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CodeBlocksPortable/Borland/BCC55/Include/valarray.cc

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#ifndef __VALARRAY_CC
#define __VALARRAY_CC
#pragma option push -b -a8 -pc -Vx- -Ve- -w-inl -w-aus -w-sig
/***************************************************************************
*
* valaray.cc - Declarations for the Standard Library valarray
*
***************************************************************************
*
* Copyright (c) 1994-1999 Rogue Wave Software, Inc. All Rights Reserved.
*
* This computer software is owned by Rogue Wave Software, Inc. and is
* protected by U.S. copyright laws and other laws and by international
* treaties. This computer software is furnished by Rogue Wave Software,
* Inc. pursuant to a written license agreement and may be used, copied,
* transmitted, and stored only in accordance with the terms of such
* license and with the inclusion of the above copyright notice. This
* computer software or any other copies thereof may not be provided or
* otherwise made available to any other person.
*
* U.S. Government Restricted Rights. This computer software is provided
* with Restricted Rights. Use, duplication, or disclosure by the
* Government is subject to restrictions as set forth in subparagraph (c)
* (1) (ii) of The Rights in Technical Data and Computer Software clause
* at DFARS 252.227-7013 or subparagraphs (c) (1) and (2) of the
* Commercial Computer Software Restricted Rights at 48 CFR 52.227-19,
* as applicable. Manufacturer is Rogue Wave Software, Inc., 5500
* Flatiron Parkway, Boulder, Colorado 80301 USA.
*
**************************************************************************/
#if defined ( __SUNPRO_CC ) || defined (__EDG__)
#include<stdlib.h>
#endif
#ifndef _RWSTD_NO_NAMESPACE
namespace std {
#endif
#if !defined (_RWSTD_NO_NAMESPACE) && defined (_RWSTD_NO_NEW_HEADER)
using ::abs;
using ::cos;
using ::sin;
using ::tan;
using ::asin;
using ::acos;
using ::atan;
using ::atan2;
using ::sinh;
using ::cosh;
using ::tanh;
using ::exp;
using ::log;
using ::log10;
using ::sqrt;
using ::pow;
#endif
/*****************************************************************
* *
* VALARRAY MEMBER FUNCTIONS *
* *
******************************************************************/
// unary operators
template<class T>
valarray<T> valarray<T>::operator+() const
{
valarray<T> tmp_array(size());
for(size_t ind=0; ind< size(); ind++ )
tmp_array[ind] = +memory_array[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template <class T>
valarray<T> valarray<T>::operator-() const
{
valarray<T> tmp_array(size());
for(size_t ind=0; ind< size(); ind++ )
tmp_array[ind] = -memory_array[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
#ifndef _RWSTD_NO_ONLY_NEEDED_INSTANTIATION
template <class T>
valarray<T> valarray<T>::operator~() const
{
valarray<T> tmp_array(size());
for(size_t ind=0; ind< size(); ind++ )
tmp_array[ind] = ~memory_array[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template <class T>
valarray<bool> valarray<T>::operator!() const
{
valarray<bool> tmp_array(size());
for(size_t ind=0; ind< size(); ind++ )
tmp_array[ind] = !memory_array[ind];
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
#endif
// computed assignment
template <class T>
valarray<T>& valarray<T>::operator*= (const valarray<T>& array)
{
size_t upper_l = ( size() < array.size() ) ? size() : array.size();
for(size_t ind=0; ind < upper_l; ind++)
memory_array[ind]*= array[ind];
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator/= (const valarray<T>& array)
{
size_t upper_l = ( size() < array.size() ) ? size() : array.size();
for(size_t ind=0; ind < upper_l; ind++)
memory_array[ind]/= array[ind];
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator+= (const valarray<T>& array)
{
size_t upper_l = ( size() < array.size() ) ? size() : array.size();
for(size_t ind=0; ind < upper_l; ind++)
memory_array[ind]+= array[ind];
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator-= (const valarray<T>& array)
{
size_t upper_l = ( size() < array.size() ) ? size() : array.size();
for(size_t ind=0; ind < upper_l; ind++)
memory_array[ind]-= array[ind];
return *this;
}
#ifndef _RWSTD_NO_ONLY_NEEDED_INSTANTIATION
template <class T>
valarray<T>& valarray<T>::operator%= (const valarray<T>& array)
{
size_t upper_l = ( size() < array.size() ) ? size() : array.size();
for(size_t ind=0; ind < upper_l; ind++)
memory_array[ind]%= array[ind];
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator^= (const valarray<T>& array)
{
size_t upper_l = ( size() < array.size() ) ? size() : array.size();
for(size_t ind=0; ind < upper_l; ind++)
memory_array[ind]^= array[ind];
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator&= (const valarray<T>& array)
{
size_t upper_l = ( size() < array.size() ) ? size() : array.size();
for(size_t ind=0; ind < upper_l; ind++)
memory_array[ind]&= array[ind];
