void Render_SW_SDL::renderTextureCur(float x, float y, float w, float h, float ani_top, float ani_bottom, float ani_left, float ani_right)
{
if(!m_currentTexture)
{
renderRect(x, y, w, h,
(unsigned char)(255.f*color_binded_texture[0]),
(unsigned char)(255.f*color_binded_texture[1]),
(unsigned char)(255.f*color_binded_texture[2]),
(unsigned char)(255.f*color_binded_texture[3]) );
return;
}
SDL_Rect sourceRect = {
(int)roundf((float)m_currentTextureRect.width()*ani_left),
(int)roundf((float)m_currentTextureRect.height()*ani_top),
abs((int)roundf((float)m_currentTextureRect.width()*ani_right)-(int)roundf((float)m_currentTextureRect.width()*ani_left)),
abs((int)roundf((float)m_currentTextureRect.height()*ani_bottom)-(int)roundf((float)m_currentTextureRect.height()*ani_top))
};
SDL_Rect destRect = scaledRect(x, y, w, h);
SDL_SetTextureColorMod( m_currentTexture,
(unsigned char)(255.f*color_binded_texture[0]),
(unsigned char)(255.f*color_binded_texture[1]),
(unsigned char)(255.f*color_binded_texture[2]));
SDL_SetTextureAlphaMod( m_currentTexture, (unsigned char)(255.f*color_binded_texture[3]));
SDL_RenderCopy( m_gRenderer, m_currentTexture, &sourceRect, &destRect );
}
void Render_SW_SDL::renderTexture(PGE_Texture *texture, float x, float y, float w, float h, float ani_top, float ani_bottom, float ani_left, float ani_right)
{
if(!texture) return;
setRenderTexture( texture->texture );
m_currentTextureRect.setRect( 0, 0, texture->w, texture->h );
if(!m_currentTexture)
{
renderRect(x, y, w, h,
(unsigned char)(255.f*color_binded_texture[0]),
(unsigned char)(255.f*color_binded_texture[1]),
(unsigned char)(255.f*color_binded_texture[2]),
(unsigned char)(255.f*color_binded_texture[3]) );
return;
}
SDL_Rect sourceRect = { (int)roundf((float)texture->w*ani_left), (int)roundf((float)texture->h*ani_top),
(int)roundf((float)texture->w*ani_right)-(int)roundf((float)texture->w*ani_left),
(int)roundf((float)texture->h*ani_bottom)-(int)roundf((float)texture->h*ani_top)
};
SDL_Rect destRect = scaledRect(x, y, w, h);
SDL_SetTextureColorMod( m_currentTexture,
(unsigned char)(255.f*color_binded_texture[0]),
(unsigned char)(255.f*color_binded_texture[1]),
(unsigned char)(255.f*color_binded_texture[2]));
SDL_SetTextureAlphaMod( m_currentTexture, (unsigned char)(255.f*color_binded_texture[3]));
SDL_RenderCopy( m_gRenderer, m_currentTexture, &sourceRect, &destRect );
setUnbindTexture();
}
void QgsComposerUtils::drawText( QPainter *painter, const QRectF &rect, const QString &text, const QFont &font, const QColor &color, const Qt::AlignmentFlag halignment, const Qt::AlignmentFlag valignment, const int flags )
{
if ( !painter )
{
return;
}
//upscale using FONT_WORKAROUND_SCALE
//ref: http://osgeo-org.1560.x6.nabble.com/Multi-line-labels-and-font-bug-td4157152.html
QFont textFont = scaledFontPixelSize( font );
QRectF scaledRect( rect.x() * FONT_WORKAROUND_SCALE, rect.y() * FONT_WORKAROUND_SCALE,
rect.width() * FONT_WORKAROUND_SCALE, rect.height() * FONT_WORKAROUND_SCALE );
painter->save();
painter->setFont( textFont );
if ( color.isValid() )
{
painter->setPen( color );
}
double scaleFactor = 1.0 / FONT_WORKAROUND_SCALE;
painter->scale( scaleFactor, scaleFactor );
painter->drawText( scaledRect, halignment | valignment | flags, text );
painter->restore();
}
void TileGrid::setNeedsDisplayInRect(const IntRect& rect)
{
if (m_tiles.isEmpty())
return;
FloatRect scaledRect(rect);
scaledRect.scale(m_scale);
IntRect repaintRectInTileCoords(enclosingIntRect(scaledRect));
IntSize tileSize = m_controller.tileSize();
// For small invalidations, lookup the covered tiles.
