void AdaptAver::adArAv(int curx, int cury, int powerX, int powerY)
{ //Adaptive Arithmetic Average
//qDebug() << "adarav";
QList<int> proxArrayR; //массивы пикселей окрестности точки
QList<int> proxArrayG; //для трёх цветов (red, green, blue)
QList<int> proxArrayB;
for (int y = cury - powerY; y <= cury+ powerY; y++)
for (int x = curx - powerX; x <= curx+ powerX; x++)
{//проверяем окрестные пиксели
if ((0 <= x && x <= image.width()-1) && (0 <= y && y <= image.height()-1))
{ //записываем значения
QColor pixel = image.pixel(x, y);
proxArrayR.append(pixel.red());
proxArrayG.append(pixel.green());
proxArrayB.append(pixel.blue());
}
else { //если мы за пределами картинки - записываем чёрный цвет
proxArrayR.append(0);
proxArrayG.append(0);
proxArrayB.append(0);
}
}
QColor pixel = image.pixel(curx, cury);//(QColor(0, 0, 0, 255)); //makin a pixel
int aveRed = listAverage(proxArrayR); //устанавливаем значение его цветов равным
int aveGreen = listAverage(proxArrayG);//среднему арифметическому массива ближайших пикселей
int aveBlue = listAverage(proxArrayB);
double dispRed = listDisp(proxArrayR, aveRed); //считаем дисперсии значений этих массивов
double dispGreen = listDisp(proxArrayG, aveGreen);
double dispBlue = listDisp(proxArrayB, aveBlue);
if (dispNoise > dispRed) //если значение дисперсии шума выше, чем дисперсия массива окрестности
pixel.setRed(aveRed); //фильтр работает как фильтр арифметического среднего
if (dispNoise <= dispRed) //иначе значение задается по формуле z' = z - (Dшум/Dz)*(z - u), u - локальное среднее яркости пикселей
pixel.setRed(pixel.red()- (dispNoise/dispRed)*(pixel.red()-aveRed));
if (dispNoise > dispGreen)
pixel.setGreen(aveGreen);
if (dispNoise <= dispGreen)
pixel.setGreen(pixel.green()- (dispNoise/dispGreen)*(pixel.green()-aveGreen));
if (dispNoise > dispBlue)
pixel.setBlue(aveBlue);
if (dispNoise <= dispBlue)
pixel.setBlue(pixel.blue()- (dispNoise/dispBlue)*(pixel.blue()-aveBlue));
if ((0 <= curx && curx <= image.width()-1) && (0 <= cury && cury <= image.height()-1))
result.setPixel(curx, cury, pixel.rgb()); //записываем значение в результат
}
void Widget::SetColor(double cosDifuse,double cosSpecular)
{
// qDebug() << cosDifuse;
if (cosDifuse < 0) {cosDifuse = 0;}
if (cosSpecular < 0) {cosSpecular = 0 ;}
double red,green,blue;
red = color_anbient.red()/255.0+
cosDifuse*color_diffuse.red()/255.0+
// pow(cosSpecular*color_specular.red()/255.0,intense);
cosSpecular*color_specular.red()/255.0;
color.setRed(max(0,min(red*255,255)));
green = color_anbient.green()/255.0+
cosDifuse*color_diffuse.green()/255.0+
// pow(cosSpecular*color_specular.green()/255.0,intense);
cosSpecular*color_specular.green()/255.0;
color.setGreen(max(0,min(green*255,255)));
blue = color_anbient.blue()/255.0+
cosDifuse*color_diffuse.blue()/255.0+
// pow(cosSpecular*color_specular.blue()/255.0,intense);
cosSpecular*color_specular.blue()/255.0;
color.setBlue(max(0,min(blue*255,255)));
}
void QgsColorWidget::alterColor( QColor& color, const QgsColorWidget::ColorComponent component, const int newValue ) const
{
int h, s, v, a;
color.getHsv( &h, &s, &v, &a );
//clip value to sensible range
int clippedValue = qMin( qMax( 0, newValue ), componentRange( component ) );
switch ( component )
{
case QgsColorWidget::Red:
color.setRed( clippedValue );
return;
case QgsColorWidget::Green:
color.setGreen( clippedValue );
return;
case QgsColorWidget::Blue:
color.setBlue( clippedValue );
return;
case QgsColorWidget::Hue:
color.setHsv( clippedValue, s, v, a );
return;
