/* -*- Mode: C++; tab-width: 8; indent-tabs-mode: nil; c-basic-offset: 2 -*- */ /* vim: set ts=8 sts=2 et sw=2 tw=80: */ /* This Source Code Form is subject to the terms of the Mozilla Public * License, v. 2.0. If a copy of the MPL was not distributed with this * file, You can obtain one at http://mozilla.org/MPL/2.0/. */ #include "2D.h" #include "Swizzle.h" #ifdef USE_CAIRO #include "DrawTargetCairo.h" #include "ScaledFontCairo.h" #include "SourceSurfaceCairo.h" #endif #ifdef USE_SKIA #include "DrawTargetSkia.h" #include "ScaledFontBase.h" #ifdef MOZ_ENABLE_FREETYPE #define USE_SKIA_FREETYPE #include "ScaledFontCairo.h" #endif #endif #if defined(WIN32) #include "ScaledFontWin.h" #include "NativeFontResourceGDI.h" #include "UnscaledFontGDI.h" #endif #ifdef XP_DARWIN #include "ScaledFontMac.h" #include "NativeFontResourceMac.h" #endif #ifdef MOZ_WIDGET_GTK #include "ScaledFontFontconfig.h" #include "NativeFontResourceFontconfig.h" #include "UnscaledFontFreeType.h" #endif #ifdef WIN32 #include "DrawTargetD2D1.h" #include "ScaledFontDWrite.h" #include "NativeFontResourceDWrite.h" #include #include "HelpersD2D.h" #include "HelpersWinFonts.h" #include "mozilla/Mutex.h" #endif #include "DrawTargetCapture.h" #include "DrawTargetDual.h" #include "DrawTargetTiled.h" #include "DrawTargetWrapAndRecord.h" #include "DrawTargetRecording.h" #include "SourceSurfaceRawData.h" #include "DrawEventRecorder.h" #include "Logging.h" #include "mozilla/CheckedInt.h" #ifdef MOZ_ENABLE_FREETYPE #include "ft2build.h" #include FT_FREETYPE_H #include "mozilla/Mutex.h" #endif #include "MainThreadUtils.h" #if defined(MOZ_LOGGING) GFX2D_API mozilla::LogModule* GetGFX2DLog() { static mozilla::LazyLogModule sLog("gfx2d"); return sLog; } #endif // The following code was largely taken from xpcom/glue/SSE.cpp and // made a little simpler. enum CPUIDRegister { eax = 0, ebx = 1, ecx = 2, edx = 3 }; #ifdef HAVE_CPUID_H #if !(defined(__SSE2__) || defined(_M_X64) || \ (defined(_M_IX86_FP) && _M_IX86_FP >= 2)) // cpuid.h is available on gcc 4.3 and higher on i386 and x86_64 #include static inline bool HasCPUIDBit(unsigned int level, CPUIDRegister reg, unsigned int bit) { unsigned int regs[4]; return __get_cpuid(level, ®s[0], ®s[1], ®s[2], ®s[3]) && (regs[reg] & bit); } #endif #define HAVE_CPU_DETECTION #else #if defined(_MSC_VER) && (defined(_M_IX86) || defined(_M_AMD64)) // MSVC 2005 or later supports __cpuid by intrin.h #include #define HAVE_CPU_DETECTION #elif defined(__SUNPRO_CC) && (defined(__i386) || defined(__x86_64__)) // Define a function identical to MSVC function. #ifdef __i386 static void __cpuid(int CPUInfo[4], int InfoType) { asm ( "xchg %esi, %ebx\n" "cpuid\n" "movl %eax, (%edi)\n" "movl %ebx, 4(%edi)\n" "movl %ecx, 8(%edi)\n" "movl %edx, 12(%edi)\n" "xchg %esi, %ebx\n" : : "a"(InfoType), // %eax "D"(CPUInfo) // %edi : "%ecx", "%edx", "%esi" ); } #else static void __cpuid(int CPUInfo[4], int InfoType) { asm ( "xchg %rsi, %rbx\n" "cpuid\n" "movl %eax, (%rdi)\n" "movl %ebx, 4(%rdi)\n" "movl %ecx, 8(%rdi)\n" "movl %edx, 12(%rdi)\n" "xchg %rsi, %rbx\n" : : "a"(InfoType), // %eax "D"(CPUInfo) // %rdi : "%ecx", "%edx", "%rsi" ); } #define HAVE_CPU_DETECTION #endif #endif #ifdef HAVE_CPU_DETECTION static inline bool HasCPUIDBit(unsigned int level, CPUIDRegister reg, unsigned int bit) { // Check that the level in question is supported. volatile int regs[4]; __cpuid((int *)regs, level & 0x80000000u); if (unsigned(regs[0]) < level) return false; __cpuid((int *)regs, level); return !!