bool SkAndroidFrameworkUtils::clipWithStencil(SkCanvas* canvas) {
SkRegion clipRegion;
canvas->temporary_internal_getRgnClip(&clipRegion);
if (clipRegion.isEmpty()) {
return false;
}
SkBaseDevice* device = canvas->getDevice();
if (!device) {
return false;
}
GrRenderTargetContext* rtc = device->accessRenderTargetContext();
if (!rtc) {
return false;
}
GrPaint grPaint;
grPaint.setXPFactory(GrDisableColorXPFactory::Get());
GrNoClip noClip;
static constexpr GrUserStencilSettings kDrawToStencil(
GrUserStencilSettings::StaticInit<
0x1,
GrUserStencilTest::kAlways,
0x1,
GrUserStencilOp::kReplace,
GrUserStencilOp::kReplace,
0x1>()
);
rtc->drawRegion(noClip, std::move(grPaint), GrAA::kNo, SkMatrix::I(), clipRegion,
GrStyle::SimpleFill(), &kDrawToStencil);
return true;
}
void onDraw(SkCanvas* canvas) override {
GrRenderTargetContext* renderTargetContext =
canvas->internal_private_accessTopLayerRenderTargetContext();
if (!renderTargetContext) {
skiagm::GM::DrawGpuOnlyMessage(canvas);
return;
}
GrContext* context = canvas->getGrContext();
if (!context) {
return;
}
GrProxyProvider* proxyProvider = context->contextPriv().proxyProvider();
sk_sp<GrTextureProxy> proxy[3];
for (int i = 0; i < 3; ++i) {
int index = (0 == i) ? 0 : 1;
GrSurfaceDesc desc;
desc.fWidth = fBmp[index].width();
desc.fHeight = fBmp[index].height();
desc.fConfig = SkImageInfo2GrPixelConfig(fBmp[index].info(), *context->caps());
SkASSERT(kUnknown_GrPixelConfig != desc.fConfig);
proxy[i] = proxyProvider->createTextureProxy(
desc, SkBudgeted::kYes, fBmp[index].getPixels(), fBmp[index].rowBytes());
if (!proxy[i]) {
return;
}
}
constexpr SkScalar kDrawPad = 10.f;
constexpr SkScalar kTestPad = 10.f;
constexpr SkScalar kColorSpaceOffset = 36.f;
SkISize sizes[3] = {{YSIZE, YSIZE}, {USIZE, USIZE}, {VSIZE, VSIZE}};
for (int space = kJPEG_SkYUVColorSpace; space <= kLastEnum_SkYUVColorSpace; ++space) {
SkRect renderRect =
SkRect::MakeWH(SkIntToScalar(fBmp[0].width()), SkIntToScalar(fBmp[0].height()));
renderRect.outset(kDrawPad, kDrawPad);
SkScalar y = kDrawPad + kTestPad + space * kColorSpaceOffset;
SkScalar x = kDrawPad + kTestPad;
GrPaint grPaint;
grPaint.setXPFactory(GrPorterDuffXPFactory::Get(SkBlendMode::kSrc));
auto fp = GrYUVtoRGBEffect::Make(proxy[0], proxy[1], proxy[2], sizes,
static_cast<SkYUVColorSpace>(space), true);
if (fp) {
SkMatrix viewMatrix;
viewMatrix.setTranslate(x, y);
grPaint.addColorFragmentProcessor(std::move(fp));
std::unique_ptr<GrDrawOp> op(GrRectOpFactory::MakeNonAAFill(
std::move(grPaint), viewMatrix, renderRect, GrAAType::kNone));
renderTargetContext->priv().testingOnly_addDrawOp(std::move(op));
}
}
}
bool SkSurface_Gpu::onDraw(const SkDeferredDisplayList* ddl) {
if (!ddl || !this->isCompatible(ddl->characterization())) {
return false;
}
GrRenderTargetContext* rtc = fDevice->accessRenderTargetContext();
GrContext* ctx = fDevice->context();
ctx->contextPriv().copyOpListsFromDDL(ddl, rtc->asRenderTargetProxy());
return true;
}
static GrRenderTarget* prepare_rt_for_external_access(SkSurface_Gpu* surface,
SkSurface::BackendHandleAccess access) {
switch (access) {
case SkSurface::kFlushRead_BackendHandleAccess:
break;
case SkSurface::kFlushWrite_BackendHandleAccess:
case SkSurface::kDiscardWrite_BackendHandleAccess:
// for now we don't special-case on Discard, but we may in the future.
