static size_t widthOfUTF8String(const String & s)
{
size_t res = 0;
for (auto c : s) /// Skip UTF-8 continuation bytes.
res += (UInt8(c) <= 0x7F || UInt8(c) >= 0xC0);
return res;
}
void writeBitsImpl(DataType value, int bitCount,
StreamBuffer& streamBuffer, int& holdingBitCount, int& totalBitCount)
{
assert(isEnoughBits<DataType>(bitCount));
if (! isEnoughBits<DataType>(bitCount)) {
throw StreamingException(__FILE__, __LINE__, "invalid bitCount");
}
DataType theValue = resetUnusedBits(value, bitCount);
if (holdingBitCount > 0) {
if (streamBuffer.empty()) {
throw StreamingException(__FILE__, __LINE__, "buffer is empty");
}
streamBuffer.back() |= UInt8(theValue << holdingBitCount);
}
else {
streamBuffer.push(UInt8(theValue));
}
const int bitShiftCount = CHAR_BIT - holdingBitCount;
if (bitCount > bitShiftCount) {
int leftBitCount = bitCount - bitShiftCount;
theValue >>= bitShiftCount;
do {
streamBuffer.push(UInt8(theValue));
theValue >>= CHAR_BIT;
leftBitCount -= CHAR_BIT;
}
while (leftBitCount > 0);
}
MouseWheelEventDetailsBase::MouseWheelEventDetailsBase(void) :
Inherited(),
_sfScrollType (UInt8(MouseWheelEventDetails::UNIT_SCROLL)),
_sfScrollOrientation (UInt8(MouseWheelEventDetails::SCROLL_ORIENTATION_VERTICAL)),
_sfWheelRotation (Int32(0)),
_sfLocation (Pnt2f(0.0f,0.0f)),
_sfViewport (NULL)
{
}
void runTests(bool write,BinaryDataHandler &pMem)
{
runTest (write,pMem, std::string("Hallo") );
runTest1 (write,pMem, Time(222.22) );
runTest (write,pMem, Color3f(1.1,2.2,3.3) );
runTest (write,pMem, Color4f(1.1,2.2,3.3,4.4) );
runTest (write,pMem, Color3ub(1,2,3) );
runTest (write,pMem, Color4ub(1,2,3,4) );
runTest (write,pMem, DynamicVolume(DynamicVolume::BOX_VOLUME) );
runTest (write,pMem, DynamicVolume(DynamicVolume::SPHERE_VOLUME) );
runTest1 (write,pMem, BitVector(0xabcd) );
runTest (write,pMem, Plane(Vec3f(1.0,0),0.222) );
runTest (write,pMem, Matrix(1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16) );
runTest (write,pMem, Quaternion(Vec3f(1,2,3),22) );
runTest2<bool>(write,pMem, true );
runTest (write,pMem, Int8(-22) );
runTest (write,pMem, UInt8(11) );
runTest (write,pMem, Int16(-10233) );
runTest (write,pMem, UInt16(20233) );
runTest (write,pMem, Int32(-222320233) );
runTest (write,pMem, UInt32(522320233) );
runTest<Int64> (write,pMem, Int64(-522323334) );
runTest (write,pMem, UInt64(44523423) );
runTest (write,pMem, Real32(22.333224) );
runTest (write,pMem, Real64(52.334534533224) );
runTest (write,pMem, Vec2f(1.1,2.2) );
runTest (write,pMem, Vec3f(1.1,2.2,3.3) );
runTest (write,pMem, Vec4f(1.1,2.2,3.3,4.4) );
runTest (write,pMem, Pnt2f(1.1,2.2) );
runTest (write,pMem, Pnt2d(1.1,2.2) );
runTest (write,pMem, Pnt3f(1.1,2.2,3.3) );
runTest (write,pMem, Pnt3d(1.1,2.2,3.3) );
runTest (write,pMem, Pnt4f(1.1,2.2,3.3,4.4) );
runTest (write,pMem, Pnt4d(1.1,2.2,3.3,4.4) );
}
//---------------------------------------------------------------------------
void __fastcall TFrDeviceExplorer::btnWriteClick(TObject *Sender)
{
TBluetoothLEDevice * ADevice = NULL;
ADevice = GetCurrentDevice();
if(ADevice != NULL) {
TBluetoothGattService * AService = ADevice->Services->Items[CurrentService];
TBluetoothGattCharacteristic * AChar = AService->Characteristics->Items[CurrentCharacteristic];
if((AChar->Properties.Contains(TBluetoothProperty::Write)) || (AChar->Properties.Contains(TBluetoothProperty::WriteNoResponse))
|| (AChar->Properties.Contains(TBluetoothProperty::SignedWrite)))
{
if(CbWriteTypes->ItemIndex == 0) AChar->SetValueAsString(EdCharacWrite->Text);
if(CbWriteTypes->ItemIndex == 1) AChar->SetValueAsString(EdCharacWrite->Text, false);
if(CbWriteTypes->ItemIndex == 2) AChar->SetValueAsUInt8(UInt8(StrToInt(EdCharacWrite->Text)));
if(CbWriteTypes->ItemIndex == 3) AChar->SetValueAsUInt16(UInt16(StrToInt(EdCharacWrite->Text)));
if(CbWriteTypes->ItemIndex == 4) AChar->SetValueAsUInt32(UInt32(StrToInt(EdCharacWrite->Text)));
if(CbWriteTypes->ItemIndex == 5) AChar->SetValueAsUInt64(StrToInt(EdCharacWrite->Text));
if(CbWriteTypes->ItemIndex == 6) AChar->SetValueAsInt8(Int8(StrToInt(EdCharacWrite->Text)));
if(CbWriteTypes->ItemIndex == 7) AChar->SetValueAsInt16(Int16(StrToInt(EdCharacWrite->Text)));
if(CbWriteTypes->ItemIndex == 8) AChar->SetValueAsInt32(Int32(StrToInt(EdCharacWrite->Text)));
if(CbWriteTypes->ItemIndex == 9) AChar->SetValueAsInt64(StrToInt(EdCharacWrite->Text));
if(CbWriteTypes->ItemIndex == 10) AChar->SetValueAsDouble(StrToFloat(EdCharacWrite->Text));
if(CbWriteTypes->ItemIndex == 11) AChar->SetValueAsSingle(StrToFloat(EdCharacWrite->Text));
ADevice->WriteCharacteristic(AChar);
}
else {
ShowMessage("This characteristic doesn''t allow Write");
}
}
else {
ShowMessage(EdCurrentDevice->Text + " is not available");
}
}
SearchWindowEventDetailsBase::SearchWindowEventDetailsBase(void) :
Inherited(),
_sfOption (UInt8(SearchWindowEventDetails::DIALOG_OPTION_SEARCH)),
