use of dr.evomodel.substmodel.nucleotide.HKY in project beast-mcmc by beast-dev.
the class BeagleTreeLikelihood method main.
public static void main(String[] args) {
try {
MathUtils.setSeed(666);
System.out.println("Test case 1: simulateOnePartition");
int sequenceLength = 1000;
ArrayList<Partition> partitionsList = new ArrayList<Partition>();
// create tree
NewickImporter importer = new NewickImporter("(SimSeq1:73.7468,(SimSeq2:25.256989999999995,SimSeq3:45.256989999999995):18.48981);");
Tree tree = importer.importTree(null);
TreeModel treeModel = new TreeModel(tree);
// create Frequency Model
Parameter freqs = new Parameter.Default(new double[] { 0.25, 0.25, 0.25, 0.25 });
FrequencyModel freqModel = new FrequencyModel(Nucleotides.INSTANCE, freqs);
// create branch model
Parameter kappa1 = new Parameter.Default(1, 1);
Parameter kappa2 = new Parameter.Default(1, 1);
HKY hky1 = new HKY(kappa1, freqModel);
HKY hky2 = new HKY(kappa2, freqModel);
HomogeneousBranchModel homogenousBranchSubstitutionModel = new HomogeneousBranchModel(hky1);
List<SubstitutionModel> substitutionModels = new ArrayList<SubstitutionModel>();
substitutionModels.add(hky1);
substitutionModels.add(hky2);
List<FrequencyModel> freqModels = new ArrayList<FrequencyModel>();
freqModels.add(freqModel);
Parameter epochTimes = new Parameter.Default(1, 20);
// create branch rate model
Parameter rate = new Parameter.Default(1, 0.001);
BranchRateModel branchRateModel = new StrictClockBranchRates(rate);
// create site model
GammaSiteRateModel siteRateModel = new GammaSiteRateModel("siteModel");
BranchModel homogeneousBranchModel = new HomogeneousBranchModel(hky1);
BranchModel epochBranchModel = new EpochBranchModel(treeModel, substitutionModels, epochTimes);
// create partition
Partition partition1 = new //
Partition(//
treeModel, //
homogenousBranchSubstitutionModel, //
siteRateModel, //
branchRateModel, //
freqModel, // from
0, // to
sequenceLength - 1, // every
1);
partitionsList.add(partition1);
// feed to sequence simulator and generate data
BeagleSequenceSimulator simulator = new BeagleSequenceSimulator(partitionsList);
Alignment alignment = simulator.simulate(false, false);
BeagleTreeLikelihood nbtl = new BeagleTreeLikelihood(alignment, treeModel, homogeneousBranchModel, siteRateModel, branchRateModel, null, false, PartialsRescalingScheme.DEFAULT, false);
System.out.println("nBTL(homogeneous) = " + nbtl.getLogLikelihood());
nbtl = new BeagleTreeLikelihood(alignment, treeModel, epochBranchModel, siteRateModel, branchRateModel, null, false, PartialsRescalingScheme.DEFAULT, false);
System.out.println("nBTL(epoch) = " + nbtl.getLogLikelihood());
} catch (Exception e) {
e.printStackTrace();
System.exit(-1);
}
// END: try-catch block
}
use of dr.evomodel.substmodel.nucleotide.HKY in project beast-mcmc by beast-dev.
the class DataLikelihoodTester2 method main.
public static void main(String[] args) {
// turn off logging to avoid screen noise...
