void MaterialServer::completeDraw( Tempest::Device & device,
const Scene &scene,
GBuffer &g,
Tempest::Texture2d* screen,
Tempest::Texture2d* depth,
ShaderMaterial::UniformsContext& context,
ShaderMaterial::UniformsContext& econtext ) {
Mat *waterM = mat[water].get();
Tempest::Texture2d buf, *rTaget = screen;
if( screen && settings.api==GraphicsSettingsWidget::Settings::directX ){
buf = localTex.create( screen->size(), screen->format() );
rTaget = &buf;
}
size_t countSS = 0;
for( size_t i=0; i<sspass.size(); ++i )
countSS += sspass[i]->obj.size();
if( sswater )
countSS += waterM->obj.size();
if( countSS ){
completeDrawMMat( device, scene, context, econtext, g.color[0], g.depth );
execEfect(blt_to_tex, device, rTaget, econtext, g.color[0]);
} else {
if( screen )
completeDrawMMat( device, scene, context, econtext, *rTaget, *depth ); else
completeDrawMMat( device, scene, context, econtext );
}
if( countSS ){
Tempest::Texture2d r = localTex.create( g.color[0].size(),
g.color[0].format() );
execEfect(blt, device, &r, econtext, g.color[0]);
context.texture[ ShaderSource::tsScreenData ][0] = g.color[0];
for( size_t i=0; i<sspass.size(); ++i ){
Mat &m = *sspass[i];
drawTo(m, device, false, context, r, g.depth );
}
if( sswater ){
context.texture[1][0] = hWater[0];
context.texture[1][1] = hWater[1];
drawTo( *waterM, device, false, context, r, g.depth );
}
if( screen )
execEfect(blt_to_tex, device, rTaget, econtext, r); else
execEfect(blt, device, screen, econtext, r);
}
if( screen && rTaget!=screen ){
execEfect(mirron_blt, device, screen, econtext, *rTaget);
}
for( size_t i=0; i<mat.size(); ++i )
mat[i]->obj.clear();
}
void DrawArea::mouseReleaseEvent(QMouseEvent *event)
{
if (event->button() == Qt::LeftButton && mScribbling ) {
drawTo(event->pos(), true);
mScribbling = false;
}
}
void SkCanvasWidget::mouseMoveEvent(QMouseEvent* event) {
SkIPoint eventPoint = SkIPoint::Make(event->globalX(), event->globalY());
fUserOffset += eventPoint - fPreviousPoint;
fPreviousPoint = eventPoint;
fDebugger->setUserOffset(fUserOffset);
drawTo(fDebugger->index());
}
void SkCanvasWidget::mouseMoveEvent(QMouseEvent* event) {
SkIPoint eventPoint = SkIPoint::Make(event->globalX(), event->globalY());
SkIPoint eventOffset = eventPoint - fPreviousPoint;
fPreviousPoint = eventPoint;
fUserMatrix.postTranslate(eventOffset.fX, eventOffset.fY);
fDebugger->setUserMatrix(fUserMatrix);
drawTo(fDebugger->index());
}
void DrawArea::mouseMoveEvent(QMouseEvent *event)
{
if((event->buttons() & Qt::LeftButton) && mScribbling )
{
//clearOverlayImage();
drawTo(event->pos(), false);
}
}
void SkCanvasWidget::resetWidgetTransform() {
fUserOffset.set(0,0);
fUserScaleFactor = 1.0;
fDebugger->setUserOffset(fUserOffset);
fDebugger->setUserScale(fUserScaleFactor);
emit scaleFactorChanged(fUserScaleFactor);
drawTo(fDebugger->index());
}
void SkCanvasWidget::snapWidgetTransform() {
double x, y;
modf(fUserMatrix.getTranslateX(), &x);
modf(fUserMatrix.getTranslateY(), &y);
fUserMatrix[SkMatrix::kMTransX] = x;
fUserMatrix[SkMatrix::kMTransY] = y;
fDebugger->setUserMatrix(fUserMatrix);
drawTo(fDebugger->index());
}
void Renderer::drawAll()
{
if (mDrawablesBuffer.size() == 0) {
return;
}
#if 0
std::sort(mDrawablesBuffer.begin(), mDrawablesBuffer.end(),
[](const std::shared_ptr<Drawable>& a,
const std::shared_ptr<Drawable>& b) {
return *a < *b;
});
#endif
State rendererState(mCamera,
mAmbientLightColor,
mLights);
for (const Light& light: mLights) {
if (light.makesShadows) {
sbAssert(light.type == Light::Type::Parallel, "TODO: shadows for point lights");
Camera camera = Camera::orthographic(-100.0, 100.0, -100.0, 100.0, -1000.0, 1000.0);
