int runOS(OS* opSys, SimpleTimer* sysTime){
//variables
pcbQueue readyQ;
PCB running;
insQueue q;
char* elapTime;
char* outBuff;
float f = 0.0;
//constructions
constructQueue(&q);
constructPcbQueue(&readyQ, 10);
alloStr(&elapTime, 10);
alloStr(&outBuff, 50);
stop(sysTime);
getElapsedTime(&elapTime, sysTime);
f += atof(elapTime);
strcat(outBuff, elapTime);
strcat(outBuff, " - Simulator Program Starting");
outputHandler(opSys, outBuff);
start(sysTime);
//begin processing
processmdf(opSys, &readyQ);
stop(sysTime);
getElapsedTime(&elapTime, sysTime);
f += atof(elapTime);
start(sysTime);
heapsort(opSys, &readyQ);
while(pcbq_dequeue(&readyQ, &running))
{
runPCB(opSys, &running, &f);
}
stop(sysTime);
getElapsedTime(&elapTime, sysTime);
f += atof(elapTime);
clearStr(&outBuff);
strcat(outBuff, elapTime);
strcat(outBuff, " - Simulator Program Ending");
outputHandler(opSys, outBuff);
}
int main(int argc, char **argv)
{
char* host = "localhost";
if(argc > 1)
host = argv[1];
Aria::init();
ArClientBase client;
ArGlobalFunctor escapeCB(&escape);
ArKeyHandler keyHandler;
Aria::setKeyHandler(&keyHandler);
printf("Connecting to standaloneServerDemo at %s:%d...\n", host, 7272);
if (!client.blockingConnect(host, 7272))
{
printf("Could not connect to server, exiting\n");
exit(1);
}
InputHandler inputHandler(&client, &keyHandler);
OutputHandler outputHandler(&client);
keyHandler.addKeyHandler(ArKeyHandler::ESCAPE, &escapeCB);
client.runAsync();
while (client.getRunningWithLock())
{
keyHandler.checkKeys();
ArUtil::sleep(1);
}
keyHandler.restore();
Aria::shutdown();
return 0;
}
int main (int argc, char* argv[]) {
//Shared data
bool running = true;
std::string callbackString = "";
int callbackStringLength = 0;
Barrier newInput;
Barrier newLength;
Barrier finishedOutput;
//Thread handler initialization
InputHandler inputHandler(&running, &callbackString, &newInput, &finishedOutput);
LogicHandler logicHandler(&running, &callbackString, &callbackStringLength, &newInput, &newLength);
OutputHandler outputHandler(&running, &callbackString, &callbackStringLength, &newLength, &finishedOutput);
//Threads
std::thread inputThread(&InputHandler::run, &inputHandler);
std::thread logicThread(&LogicHandler::run, &logicHandler);
std::thread outputThread(&OutputHandler::run, &outputHandler);
//Close program
inputThread.join();
logicThread.join();
outputThread.join();
return 0;
}
bool CoreEngine::dissassemble(ULONG64 offset,
unsigned long beforeLines,
unsigned long afterLines,
QString *target,
QString *errorMessage)
{
const ULONG flags = DEBUG_DISASM_MATCHING_SYMBOLS|DEBUG_DISASM_SOURCE_LINE_NUMBER|DEBUG_DISASM_SOURCE_FILE_NAME;
// Catch the output by temporarily setting another handler.
// We use the method that outputs to the output handler as it
// conveniently provides the 'beforeLines' context (stepping back
// in assembler code). We build a complete string first as line breaks
// may occur in-between messages.
QSharedPointer<StringOutputHandler> outputHandler(new StringOutputHandler);
OutputRedirector redir(this, outputHandler);
// For some reason, we need to output to "all clients"
const HRESULT hr = m_cif.debugControl->OutputDisassemblyLines(DEBUG_OUTCTL_ALL_CLIENTS,
beforeLines, beforeLines + afterLines,
offset, flags, 0, 0, 0, 0);
if (FAILED(hr)) {
*errorMessage= QString::fromLatin1("Unable to dissamble at 0x%1: %2").
arg(offset, 0, 16).arg(msgComFailed("OutputDisassemblyLines", hr));
return false;
}
*target = outputHandler->result();
return true;
}
bool CoreEngine::allocDebuggeeMemory(int size, ULONG64 *addressPtr, QString *errorMessage)
{
*addressPtr = 0;
const QString allocCmd = QLatin1String(".dvalloc ") + QString::number(size);
QSharedPointer<StringOutputHandler> outputHandler(new StringOutputHandler);
OutputRedirector redir(this, outputHandler);
Q_UNUSED(redir)
if (!executeDebuggerCommand(allocCmd, errorMessage))
return false;
// "Allocated 1000 bytes starting at 003a0000" or
// "Allocated 1000 bytes starting at 00000000'000023ab" (64bit) / hopefully never localized
const QString output = outputHandler->result().trimmed();
const int lastBlank = output.lastIndexOf(QLatin1Char(' '));
if (lastBlank != -1) {
const QString hexNumberS = QLatin1String("0x") + output.mid(lastBlank + 1);
quint64 address;
if (SymbolGroupContext::getUnsignedHexValue(hexNumberS, &address)) {
*addressPtr = address;
return true;
}
} // blank
*errorMessage = QString::fromLatin1("Failed to parse output '%1'").arg(output);
return false;
}
// Main interface with NVTT
void NVTTProcessor::process( osg::Image& image, nvtt::Format format, bool generateMipMap, bool resizeToPowerOfTwo, CompressionMethod method, CompressionQuality quality)
{
// Fill input options
nvtt::InputOptions inputOptions;
inputOptions.setTextureLayout(nvtt::TextureType_2D, image.s(), image.t() );
inputOptions.setNormalMap(false);
inputOptions.setConvertToNormalMap(false);
inputOptions.setGamma(2.2f, 2.2f);
inputOptions.setNormalizeMipmaps(false);
inputOptions.setWrapMode(nvtt::WrapMode_Clamp);
if (resizeToPowerOfTwo)
{
inputOptions.setRoundMode(nvtt::RoundMode_ToNearestPowerOfTwo);
}
inputOptions.setMipmapGeneration(generateMipMap);
if (image.getPixelFormat() == GL_RGBA)
{
inputOptions.setAlphaMode( nvtt::AlphaMode_Transparency );
}
else
{
inputOptions.setAlphaMode( nvtt::AlphaMode_None );
}
std::vector<unsigned char> imageData( image.s() * image.t() * 4 );
if (image.getPixelFormat() == GL_RGB)
{
convertRGBToBGRA( imageData, image );
}
else
{
convertRGBAToBGRA( imageData, image );
}
inputOptions.setMipmapData(&imageData[0],image.s(),image.t());
// Fill compression options
nvtt::CompressionOptions compressionOptions;
switch(quality)
{
case FASTEST:
compressionOptions.setQuality( nvtt::Quality_Fastest );
break;
case NORMAL:
compressionOptions.setQuality( nvtt::Quality_Normal );
break;
case PRODUCTION:
compressionOptions.setQuality( nvtt::Quality_Production);
break;
case HIGHEST:
compressionOptions.setQuality( nvtt::Quality_Highest);
break;
}
compressionOptions.setFormat( format );
//compressionOptions.setQuantization(false,false,false);
if (format == nvtt::Format_RGBA)
{
if (image.getPixelFormat() == GL_RGB)
{
compressionOptions.setPixelFormat(24,0xff,0xff00,0xff0000,0);
}
else
{
compressionOptions.setPixelFormat(32,0xff,0xff00,0xff0000,0xff000000);
}
}
// Handler
OSGImageOutputHandler outputHandler(format,image.getPixelFormat() == GL_RGB);
VPBErrorHandler errorHandler;
// Fill output options
nvtt::OutputOptions outputOptions;
outputOptions.setOutputHandler(&outputHandler);
outputOptions.setErrorHandler(&errorHandler);
outputOptions.setOutputHeader(false);
// Process the compression now
nvtt::Compressor compressor;
if(method == USE_GPU)
{
compressor.enableCudaAcceleration(true);
if(!compressor.isCudaAccelerationEnabled())
{
OSG_WARN<< "CUDA acceleration was enabled but it is not available. CPU will be used."<<std::endl;
}
}
else
{
compressor.enableCudaAcceleration(false);
}
compressor.process(inputOptions,compressionOptions,outputOptions);
outputHandler.assignImage(image);
}
int main(int argc, char *argv[])
{
MyAssertHandler assertHandler;
MyMessageHandler messageHandler;
bool alpha = false;
bool normal = false;
bool color2normal = false;
bool linear = false;
bool wrapRepeat = false;
bool noMipmaps = false;
bool fast = false;
bool nocuda = false;
bool bc1n = false;
bool luminance = false;
nvtt::Format format = nvtt::Format_BC1;
bool fillHoles = false;
bool countEmptyRows = false;
bool outProvided = false;
bool premultiplyAlpha = false;
nvtt::MipmapFilter mipmapFilter = nvtt::MipmapFilter_Box;
bool loadAsFloat = false;
bool rgbm = false;
bool rangescale = false;
const char * externalCompressor = NULL;
bool silent = false;
bool dds10 = false;
nv::Path input;
nv::Path output;
// Parse arguments.
