Package pal.substmodel
Class SubstitutionTool
java.lang.Object
pal.substmodel.SubstitutionTool
-
Constructor Summary
Constructors -
Method Summary
Modifier and TypeMethodDescriptionstatic final RateMatrixcreateF81Matrix(double[] baseFrequencies) Create an F81 model of substitutionstatic final SubstitutionModelcreateF81Model(double[] baseFrequencies) Create an F81 model of substitutionstatic final RateMatrixcreateF84Matrix(double expectedTsTv, double[] baseFrequencies) Create an F84 model of substitutionstatic final SubstitutionModelcreateF84Model(double expectedTsTv, double[] baseFrequencies) Create an F84 model of substitutionstatic final RateMatrixcreateGTRMatrix(double a, double b, double c, double d, double e, double[] baseFrequencies) Create an GTR model of substitutionstatic final SubstitutionModelcreateGTRModel(double a, double b, double c, double d, double e, double[] baseFrequencies) Create an GTR model of substitutionstatic final RateMatrixCreate a Jukes-cantor model of substitutionstatic final SubstitutionModelCreate a Jukes-cantor model of substitutionstatic final SubstitutionModelcreateM0YangCodonModel(double kappa, double omega, double[] baseFrequencies) Create an base Yang Codon model (M0) of substitutionstatic final SubstitutionModelcreateM1YangCodonModel(double kappa, double p0, double[] baseFrequencies) Create an neutral Yang Codon model (M1) of substitutionstatic final SubstitutionModelcreateM2YangCodonModel(double kappa, double p0, double p1, double omega, double[] baseFrequencies) Create an Positive Yang Codon model (M2) of substitutionstatic final RateMatrixcreateTNMatrix(double kappa, double r, double[] baseFrequencies) Create an Tamura-Nei model of substitutionstatic final SubstitutionModelcreateTNModel(double kappa, double r, double[] baseFrequencies) Create an Tamura-Nei model of substitution
-
Constructor Details
-
SubstitutionTool
public SubstitutionTool()
-
-
Method Details
-
createJC69Model
Create a Jukes-cantor model of substitution- Returns:
- A substitution model representing JC69
-
createJC69Matrix
Create a Jukes-cantor model of substitution- Returns:
- A rate matrix representing JC69
-
createF81Model
Create an F81 model of substitution- Parameters:
baseFrequencies- The equilibrium frequencies of the four nucleotide bases (ordered A, G, C, T)- Returns:
- The related substitution model
-
createF81Matrix
Create an F81 model of substitution- Parameters:
baseFrequencies- The equilibrium frequencies of the four nucleotide bases (ordered A, G, C, T)- Returns:
- The related ratematrix
-
createF84Model
Create an F84 model of substitution- Parameters:
expectedTsTv- The expected ratio of transition to transversionsbaseFrequencies- The equilibrium frequencies of the four nucleotide bases (ordered A, G, C, T)- Returns:
- The related substitution model
-
createF84Matrix
Create an F84 model of substitution- Parameters:
expectedTsTv- The expected ratio of transition to transversionsbaseFrequencies- The equilibrium frequencies of the four nucleotide bases (ordered A, G, C, T)- Returns:
- The related ratematrix
-
createTNModel
public static final SubstitutionModel createTNModel(double kappa, double r, double[] baseFrequencies) Create an Tamura-Nei model of substitution- Parameters:
kappa- transition/transversion rate ratior- pyrimidine/purin transition rate ratiobaseFrequencies- The equilibrium frequencies of the four nucleotide bases (ordered A, G, C, T)- Returns:
- The related substitution model
-
createTNMatrix
Create an Tamura-Nei model of substitution- Parameters:
kappa- transition/transversion rate ratior- pyrimidine/purin transition rate ratiobaseFrequencies- The equilibrium frequencies of the four nucleotide bases (ordered A, G, C, T)- Returns:
- The related ratematrix
-
createGTRModel
public static final SubstitutionModel createGTRModel(double a, double b, double c, double d, double e, double[] baseFrequencies) Create an GTR model of substitution- Parameters:
a- entry in rate matrixb- entry in rate matrixc- entry in rate matrixd- entry in rate matrixe- entry in rate matrixbaseFrequencies- The equilibrium frequencies of the four nucleotide bases (ordered A, G, C, T)- Returns:
- The related substitution model
-
createGTRMatrix
public static final RateMatrix createGTRMatrix(double a, double b, double c, double d, double e, double[] baseFrequencies) Create an GTR model of substitution- Parameters:
a- entry in rate matrixb- entry in rate matrixc- entry in rate matrixd- entry in rate matrixe- entry in rate matrixbaseFrequencies- The equilibrium frequencies of the four nucleotide bases (ordered A, G, C, T)- Returns:
- The related ratematrix
-
createM0YangCodonModel
public static final SubstitutionModel createM0YangCodonModel(double kappa, double omega, double[] baseFrequencies) Create an base Yang Codon model (M0) of substitution- Parameters:
kappa- transition/transversion rate ratioomega- non-synonymous/synonymous rate ratiobaseFrequencies- The equilibrium frequencies of the 64 codon bases (zero for stop codons please)- Returns:
- The related substitution model
-
createM1YangCodonModel
public static final SubstitutionModel createM1YangCodonModel(double kappa, double p0, double[] baseFrequencies) Create an neutral Yang Codon model (M1) of substitution- Parameters:
kappa- transition/transversion rate ratiop0- The proporition under purifying selectionbaseFrequencies- The equilibrium frequencies of the 64 codon bases (zero for stop codons please)- Returns:
- The related substitution model
-
createM2YangCodonModel
public static final SubstitutionModel createM2YangCodonModel(double kappa, double p0, double p1, double omega, double[] baseFrequencies) Create an Positive Yang Codon model (M2) of substitution- Parameters:
kappa- transition/transversion rate ratiop0- The proporition under purifying selectionp1- The proporition under neutral selectionomega- The free omegabaseFrequencies- The equilibrium frequencies of the 64 codon bases (zero for stop codons please)- Returns:
- The related substitution model
-