bool PngDecodeImage(PngT *png, PixBufT *pixbuf) {
if (png->ihdr.interlace_method != 0) {
LOG("Interlaced PNG not supported.");
} else if (png->ihdr.bit_depth != 8) {
LOG("Non 8-bit components not supported.");
} else {
uint32_t pixelWidth = GetPixelWidth(png);
uint32_t length = png->ihdr.width * png->ihdr.height * pixelWidth;
uint32_t dstLength = length + png->ihdr.height;
uint8_t *encoded = MemNew(dstLength);
MergeIDATs(png);
LOG("Uncompressing the image.");
Inflate(png->idat.data + 2, encoded);
LOG("Decoding pixels.");
ReconstructImage(pixbuf->data, encoded,
png->ihdr.width, png->ihdr.height, pixelWidth);
MemUnref(encoded);
return true;
}
return false;
}
void FZipPackage::LoadAsset( FZipAsset* Asset )
{
guard;
Seek( Asset->Location, Begin );
Asset->Ptr = new uint8[Asset->Size];
switch (Asset->CompressType)
{
case 0:
{
//No compression
Read( Asset->Ptr, Asset->Size );
break;
}
case 8:
{
//Deflate
uint8* CompressData = new uint8[Asset->CompressSize];
Read( CompressData, Asset->CompressSize );
Inflate( CompressData, Asset->Ptr, Asset->CompressSize, Asset->Size );
if (Asset->Type == AT_Text || Asset->Type == AT_Script)
{
//Null terminate the data if it has formatted text
Asset->Ptr[Asset->Size] = 0;
}
break;
}
default:
{
Logf( LOG_ERR, L"Asset '%s' is compressed with an unknown method.", Asset->Name );
}
}
unguard;
}
int Unzip::fileDecode(unsigned char *data)
{
unsigned char *src=NULL;
// Go to compressed data:
fseek(file,compPos,SEEK_SET);
// Allocate memory:
src=(unsigned char *)malloc(srcLen);
if (src==NULL) {
fclose(file);
return 1;
}
memset(src,0,srcLen);
// Read in compressed version and decompress
fread(src,1,srcLen,file);
Inflate(data,dataLen, src,srcLen);
free(src);
src=NULL;
srcLen=0;
return 0;
}
void ComboBox::PopupDropDownWindow() {
auto window = GetWindow();
if (window == nullptr) {
return;
}
auto window_rect = GetAbsoluteRect();
window_rect.Inflate(-1, 0);
window_rect.position.y += GetHeight() - 2;
std::size_t visible_item_count = drop_down_list_box_->GetItemCount();
visible_item_count = std::max(visible_item_count, GetMinimumVisibleItemCount());
visible_item_count = std::min(visible_item_count, GetMaximumVisibleItemCount());
window_rect.size.height =
CalculateDropDownListHeight(visible_item_count) + drop_down_list_box_->GetBorderThickness() * 2;
POINT screen_position = window_rect.position.ToPOINT();
ClientToScreen(window->GetHandle(), &screen_position);
window_rect.position = Point::FromPOINT(screen_position);
drop_down_window_->SetOwner(window);
drop_down_window_->SetRect(window_rect);
drop_down_window_->Show();
}
BOOL Flate::Uncompress(CByteArray& dst, const BYTE* src, UINT srcLen)
{
CBAStreamReader sr(src, srcLen);
CBAStreamWriter sw(dst);
Inflate(&sw, &sr);
return dst.GetSize() != 0;
}
std::optional<int> PointToNoteNumber(wxPoint pt)
{
auto rect = GetClientRect();
int const disp_half = rect.GetWidth() / 2;
int const disp_shift = kFullKeysWidth / 2 - disp_half;
double const x = (pt.x + disp_shift);
int const kOctaveWidth = 7.0 * kKeyWidth;
int octave = (int)(x / (double)kOctaveWidth);
int x_in_oct = x - (kOctaveWidth * octave);
std::optional<int> found;
for(auto index: kBlackKeyIndices) {
auto key = kKeyPropertyList[index];
auto rc = key.rect_;
rc.SetWidth(kBlackKeyDispWidth);
rc.Inflate(1, 1);
if(rc.Contains(x_in_oct - kBlackKeyDispOffset, pt.y)) {
if(!found) { found = (index + octave * 12); }
break;
}
}
for(auto index: kWhiteKeyIndices) {
auto key = kKeyPropertyList[index];
auto rc = key.rect_;
