void CDib::CreatePaletteFromImage( CPalette& palette)const
{
if( palette.m_hObject )
palette.DeleteObject();
ASSERT( IsIndexed() == GetBPP() <= 8);
if( GetBPP() <= 8)
{
GetPalette(palette);
//CPalette* pal = CPalette::FromHandle(m_hPalette);
//PALETTEENTRY colors[256] = {0};
//pal->GetPaletteEntries(0, 256, colors);
//palette.SetPaletteEntries( 0, 256, colors );
}
else
{
LPLOGPALETTE pLogPal = (LPLOGPALETTE) new char[2 * sizeof(WORD) +
256 * sizeof(PALETTEENTRY)];
pLogPal->palVersion = 0x300;
pLogPal->palNumEntries = 256;
palette.CreatePalette(pLogPal);
delete pLogPal;
pLogPal = NULL;
CArray<COLORREF, COLORREF> colorArray;
int height= GetHeight();
int width = GetWidth();
for(int i=0; i<width; i++)
{
for(int j=0; j<height; j++)
{
COLORREF color = GetPixel(i, j);
if( UtilWin::FindInArray( colorArray, color) == -1)
colorArray.Add(color);
if( colorArray.GetSize() == 256)
break;
}
if( colorArray.GetSize() == 256)
break;
}
PALETTEENTRY pe[256]={0};
for (int i = 0; i < colorArray.GetSize(); i++)
{
COLORREF color = colorArray[i];
pe[i].peRed = GetRValue(color);
pe[i].peGreen = GetGValue(color);
pe[i].peBlue = GetBValue(color);
}
palette.SetPaletteEntries(0, 256, pe);
}
}
BOOL CDib::SetPalette( CPalette& palette )
{
if( IsIndexed() )
{
int iColors = 0;
if (!palette.GetObject(sizeof(iColors), &iColors))
{
TRACE("Failed to get num palette colors");
return FALSE;
}
ASSERT(iColors>= 0 && iColors<=256);
// iColors = min(iColors, GetColorTableEntries());
PALETTEENTRY pe[256];
palette.GetPaletteEntries(0, iColors, pe);
RGBQUAD quad[256] = {0};
for (int i = 0; i < iColors; i++)
{
quad[i].rgbRed = pe[i].peRed;
quad[i].rgbGreen = pe[i].peGreen;
quad[i].rgbBlue = pe[i].peBlue;
}
SetColorTable(0, iColors, &(quad[0]));
//update copy of the palette
//GetPalette(m_palette);
}
return TRUE;
}
void CDib::Create(int nWidth, int nHeight, int nBPP, DWORD dwFlags )
{
CImage::Create(nWidth, nHeight, nBPP, dwFlags );
if( IsIndexed() )
{
CreateDefaultPalette();
// GetPalette(m_palette);
}
}
void
Inode::IncrementNumLinks(Transaction& transaction)
{
fNode.SetNumLinks(fNode.NumLinks() + 1);
if (IsIndexed() && (fNode.NumLinks() >= EXT2_INODE_MAX_LINKS
|| fNode.NumLinks() == 2)) {
fNode.SetNumLinks(1);
fVolume->ActivateDirNLink(transaction);
}
}
void CDib::CreateCompatibleDIB( CDC& dc, int width, int height )
{
Empty();
CreateDib( CSize (width,height), dc.GetDeviceCaps( BITSPIXEL ) );
if( IsIndexed() )
{
if( dc.GetCurrentPalette() )
SetPalette( *(dc.GetCurrentPalette()) );
else CreateDefaultPalette();
}
}
bool
UsdGeomPrimvar::ValueMightBeTimeVarying() const
{
if (IsIndexed()) {
if (UsdAttribute indicesAttr = _GetIndicesAttr(false)) {
if (indicesAttr.ValueMightBeTimeVarying()) {
return true;
}
}
}
return _attr.ValueMightBeTimeVarying();
}
bool
UsdGeomPrimvar::GetTimeSamples(std::vector<double>* times) const
{
bool success = _attr.GetTimeSamples(times);
if (IsIndexed()) {
if (UsdAttribute indicesAttr = _GetIndicesAttr(false)) {
success = indicesAttr.GetTimeSamples(times) && success;
_SortAndRemoveDupes(times);
}
}
return success;
}
bool
UsdGeomPrimvar::ComputeFlattened(VtValue *value, UsdTimeCode time) const
{
VtValue attrVal;
if (!Get(&attrVal, time)) {
return false;
}
// If the primvar attr value is not an array or if the primvar isn't
// indexed, simply return the attribute value.
