func main() {
// create file storing ks and vard
f, err := os.Create(fname + ".csv")
if err != nil {
panic(err)
}
defer f.Close()
ksarray := []float64{} // store ks
vdarray := []float64{} // store VarD
ngarray := []float64{} // store generation number
// do evolution
for i := 0; i < ngen; i++ {
pop.Evolve()
// we make 10 samples and average
ksmean := desc.NewMean()
vdmean := desc.NewMean()
for j := 0; j < sampleTime; j++ {
sample := fwd.Sample(pop.Genomes, sampleSize)
dmatrix := fwd.GenerateDistanceMatrix(sample)
cmatrix := covs.NewCMatrix(sampleSize, pop.Length, dmatrix)
ks, vard := cmatrix.D()
ksmean.Increment(ks)
vdmean.Increment(vard)
}
// write to csv
f.WriteString(fmt.Sprintf("%d,%g,%g\n", pop.NumOfGen, ksmean.GetResult(), vdmean.GetResult()))
if (i+1)%1000 == 0 {
fmt.Println("Generation: ", pop.NumOfGen, ksmean.GetResult(), vdmean.GetResult())
}
// store array for draw
ksarray = append(ksarray, ksmean.GetResult())
vdarray = append(vdarray, vdmean.GetResult())
ngarray = append(ngarray, float64(pop.NumOfGen))
}
// draw
svger := render.NewSVG(fname, 1, 2, 800, 200)
pl := chart.ScatterChart{Title: "KS"}
pl.AddDataPair("KS", ngarray, ksarray, chart.PlotStyleLines, chart.Style{Symbol: '+', SymbolColor: "#0000ff", LineStyle: chart.SolidLine})
svger.Plot(&pl)
pl = chart.ScatterChart{Title: "VarD"}
pl.AddDataPair("VarD", ngarray, vdarray, chart.PlotStyleLines, chart.Style{Symbol: '+', SymbolColor: "#0000ff", LineStyle: chart.SolidLine})
svger.Plot(&pl)
svger.Close()
// save population
jf, err := os.Create(fname + ".json")
if err != nil {
panic(err)
}
defer jf.Close()
b, err := json.Marshal(pop)
if err != nil {
panic(err)
}
jf.Write(b)
}
func simusome(begin, end int, ch chan Results) {
for i := begin; i < end; i++ {
w := coals.NewWFPopulation(size, sample, length, mutation, transfer, fragment)
w.Seed(i)
w.Backtrace()
seqs := w.Fortrace()
diffmatrix := [][]int{}
sample := w.SampleSize
for j := 0; j < sample; j++ {
for k := j + 1; k < sample; k++ {
diff := []int{}
for h := 0; h < length; h++ {
if seqs[j][h] != seqs[k][h] {
diff = append(diff, h)
}
}
diffmatrix = append(diffmatrix, diff)
}
}
cmatrix := covs.NewCMatrix(len(diffmatrix), length, diffmatrix)
ks, vd := cmatrix.D()
scovs, rcovs, xyPL, xsysPL, smXYPL := cmatrix.CovCircle(maxl)
results := Results{
ks: ks,
vd: vd,
scovs: scovs,
rcovs: rcovs,
xyPL: xyPL,
xsysPL: xsysPL,
smXYPL: smXYPL,
}
ch <- results
}
}
func calculateD(sample []fwd1.Sequence, length int, ch chan dResult) {
dmatrix := fwd1.GenerateDistanceMatrix(sample)
cmatrix := covs.NewCMatrix(sampleSize, length, dmatrix)
ks, vard := cmatrix.D()
dr := dResult{ks: ks, vard: vard}
ch <- dr
}
func main() {
// use all cpus
runtime.GOMAXPROCS(runtime.NumCPU())
// population paramters
length := 1000 // genome length = 1000
mutation := 0.00001 // mutation rate = 1e-5
transfer := 0.0 // transfer rate = 0
fragment := 0 // transferred length = 0
// simulation parameters
samplesize := 100
numofgen := 100000
// population size array
sizearray := []int{100, 1000, 10000}
for _, size := range sizearray {
// population
pop := fwd.NewSeqPop(size, length, mutation, transfer, fragment)
// result files
