void CellularAutomata::handleMouse(bool isPressed, bool isDown, const Ray & mouseRay, const Vector2 & mousePos) {
m_transientPlayhead.position = Vector2int16(-5, -5);
if (m_paused) {
Point2int16 selectedPosition(-1,-1);
for (int x = 0; x < m_width; ++x) {
for (int y = 0; y < m_height; ++y) {
Vector2 normalizedCoord = Vector2(x,y) *
Vector2(1.0f / (m_width - 1.0f), 1.0f / (m_height - 1.0f));
const Point3& p = normCoordTo3DPoint(normalizedCoord);
if (intersects(mouseRay, p, collisionRadius())) {
selectedPosition = Vector2int16(x, y);
}
}
}
if (selectedPosition.x >= 0) {
m_transientPlayhead.position = selectedPosition;
m_transientPlayhead.direction = Direction::DOWN;
// Super hackish way to select the direction to point in based on mouse position
// from the center (should work on in either mode, but only tested on 2D)
// This is the first thing due for a cleanup
float minDistance = 10.0f; // Basically infinity...
Vector2 normalizedCoord = Vector2(selectedPosition) *
Vector2(1.0f / (m_width - 1.0f), 1.0f / (m_height - 1.0f));
const Point3& center = normCoordTo3DPoint(normalizedCoord);
float t = mouseRay.intersectionTime(Sphere(center, collisionRadius()));
Point3 intersectionPoint = mouseRay.origin() + mouseRay.direction() * t;
for (int i = 0; i < 4; ++i) {
Vector2 npos = normalizedCoord + Vector2(vecFromDir(Direction(i)))*0.001f;
const Point3& p = normCoordTo3DPoint(npos);
if ((intersectionPoint - p).length() < minDistance) {
minDistance = (intersectionPoint - p).length();
m_transientPlayhead.direction = Direction(i);
}
}
if (isPressed) {
bool removed = false;
for (int i = m_playhead.size() - 1; i >= 0; --i) {
if (selectedPosition == m_playhead[i].position) {
m_playhead.remove(i);
removed = true;
break;
}
}
if (!removed) {
m_playhead.append(m_transientPlayhead);
}
}
}
}
}
int main(int argc, const char* argv[]) {
initGLG3D();
GApp::Settings settings(argc, argv);
// Change the window and other startup parameters by modifying the
// settings class. For example:
settings.window.caption = argv[0];
// Some popular resolutions:
// settings.window.width = 640; settings.window.height = 400;
// settings.window.width = 1024; settings.window.height = 768;
settings.window.width = 1280; settings.window.height = 720;
// settings.window.width = 1920; settings.window.height = 1080;
// settings.window.width = OSWindow::primaryDisplayWindowSize().x; settings.window.height = OSWindow::primaryDisplayWindowSize().y;
// Set to true for a significant performance boost if your app can't render at 60fps,
// or if you *want* to render faster than the display.
settings.window.asynchronous = true;
settings.depthGuardBandThickness = Vector2int16(64, 64);
settings.colorGuardBandThickness = Vector2int16(16, 16);
settings.dataDir = FileSystem::currentDirectory();
// settings.screenshotDirectory = "../journal/";
return App(settings).run();
}
static Vector2int16 vecFromDir(Direction d) {
switch(d) {
case Direction::UP:
return Vector2int16(0,1);
case Direction::DOWN:
return Vector2int16(0,-1);
case Direction::LEFT:
return Vector2int16(-1,0);
case Direction::RIGHT:
return Vector2int16(1,0);
default:
alwaysAssertM(false, "Invalid direction");
return Vector2int16(0, 0);
}
}
void DepthOfField::apply
(RenderDevice* rd,
shared_ptr<Texture> color,
shared_ptr<Texture> depth,
const shared_ptr<Camera>& camera,
Vector2int16 trimBandThickness) {
if ((camera->depthOfFieldSettings().model() == DepthOfFieldModel::NONE) || ! camera->depthOfFieldSettings().enabled()) {
const shared_ptr<Framebuffer>& f = rd->framebuffer();
const shared_ptr<Framebuffer::Attachment>& a = f->get(Framebuffer::COLOR0);
if (isNull(f) || (a->texture() != color)) {
Texture::copy(color, a->texture(), 0, 0, Vector2int16(0, 0), CubeFace::POS_X, CubeFace::POS_X, rd, false);
}
// Exit abruptly because DoF is disabled
return;
}
alwaysAssertM(color, "Color buffer may not be NULL");
alwaysAssertM(depth, "Depth buffer may not be NULL");
