fs::path findExecutableMapcrafterDir(fs::path executable) {
std::string filename = BOOST_FS_FILENAME(executable);
if ((filename == "testconfig" || filename == "mapcrafter_markers") &&
BOOST_FS_FILENAME(executable.parent_path()) == "tools")
return executable.parent_path().parent_path();
return executable.parent_path();
}
Save::Save(fs::path const& file, bool binary)
: file_name(file)
, tmp_name(unique_path(file.parent_path()/(file.stem().string() + "_tmp_%%%%" + file.extension().string())))
{
LOG_D("agi/io/save/file") << file;
fp = agi::make_unique<boost::filesystem::ofstream>(tmp_name, binary ? std::ios::binary : std::ios::out);
if (!fp->good()) {
acs::CheckDirWrite(file.parent_path());
acs::CheckFileWrite(file);
throw fs::WriteDenied(tmp_name);
}
}
fs::path uniquify(const fs::path &dest)
{
std::string ext = dest.extension();
std::string fname = dest.stem();
fs::path parent = dest.parent_path();
unsigned number = 1;
std::string newfname;
fs::path newdest;
boost::smatch match;
if(boost::regex_search(fname, match, uregex)) {
// Matches are indexes into fname, so don't change it while reading values
newfname = match[1];
number = boost::lexical_cast<short>(match[2]);
fname = newfname;
}
do {
newfname = fname + "(" + boost::lexical_cast<std::string>(++number) + ")" + ext;
newdest = parent / newfname;
} while(fs::exists(newdest));
return newdest;
}
void disk_cache_man::writeChunk(const fs::path& path, char* buffer,unsigned int size)
{
if(path.parent_path().parent_path() != cachepath)
{
/*Label*/
if(!fs::exists(path.parent_path().parent_path()))
fs::create_directory(path.parent_path().parent_path());
}
if(!fs::exists(path.parent_path()))
fs::create_directory(path.parent_path());
fs::ofstream os(path,ios::out | ios::binary);
if(!os.good())
throw runtime_error("Failed to open chunk file for writing in cache manager");
os.write(buffer,size);
os.close();
}
fs::path AudioVisualizerApp::nextAudio( const fs::path& file )
{
if( file.empty() || !fs::is_regular_file( file ) )
return fs::path();
fs::path& directory = file.parent_path();
// make a list of all audio files in the directory
vector<fs::path> files;
listAudio( directory, files );
// return if there are no audio files in the directory
if( files.empty() )
return fs::path();
// find current audio file
auto itr = std::find( files.begin(), files.end(), file );
// if not found, or if it is the last audio file, simply return first audio file
if( itr == files.end() || *itr == files.back() )
return files.front();
// return next file
return *( ++itr );
}
void Copy(fs::path const& from, fs::path const& to) {
acs::CheckFileRead(from);
CreateDirectory(to.parent_path());
acs::CheckDirWrite(to.parent_path());
if (!CopyFile(from.wstring().c_str(), to.wstring().c_str(), false)) {
switch (GetLastError()) {
case ERROR_FILE_NOT_FOUND:
throw FileNotFound(from);
case ERROR_ACCESS_DENIED:
throw fs::WriteDenied("Could not overwrite " + to.string());
default:
throw fs::WriteDenied("Could not copy: " + util::ErrorString(GetLastError()));
}
}
}
fs::path FileResolver::resolve(const fs::path &path) const {
/* First, try to resolve in case-sensitive mode */
for (size_t i=0; i<m_paths.size(); i++) {
fs::path newPath = m_paths[i] / path;
if (fs::exists(newPath))
return newPath;
}
#if defined(__LINUX__)
/* On Linux, also try case-insensitive mode if the above failed */
fs::path parentPath = path.parent_path();
std::string filename = boost::to_lower_copy(path.filename().string());
for (size_t i=0; i<m_paths.size(); i++) {
fs::path path = m_paths[i] / parentPath;
if (!fs::is_directory(path))
