// ---------------------------------------------------------------------------
// SchemaInfo: Access methods
// ---------------------------------------------------------------------------
inline void SchemaInfo::addSchemaInfo(SchemaInfo* const toAdd,
const ListType aListType) {
if (aListType == IMPORT) {
if (!fImportedInfoList)
fImportedInfoList = new RefVectorOf<SchemaInfo>(4, false);
if (!fImportedInfoList->containsElement(toAdd)) {
fImportedInfoList->addElement(toAdd);
addImportedNS(toAdd->getTargetNSURI());
toAdd->updateImportingInfo(this);
}
}
else {
if (!fIncludeInfoList) {
fIncludeInfoList = new RefVectorOf<SchemaInfo>(8, false);
fAdoptInclude = true;
}
if (!fIncludeInfoList->containsElement(toAdd)) {
fIncludeInfoList->addElement(toAdd);
toAdd->fIncludeInfoList = fIncludeInfoList;
}
}
}
inline bool SchemaInfo::circularImportExist(const unsigned int namespaceURI) {
unsigned int importSize = fImportingInfoList->size();
for (unsigned int i=0; i < importSize; i++) {
if (fImportingInfoList->elementAt(i)->getTargetNSURI() == (int) namespaceURI) {
return true;
}
}
return false;
}
inline bool SchemaInfo::containsInfo(const SchemaInfo* const toCheck,
const ListType aListType) const {
if ((aListType == INCLUDE) && fIncludeInfoList) {
return fIncludeInfoList->containsElement(toCheck);
}
else if ((aListType == IMPORT) && fImportedInfoList) {
return fImportedInfoList->containsElement(toCheck);
}
return false;
}
inline SchemaInfo* SchemaInfo::getImportInfo(const unsigned int namespaceURI) const {
unsigned int importSize = (fImportedInfoList) ? fImportedInfoList->size() : 0;
SchemaInfo* currInfo = 0;
for (unsigned int i=0; i < importSize; i++) {
currInfo = fImportedInfoList->elementAt(i);
if (currInfo->getTargetNSURI() == (int) namespaceURI)
break;
}
return currInfo;
}
XMLCh* RegularExpression::replace(const XMLCh* const matchString,
const XMLCh* const replaceString,
const int start, const int end)
{
//check if matches zero length string - throw error if so
if (matches(XMLUni::fgZeroLenString, fMemoryManager)){
ThrowXMLwithMemMgr(RuntimeException, XMLExcepts::Regex_RepPatMatchesZeroString, fMemoryManager);
}
RefVectorOf<Match> *subEx = new (fMemoryManager) RefVectorOf<Match>(10, true, fMemoryManager);
Janitor<RefVectorOf<Match> > janSubEx(subEx);
//Call to tokenize with Match vector so that we keep track of the locations
//of the subExpression within each of the matches
RefArrayVectorOf<XMLCh>* tokenStack = tokenize(matchString, start, end, subEx);
Janitor<RefArrayVectorOf<XMLCh> > janTokStack(tokenStack);
XMLBuffer result(1023, fMemoryManager);
int numSubEx = 0;
if (subEx && subEx->size() > 0)
numSubEx = subEx->elementAt(0)->getNoGroups() - 1;
int tokStackSize = tokenStack->size();
const XMLCh* curRepString = XMLString::replicate(replaceString, fMemoryManager);
for (int i = 0; i < tokStackSize; i++){
result.append(tokenStack->elementAt(i));
if (i != tokStackSize - 1) {
//if there are subExpressions, then determine the string we want to
//substitute in.
if (numSubEx != 0) {
fMemoryManager->deallocate((XMLCh*)curRepString);
curRepString = subInExp(replaceString, matchString, subEx->elementAt(i));
}
result.append(curRepString);
}
}
fMemoryManager->deallocate((XMLCh*)curRepString);
return XMLString::replicate(result.getRawBuffer(), fMemoryManager);
}
int UnionDatatypeValidator::compare(const XMLCh* const lValue
, const XMLCh* const rValue
, MemoryManager* const manager)
{
RefVectorOf<DatatypeValidator>* memberDTV = getMemberTypeValidators();
unsigned int memberTypeNumber = memberDTV->size();
for ( unsigned int memberIndex = 0; memberIndex < memberTypeNumber; ++memberIndex)
{
if (memberDTV->elementAt(memberIndex)->compare(lValue, rValue, manager) ==0)
return 0;
}
//REVISIT: what does it mean for UNION1 to be <less than> or <greater than> UNION2 ?
// As long as -1 or +1 indicates an unequality, return either of them is ok.
return -1;
}
void XSDDOMParser::startAnnotationElement( const XMLElementDecl& elemDecl
, const RefVectorOf<XMLAttr>& attrList
, const unsigned int attrCount)
{
fAnnotationBuf.append(chOpenAngle);
fAnnotationBuf.append(elemDecl.getFullName());
//fAnnotationBuf.append(chSpace);
for(unsigned int i=0; i < attrCount; i++) {
const XMLAttr* oneAttr = attrList.elementAt(i);
fAnnotationBuf.append(chSpace);
fAnnotationBuf.append(oneAttr ->getQName());
fAnnotationBuf.append(chEqual);
fAnnotationBuf.append(chDoubleQuote);
fAnnotationBuf.append(oneAttr->getValue());
fAnnotationBuf.append(chDoubleQuote);
}
fAnnotationBuf.append(chCloseAngle);
}
void XSDDOMParser::startAnnotation( const XMLElementDecl& elemDecl
, const RefVectorOf<XMLAttr>& attrList
, const unsigned int attrCount)
{
fAnnotationBuf.append(chOpenAngle);
fAnnotationBuf.append(elemDecl.getFullName());
fAnnotationBuf.append(chSpace);
// attributes are a bit of a pain. To get this right, we have to keep track
// of the namespaces we've seen declared, then examine the namespace context
// for other namespaces so that we can also include them.
