XMPIterator::XMPIterator ( XMP_StringPtr /*schemaNS*/,
XMP_StringPtr /*propName*/,
XMP_OptionBits options ) : clientRefs(0), info(IterInfo(options,0))
{
XMP_Throw ( "Unimplemented XMPIterator constructor for global tables", kXMPErr_Unimplemented );
} // XMPIterator for global tables
void ExpatAdapter::ParseBuffer ( const void * buffer, size_t length, bool last /* = true */ )
{
enum XML_Status status;
if ( length == 0 ) { // Expat does not like empty buffers.
if ( ! last ) return;
buffer = kOneSpace;
length = 1;
}
status = XML_Parse ( this->parser, (const char *)buffer, length, last );
#if BanAllEntityUsage
if ( this->isAborted ) XMP_Throw ( "DOCTYPE is not allowed", kXMPErr_BadXML );
#endif
if ( status != XML_STATUS_OK ) {
XMP_StringPtr errMsg = "XML parsing failure";
#if 0 // XMP_DebugBuild // Disable for now to make test output uniform. Restore later with thread safety.
// *** This is a good candidate for a callback error notification mechanism.
// *** This code is not thread safe, the sExpatMessage isn't locked. But that's OK for debug usage.
enum XML_Error expatErr = XML_GetErrorCode ( this->parser );
const char * expatMsg = XML_ErrorString ( expatErr );
int errLine = XML_GetCurrentLineNumber ( this->parser );
char msgBuffer[1000];
// AUDIT: Use of sizeof(msgBuffer) for snprintf length is safe.
snprintf ( msgBuffer, sizeof(msgBuffer), "# Expat error %d at line %d, \"%s\"", expatErr, errLine, expatMsg );
sExpatMessage = msgBuffer;
errMsg = sExpatMessage.c_str();
#if DumpXMLParseEvents
if ( this->parseLog != 0 ) fprintf ( this->parseLog, "%s\n", errMsg, expatErr, errLine, expatMsg );
#endif
#endif
XMP_Throw ( errMsg, kXMPErr_BadXML );
}
} // ExpatAdapter::ParseBuffer
XMPIterator::XMPIterator ( XMP_StringPtr schemaNS,
XMP_StringPtr propName,
XMP_OptionBits options ) : clientRefs(0), info(IterInfo(options,0))
{
XMP_Throw ( "Unimplemented XMPIterator constructor for global tables", kXMPErr_Unimplemented );
void * p; p = &schemaNS; p = &propName; p = &options; // Avoid unused param warnings.
} // XMPIterator for global tables
void XMP_WinXP_HGQueue::Wait ( XMP_BasicMutex & queueMutex )
{
++this->waitCount; // ! Does not need atomic increment, protected by queue mutex.
ReleaseBasicMutex ( queueMutex );
DWORD status = WaitForSingleObject ( this->queueEvent, INFINITE );
if ( status != WAIT_OBJECT_0 ) XMP_Throw ( "Failure from WaitForSingleObject", kXMPErr_ExternalFailure );
AcquireBasicMutex ( queueMutex );
--this->waitCount; // ! Does not need atomic decrement, protected by queue mutex.
if ( this->releaseAll ) {
if ( this->waitCount == 0 ) {
this->releaseAll = false;
} else {
BOOL ok = SetEvent ( this->queueEvent );
if ( ! ok ) XMP_Throw ( "Failure from SetEvent", kXMPErr_ExternalFailure );
}
}
}
void PluginBase::FillAssociatedResources( std::vector<std::string> * resourceList )
{
XMP_OptionBits flags = this->mHandlerFlags;
if ( (flags & kXMPFiles_HandlerOwnsFile) ||
(flags & kXMPFiles_UsesSidecarXMP) ||
(flags & kXMPFiles_FolderBasedFormat) ) {
XMP_Throw ( "GetAssociatedResources is not implemented for this file format", kXMPErr_PluginFillAssociatedResources );
}
resourceList->push_back ( this->getPath() );
}
void GIF_MetaHandler::SeekFile( XMP_IO * fileRef, XMP_Int64 offset, SeekMode mode )
{
if ( offset > fileRef->Length() || ( mode == kXMP_SeekFromCurrent && fileRef->Offset() + offset > fileRef->Length() ) )
{
XMP_Throw( "Out of range seek operation", kXMPErr_InternalFailure );
}
else
fileRef->Seek( offset, mode );
} // GIF_MetaHandler::SeekFile
void PluginBase::FillMetadataFiles( std::vector<std::string> * metadataFiles )
{
XMP_OptionBits flags = this->mHandlerFlags;
if ( (flags & kXMPFiles_UsesSidecarXMP) ||
(flags & kXMPFiles_FolderBasedFormat) ) {
XMP_Throw ( "Base implementation of FillMetadataFiles only for embedding handlers", kXMPErr_PluginFillMetadataFiles );
}
metadataFiles->push_back ( this->getPath() );
}
static XMP_Node *
AddQualifierNode ( XMP_Node * xmpParent, const XML_Node & attr )
{
if ( attr.ns.empty() ) {
XMP_Throw ( "XML namespace required for all elements and attributes", kXMPErr_BadRDF );
}
return AddQualifierNode ( xmpParent, attr.name, attr.value );
} // AddQualifierNode
void XMP_NamespaceTable::Dump ( XMP_TextOutputProc outProc, void * refCon ) const
{
XMP_AutoLock tableLock ( &this->lock, kXMP_ReadLock );
XMP_cStringMapPos p2uEnd = this->prefixToURIMap.end(); // ! Move up to avoid gcc complaints.