Logger logger = Logger.getLogger("dr");
logger.setUseParentHandlers(false);
SimpleAlignment alignment = createAlignment(sequences, Nucleotides.INSTANCE);
TreeModel treeModel;
try {
treeModel = createSpecifiedTree("((human:0.1,chimp:0.1):0.1,gorilla:0.2)");
} catch (Exception e) {
throw new RuntimeException("Unable to parse Newick tree");
}
System.out.print("\nTest BeagleTreeLikelihood (kappa = 1): ");
// substitutionModel
Parameter freqs = new Parameter.Default(new double[] { 0.25, 0.25, 0.25, 0.25 });
Parameter kappa = new Parameter.Default(HKYParser.KAPPA, 1.0, 0, 100);
FrequencyModel f = new FrequencyModel(Nucleotides.INSTANCE, freqs);
HKY hky = new HKY(kappa, f);
// siteModel
double alpha = 0.5;
GammaSiteRateModel siteRateModel = new GammaSiteRateModel("gammaModel", alpha, 4);
// GammaSiteRateModel siteRateModel = new GammaSiteRateModel("siteRateModel");
siteRateModel.setSubstitutionModel(hky);
Parameter mu = new Parameter.Default(GammaSiteModelParser.SUBSTITUTION_RATE, 1.0, 0, Double.POSITIVE_INFINITY);
siteRateModel.setRelativeRateParameter(mu);
FrequencyModel f2 = new FrequencyModel(Nucleotides.INSTANCE, freqs);
Parameter kappa2 = new Parameter.Default(HKYParser.KAPPA, 10.0, 0, 100);
HKY hky2 = new HKY(kappa2, f2);
GammaSiteRateModel siteRateModel2 = new GammaSiteRateModel("gammaModel", alpha, 4);
siteRateModel2.setSubstitutionModel(hky2);
siteRateModel2.setRelativeRateParameter(mu);
// treeLikelihood
SitePatterns patterns = new SitePatterns(alignment, null, 0, -1, 1, true);
BranchModel branchModel = new HomogeneousBranchModel(siteRateModel.getSubstitutionModel(), siteRateModel.getSubstitutionModel().getFrequencyModel());
BranchModel branchModel2 = new HomogeneousBranchModel(siteRateModel2.getSubstitutionModel(), siteRateModel2.getSubstitutionModel().getFrequencyModel());
BranchRateModel branchRateModel = new DefaultBranchRateModel();
BeagleTreeLikelihood treeLikelihood = new BeagleTreeLikelihood(patterns, treeModel, branchModel, siteRateModel, branchRateModel, null, false, PartialsRescalingScheme.AUTO, true);
double logLikelihood = treeLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
System.out.print("\nTest BeagleDataLikelihoodDelegate (kappa = 1): ");
BeagleDataLikelihoodDelegate dataLikelihoodDelegate = new BeagleDataLikelihoodDelegate(treeModel, patterns, branchModel, siteRateModel, false, false, PartialsRescalingScheme.NONE, false, PreOrderSettings.getDefault());
TreeDataLikelihood treeDataLikelihood = new TreeDataLikelihood(dataLikelihoodDelegate, treeModel, branchRateModel);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
hky.setKappa(5.0);
System.out.print("\nTest BeagleDataLikelihoodDelegate (kappa = 5): ");
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
System.out.print("\nTest BeagleDataLikelihoodDelegate (kappa = 10): ");
dataLikelihoodDelegate = new BeagleDataLikelihoodDelegate(treeModel, patterns, branchModel2, siteRateModel2, false, false, PartialsRescalingScheme.NONE, false, PreOrderSettings.getDefault());
treeDataLikelihood = new TreeDataLikelihood(dataLikelihoodDelegate, treeModel, branchRateModel);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
hky2.setKappa(11.0);
System.out.print("\nTest BeagleDataLikelihoodDelegate (kappa = 11): ");
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
hky.setKappa(1.0);
hky2.setKappa(10.0);
MultiPartitionDataLikelihoodDelegate multiPartitionDataLikelihoodDelegate;
System.out.print("\nTest MultiPartitionDataLikelihoodDelegate 1 partition (kappa = 1):");
try {
multiPartitionDataLikelihoodDelegate = new MultiPartitionDataLikelihoodDelegate(treeModel, Collections.singletonList((PatternList) patterns), Collections.singletonList((BranchModel) branchModel), Collections.singletonList((SiteRateModel) siteRateModel), true, PartialsRescalingScheme.NONE, false);
treeDataLikelihood = new TreeDataLikelihood(multiPartitionDataLikelihoodDelegate, treeModel, branchRateModel);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
} catch (DataLikelihoodDelegate.DelegateTypeException dte) {