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator|= (const valarray<T>& array)
{
size_t upper_l = ( size() < array.size() ) ? size() : array.size();
for(size_t ind=0; ind < upper_l; ind++)
memory_array[ind]|= array[ind];
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator<<= (const valarray<T>& array)
{
size_t upper_l = ( size() < array.size() ) ? size() : array.size();
for(size_t ind=0; ind < upper_l; ind++)
memory_array[ind]<<= array[ind];
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator>>= (const valarray<T>& array)
{
size_t upper_l = ( size() < array.size() ) ? size() : array.size();
for(size_t ind=0; ind < upper_l; ind++)
memory_array[ind]>>= array[ind];
return *this;
}
#endif
template <class T>
valarray<T>& valarray<T>::operator*= (const T& val)
{
for(size_t ind=0; ind < size(); ind++)
memory_array[ind]*= val;
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator/= (const T& val)
{
for(size_t ind=0; ind < size(); ind++)
memory_array[ind]/= val;
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator+= (const T& val)
{
for(size_t ind=0; ind < size(); ind++)
memory_array[ind]+= val;
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator-= (const T& val)
{
for(size_t ind=0; ind < size(); ind++)
memory_array[ind]-= val;
return *this;
}
#ifndef _RWSTD_NO_ONLY_NEEDED_INSTANTIATION
template <class T>
valarray<T>& valarray<T>::operator%= (const T& val)
{
for(size_t ind=0; ind < size(); ind++)
memory_array[ind]%= val;
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator^= (const T& val)
{
for(size_t ind=0; ind < size(); ind++)
memory_array[ind]^= val;
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator&= (const T& val)
{
for(size_t ind=0; ind < size(); ind++)
memory_array[ind]&= val;
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator|= (const T& val)
{
for(size_t ind=0; ind < size(); ind++)
memory_array[ind]|= val;
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator<<= (const T& val)
{
for(size_t ind=0; ind < size(); ind++)
memory_array[ind]<<= val;
return *this;
}
template <class T>
valarray<T>& valarray<T>::operator>>= (const T& val)
{
for(size_t ind=0; ind < size(); ind++)
memory_array[ind]>>= val;
return *this;
}
#endif
// other valarray member functions
template <class T>
T valarray<T>::sum() const
{
T tmp;
if ( size() > 0 )
{
tmp = memory_array[0];
for(size_t ind=1; ind<size(); ind++)
tmp+= memory_array[ind];
}
return tmp;
}
template <class T>
valarray<T> valarray<T>::shift(int sh) const
{
valarray<T> tmp_array(T(),size());
int right=0;
int left=0;
if ( sh < 0 ) right = -sh;
else left = sh;
for(size_t ind=left; ind< (size()-right); ind++ )
tmp_array[ind+right-left] = memory_array[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template <class T>
valarray<T> valarray<T>::cshift(int sh) const
{
valarray<T> tmp_array(T(),size());
if ( sh >= 0 )
{
for(size_t ind=0; ind< size(); ind++ )
tmp_array[ind] = memory_array[(ind+sh)%size()];
}
else
{
for(size_t ind=size()+sh; ind< (2*size()+sh); ind++ )
tmp_array[ind-size()-sh] = memory_array[ind%size()];
}
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template <class T>
valarray<T> valarray<T>::apply(T func(T)) const
{
valarray<T> tmp_array(size());
for(size_t ind=0; ind< size(); ind++ )
tmp_array[ind] = func(memory_array[ind]);
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template <class T>
valarray<T> valarray<T>::apply(T func(const T&)) const
{
valarray<T> tmp_array(size());
for(size_t ind=0; ind< size(); ind++ )
tmp_array[ind] = func(memory_array[ind]);
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
// operator[] for slice
template <class T>
valarray<T> valarray<T>::operator[](slice sl) const
{
valarray<T> tmp_array(sl.size());
size_t ind = sl.start();
size_t cpt = 0;
while( cpt < sl.size() )
{
tmp_array[cpt] = memory_array[ind];
ind+= sl.stride();
cpt++;
}
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = sl.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
// copy ctor and assignment for slice
template <class T>
valarray<T>::valarray(const slice_array<T>& sl_ar)
{
valarray<T> tmp_array(sl_ar.get_slice().size());
size_t ind = sl_ar.get_slice().start();
size_t cpt = 0;
while( cpt < sl_ar.get_slice().size() )
{
tmp_array[cpt] = (*(sl_ar.get_ref_mem_array()))[ind];
ind+= sl_ar.get_slice().stride();
cpt++;
}
memory_array._replace(tmp_array._RW_get_memory_array()._RW_get_storage(),sl_ar.get_slice().size());
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
}
template <class T>
valarray<T>& valarray<T>::operator= (const slice_array<T>& sl_ar)
{
valarray<T> tmp_array(sl_ar.get_slice().size());
size_t ind = sl_ar.get_slice().start();
size_t cpt = 0;
while( cpt < sl_ar.get_slice().size() )
{
tmp_array[cpt] = (*(sl_ar.get_ref_mem_array()))[ind];
ind+= sl_ar.get_slice().stride();
cpt++;
}
if ( &memory_array == sl_ar.get_ref_mem_array() )
memory_array._RW_resize_without_copy(0);
