HermitianMatrix

class HermitianMatrix(*args)

Hermitian Matrix.

Available constructors:

HermitianMatrix(dim)

Parameters
diminteger

The dimension of the Hermitian matrix (square matrix with dim rows and dim columns).

See also

ComplexMatrix

Notes

The Hermitian matrix is filled with (0, 0). It is not possible to fill the matrix from a collection of complex values (to be done later).

Methods

checkHermitian(self)

Check if the internal representation is really hermitian.

clean(self, threshold)

Clean the matrix according to a specific threshold.

computeCholesky(self[, keepIntact])

Compute the Cholesky factor.

conjugate(self)

Accessor to the conjugate complex matrix.

conjugateTranspose(self)

Accessor to the transposed conjugate complex matrix.

getClassName(self)

Accessor to the object’s name.

getDimension(self)

Accessor to the matrix dimension.

getId(self)

Accessor to the object’s id.

getImplementation(self)

Accessor to the underlying implementation.

getName(self)

Accessor to the object’s name.

getNbColumns(self)

Accessor to the number of columns.

getNbRows(self)

Accessor to the number of rows.

imag(self)

Accessor to the imaginary part.

isEmpty(self)

Test whether the matrix is empty or not.

real(self)

Accessor to the real part.

setName(self, name)

Accessor to the object’s name.

transpose(self)

Accessor to the transposed complex matrix.

solveLinearSystem
__init__(self, \*args)

Initialize self. See help(type(self)) for accurate signature.

checkHermitian(self)

Check if the internal representation is really hermitian.

clean(self, threshold)

Clean the matrix according to a specific threshold.

Parameters
thresholdpositive float

Numerical sample which is the collection of points stored by the history strategy.

computeCholesky(self, keepIntact=True)

Compute the Cholesky factor.

Returns
GComplexMatrix

The Cholesky factor \mat{G}, i.e. the complex matrix such as \mat{G} \times \Tr{\mat{G}} is the initial matrix.

conjugate(self)

Accessor to the conjugate complex matrix.

Returns
NComplexMatrix

The conjugate matrix \mat{N} of size n_r \times n_c associated with the given complex matrix \mat{M} such as N_{i, j} = \overline{M}_{i, j}.

conjugateTranspose(self)

Accessor to the transposed conjugate complex matrix.

Returns
NComplexMatrix

The transposed conjugate matrix \mat{N} of size n_c \times n_r associated with the given complex matrix \mat{M} such as N_{i, j} = \overline{M}_{j, i}.

getClassName(self)

Accessor to the object’s name.

Returns
class_namestr

The object class name (object.__class__.__name__).

getDimension(self)

Accessor to the matrix dimension.

Returns
diminteger

The dimension of the Hermitian matrix.

getId(self)

Accessor to the object’s id.

Returns
idint

Internal unique identifier.

getImplementation(self)

Accessor to the underlying implementation.

Returns
implImplementation

The implementation class.

getName(self)

Accessor to the object’s name.

Returns
namestr

The name of the object.

getNbColumns(self)

Accessor to the number of columns.

Returns
ncinteger

The number of columns of \mat{M}.

getNbRows(self)

Accessor to the number of rows.

Returns
nrinteger

The number of rows of \mat{M}.

imag(self)

Accessor to the imaginary part.

Returns
imatMatrix

A real matix \mat{A} of size n_r \times n_c such A_{i, j} = \mathrm{Im} (M_{i, j}).

isEmpty(self)

Test whether the matrix is empty or not.

Returns
isEmptybool

Flag telling whether the dimensions of the matrix is zero.

real(self)

Accessor to the real part.

Returns
rmatMatrix

A real matix \mat{A} of size n_r \times n_c such A_{i, j} = \mathrm{Re} (M_{i, j}).

setName(self, name)

Accessor to the object’s name.

Parameters
namestr

The name of the object.

transpose(self)

Accessor to the transposed complex matrix.

Returns
NComplexMatrix

The transposed matrix \mat{N} of size n_c \times n_r associated with the given complex matrix \mat{M} such as N_{i, j} = M_{j, i}.