surface->notifyContentWillChange(SkSurface::kRetain_ContentChangeMode);
break;
}
// Grab the render target *after* firing notifications, as it may get switched if CoW kicks in.
surface->getDevice()->flush();
GrRenderTargetContext* rtc = surface->getDevice()->accessRenderTargetContext();
return rtc->accessRenderTarget();
}
bool SkSurface_Gpu::onDraw(const SkDeferredDisplayList* ddl) {
if (!ddl || !this->isCompatible(ddl->characterization())) {
return false;
}
#ifdef SK_RASTER_RECORDER_IMPLEMENTATION
// Ultimately need to pass opLists from the DeferredDisplayList on to the
// SkGpuDevice's renderTargetContext.
return ddl->draw(this);
#else
GrRenderTargetContext* rtc = fDevice->accessRenderTargetContext();
GrContext* ctx = fDevice->context();
ctx->contextPriv().copyOpListsFromDDL(ddl, rtc->asRenderTargetProxy());
return true;
#endif
}
// Create a new render target and, if necessary, copy the contents of the old
// render target into it. Note that this flushes the SkGpuDevice but
// doesn't force an OpenGL flush.
void SkSurface_Gpu::onCopyOnWrite(ContentChangeMode mode) {
GrRenderTargetContext* rtc = fDevice->accessRenderTargetContext();
// are we sharing our backing proxy with the image? Note this call should never create a new
// image because onCopyOnWrite is only called when there is a cached image.
sk_sp<SkImage> image(this->refCachedImage());
SkASSERT(image);
GrSurfaceProxy* imageProxy = ((SkImage_Base*) image.get())->peekProxy();
SkASSERT(imageProxy);
if (rtc->asSurfaceProxy()->underlyingUniqueID() == imageProxy->underlyingUniqueID()) {
fDevice->replaceRenderTargetContext(SkSurface::kRetain_ContentChangeMode == mode);
} else if (kDiscard_ContentChangeMode == mode) {
this->SkSurface_Gpu::onDiscard();
}
}
void onDraw(int loops, SkCanvas* canvas) override {
static const SkRect kPartialClip = SkRect::MakeLTRB(50, 50, 400, 400);
static const SkRRect kComplexClip = SkRRect::MakeRectXY(kPartialClip, 15, 15);
// Small to limit fill cost, but intersects the clips to confound batching
static const SkRect kInterruptRect = SkRect::MakeXYWH(200, 200, 3, 3);
// For the draw that sits between consecutive clears, use a shader that is simple but
// requires local coordinates so that Ganesh does not convert it into a solid color rect,
// which could then turn into a scissored-clear behind the scenes.
SkPaint interruptPaint;
interruptPaint.setShader(make_shader());
GrRenderTargetContext* rtc = canvas->internal_private_accessTopLayerRenderTargetContext();
if (rtc) {
// Tricks the GrRenderTargetOpList into thinking it cannot reset its draw op list on
// a fullscreen clear. If we don't do this, fullscreen clear ops would be created and
// constantly discard the previous iteration's op so execution would only invoke one
// actual clear on the GPU (not what we want to measure).
rtc->setNeedsStencil();
}
for (int i = 0; i < loops; i++) {
canvas->save();
switch(fType) {
case kPartial_ClearType:
canvas->clipRect(kPartialClip);
break;
case kComplex_ClearType:
canvas->clipRRect(kComplexClip);
break;
case kFull_ClearType:
// Don't add any extra clipping, since it defaults to the entire "device"
break;
}
// The clear we care about measuring
canvas->clear(SK_ColorBLUE);
canvas->restore();
// Perform as minimal a draw as possible that intersects with the clear region in
// order to prevent the clear ops from being batched together.