memory_array._replace(tmp_array._RW_get_memory_array()._RW_get_storage(),sl_ar.get_slice().size());
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return *this;
}
// operator[] for gslice
template <class T>
valarray<T> valarray<T>::operator[](const gslice& sl) const
{
valarray<T> tmp_array(sl.ind_numb());
gslice *gsl = (gslice *)&sl;
size_t ind = gsl->next_ind();
size_t cpt = 0;
while( !sl.is_reseted() )
{
tmp_array[cpt] = memory_array[ind];
ind= gsl->next_ind();
cpt++;
}
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = tmp_array.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
// copy ctor and assignment for gslice
template <class T>
valarray<T>::valarray(const gslice_array<T>& sl_ar)
{
gslice sl(sl_ar.get_slice());
valarray<T> tmp_array(sl.ind_numb());
size_t ind = sl.next_ind();
size_t cpt = 0;
while( !sl.is_reseted() )
{
tmp_array[cpt] = (*(sl_ar.get_ref_mem_array()))[ind];
ind= sl.next_ind();
cpt++;
}
memory_array._replace(tmp_array._RW_get_memory_array()._RW_get_storage(),tmp_array.size());
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
}
template <class T>
valarray<T>& valarray<T>::operator= (const gslice_array<T>& sl_ar)
{
gslice sl(sl_ar.get_slice());
valarray<T> tmp_array(sl.ind_numb());
size_t ind = sl.next_ind();
size_t cpt = 0;
while( !sl.is_reseted() )
{
tmp_array[cpt] = (*(sl_ar.get_ref_mem_array()))[ind];
ind= sl.next_ind();
cpt++;
}
if ( &memory_array == sl_ar.get_ref_mem_array() )
memory_array._RW_resize_without_copy(0);
memory_array._replace(tmp_array._RW_get_memory_array()._RW_get_storage(),tmp_array.size());
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return *this;
}
// operator[] for valarray[valarray<bool>] used with mask_array
template <class T>
valarray<T> valarray<T>::operator[](const valarray<bool>& array) const
{
size_t iter,size =0;
for(iter=0; iter < array.size(); iter++ )
if ( array[iter] ) size++;
valarray<T> tmp_array(size);
size_t cpt = 0;
for( iter=0; iter < array.size(); iter++ )
if ( array[iter] ) tmp_array[cpt++] = memory_array[iter];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = size;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
// copy ctor and assignment for mask_array
template <class T>
valarray<T>::valarray(const mask_array<T>& mask)
{
mask_array<T> *msk = (mask_array<T> *)&mask;
valarray<bool>* sec = msk->get_array_pt();
size_t iter,size =0;
for(iter=0; iter < sec->size(); iter++ )
if ( (*sec)[iter] ) size++;
valarray<T> tmp_array(size);
size_t cpt = 0;
for( iter=0; iter < sec->size(); iter++ )
if ( (*sec)[iter] ) tmp_array[cpt++] = (*(mask.get_ref_mem_array()))[iter];
memory_array._replace(tmp_array._RW_get_memory_array()._RW_get_storage(),size);
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
}
template <class T>
valarray<T>& valarray<T>::operator= (const mask_array<T>& mask)
{
mask_array<T> *msk = (mask_array<T> *)&mask;
valarray<bool>* sec = msk->get_array_pt();
size_t iter,size =0;
for(iter=0; iter < sec->size(); iter++ )
if ( (*sec)[iter] ) size++;
valarray<T> tmp_array(size);
size_t cpt = 0;
for( iter=0; iter < sec->size(); iter++ )
if ( (*sec)[iter] ) tmp_array[cpt++] = (*(mask.get_ref_mem_array()))[iter];
if ( &memory_array == mask.get_ref_mem_array() )
memory_array._RW_resize_without_copy(0);
memory_array._replace(tmp_array._RW_get_memory_array()._RW_get_storage(),size);
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return *this;
}
// operator[] for valarray[valarray<size_t>] used with indirect_array
template <class T>
valarray<T> valarray<T>::operator[](const valarray<size_t>& array) const
{
valarray<T> tmp_array(array.size());
for( size_t iter=0; iter < array.size(); iter++ )
tmp_array[iter] = memory_array[array[iter]];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = array.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
// copy ctor and assignment for indirect_array
template <class T>
valarray<T>::valarray(const indirect_array<T>& indir)
{
indirect_array<T> *indr= (indirect_array<T> *)&indir;
valarray<size_t>* sec = indr->get_array_pt();
valarray<T> tmp_array(sec->size());
size_t cpt = 0;
for(size_t iter=0; iter < sec->size(); iter++ )
tmp_array[cpt++] = (*(indir.get_ref_mem_array()))[(*sec)[iter]];
memory_array._replace(tmp_array._RW_get_memory_array()._RW_get_storage(),sec->size());
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
}
template <class T>
valarray<T>& valarray<T>::operator= (const indirect_array<T>& indir)
{
indirect_array<T> *indr= (indirect_array<T> *)&indir;
valarray<size_t>* sec = indr->get_array_pt();
valarray<T> tmp_array(sec->size());
size_t cpt = 0;
for(size_t iter=0; iter < sec->size(); iter++ )
tmp_array[cpt++] = (*(indir.get_ref_mem_array()))[(*sec)[iter]];
if ( &memory_array == indir.get_ref_mem_array() )
memory_array._RW_resize_without_copy(0);
memory_array._replace(tmp_array._RW_get_memory_array()._RW_get_storage(),sec->size());
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return *this;
}
/*
*
* VALARRAY NON MEMBER FUNCTIONS
