bool RenderLineBoxList::hitTest(RenderBoxModelObject* renderer, const HitTestRequest& request, HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, HitTestAction hitTestAction) const
{
ASSERT(renderer->isRenderBlock() || (renderer->isRenderInline() && renderer->hasLayer())); // The only way an inline could hit test like this is if it has a layer.
// If we have no lines then we have no work to do.
if (!firstLineBox())
return false;
LayoutPoint point = locationInContainer.point();
LayoutRect rect = firstLineBox()->isHorizontal() ?
IntRect(point.x(), point.y() - locationInContainer.topPadding(), 1, locationInContainer.topPadding() + locationInContainer.bottomPadding() + 1) :
IntRect(point.x() - locationInContainer.leftPadding(), point.y(), locationInContainer.rightPadding() + locationInContainer.leftPadding() + 1, 1);
if (!anyLineIntersectsRect(renderer, rect, accumulatedOffset))
return false;
// See if our root lines contain the point. If so, then we hit test
// them further. Note that boxes can easily overlap, so we can't make any assumptions
// based off positions of our first line box or our last line box.
for (InlineFlowBox* curr = lastLineBox(); curr; curr = curr->prevLineBox()) {
const RootInlineBox& rootBox = curr->root();
if (rangeIntersectsRect(renderer, curr->logicalTopVisualOverflow(rootBox.lineTop()), curr->logicalBottomVisualOverflow(rootBox.lineBottom()), rect, accumulatedOffset)) {
bool inside = curr->nodeAtPoint(request, result, locationInContainer, accumulatedOffset, rootBox.lineTop(), rootBox.lineBottom(), hitTestAction);
if (inside) {
renderer->updateHitTestResult(result, locationInContainer.point() - toLayoutSize(accumulatedOffset));
return true;
}
}
}
return false;
}
bool LayoutSVGRoot::nodeAtPoint(HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, HitTestAction hitTestAction)
{
LayoutPoint pointInParent = locationInContainer.point() - toLayoutSize(accumulatedOffset);
LayoutPoint pointInBorderBox = pointInParent - toLayoutSize(location());
// Only test SVG content if the point is in our content box, or in case we
// don't clip to the viewport, the visual overflow rect.
// FIXME: This should be an intersection when rect-based hit tests are supported by nodeAtFloatPoint.
if (contentBoxRect().contains(pointInBorderBox) || (!shouldApplyViewportClip() && visualOverflowRect().contains(pointInBorderBox))) {
const AffineTransform& localToParentTransform = this->localToParentTransform();
if (localToParentTransform.isInvertible()) {
FloatPoint localPoint = localToParentTransform.inverse().mapPoint(FloatPoint(pointInParent));
for (LayoutObject* child = lastChild(); child; child = child->previousSibling()) {
// FIXME: nodeAtFloatPoint() doesn't handle rect-based hit tests yet.
if (child->nodeAtFloatPoint(result, localPoint, hitTestAction)) {
updateHitTestResult(result, pointInBorderBox);
if (result.addNodeToListBasedTestResult(child->node(), locationInContainer) == StopHitTesting)
return true;
}
}
}
}
// If we didn't early exit above, we've just hit the container <svg> element. Unlike SVG 1.1, 2nd Edition allows container elements to be hit.
if ((hitTestAction == HitTestBlockBackground || hitTestAction == HitTestChildBlockBackground) && visibleToHitTestRequest(result.hitTestRequest())) {
// Only return true here, if the last hit testing phase 'BlockBackground' (or 'ChildBlockBackground' - depending on context) is executed.
// If we'd return true in the 'Foreground' phase, hit testing would stop immediately. For SVG only trees this doesn't matter.
// Though when we have a <foreignObject> subtree we need to be able to detect hits on the background of a <div> element.
// If we'd return true here in the 'Foreground' phase, we are not able to detect these hits anymore.
LayoutRect boundsRect(accumulatedOffset + location(), size());
if (locationInContainer.intersects(boundsRect)) {
updateHitTestResult(result, pointInBorderBox);
if (result.addNodeToListBasedTestResult(node(), locationInContainer, boundsRect) == StopHitTesting)
return true;
}
}
return false;
}
bool SVGInlineTextBox::nodeAtPoint(const HitTestRequest& request, HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, LayoutUnit, LayoutUnit)
{
// FIXME: integrate with InlineTextBox::nodeAtPoint better.
