/// <summary> Initialize all members with the given number of tiles and components.
///
/// </summary>
/// <param name="nt">Number of tiles
///
/// </param>
/// <param name="nc">Number of components
///
/// </param>
public DecoderSpecs(int nt, int nc)
{
// Quantization
qts = new QuantTypeSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP);
qsss = new QuantStepSizeSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP);
gbs = new GuardBitsSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP);
// Wavelet transform
wfs = new SynWTFilterSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP);
dls = new IntegerSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP);
// Component transformation
cts = new CompTransfSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP);
// Entropy decoder
ecopts = new ModuleSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP);
ers = new ModuleSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP);
cblks = new CBlkSizeSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP);
// Precinct partition
pss = new PrecinctSizeSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, dls);
// Codestream
nls = new IntegerSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE);
pos = new IntegerSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE);
pcs = new ModuleSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE);
sops = new ModuleSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE);
ephs = new ModuleSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE);
pphs = new ModuleSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE);
iccs = new ModuleSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE);
pphs.setDefault((System.Object)false);
}
/// <summary> Initializes the source of compressed data. And sets the number of range
/// bits and fraction bits and receives the parameters for the dequantizer.
///
/// </summary>
/// <param name="src">From where to obtain the quantized data.
///
/// </param>
/// <param name="rb">The number of "range bits" (bitdepth) for each component
/// (must be the "range bits" of the un-transformed components). For a
/// definition of "range bits" see the getNomRangeBits() method.
///
/// </param>
/// <param name="qts">The quantizer type spec
///
/// </param>
/// <param name="qsss">The dequantizer step sizes spec
///
/// </param>
/// <seealso cref="Dequantizer.getNomRangeBits">
///
/// </seealso>
/// <exception cref="IllegalArgumentException">Thrown if 'outdt' is neither
/// TYPE_FLOAT nor TYPE_INT, or if 'param' specify reversible quantization
/// and 'outdt' is not TYPE_INT or 'fp' has non-zero values, or if 'outdt'
/// is TYPE_FLOAT and 'fp' has non-zero values.
///
/// </exception>
public StdDequantizer(CBlkQuantDataSrcDec src, int[] utrb, DecoderSpecs decSpec) : base(src, utrb, decSpec)
{
if (utrb.Length != src.NumComps)
{
throw new System.ArgumentException("Invalid rb argument");
}
this.qsss = decSpec.qsss;
this.qts = decSpec.qts;
this.gbs = decSpec.gbs;
}
/// <summary> Initialize all members with the given number of tiles and components
/// and the command-line arguments stored in a ParameterList instance
///
/// </summary>
/// <param name="nt">Number of tiles
///
/// </param>
/// <param name="nc">Number of components
///
/// </param>
/// <param name="imgsrc">The image source (used to get the image size)
///
/// </param>
/// <param name="pl">The ParameterList instance
///
/// </param>
public EncoderSpecs(int nt, int nc, BlkImgDataSrc imgsrc, ParameterList pl)
{
nTiles = nt;
nComp = nc;
// ROI
rois = new MaxShiftSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP);
// Quantization
pl.checkList(Quantizer.OPT_PREFIX, CSJ2K.j2k.util.ParameterList.toNameArray(Quantizer.ParameterInfo));
qts = new QuantTypeSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, pl);
qsss = new QuantStepSizeSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, pl);
gbs = new GuardBitsSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, pl);
// Wavelet transform
wfs = new AnWTFilterSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, qts, pl);
dls = new IntegerSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, pl, "Wlev");
// Component transformation
cts = new ForwCompTransfSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE, wfs, pl);
// Entropy coder
System.String[] strLcs = new System.String[] { "near_opt", "lazy_good", "lazy" };
lcs = new StringSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, "Clen_calc", strLcs, pl);
System.String[] strTerm = new System.String[] { "near_opt", "easy", "predict", "full" };
tts = new StringSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, "Cterm_type", strTerm, pl);
System.String[] strBoolean = new System.String[] { "on", "off" };
sss = new StringSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, "Cseg_symbol", strBoolean, pl);
css = new StringSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, "Ccausal", strBoolean, pl);
rts = new StringSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, "Cterminate", strBoolean, pl);
mqrs = new StringSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, "CresetMQ", strBoolean, pl);
bms = new StringSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, "Cbypass", strBoolean, pl);
cblks = new CBlkSizeSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, pl);
// Precinct partition
pss = new PrecinctSizeSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE_COMP, imgsrc, dls, pl);
// Codestream
sops = new StringSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE, "Psop", strBoolean, pl);
ephs = new StringSpec(nt, nc, ModuleSpec.SPEC_TYPE_TILE, "Peph", strBoolean, pl);
}
/// <summary> Initializes the source of wavelet transform coefficients. The
/// constructor takes information on whether the quantizer is in
/// reversible, derived or expounded mode. If the quantizer is reversible
/// the value of 'derived' is ignored. If the source data is not integer
/// (int) then the quantizer can not be reversible.