_sfSearchText (),
_sfReplaceText ()
{
}
void registerCodecDelta(CompressionCodecFactory & factory)
{
UInt8 method_code = UInt8(CompressionMethodByte::Delta);
factory.registerCompressionCodecWithType("Delta", method_code, [&](const ASTPtr & arguments, DataTypePtr column_type) -> CompressionCodecPtr
{
UInt8 delta_bytes_size = 1;
if (column_type && column_type->haveMaximumSizeOfValue())
{
size_t max_size = column_type->getSizeOfValueInMemory();
if (max_size == 1 || max_size == 2 || max_size == 4 || max_size == 8)
delta_bytes_size = static_cast<UInt8>(max_size);
}
if (arguments && !arguments->children.empty())
{
if (arguments->children.size() > 1)
throw Exception("Delta codec must have 1 parameter, given " + std::to_string(arguments->children.size()), ErrorCodes::ILLEGAL_SYNTAX_FOR_CODEC_TYPE);
const auto children = arguments->children;
const ASTLiteral * literal = static_cast<const ASTLiteral *>(children[0].get());
size_t user_bytes_size = literal->value.safeGet<UInt64>();
if (user_bytes_size != 1 && user_bytes_size != 2 && user_bytes_size != 4 && user_bytes_size != 8)
throw Exception("Delta value for delta codec can be 1, 2, 4 or 8, given " + toString(user_bytes_size), ErrorCodes::ILLEGAL_CODEC_PARAMETER);
delta_bytes_size = static_cast<UInt8>(user_bytes_size);
}
return std::make_shared<CompressionCodecDelta>(delta_bytes_size);
});
}
SimpleStatisticsForegroundBase::SimpleStatisticsForegroundBase(void) :
Inherited(),
_mfFormats (),
_sfSize (Real32(16)),
_sfColor (Color4f(1,1,1,1)),
_sfShadowColor (Color4f(0,0,0,1)),
_sfBgColor (Color4f(0,0,0,0)),
_sfFamily (),
_sfShadowOffset (Vec2f(1,-1)),
_sfHorizontalAlign (UInt8(0)),
_sfVerticalAlign (UInt8(0)),
_sfBorderColor (Color4f(0,0,0,0)),
_sfBorderOffset (Vec2f(4,4)),
_sfTextMargin (Vec2f(0,0))
{
}
QVariant UInt8Codec::value( const PODData& data, int* byteCount ) const
{
const quint8* pointer = (quint8*)data.pointer( 1 );
*byteCount = pointer ? 1 : 0;
return pointer ? QVariant::fromValue<UInt8>( UInt8(*pointer) ) : QVariant();
}
Persistent::Base::Error SimMovingShape::write(StreamIO &s, int ver, int b)
{
s.write(SimMovingShape::version());
Parent::write(s,ver,b);
// Attributes
s.write(objectMask);
s.write(sizeof(record.flags),&record.flags);
s.write(record.timeScale);
s.write(record.forwardDelay);
s.write(record.backwardDelay);
s.write(record.startSoundId);
s.write(record.stopSoundId);
s.write(record.runningSoundId);
s.write(record.collisionMask);
s.write(record.collisionDamage);
// Current state
s.write(UInt8(state));
s.write(time);
s.write(wayPoint);
if (state == Forward || state == Backward) {
s.write(sizeof(lPosition),&lPosition);
s.write(sizeof(lVector),&lVector);
s.write(sizeof(aPosition),&aPosition);
s.write(sizeof(aVector),&aVector);
}
return (s.getStatus() == STRM_OK)? Ok: WriteError;
}
DialogWindowEventDetailsBase::DialogWindowEventDetailsBase(void) :
Inherited(),
_sfOption (UInt8(DialogWindowEventDetails::DIALOG_OPTION_OK)),
_sfInput (),
_sfInputIndex (UInt32(0))
{
}
ConditionalParticleAffectorBase::ConditionalParticleAffectorBase(void) :
Inherited(),
_sfConditionalAttribute (),
_sfConditionalOperator (UInt8(1)),
_sfConditionalValue (UInt32(0.0)),
_mfAffectors ()
{
}
dmz::Boolean
dmz::NetExtPacketCodecObjectNative::encode_object (
const Handle ObjectHandle,
const NetObjectEncodeEnum EncodeMode,
Marshal &data) {
Boolean result (False);
if (_attrMod && _objMod) {
UUID objectID;
if (_objMod->lookup_uuid (ObjectHandle, objectID)) {
data.set_next_uuid (_SysID);
data.set_next_uuid (objectID);
if (EncodeMode == NetObjectDeactivate) {
data.set_next_int8 (0);
result = True;
}
else {
const ObjectType Type (_objMod->lookup_object_type (ObjectHandle));
ArrayUInt32 typeArray;
if (_attrMod->to_net_object_type (Type, typeArray)) {
const Int32 TypeSize (typeArray.get_size ());
data.set_next_int8 (Int8 (TypeSize));
for (Int32 ix = 0; ix < TypeSize; ix++) {
data.set_next_uint8 (UInt8 (typeArray.get (ix)));
}
ObjectAttributeAdapter *current (_adapterList);
while (current) {
current->encode (ObjectHandle, *_objMod, data);
current = current->next;
}
result = True;
}
_objMod->store_time_stamp (
ObjectHandle,
_lnvHandle,
_time.get_last_frame_time ());
}
}
}
return result;
}
LabelBase::LabelBase(void) :
Inherited(),
_sfPosition (Pnt3f(0,0,0)),
_sfPixelOffset (Vec2f(0,0)),
_sfOrientation (Real32(0.0)),
_sfHorizontalAlign (UInt8(1)),
_sfVerticalAlign (UInt8(1)),
_sfMargin (Vec2f(0,0)),
_sfColor (Color4f(1,1,1,1)),
_sfBgColor (Color4f(0,0,0,0)),
_sfShadowColor (Color4f(0,0,0,1)),
_sfShadowOffset (Vec2f(1,-1)),
_sfBorderColor (Color4f(0,0,0,0)),
_sfBorderOffset (Vec2f(4,4)),
_sfImportance (Real32(1)),
_sfTextureObject (NULL)
{
}
AbstractTextBase::AbstractTextBase(void) :
_sfPosition (),
_sfFont (),
_mfText (),
_sfVerticalLineDistance (),
_sfAlignment (UInt8(0)),
Inherited()
{
}
// Note: Not a heck of a lot of room for error in this function...