for (int i = 1; i < argc; i++)
{
// Input options.
if (strcmp("-color", argv[i]) == 0)
{
}
else if (strcmp("-alpha", argv[i]) == 0)
{
alpha = true;
}
else if (strcmp("-normal", argv[i]) == 0)
{
normal = true;
}
else if (strcmp("-tonormal", argv[i]) == 0)
{
color2normal = true;
}
else if (strcmp("-linear", argv[i]) == 0)
{
linear = true;
}
else if (strcmp("-clamp", argv[i]) == 0)
{
}
else if (strcmp("-repeat", argv[i]) == 0)
{
wrapRepeat = true;
}
else if (strcmp("-nomips", argv[i]) == 0)
{
noMipmaps = true;
}
else if (strcmp("-fillholes", argv[i]) == 0)
{
fillHoles = true;
}
else if (strcmp("-countempty", argv[i]) == 0)
{
countEmptyRows = true;
}
else if (strcmp("-premula", argv[i]) == 0)
{
premultiplyAlpha = true;
}
else if (strcmp("-mipfilter", argv[i]) == 0)
{
if (i+1 == argc) break;
i++;
if (strcmp("box", argv[i]) == 0) mipmapFilter = nvtt::MipmapFilter_Box;
else if (strcmp("triangle", argv[i]) == 0) mipmapFilter = nvtt::MipmapFilter_Triangle;
else if (strcmp("kaiser", argv[i]) == 0) mipmapFilter = nvtt::MipmapFilter_Kaiser;
}
else if (strcmp("-float", argv[i]) == 0)
{
loadAsFloat = true;
}
else if (strcmp("-rgbm", argv[i]) == 0)
{
rgbm = true;
}
else if (strcmp("-rangescale", argv[i]) == 0)
{
rangescale = true;
}
// Compression options.
else if (strcmp("-fast", argv[i]) == 0)
{
fast = true;
}
else if (strcmp("-nocuda", argv[i]) == 0)
{
nocuda = true;
}
else if (strcmp("-rgb", argv[i]) == 0)
{
format = nvtt::Format_RGB;
}
else if (strcmp("-lumi", argv[i]) == 0)
{
luminance = true;
format = nvtt::Format_RGB;
}
else if (strcmp("-bc1", argv[i]) == 0)
{
format = nvtt::Format_BC1;
}
else if (strcmp("-bc1n", argv[i]) == 0)
{
format = nvtt::Format_BC1;
bc1n = true;
}
else if (strcmp("-bc1a", argv[i]) == 0)
{
format = nvtt::Format_BC1a;
}
else if (strcmp("-bc2", argv[i]) == 0)
{
format = nvtt::Format_BC2;
}
else if (strcmp("-bc3", argv[i]) == 0)
{
format = nvtt::Format_BC3;
}
else if (strcmp("-bc3n", argv[i]) == 0)
{
format = nvtt::Format_BC3n;
}
else if (strcmp("-bc4", argv[i]) == 0)
{
format = nvtt::Format_BC4;
}
else if (strcmp("-bc5", argv[i]) == 0)
{
format = nvtt::Format_BC5;
}
else if (strcmp("-bc6", argv[i]) == 0)
{
format = nvtt::Format_BC6;
}
else if (strcmp("-bc7", argv[i]) == 0)
{
format = nvtt::Format_BC7;
}
else if (strcmp("-bc3_rgbm", argv[i]) == 0)
{
format = nvtt::Format_BC3_RGBM;
rgbm = true;
}
// Undocumented option. Mainly used for testing.
else if (strcmp("-ext", argv[i]) == 0)
{
if (i+1 < argc && argv[i+1][0] != '-') {
externalCompressor = argv[i+1];
i++;
}
}
else if (strcmp("-pause", argv[i]) == 0)
{
printf("Press ENTER\n"); fflush(stdout);
getchar();
}
// Output options
else if (strcmp("-silent", argv[i]) == 0)
{
silent = true;
}
else if (strcmp("-dds10", argv[i]) == 0)
{
dds10 = true;
}
else if (argv[i][0] != '-')
{
input = argv[i];
if (i+1 < argc && argv[i+1][0] != '-') {
output = argv[i+1];
if(output.endsWith("\\") || output.endsWith("/")) {
//only path specified
output.append(input.fileName());
output.stripExtension();
output.append(".dds");
}
else
outProvided = true;
}
else
{
output.copy(input.str());
output.stripExtension();
output.append(".dds");
}
break;
}
else
{
printf("Warning: unrecognized option \"%s\"\n", argv[i]);
}
}
const uint version = nvtt::version();
const uint major = version / 100 / 100;
const uint minor = (version / 100) % 100;
const uint rev = version % 100;
if (!silent)
{
printf("NVIDIA Texture Tools %u.%u.%u - Copyright NVIDIA Corporation 2007\n\n", major, minor, rev);
}
if (input.isNull())
{
printf("usage: nvcompress [options] infile [outfile.dds]\n\n");
printf("Input options:\n");
printf(" -color The input image is a color map (default).\n");
printf(" -alpha The input image has an alpha channel used for transparency.\n");
printf(" -normal The input image is a normal map.\n");
printf(" -linear The input is in linear color space.\n");
printf(" -tonormal Convert input to normal map.\n");
printf(" -clamp Clamp wrapping mode (default).\n");
printf(" -repeat Repeat wrapping mode.\n");
printf(" -nomips Disable mipmap generation.\n");
printf(" -premula Premultiply alpha into color channel.\n");
printf(" -mipfilter Mipmap filter. One of the following: box, triangle, kaiser.\n");
printf(" -float Load as floating point image.\n\n");
printf(" -rgbm Transform input to RGBM.\n\n");
printf(" -rangescale Scale image to use entire color range.\n\n");
printf(" -fillholes Fill transparent areas with nearby color. Note: adds transparent upper height into output file name in case the outfile was not specified, and infile was in form #.####.xxx.ext\n\n");
printf("Compression options:\n");
printf(" -fast Fast compression.\n");
printf(" -nocuda Do not use cuda compressor.\n");
printf(" -rgb RGBA format\n");
printf(" -lumi LUMINANCE format\n");
printf(" -bc1 BC1 format (DXT1)\n");
printf(" -bc1n BC1 normal map format (DXT1nm)\n");
printf(" -bc1a BC1 format with binary alpha (DXT1a)\n");
printf(" -bc2 BC2 format (DXT3)\n");
printf(" -bc3 BC3 format (DXT5)\n");
printf(" -bc3n BC3 normal map format (DXT5nm)\n");
printf(" -bc4 BC4 format (ATI1)\n");
printf(" -bc5 BC5 format (3Dc/ATI2)\n");
printf(" -bc6 BC6 format\n");
printf(" -bc7 BC7 format\n\n");
printf(" -bc3_rgbm BC3-rgbm format\n\n");
printf("Output options:\n");
printf(" -silent \tDo not output progress messages\n");
printf(" -dds10 \tUse DirectX 10 DDS format (enabled by default for BC6/7)\n\n");
return EXIT_FAILURE;
}
// Make sure input file exists.
