bool EllipsisBox::nodeAtPoint(const HitTestRequest& request, HitTestResult& result, const HitTestLocation& locationInContainer, const LayoutPoint& accumulatedOffset, LayoutUnit lineTop, LayoutUnit lineBottom)
{
LayoutPoint adjustedLocation = accumulatedOffset + roundedLayoutPoint(topLeft());
// Hit test the markup box.
if (InlineBox* markupBox = this->markupBox()) {
RenderStyle* style = renderer().style(isFirstLineStyle());
LayoutUnit mtx = adjustedLocation.x() + m_logicalWidth - markupBox->x();
LayoutUnit mty = adjustedLocation.y() + style->fontMetrics().ascent() - (markupBox->y() + markupBox->renderer().style(isFirstLineStyle())->fontMetrics().ascent());
if (markupBox->nodeAtPoint(request, result, locationInContainer, LayoutPoint(mtx, mty), lineTop, lineBottom)) {
renderer().updateHitTestResult(result, locationInContainer.point() - LayoutSize(mtx, mty));
return true;
}
}
FloatPoint boxOrigin = locationIncludingFlipping();
boxOrigin.moveBy(accumulatedOffset);
FloatRect boundsRect(boxOrigin, size());
if (visibleToHitTestRequest(request) && boundsRect.intersects(HitTestLocation::rectForPoint(locationInContainer.point(), 0, 0, 0, 0))) {
renderer().updateHitTestResult(result, locationInContainer.point() - toLayoutSize(adjustedLocation));
if (!result.addNodeToRectBasedTestResult(renderer().node(), request, locationInContainer, boundsRect))
return true;
}
return false;
}
void GuiGradientCtrl::onRender(Point2I offset, const RectI& updateRect)
{
if (mStateBlock.isNull())
{
GFXStateBlockDesc desc;
desc.setBlend(true, GFXBlendSrcAlpha, GFXBlendInvSrcAlpha);
desc.setZReadWrite(false);
desc.zWriteEnable = false;
desc.setCullMode(GFXCullNone);
mStateBlock = GFX->createStateBlock( desc );
}
RectI boundsRect(offset, getExtent());
renderColorBox(boundsRect);
if (mPositionChanged)
{
mPositionChanged = false;
// Now do onAction() if we are allowed
if (mActionOnMove)
onAction();
}
//render the children
renderChildControls( offset, updateRect);
}
void GuiColorPickerCtrl::onRender(Point2I offset, const RectI& updateRect)
{
if (mStateBlock.isNull())
{
GFXStateBlockDesc desc;
desc.setBlend(true, GFXBlendSrcAlpha, GFXBlendInvSrcAlpha);
desc.setZReadWrite(false);
desc.zWriteEnable = false;
desc.setCullMode(GFXCullNone);
mStateBlock = GFX->createStateBlock( desc );
}
RectI boundsRect(offset, getExtent());
renderColorBox(boundsRect);
if (mPositionChanged)
{
mPositionChanged = false;
Point2I extent = getRoot()->getExtent();
// If we are anything but a pallete, change the pick color
if (mDisplayMode != pPallet)
{
Point2I resolution = getRoot()->getExtent();
U32 buf_x = offset.x + mSelectorPos.x + 1;
U32 buf_y = ( extent.y - ( offset.y + mSelectorPos.y + 1 ) );
if(GFX->getAdapterType() != OpenGL)
buf_y = resolution.y - buf_y;
GFXTexHandle bb( resolution.x,
resolution.y,
GFXFormatR8G8B8A8, &GFXDefaultRenderTargetProfile, avar("%s() - bb (line %d)", __FUNCTION__, __LINE__) );
Point2I tmpPt( buf_x, buf_y );
GFXTarget *targ = GFX->getActiveRenderTarget();
targ->resolveTo( bb );
GBitmap bmp( bb.getWidth(), bb.getHeight() );
bb.copyToBmp( &bmp );
//bmp.writePNGDebug( "foo.png" );
ColorI tmp;
bmp.getColor( buf_x, buf_y, tmp );
mPickColor = (ColorF)tmp;
// Now do onAction() if we are allowed
if (mActionOnMove)
onAction();
}
}
//render the children
renderChildControls( offset, updateRect);
}
nsresult imgFrame::ImageUpdated(const nsIntRect &aUpdateRect)
{
mDecoded.UnionRect(mDecoded, aUpdateRect);
// clamp to bounds, in case someone sends a bogus updateRect (I'm looking at
// you, gif decoder)
nsIntRect boundsRect(mOffset, mSize);
mDecoded.IntersectRect(mDecoded, boundsRect);
#ifdef XP_MACOSX
if (mQuartzSurface)
mQuartzSurface->Flush();
#endif
return NS_OK;
}
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;
}
ossimDrect shapefileClip::LineSampleToWorld(ossimIrect rect, ossimRefPtr<ossimImageGeometry> ImageGeom)
{
ossimGpt gp1;
ossimGpt gp2;
ossimGpt gp3;
ossimGpt gp4;
ImageGeom->localToWorld(rect.ul(), gp1);
ImageGeom->localToWorld(rect.ur(), gp2);
ImageGeom->localToWorld(rect.lr(), gp3);
ImageGeom->localToWorld(rect.ll(), gp4);
ossimDrect boundsRect(ossimDpt(gp1.lond(), gp1.latd()),
ossimDpt(gp2.lond(), gp2.latd()),
ossimDpt(gp3.lond(), gp3.latd()),
ossimDpt(gp4.lond(), gp4.latd()),
OSSIM_RIGHT_HANDED);
return boundsRect;
}
void PluginView::viewGeometryDidChange()
{
if (!m_isInitialized || !m_plugin || !parent())
return;
ASSERT(frame());
float pageScaleFactor = frame()->page() ? frame()->page()->pageScaleFactor() : 1;
IntPoint scaledFrameRectLocation(frameRect().location().x() * pageScaleFactor, frameRect().location().y() * pageScaleFactor);
IntPoint scaledLocationInRootViewCoordinates(parent()->contentsToRootView(scaledFrameRectLocation));
// FIXME: We still don't get the right coordinates for transformed plugins.
