// Copyright 2012 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/tiles/picture_layer_tiling.h" #include #include #include #include "base/bind.h" #include "base/macros.h" #include "base/memory/ptr_util.h" #include "cc/base/math_util.h" #include "cc/test/fake_output_surface.h" #include "cc/test/fake_output_surface_client.h" #include "cc/test/fake_picture_layer_tiling_client.h" #include "cc/test/fake_raster_source.h" #include "cc/test/test_context_provider.h" #include "cc/tiles/picture_layer_tiling_set.h" #include "cc/trees/layer_tree_settings.h" #include "testing/gtest/include/gtest/gtest.h" #include "ui/gfx/geometry/quad_f.h" #include "ui/gfx/geometry/rect_conversions.h" #include "ui/gfx/geometry/size_conversions.h" namespace cc { namespace { static gfx::Rect ViewportInLayerSpace( const gfx::Transform& transform, const gfx::Size& device_viewport) { gfx::Transform inverse; if (!transform.GetInverse(&inverse)) return gfx::Rect(); return MathUtil::ProjectEnclosingClippedRect(inverse, gfx::Rect(device_viewport)); } class TestablePictureLayerTiling : public PictureLayerTiling { public: using PictureLayerTiling::SetLiveTilesRect; using PictureLayerTiling::TileAt; static std::unique_ptr Create( WhichTree tree, float contents_scale, scoped_refptr raster_source, PictureLayerTilingClient* client, const LayerTreeSettings& settings) { return base::WrapUnique(new TestablePictureLayerTiling( tree, contents_scale, raster_source, client, settings.tiling_interest_area_padding, settings.skewport_target_time_in_seconds, settings.skewport_extrapolation_limit_in_screen_pixels, 312.f, /* min_preraster_distance */ settings.max_preraster_distance_in_screen_pixels)); } gfx::Rect live_tiles_rect() const { return live_tiles_rect_; } using PictureLayerTiling::RemoveTileAt; using PictureLayerTiling::RemoveTilesInRegion; protected: TestablePictureLayerTiling(WhichTree tree, float contents_scale, scoped_refptr raster_source, PictureLayerTilingClient* client, size_t tiling_interest_area_padding, float skewport_target_time, int skewport_extrapolation_limit, float min_preraster_distance, float max_preraster_distance) : PictureLayerTiling(tree, gfx::SizeF(contents_scale, contents_scale), raster_source, client, min_preraster_distance, max_preraster_distance) {} }; class PictureLayerTilingIteratorTest : public testing::Test { public: PictureLayerTilingIteratorTest() {} ~PictureLayerTilingIteratorTest() override {} void Initialize(const gfx::Size& tile_size, float contents_scale, const gfx::Size& layer_bounds) { client_.SetTileSize(tile_size); scoped_refptr raster_source = FakeRasterSource::CreateFilled(layer_bounds); tiling_ = TestablePictureLayerTiling::Create(PENDING_TREE, contents_scale, raster_source, &client_, LayerTreeSettings()); tiling_->set_resolution(HIGH_RESOLUTION); } void InitializeActive(const gfx::Size& tile_size, float contents_scale, const gfx::Size& layer_bounds) { client_.SetTileSize(tile_size); scoped_refptr raster_source = FakeRasterSource::CreateFilled(layer_bounds); tiling_ = TestablePictureLayerTiling::Create(ACTIVE_TREE, contents_scale, raster_source, &client_, LayerTreeSettings()); tiling_->set_resolution(HIGH_RESOLUTION); } void SetLiveRectAndVerifyTiles(const gfx::Rect& live_tiles_rect) { tiling_->SetLiveTilesRect(live_tiles_rect); std::vector tiles = tiling_->AllTilesForTesting(); for (std::vector::iterator iter = tiles.begin(); iter != tiles.end(); ++iter) { EXPECT_TRUE(live_tiles_rect.Intersects((*iter)->content_rect())); } } void VerifyTilesExactlyCoverRect( float rect_scale, const gfx::Rect& request_rect, const gfx::Rect& expect_rect) { EXPECT_TRUE(request_rect.Contains(expect_rect)); // Iterators are not valid if the destination scale is smaller than the // tiling scale. This is because coverage computation is done in integer // grids in the dest space, and the overlap between tiles may not guarantee // to enclose an integer grid line to round to if scaled down. ASSERT_GE(rect_scale, tiling_->contents_scale_key()); Region remaining = expect_rect; for (PictureLayerTiling::CoverageIterator iter(tiling_.get(), rect_scale, request_rect); iter; ++iter) { // Geometry cannot overlap previous geometry at all gfx::Rect geometry = iter.geometry_rect(); EXPECT_TRUE(expect_rect.Contains(geometry)); EXPECT_TRUE(remaining.Contains(geometry)); remaining.Subtract(geometry); // Sanity check that texture coords are within the texture rect. // Skip check for external edges because they do overhang. // For internal edges there is an inset of 0.5 texels because the sample // points are at the center of the texels. An extra 1/1024 tolerance // is allowed for numerical errors. // Refer to picture_layer_tiling.cc for detailed analysis. const float inset = loose_texel_extent_check_ ? 