public static int TIFFWriteScanline(TIFF tif, byte[] buf, uint row, ushort sample)
{
string module="TIFFWriteScanline";
if(!((tif.tif_flags&TIF_FLAGS.TIFF_BEENWRITING)!=0||TIFFWriteCheck(tif, false, module))) return -1;
// Handle delayed allocation of data buffer. This
// permits it to be sized more intelligently (using
// directory information).
if(!BUFFERCHECK(tif)) return -1;
TIFFDirectory td=tif.tif_dir;
bool imagegrew=false;
// Extend image length if needed
// (but only for PlanarConfig=1).
if(row>=td.td_imagelength)
{ // extend image
if(td.td_planarconfig==PLANARCONFIG.SEPARATE)
{
TIFFErrorExt(tif.tif_clientdata, tif.tif_name, "Can not change \"ImageLength\" when using separate planes");
return -1;
}
td.td_imagelength=row+1;
imagegrew=true;
}
// Calculate strip and check for crossings.
uint strip;
if(td.td_planarconfig==PLANARCONFIG.SEPARATE)
{
if(sample>=td.td_samplesperpixel)
{
TIFFErrorExt(tif.tif_clientdata, tif.tif_name, "{0}: Sample out of range, max {1}", sample, td.td_samplesperpixel);
return -1;
}
strip=sample*td.td_stripsperimage+row/td.td_rowsperstrip;
}
else strip=row/td.td_rowsperstrip;
// Check strip array to make sure there's space. We don't support
// dynamically growing files that have data organized in separate
// bitplanes because it's too painful. In that case we require that
// the imagelength be set properly before the first write (so that the
// strips array will be fully allocated above).
if(strip>=td.td_nstrips&&!TIFFGrowStrips(tif, 1, module)) return -1;
if(strip!=tif.tif_curstrip)
{
// Changing strips -- flush any data present.
if(!TIFFFlushData(tif)) return -1;
tif.tif_curstrip=strip;
// Watch out for a growing image. The value of strips/image
// will initially be 1 (since it can't be deduced until the
// imagelength is known).
if(strip>=td.td_stripsperimage&&imagegrew) td.td_stripsperimage=TIFFhowmany(td.td_imagelength, td.td_rowsperstrip);
tif.tif_row=(strip%td.td_stripsperimage)*td.td_rowsperstrip;
if((tif.tif_flags&TIF_FLAGS.TIFF_CODERSETUP)==0)
{
if(!tif.tif_setupencode(tif)) return -1;
tif.tif_flags|=TIF_FLAGS.TIFF_CODERSETUP;
}
tif.tif_rawcc=0;
tif.tif_rawcp=0;
if(td.td_stripbytecount[strip]>0)
{
// Force TIFFAppendToStrip() to consider placing data at end of file.
tif.tif_curoff=0;
}
if(!tif.tif_preencode(tif, sample)) return -1;
tif.tif_flags|=TIF_FLAGS.TIFF_POSTENCODE;
}
// Ensure the write is either sequential or at the
// beginning of a strip (or that we can randomly
// access the data -- i.e. no encoding).
if(row!=tif.tif_row)
{
if(row<tif.tif_row)
{
// Moving backwards within the same strip:
// backup to the start and then decode
// forward (below).
tif.tif_row=(strip%td.td_stripsperimage)*td.td_rowsperstrip;
tif.tif_rawcp=0;
}
// Seek forward to the desired row.
if(!tif.tif_seek(tif, row-tif.tif_row)) return -1;
tif.tif_row=row;
}
// swab if needed - note that source buffer will be altered
tif.tif_postdecode(tif, buf, 0, (int)tif.tif_scanlinesize);
bool status=tif.tif_encoderow(tif, buf, (int)tif.tif_scanlinesize, sample);
// we are now poised at the beginning of the next row
tif.tif_row=row+1;
return status?1:0;
}
// Encode the supplied data and write it to the
// specified tile. There must be space for the
// data. The function clamps individual writes
// to a tile to the tile size, but does not (and
// can not) check that multiple writes to the same
// tile do not write more than tile size data.
