Newer
Older
fValidator->emitError(XMLValid::NoAttNormForStandalone, attrName);
}
}
continue;
}
firstNonWS = true;
}
}
// Else add it to the buffer
toFill.append(nextCh);
if (secondCh)
toFill.append(secondCh);
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if(fGrammarType == Grammar::SchemaGrammarType)
((SchemaElementDecl *)fElemStack.topElement()->fThisElement)->updateValidityFromAttribute((SchemaAttDef *)attDef);
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}
}
catch(const EndOfEntityException&)
{
// Just eat it and continue.
gotLeadingSurrogate = false;
escaped = false;
}
}
return true;
}
// This method scans a CDATA section. It collects the character into one
// of the temp buffers and calls the document handler, if any, with the
// characters. It assumes that the <![CDATA string has been scanned before
// this call.
void IGXMLScanner::scanCDSection()
{
// This is the CDATA section opening sequence, minus the '<' character.
// We use this to watch for nested CDATA sections, which are illegal.
static const XMLCh CDataPrefix[] =
{
chBang, chOpenSquare, chLatin_C, chLatin_D, chLatin_A
, chLatin_T, chLatin_A, chOpenSquare, chNull
};
static const XMLCh CDataClose[] =
{
chCloseSquare, chCloseAngle, chNull
};
// The next character should be the opening square bracket. If not
// issue an error, but then try to recover by skipping any whitespace
// and checking again.
if (!fReaderMgr.skippedChar(chOpenSquare))
{
emitError(XMLErrs::ExpectedOpenSquareBracket);
fReaderMgr.skipPastSpaces();
// If we still don't find it, then give up, else keep going
if (!fReaderMgr.skippedChar(chOpenSquare))
return;
}
// Get a buffer for this
XMLBufBid bbCData(&fBufMgr);
// We just scan forward until we hit the end of CDATA section sequence.
// CDATA is effectively a big escape mechanism so we don't treat markup
// characters specially here.
bool emittedError = false;
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// Get the character data opts for the current element
const ElemStack::StackElem* topElem = fElemStack.topElement();
XMLElementDecl::CharDataOpts charOpts = topElem->fThisElement->getCharDataOpts();
while (true)
{
const XMLCh nextCh = fReaderMgr.getNextChar();
// Watch for unexpected end of file
if (!nextCh)
{
emitError(XMLErrs::UnterminatedCDATASection);
ThrowXML(UnexpectedEOFException, XMLExcepts::Gen_UnexpectedEOF);
}
if (fValidate && fStandalone && (fReaderMgr.getCurrentReader()->isWhitespace(nextCh)))
{
// This document is standalone; this ignorable CDATA whitespace is forbidden.
// XML 1.0, Section 2.9
// And see if the current element is a 'Children' style content model
if (topElem->fThisElement->isExternal()) {
if (charOpts == XMLElementDecl::SpacesOk) // Element Content
{
// Error - standalone should have a value of "no" as whitespace detected in an
// element type with element content whose element declaration was external
fValidator->emitError(XMLValid::NoWSForStandalone);
if(fGrammarType == Grammar::SchemaGrammarType)
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((SchemaElementDecl *)topElem->fThisElement)->setValidity(PSVIDefs::INVALID);
}
}
}
// If this is a close square bracket it could be our closing
// sequence.
if (nextCh == chCloseSquare && fReaderMgr.skippedString(CDataClose))
{
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// make sure we were not expecting a trailing surrogate.
