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/*
* Copyright (C) 2018 Metrological Group B.V.
* Copyright (C) 2018 Igalia S.L.
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions
* are met:
*
* 1. Redistributions of source code must retain the above copyright
* notice, this list of conditions and the following disclaimer.
* 2. Redistributions in binary form must reproduce the above
* copyright notice, this list of conditions and the following
* disclaimer in the documentation and/or other materials provided
* with the distribution.
*
* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
* "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
* LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
* A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
* HOLDER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
* SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
* LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
* DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
* THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
* (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
* OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
*/
#include "config.h"
#include "NicosiaCairoOperationRecorder.h"
#include "CairoOperations.h"
#include "FloatRoundedRect.h"
#include "ImageBuffer.h"
#include "NicosiaPaintingOperationReplayCairo.h"
#include <type_traits>
#include <wtf/text/TextStream.h>
namespace Nicosia {
using namespace WebCore;
PlatformContextCairo& contextForReplay(PaintingOperationReplay& operationReplay)
{
return static_cast<PaintingOperationReplayCairo&>(operationReplay).platformContext;
}
template<typename... Args>
struct OperationData {
template<std::size_t I>
auto arg() const -> std::tuple_element_t<I, const std::tuple<Args...>>&
{
return std::get<I>(arguments);
}
std::tuple<Args...> arguments;
};
template<> struct OperationData<> { };
template<typename T, typename... Args>
auto createCommand(Args&&... arguments) -> std::enable_if_t<std::is_base_of<OperationData<std::decay_t<Args>...>, T>::value, std::unique_ptr<PaintingOperation>>
{
auto* command = new T();
command->arguments = std::make_tuple(std::forward<Args>(arguments)...);
return std::unique_ptr<PaintingOperation>(command);
}
template<typename T>
auto createCommand() -> std::enable_if_t<std::is_base_of<OperationData<>, T>::value, std::unique_ptr<PaintingOperation>>
{
return makeUnique<T>();
}
CairoOperationRecorder::CairoOperationRecorder(GraphicsContext& context, PaintingOperations& commandList)
: GraphicsContextImpl(context, FloatRect { }, AffineTransform { })
, m_commandList(commandList)
{
m_stateStack.append({ { }, { }, FloatRect::infiniteRect() });
}
void CairoOperationRecorder::updateState(const GraphicsContextState& state, GraphicsContextState::StateChangeFlags flags)
{
if (flags & GraphicsContextState::StrokeThicknessChange) {
struct StrokeThicknessChange final : PaintingOperation, OperationData<float> {
virtual ~StrokeThicknessChange() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::State::setStrokeThickness(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "StrokeThicknessChange<>\n";
}
};
append(createCommand<StrokeThicknessChange>(state.strokeThickness));
}
if (flags & GraphicsContextState::StrokeStyleChange) {
struct StrokeStyleChange final : PaintingOperation, OperationData<StrokeStyle> {
virtual ~StrokeStyleChange() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::State::setStrokeStyle(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "StrokeStyleChange<>\n";
}
};
append(createCommand<StrokeStyleChange>(state.strokeStyle));
}
if (flags & GraphicsContextState::CompositeOperationChange) {
struct CompositeOperationChange final : PaintingOperation, OperationData<CompositeOperator, BlendMode> {
virtual ~CompositeOperationChange() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::State::setCompositeOperation(contextForReplay(replayer), arg<0>(), arg<1>());
}
void dump(TextStream& ts) override
{
ts << indent << "CompositeOperationChange<>\n";
}
};
append(createCommand<CompositeOperationChange>(state.compositeOperator, state.blendMode));
}
