int
main (int argc, char *argv[])
{
Timer alltimer;
ImageSpec configspec;
getargs (argc, argv, configspec);
OIIO::attribute ("threads", nthreads);
// N.B. This will apply to the default IC that any ImageBuf's get.
ImageCache *ic = ImageCache::create (); // get the shared one
ic->attribute ("forcefloat", 1); // Force float upon read
ic->attribute ("max_memory_MB", 1024.0); // 1 GB cache
ImageBufAlgo::MakeTextureMode mode = ImageBufAlgo::MakeTxTexture;
if (shadowmode)
mode = ImageBufAlgo::MakeTxShadow;
if (envlatlmode)
mode = ImageBufAlgo::MakeTxEnvLatl;
if (lightprobemode)
mode = ImageBufAlgo::MakeTxEnvLatlFromLightProbe;
bool ok = ImageBufAlgo::make_texture (mode, filenames[0],
outputfilename, configspec,
&std::cout);
if (stats)
std::cout << "\n" << ic->getstats();
return ok ? 0 : EXIT_FAILURE;
}
int
main (int argc, char *argv[])
{
getargs (argc, argv);
if (! foreground_mode)
Sysutil::put_in_background (argc, argv);
// LG
// Q_INIT_RESOURCE(iv);
QApplication app(argc, argv);
ImageViewer *mainWin = new ImageViewer;
mainWin->show();
// Set up the imagecache with parameters that make sense for iv
ImageCache *imagecache = ImageCache::create (true);
imagecache->attribute ("autotile", 256);
// Make sure we are the top window with the focus.
mainWin->raise ();
mainWin->activateWindow ();
// Add the images
BOOST_FOREACH (const std::string &s, filenames) {
mainWin->add_image (s);
}
int
main (int argc, char *argv[])
{
Timer alltimer;
getargs (argc, argv);
if (stats) {
ImageCache *ic = ImageCache::create (); // get the shared one
ic->attribute ("forcefloat", 1); // Force float upon read
ic->attribute ("max_memory_MB", 1024.0); // 1 GB cache
// N.B. This will apply to the default IC that any ImageBuf's get.
}
if (mipmapmode) {
make_texturemap ("texture map");
} else if (shadowmode) {
make_texturemap ("shadow map");
} else if (shadowcubemode) {
std::cerr << "Shadow cubes currently unsupported\n";
} else if (volshadowmode) {
std::cerr << "Volume shadows currently unsupported\n";
} else if (envlatlmode) {
make_texturemap ("latlong environment map");
} else if (envcubemode) {
std::cerr << "Environment cubes currently unsupported\n";
} else if (lightprobemode) {
std::cerr << "Light probes currently unsupported\n";
} else if (vertcrossmode) {
std::cerr << "Vertcross currently unsupported\n";
} else if (latl2envcubemode) {
std::cerr << "Latlong->cube conversion currently unsupported\n";
}
if (verbose || stats) {
std::cout << "maketx Runtime statistics (seconds):\n";
double alltime = alltimer();
std::cout << Strutil::format (" total runtime: %5.2f\n", alltime);
std::cout << Strutil::format (" file read: %5.2f\n", stat_readtime);
std::cout << Strutil::format (" file write: %5.2f\n", stat_writetime);
std::cout << Strutil::format (" initial resize: %5.2f\n", stat_resizetime);
std::cout << Strutil::format (" mip computation: %5.2f\n", stat_miptime);
std::cout << Strutil::format (" unaccounted: %5.2f\n",
alltime-stat_readtime-stat_writetime-stat_resizetime-stat_miptime);
size_t kb = Sysutil::memory_used(true) / 1024;
std::cout << Strutil::format ("maketx memory used: %5.1f MB\n",
(double)kb/1024.0);
}
Filter2D::destroy (filter);
if (stats) {
ImageCache *ic = ImageCache::create (); // get the shared one
std::cout << "\n" << ic->getstats();
}
return 0;
}
void test_open_with_config ()
{
// N.B. This function must run after ImageBuf_test_appbuffer, which
// writes "A.tif".
ImageCache *ic = ImageCache::create(false);
ImageSpec config;
config.attribute ("oiio:DebugOpenConfig!", 1);
ImageBuf A ("A.tif", 0, 0, ic, &config);
OIIO_CHECK_EQUAL (A.spec().get_int_attribute("oiio:DebugOpenConfig!",0), 42);
ic->destroy (ic);
}
Image::Image(const std::string filelocation, float x, float y, float width, float height) {
this->x = x;
this->y = y;
this->_width = width;
this->_height = height;
isImage = true;
ImageCache *imageCache = ImageCache::getInstance();
if(!imageCache->isCached(filelocation)) {
imageCache->insertIntoCache(filelocation, ImageLoader::createPNG(filelocation));
}
_imageItem = imageCache->getFromCache(filelocation);
createRectangle();
}
static void RemoveCache(const std::wstring& key)
{
std::unordered_map<std::wstring, ImageCache*>::const_iterator iter = c_CacheMap.find(key);
if (iter != c_CacheMap.end())
{
ImageCache* cache = (*iter).second;
cache->Release();
//LogDebugF(L"* REMOVE: key=%s, ref=%i", key.c_str(), cache->GetRef());
if (cache->IsInvalid())
{
//LogDebugF(L"* EMPTY-ERASE: key=%s", key.c_str());
c_CacheMap.erase(iter);
delete cache;
}
}
}
void MainMenuHandler::run(sf::RenderWindow& window) {
ImageCache mainMenuImages;
const sf::Image& logoImage = mainMenuImages.get(Path::findDataPath("graphics/logo.png"));
// Entering main menu, no game should be running.