if (!attrVal.IsArrayValued() || !IsIndexed()) {
*value = VtValue::Take(attrVal);
return true;
}
VtIntArray indices;
if (!GetIndices(&indices, time)) {
TF_CODING_ERROR("No indices authored for indexed primvar <%s>.",
_attr.GetPath().GetText());
return false;
}
// Handle all known supported array value types.
bool foundSupportedType =
_ComputeFlattenedArray<VtVec2fArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec2dArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec2iArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec2hArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec3fArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec3dArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec3iArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec3hArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec4fArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec4dArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec4iArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec4hArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtMatrix3dArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtMatrix4dArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtStringArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtDoubleArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtIntArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtFloatArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtHalfArray>(attrVal, indices, value);
if (!foundSupportedType) {
TF_WARN("Unsupported indexed primvar value type %s.",
attrVal.GetTypeName().c_str());
}
return !value->IsEmpty();
}
void SDTSPolygonReader::AssembleRings( SDTSTransfer * poTransfer,
int iPolyLayer )
{
if( bRingsAssembled )
return;
bRingsAssembled = TRUE;
/* -------------------------------------------------------------------- */
/* To write polygons we need to build them from their related */
/* arcs. We don't know off hand which arc (line) layers */
/* contribute so we process all line layers, attaching them to */
/* polygons as appropriate. */
/* -------------------------------------------------------------------- */
for( int iLineLayer = 0;
iLineLayer < poTransfer->GetLayerCount();
iLineLayer++ )
{
if( poTransfer->GetLayerType(iLineLayer) != SLTLine )
continue;
SDTSLineReader *poLineReader = reinterpret_cast<SDTSLineReader *>(
poTransfer->GetLayerIndexedReader( iLineLayer ) );
if( poLineReader == nullptr )
continue;
poLineReader->AttachToPolygons( poTransfer, iPolyLayer );
poLineReader->Rewind();
}
if( !IsIndexed() )
return;
/* -------------------------------------------------------------------- */
/* Scan all polygons indexed on this reader, and assemble their */
/* rings. */
/* -------------------------------------------------------------------- */
Rewind();
SDTSFeature *poFeature = nullptr;
while( (poFeature = GetNextFeature()) != nullptr )
{
SDTSRawPolygon *poPoly
= reinterpret_cast<SDTSRawPolygon *>( poFeature );
poPoly->AssembleRings();
}
Rewind();
}
void CDib::CreateDefaultPalette()
{
ASSERT( IsIndexed() );
switch(GetBPP())
{
case 1: CreateDefaultPalette2(); break;
case 4: CreateDefaultPalette16(); break;
case 8: CreateDefaultPalette256(); break;
case 16:
case 24:
case 32: break;
default: ASSERT(false);
}
}
/*BOOL CDib::SetBitmap(CBitmap* pBitmap, CPalette& palette)
{
BITMAP bm;
pBitmap->GetBitmap(&bm);
CSize size(bm.bmWidth, bm.bmHeight);
CreateDib(size, bm.bmBitsPixel);
SetPalette(palette);
CreateSection();
//SetPalette(*pDC->GetCurrentPalette());
//CreateSection(pDC);
ASSERT(m_lpImage);
return GetDIBits( NULL, // handle to device context
(HBITMAP)(*pBitmap), // handle to bitmap
0, // first scan line to set in destination bitmap
