static
LPVOID MemoryOpen(LPBYTE Block, size_t Size, char Mode)
{
FILEMEM* fm = (FILEMEM*) _cmsMalloc(sizeof(FILEMEM));
if (fm == NULL) return NULL;
ZeroMemory(fm, sizeof(FILEMEM));
if (Mode == 'r') {
fm ->Block = (LPBYTE) _cmsMalloc(Size);
if (fm ->Block == NULL) {
_cmsFree(fm);
return NULL;
}
CopyMemory(fm->Block, Block, Size);
fm ->FreeBlockOnClose = TRUE;
}
else {
fm ->Block = Block;
fm ->FreeBlockOnClose = FALSE;
}
fm ->Size = Size;
fm ->Pointer = 0;
return (LPVOID) fm;
}
LPMATSHAPER cmsAllocMatShaper(LPMAT3 Matrix, LPGAMMATABLE Tables[], DWORD Behaviour)
{
LPMATSHAPER NewMatShaper;
int i, AllLinear;
NewMatShaper = (LPMATSHAPER) _cmsMalloc(sizeof(MATSHAPER));
if (NewMatShaper)
ZeroMemory(NewMatShaper, sizeof(MATSHAPER));
NewMatShaper->dwFlags = Behaviour & (MATSHAPER_ALLSMELTED);
// Fill matrix part
MAT3toFix(&NewMatShaper -> Matrix, Matrix);
// Reality check
if (!MAT3isIdentity(&NewMatShaper -> Matrix, 0.00001))
NewMatShaper -> dwFlags |= MATSHAPER_HASMATRIX;
// Now, on the table characteristics
cmsCalcL16Params(Tables[0] -> nEntries, &NewMatShaper -> p16);
// Copy tables
AllLinear = 0;
for (i=0; i < 3; i++)
{
LPWORD PtrW;
PtrW = (LPWORD) _cmsMalloc(sizeof(WORD) * NewMatShaper -> p16.nSamples);
if (PtrW == NULL) {
cmsFreeMatShaper(NewMatShaper);
return NULL;
}
CopyMemory(PtrW, Tables[i] -> GammaTable,
sizeof(WORD) * Tables[i] -> nEntries);
NewMatShaper -> L[i] = PtrW; // Set table pointer
// Linear after all?
AllLinear += cmsIsLinear(PtrW, NewMatShaper -> p16.nSamples);
}
// If is all linear, then supress table interpolation (this
// will speed greately some trivial operations
if (AllLinear != 3)
NewMatShaper -> dwFlags |= MATSHAPER_HASSHAPER;
return NewMatShaper;
}
// Sub allocation takes care of many pointers of small size. The memory allocated in
// this way have be freed at once. Next function allocates a single chunk for linked list
// I prefer this method over realloc due to the big inpact on xput realloc may have if
// memory is being swapped to disk. This approach is safer (although that may not be true on all platforms)
static
_cmsSubAllocator_chunk* _cmsCreateSubAllocChunk(cmsContext ContextID, cmsUInt32Number Initial)
{
_cmsSubAllocator_chunk* chunk;
// 20K by default
if (Initial == 0)
Initial = 20*1024;
// Create the container
chunk = (_cmsSubAllocator_chunk*) _cmsMallocZero(ContextID, sizeof(_cmsSubAllocator_chunk));
if (chunk == NULL) return NULL;
// Initialize values
chunk ->Block = (cmsUInt8Number*) _cmsMalloc(ContextID, Initial);
if (chunk ->Block == NULL) {
// Something went wrong
_cmsFree(ContextID, chunk);
return NULL;
}
chunk ->BlockSize = Initial;
chunk ->Used = 0;
chunk ->next = NULL;
return chunk;
}
static
void* defMtxCreate(cmsContext id)
{
_cmsMutex* ptr_mutex = (_cmsMutex*) _cmsMalloc(id, sizeof(_cmsMutex));
_cmsInitMutexPrimitive(ptr_mutex);
return (void*) ptr_mutex;
}
static
int ComputeTables(LPGAMMATABLE Table[3], LPWORD Out[3], LPL16PARAMS p16)
{
int i, AllLinear;
cmsCalcL16Params(Table[0] -> nEntries, p16);
AllLinear = 0;
for (i=0; i < 3; i++)
{
LPWORD PtrW;
PtrW = (LPWORD) _cmsMalloc(sizeof(WORD) * p16 -> nSamples);
if (PtrW == NULL) return -1; // Signal error
CopyMemory(PtrW, Table[i] -> GammaTable, sizeof(WORD) * Table[i] -> nEntries);
Out[i] = PtrW; // Set table pointer
// Linear after all?