if (gotLeadingSurrogate)
emitError(XMLErrs::Expected2ndSurrogateChar);
if (fGrammarType == Grammar::SchemaGrammarType) {
if (fNormalizeData)
{
Tinny Ng
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DatatypeValidator* tempDV = ((SchemaElementDecl*) topElem->fThisElement)->getDatatypeValidator();
if (tempDV && tempDV->getWSFacet() != DatatypeValidator::PRESERVE)
{
// normalize the character according to schema whitespace facet
XMLBufBid bbtemp(&fBufMgr);
XMLBuffer& tempBuf = bbtemp.getBuffer();
((SchemaValidator*) fValidator)->normalizeWhiteSpace(tempDV, bbCData.getRawBuffer(), tempBuf);
bbCData.set(tempBuf.getRawBuffer());
}
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}
if (fValidate) {
// tell the schema validation about the character data for checkContent later
((SchemaValidator*) fValidator)->setDatatypeBuffer(bbCData.getRawBuffer());
if (charOpts != XMLElementDecl::AllCharData)
{
// They definitely cannot handle any type of char data
fValidator->emitError(XMLValid::NoCharDataInCM);
((SchemaElementDecl *)topElem->fThisElement)->setValidity(PSVIDefs::INVALID);
}
}
if (fMatcherStack->getMatcherCount())
fContent.append(bbCData.getRawBuffer(), bbCData.getLen());
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else {
if (fValidate) {
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if (charOpts != XMLElementDecl::AllCharData)
{
// They definitely cannot handle any type of char data
fValidator->emitError(XMLValid::NoCharDataInCM);
}
}
// If we have a doc handler, call it
if (fDocHandler)
{
fDocHandler->docCharacters
(
bbCData.getRawBuffer()
, bbCData.getLen()
, true
);
}
// And we are done
break;
}
// Make sure its a valid character. But if we've emitted an error
// already, don't bother with the overhead since we've already told
// them about it.
if (!emittedError)
{
// Deal with surrogate pairs
if ((nextCh >= 0xD800) && (nextCh <= 0xDBFF))
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// Its a leading surrogate. If we already got one, then
// issue an error, else set leading flag to make sure that
// we look for a trailing next time.
if (gotLeadingSurrogate)
emitError(XMLErrs::Expected2ndSurrogateChar);
else
gotLeadingSurrogate = true;
}
else
{
// If its a trailing surrogate, make sure that we are
// prepared for that. Else, its just a regular char so make
// sure that we were not expected a trailing surrogate.
if ((nextCh >= 0xDC00) && (nextCh <= 0xDFFF))
{
// Its trailing, so make sure we were expecting it
if (!gotLeadingSurrogate)
emitError(XMLErrs::Unexpected2ndSurrogateChar);
}
else
{
// Its just a char, so make sure we were not expecting a
// trailing surrogate.
if (gotLeadingSurrogate)
emitError(XMLErrs::Expected2ndSurrogateChar);
// Its got to at least be a valid XML character
else if (!fReaderMgr.getCurrentReader()->isXMLChar(nextCh))
{
XMLCh tmpBuf[9];
XMLString::binToText
(
nextCh
, tmpBuf
, 8
, 16
);
emitError(XMLErrs::InvalidCharacter, tmpBuf);
emittedError = true;
}
}
gotLeadingSurrogate = false;
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}
}
// Add it to the buffer
bbCData.append(nextCh);
}
}
void IGXMLScanner::scanCharData(XMLBuffer& toUse)
{
// We have to watch for the stupid ]]> sequence, which is illegal in
// character data. So this is a little state machine that handles that.
enum States
{
State_Waiting
, State_GotOne
, State_GotTwo
};
// Reset the buffer before we start
toUse.reset();
// Turn on the 'throw at end' flag of the reader manager
ThrowEOEJanitor jan(&fReaderMgr, true);
// In order to be more efficient we have to use kind of a deeply nested
// set of blocks here. The outer block puts on a try and catches end of
// entity exceptions. The inner loop is the per-character loop. If we
// put the try inside the inner loop, it would work but would require
// the exception handling code setup/teardown code to be invoked for
// each character.
XMLCh nextCh;
XMLCh secondCh = 0;
States curState = State_Waiting;
bool escaped = false;
bool gotLeadingSurrogate = false;
bool notDone = true;
while (notDone)
{
try
{
while (true)
{
// Eat through as many plain content characters as possible without
// needing special handling. Moving most content characters here,
// in this one call, rather than running the overall loop once
// per content character, is a speed optimization.
if (curState == State_Waiting && !gotLeadingSurrogate)
fReaderMgr.movePlainContentChars(toUse);
// Try to get another char from the source
// The code from here on down covers all contengencies,
if (!fReaderMgr.getNextCharIfNot(chOpenAngle, nextCh))
{
// If we were waiting for a trailing surrogate, its an error
if (gotLeadingSurrogate)
emitError(XMLErrs::Expected2ndSurrogateChar);
notDone = false;
break;
}
// Watch for a reference. Note that the escapement mechanism
// is ignored in this content.