//
void imageFile::LoadTextAlphaPAL(void)
{
FILE *fp;
if((fp = fopen(Filename,"rb")) == NULL)
{
printf("ERROR - Cannot read Palette from : %s\n",Filename);
exit(0);
}
for (int i = 0; i < 256; i++) {
int red, green, blue, alpha;
fscanf(fp, "%d %d %d %d", &red,
&green,
&blue,
&alpha);
Pal[i].peRed = UInt8(red);
Pal[i].peGreen = UInt8(green);
Pal[i].peBlue = UInt8(blue);
Pal[i].peFlags = UInt8(alpha);
}
fclose(fp);
}
bool SynthGroupElement::ChannelMessage(UInt16 controllerID, UInt16 inValue)
{
bool handled = true;
#if DEBUG_PRINT
printf("SynthGroupElement::ChannelMessage(0x%x, %u)\n", controllerID, inValue);
#endif
// Sustain and sostenuto are "pedal events", and are handled during render cycle
if (controllerID <= kMidiController_RPN_MSB && controllerID != kMidiController_Sustain && controllerID != kMidiController_Sostenuto)
handled = mMidiControlHandler->SetController(controllerID, UInt8(inValue));
else
{
switch (controllerID)
{
case kMidiMessage_ProgramChange:
handled = mMidiControlHandler->SetProgramChange(inValue);
break;
case kMidiMessage_PitchWheel:
handled = mMidiControlHandler->SetPitchWheel(inValue);
break;
case kMidiMessage_ChannelPressure:
#if DEBUG_PRINT
printf("SynthGroupElement::ChannelMessage: Channel Pressure %u\n", inValue);
#endif
handled = mMidiControlHandler->SetChannelPressure(UInt8(inValue));
break;
case kMidiMessage_PolyPressure:
{ UInt8 inKey = inValue >> 7;
UInt8 val = inValue & 0xf;
handled = mMidiControlHandler->SetPolyPressure(inKey, val);
break;
}
default:
handled = false;
break;
}
}
return handled;
}
CgFXMaterialBase::CgFXMaterialBase(void) :
Inherited(),
_sfTreatTechniquesAsVariants(bool(false)),
_sfEffectFile (),
_sfParameterValueSource (UInt8(CgFXMaterial::DEFAULT)),
_sfEffectString (),
_mfCompilerOptions (),
_sfVariables (this,
VariablesFieldId,
ShaderProgramVariables::ParentsFieldId),
_sfSelectedTechnique (),
_sfStateVariables (UInt32(0)),
_mfTechniques (),
_mfTextures (),
_sfGLId (GLenum(0))
{
}
void registerCodecZSTD(CompressionCodecFactory & factory)
{
UInt8 method_code = UInt8(CompressionMethodByte::ZSTD);
factory.registerCompressionCodec("ZSTD", method_code, [&](const ASTPtr & arguments) -> CompressionCodecPtr
{
int level = CompressionCodecZSTD::ZSTD_DEFAULT_LEVEL;
if (arguments && !arguments->children.empty())
{
if (arguments->children.size() > 1)
throw Exception("ZSTD codec must have 1 parameter, given " + std::to_string(arguments->children.size()), ErrorCodes::ILLEGAL_SYNTAX_FOR_CODEC_TYPE);
const auto children = arguments->children;
const auto * literal = children[0]->as<ASTLiteral>();
level = literal->value.safeGet<UInt64>();
if (level > ZSTD_maxCLevel())
throw Exception("ZSTD codec can't have level more that " + toString(ZSTD_maxCLevel()) + ", given " + toString(level), ErrorCodes::ILLEGAL_CODEC_PARAMETER);
}
return std::make_shared<CompressionCodecZSTD>(level);
});
}
WindowActivityBase::WindowActivityBase(void) :
_sfWindowEventProducer (WindowEventProducerPtr(NullFC)),
_sfActivityType (UInt8(WindowActivity::WINDOW_CLOSE)),
Inherited()
{
}
int
main(int in_argc,
const char* in_argv[])
{
MPMGlobalState::initGlobalState();
if (processCommandLine(in_argc, in_argv) == false) {
cout << "MPMerger v" << sg_pProgramVersion << '\n'
<< " MultiPalette Merger\n"
<< " @ Dynamix 1998, Original author Dave Moore\n\n";
usage();
return EXIT_FAILURE;
}
MPMGlobalState* pGlobalState = MPMGlobalState::getGlobalState();
// Set up the options for this run...