0 : (0.5f - 1.f / 1024.f); gfx::RectF texture_rect = iter.texture_rect(); if (iter.i()) EXPECT_GE(texture_rect.x(), inset); if (iter.j()) EXPECT_GE(texture_rect.y(), inset); if (iter.i() != tiling_->tiling_data()->num_tiles_x() - 1) EXPECT_LE(texture_rect.right(), client_.TileSize().width() - inset); if (iter.j() != tiling_->tiling_data()->num_tiles_y() - 1) EXPECT_LE(texture_rect.bottom(), client_.TileSize().height() - inset); } // The entire rect must be filled by geometry from the tiling. EXPECT_TRUE(remaining.IsEmpty()); } void VerifyTilesExactlyCoverRect(float rect_scale, const gfx::Rect& rect) { VerifyTilesExactlyCoverRect(rect_scale, rect, rect); } void VerifyTiles( float rect_scale, const gfx::Rect& rect, base::Callback callback) { VerifyTiles(tiling_.get(), rect_scale, rect, callback); } void VerifyTiles( PictureLayerTiling* tiling, float rect_scale, const gfx::Rect& rect, base::Callback callback) { Region remaining = rect; for (PictureLayerTiling::CoverageIterator iter(tiling, rect_scale, rect); iter; ++iter) { remaining.Subtract(iter.geometry_rect()); callback.Run(*iter, iter.geometry_rect()); } EXPECT_TRUE(remaining.IsEmpty()); } void VerifyTilesCoverNonContainedRect(float rect_scale, const gfx::Rect& dest_rect) { float dest_to_contents_scale = tiling_->contents_scale_key() / rect_scale; gfx::Rect clamped_rect = gfx::ScaleToEnclosingRect( gfx::Rect(tiling_->tiling_size()), 1.f / dest_to_contents_scale); clamped_rect.Intersect(dest_rect); VerifyTilesExactlyCoverRect(rect_scale, dest_rect, clamped_rect); } protected: FakePictureLayerTilingClient client_; std::unique_ptr tiling_; bool loose_texel_extent_check_ = false; private: DISALLOW_COPY_AND_ASSIGN(PictureLayerTilingIteratorTest); }; TEST_F(PictureLayerTilingIteratorTest, ResizeDeletesTiles) { // Verifies that a resize with invalidation for newly exposed pixels will // deletes tiles that intersect that invalidation. gfx::Size tile_size(100, 100); gfx::Size original_layer_size(10, 10); InitializeActive(tile_size, 1.f, original_layer_size); SetLiveRectAndVerifyTiles(gfx::Rect(original_layer_size)); // Tiling only has one tile, since its total size is less than one. EXPECT_TRUE(tiling_->TileAt(0, 0)); // Stop creating tiles so that any invalidations are left as holes. gfx::Size new_layer_size(200, 200); scoped_refptr raster_source = FakeRasterSource::CreatePartiallyFilled(new_layer_size, gfx::Rect()); Region invalidation = SubtractRegions(gfx::Rect(tile_size), gfx::Rect(original_layer_size)); tiling_->SetRasterSourceAndResize(raster_source); EXPECT_TRUE(tiling_->TileAt(0, 0)); tiling_->Invalidate(invalidation); EXPECT_FALSE(tiling_->TileAt(0, 0)); } TEST_F(PictureLayerTilingIteratorTest, CreateMissingTilesStaysInsideLiveRect) { // The tiling has three rows and columns. Initialize(gfx::Size(100, 100), 1.f, gfx::Size(250, 250)); EXPECT_EQ(3, tiling_->TilingDataForTesting().num_tiles_x()); EXPECT_EQ(3, tiling_->TilingDataForTesting().num_tiles_y()); // The live tiles rect is at the very edge of the right-most and // bottom-most tiles. Their border pixels would still be inside the live // tiles rect, but the tiles should not exist just for that. int right = tiling_->TilingDataForTesting().TileBounds(2, 2).x(); int bottom = tiling_->TilingDataForTesting().TileBounds(2, 2).y(); SetLiveRectAndVerifyTiles(gfx::Rect(right, bottom)); EXPECT_FALSE(tiling_->TileAt(2, 0)); EXPECT_FALSE(tiling_->TileAt(2, 1)); EXPECT_FALSE(tiling_->TileAt(2, 2)); EXPECT_FALSE(tiling_->TileAt(1, 2)); EXPECT_FALSE(tiling_->TileAt(0, 2)); // Verify CreateMissingTilesInLiveTilesRect respects this. tiling_->CreateMissingTilesInLiveTilesRect(); EXPECT_FALSE(tiling_->TileAt(2, 0)); EXPECT_FALSE(tiling_->TileAt(2, 1)); EXPECT_FALSE(tiling_->TileAt(2, 2)); EXPECT_FALSE(tiling_->TileAt(1, 2)); EXPECT_FALSE(tiling_->TileAt(0, 2)); } TEST_F(PictureLayerTilingIteratorTest, ResizeTilingOverTileBorders) { // The tiling has four rows and three columns. Initialize(gfx::Size(100, 100), 1.f, gfx::Size(250, 350)); EXPECT_EQ(3, tiling_->TilingDataForTesting().num_tiles_x()); EXPECT_EQ(4, tiling_->TilingDataForTesting().num_tiles_y()); // The live tiles rect covers the whole tiling. SetLiveRectAndVerifyTiles(gfx::Rect(250, 350)); // Tiles in the bottom row and right column exist. EXPECT_TRUE(tiling_->TileAt(2, 0)); EXPECT_TRUE(tiling_->TileAt(2, 1)); EXPECT_TRUE(tiling_->TileAt(2, 2)); EXPECT_TRUE(tiling_->TileAt(2, 3)); EXPECT_TRUE(tiling_->TileAt(1, 3)); EXPECT_TRUE(tiling_->TileAt(0, 3)); int right = tiling_->TilingDataForTesting().TileBounds(2, 2).x(); int bottom = tiling_->TilingDataForTesting().TileBounds(2, 3).y(); // Shrink the tiling so that the last tile row/column is entirely in the // border pixels of the interior tiles. That row/column is removed. scoped_refptr raster_source = FakeRasterSource::CreateFilled(gfx::Size(right + 1, bottom + 1)); tiling_->SetRasterSourceAndResize(raster_source); EXPECT_EQ(2, tiling_->TilingDataForTesting().num_tiles_x()); EXPECT_EQ(3, tiling_->TilingDataForTesting().num_tiles_y()); // The live tiles rect was clamped to the raster source size. EXPECT_EQ(gfx::Rect(right + 1, bottom + 1), tiling_->live_tiles_rect()); // Since the row/column is gone, the tiles should be gone too. EXPECT_FALSE(tiling_->TileAt(2, 