XMP_cStringMapPos u2pEnd = this->uriToPrefixMap.end();
DumpStringMap ( this->prefixToURIMap, "Dumping namespace prefix to URI map", outProc, refCon );
if ( this->prefixToURIMap.size() != this->uriToPrefixMap.size() ) {
OutProcLiteral ( "** bad namespace map sizes **" );
XMP_Throw ( "Fatal namespace map problem", kXMPErr_InternalFailure );
}
for ( XMP_cStringMapPos nsLeft = this->prefixToURIMap.begin(); nsLeft != p2uEnd; ++nsLeft ) {
XMP_cStringMapPos nsOther = this->uriToPrefixMap.find ( nsLeft->second );
if ( (nsOther == u2pEnd) || (nsLeft != this->prefixToURIMap.find ( nsOther->second )) ) {
OutProcLiteral ( " ** bad namespace URI ** " );
DumpClearString ( nsLeft->second, outProc, refCon );
break;
}
for ( XMP_cStringMapPos nsRight = nsLeft; nsRight != p2uEnd; ++nsRight ) {
if ( nsRight == nsLeft ) continue; // ! Can't start at nsLeft+1, no operator+!
if ( nsLeft->second == nsRight->second ) {
OutProcLiteral ( " ** duplicate namespace URI ** " );
DumpClearString ( nsLeft->second, outProc, refCon );
break;
}
}
}
for ( XMP_cStringMapPos nsLeft = this->uriToPrefixMap.begin(); nsLeft != u2pEnd; ++nsLeft ) {
XMP_cStringMapPos nsOther = this->prefixToURIMap.find ( nsLeft->second );
if ( (nsOther == p2uEnd) || (nsLeft != this->uriToPrefixMap.find ( nsOther->second )) ) {
OutProcLiteral ( " ** bad namespace prefix ** " );
DumpClearString ( nsLeft->second, outProc, refCon );
break;
}
for ( XMP_cStringMapPos nsRight = nsLeft; nsRight != u2pEnd; ++nsRight ) {
if ( nsRight == nsLeft ) continue; // ! Can't start at nsLeft+1, no operator+!
if ( nsLeft->second == nsRight->second ) {
OutProcLiteral ( " ** duplicate namespace prefix ** " );
DumpClearString ( nsLeft->second, outProc, refCon );
break;
}
}
}
} // XMP_NamespaceTable::Dump
void MetadataSet::removeAt( XMP_Uns32 pos )
{
if( mMeta != NULL && pos < mMeta->size() )
{
mMeta->erase( mMeta->begin() + pos );
}
else
{
XMP_Throw( "Index out of range.", kXMPErr_BadIndex );
}
}
bool ASF_MetaHandler::SafeWriteFile()
{
XMP_IO* originalFile = this->parent->ioRef;
XMP_IO* tempFile = originalFile->DeriveTemp();
if ( tempFile == 0 ) XMP_Throw ( "Failure creating ASF temp file", kXMPErr_InternalFailure );
this->WriteTempFile ( tempFile );
originalFile->AbsorbTemp();
return true;
} // ASF_MetaHandler::SafeWriteFile
static void StartElementHandler ( void * userData, XMP_StringPtr name, XMP_StringPtr* attrs )
{
XMP_Assert ( attrs != 0 );
ExpatAdapter * thiz = (ExpatAdapter*)userData;
size_t attrCount = 0;
for ( XMP_StringPtr* a = attrs; *a != 0; ++a ) ++attrCount;
if ( (attrCount & 1) != 0 ) XMP_Throw ( "Expat attribute info has odd length", kXMPErr_ExternalFailure );
attrCount = attrCount/2; // They are name/value pairs.