continue;
fs::directory_iterator end, it(path);
for (; it != end; ++it) {
if (boost::algorithm::to_lower_copy(it->path().filename().string()) == filename)
return it->path();
}
}
#endif
return path;
}
fs::path StarsApp::getNextFile( const fs::path ¤t )
{
if( !current.empty() ) {
bool useNext = false;
fs::directory_iterator end_itr;
for( fs::directory_iterator i( current.parent_path() ); i != end_itr; ++i )
{
// skip if not a file
if( !fs::is_regular_file( i->status() ) ) continue;
if(useNext) {
// skip if extension does not match
if( std::find( mMusicExtensions.begin(), mMusicExtensions.end(), i->path().extension() ) == mMusicExtensions.end() )
continue;
// file matches, return it
return i->path();
}
else if( *i == current ) {
useNext = true;
}
}
}
// failed, return empty path
return fs::path();
}
fs::path StarsApp::getPrevFile( const fs::path ¤t )
{
if( !current.empty() ) {
fs::path previous;
fs::directory_iterator end_itr;
for( fs::directory_iterator i( current.parent_path() ); i != end_itr; ++i )
{
// skip if not a file
if( !fs::is_regular_file( i->status() ) ) continue;
if( *i == current ) {
// do we know what file came before this one?
if( !previous.empty() )
return previous;
else
break;
}
else {
// skip if extension does not match
if( std::find( mMusicExtensions.begin(), mMusicExtensions.end(), i->path().extension() ) == mMusicExtensions.end() )
continue;
// keep track of this file
previous = *i;
}
}
}
// failed, return empty path
return fs::path();
}
static std::string relativeUrl(fs::path const& from, fs::path const& to)
{
if (to == from)
return std::string();
fs::path r = to.lexically_relative(from.parent_path());
return r == "." ? std::string() : r.string();
}
void DXTencoderApp::loadMovieFile( const fs::path &moviePath )
{
try {
mMovie = qtime::MovieSurface::create( moviePath );
console() << "Dimensions:" << mMovie->getWidth() << " x " << mMovie->getHeight() << std::endl;
console() << "Duration: " << mMovie->getDuration() << " seconds" << std::endl;
console() << "Frames: " << mMovie->getNumFrames() << std::endl;
console() << "Framerate: " << mMovie->getFramerate() << std::endl;
console() << "Has audio: " << mMovie->hasAudio() << " Has visuals: " << mMovie->hasVisuals() << std::endl;
mMovie->setLoop( false );
mMovie->seekToStart();
//mMovie->play();
isStarted = true;
currentFrame = 0;
std::string basePath = moviePath.parent_path().string();
string newFilename = moviePath.filename().string();
strReplace(newFilename, moviePath.extension().string(), ".dxt5");
mDxtCreator.open(basePath + "/" + newFilename);
}
catch( ci::Exception &exc ) {
console() << "Exception caught trying to load the movie from path: " << moviePath << ", what: " << exc.what() << std::endl;
}
}
void QuarterlyIndexFileRetriever::UnzipLocalIndexFile (const fs::path& local_zip_file_name)
{
std::ifstream zipped_file(local_zip_file_name.string(), std::ios::in | std::ios::binary);
Poco::Zip::Decompress expander(zipped_file, local_zip_file_name.parent_path().string(), true);
expander.decompressAllFiles();
} // ----- end of method QuarterlyIndexFileRetriever::UnzipLocalIndexFile -----
void ReflectionParser::generateModuleFile(
const fs::path &fileHeader,
const fs::path &fileSource,
const std::string &sourceHeader,
const ModuleFile &file
)
{
// header file
{
TemplateData headerData { TemplateData::Type::Object };
addGlobalTemplateData( headerData );
headerData[ "moduleFileName" ] = file.name;
fs::create_directory( fileHeader.parent_path( ) );
utils::WriteText(
fileHeader.string( ),
m_moduleFileHeaderTemplate.render( headerData )