AllLinear += cmsIsLinear(PtrW, p16 -> nSamples);
}
// If is all linear, then supress table interpolation (this
// will speed greately some trivial operations.
// Return 1 if present, 0 if all linear
if (AllLinear != 3) return 1;
return 0;
}
LPLUT LCMSEXPORT cmsAlloc3DGrid(LPLUT NewLUT, int clutPoints, int inputChan, int outputChan)
{
DWORD nTabSize;
NewLUT -> wFlags |= LUT_HAS3DGRID;
NewLUT -> cLutPoints = clutPoints;
NewLUT -> InputChan = inputChan;
NewLUT -> OutputChan = outputChan;
nTabSize = (NewLUT -> OutputChan * UIpow(NewLUT->cLutPoints,
NewLUT->InputChan)
* sizeof(WORD));
NewLUT -> T = (LPWORD) _cmsMalloc(nTabSize);
if (NewLUT -> T == NULL) return NULL;
ZeroMemory(NewLUT -> T, nTabSize);
NewLUT ->Tsize = nTabSize;
cmsCalcCLUT16Params(NewLUT -> cLutPoints, NewLUT -> InputChan,
NewLUT -> OutputChan,
&NewLUT -> CLut16params);
return NewLUT;
}
static
LPVOID DupBlockTab(LPVOID Org, size_t size)
{
LPVOID mem = _cmsMalloc(size);
if (mem != NULL)
CopyMemory(mem, Org, size);
return mem;
}
// Generic allocate & zero
static
void* _cmsMallocZeroDefaultFn(cmsContext ContextID, cmsUInt32Number size)
{
void *pt = _cmsMalloc(ContextID, size);
if (pt == NULL) return NULL;
memset(pt, 0, size);
return pt;
}
LPLUT LCMSEXPORT cmsAllocLUT(void)
{
LPLUT NewLUT;
NewLUT = (LPLUT) _cmsMalloc(sizeof(LUT));
if (NewLUT)
ZeroMemory(NewLUT, sizeof(LUT));
return NewLUT;
}
// Generic block duplication
static
void* _cmsDupDefaultFn(cmsContext ContextID, const void* Org, cmsUInt32Number size)
{
void* mem;
if (size > MAX_MEMORY_FOR_ALLOC) return NULL; // Never dup over 512Mb
mem = _cmsMalloc(ContextID, size);
if (mem != NULL && Org != NULL)
memmove(mem, Org, size);
return mem;
}
// Precomputes tables for 8-bit on input devicelink.
