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ArrayOf_PromoteType.cpp
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ArrayOf_PromoteType.cpp
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//=============================================================================
// Copyright (c) 2019-present Allan CORNET (Nelson)
//=============================================================================
// This file is part of the Nelson.
//=============================================================================
// LICENCE_BLOCK_BEGIN
// This program 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 2.1 of the License, or (at your option) any later version.
//
// Alternatively, you can redistribute it and/or
// modify it under the terms of the GNU General Public License as
// published by the Free Software Foundation; either version 2 of
// the License, or (at your option) any later version.
//
// This program 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
// License along with this program. If not, see <http://www.gnu.org/licenses/>.
// LICENCE_BLOCK_END
//=============================================================================
#if _MSC_VER
#pragma warning(disable : 4018)
#endif
//=============================================================================
#include <limits>
#include <typeinfo>
#include "ArrayOf.hpp"
#include "Data.hpp"
#include "Dimensions.hpp"
#include "Types.hpp"
#include "SparseDynamicFunctions.hpp"
#include "nlsConfig.h"
//=============================================================================
namespace Nelson {
//=============================================================================
template <typename TIN, typename TOUT>
inline TOUT
numeric_cast(TIN value)
{
const bool positive_overflow_possible
= std::numeric_limits<TOUT>::max() < std::numeric_limits<TIN>::max();
const bool negative_overflow_possible = std::numeric_limits<TIN>::is_signed
|| (std::numeric_limits<TOUT>::lowest() > std::numeric_limits<TIN>::lowest());
// unsigned <-- unsigned
if ((!std::numeric_limits<TOUT>::is_signed) && (!std::numeric_limits<TIN>::is_signed)) {
if (positive_overflow_possible && (value > std::numeric_limits<TOUT>::max())) {
return std::numeric_limits<TOUT>::max();
}
}
// unsigned <-- signed
else if ((!std::numeric_limits<TOUT>::is_signed) && std::numeric_limits<TIN>::is_signed) {
if (positive_overflow_possible && (value > std::numeric_limits<TOUT>::max())) {
return std::numeric_limits<TOUT>::max();
} else if (negative_overflow_possible && (value < 0)) {
return std::numeric_limits<TOUT>::min();
}
}
// signed <-- unsigned
else if (std::numeric_limits<TOUT>::is_signed && (!std::numeric_limits<TIN>::is_signed)) {
if (positive_overflow_possible && (value > std::numeric_limits<TOUT>::max())) {
return std::numeric_limits<TOUT>::max();
}
}
// signed <-- signed
else if (std::numeric_limits<TOUT>::is_signed && std::numeric_limits<TIN>::is_signed) {
if (positive_overflow_possible && (value > std::numeric_limits<TOUT>::max())) {
return std::numeric_limits<TOUT>::max();
} else if (negative_overflow_possible && (value < std::numeric_limits<TOUT>::lowest())) {
return std::numeric_limits<TOUT>::min();
}
}
if (typeid(TOUT) != typeid(single) || typeid(TOUT) != typeid(double)) {
if (typeid(TIN) == typeid(single) || typeid(TIN) == typeid(double)) {
return static_cast<TOUT>((long double)std::round(value));
}
}
return static_cast<TOUT>(value);
}
//=============================================================================
template <class TIN, class TOUT>
void
saturate(Class classIn, Class classOut, const void* pIn, void* pOut, indexType count)
{
const TIN* sp = (const TIN*)pIn;
TOUT* qp = (TOUT*)pOut;
if (classIn != classOut) {
bool checkNaN = false;
if (typeid(TOUT) != typeid(single) || typeid(TOUT) != typeid(double)) {
if (typeid(TIN) == typeid(single) || typeid(TIN) == typeid(double)) {
checkNaN = true;
}
}
if (checkNaN) {
#if defined(_NLS_WITH_OPENMP)
#pragma omp parallel for
#endif
for (ompIndexType i = 0; i < (ompIndexType)count; i++) {
if (std::isnan((double)sp[i])) {
qp[i] = (TOUT)0;
} else {
qp[i] = (TOUT)numeric_cast<TIN, TOUT>(sp[i]);
}
}
} else {
#if defined(_NLS_WITH_OPENMP)
#pragma omp parallel for
#endif
for (ompIndexType i = 0; i < (ompIndexType)count; i++) {
qp[i] = numeric_cast<TIN, TOUT>(sp[i]);
}
}
}
}
//=============================================================================
/**
* Promote our data to a new type.