*
*/
template<class T>
valarray<T> operator* (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]*b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator/ (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]/b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator% (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]%b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator+ (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]+b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator- (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]-b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator^ (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]^b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator& (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]&b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator| (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]|b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator<< (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]<<b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator>> (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]>>b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator&& (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind] && b[ind];
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator|| (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind] || b[ind];
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
// with non array second parameter
template<class T>
valarray<T> operator* (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]*b;
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator/ (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]/b;
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator% (const valarray<T>& a,const T& b)
{
size_t length= a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]%b;
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator+ (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]+b;
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator- (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]-b;
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator^ (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]^b;
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator& (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]&b;
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator| (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]|b;
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator<< (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]<<b;
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator>> (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind]>>b;
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator&& (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind] && b;
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator|| (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a[ind] || b;
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
// with non array first parameter
template<class T>
valarray<T> operator* (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a*b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator/ (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a/b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator% (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a%b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator+ (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a+b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator- (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a-b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator^ (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a^b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator& (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a&b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator| (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a|b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator<< (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a<<b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> operator>> (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a>>b[ind];
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator&& (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a && b[ind];
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator|| (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = a || b[ind];
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
// comparison operators
template<class T>
