bool GrGLProgramBuilder::compileAndAttachShaders(const char* glsl,
int length,
GrGLuint programId,
GrGLenum type,
SkTDArray<GrGLuint>* shaderIds,
const SkSL::Program::Settings& settings,
const SkSL::Program::Inputs& inputs) {
GrGLGpu* gpu = this->gpu();
GrGLuint shaderId = GrGLCompileAndAttachShader(gpu->glContext(),
programId,
type,
glsl,
length,
gpu->stats(),
settings);
if (!shaderId) {
return false;
}
*shaderIds->append() = shaderId;
if (inputs.fFlipY) {
GrProgramDesc* d = this->desc();
d->setSurfaceOriginKey(GrGLSLFragmentShaderBuilder::KeyForSurfaceOrigin(
this->pipeline().proxy()->origin()));
d->finalize();
}
return true;
}
static int get_glprograms_max_stages(const sk_gpu_test::ContextInfo& ctxInfo) {
GrContext* context = ctxInfo.grContext();
GrGLGpu* gpu = static_cast<GrGLGpu*>(context->contextPriv().getGpu());
int maxStages = 6;
if (kGLES_GrGLStandard == gpu->glStandard()) {
// We've had issues with driver crashes and HW limits being exceeded with many effects on
// Android devices. We have passes on ARM devices with the default number of stages.
// TODO When we run ES 3.00 GLSL in more places, test again
#ifdef SK_BUILD_FOR_ANDROID
if (kARM_GrGLVendor != gpu->ctxInfo().vendor()) {
maxStages = 1;
}
#endif
// On iOS we can exceed the maximum number of varyings. http://skbug.com/6627.
#ifdef SK_BUILD_FOR_IOS
maxStages = 3;
#endif
}
if (ctxInfo.type() == sk_gpu_test::GrContextFactory::kANGLE_D3D9_ES2_ContextType ||
ctxInfo.type() == sk_gpu_test::GrContextFactory::kANGLE_D3D11_ES2_ContextType) {
// On Angle D3D we will hit a limit of out variables if we use too many stages.
maxStages = 3;
}
return maxStages;
}
const char* GrGLFragmentShaderBuilder::fragmentPosition() {
fHasReadFragmentPosition = true;
GrGLGpu* gpu = fProgramBuilder->gpu();
// We only declare "gl_FragCoord" when we're in the case where we want to use layout qualifiers
// to reverse y. Otherwise it isn't necessary and whether the "in" qualifier appears in the
// declaration varies in earlier GLSL specs. So it is simpler to omit it.
if (fTopLeftFragPosRead) {
fSetupFragPosition = true;
return "gl_FragCoord";
} else if (gpu->glCaps().fragCoordConventionsSupport()) {
if (!fSetupFragPosition) {
if (gpu->glslGeneration() < k150_GrGLSLGeneration) {
this->addFeature(1 << kFragCoordConventions_GLSLPrivateFeature,
"GL_ARB_fragment_coord_conventions");
}
fInputs.push_back().set(kVec4f_GrSLType,
GrGLShaderVar::kIn_TypeModifier,
"gl_FragCoord",
kDefault_GrSLPrecision,
GrGLShaderVar::kUpperLeft_Origin);
fSetupFragPosition = true;
}
return "gl_FragCoord";
} else {
static const char* kTempName = "tmpXYFragCoord";
static const char* kCoordName = "fragCoordYDown";
if (!fSetupFragPosition) {
// temporarily change the stage index because we're inserting non-stage code.
GrGLProgramBuilder::AutoStageRestore asr(fProgramBuilder);
SkASSERT(!fProgramBuilder->fUniformHandles.fRTHeightUni.isValid());
const char* rtHeightName;
fProgramBuilder->fUniformHandles.fRTHeightUni =
fProgramBuilder->addUniform(GrGLProgramBuilder::kFragment_Visibility,
kFloat_GrSLType,
kDefault_GrSLPrecision,
"RTHeight",
&rtHeightName);
// The Adreno compiler seems to be very touchy about access to "gl_FragCoord".