// optimized for simplicity and the case that not many
// namespaces are declared on this annotation...
fURIs->removeAllElements();
for (unsigned int i=0; i < attrCount; i++) {
const XMLAttr* oneAttrib = attrList.elementAt(i);
const XMLCh* attrValue = oneAttrib->getValue();
if (XMLString::equals(oneAttrib->getName(), XMLUni::fgXMLNSString))
fURIs->addElement(fScanner->getPrefixId(XMLUni::fgZeroLenString));
else if (!XMLString::compareNString(oneAttrib->getQName(), XMLUni::fgXMLNSColonString, 6))
fURIs->addElement(fScanner->getPrefixId(oneAttrib->getName()));
fAnnotationBuf.append(oneAttrib->getQName());
fAnnotationBuf.append(chEqual);
fAnnotationBuf.append(chDoubleQuote);
fAnnotationBuf.append(attrValue);
fAnnotationBuf.append(chDoubleQuote);
fAnnotationBuf.append(chSpace);
}
// now we have to look through currently in-scope namespaces to see what
// wasn't declared here
ValueVectorOf<PrefMapElem*>* namespaceContext = fScanner->getNamespaceContext();
for (unsigned int j=0; j < namespaceContext->size(); j++)
{
unsigned int prefId = namespaceContext->elementAt(j)->fPrefId;
if (!fURIs->containsElement(prefId)) {
const XMLCh* prefix = fScanner->getPrefixForId(prefId);
if (XMLString::equals(prefix, XMLUni::fgZeroLenString)) {
fAnnotationBuf.append(XMLUni::fgXMLNSString);
}
else {
fAnnotationBuf.append(XMLUni::fgXMLNSColonString);
fAnnotationBuf.append(prefix);
}
fAnnotationBuf.append(chEqual);
fAnnotationBuf.append(chDoubleQuote);
fAnnotationBuf.append(fScanner->getURIText(namespaceContext->elementAt(j)->fURIId));
fAnnotationBuf.append(chDoubleQuote);
fAnnotationBuf.append(chSpace);
}
}
fAnnotationBuf.append(chCloseAngle);
fAnnotationBuf.append(chLF);
}
// ---------------------------------------------------------------------------
// XSDDOMParser: Implementation of the XMLDocumentHandler interface
// ---------------------------------------------------------------------------
void XSDDOMParser::startElement( const XMLElementDecl& elemDecl
, const unsigned int urlId
, const XMLCh* const elemPrefix
, const RefVectorOf<XMLAttr>& attrList
, const unsigned int attrCount
, const bool isEmpty
, const bool isRoot)
{
fDepth++;
// while it is true that non-whitespace character data
// may only occur in appInfo or documentation
// elements, it's certainly legal for comments and PI's to
// occur as children of annotation; we need
// to account for these here.
if (fAnnotationDepth == -1)
{
if (XMLString::equals(elemDecl.getBaseName(), SchemaSymbols::fgELT_ANNOTATION) &&
XMLString::equals(getURIText(urlId), SchemaSymbols::fgURI_SCHEMAFORSCHEMA))
{
fAnnotationDepth = fDepth;
startAnnotation(elemDecl, attrList, attrCount);
}
}
else if (fDepth == fAnnotationDepth+1)
{
fInnerAnnotationDepth = fDepth;
startAnnotationElement(elemDecl, attrList, attrCount);
}
else
{
startAnnotationElement(elemDecl, attrList, attrCount);
// avoid falling through; don't call startElement in this case
return;
}
DOMElement *elem;
if (urlId != fScanner->getEmptyNamespaceId()) //TagName has a prefix
{
if (elemPrefix && *elemPrefix)
{
XMLBufBid elemQName(&fBufMgr);
elemQName.set(elemPrefix);
elemQName.append(chColon);
elemQName.append(elemDecl.getBaseName());
elem = createElementNSNode(
fScanner->getURIText(urlId), elemQName.getRawBuffer());
}
else {
elem = createElementNSNode(
fScanner->getURIText(urlId), elemDecl.getBaseName());
}
}
else {
elem = createElementNSNode(0, elemDecl.getBaseName());
}
DOMElementImpl *elemImpl = (DOMElementImpl *) elem;
for (unsigned int index = 0; index < attrCount; ++index)
{
const XMLAttr* oneAttrib = attrList.elementAt(index);
unsigned int attrURIId = oneAttrib->getURIId();
const XMLCh* namespaceURI = 0;
//for xmlns=...
if (XMLString::equals(oneAttrib->getName(), XMLUni::fgXMLNSString))
attrURIId = fScanner->getXMLNSNamespaceId();
//TagName has a prefix
if (attrURIId != fScanner->getEmptyNamespaceId())
namespaceURI = fScanner->getURIText(attrURIId); //get namespaceURI
// revisit. Optimize to init the named node map to the
// right size up front.
DOMAttrImpl *attr = (DOMAttrImpl *)
fDocument->createAttributeNS(namespaceURI, oneAttrib->getQName());
attr->setValue(oneAttrib -> getValue());
DOMNode* remAttr = elemImpl->setAttributeNodeNS(attr);
if (remAttr)
remAttr->release();
// Attributes of type ID. If this is one, add it to the hashtable of IDs
// that is constructed for use by GetElementByID().
if (oneAttrib->getType()==XMLAttDef::ID)
{
if (fDocument->fNodeIDMap == 0)
fDocument->fNodeIDMap = new (fDocument) DOMNodeIDMap(500, fDocument);
fDocument->fNodeIDMap->add(attr);
attr->fNode.isIdAttr(true);
}
attr->setSpecified(oneAttrib->getSpecified());
}
// set up the default attributes
if (elemDecl.hasAttDefs())
{
XMLAttDefList* defAttrs = &elemDecl.getAttDefList();
XMLAttDef* attr = 0;
DOMAttrImpl * insertAttr = 0;
while (defAttrs->hasMoreElements())
{
attr = &defAttrs->nextElement();
const XMLAttDef::DefAttTypes defType = attr->getDefaultType();
if ((defType == XMLAttDef::Default)
|| (defType == XMLAttDef::Fixed))
{
// DOM Level 2 wants all namespace declaration attributes
// to be bound to "http://www.w3.org/2000/xmlns/"
// So as long as the XML parser doesn't do it, it needs to
// done here.