);
}
// source file
{
TemplateData sourceData { TemplateData::Type::Object };
addGlobalTemplateData( sourceData );
sourceData[ "moduleFileName" ] = file.name;
sourceData[ "moduleFileSourceHeader" ] = sourceHeader;
sourceData[ "moduleFileHeader" ] = fileHeader.string( );
COMPILE_TYPE_TEMPLATES( sourceData, "class", file.classes );
COMPILE_TYPE_TEMPLATES( sourceData, "global", file.globals );
COMPILE_TYPE_TEMPLATES( sourceData, "globalFunction", file.globalFunctions );
COMPILE_TYPE_TEMPLATES( sourceData, "enum", file.enums );
fs::create_directory( fileSource.parent_path( ) );
utils::WriteText(
fileSource.string( ),
m_moduleFileSourceTemplate.render( sourceData )
);
}
}
void ASM_Gaze_Tracker::initASM_Gaze_Tracker(const fs::path & trackermodel, const fs::path & cameraProfile) {
tracker = load_ft<face_tracker>(trackermodel.string());
tracker.detector.baseDir = trackermodel.parent_path().string() + fs::path("/").make_preferred().native();
if (cameraProfile.empty() == false) {
findBestFrontalFaceShapeIn3D();
readCameraProfile(cameraProfile, cameraMatrix, distCoeffs);
}
}
/*******************************************************************
* Function Name: GetTrackFilePath
* Return Type : const fs::path
* Created On : Mar 5, 2014
* Created By : hrushi
* Comments : Get the TrackFile path from the given TrackImage path
* Arguments : const fs::path TrackChipPath
*******************************************************************/
const fs::path TrackXML::GetTrackFilePath( const fs::path fsTrackChipPath)
{
fs::path fsTrackFldrPath = fsTrackChipPath.parent_path().parent_path();
string stemname = fsTrackChipPath.stem().string();
UINT TrackNum, FrameNum;
string VideoBaseName;
GetTrkChipNameParts(stemname, TrackNum, FrameNum, VideoBaseName);
fs::path fsTrackFilePath = fsTrackFldrPath.string() + "/" + VideoBaseName + "_track.xml";
return fsTrackFilePath;
}
void disk_cache_man::checkIfEmpty(fs::path& in)
{
fs::path upper = in.parent_path();
while(upper != cachepath)
{
if(upper.empty())
{
fs::remove(upper);
}
upper = upper.parent_path();
}
}
std::string Shader::parseShader( const fs::path &path, bool optional, int level )
{
std::stringstream output;
if( level > 32 ) {
throw std::runtime_error( "Reached the maximum inclusion depth." );
return std::string();
}
static const std::regex includeRegexp( "^[ ]*#[ ]*include[ ]+[\"<](.*)[\">].*" );
std::ifstream input( path.c_str() );
if( !input.is_open() ) {
if( optional )
return std::string();
if( level == 0 ) {
char msg[512];
snprintf( msg, 512, "Failed to open shader file '%s'.", path.c_str() );
throw std::runtime_error( msg );
}
else {
char msg[512];
snprintf( msg, 512, "Failed to open shader include file '%s'.", path.c_str() );
throw std::runtime_error( msg );
}
return std::string();
}
// go through each line and process includes
std::string line;
std::smatch matches;
while( std::getline( input, line ) ) {
if( std::regex_search( line, matches, includeRegexp ) )
output << parseShader( path.parent_path() / matches[1].str(), false, level + 1 );
else
output << line;
output << std::endl;
}
input.close();
// make sure #version is the first line of the shader
if( level == 0 )
return parseVersion( output.str() );
else
return output.str();
}
static void SplitWalletPath(const fs::path& wallet_path, fs::path& env_directory, std::string& database_filename)
{
if (fs::is_regular_file(wallet_path)) {
// Special case for backwards compatibility: if wallet path points to an
// existing file, treat it as the path to a BDB data file in a parent
// directory that also contains BDB log files.
