Cursor::Cursor()
{
mSystem = new thor::ParticleSystem(TextureManager::get().getTexture("assets/gfx/particle.png"));
mEmitter.setEmissionRate(16.0f);
mEmitter.setParticleLifetime( thor::Distributions::uniform(sf::seconds(4), sf::seconds(4)) );
mEmitter.setParticleRotation( thor::Distributions::uniform(0.f, 360.f) );
mEmitter.setParticleScale(sf::Vector2f(0.3,0.3));
mEmitter.setParticleVelocity(sf::Vector2f(0, 1000.0f));
mEmitter.setParticleScale(sf::Vector2f(4.f,4.f));
mSystem->addEmitter(thor::refEmitter(mEmitter));
thor::ColorGradient gradient;
gradient[0.0f] = sf::Color::Magenta;
gradient[0.1f] = sf::Color::Red;
gradient[0.2f] = sf::Color::Blue;
gradient[0.3f] = sf::Color::Cyan;
gradient[0.4f] = sf::Color::Green;
gradient[0.5f] = sf::Color::Red;
gradient[0.6f] = sf::Color::Magenta;
gradient[0.7f] = sf::Color::Cyan;
gradient[0.8f] = sf::Color::Red;
gradient[0.9f] = sf::Color::Blue;
gradient[1.0f] = sf::Color::Red;
thor::ColorAnimation colorizer(gradient);
thor::FadeAnimation fader(0.15f, 0.15f);
mSystem->addAffector( thor::AnimationAffector(colorizer) );
mSystem->addAffector( thor::AnimationAffector(fader) );
}
Snake::Snake(const sf::Vector2f& position, Game* game, unsigned initialSize)
: Entity(position, game, EntityType::Snake)
, position_(position)
, game_(game)
, direction_(Direction::Up)
, canShoot_(true)
, life_(100)
, score_(0)
, FireRate(sf::seconds(0.25f))
, TakeDamageDelay(sf::seconds(0.4f))
{
// The initial size should never be zero.
assert(initialSize != 0);
for (unsigned i = 0; i < initialSize; ++i)
{
nodes_.push_back(SnakeNode({ position.x, position.y + SnakeNode::Size * i }, (i == 0 ? true : false)));
}
srand(time(NULL));
particleSystem_.setTexture(game_->getTextureHolder().getTexture("particle"));
thor::ColorGradient gradient;
gradient[0.f] = sf::Color::Green;
gradient[0.5f] = sf::Color::Red;
gradient[1.f] = sf::Color::Black;
thor::ColorAnimation colorizer(gradient);
thor::FadeAnimation fader(0.1f, 0.1f);
particleSystem_.addAffector(thor::AnimationAffector(colorizer));
particleSystem_.addAffector(thor::AnimationAffector(fader));
}
bool runTests() {
bandit::detail::options opt(0, {});
bandit::detail::default_failure_formatter formatter;
bandit::detail::colorizer colorizer(true);
bandit::detail::dots_reporter reporter(formatter, colorizer);
bandit::detail::register_listener(&reporter);
bandit::detail::run_policy_ptr run_policy(new bandit::detail::always_run_policy());
register_run_policy(run_policy.get());
bandit::run(opt, bandit::detail::specs(), bandit::detail::context_stack(), reporter);
return reporter.did_we_pass();
}
void MazeWindow::createMaze() {
auto selected = algorithmSelector->currentText();
auto factory = MakerFactory::byName(selected);
maker = factory->maker();
int w,h;
w = h = dimensionSetter->value();
stepCount = 0;
maker->setGrid(Grid(w,h));
mazeWidget->setMaker(maker);
mazeWidget->setColorizer(factory->colorizer());
mazeWidget->repaint();
}
inline int run(int argc, char * argv[]) {
bandit::detail::options opt(argc, argv);
bandit::detail::failure_formatter_ptr formatter(bandit::detail::create_formatter(opt));
bandit::detail::colorizer colorizer(!opt.no_color());
bandit::detail::listener_ptr reporter(bandit::detail::create_reporter(opt, formatter.get(), colorizer));
listener_adapter * listener = new listener_adapter(reporter.get());
bandit::detail::registered_listener(listener);
bandit::detail::run_policy_ptr run_policy = create_run_policy(opt);
registered_run_policy(run_policy.get());
testing::InitGoogleMock(&argc, argv);
auto & gtest_listeners = testing::UnitTest::GetInstance()->listeners();
delete gtest_listeners.Release(gtest_listeners.default_result_printer());