if (repaintRectInTileCoords.height() < 2 * tileSize.height() && repaintRectInTileCoords.width() < 2 * tileSize.width()) {
TileIndex topLeft;
TileIndex bottomRight;
getTileIndexRangeForRect(repaintRectInTileCoords, topLeft, bottomRight);
for (int y = topLeft.y(); y <= bottomRight.y(); ++y) {
for (int x = topLeft.x(); x <= bottomRight.x(); ++x) {
TileIndex tileIndex(x, y);
TileMap::iterator it = m_tiles.find(tileIndex);
if (it != m_tiles.end())
setTileNeedsDisplayInRect(tileIndex, it->value, repaintRectInTileCoords, m_primaryTileCoverageRect);
}
}
return;
}
for (TileMap::iterator it = m_tiles.begin(), end = m_tiles.end(); it != end; ++it)
setTileNeedsDisplayInRect(it->key, it->value, repaintRectInTileCoords, m_primaryTileCoverageRect);
}
void QgsLayoutReportSectionLabel::paint( QPainter *painter, const QStyleOptionGraphicsItem *, QWidget * )
{
if ( !mLayout || !mLayout->renderContext().isPreviewRender() )
{
//don't draw label in outputs
return;
}
if ( mLabel.isEmpty() )
return;
QFont f;
f.setPointSizeF( 8 );
QFontMetrics fm( f );
QSize s = fm.size( 0, mLabel );
double margin = fm.height() / 5.0;
double scaleValue = scale() / painter->transform().m11();
painter->save();
painter->setRenderHint( QPainter::Antialiasing, true );
painter->scale( scaleValue, scaleValue );
QRectF r = rect();
QRectF scaledRect( r.left() / scaleValue, r.top() / scaleValue, r.width() / scaleValue, r.height() / scaleValue );
if ( scaledRect.width() < s.width() + 2 * margin || scaledRect.height() < s.height() + 2 * margin )
{
// zoomed out too far to fully draw label inside item rect
return;
}
QRectF textRect = QRectF( scaledRect.left() + margin, scaledRect.top() + margin, scaledRect.width() - 2 * margin, scaledRect.height() - 2 * margin );
QRectF boxRect = QRectF( scaledRect.left(), scaledRect.bottom() - ( s.height() + 2 * margin ), s.width() + 2 * margin, s.height() + 2 * margin );
QPainterPath p;
p.moveTo( boxRect.bottomRight() );
p.lineTo( boxRect.right(), boxRect.top() + margin );
p.arcTo( boxRect.right() - 2 * margin, boxRect.top(), 2 * margin, 2 * margin, 0, 90 );
p.lineTo( boxRect.left() + margin, boxRect.top() );
p.arcTo( boxRect.left(), boxRect.top(), 2 * margin, 2 * margin, 90, 90 );
p.lineTo( boxRect.bottomLeft() );
p.lineTo( boxRect.bottomRight() );
painter->setPen( QColor( 150, 150, 150, 150 ) );
QLinearGradient g( 0, boxRect.top(), 0, boxRect.bottom() );
g.setColorAt( 0, QColor( 200, 200, 200, 150 ) );
g.setColorAt( 1, QColor( 150, 150, 150, 150 ) );
painter->setBrush( QBrush( g ) );
painter->drawPath( p );
painter->setPen( QPen( QColor( 0, 0, 0, 100 ) ) );
painter->setFont( f );
painter->drawText( textRect, Qt::AlignBottom, mLabel );
painter->restore();
}
void FrameView::addRect( const QRect& Rect, const QString& Description )
{
QRect scaledRect(Rect.x() * Scale, Rect.y() * Scale, Rect.width() * Scale, Rect.height() * Scale);
Scene->addRect(scaledRect, QPen(RectColor));
QGraphicsTextItem* label(Scene->addText(Description));
label->setPos(scaledRect.bottomLeft());
label->setDefaultTextColor(RectColor);
qint32 color(RectColor);
++color > Qt::yellow ? RectColor = Qt::red : RectColor = static_cast<Qt::GlobalColor>(color);
}
inline void FilterEffect::copyImageBytes(Uint8ClampedArray* source, Uint8ClampedArray* destination, const IntRect& rect)
{
IntRect scaledRect(rect);
scaledRect.scale(m_filter.filterScale());
IntSize scaledPaintSize(m_absolutePaintRect.size());
scaledPaintSize.scale(m_filter.filterScale());
if (!source || !destination)
return;
// Initialize the destination to transparent black, if not entirely covered by the source.