if (!nv::FileSystem::exists(input.str()))
{
fprintf(stderr, "The file '%s' does not exist.\n", input.str());
return 1;
}
// Set input options.
nvtt::InputOptions inputOptions;
bool useSurface = false; // @@ use Surface API in all cases!
nvtt::Surface image;
if (format == nvtt::Format_Unknown && nv::strCaseDiff(input.extension(), ".dds") == 0)
{
// Load surface.
nv::DirectDrawSurface dds(input.str());
if (!dds.isValid())
{
fprintf(stderr, "The file '%s' is not a valid DDS file.\n", input.str());
return EXIT_FAILURE;
}
if (!dds.isSupported())
{
fprintf(stderr, "The file '%s' is not a supported DDS file.\n", input.str());
return EXIT_FAILURE;
}
//if format not specified, get from dds
if (dds.isRGB())
format = nvtt::Format_RGB;
else if (dds.isLuminance()) {
luminance = true;
format = nvtt::Format_RGB;
}
else {
uint cc = dds.fourcc();
switch(cc) {
case nv::FOURCC_DXT1: format = nvtt::Format_DXT1; break;
case nv::FOURCC_DXT3: format = nvtt::Format_DXT3; break;
case nv::FOURCC_DXT5: format = nvtt::Format_DXT5; break;
case nv::FOURCC_RXGB: format = nvtt::Format_BC3n; break;
case nv::FOURCC_ATI1: format = nvtt::Format_BC4; break;
case nv::FOURCC_ATI2: format = nvtt::Format_BC5; break;
}
}
alpha = dds.hasAlpha();
}
if (format == nvtt::Format_BC3_RGBM || rgbm) {
useSurface = true;
if (!image.load(input.str())) {
fprintf(stderr, "Error opening input file '%s'.\n", input.str());
return EXIT_FAILURE;
}
if (rangescale) {
// get color range
float min_color[3], max_color[3];
image.range(0, &min_color[0], &max_color[0]);
image.range(1, &min_color[1], &max_color[1]);
image.range(2, &min_color[2], &max_color[2]);
//printf("Color range = %.2f %.2f %.2f\n", max_color[0], max_color[1], max_color[2]);
float color_range = nv::max3(max_color[0], max_color[1], max_color[2]);
const float max_color_range = 16.0f;
if (color_range > max_color_range) {
//Log::print("Clamping color range %f to %f\n", color_range, max_color_range);
color_range = max_color_range;
}
//color_range = max_color_range; // Use a fixed color range for now.
for (int i = 0; i < 3; i++) {
image.scaleBias(i, 1.0f / color_range, 0.0f);
}
image.toneMap(nvtt::ToneMapper_Linear, /*parameters=*/NULL); // Clamp without changing the hue.
// Clamp alpha.
image.clamp(3);
}
if (alpha) {
image.setAlphaMode(nvtt::AlphaMode_Transparency);
}
// To gamma.
image.toGamma(2);
if (format != nvtt::Format_BC3_RGBM) {
image.setAlphaMode(nvtt::AlphaMode_None);
image.toRGBM(1, 0.15f);
}
}
else if (format == nvtt::Format_BC6) {
//format = nvtt::Format_BC1;
//fprintf(stderr, "BLABLABLA.\n");
useSurface = true;
if (!image.load(input.str())) {
fprintf(stderr, "Error opening input file '%s'.\n", input.str());
return EXIT_FAILURE;
}
image.setAlphaMode(nvtt::AlphaMode_Transparency);
}
else {
if (nv::strCaseDiff(input.extension(), ".dds") == 0)
{
// Load surface.
nv::DirectDrawSurface dds(input.str());
if (!dds.isValid())
{
fprintf(stderr, "The file '%s' is not a valid DDS file.\n", input.str());
return EXIT_FAILURE;
}
if (!dds.isSupported())
{
fprintf(stderr, "The file '%s' is not a supported DDS file.\n", input.str());
return EXIT_FAILURE;
}
uint faceCount;
if (dds.isTexture2D())
{
inputOptions.setTextureLayout(nvtt::TextureType_2D, dds.width(), dds.height());
faceCount = 1;
}
else if (dds.isTexture3D())
{
inputOptions.setTextureLayout(nvtt::TextureType_3D, dds.width(), dds.height(), dds.depth());
faceCount = 1;
nvDebugBreak();
}
else if (dds.isTextureCube()) {
inputOptions.setTextureLayout(nvtt::TextureType_Cube, dds.width(), dds.height());
faceCount = 6;
} else {
nvDebugCheck(dds.isTextureArray());
inputOptions.setTextureLayout(nvtt::TextureType_Array, dds.width(), dds.height(), 1, dds.arraySize());
faceCount = dds.arraySize();
dds10 = true;
}
uint mipmapCount = dds.mipmapCount();
nv::Image mipmap;
for (uint f = 0; f < faceCount; f++)
{
for (uint m = 0; m < mipmapCount; m++)
{
dds.mipmap(&mipmap, f, m); // @@ Load as float.
inputOptions.setMipmapData(mipmap.pixels(), mipmap.width(), mipmap.height(), mipmap.depth(), f, m);
}
}
}
else
{
if (nv::strCaseDiff(input.extension(), ".exr") == 0 || nv::strCaseDiff(input.extension(), ".hdr") == 0)
{
loadAsFloat = true;
}
if (loadAsFloat)
{
nv::AutoPtr<nv::FloatImage> image(nv::ImageIO::loadFloat(input.str()));
if (image == NULL)
{
fprintf(stderr, "The file '%s' is not a supported image type.\n", input.str());
return EXIT_FAILURE;
}
inputOptions.setFormat(nvtt::InputFormat_RGBA_32F);
inputOptions.setTextureLayout(nvtt::TextureType_2D, image->width(), image->height());
/*for (uint i = 0; i < image->componentNum(); i++)
{
inputOptions.setMipmapChannelData(image->channel(i), i, image->width(), image->height());
}*/
}
else
{
// Regular image.
nv::Image image;
if (!image.load(input.str()))
{
fprintf(stderr, "The file '%s' is not a supported image type.\n", input.str());
return 1;
}
if(countEmptyRows)
{
//count empty rows & append to the file name
const int w = image.width();
const int h = image.height();
int ytr = 0; //height of the transparent part
if(image.format() == image.Format_ARGB) {
for(int y=0; y<h; ++y) {
for(int x=0; x<w; ++x) {
if(image.pixel(x,y).a >= 128) {
ytr = y;
y = h;
break;
}
}
}
}
//change outfile
output.stripExtension();
output.appendFormat(".%04i.dds", ytr);
}
if(fillHoles) {
nv::FloatImage fimage(&image);
// create feature mask
nv::BitMap bmp(image.width(),image.height());
bmp.clearAll();
const int w=image.width();
const int h=image.height();
int ytr = h; //height of the transparent part
for(int y=0; y<h; ++y)
for(int x=0; x<w; ++x)
if(fimage.pixel(3,x,y,0) >= 0.5f) {
bmp.setBitAt(x,y);
if(y < ytr) ytr = y;
}
// fill holes
nv::fillVoronoi(&fimage,&bmp);
// do blur passes
for(int i=0; i<8; ++i)
nv::fillBlur(&fimage,&bmp);
nv::AutoPtr<nv::Image> img(fimage.createImage(0));
inputOptions.setTextureLayout(nvtt::TextureType_2D, img->width(), img->height());
inputOptions.setMipmapData(img->pixels(), img->width(), img->height());
}
else {
inputOptions.setTextureLayout(nvtt::TextureType_2D, image.width(), image.height());
inputOptions.setMipmapData(image.pixels(), image.width(), image.height());
}
}
}
if (format == nvtt::Format_Unknown)
format = nvtt::Format_BC1;
if (wrapRepeat)
{
inputOptions.setWrapMode(nvtt::WrapMode_Repeat);
}
else
{
inputOptions.setWrapMode(nvtt::WrapMode_Clamp);
}
if (alpha)
{
inputOptions.setAlphaMode(nvtt::AlphaMode_Transparency);
}
else
{
inputOptions.setAlphaMode(nvtt::AlphaMode_None);
}
// Block compressed textures with mipmaps must be powers of two.
