#include <AFSymMatrix.hpp>
Inheritance diagram for AFSymMatrix:
Purpose: Preparing the abstract interface of a general Matrix,....
Public Methods | |
AFSymMatrix (int w) | |
virtual | ~AFSymMatrix () |
virtual AFSymMatrix * | copyAnn () |
virtual AFSymMatrix * | copyFull () |
virtual FDiagonalMatrix * | copyDiagonal () |
virtual AFSymMatrix * | copyL0 () |
virtual AFSymMatrix * | copyU0 () |
virtual AFSymMatrix * | copyL () |
virtual AFSymMatrix * | copyU () |
virtual AFSymMatrix * | copyL1 () |
virtual AFSymMatrix * | copyU1 () |
virtual int | getWidth () const |
virtual int | getHeight () const |
virtual void | setAll (AFloatMatrix *from, bool t=false) |
virtual void | setAll (float value=0.0) |
virtual AFSymMatrix * | add_A_B (AFSymMatrix *B, AFSymMatrix *result=0) |
virtual AFSymMatrix * | add_B_A (AFSymMatrix *B, AFSymMatrix *result=0) |
virtual AFSymMatrix * | subst_A_B (AFSymMatrix *B, AFSymMatrix *result=0) |
virtual AFSymMatrix * | subst_B_A (AFSymMatrix *B, AFSymMatrix *result=0) |
virtual AFSymMatrix * | mult_A_B (AFSymMatrix *B, AFSymMatrix *result=0) |
virtual AFSymMatrix * | mult_B_A (AFSymMatrix *B, AFSymMatrix *result=0) |
virtual FloatVector * | solve (FloatVector *b, FloatVector *x=0) |
virtual AFSymMatrix * | invert () |
virtual AFSymMatrix * | jacobiMatrix () |
virtual FloatVector * | jacobiVector (FloatVector *b) |
virtual FloatVector * | linearSolverU0 (FloatVector *b, FloatVector *x=0) |
virtual FloatVector * | linearSolverU0 (FloatVector *b, int k, FloatVector *x) |
virtual FloatVector * | linearSolverU1 (FloatVector *b, FloatVector *x=0) |
virtual FloatVector * | linearSolverL0 (FloatVector *b, FloatVector *x=0) |
virtual FloatVector * | linearSolverL1 (FloatVector *b, FloatVector *x=0) |
virtual AFSymMatrix * | inverseSPD (AFSymMatrix *result=0) |
virtual FloatVector * | linearSolverL1U0 (FloatVector *b, FloatVector *x=0) |
virtual FloatVector * | linearSolverL0U1 (FloatVector *b, FloatVector *x=0) |
virtual FloatVector * | linearSolverLLt (FloatVector *b, FloatVector *x=0) |
virtual FloatVector * | linearSolverUUt (FloatVector *b, FloatVector *x=0) |
virtual FloatVector * | linearSolverL1DL1t (FloatVector *b, FloatVector *x=0) |
virtual FloatVector * | linearSolverU1DU1t (FloatVector *b, FloatVector *x=0) |
virtual AFSymMatrix * | factorisationL1U0 () |
virtual AFSymMatrix * | factorisationL0U1 () |
virtual AFSymMatrix * | factorisationLLt () |
virtual AFSymMatrix * | factorisationUUt () |
virtual AFSymMatrix * | factorisationL1DL1t () |
virtual AFSymMatrix * | factorisationU1DU1t () |
virtual AFSymMatrix * | choleskyUDUt (AFSymMatrix *result=0) |
virtual AFSymMatrix * | inverseUDUt (AFSymMatrix *result=0) |
virtual AFloatMatrix * | ilu0 () |
virtual AFloatMatrix * | milu0 () |
virtual AFloatMatrix * | rilu0 (float omega=0.95) |
virtual AFloatMatrix * | iluth (double threshold=0.001) |
virtual AFloatMatrix * | ilut (int p, double eps) |
virtual AFloatMatrix * | icf () |
virtual AFloatMatrix * | ildlt () |
virtual FDiagonalMatrix * | jacobiPrecond (FDiagonalMatrix *S=0) |
virtual void | sor (double omega, AFSymMatrix **R=0, AFSymMatrix **T=0) |
virtual AFProductSeqSMatrix * | ssorFactorisation () |
virtual void | ssor (double omega, AFSymMatrix **R=0, FDiagonalMatrix **S=0, AFSymMatrix **T=0) |
virtual void | ssorSPD (double omega, AFSymMatrix **R=0, FDiagonalMatrix **S=0) |
virtual void | ssorScaled (double omega, float *cste, AFSymMatrix **R=0, AFSymMatrix **T=0) |
virtual void | ssorScaledSPD (double omega, float *cste, AFSymMatrix **R=0) |
virtual AFloatMatrix * | apinv (int iterOuter, int iterInner) |
virtual FloatVector * | gaussSeidelLS (int iterMax, FloatVector *b, FloatVector *x=0) |
virtual FloatVector * | jacobiLS (int iterMax, FloatVector *b, FloatVector *x=0) |
virtual FloatVector * | sorLS (int iterMax, FloatVector *b, float omega=1.0, FloatVector *x=0) |
virtual FloatVector * | gaussSeidel (FloatVector *b, FloatVector *x=0) |
virtual FloatVector * | jacobi (FloatVector *b, FloatVector *x=0, FloatVector *dest=0) |
virtual FloatVector * | sor (FloatVector *b, float omega=1.0, FloatVector *x=0) |
virtual FloatVector * | power (int nmax, float *firstEigenValue, FloatVector *evMax0=0) |
virtual FloatVector * | inverseIteration (double eigenvalue, int nmax=3, FloatVector *ev=0) |
virtual float | rayleighQuotient (FloatVector *ev=0) |
virtual void | output () |
virtual void | output (FILE *file) |
Protected Attributes | |
int | width |