gecko-dev/gfx/layers/ipc/ShadowLayers.cpp

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/* -*- Mode: C++; tab-width: 8; indent-tabs-mode: nil; c-basic-offset: 2 -*- */
/* vim: set ts=8 sts=2 et sw=2 tw=80: */
2012-05-21 15:12:37 +04:00
/* 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 "ClientLayerManager.h" // for ClientLayerManager
#include "ShadowLayers.h"
#include <set> // for _Rb_tree_const_iterator, etc
#include <vector> // for vector
Bug 1375392 - Tweak the PROFILER_LABEL* macros. r=mstange. This patch makes the following changes to the macros. - Removes PROFILER_LABEL_FUNC. It's only suitable for use in functions outside classes, due to PROFILER_FUNCTION_NAME not getting class names, and it was mostly misused. - Removes PROFILER_FUNCTION_NAME. It's no longer used, and __func__ is universally available now anyway. - Combines the first two string literal arguments of PROFILER_LABEL and PROFILER_LABEL_DYNAMIC into a single argument. There was no good reason for them to be separate, and it forced a '::' in the label, which isn't always appropriate. Also, the meaning of the "name_space" argument was interpreted in an interesting variety of ways. - Adds an "AUTO_" prefix to PROFILER_LABEL and PROFILER_LABEL_DYNAMIC, to make it clearer they construct RAII objects rather than just being function calls. (I myself have screwed up the scoping because of this in the past.) - Fills in the 'js::ProfileEntry::Category::' qualifier within the macro, so the caller doesn't need to. This makes a *lot* more of the uses fit onto a single line. The patch also makes the following changes to the macro uses (beyond those required by the changes described above). - Fixes a bunch of labels that had gotten out of sync with the name of the class and/or function that encloses them. - Removes a useless PROFILER_LABEL use within a trivial scope in EventStateManager::DispatchMouseOrPointerEvent(). It clearly wasn't serving any useful purpose. It also serves as extra evidence that the AUTO_ prefix is a good idea. - Tweaks DecodePool::SyncRunIf{Preferred,Possible} so that the labelling is done within them, instead of at their callsites, because that's a more standard way of doing things. --HG-- extra : rebase_source : 318d1bc6fc1425a94aacbf489dd46e4f83211de4
2017-06-22 10:08:53 +03:00
#include "GeckoProfiler.h" // for AUTO_PROFILER_LABEL
#include "ISurfaceAllocator.h" // for IsSurfaceDescriptorValid
#include "Layers.h" // for Layer
#include "RenderTrace.h" // for RenderTraceScope
#include "gfx2DGlue.h" // for Moz2D transition helpers
#include "gfxPlatform.h" // for gfxImageFormat, gfxPlatform
//#include "gfxSharedImageSurface.h" // for gfxSharedImageSurface
#include "ipc/IPCMessageUtils.h" // for gfxContentType, null_t
#include "IPDLActor.h"
#include "mozilla/Assertions.h" // for MOZ_ASSERT, etc
#include "mozilla/dom/TabGroup.h"
#include "mozilla/gfx/Point.h" // for IntSize
#include "mozilla/layers/CompositableClient.h" // for CompositableClient, etc
#include "mozilla/layers/CompositorBridgeChild.h"
#include "mozilla/layers/ContentClient.h"
#include "mozilla/layers/ImageDataSerializer.h"
#include "mozilla/layers/ImageBridgeChild.h"
#include "mozilla/layers/LayersMessages.h" // for Edit, etc
#include "mozilla/layers/LayersSurfaces.h" // for SurfaceDescriptor, etc
#include "mozilla/layers/LayersTypes.h" // for MOZ_LAYERS_LOG
#include "mozilla/layers/LayerTransactionChild.h"
#include "mozilla/layers/PTextureChild.h"
#include "mozilla/layers/SyncObject.h"
Bug 1265824 - Wait on texture handles with IPC r=jld,mattwoodrow There's a lot going on here, but it all fits under the idea of being able to communicate about texture locking statuses without spinning on IsReadLocked. This is a bit of a trade - we could just always allocate/grab a texture from the pool, which would put a smaller cap on the amount of time we can possibly spend when a texture is locked. However, this eats up more CPU and memory than waiting on the textures to unlock, and could take longer, especially if there were a large number of textures which we just need to wait for for a short amount of time. In any case, we very rarely hit the case where we actually need to wait on the sync IPC to the compositor - most of the time the textures are already unlocked. There is also an async IPC call in here, which we make before flushing async paints. This just causes the compositor to check whether the GPU is done with its textures or not and unlock them if it is. This helps us avoid the case where we take a long time painting asynchronously, turn IPC back on at the end of that, and then have to wait for the compositor to to get into TiledLayerBufferComposite::UseTiles before getting a response. Specifically this eliminates several talos regressions which use ASAP mode. Lastly, there seem to be no other cases of static Monitors being used. This seems like it falls under similar use cases as StaticMutexes, so I added it in. I can move it into its own file if we think it might be generally useful in the future. MozReview-Commit-ID: IYQLwUqMxg2 --HG-- extra : rebase_source : 4f05832f51dae6db98773dcad03cb008a80eca6c
2018-05-06 01:46:26 +03:00
#ifdef XP_DARWIN
# include "mozilla/layers/TextureSync.h"
#endif
#include "ShadowLayerUtils.h"
#include "mozilla/layers/TextureClient.h" // for TextureClient
#include "mozilla/mozalloc.h" // for operator new, etc
#include "nsTArray.h" // for AutoTArray, nsTArray, etc
#include "nsXULAppAPI.h" // for XRE_GetProcessType, etc
#include "mozilla/ReentrantMonitor.h"
namespace mozilla {
namespace ipc {
class Shmem;
} // namespace ipc
namespace layers {
using namespace mozilla::gfx;
using namespace mozilla::gl;
using namespace mozilla::ipc;
class ClientTiledLayerBuffer;
typedef nsTArray<SurfaceDescriptor> BufferArray;
typedef nsTArray<Edit> EditVector;
typedef nsTHashtable<nsPtrHashKey<ShadowableLayer>> ShadowableLayerSet;
typedef nsTArray<OpDestroy> OpDestroyVector;
class Transaction {
public:
Transaction()
: mTargetRotation(ROTATION_0),
mTargetOrientation(hal::eScreenOrientation_None),
mOpen(false),
mRotationChanged(false) {}
void Begin(const gfx::IntRect& aTargetBounds, ScreenRotation aRotation,
hal::ScreenOrientation aOrientation) {
mOpen = true;
mTargetBounds = aTargetBounds;
if (aRotation != mTargetRotation) {
// the first time this is called, mRotationChanged will be false if
// aRotation is 0, but we should be OK because for the first transaction
// we should only compose if it is non-empty. See the caller(s) of
// RotationChanged.