rc.Inflate(1, 1);
if(rc.Contains(x_in_oct, pt.y)) {
if(!found) { found = (index + octave * 12); }
break;
}
}
if(found && 0 <= *found && *found < 128) {
return *found;
} else {
return std::nullopt;
}
}
UnicodeString& UnicodeString::Append(const char *lpszAdd, UINT CodePage)
{
if (lpszAdd && *lpszAdd)
{
size_t nAddSize = MultiByteToWideChar(CodePage,0,lpszAdd,-1,nullptr,0);
size_t nNewLength = m_pData->GetLength() + nAddSize - 1;
Inflate(nNewLength + 1);
MultiByteToWideChar(CodePage,0,lpszAdd,(int)nAddSize,m_pData->GetData() + m_pData->GetLength(),(int)m_pData->GetSize());
m_pData->SetLength(nNewLength);
}
return *this;
}
void Code(FILE *input_file, FILE *output_file) {
switch (test_mode) {
case DEFLATE_MODE: {
Deflate(input_file, output_file);
break;
}
case INFLATE_MODE: {
Inflate(input_file, output_file);
break;
}
default: {
ERROR("invalid mode: %d", test_mode);
}
}
}
qint64 CCompressedConnection::readFromNetwork(qint64 nBytes)
{
qint64 nRet = CNetworkConnection::readFromNetwork(nBytes);
if(m_bCompressedInput)
{
Inflate();
if(m_pZInput->size())
{
emit readyRead();
}
}
return nRet;
}
size_t UnicodeString::SetLength(size_t nLength)
{
if (nLength < m_pData->GetLength())
{
if (!nLength && m_pData->GetRef() > 1)
{
m_pData->DecRef();
SetEUS();
}
else
{
Inflate(nLength+1);
return m_pData->SetLength(nLength);
}
}
return m_pData->GetLength();
}
int CZlib::Decompress(CString strFileName, CString strOutput)
{
// Open the files
FILE * in = fopen(strFileName.Get(), "r");
FILE * out = fopen(strOutput.Get(), "w+");
// Enable binary mode
SET_BINARY_MODE(in);
SET_BINARY_MODE(out);
// Deflate the file
int iReturn = Inflate(in, out);
// Close the files
fclose(in);
fclose(out);
return iReturn;
}
//TODO: Multi-thread this
void FZipPackage::LoadAsset( FStringConst& Path )
{
guard;
//Check that the asset exists
FZipAsset* Asset = (FZipAsset*)FindAsset( Path );
if(!Asset)
{
FString Err = FString( L"Asset '" ) + Path.Data + FString( L"' could not be read." );
Throw( (wchar_t*)Err.Data, false );
}
Seek( Asset->Location, Begin );
Asset->Ptr = new uint8[Asset->Size];
switch (Asset->CompressType)
{
case 0:
{
//No compression
Read( Asset->Ptr, Asset->Size );
break;
}
case 8:
{
//Deflate
uint8* CompressData = new uint8[Asset->CompressSize];
Read( CompressData, Asset->CompressSize );
Inflate( CompressData, Asset->Ptr, Asset->CompressSize, Asset->Size );
if(Asset->Type == AT_Text || Asset->Type == AT_Script)
{
//Null terminate the data if it has formatted text
Asset->Ptr[Asset->Size] = 0;
}
break;
}
default:
{
Logf( LOG_ERR, L"Asset '%s' is compressed with an unknown method.", Asset->Name );
}
}
unguard;
}
// implements ZeroCopyInputStream ----------------------------------
bool GzipInputStream::Next(const void** data, int* size) {
bool ok = (zerror_ == Z_OK) || (zerror_ == Z_STREAM_END)
|| (zerror_ == Z_BUF_ERROR);
if ((!ok) || (zcontext_.next_out == NULL)) {
return false;
}
if (zcontext_.next_out != output_position_) {
DoNextOutput(data, size);
return true;
}
if (zerror_ == Z_STREAM_END) {
if (zcontext_.next_out != NULL) {
// sub_stream_ may have concatenated streams to follow
zerror_ = inflateEnd(&zcontext_);
if (zerror_ != Z_OK) {
return false;
}
zerror_ = internalInflateInit2(&zcontext_, format_);
if (zerror_ != Z_OK) {
return false;
}
} else {
*data = NULL;
*size = 0;
return false;
}
}
zerror_ = Inflate(Z_NO_FLUSH);
if ((zerror_ == Z_STREAM_END) && (zcontext_.next_out == NULL)) {
// The underlying stream's Next returned false inside Inflate.
