/*******************************************************************************
* Copyright (c) 2000, 2011 IBM Corporation and others.
* All rights reserved. This program and the accompanying materials
* are made available under the terms of the Eclipse Public License v1.0
* which accompanies this distribution, and is available at
* http://www.eclipse.org/legal/epl-v10.html
*
* Contributors:
* IBM Corporation - initial API and implementation
* bug 242694 - Michael Spector <spektom@gmail.com>
*******************************************************************************/
package org.eclipse.wst.jsdt.internal.compiler;
import java.util.ArrayList;
import java.util.HashMap;
import java.util.Iterator;
import org.eclipse.wst.jsdt.core.ast.IExpression;
import org.eclipse.wst.jsdt.core.ast.IFunctionExpression;
import org.eclipse.wst.jsdt.core.compiler.CategorizedProblem;
import org.eclipse.wst.jsdt.core.compiler.CharOperation;
import org.eclipse.wst.jsdt.core.infer.InferredAttribute;
import org.eclipse.wst.jsdt.core.infer.InferredMethod;
import org.eclipse.wst.jsdt.core.infer.InferredType;
import org.eclipse.wst.jsdt.internal.compiler.ast.ASTNode;
import org.eclipse.wst.jsdt.internal.compiler.ast.AbstractMethodDeclaration;
import org.eclipse.wst.jsdt.internal.compiler.ast.AbstractVariableDeclaration;
import org.eclipse.wst.jsdt.internal.compiler.ast.AllocationExpression;
import org.eclipse.wst.jsdt.internal.compiler.ast.Argument;
import org.eclipse.wst.jsdt.internal.compiler.ast.ArrayAllocationExpression;
import org.eclipse.wst.jsdt.internal.compiler.ast.ArrayInitializer;
import org.eclipse.wst.jsdt.internal.compiler.ast.ArrayQualifiedTypeReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.ArrayReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.ArrayTypeReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.Assignment;
import org.eclipse.wst.jsdt.internal.compiler.ast.ClassLiteralAccess;
import org.eclipse.wst.jsdt.internal.compiler.ast.CompilationUnitDeclaration;
import org.eclipse.wst.jsdt.internal.compiler.ast.ConstructorDeclaration;
import org.eclipse.wst.jsdt.internal.compiler.ast.ExplicitConstructorCall;
import org.eclipse.wst.jsdt.internal.compiler.ast.Expression;
import org.eclipse.wst.jsdt.internal.compiler.ast.FieldDeclaration;
import org.eclipse.wst.jsdt.internal.compiler.ast.FieldReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.FunctionExpression;
import org.eclipse.wst.jsdt.internal.compiler.ast.ImportReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.Initializer;
import org.eclipse.wst.jsdt.internal.compiler.ast.JavadocAllocationExpression;
import org.eclipse.wst.jsdt.internal.compiler.ast.JavadocFieldReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.JavadocMessageSend;
import org.eclipse.wst.jsdt.internal.compiler.ast.JavadocQualifiedTypeReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.JavadocSingleTypeReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.LocalDeclaration;
import org.eclipse.wst.jsdt.internal.compiler.ast.MessageSend;
import org.eclipse.wst.jsdt.internal.compiler.ast.MethodDeclaration;
import org.eclipse.wst.jsdt.internal.compiler.ast.NameReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.ObjectLiteral;
import org.eclipse.wst.jsdt.internal.compiler.ast.QualifiedAllocationExpression;
import org.eclipse.wst.jsdt.internal.compiler.ast.QualifiedNameReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.QualifiedTypeReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.SingleNameReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.SingleTypeReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.ThisReference;
import org.eclipse.wst.jsdt.internal.compiler.ast.TypeDeclaration;
import org.eclipse.wst.jsdt.internal.compiler.ast.TypeReference;
import org.eclipse.wst.jsdt.internal.compiler.classfmt.ClassFileConstants;
import org.eclipse.wst.jsdt.internal.compiler.env.ICompilationUnit;
import org.eclipse.wst.jsdt.internal.compiler.env.ISourceType;
import org.eclipse.wst.jsdt.internal.compiler.impl.CompilerOptions;
import org.eclipse.wst.jsdt.internal.compiler.impl.ReferenceContext;
import org.eclipse.wst.jsdt.internal.compiler.lookup.Binding;
import org.eclipse.wst.jsdt.internal.compiler.lookup.BlockScope;
import org.eclipse.wst.jsdt.internal.compiler.lookup.ClassScope;
import org.eclipse.wst.jsdt.internal.compiler.lookup.ExtraCompilerModifiers;
import org.eclipse.wst.jsdt.internal.compiler.lookup.MethodScope;
import org.eclipse.wst.jsdt.internal.compiler.lookup.Scope;
import org.eclipse.wst.jsdt.internal.compiler.lookup.TypeConstants;
import org.eclipse.wst.jsdt.internal.compiler.parser.SourceTypeConverter;
import org.eclipse.wst.jsdt.internal.compiler.problem.AbortCompilation;
import org.eclipse.wst.jsdt.internal.compiler.problem.ProblemReporter;
import org.eclipse.wst.jsdt.internal.compiler.util.HashtableOfObject;
import org.eclipse.wst.jsdt.internal.compiler.util.HashtableOfObjectToInt;
import org.eclipse.wst.jsdt.internal.compiler.util.Util;
import org.eclipse.wst.jsdt.internal.core.util.CommentRecorderParser;
/**
* A source element parser extracts structural and reference information
* from a piece of source.
*
* also see @ISourceElementRequestor
*
* The structural investigation includes:
* - the package statement
* - import statements
* - top-level types: package member, member types (member types of member types...)
* - fields
* - methods
*
* If reference information is requested, then all source constructs are
* investigated and type, field & method references are provided as well.
*
* Any (parsing) problem encountered is also provided.
*/
public class SourceElementParser extends CommentRecorderParser {
ISourceElementRequestor requestor;
ISourceType sourceType;
boolean reportReferenceInfo;
char[][] typeNames;
char[][] superTypeNames;
int nestedTypeIndex;
int nestedMethodIndex;
LocalDeclarationVisitor localDeclarationVisitor = null;
CompilerOptions options;
HashtableOfObjectToInt sourceEnds = new HashtableOfObjectToInt();
HashMap nodesToCategories = new HashMap(); // a map from ASTNode to char[][]
boolean useSourceJavadocParser = true;
HashtableOfObject notifiedTypes=new HashtableOfObject();
public static final boolean NOTIFY_LOCALS=false;
/**
* An ast visitor that visits local type declarations.
*/
public class LocalDeclarationVisitor extends ASTVisitor {
ArrayList declaringTypes;
public void pushDeclaringType(TypeDeclaration declaringType) {
if (this.declaringTypes == null) {
this.declaringTypes = new ArrayList();
}
this.declaringTypes.add(declaringType);
}
public void popDeclaringType() {
this.declaringTypes.remove(this.declaringTypes.size()-1);
}
public TypeDeclaration peekDeclaringType() {
if (this.declaringTypes == null) return null;
int size = this.declaringTypes.size();
if (size == 0) return null;
return (TypeDeclaration) this.declaringTypes.get(size-1);
}
public boolean visit(TypeDeclaration typeDeclaration, BlockScope scope) {
notifySourceElementRequestor(typeDeclaration, sourceType == null, peekDeclaringType());
return false; // don't visit members as this was done during notifySourceElementRequestor(...)