#if XMP_DebugBuild & DumpXMLParseEvents
if ( thiz->parseLog != 0 ) {
PrintIndent ( thiz->parseLog, thiz->elemNesting );
fprintf ( thiz->parseLog, "StartElement: %s, %d attrs", name, attrCount );
for ( XMP_StringPtr* attr = attrs; *attr != 0; attr += 2 ) {
XMP_StringPtr attrName = *attr;
XMP_StringPtr attrValue = *(attr+1);
fprintf ( thiz->parseLog, ", %s = \"%s\"", attrName, attrValue );
}
fprintf ( thiz->parseLog, "\n" );
}
#endif
XML_Node * parentNode = thiz->parseStack.back();
XML_Node * elemNode = new XML_Node ( parentNode, "", kElemNode );
SetQualName ( name, elemNode );
for ( XMP_StringPtr* attr = attrs; *attr != 0; attr += 2 ) {
XMP_StringPtr attrName = *attr;
XMP_StringPtr attrValue = *(attr+1);
XML_Node * attrNode = new XML_Node ( elemNode, "", kAttrNode );
SetQualName ( attrName, attrNode );
attrNode->value = attrValue;
if ( attrNode->name == "xml:lang" ) NormalizeLangValue ( &attrNode->value );
elemNode->attrs.push_back ( attrNode );
}
parentNode->content.push_back ( elemNode );
thiz->parseStack.push_back ( elemNode );
if ( elemNode->name == "rdf:RDF" ) {
thiz->rootNode = elemNode;
++thiz->rootCount;
}
#if XMP_DebugBuild
++thiz->elemNesting;
#endif
} // StartElementHandler
static void SetQualName ( XMP_StringPtr fullName, XML_Node * node )
{
// Expat delivers the full name as a catenation of namespace URI, separator, and local name.
// As a compatibility hack, an "about" or "ID" attribute of an rdf:Description element is
// changed to "rdf:about" or rdf:ID. Easier done here than in the RDF recognizer.
// As a bug fix hack, change a URI of "http://purl.org/dc/1.1/" to ""http://purl.org/dc/elements/1.1/.
// Early versions of Flash that put XMP in SWF used a bad URI for the dc: namespace.
// ! This code presumes the RDF namespace prefix is "rdf".
size_t sepPos = strlen(fullName);
for ( --sepPos; sepPos > 0; --sepPos ) {
if ( fullName[sepPos] == FullNameSeparator ) break;
}
if ( fullName[sepPos] == FullNameSeparator ) {
XMP_StringPtr prefix;
XMP_StringLen prefixLen;
XMP_StringPtr localPart = fullName + sepPos + 1;
node->ns.assign ( fullName, sepPos );
if ( node->ns == "http://purl.org/dc/1.1/" ) node->ns = "http://purl.org/dc/elements/1.1/";
bool found = XMPMeta::GetNamespacePrefix ( node->ns.c_str(), &prefix, &prefixLen );
if ( ! found ) XMP_Throw ( "Unknown URI in Expat full name", kXMPErr_ExternalFailure );
node->nsPrefixLen = prefixLen; // ! Includes the ':'.
node->name = prefix;
node->name += localPart;
} else {
node->name = fullName; // The name is not in a namespace.
if ( node->parent->name == "rdf:Description" ) {
if ( node->name == "about" ) {
node->ns = kXMP_NS_RDF;
node->name = "rdf:about";
node->nsPrefixLen = 4; // ! Include the ':'.
} else if ( node->name == "ID" ) {
node->ns = kXMP_NS_RDF;
node->name = "rdf:ID";
node->nsPrefixLen = 4; // ! Include the ':'.
}
}
}
} // SetQualName
static void
RDF_LiteralPropertyElement ( XMP_Node * xmpParent, const XML_Node & xmlNode, bool isTopLevel )
{
XMP_Node * newChild = AddChildNode ( xmpParent, xmlNode, "", isTopLevel );
XML_cNodePos currAttr = xmlNode.attrs.begin();
XML_cNodePos endAttr = xmlNode.attrs.end();
for ( ; currAttr != endAttr; ++currAttr ) {
XMP_VarString & attrName = (*currAttr)->name;
if ( attrName == "xml:lang" ) {
AddQualifierNode ( newChild, **currAttr );
} else if ( (attrName == "rdf:ID") || (attrName == "rdf:datatype") ) {
continue; // Ignore all rdf:ID and rdf:datatype attributes.