//
LPLUT _cmsBlessLUT8(LPLUT Lut)
{
int i, j;
WORD StageABC[3];
Fixed32 v1, v2, v3;
LPL8PARAMS p8;
LPL16PARAMS p = &Lut ->CLut16params;
p8 = (LPL8PARAMS) _cmsMalloc(sizeof(L8PARAMS));
if (p8 == NULL) return NULL;
// values comes * 257, so we can safely take first byte (x << 8 + x)
// if there are prelinearization, is already smelted in tables
for (i=0; i < 256; i++) {
StageABC[0] = StageABC[1] = StageABC[2] = RGB_8_TO_16(i);
if (Lut ->wFlags & LUT_HASTL1) {
for (j=0; j < 3; j++)
StageABC[j] = cmsLinearInterpLUT16(StageABC[j],
Lut -> L1[j],
&Lut -> In16params);
Lut ->wFlags &= ~LUT_HASTL1;
}
v1 = ToFixedDomain(StageABC[0] * p -> Domain);
v2 = ToFixedDomain(StageABC[1] * p -> Domain);
v3 = ToFixedDomain(StageABC[2] * p -> Domain);
p8 ->X0[i] = p->opta3 * FIXED_TO_INT(v1);
p8 ->Y0[i] = p->opta2 * FIXED_TO_INT(v2);
p8 ->Z0[i] = p->opta1 * FIXED_TO_INT(v3);
p8 ->rx[i] = (WORD) FIXED_REST_TO_INT(v1);
p8 ->ry[i] = (WORD) FIXED_REST_TO_INT(v2);
p8 ->rz[i] = (WORD) FIXED_REST_TO_INT(v3);
}
Lut -> CLut16params.p8 = p8;
Lut -> CLut16params.Interp3D = cmsTetrahedralInterp8;
return Lut;
}
LPMATSHAPER cmsAllocMatShaper2(LPMAT3 Matrix, LPGAMMATABLE In[], LPGAMMATABLE Out[], DWORD Behaviour)
{
LPMATSHAPER NewMatShaper;
int rc;
NewMatShaper = (LPMATSHAPER) _cmsMalloc(sizeof(MATSHAPER));
if (NewMatShaper)
ZeroMemory(NewMatShaper, sizeof(MATSHAPER));
NewMatShaper->dwFlags = Behaviour & (MATSHAPER_ALLSMELTED);
// Fill matrix part
MAT3toFix(&NewMatShaper -> Matrix, Matrix);
// Reality check
if (!MAT3isIdentity(&NewMatShaper -> Matrix, 0.00001))
NewMatShaper -> dwFlags |= MATSHAPER_HASMATRIX;
// Now, on the table characteristics
if (Out) {
rc = ComputeTables(Out, NewMatShaper ->L, &NewMatShaper ->p16);
if (rc < 0) {
cmsFreeMatShaper(NewMatShaper);
return NULL;
}
if (rc == 1) NewMatShaper -> dwFlags |= MATSHAPER_HASSHAPER;
}
if (In) {
rc = ComputeTables(In, NewMatShaper ->L2, &NewMatShaper ->p2_16);
if (rc < 0) {
cmsFreeMatShaper(NewMatShaper);
return NULL;
}
if (rc == 1) NewMatShaper -> dwFlags |= MATSHAPER_HASINPSHAPER;
}
return NewMatShaper;
}
cmsHPROFILE _cmsCreateProfilePlaceholder(void)
{
LPLCMSICCPROFILE Icc = (LPLCMSICCPROFILE) _cmsMalloc(sizeof(LCMSICCPROFILE));
if (Icc == NULL) return NULL;
// Empty values
ZeroMemory(Icc, sizeof(LCMSICCPROFILE));
// Make sure illuminant is correct
Icc ->Illuminant = *cmsD50_XYZ();
// Set it to empty
Icc -> TagCount = 0;
// Return the handle
return (cmsHPROFILE) Icc;
}
// Duplicating a MLU is as easy as copying all members
cmsMLU* CMSEXPORT cmsMLUdup(const cmsMLU* mlu)
{
cmsMLU* NewMlu = NULL;
// Duplicating a NULL obtains a NULL
if (mlu == NULL) return NULL;
NewMlu = cmsMLUalloc(mlu ->ContextID, mlu ->UsedEntries);
if (NewMlu == NULL) return NULL;
// Should never happen
if (NewMlu ->AllocatedEntries < mlu ->UsedEntries)
goto Error;
// Sanitize...
