blob: c507135376ebca512d67cd56f5c81d4fc032e883 [file] [log] [blame]
/*******************************************************************************
* Copyright (c) 2000, 2014 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
* Fraunhofer FIRST - extended API and implementation
* Technical University Berlin - extended API and implementation
* Stephan Herrmann - Contributions for
* bug 349326 - [1.7] new warning for missing try-with-resources
* bug 186342 - [compiler][null] Using annotations for null checking
* bug 364890 - BinaryTypeBinding should use char constants from Util
* bug 365387 - [compiler][null] bug 186342: Issues to follow up post review and verification.
* bug 358903 - Filter practically unimportant resource leak warnings
* bug 365531 - [compiler][null] investigate alternative strategy for internally encoding nullness defaults
* bug 388800 - [1.8][compiler] detect default methods in class files
* bug 388281 - [compiler][null] inheritance of null annotations as an option
* bug 331649 - [compiler][null] consider null annotations for fields
* bug 392384 - [1.8][compiler][null] Restore nullness info from type annotations in class files
* Bug 392099 - [1.8][compiler][null] Apply null annotation on types for null analysis
* Bug 415043 - [1.8][null] Follow-up re null type annotations after bug 392099
* Bug 415850 - [1.8] Ensure RunJDTCoreTests can cope with null annotations enabled
* Bug 417295 - [1.8[[null] Massage type annotated null analysis to gel well with deep encoded type bindings.
* Bug 427199 - [1.8][resource] avoid resource leak warnings on Streams that have no resource
* Bug 392245 - [1.8][compiler][null] Define whether / how @NonNullByDefault applies to TYPE_USE locations
* Bug 429958 - [1.8][null] evaluate new DefaultLocation attribute of @NonNullByDefault
* Bug 390889 - [1.8][compiler] Evaluate options to support 1.7- projects against 1.8 JRE.
* Bug 438458 - [1.8][null] clean up handling of null type annotations wrt type variables
* Bug 439516 - [1.8][null] NonNullByDefault wrongly applied to implicit type bound of binary type
* Bug 434602 - Possible error with inferred null annotations leading to contradictory null annotations
* Bug 441693 - [1.8][null] Bogus warning for type argument annotated with @NonNull
* Bug 435805 - [1.8][compiler][null] Java 8 compiler does not recognize declaration style null annotations
* Jesper Steen Moller - Contributions for
* Bug 412150 [1.8] [compiler] Enable reflected parameter names during annotation processing
* Bug 412153 - [1.8][compiler] Check validity of annotations which may be repeatable
*******************************************************************************/
package org.eclipse.jdt.internal.compiler.lookup;
import java.util.ArrayList;
import org.eclipse.jdt.core.compiler.CharOperation;
import org.eclipse.jdt.internal.compiler.CompilationResult;
import org.eclipse.jdt.internal.compiler.ast.Annotation;
import org.eclipse.jdt.internal.compiler.ast.TypeDeclaration;
import org.eclipse.jdt.internal.compiler.classfmt.ClassFileConstants;
import org.eclipse.jdt.internal.compiler.classfmt.ClassFileReader;
import org.eclipse.jdt.internal.compiler.classfmt.FieldInfo;
import org.eclipse.jdt.internal.compiler.classfmt.MethodInfo;
import org.eclipse.jdt.internal.compiler.classfmt.NonNullDefaultAwareTypeAnnotationWalker;
import org.eclipse.jdt.internal.compiler.classfmt.TypeAnnotationWalker;
import org.eclipse.jdt.internal.compiler.codegen.ConstantPool;
import org.eclipse.jdt.internal.compiler.env.*;
import org.eclipse.jdt.internal.compiler.impl.CompilerOptions;
import org.eclipse.jdt.internal.compiler.impl.Constant;
import org.eclipse.jdt.internal.compiler.parser.Parser;
import org.eclipse.jdt.internal.compiler.problem.AbortCompilation;
import org.eclipse.jdt.internal.compiler.util.SimpleLookupTable;
import org.eclipse.jdt.internal.compiler.util.Util;
import org.eclipse.objectteams.otdt.core.compiler.IOTConstants;
import org.eclipse.objectteams.otdt.internal.core.compiler.control.Config;
import org.eclipse.objectteams.otdt.internal.core.compiler.control.Dependencies;
import org.eclipse.objectteams.otdt.internal.core.compiler.control.ITranslationStates;
import org.eclipse.objectteams.otdt.internal.core.compiler.lookup.AnchorMapping;
import org.eclipse.objectteams.otdt.internal.core.compiler.lookup.ITeamAnchor;
import org.eclipse.objectteams.otdt.internal.core.compiler.lookup.SyntheticBaseCallSurrogate;
import org.eclipse.objectteams.otdt.internal.core.compiler.lookup.SyntheticRoleBridgeMethodBinding;
import org.eclipse.objectteams.otdt.internal.core.compiler.lookup.SyntheticRoleFieldAccess;
import org.eclipse.objectteams.otdt.internal.core.compiler.model.FieldModel;
import org.eclipse.objectteams.otdt.internal.core.compiler.model.MethodModel;
import org.eclipse.objectteams.otdt.internal.core.compiler.model.RoleModel;
import org.eclipse.objectteams.otdt.internal.core.compiler.model.TeamModel;
import org.eclipse.objectteams.otdt.internal.core.compiler.model.MethodModel.FakeKind;
import org.eclipse.objectteams.otdt.internal.core.compiler.statemachine.copyinheritance.CopyInheritance;
import org.eclipse.objectteams.otdt.internal.core.compiler.util.RoleTypeCreator;
import org.eclipse.objectteams.otdt.internal.core.compiler.util.TSuperHelper;
import org.eclipse.objectteams.otdt.internal.core.compiler.util.TypeAnalyzer;
/*
Not all fields defined by this type are initialized when it is created.
Some are initialized only when needed.
Accessors have been provided for some public fields so all TypeBindings have the same API...
but access public fields directly whenever possible.
Non-public fields have accessors which should be used everywhere you expect the field to be initialized.
null is NOT a valid value for a non-public field... it just means the field is not initialized.
*/
/**
* OTDT changes:
*
* STRUCTURE:
* What: support team package (cf. ReferenceBinding.maybeSetTeamPackage()).
*
* What: allow adding methods (for callout-to-field)
*
* READ FROM BYTE CODE:
* What: restore predefined confined types.
* Why: + Synthetic flag is not set in the byte-code
* + Team.Confined has NO superclass.
*
* What: initialize AccRole, model, _teamModel and roleModel
*
* What: Read some information that normally would be skipped:
* Which:+ Local types (plus set enclosingType, see LookupEnvironment.enclosingRole)
* + Synthetic methods of teams and roles
* Why: Need this info for copy inheritance.
*
* What: Evaluate OT-specific byte code attributes
* How: During cachePartsFrom call
* + ModelElement.evaluateAttributes(..),
* + AbstractAttribute.evaluateFieldAttributes(..) // only if fields are built
* + AbstractAttribute.clearReadAttributes()
*
* What: For methods: register(store) byte code, evaluate attributes (maybeRegister())
*
*
* What: A ROFI intermediate patch for parsing a role file of a binary team.
* Source roles should always be compiled together with their team!
* FIXME: This patch is only used to detect source role in binary team,
* which must be strictly avoided any way.
*
* RESOLVE:
* What: Methods/fields wrap types in signatures, link tsupers to their source.
*/
@SuppressWarnings({ "rawtypes", "unchecked" })
public class BinaryTypeBinding extends ReferenceBinding {
private static final IBinaryMethod[] NO_BINARY_METHODS = new IBinaryMethod[0];
// all of these fields are ONLY guaranteed to be initialized if accessed using their public accessor method
protected ReferenceBinding superclass;
protected ReferenceBinding enclosingType;
protected ReferenceBinding[] superInterfaces;
protected FieldBinding[] fields;
protected MethodBinding[] methods;
protected ReferenceBinding[] memberTypes;
protected TypeVariableBinding[] typeVariables;
private BinaryTypeBinding prototype;
// For the link with the principle structure
protected LookupEnvironment environment;
protected SimpleLookupTable storedAnnotations = null; // keys are this ReferenceBinding & its fields and methods, value is an AnnotationHolder
private ReferenceBinding containerAnnotationType;
int defaultNullness = 0;
//{ObjectTeams: support callout-to-field
/** Callout to field adds faked access method (set or get): */
public void addMethod(MethodBinding methodBinding) {
// This method is a verbatim copy of SourceTypeBinding.addMethod().
// differentiate between sorted and unsorted state:
int size = this.methods.length;
if ((this.tagBits & TagBits.AreMethodsSorted) != 0) {
this.methods= ReferenceBinding.sortedInsert(this.methods, methodBinding);
if ((this.tagBits & TagBits.AreMethodsComplete) != 0)
resolveTypesFor(methodBinding);
} else {
//grow array
System.arraycopy(this.methods, 0, this.methods= new MethodBinding[size + 1], 0, size);
this.methods[size] = methodBinding;
}
}
// the class file version
public long version;
// enclosing type may be set while evaluating ROLE_LOCAL_TYPES attribte:
/** Set enclosingType and update dependent fields. */
public void setEnclosingOfRoleLocal(ReferenceBinding enclosing) {
this.enclosingType = enclosing;
this.tagBits |= TagBits.LocalTypeMask;
if (enclosingType().isStrictfp())
this.modifiers |= ClassFileConstants.AccStrictfp;
if (enclosingType().isDeprecated())
this.modifiers |= ExtraCompilerModifiers.AccDeprecatedImplicitly;
maybeSetRoleModel();
}
/**
* Given that enclosingType is set, and if this is a role (direct or indirect):
* Create and link RoleModel.