if (flags & GraphicsContextState::ShouldAntialiasChange) {
struct ShouldAntialiasChange final : PaintingOperation, OperationData<bool> {
virtual ~ShouldAntialiasChange() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::State::setShouldAntialias(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "ShouldAntialiasChange<>\n";
}
};
append(createCommand<ShouldAntialiasChange>(state.shouldAntialias));
}
}
void CairoOperationRecorder::clearShadow()
{
}
void CairoOperationRecorder::setLineCap(LineCap lineCap)
{
struct SetLineCap final : PaintingOperation, OperationData<LineCap> {
virtual ~SetLineCap() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::setLineCap(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "SetLineCap<>\n";
}
};
append(createCommand<SetLineCap>(lineCap));
}
void CairoOperationRecorder::setLineDash(const DashArray& dashes, float dashOffset)
{
struct SetLineDash final : PaintingOperation, OperationData<DashArray, float> {
virtual ~SetLineDash() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::setLineDash(contextForReplay(replayer), arg<0>(), arg<1>());
}
void dump(TextStream& ts) override
{
ts << indent << "SetLineDash<>\n";
}
};
append(createCommand<SetLineDash>(dashes, dashOffset));
}
void CairoOperationRecorder::setLineJoin(LineJoin lineJoin)
{
struct SetLineJoin final : PaintingOperation, OperationData<LineJoin> {
virtual ~SetLineJoin() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::setLineJoin(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "SetLineJoin<>\n";
}
};
append(createCommand<SetLineJoin>(lineJoin));
}
void CairoOperationRecorder::setMiterLimit(float miterLimit)
{
struct SetMiterLimit final : PaintingOperation, OperationData<float> {
virtual ~SetMiterLimit() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::setMiterLimit(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "SetMiterLimit<>\n";
}
};
append(createCommand<SetMiterLimit>(miterLimit));
}
void CairoOperationRecorder::fillRect(const FloatRect& rect)
{
struct FillRect final : PaintingOperation, OperationData<FloatRect, Cairo::FillSource, Cairo::ShadowState> {
virtual ~FillRect() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::fillRect(contextForReplay(replayer), arg<0>(), arg<1>(), arg<2>());
}
void dump(TextStream& ts) override
{
ts << indent << "FillRect<>\n";
}
};
auto& state = graphicsContext().state();
append(createCommand<FillRect>(rect, Cairo::FillSource(state), Cairo::ShadowState(state)));
}
void CairoOperationRecorder::fillRect(const FloatRect& rect, const Color& color)
{
struct FillRect final : PaintingOperation, OperationData<FloatRect, Color, Cairo::ShadowState> {
virtual ~FillRect() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::fillRect(contextForReplay(replayer), arg<0>(), arg<1>(), arg<2>());
}
void dump(TextStream& ts) override
{
ts << indent << "FillRect<>\n";
}
};
append(createCommand<FillRect>(rect, color, Cairo::ShadowState(graphicsContext().state())));
}
void CairoOperationRecorder::fillRect(const FloatRect& rect, Gradient& gradient)
{
struct FillRect final : PaintingOperation, OperationData<FloatRect, RefPtr<cairo_pattern_t>> {
virtual ~FillRect() = default;
void execute(PaintingOperationReplay& replayer) override
{
auto& platformContext = contextForReplay(replayer);
Cairo::save(platformContext);
Cairo::fillRect(platformContext, arg<0>(), arg<1>().get());
Cairo::restore(platformContext);
}
void dump(TextStream& ts) override
{
ts << indent << "FillRect<>\n";
}
};
append(createCommand<FillRect>(rect, adoptRef(gradient.createPlatformGradient(1.0))));
}
void CairoOperationRecorder::fillRect(const FloatRect& rect, const Color& color, CompositeOperator compositeOperator, BlendMode blendMode)
{
struct FillRect final : PaintingOperation, OperationData<FloatRect, Color, CompositeOperator, BlendMode, Cairo::ShadowState, CompositeOperator> {
virtual ~FillRect() = default;
void execute(PaintingOperationReplay& replayer) override
{
auto& platformContext = contextForReplay(replayer);
Cairo::State::setCompositeOperation(platformContext, arg<2>(), arg<3>());
Cairo::fillRect(platformContext, arg<0>(), arg<1>(), arg<4>());