AffineTransform transform;
transform.translate(scaledLocationInRootViewCoordinates.x(), scaledLocationInRootViewCoordinates.y());
transform.scale(pageScaleFactor);
// FIXME: The clip rect isn't correct.
IntRect clipRect = boundsRect();
m_plugin->geometryDidChange(size(), clipRect, transform);
}
// Hit Testing
bool RenderRegion::nodeAtPoint(const HitTestRequest& request, HitTestResult& result, const LayoutPoint& pointInContainer, 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).
LayoutRect boundsRect(adjustedLocation, size());
if (visibleToHitTesting() && action == HitTestForeground && boundsRect.intersects(result.rectForPoint(pointInContainer))) {
// Check the contents of the RenderFlowThread.
if (m_flowThread && m_flowThread->hitTestRegion(this, request, result, pointInContainer, LayoutPoint(adjustedLocation.x() + borderLeft() + paddingLeft(), adjustedLocation.y() + borderTop() + paddingTop())))
return true;
updateHitTestResult(result, pointInContainer - toLayoutSize(adjustedLocation));
if (!result.addNodeToRectBasedTestResult(node(), pointInContainer, boundsRect))
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 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 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;
}
void CCSlot::_updateMesh()
{
const auto meshDisplay = static_cast<DBCCSprite*>(this->_meshDisplay);
const auto hasFFD = !this->_ffdVertices.empty();
const auto displayVertices = meshDisplay->getPolygonInfoModify().triangles.verts;
cocos2d::Rect boundsRect(999999.f, 999999.f, -999999.f, -999999.f);
if (this->_meshData->skinned)
{
std::size_t iF = 0;
for (std::size_t i = 0, l = this->_meshData->vertices.size(); i < l; i += 2)
{
const auto iH = unsigned(i / 2);
const auto& boneIndices = this->_meshData->boneIndices[iH];
const auto& boneVertices = this->_meshData->boneVertices[iH];
const auto& weights = this->_meshData->weights[iH];
float xG = 0.f, yG = 0.f;
for (std::size_t iB = 0, lB = boneIndices.size(); iB < lB; ++iB)
{
const auto bone = this->_meshBones[boneIndices[iB]];
const auto matrix = bone->globalTransformMatrix;
const auto weight = weights[iB];
float xL = 0.f, yL = 0.f;
if (hasFFD)
{
xL = boneVertices[iB * 2] + this->_ffdVertices[iF];
yL = boneVertices[iB * 2 + 1] + this->_ffdVertices[iF + 1];
}
else
{
xL = boneVertices[iB * 2];
yL = boneVertices[iB * 2 + 1];
}
xG += (matrix->a * xL + matrix->c * yL + matrix->tx) * weight;
yG += (matrix->b * xL + matrix->d * yL + matrix->ty) * weight;
iF += 2;
}
auto& vertices = displayVertices[iH];
auto& vertex = vertices.vertices;
vertex.set(xG, -yG, 0.f);
if (boundsRect.origin.x > xG)
{
boundsRect.origin.x = xG;
}
if (boundsRect.size.width < xG)
{
boundsRect.size.width = xG;
}
if (boundsRect.origin.y > -yG)
{
boundsRect.origin.y = -yG;
}
if (boundsRect.size.height < -yG)
{
boundsRect.size.height = -yG;
}
}
}
else if (hasFFD)
{
const auto& vertices = _meshData->vertices;
for (std::size_t i = 0, l = this->_meshData->vertices.size(); i < l; i += 2)
{
const auto iH = unsigned(i / 2);
const auto xG = vertices[i] + _ffdVertices[i];
const auto yG = vertices[i + 1] + _ffdVertices[i + 1];
auto& vertices = displayVertices[iH];
auto& vertex = vertices.vertices;
vertex.set(xG, -yG, 0.f);
if (boundsRect.origin.x > xG)
{
boundsRect.origin.x = xG;
}
if (boundsRect.size.width < xG)
{
boundsRect.size.width = xG;
}
if (boundsRect.origin.y > -yG)
{
boundsRect.origin.y = -yG;
}
if (boundsRect.size.height < -yG)
{
boundsRect.size.height = -yG;
}
}
}
boundsRect.size.width -= boundsRect.origin.x;
boundsRect.size.height -= boundsRect.origin.y;
cocos2d::Rect* rect = (cocos2d::Rect*)&meshDisplay->getPolygonInfo().rect;
rect->origin = boundsRect.origin; // copy