ksname := fmt.Sprintf("ks_size_%d.csv", size)
ksfile, err := os.Create(ksname)
if err != nil {
panic(err)
}
vdname := fmt.Sprintf("vd_size_%d.csv", size)
vdfile, err := os.Create(vdname)
if err != nil {
panic(err)
}
// info file
infoname := fmt.Sprintf("ks_size_%d.txt", size)
infofile, err := os.Create(infoname)
if err != nil {
panic(err)
}
infofile.WriteString(fmt.Sprintf("Size = %d\n", pop.Size))
infofile.WriteString(fmt.Sprintf("Length = %d\n", pop.Length))
infofile.WriteString(fmt.Sprintf("Mutation = %g\n", pop.Mutation))
// population evolve
for i := 0; i < numofgen; i++ {
pop.Evolve()
sample := fwd.Sample(pop.Genomes, samplesize)
dmatrix := fwd.GenerateDistanceMatrix(sample)
cmatrix := covs.NewCMatrix(samplesize, length, dmatrix)
ks, vd := cmatrix.D()
ksfile.WriteString(fmt.Sprintf("%g\n", ks))
vdfile.WriteString(fmt.Sprintf("%g\n", vd))
}
// close files
ksfile.Close()
vdfile.Close()
infofile.Close()
}
}
func evolve(fname string, size, length int, mutation, transfer float64, fragment, samplesize, numofgen int, ch chan bool) {
t0 := time.Now()
file, err := os.Create(fname)
if err != nil {
panic(err)
}
defer file.Close()
pop := fwd.NewSeqPop(size, length, mutation, transfer, fragment)
for i := 0; i < numofgen; i++ {
pop.Evolve()
// get #{samplesize} samples
rSeq := rand.Perm(pop.Size) // get a permutation sequence
samples := make([]fwd.Sequence, samplesize)
for j := 0; j < samplesize; j++ {
samples[j] = pop.Genomes[rSeq[j]]
}
// calculate the distance matrix for different lengthes
dmatrix := [][]int{}
for j := 0; j < samplesize; j++ {
for k := j + 1; k < samplesize; k++ {
a := samples[j]
b := samples[k]
ds := []int{}
for l := 0; l < len(a); l++ {
if a[l] != b[l] {
ds = append(ds, l)
}
}
dmatrix = append(dmatrix, ds)
}
}
// create cmatrix
cmatrix := covs.NewCMatrix(samplesize, pop.Length, dmatrix)
// calculate ks and vard
ks, vd := cmatrix.D()
// write to file
file.WriteString(fmt.Sprintf("%d,%g,%g\n", pop.NumOfGen, ks, vd))
// printing the process
if pop.NumOfGen%1000 == 0 {
t2 := time.Now()
fmt.Printf("Number of Generation with mutation = %f: %d, time used = %v\n", pop.Mutation, pop.NumOfGen, t2.Sub(t0))
}
}
ch <- true
}
func simulateSome(b, e int, ch chan Result) {
for i := b; i < e; i++ {
sp := fwd.NewSeqPop(size, lens, mutation, transfer, frag)
sp.SetExpTime(exptime)
sp.Seed(i)
for j := 0; j < gens; j++ {
sp.Evolve()
}
seqs := sp.GetGenomes()
diffmatrix := [][]int{}
for j := 0; j < samp; j++ {
a := rand.Intn(size)
b := rand.Intn(size)
for a == b {
b = rand.Intn(size)
}
diff := []int{}
for k := 0; k < lens; k++ {
if seqs[a][k] != seqs[b][k] {
diff = append(diff, k)
}
}
diffmatrix = append(diffmatrix, diff)
}
cmatrix := covs.NewCMatrix(samp, lens, diffmatrix)
ks, vd := cmatrix.D()
scovs, rcovs, xyPL, xsysPL, smXYPL := cmatrix.CovCircle(maxl)
result := Result{
ks: ks,
vd: vd,
scovs: scovs,
rcovs: rcovs,
xyPL: xyPL,
xsysPL: xsysPL,
smXYPL: smXYPL,
}
ch <- result
}
}
func main() {
runtime.GOMAXPROCS(3)
t0 := time.Now() // start time
log.Printf("Start up at: %v\n", t0)
// population paramters
size := 1000 // population size = 1000
length := 100000 // genome length = 100000