Cairo::State::setCompositeOperation(platformContext, arg<5>(), BlendMode::Normal);
}
void dump(TextStream& ts) override
{
ts << indent << "FillRect<>\n";
}
};
auto& state = graphicsContext().state();
append(createCommand<FillRect>(rect, color, compositeOperator, blendMode, Cairo::ShadowState(state), state.compositeOperator));
}
void CairoOperationRecorder::fillRoundedRect(const FloatRoundedRect& roundedRect, const Color& color, BlendMode blendMode)
{
struct FillRoundedRect final : PaintingOperation, OperationData<FloatRoundedRect, Color, CompositeOperator, BlendMode, Cairo::ShadowState> {
virtual ~FillRoundedRect() = default;
void execute(PaintingOperationReplay& replayer) override
{
auto& platformContext = contextForReplay(replayer);
Cairo::State::setCompositeOperation(platformContext, arg<2>(), arg<3>());
auto& rect = arg<0>();
if (rect.isRounded())
Cairo::fillRoundedRect(platformContext, rect, arg<1>(), arg<4>());
else
Cairo::fillRect(platformContext, rect.rect(), arg<1>(), arg<4>());
Cairo::State::setCompositeOperation(platformContext, arg<2>(), BlendMode::Normal);
}
void dump(TextStream& ts) override
{
ts << indent << "FillRoundedRect<>\n";
}
};
auto& state = graphicsContext().state();
append(createCommand<FillRoundedRect>(roundedRect, color, state.compositeOperator, blendMode, Cairo::ShadowState(state)));
}
void CairoOperationRecorder::fillRectWithRoundedHole(const FloatRect& rect, const FloatRoundedRect& roundedHoleRect, const Color& color)
{
struct FillRectWithRoundedHole final : PaintingOperation, OperationData<FloatRect, FloatRoundedRect, Cairo::ShadowState> {
virtual ~FillRectWithRoundedHole() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::fillRectWithRoundedHole(contextForReplay(replayer), arg<0>(), arg<1>(), { }, arg<2>());
}
void dump(TextStream& ts) override
{
ts << indent << "FillRectWithRoundedHole<>\n";
}
};
UNUSED_PARAM(color);
append(createCommand<FillRectWithRoundedHole>(rect, roundedHoleRect, Cairo::ShadowState(graphicsContext().state())));
}
void CairoOperationRecorder::fillPath(const Path& path)
{
struct FillPath final : PaintingOperation, OperationData<Path, Cairo::FillSource, Cairo::ShadowState> {
virtual ~FillPath() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::fillPath(contextForReplay(replayer), arg<0>(), arg<1>(), arg<2>());
}
void dump(TextStream& ts) override
{
ts << indent << "FillPath<>\n";
}
};
auto& state = graphicsContext().state();
append(createCommand<FillPath>(path, Cairo::FillSource(state), Cairo::ShadowState(state)));
}
void CairoOperationRecorder::fillEllipse(const FloatRect& rect)
{
struct FillEllipse final : PaintingOperation, OperationData<FloatRect, Cairo::FillSource, Cairo::ShadowState> {
virtual ~FillEllipse() = default;
void execute(PaintingOperationReplay& replayer) override
{
Path path;
path.addEllipse(arg<0>());
Cairo::fillPath(contextForReplay(replayer), path, arg<1>(), arg<2>());
}
void dump(TextStream& ts) override
{
ts << indent << "FillEllipse<>\n";
}
};
auto& state = graphicsContext().state();
append(createCommand<FillEllipse>(rect, Cairo::FillSource(state), Cairo::ShadowState(state)));
}
void CairoOperationRecorder::strokeRect(const FloatRect& rect, float lineWidth)
{
struct StrokeRect final : PaintingOperation, OperationData<FloatRect, float, Cairo::StrokeSource, Cairo::ShadowState> {
virtual ~StrokeRect() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::strokeRect(contextForReplay(replayer), arg<0>(), arg<1>(), arg<2>(), arg<3>());
}
void dump(TextStream& ts) override
{
ts << indent << "StrokeRect<>\n";
}
};
auto& state = graphicsContext().state();
append(createCommand<StrokeRect>(rect, lineWidth, Cairo::StrokeSource(state), Cairo::ShadowState(state)));
}
void CairoOperationRecorder::strokePath(const Path& path)
{
struct StrokePath final : PaintingOperation, OperationData<Path, Cairo::StrokeSource, Cairo::ShadowState> {
virtual ~StrokePath() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::strokePath(contextForReplay(replayer), arg<0>(), arg<1>(), arg<2>());
}
void dump(TextStream& ts) override
{
ts << indent << "StrokePath<>\n";
}
};
auto& state = graphicsContext().state();