}
public boolean visit(TypeDeclaration typeDeclaration, ClassScope scope) {
notifySourceElementRequestor(typeDeclaration, sourceType == null, peekDeclaringType());
return false; // don't visit members as this was done during notifySourceElementRequestor(...)
}
public boolean visit(MethodDeclaration methodDeclaration, Scope scope) {
notifySourceElementRequestor(methodDeclaration);
return false;
}
}
/*
* Visitor for current context declaration.
*
* A context is defined by either the top level or a closure (function)
*/
protected ASTVisitor contextDeclarationNotifier = new ASTVisitor(){
public boolean visit(LocalDeclaration localDeclaration, BlockScope scope) {
if (NOTIFY_LOCALS || nestedMethodIndex==0)
notifySourceElementRequestor( localDeclaration, null );
return true;
}
/*
* Stop visiting here because the method opens a new context
*/
public boolean visit(MethodDeclaration methodDeclaration, Scope scope) {
//only functions with names are notified
nestedMethodIndex++;
if( methodDeclaration.selector != null && methodDeclaration.selector.length > 0 )
notifySourceElementRequestor( methodDeclaration );
return false;
}
/**
* <p>Visit assignments so that if the right hand side is a function it can be indexed
* with the right hand side used as the selector.</p>
*
* @see org.eclipse.wst.jsdt.internal.compiler.ASTVisitor#visit(org.eclipse.wst.jsdt.internal.compiler.ast.Assignment, org.eclipse.wst.jsdt.internal.compiler.lookup.BlockScope)
*/
public boolean visit(Assignment assignment, BlockScope scope) {
boolean keepVisiting = true;
IExpression righHandSide = assignment.getExpression();
if(righHandSide instanceof IFunctionExpression) {
IExpression leftHandSide = assignment.getLeftHandSide();
char[] selector = Util.getTypeName(leftHandSide);
MethodDeclaration methodDecl = ((IFunctionExpression) righHandSide).getMethodDeclaration();
if (selector != null && methodDecl.isConstructor()) {
notifySourceElementRequestor(methodDecl, selector);
}
}
return keepVisiting;
}
public void endVisit(MethodDeclaration methodDeclaration, Scope scope) {
nestedMethodIndex--;
}
};
public SourceElementParser(
final ISourceElementRequestor requestor,
IProblemFactory problemFactory,
CompilerOptions options,
boolean reportLocalDeclarations,
boolean optimizeStringLiterals) {
this(requestor, problemFactory, options, reportLocalDeclarations, optimizeStringLiterals, true/* use SourceJavadocParser */);
}
public SourceElementParser(
ISourceElementRequestor requestor,
IProblemFactory problemFactory,
CompilerOptions options,
boolean reportLocalDeclarations,
boolean optimizeStringLiterals,
boolean useSourceJavadocParser) {
super(
new ProblemReporter(
DefaultErrorHandlingPolicies.exitAfterAllProblems(),
options,
problemFactory),
optimizeStringLiterals);
// we want to notify all syntax error with the acceptProblem API
// To do so, we define the record method of the ProblemReporter
this.problemReporter = new ProblemReporter(
DefaultErrorHandlingPolicies.exitAfterAllProblems(),
options,
problemFactory) {
public void record(CategorizedProblem problem, CompilationResult unitResult, ReferenceContext context) {
unitResult.record(problem, context); // TODO (jerome) clients are trapping problems either through factory or requestor... is result storing needed?
SourceElementParser.this.requestor.acceptProblem(problem);
}
};
this.requestor = requestor;
typeNames = new char[4][];
superTypeNames = new char[4][];
nestedTypeIndex = 0;
this.options = options;
if (reportLocalDeclarations) {
this.localDeclarationVisitor = new LocalDeclarationVisitor();
}
// set specific javadoc parser
this.useSourceJavadocParser = useSourceJavadocParser;
if (useSourceJavadocParser) {
this.javadocParser = new SourceJavadocParser(this);
}
}
public void setRequestor(ISourceElementRequestor requestor) {
this.requestor = requestor;
notifiedTypes.clear();
}
private void acceptJavadocTypeReference(Expression expression) {
if (expression instanceof JavadocSingleTypeReference) {
JavadocSingleTypeReference singleRef = (JavadocSingleTypeReference) expression;
this.requestor.acceptTypeReference(singleRef.token, singleRef.sourceStart);
} else if (expression instanceof JavadocQualifiedTypeReference) {
JavadocQualifiedTypeReference qualifiedRef = (JavadocQualifiedTypeReference) expression;
this.requestor.acceptTypeReference(qualifiedRef.tokens, qualifiedRef.sourceStart, qualifiedRef.sourceEnd);
}
}
public void addUnknownRef(NameReference nameRef) {
// Note that:
// - the only requestor interested in references is the SourceIndexerRequestor
// - a name reference can become a type reference only during the cast case, it is then tagged later with the Binding.TYPE bit
// However since the indexer doesn't make the distinction between name reference and type reference, there is no need
// to report a type reference in the SourceElementParser.
// This gained 3.7% in the indexing performance test.
if (nameRef instanceof SingleNameReference) {
requestor.acceptUnknownReference(((SingleNameReference) nameRef).token, nameRef.sourceStart);
} else {
//QualifiedNameReference
requestor.acceptUnknownReference(((QualifiedNameReference) nameRef).tokens, nameRef.sourceStart, nameRef.sourceEnd);
}
}
public void checkComment() {
// discard obsolete comments while inside methods or fields initializer (see bug 74369)
// don't discard if the expression being worked on is an ObjectLiteral (see bug 322412 )
if (!(this.diet && this.dietInt == 0) && this.scanner.commentPtr >= 0 && !(expressionPtr >= 0 && expressionStack[expressionPtr] instanceof ObjectLiteral)) {
flushCommentsDefinedPriorTo(this.endStatementPosition);
}
int lastComment = this.scanner.commentPtr;
if (this.modifiersSourceStart >= 0) {
// eliminate comments located after modifierSourceStart if positionned
while (lastComment >= 0 && Math.abs(this.scanner.commentStarts[lastComment]) > this.modifiersSourceStart) lastComment--;
}
if (lastComment >= 0) {
// consider all remaining leading comments to be part of current declaration
this.modifiersSourceStart = Math.abs(this.scanner.commentStarts[0]);
// check deprecation in last comment if javadoc (can be followed by non-javadoc comments which are simply ignored)
while (lastComment >= 0 && this.scanner.commentStops[lastComment] < 0) lastComment--; // non javadoc comment have negative end positions
if (lastComment >= 0 && this.javadocParser != null) {
int commentEnd = this.scanner.commentStops[lastComment] - 1; //stop is one over,
// do not report problem before last parsed comment while recovering code...