*
* Copy data from our data array to the specified
* array, converting the data as we go. We can only
* convert data to or from base types. So if the source
* or destination types are reference types, we cannot
* perform the conversion.
*
* For the remaining types, we have a matrix of
* possibilities. Here we list the conversion rules.
*
* Source type
* - string
* - logical dest = (source == 0) ? 0 : 1
* - real dest = (double) source
* - complex dest = (double) source
* - logical
* - string dest = (char) source
* - real dest = (double) source
* - complex dest = (double) source
* - real
* - string dest = (char) source
* - logical dest = (source == 0) ? 0 : 1
* - complex dest = (double) source
* - complex
* - string dest = (char) real(source)
* - logical dest = (real(source) == 0 && imag(source) == 0) ? 0:1
* - real dest = real(source)
*/
//=============================================================================
template <class TIN, class TOUT>
TOUT*
promoteAsReal(Class dstClass, const TIN* ptr, indexType count)
{
TOUT* dstPtr = (TOUT*)ArrayOf::allocateArrayOf(dstClass, count);
#if defined(_NLS_WITH_OPENMP)
#pragma omp parallel for
#endif
for (ompIndexType i = 0; i < (ompIndexType)count; i++) {
dstPtr[i] = (TOUT)ptr[i];
}
return dstPtr;
}
//=============================================================================
template <class TIN, class TOUT>
TOUT*
promoteAsLogical(Class dstClass, const TIN* ptr, indexType count)
{
TOUT* dstPtr = (TOUT*)ArrayOf::allocateArrayOf(dstClass, count);
#if defined(_NLS_WITH_OPENMP)
#pragma omp parallel for
#endif
for (ompIndexType i = 0; i < (ompIndexType)count; i++) {
dstPtr[i] = (ptr[i] == 0) ? 0 : 1;
}
return dstPtr;
}
//=============================================================================
template <class TIN, class TOUT>
TOUT*
promoteComplexAsLogical(Class dstClass, const TIN* ptr, indexType count)
{
TOUT* dstPtr = (TOUT*)ArrayOf::allocateArrayOf(dstClass, count);
#if defined(_NLS_WITH_OPENMP)
#pragma omp parallel for
#endif
for (ompIndexType i = 0; i < count; ++i) {
dstPtr[i] = (ptr[(i*2)] || ptr[(i*2) + 1]) ? 1 : 0;
}
return dstPtr;
}
//=============================================================================
template <class TIN, class TOUT>
TOUT*
promoteComplexAsReal(Class dstClass, const TIN* ptr, indexType count)
{
TOUT* dstPtr = (TOUT*)ArrayOf::allocateArrayOf(dstClass, count);
#if defined(_NLS_WITH_OPENMP)
#pragma omp parallel for
#endif
for (ompIndexType i = 0; i < (ompIndexType)count; i = i + 1) {
dstPtr[i] = (TOUT)ptr[i * 2];
}
return dstPtr;
}
//=============================================================================
template <class TIN, class TOUT>
TOUT*
promoteComplexAsComplex(Class dstClass, const TIN* ptr, indexType count)
{
TOUT* dstPtr = (TOUT*)ArrayOf::allocateArrayOf(dstClass, count);
#if defined(_NLS_WITH_OPENMP)
#pragma omp parallel for
#endif
for (ompIndexType i = 0; i < (ompIndexType)count * 2; i = i + 2) {
dstPtr[i] = (TOUT)ptr[i];
dstPtr[i + 1] = (TOUT)ptr[i + 1];
}
return dstPtr;
}
//=============================================================================
template <class TIN, class TOUT>
TOUT*
promoteAsComplex(Class dstClass, const TIN* ptr, indexType count)
{
TOUT* dstPtr = (TOUT*)ArrayOf::allocateArrayOf(dstClass, count, stringVector(), true);
#if defined(_NLS_WITH_OPENMP)
#pragma omp parallel for
#endif
for (ompIndexType i = 0; i < (ompIndexType)count; i = i + 1) {
dstPtr[i << 1] = (TOUT)ptr[i];
}
return dstPtr;
}
//=============================================================================
template <class TIN, class TOUT>
TOUT*
promoteComplexAsInteger(Class dstClass, const TIN* ptr, indexType count)
{
TOUT* dstPtr = (TOUT*)ArrayOf::allocateArrayOf(dstClass, count);
bool checkNaN = false;
if (typeid(TOUT) != typeid(single) || typeid(TOUT) != typeid(double)) {
if (typeid(TIN) == typeid(single) || typeid(TIN) == typeid(double)) {
checkNaN = true;
}
}
if (checkNaN) {
#if defined(_NLS_WITH_OPENMP)
#pragma omp parallel for
#endif
for (ompIndexType i = 0; i < (ompIndexType)count; i++) {
if (std::isnan((double)ptr[i * 2])) {
dstPtr[i] = (TOUT)0;
} else {
dstPtr[i] = (TOUT)numeric_cast<TIN, TOUT>(ptr[i * 2]);
}
}
} else {
for (ompIndexType i = 0; i < (ompIndexType)count; i++) {
dstPtr[i] = numeric_cast<TIN, TOUT>(ptr[i * 2]);
}
}
return dstPtr;
}
//=============================================================================
void
ArrayOf::promoteType(Class dstClass, stringVector fNames)
{
if (isEmpty()) {
dp = dp->putData(dstClass, dp->dimensions, NULL, isSparse(), fNames);
return;
}
if (dp->dataClass != dstClass) {
if ((dstClass == NLS_STRING_ARRAY) || (dstClass == NLS_CELL_ARRAY)
|| (dstClass == NLS_STRUCT_ARRAY)) {
Error(_W("Cannot convert base types to reference types."));
}
}
// Do nothing for promoting to same class (no-op).