if (scaledRect.x() < 0 || scaledRect.y() < 0 || scaledRect.maxX() > scaledPaintSize.width() || scaledRect.maxY() > scaledPaintSize.height())
memset(destination->data(), 0, destination->length());
// Early return if the rect does not intersect with the source.
if (scaledRect.maxX() <= 0 || scaledRect.maxY() <= 0 || scaledRect.x() >= scaledPaintSize.width() || scaledRect.y() >= scaledPaintSize.height())
return;
int xOrigin = scaledRect.x();
int xDest = 0;
if (xOrigin < 0) {
xDest = -xOrigin;
xOrigin = 0;
}
int xEnd = scaledRect.maxX();
if (xEnd > scaledPaintSize.width())
xEnd = scaledPaintSize.width();
int yOrigin = scaledRect.y();
int yDest = 0;
if (yOrigin < 0) {
yDest = -yOrigin;
yOrigin = 0;
}
int yEnd = scaledRect.maxY();
if (yEnd > scaledPaintSize.height())
yEnd = scaledPaintSize.height();
int size = (xEnd - xOrigin) * 4;
int destinationScanline = scaledRect.width() * 4;
int sourceScanline = scaledPaintSize.width() * 4;
unsigned char *destinationPixel = destination->data() + ((yDest * scaledRect.width()) + xDest) * 4;
unsigned char *sourcePixel = source->data() + ((yOrigin * scaledPaintSize.width()) + xOrigin) * 4;
while (yOrigin < yEnd) {
memcpy(destinationPixel, sourcePixel, size);
destinationPixel += destinationScanline;
sourcePixel += sourceScanline;
++yOrigin;
}
}
void QgsDecorationGrid::drawText( QPainter* p, const QRectF& rect, const QString& text, const QFont& font, Qt::AlignmentFlag halignment, Qt::AlignmentFlag valignment ) const
{
QFont textFont = scaledFontPixelSize( font );
QRectF scaledRect( rect.x() * FONT_WORKAROUND_SCALE, rect.y() * FONT_WORKAROUND_SCALE,
rect.width() * FONT_WORKAROUND_SCALE, rect.height() * FONT_WORKAROUND_SCALE );
p->save();
p->setFont( textFont );
double scaleFactor = 1.0 / FONT_WORKAROUND_SCALE;
p->scale( scaleFactor, scaleFactor );
p->drawText( scaledRect, halignment | valignment | Qt::TextWordWrap, text );
p->restore();
}
cv::Rect_<int>
RoboyVision::convertFromScaledFrameToOriginalFrameCoordinates(cv::Rect_<int> rect)
{
int origX0 = originalFrame.size().width / 2;
int origY0 = originalFrame.size().height / 2;
int scaledX0 = scaledFrame.size().width / 2;
int scaledY0 = scaledFrame.size().height / 2;
int x0 = origX0 - (scaledX0 - rect.tl().x) / FRAME_SCALE;
int y0 = origY0 - (scaledY0 - rect.tl().y) / FRAME_SCALE;
int w = rect.size().width / FRAME_SCALE;
int h = rect.size().height / FRAME_SCALE;
cv::Rect_<int> scaledRect ( x0, y0, w, h );
return scaledRect;
}
void Render_SW_SDL::renderRect(float x, float y, float w, float h, GLfloat red, GLfloat green, GLfloat blue, GLfloat alpha, bool filled)
{
SDL_Rect aRect = scaledRect(x, y, w, h);
SDL_SetRenderDrawColor( m_gRenderer,
(unsigned char)(255.f*red),
(unsigned char)(255.f*green),
(unsigned char)(255.f*blue),
(unsigned char)(255.f*alpha)
);
if(filled)
{
SDL_RenderFillRect( m_gRenderer, &aRect );
} else {
SDL_RenderDrawRect( m_gRenderer, &aRect );
}
}
bool TileGrid::tilesWouldChangeForCoverageRect(const FloatRect& coverageRect) const
{
if (coverageRect.isEmpty())
return false;
FloatRect scaledRect(coverageRect);
scaledRect.scale(m_scale);
IntRect currentCoverageRectInTileCoords(enclosingIntRect(scaledRect));
TileIndex topLeft;
TileIndex bottomRight;
getTileIndexRangeForRect(currentCoverageRectInTileCoords, topLeft, bottomRight);
IntRect tileCoverageRect = rectForTileIndex(topLeft);
tileCoverageRect.unite(rectForTileIndex(bottomRight));
return tileCoverageRect != m_primaryTileCoverageRect;
}
void TileGrid::dropTilesInRect(const IntRect& rect)
{
if (m_tiles.isEmpty())
return;
FloatRect scaledRect(rect);
scaledRect.scale(m_scale);
IntRect dropRectInTileCoords(enclosingIntRect(scaledRect));
Vector<TileIndex> tilesToRemove;
for (auto& index : m_tiles.keys()) {
if (rectForTileIndex(index).intersects(dropRectInTileCoords))
tilesToRemove.append(index);
}
removeTiles(tilesToRemove);
}
static IntRect centerRectVerticallyInParentInputElement(const RenderObject& renderObject, const IntRect& rect)
{
// Get the renderer of <input> element.