// Accessing glFragCoord.zw can cause a program to fail to link. Additionally,
// depending on the surrounding code, accessing .xy with a uniform involved can
// do the same thing. Copying gl_FragCoord.xy into a temp vec2 beforehand
// (and only accessing .xy) seems to "fix" things.
this->codePrependf("\tvec4 %s = vec4(%s.x, %s - %s.y, 1.0, 1.0);\n",
kCoordName, kTempName, rtHeightName, kTempName);
this->codePrependf("vec2 %s = gl_FragCoord.xy;", kTempName);
fSetupFragPosition = true;
}
SkASSERT(fProgramBuilder->fUniformHandles.fRTHeightUni.isValid());
return kCoordName;
}
}
DEF_GPUTEST(GLPrograms, reporter, factory) {
// Set a locale that would cause shader compilation to fail because of , as decimal separator.
// skbug 3330
#ifdef SK_BUILD_FOR_WIN
GrAutoLocaleSetter als("sv-SE");
#else
GrAutoLocaleSetter als("sv_SE.UTF-8");
#endif
// We suppress prints to avoid spew
GrContextOptions opts;
opts.fSuppressPrints = true;
GrContextFactory debugFactory(opts);
for (int type = 0; type < GrContextFactory::kLastGLContextType; ++type) {
GrContext* context = debugFactory.get(static_cast<GrContextFactory::GLContextType>(type));
if (context) {
GrGLGpu* gpu = static_cast<GrGLGpu*>(context->getGpu());
/*
* For the time being, we only support the test with desktop GL or for android on
* ARM platforms
* TODO When we run ES 3.00 GLSL in more places, test again
*/
int maxStages;
if (kGL_GrGLStandard == gpu->glStandard() ||
kARM_GrGLVendor == gpu->ctxInfo().vendor()) {
maxStages = 6;
} else if (kTegra3_GrGLRenderer == gpu->ctxInfo().renderer() ||
kOther_GrGLRenderer == gpu->ctxInfo().renderer()) {
maxStages = 1;
} else {
return;
}
#if SK_ANGLE
// Some long shaders run out of temporary registers in the D3D compiler on ANGLE.
if (type == GrContextFactory::kANGLE_GLContextType) {
maxStages = 2;
}
#endif
#if SK_COMMAND_BUFFER
// Some long shaders run out of temporary registers in the D3D compiler on ANGLE.
// TODO(hendrikw): This only needs to happen with the ANGLE comand buffer backend.
if (type == GrContextFactory::kCommandBuffer_GLContextType) {
maxStages = 2;
}
#endif
GrTestTarget testTarget;
context->getTestTarget(&testTarget);
REPORTER_ASSERT(reporter, GrDrawingManager::ProgramUnitTest(
context, testTarget.target(), maxStages));
}
}
}
const char* GrGLFragmentShaderBuilder::fragmentPosition() {
fHasReadFragmentPosition = true;
GrGLGpu* gpu = fProgramBuilder->gpu();
// We only declare "gl_FragCoord" when we're in the case where we want to use layout qualifiers
// to reverse y. Otherwise it isn't necessary and whether the "in" qualifier appears in the
// declaration varies in earlier GLSL specs. So it is simpler to omit it.
if (fTopLeftFragPosRead) {
fSetupFragPosition = true;
return "gl_FragCoord";
} else if (gpu->glCaps().fragCoordConventionsSupport()) {
if (!fSetupFragPosition) {
if (gpu->glslGeneration() < k150_GrGLSLGeneration) {
this->addFeature(1 << kFragCoordConventions_GLSLPrivateFeature,
"GL_ARB_fragment_coord_conventions");
}
fInputs.push_back().set(kVec4f_GrSLType,
GrGLShaderVar::kIn_TypeModifier,
"gl_FragCoord",
kDefault_GrSLPrecision,
GrGLShaderVar::kUpperLeft_Origin);
fSetupFragPosition = true;
}
return "gl_FragCoord";
} else {
static const char* kCoordName = "fragCoordYDown";
if (!fSetupFragPosition) {
// temporarily change the stage index because we're inserting non-stage code.