case QgsColorWidget::Saturation:
color.setHsv( h, clippedValue, v, a );
return;
case QgsColorWidget::Value:
color.setHsv( h, s, clippedValue, a );
return;
case QgsColorWidget::Alpha:
color.setAlpha( clippedValue );
return;
default:
return;
}
}
void MIPS32SyntaxHighlighter::setBackgroundColor(QColor const &color){
MIPS32SyntaxHighlighter::backgroundColor = color;
int red = color.red();
int blue = color.blue();
int green = color.green();
int offset = (int)(DEFAULT_COLOR_BACKGROUND_HIGHLIGHT_RATIO * 256.0);
if(offset < 0){
if(red+offset < 0){red-=offset;}else{red+=offset;}
if(green+offset < 0){green-=offset;}else{green+=offset;}
if(blue+offset < 0){blue-=offset;}else{blue+=offset;}
}else if(offset > 0){
if(red+offset > 255){red-=offset;}else{red+=offset;}
if(green+offset > 255){green-=offset;}else{green+=offset;}
if(blue+offset > 255){blue-=offset;}else{blue+=offset;}
}else{
//don't change color
}
QColor tmpColor;
tmpColor.setRed(red);
tmpColor.setBlue(blue);
tmpColor.setGreen(green);
MIPS32SyntaxHighlighter::backgroundHighlightColor = tmpColor;
}
QColor ColorMappingGenerator::GetColor(ColorMappingType color_type, float current_value, float min_value, float max_value){
float value = current_value;
if ( value < min_value ) value = min_value;
if ( value > max_value ) value = max_value;
if ( value < color_index_vec_[color_type][0].value_index ) value = color_index_vec_[color_type][0].value_index;
if ( value > color_index_vec_[color_type][color_index_vec_[color_type].size() - 1].value_index ) value = color_index_vec_[color_type][color_index_vec_[color_type].size() - 1].value_index;
int current_index = 0;
while ( current_index < color_index_vec_[color_type].size() && value > color_index_vec_[color_type][current_index].value_index ) current_index++;
if ( current_index == 0 )
return color_index_vec_[color_type][0].color;
else {
QColor color;
if ( is_linear_[color_type] ){
float scale = (color_index_vec_[color_type][current_index].value_index - value) / (color_index_vec_[color_type][current_index].value_index - color_index_vec_[color_type][current_index - 1].value_index);
color.setRed(scale * color_index_vec_[color_type][current_index - 1].color.red() + (1.0 - scale) * color_index_vec_[color_type][current_index].color.red());
color.setGreen(scale * color_index_vec_[color_type][current_index - 1].color.green() + (1.0 - scale) * color_index_vec_[color_type][current_index].color.green());
color.setBlue(scale * color_index_vec_[color_type][current_index - 1].color.blue() + (1.0 - scale) * color_index_vec_[color_type][current_index].color.blue());
} else {
color = color_index_vec_[color_type][current_index - 1].color;
}
return color;
}
}
void RedEyeReductionImageOperation::apply(QImage* img, const QRectF& rectF)
{
const QRect rect = PaintUtils::containingRect(rectF);
const qreal radius = rectF.width() / 2;
const qreal centerX = rectF.x() + radius;
const qreal centerY = rectF.y() + radius;
const Ramp radiusRamp(qMin(double(radius * 0.7), double(radius - 1)), radius, 1., 0.);
uchar* line = img->scanLine(rect.top()) + rect.left() * 4;
for (int y = rect.top(); y < rect.bottom(); ++y, line += img->bytesPerLine()) {
QRgb* ptr = (QRgb*)line;
for (int x = rect.left(); x < rect.right(); ++x, ++ptr) {
const qreal currentRadius = sqrt(pow(y - centerY, 2) + pow(x - centerX, 2));
qreal alpha = radiusRamp(currentRadius);
if (qFuzzyCompare(alpha, 0)) {
continue;
}
const QColor src(*ptr);
alpha *= computeRedEyeAlpha(src);
int r = src.red();
int g = src.green();
int b = src.blue();
QColor dst;