gtest_listeners.Append(listener);
return bandit::run(opt, bandit::detail::specs(), bandit::detail::context_stack(), *listener);
}
void OnMouseUp(thor::ActionContext<std::string> context)
{
emitter.setParticlePosition(window.mapPixelToCoords(sf::Mouse::getPosition(window)));
if (selected_rune == 1)
{
// Build color gradient
thor::ColorGradient gradient;
gradient[0.f] = sf::Color::Yellow;
gradient[0.5f] = sf::Color::Red;
gradient[1.f] = sf::Color::Black;
// Create color and fade in/out animations
thor::ColorAnimation colorizer(gradient);
thor::FadeAnimation fader(0.1f, 0.1f);
particle_system.clearAffectors();
// Add particle affectors
particle_system.addAffector(thor::AnimationAffector(colorizer));
particle_system.addAffector(thor::AnimationAffector(fader));
particle_system.addAffector(thor::TorqueAffector(100.f));
emitter.setParticlePosition(window.mapPixelToCoords(sf::Mouse::getPosition(window)));
emitter.setParticleVelocity(thor::Distributions::circle(sf::Vector2f(0.0f, 0.0f), 100.f));
emitter.setEmissionRate(50.0f);
particle_system.addEmitter(thor::refEmitter(emitter), sf::seconds(0.35f));
}
else if (selected_rune == 2)
{
// Build color gradient
thor::ColorGradient gradient;
gradient[0.f] = sf::Color::Blue;
gradient[0.5f] = sf::Color::Black;
gradient[1.f] = sf::Color::Black;
// Create color and fade in/out animations
thor::ColorAnimation colorizer(gradient);
thor::FadeAnimation fader(0.1f, 0.1f);
particle_system.clearAffectors();
// Add particle affectors
particle_system.addAffector(thor::AnimationAffector(colorizer));
particle_system.addAffector(thor::AnimationAffector(fader));
particle_system.addAffector(thor::TorqueAffector(100.f));
emitter.setParticlePosition(window.mapPixelToCoords(sf::Mouse::getPosition(window)));
emitter.setParticleVelocity(thor::Distributions::deflect(sf::Vector2f(0.0f, -100.0f), 90.0f));
emitter.setEmissionRate(100.0f);
particle_system.addEmitter(thor::refEmitter(emitter), sf::seconds(0.35f));
}
else if (selected_rune == 3)
{
// Build color gradient
thor::ColorGradient gradient;
gradient[0.f] = sf::Color::Green;
gradient[0.5f] = sf::Color::Cyan;
gradient[1.f] = sf::Color::Black;
// Create color and fade in/out animations
thor::ColorAnimation colorizer(gradient);
thor::FadeAnimation fader(0.1f, 0.1f);
particle_system.clearAffectors();
// Add particle affectors
particle_system.addAffector(thor::AnimationAffector(colorizer));
particle_system.addAffector(thor::AnimationAffector(fader));
particle_system.addAffector(thor::TorqueAffector(100.f));
emitter.setParticlePosition(window.mapPixelToCoords(sf::Mouse::getPosition(window)));
emitter.setParticleVelocity(thor::Distributions::rect(sf::Vector2f(0.0f, 0.0f), sf::Vector2f(100.0f, 100.0f)));
emitter.setEmissionRate(150.0f);
particle_system.addEmitter(thor::refEmitter(emitter), sf::seconds(2.0f));
}
else if (selected_rune == 4)
{
// Build color gradient
thor::ColorGradient gradient;
gradient[0.f] = sf::Color::Magenta;
gradient[0.5f] = sf::Color::Green;
gradient[1.f] = sf::Color::Black;
// Create color and fade in/out animations
thor::ColorAnimation colorizer(gradient);
thor::FadeAnimation fader(0.1f, 0.1f);
particle_system.clearAffectors();
// Add particle affectors
particle_system.addAffector(thor::AnimationAffector(colorizer));
particle_system.addAffector(thor::AnimationAffector(fader));
particle_system.addAffector(thor::TorqueAffector(100.f));
emitter.setParticleVelocity(thor::Distributions::circle(sf::Vector2f(0.0f, 0.0f), 250.0f));
emitter.setEmissionRate(500.0f);
particle_system.addEmitter(thor::refEmitter(emitter), sf::seconds(1.0f));
}
}
//-----------------------------------------------------------------------------