escaped = false;
if (nextCh == chAmpersand)
{
sendCharData(toUse);
// Turn off the throwing at the end of entity during this
ThrowEOEJanitor jan(&fReaderMgr, false);
if (scanEntityRef(false, nextCh, secondCh, escaped) != EntityExp_Returned)
{
gotLeadingSurrogate = false;
continue;
}
}
else if ((nextCh >= 0xD800) && (nextCh <= 0xDBFF))
// Deal with surrogate pairs
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// Its a leading surrogate. If we already got one, then
// issue an error, else set leading flag to make sure that
// we look for a trailing next time.
if (gotLeadingSurrogate)
emitError(XMLErrs::Expected2ndSurrogateChar);
else
gotLeadingSurrogate = true;
}
else
{
// If its a trailing surrogate, make sure that we are
// prepared for that. Else, its just a regular char so make
// sure that we were not expected a trailing surrogate.
if ((nextCh >= 0xDC00) && (nextCh <= 0xDFFF))
{
// Its trailing, so make sure we were expecting it
if (!gotLeadingSurrogate)
emitError(XMLErrs::Unexpected2ndSurrogateChar);
}
else
{
// Its just a char, so make sure we were not expecting a
// trailing surrogate.
if (gotLeadingSurrogate)
emitError(XMLErrs::Expected2ndSurrogateChar);
// Make sure the returned char is a valid XML char
XMLCh tmpBuf[9];
XMLString::binToText
(
nextCh
, tmpBuf
, 8
, 16
);
emitError(XMLErrs::InvalidCharacter, tmpBuf);
}
}
gotLeadingSurrogate = false;
}
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// Keep the state machine up to date
if (!escaped)
{
if (nextCh == chCloseSquare)
{
if (curState == State_Waiting)
curState = State_GotOne;
else if (curState == State_GotOne)
curState = State_GotTwo;
}
else if (nextCh == chCloseAngle)
{
if (curState == State_GotTwo)
emitError(XMLErrs::BadSequenceInCharData);
curState = State_Waiting;
}
else
{
curState = State_Waiting;
}
}
else
{
curState = State_Waiting;
}
// Add this char to the buffer
toUse.append(nextCh);
if (secondCh)
toUse.append(secondCh);
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}
}
catch(const EndOfEntityException& toCatch)
{
// Some entity ended, so we have to send any accumulated
// chars and send an end of entity event.
sendCharData(toUse);
gotLeadingSurrogate = false;
if (fDocHandler)
fDocHandler->endEntityReference(toCatch.getEntity());
}
}
// Check the validity constraints as per XML 1.0 Section 2.9
if (fValidate && fStandalone)
{
// See if the text contains whitespace
// Get the raw data we need for the callback
const XMLCh* rawBuf = toUse.getRawBuffer();
const unsigned int len = toUse.getLen();
const bool isSpaces = fReaderMgr.getCurrentReader()->containsWhiteSpace(rawBuf, len);
if (isSpaces)
{
// And see if the current element is a 'Children' style content model
const ElemStack::StackElem* topElem = fElemStack.topElement();
if (topElem->fThisElement->isExternal()) {
// Get the character data opts for the current element
XMLElementDecl::CharDataOpts charOpts = topElem->fThisElement->getCharDataOpts();
if (charOpts == XMLElementDecl::SpacesOk) // => Element Content
{
// Error - standalone should have a value of "no" as whitespace detected in an
// element type with element content whose element declaration was external
//
fValidator->emitError(XMLValid::NoWSForStandalone);
if(fGrammarType == Grammar::SchemaGrammarType)
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committed
((SchemaElementDecl *)fElemStack.topElement()->fThisElement)->setValidity(PSVIDefs::INVALID);
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}
}
}
}
// Send any char data that we accumulated into the buffer
sendCharData(toUse);
}
// This method will scan a general/character entity ref. It will either
// expand a char ref and return it directly, or push a reader for a general
// entity.
//
// The return value indicates whether the char parameters hold the value
// or whether the value was pushed as a reader, or that it failed.
//
// The escaped flag tells the caller whether the returned parameter resulted
// from a character reference, which escapes the character in some cases. It
// only makes any difference if the return value indicates the value was
// returned directly.
