inline void DoRecurse(TArchiveWriter& w, Stroka off) const {
{
TFileList fl;
const char* name;
const Stroka p = Path + off;
fl.Fill(~p);
while ((name = fl.Next())) {
const Stroka fname = p + name;
const Stroka rname = Prefix + off + name;
Append(w, fname, rname);
}
}
if (Recursive) {
TDirsList dl;
const char* name;
const Stroka p = Path + off;
dl.Fill(~p);
while ((name = dl.Next())) {
if (strcmp(name, ".") && strcmp(name, "..")) {
DoRecurse(w, off + name + "/");
}
}
}
}
void mtlrchApp::EvDropFiles (TDropInfo drop)
{
// Number of files dropped.
int totalNumberOfFiles = drop.DragQueryFileCount();
TFileList* files = new TFileList;
for (int i = 0; i < totalNumberOfFiles; i++) {
// Tell DragQueryFile the file interested in (i) and the length of your buffer.
int fileLength = drop.DragQueryFileNameLen(i) + 1;
char *fileName = new char[fileLength];
drop.DragQueryFile(i, fileName, fileLength);
// Getting the file dropped. The location is relative to your client coordinates,
// and will have negative values if dropped in the non client parts of the window.
//
// DragQueryPoint copies that point where the file was dropped and returns whether
// or not the point is in the client area. Regardless of whether or not the file
// is dropped in the client or non-client area of the window, you will still receive
// the file name.
TPoint point;
BOOL inClientArea = drop.DragQueryPoint(point);
files->Add(new TFileDrop(fileName, point, inClientArea, this));
}
// Open the files that were dropped.
AddFiles(files);
// Release the memory allocated for this handle with DragFinish.
drop.DragFinish();
}
bool __fastcall TEditTiffForm::PrintFile(void) {
//-------------------------------------------------------------------------------
// Печатает файл tic.Filename и кладет его в tb->Images |
// Если что не получилось, то выдает сообщение и возвращает false |
//-------------------------------------------------------------------------------
bool res;
TFileList *ffl = new TFileList;
String aFiln = ErasePathFromFiln(tic.Filename);
ffl->Append("", tic.Filename, "", "");
String filn;
int filn_n;
char buf[50], path[300];
filn = CreateTempFiln();
Visible = false;
res = SEnumMainForm->PrintFilesLoaded(filn.c_str(), ffl, 0, 0);
delete ffl;
Visible = true;
if (!res) return false;
res = tb->LoadTiff(filn);
DeleteFile(filn);
return true;
}
// tests one by one touching each runtime modifiable source file
// returns the number of errors - 0 if all passed.
int RuntimeObjectSystem::TestBuildAllRuntimeSourceFiles( ITestBuildNotifier* callback, bool bTestFileTracking )
{
if( m_pCompilerLogger ) { m_pCompilerLogger->LogInfo("TestBuildAllRuntimeSourceFiles Starting\n"); }
ITestBuildNotifier* failCallbackLocal = callback;
if( !failCallbackLocal )
{
failCallbackLocal = this;
}
int numErrors = 0;
size_t numFilesToBuild = 0;
for( unsigned short proj = 0; proj < m_Projects.size( ); ++proj )
{
numFilesToBuild += m_Projects[ proj ].m_RuntimeFileList.size( );
}
if( 0 == numFilesToBuild )
{
failCallbackLocal->TestBuildCallback( NULL, TESTBUILDRRESULT_NO_FILES_TO_BUILD );
}
for( unsigned short proj = 0; proj < m_Projects.size(); ++proj )
{
TFileList filesToTest = m_Projects[ proj ].m_RuntimeFileList; // m_RuntimeFileList could change if file content changes (new includes or source dependencies) so make copy to ensure iterators valid.
