/usr/include/openturns/ComplexMatrixImplementation.hxx is in libopenturns-dev 1.9-5.
This file is owned by root:root, with mode 0o644.
The actual contents of the file can be viewed below.
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/**
* @brief ComplexMatrixImplementation implements the Matrix class with complex values
*
* Copyright 2005-2017 Airbus-EDF-IMACS-Phimeca
*
* This library is free software: you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This library is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* along with this library. If not, see <http://www.gnu.org/licenses/>.
*
*/
#ifndef OPENTURNS_COMPLEXMATRIXIMPLEMENTATION_HXX
#define OPENTURNS_COMPLEXMATRIXIMPLEMENTATION_HXX
#include "openturns/PersistentCollection.hxx"
#include "openturns/Collection.hxx"
#include "openturns/Point.hxx"
#include "openturns/MatrixImplementation.hxx"
BEGIN_NAMESPACE_OPENTURNS
/**
* @class ComplexMatrixImplementation
*
* ComplexMatrixImplementation implements the classical mathematical ComplexMatrixImplementation
*/
class OT_API ComplexMatrixImplementation
: public PersistentCollection<Complex>
{
CLASSNAME;
#ifndef SWIG
/** Declaration of friend operators */
friend ComplexMatrixImplementation operator * (const Complex s,
const ComplexMatrixImplementation & matrix)
{
return matrix.operator * (s);
}
#endif
public:
typedef Collection<Complex> ComplexCollection;
typedef Collection<Scalar> ScalarCollection;
/** Default constructor */
ComplexMatrixImplementation();
/** Constructor with size (rowDim and colDim) */
ComplexMatrixImplementation(const UnsignedInteger rowDim,
const UnsignedInteger colDim);
/** Constructor from range of external collection */
template <class InputIterator>
ComplexMatrixImplementation(const UnsignedInteger rowDim,
const UnsignedInteger colDim,
const InputIterator first,
const InputIterator last);
/** Constructor from external collection */
/** If the dimensions of the matrix and of the collection */
/** do not correspond, either the collection is truncated */
/** or the rest of the matrix is filled with zeros */
ComplexMatrixImplementation(const UnsignedInteger rowDim,
const UnsignedInteger colDim,
const ComplexCollection & elementsValues);
/** Constructor from external collection */
/** If the dimensions of the matrix and of the collection */
/** do not correspond, either the collection is truncated */
/** or the rest of the matrix is filled with zeros */
ComplexMatrixImplementation(const UnsignedInteger rowDim,
const UnsignedInteger colDim,
const ScalarCollection & elementsValues);
/** Constructor from MatrixImplementation */
ComplexMatrixImplementation(const MatrixImplementation & matrix);
/** Virtual constructor */
virtual ComplexMatrixImplementation * clone() const;
/** Resolution of a linear system in case of a rectangular matrix */
ComplexCollection solveLinearSystemRect(const ComplexCollection & b,
const Bool keepIntact = true);
ComplexMatrixImplementation solveLinearSystemRect(const ComplexMatrixImplementation & b,
const Bool keepIntact = true);
/** Set small elements to zero */
virtual ComplexMatrixImplementation clean(const Scalar threshold) const;
virtual ComplexMatrixImplementation cleanHerm(const Scalar threshold) const;
/** String converter */
virtual String __repr__() const;
virtual String __str__(const String & offset = "") const;
/** Operator () gives access to the elements of the ComplexMatrixImplementation (to modify these elements) */
/** The element of the ComplexMatrixImplementation is designated by its row number i and its column number j */
Complex & operator () (const UnsignedInteger i,
const UnsignedInteger j);
/** Operator () gives access to the elements of the ComplexMatrixImplementation (read only) */
/** The element of the ComplexMatrixImplementation is designated by its row number i and its column number j */
const Complex & operator () (const UnsignedInteger i,
const UnsignedInteger j) const;
/** Get the dimensions of the ComplexMatrixImplementation */
/** Number of rows */
UnsignedInteger getNbRows() const;
/** Number of columns */
UnsignedInteger getNbColumns() const;
/** Dimension (for square matrices only */
UnsignedInteger getDimension() const;
/** ComplexMatrixImplementation transpose */
ComplexMatrixImplementation transpose () const;
ComplexMatrixImplementation transposeHerm () const;
/** ComplexMatrixImplementation conjugate */
ComplexMatrixImplementation conjugate () const;
ComplexMatrixImplementation conjugateHerm () const;
/** ComplexMatrixImplementation conjugateTranspose */
ComplexMatrixImplementation conjugateTranspose () const;
/** "Hermitianize" ComplexMatrixImplementation in case it is an hermitian matrix (stored as a triangular matrix) */
void hermitianize() const;
/** Get the real part of the matrix */
MatrixImplementation realRect() const;
MatrixImplementation realSym() const;
/** Get the imaginary part of the matrix */