valarray<bool> operator== (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a[ind]==b[ind]);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator!= (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a[ind]!=b[ind]);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator< (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a[ind]<b[ind]);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator> (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a[ind]>b[ind]);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator<= (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a[ind]<=b[ind]);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator>= (const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a[ind]>=b[ind]);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
// comparison operators, non valarray second param
template<class T>
valarray<bool> operator== (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a[ind]==b);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator!= (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a[ind]!=b);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator< (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a[ind]<b);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator> (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a[ind]>b);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator<= (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a[ind]<=b);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator>= (const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a[ind]>=b);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
// comparison operators, non valarray first param
template<class T>
valarray<bool> operator== (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a==b[ind]);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator!= (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a!=b[ind]);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator< (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a<b[ind]);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator> (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a>b[ind]);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator<= (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a<=b[ind]);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<bool> operator>= (const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<bool> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = (a>=b[ind]);
_RW_IMP_SPACE(_RW_temporary<bool>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<bool>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
#ifndef _RWSTD_NO_ONLY_NEEDED_INSTANTIATION
// min and max functions
template <class T>
T valarray<T>::min()const
{
T tmp;
if ( size() > 0 )
{
tmp = memory_array[0];
for(size_t ind=1; ind< size(); ind++)
if ( memory_array[ind] < tmp )
tmp= memory_array[ind];
}
return tmp;
}
template <class T>
T valarray<T>::max()const
{
T tmp;
if ( size() > 0 )
{
tmp = memory_array[0];
for(size_t ind=1; ind< size(); ind++)
if ( memory_array[ind] > tmp )
tmp= memory_array[ind];
}
return tmp;
}
#else
template <class T>
T min(const valarray<T>& ar)
{
T tmp;
if ( ar.size() > 0 )
{
tmp = ar[0];
for(size_t ind=1; ind< ar.size(); ind++)
if ( ar[ind] < tmp )
tmp= ar[ind];
}
return tmp;
}
template <class T>
T max(const valarray<T>& ar)
{
T tmp;
if ( ar.size() > 0 )
{
tmp = ar[0];
for(size_t ind=1; ind< ar.size(); ind++)
if ( ar[ind] > tmp )
tmp= ar[ind];
}
return tmp;
}
#endif
// transcendentals
template<class T>
valarray<T> abs(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = abs(a[ind]);
// note: abs need to be overloaded for
// float, long double and long see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> acos(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = acos(a[ind]);
// note: acos need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> asin(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = asin(a[ind]);
// note: asin need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> atan(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = atan(a[ind]);
// note: atan need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> cos(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = cos(a[ind]);
// note: cos need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> cosh(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = cosh(a[ind]);
// note: cosh need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> exp(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = exp(a[ind]);
// note: exp need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> log(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = log(a[ind]);
// note: log need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> log10(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = log10(a[ind]);
// note: log10 need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> sinh(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = sinh(a[ind]);
// note: sinh need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> sin(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = sin(a[ind]);
// note: sin need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> sqrt(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = sqrt(a[ind]);