this.javadocParser.reportProblems = this.currentElement == null || commentEnd > this.lastJavadocEnd;
if (this.javadocParser.checkDeprecation(lastComment)) {
checkAndSetModifiers(ClassFileConstants.AccDeprecated);
}
this.javadoc = this.javadocParser.docComment; // null if check javadoc is not activated
if (currentElement == null) this.lastJavadocEnd = commentEnd;
}
}
if (this.reportReferenceInfo && this.javadocParser.checkDocComment && this.javadoc != null) {
// Report reference info in javadoc comment @throws/@exception tags
TypeReference[] thrownExceptions = this.javadoc.exceptionReferences;
if (thrownExceptions != null) {
for (int i = 0, max=thrownExceptions.length; i < max; i++) {
TypeReference typeRef = thrownExceptions[i];
if (typeRef instanceof JavadocSingleTypeReference) {
JavadocSingleTypeReference singleRef = (JavadocSingleTypeReference) typeRef;
this.requestor.acceptTypeReference(singleRef.token, singleRef.sourceStart);
} else if (typeRef instanceof JavadocQualifiedTypeReference) {
JavadocQualifiedTypeReference qualifiedRef = (JavadocQualifiedTypeReference) typeRef;
this.requestor.acceptTypeReference(qualifiedRef.tokens, qualifiedRef.sourceStart, qualifiedRef.sourceEnd);
}
}
}
// Report reference info in javadoc comment @see tags
Expression[] references = this.javadoc.seeReferences;
if (references != null) {
for (int i = 0, max=references.length; i < max; i++) {
Expression reference = references[i];
acceptJavadocTypeReference(reference);
if (reference instanceof JavadocFieldReference) {
JavadocFieldReference fieldRef = (JavadocFieldReference) reference;
this.requestor.acceptFieldReference(fieldRef.token, fieldRef.sourceStart);
if (fieldRef.receiver != null && !fieldRef.receiver.isThis()) {
acceptJavadocTypeReference(fieldRef.receiver);
}
} else if (reference instanceof JavadocMessageSend) {
JavadocMessageSend messageSend = (JavadocMessageSend) reference;
int argCount = messageSend.arguments == null ? 0 : messageSend.arguments.length;
this.requestor.acceptMethodReference(messageSend.selector, argCount, messageSend.sourceStart);
this.requestor.acceptConstructorReference(messageSend.selector, argCount, messageSend.sourceStart);
if (messageSend.receiver != null && !messageSend.receiver.isThis()) {
acceptJavadocTypeReference(messageSend.receiver);
}
} else if (reference instanceof JavadocAllocationExpression) {
JavadocAllocationExpression constructor = (JavadocAllocationExpression) reference;
int argCount = constructor.arguments == null ? 0 : constructor.arguments.length;
if (constructor.type != null) {
char[][] compoundName = constructor.type.getTypeName();
this.requestor.acceptConstructorReference(compoundName[compoundName.length-1], argCount, constructor.sourceStart);
if (!constructor.type.isThis()) {
acceptJavadocTypeReference(constructor.type);
}
}
}
}
}
}
}
protected void classInstanceCreation(boolean alwaysQualified, boolean isShort) {
boolean previousFlag = reportReferenceInfo;
reportReferenceInfo = false; // not to see the type reference reported in super call to getTypeReference(...)
super.classInstanceCreation(alwaysQualified, isShort);
reportReferenceInfo = previousFlag;
if (reportReferenceInfo){
AllocationExpression alloc = (AllocationExpression)expressionStack[expressionPtr];
// TypeReference typeRef = alloc.type;
char [] name={};
if (alloc.member !=null)
{
name=Util.getTypeName(alloc.member);
}
else if (alloc.type!=null)
name= CharOperation.concatWith(alloc.type.getTypeName(), '.');
if (name!=null && name.length>0)
requestor.acceptConstructorReference(name,
// typeRef instanceof SingleTypeReference
// ? ((SingleTypeReference) typeRef).token
// : CharOperation.concatWith(alloc.type.getParameterizedTypeName(), '.'),
alloc.arguments == null ? 0 : alloc.arguments.length,
alloc.sourceStart);
}
}
protected void consumeExitVariableWithInitialization() {
// ExitVariableWithInitialization ::= $empty
// the scanner is located after the comma or the semi-colon.
// we want to include the comma or the semi-colon
super.consumeExitVariableWithInitialization();
if ((currentToken == TokenNameCOMMA || currentToken == TokenNameSEMICOLON)
&& this.astStack[this.astPtr] instanceof FieldDeclaration) {
this.sourceEnds.put(this.astStack[this.astPtr], this.scanner.currentPosition - 1);
rememberCategories();
}
}
protected void consumeExitVariableWithoutInitialization() {
// ExitVariableWithoutInitialization ::= $empty
// do nothing by default
super.consumeExitVariableWithoutInitialization();
if ((currentToken == TokenNameCOMMA || currentToken == TokenNameSEMICOLON)
&& astStack[astPtr] instanceof FieldDeclaration) {
this.sourceEnds.put(this.astStack[this.astPtr], this.scanner.currentPosition - 1);
rememberCategories();
}
}
protected void consumeCallExpressionWithSimpleName() {
super.consumeCallExpressionWithSimpleName();
FieldReference fr = (FieldReference) expressionStack[expressionPtr];
if (reportReferenceInfo) {
requestor.acceptFieldReference(fr.token, fr.sourceStart);
}
}
protected void consumeMemberExpressionWithSimpleName() {
super.consumeMemberExpressionWithSimpleName();
FieldReference fr = (FieldReference) expressionStack[expressionPtr];
if (reportReferenceInfo) {
requestor.acceptFieldReference(fr.token, fr.sourceStart);
}
}
protected void consumeFormalParameter(boolean isVarArgs) {
super.consumeFormalParameter(isVarArgs);
// Flush comments prior to this formal parameter so the declarationSourceStart of the following parameter
// is correctly set (see bug 80904)
// Note that this could be done in the Parser itself, but this would slow down all parsers, when they don't need
// the declarationSourceStart to be set
flushCommentsDefinedPriorTo(this.scanner.currentPosition);
}
protected void consumeMethodHeaderName(boolean isAnonymousMethod) {
long selectorSourcePositions = (isAnonymousMethod) ? this.lParenPos
:this.identifierPositionStack[this.identifierPtr];
int selectorSourceEnd = (int) selectorSourcePositions;
int currentAstPtr = this.astPtr;
super.consumeMethodHeaderName(isAnonymousMethod);
if (this.astPtr > currentAstPtr) { // if ast node was pushed on the ast stack
this.sourceEnds.put(this.astStack[this.astPtr], selectorSourceEnd);
rememberCategories();
}
}
protected void consumeCallExpressionWithArguments() {
super.consumeCallExpressionWithArguments();
MessageSend messageSend = (MessageSend) expressionStack[expressionPtr];
Expression[] args = messageSend.arguments;
if (reportReferenceInfo) {
requestor.acceptMethodReference(
messageSend.selector,
args == null ? 0 : args.length,
(int)(messageSend.nameSourcePosition >>> 32));
}
}
public MethodDeclaration convertToMethodDeclaration(ConstructorDeclaration c, CompilationResult compilationResult) {
MethodDeclaration methodDeclaration = super.convertToMethodDeclaration(c, compilationResult);
int selectorSourceEnd = this.sourceEnds.removeKey(c);
if (selectorSourceEnd != -1)
this.sourceEnds.put(methodDeclaration, selectorSourceEnd);