///
/// <p>After initializing member attributes, getAnSubbandTree is called for
/// all components setting the 'stepWMSE' for all subbands in the current
/// tile.</p>
///
/// </summary>
/// <param name="src">The source of wavelet transform coefficients.
///
/// </param>
/// <param name="encSpec">The encoder specifications
///
/// </param>
public StdQuantizer(CBlkWTDataSrc src, EncoderSpecs encSpec) : base(src)
{
qts = encSpec.qts;
qsss = encSpec.qsss;
gbs = encSpec.gbs;
}
/// <summary> Constructs a new 'AnWTFilterSpec' for the specified number of
/// components and tiles.
///
/// </summary>
/// <param name="nt">The number of tiles
///
/// </param>
/// <param name="nc">The number of components
///
/// </param>
/// <param name="type">the type of the specification module i.e. tile specific,
/// component specific or both.
///
/// </param>
/// <param name="qts">Quantization specifications
///
/// </param>
/// <param name="pl">The ParameterList
///
/// </param>
public AnWTFilterSpec(int nt, int nc, byte type, QuantTypeSpec qts, ParameterList pl) : base(nt, nc, type)
{
// Check parameters
pl.checkList(AnWTFilter.OPT_PREFIX, CSJ2K.j2k.util.ParameterList.toNameArray(AnWTFilter.ParameterInfo));
System.String param = pl.getParameter("Ffilters");
bool isFilterSpecified = true;
// No parameter specified
if (param == null)
{
isFilterSpecified = false;
// If lossless compression, uses the reversible filters in each
// tile-components
if (pl.getBooleanParameter("lossless"))
{
setDefault(parseFilters(REV_FILTER_STR));
return;
}
// If no filter is specified through the command-line, use
// REV_FILTER_STR or NON_REV_FILTER_STR according to the
// quantization type
for (int t = nt - 1; t >= 0; t--)
{
for (int c = nc - 1; c >= 0; c--)
{
switch (qts.getSpecValType(t, c))
{
case SPEC_DEF:
if (getDefault() == null)
{
if (pl.getBooleanParameter("lossless"))
{
setDefault(parseFilters(REV_FILTER_STR));
}
if (((System.String)qts.getDefault()).Equals("reversible"))
{
setDefault(parseFilters(REV_FILTER_STR));
}
else
{
setDefault(parseFilters(NON_REV_FILTER_STR));
}
}
specValType[t][c] = SPEC_DEF;
break;
case SPEC_COMP_DEF:
if (!isCompSpecified(c))
{
if (((System.String)qts.getCompDef(c)).Equals("reversible"))
{
setCompDef(c, parseFilters(REV_FILTER_STR));
}
else
{
setCompDef(c, parseFilters(NON_REV_FILTER_STR));
}
}
specValType[t][c] = SPEC_COMP_DEF;
break;
case SPEC_TILE_DEF:
if (!isTileSpecified(t))
{
if (((System.String)qts.getTileDef(t)).Equals("reversible"))
{
setTileDef(t, parseFilters(REV_FILTER_STR));
}
else
{
setTileDef(t, parseFilters(NON_REV_FILTER_STR));
}
}
specValType[t][c] = SPEC_TILE_DEF;
break;
case SPEC_TILE_COMP:
if (!isTileCompSpecified(t, c))
{
if (((System.String)qts.getTileCompVal(t, c)).Equals("reversible"))
{
setTileCompVal(t, c, parseFilters(REV_FILTER_STR));
}
else
{
setTileCompVal(t, c, parseFilters(NON_REV_FILTER_STR));
}
}
specValType[t][c] = SPEC_TILE_COMP;
break;
default:
throw new System.ArgumentException("Unsupported " + "specification " + "type");
}
}
}
return;
}
// Parse argument
SupportClass.Tokenizer stk = new SupportClass.Tokenizer(param);
System.String word; // current word
byte curSpecType = SPEC_DEF; // Specification type of the
// current parameter
bool[] tileSpec = null; // Tiles concerned by the specification
bool[] compSpec = null; // Components concerned by the specification
AnWTFilter[][] filter;
while (stk.HasMoreTokens())
{
word = stk.NextToken();
switch (word[0])
{
case 't':
// Tiles specification
case 'T': // Tiles specification
tileSpec = parseIdx(word, nTiles);
if (curSpecType == SPEC_COMP_DEF)
{
curSpecType = SPEC_TILE_COMP;
}
else
{
