// Copyright 2011 The Chromium Authors. All rights reserved. // Use of this source code is governed by a BSD-style license that can be // found in the LICENSE file. #include "cc/trees/layer_tree_host_impl.h" #include #include "base/bind.h" #include "base/command_line.h" #include "base/containers/hash_tables.h" #include "base/containers/scoped_ptr_hash_map.h" #include "cc/animation/scrollbar_animation_controller_thinning.h" #include "cc/base/latency_info_swap_promise.h" #include "cc/base/math_util.h" #include "cc/input/top_controls_manager.h" #include "cc/layers/append_quads_data.h" #include "cc/layers/delegated_renderer_layer_impl.h" #include "cc/layers/heads_up_display_layer_impl.h" #include "cc/layers/io_surface_layer_impl.h" #include "cc/layers/layer_impl.h" #include "cc/layers/painted_scrollbar_layer_impl.h" #include "cc/layers/render_surface_impl.h" #include "cc/layers/solid_color_layer_impl.h" #include "cc/layers/solid_color_scrollbar_layer_impl.h" #include "cc/layers/texture_layer_impl.h" #include "cc/layers/tiled_layer_impl.h" #include "cc/layers/video_layer_impl.h" #include "cc/output/begin_frame_args.h" #include "cc/output/compositor_frame_ack.h" #include "cc/output/compositor_frame_metadata.h" #include "cc/output/copy_output_request.h" #include "cc/output/copy_output_result.h" #include "cc/output/gl_renderer.h" #include "cc/quads/render_pass_draw_quad.h" #include "cc/quads/solid_color_draw_quad.h" #include "cc/quads/texture_draw_quad.h" #include "cc/quads/tile_draw_quad.h" #include "cc/resources/layer_tiling_data.h" #include "cc/test/animation_test_common.h" #include "cc/test/begin_frame_args_test.h" #include "cc/test/fake_layer_tree_host_impl.h" #include "cc/test/fake_output_surface.h" #include "cc/test/fake_output_surface_client.h" #include "cc/test/fake_picture_layer_impl.h" #include "cc/test/fake_picture_pile_impl.h" #include "cc/test/fake_proxy.h" #include "cc/test/fake_rendering_stats_instrumentation.h" #include "cc/test/fake_video_frame_provider.h" #include "cc/test/geometry_test_utils.h" #include "cc/test/layer_test_common.h" #include "cc/test/render_pass_test_common.h" #include "cc/test/test_shared_bitmap_manager.h" #include "cc/test/test_web_graphics_context_3d.h" #include "cc/trees/layer_tree_impl.h" #include "cc/trees/single_thread_proxy.h" #include "media/base/media.h" #include "testing/gmock/include/gmock/gmock.h" #include "testing/gtest/include/gtest/gtest.h" #include "third_party/skia/include/core/SkMallocPixelRef.h" #include "ui/gfx/frame_time.h" #include "ui/gfx/rect_conversions.h" #include "ui/gfx/size_conversions.h" #include "ui/gfx/vector2d_conversions.h" using ::testing::Mock; using ::testing::Return; using ::testing::AnyNumber; using ::testing::AtLeast; using ::testing::_; using media::VideoFrame; namespace cc { namespace { class LayerTreeHostImplTest : public testing::Test, public LayerTreeHostImplClient { public: LayerTreeHostImplTest() : proxy_(base::MessageLoopProxy::current(), base::MessageLoopProxy::current()), always_impl_thread_(&proxy_), always_main_thread_blocked_(&proxy_), shared_bitmap_manager_(new TestSharedBitmapManager()), on_can_draw_state_changed_called_(false), did_notify_ready_to_activate_(false), did_request_commit_(false), did_request_redraw_(false), did_request_animate_(false), did_request_manage_tiles_(false), did_upload_visible_tile_(false), reduce_memory_result_(true), current_limit_bytes_(0), current_priority_cutoff_value_(0) { media::InitializeMediaLibraryForTesting(); } LayerTreeSettings DefaultSettings() { LayerTreeSettings settings; settings.minimum_occlusion_tracking_size = gfx::Size(); settings.impl_side_painting = true; settings.texture_id_allocation_chunk_size = 1; settings.report_overscroll_only_for_scrollable_axes = true; return settings; } virtual void SetUp() OVERRIDE { CreateHostImpl(DefaultSettings(), CreateOutputSurface()); } virtual void TearDown() OVERRIDE {} virtual void UpdateRendererCapabilitiesOnImplThread() OVERRIDE {} virtual void DidLoseOutputSurfaceOnImplThread() OVERRIDE {} virtual void CommitVSyncParameters(base::TimeTicks timebase, base::TimeDelta interval) OVERRIDE {} virtual void SetEstimatedParentDrawTime(base::TimeDelta draw_time) OVERRIDE {} virtual void SetMaxSwapsPendingOnImplThread(int max) OVERRIDE {} virtual void DidSwapBuffersOnImplThread() OVERRIDE {} virtual void DidSwapBuffersCompleteOnImplThread() OVERRIDE {} virtual void BeginFrame(const BeginFrameArgs& args) OVERRIDE {} virtual void OnCanDrawStateChanged(bool can_draw) OVERRIDE { on_can_draw_state_changed_called_ = true; } virtual void NotifyReadyToActivate() OVERRIDE { did_notify_ready_to_activate_ = true; host_impl_->ActivateSyncTree(); } virtual void SetNeedsRedrawOnImplThread() OVERRIDE { did_request_redraw_ = true; } virtual void SetNeedsRedrawRectOnImplThread( const gfx::Rect& damage_rect) OVERRIDE { did_request_redraw_ = true; } virtual void SetNeedsAnimateOnImplThread() OVERRIDE { did_request_animate_ = true; } virtual void SetNeedsManageTilesOnImplThread() OVERRIDE { did_request_manage_tiles_ = true; } virtual void DidInitializeVisibleTileOnImplThread() OVERRIDE { did_upload_visible_tile_ = true; } virtual void SetNeedsCommitOnImplThread() OVERRIDE { did_request_commit_ = true; } virtual void PostAnimationEventsToMainThreadOnImplThread( scoped_ptr events) OVERRIDE {} virtual bool ReduceContentsTextureMemoryOnImplThread( size_t limit_bytes, int priority_cutoff) OVERRIDE { current_limit_bytes_ = limit_bytes; current_priority_cutoff_value_ = priority_cutoff; return reduce_memory_result_; } virtual bool IsInsideDraw() OVERRIDE { return false; } virtual void RenewTreePriority() OVERRIDE {} virtual void PostDelayedScrollbarFadeOnImplThread( const base::Closure& start_fade, base::TimeDelta delay) OVERRIDE { scrollbar_fade_start_ = start_fade; requested_scrollbar_animation_delay_ = delay; } virtual void DidActivateSyncTree() OVERRIDE {} virtual void DidManageTiles() OVERRIDE {} void set_reduce_memory_result(bool reduce_memory_result) { reduce_memory_result_ = reduce_memory_result; } bool CreateHostImpl(const LayerTreeSettings& settings, scoped_ptr output_surface) { host_impl_ = LayerTreeHostImpl::Create(settings, this, &proxy_, &stats_instrumentation_, shared_bitmap_manager_.get(), 0); bool init = host_impl_->InitializeRenderer(output_surface.Pass()); host_impl_->SetViewportSize(gfx::Size(10, 10)); return init; } void SetupRootLayerImpl(scoped_ptr root) { root->SetPosition(gfx::PointF()); root->SetBounds(gfx::Size(10, 10)); root->SetContentBounds(gfx::Size(10, 10)); root->SetDrawsContent(true); root->draw_properties().visible_content_rect = gfx::Rect(0, 0, 10, 10); host_impl_->active_tree()->SetRootLayer(root.Pass()); } static void ExpectClearedScrollDeltasRecursive(LayerImpl* layer) { ASSERT_EQ(layer->ScrollDelta(), gfx::Vector2d()); for (size_t i = 0; i < layer->children().size(); ++i) ExpectClearedScrollDeltasRecursive(layer->children()[i]); } static void ExpectContains(const ScrollAndScaleSet& scroll_info, int id, const gfx::Vector2d& scroll_delta) { int times_encountered = 0; for (size_t i = 0; i < scroll_info.scrolls.size(); ++i) { if (scroll_info.scrolls[i].layer_id != id) continue; EXPECT_VECTOR_EQ(scroll_delta, scroll_info.scrolls[i].scroll_delta); times_encountered++; } ASSERT_EQ(1, times_encountered); } static void ExpectNone(const ScrollAndScaleSet& scroll_info, int id) { int times_encountered = 0; for (size_t i = 0; i < scroll_info.scrolls.size(); ++i) { if (scroll_info.scrolls[i].layer_id != id) continue; times_encountered++; } ASSERT_EQ(0, times_encountered); } LayerImpl* CreateScrollAndContentsLayers(LayerTreeImpl* layer_tree_impl, const gfx::Size& content_size) { const int kInnerViewportScrollLayerId = 2; const int kInnerViewportClipLayerId = 4; const int kPageScaleLayerId = 5; scoped_ptr root = LayerImpl::Create(layer_tree_impl, 1); root->SetBounds(content_size); root->SetContentBounds(content_size); root->SetPosition(gfx::PointF()); scoped_ptr scroll = LayerImpl::Create(layer_tree_impl, kInnerViewportScrollLayerId); LayerImpl* scroll_layer = scroll.get(); scroll->SetIsContainerForFixedPositionLayers(true); scroll->SetScrollOffset(gfx::Vector2d()); scoped_ptr clip = LayerImpl::Create(layer_tree_impl, kInnerViewportClipLayerId); clip->SetBounds( gfx::Size(content_size.width() / 2, content_size.height() / 2)); scoped_ptr page_scale = LayerImpl::Create(layer_tree_impl, kPageScaleLayerId); scroll->SetScrollClipLayer(clip->id()); scroll->SetBounds(content_size); scroll->SetContentBounds(content_size); scroll->SetPosition(gfx::PointF()); scroll->SetIsContainerForFixedPositionLayers(true); scoped_ptr contents = LayerImpl::Create(layer_tree_impl, 3); contents->SetDrawsContent(true); contents->SetBounds(content_size); contents->SetContentBounds(content_size); contents->SetPosition(gfx::PointF()); scroll->AddChild(contents.Pass()); page_scale->AddChild(scroll.Pass()); clip->AddChild(page_scale.Pass()); root->AddChild(clip.Pass()); layer_tree_impl->SetRootLayer(root.Pass()); layer_tree_impl->SetViewportLayersFromIds( kPageScaleLayerId, kInnerViewportScrollLayerId, Layer::INVALID_ID); return scroll_layer; } LayerImpl* SetupScrollAndContentsLayers(const gfx::Size& content_size) { LayerImpl* scroll_layer = CreateScrollAndContentsLayers( host_impl_->active_tree(), content_size); host_impl_->active_tree()->DidBecomeActive(); return scroll_layer; } // TODO(wjmaclean) Add clip-layer pointer to parameters. scoped_ptr CreateScrollableLayer(int id, const gfx::Size& size, LayerImpl* clip_layer) { DCHECK(clip_layer); DCHECK(id != clip_layer->id()); scoped_ptr layer = LayerImpl::Create(host_impl_->active_tree(), id); layer->SetScrollClipLayer(clip_layer->id()); layer->SetDrawsContent(true); layer->SetBounds(size); layer->SetContentBounds(size); clip_layer->SetBounds(gfx::Size(size.width() / 2, size.height() / 2)); return layer.Pass(); } void DrawFrame() { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } void pinch_zoom_pan_viewport_forces_commit_redraw(float device_scale_factor); void pinch_zoom_pan_viewport_test(float device_scale_factor); void pinch_zoom_pan_viewport_and_scroll_test(float device_scale_factor); void pinch_zoom_pan_viewport_and_scroll_boundary_test( float device_scale_factor); void CheckNotifyCalledIfCanDrawChanged(bool always_draw) { // Note: It is not possible to disable the renderer once it has been set, // so we do not need to test that disabling the renderer notifies us // that can_draw changed. EXPECT_FALSE(host_impl_->CanDraw()); on_can_draw_state_changed_called_ = false; // Set up the root layer, which allows us to draw. SetupScrollAndContentsLayers(gfx::Size(100, 100)); EXPECT_TRUE(host_impl_->CanDraw()); EXPECT_TRUE(on_can_draw_state_changed_called_); on_can_draw_state_changed_called_ = false; // Toggle the root layer to make sure it toggles can_draw host_impl_->active_tree()->SetRootLayer(scoped_ptr()); EXPECT_FALSE(host_impl_->CanDraw()); EXPECT_TRUE(on_can_draw_state_changed_called_); on_can_draw_state_changed_called_ = false; SetupScrollAndContentsLayers(gfx::Size(100, 100)); EXPECT_TRUE(host_impl_->CanDraw()); EXPECT_TRUE(on_can_draw_state_changed_called_); on_can_draw_state_changed_called_ = false; // Toggle the device viewport size to make sure it toggles can_draw. host_impl_->SetViewportSize(gfx::Size()); if (always_draw) { EXPECT_TRUE(host_impl_->CanDraw()); } else { EXPECT_FALSE(host_impl_->CanDraw()); } EXPECT_TRUE(on_can_draw_state_changed_called_); on_can_draw_state_changed_called_ = false; host_impl_->SetViewportSize(gfx::Size(100, 100)); EXPECT_TRUE(host_impl_->CanDraw()); EXPECT_TRUE(on_can_draw_state_changed_called_); on_can_draw_state_changed_called_ = false; // Toggle contents textures purged without causing any evictions, // and make sure that it does not change can_draw. set_reduce_memory_result(false); host_impl_->SetMemoryPolicy(ManagedMemoryPolicy( host_impl_->memory_allocation_limit_bytes() - 1)); EXPECT_TRUE(host_impl_->CanDraw()); EXPECT_FALSE(on_can_draw_state_changed_called_); on_can_draw_state_changed_called_ = false; // Toggle contents textures purged to make sure it toggles can_draw. set_reduce_memory_result(true); host_impl_->SetMemoryPolicy(ManagedMemoryPolicy( host_impl_->memory_allocation_limit_bytes() - 1)); if (always_draw) { EXPECT_TRUE(host_impl_->CanDraw()); } else { EXPECT_FALSE(host_impl_->CanDraw()); } EXPECT_TRUE(on_can_draw_state_changed_called_); on_can_draw_state_changed_called_ = false; host_impl_->active_tree()->ResetContentsTexturesPurged(); EXPECT_TRUE(host_impl_->CanDraw()); EXPECT_TRUE(on_can_draw_state_changed_called_); on_can_draw_state_changed_called_ = false; } void SetupMouseMoveAtWithDeviceScale(float device_scale_factor); protected: virtual scoped_ptr CreateOutputSurface() { return FakeOutputSurface::Create3d().PassAs(); } void DrawOneFrame() { LayerTreeHostImpl::FrameData frame_data; host_impl_->PrepareToDraw(&frame_data); host_impl_->DidDrawAllLayers(frame_data); } FakeProxy proxy_; DebugScopedSetImplThread always_impl_thread_; DebugScopedSetMainThreadBlocked always_main_thread_blocked_; scoped_ptr shared_bitmap_manager_; scoped_ptr host_impl_; FakeRenderingStatsInstrumentation stats_instrumentation_; bool on_can_draw_state_changed_called_; bool did_notify_ready_to_activate_; bool did_request_commit_; bool did_request_redraw_; bool did_request_animate_; bool did_request_manage_tiles_; bool did_upload_visible_tile_; bool reduce_memory_result_; base::Closure scrollbar_fade_start_; base::TimeDelta requested_scrollbar_animation_delay_; size_t current_limit_bytes_; int current_priority_cutoff_value_; }; TEST_F(LayerTreeHostImplTest, NotifyIfCanDrawChanged) { bool always_draw = false; CheckNotifyCalledIfCanDrawChanged(always_draw); } TEST_F(LayerTreeHostImplTest, CanDrawIncompleteFrames) { scoped_ptr output_surface( FakeOutputSurface::CreateAlwaysDrawAndSwap3d()); CreateHostImpl(DefaultSettings(), output_surface.PassAs()); bool always_draw = true; CheckNotifyCalledIfCanDrawChanged(always_draw); } TEST_F(LayerTreeHostImplTest, ScrollDeltaNoLayers) { ASSERT_FALSE(host_impl_->active_tree()->root_layer()); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); ASSERT_EQ(scroll_info->scrolls.size(), 0u); } TEST_F(LayerTreeHostImplTest, ScrollDeltaTreeButNoChanges) { { scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); root->AddChild(LayerImpl::Create(host_impl_->active_tree(), 2)); root->AddChild(LayerImpl::Create(host_impl_->active_tree(), 3)); root->children()[1]->AddChild( LayerImpl::Create(host_impl_->active_tree(), 4)); root->children()[1]->AddChild( LayerImpl::Create(host_impl_->active_tree(), 5)); root->children()[1]->children()[0]->AddChild( LayerImpl::Create(host_impl_->active_tree(), 6)); host_impl_->active_tree()->SetRootLayer(root.Pass()); } LayerImpl* root = host_impl_->active_tree()->root_layer(); ExpectClearedScrollDeltasRecursive(root); scoped_ptr scroll_info; scroll_info = host_impl_->ProcessScrollDeltas(); ASSERT_EQ(scroll_info->scrolls.size(), 0u); ExpectClearedScrollDeltasRecursive(root); scroll_info = host_impl_->ProcessScrollDeltas(); ASSERT_EQ(scroll_info->scrolls.size(), 0u); ExpectClearedScrollDeltasRecursive(root); } TEST_F(LayerTreeHostImplTest, ScrollDeltaRepeatedScrolls) { gfx::Vector2d scroll_offset(20, 30); gfx::Vector2d scroll_delta(11, -15); { scoped_ptr root_clip = LayerImpl::Create(host_impl_->active_tree(), 2); scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); root_clip->SetBounds(gfx::Size(10, 10)); LayerImpl* root_layer = root.get(); root_clip->AddChild(root.Pass()); root_layer->SetBounds(gfx::Size(110, 110)); root_layer->SetScrollClipLayer(root_clip->id()); root_layer->SetScrollOffset(scroll_offset); root_layer->ScrollBy(scroll_delta); host_impl_->active_tree()->SetRootLayer(root_clip.Pass()); } LayerImpl* root = host_impl_->active_tree()->root_layer()->children()[0]; scoped_ptr scroll_info; scroll_info = host_impl_->ProcessScrollDeltas(); ASSERT_EQ(scroll_info->scrolls.size(), 1u); EXPECT_VECTOR_EQ(root->sent_scroll_delta(), scroll_delta); ExpectContains(*scroll_info, root->id(), scroll_delta); gfx::Vector2d scroll_delta2(-5, 27); root->ScrollBy(scroll_delta2); scroll_info = host_impl_->ProcessScrollDeltas(); ASSERT_EQ(scroll_info->scrolls.size(), 1u); EXPECT_VECTOR_EQ(root->sent_scroll_delta(), scroll_delta + scroll_delta2); ExpectContains(*scroll_info, root->id(), scroll_delta + scroll_delta2); root->ScrollBy(gfx::Vector2d()); scroll_info = host_impl_->ProcessScrollDeltas(); EXPECT_EQ(root->sent_scroll_delta(), scroll_delta + scroll_delta2); } TEST_F(LayerTreeHostImplTest, ScrollRootCallsCommitAndRedraw) { SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); EXPECT_TRUE(host_impl_->IsCurrentlyScrollingLayerAt(gfx::Point(), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 10)); EXPECT_TRUE(host_impl_->IsCurrentlyScrollingLayerAt(gfx::Point(0, 10), InputHandler::Wheel)); host_impl_->ScrollEnd(); EXPECT_FALSE(host_impl_->IsCurrentlyScrollingLayerAt(gfx::Point(), InputHandler::Wheel)); EXPECT_TRUE(did_request_redraw_); EXPECT_TRUE(did_request_commit_); } TEST_F(LayerTreeHostImplTest, ScrollWithoutRootLayer) { // We should not crash when trying to scroll an empty layer tree. EXPECT_EQ(InputHandler::ScrollIgnored, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); } TEST_F(LayerTreeHostImplTest, ScrollWithoutRenderer) { scoped_ptr context_owned = TestWebGraphicsContext3D::Create(); context_owned->set_context_lost(true); scoped_ptr output_surface(FakeOutputSurface::Create3d( context_owned.Pass())); // Initialization will fail. EXPECT_FALSE(CreateHostImpl(DefaultSettings(), output_surface.PassAs())); SetupScrollAndContentsLayers(gfx::Size(100, 100)); // We should not crash when trying to scroll after the renderer initialization // fails. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); } TEST_F(LayerTreeHostImplTest, ReplaceTreeWhileScrolling) { LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); // We should not crash if the tree is replaced while we are scrolling. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); host_impl_->active_tree()->DetachLayerTree(); scroll_layer = SetupScrollAndContentsLayers(gfx::Size(100, 100)); // We should still be scrolling, because the scrolled layer also exists in the // new tree. gfx::Vector2d scroll_delta(0, 10); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollEnd(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); ExpectContains(*scroll_info, scroll_layer->id(), scroll_delta); } TEST_F(LayerTreeHostImplTest, ClearRootRenderSurfaceAndScroll) { SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); // We should be able to scroll even if the root layer loses its render surface // after the most recent render. host_impl_->active_tree()->root_layer()->ClearRenderSurface(); host_impl_->active_tree()->set_needs_update_draw_properties(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); } TEST_F(LayerTreeHostImplTest, WheelEventHandlers) { SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); LayerImpl* root = host_impl_->active_tree()->root_layer(); root->SetHaveWheelEventHandlers(true); // With registered event handlers, wheel scrolls have to go to the main // thread. EXPECT_EQ(InputHandler::ScrollOnMainThread, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); // But gesture scrolls can still be handled. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); } TEST_F(LayerTreeHostImplTest, FlingOnlyWhenScrollingTouchscreen) { SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); // Ignore the fling since no layer is being scrolled EXPECT_EQ(InputHandler::ScrollIgnored, host_impl_->FlingScrollBegin()); // Start scrolling a layer EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); // Now the fling should go ahead since we've started scrolling a layer EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->FlingScrollBegin()); } TEST_F(LayerTreeHostImplTest, FlingOnlyWhenScrollingTouchpad) { SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); // Ignore the fling since no layer is being scrolled EXPECT_EQ(InputHandler::ScrollIgnored, host_impl_->FlingScrollBegin()); // Start scrolling a layer EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); // Now the fling should go ahead since we've started scrolling a layer EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->FlingScrollBegin()); } TEST_F(LayerTreeHostImplTest, NoFlingWhenScrollingOnMain) { SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); LayerImpl* root = host_impl_->active_tree()->root_layer(); root->SetShouldScrollOnMainThread(true); // Start scrolling a layer EXPECT_EQ(InputHandler::ScrollOnMainThread, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); // The fling should be ignored since there's no layer being scrolled impl-side EXPECT_EQ(InputHandler::ScrollIgnored, host_impl_->FlingScrollBegin()); } TEST_F(LayerTreeHostImplTest, ShouldScrollOnMainThread) { SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); LayerImpl* root = host_impl_->active_tree()->root_layer(); root->SetShouldScrollOnMainThread(true); EXPECT_EQ(InputHandler::ScrollOnMainThread, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); EXPECT_EQ(InputHandler::ScrollOnMainThread, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); } TEST_F(LayerTreeHostImplTest, NonFastScrollableRegionBasic) { SetupScrollAndContentsLayers(gfx::Size(200, 200)); host_impl_->SetViewportSize(gfx::Size(100, 100)); LayerImpl* root = host_impl_->active_tree()->root_layer(); root->SetContentsScale(2.f, 2.f); root->SetNonFastScrollableRegion(gfx::Rect(0, 0, 50, 50)); DrawFrame(); // All scroll types inside the non-fast scrollable region should fail. EXPECT_EQ(InputHandler::ScrollOnMainThread, host_impl_->ScrollBegin(gfx::Point(25, 25), InputHandler::Wheel)); EXPECT_FALSE(host_impl_->IsCurrentlyScrollingLayerAt(gfx::Point(25, 25), InputHandler::Wheel)); EXPECT_EQ(InputHandler::ScrollOnMainThread, host_impl_->ScrollBegin(gfx::Point(25, 25), InputHandler::Gesture)); EXPECT_FALSE(host_impl_->IsCurrentlyScrollingLayerAt(gfx::Point(25, 25), InputHandler::Gesture)); // All scroll types outside this region should succeed. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(75, 75), InputHandler::Wheel)); EXPECT_TRUE(host_impl_->IsCurrentlyScrollingLayerAt(gfx::Point(75, 75), InputHandler::Gesture)); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 10)); EXPECT_FALSE(host_impl_->IsCurrentlyScrollingLayerAt(gfx::Point(25, 25), InputHandler::Gesture)); host_impl_->ScrollEnd(); EXPECT_FALSE(host_impl_->IsCurrentlyScrollingLayerAt(gfx::Point(75, 75), InputHandler::Gesture)); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(75, 75), InputHandler::Gesture)); EXPECT_TRUE(host_impl_->IsCurrentlyScrollingLayerAt(gfx::Point(75, 75), InputHandler::Gesture)); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 10)); host_impl_->ScrollEnd(); EXPECT_FALSE(host_impl_->IsCurrentlyScrollingLayerAt(gfx::Point(75, 75), InputHandler::Gesture)); } TEST_F(LayerTreeHostImplTest, NonFastScrollableRegionWithOffset) { SetupScrollAndContentsLayers(gfx::Size(200, 200)); host_impl_->SetViewportSize(gfx::Size(100, 100)); LayerImpl* root = host_impl_->active_tree()->root_layer(); root->SetContentsScale(2.f, 2.f); root->SetNonFastScrollableRegion(gfx::Rect(0, 0, 50, 50)); root->SetPosition(gfx::PointF(-25.f, 0.f)); DrawFrame(); // This point would fall into the non-fast scrollable region except that we've // moved the layer down by 25 pixels. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(40, 10), InputHandler::Wheel)); EXPECT_TRUE(host_impl_->IsCurrentlyScrollingLayerAt(gfx::Point(40, 10), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 1)); host_impl_->ScrollEnd(); // This point is still inside the non-fast region. EXPECT_EQ(InputHandler::ScrollOnMainThread, host_impl_->ScrollBegin(gfx::Point(10, 10), InputHandler::Wheel)); } TEST_F(LayerTreeHostImplTest, ScrollHandlerNotPresent) { LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(200, 200)); EXPECT_FALSE(scroll_layer->have_scroll_event_handlers()); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); EXPECT_FALSE(host_impl_->scroll_affects_scroll_handler()); host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture); EXPECT_FALSE(host_impl_->scroll_affects_scroll_handler()); host_impl_->ScrollEnd(); EXPECT_FALSE(host_impl_->scroll_affects_scroll_handler()); } TEST_F(LayerTreeHostImplTest, ScrollHandlerPresent) { LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(200, 200)); scroll_layer->SetHaveScrollEventHandlers(true); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); EXPECT_FALSE(host_impl_->scroll_affects_scroll_handler()); host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture); EXPECT_TRUE(host_impl_->scroll_affects_scroll_handler()); host_impl_->ScrollEnd(); EXPECT_FALSE(host_impl_->scroll_affects_scroll_handler()); } TEST_F(LayerTreeHostImplTest, ScrollByReturnsCorrectValue) { SetupScrollAndContentsLayers(gfx::Size(200, 200)); host_impl_->SetViewportSize(gfx::Size(100, 100)); DrawFrame(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); // Trying to scroll to the left/top will not succeed. EXPECT_FALSE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(-10, 0))); EXPECT_FALSE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, -10))); EXPECT_FALSE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(-10, -10))); // Scrolling to the right/bottom will succeed. EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(10, 0))); EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 10))); EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(10, 10))); // Scrolling to left/top will now succeed. EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(-10, 0))); EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, -10))); EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(-10, -10))); // Scrolling diagonally against an edge will succeed. EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(10, -10))); EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(-10, 0))); EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(-10, 10))); // Trying to scroll more than the available space will also succeed. EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(5000, 5000))); } TEST_F(LayerTreeHostImplTest, ScrollVerticallyByPageReturnsCorrectValue) { SetupScrollAndContentsLayers(gfx::Size(200, 2000)); host_impl_->SetViewportSize(gfx::Size(100, 1000)); DrawFrame(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); // Trying to scroll without a vertical scrollbar will fail. EXPECT_FALSE(host_impl_->ScrollVerticallyByPage( gfx::Point(), SCROLL_FORWARD)); EXPECT_FALSE(host_impl_->ScrollVerticallyByPage( gfx::Point(), SCROLL_BACKWARD)); scoped_ptr vertical_scrollbar( PaintedScrollbarLayerImpl::Create( host_impl_->active_tree(), 20, VERTICAL)); vertical_scrollbar->SetBounds(gfx::Size(15, 1000)); host_impl_->InnerViewportScrollLayer()->AddScrollbar( vertical_scrollbar.get()); // Trying to scroll with a vertical scrollbar will succeed. EXPECT_TRUE(host_impl_->ScrollVerticallyByPage( gfx::Point(), SCROLL_FORWARD)); EXPECT_FLOAT_EQ(875.f, host_impl_->InnerViewportScrollLayer()->ScrollDelta().y()); EXPECT_TRUE(host_impl_->ScrollVerticallyByPage( gfx::Point(), SCROLL_BACKWARD)); } // The user-scrollability breaks for zoomed-in pages. So disable this. // http://crbug.com/322223 TEST_F(LayerTreeHostImplTest, DISABLED_ScrollWithUserUnscrollableLayers) { LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(200, 200)); host_impl_->SetViewportSize(gfx::Size(100, 100)); gfx::Size overflow_size(400, 400); ASSERT_EQ(1u, scroll_layer->children().size()); LayerImpl* overflow = scroll_layer->children()[0]; overflow->SetBounds(overflow_size); overflow->SetContentBounds(overflow_size); overflow->SetScrollClipLayer(scroll_layer->parent()->id()); overflow->SetScrollOffset(gfx::Vector2d()); overflow->SetPosition(gfx::PointF()); DrawFrame(); gfx::Point scroll_position(10, 10); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(scroll_position, InputHandler::Wheel)); EXPECT_VECTOR_EQ(gfx::Vector2dF(), scroll_layer->TotalScrollOffset()); EXPECT_VECTOR_EQ(gfx::Vector2dF(), overflow->TotalScrollOffset()); gfx::Vector2dF scroll_delta(10, 10); host_impl_->ScrollBy(scroll_position, scroll_delta); host_impl_->ScrollEnd(); EXPECT_VECTOR_EQ(gfx::Vector2dF(), scroll_layer->TotalScrollOffset()); EXPECT_VECTOR_EQ(gfx::Vector2dF(10, 10), overflow->TotalScrollOffset()); overflow->set_user_scrollable_horizontal(false); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(scroll_position, InputHandler::Wheel)); EXPECT_VECTOR_EQ(gfx::Vector2dF(), scroll_layer->TotalScrollOffset()); EXPECT_VECTOR_EQ(gfx::Vector2dF(10, 10), overflow->TotalScrollOffset()); host_impl_->ScrollBy(scroll_position, scroll_delta); host_impl_->ScrollEnd(); EXPECT_VECTOR_EQ(gfx::Vector2dF(10, 0), scroll_layer->TotalScrollOffset()); EXPECT_VECTOR_EQ(gfx::Vector2dF(10, 20), overflow->TotalScrollOffset()); overflow->set_user_scrollable_vertical(false); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(scroll_position, InputHandler::Wheel)); EXPECT_VECTOR_EQ(gfx::Vector2dF(10, 0), scroll_layer->TotalScrollOffset()); EXPECT_VECTOR_EQ(gfx::Vector2dF(10, 20), overflow->TotalScrollOffset()); host_impl_->ScrollBy(scroll_position, scroll_delta); host_impl_->ScrollEnd(); EXPECT_VECTOR_EQ(gfx::Vector2dF(20, 10), scroll_layer->TotalScrollOffset()); EXPECT_VECTOR_EQ(gfx::Vector2dF(10, 