0)); EXPECT_FALSE(tiling_->TileAt(2, 1)); EXPECT_FALSE(tiling_->TileAt(2, 2)); EXPECT_FALSE(tiling_->TileAt(2, 3)); EXPECT_FALSE(tiling_->TileAt(1, 3)); EXPECT_FALSE(tiling_->TileAt(0, 3)); // Growing outside the current right/bottom tiles border pixels should create // the tiles again, even though the live rect has not changed size. raster_source = FakeRasterSource::CreateFilled(gfx::Size(right + 2, bottom + 2)); tiling_->SetRasterSourceAndResize(raster_source); EXPECT_EQ(3, tiling_->TilingDataForTesting().num_tiles_x()); EXPECT_EQ(4, tiling_->TilingDataForTesting().num_tiles_y()); // Not changed. EXPECT_EQ(gfx::Rect(right + 1, bottom + 1), tiling_->live_tiles_rect()); // The last row/column tiles are inside the live tiles rect. EXPECT_TRUE(gfx::Rect(right + 1, bottom + 1).Intersects( tiling_->TilingDataForTesting().TileBounds(2, 0))); EXPECT_TRUE(gfx::Rect(right + 1, bottom + 1).Intersects( tiling_->TilingDataForTesting().TileBounds(0, 3))); EXPECT_TRUE(tiling_->TileAt(2, 0)); EXPECT_TRUE(tiling_->TileAt(2, 1)); EXPECT_TRUE(tiling_->TileAt(2, 2)); EXPECT_TRUE(tiling_->TileAt(2, 3)); EXPECT_TRUE(tiling_->TileAt(1, 3)); EXPECT_TRUE(tiling_->TileAt(0, 3)); } TEST_F(PictureLayerTilingIteratorTest, ResizeLiveTileRectOverTileBorders) { // The tiling has three rows and columns. Initialize(gfx::Size(100, 100), 1.f, gfx::Size(250, 350)); EXPECT_EQ(3, tiling_->TilingDataForTesting().num_tiles_x()); EXPECT_EQ(4, tiling_->TilingDataForTesting().num_tiles_y()); // The live tiles rect covers the whole tiling. SetLiveRectAndVerifyTiles(gfx::Rect(250, 350)); // Tiles in the bottom row and right column exist. EXPECT_TRUE(tiling_->TileAt(2, 0)); EXPECT_TRUE(tiling_->TileAt(2, 1)); EXPECT_TRUE(tiling_->TileAt(2, 2)); EXPECT_TRUE(tiling_->TileAt(2, 3)); EXPECT_TRUE(tiling_->TileAt(1, 3)); EXPECT_TRUE(tiling_->TileAt(0, 3)); // Shrink the live tiles rect to the very edge of the right-most and // bottom-most tiles. Their border pixels would still be inside the live // tiles rect, but the tiles should not exist just for that. int right = tiling_->TilingDataForTesting().TileBounds(2, 3).x(); int bottom = tiling_->TilingDataForTesting().TileBounds(2, 3).y(); SetLiveRectAndVerifyTiles(gfx::Rect(right, bottom)); EXPECT_FALSE(tiling_->TileAt(2, 0)); EXPECT_FALSE(tiling_->TileAt(2, 1)); EXPECT_FALSE(tiling_->TileAt(2, 2)); EXPECT_FALSE(tiling_->TileAt(2, 3)); EXPECT_FALSE(tiling_->TileAt(1, 3)); EXPECT_FALSE(tiling_->TileAt(0, 3)); // Including the bottom row and right column again, should create the tiles. SetLiveRectAndVerifyTiles(gfx::Rect(right + 1, bottom + 1)); EXPECT_TRUE(tiling_->TileAt(2, 0)); EXPECT_TRUE(tiling_->TileAt(2, 1)); EXPECT_TRUE(tiling_->TileAt(2, 2)); EXPECT_TRUE(tiling_->TileAt(2, 3)); EXPECT_TRUE(tiling_->TileAt(1, 2)); EXPECT_TRUE(tiling_->TileAt(0, 2)); // Shrink the live tiles rect to the very edge of the left-most and // top-most tiles. Their border pixels would still be inside the live // tiles rect, but the tiles should not exist just for that. int left = tiling_->TilingDataForTesting().TileBounds(0, 0).right(); int top = tiling_->TilingDataForTesting().TileBounds(0, 0).bottom(); SetLiveRectAndVerifyTiles(gfx::Rect(left, top, 250 - left, 350 - top)); EXPECT_FALSE(tiling_->TileAt(0, 3)); EXPECT_FALSE(tiling_->TileAt(0, 2)); EXPECT_FALSE(tiling_->TileAt(0, 1)); EXPECT_FALSE(tiling_->TileAt(0, 0)); EXPECT_FALSE(tiling_->TileAt(1, 0)); EXPECT_FALSE(tiling_->TileAt(2, 0)); // Including the top row and left column again, should create the tiles. SetLiveRectAndVerifyTiles( gfx::Rect(left - 1, top - 1, 250 - left, 350 - top)); EXPECT_TRUE(tiling_->TileAt(0, 3)); EXPECT_TRUE(tiling_->TileAt(0, 2)); EXPECT_TRUE(tiling_->TileAt(0, 1)); EXPECT_TRUE(tiling_->TileAt(0, 0)); EXPECT_TRUE(tiling_->TileAt(1, 0)); EXPECT_TRUE(tiling_->TileAt(2, 0)); } TEST_F(PictureLayerTilingIteratorTest, ResizeLiveTileRectOverSameTiles) { // The tiling has four rows and three columns. Initialize(gfx::Size(100, 100), 1.f, gfx::Size(250, 350)); EXPECT_EQ(3, tiling_->TilingDataForTesting().num_tiles_x()); EXPECT_EQ(4, tiling_->TilingDataForTesting().num_tiles_y()); // The live tiles rect covers the whole tiling. SetLiveRectAndVerifyTiles(gfx::Rect(250, 350)); // All tiles exist. for (int i = 0; i < 3; ++i) { for (int j = 0; j < 4; ++j) EXPECT_TRUE(tiling_->TileAt(i, j)) << i << "," << j; } // Shrink the live tiles rect, but still cover all the tiles. SetLiveRectAndVerifyTiles(gfx::Rect(1, 1, 249, 349)); // All tiles still exist. for (int i = 0; i < 3; ++i) { for (int j = 0; j < 4; ++j) EXPECT_TRUE(tiling_->TileAt(i, j)) << i << "," << j; } // Grow the live tiles rect, but still cover all the same tiles. SetLiveRectAndVerifyTiles(gfx::Rect(0, 0, 250, 350)); // All tiles still exist. for (int i = 0; i < 3; ++i) { for (int j = 0; j < 4; ++j) EXPECT_TRUE(tiling_->TileAt(i, j)) << i << "," << j; } } TEST_F(PictureLayerTilingIteratorTest, ResizeOverBorderPixelsDeletesTiles) { // Verifies that a resize with invalidation for newly exposed pixels will // deletes tiles that intersect that invalidation. gfx::Size tile_size(100, 100); gfx::Size original_layer_size(99, 99); InitializeActive(tile_size, 1.f, original_layer_size); SetLiveRectAndVerifyTiles(gfx::Rect(original_layer_size)); // Tiling only has one tile, since its total size is less than one. EXPECT_TRUE(tiling_->TileAt(0, 0)); // Stop creating tiles so that any invalidations are left as holes. scoped_refptr raster_source = FakeRasterSource::CreatePartiallyFilled(gfx::Size(200, 200), gfx::Rect()); tiling_->SetRasterSourceAndResize(raster_source); Region invalidation = SubtractRegions(gfx::Rect(tile_size), gfx::Rect(original_layer_size)); EXPECT_TRUE(tiling_->TileAt(0, 0)); tiling_->Invalidate(invalidation); EXPECT_FALSE(tiling_->TileAt(0, 0)); // The original tile was the same size after resize, but it would include new // border pixels. EXPECT_EQ(gfx::Rect(original_layer_size), tiling_->TilingDataForTesting().TileBounds(0, 0)); } TEST_F(PictureLayerTilingIteratorTest, RemoveOutsideLayerKeepsTiles) { gfx::Size tile_size(100, 100); gfx::Size layer_size(100, 100); InitializeActive(tile_size, 1.f, layer_size); SetLiveRectAndVerifyTiles(gfx::Rect(layer_size)); // In all cases here, the tiling should remain with one tile, since the remove // region doesn't intersect it. bool recreate_tiles = false; // Top tiling_->RemoveTilesInRegion(gfx::Rect(50, -1, 1, 1), recreate_tiles); EXPECT_TRUE(tiling_->TileAt(0, 0)); // Bottom tiling_->RemoveTilesInRegion(gfx::Rect(50, 100, 1, 1), recreate_tiles); EXPECT_TRUE(tiling_->TileAt(0, 0)); // Left tiling_->RemoveTilesInRegion(gfx::Rect(-1, 50, 1, 1), recreate_tiles); EXPECT_TRUE(tiling_->TileAt(0, 0)); // Right tiling_->RemoveTilesInRegion(gfx::Rect(100, 50, 1, 1), recreate_tiles); EXPECT_TRUE(tiling_->TileAt(0, 0)); } TEST_F(PictureLayerTilingIteratorTest, CreateTileJustCoverBorderUp) { float content_scale = 1.2000000476837158f; gfx::Size tile_size(512, 512); gfx::Size layer_size(1440, 4560); FakePictureLayerTilingClient active_client; active_client.SetTileSize(tile_size); scoped_refptr raster_source = FakeRasterSource::CreateFilled(layer_size); std::unique_ptr active_tiling = TestablePictureLayerTiling::Create(ACTIVE_TREE, content_scale, raster_source, &active_client, LayerTreeSettings()); active_tiling->set_resolution(HIGH_RESOLUTION); gfx::Rect invalid_rect(0, 750, 220, 100); Initialize(tile_size, content_scale, layer_size); client_.set_twin_tiling(active_tiling.get()); client_.set_invalidation(invalid_rect); SetLiveRectAndVerifyTiles(gfx::Rect(layer_size)); // When it creates a tile in pending tree, verify that tiles are invalidated // even if only their border pixels intersect the invalidation rect EXPECT_TRUE(tiling_->TileAt(0, 1)); gfx::Rect scaled_invalid_rect = gfx::ScaleToEnclosingRect(invalid_rect, content_scale); EXPECT_FALSE(scaled_invalid_rect.Intersects( tiling_->TilingDataForTesting().TileBounds(0, 2))); EXPECT_TRUE(scaled_invalid_rect.Intersects( tiling_->TilingDataForTesting().TileBoundsWithBorder(0, 2))); EXPECT_TRUE(tiling_->TileAt(0, 2)); bool recreate_tiles = false; active_tiling->RemoveTilesInRegion(invalid_rect, recreate_tiles); // Even though a tile just touch border area of invalid region, verify that // RemoveTilesInRegion behaves the same as SetLiveRectAndVerifyTiles with // respect to the tiles that it invalidates EXPECT_FALSE(active_tiling->TileAt(0, 1)); EXPECT_FALSE(active_tiling->TileAt(0, 2)); } TEST_F(PictureLayerTilingIteratorTest, LiveTilesExactlyCoverLiveTileRect) { Initialize(gfx::Size(100, 100), 1.f, gfx::Size(1099, 801)); SetLiveRectAndVerifyTiles(gfx::Rect(100, 100)); SetLiveRectAndVerifyTiles(gfx::Rect(101, 99)); SetLiveRectAndVerifyTiles(gfx::Rect(1099, 1)); SetLiveRectAndVerifyTiles(gfx::Rect(1, 801)); SetLiveRectAndVerifyTiles(gfx::Rect(1099, 1)); SetLiveRectAndVerifyTiles(gfx::Rect(201, 800)); } TEST_F(PictureLayerTilingIteratorTest, IteratorCoversLayerBoundsNoScale) { Initialize(gfx::Size(100, 100), 1.f, gfx::Size(1099, 801)); VerifyTilesExactlyCoverRect(1, gfx::Rect()); VerifyTilesExactlyCoverRect(1, gfx::Rect(0, 0, 1099, 801)); VerifyTilesExactlyCoverRect(1, gfx::Rect(52, 83, 789, 412)); // With borders, a size of 3x3 = 1 pixel of content. Initialize(gfx::Size(3, 3), 1.f, gfx::Size(10, 10)); VerifyTilesExactlyCoverRect(1, gfx::Rect(0, 0, 1, 1)); VerifyTilesExactlyCoverRect(1, gfx::Rect(0, 0, 2, 2)); VerifyTilesExactlyCoverRect(1, gfx::Rect(1, 1, 2, 2)); VerifyTilesExactlyCoverRect(1, gfx::Rect(3, 2, 5, 2)); } TEST_F(PictureLayerTilingIteratorTest, IteratorCoversLayerBoundsTilingScale) { Initialize(gfx::Size(200, 100), 2.0f, gfx::Size(1005, 2010)); VerifyTilesExactlyCoverRect(2, gfx::Rect()); VerifyTilesExactlyCoverRect(2, gfx::Rect(0, 0, 2010, 4020)); VerifyTilesExactlyCoverRect(2, gfx::Rect(100, 224, 1024, 762)); Initialize(gfx::Size(3, 3), 2.0f, gfx::Size(10, 10)); VerifyTilesExactlyCoverRect(2, gfx::Rect()); VerifyTilesExactlyCoverRect(2, gfx::Rect(0, 0, 1, 1)); VerifyTilesExactlyCoverRect(2, gfx::Rect(0, 0, 2, 