char[][] categories = (char[][]) this.nodesToCategories.remove(c);
if (categories != null)
this.nodesToCategories.put(methodDeclaration, categories);
return methodDeclaration;
}
protected CompilationUnitDeclaration endParse(int act) {
if (compilationUnit != null) {
CompilationUnitDeclaration result = super.endParse(act);
return result;
} else {
return null;
}
}
public TypeReference getTypeReference(int dim) {
/* build a Reference on a variable that may be qualified or not
* This variable is a type reference and dim will be its dimensions
*/
int length = identifierLengthStack[identifierLengthPtr--];
if (length < 0) { //flag for precompiled type reference on base types
TypeReference ref = TypeReference.baseTypeReference(-length, dim);
ref.sourceStart = intStack[intPtr--];
if (dim == 0) {
ref.sourceEnd = intStack[intPtr--];
} else {
intPtr--; // no need to use this position as it is an array
ref.sourceEnd = endPosition;
}
if (reportReferenceInfo){
requestor.acceptTypeReference(ref.getTypeName(), ref.sourceStart, ref.sourceEnd);
}
return ref;
} else {
int numberOfIdentifiers = this.genericsIdentifiersLengthStack[this.genericsIdentifiersLengthPtr--];
if (length != numberOfIdentifiers || this.genericsLengthStack[this.genericsLengthPtr] != 0) {
// generic type
TypeReference ref = null;
return ref;
} else if (length == 1) {
// single variable reference
this.genericsLengthPtr--; // pop the 0
if (dim == 0) {
SingleTypeReference ref =
new SingleTypeReference(
identifierStack[identifierPtr],
identifierPositionStack[identifierPtr--]);
if (reportReferenceInfo) {
requestor.acceptTypeReference(ref.token, ref.sourceStart);
}
return ref;
} else {
ArrayTypeReference ref =
new ArrayTypeReference(
identifierStack[identifierPtr],
dim,
identifierPositionStack[identifierPtr--]);
ref.sourceEnd = endPosition;
if (reportReferenceInfo) {
requestor.acceptTypeReference(ref.token, ref.sourceStart);
}
return ref;
}
} else {//Qualified variable reference
this.genericsLengthPtr--;
char[][] tokens = new char[length][];
identifierPtr -= length;
long[] positions = new long[length];
System.arraycopy(identifierStack, identifierPtr + 1, tokens, 0, length);
System.arraycopy(
identifierPositionStack,
identifierPtr + 1,
positions,
0,
length);
if (dim == 0) {
QualifiedTypeReference ref = new QualifiedTypeReference(tokens, positions);
if (reportReferenceInfo) {
requestor.acceptTypeReference(ref.tokens, ref.sourceStart, ref.sourceEnd);
}
return ref;
} else {
ArrayQualifiedTypeReference ref =
new ArrayQualifiedTypeReference(tokens, dim, positions);
ref.sourceEnd = endPosition;
if (reportReferenceInfo) {
requestor.acceptTypeReference(ref.tokens, ref.sourceStart, ref.sourceEnd);
}
return ref;
}
}
}
}
public NameReference getUnspecifiedReference() {
/* build a (unspecified) NameReference which may be qualified*/
int length;
if ((length = identifierLengthStack[identifierLengthPtr--]) == 1) {
// single variable reference
SingleNameReference ref =
newSingleNameReference(
identifierStack[identifierPtr],
identifierPositionStack[identifierPtr--]);
if (reportReferenceInfo) {
this.addUnknownRef(ref);
}
return ref;
} else {
//Qualified variable reference
char[][] tokens = new char[length][];
identifierPtr -= length;
System.arraycopy(identifierStack, identifierPtr + 1, tokens, 0, length);
long[] positions = new long[length];
System.arraycopy(identifierPositionStack, identifierPtr + 1, positions, 0, length);
QualifiedNameReference ref =
newQualifiedNameReference(
tokens,
positions,
(int) (identifierPositionStack[identifierPtr + 1] >> 32), // sourceStart
(int) identifierPositionStack[identifierPtr + length]); // sourceEnd
if (reportReferenceInfo) {
this.addUnknownRef(ref);
}
return ref;
}
}
public NameReference getUnspecifiedReferenceOptimized() {
/* build a (unspecified) NameReference which may be qualified
The optimization occurs for qualified reference while we are
certain in this case the last item of the qualified name is
a field access. This optimization is IMPORTANT while it results
that when a NameReference is build, the type checker should always
look for that it is not a type reference */
int length;
if ((length = identifierLengthStack[identifierLengthPtr--]) == 1) {
// single variable reference
SingleNameReference ref =
newSingleNameReference(
identifierStack[identifierPtr],
identifierPositionStack[identifierPtr--]);
ref.bits &= ~ASTNode.RestrictiveFlagMASK;
ref.bits |= Binding.LOCAL | Binding.FIELD;
if (reportReferenceInfo) {
this.addUnknownRef(ref);
}
return ref;
}
//Qualified-variable-reference
//In fact it is variable-reference DOT field-ref , but it would result in a type
//conflict tha can be only reduce by making a superclass (or inetrface ) between
//nameReference and FiledReference or putting FieldReference under NameReference
//or else..........This optimisation is not really relevant so just leave as it is
char[][] tokens = new char[length][];
identifierPtr -= length;
System.arraycopy(identifierStack, identifierPtr + 1, tokens, 0, length);
long[] positions = new long[length];
System.arraycopy(identifierPositionStack, identifierPtr + 1, positions, 0, length);
QualifiedNameReference ref =
newQualifiedNameReference(
tokens,
positions,
(int) (identifierPositionStack[identifierPtr + 1] >> 32),
// sourceStart
(int) identifierPositionStack[identifierPtr + length]); // sourceEnd
ref.bits &= ~ASTNode.RestrictiveFlagMASK;
ref.bits |= Binding.LOCAL | Binding.FIELD;
if (reportReferenceInfo) {
this.addUnknownRef(ref);
}
return ref;
}
protected ImportReference newImportReference(char[][] tokens, long[] positions, boolean onDemand) {
return new ImportReference(tokens, positions, onDemand);
}
protected QualifiedNameReference newQualifiedNameReference(char[][] tokens, long[] positions, int sourceStart, int sourceEnd) {
return new QualifiedNameReference(tokens, positions, sourceStart, sourceEnd);
}
protected SingleNameReference newSingleNameReference(char[] source, long positions) {
return new SingleNameReference(source, positions);
}
/*
* Update the bodyStart of the corresponding parse node
*/
public void notifySourceElementRequestor(CompilationUnitDeclaration parsedUnit) {
if (parsedUnit == null) {
// when we parse a single type member declaration the compilation unit is null, but we still
// want to be able to notify the requestor on the created ast node
if (astStack[0] instanceof AbstractMethodDeclaration) {
notifySourceElementRequestor((AbstractMethodDeclaration) astStack[0]);
return;
}
return;
}
inferTypes(parsedUnit,this.options);
// range check
boolean isInRange =
scanner.initialPosition <= parsedUnit.sourceStart
&& scanner.eofPosition >= parsedUnit.sourceEnd;
// collect the top level ast nodes
if (sourceType == null){
if (isInRange) {
requestor.enterCompilationUnit();
}
}
//visit each statement to notify context declarations
if( parsedUnit.statements != null ){
for( int i=0; i<parsedUnit.statements.length; i++ ){