GrGLProgramBuilder::AutoStageRestore asr(fProgramBuilder);
SkASSERT(!fProgramBuilder->fUniformHandles.fRTHeightUni.isValid());
const char* rtHeightName;
fProgramBuilder->fUniformHandles.fRTHeightUni =
fProgramBuilder->addUniform(GrGLProgramBuilder::kFragment_Visibility,
kFloat_GrSLType,
kDefault_GrSLPrecision,
"RTHeight",
&rtHeightName);
// Using glFragCoord.zw for the last two components tickles an Adreno driver bug that
// causes programs to fail to link. Making this function return a vec2() didn't fix the
// problem but using 1.0 for the last two components does.
this->codePrependf("\tvec4 %s = vec4(gl_FragCoord.x, %s - gl_FragCoord.y, 1.0, "
"1.0);\n", kCoordName, rtHeightName);
fSetupFragPosition = true;
}
SkASSERT(fProgramBuilder->fUniformHandles.fRTHeightUni.isValid());
return kCoordName;
}
}
static int get_glprograms_max_stages(GrContext* context) {
GrGLGpu* gpu = static_cast<GrGLGpu*>(context->getGpu());
/*
* For the time being, we only support the test with desktop GL or for android on
* ARM platforms
* TODO When we run ES 3.00 GLSL in more places, test again
*/
if (kGL_GrGLStandard == gpu->glStandard() ||
kARM_GrGLVendor == gpu->ctxInfo().vendor()) {
return 6;
} else if (kTegra3_GrGLRenderer == gpu->ctxInfo().renderer() ||
kOther_GrGLRenderer == gpu->ctxInfo().renderer()) {
return 1;
}
return 0;
}
bool GrGLFragmentShaderBuilder::compileAndAttachShaders(GrGLuint programId,
SkTDArray<GrGLuint>* shaderIds) {
GrGLGpu* gpu = fProgramBuilder->gpu();
this->versionDecl() = GrGLGetGLSLVersionDecl(gpu->ctxInfo());
GrGLAppendGLSLDefaultFloatPrecisionDeclaration(kDefault_GrSLPrecision,
gpu->glStandard(),
&this->precisionQualifier());
this->compileAndAppendLayoutQualifiers();
fProgramBuilder->appendUniformDecls(GrGLProgramBuilder::kFragment_Visibility,
&this->uniforms());
this->appendDecls(fInputs, &this->inputs());
// We shouldn't have declared outputs on 1.10
SkASSERT(k110_GrGLSLGeneration != gpu->glslGeneration() || fOutputs.empty());
this->appendDecls(fOutputs, &this->outputs());
return this->finalize(programId, GR_GL_FRAGMENT_SHADER, shaderIds);
}
void GrGLPathRange::onInitPath(int index, const SkPath& skPath) const {
GrGLGpu* gpu = static_cast<GrGLGpu*>(this->getGpu());
if (NULL == gpu) {
return;
}
// Make sure the path at this index hasn't been initted already.
SkDEBUGCODE(
GrGLboolean isPath;
GR_GL_CALL_RET(gpu->glInterface(), isPath, IsPath(fBasePathID + index)));
SkASSERT(GR_GL_FALSE == isPath);
GrGLPath::InitPathObject(gpu, fBasePathID + index, skPath, this->getStroke());
// TODO: Use a better approximation for the individual path sizes.