ASSERT(!isLineBreak());
PointerEventsHitRules hitRules(PointerEventsHitRules::SVG_TEXT_HITTESTING, request, renderer().style()->pointerEvents());
bool isVisible = renderer().style()->visibility() == VISIBLE;
if (isVisible || !hitRules.requireVisible) {
if ((hitRules.canHitStroke && (renderer().style()->svgStyle()->hasStroke() || !hitRules.requireStroke))
|| (hitRules.canHitFill && (renderer().style()->svgStyle()->hasFill() || !hitRules.requireFill))) {
FloatPoint boxOrigin(x(), y());
boxOrigin.moveBy(accumulatedOffset);
FloatRect rect(boxOrigin, size());
if (locationInContainer.intersects(rect)) {
renderer().updateHitTestResult(result, locationInContainer.point() - toLayoutSize(accumulatedOffset));
if (!result.addNodeToRectBasedTestResult(&renderer().textNode(), request, locationInContainer, rect))
return true;
}
}
}
return false;
}
bool RenderView::hitTest(const HitTestRequest& request, const HitTestLocation& location, HitTestResult& result)
{
TRACE_EVENT0("blink", "RenderView::hitTest");
m_hitTestCount++;
if (!m_frameView->visibleContentRect().contains(location.roundedPoint()))
return false;
// We have to recursively update layout/style here because otherwise, when the hit test recurses
// into a child document, it could trigger a layout on the parent document, which can destroy RenderLayers
// that are higher up in the call stack, leading to crashes.
// Note that Document::updateLayout calls its parent's updateLayout.
// FIXME: It should be the caller's responsibility to ensure an up-to-date layout.
frameView()->updateLayoutAndStyleIfNeededRecursive();
// RenderView should make sure to update layout before entering hit testing
ASSERT(!frame()->view()->layoutPending());
ASSERT(!document().renderView()->needsLayout());
// TODO(ojan): Does any of this intersection stuff make sense for Sky?
LayoutRect hitTestArea = view()->documentRect();
if (!request.ignoreClipping())
hitTestArea.intersect(frame()->view()->visibleContentRect());
bool insideLayer = hitTestLayer(layer(), 0, request, result, hitTestArea, location);
if (!insideLayer) {
// TODO(ojan): Is this code needed for Sky?
// We didn't hit any layer. If we are the root layer and the mouse is -- or just was -- down,
// return ourselves. We do this so mouse events continue getting delivered after a drag has
// exited the WebView, and so hit testing over a scrollbar hits the content document.
if (request.active() || request.release()) {
updateHitTestResult(result, location.point());
insideLayer = true;
}
}
return insideLayer;
}
bool SVGInlineTextBox::nodeAtPoint(const HitTestRequest& request, HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, LayoutUnit, LayoutUnit, HitTestAction)
{
// FIXME: integrate with InlineTextBox::nodeAtPoint better.