if (NewMlu ->Entries == NULL || mlu ->Entries == NULL) goto Error;
memmove(NewMlu ->Entries, mlu ->Entries, mlu ->UsedEntries * sizeof(_cmsMLUentry));
NewMlu ->UsedEntries = mlu ->UsedEntries;
// The MLU may be empty
if (mlu ->PoolUsed == 0) {
NewMlu ->MemPool = NULL;
}
else {
// It is not empty
NewMlu ->MemPool = _cmsMalloc(mlu ->ContextID, mlu ->PoolUsed);
if (NewMlu ->MemPool == NULL) goto Error;
}
NewMlu ->PoolSize = mlu ->PoolUsed;
if (NewMlu ->MemPool == NULL || mlu ->MemPool == NULL) goto Error;
memmove(NewMlu ->MemPool, mlu->MemPool, mlu ->PoolUsed);
NewMlu ->PoolUsed = mlu ->PoolUsed;
return NewMlu;
Error:
if (NewMlu != NULL) cmsMLUfree(NewMlu);
return NULL;
}
static
void GenerateCSA(void)
{
cmsHPROFILE hProfile = cmsOpenProfileFromFile(cInProf, "r");
size_t n;
char* Buffer;
n = cmsGetPostScriptCSA(hProfile, Intent, NULL, 0);
if (n == 0) return;
Buffer = (char*) _cmsMalloc(n + 1);
cmsGetPostScriptCSA(hProfile, Intent, Buffer, n);
Buffer[n] = 0;
fprintf(OutFile, "%s", Buffer);
_cmsFree(Buffer);
cmsCloseProfile(hProfile);
}
LPcmsNAMEDCOLORLIST cmsAllocNamedColorList(int n)
{
size_t size = sizeof(cmsNAMEDCOLORLIST) + (n - 1) * sizeof(cmsNAMEDCOLOR);
LPcmsNAMEDCOLORLIST v = (LPcmsNAMEDCOLORLIST) _cmsMalloc(size);
if (v == NULL) {
cmsSignalError(LCMS_ERRC_ABORTED, "Out of memory creating named color list");
return NULL;
}
ZeroMemory(v, size);
v ->nColors = n;
v ->Allocated = n;
v ->Prefix[0] = 0;
v ->Suffix[0] = 0;
return v;
}
cmsSEQ* CMSEXPORT cmsDupProfileSequenceDescription(const cmsSEQ* pseq)
{
cmsSEQ *NewSeq;
cmsUInt32Number i;
if (pseq == NULL)
return NULL;
NewSeq = (cmsSEQ*) _cmsMalloc(pseq -> ContextID, sizeof(cmsSEQ));
if (NewSeq == NULL) return NULL;
NewSeq -> seq = (cmsPSEQDESC*) _cmsCalloc(pseq ->ContextID, pseq ->n, sizeof(cmsPSEQDESC));
if (NewSeq ->seq == NULL) goto Error;
NewSeq -> ContextID = pseq ->ContextID;
NewSeq -> n = pseq ->n;
for (i=0; i < pseq->n; i++) {
memmove(&NewSeq ->seq[i].attributes, &pseq ->seq[i].attributes, sizeof(cmsUInt64Number));
NewSeq ->seq[i].deviceMfg = pseq ->seq[i].deviceMfg;
NewSeq ->seq[i].deviceModel = pseq ->seq[i].deviceModel;
memmove(&NewSeq ->seq[i].ProfileID, &pseq ->seq[i].ProfileID, sizeof(cmsProfileID));
NewSeq ->seq[i].technology = pseq ->seq[i].technology;
NewSeq ->seq[i].Manufacturer = cmsMLUdup(pseq ->seq[i].Manufacturer);
NewSeq ->seq[i].Model = cmsMLUdup(pseq ->seq[i].Model);
NewSeq ->seq[i].Description = cmsMLUdup(pseq ->seq[i].Description);
}
return NewSeq;
Error:
cmsFreeProfileSequenceDescription(NewSeq);
return NULL;
}
static
LPcmsNAMEDCOLORLIST GrowNamedColorList(LPcmsNAMEDCOLORLIST v, int ByElements)
{
if (ByElements > v ->Allocated) {
LPcmsNAMEDCOLORLIST TheNewList;