bool test_image_io(const std::string filename,
const main_params& mp,
const cropper_params& rp,
const resizer_params& sp,
const augmenter_params& ap)
{
int transform_idx = 0;
int mean_extractor_idx = -1;
unsigned int num_bytes = mp.m_num_bytes; // size of image in bytes
lbann::cv_process pp;
{ // Initialize the image processor
if (rp.m_is_set) { // If cropper parameters are given
// Setup a cropper
std::unique_ptr<lbann::cv_cropper> cropper(new(lbann::cv_cropper));
cropper->set(rp.m_crop_sz.first, rp.m_crop_sz.second, rp.m_rand_center, rp.m_roi_sz, rp.m_adaptive_interpolation);
pp.add_transform(std::move(cropper));
num_bytes = rp.m_crop_sz.first * rp.m_crop_sz.second * 3;
transform_idx ++;
}
if (sp.m_is_set) { // If resizer parameters are given
// Setup a cropper
std::unique_ptr<lbann::cv_resizer> resizer(new(lbann::cv_resizer));
resizer->set(sp.m_width, sp.m_height, rp.m_adaptive_interpolation);
pp.add_transform(std::move(resizer));
num_bytes = sp.m_width * sp.m_height * 3;
transform_idx ++;
}
if (ap.m_is_set) { // Set up an augmenter
std::unique_ptr<lbann::cv_augmenter> augmenter(new(lbann::cv_augmenter));
augmenter->set(ap.m_hflip, ap.m_vflip, ap.m_rot, ap.m_hshift, ap.m_vshift, ap.m_shear);
pp.add_transform(std::move(augmenter));
transform_idx ++;
}
if (mp.m_enable_colorizer) { // Set up a colorizer
std::unique_ptr<lbann::cv_colorizer> colorizer(new(lbann::cv_colorizer));
pp.add_transform(std::move(colorizer));
transform_idx ++;
}
if (mp.m_enable_decolorizer) { // Set up a colorizer
std::unique_ptr<lbann::cv_decolorizer> decolorizer(new(lbann::cv_decolorizer));
pp.add_transform(std::move(decolorizer));
transform_idx ++;
}
if (mp.m_enable_mean_extractor) { // set up a mean extractor
mean_extractor_idx = transform_idx;
std::unique_ptr<lbann::cv_mean_extractor> mean_extractor(new(lbann::cv_mean_extractor));
if (rp.m_is_set)
mean_extractor->set(rp.m_crop_sz.first, rp.m_crop_sz.second, 3, mp.m_mean_batch_size);
else
mean_extractor->set(mp.m_mean_batch_size);
pp.add_transform(std::move(mean_extractor));
transform_idx ++;
}
if (!mp.is_normalizer_off()) { // Set up a normalizer
if (mp.is_channel_wise_normalizer()) {
std::unique_ptr<lbann::cv_normalizer> normalizer(new(lbann::cv_normalizer));
normalizer->z_score(true);
pp.add_normalizer(std::move(normalizer));
} else {
std::unique_ptr<lbann::cv_subtractor> normalizer(new(lbann::cv_subtractor));
#if 0
cv::Mat img_to_sub = cv::imread(mp.m_mean_image_name);
if (img_to_sub.empty()) {
std::cout << mp.m_mean_image_name << " does not exist" << std::endl;
return false;
}
normalizer->set_mean(img_to_sub);
#else
std::vector<lbann::DataType> mean = {0.40625, 0.45703, 0.48047};
normalizer->set_mean(mean);
std::vector<lbann::DataType> stddev = {0.3, 0.5, 0.3};
normalizer->set_stddev(stddev);
#endif
pp.add_normalizer(std::move(normalizer));
}
transform_idx ++;
}
}
// Load an image bytestream into memory
std::vector<unsigned char> buf;
bool ok = lbann::load_file(filename, buf);
if (!ok) {
std::cout << "Failed to load" << std::endl;
return false;
}
int width = 0;
int height = 0;
int type = 0;
::Mat Images;
::Mat Image_v; // matrix view
Images.Resize(((num_bytes==0)? 1: num_bytes), 2); // minibatch
size_t img_begin = 0;
size_t img_end = buf.size();
for (unsigned int i=0; i < mp.m_num_iter; ++i)
{
// This has nothing to do with the image type but only to create view on a block of bytes
using InputBuf_T = lbann::cv_image_type<uint8_t>;
// Construct a zero copying view to a portion of a preloaded data buffer
const cv::Mat inbuf(1, (img_end - img_begin), InputBuf_T::T(1), &(buf[img_begin]));
if (num_bytes == 0) {
ok = lbann::image_utils::import_image(inbuf, width, height, type, pp, Images);
