void TextureFactory::reloadObject(LoadableObject::Pointer object, ObjectsCache&)
{
TextureDescription::Pointer newData = et::loadTexture(object->origin());
if (newData.valid())
Texture::Pointer(object)->updateData(renderContext(), newData);
}
Texture TextureFactory::loadTexture(const std::string& fileName, ObjectsCache& cache,
bool async, TextureLoaderDelegate* delegate)
{
if (fileName.length() == 0)
return Texture();
CriticalSectionScope lock(_csTextureLoading);
std::string file = application().environment().resolveScalableFileName(fileName,
renderContext()->screenScaleFactor());
if (!fileExists(file))
{
log::error("Unable to find texture file: %s", file.c_str());
return Texture();
}
uint64_t cachedFileProperty = 0;
Texture texture = cache.findAnyObject(file, &cachedFileProperty);
if (texture.invalid())
{
TextureDescription::Pointer desc =
async ? et::loadTextureDescription(file, false) : et::loadTexture(file);
if (desc.valid())
{
bool calledFromAnotherThread = Threading::currentThread() != threading().renderingThread();
texture = Texture(new TextureData(renderContext(), desc, desc->origin(), async || calledFromAnotherThread));
cache.manage(texture, ObjectLoader::Pointer(this));
if (async)
_loadingThread->addRequest(desc->origin(), texture, delegate);
else if (calledFromAnotherThread)
assert(false && "ERROR: Unable to load texture synchronously from non-rendering thread.");
}
}
else
{
auto newProperty = cache.getFileProperty(file);
if (cachedFileProperty != newProperty)
reloadObject(texture, cache);
if (async && (delegate != nullptr))
{
Invocation1 i;
i.setTarget(delegate, &TextureLoaderDelegate::textureDidStartLoading, texture);
i.invokeInMainRunLoop();
i.setTarget(delegate, &TextureLoaderDelegate::textureDidLoad, texture);
i.invokeInMainRunLoop();
}
}
return texture;
}
void Framebuffer::resize(const vec2i& sz)
{
if (_description.size.xy() == sz) return;
forceSize(sz);
bool hasColor = (_description.colorInternalformat != TextureFormat::Invalid) &&
(_description.colorIsRenderbuffer || (_description.colorFormat != TextureFormat::Invalid));
bool hasDepth = (_description.depthInternalformat != TextureFormat::Invalid) &&
(_description.depthIsRenderbuffer || (_description.depthFormat != TextureFormat::Invalid));
if (hasColor)
{
if (_description.colorIsRenderbuffer)
{
for (uint32_t& renderBuffer : _colorRenderBuffers)
renderBuffer = buildColorRenderbuffer(renderBuffer);
}
else
{
for (auto rt : _renderTargets)
{
TextureDescription::Pointer desc = rt->description();
desc->size = sz;
desc->data.resize(desc->layersCount * desc->dataSizeForAllMipLevels());
desc->data.fill(0);
rt->updateData(_rc, desc);
setCurrentRenderTarget(rt);
}
}
}
if (hasDepth)
{
if (_description.depthIsRenderbuffer)
{
createOrUpdateDepthRenderbuffer();
}
else if (_depthBuffer.valid())
{
auto desc = _depthBuffer->description();
desc->size = sz;
desc->data.resize(desc->layersCount * desc->dataSizeForAllMipLevels());
desc->data.fill(0);
_depthBuffer->updateData(_rc, desc);
setDepthTarget(_depthBuffer);
}
}
if (hasColor || hasDepth)
checkStatus();
}
Texture::Pointer TextureFactory::genCubeTexture(TextureFormat internalformat, uint32_t size, TextureFormat format,
DataType type, const std::string& aName)
{
TextureDescription::Pointer desc = TextureDescription::Pointer::create();
desc->target = TextureTarget::Texture_Cube;
desc->format = format;
desc->internalformat = internalformat;
desc->type = type;
desc->size = vec2i(size);
desc->mipMapCount = 1;
desc->layersCount = 6;
desc->bitsPerPixel = bitsPerPixelForTextureFormat(internalformat, type);
desc->data = BinaryDataStorage(desc->layersCount * desc->dataSizeForAllMipLevels(), 0);
return Texture::Pointer::create(renderContext(), desc, aName, false);
}
Texture::Texture(RenderContext* rc, const TextureDescription::Pointer& desc, const std::string& id,
bool deferred) : APIObject(id, desc->origin()), _desc(desc), _own(true)
{
#if (ET_OPENGLES)
if (!(isPowerOfTwo(desc->size.x) && isPowerOfTwo(desc->size.y)))
_wrap = vector3<TextureWrap>(TextureWrap::ClampToEdge);
const auto& caps = OpenGLCapabilities::instance();
if ((_desc->internalformat == TextureFormat::R) && (caps.version() > OpenGLVersion::Version_2x))
_desc->internalformat = TextureFormat::R8;
#endif
if (deferred)
{
buildProperies();
}
else
{
generateTexture(rc);
build(rc);
}
}
int main(int argc, char* argv[])
{
log::addOutput(log::ConsoleOutput::Pointer::create());
bool hasPattern = false;
bool hasRoot = false;
bool hasOutput = false;
bool addSpace = true;
std::string rootFolder;
std::string outFile;
std::string pattern = "texture_%d.png";
int outputSize = 1024;
for (int i = 1; i < argc; ++i)