int NewElements;
size_t size;
if (v ->Allocated == 0)
NewElements = 64; // Initial guess
else
NewElements = v ->Allocated;
while (ByElements > NewElements)
NewElements *= 2;
size = sizeof(cmsNAMEDCOLORLIST) + (sizeof(cmsNAMEDCOLOR) * NewElements);
TheNewList = (LPcmsNAMEDCOLORLIST) _cmsMalloc(size);
if (TheNewList == NULL) {
cmsSignalError(LCMS_ERRC_ABORTED, "Out of memory reallocating named color list");
return NULL;
}
else {
ZeroMemory(TheNewList, size);
CopyMemory(TheNewList, v, sizeof(cmsNAMEDCOLORLIST) + (v ->nColors - 1) * sizeof(cmsNAMEDCOLOR));
TheNewList -> Allocated = NewElements;
_cmsFree(v);
return TheNewList;
}
}
return v;
}
LPVOID _cmsInitTag(LPLCMSICCPROFILE Icc, icTagSignature sig, size_t size, const void* Init)
{
LPVOID Ptr;
icInt32Number i;
i = _cmsSearchTag(Icc, sig, FALSE);
if (i >=0) {
if (Icc -> TagPtrs[i]) _cmsFree(Icc -> TagPtrs[i]);
}
else {
i = Icc -> TagCount;
Icc -> TagCount++;
if (Icc ->TagCount >= MAX_TABLE_TAG) {
cmsSignalError(LCMS_ERRC_ABORTED, "Too many tags (%d)", MAX_TABLE_TAG);
Icc ->TagCount = MAX_TABLE_TAG-1;
return NULL;
}
}
Ptr = _cmsMalloc(size);
if (Ptr == NULL) return NULL;
CopyMemory(Ptr, Init, size);
Icc ->TagNames[i] = sig;
Icc ->TagSizes[i] = size;
Icc ->TagPtrs[i] = Ptr;
return Ptr;
}
static
void GenerateCRD(void)
{
cmsHPROFILE hProfile = cmsOpenProfileFromFile(cOutProf, "r");
size_t n;
char* Buffer;
DWORD dwFlags = 0;
if (BlackPointCompensation) dwFlags |= cmsFLAGS_BLACKPOINTCOMPENSATION;
if (Undecorated) dwFlags |= cmsFLAGS_NODEFAULTRESOURCEDEF;
switch (PrecalcMode) {
case 0: dwFlags |= cmsFLAGS_LOWRESPRECALC; break;
case 2: dwFlags |= cmsFLAGS_HIGHRESPRECALC; break;
case 1:
if (NumOfGridPoints > 0)
dwFlags |= cmsFLAGS_GRIDPOINTS(NumOfGridPoints);
break;
default: FatalError("ERROR: Unknown precalculation mode '%d'", PrecalcMode);
}
n = cmsGetPostScriptCRDEx(hProfile, Intent, dwFlags, NULL, 0);
if (n == 0) return;
Buffer = (char*) _cmsMalloc(n + 1);
cmsGetPostScriptCRDEx(hProfile, Intent, dwFlags, Buffer, n);
Buffer[n] = 0;
fprintf(OutFile, "%s", Buffer);
_cmsFree(Buffer);
cmsCloseProfile(hProfile);
}
int main(int argc, char *argv[])
{
int i, nargs;
cmsHPROFILE Profiles[257];
cmsHPROFILE hProfile;
DWORD dwFlags = 0;
cmsHTRANSFORM hTransform;
fprintf(stderr, "little cms device link generator - v1.7\n");
HandleSwitches(argc, argv);
cmsSetErrorHandler(MyErrorHandler);
nargs = (argc - xoptind);
if (nargs < 1)
Help(0);
if (nargs > 255)
FatalError("ERROR: Holy profile! what are you trying to do with so many profiles?");
for (i=0; i < nargs; i++) {
Profiles[i] = OpenProfile(argv[i + xoptind]);
}
switch (PrecalcMode) {
case 0: dwFlags |= cmsFLAGS_LOWRESPRECALC; break;
case 2: dwFlags |= cmsFLAGS_HIGHRESPRECALC; break;