} else {
XMP_Throw ( "Invalid attribute for literal property element", kXMPErr_BadRDF );
}
}
XML_cNodePos currChild = xmlNode.content.begin();
XML_cNodePos endChild = xmlNode.content.end();
size_t textSize = 0;
for ( ; currChild != endChild; ++currChild ) {
if ( (*currChild)->kind != kCDataNode ) XMP_Throw ( "Invalid child of literal property element", kXMPErr_BadRDF );
textSize += (*currChild)->value.size();
}
newChild->value.reserve ( textSize );
for ( currChild = xmlNode.content.begin(); currChild != endChild; ++currChild ) {
newChild->value += (*currChild)->value;
}
#if 0 // *** XMP_DebugBuild
newChild->_valuePtr = newChild->value.c_str();
#endif
} // RDF_LiteralPropertyElement
PluginAPIRef Module::getPluginAPIs()
{
//
// return ref. to Plugin API, load module if not yet loaded
//
if ( !mPluginAPIs || mLoaded != kModuleLoaded )
{
if ( !load() )
{
XMP_Throw ( "Plugin API not available.", kXMPErr_Unavailable );
}
}
return mPluginAPIs;
}
static void ExportIPTC_Date ( XMP_Uns8 dateID, const SXMPMeta & xmp, IPTC_Manager * iptc )
{
XMP_Uns8 timeID;
XMP_StringPtr xmpNS, xmpProp;
if ( dateID == kIPTC_DateCreated ) {
timeID = kIPTC_TimeCreated;
xmpNS = kXMP_NS_Photoshop;
xmpProp = "DateCreated";
} else if ( dateID == kIPTC_DigitalCreateDate ) {
timeID = kIPTC_DigitalCreateTime;
xmpNS = kXMP_NS_XMP;
xmpProp = "CreateDate";
} else {
XMP_Throw ( "Unrecognized dateID", kXMPErr_BadParam );
}
iptc->DeleteDataSet ( dateID ); // ! Either the XMP does not exist and we want to
iptc->DeleteDataSet ( timeID ); // ! delete the IPTC, or we're replacing the IPTC.
XMP_DateTime xmpValue;
bool found = xmp.GetProperty_Date ( xmpNS, xmpProp, &xmpValue, 0 );
if ( ! found ) return;
char iimValue[16]; // AUDIT: Big enough for "YYYYMMDD" (8) and "HHMMSS+HHMM" (11).
// Set the IIM date portion as YYYYMMDD with zeroes for unknown parts.
snprintf ( iimValue, sizeof(iimValue), "%04d%02d%02d", // AUDIT: Use of sizeof(iimValue) is safe.
xmpValue.year, xmpValue.month, xmpValue.day );
iptc->SetDataSet_UTF8 ( dateID, iimValue, 8 );
// Set the IIM time portion as HHMMSS+HHMM (or -HHMM). Allow a missing time zone.
if ( xmpValue.hasTimeZone ) {
snprintf ( iimValue, sizeof(iimValue), "%02d%02d%02d%c%02d%02d", // AUDIT: Use of sizeof(iimValue) is safe.
xmpValue.hour, xmpValue.minute, xmpValue.second,
((xmpValue.tzSign == kXMP_TimeWestOfUTC) ? '-' : '+'), xmpValue.tzHour, xmpValue.tzMinute );
iptc->SetDataSet_UTF8 ( timeID, iimValue, 11 );
} else if ( xmpValue.hasTime ) {
snprintf ( iimValue, sizeof(iimValue), "%02d%02d%02d", // AUDIT: Use of sizeof(iimValue) is safe.
xmpValue.hour, xmpValue.minute, xmpValue.second );
iptc->SetDataSet_UTF8 ( timeID, iimValue, 6 );
} else {
iptc->DeleteDataSet ( timeID );
}
} // ExportIPTC_Date
static void
RDF_PropertyElementList ( XMP_Node * xmpParent, const XML_Node & xmlParent, bool isTopLevel )
{
XML_cNodePos currChild = xmlParent.content.begin();
XML_cNodePos endChild = xmlParent.content.end();
for ( ; currChild != endChild; ++currChild ) {
if ( (*currChild)->IsWhitespaceNode() ) continue;
if ( (*currChild)->kind != kElemNode ) {
XMP_Throw ( "Expected property element node not found", kXMPErr_BadRDF );
}
RDF_PropertyElement ( xmpParent, **currChild, isTopLevel );
}
} // RDF_PropertyElementList
IMetadata* MetadataSet::getAt( XMP_Uns32 pos ) const
{
IMetadata* ret = NULL;
if( mMeta != NULL && pos < mMeta->size() )
{
ret = mMeta->at(pos);
}
else
{
XMP_Throw( "Index out of range.", kXMPErr_BadIndex );
}
return ret;
}
void PluginBase::FillAssociatedResources( StringVectorRef resourceList, SetStringVectorProc SetStringVector )
{
if ( resourceList == 0 )
XMP_Throw ( "A result file list vector must be provided", kXMPErr_BadParam );
std::vector<std::string> resList; // Pass a local vector, not the client's.
(*SetStringVector)( resourceList, 0, 0 ); // Clear the client's result vector.