{
if ((strcmp(argv[i], "-root") == 0) && (i + 1 < argc))
{
rootFolder = addTrailingSlash(std::string(argv[i+1]));
if (folderExists(rootFolder))
{
hasRoot = true;
++i;
}
else
{
log::error("Root folder not found: %s", rootFolder.c_str());
return 0;
}
}
else if ((strcmp(argv[i], "-out") == 0) && (i + 1 < argc))
{
outFile = std::string(argv[i+1]);
hasOutput = true;
++i;
}
else if ((strcmp(argv[i], "-pattern") == 0) && (i + 1 < argc))
{
pattern = std::string(argv[i+1]);
hasPattern = true;
++i;
}
else if (strcmp(argv[i], "-nospace") == 0)
{
addSpace = false;
}
else if ((strcmp(argv[i], "-size") == 0) && (i + 1 < argc))
{
outputSize = strToInt(std::string(argv[i+1]));
++i;
}
}
if (!hasRoot || !hasOutput)
{
printHelp();
return 0;
}
StringList fileList;
TextureDescription::List textureDescriptors;
findFiles(rootFolder, "*.png", true, fileList);
for (auto i : fileList)
{
TextureDescription::Pointer desc = TextureDescription::Pointer::create();
png::loadInfoFromFile(i, desc.reference());
if ((desc->size.x > outputSize) || (desc->size.y > outputSize))
{
log::error("Image %s is larger (%d x %d) than ouput size (%d x %d), use -size option",
i.c_str(), desc->size.x, desc->size.y, outputSize, outputSize);
return 0;
}
textureDescriptors.push_back(desc);
}
std::sort(textureDescriptors.begin(), textureDescriptors.end(), [](const TextureDescription::Pointer& d1,
const TextureDescription::Pointer& d2) { return d1->size.square() > d2->size.square(); });
TextureAtlasWriter placer(addSpace);
while (textureDescriptors.size())
{
TextureAtlasWriter::TextureAtlasItem& texture = placer.addItem(vec2i(outputSize));
TextureDescription::List::iterator i = textureDescriptors.begin();
int placedItems = 0;
while (i != textureDescriptors.end())
{
if (placer.placeImage(*i, texture))
{
++placedItems;
i = textureDescriptors.erase(i);
}
else
{
++i;
}
}
texture.texture->size.x = static_cast<int>(roundToHighestPowerOfTwo(texture.maxWidth));
texture.texture->size.y = static_cast<int>(roundToHighestPowerOfTwo(texture.maxHeight));
}
for (const auto i : placer.items())
{
log::info("Texture: %d x %d", i.texture->size.x, i.texture->size.y);
for (const auto& ii : i.images)
{
log::info("(% 5d, % 5d) | (% 5d % 5d) | %s", static_cast<int>(ii.place.origin.x),
static_cast<int>(ii.place.origin.y), static_cast<int>(ii.place.size.x),
static_cast<int>(ii.place.size.y), getFileName(ii.image->origin()).c_str());
}
}
placer.writeToFile(outFile, pattern.c_str());
return 0;
}
Texture::Pointer TextureFactory::loadTexture(const std::string& fileName, ObjectsCache& cache,
bool async, TextureLoaderDelegate* delegate)
{
if (fileName.length() == 0)
return Texture::Pointer();
CriticalSectionScope lock(_csTextureLoading);
auto file = resolveTextureName(fileName);
if (!fileExists(file))
return Texture::Pointer();
uint64_t cachedFileProperty = 0;
Texture::Pointer texture = cache.findAnyObject(file, &cachedFileProperty);
if (texture.invalid())
{
TextureDescription::Pointer desc =
async ? et::loadTextureDescription(file, false) : et::loadTexture(file);
int maxTextureSize = static_cast<int>(RenderingCapabilities::instance().maxTextureSize());
if ((desc->size.x > maxTextureSize) || (desc->size.y > maxTextureSize))
{
log::warning("Attempt to load texture with dimensions (%d x %d) larger than max allowed (%d)",
desc->size.x, desc->size.y, maxTextureSize);
}
if (desc.valid())
{
bool calledFromAnotherThread = !threading::inMainThread();
texture = Texture::Pointer::create(renderContext(), desc, desc->origin(), async || calledFromAnotherThread);
cache.manage(texture, _private->loader);
if (async)
{
_loadingThread->addRequest(desc->origin(), texture, delegate);
}
else if (calledFromAnotherThread)
{
ET_FAIL("ERROR: Unable to load texture synchronously from non-rendering thread.");
}
}
}
else
{
auto newProperty = cache.getFileProperty(file);
if (cachedFileProperty != newProperty)
reloadObject(texture, cache);
if (async)
{
textureDidStartLoading.invokeInMainRunLoop(texture);
if (delegate != nullptr)
{
Invocation1 i;
i.setTarget(delegate, &TextureLoaderDelegate::textureDidStartLoading, texture);
i.invokeInMainRunLoop();
}
textureDidLoad.invokeInMainRunLoop(texture);
if (delegate != nullptr)
{
Invocation1 i;
i.setTarget(delegate, &TextureLoaderDelegate::textureDidLoad, texture);
i.invokeInMainRunLoop();
}
}
}
return texture;
}
Texture::Pointer TextureFactory::genTexture(TextureDescription::Pointer desc)
{
return Texture::Pointer::create(renderContext(), desc, desc->origin(), false);
}
Texture TextureFactory::genTexture(TextureDescription::Pointer desc)
{
return Texture(new TextureData(renderContext(), desc, desc->origin(), false));
}