fGpuMemorySize += 100;
}
void GrGLPathRendering::onStencilPath(const StencilPathArgs& args, const GrPath* path) {
GrGLGpu* gpu = this->gpu();
SkASSERT(gpu->caps()->shaderCaps()->pathRenderingSupport());
gpu->flushColorWrite(false);
gpu->flushDrawFace(GrPipelineBuilder::kBoth_DrawFace);
GrGLRenderTarget* rt = static_cast<GrGLRenderTarget*>(args.fRenderTarget);
SkISize size = SkISize::Make(rt->width(), rt->height());
this->setProjectionMatrix(*args.fViewMatrix, size, rt->origin());
gpu->flushScissor(*args.fScissor, rt->getViewport(), rt->origin());
gpu->flushHWAAState(rt, args.fUseHWAA);
gpu->flushRenderTarget(rt, NULL);
const GrGLPath* glPath = static_cast<const GrGLPath*>(path);
this->flushPathStencilSettings(*args.fStencil);
SkASSERT(!fHWPathStencilSettings.isTwoSided());
GrGLenum fillMode = gr_stencil_op_to_gl_path_rendering_fill_mode(
fHWPathStencilSettings.passOp(GrStencilSettings::kFront_Face));
GrGLint writeMask = fHWPathStencilSettings.writeMask(GrStencilSettings::kFront_Face);
if (glPath->shouldFill()) {
GL_CALL(StencilFillPath(glPath->pathID(), fillMode, writeMask));
}
if (glPath->shouldStroke()) {
GL_CALL(StencilStrokePath(glPath->pathID(), 0xffff, writeMask));
}
}
bool GrGLFragmentShaderBuilder::enableFeature(GLSLFeature feature) {
switch (feature) {
case kStandardDerivatives_GLSLFeature: {
GrGLGpu* gpu = fProgramBuilder->gpu();
if (!gpu->glCaps().shaderCaps()->shaderDerivativeSupport()) {
return false;
}
if (kGLES_GrGLStandard == gpu->glStandard() &&
k110_GrGLSLGeneration == gpu->glslGeneration()) {
this->addFeature(1 << kStandardDerivatives_GLSLFeature,
"GL_OES_standard_derivatives");
}
return true;
}
default:
SkFAIL("Unexpected GLSLFeature requested.");
return false;
}
}
const char* GrGLFragmentShaderBuilder::dstColor() {
fHasReadDstColor = true;
GrGLGpu* gpu = fProgramBuilder->gpu();
if (gpu->glCaps().glslCaps()->fbFetchSupport()) {
this->addFeature(1 << (GrGLFragmentShaderBuilder::kLastGLSLPrivateFeature + 1),
gpu->glCaps().glslCaps()->fbFetchExtensionString());
// Some versions of this extension string require declaring custom color output on ES 3.0+
const char* fbFetchColorName = gpu->glCaps().glslCaps()->fbFetchColorName();
if (gpu->glCaps().glslCaps()->fbFetchNeedsCustomOutput()) {
this->enableCustomOutput();
fOutputs[fCustomColorOutputIndex].setTypeModifier(GrShaderVar::kInOut_TypeModifier);
fbFetchColorName = declared_color_output_name();
}
return fbFetchColorName;
} else {
return kDstTextureColorName;
}
}
void GrGLPathRange::onInitPath(int index, const SkPath& origSkPath) const {
GrGLGpu* gpu = static_cast<GrGLGpu*>(this->getGpu());
if (NULL == gpu) {
return;
}
// Make sure the path at this index hasn't been initted already.
SkDEBUGCODE(
GrGLboolean isPath;
GR_GL_CALL_RET(gpu->glInterface(), isPath, IsPath(fBasePathID + index)));
SkASSERT(GR_GL_FALSE == isPath);
const SkPath* skPath = &origSkPath;
SkTLazy<SkPath> tmpPath;
const GrStrokeInfo* stroke = &fStroke;
GrStrokeInfo tmpStroke(SkStrokeRec::kFill_InitStyle);
// Dashing must be applied to the path. However, if dashing is present,
// we must convert all the paths to fills. The GrStrokeInfo::applyDash leaves
// simple paths as strokes but converts other paths to fills.