const XMLCh* qualifiedName = attr->getFullName();
XMLBufBid bbPrefixQName(&fBufMgr);
XMLBuffer& prefixBuf = bbPrefixQName.getBuffer();
int colonPos = -1;
unsigned int uriId = fScanner->resolveQName(qualifiedName, prefixBuf, ElemStack::Mode_Attribute, colonPos);
const XMLCh* namespaceURI = 0;
if (XMLString::equals(qualifiedName, XMLUni::fgXMLNSString))
uriId = fScanner->getXMLNSNamespaceId();
//TagName has a prefix
if (uriId != fScanner->getEmptyNamespaceId())
namespaceURI = fScanner->getURIText(uriId);
insertAttr = (DOMAttrImpl *) fDocument->createAttributeNS(
namespaceURI, qualifiedName);
DOMAttr* remAttr = elemImpl->setDefaultAttributeNodeNS(insertAttr);
if (remAttr)
remAttr->release();
if (attr->getValue() != 0)
{
insertAttr->setValue(attr->getValue());
insertAttr->setSpecified(false);
}
}
insertAttr = 0;
attr->reset();
}
}
fCurrentParent->appendChild(elem);
fNodeStack->push(fCurrentParent);
fCurrentParent = elem;
fCurrentNode = elem;
fWithinElement = true;
// If an empty element, do end right now (no endElement() will be called)
if (isEmpty)
endElement(elemDecl, urlId, isRoot, elemPrefix);
}
void processDatatypeValidator( const DatatypeValidator* dtValidator, bool margin )
{
if( !dtValidator )
{
return;
}
if( margin )
{
XERCES_STD_QUALIFIER cout << "\t";
}
XERCES_STD_QUALIFIER cout << "Base Datatype:\t\t";
switch( dtValidator->getType() )
{
case DatatypeValidator::String: XERCES_STD_QUALIFIER cout << "string"; break;
case DatatypeValidator::AnyURI: XERCES_STD_QUALIFIER cout << "AnyURI"; break;
case DatatypeValidator::QName: XERCES_STD_QUALIFIER cout << "QName"; break;
case DatatypeValidator::Name: XERCES_STD_QUALIFIER cout << "Name"; break;
case DatatypeValidator::NCName: XERCES_STD_QUALIFIER cout << "NCName"; break;
case DatatypeValidator::Boolean: XERCES_STD_QUALIFIER cout << "Boolean"; break;
case DatatypeValidator::Float: XERCES_STD_QUALIFIER cout << "Float"; break;
case DatatypeValidator::Double: XERCES_STD_QUALIFIER cout << "Double"; break;
case DatatypeValidator::Decimal: XERCES_STD_QUALIFIER cout << "Decimal"; break;
case DatatypeValidator::HexBinary: XERCES_STD_QUALIFIER cout << "HexBinary"; break;
case DatatypeValidator::Base64Binary: XERCES_STD_QUALIFIER cout << "Base64Binary";break;
case DatatypeValidator::Duration: XERCES_STD_QUALIFIER cout << "Duration"; break;
case DatatypeValidator::DateTime: XERCES_STD_QUALIFIER cout << "DateTime"; break;
case DatatypeValidator::Date: XERCES_STD_QUALIFIER cout << "Date"; break;
case DatatypeValidator::Time: XERCES_STD_QUALIFIER cout << "Time"; break;
case DatatypeValidator::MonthDay: XERCES_STD_QUALIFIER cout << "MonthDay"; break;
case DatatypeValidator::YearMonth: XERCES_STD_QUALIFIER cout << "YearMonth"; break;
case DatatypeValidator::Year: XERCES_STD_QUALIFIER cout << "Year"; break;
case DatatypeValidator::Month: XERCES_STD_QUALIFIER cout << "Month"; break;
case DatatypeValidator::Day: XERCES_STD_QUALIFIER cout << "Day"; break;
case DatatypeValidator::ID: XERCES_STD_QUALIFIER cout << "ID"; break;
case DatatypeValidator::IDREF: XERCES_STD_QUALIFIER cout << "IDREF"; break;
case DatatypeValidator::ENTITY: XERCES_STD_QUALIFIER cout << "ENTITY"; break;
case DatatypeValidator::NOTATION: XERCES_STD_QUALIFIER cout << "NOTATION"; break;
case DatatypeValidator::List: XERCES_STD_QUALIFIER cout << "List"; break;
case DatatypeValidator::Union: XERCES_STD_QUALIFIER cout << "Union"; break;
case DatatypeValidator::AnySimpleType: XERCES_STD_QUALIFIER cout << "AnySimpleType"; break;
case DatatypeValidator::UnKnown: XERCES_STD_QUALIFIER cout << "UNKNOWN"; break;
}
XERCES_STD_QUALIFIER cout << "\n";
// Facets
RefHashTableOf<KVStringPair>* facets = dtValidator->getFacets();
if( facets && facets->getCount()>0)
{
XMLSize_t i;
// Element's properties
XERCES_STD_QUALIFIER cout << "Facets:\t\t\n";
// use a list to print them sorted, or the list could be different on 64-bit machines
RefVectorOf<XMLCh> sortedList(facets->getCount(), false);
RefHashTableOfEnumerator<KVStringPair> enumFacets(facets);
while( enumFacets.hasMoreElements() )
{
const KVStringPair& curPair = enumFacets.nextElement();
const XMLCh* key=curPair.getKey();
XMLSize_t len=sortedList.size();
for(i=0;i<len;i++)
if(XMLString::compareString(key, sortedList.elementAt(i))<0)
{
sortedList.insertElementAt((XMLCh*)key,i);
break;
}
if(i==len)
sortedList.addElement((XMLCh*)key);
}
XMLSize_t len=sortedList.size();
for(i=0;i<len;i++)
{
const XMLCh* key = sortedList.elementAt(i);
XERCES_STD_QUALIFIER cout << "\t" << StrX( key ) << "="
