Range *ColorPalette::clone() const
{
ColorPalette *palette = new ColorPalette();
for(const auto& item : _colors){
palette->add( item->clone());
}
palette->defaultColorModel(defaultColorModel());
return palette;
}
QString MemoryDump::query(const int queryId, const ColorPalette& col,
KnowledgeSources src) const
{
QString ret;
Instance instance = queryInstance(queryId, src);
QString s = QString("%1%2%3%4: ")
.arg(col.color(ctTypeId))
.arg("0x")
.arg(queryId, 0, 16)
.arg(col.color(ctReset));
if (instance.isValid()) {
s += QString("%1%2%3 (ID%4 0x%5%6)")
.arg(col.color(ctType))
.arg(instance.typeName())
.arg(col.color(ctReset))
.arg(col.color(ctTypeId))
.arg((uint)instance.type()->id(), 0, 16)
.arg(col.color(ctReset));
ret = instance.toString(&col);
}
else
s += "(unresolved type)";
s += QString(" @%1 0x%2%3\n")
.arg(col.color(ctAddress))
.arg(instance.address(), _specs.sizeofPointer << 1, 16, QChar('0'))
.arg(col.color(ctReset));
ret = s + ret;
return ret;
}
/**
* \brief Sets the drop properties
*/
void dropEvent(QDropEvent* event)
{
// Find the output location
drop_index = owner->indexAt(event->pos());
if ( drop_index == -1 )
drop_index = palette.count();
// Gather up the color
if ( event->mimeData()->hasColor() )
{
drop_color = event->mimeData()->colorData().value<QColor>();
}
else if ( event->mimeData()->hasText() )
{
drop_color = QColor(event->mimeData()->text());
}
drop_overwrite = false;
QRectF drop_rect = indexRect(drop_index);
if ( drop_index < palette.count() && drop_rect.isValid() )
{
// 1 column => vertical style
if ( palette.columns() == 1 || forced_columns == 1 )
{
// Dragged to the last quarter of the size of the square, add after
if ( event->posF().y() >= drop_rect.top() + drop_rect.height() * 3.0 / 4 )
drop_index++;
// Dragged to the middle of the square, overwrite existing color
else if ( event->posF().x() > drop_rect.top() + drop_rect.height() / 4 &&
( event->dropAction() != Qt::MoveAction || event->source() != owner ||
palette.colorAt(drop_index) == emptyColor ) )
drop_overwrite = true;
}
else
{
// Dragged to the last quarter of the size of the square, add after
if ( event->posF().x() >= drop_rect.left() + drop_rect.width() * 3.0 / 4 )
drop_index++;
// Dragged to the middle of the square, overwrite existing color
else if ( event->posF().x() > drop_rect.left() + drop_rect.width() / 4 &&
( event->dropAction() != Qt::MoveAction || event->source() != owner ||
palette.colorAt(drop_index) == emptyColor ) )
drop_overwrite = true;
}
}
owner->update();
}
bool RasterCoverageConnector::handlePaletteCase(Size<> &rastersize, RasterCoverage* raster) {
auto layerHandle = gdal()->getRasterBand(_handle->handle(), 1);
auto paletteHandle = gdal()->getColorPalette(layerHandle);
ColorPalette *palette = new ColorPalette();
if (!paletteHandle)
return false;
int count = gdal()->getColorPaletteSize(paletteHandle);
if ( count == 0)
return false;
ColorRangeBase::ColorModel model;
GDALPaletteInterp colorType = gdal()->getPaletteColorInterpretation(paletteHandle);
for(int i = 0; i < count; ++i) {
GDALColorEntry *entry = gdal()->getColorPaletteEntry(paletteHandle, i);
if ( !entry)
continue;
QColor clr;
switch ( colorType){
case GPI_RGB:
clr.setRgb(entry->c1, entry->c2, entry->c3);
model = ColorRangeBase::cmRGBA;
break;
case GPI_HLS:
clr.setHsl(entry->c1, entry->c2, entry->c3); break;
model = ColorRangeBase::cmHSLA;
break;
case GPI_CMYK:
clr.setCmyk(entry->c1, entry->c2, entry->c3, entry->c4);
model = ColorRangeBase::cmCYMKA;
break;
case GPI_Gray:
clr.setRgb(entry->c1, entry->c1, entry->c1);
model = ColorRangeBase::cmGREYSCALE;
}
clr.setAlpha(entry->c4);
palette->add(new ColorItem(clr));
}
palette->defaultColorModel(model);
_typeSize = 1;
_gdalValueType = gdal()->rasterDataType(layerHandle);
raster->datadefRef() = DataDefinition(IDomain("colorpalette"), reinterpret_cast<Range *>(palette));
return true;
}
DENG_EXTERN_C colorpaletteid_t R_CreateColorPalette(char const *colorFormatDescriptor,
char const *nameCStr, uint8_t const *colorData, int colorCount)
{
DENG2_ASSERT(nameCStr != 0 && colorFormatDescriptor != 0 && colorData != 0);
LOG_AS("R_CreateColorPalette");
try
{
using namespace res;
String name(nameCStr);
if(name.isEmpty())
{
LOG_RES_WARNING("Invalid/zero-length name specified, ignoring.");
return 0;
}
QVector<Vector3ub> colors =
ColorTableReader::read(colorFormatDescriptor, colorCount, colorData);
auto &palettes = Resources::get().colorPalettes();
// Replacing an existing palette?