//
MPMOptions instOptions; // Options for this run
MPMFileList procFileList; // List of files to process
if (instOptions.attachResponseFile(pGlobalState->getResponseFileName()) == false) {
cerr << "Unable to open response file: "
<< pGlobalState->getResponseFileName() << '\n'
<< " - ABORTING - \n";
return EXIT_FAILURE;
}
if (instOptions.validateOptions() == false) {
cerr << "Invalid options detected, exiting...\n\n";
exit(1);
}
instOptions.processResponseFile(procFileList);
AssertFatal(procFileList.getNumFiles() <= MAX_MULTI_PALETTES, "Too many palettes, exiting...");
// Whether we are choosing colors or rendering, we need the unquantized palettes,
// so load them into memory...
//
for (int i = 0; i < procFileList.getNumFiles(); i++) {
MPMFileEntry& rFileEntry = procFileList.getFile(i);
AssertFatal(rFileEntry.pRawPalette == NULL, "Huh?");
AssertFatal(rFileEntry.pFileName != NULL, "Huh?");
rFileEntry.pRawPalette = GFXPalette::load(rFileEntry.pFileName);
if (rFileEntry.pRawPalette == NULL) {
cerr << "main(): Unable to load file: " << rFileEntry.pFileName << '\n';
exit(1);
}
}
// We will need an authoritative final palette either way as well...
//
GFXPalette* pFinalMasterPalette = new GFXPalette;
memset(pFinalMasterPalette->palette[0].color, 0, sizeof(PALETTEENTRY) * 256);
if (instOptions.hasBasePalette() == true) {
const char* pPaletteName = instOptions.getBasePalName();
AssertFatal(pPaletteName != NULL, "No base palette name? Here?");
Bool palLoadSuccess = pFinalMasterPalette->read(pPaletteName);
if (palLoadSuccess == false) {
cerr << "Unable to load base palette: " << pPaletteName << ". Exiting...\n";
exit(1);
}
}
// We are always choosing colors for the master palette, so create a Popularity Table,
// and register our colors...
//
MPMPopularityTable popTable(instOptions);
popTable.prepFixedColors(instOptions, pFinalMasterPalette);
bool haveSomeRealColors = false;
for (int i = 0; i < procFileList.getNumFiles(); i++) {
MPMFileEntry& rFileEntry = procFileList.getFile(i);
AssertFatal(rFileEntry.pRawPalette != NULL, "Huh?");
if (rFileEntry.pRawPalette->palette[0].paletteType == GFXPalette::ColorQuantPaletteType) {
printf(".");
popTable.registerRGBColors(rFileEntry.pRawPalette, rFileEntry.fileWeight);
haveSomeRealColors = true;
} else
printf("*");
}
// If we have NO files, we're just copying from the base palette to the new palette...
if (procFileList.getNumFiles() == 0) {
} else {
AssertFatal(haveSomeRealColors == true, "Must have a least _one_ non-alpha palette...");
// Quantize out the master palette..
popTable.quantizeColors(instOptions, pFinalMasterPalette);
}
// Insert the mandatory entries into the master palette. These are:
// palette[0].type = HazeShadePaletteType
// palette[0].index = DWORD(-1)
// color[0]: (0, 0, 0)
// color[255]: (1, 1, 1)
// color[254]: instOptions.hazeColor
// hazeColor: 254
// correct bitvector entries. renderStart-Last + 0, 254, 254
//
PALETTEENTRY hazeColor;
PALETTEENTRY black, white;
black.peRed = black.peGreen = black.peBlue = black.peFlags = 0;
white.peRed = white.peGreen = white.peBlue = 255;
white.peFlags = 0;
hazeColor.peRed = UInt8((instOptions.getHazeColor().red * 255.0f) + 0.5f);
hazeColor.peGreen = UInt8((instOptions.getHazeColor().green * 255.0f) + 0.5f);
hazeColor.peBlue = UInt8((instOptions.getHazeColor().blue * 255.0f) + 0.5f);
hazeColor.peFlags = 0;
pFinalMasterPalette->palette[0].color[0] = black;
pFinalMasterPalette->palette[0].color[255] = white;
pFinalMasterPalette->palette[0].color[254] = hazeColor;
pFinalMasterPalette->palette[0].paletteIndex = DWORD(-1);
pFinalMasterPalette->palette[0].paletteType = GFXPalette::ShadeHazePaletteType;
pFinalMasterPalette->hazeColor = 254;
UInt32 renderFirst, renderLast;
instOptions.getMasterRenderRange(renderFirst, renderLast);
pFinalMasterPalette->allowedColorMatches.zero();
for (UInt32 i = renderFirst; i <= renderLast; i++)
pFinalMasterPalette->allowedColorMatches.set(i);
pFinalMasterPalette->allowedColorMatches.set(0);
// pFinalMasterPalette->allowedColorMatches.set(255);
pFinalMasterPalette->allowedColorMatches.set(254);
// Insert the shadow palette...
//
pFinalMasterPalette->palette[1].paletteIndex = -2;
pFinalMasterPalette->palette[1].paletteType = GFXPalette::TranslucentPaletteType;
for (int i = 0; i < 256; i++) {
pFinalMasterPalette->palette[1].color[i].peRed = 0;
pFinalMasterPalette->palette[1].color[i].peGreen = 0;
pFinalMasterPalette->palette[1].color[i].peBlue = 0;
pFinalMasterPalette->palette[1].color[i].peFlags = i;
}
pFinalMasterPalette->numPalettes++;
// Ok, now we need to map the multipalettes into the master palette...
//
MPMMerger mpmMerger(instOptions);
for (int i = 0; i < procFileList.getNumFiles(); i++) {
MPMFileEntry& rFileEntry = procFileList.getFile(i);
mpmMerger.insertPalette(pFinalMasterPalette, rFileEntry.pRawPalette);
}
// And create the remap tables if necessary...
