bool
_ppt::has_schemas(void)
{
TRACE_EVENT("+_ppt::has_schemas", TRACE_TYPE_VERBOSE);
bool result = !_schema.empty();
TRACE_EVENT("-_ppt::has_schemas", TRACE_TYPE_VERBOSE);
return result;
}
bool
_ppt::is_active(void)
{
TRACE_EVENT("+_ppt::is_active", TRACE_TYPE_VERBOSE);
bool result = _active;
TRACE_EVENT("-_ppt::is_active", TRACE_TYPE_VERBOSE);
return result;
}
bool
_ppt::has_generic_action(void)
{
TRACE_EVENT("+_ppt::has_generic_action", TRACE_TYPE_VERBOSE);
bool result = _generic_action != NULL;
TRACE_EVENT("-_ppt::has_generic_action", TRACE_TYPE_VERBOSE);
return result;
}
bool
_ppt::has_exeception_action(void)
{
TRACE_EVENT("+_ppt::has_exeception_action", TRACE_TYPE_VERBOSE);
bool result = _exception_action != NULL;
TRACE_EVENT("-_ppt::has_exeception_action", TRACE_TYPE_VERBOSE);
return result;
}
size_t
_ppt::get_schema_count(void)
{
TRACE_EVENT("+_ppt::get_schema_count", TRACE_TYPE_VERBOSE);
size_t result = _schema.size();
TRACE_EVENT("-_ppt::get_schema_count", TRACE_TYPE_VERBOSE);
return result;
}
_ppt::_ppt(
const _ppt &other
) :
_active(other._active),
_argument_action(other._argument_action),
_generic_action(other._generic_action),
_exception_action(other._exception_action),
_schema(other._schema)
{
TRACE_EVENT("+_ppt::_ppt", TRACE_TYPE_INFORMATION);
TRACE_EVENT("-_ppt::_ppt", TRACE_TYPE_INFORMATION);
}
void
_ppt::stop(void)
{
TRACE_EVENT("+_ppt::stop", TRACE_TYPE_INFORMATION);
if(!_active) {
THROW_PPT_EXC(PPT_EXC_INVAL_STATE_CHANGE);
}
_active = false;
TRACE_EVENT("-_ppt::stop", TRACE_TYPE_INFORMATION);
}
void CCLayerTreeHost::updateLayers(LayerChromium* rootLayer, CCTextureUpdater& updater)
{
TRACE_EVENT("CCLayerTreeHost::updateLayers", this, 0);
if (!rootLayer->renderSurface())
rootLayer->createRenderSurface();
rootLayer->renderSurface()->setContentRect(IntRect(IntPoint(0, 0), deviceViewportSize()));
IntRect rootClipRect(IntPoint(), deviceViewportSize());
rootLayer->setClipRect(rootClipRect);
LayerList updateList;
updateList.append(rootLayer);
RenderSurfaceChromium* rootRenderSurface = rootLayer->renderSurface();
rootRenderSurface->clearLayerList();
{
TRACE_EVENT("CCLayerTreeHost::updateLayers::calcDrawEtc", this, 0);
WebTransformationMatrix identityMatrix;
WebTransformationMatrix deviceScaleTransform;
deviceScaleTransform.scale(m_deviceScaleFactor);
CCLayerTreeHostCommon::calculateDrawTransforms(rootLayer, rootLayer, deviceScaleTransform, identityMatrix, updateList, rootRenderSurface->layerList(), layerRendererCapabilities().maxTextureSize);
FloatRect rootScissorRect(FloatPoint(0, 0), viewportSize());
CCLayerTreeHostCommon::calculateVisibleAndScissorRects(updateList, rootScissorRect);
}
// Reset partial texture update requests.
m_partialTextureUpdateRequests = 0;
reserveTextures(updateList);
paintLayerContents(updateList, PaintVisible, updater);
if (!m_triggerIdlePaints)
return;
size_t preferredLimitBytes = m_contentsTextureManager->preferredMemoryLimitBytes();
size_t maxLimitBytes = m_contentsTextureManager->maxMemoryLimitBytes();
m_contentsTextureManager->reduceMemoryToLimit(preferredLimitBytes);
if (m_contentsTextureManager->currentMemoryUseBytes() >= preferredLimitBytes)
return;
// Idle painting should fail when we hit the preferred memory limit,
// otherwise it will always push us towards the maximum limit.