GameHandler::instance.reset();
// Make view that is as close to 640x480 as possible and centered.
view = window.GetDefaultView();
view.Zoom(std::min(view.GetRect().GetWidth() / 640, view.GetRect().GetHeight() / 480));
view.SetCenter(view.GetHalfSize());
window.SetView(view);
window.SetFramerateLimit(30);
// Position at the top of the window.
sf::Sprite logoSprite(logoImage);
logoSprite.SetCenter(logoImage.GetWidth() / 2, 0);
logoSprite.SetPosition(window.GetView().GetRect().GetWidth() / 2, 1);
// Build the main menu GUI.
GUI::Container gui;
gui.insert(boost::shared_ptr<GUI::Object>(new GUI::Button("New game", 200, 100, 240, 50, boost::bind(&MainMenuHandler::startGame, this))));
gui.insert(boost::shared_ptr<GUI::Object>(new GUI::Button("Exit", 250, 170, 140, 50, boost::bind(&sf::RenderWindow::Close, boost::ref(window)))));
menuClosed = false;
while (window.IsOpened() && !menuClosed) {
sf::Event e;
if (window.GetEvent(e)) {
if (gui.handleEvent(e, window)) {
continue;
}
if (e.Type == sf::Event::Closed || (e.Type == sf::Event::KeyPressed && e.Key.Code == sf::Key::Escape)) {
window.Close();
continue;
}
} else {
window.Clear(sf::Color(0xcc, 0x66, 0x33));
window.Draw(logoSprite);
gui.draw(window);
window.Display();
}
}
}
Image * get_image_cache(const std::string & filename, int hot_x, int hot_y,
int act_x, int act_y, TransparentColor color)
{
FileImage * image;
ImageCache::const_iterator it = image_cache.find(filename);
if (it == image_cache.end()) {
image = new FileImage(filename, 0, 0, 0, 0, color);
image->load();
if (image->is_valid())
image->flags |= Image::USED | Image::CACHED;
else {
delete image;
image = NULL;
}
image_cache[filename] = image;
} else {
image = it->second;
}
return image;
}
int
main (int argc, char *argv[])
{
Timer alltimer;
// Globally force classic "C" locale, and turn off all formatting
// internationalization, for the entire maketx application.
std::locale::global (std::locale::classic());
ImageSpec configspec;
Filesystem::convert_native_arguments (argc, (const char **)argv);
getargs (argc, argv, configspec);
OIIO::attribute ("threads", nthreads);
// N.B. This will apply to the default IC that any ImageBuf's get.
ImageCache *ic = ImageCache::create (); // get the shared one
ic->attribute ("forcefloat", 1); // Force float upon read
ic->attribute ("max_memory_MB", 1024.0); // 1 GB cache
ImageBufAlgo::MakeTextureMode mode = ImageBufAlgo::MakeTxTexture;
if (shadowmode)
mode = ImageBufAlgo::MakeTxShadow;
if (envlatlmode)
mode = ImageBufAlgo::MakeTxEnvLatl;
if (lightprobemode)
mode = ImageBufAlgo::MakeTxEnvLatlFromLightProbe;
if (bumpslopesmode)
mode = ImageBufAlgo::MakeTxBumpWithSlopes;
bool ok = ImageBufAlgo::make_texture (mode, filenames[0],
outputfilename, configspec,
&std::cout);
if (runstats)
std::cout << "\n" << ic->getstats();
return ok ? 0 : EXIT_FAILURE;
}
Particles::Particles(unsigned count, string texturename, Color color, float lifetime, float totalLifetime, float speed, Vector3 scale, Vector3 direction, float density, unsigned randomness) {
this->count = count;
this->scale = scale;
this->direction = direction;
this->density = density;
this->lifetime = lifetime;
this->currentLifetime = 0;
this->totalLifetime = totalLifetime;
this->texture = nullptr;
this->color = color;
this->speed = speed;
this->randomness = randomness + 1;
this->randomnessHalf = this->randomness / 2.0f;
ImageCache *imagecache = ImageCache::getInstance();
if(texturename != "") {
if(!imagecache->isCached(texturename)) {
imagecache->insertIntoCache(texturename, ImageLoader::createPNG(texturename));
}
this->texture = imagecache->getFromCache(texturename);
}
}
int main()
{
fl_register_images();
g_WilFilePathName = "";
g_WorkingPathName = "";
g_MainWindow = new MainWindow();
g_SelectSettingWindow = new SelectSettingWindow();
g_AnimationSelectWindow = new AnimationSelectWindow();
g_AboutWindow = new AboutWindow();
g_AttributeSelectWindow = new AttributeSelectWindow();
g_AttributeGridWindow = new AttributeSelectWindow();
g_ProgressBarWindow = new ProgressBarWindow();
g_LayerEditorWindow = new LayerEditorWindow();
g_LayerBrowserWindow = new LayerBrowserWindow();
g_CropConfigureWindow = new CropConfigureWindow();
g_ImageCache.SetPath(".");
g_MainWindow->ShowAll();
return Fl::run();
}
int
main (int argc, char *argv[])
{
Filesystem::convert_native_arguments (argc, (const char **)argv);
getargs (argc, argv);
if (! quiet)
std::cout << "Comparing \"" << filenames[0]
<< "\" and \"" << filenames[1] << "\"\n";
// Create a private ImageCache so we can customize its cache size
// and instruct it store everything internally as floats.