// Thus we must stroke the strokes here, so that all paths in the
// path range are using the same style.
if (fStroke.isDashed()) {
if (!stroke->applyDashToPath(tmpPath.init(), &tmpStroke, *skPath)) {
return;
}
skPath = tmpPath.get();
stroke = &tmpStroke;
if (tmpStroke.needToApply()) {
if (!tmpStroke.applyToPath(tmpPath.get(), *tmpPath.get())) {
return;
}
tmpStroke.setFillStyle();
}
}
GrGLPath::InitPathObject(gpu, fBasePathID + index, *skPath, *stroke);
// TODO: Use a better approximation for the individual path sizes.
fGpuMemorySize += 100;
}
bool GrGLProgramBuilder::compileAndAttachShaders(GrGLSLShaderBuilder& shader,
GrGLuint programId,
GrGLenum type,
SkTDArray<GrGLuint>* shaderIds) {
GrGLGpu* gpu = this->gpu();
GrGLuint shaderId = GrGLCompileAndAttachShader(gpu->glContext(),
programId,
type,
shader.fCompilerStrings.begin(),
shader.fCompilerStringLengths.begin(),
shader.fCompilerStrings.count(),
gpu->stats());
if (!shaderId) {
return false;
}
*shaderIds->append() = shaderId;
return true;
}
bool GrGLVertexBuilder::compileAndAttachShaders(GrGLuint programId,
SkTDArray<GrGLuint>* shaderIds) const {
GrGLGpu* gpu = fProgramBuilder->gpu();
const GrGLContext& glCtx = gpu->glContext();
const GrGLContextInfo& ctxInfo = gpu->ctxInfo();
SkString vertShaderSrc(GrGetGLSLVersionDecl(ctxInfo));
fProgramBuilder->appendUniformDecls(GrGLProgramBuilder::kVertex_Visibility, &vertShaderSrc);
this->appendDecls(fInputs, &vertShaderSrc);
this->appendDecls(fOutputs, &vertShaderSrc);
vertShaderSrc.append("void main() {");
vertShaderSrc.append(fCode);
vertShaderSrc.append("}\n");
GrGLuint vertShaderId = GrGLCompileAndAttachShader(glCtx, programId,
GR_GL_VERTEX_SHADER, vertShaderSrc,
gpu->gpuStats());
if (!vertShaderId) {
return false;
}
*shaderIds->append() = vertShaderId;
return true;
}
bool GrGLFragmentShaderBuilder::compileAndAttachShaders(GrGLuint programId,
SkTDArray<GrGLuint>* shaderIds) const {
GrGLGpu* gpu = fProgramBuilder->gpu();
SkString fragShaderSrc(GrGetGLSLVersionDecl(gpu->ctxInfo()));
fragShaderSrc.append(fExtensions);
append_default_precision_qualifier(kDefault_GrSLPrecision,
gpu->glStandard(),
&fragShaderSrc);
fProgramBuilder->appendUniformDecls(GrGLProgramBuilder::kFragment_Visibility, &fragShaderSrc);
this->appendDecls(fInputs, &fragShaderSrc);
// We shouldn't have declared outputs on 1.10
SkASSERT(k110_GrGLSLGeneration != gpu->glslGeneration() || fOutputs.empty());
this->appendDecls(fOutputs, &fragShaderSrc);
fragShaderSrc.append(fFunctions);
fragShaderSrc.append("void main() {\n");
fragShaderSrc.append(fCode);
fragShaderSrc.append("}\n");
GrGLuint fragShaderId = GrGLCompileAndAttachShader(gpu->glContext(), programId,
GR_GL_FRAGMENT_SHADER, fragShaderSrc,
gpu->gpuStats());
if (!fragShaderId) {
return false;
}
*shaderIds->append() = fragShaderId;
return true;
}
const char* GrGLFragmentShaderBuilder::dstColor() {
fHasReadDstColor = true;
GrGLGpu* gpu = fProgramBuilder->gpu();
if (gpu->glCaps().fbFetchSupport()) {