bm.bmHeight, // number of scan lines to copy
m_lpImage, // address of array for bitmap bits
(BITMAPINFO*)m_lpBMIH, // address of structure with bitmap data
DIB_RGB_COLORS) == bm.bmHeight; // RGB or palette index
//return pBitmap->GetBitmapBits(m_dwSizeImage, m_lpImage) != 0;
}
*/
BOOL CDib::SetBitmap(CDC& dc)
{
BOOL bRep = false;
if( dc.GetCurrentBitmap() )
{
CDC memDC;
memDC.CreateCompatibleDC(&dc);
bRep = true;
CBitmap& bitmap = *dc.GetCurrentBitmap();
//bitmap.FromHandle(hBitmap);
BITMAP bm;
bitmap.GetBitmap(&bm);
CSize size(bm.bmWidth, bm.bmHeight);
CreateDib(size, bm.bmBitsPixel);
if( IsIndexed() )
{
if( dc.GetCurrentPalette() )
{
SetPalette(*dc.GetCurrentPalette());
memDC.SelectPalette(dc.GetCurrentPalette(), false);
}
}
memDC.SelectObject( (HBITMAP)*this);
memDC.BitBlt( 0,0, size.cx, size.cy, &dc, 0,0, SRCCOPY);
//HBITMAP hBitmap = dc.SelectObject( (HBITMAP)*this );
//bitmap.GetBitmapBits()
/*for(int i=0; i<size.cx; i++)
{
for(int j=0; j<size.cy; j++)
{
SetPixel(i,j, dc.GetPixel(i, j) );
}
}
*/
}
return bRep;
}
BOOL CDib::DrawTransparent (CDC* pDC, int x, int y, COLORREF crColor)
{
ASSERT( IsIndexed() );
CRect rect(y,x,y+GetWidth(), x-GetHeight());
UtilWin::CIntArray selectionArray;
GetSelectionIndex(crColor, selectionArray);
HDC hDestDC = pDC->GetSafeHdc();
if( selectionArray.GetSize()==1 )
{
return CImage::TransparentBlt(pDC->GetSafeHdc(), rect, crColor);
}
else if( selectionArray.GetSize()>=1 )
{
CDib dib(GetWidth(), GetHeight(), 32);
/*for(int i=0; i<GetWidth(); i++)
{
for(int j=0; j<GetHeight(); j++)
{
if(
SetPixel(i,j, );
}
}
CImage::AlphaBlend(dib.GetDC(), rect, crColor);
*/
//return
}
return CDib::Draw(pDC, x, y);
}
HGLOBAL CDib::CreateGlobalDIB()const
{
int nColorTableEntries = this->GetColorTableEntries();
DWORD dwLenHead = sizeof(BITMAPINFOHEADER) + sizeof(RGBQUAD) * nColorTableEntries;
int dwSizeImage = ((GetWidth() * GetBPP()+31) & ~31) /8 * GetHeight();
HGLOBAL hCopy = ::GlobalAlloc(GHND, dwLenHead + dwSizeImage);
LPBYTE pData = (LPBYTE)::GlobalLock(hCopy);
BITMAP bmp;
PBITMAPINFO pbmi = (PBITMAPINFO )pData;
WORD cClrBits;
// Retrieve the bitmap color format, width, and height.
// if (!GetObject(hBmp, sizeof(BITMAP), (LPSTR)&bmp))
// return false;
CBitmap* pBitmap = CBitmap::FromHandle( (HBITMAP)(*this));
pBitmap->GetBitmap(&bmp);
// Convert the color format to a count of bits.
cClrBits = (WORD)(bmp.bmPlanes * bmp.bmBitsPixel);
if (cClrBits == 1)
cClrBits = 1;
else if (cClrBits <= 4)
cClrBits = 4;
else if (cClrBits <= 8)
cClrBits = 8;
else if (cClrBits <= 16)
cClrBits = 16;
else if (cClrBits <= 24)
cClrBits = 24;
else cClrBits = 32;
ASSERT( cClrBits == GetBPP() );
// Allocate memory for the BITMAPINFO structure. (This structure
// contains a BITMAPINFOHEADER structure and an array of RGBQUAD
// data structures.)
//if (cClrBits != 24)
/*if (cClrBits != 24)
pbmi = (PBITMAPINFO) LocalAlloc(LPTR,
sizeof(BITMAPINFOHEADER) +
sizeof(RGBQUAD) * (1<< cClrBits));
// There is no RGBQUAD array for the 24-bit-per-pixel format.
else
pbmi = (PBITMAPINFO) LocalAlloc(LPTR,
sizeof(BITMAPINFOHEADER));
*/
// Initialize the fields in the BITMAPINFO structure.
pbmi->bmiHeader.biSize = sizeof(BITMAPINFOHEADER);
pbmi->bmiHeader.biWidth = bmp.bmWidth;
pbmi->bmiHeader.biHeight = bmp.bmHeight;
pbmi->bmiHeader.biPlanes = bmp.bmPlanes;
pbmi->bmiHeader.biBitCount = bmp.bmBitsPixel;
if (cClrBits < 24)
pbmi->bmiHeader.biClrUsed = (1<<cClrBits);
// If the bitmap is not compressed, set the BI_RGB flag.
pbmi->bmiHeader.biCompression = BI_RGB;
// Compute the number of bytes in the array of color
// indices and store the result in biSizeImage.
// For Windows NT, the width must be DWORD aligned unless
// the bitmap is RLE compressed. This example shows this.