//
// NB: Image length must be setup before writing; this
// interface does not support automatically growing
// the image on each write (as TIFFWriteScanline does).
public static int TIFFWriteEncodedTile(TIFF tif, uint tile, byte[] data, int cc)
{
string module="TIFFWriteEncodedTile";
ushort sample;
if(!((tif.tif_flags&TIF_FLAGS.TIFF_BEENWRITING)!=0||TIFFWriteCheck(tif, true, module))) return -1;
TIFFDirectory td=tif.tif_dir;
if(tile>=td.td_nstrips)
{
TIFFErrorExt(tif.tif_clientdata, module, "{0}: Tile {1} out of range, max {2}", tif.tif_name, tile, td.td_nstrips);
return -1;
}
// Handle delayed allocation of data buffer. This
// permits it to be sized more intelligently (using
// directory information).
if(!BUFFERCHECK(tif)) return -1;
tif.tif_curtile=tile;
tif.tif_rawcc=0;
tif.tif_rawcp=0;;
if(td.td_stripbytecount[tile]>0)
{
// if we are writing over existing tiles, zero length.
td.td_stripbytecount[tile]=0;
// this forces TIFFAppendToStrip() to do a seek.
tif.tif_curoff=0;
}
// Compute tiles per row & per column to compute
// current row and column
tif.tif_row=(tile%TIFFhowmany(td.td_imagelength, td.td_tilelength))*td.td_tilelength;
tif.tif_col=(tile%TIFFhowmany(td.td_imagewidth, td.td_tilewidth))*td.td_tilewidth;
if((tif.tif_flags&TIF_FLAGS.TIFF_CODERSETUP)==0)
{
if(!tif.tif_setupencode(tif)) return -1;
tif.tif_flags|=TIF_FLAGS.TIFF_CODERSETUP;
}
tif.tif_flags&=~TIF_FLAGS.TIFF_POSTENCODE;
sample=(ushort)(tile/td.td_stripsperimage);
if(!tif.tif_preencode(tif, sample)) return -1;
// Clamp write amount to the tile size. This is mostly
// done so that callers can pass in some large number
// (e.g. -1) and have the tile size used instead.
if(cc<1||cc>tif.tif_tilesize) cc=tif.tif_tilesize;
// swab if needed - note that source buffer will be altered
tif.tif_postdecode(tif, data, 0, cc);
if(!tif.tif_encodetile(tif, data, cc, sample)) return 0;
if(!tif.tif_postencode(tif)) return -1;
if(!isFillOrder(tif, td.td_fillorder)&&(tif.tif_flags&TIF_FLAGS.TIFF_NOBITREV)==0) TIFFReverseBits(tif.tif_rawdata, tif.tif_rawcc);
if(tif.tif_rawcc>0&&!TIFFAppendToStrip(tif, tile, tif.tif_rawdata, tif.tif_rawcc)) return -1;
tif.tif_rawcc=0;
tif.tif_rawcp=0;
return cc;
}
// Encode the supplied data and write it to the
// specified strip.
//
// NB: Image length must be setup before writing.
public static int TIFFWriteEncodedStrip(TIFF tif, uint strip, byte[] data, int cc)
{
string module="TIFFWriteEncodedStrip";
TIFFDirectory td=tif.tif_dir;
ushort sample;
if(!((tif.tif_flags&TIF_FLAGS.TIFF_BEENWRITING)!=0||TIFFWriteCheck(tif, false, module))) return -1;
// Check strip array to make sure there's space.
// We don't support dynamically growing files that
// have data organized in separate bitplanes because
// it's too painful. In that case we require that
// the imagelength be set properly before the first
// write (so that the strips array will be fully
// allocated above).