m_contentsTextureManager->setMaxMemoryLimitBytes(preferredLimitBytes);
// The second (idle) paint will be a no-op in layers where painting already occured above.
paintLayerContents(updateList, PaintIdle, updater);
m_contentsTextureManager->setMaxMemoryLimitBytes(maxLimitBytes);
for (size_t i = 0; i < updateList.size(); ++i)
updateList[i]->clearRenderSurface();
}
void
_ppt::clear(void)
{
TRACE_EVENT("+_ppt::clear", TRACE_TYPE_VERBOSE);
_active = false;
_argument_action = NULL;
_exception_action = NULL;
_generic_action = NULL;
_schema.clear();
TRACE_EVENT("-_ppt::clear", TRACE_TYPE_VERBOSE);
}
bool
_ppt::_has_registered_schema(
const sch &schema
)
{
TRACE_EVENT("+_ppt::_has_registered_schema", TRACE_TYPE_VERBOSE);
bool result = _get_registered_schema(schema) != _schema.end();
TRACE_EVENT("-_ppt::_has_registered_schema", TRACE_TYPE_VERBOSE);
return result;
}
void CCThreadProxy::commitOnCCThread(CCCompletionEvent* completion)
{
ASSERT(isImplThread());
TRACE_EVENT("CCThreadProxy::commitOnCCThread", this, 0);
m_layerTreeHostImpl->beginCommit();
{
TRACE_EVENT("CCLayerTreeHost::commit", this, 0);
m_layerTreeHost->commitTo(m_layerTreeHostImpl.get());
}
completion->signal();
m_layerTreeHostImpl->commitComplete();
setNeedsRedrawOnCCThread();
}
void CCThreadProxy::beginFrameAndCommit(int sequenceNumber, double frameBeginTime, PassOwnPtr<CCScrollUpdateSet> scrollInfo)
{
TRACE_EVENT("CCThreadProxy::beginFrameAndCommit", this, 0);
ASSERT(isMainThread());
if (!m_layerTreeHost)
return;
// Scroll deltas need to be applied even if the commit will be dropped.
m_layerTreeHost->applyScrollDeltas(*scrollInfo.get());
// Drop beginFrameAndCommit calls that occur out of sequence. See createBeginFrameAndCommitTaskOnImplThread for
// an explanation of how out-of-sequence beginFrameAndCommit tasks can occur.
if (sequenceNumber < m_lastExecutedBeginFrameAndCommitSequenceNumber) {
TRACE_EVENT("EarlyOut_StaleBeginFrameAndCommit", this, 0);
return;
}
m_lastExecutedBeginFrameAndCommitSequenceNumber = sequenceNumber;
// FIXME: recreate the context if it was requested by the impl thread
{
TRACE_EVENT("CCLayerTreeHost::animateAndLayout", this, 0);
m_layerTreeHost->animateAndLayout(frameBeginTime);
}
ASSERT(m_lastExecutedBeginFrameAndCommitSequenceNumber == sequenceNumber);
// Clear the commit flag after animateAndLayout here --- objects that only
// layout when painted will trigger another setNeedsCommit inside
// updateLayers.