if (isNull(m_artistCoCShader)) {
reloadShaders();
}
resizeBuffers(color, trimBandThickness);
computeCoC(rd, color, depth, camera, trimBandThickness);
blurPass(rd, m_packedBuffer, m_horizontalFramebuffer, m_horizontalShader, camera);
blurPass(rd, m_tempBlurBuffer, m_verticalFramebuffer, m_verticalShader, camera);
composite(rd, m_packedBuffer, m_blurBuffer, trimBandThickness);
}
int main(int argc, const char* argv[]) {
GApp::Settings settings(argc, argv);
settings.window.width = 1280;
settings.window.height = 720;
settings.window.caption = "G3D Deferred Shading Sample";
settings.colorGuardBandThickness = Vector2int16(0, 0);
settings.depthGuardBandThickness = Vector2int16(64, 64);
# ifdef G3D_WINDOWS
if (! FileSystem::exists("deferred.pix", false)) {
// Running on Windows, building from the G3D.sln project
chdir("../samples/deferredShading");
}
# endif
return App(settings).run();
}
int main(int argc, const char* argv[]) {
{
G3DSpecification g3dSpec;
g3dSpec.audio = false;
initGLG3D(g3dSpec);
}
VRApp::Settings settings(argc, argv);
settings.vr.debugMirrorMode = //VRApp::DebugMirrorMode::NONE;//
VRApp::DebugMirrorMode::PRE_DISTORTION;
settings.vr.disablePostEffectsIfTooSlow = false;
settings.window.caption = argv[0];
// The debugging on-screen window, and the size of the 2D HUD virtual layer in VR in pixels.
// Because DK2 is relatively low resolution, don't make this too large.
settings.window.width = 1280; settings.window.height = 700;
// Full screen minimizes latency (we think), but when debugging (even in release mode)
// it is convenient to not have the screen flicker and change focus when launching the app.
settings.window.fullScreen = false;
settings.window.resizable = false;
settings.window.framed = ! settings.window.fullScreen;
// Oculus already provides a huge guard band
settings.hdrFramebuffer.depthGuardBandThickness = Vector2int16(0, 0);
settings.hdrFramebuffer.colorGuardBandThickness = Vector2int16(0, 0);
// Async must be true for VR
settings.window.asynchronous = true;
settings.renderer.deferredShading = true;
settings.renderer.orderIndependentTransparency = true;
settings.dataDir = FileSystem::currentDirectory();
settings.screenshotDirectory = "";
const int result = App(settings).run();
return result;
}
int main(int argc, const char* argv[]) {
initGLG3D();
# ifdef G3D_WINDOWS
if (! FileSystem::exists("phong.pix", false) && FileSystem::exists("G3D.sln", false)) {
// The program was started from within Visual Studio and is
// running with cwd = G3D/VC10/. Change to
// the appropriate sample directory.
chdir("../samples/pixelShader/data-files");
} else if (FileSystem::exists("data-files")) {
chdir("data-files");
}
# endif
GApp::Settings settings(argc, argv);
settings.colorGuardBandThickness = Vector2int16(0, 0);
settings.depthGuardBandThickness = Vector2int16(0, 0);
return App(settings).run();
}
int main(int argc, const char* argv[]) {
{
G3DSpecification g3dSpec;
g3dSpec.audio = false;
initGLG3D(g3dSpec);
}
GApp::Settings settings(argc, argv);
// Change the window and other startup parameters by modifying the
// settings class. For example:
settings.window.caption = argv[0];
// settings.window.debugContext = true;
// settings.window.width = 854; settings.window.height = 480;
// settings.window.width = 1024; settings.window.height = 768;
settings.window.width = 1280; settings.window.height = 720;
// settings.window.width = 1920; settings.window.height = 1080;
// settings.window.width = OSWindow::primaryDisplayWindowSize().x; settings.window.height = OSWindow::primaryDisplayWindowSize().y;
settings.window.fullScreen = false;
settings.window.resizable = ! settings.window.fullScreen;
settings.window.framed = ! settings.window.fullScreen;
# ifdef G3D_DEBUG
settings.window.debugContext = true;
# endif
// Set to true for a significant performance boost if your app can't render at 60fps,
// or if you *want* to render faster than the display.