canvas->drawRect(kInterruptRect, interruptPaint);
}
}
sk_sp<SkImage> SkSurface_Gpu::onNewImageSnapshot() {
GrRenderTargetContext* rtc = fDevice->accessRenderTargetContext();
if (!rtc) {
return nullptr;
}
GrContext* ctx = fDevice->context();
if (!rtc->asSurfaceProxy()) {
return nullptr;
}
SkBudgeted budgeted = rtc->asSurfaceProxy()->isBudgeted();
sk_sp<GrTextureProxy> srcProxy = rtc->asTextureProxyRef();
// If the original render target is a buffer originally created by the client, then we don't
// want to ever retarget the SkSurface at another buffer we create. Force a copy now to avoid
// copy-on-write.
if (!srcProxy || rtc->priv().refsWrappedObjects()) {
SkASSERT(rtc->origin() == rtc->asSurfaceProxy()->origin());
srcProxy = GrSurfaceProxy::Copy(ctx, rtc->asSurfaceProxy(), rtc->mipMapped(), budgeted);
}
const SkImageInfo info = fDevice->imageInfo();
sk_sp<SkImage> image;
if (srcProxy) {
// The renderTargetContext coming out of SkGpuDevice should always be exact and the
// above copy creates a kExact surfaceContext.
SkASSERT(srcProxy->priv().isExact());
image = sk_make_sp<SkImage_Gpu>(ctx, kNeedNewImageUniqueID,
info.alphaType(), std::move(srcProxy),
info.refColorSpace(), budgeted);
}
return image;
}
bool SkSurface_Gpu::isCompatible(const SkSurfaceCharacterization& data) const {
GrRenderTargetContext* rtc = fDevice->accessRenderTargetContext();
GrContext* ctx = fDevice->context();
if (!data.isValid()) {
return false;
}
// As long as the current state if the context allows for greater or equal resources,
// we allow the DDL to be replayed.
// DDL TODO: should we just remove the resource check and ignore the cache limits on playback?
int maxResourceCount;
size_t maxResourceBytes;
ctx->getResourceCacheLimits(&maxResourceCount, &maxResourceBytes);
if (data.isTextureable()) {
if (!rtc->asTextureProxy()) {
// If the characterization was textureable we require the replay dest to also be
// textureable. If the characterized surface wasn't textureable we allow the replay
// dest to be textureable.
return false;
}
if (data.isMipMapped() && GrMipMapped::kNo == rtc->asTextureProxy()->mipMapped()) {
// Fail if the DDL's surface was mipmapped but the replay surface is not.
// Allow drawing to proceed if the DDL was not mipmapped but the replay surface is.
return false;
}
}
return data.contextInfo() && data.contextInfo()->matches(ctx) &&
data.cacheMaxResourceBytes() <= maxResourceBytes &&
data.origin() == rtc->origin() && data.width() == rtc->width() &&
data.height() == rtc->height() && data.config() == rtc->colorSpaceInfo().config() &&
data.fsaaType() == rtc->fsaaType() && data.stencilCount() == rtc->numStencilSamples() &&
SkColorSpace::Equals(data.colorSpace(), rtc->colorSpaceInfo().colorSpace()) &&
data.surfaceProps() == rtc->surfaceProps();
}
bool SkSurface_Gpu::onCharacterize(SkSurfaceCharacterization* data) const {
GrRenderTargetContext* rtc = fDevice->accessRenderTargetContext();
GrContext* ctx = fDevice->context();
int maxResourceCount;
size_t maxResourceBytes;
ctx->getResourceCacheLimits(&maxResourceCount, &maxResourceBytes);
bool mipmapped = rtc->asTextureProxy() ? GrMipMapped::kYes == rtc->asTextureProxy()->mipMapped()
: false;
data->set(ctx->threadSafeProxy(), maxResourceBytes,
rtc->origin(), rtc->width(), rtc->height(),
rtc->colorSpaceInfo().config(), rtc->fsaaType(), rtc->numStencilSamples(),
SkSurfaceCharacterization::Textureable(SkToBool(rtc->asTextureProxy())),
SkSurfaceCharacterization::MipMapped(mipmapped),
rtc->colorSpaceInfo().refColorSpace(), this->props());
return true;
}