2. Iter = 2897
iteration 2897; minNextMutationTime = 1989.62; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 168
*** Looping through 5.2. Iter = 2898
iteration 2898; minNextMutationTime = 1989.63; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 419
*** Looping through 5.2. Iter = 2899
iteration 2899; minNextMutationTime = 1989.64; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 170
*** Looping through 5.2. Iter = 2900
iteration 2900; minNextMutationTime = 1989.65; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 546
*** Looping through 5.2. Iter = 2901
iteration 2901; minNextMutationTime = 1989.67; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 541
*** Looping through 5.2. Iter = 2902
iteration 2902; minNextMutationTime = 1989.67; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 143
*** Looping through 5.2. Iter = 2903
iteration 2903; minNextMutationTime = 1989.68; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6015
*** Looping through 5.2. Iter = 2904
iteration 2904; minNextMutationTime = 1989.68; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 144
*** Looping through 5.2. Iter = 2905
iteration 2905; minNextMutationTime = 1989.68; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 169
*** Looping through 5.2. Iter = 2906
iteration 2906; minNextMutationTime = 1989.68; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 548
*** Looping through 5.2. Iter = 2907
iteration 2907; minNextMutationTime = 1989.7; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 553
*** Looping through 5.2. Iter = 2908
iteration 2908; minNextMutationTime = 1989.71; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 144
*** Looping through 5.2. Iter = 2909
iteration 2909; minNextMutationTime = 1989.72; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 431
*** Looping through 5.2. Iter = 2910
iteration 2910; minNextMutationTime = 1989.73; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 432
*** Looping through 5.2. Iter = 2911
iteration 2911; minNextMutationTime = 1989.74; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 217
*** Looping through 5.2. Iter = 2912
iteration 2912; minNextMutationTime = 1989.75; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 220
*** Looping through 5.2. Iter = 2913
iteration 2913; minNextMutationTime = 1989.77; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 219
*** Looping through 5.2. Iter = 2914
iteration 2914; minNextMutationTime = 1989.78; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 170
*** Looping through 5.2. Iter = 2915
iteration 2915; minNextMutationTime = 1989.78; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 172
*** Looping through 5.2. Iter = 2916
iteration 2916; minNextMutationTime = 1989.79; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 172
*** Looping through 5.2. Iter = 2917
iteration 2917; minNextMutationTime = 1989.79; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 432
*** Looping through 5.2. Iter = 2918
iteration 2918; minNextMutationTime = 1989.81; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 173
*** Looping through 5.2. Iter = 2919
iteration 2919; minNextMutationTime = 1989.84; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 439
*** Looping through 5.2. Iter = 2920
iteration 2920; minNextMutationTime = 1989.86; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 220
*** Looping through 5.2. Iter = 2921
iteration 2921; minNextMutationTime = 1989.88; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 228
*** Looping through 5.2. Iter = 2922
iteration 2922; minNextMutationTime = 1989.89; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 174
*** Looping through 5.2. Iter = 2923
iteration 2923; minNextMutationTime = 1989.93; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 147
*** Looping through 5.2. Iter = 2924
iteration 2924; minNextMutationTime = 1989.94; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 454
*** Looping through 5.2. Iter = 2925
iteration 2925; minNextMutationTime = 1989.95; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6372
*** Looping through 5.2. Iter = 2926
iteration 2926; minNextMutationTime = 1989.96; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 149
*** Looping through 5.2. Iter = 2927
iteration 2927; minNextMutationTime = 1989.99; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 235
*** Looping through 5.2. Iter = 2928
iteration 2928; minNextMutationTime = 1989.99; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6458
*** Looping through 5.2. Iter = 2929
iteration 2929; minNextMutationTime = 1990; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6463
*** Looping through 5.2. Iter = 2930
iteration 2930; minNextMutationTime = 1990; timeNextPopSample = 1990; popParams.size() = 10
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 188
*** Looping through 5.2. Iter = 2931
iteration 2931; minNextMutationTime = 2000; timeNextPopSample = 1990; popParams.size() = 10
We are SAMPLING at time 1990
*** Looping through 5.2. Iter = 2932
iteration 2932; minNextMutationTime = 1990.01; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 236
*** Looping through 5.2. Iter = 2933
iteration 2933; minNextMutationTime = 1990.01; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 153
*** Looping through 5.2. Iter = 2934
iteration 2934; minNextMutationTime = 1990.01; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 583
*** Looping through 5.2. Iter = 2935
iteration 2935; minNextMutationTime = 1990.02; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 153
*** Looping through 5.2. Iter = 2936
iteration 2936; minNextMutationTime = 1990.03; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6464
*** Looping through 5.2. Iter = 2937
iteration 2937; minNextMutationTime = 1990.04; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6479
*** Looping through 5.2. Iter = 2938
iteration 2938; minNextMutationTime = 1990.04; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 237
*** Looping through 5.2. Iter = 2939
iteration 2939; minNextMutationTime = 1990.07; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 469
*** Looping through 5.2. Iter = 2940
iteration 2940; minNextMutationTime = 1990.07; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 583
*** Looping through 5.2. Iter = 2941
iteration 2941; minNextMutationTime = 1990.08; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 474
*** Looping through 5.2. Iter = 2942
iteration 2942; minNextMutationTime = 1990.09; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 192
*** Looping through 5.2. Iter = 2943
iteration 2943; minNextMutationTime = 1990.1; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 240
*** Looping through 5.2. Iter = 2944
iteration 2944; minNextMutationTime = 1990.14; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 476
*** Looping through 5.2. Iter = 2945
iteration 2945; minNextMutationTime = 1990.23; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 510
*** Looping through 5.2. Iter = 2946
iteration 2946; minNextMutationTime = 1990.24; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 153
*** Looping through 5.2. Iter = 2947
iteration 2947; minNextMutationTime = 1990.24; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 155
*** Looping through 5.2. Iter = 2948
iteration 2948; minNextMutationTime = 1990.26; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 503
*** Looping through 5.2. Iter = 2949
iteration 2949; minNextMutationTime = 1990.27; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 506
*** Looping through 5.2. Iter = 2950
iteration 2950; minNextMutationTime = 1990.28; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 503
*** Looping through 5.2. Iter = 2951
iteration 2951; minNextMutationTime = 1990.29; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 159
*** Looping through 5.2. Iter = 2952
iteration 2952; minNextMutationTime = 1990.32; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 194
*** Looping through 5.2. Iter = 2953
iteration 2953; minNextMutationTime = 1990.34; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6515
*** Looping through 5.2. Iter = 2954
iteration 2954; minNextMutationTime = 1990.36; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 192
*** Looping through 5.2. Iter = 2955
iteration 2955; minNextMutationTime = 1990.38; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 503
*** Looping through 5.2. Iter = 2956
iteration 2956; minNextMutationTime = 1990.38; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6523
*** Looping through 5.2. Iter = 2957
iteration 2957; minNextMutationTime = 1990.39; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 159
*** Looping through 5.2. Iter = 2958
iteration 2958; minNextMutationTime = 1990.39; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 160
*** Looping through 5.2. Iter = 2959
iteration 2959; minNextMutationTime = 1990.45; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 160
*** Looping through 5.2. Iter = 2960
iteration 2960; minNextMutationTime = 1990.47; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 189
*** Looping through 5.2. Iter = 2961
iteration 2961; minNextMutationTime = 1990.48; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 585
*** Looping through 5.2. Iter = 2962
iteration 2962; minNextMutationTime = 1990.48; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 187