return false;
}
ok = (zerror_ == Z_OK) || (zerror_ == Z_STREAM_END)
|| (zerror_ == Z_BUF_ERROR);
if (!ok) {
return false;
}
DoNextOutput(data, size);
return true;
}
wchar_t *UnicodeString::GetBuffer(size_t nSize)
{
Inflate(nSize == (size_t)-1?m_pData->GetSize():nSize);
return m_pData->GetData();
}
/*package*/
void WebHistoryItemClassic::Inflate(
/* [in] */ Int32 nativeFrame)
{
mNativeBridge = Inflate(nativeFrame, mFlattenedData);
mFlattenedData = NULL;
}
void Rectangle::Inflate(const VectorType &size) noexcept {
Inflate(size.X(), size.Y());
}
void CFindCallersViewWnd::RefreshLayout()
{
auto clientRect = GetClientRect();
clientRect.Inflate(-5, -5);
m_callersList.SetSizePosition(clientRect);
}
/*!
\fn StarDict::search( const char *word )
*/
const char* StarDict::search( const char *word )
{
char line[256];
string headword;
struct entry entry;
bool found = false;
uint a;
string idxFile;
char buf[m_idxfilesize];
if( isIdxCompressed ) {
gzFile gzfile = gzopen( idxFileName.c_str(), "rb" );
if( gzfile == NULL ) {
m_isOk = false;
return "";
}
int read = gzread( gzfile, buf, m_idxfilesize );
if( m_idxfilesize != (uint)read ) {
m_isOk = false;
return "";
}
idxFile.assign( buf, m_idxfilesize );
gzclose( gzfile );
}else{
ifstream file;
file.open( idxFileName.c_str() );
file.readsome( buf, m_idxfilesize );
idxFile.assign( buf, m_idxfilesize );
file.close();
}
// Find the headword in index file
uint pos = 0;
for(uint b=0;b<m_wordcount;b++)
{
a = 0;
do
{
line[a] = idxFile[pos];
a++;
pos++;
}while( line[a-1] != '\0' );
headword = line;
for(a=0;a<8;a++) line[a] = idxFile[pos++];
if( headword.compare( word ) != 0 ) continue;
found = true;
entry.headword = headword;
// Get the position of definition in definition file
entry.position = (unsigned char)line[3] | (unsigned char)line[2] << 8 | (unsigned char)line[1] << 16 | (unsigned char)line[0] << 24;
// Get the size of definition in definition file
entry.size = (unsigned char)line[7] | (unsigned char)line[6] << 8 | (unsigned char)line[5] << 16 | (unsigned char)line[4] << 24;
}
// If not found, return a null string
if( !found ) return "";
// Check if the definition file is compressed
if( isCompressed )
{
// Calculate how many chunks we have to skip
uint startChunk = entry.position / CHLEN ;
uint endChunk = (entry.position + entry.size ) / CHLEN;
// Calculate the position of definition in chunk
uint pos = entry.position % CHLEN;
// Size of the chunk we are looking for
unsigned long chunkLen = 0;
for(uint a = startChunk; a < endChunk + 1; a++ ) chunkLen += offsets[a];
// How many bytes we have to skip
unsigned long skip = 0;
for(uint a=0;a<startChunk;a++) skip += offsets[a];
// Definition file
file.open( dictFileName.c_str() );
// Jump to chunk we are looking for
file.seekg( offset + skip );
// Get the compressed data
char buf[chunkLen];
file.readsome( buf, chunkLen );
string data( buf, chunkLen );
file.close();
// Decompress the data
string result = Inflate( data );
// Returns only the definition
return result.substr( pos, entry.size ).c_str();
}else{
// The file is not compressed
file.open( dictFileName.c_str() );
// Jump to position of definition
file.seekg( entry.position );
// Get the definition
char buf[entry.size];
file.readsome( buf, entry.size );
string result( buf, entry.size );
file.close();
// Return the result
return result.c_str();
}
return "";
}