ImageCache *imagecache = ImageCache::create (true);
imagecache->attribute ("forcefloat", 1);
if (sizeof(void *) == 4) // 32 bit or 64?
imagecache->attribute ("max_memory_MB", 512.0);
else
imagecache->attribute ("max_memory_MB", 2048.0);
imagecache->attribute ("autotile", 256);
// force a full diff, even for files tagged with the same
// fingerprint, just in case some mistake has been made.
imagecache->attribute ("deduplicate", 0);
ImageBuf img0, img1;
if (! read_input (filenames[0], img0, imagecache) ||
! read_input (filenames[1], img1, imagecache))
return ErrFile;
// ImageSpec spec0 = img0.spec(); // stash it
int ret = ErrOK;
for (int subimage = 0; subimage < img0.nsubimages(); ++subimage) {
if (subimage > 0 && !compareall)
break;
if (subimage >= img1.nsubimages())
break;
if (! read_input (filenames[0], img0, imagecache, subimage) ||
! read_input (filenames[1], img1, imagecache, subimage)) {
std::cerr << "Failed to read subimage " << subimage << "\n";
return ErrFile;
}
if (img0.nmiplevels() != img1.nmiplevels()) {
if (! quiet)
std::cout << "Files do not match in their number of MIPmap levels\n";
}
for (int m = 0; m < img0.nmiplevels(); ++m) {
if (m > 0 && !compareall)
break;
if (m > 0 && img0.nmiplevels() != img1.nmiplevels()) {
std::cerr << "Files do not match in their number of MIPmap levels\n";
ret = ErrDifferentSize;
break;
}
if (! read_input (filenames[0], img0, imagecache, subimage, m) ||
! read_input (filenames[1], img1, imagecache, subimage, m))
return ErrFile;
if (img0.deep() != img1.deep()) {
std::cerr << "One image contains deep data, the other does not\n";
ret = ErrDifferentSize;
break;
}
int npels = img0.spec().width * img0.spec().height * img0.spec().depth;
if (npels == 0)
npels = 1; // Avoid divide by zero for 0x0 images
ASSERT (img0.spec().format == TypeDesc::FLOAT);
// Compare the two images.
//
ImageBufAlgo::CompareResults cr;
ImageBufAlgo::compare (img0, img1, failthresh, warnthresh, cr);
int yee_failures = 0;
if (perceptual && ! img0.deep()) {
ImageBufAlgo::CompareResults cr;
yee_failures = ImageBufAlgo::compare_Yee (img0, img1, cr);
}
if (cr.nfail > (failpercent/100.0 * npels) || cr.maxerror > hardfail ||
yee_failures > (failpercent/100.0 * npels)) {
ret = ErrFail;
} else if (cr.nwarn > (warnpercent/100.0 * npels) || cr.maxerror > hardwarn) {
if (ret != ErrFail)
ret = ErrWarn;
}
// Print the report
//
if (verbose || (ret != ErrOK && !quiet)) {
if (compareall)
print_subimage (img0, subimage, m);
std::cout << " Mean error = ";
safe_double_print (cr.meanerror);
std::cout << " RMS error = ";
safe_double_print (cr.rms_error);
std::cout << " Peak SNR = ";
safe_double_print (cr.PSNR);
std::cout << " Max error = " << cr.maxerror;
if (cr.maxerror != 0) {
std::cout << " @ (" << cr.maxx << ", " << cr.maxy;
if (img0.spec().depth > 1)
std::cout << ", " << cr.maxz;
if (cr.maxc < (int)img0.spec().channelnames.size())
std::cout << ", " << img0.spec().channelnames[cr.maxc] << ')';
else if (cr.maxc < (int)img1.spec().channelnames.size())
std::cout << ", " << img1.spec().channelnames[cr.maxc] << ')';
else
std::cout << ", channel " << cr.maxc << ')';
}
std::cout << "\n";
// when Visual Studio is used float values in scientific foramt are
// printed with three digit exponent. We change this behaviour to fit
// Linux way
#ifdef _MSC_VER
_set_output_format(_TWO_DIGIT_EXPONENT);
#endif
std::streamsize precis = std::cout.precision();
std::cout << " " << cr.nwarn << " pixels ("
<< std::setprecision(3) << (100.0*cr.nwarn / npels)
<< std::setprecision(precis) << "%) over " << warnthresh << "\n";
std::cout << " " << cr.nfail << " pixels ("
<< std::setprecision(3) << (100.0*cr.nfail / npels)
<< std::setprecision(precis) << "%) over " << failthresh << "\n";
if (perceptual)
std::cout << " " << yee_failures << " pixels ("
<< std::setprecision(3) << (100.0*yee_failures / npels)
<< std::setprecision(precis)
<< "%) failed the perceptual test\n";
}
// If the user requested that a difference image be output,
// do that. N.B. we only do this for the first subimage
// right now, because ImageBuf doesn't really know how to
// write subimages.
if (diffimage.size() && (cr.maxerror != 0 || !outdiffonly)) {
ImageBuf diff;
if (diffabs)
ImageBufAlgo::absdiff (diff, img0, img1);
else
ImageBufAlgo::sub (diff, img0, img1);
if (diffscale != 1.0f)
ImageBufAlgo::mul (diff, diff, diffscale);
diff.write (diffimage);
// Clear diff image name so we only save the first
// non-matching subimage.
diffimage = "";
}
}
}
if (compareall && img0.nsubimages() != img1.nsubimages()) {
if (! quiet)
std::cerr << "Images had differing numbers of subimages ("
<< img0.nsubimages() << " vs " << img1.nsubimages() << ")\n";
ret = ErrFail;
}
if (!compareall && (img0.nsubimages() > 1 || img1.nsubimages() > 1)) {
if (! quiet)
std::cout << "Only compared the first subimage (of "
<< img0.nsubimages() << " and " << img1.nsubimages()
<< ", respectively)\n";
}
if (ret == ErrOK) {
if (! quiet)
std::cout << "PASS\n";
}
else if (ret == ErrWarn) {
if (! quiet)
std::cout << "WARNING\n";
}
else if (ret) {
if (quiet)
std::cerr << "FAILURE\n";
else
std::cout << "FAILURE\n";
}
imagecache->invalidate_all (true);
ImageCache::destroy (imagecache);
return ret;
}
int
main (int argc, char *argv[])
{
getargs (argc, argv);
std::cout << "Comparing \"" << filenames[0]
<< "\" and \"" << filenames[1] << "\"\n";
// Create a private ImageCache so we can customize its cache size
// and instruct it store everything internally as floats.