<< StrX( facets->get(key)->getValue() ) << "\n";
}
}
// Enumerations
RefVectorOf<XMLCh>* enums = (RefVectorOf<XMLCh>*) dtValidator->getEnumString();
if (enums)
{
XERCES_STD_QUALIFIER cout << "Enumeration:\t\t\n";
XMLSize_t enumLength = enums->size();
for ( XMLSize_t i = 0; i < enumLength; i++)
{
XERCES_STD_QUALIFIER cout << "\t" << StrX( enums->elementAt(i)) << "\n";
}
}
}
void
TestParser::startElement(const XMLElementDecl& elemDecl
, const unsigned int uriId
, const XMLCh* const prefixName
, const RefVectorOf<XMLAttr>& attrList
, const unsigned int attCount
, const bool isEmpty
, const bool isRoot)
{
// Set the flag that says we're now inside the root, if its not empty
if (isRoot && !isEmpty)
fInsideRoot = true;
if (fOutputType == OutputType_Debug)
{
XMLBuffer bufURI;
if (fDoNamespaces)
{
fScanner->getURIText(uriId, bufURI);
XERCES_STD_QUALIFIER cout << "Got STARTELEMENT:\n "
<< " Name: {" << StrX(bufURI.getRawBuffer()) << "}"
<< StrX(elemDecl.getBaseName())
<< ", AttCount: " << attCount
<< ", Empty?: "
<< (isEmpty ? "yes" : "no")
<< "\n";
}
else
{
XERCES_STD_QUALIFIER cout << "Got STARTELEMENT:\n Name: "
<< StrX(elemDecl.getFullName())
<< ", AttCount: " << attCount
<< ", Empty?: "
<< (isEmpty ? "yes" : "no")
<< "\n";
}
XERCES_STD_QUALIFIER cout << " SrcOfs: " << fScanner->getSrcOffset() << "\n";
// If any attributes, then show them
if (attCount)
{
XERCES_STD_QUALIFIER cout << " Attrs: ";
for (unsigned int attInd = 0; attInd < attCount; attInd++)
{
const XMLAttr* curAttr = attrList.elementAt(attInd);
if (fDoNamespaces)
{
fScanner->getURIText(curAttr->getURIId(), bufURI);
XERCES_STD_QUALIFIER cout << "Name=" << "{" << StrX(bufURI.getRawBuffer())
<< "}" << StrX(curAttr->getName());
}
else
{
XERCES_STD_QUALIFIER cout << "Name=" << StrX(curAttr->getQName());
}
if (curAttr->getSpecified())
XERCES_STD_QUALIFIER cout << " (Explicit) ";
else
XERCES_STD_QUALIFIER cout << " (Defaulted) ";
XERCES_STD_QUALIFIER cout << "Value=" << StrX(curAttr->getValue()) << "\n"
<< " ";
}
}
XERCES_STD_QUALIFIER cout << XERCES_STD_QUALIFIER endl;
}
else if (fOutputType == OutputType_XML)
{
XERCES_STD_QUALIFIER cout << "<";
showString(elemDecl.getFullName());
if (attCount)
{
XERCES_STD_QUALIFIER cout << " ";
for (unsigned int index = 0; index < attCount; index++)
{
const XMLAttr* curAttr = attrList.elementAt(index);
showString(curAttr->getQName());
XERCES_STD_QUALIFIER cout << "=\"";
showString(curAttr->getValue());
XERCES_STD_QUALIFIER cout << "\"";
if (index < attCount-1)
XERCES_STD_QUALIFIER cout << " ";
}
}
if (isEmpty)
XERCES_STD_QUALIFIER cout << "/>";
else
XERCES_STD_QUALIFIER cout << ">";
}
else if ((fOutputType == OutputType_JCCanon)
|| (fOutputType == OutputType_SunCanon))
{
XERCES_STD_QUALIFIER cout << "<";
showString(elemDecl.getFullName());
if (attCount)
{
XERCES_STD_QUALIFIER cout << " ";
//
// Get a list of attribute pointers. The canonical output
// format requires sorted attributes. If we aren't doing
// canonical output, then we don't sort it, but we still use
// the array.
//
const XMLAttr** attrTmp = new const XMLAttr*[attCount];
unsigned int index;
for (index = 0; index < attCount; index++)
attrTmp[index] = attrList.elementAt(index);
if (attCount > 1)
qsort(attrTmp, attCount, sizeof(XMLAttr*), attrComp);
for (index = 0; index < attCount; index++)
{
const XMLAttr* curAttr = attrTmp[index];
showString(curAttr->getQName());
XERCES_STD_QUALIFIER cout << "=\"";
showString(curAttr->getValue());
XERCES_STD_QUALIFIER cout << "\"";
if (index < attCount-1)
XERCES_STD_QUALIFIER cout << " ";
}
delete [] attrTmp;
}
if (isEmpty)
{
XERCES_STD_QUALIFIER cout << "></";
showString(elemDecl.getFullName());
XERCES_STD_QUALIFIER cout << ">";
}
else
{
XERCES_STD_QUALIFIER cout << ">";
}
}
}
//
// 1) the bottom level UnionDTV would check against
// pattern and enumeration as well
// 2) each UnionDTV(s) above the bottom level UnionDTV and
// below the native UnionDTV (the top level DTV)
// would check against pattern only.
// 3) the natvie Union DTV (the top level DTV) would invoke
// memberTypeValidator to validate
//
void UnionDatatypeValidator::checkContent(const XMLCh* const content
, ValidationContext* const context
, bool asBase
, MemoryManager* const manager)
{
DatatypeValidator* bv = getBaseValidator();
if (bv)
((UnionDatatypeValidator*)bv)->checkContent(content, context, true, manager);
else
{ // 3) native union type
// check content against each member type validator in Union
// report an error only in case content is not valid against all member datatypes.
