static void TextProcessor(INT hdlImage,CHAR *lpText)
{
BYTE *lp;
CHAR szTesto[1024];
POINT pt;
IMGHEADER *Img;
HDC hDC,hDClone;
HBITMAP hbCopy;
BYTE *lpSorg;
INT iLx,iLy;
BITMAPINFOHEADER *BmpHeader;
BITMAPINFO *BmpInfo;
INT iAlt=12;
INT iCol1=0;
INT iCol2=-1;
BOOL fBold=FALSE;
// ----------------------------------------------------------------------------
// Creo una zona di memoria tipo video delle dimensioni dell'immagine
//
//memcpy(&ImgHeader,memoLock(hdlImage),sizeof(IMGHEADER));
printf("Elaborazione TextProcessor [%s]" CRLF,lpText); //Sleep(2000);
//ehLogWrite("> %s" CRLF,lpText);
if (!*lpText) return;
Img=memoLock(hdlImage);
BmpInfo=(BITMAPINFO *) &Img->bmiHeader;
BmpHeader=(BITMAPINFOHEADER *) &Img->bmiHeader;
iLy=BmpHeader->biHeight; if (iLy<0) iLy=-BmpHeader->biHeight;
iLx=BmpHeader->biWidth;
hDC=GetDC(NULL); hDClone=CreateCompatibleDC(hDC);
SetMapMode(hDClone, MM_TEXT);
hbCopy = CreateCompatibleBitmap(hDC, iLx, iLy);
SelectObject(hDClone, hbCopy);
ReleaseDC(NULL,hDC);
lpSorg=(BYTE *) Img; lpSorg+=Img->Offset;
// Scrivo l'immagine in questa zona di memoria
if (StretchDIBits(hDClone,
// Coordinate e dimensioni di stampa a video
0,0,
iLx,
iLy,
// Coordinate e dimensioni di lettura nel sorgente
0,
iLy+1,
iLx,
-iLy,
lpSorg,
(BITMAPINFO *) &Img->bmiHeader,
DIB_RGB_COLORS,
SRCCOPY) == GDI_ERROR) {printf("StretchDIBits Failed");}
// Ci faccio quello che ci devo fare con i comandi
lp=strtok(lpText,"|");
*szTesto=0;
ZeroFill(pt);
while (lp)
{
//printf("[%s]" CRLF,lp);
if (!memcmp(lp,"TEXT=",5)) strcpy(szTesto,lp+5);
if (!memcmp(lp,"PX=",3)) pt.x=atoi(lp+3);
if (!memcmp(lp,"PY=",3)) pt.y=atoi(lp+3);
if (!memcmp(lp,"ALT=",3)) iAlt=atoi(lp+3);
if (!memcmp(lp,"COL=",4)) iCol1=ColorConvert(lp+4);
if (!memcmp(lp,"BG=",3)) iCol2=ColorConvert(lp+3);
if (!memcmp(lp,"BOLD=",5)) fBold=atoi(lp+5);
if (*lp=='*')
{
//printf("Stampo: %d,%d,%s" CRLF,pt.x,pt.y,szTesto);
//ehLogWrite("Stampo: %d,%d,%s",pt.x,pt.y,szTesto);
LPrint(hDClone,pt.x,pt.y,iCol1,iCol2,"Arial",iAlt,fBold,szTesto);
}
lp=strtok(NULL,"|");
}
// Mi riprendo la zona di memoria video e la rimetto nell'immagine
//BmpHeader->biHeight*=-1;
GetDIBits(
hDClone, // handle to device context
hbCopy, // handle to bitmap
0, // first scan line to set in destination bitmap
iLy, // number of scan lines to copy
lpSorg, // address of array for bitmap bits
(BITMAPINFO *) &Img->bmiHeader, // address of structure with bitmap data
DIB_RGB_COLORS // RGB or palette index
);
if (!DeleteDC(hDClone))
{
ehLogWrite("Errore in cancellazione DC %d",GetLastError());
ehExit("Errore in cancellazione DC");
}
if (!DeleteObject(hbCopy))
{
ehLogWrite("Errore in cancellazione Bitmap %d",GetLastError());
ehExit("Errore in cancellazione Bitmap");
}
memoUnlockEx(hdlImage,"A5");
IMGMirrorY(hdlImage);
// Libero le risorse
//TextOut(
}
JERRCODE CJPEGDecoder::DecodeScanBaselineIN_RSTI(void)
{
int rcount = 0;
IppStatus status;
JERRCODE jerr;
#ifdef __TIMING__
Ipp64u c0;
Ipp64u c1;
#endif
#ifdef _OPENMP
int j;
for(j = 0; j < m_num_threads; j++)
status = ippiDecodeHuffmanStateInit_JPEG_8u(m_state_t[j]);
#endif
status = ippiDecodeHuffmanStateInit_JPEG_8u(m_state);
if(ippStsNoErr != status)
{
return JPEG_ERR_INTERNAL;
}
m_marker = JM_NONE;
// workaround for 8-bit qnt tables in 12-bit scans
if(m_qntbl[0].m_initialized && m_qntbl[0].m_precision == 0 && m_jpeg_precision == 12)
m_qntbl[0].ConvertToHighPrecision();