mRotationChanged = true;
}
mTargetRotation = aRotation;
mTargetOrientation = aOrientation;
}
void AddEdit(const Edit& aEdit) {
MOZ_ASSERT(!Finished(), "forgot BeginTransaction?");
mCset.AppendElement(aEdit);
}
void AddEdit(const CompositableOperation& aEdit) { AddEdit(Edit(aEdit)); }
void AddNoSwapPaint(const CompositableOperation& aPaint) {
MOZ_ASSERT(!Finished(), "forgot BeginTransaction?");
mPaints.AppendElement(Edit(aPaint));
}
void AddMutant(ShadowableLayer* aLayer) {
MOZ_ASSERT(!Finished(), "forgot BeginTransaction?");
mMutants.PutEntry(aLayer);
}
void AddSimpleMutant(ShadowableLayer* aLayer) {
MOZ_ASSERT(!Finished(), "forgot BeginTransaction?");
mSimpleMutants.PutEntry(aLayer);
}
void End() {
mCset.Clear();
mPaints.Clear();
mMutants.Clear();
mSimpleMutants.Clear();
mDestroyedActors.Clear();
mOpen = false;
mRotationChanged = false;
}
bool Empty() const {
return mCset.IsEmpty() && mPaints.IsEmpty() && mMutants.IsEmpty() &&
mSimpleMutants.IsEmpty() && mDestroyedActors.IsEmpty();
}
bool RotationChanged() const { return mRotationChanged; }
bool Finished() const { return !mOpen && Empty(); }
bool Opened() const { return mOpen; }
EditVector mCset;
nsTArray<CompositableOperation> mPaints;
OpDestroyVector mDestroyedActors;
ShadowableLayerSet mMutants;
ShadowableLayerSet mSimpleMutants;
gfx::IntRect mTargetBounds;
ScreenRotation mTargetRotation;
hal::ScreenOrientation mTargetOrientation;
private:
bool mOpen;
bool mRotationChanged;
// disabled
Transaction(const Transaction&);
Transaction& operator=(const Transaction&);
};
struct AutoTxnEnd final {
explicit AutoTxnEnd(Transaction* aTxn) : mTxn(aTxn) {}
~AutoTxnEnd() { mTxn->End(); }
Transaction* mTxn;
};
void KnowsCompositor::IdentifyTextureHost(
const TextureFactoryIdentifier& aIdentifier) {
mTextureFactoryIdentifier = aIdentifier;
mSyncObject =
SyncObjectClient::CreateSyncObjectClient(aIdentifier.mSyncHandle);
}
KnowsCompositor::KnowsCompositor() : mSerial(++sSerialCounter) {}
KnowsCompositor::~KnowsCompositor() {}
KnowsCompositorMediaProxy::KnowsCompositorMediaProxy(
const TextureFactoryIdentifier& aIdentifier) {
mTextureFactoryIdentifier = aIdentifier;
// overwrite mSerial's value set by the parent class because we use the same
// serial as the KnowsCompositor we are proxying.
mThreadSafeAllocator = ImageBridgeChild::GetSingleton();
mSyncObject = mThreadSafeAllocator->GetSyncObject();
}
KnowsCompositorMediaProxy::~KnowsCompositorMediaProxy() {}
TextureForwarder* KnowsCompositorMediaProxy::GetTextureForwarder() {
return mThreadSafeAllocator->GetTextureForwarder();
}
LayersIPCActor* KnowsCompositorMediaProxy::GetLayersIPCActor() {
return mThreadSafeAllocator->GetLayersIPCActor();
}
ActiveResourceTracker* KnowsCompositorMediaProxy::GetActiveResourceTracker() {
return mThreadSafeAllocator->GetActiveResourceTracker();
}
void KnowsCompositorMediaProxy::SyncWithCompositor() {
mThreadSafeAllocator->SyncWithCompositor();
}
RefPtr<KnowsCompositor> ShadowLayerForwarder::GetForMedia() {
return MakeAndAddRef<KnowsCompositorMediaProxy>(
GetTextureFactoryIdentifier());
}
ShadowLayerForwarder::ShadowLayerForwarder(
ClientLayerManager* aClientLayerManager)
: mClientLayerManager(aClientLayerManager),
mMessageLoop(MessageLoop::current()),
mDiagnosticTypes(DiagnosticTypes::NO_DIAGNOSTIC),
mIsFirstPaint(false),
mWindowOverlayChanged(false),
mNextLayerHandle(1) {
mTxn = new Transaction();
if (TabGroup* tabGroup = mClientLayerManager->GetTabGroup()) {
mEventTarget = tabGroup->EventTargetFor(TaskCategory::Other);
}
MOZ_ASSERT(mEventTarget || !XRE_IsContentProcess());
mActiveResourceTracker = MakeUnique<ActiveResourceTracker>(
1000, "CompositableForwarder", mEventTarget);
}
template <typename T>
struct ReleaseOnMainThreadTask : public Runnable {
UniquePtr<T> mObj;
explicit ReleaseOnMainThreadTask(UniquePtr<T>& aObj)
: Runnable("layers::ReleaseOnMainThreadTask"), mObj(std::move(aObj)) {}
NS_IMETHOD Run() override {
mObj = nullptr;
return NS_OK;
}
};
ShadowLayerForwarder::~ShadowLayerForwarder() {
MOZ_ASSERT(mTxn->Finished(), "unfinished transaction?");
delete mTxn;
if (mShadowManager) {