ImageCache *imagecache = ImageCache::create (true);
imagecache->attribute ("forcefloat", 1);
if (sizeof(void *) == 4) // 32 bit or 64?
imagecache->attribute ("max_memory_MB", 512.0);
else
imagecache->attribute ("max_memory_MB", 2048.0);
imagecache->attribute ("autotile", 256);
#ifdef DEBUG
imagecache->attribute ("statistics:level", 2);
#endif
ImageBuf img0, img1;
if (! read_input (filenames[0], img0, imagecache) ||
! read_input (filenames[1], img1, imagecache))
return ErrFile;
// ImageSpec spec0 = img0.spec(); // stash it
int ret = ErrOK;
for (int subimage = 0; subimage < img0.nsubimages(); ++subimage) {
if (subimage > 0 && !compareall)
break;
if (subimage >= img1.nsubimages())
break;
if (compareall) {
std::cout << "Subimage " << subimage << ": ";
std::cout << img0.spec().width << " x " << img0.spec().height;
if (img0.spec().depth > 1)
std::cout << " x " << img0.spec().depth;
std::cout << ", " << img0.spec().nchannels << " channel\n";
}
if (! read_input (filenames[0], img0, imagecache, subimage) ||
! read_input (filenames[1], img1, imagecache, subimage))
return ErrFile;
if (img0.nmiplevels() != img1.nmiplevels()) {
std::cout << "Files do not match in their number of MIPmap levels\n";
}
for (int m = 0; m < img0.nmiplevels(); ++m) {
if (m > 0 && !compareall)
break;
if (m > 0 && img0.nmiplevels() != img1.nmiplevels()) {
std::cout << "Files do not match in their number of MIPmap levels\n";
ret = ErrDifferentSize;
break;
}
if (! read_input (filenames[0], img0, imagecache, subimage, m) ||
! read_input (filenames[1], img1, imagecache, subimage, m))
return ErrFile;
if (compareall && img0.nmiplevels() > 1) {
std::cout << " MIP level " << m << ": ";
std::cout << img0.spec().width << " x " << img0.spec().height;
if (img0.spec().depth > 1)
std::cout << " x " << img0.spec().depth;
std::cout << ", " << img0.spec().nchannels << " channel\n";
}
// Compare the dimensions of the images. Fail if they
// aren't the same resolution and number of channels. No
// problem, though, if they aren't the same data type.
if (! same_size (img0, img1)) {
std::cout << "Images do not match in size: ";
std::cout << "(" << img0.spec().width << "x" << img0.spec().height;
if (img0.spec().depth > 1)
std::cout << "x" << img0.spec().depth;
std::cout << "x" << img0.spec().nchannels << ")";
std::cout << " versus ";
std::cout << "(" << img1.spec().width << "x" << img1.spec().height;
if (img1.spec().depth > 1)
std::cout << "x" << img1.spec().depth;
std::cout << "x" << img1.spec().nchannels << ")\n";
ret = ErrDifferentSize;
break;
}
int npels = img0.spec().width * img0.spec().height * img0.spec().depth;
ASSERT (img0.spec().format == TypeDesc::FLOAT);
// Compare the two images.
//
ImageBufAlgo::CompareResults cr;
ImageBufAlgo::compare (img0, img1, failthresh, warnthresh, cr);
int yee_failures = 0;
if (perceptual)
yee_failures = ImageBufAlgo::compare_Yee (img0, img1);
// Print the report
//
std::cout << " Mean error = ";
safe_double_print (cr.meanerror);
std::cout << " RMS error = ";
safe_double_print (cr.rms_error);
std::cout << " Peak SNR = ";
safe_double_print (cr.PSNR);
std::cout << " Max error = " << cr.maxerror;
if (cr.maxerror != 0) {
std::cout << " @ (" << cr.maxx << ", " << cr.maxy;
if (img0.spec().depth > 1)
std::cout << ", " << cr.maxz;
std::cout << ", " << img0.spec().channelnames[cr.maxc] << ')';
}
std::cout << "\n";
// when Visual Studio is used float values in scientific foramt are
// printed with three digit exponent. We change this behaviour to fit
// Linux way
#ifdef _MSC_VER
_set_output_format(_TWO_DIGIT_EXPONENT);
#endif
int precis = std::cout.precision();
std::cout << " " << cr.nwarn << " pixels ("
<< std::setprecision(3) << (100.0*cr.nwarn / npels)
<< std::setprecision(precis) << "%) over " << warnthresh << "\n";
std::cout << " " << cr.nfail << " pixels ("
<< std::setprecision(3) << (100.0*cr.nfail / npels)
<< std::setprecision(precis) << "%) over " << failthresh << "\n";
if (perceptual)
std::cout << " " << yee_failures << " pixels ("
<< std::setprecision(3) << (100.0*yee_failures / npels)
<< std::setprecision(precis)
<< "%) failed the perceptual test\n";
if (cr.nfail > (failpercent/100.0 * npels) || cr.maxerror > hardfail ||
yee_failures > (failpercent/100.0 * npels)) {
ret = ErrFail;
} else if (cr.nwarn > (warnpercent/100.0 * npels) || cr.maxerror > hardwarn) {
if (ret != ErrFail)
ret = ErrWarn;
}
// If the user requested that a difference image be output,
// do that. N.B. we only do this for the first subimage
// right now, because ImageBuf doesn't really know how to
// write subimages.
if (diffimage.size() && (cr.maxerror != 0 || !outdiffonly)) {
ImageBuf diff (diffimage, img0.spec());
ImageBuf::ConstIterator<float,float> pix0 (img0);
ImageBuf::ConstIterator<float,float> pix1 (img1);
ImageBuf::Iterator<float,float> pixdiff (diff);
// Subtract the second image from the first. At which
// time we no longer need the second image, so free it.