System.out.print("Failed to create multiPartitionDataLikelihoodDelegate instance (wrong resource type or no partitions, needs to be CUDA or OpenCL device with multiple partitions)");
}
hky.setKappa(5.0);
System.out.print("\nTest MultiPartitionDataLikelihoodDelegate 1 partition (kappa = 5):");
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
hky.setKappa(1.0);
System.out.print("\nTest MultiPartitionDataLikelihoodDelegate 1 partition (kappa = 10):");
try {
multiPartitionDataLikelihoodDelegate = new MultiPartitionDataLikelihoodDelegate(treeModel, Collections.singletonList((PatternList) patterns), Collections.singletonList((BranchModel) branchModel2), Collections.singletonList((SiteRateModel) siteRateModel2), true, PartialsRescalingScheme.NONE, false);
treeDataLikelihood = new TreeDataLikelihood(multiPartitionDataLikelihoodDelegate, treeModel, branchRateModel);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
} catch (DataLikelihoodDelegate.DelegateTypeException dte) {
System.out.print("Failed to create multiPartitionDataLikelihoodDelegate instance (wrong resource type or no partitions, needs to be CUDA or OpenCL device with multiple partitions)");
}
System.out.print("\nTest MultiPartitionDataLikelihoodDelegate 2 partitions (kappa = 1, 10): ");
List<PatternList> patternLists = new ArrayList<PatternList>();
patternLists.add(patterns);
patternLists.add(patterns);
List<SiteRateModel> siteRateModels = new ArrayList<SiteRateModel>();
siteRateModels.add(siteRateModel);
siteRateModels.add(siteRateModel2);
List<BranchModel> branchModels = new ArrayList<BranchModel>();
branchModels.add(branchModel);
branchModels.add(branchModel2);
try {
multiPartitionDataLikelihoodDelegate = new MultiPartitionDataLikelihoodDelegate(treeModel, patternLists, branchModels, siteRateModels, true, PartialsRescalingScheme.NONE, false);
treeDataLikelihood = new TreeDataLikelihood(multiPartitionDataLikelihoodDelegate, treeModel, branchRateModel);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + " (NOT OK: this is 2x the logLikelihood of the 2nd partition)\n\n");
} catch (DataLikelihoodDelegate.DelegateTypeException dte) {
System.out.print("Failed to create multiPartitionDataLikelihoodDelegate instance (wrong resource type or no partitions, needs to be CUDA or OpenCL device with multiple partitions)");
}
System.exit(0);
// START ADDITIONAL TEST #1 - Guy Baele
System.out.println("-- Test #1 SiteRateModels -- ");
// alpha in partition 1 reject followed by alpha in partition 2 reject
System.out.print("Adjust alpha in partition 1: ");
siteRateModel.setAlpha(0.4);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
System.out.print("Return alpha in partition 1 to original value: ");
siteRateModel.setAlpha(0.5);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + " (i.e. reject: OK)\n");
System.out.print("Adjust alpha in partition 2: ");
siteRateModel2.setAlpha(0.35);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
System.out.print("Return alpha in partition 2 to original value: ");
siteRateModel2.setAlpha(0.5);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + " (i.e. reject: OK)\n");
// alpha in partition 1 accept followed by alpha in partition 2 accept
System.out.print("Adjust alpha in partition 1: ");
siteRateModel.setAlpha(0.4);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
System.out.print("Adjust alpha in partition 2: ");
siteRateModel2.setAlpha(0.35);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + " (NOT OK: same logLikelihood as only setting alpha in partition 2)");
System.out.print("Return alpha in partition 1 to original value: ");
siteRateModel.setAlpha(0.5);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + " (NOT OK: alpha in partition 2 has not been returned to original value yet)");
System.out.print("Return alpha in partition 2 to original value: ");
siteRateModel2.setAlpha(0.5);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + "\n");
// adjusting alphas in both partitions without explicitly calling getLogLikelihood() in between
System.out.print("Adjust both alphas in partitions 1 and 2: ");
siteRateModel.setAlpha(0.4);