if (isSparse()) {
dp = dp->putData(dstClass, dp->dimensions,
TypeConvertSparseDynamicFunction(
dstClass, dp->dimensions[0], dp->dimensions[1], dp->getData(), dp->dataClass),
true);
return;
}
indexType count = getElementCount();
void* dstPtr = nullptr;
switch (dp->dataClass) {
case NLS_HANDLE: {
if (dstClass == NLS_HANDLE) {
return;
} else {
Error(_W("Cannot convert handle-arrays to any other type."));
}
} break;
case NLS_CELL_ARRAY: {
if (dstClass == NLS_CELL_ARRAY) {
return;
} else {
Error(_W("Cannot convert cell-arrays to any other type."));
}
} break;
case NLS_STRUCT_ARRAY: {
if (dstClass == NLS_STRUCT_ARRAY) {
// TODO: Generalize this code to allow for one more field in destination
// than in source...
if (dp->fieldNames.size() > fNames.size()) {
Error(_W("Cannot combine structures with different fields if the "
"combination "
"requires fields to be deleted from one of the structures."));
}
// We are promoting a struct array to a struct array.
// To do so, we have to make sure that the field names work out.
// The only thing we must check for is that every field name
// in fieldnames is present in fnames.
int extraCount = 0;
int matchCount = 0;
indexType i;
for (i = 0; i < (int)fNames.size(); i++) {
int64 ndx = getFieldIndex(fNames[i]);
if (ndx == -1) {
extraCount++;
} else {
matchCount++;
}
}
// Now, matchCount should be equal to the size of fieldNames
if (matchCount != dp->fieldNames.size()) {
Error(_W("Cannot combine structures with different fields if the "
"combination "
"requires fields to be deleted from one of the structures."));
}
void* dstPtr = allocateArrayOf(dp->dataClass, getElementCount(), fNames, false);
const ArrayOf* src_rp = (const ArrayOf*)dp->getData();
ArrayOf* dst_rp = (ArrayOf*)dstPtr;
indexType elCount(getElementCount());
indexType fieldCount(dp->fieldNames.size());
indexType newFieldCount(fNames.size());
;
// Now we have to copy our existing fields into the new order...