append(createCommand<StrokePath>(path, Cairo::StrokeSource(state), Cairo::ShadowState(state)));
}
void CairoOperationRecorder::strokeEllipse(const FloatRect& rect)
{
struct StrokeEllipse final : PaintingOperation, OperationData<FloatRect, Cairo::StrokeSource, Cairo::ShadowState> {
virtual ~StrokeEllipse() = default;
void execute(PaintingOperationReplay& replayer) override
{
Path path;
path.addEllipse(arg<0>());
Cairo::strokePath(contextForReplay(replayer), path, arg<1>(), arg<2>());
}
void dump(TextStream& ts) override
{
ts << indent << "StrokeEllipse<>\n";
}
};
auto& state = graphicsContext().state();
append(createCommand<StrokeEllipse>(rect, Cairo::StrokeSource(state), Cairo::ShadowState(state)));
}
void CairoOperationRecorder::clearRect(const FloatRect& rect)
{
struct ClearRect final : PaintingOperation, OperationData<FloatRect> {
virtual ~ClearRect() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::clearRect(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "ClearRect<>\n";
}
};
append(createCommand<ClearRect>(rect));
}
void CairoOperationRecorder::drawGlyphs(const Font& font, const GlyphBuffer& glyphBuffer, unsigned from, unsigned numGlyphs, const FloatPoint& point, FontSmoothingMode fontSmoothing)
{
struct DrawGlyphs final : PaintingOperation, OperationData<Cairo::FillSource, Cairo::StrokeSource, Cairo::ShadowState, FloatPoint, RefPtr<cairo_scaled_font_t>, float, Vector<cairo_glyph_t>, float, TextDrawingModeFlags, float, FloatSize, Color> {
virtual ~DrawGlyphs() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::drawGlyphs(contextForReplay(replayer), arg<0>(), arg<1>(), arg<2>(), arg<3>(), arg<4>().get(),
arg<5>(), arg<6>(), arg<7>(), arg<8>(), arg<9>(), arg<10>(), arg<11>());
}
void dump(TextStream& ts) override
{
ts << indent << "DrawGlyphs<>\n";
}
};
UNUSED_PARAM(fontSmoothing);
if (!font.platformData().size())
return;
auto xOffset = point.x();
Vector<cairo_glyph_t> glyphs(numGlyphs);
{
ASSERT(from + numGlyphs <= glyphBuffer.size());
auto* glyphsData = glyphBuffer.glyphs(from);
auto* advances = glyphBuffer.advances(from);
auto yOffset = point.y();
for (size_t i = 0; i < numGlyphs; ++i) {
glyphs[i] = { glyphsData[i], xOffset, yOffset };
xOffset += advances[i].width();
}
}
auto& state = graphicsContext().state();
append(createCommand<DrawGlyphs>(Cairo::FillSource(state), Cairo::StrokeSource(state),
Cairo::ShadowState(state), point,
RefPtr<cairo_scaled_font_t>(font.platformData().scaledFont()),
font.syntheticBoldOffset(), WTFMove(glyphs), xOffset, state.textDrawingMode,
state.strokeThickness, state.shadowOffset, state.shadowColor));
}
ImageDrawResult CairoOperationRecorder::drawImage(Image& image, const FloatRect& destination, const FloatRect& source, const ImagePaintingOptions& imagePaintingOptions)
{
return GraphicsContextImpl::drawImageImpl(graphicsContext(), image, destination, source, imagePaintingOptions);
}
ImageDrawResult CairoOperationRecorder::drawTiledImage(Image& image, const FloatRect& destination, const FloatPoint& source, const FloatSize& tileSize, const FloatSize& spacing, const ImagePaintingOptions& imagePaintingOptions)
{
return GraphicsContextImpl::drawTiledImageImpl(graphicsContext(), image, destination, source, tileSize, spacing, imagePaintingOptions);
}
ImageDrawResult CairoOperationRecorder::drawTiledImage(Image& image, const FloatRect& destination, const FloatRect& source, const FloatSize& tileScaleFactor, Image::TileRule hRule, Image::TileRule vRule, const ImagePaintingOptions& imagePaintingOptions)
{
return GraphicsContextImpl::drawTiledImageImpl(graphicsContext(), image, destination, source, tileScaleFactor, hRule, vRule, imagePaintingOptions);
}
void CairoOperationRecorder::drawNativeImage(const NativeImagePtr& image, const FloatSize& imageSize, const FloatRect& destRect, const FloatRect& srcRect, const ImagePaintingOptions& options)
{
struct DrawNativeImage final : PaintingOperation, OperationData<RefPtr<cairo_surface_t>, FloatRect, FloatRect, ImagePaintingOptions, float, Cairo::ShadowState> {
virtual ~DrawNativeImage() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::drawNativeImage(contextForReplay(replayer), arg<0>().get(), arg<1>(), arg<2>(), arg<3>(), arg<4>(), arg<5>());