if (diffabs) {
for ( ; pix0.valid(); ++pix0) {
pix1.pos (pix0.x(), pix0.y()); // ensure alignment
pixdiff.pos (pix0.x(), pix0.y());
for (int c = 0; c < img0.nchannels(); ++c)
pixdiff[c] = diffscale * fabsf (pix0[c] - pix1[c]);
}
} else {
for ( ; pix0.valid(); ++pix0) {
pix1.pos (pix0.x(), pix0.y()); // ensure alignment
pixdiff.pos (pix0.x(), pix0.y());
for (int c = 0; c < img0.spec().nchannels; ++c)
pixdiff[c] = diffscale * (pix0[c] - pix1[c]);
}
}
diff.save (diffimage);
// Clear diff image name so we only save the first
// non-matching subimage.
diffimage = "";
}
}
}
if (compareall && img0.nsubimages() != img1.nsubimages()) {
std::cout << "Images had differing numbers of subimages ("
<< img0.nsubimages() << " vs " << img1.nsubimages() << ")\n";
ret = ErrFail;
}
if (!compareall && (img0.nsubimages() > 1 || img1.nsubimages() > 1)) {
std::cout << "Only compared the first subimage (of "
<< img0.nsubimages() << " and " << img1.nsubimages()
<< ", respectively)\n";
}
if (ret == ErrOK)
std::cout << "PASS\n";
else if (ret == ErrWarn)
std::cout << "WARNING\n";
else
std::cout << "FAILURE\n";
ImageCache::destroy (imagecache);
return ret;
}
static bool
convert_file (const std::string &in_filename, const std::string &out_filename)
{
if (noclobber && Filesystem::exists(out_filename)) {
std::cerr << "iconvert ERROR: Output file already exists \""
<< out_filename << "\"\n";
return false;
}
if (verbose)
std::cout << "Converting " << in_filename << " to " << out_filename << "\n";
std::string tempname = out_filename;
if (tempname == in_filename) {
tempname = out_filename + ".tmp"
+ Filesystem::extension (out_filename);
}
// Find an ImageIO plugin that can open the input file, and open it.
ImageInput *in = ImageInput::open (in_filename.c_str());
if (! in) {
std::string err = geterror();
std::cerr << "iconvert ERROR: "
<< (err.length() ? err : Strutil::format("Could not open \"%s\"", in_filename))
<< "\n";
delete in;
return false;
}
ImageSpec inspec = in->spec();
std::string metadatatime = inspec.get_string_attribute ("DateTime");
// Find an ImageIO plugin that can open the output file, and open it
ImageOutput *out = ImageOutput::create (tempname.c_str());
if (! out) {
std::cerr
<< "iconvert ERROR: Could not find an ImageIO plugin to write \""
<< out_filename << "\" :" << geterror() << "\n";
delete in;
return false;
}
// In order to deal with formats that support subimages, but not
// subimage appending, we gather them all first.
std::vector<ImageSpec> subimagespecs;
if (out->supports("multiimage") && !out->supports("appendsubimage")) {
ImageCache *imagecache = ImageCache::create ();
int nsubimages = 0;
ustring ufilename (in_filename);
imagecache->get_image_info (ufilename, 0, 0, ustring("subimages"),
TypeDesc::TypeInt, &nsubimages);
if (nsubimages > 1) {
subimagespecs.resize (nsubimages);
for (int i = 0; i < nsubimages; ++i) {
ImageSpec inspec = *imagecache->imagespec (ufilename, i, 0,
true /*native*/);
subimagespecs[i] = inspec;
adjust_spec (in, out, inspec, subimagespecs[i]);
}
}
ImageCache::destroy (imagecache);
}
bool ok = true;
bool mip_to_subimage_warning = false;
for (int subimage = 0;
ok && in->seek_subimage(subimage,0,inspec);
++subimage) {
if (subimage > 0 && !out->supports ("multiimage")) {
std::cerr << "iconvert WARNING: " << out->format_name()
<< " does not support multiple subimages.\n";
std::cerr << "\tOnly the first subimage has been copied.\n";
break; // we're done
}
int miplevel = 0;
do {
// Copy the spec, with possible change in format
ImageSpec outspec = inspec;
bool nocopy = adjust_spec (in, out, inspec, outspec);
if (miplevel > 0) {
// Moving to next MIP level
ImageOutput::OpenMode mode;
if (out->supports ("mipmap"))
mode = ImageOutput::AppendMIPLevel;
else if (out->supports ("multiimage") &&
out->supports ("appendsubimage")) {
mode = ImageOutput::AppendSubimage; // use if we must
if (! mip_to_subimage_warning
&& strcmp(out->format_name(),"tiff")) {
std::cerr << "iconvert WARNING: " << out->format_name()
<< " does not support MIPmaps.\n";
std::cerr << "\tStoring the MIPmap levels in subimages.\n";
}
mip_to_subimage_warning = true;
} else {
std::cerr << "iconvert WARNING: " << out->format_name()
<< " does not support MIPmaps.\n";
std::cerr << "\tOnly the first level has been copied.\n";
break; // on to the next subimage
}
ok = out->open (tempname.c_str(), outspec, mode);
} else if (subimage > 0) {
// Moving to next subimage
ok = out->open (tempname.c_str(), outspec,
ImageOutput::AppendSubimage);
} else {
// First time opening
if (subimagespecs.size())
ok = out->open (tempname.c_str(), int(subimagespecs.size()),
&subimagespecs[0]);
else
ok = out->open (tempname.c_str(), outspec, ImageOutput::Create);
}
if (! ok) {
std::string err = out->geterror();
std::cerr << "iconvert ERROR: "
<< (err.length() ? err : Strutil::format("Could not open \"%s\"", out_filename))
<< "\n";
ok = false;
break;
}
if (! nocopy) {
ok = out->copy_image (in);
if (! ok)
std::cerr << "iconvert ERROR copying \"" << in_filename
<< "\" to \"" << out_filename << "\" :\n\t"
<< out->geterror() << "\n";
} else {
// Need to do it by hand for some reason. Future expansion in which
// only a subset of channels are copied, or some such.