*/
private void maybeSetRoleModel() {
ReferenceBinding enclosingTeam = TeamModel.getEnclosingTeam(this);
if (enclosingTeam != null) {
// it's either a role or a nested type of a role
if (this.roleModel == null) // could have been set while evaluating a byte code attribute
this.roleModel = new RoleModel(this);
this.roleModel.setTeamModel(enclosingTeam.getTeamModel());
if (isLocalType())
this.modifiers &= ~ClassFileConstants.AccPrivate; // AccPrivate is set in the inner class info, but is illegal
} else if (isRole()) {
// FIXME(SH): handle somehow
System.err.println("Role without team!!! "+new String(readableName()));
}
}
// SH}
static Object convertMemberValue(Object binaryValue, LookupEnvironment env, char[][][] missingTypeNames, boolean resolveEnumConstants) {
if (binaryValue == null) return null;
if (binaryValue instanceof Constant)
return binaryValue;
if (binaryValue instanceof ClassSignature)
return env.getTypeFromSignature(((ClassSignature) binaryValue).getTypeName(), 0, -1, false, null, missingTypeNames, TypeAnnotationWalker.EMPTY_ANNOTATION_WALKER);
if (binaryValue instanceof IBinaryAnnotation)
return createAnnotation((IBinaryAnnotation) binaryValue, env, missingTypeNames);
if (binaryValue instanceof EnumConstantSignature) {
EnumConstantSignature ref = (EnumConstantSignature) binaryValue;
ReferenceBinding enumType = (ReferenceBinding) env.getTypeFromSignature(ref.getTypeName(), 0, -1, false, null, missingTypeNames, TypeAnnotationWalker.EMPTY_ANNOTATION_WALKER);
if (enumType.isUnresolvedType() && !resolveEnumConstants)
return new ElementValuePair.UnresolvedEnumConstant(enumType, env, ref.getEnumConstantName());
enumType = (ReferenceBinding) resolveType(enumType, env, false /* no raw conversion */);
return enumType.getField(ref.getEnumConstantName(), false);
}
if (binaryValue instanceof Object[]) {
Object[] objects = (Object[]) binaryValue;
int length = objects.length;
if (length == 0) return objects;
Object[] values = new Object[length];
for (int i = 0; i < length; i++)
values[i] = convertMemberValue(objects[i], env, missingTypeNames, resolveEnumConstants);
return values;
}
// should never reach here.
throw new IllegalStateException();
}
public TypeBinding clone(TypeBinding outerType) {
BinaryTypeBinding copy = new BinaryTypeBinding(this);
copy.enclosingType = (ReferenceBinding) outerType;
/* BinaryTypeBinding construction is not "atomic" and is split between the constructor and cachePartsFrom and between the two
stages of construction, clone can kick in when LookupEnvironment.createBinaryTypeFrom calls PackageBinding.addType. This
can result in some URB's being resolved, which could trigger the clone call, leaving the clone with semi-initialized prototype.
Fortunately, the protocol for this type demands all clients to use public access methods, where we can deflect the call to the
prototype. enclosingType() and memberTypes() should not delegate, so ...
*/
if (copy.enclosingType != null)
copy.tagBits |= TagBits.HasUnresolvedEnclosingType;
else
copy.tagBits &= ~TagBits.HasUnresolvedEnclosingType;
copy.tagBits |= TagBits.HasUnresolvedMemberTypes;
return copy;
}
static AnnotationBinding createAnnotation(IBinaryAnnotation annotationInfo, LookupEnvironment env, char[][][] missingTypeNames) {
IBinaryElementValuePair[] binaryPairs = annotationInfo.getElementValuePairs();
int length = binaryPairs == null ? 0 : binaryPairs.length;
ElementValuePair[] pairs = length == 0 ? Binding.NO_ELEMENT_VALUE_PAIRS : new ElementValuePair[length];
for (int i = 0; i < length; i++)
pairs[i] = new ElementValuePair(binaryPairs[i].getName(), convertMemberValue(binaryPairs[i].getValue(), env, missingTypeNames, false), null);
char[] typeName = annotationInfo.getTypeName();
ReferenceBinding annotationType = env.getTypeFromConstantPoolName(typeName, 1, typeName.length - 1, false, missingTypeNames);
return env.createUnresolvedAnnotation(annotationType, pairs);
}
public static AnnotationBinding[] createAnnotations(IBinaryAnnotation[] annotationInfos, LookupEnvironment env, char[][][] missingTypeNames) {
int length = annotationInfos == null ? 0 : annotationInfos.length;
AnnotationBinding[] result = length == 0 ? Binding.NO_ANNOTATIONS : new AnnotationBinding[length];
for (int i = 0; i < length; i++)
result[i] = createAnnotation(annotationInfos[i], env, missingTypeNames);
return result;
}
public static TypeBinding resolveType(TypeBinding type, LookupEnvironment environment, boolean convertGenericToRawType) {
switch (type.kind()) {
case Binding.PARAMETERIZED_TYPE :
((ParameterizedTypeBinding) type).resolve();
break;
case Binding.WILDCARD_TYPE :
case Binding.INTERSECTION_TYPE :
return ((WildcardBinding) type).resolve();
case Binding.ARRAY_TYPE :
resolveType(((ArrayBinding) type).leafComponentType, environment, convertGenericToRawType);
break;
case Binding.TYPE_PARAMETER :
((TypeVariableBinding) type).resolve();
break;
case Binding.GENERIC_TYPE :
if (convertGenericToRawType) // raw reference to generic ?
return environment.convertUnresolvedBinaryToRawType(type);
break;
default:
if (type instanceof UnresolvedReferenceBinding)
return ((UnresolvedReferenceBinding) type).resolve(environment, convertGenericToRawType);
if (convertGenericToRawType) // raw reference to generic ?
return environment.convertUnresolvedBinaryToRawType(type);
break;
}
return type;
}
/**
* Default empty constructor for subclasses only.
*/
protected BinaryTypeBinding() {
// only for subclasses
this.prototype = this;
}
public BinaryTypeBinding(BinaryTypeBinding prototype) {
super(prototype);
this.superclass = prototype.superclass;
this.enclosingType = prototype.enclosingType;
this.superInterfaces = prototype.superInterfaces;
this.fields = prototype.fields;
this.methods = prototype.methods;
this.memberTypes = prototype.memberTypes;
this.typeVariables = prototype.typeVariables;
this.prototype = prototype.prototype;
this.environment = prototype.environment;
this.storedAnnotations = prototype.storedAnnotations;
}
/**
* Standard constructor for creating binary type bindings from binary models (classfiles)
* @param packageBinding
* @param binaryType
* @param environment
*/
public BinaryTypeBinding(PackageBinding packageBinding, IBinaryType binaryType, LookupEnvironment environment) {
this(packageBinding, binaryType, environment, false);
}
/**
* Standard constructor for creating binary type bindings from binary models (classfiles)
* @param packageBinding
* @param binaryType
* @param environment
* @param needFieldsAndMethods
*/
public BinaryTypeBinding(PackageBinding packageBinding, IBinaryType binaryType, LookupEnvironment environment, boolean needFieldsAndMethods) {
this.prototype = this;
this.compoundName = CharOperation.splitOn('/', binaryType.getName());
computeId();
this.tagBits |= TagBits.IsBinaryBinding;
this.environment = environment;
this.fPackage = packageBinding;
this.fileName = binaryType.getFileName();
/* https://bugs.eclipse.org/bugs/show_bug.cgi?id=324850, even in a 1.4 project, we
must internalize type variables and observe any parameterization of super class
and/or super interfaces in order to be able to detect overriding in the presence
of generics.
*/
char[] typeSignature = binaryType.getGenericSignature();
this.typeVariables = typeSignature != null && typeSignature.length > 0 && typeSignature[0] == Util.C_GENERIC_START
? null // is initialized in cachePartsFrom (called from LookupEnvironment.createBinaryTypeFrom())... must set to null so isGenericType() answers true
: Binding.NO_TYPE_VARIABLES;
this.sourceName = binaryType.getSourceName();
this.modifiers = binaryType.getModifiers();
if ((binaryType.getTagBits() & TagBits.HierarchyHasProblems) != 0)
this.tagBits |= TagBits.HierarchyHasProblems;
if (binaryType.isAnonymous()) {
this.tagBits |= TagBits.AnonymousTypeMask;
} else if (binaryType.isLocal()) {
this.tagBits |= TagBits.LocalTypeMask;
} else if (binaryType.isMember()) {
this.tagBits |= TagBits.MemberTypeMask;
}
// need enclosing type to access type variables
char[] enclosingTypeName = binaryType.getEnclosingTypeName();
if (enclosingTypeName != null) {
// attempt to find the enclosing type if it exists in the cache (otherwise - resolve it when requested)
this.enclosingType = environment.getTypeFromConstantPoolName(enclosingTypeName, 0, -1, true, null /* could not be missing */); // pretend parameterized to avoid raw
this.tagBits |= TagBits.MemberTypeMask; // must be a member type not a top-level or local type
this.tagBits |= TagBits.HasUnresolvedEnclosingType;
if (enclosingType().isStrictfp())
this.modifiers |= ClassFileConstants.AccStrictfp;
if (enclosingType().isDeprecated())
this.modifiers |= ExtraCompilerModifiers.AccDeprecatedImplicitly;
}
if (needFieldsAndMethods)
cachePartsFrom(binaryType, true);
//{ObjectTeams: ROFI if this is a team, record the package that contains its role files.
maybeSetTeamPackage(this.compoundName, this.fPackage, environment);
// SH}
}
/**
* @see org.eclipse.jdt.internal.compiler.lookup.ReferenceBinding#availableFields()
*/
public FieldBinding[] availableFields() {
if (!isPrototype()) {
return this.prototype.availableFields();
}
if ((this.tagBits & TagBits.AreFieldsComplete) != 0)
return this.fields;
// lazily sort fields
if ((this.tagBits & TagBits.AreFieldsSorted) == 0) {
int length = this.fields.length;
if (length > 1)
ReferenceBinding.sortFields(this.fields, 0, length);
this.tagBits |= TagBits.AreFieldsSorted;
}
FieldBinding[] availableFields = new FieldBinding[this.fields.length];
int count = 0;
for (int i = 0; i < this.fields.length; i++) {
try {
availableFields[count] = resolveTypeFor(this.fields[i]);
count++;
} catch (AbortCompilation a){
// silent abort
}
}
if (count < availableFields.length)
System.arraycopy(availableFields, 0, availableFields = new FieldBinding[count], 0, count);
return availableFields;
}
private TypeVariableBinding[] addMethodTypeVariables(TypeVariableBinding[] methodTypeVars) {
if (!isPrototype()) throw new IllegalStateException();
if (this.typeVariables == null || this.typeVariables == Binding.NO_TYPE_VARIABLES) {
return methodTypeVars;
}
if (methodTypeVars == null || methodTypeVars == Binding.NO_TYPE_VARIABLES) {
return this.typeVariables;
}
// uniq-merge both the arrays
int total = this.typeVariables.length + methodTypeVars.length;
TypeVariableBinding[] combinedTypeVars = new TypeVariableBinding[total];
System.arraycopy(this.typeVariables, 0, combinedTypeVars, 0, this.typeVariables.length);
int size = this.typeVariables.length;
loop: for (int i = 0, len = methodTypeVars.length; i < len; i++) {
for (int j = this.typeVariables.length -1 ; j >= 0; j--) {
if (CharOperation.equals(methodTypeVars[i].sourceName, this.typeVariables[j].sourceName))
continue loop;
}
combinedTypeVars[size++] = methodTypeVars[i];
}
if (size != total) {
System.arraycopy(combinedTypeVars, 0, combinedTypeVars = new TypeVariableBinding[size], 0, size);
}
return combinedTypeVars;
}
/**
* @see org.eclipse.jdt.internal.compiler.lookup.ReferenceBinding#availableMethods()
*/
public MethodBinding[] availableMethods() {
if (!isPrototype()) {
return this.prototype.availableMethods();
}
if ((this.tagBits & TagBits.AreMethodsComplete) != 0)
return this.methods;
// lazily sort methods
if ((this.tagBits & TagBits.AreMethodsSorted) == 0) {
int length = this.methods.length;
if (length > 1)
ReferenceBinding.sortMethods(this.methods, 0, length);
this.tagBits |= TagBits.AreMethodsSorted;
}
MethodBinding[] availableMethods = new MethodBinding[this.methods.length];
int count = 0;
for (int i = 0; i < this.methods.length; i++) {
try {
availableMethods[count] = resolveTypesFor(this.methods[i]);
count++;
} catch (AbortCompilation a){
// silent abort
}
}
if (count < availableMethods.length)
System.arraycopy(availableMethods, 0, availableMethods = new MethodBinding[count], 0, count);
return availableMethods;
}
void cachePartsFrom(IBinaryType binaryType, boolean needFieldsAndMethods) {
if (!isPrototype()) throw new IllegalStateException();
try {
// default initialization for super-interfaces early, in case some aborting compilation error occurs,
// and still want to use binaries passed that point (e.g. type hierarchy resolver, see bug 63748).