rect->size = boundsRect.size; // copy
meshDisplay->setContentSize(boundsRect.size);
}
float TouchTracker::Calibrator::differenceFromTemplateTouchWithMask(const MLSignal& in, Vec2 pos, const MLSignal& mask)
{
static float maskThresh = 0.001f;
static MLSignal a2(kTemplateSize, kTemplateSize);
static MLSignal b(kTemplateSize, kTemplateSize);
static MLSignal b2(kTemplateSize, kTemplateSize);
float r = 0.f;
int height = in.getHeight();
int width = in.getWidth();
MLRect boundsRect(0, 0, width, height);
// use linear interpolated z value from input
float linearZ = in.getInterpolatedLinear(pos)*getZAdjust(pos);
linearZ = clamp(linearZ, 0.00001f, 1.f);
float z1 = 1./linearZ;
const MLSignal& a = getTemplate(pos);
// get normalized input values surrounding touch
int tr = kTemplateRadius;
b.clear();
for(int j=0; j < kTemplateSize; ++j)
{
for(int i=0; i < kTemplateSize; ++i)
{
Vec2 vInPos = pos + Vec2((float)i - tr,(float)j - tr);
if (boundsRect.contains(vInPos) && (mask.getInterpolatedLinear(vInPos) < maskThresh))
{
float inVal = in.getInterpolatedLinear(vInPos);
inVal *= z1;
b(i, j) = inVal;
}
}
}
int tests = 0;
float sum = 0.;
// add differences in z from template
a2.copy(a);
b2.copy(b);
a2.partialDiffX();
b2.partialDiffX();
for(int j=0; j < kTemplateSize; ++j)
{
for(int i=0; i < kTemplateSize; ++i)
{
if(b(i, j) > 0.)
{
float d = a2(i, j) - b2(i, j);
sum += d*d;
tests++;
}
}
}
// get RMS difference
if(tests > 0)
{
r = sqrtf(sum / tests);
}
return r;
}
void ContentLayerChromium::updateContents()
{
RenderLayerBacking* backing = static_cast<RenderLayerBacking*>(m_owner->client());
if (!backing || backing->paintingGoesToWindow())
return;
ASSERT(drawsContent());
ASSERT(layerRenderer());
void* pixels = 0;
IntRect dirtyRect;
IntRect updateRect;
IntSize requiredTextureSize;
IntSize bitmapSize;
// FIXME: Remove this test when tiled layers are implemented.
if (requiresClippedUpdateRect()) {
// A layer with 3D transforms could require an arbitrarily large number
// of texels to be repainted, so ignore these layers until tiling is
// implemented.
if (!drawTransform().isIdentityOrTranslation()) {
m_skipsDraw = true;
return;
}
calculateClippedUpdateRect(dirtyRect, m_largeLayerDrawRect);
if (!layerRenderer()->checkTextureSize(m_largeLayerDrawRect.size())) {
m_skipsDraw = true;
return;
}
// If the portion of the large layer that's visible hasn't changed
// then we don't need to update it, _unless_ its contents have changed
// in which case we only update the dirty bits.
if (m_largeLayerDirtyRect == dirtyRect) {
if (!m_dirtyRect.intersects(dirtyRect))
return;
dirtyRect.intersect(IntRect(m_dirtyRect));
updateRect = dirtyRect;
requiredTextureSize = m_largeLayerDirtyRect.size();
} else {
m_largeLayerDirtyRect = dirtyRect;
requiredTextureSize = dirtyRect.size();
updateRect = IntRect(IntPoint(0, 0), dirtyRect.size());
}
} else {
dirtyRect = IntRect(m_dirtyRect);
IntRect boundsRect(IntPoint(0, 0), m_bounds);
requiredTextureSize = m_bounds;
// If the texture needs to be reallocated then we must redraw the entire
// contents of the layer.
if (requiredTextureSize != m_allocatedTextureSize)
dirtyRect = boundsRect;
else {
// Clip the dirtyRect to the size of the layer to avoid drawing
// outside the bounds of the backing texture.
dirtyRect.intersect(boundsRect);
}
updateRect = dirtyRect;
}
if (dirtyRect.isEmpty())
return;
#if PLATFORM(SKIA)
const SkBitmap* skiaBitmap = 0;
OwnPtr<skia::PlatformCanvas> canvas;
OwnPtr<PlatformContextSkia> skiaContext;
OwnPtr<GraphicsContext> graphicsContext;
canvas.set(new skia::PlatformCanvas(dirtyRect.width(), dirtyRect.height(), false));
skiaContext.set(new PlatformContextSkia(canvas.get()));
// This is needed to get text to show up correctly.