mShadowManager->SetForwarder(nullptr);
if (NS_IsMainThread()) {
mShadowManager->Destroy();
} else {
if (mEventTarget) {
mEventTarget->Dispatch(
NewRunnableMethod("LayerTransactionChild::Destroy", mShadowManager,
&LayerTransactionChild::Destroy),
nsIEventTarget::DISPATCH_NORMAL);
} else {
NS_DispatchToMainThread(
NewRunnableMethod("layers::LayerTransactionChild::Destroy",
mShadowManager, &LayerTransactionChild::Destroy));
}
}
}
if (!NS_IsMainThread()) {
RefPtr<ReleaseOnMainThreadTask<ActiveResourceTracker>> event =
new ReleaseOnMainThreadTask<ActiveResourceTracker>(
mActiveResourceTracker);
if (mEventTarget) {
mEventTarget->Dispatch(event.forget(), nsIEventTarget::DISPATCH_NORMAL);
} else {
NS_DispatchToMainThread(event);
}
}
}
void ShadowLayerForwarder::BeginTransaction(
const gfx::IntRect& aTargetBounds, ScreenRotation aRotation,
hal::ScreenOrientation aOrientation) {
MOZ_ASSERT(IPCOpen(), "no manager to forward to");
MOZ_ASSERT(mTxn->Finished(), "uncommitted txn?");
UpdateFwdTransactionId();
mTxn->Begin(aTargetBounds, aRotation, aOrientation);
}
static const LayerHandle& Shadow(ShadowableLayer* aLayer) {
return aLayer->GetShadow();
}
template <typename OpCreateT>
static void CreatedLayer(Transaction* aTxn, ShadowableLayer* aLayer) {
aTxn->AddEdit(OpCreateT(Shadow(aLayer)));
}
void ShadowLayerForwarder::CreatedPaintedLayer(ShadowableLayer* aThebes) {
CreatedLayer<OpCreatePaintedLayer>(mTxn, aThebes);
}
void ShadowLayerForwarder::CreatedContainerLayer(ShadowableLayer* aContainer) {
CreatedLayer<OpCreateContainerLayer>(mTxn, aContainer);
}
void ShadowLayerForwarder::CreatedImageLayer(ShadowableLayer* aImage) {
CreatedLayer<OpCreateImageLayer>(mTxn, aImage);
}
void ShadowLayerForwarder::CreatedColorLayer(ShadowableLayer* aColor) {
CreatedLayer<OpCreateColorLayer>(mTxn, aColor);
}
void ShadowLayerForwarder::CreatedCanvasLayer(ShadowableLayer* aCanvas) {
CreatedLayer<OpCreateCanvasLayer>(mTxn, aCanvas);
}
void ShadowLayerForwarder::CreatedRefLayer(ShadowableLayer* aRef) {
CreatedLayer<OpCreateRefLayer>(mTxn, aRef);
}
void ShadowLayerForwarder::Mutated(ShadowableLayer* aMutant) {
mTxn->AddMutant(aMutant);
}
void ShadowLayerForwarder::MutatedSimple(ShadowableLayer* aMutant) {
mTxn->AddSimpleMutant(aMutant);
}
void ShadowLayerForwarder::SetRoot(ShadowableLayer* aRoot) {
mTxn->AddEdit(OpSetRoot(Shadow(aRoot)));
}
void ShadowLayerForwarder::InsertAfter(ShadowableLayer* aContainer,
ShadowableLayer* aChild,
ShadowableLayer* aAfter) {
if (!aChild->HasShadow()) {
return;
}
while (aAfter && !aAfter->HasShadow()) {
aAfter = aAfter->AsLayer()->GetPrevSibling()
? aAfter->AsLayer()->GetPrevSibling()->AsShadowableLayer()
: nullptr;
}
if (aAfter) {
mTxn->AddEdit(
OpInsertAfter(Shadow(aContainer), Shadow(aChild), Shadow(aAfter)));
} else {
mTxn->AddEdit(OpPrependChild(Shadow(aContainer), Shadow(aChild)));
}
}
void ShadowLayerForwarder::RemoveChild(ShadowableLayer* aContainer,
ShadowableLayer* aChild) {
MOZ_LAYERS_LOG(("[LayersForwarder] OpRemoveChild container=%p child=%p\n",
aContainer->AsLayer(), aChild->AsLayer()));
if (!aChild->HasShadow()) {
return;
}
mTxn->AddEdit(OpRemoveChild(Shadow(aContainer), Shadow(aChild)));
}
void ShadowLayerForwarder::RepositionChild(ShadowableLayer* aContainer,
ShadowableLayer* aChild,
ShadowableLayer* aAfter) {
if (!aChild->HasShadow()) {
return;
}
while (aAfter && !aAfter->HasShadow()) {
aAfter = aAfter->AsLayer()->GetPrevSibling()
? aAfter->AsLayer()->GetPrevSibling()->AsShadowableLayer()
: nullptr;
}
if (aAfter) {
MOZ_LAYERS_LOG(
("[LayersForwarder] OpRepositionChild container=%p child=%p after=%p",
aContainer->AsLayer(), aChild->AsLayer(), aAfter->AsLayer()));
mTxn->AddEdit(
OpRepositionChild(Shadow(aContainer), Shadow(aChild), Shadow(aAfter)));
} else {
MOZ_LAYERS_LOG(("[LayersForwarder] OpRaiseToTopChild container=%p child=%p",
aContainer->AsLayer(), aChild->AsLayer()));
mTxn->AddEdit(OpRaiseToTopChild(Shadow(aContainer), Shadow(aChild)));
}
}
#ifdef DEBUG
void ShadowLayerForwarder::CheckSurfaceDescriptor(
const SurfaceDescriptor* aDescriptor) const {
if (!aDescriptor) {
return;
}