parsedUnit.statements[i].traverse( contextDeclarationNotifier, parsedUnit.scope );
}
}
for (int inx=0;inx<parsedUnit.numberInferredTypes;inx++) {
InferredType type = parsedUnit.inferredTypes[inx];
notifySourceElementRequestor(type);
}
if (sourceType == null){
if (isInRange) {
requestor.exitCompilationUnit(parsedUnit.sourceEnd);
}
}
}
public void notifySourceElementRequestor( InferredType type ) {
if ( !type.isDefinition || type.isEmptyGlobal())
return;
if (type.isAnonymous && !type.isNamed() && !type.isObjectLiteral)
return;
// prevent possible recurrsion
if (notifiedTypes.containsKey(type.getName()))
return;
notifiedTypes.put(type.getName(), null);
ISourceElementRequestor.TypeInfo typeInfo = new ISourceElementRequestor.TypeInfo();
typeInfo.declarationStart = type.sourceStart;
typeInfo.modifiers = 0;
typeInfo.name = type.getName();
typeInfo.nameSourceStart = type.getNameStart();
if(type.isObjectLiteral) {
typeInfo.nameSourceEnd = type.sourceEnd;
} else {
typeInfo.nameSourceEnd = typeInfo.nameSourceStart+typeInfo.name.length-1;
}
typeInfo.superclass = type.getSuperClassName();
typeInfo.secondary = false;
typeInfo.anonymousMember = type.isAnonymous;
requestor.enterType(typeInfo);
for (int attributeInx=0; attributeInx<type.numberAttributes; attributeInx++) {
InferredAttribute field = type.attributes[attributeInx];
ISourceElementRequestor.FieldInfo fieldInfo = new ISourceElementRequestor.FieldInfo();
fieldInfo.declarationStart = field.sourceStart();
fieldInfo.name = field.name;
fieldInfo.modifiers = field.modifiers;
if (field.isStatic)
fieldInfo.modifiers |= ClassFileConstants.AccStatic;
fieldInfo.nameSourceStart = field.nameStart;
fieldInfo.nameSourceEnd = field.nameStart+field.name.length-1;
fieldInfo.type = field.type!=null ? field.type.getName():null;
requestor.enterField(fieldInfo);
//If this field is of an anonymous type, need to notify so that it shows as a child
if( field.type != null && field.type.isAnonymous && !field.type.isNamed() ){
notifySourceElementRequestor( field.type );
}
int initializationStart=field.initializationStart;
requestor.exitField(initializationStart,field.sourceEnd(),field.sourceEnd());
}
if (type.methods!=null)
for (Iterator iterator = type.methods.iterator(); iterator.hasNext();) {
InferredMethod method = (InferredMethod) iterator.next();
ISourceElementRequestor.MethodInfo methodInfo = new ISourceElementRequestor.MethodInfo();
methodInfo.isConstructor = method.isConstructor;
MethodDeclaration methodDeclaration=(MethodDeclaration)method.getFunctionDeclaration();
char[][] argumentTypes = null;
char[][] argumentNames = null;
Argument[] arguments = methodDeclaration.arguments;
if (arguments != null) {
int argumentLength = arguments.length;
argumentTypes = new char[argumentLength][];
argumentNames = new char[argumentLength][];
for (int i = 0; i < argumentLength; i++) {
if (arguments[i].type!=null) {
argumentTypes[i] = CharOperation.concatWith(arguments[i].type.getTypeName(), '.');
} else if(arguments[i].inferredType != null) {
argumentTypes[i] = arguments[i].inferredType.getName();
}
argumentNames[i] = arguments[i].name;
}
}
methodInfo.declarationStart = methodDeclaration.declarationSourceStart;
methodInfo.modifiers = methodDeclaration.modifiers;
if (method.isStatic) {
methodInfo.modifiers |= ClassFileConstants.AccStatic;
}
methodInfo.returnType = methodDeclaration.inferredType == null ?
null : methodDeclaration.inferredType.getName();
methodInfo.name =method.name;
methodInfo.nameSourceStart = method.nameStart;
methodInfo.nameSourceEnd = method.nameStart+method.name.length-1;
methodInfo.parameterTypes = argumentTypes;
methodInfo.parameterNames = argumentNames;
methodInfo.categories = (char[][]) this.nodesToCategories.get(methodDeclaration);
//enter either constructor or method where appropriate
if(methodInfo.isConstructor) {
requestor.enterConstructor(methodInfo);
} else {
requestor.enterMethod(methodInfo);
}
visitIfNeeded( (MethodDeclaration)method.getFunctionDeclaration() );
requestor.exitMethod(methodDeclaration.declarationSourceEnd, -1, -1);
}
requestor.exitType(type.sourceEnd);
}
/**
* <p>Notifies the requester of a method declaration using the {@link AbstractMethodDeclaration#selector} as the
* selector to notify with.</p>
*
* @param methodDeclaration to notify the requester of
*
* @see #notifySourceElementRequestor(AbstractMethodDeclaration, char[])
*/
public void notifySourceElementRequestor(AbstractMethodDeclaration methodDeclaration) {
this.notifySourceElementRequestor(methodDeclaration, methodDeclaration.selector);
}
/**
* <p>Notifies the requester of a method declaration using the given selector rather then the selector set
* on the declaration itself.</p>
*
* <p>This is useful when the selector on the declaration is not set but it can be pre-determined some other way.</p>
*
* @param methodDeclaration to notify the requester of
* @param selector to use when notifying the requester of the given <code>methodDeclaration</code>
*/
public void notifySourceElementRequestor(AbstractMethodDeclaration methodDeclaration, char[] selector) {
this.nestedMethodIndex++;
// range check
boolean isInRange =
scanner.initialPosition <= methodDeclaration.declarationSourceStart
&& scanner.eofPosition >= methodDeclaration.declarationSourceEnd;
if (methodDeclaration.isClinit()) {
this.visitIfNeeded(methodDeclaration);
this.nestedMethodIndex--;
return;
}
if (methodDeclaration.isDefaultConstructor()) {
if (reportReferenceInfo) {
ConstructorDeclaration constructorDeclaration = (ConstructorDeclaration) methodDeclaration;
ExplicitConstructorCall constructorCall = constructorDeclaration.constructorCall;
if (constructorCall != null) {
switch(constructorCall.accessMode) {
case ExplicitConstructorCall.This :
requestor.acceptConstructorReference(
typeNames[nestedTypeIndex-1],
constructorCall.arguments == null ? 0 : constructorCall.arguments.length,
constructorCall.sourceStart);
break;
case ExplicitConstructorCall.ImplicitSuper :
requestor.acceptConstructorReference(
superTypeNames[nestedTypeIndex-1],
constructorCall.arguments == null ? 0 : constructorCall.arguments.length,
constructorCall.sourceStart);
break;
}
}
}
this.nestedMethodIndex--;
return;
}
char[][] argumentTypes = null;
char[][] argumentNames = null;
boolean isVarArgs = false;
Argument[] arguments = methodDeclaration.arguments;
if (arguments != null) {
int argumentLength = arguments.length;
argumentTypes = new char[argumentLength][];
argumentNames = new char[argumentLength][];
for (int i = 0; i < argumentLength; i++) {
if (arguments[i].type!=null) {
argumentTypes[i] = CharOperation.concatWith(arguments[i].type.getTypeName(), '.');
} else if(arguments[i].inferredType != null) {
argumentTypes[i] = arguments[i].inferredType.getName();
}
argumentNames[i] = arguments[i].name;
}
isVarArgs = arguments[argumentLength-1].isVarArgs();
}
// by default no selector end position
int selectorSourceEnd = -1;
if (methodDeclaration.isConstructor()) {