*** Looping through 5.2. Iter = 2963
iteration 2963; minNextMutationTime = 1990.5; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 509
*** Looping through 5.2. Iter = 2964
iteration 2964; minNextMutationTime = 1990.53; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 511
*** Looping through 5.2. Iter = 2965
iteration 2965; minNextMutationTime = 1990.53; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 188
*** Looping through 5.2. Iter = 2966
iteration 2966; minNextMutationTime = 1990.56; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 241
*** Looping through 5.2. Iter = 2967
iteration 2967; minNextMutationTime = 1990.56; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 190
*** Looping through 5.2. Iter = 2968
iteration 2968; minNextMutationTime = 1990.56; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 243
*** Looping through 5.2. Iter = 2969
iteration 2969; minNextMutationTime = 1990.64; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 245
*** Looping through 5.2. Iter = 2970
iteration 2970; minNextMutationTime = 1990.65; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 246
*** Looping through 5.2. Iter = 2971
iteration 2971; minNextMutationTime = 1990.68; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 253
*** Looping through 5.2. Iter = 2972
iteration 2972; minNextMutationTime = 1990.68; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 586
*** Looping through 5.2. Iter = 2973
iteration 2973; minNextMutationTime = 1990.69; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 189
*** Looping through 5.2. Iter = 2974
iteration 2974; minNextMutationTime = 1990.69; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6526
*** Looping through 5.2. Iter = 2975
iteration 2975; minNextMutationTime = 1990.7; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 160
*** Looping through 5.2. Iter = 2976
iteration 2976; minNextMutationTime = 1990.7; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 161
*** Looping through 5.2. Iter = 2977
iteration 2977; minNextMutationTime = 1990.72; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 162
*** Looping through 5.2. Iter = 2978
iteration 2978; minNextMutationTime = 1990.82; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 163
*** Looping through 5.2. Iter = 2979
iteration 2979; minNextMutationTime = 1990.82; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 587
*** Looping through 5.2. Iter = 2980
iteration 2980; minNextMutationTime = 1990.83; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6523
*** Looping through 5.2. Iter = 2981
iteration 2981; minNextMutationTime = 1990.86; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 591
*** Looping through 5.2. Iter = 2982
iteration 2982; minNextMutationTime = 1990.86; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 164
*** Looping through 5.2. Iter = 2983
iteration 2983; minNextMutationTime = 1990.87; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 512
*** Looping through 5.2. Iter = 2984
iteration 2984; minNextMutationTime = 1990.87; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 252
*** Looping through 5.2. Iter = 2985
iteration 2985; minNextMutationTime = 1990.88; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 189
*** Looping through 5.2. Iter = 2986
iteration 2986; minNextMutationTime = 1990.89; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 192
*** Looping through 5.2. Iter = 2987
iteration 2987; minNextMutationTime = 1990.92; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 254
*** Looping through 5.2. Iter = 2988
iteration 2988; minNextMutationTime = 1990.93; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 165
*** Looping through 5.2. Iter = 2989
iteration 2989; minNextMutationTime = 1990.93; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 255
*** Looping through 5.2. Iter = 2990
iteration 2990; minNextMutationTime = 1990.98; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 598
*** Looping through 5.2. Iter = 2991
iteration 2991; minNextMutationTime = 1990.99; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 253
*** Looping through 5.2. Iter = 2992
iteration 2992; minNextMutationTime = 1991; timeNextPopSample = 1991; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6525
*** Looping through 5.2. Iter = 2993
iteration 2993; minNextMutationTime = 2001; timeNextPopSample = 1991; popParams.size() = 9
We are SAMPLING at time 1991
*** Looping through 5.2. Iter = 2994
iteration 2994; minNextMutationTime = 1991.02; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 167
*** Looping through 5.2. Iter = 2995
iteration 2995; minNextMutationTime = 1991.04; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 259
*** Looping through 5.2. Iter = 2996
iteration 2996; minNextMutationTime = 1991.05; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 522
*** Looping through 5.2. Iter = 2997
iteration 2997; minNextMutationTime = 1991.06; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 522
*** Looping through 5.2. Iter = 2998
iteration 2998; minNextMutationTime = 1991.1; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 526
*** Looping through 5.2. Iter = 2999
iteration 2999; minNextMutationTime = 1991.13; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 167
... iteration 3000
... currentTime 1991.13
*** Looping through 5.2. Iter = 3000
iteration 3000; minNextMutationTime = 1991.14; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 192
*** Looping through 5.2. Iter = 3001
iteration 3001; minNextMutationTime = 1991.14; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 192
*** Looping through 5.2. Iter = 3002
iteration 3002; minNextMutationTime = 1991.15; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 263
*** Looping through 5.2. Iter = 3003
iteration 3003; minNextMutationTime = 1991.15; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 598
*** Looping through 5.2. Iter = 3004
iteration 3004; minNextMutationTime = 1991.16; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 194
*** Looping through 5.2. Iter = 3005
iteration 3005; minNextMutationTime = 1991.16; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 526
*** Looping through 5.2. Iter = 3006
iteration 3006; minNextMutationTime = 1991.17; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 263
*** Looping through 5.2. Iter = 3007
iteration 3007; minNextMutationTime = 1991.17; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 194
*** Looping through 5.2. Iter = 3008
iteration 3008; minNextMutationTime = 1991.18; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 194
*** Looping through 5.2. Iter = 3009
iteration 3009; minNextMutationTime = 1991.19; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 608
*** Looping through 5.2. Iter = 3010
iteration 3010; minNextMutationTime = 1991.19; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 607
*** Looping through 5.2. Iter = 3011
iteration 3011; minNextMutationTime = 1991.2; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 266
*** Looping through 5.2. Iter = 3012
iteration 3012; minNextMutationTime = 1991.2; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 527
*** Looping through 5.2. Iter = 3013
iteration 3013; minNextMutationTime = 1991.21; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 266
*** Looping through 5.2. Iter = 3014
iteration 3014; minNextMutationTime = 1991.23; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 268
*** Looping through 5.2. Iter = 3015
iteration 3015; minNextMutationTime = 1991.23; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 167
*** Looping through 5.2. Iter = 3016
iteration 3016; minNextMutationTime = 1991.24; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 195
*** Looping through 5.2. Iter = 3017
iteration 3017; minNextMutationTime = 1991.26; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6577
*** Looping through 5.2. Iter = 3018
iteration 3018; minNextMutationTime = 1991.27; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 529
*** Looping through 5.2. Iter = 3019
iteration 3019; minNextMutationTime = 1991.28; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 198
*** Looping through 5.2. Iter = 3020
iteration 3020; minNextMutationTime = 1991.29; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 271
*** Looping through 5.2. Iter = 3021
iteration 3021; minNextMutationTime = 1991.3; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 530
*** Looping through 5.2. Iter = 3022
iteration 3022; minNextMutationTime = 1991.32; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 614
*** Looping through 5.2. Iter = 3023
iteration 3023; minNextMutationTime = 1991.32; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 271
*** Looping through 5.2. Iter = 3024
iteration 3024; minNextMutationTime = 1991.35; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 165
*** Looping through 5.2. Iter = 3025
iteration 3025; minNextMutationTime = 1991.35; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 197
*** Looping through 5.2. Iter = 3026
iteration 3026; minNextMutationTime = 1991.36; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 273
*** Looping through 5.2. Iter = 3027
iteration 3027; minNextMutationTime = 1991.38; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 271
*** Looping through 5.2. Iter = 3028
iteration 3028; minNextMutationTime = 1991.38; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 615