this.typeVariables = Binding.NO_TYPE_VARIABLES;
this.superInterfaces = Binding.NO_SUPERINTERFACES;
//{ObjectTeams: one more field to initialize to empty array:
this.callinCallouts = Binding.NO_CALLIN_CALLOUT_BINDINGS;
// enter binary role to its source enclosing
if ( enclosingType() != null
&& !this.enclosingType.isBinaryBinding())
{
ReferenceBinding[] oldMembers = this.enclosingType.memberTypes();
int len = oldMembers.length;
ReferenceBinding[] newMembers = new ReferenceBinding[len+1];
System.arraycopy(oldMembers, 0, newMembers, 0, len);
newMembers[len] = this;
SourceTypeBinding enclosingSourceTypeBinding = (SourceTypeBinding)this.enclosingType;
enclosingSourceTypeBinding.memberTypes = newMembers;
if (enclosingSourceTypeBinding.scope != null) {
// remember the name of this binary member type:
CompilationResult result =
enclosingSourceTypeBinding.scope.referenceCompilationUnit().compilationResult();
result.recordBinaryMemberType(this.compoundName[this.compoundName.length-1]);
} else {
// only in state final we know that there is no scope any more.
// TODO(SH): can we actually tolerate this?
int state = enclosingSourceTypeBinding.model.getState();
if (enclosingSourceTypeBinding._teamModel != null)
state = enclosingSourceTypeBinding._teamModel.getState();
assert state == ITranslationStates.STATE_FINAL;
}
}
// SH}
//{ObjectTeams: set role modifier and create models
if (this.enclosingType != null && this.enclosingType.isTeam())
// it's a genuine role, aka source role
this.modifiers |= ExtraCompilerModifiers.AccRole;
maybeSetRoleModel();
if ((this.modifiers & ClassFileConstants.AccTeam) != 0)
this._teamModel = new TeamModel(this);
// Note, 'model' is already set in ctor of superclass ReferenceBinding.
//SH}
// must retrieve member types in case superclass/interfaces need them
this.memberTypes = Binding.NO_MEMBER_TYPES;
IBinaryNestedType[] memberTypeStructures = binaryType.getMemberTypes();
if (memberTypeStructures != null) {
int size = memberTypeStructures.length;
if (size > 0) {
this.memberTypes = new ReferenceBinding[size];
for (int i = 0; i < size; i++) {
// attempt to find each member type if it exists in the cache (otherwise - resolve it when requested)
this.memberTypes[i] = this.environment.getTypeFromConstantPoolName(memberTypeStructures[i].getName(), 0, -1, false, null /* could not be missing */);
}
this.tagBits |= TagBits.HasUnresolvedMemberTypes;
}
}
CompilerOptions globalOptions = this.environment.globalOptions;
long sourceLevel = globalOptions.originalSourceLevel;
/* https://bugs.eclipse.org/bugs/show_bug.cgi?id=324850, even in a 1.4 project, we
must internalize type variables and observe any parameterization of super class
and/or super interfaces in order to be able to detect overriding in the presence
of generics.
*/
if (this.environment.globalOptions.isAnnotationBasedNullAnalysisEnabled) {
// need annotations on the type before processing null annotations on members respecting any @NonNullByDefault:
scanTypeForNullDefaultAnnotation(binaryType, this.fPackage);
}
TypeAnnotationWalker walker = getTypeAnnotationWalker(binaryType.getTypeAnnotations());
char[] typeSignature = binaryType.getGenericSignature(); // use generic signature even in 1.4
this.tagBits |= binaryType.getTagBits();
char[][][] missingTypeNames = binaryType.getMissingTypeNames();
SignatureWrapper wrapper = null;
if (typeSignature != null) {
// ClassSignature = ParameterPart(optional) super_TypeSignature interface_signature
wrapper = new SignatureWrapper(typeSignature);
if (wrapper.signature[wrapper.start] == Util.C_GENERIC_START) {
// ParameterPart = '<' ParameterSignature(s) '>'
wrapper.start++; // skip '<'
this.typeVariables = createTypeVariables(wrapper, true, missingTypeNames, walker, true/*class*/);
wrapper.start++; // skip '>'
this.tagBits |= TagBits.HasUnresolvedTypeVariables;
this.modifiers |= ExtraCompilerModifiers.AccGenericSignature;
}
}
TypeVariableBinding[] typeVars = Binding.NO_TYPE_VARIABLES;
char[] methodDescriptor = binaryType.getEnclosingMethod();
if (methodDescriptor != null) {
MethodBinding enclosingMethod = findMethod(methodDescriptor, missingTypeNames);
if (enclosingMethod != null) {
typeVars = enclosingMethod.typeVariables;
this.typeVariables = addMethodTypeVariables(typeVars);
}
}
if (typeSignature == null) {
//{ObjectTeams: predefined confined types require special treatment
// 1. add the synthetic flag which is missing from the class file:
if (CharOperation.equals(this.compoundName, IOTConstants.ORG_OBJECTTEAMS_TEAM_CONFINED))
this.modifiers |= ClassFileConstants.AccSynthetic;
if (TypeAnalyzer.isTopConfined(this)) {
// 2. don't search a superclass, have none (ie., skip the else part)
} else {
// orig:
char[] superclassName = binaryType.getSuperclassName();
if (superclassName != null) {
// attempt to find the superclass if it exists in the cache (otherwise - resolve it when requested)
this.superclass = this.environment.getTypeFromConstantPoolName(superclassName, 0, -1, false, missingTypeNames, walker.toSupertype((short) -1));
this.tagBits |= TagBits.HasUnresolvedSuperclass;
}
// :giro
}
// SH}
this.superInterfaces = Binding.NO_SUPERINTERFACES;
char[][] interfaceNames = binaryType.getInterfaceNames();
if (interfaceNames != null) {
int size = interfaceNames.length;
if (size > 0) {
this.superInterfaces = new ReferenceBinding[size];
for (short i = 0; i < size; i++)
// attempt to find each superinterface if it exists in the cache (otherwise - resolve it when requested)
this.superInterfaces[i] = this.environment.getTypeFromConstantPoolName(interfaceNames[i], 0, -1, false, missingTypeNames, walker.toSupertype(i));
this.tagBits |= TagBits.HasUnresolvedSuperinterfaces;
}
}
} else {
// attempt to find the superclass if it exists in the cache (otherwise - resolve it when requested)
this.superclass = (ReferenceBinding) this.environment.getTypeFromTypeSignature(wrapper, typeVars, this, missingTypeNames,
walker.toSupertype((short) -1));
//{ObjectTeams: wrapping of type (incl. its arguments)?
if (!TypeAnalyzer.isTopConfined(this.superclass))
this.superclass = (ReferenceBinding) RoleTypeCreator.maybeWrapUnqualifiedRoleType(this.superclass, this);
// SH}
this.tagBits |= TagBits.HasUnresolvedSuperclass;
this.superInterfaces = Binding.NO_SUPERINTERFACES;
if (!wrapper.atEnd()) {
// attempt to find each superinterface if it exists in the cache (otherwise - resolve it when requested)
java.util.ArrayList types = new java.util.ArrayList(2);
short rank = 0;
do {
//{ObjectTeams: wrapping of type (incl. its arguments)?