mutation := 0.0001 // mutation rate = 1e-4
transfer := 0.0 // transfer rate = 0
fragment := 0 // transferred length = 0
// construct a population
pop := fwd.NewSeqPop(size, length, mutation, transfer, fragment)
// simulation parameters
samplesize := 100
numofgen := 100
// create files
// file for length 100
file1, err := os.Create("D_length_100.csv")
if err != nil {
panic(err)
}
defer file1.Close()
// file for length 1000
file2, err := os.Create("D_length_1000.csv")
if err != nil {
panic(err)
}
defer file2.Close()
// file for length 10000
file3, err := os.Create("D_length_10000.csv")
if err != nil {
panic(err)
}
defer file3.Close()
// file for length 100000
file4, err := os.Create("D_length_100000.csv")
if err != nil {
panic(err)
}
defer file4.Close()
// do the simulation
for i := 0; i < numofgen; i++ {
pop.Evolve()
// get #{samplesize} samples
rSeq := rand.Perm(pop.Size) // get a permutation sequence
samples := make([]fwd.Sequence, samplesize)
for j := 0; j < samplesize; j++ {
samples[j] = pop.Genomes[rSeq[j]]
}
// calculate the distance matrix for different lengthes
dmatrix1 := [][]int{} // for length 100
dmatrix2 := [][]int{} // for length 1000
dmatrix3 := [][]int{} // for length 10000
dmatrix4 := [][]int{} // for length 100000
for j := 0; j < samplesize; j++ {
for k := j + 1; k < samplesize; k++ {
a := samples[j]
b := samples[k]
ds1 := []int{} // for length 100
ds2 := []int{} // for length 1000
ds3 := []int{} // for length 10000
ds4 := []int{} // for length 100000
for l := 0; l < len(a); l++ {
if a[l] != b[l] {
if l < 100 { // for length 100
ds1 = append(ds1, l)
}
if l < 1000 { // for length 1000
ds2 = append(ds2, l)
}
if l < 10000 { // for length 10000
ds3 = append(ds3, l)
}
ds4 = append(ds4, l)
}
}
dmatrix1 = append(dmatrix1, ds1)
dmatrix2 = append(dmatrix2, ds2)
dmatrix3 = append(dmatrix3, ds3)
dmatrix4 = append(dmatrix4, ds4)
}
}
// create cmatrix
cmatrix1 := covs.NewCMatrix(samplesize, 100, dmatrix1)
cmatrix2 := covs.NewCMatrix(samplesize, 1000, dmatrix2)
cmatrix3 := covs.NewCMatrix(samplesize, 10000, dmatrix3)
cmatrix4 := covs.NewCMatrix(samplesize, 100000, dmatrix4)
// calculate ks and vard
ks1, vd1 := cmatrix1.D()
ks2, vd2 := cmatrix2.D()
ks3, vd3 := cmatrix3.D()
ks4, vd4 := cmatrix4.D()
// write to file
file1.WriteString(fmt.Sprintf("%d,%g,%g\n", pop.NumOfGen, ks1, vd1))
file2.WriteString(fmt.Sprintf("%d,%g,%g\n", pop.NumOfGen, ks2, vd2))
file3.WriteString(fmt.Sprintf("%d,%g,%g\n", pop.NumOfGen, ks3, vd3))
file4.WriteString(fmt.Sprintf("%d,%g,%g\n", pop.NumOfGen, ks4, vd4))
// printing the process
if pop.NumOfGen%1000 == 0 {
fmt.Printf("Number of Generation: %d", pop.NumOfGen)
}
}
t1 := time.Now()
log.Printf("End at: %v\n", t1)
log.Printf("Duration: %v\n", t1.Sub(t0))
}
func main() {
t0 := time.Now() // start time
log.Printf("Start up at: %v\n", t0)
// population paramters
length := 1000 // genome length = 100000
mutation := 0.0001 // mutation rate = 1e-4
transfer := 0.0 // transfer rate = 0
fragment := 0 // transferred length = 0
// simulation parameters
samplesize := 100
numofgen := 100000
sizearray := []int{100, 1000, 10000, 100000}
for _, size := range sizearray {