m_commitRequested = false;
m_layerTreeHost->updateLayers();
{
// Blocking call to CCThreadProxy::commitOnImplThread
TRACE_EVENT("commit", this, 0);
CCCompletionEvent completion;
s_ccThread->postTask(createCCThreadTask(this, &CCThreadProxy::commitOnImplThread, AllowCrossThreadAccess(&completion)));
completion.wait();
}
m_layerTreeHost->commitComplete();
if (m_redrawAfterCommit)
setNeedsRedraw();
m_redrawAfterCommit = false;
ASSERT(m_lastExecutedBeginFrameAndCommitSequenceNumber == sequenceNumber);
}
int main(int argc, char *argv[])
{
volatile uint64_t workcnt = 0;
int nthreads;
debug_printf("bomptest started.\n");
bench_init();
#if CONFIG_TRACE
errval_t err = trace_control(TRACE_EVENT(TRACE_SUBSYS_ROUTE,
TRACE_EVENT_ROUTE_BENCH_START, 0),
TRACE_EVENT(TRACE_SUBSYS_ROUTE,
TRACE_EVENT_ROUTE_BENCH_STOP, 0), 0);
assert(err_is_ok(err));
#endif
if(argc == 2) {
nthreads = atoi(argv[1]);
backend_span_domain(nthreads, STACK_SIZE);
bomp_custom_init(NULL);
omp_set_num_threads(nthreads);
} else {
assert(!"Specify number of threads");
}
trace_event(TRACE_SUBSYS_ROUTE, TRACE_EVENT_ROUTE_BENCH_START, 0);
uint64_t start = bench_tsc();
#pragma omp parallel
while(rdtsc() < start + 805000000ULL) {
workcnt++;
}
uint64_t end = bench_tsc();
trace_event(TRACE_SUBSYS_ROUTE, TRACE_EVENT_ROUTE_BENCH_STOP, 0);
printf("done. time taken: %" PRIu64 " cycles.\n", end - start);
#if CONFIG_TRACE
char *buf = malloc(4096*4096);
trace_dump(buf, 4096*4096, NULL);
printf("%s\n", buf);
#endif
for(;;);
return 0;
}
void LayerTextureSubImage::uploadWithTexSubImage(const uint8_t* image, const IntRect& imageRect,
const IntRect& sourceRect, const IntRect& destRect,
GC3Denum format, GraphicsContext3D* context)
{
TRACE_EVENT("LayerTextureSubImage::uploadWithTexSubImage", this, 0);
if (!m_subImage)
m_subImage = adoptArrayPtr(new uint8_t[m_subImageSize.width() * m_subImageSize.height() * 4]);
// Offset from image-rect to source-rect.
IntPoint offset(sourceRect.x() - imageRect.x(), sourceRect.y() - imageRect.y());
const uint8_t* pixelSource;
if (imageRect.width() == sourceRect.width() && !offset.x())
pixelSource = &image[4 * offset.y() * imageRect.width()];
else {
// Strides not equal, so do a row-by-row memcpy from the
// paint results into a temp buffer for uploading.
for (int row = 0; row < destRect.height(); ++row)
memcpy(&m_subImage[destRect.width() * 4 * row],
&image[4 * (offset.x() + (offset.y() + row) * imageRect.width())],
destRect.width() * 4);
pixelSource = &m_subImage[0];
}
context->texSubImage2D(GraphicsContext3D::TEXTURE_2D, 0, destRect.x(), destRect.y(), destRect.width(), destRect.height(), format, GraphicsContext3D::UNSIGNED_BYTE, pixelSource);
}
bool CCThreadProxy::initializeLayerRenderer()
{
TRACE_EVENT("CCThreadProxy::initializeLayerRenderer", this, 0);
RefPtr<GraphicsContext3D> context = m_layerTreeHost->createLayerTreeHostContext3D();
if (!context)
return false;
ASSERT(context->hasOneRef());
// Leak the context pointer so we can transfer ownership of it to the other side...
GraphicsContext3D* contextPtr = context.release().leakRef();
ASSERT(contextPtr->hasOneRef());
// Make a blocking call to initializeLayerRendererOnImplThread. The results of that call
// are pushed into the initializeSucceeded and capabilities local variables.
CCCompletionEvent completion;
bool initializeSucceeded = false;
LayerRendererCapabilities capabilities;
s_ccThread->postTask(createCCThreadTask(this, &CCThreadProxy::initializeLayerRendererOnImplThread,
AllowCrossThreadAccess(contextPtr), AllowCrossThreadAccess(&completion),
AllowCrossThreadAccess(&initializeSucceeded), AllowCrossThreadAccess(&capabilities),
AllowCrossThreadAccess(&m_compositorIdentifier)));
completion.wait();
if (initializeSucceeded)
m_layerRendererCapabilitiesMainThreadCopy = capabilities;
return initializeSucceeded;
}
bool CCThreadProxy::compositeAndReadback(void *pixels, const IntRect& rect)
{
TRACE_EVENT("CCThreadPRoxy::compositeAndReadback", this, 0);
ASSERT(isMainThread());
ASSERT(m_layerTreeHost);
// If a commit is pending, perform the commit first.
if (m_commitRequested) {
// This bit of code is uglier than it should be because returning
// pointers via the CCThread task model is really messy. Effectively, we
// are making a blocking call to createBeginFrameAndCommitTaskOnImplThread,
// and trying to get the CCMainThread::Task it returns so we can run it.