//
bool memTypeValid = false;
for ( unsigned int i = 0; i < fMemberTypeValidators->size(); ++i )
{
if ( memTypeValid )
break;
try
{
fMemberTypeValidators->elementAt(i)->validate(content, context, manager);
memTypeValid = true;
//set the validator of the type actually used to validate the content
DatatypeValidator *dtv = fMemberTypeValidators->elementAt(i);
fValidatedDatatype = dtv;
// context will be null during schema construction
if(context)
context->setValidatingMemberType(dtv);
}
catch (XMLException&)
{
//absorbed
}
} // for
if ( !memTypeValid )
{
ThrowXMLwithMemMgr1(InvalidDatatypeValueException
, XMLExcepts::VALUE_no_match_memberType
, content
, manager);
//( "Content '"+content+"' does not match any union types" );
}
}
// 1) and 2). we check pattern first
if ( (getFacetsDefined() & DatatypeValidator::FACET_PATTERN ) != 0 )
{
if (getRegex()->matches(content, manager) == false)
{
ThrowXMLwithMemMgr2(InvalidDatatypeValueException
, XMLExcepts::VALUE_NotMatch_Pattern
, content
, getPattern()
, manager);
}
}
// if this is a base validator, we only need to check pattern facet
// all other facet were inherited by the derived type
if (asBase)
return;
if ((getFacetsDefined() & DatatypeValidator::FACET_ENUMERATION) != 0 &&
(getEnumeration() != 0))
{
// If the content match (compare equal) any enumeration with
// any of the member types, it is considerd valid.
//
RefVectorOf<DatatypeValidator>* memberDTV = getMemberTypeValidators();
RefArrayVectorOf<XMLCh>* tmpEnum = getEnumeration();
unsigned int memberTypeNumber = memberDTV->size();
unsigned int enumLength = tmpEnum->size();
for ( unsigned int memberIndex = 0; memberIndex < memberTypeNumber; ++memberIndex)
{
for ( unsigned int enumIndex = 0; enumIndex < enumLength; ++enumIndex)
{
try
{
if (memberDTV->elementAt(memberIndex)->compare(content, tmpEnum->elementAt(enumIndex), manager) == 0)
return;
}
catch (XMLException&)
{
//absorbed
}
} // for enumIndex
} // for memberIndex
ThrowXMLwithMemMgr1(InvalidDatatypeValueException, XMLExcepts::VALUE_NotIn_Enumeration, content, manager);
} // enumeration
}
XSSimpleTypeDefinition*
XSObjectFactory::addOrFind(DatatypeValidator* const validator,
XSModel* const xsModel,
bool isAnySimpleType)
{
XSSimpleTypeDefinition* xsObj = (XSSimpleTypeDefinition*) xsModel->getXSObject(validator);
if (!xsObj)
{
XSTypeDefinition* baseType = 0;
XSSimpleTypeDefinitionList* memberTypes = 0;
XSSimpleTypeDefinition* primitiveOrItemType = 0;
XSSimpleTypeDefinition::VARIETY typeVariety = XSSimpleTypeDefinition::VARIETY_ATOMIC;
bool primitiveTypeSelf = false;
//REVISIT: the getFixed method is protected so added friend XSObjectFactory
// to DatatypeValidator class...
DatatypeValidator::ValidatorType dvType = validator->getType();
DatatypeValidator* baseDV = validator->getBaseValidator();
if (dvType == DatatypeValidator::Union)
{
typeVariety = XSSimpleTypeDefinition::VARIETY_UNION;
RefVectorOf<DatatypeValidator>* membersDV = ((UnionDatatypeValidator*)validator)->getMemberTypeValidators();
XMLSize_t size = membersDV->size();
if (size)
{
memberTypes = new (fMemoryManager) RefVectorOf<XSSimpleTypeDefinition>(size, false, fMemoryManager);
for (XMLSize_t i=0; i<size; i++)
memberTypes->addElement(addOrFind(membersDV->elementAt(i), xsModel));
}
if (baseDV)
{
baseType = addOrFind(baseDV, xsModel);
}
else
{
baseType = (XSSimpleTypeDefinition*) xsModel->getTypeDefinition
(
SchemaSymbols::fgDT_ANYSIMPLETYPE
, SchemaSymbols::fgURI_SCHEMAFORSCHEMA
);
}
}
else if (dvType == DatatypeValidator::List)
{
typeVariety = XSSimpleTypeDefinition::VARIETY_LIST;
if (baseDV->getType() == DatatypeValidator::List)
{
baseType = addOrFind(baseDV, xsModel);
primitiveOrItemType = ((XSSimpleTypeDefinition*) baseType)->getItemType();
}
else
{
baseType = (XSSimpleTypeDefinition*) xsModel->getTypeDefinition
(
SchemaSymbols::fgDT_ANYSIMPLETYPE
, SchemaSymbols::fgURI_SCHEMAFORSCHEMA
);
primitiveOrItemType = addOrFind(baseDV, xsModel);
}
}
else if (!isAnySimpleType)
{
if (baseDV)
{
baseType = addOrFind(baseDV, xsModel);
primitiveOrItemType = ((XSSimpleTypeDefinition*) baseType)->getPrimitiveType();
}
else // built-in
{
baseType = (XSSimpleTypeDefinition*) xsModel->getTypeDefinition
(
SchemaSymbols::fgDT_ANYSIMPLETYPE
, SchemaSymbols::fgURI_SCHEMAFORSCHEMA
);
primitiveTypeSelf = true;
}
}
else
{
baseType = xsModel->getTypeDefinition(SchemaSymbols::fgATTVAL_ANYTYPE, SchemaSymbols::fgURI_SCHEMAFORSCHEMA);