file, err := os.Create(fmt.Sprintf("D_size_%d.csv", size))
if err != nil {
panic(err)
}
pop := fwd.NewSeqPop(size, length, mutation, transfer, fragment)
for i := 0; i < numofgen; i++ {
pop.Evolve()
// get #{samplesize} samples
rSeq := rand.Perm(pop.Size) // get a permutation sequence
samples := make([]fwd.Sequence, samplesize)
for j := 0; j < samplesize; j++ {
samples[j] = pop.Genomes[rSeq[j]]
}
// calculate the distance matrix for different lengthes
dmatrix := [][]int{}
for j := 0; j < samplesize; j++ {
for k := j + 1; k < samplesize; k++ {
a := samples[j]
b := samples[k]
ds := []int{}
for l := 0; l < len(a); l++ {
if a[l] != b[l] {
ds = append(ds, l)
}
}
dmatrix = append(dmatrix, ds)
}
}
// create cmatrix
cmatrix := covs.NewCMatrix(samplesize, pop.Length, dmatrix)
// calculate ks and vard
ks, vd := cmatrix.D()
// write to file
file.WriteString(fmt.Sprintf("%d,%g,%g\n", pop.NumOfGen, ks, vd))
// printing the process
if pop.NumOfGen%1000 == 0 {
t2 := time.Now()
fmt.Printf("Number of Generation with size = %d: %d, time used = %v\n", pop.Size, pop.NumOfGen, t2.Sub(t0))
}
}
file.Close()
}
t1 := time.Now()
log.Printf("End at: %v\n", t1)
log.Printf("Duration: %v\n", t1.Sub(t0))
}
func main() {
// ks file
ksfilestr := dir + "/" + prex + "_ks.txt"
ksfile, err := os.Create(ksfilestr)
if err != nil {
log.Fatalf("Can not create file: %s, %v", ksfilestr, err)
}
defer ksfile.Close()
ksMean := desc.NewMean()
ksVar := desc.NewVarianceWithBiasCorrection()
vardMean := desc.NewMean()
vardVar := desc.NewVarianceWithBiasCorrection()
scovsMeanArray := make([]*desc.Mean, maxL)
scovsVarArray := make([]*desc.Variance, maxL)
rcovsMeanArray := make([]*desc.Mean, maxL)
rcovsVarArray := make([]*desc.Variance, maxL)
xyPLMeanArray := make([]*desc.Mean, maxL)
xyPLVarArray := make([]*desc.Variance, maxL)
xsysPLMeanArray := make([]*desc.Mean, maxL)
xsysPLVarArray := make([]*desc.Variance, maxL)
smXYPLMeanArray := make([]*desc.Mean, maxL)
smXYPLVarArray := make([]*desc.Variance, maxL)
for i := 0; i < maxL; i++ {
scovsMeanArray[i] = desc.NewMean()
scovsVarArray[i] = desc.NewVarianceWithBiasCorrection()
rcovsMeanArray[i] = desc.NewMean()
rcovsVarArray[i] = desc.NewVarianceWithBiasCorrection()
xyPLMeanArray[i] = desc.NewMean()
xyPLVarArray[i] = desc.NewVarianceWithBiasCorrection()
xsysPLMeanArray[i] = desc.NewMean()
xsysPLVarArray[i] = desc.NewVarianceWithBiasCorrection()
smXYPLMeanArray[i] = desc.NewMean()
smXYPLVarArray[i] = desc.NewVarianceWithBiasCorrection()
}
stepNum := etime / stepSize
for i := 0; i < stepNum; i++ {
// simulate
pop.Evolve(stepSize)
// create distance matrix
dmatrix := pop.DistanceMatrix(sampleSize)
c := covs.NewCMatrix(dmatrix, sampleSize, pop.Length)
// calculate ks
ks := c.CalculateKS()
vard := c.CalculateVarD()
ksfile.WriteString(fmt.Sprintf("%d\t%g\t%g\n", pop.Time, ks, vard))
ksMean.Increment(ks)
ksVar.Increment(ks)
vardMean.Increment(vard)
vardVar.Increment(vard)
log.Printf("KsMean: %g, KsVar: %g, VardMean: %g, VardVar: %g\n", ksMean.GetResult(), ksVar.GetResult(), vardMean.GetResult(), vardVar.GetResult())
// calculate covs
scovs, rcovs, xyPL, xsysPL, smXYPL := c.CalculateCovs(maxL)
for j := 0; j < maxL; j++ {