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> tan(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = tan(a[ind]);
// note: tan need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> tanh(const valarray<T>& a)
{
valarray<T> tmp_array(a.size());
for(size_t ind=0; ind< a.size(); ind++ )
tmp_array[ind] = tanh(a[ind]);
// note: tanh need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = a.size();
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> atan2(const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = atan2(a[ind],b[ind]);
// note: atan2 need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> atan2(const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = atan2(a[ind],b);
// note: atan2 need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> atan2(const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = atan2(a,b[ind]);
// note: atan2 need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> pow(const valarray<T>& a, const valarray<T>& b)
{
size_t length= ( a.size() > b.size() ) ? b.size() : a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = pow(a[ind],b[ind]);
// note: pow need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> pow(const valarray<T>& a, const T& b)
{
size_t length= a.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = pow(a[ind],b);
// note: pow need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
template<class T>
valarray<T> pow(const T& a, const valarray<T>& b)
{
size_t length= b.size();
valarray<T> tmp_array(length);
for(size_t ind=0; ind< length; ind++ )
tmp_array[ind] = pow(a,b[ind]);
// note: pow need to be overloaded for
// float, long double see (17.3.1.1)
_RW_IMP_SPACE(_RW_temporary<T>)* _tmp_ret = new _RW_IMP_SPACE(_RW_temporary<T>);
_tmp_ret->store_adr = tmp_array._RW_get_memory_array()._RW_get_storage();
_tmp_ret->length = length;
tmp_array._RW_get_memory_array_adr()->_RW_invalidate();
return _tmp_ret;
}
/*****************************************************************
* *
* SLICE_ARRAY MEMBER FUNCTIONS *
* *
******************************************************************/
// slice_array inline member functions
template <class T>
void slice_array<T>::operator= (const valarray<T>& array) const
{
size_t ind = slice_.start();
size_t cpt = 0;
while( cpt < slice_.size() )
{
if ( (cpt<array.size()) && (ind<ref_mem_array->_get_length()) )
(*ref_mem_array)[ind] = array[cpt];
ind+= slice_.stride();
cpt++;
}
}
template <class T>
void slice_array<T>::operator= (const T& value) const
{
size_t ind = slice_.start();
size_t cpt = 0;
while( cpt < slice_.size() )
{
if ( ind<ref_mem_array->_get_length() )
(*ref_mem_array)[ind] = value;
ind+= slice_.stride();
cpt++;
}
}
// computed assignment
template <class T>
void slice_array<T>::operator*= (const valarray<T>& array) const
{
size_t ind = slice_.start();
size_t cpt = 0;
while( cpt < slice_.size() )
{
if ( (cpt<array.size()) && (ind<ref_mem_array->_get_length()) )
(*ref_mem_array)[ind] *= array[cpt];
ind+= slice_.stride();
cpt++;
}
}
template <class T>
void slice_array<T>::operator/= (const valarray<T>& array) const
{
size_t ind = slice_.start();
size_t cpt = 0;
while( cpt < slice_.size() )
{
if ( (cpt<array.size()) && (ind<ref_mem_array->_get_length()) )
(*ref_mem_array)[ind] /= array[cpt];
ind+= slice_.stride();
cpt++;
}
}
template <class T>
void slice_array<T>::operator+= (const valarray<T>& array) const
{
size_t ind = slice_.start();
size_t cpt = 0;
while( cpt < slice_.size() )
{
if ( (cpt<array.size()) && (ind<ref_mem_array->_get_length()) )
(*ref_mem_array)[ind] += array[cpt];
ind+= slice_.stride();
cpt++;
}
}
template <class T>
void slice_array<T>::operator-= (const valarray<T>& array) const
{
size_t ind = slice_.start();
size_t cpt = 0;
while( cpt < slice_.size() )
{
if ( (cpt<array.size()) && (ind<ref_mem_array->_get_length()) )
(*ref_mem_array)[ind] -= array[cpt];
ind+= slice_.stride();
cpt++;
}
}
#ifndef _RWSTD_NO_ONLY_NEEDED_INSTANTIATION
template <class T>
void slice_array<T>::operator%= (const valarray<T>& array) const
{
size_t ind = slice_.start();
size_t cpt = 0;
while( cpt < slice_.size() )
{
if ( (cpt<array.size()) && (ind<ref_mem_array->_get_length()) )
(*ref_mem_array)[ind] %= array[cpt];
ind+= slice_.stride();
cpt++;
}
}
template <class T>
void slice_array<T>::operator^= (const valarray<T>& array) const
{
size_t ind = slice_.start();
size_t cpt = 0;
while( cpt < slice_.size() )
{
if ( (cpt<array.size()) && (ind<ref_mem_array->_get_length()) )
(*ref_mem_array)[ind] ^= array[cpt];
ind+= slice_.stride();
cpt++;
}
}
template <class T>
void slice_array<T>::operator&= (const valarray<T>& array) const
{
size_t ind = slice_.start();
size_t cpt = 0;
while( cpt < slice_.size() )
{
if ( (cpt<array.size()) && (ind<ref_mem_array->_get_length()) )
(*ref_mem_array)[ind] &= array[cpt];
ind+= slice_.stride();
cpt++;
}
}
template <class T>
void slice_array<T>::operator|= (const valarray<T>& array) const
{
size_t ind = slice_.start();