IGXMLScanner::EntityExpRes
IGXMLScanner::scanEntityRef( const bool inAttVal
, XMLCh& firstCh
, XMLCh& secondCh
, bool& escaped)
{
// Assume no escape
secondCh = 0;
escaped = false;
// We have to insure that its all in one entity
const unsigned int curReader = fReaderMgr.getCurrentReaderNum();
// If the next char is a pound, then its a character reference and we
// need to expand it always.
if (fReaderMgr.skippedChar(chPound))
{
// Its a character reference, so scan it and get back the numeric
// value it represents.
if (!scanCharRef(firstCh, secondCh))
return EntityExp_Failed;
escaped = true;
if (curReader != fReaderMgr.getCurrentReaderNum())
emitError(XMLErrs::PartialMarkupInEntity);
return EntityExp_Returned;
}
// Expand it since its a normal entity ref
XMLBufBid bbName(&fBufMgr);
if (!fReaderMgr.getName(bbName.getBuffer()))
{
emitError(XMLErrs::ExpectedEntityRefName);
return EntityExp_Failed;
}
// Next char must be a semi-colon. But if its not, just emit
// an error and try to continue.
if (!fReaderMgr.skippedChar(chSemiColon))
emitError(XMLErrs::UnterminatedEntityRef, bbName.getRawBuffer());
// Make sure we ended up on the same entity reader as the & char
if (curReader != fReaderMgr.getCurrentReaderNum())
emitError(XMLErrs::PartialMarkupInEntity);
// Look up the name in the general entity pool
XMLEntityDecl* decl = fDTDGrammar->getEntityDecl(bbName.getRawBuffer());
// If it does not exist, then obviously an error
if (!decl)
{
// XML 1.0 Section 4.1
// Well-formedness Constraint for entity not found:
// In a document without any DTD, a document with only an internal DTD subset which contains no parameter entity references,
// or a document with "standalone='yes'", for an entity reference that does not occur within the external subset
// or a parameter entity
//
// Else it's Validity Constraint
if (fStandalone || fHasNoDTD)
emitError(XMLErrs::EntityNotFound, bbName.getRawBuffer());
else {
if (fValidate)
fValidator->emitError(XMLValid::VC_EntityNotFound, bbName.getRawBuffer());
}
return EntityExp_Failed;
}
// XML 1.0 Section 4.1
// If we are a standalone document, then it has to have been declared
// in the internal subset.
if (fStandalone && !decl->getDeclaredInIntSubset())
emitError(XMLErrs::IllegalRefInStandalone, bbName.getRawBuffer());
if (decl->isExternal())
{
// If its unparsed, then its not valid here
if (decl->isUnparsed())
{
emitError(XMLErrs::NoUnparsedEntityRefs, bbName.getRawBuffer());
return EntityExp_Failed;
}
// If we are in an attribute value, then not valid but keep going
if (inAttVal)
emitError(XMLErrs::NoExtRefsInAttValue);
// And now create a reader to read this entity
InputSource* srcUsed;
XMLReader* reader = fReaderMgr.createReader
(
decl->getBaseURI()
, decl->getSystemId()
, decl->getPublicId()
, false
, XMLReader::RefFrom_NonLiteral
, XMLReader::Type_General
, XMLReader::Source_External
, srcUsed
, fCalculateSrcOfs
);
// Put a janitor on the source so it gets cleaned up on exit
Janitor<InputSource> janSrc(srcUsed);
// If the creation failed, and its not because the source was empty,
// then emit an error and return.
if (!reader)
ThrowXML1(RuntimeException, XMLExcepts::Gen_CouldNotOpenExtEntity, srcUsed->getSystemId());
// Push the reader. If its a recursive expansion, then emit an error
// and return an failure.
if (!fReaderMgr.pushReader(reader, decl))
{
emitError(XMLErrs::RecursiveEntity, decl->getName());
return EntityExp_Failed;
}
// here's where we need to check if there's a SecurityManager,
// how many entity references we've had
if(fSecurityManager != 0 && ++fEntityExpansionCount > fEntityExpansionLimit) {
XMLCh expLimStr[16];
XMLString::binToText(fEntityExpansionLimit, expLimStr, 15, 10);
emitError
(
XMLErrs::EntityExpansionLimitExceeded
, expLimStr
);
// there seems nothing better to be done than to reset the entity expansion counter
fEntityExpansionCount = 0;
}
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// Do a start entity reference event.