settings.window.asynchronous = false;
settings.hdrFramebuffer.depthGuardBandThickness = Vector2int16(0, 0);
settings.hdrFramebuffer.colorGuardBandThickness = Vector2int16(0, 0);
settings.dataDir = FileSystem::currentDirectory();
settings.screenshotDirectory = "";
//settings.window.defaultIconFilename = "icon.png";
return App(settings).run();
}
int main(int argc, const char* argv[]) {
initGLG3D();
GApp::Settings settings(argc, argv);
// Has to be small to avoid overloading the network
settings.window.caption = argv[0];
settings.window.width = 1280;
settings.window.height = 720;
settings.guardBandThickness = Vector2int16(0, 0);
return ChatApp(settings).run();
}
void testFullRender(bool generateGoldStandard) {
initGLG3D();
GApp::Settings settings;
settings.window.caption = "Test Renders";
settings.window.width = 1280; settings.window.height = 720;
settings.film.preferredColorFormats.clear();
settings.film.preferredColorFormats.append(ImageFormat::RGB32F());
// Enable vsync. Disable for a significant performance boost if your app can't render at 60fps,
// or if you *want* to render faster than the display.
settings.window.asynchronous = false;
settings.depthGuardBandThickness = Vector2int16(64, 64);
settings.colorGuardBandThickness = Vector2int16(16, 16);
settings.dataDir = FileSystem::currentDirectory();
if(generateGoldStandard) { // Warning! Do not change these directories without changing the App... it relies on these directories to tell what mode we are in
settings.screenshotDirectory = "../data-files/RenderTest/GoldStandard";
} else {
settings.screenshotDirectory = "../data-files/RenderTest/Results";
}
int result = App(settings).run();
testAssertM(result == 0 ,"App failed to run");
}
void App::onGraphics3D(RenderDevice* rd, Array<shared_ptr<Surface> >& allSurfaces) {
// This implementation is equivalent to the default GApp's. It is repeated here to make it
// easy to modify rendering. If you don't require custom rendering, just delete this
// method from your application and rely on the base class.
if (! scene()) {
return;
}
m_gbuffer->setSpecification(m_gbufferSpecification);
m_gbuffer->resize(m_framebuffer->width(), m_framebuffer->height());
m_gbuffer->prepare(rd, activeCamera(), 0, -(float)previousSimTimeStep(), m_settings.hdrFramebuffer.depthGuardBandThickness, m_settings.hdrFramebuffer.colorGuardBandThickness);
m_renderer->render(rd, m_framebuffer, m_depthPeelFramebuffer, scene()->lightingEnvironment(), m_gbuffer, allSurfaces);
// Debug visualizations and post-process effects
rd->pushState(m_framebuffer); {
if (m_enableSVO) {
rd->clear();
//rd->setProjectionAndCameraMatrix(activeCamera()->projection(), activeCamera()->frame());
rd->push2D();
const Vector2int32 guardBand(m_settings.hdrFramebuffer.depthGuardBandThickness - m_settings.hdrFramebuffer.colorGuardBandThickness);
const Vector2int32 colorRegionExtent = Vector2int32(m_framebuffer->vector2Bounds()) - guardBand * 2;
Args args;
rd->setGuardBandClip2D(Vector2int16(guardBand));
args.setRect(rd->viewport());
Matrix4 proj;
activeCamera()->getProjectUnitMatrix(m_framebuffer->rect2DBounds(), proj);
float focalLength = proj[0][0];
m_svo->setCurSvoId(0);
args.setUniform("guardBand", guardBand);
args.setUniform("focalLength", focalLength);
args.setUniform("renderRes", Vector2(colorRegionExtent));
args.setUniform("renderResI", colorRegionExtent);
args.setUniform("screenRatio", float(colorRegionExtent.y) / float(colorRegionExtent.x));
m_svo->connectToShader(args, Access::READ, m_svo->maxDepth(), m_svo->maxDepth());
rd->setColorWrite(true);
rd->setDepthWrite(false);
const Matrix4& cameraToVoxelMatrix = Matrix4(m_svo->svoToWorldMatrix()).inverse() * activeCamera()->frame();
args.setUniform("cameraToVoxelMatrix", cameraToVoxelMatrix);
args.setUniform("voxelToWorldMatrix", m_svo->svoToWorldMatrix());
args.setUniform("worldToVoxelMatrix", m_svo->worldToSVOMatrix());
args.setUniform("wsCameraPos", activeCamera()->frame().translation);
scene()->lightingEnvironment().setShaderArgs(args);
args.setUniform("raycastingConeFactor", m_voxelConeAperture);
rd->setDepthTest(RenderDevice::DEPTH_ALWAYS_PASS); // TODO: write gl_FragDepth and use a regular depth test here
m_gbuffer->texture(GBuffer::Field::DEPTH_AND_STENCIL)->setShaderArgs(args, "depth_", Sampler::buffer());
//rd->setBlendFunc(RenderDevice::BLEND_ONE, RenderDevice::BLEND_ONE_MINUS_SRC_ALPHA);
LAUNCH_SHADER("raycast.pix", args);
rd->pop2D();
}
// Call to make the App show the output of debugDraw(...)