// Replace red with green, and blend according to alpha
dst.setRed(int((1 - alpha) * r + alpha * g));
dst.setGreen(int((1 - alpha) * g + alpha * g));
dst.setBlue(int((1 - alpha) * b + alpha * b));
*ptr = dst.rgba();
}
}
}
void EyedropperTool::mouseReleaseEvent(QMouseEvent *event)
{
Layer* layer = mEditor->layers()->currentLayer();
if (layer == NULL) { return; }
if (event->button() == Qt::LeftButton)
{
if (layer->type() == Layer::BITMAP)
{
BitmapImage* targetImage = ((LayerBitmap *)layer)->getLastBitmapImageAtFrame( mEditor->currentFrame(), 0);
//QColor pickedColour = targetImage->pixel(getLastPoint().x(), getLastPoint().y());
QColor pickedColour;
pickedColour.setRgba( targetImage->pixel( getLastPoint().x(), getLastPoint().y() ) );
int transp = 255 - pickedColour.alpha();
pickedColour.setRed( pickedColour.red() + transp );
pickedColour.setGreen( pickedColour.green() + transp );
pickedColour.setBlue( pickedColour.blue() + transp );
if (pickedColour.alpha() != 0)
{
mEditor->color()->setColor(pickedColour);
}
}
else if (layer->type() == Layer::VECTOR)
{
VectorImage *vectorImage = ((LayerVector *)layer)->getLastVectorImageAtFrame(mEditor->currentFrame(), 0);
int colourNumber = vectorImage->getColourNumber(getLastPoint());
if (colourNumber != -1)
{
mEditor->color()->setColorNumber(colourNumber);
}
}
}
}
QColor Viewport::determineColor(const QColor &basecolor,
float weight, float totalweight,
bool highlighted, bool single)
{
QColor color = basecolor;
qreal alpha;
/* TODO: this is far from optimal yet. challenge is to give a good
view where important information is not lost, yet not clutter
the view with too much low-weight information */
/* logarithm is used to prevent single data points to get lost.
this should be configurable. */
alpha = useralpha;
if (drawLog->isChecked())
alpha *= (0.01 + 0.99*(std::log(weight+1) / std::log(totalweight)));
else
alpha *= (0.01 + 0.99*(weight / totalweight));
color.setAlphaF(std::min(alpha, 1.)); // cap at 1
if (highlighted) {
if (basecolor == Qt::white) {
color = Qt::yellow;
} else {
color.setGreen(std::min(color.green() + 195, 255));
color.setRed(std::min(color.red() + 195, 255));
color.setBlue(color.blue()/2);
}
color.setAlphaF(1.);
}
// recolor singleLabel (and make 100% opaque)
if (single) {
color.setRgbF(1., 1., 0., 1.);
}
return color;
}
//render the square on the screen
void Square::paint(QPainter *painter, const QStyleOptionGraphicsItem *, QWidget *)
{
QColor color;
if(selected)
{
//if the user clicked it, draw it purple
color.setBlue(100); color.setRed(100); color.setGreen(0);
}
else
{
//otherwise draw it white
color.setBlue(255); color.setRed(255); color.setGreen(255);
}
painter->setBrush(color);
painter->drawRect(xcoor1,ycoor1,xcoor2-xcoor1,ycoor2-ycoor1);
}
static QColor Vec3ToQColor(idVec3 v) {
QColor c;
c.setRed( static_cast<int>(v.x * 255) );
c.setGreen( static_cast<int>(v.y * 255) );
c.setBlue( static_cast<int>(v.z * 255) );
return c;
}
QColor KDReports::XmlHelper::readBackground( const QDomElement& element )
{
QColor ret;
if ( element.hasAttribute( QLatin1String( "background" ) ) ) {
const QString name = element.attribute( QLatin1String( "background" ) );
ret = QColor( name );
} else if( element.hasAttribute( QLatin1String( "bgred" ) ) &&
element.hasAttribute( QLatin1String( "bggreen" ) ) &&
element.hasAttribute( QLatin1String( "bgblue" ) ) ) {
int red = 0, green = 0, blue = 0;
bool ok = true;
red = element.attribute( QLatin1String( "bgred" ) ).toInt( &ok );
if( ok ) {
green = element.attribute( QLatin1String( "bggreen" ) ).toInt( &ok );