(unsigned(regs[reg]) & bit); } #endif #endif #ifdef MOZ_ENABLE_FREETYPE extern "C" { FT_Face mozilla_NewFTFace(FT_Library aFTLibrary, const char* aFileName, int aFaceIndex) { return mozilla::gfx::Factory::NewFTFace(aFTLibrary, aFileName, aFaceIndex); } FT_Face mozilla_NewFTFaceFromData(FT_Library aFTLibrary, const uint8_t* aData, size_t aDataSize, int aFaceIndex) { return mozilla::gfx::Factory::NewFTFaceFromData(aFTLibrary, aData, aDataSize, aFaceIndex); } void mozilla_ReleaseFTFace(FT_Face aFace) { mozilla::gfx::Factory::ReleaseFTFace(aFace); } void mozilla_LockFTLibrary(FT_Library aFTLibrary) { mozilla::gfx::Factory::LockFTLibrary(aFTLibrary); } void mozilla_UnlockFTLibrary(FT_Library aFTLibrary) { mozilla::gfx::Factory::UnlockFTLibrary(aFTLibrary); } } #endif namespace mozilla { namespace gfx { // In Gecko, this value is managed by gfx.logging.level in gfxPrefs. int32_t LoggingPrefs::sGfxLogLevel = LOG_DEFAULT; #ifdef MOZ_ENABLE_FREETYPE FT_Library Factory::mFTLibrary = nullptr; Mutex* Factory::mFTLock = nullptr; #endif #ifdef WIN32 // Note: mDeviceLock must be held when mutating these values. static uint32_t mDeviceSeq = 0; StaticRefPtr Factory::mD3D11Device; StaticRefPtr Factory::mD2D1Device; StaticRefPtr Factory::mDWriteFactory; bool Factory::mDWriteFactoryInitialized = false; StaticMutex Factory::mDeviceLock; StaticMutex Factory::mDTDependencyLock; #endif DrawEventRecorder *Factory::mRecorder; mozilla::gfx::Config* Factory::sConfig = nullptr; void Factory::Init(const Config& aConfig) { MOZ_ASSERT(!sConfig); sConfig = new Config(aConfig); #ifdef MOZ_ENABLE_FREETYPE mFTLock = new Mutex("Factory::mFTLock"); #endif } void Factory::ShutDown() { if (sConfig) { delete sConfig->mLogForwarder; delete sConfig; sConfig = nullptr; } #ifdef MOZ_ENABLE_FREETYPE mFTLibrary = nullptr; if (mFTLock) { delete mFTLock; mFTLock = nullptr; } #endif } bool Factory::HasSSE2() { #if defined(__SSE2__) || defined(_M_X64) || \ (defined(_M_IX86_FP) && _M_IX86_FP >= 2) // gcc with -msse2 (default on OSX and x86-64) // cl.exe with -arch:SSE2 (default on x64 compiler) return true; #elif defined(HAVE_CPU_DETECTION) static enum { UNINITIALIZED, NO_SSE2, HAS_SSE2 } sDetectionState = UNINITIALIZED; if (sDetectionState == UNINITIALIZED) { sDetectionState = HasCPUIDBit(1u, edx, (1u<<26)) ? HAS_SSE2 : NO_SSE2; } return sDetectionState == HAS_SSE2; #else return false; #endif } // If the size is "reasonable", we want gfxCriticalError to assert, so // this is the option set up for it. inline int LoggerOptionsBasedOnSize(const IntSize& aSize) { return CriticalLog::DefaultOptions(Factory::ReasonableSurfaceSize(aSize)); } bool Factory::ReasonableSurfaceSize(const IntSize &aSize) { return Factory::CheckSurfaceSize(aSize, 8192); } bool Factory::AllowedSurfaceSize(const IntSize &aSize) { if (sConfig) { return Factory::CheckSurfaceSize(aSize, sConfig->mMaxTextureSize, sConfig->mMaxAllocSize); } return CheckSurfaceSize(aSize); } bool