env_directory = wallet_path.parent_path();
database_filename = wallet_path.filename().string();
} else {
// Normal case: Interpret wallet path as a directory path containing
// data and log files.
env_directory = wallet_path;
database_filename = "wallet.dat";
}
}
/*******************************************************************
* Function Name: GiveSegImgPath
* Return Type : const fs::path
* Created On : Aug 21, 2013
* Created By : hrushi
* Comments : For the given image path. It creates a segmentation folder and returns the path where the image could be stored
* Arguments : const fs::path& ImgPath
*******************************************************************/
const fs::path Detect::GiveSegImgPath( const fs::path& iPath, const string Suffix)
{
fs::path SegImgPath;
fs::path SegFldr = iPath.parent_path().string() + "/Seg";
fs::create_directory(SegFldr);
string OutputPath;
OutputPath = SegFldr.parent_path().string() + "/Seg/";
OutputPath += iPath.stem().string() + Suffix;
OutputPath += iPath.extension().string();
SegImgPath = OutputPath;
return SegImgPath;
}
std::shared_ptr<OStreamFile> writeFileStream( const fs::path &path, bool createParents )
{
if( createParents && path.has_parent_path() ) {
fs::create_directories( path.parent_path() );
}
#if defined( CINDER_MSW )
FILE *f = _wfopen( expandPath( path ).wstring().c_str(), L"wb" );
#else
FILE *f = fopen( expandPath( path ).string().c_str(), "wb" );
#endif
if( f ) {
OStreamFileRef s = OStreamFile::create( f, true );
s->setFileName( path );
return s;
}
else
return std::shared_ptr<OStreamFile>();
}
void PostProcessingApp::playNext()
{
// get directory
fs::path path = mFile.parent_path();
// list *.mov files
vector<string> files;
string filter( ".mov" );
fs::directory_iterator end_itr;
for(fs::directory_iterator itr(path);itr!=end_itr;++itr) {
// skip if not a file
if( !boost::filesystem::is_regular_file( itr->status() ) ) continue;
// skip if no match
if( itr->path().filename().string().find( filter ) == string::npos ) continue;
// file matches, store it
files.push_back( itr->path().string() );
}
// check if playable files are found
if( files.empty() ) return;
// play next file
vector<string>::iterator itr = find(files.begin(), files.end(), mFile);
if( itr == files.end() ) {
play( files[0] );
}
else {
++itr;
if( itr == files.end() )
play( files[0] );
else play( *itr );
}
}
void writeToFile(fs::path _path)
{
stringstream ss;
if (fileCount < 0){
fileCount = 0;
ss << fileCount;
outFile.open(fs::path(string(BASE_MODEL_PATH)+"/Data"+ss.str()+".bin"), ios::binary);
ss.flush();
}
else if (byteCount > BYTE_LIMIT){
outFile.flush();
outFile.close();
fileCount++;
ss << fileCount;
outFile.open(fs::path(string(BASE_DEST_PATH)+"/Data"+ss.str()+".bin"), ios::binary);
ss.flush();
byteCount = 0;
// close file and open new
}
Header head;
head.id = strToUint64(_path.stem());
idxFile.open(_path, ios::binary);
dataFile.open(_path.parent_path() / (_path.stem()+".data"), ios::binary);
idxFile.seekg(0, ios::beg);
idxFile.read((char*)&head.indexCount, sizeof(unsigned));
idxFile.seekg(4, ios::beg);
dataFile.seekg(0, ios::beg);
dataFile.read((char*)&head.vertexCount, sizeof(unsigned));
dataFile.seekg(4, ios::beg);
indexData = new unsigned[head.indexCount];
vertexData = new ooctools::V4N4[head.vertexCount];
idxFile.read((char*)indexData, sizeof(unsigned)*head.indexCount);
idxFile.close();
dataFile.read((char*)vertexData, sizeof(V4N4)*head.vertexCount);
dataFile.close();
// ------------------------------------
//write to file
outFile.seekp(byteCount, ios::beg);
//writing header-info
outFile.write((char*)&head, sizeof(Header));
outFile.seekp(byteCount+sizeof(Header), ios::beg);
//writing the indices
outFile.write((char*)indexData, head.indexCount*sizeof(unsigned));
outFile.seekp(byteCount + sizeof(Header) + head.indexCount*sizeof(unsigned), ios::beg);
//writing the vertices
outFile.write((char*)vertexData, head.vertexCount*sizeof(V4N4));
byteCount += head.sizeOf();
outFile.flush();
delete[] vertexData;
vertexData = 0;
delete[] indexData;
indexData = 0;
}
std::vector<Toolset> find_toolset_instances_preferred_first(const VcpkgPaths& paths)
{
using CPU = System::CPUArchitecture;
const auto& fs = paths.get_filesystem();
// Note: this will contain a mix of vcvarsall.bat locations and dumpbin.exe locations.