selectorSourceEnd = this.sourceEnds.get(methodDeclaration);
if (isInRange){
int currentModifiers = methodDeclaration.modifiers;
if (isVarArgs)
currentModifiers |= ClassFileConstants.AccVarargs;
// remember deprecation so as to not lose it below
boolean deprecated = (currentModifiers & ClassFileConstants.AccDeprecated) != 0;
ISourceElementRequestor.MethodInfo methodInfo = new ISourceElementRequestor.MethodInfo();
methodInfo.isConstructor = true;
methodInfo.declarationStart = methodDeclaration.declarationSourceStart;
methodInfo.modifiers = deprecated ? (currentModifiers & ExtraCompilerModifiers.AccJustFlag) | ClassFileConstants.AccDeprecated : currentModifiers & ExtraCompilerModifiers.AccJustFlag;
methodInfo.name = selector;
methodInfo.nameSourceStart = methodDeclaration.sourceStart;
methodInfo.nameSourceEnd = selectorSourceEnd;
methodInfo.parameterTypes = argumentTypes;
methodInfo.parameterNames = argumentNames;
methodInfo.categories = (char[][]) this.nodesToCategories.get(methodDeclaration);
requestor.enterConstructor(methodInfo);
}
/* need this check because a constructor could have been made a constructor after the
* method declaration was created, and thus it is not a ConstructorDeclaration
*/
if (reportReferenceInfo && methodDeclaration instanceof ConstructorDeclaration) {
ConstructorDeclaration constructorDeclaration = (ConstructorDeclaration) methodDeclaration;
ExplicitConstructorCall constructorCall = constructorDeclaration.constructorCall;
if (constructorCall != null) {
switch(constructorCall.accessMode) {
case ExplicitConstructorCall.This :
requestor.acceptConstructorReference(
typeNames[nestedTypeIndex-1],
constructorCall.arguments == null ? 0 : constructorCall.arguments.length,
constructorCall.sourceStart);
break;
case ExplicitConstructorCall.ImplicitSuper :
requestor.acceptConstructorReference(
superTypeNames[nestedTypeIndex-1],
constructorCall.arguments == null ? 0 : constructorCall.arguments.length,
constructorCall.sourceStart);
break;
}
}
}
this.visitIfNeeded(methodDeclaration);
if (isInRange){
requestor.exitConstructor(methodDeclaration.declarationSourceEnd);
}
this.nestedMethodIndex--;
return;
}
selectorSourceEnd = this.sourceEnds.get(methodDeclaration);
if (isInRange) {
int currentModifiers = methodDeclaration.modifiers;
if (isVarArgs)
currentModifiers |= ClassFileConstants.AccVarargs;
// remember deprecation so as to not lose it below
boolean deprecated = (currentModifiers & ClassFileConstants.AccDeprecated) != 0;
InferredType returnType = methodDeclaration instanceof MethodDeclaration
? ((MethodDeclaration) methodDeclaration).inferredType
: null;
ISourceElementRequestor.MethodInfo methodInfo = new ISourceElementRequestor.MethodInfo();
methodInfo.declarationStart = methodDeclaration.declarationSourceStart;
methodInfo.modifiers = deprecated ? (currentModifiers & ExtraCompilerModifiers.AccJustFlag) | ClassFileConstants.AccDeprecated : currentModifiers & ExtraCompilerModifiers.AccJustFlag;
methodInfo.returnType = returnType == null ? null : returnType.getName();
methodInfo.name = selector;
methodInfo.nameSourceStart = methodDeclaration.sourceStart;
methodInfo.nameSourceEnd = selectorSourceEnd;
methodInfo.parameterTypes = argumentTypes;
methodInfo.parameterNames = argumentNames;
methodInfo.categories = (char[][]) this.nodesToCategories.get(methodDeclaration);
requestor.enterMethod(methodInfo);
}
this.visitIfNeeded(methodDeclaration);
if (isInRange) {
requestor.exitMethod(methodDeclaration.declarationSourceEnd, -1, -1);
}
this.nestedMethodIndex--;
}
/*
* Update the bodyStart of the corresponding parse node
*/
public void notifySourceElementRequestor(AbstractVariableDeclaration fieldDeclaration, TypeDeclaration declaringType) {
// range check
boolean isInRange =
scanner.initialPosition <= fieldDeclaration.declarationSourceStart
&& scanner.eofPosition >= fieldDeclaration.declarationSourceEnd;
switch(fieldDeclaration.getKind()) {
case AbstractVariableDeclaration.FIELD:
case AbstractVariableDeclaration.LOCAL_VARIABLE:
int fieldEndPosition = this.sourceEnds.get(fieldDeclaration);
if (fieldEndPosition == -1) {
// use the declaration source end by default
fieldEndPosition = fieldDeclaration.declarationSourceEnd;
}
MethodDeclaration methodDeclaration = null;
if (isInRange) {
int currentModifiers = fieldDeclaration.modifiers;
// remember deprecation so as to not lose it below
boolean deprecated = (currentModifiers & ClassFileConstants.AccDeprecated) != 0;
if (fieldDeclaration.initialization instanceof FunctionExpression) {
methodDeclaration=((FunctionExpression)fieldDeclaration.initialization).methodDeclaration;
} else if (fieldDeclaration.initialization instanceof Assignment &&
((Assignment)fieldDeclaration.initialization).getExpression() instanceof FunctionExpression) {
methodDeclaration=((FunctionExpression)((Assignment)fieldDeclaration.initialization).getExpression()).methodDeclaration;
}
/* if the variable declaration has a method declaration on the right hand side notify of the declaration using the variable name as the method selector
* else notify of a field declaration
*/
if (methodDeclaration!=null) {
this.notifySourceElementRequestor(methodDeclaration, fieldDeclaration.getName());
}
else
{
ISourceElementRequestor.FieldInfo fieldInfo = new ISourceElementRequestor.FieldInfo();
fieldInfo.declarationStart = fieldDeclaration.declarationSourceStart;
fieldInfo.name = fieldDeclaration.name;
fieldInfo.modifiers = deprecated ? (currentModifiers & ExtraCompilerModifiers.AccJustFlag)
| ClassFileConstants.AccDeprecated
: currentModifiers & ExtraCompilerModifiers.AccJustFlag;
fieldInfo.type = fieldDeclaration.inferredType != null ? fieldDeclaration.inferredType
.getName()
: null;
fieldInfo.nameSourceStart = fieldDeclaration.sourceStart;
fieldInfo.nameSourceEnd = fieldDeclaration.sourceEnd;
fieldInfo.categories = (char[][]) this.nodesToCategories
.get(fieldDeclaration);
requestor.enterField(fieldInfo);
//If this field is of an anonymous type, need to notify so that it shows as a child
if (fieldDeclaration.inferredType != null
&& fieldDeclaration.inferredType.isAnonymous) {
notifySourceElementRequestor(fieldDeclaration.inferredType);
}
}
}
this.visitIfNeeded(fieldDeclaration, declaringType);
if (isInRange){
if (methodDeclaration == null) {
requestor.exitField(
// filter out initializations that are not a constant (simple check)
(fieldDeclaration.initialization == null
|| fieldDeclaration.initialization instanceof ArrayInitializer
|| fieldDeclaration.initialization instanceof AllocationExpression
|| fieldDeclaration.initialization instanceof ArrayAllocationExpression
|| fieldDeclaration.initialization instanceof Assignment
|| fieldDeclaration.initialization instanceof ClassLiteralAccess
|| fieldDeclaration.initialization instanceof MessageSend
|| fieldDeclaration.initialization instanceof ArrayReference
|| fieldDeclaration.initialization instanceof ThisReference) ?