Factory::CheckBufferSize(int32_t bufSize) { return !sConfig || bufSize < sConfig->mMaxAllocSize; } bool Factory::CheckSurfaceSize(const IntSize &sz, int32_t extentLimit, int32_t allocLimit) { if (sz.width <= 0 || sz.height <= 0) { return false; } // reject images with sides bigger than limit if (extentLimit && (sz.width > extentLimit || sz.height > extentLimit)) { gfxDebug() << "Surface size too large (exceeds extent limit)!"; return false; } // assuming 4 bytes per pixel, make sure the allocation size // doesn't overflow a int32_t either CheckedInt stride = GetAlignedStride<16>(sz.width, 4); if (!stride.isValid() || stride.value() == 0) { gfxDebug() << "Surface size too large (stride overflows int32_t)!"; return false; } CheckedInt numBytes = stride * sz.height; if (!numBytes.isValid()) { gfxDebug() << "Surface size too large (allocation size would overflow int32_t)!"; return false; } if (allocLimit && allocLimit < numBytes.value()) { gfxDebug() << "Surface size too large (exceeds allocation limit)!"; return false; } return true; } already_AddRefed Factory::CreateDrawTarget(BackendType aBackend, const IntSize &aSize, SurfaceFormat aFormat) { if (!AllowedSurfaceSize(aSize)) { gfxCriticalError(LoggerOptionsBasedOnSize(aSize)) << "Failed to allocate a surface due to invalid size (CDT) " << aSize; return nullptr; } RefPtr retVal; switch (aBackend) { #ifdef WIN32 case BackendType::DIRECT2D1_1: { RefPtr newTarget; newTarget = new DrawTargetD2D1(); if (newTarget->Init(aSize, aFormat)) { retVal = newTarget; } break; } #endif #ifdef USE_SKIA case BackendType::SKIA: { RefPtr newTarget; newTarget = new DrawTargetSkia(); if (newTarget->Init(aSize, aFormat)) { retVal = newTarget; } break; } #endif #ifdef USE_CAIRO case BackendType::CAIRO: { RefPtr newTarget; newTarget = new DrawTargetCairo(); if (newTarget->Init(aSize, aFormat)) { retVal = newTarget; } break; } #endif default: return nullptr; } if (mRecorder && retVal) { return MakeAndAddRef(mRecorder, retVal); } if (!retVal) { // Failed gfxCriticalError(LoggerOptionsBasedOnSize(aSize)) << "Failed to create DrawTarget, Type: " << int(aBackend) << " Size: " << aSize; } return retVal.forget(); } already_AddRefed Factory::CreateWrapAndRecordDrawTarget(DrawEventRecorder *aRecorder, DrawTarget *aDT) { return MakeAndAddRef(aRecorder, aDT); } already_AddRefed Factory::CreateRecordingDrawTarget(DrawEventRecorder *aRecorder, DrawTarget *aDT, IntSize aSize) { return MakeAndAddRef(aRecorder, aDT, aSize); } already_AddRefed Factory::CreateCaptureDrawTarget(BackendType aBackend, const IntSize& aSize, SurfaceFormat aFormat) { return MakeAndAddRef(aBackend, aSize, aFormat); } already_AddRefed Factory::CreateCaptureDrawTargetForData(BackendType aBackend, const IntSize &aSize, SurfaceFormat aFormat, int32_t aStride, size_t aSurfaceAllocationSize) { MOZ_ASSERT(aSurfaceAllocationSize && aStride); BackendType type = aBackend; if (!Factory::DoesBackendSupportDataDrawtarget(aBackend)) { type = BackendType::SKIA; } RefPtr dt = new DrawTargetCaptureImpl(type, aSize, aFormat); dt->InitForData(aStride, aSurfaceAllocationSize); return dt.forget(); } already_AddRefed Factory::CreateDrawTargetForData(BackendType aBackend, unsigned char *aData, const IntSize &aSize, int32_t aStride, SurfaceFormat aFormat, bool aUninitialized) { MOZ_ASSERT(aData); if (!AllowedSurfaceSize(aSize)) { gfxCriticalError(LoggerOptionsBasedOnSize(aSize)) << "Failed to allocate a surface due to invalid size (DTD) " << aSize; return nullptr; } RefPtr retVal; switch (aBackend) { #ifdef USE_SKIA case BackendType::SKIA: { RefPtr newTarget; newTarget = new DrawTargetSkia(); if (newTarget->Init(aData, aSize, aStride, aFormat, aUninitialized)) { retVal = newTarget; } break; } #endif #ifdef USE_CAIRO case BackendType::CAIRO: { RefPtr newTarget; newTarget = new DrawTargetCairo(); if (newTarget->Init(aData, aSize, aStride, aFormat)) { retVal = newTarget.forget(); } break; } #endif default: gfxCriticalNote << "Invalid draw target type specified: " << (int)aBackend; return nullptr; } if (mRecorder && retVal) { return MakeAndAddRef(mRecorder, retVal, true); } if (!retVal) { gfxCriticalNote << "Failed to create DrawTarget, Type: " << int(aBackend) << " Size: " << aSize << ", Data: " << hexa((void *)aData) << ", Stride: " << aStride; } return retVal.forget(); } already_AddRefed Factory::CreateTiledDrawTarget(const TileSet& aTileSet) { RefPtr dt = new DrawTargetTiled(); if (!dt->Init(aTileSet)) { return nullptr; } return dt.forget(); } bool Factory::DoesBackendSupportDataDrawtarget(BackendType aType) { switch (aType) { case BackendType::DIRECT2D: case BackendType::DIRECT2D1_1: case BackendType::RECORDING: case BackendType::NONE: case BackendType::BACKEND_LAST: case BackendType::WEBRENDER_TEXT: return false; case BackendType::CAIRO: case BackendType::SKIA: return true; } return false; } uint32_t Factory::GetMaxSurfaceSize(BackendType aType) { switch (aType) { case BackendType::CAIRO: return DrawTargetCairo::GetMaxSurfaceSize(); #ifdef USE_SKIA case BackendType::SKIA: return DrawTargetSkia::GetMaxSurfaceSize(); #endif #ifdef WIN32 case BackendType::DIRECT2D1_1: return DrawTargetD2D1::GetMaxSurfaceSize(); #endif default: return 0; } } already_AddRefed Factory::CreateScaledFontForNativeFont(const NativeFont &aNativeFont, const RefPtr& aUnscaledFont, Float aSize) { switch (aNativeFont.mType) { #ifdef WIN32 case NativeFontType::DWRITE_FONT_FACE: { return MakeAndAddRef(static_cast(aNativeFont.mFont), aUnscaledFont, aSize); } #if defined(USE_CAIRO) || defined(USE_SKIA) case NativeFontType::GDI_FONT_FACE: { return MakeAndAddRef(static_cast(aNativeFont.mFont), aUnscaledFont, aSize); } #endif #endif #ifdef XP_DARWIN case NativeFontType::MAC_FONT_FACE: { return MakeAndAddRef(static_cast(aNativeFont.mFont), aUnscaledFont, aSize); } #endif #if defined(USE_CAIRO) || defined(USE_SKIA_FREETYPE) case NativeFontType::CAIRO_FONT_FACE: { return MakeAndAddRef(static_cast(aNativeFont.mFont), aUnscaledFont, aSize); } #endif default: gfxWarning() << "Invalid native font type specified."; return nullptr; } } already_AddRefed Factory::CreateNativeFontResource(uint8_t *aData, uint32_t aSize, BackendType aBackendType, FontType aFontType, void* aFontContext) { switch (aFontType) { #ifdef WIN32 case FontType::DWRITE: { bool needsCairo = aBackendType == BackendType::CAIRO || aBackendType == BackendType::SKIA; return NativeFontResourceDWrite::Create(aData, aSize, needsCairo); } case