}
xsObj = new (fMemoryManager) XSSimpleTypeDefinition
(
validator
, typeVariety
, baseType
, primitiveOrItemType
, memberTypes
, getAnnotationFromModel(xsModel, validator)
, xsModel
, fMemoryManager
);
putObjectInMap(validator, xsObj);
if (primitiveTypeSelf)
xsObj->setPrimitiveType(xsObj);
// process facets
processFacets(validator, xsModel, xsObj);
}
return xsObj;
}
void XercesXPath::parseExpression(XMLStringPool* const stringPool,
NamespaceScope* const scopeContext) {
unsigned int length = XMLString::stringLen(fExpression);
if (!length) {
return;
}
ValueVectorOf<int> tokens(16, fMemoryManager);
XPathScannerForSchema scanner(stringPool);
bool success = scanner.scanExpression(fExpression, 0, length, &tokens);
bool firstTokenOfLocationPath=true;
unsigned int tokenCount = tokens.size();
RefVectorOf<XercesStep>* stepsVector = new (fMemoryManager) RefVectorOf<XercesStep>(16, true, fMemoryManager);
Janitor<RefVectorOf<XercesStep> > janSteps(stepsVector);
if (tokenCount) {
fLocationPaths = new (fMemoryManager) RefVectorOf<XercesLocationPath>(8, true, fMemoryManager);
}
for (unsigned int i = 0; i < tokenCount; i++) {
int aToken = tokens.elementAt(i);
bool isNamespace=false;
switch (aToken) {
case XercesXPath::EXPRTOKEN_OPERATOR_UNION:
{
if (i == 0) {
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_NoUnionAtStart, fMemoryManager);
}
int stepsSize = stepsVector->size();
if (stepsSize == 0) {
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_NoMultipleUnion, fMemoryManager);
}
fLocationPaths->addElement(new (fMemoryManager) XercesLocationPath(stepsVector));
janSteps.orphan();
stepsVector = new (fMemoryManager) RefVectorOf<XercesStep>(16, true, fMemoryManager);
janSteps.reset(stepsVector);
firstTokenOfLocationPath = true;
}
break;
case XercesXPath::EXPRTOKEN_AXISNAME_ATTRIBUTE:
{
// consume "::" token and drop through
i++;
}
case XercesXPath::EXPRTOKEN_ATSIGN:
{
// consume QName token
if (i == tokenCount - 1) {
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_MissingAttr, fMemoryManager);
}
aToken = tokens.elementAt(++i);
if (aToken != XercesXPath::EXPRTOKEN_NAMETEST_QNAME
&& aToken!= XercesXPath::EXPRTOKEN_NAMETEST_ANY
&& aToken!= XercesXPath::EXPRTOKEN_NAMETEST_NAMESPACE) {
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_ExpectedToken1, fMemoryManager);
}
bool isNamespaceAtt=false;
switch (aToken) {
case XercesXPath::EXPRTOKEN_NAMETEST_ANY:
{
XercesNodeTest* nodeTest = new (fMemoryManager) XercesNodeTest(XercesNodeTest::WILDCARD, fMemoryManager);
XercesStep* step = new (fMemoryManager) XercesStep(XercesStep::ATTRIBUTE, nodeTest);
stepsVector->addElement(step);
break;
}
case XercesXPath::EXPRTOKEN_NAMETEST_NAMESPACE:
{
isNamespaceAtt = true;
}
case XercesXPath::EXPRTOKEN_NAMETEST_QNAME:
{
aToken = tokens.elementAt(++i);
const XMLCh* prefix = XMLUni::fgZeroLenString;
unsigned int uri = fEmptyNamespaceId;
if (scopeContext && aToken != -1) {
prefix = stringPool->getValueForId(aToken);
uri = scopeContext->getNamespaceForPrefix(prefix);
}
if (aToken != -1 && scopeContext && uri == fEmptyNamespaceId) {
ThrowXMLwithMemMgr1(XPathException, XMLExcepts::XPath_PrefixNoURI, prefix, fMemoryManager);
}
if (isNamespaceAtt) {
// build step
XercesNodeTest* nodeTest = new (fMemoryManager) XercesNodeTest(prefix, uri, fMemoryManager);
XercesStep* step = new (fMemoryManager) XercesStep(XercesStep::ATTRIBUTE, nodeTest);
stepsVector->addElement(step);
break;
}
aToken = tokens.elementAt(++i);
const XMLCh* localPart = stringPool->getValueForId(aToken);
QName aQName(prefix, localPart, uri, fMemoryManager);
// build step
XercesNodeTest* nodeTest = new (fMemoryManager) XercesNodeTest(&aQName);
XercesStep* step = new (fMemoryManager) XercesStep(XercesStep::ATTRIBUTE, nodeTest);
stepsVector->addElement(step);
break;
}
}
firstTokenOfLocationPath=false;
break;
}
case XercesXPath::EXPRTOKEN_DOUBLE_COLON:
{
// should never have a bare double colon
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_NoDoubleColon, fMemoryManager);
}
case XercesXPath::EXPRTOKEN_AXISNAME_CHILD:
{
// consume "::" token and drop through
i++;
if (i == tokenCount - 1) {
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_ExpectedStep1, fMemoryManager);
}
firstTokenOfLocationPath=false;
break;
}
case XercesXPath::EXPRTOKEN_NAMETEST_ANY:
{
XercesNodeTest* nodeTest = new (fMemoryManager) XercesNodeTest(XercesNodeTest::WILDCARD, fMemoryManager);