for( TFileList::iterator it = filesToTest.begin(); it != filesToTest.end(); ++it )
{
const Path& file = *it;
if( file.Extension() != ".h" ) // exclude headers, use TestBuildAllRuntimeHeaders
{
int fileErrors = TestBuildFile( m_pCompilerLogger, this, file, failCallbackLocal, bTestFileTracking );
if( fileErrors < 0 )
{
// this means exit, and the number of errors is -ve so remove, unless -0xD1E is the response (for no error die)
if( fileErrors != -0xD1E )
{
numErrors -= fileErrors;
}
return numErrors;
}
numErrors += fileErrors;
}
}
}
if( 0 == numErrors )
{
if( m_pCompilerLogger ) { m_pCompilerLogger->LogInfo("All Tests Passed\n"); }
}
else
{
if( m_pCompilerLogger ) { m_pCompilerLogger->LogError("Tests Failed: %d\n", numErrors); }
}
return numErrors;
}
FileMonitor::TFileList::iterator FileMonitor::GetWatchedFileEntry( const FileSystemUtils::Path& file, TFileList& fileList )
{
TFileList::iterator fileIt = fileList.begin();
TFileList::iterator fileItEnd = fileList.end();
while (fileIt != fileItEnd && !ArePathsEqual(fileIt->file, file))
{
fileIt++;
}
return fileIt;
}
void CCRUDProcessor::ProcessFiles(TFileList &fileList, const char *pSourceDir, const char *pDestDir, bool bRecursive, CCRUDResults &results)
{
OutputResult("Processing File List..");
TFileList::iterator curFile = fileList.begin();
TDateTime timeBegin;
timeBegin = timeBegin.CurrentDateTime();
results.m_iFilesFound = 0;
results.m_iFilesCopied = 0;
int nTopLevel = fileList.size();
ResetEvent(m_hStopEvent);
while ((WaitForSingleObject(m_hStopEvent, 0) == WAIT_TIMEOUT) &&
(curFile != fileList.end()))
{
// Count this file
++results.m_iFilesFound;
// Get the source file name
string curFileName(pSourceDir);
curFileName += '\\';
curFileName += *curFile;
CleanPath(curFileName.begin());
// Look for new files in this file
bool bSearchInFile = bRecursive || nTopLevel;
if (!bSearchInFile || SearchForNewFiles(fileList, curFileName.begin()))
{
// Get the destination file name
string destFileName(pDestDir);
destFileName += '\\';
destFileName += *curFile;
CleanPath(destFileName.begin());
// Copy it if it needs to be updated
if (MaybeCopyFile(curFileName.begin(), destFileName.begin()))
++results.m_iFilesCopied;
}
if (nTopLevel)
--nTopLevel;
// Go to the next file in the list
++curFile;
// Breathe
Application->ProcessMessages();
}
results.m_ProcessingTime = timeBegin.CurrentDateTime() - timeBegin;
}
/** Save result of prediction to file
*/
void SavePredictions(const TFileList& file_list,
const TLabels& labels,
const string& prediction_file) {
// Check that list of files and list of labels has equal size
assert(file_list.size() == labels.size());
// Open 'prediction_file' for writing
ofstream stream(prediction_file.c_str());
// Write file names and labels to stream
for (size_t image_idx = 0; image_idx < file_list.size(); ++image_idx)
stream << file_list[image_idx].first << " " << labels[image_idx] << endl;
stream.close();
}
bool AddFileToList(TFileList &fileList, const char *pName)
{
for (TFileList::iterator curFile = fileList.begin(); curFile != fileList.end(); ++curFile)
{
if (stricmp(curFile->begin(), pName) == 0)
return false;
}
// Ok, add it to the end..