-1 :
fieldDeclaration.initialization.sourceStart,
fieldEndPosition,
fieldDeclaration.declarationSourceEnd);
}
}
break;
case AbstractVariableDeclaration.INITIALIZER:
if (isInRange){
requestor.enterInitializer(
fieldDeclaration.declarationSourceStart,
fieldDeclaration.modifiers);
}
this.visitIfNeeded((Initializer)fieldDeclaration);
if (isInRange){
requestor.exitInitializer(fieldDeclaration.declarationSourceEnd);
}
break;
}
}
public void notifySourceElementRequestor(
ImportReference importReference,
boolean isPackage) {
requestor.acceptImport(
importReference.declarationSourceStart,
importReference.declarationSourceEnd,
importReference.tokens,
(importReference.bits & ASTNode.OnDemand) != 0);
}
public void notifySourceElementRequestor(TypeDeclaration typeDeclaration, boolean notifyTypePresence, TypeDeclaration declaringType) {
if (CharOperation.equals(TypeConstants.PACKAGE_INFO_NAME, typeDeclaration.name)) return;
// range check
boolean isInRange =
scanner.initialPosition <= typeDeclaration.declarationSourceStart
&& scanner.eofPosition >= typeDeclaration.declarationSourceEnd;
FieldDeclaration[] fields = typeDeclaration.fields;
AbstractMethodDeclaration[] methods = typeDeclaration.methods;
TypeDeclaration[] memberTypes = typeDeclaration.memberTypes;
int fieldCounter = fields == null ? 0 : fields.length;
int methodCounter = methods == null ? 0 : methods.length;
int memberTypeCounter = memberTypes == null ? 0 : memberTypes.length;
int fieldIndex = 0;
int methodIndex = 0;
int memberTypeIndex = 0;
if (notifyTypePresence){
int kind = TypeDeclaration.kind(typeDeclaration.modifiers);
char[] implicitSuperclassName = TypeConstants.CharArray_JAVA_LANG_OBJECT;
if (isInRange) {
int currentModifiers = typeDeclaration.modifiers;
// remember deprecation so as to not lose it below
boolean deprecated = (currentModifiers & ClassFileConstants.AccDeprecated) != 0;
char[] superclassName;
TypeReference superclass = typeDeclaration.superclass;
superclassName = superclass != null ? CharOperation.concatWith(superclass.getTypeName(), '.') : null;
ISourceElementRequestor.TypeInfo typeInfo = new ISourceElementRequestor.TypeInfo();
typeInfo.declarationStart = typeDeclaration.declarationSourceStart;
typeInfo.modifiers = deprecated ? (currentModifiers & ExtraCompilerModifiers.AccJustFlag) | ClassFileConstants.AccDeprecated : currentModifiers & ExtraCompilerModifiers.AccJustFlag;
typeInfo.name = typeDeclaration.name;
typeInfo.nameSourceStart = typeDeclaration.sourceStart;
typeInfo.nameSourceEnd = sourceEnd(typeDeclaration);
typeInfo.superclass = superclassName;
typeInfo.categories = (char[][]) this.nodesToCategories.get(typeDeclaration);
typeInfo.secondary = typeDeclaration.isSecondary();
typeInfo.anonymousMember = typeDeclaration.allocation != null && typeDeclaration.allocation.enclosingInstance != null;
requestor.enterType(typeInfo);
switch (kind) {
case TypeDeclaration.CLASS_DECL :
if (superclassName != null)
implicitSuperclassName = superclassName;
break;
}
}
if (this.nestedTypeIndex == this.typeNames.length) {
// need a resize
System.arraycopy(this.typeNames, 0, (this.typeNames = new char[this.nestedTypeIndex * 2][]), 0, this.nestedTypeIndex);
System.arraycopy(this.superTypeNames, 0, (this.superTypeNames = new char[this.nestedTypeIndex * 2][]), 0, this.nestedTypeIndex);
}
this.typeNames[this.nestedTypeIndex] = typeDeclaration.name;
this.superTypeNames[this.nestedTypeIndex++] = implicitSuperclassName;
}
while ((fieldIndex < fieldCounter)
|| (memberTypeIndex < memberTypeCounter)
|| (methodIndex < methodCounter)) {
FieldDeclaration nextFieldDeclaration = null;
AbstractMethodDeclaration nextMethodDeclaration = null;
TypeDeclaration nextMemberDeclaration = null;
int position = Integer.MAX_VALUE;
int nextDeclarationType = -1;
if (fieldIndex < fieldCounter) {
nextFieldDeclaration = fields[fieldIndex];
if (nextFieldDeclaration.declarationSourceStart < position) {
position = nextFieldDeclaration.declarationSourceStart;
nextDeclarationType = 0; // FIELD
}
}
if (methodIndex < methodCounter) {
nextMethodDeclaration = methods[methodIndex];
if (nextMethodDeclaration.declarationSourceStart < position) {
position = nextMethodDeclaration.declarationSourceStart;
nextDeclarationType = 1; // METHOD
}
}
if (memberTypeIndex < memberTypeCounter) {
nextMemberDeclaration = memberTypes[memberTypeIndex];
if (nextMemberDeclaration.declarationSourceStart < position) {
position = nextMemberDeclaration.declarationSourceStart;
nextDeclarationType = 2; // MEMBER
}
}
switch (nextDeclarationType) {
case 0 :
fieldIndex++;
notifySourceElementRequestor(nextFieldDeclaration, typeDeclaration);
break;
case 1 :
methodIndex++;
notifySourceElementRequestor(nextMethodDeclaration);
break;
case 2 :
memberTypeIndex++;
notifySourceElementRequestor(nextMemberDeclaration, true, null);
}
}
if (notifyTypePresence){
if (isInRange){
requestor.exitType(typeDeclaration.declarationSourceEnd);
}
nestedTypeIndex--;
}
}
public void parseCompilationUnit(
ICompilationUnit unit,
int start,
int end,
boolean fullParse) {
this.reportReferenceInfo = fullParse;
boolean old = diet;
try {
diet = true;
CompilationResult compilationUnitResult = new CompilationResult(unit, 0, 0, this.options.maxProblemsPerUnit);
CompilationUnitDeclaration parsedUnit = parse(unit, compilationUnitResult, start, end);
if (scanner.recordLineSeparator) {
requestor.acceptLineSeparatorPositions(compilationUnitResult.getLineSeparatorPositions());
}
if (this.localDeclarationVisitor != null || fullParse){
diet = false;
this.getMethodBodies(parsedUnit);
}
this.scanner.resetTo(start, end);
notifySourceElementRequestor(parsedUnit);
} catch (AbortCompilation e) {
// ignore this exception
} finally {
diet = old;
reset();
}
}
public CompilationUnitDeclaration parseCompilationUnit(
ICompilationUnit unit,
boolean fullParse) {
boolean old = diet;
try {
diet = DO_DIET_PARSE;
this.reportReferenceInfo = fullParse;
CompilationResult compilationUnitResult = new CompilationResult(unit, 0, 0, this.options.maxProblemsPerUnit);