ASSERT(!isLineBreak());
PointerEventsHitRules hitRules(PointerEventsHitRules::SVG_TEXT_HITTESTING, request, renderer().style().pointerEvents());
bool isVisible = renderer().style().visibility() == VISIBLE;
if (isVisible || !hitRules.requireVisible) {
if ((hitRules.canHitStroke && (renderer().style().svgStyle().hasStroke() || !hitRules.requireStroke))
|| (hitRules.canHitFill && (renderer().style().svgStyle().hasFill() || !hitRules.requireFill))) {
FloatPoint boxOrigin(x(), y());
boxOrigin.moveBy(accumulatedOffset);
FloatRect rect(boxOrigin, size());
if (locationInContainer.intersects(rect)) {
float scalingFactor = renderer().scalingFactor();
ASSERT(scalingFactor);
float baseline = renderer().scaledFont().fontMetrics().floatAscent() / scalingFactor;
AffineTransform fragmentTransform;
for (auto& fragment : m_textFragments) {
FloatQuad fragmentQuad(FloatRect(fragment.x, fragment.y - baseline, fragment.width, fragment.height));
fragment.buildFragmentTransform(fragmentTransform);
if (!fragmentTransform.isIdentity())
fragmentQuad = fragmentTransform.mapQuad(fragmentQuad);
if (fragmentQuad.containsPoint(locationInContainer.point())) {
renderer().updateHitTestResult(result, locationInContainer.point() - toLayoutSize(accumulatedOffset));
if (!result.addNodeToRectBasedTestResult(&renderer().textNode(), request, locationInContainer, rect))
return true;
}
}
}
}
}
return false;
}
bool InlineTextBox::nodeAtPoint(HitTestResult& result,
const HitTestLocation& locationInContainer,
const LayoutPoint& accumulatedOffset,
LayoutUnit /* lineTop */,
LayoutUnit /*lineBottom*/) {
if (isLineBreak() || m_truncation == cFullTruncation)
return false;
LayoutPoint boxOrigin = physicalLocation();
boxOrigin.moveBy(accumulatedOffset);
LayoutRect rect(boxOrigin, size());
if (visibleToHitTestRequest(result.hitTestRequest()) &&
locationInContainer.intersects(rect)) {
getLineLayoutItem().updateHitTestResult(
result, flipForWritingMode(locationInContainer.point() -
toLayoutSize(accumulatedOffset)));
if (result.addNodeToListBasedTestResult(getLineLayoutItem().node(),
locationInContainer,
rect) == StopHitTesting)
return true;
}
return false;
}
// Hit Testing
bool RenderRegion::nodeAtPoint(const HitTestRequest& request, HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, HitTestAction action)
{
if (!isValid())
return false;
LayoutPoint adjustedLocation = accumulatedOffset + location();
// Check our bounds next. For this purpose always assume that we can only be hit in the
// foreground phase (which is true for replaced elements like images).
// FIXME: Once we support overflow, we need to intersect with that and not with the bounds rect.
LayoutRect boundsRect = borderBoxRectInRegion(locationInContainer.region());
boundsRect.moveBy(adjustedLocation);
if (visibleToHitTestRequest(request) && action == HitTestForeground && locationInContainer.intersects(boundsRect)) {
// Check the contents of the RenderFlowThread.
if (m_flowThread->hitTestFlowThreadPortionInRegion(this, flowThreadPortionRect(), flowThreadPortionOverflowRect(), request, result, locationInContainer, LayoutPoint(adjustedLocation.x() + borderLeft() + paddingLeft(), adjustedLocation.y() + borderTop() + paddingTop())))
return true;
updateHitTestResult(result, locationInContainer.point() - toLayoutSize(adjustedLocation));
if (!result.addNodeToRectBasedTestResult(generatingNode(), request, locationInContainer, boundsRect))
return true;
}
return false;
}
bool EllipsisBox::nodeAtPoint(const HitTestRequest& request, HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, LayoutUnit lineTop, LayoutUnit lineBottom, HitTestAction hitTestAction)
{
LayoutPoint adjustedLocation = accumulatedOffset + LayoutPoint(topLeft());
// Hit test the markup box.
if (InlineBox* markupBox = this->markupBox()) {
const RenderStyle& lineStyle = this->lineStyle();
LayoutUnit mtx = adjustedLocation.x() + m_logicalWidth - markupBox->x();
LayoutUnit mty = adjustedLocation.y() + lineStyle.fontMetrics().ascent() - (markupBox->y() + markupBox->lineStyle().fontMetrics().ascent());
if (markupBox->nodeAtPoint(request, result, locationInContainer, LayoutPoint(mtx, mty), lineTop, lineBottom, hitTestAction)) {
blockFlow().updateHitTestResult(result, locationInContainer.point() - LayoutSize(mtx, mty));
return true;
}
}
LayoutRect boundsRect(adjustedLocation, LayoutSize(m_logicalWidth, m_height));
if (visibleToHitTesting() && boundsRect.intersects(HitTestLocation::rectForPoint(locationInContainer.point(), 0, 0, 0, 0))) {
blockFlow().updateHitTestResult(result, locationInContainer.point() - toLayoutSize(adjustedLocation));
if (!result.addNodeToRectBasedTestResult(blockFlow().element(), request, locationInContainer, boundsRect))
return true;
}
return false;
}
bool RenderSVGRoot::nodeAtPoint(const HitTestRequest& request, HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, HitTestAction hitTestAction)
{
LayoutPoint pointInParent = locationInContainer.point() - toLayoutSize(accumulatedOffset);
LayoutPoint pointInBorderBox = pointInParent - toLayoutSize(location());
// Only test SVG content if the point is in our content box.