///
if(strip>=td.td_nstrips)
{
if(td.td_planarconfig==PLANARCONFIG.SEPARATE)
{
TIFFErrorExt(tif.tif_clientdata, tif.tif_name, "Can not grow image by strips when using separate planes");
return -1;
}
if(!TIFFGrowStrips(tif, 1, module)) return -1;
td.td_stripsperimage=TIFFhowmany(td.td_imagelength, td.td_rowsperstrip);
}
// Handle delayed allocation of data buffer. This
// permits it to be sized according to the directory
// info.
if(!BUFFERCHECK(tif)) return -1;
tif.tif_curstrip=strip;
tif.tif_row=(strip%td.td_stripsperimage)*td.td_rowsperstrip;
if((tif.tif_flags&TIF_FLAGS.TIFF_CODERSETUP)==0)
{
if(!tif.tif_setupencode(tif)) return -1;
tif.tif_flags|=TIF_FLAGS.TIFF_CODERSETUP;
}
tif.tif_rawcc=0;
tif.tif_rawcp=0;
if(td.td_stripbytecount[strip]>0)
{
// Force TIFFAppendToStrip() to consider placing data at end of file.
tif.tif_curoff=0;
}
tif.tif_flags&=~TIF_FLAGS.TIFF_POSTENCODE;
sample=(ushort)(strip/td.td_stripsperimage);
if(!tif.tif_preencode(tif, sample)) return -1;
// swab if needed - note that source buffer will be altered
tif.tif_postdecode(tif, data, 0, cc);
if(!tif.tif_encodestrip(tif, data, cc, sample)) return 0;
if(!tif.tif_postencode(tif)) return -1;
if(!isFillOrder(tif, td.td_fillorder)&&(tif.tif_flags&TIF_FLAGS.TIFF_NOBITREV)==0) TIFFReverseBits(tif.tif_rawdata, tif.tif_rawcc);
if(tif.tif_rawcc>0&&!TIFFAppendToStrip(tif, strip, tif.tif_rawdata, tif.tif_rawcc)) return -1;
tif.tif_rawcc=0;
tif.tif_rawcp=0;
return cc;
}
public static int TIFFWriteScanline(TIFF tif, byte[] buf, uint row, ushort sample)
{
string module = "TIFFWriteScanline";
if (!((tif.tif_flags & TIF_FLAGS.TIFF_BEENWRITING) != 0 || TIFFWriteCheck(tif, false, module)))
{
return(-1);
}
// Handle delayed allocation of data buffer. This
// permits it to be sized more intelligently (using
// directory information).
if (!BUFFERCHECK(tif))
{
return(-1);
}
TIFFDirectory td = tif.tif_dir;
bool imagegrew = false;
// Extend image length if needed
// (but only for PlanarConfig=1).
if (row >= td.td_imagelength)
{ // extend image
if (td.td_planarconfig == PLANARCONFIG.SEPARATE)
{
TIFFErrorExt(tif.tif_clientdata, tif.tif_name, "Can not change \"ImageLength\" when using separate planes");
return(-1);
}
td.td_imagelength = row + 1;
imagegrew = true;
}
// Calculate strip and check for crossings.
uint strip;
if (td.td_planarconfig == PLANARCONFIG.SEPARATE)
{
if (sample >= td.td_samplesperpixel)
{
TIFFErrorExt(tif.tif_clientdata, tif.tif_name, "{0}: Sample out of range, max {1}", sample, td.td_samplesperpixel);
return(-1);
}
strip = sample * td.td_stripsperimage + row / td.td_rowsperstrip;
}
else
{
strip = row / td.td_rowsperstrip;
}
// Check strip array to make sure there's space. We don't support
// dynamically growing files that have data organized in separate
// bitplanes because it's too painful. In that case we require that
// the imagelength be set properly before the first write (so that the
// strips array will be fully allocated above).
if (strip >= td.td_nstrips && !TIFFGrowStrips(tif, 1, module))
{
return(-1);
}
if (strip != tif.tif_curstrip)
{
// Changing strips -- flush any data present.
if (!TIFFFlushData(tif))
{
return(-1);
}
tif.tif_curstrip = strip;
// Watch out for a growing image. The value of strips/image
// will initially be 1 (since it can't be deduced until the
// imagelength is known).