if(palettes.hasColorPalette(name))
{
ColorPalette &palette = palettes.colorPalette(name);
palette.replaceColorTable(colors);
return palette.id();
}
// A new palette.
ColorPalette *palette = new ColorPalette(colors);
palettes.addColorPalette(*palette, name);
return palette->id();
}
catch(res::ColorTableReader::FormatError const &er)
{
LOG_RES_WARNING("Error creating/replacing color palette '%s':\n")
<< nameCStr << er.asText();
}
return 0;
}
bool save(ColorPalette& palette, const QString& suggested_filename = QString())
{
// Attempt to save with the existing file names
if ( !suggested_filename.isEmpty() && attemptSave(palette, suggested_filename) )
return true;
if ( attemptSave(palette, palette.fileName()) )
return true;
// Set up the save directory
QDir save_dir(save_path);
if ( !save_dir.exists() && !QDir().mkdir(save_path) )
return false;
// Attempt to save as (Name).gpl
QString filename = palette.name()+".gpl";
if ( !save_dir.exists(filename) &&
attemptSave(palette, save_dir.absoluteFilePath(filename)) )
return true;
// Get all of the files matching the pattern *.gpl
save_dir.setNameFilters(QStringList() << "*.gpl");
save_dir.setFilter(QDir::Files);
QStringList existing_files = save_dir.entryList();
// For all the files that match (Name)(Number).gpl, find the maximum (Number)
QRegularExpression name_regex(QRegularExpression::escape(palette.name())+"([0-9]+)\\.gpl");
int max = 0;
for ( const auto& existing_file : existing_files )
{
QRegularExpressionMatch match = name_regex.match(existing_file);
if ( match.hasMatch() )
{
int num = match.captured(1).toInt();
if ( num > max )
max = num;
}
}
return attemptSave(palette,
save_dir.absoluteFilePath(QString("%1%2.gpl").arg(palette.name()).arg(max+1))
);
}
/**
* \brief Number of rows/columns in the palette
*/
QSize rowcols()
{
int count = palette.count();
if ( count == 0 )
return QSize();
if ( forced_rows )
return QSize(std::ceil( float(count) / forced_rows ), forced_rows);
int columns = palette.columns();
if ( forced_columns )
columns = forced_columns;
else if ( columns == 0 )
columns = qMin(palette.count(), owner->width() / color_size.width());
int rows = std::ceil( float(count) / columns );
return QSize(columns, rows);
}
void ColorPalettes::addColorPalette(ColorPalette &newPalette, String const &name)
{
// Do we already own this palette?
if (d->colorPalettes.contains(newPalette.id()))
return;
d->colorPalettes.insert(newPalette.id(), &newPalette);
if (!name.isEmpty())
{
d->colorPaletteNames.insert(name, &newPalette);
}
// If this is the first palette automatically set it as the default.