size_t cpt = 0;
while( cpt < slice_.size() )
{
if ( (cpt<array.size()) && (ind<ref_mem_array->_get_length()) )
(*ref_mem_array)[ind] |= array[cpt];
ind+= slice_.stride();
cpt++;
}
}
template <class T>
void slice_array<T>::operator<<= (const valarray<T>& array) const
{
size_t ind = slice_.start();
size_t cpt = 0;
while( cpt < slice_.size() )
{
if ( (cpt<array.size()) && (ind<ref_mem_array->_get_length()) )
(*ref_mem_array)[ind] <<= array[cpt];
ind+= slice_.stride();
cpt++;
}
}
template <class T>
void slice_array<T>::operator>>= (const valarray<T>& array) const
{
size_t ind = slice_.start();
size_t cpt = 0;
while( cpt < slice_.size() )
{
if ( (cpt<array.size()) && (ind<ref_mem_array->_get_length()) )
(*ref_mem_array)[ind] >>= array[cpt];
ind+= slice_.stride();
cpt++;
}
}
#endif
/*****************************************************************
* *
* GSLICE_ARRAY MEMBER FUNCTIONS *
* *
******************************************************************/
// gslice_array inline member functions
template <class T>
void gslice_array<T>::operator= (const valarray<T>& array) const
{
gslice *gsl = (gslice *)&slice_;
size_t ind = gsl->next_ind();
size_t cpt = 0;
while( (!gsl->is_reseted()) && (cpt < array.size()) )
{
(*ref_mem_array)[ind] = array[cpt];
ind= gsl->next_ind();
cpt++;
}
}
template <class T>
void gslice_array<T>::operator= (const T& value) const
{
gslice *gsl = (gslice *)&slice_;
size_t ind = gsl->next_ind();
while( !gsl->is_reseted() )
{
(*ref_mem_array)[ind] = value;
ind= gsl->next_ind();
}
}
// computed assignment
template <class T>
void gslice_array<T>::operator*= (const valarray<T>& array) const
{
gslice *gsl = (gslice *)&slice_;
size_t ind = gsl->next_ind();
size_t cpt = 0;
while( (!gsl->is_reseted()) && (cpt < array.size()) )
{
(*ref_mem_array)[ind] *= array[cpt];
ind= gsl->next_ind();
cpt++;
}
}
template <class T>
void gslice_array<T>::operator/= (const valarray<T>& array) const
{
gslice *gsl = (gslice *)&slice_;
size_t ind = gsl->next_ind();
size_t cpt = 0;
while( (!gsl->is_reseted()) && (cpt < array.size()) )
{
(*ref_mem_array)[ind] /= array[cpt];
ind= gsl->next_ind();
cpt++;
}
}
template <class T>
void gslice_array<T>::operator+= (const valarray<T>& array) const
{
gslice *gsl = (gslice *)&slice_;
size_t ind = gsl->next_ind();
size_t cpt = 0;
while( (!gsl->is_reseted()) && (cpt < array.size()) )
{
(*ref_mem_array)[ind] += array[cpt];
ind= gsl->next_ind();
cpt++;
}
}
template <class T>
void gslice_array<T>::operator-= (const valarray<T>& array) const
{
gslice *gsl = (gslice *)&slice_;
size_t ind = gsl->next_ind();
size_t cpt = 0;
while( (!gsl->is_reseted()) && (cpt < array.size()) )
{
(*ref_mem_array)[ind] -= array[cpt];
ind= gsl->next_ind();
cpt++;
}
}
#ifndef _RWSTD_NO_ONLY_NEEDED_INSTANTIATION
template <class T>
void gslice_array<T>::operator%= (const valarray<T>& array) const
{
gslice *gsl = (gslice *)&slice_;
size_t ind = gsl->next_ind();
size_t cpt = 0;
while( (!gsl->is_reseted()) && (cpt < array.size()) )
{
(*ref_mem_array)[ind] %= array[cpt];
ind= gsl->next_ind();
cpt++;
}
}
template <class T>
void gslice_array<T>::operator^= (const valarray<T>& array) const
{
gslice *gsl = (gslice *)&slice_;
size_t ind = gsl->next_ind();
size_t cpt = 0;
while( (!gsl->is_reseted()) && (cpt < array.size()) )
{
(*ref_mem_array)[ind] ^= array[cpt];
ind= gsl->next_ind();
cpt++;
}
}
template <class T>
void gslice_array<T>::operator&= (const valarray<T>& array) const
{
gslice *gsl = (gslice *)&slice_;
size_t ind = gsl->next_ind();
size_t cpt = 0;
while( (!gsl->is_reseted()) && (cpt < array.size()) )
{
(*ref_mem_array)[ind] &= array[cpt];
ind= gsl->next_ind();
cpt++;
}
}
template <class T>
void gslice_array<T>::operator|= (const valarray<T>& array) const
{
gslice *gsl = (gslice *)&slice_;
size_t ind = gsl->next_ind();
size_t cpt = 0;
while( (!gsl->is_reseted()) && (cpt < array.size()) )
{
(*ref_mem_array)[ind] |= array[cpt];
ind= gsl->next_ind();
cpt++;
}
}
template <class T>
void gslice_array<T>::operator<<= (const valarray<T>& array) const
{
gslice *gsl = (gslice *)&slice_;
size_t ind = gsl->next_ind();
size_t cpt = 0;
while( (!gsl->is_reseted()) && (cpt < array.size()) )
{
(*ref_mem_array)[ind] <<= array[cpt];
ind= gsl->next_ind();
cpt++;
}
}
template <class T>
void gslice_array<T>::operator>>= (const valarray<T>& array) const
{
gslice *gsl = (gslice *)&slice_;
size_t ind = gsl->next_ind();
size_t cpt = 0;
while( (!gsl->is_reseted()) && (cpt < array.size()) )
{
(*ref_mem_array)[ind] >>= array[cpt];
ind= gsl->next_ind();
cpt++;
}
}
#endif
/*****************************************************************
* *
* MASK_ARRAY MEMBER FUNCTIONS *
* *
******************************************************************/
// mask_array inline member functions
template <class T>
void mask_array<T>::operator= (const valarray<T>& ar) const
{
size_t cpt = 0;
for(size_t iter=0; iter < array.size(); iter++ )
if ( array[iter] )
(*ref_mem_array)[iter]= ar[cpt++];
}