OwnPtr<CCMainThread::Task> beginFrameAndCommitTask;
{
CCMainThread::Task* taskPtr = 0;
CCCompletionEvent completion;
s_ccThread->postTask(createCCThreadTask(this, &CCThreadProxy::obtainBeginFrameAndCommitTaskFromCCThread, AllowCrossThreadAccess(&completion), AllowCrossThreadAccess(&taskPtr)));
completion.wait();
beginFrameAndCommitTask = adoptPtr(taskPtr);
}
beginFrameAndCommitTask->performTask();
}
// Draw using the new tree and read back the results.
bool success = false;
CCCompletionEvent completion;
s_ccThread->postTask(createCCThreadTask(this, &CCThreadProxy::drawLayersAndReadbackOnImplThread, AllowCrossThreadAccess(&completion), AllowCrossThreadAccess(&success), AllowCrossThreadAccess(pixels), rect));
completion.wait();
return success;
}
static void paintSkBitmap(PlatformContextSkia* platformContext, const NativeImageSkia& bitmap, const SkIRect& srcRect, const SkRect& destRect, const SkXfermode::Mode& compOp)
{
#if PLATFORM(CHROMIUM)
TRACE_EVENT("paintSkBitmap", platformContext, 0);
#endif
SkPaint paint;
paint.setXfermodeMode(compOp);
paint.setFilterBitmap(true);
paint.setAlpha(platformContext->getNormalizedAlpha());
paint.setLooper(platformContext->getDrawLooper());
// only antialias if we're rotated or skewed
paint.setAntiAlias(hasNon90rotation(platformContext));
SkCanvas* canvas = platformContext->canvas();
ResamplingMode resampling;
if (platformContext->isAccelerated())
resampling = RESAMPLE_LINEAR;
else
resampling = platformContext->printing() ? RESAMPLE_NONE :
computeResamplingMode(platformContext, bitmap, srcRect.width(), srcRect.height(), SkScalarToFloat(destRect.width()), SkScalarToFloat(destRect.height()));
if (resampling == RESAMPLE_AWESOME) {
drawResampledBitmap(*canvas, paint, bitmap, srcRect, destRect);
} else {
// No resampling necessary, we can just draw the bitmap. We want to
// filter it if we decided to do linear interpolation above, or if there
// is something interesting going on with the matrix (like a rotation).
// Note: for serialization, we will want to subset the bitmap first so
// we don't send extra pixels.