// FIXME: Does this take us down a very slow text rendering path?
skiaContext->setDrawingToImageBuffer(true);
graphicsContext.set(new GraphicsContext(reinterpret_cast<PlatformGraphicsContext*>(skiaContext.get())));
// Bring the canvas into the coordinate system of the paint rect.
canvas->translate(static_cast<SkScalar>(-dirtyRect.x()), static_cast<SkScalar>(-dirtyRect.y()));
m_owner->paintGraphicsLayerContents(*graphicsContext, dirtyRect);
const SkBitmap& bitmap = canvas->getDevice()->accessBitmap(false);
skiaBitmap = &bitmap;
ASSERT(skiaBitmap);
SkAutoLockPixels lock(*skiaBitmap);
SkBitmap::Config skiaConfig = skiaBitmap->config();
// FIXME: do we need to support more image configurations?
if (skiaConfig == SkBitmap::kARGB_8888_Config) {
pixels = skiaBitmap->getPixels();
bitmapSize = IntSize(skiaBitmap->width(), skiaBitmap->height());
}
#elif PLATFORM(CG)
Vector<uint8_t> tempVector;
int rowBytes = 4 * dirtyRect.width();
tempVector.resize(rowBytes * dirtyRect.height());
memset(tempVector.data(), 0, tempVector.size());
RetainPtr<CGColorSpaceRef> colorSpace(AdoptCF, CGColorSpaceCreateDeviceRGB());
RetainPtr<CGContextRef> contextCG(AdoptCF, CGBitmapContextCreate(tempVector.data(),
dirtyRect.width(), dirtyRect.height(), 8, rowBytes,
colorSpace.get(),
kCGImageAlphaPremultipliedFirst | kCGBitmapByteOrder32Host));
CGContextTranslateCTM(contextCG.get(), 0, dirtyRect.height());
CGContextScaleCTM(contextCG.get(), 1, -1);
GraphicsContext graphicsContext(contextCG.get());
// Translate the graphics context into the coordinate system of the dirty rect.
graphicsContext.translate(-dirtyRect.x(), -dirtyRect.y());
m_owner->paintGraphicsLayerContents(graphicsContext, dirtyRect);
pixels = tempVector.data();
bitmapSize = dirtyRect.size();
#else
#error "Need to implement for your platform."
#endif
unsigned textureId = m_contentsTexture;
if (!textureId)
textureId = layerRenderer()->createLayerTexture();
if (pixels)
updateTextureRect(pixels, bitmapSize, requiredTextureSize, updateRect, textureId);
}
NetPrefsServerView::NetPrefsServerView(BRect bounds, const char* name, BMessenger target)
: BView(bounds, name, B_FOLLOW_ALL_SIDES, B_WILL_DRAW), fEntryWin(NULL), fNetWin(target)
{
SetViewColor(ui_color(B_PANEL_BACKGROUND_COLOR));
BRect boundsRect(Bounds());
BBox* mainBox(new BBox(bounds.InsetByCopy(-1, -1), NULL, B_FOLLOW_ALL_SIDES));
AddChild(mainBox);
fSelectTitleString = new BStringView(BRect(0, 0, 0, 0), NULL, "Select servers for");
fSelectTitleString->ResizeToPreferred();
mainBox->AddChild(fSelectTitleString);
fSelectTitleString->MoveTo(11, 11);
fServerList = new BColumnListView(BRect(0, 0, boundsRect.Width() - 10, boundsRect.Height() / 2),
"fServerList", B_FOLLOW_LEFT | B_FOLLOW_TOP, B_WILL_DRAW,
B_PLAIN_BORDER);
fServerList->SetSelectionMessage(new BMessage(M_SERVER_ITEM_SELECTED));
mainBox->AddChild(fServerList);
fServerList->MoveTo(5, fSelectTitleString->Frame().bottom + 3);
BStringColumn* status(new BStringColumn(S_PREFSERVER_STATUS_COLUMN,
be_plain_font->StringWidth("Status") * 2, 0,
bounds.Width(), 0, B_ALIGN_CENTER));
fServerList->AddColumn(status, 0);
BStringColumn* data(new BStringColumn(S_PREFSERVER_SERVER_COLUMN,
be_plain_font->StringWidth("Server") * 2, 0,
bounds.Width(), 0));
fServerList->AddColumn(data, 1);
BStringColumn* port(new BStringColumn(
S_PREFSERVER_PORT_COLUMN, be_plain_font->StringWidth("Port") * 2, 0, bounds.Width(), 0));
fServerList->AddColumn(port, 2);
fAddButton = new BButton(BRect(0, 0, 0, 0), NULL, S_PREFSERVER_ADD_BUTTON B_UTF8_ELLIPSIS,
new BMessage(M_SERVER_ADD_ITEM));
fRemoveButton = new BButton(BRect(0, 0, 0, 0), NULL, S_PREFSERVER_REMOVE_BUTTON,
new BMessage(M_SERVER_REMOVE_ITEM));