this->addFeature(1 << (GrGLFragmentShaderBuilder::kLastGLSLPrivateFeature + 1),
gpu->glCaps().fbFetchExtensionString());
// On ES 3.0 we have to declare this, and use the custom color output name
const char* fbFetchColorName = gpu->glCaps().fbFetchColorName();
if (gpu->glslGeneration() >= k330_GrGLSLGeneration) {
this->enableCustomOutput();
fOutputs[fCustomColorOutputIndex].setTypeModifier(GrShaderVar::kInOut_TypeModifier);
fbFetchColorName = declared_color_output_name();
}
return fbFetchColorName;
} else if (fProgramBuilder->fUniformHandles.fDstCopySamplerUni.isValid()) {
return kDstCopyColorName;
} else {
return "";
}
}
bool GrGLRenderTarget::completeStencilAttachment() {
GrGLGpu* gpu = this->getGLGpu();
const GrGLInterface* interface = gpu->glInterface();
GrStencilAttachment* stencil = this->renderTargetPriv().getStencilAttachment();
if (nullptr == stencil) {
GR_GL_CALL(interface, FramebufferRenderbuffer(GR_GL_FRAMEBUFFER,
GR_GL_STENCIL_ATTACHMENT,
GR_GL_RENDERBUFFER, 0));
GR_GL_CALL(interface, FramebufferRenderbuffer(GR_GL_FRAMEBUFFER,
GR_GL_DEPTH_ATTACHMENT,
GR_GL_RENDERBUFFER, 0));
#ifdef SK_DEBUG
if (kChromium_GrGLDriver != gpu->glContext().driver()) {
// This check can cause problems in Chromium if the context has been asynchronously
// abandoned (see skbug.com/5200)
GrGLenum status;
GR_GL_CALL_RET(interface, status, CheckFramebufferStatus(GR_GL_FRAMEBUFFER));
SkASSERT(GR_GL_FRAMEBUFFER_COMPLETE == status);
}
#endif
return true;
} else {
const GrGLStencilAttachment* glStencil = static_cast<const GrGLStencilAttachment*>(stencil);
GrGLuint rb = glStencil->renderbufferID();
gpu->invalidateBoundRenderTarget();
gpu->stats()->incRenderTargetBinds();
GR_GL_CALL(interface, BindFramebuffer(GR_GL_FRAMEBUFFER, this->renderFBOID()));
GR_GL_CALL(interface, FramebufferRenderbuffer(GR_GL_FRAMEBUFFER,
GR_GL_STENCIL_ATTACHMENT,
GR_GL_RENDERBUFFER, rb));
if (glStencil->format().fPacked) {
GR_GL_CALL(interface, FramebufferRenderbuffer(GR_GL_FRAMEBUFFER,
GR_GL_DEPTH_ATTACHMENT,
GR_GL_RENDERBUFFER, rb));
} else {
GR_GL_CALL(interface, FramebufferRenderbuffer(GR_GL_FRAMEBUFFER,
GR_GL_DEPTH_ATTACHMENT,
GR_GL_RENDERBUFFER, 0));
}
#ifdef SK_DEBUG
if (kChromium_GrGLDriver != gpu->glContext().driver()) {
// This check can cause problems in Chromium if the context has been asynchronously
// abandoned (see skbug.com/5200)
GrGLenum status;
GR_GL_CALL_RET(interface, status, CheckFramebufferStatus(GR_GL_FRAMEBUFFER));
SkASSERT(GR_GL_FRAMEBUFFER_COMPLETE == status);
}
#endif
return true;
}
}
DEF_GPUTEST_FOR_RENDERING_CONTEXTS(EmptySurfaceSemaphoreTest, reporter, ctxInfo) {
GrContext* ctx = ctxInfo.grContext();
if (!ctx->caps()->fenceSyncSupport()) {
return;
}
const SkImageInfo ii = SkImageInfo::Make(MAIN_W, MAIN_H, kRGBA_8888_SkColorType,
kPremul_SkAlphaType);
sk_sp<SkSurface> mainSurface(SkSurface::MakeRenderTarget(ctx, SkBudgeted::kNo,
ii, 0, kTopLeft_GrSurfaceOrigin,
nullptr));
// Flush surface once without semaphores to make sure there is no peneding IO for it.