/* orig:
types.add(this.environment.getTypeFromTypeSignature(wrapper, typeVars, this, missingTypeNames, walker.toSupertype(rank++)));
:giro*/
TypeBinding type = this.environment.getTypeFromTypeSignature(wrapper, typeVars, this, missingTypeNames, walker.toSupertype(rank++));
if (this.isDirectRole()
&& !(type instanceof ReferenceBinding && TSuperHelper.isTSubOf(this, (ReferenceBinding) type)))
type = RoleTypeCreator.maybeWrapUnqualifiedRoleType(type, this);
types.add(type);
// SH}
} while (!wrapper.atEnd());
this.superInterfaces = new ReferenceBinding[types.size()];
types.toArray(this.superInterfaces);
this.tagBits |= TagBits.HasUnresolvedSuperinterfaces;
}
}
if (needFieldsAndMethods) {
IBinaryField[] iFields = binaryType.getFields();
createFields(iFields, sourceLevel, missingTypeNames);
IBinaryMethod[] iMethods = createMethods(binaryType.getMethods(), sourceLevel, missingTypeNames);
boolean isViewedAsDeprecated = isViewedAsDeprecated();
if (isViewedAsDeprecated) {
for (int i = 0, max = this.fields.length; i < max; i++) {
FieldBinding field = this.fields[i];
if (!field.isDeprecated()) {
field.modifiers |= ExtraCompilerModifiers.AccDeprecatedImplicitly;
}
}
for (int i = 0, max = this.methods.length; i < max; i++) {
MethodBinding method = this.methods[i];
if (!method.isDeprecated()) {
method.modifiers |= ExtraCompilerModifiers.AccDeprecatedImplicitly;
}
}
}
if (this.environment.globalOptions.isAnnotationBasedNullAnalysisEnabled) {
if (iFields != null) {
for (int i = 0; i < iFields.length; i++)
scanFieldForNullAnnotation(iFields[i], this.fields[i], this.isEnum());
}
if (iMethods != null) {
for (int i = 0; i < iMethods.length; i++)
scanMethodForNullAnnotation(iMethods[i], this.methods[i]);
}
}
}
//{ObjectTeams: now this type is setup enough to evaluate attributes
if (binaryType instanceof ClassFileReader) {
ClassFileReader reader = (ClassFileReader)binaryType;
reader.evaluateOTAttributes(this, this.environment, missingTypeNames);
// remember o.o.Team:
if (needFieldsAndMethods && TypeAnalyzer.isOrgObjectteamsTeam(this))
this.environment.getTeamMethodGenerator().maybeRegisterTeamClassBytes(reader, this);
// store class file version
this.version = reader.getVersion();
}
// SH}
if (this.environment.globalOptions.storeAnnotations)
setAnnotations(createAnnotations(binaryType.getAnnotations(), this.environment, missingTypeNames));
if (this.isAnnotationType())
scanTypeForContainerAnnotation(binaryType, missingTypeNames);
} finally {
// protect against incorrect use of the needFieldsAndMethods flag, see 48459
if (this.fields == null)
this.fields = Binding.NO_FIELDS;
if (this.methods == null)
this.methods = Binding.NO_METHODS;
}
}
private TypeAnnotationWalker getTypeAnnotationWalker(IBinaryTypeAnnotation[] annotations) {
if (!isPrototype()) throw new IllegalStateException();
if (annotations == null || annotations.length == 0 || !this.environment.usesAnnotatedTypeSystem()) {
if (this.environment.globalOptions.isAnnotationBasedNullAnalysisEnabled) {
int nullness = getNullDefault();
if (nullness > Binding.NULL_UNSPECIFIED_BY_DEFAULT)
return new NonNullDefaultAwareTypeAnnotationWalker(nullness, this.environment);
}
return TypeAnnotationWalker.EMPTY_ANNOTATION_WALKER;
}
if (this.environment.globalOptions.isAnnotationBasedNullAnalysisEnabled) {
int nullness = getNullDefault();
if (nullness > Binding.NULL_UNSPECIFIED_BY_DEFAULT)
return new NonNullDefaultAwareTypeAnnotationWalker(annotations, nullness, this.environment);
}
return new TypeAnnotationWalker(annotations);
}
private void createFields(IBinaryField[] iFields, long sourceLevel, char[][][] missingTypeNames) {
if (!isPrototype()) throw new IllegalStateException();
this.fields = Binding.NO_FIELDS;
if (iFields != null) {
int size = iFields.length;
if (size > 0) {
this.fields = new FieldBinding[size];
boolean use15specifics = sourceLevel >= ClassFileConstants.JDK1_5;
boolean hasRestrictedAccess = hasRestrictedAccess();
int firstAnnotatedFieldIndex = -1;
for (int i = 0; i < size; i++) {
IBinaryField binaryField = iFields[i];
char[] fieldSignature = use15specifics ? binaryField.getGenericSignature() : null;
TypeAnnotationWalker walker = getTypeAnnotationWalker(binaryField.getTypeAnnotations()).toField();
TypeBinding type = fieldSignature == null
? this.environment.getTypeFromSignature(binaryField.getTypeName(), 0, -1, false, this, missingTypeNames, walker)
: this.environment.getTypeFromTypeSignature(new SignatureWrapper(fieldSignature), Binding.NO_TYPE_VARIABLES, this, missingTypeNames, walker);
FieldBinding field =
new FieldBinding(
binaryField.getName(),
type,
binaryField.getModifiers() | ExtraCompilerModifiers.AccUnresolved,
this,
binaryField.getConstant());
if (firstAnnotatedFieldIndex < 0
//{ObjectTeams: read annotations within roles to enable copying:
/* orig:
&& this.environment.globalOptions.storeAnnotations
:giro */
&& ( this.environment.globalOptions.storeAnnotations
|| this.isRole())
// SH}
&& binaryField.getAnnotations() != null) {
firstAnnotatedFieldIndex = i;
}
field.id = i; // ordinal
if (use15specifics)
field.tagBits |= binaryField.getTagBits();
if (hasRestrictedAccess)
field.modifiers |= ExtraCompilerModifiers.AccRestrictedAccess;
if (fieldSignature != null)
field.modifiers |= ExtraCompilerModifiers.AccGenericSignature;
this.fields[i] = field;
//{ObjectTeams:
// field attributes:
if (binaryField instanceof FieldInfo)
((FieldInfo)binaryField).evaluateOTAttributes(field);
// field as value parameter?
if ((field.modifiers & ClassFileConstants.AccValueParam) != 0)
addValueParameter(field);
// SH}
}
// second pass for reifying annotations, since may refer to fields being constructed (147875)
if (firstAnnotatedFieldIndex >= 0) {
for (int i = firstAnnotatedFieldIndex; i <size; i++) {
IBinaryField binaryField = iFields[i];
this.fields[i].setAnnotations(createAnnotations(binaryField.getAnnotations(), this.environment, missingTypeNames));
}
}
}
}
}
//{ObjectTeams: some fields are indeed value parameters:
private SyntheticArgumentBinding[] valueParameters = NO_SYNTH_ARGUMENTS;
@Override
public SyntheticArgumentBinding[] valueParamSynthArgs() {
return this.valueParameters;
}
private void addValueParameter(FieldBinding field) {
SyntheticArgumentBinding synthArg = new SyntheticArgumentBinding(field.name, (ReferenceBinding)field.type);
synthArg.matchingField = field;
if (this.valueParameters == NO_SYNTH_ARGUMENTS)
this.valueParameters = new SyntheticArgumentBinding[]{synthArg};
else {
int len = this.valueParameters.length;
System.arraycopy(this.valueParameters, 0, this.valueParameters = new SyntheticArgumentBinding[len+1], 0, len);
this.valueParameters[len] = synthArg;
}
// TODO(SH): for multiple value parameters the field would need to store a rank, and here we would need to collect an array of anchors..
int [] ranks = FieldModel.getAnchorUsageRanks(field);
if (ranks != null) {
for (int i=0; i<ranks.length; i++) {
TypeVariableBinding typeVariable = this.typeVariables[ranks[i]];
typeVariable.anchors = new ITeamAnchor[] { field };
}
}
}
// SH}
private MethodBinding createMethod(IBinaryMethod method, long sourceLevel, char[][][] missingTypeNames) {
//{ObjectTeams: be very careful (newly read attributes must be consumed):
MethodBinding result = null;
try {
// SH}
if (!isPrototype()) throw new IllegalStateException();
int methodModifiers = method.getModifiers() | ExtraCompilerModifiers.AccUnresolved;
if (sourceLevel < ClassFileConstants.JDK1_5)
methodModifiers &= ~ClassFileConstants.AccVarargs; // vararg methods are not recognized until 1.5
if (isInterface() && (methodModifiers & ClassFileConstants.AccAbstract) == 0) {
// see https://bugs.eclipse.org/388954 superseded by https://bugs.eclipse.org/390889
if ((methodModifiers & ClassFileConstants.AccStatic) == 0) {
// i.e. even at 1.7- we record AccDefaultMethod when reading a 1.8+ interface to avoid errors caused by default methods added to a library
methodModifiers |= ExtraCompilerModifiers.AccDefaultMethod;
}
}
ReferenceBinding[] exceptions = Binding.NO_EXCEPTIONS;
TypeBinding[] parameters = Binding.NO_PARAMETERS;
TypeVariableBinding[] typeVars = Binding.NO_TYPE_VARIABLES;
AnnotationBinding[][] paramAnnotations = null;
TypeBinding returnType = null;
char[][] argumentNames = method.getArgumentNames();
final boolean use15specifics = sourceLevel >= ClassFileConstants.JDK1_5;
/* https://bugs.eclipse.org/bugs/show_bug.cgi?id=324850, Since a 1.4 project can have a 1.5
type as a super type and the 1.5 type could be generic, we must internalize usages of type
variables properly in order to be able to apply substitutions and thus be able to detect
overriding in the presence of generics. Seeing the erased form is not good enough.
*/
TypeAnnotationWalker walker = getTypeAnnotationWalker(method.getTypeAnnotations());
char[] methodSignature = method.getGenericSignature(); // always use generic signature, even in 1.4
if (methodSignature == null) { // no generics
char[] methodDescriptor = method.getMethodDescriptor(); // of the form (I[Ljava/jang/String;)V
int numOfParams = 0;
char nextChar;
int index = 0; // first character is always '(' so skip it
while ((nextChar = methodDescriptor[++index]) != Util.C_PARAM_END) {
if (nextChar != Util.C_ARRAY) {
numOfParams++;
if (nextChar == Util.C_RESOLVED)
while ((nextChar = methodDescriptor[++index]) != Util.C_NAME_END){/*empty*/}
}
}
// Ignore synthetic argument for member types or enum types.