for (i = 0; i < fieldCount; i++) {
int64 newNdx = getFieldIndexFromList(dp->fieldNames[i], fNames);
for (indexType j = 0; j < elCount; j++) {
dst_rp[j * newFieldCount + newNdx] = src_rp[j * fieldCount + i];
}
}
dp = dp->putData(dp->dataClass, dp->dimensions, dstPtr, false, fNames);
return;
} else {
Error(_W("Cannot convert struct-arrays to any other type."));
}
} break;
case NLS_STRING_ARRAY: {
if (dstClass == NLS_STRING_ARRAY) {
return;
} else {
Error(_W("Cannot convert string-arrays to any other type."));
}
} break;
case NLS_LOGICAL: {
const logical* sp = (const logical*)dp->getData();
switch (dstClass) {
case NLS_LOGICAL: {
return;
} break;
case NLS_UINT8: {
dstPtr = (void*)promoteAsReal<logical, uint8>(dstClass, sp, count);
} break;
case NLS_INT8: {
dstPtr = (void*)promoteAsReal<logical, int8>(dstClass, sp, count);
} break;
case NLS_UINT16: {
dstPtr = (void*)promoteAsReal<logical, uint16>(dstClass, sp, count);
} break;
case NLS_INT16: {
dstPtr = (void*)promoteAsReal<logical, int16>(dstClass, sp, count);
} break;
case NLS_UINT32: {
dstPtr = (void*)promoteAsReal<logical, uint32>(dstClass, sp, count);
} break;
case NLS_INT32: {
dstPtr = (void*)promoteAsReal<logical, int32>(dstClass, sp, count);
} break;
case NLS_UINT64: {
dstPtr = (void*)promoteAsReal<logical, uint64>(dstClass, sp, count);
} break;
case NLS_INT64: {
dstPtr = (void*)promoteAsReal<logical, int64>(dstClass, sp, count);
} break;
case NLS_SINGLE: {
dstPtr = (void*)promoteAsReal<logical, single>(dstClass, sp, count);
} break;
case NLS_DOUBLE: {
dstPtr = (void*)promoteAsReal<logical, double>(dstClass, sp, count);
} break;
case NLS_SCOMPLEX: {
dstPtr = promoteAsComplex<logical, single>(dstClass, sp, count);
} break;
case NLS_DCOMPLEX: {
dstPtr = promoteAsComplex<logical, double>(dstClass, sp, count);
} break;
case NLS_CHAR: {
dstPtr = (void*)promoteAsReal<logical, charType>(dstClass, sp, count);
} break;
default: {
Error(_("Type not managed."));
} break;
}
} break;
case NLS_UINT8: {
const uint8* sp = (const uint8*)dp->getData();
switch (dstClass) {
case NLS_LOGICAL: {
dstPtr = promoteAsLogical<uint8, logical>(dstClass, sp, count);
} break;
case NLS_UINT8: {
return;
} break;
case NLS_INT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint8, int8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint8, uint16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint8, int16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint8, uint32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint8, int32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint8, uint64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint8, int64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_SINGLE: {
dstPtr = promoteAsReal<uint8, single>(dstClass, sp, count);
} break;
case NLS_DOUBLE: {
dstPtr = promoteAsReal<uint8, double>(dstClass, sp, count);
} break;
case NLS_SCOMPLEX: {
dstPtr = promoteAsComplex<uint8, single>(dstClass, sp, count);
} break;
case NLS_DCOMPLEX: {
dstPtr = promoteAsComplex<uint8, double>(dstClass, sp, count);
} break;
case NLS_CHAR: {
dstPtr = promoteAsReal<uint8, charType>(dstClass, sp, count);
} break;
default: {
Error(_("Type not managed."));
} break;
}
} break;
case NLS_INT8: {
const int8* sp = (const int8*)dp->getData();
switch (dstClass) {
case NLS_LOGICAL: {
dstPtr = promoteAsLogical<int8, logical>(dstClass, sp, count);
} break;
case NLS_INT8: {
return;
} break;
case NLS_UINT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int8, uint8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int8, uint16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int8, int16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int8, uint32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int8, int32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int8, uint64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int8, int64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_SINGLE: {
dstPtr = promoteAsReal<int8, single>(dstClass, sp, count);
} break;
case NLS_DOUBLE: {
dstPtr = promoteAsReal<int8, double>(dstClass, sp, count);
} break;
case NLS_SCOMPLEX: {
dstPtr = promoteAsComplex<int8, single>(dstClass, sp, count);
} break;
case NLS_DCOMPLEX: {
dstPtr = promoteAsComplex<int8, double>(dstClass, sp, count);
} break;
case NLS_CHAR: {
dstPtr = promoteAsComplex<int8, charType>(dstClass, sp, count);
} break;
default: {
Error(_("Type not managed."));
} break;
}
} break;
case NLS_UINT16: {
const uint16* sp = (const uint16*)dp->getData();
switch (dstClass) {
case NLS_LOGICAL: {
dstPtr = promoteAsReal<uint16, logical>(dstClass, sp, count);
} break;
case NLS_UINT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint16, uint8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint16, int8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT16: {
return;
} break;
case NLS_INT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint16, int16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint16, uint32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint16, int32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint16, uint64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint16, int64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_SINGLE: {