FillAssociatedResources( &resList );
if ( ! resList.empty() ) {
const size_t fileCount = resList.size();
std::vector<XMP_StringPtr> ptrArray;
ptrArray.reserve ( fileCount );
for ( size_t i = 0; i < fileCount; ++i ) {
ptrArray.push_back ( resList[i].c_str() );
}
(*SetStringVector) ( resourceList, ptrArray.data(), (XMP_Uns32)fileCount );
}
}
void XMP_ProgressTracker::NotifyClient ( bool isStartStop )
{
XMP_Bool ok = !kXMP_Bool_False;
float fractionDone = 0.0;
if ( this->cbInfo.clientProc == 0 ) return;
XMP_Assert ( this->cbInfo.wrapperProc != 0 );
XMP_Assert ( (this->totalWork >= 0.0) && (this->workDone >= 0.0) && (this->cbInfo.interval >= 0.0) );
// ! Note that totalWork might be unknown or understimated, and workDone greater than totalWork.
if ( isStartStop ) {
float totalTime = 0.0;
if ( this->workDone > 0.0 ) {
fractionDone = 1.0; // This is the stop call.
totalTime = PerfUtils::GetElapsedSeconds ( this->startTime, PerfUtils::NoteThisMoment() );
}
ok = (*this->cbInfo.wrapperProc ) ( this->cbInfo.clientProc, this->cbInfo.context,
totalTime, fractionDone, 0.0 );
} else {
PerfUtils::MomentValue currentTime = PerfUtils::NoteThisMoment();
float elapsedTime = PerfUtils::GetElapsedSeconds ( this->prevTime, currentTime );
if ( elapsedTime < this->cbInfo.interval ) return;
float remainingTime = 0.0;
if ( (this->totalWork > 0.0) && (this->workDone > 0.0) ) {
fractionDone = this->workDone / this->totalWork;
if ( fractionDone > 1.0 ) fractionDone = 1.0;
elapsedTime = PerfUtils::GetElapsedSeconds ( this->startTime, currentTime );
remainingTime = (elapsedTime / fractionDone) * (1.0 - fractionDone);
}
this->prevTime = currentTime;
ok = (*this->cbInfo.wrapperProc ) ( this->cbInfo.clientProc, this->cbInfo.context,
elapsedTime, fractionDone, remainingTime );
}
if ( ok == kXMP_Bool_False ) XMP_Throw ( "Abort signaled by progress reporting callback", kXMPErr_ProgressAbort );
} // XMP_ProgressTracker::NotifyClient
bool PluginBase::IsMetadataWritable ( )
{
XMP_OptionBits flags = this->getHandlerFlags();
const std::string & filePath = this->getPath();
if ( (flags & kXMPFiles_HandlerOwnsFile) ||
(flags & kXMPFiles_UsesSidecarXMP) ||
(flags & kXMPFiles_FolderBasedFormat) ||
filePath.empty() )
{
XMP_Throw ( "IsMetadataWritable is not implemented for this file format", kXMPErr_PluginIsMetadataWritable );
}
try {
return Host_IO::Writable( this->getPath().c_str() );
} catch ( ... ) {
}
return false;
}
// parsing creation
Chunk::Chunk( ContainerChunk* parent_, RIFF_MetaHandler* handler, bool skip, ChunkType c )
{
chunkType = c; // base class assumption
this->parent = parent_;
this->oldSize = 0;
this->hasChange = false; // [2414649] valid assumption at creation time
XMP_IO* file = handler->parent->ioRef;
this->oldPos = file->Offset();
this->id = XIO::ReadUns32_LE( file );
this->oldSize = XIO::ReadUns32_LE( file );
this->oldSize += 8;
// Make sure the size is within expected bounds.
XMP_Int64 chunkEnd = this->oldPos + this->oldSize;
XMP_Int64 chunkLimit = handler->oldFileSize;
if ( parent_ != 0 ) chunkLimit = parent_->oldPos + parent_->oldSize;
if ( chunkEnd > chunkLimit ) {
bool isUpdate = XMP_OptionIsSet ( handler->parent->openFlags, kXMPFiles_OpenForUpdate );
bool repairFile = XMP_OptionIsSet ( handler->parent->openFlags, kXMPFiles_OpenRepairFile );
if ( (! isUpdate) || (repairFile && (parent_ == 0)) ) {
this->oldSize = chunkLimit - this->oldPos;
} else {
XMP_Throw ( "Bad RIFF chunk size", kXMPErr_BadFileFormat );
}
}
this->newSize = this->oldSize;
this->needSizeFix = false;
if ( skip ) file->Seek ( (this->oldSize - 8), kXMP_SeekFromCurrent );
// "good parenting", essential for latter destruction.