*** Looping through 5.2. Iter = 3029
iteration 3029; minNextMutationTime = 1991.41; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 620
*** Looping through 5.2. Iter = 3030
iteration 3030; minNextMutationTime = 1991.42; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 167
*** Looping through 5.2. Iter = 3031
iteration 3031; minNextMutationTime = 1991.42; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 532
*** Looping through 5.2. Iter = 3032
iteration 3032; minNextMutationTime = 1991.45; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 550
*** Looping through 5.2. Iter = 3033
iteration 3033; minNextMutationTime = 1991.46; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 558
*** Looping through 5.2. Iter = 3034
iteration 3034; minNextMutationTime = 1991.46; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 168
*** Looping through 5.2. Iter = 3035
iteration 3035; minNextMutationTime = 1991.47; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 271
*** Looping through 5.2. Iter = 3036
iteration 3036; minNextMutationTime = 1991.48; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 271
*** Looping through 5.2. Iter = 3037
iteration 3037; minNextMutationTime = 1991.53; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6701
*** Looping through 5.2. Iter = 3038
iteration 3038; minNextMutationTime = 1991.57; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 628
*** Looping through 5.2. Iter = 3039
iteration 3039; minNextMutationTime = 1991.57; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6716
*** Looping through 5.2. Iter = 3040
iteration 3040; minNextMutationTime = 1991.59; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6729
*** Looping through 5.2. Iter = 3041
iteration 3041; minNextMutationTime = 1991.59; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 169
*** Looping through 5.2. Iter = 3042
iteration 3042; minNextMutationTime = 1991.6; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 556
*** Looping through 5.2. Iter = 3043
iteration 3043; minNextMutationTime = 1991.61; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6737
*** Looping through 5.2. Iter = 3044
iteration 3044; minNextMutationTime = 1991.62; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 557
*** Looping through 5.2. Iter = 3045
iteration 3045; minNextMutationTime = 1991.62; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 629
*** Looping through 5.2. Iter = 3046
iteration 3046; minNextMutationTime = 1991.63; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 270
*** Looping through 5.2. Iter = 3047
iteration 3047; minNextMutationTime = 1991.64; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 199
*** Looping through 5.2. Iter = 3048
iteration 3048; minNextMutationTime = 1991.66; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 168
*** Looping through 5.2. Iter = 3049
iteration 3049; minNextMutationTime = 1991.67; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 169
*** Looping through 5.2. Iter = 3050
iteration 3050; minNextMutationTime = 1991.67; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6735
*** Looping through 5.2. Iter = 3051
iteration 3051; minNextMutationTime = 1991.67; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 559
*** Looping through 5.2. Iter = 3052
iteration 3052; minNextMutationTime = 1991.68; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 275
*** Looping through 5.2. Iter = 3053
iteration 3053; minNextMutationTime = 1991.69; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6737
*** Looping through 5.2. Iter = 3054
iteration 3054; minNextMutationTime = 1991.69; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 630
*** Looping through 5.2. Iter = 3055
iteration 3055; minNextMutationTime = 1991.7; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 566
*** Looping through 5.2. Iter = 3056
iteration 3056; minNextMutationTime = 1991.7; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 278
*** Looping through 5.2. Iter = 3057
iteration 3057; minNextMutationTime = 1991.71; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 566
*** Looping through 5.2. Iter = 3058
iteration 3058; minNextMutationTime = 1991.72; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 566
*** Looping through 5.2. Iter = 3059
iteration 3059; minNextMutationTime = 1991.73; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 279
*** Looping through 5.2. Iter = 3060
iteration 3060; minNextMutationTime = 1991.73; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6734
*** Looping through 5.2. Iter = 3061
iteration 3061; minNextMutationTime = 1991.74; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 168
*** Looping through 5.2. Iter = 3062
iteration 3062; minNextMutationTime = 1991.75; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 200
*** Looping through 5.2. Iter = 3063
iteration 3063; minNextMutationTime = 1991.75; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 201
*** Looping through 5.2. Iter = 3064
iteration 3064; minNextMutationTime = 1991.77; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 276
*** Looping through 5.2. Iter = 3065
iteration 3065; minNextMutationTime = 1991.77; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 631
*** Looping through 5.2. Iter = 3066
iteration 3066; minNextMutationTime = 1991.8; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 568
*** Looping through 5.2. Iter = 3067
iteration 3067; minNextMutationTime = 1991.82; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 168
*** Looping through 5.2. Iter = 3068
iteration 3068; minNextMutationTime = 1991.84; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 278
*** Looping through 5.2. Iter = 3069
iteration 3069; minNextMutationTime = 1991.84; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 170
*** Looping through 5.2. Iter = 3070
iteration 3070; minNextMutationTime = 1991.87; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 175
*** Looping through 5.2. Iter = 3071
iteration 3071; minNextMutationTime = 1991.88; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 572
*** Looping through 5.2. Iter = 3072
iteration 3072; minNextMutationTime = 1991.89; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6729
*** Looping through 5.2. Iter = 3073
iteration 3073; minNextMutationTime = 1991.9; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 569
*** Looping through 5.2. Iter = 3074
iteration 3074; minNextMutationTime = 1991.91; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 277
*** Looping through 5.2. Iter = 3075
iteration 3075; minNextMutationTime = 1991.91; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 567
*** Looping through 5.2. Iter = 3076
iteration 3076; minNextMutationTime = 1991.91; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 566
*** Looping through 5.2. Iter = 3077
iteration 3077; minNextMutationTime = 1991.93; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 177
*** Looping through 5.2. Iter = 3078
iteration 3078; minNextMutationTime = 1991.94; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 178
*** Looping through 5.2. Iter = 3079
iteration 3079; minNextMutationTime = 1991.95; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6727
*** Looping through 5.2. Iter = 3080
iteration 3080; minNextMutationTime = 1991.95; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 567
*** Looping through 5.2. Iter = 3081
iteration 3081; minNextMutationTime = 1991.97; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 200
*** Looping through 5.2. Iter = 3082
iteration 3082; minNextMutationTime = 1992; timeNextPopSample = 1992; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 582
*** Looping through 5.2. Iter = 3083
iteration 3083; minNextMutationTime = 2002; timeNextPopSample = 1992; popParams.size() = 9
We are SAMPLING at time 1992
*** Looping through 5.2. Iter = 3084
iteration 3084; minNextMutationTime = 1992.03; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 648
*** Looping through 5.2. Iter = 3085
iteration 3085; minNextMutationTime = 1992.04; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6727
*** Looping through 5.2. Iter = 3086
iteration 3086; minNextMutationTime = 1992.04; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6737
*** Looping through 5.2. Iter = 3087
iteration 3087; minNextMutationTime = 1992.06; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6771
*** Looping through 5.2. Iter = 3088
iteration 3088; minNextMutationTime = 1992.08; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 657
*** Looping through 5.2. Iter = 3089
iteration 3089; minNextMutationTime = 1992.09; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6777
*** Looping through 5.2. Iter = 3090
iteration 3090; minNextMutationTime = 1992.1; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 283
*** Looping through 5.2. Iter = 3091
iteration 3091; minNextMutationTime = 1992.12; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 203
*** Looping through 5.2. Iter = 3092
iteration 3092; minNextMutationTime = 1992.12; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 661
*** Looping through 5.2. Iter = 3093
iteration 3093; minNextMutationTime = 1992.12; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 664
*** Looping through 5.2. Iter = 3094
iteration 3094; minNextMutationTime = 1992.14; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6833