int IDATParse(struct XPng* xpng, struct XInflate* inflate, struct XBitmap* xbitmap, const unsigned char* stream, int dataLength)
{
const unsigned char* idatBuffer; // IDAT 정보
unsigned char* imageCurBuffer;
int imageCurWidthByte;
int ColorMapTablePos;
unsigned char filter;
unsigned char filter_a[RGBA];
unsigned char* filter_b ;
unsigned char filter_c[RGBA];
const unsigned char* outBuf;
unsigned int outBufLen;
int ColorMapTableLen;
int imageWidthByte;
int imagePaddingByte;
const int* ColorMapTableCur;
imageCurBuffer = xpng->m_imageCurBuffer;
imageCurWidthByte = xpng->m_imageCurWidthByte;
ColorMapTablePos = xpng->m_ColorMapTablePos;
filter = xpng->m_filter;
filter_b = xpng->m_filter_b;
*(int*)filter_a = *(int*)xpng->m_filter_a;
*(int*)filter_c = *(int*)xpng->m_filter_c;
ColorMapTableLen = xpng->m_ColorMapTableLen;
imageWidthByte = xpng->m_imageWidthByte;
imagePaddingByte = xpng->m_imagePaddingByte;
ColorMapTableCur = xpng->m_ColorMapTableCur;
if(xpng->m_pInflate->m_outBuffer == NULL)
{
xpng->m_pInflate->m_outBuffer = (unsigned char*)malloc(DEFAULT_ALLOC_SIZE); // jmlee 초기화
xpng->m_pInflate->m_outBufferAlloc = DEFAULT_ALLOC_SIZE;
}
idatBuffer = (unsigned char *)malloc(dataLength); // 스트림에서 IDAT Data만 가져옴
memcpy(idatBuffer, stream, dataLength);
// 압축해제 시작
if(Inflate(inflate, idatBuffer, dataLength)!=XINFLATE_ERR_OK){
printf("error!!!!");
}
//디코딩 결과 저장
outBuf = inflate->m_outBuffer;
outBufLen = inflate->m_outBufferPos;
// 출력 버퍼에 쓰기.
while(outBufLen)
{
// 매 스캔라인 첫번째 바이트는 filter 정보이다.
if(imageCurWidthByte == imageWidthByte)
{
filter = *outBuf;
// 필터에 사용할 변수 초기화
*((unsigned int*)filter_a) = 0;
*((unsigned int*)filter_c) = 0;
filter_b = xpng->m_scanline_current;
// 최초 실행시 더미값 set
if(xpng->m_bEnd == false)
{
filter_b = xpng->m_filter_b_dummy;
xpng->m_bEnd = true;
}
// 기본 초기화
ColorMapTablePos = 0;
// 이전 스캔라인 기억 처리
xpng->m_scanline_before = xpng->m_scanline_current;
xpng->m_scanline_current = imageCurBuffer;
// filter 읽었으니 1증가
outBuf++;
outBufLen--;
}
// 영상 데이타 복사
switch(filter)
{
case FILTER_NONE :
if(xpng->m_bPaletted)
{
unsigned char palPixel;
while(outBufLen)
{
palPixel = *outBuf;
// 빨레트를 참고해서 RGBA 값 세팅하기
*(imageCurBuffer + 2) = xpng->m_palette[palPixel * 3 + 0]; // R
*(imageCurBuffer + 1) = xpng->m_palette[palPixel * 3 + 1]; // G
*(imageCurBuffer + 0) = xpng->m_palette[palPixel * 3 + 2]; // B
// RGBA 사용안함
*(imageCurBuffer + 3) = 255; // A
//WriteOnePixel(xbitmap, &xpng->m_palette[palPixel * 3 + 2]);
//WriteOnePixel(xbitmap, &xpng->m_palette[palPixel * 3 + 1]);
//WriteOnePixel(xbitmap, &xpng->m_palette[palPixel * 3 + 0]);
// a값 버리려면 3으로 변경하고 A부분 주석
MOVETONEXTBUFFER_4_PAL
}
}
else
{
if(ColorMapTablePos==0)
{
if(ColorMapTableCur == colorMapTable_RGB_2_BGR)
{
while(outBufLen>3 && imageCurWidthByte>3)
{
*(imageCurBuffer + 2) = *(outBuf+0); // R
*(imageCurBuffer + 1) = *(outBuf+1); // G
*(imageCurBuffer + 0) = *(outBuf+2); // B
MOVETONEXTBUFFER_FAST(3);
}
}
else if(ColorMapTableCur == colorMapTable_RGBA_2_BGRA)
{
while(outBufLen>4 && imageCurWidthByte>4)
{
*(imageCurBuffer + 2) = *(outBuf+0); // R
*(imageCurBuffer + 1) = *(outBuf+1); // G
*(imageCurBuffer + 0) = *(outBuf+2); // B
*(imageCurBuffer + 3) = *(outBuf+3); // A
MOVETONEXTBUFFER_FAST(4);
}
}
}
while(outBufLen)
{
// RGB 를 BGR 로 혹은 RGBA 를 BGRA 로 바꾸기 위해서 테이블 참조
*(imageCurBuffer + ColorMapTableCur[ColorMapTablePos]) = *outBuf;
MOVETONEXTBUFFER
}
}
break;
case FILTER_SUB :
if(xpng->m_bPaletted){
}
else
{
// 한번에 3,4 바이트씩 복사한다.