fEditButton = new BButton(BRect(0, 0, 0, 0), NULL, S_PREFSERVER_EDIT_BUTTON B_UTF8_ELLIPSIS,
new BMessage(M_SERVER_EDIT_ITEM));
fAddButton->ResizeToPreferred();
fRemoveButton->ResizeToPreferred();
fEditButton->ResizeToPreferred();
fRemoveButton->MoveTo(fServerList->Frame().right - fRemoveButton->Frame().Width(),
fServerList->Frame().bottom + 5);
mainBox->AddChild(fRemoveButton);
fAddButton->MoveTo(fRemoveButton->Frame().left - (fAddButton->Frame().Width() + 5),
fRemoveButton->Frame().top);
mainBox->AddChild(fAddButton);
fEditButton->MoveTo(fAddButton->Frame().left - (fEditButton->Frame().Width() + 15),
fAddButton->Frame().top);
mainBox->AddChild(fEditButton);
BStringView* legend1 = new BStringView(BRect(0, 0, 0, 0), "str1", S_PREFSERVER_DESC1);
legend1->ResizeToPreferred();
mainBox->AddChild(legend1);
legend1->MoveTo(fServerList->Frame().left + 5, fAddButton->Frame().bottom + 5);
BStringView* legend2 = new BStringView(BRect(0, 0, 0, 0), "str1", S_PREFSERVER_DESC2);
legend2->ResizeToPreferred();
mainBox->AddChild(legend2);
legend2->MoveTo(legend1->Frame().left, legend1->Frame().bottom);
BStringView* legend3 = new BStringView(BRect(0, 0, 0, 0), "str1", S_PREFSERVER_DESC3);
legend3->ResizeToPreferred();
mainBox->AddChild(legend3);
legend3->MoveTo(legend2->Frame().left, legend2->Frame().bottom);
fLegend4 = new BStringView(BRect(0, 0, 0, 0), "str1", S_PREFSERVER_DESC4);
fLegend4->ResizeToPreferred();
mainBox->AddChild(fLegend4);
fLegend4->MoveTo(legend3->Frame().left, legend3->Frame().bottom);
fOkButton = new BButton(BRect(0, 0, 0, 0), NULL, S_PREFSERVER_OK_BUTTON,
new BMessage(B_QUIT_REQUESTED));
fOkButton->ResizeToPreferred();
mainBox->AddChild(fOkButton);
fOkButton->MoveTo(fServerList->Frame().right - fOkButton->Frame().Width(),
fLegend4->Frame().bottom + 5);
}
void QQuickTrailEmitter::emitWindow(int timeStamp)
{
if (m_system == 0)
return;
if (!m_enabled && !m_pulseLeft && m_burstQueue.isEmpty())
return;
if (m_followCount != m_system->groupData[m_system->groupIds[m_follow]]->size()){
qreal oldPPS = m_particlesPerSecond;
recalcParticlesPerSecond();
if (m_particlesPerSecond != oldPPS)
return;//system may need to update
}
if (m_pulseLeft){
m_pulseLeft -= timeStamp - m_lastTimeStamp * 1000.;
if (m_pulseLeft < 0){
timeStamp += m_pulseLeft;
m_pulseLeft = 0;
}
}
//TODO: Implement startTime and velocityFromMovement
qreal time = timeStamp / 1000.;
qreal particleRatio = 1. / m_particlesPerParticlePerSecond;
qreal pt;
qreal maxLife = (m_particleDuration + m_particleDurationVariation)/1000.0;
//Have to map it into this system, because particlesystem automaps it back
QPointF offset = m_system->mapFromItem(this, QPointF(0, 0));
qreal sizeAtEnd = m_particleEndSize >= 0 ? m_particleEndSize : m_particleSize;
int gId = m_system->groupIds[m_follow];
int gId2 = m_system->groupIds[m_group];
for (int i=0; i<m_system->groupData[gId]->data.count(); i++) {
QQuickParticleData *d = m_system->groupData[gId]->data[i];
if (!d->stillAlive()){
m_lastEmission[i] = time; //Should only start emitting when it returns to life
continue;
}
pt = m_lastEmission[i];
if (pt < d->t)
pt = d->t;
if (pt + maxLife < time)//We missed so much, that we should skip emiting particles that are dead by now
pt = time - maxLife;
if ((width() || height()) && !effectiveExtruder()->contains(QRectF(offset.x(), offset.y(), width(), height()),QPointF(d->curX(), d->curY()))){
m_lastEmission[d->index] = time;//jump over this time period without emitting, because it's outside
continue;
}
QList<QQuickParticleData*> toEmit;
while (pt < time || !m_burstQueue.isEmpty()){
QQuickParticleData* datum = m_system->newDatum(gId2, !m_overwrite);
if (datum){//else, skip this emission
datum->e = this;//###useful?