*** Looping through 5.2. Iter = 3095
iteration 3095; minNextMutationTime = 1992.14; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 179
*** Looping through 5.2. Iter = 3096
iteration 3096; minNextMutationTime = 1992.17; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 666
*** Looping through 5.2. Iter = 3097
iteration 3097; minNextMutationTime = 1992.17; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 180
*** Looping through 5.2. Iter = 3098
iteration 3098; minNextMutationTime = 1992.2; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 282
*** Looping through 5.2. Iter = 3099
iteration 3099; minNextMutationTime = 1992.2; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 587
*** Looping through 5.2. Iter = 3100
iteration 3100; minNextMutationTime = 1992.2; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 205
*** Looping through 5.2. Iter = 3101
iteration 3101; minNextMutationTime = 1992.21; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 181
*** Looping through 5.2. Iter = 3102
iteration 3102; minNextMutationTime = 1992.23; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 206
*** Looping through 5.2. Iter = 3103
iteration 3103; minNextMutationTime = 1992.25; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 184
*** Looping through 5.2. Iter = 3104
iteration 3104; minNextMutationTime = 1992.25; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 207
*** Looping through 5.2. Iter = 3105
iteration 3105; minNextMutationTime = 1992.25; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 590
*** Looping through 5.2. Iter = 3106
iteration 3106; minNextMutationTime = 1992.29; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 204
*** Looping through 5.2. Iter = 3107
iteration 3107; minNextMutationTime = 1992.29; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 285
*** Looping through 5.2. Iter = 3108
iteration 3108; minNextMutationTime = 1992.32; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 182
*** Looping through 5.2. Iter = 3109
iteration 3109; minNextMutationTime = 1992.35; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6877
*** Looping through 5.2. Iter = 3110
iteration 3110; minNextMutationTime = 1992.35; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6898
*** Looping through 5.2. Iter = 3111
iteration 3111; minNextMutationTime = 1992.36; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6899
*** Looping through 5.2. Iter = 3112
iteration 3112; minNextMutationTime = 1992.38; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 207
*** Looping through 5.2. Iter = 3113
iteration 3113; minNextMutationTime = 1992.38; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 591
*** Looping through 5.2. Iter = 3114
iteration 3114; minNextMutationTime = 1992.39; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 592
*** Looping through 5.2. Iter = 3115
iteration 3115; minNextMutationTime = 1992.41; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 595
*** Looping through 5.2. Iter = 3116
iteration 3116; minNextMutationTime = 1992.42; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 285
*** Looping through 5.2. Iter = 3117
iteration 3117; minNextMutationTime = 1992.43; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6907
*** Looping through 5.2. Iter = 3118
iteration 3118; minNextMutationTime = 1992.44; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 599
*** Looping through 5.2. Iter = 3119
iteration 3119; minNextMutationTime = 1992.46; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 676
*** Looping through 5.2. Iter = 3120
iteration 3120; minNextMutationTime = 1992.46; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6927
*** Looping through 5.2. Iter = 3121
iteration 3121; minNextMutationTime = 1992.46; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 286
*** Looping through 5.2. Iter = 3122
iteration 3122; minNextMutationTime = 1992.48; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 596
*** Looping through 5.2. Iter = 3123
iteration 3123; minNextMutationTime = 1992.48; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 183
*** Looping through 5.2. Iter = 3124
iteration 3124; minNextMutationTime = 1992.48; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 207
*** Looping through 5.2. Iter = 3125
iteration 3125; minNextMutationTime = 1992.48; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 677
*** Looping through 5.2. Iter = 3126
iteration 3126; minNextMutationTime = 1992.49; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 601
*** Looping through 5.2. Iter = 3127
iteration 3127; minNextMutationTime = 1992.5; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 211
*** Looping through 5.2. Iter = 3128
iteration 3128; minNextMutationTime = 1992.52; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 679
*** Looping through 5.2. Iter = 3129
iteration 3129; minNextMutationTime = 1992.53; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 678
*** Looping through 5.2. Iter = 3130
iteration 3130; minNextMutationTime = 1992.53; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 287
*** Looping through 5.2. Iter = 3131
iteration 3131; minNextMutationTime = 1992.54; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 287
*** Looping through 5.2. Iter = 3132
iteration 3132; minNextMutationTime = 1992.54; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 212
*** Looping through 5.2. Iter = 3133
iteration 3133; minNextMutationTime = 1992.54; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 184
*** Looping through 5.2. Iter = 3134
iteration 3134; minNextMutationTime = 1992.55; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 185
*** Looping through 5.2. Iter = 3135
iteration 3135; minNextMutationTime = 1992.55; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 213
*** Looping through 5.2. Iter = 3136
iteration 3136; minNextMutationTime = 1992.56; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 217
*** Looping through 5.2. Iter = 3137
iteration 3137; minNextMutationTime = 1992.56; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 678
*** Looping through 5.2. Iter = 3138
iteration 3138; minNextMutationTime = 1992.56; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 599
*** Looping through 5.2. Iter = 3139
iteration 3139; minNextMutationTime = 1992.58; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 222
*** Looping through 5.2. Iter = 3140
iteration 3140; minNextMutationTime = 1992.6; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 184
*** Looping through 5.2. Iter = 3141
iteration 3141; minNextMutationTime = 1992.61; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 679
*** Looping through 5.2. Iter = 3142
iteration 3142; minNextMutationTime = 1992.62; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6938
*** Looping through 5.2. Iter = 3143
iteration 3143; minNextMutationTime = 1992.62; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 288
*** Looping through 5.2. Iter = 3144
iteration 3144; minNextMutationTime = 1992.64; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 297
*** Looping through 5.2. Iter = 3145
iteration 3145; minNextMutationTime = 1992.65; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 304
*** Looping through 5.2. Iter = 3146
iteration 3146; minNextMutationTime = 1992.66; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 680
*** Looping through 5.2. Iter = 3147
iteration 3147; minNextMutationTime = 1992.68; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 606
*** Looping through 5.2. Iter = 3148
iteration 3148; minNextMutationTime = 1992.69; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 222
*** Looping through 5.2. Iter = 3149
iteration 3149; minNextMutationTime = 1992.69; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 221
*** Looping through 5.2. Iter = 3150
iteration 3150; minNextMutationTime = 1992.7; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 304
*** Looping through 5.2. Iter = 3151
iteration 3151; minNextMutationTime = 1992.7; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 186
*** Looping through 5.2. Iter = 3152
iteration 3152; minNextMutationTime = 1992.74; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 617
*** Looping through 5.2. Iter = 3153
iteration 3153; minNextMutationTime = 1992.75; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 618
*** Looping through 5.2. Iter = 3154
iteration 3154; minNextMutationTime = 1992.75; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 682
*** Looping through 5.2. Iter = 3155
iteration 3155; minNextMutationTime = 1992.75; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 221
*** Looping through 5.2. Iter = 3156
iteration 3156; minNextMutationTime = 1992.76; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 187
*** Looping through 5.2. Iter = 3157
iteration 3157; minNextMutationTime = 1992.77; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 221
*** Looping through 5.2. Iter = 3158
iteration 3158; minNextMutationTime = 1992.78; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6966
*** Looping through 5.2. Iter = 3159
iteration 3159; minNextMutationTime = 1992.8; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 188
*** Looping through 5.2. Iter = 3160
iteration 3160; minNextMutationTime = 1992.8; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 685
*** Looping through 5.2. Iter = 3161
iteration 3161; minNextMutationTime = 1992.82; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 222