20), overflow->TotalScrollOffset()); } TEST_F(LayerTreeHostImplTest, ClearRootRenderSurfaceAndHitTestTouchHandlerRegion) { SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); // We should be able to hit test for touch event handlers even if the root // layer loses its render surface after the most recent render. host_impl_->active_tree()->root_layer()->ClearRenderSurface(); host_impl_->active_tree()->set_needs_update_draw_properties(); EXPECT_EQ(host_impl_->HaveTouchEventHandlersAt(gfx::Point()), false); } TEST_F(LayerTreeHostImplTest, ImplPinchZoom) { LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); EXPECT_EQ(scroll_layer, host_impl_->InnerViewportScrollLayer()); LayerImpl* container_layer = scroll_layer->scroll_clip_layer(); EXPECT_EQ(gfx::Size(50, 50), container_layer->bounds()); float min_page_scale = 1.f, max_page_scale = 4.f; float page_scale_factor = 1.f; // The impl-based pinch zoom should adjust the max scroll position. { host_impl_->active_tree()->SetPageScaleFactorAndLimits( page_scale_factor, min_page_scale, max_page_scale); host_impl_->active_tree()->SetPageScaleDelta(1.f); scroll_layer->SetScrollDelta(gfx::Vector2d()); float page_scale_delta = 2.f; gfx::Vector2dF expected_container_size_delta( container_layer->bounds().width(), container_layer->bounds().height()); expected_container_size_delta.Scale((1.f - page_scale_delta) / (page_scale_factor * page_scale_delta)); host_impl_->ScrollBegin(gfx::Point(50, 50), InputHandler::Gesture); host_impl_->PinchGestureBegin(); host_impl_->PinchGestureUpdate(page_scale_delta, gfx::Point(50, 50)); // While the gesture is still active, the scroll layer should have a // container size delta = container->bounds() * ((1.f - // page_scale_delta)/()) EXPECT_EQ(expected_container_size_delta, scroll_layer->FixedContainerSizeDelta()); host_impl_->PinchGestureEnd(); host_impl_->ScrollEnd(); EXPECT_FALSE(did_request_animate_); EXPECT_TRUE(did_request_redraw_); EXPECT_TRUE(did_request_commit_); EXPECT_EQ(gfx::Size(50, 50), container_layer->bounds()); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); EXPECT_EQ(scroll_info->page_scale_delta, page_scale_delta); EXPECT_EQ(gfx::Vector2d(75, 75).ToString(), scroll_layer->MaxScrollOffset().ToString()); } // Scrolling after a pinch gesture should always be in local space. The // scroll deltas do not have the page scale factor applied. { host_impl_->active_tree()->SetPageScaleFactorAndLimits( page_scale_factor, min_page_scale, max_page_scale); host_impl_->active_tree()->SetPageScaleDelta(1.f); scroll_layer->SetScrollDelta(gfx::Vector2d()); float page_scale_delta = 2.f; host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture); host_impl_->PinchGestureBegin(); host_impl_->PinchGestureUpdate(page_scale_delta, gfx::Point()); host_impl_->PinchGestureEnd(); host_impl_->ScrollEnd(); gfx::Vector2d scroll_delta(0, 10); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollEnd(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); ExpectContains(*scroll_info.get(), scroll_layer->id(), scroll_delta); } } TEST_F(LayerTreeHostImplTest, ScrollWithSwapPromises) { ui::LatencyInfo latency_info; latency_info.trace_id = 1234; scoped_ptr swap_promise( new LatencyInfoSwapPromise(latency_info)); SetupScrollAndContentsLayers(gfx::Size(100, 100)); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 10)); host_impl_->QueueSwapPromiseForMainThreadScrollUpdate(swap_promise.Pass()); host_impl_->ScrollEnd(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); EXPECT_EQ(1u, scroll_info->swap_promises.size()); EXPECT_EQ(latency_info.trace_id, scroll_info->swap_promises[0]->TraceId()); } TEST_F(LayerTreeHostImplTest, PinchGesture) { SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); LayerImpl* scroll_layer = host_impl_->InnerViewportScrollLayer(); DCHECK(scroll_layer); float min_page_scale = 1.f; float max_page_scale = 4.f; // Basic pinch zoom in gesture { host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, min_page_scale, max_page_scale); scroll_layer->SetScrollDelta(gfx::Vector2d()); float page_scale_delta = 2.f; host_impl_->ScrollBegin(gfx::Point(50, 50), InputHandler::Gesture); host_impl_->PinchGestureBegin(); host_impl_->PinchGestureUpdate(page_scale_delta, gfx::Point(50, 50)); host_impl_->PinchGestureEnd(); host_impl_->ScrollEnd(); EXPECT_FALSE(did_request_animate_); EXPECT_TRUE(did_request_redraw_); EXPECT_TRUE(did_request_commit_); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); EXPECT_EQ(scroll_info->page_scale_delta, page_scale_delta); } // Zoom-in clamping { host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, min_page_scale, max_page_scale); scroll_layer->SetScrollDelta(gfx::Vector2d()); float page_scale_delta = 10.f; host_impl_->ScrollBegin(gfx::Point(50, 50), InputHandler::Gesture); host_impl_->PinchGestureBegin(); host_impl_->PinchGestureUpdate(page_scale_delta, gfx::Point(50, 50)); host_impl_->PinchGestureEnd(); host_impl_->ScrollEnd(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); EXPECT_EQ(scroll_info->page_scale_delta, max_page_scale); } // Zoom-out clamping { host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, min_page_scale, max_page_scale); scroll_layer->SetScrollDelta(gfx::Vector2d()); scroll_layer->SetScrollOffset(gfx::Vector2d(50, 50)); float page_scale_delta = 0.1f; host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture); host_impl_->PinchGestureBegin(); host_impl_->PinchGestureUpdate(page_scale_delta, gfx::Point()); host_impl_->PinchGestureEnd(); host_impl_->ScrollEnd(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); EXPECT_EQ(scroll_info->page_scale_delta, min_page_scale); EXPECT_TRUE(scroll_info->scrolls.empty()); } // Two-finger panning should not happen based on pinch events only { host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, min_page_scale, max_page_scale); scroll_layer->SetScrollDelta(gfx::Vector2d()); scroll_layer->SetScrollOffset(gfx::Vector2d(20, 20)); float page_scale_delta = 1.f; host_impl_->ScrollBegin(gfx::Point(10, 10), InputHandler::Gesture); host_impl_->PinchGestureBegin(); host_impl_->PinchGestureUpdate(page_scale_delta, gfx::Point(10, 10)); host_impl_->PinchGestureUpdate(page_scale_delta, gfx::Point(20, 20)); host_impl_->PinchGestureEnd(); host_impl_->ScrollEnd(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); EXPECT_EQ(scroll_info->page_scale_delta, page_scale_delta); EXPECT_TRUE(scroll_info->scrolls.empty()); } // Two-finger panning should work with interleaved scroll events { host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, min_page_scale, max_page_scale); scroll_layer->SetScrollDelta(gfx::Vector2d()); scroll_layer->SetScrollOffset(gfx::Vector2d(20, 20)); float page_scale_delta = 1.f; host_impl_->ScrollBegin(gfx::Point(10, 10), InputHandler::Gesture); host_impl_->PinchGestureBegin(); host_impl_->PinchGestureUpdate(page_scale_delta, gfx::Point(10, 10)); host_impl_->ScrollBy(gfx::Point(10, 10), gfx::Vector2d(-10, -10)); host_impl_->PinchGestureUpdate(page_scale_delta, gfx::Point(20, 20)); host_impl_->PinchGestureEnd(); host_impl_->ScrollEnd(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); EXPECT_EQ(scroll_info->page_scale_delta, page_scale_delta); ExpectContains(*scroll_info, scroll_layer->id(), gfx::Vector2d(-10, -10)); } // Two-finger panning should work when starting fully zoomed out. { host_impl_->active_tree()->SetPageScaleFactorAndLimits(0.5f, 0.5f, 4.f); scroll_layer->SetScrollDelta(gfx::Vector2d()); scroll_layer->SetScrollOffset(gfx::Vector2d(0, 0)); host_impl_->ScrollBegin(gfx::Point(0, 0), InputHandler::Gesture); host_impl_->PinchGestureBegin(); host_impl_->PinchGestureUpdate(2.f, gfx::Point(0, 0)); host_impl_->PinchGestureUpdate(1.f, gfx::Point(0, 0)); host_impl_->ScrollBy(gfx::Point(0, 0), gfx::Vector2d(10, 10)); host_impl_->PinchGestureUpdate(1.f, gfx::Point(10, 10)); host_impl_->PinchGestureEnd(); host_impl_->ScrollEnd(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); EXPECT_EQ(scroll_info->page_scale_delta, 2.f); ExpectContains(*scroll_info, scroll_layer->id(), gfx::Vector2d(20, 20)); } } TEST_F(LayerTreeHostImplTest, PageScaleAnimation) { SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); LayerImpl* scroll_layer = host_impl_->InnerViewportScrollLayer(); DCHECK(scroll_layer); float min_page_scale = 0.5f; float max_page_scale = 4.f; base::TimeTicks start_time = base::TimeTicks() + base::TimeDelta::FromSeconds(1); base::TimeDelta duration = base::TimeDelta::FromMilliseconds(100); base::TimeTicks halfway_through_animation = start_time + duration / 2; base::TimeTicks end_time = start_time + duration; // Non-anchor zoom-in { host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, min_page_scale, max_page_scale); scroll_layer->SetScrollOffset(gfx::Vector2d(50, 50)); did_request_redraw_ = false; did_request_animate_ = false; host_impl_->StartPageScaleAnimation(gfx::Vector2d(), false, 2.f, duration); EXPECT_FALSE(did_request_redraw_); EXPECT_TRUE(did_request_animate_); did_request_redraw_ = false; did_request_animate_ = false; host_impl_->Animate(start_time); EXPECT_TRUE(did_request_redraw_); EXPECT_TRUE(did_request_animate_); did_request_redraw_ = false; did_request_animate_ = false; host_impl_->Animate(halfway_through_animation); EXPECT_TRUE(did_request_redraw_); EXPECT_TRUE(did_request_animate_); did_request_redraw_ = false; did_request_animate_ = false; did_request_commit_ = false; host_impl_->Animate(end_time); EXPECT_TRUE(did_request_commit_); EXPECT_FALSE(did_request_animate_); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); EXPECT_EQ(scroll_info->page_scale_delta, 2); ExpectContains(*scroll_info, scroll_layer->id(), gfx::Vector2d(-50, -50)); } // Anchor zoom-out { host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, min_page_scale, max_page_scale); scroll_layer->SetScrollOffset(gfx::Vector2d(50, 50)); did_request_redraw_ = false; did_request_animate_ = false; host_impl_->StartPageScaleAnimation( gfx::Vector2d(25, 25), true, min_page_scale, duration); EXPECT_FALSE(did_request_redraw_); EXPECT_TRUE(did_request_animate_); did_request_redraw_ = false; did_request_animate_ = false; host_impl_->Animate(start_time); EXPECT_TRUE(did_request_redraw_); EXPECT_TRUE(did_request_animate_); did_request_redraw_ = false; did_request_commit_ = false; did_request_animate_ = false; host_impl_->Animate(end_time); EXPECT_TRUE(did_request_redraw_); EXPECT_FALSE(did_request_animate_); EXPECT_TRUE(did_request_commit_); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); EXPECT_EQ(scroll_info->page_scale_delta, min_page_scale); // Pushed to (0,0) via clamping against contents layer size. ExpectContains(*scroll_info, scroll_layer->id(), gfx::Vector2d(-50, -50)); } } TEST_F(LayerTreeHostImplTest, PageScaleAnimationNoOp) { SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); DrawFrame(); LayerImpl* scroll_layer = host_impl_->InnerViewportScrollLayer(); DCHECK(scroll_layer); float min_page_scale = 0.5f; float max_page_scale = 4.f; base::TimeTicks start_time = base::TimeTicks() + base::TimeDelta::FromSeconds(1); base::TimeDelta duration = base::TimeDelta::FromMilliseconds(100); base::TimeTicks halfway_through_animation = start_time + duration / 2; base::TimeTicks end_time = start_time + duration; // Anchor zoom with unchanged page scale should not change scroll or scale. { host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, min_page_scale, max_page_scale); scroll_layer->SetScrollOffset(gfx::Vector2d(50, 50)); host_impl_->StartPageScaleAnimation(gfx::Vector2d(), true, 1.f, duration); host_impl_->Animate(start_time); host_impl_->Animate(halfway_through_animation); EXPECT_TRUE(did_request_redraw_); host_impl_->Animate(end_time); EXPECT_TRUE(did_request_commit_); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); EXPECT_EQ(scroll_info->page_scale_delta, 1); ExpectNone(*scroll_info, scroll_layer->id()); } } class LayerTreeHostImplOverridePhysicalTime : public LayerTreeHostImpl { public: LayerTreeHostImplOverridePhysicalTime( const LayerTreeSettings& settings, LayerTreeHostImplClient* client, Proxy* proxy, SharedBitmapManager* manager, RenderingStatsInstrumentation* rendering_stats_instrumentation) : LayerTreeHostImpl(settings, client, proxy, rendering_stats_instrumentation, manager, 0) {} virtual BeginFrameArgs CurrentBeginFrameArgs() const OVERRIDE { return CreateBeginFrameArgsForTesting(fake_current_physical_time_); } void SetCurrentPhysicalTimeTicksForTest(base::TimeTicks fake_now) { fake_current_physical_time_ = fake_now; } private: base::TimeTicks fake_current_physical_time_; }; #define SETUP_LAYERS_FOR_SCROLLBAR_ANIMATION_TEST() \ gfx::Size viewport_size(10, 10); \ gfx::Size content_size(100, 100); \ \ LayerTreeHostImplOverridePhysicalTime* host_impl_override_time = \ new LayerTreeHostImplOverridePhysicalTime(settings, \ this, \ &proxy_, \ shared_bitmap_manager_.get(), \ &stats_instrumentation_); \ host_impl_ = make_scoped_ptr(host_impl_override_time); \ host_impl_->InitializeRenderer(CreateOutputSurface()); \ host_impl_->SetViewportSize(viewport_size); \ \ scoped_ptr root = \ LayerImpl::Create(host_impl_->active_tree(), 1); \ root->SetBounds(viewport_size); \ \ scoped_ptr scroll = \ LayerImpl::Create(host_impl_->active_tree(), 2); \ scroll->SetScrollClipLayer(root->id()); \ scroll->SetScrollOffset(gfx::Vector2d()); \ root->SetBounds(viewport_size); \ scroll->SetBounds(content_size); \ scroll->SetContentBounds(content_size); \ scroll->SetIsContainerForFixedPositionLayers(true); \ \ scoped_ptr contents = \ LayerImpl::Create(host_impl_->active_tree(), 3); \ contents->SetDrawsContent(true); \ contents->SetBounds(content_size); \ contents->SetContentBounds(content_size); \ \ scoped_ptr scrollbar = \ SolidColorScrollbarLayerImpl::Create( \ host_impl_->active_tree(), 4, VERTICAL, 10, 0, false, true); \ EXPECT_FLOAT_EQ(0.f, scrollbar->opacity()); \ \ scroll->AddChild(contents.Pass()); \ root->AddChild(scroll.Pass()); \ scrollbar->SetScrollLayerAndClipLayerByIds(2, 1); \ root->AddChild(scrollbar.PassAs()); \ \ host_impl_->active_tree()->SetRootLayer(root.Pass()); \ host_impl_->active_tree()->SetViewportLayersFromIds( \ 1, 2, Layer::INVALID_ID); \ host_impl_->active_tree()->DidBecomeActive(); \ DrawFrame(); TEST_F(LayerTreeHostImplTest, ScrollbarLinearFadeScheduling) { LayerTreeSettings settings; settings.scrollbar_animator = LayerTreeSettings::LinearFade; settings.scrollbar_fade_delay_ms = 20; settings.scrollbar_fade_duration_ms = 20; SETUP_LAYERS_FOR_SCROLLBAR_ANIMATION_TEST(); base::TimeTicks fake_now = gfx::FrameTime::Now(); EXPECT_EQ(base::TimeDelta(), requested_scrollbar_animation_delay_); EXPECT_FALSE(did_request_redraw_); // If no scroll happened during a scroll gesture, it should have no effect. host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel); host_impl_->ScrollEnd(); EXPECT_EQ(base::TimeDelta(), requested_scrollbar_animation_delay_); EXPECT_FALSE(did_request_redraw_); EXPECT_TRUE(scrollbar_fade_start_.Equals(base::Closure())); // After a scroll, a fade animation should be scheduled about 20ms from now. host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2dF(5, 0)); host_impl_->ScrollEnd(); did_request_redraw_ = false; did_request_animate_ = false; EXPECT_LT(base::TimeDelta::FromMilliseconds(19), requested_scrollbar_animation_delay_); EXPECT_FALSE(did_request_redraw_); EXPECT_FALSE(did_request_animate_); requested_scrollbar_animation_delay_ = base::TimeDelta(); scrollbar_fade_start_.Run(); host_impl_->Animate(fake_now); // After the fade begins, we should start getting redraws instead of a // scheduled animation. fake_now += base::TimeDelta::FromMilliseconds(25); EXPECT_EQ(base::TimeDelta(), requested_scrollbar_animation_delay_); EXPECT_TRUE(did_request_animate_); did_request_animate_ = false; // Setting the scroll offset outside a scroll should also cause the scrollbar // to appear and to schedule a fade. host_impl_->InnerViewportScrollLayer()->SetScrollOffset(gfx::Vector2d(5, 5)); EXPECT_LT(base::TimeDelta::FromMilliseconds(19), requested_scrollbar_animation_delay_); EXPECT_FALSE(did_request_redraw_); EXPECT_FALSE(did_request_animate_); requested_scrollbar_animation_delay_ = base::TimeDelta(); } TEST_F(LayerTreeHostImplTest, ScrollbarFadePinchZoomScrollbars) { LayerTreeSettings settings; settings.scrollbar_animator = LayerTreeSettings::LinearFade; settings.scrollbar_fade_delay_ms = 20; settings.scrollbar_fade_duration_ms = 20; settings.use_pinch_zoom_scrollbars = true; SETUP_LAYERS_FOR_SCROLLBAR_ANIMATION_TEST(); base::TimeTicks fake_now = gfx::FrameTime::Now(); host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, 1.f, 4.f); EXPECT_EQ(base::TimeDelta(), requested_scrollbar_animation_delay_); EXPECT_FALSE(did_request_animate_); // If no scroll happened during a scroll gesture, it should have no effect. host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel); host_impl_->ScrollEnd(); EXPECT_EQ(base::TimeDelta(), requested_scrollbar_animation_delay_); EXPECT_FALSE(did_request_animate_); EXPECT_TRUE(scrollbar_fade_start_.Equals(base::Closure())); // After a scroll, no fade animation should be scheduled. host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2dF(5, 0)); host_impl_->ScrollEnd(); did_request_redraw_ = false; EXPECT_EQ(base::TimeDelta(), requested_scrollbar_animation_delay_); EXPECT_FALSE(did_request_animate_); requested_scrollbar_animation_delay_ = base::TimeDelta(); // We should not see any draw requests. fake_now += base::TimeDelta::FromMilliseconds(25); EXPECT_EQ(base::TimeDelta(), requested_scrollbar_animation_delay_); EXPECT_FALSE(did_request_animate_); // Make page scale > min so that subsequent scrolls will trigger fades. host_impl_->active_tree()->SetPageScaleDelta(1.1f); // After a scroll, a fade animation should be scheduled about 20ms from now. host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2dF(5, 0)); host_impl_->ScrollEnd(); did_request_redraw_ = false; EXPECT_LT(base::TimeDelta::FromMilliseconds(19), requested_scrollbar_animation_delay_); EXPECT_FALSE(did_request_animate_); requested_scrollbar_animation_delay_ = base::TimeDelta(); scrollbar_fade_start_.Run(); // After the fade begins, we should start getting redraws instead of a // scheduled animation. fake_now += base::TimeDelta::FromMilliseconds(25); host_impl_->Animate(fake_now); EXPECT_TRUE(did_request_animate_); } void LayerTreeHostImplTest::SetupMouseMoveAtWithDeviceScale( float device_scale_factor) { LayerTreeSettings settings; settings.scrollbar_fade_delay_ms = 500; settings.scrollbar_fade_duration_ms = 300; settings.scrollbar_animator = LayerTreeSettings::Thinning; gfx::Size viewport_size(300, 200); gfx::Size device_viewport_size = gfx::ToFlooredSize( gfx::ScaleSize(viewport_size, device_scale_factor)); gfx::Size content_size(1000, 1000); CreateHostImpl(settings, CreateOutputSurface()); host_impl_->SetDeviceScaleFactor(device_scale_factor); host_impl_->SetViewportSize(device_viewport_size); scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); root->SetBounds(viewport_size); scoped_ptr scroll = LayerImpl::Create(host_impl_->active_tree(), 2); scroll->SetScrollClipLayer(root->id()); scroll->SetScrollOffset(gfx::Vector2d()); scroll->SetBounds(content_size); scroll->SetContentBounds(content_size); scroll->SetIsContainerForFixedPositionLayers(true); scoped_ptr contents = LayerImpl::Create(host_impl_->active_tree(), 3); contents->SetDrawsContent(true); contents->SetBounds(content_size); contents->SetContentBounds(content_size); // The scrollbar is on the right side. scoped_ptr scrollbar = PaintedScrollbarLayerImpl::Create(host_impl_->active_tree(), 5, VERTICAL); scrollbar->SetDrawsContent(true); scrollbar->SetBounds(gfx::Size(15, viewport_size.height())); scrollbar->SetContentBounds(gfx::Size(15, viewport_size.height())); scrollbar->SetPosition(gfx::Point(285, 0)); scroll->AddChild(contents.Pass()); root->AddChild(scroll.Pass()); scrollbar->SetScrollLayerAndClipLayerByIds(2, 1); root->AddChild(scrollbar.PassAs()); host_impl_->active_tree()->SetRootLayer(root.Pass()); host_impl_->active_tree()->SetViewportLayersFromIds(1, 2, Layer::INVALID_ID); host_impl_->active_tree()->DidBecomeActive(); DrawFrame(); LayerImpl* root_scroll = host_impl_->active_tree()->InnerViewportScrollLayer(); ASSERT_TRUE(root_scroll->scrollbar_animation_controller()); ScrollbarAnimationControllerThinning* scrollbar_animation_controller = static_cast( root_scroll->scrollbar_animation_controller()); scrollbar_animation_controller->set_mouse_move_distance_for_test(100.f); host_impl_->MouseMoveAt(gfx::Point(1, 1)); EXPECT_FALSE(scrollbar_animation_controller->mouse_is_near_scrollbar()); host_impl_->MouseMoveAt(gfx::Point(200, 50)); EXPECT_TRUE(scrollbar_animation_controller->mouse_is_near_scrollbar()); host_impl_->MouseMoveAt(gfx::Point(184, 100)); EXPECT_FALSE(scrollbar_animation_controller->mouse_is_near_scrollbar()); scrollbar_animation_controller->set_mouse_move_distance_for_test(102.f); host_impl_->MouseMoveAt(gfx::Point(184, 100)); EXPECT_TRUE(scrollbar_animation_controller->mouse_is_near_scrollbar()); did_request_redraw_ = false; EXPECT_EQ(0, host_impl_->scroll_layer_id_when_mouse_over_scrollbar()); host_impl_->MouseMoveAt(gfx::Point(290, 100)); EXPECT_EQ(2, host_impl_->scroll_layer_id_when_mouse_over_scrollbar()); host_impl_->MouseMoveAt(gfx::Point(290, 120)); EXPECT_EQ(2, host_impl_->scroll_layer_id_when_mouse_over_scrollbar()); host_impl_->MouseMoveAt(gfx::Point(150, 120)); EXPECT_EQ(0, host_impl_->scroll_layer_id_when_mouse_over_scrollbar()); } TEST_F(LayerTreeHostImplTest, MouseMoveAtWithDeviceScaleOf1) { SetupMouseMoveAtWithDeviceScale(1.f); } TEST_F(LayerTreeHostImplTest, MouseMoveAtWithDeviceScaleOf2) { SetupMouseMoveAtWithDeviceScale(2.f); } TEST_F(LayerTreeHostImplTest, CompositorFrameMetadata) { SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, 0.5f, 4.f); DrawFrame(); { CompositorFrameMetadata metadata = host_impl_->MakeCompositorFrameMetadata(); EXPECT_EQ(gfx::Vector2dF(), metadata.root_scroll_offset); EXPECT_EQ(1.f, metadata.page_scale_factor); EXPECT_EQ(gfx::SizeF(50.f, 50.f), metadata.scrollable_viewport_size); EXPECT_EQ(gfx::SizeF(100.f, 100.f), metadata.root_layer_size); EXPECT_EQ(0.5f, metadata.min_page_scale_factor); EXPECT_EQ(4.f, metadata.max_page_scale_factor); } // Scrolling should update metadata immediately. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 10)); { CompositorFrameMetadata metadata = host_impl_->MakeCompositorFrameMetadata(); EXPECT_EQ(gfx::Vector2dF(0.f, 10.f), metadata.root_scroll_offset); } host_impl_->ScrollEnd(); { CompositorFrameMetadata metadata = host_impl_->MakeCompositorFrameMetadata(); EXPECT_EQ(gfx::Vector2dF(0.f, 10.f), metadata.root_scroll_offset); } // Page scale should update metadata correctly (shrinking only the viewport). host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture); host_impl_->PinchGestureBegin(); host_impl_->PinchGestureUpdate(2.f, gfx::Point()); host_impl_->PinchGestureEnd(); host_impl_->ScrollEnd(); { CompositorFrameMetadata metadata = host_impl_->MakeCompositorFrameMetadata(); EXPECT_EQ(gfx::Vector2dF(0.f, 10.f), metadata.root_scroll_offset); EXPECT_EQ(2.f, metadata.page_scale_factor); EXPECT_EQ(gfx::SizeF(25.f, 25.f), metadata.scrollable_viewport_size); EXPECT_EQ(gfx::SizeF(100.f, 100.f), metadata.root_layer_size); EXPECT_EQ(0.5f, metadata.min_page_scale_factor); EXPECT_EQ(4.f, metadata.max_page_scale_factor); } // Likewise if set from the main thread. host_impl_->ProcessScrollDeltas(); host_impl_->active_tree()->SetPageScaleFactorAndLimits(4.f, 0.5f, 4.f); host_impl_->active_tree()->SetPageScaleDelta(1.f); { CompositorFrameMetadata metadata = host_impl_->MakeCompositorFrameMetadata(); EXPECT_EQ(gfx::Vector2dF(0.f, 10.f), metadata.root_scroll_offset); EXPECT_EQ(4.f, metadata.page_scale_factor); EXPECT_EQ(gfx::SizeF(12.5f, 12.5f), metadata.scrollable_viewport_size); EXPECT_EQ(gfx::SizeF(100.f, 100.f), metadata.root_layer_size); EXPECT_EQ(0.5f, metadata.min_page_scale_factor); EXPECT_EQ(4.f, metadata.max_page_scale_factor); } } class DidDrawCheckLayer : public LayerImpl { public: static scoped_ptr Create(LayerTreeImpl* tree_impl, int id) { return scoped_ptr(new DidDrawCheckLayer(tree_impl, id)); } virtual bool WillDraw(DrawMode draw_mode, ResourceProvider* provider) OVERRIDE { will_draw_called_ = true; if (will_draw_returns_false_) return false; return LayerImpl::WillDraw(draw_mode, provider); } virtual void AppendQuads(RenderPass* render_pass, const OcclusionTracker& occlusion_tracker, AppendQuadsData* append_quads_data) OVERRIDE { append_quads_called_ = true; LayerImpl::AppendQuads(render_pass, occlusion_tracker, append_quads_data); } virtual void DidDraw(ResourceProvider* provider) OVERRIDE { did_draw_called_ = true; LayerImpl::DidDraw(provider); } bool will_draw_called() const { return will_draw_called_; } bool append_quads_called() const { return append_quads_called_; } bool did_draw_called() const { return did_draw_called_; } void set_will_draw_returns_false() { will_draw_returns_false_ = true; } void ClearDidDrawCheck() { will_draw_called_ = false; append_quads_called_ = false; did_draw_called_ = false; } protected: DidDrawCheckLayer(LayerTreeImpl* tree_impl, int id) : LayerImpl(tree_impl, id), will_draw_returns_false_(false), will_draw_called_(false), append_quads_called_(false), did_draw_called_(false) { SetBounds(gfx::Size(10, 10)); SetContentBounds(gfx::Size(10, 10)); SetDrawsContent(true); draw_properties().visible_content_rect = gfx::Rect(0, 0, 10, 10); } private: bool will_draw_returns_false_; bool will_draw_called_; bool append_quads_called_; bool did_draw_called_; }; TEST_F(LayerTreeHostImplTest, WillDrawReturningFalseDoesNotCall) { // The root layer is always drawn, so run this test on a child layer that // will be masked out by the root layer's bounds. host_impl_->active_tree()->SetRootLayer( DidDrawCheckLayer::Create(host_impl_->active_tree(), 1)); DidDrawCheckLayer* root = static_cast( host_impl_->active_tree()->root_layer()); root->AddChild(DidDrawCheckLayer::Create(host_impl_->active_tree(), 2)); DidDrawCheckLayer* layer = static_cast(root->children()[0]); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); EXPECT_TRUE(layer->will_draw_called()); EXPECT_TRUE(layer->append_quads_called()); EXPECT_TRUE(layer->did_draw_called()); } host_impl_->SetViewportDamage(gfx::Rect(10, 10)); { LayerTreeHostImpl::FrameData frame; layer->set_will_draw_returns_false(); layer->ClearDidDrawCheck(); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); EXPECT_TRUE(layer->will_draw_called()); EXPECT_FALSE(layer->append_quads_called()); EXPECT_FALSE(layer->did_draw_called()); } } TEST_F(LayerTreeHostImplTest, DidDrawNotCalledOnHiddenLayer) { // The root layer is always drawn, so run this test on a child layer that // will be masked out by the root layer's bounds. host_impl_->active_tree()->SetRootLayer( DidDrawCheckLayer::Create(host_impl_->active_tree(), 1)); DidDrawCheckLayer* root = static_cast( host_impl_->active_tree()->root_layer()); root->SetMasksToBounds(true); root->AddChild(DidDrawCheckLayer::Create(host_impl_->active_tree(), 2)); DidDrawCheckLayer* layer = static_cast(root->children()[0]); // Ensure visible_content_rect for layer is empty. layer->SetPosition(gfx::PointF(100.f, 100.f)); layer->SetBounds(gfx::Size(10, 10)); layer->SetContentBounds(gfx::Size(10, 10)); LayerTreeHostImpl::FrameData frame; EXPECT_FALSE(layer->will_draw_called()); EXPECT_FALSE(layer->did_draw_called()); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); EXPECT_FALSE(layer->will_draw_called()); EXPECT_FALSE(layer->did_draw_called()); EXPECT_TRUE(layer->visible_content_rect().IsEmpty()); // Ensure visible_content_rect for layer is not empty layer->SetPosition(gfx::PointF()); EXPECT_FALSE(layer->will_draw_called()); EXPECT_FALSE(layer->did_draw_called()); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); EXPECT_TRUE(layer->will_draw_called()); EXPECT_TRUE(layer->did_draw_called()); EXPECT_FALSE(layer->visible_content_rect().IsEmpty()); } TEST_F(LayerTreeHostImplTest, WillDrawNotCalledOnOccludedLayer) { gfx::Size big_size(1000, 1000); host_impl_->SetViewportSize(big_size); host_impl_->active_tree()->SetRootLayer( DidDrawCheckLayer::Create(host_impl_->active_tree(), 1)); DidDrawCheckLayer* root = static_cast(host_impl_->active_tree()->root_layer()); root->AddChild(DidDrawCheckLayer::Create(host_impl_->active_tree(), 2)); DidDrawCheckLayer* occluded_layer = static_cast(root->children()[0]); root->AddChild(DidDrawCheckLayer::Create(host_impl_->active_tree(), 3)); DidDrawCheckLayer* top_layer = static_cast(root->children()[1]); // This layer covers the occluded_layer above. Make this layer large so it can // occlude. top_layer->SetBounds(big_size); top_layer->SetContentBounds(big_size); top_layer->SetContentsOpaque(true); LayerTreeHostImpl::FrameData frame; EXPECT_FALSE(occluded_layer->will_draw_called()); EXPECT_FALSE(occluded_layer->did_draw_called()); EXPECT_FALSE(top_layer->will_draw_called()); EXPECT_FALSE(top_layer->did_draw_called()); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); EXPECT_FALSE(occluded_layer->will_draw_called()); EXPECT_FALSE(occluded_layer->did_draw_called()); EXPECT_TRUE(top_layer->will_draw_called()); EXPECT_TRUE(top_layer->did_draw_called()); } TEST_F(LayerTreeHostImplTest, DidDrawCalledOnAllLayers) { host_impl_->active_tree()->SetRootLayer( DidDrawCheckLayer::Create(host_impl_->active_tree(), 1)); DidDrawCheckLayer* root = static_cast(host_impl_->active_tree()->root_layer()); root->AddChild(DidDrawCheckLayer::Create(host_impl_->active_tree(), 