if (!noMipmaps && format != nvtt::Format_RGB)
{
//inputOptions.setRoundMode(nvtt::RoundMode_ToPreviousPowerOfTwo);
}
if (linear)
{
setLinearMap(inputOptions);
}
else if (normal)
{
setNormalMap(inputOptions);
}
else if (color2normal)
{
setColorToNormalMap(inputOptions);
}
else
{
setColorMap(inputOptions);
}
if (noMipmaps)
{
inputOptions.setMipmapGeneration(false);
}
/*if (premultiplyAlpha)
{
inputOptions.setPremultiplyAlpha(true);
inputOptions.setAlphaMode(nvtt::AlphaMode_Premultiplied);
}*/
inputOptions.setMipmapFilter(mipmapFilter);
}
nvtt::CompressionOptions compressionOptions;
compressionOptions.setFormat(format);
//compressionOptions.setQuantization(/*color dithering*/true, /*alpha dithering*/false, /*binary alpha*/false);
if (format == nvtt::Format_BC2) {
// Dither alpha when using BC2.
compressionOptions.setQuantization(/*color dithering*/false, /*alpha dithering*/true, /*binary alpha*/false);
}
else if (format == nvtt::Format_BC1a) {
// Binary alpha when using BC1a.
compressionOptions.setQuantization(/*color dithering*/false, /*alpha dithering*/true, /*binary alpha*/true, 127);
}
else if (format == nvtt::Format_RGBA)
{
if (luminance)
{
compressionOptions.setPixelFormat(8, 0xff, 0, 0, 0);
}
else {
// @@ Edit this to choose the desired pixel format:
// compressionOptions.setPixelType(nvtt::PixelType_Float);
// compressionOptions.setPixelFormat(16, 16, 16, 16);
// compressionOptions.setPixelType(nvtt::PixelType_UnsignedNorm);
// compressionOptions.setPixelFormat(16, 0, 0, 0);
//compressionOptions.setQuantization(/*color dithering*/true, /*alpha dithering*/false, /*binary alpha*/false);
//compressionOptions.setPixelType(nvtt::PixelType_UnsignedNorm);
//compressionOptions.setPixelFormat(5, 6, 5, 0);
//compressionOptions.setPixelFormat(8, 8, 8, 8);
// A4R4G4B4
//compressionOptions.setPixelFormat(16, 0xF00, 0xF0, 0xF, 0xF000);
//compressionOptions.setPixelFormat(32, 0xFF0000, 0xFF00, 0xFF, 0xFF000000);
// R10B20G10A2
//compressionOptions.setPixelFormat(10, 10, 10, 2);
// DXGI_FORMAT_R11G11B10_FLOAT
//compressionOptions.setPixelType(nvtt::PixelType_Float);
//compressionOptions.setPixelFormat(11, 11, 10, 0);
}
}
else if (format == nvtt::Format_BC6)
{
compressionOptions.setPixelType(nvtt::PixelType_UnsignedFloat);
}
if (fast)
{
compressionOptions.setQuality(nvtt::Quality_Fastest);
}
else
{
compressionOptions.setQuality(nvtt::Quality_Normal);
//compressionOptions.setQuality(nvtt::Quality_Production);
//compressionOptions.setQuality(nvtt::Quality_Highest);
}
if (bc1n)
{
compressionOptions.setColorWeights(1, 1, 0);
}
//compressionOptions.setColorWeights(0.2126, 0.7152, 0.0722);
//compressionOptions.setColorWeights(0.299, 0.587, 0.114);
//compressionOptions.setColorWeights(3, 4, 2);
if (externalCompressor != NULL)
{
compressionOptions.setExternalCompressor(externalCompressor);
}
MyErrorHandler errorHandler;
MyOutputHandler outputHandler(output.str());
if (outputHandler.stream->isError())
{
fprintf(stderr, "Error opening '%s' for writting\n", output.str());
return EXIT_FAILURE;
}
nvtt::Context context;
context.enableCudaAcceleration(!nocuda);
if (!silent)
{
printf("CUDA acceleration ");
if (context.isCudaAccelerationEnabled())
{
printf("ENABLED\n\n");
}
else
{
printf("DISABLED\n\n");
}
}
int outputSize = 0;
if (useSurface) {
outputSize = context.estimateSize(image, 1, compressionOptions);
}
else {
outputSize = context.estimateSize(inputOptions, compressionOptions);
}
outputHandler.setTotal(outputSize);
outputHandler.setDisplayProgress(!silent);
nvtt::OutputOptions outputOptions;
//outputOptions.setFileName(output);
outputOptions.setOutputHandler(&outputHandler);
outputOptions.setErrorHandler(&errorHandler);
// Automatically use dds10 if compressing to BC6 or BC7
if (format == nvtt::Format_BC6 || format == nvtt::Format_BC7)
{
dds10 = true;
}
if (dds10)
{
outputOptions.setContainer(nvtt::Container_DDS10);
}
// printf("Press ENTER.\n");
// fflush(stdout);
// getchar();
nv::Timer timer;
timer.start();
if (useSurface) {
if (!context.outputHeader(image, 1, compressionOptions, outputOptions)) {
fprintf(stderr, "Error writing file header.\n");
return EXIT_FAILURE;
}
if (!context.compress(image, 0, 0, compressionOptions, outputOptions)) {
fprintf(stderr, "Error compressing file.\n");
return EXIT_FAILURE;
}
}
else {
if (!context.process(inputOptions, compressionOptions, outputOptions)) {
return EXIT_FAILURE;
}
}
timer.stop();
if (!silent) {
printf("\rtime taken: %.3f seconds\n", timer.elapsed());
}
return EXIT_SUCCESS;
}
int main(int argc, char *argv[])
{
MyAssertHandler assertHandler;
MyMessageHandler messageHandler;
bool alpha = false;
bool normal = false;
bool color2normal = false;
bool wrapRepeat = false;
bool noMipmaps = false;
bool fast = false;
bool nocuda = false;
bool silent = false;
bool bc1n = false;
nvtt::Format format = nvtt::Format_BC1;
const char * externalCompressor = NULL;
nv::Path input;
nv::Path output;
// Parse arguments.
for (int i = 1; i < argc; i++)
{
// Input options.
if (strcmp("-color", argv[i]) == 0)
{
}
else if (strcmp("-alpha", argv[i]) == 0)
{
alpha = true;
}
else if (strcmp("-normal", argv[i]) == 0)
{
normal = true;
}
else if (strcmp("-tonormal", argv[i]) == 0)
{
color2normal = true;
}
else if (strcmp("-clamp", argv[i]) == 0)
{
}
else if (strcmp("-repeat", argv[i]) == 0)
{
wrapRepeat = true;
}
else if (strcmp("-nomips", argv[i]) == 0)
{
noMipmaps = true;
}
// Compression options.