template <class T>
void mask_array<T>::operator= (const T& value) const
{
for(size_t iter=0; iter < array.size(); iter++ )
if ( array[iter] )
(*ref_mem_array)[iter]= value;
}
template <class T>
void mask_array<T>::operator*= (const valarray<T>& ar) const
{
size_t cpt = 0;
for(size_t iter=0; iter < array.size(); iter++ )
if ( array[iter] )
(*ref_mem_array)[iter] *= ar[cpt++];
}
template <class T>
void mask_array<T>::operator/= (const valarray<T>& ar) const
{
size_t cpt = 0;
for(size_t iter=0; iter < array.size(); iter++ )
if ( array[iter] )
(*ref_mem_array)[iter]/= ar[cpt++];
}
template <class T>
void mask_array<T>::operator+= (const valarray<T>& ar) const
{
size_t cpt = 0;
for(size_t iter=0; iter < array.size(); iter++ )
if ( array[iter] )
(*ref_mem_array)[iter]+= ar[cpt++];
}
template <class T>
void mask_array<T>::operator-= (const valarray<T>& ar) const
{
size_t cpt = 0;
for(size_t iter=0; iter < array.size(); iter++ )
if ( array[iter] )
(*ref_mem_array)[iter]-= ar[cpt++];
}
#ifndef _RWSTD_NO_ONLY_NEEDED_INSTANTIATION
template <class T>
void mask_array<T>::operator%= (const valarray<T>& ar) const
{
size_t cpt = 0;
for(size_t iter=0; iter < array.size(); iter++ )
if ( array[iter] )
(*ref_mem_array)[iter]%= ar[cpt++];
}
template <class T>
void mask_array<T>::operator^= (const valarray<T>& ar) const
{
size_t cpt = 0;
for(size_t iter=0; iter < array.size(); iter++ )
if ( array[iter] )
(*ref_mem_array)[iter]^= ar[cpt++];
}
template <class T>
void mask_array<T>::operator&= (const valarray<T>& ar) const
{
size_t cpt = 0;
for(size_t iter=0; iter < array.size(); iter++ )
if ( array[iter] )
(*ref_mem_array)[iter]&= ar[cpt++];
}
template <class T>
void mask_array<T>::operator|= (const valarray<T>& ar) const
{
size_t cpt = 0;
for(size_t iter=0; iter < array.size(); iter++ )
if ( array[iter] )
(*ref_mem_array)[iter]|= ar[cpt++];
}
template <class T>
void mask_array<T>::operator<<= (const valarray<T>& ar) const
{
size_t cpt = 0;
for(size_t iter=0; iter < array.size(); iter++ )
if ( array[iter] )
(*ref_mem_array)[iter]<<= ar[cpt++];
}
template <class T>
void mask_array<T>::operator>>= (const valarray<T>& ar) const
{
size_t cpt = 0;
for(size_t iter=0; iter < array.size(); iter++ )
if ( array[iter] )
(*ref_mem_array)[iter]>>= ar[cpt++];
}
#endif
/*****************************************************************
* *
* INDIRECT_ARRAY MEMBER FUNCTIONS *
* *
******************************************************************/
// indirect_array inline member functions
template <class T>
void indirect_array<T>::operator= (const valarray<T>& ar) const
{
size_t cpt=0;
for(size_t iter=0; iter < array.size(); iter++ )
(*ref_mem_array)[array[iter]] = ar[cpt++];
}
template <class T>
void indirect_array<T>::operator= (const T& value) const
{
for(size_t iter=0; iter < array.size(); iter++ )
(*ref_mem_array)[array[iter]] = value;
}
template <class T>
void indirect_array<T>::operator*= (const valarray<T>& ar) const
{
size_t cpt=0;
for(size_t iter=0; iter < array.size(); iter++ )
(*ref_mem_array)[array[iter]] *= ar[cpt++];
}
template <class T>
void indirect_array<T>::operator/= (const valarray<T>& ar) const
{
size_t cpt=0;
for(size_t iter=0; iter < array.size(); iter++ )
(*ref_mem_array)[array[iter]] /= ar[cpt++];
}
template <class T>
void indirect_array<T>::operator+= (const valarray<T>& ar) const
{
size_t cpt=0;
for(size_t iter=0; iter < array.size(); iter++ )
(*ref_mem_array)[array[iter]] += ar[cpt++];
}
template <class T>
void indirect_array<T>::operator-= (const valarray<T>& ar) const
{
size_t cpt=0;
for(size_t iter=0; iter < array.size(); iter++ )
(*ref_mem_array)[array[iter]] -= ar[cpt++];
}
#ifndef _RWSTD_NO_ONLY_NEEDED_INSTANTIATION
template <class T>
void indirect_array<T>::operator%= (const valarray<T>& ar) const
{
size_t cpt=0;
for(size_t iter=0; iter < array.size(); iter++ )
(*ref_mem_array)[array[iter]] %= ar[cpt++];
}
template <class T>
void indirect_array<T>::operator^= (const valarray<T>& ar) const
{
size_t cpt=0;
for(size_t iter=0; iter < array.size(); iter++ )
(*ref_mem_array)[array[iter]] ^= ar[cpt++];
}
template <class T>
void indirect_array<T>::operator&= (const valarray<T>& ar) const
{
size_t cpt=0;
for(size_t iter=0; iter < array.size(); iter++ )
(*ref_mem_array)[array[iter]] &= ar[cpt++];
}
template <class T>
void indirect_array<T>::operator|= (const valarray<T>& ar) const
{
size_t cpt=0;
for(size_t iter=0; iter < array.size(); iter++ )
(*ref_mem_array)[array[iter]] |= ar[cpt++];
}
template <class T>
void indirect_array<T>::operator<<= (const valarray<T>& ar) const
{
size_t cpt=0;
for(size_t iter=0; iter < array.size(); iter++ )
(*ref_mem_array)[array[iter]] <<= ar[cpt++];
}
template <class T>
void indirect_array<T>::operator>>= (const valarray<T>& ar) const
{
size_t cpt=0;
for(size_t iter=0; iter < array.size(); iter++ )
(*ref_mem_array)[array[iter]] >>= ar[cpt++];
}
#endif
#ifndef _RWSTD_NO_NAMESPACE
}
#endif
#pragma option pop
#endif /* __VALARRAY_CC */