if(ColorMapTablePos==0)
{
if(ColorMapTableCur == colorMapTable_RGB_2_BGR)
{
while(outBufLen>3 && imageCurWidthByte>3)
{
filter_a[0] = *(imageCurBuffer + 2) = *(outBuf+0) + filter_a[0]; // R
filter_a[1] = *(imageCurBuffer + 1) = *(outBuf+1) + filter_a[1]; // G
filter_a[2] = *(imageCurBuffer + 0) = *(outBuf+2) + filter_a[2]; // B
MOVETONEXTBUFFER_FAST(3);
}
}
else if(ColorMapTableCur == colorMapTable_RGBA_2_BGRA)
{
while(outBufLen>4 && imageCurWidthByte>4)
{
filter_a[0] = *(imageCurBuffer + 2) = *(outBuf+0) + filter_a[0]; // R
filter_a[1] = *(imageCurBuffer + 1) = *(outBuf+1) + filter_a[1]; // G
filter_a[2] = *(imageCurBuffer + 0) = *(outBuf+2) + filter_a[2]; // B
filter_a[3] = *(imageCurBuffer + 3) = *(outBuf+3) + filter_a[3]; // A
MOVETONEXTBUFFER_FAST(4);
}
}
}
while(outBufLen)
{
// RGB 를 BGR 로 혹은 RGBA 를 BGRA 로 바꾸기 위해서 테이블 참조
// + 왼쪽 픽셀 참조
// + 필터값 저장(좀전 픽셀)
filter_a[ColorMapTablePos] = *(imageCurBuffer + ColorMapTableCur[ColorMapTablePos]) = *outBuf + filter_a[ColorMapTablePos];
MOVETONEXTBUFFER
}
}
break;
case FILTER_UP :
if(xpng->m_bPaletted){
}
else
{
if(filter_b==NULL)
{
//DOERR(XPNG_ERR_INVALID_DATA); // 에러 상황이다.
}
// 한번에 3, 4바이트씩 복사한다.
if(ColorMapTablePos==0)
{
if(ColorMapTableCur == colorMapTable_RGB_2_BGR)
{
while(outBufLen>3 && imageCurWidthByte>3)
{
*(imageCurBuffer + 2) = *(outBuf+0) + *(filter_b + 2); // R
*(imageCurBuffer + 1) = *(outBuf+1) + *(filter_b + 1); // G
*(imageCurBuffer + 0) = *(outBuf+2) + *(filter_b + 0); // B
MOVETONEXTBUFFER_FAST(3);
filter_b+= 3;
}
}
else if(ColorMapTableCur == colorMapTable_RGBA_2_BGRA)
{
while(outBufLen>4 && imageCurWidthByte>4)
{
*(imageCurBuffer + 2) = *(outBuf+0) + *(filter_b + 2); // R
*(imageCurBuffer + 1) = *(outBuf+1) + *(filter_b + 1); // G
*(imageCurBuffer + 0) = *(outBuf+2) + *(filter_b + 0); // B
*(imageCurBuffer + 3) = *(outBuf+3) + *(filter_b + 3); // A
//WriteOnePixel(xbitmap, *outBuf+0 + *(filter_b + 2));
//WriteOnePixel(xbitmap, *outBuf+1 + *(filter_b + 1));
//WriteOnePixel(xbitmap, *outBuf+2 + *(filter_b + 0));
//WriteOnePixel(xbitmap, *outBuf+3 + *(filter_b + 3));
MOVETONEXTBUFFER_FAST(4);
filter_b+= 4;
}
}
}
while(outBufLen)
{
// RGB 를 BGR 로 혹은 RGBA 를 BGRA 로 바꾸기 위해서 테이블 참조
// + 이전 라인 참조
*(imageCurBuffer + ColorMapTableCur[ColorMapTablePos]) =
*outBuf +
*(filter_b + ColorMapTableCur[ColorMapTablePos]); // 이전 스캔 라인
filter_b++;
MOVETONEXTBUFFER
}
}
break;
case FILTER_AVERAGE :
if(xpng->m_bPaletted){
}
else
{
if(filter_b==NULL)
{
//DOERR(XPNG_ERR_INVALID_DATA); // 에러 상황이다.