if ( this->parent != NULL )
{
this->parent->children.push_back( this );
if( this->chunkType == chunk_VALUE )
this->parent->childmap.insert( std::make_pair( this->id, (ValueChunk*) this ) );
}
}
const TIFF_MemoryReader::TweakedIFDEntry* TIFF_MemoryReader::FindTagInIFD ( XMP_Uns8 ifd, XMP_Uns16 id ) const
{
if ( ifd == kTIFF_KnownIFD ) {
// ... lookup the tag in the known tag map
}
if ( ifd > kTIFF_LastRealIFD ) XMP_Throw ( "Invalid IFD requested", kXMPErr_InternalFailure );
const TweakedIFDInfo* thisIFD = &containedIFDs[ifd];
if ( thisIFD->count == 0 ) return 0;
XMP_Uns32 spanLength = thisIFD->count;
const TweakedIFDEntry* spanBegin = &(thisIFD->entries[0]);
while ( spanLength > 1 ) {
XMP_Uns32 halfLength = spanLength >> 1; // Since spanLength > 1, halfLength > 0.
const TweakedIFDEntry* spanMiddle = spanBegin + halfLength;
// There are halfLength entries below spanMiddle, then the spanMiddle entry, then
// spanLength-halfLength-1 entries above spanMiddle (which can be none).
XMP_Uns16 middleID = GetUns16AsIs ( &spanMiddle->id );
if ( middleID == id ) {
spanBegin = spanMiddle;
break;
} else if ( middleID > id ) {
spanLength = halfLength; // Discard the middle.
} else {
spanBegin = spanMiddle; // Keep a valid spanBegin for the return check, don't use spanMiddle+1.
spanLength -= halfLength;
}
}
if ( GetUns16AsIs(&spanBegin->id) != id ) spanBegin = 0;
return spanBegin;
} // TIFF_MemoryReader::FindTagInIFD
XMP_Uns32 XMPFiles_IO::Read ( void * buffer, XMP_Uns32 count, bool readAll /* = false */ )
{
XMP_FILESIO_START
XMP_Assert ( this->fileRef != Host_IO::noFileRef );
XMP_Assert ( this->currOffset == Host_IO::Offset ( this->fileRef ) );
XMP_Assert ( this->currLength == Host_IO::Length ( this->fileRef ) );
XMP_Assert ( this->currOffset <= this->currLength );
if ( count > (this->currLength - this->currOffset) ) {
if ( readAll ) XMP_Throw ( "XMPFiles_IO::Read, not enough data", kXMPErr_EnforceFailure );
count = (XMP_Uns32) (this->currLength - this->currOffset);
}
XMP_Uns32 amountRead = Host_IO::Read ( this->fileRef, buffer, count );
XMP_Enforce ( amountRead == count );
this->currOffset += amountRead;
return amountRead;
XMP_FILESIO_END1 ( kXMPErrSev_FileFatal )
return 0;
} // XMPFiles_IO::Read
void XMPFiles_IO::Truncate ( XMP_Int64 length )
{
XMP_FILESIO_START
XMP_Assert ( this->fileRef != Host_IO::noFileRef );
XMP_Assert ( this->currOffset == Host_IO::Offset ( this->fileRef ) );
XMP_Assert ( this->currLength == Host_IO::Length ( this->fileRef ) );
if ( this->readOnly )
XMP_Throw ( "New_XMPFiles_IO, truncate not permitted on read only file", kXMPErr_FilePermission );
XMP_Enforce ( length <= this->currLength );
Host_IO::SetEOF ( this->fileRef, length );
this->currLength = length;
if ( this->currOffset > this->currLength ) this->currOffset = this->currLength;
// ! Seek to the expected offset, some versions of Host_IO::SetEOF implicitly seek to EOF.
Host_IO::Seek ( this->fileRef, this->currOffset, kXMP_SeekFromStart );
XMP_Assert ( this->currOffset == Host_IO::Offset ( this->fileRef ) );
XMP_FILESIO_END1 ( kXMPErrSev_FileFatal )
} // XMPFiles_IO::Truncate
void XMPFiles_IO::AbsorbTemp()
{
XMP_FILESIO_START
XMP_Assert ( this->fileRef != Host_IO::noFileRef );
XMPFiles_IO * temp = this->derivedTemp;
if ( temp == 0 ) {
XMP_Throw ( "XMPFiles_IO::AbsorbTemp, no temp to absorb", kXMPErr_InternalFailure );
}
XMP_Assert ( temp->isTemp );
this->Close();
temp->Close();
Host_IO::SwapData ( this->filePath.c_str(), temp->filePath.c_str() );
this->DeleteTemp();
this->fileRef = Host_IO::Open ( this->filePath.c_str(), Host_IO::openReadWrite );
this->currLength = Host_IO::Length ( this->fileRef );
this->currOffset = 0;
XMP_FILESIO_END1 ( kXMPErrSev_FileFatal )
} // XMPFiles_IO::AbsorbTemp
void MOOV_Manager::ParseMemoryTree ( XMP_Uns8 fileMode1 )
{
this->fileMode = fileMode1;
this->moovNode.offset = this->moovNode.boxType = 0;
this->moovNode.headerSize = this->moovNode.contentSize = 0;
this->moovNode.children.clear();
this->moovNode.changedContent.clear();
this->moovNode.changed = false;
if ( this->fullSubtree.empty() ) return;
ISOMedia::BoxInfo moovInfo;
const XMP_Uns8 * moovOrigin = &this->fullSubtree[0];
const XMP_Uns8 * moovLimit = moovOrigin + this->fullSubtree.size();
(void) ISOMedia::GetBoxInfo ( moovOrigin, moovLimit, &moovInfo );
XMP_Enforce ( moovInfo.boxType == ISOMedia::k_moov );
XMP_Uns64 fullMoovSize = moovInfo.headerSize + moovInfo.contentSize;
if ( fullMoovSize > moovBoxSizeLimit ) { // From here on we know 32-bit offsets are safe.