std::vector<fs::path> paths_examined;
std::vector<Toolset> found_toolsets;
std::vector<Toolset> excluded_toolsets;
const SortedVector<VisualStudioInstance> sorted{get_visual_studio_instances_internal(paths),
VisualStudioInstance::preferred_first_comparator};
const bool v140_is_available = Util::find_if(sorted, [&](const VisualStudioInstance& vs_instance) {
return vs_instance.major_version() == "14";
}) != sorted.end();
for (const VisualStudioInstance& vs_instance : sorted)
{
const std::string major_version = vs_instance.major_version();
if (major_version >= "15")
{
const fs::path vc_dir = vs_instance.root_path / "VC";
// Skip any instances that do not have vcvarsall.
const fs::path vcvarsall_dir = vc_dir / "Auxiliary" / "Build";
const fs::path vcvarsall_bat = vcvarsall_dir / "vcvarsall.bat";
paths_examined.push_back(vcvarsall_bat);
if (!fs.exists(vcvarsall_bat)) continue;
// Get all supported architectures
std::vector<ToolsetArchOption> supported_architectures;
if (fs.exists(vcvarsall_dir / "vcvars32.bat"))
supported_architectures.push_back({"x86", CPU::X86, CPU::X86});
if (fs.exists(vcvarsall_dir / "vcvars64.bat"))
supported_architectures.push_back({"amd64", CPU::X64, CPU::X64});
if (fs.exists(vcvarsall_dir / "vcvarsx86_amd64.bat"))
supported_architectures.push_back({"x86_amd64", CPU::X86, CPU::X64});
if (fs.exists(vcvarsall_dir / "vcvarsx86_arm.bat"))
supported_architectures.push_back({"x86_arm", CPU::X86, CPU::ARM});
if (fs.exists(vcvarsall_dir / "vcvarsx86_arm64.bat"))
supported_architectures.push_back({"x86_arm64", CPU::X86, CPU::ARM64});
if (fs.exists(vcvarsall_dir / "vcvarsamd64_x86.bat"))
supported_architectures.push_back({"amd64_x86", CPU::X64, CPU::X86});
if (fs.exists(vcvarsall_dir / "vcvarsamd64_arm.bat"))
supported_architectures.push_back({"amd64_arm", CPU::X64, CPU::ARM});
if (fs.exists(vcvarsall_dir / "vcvarsamd64_arm64.bat"))
supported_architectures.push_back({"amd64_arm64", CPU::X64, CPU::ARM64});
// Locate the "best" MSVC toolchain version
const fs::path msvc_path = vc_dir / "Tools" / "MSVC";
std::vector<fs::path> msvc_subdirectories = fs.get_files_non_recursive(msvc_path);
Util::erase_remove_if(msvc_subdirectories,
[&fs](const fs::path& path) { return !fs.is_directory(path); });
// Sort them so that latest comes first
std::sort(
msvc_subdirectories.begin(),
msvc_subdirectories.end(),
[](const fs::path& left, const fs::path& right) { return left.filename() > right.filename(); });
for (const fs::path& subdir : msvc_subdirectories)
{
const fs::path dumpbin_path = subdir / "bin" / "HostX86" / "x86" / "dumpbin.exe";
paths_examined.push_back(dumpbin_path);
if (fs.exists(dumpbin_path))
{
const Toolset v141_toolset{
vs_instance.root_path, dumpbin_path, vcvarsall_bat, {}, V_141, supported_architectures};