// FIXME: This should be an intersection when rect-based hit tests are supported by nodeAtFloatPoint.
if (contentBoxRect().contains(pointInBorderBox)) {
FloatPoint localPoint = localToParentTransform().inverse().mapPoint(FloatPoint(pointInParent));
for (RenderObject* child = lastChild(); child; child = child->previousSibling()) {
// FIXME: nodeAtFloatPoint() doesn't handle rect-based hit tests yet.
if (child->nodeAtFloatPoint(request, result, localPoint, hitTestAction)) {
updateHitTestResult(result, pointInBorderBox);
if (!result.addNodeToRectBasedTestResult(child->node(), request, locationInContainer))
return true;
}
}
}
// If we didn't early exit above, we've just hit the container <svg> element. Unlike SVG 1.1, 2nd Edition allows container elements to be hit.
if (hitTestAction == HitTestBlockBackground && visibleToHitTesting()) {
// Only return true here, if the last hit testing phase 'BlockBackground' is executed. If we'd return true in the 'Foreground' phase,
// hit testing would stop immediately. For SVG only trees this doesn't matter. Though when we have a <foreignObject> subtree we need
// to be able to detect hits on the background of a <div> element. If we'd return true here in the 'Foreground' phase, we are not able
// to detect these hits anymore.
LayoutRect boundsRect(accumulatedOffset + location(), size());
if (locationInContainer.intersects(boundsRect)) {
updateHitTestResult(result, pointInBorderBox);
if (!result.addNodeToRectBasedTestResult(&svgSVGElement(), request, locationInContainer, boundsRect))
return true;
}
}
return false;
}
bool HitTestResult::addNodeToRectBasedTestResult(Node* node, const HitTestRequest& request, const HitTestLocation& locationInContainer, const FloatRect& rect)
{
// If it is not a rect-based hit test, this method has to be no-op.
// Return false, so the hit test stops.
if (!isRectBasedTest())
return false;
// If node is null, return true so the hit test can continue.
if (!node)
return true;
mutableRectBasedTestResult().add(node);
bool regionFilled = rect.contains(locationInContainer.boundingBox());
return !regionFilled;
}
ListBasedHitTestBehavior HitTestResult::addNodeToListBasedTestResult(Node* node, const HitTestLocation& location, const Region& region)
{
// If not a list-based test, stop testing because the hit has been found.
if (!hitTestRequest().listBased())
return StopHitTesting;
if (!node)
return ContinueHitTesting;
mutableListBasedTestResult().add(node);
if (hitTestRequest().penetratingList())
return ContinueHitTesting;
return region.contains(location.boundingBox()) ? StopHitTesting : ContinueHitTesting;
}
bool EllipsisBox::nodeAtPoint(HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, LayoutUnit lineTop, LayoutUnit lineBottom)
{
// FIXME: the call to roundedLayoutPoint() below is temporary and should be removed once
// the transition to LayoutUnit-based types is complete (crbug.com/321237)
LayoutPoint adjustedLocation = accumulatedOffset + topLeft();
LayoutPoint boxOrigin = locationIncludingFlipping();
boxOrigin.moveBy(accumulatedOffset);
LayoutRect boundsRect(boxOrigin, size());
if (visibleToHitTestRequest(result.hitTestRequest()) && boundsRect.intersects(LayoutRect(HitTestLocation::rectForPoint(locationInContainer.point(), 0, 0, 0, 0)))) {
lineLayoutItem().updateHitTestResult(result, locationInContainer.point() - toLayoutSize(adjustedLocation));
if (result.addNodeToListBasedTestResult(lineLayoutItem().node(), locationInContainer, boundsRect) == StopHitTesting)
return true;
}
return false;
}
bool InlineTextBox::nodeAtPoint(HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, LayoutUnit /* lineTop */, LayoutUnit /*lineBottom*/)
{
if (isLineBreak())
return false;
LayoutPoint boxOrigin = locationIncludingFlipping();
boxOrigin.moveBy(accumulatedOffset);
LayoutRect rect(boxOrigin, size());
// FIXME: both calls to rawValue() below is temporary and should be removed once the transition
// to LayoutUnit-based types is complete (crbug.com/321237)
if (m_truncation != cFullTruncation && visibleToHitTestRequest(result.hitTestRequest()) && locationInContainer.intersects(rect)) {
lineLayoutItem().updateHitTestResult(result, flipForWritingMode(locationInContainer.point() - toLayoutSize(accumulatedOffset)));
if (!result.addNodeToListBasedTestResult(lineLayoutItem().node(), locationInContainer, rect))
return true;
}
return false;
}
bool RenderView::hitTest(const HitTestRequest& request, const HitTestLocation& location, HitTestResult& result)
{
if (layer()->hitTest(request, location, result))
return true;
// FIXME: Consider if this test should be done unconditionally.