XMP_Throw ( "Oversize 'moov' box", kXMPErr_EnforceFailure );
}
this->moovNode.boxType = ISOMedia::k_moov;
this->moovNode.headerSize = moovInfo.headerSize;
this->moovNode.contentSize = (XMP_Uns32)moovInfo.contentSize;
bool ignoreMetaBoxes = (fileMode1 == kFileIsTraditionalQT); // ! Don't want, these don't follow ISO spec.
#if TraceParseMoovTree
fprintf ( stderr, "Parsing 'moov' subtree, moovNode @ 0x%X, ignoreMetaBoxes = %d\n",
&this->moovNode, ignoreMetaBoxes );
#endif
this->ParseNestedBoxes ( &this->moovNode, "moov", ignoreMetaBoxes );
} // MOOV_Manager::ParseMemoryTree
void PluginBase::FillMetadataFiles( StringVectorRef metadataFiles, SetStringVectorProc SetStringVector )
{
if ( metadataFiles == 0 )
XMP_Throw ( "A result file list vector must be provided", kXMPErr_BadParam );
std::vector<std::string> fileList; // Pass a local vector, not the client's.
(*SetStringVector)( metadataFiles, 0, 0 ); // Clear the client's result vector.
FillMetadataFiles( &fileList );
// since we are dealing with STL ojbects across different DLL boundaries,
// we are extracting const char* to actual path strings, constructing a vector
// using these pointers and then passing the address of the underlying data
// to the clients procedure which will repopulate its own vector of strings
// using this information.
if ( ! fileList.empty() ) {
const size_t fileCount = fileList.size();
std::vector<XMP_StringPtr> ptrArray;
ptrArray.reserve ( fileCount );
for ( size_t i = 0; i < fileCount; ++i ) {
ptrArray.push_back ( fileList[i].c_str() );
}
(*SetStringVector) ( metadataFiles, ptrArray.data(), (XMP_Uns32)fileCount );
}
}
XMPIterator::XMPIterator ( const XMPMeta & xmpObj,
XMP_StringPtr schemaNS,
XMP_StringPtr propName,
XMP_OptionBits options ) : clientRefs(0), info(IterInfo(options,&xmpObj))
{
if ( (options & kXMP_IterClassMask) != kXMP_IterProperties ) {
XMP_Throw ( "Unsupported iteration kind", kXMPErr_BadOptions );
}
// *** Lock the XMPMeta object if we ever stop using a full DLL lock.
if ( *propName != 0 ) {
// An iterator rooted at a specific node.
#if TraceIterators
printf ( "\nNew XMP property iterator for \"%s\", options = %X\n Schema = %s, root = %s\n",
xmpObj.tree.name.c_str(), options, schemaNS, propName );
#endif
XMP_ExpandedXPath propPath;
ExpandXPath ( schemaNS, propName, &propPath );
XMP_Node * propNode = FindConstNode ( &xmpObj.tree, propPath ); // If not found get empty iteration.
if ( propNode != 0 ) {
XMP_VarString rootName ( propPath[1].step ); // The schema is [0].
for ( size_t i = 2; i < propPath.size(); ++i ) {
XMP_OptionBits stepKind = GetStepKind ( propPath[i].options );
if ( stepKind <= kXMP_QualifierStep ) rootName += '/';
rootName += propPath[i].step;
}
propName = rootName.c_str();
size_t leafOffset = rootName.size();
while ( (leafOffset > 0) && (propName[leafOffset] != '/') && (propName[leafOffset] != '[') ) --leafOffset;
if ( propName[leafOffset] == '/' ) ++leafOffset;
info.tree.children.push_back ( IterNode ( propNode->options, propName, leafOffset ) );
SetCurrSchema ( info, propPath[kSchemaStep].step.c_str() );
if ( info.options & kXMP_IterJustChildren ) {
AddNodeOffspring ( info, info.tree.children.back(), propNode );
}
}
} else if ( *schemaNS != 0 ) {
// An iterator for all properties in one schema.