else if (strcmp("-fast", argv[i]) == 0)
{
fast = true;
}
else if (strcmp("-nocuda", argv[i]) == 0)
{
nocuda = true;
}
else if (strcmp("-rgb", argv[i]) == 0)
{
format = nvtt::Format_RGB;
}
else if (strcmp("-bc1", argv[i]) == 0)
{
format = nvtt::Format_BC1;
}
else if (strcmp("-bc1n", argv[i]) == 0)
{
format = nvtt::Format_BC1;
bc1n = true;
}
else if (strcmp("-bc1a", argv[i]) == 0)
{
format = nvtt::Format_BC1a;
}
else if (strcmp("-bc2", argv[i]) == 0)
{
format = nvtt::Format_BC2;
}
else if (strcmp("-bc3", argv[i]) == 0)
{
format = nvtt::Format_BC3;
}
else if (strcmp("-bc3n", argv[i]) == 0)
{
format = nvtt::Format_BC3n;
}
else if (strcmp("-bc4", argv[i]) == 0)
{
format = nvtt::Format_BC4;
}
else if (strcmp("-bc5", argv[i]) == 0)
{
format = nvtt::Format_BC5;
}
// Undocumented option. Mainly used for testing.
else if (strcmp("-ext", argv[i]) == 0)
{
if (i+1 < argc && argv[i+1][0] != '-') {
externalCompressor = argv[i+1];
i++;
}
}
// Misc options
else if (strcmp("-silent", argv[i]) == 0)
{
silent = true;
}
else if (argv[i][0] != '-')
{
input = argv[i];
if (i+1 < argc && argv[i+1][0] != '-') {
output = argv[i+1];
}
else
{
output.copy(input.str());
output.stripExtension();
output.append(".dds");
}
break;
}
}
const uint version = nvtt::version();
const uint major = version / 100;
const uint minor = version % 100;
printf("NVIDIA Texture Tools %u.%u - Copyright NVIDIA Corporation 2007\n\n", major, minor);
if (input.isNull())
{
printf("usage: nvcompress [options] infile [outfile]\n\n");
printf("Input options:\n");
printf(" -color \tThe input image is a color map (default).\n");
printf(" -alpha \tThe input image has an alpha channel used for transparency.\n");
printf(" -normal \tThe input image is a normal map.\n");
printf(" -tonormal\tConvert input to normal map.\n");
printf(" -clamp \tClamp wrapping mode (default).\n");
printf(" -repeat \tRepeat wrapping mode.\n");
printf(" -nomips \tDisable mipmap generation.\n\n");
printf("Compression options:\n");
printf(" -fast \tFast compression.\n");
printf(" -nocuda \tDo not use cuda compressor.\n");
printf(" -rgb \tRGBA format\n");
printf(" -bc1 \tBC1 format (DXT1)\n");
printf(" -bc1n \tBC1 normal map format (DXT1nm)\n");
printf(" -bc1a \tBC1 format with binary alpha (DXT1a)\n");
printf(" -bc2 \tBC2 format (DXT3)\n");
printf(" -bc3 \tBC3 format (DXT5)\n");
printf(" -bc3n \tBC3 normal map format (DXT5nm)\n");
printf(" -bc4 \tBC4 format (ATI1)\n");
printf(" -bc5 \tBC5 format (3Dc/ATI2)\n\n");
return EXIT_FAILURE;
}
// @@ Make sure input file exists.
// Set input options.
nvtt::InputOptions inputOptions;
if (nv::strCaseCmp(input.extension(), ".dds") == 0)
{
// Load surface.
nv::DirectDrawSurface dds(input);
if (!dds.isValid())
{
fprintf(stderr, "The file '%s' is not a valid DDS file.\n", input.str());
return EXIT_FAILURE;
}
if (!dds.isSupported() || dds.isTexture3D())
{
fprintf(stderr, "The file '%s' is not a supported DDS file.\n", input.str());
return EXIT_FAILURE;
}
uint faceCount;
if (dds.isTexture2D())
{
inputOptions.setTextureLayout(nvtt::TextureType_2D, dds.width(), dds.height());
faceCount = 1;
}
else
{
nvDebugCheck(dds.isTextureCube());
inputOptions.setTextureLayout(nvtt::TextureType_Cube, dds.width(), dds.height());
faceCount = 6;
}
uint mipmapCount = dds.mipmapCount();
nv::Image mipmap;
for (uint f = 0; f < faceCount; f++)
{
for (uint m = 0; m < mipmapCount; m++)
{
dds.mipmap(&mipmap, f, m);
inputOptions.setMipmapData(mipmap.pixels(), mipmap.width(), mipmap.height(), 1, f, m);
}
}
}
else
{
// Regular image.
nv::Image image;
if (!image.load(input))
{
fprintf(stderr, "The file '%s' is not a supported image type.\n", input.str());
return EXIT_FAILURE;
}
inputOptions.setTextureLayout(nvtt::TextureType_2D, image.width(), image.height());
inputOptions.setMipmapData(image.pixels(), image.width(), image.height());
}
if (wrapRepeat)
{
inputOptions.setWrapMode(nvtt::WrapMode_Repeat);
}
else
{
inputOptions.setWrapMode(nvtt::WrapMode_Clamp);
}
if (alpha)
{
inputOptions.setAlphaMode(nvtt::AlphaMode_Transparency);
}
else
{
inputOptions.setAlphaMode(nvtt::AlphaMode_None);
}
if (normal)
{
setNormalMap(inputOptions);
}
else if (color2normal)
{
setColorToNormalMap(inputOptions);
}
else
{
setColorMap(inputOptions);
}
if (noMipmaps)
{
inputOptions.setMipmapGeneration(false);
}
nvtt::CompressionOptions compressionOptions;
compressionOptions.setFormat(format);
if (fast)
{
compressionOptions.setQuality(nvtt::Quality_Fastest);
}
else
{
compressionOptions.setQuality(nvtt::Quality_Normal);
//compressionOptions.setQuality(nvtt::Quality_Production);
//compressionOptions.setQuality(nvtt::Quality_Highest);
}
if (bc1n)
{
compressionOptions.setColorWeights(1, 1, 0);
}
if (externalCompressor != NULL)
{
compressionOptions.setExternalCompressor(externalCompressor);
}
MyErrorHandler errorHandler;
MyOutputHandler outputHandler(output);
if (outputHandler.stream->isError())
{
fprintf(stderr, "Error opening '%s' for writting\n", output.str());
return EXIT_FAILURE;
}
nvtt::Compressor compressor;
compressor.enableCudaAcceleration(!nocuda);
printf("CUDA acceleration ");
if (compressor.isCudaAccelerationEnabled())
{
printf("ENABLED\n\n");
}
else
{
printf("DISABLED\n\n");
}
outputHandler.setTotal(compressor.estimateSize(inputOptions, compressionOptions));
outputHandler.setDisplayProgress(!silent);
nvtt::OutputOptions outputOptions;
//outputOptions.setFileName(output);
outputOptions.setOutputHandler(&outputHandler);
outputOptions.setErrorHandler(&errorHandler);
// printf("Press ENTER.\n");
// fflush(stdout);
// getchar();
clock_t start = clock();
if (!compressor.process(inputOptions, compressionOptions, outputOptions))
{
return EXIT_FAILURE;
}
clock_t end = clock();
printf("\rtime taken: %.3f seconds\n", float(end-start) / CLOCKS_PER_SEC);
return EXIT_SUCCESS;
}
int main(int argc, char **argv)
{
/* Aria initialization: */
Aria::init();
//ArLog::init(ArLog::StdErr, ArLog::Verbose);
/* Create our client object. This is the object which connects with a remote
* server over the network, and which manages all of our communication with it
* once connected by sending data "requests". Requests may be sent once, or
* may be repeated at any frequency. Requests and replies to requsets contain
* payload "packets", into which various data types may be packed (when making a
* request), and from which they may also be extracted (when handling a reply).
* See the InputHandler and OutputHandler classes above for
* examples of making requests and reading/writing the data in packets.
*/
ArClientBase client;
/* Aria components use this to get options off the command line: */
ArArgumentParser parser(&argc, argv);
/* This will be used to connect our client to the server, including
* various bits of handshaking (e.g. sending a password, retrieving a list
* of data requests and commands...)