dstPtr = promoteAsReal<uint16, single>(dstClass, sp, count);
} break;
case NLS_DOUBLE: {
dstPtr = promoteAsReal<uint16, double>(dstClass, sp, count);
} break;
case NLS_SCOMPLEX: {
dstPtr = promoteAsComplex<uint16, single>(dstClass, sp, count);
} break;
case NLS_DCOMPLEX: {
dstPtr = promoteAsComplex<uint16, double>(dstClass, sp, count);
} break;
case NLS_CHAR: {
dstPtr = promoteAsReal<uint16, charType>(dstClass, sp, count);
} break;
default: {
Error(_("Type not managed."));
} break;
}
} break;
case NLS_INT16: {
const int16* sp = (const int16*)dp->getData();
switch (dstClass) {
case NLS_LOGICAL: {
dstPtr = promoteAsLogical<int16, logical>(dstClass, sp, count);
} break;
case NLS_UINT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int16, uint8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int16, int8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT16: {
return;
} break;
case NLS_UINT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int16, uint16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int16, uint32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int16, int32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int16, uint64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int16, int64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_SINGLE: {
dstPtr = promoteAsReal<int16, single>(dstClass, sp, count);
} break;
case NLS_DOUBLE: {
dstPtr = promoteAsReal<int16, double>(dstClass, sp, count);
} break;
case NLS_SCOMPLEX: {
dstPtr = promoteAsComplex<int16, single>(dstClass, sp, count);
} break;
case NLS_DCOMPLEX: {
dstPtr = promoteAsComplex<int16, double>(dstClass, sp, count);
} break;
case NLS_CHAR: {
dstPtr = promoteAsReal<int16, charType>(dstClass, sp, count);
} break;
default: {
Error(_("Type not managed."));
} break;
}
} break;
case NLS_UINT32: {
const uint32* sp = (const uint32*)dp->getData();
switch (dstClass) {
case NLS_LOGICAL: {
dstPtr = promoteAsLogical<uint32, logical>(dstClass, sp, count);
} break;
case NLS_UINT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint32, uint8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint32, int8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint32, uint16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint32, int16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT32: {
return;
} break;
case NLS_INT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint32, int32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint32, uint64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint32, int64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_SINGLE: {
dstPtr = promoteAsReal<uint32, single>(dstClass, sp, count);
} break;
case NLS_DOUBLE: {
dstPtr = promoteAsReal<uint32, double>(dstClass, sp, count);
} break;
case NLS_SCOMPLEX: {
dstPtr = promoteAsComplex<uint32, single>(dstClass, sp, count);
} break;
case NLS_DCOMPLEX: {
dstPtr = promoteAsComplex<uint32, double>(dstClass, sp, count);
} break;
case NLS_CHAR: {
dstPtr = promoteAsReal<uint32, charType>(dstClass, sp, count);
} break;
default: {
Error(_("Type not managed."));
} break;
}
} break;
case NLS_INT32: {
const int32* sp = (const int32*)dp->getData();
switch (dstClass) {
case NLS_LOGICAL: {
dstPtr = promoteAsLogical<int32, logical>(dstClass, sp, count);
} break;
case NLS_UINT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int32, uint8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int32, int8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int32, uint16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int32, int16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT32: {
return;
} break;
case NLS_UINT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int32, uint32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int32, uint64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int32, int64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_SINGLE: {
dstPtr = promoteAsReal<int32, single>(dstClass, sp, count);
} break;
case NLS_DOUBLE: {
dstPtr = promoteAsReal<int32, double>(dstClass, sp, count);
} break;
case NLS_SCOMPLEX: {
dstPtr = promoteAsComplex<int32, single>(dstClass, sp, count);
} break;
case NLS_DCOMPLEX: {
dstPtr = promoteAsComplex<int32, double>(dstClass, sp, count);
} break;
case NLS_CHAR: {
dstPtr = promoteAsReal<int32, charType>(dstClass, sp, count);
} break;
default: {
Error(_("Type not managed."));
} break;
}
} break;
case NLS_UINT64: {
const uint64* sp = (const uint64*)dp->getData();
switch (dstClass) {
case NLS_LOGICAL: {
dstPtr = promoteAsLogical<uint64, logical>(dstClass, sp, count);
} break;
case NLS_UINT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint64, uint8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint64, int8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint64, uint16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint64, int16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint64, uint32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint64, int32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT64: {
return;
} break;