if (d->colorPalettes.count() == 1)
{
d->defaultColorPalette = newPalette.id();
}
DENG2_FOR_AUDIENCE2(Addition, i) i->colorPaletteAdded(newPalette);
}
void ColorPaletteModel::load()
{
beginResetModel();
p->palettes.clear();
QStringList filters;
filters << "*.gpl";
for ( const QString& directory_name : p->search_paths )
{
QDir directory(directory_name);
directory.setNameFilters(filters);
directory.setFilter(QDir::Files|QDir::Readable);
directory.setSorting(QDir::Name);
for ( const QFileInfo& file : directory.entryInfoList() )
{
ColorPalette palette;
if ( palette.load(file.absoluteFilePath()) )
{
p->palettes.push_back(palette);
}
}
}
endResetModel();
}
bool CreatePaletteDomain::execute(ExecutionContext *ctx, SymbolTable &symTable)
{
if (_prepState == sNOTPREPARED)
if((_prepState = prepare(ctx, symTable)) != sPREPARED)
return false;
IColorDomain colordomain;
colordomain.prepare();
colordomain->setDescription(_domaindesc);
if ( _parentdomain.isValid())
colordomain->setParent(_parentdomain);
ColorPalette *palette = new ColorPalette();
for(int i=0; i < _items.size(); ++i){
palette->add(new ColorItem(_items[i]));
}
colordomain->range(palette);
QVariant value;
value.setValue<IDomain>(colordomain);
ctx->setOutput(symTable,value,colordomain->name(),itDOMAIN,colordomain->source());
return true;
}
ColorPalette ColorPalette::fromColorTable(const QVector<QRgb>& table)
{
ColorPalette palette;
palette.loadColorTable(table);
return palette;
}
ColorPalette ColorPalette::fromFile(const QString& name)
{
ColorPalette p;
p.load(name);
return p;
}
ColorPalette ColorPalette::fromImage(const QImage& image)
{
ColorPalette p;
p.fromImage(image);
return p;
}
QString MemoryDump::dump(const QString& type, quint64 address, int length,
const ColorPalette& col) const
{
if (type == "char") {
char c;
if (_vmem->readAtomic(address, &c, sizeof(char)) != sizeof(char))
queryError(QString("Cannot read memory from address 0x%1")
.arg(address, (_specs.sizeofPointer << 1), 16, QChar('0')));
return QString("%1 (0x%2)").arg(c).arg(c, (sizeof(c) << 1), 16, QChar('0'));
}
if (type == "int") {
qint32 i;
if (_vmem->readAtomic(address, (char*)&i, sizeof(qint32)) != sizeof(qint32))
queryError(QString("Cannot read memory from address 0x%1")
.arg(address, (_specs.sizeofPointer << 1), 16, QChar('0')));
return QString("%1 (0x%2)").arg(i).arg((quint32)i, (sizeof(i) << 1), 16, QChar('0'));
}
if (type == "long") {
qint64 l;
if (_vmem->readAtomic(address, (char*)&l, sizeof(qint64)) != sizeof(qint64))
queryError(QString("Cannot read memory from address 0x%1")
.arg(address, (_specs.sizeofPointer << 1), 16, QChar('0')));
return QString("%1 (0x%2)").arg(l).arg((quint64)l, (sizeof(l) << 1), 16, QChar('0'));
}
if (type == "raw" || type == "hex") {
QString ret;
const int buflen = 256, linelen = 16;
char buf[buflen];
char bufstr[linelen + 1] = {0};
// Make sure we got a valid length
if (length < 0)
queryError(QString("No valid length given for dumping raw memory"));
int totalBytesRead = 0, col = 0;
while (length > 0) {
int bytesRead = _vmem->readAtomic(address, buf, qMin(buflen, length));
length -= bytesRead;
int i = 0;
while (i < bytesRead) {
// New line every 16 bytes begins with address
if (totalBytesRead % 16 == 0) {
if (totalBytesRead > 0) {
ret += QString(" |%0|\n").arg(bufstr, -linelen);
memset(bufstr, 0, linelen + 1);
col = 0;
}
ret += QString("%1 ").arg(address, _specs.sizeofPointer << 1, 16, QChar('0'));
}
// Wider column after 8 bytes
if (totalBytesRead % 8 == 0)