if (request.allowsFrameScrollbars()) {
// ScrollView scrollbars are not the same as RenderLayer scrollbars tested by RenderLayer::hitTestOverflowControls,
// so we need to test ScrollView scrollbars separately here.
Scrollbar* frameScrollbar = frameView().scrollbarAtPoint(location.roundedPoint());
if (frameScrollbar) {
result.setScrollbar(frameScrollbar);
return true;
}
}
return false;
}
bool HitTestResult::addNodeToRectBasedTestResult(Node* node, const HitTestRequest& request, const HitTestLocation& locationInContainer, const LayoutRect& rect)
{
// If it is not a rect-based hit test, this method has to be no-op.
// Return false, so the hit test stops.
if (!isRectBasedTest())
return false;
// If node is null, return true so the hit test can continue.
if (!node)
return true;
if (request.disallowsShadowContent())
node = node->document()->ancestorInThisScope(node);
mutableRectBasedTestResult().add(node);
bool regionFilled = rect.contains(locationInContainer.boundingBox());
return !regionFilled;
}
bool InlineBox::nodeAtPoint(HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, LayoutUnit /* lineTop */, LayoutUnit /* lineBottom */)
{
// Hit test all phases of replaced elements atomically, as though the replaced element established its
// own stacking context. (See Appendix E.2, section 6.4 on inline block/table elements in the CSS2.1
// specification.)
LayoutPoint childPoint = accumulatedOffset;
if (parent()->lineLayoutItem().hasFlippedBlocksWritingMode()) // Faster than calling containingBlock().
childPoint = layoutObject().containingBlock()->flipForWritingModeForChild(&toLayoutBox(layoutObject()), childPoint);
if (lineLayoutItem().style()->hasBorderRadius()) {
LayoutRect borderRect = logicalFrameRect();
borderRect.moveBy(accumulatedOffset);
FloatRoundedRect border = lineLayoutItem().style()->getRoundedBorderFor(borderRect);
if (!locationInContainer.intersects(border))
return false;
}
return lineLayoutItem().hitTest(result, locationInContainer, childPoint);
}
// Hit Testing
bool RenderTableRow::nodeAtPoint(const HitTestRequest& request, HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, HitTestAction action)
{
// Table rows cannot ever be hit tested. Effectively they do not exist.
// Just forward to our children always.
for (RenderObject* child = lastChild(); child; child = child->previousSibling()) {
// FIXME: We have to skip over inline flows, since they can show up inside table rows
// at the moment (a demoted inline <form> for example). If we ever implement a
// table-specific hit-test method (which we should do for performance reasons anyway),
// then we can remove this check.
if (child->isTableCell() && !toRenderBox(child)->hasSelfPaintingLayer()) {
LayoutPoint cellPoint = flipForWritingModeForChild(toRenderTableCell(child), accumulatedOffset);
if (child->nodeAtPoint(request, result, locationInContainer, cellPoint, action)) {
updateHitTestResult(result, locationInContainer.point() - toLayoutSize(cellPoint));
return true;
}
}
}
return false;
}
bool RenderTextControlSingleLine::nodeAtPoint(const HitTestRequest& request, HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, HitTestAction hitTestAction)
{
if (!RenderTextControl::nodeAtPoint(request, result, locationInContainer, accumulatedOffset, hitTestAction))
return false;
// Say that we hit the inner text element if
// - we hit a node inside the inner text element,
// - we hit the <input> element (e.g. we're over the border or padding), or
// - we hit regions not in any decoration buttons.