}
// 한번에 3,4 픽셀 처리하기
if(ColorMapTablePos==0)
{
// todo
// 이거 테스트 해봐야 하는데.. 적당한 샘플이 없음.. average 는 별로 안쓰이는듯?
}
while(outBufLen)
{
int a, b;
unsigned char* dest;
// 참조할 데이타
a = filter_a[ColorMapTablePos]; // 왼쪽
b = *(filter_b + ColorMapTableCur[ColorMapTablePos]); // 위
// 현재 출력 지점
dest = imageCurBuffer + ColorMapTableCur[ColorMapTablePos];
*dest = *outBuf + (a+b)/2;
// 좌측 업데이트
filter_a[ColorMapTablePos] = *dest;
// 상단 업데이트
filter_b++;
MOVETONEXTBUFFER
}
}
break;
case FILTER_PAETH :
if(xpng->m_bPaletted){
}
else
{
int a, b,c,pa,pb,pc;
int p;
unsigned char* dest;
int cur;
if(filter_b==NULL)
{
//DOERR(XPNG_ERR_INVALID_DATA); // 에러 상황이다.
}
/////////////////////////////////////////////////////////////////////////////
//
// PAETH 처리를 매크로화
//
#define DO_PAETH(src, dst) \
a = filter_a[src]; b = *(filter_b +dst); c = filter_c[src]; \
p = a + b - c; \
pa = XPNG_ABS(p-a); \
pb = XPNG_ABS(p-b); \
pc = XPNG_ABS(p-c); \
\
/* 현재 출력 지점 */ \
dest = imageCurBuffer + dst; \
\
/* 디코딩된 값 */ \
cur = *(outBuf+src); \
\
/* 합치기 */ \
if(pa<=pb && pa<=pc) *dest = cur + a; \
else if(pb<=pc) *dest = cur + b; \
else *dest = cur + c; \
\
/* 필터 업데이트 */ \
filter_a[src] = *dest; \
filter_c[src] = b;
// 한번에 3,4 픽셀 처리하기
if(ColorMapTablePos==0)
{
if(ColorMapTableCur == colorMapTable_RGB_2_BGR)
{
while(outBufLen>3 && imageCurWidthByte>3)
{
DO_PAETH(0, 2); // R
DO_PAETH(1, 1); // G
DO_PAETH(2, 0); // B
// 다음 픽셀로
MOVETONEXTBUFFER_FAST(3);
filter_b+= 3;
}
}
else if(ColorMapTableCur == colorMapTable_RGBA_2_BGRA)
{
while(outBufLen>4 && imageCurWidthByte>4)
{
DO_PAETH(0, 2); // R
DO_PAETH(1, 1); // G
DO_PAETH(2, 0); // B
DO_PAETH(3, 3); // A
// 다음 픽셀로
MOVETONEXTBUFFER_FAST(4);
filter_b+= 4;
}
}
}
while(outBufLen)
{
// 참조할 데이타
a = filter_a[ColorMapTablePos]; // 왼쪽
b = *(filter_b + ColorMapTableCur[ColorMapTablePos]); // 위
c = filter_c[ColorMapTablePos]; // 왼쪽 위
p = a + b - c;
pa = XPNG_ABS(p-a);
pb = XPNG_ABS(p-b);
pc = XPNG_ABS(p-c);
// 현재 출력 지점
dest = imageCurBuffer + ColorMapTableCur[ColorMapTablePos];
// 디코딩된 값
cur = *outBuf;
// 합치기
if(pa<=pb && pa<=pc)
*dest = cur + a;
else if(pb<=pc)
*dest = cur + b;
else
*dest = cur + c;
// 좌측 업데이트
filter_a[ColorMapTablePos] = *dest;
// 좌상단 업데이트
filter_c[ColorMapTablePos] = b;
// 상단 업데이트
filter_b++;
MOVETONEXTBUFFER
}
}
break;
default :
return false;
}
/*
===================
idSWF::LoadSWF
===================
*/
bool idSWF::LoadSWF( const char* fullpath )
{
idFile* rawfile = fileSystem->OpenFileRead( fullpath );
if( rawfile == NULL )
{
idLib::Printf( "SWF File not found %s\n", fullpath );
return false;
}
swfHeader_t header;
rawfile->Read( &header, sizeof( header ) );
if( header.W != 'W' || header.S != 'S' )
{
idLib::Warning( "Wrong signature bytes" );
delete rawfile;
return false;
}
if( header.version > 9 )
{
idLib::Warning( "Unsupported version %d", header.version );
delete rawfile;
return false;
}
bool compressed;
if( header.compression == 'F' )
{
compressed = false;
}
else if( header.compression == 'C' )
{
compressed = true;
}
else
{
idLib::Warning( "Unsupported compression type %c", header.compression );
delete rawfile;
return false;
}
idSwap::Little( header.fileLength );
// header.fileLength somewhat annoyingly includes the size of the header
uint32 fileLength2 = header.fileLength - ( uint32 )sizeof( swfHeader_t );
