generalized_eigenvalues_symmetric_matrixT_generalized_eigenvalues_symmetric_matrixGeneralizedEigenvaluesSymmetricMatrixGeneralizedEigenvaluesSymmetricMatrixgeneralized_eigenvalues_symmetric_matrix (算子名称)

名称

generalized_eigenvalues_symmetric_matrixT_generalized_eigenvalues_symmetric_matrixGeneralizedEigenvaluesSymmetricMatrixGeneralizedEigenvaluesSymmetricMatrixgeneralized_eigenvalues_symmetric_matrix — Compute the generalized eigenvalues and optionally generalized eigenvectors of symmetric input matrices.

参数签名

generalized_eigenvalues_symmetric_matrix( : : MatrixAID, MatrixBID, ComputeEigenvectors : EigenvaluesID, EigenvectorsID)

Herror T_generalized_eigenvalues_symmetric_matrix(const Htuple MatrixAID, const Htuple MatrixBID, const Htuple ComputeEigenvectors, Htuple* EigenvaluesID, Htuple* EigenvectorsID)

void GeneralizedEigenvaluesSymmetricMatrix(const HTuple& MatrixAID, const HTuple& MatrixBID, const HTuple& ComputeEigenvectors, HTuple* EigenvaluesID, HTuple* EigenvectorsID)

HMatrix HMatrix::GeneralizedEigenvaluesSymmetricMatrix(const HMatrix& MatrixBID, const HString& ComputeEigenvectors, HMatrix* EigenvectorsID) const

HMatrix HMatrix::GeneralizedEigenvaluesSymmetricMatrix(const HMatrix& MatrixBID, const char* ComputeEigenvectors, HMatrix* EigenvectorsID) const

HMatrix HMatrix::GeneralizedEigenvaluesSymmetricMatrix(const HMatrix& MatrixBID, const wchar_t* ComputeEigenvectors, HMatrix* EigenvectorsID) const   ( Windows only)

static void HOperatorSet.GeneralizedEigenvaluesSymmetricMatrix(HTuple matrixAID, HTuple matrixBID, HTuple computeEigenvectors, out HTuple eigenvaluesID, out HTuple eigenvectorsID)

HMatrix HMatrix.GeneralizedEigenvaluesSymmetricMatrix(HMatrix matrixBID, string computeEigenvectors, out HMatrix eigenvectorsID)

def generalized_eigenvalues_symmetric_matrix(matrix_aid: HHandle, matrix_bid: HHandle, compute_eigenvectors: str) -> Tuple[HHandle, HHandle]

描述

The operator generalized_eigenvalues_symmetric_matrixgeneralized_eigenvalues_symmetric_matrixGeneralizedEigenvaluesSymmetricMatrixGeneralizedEigenvaluesSymmetricMatrixGeneralizedEigenvaluesSymmetricMatrixgeneralized_eigenvalues_symmetric_matrix computes all generalized eigenvalues and, optionally, generalized eigenvectors of the symmetric matrix MatrixA and the symmetric positive definite matrix MatrixB. Both matrices must have identical dimensions. The matrices are defined by the matrix handles MatrixAIDMatrixAIDMatrixAIDMatrixAIDmatrixAIDmatrix_aid and MatrixBIDMatrixBIDMatrixBIDMatrixBIDmatrixBIDmatrix_bid. On output, a new matrix Eigenvalues with the generalized eigenvalues in ascending order and, optionally, a new matrix Eigenvectors with the generalized eigenvectors is created. Each jth column of the matrix Eigenvectors contains the related eigenvector to the jth eigenvalue. The operator returns the matrix handles EigenvaluesIDEigenvaluesIDEigenvaluesIDEigenvaluesIDeigenvaluesIDeigenvalues_id and EigenvectorsIDEigenvectorsIDEigenvectorsIDEigenvectorsIDeigenvectorsIDeigenvectors_id of the matrices Eigenvalues and Eigenvectors. Access to the elements of the matrices is possible, e.g., with the operator get_full_matrixget_full_matrixGetFullMatrixGetFullMatrixGetFullMatrixget_full_matrix or get_sub_matrixget_sub_matrixGetSubMatrixGetSubMatrixGetSubMatrixget_sub_matrix.

The computation of generalized eigenvectors can be selected via ComputeEigenvectorsComputeEigenvectorsComputeEigenvectorsComputeEigenvectorscomputeEigenvectorscompute_eigenvectors = 'true'"true""true""true""true""true". The formula for the calculation of the result is with representing the th eigenvalue and represents the corresponding eigenvector.