num_bytes = Images.Height();
El::View(Image_v, Images, El::IR(0, num_bytes), El::IR(0, 1));
} else {
El::View(Image_v, Images, El::IR(0, num_bytes), El::IR(0, 1));
//ok = lbann::image_utils::import_image(buf, width, height, type, pp, Image_v);
ok = lbann::image_utils::import_image(inbuf, width, height, type, pp, Image_v);
}
if (!ok) {
std::cout << "Failed to import" << std::endl;
return false;
}
//if ((i%3 == 0u) && (mp.m_enable_mean_extractor)) {
// dynamic_cast<lbann::cv_mean_extractor*>(pp.get_transform(mean_extractor_idx))->reset();
//}
}
// Print out transforms
const unsigned int num_transforms = pp.get_num_transforms();
const std::vector<std::unique_ptr<lbann::cv_transform> >& transforms = pp.get_transforms();
for(unsigned int i=0u; i < num_transforms; ++i) {
std::cout << std::endl << "------------ transform " << i << "-------------" << std::endl;
std::cout << *transforms[i] << std::endl;
}
if (mp.m_enable_mean_extractor) {
// Extract the mean of images
cv::Mat mean_image;
mean_image = dynamic_cast<lbann::cv_mean_extractor*>(pp.get_transform(mean_extractor_idx))->extract<uint16_t>();
cv::imwrite("mean.png", mean_image);
}
// Export the unnormalized image
const std::string ext = lbann::get_ext_name(filename);
std::vector<unsigned char> outbuf;
ok = lbann::image_utils::export_image(ext, outbuf, width, height, type, pp, Image_v);
write_file("copy." + ext, outbuf);
return ok;
}
void loadingScreen()
{
sf::Clock timer;
sf::Sprite SFMLlogo;
sf::Texture SFMLlogoT;
SFMLlogoT.loadFromFile(workingDirectory + "assets/graphics/UI/mainMenu/sfLogo.png");
SFMLlogo.setTexture(SFMLlogoT);
SFMLlogo.setPosition(screenCornerX + 10, screenCornerY + screenY - 100);
while(timer.getElapsedTime().asSeconds() < 1.f)
{
app << sf::Color(0, 0, 0);
if(timer.getElapsedTime().asSeconds() < 1.f)
SFMLlogo.setColor(sf::Color(255, 255, 255, (timer.getElapsedTime().asSeconds() / 1.f) * 255));
app << SFMLlogo;
app.display();
}
cout << "-----Loading screen (" << date() << ")-----" << endl;
cout << "Loading settings... ";
settings.load();
cout << "[OK]" << endl;
cout << "Setting framerate controller... ";
app.setVerticalSyncEnabled(false);
string FPScontroller = settings.FPScontroller;
if(FPScontroller == "v-sync")
{
app.setVerticalSyncEnabled(true);
cout << "(v-sync) [OK]" << endl;
}
else if(FPScontroller == "custom")
{
app.setFramerateLimit(settings.FPSlimit);
cout << "(custom: " << settings.FPSlimit << ") [OK]" << endl;
}
else if(FPScontroller == "none")
{
cout << "(none) it can cause screen tearing etc. [WARNING]" << endl;
}
else
{
cout << "ERROR: unknown controller, using \"v-sync\" [fail]" << endl;
app.setVerticalSyncEnabled(true);
}
cout << "Loading sounds... ";
app.soundsManager.init(settings);
string weaponSounds[] = {"autoRockets", "autoTurret", "enemyStandard", "laser", "minigun", "saw", "shotgun", "standard"};
for(int i = 0; i < 8; i++)
app.soundsManager.loadFromFile("assets/sounds/weapons/" + weaponSounds[i] + "/shot.flac", weaponSounds[i] + "/shot", 30);
app.soundsManager.loadFromFile("assets/sounds/music.wav", "russianMusic", 50);
app.soundsManager.createMusic(app.soundsManager.getIdByName("russianMusic"));
cout << "[OK]" << endl;
cout << "Loading animations... ";
xml::xmlDocument doc(workingDirectory + "assets/xml/animations.xml");
xml_node<> *node = doc.getRootNode();
node = node -> first_node();
while(node != NULL)
{
loadAnimationTextures(workingDirectory + xml::getNodeAttribute(node, "file"));
node = node -> next_sibling();
}
cout << "[OK]" << endl;
cout << "Loading languages... ";
languageManager.loadFromFile("assets/languages/default.lang");
cout << "[OK]" << endl;