std::vector<char> pixels ((size_t)outspec.image_bytes(true));
ok = in->read_image (outspec.format, &pixels[0]);
if (! ok) {
std::cerr << "iconvert ERROR reading \"" << in_filename
<< "\" : " << in->geterror() << "\n";
} else {
ok = out->write_image (outspec.format, &pixels[0]);
if (! ok)
std::cerr << "iconvert ERROR writing \"" << out_filename
<< "\" : " << out->geterror() << "\n";
}
}
++miplevel;
} while (ok && in->seek_subimage(subimage,miplevel,inspec));
}
out->close ();
delete out;
in->close ();
delete in;
// Figure out a time for the input file -- either one supplied by
// the metadata, or the actual time stamp of the input file.
std::time_t in_time;
if (metadatatime.empty() ||
! DateTime_to_time_t (metadatatime.c_str(), in_time))
in_time = Filesystem::last_write_time (in_filename);
if (out_filename != tempname) {
if (ok) {
Filesystem::remove (out_filename);
Filesystem::rename (tempname, out_filename);
}
else
Filesystem::remove (tempname);
}
// If user requested, try to adjust the file's modification time to
// the creation time indicated by the file's DateTime metadata.
if (ok && adjust_time)
Filesystem::last_write_time (out_filename, in_time);
return ok;
}
static void
getargs (int argc, char *argv[], ImageSpec &configspec)
{
bool help = false;
// Basic runtime options
std::string dataformatname = "";
std::string fileformatname = "";
std::vector<std::string> mipimages;
int tile[3] = { 64, 64, 1 }; // FIXME if we ever support volume MIPmaps
std::string compression = "zip";
bool updatemode = false;
bool checknan = false;
std::string fixnan; // none, black, box3
bool set_full_to_pixels = false;
bool do_highlight_compensation = false;
std::string filtername;
// Options controlling file metadata or mipmap creation
float fovcot = 0.0f;
std::string wrap = "black";
std::string swrap;
std::string twrap;
bool doresize = false;
Imath::M44f Mcam(0.0f), Mscr(0.0f); // Initialize to 0
bool separate = false;
bool nomipmap = false;
bool prman_metadata = false;
bool constant_color_detect = false;
bool monochrome_detect = false;
bool opaque_detect = false;
bool compute_average = true;
int nchannels = -1;
bool prman = false;
bool oiio = false;
bool ignore_unassoc = false; // ignore unassociated alpha tags
bool unpremult = false;
bool sansattrib = false;
float sharpen = 0.0f;
std::string incolorspace;
std::string outcolorspace;
std::string colorconfigname;
std::string channelnames;
std::vector<std::string> string_attrib_names, string_attrib_values;
std::vector<std::string> any_attrib_names, any_attrib_values;
filenames.clear();
ArgParse ap;
ap.options ("maketx -- convert images to tiled, MIP-mapped textures\n"
OIIO_INTRO_STRING "\n"
"Usage: maketx [options] file...",
"%*", parse_files, "",
"--help", &help, "Print help message",
"-v", &verbose, "Verbose status messages",
"-o %s", &outputfilename, "Output filename",
"--threads %d", &nthreads, "Number of threads (default: #cores)",
"-u", &updatemode, "Update mode",
"--format %s", &fileformatname, "Specify output file format (default: guess from extension)",
"--nchannels %d", &nchannels, "Specify the number of output image channels.",
"--chnames %s", &channelnames, "Rename channels (comma-separated)",
"-d %s", &dataformatname, "Set the output data format to one of: "
"uint8, sint8, uint16, sint16, half, float",
"--tile %d %d", &tile[0], &tile[1], "Specify tile size",
"--separate", &separate, "Use planarconfig separate (default: contiguous)",
"--compression %s", &compression, "Set the compression method (default = zip, if possible)",
"--fovcot %f", &fovcot, "Override the frame aspect ratio. Default is width/height.",
"--wrap %s", &wrap, "Specify wrap mode (black, clamp, periodic, mirror)",
"--swrap %s", &swrap, "Specific s wrap mode separately",
"--twrap %s", &twrap, "Specific t wrap mode separately",
"--resize", &doresize, "Resize textures to power of 2 (default: no)",
"--noresize %!", &doresize, "Do not resize textures to power of 2 (deprecated)",
"--filter %s", &filtername, filter_help_string().c_str(),
"--hicomp", &do_highlight_compensation,
"Compress HDR range before resize, expand after.",
"--sharpen %f", &sharpen, "Sharpen MIP levels (default = 0.0 = no)",
"--nomipmap", &nomipmap, "Do not make multiple MIP-map levels",
"--checknan", &checknan, "Check for NaN/Inf values (abort if found)",
"--fixnan %s", &fixnan, "Attempt to fix NaN/Inf values in the image (options: none, black, box3)",
"--fullpixels", &set_full_to_pixels, "Set the 'full' image range to be the pixel data window",
"--Mcamera %f %f %f %f %f %f %f %f %f %f %f %f %f %f %f %f",
&Mcam[0][0], &Mcam[0][1], &Mcam[0][2], &Mcam[0][3],
&Mcam[1][0], &Mcam[1][1], &Mcam[1][2], &Mcam[1][3],
&Mcam[2][0], &Mcam[2][1], &Mcam[2][2], &Mcam[2][3],
&Mcam[3][0], &Mcam[3][1], &Mcam[3][2], &Mcam[3][3],
"Set the camera matrix",
"--Mscreen %f %f %f %f %f %f %f %f %f %f %f %f %f %f %f %f",
&Mscr[0][0], &Mscr[0][1], &Mscr[0][2], &Mscr[0][3],
&Mscr[1][0], &Mscr[1][1], &Mscr[1][2], &Mscr[1][3],