scovsMeanArray[j].Increment(scovs[j])
scovsVarArray[j].Increment(scovs[j])
rcovsMeanArray[j].Increment(rcovs[j])
rcovsVarArray[j].Increment(rcovs[j])
xyPLMeanArray[j].Increment(xyPL[j])
xyPLVarArray[j].Increment(xyPL[j])
xsysPLMeanArray[j].Increment(xsysPL[j])
xsysPLVarArray[j].Increment(xsysPL[j])
smXYPLMeanArray[j].Increment(smXYPL[j])
smXYPLVarArray[j].Increment(smXYPL[j])
}
svger := render.NewSVG(dir+"/"+prex+"_covs", 1, 5, 800, 200)
scovMeans := make([]float64, maxL-1)
rcovMeans := make([]float64, maxL-1)
xyPLMeans := make([]float64, maxL-1)
xsysPLMeans := make([]float64, maxL-1)
smXYPLMeans := make([]float64, maxL-1)
xs := make([]float64, maxL-1)
for j := 1; j < maxL; j++ {
xs[j-1] = float64(j)
scovMeans[j-1] = scovsMeanArray[j].GetResult()
rcovMeans[j-1] = rcovsMeanArray[j].GetResult()
xyPLMeans[j-1] = xyPLMeanArray[j].GetResult()
xsysPLMeans[j-1] = xsysPLMeanArray[j].GetResult()
smXYPLMeans[j-1] = smXYPLMeanArray[j].GetResult()
}
pl := chart.ScatterChart{Title: "scovs"}
pl.AddDataPair("struc covs", xs, scovMeans, chart.PlotStyleLines, chart.Style{Symbol: '+', SymbolColor: "#0000ff", LineStyle: chart.SolidLine})
svger.Plot(&pl)
pl = chart.ScatterChart{Title: "rcovs"}
pl.AddDataPair("rate covs", xs, rcovMeans, chart.PlotStyleLines, chart.Style{Symbol: '+', SymbolColor: "#0000ff", LineStyle: chart.SolidLine})
svger.Plot(&pl)
pl = chart.ScatterChart{Title: "xyPL"}
pl.AddDataPair("xyPL", xs, xyPLMeans, chart.PlotStyleLines, chart.Style{Symbol: '+', SymbolColor: "#0000ff", LineStyle: chart.SolidLine})
svger.Plot(&pl)
pl = chart.ScatterChart{Title: "xsysPL"}
pl.AddDataPair("xsysPL", xs, xsysPLMeans, chart.PlotStyleLines, chart.Style{Symbol: '+', SymbolColor: "#0000ff", LineStyle: chart.SolidLine})
svger.Plot(&pl)
pl = chart.ScatterChart{Title: "smXYPL"}
pl.AddDataPair("smXYPL", xs, smXYPLMeans, chart.PlotStyleLines, chart.Style{Symbol: '+', SymbolColor: "#0000ff", LineStyle: chart.SolidLine})
svger.Plot(&pl)
svger.Close()
// write to file
covsfilestr := dir + "/" + prex + "_covs.txt"
covsfile, err := os.Create(covsfilestr)
if err != nil {
log.Fatalf("Can not create file: %s, %v", covsfilestr, err)
}
for j := 0; j < maxL; j++ {
covsfile.WriteString(
fmt.Sprintf("%d\t%g\t%g\t%g\t%g\t%g\t%g\t%g\t%g\t%g\t%g\n",
j,
scovsMeanArray[j].GetResult(), scovsVarArray[j].GetResult(),
rcovsMeanArray[j].GetResult(), rcovsVarArray[j].GetResult(),
xyPLMeanArray[j].GetResult(), xyPLVarArray[j].GetResult(),
xsysPLMeanArray[j].GetResult(), xsysPLVarArray[j].GetResult(),
smXYPLMeanArray[j].GetResult(), smXYPLVarArray[j].GetResult(),
),
)
}
covsfile.Close()
}
tnow = time.Now()
log.Printf("Done at %v\n", tnow)
}
func main() {
// create d file
dfile, err := os.Create(fmt.Sprintf("%s_d.csv", prefix))
if err != nil {
log.Panic(err)
}
defer dfile.Close()
// create population for simulation
sp := fwd.NewSeqPop(size, lens, mutation, transfer, frag)
// do eqvGens generations for reaching equilibrium
for i := 0; i < eqvGens; i++ {
sp.Evolve()
}
// create moments
moments := make([][]Moment, 5)
for i := 0; i < len(moments); i++ {
for j := 0; j < maxl; j++ {
m := Moment{
Mean: desc.NewMean(),