if( ok ) {
blue = element.attribute( QLatin1String( "bgblue" ) ).toInt( &ok );
if( ok ) {
ret.setRed( red );
ret.setGreen( green );
ret.setBlue( blue );
}
}
}
}
return ret;
}
void Renderer::initialize(xqtgl::window* surface)
{
m_backgroundColor = QColor::fromRgbF(0.1f, 0.1f, 0.2f, 1.0f);
m_backgroundColor.setRed(qrand() % 64);
m_backgroundColor.setGreen(qrand() % 128);
m_backgroundColor.setBlue(qrand() % 256);
}
QColor ColorWidget::TranslateToQColor(const float3 color)
{
QColor qcolor;
qcolor.setRed(color[0]);
qcolor.setGreen(color[1]);
qcolor.setBlue(color[2]);
return qcolor;
}
QColor readColor(QDomElement e)
{
QColor c;
c.setRed(e.attribute("r").toInt());
c.setGreen(e.attribute("g").toInt());
c.setBlue(e.attribute("b").toInt());
return c;
}
QColor Style::mergeColors(const QColor &colorA, const QColor &colorB, int factor) const
{
QColor tmp = colorA;
tmp.setRed((tmp.red() * factor) / maxFactor + (colorB.red() * (maxFactor - factor)) / maxFactor);
tmp.setGreen((tmp.green() * factor) / maxFactor + (colorB.green() * (maxFactor - factor)) / maxFactor);
tmp.setBlue((tmp.blue() * factor) / maxFactor + (colorB.blue() * (maxFactor - factor)) / maxFactor);
return tmp;
}
static void dampColors(QColor &col)
{
//Reduce the colors that are less visible to the eye, because they are closer to black when it comes to contrast
//The most significant color to the eye is green. Then comes red, and then blue, with blue _much_ less significant.
col.setBlue(0);
col.setRed(col.red() / 2);
}
void MainWindow::colorImage()
{
int x, y;
Mat image;
QColor color;
QFileDialog *dialog = new QFileDialog();
dialog->setNameFilter("PNG Files (*.png)");
dialog->setOption(QFileDialog::ReadOnly);
//dialog->setOption(QFileDialog::DontUseNativeDialog);
dialog->setDirectory(".");
QStringList fileNames;
if (dialog->exec()) {
fileNames = dialog->selectedFiles();
QString fileName = fileNames.at(0);
image = imread(fileName.toStdString(), CV_LOAD_IMAGE_COLOR);
for( y=0; y!=image.rows; ++y) {
if((y%2) == 0) {
for(x=0;x!=image.cols;++x) {
color.setBlue(image.data[((y*image.cols)+x)*3]);
color.setGreen(image.data[((y*image.cols)+x)*3+1]);
color.setRed(image.data[((y*image.cols)+x)*3+2]);
motorControl.setLedColor(color);
motorControl.commandMotor1(3, -4);
}
} else {
for(x=image.cols-1;x!=-1;--x) {
color.setBlue(image.data[((y*image.cols)+x)*3]);
color.setGreen(image.data[((y*image.cols)+x)*3+1]);
color.setRed(image.data[((y*image.cols)+x)*3+2]);
motorControl.setLedColor(color);
motorControl.commandMotor1(3, 4);
}
}
motorControl.commandMotor2(6, -4);
}
color.setRed(0);
color.setGreen(0);
color.setBlue(0);
motorControl.setLedColor(color);
motorControl.releaseMotor1();
motorControl.releaseMotor2();
}
}
void GrBar::hoverEnterEvent(QGraphicsSceneHoverEvent *pe){
QApplication::setOverrideCursor( Qt::PointingHandCursor );
QColor color = brushList.at(curIndexBrush).color();
color.setRed( color.red()/2 );
color.setGreen( color.green()/2 );
color.setBlue( color.blue()/2 );
brushList[curIndexBrush].setColor( color );
QGraphicsItem::hoverEnterEvent( pe );
}
void QtGradientStopsControllerPrivate::slotChangeValue(int color)
{
QColor c = m_ui->valueColorLine->color();
if (m_ui->hsvRadioButton->isChecked())
c.setHsvF(c.hueF(), c.saturationF(), (qreal)color / 255, c.alphaF());
else
c.setBlue(color);
slotChangeValue(c);
}
void GrBar::hoverLeaveEvent(QGraphicsSceneHoverEvent *pe){
QApplication::restoreOverrideCursor();
QColor color = brushList.at(curIndexBrush).color();
color.setRed( color.red()*2 );