if (aDescriptor->type() == SurfaceDescriptor::TSurfaceDescriptorBuffer &&
aDescriptor->get_SurfaceDescriptorBuffer().data().type() ==
MemoryOrShmem::TShmem) {
const Shmem& shmem =
aDescriptor->get_SurfaceDescriptorBuffer().data().get_Shmem();
shmem.AssertInvariants();
MOZ_ASSERT(mShadowManager &&
mShadowManager->IsTrackingSharedMemory(shmem.mSegment));
}
}
#endif
void ShadowLayerForwarder::UseTiledLayerBuffer(
CompositableClient* aCompositable,
const SurfaceDescriptorTiles& aTileLayerDescriptor) {
MOZ_ASSERT(aCompositable);
if (!aCompositable->IsConnected()) {
return;
}
mTxn->AddNoSwapPaint(
CompositableOperation(aCompositable->GetIPCHandle(),
OpUseTiledLayerBuffer(aTileLayerDescriptor)));
}
void ShadowLayerForwarder::UpdateTextureRegion(
CompositableClient* aCompositable,
const ThebesBufferData& aThebesBufferData,
const nsIntRegion& aUpdatedRegion) {
MOZ_ASSERT(aCompositable);
if (!aCompositable->IsConnected()) {
return;
}
mTxn->AddNoSwapPaint(CompositableOperation(
aCompositable->GetIPCHandle(),
OpPaintTextureRegion(aThebesBufferData, aUpdatedRegion)));
}
void ShadowLayerForwarder::UseTextures(
CompositableClient* aCompositable,
const nsTArray<TimedTextureClient>& aTextures,
const Maybe<wr::RenderRoot>& aRenderRoot) {
MOZ_ASSERT(aCompositable);
if (!aCompositable->IsConnected()) {
return;
}
AutoTArray<TimedTexture, 4> textures;
for (auto& t : aTextures) {
MOZ_ASSERT(t.mTextureClient);
MOZ_ASSERT(t.mTextureClient->GetIPDLActor());
MOZ_RELEASE_ASSERT(t.mTextureClient->GetIPDLActor()->GetIPCChannel() ==
mShadowManager->GetIPCChannel());
bool readLocked = t.mTextureClient->OnForwardedToHost();
textures.AppendElement(
TimedTexture(nullptr, t.mTextureClient->GetIPDLActor(), t.mTimeStamp,
t.mPictureRect, t.mFrameID, t.mProducerID, readLocked));
mClientLayerManager->GetCompositorBridgeChild()
->HoldUntilCompositableRefReleasedIfNecessary(t.mTextureClient);
}
mTxn->AddEdit(CompositableOperation(aCompositable->GetIPCHandle(),
OpUseTexture(textures)));
}
void ShadowLayerForwarder::UseComponentAlphaTextures(
CompositableClient* aCompositable, TextureClient* aTextureOnBlack,
TextureClient* aTextureOnWhite) {
MOZ_ASSERT(aCompositable);
if (!aCompositable->IsConnected()) {
return;
}
MOZ_ASSERT(aTextureOnWhite);
MOZ_ASSERT(aTextureOnBlack);
MOZ_ASSERT(aCompositable->GetIPCHandle());
MOZ_ASSERT(aTextureOnBlack->GetIPDLActor());
MOZ_ASSERT(aTextureOnWhite->GetIPDLActor());
MOZ_ASSERT(aTextureOnBlack->GetSize() == aTextureOnWhite->GetSize());
MOZ_RELEASE_ASSERT(aTextureOnWhite->GetIPDLActor()->GetIPCChannel() ==
mShadowManager->GetIPCChannel());
MOZ_RELEASE_ASSERT(aTextureOnBlack->GetIPDLActor()->GetIPCChannel() ==
mShadowManager->GetIPCChannel());
bool readLockedB = aTextureOnBlack->OnForwardedToHost();
bool readLockedW = aTextureOnWhite->OnForwardedToHost();
mClientLayerManager->GetCompositorBridgeChild()
->HoldUntilCompositableRefReleasedIfNecessary(aTextureOnBlack);
mClientLayerManager->GetCompositorBridgeChild()
->HoldUntilCompositableRefReleasedIfNecessary(aTextureOnWhite);
mTxn->AddEdit(CompositableOperation(
aCompositable->GetIPCHandle(),
OpUseComponentAlphaTextures(nullptr, aTextureOnBlack->GetIPDLActor(),
nullptr, aTextureOnWhite->GetIPDLActor(),
readLockedB, readLockedW)));
}
static bool AddOpDestroy(Transaction* aTxn, const OpDestroy& op) {
if (!aTxn->Opened()) {
return false;
}
aTxn->mDestroyedActors.AppendElement(op);
return true;
}
bool ShadowLayerForwarder::DestroyInTransaction(PTextureChild* aTexture) {
return AddOpDestroy(mTxn, OpDestroy(aTexture));
}
bool ShadowLayerForwarder::DestroyInTransaction(
const CompositableHandle& aHandle) {
return AddOpDestroy(mTxn, OpDestroy(aHandle));
}
void ShadowLayerForwarder::RemoveTextureFromCompositable(
CompositableClient* aCompositable, TextureClient* aTexture,
const Maybe<wr::RenderRoot>& aRenderRoot) {
MOZ_ASSERT(aCompositable);
MOZ_ASSERT(aTexture);
MOZ_ASSERT(aTexture->GetIPDLActor());
MOZ_RELEASE_ASSERT(aTexture->GetIPDLActor()->GetIPCChannel() ==
mShadowManager->GetIPCChannel());
if (!aCompositable->IsConnected() || !aTexture->GetIPDLActor()) {
// We don't have an actor anymore, don't try to use it!