ret += ' ';
// Write the character as hex string
if ((unsigned char)buf[i] < 16)
ret += '0';
ret += QString::number((unsigned char)buf[i], 16) + ' ';
// Add character to string buffer, if it's an ASCII char
if ( ((unsigned char)buf[i] >= 32) && ((unsigned char)buf[i] < 127) )
bufstr[col] = buf[i];
else
bufstr[col] = '.';
++col;
++totalBytesRead;
++address;
++i;
}
}
// Finish it up
if (col > 0) {
while (col < linelen) {
ret += " ";
if (col % 8 == 0)
ret += ' ';
++col;
}
ret += QString(" |%0|").arg(bufstr, -linelen);
}
return ret;
}
QStringList components = type.split('.', QString::SkipEmptyParts);
Instance result;
if (!components.isEmpty()) {
// Get first instance
result = getInstanceAt(components.first(), address, QStringList("user"));
components.pop_front();
while (!components.isEmpty()) {
result = getNextInstance(components.first(), result, ksNone);
components.pop_front();
}
return QString("%1%2%3 (ID%4 0x%5%6) @%7 0x%8%9\n")
.arg(col.color(ctType))
.arg(result.typeName())
.arg(col.color(ctReset))
.arg(col.color(ctTypeId))
.arg((uint)result.type()->id(), 0, 16)
.arg(col.color(ctReset))
.arg(col.color(ctAddress))
.arg(result.address(), 0, 16)
.arg(col.color(ctReset)) + result.toString(&col);
}
queryError3("Unknown type: " + type,
QueryException::ecUnresolvedType, type);
return QString();
}
QString MemoryDump::query(const QString& queryString,
const ColorPalette& col, KnowledgeSources src) const
{
QString ret;
if (queryString.isEmpty()) {
// Generate a list of all global variables
for (int i = 0; i < _factory->vars().size(); i++) {
if (i > 0)
ret += "\n";
Variable* var = _factory->vars().at(i);
ret += var->prettyName();
}
}
else {
Instance instance = queryInstance(queryString, src);
QString s = QString("%1%2%3: ")
.arg(col.color(ctBold))
.arg(queryString)
.arg(col.color(ctReset));
if (instance.isValid()) {
s += QString("%1%2%3 (ID%4 0x%5%6)")
.arg(col.color(ctType))
.arg(instance.typeName())
.arg(col.color(ctReset))
.arg(col.color(ctTypeId))
.arg((uint)instance.type()->id(), 0, 16)
.arg(col.color(ctReset));
if (instance.isNull())
ret = QString(col.color(ctAddress)) + "NULL" + QString(col.color(ctReset));
else {
ret = instance.toString(&col);
}
}
else
s += "(unresolved type)";
s += QString(" @%1 0x%2%3")
.arg(col.color(ctAddress))
.arg(instance.address(), _specs.sizeofPointer << 1, 16, QChar('0'))
.arg(col.color(ctReset));
if (instance.bitSize() >= 0) {
s += QString("[%1%3%2:%1%4%2]")
.arg(col.color(ctOffset))
.arg(col.color(ctReset))
.arg((instance.size() << 3) - instance.bitOffset() - 1)
.arg((instance.size() << 3) - instance.bitOffset() -
instance.bitSize());
}
ret = s + "\n" + ret;
}
return ret;
}
bool attemptSave(ColorPalette& palette, const QString& filename)
{
if ( filename.isEmpty() )
return false;
return palette.save(filename);
}
void GL_CalcLuminance(duint8 const *buffer, dint width, dint height, dint pixelSize,
colorpaletteid_t paletteId, dfloat *retBrightX, dfloat *retBrightY,
ColorRawf *retColor, dfloat *retLumSize)
{
DENG2_ASSERT(buffer && retBrightX && retBrightY && retColor && retLumSize);
static duint8 const sizeLimit = 192, brightLimit = 224, colLimit = 192;
ColorPalette *palette = (pixelSize == 1? &resSys().colorPalette(paletteId) : nullptr);
// Apply the defaults.
// Default to the center of the texture.
*retBrightX = *retBrightY = .5f;
// Default to black (i.e., no light).
for(dint c = 0; c < 3; ++c)
{
retColor->rgb[c] = 0;
}
retColor->alpha = 1;
// Default to a zero-size light.