fileList.push_back(pName);
return true;
}
//*************************************************************************
void BeatDetectorApp::NextFile()
{
roto = 0;
if(mTrack && mTrack->isPlaying())
{
mTrack->enablePcmBuffering(false);
mTrack->stop();
}
#ifdef WIN32
time_t now;
time(&now);
int time_int = (int)now;
#else
timeval now;
gettimeofday(&now, NULL);
int time_int = now.tv_sec;
#endif
Rand r;
r.seed(time_int);
int rand_file = r.nextInt(m_FileList.size());
path my_path = m_FileList[rand_file].path();
m_CurrentFile = my_path.string();
if(!write_frames)
{
mAudioSource = audio::load(m_CurrentFile);
mTrack = audio::Output::addTrack(mAudioSource, false);
mTrack->enablePcmBuffering(true);
mTrack->play();
}
//rot_inc = r.nextFloat(1.5f, 30.0f);
}
/**Load images by list of files 'file_list' and store them in 'data_set'
*/
void LoadImages(const TFileList& file_list, TDataSet* data_set) {
for (size_t img_idx = 0; img_idx < file_list.size(); ++img_idx) {
// Create image
BMP* image = new BMP();
// Read image from file
image->ReadFromFile(file_list[img_idx].first.c_str());
// Add image and it's label to dataset
data_set->push_back(make_pair(image, file_list[img_idx].second));
}
}
void CApplication::initLocales()
{
boost::locale::generator gen;
string path = getBasePath().normalize().string() + "/messages";
gen.add_messages_path(path);
TExtensionList extensions = boost::assign::list_of (".mo");
TFileList translations = CFile::find(boost::filesystem::path(path), extensions, TExcludeList(), -1, false);
vector<string> domains;
for (TFileList::const_iterator iter = translations.begin(); iter != translations.end(); ++iter) {
domains.push_back(boost::filesystem::basename(*iter));
}
std::unique(domains.begin(), domains.end());
for (vector<string>::const_iterator iter = domains.begin(); iter != domains.end(); ++iter) {
gen.add_messages_domain(*iter);
}
for (vector<string>::const_iterator iter = _languages.begin(); iter != _languages.end(); ++iter) {
_locales[*iter] = gen(*iter + ".UTF-8");
}
}
int __fastcall ns_Functions::GetFileList(TFileList &FileList, const String &Mask, bool Recursive, int Size) {
String PathMask=ExtractFilePath(Mask), FileMask=ExtractFileName(Mask);
TSearchRec F;
if(!FindFirst(Mask, faAnyFile&~faDirectory, F)) {
do {
FileList.push_back((PathMask+F.Name).LowerCase());
Size += F.Size;
}
while(!FindNext(F));
FindClose(F);
}
if(!Recursive) return Size;
if(!FindFirst(PathMask+"*", faAnyFile, F)) {
do
if(F.Attr&faDirectory && F.Name!="." && F.Name!="..")
Size += GetFileList(FileList, PathMask+F.Name+"\\"+FileMask, Recursive, Size);
while(!FindNext(F));
FindClose(F);
}
return Size;
}
FileSystemUtils::Path RuntimeObjectSystem::FindFile( const FileSystemUtils::Path& input )
{
FileSystemUtils::Path requestedDirectory = input;
FileSystemUtils::Path filename;
FileSystemUtils::Path foundFile = input;
bool bIsFile = input.HasExtension();
if( bIsFile )
{
requestedDirectory = requestedDirectory.ParentPath();
filename = input.Filename();
}
requestedDirectory.ToOSCanonicalCase();
filename.ToOSCanonicalCase();
foundFile.ToOSCanonicalCase();
// Step 1: Try input directory
if( requestedDirectory.Exists() )
{
m_FoundSourceDirectoryMappings[ requestedDirectory ] = requestedDirectory;
}
else
{
// Step 2: Attempt to find a pre-existing mapping
bool bFoundMapping = false;
if( m_FoundSourceDirectoryMappings.size() )
{
FileSystemUtils::Path testDir = requestedDirectory;
FileSystemUtils::Path foundDir;
unsigned int depth = 0;
bool bFound = false;
while( testDir.HasParentPath() )
{
TFileMapIterator itrFind = m_FoundSourceDirectoryMappings.find( testDir );