if(m_qntbl[1].m_initialized && m_qntbl[1].m_precision == 0 && m_jpeg_precision == 12)
m_qntbl[1].ConvertToHighPrecision();
if(m_qntbl[2].m_initialized && m_qntbl[2].m_precision == 0 && m_jpeg_precision == 12)
m_qntbl[2].ConvertToHighPrecision();
if(m_qntbl[3].m_initialized && m_qntbl[3].m_precision == 0 && m_jpeg_precision == 12)
m_qntbl[3].ConvertToHighPrecision();
// workaround for 16-bit qnt tables in 8-bit scans
if(m_qntbl[0].m_initialized && m_qntbl[0].m_precision == 1 && m_jpeg_precision == 8)
m_qntbl[0].ConvertToLowPrecision();
if(m_qntbl[1].m_initialized && m_qntbl[1].m_precision == 1 && m_jpeg_precision == 8)
m_qntbl[1].ConvertToLowPrecision();
if(m_qntbl[2].m_initialized && m_qntbl[2].m_precision == 1 && m_jpeg_precision == 8)
m_qntbl[2].ConvertToLowPrecision();
if(m_qntbl[3].m_initialized && m_qntbl[3].m_precision == 1 && m_jpeg_precision == 8)
m_qntbl[3].ConvertToLowPrecision();
if(m_dctbl[0].IsEmpty())
{
jerr = m_dctbl[0].Create();
if(JPEG_OK != jerr)
return jerr;
jerr = m_dctbl[0].Init(0,0,(Ipp8u*)&DefaultLuminanceDCBits[0],(Ipp8u*)&DefaultLuminanceDCValues[0]);
if(JPEG_OK != jerr)
return jerr;
}
if(m_dctbl[1].IsEmpty())
{
jerr = m_dctbl[1].Create();
if(JPEG_OK != jerr)
return jerr;
jerr = m_dctbl[1].Init(1,0,(Ipp8u*)&DefaultChrominanceDCBits[0],(Ipp8u*)&DefaultChrominanceDCValues[0]);
if(JPEG_OK != jerr)
return jerr;
}
if(m_actbl[0].IsEmpty())
{
jerr = m_actbl[0].Create();
if(JPEG_OK != jerr)
return jerr;
jerr = m_actbl[0].Init(0,1,(Ipp8u*)&DefaultLuminanceACBits[0],(Ipp8u*)&DefaultLuminanceACValues[0]);
if(JPEG_OK != jerr)
return jerr;
}
if(m_actbl[1].IsEmpty())
{
jerr = m_actbl[1].Create();
if(JPEG_OK != jerr)
return jerr;
jerr = m_actbl[1].Init(1,1,(Ipp8u*)&DefaultChrominanceACBits[0],(Ipp8u*)&DefaultChrominanceACValues[0]);
if(JPEG_OK != jerr)
return jerr;
}
m_rsti_offset[0] = m_BitStreamIn.GetStreamPos();
#ifdef _OPENMP
#pragma omp parallel shared(rcount) if(m_jpeg_sampling != JS_411)
#endif
{
int i = 0;
int rh = 1;
int r = 0;
int currMCURow = 0;
int idThread = 0;
Ipp16s* pMCUBuf = 0; // the pointer to Buffer for a current thread.
#ifdef _OPENMP
idThread = omp_get_thread_num(); // the thread id of the calling thread.
#endif
pMCUBuf = m_block_buffer + idThread * m_numxMCU * m_nblock * DCTSIZE2;
while(i < m_num_rsti)
{
#ifdef _OPENMP
#pragma omp critical
{
#endif
i = rcount;
rcount++;
if(i < m_num_rsti)
{
ParseNextRSTI(idThread,i+1);
}
#ifdef _OPENMP
}
#endif
if(i < m_num_rsti)
{
#ifdef _OPENMP
currMCURow = m_rsti_height*i;
m_BitStreamInT[idThread].SetDataLen(m_rsti_offset[i+1] - m_rsti_offset[i]);
m_BitStreamInT[idThread].SetCurrPos(0);
#endif
rh = IPP_MIN(m_rsti_height, m_numyMCU - currMCURow);
for(r = 0; r < rh; r++)
{
ippsZero_16s(pMCUBuf,m_numxMCU * m_nblock * DCTSIZE2);
jerr = DecodeHuffmanMCURowBL_RSTI(pMCUBuf, idThread);
if(JPEG_OK != jerr)
continue;
jerr = ReconstructMCURowBL8x8(pMCUBuf, idThread);
if(JPEG_OK != jerr)
continue;
jerr = UpSampling(currMCURow + r,idThread);
if(JPEG_OK != jerr)
continue;
jerr = ColorConvert(currMCURow + r,idThread);
if(JPEG_OK != jerr)
continue;
}
if(m_jpeg_restart_interval)
{
jerr = ProcessRestart(idThread);
if(JPEG_OK != jerr)
{
LOG0("Error: ProcessRestart() failed!");
}
}
} // if
#ifndef _OPENMP
i++;
#endif
} // for m_numyMCU
} // OMP
#ifdef _OPENMP
/*for(j = 0; j < m_num_rsti; j++)
{
omp_destroy_lock(&locks[j]);
}
ippFree(locks);
locks = 0;*/
#endif
return JPEG_OK;
} // CJPEGDecoder::DecodeScanBaselineIN_RSTI()