*** Looping through 5.2. Iter = 3162
iteration 3162; minNextMutationTime = 1992.82; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 304
*** Looping through 5.2. Iter = 3163
iteration 3163; minNextMutationTime = 1992.84; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 627
*** Looping through 5.2. Iter = 3164
iteration 3164; minNextMutationTime = 1992.84; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6968
*** Looping through 5.2. Iter = 3165
iteration 3165; minNextMutationTime = 1992.84; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 628
*** Looping through 5.2. Iter = 3166
iteration 3166; minNextMutationTime = 1992.84; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 687
*** Looping through 5.2. Iter = 3167
iteration 3167; minNextMutationTime = 1992.86; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 221
*** Looping through 5.2. Iter = 3168
iteration 3168; minNextMutationTime = 1992.87; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6970
*** Looping through 5.2. Iter = 3169
iteration 3169; minNextMutationTime = 1992.9; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 189
*** Looping through 5.2. Iter = 3170
iteration 3170; minNextMutationTime = 1992.91; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 6997
*** Looping through 5.2. Iter = 3171
iteration 3171; minNextMutationTime = 1992.91; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 304
*** Looping through 5.2. Iter = 3172
iteration 3172; minNextMutationTime = 1992.92; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 221
*** Looping through 5.2. Iter = 3173
iteration 3173; minNextMutationTime = 1992.92; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 221
*** Looping through 5.2. Iter = 3174
iteration 3174; minNextMutationTime = 1992.93; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 222
*** Looping through 5.2. Iter = 3175
iteration 3175; minNextMutationTime = 1992.95; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 691
*** Looping through 5.2. Iter = 3176
iteration 3176; minNextMutationTime = 1992.97; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 310
*** Looping through 5.2. Iter = 3177
iteration 3177; minNextMutationTime = 1992.97; timeNextPopSample = 1993; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 223
*** Looping through 5.2. Iter = 3178
iteration 3178; minNextMutationTime = 2003; timeNextPopSample = 1993; popParams.size() = 9
We are SAMPLING at time 1993
*** Looping through 5.2. Iter = 3179
iteration 3179; minNextMutationTime = 1993; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 189
*** Looping through 5.2. Iter = 3180
iteration 3180; minNextMutationTime = 1993.01; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 702
*** Looping through 5.2. Iter = 3181
iteration 3181; minNextMutationTime = 1993.01; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 190
*** Looping through 5.2. Iter = 3182
iteration 3182; minNextMutationTime = 1993.02; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 311
*** Looping through 5.2. Iter = 3183
iteration 3183; minNextMutationTime = 1993.03; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7052
*** Looping through 5.2. Iter = 3184
iteration 3184; minNextMutationTime = 1993.05; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 636
*** Looping through 5.2. Iter = 3185
iteration 3185; minNextMutationTime = 1993.05; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 702
*** Looping through 5.2. Iter = 3186
iteration 3186; minNextMutationTime = 1993.07; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 192
*** Looping through 5.2. Iter = 3187
iteration 3187; minNextMutationTime = 1993.08; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 640
*** Looping through 5.2. Iter = 3188
iteration 3188; minNextMutationTime = 1993.08; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 707
*** Looping through 5.2. Iter = 3189
iteration 3189; minNextMutationTime = 1993.09; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 191
*** Looping through 5.2. Iter = 3190
iteration 3190; minNextMutationTime = 1993.09; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 641
*** Looping through 5.2. Iter = 3191
iteration 3191; minNextMutationTime = 1993.09; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 643
*** Looping through 5.2. Iter = 3192
iteration 3192; minNextMutationTime = 1993.1; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 642
*** Looping through 5.2. Iter = 3193
iteration 3193; minNextMutationTime = 1993.11; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 229
*** Looping through 5.2. Iter = 3194
iteration 3194; minNextMutationTime = 1993.12; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 234
*** Looping through 5.2. Iter = 3195
iteration 3195; minNextMutationTime = 1993.13; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 235
*** Looping through 5.2. Iter = 3196
iteration 3196; minNextMutationTime = 1993.17; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 191
*** Looping through 5.2. Iter = 3197
iteration 3197; minNextMutationTime = 1993.17; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7052
*** Looping through 5.2. Iter = 3198
iteration 3198; minNextMutationTime = 1993.18; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 236
*** Looping through 5.2. Iter = 3199
iteration 3199; minNextMutationTime = 1993.18; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7059
*** Looping through 5.2. Iter = 3200
iteration 3200; minNextMutationTime = 1993.18; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 191
*** Looping through 5.2. Iter = 3201
iteration 3201; minNextMutationTime = 1993.21; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 318
*** Looping through 5.2. Iter = 3202
iteration 3202; minNextMutationTime = 1993.22; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 647
*** Looping through 5.2. Iter = 3203
iteration 3203; minNextMutationTime = 1993.22; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 711
*** Looping through 5.2. Iter = 3204
iteration 3204; minNextMutationTime = 1993.23; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 318
*** Looping through 5.2. Iter = 3205
iteration 3205; minNextMutationTime = 1993.23; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7057
*** Looping through 5.2. Iter = 3206
iteration 3206; minNextMutationTime = 1993.23; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7067
*** Looping through 5.2. Iter = 3207
iteration 3207; minNextMutationTime = 1993.27; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 239
*** Looping through 5.2. Iter = 3208
iteration 3208; minNextMutationTime = 1993.32; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 659
*** Looping through 5.2. Iter = 3209
iteration 3209; minNextMutationTime = 1993.32; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 711
*** Looping through 5.2. Iter = 3210
iteration 3210; minNextMutationTime = 1993.32; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 713
*** Looping through 5.2. Iter = 3211
iteration 3211; minNextMutationTime = 1993.33; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7080
*** Looping through 5.2. Iter = 3212
iteration 3212; minNextMutationTime = 1993.34; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 325
*** Looping through 5.2. Iter = 3213
iteration 3213; minNextMutationTime = 1993.35; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 714
*** Looping through 5.2. Iter = 3214
iteration 3214; minNextMutationTime = 1993.35; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 240
*** Looping through 5.2. Iter = 3215
iteration 3215; minNextMutationTime = 1993.36; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 328
*** Looping through 5.2. Iter = 3216
iteration 3216; minNextMutationTime = 1993.37; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 241
*** Looping through 5.2. Iter = 3217
iteration 3217; minNextMutationTime = 1993.38; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 658
*** Looping through 5.2. Iter = 3218
iteration 3218; minNextMutationTime = 1993.39; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 192
*** Looping through 5.2. Iter = 3219
iteration 3219; minNextMutationTime = 1993.39; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 193
*** Looping through 5.2. Iter = 3220
iteration 3220; minNextMutationTime = 1993.4; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 244
*** Looping through 5.2. Iter = 3221
iteration 3221; minNextMutationTime = 1993.4; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 330
*** Looping through 5.2. Iter = 3222
iteration 3222; minNextMutationTime = 1993.41; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 658
*** Looping through 5.2. Iter = 3223
iteration 3223; minNextMutationTime = 1993.41; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 193
*** Looping through 5.2. Iter = 3224
iteration 3224; minNextMutationTime = 1993.43; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 191
*** Looping through 5.2. Iter = 3225
iteration 3225; minNextMutationTime = 1993.44; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 242
*** Looping through 5.2. Iter = 3226
iteration 3226; minNextMutationTime = 1993.45; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 657
*** Looping through 5.2. Iter = 3227
iteration 3227; minNextMutationTime = 1993.45; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 657