//
mpmMerger.createRemapTables(pFinalMasterPalette);
// And we are DONE! Write out the master palette to the specified name...
//
// First make sure that in no palettes any color other than 0 is fully black
//
for (int i = 0; i < pFinalMasterPalette->numPalettes; i++) {
GFXPalette::MultiPalette& rMPalette = pFinalMasterPalette->palette[i];
for (int j = 1; j < 256; j++) {
PALETTEENTRY& rPEntry = rMPalette.color[j];
if (rPEntry.peRed == 0 &&
rPEntry.peGreen == 0 &&
rPEntry.peBlue == 0)
rPEntry.peBlue = 1;
}
}
AssertFatal(instOptions.getOutputPalName() != NULL, "Error, no output name!");
pFinalMasterPalette->write(instOptions.getOutputPalName());
//-------------------------------------- Clean-up
delete pFinalMasterPalette;
MPMGlobalState::shutdownGlobalState();
return EXIT_SUCCESS;
}
void GFXFont::getCharInfo(int index, const GFXBitmap **bmp, RectI *in_subRegion, GFXCharInfo **charInfo)
{
static GFXBitmap bitmap;
// Lookup char info and create a sub-bitmap for drawing this font
int lookupTableIndex;
if (fi.flags & FONT_LOWERCAPS) lookupTableIndex = toupper(char(index)) - charTableLookupOffset;
else lookupTableIndex = index - charTableLookupOffset;
int charTableIndex;
if ((lookupTableIndex < 0) ||
(lookupTableIndex > charTableLookupSize) ||
((charTableIndex = charTableLookup[lookupTableIndex]) == -1))
{
// The requested index is not in the character set, create a
// "missing" bitmap (pink box) and return that instead.
static GFXCharInfo missingInfo;
missingInfo.bitmapNo = 0;
missingInfo.baseline = 0;
missingInfo.width = max_UInt8(UInt8(fi.fontWidth), UInt8(5));
missingInfo.height = max_UInt8(UInt8(fi.fontHeight), UInt8(1));
missingInfo.x = 0;
missingInfo.y = 0;
if (bmp)
{
if (!missing || missing->getWidth() != missingInfo.width || missing->getHeight() != missingInfo.height)
{
delete missing;
missing = GFXBitmap::create(missingInfo.width, missingInfo.height);
memset(missing->pBits, 253, missing->getStride()*missing->getHeight()); //fill with hot pink!
}
// can't call bitmap.free(), so we have to do it manually...
if (bitmap.pBits && (bitmap.attribute & BMA_OWN_MEM))
delete [] bitmap.pBits;
if (bitmap.pPalette)
delete bitmap.pPalette;
bitmap.pPalette = NULL;
bitmap.width = missing->width;
bitmap.height = missing->height;
bitmap.stride = missing->stride;
bitmap.imageSize = missing->imageSize;
bitmap.attribute = missing->attribute & ~BMA_OWN_MEM;
bitmap.bitDepth = missing->bitDepth;
bitmap.pBits = missing->pBits;
*bmp = &bitmap;
}
if (charInfo)
*charInfo = &missingInfo;
}
else
{
GFXCharInfo *cInfo = &(charTable[charTableIndex]);
if (charInfo)
// The user wants the character information, look it up
*charInfo = cInfo;
if (bmp)
{
// The client wants the bitmap, cut it out of the bitmap sheet
*in_subRegion = RectI(cInfo->x, cInfo->y,
cInfo->x + cInfo->width - 1,
cInfo->y + cInfo->height - 1);
GFXBitmap *bitmapSheet = *(bma.array + cInfo->bitmapNo);
//bitmap.makeSubBitmap(bitmapSheet, &bound);
//bitmap.attribute |= (bitmapSheet->attribute & (BMA_TRANSPARENT | BMA_TRANSLUCENT));
//*bmp = &bitmap;
*bmp = bitmapSheet;
}
}
}
ImageProcessedForegroundBase::ImageProcessedForegroundBase(void) :
_sfFilter (TextureFilterPtr(NullFC)),
_sfOutputSlot (UInt8(0)),
Inherited()
{
}
int
main(int argc, const char* argv[])
{
PNGlobalState::initGlobalState();
if (processCommandLine(argc, argv) == false) {
cout << "PicaNew v" << sg_pProgramVersion << '\n'
<< " Based on Pica by Joel Franklin which was\n"
<< " Based on DynaColor by Rhett Anderson\n"
<< " Glorious Thanks and Praise to the PNG and ZLib Folks...\n"
<< " @ Dynamix 1998, Original author Dave Moore\n\n";
usage();
return EXIT_FAILURE;
}
PNGlobalState* pGlobalState = PNGlobalState::getGlobalState();
PNOptions instOptions; // Options for this run
PNFileList procFileList; // List of files to process
if (instOptions.attachResponseFile(pGlobalState->getResponseFileName()) == false) {
cerr << "Unable to open response file: "
<< pGlobalState->getResponseFileName() << '\n'
<< " - ABORTING - \n";
return EXIT_FAILURE;
}
if (instOptions.validateOptions() == false) {
cerr << "Invalid options detected, exiting...\n\n";
exit(1);
}
instOptions.processResponseFile(procFileList);
// Whether we are choosing colors or rendering, we need the unquantized images,
// so load them into memory...
//
PNUQImageFactory& rUQFactory = PNUQImageFactory::getInstance();
for (int i = 0; i < procFileList.getNumFiles(); i++) {
PNFileEntry& rFileEntry = procFileList.getFile(i);
AssertFatal(rFileEntry.pUQImage == NULL, "Huh?");
AssertFatal(rFileEntry.pFileName != NULL, "Huh?");
rFileEntry.pUQImage = rUQFactory.createUQImage(rFileEntry.pFileName);
if (rFileEntry.pUQImage == NULL) {
cerr << "main(): Unable to load file: " << rFileEntry.pFileName << '\n';
exit(1);
}
}
// We will need an authoritative final palette either way as well...