int startIndex = 0;
if (method.isConstructor()) {
//{ObjectTeams: we also load local classes
if ((isMemberType() || isLocalType()) && !isStatic()) {
/* orig
if (isMemberType() && !isStatic()) {
*/
// enclosing type
startIndex++;
}
// :giro
// also skip synth args for value parameters
startIndex += this.valueParameters.length;
// SH}
if (isEnum()) {
// synthetic arguments (String, int)
startIndex += 2;
}
}
//{ObjectTeams: similarly for static role methods:
if (MethodBinding.needsSyntheticEnclosingTeamInstance(methodModifiers, this, method.getSelector()))
startIndex += 2; // dummy this plus enclosing team instance
// SH}
int size = numOfParams - startIndex;
if (size > 0) {
parameters = new TypeBinding[size];
if (this.environment.globalOptions.storeAnnotations)
paramAnnotations = new AnnotationBinding[size][];
index = 1;
short visibleIdx = 0;
int end = 0; // first character is always '(' so skip it
for (int i = 0; i < numOfParams; i++) {
while ((nextChar = methodDescriptor[++end]) == Util.C_ARRAY){/*empty*/}
if (nextChar == Util.C_RESOLVED)
while ((nextChar = methodDescriptor[++end]) != Util.C_NAME_END){/*empty*/}
if (i >= startIndex) { // skip the synthetic arg if necessary
parameters[i - startIndex] = this.environment.getTypeFromSignature(methodDescriptor, index, end, false, this, missingTypeNames, walker.toMethodParameter(visibleIdx++));
// 'paramAnnotations' line up with 'parameters'
// int parameter to method.getParameterAnnotations() include the synthetic arg
if (paramAnnotations != null)
paramAnnotations[i - startIndex] = createAnnotations(method.getParameterAnnotations(i - startIndex), this.environment, missingTypeNames);
}
index = end + 1;
}
}
char[][] exceptionTypes = method.getExceptionTypeNames();
if (exceptionTypes != null) {
size = exceptionTypes.length;
if (size > 0) {
exceptions = new ReferenceBinding[size];
for (int i = 0; i < size; i++)
exceptions[i] = this.environment.getTypeFromConstantPoolName(exceptionTypes[i], 0, -1, false, missingTypeNames, walker.toThrows(i));
}
}
if (!method.isConstructor())
returnType = this.environment.getTypeFromSignature(methodDescriptor, index + 1, -1, false, this, missingTypeNames, walker.toMethodReturn()); // index is currently pointing at the ')'
final int argumentNamesLength = argumentNames == null ? 0 : argumentNames.length;
if (startIndex > 0 && argumentNamesLength > 0) {
// We'll have to slice the starting arguments off
if (startIndex >= argumentNamesLength) {
argumentNames = Binding.NO_PARAMETER_NAMES; // We know nothing about the argument names
} else {
char[][] slicedArgumentNames = new char[argumentNamesLength - startIndex][];
System.arraycopy(argumentNames, startIndex, slicedArgumentNames, 0, argumentNamesLength - startIndex);
argumentNames = slicedArgumentNames;
}
}
} else {
methodModifiers |= ExtraCompilerModifiers.AccGenericSignature;
// MethodTypeSignature = ParameterPart(optional) '(' TypeSignatures ')' return_typeSignature ['^' TypeSignature (optional)]
SignatureWrapper wrapper = new SignatureWrapper(methodSignature, use15specifics);
if (wrapper.signature[wrapper.start] == Util.C_GENERIC_START) {
// <A::Ljava/lang/annotation/Annotation;>(Ljava/lang/Class<TA;>;)TA;
// ParameterPart = '<' ParameterSignature(s) '>'
wrapper.start++; // skip '<'
typeVars = createTypeVariables(wrapper, false, missingTypeNames, walker, false/*class*/);
wrapper.start++; // skip '>'
}
if (wrapper.signature[wrapper.start] == Util.C_PARAM_START) {
wrapper.start++; // skip '('
if (wrapper.signature[wrapper.start] == Util.C_PARAM_END) {
wrapper.start++; // skip ')'
} else {
java.util.ArrayList types = new java.util.ArrayList(2);
short rank = 0;
while (wrapper.signature[wrapper.start] != Util.C_PARAM_END)
types.add(this.environment.getTypeFromTypeSignature(wrapper, typeVars, this, missingTypeNames, walker.toMethodParameter(rank++)));
wrapper.start++; // skip ')'
int numParam = types.size();
parameters = new TypeBinding[numParam];
types.toArray(parameters);
if (this.environment.globalOptions.storeAnnotations) {
paramAnnotations = new AnnotationBinding[numParam][];
for (int i = 0; i < numParam; i++)
paramAnnotations[i] = createAnnotations(method.getParameterAnnotations(i), this.environment, missingTypeNames);
}
}
}
// always retrieve return type (for constructors, its V for void - will be ignored)
returnType = this.environment.getTypeFromTypeSignature(wrapper, typeVars, this, missingTypeNames, walker.toMethodReturn());
if (!wrapper.atEnd() && wrapper.signature[wrapper.start] == Util.C_EXCEPTION_START) {
// attempt to find each exception if it exists in the cache (otherwise - resolve it when requested)
java.util.ArrayList types = new java.util.ArrayList(2);
int excRank = 0;
do {
wrapper.start++; // skip '^'
types.add(this.environment.getTypeFromTypeSignature(wrapper, typeVars, this, missingTypeNames,
walker.toThrows(excRank++)));
} while (!wrapper.atEnd() && wrapper.signature[wrapper.start] == Util.C_EXCEPTION_START);
exceptions = new ReferenceBinding[types.size()];
types.toArray(exceptions);
} else { // get the exceptions the old way
char[][] exceptionTypes = method.getExceptionTypeNames();
if (exceptionTypes != null) {
int size = exceptionTypes.length;
if (size > 0) {
exceptions = new ReferenceBinding[size];
for (int i = 0; i < size; i++)
exceptions[i] = this.environment.getTypeFromConstantPoolName(exceptionTypes[i], 0, -1, false, missingTypeNames, walker.toThrows(i));
}
}
}
}
//{ObjectTeams: recover synthetics:
if (SyntheticRoleFieldAccess.isRoleFieldAccess(method.getModifiers(), method.getSelector()))
{
result = new SyntheticRoleFieldAccess(this, method.getModifiers(), method.getSelector(), parameters, returnType);
} else
// ~orig~:
result = method.isConstructor()
// :~giro~
// SH}
? new MethodBinding(methodModifiers, parameters, exceptions, this)
: new MethodBinding(methodModifiers, method.getSelector(), returnType, parameters, exceptions, this);
IBinaryAnnotation[] receiverAnnotations = walker.toReceiver().getAnnotationsAtCursor(0);
if (receiverAnnotations != null && receiverAnnotations.length > 0) {
result.receiver = this.environment.createAnnotatedType(this, createAnnotations(receiverAnnotations, this.environment, missingTypeNames));
}
if (this.environment.globalOptions.storeAnnotations) {
IBinaryAnnotation[] annotations = method.getAnnotations();
if (annotations == null || annotations.length == 0)
if (method.isConstructor())
annotations = walker.toMethodReturn().getAnnotationsAtCursor(0); // FIXME: When both exist, order could become an issue.
result.setAnnotations(
createAnnotations(annotations, this.environment, missingTypeNames),
paramAnnotations,
isAnnotationType() ? convertMemberValue(method.getDefaultValue(), this.environment, missingTypeNames, true) : null,
this.environment);
}
if (argumentNames != null) result.parameterNames = argumentNames;
if (use15specifics)
result.tagBits |= method.getTagBits();
result.typeVariables = typeVars;
// fixup the declaring element of all type variables
for (int i = 0, length = typeVars.length; i < length; i++)
this.environment.typeSystem.fixTypeVariableDeclaringElement(typeVars[i], result);
//{ObjectTeams:
// transfer "callsBaseCtor":
if (method instanceof MethodInfo && ((MethodInfo)method).callsBaseCtor()) {
MethodModel.setCallsBaseCtor(result);
}
// handle various OT-specific methods:
char[] selector = method.getSelector();
if (CharOperation.prefixEquals(IOTConstants.OT_DOLLAR_NAME, selector)) {
// connect creation method to original constructor:
if (CopyInheritance.isCreator(result)) {
// extract the role name:
char[] roleName = ((ReferenceBinding) result.returnType).sourceName;
int dollarPos = CharOperation.lastIndexOf('$', roleName);
if (dollarPos > -1) // for unresolved bindings
roleName = CharOperation.subarray(roleName, dollarPos+1, -1);
// get the role class:
ReferenceBinding site = this;
if (isSynthInterface())
site = site.roleModel.getClassPartBinding();
ReferenceBinding roleClass = site.getMemberType(CharOperation.concat(IOTConstants.OT_DELIM_NAME, roleName));
if (roleClass instanceof UnresolvedReferenceBinding)
roleClass = ((UnresolvedReferenceBinding)roleClass).resolve(this.environment, false);
// get and store the original ctor:
MethodBinding srcCtor = roleClass.getExactConstructor(result.parameters);
if (srcCtor != null)
MethodModel.getModel(result)._srcCtor = srcCtor;
}
// is it some other OT-generated method requiring to be marked as fake?
int secondDollar = CharOperation.indexOf('$', selector, 4, selector.length);
if ( secondDollar != -1
&& CharOperation.prefixEquals(SyntheticRoleBridgeMethodBinding.PRIVATE, CharOperation.subarray(selector, secondDollar, -1)))
{
MethodModel.getModel(result)._fakeKind = FakeKind.ROLE_FEATURE_BRIDGE;
}
}
// register byte code, evaluate attributes:
} finally {
if (result != null && (method instanceof MethodInfo)) {
if (TypeAnalyzer.isOrgObjectteamsTeam(this))
this.environment.getTeamMethodGenerator().registerTeamMethod(method, result);
// Note, that maybeRegister() may reset the MethodInfo (nulling MethodInfo.reference):
((MethodInfo)method).maybeRegister(this, result, this.environment);
}
}
// SH}
return result;
}
/**
* Create method bindings for binary type, filtering out <clinit> and synthetics
* As some iMethods may be ignored in this process we return the matching array of those
* iMethods for which MethodBindings have been created; indices match those in this.methods.
*/
private IBinaryMethod[] createMethods(IBinaryMethod[] iMethods, long sourceLevel, char[][][] missingTypeNames) {
if (!isPrototype()) throw new IllegalStateException();
int total = 0, initialTotal = 0, iClinit = -1;
int[] toSkip = null;
if (iMethods != null) {
total = initialTotal = iMethods.length;
boolean keepBridgeMethods = sourceLevel < ClassFileConstants.JDK1_5; // https://bugs.eclipse.org/bugs/show_bug.cgi?id=330347
for (int i = total; --i >= 0;) {
IBinaryMethod method = iMethods[i];
if ((method.getModifiers() & ClassFileConstants.AccSynthetic) != 0) {
//{ObjectTeams: teams and roles don't discard synthetic for the sake of copy inheritance
if (isTeam() || isRole())
continue;
// SH}
if (keepBridgeMethods && (method.getModifiers() & ClassFileConstants.AccBridge) != 0)
continue; // want to see bridge methods as real methods
// discard synthetics methods
if (toSkip == null) toSkip = new int[iMethods.length];
toSkip[i] = -1;
total--;
} else if (iClinit == -1) {
char[] methodName = method.getSelector();
if (methodName.length == 8 && methodName[0] == Util.C_GENERIC_START) {
// discard <clinit>
iClinit = i;
total--;
}
}
}
}
if (total == 0) {
this.methods = Binding.NO_METHODS;
return NO_BINARY_METHODS;
}
boolean hasRestrictedAccess = hasRestrictedAccess();
this.methods = new MethodBinding[total];
if (total == initialTotal) {
for (int i = 0; i < initialTotal; i++) {
MethodBinding method = createMethod(iMethods[i], sourceLevel, missingTypeNames);
if (hasRestrictedAccess)
method.modifiers |= ExtraCompilerModifiers.AccRestrictedAccess;
this.methods[i] = method;
}
return iMethods;
} else {
IBinaryMethod[] mappedBinaryMethods = new IBinaryMethod[total];
for (int i = 0, index = 0; i < initialTotal; i++) {
if (iClinit != i && (toSkip == null || toSkip[i] != -1)) {
MethodBinding method = createMethod(iMethods[i], sourceLevel, missingTypeNames);
if (hasRestrictedAccess)
method.modifiers |= ExtraCompilerModifiers.AccRestrictedAccess;
mappedBinaryMethods[index] = iMethods[i];
this.methods[index++] = method;
}
}
return mappedBinaryMethods;
}
}
//{ObjectTeams: create bindings for OTRE-generated methods:
public void createOTREMethods(RoleModel role) {
// clone methods array because getBaseCallSurrogate may add to the original array:
MethodBinding [] realMethods = new MethodBinding[this.methods.length];
System.arraycopy(this.methods, 0, realMethods, 0, this.methods.length);
for (int i = 0; i < realMethods.length; i++) {
MethodBinding method = realMethods[i];
if (method.isCallin() && !isInterface()) {
resolveTypesFor(method);
// link callin method and its base-call surrogate:
MethodBinding surrogate = SyntheticBaseCallSurrogate.getBaseCallSurrogate(method, role, this.environment);
if (surrogate != null)
MethodModel.getModel(method).setBaseCallSurrogate(surrogate);
}
}
}
// SH}
private TypeVariableBinding[] createTypeVariables(SignatureWrapper wrapper, boolean assignVariables, char[][][] missingTypeNames,
TypeAnnotationWalker walker, boolean isClassTypeParameter)
{
if (!isPrototype()) throw new IllegalStateException();
// detect all type variables first
char[] typeSignature = wrapper.signature;
int depth = 0, length = typeSignature.length;
int rank = 0;
ArrayList variables = new ArrayList(1);
depth = 0;
boolean pendingVariable = true;
createVariables: {
for (int i = 1; i < length; i++) {
switch(typeSignature[i]) {
case Util.C_GENERIC_START :
depth++;
break;
case Util.C_GENERIC_END :
if (--depth < 0)
break createVariables;
break;
case Util.C_NAME_END :
if ((depth == 0) && (i +1 < length) && (typeSignature[i+1] != Util.C_COLON))
pendingVariable = true;
break;
default:
if (pendingVariable) {
pendingVariable = false;
int colon = CharOperation.indexOf(Util.C_COLON, typeSignature, i);
char[] variableName = CharOperation.subarray(typeSignature, i, colon);
TypeVariableBinding typeVariable = new TypeVariableBinding(variableName, this, rank, this.environment);
AnnotationBinding [] annotations = BinaryTypeBinding.createAnnotations(walker.toTypeParameter(isClassTypeParameter, rank++).getAnnotationsAtCursor(0),
this.environment, missingTypeNames);
if (annotations != null && annotations != Binding.NO_ANNOTATIONS)
typeVariable.setTypeAnnotations(annotations, this.environment.globalOptions.isAnnotationBasedNullAnalysisEnabled);
variables.add(typeVariable);
}
}
}
}
// initialize type variable bounds - may refer to forward variables
TypeVariableBinding[] result;
variables.toArray(result = new TypeVariableBinding[rank]);
// when creating the type variables for a type, the type must remember them before initializing each variable
// see https://bugs.eclipse.org/bugs/show_bug.cgi?id=163680
if (assignVariables)
this.typeVariables = result;
for (int i = 0; i < rank; i++) {
initializeTypeVariable(result[i], result, wrapper, missingTypeNames, walker.toTypeParameterBounds(isClassTypeParameter, i));
}
return result;
}
/* Answer the receiver's enclosing type... null if the receiver is a top level type.