*** Looping through 5.2. Iter = 3228
iteration 3228; minNextMutationTime = 1993.47; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 659
*** Looping through 5.2. Iter = 3229
iteration 3229; minNextMutationTime = 1993.48; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 331
*** Looping through 5.2. Iter = 3230
iteration 3230; minNextMutationTime = 1993.5; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 335
*** Looping through 5.2. Iter = 3231
iteration 3231; minNextMutationTime = 1993.51; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 717
*** Looping through 5.2. Iter = 3232
iteration 3232; minNextMutationTime = 1993.51; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 336
*** Looping through 5.2. Iter = 3233
iteration 3233; minNextMutationTime = 1993.51; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 243
*** Looping through 5.2. Iter = 3234
iteration 3234; minNextMutationTime = 1993.52; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 190
*** Looping through 5.2. Iter = 3235
iteration 3235; minNextMutationTime = 1993.53; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7081
*** Looping through 5.2. Iter = 3236
iteration 3236; minNextMutationTime = 1993.54; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 337
*** Looping through 5.2. Iter = 3237
iteration 3237; minNextMutationTime = 1993.54; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 339
*** Looping through 5.2. Iter = 3238
iteration 3238; minNextMutationTime = 1993.56; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 669
*** Looping through 5.2. Iter = 3239
iteration 3239; minNextMutationTime = 1993.58; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 677
*** Looping through 5.2. Iter = 3240
iteration 3240; minNextMutationTime = 1993.58; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 678
*** Looping through 5.2. Iter = 3241
iteration 3241; minNextMutationTime = 1993.58; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7080
*** Looping through 5.2. Iter = 3242
iteration 3242; minNextMutationTime = 1993.59; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7085
*** Looping through 5.2. Iter = 3243
iteration 3243; minNextMutationTime = 1993.59; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 245
*** Looping through 5.2. Iter = 3244
iteration 3244; minNextMutationTime = 1993.6; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7085
*** Looping through 5.2. Iter = 3245
iteration 3245; minNextMutationTime = 1993.64; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 724
*** Looping through 5.2. Iter = 3246
iteration 3246; minNextMutationTime = 1993.65; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 191
*** Looping through 5.2. Iter = 3247
iteration 3247; minNextMutationTime = 1993.66; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7090
*** Looping through 5.2. Iter = 3248
iteration 3248; minNextMutationTime = 1993.66; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 340
*** Looping through 5.2. Iter = 3249
iteration 3249; minNextMutationTime = 1993.67; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 341
*** Looping through 5.2. Iter = 3250
iteration 3250; minNextMutationTime = 1993.67; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 678
*** Looping through 5.2. Iter = 3251
iteration 3251; minNextMutationTime = 1993.68; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 243
*** Looping through 5.2. Iter = 3252
iteration 3252; minNextMutationTime = 1993.68; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 243
*** Looping through 5.2. Iter = 3253
iteration 3253; minNextMutationTime = 1993.69; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 192
*** Looping through 5.2. Iter = 3254
iteration 3254; minNextMutationTime = 1993.69; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 244
*** Looping through 5.2. Iter = 3255
iteration 3255; minNextMutationTime = 1993.73; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 245
*** Looping through 5.2. Iter = 3256
iteration 3256; minNextMutationTime = 1993.74; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 342
*** Looping through 5.2. Iter = 3257
iteration 3257; minNextMutationTime = 1993.77; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 715
*** Looping through 5.2. Iter = 3258
iteration 3258; minNextMutationTime = 1993.77; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 247
*** Looping through 5.2. Iter = 3259
iteration 3259; minNextMutationTime = 1993.78; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 678
*** Looping through 5.2. Iter = 3260
iteration 3260; minNextMutationTime = 1993.78; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 679
*** Looping through 5.2. Iter = 3261
iteration 3261; minNextMutationTime = 1993.8; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 348
*** Looping through 5.2. Iter = 3262
iteration 3262; minNextMutationTime = 1993.82; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7152
*** Looping through 5.2. Iter = 3263
iteration 3263; minNextMutationTime = 1993.88; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 8 (Genotype = 0000000000000000000000000000000000000000000000000000000000100001; sp_id = 33)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 33)
New popSize = 198
*** Looping through 5.2. Iter = 3264
iteration 3264; minNextMutationTime = 1993.89; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 351
*** Looping through 5.2. Iter = 3265
iteration 3265; minNextMutationTime = 1993.9; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7168
*** Looping through 5.2. Iter = 3266
iteration 3266; minNextMutationTime = 1993.9; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 715
*** Looping through 5.2. Iter = 3267
iteration 3267; minNextMutationTime = 1993.91; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 717
*** Looping through 5.2. Iter = 3268
iteration 3268; minNextMutationTime = 1993.92; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 718
*** Looping through 5.2. Iter = 3269
iteration 3269; minNextMutationTime = 1993.93; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 722
*** Looping through 5.2. Iter = 3270
iteration 3270; minNextMutationTime = 1993.94; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 246
*** Looping through 5.2. Iter = 3271
iteration 3271; minNextMutationTime = 1993.96; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 7 (Genotype = 0000000000000000000000000000000000000000000000000000000001000001; sp_id = 65)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 65)
New popSize = 251
*** Looping through 5.2. Iter = 3272
iteration 3272; minNextMutationTime = 1993.96; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 682
*** Looping through 5.2. Iter = 3273
iteration 3273; minNextMutationTime = 1993.97; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 4 (Genotype = 0000000000000000000000000000000000000000000000000000000000010001; sp_id = 17)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 17)
New popSize = 725
*** Looping through 5.2. Iter = 3274
iteration 3274; minNextMutationTime = 1993.97; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 6 (Genotype = 0000000000000000000000000000000000000000000000000000000000001001; sp_id = 9)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 9)
New popSize = 682
*** Looping through 5.2. Iter = 3275
iteration 3275; minNextMutationTime = 1993.97; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 3 (Genotype = 0000000000000000000000000000000000000000000000000000000000000101; sp_id = 5)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 5)
New popSize = 7182
*** Looping through 5.2. Iter = 3276
iteration 3276; minNextMutationTime = 1993.98; timeNextPopSample = 1994; popParams.size() = 9
Mutated to existing species 5 (Genotype = 0000000000000000000000000000000000000000000000000000000000000011; sp_id = 3)
from species 1 (Genotypes = 0000000000000000000000000000000000000000000000000000000000000001; sp_id = 3)
New popSize = 348
*** Looping through 5.2. Iter = 3277
iteration 3277; minNextMutationTime = 2004; timeNextPopSample = 1994; popParams.size() = 9
We are SAMPLING. We reached finalTime 1994
... finished this run:
Total Pop Size = 16051391
Drivers Last = 2
Final Time = 1994
Starting sample-only-last tests Thu Apr 12 01:36:15 2018
Seed = 7394 bozic bozic9 . Poset = p1101
Seed = 7394 Exp Exp9 . Poset = p1101
Seed = 7394 mc mc9 . Poset = p1101
Seed = 3983 bozic bozic9 . Poset = p901
Seed = 3983 Exp Exp9 . Poset = p901
Seed = 3983 mc mc9 . Poset = p901
Seed = 5819 bozic bozic9 . Poset = p701
Seed = 5819 Exp Exp9 . Poset = p701
Seed = 5819 mc mc9 . Poset = p701
Ending sample-only-last tests Thu Apr 12 01:36:36 2018
Starting total-present-drivers tests Thu Apr 12 01:36:36 2018
Ending total-present-drivers tests Thu Apr 12 01:36:37 2018
Starting all fitness at Thu Apr 12 01:36:39 2018Genotype: d1 , d2, f3
Individual s terms are : 0.4
Fitness: 1.4
Genotype: f3 , d1 , d2
Individual s terms are : -0.3
Fitness: 0.7
Genotype: f3 , d1 , d2
Individual s terms are : -0.3
Death rate: 1.3
DEBUG2: Value of rnb = nan
DEBUG2: Value of m = 1
DEBUG2: Value of pe = 0
DEBUG2: Value of pm = 1
this is spP
popSize = 1
birth = 1
death = 0
W = 1
R = 1
mutation = 1e-06
timeLastUpdate = 77.9747
absfitness = -inf
numMutablePos =1
Unrecoverable exception: Algo 2: retval not finite. Aborting.