Sd: desc.NewStandardDeviationWithBiasCorrection(),
}
moments[i] = append(moments[i], m)
}
}
// do sample generations
for i := 0; i < gens; i++ {
sp.Evolve()
seqs := sp.GetGenomes()
diffmatrix := [][]int{}
for j := 0; j < samp; j++ {
a := rand.Intn(size)
b := rand.Intn(size)
for a == b {
b = rand.Intn(size)
}
diff := []int{}
for k := 0; k < lens; k++ {
if seqs[a][k] != seqs[b][k] {
diff = append(diff, k)
}
}
diffmatrix = append(diffmatrix, diff)
}
cmatrix := covs.NewCMatrix(samp, lens, diffmatrix)
ks, vd := cmatrix.D()
dfile.WriteString(fmt.Sprintf("%g,%g\n", ks, vd))
scovs, rcovs, xyPL, xsysPL, smXYPL := cmatrix.CovCircle(maxl)
for j := 0; j < maxl; j++ {
moments[0][j].Increment(scovs[j])
moments[1][j].Increment(rcovs[j])
moments[2][j].Increment(xyPL[j])
moments[3][j].Increment(xsysPL[j])
moments[4][j].Increment(smXYPL[j])
}
if (i+1)%(gens/100) == 0 {
cfile, err := os.Create(fmt.Sprintf("%s_covs.csv", prefix))
if err != nil {
log.Panic(err)
}
cfile.WriteString(fmt.Sprintf("#size: %d\n", size))
cfile.WriteString(fmt.Sprintf("#length: %d\n", lens))
cfile.WriteString(fmt.Sprintf("#fragment: %d\n", frag))
cfile.WriteString(fmt.Sprintf("#mutation: %g\n", mutation))
cfile.WriteString(fmt.Sprintf("#transfer: %g\n", transfer))
cfile.WriteString(fmt.Sprintf("#generations: %d\n", i+1))
cfile.WriteString("dist, scov, rcov, xy, xsys, smxy_sd, scov_sd, rcov_sd, xy_sd, xsys_sd, smxy_sd\n")
for j := 0; j < maxl; j++ {
cfile.WriteString(fmt.Sprintf("%d,%g,%g,%g,%g,%g,%g,%g,%g,%g,%g\n",
j,
moments[0][j].Mean.GetResult(),
moments[1][j].Mean.GetResult(),
moments[2][j].Mean.GetResult(),
moments[3][j].Mean.GetResult(),
moments[4][j].Mean.GetResult(),
moments[0][j].Sd.GetResult(),
moments[1][j].Sd.GetResult(),
moments[2][j].Sd.GetResult(),
moments[3][j].Sd.GetResult(),
moments[4][j].Sd.GetResult(),
))
}
cfile.Close()
log.Printf("Finish %%%d\n", (i+1)/(gens/100))
}
}
// save the population for further use
pfile, err := os.Create(fmt.Sprintf("%s.json", prefix))
if err != nil {
log.Panic(err)
}
defer pfile.Close()
pfile.Write(sp.Json())
}
func main() {
means := make([][]*desc.Mean, 5)
sds := make([][]*desc.StandardDeviation, 5)
for i := 0; i < 5; i++ {
means[i] = make([]*desc.Mean, maxl)
sds[i] = make([]*desc.StandardDeviation, maxl)
for j := 0; j < maxl; j++ {
means[i][j] = desc.NewMean()
sds[i][j] = desc.NewStandardDeviationWithBiasCorrection()
}
}
dfile, err := os.Create(prefix + "_d.csv")
if err != nil {
panic(err)
}
defer dfile.Close()
dfile.WriteString(fmt.Sprintf("#size: %d\n", size))
dfile.WriteString(fmt.Sprintf("#sample: %d\n", sample))
dfile.WriteString(fmt.Sprintf("#length: %d\n", length))
dfile.WriteString(fmt.Sprintf("#fragment: %d\n", fragment))
dfile.WriteString(fmt.Sprintf("#repeats: %d\n", repeats))
dfile.WriteString(fmt.Sprintf("#maxl: %d\n", maxl))
dfile.WriteString(fmt.Sprintf("#mutation: %g\n", mutation))
dfile.WriteString(fmt.Sprintf("#transfer: %g\n", transfer))
dfile.WriteString("#ks, vd\n")
runtime.GOMAXPROCS(runtime.NumCPU())
t0 := time.Now()
for c := 0; c < repeats; c++ {
w := coals.NewWFPopulation(size, sample, length, mutation, transfer, fragment)
w.Seed(c)
w.Backtrace()
seqs := w.Fortrace()