//
// <TBD> For now, we supress them in att values. Later, when
// the stuff is in place to correctly allow DOM to handle them
// we'll turn this back on.
if (fDocHandler && !inAttVal)
fDocHandler->startEntityReference(*decl);
// If it starts with the XML string, then parse a text decl
if (checkXMLDecl(true))
scanXMLDecl(Decl_Text);
}
else
{
// If its one of the special char references, then we can return
// it as a character, and its considered escaped.
if (decl->getIsSpecialChar())
{
firstCh = decl->getValue()[0];
escaped = true;
return EntityExp_Returned;
}
// Create a reader over a memory stream over the entity value
// We force it to assume UTF-16 by passing in an encoding
// string. This way it won't both trying to predecode the
// first line, looking for an XML/TextDecl.
XMLReader* valueReader = fReaderMgr.createIntEntReader
(
decl->getName()
, XMLReader::RefFrom_NonLiteral
, XMLReader::Type_General
, decl->getValue()
, decl->getValueLen()
, false
);
// Try to push the entity reader onto the reader manager stack,
// where it will become the subsequent input. If it fails, that
// means the entity is recursive, so issue an error. The reader
// will have just been discarded, but we just keep going.
if (!fReaderMgr.pushReader(valueReader, decl))
emitError(XMLErrs::RecursiveEntity, decl->getName());
// here's where we need to check if there's a SecurityManager,
// how many entity references we've had
if(fSecurityManager != 0 && ++fEntityExpansionCount > fEntityExpansionLimit) {
XMLCh expLimStr[16];
XMLString::binToText(fEntityExpansionLimit, expLimStr, 15, 10);
emitError
(
XMLErrs::EntityExpansionLimitExceeded
, expLimStr
);
}
// Do a start entity reference event.
//
// <TBD> For now, we supress them in att values. Later, when
// the stuff is in place to correctly allow DOM to handle them
// we'll turn this back on.
if (fDocHandler && !inAttVal)
fDocHandler->startEntityReference(*decl);
// If it starts with the XML string, then it's an error
if (checkXMLDecl(true)) {
emitError(XMLErrs::TextDeclNotLegalHere);
fReaderMgr.skipPastChar(chCloseAngle);
}
}
return EntityExp_Pushed;
}
bool IGXMLScanner::switchGrammar(const XMLCh* const newGrammarNameSpace)
{
Grammar* tempGrammar = fGrammarResolver->getGrammar(newGrammarNameSpace);
if (!tempGrammar) {
// This is a case where namespaces is on with a DTD grammar.
tempGrammar = fDTDGrammar;
}
Gareth Reakes
committed
if (!tempGrammar) {
Gareth Reakes
committed
}
Gareth Reakes
committed
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fGrammar = tempGrammar;
fGrammarType = fGrammar->getGrammarType();
if (fGrammarType == Grammar::SchemaGrammarType && !fValidator->handlesSchema()) {
if (fValidatorFromUser)
ThrowXML(RuntimeException, XMLExcepts::Gen_NoSchemaValidator);
else {
fValidator = fSchemaValidator;
}
}
else if (fGrammarType == Grammar::DTDGrammarType && !fValidator->handlesDTD()) {
if (fValidatorFromUser)
ThrowXML(RuntimeException, XMLExcepts::Gen_NoDTDValidator);
else {
fValidator = fDTDValidator;
}
}
fValidator->setGrammar(fGrammar);
return true;
}
}
// check if we should skip or lax the validation of the element
// if skip - no validation
// if lax - validate only if the element if found
bool IGXMLScanner::laxElementValidation(QName* element, ContentLeafNameTypeVector* cv,
const XMLContentModel* const cm,
const unsigned int parentElemDepth)
{
bool skipThisOne = false;
bool laxThisOne = false;
unsigned int elementURI = element->getURI();
unsigned int currState = fElemState[parentElemDepth];