cout << "Loading graphics... ";
textureManagerInit();
cout << "Loading some graphics... ";
textureManager.add("assets/graphics/UI/game/info.png", "game/info.png");
textureManager.add("assets/graphics/UI/game/HPbar.png", "game/HPbar.png");
textureManager.add("assets/graphics/UI/game/symbol1.png", "symbol1", true);
textureManager.add("assets/graphics/UI/game/symbol2.png", "symbol2", true);
textureManager.add("assets/graphics/UI/game/symbol3.png", "symbol3", true);
textureManager.add("assets/graphics/UI/game/ammoBar.png", "game/ammoBar.png");
textureManager.add("assets/graphics/UI/game/arrow.png", "game/arrow.png", true);
textureManager.add("assets/graphics/UI/game/noAmmoBar.png", "game/noAmmoBar.png");
textureManager.add("assets/graphics/bullets/saw/fly/texture.png", "n***a", true);
textureManager.add("assets/graphics/UI/game/shieldBar.png", "game/shieldBar.png");
textureManager.add("assets/graphics/UI/game/RegainingShieldBar.png", "game/RegainingShieldBar.png");
for(int i = 0; i < 3; i++)
symbols[i].setTexture(textureManager.get("symbol" + toString(i + 1)));
bitFont.loadFromFile(workingDirectory + "assets/fonts/BitFont.ttf");
cout << "[OK]" << endl;
cout << "Creating particle systems... ";
pSystems::soulsParticles.setTexture(textureManager.get("game/soul.png"));
thor::ColorGradient gradient;
gradient[0.f] = sf::Color(255, 255, 255, 255);
gradient[1.f] = sf::Color(255, 255, 255, 0);
thor::ColorAnimation colorizer(gradient);
pSystems::soulsParticles.addAffector(thor::AnimationAffector(colorizer));
pSystems::soulsParticles.addAffector(blackHoleAffector);
pSystems::soulsParticles.addAffector(bulletAffector);
cout << "[OK]" << endl;
while(timer.getElapsedTime().asSeconds() < 2.f){}
}
int main()
{
// Create window
sf::RenderWindow window(sf::VideoMode(800, 600), "Thor Particles");
// Load texture
sf::Texture texture;
if (!texture.loadFromFile("Media/particle.png"))
return EXIT_FAILURE;
// Create emitter
thor::UniversalEmitter::Ptr emitter = thor::UniversalEmitter::create();
emitter->setEmissionRate(30.f);
emitter->setParticleLifetime(sf::seconds(5.f));
// Create particle system
thor::ParticleSystem system(texture);
system.addEmitter(emitter);
// Build color gradient (green -> teal -> blue)
thor::ColorGradient gradient;
gradient[0.f] = sf::Color(0, 150, 0);
gradient[0.5f] = sf::Color(0, 150, 100);
gradient[1.f] = sf::Color(0, 0, 150);
// Create color and fade in/out animations
thor::ColorAnimation colorizer(gradient);
thor::FadeAnimation fader(0.1f, 0.1f);
// Add particle affectors
system.addAffector( thor::AnimationAffector::create(colorizer) );
system.addAffector( thor::AnimationAffector::create(fader) );
system.addAffector( thor::TorqueAffector::create(100.f) );
system.addAffector( thor::ForceAffector::create(sf::Vector2f(0.f, 100.f)) );
// Attributes that influence emitter
thor::PolarVector2f velocity(200.f, -90.f);
bool paused = false;
sf::Font font;
if (!font.loadFromFile("Media/sansation.ttf"))
return 1;
// Instruction text
sf::Text instructions(
"Left click: Pause\n"
"Mouse wheel: Change direction\n",
font, 12);
// Create clock to measure frame time
sf::Clock frameClock;
// Main loop
for (;;)
{
// Handle events
sf::Event event;
while (window.pollEvent(event))
{
switch (event.type)
{
// [X]: Quit
case sf::Event::Closed:
return 0;
// Escape: Quit
case sf::Event::KeyPressed:
if (event.key.code == sf::Keyboard::Escape)
return 0;
// Left mouse button: Enable/disable glow
case sf::Event::MouseButtonPressed:
if (event.mouseButton.button == sf::Mouse::Left)
paused = !paused;
break;
// Mouse wheel: Change emission direction
case sf::Event::MouseWheelMoved:
velocity.phi += 12.f * event.mouseWheel.delta;