*retLumSize = 0;
dint region[4];
FindClipRegionNonAlpha(buffer, width, height, pixelSize, region);
dd_bool zeroAreaRegion = (region[0] > region[1] || region[2] > region[3]);
if(zeroAreaRegion) return;
//
// Image contains at least one non-transparent pixel.
//
long bright[2];
for(dint i = 0; i < 2; ++i)
{
bright[i] = 0;
}
long average[3], lowAvg[3];
for(dint i = 0; i < 3; ++i)
{
average[i] = 0;
lowAvg[i] = 0;
}
duint8 const *src = buffer;
// In paletted mode, the alpha channel follows the actual image.
duint8 const *alphaSrc = &buffer[width * height];
// Skip to the start of the first column.
if(region[2] > 0)
{
src += pixelSize * width * region[2];
alphaSrc += width * region[2];
}
duint8 rgb[3];
dint avgCnt = 0, lowCnt = 0;
dint cnt = 0, posCnt = 0;
for(dint y = region[2]; y <= region[3]; ++y)
{
// Skip to the beginning of the row.
if(region[0] > 0)
{
src += pixelSize * region[0];
alphaSrc += region[0];
}
for(dint x = region[0]; x <= region[1]; ++x, src += pixelSize, alphaSrc++)
{
// Alpha pixels don't count. Why? -ds
dd_bool const pixelIsTransparent = (pixelSize == 1? *alphaSrc < 255 :
pixelSize == 4? src[3] < 255 : false);
if(pixelIsTransparent) continue;
if(pixelSize == 1)
{
Vector3ub palColor = palette->color(*src);
rgb[0] = palColor.x;
rgb[1] = palColor.y;
rgb[2] = palColor.z;
}
else if(pixelSize >= 3)
{
std::memcpy(rgb, src, 3);
}
// Bright enough?
if(rgb[0] > brightLimit || rgb[1] > brightLimit || rgb[2] > brightLimit)
{
// This pixel will participate in calculating the average center point.
posCnt++;
bright[0] += x;
bright[1] += y;
}
// Bright enough to affect size?
if(rgb[0] > sizeLimit || rgb[1] > sizeLimit || rgb[2] > sizeLimit)
cnt++;
// How about the color of the light?
if(rgb[0] > colLimit || rgb[1] > colLimit || rgb[2] > colLimit)
{
avgCnt++;
for(dint c = 0; c < 3; ++c)
{
average[c] += rgb[c];
}
}
else
{
lowCnt++;
for(dint c = 0; c < 3; ++c)
{
lowAvg[c] += rgb[c];
}
}
}
// Skip to the end of this row.
if(region[1] < width - 1)
{
src += pixelSize * (width - 1 - region[1]);
alphaSrc += (width - 1 - region[1]);
}
}
if(posCnt)
{
// Calculate the average of the bright pixels.
*retBrightX = (long double) bright[0] / posCnt;
*retBrightY = (long double) bright[1] / posCnt;
}
else
{
// No bright pixels - Place the origin at the center of the non-alpha region.
*retBrightX = region[0] + (region[1] - region[0]) / 2.0f;
*retBrightY = region[2] + (region[3] - region[2]) / 2.0f;
}
// Determine rounding (to the nearest pixel center).
dint roundXDir = dint( *retBrightX + .5f ) == dint( *retBrightX )? 1 : -1;
dint roundYDir = dint( *retBrightY + .5f ) == dint( *retBrightY )? 1 : -1;
// Apply all rounding and output as decimal.
*retBrightX = (ROUND(*retBrightX) + .5f * roundXDir) / dfloat( width );
*retBrightY = (ROUND(*retBrightY) + .5f * roundYDir) / dfloat( height );
if(avgCnt || lowCnt)
{
// The color.
if(!avgCnt)
{
// Low-intensity color average.
for(dint c = 0; c < 3; ++c)
{
retColor->rgb[c] = lowAvg[c] / lowCnt / 255.f;
}
}
else
{
// High-intensity color average.
for(dint c = 0; c < 3; ++c)
{
retColor->rgb[c] = average[c] / avgCnt / 255.f;
}
}
Vector3f color(retColor->rgb);
R_AmplifyColor(color);
for(dint i = 0; i < 3; ++i)
{
retColor->rgb[i] = color[i];
}
// How about the size of the light source?