}
void dump(TextStream& ts) override
{
ts << indent << "DrawNativeImage<>\n";
}
};
UNUSED_PARAM(imageSize);
auto& state = graphicsContext().state();
append(createCommand<DrawNativeImage>(RefPtr<cairo_surface_t>(image.get()), destRect, srcRect, ImagePaintingOptions(options, state.imageInterpolationQuality), state.alpha, Cairo::ShadowState(state)));
}
void CairoOperationRecorder::drawPattern(Image& image, const FloatRect& destRect, const FloatRect& tileRect, const AffineTransform& patternTransform, const FloatPoint& phase, const FloatSize& spacing, const ImagePaintingOptions& options)
{
struct DrawPattern final : PaintingOperation, OperationData<RefPtr<cairo_surface_t>, IntSize, FloatRect, FloatRect, AffineTransform, FloatPoint, ImagePaintingOptions> {
virtual ~DrawPattern() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::drawPattern(contextForReplay(replayer), arg<0>().get(), arg<1>(), arg<2>(), arg<3>(), arg<4>(), arg<5>(), arg<6>());
}
void dump(TextStream& ts) override
{
ts << indent << "DrawPattern<>\n";
}
};
UNUSED_PARAM(spacing);
if (auto surface = image.nativeImageForCurrentFrame())
append(createCommand<DrawPattern>(WTFMove(surface), IntSize(image.size()), destRect, tileRect, patternTransform, phase, options));
}
void CairoOperationRecorder::drawRect(const FloatRect& rect, float borderThickness)
{
struct DrawRect final : PaintingOperation, OperationData<FloatRect, float, Color, StrokeStyle, Color> {
virtual ~DrawRect() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::drawRect(contextForReplay(replayer), arg<0>(), arg<1>(), arg<2>(), arg<3>(), arg<4>());
}
void dump(TextStream& ts) override
{
ts << indent << "DrawRect<>\n";
}
};
auto& state = graphicsContext().state();
append(createCommand<DrawRect>(rect, borderThickness, state.fillColor, state.strokeStyle, state.strokeColor));
}
void CairoOperationRecorder::drawLine(const FloatPoint& point1, const FloatPoint& point2)
{
struct DrawLine final : PaintingOperation, OperationData<FloatPoint, FloatPoint, StrokeStyle, Color, float, bool> {
virtual ~DrawLine() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::drawLine(contextForReplay(replayer), arg<0>(), arg<1>(), arg<2>(), arg<3>(), arg<4>(), arg<5>());
}
void dump(TextStream& ts) override
{
ts << indent << "DrawLine<>\n";
}
};
auto& state = graphicsContext().state();
append(createCommand<DrawLine>(point1, point2, state.strokeStyle, state.strokeColor, state.strokeThickness, state.shouldAntialias));
}
void CairoOperationRecorder::drawLinesForText(const FloatPoint& point, float thickness, const DashArray& widths, bool printing, bool doubleUnderlines)
{
struct DrawLinesForText final : PaintingOperation, OperationData<FloatPoint, float, DashArray, bool, bool, Color> {
virtual ~DrawLinesForText() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::drawLinesForText(contextForReplay(replayer), arg<0>(), arg<1>(), arg<2>(), arg<3>(), arg<4>(), arg<5>());
}
void dump(TextStream& ts) override
{
ts << indent << "DrawLinesForText<>\n";
}
};
auto& state = graphicsContext().state();
append(createCommand<DrawLinesForText>(point, thickness, widths, printing, doubleUnderlines, state.strokeColor));
}
void CairoOperationRecorder::drawDotsForDocumentMarker(const FloatRect& rect, DocumentMarkerLineStyle style)
{
struct DrawDotsForDocumentMarker final : PaintingOperation, OperationData<FloatRect, DocumentMarkerLineStyle> {
virtual ~DrawDotsForDocumentMarker() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::drawDotsForDocumentMarker(contextForReplay(replayer), arg<0>(), arg<1>());
}
void dump(TextStream& ts) override
{
ts << indent << "DrawDotsForDocumentMarker<>\n";
}
};
append(createCommand<DrawDotsForDocumentMarker>(rect, style));
}
void CairoOperationRecorder::drawEllipse(const FloatRect& rect)
{
struct DrawEllipse final : PaintingOperation, OperationData<FloatRect, Color, StrokeStyle, Color, float> {
virtual ~DrawEllipse() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::drawEllipse(contextForReplay(replayer), arg<0>(), arg<1>(), arg<2>(), arg<3>(), arg<4>());
}
void dump(TextStream& ts) override
{
ts << indent << "DrawEllipse<>\n";
}
};