siteRateModel2.setAlpha(0.35);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
System.out.print("Return alpha in partition 2 to original value: ");
siteRateModel2.setAlpha(0.5);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + " (NOT OK: alpha in partition 1 has not been returned to original value yet)");
System.out.print("Return alpha in partition 1 to original value: ");
siteRateModel.setAlpha(0.5);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + "\n\n");
// END ADDITIONAL TEST - Guy Baele
// START ADDITIONAL TEST #2 - Guy Baele
System.out.println("-- Test #2 SiteRateModels -- ");
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
// 1 siteRateModel shared across 2 partitions
siteRateModels = new ArrayList<SiteRateModel>();
siteRateModels.add(siteRateModel);
try {
multiPartitionDataLikelihoodDelegate = new MultiPartitionDataLikelihoodDelegate(treeModel, patternLists, branchModels, siteRateModels, true, PartialsRescalingScheme.NONE, false);
treeDataLikelihood = new TreeDataLikelihood(multiPartitionDataLikelihoodDelegate, treeModel, branchRateModel);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + "\n");
System.out.print("Adjust alpha in shared siteRateModel: ");
siteRateModel.setAlpha(0.4);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + " (NOT OK: same logLikelihood as only adjusted alpha for partition 1)");
siteRateModel.setAlpha(0.5);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + "\n\n");
} catch (DataLikelihoodDelegate.DelegateTypeException dte) {
System.out.print("Failed to create multiPartitionDataLikelihoodDelegate instance (wrong resource type or no partitions, needs to be CUDA or OpenCL device with multiple partitions)");
}
// END ADDITIONAL TEST - Guy Baele
// START ADDITIONAL TEST #3 - Guy Baele
System.out.println("-- Test #3 SiteRateModels -- ");
siteRateModel = new GammaSiteRateModel("gammaModel");
siteRateModel.setSubstitutionModel(hky);
siteRateModel.setRelativeRateParameter(mu);
siteRateModel2 = new GammaSiteRateModel("gammaModel2");
siteRateModel2.setSubstitutionModel(hky2);
siteRateModel2.setRelativeRateParameter(mu);
siteRateModels = new ArrayList<SiteRateModel>();
siteRateModels.add(siteRateModel);
siteRateModels.add(siteRateModel2);
try {
multiPartitionDataLikelihoodDelegate = new MultiPartitionDataLikelihoodDelegate(treeModel, patternLists, branchModels, siteRateModels, true, PartialsRescalingScheme.NONE, false);
treeDataLikelihood = new TreeDataLikelihood(multiPartitionDataLikelihoodDelegate, treeModel, branchRateModel);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + "\n");
System.out.print("Adjust kappa in partition 1: ");
hky.setKappa(5.0);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + " (NOT OK: logLikelihood has not changed?)");
System.out.print("Return kappa in partition 1 to original value: ");
hky.setKappa(1.0);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + "\n");
System.out.print("Adjust kappa in partition 2: ");
hky2.setKappa(11.0);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood);
System.out.print("Return kappa in partition 2 to original value: ");
hky2.setKappa(10.0);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.println("logLikelihood = " + logLikelihood + " (i.e. reject: OK)\n\n");
} catch (DataLikelihoodDelegate.DelegateTypeException dte) {
System.out.print("Failed to create multiPartitionDataLikelihoodDelegate instance (wrong resource type or no partitions, needs to be CUDA or OpenCL device with multiple partitions)");
}
// END ADDITIONAL TEST - Guy Baele
// START ADDITIONAL TEST #4 - Guy Baele
System.out.println("-- Test #4 SiteRateModels -- ");
SimpleAlignment secondAlignment = createAlignment(moreSequences, Nucleotides.INSTANCE);
SitePatterns morePatterns = new SitePatterns(secondAlignment, null, 0, -1, 1, true);
BeagleDataLikelihoodDelegate dataLikelihoodDelegateOne = new BeagleDataLikelihoodDelegate(treeModel, patterns, branchModel, siteRateModel, false, false, PartialsRescalingScheme.NONE, false, PreOrderSettings.getDefault());