diffmatrix := [][]int{}
for i := 0; i < sample; i++ {
for j := i + 1; j < sample; j++ {
diff := []int{}
for k := 0; k < length; k++ {
if seqs[i][k] != seqs[j][k] {
diff = append(diff, k)
}
}
diffmatrix = append(diffmatrix, diff)
}
}
cmatrix := covs.NewCMatrix(len(diffmatrix), length, diffmatrix)
ks, vd := cmatrix.D()
dfile.WriteString(fmt.Sprintf("%g,%g\n", ks, vd))
scovs, rcovs, xyPL, xsysPL, smXYPL := cmatrix.CovCircle(maxl)
for l := 0; l < maxl; l++ {
means[0][l].Increment(scovs[l])
means[1][l].Increment(rcovs[l])
means[2][l].Increment(xyPL[l])
means[3][l].Increment(xsysPL[l])
means[4][l].Increment(smXYPL[l])
sds[0][l].Increment(scovs[l])
sds[1][l].Increment(rcovs[l])
sds[2][l].Increment(xyPL[l])
sds[3][l].Increment(xsysPL[l])
sds[4][l].Increment(smXYPL[l])
}
if (c+1)%(repeats/100) == 0 {
t1 := time.Now()
fmt.Printf("%d%%,%v\n", (c+1)/(repeats/100), t1.Sub(t0))
covfile, err := os.Create(prefix + "_covs.csv")
if err != nil {
fmt.Println(err)
}
covfile.WriteString(fmt.Sprintf("#size: %d\n", size))
covfile.WriteString(fmt.Sprintf("#sample: %d\n", sample))
covfile.WriteString(fmt.Sprintf("#length: %d\n", length))
covfile.WriteString(fmt.Sprintf("#fragment: %d\n", fragment))
covfile.WriteString(fmt.Sprintf("#repeats: %d\n", repeats))
covfile.WriteString(fmt.Sprintf("#maxl: %d\n", maxl))
covfile.WriteString(fmt.Sprintf("#mutation: %g\n", mutation))
covfile.WriteString(fmt.Sprintf("#transfer: %g\n", transfer))
covfile.WriteString("#dist, scov, rcov, xy, xsys, smxy, scov_sd, rcov_sd, xy_sd, xsys_sd, smxy_sd\n")
for i := 0; i < maxl; i++ {
covfile.WriteString(fmt.Sprintf("%d,%g,%g,%g,%g,%g,%g,%g,%g,%g,%g\n",
i,
means[0][i].GetResult(),
means[1][i].GetResult(),
means[2][i].GetResult(),
means[3][i].GetResult(),
means[4][i].GetResult(),
sds[0][i].GetResult()/math.Sqrt(float64(repeats)),
sds[1][i].GetResult()/math.Sqrt(float64(repeats)),
sds[2][i].GetResult()/math.Sqrt(float64(repeats)),
sds[3][i].GetResult()/math.Sqrt(float64(repeats)),
sds[4][i].GetResult()/math.Sqrt(float64(repeats)),
))
}
covfile.Close()
}
}
covfile, err := os.Create(prefix + "_covs.csv")
if err != nil {
fmt.Println(err)
}
defer covfile.Close()
covfile.WriteString(fmt.Sprintf("#size: %d\n", size))
covfile.WriteString(fmt.Sprintf("#sample: %d\n", sample))
covfile.WriteString(fmt.Sprintf("#length: %d\n", length))
covfile.WriteString(fmt.Sprintf("#fragment: %d\n", fragment))
covfile.WriteString(fmt.Sprintf("#repeats: %d\n", repeats))
covfile.WriteString(fmt.Sprintf("#maxl: %d\n", maxl))
covfile.WriteString(fmt.Sprintf("#mutation: %g\n", mutation))
covfile.WriteString(fmt.Sprintf("#transfer: %g\n", transfer))
covfile.WriteString("#dist, scov, rcov, xy, xsys, smxy, scov_sd, rcov_sd, xy_sd, xsys_sd, smxy_sd\n")
for i := 0; i < maxl; i++ {
covfile.WriteString(fmt.Sprintf("%d,%g,%g,%g,%g,%g,%g,%g,%g,%g,%g\n",
i,
means[0][i].GetResult(),
means[1][i].GetResult(),
means[2][i].GetResult(),
means[3][i].GetResult(),
means[4][i].GetResult(),
sds[0][i].GetResult()/math.Sqrt(float64(repeats)),
sds[1][i].GetResult()/math.Sqrt(float64(repeats)),
sds[2][i].GetResult()/math.Sqrt(float64(repeats)),
sds[3][i].GetResult()/math.Sqrt(float64(repeats)),