case 1:
if (NumOfGridPoints > 0)
dwFlags |= cmsFLAGS_GRIDPOINTS(NumOfGridPoints);
break;
default: FatalError("ERROR: Unknown precalculation mode '%d'", PrecalcMode);
}
if (BlackPointCompensation)
dwFlags |= cmsFLAGS_BLACKPOINTCOMPENSATION;
if (BlackPreservation > 0) {
dwFlags |= cmsFLAGS_PRESERVEBLACK;
cmsSetCMYKPreservationStrategy(BlackPreservation-1);
}
if (TagResult)
dwFlags |= cmsFLAGS_GUESSDEVICECLASS;
if (NoPrelinearization)
dwFlags |= cmsFLAGS_NOPRELINEARIZATION;
if (InkLimit != 400.0) {
cmsHPROFILE hInkLimit = cmsCreateInkLimitingDeviceLink(
cmsGetColorSpace(Profiles[nargs-1]), InkLimit);
Profiles[nargs++] = hInkLimit;
}
if (lUse8bits) dwFlags |= cmsFLAGS_NOPRELINEARIZATION;
hTransform = cmsCreateMultiprofileTransform(Profiles, nargs, 0, 0, Intent, dwFlags);
if (hTransform) {
size_t size = sizeof(int) + nargs * sizeof(cmsPSEQDESC);
LPcmsSEQ pseq = (LPcmsSEQ) _cmsMalloc(size);
ZeroMemory(pseq, size);
pseq ->n = nargs;
for (i=0; i < nargs; i++) {
strcpy(pseq ->seq[i].Manufacturer, cmsTakeManufacturer(Profiles[i]));
strcpy(pseq ->seq[1].Model, cmsTakeModel(Profiles[i]));
}
hProfile = cmsTransform2DeviceLink(hTransform, dwFlags);
cmsAddTag(hProfile, icSigProfileDescriptionTag, (LPVOID) Description);
cmsAddTag(hProfile, icSigCopyrightTag, (LPVOID) "Generated by littlecms icclink. No copyright, use freely");
cmsAddTag(hProfile, icSigProfileSequenceDescTag, (LPVOID) pseq);
if (lUse8bits) _cmsSetLUTdepth(hProfile, 8);
if (_cmsSaveProfile(hProfile, cOutProf))
fprintf(stderr, "Ok");
else
fprintf(stderr, "Error saving file!");
cmsCloseProfile(hProfile);
_cmsFree(pseq);
}
cmsDeleteTransform(hTransform);
for (i=0; i < nargs; i++) {
cmsCloseProfile(Profiles[i]);
}
return 0;
}
LCMSHANDLE LCMSEXPORT cmsCIECAM02Init(LPcmsViewingConditions pVC)
{
LPcmsCIECAM02 lpMod;
if((lpMod = (LPcmsCIECAM02) _cmsMalloc(sizeof(cmsCIECAM02))) == NULL) {
return (LCMSHANDLE) NULL;
}
ZeroMemory(lpMod, sizeof(cmsCIECAM02));
lpMod ->adoptedWhite.XYZ[0] = pVC ->whitePoint.X;
lpMod ->adoptedWhite.XYZ[1] = pVC ->whitePoint.Y;
lpMod ->adoptedWhite.XYZ[2] = pVC ->whitePoint.Z;
lpMod -> LA = pVC ->La;
lpMod -> Yb = pVC ->Yb;
lpMod -> D = pVC ->D_value;
lpMod -> surround = pVC ->surround;
switch (lpMod -> surround) {
case AVG_SURROUND_4:
lpMod->F = 1.0; // Not included in CAM02
lpMod->c = 0.69;
lpMod->Nc = 1.0;
break;
case CUTSHEET_SURROUND:
lpMod->F = 0.8;
lpMod->c = 0.41;
lpMod->Nc = 0.8;
break;
case DARK_SURROUND:
lpMod -> F = 0.8;
lpMod -> c = 0.525;
lpMod -> Nc = 0.8;
break;
case DIM_SURROUND:
lpMod -> F = 0.9;
lpMod -> c = 0.59;
lpMod -> Nc = 0.95;
break;
default:
// Average surround
lpMod -> F = 1.0;
lpMod -> c = 0.69;
lpMod -> Nc = 1.0;
}
lpMod -> n = compute_n(lpMod);