canvas->drawBitmapRect(bitmap.bitmap(), &srcRect, destRect, &paint);
}
platformContext->didDrawRect(destRect, paint, &bitmap.bitmap());
}
void CCThreadProxy::setNeedsRedraw()
{
ASSERT(isMainThread());
TRACE_EVENT("CCThreadProxy::setNeedsRedraw", this, 0);
CCProxy::implThread()->postTask(createCCThreadTask(this, &CCThreadProxy::setFullRootLayerDamageOnImplThread));
CCProxy::implThread()->postTask(createCCThreadTask(this, &CCThreadProxy::setNeedsRedrawOnImplThread));
}
void CCThreadProxy::onSwapBuffersCompleteOnImplThread()
{
ASSERT(isImplThread());
TRACE_EVENT("CCThreadProxy::onSwapBuffersCompleteOnImplThread", this, 0);
m_schedulerOnImplThread->didSwapBuffersComplete();
m_mainThreadProxy->postTask(createCCThreadTask(this, &CCThreadProxy::didCompleteSwapBuffers));
}
void CCThreadProxy::initializeImplOnCCThread(CCCompletionEvent* completion)
{
TRACE_EVENT("CCThreadProxy::initializeImplOnCCThread", this, 0);
ASSERT(isImplThread());
m_layerTreeHostImpl = m_layerTreeHost->createLayerTreeHostImpl();
completion->signal();
}
void CCThreadProxy::setNeedsCommitAndRedrawOnCCThread()
{
TRACE_EVENT("CCThreadProxy::setNeedsCommitAndRedrawOnCCThread", this, 0);
ASSERT(isImplThread());
ASSERT(m_layerTreeHostImpl);
ASSERT_NOT_REACHED();
}
void CCThreadProxy::drawLayersOnCCThread()
{
TRACE_EVENT("CCThreadProxy::drawLayersOnCCThread", this, 0);
ASSERT(isImplThread());
if (m_layerTreeHostImpl)
m_layerTreeHostImpl->drawLayers();
}
const SkBitmap* PlatformContextSkia::bitmap() const
{
#if PLATFORM(CHROMIUM)
TRACE_EVENT("PlatformContextSkia::bitmap", this, 0);
#endif
return &m_canvas->getDevice()->accessBitmap(false);
}
void CCLayerTreeHostImpl::drawLayers()
{
TRACE_EVENT("CCLayerTreeHostImpl::drawLayers", this, 0);
ASSERT(m_layerRenderer);
if (!rootLayer())
return;
CCRenderPassList passes;
CCLayerList renderSurfaceLayerList;
calculateRenderPasses(passes, renderSurfaceLayerList);
optimizeRenderPasses(passes);
m_layerRenderer->beginDrawingFrame();
for (size_t i = 0; i < passes.size(); ++i)
m_layerRenderer->drawRenderPass(passes[i].get());
typedef CCLayerIterator<CCLayerImpl, Vector<CCLayerImpl*>, CCRenderSurface, CCLayerIteratorActions::BackToFront> CCLayerIteratorType;
CCLayerIteratorType end = CCLayerIteratorType::end(&renderSurfaceLayerList);
for (CCLayerIteratorType it = CCLayerIteratorType::begin(&renderSurfaceLayerList); it != end; ++it) {
if (it.representsItself() && !it->visibleLayerRect().isEmpty())
it->didDraw();
}
m_layerRenderer->finishDrawingFrame();
++m_frameNumber;
// The next frame should start by assuming nothing has changed, and changes are noted as they occur.
rootLayer()->resetAllChangeTrackingForSubtree();
}
CCLayerTreeHostImpl::~CCLayerTreeHostImpl()
{
ASSERT(CCProxy::isImplThread());
TRACE_EVENT("CCLayerTreeHostImpl::~CCLayerTreeHostImpl()", this, 0);
if (m_layerRenderer)
m_layerRenderer->close();
}
void trace_mpi_callers(iotimer_t time, int offset, int type)
{
CONTEXT ctx;
int rc = 0, actual_deep = 1;
/* Leave if they aren't initialized (asked by user!) */
if (Trace_Caller[CALLER_MPI] == NULL)
return;
exc_capture_context (&ctx);
/* Unwind de la pila*/
while (!rc && ctx.sc_pc && actual_deep <= Caller_Deepness[type]+offset)
{
#ifdef MPICALLER_DEBUG
/* Tampoco tenemos backtrace_symbols. Solo printamos las direcciones. */
fprintf(stderr, "[%d] 0x%012lx\n", actual_deep, ctx.sc_pc);
#endif
if (actual_deep >= offset)
if (Trace_MPI_Caller[actual_deep-offset])
TRACE_EVENT(time, MPI_CALLER_EVENT_TYPE(actual_deep-offset+1),
(UINT64)ctx.sc_pc);
rc = exc_virtual_unwind(0, &ctx);
actual_deep ++;
}
}
void CCLayerTreeHost::initializeLayerRenderer()
{
TRACE_EVENT("CCLayerTreeHost::initializeLayerRenderer", this, 0);
if (!m_proxy->initializeLayerRenderer()) {
// Uh oh, better tell the client that we can't do anything with this context.
m_client->didRecreateContext(false);
return;
}
// Update m_settings based on capabilities that we got back from the renderer.
m_settings.acceleratePainting = m_proxy->layerRendererCapabilities().usingAcceleratedPainting;
// Update m_settings based on partial update capability.