* It will get the hostname from the -host command line argument: */
ArClientSimpleConnector clientConnector(&parser);
parser.loadDefaultArguments();
/* Check for -help, and unhandled arguments: */
if (!Aria::parseArgs() || !parser.checkHelpAndWarnUnparsed())
{
Aria::logOptions();
exit(0);
}
/* Connect our client object to the remote server: */
if (!clientConnector.connectClient(&client))
{
if (client.wasRejected())
printf("Server '%s' rejected connection, exiting\n", client.getHost());
else
printf("Could not connect to server '%s', exiting\n", client.getHost());
exit(1);
}
printf("Connected to server.\n");
client.setRobotName(client.getHost()); // include server name in log messages
/* Create a key handler and also tell Aria about it */
ArKeyHandler keyHandler;
Aria::setKeyHandler(&keyHandler);
/* Global escape-key handler to shut everythnig down */
ArGlobalFunctor escapeCB(&escape);
keyHandler.addKeyHandler(ArKeyHandler::ESCAPE, &escapeCB);
/* Now that we're connected, we can run the client in a background thread,
* sending requests and receiving replies. When a reply to a request arrives,
* or the server makes a request of the client, a handler functor is invoked.
* The handlers for this program are registered with the client by the
* InputHandler and OutputHandler classes (in their constructors, above) */
client.runAsync();
/* Create the InputHandler object and request safe-drive mode */
InputHandler inputHandler(&client, &keyHandler);
inputHandler.safeDrive();
/* Use ArClientBase::dataExists() to see if the "ratioDrive" request is available on the
* currently connected server. */
if(!client.dataExists("ratioDrive") )
printf("Warning: server does not have ratioDrive command, can not use drive commands!\n");
else
printf("Keys are:\nUP: Forward\nDOWN: Backward\nLEFT: Turn Left\nRIGHT: Turn Right\n");
printf("s: Enable safe drive mode (if supported).\nu: Disable safe drive mode (if supported).\nl: list all data requests on server\n\nDrive commands use 'ratioDrive'.\nt: logs the network tracking tersely\nv: logs the network tracking verbosely\nr: resets the network tracking\n\n");
/* Create the OutputHandler object. It will begin printing out data from the
* server. */
OutputHandler outputHandler(&client);
/* Begin capturing keys into the key handler. Callbacks will be called
* asyncrosously from this main thread when pressed. */
/* While the client is still running (getRunningWithLock locks the "running"
* flag until it returns), check keys on the key handler (which will call
* our callbacks), then tell the input handler to send drive commands.
* Sleep a fraction of a second as well to avoid using
* too much CPU time, and give other threads time to work.
*/
while (client.getRunningWithLock())
{
keyHandler.checkKeys();
inputHandler.sendInput();
ArUtil::sleep(100);
}
/* The client stopped running, due to disconnection from the server, general
* Aria shutdown, or some other reason. */
client.disconnect();
Aria::shutdown();
return 0;
}
int main(int argc, char **argv)
{
// Initialize Aria and Arnl global information
/* Aria initialization: */
Aria::init();
ArLog::init(ArLog::File, ArLog::Verbose,"c:\\temp\\AmbifluxRobot.log",true);
ArLog::log(ArLog::Verbose, "Ambiflux Starting");
// Create the sound queue.
ArSoundsQueue soundQueue;
// Set WAV file callbacks
soundQueue.setPlayWavFileCallback(ArSoundPlayer::getPlayWavFileCallback());
soundQueue.setInterruptWavFileCallback(ArSoundPlayer::getStopPlayingCallback());
// Notifications when the queue goes empty or non-empty.
soundQueue.addQueueEmptyCallback(new ArGlobalFunctor(&queueNowEmpty));
soundQueue.addQueueNonemptyCallback(new ArGlobalFunctor(&queueNowNonempty));
// Run the sound queue in a new thread
soundQueue.runAsync();
/* Pool de messages en provenance de la tablette
Issu de l'implementation d'un modèle producteur/consommateur
pour les messages entrants. Plusieurs thread y accèdent
Tread-safe (mutex)*/
//Pool<Frame> messagePool;
/* Pool de messages en provenance d'un client TCP
Issu de l'implementation d'un modèle producteur/consommateur
pour les messages entrants. Plusieurs thread y accèdent
Tread-safe (mutex)*/
/*TODO : A remplacer par tcpReceivedPool */
//Pool<Frame> tcpMessagePool;
/* Pool de messages en provenance d'un client TCP
Issu de l'implementation d'un modèle producteur/consommateur
pour les messages entrants. Plusieurs thread y accèdent
Tread-safe (mutex)*/
Pool<TCPReceivedRequest> tcpReceivedPool;
/*Create our thread to communicate with iPad
Server start on port 7171 to receive requests from ipad
A client is created on port 7474 to request iPad
*/
//IhmCommunicationThread ihm(7171, &messagePool);
IhmCommunicationThread ihm(7171, &tcpReceivedPool);
//On s'abonne à la réception de message par la classe IhmCommunicationThread
//Todo : A supprimer ?
//ArGlobalFunctor1<Frame> functMessageReceived(&CallbackIhmReceived);
//ihm.setCallback(&functMessageReceived);
ihm.runAsync();
//soundQueue.play("c:\\temp\\let_me_out.wav");
//while(true);
/* Create our client object. This is the object which connects with a remote
* server over the network, and which manages all of our communication with it
* once connected by sending data "requests". Requests may be sent once, or
* may be repeated at any frequency. Requests and replies to requsets contain
* payload "packets", into which various data types may be packed (when making a
* request), and from which they may also be extracted (when handling a reply).
* See the InputHandler and OutputHandler classes above for
* examples of making requests and reading/writing the data in packets.
*/
ArClientBase client;
/* Aria components use this to get options off the command line: */
ArArgumentParser parser(&argc, argv);
/* This will be used to connect our client to the server, including
* various bits of handshaking (e.g. sending a password, retrieving a list
* of data requests and commands...)
* It will get the hostname from the -host command line argument: */
ArClientSimpleConnector clientConnector(&parser);
parser.loadDefaultArguments();
/* Check for -help, and unhandled arguments: */
if (!Aria::parseArgs() || !parser.checkHelpAndWarnUnparsed())
{
Aria::logOptions();
exit(0);
}
/* Connect our client object to the remote server: */
if (!clientConnector.connectClient(&client))
{
if (client.wasRejected())
printf("Server '%s' rejected connection, exiting\n", client.getHost());
else
printf("Could not connect to server '%s', exiting\n", client.getHost());
exit(1);
}
printf("Connected to server.\n");
client.setRobotName(client.getHost()); // include server name in log messages
///* Create a key handler and also tell Aria about it */
ArKeyHandler keyHandler;
Aria::setKeyHandler(&keyHandler);
/* Global escape-key handler to shut everythnig down */
ArGlobalFunctor escapeCB(&escape);
keyHandler.addKeyHandler(ArKeyHandler::ESCAPE, &escapeCB);
/* Now that we're connected, we can run the client in a background thread,
* sending requests and receiving replies. When a reply to a request arrives,
* or the server makes a request of the client, a handler functor is invoked.
* The handlers for this program are registered with the client by the
* InputHandler and OutputHandler classes (in their constructors, above) */
client.runAsync();
///* Create the InputHandler object and request safe-drive mode */
//InputHandler inputHandler(&client);
//inputHandler.gotoGoal("215");
////inputHandler.safeDrive();
// Mode goto
if(!client.dataExists("gotoGoal") )
printf("Warning: Pas de mode goto!\n");
else
printf("Mode goto accepte");
//ArFunctor1<ArNetPacket*>
//client.addHandler("pathPlannerStatus",);
/* Create the OutputHandler object. It will begin printing out data from the
* server. */
OutputHandler outputHandler(&client);
//On s'abonne à la réception de message par la classe IhmCommunicationThread
//Todo : A supprimer ?