if (currState == XMLContentModel::gInvalidTrans) {
return laxThisOne;
}
SubstitutionGroupComparator comparator(fGrammarResolver, fURIStringPool);
if (cv) {
unsigned int i = 0;
unsigned int leafCount = cv->getLeafCount();
for (; i < leafCount; i++) {
QName* fElemMap = cv->getLeafNameAt(i);
unsigned int uri = fElemMap->getURI();
unsigned int nextState;
bool anyEncountered = false;
ContentSpecNode::NodeTypes type = cv->getLeafTypeAt(i);
if (type == ContentSpecNode::Leaf) {
if (((uri == elementURI)
&& XMLString::equals(fElemMap->getLocalPart(), element->getLocalPart()))
|| comparator.isEquivalentTo(element, fElemMap)) {
nextState = cm->getNextState(currState, i);
if (nextState != XMLContentModel::gInvalidTrans) {
fElemState[parentElemDepth] = nextState;
break;
}
}
} else if ((type & 0x0f) == ContentSpecNode::Any) {
anyEncountered = true;
}
else if ((type & 0x0f) == ContentSpecNode::Any_Other) {
if (uri != elementURI) {
anyEncountered = true;
}
}
else if ((type & 0x0f) == ContentSpecNode::Any_NS) {
if (uri == elementURI) {
anyEncountered = true;
}
}
if (anyEncountered) {
nextState = cm->getNextState(currState, i);
if (nextState != XMLContentModel::gInvalidTrans) {
fElemState[parentElemDepth] = nextState;
if (type == ContentSpecNode::Any_Skip ||
type == ContentSpecNode::Any_NS_Skip ||
type == ContentSpecNode::Any_Other_Skip) {
skipThisOne = true;
}
else if (type == ContentSpecNode::Any_Lax ||
type == ContentSpecNode::Any_NS_Lax ||
type == ContentSpecNode::Any_Other_Lax) {
laxThisOne = true;
}
break;
}
}
} // for
if (i == leafCount) { // no match
fElemState[parentElemDepth] = XMLContentModel::gInvalidTrans;
return laxThisOne;
}
} // if
if (skipThisOne) {
fValidate = false;
fElemStack.setValidationFlag(fValidate);
}
return laxThisOne;
}
// check if there is an AnyAttribute, and if so, see if we should lax or skip
// if skip - no validation
// if lax - validate only if the attribute if found
bool IGXMLScanner::anyAttributeValidation(SchemaAttDef* attWildCard, unsigned int uriId, bool& skipThisOne, bool& laxThisOne)
{
XMLAttDef::AttTypes wildCardType = attWildCard->getType();
bool anyEncountered = false;
skipThisOne = false;
laxThisOne = false;
if (wildCardType == XMLAttDef::Any_Any)
anyEncountered = true;
else if (wildCardType == XMLAttDef::Any_Other) {
if (attWildCard->getAttName()->getURI() != uriId
&& uriId != fEmptyNamespaceId)
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anyEncountered = true;
}
else if (wildCardType == XMLAttDef::Any_List) {
ValueVectorOf<unsigned int>* nameURIList = attWildCard->getNamespaceList();
unsigned int listSize = (nameURIList) ? nameURIList->size() : 0;
if (listSize) {
for (unsigned int i=0; i < listSize; i++) {
if (nameURIList->elementAt(i) == uriId)
anyEncountered = true;
}
}
}
if (anyEncountered) {
XMLAttDef::DefAttTypes defType = attWildCard->getDefaultType();
if (defType == XMLAttDef::ProcessContents_Skip) {
// attribute should just be bypassed,
skipThisOne = true;
}
else if (defType == XMLAttDef::ProcessContents_Lax) {
laxThisOne = true;
}
}
return anyEncountered;
}
void IGXMLScanner::normalizeURI(const XMLCh* const systemURI,
XMLBuffer& normalizedURI)
{
const XMLCh* pszSrc = systemURI;
normalizedURI.reset();
while (*pszSrc) {
if ((*(pszSrc) == chPercent)
&& (*(pszSrc+1) == chDigit_2)
&& (*(pszSrc+2) == chDigit_0))
{
pszSrc += 3;
normalizedURI.append(chSpace);
}
else if (*pszSrc == 0xFFFF) { //escaped character
pszSrc++;
}
else {
normalizedURI.append(*pszSrc);
pszSrc++;
}
}
}
XERCES_CPP_NAMESPACE_END