Node* input = renderObject.node()->shadowHost();
if (!input)
input = renderObject.node();
if (!input->renderer()->isBox())
return IntRect();
// If possible center the y-coordinate of the rect vertically in the parent input element.
// We also add one pixel here to ensure that the y coordinate is rounded up for box heights
// that are even, which looks in relation to the box text.
IntRect inputContentBox = toRenderBox(input->renderer())->absoluteContentBox();
// Make sure the scaled decoration stays square and will fit in its parent's box.
int iconSize = std::min(inputContentBox.width(), std::min(inputContentBox.height(), rect.height()));
IntRect scaledRect(rect.x(), inputContentBox.y() + (inputContentBox.height() - iconSize + 1) / 2, iconSize, iconSize);
return scaledRect;
}
void detectAt(const int dx, const int dy, const Level& level, const ChannelStorage& storage, dvector& detections) const
{
float detectionScore = 0.f;
const Octave& octave = *(level.octave);
int stBegin = octave.index * octave.weaks, stEnd = stBegin + octave.weaks;
for(int st = stBegin; st < stEnd; ++st)
{
const Weak& weak = weaks[st];
int nId = st * 3;
// work with root node
const Node& node = nodes[nId];
const Feature& feature = features[node.feature];
cv::Rect scaledRect(feature.rect);
float threshold = level.rescale(scaledRect, node.threshold, (int)(feature.channel > 6)) * feature.rarea;
float sum = storage.get(feature.channel, scaledRect);
int next = (sum >= threshold)? 2 : 1;
// leaves
const Node& leaf = nodes[nId + next];
const Feature& fLeaf = features[leaf.feature];
scaledRect = fLeaf.rect;
threshold = level.rescale(scaledRect, leaf.threshold, (int)(fLeaf.channel > 6)) * fLeaf.rarea;
sum = storage.get(fLeaf.channel, scaledRect);
int lShift = (next - 1) * 2 + ((sum >= threshold) ? 1 : 0);
float impact = leaves[(st * 4) + lShift];
detectionScore += impact;
if (detectionScore <= weak.threshold) return;
}
if (detectionScore > 0)
level.addDetection(dx, dy, detectionScore, detections);
}
int16 GfxText32::getTextCount(const Common::String &text, const uint index, const Common::Rect &textRect, const bool doScaling) {
const int16 scriptWidth = g_sci->_gfxFrameout->getCurrentBuffer().scriptWidth;
const int16 scriptHeight = g_sci->_gfxFrameout->getCurrentBuffer().scriptHeight;
Common::Rect scaledRect(textRect);
if (doScaling) {
mulinc(scaledRect, Ratio(_xResolution, scriptWidth), Ratio(_yResolution, scriptHeight));
}
Common::String oldText = _text;
_text = text;
uint charIndex = index;
int16 maxWidth = scaledRect.width();
int16 lineCount = (scaledRect.height() - 2) / _font->getHeight();
while (lineCount--) {
getLongest(&charIndex, maxWidth);
}
_text = oldText;
return charIndex - index;
}
void SVGImage::drawSVGToImageBuffer(ImageBuffer* buffer, const IntSize& size, float zoom, float scale, ShouldClearBuffer shouldClear)
{
// FIXME: This doesn't work correctly with animations. If an image contains animations, that say run for 2 seconds,
// and we currently have one <img> that displays us. If we open another document referencing the same SVGImage it
// will display the document at a time where animations already ran - even though it has its own ImageBuffer.
// We currently don't implement SVGSVGElement::setCurrentTime, and can NOT go back in time, once animations started.
// There's no way to fix this besides avoiding style/attribute mutations from SVGAnimationElement.
