void CFileCommentsPage::OnOK()
{
UpdateData();
m_sComments.Trim();
CLibraryListPtr pFiles( GetList() );
if ( ! pFiles || pFiles->GetCount() == 1 )
{
CQuickLock oLock( Library.m_pSection );
if ( CLibraryFile* pFile = GetFile() )
{
pFile->m_nRating = m_nRating;
pFile->m_sComments = m_sComments;
pFile->ModifyMetadata();
Library.Update();
}
}
else
{
CQuickLock oLock( Library.m_pSection );
for ( POSITION pos = pFiles->GetHeadPosition(); pos; )
{
if ( CLibraryFile* pFile = pFiles->GetNextFile( pos ) )
pFile->m_nRating = m_nRating;
}
Library.Update();
}
CFilePropertiesPage::OnOK();
}
BOOL CFileCommentsPage::OnInitDialog()
{
CFilePropertiesPage::OnInitDialog();
CLibraryListPtr pFiles( GetList() );
if ( ! pFiles ) return TRUE;
if ( pFiles->GetCount() == 1 )
{
CQuickLock oLock( Library.m_pSection );
CLibraryFile* pFile = GetFile();
if ( pFile == NULL ) return TRUE;
m_nRating = pFile->m_nRating;
m_sComments = pFile->m_sComments;
}
else
{
m_wndComments.EnableWindow( FALSE );
CQuickLock oLock( Library.m_pSection );
for ( POSITION pos = pFiles->GetHeadPosition(); pos; )
{
if ( CLibraryFile* pFile = pFiles->GetNextFile( pos ) )
m_nRating = pFile->m_nRating;
}
}
UpdateData( FALSE );
return TRUE;
}
bool CLocalSearch::ExecuteSharedFiles(INT_PTR nMaximum, INT_PTR& nHits)
{
CSingleLock oLock( &Library.m_pSection );
if ( ! oLock.Lock( 250 ) )
return false;
auto_ptr< CFileList > pFiles( Library.Search(
m_pSearch, nMaximum, FALSE,
// Ghost files only for G2
m_nProtocol != PROTOCOL_G2 ) );
if ( pFiles.get() )
{
CFileList oFilesInPacket;
for ( POSITION pos = pFiles->GetHeadPosition() ;
pos && ( ! nMaximum || ( nHits + oFilesInPacket.GetCount() < nMaximum ) ); )
{
CLibraryFile* pFile = pFiles->GetNext( pos );
if ( IsValidForHit( pFile ) )
{
oFilesInPacket.AddTail( pFile );
}
}
SendHits( oFilesInPacket );
nHits += oFilesInPacket.GetCount();
}
// Is it a browser request?
if ( ! m_pSearch && m_nProtocol == PROTOCOL_G2 )
{
// Send virtual tree
DispatchPacket( AlbumToPacket( Library.GetAlbumRoot() ) );
// Send physical tree
DispatchPacket( FoldersToPacket() );
}
return true;
}
void CLibraryFrame::UpdatePanel(BOOL bForce)
{
CQuickLock oLock( Library.m_pSection );
if ( ! bForce && ! m_bViewSelection )
return;
m_bViewSelection = FALSE;
m_pViewSelection = HasView() ? m_pView->GetSelection() : m_pViewEmpty;
if ( m_bPanelShow )
{
CLibraryTreeItem* pFolders = m_wndTree.GetFirstSelected();
CLibraryListPtr pFiles( GetViewSelection() );
BOOL bMetaPanelAvailable = ( pFolders != NULL );
BOOL bHistoryPanelAvailable = ( LibraryHistory.GetCount() > 0 );
// Do not display any panel for the collection folder
if ( pFolders && pFolders->m_pVirtual && pFolders->m_pVirtual->m_oCollSHA1 )
bMetaPanelAvailable = bHistoryPanelAvailable = FALSE;
// Prefer history panel if no files selected for meta panel
if ( bMetaPanelAvailable && bHistoryPanelAvailable && pFiles && pFiles->GetCount() <= 0 )
bMetaPanelAvailable = FALSE;
CPanelCtrl* pBestPanel = bMetaPanelAvailable ?
static_cast< CPanelCtrl* >( &m_pMetaPanel ) : ( bHistoryPanelAvailable ?
static_cast< CPanelCtrl* >( &m_pHistoryPanel ) : NULL );
if ( ! HasPanel() || m_pPanel != pBestPanel )
SetPanel( pBestPanel );
else
SetPanel( m_pPanel );
}
}
// Given path to folder of compressed bit files, go over all the files and put them in a a map
// data structure as described above.
void PopulateMaps(boost::filesystem::path libPath, TiletypeElementMap &outTileMap,
std::vector<ElementConfigMap> &outElemMapVector, std::vector<ConfigBitMap> &outConfigMapVector) {
// Go over all the files in the directory
boost::filesystem::directory_iterator eFiles;
boost::filesystem::directory_iterator pFiles(libPath);
while(pFiles != eFiles) {
// If it is a compressed bit file (.cbit extension)
if(pFiles->path().extension() == ".cbit") {
std::ifstream libBitFile(pFiles->path().string().c_str(), std::ios::binary);
if(!libBitFile.good()) {
std::cerr << "ERROR: Could not open micro-bitstream file " << pFiles->path().string() << std::endl;
return;
}
// Get number of bits set and put the bit addresses in a vector
int32_t numSetBits, bitAddr;
libBitFile.read((char *) &numSetBits, 4);
std::cout << pFiles->path().filename() << " opened. Bit count " << numSetBits << std::endl;
std::vector<uint32_t> bitAddresses;
for(int i = 0; i < numSetBits && !libBitFile.eof(); i++) {
libBitFile.read((char *) &bitAddr, 4);
bitAddresses.push_back(bitAddr);
}
// Get the file name without extension and split the name to get tile name, element/source wire and config/sink wire.
boost::filesystem::path filePath(pFiles->path());
std::string fileName(filePath.replace_extension().filename());
std::vector<std::string> splitVector;
boost::algorithm::split(splitVector, fileName, boost::algorithm::is_any_of(kNameSeparator));
for(std::vector<std::string>::const_iterator splitIter = splitVector.begin(); splitIter
!= splitVector.end(); splitIter++) {
std::cout << " " << *splitIter << std::endl;
}
// Get the tile type, element(source wire) and config (sink wire)from the split string
std::string tileType(splitVector[1]);
std::string element(splitVector[2]);
std::string config(splitVector[3]);
// if tile not found in map, a new tile type has come up. Add it to the map.
// Create another map for Element-config and push it in vector so that it is not destroyed.
if(outTileMap.find(tileType) == outTileMap.end()) {
ElementConfigMap elementConfigMap;
outElemMapVector.push_back(elementConfigMap);
outTileMap[tileType] = outElemMapVector.back();
}
// if the element in the tile doesn't exist
if(outTileMap[tileType].find(element) == outTileMap[tileType].end()) {
ConfigBitMap configBitmap;
outConfigMapVector.push_back(configBitmap);
outTileMap[tileType][element] = outConfigMapVector.back();
}
// Mapping the config to bit addresses
outTileMap[tileType][element][config] = bitAddresses;
}
pFiles++;
}
}