mainSurface->flush();
GrBackendSemaphore semaphore;
GrSemaphoresSubmitted submitted = mainSurface->flushAndSignalSemaphores(1, &semaphore);
REPORTER_ASSERT(reporter, GrSemaphoresSubmitted::kYes == submitted);
if (kOpenGL_GrBackend == ctxInfo.backend()) {
GrGLGpu* gpu = static_cast<GrGLGpu*>(ctx->contextPriv().getGpu());
const GrGLInterface* interface = gpu->glInterface();
GrGLsync sync = semaphore.glSync();
REPORTER_ASSERT(reporter, sync);
bool result;
GR_GL_CALL_RET(interface, result, IsSync(sync));
REPORTER_ASSERT(reporter, result);
}
#ifdef SK_VULKAN
if (kVulkan_GrBackend == ctxInfo.backend()) {
GrVkGpu* gpu = static_cast<GrVkGpu*>(ctx->contextPriv().getGpu());
const GrVkInterface* interface = gpu->vkInterface();
VkDevice device = gpu->device();
VkQueue queue = gpu->queue();
VkCommandPool cmdPool = gpu->cmdPool();
VkCommandBuffer cmdBuffer;
// Create Command Buffer
const VkCommandBufferAllocateInfo cmdInfo = {
VK_STRUCTURE_TYPE_COMMAND_BUFFER_ALLOCATE_INFO, // sType
nullptr, // pNext
cmdPool, // commandPool
VK_COMMAND_BUFFER_LEVEL_PRIMARY, // level
1 // bufferCount
};
VkResult err = GR_VK_CALL(interface, AllocateCommandBuffers(device, &cmdInfo, &cmdBuffer));
if (err) {
return;
}
VkCommandBufferBeginInfo cmdBufferBeginInfo;
memset(&cmdBufferBeginInfo, 0, sizeof(VkCommandBufferBeginInfo));
cmdBufferBeginInfo.sType = VK_STRUCTURE_TYPE_COMMAND_BUFFER_BEGIN_INFO;
cmdBufferBeginInfo.pNext = nullptr;
cmdBufferBeginInfo.flags = VK_COMMAND_BUFFER_USAGE_ONE_TIME_SUBMIT_BIT;
cmdBufferBeginInfo.pInheritanceInfo = nullptr;
GR_VK_CALL_ERRCHECK(interface, BeginCommandBuffer(cmdBuffer, &cmdBufferBeginInfo));
GR_VK_CALL_ERRCHECK(interface, EndCommandBuffer(cmdBuffer));
VkFenceCreateInfo fenceInfo;
VkFence fence;
memset(&fenceInfo, 0, sizeof(VkFenceCreateInfo));
fenceInfo.sType = VK_STRUCTURE_TYPE_FENCE_CREATE_INFO;
err = GR_VK_CALL(interface, CreateFence(device, &fenceInfo, nullptr, &fence));
SkASSERT(!err);
VkPipelineStageFlags waitStages = VK_PIPELINE_STAGE_ALL_COMMANDS_BIT;
VkSubmitInfo submitInfo;
memset(&submitInfo, 0, sizeof(VkSubmitInfo));
submitInfo.sType = VK_STRUCTURE_TYPE_SUBMIT_INFO;
submitInfo.pNext = nullptr;
submitInfo.waitSemaphoreCount = 1;
VkSemaphore vkSem = semaphore.vkSemaphore();
submitInfo.pWaitSemaphores = &vkSem;
submitInfo.pWaitDstStageMask = &waitStages;
submitInfo.commandBufferCount = 1;
submitInfo.pCommandBuffers = &cmdBuffer;
submitInfo.signalSemaphoreCount = 0;
submitInfo.pSignalSemaphores = nullptr;
GR_VK_CALL_ERRCHECK(interface, QueueSubmit(queue, 1, &submitInfo, fence));
err = GR_VK_CALL(interface, WaitForFences(device, 1, &fence, true, 3000000000));
REPORTER_ASSERT(reporter, err != VK_TIMEOUT);
GR_VK_CALL(interface, DestroyFence(device, fence, nullptr));
GR_VK_CALL(interface, DestroySemaphore(device, vkSem, nullptr));
// If the above test fails the wait semaphore will never be signaled which can cause the
// device to hang when tearing down (even if just tearing down GL). So we Fail here to
// kill things.