2)); VerifyTilesExactlyCoverRect(2, gfx::Rect(1, 1, 2, 2)); VerifyTilesExactlyCoverRect(2, gfx::Rect(3, 2, 5, 2)); Initialize(gfx::Size(100, 200), 0.5f, gfx::Size(1005, 2010)); VerifyTilesExactlyCoverRect(1, gfx::Rect(0, 0, 1005, 2010)); VerifyTilesExactlyCoverRect(1, gfx::Rect(50, 112, 512, 381)); Initialize(gfx::Size(150, 250), 0.37f, gfx::Size(1005, 2010)); VerifyTilesExactlyCoverRect(1, gfx::Rect(0, 0, 1005, 2010)); VerifyTilesExactlyCoverRect(1, gfx::Rect(50, 112, 512, 381)); Initialize(gfx::Size(312, 123), 0.01f, gfx::Size(1005, 2010)); VerifyTilesExactlyCoverRect(1, gfx::Rect(0, 0, 1005, 2010)); VerifyTilesExactlyCoverRect(1, gfx::Rect(50, 112, 512, 381)); } TEST_F(PictureLayerTilingIteratorTest, IteratorCoversLayerBoundsBothScale) { Initialize(gfx::Size(50, 50), 4.0f, gfx::Size(800, 600)); VerifyTilesExactlyCoverRect(4.0f, gfx::Rect()); VerifyTilesExactlyCoverRect(4.0f, gfx::Rect(0, 0, 3200, 2400)); VerifyTilesExactlyCoverRect(4.0f, gfx::Rect(1024, 730, 506, 364)); float scale = 6.7f; gfx::Size bounds(800, 600); gfx::Rect full_rect(gfx::ScaleToCeiledSize(bounds, scale)); Initialize(gfx::Size(256, 512), 5.2f, bounds); VerifyTilesExactlyCoverRect(scale, full_rect); VerifyTilesExactlyCoverRect(scale, gfx::Rect(2014, 1579, 867, 1033)); } TEST_F(PictureLayerTilingIteratorTest, IteratorEmptyRect) { Initialize(gfx::Size(100, 100), 1.0f, gfx::Size(800, 600)); gfx::Rect empty; PictureLayerTiling::CoverageIterator iter(tiling_.get(), 1.0f, empty); EXPECT_FALSE(iter); } TEST_F(PictureLayerTilingIteratorTest, NonIntersectingRect) { Initialize(gfx::Size(100, 100), 1.0f, gfx::Size(800, 600)); gfx::Rect non_intersecting(1000, 1000, 50, 50); PictureLayerTiling::CoverageIterator iter(tiling_.get(), 1, non_intersecting); EXPECT_FALSE(iter); } TEST_F(PictureLayerTilingIteratorTest, LayerEdgeTextureCoordinates) { Initialize(gfx::Size(300, 300), 1.0f, gfx::Size(256, 256)); // All of these sizes are 256x256, scaled and ceiled. VerifyTilesExactlyCoverRect(1.0f, gfx::Rect(0, 0, 256, 256)); VerifyTilesExactlyCoverRect(1.2f, gfx::Rect(0, 0, 308, 308)); } TEST_F(PictureLayerTilingIteratorTest, NonContainedDestRect) { Initialize(gfx::Size(100, 100), 1.0f, gfx::Size(400, 400)); // Too large in all dimensions VerifyTilesCoverNonContainedRect(1.0f, gfx::Rect(-1000, -1000, 2000, 2000)); VerifyTilesCoverNonContainedRect(1.5f, gfx::Rect(-1000, -1000, 2000, 2000)); // Partially covering content, but too large VerifyTilesCoverNonContainedRect(1.0f, gfx::Rect(-1000, 100, 2000, 100)); VerifyTilesCoverNonContainedRect(1.5f, gfx::Rect(-1000, 100, 2000, 100)); } static void TileExists(bool exists, Tile* tile, const gfx::Rect& geometry_rect) { EXPECT_EQ(exists, tile != NULL) << geometry_rect.ToString(); } TEST_F(PictureLayerTilingIteratorTest, TilesExist) { gfx::Size layer_bounds(1099, 801); Initialize(gfx::Size(100, 100), 1.f, layer_bounds); VerifyTilesExactlyCoverRect(1.f, gfx::Rect(layer_bounds)); VerifyTiles(1.f, gfx::Rect(layer_bounds), base::Bind(&TileExists, false)); tiling_->ComputeTilePriorityRects( gfx::Rect(layer_bounds), // visible rect gfx::Rect(layer_bounds), // skewport gfx::Rect(layer_bounds), // soon border rect gfx::Rect(layer_bounds), // eventually rect 1.f, // current contents scale Occlusion()); VerifyTiles(1.f, gfx::Rect(layer_bounds), base::Bind(&TileExists, true)); // Make the viewport rect empty. All tiles are killed and become zombies. tiling_->ComputeTilePriorityRects(gfx::Rect(), gfx::Rect(), gfx::Rect(), gfx::Rect(), 1.f, Occlusion()); VerifyTiles(1.f, gfx::Rect(layer_bounds), base::Bind(&TileExists, false)); } TEST_F(PictureLayerTilingIteratorTest, TilesExistGiantViewport) { gfx::Size layer_bounds(1099, 801); Initialize(gfx::Size(100, 100), 1.f, layer_bounds); VerifyTilesExactlyCoverRect(1.f, gfx::Rect(layer_bounds)); VerifyTiles(1.f, gfx::Rect(layer_bounds), base::Bind(&TileExists, false)); gfx::Rect giant_rect(-10000000, -10000000, 1000000000, 1000000000); tiling_->ComputeTilePriorityRects( gfx::Rect(layer_bounds), // visible rect gfx::Rect(layer_bounds), // skewport gfx::Rect(layer_bounds), // soon border rect gfx::Rect(layer_bounds), // eventually rect 1.f, // current contents scale Occlusion()); VerifyTiles(1.f, gfx::Rect(layer_bounds), base::Bind(&TileExists, true)); // If the visible content rect is huge, we should still have live tiles. tiling_->ComputeTilePriorityRects(giant_rect, giant_rect, giant_rect, giant_rect, 1.f, Occlusion()); VerifyTiles(1.f, gfx::Rect(layer_bounds), base::Bind(&TileExists, true)); } TEST_F(PictureLayerTilingIteratorTest, TilesExistOutsideViewport) { gfx::Size layer_bounds(1099, 801); Initialize(gfx::Size(100, 100), 1.f, layer_bounds); VerifyTilesExactlyCoverRect(1.f, gfx::Rect(layer_bounds)); VerifyTiles(1.f, gfx::Rect(layer_bounds), base::Bind(&TileExists, false)); // This rect does not intersect with the layer, as the layer is outside the // viewport. gfx::Rect viewport_rect(1100, 0, 1000, 1000); EXPECT_FALSE(viewport_rect.Intersects(gfx::Rect(layer_bounds))); LayerTreeSettings settings; gfx::Rect