DEBUG2: Value of rnb = nan
DEBUG2: Value of m = 1
DEBUG2: Value of pe = 0
DEBUG2: Value of pm = 0.999998
this is spP
popSize = 1
birth = 1
death = 0
W = 1
R = 1
mutation = 4e-06
timeLastUpdate = 333.531
absfitness = -inf
numMutablePos =4
Unrecoverable exception: Algo 2: retval not finite. Aborting.
Ending all-fitness at Thu Apr 12 01:36:44 2018
Starting driverCounts at Thu Apr 12 01:36:44 2018
doing iteration 1
doing iteration 2
doing iteration 3
doing iteration 4
doing iteration 5
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doing iteration 95
doing iteration 96
doing iteration 97
doing iteration 98
doing iteration 99
doing iteration 100
Ending driverCounts at Thu Apr 12 01:36:52 2018
Starting epist-order-modules at Thu Apr 12 01:36:52 2018
Ending epist-order-modules at Thu Apr 12 01:36:52 2018
Starting exercise-plotting-code at Thu Apr 12 01:36:52 2018
Ending exercise-plotting-code at Thu Apr 12 01:37:04 2018
Starting fitness preds at Thu Apr 12 01:37:04 2018
Observed vs expected, case III
done tries 1
Ending fitness preds long at Thu Apr 12 01:37:12 2018
Starting fixation at Thu Apr 12 01:37:12 2018
Ending fixation at Thu Apr 12 01:37:35 2018
Starting init-mutant tests Thu Apr 12 01:37:36 2018
done tries 1
done tries 1
done tries 1
Ending init-mutant tests Thu Apr 12 01:37:39 2018
Starting at mutPropGrowth Thu Apr 12 01:37:39 2018
Thu Apr 12 01:37:39 2018
mcf1: a runif is 0.01845909
mcf1a: a runif is 0.632479
mcf1c: a runif is 0.4728942
done tries 1
Thu Apr 12 01:37:40 2018
mcf1_ontime: a runif is 0.4351498
mcf1a: a runif is 0.6159823
mcf1c: a runif is 0.3789529
done tries 1
Thu Apr 12 01:37:41 2018
oss1: a runif is 0.6450749
oss1a: a runif is 0.9851512
oss1c: a runif is 0.9346654
done tries 1
oss1_ontime: a runif is 0.4187848
oss1a: a runif is 0.318398
oss1c: a runif is 0.05379778
done tries 1
ossmcf1: a runif is 0.4986153
ossmcf1a: a runif is 0.4010273
ossmcf1c: a runif is 0.8928362
done tries 1
ossmcf1: a runif is 0.6737999
ossmcf1a: a runif is 0.354306
ossmcf1c: a runif is 0.4856589
done tries 1
DEBUG2: Value of spP.death = 1
DEBUG2: Value of spP.birth = 0
DEBUG2: Value of pM = 1
DEBUG2: Value of spP.W = 1
DEBUG2: Value of spP.mutation = 0
Unrecoverable exception: pE.f: pE not finite.
This is expected to happen when mutationPropGrowth = TRUE
and you have have an initMutant with death >> birth,
as that inevitably leads to net birth rate of 0
and mutation rate of 0. Aborting.
Ended test.mutPropGrowth: Thu Apr 12 01:37:49 2018
Starting test.mutator-oncoSimulSample.R test at Thu Apr 12 01:37:50 2018
MCFL: AEu8: a runif is 0.5098031
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
done tries 1
mcx2bc: a runif is 0.6952078
done tries 1
x2ef: a runif is 0.5895613
done tries 1
x2gh: a runif is 0.8362661
done tries 1
nm2: a runif is 0.4110012
done tries 1
mcz2: a runif is 0.0954404
done tries 1
Finished test.mutator-oncoSimulSample.R test at Thu Apr 12 01:37:57 2018
Starting test.mutator.R test at Thu Apr 12 01:37:57 2018
Individual s terms are :
x2gh: a runif is 0.7918236
done tries 1
u6: a runif is 0.03398126
done tries 1
mcfu6: a runif is 0.1207316
done tries 1
nm2: a runif is 0.01585625
done tries 1
nm3: a runif is 0.1495879
done tries 1
mcfl_z2: a runif is 0.2284863
done tries 1
mmdSM1: a runif is 0.1294376
[1] 5.334016e-07
[1] 8.436782e-12
done tries 1
mmpg_mcfl: a runif is 0.4062301
done tries 1
Finished test.mutator.R test at Thu Apr 12 01:38:10 2018
Starting oncoSimulIndiv-miscell tests Thu Apr 12 01:38:10 2018
...... Done individual 1 . Used 1 attempts. . Running for 0.001688719 secs.
...... Done individual 2 . Used 2 attempts. . Running for 0.003458977 secs.
...... Done individual 1 . Used 1 attempts. . Running for 0.002002716 secs.
...... Done individual 2 . Used 2 attempts. . Running for 0.004139423 secs.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitting max tries is regarded as an error.
Ending oncoSimulIndiv-miscell tests Thu Apr 12 01:38:17 2018
Starting oncoSimulSample-failures tests Thu Apr 12 01:38:17 2018
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted wall time. Exiting.
Hitting wall time is regarded as an error.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 0. There can be numerical problems later.
Entered Algo2 with mutation rate = 0
Unrecoverable exception: mutation = 0 with numMutable != 0?. Aborting.
Ending oncoSimulSample-failures tests Thu Apr 12 01:38:22 2018
Starting oncoSimulSample-limits tests Thu Apr 12 01:38:22 2018
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Hitted maxtries. Exiting.
Hitting max tries is regarded as an error.