// slurp the raw file into a giant array, which is somewhat atrocious when loading from the preload since it's already an idFile_Memory
byte* fileData = ( byte* )Mem_Alloc( fileLength2, TAG_SWF );
size_t fileSize = rawfile->Read( fileData, fileLength2 );
delete rawfile;
if( compressed )
{
byte* uncompressed = ( byte* )Mem_Alloc( fileLength2, TAG_SWF );
if( !Inflate( fileData, ( int )fileSize, uncompressed, fileLength2 ) )
{
idLib::Warning( "Inflate error" );
Mem_Free( uncompressed );
return false;
}
Mem_Free( fileData );
fileData = uncompressed;
}
idSWFBitStream bitstream( fileData, fileLength2, false );
swfRect_t frameSize;
bitstream.ReadRect( frameSize );
if( !frameSize.tl.Compare( vec2_zero ) )
{
idLib::Warning( "Invalid frameSize top left" );
Mem_Free( fileData );
return false;
}
frameWidth = frameSize.br.x;
frameHeight = frameSize.br.y;
frameRate = bitstream.ReadU16();
// parse everything
mainsprite->Load( bitstream, true );
// now that all images have been loaded, write out the combined image
idStr atlasFileName = "generated/";
atlasFileName += fullpath;
atlasFileName.SetFileExtension( ".tga" );
WriteSwfImageAtlas( atlasFileName );
Mem_Free( fileData );
return true;
}
void CSG_Rect::Inflate(double d, bool bPercent)
{
Inflate(d, d, bPercent);
}
void CUIRect::Deflate(int cx, int cy)
{
Inflate(-cx, -cy);
}
UnicodeString& UnicodeString::Upper(size_t nStartPos, size_t nLength)
{
Inflate(m_pData->GetSize());
CharUpperBuffW(m_pData->GetData()+nStartPos, nLength==(size_t)-1?(DWORD)(m_pData->GetLength()-nStartPos):(DWORD)nLength);
return *this;
}
void ZONE_FILLER::buildUnconnectedThermalStubsPolygonList( SHAPE_POLY_SET& aCornerBuffer,
const ZONE_CONTAINER* aZone,
const SHAPE_POLY_SET& aRawFilledArea,
double aArcCorrection,
double aRoundPadThermalRotation ) const
{
SHAPE_LINE_CHAIN spokes;
BOX2I itemBB;
VECTOR2I ptTest[4];
auto zoneBB = aRawFilledArea.BBox();
int zone_clearance = aZone->GetZoneClearance();
int biggest_clearance = m_board->GetDesignSettings().GetBiggestClearanceValue();
biggest_clearance = std::max( biggest_clearance, zone_clearance );
zoneBB.Inflate( biggest_clearance );
// half size of the pen used to draw/plot zones outlines
int pen_radius = aZone->GetMinThickness() / 2;
for( auto module : m_board->Modules() )
{
for( auto pad : module->Pads() )
{
// Rejects non-standard pads with tht-only thermal reliefs
if( aZone->GetPadConnection( pad ) == PAD_ZONE_CONN_THT_THERMAL
&& pad->GetAttribute() != PAD_ATTRIB_STANDARD )
continue;
if( aZone->GetPadConnection( pad ) != PAD_ZONE_CONN_THERMAL
&& aZone->GetPadConnection( pad ) != PAD_ZONE_CONN_THT_THERMAL )
continue;
if( !pad->IsOnLayer( aZone->GetLayer() ) )
continue;
if( pad->GetNetCode() != aZone->GetNetCode() )
continue;
// Calculate thermal bridge half width
int thermalBridgeWidth = aZone->GetThermalReliefCopperBridge( pad )
- aZone->GetMinThickness();
if( thermalBridgeWidth <= 0 )
continue;
// we need the thermal bridge half width
// with a small extra size to be sure we create a stub
// slightly larger than the actual stub
thermalBridgeWidth = ( thermalBridgeWidth + 4 ) / 2;
int thermalReliefGap = aZone->GetThermalReliefGap( pad );
itemBB = pad->GetBoundingBox();
itemBB.Inflate( thermalReliefGap );
if( !( itemBB.Intersects( zoneBB ) ) )
continue;