// Particle timestamp
datum->t = pt;
datum->lifeSpan =
(m_particleDuration
+ ((rand() % ((m_particleDurationVariation*2) + 1)) - m_particleDurationVariation))
/ 1000.0;
// Particle position
// Note that burst location doesn't get used for follow emitter
qreal followT = pt - d->t;
qreal followT2 = followT * followT * 0.5;
qreal eW = m_emitterXVariation < 0 ? d->curSize() : m_emitterXVariation;
qreal eH = m_emitterYVariation < 0 ? d->curSize() : m_emitterYVariation;
//Subtract offset, because PS expects this in emitter coordinates
QRectF boundsRect(d->x - offset.x() + d->vx * followT + d->ax * followT2 - eW/2,
d->y - offset.y() + d->vy * followT + d->ay * followT2 - eH/2,
eW, eH);
QQuickParticleExtruder* effectiveEmissionExtruder = m_emissionExtruder ? m_emissionExtruder : m_defaultEmissionExtruder;
const QPointF &newPos = effectiveEmissionExtruder->extrude(boundsRect);
datum->x = newPos.x();
datum->y = newPos.y();
// Particle velocity
const QPointF &velocity = m_velocity->sample(newPos);
datum->vx = velocity.x()
+ m_velocity_from_movement * d->vx;
datum->vy = velocity.y()
+ m_velocity_from_movement * d->vy;
// Particle acceleration
const QPointF &accel = m_acceleration->sample(newPos);
datum->ax = accel.x();
datum->ay = accel.y();
// Particle size
float sizeVariation = -m_particleSizeVariation
+ rand() / float(RAND_MAX) * m_particleSizeVariation * 2;
float size = qMax((qreal)0.0, m_particleSize + sizeVariation);
float endSize = qMax((qreal)0.0, sizeAtEnd + sizeVariation);
datum->size = size * float(m_enabled);
datum->endSize = endSize * float(m_enabled);
toEmit << datum;
m_system->emitParticle(datum);
}
if (!m_burstQueue.isEmpty()){
m_burstQueue.first().first--;
if (m_burstQueue.first().first <= 0)
m_burstQueue.pop_front();
}else{
pt += particleRatio;
}
}
foreach (QQuickParticleData* d, toEmit)
m_system->emitParticle(d);
if (isEmitConnected() || isEmitFollowConnected()) {
v8::HandleScope handle_scope;
v8::Context::Scope scope(QQmlEnginePrivate::getV8Engine(qmlEngine(this))->context());
v8::Handle<v8::Array> array = v8::Array::New(toEmit.size());
for (int i=0; i<toEmit.size(); i++)
array->Set(i, toEmit[i]->v8Value().toHandle());
if (isEmitFollowConnected())
emitFollowParticles(QQmlV8Handle::fromHandle(array), d->v8Value());//A chance for many arbitrary JS changes
else if (isEmitConnected())
emitParticles(QQmlV8Handle::fromHandle(array));//A chance for arbitrary JS changes
}
m_lastEmission[d->index] = pt;
}
m_lastTimeStamp = time;
}
void GuiFormCtrl::onRender(Point2I offset, const RectI &updateRect)
{
// Fill in the control's child area
RectI boundsRect(offset, getExtent());
boundsRect.point.y += mThumbSize.y;
boundsRect.extent.y -= mThumbSize.y;
// draw the border of the form if specified
if (mProfile->mOpaque)
GFX->getDrawUtil()->drawRectFill(boundsRect, mProfile->mFillColor);
if (mProfile->mBorder)
renderBorder(boundsRect, mProfile);
// If we don't have a child, put some text in the child area
if( empty() )
{
GFX->getDrawUtil()->setBitmapModulation(ColorI(0,0,0));
renderJustifiedText(boundsRect.point, boundsRect.extent, "[none]");
}
S32 textWidth = 0;
// Draw our little bar, too
if (mProfile->mBitmapArrayRects.size() >= 5)
{
//GFX->getDrawUtil()->clearBitmapModulation(); // Copyright (C) 2013 WinterLeaf Entertainment LLC.
S32 barStart = offset.x + textWidth;
S32 barTop = mThumbSize.y / 2 + offset.y - mProfile->mBitmapArrayRects[3].extent.y / 2;
Point2I barOffset(barStart, barTop);
// Draw the start of the bar...
GFX->getDrawUtil()->drawBitmapStretchSR(mProfile->mTextureObject ,RectI(barOffset, mProfile->mBitmapArrayRects[2].extent), mProfile->mBitmapArrayRects[2] );
// Now draw the middle...
barOffset.x += mProfile->mBitmapArrayRects[2].extent.x;
S32 barMiddleSize = (getExtent().x - (barOffset.x - offset.x)) - mProfile->mBitmapArrayRects[4].extent.x + 1;
if (barMiddleSize > 0)
{
// We have to do this inset to prevent nasty stretching artifacts
RectI foo = mProfile->mBitmapArrayRects[3];
foo.inset(1,0);
GFX->getDrawUtil()->drawBitmapStretchSR(
mProfile->mTextureObject,
RectI(barOffset, Point2I(barMiddleSize, mProfile->mBitmapArrayRects[3].extent.y)),
foo
);
}
// And the end
barOffset.x += barMiddleSize;
GFX->getDrawUtil()->drawBitmapStretchSR( mProfile->mTextureObject, RectI(barOffset, mProfile->mBitmapArrayRects[4].extent),
mProfile->mBitmapArrayRects[4]);
GFX->getDrawUtil()->setBitmapModulation((mMouseOver ? mProfile->mFontColorHL : mProfile->mFontColor));
renderJustifiedText(Point2I(mThumbSize.x, 0) + offset, Point2I(getWidth() - mThumbSize.x - mProfile->mBitmapArrayRects[4].extent.x, mThumbSize.y), (mUseSmallCaption ? mSmallCaption : mCaption) );
}
// Render the children
renderChildControls(offset, updateRect);
}
void GuiColorPickerCtrl::onRender(Point2I offset, const RectI& updateRect)
{
if (mStateBlock.isNull())
{
GFXStateBlockDesc desc;
desc.setBlend(true, GFXBlendSrcAlpha, GFXBlendInvSrcAlpha);
desc.setZReadWrite(false);
desc.zWriteEnable = false;
desc.setCullMode(GFXCullNone);
mStateBlock = GFX->createStateBlock(desc);
}
RectI boundsRect(offset, getExtent());
renderColorBox(boundsRect);
if (mPositionChanged || mBitmap == NULL)