CompilationUnitDeclaration parsedUnit = parse(unit, compilationUnitResult);
if (scanner.recordLineSeparator) {
requestor.acceptLineSeparatorPositions(compilationUnitResult.getLineSeparatorPositions());
}
int initialStart = this.scanner.initialPosition;
int initialEnd = this.scanner.eofPosition;
if (this.localDeclarationVisitor != null || fullParse){
diet = false;
this.getMethodBodies(parsedUnit);
}
this.scanner.resetTo(initialStart, initialEnd);
notifySourceElementRequestor(parsedUnit);
return parsedUnit;
} catch (AbortCompilation e) {
// ignore this exception
} finally {
diet = old;
reset();
}
return null;
}
public void parseTypeMemberDeclarations(
ISourceType type,
ICompilationUnit sourceUnit,
int start,
int end,
boolean needReferenceInfo) {
boolean old = diet;
CompilationResult compilationUnitResult =
new CompilationResult(sourceUnit, 0, 0, this.options.maxProblemsPerUnit);
try {
diet = !needReferenceInfo;
reportReferenceInfo = needReferenceInfo;
CompilationUnitDeclaration unit =
SourceTypeConverter.buildCompilationUnit(
new ISourceType[]{type},
// no need for field and methods
// no need for member types
// no need for field initialization
SourceTypeConverter.NONE,
problemReporter(),
compilationUnitResult);
if ((unit == null) || (unit.types == null) || (unit.types.length != 1))
return;
this.sourceType = type;
try {
/* automaton initialization */
initialize();
goForClassBodyDeclarations();
/* scanner initialization */
scanner.setSource(sourceUnit.getContents());
scanner.resetTo(start, end);
/* unit creation */
referenceContext = compilationUnit = unit;
/* initialize the astStacl */
// the compilationUnitDeclaration should contain exactly one type
pushOnAstStack(unit.types[0]);
/* run automaton */
parse();
notifySourceElementRequestor(unit);
} finally {
unit = compilationUnit;
compilationUnit = null; // reset parser
}
} catch (AbortCompilation e) {
// ignore this exception
} finally {
if (scanner.recordLineSeparator) {
requestor.acceptLineSeparatorPositions(compilationUnitResult.getLineSeparatorPositions());
}
diet = old;
reset();
}
}
public void parseTypeMemberDeclarations(
char[] contents,
int start,
int end) {
boolean old = diet;
try {
diet = true;
/* automaton initialization */
initialize();
goForClassBodyDeclarations();
/* scanner initialization */
scanner.setSource(contents);
scanner.recordLineSeparator = false;
scanner.taskTags = null;
scanner.taskPriorities = null;
scanner.resetTo(start, end);
/* unit creation */
referenceContext = null;
/* initialize the astStacl */
// the compilationUnitDeclaration should contain exactly one type
/* run automaton */
parse();
notifySourceElementRequestor((CompilationUnitDeclaration)null);
} catch (AbortCompilation e) {
// ignore this exception
} finally {
diet = old;
reset();
}
}
/*
* Sort the given ast nodes by their positions.
*/
//private static void quickSort(ASTNode[] sortedCollection, int left, int right) {
// int original_left = left;
// int original_right = right;
// ASTNode mid = sortedCollection[ left + (right - left) / 2];
// do {
// while (sortedCollection[left].sourceStart < mid.sourceStart) {
// left++;
// }
// while (mid.sourceStart < sortedCollection[right].sourceStart) {
// right--;
// }
// if (left <= right) {
// ASTNode tmp = sortedCollection[left];
// sortedCollection[left] = sortedCollection[right];
// sortedCollection[right] = tmp;
// left++;
// right--;
// }
// } while (left <= right);
// if (original_left < right) {
// quickSort(sortedCollection, original_left, right);
// }
// if (left < original_right) {
// quickSort(sortedCollection, left, original_right);
// }
//}
private void rememberCategories() {
if (this.useSourceJavadocParser) {
SourceJavadocParser sourceJavadocParser = (SourceJavadocParser) this.javadocParser;
char[][] categories = sourceJavadocParser.categories;
if (categories.length > 0) {
this.nodesToCategories.put(this.astStack[this.astPtr], categories);
sourceJavadocParser.categories = CharOperation.NO_CHAR_CHAR;
}
}
}
private void reset() {
this.sourceEnds = new HashtableOfObjectToInt();
this.nodesToCategories = new HashMap();
typeNames = new char[4][];
superTypeNames = new char[4][];
nestedTypeIndex = 0;
}
private int sourceEnd(TypeDeclaration typeDeclaration) {
if ((typeDeclaration.bits & ASTNode.IsAnonymousType) != 0) {
QualifiedAllocationExpression allocation = typeDeclaration.allocation;
if (allocation.type == null) // case of enum constant body
return typeDeclaration.sourceEnd;
return allocation.type.sourceEnd;
} else {
return typeDeclaration.sourceEnd;
}
}
private void visitIfNeeded(AbstractMethodDeclaration method) {
if (this.localDeclarationVisitor != null
//&& (method.bits & ASTNode.HasLocalType) != 0) {
){
if (method instanceof ConstructorDeclaration) {
ConstructorDeclaration constructorDeclaration = (ConstructorDeclaration) method;
if (constructorDeclaration.constructorCall != null) {
constructorDeclaration.constructorCall.traverse(this.localDeclarationVisitor, method.scope);
}
}
if (method.statements != null) {
int statementsLength = method.statements.length;
for (int i = 0; i < statementsLength; i++)
//method.statements[i].traverse(this.localDeclarationVisitor, method.scope);
method.statements[i].traverse( contextDeclarationNotifier, method.scope );
}
}
}
private void visitIfNeeded(AbstractVariableDeclaration field, TypeDeclaration declaringType) {
if (this.localDeclarationVisitor != null
&& (field.bits & ASTNode.HasLocalType) != 0) {
if (field.initialization != null) {
try {
this.localDeclarationVisitor.pushDeclaringType(declaringType);
field.initialization.traverse(this.localDeclarationVisitor, (MethodScope) null);
} finally {
this.localDeclarationVisitor.popDeclaringType();
}
}
}
}
private void visitIfNeeded(Initializer initializer) {
if (this.localDeclarationVisitor != null
&& (initializer.bits & ASTNode.HasLocalType) != 0) {
if (initializer.block != null) {
initializer.block.traverse(this.localDeclarationVisitor, null);
}
}
}
}