rd->setProjectionAndCameraMatrix(activeCamera()->projection(), activeCamera()->frame());
drawDebugShapes();
const shared_ptr<Entity>& selectedEntity = (notNull(developerWindow) && notNull(developerWindow->sceneEditorWindow)) ? developerWindow->sceneEditorWindow->selectedEntity() : shared_ptr<Entity>();
scene()->visualize(rd, selectedEntity, allSurfaces, sceneVisualizationSettings(), activeCamera());
rd->setPolygonOffset(-0.2f);
if (m_debugSVONodes) {
m_svo->visualizeNodes(rd, m_debugSVONodeLevel);
}
if (m_debugSVOFragments) {
m_svo->visualizeFragments(rd);
}
rd->setPolygonOffset(0.0f);
// Post-process special effects
m_depthOfField->apply(rd, m_framebuffer->texture(0), m_framebuffer->texture(Framebuffer::DEPTH), activeCamera(), m_settings.hdrFramebuffer.depthGuardBandThickness - m_settings.hdrFramebuffer.colorGuardBandThickness);
m_motionBlur->apply(rd, m_framebuffer->texture(0), m_gbuffer->texture(GBuffer::Field::SS_EXPRESSIVE_MOTION),
m_framebuffer->texture(Framebuffer::DEPTH), activeCamera(),
m_settings.hdrFramebuffer.depthGuardBandThickness - m_settings.hdrFramebuffer.colorGuardBandThickness);
} rd->popState();
if ((submitToDisplayMode() == SubmitToDisplayMode::MAXIMIZE_THROUGHPUT) && (!renderDevice->swapBuffersAutomatically())) {
// We're about to render to the actual back buffer, so swap the buffers now.
// This call also allows the screenshot and video recording to capture the
// previous frame just before it is displayed.
swapBuffers();
}
// Clear the entire screen (needed even though we'll render over it, since
// AFR uses clear() to detect that the buffer is not re-used.)
rd->clear();
// Perform gamma correction, bloom, and SSAA, and write to the native window frame buffer
m_film->exposeAndRender(rd, activeCamera()->filmSettings(), m_framebuffer->texture(0));
}
Vector2int16 Vector2int16::clamp(const Vector2int16& lo, const Vector2int16& hi) {
return Vector2int16(iClamp(x, lo.x, hi.x), iClamp(y, lo.y, hi.y));
}
void App::onUserInput(UserInput* ui) {
GApp::onUserInput(ui);
bool pressed = ui->keyPressed(GKey::LEFT_MOUSE);
bool held = ui->keyDown(GKey::LEFT_MOUSE);
const Ray& mouseRay = scene()->eyeRay(activeCamera(), userInput->mouseXY() + Vector2(0.5f, 0.5f), RenderDevice::current->viewport(), Vector2int16(0, 0));
m_automata.handleMouse(pressed, held, mouseRay, userInput->mouseXY());
(void)ui;
// Add key handling here based on the keys currently held or
// ones that changed in the last frame.
}
void App::onGraphics3D(RenderDevice* rd, Array<shared_ptr<Surface> >& allSurfaces) {
// This implementation is equivalent to the default GApp's. It is repeated here to make it
// easy to modify rendering. If you don't require custom rendering, just delete this
// method from your application and rely on the base class.
if (! scene()) {
return;
}
// Debug visualizations and post-process effects
rd->pushState(m_framebuffer); {
// Call to make the App show the output of debugDraw(...)
rd->setProjectionAndCameraMatrix(activeCamera()->projection(), activeCamera()->frame());
rd->setColorClearValue(Color3::black());
rd->clear();
const Ray& mouseRay = scene()->eyeRay(activeCamera(), userInput->mouseXY() + Vector2(0.5f, 0.5f), rd->viewport(), Vector2int16(0, 0));
m_automata.draw(rd, mouseRay, m_gridColor);
if (m_showHelp) {
renderGUI(rd);
}
} rd->popState();
if ((submitToDisplayMode() == SubmitToDisplayMode::MAXIMIZE_THROUGHPUT) && (!renderDevice->swapBuffersAutomatically())) {
// We're about to render to the actual back buffer, so swap the buffers now.
// This call also allows the screenshot and video recording to capture the
// previous frame just before it is displayed.
swapBuffers();
}
// Clear the entire screen (needed even though we'll render over it, since
// AFR uses clear() to detect that the buffer is not re-used.)
rd->clear();
// Perform gamma correction, bloom, and SSAA, and write to the native window frame buffer
m_film->exposeAndRender(rd, activeCamera()->filmSettings(), m_framebuffer->texture(0));
}