eventually_rect = viewport_rect; eventually_rect.Inset(-settings.tiling_interest_area_padding, -settings.tiling_interest_area_padding); tiling_->ComputeTilePriorityRects(viewport_rect, viewport_rect, viewport_rect, eventually_rect, 1.f, Occlusion()); VerifyTiles(1.f, gfx::Rect(layer_bounds), base::Bind(&TileExists, true)); } static void TilesIntersectingRectExist(const gfx::Rect& rect, bool intersect_exists, Tile* tile, const gfx::Rect& geometry_rect) { bool intersects = rect.Intersects(geometry_rect); bool expected_exists = intersect_exists ? intersects : !intersects; EXPECT_EQ(expected_exists, tile != NULL) << "Rects intersecting " << rect.ToString() << " should exist. " << "Current tile rect is " << geometry_rect.ToString(); } TEST_F(PictureLayerTilingIteratorTest, TilesExistLargeViewportAndLayerWithSmallVisibleArea) { gfx::Size layer_bounds(10000, 10000); client_.SetTileSize(gfx::Size(100, 100)); LayerTreeSettings settings; settings.tiling_interest_area_padding = 1; scoped_refptr raster_source = FakeRasterSource::CreateFilled(layer_bounds); tiling_ = TestablePictureLayerTiling::Create(PENDING_TREE, 1.f, raster_source, &client_, settings); tiling_->set_resolution(HIGH_RESOLUTION); VerifyTilesExactlyCoverRect(1.f, gfx::Rect(layer_bounds)); VerifyTiles(1.f, gfx::Rect(layer_bounds), base::Bind(&TileExists, false)); gfx::Rect visible_rect(8000, 8000, 50, 50); tiling_->ComputeTilePriorityRects(visible_rect, // visible rect visible_rect, // skewport visible_rect, // soon border rect visible_rect, // eventually rect 1.f, // current contents scale Occlusion()); VerifyTiles(1.f, gfx::Rect(layer_bounds), base::Bind(&TilesIntersectingRectExist, visible_rect, true)); } TEST(ComputeTilePriorityRectsTest, VisibleTiles) { // The TilePriority of visible tiles should have zero distance_to_visible // and time_to_visible. FakePictureLayerTilingClient client; gfx::Size device_viewport(800, 600); gfx::Size last_layer_bounds(200, 200); gfx::Size current_layer_bounds(200, 200); float current_layer_contents_scale = 1.f; gfx::Transform current_screen_transform; gfx::Rect viewport_in_layer_space = ViewportInLayerSpace( current_screen_transform, device_viewport); client.SetTileSize(gfx::Size(100, 100)); scoped_refptr raster_source = FakeRasterSource::CreateFilled(current_layer_bounds); std::unique_ptr tiling = TestablePictureLayerTiling::Create(ACTIVE_TREE, 1.0f, raster_source, &client, LayerTreeSettings()); tiling->set_resolution(HIGH_RESOLUTION); LayerTreeSettings settings; gfx::Rect eventually_rect = viewport_in_layer_space; eventually_rect.Inset(-settings.tiling_interest_area_padding, -settings.tiling_interest_area_padding); tiling->ComputeTilePriorityRects( viewport_in_layer_space, viewport_in_layer_space, viewport_in_layer_space, eventually_rect, current_layer_contents_scale, Occlusion()); auto prioritized_tiles = tiling->UpdateAndGetAllPrioritizedTilesForTesting(); ASSERT_TRUE(tiling->TileAt(0, 0)); ASSERT_TRUE(tiling->TileAt(0, 1)); ASSERT_TRUE(tiling->TileAt(1, 0)); ASSERT_TRUE(tiling->TileAt(1, 1)); TilePriority priority = prioritized_tiles[tiling->TileAt(0, 0)].priority(); EXPECT_FLOAT_EQ(0.f, priority.distance_to_visible); EXPECT_FLOAT_EQ(TilePriority::NOW, priority.priority_bin); priority = prioritized_tiles[tiling->TileAt(0, 1)].priority(); EXPECT_FLOAT_EQ(0.f, priority.distance_to_visible); EXPECT_FLOAT_EQ(TilePriority::NOW, priority.priority_bin); priority = prioritized_tiles[tiling->TileAt(1, 0)].priority(); EXPECT_FLOAT_EQ(0.f, priority.distance_to_visible); EXPECT_FLOAT_EQ(TilePriority::NOW, priority.priority_bin); priority = prioritized_tiles[tiling->TileAt(1, 1)].priority(); EXPECT_FLOAT_EQ(0.f, priority.distance_to_visible); EXPECT_FLOAT_EQ(TilePriority::NOW, priority.priority_bin); } TEST(ComputeTilePriorityRectsTest, OffscreenTiles) { // The TilePriority of offscreen tiles (without movement) should have nonzero // distance_to_visible and infinite time_to_visible. FakePictureLayerTilingClient client; gfx::Size device_viewport(800, 600); gfx::Size last_layer_bounds(200, 200); gfx::Size current_layer_bounds(200, 200); float current_layer_contents_scale = 1.f; gfx::Transform last_screen_transform; gfx::Transform current_screen_transform; current_screen_transform.Translate(850, 0); last_screen_transform = current_screen_transform; gfx::Rect viewport_in_layer_space = ViewportInLayerSpace( current_screen_transform, device_viewport); client.SetTileSize(gfx::Size(100, 100)); scoped_refptr raster_source = FakeRasterSource::CreateFilled(current_layer_bounds); std::unique_ptr tiling = TestablePictureLayerTiling::Create(ACTIVE_TREE, 1.0f, raster_source, &client, LayerTreeSettings()); tiling->set_resolution(HIGH_RESOLUTION); LayerTreeSettings settings; gfx::Rect eventually_rect = viewport_in_layer_space; eventually_rect.Inset(-settings.tiling_interest_area_padding, -settings.tiling_interest_area_padding); tiling->ComputeTilePriorityRects( viewport_in_layer_space, viewport_in_layer_space, viewport_in_layer_space, eventually_rect, current_layer_contents_scale, Occlusion()); auto