if (strip >= td.td_stripsperimage && imagegrew)
{
td.td_stripsperimage = TIFFhowmany(td.td_imagelength, td.td_rowsperstrip);
}
tif.tif_row = (strip % td.td_stripsperimage) * td.td_rowsperstrip;
if ((tif.tif_flags & TIF_FLAGS.TIFF_CODERSETUP) == 0)
{
if (!tif.tif_setupencode(tif))
{
return(-1);
}
tif.tif_flags |= TIF_FLAGS.TIFF_CODERSETUP;
}
tif.tif_rawcc = 0;
tif.tif_rawcp = 0;
if (td.td_stripbytecount[strip] > 0)
{
// Force TIFFAppendToStrip() to consider placing data at end of file.
tif.tif_curoff = 0;
}
if (!tif.tif_preencode(tif, sample))
{
return(-1);
}
tif.tif_flags |= TIF_FLAGS.TIFF_POSTENCODE;
}
// Ensure the write is either sequential or at the
// beginning of a strip (or that we can randomly
// access the data -- i.e. no encoding).
if (row != tif.tif_row)
{
if (row < tif.tif_row)
{
// Moving backwards within the same strip:
// backup to the start and then decode
// forward (below).
tif.tif_row = (strip % td.td_stripsperimage) * td.td_rowsperstrip;
tif.tif_rawcp = 0;
}
// Seek forward to the desired row.
if (!tif.tif_seek(tif, row - tif.tif_row))
{
return(-1);
}
tif.tif_row = row;
}
// swab if needed - note that source buffer will be altered
tif.tif_postdecode(tif, buf, 0, (int)tif.tif_scanlinesize);
bool status = tif.tif_encoderow(tif, buf, (int)tif.tif_scanlinesize, sample);
// we are now poised at the beginning of the next row
tif.tif_row = row + 1;
return(status?1:0);
}
// Encode the supplied data and write it to the
// specified tile. There must be space for the
// data. The function clamps individual writes
// to a tile to the tile size, but does not (and
// can not) check that multiple writes to the same
// tile do not write more than tile size data.
//
// NB: Image length must be setup before writing; this
// interface does not support automatically growing
// the image on each write (as TIFFWriteScanline does).
public static int TIFFWriteEncodedTile(TIFF tif, uint tile, byte[] data, int cc)
{
string module = "TIFFWriteEncodedTile";
ushort sample;
if (!((tif.tif_flags & TIF_FLAGS.TIFF_BEENWRITING) != 0 || TIFFWriteCheck(tif, true, module)))
{
return(-1);
}
TIFFDirectory td = tif.tif_dir;
if (tile >= td.td_nstrips)
{
TIFFErrorExt(tif.tif_clientdata, module, "{0}: Tile {1} out of range, max {2}", tif.tif_name, tile, td.td_nstrips);
return(-1);
}
// Handle delayed allocation of data buffer. This
// permits it to be sized more intelligently (using
// directory information).
if (!BUFFERCHECK(tif))
{
return(-1);
}
tif.tif_curtile = tile;
tif.tif_rawcc = 0;
tif.tif_rawcp = 0;;
if (td.td_stripbytecount[tile] > 0)
{
// if we are writing over existing tiles, zero length.
td.td_stripbytecount[tile] = 0;
// this forces TIFFAppendToStrip() to do a seek.
tif.tif_curoff = 0;
}
// Compute tiles per row & per column to compute
// current row and column
tif.tif_row = (tile % TIFFhowmany(td.td_imagelength, td.td_tilelength)) * td.td_tilelength;
tif.tif_col = (tile % TIFFhowmany(td.td_imagewidth, td.td_tilewidth)) * td.td_tilewidth;
if ((tif.tif_flags & TIF_FLAGS.TIFF_CODERSETUP) == 0)
{
if (!tif.tif_setupencode(tif))
{
return(-1);
}
tif.tif_flags |= TIF_FLAGS.TIFF_CODERSETUP;
}
tif.tif_flags &= ~TIF_FLAGS.TIFF_POSTENCODE;
sample = (ushort)(tile / td.td_stripsperimage);
if (!tif.tif_preencode(tif, sample))
{
return(-1);
}
// Clamp write amount to the tile size. This is mostly
// done so that callers can pass in some large number
// (e.g. -1) and have the tile size used instead.