if( itrFind != m_FoundSourceDirectoryMappings.end() )
{
foundDir = itrFind->second;
bFound = true;
break;
}
testDir = testDir.ParentPath();
++depth;
}
if( bFound )
{
if( depth )
{
// not an exact match
FileSystemUtils::Path directory = requestedDirectory;
directory.m_string.replace( 0, testDir.m_string.length(), foundDir.m_string );
if( directory.Exists() )
{
foundFile = directory / filename;
if( foundFile.Exists() )
{
m_FoundSourceDirectoryMappings[ requestedDirectory ] = directory;
if( m_pCompilerLogger ) { m_pCompilerLogger->LogInfo( "Found Directory Mapping: %s to %s\n", requestedDirectory.c_str(), directory.c_str() ); }
bFoundMapping = true;
}
}
}
else
{
// exact match
foundFile = foundDir / filename;
bFoundMapping = true;
}
}
if( !bFoundMapping )
{
// Step 3: Attempt to find a mapping from a known path
TFileList requestedSubPaths;
FileSystemUtils::Path requestedSubPath = requestedDirectory;
while( requestedSubPath.HasParentPath() )
{
requestedSubPaths.push_back( requestedSubPath );
requestedSubPath = requestedSubPath.ParentPath();
}
TFileMapIterator itr = m_FoundSourceDirectoryMappings.begin();
while( ( itr != m_FoundSourceDirectoryMappings.end() ) && !bFoundMapping )
{
FileSystemUtils::Path existingPath = itr->second;
while( ( existingPath.HasParentPath() ) && !bFoundMapping )
{
// check all potentials
for( size_t i=0; i<requestedSubPaths.size(); ++i )
{
FileSystemUtils::Path toCheck = existingPath / requestedSubPaths[i].Filename();
if( toCheck.Exists() )
{
// potential mapping
FileSystemUtils::Path directory = requestedDirectory;
directory.m_string.replace( 0, requestedSubPaths[i].m_string.length(), toCheck.m_string );
if( directory.Exists() )
{
foundFile = directory / filename;
if( foundFile.Exists() )
{
m_FoundSourceDirectoryMappings[ requestedDirectory ] = directory;
if( m_pCompilerLogger ) { m_pCompilerLogger->LogInfo( "Found Directory Mapping: %s to %s\n", requestedDirectory.c_str(), directory.c_str() ); }
bFoundMapping = true;
break;
}
}
}
}
existingPath = existingPath.ParentPath();
}
++itr;
}
}
}
}
if( !foundFile.Exists() )
{
if( m_pCompilerLogger ) { m_pCompilerLogger->LogWarning( "Could not find Directory Mapping for: %s\n", input.c_str() ); }
++m_NumNotFoundSourceFiles;
}
return foundFile;
}
//*************************************************************************
void BeatDetectorApp::setup()
{
// Set up window
setWindowSize(480, 480);
// Set up OpenGL
gl::enableAlphaBlending();
//glBlendFunc(GL_SRC_ALPHA, GL_ONE);
//glBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA);
glEnable(GL_BLEND);
//glEnable(GL_LINE_SMOOTH);
//glHint(GL_LINE_SMOOTH_HINT, GL_NICEST);
if(write_frames)
{
setFrameRate(30);
}
else
{
setFrameRate(60);
}
// Set line color
gl::color(Color(1, 1, 1));
// Load and play audio
//mAudioSource = audio::load(loadResource(RES_SAMPLE));
//mTrack = audio::Output::addTrack(mAudioSource, false);
///mTrack->enablePcmBuffering(true);
//mTrack->play();
// Set init flag
mFftInit = false;
std::string dir = getHomeDirectory() + "music\\4vis";
if(exists(dir))
{
if(is_directory(dir))
{
copy(directory_iterator(dir), directory_iterator(), back_inserter(m_FileList));
}
}
for(TFileList::iterator it = m_FileList.begin(); it != m_FileList.end();)
{
//std::string str = it->path().native();
std::string str = it->path().generic_string();
//#ifdef WIN32
// if(str.rfind(".wav") != -1)
//#else
if(str.rfind(".mp3") != -1 || str.rfind(".m4a") != -1)
//#endif
{
++it;
}
else
{
it = m_FileList.erase(it);
}
}
NextFile();
if(write_frames)
{
COpenALSampleManager::StaticInit();
p_sample = COpenALSampleManager::CreateSample(m_CurrentFile);
}
}