2)); DidDrawCheckLayer* layer1 = static_cast(root->children()[0]); layer1->AddChild(DidDrawCheckLayer::Create(host_impl_->active_tree(), 3)); DidDrawCheckLayer* layer2 = static_cast(layer1->children()[0]); layer1->SetOpacity(0.3f); layer1->SetShouldFlattenTransform(true); EXPECT_FALSE(root->did_draw_called()); EXPECT_FALSE(layer1->did_draw_called()); EXPECT_FALSE(layer2->did_draw_called()); LayerTreeHostImpl::FrameData frame; FakeLayerTreeHostImpl::RecursiveUpdateNumChildren( host_impl_->active_tree()->root_layer()); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); EXPECT_TRUE(root->did_draw_called()); EXPECT_TRUE(layer1->did_draw_called()); EXPECT_TRUE(layer2->did_draw_called()); EXPECT_NE(root->render_surface(), layer1->render_surface()); EXPECT_TRUE(!!layer1->render_surface()); } class MissingTextureAnimatingLayer : public DidDrawCheckLayer { public: static scoped_ptr Create(LayerTreeImpl* tree_impl, int id, bool tile_missing, bool had_incomplete_tile, bool animating, ResourceProvider* resource_provider) { return scoped_ptr( new MissingTextureAnimatingLayer(tree_impl, id, tile_missing, had_incomplete_tile, animating, resource_provider)); } virtual void AppendQuads(RenderPass* render_pass, const OcclusionTracker& occlusion_tracker, AppendQuadsData* append_quads_data) OVERRIDE { LayerImpl::AppendQuads(render_pass, occlusion_tracker, append_quads_data); if (had_incomplete_tile_) append_quads_data->num_incomplete_tiles++; if (tile_missing_) append_quads_data->num_missing_tiles++; } private: MissingTextureAnimatingLayer(LayerTreeImpl* tree_impl, int id, bool tile_missing, bool had_incomplete_tile, bool animating, ResourceProvider* resource_provider) : DidDrawCheckLayer(tree_impl, id), tile_missing_(tile_missing), had_incomplete_tile_(had_incomplete_tile) { if (animating) AddAnimatedTransformToLayer(this, 10.0, 3, 0); } bool tile_missing_; bool had_incomplete_tile_; }; TEST_F(LayerTreeHostImplTest, PrepareToDrawSucceedsOnDefault) { host_impl_->active_tree()->SetRootLayer( DidDrawCheckLayer::Create(host_impl_->active_tree(), 1)); DidDrawCheckLayer* root = static_cast(host_impl_->active_tree()->root_layer()); bool tile_missing = false; bool had_incomplete_tile = false; bool is_animating = false; root->AddChild( MissingTextureAnimatingLayer::Create(host_impl_->active_tree(), 2, tile_missing, had_incomplete_tile, is_animating, host_impl_->resource_provider())); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } TEST_F(LayerTreeHostImplTest, PrepareToDrawSucceedsWithAnimatedLayer) { host_impl_->active_tree()->SetRootLayer( DidDrawCheckLayer::Create(host_impl_->active_tree(), 1)); DidDrawCheckLayer* root = static_cast(host_impl_->active_tree()->root_layer()); bool tile_missing = false; bool had_incomplete_tile = false; bool is_animating = true; root->AddChild( MissingTextureAnimatingLayer::Create(host_impl_->active_tree(), 2, tile_missing, had_incomplete_tile, is_animating, host_impl_->resource_provider())); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } TEST_F(LayerTreeHostImplTest, PrepareToDrawSucceedsWithMissingTiles) { host_impl_->active_tree()->SetRootLayer( DidDrawCheckLayer::Create(host_impl_->active_tree(), 3)); DidDrawCheckLayer* root = static_cast(host_impl_->active_tree()->root_layer()); bool tile_missing = true; bool had_incomplete_tile = false; bool is_animating = false; root->AddChild( MissingTextureAnimatingLayer::Create(host_impl_->active_tree(), 4, tile_missing, had_incomplete_tile, is_animating, host_impl_->resource_provider())); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } TEST_F(LayerTreeHostImplTest, PrepareToDrawSucceedsWithIncompleteTile) { host_impl_->active_tree()->SetRootLayer( DidDrawCheckLayer::Create(host_impl_->active_tree(), 3)); DidDrawCheckLayer* root = static_cast(host_impl_->active_tree()->root_layer()); bool tile_missing = false; bool had_incomplete_tile = true; bool is_animating = false; root->AddChild( MissingTextureAnimatingLayer::Create(host_impl_->active_tree(), 4, tile_missing, had_incomplete_tile, is_animating, host_impl_->resource_provider())); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } TEST_F(LayerTreeHostImplTest, PrepareToDrawFailsWithAnimationAndMissingTilesUsesCheckerboard) { host_impl_->active_tree()->SetRootLayer( DidDrawCheckLayer::Create(host_impl_->active_tree(), 5)); DidDrawCheckLayer* root = static_cast(host_impl_->active_tree()->root_layer()); bool tile_missing = true; bool had_incomplete_tile = false; bool is_animating = true; root->AddChild( MissingTextureAnimatingLayer::Create(host_impl_->active_tree(), 6, tile_missing, had_incomplete_tile, is_animating, host_impl_->resource_provider())); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_ABORTED_CHECKERBOARD_ANIMATIONS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } TEST_F(LayerTreeHostImplTest, PrepareToDrawSucceedsWithAnimationAndIncompleteTiles) { host_impl_->active_tree()->SetRootLayer( DidDrawCheckLayer::Create(host_impl_->active_tree(), 5)); DidDrawCheckLayer* root = static_cast(host_impl_->active_tree()->root_layer()); bool tile_missing = false; bool had_incomplete_tile = true; bool is_animating = true; root->AddChild( MissingTextureAnimatingLayer::Create(host_impl_->active_tree(), 6, tile_missing, had_incomplete_tile, is_animating, host_impl_->resource_provider())); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } TEST_F(LayerTreeHostImplTest, PrepareToDrawSucceedsWhenHighResRequired) { host_impl_->active_tree()->SetRootLayer( DidDrawCheckLayer::Create(host_impl_->active_tree(), 7)); DidDrawCheckLayer* root = static_cast(host_impl_->active_tree()->root_layer()); bool tile_missing = false; bool had_incomplete_tile = false; bool is_animating = false; root->AddChild( MissingTextureAnimatingLayer::Create(host_impl_->active_tree(), 8, tile_missing, had_incomplete_tile, is_animating, host_impl_->resource_provider())); host_impl_->active_tree()->SetRequiresHighResToDraw(); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } TEST_F(LayerTreeHostImplTest, PrepareToDrawFailsWhenHighResRequiredAndIncompleteTiles) { host_impl_->active_tree()->SetRootLayer( DidDrawCheckLayer::Create(host_impl_->active_tree(), 7)); DidDrawCheckLayer* root = static_cast(host_impl_->active_tree()->root_layer()); bool tile_missing = false; bool had_incomplete_tile = true; bool is_animating = false; root->AddChild( MissingTextureAnimatingLayer::Create(host_impl_->active_tree(), 8, tile_missing, had_incomplete_tile, is_animating, host_impl_->resource_provider())); host_impl_->active_tree()->SetRequiresHighResToDraw(); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_ABORTED_MISSING_HIGH_RES_CONTENT, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } TEST_F(LayerTreeHostImplTest, PrepareToDrawFailsWhenHighResRequiredAndMissingTile) { host_impl_->active_tree()->SetRootLayer( DidDrawCheckLayer::Create(host_impl_->active_tree(), 7)); DidDrawCheckLayer* root = static_cast(host_impl_->active_tree()->root_layer()); bool tile_missing = true; bool had_incomplete_tile = false; bool is_animating = false; root->AddChild( MissingTextureAnimatingLayer::Create(host_impl_->active_tree(), 8, tile_missing, had_incomplete_tile, is_animating, host_impl_->resource_provider())); host_impl_->active_tree()->SetRequiresHighResToDraw(); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_ABORTED_MISSING_HIGH_RES_CONTENT, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } TEST_F(LayerTreeHostImplTest, ScrollRootIgnored) { scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); root->SetScrollClipLayer(Layer::INVALID_ID); host_impl_->active_tree()->SetRootLayer(root.Pass()); DrawFrame(); // Scroll event is ignored because layer is not scrollable. EXPECT_EQ(InputHandler::ScrollIgnored, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); EXPECT_FALSE(did_request_redraw_); EXPECT_FALSE(did_request_commit_); } class LayerTreeHostImplTopControlsTest : public LayerTreeHostImplTest { public: LayerTreeHostImplTopControlsTest() // Make the clip size the same as the layer (content) size so the layer is // non-scrollable. : layer_size_(10, 10), clip_size_(layer_size_) { settings_.calculate_top_controls_position = true; settings_.top_controls_height = 50; viewport_size_ = gfx::Size(clip_size_.width(), clip_size_.height() + settings_.top_controls_height); } void SetupTopControlsAndScrollLayer() { CreateHostImpl(settings_, CreateOutputSurface()); scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); scoped_ptr root_clip = LayerImpl::Create(host_impl_->active_tree(), 2); root_clip->SetBounds(clip_size_); root->SetScrollClipLayer(root_clip->id()); root->SetBounds(layer_size_); root->SetContentBounds(layer_size_); root->SetPosition(gfx::PointF()); root->SetDrawsContent(false); root->SetIsContainerForFixedPositionLayers(true); int inner_viewport_scroll_layer_id = root->id(); int page_scale_layer_id = root_clip->id(); root_clip->AddChild(root.Pass()); host_impl_->active_tree()->SetRootLayer(root_clip.Pass()); host_impl_->active_tree()->SetViewportLayersFromIds( page_scale_layer_id, inner_viewport_scroll_layer_id, Layer::INVALID_ID); // Set a viewport size that is large enough to contain both the top controls // and some content. host_impl_->SetViewportSize(viewport_size_); host_impl_->active_tree()->set_top_controls_content_offset( settings_.top_controls_height); host_impl_->SetTopControlsLayoutHeight( settings_.top_controls_height); LayerImpl* root_clip_ptr = host_impl_->active_tree()->root_layer(); EXPECT_EQ(clip_size_, root_clip_ptr->bounds()); host_impl_->CreatePendingTree(); root = LayerImpl::Create(host_impl_->sync_tree(), 1); root_clip = LayerImpl::Create(host_impl_->sync_tree(), 2); root_clip->SetBounds(clip_size_); root->SetScrollClipLayer(root_clip->id()); root->SetBounds(layer_size_); root->SetContentBounds(layer_size_); root->SetPosition(gfx::PointF()); root->SetDrawsContent(false); root->SetIsContainerForFixedPositionLayers(true); inner_viewport_scroll_layer_id = root->id(); page_scale_layer_id = root_clip->id(); root_clip->AddChild(root.Pass()); host_impl_->sync_tree()->SetRootLayer(root_clip.Pass()); host_impl_->sync_tree()->SetViewportLayersFromIds( page_scale_layer_id, inner_viewport_scroll_layer_id, Layer::INVALID_ID); // Set a viewport size that is large enough to contain both the top controls // and some content. host_impl_->SetViewportSize(viewport_size_); host_impl_->sync_tree()->set_top_controls_layout_height( settings_.top_controls_height); root_clip_ptr = host_impl_->sync_tree()->root_layer(); EXPECT_EQ(clip_size_, root_clip_ptr->bounds()); } protected: gfx::Size layer_size_; gfx::Size clip_size_; gfx::Size viewport_size_; LayerTreeSettings settings_; }; // class LayerTreeHostImplTopControlsTest TEST_F(LayerTreeHostImplTopControlsTest, ScrollTopControlsByFractionalAmount) { SetupTopControlsAndScrollLayer(); DrawFrame(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); // Make the test scroll delta a fractional amount, to verify that the // fixed container size delta is (1) non-zero, and (2) fractional, and // (3) matches the movement of the top controls. gfx::Vector2dF top_controls_scroll_delta(0.f, 5.25f); host_impl_->top_controls_manager()->ScrollBegin(); host_impl_->top_controls_manager()->ScrollBy(top_controls_scroll_delta); host_impl_->top_controls_manager()->ScrollEnd(); LayerImpl* inner_viewport_scroll_layer = host_impl_->active_tree()->InnerViewportScrollLayer(); DCHECK(inner_viewport_scroll_layer); host_impl_->ScrollEnd(); EXPECT_EQ(top_controls_scroll_delta, inner_viewport_scroll_layer->FixedContainerSizeDelta()); } TEST_F(LayerTreeHostImplTopControlsTest, ScrollTopControlsWithPageScale) { SetupTopControlsAndScrollLayer(); DrawFrame(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); float page_scale = 1.5f; host_impl_->active_tree()->SetPageScaleFactorAndLimits(page_scale, 1.f, 2.f); gfx::Vector2dF top_controls_scroll_delta(0.f, 5.f); gfx::Vector2dF expected_container_size_delta = ScaleVector2d(top_controls_scroll_delta, 1.f / page_scale); host_impl_->top_controls_manager()->ScrollBegin(); host_impl_->top_controls_manager()->ScrollBy(top_controls_scroll_delta); host_impl_->top_controls_manager()->ScrollEnd(); LayerImpl* inner_viewport_scroll_layer = host_impl_->active_tree()->InnerViewportScrollLayer(); DCHECK(inner_viewport_scroll_layer); host_impl_->ScrollEnd(); // Use a tolerance that requires the container size delta to be within 0.01 // pixels. double tolerance = 0.0001; EXPECT_LT( (expected_container_size_delta - inner_viewport_scroll_layer->FixedContainerSizeDelta()).LengthSquared(), tolerance); } // Ensure setting the top controls position explicitly using the setters on the // TreeImpl correctly affects the top controls manager and viewport bounds. TEST_F(LayerTreeHostImplTopControlsTest, PositionTopControlsExplicitly) { SetupTopControlsAndScrollLayer(); DrawFrame(); host_impl_->active_tree()->set_top_controls_content_offset(30.f); EXPECT_EQ(30.f, host_impl_->top_controls_manager()->ContentTopOffset()); EXPECT_EQ(-20.f, host_impl_->top_controls_manager()->ControlsTopOffset()); host_impl_->active_tree()->set_top_controls_delta(-30.f); EXPECT_EQ(0.f, host_impl_->top_controls_manager()->ContentTopOffset()); EXPECT_EQ(-50.f, host_impl_->top_controls_manager()->ControlsTopOffset()); host_impl_->DidChangeTopControlsPosition(); // Now that top controls have moved, expect the clip to resize. LayerImpl* root_clip_ptr = host_impl_->active_tree()->root_layer(); EXPECT_EQ(viewport_size_, root_clip_ptr->bounds()); } // Test that the top_controls delta and sent delta are appropriately // applied on sync tree activation. The total top controls offset shouldn't // change after the activation. TEST_F(LayerTreeHostImplTopControlsTest, ApplyDeltaOnTreeActivation) { SetupTopControlsAndScrollLayer(); DrawFrame(); host_impl_->sync_tree()->set_top_controls_content_offset(15.f); host_impl_->active_tree()->set_top_controls_content_offset(20.f); host_impl_->active_tree()->set_top_controls_delta(-20.f); host_impl_->active_tree()->set_sent_top_controls_delta(-5.f); host_impl_->DidChangeTopControlsPosition(); LayerImpl* root_clip_ptr = host_impl_->active_tree()->root_layer(); EXPECT_EQ(viewport_size_, root_clip_ptr->bounds()); EXPECT_EQ(0.f, host_impl_->top_controls_manager()->ContentTopOffset()); EXPECT_EQ(0.f, host_impl_->active_tree()->total_top_controls_content_offset()); host_impl_->ActivateSyncTree(); root_clip_ptr = host_impl_->active_tree()->root_layer(); EXPECT_EQ(0.f, host_impl_->top_controls_manager()->ContentTopOffset()); EXPECT_EQ(viewport_size_, root_clip_ptr->bounds()); EXPECT_EQ(0.f, host_impl_->active_tree()->sent_top_controls_delta()); EXPECT_EQ(-15.f, host_impl_->active_tree()->top_controls_delta()); EXPECT_EQ(15.f, host_impl_->active_tree()->top_controls_content_offset()); EXPECT_EQ(0.f, host_impl_->active_tree()->total_top_controls_content_offset()); } // Test that changing the top controls layout height is correctly applied to // the inner viewport container bounds. That is, the top controls layout // height is the amount that the inner viewport container was shrunk outside // the compositor to accommodate the top controls. TEST_F(LayerTreeHostImplTopControlsTest, TopControlsLayoutHeightChanged) { SetupTopControlsAndScrollLayer(); DrawFrame(); host_impl_->sync_tree()->set_top_controls_content_offset(15.f); host_impl_->sync_tree()->set_top_controls_layout_height(15.f); host_impl_->active_tree()->set_top_controls_content_offset(20.f); host_impl_->active_tree()->set_top_controls_delta(-20.f); host_impl_->active_tree()->set_sent_top_controls_delta(-5.f); host_impl_->DidChangeTopControlsPosition(); LayerImpl* root_clip_ptr = host_impl_->active_tree()->root_layer(); EXPECT_EQ(viewport_size_, root_clip_ptr->bounds()); EXPECT_EQ(0.f, host_impl_->top_controls_manager()->ContentTopOffset()); host_impl_->sync_tree()->root_layer()->SetBounds( gfx::Size(root_clip_ptr->bounds().width(), root_clip_ptr->bounds().height() - 15.f)); host_impl_->ActivateSyncTree(); root_clip_ptr = host_impl_->active_tree()->root_layer(); EXPECT_EQ(0.f, host_impl_->top_controls_manager()->ContentTopOffset()); // The total bounds should remain unchanged since the bounds delta should // account for the difference between the layout height and the current // top controls offset. EXPECT_EQ(viewport_size_, root_clip_ptr->bounds()); EXPECT_VECTOR_EQ(gfx::Vector2dF(0.f, 15.f), root_clip_ptr->bounds_delta()); host_impl_->active_tree()->set_top_controls_delta(0.f); host_impl_->DidChangeTopControlsPosition(); EXPECT_EQ(15.f, host_impl_->top_controls_manager()->ContentTopOffset()); EXPECT_VECTOR_EQ(gfx::Vector2dF(0.f, 0.f), root_clip_ptr->bounds_delta()); EXPECT_EQ(gfx::Size(viewport_size_.width(), viewport_size_.height()-15.f), root_clip_ptr->bounds()); } TEST_F(LayerTreeHostImplTopControlsTest, ScrollNonScrollableRootWithTopControls) { SetupTopControlsAndScrollLayer(); DrawFrame(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); host_impl_->top_controls_manager()->ScrollBegin(); host_impl_->top_controls_manager()->ScrollBy(gfx::Vector2dF(0.f, 50.f)); host_impl_->top_controls_manager()->ScrollEnd(); EXPECT_EQ(0.f, host_impl_->top_controls_manager()->ContentTopOffset()); // Now that top controls have moved, expect the clip to resize. LayerImpl* root_clip_ptr = host_impl_->active_tree()->root_layer(); EXPECT_EQ(viewport_size_, root_clip_ptr->bounds()); host_impl_->ScrollEnd(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); float scroll_increment_y = -25.f; host_impl_->top_controls_manager()->ScrollBegin(); host_impl_->top_controls_manager()->ScrollBy( gfx::Vector2dF(0.f, scroll_increment_y)); EXPECT_EQ(-scroll_increment_y, host_impl_->top_controls_manager()->ContentTopOffset()); // Now that top controls have moved, expect the clip to resize. EXPECT_EQ(gfx::Size(viewport_size_.width(), viewport_size_.height() + scroll_increment_y), root_clip_ptr->bounds()); host_impl_->top_controls_manager()->ScrollBy( gfx::Vector2dF(0.f, scroll_increment_y)); host_impl_->top_controls_manager()->ScrollEnd(); EXPECT_EQ(-2 * scroll_increment_y, host_impl_->top_controls_manager()->ContentTopOffset()); // Now that top controls have moved, expect the clip to resize. EXPECT_EQ(clip_size_, root_clip_ptr->bounds()); host_impl_->ScrollEnd(); // Verify the layer is once-again non-scrollable. EXPECT_EQ( gfx::Vector2d(), host_impl_->active_tree()->InnerViewportScrollLayer()->MaxScrollOffset()); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); } TEST_F(LayerTreeHostImplTest, ScrollNonCompositedRoot) { // Test the configuration where a non-composited root layer is embedded in a // scrollable outer layer. gfx::Size surface_size(10, 10); gfx::Size contents_size(20, 20); scoped_ptr content_layer = LayerImpl::Create(host_impl_->active_tree(), 1); content_layer->SetDrawsContent(true); content_layer->SetPosition(gfx::PointF()); content_layer->SetBounds(contents_size); content_layer->SetContentBounds(contents_size); content_layer->SetContentsScale(2.f, 2.f); scoped_ptr scroll_clip_layer = LayerImpl::Create(host_impl_->active_tree(), 3); scroll_clip_layer->SetBounds(surface_size); scoped_ptr scroll_layer = LayerImpl::Create(host_impl_->active_tree(), 2); scroll_layer->SetScrollClipLayer(3); scroll_layer->SetBounds(contents_size); scroll_layer->SetContentBounds(contents_size); scroll_layer->SetPosition(gfx::PointF()); scroll_layer->AddChild(content_layer.Pass()); scroll_clip_layer->AddChild(scroll_layer.Pass()); host_impl_->active_tree()->SetRootLayer(scroll_clip_layer.Pass()); host_impl_->SetViewportSize(surface_size); DrawFrame(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 10)); host_impl_->ScrollEnd(); EXPECT_TRUE(did_request_redraw_); EXPECT_TRUE(did_request_commit_); } TEST_F(LayerTreeHostImplTest, ScrollChildCallsCommitAndRedraw) { gfx::Size surface_size(10, 10); gfx::Size contents_size(20, 20); scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); root->SetBounds(surface_size); root->SetContentBounds(contents_size); root->AddChild(CreateScrollableLayer(2, contents_size, root.get())); host_impl_->active_tree()->SetRootLayer(root.Pass()); host_impl_->SetViewportSize(surface_size); DrawFrame(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 10)); host_impl_->ScrollEnd(); EXPECT_TRUE(did_request_redraw_); EXPECT_TRUE(did_request_commit_); } TEST_F(LayerTreeHostImplTest, ScrollMissesChild) { gfx::Size surface_size(10, 10); scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); root->AddChild(CreateScrollableLayer(2, surface_size, root.get())); host_impl_->active_tree()->SetRootLayer(root.Pass()); host_impl_->SetViewportSize(surface_size); DrawFrame(); // Scroll event is ignored because the input coordinate is outside the layer // boundaries. EXPECT_EQ(InputHandler::ScrollIgnored, host_impl_->ScrollBegin(gfx::Point(15, 5), InputHandler::Wheel)); EXPECT_FALSE(did_request_redraw_); EXPECT_FALSE(did_request_commit_); } TEST_F(LayerTreeHostImplTest, ScrollMissesBackfacingChild) { gfx::Size surface_size(10, 10); scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); scoped_ptr child = CreateScrollableLayer(2, surface_size, root.get()); host_impl_->SetViewportSize(surface_size); gfx::Transform matrix; matrix.RotateAboutXAxis(180.0); child->SetTransform(matrix); child->SetDoubleSided(false); root->AddChild(child.Pass()); host_impl_->active_tree()->SetRootLayer(root.Pass()); DrawFrame(); // Scroll event is ignored because the scrollable layer is not facing the // viewer and there is nothing scrollable behind it. EXPECT_EQ(InputHandler::ScrollIgnored, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::Wheel)); EXPECT_FALSE(did_request_redraw_); EXPECT_FALSE(did_request_commit_); } TEST_F(LayerTreeHostImplTest, ScrollBlockedByContentLayer) { gfx::Size surface_size(10, 10); scoped_ptr clip_layer = LayerImpl::Create(host_impl_->active_tree(), 3); scoped_ptr content_layer = CreateScrollableLayer(1, surface_size, clip_layer.get()); content_layer->SetShouldScrollOnMainThread(true); content_layer->SetScrollClipLayer(Layer::INVALID_ID); // Note: we can use the same clip layer for both since both calls to // CreateScrollableLayer() use the same surface size. scoped_ptr scroll_layer = CreateScrollableLayer(2, surface_size, clip_layer.get()); scroll_layer->AddChild(content_layer.Pass()); clip_layer->AddChild(scroll_layer.Pass()); host_impl_->active_tree()->SetRootLayer(clip_layer.Pass()); host_impl_->SetViewportSize(surface_size); DrawFrame(); // Scrolling fails because the content layer is asking to be scrolled on the // main thread. EXPECT_EQ(InputHandler::ScrollOnMainThread, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::Wheel)); } TEST_F(LayerTreeHostImplTest, ScrollRootAndChangePageScaleOnMainThread) { gfx::Size surface_size(20, 20); gfx::Size viewport_size(10, 10); float page_scale = 2.f; scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); scoped_ptr root_clip = LayerImpl::Create(host_impl_->active_tree(), 2); scoped_ptr root_scrolling = CreateScrollableLayer(3, surface_size, root_clip.get()); EXPECT_EQ(viewport_size, root_clip->bounds()); root_scrolling->SetIsContainerForFixedPositionLayers(true); root_clip->AddChild(root_scrolling.Pass()); root->AddChild(root_clip.Pass()); host_impl_->active_tree()->SetRootLayer(root.Pass()); // The behaviour in this test assumes the page scale is applied at a layer // above the clip layer. host_impl_->active_tree()->SetViewportLayersFromIds(1, 3, Layer::INVALID_ID); host_impl_->active_tree()->DidBecomeActive(); host_impl_->SetViewportSize(viewport_size); DrawFrame(); LayerImpl* root_scroll = host_impl_->active_tree()->InnerViewportScrollLayer(); EXPECT_EQ(viewport_size, root_scroll->scroll_clip_layer()->bounds()); gfx::Vector2d scroll_delta(0, 10); gfx::Vector2d expected_scroll_delta = scroll_delta; gfx::Vector2d expected_max_scroll = root_scroll->MaxScrollOffset(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollEnd(); // Set new page scale from main thread. host_impl_->active_tree()->SetPageScaleFactorAndLimits(page_scale, page_scale, page_scale); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); ExpectContains(*scroll_info.get(), root_scroll->id(), expected_scroll_delta); // The scroll range should also have been updated. EXPECT_EQ(expected_max_scroll, root_scroll->MaxScrollOffset()); // The page scale delta remains constant because the impl thread did not // scale. EXPECT_EQ(1.f, host_impl_->active_tree()->page_scale_delta()); } TEST_F(LayerTreeHostImplTest, ScrollRootAndChangePageScaleOnImplThread) { gfx::Size surface_size(20, 20); gfx::Size viewport_size(10, 10); float page_scale = 2.f; scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); scoped_ptr root_clip = LayerImpl::Create(host_impl_->active_tree(), 2); scoped_ptr root_scrolling = CreateScrollableLayer(3, surface_size, root_clip.get()); EXPECT_EQ(viewport_size, root_clip->bounds()); root_scrolling->SetIsContainerForFixedPositionLayers(true); root_clip->AddChild(root_scrolling.Pass()); root->AddChild(root_clip.Pass()); host_impl_->active_tree()->SetRootLayer(root.Pass()); // The behaviour in this test assumes the page scale is applied at a layer // above the clip layer. host_impl_->active_tree()->SetViewportLayersFromIds(1, 3, Layer::INVALID_ID); host_impl_->active_tree()->DidBecomeActive(); host_impl_->SetViewportSize(viewport_size); host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, 1.f, page_scale); DrawFrame(); LayerImpl* root_scroll = host_impl_->active_tree()->InnerViewportScrollLayer(); EXPECT_EQ(viewport_size, root_scroll->scroll_clip_layer()->bounds()); gfx::Vector2d scroll_delta(0, 10); gfx::Vector2d expected_scroll_delta = scroll_delta; gfx::Vector2d expected_max_scroll = root_scroll->MaxScrollOffset(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollEnd(); // Set new page scale on impl thread by pinching. host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture); host_impl_->PinchGestureBegin(); host_impl_->PinchGestureUpdate(page_scale, gfx::Point()); host_impl_->PinchGestureEnd(); host_impl_->ScrollEnd(); DrawOneFrame(); // The scroll delta is not scaled because the main thread did not scale. scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); ExpectContains(*scroll_info.get(), root_scroll->id(), expected_scroll_delta); // The scroll range should also have been updated. EXPECT_EQ(expected_max_scroll, root_scroll->MaxScrollOffset()); // The page scale delta should match the new scale on the impl side. EXPECT_EQ(page_scale, host_impl_->active_tree()->total_page_scale_factor()); } TEST_F(LayerTreeHostImplTest, PageScaleDeltaAppliedToRootScrollLayerOnly) { gfx::Size surface_size(10, 10); float default_page_scale = 1.f; gfx::Transform default_page_scale_matrix; default_page_scale_matrix.Scale(default_page_scale, default_page_scale); float new_page_scale = 2.f; gfx::Transform new_page_scale_matrix; new_page_scale_matrix.Scale(new_page_scale, new_page_scale); // Create a normal scrollable root layer and another scrollable child layer. LayerImpl* scroll = SetupScrollAndContentsLayers(surface_size); LayerImpl* root = host_impl_->active_tree()->root_layer(); LayerImpl* child = scroll->children()[0]; scoped_ptr scrollable_child_clip = LayerImpl::Create(host_impl_->active_tree(), 6); scoped_ptr scrollable_child = CreateScrollableLayer(7, surface_size, scrollable_child_clip.get()); scrollable_child_clip->AddChild(scrollable_child.Pass()); child->AddChild(scrollable_child_clip.Pass()); LayerImpl* grand_child = child->children()[0]; // Set new page scale on impl thread by pinching. host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture); host_impl_->PinchGestureBegin(); host_impl_->PinchGestureUpdate(new_page_scale, gfx::Point()); host_impl_->PinchGestureEnd(); host_impl_->ScrollEnd(); DrawOneFrame(); EXPECT_EQ(1.f, root->contents_scale_x()); EXPECT_EQ(1.f, root->contents_scale_y()); EXPECT_EQ(1.f, scroll->contents_scale_x()); EXPECT_EQ(1.f, scroll->contents_scale_y()); EXPECT_EQ(1.f, child->contents_scale_x()); EXPECT_EQ(1.f, child->contents_scale_y()); EXPECT_EQ(1.f, grand_child->contents_scale_x()); EXPECT_EQ(1.f, grand_child->contents_scale_y()); // Make sure all the layers are drawn with the page scale delta applied, i.e., // the page scale delta on the root layer is applied hierarchically. LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); EXPECT_EQ(1.f, root->draw_transform().matrix().getDouble(0, 0)); EXPECT_EQ(1.f, root->draw_transform().matrix().getDouble(1, 1)); EXPECT_EQ(new_page_scale, scroll->draw_transform().matrix().getDouble(0, 0)); EXPECT_EQ(new_page_scale, scroll->draw_transform().matrix().getDouble(1, 1)); EXPECT_EQ(new_page_scale, child->draw_transform().matrix().getDouble(0, 0)); EXPECT_EQ(new_page_scale, child->draw_transform().matrix().getDouble(1, 1)); EXPECT_EQ(new_page_scale, grand_child->draw_transform().matrix().getDouble(0, 0)); EXPECT_EQ(new_page_scale, grand_child->draw_transform().matrix().getDouble(1, 1)); } TEST_F(LayerTreeHostImplTest, ScrollChildAndChangePageScaleOnMainThread) { gfx::Size surface_size(30, 30); scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); root->SetBounds(gfx::Size(5, 5)); scoped_ptr root_scrolling = LayerImpl::Create(host_impl_->active_tree(), 2); root_scrolling->SetBounds(surface_size); root_scrolling->SetContentBounds(surface_size); root_scrolling->SetScrollClipLayer(root->id()); root_scrolling->SetIsContainerForFixedPositionLayers(true); LayerImpl* root_scrolling_ptr = root_scrolling.get(); root->AddChild(root_scrolling.Pass()); int child_scroll_layer_id = 3; scoped_ptr child_scrolling = CreateScrollableLayer( child_scroll_layer_id, surface_size, root_scrolling_ptr); LayerImpl* child = child_scrolling.get(); root_scrolling_ptr->AddChild(child_scrolling.Pass()); host_impl_->active_tree()->SetRootLayer(root.Pass()); host_impl_->active_tree()->SetViewportLayersFromIds(1, 2, Layer::INVALID_ID); host_impl_->active_tree()->DidBecomeActive(); host_impl_->SetViewportSize(surface_size); DrawFrame(); gfx::Vector2d scroll_delta(0, 10); gfx::Vector2d expected_scroll_delta(scroll_delta); gfx::Vector2d expected_max_scroll(child->MaxScrollOffset()); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollEnd(); float page_scale = 2.f; host_impl_->active_tree()->SetPageScaleFactorAndLimits(page_scale, 1.f, page_scale); DrawOneFrame(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); ExpectContains( *scroll_info.get(), child_scroll_layer_id, expected_scroll_delta); // The scroll range should not have changed. EXPECT_EQ(child->MaxScrollOffset(), expected_max_scroll); // The page scale delta remains constant because the impl thread did not // scale. EXPECT_EQ(1.f, host_impl_->active_tree()->page_scale_delta()); } TEST_F(LayerTreeHostImplTest, ScrollChildBeyondLimit) { // Scroll a child layer beyond its maximum scroll range and make sure the // parent layer is scrolled on the axis on which the child was unable to // scroll. gfx::Size surface_size(10, 10); gfx::Size content_size(20, 20); scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); root->SetBounds(surface_size); scoped_ptr grand_child = CreateScrollableLayer(3, content_size, root.get()); scoped_ptr child = CreateScrollableLayer(2, content_size, root.get()); LayerImpl* grand_child_layer = grand_child.get(); child->AddChild(grand_child.Pass()); LayerImpl* child_layer = child.get(); root->AddChild(child.Pass()); host_impl_->active_tree()->SetRootLayer(root.Pass()); host_impl_->active_tree()->DidBecomeActive(); host_impl_->SetViewportSize(surface_size); grand_child_layer->SetScrollOffset(gfx::Vector2d(0, 5)); child_layer->SetScrollOffset(gfx::Vector2d(3, 0)); DrawFrame(); { gfx::Vector2d scroll_delta(-8, -7); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollEnd(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); // The grand child should have scrolled up to its limit. LayerImpl* child = host_impl_->active_tree()->root_layer()->children()[0]; LayerImpl* grand_child = child->children()[0]; ExpectContains(*scroll_info.get(), grand_child->id(), gfx::Vector2d(0, -5)); // The child should have only scrolled on the other axis. ExpectContains(*scroll_info.get(), child->id(), gfx::Vector2d(-3, 0)); } } TEST_F(LayerTreeHostImplTest, ScrollWithoutBubbling) { // Scroll a child layer beyond its maximum scroll range and make sure the // the scroll doesn't bubble up to the parent layer. gfx::Size surface_size(20, 20); gfx::Size viewport_size(10, 10); scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); scoped_ptr root_scrolling = CreateScrollableLayer(2, surface_size, root.get()); root_scrolling->SetIsContainerForFixedPositionLayers(true); scoped_ptr grand_child = CreateScrollableLayer(4, surface_size, root.get()); scoped_ptr child = CreateScrollableLayer(3, surface_size, root.get()); LayerImpl* grand_child_layer = grand_child.get(); child->AddChild(grand_child.Pass()); LayerImpl* child_layer = child.get(); root_scrolling->AddChild(child.Pass()); root->AddChild(root_scrolling.Pass()); EXPECT_EQ(viewport_size, root->bounds()); host_impl_->active_tree()->SetRootLayer(root.Pass()); host_impl_->active_tree()->SetViewportLayersFromIds(1, 2, Layer::INVALID_ID); host_impl_->active_tree()->DidBecomeActive(); host_impl_->SetViewportSize(viewport_size); grand_child_layer->SetScrollOffset(gfx::Vector2d(0, 2)); child_layer->SetScrollOffset(gfx::Vector2d(0, 3)); DrawFrame(); { gfx::Vector2d scroll_delta(0, -10); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::NonBubblingGesture)); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollEnd(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); // The grand child should have scrolled up to its limit. LayerImpl* child = host_impl_->active_tree()->root_layer()->children()[0]->children()[0]; LayerImpl* grand_child = child->children()[0]; ExpectContains(*scroll_info.get(), grand_child->id(), gfx::Vector2d(0, -2)); // The child should not have scrolled. ExpectNone(*scroll_info.get(), child->id()); // The next time we scroll we should only scroll the parent. scroll_delta = gfx::Vector2d(0, -3); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::NonBubblingGesture)); EXPECT_EQ(host_impl_->CurrentlyScrollingLayer(), grand_child); host_impl_->ScrollBy(gfx::Point(), scroll_delta); EXPECT_EQ(host_impl_->CurrentlyScrollingLayer(), child); host_impl_->ScrollEnd(); scroll_info = host_impl_->ProcessScrollDeltas(); // The child should have scrolled up to its limit. ExpectContains(*scroll_info.get(), child->id(), gfx::Vector2d(0, -3)); // The grand child should not have scrolled. ExpectContains(*scroll_info.get(), grand_child->id(), gfx::Vector2d(0, -2)); // After scrolling the parent, another scroll on the opposite direction // should still scroll the child. scroll_delta = gfx::Vector2d(0, 7); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::NonBubblingGesture)); EXPECT_EQ(host_impl_->CurrentlyScrollingLayer(), grand_child); host_impl_->ScrollBy(gfx::Point(), scroll_delta); EXPECT_EQ(host_impl_->CurrentlyScrollingLayer(), grand_child); host_impl_->ScrollEnd(); scroll_info = host_impl_->ProcessScrollDeltas(); // The grand child should have scrolled. ExpectContains(*scroll_info.get(), grand_child->id(), gfx::Vector2d(0, 5)); // The child should not have scrolled. ExpectContains(*scroll_info.get(), child->id(), gfx::Vector2d(0, -3)); // Scrolling should be adjusted from viewport space. host_impl_->active_tree()->SetPageScaleFactorAndLimits(2.f, 2.f, 2.f); host_impl_->active_tree()->SetPageScaleDelta(1.f); scroll_delta = gfx::Vector2d(0, -2); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(1, 1), InputHandler::NonBubblingGesture)); EXPECT_EQ(grand_child, host_impl_->CurrentlyScrollingLayer()); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollEnd(); scroll_info = host_impl_->ProcessScrollDeltas(); // Should have scrolled by half the amount in layer space (5 - 2/2) ExpectContains(*scroll_info.get(), grand_child->id(), gfx::Vector2d(0, 4)); } } TEST_F(LayerTreeHostImplTest, ScrollEventBubbling) { // When we try to scroll a non-scrollable child layer, the scroll delta // should be applied to one of its ancestors if possible. gfx::Size surface_size(10, 10); gfx::Size content_size(20, 20); scoped_ptr root_clip = LayerImpl::Create(host_impl_->active_tree(), 3); scoped_ptr root = CreateScrollableLayer(1, content_size, root_clip.get()); // Make 'root' the clip layer for child: since they have the same sizes the // child will have zero max_scroll_offset and scrolls will bubble. scoped_ptr child = CreateScrollableLayer(2, content_size, root.get()); child->SetIsContainerForFixedPositionLayers(true); root->SetBounds(content_size); int root_scroll_id = root->id(); root->AddChild(child.Pass()); root_clip->AddChild(root.Pass()); host_impl_->SetViewportSize(surface_size); host_impl_->active_tree()->SetRootLayer(root_clip.Pass()); host_impl_->active_tree()->SetViewportLayersFromIds(3, 2, Layer::INVALID_ID); host_impl_->active_tree()->DidBecomeActive(); DrawFrame(); { gfx::Vector2d scroll_delta(0, 4); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollEnd(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); // Only the root scroll should have scrolled. ASSERT_EQ(scroll_info->scrolls.size(), 1u); ExpectContains(*scroll_info.get(), root_scroll_id, scroll_delta); } } TEST_F(LayerTreeHostImplTest, ScrollBeforeRedraw) { gfx::Size surface_size(10, 10); scoped_ptr root_clip = LayerImpl::Create(host_impl_->active_tree(), 1); scoped_ptr root_scroll = CreateScrollableLayer(2, surface_size, root_clip.get()); root_scroll->SetIsContainerForFixedPositionLayers(true); root_clip->AddChild(root_scroll.Pass()); host_impl_->active_tree()->SetRootLayer(root_clip.Pass()); host_impl_->active_tree()->SetViewportLayersFromIds(1, 2, Layer::INVALID_ID); host_impl_->active_tree()->DidBecomeActive(); host_impl_->SetViewportSize(surface_size); // Draw one frame and then immediately rebuild the layer tree to mimic a tree // synchronization. DrawFrame(); host_impl_->active_tree()->DetachLayerTree(); scoped_ptr root_clip2 = LayerImpl::Create(host_impl_->active_tree(), 3); scoped_ptr root_scroll2 = CreateScrollableLayer(4, surface_size, root_clip2.get()); root_scroll2->SetIsContainerForFixedPositionLayers(true); root_clip2->AddChild(root_scroll2.Pass()); host_impl_->active_tree()->SetRootLayer(root_clip2.Pass()); host_impl_->active_tree()->SetViewportLayersFromIds(3, 4, Layer::INVALID_ID); host_impl_->active_tree()->DidBecomeActive(); // Scrolling should still work even though we did not draw yet. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::Wheel)); } TEST_F(LayerTreeHostImplTest, ScrollAxisAlignedRotatedLayer) { LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(100, 100)); // Rotate the root layer 90 degrees counter-clockwise about its center. gfx::Transform rotate_transform; rotate_transform.Rotate(-90.0); host_impl_->active_tree()->root_layer()->SetTransform(rotate_transform); gfx::Size surface_size(50, 50); host_impl_->SetViewportSize(surface_size); DrawFrame(); // Scroll to the right in screen coordinates with a gesture. gfx::Vector2d gesture_scroll_delta(10, 0); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); host_impl_->ScrollBy(gfx::Point(), gesture_scroll_delta); host_impl_->ScrollEnd(); // The layer should have scrolled down in its local coordinates. scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); ExpectContains(*scroll_info.get(), scroll_layer->id(), gfx::Vector2d(0, gesture_scroll_delta.x())); // Reset and scroll down with the wheel. scroll_layer->SetScrollDelta(gfx::Vector2dF()); gfx::Vector2d wheel_scroll_delta(0, 10); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), wheel_scroll_delta); host_impl_->ScrollEnd(); // The layer should have scrolled down in its local coordinates. scroll_info = host_impl_->ProcessScrollDeltas(); ExpectContains(*scroll_info.get(), scroll_layer->id(), wheel_scroll_delta); } TEST_F(LayerTreeHostImplTest, ScrollNonAxisAlignedRotatedLayer) { LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(100, 100)); int child_clip_layer_id = 6; int child_layer_id = 7; float child_layer_angle = -20.f; // Create a child layer that is rotated to a non-axis-aligned angle. scoped_ptr clip_layer = LayerImpl::Create(host_impl_->active_tree(), child_clip_layer_id); scoped_ptr child = CreateScrollableLayer( child_layer_id, scroll_layer->content_bounds(), clip_layer.get()); gfx::Transform rotate_transform; rotate_transform.Translate(-50.0, -50.0); rotate_transform.Rotate(child_layer_angle); rotate_transform.Translate(50.0, 50.0); clip_layer->SetTransform(rotate_transform); // Only allow vertical scrolling. clip_layer->SetBounds( gfx::Size(child->bounds().width(), child->bounds().height() / 2)); // The rotation depends on the layer's transform origin, and the child layer // is a different size than the clip, so make sure the clip layer's origin // lines up over the child. clip_layer->SetTransformOrigin(gfx::Point3F( clip_layer->bounds().width() * 0.5f, clip_layer->bounds().height(), 0.f)); LayerImpl* child_ptr = child.get(); clip_layer->AddChild(child.Pass()); scroll_layer->AddChild(clip_layer.Pass()); gfx::Size surface_size(50, 50); host_impl_->SetViewportSize(surface_size); DrawFrame(); { // Scroll down in screen coordinates with a gesture. gfx::Vector2d gesture_scroll_delta(0, 10); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(1, 1), InputHandler::Gesture)); host_impl_->ScrollBy(gfx::Point(), gesture_scroll_delta); host_impl_->ScrollEnd(); // The child layer should have scrolled down in its local coordinates an // amount proportional to the angle between it and the input scroll delta. gfx::Vector2d expected_scroll_delta( 0, gesture_scroll_delta.y() * std::cos(MathUtil::Deg2Rad(child_layer_angle))); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); ExpectContains(*scroll_info.get(), child_layer_id, expected_scroll_delta); // The root scroll layer should not have scrolled, because the input delta // was close to the layer's axis of movement. EXPECT_EQ(scroll_info->scrolls.size(), 1u); } { // Now reset and scroll the same amount horizontally. child_ptr->SetScrollDelta(gfx::Vector2dF()); gfx::Vector2d gesture_scroll_delta(10, 0); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(1, 1), InputHandler::Gesture)); host_impl_->ScrollBy(gfx::Point(), gesture_scroll_delta); host_impl_->ScrollEnd(); // The child layer should have scrolled down in its local coordinates an // amount proportional to the angle between it and the input scroll delta. gfx::Vector2d expected_scroll_delta( 0, -gesture_scroll_delta.x() * std::sin(MathUtil::Deg2Rad(child_layer_angle))); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); ExpectContains(*scroll_info.get(), child_layer_id, expected_scroll_delta); // The root scroll layer should have scrolled more, since the input scroll // delta was mostly orthogonal to the child layer's vertical scroll axis. gfx::Vector2d expected_root_scroll_delta( gesture_scroll_delta.x() * std::pow(std::cos(MathUtil::Deg2Rad(child_layer_angle)), 2), 0); ExpectContains(*scroll_info.get(), scroll_layer->id(), expected_root_scroll_delta); } } TEST_F(LayerTreeHostImplTest, ScrollScaledLayer) { LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(100, 100)); // Scale the layer to twice its normal size. int scale = 2; gfx::Transform scale_transform; scale_transform.Scale(scale, scale); scroll_layer->SetTransform(scale_transform); gfx::Size surface_size(50, 50); host_impl_->SetViewportSize(surface_size); DrawFrame(); // Scroll down in screen coordinates with a gesture. gfx::Vector2d scroll_delta(0, 10); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollEnd(); // The layer should have scrolled down in its local coordinates, but half the // amount. scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); ExpectContains(*scroll_info.get(), scroll_layer->id(), gfx::Vector2d(0, scroll_delta.y() / scale)); // Reset and scroll down with the wheel. scroll_layer->SetScrollDelta(gfx::Vector2dF()); gfx::Vector2d wheel_scroll_delta(0, 10); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), wheel_scroll_delta); host_impl_->ScrollEnd(); // The scale should not have been applied to the scroll delta. scroll_info = host_impl_->ProcessScrollDeltas(); ExpectContains(*scroll_info.get(), scroll_layer->id(), wheel_scroll_delta); } TEST_F(LayerTreeHostImplTest, ScrollViewportRounding) { int width = 332; int height = 20; int scale = 3; SetupScrollAndContentsLayers(gfx::Size(width, height)); host_impl_->active_tree()->InnerViewportContainerLayer()->SetBounds( gfx::Size(width * scale - 1, height * scale)); host_impl_->SetDeviceScaleFactor(scale); host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, 0.5f, 4.f); LayerImpl* inner_viewport_scroll_layer = host_impl_->active_tree()->InnerViewportScrollLayer(); EXPECT_EQ(gfx::Vector2d(0, 0), inner_viewport_scroll_layer->MaxScrollOffset()); } class TestScrollOffsetDelegate : public LayerScrollOffsetDelegate { public: TestScrollOffsetDelegate() : page_scale_factor_(0.f), min_page_scale_factor_(-1.f), max_page_scale_factor_(-1.f) {} virtual ~TestScrollOffsetDelegate() {} virtual gfx::Vector2dF GetTotalScrollOffset() OVERRIDE { return getter_return_value_; } virtual bool IsExternalFlingActive() const OVERRIDE { return false; } virtual void UpdateRootLayerState(const gfx::Vector2dF& total_scroll_offset, const gfx::Vector2dF& max_scroll_offset, const gfx::SizeF& scrollable_size, float page_scale_factor, float min_page_scale_factor, float max_page_scale_factor) OVERRIDE { DCHECK(total_scroll_offset.x() <= max_scroll_offset.x()); DCHECK(total_scroll_offset.y() <= max_scroll_offset.y()); last_set_scroll_offset_ = total_scroll_offset; max_scroll_offset_ = max_scroll_offset; scrollable_size_ = scrollable_size; page_scale_factor_ = page_scale_factor; min_page_scale_factor_ = min_page_scale_factor; max_page_scale_factor_ = max_page_scale_factor; } gfx::Vector2dF last_set_scroll_offset() { return last_set_scroll_offset_; } void set_getter_return_value(const gfx::Vector2dF& value) { getter_return_value_ = value; } gfx::Vector2dF max_scroll_offset() const { return max_scroll_offset_; } gfx::SizeF scrollable_size() const { return scrollable_size_; } float page_scale_factor() const { return page_scale_factor_; } float min_page_scale_factor() const { return min_page_scale_factor_; } float max_page_scale_factor() const { return max_page_scale_factor_; } private: gfx::Vector2dF last_set_scroll_offset_; gfx::Vector2dF getter_return_value_; gfx::Vector2dF max_scroll_offset_; gfx::SizeF scrollable_size_; float page_scale_factor_; float min_page_scale_factor_; float max_page_scale_factor_; }; TEST_F(LayerTreeHostImplTest, RootLayerScrollOffsetDelegation) { TestScrollOffsetDelegate scroll_delegate; host_impl_->SetViewportSize(gfx::Size(10, 20)); LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(100, 100)); LayerImpl* clip_layer = scroll_layer->parent()->parent(); clip_layer->SetBounds(gfx::Size(10, 20)); // Setting the delegate results in the current scroll offset being set. gfx::Vector2dF initial_scroll_delta(10.f, 10.f); scroll_layer->SetScrollOffset(gfx::Vector2d()); scroll_layer->SetScrollDelta(initial_scroll_delta); host_impl_->SetRootLayerScrollOffsetDelegate(&scroll_delegate); EXPECT_EQ(initial_scroll_delta.ToString(), scroll_delegate.last_set_scroll_offset().ToString()); // Setting the delegate results in the scrollable_size, max_scroll_offset, // page_scale_factor and {min|max}_page_scale_factor being set. EXPECT_EQ(gfx::SizeF(100, 100), scroll_delegate.scrollable_size()); EXPECT_EQ(gfx::Vector2dF(90, 80), scroll_delegate.max_scroll_offset()); EXPECT_EQ(1.f, scroll_delegate.page_scale_factor()); EXPECT_EQ(0.f, scroll_delegate.min_page_scale_factor()); EXPECT_EQ(0.f, scroll_delegate.max_page_scale_factor()); // Updating page scale immediately updates the delegate. host_impl_->active_tree()->SetPageScaleFactorAndLimits(2.f, 0.5f, 4.f); EXPECT_EQ(2.f, scroll_delegate.page_scale_factor()); EXPECT_EQ(0.5f, scroll_delegate.min_page_scale_factor()); EXPECT_EQ(4.f, scroll_delegate.max_page_scale_factor()); host_impl_->active_tree()->SetPageScaleDelta(1.5f); EXPECT_EQ(3.f, scroll_delegate.page_scale_factor()); EXPECT_EQ(0.5f, scroll_delegate.min_page_scale_factor()); EXPECT_EQ(4.f, scroll_delegate.max_page_scale_factor()); host_impl_->active_tree()->SetPageScaleDelta(1.f); host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, 0.5f, 4.f); EXPECT_EQ(1.f, scroll_delegate.page_scale_factor()); EXPECT_EQ(0.5f, scroll_delegate.min_page_scale_factor()); EXPECT_EQ(4.f, scroll_delegate.max_page_scale_factor()); // The pinch gesture doesn't put the delegate into a state where the scroll // offset is outside of the scroll range. (this is verified by DCHECKs in the // delegate). host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture); host_impl_->PinchGestureBegin(); host_impl_->PinchGestureUpdate(2.f, gfx::Point()); host_impl_->PinchGestureUpdate(.5f, gfx::Point()); host_impl_->PinchGestureEnd(); host_impl_->ScrollEnd(); // Scrolling should be relative to the offset as returned by the delegate. gfx::Vector2dF scroll_delta(0.f, 10.f); gfx::Vector2dF current_offset(7.f, 8.f); scroll_delegate.set_getter_return_value(current_offset); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); host_impl_->ScrollBy(gfx::Point(), scroll_delta); EXPECT_EQ(current_offset + scroll_delta, scroll_delegate.last_set_scroll_offset()); current_offset = gfx::Vector2dF(42.f, 41.f); scroll_delegate.set_getter_return_value(current_offset); host_impl_->ScrollBy(gfx::Point(), scroll_delta); EXPECT_EQ(current_offset + scroll_delta, scroll_delegate.last_set_scroll_offset()); host_impl_->ScrollEnd(); scroll_delegate.set_getter_return_value(gfx::Vector2dF()); // Forces a full tree synchronization and ensures that the scroll delegate // sees the correct size of the new tree. gfx::Size new_size(42, 24); host_impl_->CreatePendingTree(); CreateScrollAndContentsLayers(host_impl_->pending_tree(), new_size); host_impl_->ActivateSyncTree(); EXPECT_EQ(new_size, scroll_delegate.scrollable_size()); // Un-setting the delegate should propagate the delegate's current offset to // the root scrollable layer. current_offset = gfx::Vector2dF(13.f, 12.f); scroll_delegate.set_getter_return_value(current_offset); host_impl_->SetRootLayerScrollOffsetDelegate(NULL); EXPECT_EQ(current_offset.ToString(), scroll_layer->TotalScrollOffset().ToString()); } void CheckLayerScrollDelta(LayerImpl* layer, gfx::Vector2dF scroll_delta) { const gfx::Transform target_space_transform = layer->draw_properties().target_space_transform; EXPECT_TRUE(target_space_transform.IsScaleOrTranslation()); gfx::Point translated_point; target_space_transform.TransformPoint(&translated_point); gfx::Point expected_point = gfx::Point() - ToRoundedVector2d(scroll_delta); EXPECT_EQ(expected_point.ToString(), translated_point.ToString()); } TEST_F(LayerTreeHostImplTest, ExternalRootLayerScrollOffsetDelegationReflectedInNextDraw) { TestScrollOffsetDelegate scroll_delegate; host_impl_->SetViewportSize(gfx::Size(10, 20)); LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(100, 100)); LayerImpl* clip_layer = scroll_layer->parent()->parent(); clip_layer->SetBounds(gfx::Size(10, 20)); host_impl_->SetRootLayerScrollOffsetDelegate(&scroll_delegate); // Draw first frame to clear any pending draws and check scroll. DrawFrame(); CheckLayerScrollDelta(scroll_layer, gfx::Vector2dF(0.f, 0.f)); EXPECT_FALSE(host_impl_->active_tree()->needs_update_draw_properties()); // Set external scroll delta on delegate and notify LayerTreeHost. gfx::Vector2dF scroll_delta(10.f, 10.f); scroll_delegate.set_getter_return_value(scroll_delta); host_impl_->OnRootLayerDelegatedScrollOffsetChanged(); // Check scroll delta reflected in layer. DrawFrame(); CheckLayerScrollDelta(scroll_layer, scroll_delta); host_impl_->SetRootLayerScrollOffsetDelegate(NULL); } TEST_F(LayerTreeHostImplTest, OverscrollRoot) { SetupScrollAndContentsLayers(gfx::Size(100, 100)); host_impl_->SetViewportSize(gfx::Size(50, 50)); host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, 0.5f, 4.f); DrawFrame(); EXPECT_EQ(gfx::Vector2dF(), host_impl_->accumulated_root_overscroll()); // In-bounds scrolling does not affect overscroll. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 10)); EXPECT_EQ(gfx::Vector2dF(), host_impl_->accumulated_root_overscroll()); // Overscroll events are reflected immediately. host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 50)); EXPECT_EQ(gfx::Vector2dF(0, 10), host_impl_->accumulated_root_overscroll()); // In-bounds scrolling resets accumulated overscroll for the scrolled axes. host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, -50)); EXPECT_EQ(gfx::Vector2dF(0, 0), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, -10)); EXPECT_EQ(gfx::Vector2dF(0, -10), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(10, 0)); EXPECT_EQ(gfx::Vector2dF(0, -10), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(-15, 0)); EXPECT_EQ(gfx::Vector2dF(-5, -10), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 60)); EXPECT_EQ(gfx::Vector2dF(-5, 10), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(10, -60)); EXPECT_EQ(gfx::Vector2dF(0, -10), host_impl_->accumulated_root_overscroll()); // Overscroll accumulates within the scope of ScrollBegin/ScrollEnd as long // as no scroll occurs. host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, -20)); EXPECT_EQ(gfx::Vector2dF(0, -30), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, -20)); EXPECT_EQ(gfx::Vector2dF(0, -50), host_impl_->accumulated_root_overscroll()); // Overscroll resets on valid scroll. host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 10)); EXPECT_EQ(gfx::Vector2dF(0, 0), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, -20)); EXPECT_EQ(gfx::Vector2dF(0, -10), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollEnd(); } TEST_F(LayerTreeHostImplTest, OverscrollChildWithoutBubbling) { // Scroll child layers beyond their maximum scroll range and make sure root // overscroll does not accumulate. gfx::Size surface_size(10, 10); scoped_ptr root_clip = LayerImpl::Create(host_impl_->active_tree(), 4); scoped_ptr root = CreateScrollableLayer(1, surface_size, root_clip.get()); scoped_ptr grand_child = CreateScrollableLayer(3, surface_size, root_clip.get()); scoped_ptr child = CreateScrollableLayer(2, surface_size, root_clip.get()); LayerImpl* grand_child_layer = grand_child.get(); child->AddChild(grand_child.Pass()); LayerImpl* child_layer = child.get(); root->AddChild(child.Pass()); root_clip->AddChild(root.Pass()); child_layer->SetScrollOffset(gfx::Vector2d(0, 3)); grand_child_layer->SetScrollOffset(gfx::Vector2d(0, 2)); host_impl_->active_tree()->SetRootLayer(root_clip.Pass()); host_impl_->active_tree()->DidBecomeActive(); host_impl_->SetViewportSize(surface_size); DrawFrame(); { gfx::Vector2d scroll_delta(0, -10); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::NonBubblingGesture)); host_impl_->ScrollBy(gfx::Point(), scroll_delta); EXPECT_EQ(gfx::Vector2dF(), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollEnd(); // The next time we scroll we should only scroll the parent, but overscroll // should still not reach the root layer. scroll_delta = gfx::Vector2d(0, -30); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::NonBubblingGesture)); EXPECT_EQ(host_impl_->CurrentlyScrollingLayer(), grand_child_layer); EXPECT_EQ(gfx::Vector2dF(), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollBy(gfx::Point(), scroll_delta); EXPECT_EQ(host_impl_->CurrentlyScrollingLayer(), child_layer); EXPECT_EQ(gfx::Vector2dF(), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollEnd(); // After scrolling the parent, another scroll on the opposite direction // should scroll the child. scroll_delta = gfx::Vector2d(0, 70); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::NonBubblingGesture)); EXPECT_EQ(host_impl_->CurrentlyScrollingLayer(), grand_child_layer); host_impl_->ScrollBy(gfx::Point(), scroll_delta); EXPECT_EQ(host_impl_->CurrentlyScrollingLayer(), grand_child_layer); EXPECT_EQ(gfx::Vector2dF(), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollEnd(); } } TEST_F(LayerTreeHostImplTest, OverscrollChildEventBubbling) { // When we try to scroll a non-scrollable child layer, the scroll delta // should be applied to one of its ancestors if possible. Overscroll should // be reflected only when it has bubbled up to the root scrolling layer. gfx::Size surface_size(10, 10); gfx::Size content_size(20, 20); scoped_ptr root_clip = LayerImpl::Create(host_impl_->active_tree(), 3); scoped_ptr root = CreateScrollableLayer(1, content_size, root_clip.get()); root->SetIsContainerForFixedPositionLayers(true); scoped_ptr child = CreateScrollableLayer(2, content_size, root_clip.get()); child->SetScrollClipLayer(Layer::INVALID_ID); root->AddChild(child.Pass()); root_clip->AddChild(root.Pass()); host_impl_->SetViewportSize(surface_size); host_impl_->active_tree()->SetRootLayer(root_clip.Pass()); host_impl_->active_tree()->SetViewportLayersFromIds(3, 1, Layer::INVALID_ID); host_impl_->active_tree()->DidBecomeActive(); DrawFrame(); { gfx::Vector2d scroll_delta(0, 8); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(5, 5), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), scroll_delta); EXPECT_EQ(gfx::Vector2dF(), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollBy(gfx::Point(), scroll_delta); EXPECT_EQ(gfx::Vector2dF(0, 6), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollBy(gfx::Point(), scroll_delta); EXPECT_EQ(gfx::Vector2dF(0, 14), host_impl_->accumulated_root_overscroll()); host_impl_->ScrollEnd(); } } TEST_F(LayerTreeHostImplTest, OverscrollAlways) { LayerTreeSettings settings; CreateHostImpl(settings, CreateOutputSurface()); LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(50, 50)); LayerImpl* clip_layer = scroll_layer->parent()->parent(); clip_layer->SetBounds(gfx::Size(50, 50)); host_impl_->SetViewportSize(gfx::Size(50, 50)); host_impl_->active_tree()->SetPageScaleFactorAndLimits(1.f, 0.5f, 4.f); DrawFrame(); EXPECT_EQ(gfx::Vector2dF(), host_impl_->accumulated_root_overscroll()); // Even though the layer can't scroll the overscroll still happens. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 10)); EXPECT_EQ(gfx::Vector2dF(0, 10), host_impl_->accumulated_root_overscroll()); } TEST_F(LayerTreeHostImplTest, NoOverscrollOnFractionalDeviceScale) { gfx::Size surface_size(980, 1439); gfx::Size content_size(980, 1438); float device_scale_factor = 1.5f; scoped_ptr root_clip = LayerImpl::Create(host_impl_->active_tree(), 3); scoped_ptr root = CreateScrollableLayer(1, content_size, root_clip.get()); root->SetIsContainerForFixedPositionLayers(true); scoped_ptr child = CreateScrollableLayer(2, content_size, root_clip.get()); root->scroll_clip_layer()->SetBounds(gfx::Size(320, 469)); host_impl_->active_tree()->SetPageScaleFactorAndLimits( 0.326531f, 0.326531f, 5.f); host_impl_->active_tree()->SetPageScaleDelta(1.f); child->SetScrollClipLayer(Layer::INVALID_ID); root->AddChild(child.Pass()); root_clip->AddChild(root.Pass()); host_impl_->SetViewportSize(surface_size); host_impl_->SetDeviceScaleFactor(device_scale_factor); host_impl_->active_tree()->SetRootLayer(root_clip.Pass()); host_impl_->active_tree()->SetViewportLayersFromIds(3, 1, Layer::INVALID_ID); host_impl_->active_tree()->DidBecomeActive(); DrawFrame(); { // Horizontal & Vertical GlowEffect should not be applied when // content size is less then view port size. For Example Horizontal & // vertical GlowEffect should not be applied in about:blank page. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(0, 0), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2dF(0, -1)); EXPECT_EQ(gfx::Vector2dF().ToString(), host_impl_->accumulated_root_overscroll().ToString()); host_impl_->ScrollEnd(); } } TEST_F(LayerTreeHostImplTest, NoOverscrollWhenNotAtEdge) { gfx::Size surface_size(100, 100); gfx::Size content_size(200, 200); scoped_ptr root_clip = LayerImpl::Create(host_impl_->active_tree(), 3); scoped_ptr root = CreateScrollableLayer(1, content_size, root_clip.get()); root->SetIsContainerForFixedPositionLayers(true); scoped_ptr child = CreateScrollableLayer(2, content_size, root_clip.get()); child->SetScrollClipLayer(Layer::INVALID_ID); root->AddChild(child.Pass()); root_clip->AddChild(root.Pass()); host_impl_->SetViewportSize(surface_size); host_impl_->active_tree()->SetRootLayer(root_clip.Pass()); host_impl_->active_tree()->SetViewportLayersFromIds(3, 1, Layer::INVALID_ID); host_impl_->active_tree()->DidBecomeActive(); DrawFrame(); { // Edge glow effect should be applicable only upon reaching Edges // of the content. unnecessary glow effect calls shouldn't be // called while scrolling up without reaching the edge of the content. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(0, 0), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2dF(0, 100)); EXPECT_EQ(gfx::Vector2dF().ToString(), host_impl_->accumulated_root_overscroll().ToString()); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2dF(0, -2.30f)); EXPECT_EQ(gfx::Vector2dF().ToString(), host_impl_->accumulated_root_overscroll().ToString()); host_impl_->ScrollEnd(); // unusedrootDelta should be subtracted from applied delta so that // unwanted glow effect calls are not called. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(0, 0), InputHandler::NonBubblingGesture)); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->FlingScrollBegin()); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2dF(0, 20)); EXPECT_EQ(gfx::Vector2dF(0.000000f, 17.699997f).ToString(), host_impl_->accumulated_root_overscroll().ToString()); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2dF(0.02f, -0.01f)); EXPECT_EQ(gfx::Vector2dF(0.000000f, 17.699997f).ToString(), host_impl_->accumulated_root_overscroll().ToString()); host_impl_->ScrollEnd(); // TestCase to check kEpsilon, which prevents minute values to trigger // gloweffect without reaching edge. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(0, 0), InputHandler::Wheel)); host_impl_->ScrollBy(gfx::Point(), gfx::Vector2dF(-0.12f, 0.1f)); EXPECT_EQ(gfx::Vector2dF().ToString(), host_impl_->accumulated_root_overscroll().ToString()); host_impl_->ScrollEnd(); } } class BlendStateCheckLayer : public LayerImpl { public: static scoped_ptr Create(LayerTreeImpl* tree_impl, int id, ResourceProvider* resource_provider) { return scoped_ptr(new BlendStateCheckLayer(tree_impl, id, resource_provider)); } virtual void AppendQuads(RenderPass* render_pass, const OcclusionTracker& occlusion_tracker, AppendQuadsData* append_quads_data) OVERRIDE { quads_appended_ = true; gfx::Rect opaque_rect; if (contents_opaque()) opaque_rect = quad_rect_; else opaque_rect = opaque_content_rect_; gfx::Rect visible_quad_rect = quad_rect_; SharedQuadState* shared_quad_state = render_pass->CreateAndAppendSharedQuadState(); PopulateSharedQuadState(shared_quad_state); TileDrawQuad* test_blending_draw_quad = render_pass->CreateAndAppendDrawQuad(); test_blending_draw_quad->SetNew(shared_quad_state, quad_rect_, opaque_rect, visible_quad_rect, resource_id_, gfx::RectF(0.f, 0.f, 1.f, 1.f), gfx::Size(1, 1), false); test_blending_draw_quad->visible_rect = quad_visible_rect_; EXPECT_EQ(blend_, test_blending_draw_quad->ShouldDrawWithBlending()); EXPECT_EQ(has_render_surface_, !!render_surface()); } void SetExpectation(bool blend, bool has_render_surface) { blend_ = blend; has_render_surface_ = has_render_surface; quads_appended_ = false; } bool quads_appended() const { return quads_appended_; } void SetQuadRect(const gfx::Rect& rect) { quad_rect_ = rect; } void SetQuadVisibleRect(const gfx::Rect& rect) { quad_visible_rect_ = rect; } void SetOpaqueContentRect(const gfx::Rect& rect) { opaque_content_rect_ = rect; } private: BlendStateCheckLayer(LayerTreeImpl* tree_impl, int id, ResourceProvider* resource_provider) : LayerImpl(tree_impl, id), blend_(false), has_render_surface_(false), quads_appended_(false), quad_rect_(5, 5, 5, 5), quad_visible_rect_(5, 5, 5, 5), resource_id_(resource_provider->CreateResource( gfx::Size(1, 1), GL_CLAMP_TO_EDGE, ResourceProvider::TextureHintImmutable, RGBA_8888)) { resource_provider->AllocateForTesting(resource_id_); SetBounds(gfx::Size(10, 10)); SetContentBounds(gfx::Size(10, 10)); SetDrawsContent(true); } bool blend_; bool has_render_surface_; bool quads_appended_; gfx::Rect quad_rect_; gfx::Rect opaque_content_rect_; gfx::Rect quad_visible_rect_; ResourceProvider::ResourceId resource_id_; }; TEST_F(LayerTreeHostImplTest, BlendingOffWhenDrawingOpaqueLayers) { { scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); root->SetBounds(gfx::Size(10, 10)); root->SetContentBounds(root->bounds()); root->SetDrawsContent(false); host_impl_->active_tree()->SetRootLayer(root.Pass()); } LayerImpl* root = host_impl_->active_tree()->root_layer(); root->AddChild( BlendStateCheckLayer::Create(host_impl_->active_tree(), 2, host_impl_->resource_provider())); BlendStateCheckLayer* layer1 = static_cast(root->children()[0]); layer1->SetPosition(gfx::PointF(2.f, 2.f)); LayerTreeHostImpl::FrameData frame; // Opaque layer, drawn without blending. layer1->SetContentsOpaque(true); layer1->SetExpectation(false, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); host_impl_->DidDrawAllLayers(frame); // Layer with translucent content and painting, so drawn with blending. layer1->SetContentsOpaque(false); layer1->SetExpectation(true, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); host_impl_->DidDrawAllLayers(frame); // Layer with translucent opacity, drawn with blending. layer1->SetContentsOpaque(true); layer1->SetOpacity(0.5f); layer1->SetExpectation(true, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); host_impl_->DidDrawAllLayers(frame); // Layer with translucent opacity and painting, drawn with blending. layer1->SetContentsOpaque(true); layer1->SetOpacity(0.5f); layer1->SetExpectation(true, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); host_impl_->DidDrawAllLayers(frame); layer1->AddChild( BlendStateCheckLayer::Create(host_impl_->active_tree(), 3, host_impl_->resource_provider())); BlendStateCheckLayer* layer2 = static_cast(layer1->children()[0]); layer2->SetPosition(gfx::PointF(4.f, 4.f)); // 2 opaque layers, drawn without blending. layer1->SetContentsOpaque(true); layer1->SetOpacity(1.f); layer1->SetExpectation(false, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); layer2->SetContentsOpaque(true); layer2->SetOpacity(1.f); layer2->SetExpectation(false, false); layer2->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); EXPECT_TRUE(layer2->quads_appended()); host_impl_->DidDrawAllLayers(frame); // Parent layer with translucent content, drawn with blending. // Child layer with opaque content, drawn without blending. layer1->SetContentsOpaque(false); layer1->SetExpectation(true, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); layer2->SetExpectation(false, false); layer2->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); EXPECT_TRUE(layer2->quads_appended()); host_impl_->DidDrawAllLayers(frame); // Parent layer with translucent content but opaque painting, drawn without // blending. // Child layer with opaque content, drawn without blending. layer1->SetContentsOpaque(true); layer1->SetExpectation(false, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); layer2->SetExpectation(false, false); layer2->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); EXPECT_TRUE(layer2->quads_appended()); host_impl_->DidDrawAllLayers(frame); // Parent layer with translucent opacity and opaque content. Since it has a // drawing child, it's drawn to a render surface which carries the opacity, // so it's itself drawn without blending. // Child layer with opaque content, drawn without blending (parent surface // carries the inherited opacity). layer1->SetContentsOpaque(true); layer1->SetOpacity(0.5f); layer1->SetExpectation(false, true); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); layer2->SetExpectation(false, false); layer2->SetUpdateRect(gfx::RectF(layer1->content_bounds())); FakeLayerTreeHostImpl::RecursiveUpdateNumChildren( host_impl_->active_tree()->root_layer()); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); EXPECT_TRUE(layer2->quads_appended()); host_impl_->DidDrawAllLayers(frame); // Draw again, but with child non-opaque, to make sure // layer1 not culled. layer1->SetContentsOpaque(true); layer1->SetOpacity(1.f); layer1->SetExpectation(false, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); layer2->SetContentsOpaque(true); layer2->SetOpacity(0.5f); layer2->SetExpectation(true, false); layer2->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); EXPECT_TRUE(layer2->quads_appended()); host_impl_->DidDrawAllLayers(frame); // A second way of making the child non-opaque. layer1->SetContentsOpaque(true); layer1->SetOpacity(1.f); layer1->SetExpectation(false, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); layer2->SetContentsOpaque(false); layer2->SetOpacity(1.f); layer2->SetExpectation(true, false); layer2->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); EXPECT_TRUE(layer2->quads_appended()); host_impl_->DidDrawAllLayers(frame); // And when the layer says its not opaque but is painted opaque, it is not // blended. layer1->SetContentsOpaque(true); layer1->SetOpacity(1.f); layer1->SetExpectation(false, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); layer2->SetContentsOpaque(true); layer2->SetOpacity(1.f); layer2->SetExpectation(false, false); layer2->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); EXPECT_TRUE(layer2->quads_appended()); host_impl_->DidDrawAllLayers(frame); // Layer with partially opaque contents, drawn with blending. layer1->SetContentsOpaque(false); layer1->SetQuadRect(gfx::Rect(5, 5, 5, 5)); layer1->SetQuadVisibleRect(gfx::Rect(5, 5, 5, 5)); layer1->SetOpaqueContentRect(gfx::Rect(5, 5, 2, 5)); layer1->SetExpectation(true, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); host_impl_->DidDrawAllLayers(frame); // Layer with partially opaque contents partially culled, drawn with blending. layer1->SetContentsOpaque(false); layer1->SetQuadRect(gfx::Rect(5, 5, 5, 5)); layer1->SetQuadVisibleRect(gfx::Rect(5, 5, 5, 2)); layer1->SetOpaqueContentRect(gfx::Rect(5, 5, 2, 5)); layer1->SetExpectation(true, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); host_impl_->DidDrawAllLayers(frame); // Layer with partially opaque contents culled, drawn with blending. layer1->SetContentsOpaque(false); layer1->SetQuadRect(gfx::Rect(5, 5, 5, 5)); layer1->SetQuadVisibleRect(gfx::Rect(7, 5, 3, 5)); layer1->SetOpaqueContentRect(gfx::Rect(5, 5, 2, 5)); layer1->SetExpectation(true, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); host_impl_->DidDrawAllLayers(frame); // Layer with partially opaque contents and translucent contents culled, drawn // without blending. layer1->SetContentsOpaque(false); layer1->SetQuadRect(gfx::Rect(5, 5, 5, 5)); layer1->SetQuadVisibleRect(gfx::Rect(5, 5, 2, 5)); layer1->SetOpaqueContentRect(gfx::Rect(5, 5, 2, 5)); layer1->SetExpectation(false, false); layer1->SetUpdateRect(gfx::RectF(layer1->content_bounds())); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(layer1->quads_appended()); host_impl_->DidDrawAllLayers(frame); } class LayerTreeHostImplViewportCoveredTest : public LayerTreeHostImplTest { protected: LayerTreeHostImplViewportCoveredTest() : gutter_quad_material_(DrawQuad::SOLID_COLOR), child_(NULL), did_activate_pending_tree_(false) {} scoped_ptr CreateFakeOutputSurface(bool always_draw) { if (always_draw) { return FakeOutputSurface::CreateAlwaysDrawAndSwap3d() .PassAs(); } return FakeOutputSurface::Create3d().PassAs(); } void SetupActiveTreeLayers() { host_impl_->active_tree()->set_background_color(SK_ColorGRAY); host_impl_->active_tree()->SetRootLayer( LayerImpl::Create(host_impl_->active_tree(), 1)); host_impl_->active_tree()->root_layer()->AddChild( BlendStateCheckLayer::Create(host_impl_->active_tree(), 2, host_impl_->resource_provider())); child_ = static_cast( host_impl_->active_tree()->root_layer()->children()[0]); child_->SetExpectation(false, false); child_->SetContentsOpaque(true); } // Expect no gutter rects. void TestLayerCoversFullViewport() { gfx::Rect layer_rect(viewport_size_); child_->SetPosition(layer_rect.origin()); child_->SetBounds(layer_rect.size()); child_->SetContentBounds(layer_rect.size()); child_->SetQuadRect(gfx::Rect(layer_rect.size())); child_->SetQuadVisibleRect(gfx::Rect(layer_rect.size())); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); EXPECT_EQ(0u, CountGutterQuads(frame.render_passes[0]->quad_list)); EXPECT_EQ(1u, frame.render_passes[0]->quad_list.size()); ValidateTextureDrawQuads(frame.render_passes[0]->quad_list); VerifyQuadsExactlyCoverViewport(frame.render_passes[0]->quad_list); host_impl_->DidDrawAllLayers(frame); } // Expect fullscreen gutter rect. void TestEmptyLayer() { gfx::Rect layer_rect(0, 0, 0, 0); child_->SetPosition(layer_rect.origin()); child_->SetBounds(layer_rect.size()); child_->SetContentBounds(layer_rect.size()); child_->SetQuadRect(gfx::Rect(layer_rect.size())); child_->SetQuadVisibleRect(gfx::Rect(layer_rect.size())); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); EXPECT_EQ(1u, CountGutterQuads(frame.render_passes[0]->quad_list)); EXPECT_EQ(1u, frame.render_passes[0]->quad_list.size()); ValidateTextureDrawQuads(frame.render_passes[0]->quad_list); VerifyQuadsExactlyCoverViewport(frame.render_passes[0]->quad_list); host_impl_->DidDrawAllLayers(frame); } // Expect four surrounding gutter rects. void TestLayerInMiddleOfViewport() { gfx::Rect layer_rect(500, 500, 200, 200); child_->SetPosition(layer_rect.origin()); child_->SetBounds(layer_rect.size()); child_->SetContentBounds(layer_rect.size()); child_->SetQuadRect(gfx::Rect(layer_rect.size())); child_->SetQuadVisibleRect(gfx::Rect(layer_rect.size())); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); EXPECT_EQ(4u, CountGutterQuads(frame.render_passes[0]->quad_list)); EXPECT_EQ(5u, frame.render_passes[0]->quad_list.size()); ValidateTextureDrawQuads(frame.render_passes[0]->quad_list); VerifyQuadsExactlyCoverViewport(frame.render_passes[0]->quad_list); host_impl_->DidDrawAllLayers(frame); } // Expect no gutter rects. void TestLayerIsLargerThanViewport() { gfx::Rect layer_rect(viewport_size_.width() + 10, viewport_size_.height() + 10); child_->SetPosition(layer_rect.origin()); child_->SetBounds(layer_rect.size()); child_->SetContentBounds(layer_rect.size()); child_->SetQuadRect(gfx::Rect(layer_rect.size())); child_->SetQuadVisibleRect(gfx::Rect(layer_rect.size())); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); EXPECT_EQ(0u, CountGutterQuads(frame.render_passes[0]->quad_list)); EXPECT_EQ(1u, frame.render_passes[0]->quad_list.size()); ValidateTextureDrawQuads(frame.render_passes[0]->quad_list); host_impl_->DidDrawAllLayers(frame); } virtual void DidActivateSyncTree() OVERRIDE { did_activate_pending_tree_ = true; } void set_gutter_quad_material(DrawQuad::Material material) { gutter_quad_material_ = material; } void set_gutter_texture_size(const gfx::Size& gutter_texture_size) { gutter_texture_size_ = gutter_texture_size; } protected: size_t CountGutterQuads(const QuadList& quad_list) { size_t num_gutter_quads = 0; for (size_t i = 0; i < quad_list.size(); ++i) { num_gutter_quads += (quad_list[i]->material == gutter_quad_material_) ? 1 : 0; } return num_gutter_quads; } void VerifyQuadsExactlyCoverViewport(const QuadList& quad_list) { LayerTestCommon::VerifyQuadsExactlyCoverRect( quad_list, gfx::Rect(DipSizeToPixelSize(viewport_size_))); } // Make sure that the texture coordinates match their expectations. void ValidateTextureDrawQuads(const QuadList& quad_list) { for (size_t i = 0; i < quad_list.size(); ++i) { if (quad_list[i]->material != DrawQuad::TEXTURE_CONTENT) continue; const TextureDrawQuad* quad = TextureDrawQuad::MaterialCast(quad_list[i]); gfx::SizeF gutter_texture_size_pixels = gfx::ScaleSize( gutter_texture_size_, host_impl_->device_scale_factor()); EXPECT_EQ(quad->uv_top_left.x(), quad->rect.x() / gutter_texture_size_pixels.width()); EXPECT_EQ(quad->uv_top_left.y(), quad->rect.y() / gutter_texture_size_pixels.height()); EXPECT_EQ(quad->uv_bottom_right.x(), quad->rect.right() / gutter_texture_size_pixels.width()); EXPECT_EQ(quad->uv_bottom_right.y(), quad->rect.bottom() / gutter_texture_size_pixels.height()); } } gfx::Size DipSizeToPixelSize(const gfx::Size& size) { return gfx::ToRoundedSize( gfx::ScaleSize(size, host_impl_->device_scale_factor())); } DrawQuad::Material gutter_quad_material_; gfx::Size gutter_texture_size_; gfx::Size viewport_size_; BlendStateCheckLayer* child_; bool did_activate_pending_tree_; }; TEST_F(LayerTreeHostImplViewportCoveredTest, ViewportCovered) { viewport_size_ = gfx::Size(1000, 1000); bool always_draw = false; CreateHostImpl(DefaultSettings(), CreateFakeOutputSurface(always_draw)); host_impl_->SetViewportSize(DipSizeToPixelSize(viewport_size_)); SetupActiveTreeLayers(); TestLayerCoversFullViewport(); TestEmptyLayer(); TestLayerInMiddleOfViewport(); TestLayerIsLargerThanViewport(); } TEST_F(LayerTreeHostImplViewportCoveredTest, ViewportCoveredScaled) { viewport_size_ = gfx::Size(1000, 1000); bool always_draw = false; CreateHostImpl(DefaultSettings(), CreateFakeOutputSurface(always_draw)); host_impl_->SetDeviceScaleFactor(2.f); host_impl_->SetViewportSize(DipSizeToPixelSize(viewport_size_)); SetupActiveTreeLayers(); TestLayerCoversFullViewport(); TestEmptyLayer(); TestLayerInMiddleOfViewport(); TestLayerIsLargerThanViewport(); } TEST_F(LayerTreeHostImplViewportCoveredTest, ViewportCoveredOverhangBitmap) { viewport_size_ = gfx::Size(1000, 1000); bool always_draw = false; CreateHostImpl(DefaultSettings(), CreateFakeOutputSurface(always_draw)); host_impl_->SetViewportSize(DipSizeToPixelSize(viewport_size_)); SetupActiveTreeLayers(); // Specify an overhang bitmap to use. bool is_opaque = false; UIResourceBitmap ui_resource_bitmap(gfx::Size(2, 2), is_opaque); ui_resource_bitmap.SetWrapMode(UIResourceBitmap::REPEAT); UIResourceId ui_resource_id = 12345; host_impl_->CreateUIResource(ui_resource_id, ui_resource_bitmap); host_impl_->SetOverhangUIResource(ui_resource_id, gfx::Size(32, 32)); set_gutter_quad_material(DrawQuad::TEXTURE_CONTENT); set_gutter_texture_size(gfx::Size(32, 32)); TestLayerCoversFullViewport(); TestEmptyLayer(); TestLayerInMiddleOfViewport(); TestLayerIsLargerThanViewport(); // Change the resource size. host_impl_->SetOverhangUIResource(ui_resource_id, gfx::Size(128, 16)); set_gutter_texture_size(gfx::Size(128, 16)); TestLayerCoversFullViewport(); TestEmptyLayer(); TestLayerInMiddleOfViewport(); TestLayerIsLargerThanViewport(); // Change the device scale factor host_impl_->SetDeviceScaleFactor(2.f); host_impl_->SetViewportSize(DipSizeToPixelSize(viewport_size_)); TestLayerCoversFullViewport(); TestEmptyLayer(); TestLayerInMiddleOfViewport(); TestLayerIsLargerThanViewport(); } TEST_F(LayerTreeHostImplViewportCoveredTest, ActiveTreeGrowViewportInvalid) { viewport_size_ = gfx::Size(1000, 1000); bool always_draw = true; CreateHostImpl(DefaultSettings(), CreateFakeOutputSurface(always_draw)); // Pending tree to force active_tree size invalid. Not used otherwise. host_impl_->CreatePendingTree(); host_impl_->SetViewportSize(DipSizeToPixelSize(viewport_size_)); EXPECT_TRUE(host_impl_->active_tree()->ViewportSizeInvalid()); SetupActiveTreeLayers(); TestEmptyLayer(); TestLayerInMiddleOfViewport(); TestLayerIsLargerThanViewport(); } TEST_F(LayerTreeHostImplViewportCoveredTest, ActiveTreeShrinkViewportInvalid) { viewport_size_ = gfx::Size(1000, 1000); bool always_draw = true; CreateHostImpl(DefaultSettings(), CreateFakeOutputSurface(always_draw)); // Set larger viewport and activate it to active tree. host_impl_->CreatePendingTree(); gfx::Size larger_viewport(viewport_size_.width() + 100, viewport_size_.height() + 100); host_impl_->SetViewportSize(DipSizeToPixelSize(larger_viewport)); EXPECT_TRUE(host_impl_->active_tree()->ViewportSizeInvalid()); host_impl_->ActivateSyncTree(); EXPECT_TRUE(did_activate_pending_tree_); EXPECT_FALSE(host_impl_->active_tree()->ViewportSizeInvalid()); // Shrink pending tree viewport without activating. host_impl_->CreatePendingTree(); host_impl_->SetViewportSize(DipSizeToPixelSize(viewport_size_)); EXPECT_TRUE(host_impl_->active_tree()->ViewportSizeInvalid()); SetupActiveTreeLayers(); TestEmptyLayer(); TestLayerInMiddleOfViewport(); TestLayerIsLargerThanViewport(); } class FakeDrawableLayerImpl: public LayerImpl { public: static scoped_ptr Create(LayerTreeImpl* tree_impl, int id) { return scoped_ptr(new FakeDrawableLayerImpl(tree_impl, id)); } protected: FakeDrawableLayerImpl(LayerTreeImpl* tree_impl, int id) : LayerImpl(tree_impl, id) {} }; // Only reshape when we know we are going to draw. Otherwise, the reshape // can leave the window at the wrong size if we never draw and the proper // viewport size is never set. TEST_F(LayerTreeHostImplTest, ReshapeNotCalledUntilDraw) { scoped_refptr provider(TestContextProvider::Create()); scoped_ptr output_surface( FakeOutputSurface::Create3d(provider)); CreateHostImpl(DefaultSettings(), output_surface.Pass()); scoped_ptr root = FakeDrawableLayerImpl::Create(host_impl_->active_tree(), 1); root->SetBounds(gfx::Size(10, 10)); root->SetContentBounds(gfx::Size(10, 10)); root->SetDrawsContent(true); host_impl_->active_tree()->SetRootLayer(root.Pass()); EXPECT_FALSE(provider->TestContext3d()->reshape_called()); provider->TestContext3d()->clear_reshape_called(); LayerTreeHostImpl::FrameData frame; host_impl_->SetViewportSize(gfx::Size(10, 10)); host_impl_->SetDeviceScaleFactor(1.f); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(provider->TestContext3d()->reshape_called()); EXPECT_EQ(provider->TestContext3d()->width(), 10); EXPECT_EQ(provider->TestContext3d()->height(), 10); EXPECT_EQ(provider->TestContext3d()->scale_factor(), 1.f); host_impl_->DidDrawAllLayers(frame); provider->TestContext3d()->clear_reshape_called(); host_impl_->SetViewportSize(gfx::Size(20, 30)); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(provider->TestContext3d()->reshape_called()); EXPECT_EQ(provider->TestContext3d()->width(), 20); EXPECT_EQ(provider->TestContext3d()->height(), 30); EXPECT_EQ(provider->TestContext3d()->scale_factor(), 1.f); host_impl_->DidDrawAllLayers(frame); provider->TestContext3d()->clear_reshape_called(); host_impl_->SetDeviceScaleFactor(2.f); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); EXPECT_TRUE(provider->TestContext3d()->reshape_called()); EXPECT_EQ(provider->TestContext3d()->width(), 20); EXPECT_EQ(provider->TestContext3d()->height(), 30); EXPECT_EQ(provider->TestContext3d()->scale_factor(), 2.f); host_impl_->DidDrawAllLayers(frame); provider->TestContext3d()->clear_reshape_called(); } // Make sure damage tracking propagates all the way to the graphics context, // where it should request to swap only the sub-buffer that is damaged. TEST_F(LayerTreeHostImplTest, PartialSwapReceivesDamageRect) { scoped_refptr context_provider( TestContextProvider::Create()); context_provider->BindToCurrentThread(); context_provider->TestContext3d()->set_have_post_sub_buffer(true); scoped_ptr output_surface( FakeOutputSurface::Create3d(context_provider)); // This test creates its own LayerTreeHostImpl, so // that we can force partial swap enabled. LayerTreeSettings settings; settings.partial_swap_enabled = true; scoped_ptr shared_bitmap_manager( new TestSharedBitmapManager()); scoped_ptr layer_tree_host_impl = LayerTreeHostImpl::Create(settings, this, &proxy_, &stats_instrumentation_, shared_bitmap_manager.get(), 0); layer_tree_host_impl->InitializeRenderer(output_surface.Pass()); layer_tree_host_impl->SetViewportSize(gfx::Size(500, 500)); scoped_ptr root = FakeDrawableLayerImpl::Create(layer_tree_host_impl->active_tree(), 1); scoped_ptr child = FakeDrawableLayerImpl::Create(layer_tree_host_impl->active_tree(), 2); child->SetPosition(gfx::PointF(12.f, 13.f)); child->SetBounds(gfx::Size(14, 15)); child->SetContentBounds(gfx::Size(14, 15)); child->SetDrawsContent(true); root->SetBounds(gfx::Size(500, 500)); root->SetContentBounds(gfx::Size(500, 500)); root->SetDrawsContent(true); root->AddChild(child.Pass()); layer_tree_host_impl->active_tree()->SetRootLayer(root.Pass()); LayerTreeHostImpl::FrameData frame; // First frame, the entire screen should get swapped. EXPECT_EQ(DRAW_SUCCESS, layer_tree_host_impl->PrepareToDraw(&frame)); layer_tree_host_impl->DrawLayers(&frame, gfx::FrameTime::Now()); layer_tree_host_impl->DidDrawAllLayers(frame); layer_tree_host_impl->SwapBuffers(frame); EXPECT_EQ(TestContextSupport::SWAP, context_provider->support()->last_swap_type()); // Second frame, only the damaged area should get swapped. Damage should be // the union of old and new child rects. // expected damage rect: gfx::Rect(26, 28); // expected swap rect: vertically flipped, with origin at bottom left corner. layer_tree_host_impl->active_tree()->root_layer()->children()[0]->SetPosition( gfx::PointF()); EXPECT_EQ(DRAW_SUCCESS, layer_tree_host_impl->PrepareToDraw(&frame)); layer_tree_host_impl->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); layer_tree_host_impl->SwapBuffers(frame); // Make sure that partial swap is constrained to the viewport dimensions // expected damage rect: gfx::Rect(500, 500); // expected swap rect: flipped damage rect, but also clamped to viewport EXPECT_EQ(TestContextSupport::PARTIAL_SWAP, context_provider->support()->last_swap_type()); gfx::Rect expected_swap_rect(0, 500-28, 26, 28); EXPECT_EQ(expected_swap_rect.ToString(), context_provider->support()-> last_partial_swap_rect().ToString()); layer_tree_host_impl->SetViewportSize(gfx::Size(10, 10)); // This will damage everything. layer_tree_host_impl->active_tree()->root_layer()->SetBackgroundColor( SK_ColorBLACK); EXPECT_EQ(DRAW_SUCCESS, layer_tree_host_impl->PrepareToDraw(&frame)); layer_tree_host_impl->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); layer_tree_host_impl->SwapBuffers(frame); EXPECT_EQ(TestContextSupport::SWAP, context_provider->support()->last_swap_type()); } TEST_F(LayerTreeHostImplTest, RootLayerDoesntCreateExtraSurface) { scoped_ptr root = FakeDrawableLayerImpl::Create(host_impl_->active_tree(), 1); scoped_ptr child = FakeDrawableLayerImpl::Create(host_impl_->active_tree(), 2); child->SetBounds(gfx::Size(10, 10)); child->SetContentBounds(gfx::Size(10, 10)); child->SetDrawsContent(true); root->SetBounds(gfx::Size(10, 10)); root->SetContentBounds(gfx::Size(10, 10)); root->SetDrawsContent(true); root->SetForceRenderSurface(true); root->AddChild(child.Pass()); host_impl_->active_tree()->SetRootLayer(root.Pass()); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); EXPECT_EQ(1u, frame.render_surface_layer_list->size()); EXPECT_EQ(1u, frame.render_passes.size()); host_impl_->DidDrawAllLayers(frame); } class FakeLayerWithQuads : public LayerImpl { public: static scoped_ptr Create(LayerTreeImpl* tree_impl, int id) { return scoped_ptr(new FakeLayerWithQuads(tree_impl, id)); } virtual void AppendQuads(RenderPass* render_pass, const OcclusionTracker& occlusion_tracker, AppendQuadsData* append_quads_data) OVERRIDE { SharedQuadState* shared_quad_state = render_pass->CreateAndAppendSharedQuadState(); PopulateSharedQuadState(shared_quad_state); SkColor gray = SkColorSetRGB(100, 100, 100); gfx::Rect quad_rect(content_bounds()); gfx::Rect visible_quad_rect(quad_rect); SolidColorDrawQuad* my_quad = render_pass->CreateAndAppendDrawQuad(); my_quad->SetNew( shared_quad_state, quad_rect, visible_quad_rect, gray, false); } private: FakeLayerWithQuads(LayerTreeImpl* tree_impl, int id) : LayerImpl(tree_impl, id) {} }; class MockContext : public TestWebGraphicsContext3D { public: MOCK_METHOD1(useProgram, void(GLuint program)); MOCK_METHOD5(uniform4f, void(GLint location, GLfloat x, GLfloat y, GLfloat z, GLfloat w)); MOCK_METHOD4(uniformMatrix4fv, void(GLint location, GLsizei count, GLboolean transpose, const GLfloat* value)); MOCK_METHOD4(drawElements, void(GLenum mode, GLsizei count, GLenum type, GLintptr offset)); MOCK_METHOD1(enable, void(GLenum cap)); MOCK_METHOD1(disable, void(GLenum cap)); MOCK_METHOD4(scissor, void(GLint x, GLint y, GLsizei width, GLsizei height)); }; class MockContextHarness { private: MockContext* context_; public: explicit MockContextHarness(MockContext* context) : context_(context) { context_->set_have_post_sub_buffer(true); // Catch "uninteresting" calls EXPECT_CALL(*context_, useProgram(_)) .Times(0); EXPECT_CALL(*context_, drawElements(_, _, _, _)) .Times(0); // These are not asserted EXPECT_CALL(*context_, uniformMatrix4fv(_, _, _, _)) .WillRepeatedly(Return()); EXPECT_CALL(*context_, uniform4f(_, _, _, _, _)) .WillRepeatedly(Return()); // Any un-sanctioned calls to enable() are OK EXPECT_CALL(*context_, enable(_)) .WillRepeatedly(Return()); // Any un-sanctioned calls to disable() are OK EXPECT_CALL(*context_, disable(_)) .WillRepeatedly(Return()); } void MustDrawSolidQuad() { EXPECT_CALL(*context_, drawElements(GL_TRIANGLES, 6, GL_UNSIGNED_SHORT, 0)) .WillOnce(Return()) .RetiresOnSaturation(); EXPECT_CALL(*context_, useProgram(_)) .WillOnce(Return()) .RetiresOnSaturation(); } void MustSetScissor(int x, int y, int width, int height) { EXPECT_CALL(*context_, enable(GL_SCISSOR_TEST)) .WillRepeatedly(Return()); EXPECT_CALL(*context_, scissor(x, y, width, height)) .Times(AtLeast(1)) .WillRepeatedly(Return()); } void MustSetNoScissor() { EXPECT_CALL(*context_, disable(GL_SCISSOR_TEST)) .WillRepeatedly(Return()); EXPECT_CALL(*context_, enable(GL_SCISSOR_TEST)) .Times(0); EXPECT_CALL(*context_, scissor(_, _, _, _)) .Times(0); } }; TEST_F(LayerTreeHostImplTest, NoPartialSwap) { scoped_ptr mock_context_owned(new MockContext); MockContext* mock_context = mock_context_owned.get(); scoped_ptr output_surface(FakeOutputSurface::Create3d( mock_context_owned.PassAs())); MockContextHarness harness(mock_context); // Run test case LayerTreeSettings settings = DefaultSettings(); settings.partial_swap_enabled = false; CreateHostImpl(settings, output_surface.Pass()); SetupRootLayerImpl(FakeLayerWithQuads::Create(host_impl_->active_tree(), 1)); // Without partial swap, and no clipping, no scissor is set. harness.MustDrawSolidQuad(); harness.MustSetNoScissor(); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } Mock::VerifyAndClearExpectations(&mock_context); // Without partial swap, but a layer does clip its subtree, one scissor is // set. host_impl_->active_tree()->root_layer()->SetMasksToBounds(true); harness.MustDrawSolidQuad(); harness.MustSetScissor(0, 0, 10, 10); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } Mock::VerifyAndClearExpectations(&mock_context); } TEST_F(LayerTreeHostImplTest, PartialSwap) { scoped_ptr context_owned(new MockContext); MockContext* mock_context = context_owned.get(); scoped_ptr output_surface(FakeOutputSurface::Create3d( context_owned.PassAs())); MockContextHarness harness(mock_context); LayerTreeSettings settings = DefaultSettings(); settings.partial_swap_enabled = true; CreateHostImpl(settings, output_surface.Pass()); SetupRootLayerImpl(FakeLayerWithQuads::Create(host_impl_->active_tree(), 1)); // The first frame is not a partially-swapped one. harness.MustSetScissor(0, 0, 10, 10); harness.MustDrawSolidQuad(); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } Mock::VerifyAndClearExpectations(&mock_context); // Damage a portion of the frame. host_impl_->active_tree()->root_layer()->SetUpdateRect( gfx::Rect(0, 0, 2, 3)); // The second frame will be partially-swapped (the y coordinates are flipped). harness.MustSetScissor(0, 7, 2, 3); harness.MustDrawSolidQuad(); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } Mock::VerifyAndClearExpectations(&mock_context); } static scoped_ptr SetupLayersForOpacity( bool partial_swap, LayerTreeHostImplClient* client, Proxy* proxy, SharedBitmapManager* manager, RenderingStatsInstrumentation* stats_instrumentation) { scoped_refptr provider(TestContextProvider::Create()); scoped_ptr output_surface( FakeOutputSurface::Create3d(provider)); provider->BindToCurrentThread(); provider->TestContext3d()->set_have_post_sub_buffer(true); LayerTreeSettings settings; settings.partial_swap_enabled = partial_swap; scoped_ptr my_host_impl = LayerTreeHostImpl::Create( settings, client, proxy, stats_instrumentation, manager, 0); my_host_impl->InitializeRenderer(output_surface.Pass()); my_host_impl->SetViewportSize(gfx::Size(100, 100)); /* Layers are created as follows: +--------------------+ | 1 | | +-----------+ | | | 2 | | | | +-------------------+ | | | 3 | | | +-------------------+ | | | | | +-----------+ | | | | | +--------------------+ Layers 1, 2 have render surfaces */ scoped_ptr root = LayerImpl::Create(my_host_impl->active_tree(), 1); scoped_ptr child = LayerImpl::Create(my_host_impl->active_tree(), 2); scoped_ptr grand_child = FakeLayerWithQuads::Create(my_host_impl->active_tree(), 3); gfx::Rect root_rect(0, 0, 100, 100); gfx::Rect child_rect(10, 10, 50, 50); gfx::Rect grand_child_rect(5, 5, 150, 150); root->CreateRenderSurface(); root->SetPosition(root_rect.origin()); root->SetBounds(root_rect.size()); root->SetContentBounds(root->bounds()); root->draw_properties().visible_content_rect = root_rect; root->SetDrawsContent(false); root->render_surface()->SetContentRect(gfx::Rect(root_rect.size())); child->SetPosition(gfx::PointF(child_rect.x(), child_rect.y())); child->SetOpacity(0.5f); child->SetBounds(gfx::Size(child_rect.width(), child_rect.height())); child->SetContentBounds(child->bounds()); child->draw_properties().visible_content_rect = child_rect; child->SetDrawsContent(false); child->SetForceRenderSurface(true); grand_child->SetPosition(grand_child_rect.origin()); grand_child->SetBounds(grand_child_rect.size()); grand_child->SetContentBounds(grand_child->bounds()); grand_child->draw_properties().visible_content_rect = grand_child_rect; grand_child->SetDrawsContent(true); child->AddChild(grand_child.Pass()); root->AddChild(child.Pass()); my_host_impl->active_tree()->SetRootLayer(root.Pass()); return my_host_impl.Pass(); } TEST_F(LayerTreeHostImplTest, ContributingLayerEmptyScissorPartialSwap) { scoped_ptr shared_bitmap_manager( new TestSharedBitmapManager()); scoped_ptr my_host_impl = SetupLayersForOpacity(true, this, &proxy_, shared_bitmap_manager.get(), &stats_instrumentation_); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, my_host_impl->PrepareToDraw(&frame)); // Verify all quads have been computed ASSERT_EQ(2U, frame.render_passes.size()); ASSERT_EQ(1U, frame.render_passes[0]->quad_list.size()); ASSERT_EQ(1U, frame.render_passes[1]->quad_list.size()); EXPECT_EQ(DrawQuad::SOLID_COLOR, frame.render_passes[0]->quad_list[0]->material); EXPECT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[1]->quad_list[0]->material); my_host_impl->DrawLayers(&frame, gfx::FrameTime::Now()); my_host_impl->DidDrawAllLayers(frame); } } TEST_F(LayerTreeHostImplTest, ContributingLayerEmptyScissorNoPartialSwap) { scoped_ptr shared_bitmap_manager( new TestSharedBitmapManager()); scoped_ptr my_host_impl = SetupLayersForOpacity(false, this, &proxy_, shared_bitmap_manager.get(), &stats_instrumentation_); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, my_host_impl->PrepareToDraw(&frame)); // Verify all quads have been computed ASSERT_EQ(2U, frame.render_passes.size()); ASSERT_EQ(1U, frame.render_passes[0]->quad_list.size()); ASSERT_EQ(1U, frame.render_passes[1]->quad_list.size()); EXPECT_EQ(DrawQuad::SOLID_COLOR, frame.render_passes[0]->quad_list[0]->material); EXPECT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[1]->quad_list[0]->material); my_host_impl->DrawLayers(&frame, gfx::FrameTime::Now()); my_host_impl->DidDrawAllLayers(frame); } } TEST_F(LayerTreeHostImplTest, LayersFreeTextures) { scoped_ptr context = TestWebGraphicsContext3D::Create(); TestWebGraphicsContext3D* context3d = context.get(); scoped_ptr output_surface( FakeOutputSurface::Create3d(context.Pass())); CreateHostImpl(DefaultSettings(), output_surface.Pass()); scoped_ptr root_layer = LayerImpl::Create(host_impl_->active_tree(), 1); root_layer->SetBounds(gfx::Size(10, 10)); scoped_refptr softwareFrame = media::VideoFrame::CreateColorFrame( gfx::Size(4, 4), 0x80, 0x80, 0x80, base::TimeDelta()); FakeVideoFrameProvider provider; provider.set_frame(softwareFrame); scoped_ptr video_layer = VideoLayerImpl::Create( host_impl_->active_tree(), 4, &provider, media::VIDEO_ROTATION_0); video_layer->SetBounds(gfx::Size(10, 10)); video_layer->SetContentBounds(gfx::Size(10, 10)); video_layer->SetDrawsContent(true); root_layer->AddChild(video_layer.PassAs()); scoped_ptr io_surface_layer = IOSurfaceLayerImpl::Create(host_impl_->active_tree(), 5); io_surface_layer->SetBounds(gfx::Size(10, 10)); io_surface_layer->SetContentBounds(gfx::Size(10, 10)); io_surface_layer->SetDrawsContent(true); io_surface_layer->SetIOSurfaceProperties(1, gfx::Size(10, 10)); root_layer->AddChild(io_surface_layer.PassAs()); host_impl_->active_tree()->SetRootLayer(root_layer.Pass()); EXPECT_EQ(0u, context3d->NumTextures()); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); host_impl_->SwapBuffers(frame); EXPECT_GT(context3d->NumTextures(), 0u); // Kill the layer tree. host_impl_->active_tree()->SetRootLayer( LayerImpl::Create(host_impl_->active_tree(), 100)); // There should be no textures left in use after. EXPECT_EQ(0u, context3d->NumTextures()); } class MockDrawQuadsToFillScreenContext : public TestWebGraphicsContext3D { public: MOCK_METHOD1(useProgram, void(GLuint program)); MOCK_METHOD4(drawElements, void(GLenum mode, GLsizei count, GLenum type, GLintptr offset)); }; TEST_F(LayerTreeHostImplTest, HasTransparentBackground) { scoped_ptr mock_context_owned( new MockDrawQuadsToFillScreenContext); MockDrawQuadsToFillScreenContext* mock_context = mock_context_owned.get(); scoped_ptr output_surface(FakeOutputSurface::Create3d( mock_context_owned.PassAs())); // Run test case LayerTreeSettings settings = DefaultSettings(); settings.partial_swap_enabled = false; CreateHostImpl(settings, output_surface.Pass()); SetupRootLayerImpl(LayerImpl::Create(host_impl_->active_tree(), 1)); host_impl_->active_tree()->set_background_color(SK_ColorWHITE); // Verify one quad is drawn when transparent background set is not set. host_impl_->active_tree()->set_has_transparent_background(false); EXPECT_CALL(*mock_context, useProgram(_)) .Times(1); EXPECT_CALL(*mock_context, drawElements(_, _, _, _)) .Times(1); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); Mock::VerifyAndClearExpectations(&mock_context); // Verify no quads are drawn when transparent background is set. host_impl_->active_tree()->set_has_transparent_background(true); host_impl_->SetFullRootLayerDamage(); EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); Mock::VerifyAndClearExpectations(&mock_context); } TEST_F(LayerTreeHostImplTest, ReleaseContentsTextureShouldTriggerCommit) { set_reduce_memory_result(false); // If changing the memory limit wouldn't result in changing what was // committed, then no commit should be requested. set_reduce_memory_result(false); host_impl_->set_max_memory_needed_bytes( host_impl_->memory_allocation_limit_bytes() - 1); host_impl_->SetMemoryPolicy(ManagedMemoryPolicy( host_impl_->memory_allocation_limit_bytes() - 1)); EXPECT_FALSE(did_request_commit_); did_request_commit_ = false; // If changing the memory limit would result in changing what was // committed, then a commit should be requested, even though nothing was // evicted. set_reduce_memory_result(false); host_impl_->set_max_memory_needed_bytes( host_impl_->memory_allocation_limit_bytes()); host_impl_->SetMemoryPolicy(ManagedMemoryPolicy( host_impl_->memory_allocation_limit_bytes() - 1)); EXPECT_TRUE(did_request_commit_); did_request_commit_ = false; // Especially if changing the memory limit caused evictions, we need // to re-commit. set_reduce_memory_result(true); host_impl_->set_max_memory_needed_bytes(1); host_impl_->SetMemoryPolicy(ManagedMemoryPolicy( host_impl_->memory_allocation_limit_bytes() - 1)); EXPECT_TRUE(did_request_commit_); did_request_commit_ = false; // But if we set it to the same value that it was before, we shouldn't // re-commit. host_impl_->SetMemoryPolicy(ManagedMemoryPolicy( host_impl_->memory_allocation_limit_bytes())); EXPECT_FALSE(did_request_commit_); } class LayerTreeHostImplTestWithDelegatingRenderer : public LayerTreeHostImplTest { protected: virtual scoped_ptr CreateOutputSurface() OVERRIDE { return FakeOutputSurface::CreateDelegating3d().PassAs(); } void DrawFrameAndTestDamage(const gfx::RectF& expected_damage) { bool expect_to_draw = !expected_damage.IsEmpty(); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); if (!expect_to_draw) { // With no damage, we don't draw, and no quads are created. ASSERT_EQ(0u, frame.render_passes.size()); } else { ASSERT_EQ(1u, frame.render_passes.size()); // Verify the damage rect for the root render pass. const RenderPass* root_render_pass = frame.render_passes.back(); EXPECT_RECT_EQ(expected_damage, root_render_pass->damage_rect); // Verify the root and child layers' quads are generated and not being // culled. ASSERT_EQ(2u, root_render_pass->quad_list.size()); LayerImpl* child = host_impl_->active_tree()->root_layer()->children()[0]; gfx::RectF expected_child_visible_rect(child->content_bounds()); EXPECT_RECT_EQ(expected_child_visible_rect, root_render_pass->quad_list[0]->visible_rect); LayerImpl* root = host_impl_->active_tree()->root_layer(); gfx::RectF expected_root_visible_rect(root->content_bounds()); EXPECT_RECT_EQ(expected_root_visible_rect, root_render_pass->quad_list[1]->visible_rect); } host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); EXPECT_EQ(expect_to_draw, host_impl_->SwapBuffers(frame)); } }; TEST_F(LayerTreeHostImplTestWithDelegatingRenderer, FrameIncludesDamageRect) { scoped_ptr root = SolidColorLayerImpl::Create(host_impl_->active_tree(), 1); root->SetPosition(gfx::PointF()); root->SetBounds(gfx::Size(10, 10)); root->SetContentBounds(gfx::Size(10, 10)); root->SetDrawsContent(true); // Child layer is in the bottom right corner. scoped_ptr child = SolidColorLayerImpl::Create(host_impl_->active_tree(), 2); child->SetPosition(gfx::PointF(9.f, 9.f)); child->SetBounds(gfx::Size(1, 1)); child->SetContentBounds(gfx::Size(1, 1)); child->SetDrawsContent(true); root->AddChild(child.PassAs()); host_impl_->active_tree()->SetRootLayer(root.PassAs()); // Draw a frame. In the first frame, the entire viewport should be damaged. gfx::Rect full_frame_damage(host_impl_->DrawViewportSize()); DrawFrameAndTestDamage(full_frame_damage); // The second frame has damage that doesn't touch the child layer. Its quads // should still be generated. gfx::Rect small_damage = gfx::Rect(0, 0, 1, 1); host_impl_->active_tree()->root_layer()->SetUpdateRect(small_damage); DrawFrameAndTestDamage(small_damage); // The third frame should have no damage, so no quads should be generated. gfx::Rect no_damage; DrawFrameAndTestDamage(no_damage); } // TODO(reveman): Remove this test and the ability to prevent on demand raster // when delegating renderer supports PictureDrawQuads. crbug.com/342121 TEST_F(LayerTreeHostImplTestWithDelegatingRenderer, PreventRasterizeOnDemand) { LayerTreeSettings settings; CreateHostImpl(settings, CreateOutputSurface()); EXPECT_FALSE(host_impl_->GetRendererCapabilities().allow_rasterize_on_demand); } class FakeMaskLayerImpl : public LayerImpl { public: static scoped_ptr Create(LayerTreeImpl* tree_impl, int id) { return make_scoped_ptr(new FakeMaskLayerImpl(tree_impl, id)); } virtual ResourceProvider::ResourceId ContentsResourceId() const OVERRIDE { return 0; } private: FakeMaskLayerImpl(LayerTreeImpl* tree_impl, int id) : LayerImpl(tree_impl, id) {} }; TEST_F(LayerTreeHostImplTest, MaskLayerWithScaling) { LayerTreeSettings settings; settings.layer_transforms_should_scale_layer_contents = true; CreateHostImpl(settings, CreateOutputSurface()); // Root // | // +-- Scaling Layer (adds a 2x scale) // | // +-- Content Layer // +--Mask scoped_ptr scoped_root = LayerImpl::Create(host_impl_->active_tree(), 1); LayerImpl* root = scoped_root.get(); host_impl_->active_tree()->SetRootLayer(scoped_root.Pass()); scoped_ptr scoped_scaling_layer = LayerImpl::Create(host_impl_->active_tree(), 2); LayerImpl* scaling_layer = scoped_scaling_layer.get(); root->AddChild(scoped_scaling_layer.Pass()); scoped_ptr scoped_content_layer = LayerImpl::Create(host_impl_->active_tree(), 3); LayerImpl* content_layer = scoped_content_layer.get(); scaling_layer->AddChild(scoped_content_layer.Pass()); scoped_ptr scoped_mask_layer = FakeMaskLayerImpl::Create(host_impl_->active_tree(), 4); FakeMaskLayerImpl* mask_layer = scoped_mask_layer.get(); content_layer->SetMaskLayer(scoped_mask_layer.PassAs()); gfx::Size root_size(100, 100); root->SetBounds(root_size); root->SetContentBounds(root_size); root->SetPosition(gfx::PointF()); gfx::Size scaling_layer_size(50, 50); scaling_layer->SetBounds(scaling_layer_size); scaling_layer->SetContentBounds(scaling_layer_size); scaling_layer->SetPosition(gfx::PointF()); gfx::Transform scale; scale.Scale(2.f, 2.f); scaling_layer->SetTransform(scale); content_layer->SetBounds(scaling_layer_size); content_layer->SetContentBounds(scaling_layer_size); content_layer->SetPosition(gfx::PointF()); content_layer->SetDrawsContent(true); mask_layer->SetBounds(scaling_layer_size); mask_layer->SetContentBounds(scaling_layer_size); mask_layer->SetPosition(gfx::PointF()); mask_layer->SetDrawsContent(true); // Check that the tree scaling is correctly taken into account for the mask, // that should fully map onto the quad. float device_scale_factor = 1.f; host_impl_->SetViewportSize(root_size); host_impl_->SetDeviceScaleFactor(device_scale_factor); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(1u, frame.render_passes[0]->quad_list.size()); ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[0]->material); const RenderPassDrawQuad* render_pass_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[0]); EXPECT_EQ(gfx::Rect(0, 0, 100, 100).ToString(), render_pass_quad->rect.ToString()); EXPECT_EQ(gfx::RectF(0.f, 0.f, 1.f, 1.f).ToString(), render_pass_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } // Applying a DSF should change the render surface size, but won't affect // which part of the mask is used. device_scale_factor = 2.f; gfx::Size device_viewport = gfx::ToFlooredSize(gfx::ScaleSize(root_size, device_scale_factor)); host_impl_->SetViewportSize(device_viewport); host_impl_->SetDeviceScaleFactor(device_scale_factor); host_impl_->active_tree()->set_needs_update_draw_properties(); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(1u, frame.render_passes[0]->quad_list.size()); ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[0]->material); const RenderPassDrawQuad* render_pass_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[0]); EXPECT_EQ(gfx::Rect(0, 0, 200, 200).ToString(), render_pass_quad->rect.ToString()); EXPECT_EQ(gfx::RectF(0.f, 0.f, 1.f, 1.f).ToString(), render_pass_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } // Applying an equivalent content scale on the content layer and the mask // should still result in the same part of the mask being used. gfx::Size content_bounds = gfx::ToRoundedSize(gfx::ScaleSize(scaling_layer_size, device_scale_factor)); content_layer->SetContentBounds(content_bounds); content_layer->SetContentsScale(device_scale_factor, device_scale_factor); mask_layer->SetContentBounds(content_bounds); mask_layer->SetContentsScale(device_scale_factor, device_scale_factor); host_impl_->active_tree()->set_needs_update_draw_properties(); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(1u, frame.render_passes[0]->quad_list.size()); ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[0]->material); const RenderPassDrawQuad* render_pass_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[0]); EXPECT_EQ(gfx::Rect(0, 0, 200, 200).ToString(), render_pass_quad->rect.ToString()); EXPECT_EQ(gfx::RectF(0.f, 0.f, 1.f, 1.f).ToString(), render_pass_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } } TEST_F(LayerTreeHostImplTest, MaskLayerWithDifferentBounds) { // The mask layer has bounds 100x100 but is attached to a layer with bounds // 50x50. scoped_ptr scoped_root = LayerImpl::Create(host_impl_->active_tree(), 1); LayerImpl* root = scoped_root.get(); host_impl_->active_tree()->SetRootLayer(scoped_root.Pass()); scoped_ptr scoped_content_layer = LayerImpl::Create(host_impl_->active_tree(), 3); LayerImpl* content_layer = scoped_content_layer.get(); root->AddChild(scoped_content_layer.Pass()); scoped_ptr scoped_mask_layer = FakeMaskLayerImpl::Create(host_impl_->active_tree(), 4); FakeMaskLayerImpl* mask_layer = scoped_mask_layer.get(); content_layer->SetMaskLayer(scoped_mask_layer.PassAs()); gfx::Size root_size(100, 100); root->SetBounds(root_size); root->SetContentBounds(root_size); root->SetPosition(gfx::PointF()); gfx::Size layer_size(50, 50); content_layer->SetBounds(layer_size); content_layer->SetContentBounds(layer_size); content_layer->SetPosition(gfx::PointF()); content_layer->SetDrawsContent(true); gfx::Size mask_size(100, 100); mask_layer->SetBounds(mask_size); mask_layer->SetContentBounds(mask_size); mask_layer->SetPosition(gfx::PointF()); mask_layer->SetDrawsContent(true); // Check that the mask fills the surface. float device_scale_factor = 1.f; host_impl_->SetViewportSize(root_size); host_impl_->SetDeviceScaleFactor(device_scale_factor); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(1u, frame.render_passes[0]->quad_list.size()); ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[0]->material); const RenderPassDrawQuad* render_pass_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[0]); EXPECT_EQ(gfx::Rect(0, 0, 50, 50).ToString(), render_pass_quad->rect.ToString()); EXPECT_EQ(gfx::RectF(0.f, 0.f, 1.f, 1.f).ToString(), render_pass_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } // Applying a DSF should change the render surface size, but won't affect // which part of the mask is used. device_scale_factor = 2.f; gfx::Size device_viewport = gfx::ToFlooredSize(gfx::ScaleSize(root_size, device_scale_factor)); host_impl_->SetViewportSize(device_viewport); host_impl_->SetDeviceScaleFactor(device_scale_factor); host_impl_->active_tree()->set_needs_update_draw_properties(); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(1u, frame.render_passes[0]->quad_list.size()); ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[0]->material); const RenderPassDrawQuad* render_pass_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[0]); EXPECT_EQ(gfx::Rect(0, 0, 100, 100).ToString(), render_pass_quad->rect.ToString()); EXPECT_EQ(gfx::RectF(0.f, 0.f, 1.f, 1.f).ToString(), render_pass_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } // Applying an equivalent content scale on the content layer and the mask // should still result in the same part of the mask being used. gfx::Size layer_size_large = gfx::ToRoundedSize(gfx::ScaleSize(layer_size, device_scale_factor)); content_layer->SetContentBounds(layer_size_large); content_layer->SetContentsScale(device_scale_factor, device_scale_factor); gfx::Size mask_size_large = gfx::ToRoundedSize(gfx::ScaleSize(mask_size, device_scale_factor)); mask_layer->SetContentBounds(mask_size_large); mask_layer->SetContentsScale(device_scale_factor, device_scale_factor); host_impl_->active_tree()->set_needs_update_draw_properties(); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(1u, frame.render_passes[0]->quad_list.size()); ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[0]->material); const RenderPassDrawQuad* render_pass_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[0]); EXPECT_EQ(gfx::Rect(0, 0, 100, 100).ToString(), render_pass_quad->rect.ToString()); EXPECT_EQ(gfx::RectF(0.f, 0.f, 1.f, 1.f).ToString(), render_pass_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } // Applying a different contents scale to the mask layer means it will have // a larger texture, but it should use the same tex coords to cover the // layer it masks. mask_layer->SetContentBounds(mask_size); mask_layer->SetContentsScale(1.f, 1.f); host_impl_->active_tree()->set_needs_update_draw_properties(); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(1u, frame.render_passes[0]->quad_list.size()); ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[0]->material); const RenderPassDrawQuad* render_pass_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[0]); EXPECT_EQ(gfx::Rect(0, 0, 100, 100).ToString(), render_pass_quad->rect.ToString()); EXPECT_EQ(gfx::RectF(0.f, 0.f, 1.f, 1.f).ToString(), render_pass_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } } TEST_F(LayerTreeHostImplTest, ReflectionMaskLayerWithDifferentBounds) { // The replica's mask layer has bounds 100x100 but the replica is of a // layer with bounds 50x50. scoped_ptr scoped_root = LayerImpl::Create(host_impl_->active_tree(), 1); LayerImpl* root = scoped_root.get(); host_impl_->active_tree()->SetRootLayer(scoped_root.Pass()); scoped_ptr scoped_content_layer = LayerImpl::Create(host_impl_->active_tree(), 3); LayerImpl* content_layer = scoped_content_layer.get(); root->AddChild(scoped_content_layer.Pass()); scoped_ptr scoped_replica_layer = LayerImpl::Create(host_impl_->active_tree(), 2); LayerImpl* replica_layer = scoped_replica_layer.get(); content_layer->SetReplicaLayer(scoped_replica_layer.Pass()); scoped_ptr scoped_mask_layer = FakeMaskLayerImpl::Create(host_impl_->active_tree(), 4); FakeMaskLayerImpl* mask_layer = scoped_mask_layer.get(); replica_layer->SetMaskLayer(scoped_mask_layer.PassAs()); gfx::Size root_size(100, 100); root->SetBounds(root_size); root->SetContentBounds(root_size); root->SetPosition(gfx::PointF()); gfx::Size layer_size(50, 50); content_layer->SetBounds(layer_size); content_layer->SetContentBounds(layer_size); content_layer->SetPosition(gfx::PointF()); content_layer->SetDrawsContent(true); gfx::Size mask_size(100, 100); mask_layer->SetBounds(mask_size); mask_layer->SetContentBounds(mask_size); mask_layer->SetPosition(gfx::PointF()); mask_layer->SetDrawsContent(true); // Check that the mask fills the surface. float device_scale_factor = 1.f; host_impl_->SetViewportSize(root_size); host_impl_->SetDeviceScaleFactor(device_scale_factor); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(2u, frame.render_passes[0]->quad_list.size()); ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[1]->material); const RenderPassDrawQuad* replica_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[1]); EXPECT_EQ(gfx::Rect(0, 0, 50, 50).ToString(), replica_quad->rect.ToString()); EXPECT_EQ(gfx::RectF(0.f, 0.f, 1.f, 1.f).ToString(), replica_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } // Applying a DSF should change the render surface size, but won't affect // which part of the mask is used. device_scale_factor = 2.f; gfx::Size device_viewport = gfx::ToFlooredSize(gfx::ScaleSize(root_size, device_scale_factor)); host_impl_->SetViewportSize(device_viewport); host_impl_->SetDeviceScaleFactor(device_scale_factor); host_impl_->active_tree()->set_needs_update_draw_properties(); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(2u, frame.render_passes[0]->quad_list.size()); ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[1]->material); const RenderPassDrawQuad* replica_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[1]); EXPECT_EQ(gfx::Rect(0, 0, 100, 100).ToString(), replica_quad->rect.ToString()); EXPECT_EQ(gfx::RectF(0.f, 0.f, 1.f, 1.f).ToString(), replica_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } // Applying an equivalent content scale on the content layer and the mask // should still result in the same part of the mask being used. gfx::Size layer_size_large = gfx::ToRoundedSize(gfx::ScaleSize(layer_size, device_scale_factor)); content_layer->SetContentBounds(layer_size_large); content_layer->SetContentsScale(device_scale_factor, device_scale_factor); gfx::Size mask_size_large = gfx::ToRoundedSize(gfx::ScaleSize(mask_size, device_scale_factor)); mask_layer->SetContentBounds(mask_size_large); mask_layer->SetContentsScale(device_scale_factor, device_scale_factor); host_impl_->active_tree()->set_needs_update_draw_properties(); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(2u, frame.render_passes[0]->quad_list.size()); ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[1]->material); const RenderPassDrawQuad* replica_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[1]); EXPECT_EQ(gfx::Rect(0, 0, 100, 100).ToString(), replica_quad->rect.ToString()); EXPECT_EQ(gfx::RectF(0.f, 0.f, 1.f, 1.f).ToString(), replica_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } // Applying a different contents scale to the mask layer means it will have // a larger texture, but it should use the same tex coords to cover the // layer it masks. mask_layer->SetContentBounds(mask_size); mask_layer->SetContentsScale(1.f, 1.f); host_impl_->active_tree()->set_needs_update_draw_properties(); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(2u, frame.render_passes[0]->quad_list.size()); ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[1]->material); const RenderPassDrawQuad* replica_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[1]); EXPECT_EQ(gfx::Rect(0, 0, 100, 100).ToString(), replica_quad->rect.ToString()); EXPECT_EQ(gfx::RectF(0.f, 0.f, 1.f, 1.f).ToString(), replica_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } } TEST_F(LayerTreeHostImplTest, ReflectionMaskLayerForSurfaceWithUnclippedChild) { // The replica is of a layer with bounds 50x50, but it has a child that causes // the surface bounds to be larger. scoped_ptr scoped_root = LayerImpl::Create(host_impl_->active_tree(), 1); LayerImpl* root = scoped_root.get(); host_impl_->active_tree()->SetRootLayer(scoped_root.Pass()); scoped_ptr scoped_content_layer = LayerImpl::Create(host_impl_->active_tree(), 2); LayerImpl* content_layer = scoped_content_layer.get(); root->AddChild(scoped_content_layer.Pass()); scoped_ptr scoped_content_child_layer = LayerImpl::Create(host_impl_->active_tree(), 3); LayerImpl* content_child_layer = scoped_content_child_layer.get(); content_layer->AddChild(scoped_content_child_layer.Pass()); scoped_ptr scoped_replica_layer = LayerImpl::Create(host_impl_->active_tree(), 4); LayerImpl* replica_layer = scoped_replica_layer.get(); content_layer->SetReplicaLayer(scoped_replica_layer.Pass()); scoped_ptr scoped_mask_layer = FakeMaskLayerImpl::Create(host_impl_->active_tree(), 5); FakeMaskLayerImpl* mask_layer = scoped_mask_layer.get(); replica_layer->SetMaskLayer(scoped_mask_layer.PassAs()); gfx::Size root_size(100, 100); root->SetBounds(root_size); root->SetContentBounds(root_size); root->SetPosition(gfx::PointF()); gfx::Size layer_size(50, 50); content_layer->SetBounds(layer_size); content_layer->SetContentBounds(layer_size); content_layer->SetPosition(gfx::PointF()); content_layer->SetDrawsContent(true); gfx::Size child_size(50, 50); content_child_layer->SetBounds(child_size); content_child_layer->SetContentBounds(child_size); content_child_layer->SetPosition(gfx::Point(50, 0)); content_child_layer->SetDrawsContent(true); gfx::Size mask_size(50, 50); mask_layer->SetBounds(mask_size); mask_layer->SetContentBounds(mask_size); mask_layer->SetPosition(gfx::PointF()); mask_layer->SetDrawsContent(true); float device_scale_factor = 1.f; host_impl_->SetViewportSize(root_size); host_impl_->SetDeviceScaleFactor(device_scale_factor); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(2u, frame.render_passes[0]->quad_list.size()); // The surface is 100x50. ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[0]->material); const RenderPassDrawQuad* render_pass_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[0]); EXPECT_EQ(gfx::Rect(0, 0, 100, 50).ToString(), render_pass_quad->rect.ToString()); // The mask covers the owning layer only. ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[1]->material); const RenderPassDrawQuad* replica_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[1]); EXPECT_EQ(gfx::Rect(0, 0, 100, 50).ToString(), replica_quad->rect.ToString()); EXPECT_EQ(gfx::RectF(0.f, 0.f, 2.f, 1.f).ToString(), replica_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } // Move the child to (-50, 0) instead. Now the mask should be moved to still // cover the layer being replicated. content_child_layer->SetPosition(gfx::Point(-50, 0)); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(2u, frame.render_passes[0]->quad_list.size()); // The surface is 100x50 with its origin at (-50, 0). ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[0]->material); const RenderPassDrawQuad* render_pass_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[0]); EXPECT_EQ(gfx::Rect(-50, 0, 100, 50).ToString(), render_pass_quad->rect.ToString()); // The mask covers the owning layer only. ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[1]->material); const RenderPassDrawQuad* replica_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[1]); EXPECT_EQ(gfx::Rect(-50, 0, 100, 50).ToString(), replica_quad->rect.ToString()); EXPECT_EQ(gfx::RectF(-1.f, 0.f, 2.f, 1.f).ToString(), replica_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } } TEST_F(LayerTreeHostImplTest, MaskLayerForSurfaceWithClippedLayer) { // The masked layer has bounds 50x50, but it has a child that causes // the surface bounds to be larger. It also has a parent that clips the // masked layer and its surface. scoped_ptr scoped_root = LayerImpl::Create(host_impl_->active_tree(), 1); LayerImpl* root = scoped_root.get(); host_impl_->active_tree()->SetRootLayer(scoped_root.Pass()); scoped_ptr scoped_clipping_layer = LayerImpl::Create(host_impl_->active_tree(), 2); LayerImpl* clipping_layer = scoped_clipping_layer.get(); root->AddChild(scoped_clipping_layer.Pass()); scoped_ptr scoped_content_layer = LayerImpl::Create(host_impl_->active_tree(), 3); LayerImpl* content_layer = scoped_content_layer.get(); clipping_layer->AddChild(scoped_content_layer.Pass()); scoped_ptr scoped_content_child_layer = LayerImpl::Create(host_impl_->active_tree(), 4); LayerImpl* content_child_layer = scoped_content_child_layer.get(); content_layer->AddChild(scoped_content_child_layer.Pass()); scoped_ptr scoped_mask_layer = FakeMaskLayerImpl::Create(host_impl_->active_tree(), 6); FakeMaskLayerImpl* mask_layer = scoped_mask_layer.get(); content_layer->SetMaskLayer(scoped_mask_layer.PassAs()); gfx::Size root_size(100, 100); root->SetBounds(root_size); root->SetContentBounds(root_size); root->SetPosition(gfx::PointF()); gfx::Rect clipping_rect(20, 10, 10, 20); clipping_layer->SetBounds(clipping_rect.size()); clipping_layer->SetContentBounds(clipping_rect.size()); clipping_layer->SetPosition(clipping_rect.origin()); clipping_layer->SetMasksToBounds(true); gfx::Size layer_size(50, 50); content_layer->SetBounds(layer_size); content_layer->SetContentBounds(layer_size); content_layer->SetPosition(gfx::Point() - clipping_rect.OffsetFromOrigin()); content_layer->SetDrawsContent(true); gfx::Size child_size(50, 50); content_child_layer->SetBounds(child_size); content_child_layer->SetContentBounds(child_size); content_child_layer->SetPosition(gfx::Point(50, 0)); content_child_layer->SetDrawsContent(true); gfx::Size mask_size(100, 100); mask_layer->SetBounds(mask_size); mask_layer->SetContentBounds(mask_size); mask_layer->SetPosition(gfx::PointF()); mask_layer->SetDrawsContent(true); float device_scale_factor = 1.f; host_impl_->SetViewportSize(root_size); host_impl_->SetDeviceScaleFactor(device_scale_factor); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_EQ(1u, frame.render_passes[0]->quad_list.size()); // The surface is clipped to 10x20. ASSERT_EQ(DrawQuad::RENDER_PASS, frame.render_passes[0]->quad_list[0]->material); const RenderPassDrawQuad* render_pass_quad = RenderPassDrawQuad::MaterialCast(frame.render_passes[0]->quad_list[0]); EXPECT_EQ(gfx::Rect(20, 10, 10, 20).ToString(), render_pass_quad->rect.ToString()); // The masked layer is 50x50, but the surface size is 10x20. So the texture // coords in the mask are scaled by 10/50 and 20/50. // The surface is clipped to (20,10) so the mask texture coords are offset // by 20/50 and 10/50 EXPECT_EQ(gfx::ScaleRect(gfx::RectF(20.f, 10.f, 10.f, 20.f), 1.f / 50.f).ToString(), render_pass_quad->mask_uv_rect.ToString()); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } } class GLRendererWithSetupQuadForAntialiasing : public GLRenderer { public: using GLRenderer::SetupQuadForAntialiasing; }; TEST_F(LayerTreeHostImplTest, FarAwayQuadsDontNeedAA) { // Due to precision issues (especially on Android), sometimes far // away quads can end up thinking they need AA. float device_scale_factor = 4.f / 3.f; host_impl_->SetDeviceScaleFactor(device_scale_factor); gfx::Size root_size(2000, 1000); gfx::Size device_viewport_size = gfx::ToCeiledSize(gfx::ScaleSize(root_size, device_scale_factor)); host_impl_->SetViewportSize(device_viewport_size); host_impl_->CreatePendingTree(); host_impl_->pending_tree() ->SetPageScaleFactorAndLimits(1.f, 1.f / 16.f, 16.f); scoped_ptr scoped_root = LayerImpl::Create(host_impl_->pending_tree(), 1); LayerImpl* root = scoped_root.get(); host_impl_->pending_tree()->SetRootLayer(scoped_root.Pass()); scoped_ptr scoped_scrolling_layer = LayerImpl::Create(host_impl_->pending_tree(), 2); LayerImpl* scrolling_layer = scoped_scrolling_layer.get(); root->AddChild(scoped_scrolling_layer.Pass()); gfx::Size content_layer_bounds(100000, 100); gfx::Size pile_tile_size(3000, 3000); scoped_refptr pile(FakePicturePileImpl::CreateFilledPile( pile_tile_size, content_layer_bounds)); scoped_ptr scoped_content_layer = FakePictureLayerImpl::CreateWithPile(host_impl_->pending_tree(), 3, pile); LayerImpl* content_layer = scoped_content_layer.get(); scrolling_layer->AddChild(scoped_content_layer.PassAs()); content_layer->SetBounds(content_layer_bounds); content_layer->SetDrawsContent(true); root->SetBounds(root_size); gfx::Vector2d scroll_offset(100000, 0); scrolling_layer->SetScrollClipLayer(root->id()); scrolling_layer->SetScrollOffset(scroll_offset); host_impl_->ActivateSyncTree(); host_impl_->active_tree()->UpdateDrawProperties(); ASSERT_EQ(1u, host_impl_->active_tree()->RenderSurfaceLayerList().size()); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); ASSERT_EQ(1u, frame.render_passes.size()); ASSERT_LE(1u, frame.render_passes[0]->quad_list.size()); const DrawQuad* quad = frame.render_passes[0]->quad_list[0]; float edge[24]; gfx::QuadF device_layer_quad; bool antialiased = GLRendererWithSetupQuadForAntialiasing::SetupQuadForAntialiasing( quad->quadTransform(), quad, &device_layer_quad, edge); EXPECT_FALSE(antialiased); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); } class CompositorFrameMetadataTest : public LayerTreeHostImplTest { public: CompositorFrameMetadataTest() : swap_buffers_complete_(0) {} virtual void DidSwapBuffersCompleteOnImplThread() OVERRIDE { swap_buffers_complete_++; } int swap_buffers_complete_; }; TEST_F(CompositorFrameMetadataTest, CompositorFrameAckCountsAsSwapComplete) { SetupRootLayerImpl(FakeLayerWithQuads::Create(host_impl_->active_tree(), 1)); { LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, base::TimeTicks()); host_impl_->DidDrawAllLayers(frame); } CompositorFrameAck ack; host_impl_->ReclaimResources(&ack); host_impl_->DidSwapBuffersComplete(); EXPECT_EQ(swap_buffers_complete_, 1); } class CountingSoftwareDevice : public SoftwareOutputDevice { public: CountingSoftwareDevice() : frames_began_(0), frames_ended_(0) {} virtual SkCanvas* BeginPaint(const gfx::Rect& damage_rect) OVERRIDE { ++frames_began_; return SoftwareOutputDevice::BeginPaint(damage_rect); } virtual void EndPaint(SoftwareFrameData* frame_data) OVERRIDE { ++frames_ended_; SoftwareOutputDevice::EndPaint(frame_data); } int frames_began_, frames_ended_; }; TEST_F(LayerTreeHostImplTest, ForcedDrawToSoftwareDeviceBasicRender) { // No main thread evictions in resourceless software mode. set_reduce_memory_result(false); CountingSoftwareDevice* software_device = new CountingSoftwareDevice(); bool delegated_rendering = false; FakeOutputSurface* output_surface = FakeOutputSurface::CreateDeferredGL( scoped_ptr(software_device), delegated_rendering).release(); EXPECT_TRUE(CreateHostImpl(DefaultSettings(), scoped_ptr(output_surface))); host_impl_->SetViewportSize(gfx::Size(50, 50)); SetupScrollAndContentsLayers(gfx::Size(100, 100)); const gfx::Transform external_transform; const gfx::Rect external_viewport; const gfx::Rect external_clip; const bool resourceless_software_draw = true; host_impl_->SetExternalDrawConstraints(external_transform, external_viewport, external_clip, external_viewport, external_transform, resourceless_software_draw); EXPECT_EQ(0, software_device->frames_began_); EXPECT_EQ(0, software_device->frames_ended_); DrawFrame(); EXPECT_EQ(1, software_device->frames_began_); EXPECT_EQ(1, software_device->frames_ended_); // Call other API methods that are likely to hit NULL pointer in this mode. EXPECT_TRUE(host_impl_->AsValue().get()); EXPECT_TRUE(host_impl_->ActivationStateAsValue().get()); } TEST_F(LayerTreeHostImplTest, ForcedDrawToSoftwareDeviceSkipsUnsupportedLayers) { set_reduce_memory_result(false); bool delegated_rendering = false; FakeOutputSurface* output_surface = FakeOutputSurface::CreateDeferredGL( scoped_ptr(new CountingSoftwareDevice()), delegated_rendering).release(); EXPECT_TRUE(CreateHostImpl(DefaultSettings(), scoped_ptr(output_surface))); const gfx::Transform external_transform; const gfx::Rect external_viewport; const gfx::Rect external_clip; const bool resourceless_software_draw = true; host_impl_->SetExternalDrawConstraints(external_transform, external_viewport, external_clip, external_viewport, external_transform, resourceless_software_draw); // SolidColorLayerImpl will be drawn. scoped_ptr root_layer = SolidColorLayerImpl::Create(host_impl_->active_tree(), 1); // VideoLayerImpl will not be drawn. FakeVideoFrameProvider provider; scoped_ptr video_layer = VideoLayerImpl::Create( host_impl_->active_tree(), 2, &provider, media::VIDEO_ROTATION_0); video_layer->SetBounds(gfx::Size(10, 10)); video_layer->SetContentBounds(gfx::Size(10, 10)); video_layer->SetDrawsContent(true); root_layer->AddChild(video_layer.PassAs()); SetupRootLayerImpl(root_layer.PassAs()); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); EXPECT_EQ(1u, frame.will_draw_layers.size()); EXPECT_EQ(host_impl_->active_tree()->root_layer(), frame.will_draw_layers[0]); } class LayerTreeHostImplTestDeferredInitialize : public LayerTreeHostImplTest { protected: virtual void SetUp() OVERRIDE { LayerTreeHostImplTest::SetUp(); set_reduce_memory_result(false); bool delegated_rendering = false; scoped_ptr output_surface( FakeOutputSurface::CreateDeferredGL( scoped_ptr(new CountingSoftwareDevice()), delegated_rendering)); output_surface_ = output_surface.get(); EXPECT_TRUE(CreateHostImpl(DefaultSettings(), output_surface.PassAs())); scoped_ptr root_layer = SolidColorLayerImpl::Create(host_impl_->active_tree(), 1); SetupRootLayerImpl(root_layer.PassAs()); onscreen_context_provider_ = TestContextProvider::Create(); } virtual void UpdateRendererCapabilitiesOnImplThread() OVERRIDE { did_update_renderer_capabilities_ = true; } FakeOutputSurface* output_surface_; scoped_refptr onscreen_context_provider_; bool did_update_renderer_capabilities_; }; TEST_F(LayerTreeHostImplTestDeferredInitialize, Success) { // Software draw. DrawFrame(); EXPECT_FALSE(host_impl_->output_surface()->context_provider()); // DeferredInitialize and hardware draw. did_update_renderer_capabilities_ = false; EXPECT_TRUE( output_surface_->InitializeAndSetContext3d(onscreen_context_provider_)); EXPECT_EQ(onscreen_context_provider_.get(), host_impl_->output_surface()->context_provider()); EXPECT_TRUE(did_update_renderer_capabilities_); // Defer intialized GL draw. DrawFrame(); // Revert back to software. did_update_renderer_capabilities_ = false; output_surface_->ReleaseGL(); EXPECT_FALSE(host_impl_->output_surface()->context_provider()); EXPECT_TRUE(did_update_renderer_capabilities_); // Software draw again. DrawFrame(); } TEST_F(LayerTreeHostImplTestDeferredInitialize, Fails) { // Software draw. DrawFrame(); // Fail initialization of the onscreen context before the OutputSurface binds // it to the thread. onscreen_context_provider_->UnboundTestContext3d()->set_context_lost(true); EXPECT_FALSE(host_impl_->output_surface()->context_provider()); // DeferredInitialize fails. did_update_renderer_capabilities_ = false; EXPECT_FALSE( output_surface_->InitializeAndSetContext3d(onscreen_context_provider_)); EXPECT_FALSE(host_impl_->output_surface()->context_provider()); EXPECT_FALSE(did_update_renderer_capabilities_); // Software draw again. DrawFrame(); } // Checks that we have a non-0 default allocation if we pass a context that // doesn't support memory management extensions. TEST_F(LayerTreeHostImplTest, DefaultMemoryAllocation) { LayerTreeSettings settings; host_impl_ = LayerTreeHostImpl::Create(settings, this, &proxy_, &stats_instrumentation_, shared_bitmap_manager_.get(), 0); scoped_ptr output_surface( FakeOutputSurface::Create3d(TestWebGraphicsContext3D::Create())); host_impl_->InitializeRenderer(output_surface.Pass()); EXPECT_LT(0ul, host_impl_->memory_allocation_limit_bytes()); } TEST_F(LayerTreeHostImplTest, MemoryPolicy) { ManagedMemoryPolicy policy1( 456, gpu::MemoryAllocation::CUTOFF_ALLOW_EVERYTHING, 1000); int everything_cutoff_value = ManagedMemoryPolicy::PriorityCutoffToValue( gpu::MemoryAllocation::CUTOFF_ALLOW_EVERYTHING); int allow_nice_to_have_cutoff_value = ManagedMemoryPolicy::PriorityCutoffToValue( gpu::MemoryAllocation::CUTOFF_ALLOW_NICE_TO_HAVE); int nothing_cutoff_value = ManagedMemoryPolicy::PriorityCutoffToValue( gpu::MemoryAllocation::CUTOFF_ALLOW_NOTHING); // GPU rasterization should be disabled by default on the tree(s) EXPECT_FALSE(host_impl_->active_tree()->use_gpu_rasterization()); EXPECT_TRUE(host_impl_->pending_tree() == NULL); host_impl_->SetVisible(true); host_impl_->SetMemoryPolicy(policy1); EXPECT_EQ(policy1.bytes_limit_when_visible, current_limit_bytes_); EXPECT_EQ(everything_cutoff_value, current_priority_cutoff_value_); host_impl_->SetVisible(false); EXPECT_EQ(0u, current_limit_bytes_); EXPECT_EQ(nothing_cutoff_value, current_priority_cutoff_value_); host_impl_->SetVisible(true); EXPECT_EQ(policy1.bytes_limit_when_visible, current_limit_bytes_); EXPECT_EQ(everything_cutoff_value, current_priority_cutoff_value_); // Now enable GPU rasterization and test if we get nice to have cutoff, // when visible. LayerTreeSettings settings; settings.gpu_rasterization_enabled = true; host_impl_ = LayerTreeHostImpl::Create( settings, this, &proxy_, &stats_instrumentation_, NULL, 0); host_impl_->SetUseGpuRasterization(true); host_impl_->SetVisible(true); host_impl_->SetMemoryPolicy(policy1); EXPECT_EQ(policy1.bytes_limit_when_visible, current_limit_bytes_); EXPECT_EQ(allow_nice_to_have_cutoff_value, current_priority_cutoff_value_); host_impl_->SetVisible(false); EXPECT_EQ(0u, current_limit_bytes_); EXPECT_EQ(nothing_cutoff_value, current_priority_cutoff_value_); } TEST_F(LayerTreeHostImplTest, RequireHighResWhenVisible) { ASSERT_TRUE(host_impl_->active_tree()); EXPECT_FALSE(host_impl_->active_tree()->RequiresHighResToDraw()); host_impl_->SetVisible(false); EXPECT_FALSE(host_impl_->active_tree()->RequiresHighResToDraw()); host_impl_->SetVisible(true); EXPECT_TRUE(host_impl_->active_tree()->RequiresHighResToDraw()); host_impl_->SetVisible(false); EXPECT_TRUE(host_impl_->active_tree()->RequiresHighResToDraw()); host_impl_->CreatePendingTree(); host_impl_->ActivateSyncTree(); EXPECT_FALSE(host_impl_->active_tree()->RequiresHighResToDraw()); host_impl_->SetVisible(true); EXPECT_TRUE(host_impl_->active_tree()->RequiresHighResToDraw()); } TEST_F(LayerTreeHostImplTest, RequireHighResAfterGpuRasterizationToggles) { ASSERT_TRUE(host_impl_->active_tree()); EXPECT_FALSE(host_impl_->use_gpu_rasterization()); EXPECT_FALSE(host_impl_->active_tree()->RequiresHighResToDraw()); host_impl_->SetUseGpuRasterization(false); EXPECT_FALSE(host_impl_->active_tree()->RequiresHighResToDraw()); host_impl_->SetUseGpuRasterization(true); EXPECT_TRUE(host_impl_->active_tree()->RequiresHighResToDraw()); host_impl_->SetUseGpuRasterization(false); EXPECT_TRUE(host_impl_->active_tree()->RequiresHighResToDraw()); host_impl_->CreatePendingTree(); host_impl_->ActivateSyncTree(); EXPECT_FALSE(host_impl_->active_tree()->RequiresHighResToDraw()); host_impl_->SetUseGpuRasterization(true); EXPECT_TRUE(host_impl_->active_tree()->RequiresHighResToDraw()); } class LayerTreeHostImplTestManageTiles : public LayerTreeHostImplTest { public: virtual void SetUp() OVERRIDE { LayerTreeSettings settings; settings.impl_side_painting = true; fake_host_impl_ = new FakeLayerTreeHostImpl( settings, &proxy_, shared_bitmap_manager_.get()); host_impl_.reset(fake_host_impl_); host_impl_->InitializeRenderer(CreateOutputSurface()); host_impl_->SetViewportSize(gfx::Size(10, 10)); } FakeLayerTreeHostImpl* fake_host_impl_; }; TEST_F(LayerTreeHostImplTestManageTiles, ManageTilesWhenInvisible) { fake_host_impl_->DidModifyTilePriorities(); EXPECT_TRUE(fake_host_impl_->manage_tiles_needed()); fake_host_impl_->SetVisible(false); EXPECT_FALSE(fake_host_impl_->manage_tiles_needed()); } TEST_F(LayerTreeHostImplTest, UIResourceManagement) { scoped_ptr context = TestWebGraphicsContext3D::Create(); TestWebGraphicsContext3D* context3d = context.get(); scoped_ptr output_surface = FakeOutputSurface::Create3d(); CreateHostImpl(DefaultSettings(), output_surface.PassAs()); EXPECT_EQ(0u, context3d->NumTextures()); UIResourceId ui_resource_id = 1; bool is_opaque = false; UIResourceBitmap bitmap(gfx::Size(1, 1), is_opaque); host_impl_->CreateUIResource(ui_resource_id, bitmap); EXPECT_EQ(1u, context3d->NumTextures()); ResourceProvider::ResourceId id1 = host_impl_->ResourceIdForUIResource(ui_resource_id); EXPECT_NE(0u, id1); // Multiple requests with the same id is allowed. The previous texture is // deleted. host_impl_->CreateUIResource(ui_resource_id, bitmap); EXPECT_EQ(1u, context3d->NumTextures()); ResourceProvider::ResourceId id2 = host_impl_->ResourceIdForUIResource(ui_resource_id); EXPECT_NE(0u, id2); EXPECT_NE(id1, id2); // Deleting invalid UIResourceId is allowed and does not change state. host_impl_->DeleteUIResource(-1); EXPECT_EQ(1u, context3d->NumTextures()); // Should return zero for invalid UIResourceId. Number of textures should // not change. EXPECT_EQ(0u, host_impl_->ResourceIdForUIResource(-1)); EXPECT_EQ(1u, context3d->NumTextures()); host_impl_->DeleteUIResource(ui_resource_id); EXPECT_EQ(0u, host_impl_->ResourceIdForUIResource(ui_resource_id)); EXPECT_EQ(0u, context3d->NumTextures()); // Should not change state for multiple deletion on one UIResourceId host_impl_->DeleteUIResource(ui_resource_id); EXPECT_EQ(0u, context3d->NumTextures()); } TEST_F(LayerTreeHostImplTest, CreateETC1UIResource) { scoped_ptr context = TestWebGraphicsContext3D::Create(); TestWebGraphicsContext3D* context3d = context.get(); scoped_ptr output_surface = FakeOutputSurface::Create3d(); CreateHostImpl(DefaultSettings(), output_surface.PassAs()); EXPECT_EQ(0u, context3d->NumTextures()); gfx::Size size(4, 4); // SkImageInfo has no support for ETC1. The |info| below contains the right // total pixel size for the bitmap but not the right height and width. The // correct width/height are passed directly to UIResourceBitmap. SkImageInfo info = SkImageInfo::Make(4, 2, kAlpha_8_SkColorType, kPremul_SkAlphaType); skia::RefPtr pixel_ref = skia::AdoptRef(SkMallocPixelRef::NewAllocate(info, 0, 0)); pixel_ref->setImmutable(); UIResourceBitmap bitmap(pixel_ref, size); UIResourceId ui_resource_id = 1; host_impl_->CreateUIResource(ui_resource_id, bitmap); EXPECT_EQ(1u, context3d->NumTextures()); ResourceProvider::ResourceId id1 = host_impl_->ResourceIdForUIResource(ui_resource_id); EXPECT_NE(0u, id1); } void ShutdownReleasesContext_Callback(scoped_ptr result) { } TEST_F(LayerTreeHostImplTest, ShutdownReleasesContext) { scoped_refptr context_provider = TestContextProvider::Create(); CreateHostImpl( DefaultSettings(), FakeOutputSurface::Create3d(context_provider).PassAs()); SetupRootLayerImpl(LayerImpl::Create(host_impl_->active_tree(), 1)); ScopedPtrVector requests; requests.push_back(CopyOutputRequest::CreateRequest( base::Bind(&ShutdownReleasesContext_Callback))); host_impl_->active_tree()->root_layer()->PassCopyRequests(&requests); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); // The CopyOutputResult's callback has a ref on the ContextProvider and a // texture in a texture mailbox. EXPECT_FALSE(context_provider->HasOneRef()); EXPECT_EQ(1u, context_provider->TestContext3d()->NumTextures()); host_impl_.reset(); // The CopyOutputResult's callback was cancelled, the CopyOutputResult // released, and the texture deleted. EXPECT_TRUE(context_provider->HasOneRef()); EXPECT_EQ(0u, context_provider->TestContext3d()->NumTextures()); } TEST_F(LayerTreeHostImplTest, TouchFlingShouldNotBubble) { // When flinging via touch, only the child should scroll (we should not // bubble). gfx::Size surface_size(10, 10); gfx::Size content_size(20, 20); scoped_ptr root_clip = LayerImpl::Create(host_impl_->active_tree(), 3); scoped_ptr root = CreateScrollableLayer(1, content_size, root_clip.get()); root->SetIsContainerForFixedPositionLayers(true); scoped_ptr child = CreateScrollableLayer(2, content_size, root_clip.get()); root->AddChild(child.Pass()); int root_id = root->id(); root_clip->AddChild(root.Pass()); host_impl_->SetViewportSize(surface_size); host_impl_->active_tree()->SetRootLayer(root_clip.Pass()); host_impl_->active_tree()->SetViewportLayersFromIds(3, 1, Layer::INVALID_ID); host_impl_->active_tree()->DidBecomeActive(); DrawFrame(); { EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->FlingScrollBegin()); gfx::Vector2d scroll_delta(0, 100); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollEnd(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); // Only the child should have scrolled. ASSERT_EQ(1u, scroll_info->scrolls.size()); ExpectNone(*scroll_info.get(), root_id); } } TEST_F(LayerTreeHostImplTest, TouchFlingShouldLockToFirstScrolledLayer) { // Scroll a child layer beyond its maximum scroll range and make sure the // the scroll doesn't bubble up to the parent layer. gfx::Size surface_size(10, 10); scoped_ptr root = LayerImpl::Create(host_impl_->active_tree(), 1); scoped_ptr root_scrolling = CreateScrollableLayer(2, surface_size, root.get()); scoped_ptr grand_child = CreateScrollableLayer(4, surface_size, root.get()); grand_child->SetScrollOffset(gfx::Vector2d(0, 2)); scoped_ptr child = CreateScrollableLayer(3, surface_size, root.get()); child->SetScrollOffset(gfx::Vector2d(0, 4)); child->AddChild(grand_child.Pass()); root_scrolling->AddChild(child.Pass()); root->AddChild(root_scrolling.Pass()); host_impl_->active_tree()->SetRootLayer(root.Pass()); host_impl_->active_tree()->DidBecomeActive(); host_impl_->SetViewportSize(surface_size); DrawFrame(); { scoped_ptr scroll_info; LayerImpl* child = host_impl_->active_tree()->root_layer()->children()[0]->children()[0]; LayerImpl* grand_child = child->children()[0]; gfx::Vector2d scroll_delta(0, -2); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), scroll_delta)); // The grand child should have scrolled up to its limit. scroll_info = host_impl_->ProcessScrollDeltas(); ASSERT_EQ(1u, scroll_info->scrolls.size()); ExpectContains(*scroll_info, grand_child->id(), scroll_delta); EXPECT_EQ(host_impl_->CurrentlyScrollingLayer(), grand_child); // The child should have received the bubbled delta, but the locked // scrolling layer should remain set as the grand child. EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), scroll_delta)); scroll_info = host_impl_->ProcessScrollDeltas(); ASSERT_EQ(2u, scroll_info->scrolls.size()); ExpectContains(*scroll_info, grand_child->id(), scroll_delta); ExpectContains(*scroll_info, child->id(), scroll_delta); EXPECT_EQ(host_impl_->CurrentlyScrollingLayer(), grand_child); // The first |ScrollBy| after the fling should re-lock the scrolling // layer to the first layer that scrolled, which is the child. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->FlingScrollBegin()); EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), scroll_delta)); EXPECT_EQ(host_impl_->CurrentlyScrollingLayer(), child); // The child should have scrolled up to its limit. scroll_info = host_impl_->ProcessScrollDeltas(); ASSERT_EQ(2u, scroll_info->scrolls.size()); ExpectContains(*scroll_info, grand_child->id(), scroll_delta); ExpectContains(*scroll_info, child->id(), scroll_delta + scroll_delta); // As the locked layer is at it's limit, no further scrolling can occur. EXPECT_FALSE(host_impl_->ScrollBy(gfx::Point(), scroll_delta)); EXPECT_EQ(host_impl_->CurrentlyScrollingLayer(), child); host_impl_->ScrollEnd(); } } TEST_F(LayerTreeHostImplTest, WheelFlingShouldBubble) { // When flinging via wheel, the root should eventually scroll (we should // bubble). gfx::Size surface_size(10, 10); gfx::Size content_size(20, 20); scoped_ptr root_clip = LayerImpl::Create(host_impl_->active_tree(), 3); scoped_ptr root_scroll = CreateScrollableLayer(1, content_size, root_clip.get()); int root_scroll_id = root_scroll->id(); scoped_ptr child = CreateScrollableLayer(2, content_size, root_clip.get()); root_scroll->AddChild(child.Pass()); root_clip->AddChild(root_scroll.Pass()); host_impl_->SetViewportSize(surface_size); host_impl_->active_tree()->SetRootLayer(root_clip.Pass()); host_impl_->active_tree()->DidBecomeActive(); DrawFrame(); { EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->FlingScrollBegin()); gfx::Vector2d scroll_delta(0, 100); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollBy(gfx::Point(), scroll_delta); host_impl_->ScrollEnd(); scoped_ptr scroll_info = host_impl_->ProcessScrollDeltas(); // The root should have scrolled. ASSERT_EQ(2u, scroll_info->scrolls.size()); ExpectContains(*scroll_info.get(), root_scroll_id, gfx::Vector2d(0, 10)); } } TEST_F(LayerTreeHostImplTest, ScrollUnknownNotOnAncestorChain) { // If we ray cast a scroller that is not on the first layer's ancestor chain, // we should return ScrollUnknown. gfx::Size content_size(100, 100); SetupScrollAndContentsLayers(content_size); int scroll_layer_id = 2; LayerImpl* scroll_layer = host_impl_->active_tree()->LayerById(scroll_layer_id); scroll_layer->SetDrawsContent(true); int page_scale_layer_id = 5; LayerImpl* page_scale_layer = host_impl_->active_tree()->LayerById(page_scale_layer_id); int occluder_layer_id = 6; scoped_ptr occluder_layer = LayerImpl::Create(host_impl_->active_tree(), occluder_layer_id); occluder_layer->SetDrawsContent(true); occluder_layer->SetBounds(content_size); occluder_layer->SetContentBounds(content_size); occluder_layer->SetPosition(gfx::PointF()); // The parent of the occluder is *above* the scroller. page_scale_layer->AddChild(occluder_layer.Pass()); DrawFrame(); EXPECT_EQ(InputHandler::ScrollUnknown, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); } TEST_F(LayerTreeHostImplTest, ScrollUnknownScrollAncestorMismatch) { // If we ray cast a scroller this is on the first layer's ancestor chain, but // is not the first scroller we encounter when walking up from the layer, we // should also return ScrollUnknown. gfx::Size content_size(100, 100); SetupScrollAndContentsLayers(content_size); int scroll_layer_id = 2; LayerImpl* scroll_layer = host_impl_->active_tree()->LayerById(scroll_layer_id); scroll_layer->SetDrawsContent(true); int occluder_layer_id = 6; scoped_ptr occluder_layer = LayerImpl::Create(host_impl_->active_tree(), occluder_layer_id); occluder_layer->SetDrawsContent(true); occluder_layer->SetBounds(content_size); occluder_layer->SetContentBounds(content_size); occluder_layer->SetPosition(gfx::PointF(-10.f, -10.f)); int child_scroll_clip_layer_id = 7; scoped_ptr child_scroll_clip = LayerImpl::Create(host_impl_->active_tree(), child_scroll_clip_layer_id); int child_scroll_layer_id = 8; scoped_ptr child_scroll = CreateScrollableLayer( child_scroll_layer_id, content_size, child_scroll_clip.get()); child_scroll->SetPosition(gfx::PointF(10.f, 10.f)); child_scroll->AddChild(occluder_layer.Pass()); scroll_layer->AddChild(child_scroll.Pass()); DrawFrame(); EXPECT_EQ(InputHandler::ScrollUnknown, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); } TEST_F(LayerTreeHostImplTest, ScrollInvisibleScroller) { gfx::Size content_size(100, 100); SetupScrollAndContentsLayers(content_size); LayerImpl* root = host_impl_->active_tree()->LayerById(1); int scroll_layer_id = 2; LayerImpl* scroll_layer = host_impl_->active_tree()->LayerById(scroll_layer_id); int child_scroll_layer_id = 7; scoped_ptr child_scroll = CreateScrollableLayer(child_scroll_layer_id, content_size, root); child_scroll->SetDrawsContent(false); scroll_layer->AddChild(child_scroll.Pass()); DrawFrame(); // We should not have scrolled |child_scroll| even though we technically "hit" // it. The reason for this is that if the scrolling the scroll would not move // any layer that is a drawn RSLL member, then we can ignore the hit. // // Why ScrollStarted? In this case, it's because we've bubbled out and started // overscrolling the inner viewport. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); EXPECT_EQ(2, host_impl_->CurrentlyScrollingLayer()->id()); } TEST_F(LayerTreeHostImplTest, ScrollInvisibleScrollerWithVisibleScrollChild) { // This test case is very similar to the one above with one key difference: // the invisible scroller has a scroll child that is indeed draw contents. // If we attempt to initiate a gesture scroll off of the visible scroll child // we should still start the scroll child. gfx::Size content_size(100, 100); SetupScrollAndContentsLayers(content_size); LayerImpl* root = host_impl_->active_tree()->LayerById(1); int scroll_layer_id = 2; LayerImpl* scroll_layer = host_impl_->active_tree()->LayerById(scroll_layer_id); int scroll_child_id = 6; scoped_ptr scroll_child = LayerImpl::Create(host_impl_->active_tree(), scroll_child_id); scroll_child->SetDrawsContent(true); scroll_child->SetBounds(content_size); scroll_child->SetContentBounds(content_size); // Move the scroll child so it's not hit by our test point. scroll_child->SetPosition(gfx::PointF(10.f, 10.f)); int invisible_scroll_layer_id = 7; scoped_ptr invisible_scroll = CreateScrollableLayer(invisible_scroll_layer_id, content_size, root); invisible_scroll->SetDrawsContent(false); int container_id = 8; scoped_ptr container = LayerImpl::Create(host_impl_->active_tree(), container_id); scoped_ptr > scroll_children(new std::set()); scroll_children->insert(scroll_child.get()); invisible_scroll->SetScrollChildren(scroll_children.release()); scroll_child->SetScrollParent(invisible_scroll.get()); container->AddChild(invisible_scroll.Pass()); container->AddChild(scroll_child.Pass()); scroll_layer->AddChild(container.Pass()); DrawFrame(); // We should not have scrolled |child_scroll| even though we technically "hit" // it. The reason for this is that if the scrolling the scroll would not move // any layer that is a drawn RSLL member, then we can ignore the hit. // // Why ScrollStarted? In this case, it's because we've bubbled out and started // overscrolling the inner viewport. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Wheel)); EXPECT_EQ(7, host_impl_->CurrentlyScrollingLayer()->id()); } // Make sure LatencyInfo carried by LatencyInfoSwapPromise are passed // to CompositorFrameMetadata after SwapBuffers(); TEST_F(LayerTreeHostImplTest, LatencyInfoPassedToCompositorFrameMetadata) { scoped_ptr root = SolidColorLayerImpl::Create(host_impl_->active_tree(), 1); root->SetPosition(gfx::PointF()); root->SetBounds(gfx::Size(10, 10)); root->SetContentBounds(gfx::Size(10, 10)); root->SetDrawsContent(true); host_impl_->active_tree()->SetRootLayer(root.PassAs()); FakeOutputSurface* fake_output_surface = static_cast(host_impl_->output_surface()); const std::vector& metadata_latency_before = fake_output_surface->last_sent_frame().metadata.latency_info; EXPECT_TRUE(metadata_latency_before.empty()); ui::LatencyInfo latency_info; latency_info.AddLatencyNumber( ui::INPUT_EVENT_LATENCY_BEGIN_RWH_COMPONENT, 0, 0); scoped_ptr swap_promise( new LatencyInfoSwapPromise(latency_info)); host_impl_->active_tree()->QueueSwapPromise(swap_promise.Pass()); host_impl_->SetNeedsRedraw(); gfx::Rect full_frame_damage(host_impl_->DrawViewportSize()); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); EXPECT_TRUE(host_impl_->SwapBuffers(frame)); const std::vector& metadata_latency_after = fake_output_surface->last_sent_frame().metadata.latency_info; EXPECT_EQ(1u, metadata_latency_after.size()); EXPECT_TRUE(metadata_latency_after[0].FindLatency( ui::INPUT_EVENT_LATENCY_BEGIN_RWH_COMPONENT, 0, NULL)); } TEST_F(LayerTreeHostImplTest, SelectionBoundsPassedToCompositorFrameMetadata) { int root_layer_id = 1; scoped_ptr root = SolidColorLayerImpl::Create(host_impl_->active_tree(), root_layer_id); root->SetPosition(gfx::PointF()); root->SetBounds(gfx::Size(10, 10)); root->SetContentBounds(gfx::Size(10, 10)); root->SetDrawsContent(true); host_impl_->active_tree()->SetRootLayer(root.PassAs()); // Ensure the default frame selection bounds are empty. FakeOutputSurface* fake_output_surface = static_cast(host_impl_->output_surface()); const ViewportSelectionBound& selection_start_before = fake_output_surface->last_sent_frame().metadata.selection_start; const ViewportSelectionBound& selection_end_before = fake_output_surface->last_sent_frame().metadata.selection_end; EXPECT_EQ(ViewportSelectionBound(), selection_start_before); EXPECT_EQ(ViewportSelectionBound(), selection_end_before); // Plumb the layer-local selection bounds. gfx::PointF selection_top(5, 0); gfx::PointF selection_bottom(5, 5); LayerSelectionBound start, end; start.type = SELECTION_BOUND_CENTER; start.layer_id = root_layer_id; start.edge_bottom = selection_bottom; start.edge_top = selection_top; end = start; host_impl_->active_tree()->RegisterSelection(start, end); // Trigger a draw-swap sequence. host_impl_->SetNeedsRedraw(); gfx::Rect full_frame_damage(host_impl_->DrawViewportSize()); LayerTreeHostImpl::FrameData frame; EXPECT_EQ(DRAW_SUCCESS, host_impl_->PrepareToDraw(&frame)); host_impl_->DrawLayers(&frame, gfx::FrameTime::Now()); host_impl_->DidDrawAllLayers(frame); EXPECT_TRUE(host_impl_->SwapBuffers(frame)); // Ensure the selection bounds have propagated to the frame metadata. const ViewportSelectionBound& selection_start_after = fake_output_surface->last_sent_frame().metadata.selection_start; const ViewportSelectionBound& selection_end_after = fake_output_surface->last_sent_frame().metadata.selection_end; EXPECT_EQ(start.type, selection_start_after.type); EXPECT_EQ(end.type, selection_end_after.type); EXPECT_EQ(selection_bottom, selection_start_after.edge_bottom); EXPECT_EQ(selection_top, selection_start_after.edge_top); EXPECT_TRUE(selection_start_after.visible); EXPECT_TRUE(selection_start_after.visible); } class SimpleSwapPromiseMonitor : public SwapPromiseMonitor { public: SimpleSwapPromiseMonitor(LayerTreeHost* layer_tree_host, LayerTreeHostImpl* layer_tree_host_impl, int* set_needs_commit_count, int* set_needs_redraw_count, int* forward_to_main_count) : SwapPromiseMonitor(layer_tree_host, layer_tree_host_impl), set_needs_commit_count_(set_needs_commit_count), set_needs_redraw_count_(set_needs_redraw_count), forward_to_main_count_(forward_to_main_count) {} virtual ~SimpleSwapPromiseMonitor() {} virtual void OnSetNeedsCommitOnMain() OVERRIDE { (*set_needs_commit_count_)++; } virtual void OnSetNeedsRedrawOnImpl() OVERRIDE { (*set_needs_redraw_count_)++; } virtual void OnForwardScrollUpdateToMainThreadOnImpl() OVERRIDE { (*forward_to_main_count_)++; } private: int* set_needs_commit_count_; int* set_needs_redraw_count_; int* forward_to_main_count_; }; TEST_F(LayerTreeHostImplTest, SimpleSwapPromiseMonitor) { int set_needs_commit_count = 0; int set_needs_redraw_count = 0; int forward_to_main_count = 0; { scoped_ptr swap_promise_monitor( new SimpleSwapPromiseMonitor(NULL, host_impl_.get(), &set_needs_commit_count, &set_needs_redraw_count, &forward_to_main_count)); host_impl_->SetNeedsRedraw(); EXPECT_EQ(0, set_needs_commit_count); EXPECT_EQ(1, set_needs_redraw_count); EXPECT_EQ(0, forward_to_main_count); } // Now the monitor is destroyed, SetNeedsRedraw() is no longer being // monitored. host_impl_->SetNeedsRedraw(); EXPECT_EQ(0, set_needs_commit_count); EXPECT_EQ(1, set_needs_redraw_count); EXPECT_EQ(0, forward_to_main_count); { scoped_ptr swap_promise_monitor( new SimpleSwapPromiseMonitor(NULL, host_impl_.get(), &set_needs_commit_count, &set_needs_redraw_count, &forward_to_main_count)); host_impl_->SetNeedsRedrawRect(gfx::Rect(10, 10)); EXPECT_EQ(0, set_needs_commit_count); EXPECT_EQ(2, set_needs_redraw_count); EXPECT_EQ(0, forward_to_main_count); } { scoped_ptr swap_promise_monitor( new SimpleSwapPromiseMonitor(NULL, host_impl_.get(), &set_needs_commit_count, &set_needs_redraw_count, &forward_to_main_count)); // Empty damage rect won't signal the monitor. host_impl_->SetNeedsRedrawRect(gfx::Rect()); EXPECT_EQ(0, set_needs_commit_count); EXPECT_EQ(2, set_needs_redraw_count); EXPECT_EQ(0, forward_to_main_count); } { set_needs_commit_count = 0; set_needs_redraw_count = 0; forward_to_main_count = 0; scoped_ptr swap_promise_monitor( new SimpleSwapPromiseMonitor(NULL, host_impl_.get(), &set_needs_commit_count, &set_needs_redraw_count, &forward_to_main_count)); LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(100, 100)); // Scrolling normally should not trigger any forwarding. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 10))); host_impl_->ScrollEnd(); EXPECT_EQ(0, set_needs_commit_count); EXPECT_EQ(1, set_needs_redraw_count); EXPECT_EQ(0, forward_to_main_count); // Scrolling with a scroll handler should defer the swap to the main // thread. scroll_layer->SetHaveScrollEventHandlers(true); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, 10))); host_impl_->ScrollEnd(); EXPECT_EQ(0, set_needs_commit_count); EXPECT_EQ(2, set_needs_redraw_count); EXPECT_EQ(1, forward_to_main_count); } } class LayerTreeHostImplWithTopControlsTest : public LayerTreeHostImplTest { public: virtual void SetUp() OVERRIDE { LayerTreeSettings settings = DefaultSettings(); settings.calculate_top_controls_position = true; settings.top_controls_height = top_controls_height_; CreateHostImpl(settings, CreateOutputSurface()); } protected: static const int top_controls_height_; }; const int LayerTreeHostImplWithTopControlsTest::top_controls_height_ = 50; TEST_F(LayerTreeHostImplWithTopControlsTest, NoIdleAnimations) { SetupScrollAndContentsLayers(gfx::Size(100, 100)) ->SetScrollOffset(gfx::Vector2d(0, 10)); host_impl_->Animate(base::TimeTicks()); EXPECT_FALSE(did_request_redraw_); } TEST_F(LayerTreeHostImplWithTopControlsTest, TopControlsAnimationScheduling) { SetupScrollAndContentsLayers(gfx::Size(100, 100)) ->SetScrollOffset(gfx::Vector2d(0, 10)); host_impl_->DidChangeTopControlsPosition(); EXPECT_TRUE(did_request_animate_); EXPECT_TRUE(did_request_redraw_); } TEST_F(LayerTreeHostImplWithTopControlsTest, ScrollHandledByTopControls) { LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(100, 200)); host_impl_->SetViewportSize(gfx::Size(100, 100)); host_impl_->top_controls_manager()->UpdateTopControlsState( BOTH, SHOWN, false); DrawFrame(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); EXPECT_EQ(0, host_impl_->top_controls_manager()->ControlsTopOffset()); EXPECT_EQ(gfx::Vector2dF().ToString(), scroll_layer->TotalScrollOffset().ToString()); // Scroll just the top controls and verify that the scroll succeeds. const float residue = 10; float offset = top_controls_height_ - residue; EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, offset))); EXPECT_EQ(-offset, host_impl_->top_controls_manager()->ControlsTopOffset()); EXPECT_EQ(gfx::Vector2dF().ToString(), scroll_layer->TotalScrollOffset().ToString()); // Scroll across the boundary const float content_scroll = 20; offset = residue + content_scroll; EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, offset))); EXPECT_EQ(-top_controls_height_, host_impl_->top_controls_manager()->ControlsTopOffset()); EXPECT_EQ(gfx::Vector2dF(0, content_scroll).ToString(), scroll_layer->TotalScrollOffset().ToString()); // Now scroll back to the top of the content offset = -content_scroll; EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, offset))); EXPECT_EQ(-top_controls_height_, host_impl_->top_controls_manager()->ControlsTopOffset()); EXPECT_EQ(gfx::Vector2dF().ToString(), scroll_layer->TotalScrollOffset().ToString()); // And scroll the top controls completely into view offset = -top_controls_height_; EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, offset))); EXPECT_EQ(0, host_impl_->top_controls_manager()->ControlsTopOffset()); EXPECT_EQ(gfx::Vector2dF().ToString(), scroll_layer->TotalScrollOffset().ToString()); // And attempt to scroll past the end EXPECT_FALSE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, offset))); EXPECT_EQ(0, host_impl_->top_controls_manager()->ControlsTopOffset()); EXPECT_EQ(gfx::Vector2dF().ToString(), scroll_layer->TotalScrollOffset().ToString()); host_impl_->ScrollEnd(); } TEST_F(LayerTreeHostImplWithTopControlsTest, TopControlsAnimationAtOrigin) { LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(100, 200)); host_impl_->SetViewportSize(gfx::Size(100, 200)); host_impl_->top_controls_manager()->UpdateTopControlsState( BOTH, SHOWN, false); DrawFrame(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); EXPECT_EQ(0, host_impl_->top_controls_manager()->ControlsTopOffset()); EXPECT_EQ(gfx::Vector2dF().ToString(), scroll_layer->TotalScrollOffset().ToString()); // Scroll the top controls partially. const float residue = 35; float offset = top_controls_height_ - residue; EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, offset))); EXPECT_EQ(-offset, host_impl_->top_controls_manager()->ControlsTopOffset()); EXPECT_EQ(gfx::Vector2dF().ToString(), scroll_layer->TotalScrollOffset().ToString()); did_request_redraw_ = false; did_request_animate_ = false; did_request_commit_ = false; // End the scroll while the controls are still offset from their limit. host_impl_->ScrollEnd(); ASSERT_TRUE(host_impl_->top_controls_manager()->animation()); EXPECT_TRUE(did_request_animate_); EXPECT_TRUE(did_request_redraw_); EXPECT_FALSE(did_request_commit_); // The top controls should properly animate until finished, despite the scroll // offset being at the origin. base::TimeTicks animation_time = gfx::FrameTime::Now(); while (did_request_animate_) { did_request_redraw_ = false; did_request_animate_ = false; did_request_commit_ = false; float old_offset = host_impl_->top_controls_manager()->ControlsTopOffset(); animation_time += base::TimeDelta::FromMilliseconds(5); host_impl_->Animate(animation_time); EXPECT_EQ(gfx::Vector2dF().ToString(), scroll_layer->TotalScrollOffset().ToString()); float new_offset = host_impl_->top_controls_manager()->ControlsTopOffset(); // No commit is needed as the controls are animating the content offset, // not the scroll offset. EXPECT_FALSE(did_request_commit_); if (new_offset != old_offset) EXPECT_TRUE(did_request_redraw_); if (new_offset != 0) { EXPECT_TRUE(host_impl_->top_controls_manager()->animation()); EXPECT_TRUE(did_request_animate_); } } EXPECT_FALSE(host_impl_->top_controls_manager()->animation()); } TEST_F(LayerTreeHostImplWithTopControlsTest, TopControlsAnimationAfterScroll) { LayerImpl* scroll_layer = SetupScrollAndContentsLayers(gfx::Size(100, 200)); host_impl_->SetViewportSize(gfx::Size(100, 100)); host_impl_->top_controls_manager()->UpdateTopControlsState( BOTH, SHOWN, false); float initial_scroll_offset = 50; scroll_layer->SetScrollOffset(gfx::Vector2d(0, initial_scroll_offset)); DrawFrame(); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); EXPECT_EQ(0, host_impl_->top_controls_manager()->ControlsTopOffset()); EXPECT_EQ(gfx::Vector2dF(0, initial_scroll_offset).ToString(), scroll_layer->TotalScrollOffset().ToString()); // Scroll the top controls partially. const float residue = 15; float offset = top_controls_height_ - residue; EXPECT_TRUE(host_impl_->ScrollBy(gfx::Point(), gfx::Vector2d(0, offset))); EXPECT_EQ(-offset, host_impl_->top_controls_manager()->ControlsTopOffset()); EXPECT_EQ(gfx::Vector2dF(0, initial_scroll_offset).ToString(), scroll_layer->TotalScrollOffset().ToString()); did_request_redraw_ = false; did_request_animate_ = false; did_request_commit_ = false; // End the scroll while the controls are still offset from the limit. host_impl_->ScrollEnd(); ASSERT_TRUE(host_impl_->top_controls_manager()->animation()); EXPECT_TRUE(did_request_animate_); EXPECT_TRUE(did_request_redraw_); EXPECT_FALSE(did_request_commit_); // Animate the top controls to the limit. base::TimeTicks animation_time = gfx::FrameTime::Now(); while (did_request_animate_) { did_request_redraw_ = false; did_request_animate_ = false; did_request_commit_ = false; float old_offset = host_impl_->top_controls_manager()->ControlsTopOffset(); animation_time += base::TimeDelta::FromMilliseconds(5); host_impl_->Animate(animation_time); float new_offset = host_impl_->top_controls_manager()->ControlsTopOffset(); if (new_offset != old_offset) { EXPECT_TRUE(did_request_redraw_); EXPECT_TRUE(did_request_commit_); } } EXPECT_FALSE(host_impl_->top_controls_manager()->animation()); } class LayerTreeHostImplVirtualViewportTest : public LayerTreeHostImplTest { public: void SetupVirtualViewportLayers(const gfx::Size& content_size, const gfx::Size& outer_viewport, const gfx::Size& inner_viewport) { LayerTreeImpl* layer_tree_impl = host_impl_->active_tree(); const int kOuterViewportClipLayerId = 6; const int kOuterViewportScrollLayerId = 7; const int kInnerViewportScrollLayerId = 2; const int kInnerViewportClipLayerId = 4; const int kPageScaleLayerId = 5; scoped_ptr inner_scroll = LayerImpl::Create(layer_tree_impl, kInnerViewportScrollLayerId); inner_scroll->SetIsContainerForFixedPositionLayers(true); inner_scroll->SetScrollOffset(gfx::Vector2d()); scoped_ptr inner_clip = LayerImpl::Create(layer_tree_impl, kInnerViewportClipLayerId); inner_clip->SetBounds(inner_viewport); scoped_ptr page_scale = LayerImpl::Create(layer_tree_impl, kPageScaleLayerId); inner_scroll->SetScrollClipLayer(inner_clip->id()); inner_scroll->SetBounds(outer_viewport); inner_scroll->SetContentBounds(outer_viewport); inner_scroll->SetPosition(gfx::PointF()); scoped_ptr outer_clip = LayerImpl::Create(layer_tree_impl, kOuterViewportClipLayerId); outer_clip->SetBounds(outer_viewport); outer_clip->SetIsContainerForFixedPositionLayers(true); scoped_ptr outer_scroll = LayerImpl::Create(layer_tree_impl, kOuterViewportScrollLayerId); outer_scroll->SetScrollClipLayer(outer_clip->id()); outer_scroll->SetScrollOffset(gfx::Vector2d()); outer_scroll->SetBounds(content_size); outer_scroll->SetContentBounds(content_size); outer_scroll->SetPosition(gfx::PointF()); scoped_ptr contents = LayerImpl::Create(layer_tree_impl, 8); contents->SetDrawsContent(true); contents->SetBounds(content_size); contents->SetContentBounds(content_size); contents->SetPosition(gfx::PointF()); outer_scroll->AddChild(contents.Pass()); outer_clip->AddChild(outer_scroll.Pass()); inner_scroll->AddChild(outer_clip.Pass()); page_scale->AddChild(inner_scroll.Pass()); inner_clip->AddChild(page_scale.Pass()); layer_tree_impl->SetRootLayer(inner_clip.Pass()); layer_tree_impl->SetViewportLayersFromIds(kPageScaleLayerId, kInnerViewportScrollLayerId, kOuterViewportScrollLayerId); host_impl_->active_tree()->DidBecomeActive(); } }; TEST_F(LayerTreeHostImplVirtualViewportTest, FlingScrollBubblesToInner) { gfx::Size content_size = gfx::Size(100, 160); gfx::Size outer_viewport = gfx::Size(50, 80); gfx::Size inner_viewport = gfx::Size(25, 40); SetupVirtualViewportLayers(content_size, outer_viewport, inner_viewport); LayerImpl* outer_scroll = host_impl_->OuterViewportScrollLayer(); LayerImpl* inner_scroll = host_impl_->InnerViewportScrollLayer(); DrawFrame(); { gfx::Vector2dF inner_expected; gfx::Vector2dF outer_expected; EXPECT_VECTOR_EQ(inner_expected, inner_scroll->TotalScrollOffset()); EXPECT_VECTOR_EQ(outer_expected, outer_scroll->TotalScrollOffset()); // Make sure the fling goes to the outer viewport first EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->FlingScrollBegin()); gfx::Vector2d scroll_delta(inner_viewport.width(), inner_viewport.height()); host_impl_->ScrollBy(gfx::Point(), scroll_delta); outer_expected += gfx::Vector2dF(scroll_delta.x(), scroll_delta.y()); host_impl_->ScrollEnd(); EXPECT_VECTOR_EQ(inner_expected, inner_scroll->TotalScrollOffset()); EXPECT_VECTOR_EQ(outer_expected, outer_scroll->TotalScrollOffset()); // Fling past the outer viewport boundry, make sure inner viewport scrolls. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollBegin(gfx::Point(), InputHandler::Gesture)); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->FlingScrollBegin()); host_impl_->ScrollBy(gfx::Point(), scroll_delta); outer_expected += gfx::Vector2dF(scroll_delta.x(), scroll_delta.y()); host_impl_->ScrollBy(gfx::Point(), scroll_delta); inner_expected += gfx::Vector2dF(scroll_delta.x(), scroll_delta.y()); host_impl_->ScrollEnd(); EXPECT_VECTOR_EQ(inner_expected, inner_scroll->TotalScrollOffset()); EXPECT_VECTOR_EQ(outer_expected, outer_scroll->TotalScrollOffset()); } } class LayerTreeHostImplWithImplicitLimitsTest : public LayerTreeHostImplTest { public: virtual void SetUp() OVERRIDE { LayerTreeSettings settings = DefaultSettings(); settings.max_memory_for_prepaint_percentage = 50; CreateHostImpl(settings, CreateOutputSurface()); } }; TEST_F(LayerTreeHostImplWithImplicitLimitsTest, ImplicitMemoryLimits) { // Set up a memory policy and percentages which could cause // 32-bit integer overflows. ManagedMemoryPolicy mem_policy(300 * 1024 * 1024); // 300MB // Verify implicit limits are calculated correctly with no overflows host_impl_->SetMemoryPolicy(mem_policy); EXPECT_EQ(host_impl_->global_tile_state().hard_memory_limit_in_bytes, 300u * 1024u * 1024u); EXPECT_EQ(host_impl_->global_tile_state().soft_memory_limit_in_bytes, 150u * 1024u * 1024u); } TEST_F(LayerTreeHostImplTest, ExternalTransformReflectedInNextDraw) { const gfx::Size layer_size(100, 100); gfx::Transform external_transform; const gfx::Rect external_viewport(layer_size); const gfx::Rect external_clip(layer_size); const bool resourceless_software_draw = false; LayerImpl* layer = SetupScrollAndContentsLayers(layer_size); host_impl_->SetExternalDrawConstraints(external_transform, external_viewport, external_clip, external_viewport, external_transform, resourceless_software_draw); DrawFrame(); EXPECT_TRANSFORMATION_MATRIX_EQ( external_transform, layer->draw_properties().target_space_transform); external_transform.Translate(20, 20); host_impl_->SetExternalDrawConstraints(external_transform, external_viewport, external_clip, external_viewport, external_transform, resourceless_software_draw); DrawFrame(); EXPECT_TRANSFORMATION_MATRIX_EQ( external_transform, layer->draw_properties().target_space_transform); } TEST_F(LayerTreeHostImplTest, ScrollAnimated) { SetupScrollAndContentsLayers(gfx::Size(100, 200)); DrawFrame(); base::TimeTicks start_time = base::TimeTicks() + base::TimeDelta::FromMilliseconds(100); EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollAnimated(gfx::Point(), gfx::Vector2d(0, 50))); LayerImpl* scrolling_layer = host_impl_->CurrentlyScrollingLayer(); host_impl_->Animate(start_time); host_impl_->UpdateAnimationState(true); EXPECT_EQ(gfx::Vector2dF(), scrolling_layer->TotalScrollOffset()); host_impl_->Animate(start_time + base::TimeDelta::FromMilliseconds(50)); host_impl_->UpdateAnimationState(true); float y = scrolling_layer->TotalScrollOffset().y(); EXPECT_TRUE(y > 1 && y < 49); // Update target. EXPECT_EQ(InputHandler::ScrollStarted, host_impl_->ScrollAnimated(gfx::Point(), gfx::Vector2d(0, 50))); host_impl_->Animate(start_time + base::TimeDelta::FromMilliseconds(200)); host_impl_->UpdateAnimationState(true); y = scrolling_layer->TotalScrollOffset().y(); EXPECT_TRUE(y > 50 && y < 100); EXPECT_EQ(scrolling_layer, host_impl_->CurrentlyScrollingLayer()); host_impl_->Animate(start_time + base::TimeDelta::FromMilliseconds(250)); host_impl_->UpdateAnimationState(true); EXPECT_EQ(gfx::Vector2dF(0, 100), scrolling_layer->TotalScrollOffset()); EXPECT_EQ(NULL, host_impl_->CurrentlyScrollingLayer()); } TEST_F(LayerTreeHostImplTest, GetPictureLayerImplPairs) { host_impl_->CreatePendingTree(); host_impl_->ActivateSyncTree(); host_impl_->CreatePendingTree(); LayerTreeImpl* active_tree = host_impl_->active_tree(); LayerTreeImpl* pending_tree = host_impl_->pending_tree(); EXPECT_NE(active_tree, pending_tree); scoped_ptr active_layer = FakePictureLayerImpl::Create(active_tree, 10); scoped_ptr pending_layer = FakePictureLayerImpl::Create(pending_tree, 10); std::vector layer_pairs; host_impl_->GetPictureLayerImplPairs(&layer_pairs); EXPECT_EQ(2u, layer_pairs.size()); if (layer_pairs[0].active) { EXPECT_EQ(active_layer.get(), layer_pairs[0].active); EXPECT_EQ(NULL, layer_pairs[0].pending); } else { EXPECT_EQ(pending_layer.get(), layer_pairs[0].pending); EXPECT_EQ(NULL, layer_pairs[0].active); } if (layer_pairs[1].active) { EXPECT_EQ(active_layer.get(), layer_pairs[1].active); EXPECT_EQ(NULL, layer_pairs[1].pending); } else { EXPECT_EQ(pending_layer.get(), layer_pairs[1].pending); EXPECT_EQ(NULL, layer_pairs[1].active); } active_layer->set_twin_layer(pending_layer.get()); pending_layer->set_twin_layer(active_layer.get()); layer_pairs.clear(); host_impl_->GetPictureLayerImplPairs(&layer_pairs); EXPECT_EQ(1u, layer_pairs.size()); EXPECT_EQ(active_layer.get(), layer_pairs[0].active); EXPECT_EQ(pending_layer.get(), layer_pairs[0].pending); } TEST_F(LayerTreeHostImplTest, DidBecomeActive) { host_impl_->CreatePendingTree(); host_impl_->ActivateSyncTree(); host_impl_->CreatePendingTree(); LayerTreeImpl* pending_tree = host_impl_->pending_tree(); scoped_ptr pending_layer = FakePictureLayerImpl::Create(pending_tree, 10); pending_layer->DoPostCommitInitializationIfNeeded(); FakePictureLayerImpl* raw_pending_layer = pending_layer.get(); pending_tree->SetRootLayer(pending_layer.PassAs()); ASSERT_EQ(raw_pending_layer, pending_tree->root_layer()); EXPECT_EQ(0u, raw_pending_layer->did_become_active_call_count()); pending_tree->DidBecomeActive(); EXPECT_EQ(1u, raw_pending_layer->did_become_active_call_count()); scoped_ptr mask_layer = FakePictureLayerImpl::Create(pending_tree, 11); mask_layer->DoPostCommitInitializationIfNeeded(); FakePictureLayerImpl* raw_mask_layer = mask_layer.get(); raw_pending_layer->SetMaskLayer(mask_layer.PassAs()); ASSERT_EQ(raw_mask_layer, raw_pending_layer->mask_layer()); EXPECT_EQ(1u, raw_pending_layer->did_become_active_call_count()); EXPECT_EQ(0u, raw_mask_layer->did_become_active_call_count()); pending_tree->DidBecomeActive(); EXPECT_EQ(2u, raw_pending_layer->did_become_active_call_count()); EXPECT_EQ(1u, raw_mask_layer->did_become_active_call_count()); scoped_ptr replica_layer = FakePictureLayerImpl::Create(pending_tree, 12); scoped_ptr replica_mask_layer = FakePictureLayerImpl::Create(pending_tree, 13); replica_mask_layer->DoPostCommitInitializationIfNeeded(); FakePictureLayerImpl* raw_replica_mask_layer = replica_mask_layer.get(); replica_layer->SetMaskLayer(replica_mask_layer.PassAs()); raw_pending_layer->SetReplicaLayer(replica_layer.PassAs()); ASSERT_EQ(raw_replica_mask_layer, raw_pending_layer->replica_layer()->mask_layer()); EXPECT_EQ(2u, raw_pending_layer->did_become_active_call_count()); EXPECT_EQ(1u, raw_mask_layer->did_become_active_call_count()); EXPECT_EQ(0u, raw_replica_mask_layer->did_become_active_call_count()); pending_tree->DidBecomeActive(); EXPECT_EQ(3u, raw_pending_layer->did_become_active_call_count()); EXPECT_EQ(2u, raw_mask_layer->did_become_active_call_count()); EXPECT_EQ(1u, raw_replica_mask_layer->did_become_active_call_count()); } class LayerTreeHostImplCountingLostSurfaces : public LayerTreeHostImplTest { public: LayerTreeHostImplCountingLostSurfaces() : num_lost_surfaces_(0) {} virtual void DidLoseOutputSurfaceOnImplThread() OVERRIDE { num_lost_surfaces_++; } protected: int num_lost_surfaces_; }; TEST_F(LayerTreeHostImplCountingLostSurfaces, TwiceLostSurface) { // Really we just need at least one client notification each time // we go from having a valid output surface to not having a valid output // surface. EXPECT_EQ(0, num_lost_surfaces_); host_impl_->DidLoseOutputSurface(); EXPECT_EQ(1, num_lost_surfaces_); host_impl_->DidLoseOutputSurface(); EXPECT_LE(1, num_lost_surfaces_); } } // namespace } // namespace cc