sds[4][i].GetResult()/math.Sqrt(float64(repeats)),
))
}
}
func TestEvolve(t *testing.T) {
// population parameter
var (
numofgens, samplesize int
size, length, fragment int
mutation, transfer float64
pop *SeqPop
ksmean *desc.Mean
ksvar *desc.Variance
expectedKS, tolerance float64
)
samplesize = 100
size = 1000
length = 1000
mutation = 1e-4
fragment = 100
fmt.Println("--Population parameters:")
fmt.Printf("---Size: %d\n", size)
fmt.Printf("---Genome Length: %d\n", length)
fmt.Printf("---Mutation rate: %g\n", mutation)
fmt.Printf("---Transferred fragment: %d\n", fragment)
fmt.Println("--Test no horizontal transfer")
transfer = 0
pop = NewSeqPop(size, length, mutation, transfer, fragment)
ksmean = desc.NewMean()
ksvar = desc.NewVariance()
numofgens = 100
for {
for i := 0; i < numofgens; i++ {
pop.Evolve()
sample := Sample(pop.Genomes, samplesize)
dmatrix := GenerateDistanceMatrix(sample)
cmatrix := covs.NewCMatrix(samplesize, length, dmatrix)
ks, _ := cmatrix.D()
ksmean.Increment(ks)
ksvar.Increment(ks)
}
expectedKS = covs.CalculateKS(size, mutation, transfer, fragment, 4)
tolerance = math.Sqrt(ksvar.GetResult())
if math.Abs(ksmean.GetResult()-expectedKS) > tolerance {
if numofgens < 10000 {
numofgens *= 10
fmt.Printf("try %d generation again ...\n", numofgens)
} else {
t.Errorf("ks = %g, with tolerance = %g, expect %g\n", ksmean.GetResult(), tolerance, expectedKS)
}
} else {
break
}
}
fmt.Println("--Test horizontal transfer with same rate as mutation")
transfer = mutation
pop = NewSeqPop(size, length, mutation, transfer, fragment)
ksmean = desc.NewMean()
ksvar = desc.NewVariance()
numofgens = 100
for {
for i := 0; i < numofgens; i++ {
pop.Evolve()
sample := Sample(pop.Genomes, samplesize)
dmatrix := GenerateDistanceMatrix(sample)
cmatrix := covs.NewCMatrix(samplesize, length, dmatrix)
ks, _ := cmatrix.D()
ksmean.Increment(ks)
ksvar.Increment(ks)
}
expectedKS = covs.CalculateKS(size, mutation, transfer, fragment, 4)
tolerance = math.Sqrt(ksvar.GetResult())
if math.Abs(ksmean.GetResult()-expectedKS) > tolerance {
if numofgens < 10000 {
numofgens *= 10
fmt.Printf("try %d generation again ...\n", numofgens)
} else {
t.Errorf("ks = %g, with tolerance = %g, expect %g\n", ksmean.GetResult(), tolerance, expectedKS)
}
} else {
break
}
}
fmt.Println("--Test horizontal transfer with 100 times of mutation rate")
transfer = mutation * 100.0
pop = NewSeqPop(size, length, mutation, transfer, fragment)
ksmean = desc.NewMean()
ksvar = desc.NewVariance()
numofgens = 100
for {
for i := 0; i < numofgens; i++ {
pop.Evolve()
sample := Sample(pop.Genomes, samplesize)
dmatrix := GenerateDistanceMatrix(sample)
cmatrix := covs.NewCMatrix(samplesize, length, dmatrix)
ks, _ := cmatrix.D()
ksmean.Increment(ks)
ksvar.Increment(ks)
}
expectedKS = covs.CalculateKS(size, mutation, transfer, fragment, 4)
tolerance = math.Sqrt(ksvar.GetResult())
if math.Abs(ksmean.GetResult()-expectedKS) > tolerance {
if numofgens < 10000 {
numofgens *= 10
fmt.Printf("try %d generation again ...\n", numofgens)
} else {
t.Errorf("ks = %g, with tolerance = %g, expect %g\n", ksmean.GetResult(), tolerance, expectedKS)
}
} else {
break
}
}
}