return;
}
mTxn->AddEdit(CompositableOperation(
aCompositable->GetIPCHandle(),
OpRemoveTexture(nullptr, aTexture->GetIPDLActor())));
}
bool ShadowLayerForwarder::InWorkerThread() {
return MessageLoop::current() &&
(GetTextureForwarder()->GetMessageLoop()->id() ==
MessageLoop::current()->id());
}
void ShadowLayerForwarder::StorePluginWidgetConfigurations(
const nsTArray<nsIWidget::Configuration>& aConfigurations) {
// Cache new plugin widget configs here until we call update, at which
// point this data will get shipped over to chrome.
mPluginWindowData.Clear();
for (uint32_t idx = 0; idx < aConfigurations.Length(); idx++) {
const nsIWidget::Configuration& configuration = aConfigurations[idx];
mPluginWindowData.AppendElement(
PluginWindowData(configuration.mWindowID, configuration.mClipRegion,
configuration.mBounds, configuration.mVisible));
}
}
void ShadowLayerForwarder::SendPaintTime(TransactionId aId,
TimeDuration aPaintTime) {
if (!IPCOpen() || !mShadowManager->SendPaintTime(aId, aPaintTime)) {
NS_WARNING("Could not send paint times over IPC");
}
}
bool ShadowLayerForwarder::EndTransaction(
const nsIntRegion& aRegionToClear, TransactionId aId,
bool aScheduleComposite, uint32_t aPaintSequenceNumber,
bool aIsRepeatTransaction, const mozilla::VsyncId& aVsyncId,
const mozilla::TimeStamp& aVsyncStart,
const mozilla::TimeStamp& aRefreshStart,
const mozilla::TimeStamp& aTransactionStart, bool aContainsSVG,
const nsCString& aURL, bool* aSent,
const nsTArray<CompositionPayload>& aPayload) {
*aSent = false;
TransactionInfo info;
MOZ_ASSERT(IPCOpen(), "no manager to forward to");
if (!IPCOpen()) {
return false;
}
Maybe<TimeStamp> startTime;
if (StaticPrefs::layers_acceleration_draw_fps()) {
startTime = Some(TimeStamp::Now());
}
GetCompositorBridgeChild()->WillEndTransaction();
MOZ_ASSERT(aId.IsValid());
Bug 1375392 - Tweak the PROFILER_LABEL* macros. r=mstange. This patch makes the following changes to the macros. - Removes PROFILER_LABEL_FUNC. It's only suitable for use in functions outside classes, due to PROFILER_FUNCTION_NAME not getting class names, and it was mostly misused. - Removes PROFILER_FUNCTION_NAME. It's no longer used, and __func__ is universally available now anyway. - Combines the first two string literal arguments of PROFILER_LABEL and PROFILER_LABEL_DYNAMIC into a single argument. There was no good reason for them to be separate, and it forced a '::' in the label, which isn't always appropriate. Also, the meaning of the "name_space" argument was interpreted in an interesting variety of ways. - Adds an "AUTO_" prefix to PROFILER_LABEL and PROFILER_LABEL_DYNAMIC, to make it clearer they construct RAII objects rather than just being function calls. (I myself have screwed up the scoping because of this in the past.) - Fills in the 'js::ProfileEntry::Category::' qualifier within the macro, so the caller doesn't need to. This makes a *lot* more of the uses fit onto a single line. The patch also makes the following changes to the macro uses (beyond those required by the changes described above). - Fixes a bunch of labels that had gotten out of sync with the name of the class and/or function that encloses them. - Removes a useless PROFILER_LABEL use within a trivial scope in EventStateManager::DispatchMouseOrPointerEvent(). It clearly wasn't serving any useful purpose. It also serves as extra evidence that the AUTO_ prefix is a good idea. - Tweaks DecodePool::SyncRunIf{Preferred,Possible} so that the labelling is done within them, instead of at their callsites, because that's a more standard way of doing things. --HG-- extra : rebase_source : 318d1bc6fc1425a94aacbf489dd46e4f83211de4
2017-06-22 10:08:53 +03:00
AUTO_PROFILER_LABEL("ShadowLayerForwarder::EndTransaction", GRAPHICS);
RenderTraceScope rendertrace("Foward Transaction", "000091");
MOZ_ASSERT(!mTxn->Finished(), "forgot BeginTransaction?");
DiagnosticTypes diagnostics =
gfxPlatform::GetPlatform()->GetLayerDiagnosticTypes();
if (mDiagnosticTypes != diagnostics) {
mDiagnosticTypes = diagnostics;
mTxn->AddEdit(OpSetDiagnosticTypes(diagnostics));
}
if (mWindowOverlayChanged) {
mTxn->AddEdit(OpWindowOverlayChanged());
}
AutoTxnEnd _(mTxn);
if (mTxn->Empty() && !mTxn->RotationChanged()) {
MOZ_LAYERS_LOG(
("[LayersForwarder] 0-length cset (?) and no rotation event, skipping "
"Update()"));
return true;
}
if (!mTxn->mPaints.IsEmpty()) {
// With some platforms, telling the drawing backend that there will be no
// more drawing for this frame helps with preventing command queues from
// spanning across multiple frames.
gfxPlatform::GetPlatform()->FlushContentDrawing();
}
MOZ_LAYERS_LOG(("[LayersForwarder] destroying buffers..."));
MOZ_LAYERS_LOG(("[LayersForwarder] building transaction..."));
nsTArray<OpSetSimpleLayerAttributes> setSimpleAttrs;
for (ShadowableLayerSet::Iterator it(&mTxn->mSimpleMutants); !it.Done();
it.Next()) {
ShadowableLayer* shadow = it.Get()->GetKey();
if (!shadow->HasShadow()) {
continue;
}
Layer* mutant = shadow->AsLayer();
setSimpleAttrs.AppendElement(OpSetSimpleLayerAttributes(
Shadow(shadow), mutant->GetSimpleAttributes()));
}
nsTArray<OpSetLayerAttributes> setAttrs;
// We purposely add attribute-change ops to the final changeset
// before we add paint ops. This allows layers to record the
// attribute changes before new pixels arrive, which can be useful
// for setting up back/front buffers.