if (err == VK_TIMEOUT) {
SK_ABORT("Waiting on semaphore indefinitely");
}
}
#endif
}
GrContext* GrContextFactory::get(GLContextType type, GrGLStandard forcedGpuAPI) {
for (int i = 0; i < fContexts.count(); ++i) {
if (forcedGpuAPI != kNone_GrGLStandard &&
forcedGpuAPI != fContexts[i].fGLContext->gl()->fStandard)
continue;
if (fContexts[i].fType == type) {
fContexts[i].fGLContext->makeCurrent();
return fContexts[i].fGrContext;
}
}
SkAutoTUnref<SkGLContext> glCtx;
SkAutoTUnref<GrContext> grCtx;
switch (type) {
case kNVPR_GLContextType: // fallthru
case kNative_GLContextType:
glCtx.reset(SkCreatePlatformGLContext(forcedGpuAPI));
break;
#ifdef SK_ANGLE
case kANGLE_GLContextType:
glCtx.reset(SkANGLEGLContext::Create(forcedGpuAPI));
break;
#endif
#ifdef SK_MESA
case kMESA_GLContextType:
glCtx.reset(SkMesaGLContext::Create(forcedGpuAPI));
break;
#endif
case kNull_GLContextType:
glCtx.reset(SkNullGLContext::Create(forcedGpuAPI));
break;
case kDebug_GLContextType:
glCtx.reset(SkDebugGLContext::Create(forcedGpuAPI));
break;
}
if (NULL == glCtx.get()) {
return NULL;
}
SkASSERT(glCtx->isValid());
// Block NVPR from non-NVPR types.
SkAutoTUnref<const GrGLInterface> glInterface(SkRef(glCtx->gl()));
if (kNVPR_GLContextType != type) {
glInterface.reset(GrGLInterfaceRemoveNVPR(glInterface));
if (!glInterface) {
return NULL;
}
} else {
if (!glInterface->hasExtension("GL_NV_path_rendering")) {
return NULL;
}
}
glCtx->makeCurrent();
GrBackendContext p3dctx = reinterpret_cast<GrBackendContext>(glInterface.get());
grCtx.reset(GrContext::Create(kOpenGL_GrBackend, p3dctx, fGlobalOptions));
if (!grCtx.get()) {
return NULL;
}
// Warn if path rendering support is not available for the NVPR type.
if (kNVPR_GLContextType == type) {
if (!grCtx->caps()->shaderCaps()->pathRenderingSupport()) {
GrGLGpu* gpu = static_cast<GrGLGpu*>(grCtx->getGpu());
const GrGLubyte* verUByte;
GR_GL_CALL_RET(gpu->glInterface(), verUByte, GetString(GR_GL_VERSION));
const char* ver = reinterpret_cast<const char*>(verUByte);
SkDebugf("\nWARNING: nvprmsaa config requested, but driver path rendering support not"
" available. Maybe update the driver? Your driver version string: \"%s\"\n", ver);
}
}
GPUContext& ctx = fContexts.push_back();
ctx.fGLContext = glCtx.get();
ctx.fGLContext->ref();
ctx.fGrContext = grCtx.get();
ctx.fGrContext->ref();
ctx.fType = type;
return ctx.fGrContext;
}