XercesStep* step = new (fMemoryManager) XercesStep(XercesStep::CHILD, nodeTest);
stepsVector->addElement(step);
firstTokenOfLocationPath = false;
break;
}
case XercesXPath::EXPRTOKEN_NAMETEST_NAMESPACE:
{
isNamespace=true;
}
case XercesXPath::EXPRTOKEN_NAMETEST_QNAME:
{
// consume QName token
aToken = tokens.elementAt(++i);
const XMLCh* prefix = XMLUni::fgZeroLenString;
unsigned int uri = fEmptyNamespaceId;
if (scopeContext && aToken != -1) {
prefix = stringPool->getValueForId(aToken);
uri = scopeContext->getNamespaceForPrefix(prefix);
}
if (aToken != -1 && scopeContext && uri == fEmptyNamespaceId) {
ThrowXMLwithMemMgr1(XPathException, XMLExcepts::XPath_PrefixNoURI, prefix, fMemoryManager);
}
if (isNamespace) {
// build step
XercesNodeTest* nodeTest = new (fMemoryManager) XercesNodeTest(prefix, uri, fMemoryManager);
XercesStep* step = new (fMemoryManager) XercesStep(XercesStep::CHILD, nodeTest);
stepsVector->addElement(step);
break;
}
aToken = tokens.elementAt(++i);
const XMLCh* localPart = stringPool->getValueForId(aToken);
QName aQName(prefix, localPart, uri, fMemoryManager);
// build step
XercesNodeTest* nodeTest = new (fMemoryManager) XercesNodeTest(&aQName);
XercesStep* step = new (fMemoryManager) XercesStep(XercesStep::CHILD, nodeTest);
stepsVector->addElement(step);
firstTokenOfLocationPath = false;
break;
}
case XercesXPath::EXPRTOKEN_PERIOD:
{
// build step
XercesNodeTest* nodeTest = new (fMemoryManager) XercesNodeTest(XercesNodeTest::NODE, fMemoryManager);
XercesStep* step = new (fMemoryManager) XercesStep(XercesStep::SELF, nodeTest);
stepsVector->addElement(step);
if (firstTokenOfLocationPath && i+1 < tokenCount) {
aToken = tokens.elementAt(i+1);
if (aToken == XercesXPath::EXPRTOKEN_OPERATOR_DOUBLE_SLASH){
if (++i == tokenCount - 1) {
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_ExpectedStep2, fMemoryManager);
}
if (i+1 < tokenCount) {
aToken = tokens.elementAt(i+1);
if (aToken == XercesXPath::EXPRTOKEN_OPERATOR_SLASH) {
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_NoForwardSlash, fMemoryManager);
}
}
// build step
nodeTest = new (fMemoryManager) XercesNodeTest(XercesNodeTest::NODE, fMemoryManager);
step = new (fMemoryManager) XercesStep(XercesStep::DESCENDANT, nodeTest);
stepsVector->addElement(step);
}
}
firstTokenOfLocationPath=false;
break;
}
case XercesXPath::EXPRTOKEN_OPERATOR_DOUBLE_SLASH:
{
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_NoDoubleForwardSlash, fMemoryManager);
}
case XercesXPath::EXPRTOKEN_OPERATOR_SLASH:
{
if (i == 0) {
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_NoForwardSlashAtStart, fMemoryManager);
}
// keep on truckin'
if (firstTokenOfLocationPath) {
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_NoSelectionOfRoot, fMemoryManager);
}
if (i == tokenCount - 1) {
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_ExpectedStep3, fMemoryManager);
}
firstTokenOfLocationPath=false;
break;
}
default:
firstTokenOfLocationPath=false;
}
}
int stepsSize = stepsVector->size();
if (stepsSize == 0) {
if (!fLocationPaths || fLocationPaths->size() == 0) {
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_EmptyExpr, fMemoryManager);
}
else {
ThrowXMLwithMemMgr(XPathException, XMLExcepts::XPath_NoUnionAtEnd, fMemoryManager);
}
}
fLocationPaths->addElement(new (fMemoryManager) XercesLocationPath(stepsVector));
janSteps.orphan();
}
void XPathMatcher::startElement(const XMLElementDecl& elemDecl,
const unsigned int urlId,
const XMLCh* const elemPrefix,
const RefVectorOf<XMLAttr>& attrList,
const unsigned int attrCount) {
for (int i = 0; i < (int) fLocationPathSize; i++) {
// push context
int startStep = fCurrentStep[i];
fStepIndexes->elementAt(i)->push(startStep);
// try next xpath, if not matching
if ((fMatched[i] & XP_MATCHED_D) == XP_MATCHED || fNoMatchDepth[i] > 0) {
fNoMatchDepth[i]++;
continue;
}
if((fMatched[i] & XP_MATCHED_D) == XP_MATCHED_D) {
fMatched[i] = XP_MATCHED_DP;
}
// consume self::node() steps
XercesLocationPath* locPath = fLocationPaths->elementAt(i);
int stepSize = locPath->getStepSize();
while (fCurrentStep[i] < stepSize &&
locPath->getStep(fCurrentStep[i])->getAxisType() == XercesStep::SELF) {
fCurrentStep[i]++;
}
if (fCurrentStep[i] == stepSize) {
fMatched[i] = XP_MATCHED;
continue;
}
// now if the current step is a descendant step, we let the next
// step do its thing; if it fails, we reset ourselves
// to look at this step for next time we're called.