RenderTraceScope rendertrace2("Foward Transaction", "000092");
for (ShadowableLayerSet::Iterator it(&mTxn->mMutants); !it.Done();
it.Next()) {
ShadowableLayer* shadow = it.Get()->GetKey();
if (!shadow->HasShadow()) {
continue;
}
Layer* mutant = shadow->AsLayer();
MOZ_ASSERT(!!mutant, "unshadowable layer?");
OpSetLayerAttributes op;
op.layer() = Shadow(shadow);
LayerAttributes& attrs = op.attrs();
CommonLayerAttributes& common = attrs.common();
common.visibleRegion() = mutant->GetVisibleRegion();
common.eventRegions() = mutant->GetEventRegions();
common.useClipRect() = !!mutant->GetClipRect();
common.clipRect() =
(common.useClipRect() ? *mutant->GetClipRect() : ParentLayerIntRect());
if (Layer* maskLayer = mutant->GetMaskLayer()) {
common.maskLayer() = Shadow(maskLayer->AsShadowableLayer());
} else {
common.maskLayer() = LayerHandle();
}
common.compositorAnimations().id() = mutant->GetCompositorAnimationsId();
common.compositorAnimations().animations() = mutant->GetAnimations();
common.invalidRegion() = mutant->GetInvalidRegion().GetRegion();
common.scrollMetadata() = mutant->GetAllScrollMetadata();
for (size_t i = 0; i < mutant->GetAncestorMaskLayerCount(); i++) {
auto layer =
Shadow(mutant->GetAncestorMaskLayerAt(i)->AsShadowableLayer());
common.ancestorMaskLayers().AppendElement(layer);
}
nsCString log;
mutant->GetDisplayListLog(log);
common.displayListLog() = log;
attrs.specific() = null_t();
mutant->FillSpecificAttributes(attrs.specific());
MOZ_LAYERS_LOG(("[LayersForwarder] OpSetLayerAttributes(%p)\n", mutant));
setAttrs.AppendElement(op);
}
if (mTxn->mCset.IsEmpty() && mTxn->mPaints.IsEmpty() && setAttrs.IsEmpty() &&
!mTxn->RotationChanged()) {
return true;
}
mWindowOverlayChanged = false;
info.cset() = std::move(mTxn->mCset);
info.setSimpleAttrs() = std::move(setSimpleAttrs);
info.setAttrs() = std::move(setAttrs);
info.paints() = std::move(mTxn->mPaints);
info.toDestroy() = mTxn->mDestroyedActors;
info.fwdTransactionId() = GetFwdTransactionId();
info.id() = aId;
info.plugins() = mPluginWindowData;
info.isFirstPaint() = mIsFirstPaint;
info.focusTarget() = mFocusTarget;
info.scheduleComposite() = aScheduleComposite;
info.paintSequenceNumber() = aPaintSequenceNumber;
info.isRepeatTransaction() = aIsRepeatTransaction;
info.vsyncId() = aVsyncId;
info.vsyncStart() = aVsyncStart;
info.refreshStart() = aRefreshStart;
info.transactionStart() = aTransactionStart;
info.url() = aURL;
info.containsSVG() = aContainsSVG;
#if defined(ENABLE_FRAME_LATENCY_LOG)
info.fwdTime() = TimeStamp::Now();
#endif
info.payload() = aPayload;
TargetConfig targetConfig(mTxn->mTargetBounds, mTxn->mTargetRotation,
mTxn->mTargetOrientation, aRegionToClear);
info.targetConfig() = targetConfig;
if (!GetTextureForwarder()->IsSameProcess()) {
MOZ_LAYERS_LOG(("[LayersForwarder] syncing before send..."));
PlatformSyncBeforeUpdate();
}
if (startTime) {
mPaintTiming.serializeMs() =
(TimeStamp::Now() - startTime.value()).ToMilliseconds();
startTime = Some(TimeStamp::Now());
}
// We delay at the last possible minute, to give the paint thread a chance to
// finish. If it does we don't have to delay messages at all.
GetCompositorBridgeChild()->PostponeMessagesIfAsyncPainting();
MOZ_LAYERS_LOG(("[LayersForwarder] sending transaction..."));
RenderTraceScope rendertrace3("Forward Transaction", "000093");
if (!mShadowManager->SendUpdate(info)) {
MOZ_LAYERS_LOG(("[LayersForwarder] WARNING: sending transaction failed!"));
return false;
}
if (startTime) {
mPaintTiming.sendMs() =
(TimeStamp::Now() - startTime.value()).ToMilliseconds();
mShadowManager->SendRecordPaintTimes(mPaintTiming);
}
if (recordreplay::IsRecordingOrReplaying()) {
recordreplay::child::NotifyPaintStart();
}
*aSent = true;
mIsFirstPaint = false;
mFocusTarget = FocusTarget();
MOZ_LAYERS_LOG(("[LayersForwarder] ... done"));
return true;
}
RefPtr<CompositableClient> ShadowLayerForwarder::FindCompositable(
const CompositableHandle& aHandle) {
CompositableClient* client = nullptr;
if (!mCompositables.Get(aHandle.Value(), &client)) {
return nullptr;
}
return client;
}
void ShadowLayerForwarder::SetLayersObserverEpoch(LayersObserverEpoch aEpoch) {
if (!IPCOpen()) {
return;
}
Unused << mShadowManager->SendSetLayersObserverEpoch(aEpoch);
}