&Mscr[2][0], &Mscr[2][1], &Mscr[2][2], &Mscr[2][3],
&Mscr[3][0], &Mscr[3][1], &Mscr[3][2], &Mscr[3][3],
"Set the screen matrix",
"--prman-metadata", &prman_metadata, "Add prman specific metadata",
"--attrib %L %L", &any_attrib_names, &any_attrib_values, "Sets metadata attribute (name, value)",
"--sattrib %L %L", &string_attrib_names, &string_attrib_values, "Sets string metadata attribute (name, value)",
"--sansattrib", &sansattrib, "Write command line into Software & ImageHistory but remove --sattrib and --attrib options",
"--constant-color-detect", &constant_color_detect, "Create 1-tile textures from constant color inputs",
"--monochrome-detect", &monochrome_detect, "Create 1-channel textures from monochrome inputs",
"--opaque-detect", &opaque_detect, "Drop alpha channel that is always 1.0",
"--no-compute-average %!", &compute_average, "Don't compute and store average color",
"--ignore-unassoc", &ignore_unassoc, "Ignore unassociated alpha tags in input (don't autoconvert)",
"--runstats", &runstats, "Print runtime statistics",
"--stats", &runstats, "", // DEPRECATED 1.6
"--mipimage %L", &mipimages, "Specify an individual MIP level",
"<SEPARATOR>", "Basic modes (default is plain texture):",
"--shadow", &shadowmode, "Create shadow map",
"--envlatl", &envlatlmode, "Create lat/long environment map",
"--lightprobe", &lightprobemode, "Create lat/long environment map from a light probe",
"--bumpslopes", &bumpslopesmode, "Create a 6 channels bump-map with height, derivatives and square derivatives from an height or a normal map",
// "--envcube", &envcubemode, "Create cubic env map (file order: px, nx, py, ny, pz, nz) (UNIMP)",
"<SEPARATOR>", colortitle_help_string().c_str(),
"--colorconfig %s", &colorconfigname, "Explicitly specify an OCIO configuration file",
"--colorconvert %s %s", &incolorspace, &outcolorspace,
colorconvert_help_string().c_str(),
"--unpremult", &unpremult, "Unpremultiply before color conversion, then premultiply "
"after the color conversion. You'll probably want to use this flag "
"if your image contains an alpha channel.",
"<SEPARATOR>", "Configuration Presets",
"--prman", &prman, "Use PRMan-safe settings for tile size, planarconfig, and metadata.",
"--oiio", &oiio, "Use OIIO-optimized settings for tile size, planarconfig, metadata.",
NULL);
if (ap.parse (argc, (const char**)argv) < 0) {
std::cerr << ap.geterror() << std::endl;
ap.usage ();
exit (EXIT_FAILURE);
}
if (help) {
ap.usage ();
exit (EXIT_FAILURE);
}
if (filenames.empty()) {
ap.briefusage ();
std::cout << "\nFor detailed help: maketx --help\n";
exit (EXIT_SUCCESS);
}
int optionsum = ((int)shadowmode + (int)envlatlmode + (int)envcubemode +
(int)lightprobemode) + (int)bumpslopesmode;
if (optionsum > 1) {
std::cerr << "maketx ERROR: At most one of the following options may be set:\n"
<< "\t--shadow --envlatl --envcube --lightprobe\n";
exit (EXIT_FAILURE);
}
if (optionsum == 0)
mipmapmode = true;
if (prman && oiio) {
std::cerr << "maketx ERROR: '--prman' compatibility, and '--oiio' optimizations are mutually exclusive.\n";
std::cerr << "\tIf you'd like both prman and oiio compatibility, you should choose --prman\n";
std::cerr << "\t(at the expense of oiio-specific optimizations)\n";
exit (EXIT_FAILURE);
}
if (filenames.size() != 1) {
std::cerr << "maketx ERROR: requires exactly one input filename\n";
exit (EXIT_FAILURE);
}
// std::cout << "Converting " << filenames[0] << " to " << outputfilename << "\n";
// Figure out which data format we want for output
if (! dataformatname.empty()) {
if (dataformatname == "uint8")
configspec.format = TypeDesc::UINT8;
else if (dataformatname == "int8" || dataformatname == "sint8")
configspec.format = TypeDesc::INT8;
else if (dataformatname == "uint16")
configspec.format = TypeDesc::UINT16;
else if (dataformatname == "int16" || dataformatname == "sint16")
configspec.format = TypeDesc::INT16;
else if (dataformatname == "half")
configspec.format = TypeDesc::HALF;
else if (dataformatname == "float")
configspec.format = TypeDesc::FLOAT;
else if (dataformatname == "double")
configspec.format = TypeDesc::DOUBLE;
else {
std::cerr << "maketx ERROR: unknown data format \"" << dataformatname << "\"\n";
exit (EXIT_FAILURE);
}
}
configspec.tile_width = tile[0];
configspec.tile_height = tile[1];
configspec.tile_depth = tile[2];
configspec.attribute ("compression", compression);
if (fovcot != 0.0f)
configspec.attribute ("fovcot", fovcot);
configspec.attribute ("planarconfig", separate ? "separate" : "contig");
if (Mcam != Imath::M44f(0.0f))
configspec.attribute ("worldtocamera", TypeMatrix, &Mcam);
if (Mscr != Imath::M44f(0.0f))
configspec.attribute ("worldtoscreen", TypeMatrix, &Mscr);
std::string wrapmodes = (swrap.size() ? swrap : wrap) + ',' +
(twrap.size() ? twrap : wrap);
configspec.attribute ("wrapmodes", wrapmodes);
configspec.attribute ("maketx:verbose", verbose);
configspec.attribute ("maketx:runstats", runstats);