auto& state = graphicsContext().state();
append(createCommand<DrawEllipse>(rect, state.fillColor, state.strokeStyle, state.strokeColor, state.strokeThickness));
}
void CairoOperationRecorder::drawPath(const Path&)
{
}
void CairoOperationRecorder::drawFocusRing(const Path& path, float width, float offset, const Color& color)
{
struct DrawFocusRing final : PaintingOperation, OperationData<Path, float, Color> {
virtual ~DrawFocusRing() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::drawFocusRing(contextForReplay(replayer), arg<0>(), arg<1>(), arg<2>());
}
void dump(TextStream& ts) override
{
ts << indent << "DrawFocusRing<>\n";
}
};
UNUSED_PARAM(offset);
append(createCommand<DrawFocusRing>(path, width, color));
}
void CairoOperationRecorder::drawFocusRing(const Vector<FloatRect>& rects, float width, float offset, const Color& color)
{
struct DrawFocusRing final : PaintingOperation, OperationData<Vector<FloatRect>, float, Color> {
virtual ~DrawFocusRing() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::drawFocusRing(contextForReplay(replayer), arg<0>(), arg<1>(), arg<2>());
}
void dump(TextStream& ts) override
{
ts << indent << "DrawFocusRing<>\n";
}
};
UNUSED_PARAM(offset);
append(createCommand<DrawFocusRing>(rects, width, color));
}
void CairoOperationRecorder::save()
{
struct Save final : PaintingOperation, OperationData<> {
virtual ~Save() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::save(contextForReplay(replayer));
}
void dump(TextStream& ts) override
{
ts << indent << "Save<>\n";
}
};
append(createCommand<Save>());
m_stateStack.append(m_stateStack.last());
}
void CairoOperationRecorder::restore()
{
struct Restore final : PaintingOperation, OperationData<> {
virtual ~Restore() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::restore(contextForReplay(replayer));
}
void dump(TextStream& ts) override
{
ts << indent << "Restore<>\n";
}
};
append(createCommand<Restore>());
ASSERT(!m_stateStack.isEmpty());
m_stateStack.removeLast();
if (m_stateStack.isEmpty())
m_stateStack.clear();
}
void CairoOperationRecorder::translate(float x, float y)
{
struct Translate final : PaintingOperation, OperationData<float, float> {
virtual ~Translate() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::translate(contextForReplay(replayer), arg<0>(), arg<1>());
}
void dump(TextStream& ts) override
{
ts << indent << "Translate<>\n";
}
};
append(createCommand<Translate>(x, y));
{
auto& state = m_stateStack.last();
state.ctm.translate(x, y);
AffineTransform t;
t.translate(-x, -y);
state.ctmInverse = t * state.ctmInverse;
}
}
void CairoOperationRecorder::rotate(float angleInRadians)
{
struct Rotate final : PaintingOperation, OperationData<float> {
virtual ~Rotate() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::rotate(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "Rotate<>\n";
}
};
append(createCommand<Rotate>(angleInRadians));
{
auto& state = m_stateStack.last();
state.ctm.rotate(angleInRadians);
AffineTransform t;
t.rotate(angleInRadians);
state.ctmInverse = t * state.ctmInverse;
}
}
void CairoOperationRecorder::scale(const FloatSize& size)
{
struct Scale final : PaintingOperation, OperationData<FloatSize> {
virtual ~Scale() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::scale(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "Scale<>\n";
}
};
append(createCommand<Scale>(size));
{
auto& state = m_stateStack.last();
state.ctm.scale(size.width(), size.height());
AffineTransform t;
t.scale(1 / size.width(), 1 / size.height());
state.ctmInverse = t * state.ctmInverse;
}
}
void CairoOperationRecorder::concatCTM(const AffineTransform& transform)
{
struct ConcatCTM final : PaintingOperation, OperationData<AffineTransform> {
virtual ~ConcatCTM() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::concatCTM(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "ConcatCTM<>\n";
}
};
auto inverse = transform.inverse();
if (!inverse)
return;
append(createCommand<ConcatCTM>(transform));
auto& state = m_stateStack.last();
state.ctm *= transform;
state.ctmInverse = inverse.value() * state.ctmInverse;
}
void CairoOperationRecorder::setCTM(const AffineTransform& transform)