//
GFXPalette* pAuthPalette = new GFXPalette;
memset(pAuthPalette->palette[0].color, 0, sizeof(PALETTEENTRY) * 256);
if (instOptions.hasBasePalette() == true) {
const char* pPaletteName = instOptions.getBasePalName();
AssertFatal(pPaletteName != NULL, "No base palette name? Here?");
if (strstr(pPaletteName, ".tap") == NULL &&
strstr(pPaletteName, ".TAP") == NULL) {
Bool palLoadSuccess = pAuthPalette->read(pPaletteName);
if (palLoadSuccess == false) {
cerr << "Unable to load base palette: " << pPaletteName << ". Exiting...\n";
exit(1);
}
} else {
FILE *fp;
if((fp = fopen(pPaletteName, "rb")) == NULL) {
cerr << "ERROR - Cannot read Palette from : " << pPaletteName << "\n";
exit(0);
}
for (int i = 0; i < 256; i++) {
int red, green, blue, alpha;
fscanf(fp, "%d %d %d %d", &red,
&green,
&blue,
&alpha);
pAuthPalette->palette[0].color[i].peRed = UInt8(red);
pAuthPalette->palette[0].color[i].peGreen = UInt8(green);
pAuthPalette->palette[0].color[i].peBlue = UInt8(blue);
pAuthPalette->palette[0].color[i].peFlags = UInt8(alpha);
}
fclose(fp);
}
}
// Always, always, always, the first color must be all 0
//
memset(&(pAuthPalette->palette[0].color[0]), 0, sizeof(PALETTEENTRY));
// If we are choosing colors, set up the popularity table, and go to it...
//
if (instOptions.areChoosingColors() == true && procFileList.getNumFiles() != 0) {
PNPopularityTable popularityTable(instOptions);
// Files must register their colors with the popularity table..
//
PseudoTrace& tracer = PseudoTrace::getTracerObject();
tracer.pushVerbosityLevel(1);
tracer << "Scanning: ";
for (int i = 0; i < procFileList.getNumFiles(); i++) {
PNFileEntry& rFileEntry = procFileList.getFile(i);
AssertFatal(rFileEntry.pUQImage != NULL, "Huh?");
rFileEntry.pUQImage->registerColors(popularityTable,
rFileEntry.fileWeight);
tracer << '.';
tracer.flush();
}
tracer << " done\n";
tracer.popVerbosityLevel();
// Set up any fixed colors that may be required...
//
popularityTable.prepFixedColors(instOptions, pAuthPalette);
// And quantize away!
//
popularityTable.quantizeColors(instOptions, pAuthPalette);
}
// If we are rendering the bitmaps, set up a color matching ditherer, and
// render away!
//
if (instOptions.areRenderingBitmaps() == true && procFileList.getNumFiles() != 0) {
PNQuantizedRenderer pnRenderer(instOptions, pAuthPalette);
PseudoTrace& tracer = PseudoTrace::getTracerObject();
tracer.pushVerbosityLevel(1);
tracer << "Rendering: ";
for (int i = 0; i < procFileList.getNumFiles(); i++) {
PNFileEntry& rFileEntry = procFileList.getFile(i);
AssertFatal(rFileEntry.pUQImage != NULL, "Huh?");
pnRenderer.renderUQImage(rFileEntry.pUQImage);
if (instOptions.getExtrudingMipLevels() == false)
tracer << '.';
else
tracer << '*';
tracer.flush();
}
tracer << " done\n";
tracer.popVerbosityLevel();
// Store off the computed weights into the Palette...
//
const UInt32* pChosenFreqs = pnRenderer.getChosenFreqs();
if (pAuthPalette->hasQuantizationInfo() == false)
pAuthPalette->initQuantizationInfo();
for (int i = 0; i < 256; i++)
pAuthPalette->m_pColorWeights[i] += float(pChosenFreqs[i]);
UInt32 renderStart, renderEnd;
instOptions.getRenderRange(renderStart, renderEnd);
pAuthPalette->m_usedRangeStart = renderStart;
pAuthPalette->m_usedRangeEnd = renderEnd;
}
// Write out the palette, and we're finished!
//
if (instOptions.getStripQuantizationInfo() == true)
pAuthPalette->stripQuantizationInfo();
if (instOptions.areChoosingColors() == true) {
// First copy in the unique paletteKey, which we stuff into index 0
//
pAuthPalette->palette[0].paletteIndex = instOptions.getPaletteKey();
// Now, technically, we're lying a bit about which type of palette this is,
// but the mpMerger tool will fix this up for us...
//
if (instOptions.getColorSpace() == PNOptions::ColorSpaceAlpha) {
pAuthPalette->palette[0].paletteType = GFXPalette::AlphaQuantPaletteType;
} else if (instOptions.getColorSpace() == PNOptions::ColorSpaceAdditive) {
pAuthPalette->palette[0].paletteType = GFXPalette::AdditiveQuantPaletteType;
} else if (instOptions.getColorSpace() == PNOptions::ColorSpaceSubtractive) {
pAuthPalette->palette[0].paletteType = GFXPalette::SubtractiveQuantPaletteType;
} else {
pAuthPalette->palette[0].paletteType = GFXPalette::ColorQuantPaletteType;
}
if (instOptions.isStandAlonePalette() == true) {
pAuthPalette->palette[0].paletteType = GFXPalette::NoRemapPaletteType;
}
for (int i = 1; i < 256; i++) {
PALETTEENTRY& rPEntry = pAuthPalette->palette[0].color[i];
if (rPEntry.peRed == 0 &&
rPEntry.peGreen == 0 &&
rPEntry.peBlue == 0)
rPEntry.peBlue = 1;
}
// Write out our auth palette to the specified output name...
//
const char* pPaletteName = instOptions.getOutputPalName();
pAuthPalette->write(pPaletteName);
} else if (instOptions.areRenderingBitmaps() == true) {
// Just write the palette back out to the base palette...