lpMod -> z = compute_z(lpMod);
lpMod -> Nbb = computeNbb(lpMod);
lpMod -> FL = computeFL(lpMod);
if (lpMod -> D == D_CALCULATE ||
lpMod -> D == D_CALCULATE_DISCOUNT) {
lpMod -> D = computeD(lpMod);
}
lpMod -> Ncb = lpMod -> Nbb;
lpMod -> adoptedWhite = XYZtoCAT02(lpMod -> adoptedWhite);
lpMod -> adoptedWhite = ChromaticAdaptation(lpMod -> adoptedWhite, lpMod);
lpMod -> adoptedWhite = CAT02toHPE(lpMod -> adoptedWhite);
lpMod -> adoptedWhite = NonlinearCompression(lpMod -> adoptedWhite, lpMod);
return (LCMSHANDLE) lpMod;
}
LPLUT LCMSEXPORT cmsAllocLinearTable(LPLUT NewLUT, LPGAMMATABLE Tables[], int nTable)
{
unsigned int i;
LPWORD PtrW;
switch (nTable) {
case 1: NewLUT -> wFlags |= LUT_HASTL1;
cmsCalcL16Params(Tables[0] -> nEntries, &NewLUT -> In16params);
NewLUT -> InputEntries = Tables[0] -> nEntries;
for (i=0; i < NewLUT -> InputChan; i++) {
PtrW = (LPWORD) _cmsMalloc(sizeof(WORD) * NewLUT -> InputEntries);
if (PtrW == NULL) return NULL;
NewLUT -> L1[i] = PtrW;
CopyMemory(PtrW, Tables[i]->GammaTable, sizeof(WORD) * NewLUT -> InputEntries);
CopyMemory(&NewLUT -> LCurvesSeed[0][i], &Tables[i] -> Seed, sizeof(LCMSGAMMAPARAMS));
}
break;
case 2: NewLUT -> wFlags |= LUT_HASTL2;
cmsCalcL16Params(Tables[0] -> nEntries, &NewLUT -> Out16params);
NewLUT -> OutputEntries = Tables[0] -> nEntries;
for (i=0; i < NewLUT -> OutputChan; i++) {
PtrW = (LPWORD) _cmsMalloc(sizeof(WORD) * NewLUT -> OutputEntries);
if (PtrW == NULL) return NULL;
NewLUT -> L2[i] = PtrW;
CopyMemory(PtrW, Tables[i]->GammaTable, sizeof(WORD) * NewLUT -> OutputEntries);
CopyMemory(&NewLUT -> LCurvesSeed[1][i], &Tables[i] -> Seed, sizeof(LCMSGAMMAPARAMS));
}
break;
// 3 & 4 according ICC 4.0 spec
case 3:
NewLUT -> wFlags |= LUT_HASTL3;
cmsCalcL16Params(Tables[0] -> nEntries, &NewLUT -> L3params);
NewLUT -> L3Entries = Tables[0] -> nEntries;
for (i=0; i < NewLUT -> InputChan; i++) {
PtrW = (LPWORD) _cmsMalloc(sizeof(WORD) * NewLUT -> L3Entries);
if (PtrW == NULL) return NULL;
NewLUT -> L3[i] = PtrW;
CopyMemory(PtrW, Tables[i]->GammaTable, sizeof(WORD) * NewLUT -> L3Entries);
CopyMemory(&NewLUT -> LCurvesSeed[2][i], &Tables[i] -> Seed, sizeof(LCMSGAMMAPARAMS));
}
break;
case 4:
NewLUT -> wFlags |= LUT_HASTL4;
cmsCalcL16Params(Tables[0] -> nEntries, &NewLUT -> L4params);
NewLUT -> L4Entries = Tables[0] -> nEntries;
for (i=0; i < NewLUT -> OutputChan; i++) {
PtrW = (LPWORD) _cmsMalloc(sizeof(WORD) * NewLUT -> L4Entries);
if (PtrW == NULL) return NULL;
NewLUT -> L4[i] = PtrW;
CopyMemory(PtrW, Tables[i]->GammaTable, sizeof(WORD) * NewLUT -> L4Entries);
CopyMemory(&NewLUT -> LCurvesSeed[3][i], &Tables[i] -> Seed, sizeof(LCMSGAMMAPARAMS));
}
break;
default:;
}
return NewLUT;
}