{
struct SetCTM final : PaintingOperation, OperationData<AffineTransform> {
virtual ~SetCTM() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::State::setCTM(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "SetCTM<>\n";
}
};
auto inverse = transform.inverse();
if (!inverse)
return;
append(createCommand<SetCTM>(transform));
auto& state = m_stateStack.last();
state.ctm = transform;
state.ctmInverse = inverse.value();
}
AffineTransform CairoOperationRecorder::getCTM(GraphicsContext::IncludeDeviceScale)
{
return m_stateStack.last().ctm;
}
void CairoOperationRecorder::beginTransparencyLayer(float opacity)
{
struct BeginTransparencyLayer final : PaintingOperation, OperationData<float> {
virtual ~BeginTransparencyLayer() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::beginTransparencyLayer(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "BeginTransparencyLayer<>\n";
}
};
append(createCommand<BeginTransparencyLayer>(opacity));
}
void CairoOperationRecorder::endTransparencyLayer()
{
struct EndTransparencyLayer final : PaintingOperation, OperationData<> {
virtual ~EndTransparencyLayer() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::endTransparencyLayer(contextForReplay(replayer));
}
void dump(TextStream& ts) override
{
ts << indent << "EndTransparencyLayer<>\n";
}
};
append(createCommand<EndTransparencyLayer>());
}
void CairoOperationRecorder::clip(const FloatRect& rect)
{
struct Clip final : PaintingOperation, OperationData<FloatRect> {
virtual ~Clip() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::clip(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "Clip<>\n";
}
};
append(createCommand<Clip>(rect));
{
auto& state = m_stateStack.last();
state.clipBounds.intersect(state.ctm.mapRect(rect));
}
}
void CairoOperationRecorder::clipOut(const FloatRect& rect)
{
struct ClipOut final : PaintingOperation, OperationData<FloatRect> {
virtual ~ClipOut() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::clipOut(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "ClipOut<>\n";
}
};
append(createCommand<ClipOut>(rect));
}
void CairoOperationRecorder::clipOut(const Path& path)
{
struct ClipOut final : PaintingOperation, OperationData<Path> {
virtual ~ClipOut() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::clipOut(contextForReplay(replayer), arg<0>());
}
void dump(TextStream& ts) override
{
ts << indent << "ClipOut<>\n";
}
};
append(createCommand<ClipOut>(path));
}
void CairoOperationRecorder::clipPath(const Path& path, WindRule clipRule)
{
struct ClipPath final : PaintingOperation, OperationData<Path, WindRule> {
virtual ~ClipPath() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::clipPath(contextForReplay(replayer), arg<0>(), arg<1>());
}
void dump(TextStream& ts) override
{
ts << indent << "ClipPath<>\n";
}
};
append(createCommand<ClipPath>(path, clipRule));
{
auto& state = m_stateStack.last();
state.clipBounds.intersect(state.ctm.mapRect(path.fastBoundingRect()));
}
}
IntRect CairoOperationRecorder::clipBounds()
{
auto& state = m_stateStack.last();
return enclosingIntRect(state.ctmInverse.mapRect(state.clipBounds));
}
void CairoOperationRecorder::clipToImageBuffer(ImageBuffer& buffer, const FloatRect& destRect)
{
struct ClipToImageBuffer final: PaintingOperation, OperationData<RefPtr<cairo_surface_t>, FloatRect> {
virtual ~ClipToImageBuffer() = default;
void execute(PaintingOperationReplay& replayer) override
{
Cairo::clipToImageBuffer(contextForReplay(replayer), arg<0>().get(), arg<1>());
}
void dump(TextStream& ts) override
{
ts << indent << "ClipToImageBuffer<>\n";
}
};
RefPtr<Image> image = buffer.copyImage(DontCopyBackingStore);
if (!image)
return;
if (auto surface = image->nativeImageForCurrentFrame())
append(createCommand<ClipToImageBuffer>(RefPtr<cairo_surface_t>(surface.get()), destRect));
}
void CairoOperationRecorder::applyDeviceScaleFactor(float)
{
}
FloatRect CairoOperationRecorder::roundToDevicePixels(const FloatRect& rect, GraphicsContext::RoundingMode)
{
return rect;
}
void CairoOperationRecorder::append(std::unique_ptr<PaintingOperation>&& command)
{
m_commandList.append(WTFMove(command));
}
} // namespace Nicosia