MatrixImplementation imagRect() const;
MatrixImplementation imagSym() const;
/** Operator overload */
/** ComplexMatrixImplementation addition (must have the same dimensions) */
ComplexMatrixImplementation operator + (const ComplexMatrixImplementation & matrix) const;
/** ComplexMatrixImplementation addition with MatrixImplementation */
ComplexMatrixImplementation operator + (const MatrixImplementation & matrix) const;
/** ComplexMatrixImplementation substraction (must have the same dimensions) */
ComplexMatrixImplementation operator - (const ComplexMatrixImplementation & matrix) const;
/** ComplexMatrixImplementation substraction with MatrixImplementation */
ComplexMatrixImplementation operator - (const MatrixImplementation & matrix) const;
/** Multiplication with a Complex */
ComplexMatrixImplementation operator * (const Complex s) const;
/** Division by a Complex*/
ComplexMatrixImplementation operator / (const Complex s) const;
/** ComplexMatrixImplementation multiplications (must have consistent dimensions) */
ComplexMatrixImplementation genProd(const ComplexMatrixImplementation & matrix) const;
ComplexMatrixImplementation symProd(const ComplexMatrixImplementation & m,
const char symSide) const;
ComplexMatrixImplementation hermProd(const ComplexMatrixImplementation & m,
const char hermSide) const;
/** Triangular matrix product : side argument L/R for the position of the triangular matrix, up/lo to tell if it */
ComplexMatrixImplementation triangularProd(const ComplexMatrixImplementation & m,
const char side = 'L',
const char uplo = 'L') const;
/** ComplexMatrixImplementation integer power */
ComplexMatrixImplementation genPower(const UnsignedInteger n) const;
ComplexMatrixImplementation symPower(const UnsignedInteger n) const;
ComplexMatrixImplementation hermPower(const UnsignedInteger n) const;
/** Multiplications with a ComplexCollection (must have consistent dimensions) */
ComplexCollection genVectProd (const ComplexCollection & pt) const;
ComplexCollection genVectProd (const ScalarCollection & pt) const;
ComplexCollection genVectProd (const Point & pt) const;
/** Using some optimization (for Hermitian matrix) */
ComplexCollection hermVectProd (const ComplexCollection & pt) const;
ComplexCollection hermVectProd (const ScalarCollection & pt) const;
ComplexCollection hermVectProd (const Point & pt) const;
/** Using triangular matrix */
ComplexCollection triangularVectProd(const ComplexCollection & pt,
const char side = 'L') const;
ComplexCollection triangularVectProd(const ScalarCollection & pt,
const char side = 'L') const;
ComplexCollection triangularVectProd(const Point & pt,
const char side = 'L') const;
/** Check if the matrix is self-adjoint */
virtual Bool isHermitian() const;
/** Check if the matrix is HPD */
virtual Bool isHermitianPositiveDefinite(const Bool keepIntact = true);
/** Build the Cholesky factorization of the matrix */
virtual ComplexMatrixImplementation computeCholesky(const Bool keepIntact = true);
/** Comparison operators */
Bool operator == (const ComplexMatrixImplementation & rhs) const;
inline Bool operator != (const ComplexMatrixImplementation & rhs) const
{
return !((*this) == rhs);
}
/** Empty returns true if there is no element in the ComplexMatrixImplementation */
Bool isEmpty() const;
/** Returns true if triangular lower or upper */
Bool isTriangular(Bool lower = true) const;
/** Method save() stores the object through the StorageManager */
void save(Advocate & adv) const;
/** Method load() reloads the object from the StorageManager */
void load(Advocate & adv);
// These functions are only intended to be used by SWIG, DO NOT use them for your own purpose !
// INTENTIONALY NOT DOCUMENTED
const Complex * __baseaddress__ () const;
UnsignedInteger __elementsize__ () const;
UnsignedInteger __stride__ (UnsignedInteger dim) const;
protected:
/** ComplexMatrixImplementation Dimensions */
UnsignedInteger nbRows_;
UnsignedInteger nbColumns_;
/** Position conversion function : the indices i & j are used to compute the actual position of the element in the collection */
inline UnsignedInteger convertPosition (const UnsignedInteger i,
const UnsignedInteger j) const;
}; /* class ComplexMatrixImplementation */
inline UnsignedInteger ComplexMatrixImplementation::convertPosition (const UnsignedInteger i,
const UnsignedInteger j) const
{
return i + nbRows_ * j ;
}
/** Constructor from range of external collection */
template <class InputIterator>
ComplexMatrixImplementation::ComplexMatrixImplementation(const UnsignedInteger rowDim,
const UnsignedInteger colDim,
const InputIterator first,
const InputIterator last)
: PersistentCollection<Complex>(rowDim * colDim, 0.0),
nbRows_(rowDim),
nbColumns_(colDim)
{
this->assign(first, last);
}
END_NAMESPACE_OPENTURNS
#endif /* OPENTURNS_COMPLEXMATRIXIMPLEMENTATION_HXX */
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