prioritized_tiles = tiling->UpdateAndGetAllPrioritizedTilesForTesting(); ASSERT_TRUE(tiling->TileAt(0, 0)); ASSERT_TRUE(tiling->TileAt(0, 1)); ASSERT_TRUE(tiling->TileAt(1, 0)); ASSERT_TRUE(tiling->TileAt(1, 1)); TilePriority priority = prioritized_tiles[tiling->TileAt(0, 0)].priority(); EXPECT_GT(priority.distance_to_visible, 0.f); EXPECT_NE(TilePriority::NOW, priority.priority_bin); priority = prioritized_tiles[tiling->TileAt(0, 1)].priority(); EXPECT_GT(priority.distance_to_visible, 0.f); EXPECT_NE(TilePriority::NOW, priority.priority_bin); priority = prioritized_tiles[tiling->TileAt(1, 0)].priority(); EXPECT_GT(priority.distance_to_visible, 0.f); EXPECT_NE(TilePriority::NOW, priority.priority_bin); priority = prioritized_tiles[tiling->TileAt(1, 1)].priority(); EXPECT_GT(priority.distance_to_visible, 0.f); EXPECT_NE(TilePriority::NOW, priority.priority_bin); // Furthermore, in this scenario tiles on the right hand side should have a // larger distance to visible. TilePriority left = prioritized_tiles[tiling->TileAt(0, 0)].priority(); TilePriority right = prioritized_tiles[tiling->TileAt(1, 0)].priority(); EXPECT_GT(right.distance_to_visible, left.distance_to_visible); left = prioritized_tiles[tiling->TileAt(0, 1)].priority(); right = prioritized_tiles[tiling->TileAt(1, 1)].priority(); EXPECT_GT(right.distance_to_visible, left.distance_to_visible); } TEST(ComputeTilePriorityRectsTest, PartiallyOffscreenLayer) { // Sanity check that a layer with some tiles visible and others offscreen has // correct TilePriorities for each tile. FakePictureLayerTilingClient client; gfx::Size device_viewport(800, 600); gfx::Size last_layer_bounds(200, 200); gfx::Size current_layer_bounds(200, 200); float current_layer_contents_scale = 1.f; gfx::Transform last_screen_transform; gfx::Transform current_screen_transform; current_screen_transform.Translate(705, 505); last_screen_transform = current_screen_transform; gfx::Rect viewport_in_layer_space = ViewportInLayerSpace( current_screen_transform, device_viewport); client.SetTileSize(gfx::Size(100, 100)); scoped_refptr raster_source = FakeRasterSource::CreateFilled(current_layer_bounds); std::unique_ptr tiling = TestablePictureLayerTiling::Create(ACTIVE_TREE, 1.0f, raster_source, &client, LayerTreeSettings()); tiling->set_resolution(HIGH_RESOLUTION); LayerTreeSettings settings; gfx::Rect eventually_rect = viewport_in_layer_space; eventually_rect.Inset(-settings.tiling_interest_area_padding, -settings.tiling_interest_area_padding); tiling->ComputeTilePriorityRects( viewport_in_layer_space, viewport_in_layer_space, viewport_in_layer_space, eventually_rect, current_layer_contents_scale, Occlusion()); auto prioritized_tiles = tiling->UpdateAndGetAllPrioritizedTilesForTesting(); ASSERT_TRUE(tiling->TileAt(0, 0)); ASSERT_TRUE(tiling->TileAt(0, 1)); ASSERT_TRUE(tiling->TileAt(1, 0)); ASSERT_TRUE(tiling->TileAt(1, 1)); TilePriority priority = prioritized_tiles[tiling->TileAt(0, 0)].priority(); EXPECT_FLOAT_EQ(0.f, priority.distance_to_visible); EXPECT_FLOAT_EQ(TilePriority::NOW, priority.priority_bin); priority = prioritized_tiles[tiling->TileAt(0, 1)].priority(); EXPECT_GT(priority.distance_to_visible, 0.f); EXPECT_NE(TilePriority::NOW, priority.priority_bin); priority = prioritized_tiles[tiling->TileAt(1, 0)].priority(); EXPECT_GT(priority.distance_to_visible, 0.f); EXPECT_NE(TilePriority::NOW, priority.priority_bin); priority = prioritized_tiles[tiling->TileAt(1, 1)].priority(); EXPECT_GT(priority.distance_to_visible, 0.f); EXPECT_NE(TilePriority::NOW, priority.priority_bin); } TEST(PictureLayerTilingTest, RecycledTilesClearedOnReset) { FakePictureLayerTilingClient active_client; active_client.SetTileSize(gfx::Size(100, 100)); scoped_refptr raster_source = FakeRasterSource::CreateFilled(gfx::Size(100, 100)); std::unique_ptr active_tiling = TestablePictureLayerTiling::Create(ACTIVE_TREE, 1.0f, raster_source, &active_client, LayerTreeSettings()); active_tiling->set_resolution(HIGH_RESOLUTION); // Create all tiles on this tiling. gfx::Rect visible_rect = gfx::Rect(0, 0, 100, 100); active_tiling->ComputeTilePriorityRects( visible_rect, visible_rect, visible_rect, visible_rect, 1.f, Occlusion()); FakePictureLayerTilingClient recycle_client; recycle_client.SetTileSize(gfx::Size(100, 100)); recycle_client.set_twin_tiling(active_tiling.get()); LayerTreeSettings settings; raster_source = FakeRasterSource::CreateFilled(gfx::Size(100, 100)); std::unique_ptr recycle_tiling = TestablePictureLayerTiling::Create(PENDING_TREE, 1.0f, raster_source, &recycle_client, settings); recycle_tiling->set_resolution(HIGH_RESOLUTION); // Create all tiles on the recycle tiling. recycle_tiling->ComputeTilePriorityRects(visible_rect, visible_rect, visible_rect, visible_rect, 1.0f, Occlusion()); // Set the second tiling as recycled. active_client.set_twin_tiling(NULL); recycle_client.set_twin_tiling(NULL); EXPECT_TRUE(active_tiling->TileAt(0, 