{
bool nullBitmap = false;
if (mPositionChanged == false && mBitmap == NULL)
nullBitmap = true;
mPositionChanged = false;
Point2I extent = getRoot()->getExtent();
// If we are anything but a pallete, change the pick color
if (mDisplayMode != pPallet)
{
Point2I resolution = getRoot()->getExtent();
U32 buf_x = offset.x + mSelectorPos.x + 1;
U32 buf_y = resolution.y - (extent.y - (offset.y + mSelectorPos.y + 1));
GFXTexHandle bb( resolution.x, resolution.y, GFXFormatR8G8B8A8, &GFXDefaultRenderTargetProfile, avar("%s() - bb (line %d)", __FUNCTION__, __LINE__) );
Point2I tmpPt(buf_x, buf_y);
GFXTarget *targ = GFX->getActiveRenderTarget();
targ->resolveTo(bb);
if (mBitmap)
{
delete mBitmap;
mBitmap = NULL;
}
mBitmap = new GBitmap(bb.getWidth(), bb.getHeight());
bb.copyToBmp(mBitmap);
if (!nullBitmap)
{
if (mSelectColor)
{
Point2I pos = findColor(mSetColor, offset, resolution, *mBitmap);
mSetColor = mSetColor.BLACK;
mSelectColor = false;
setSelectorPos(pos);
}
else
{
ColorI tmp;
mBitmap->getColor(buf_x, buf_y, tmp);
mPickColor = (ColorF)tmp;
// Now do onAction() if we are allowed
if (mActionOnMove)
onAction();
}
}
}
}
//render the children
renderChildControls(offset, updateRect);
}
void CTTCheckBtnGroup::DrawGradient(CDC* pDC, CRect rect)
{
Color gdipBaseColor, gdipLightColor;
COLORREF baseColor = m_ColorMap.GetColor(Press, BackgroundTopGradientStart);
HLSColor hlsBaseColor = RgbToHls(baseColor);
if (hlsBaseColor.L > 0.8)
{
COLORREF darkColor = GetLumColor(baseColor, -0.3);
gdipBaseColor.SetFromCOLORREF(baseColor);
gdipLightColor.SetFromCOLORREF(darkColor);
}
else
{
COLORREF lightColor = GetLumColor(baseColor, 0.3);
gdipBaseColor.SetFromCOLORREF(baseColor);
gdipLightColor.SetFromCOLORREF(lightColor);
}
Graphics graphics(pDC->GetSafeHdc());
graphics.SetSmoothingMode(SmoothingModeAntiAlias);
graphics.SetInterpolationMode(InterpolationModeHighQualityBicubic);
// Draw frag rectangle
Rect boundsRect(rect.left, rect.top, rect.Width(), rect.Height());
GraphicsPath path;
GetRoundRectPath(&path, boundsRect, 8);
Rect upperRect(boundsRect);
upperRect.Height = boundsRect.Height / 2;
Rect lowerRect(boundsRect);
lowerRect.Y = upperRect.GetBottom() - 1;
lowerRect.Height = boundsRect.Height - upperRect.Height;
Rect upGradRect(upperRect);
upGradRect.Inflate(0, 1);
Rect loGradRect(lowerRect);
loGradRect.Inflate(0, 1);
LinearGradientBrush brush1(upGradRect, gdipLightColor, gdipBaseColor, LinearGradientMode::LinearGradientModeVertical);
LinearGradientBrush brush2(loGradRect, gdipBaseColor, gdipBaseColor, LinearGradientMode::LinearGradientModeVertical);
//SolidBrush brush(baseColor);
//graphics.FillRectangle(&brush, upperRect);
//graphics.FillPath(&brush1, &path);
Region wholeRgn(&path);
Region upperRgn(upperRect);
upperRgn.Intersect(&wholeRgn);
Region lowerRgn(lowerRect);
lowerRgn.Intersect(&wholeRgn);
graphics.FillRegion(&brush1, &upperRgn);
graphics.FillRegion(&brush2, &lowerRgn);
//SolidBrush brush(gdipFragColor);
//graphics.FillPath(&brush, &path);
}
void CCSlot::_updateFrame()
{
const auto frameDisplay = (DBCCSprite*)(this->_rawDisplay);
if (this->_display && this->_displayIndex >= 0)
{
const unsigned displayIndex = this->_displayIndex;
const auto rawDisplayData = displayIndex < this->_displayDataSet->displays.size() ? this->_displayDataSet->displays[displayIndex] : nullptr;
const auto replacedDisplayData = displayIndex < this->_replacedDisplayDataSet.size() ? this->_replacedDisplayDataSet[displayIndex] : nullptr;
const auto currentDisplayData = replacedDisplayData ? replacedDisplayData : rawDisplayData;
const auto currentTextureData = static_cast<CCTextureData*>(currentDisplayData->textureData);
if (currentTextureData)
{
if (!currentTextureData->texture)
{
const auto textureAtlasTexture = static_cast<CCTextureAtlasData*>(currentTextureData->parent)->texture;
if (textureAtlasTexture)
{
cocos2d::Rect rect(currentTextureData->region.x, currentTextureData->region.y, currentTextureData->region.width, currentTextureData->region.height);
cocos2d::Vec2 offset(0.f, 0.f);
cocos2d::Size originSize(currentTextureData->region.width, currentTextureData->region.height);
/*if (currentTextureData->frame)
{
offset.setPoint(-currentTextureData->frame->x, -currentTextureData->frame->y);
originSize.setSize(currentTextureData->frame->width, currentTextureData->frame->height);
}*/
currentTextureData->texture = cocos2d::SpriteFrame::createWithTexture(textureAtlasTexture, rect, currentTextureData->rotated, offset, originSize); // TODO multiply textureAtlas
currentTextureData->texture->retain();
}
}
const auto currentTexture = this->_armature->_replacedTexture ? static_cast<cocos2d::Texture2D*>(this->_armature->_replacedTexture) : (currentTextureData->texture ? currentTextureData->texture->getTexture() : nullptr);
if (currentTexture)
{
if (this->_meshData && this->_display == this->_meshDisplay)
{
const auto& region = currentTextureData->region;
const auto& textureAtlasSize = currentTextureData->texture->getTexture()->getContentSizeInPixels();
auto displayVertices = new cocos2d::V3F_C4B_T2F[(unsigned)(this->_meshData->uvs.size() / 2)]; // does cocos2dx release it?