ASSERT(buffer);
ASSERT(!size.isEmpty());
if (!m_page)
return;
Frame* frame = m_page->mainFrame();
SVGSVGElement* rootElement = static_cast<SVGDocument*>(frame->document())->rootElement();
if (!rootElement)
return;
RenderSVGRoot* renderer = toRenderSVGRoot(rootElement->renderer());
if (!renderer)
return;
// Draw image at requested size.
ImageObserver* observer = imageObserver();
ASSERT(observer);
// Temporarily reset image observer, we don't want to receive any changeInRect() calls due to this relayout.
setImageObserver(0);
// Disable repainting; we don't want deferred repaints to schedule any timers due to this relayout.
frame->view()->beginDisableRepaints();
renderer->setContainerSize(size);
frame->view()->resize(this->size());
if (zoom != 1)
frame->setPageZoomFactor(zoom);
// Eventually clear image buffer.
IntRect rect(IntPoint(), size);
FloatRect scaledRect(rect);
scaledRect.scale(scale);
if (shouldClear == ClearImageBuffer)
buffer->context()->clearRect(enclosingIntRect(scaledRect));
// Draw SVG on top of ImageBuffer.
draw(buffer->context(), enclosingIntRect(scaledRect), rect, ColorSpaceDeviceRGB, CompositeSourceOver);
// Reset container size & zoom to initial state. Otherwhise the size() of this
// image would return whatever last size was set by drawSVGToImageBuffer().
if (zoom != 1)
frame->setPageZoomFactor(1);
renderer->setContainerSize(IntSize());
frame->view()->resize(this->size());
if (frame->view()->needsLayout())
frame->view()->layout();
setImageObserver(observer);
frame->view()->endDisableRepaints();
}
void OverlayUser::updateLayout() {
QPixmap pm;
if (scene())
uiSize = iroundf(scene()->sceneRect().height() + 0.5);
prepareGeometryChange();
for (int i=0;i<4;++i)
qgpiName[i]->setPixmap(pm);
qgpiAvatar->setPixmap(pm);
qgpiChannel->setPixmap(pm);
{
QImageReader qir(QLatin1String("skin:muted_self.svg"));
QSize sz = qir.size();
sz.scale(SCALESIZE(MutedDeafened), Qt::KeepAspectRatio);
qir.setScaledSize(sz);
qgpiMuted->setPixmap(QPixmap::fromImage(qir.read()));
}
{
QImageReader qir(QLatin1String("skin:deafened_self.svg"));
QSize sz = qir.size();
sz.scale(SCALESIZE(MutedDeafened), Qt::KeepAspectRatio);
qir.setScaledSize(sz);
qgpiDeafened->setPixmap(QPixmap::fromImage(qir.read()));
}
qgpiMuted->setPos(alignedPosition(scaledRect(os->qrfMutedDeafened, uiSize * os->fZoom), qgpiMuted->boundingRect(), os->qaMutedDeafened));
qgpiMuted->setZValue(1.0f);
qgpiMuted->setOpacity(os->fMutedDeafened);
qgpiDeafened->setPos(alignedPosition(scaledRect(os->qrfMutedDeafened, uiSize * os->fZoom), qgpiDeafened->boundingRect(), os->qaMutedDeafened));
qgpiDeafened->setZValue(1.0f);
qgpiDeafened->setOpacity(os->fMutedDeafened);
qgpiAvatar->setPos(0.0f, 0.0f);
qgpiAvatar->setOpacity(os->fAvatar);
for (int i=0;i<4;++i) {
qgpiName[i]->setPos(0.0f, 0.0f);
qgpiName[i]->setZValue(2.0f);
qgpiName[i]->setOpacity(os->fUserName);
}
qgpiChannel->setPos(0.0f, 0.0f);
qgpiChannel->setZValue(3.0f);
qgpiChannel->setOpacity(os->fChannel);
QRectF childrenBounds = os->qrfAvatar | os->qrfChannel | os->qrfMutedDeafened | os->qrfUserName;
bool haspen = (os->qcBoxPen != os->qcBoxFill) && (! qFuzzyCompare(os->qcBoxPen.alphaF(), static_cast<qreal>(0.0f)));
qreal pw = haspen ? qMax<qreal>(1.0f, os->fBoxPenWidth * uiSize * os->fZoom) : 0.0f;
qreal pad = os->fBoxPad * uiSize * os->fZoom;
QPainterPath pp;