*
* NOTE: enclosingType of a binary type is resolved when needed
*/
public ReferenceBinding enclosingType() { // should not delegate to prototype.
if ((this.tagBits & TagBits.HasUnresolvedEnclosingType) == 0)
return this.enclosingType;
// finish resolving the type
this.enclosingType = (ReferenceBinding) resolveType(this.enclosingType, this.environment, false /* no raw conversion */);
this.tagBits &= ~TagBits.HasUnresolvedEnclosingType;
return this.enclosingType;
}
// NOTE: the type of each field of a binary type is resolved when needed
public FieldBinding[] fields() {
if (!isPrototype()) {
return this.fields = this.prototype.fields();
}
if ((this.tagBits & TagBits.AreFieldsComplete) != 0)
return this.fields;
// lazily sort fields
if ((this.tagBits & TagBits.AreFieldsSorted) == 0) {
int length = this.fields.length;
if (length > 1)
ReferenceBinding.sortFields(this.fields, 0, length);
this.tagBits |= TagBits.AreFieldsSorted;
}
for (int i = this.fields.length; --i >= 0;)
resolveTypeFor(this.fields[i]);
this.tagBits |= TagBits.AreFieldsComplete;
return this.fields;
}
private MethodBinding findMethod(char[] methodDescriptor, char[][][] missingTypeNames) {
if (!isPrototype()) throw new IllegalStateException();
int index = -1;
while (methodDescriptor[++index] != Util.C_PARAM_START) {
// empty
}
char[] selector = new char[index];
System.arraycopy(methodDescriptor, 0, selector, 0, index);
TypeBinding[] parameters = Binding.NO_PARAMETERS;
int numOfParams = 0;
char nextChar;
int paramStart = index;
while ((nextChar = methodDescriptor[++index]) != Util.C_PARAM_END) {
if (nextChar != Util.C_ARRAY) {
numOfParams++;
if (nextChar == Util.C_RESOLVED)
while ((nextChar = methodDescriptor[++index]) != Util.C_NAME_END){/*empty*/}
}
}
if (numOfParams > 0) {
parameters = new TypeBinding[numOfParams];
index = paramStart + 1;
int end = paramStart; // first character is always '(' so skip it
for (int i = 0; i < numOfParams; i++) {
while ((nextChar = methodDescriptor[++end]) == Util.C_ARRAY){/*empty*/}
if (nextChar == Util.C_RESOLVED)
while ((nextChar = methodDescriptor[++end]) != Util.C_NAME_END){/*empty*/}
// not interested in type annotations, type will be used for comparison only, and erasure() is used if needed
TypeBinding param = this.environment.getTypeFromSignature(methodDescriptor, index, end, false, this, missingTypeNames, TypeAnnotationWalker.EMPTY_ANNOTATION_WALKER);
if (param instanceof UnresolvedReferenceBinding) {
param = resolveType(param, this.environment, true /* raw conversion */);
}
parameters[i] = param;
index = end + 1;
}
}
int parameterLength = parameters.length;
MethodBinding[] methods2 = this.enclosingType.getMethods(selector, parameterLength);
// find matching method using parameters
loop: for (int i = 0, max = methods2.length; i < max; i++) {
MethodBinding currentMethod = methods2[i];
TypeBinding[] parameters2 = currentMethod.parameters;
int currentMethodParameterLength = parameters2.length;
if (parameterLength == currentMethodParameterLength) {
for (int j = 0; j < currentMethodParameterLength; j++) {
//{ObjectTeams: weaker form of equality:
/* orig:
if (TypeBinding.notEquals(parameters[j], parameters2[j]) && TypeBinding.notEquals(parameters[j].erasure(), parameters2[j].erasure())) {
:giro */
if ( !AnchorMapping.areTypesEqual(parameters[j], parameters2[j], currentMethod)
&& !AnchorMapping.areTypesEqual(parameters[j].erasure(), parameters2[j].erasure(), currentMethod)) {
// SH}
continue loop;
}
}
return currentMethod;
}
}
return null;
}
/**
* @see org.eclipse.jdt.internal.compiler.lookup.TypeBinding#genericTypeSignature()
*/
public char[] genericTypeSignature() {
if (!isPrototype())
return this.prototype.computeGenericTypeSignature(this.typeVariables);
return computeGenericTypeSignature(this.typeVariables);
}
//NOTE: the return type, arg & exception types of each method of a binary type are resolved when needed
public MethodBinding getExactConstructor(TypeBinding[] argumentTypes) {
if (!isPrototype())
return this.prototype.getExactConstructor(argumentTypes);
// lazily sort methods
if ((this.tagBits & TagBits.AreMethodsSorted) == 0) {
int length = this.methods.length;
if (length > 1)
ReferenceBinding.sortMethods(this.methods, 0, length);
this.tagBits |= TagBits.AreMethodsSorted;
}
int argCount = argumentTypes.length;
long range;
if ((range = ReferenceBinding.binarySearch(TypeConstants.INIT, this.methods)) >= 0) {
nextMethod: for (int imethod = (int)range, end = (int)(range >> 32); imethod <= end; imethod++) {
MethodBinding method = this.methods[imethod];
if (method.parameters.length == argCount) {
resolveTypesFor(method);
TypeBinding[] toMatch = method.parameters;
for (int iarg = 0; iarg < argCount; iarg++)
//{ObjectTeams: weaker form of equality:
/* orig:
if (TypeBinding.notEquals(toMatch[iarg], argumentTypes[iarg]))
:giro */
if (!AnchorMapping.areTypesEqual(toMatch[iarg], argumentTypes[iarg], method))
// SH}
continue nextMethod;
return method;
}
}
}
return null;
}
//NOTE: the return type, arg & exception types of each method of a binary type are resolved when needed
//searches up the hierarchy as long as no potential (but not exact) match was found.
public MethodBinding getExactMethod(char[] selector, TypeBinding[] argumentTypes, CompilationUnitScope refScope) {
// sender from refScope calls recordTypeReference(this)
if (!isPrototype())
return this.prototype.getExactMethod(selector, argumentTypes, refScope);
// lazily sort methods
if ((this.tagBits & TagBits.AreMethodsSorted) == 0) {
int length = this.methods.length;
if (length > 1)
ReferenceBinding.sortMethods(this.methods, 0, length);
this.tagBits |= TagBits.AreMethodsSorted;
}
int argCount = argumentTypes.length;
boolean foundNothing = true;
long range;
if ((range = ReferenceBinding.binarySearch(selector, this.methods)) >= 0) {
nextMethod: for (int imethod = (int)range, end = (int)(range >> 32); imethod <= end; imethod++) {
MethodBinding method = this.methods[imethod];
foundNothing = false; // inner type lookups must know that a method with this name exists
if (method.parameters.length == argCount) {
resolveTypesFor(method);
TypeBinding[] toMatch = method.parameters;
for (int iarg = 0; iarg < argCount; iarg++)
//{ObjectTeams: weaker form of equality:
/* orig:
if (TypeBinding.notEquals(toMatch[iarg], argumentTypes[iarg]))
:giro */
if (!AnchorMapping.areTypesEqual(toMatch[iarg], argumentTypes[iarg], method))
// SH}
continue nextMethod;
return method;
}
}
}
if (foundNothing) {
if (isInterface()) {
//{ObjectTeams: Eclipse BUG?? search in all superinterfaces
/* orig:
if (superInterfaces().length == 1) { // ensure superinterfaces are resolved before checking
if (refScope != null)
refScope.recordTypeReference(this.superInterfaces[0]);
return this.superInterfaces[0].getExactMethod(selector, argumentTypes, refScope);
}
:giro */
if(superInterfaces().length > 0)
{
for (int idx = 0; idx < this.superInterfaces.length; idx++) {
if (refScope != null)
refScope.recordTypeReference(this.superInterfaces[idx]);
MethodBinding methodBinding = this.superInterfaces[idx].getExactMethod(selector, argumentTypes, refScope);
if(methodBinding != null)
return methodBinding;
}
}
//MW}
} else if (superclass() != null) { // ensure superclass is resolved before checking
if (refScope != null)
refScope.recordTypeReference(this.superclass);
return this.superclass.getExactMethod(selector, argumentTypes, refScope);
}
}
return null;
}
//NOTE: the type of a field of a binary type is resolved when needed
public FieldBinding getField(char[] fieldName, boolean needResolve) {
if (!isPrototype())
return this.prototype.getField(fieldName, needResolve);
// lazily sort fields
if ((this.tagBits & TagBits.AreFieldsSorted) == 0) {
int length = this.fields.length;
if (length > 1)
ReferenceBinding.sortFields(this.fields, 0, length);
this.tagBits |= TagBits.AreFieldsSorted;
}
FieldBinding field = ReferenceBinding.binarySearch(fieldName, this.fields);
return needResolve && field != null ? resolveTypeFor(field) : field;
}
/**
* Rewrite of default memberTypes() to avoid resolving eagerly all member types when one is requested
*/
public ReferenceBinding getMemberType(char[] typeName) {
if (!isPrototype()) {
ReferenceBinding memberType = this.prototype.getMemberType(typeName);
return memberType == null ? null : this.environment.createMemberType(memberType, this);
}
for (int i = this.memberTypes.length; --i >= 0;) {
ReferenceBinding memberType = this.memberTypes[i];
if (memberType instanceof UnresolvedReferenceBinding) {
char[] name = memberType.sourceName; // source name is qualified with enclosing type name
int prefixLength = this.compoundName[this.compoundName.length - 1].length + 1; // enclosing$
if (name.length == (prefixLength + typeName.length)) // enclosing $ typeName
if (CharOperation.fragmentEquals(typeName, name, prefixLength, true)) // only check trailing portion
return this.memberTypes[i] = (ReferenceBinding) resolveType(memberType, this.environment, false /* no raw conversion for now */);
} else if (CharOperation.equals(typeName, memberType.sourceName)) {
return memberType;
}
}
//{ObjectTeams: ROFI: intermediate patch!