FontType::GDI: return NativeFontResourceGDI::Create(aData, aSize); #elif defined(XP_DARWIN) case FontType::MAC: return NativeFontResourceMac::Create(aData, aSize); #elif defined(MOZ_WIDGET_GTK) case FontType::FONTCONFIG: return NativeFontResourceFontconfig::Create(aData, aSize, static_cast(aFontContext)); #endif default: gfxWarning() << "Unable to create requested font resource from truetype data"; return nullptr; } } already_AddRefed Factory::CreateUnscaledFontFromFontDescriptor(FontType aType, const uint8_t* aData, uint32_t aDataLength, uint32_t aIndex) { switch (aType) { #ifdef WIN32 case FontType::GDI: return UnscaledFontGDI::CreateFromFontDescriptor(aData, aDataLength, aIndex); #endif #ifdef MOZ_WIDGET_GTK case FontType::FONTCONFIG: return UnscaledFontFontconfig::CreateFromFontDescriptor(aData, aDataLength, aIndex); #endif default: gfxWarning() << "Invalid type specified for UnscaledFont font descriptor"; return nullptr; } } already_AddRefed Factory::CreateScaledFontWithCairo(const NativeFont& aNativeFont, const RefPtr& aUnscaledFont, Float aSize, cairo_scaled_font_t* aScaledFont) { #ifdef USE_CAIRO // In theory, we could pull the NativeFont out of the cairo_scaled_font_t*, // but that would require a lot of code that would be otherwise repeated in // various backends. // Therefore, we just reuse CreateScaledFontForNativeFont's implementation. RefPtr font = CreateScaledFontForNativeFont(aNativeFont, aUnscaledFont, aSize); static_cast(font.get())->SetCairoScaledFont(aScaledFont); return font.forget(); #else return nullptr; #endif } #ifdef MOZ_WIDGET_GTK already_AddRefed Factory::CreateScaledFontForFontconfigFont(cairo_scaled_font_t* aScaledFont, FcPattern* aPattern, const RefPtr& aUnscaledFont, Float aSize) { return MakeAndAddRef(aScaledFont, aPattern, aUnscaledFont, aSize); } #endif #ifdef XP_DARWIN already_AddRefed Factory::CreateScaledFontForMacFont(CGFontRef aCGFont, const RefPtr& aUnscaledFont, Float aSize, const Color& aFontSmoothingBackgroundColor, bool aUseFontSmoothing, bool aApplySyntheticBold) { return MakeAndAddRef( aCGFont, aUnscaledFont, aSize, false, aFontSmoothingBackgroundColor, aUseFontSmoothing, aApplySyntheticBold); } #endif already_AddRefed Factory::CreateDualDrawTarget(DrawTarget *targetA, DrawTarget *targetB) { MOZ_ASSERT(targetA && targetB); RefPtr newTarget = new DrawTargetDual(targetA, targetB); RefPtr retVal = newTarget; if (mRecorder) { retVal = new DrawTargetWrapAndRecord(mRecorder, retVal); } return retVal.forget(); } #ifdef MOZ_ENABLE_FREETYPE void Factory::SetFTLibrary(FT_Library aFTLibrary) { mFTLibrary = aFTLibrary; } FT_Library Factory::GetFTLibrary() { MOZ_ASSERT(mFTLibrary); return mFTLibrary; } FT_Library Factory::NewFTLibrary() { FT_Library library; if (FT_Init_FreeType(&library) != FT_Err_Ok) { return nullptr; } return library; } void Factory::ReleaseFTLibrary(FT_Library aFTLibrary) { FT_Done_FreeType(aFTLibrary); } void Factory::LockFTLibrary(FT_Library aFTLibrary) { MOZ_ASSERT(mFTLock); mFTLock->Lock(); } void Factory::UnlockFTLibrary(FT_Library aFTLibrary) { MOZ_ASSERT(mFTLock); mFTLock->Unlock(); } FT_Face Factory::NewFTFace(FT_Library aFTLibrary, const char* aFileName, int aFaceIndex) { MOZ_ASSERT(mFTLock); MutexAutoLock