Ending oncoSimulSample-limits tests Thu Apr 12 01:38:22 2018
Starting per-gene-mutation rates at Thu Apr 12 01:38:22 2018
s01: a runif is 0.4584035
s02: a runif is 0.5597542
s03: a runif is 0.01170086
s04: a runif is 0.7841349
s05: a runif is 0.522031
s06: a runif is 0.6840953
s07: a runif is 0.1050774
s15: a runif is 0.2009383
sz01: a runif is 0.6667587
sz02: a runif is 0.7302239
sz03: a runif is 0.6493194
sz04: a runif is 0.8755105
sz05: a runif is 0.8774868
sz06: a runif is 0.02936305
s3: a runif is 0.1608007
done tries 1
s4: a runif is 0.6559625
done tries 1
s5: a runif is 0.1138907
done tries 1
s6: a runif is 0.1693086
done tries 1
s7: a runif is 0.0967877
done tries 1
s8: a runif is 0.6735857
done tries 1
s9: a runif is 0.151247
done tries 1
s10: a runif is 0.6782784
s12: a runif is 0.8343519
s12b: a runif is 0.5861779
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
done tries 1
s14: a runif is 0.8728978
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
s14b: a runif is 0.6265675
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = WARNING: the smallest mutation rate is 1e-15<= . There can be numerical problems later.
1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
done tries 1
s18: a runif is 0.4340974
done tries 1
mcs19: a runif is 0.5616112
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-11. There can be numerical problems later.
done tries 1
s20: a runif is 0.9916827
s20b: a runif is 0.9065737
s20c: a runif is 0.5698162
done tries 1
df1: a runif is 0.134113
df1a: a runif is 0.9882412
df1b: a runif is 0.699106
done tries 1
mcdf2: a runif is 0.1708754
mcdf2a: a runif is 0.9019022
mcdf2b: a runif is 0.6264855
done tries 1
mpgs3: a runif is 0.1109615
mpgs3a: a runif is 0.1628212
mpgs3b: a runif is 0.2539181
done tries 1
mcoss11: a runif is 0.4109857
mcoss1a: a runif is 0.001601573
mcoss1b: a runif is 0.64177
done tries 1
mcoss2: a runif is 0.903511
mcoss2a: a runif is 0.9413505
mcoss2b: a runif is 0.2851401
done tries 1
mpg s14: a runif is 0.5102254
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
mpg s14b: a runif is 0.5144168
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= WARNING: the smallest mutation rate is <= 1e-11. That is a really small value1e-11(per-base mutation rate in the human genome is. That is a really small value ˜ 1e-11 to 1e-9). (per-base mutation rate in the human genome isSetting dummyMutationRate to your min/100 = ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= WARNING: the smallest mutation rate is <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is WARNING: the smallest mutation rate is <= <= 1e-111e-11. That is a really small value. That is a really small value(per-base mutation rate in the human genome is(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = Setting dummyMutationRate to your min/100 = 1e-151e-15. There can be numerical problems later.
. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome isWARNING: the smallest mutation rate is ˜ 1e-11 to 1e-9). <= Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
WARNING: the smallest mutation rate is <= 1e-11. That is a really small value(per-base mutation rate in the human genome is ˜ 1e-11 to 1e-9). Setting dummyMutationRate to your min/100 = 1e-15. There can be numerical problems later.
done tries 1
mpg mcdf2: a runif is 0.6987842
mpg mcdf2a: a runif is 0.4325937
mpg mcdf2b: a runif is 0.8529822
done tries 1
mcsz033: a runif is 0.6566111
mcsz033a: a runif is 0.2324362
mcsz033b: a runif is 0.363865
[1] 1.494454
[1] 1.805912
[1] 9
[1] 12
T1 is TRUE
T2 is TRUE
done tries 1
osSFPSMcFL: a runif is 0.4137342
osSFPSMcFLa: a runif is 0.8459487
osSFPSMcFLb: a runif is 0.8635837
done tries 1
Done per-gene-mutation rates at Thu Apr 12 01:39:44 2018
Starting poset-transformations tests Thu Apr 12 01:39:46 2018
Ending poset-transformations tests Thu Apr 12 01:39:50 2018
Starting sample-prob Thu Apr 12 01:39:50 2018
[1] 1.848648e-25
done tries 1
[1] 1.879953e-20
done tries 1
[1] 3.378933e-20
done tries 1
[1] 1.970215e-17
done tries 1
[1] 2.718434e-25
done tries 1
[1] 3.815616e-27
done tries 1
[1] 7.742915e-14
done tries 1
[1] 1.137903e-11
done tries 1
[1] 5.404701e-26
done tries 1
[1] 1.045473e-16
done tries 1
[1] 3.90877e-18
done tries 1
[1] 2.609295e-20
done tries 1
Ending sample-prob tests Thu Apr 12 01:40:33 2018
Starting samplePop tests Thu Apr 12 01:40:33 2018
Ending samplePop tests Thu Apr 12 01:40:53 2018
Starting simuls-runs-examples tests Thu Apr 12 01:40:53 2018
Doing i = 1 name = w
Doing i = 2 name = sv
Doing i = 3 name = pancr
Doing i = 4 name = xor1
Doing i = 5 name = ofe2
Doing i = 1 name = w
Doing i = 2 name = sv
Doing i = 3 name = pancr
Doing i = 4 name = xor1
Doing i = 5 name = ofe2
Doing i = 1 name = w
Doing i = 1 name = w
Doing i = 2 name = sv
Doing i = 2 name = sv
Doing i = 3 name = pancr
Doing i = 3 name = pancr
Doing i = 4 name = xor1
Doing i = 4 name = xor1
Doing i = 5 name = ofe2
Doing i = 5 name = ofe2
Doing i = 1 name = w
Doing i = 2 name = sv
Doing i = 3 name = pancr
Doing i = 4 name = xor1
Doing i = 5 name = ofe2
Ending simuls-runs-examples tests Thu Apr 12 01:41:08 2018
Starting warning-mutPropGrowth tests Thu Apr 12 01:41:08 2018
a runif is 0.7692966
Ending warning-mutPropGrowth tests Thu Apr 12 01:41:09 2018
Starting wide2long tests Thu Apr 12 01:41:09 2018
Ending wide2long tests Thu Apr 12 01:41:10 2018
══ testthat results ═══════════════════════════════════════════════════════════
OK: 3027 SKIPPED: 10 FAILED: 0
>
> proc.time()
user system elapsed
413.640 27.004 306.656
OncoSimulR.Rcheck/OncoSimulR-Ex.timings
| name | user | system | elapsed | |
| OncoSimulWide2Long | 0.812 | 0.008 | 0.818 | |
| POM | 1.940 | 0.056 | 2.415 | |
| allFitnessEffects | 3.428 | 0.028 | 3.459 | |
| benchmarks | 0.012 | 0.000 | 0.009 | |
| evalAllGenotypes | 0.192 | 0.004 | 0.198 | |
| example-missing-drivers | 0.500 | 0.004 | 0.505 | |
| examplePosets | 0.348 | 0.000 | 0.350 | |
| examplesFitnessEffects | 0.052 | 0.000 | 0.051 | |
| mcfLs | 3.164 | 0.104 | 3.267 | |
| oncoSimulIndiv | 6.996 | 0.580 | 5.686 | |
| plot.fitnessEffects | 0.800 | 0.008 | 0.809 | |
| plot.oncosimul | 3.048 | 0.168 | 2.791 | |
| plotClonePhylog | 1.004 | 0.016 | 1.020 | |
| plotFitnessLandscape | 1.288 | 0.000 | 1.289 | |
| plotPoset | 0.116 | 0.000 | 0.117 | |
| poset | 0.148 | 0.000 | 0.149 | |
| rfitness | 0.384 | 0.000 | 0.382 | |
| samplePop | 0.164 | 0.168 | 0.217 | |
| simOGraph | 0.200 | 0.004 | 0.206 | |
| to_Magellan | 0.020 | 0.000 | 0.021 | |