TreeDataLikelihood treeDataLikelihoodOne = new TreeDataLikelihood(dataLikelihoodDelegateOne, treeModel, branchRateModel);
logLikelihood = treeDataLikelihoodOne.getLogLikelihood();
System.out.println("\nBeagleDataLikelihoodDelegate logLikelihood partition 1 (kappa = 1) = " + logLikelihood);
hky.setKappa(10.0);
logLikelihood = treeDataLikelihoodOne.getLogLikelihood();
System.out.println("BeagleDataLikelihoodDelegate logLikelihood partition 1 (kappa = 10) = " + logLikelihood);
hky.setKappa(1.0);
BeagleDataLikelihoodDelegate dataLikelihoodDelegateTwo = new BeagleDataLikelihoodDelegate(treeModel, morePatterns, branchModel2, siteRateModel2, false, false, PartialsRescalingScheme.NONE, false, PreOrderSettings.getDefault());
TreeDataLikelihood treeDataLikelihoodTwo = new TreeDataLikelihood(dataLikelihoodDelegateTwo, treeModel, branchRateModel);
logLikelihood = treeDataLikelihoodTwo.getLogLikelihood();
System.out.println("BeagleDataLikelihoodDelegate logLikelihood partition 2 (kappa = 10) = " + logLikelihood + "\n");
try {
multiPartitionDataLikelihoodDelegate = new MultiPartitionDataLikelihoodDelegate(treeModel, Collections.singletonList((PatternList) patterns), Collections.singletonList((BranchModel) branchModel), Collections.singletonList((SiteRateModel) siteRateModel), true, PartialsRescalingScheme.NONE, false);
treeDataLikelihood = new TreeDataLikelihood(multiPartitionDataLikelihoodDelegate, treeModel, branchRateModel);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.print("Test MultiPartitionDataLikelihoodDelegate 1st partition (kappa = 1):");
System.out.println("logLikelihood = " + logLikelihood);
hky.setKappa(10.0);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.print("Test MultiPartitionDataLikelihoodDelegate 1st partition (kappa = 10):");
System.out.println("logLikelihood = " + logLikelihood);
} catch (DataLikelihoodDelegate.DelegateTypeException dte) {
System.out.print("Failed to create multiPartitionDataLikelihoodDelegate instance (wrong resource type or no partitions, needs to be CUDA or OpenCL device with multiple partitions)");
}
hky.setKappa(1.0);
try {
multiPartitionDataLikelihoodDelegate = new MultiPartitionDataLikelihoodDelegate(treeModel, Collections.singletonList((PatternList) morePatterns), Collections.singletonList((BranchModel) branchModel2), Collections.singletonList((SiteRateModel) siteRateModel2), true, PartialsRescalingScheme.NONE, false);
treeDataLikelihood = new TreeDataLikelihood(multiPartitionDataLikelihoodDelegate, treeModel, branchRateModel);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.print("Test MultiPartitionDataLikelihoodDelegate 2nd partition (kappa = 10):");
System.out.println("logLikelihood = " + logLikelihood + "\n");
} catch (DataLikelihoodDelegate.DelegateTypeException dte) {
System.out.print("Failed to create multiPartitionDataLikelihoodDelegate instance (wrong resource type or no partitions, needs to be CUDA or OpenCL device with multiple partitions)");
}
patternLists = new ArrayList<PatternList>();
patternLists.add(patterns);
patternLists.add(morePatterns);
try {
multiPartitionDataLikelihoodDelegate = new MultiPartitionDataLikelihoodDelegate(treeModel, patternLists, branchModels, siteRateModels, true, PartialsRescalingScheme.NONE, false);
treeDataLikelihood = new TreeDataLikelihood(multiPartitionDataLikelihoodDelegate, treeModel, branchRateModel);
logLikelihood = treeDataLikelihood.getLogLikelihood();
System.out.print("Test MultiPartitionDataLikelihoodDelegate 2 partitions (kappa = 1, 10): ");
System.out.println("logLikelihood = " + logLikelihood + " (NOT OK: should be the sum of both separate logLikelihoods)\nKappa value of partition 2 is used to compute logLikelihood for both partitions?");
} catch (DataLikelihoodDelegate.DelegateTypeException dte) {
System.out.print("Failed to create multiPartitionDataLikelihoodDelegate instance (wrong resource type or no partitions, needs to be CUDA or OpenCL device with multiple partitions)");
}
// END ADDITIONAL TEST - Guy Baele
}
use of dr.evomodel.substmodel.nucleotide.HKY in project beast-mcmc by beast-dev.
the class PartitionData method createBranchModel.