#if TraceIterators
printf ( "\nNew XMP schema iterator for \"%s\", options = %X\n Schema = %s\n",
xmpObj.tree.name.c_str(), options, schemaNS );
#endif
info.tree.children.push_back ( IterNode ( kXMP_SchemaNode, schemaNS, 0 ) );
IterNode & iterSchema = info.tree.children.back();
XMP_Node * xmpSchema = FindConstSchema ( &xmpObj.tree, schemaNS );
if ( xmpSchema != 0 ) AddSchemaProps ( info, iterSchema, xmpSchema );
if ( info.options & kXMP_IterIncludeAliases ) AddSchemaAliases ( info, iterSchema, schemaNS );
if ( iterSchema.children.empty() ) {
info.tree.children.pop_back(); // No properties, remove the schema node.
} else {
SetCurrSchema ( info, schemaNS );
}
} else {
// An iterator for all properties in all schema. First add schema that exist (have children),
// adding aliases from them if appropriate. Then add schema that have no actual properties
// but do have aliases to existing properties, if we're including aliases in the iteration.
#if TraceIterators
printf ( "\nNew XMP tree iterator for \"%s\", options = %X\n",
xmpObj.tree.name.c_str(), options );
#endif
// First pick up the schema that exist.
for ( size_t schemaNum = 0, schemaLim = xmpObj.tree.children.size(); schemaNum != schemaLim; ++schemaNum ) {
const XMP_Node * xmpSchema = xmpObj.tree.children[schemaNum];
info.tree.children.push_back ( IterNode ( kXMP_SchemaNode, xmpSchema->name, 0 ) );
IterNode & iterSchema = info.tree.children.back();
if ( ! (info.options & kXMP_IterJustChildren) ) {
AddSchemaProps ( info, iterSchema, xmpSchema );
if ( info.options & kXMP_IterIncludeAliases ) AddSchemaAliases ( info, iterSchema, xmpSchema->name.c_str() );
if ( iterSchema.children.empty() ) info.tree.children.pop_back(); // No properties, remove the schema node.
}
}
if ( info.options & kXMP_IterIncludeAliases ) {
// Add the schema that only have aliases. The most convenient, and safest way, is to go
// through the registered namespaces, see if it exists, and let AddSchemaAliases do its
// thing if not. Don't combine with the above loop, it is nicer to have the "real" stuff
// be in storage order (not subject to the namespace map order).
// ! We don't do the kXMP_IterJustChildren handing in the same way here as above. The
// ! existing schema (presumably) have actual children. We need to call AddSchemaAliases
// ! here to determine if the namespace has any aliases to existing properties. We then
// ! strip the children if necessary.
XMP_cStringMapPos currNS = sNamespaceURIToPrefixMap->begin();
XMP_cStringMapPos endNS = sNamespaceURIToPrefixMap->end();
for ( ; currNS != endNS; ++currNS ) {
XMP_StringPtr schemaName = currNS->first.c_str();
if ( FindConstSchema ( &xmpObj.tree, schemaName ) != 0 ) continue;
info.tree.children.push_back ( IterNode ( kXMP_SchemaNode, schemaName, 0 ) );
IterNode & iterSchema = info.tree.children.back();
AddSchemaAliases ( info, iterSchema, schemaName );
if ( iterSchema.children.empty() ) {
info.tree.children.pop_back(); // No aliases, remove the schema node.
} else if ( info.options & kXMP_IterJustChildren ) {
iterSchema.children.clear(); // Get rid of the children.
}
}
}
}
// Set the current iteration position to the first node to be visited.
info.currPos = info.tree.children.begin();
info.endPos = info.tree.children.end();
if ( (info.options & kXMP_IterJustChildren) && (info.currPos != info.endPos) && (*schemaNS != 0) ) {
info.currPos->visitStage = kIter_VisitSelf;
}
#if TraceIterators
if ( info.currPos == info.endPos ) {
printf ( " ** Empty iteration **\n" );
} else {
printf ( " Initial node %s, stage = %s, iterator @ %.8X\n",
info.currPos->fullPath.c_str(), sStageNames[info.currPos->visitStage], this );
}
#endif
} // XMPIterator for XMPMeta objects
void XMP_WinXP_HGQueue::ReleaseAll()
{
this->releaseAll = true;
BOOL ok = SetEvent ( this->queueEvent );
if ( ! ok ) XMP_Throw ( "Failure from SetEvent", kXMPErr_ExternalFailure );
}