pp.addRoundedRect(childrenBounds.x() * uiSize * os->fZoom + -pw / 2.0f - pad, childrenBounds.y() * uiSize * os->fZoom + -pw / 2.0f - pad, childrenBounds.width() * uiSize * os->fZoom + pw + 2.0f * pad, childrenBounds.height() * uiSize * os->fZoom + pw + 2.0f * pad, 2.0f * pw, 2.0f * pw);
qgpiBox->setPath(pp);
qgpiBox->setPos(0.0f, 0.0f);
qgpiBox->setZValue(-1.0f);
qgpiBox->setPen(haspen ? QPen(os->qcBoxPen, pw) : Qt::NoPen);
qgpiBox->setBrush(qFuzzyCompare(os->qcBoxFill.alphaF(), static_cast<qreal>(0.0f)) ? Qt::NoBrush : os->qcBoxFill);
qgpiBox->setOpacity(1.0f);
if (! cuUser) {
switch (tsColor) {
case Settings::Passive:
qsName = Overlay::tr("Silent");
break;
case Settings::Talking:
qsName = Overlay::tr("Talking");
break;
case Settings::Whispering:
qsName = Overlay::tr("Whisper");
break;
case Settings::Shouting:
qsName = Overlay::tr("Shout");
break;
}
}
}
void OverlayUser::updateUser() {
if (os->bUserName && (qgpiName[0]->pixmap().isNull() || (cuUser && (qsName != cuUser->qsName)))) {
if (cuUser)
qsName = cuUser->qsName;
OverlayTextLine tl(qsName, os->qfUserName);
for (int i=0; i<4; ++i) {
const QPixmap &pm = tl.createPixmap(SCALESIZE(UserName), os->qcUserName[i]);
qgpiName[i]->setPixmap(pm);
if (i == 0)
qgpiName[0]->setPos(alignedPosition(scaledRect(os->qrfUserName, uiSize * os->fZoom), qgpiName[0]->boundingRect(), os->qaUserName));
else
qgpiName[i]->setPos(qgpiName[0]->pos());
}
}
if (os->bChannel && (qgpiChannel->pixmap().isNull() || (cuUser && (qsChannelName != cuUser->cChannel->qsName)))) {
if (cuUser)
qsChannelName = cuUser->cChannel->qsName;
const QPixmap &pm = OverlayTextLine(qsChannelName, os->qfChannel).createPixmap(SCALESIZE(Channel), os->qcChannel);
qgpiChannel->setPixmap(pm);
qgpiChannel->setPos(alignedPosition(scaledRect(os->qrfChannel, uiSize * os->fZoom), qgpiChannel->boundingRect(), os->qaChannel));
}
if (os->bAvatar && (qgpiAvatar->pixmap().isNull() || (cuUser && (qbaAvatar != cuUser->qbaTextureHash)))) {
if (cuUser)
qbaAvatar = cuUser->qbaTextureHash;
QImage img;
if (! qbaAvatar.isNull() && cuUser->qbaTexture.isEmpty()) {
g.o->requestTexture(cuUser);
} else if (qbaAvatar.isNull()) {
QImageReader qir(QLatin1String("skin:default_avatar.svg"));
QSize sz = qir.size();
sz.scale(SCALESIZE(Avatar), Qt::KeepAspectRatio);
qir.setScaledSize(sz);
img = qir.read();
} else {
QBuffer qb(& cuUser->qbaTexture);
qb.open(QIODevice::ReadOnly);
QImageReader qir(&qb, cuUser->qbaTextureFormat);
QSize sz = qir.size();
sz.scale(SCALESIZE(Avatar), Qt::KeepAspectRatio);
qir.setScaledSize(sz);
img = qir.read();
}
qgpiAvatar->setPixmap(QPixmap::fromImage(img));
qgpiAvatar->setPos(alignedPosition(scaledRect(os->qrfAvatar, uiSize * os->fZoom), qgpiAvatar->boundingRect(), os->qaAvatar));
}
qgpiAvatar->setVisible(os->bAvatar);
if (cuUser) {
ClientUser *self = ClientUser::get(g.uiSession);
if (os->bMutedDeafened) {
if (cuUser->bDeaf || cuUser->bSelfDeaf) {
qgpiMuted->hide();
qgpiDeafened->show();
} else if (cuUser->bMute || cuUser->bSelfMute || cuUser->bLocalMute || cuUser->bSuppress) {
qgpiMuted->show();
qgpiDeafened->hide();
} else {
qgpiMuted->hide();
qgpiDeafened->hide();
}
} else {
qgpiMuted->hide();
qgpiDeafened->hide();
}
bool samechannel = self && (self->cChannel == cuUser->cChannel);
qgpiChannel->setVisible(os->bChannel && ! samechannel);
tsColor = cuUser->tsState;
} else {
qgpiChannel->setVisible(os->bChannel && (tsColor != Settings::Passive) && (tsColor != Settings::Talking));
qgpiMuted->setVisible(os->bChannel);
qgpiDeafened->hide();
}
if (os->bUserName)
for (int i=0;i<4;++i)
qgpiName[i]->setVisible(i == tsColor);
else
for (int i=0;i<4;++i)