// Thermal bridges are like a segment from a starting point inside the pad
// to an ending point outside the pad
// calculate the ending point of the thermal pad, outside the pad
VECTOR2I endpoint;
endpoint.x = ( pad->GetSize().x / 2 ) + thermalReliefGap;
endpoint.y = ( pad->GetSize().y / 2 ) + thermalReliefGap;
// Calculate the starting point of the thermal stub
// inside the pad
VECTOR2I startpoint;
int copperThickness = aZone->GetThermalReliefCopperBridge( pad )
- aZone->GetMinThickness();
if( copperThickness < 0 )
copperThickness = 0;
// Leave a small extra size to the copper area inside to pad
copperThickness += KiROUND( IU_PER_MM * 0.04 );
startpoint.x = std::min( pad->GetSize().x, copperThickness );
startpoint.y = std::min( pad->GetSize().y, copperThickness );
startpoint.x /= 2;
startpoint.y /= 2;
// This is a CIRCLE pad tweak
// for circle pads, the thermal stubs orientation is 45 deg
double fAngle = pad->GetOrientation();
if( pad->GetShape() == PAD_SHAPE_CIRCLE )
{
endpoint.x = KiROUND( endpoint.x * aArcCorrection );
endpoint.y = endpoint.x;
fAngle = aRoundPadThermalRotation;
}
// contour line width has to be taken into calculation to avoid "thermal stub bleed"
endpoint.x += pen_radius;
endpoint.y += pen_radius;
// compute north, south, west and east points for zone connection.
ptTest[0] = VECTOR2I( 0, endpoint.y ); // lower point
ptTest[1] = VECTOR2I( 0, -endpoint.y ); // upper point
ptTest[2] = VECTOR2I( endpoint.x, 0 ); // right point
ptTest[3] = VECTOR2I( -endpoint.x, 0 ); // left point
// Test all sides
for( int i = 0; i < 4; i++ )
{
// rotate point
RotatePoint( ptTest[i], fAngle );
// translate point
ptTest[i] += pad->ShapePos();
if( aRawFilledArea.Contains( ptTest[i] ) )
continue;
spokes.Clear();
// polygons are rectangles with width of copper bridge value
switch( i )
{
case 0: // lower stub
spokes.Append( -thermalBridgeWidth, endpoint.y );
spokes.Append( +thermalBridgeWidth, endpoint.y );
spokes.Append( +thermalBridgeWidth, startpoint.y );
spokes.Append( -thermalBridgeWidth, startpoint.y );
break;
case 1: // upper stub
spokes.Append( -thermalBridgeWidth, -endpoint.y );
spokes.Append( +thermalBridgeWidth, -endpoint.y );
spokes.Append( +thermalBridgeWidth, -startpoint.y );
spokes.Append( -thermalBridgeWidth, -startpoint.y );
break;
case 2: // right stub
spokes.Append( endpoint.x, -thermalBridgeWidth );
spokes.Append( endpoint.x, thermalBridgeWidth );
spokes.Append( +startpoint.x, thermalBridgeWidth );
spokes.Append( +startpoint.x, -thermalBridgeWidth );
break;
case 3: // left stub
spokes.Append( -endpoint.x, -thermalBridgeWidth );
spokes.Append( -endpoint.x, thermalBridgeWidth );
spokes.Append( -startpoint.x, thermalBridgeWidth );
spokes.Append( -startpoint.x, -thermalBridgeWidth );
break;
}
aCornerBuffer.NewOutline();
// add computed polygon to list
for( int ic = 0; ic < spokes.PointCount(); ic++ )
{
auto cpos = spokes.CPoint( ic );
RotatePoint( cpos, fAngle ); // Rotate according to module orientation
cpos += pad->ShapePos(); // Shift origin to position
aCornerBuffer.Append( cpos );
}
}
}
}
}
EDA_RECT& EDA_RECT::Inflate( int aDelta )
{
Inflate( aDelta, aDelta );
return *this;
}
void CSG_Rect::Deflate(double dx, double dy, bool bPercent)
{
Inflate(-dx, -dy, bPercent);
}
UnicodeString& Unlink() {Inflate(m_pData->GetLength()+1); return *this;}