public BranchModel createBranchModel() {
BranchModel branchModel = null;
if (this.substitutionModelIndex == 0) {
// HKY
Parameter kappa = new Parameter.Default(1, substitutionParameterValues[0]);
FrequencyModel frequencyModel = this.createFrequencyModel();
HKY hky = new HKY(kappa, frequencyModel);
branchModel = new HomogeneousBranchModel(hky);
} else if (this.substitutionModelIndex == 1) {
// GTR
Parameter ac = new Parameter.Default(1, substitutionParameterValues[1]);
Parameter ag = new Parameter.Default(1, substitutionParameterValues[2]);
Parameter at = new Parameter.Default(1, substitutionParameterValues[3]);
Parameter cg = new Parameter.Default(1, substitutionParameterValues[4]);
Parameter ct = new Parameter.Default(1, substitutionParameterValues[5]);
Parameter gt = new Parameter.Default(1, substitutionParameterValues[6]);
FrequencyModel frequencyModel = this.createFrequencyModel();
GTR gtr = new GTR(ac, ag, at, cg, ct, gt, frequencyModel);
branchModel = new HomogeneousBranchModel(gtr);
} else if (this.substitutionModelIndex == 2) {
// TN93
Parameter kappa1 = new Parameter.Default(1, substitutionParameterValues[7]);
Parameter kappa2 = new Parameter.Default(1, substitutionParameterValues[8]);
FrequencyModel frequencyModel = this.createFrequencyModel();
TN93 tn93 = new TN93(kappa1, kappa2, frequencyModel);
branchModel = new HomogeneousBranchModel(tn93);
} else if (this.substitutionModelIndex == 3) {
// Yang Codon Model
FrequencyModel frequencyModel = this.createFrequencyModel();
Parameter kappa = new Parameter.Default(1, substitutionParameterValues[9]);
Parameter omega = new Parameter.Default(1, substitutionParameterValues[10]);
GY94CodonModel yangCodonModel = new GY94CodonModel(Codons.UNIVERSAL, omega, kappa, frequencyModel);
branchModel = new HomogeneousBranchModel(yangCodonModel);
} else if (this.substitutionModelIndex == 4) {
// MG94HKYCodonModel
FrequencyModel frequencyModel = this.createFrequencyModel();
Parameter alpha = new Parameter.Default(1, substitutionParameterValues[11]);
Parameter beta = new Parameter.Default(1, substitutionParameterValues[12]);
Parameter kappa = new Parameter.Default(1, substitutionParameterValues[13]);
MG94HKYCodonModel mg94 = new MG94HKYCodonModel(Codons.UNIVERSAL, alpha, beta, kappa, frequencyModel, new CodonOptions());
branchModel = new HomogeneousBranchModel(mg94);
} else if (this.substitutionModelIndex == 5) {
// Blosum62
FrequencyModel frequencyModel = this.createFrequencyModel();
EmpiricalRateMatrix rateMatrix = Blosum62.INSTANCE;
EmpiricalAminoAcidModel empiricalAminoAcidModel = new EmpiricalAminoAcidModel(rateMatrix, frequencyModel);
branchModel = new HomogeneousBranchModel(empiricalAminoAcidModel);
} else if (this.substitutionModelIndex == 6) {
// CPREV
FrequencyModel frequencyModel = this.createFrequencyModel();
EmpiricalRateMatrix rateMatrix = CPREV.INSTANCE;
EmpiricalAminoAcidModel empiricalAminoAcidModel = new EmpiricalAminoAcidModel(rateMatrix, frequencyModel);
branchModel = new HomogeneousBranchModel(empiricalAminoAcidModel);
} else if (this.substitutionModelIndex == 7) {
// Dayhoff
FrequencyModel frequencyModel = this.createFrequencyModel();
EmpiricalRateMatrix rateMatrix = Dayhoff.INSTANCE;
EmpiricalAminoAcidModel empiricalAminoAcidModel = new EmpiricalAminoAcidModel(rateMatrix, frequencyModel);
branchModel = new HomogeneousBranchModel(empiricalAminoAcidModel);
} else if (this.substitutionModelIndex == 8) {
// JTT
FrequencyModel frequencyModel = this.createFrequencyModel();
EmpiricalRateMatrix rateMatrix = JTT.INSTANCE;
EmpiricalAminoAcidModel empiricalAminoAcidModel = new EmpiricalAminoAcidModel(rateMatrix, frequencyModel);
branchModel = new HomogeneousBranchModel(empiricalAminoAcidModel);
} else if (this.substitutionModelIndex == 9) {
// LG
FrequencyModel frequencyModel = this.createFrequencyModel();
EmpiricalRateMatrix rateMatrix = LG.INSTANCE;
EmpiricalAminoAcidModel empiricalAminoAcidModel = new EmpiricalAminoAcidModel(rateMatrix, frequencyModel);
branchModel = new HomogeneousBranchModel(empiricalAminoAcidModel);
} else if (this.substitutionModelIndex == 10) {
// MTREV
FrequencyModel frequencyModel = this.createFrequencyModel();
EmpiricalRateMatrix rateMatrix = MTREV.INSTANCE;
EmpiricalAminoAcidModel empiricalAminoAcidModel = new EmpiricalAminoAcidModel(rateMatrix, frequencyModel);
branchModel = new HomogeneousBranchModel(empiricalAminoAcidModel);
} else if (this.substitutionModelIndex == 11) {
// WAG
FrequencyModel frequencyModel = this.createFrequencyModel();
EmpiricalRateMatrix rateMatrix = WAG.INSTANCE;
EmpiricalAminoAcidModel empiricalAminoAcidModel = new EmpiricalAminoAcidModel(rateMatrix, frequencyModel);
branchModel = new HomogeneousBranchModel(empiricalAminoAcidModel);
} else {
System.out.println("Not yet implemented");
}
return branchModel;
}
use of dr.evomodel.substmodel.nucleotide.HKY in project beast-mcmc by beast-dev.
the class BeagleSeqSimTest method simulateTwoPartitions.