const auto english_language_pack = dumpbin_path.parent_path() / "1033";
if (!fs.exists(english_language_pack))
{
excluded_toolsets.push_back(v141_toolset);
break;
}
found_toolsets.push_back(v141_toolset);
if (v140_is_available)
{
const Toolset v140_toolset{vs_instance.root_path,
dumpbin_path,
vcvarsall_bat,
{"-vcvars_ver=14.0"},
V_140,
supported_architectures};
found_toolsets.push_back(v140_toolset);
}
break;
}
}
continue;
}
if (major_version == "14" || major_version == "12")
{
const fs::path vcvarsall_bat = vs_instance.root_path / "VC" / "vcvarsall.bat";
paths_examined.push_back(vcvarsall_bat);
if (fs.exists(vcvarsall_bat))
{
const fs::path vs_dumpbin_exe = vs_instance.root_path / "VC" / "bin" / "dumpbin.exe";
paths_examined.push_back(vs_dumpbin_exe);
const fs::path vs_bin_dir = vcvarsall_bat.parent_path() / "bin";
std::vector<ToolsetArchOption> supported_architectures;
if (fs.exists(vs_bin_dir / "vcvars32.bat"))
supported_architectures.push_back({"x86", CPU::X86, CPU::X86});
if (fs.exists(vs_bin_dir / "amd64\\vcvars64.bat"))
supported_architectures.push_back({"x64", CPU::X64, CPU::X64});
if (fs.exists(vs_bin_dir / "x86_amd64\\vcvarsx86_amd64.bat"))
supported_architectures.push_back({"x86_amd64", CPU::X86, CPU::X64});
if (fs.exists(vs_bin_dir / "x86_arm\\vcvarsx86_arm.bat"))
supported_architectures.push_back({"x86_arm", CPU::X86, CPU::ARM});
if (fs.exists(vs_bin_dir / "amd64_x86\\vcvarsamd64_x86.bat"))
supported_architectures.push_back({"amd64_x86", CPU::X64, CPU::X86});
if (fs.exists(vs_bin_dir / "amd64_arm\\vcvarsamd64_arm.bat"))
supported_architectures.push_back({"amd64_arm", CPU::X64, CPU::ARM});
if (fs.exists(vs_dumpbin_exe))
{
const Toolset toolset = {vs_instance.root_path,
vs_dumpbin_exe,
vcvarsall_bat,
{},
major_version == "14" ? V_140 : V_120,
supported_architectures};
const auto english_language_pack = vs_dumpbin_exe.parent_path() / "1033";
if (!fs.exists(english_language_pack))
{
excluded_toolsets.push_back(toolset);
break;
}
found_toolsets.push_back(toolset);
}
}
}
}
if (!excluded_toolsets.empty())
{
System::println(
System::Color::warning,
"Warning: The following VS instances are excluded because the English language pack is unavailable.");
for (const Toolset& toolset : excluded_toolsets)
{
System::println(" %s", toolset.visual_studio_root_path.u8string());
}
System::println(System::Color::warning, "Please install the English language pack.");
}
if (found_toolsets.empty())
{
System::println(System::Color::error, "Could not locate a complete toolset.");
System::println("The following paths were examined:");
for (const fs::path& path : paths_examined)
{
System::println(" %s", path.u8string());
}
Checks::exit_fail(VCPKG_LINE_INFO);
}
return found_toolsets;
}