qgpiName[i]->setVisible(false);
qgpiBox->setVisible(os->bBox);
setOpacity(os->fUser[tsColor]);
}
IntRect TileGrid::ensureTilesForRect(const FloatRect& rect, CoverageType newTileType)
{
if (m_controller.unparentsOffscreenTiles() && !m_controller.isInWindow())
return IntRect();
FloatRect scaledRect(rect);
scaledRect.scale(m_scale);
IntRect rectInTileCoords(enclosingIntRect(scaledRect));
TileIndex topLeft;
TileIndex bottomRight;
getTileIndexRangeForRect(rectInTileCoords, topLeft, bottomRight);
TileCohort currCohort = nextTileCohort();
unsigned tilesInCohort = 0;
IntRect coverageRect;
for (int y = topLeft.y(); y <= bottomRight.y(); ++y) {
for (int x = topLeft.x(); x <= bottomRight.x(); ++x) {
TileIndex tileIndex(x, y);
IntRect tileRect = rectForTileIndex(tileIndex);
TileInfo& tileInfo = m_tiles.add(tileIndex, TileInfo()).iterator->value;
coverageRect.unite(tileRect);
bool shouldChangeTileLayerFrame = false;
if (!tileInfo.layer) {
tileInfo.layer = m_controller.createTileLayer(tileRect, *this);
ASSERT(!m_tileRepaintCounts.contains(tileInfo.layer.get()));
} else {
// We already have a layer for this tile. Ensure that its size is correct.
FloatSize tileLayerSize(tileInfo.layer->bounds().size());
shouldChangeTileLayerFrame = tileLayerSize != FloatSize(tileRect.size());
if (shouldChangeTileLayerFrame) {
tileInfo.layer->setBounds(FloatRect(FloatPoint(), tileRect.size()));
tileInfo.layer->setPosition(tileRect.location());
tileInfo.layer->setNeedsDisplay();
}
}
if (newTileType == CoverageType::SecondaryTiles && !tileRect.intersects(m_primaryTileCoverageRect)) {
tileInfo.cohort = currCohort;
++tilesInCohort;
}
bool shouldParentTileLayer = (!m_controller.unparentsOffscreenTiles() || m_controller.isInWindow()) && !tileInfo.layer->superlayer();
if (shouldParentTileLayer)
m_containerLayer.get().appendSublayer(*tileInfo.layer);
}
}
if (tilesInCohort)
startedNewCohort(currCohort);
return coverageRect;
}
void TileGrid::revalidateTiles(TileValidationPolicy validationPolicy)
{
FloatRect coverageRect = m_controller.coverageRect();
IntRect bounds = m_controller.bounds();
if (coverageRect.isEmpty() || bounds.isEmpty())
return;
FloatRect scaledRect(coverageRect);
scaledRect.scale(m_scale);
IntRect coverageRectInTileCoords(enclosingIntRect(scaledRect));
TileCohort currCohort = nextTileCohort();
unsigned tilesInCohort = 0;
double minimumRevalidationTimerDuration = std::numeric_limits<double>::max();
bool needsTileRevalidation = false;
// Move tiles newly outside the coverage rect into the cohort map.
for (TileMap::iterator it = m_tiles.begin(), end = m_tiles.end(); it != end; ++it) {
TileInfo& tileInfo = it->value;
TileIndex tileIndex = it->key;
PlatformCALayer* tileLayer = tileInfo.layer.get();
IntRect tileRect = rectForTileIndex(tileIndex);
if (tileRect.intersects(coverageRectInTileCoords)) {
tileInfo.cohort = VisibleTileCohort;
if (tileInfo.hasStaleContent) {
// FIXME: store a dirty region per layer?
tileLayer->setNeedsDisplay();
tileInfo.hasStaleContent = false;
}
} else {
// Add to the currentCohort if not already in one.
if (tileInfo.cohort == VisibleTileCohort) {
tileInfo.cohort = currCohort;
++tilesInCohort;
if (m_controller.unparentsOffscreenTiles())
tileLayer->removeFromSuperlayer();
} else if (m_controller.unparentsOffscreenTiles() && m_controller.shouldAggressivelyRetainTiles() && tileLayer->superlayer()) {
// Aggressive tile retention means we'll never remove cohorts, but we need to make sure they're unparented.