//ArGlobalFunctor1<Frame> functMessageReceived(&CallbackIhmReceived);
//ihm.setCallback(&functMessageReceived);
//ihm.runAsync();
//pour tester IHM
// ArUtil::sleep(1000);
// ihm.testCommunication();
//SRMA object
string strSRMA = DALRest::getResourceById("9");
SRMA srma(strSRMA,client, outputHandler, ihm, &soundQueue);
//Loop du mode Ambiant
MainLoop myLoop(srma, &tcpReceivedPool);
myLoop.runAsync();
//Thread loop : TCP commands
//Produces messages in tcpMessagePool
//ServerLoop myServerLoop(srma, &tcpReceivedPool);
//myServerLoop.runAsync();
//Traitement des requetes TCP
//Consulmes messages in tcpMessagePool
//TCPRequestsLoop myTCPRequestsLoop(srma, &tcpReceivedPool);
//myTCPRequestsLoop.runAsync();
/* While the client is still running (getRunningWithLock locks the "running"
* flag until it returns), check keys on the key handler (which will call
* our callbacks), then tell the input handler to send drive commands.
* Sleep a fraction of a second as well to avoid using
* too much CPU time, and give other threads time to work.
*/
while (client.getRunningWithLock())
{
//keyHandler.checkKeys();
//inputHandler.sendInput();
ArUtil::sleep(100);
}
/* The client stopped running, due to disconnection from the server, general
* Aria shutdown, or some other reason. */
client.disconnect();
Aria::shutdown();
return 0;
}
int main(int argc, char *argv[])
{
MyAssertHandler assertHandler;
MyMessageHandler messageHandler;
bool alpha = false;
bool normal = false;
bool color2normal = false;
bool wrapRepeat = false;
bool noMipmaps = false;
bool fast = false;
bool nocuda = false;
bool bc1n = false;
bool luminance = false;
nvtt::Format format = nvtt::Format_BC1;
bool premultiplyAlpha = false;
nvtt::MipmapFilter mipmapFilter = nvtt::MipmapFilter_Box;
bool loadAsFloat = false;
uint bitCount = 0, rmask = 0, gmask = 0, bmask = 0, amask = 0;
bool fmtSet;
const char * externalCompressor = NULL;
bool silent = false;
bool dds10 = false;
nv::Path input;
nv::Path output;
// Parse arguments.
for (int i = 1; i < argc; i++)
{
// Input options.
if (strcmp("-color", argv[i]) == 0)
{
}
else if (strcmp("-alpha", argv[i]) == 0)
{
alpha = true;
}
else if (strcmp("-normal", argv[i]) == 0)
{
normal = true;
}
else if (strcmp("-tonormal", argv[i]) == 0)
{
color2normal = true;
}
else if (strcmp("-clamp", argv[i]) == 0)
{
}
else if (strcmp("-repeat", argv[i]) == 0)
{
wrapRepeat = true;
}
else if (strcmp("-nomips", argv[i]) == 0)
{
noMipmaps = true;
}
else if (strcmp("-premula", argv[i]) == 0)
{
premultiplyAlpha = true;
}
else if (strcmp("-mipfilter", argv[i]) == 0)
{
if (i+1 == argc) break;
i++;
if (strcmp("box", argv[i]) == 0) mipmapFilter = nvtt::MipmapFilter_Box;
else if (strcmp("triangle", argv[i]) == 0) mipmapFilter = nvtt::MipmapFilter_Triangle;
else if (strcmp("kaiser", argv[i]) == 0) mipmapFilter = nvtt::MipmapFilter_Kaiser;
}
else if (strcmp("-float", argv[i]) == 0)
{
loadAsFloat = true;
}
// Compression options.
else if (strcmp("-fast", argv[i]) == 0)
{
fast = true;
}
else if (strcmp("-nocuda", argv[i]) == 0)
{
nocuda = true;
}
else if (strcmp("-rgb", argv[i]) == 0)
{
format = nvtt::Format_RGB;
}
else if (strcmp("-lumi", argv[i]) == 0)
{
luminance = true;
format = nvtt::Format_RGB;
}
else if (strcmp("-bc1", argv[i]) == 0)
{
format = nvtt::Format_BC1;
}
else if (strcmp("-bc1n", argv[i]) == 0)
{
format = nvtt::Format_BC1;
bc1n = true;
}
else if (strcmp("-bc1a", argv[i]) == 0)
{
format = nvtt::Format_BC1a;
}
else if (strcmp("-bc2", argv[i]) == 0)
{
format = nvtt::Format_BC2;
}
else if (strcmp("-bc3", argv[i]) == 0)
{
format = nvtt::Format_BC3;
}
else if (strcmp("-bc3n", argv[i]) == 0)
{
format = nvtt::Format_BC3n;
}
else if (strcmp("-bc4", argv[i]) == 0)
{
format = nvtt::Format_BC4;
}
else if (strcmp("-bc5", argv[i]) == 0)
{
format = nvtt::Format_BC5;
}
else if (strcmp("-fmt", argv[i]) == 0)
{
if (i+1 == argc) break;
i++;
if (strcmp("rgba8", argv[i]) == 0)
{
format = nvtt::Format_RGB;
fmtSet = true;
bitCount = 32;
amask = 0xFF000000;
rmask = 0x00FF0000;
gmask = 0x0000FF00;
bmask = 0x000000FF;
}
else if (strcmp("bgra8", argv[i]) == 0)
{
format = nvtt::Format_RGBA;
fmtSet = true;
bitCount = 32;
amask = 0xFF000000;
rmask = 0x000000FF;
gmask = 0x0000FF00;
bmask = 0x00FF0000;
}
else if (strcmp("rgb8", argv[i]) == 0)
{
format = nvtt::Format_RGB;
fmtSet = true;
bitCount = 24;
amask = 0x00000000;
rmask = 0x00FF0000;
gmask = 0x0000FF00;
bmask = 0x000000FF;
}
else if (strcmp("bgr8", argv[i]) == 0)
{
format = nvtt::Format_RGB;
fmtSet = true;
bitCount = 24;
amask = 0x00000000;
rmask = 0x000000FF;
gmask = 0x0000FF00;
bmask = 0x00FF0000;
}
}
// Undocumented option. Mainly used for testing.
else if (strcmp("-ext", argv[i]) == 0)
{
if (i+1 < argc && argv[i+1][0] != '-') {
externalCompressor = argv[i+1];
i++;
}
}
else if (strcmp("-pause", argv[i]) == 0)
{
printf("Press ENTER\n"); fflush(stdout);
getchar();
}
// Output options
else if (strcmp("-silent", argv[i]) == 0)
{
silent = true;
}
else if (strcmp("-dds10", argv[i]) == 0)
{
dds10 = true;
}
else if (argv[i][0] != '-')
{
input = argv[i];
if (i+1 < argc && argv[i+1][0] != '-') {
output = argv[i+1];
}
else
{
output.copy(input.str());
output.stripExtension();
output.append(".dds");
}
break;
}
}
const uint version = nvtt::version();
const uint major = version / 100 / 100;
const uint minor = (version / 100) % 100;
const uint rev = version % 100;
printf("NVIDIA Texture Tools %u.%u.%u - Copyright NVIDIA Corporation 2007\n\n", major, minor, rev);
if (input.isNull())
{
printf("usage: nvcompress [options] infile [outfile]\n\n");
printf("Input options:\n");
printf(" -color \tThe input image is a color map (default).\n");
printf(" -alpha \tThe input image has an alpha channel used for transparency.\n");
printf(" -normal \tThe input image is a normal map.\n");
printf(" -tonormal \tConvert input to normal map.\n");
printf(" -clamp \tClamp wrapping mode (default).\n");
printf(" -repeat \tRepeat wrapping mode.\n");
printf(" -nomips \tDisable mipmap generation.\n");
printf(" -premula \tPremultiply alpha into color channel.\n");
printf(" -mipfilter \tMipmap filter. One of the following: box, triangle, kaiser.\n");
printf(" -float \tLoad as floating point image.\n\n");
printf("Compression options:\n");
printf(" -fast \tFast compression.\n");
printf(" -nocuda \tDo not use cuda compressor.\n");
printf(" -rgb \tRGBA format\n");
printf(" -lumi \tLUMINANCE format\n");
printf(" -bc1 \tBC1 format (DXT1)\n");
printf(" -bc1n \tBC1 normal map format (DXT1nm)\n");
printf(" -bc1a \tBC1 format with binary alpha (DXT1a)\n");
printf(" -bc2 \tBC2 format (DXT3)\n");
printf(" -bc3 \tBC3 format (DXT5)\n");
printf(" -bc3n \tBC3 normal map format (DXT5nm)\n");
printf(" -bc4 \tBC4 format (ATI1)\n");
printf(" -bc5 \tBC5 format (3Dc/ATI2)\n\n");
printf("Output options:\n");
printf(" -silent \tDo not output progress messages\n");
printf(" -dds10 \tUse DirectX 10 DDS format\n\n");
return EXIT_FAILURE;
}
// Make sure input file exists.