// END: simulateOnePartition
static void simulateTwoPartitions() {
try {
System.out.println("Test case 3: simulateTwoPartitions");
MathUtils.setSeed(666);
int sequenceLength = 11;
ArrayList<Partition> partitionsList = new ArrayList<Partition>();
// create tree
NewickImporter importer = new NewickImporter("(SimSeq1:73.7468,(SimSeq2:25.256989999999995,SimSeq3:45.256989999999995):18.48981);");
Tree tree = importer.importTree(null);
DefaultTreeModel treeModel = new DefaultTreeModel(tree);
// create Frequency Model
Parameter freqs = new Parameter.Default(new double[] { 0.25, 0.25, 0.25, 0.25 });
FrequencyModel freqModel = new FrequencyModel(Nucleotides.INSTANCE, freqs);
// create substitution model
Parameter kappa = new Parameter.Default(1, 10);
HKY hky = new HKY(kappa, freqModel);
HomogeneousBranchModel substitutionModel = new HomogeneousBranchModel(hky);
// create site model
GammaSiteRateModel siteRateModel = new GammaSiteRateModel("siteModel");
// create branch rate model
BranchRateModel branchRateModel = new DefaultBranchRateModel();
// create partition
Partition partition1 = new //
Partition(//
treeModel, //
substitutionModel, //
siteRateModel, //
branchRateModel, //
freqModel, // from
0, // to
3, // every
1);
// create partition
Partition Partition = new //
Partition(//
treeModel, //
substitutionModel, //
siteRateModel, //
branchRateModel, //
freqModel, // from
4, // to
sequenceLength - 1, // every
1);
Sequence ancestralSequence = new Sequence();
ancestralSequence.appendSequenceString("TCAAGTG");
Partition.setRootSequence(ancestralSequence);
partitionsList.add(partition1);
partitionsList.add(Partition);
// feed to sequence simulator and generate data
BeagleSequenceSimulator simulator = new BeagleSequenceSimulator(partitionsList);
System.out.println(simulator.simulate(simulateInPar, false).toString());
} catch (Exception e) {
e.printStackTrace();
System.exit(-1);
}
// END: try-catch block
}
use of dr.evomodel.substmodel.nucleotide.HKY in project beast-mcmc by beast-dev.
the class CompleteHistorySimulatorTest method testHKYSimulation.
public void testHKYSimulation() {
Parameter kappa = new Parameter.Default(1, 2.0);
double[] pi = { 0.45, 0.05, 0.25, 0.25 };
Parameter freqs = new Parameter.Default(pi);
FrequencyModel f = new FrequencyModel(Nucleotides.INSTANCE, freqs);
HKY hky = new HKY(kappa, f);
int stateCount = hky.getDataType().getStateCount();
Parameter mu = new Parameter.Default(1, 0.5);
Parameter alpha = new Parameter.Default(1, 0.5);
GammaSiteRateModel siteModel = new GammaSiteRateModel("gammaModel", mu, alpha, 4, null);
siteModel.setSubstitutionModel(hky);
BranchRateModel branchRateModel = new DefaultBranchRateModel();
double analyticResult = TreeUtils.getTreeLength(tree, tree.getRoot()) * mu.getParameterValue(0);
int nSites = 200;
double[] register1 = new double[stateCount * stateCount];
double[] register2 = new double[stateCount * stateCount];
// Count all jumps
MarkovJumpsCore.fillRegistrationMatrix(register1, stateCount);
// Move some jumps from 1 to 2
register1[1 * stateCount + 2] = 0;
register2[1 * stateCount + 2] = 1;
register1[1 * stateCount + 3] = 0;
register2[1 * stateCount + 3] = 1;
register1[2 * stateCount + 3] = 0;
register2[2 * stateCount + 3] = 1;
runSimulation(tree, siteModel, branchRateModel, nSites, new double[][] { register1, register2 }, analyticResult);
}
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