// We can't immediately unparent cohorts comprised of secondary tiles that never touch the primary coverage rect,
// because that would defeat the usefulness of prepopulateRect(); instead, age prepopulated tiles out as if they were being removed.
for (auto& cohort : m_cohortList) {
if (cohort.cohort != tileInfo.cohort)
continue;
double timeUntilCohortExpires = cohort.timeUntilExpiration();
if (timeUntilCohortExpires > 0) {
minimumRevalidationTimerDuration = std::min(minimumRevalidationTimerDuration, timeUntilCohortExpires);
needsTileRevalidation = true;
} else
tileLayer->removeFromSuperlayer();
break;
}
}
}
}
if (needsTileRevalidation)
m_controller.scheduleTileRevalidation(minimumRevalidationTimerDuration);
if (tilesInCohort)
startedNewCohort(currCohort);
if (!m_controller.shouldAggressivelyRetainTiles()) {
if (m_controller.shouldTemporarilyRetainTileCohorts())
scheduleCohortRemoval();
else if (tilesInCohort)
removeTilesInCohort(currCohort);
}
// Ensure primary tile coverage tiles.
m_primaryTileCoverageRect = ensureTilesForRect(coverageRect, CoverageType::PrimaryTiles);
if (validationPolicy & PruneSecondaryTiles) {
removeAllSecondaryTiles();
m_cohortList.clear();
} else {
for (auto& secondaryCoverageRect : m_secondaryTileCoverageRects) {
FloatRect secondaryRectInLayerCoordinates(secondaryCoverageRect);
secondaryRectInLayerCoordinates.scale(1 / m_scale);
ensureTilesForRect(secondaryRectInLayerCoordinates, CoverageType::SecondaryTiles);
}
m_secondaryTileCoverageRects.clear();
}
if (m_controller.unparentsOffscreenTiles() && (validationPolicy & UnparentAllTiles)) {
for (TileMap::iterator it = m_tiles.begin(), end = m_tiles.end(); it != end; ++it)
it->value.layer->removeFromSuperlayer();
}
auto boundsAtLastRevalidate = m_controller.boundsAtLastRevalidate();
if (boundsAtLastRevalidate != bounds) {
// If there are margin tiles and the bounds have grown taller or wider, then the tiles that used to
// be bottom or right margin tiles need to be invalidated.
if (m_controller.hasMargins()) {
if (bounds.width() > boundsAtLastRevalidate.width() || bounds.height() > boundsAtLastRevalidate.height()) {
IntRect boundsWithoutMargin = m_controller.boundsWithoutMargin();
IntRect oldBoundsWithoutMargin = m_controller.boundsAtLastRevalidateWithoutMargin();
if (bounds.height() > boundsAtLastRevalidate.height()) {
IntRect formerBottomMarginRect = IntRect(oldBoundsWithoutMargin.x(), oldBoundsWithoutMargin.height(),
oldBoundsWithoutMargin.width(), boundsWithoutMargin.height() - oldBoundsWithoutMargin.height());
setNeedsDisplayInRect(formerBottomMarginRect);
}
if (bounds.width() > boundsAtLastRevalidate.width()) {
IntRect formerRightMarginRect = IntRect(oldBoundsWithoutMargin.width(), oldBoundsWithoutMargin.y(),
boundsWithoutMargin.width() - oldBoundsWithoutMargin.width(), oldBoundsWithoutMargin.height());
setNeedsDisplayInRect(formerRightMarginRect);
}
}
}
FloatRect scaledBounds(bounds);
scaledBounds.scale(m_scale);
IntRect boundsInTileCoords(enclosingIntRect(scaledBounds));
TileIndex topLeftForBounds;
TileIndex bottomRightForBounds;
getTileIndexRangeForRect(boundsInTileCoords, topLeftForBounds, bottomRightForBounds);
Vector<TileIndex> tilesToRemove;
for (auto& index : m_tiles.keys()) {
if (index.y() < topLeftForBounds.y() || index.y() > bottomRightForBounds.y() || index.x() < topLeftForBounds.x() || index.x() > bottomRightForBounds.x())
tilesToRemove.append(index);
}
removeTiles(tilesToRemove);
}
m_controller.didRevalidateTiles();
}