//
AssertFatal(instOptions.hasBasePalette() == true,
"If we aren't choosing colors, we must have a base palette...");
pAuthPalette->write(instOptions.getBasePalName());
} else {
// Write out our auth palette to the specified output name...
//
pAuthPalette->palette[0].paletteIndex = instOptions.getPaletteKey();
const char* pPaletteName = instOptions.getOutputPalName();
if (pPaletteName != NULL)
pAuthPalette->write(pPaletteName);
}
// Cleanup
delete pAuthPalette;
instOptions.unattachResponseFile();
PNGlobalState::shutdownGlobalState();
return EXIT_SUCCESS;
}
// Main function
//
void MAppMain()
{
MString str; // Program's output
MVector<UInt32> L0, L1, L2; // Database lists
// Encode List 1 (2-3-letter combinations from "exclude.txt")
MStrings exc;
MTextFile(dir+"/exclude.txt").readAll().parseTo(exc,"\r\n");
for (MStrings::CIter it(exc); it(); ++it)
{
const MString& s = (*it).convToLower();
if (s.cnt() == 2)
L1.append(ch2int1(s[0]) + ch2int1(s[1])*28);
else if (s.cnt() == 3)
L1.append(ch2int1(s[0]) + ch2int1(s[1])*28 + ch2int1(s[2])*784);
}
// Encode List 0 and List 2 (converted to lowercase in the process)
MStrings words;
MTextFile(dir+"/words.txt").readAll().parseTo(words,"\r\n"); // Load dictionary
for (MStrings::CIter it(words); it(); ++it)
{
const MString s = (*it).convToLower();
// Encode 1-4-length words to List 2 (as is, no signatures)
if (s.cnt() >= 1 && s.cnt() <= 4)
{
if (s.cnt() == 1)
L2.append(ch2int2(s[0]));
else if (s.cnt() == 2)
L2.append(ch2int2(s[0]) + ch2int2(s[1])*28);
else if (s.cnt() == 3)
L2.append(ch2int2(s[0]) + ch2int2(s[1])*28 + ch2int2(s[2])*784);
else if (s.cnt() == 4)
L2.append(ch2int2(s[0]) + ch2int2(s[1])*28 +
ch2int2(s[2])*784 + ch2int2(s[3])*21952);
}
// Skip words with "wrong" lengths (<5 - handled above, >15 - too few to care)
if (s.cnt() < 5 || s.cnt() > 15) continue;
// Encode 5-15-length words to List 0 as signatures
UInt32 sig = (1-s.cnt()%2)<<ch2int0('*'); // Encode length bit (Note: produces a slightly smaller database than "s.cnt()%2")
for (MNum i = 0; i < s.cnt(); ++i) // Encode 19 letter bits
sig |= (1 << ch2int0(s[i]));
L0.append(sig);
}
// Sort and merge the lists
unique(L0);
unique(L1);
unique(L2); L2.setCnt(c2,0);
MVector<UInt32> L = L0; // Merged list
L.append(L1);
L.append(L2);
// Calculate element differences (at lists' edges add initial element)
MVector<UInt32> diffs;
for (MNum i = 1; i < L.cnt(); ++i)
if (L.get(i) > L.get(i-1))
diffs.append(L.get(i) - L.get(i-1));
// Encode 'diffs' as optimized bitmaps (in a string form for convenience)
// Each diff value is encoded as "0..01n..n": 'z' zeroes, followed by 1,
// followed by bitmap of the 'x-a' number, where 'x' is the diff and 'a' is
// the nearest (smaller or equal) to 'x' power of 2
MString bits;
for (MNum i = 0; i < diffs.cnt(); ++i)
{
UInt32 d = diffs.get(i);
for (UInt32 z = 0; ; ++z)
{
UInt32 a = (1<<z), b = a*2-1; // [a,b] - suitable range of 'd' to process
if (d<a || d>b) continue; // Outside of proper range - keep looking
for (UInt32 k = 0; k < z; ++k)
bits << '0';
bits << '1';
for (UInt32 k = 0; k < z; ++k)
bits << (GetBits(d-a,UInt8(k),UInt8(k))?'1':'0');
break;
}
}
while (bits.cnt()%8) bits << '0'; // Pad with zeroes to complete the last byte
// Encode the intermediary 'bits' string to actual bit vector
MVector<UInt8> bytes;
for (MNum i = 0; i < bits.cnt(); i+=8)
{
UInt8 b = 0;
for (MNum j = 0; j < 8; ++j) if (bits[i+j]=='1') b |= (1<<j);
bytes.append(b);
}
// Save the data to the file and compress it, if 7z is available at the sprcified location
MFile(dir+"/data",fmOverwrite) << bytes;
if (MSys::getFileInfo(GZipExe).name.cnt())
{
MSys::deleteFile(dir+"/data.gz");
MSys::open(GZipExe, (MString)"a -tgzip -mx=9 -sdel \""+dir+"/data.gz\" \""+dir+"/data\"");
}
// Compile some useful information (needed for hardcoding in the Node.js file)
// Prepare sizes
int size1 = 0;
while (!size1)
{
MApp::sleep(500);
size1 = (UInt32)MSys::getFileInfo(dir+"/data.gz").size;
}
int size2 = (int)MSys::getFileInfo(dir+"/solution.js").size;
// Initial elements and sizes
str <<"w=["<<L0.get(0)<<","<<L1.get(0)<<","<<L2.get(0)<<","
<<L0.cnt()<<","<<L1.cnt()<<","<<L2.cnt()<<"]\n";
// Letter->index conversion string for L0
str<<"C0: \" ";
for (int j='a'; j<='z'; ++j) str<<MChar(int('a'+ch2int0(j)-1));
str<<MChar(int('a'+ch2int0('\'')-1))<<"\"\n";