m_settings.maxPartialTextureUpdates = min(m_settings.maxPartialTextureUpdates, m_proxy->maxPartialTextureUpdates());
m_contentsTextureManager = TextureManager::create(0, 0, m_proxy->layerRendererCapabilities().maxTextureSize);
// FIXME: This is the same as setContentsMemoryAllocationLimitBytes, but
// we're in the middle of a commit here and don't want to force another.
m_memoryAllocationBytes = TextureManager::highLimitBytes(deviceViewportSize());
m_memoryAllocationIsForDisplay = true;
m_layerRendererInitialized = true;
m_settings.defaultTileSize = IntSize(min(m_settings.defaultTileSize.width(), m_proxy->layerRendererCapabilities().maxTextureSize),
min(m_settings.defaultTileSize.height(), m_proxy->layerRendererCapabilities().maxTextureSize));
m_settings.maxUntiledLayerSize = IntSize(min(m_settings.maxUntiledLayerSize.width(), m_proxy->layerRendererCapabilities().maxTextureSize),
min(m_settings.maxUntiledLayerSize.height(), m_proxy->layerRendererCapabilities().maxTextureSize));
}
void LayerTextureSubImage::uploadWithMapTexSubImage(const uint8_t* image, const IntRect& imageRect,
const IntRect& sourceRect, const IntRect& destRect,
GC3Denum format, GraphicsContext3D* context)
{
TRACE_EVENT("LayerTextureSubImage::uploadWithMapTexSubImage", this, 0);
// Offset from image-rect to source-rect.
IntPoint offset(sourceRect.x() - imageRect.x(), sourceRect.y() - imageRect.y());
// Upload tile data via a mapped transfer buffer
Extensions3DChromium* extensions = static_cast<Extensions3DChromium*>(context->getExtensions());
uint8_t* pixelDest = static_cast<uint8_t*>(extensions->mapTexSubImage2DCHROMIUM(GraphicsContext3D::TEXTURE_2D, 0, destRect.x(), destRect.y(), destRect.width(), destRect.height(), format, GraphicsContext3D::UNSIGNED_BYTE, Extensions3DChromium::WRITE_ONLY));
if (!pixelDest) {
uploadWithTexSubImage(image, imageRect, sourceRect, destRect, format, context);
return;
}
if (imageRect.width() == sourceRect.width() && !offset.x())
memcpy(pixelDest, &image[4 * offset.y() * imageRect.width()], imageRect.width() * destRect.height() * 4);
else {
// Strides not equal, so do a row-by-row memcpy from the
// paint results into the pixelDest
for (int row = 0; row < destRect.height(); ++row)
memcpy(&pixelDest[destRect.width() * 4 * row],
&image[4 * (offset.x() + (offset.y() + row) * imageRect.width())],
destRect.width() * 4);
}
extensions->unmapTexSubImage2DCHROMIUM(pixelDest);
}
void ScheduledAction::execute(V8Proxy* proxy)
{
ASSERT(proxy);
v8::HandleScope handleScope;
v8::Handle<v8::Context> v8Context = v8::Local<v8::Context>::New(m_context.get());
if (v8Context.IsEmpty())
return; // JS may not be enabled.
#if PLATFORM(CHROMIUM)
TRACE_EVENT("ScheduledAction::execute", this, 0);
#endif
v8::Context::Scope scope(v8Context);
proxy->setTimerCallback(true);
// FIXME: Need to implement timeouts for preempting a long-running script.
if (!m_function.IsEmpty() && m_function->IsFunction()) {
proxy->callFunction(v8::Persistent<v8::Function>::Cast(m_function), v8Context->Global(), m_argc, m_argv);
Document::updateStyleForAllDocuments();
} else
proxy->evaluate(m_code, 0);
proxy->setTimerCallback(false);
}
void CCThreadProxy::beginFrameAndCommitOnCCThread()
{
TRACE_EVENT("CCThreadProxy::beginFrameAndCommitOnCCThread", this, 0);
ASSERT(isImplThread());
ASSERT_NOT_REACHED();
// FIXME: call beginFrameAndCommit on main thread
}