curSpecType = SPEC_TILE_DEF;
}
break;
case 'c':
// Components specification
case 'C': // Components specification
compSpec = parseIdx(word, nComp);
if (curSpecType == SPEC_TILE_DEF)
{
curSpecType = SPEC_TILE_COMP;
}
else
{
curSpecType = SPEC_COMP_DEF;
}
break;
case 'w':
// WT filters specification
case 'W': // WT filters specification
if (pl.getBooleanParameter("lossless") && word.ToUpper().Equals("w9x7".ToUpper()))
{
throw new System.ArgumentException("Cannot use non " + "reversible " + "wavelet transform with" + " '-lossless' option");
}
filter = parseFilters(word);
if (curSpecType == SPEC_DEF)
{
setDefault(filter);
}
else if (curSpecType == SPEC_TILE_DEF)
{
for (int i = tileSpec.Length - 1; i >= 0; i--)
{
if (tileSpec[i])
{
setTileDef(i, filter);
}
}
}
else if (curSpecType == SPEC_COMP_DEF)
{
for (int i = compSpec.Length - 1; i >= 0; i--)
{
if (compSpec[i])
{
setCompDef(i, filter);
}
}
}
else
{
for (int i = tileSpec.Length - 1; i >= 0; i--)
{
for (int j = compSpec.Length - 1; j >= 0; j--)
{
if (tileSpec[i] && compSpec[j])
{
setTileCompVal(i, j, filter);
}
}
}
}
// Re-initialize
curSpecType = SPEC_DEF;
tileSpec = null;
compSpec = null;
break;
default:
throw new System.ArgumentException("Bad construction for " + "parameter: " + word);
}
}
// Check that default value has been specified
if (getDefault() == null)
{
int ndefspec = 0;
for (int t = nt - 1; t >= 0; t--)
{
for (int c = nc - 1; c >= 0; c--)
{
if (specValType[t][c] == SPEC_DEF)
{
ndefspec++;
}
}
}
// If some tile-component have received no specification, it takes
// the default value defined in ParameterList
if (ndefspec != 0)
{
if (((System.String)qts.getDefault()).Equals("reversible"))
{
setDefault(parseFilters(REV_FILTER_STR));
}
else
{
setDefault(parseFilters(NON_REV_FILTER_STR));
}
}
else
{
// All tile-component have been specified, takes the first
// tile-component value as default.
setDefault(getTileCompVal(0, 0));
switch (specValType[0][0])
{
case SPEC_TILE_DEF:
for (int c = nc - 1; c >= 0; c--)
{
if (specValType[0][c] == SPEC_TILE_DEF)
{
specValType[0][c] = SPEC_DEF;
}
}
tileDef[0] = null;
break;
case SPEC_COMP_DEF:
for (int t = nt - 1; t >= 0; t--)
{
if (specValType[t][0] == SPEC_COMP_DEF)
{
specValType[t][0] = SPEC_DEF;
}
}
compDef[0] = null;
break;
case SPEC_TILE_COMP:
specValType[0][0] = SPEC_DEF;
tileCompVal["t0c0"] = null;
break;
}
}
}
// Check consistency between filter and quantization type
// specification
for (int t = nt - 1; t >= 0; t--)
{
for (int c = nc - 1; c >= 0; c--)
{
// Reversible quantization
if (((System.String)qts.getTileCompVal(t, c)).Equals("reversible"))
{
// If filter is reversible, it is OK
if (isReversible(t, c))
{
continue;
}
// If no filter has been defined, use reversible filter
if (!isFilterSpecified)
{
setTileCompVal(t, c, parseFilters(REV_FILTER_STR));
}
else
{
// Non reversible filter specified -> Error
throw new System.ArgumentException("Filter of " + "tile-component" + " (" + t + "," + c + ") does" + " not allow " + "reversible " + "quantization. " + "Specify '-Qtype " + "expounded' or " + "'-Qtype derived'" + "in " + "the command line.");
}
}
else
{
// No reversible quantization
// No reversible filter -> OK
if (!isReversible(t, c))
{
continue;
}
// If no filter has been specified, use non-reversible
// filter
if (!isFilterSpecified)
{
setTileCompVal(t, c, parseFilters(NON_REV_FILTER_STR));
}
else
{
// Reversible filter specified -> Error
throw new System.ArgumentException("Filter of " + "tile-component" + " (" + t + "," + c + ") does" + " not allow " + "non-reversible " + "quantization. " + "Specify '-Qtype " + "reversible' in " + "the command line");
}
}
}
}
}