/// @todo These factors should be cvars.
*retLumSize = MIN_OF(((2 * cnt + avgCnt) / 3.0f / 70.0f), 1);
}
/*
DEBUG_Message(("GL_CalcLuminance: width %dpx, height %dpx, bits %d\n"
" cell region X[%d, %d] Y[%d, %d]\n"
" flare X= %g Y=%g %s\n"
" flare RGB[%g, %g, %g] %s\n",
width, height, pixelSize,
region[0], region[1], region[2], region[3],
*retBrightX, *retBrightY,
(posCnt? "(average)" : "(center)"),
retColor->red, retColor->green, retColor->blue,
(avgCnt? "(hi-intensity avg)" :
lowCnt? "(low-intensity avg)" : "(white light)")));
*/
}
void fixUnnamed(ColorPalette& palette)
{
if ( palette.name().isEmpty() )
palette.setName(ColorPaletteModel::tr("Unnamed"));
}
bool test_ColorPalette()
{
cout << "Testing AnsiGL::ColorPalette..." << endl;
// New create a color palette
ColorPalette Palette;
ANNOUNCE( "AnsiGL::ColorPalette", "Add( ColorDef::Ptr )" );
ColorDef::Ptr NewColor = ColorDef::Ptr( new ColorDef(ANSISysColor_Red, ANSISysColor_Black) );
Palette.Add( NewColor );
NewColor = ColorDef::Ptr( new ColorDef(ANSISysColor_Yellow, ANSISysColor_Cyan) );
Palette.Add( NewColor );
NewColor = ColorDef::Ptr( new ColorDef(ANSISysColor_Red, ANSISysColor_Black) );
Palette.Add( NewColor );
NewColor = ColorDef::Ptr( new ColorDef(ANSISysColor_BoldBlue, ANSISysColor_White) );
Palette.Add( NewColor );
NewColor = ColorDef::Ptr( new ColorDef(ANSISysColor_Yellow, ANSISysColor_Cyan) );
Palette.Add( NewColor );
NewColor = ColorDef::Ptr( new ColorDef(ANSISysColor_Red, ANSISysColor_Black) );
Palette.Add( NewColor );
TEST( Palette.size() == 3 );
if ( gVerbose )
{
for ( unsigned int i = 0; i < Palette.size(); ++i )
cout << "Palette Index " << i << ": " << "\033[0;" << Palette[i]->Render() << "m" << "Test" << "\033[0m" << endl;
}
ColorDef TestColor( ANSISysColor_Yellow, ANSISysColor_Cyan );
ColorDef::Ptr CurColor;
ANNOUNCE( "", "operator[]( const int index ) const" );
CurColor = Palette[1];
bool opIndex_Result1 = (*CurColor) == TestColor;
CurColor = Palette[0];
TestColor.FG.Set( ANSISysColor_Red );
TestColor.BG.Set( ANSISysColor_Black );
TEST( opIndex_Result1 && (*CurColor) == TestColor );
ANNOUNCE( "", "FindIndex( ColorDef color )" );
bool FindIndex_Result1 = (Palette.FindIndex( TestColor ) == 0);
TestColor.FG.Set( ANSISysColor_Yellow );
TestColor.BG.Set( ANSISysColor_Cyan );
bool FindIndex_Result2 = (Palette.FindIndex( TestColor ) == 1);
TEST( FindIndex_Result1 && FindIndex_Result2 );
ANNOUNCE( "", "InvertColors()" );
Palette.InvertColors();
TestColor.FG.Set( ANSISysColor_Cyan );
TestColor.BG.Set( ANSISysColor_Yellow );
TEST( Palette.FindIndex( TestColor ) );
ANNOUNCE( "", "Remove( ColorDef color )" );
Palette.Remove( TestColor );
TestColor.FG.Set( ANSISysColor_Black );
TestColor.BG.Set( ANSISysColor_Red );
TEST( Palette.size() == 2 && Palette.FindIndex( TestColor ) == 0 );
ANNOUNCE( "", "Remove( int index )" );
Palette.Remove( 0 );
TEST( Palette.size() == 1 );
cout << "All tests for ColorPalette completed successfully!" << endl;
return true;
}