0)); EXPECT_FALSE(recycle_tiling->TileAt(0, 0)); // Reset the active tiling. The recycle tiles should be released too. active_tiling->Reset(); EXPECT_FALSE(active_tiling->TileAt(0, 0)); EXPECT_FALSE(recycle_tiling->TileAt(0, 0)); } TEST_F(PictureLayerTilingIteratorTest, ResizeTilesAndUpdateToCurrent) { // The tiling has four rows and three columns. Initialize(gfx::Size(150, 100), 1.f, gfx::Size(250, 150)); tiling_->CreateAllTilesForTesting(); EXPECT_EQ(150, tiling_->TilingDataForTesting().max_texture_size().width()); EXPECT_EQ(100, tiling_->TilingDataForTesting().max_texture_size().height()); EXPECT_EQ(4u, tiling_->AllTilesForTesting().size()); client_.SetTileSize(gfx::Size(250, 200)); // Tile size in the tiling should still be 150x100. EXPECT_EQ(150, tiling_->TilingDataForTesting().max_texture_size().width()); EXPECT_EQ(100, tiling_->TilingDataForTesting().max_texture_size().height()); // The layer's size isn't changed, but the tile size was. scoped_refptr raster_source = FakeRasterSource::CreateFilled(gfx::Size(250, 150)); tiling_->SetRasterSourceAndResize(raster_source); // Tile size in the tiling should be resized to 250x200. EXPECT_EQ(250, tiling_->TilingDataForTesting().max_texture_size().width()); EXPECT_EQ(200, tiling_->TilingDataForTesting().max_texture_size().height()); EXPECT_EQ(0u, tiling_->AllTilesForTesting().size()); } // This test runs into floating point issues because of big numbers. TEST_F(PictureLayerTilingIteratorTest, GiantRect) { loose_texel_extent_check_ = true; gfx::Size tile_size(256, 256); gfx::Size layer_size(33554432, 33554432); float contents_scale = 1.f; client_.SetTileSize(tile_size); scoped_refptr raster_source = FakeRasterSource::CreateEmpty(layer_size); tiling_ = TestablePictureLayerTiling::Create(PENDING_TREE, contents_scale, raster_source, &client_, LayerTreeSettings()); gfx::Rect content_rect(25554432, 25554432, 950, 860); VerifyTilesExactlyCoverRect(contents_scale, content_rect); } TEST_F(PictureLayerTilingIteratorTest, QuadShouldNotUseLastHalfTexel) { Initialize(gfx::Size(100, 100), 1.f, gfx::Size(198, 198)); // Creates a situation that tile bounds get rounded up by almost 1px in the // dest space. This test verifies that even in such situation the coverage // iterator won't generate a texture rect that can potentially get clamped. VerifyTilesExactlyCoverRect(1.000005f, gfx::Rect(199, 199)); } static void TileHasGeometryRect(const gfx::Rect& expected_rect, Tile* tile, const gfx::Rect& geometry_rect) { EXPECT_EQ(expected_rect, geometry_rect); } TEST_F(PictureLayerTilingIteratorTest, UseLeastTilesToCover) { // This test verifies that when a dest pixel can be covered by more than // one tiles, least number of tiles gets emitted. Initialize(gfx::Size(100, 100), 1.f, gfx::Size(1000, 1000)); gfx::RectF overlaped = gfx::ScaleRect(gfx::RectF(198.f, 198.f, 1.f, 1.f), 1.f / 2.f); ASSERT_TRUE(tiling_->tiling_data()->TexelExtent(0, 0).Contains(overlaped)); ASSERT_TRUE(tiling_->tiling_data()->TexelExtent(1, 0).Contains(overlaped)); ASSERT_TRUE(tiling_->tiling_data()->TexelExtent(0, 1).Contains(overlaped)); ASSERT_TRUE(tiling_->tiling_data()->TexelExtent(1, 1).Contains(overlaped)); VerifyTilesExactlyCoverRect(2.f, gfx::Rect(199, 199)); VerifyTiles(2.f, gfx::Rect(199, 199), base::Bind(&TileHasGeometryRect, gfx::Rect(199, 199))); } TEST_F(PictureLayerTilingIteratorTest, UseLeastTilesToCover2) { // Similar to above test, but with an internal tile. Initialize(gfx::Size(100, 100), 1.f, gfx::Size(1000, 1000)); gfx::RectF overlaped = gfx::ScaleRect(gfx::RectF(197.f, 393.f, 1.f, 1.f), 1.f / 2.f); ASSERT_TRUE(tiling_->tiling_data()->TexelExtent(0, 1).Contains(overlaped)); ASSERT_TRUE(tiling_->tiling_data()->TexelExtent(1, 1).Contains(overlaped)); ASSERT_TRUE(tiling_->tiling_data()->TexelExtent(0, 2).Contains(overlaped)); ASSERT_TRUE(tiling_->tiling_data()->TexelExtent(1, 2).Contains(overlaped)); gfx::Rect dest_rect(197, 393, 198, 198); VerifyTilesExactlyCoverRect(2.f, dest_rect); VerifyTiles(2.f, dest_rect, base::Bind(&TileHasGeometryRect, dest_rect)); } TEST_F(PictureLayerTilingIteratorTest, TightCover) { // This test verifies that the whole dest rect is still fully covered when // numerical condition is tight. // In this test, the right edge of tile #37 almost (but failed to) covered // grid line x = 9654. Tile #38 needs to reach hard to x = 9653 to make up // for this. Initialize(gfx::Size(256, 256), 1.f, gfx::Size(10000, 1)); float dest_scale = 16778082.f / 16777216.f; // 0b1.00000000 00000011 01100010 VerifyTilesExactlyCoverRect(dest_scale, gfx::Rect(10001, 2)); } TEST_F(PictureLayerTilingIteratorTest, TightCover2) { // In this test, the left edge of tile #38 almost (but failed to) covered // grid line x = 9653. Tile #37 needs to reach hard to x = 9654 to make up // for this. Initialize(gfx::Size(256, 256), 1.f, gfx::Size(10000, 1)); float dest_scale = 16778088.f / 16777216.f; // 0b1.00000000 00000011 01101000 VerifyTilesExactlyCoverRect(dest_scale, gfx::Rect(10001, 2)); } } // namespace } // namespace cc