// FIXME(SH): check this whole discussion:
// wait a minute: without a return this patch was effectless any way!
// only real effect: refering to binaryEnclosingTeam the parser can
// throw InternalCompilerError("Requesting role file {0} of team {1} which is already compiled");
if (isTeam()) {// and therefor have a team package
// we might be called without setting up Dependencies, i.e. when resolving the DOM AST
// TODO (carp): what else can we do instead of giving up? See TPX171
if (!Dependencies.isSetup())
return null;
// need to set Parser.currentTeam, for enclosingType to be set!
TypeDeclaration previousTeam = null;
Parser parser = Config.getParser();
if (parser != null) {
previousTeam = parser.currentTeam;
binaryEnclosingTeam.name = internalName();
parser.currentTeam = binaryEnclosingTeam; // a dummy AST!!
}
try {
if (this.teamPackage != null)
return this.teamPackage.getRoleType(typeName);
} finally {
if (parser != null)
parser.currentTeam = previousTeam;
}
}
// SH}
return null;
}
//{ObjectTeams: ROFI intermediate solution:
// FIXME(SH): location in file and documentation why/whether needed!
public static final TypeDeclaration binaryEnclosingTeam = new TypeDeclaration(null);
// SH}
// NOTE: the return type, arg & exception types of each method of a binary type are resolved when needed
public MethodBinding[] getMethods(char[] selector) {
if (!isPrototype())
return this.prototype.getMethods(selector);
if ((this.tagBits & TagBits.AreMethodsComplete) != 0) {
long range;
if ((range = ReferenceBinding.binarySearch(selector, this.methods)) >= 0) {
int start = (int) range, end = (int) (range >> 32);
int length = end - start + 1;
if ((this.tagBits & TagBits.AreMethodsComplete) != 0) {
// simply clone method subset
MethodBinding[] result;
System.arraycopy(this.methods, start, result = new MethodBinding[length], 0, length);
return result;
}
}
return Binding.NO_METHODS;
}
// lazily sort methods
if ((this.tagBits & TagBits.AreMethodsSorted) == 0) {
int length = this.methods.length;
if (length > 1)
ReferenceBinding.sortMethods(this.methods, 0, length);
this.tagBits |= TagBits.AreMethodsSorted;
}
long range;
if ((range = ReferenceBinding.binarySearch(selector, this.methods)) >= 0) {
int start = (int) range, end = (int) (range >> 32);
int length = end - start + 1;
MethodBinding[] result = new MethodBinding[length];
// iterate methods to resolve them
for (int i = start, index = 0; i <= end; i++, index++)
result[index] = resolveTypesFor(this.methods[i]);
return result;
}
return Binding.NO_METHODS;
}
// Answer methods named selector, which take no more than the suggestedParameterLength.
// The suggested parameter length is optional and may not be guaranteed by every type.
public MethodBinding[] getMethods(char[] selector, int suggestedParameterLength) {
if (!isPrototype())
return this.prototype.getMethods(selector, suggestedParameterLength);
if ((this.tagBits & TagBits.AreMethodsComplete) != 0)
return getMethods(selector);
// lazily sort methods
if ((this.tagBits & TagBits.AreMethodsSorted) == 0) {
int length = this.methods.length;
if (length > 1)
ReferenceBinding.sortMethods(this.methods, 0, length);
this.tagBits |= TagBits.AreMethodsSorted;
}
long range;
if ((range = ReferenceBinding.binarySearch(selector, this.methods)) >= 0) {
int start = (int) range, end = (int) (range >> 32);
int length = end - start + 1;
int count = 0;
for (int i = start; i <= end; i++) {
int len = this.methods[i].parameters.length;
if (len <= suggestedParameterLength || (this.methods[i].isVarargs() && len == suggestedParameterLength + 1))
count++;
}
if (count == 0) {
MethodBinding[] result = new MethodBinding[length];
// iterate methods to resolve them
for (int i = start, index = 0; i <= end; i++)
result[index++] = resolveTypesFor(this.methods[i]);
return result;
} else {
MethodBinding[] result = new MethodBinding[count];
// iterate methods to resolve them
for (int i = start, index = 0; i <= end; i++) {
int len = this.methods[i].parameters.length;
if (len <= suggestedParameterLength || (this.methods[i].isVarargs() && len == suggestedParameterLength + 1))
result[index++] = resolveTypesFor(this.methods[i]);
}
return result;
}
}
return Binding.NO_METHODS;
}
public boolean hasMemberTypes() {
if (!isPrototype())
return this.prototype.hasMemberTypes();
return this.memberTypes.length > 0;
}
// NOTE: member types of binary types are resolved when needed
public TypeVariableBinding getTypeVariable(char[] variableName) {
if (!isPrototype())
return this.prototype.getTypeVariable(variableName);
TypeVariableBinding variable = super.getTypeVariable(variableName);
variable.resolve();
return variable;
}
public boolean hasTypeBit(int bit) {
if (!isPrototype())
return this.prototype.hasTypeBit(bit);
// ensure hierarchy is resolved, which will propagate bits down to us
boolean wasToleratingMissingTypeProcessingAnnotations = this.environment.mayTolerateMissingType;
this.environment.mayTolerateMissingType = true;
try {
superclass();
superInterfaces();
} finally {
this.environment.mayTolerateMissingType = wasToleratingMissingTypeProcessingAnnotations;
}
return (this.typeBits & bit) != 0;
}
private void initializeTypeVariable(TypeVariableBinding variable, TypeVariableBinding[] existingVariables, SignatureWrapper wrapper, char[][][] missingTypeNames, TypeAnnotationWalker walker) {
if (!isPrototype()) throw new IllegalStateException();
// ParameterSignature = Identifier ':' TypeSignature
// or Identifier ':' TypeSignature(optional) InterfaceBound(s)
// InterfaceBound = ':' TypeSignature
int colon = CharOperation.indexOf(Util.C_COLON, wrapper.signature, wrapper.start);
wrapper.start = colon + 1; // skip name + ':'
ReferenceBinding type, firstBound = null;
short rank = 0;
if (wrapper.signature[wrapper.start] == Util.C_COLON) {
type = this.environment.getResolvedType(TypeConstants.JAVA_LANG_OBJECT, null);
} else {
TypeBinding typeFromTypeSignature = this.environment.getTypeFromTypeSignature(wrapper, existingVariables, this, missingTypeNames, walker.toTypeBound(rank++));
if (typeFromTypeSignature instanceof ReferenceBinding) {
type = (ReferenceBinding) typeFromTypeSignature;
} else {
// this should only happen if the signature is corrupted (332423)
type = this.environment.getResolvedType(TypeConstants.JAVA_LANG_OBJECT, null);
}
firstBound = type;
}
// variable is visible to its bounds
variable.modifiers |= ExtraCompilerModifiers.AccUnresolved;
variable.setSuperClass(type);
ReferenceBinding[] bounds = null;
if (wrapper.signature[wrapper.start] == Util.C_COLON) {
java.util.ArrayList types = new java.util.ArrayList(2);
do {
wrapper.start++; // skip ':'
types.add(this.environment.getTypeFromTypeSignature(wrapper, existingVariables, this, missingTypeNames, walker.toTypeBound(rank++)));
} while (wrapper.signature[wrapper.start] == Util.C_COLON);
bounds = new ReferenceBinding[types.size()];
types.toArray(bounds);
}
variable.setSuperInterfaces(bounds == null ? Binding.NO_SUPERINTERFACES : bounds);
if (firstBound == null) {
firstBound = variable.superInterfaces.length == 0 ? null : variable.superInterfaces[0];
}
variable.setFirstBound(firstBound);
}
/**
* Returns true if a type is identical to another one,
* or for generic types, true if compared to its raw type.