lock(*mFTLock); if (!aFTLibrary) { aFTLibrary = mFTLibrary; } FT_Face face; if (FT_New_Face(aFTLibrary, aFileName, aFaceIndex, &face) != FT_Err_Ok) { return nullptr; } return face; } FT_Face Factory::NewFTFaceFromData(FT_Library aFTLibrary, const uint8_t* aData, size_t aDataSize, int aFaceIndex) { MOZ_ASSERT(mFTLock); MutexAutoLock lock(*mFTLock); if (!aFTLibrary) { aFTLibrary = mFTLibrary; } FT_Face face; if (FT_New_Memory_Face(aFTLibrary, aData, aDataSize, aFaceIndex, &face) != FT_Err_Ok) { return nullptr; } return face; } void Factory::ReleaseFTFace(FT_Face aFace) { // May be called during shutdown when the lock is already destroyed. // However, there are no other threads using the face by this point, // so it is safe to skip locking if the lock is not around. if (mFTLock) { mFTLock->Lock(); } FT_Done_Face(aFace); if (mFTLock) { mFTLock->Unlock(); } } #endif #ifdef WIN32 already_AddRefed Factory::CreateDrawTargetForD3D11Texture(ID3D11Texture2D *aTexture, SurfaceFormat aFormat) { MOZ_ASSERT(aTexture); RefPtr newTarget; newTarget = new DrawTargetD2D1(); if (newTarget->Init(aTexture, aFormat)) { RefPtr retVal = newTarget; if (mRecorder) { retVal = new DrawTargetWrapAndRecord(mRecorder, retVal, true); } return retVal.forget(); } gfxWarning() << "Failed to create draw target for D3D11 texture."; // Failed return nullptr; } bool Factory::SetDirect3D11Device(ID3D11Device *aDevice) { MOZ_RELEASE_ASSERT(NS_IsMainThread()); // D2DFactory already takes the device lock, so we get the factory before // entering the lock scope. RefPtr factory = D2DFactory(); StaticMutexAutoLock lock(mDeviceLock); mD3D11Device = aDevice; if (mD2D1Device) { mD2D1Device = nullptr; } if (!aDevice) { return true; } RefPtr device; aDevice->QueryInterface((IDXGIDevice**)getter_AddRefs(device)); RefPtr d2dDevice; HRESULT hr = factory->CreateDevice(device, getter_AddRefs(d2dDevice)); if (FAILED(hr)) { gfxCriticalError() << "[D2D1] Failed to create gfx factory's D2D1 device, code: " << hexa(hr); mD3D11Device = nullptr; return false; } mDeviceSeq++; mD2D1Device = d2dDevice; return true; } RefPtr Factory::GetDirect3D11Device() { StaticMutexAutoLock lock(mDeviceLock); return mD3D11Device; } RefPtr Factory::GetD2D1Device(uint32_t* aOutSeqNo) { StaticMutexAutoLock lock(mDeviceLock); if (aOutSeqNo) { *aOutSeqNo = mDeviceSeq; } return mD2D1Device.get(); } bool Factory::HasD2D1Device() { return !!GetD2D1Device(); } RefPtr Factory::GetDWriteFactory() { StaticMutexAutoLock lock(mDeviceLock); return mDWriteFactory; } RefPtr Factory::EnsureDWriteFactory() { StaticMutexAutoLock lock(mDeviceLock); if (mDWriteFactoryInitialized) { return mDWriteFactory; } mDWriteFactoryInitialized = true; HMODULE dwriteModule = LoadLibraryW(L"dwrite.dll"); decltype(DWriteCreateFactory)* createDWriteFactory = (decltype(DWriteCreateFactory)*) GetProcAddress(dwriteModule, "DWriteCreateFactory"); if (!createDWriteFactory) { gfxWarning() << "Failed to locate DWriteCreateFactory function."; return nullptr; } HRESULT hr = createDWriteFactory(DWRITE_FACTORY_TYPE_SHARED, __uuidof(IDWriteFactory), reinterpret_cast(&mDWriteFactory)); if (FAILED(hr)) { gfxWarning() << "Failed to create DWrite Factory."; } return mDWriteFactory; } bool