case NLS_INT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<uint64, int64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_SINGLE: {
dstPtr = promoteAsReal<uint64, single>(dstClass, sp, count);
} break;
case NLS_DOUBLE: {
dstPtr = promoteAsReal<uint64, double>(dstClass, sp, count);
} break;
case NLS_SCOMPLEX: {
dstPtr = promoteAsComplex<uint64, single>(dstClass, sp, count);
} break;
case NLS_DCOMPLEX: {
dstPtr = promoteAsComplex<uint64, double>(dstClass, sp, count);
} break;
case NLS_CHAR: {
dstPtr = promoteAsReal<uint64, charType>(dstClass, sp, count);
} break;
default: {
Error(_("Type not managed."));
} break;
}
} break;
case NLS_INT64: {
const int64* sp = (const int64*)dp->getData();
switch (dstClass) {
case NLS_LOGICAL: {
dstPtr = promoteAsLogical<int64, logical>(dstClass, sp, count);
} break;
case NLS_UINT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int64, uint8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int64, int8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int64, uint16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int64, int16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int64, uint32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int64, int32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT64: {
return;
} break;
case NLS_UINT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<int64, uint64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_SINGLE: {
dstPtr = promoteAsReal<int64, single>(dstClass, sp, count);
} break;
case NLS_DOUBLE: {
dstPtr = promoteAsReal<int64, double>(dstClass, sp, count);
} break;
case NLS_SCOMPLEX: {
dstPtr = promoteAsComplex<int64, single>(dstClass, sp, count);
} break;
case NLS_DCOMPLEX: {
dstPtr = promoteAsComplex<int64, double>(dstClass, sp, count);
} break;
case NLS_CHAR: {
dstPtr = promoteAsReal<int64, charType>(dstClass, sp, count);
} break;
default: {
Error(_("Type not managed."));
} break;
}
} break;
case NLS_SINGLE: {
const single* sp = (const single*)dp->getData();
switch (dstClass) {
case NLS_LOGICAL: {
dstPtr = promoteAsLogical<single, logical>(dstClass, sp, count);
} break;
case NLS_UINT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<single, uint8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<single, int8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<single, uint16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<single, int16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<single, uint32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<single, int32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<single, uint64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<single, int64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_SINGLE: {
return;
} break;
case NLS_DOUBLE: {
dstPtr = promoteAsReal<single, double>(dstClass, sp, count);
} break;
case NLS_SCOMPLEX: {
dstPtr = promoteAsComplex<single, single>(dstClass, sp, count);
} break;
case NLS_DCOMPLEX: {
dstPtr = promoteAsComplex<single, double>(dstClass, sp, count);
} break;
case NLS_CHAR: {
dstPtr = promoteAsReal<single, charType>(dstClass, sp, count);
} break;
default: {
Error(_("Type not managed."));
} break;
}
} break;
case NLS_DOUBLE: {
const double* sp = (const double*)dp->getData();
switch (dstClass) {
case NLS_LOGICAL: {
dstPtr = promoteAsLogical<double, logical>(dstClass, sp, count);
} break;
case NLS_UINT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<double, uint8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT8: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<double, int8>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<double, uint16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT16: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<double, int16>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<double, uint32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT32: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<double, int32>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_UINT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<double, uint64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_INT64: {
dstPtr = ArrayOf::allocateArrayOf(dstClass, count);
saturate<double, int64>(dp->dataClass, dstClass, dp->getData(), dstPtr, count);
} break;
case NLS_SINGLE: {
dstPtr = promoteAsReal<double, single>(dstClass, sp, count);
} break;
case NLS_DOUBLE: {
return;
} break;
case NLS_SCOMPLEX: {
dstPtr = promoteAsComplex<double, single>(dstClass, sp, count);
} break;
case NLS_DCOMPLEX: {
dstPtr = promoteAsComplex<double, double>(dstClass, sp, count);
} break;
case NLS_CHAR: {
dstPtr = promoteAsReal<double, charType>(dstClass, sp, count);
} break;
default: {
Error(_("Type not managed."));
} break;
}
} break;
case NLS_SCOMPLEX: {
const single* sp = (const single*)dp->getData();
switch (dstClass) {
case NLS_LOGICAL: {
dstPtr = promoteComplexAsLogical<single, logical>(dstClass, sp, count);
} break;
case NLS_UINT8: {
dstPtr = promoteComplexAsInteger<single, uint8>(dstClass, sp, count);
} break;
case NLS_INT8: {
dstPtr = promoteComplexAsInteger<single, int8>(dstClass, sp, count);
} break;
case NLS_UINT16: {
dstPtr = promoteComplexAsInteger<single, uint16>(dstClass, sp, count);
} break;
case NLS_INT16: {