HTMLElement* container = containerElement();
if (result.innerNode()->isDescendantOf(innerTextElement()) || result.innerNode() == &inputElement() || (container && container == result.innerNode())) {
LayoutPoint pointInParent = locationInContainer.point();
if (container && innerBlockElement()) {
if (innerBlockElement()->renderBox())
pointInParent -= toLayoutSize(innerBlockElement()->renderBox()->location());
if (container->renderBox())
pointInParent -= toLayoutSize(container->renderBox()->location());
}
hitInnerTextElement(result, pointInParent, accumulatedOffset);
}
return true;
}
bool RenderView::hitTest(const HitTestRequest& request, const HitTestLocation& location, HitTestResult& result)
{
TRACE_EVENT0("blink", "RenderView::hitTest");
m_hitTestCount++;
// We have to recursively update layout/style here because otherwise, when the hit test recurses
// into a child document, it could trigger a layout on the parent document, which can destroy RenderLayers
// that are higher up in the call stack, leading to crashes.
// Note that Document::updateLayout calls its parent's updateLayout.
// FIXME: It should be the caller's responsibility to ensure an up-to-date layout.
frameView()->updateLayoutAndStyleIfNeededRecursive();
bool hitLayer = layer()->hitTest(request, location, result);
// FrameView scrollbars are not the same as RenderLayer scrollbars tested by RenderLayer::hitTestOverflowControls,
// so we need to test FrameView scrollbars separately here. Note that it's important we do this after
// the hit test above, because that may overwrite the entire HitTestResult when it finds a hit.
IntPoint viewPoint = location.roundedPoint() - frameView()->scrollOffset();
if (Scrollbar* frameScrollbar = frameView()->scrollbarAtViewPoint(viewPoint))
result.setScrollbar(frameScrollbar);
return hitLayer;
}
bool RenderImage::nodeAtPoint(const HitTestRequest& request, HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, HitTestAction hitTestAction)
{
HitTestResult tempResult(result.hitTestLocation());
bool inside = RenderReplaced::nodeAtPoint(request, tempResult, locationInContainer, accumulatedOffset, hitTestAction);
if (tempResult.innerNode() && node()) {
if (HTMLMapElement* map = imageMap()) {
LayoutRect contentBox = contentBoxRect();
float scaleFactor = 1 / style()->effectiveZoom();
LayoutPoint mapLocation = locationInContainer.point() - toLayoutSize(accumulatedOffset) - locationOffset() - toLayoutSize(contentBox.location());
mapLocation.scale(scaleFactor, scaleFactor);
if (map->mapMouseEvent(mapLocation, contentBox.size(), tempResult))
tempResult.setInnerNonSharedNode(node());
}
}
if (!inside && result.isRectBasedTest())
result.append(tempResult);
if (inside)
result = tempResult;
return inside;
}
// Hit Testing
bool LayoutTableRow::nodeAtPoint(HitTestResult& result,
const HitTestLocation& locationInContainer,
const LayoutPoint& accumulatedOffset,
HitTestAction action) {
// Table rows cannot ever be hit tested. Effectively they do not exist.
// Just forward to our children always.
for (LayoutTableCell* cell = lastCell(); cell; cell = cell->previousCell()) {
// FIXME: We have to skip over inline flows, since they can show up inside
// table rows at the moment (a demoted inline <form> for example). If we
// ever implement a table-specific hit-test method (which we should do for
// performance reasons anyway), then we can remove this check.
if (!cell->hasSelfPaintingLayer()) {
LayoutPoint cellPoint =
flipForWritingModeForChild(cell, accumulatedOffset);
if (cell->nodeAtPoint(result, locationInContainer, cellPoint, action)) {
updateHitTestResult(
result, locationInContainer.point() - toLayoutSize(cellPoint));
return true;
}
}
}
return false;
}
bool ClipRect::intersects(const HitTestLocation& hitTestLocation) const
{
return hitTestLocation.intersects(m_rect);
}