// so first consume all descendants:
int descendantStep = fCurrentStep[i];
while (fCurrentStep[i] < stepSize &&
locPath->getStep(fCurrentStep[i])->getAxisType() == XercesStep::DESCENDANT) {
fCurrentStep[i]++;
}
bool sawDescendant = fCurrentStep[i] > descendantStep;
if (fCurrentStep[i] == stepSize) {
fNoMatchDepth[i]++;
continue;
}
// match child::... step, if haven't consumed any self::node()
if ((fCurrentStep[i] == startStep || fCurrentStep[i] > descendantStep) &&
locPath->getStep(fCurrentStep[i])->getAxisType() == XercesStep::CHILD) {
XercesStep* step = locPath->getStep(fCurrentStep[i]);
XercesNodeTest* nodeTest = step->getNodeTest();
if (nodeTest->getType() == XercesNodeTest::QNAME) {
QName elemQName(elemPrefix, elemDecl.getElementName()->getLocalPart(), urlId, fMemoryManager);
// if (!(*(nodeTest->getName()) == *(elemDecl.getElementName()))) {
if (!(*(nodeTest->getName()) == elemQName)) {
if(fCurrentStep[i] > descendantStep) {
fCurrentStep[i] = descendantStep;
continue;
}
fNoMatchDepth[i]++;
continue;
}
}
fCurrentStep[i]++;
}
if (fCurrentStep[i] == stepSize) {
if (sawDescendant) {
fCurrentStep[i] = descendantStep;
fMatched[i] = XP_MATCHED_D;
}
else {
fMatched[i] = XP_MATCHED;
}
continue;
}
// match attribute::... step
if (fCurrentStep[i] < stepSize &&
locPath->getStep(fCurrentStep[i])->getAxisType() == XercesStep::ATTRIBUTE) {
if (attrCount) {
XercesNodeTest* nodeTest = locPath->getStep(fCurrentStep[i])->getNodeTest();
for (unsigned int attrIndex = 0; attrIndex < attrCount; attrIndex++) {
const XMLAttr* curDef = attrList.elementAt(attrIndex);
if (nodeTest->getType() != XercesNodeTest::QNAME ||
(*(nodeTest->getName()) == *(curDef->getAttName()))) {
fCurrentStep[i]++;
if (fCurrentStep[i] == stepSize) {
fMatched[i] = XP_MATCHED_A;
int j=0;
for(; j<i && ((fMatched[j] & XP_MATCHED) != XP_MATCHED); j++) ;
if(j == i) {
SchemaAttDef* attDef = ((SchemaElementDecl&) elemDecl).getAttDef(curDef->getName(), curDef->getURIId());
DatatypeValidator* dv = (attDef) ? attDef->getDatatypeValidator() : 0;
matched(curDef->getValue(), dv, false);
}
}
break;
}
}
}
if ((fMatched[i] & XP_MATCHED) != XP_MATCHED) {
if(fCurrentStep[i] > descendantStep) {
fCurrentStep[i] = descendantStep;
continue;
}
fNoMatchDepth[i]++;
}
}
}
}
void processDatatypeValidator( const DatatypeValidator* dtValidator, bool margin )
{
if( !dtValidator )
{
return;
}
if( margin )
{
XERCES_STD_QUALIFIER cout << "\t";
}
XERCES_STD_QUALIFIER cout << "Base Datatype:\t\t";
switch( dtValidator->getType() )
{
case DatatypeValidator::String: XERCES_STD_QUALIFIER cout << "string"; break;
case DatatypeValidator::AnyURI: XERCES_STD_QUALIFIER cout << "AnyURI"; break;
case DatatypeValidator::QName: XERCES_STD_QUALIFIER cout << "QName"; break;
case DatatypeValidator::Name: XERCES_STD_QUALIFIER cout << "Name"; break;
case DatatypeValidator::NCName: XERCES_STD_QUALIFIER cout << "NCName"; break;
case DatatypeValidator::Boolean: XERCES_STD_QUALIFIER cout << "Boolean"; break;
case DatatypeValidator::Float: XERCES_STD_QUALIFIER cout << "Float"; break;
case DatatypeValidator::Double: XERCES_STD_QUALIFIER cout << "Double"; break;
case DatatypeValidator::Decimal: XERCES_STD_QUALIFIER cout << "Decimal"; break;
case DatatypeValidator::HexBinary: XERCES_STD_QUALIFIER cout << "HexBinary"; break;
case DatatypeValidator::Base64Binary: XERCES_STD_QUALIFIER cout << "Base64Binary";break;
case DatatypeValidator::Duration: XERCES_STD_QUALIFIER cout << "Duration"; break;
case DatatypeValidator::DateTime: XERCES_STD_QUALIFIER cout << "DateTime"; break;
case DatatypeValidator::Date: XERCES_STD_QUALIFIER cout << "Date"; break;
case DatatypeValidator::Time: XERCES_STD_QUALIFIER cout << "Time"; break;
case DatatypeValidator::MonthDay: XERCES_STD_QUALIFIER cout << "MonthDay"; break;
case DatatypeValidator::YearMonth: XERCES_STD_QUALIFIER cout << "YearMonth"; break;
case DatatypeValidator::Year: XERCES_STD_QUALIFIER cout << "Year"; break;
case DatatypeValidator::Month: XERCES_STD_QUALIFIER cout << "Month"; break;
case DatatypeValidator::Day: XERCES_STD_QUALIFIER cout << "Day"; break;
case DatatypeValidator::ID: XERCES_STD_QUALIFIER cout << "ID"; break;
case DatatypeValidator::IDREF: XERCES_STD_QUALIFIER cout << "IDREF"; break;
case DatatypeValidator::ENTITY: XERCES_STD_QUALIFIER cout << "ENTITY"; break;
case DatatypeValidator::NOTATION: XERCES_STD_QUALIFIER cout << "NOTATION"; break;
case DatatypeValidator::List: XERCES_STD_QUALIFIER cout << "List"; break;
case DatatypeValidator::Union: XERCES_STD_QUALIFIER cout << "Union"; break;
case DatatypeValidator::AnySimpleType: XERCES_STD_QUALIFIER cout << "AnySimpleType"; break;
}
XERCES_STD_QUALIFIER cout << "\n";
// Facets
RefHashTableOf<KVStringPair>* facets = dtValidator->getFacets();
if( facets )
{
RefHashTableOfEnumerator<KVStringPair> enumFacets(facets);
if( enumFacets.hasMoreElements() )
{
XERCES_STD_QUALIFIER cout << "Facets:\t\t\n";
}
while(enumFacets.hasMoreElements())
{
// Element's properties
const KVStringPair& curPair = enumFacets.nextElement();
XERCES_STD_QUALIFIER cout << "\t" << StrX( curPair.getKey() ) << "="
<< StrX( curPair.getValue() ) << "\n";
}
}
// Enumerations
RefVectorOf<XMLCh>* enums = (RefVectorOf<XMLCh>*) dtValidator->getEnumString();
if (enums)
{
XERCES_STD_QUALIFIER cout << "Enumeration:\t\t\n";
int enumLength = enums->size();
for ( int i = 0; i < enumLength; i++)
{
XERCES_STD_QUALIFIER cout << "\t" << StrX( enums->elementAt(i)) << "\n";
}
}
}