Factory::SupportsD2D1() { return !!D2DFactory(); } BYTE sSystemTextQuality = CLEARTYPE_QUALITY; void Factory::UpdateSystemTextQuality() { #ifdef WIN32 gfx::UpdateSystemTextQuality(); #endif } uint64_t Factory::GetD2DVRAMUsageDrawTarget() { return DrawTargetD2D1::mVRAMUsageDT; } uint64_t Factory::GetD2DVRAMUsageSourceSurface() { return DrawTargetD2D1::mVRAMUsageSS; } void Factory::D2DCleanup() { StaticMutexAutoLock lock(mDeviceLock); if (mD2D1Device) { mD2D1Device = nullptr; } DrawTargetD2D1::CleanupD2D(); } already_AddRefed Factory::CreateScaledFontForDWriteFont(IDWriteFontFace* aFontFace, const gfxFontStyle* aStyle, const RefPtr& aUnscaledFont, float aSize, bool aUseEmbeddedBitmap, bool aForceGDIMode, IDWriteRenderingParams* aParams, Float aGamma, Float aContrast) { return MakeAndAddRef(aFontFace, aUnscaledFont, aSize, aUseEmbeddedBitmap, aForceGDIMode, aParams, aGamma, aContrast, aStyle); } #endif // XP_WIN #ifdef USE_SKIA_GPU already_AddRefed Factory::CreateDrawTargetSkiaWithGrContext(GrContext* aGrContext, const IntSize &aSize, SurfaceFormat aFormat) { RefPtr newTarget = new DrawTargetSkia(); if (!newTarget->InitWithGrContext(aGrContext, aSize, aFormat)) { return nullptr; } return newTarget.forget(); } #endif // USE_SKIA_GPU #ifdef USE_SKIA already_AddRefed Factory::CreateDrawTargetWithSkCanvas(SkCanvas* aCanvas) { RefPtr newTarget = new DrawTargetSkia(); if (!newTarget->Init(aCanvas)) { return nullptr; } return newTarget.forget(); } #endif void Factory::PurgeAllCaches() { } already_AddRefed Factory::CreateDrawTargetForCairoSurface(cairo_surface_t* aSurface, const IntSize& aSize, SurfaceFormat* aFormat) { if (!AllowedSurfaceSize(aSize)) { gfxWarning() << "Allowing surface with invalid size (Cairo) " << aSize; } RefPtr retVal; #ifdef USE_CAIRO RefPtr newTarget = new DrawTargetCairo(); if (newTarget->Init(aSurface, aSize, aFormat)) { retVal = newTarget; } if (mRecorder && retVal) { return MakeAndAddRef(mRecorder, retVal, true); } #endif return retVal.forget(); } already_AddRefed Factory::CreateSourceSurfaceForCairoSurface(cairo_surface_t* aSurface, const IntSize& aSize, SurfaceFormat aFormat) { if (aSize.width <= 0 || aSize.height <= 0) { gfxWarning() << "Can't create a SourceSurface without a valid size"; return nullptr; } #ifdef USE_CAIRO return MakeAndAddRef(aSurface, aSize, aFormat); #else return nullptr; #endif } already_AddRefed Factory::CreateWrappingDataSourceSurface(uint8_t *aData, int32_t aStride, const IntSize &aSize, SurfaceFormat aFormat, SourceSurfaceDeallocator aDeallocator /* = nullptr */, void* aClosure /* = nullptr */) { // Just check for negative/zero size instead of the full AllowedSurfaceSize() - since // the data is already allocated we do not need to check for a possible overflow - it // already worked. if (aSize.width <= 0 || aSize.height <= 0) { return nullptr; } if (!aDeallocator && aClosure) { return nullptr; } MOZ_ASSERT(aData); RefPtr newSurf = new SourceSurfaceRawData(); newSurf->InitWrappingData(aData, aSize, aStride, aFormat, aDeallocator, aClosure); return newSurf.forget(); } already_AddRefed Factory::CreateDataSourceSurface(const IntSize &aSize, SurfaceFormat aFormat, bool aZero) { if (!AllowedSurfaceSize(aSize)) { gfxCriticalError(LoggerOptionsBasedOnSize(aSize)) << "Failed to allocate a surface due to invalid size (DSS) " << aSize; return nullptr; } // Skia doesn't support RGBX, so memset RGBX to 0xFF bool clearSurface = aZero || aFormat == SurfaceFormat::B8G8R8X8; uint8_t clearValue = aFormat == SurfaceFormat::B8G8R8X8 ? 