auto vertexIndices = new unsigned short[this->_meshData->vertexIndices.size()]; // does cocos2dx release it?
cocos2d::Rect boundsRect(999999.f, 999999.f, -999999.f, -999999.f);
for (std::size_t i = 0, l = this->_meshData->uvs.size(); i < l; i += 2)
{
const auto iH = (unsigned)(i / 2);
const auto x = this->_meshData->vertices[i];
const auto y = this->_meshData->vertices[i + 1];
cocos2d::V3F_C4B_T2F vertexData;
vertexData.vertices.set(x, -y, 0.f);
vertexData.texCoords.u = (region.x + this->_meshData->uvs[i] * region.width) / textureAtlasSize.width;
vertexData.texCoords.v = (region.y + this->_meshData->uvs[i + 1] * region.height) / textureAtlasSize.height;
vertexData.colors = cocos2d::Color4B::WHITE;
displayVertices[iH] = vertexData;
if (boundsRect.origin.x > x)
{
boundsRect.origin.x = x;
}
if (boundsRect.size.width < x)
{
boundsRect.size.width = x;
}
if (boundsRect.origin.y > -y)
{
boundsRect.origin.y = -y;
}
if (boundsRect.size.height < -y)
{
boundsRect.size.height = -y;
}
}
boundsRect.size.width -= boundsRect.origin.x;
boundsRect.size.height -= boundsRect.origin.y;
for (std::size_t i = 0, l = this->_meshData->vertexIndices.size(); i < l; ++i)
{
vertexIndices[i] = this->_meshData->vertexIndices[i];
}
// In cocos2dx render meshDisplay and frameDisplay are the same display
frameDisplay->setSpriteFrame(currentTextureData->texture); // polygonInfo will be override
if (currentTexture != currentTextureData->texture->getTexture())
{
frameDisplay->setTexture(currentTexture); // Relpace texture // polygonInfo will be override
}
//
cocos2d::PolygonInfo polygonInfo;
auto& triangles = polygonInfo.triangles;
triangles.verts = displayVertices;
triangles.indices = vertexIndices;
triangles.vertCount = (unsigned)(this->_meshData->uvs.size() / 2);
triangles.indexCount = (unsigned)(this->_meshData->vertexIndices.size());
polygonInfo.rect = boundsRect; // Copy
frameDisplay->setPolygonInfo(polygonInfo);
frameDisplay->setContentSize(boundsRect.size);
if (this->_meshData->skinned)
{
frameDisplay->setScale(1.f, 1.f);
frameDisplay->setRotationSkewX(0.f);
frameDisplay->setRotationSkewY(0.f);
frameDisplay->setPosition(0.f, 0.f);
}
frameDisplay->setAnchorPoint(cocos2d::Vec2::ZERO);
}
else
{
cocos2d::Vec2 pivot(currentDisplayData->pivot.x, currentDisplayData->pivot.y);
const auto& rectData = currentTextureData->frame ? *currentTextureData->frame : currentTextureData->region;
auto width = rectData.width;
auto height = rectData.height;
if (!currentTextureData->frame && currentTextureData->rotated)
{
width = rectData.height;
height = rectData.width;
}
if (currentDisplayData->isRelativePivot)
{
pivot.x *= width;
pivot.y *= height;
}
if (currentTextureData->frame)
{
pivot.x += currentTextureData->frame->x;
pivot.y += currentTextureData->frame->y;
}
if (rawDisplayData && rawDisplayData != currentDisplayData)
{
pivot.x += rawDisplayData->transform.x - currentDisplayData->transform.x;
pivot.y += rawDisplayData->transform.y - currentDisplayData->transform.y;
}
pivot.x = pivot.x / currentTextureData->region.width;
pivot.y = 1.f - pivot.y / currentTextureData->region.height;
frameDisplay->setSpriteFrame(currentTextureData->texture); // polygonInfo will be override
if (currentTexture != currentTextureData->texture->getTexture())
{
frameDisplay->setTexture(currentTexture); // Relpace texture // polygonInfo will be override
}
frameDisplay->setAnchorPoint(pivot);
}
this->_updateVisible();
return;
}
}
}
frameDisplay->setTexture(nullptr);
frameDisplay->setTextureRect(cocos2d::Rect::ZERO);
frameDisplay->setAnchorPoint(cocos2d::Vec2::ZERO);
frameDisplay->setVisible(false);
}