Bug 1265824 - Wait on texture handles with IPC r=jld,mattwoodrow There's a lot going on here, but it all fits under the idea of being able to communicate about texture locking statuses without spinning on IsReadLocked. This is a bit of a trade - we could just always allocate/grab a texture from the pool, which would put a smaller cap on the amount of time we can possibly spend when a texture is locked. However, this eats up more CPU and memory than waiting on the textures to unlock, and could take longer, especially if there were a large number of textures which we just need to wait for for a short amount of time. In any case, we very rarely hit the case where we actually need to wait on the sync IPC to the compositor - most of the time the textures are already unlocked. There is also an async IPC call in here, which we make before flushing async paints. This just causes the compositor to check whether the GPU is done with its textures or not and unlock them if it is. This helps us avoid the case where we take a long time painting asynchronously, turn IPC back on at the end of that, and then have to wait for the compositor to to get into TiledLayerBufferComposite::UseTiles before getting a response. Specifically this eliminates several talos regressions which use ASAP mode. Lastly, there seem to be no other cases of static Monitors being used. This seems like it falls under similar use cases as StaticMutexes, so I added it in. I can move it into its own file if we think it might be generally useful in the future. MozReview-Commit-ID: IYQLwUqMxg2 --HG-- extra : rebase_source : 4f05832f51dae6db98773dcad03cb008a80eca6c
2018-05-06 01:46:26 +03:00
void ShadowLayerForwarder::UpdateTextureLocks() {
#ifdef XP_DARWIN
if (!IPCOpen()) {
return;
}
auto compositorBridge = GetCompositorBridgeChild();
if (compositorBridge) {
auto pid = compositorBridge->OtherPid();
TextureSync::UpdateTextureLocks(pid);
}
#endif
}
void ShadowLayerForwarder::SyncTextures(const nsTArray<uint64_t>& aSerials) {
#ifdef XP_DARWIN
if (!IPCOpen()) {
return;
}
auto compositorBridge = GetCompositorBridgeChild();
if (compositorBridge) {
auto pid = compositorBridge->OtherPid();
TextureSync::WaitForTextures(pid, aSerials);
}
#endif
}
void ShadowLayerForwarder::ReleaseLayer(const LayerHandle& aHandle) {
if (!IPCOpen()) {
return;
}
Unused << mShadowManager->SendReleaseLayer(aHandle);
}
bool ShadowLayerForwarder::IPCOpen() const {
return HasShadowManager() && mShadowManager->IPCOpen();
}
/**
* We bail out when we have no shadow manager. That can happen when the
* layer manager is created by the preallocated process.
* See bug 914843 for details.
*/
LayerHandle ShadowLayerForwarder::ConstructShadowFor(ShadowableLayer* aLayer) {
return LayerHandle(mNextLayerHandle++);
}
#if !defined(MOZ_HAVE_PLATFORM_SPECIFIC_LAYER_BUFFERS)
/*static*/
void ShadowLayerForwarder::PlatformSyncBeforeUpdate() {}
#endif // !defined(MOZ_HAVE_PLATFORM_SPECIFIC_LAYER_BUFFERS)
void ShadowLayerForwarder::Connect(CompositableClient* aCompositable,
ImageContainer* aImageContainer) {
#ifdef GFX_COMPOSITOR_LOGGING
printf("ShadowLayerForwarder::Connect(Compositable)\n");
#endif
MOZ_ASSERT(aCompositable);
MOZ_ASSERT(mShadowManager);
if (!IPCOpen()) {
return;
}
static uint64_t sNextID = 1;
uint64_t id = sNextID++;
mCompositables.Put(id, aCompositable);
CompositableHandle handle(id);
aCompositable->InitIPDL(handle);
mShadowManager->SendNewCompositable(handle, aCompositable->GetTextureInfo());
}
void ShadowLayerForwarder::Attach(CompositableClient* aCompositable,
ShadowableLayer* aLayer) {
MOZ_ASSERT(aLayer);
MOZ_ASSERT(aCompositable);
mTxn->AddEdit(
OpAttachCompositable(Shadow(aLayer), aCompositable->GetIPCHandle()));
}
void ShadowLayerForwarder::AttachAsyncCompositable(
const CompositableHandle& aHandle, ShadowableLayer* aLayer) {
MOZ_ASSERT(aLayer);
MOZ_ASSERT(aHandle);
mTxn->AddEdit(OpAttachAsyncCompositable(Shadow(aLayer), aHandle));
}
void ShadowLayerForwarder::SetShadowManager(
PLayerTransactionChild* aShadowManager) {
mShadowManager = static_cast<LayerTransactionChild*>(aShadowManager);
mShadowManager->SetForwarder(this);
}
void ShadowLayerForwarder::StopReceiveAsyncParentMessge() {
if (!IPCOpen()) {
return;
}
mShadowManager->SetForwarder(nullptr);
}
void ShadowLayerForwarder::ClearCachedResources() {
if (!IPCOpen()) {
return;
}
mShadowManager->SendClearCachedResources();
}
void ShadowLayerForwarder::ScheduleComposite() {
if (!IPCOpen()) {
return;
}
mShadowManager->SendScheduleComposite();
}
bool IsSurfaceDescriptorValid(const SurfaceDescriptor& aSurface) {
return aSurface.type() != SurfaceDescriptor::T__None &&
aSurface.type() != SurfaceDescriptor::Tnull_t;
}
uint8_t* GetAddressFromDescriptor(const SurfaceDescriptor& aDescriptor) {
MOZ_ASSERT(IsSurfaceDescriptorValid(aDescriptor));
MOZ_RELEASE_ASSERT(
aDescriptor.type() == SurfaceDescriptor::TSurfaceDescriptorBuffer,
"GFX: surface descriptor is not the right type.");
auto memOrShmem = aDescriptor.get_SurfaceDescriptorBuffer().data();
if (memOrShmem.type() == MemoryOrShmem::TShmem) {
return memOrShmem.get_Shmem().get<uint8_t>();
} else {
return reinterpret_cast<uint8_t*>(memOrShmem.get_uintptr_t());
}
}
already_AddRefed<gfx::DataSourceSurface> GetSurfaceForDescriptor(