0xFF : 0; RefPtr newSurf = new SourceSurfaceAlignedRawData(); if (newSurf->Init(aSize, aFormat, clearSurface, clearValue)) { return newSurf.forget(); } gfxWarning() << "CreateDataSourceSurface failed in init"; return nullptr; } already_AddRefed Factory::CreateDataSourceSurfaceWithStride(const IntSize &aSize, SurfaceFormat aFormat, int32_t aStride, bool aZero) { if (!AllowedSurfaceSize(aSize) || aStride < aSize.width * BytesPerPixel(aFormat)) { gfxCriticalError(LoggerOptionsBasedOnSize(aSize)) << "CreateDataSourceSurfaceWithStride failed with bad stride " << aStride << ", " << aSize << ", " << aFormat; return nullptr; } // Skia doesn't support RGBX, so memset RGBX to 0xFF bool clearSurface = aZero || aFormat == SurfaceFormat::B8G8R8X8; uint8_t clearValue = aFormat == SurfaceFormat::B8G8R8X8 ? 0xFF : 0; RefPtr newSurf = new SourceSurfaceAlignedRawData(); if (newSurf->Init(aSize, aFormat, clearSurface, clearValue, aStride)) { return newSurf.forget(); } gfxCriticalError(LoggerOptionsBasedOnSize(aSize)) << "CreateDataSourceSurfaceWithStride failed to initialize " << aSize << ", " << aFormat << ", " << aStride << ", " << aZero; return nullptr; } void Factory::CopyDataSourceSurface(DataSourceSurface* aSource, DataSourceSurface* aDest) { // Don't worry too much about speed. MOZ_ASSERT(aSource->GetSize() == aDest->GetSize()); MOZ_ASSERT(aSource->GetFormat() == SurfaceFormat::R8G8B8A8 || aSource->GetFormat() == SurfaceFormat::R8G8B8X8 || aSource->GetFormat() == SurfaceFormat::B8G8R8A8 || aSource->GetFormat() == SurfaceFormat::B8G8R8X8); MOZ_ASSERT(aDest->GetFormat() == SurfaceFormat::R8G8B8A8 || aDest->GetFormat() == SurfaceFormat::R8G8B8X8 || aDest->GetFormat() == SurfaceFormat::B8G8R8A8 || aDest->GetFormat() == SurfaceFormat::B8G8R8X8 || aDest->GetFormat() == SurfaceFormat::R5G6B5_UINT16); DataSourceSurface::MappedSurface srcMap; DataSourceSurface::MappedSurface destMap; if (!aSource->Map(DataSourceSurface::MapType::READ, &srcMap) || !aDest->Map(DataSourceSurface::MapType::WRITE, &destMap)) { MOZ_ASSERT(false, "CopyDataSourceSurface: Failed to map surface."); return; } SwizzleData(srcMap.mData, srcMap.mStride, aSource->GetFormat(), destMap.mData, destMap.mStride, aDest->GetFormat(), aSource->GetSize()); aSource->Unmap(); aDest->Unmap(); } already_AddRefed Factory::CreateEventRecorderForFile(const char_type* aFilename) { return MakeAndAddRef(aFilename); } void Factory::SetGlobalEventRecorder(DrawEventRecorder *aRecorder) { mRecorder = aRecorder; } // static void CriticalLogger::OutputMessage(const std::string &aString, int aLevel, bool aNoNewline) { if (Factory::GetLogForwarder()) { Factory::GetLogForwarder()->Log(aString); } BasicLogger::OutputMessage(aString, aLevel, aNoNewline); } void CriticalLogger::CrashAction(LogReason aReason) { if (Factory::GetLogForwarder()) { Factory::GetLogForwarder()->CrashAction(aReason); } } } // namespace gfx } // namespace mozilla