// For Windows 95/98/Me, the width must be WORD aligned unless the
// bitmap is RLE compressed.
pbmi->bmiHeader.biSizeImage = dwSizeImage;//((pbmi->bmiHeader.biWidth * cClrBits +31) & ~31) /8
//* pbmi->bmiHeader.biHeight;
// Set biClrImportant to 0, indicating that all of the
// device colors are important.
pbmi->bmiHeader.biClrImportant = 0;
if( IsIndexed() )
{
GetColorTable(0, nColorTableEntries, pbmi->bmiColors);
}
pData += dwLenHead;
if( GetPitch() > 0 )
memcpy( pData, GetPixelAddress(0,0), dwSizeImage);
else memcpy( pData, GetPixelAddress(0,GetHeight()-1), dwSizeImage);
::GlobalUnlock(hCopy);
return hCopy;
}
bool CxImageJ2K::Encode(CxFile * hFile)
{
if (EncodeSafeCheck(hFile)) return false;
if (head.biClrUsed!=0 && !IsGrayScale()){
strcpy(info.szLastError,"J2K can save only RGB or GrayScale images");
return false;
}
int i,x,y;
j2k_image_t *img;
j2k_cp_t *cp;
j2k_tcp_t *tcp;
j2k_tccp_t *tccp;
img = (j2k_image_t *)calloc(sizeof(j2k_image_t),1);
cp = (j2k_cp_t *)calloc(sizeof(j2k_cp_t),1);
cp->tx0=0; cp->ty0=0;
cp->tw=1; cp->th=1;
cp->tcps=(j2k_tcp_t*)calloc(sizeof(j2k_tcp_t),1);
tcp=&cp->tcps[0];
long w=head.biWidth;
long h=head.biHeight;
tcp->numlayers=1;
for (i=0;i<tcp->numlayers;i++) tcp->rates[i]=(w*h*GetJpegQuality())/600;
if (IsGrayScale()) {
img->x0=0;
img->y0=0;
img->x1=w;
img->y1=h;
img->numcomps=1;
img->comps=(j2k_comp_t*)calloc(sizeof(j2k_comp_t),1);
img->comps[0].data=(int*)calloc(w*h*sizeof(int),1);
img->comps[0].prec=8;
img->comps[0].sgnd=0;
img->comps[0].dx=1;
img->comps[0].dy=1;
for (i=0,y=0; y<h; y++) {
for (x=0; x<w; x++,i++){
img->comps[0].data[i]=GetPixelIndex(x,h-1-y);
}
}
} else if (!IsIndexed()) {
img->x0=0;
img->y0=0;
img->x1=w;
img->y1=h;
img->numcomps=3;
img->comps=(j2k_comp_t*)calloc(img->numcomps*sizeof(j2k_comp_t),1);
for (i=0; i<img->numcomps; i++) {
img->comps[i].data=(int*)calloc(w*h*sizeof(int),1);
img->comps[i].prec=8;
img->comps[i].sgnd=0;
img->comps[i].dx=1;
img->comps[i].dy=1;
}
RGBQUAD c;
for (i=0,y=0; y<h; y++) {
for (x=0; x<w; x++,i++){
c=GetPixelColor(x,h-1-y);
img->comps[0].data[i]=c.rgbRed;
img->comps[1].data[i]=c.rgbGreen;
img->comps[2].data[i]=c.rgbBlue;
}
}
} else {
return 0;
}
cp->tdx=img->x1-img->x0;
cp->tdy=img->y1-img->y0;
tcp->csty=0;
tcp->prg=0;
tcp->mct=img->numcomps==3?1:0;
tcp->tccps=(j2k_tccp_t*)calloc(img->numcomps*sizeof(j2k_tccp_t),1);
int ir=0; /* or 1 ???*/
for (i=0; i<img->numcomps; i++) {
tccp=&tcp->tccps[i];
tccp->csty=0;
tccp->numresolutions=6;
tccp->cblkw=6;
tccp->cblkh=6;
tccp->cblksty=0;
tccp->qmfbid=ir?0:1;
tccp->qntsty=ir?J2K_CCP_QNTSTY_SEQNT:J2K_CCP_QNTSTY_NOQNT;
tccp->numgbits=2;
tccp->roishift=0;
j2k_calc_explicit_stepsizes(tccp, img->comps[i].prec);
}
BYTE* dest=(BYTE*)calloc(tcp->rates[tcp->numlayers-1]+2,1);
long len = j2k_encode(img, cp, dest, tcp->rates[tcp->numlayers-1]+2);
if (len==0) {
strcpy(info.szLastError,"J2K failed to encode image");
} else {
hFile->Write(dest, len, 1);
}
free(dest);
j2k_destroy(&img,&cp);
return (len!=0);
}