const SurfaceDescriptor& aDescriptor) {
if (aDescriptor.type() != SurfaceDescriptor::TSurfaceDescriptorBuffer) {
return nullptr;
}
uint8_t* data = GetAddressFromDescriptor(aDescriptor);
auto rgb =
aDescriptor.get_SurfaceDescriptorBuffer().desc().get_RGBDescriptor();
uint32_t stride = ImageDataSerializer::GetRGBStride(rgb);
return gfx::Factory::CreateWrappingDataSourceSurface(data, stride, rgb.size(),
rgb.format());
}
already_AddRefed<gfx::DrawTarget> GetDrawTargetForDescriptor(
const SurfaceDescriptor& aDescriptor, gfx::BackendType aBackend) {
uint8_t* data = GetAddressFromDescriptor(aDescriptor);
auto rgb =
aDescriptor.get_SurfaceDescriptorBuffer().desc().get_RGBDescriptor();
uint32_t stride = ImageDataSerializer::GetRGBStride(rgb);
return gfx::Factory::CreateDrawTargetForData(
gfx::BackendType::CAIRO, data, rgb.size(), stride, rgb.format());
}
void DestroySurfaceDescriptor(IShmemAllocator* aAllocator,
SurfaceDescriptor* aSurface) {
MOZ_ASSERT(aSurface);
SurfaceDescriptorBuffer& desc = aSurface->get_SurfaceDescriptorBuffer();
switch (desc.data().type()) {
case MemoryOrShmem::TShmem: {
aAllocator->DeallocShmem(desc.data().get_Shmem());
break;
}
case MemoryOrShmem::Tuintptr_t: {
uint8_t* ptr = (uint8_t*)desc.data().get_uintptr_t();
GfxMemoryImageReporter::WillFree(ptr);
delete[] ptr;
break;
}
default:
MOZ_CRASH("surface type not implemented!");
}
*aSurface = SurfaceDescriptor();
}
bool ShadowLayerForwarder::AllocSurfaceDescriptor(const gfx::IntSize& aSize,
gfxContentType aContent,
SurfaceDescriptor* aBuffer) {
if (!IPCOpen()) {
return false;
}
return AllocSurfaceDescriptorWithCaps(aSize, aContent, DEFAULT_BUFFER_CAPS,
aBuffer);
}
bool ShadowLayerForwarder::AllocSurfaceDescriptorWithCaps(
const gfx::IntSize& aSize, gfxContentType aContent, uint32_t aCaps,
SurfaceDescriptor* aBuffer) {
if (!IPCOpen()) {
return false;
}
gfx::SurfaceFormat format =
gfxPlatform::GetPlatform()->Optimal2DFormatForContent(aContent);
size_t size = ImageDataSerializer::ComputeRGBBufferSize(aSize, format);
if (!size) {
return false;
}
MemoryOrShmem bufferDesc;
if (GetTextureForwarder()->IsSameProcess()) {
uint8_t* data = new (std::nothrow) uint8_t[size];
if (!data) {
return false;
}
GfxMemoryImageReporter::DidAlloc(data);
memset(data, 0, size);
bufferDesc = reinterpret_cast<uintptr_t>(data);
} else {
mozilla::ipc::Shmem shmem;
if (!GetTextureForwarder()->AllocUnsafeShmem(size, OptimalShmemType(),
&shmem)) {
return false;
}
bufferDesc = std::move(shmem);
}
// Use an intermediate buffer by default. Skipping the intermediate buffer is
// only possible in certain configurations so let's keep it simple here for
// now.
const bool hasIntermediateBuffer = true;
*aBuffer = SurfaceDescriptorBuffer(
RGBDescriptor(aSize, format, hasIntermediateBuffer), bufferDesc);
return true;
}
/* static */
bool ShadowLayerForwarder::IsShmem(SurfaceDescriptor* aSurface) {
return aSurface &&
(aSurface->type() == SurfaceDescriptor::TSurfaceDescriptorBuffer) &&
(aSurface->get_SurfaceDescriptorBuffer().data().type() ==
MemoryOrShmem::TShmem);
}
void ShadowLayerForwarder::DestroySurfaceDescriptor(
SurfaceDescriptor* aSurface) {
MOZ_ASSERT(aSurface);
MOZ_ASSERT(IPCOpen());
if (!IPCOpen() || !aSurface) {
return;
}
::mozilla::layers::DestroySurfaceDescriptor(GetTextureForwarder(), aSurface);
}
void ShadowLayerForwarder::UpdateFwdTransactionId() {
auto compositorBridge = GetCompositorBridgeChild();
if (compositorBridge) {
compositorBridge->UpdateFwdTransactionId();
}
}
uint64_t ShadowLayerForwarder::GetFwdTransactionId() {
auto compositorBridge = GetCompositorBridgeChild();
MOZ_DIAGNOSTIC_ASSERT(compositorBridge);
return compositorBridge ? compositorBridge->GetFwdTransactionId() : 0;
}
CompositorBridgeChild* ShadowLayerForwarder::GetCompositorBridgeChild() {
if (mCompositorBridgeChild) {
return mCompositorBridgeChild;
}
if (!mShadowManager) {
return nullptr;
}
mCompositorBridgeChild =
static_cast<CompositorBridgeChild*>(mShadowManager->Manager());
return mCompositorBridgeChild;
}
void ShadowLayerForwarder::SyncWithCompositor() {
auto compositorBridge = GetCompositorBridgeChild();
if (compositorBridge && compositorBridge->IPCOpen()) {
compositorBridge->SendSyncWithCompositor();
}
}
void ShadowLayerForwarder::ReleaseCompositable(
const CompositableHandle& aHandle) {
AssertInForwarderThread();
if (!DestroyInTransaction(aHandle)) {
if (!IPCOpen()) {
return;
}
mShadowManager->SendReleaseCompositable(aHandle);
}
mCompositables.Remove(aHandle.Value());
}
void ShadowLayerForwarder::SynchronouslyShutdown() {
if (IPCOpen()) {
mShadowManager->SendShutdownSync();
mShadowManager->MarkDestroyed();
}
}
ShadowableLayer::~ShadowableLayer() {
if (mShadow) {
mForwarder->ReleaseLayer(GetShadow());
}
}
} // namespace layers
} // namespace mozilla