configspec.attribute ("maketx:resize", doresize);
configspec.attribute ("maketx:nomipmap", nomipmap);
configspec.attribute ("maketx:updatemode", updatemode);
configspec.attribute ("maketx:constant_color_detect", constant_color_detect);
configspec.attribute ("maketx:monochrome_detect", monochrome_detect);
configspec.attribute ("maketx:opaque_detect", opaque_detect);
configspec.attribute ("maketx:compute_average", compute_average);
configspec.attribute ("maketx:unpremult", unpremult);
configspec.attribute ("maketx:incolorspace", incolorspace);
configspec.attribute ("maketx:outcolorspace", outcolorspace);
configspec.attribute ("maketx:colorconfig", colorconfigname);
configspec.attribute ("maketx:checknan", checknan);
configspec.attribute ("maketx:fixnan", fixnan);
configspec.attribute ("maketx:set_full_to_pixels", set_full_to_pixels);
configspec.attribute ("maketx:highlightcomp", (int)do_highlight_compensation);
configspec.attribute ("maketx:sharpen", sharpen);
if (filtername.size())
configspec.attribute ("maketx:filtername", filtername);
configspec.attribute ("maketx:nchannels", nchannels);
configspec.attribute ("maketx:channelnames", channelnames);
if (fileformatname.size())
configspec.attribute ("maketx:fileformatname", fileformatname);
configspec.attribute ("maketx:prman_metadata", prman_metadata);
configspec.attribute ("maketx:oiio_options", oiio);
configspec.attribute ("maketx:prman_options", prman);
if (mipimages.size())
configspec.attribute ("maketx:mipimages", Strutil::join(mipimages,";"));
std::string cmdline = Strutil::format ("OpenImageIO %s : %s",
OIIO_VERSION_STRING,
command_line_string (argc, argv, sansattrib));
configspec.attribute ("Software", cmdline);
configspec.attribute ("maketx:full_command_line", cmdline);
// Add user-specified string attributes
for (size_t i = 0; i < string_attrib_names.size(); ++i) {
configspec.attribute (string_attrib_names[i], string_attrib_values[i]);
}
// Add user-specified "any" attributes -- try to deduce the type
for (size_t i = 0; i < any_attrib_names.size(); ++i) {
string_view s = any_attrib_values[i];
// Does it parse as an int (and nothing more?)
int ival;
if (Strutil::parse_int(s,ival)) {
Strutil::skip_whitespace(s);
if (! s.size()) {
configspec.attribute (any_attrib_names[i], ival);
continue;
}
}
s = any_attrib_values[i];
// Does it parse as a float (and nothing more?)
float fval;
if (Strutil::parse_float(s,fval)) {
Strutil::skip_whitespace(s);
if (! s.size()) {
configspec.attribute (any_attrib_names[i], fval);
continue;
}
}
// OK, treat it like a string
configspec.attribute (any_attrib_names[i], any_attrib_values[i]);
}
if (ignore_unassoc) {
configspec.attribute ("maketx:ignore_unassoc", (int)ignore_unassoc);
ImageCache *ic = ImageCache::create (); // get the shared one
ic->attribute ("unassociatedalpha", (int)ignore_unassoc);
}
}
void Layout::update(const AlbumItemContainer &items, const Size2i &clientSize, ImageCache &imageCache)
{
updateCellLayout();
lines_.clear();
itemCount_ = items.size();
columns_ = std::max(1, (clientSize.w + columnSpace_) / cellStepX_);
typedef AlbumItemContainer::const_iterator ItemIt;
class LineDivider
{
const unsigned int columns_;
const ItemIt beg_;
const ItemIt end_;
ItemIt curr_;
public:
LineDivider(unsigned int columns, const ItemIt &beg, const ItemIt &end)
: columns_(columns), beg_(beg), end_(end), curr_(beg) {}
bool isTerminated() const { return curr_ == end_;}
const ItemIt &getCurrent() const { return curr_;}
ItemIt getLineEnd()
{
unsigned int count = 0;
for(;;){
if(curr_ == end_){
return curr_;
}
if((*curr_)->isLineBreak()){
const ItemIt lineEnd = curr_;
++curr_;
return lineEnd;
}
if(count++ >= columns_){
return curr_;
}
++curr_;
}
}
};
LineDivider lineDivider(columns_, items.begin(), items.end());
int lineTop = 0;
while(!lineDivider.isTerminated()){
const ItemIt lineBeg = lineDivider.getCurrent();
const ItemIt lineEnd = lineDivider.getLineEnd();
// 画像の高さがAUTOの場合、行内の最大の画像の高さを求める。
if(isImageHeightAuto()){
const int maxImageHeight = std::accumulate(lineBeg, lineEnd, 0, [&](int maxImageHeight, const AlbumItemPtr &item) -> int {
switch(item->getType()){
case AlbumItem::TYPE_LINE_BREAK:
break;
case AlbumItem::TYPE_PICTURE:
if(const AlbumPicture *pic = dynamic_cast<const AlbumPicture *>(item.get())){
if(const ImagePtr im = imageCache.getImage(pic->getFilePath(), Size2i(getImageWidth(), getImageHeight()))){
return std::max(maxImageHeight, im->getHeight());
}
}
break;
}
return maxImageHeight;
});
lines_.insert(LineContainer::value_type(lineBeg - items.begin(), LineInfo(lineTop, maxImageHeight)));
lineTop += maxImageHeight + nameHeight_ + lineSpace_;
}
else{
lines_.insert(LineContainer::value_type(lineBeg - items.begin(), LineInfo(lineTop, imageHeight_)));
lineTop += cellStepY_;
}
}
pageSize_.set(
columns_ * cellStepX_ - columnSpace_,
lineTop ? lineTop - lineSpace_ : 0);
}
bool has_image_cache(const std::string & filename)
{
return image_cache.find(filename) != image_cache.end();
}