break;
}
}
// Update particle system and emitter
const sf::Time frameTime = frameClock.restart();
if (!paused)
system.update(frameTime);
// Set initial particle position and velocity, rotate vector randomly by maximal 10 degrees
emitter->setParticlePosition( window.mapPixelToCoords(sf::Mouse::getPosition(window)) );
emitter->setParticleVelocity( thor::Distributions::deflect(velocity, 10.f) );
// Draw everything
window.clear(sf::Color(30, 30, 30));
window.draw(instructions);
window.draw(system);
window.display();
}
}
void Highlighter::runWrapped()
{
#if PTE_DEBUG_HIGHLIGHTING
print("Highlighter::run().0\n");
#endif
Ref<Token, Owner> rootToken0 = 0;
while (true)
{
#if PTE_PROFILE_HIGHLIGHTING
stages_ = -2;
#endif
restart_->acquireAll();
if (shutdown_->tryAcquire()) break;
if (rootToken0) {
#if PTE_PROFILE_HIGHLIGHTING
stages_ = -1;
#endif
// force tree destruction at this point
// (reducing heap utilization a little bit and making tree destruction a little bit more
// deterministic (although leafs aren't destroyed at this point;))
rootToken0 = 0;
if (restart_->tryAcquire()) {
restart_->release();
continue;
}
}
#if PTE_PROFILE_HIGHLIGHTING
stages_ = 0;
#endif
#if PTE_DEBUG_HIGHLIGHTING
print("Highlighter::run().1\n");
#endif
bool restartRequested = false;
for (int depth = 0; depth < languageStack_->numLayers(); ++depth)
{
Ref<LanguageLayer> languageLayer = languageStack_->layer(depth);
#if PTE_DEBUG_HIGHLIGHTING
print("Highlighter::run(): depth = %%\n", depth);
#endif
access_->acquire();
SequenceAdapter source(document_);
Ref<Token, Owner> rootToken1 = languageLayer->syntax()->match(&source);
if (rootToken1) {
// extent match range if incomplete match
if (source.has(rootToken1->i1())) {
// print("Highlighter::highlight(): Incomplete match: rootToken1->i1() = %%\n", rootToken1->i1());
int i1 = rootToken1->i1();
while (source.has(i1)) ++i1;
rootToken1->setRange(rootToken1->i0(), i1);
}
else {
/*print("Highlighter::highlight(): rootToken1->countChildren() = %%\n", rootToken1->countChildren());
print("Highlighter::highlight(): rootToken1->rule() = %%\n", rootToken1->rule());*/
}
}
access_->release();
if (restart_->tryAcquire()) {
restart_->release();
restartRequested = true;
break;
}
if (depth > 0)
Token::meld(rootToken1, rootToken0);
rootToken0 = rootToken1;
}
if (restartRequested)
continue;
#if PTE_DEBUG_HIGHLIGHTING
print("Highlighter::run().3: document_->filePath() = %%\n", document_->filePath().toUtf8().data());
#endif
#if PTE_PROFILE_HIGHLIGHTING
stages_ = 3;
#endif
if (rootToken0) {
bool needUpdate = false;
// print("Highlighter::run().3.1: rootToken0->i0(), rootToken0->i1() = %%, %%\n", rootToken0->i0(), rootToken0->i1());
Mutex& mutex = localStatic<Mutex, Highlighter>();
Guard<Mutex> guard(&mutex); // workaround hack, protects against unresolved race conditions
access_->acquire();
// print("Highlighter::run().3.2\n");;
DocumentColorizer colorizer(languageStack_, document_);
rootToken0->glow(&colorizer);
needUpdate = colorizer.needUpdate();
// print("Highlighter::run().3.3\n");
access_->release();
if (restart_->tryAcquire()) {
restart_->release();
continue;
}
#if PTE_DEBUG_HIGHLIGHTING
print("Highlighter::run().4\n");
#endif
#if PTE_PROFILE_HIGHLIGHTING
stages_ = 4;
#endif
if (needUpdate)
emit ready();
#if PTE_DEBUG_HIGHLIGHTING
print("Highlighter::run().5\n");
#endif
#if PTE_PROFILE_HIGHLIGHTING
stages_ = 5;
#endif
syncMutex_->acquire();
sync_->broadcast();
syncMutex_->release();
#if PTE_DEBUG_HIGHLIGHTING
print("Highlighter::run().s\n");
#endif
#if PTE_PROFILE_HIGHLIGHTING
stages_ = 6;
#endif
}
}
#if PTE_DEBUG_HIGHLIGHTING
print("Highlighter::run().e: %%\n", (void*)this);
#endif
}