If ComputeEigenvectorsComputeEigenvectorsComputeEigenvectorsComputeEigenvectorscomputeEigenvectorscompute_eigenvectors = 'false'"false""false""false""false""false", no generalized eigenvectors are computed. For this, the matrix handle EigenvectorsIDEigenvectorsIDEigenvectorsIDEigenvectorsIDeigenvectorsIDeigenvectors_id is invalid.

Example:

ComputeEigenvectorsComputeEigenvectorsComputeEigenvectorsComputeEigenvectorscomputeEigenvectorscompute_eigenvectors = 'true'"true""true""true""true""true"

注意

The upper triangular parts of the input matrices MatrixA and MatrixB must contain the relevant information of the matrices. The strictly lower triangular parts of the matrices are not referenced. If the referenced parts of the input matrices MatrixA or MatrixB are not of the specified type, an exception is raised.

运行信息

参数表

MatrixAIDMatrixAIDMatrixAIDMatrixAIDmatrixAIDmatrix_aid (input_control)  matrix HMatrix, HTupleHHandleHTupleHtuple (handle) (IntPtr) (HHandle) (handle)

Matrix handle of the symmetric input matrix A.

MatrixBIDMatrixBIDMatrixBIDMatrixBIDmatrixBIDmatrix_bid (input_control)  matrix HMatrix, HTupleHHandleHTupleHtuple (handle) (IntPtr) (HHandle) (handle)

Matrix handle of the symmetric positive definite input matrix B.

ComputeEigenvectorsComputeEigenvectorsComputeEigenvectorsComputeEigenvectorscomputeEigenvectorscompute_eigenvectors (input_control)  string HTuplestrHTupleHtuple (string) (string) (HString) (char*)

Computation of the eigenvectors.

Default: 'false' "false" "false" "false" "false" "false"

List of values: 'false'"false""false""false""false""false", 'true'"true""true""true""true""true"

EigenvaluesIDEigenvaluesIDEigenvaluesIDEigenvaluesIDeigenvaluesIDeigenvalues_id (output_control)  matrix HMatrix, HTupleHHandleHTupleHtuple (handle) (IntPtr) (HHandle) (handle)

Matrix handle with the eigenvalues.

EigenvectorsIDEigenvectorsIDEigenvectorsIDEigenvectorsIDeigenvectorsIDeigenvectors_id (output_control)  matrix HMatrix, HTupleHHandleHTupleHtuple (handle) (IntPtr) (HHandle) (handle)

Matrix handle with the eigenvectors.

结果

If the parameters are valid, the operator generalized_eigenvalues_symmetric_matrixgeneralized_eigenvalues_symmetric_matrixGeneralizedEigenvaluesSymmetricMatrixGeneralizedEigenvaluesSymmetricMatrixGeneralizedEigenvaluesSymmetricMatrixgeneralized_eigenvalues_symmetric_matrix returns the value 2 ( H_MSG_TRUE) . If necessary, an exception is raised.

可能的前置算子

create_matrixcreate_matrixCreateMatrixCreateMatrixCreateMatrixcreate_matrix

可能的后置算子

get_full_matrixget_full_matrixGetFullMatrixGetFullMatrixGetFullMatrixget_full_matrix, get_value_matrixget_value_matrixGetValueMatrixGetValueMatrixGetValueMatrixget_value_matrix

可替代算子

generalized_eigenvalues_general_matrixgeneralized_eigenvalues_general_matrixGeneralizedEigenvaluesGeneralMatrixGeneralizedEigenvaluesGeneralMatrixGeneralizedEigenvaluesGeneralMatrixgeneralized_eigenvalues_general_matrix

参考其它

eigenvalues_symmetric_matrixeigenvalues_symmetric_matrixEigenvaluesSymmetricMatrixEigenvaluesSymmetricMatrixEigenvaluesSymmetricMatrixeigenvalues_symmetric_matrix, eigenvalues_general_matrixeigenvalues_general_matrixEigenvaluesGeneralMatrixEigenvaluesGeneralMatrixEigenvaluesGeneralMatrixeigenvalues_general_matrix

References

David Poole: “Linear Algebra: A Modern Introduction”; Thomson; Belmont; 2006.
Gene H. Golub, Charles F. van Loan: “Matrix Computations”; The Johns Hopkins University Press; Baltimore and London; 1996.

模块

Foundation