camera.lookAt(-light.pos, Vec3(0.0, 0.0, 0.0));
IntRect savedViewport = mViewport;
Vec2i shadowFbSize = light.shadowFramebuffer->getSize();
setViewport(0, 0, shadowFbSize.x, shadowFbSize.y);
drawTo(*light.shadowFramebuffer, camera);
setViewport(savedViewport);
rendererState.shadows.push_back({
light.shadowFramebuffer->getTexture(),
math::matrixShadowBias() * camera.getViewProjectionMatrix()
});
}
}
GL_CHECK(glClearColor(mClearColor.r, mClearColor.g,
mClearColor.b, mClearColor.a));
clear();
for (const std::shared_ptr<Drawable>& d: mDrawablesBuffer) {
if (d->mProjectionType == ProjectionType::Perspective) {
rendererState.camera = &mCamera;
} else {
rendererState.camera = &mSpriteCamera;
}
d->draw(rendererState);
}
mAmbientLightColor = Color::White;
mLights.clear();
mDrawablesBuffer.clear();
}
void SkCanvasWidget::wheelEvent(QWheelEvent* event) {
Qt::KeyboardModifiers modifiers = event->modifiers();
if (modifiers.testFlag(Qt::ControlModifier)) {
zoom(event->delta() > 0 ? ZOOM_FACTOR : (1.0f / ZOOM_FACTOR), event->x(), event->y());
} else {
if (Qt::Horizontal == event->orientation()) {
fUserMatrix.postTranslate(event->delta(), 0.0f);
} else {
fUserMatrix.postTranslate(0.0f, event->delta());
}
fDebugger->setUserMatrix(fUserMatrix);
drawTo(fDebugger->index());
}
}
void MaterialServer::completeDrawMMat(Tempest::Device &device,
const Scene &/*scene*/,
ShaderMaterial::UniformsContext &context,
ShaderMaterial::UniformsContext &/*econtext*/,
Args&... g ){
Mat *waterM = mat[water].get();
for( size_t i=0; i<gbufPass.size(); ++i ){
Mat &m = *gbufPass[i];
drawTo(m, device, i==0, context, g... );
}
for( size_t i=0; i<blpass.size(); ++i ){
Mat &m = *blpass[i];
drawTo(m, device, i==0 && gbufPass.size()==0, context, g... );
}
if( !sswater ){
context.texture[1][0] = hWater[0];
context.texture[1][1] = hWater[1];
drawTo( *waterM, device, false, context );
}
}
void SkCanvasWidget::zoom(float zoomIncrement) {
fUserScaleFactor += zoomIncrement;
/* The range of the fUserScaleFactor crosses over the range -1,0,1 frequently.
* Based on the code below, -1 and 1 both scale the image to it's original
* size we do the following to never have a registered wheel scroll
* not effect the fUserScaleFactor. */
if (fUserScaleFactor == 0) {
fUserScaleFactor = 2 * zoomIncrement;
}
emit scaleFactorChanged(fUserScaleFactor);
fDebugger->setUserScale(fUserScaleFactor);
drawTo(fDebugger->index());
}
void MaterialServer::completeDraw( Tempest::Device &device,
const Scene &,
ShadowBuffer &g,
ShaderMaterial::UniformsContext &context,
ShaderMaterial::UniformsContext & ){
{
Mat &m = *mat[ shadow_main[2] ];
{
Tempest::Render render(device, g.z, g.depth, m.m.vs, m.m.fs);
render.clear( Tempest::Color(1,1,1,0), 1 );
}
for( size_t i=0; i<gbufPass.size(); ++i ){
Mat &m1 = *gbufPass[i];
drawTo( m1, device, false, context, g.z, g.depth );
//draw( m1, m1, render, context );
}
for( size_t i=0; i<mat.size(); ++i )
mat[i]->obj.clear();
}
//execEfect(device, econtext, g.z);
}
void SkCanvasWidget::zoom(float scale, int px, int py) {
fUserMatrix.postScale(scale, scale, px, py);
emit scaleFactorChanged(fUserMatrix.getScaleX());
fDebugger->setUserMatrix(fUserMatrix);
drawTo(fDebugger->index());
}
void SkCanvasWidget::resetWidgetTransform() {
fUserMatrix.reset();
fDebugger->setUserMatrix(fUserMatrix);
emit scaleFactorChanged(fUserMatrix.getScaleX());
drawTo(fDebugger->index());
}
void WinImageRGB::drawTo(HDC hdc, slen_t dstX, slen_t dstY) const {
drawTo(hdc, dstX, dstY, header.biWidth, -header.biHeight, 0, 0);
}
inline void drawTo(HDC hdc, slen_t dstX, slen_t dstY) const {
drawTo(hdc, dstX, dstY, wd, ht, 0, 0);
}