if (!nv::FileSystem::exists(input.str()))
{
fprintf(stderr, "The file '%s' does not exist.\n", input.str());
return 1;
}
// Set input options.
nvtt::InputOptions inputOptions;
if (nv::strCaseCmp(input.extension(), ".dds") == 0)
{
// Load surface.
nv::DirectDrawSurface dds(input.str());
if (!dds.isValid())
{
fprintf(stderr, "The file '%s' is not a valid DDS file.\n", input.str());
return EXIT_FAILURE;
}
if (!dds.isSupported() || dds.isTexture3D())
{
fprintf(stderr, "The file '%s' is not a supported DDS file.\n", input.str());
return EXIT_FAILURE;
}
uint faceCount;
if (dds.isTexture2D())
{
inputOptions.setTextureLayout(nvtt::TextureType_2D, dds.width(), dds.height());
faceCount = 1;
}
else
{
nvDebugCheck(dds.isTextureCube());
inputOptions.setTextureLayout(nvtt::TextureType_Cube, dds.width(), dds.height());
faceCount = 6;
}
uint mipmapCount = dds.mipmapCount();
nv::Image mipmap;
for (uint f = 0; f < faceCount; f++)
{
for (uint m = 0; m < mipmapCount; m++)
{
dds.mipmap(&mipmap, f, m); // @@ Load as float.
inputOptions.setMipmapData(mipmap.pixels(), mipmap.width(), mipmap.height(), 1, f, m);
}
}
}
else
{
if (nv::strCaseCmp(input.extension(), ".exr") == 0 || nv::strCaseCmp(input.extension(), ".hdr") == 0)
{
loadAsFloat = true;
}
if (loadAsFloat)
{
nv::AutoPtr<nv::FloatImage> image(nv::ImageIO::loadFloat(input.str()));
if (image == NULL)
{
fprintf(stderr, "The file '%s' is not a supported image type.\n", input.str());
return EXIT_FAILURE;
}
inputOptions.setFormat(nvtt::InputFormat_RGBA_32F);
inputOptions.setTextureLayout(nvtt::TextureType_2D, image->width(), image->height());
/*for (uint i = 0; i < image->componentNum(); i++)
{
inputOptions.setMipmapChannelData(image->channel(i), i, image->width(), image->height());
}*/
}
else
{
// Regular image.
nv::Image image;
if (!image.load(input.str()))
{
fprintf(stderr, "The file '%s' is not a supported image type.\n", input.str());
return 1;
}
inputOptions.setTextureLayout(nvtt::TextureType_2D, image.width(), image.height());
inputOptions.setMipmapData(image.pixels(), image.width(), image.height());
}
}
if (wrapRepeat)
{
inputOptions.setWrapMode(nvtt::WrapMode_Repeat);
}
else
{
inputOptions.setWrapMode(nvtt::WrapMode_Clamp);
}
if (alpha)
{
inputOptions.setAlphaMode(nvtt::AlphaMode_Transparency);
}
else
{
inputOptions.setAlphaMode(nvtt::AlphaMode_None);
}
// Block compressed textures with mipmaps must be powers of two.
if (!noMipmaps && format != nvtt::Format_RGB)
{
inputOptions.setRoundMode(nvtt::RoundMode_ToPreviousPowerOfTwo);
}
if (normal)
{
setNormalMap(inputOptions);
}
else if (color2normal)
{
setColorToNormalMap(inputOptions);
}
else
{
setColorMap(inputOptions);
}
if (noMipmaps)
{
inputOptions.setMipmapGeneration(false);
}
/*if (premultiplyAlpha)
{
inputOptions.setPremultiplyAlpha(true);
inputOptions.setAlphaMode(nvtt::AlphaMode_Premultiplied);
}*/
inputOptions.setMipmapFilter(mipmapFilter);
nvtt::CompressionOptions compressionOptions;
compressionOptions.setFormat(format);
if (format == nvtt::Format_BC2) {
// Dither alpha when using BC2.
compressionOptions.setQuantization(/*color dithering*/false, /*alpha dithering*/true, /*binary alpha*/false);
}
else if (format == nvtt::Format_BC1a) {
// Binary alpha when using BC1a.
compressionOptions.setQuantization(/*color dithering*/false, /*alpha dithering*/true, /*binary alpha*/true, 127);
}
else if (format == nvtt::Format_RGBA)
{
if (fmtSet)
{
compressionOptions.setPixelFormat(bitCount, rmask, gmask, bmask, amask);
}
else if (luminance)
{
compressionOptions.setPixelFormat(8, 0xff, 0, 0, 0);
}
else {
// @@ Edit this to choose the desired pixel format:
// compressionOptions.setPixelType(nvtt::PixelType_Float);
// compressionOptions.setPixelFormat(16, 16, 16, 16);
// compressionOptions.setPixelType(nvtt::PixelType_UnsignedNorm);
// compressionOptions.setPixelFormat(16, 0, 0, 0);
}
}
if (fast)
{
compressionOptions.setQuality(nvtt::Quality_Fastest);
}
else
{
compressionOptions.setQuality(nvtt::Quality_Normal);
//compressionOptions.setQuality(nvtt::Quality_Production);
//compressionOptions.setQuality(nvtt::Quality_Highest);
}
if (bc1n)
{
compressionOptions.setColorWeights(1, 1, 0);
}
//compressionOptions.setColorWeights(0.2126, 0.7152, 0.0722);
//compressionOptions.setColorWeights(0.299, 0.587, 0.114);
//compressionOptions.setColorWeights(3, 4, 2);
if (externalCompressor != NULL)
{
compressionOptions.setExternalCompressor(externalCompressor);
}
MyErrorHandler errorHandler;
MyOutputHandler outputHandler(output.str());
if (outputHandler.stream->isError())
{
fprintf(stderr, "Error opening '%s' for writting\n", output.str());
return EXIT_FAILURE;
}
nvtt::Context context;
context.enableCudaAcceleration(!nocuda);
printf("CUDA acceleration ");
if (context.isCudaAccelerationEnabled())
{
printf("ENABLED\n\n");
}
else
{
printf("DISABLED\n\n");
}
outputHandler.setTotal(context.estimateSize(inputOptions, compressionOptions));
outputHandler.setDisplayProgress(!silent);
nvtt::OutputOptions outputOptions;
//outputOptions.setFileName(output);
outputOptions.setOutputHandler(&outputHandler);
outputOptions.setErrorHandler(&errorHandler);
if (dds10)
{
outputOptions.setContainer(nvtt::Container_DDS10);
}
// printf("Press ENTER.\n");
// fflush(stdout);
// getchar();
nv::Timer timer;
timer.start();
if (!context.process(inputOptions, compressionOptions, outputOptions))
{
return EXIT_FAILURE;
}
timer.stop();
printf("\rtime taken: %.3f seconds\n", timer.elapsed());
return EXIT_SUCCESS;
}