// Letter->index conversion string for L1
MString c1 = " ...........................";
for (int j='a'; j<='z'; ++j) c1.setChar(ch2int1(j),j);
c1.setChar(ch2int1('\''),'\'');
str<<"C1: \""<<c1<<"\"\n";
// Letter->index conversion string for L2
str<<"C2: \" ";
for (int j='a'; j<='z'; ++j) str<<MChar(int('a'+ch2int2(j)-1));
str<<MChar(int('a'+ch2int2('\'')-1))<<"\"\n";
// Size report
str <<"\n"<<words.cnt()<<" words => "<<L.cnt()<<" signatures => "
<<bytes.cnt()<<" bytes =>\n"<<size1<<"+"<<size2<<" final bytes ("
<<(65536-size1-size2)<<" left)\n\n";
// Display the information
MMainFrame wnd; // Create app's mainframe window
wnd.plugBar(MEditBoxPtr(wnd,AutoRect,None,true,str)); // Create a text box
wnd.setCaption("Data file written");
wnd.runMessageLoop(); // Run the app
}
//! react to field changes
void DVRLookupTable::changed(BitVector whichField, UInt32 origin)
{
SINFO << "DVRLookupTable::changed" << std::endl;
if(whichField & DataFieldMask)
{
// copy data from interleaved field to single fields
UInt32 iter = 0;
for(UInt32 i = 0; i < _sfDimension.getValue(); i++)
{
for(UInt32 j = 0; j < _mfSize[i]; j++)
{
for (UInt32 k = 0; k < _sfChannel.getValue(); k++)
{
#if 1
//!! TODO: REMOVE as soon as the loader works correctly
if(_mfDataR.size() < _mfData.size() / 4)
{
int size = _mfData.size() / 4;
_mfDataR.resize(size);
_mfDataG.resize(size);
_mfDataB.resize(size);
_mfDataA.resize(size);
}
#endif
//!! setValue ( <value>, index )
if(k == 0)
{
_mfDataR[j] =
Real32(_mfData[iter++]) /
Real32(TypeTraits<UInt8>::getMax());
}
else if(k == 1)
{
_mfDataG[j] =
Real32(_mfData[iter++]) /
Real32(TypeTraits<UInt8>::getMax());
}
else if(k == 2)
{
_mfDataB[j] =
Real32(_mfData[iter++]) /
Real32(TypeTraits<UInt8>::getMax());
}
else if(k == 3)
{
_mfDataA[j] =
Real32(_mfData[iter++]) /
Real32(TypeTraits<UInt8>::getMax());
}
}
}
}
}
if(whichField & DataRFieldMask)
{
// copy data from R field to channel 0 of interleaved field
UInt32 iter = 0;
UInt32 numChannels = _sfChannel.getValue();
for(UInt32 i = 0; i < _sfDimension.getValue(); i++)
{
for(UInt32 j = 0; j < _mfSize[i]; j++)
{
//!! setValue ( <value>, index )
_mfData[iter] =
UInt8(Real32(_mfDataR[j]) *
Real32(TypeTraits<UInt8>::getMax()));
iter += numChannels;
}
}
}
if(whichField & DataGFieldMask)
{
// copy data from G field to channel 1 of interleaved field
UInt32 iter = 1;
UInt32 numChannels = _sfChannel.getValue();
for(UInt32 i = 0; i < _sfDimension.getValue(); i++)
{
for(UInt32 j = 0; j < _mfSize[i]; j++)
{
//!! setValue ( <value>, index )
_mfData[iter] =
UInt8(Real32(_mfDataG[j]) *
Real32(TypeTraits<UInt8>::getMax()));
iter += numChannels;
}
}
}
if(whichField & DataBFieldMask)
{
// copy data from B field to channel 2 of interleaved field
UInt32 iter = 2;
UInt32 numChannels = _sfChannel.getValue();
for(UInt32 i = 0; i < _sfDimension.getValue(); i++)
{
for(UInt32 j = 0; j < _mfSize[i]; j++)
{
//!! setValue ( <value>, index )
_mfData[iter] =
UInt8(Real32(_mfDataB[j]) *
Real32(TypeTraits<UInt8>::getMax()));
iter += numChannels;
}
}
}
if(whichField & DataAFieldMask)
{
// copy data from A field to to channel 3 interleaved field
UInt32 iter = 3;
UInt32 numChannels = _sfChannel.getValue();
for(UInt32 i = 0; i < _sfDimension.getValue(); i++)
{
for(UInt32 j = 0; j < _mfSize[i]; j++)
{
//!! setValue ( <value>, index )
_mfData[iter] =
UInt8(Real32(_mfDataA[j]) *
Real32(TypeTraits<UInt8>::getMax()));
iter += numChannels;
}
}
}
if(whichField & (DimensionFieldMask | SizeFieldMask | ChannelFieldMask))
{
SINFO << "DVRLookupTable::changed - DimensionFieldMask | "
<< "SizeFieldMask | ChannelFieldMask "
<< std::endl;
if(whichField & DimensionFieldMask)
{
SINFO << "DVRLookupTable::changed - dimension "
<< _sfDimension.getValue()
<< std::endl;
}
if(whichField & SizeFieldMask)
{
SINFO << "DVRLookupTable::changed - size "
<< _mfSize[0]
<< std::endl;
}
if(whichField & ChannelFieldMask)
{
SINFO << "DVRLookupTable::changed - channel "
<< _sfChannel.getValue()
<< std::endl;
}
#if 0
commonConstructor();
#endif
}
if(whichField & TouchedFieldMask)
{
SINFO << "DVRLookupTable::changed - touched " << std::endl;
}
#if 0
// mark table as being changed
setTouched( true );
#endif
// notify parent if appearance
// CHECK
#if 0
MFFieldContainerPtr *par = getMFParents();
for(UInt32 i = 0; i < par->size(); i++)
{
}
#endif
Inherited::changed(whichField, origin);
}