color.setGreen( color.green()*2 );
color.setBlue( color.blue()*2 );
brushList[curIndexBrush].setColor( color );
QGraphicsItem::hoverLeaveEvent( pe );
}
QString QmitkStdMultiWidgetEditor::MitkColorToHex(const mitk::Color& color)
{
QColor returnColor;
float colorMax = 255.0f;
returnColor.setRed(static_cast<int>(color[0]* colorMax + 0.5));
returnColor.setGreen(static_cast<int>(color[1]* colorMax + 0.5));
returnColor.setBlue(static_cast<int>(color[2]* colorMax + 0.5));
return returnColor.name();
}
QColor StyleHelper::mergedColors(const QColor &colorA, const QColor &colorB, int factor)
{
const int maxFactor = 100;
QColor tmp = colorA;
tmp.setRed((tmp.red() * factor) / maxFactor + (colorB.red() * (maxFactor - factor)) / maxFactor);
tmp.setGreen((tmp.green() * factor) / maxFactor + (colorB.green() * (maxFactor - factor)) / maxFactor);
tmp.setBlue((tmp.blue() * factor) / maxFactor + (colorB.blue() * (maxFactor - factor)) / maxFactor);
return tmp;
}
QColor readColor(const QDomElement& e)
{
QColor c;
c.setRed(e.attribute("r").toInt());
c.setGreen(e.attribute("g").toInt());
c.setBlue(e.attribute("b").toInt());
c.setAlpha(e.attribute("a", "255").toInt());
return c;
}
private: void setColourForIteration(QColor &farbe, int iter) {
if(model->getIterationen() == iter) {
farbe.setRed(0);
farbe.setGreen(0);
farbe.setBlue(0);
return;
}
double anteil = (double)iter / (double)model->getIterationen();
int r = getFarbAnteilMitDif(anteil, farbenMaske[0]);
int g = getFarbAnteilMitDif(anteil, farbenMaske[1]);
int b = getFarbAnteilMitDif(anteil, farbenMaske[2]);
farbe.setRed(r);
farbe.setGreen(g);
farbe.setBlue(b);
}
QColor fromARGBString(const QString &c)
{
Q_ASSERT(c.length() == 8);
QColor color;
color.setRed(c.mid(2, 2).toInt(0, 16));
color.setGreen(c.mid(4, 2).toInt(0, 16));
color.setBlue(c.mid(6, 2).toInt(0, 16));
return color;
}
void TreeOutputItem::setCaption()
{
QColor col = QApplication::palette(static_cast<const QWidget *>(NULL)).color(QPalette::Button);
setFont(0, QFont("Sans", 12));
if ( Source == m_role ) {
col.setBlue(0);
setBackground(0, QBrush(col));
setText(0, m_caption);
}
else if ( EnabledSink == m_role ) {
col.setBlue(0);
setBackground(0, QBrush(col));
setText(0, tr("☑ %0").arg(m_caption));
}
else {
setBackground(0, QBrush(col));
setText(0, tr("☐ %0").arg(m_caption));
}
}
QColor ZPunctum::highlightingColor(const QColor &color) const
{
QColor highlight;
highlight.setRed(imin2(255, color.red() + 96));
highlight.setGreen(imin2(255, color.green() + 96));
highlight.setBlue(imin2(255, color.blue() + 96));
return highlight;
}
// Mix colors a and b with a ratio in the range [0-255]
QColor QCommandLinkButtonPrivate::mergedColors(const QColor &a, const QColor &b, int value = 50) const
{
Q_ASSERT(value >= 0);
Q_ASSERT(value <= 255);
QColor tmp = a;
tmp.setRed((tmp.red() * value) / 255 + (b.red() * (255 - value)) / 255);
tmp.setGreen((tmp.green() * value) / 255 + (b.green() * (255 - value)) / 255);
tmp.setBlue((tmp.blue() * value) / 255 + (b.blue() * (255 - value)) / 255);
return tmp;
}
QColor DetailSection::ColorFromString(QString s)
{
QStringList l= s.split(",");
QColor c;
c.setRed(l.at(0).toDouble());
c.setGreen(l.at(1).toDouble());
c.setBlue(l.at(2).toDouble());
c.setAlpha(l.at(3).toDouble());
return c;
}
QColor XmlReader::readColor()
{
Q_ASSERT(tokenType() == QXmlStreamReader::StartElement);
QColor c;
c.setRed(intAttribute("r"));
c.setGreen(intAttribute("g"));
c.setBlue(intAttribute("b"));
c.setAlpha(intAttribute("a", 255));
skipCurrentElement();
return c;
}