if (cc < 1 || cc > tif.tif_tilesize)
{
cc = tif.tif_tilesize;
}
// swab if needed - note that source buffer will be altered
tif.tif_postdecode(tif, data, 0, cc);
if (!tif.tif_encodetile(tif, data, cc, sample))
{
return(0);
}
if (!tif.tif_postencode(tif))
{
return(-1);
}
if (!isFillOrder(tif, td.td_fillorder) && (tif.tif_flags & TIF_FLAGS.TIFF_NOBITREV) == 0)
{
TIFFReverseBits(tif.tif_rawdata, tif.tif_rawcc);
}
if (tif.tif_rawcc > 0 && !TIFFAppendToStrip(tif, tile, tif.tif_rawdata, tif.tif_rawcc))
{
return(-1);
}
tif.tif_rawcc = 0;
tif.tif_rawcp = 0;
return(cc);
}
// Encode the supplied data and write it to the
// specified strip.
//
// NB: Image length must be setup before writing.
public static int TIFFWriteEncodedStrip(TIFF tif, uint strip, byte[] data, int cc)
{
string module = "TIFFWriteEncodedStrip";
TIFFDirectory td = tif.tif_dir;
ushort sample;
if (!((tif.tif_flags & TIF_FLAGS.TIFF_BEENWRITING) != 0 || TIFFWriteCheck(tif, false, module)))
{
return(-1);
}
// Check strip array to make sure there's space.
// We don't support dynamically growing files that
// have data organized in separate bitplanes because
// it's too painful. In that case we require that
// the imagelength be set properly before the first
// write (so that the strips array will be fully
// allocated above).
///
if (strip >= td.td_nstrips)
{
if (td.td_planarconfig == PLANARCONFIG.SEPARATE)
{
TIFFErrorExt(tif.tif_clientdata, tif.tif_name, "Can not grow image by strips when using separate planes");
return(-1);
}
if (!TIFFGrowStrips(tif, 1, module))
{
return(-1);
}
td.td_stripsperimage = TIFFhowmany(td.td_imagelength, td.td_rowsperstrip);
}
// Handle delayed allocation of data buffer. This
// permits it to be sized according to the directory
// info.
if (!BUFFERCHECK(tif))
{
return(-1);
}
tif.tif_curstrip = strip;
tif.tif_row = (strip % td.td_stripsperimage) * td.td_rowsperstrip;
if ((tif.tif_flags & TIF_FLAGS.TIFF_CODERSETUP) == 0)
{
if (!tif.tif_setupencode(tif))
{
return(-1);
}
tif.tif_flags |= TIF_FLAGS.TIFF_CODERSETUP;
}
tif.tif_rawcc = 0;
tif.tif_rawcp = 0;
if (td.td_stripbytecount[strip] > 0)
{
// Force TIFFAppendToStrip() to consider placing data at end of file.
tif.tif_curoff = 0;
}
tif.tif_flags &= ~TIF_FLAGS.TIFF_POSTENCODE;
sample = (ushort)(strip / td.td_stripsperimage);
if (!tif.tif_preencode(tif, sample))
{
return(-1);
}
// swab if needed - note that source buffer will be altered
tif.tif_postdecode(tif, data, 0, cc);
if (!tif.tif_encodestrip(tif, data, cc, sample))
{
return(0);
}
if (!tif.tif_postencode(tif))
{
return(-1);
}
if (!isFillOrder(tif, td.td_fillorder) && (tif.tif_flags & TIF_FLAGS.TIFF_NOBITREV) == 0)
{
TIFFReverseBits(tif.tif_rawdata, tif.tif_rawcc);
}
if (tif.tif_rawcc > 0 && !TIFFAppendToStrip(tif, strip, tif.tif_rawdata, tif.tif_rawcc))
{
return(-1);
}
tif.tif_rawcc = 0;
tif.tif_rawcp = 0;
return(cc);
}