*/
public boolean isEquivalentTo(TypeBinding otherType) {
if (TypeBinding.equalsEquals(this, otherType)) return true;
if (otherType == null) return false;
switch(otherType.kind()) {
case Binding.WILDCARD_TYPE :
case Binding.INTERSECTION_TYPE :
return ((WildcardBinding) otherType).boundCheck(this);
case Binding.PARAMETERIZED_TYPE:
/* With the hybrid 1.4/1.5+ projects modes, while establishing type equivalence, we need to
be prepared for a type such as Map appearing in one of three forms: As (a) a ParameterizedTypeBinding
e.g Map<String, String>, (b) as RawTypeBinding Map#RAW and finally (c) as a BinaryTypeBinding
When the usage of a type lacks type parameters, whether we land up with the raw form or not depends
on whether the underlying type was "seen to be" a generic type in the particular build environment or
not. See https://bugs.eclipse.org/bugs/show_bug.cgi?id=186565 && https://bugs.eclipse.org/bugs/show_bug.cgi?id=328827
*/
case Binding.RAW_TYPE :
return TypeBinding.equalsEquals(otherType.erasure(), this);
}
return false;
}
public boolean isGenericType() {
if (!isPrototype())
return this.prototype.isGenericType();
return this.typeVariables != Binding.NO_TYPE_VARIABLES;
}
public boolean isHierarchyConnected() {
if (!isPrototype())
return this.prototype.isHierarchyConnected();
return (this.tagBits & (TagBits.HasUnresolvedSuperclass | TagBits.HasUnresolvedSuperinterfaces)) == 0;
}
public boolean isRepeatableAnnotationType() {
if (!isPrototype()) throw new IllegalStateException();
return this.containerAnnotationType != null;
}
public int kind() {
if (!isPrototype())
return this.prototype.kind();
if (this.typeVariables != Binding.NO_TYPE_VARIABLES)
return Binding.GENERIC_TYPE;
return Binding.TYPE;
}
// NOTE: member types of binary types are resolved when needed
public ReferenceBinding[] memberTypes() {
if (!isPrototype()) {
if ((this.tagBits & TagBits.HasUnresolvedMemberTypes) == 0)
return this.memberTypes;
ReferenceBinding [] members = this.prototype.memberTypes();
int memberTypesLength = members == null ? 0 : members.length;
if (memberTypesLength > 0) {
this.memberTypes = new ReferenceBinding[memberTypesLength];
for (int i = 0; i < memberTypesLength; i++)
this.memberTypes[i] = this.environment.createMemberType(members[i], this);
}
this.tagBits &= ~TagBits.HasUnresolvedMemberTypes;
return this.memberTypes;
}
if ((this.tagBits & TagBits.HasUnresolvedMemberTypes) == 0)
return this.memberTypes;
for (int i = this.memberTypes.length; --i >= 0;)
this.memberTypes[i] = (ReferenceBinding) resolveType(this.memberTypes[i], this.environment, false /* no raw conversion for now */);
this.tagBits &= ~TagBits.HasUnresolvedMemberTypes;
return this.memberTypes;
}
// NOTE: the return type, arg & exception types of each method of a binary type are resolved when needed
public MethodBinding[] methods() {
if (!isPrototype()) {
return this.methods = this.prototype.methods();
}
if ((this.tagBits & TagBits.AreMethodsComplete) != 0)
return this.methods;
// lazily sort methods
if ((this.tagBits & TagBits.AreMethodsSorted) == 0) {
int length = this.methods.length;
if (length > 1)
ReferenceBinding.sortMethods(this.methods, 0, length);
this.tagBits |= TagBits.AreMethodsSorted;
}
for (int i = this.methods.length; --i >= 0;)
resolveTypesFor(this.methods[i]);
this.tagBits |= TagBits.AreMethodsComplete;
return this.methods;
}
public TypeBinding prototype() {
return this.prototype;
}
private boolean isPrototype() {
return this == this.prototype; //$IDENTITY-COMPARISON$
}
public ReferenceBinding containerAnnotationType() {
if (!isPrototype()) throw new IllegalStateException();
if (this.containerAnnotationType instanceof UnresolvedReferenceBinding) {
this.containerAnnotationType = (ReferenceBinding) BinaryTypeBinding.resolveType(this.containerAnnotationType, this.environment, false);
}
return this.containerAnnotationType;
}
private FieldBinding resolveTypeFor(FieldBinding field) {
if (!isPrototype())
return this.prototype.resolveTypeFor(field);
if ((field.modifiers & ExtraCompilerModifiers.AccUnresolved) == 0)
return field;
TypeBinding resolvedType = resolveType(field.type, this.environment, true /* raw conversion */);
field.type = resolvedType;
if ((resolvedType.tagBits & TagBits.HasMissingType) != 0) {
field.tagBits |= TagBits.HasMissingType;
}
//{ObjectTeams: does this field have a type anchor?
char[] anchorName = null;
if (field.model != null) {
if (field.model.hasResolveAnchorStarted) {
this.environment.problemReporter.cycleInFieldAnchor(field);
} else {
field.model.hasResolveAnchorStarted = true;
anchorName = field.model.typeAnchor;
}
}
if (anchorName != null)
field.type = RoleTypeCreator.wrapTypeWithAnchorFromName(
field.type, anchorName, this, this.environment);
else
// implicit anchor?
field.type = RoleTypeCreator.maybeWrapUnqualifiedRoleType(
field.type, this);
// SH}
field.modifiers &= ~ExtraCompilerModifiers.AccUnresolved;
return field;
}
MethodBinding resolveTypesFor(MethodBinding method) {
if (!isPrototype())
return this.prototype.resolveTypesFor(method);
if ((method.modifiers & ExtraCompilerModifiers.AccUnresolved) == 0)
return method;
if (!method.isConstructor()) {
TypeBinding resolvedType = resolveType(method.returnType, this.environment, true /* raw conversion */);
method.returnType = resolvedType;
if ((resolvedType.tagBits & TagBits.HasMissingType) != 0) {
method.tagBits |= TagBits.HasMissingType;
}
}
for (int i = method.parameters.length; --i >= 0;) {
TypeBinding resolvedType = resolveType(method.parameters[i], this.environment, true /* raw conversion */);
method.parameters[i] = resolvedType;
if ((resolvedType.tagBits & TagBits.HasMissingType) != 0) {
method.tagBits |= TagBits.HasMissingType;
}
}
for (int i = method.thrownExceptions.length; --i >= 0;) {
ReferenceBinding resolvedType = (ReferenceBinding) resolveType(method.thrownExceptions[i], this.environment, true /* raw conversion */);
method.thrownExceptions[i] = resolvedType;
if ((resolvedType.tagBits & TagBits.HasMissingType) != 0) {
method.tagBits |= TagBits.HasMissingType;
}
}
for (int i = method.typeVariables.length; --i >= 0;) {
method.typeVariables[i].resolve();
}
//{ObjectTeams: now that return type is resolved restore access modifiers for castto method
// restore access flags for castTo-methods:
// (see StandardElementGenerator.getCastMethod())
if ( CharOperation.prefixEquals(IOTConstants.CAST_PREFIX, method.selector)
&& !((ReferenceBinding)method.returnType).isPublic())
{
method.modifiers &= ~ExtraCompilerModifiers.AccVisibilityMASK;
method.modifiers |= ClassFileConstants.AccProtected;
}
if (!method.isSynthetic())
RoleTypeCreator.wrapTypesInMethodBindingSignature(method, this.environment);
// SH}
method.modifiers &= ~ExtraCompilerModifiers.AccUnresolved;
return method;
}
//{ObjectTeams: accessible to classes in org.eclipse.objectteams...:
public
// SH}
AnnotationBinding[] retrieveAnnotations(Binding binding) {
if (!isPrototype())
return this.prototype.retrieveAnnotations(binding);
return AnnotationBinding.addStandardAnnotations(super.retrieveAnnotations(binding), binding.getAnnotationTagBits(), this.environment);
}
public void setContainerAnnotationType(ReferenceBinding value) {
if (!isPrototype()) throw new IllegalStateException();
this.containerAnnotationType = value;
}
public void tagAsHavingDefectiveContainerType() {
if (!isPrototype()) throw new IllegalStateException();
if (this.containerAnnotationType != null && this.containerAnnotationType.isValidBinding())
this.containerAnnotationType = new ProblemReferenceBinding(this.containerAnnotationType.compoundName, this.containerAnnotationType, ProblemReasons.DefectiveContainerAnnotationType);
}
SimpleLookupTable storedAnnotations(boolean forceInitialize) {
if (!isPrototype())
return this.prototype.storedAnnotations(forceInitialize);
if (forceInitialize && this.storedAnnotations == null) {
//{ObjectTeams: do support annotations for roles for the sake of copying:
if (!this.isRole())
// SH}
if (!this.environment.globalOptions.storeAnnotations)
return null; // not supported during this compile
this.storedAnnotations = new SimpleLookupTable(3);
}
return this.storedAnnotations;
}
//pre: null annotation analysis is enabled
private void scanFieldForNullAnnotation(IBinaryField field, FieldBinding fieldBinding, boolean isEnum) {
if (!isPrototype()) throw new IllegalStateException();
if (isEnum && (field.getModifiers() & ClassFileConstants.AccEnum) != 0) {
fieldBinding.tagBits |= TagBits.AnnotationNonNull;
return; // we know it's nonnull, no need to look for null *annotations* on enum constants.
}
if (this.environment.globalOptions.sourceLevel >= ClassFileConstants.JDK1_8) {
TypeBinding fieldType = fieldBinding.type;
if (fieldType != null
&& !fieldType.isBaseType()
&& (fieldType.tagBits & TagBits.AnnotationNullMASK) == 0
&& hasNonNullDefaultFor(DefaultLocationField, true)) {
fieldBinding.type = this.environment.createAnnotatedType(fieldType, new AnnotationBinding[]{this.environment.getNonNullAnnotation()});
}
return; // not using fieldBinding.tagBits when we have type annotations.
}
// global option is checked by caller
char[][] nullableAnnotationName = this.environment.getNullableAnnotationName();
char[][] nonNullAnnotationName = this.environment.getNonNullAnnotationName();
if (nullableAnnotationName == null || nonNullAnnotationName == null)
return; // not well-configured to use null annotations
if (fieldBinding.type == null || fieldBinding.type.isBaseType())
return; // null annotations are only applied to reference types
boolean explicitNullness = false;
IBinaryAnnotation[] annotations = field.getAnnotations();
if (annotations != null) {
for (int i = 0; i < annotations.length; i++) {
char[] annotationTypeName = annotations[i].getTypeName();
if (annotationTypeName[0] != Util.C_RESOLVED)
continue;
char[][] typeName = CharOperation.splitOn('/', annotationTypeName, 1, annotationTypeName.length-1); // cut of leading 'L' and trailing ';'
if (CharOperation.equals(typeName, nonNullAnnotationName)) {
fieldBinding.tagBits |= TagBits.AnnotationNonNull;
explicitNullness = true;
break;
}
if (CharOperation.equals(typeName, nullableAnnotationName)) {
fieldBinding.tagBits |= TagBits.AnnotationNullable;
explicitNullness = true;
break;
}
}
}
if (!explicitNullness && (this.tagBits & TagBits.AnnotationNonNullByDefault) != 0) {
fieldBinding.tagBits |= TagBits.AnnotationNonNull;
}
}
private void scanMethodForNullAnnotation(IBinaryMethod method, MethodBinding methodBinding) {
if (!isPrototype()) throw new IllegalStateException();
char[][] nullableAnnotationName = this.environment.getNullableAnnotationName();
char[][] nonNullAnnotationName = this.environment.getNonNullAnnotationName();
char[][] nonNullByDefaultAnnotationName = this.environment.getNonNullByDefaultAnnotationName();
if (nullableAnnotationName == null || nonNullAnnotationName == null || nonNullByDefaultAnnotationName == null)
return; // not well-configured to use null annotations
// return:
IBinaryAnnotation[] annotations = method.getAnnotations();
if (annotations != null) {
for (int i = 0; i < annotations.length; i++) {
char[] annotationTypeName = annotations[i].getTypeName();
if (annotationTypeName[0] != Util.C_RESOLVED)
continue;
char[][] typeName = CharOperation.splitOn('/', annotationTypeName, 1, annotationTypeName.length-1); // cut of leading 'L' and trailing ';'
if (CharOperation.equals(typeName, nonNullByDefaultAnnotationName)) {
methodBinding.defaultNullness = getNonNullByDefaultValue(annotations[i]);
if (methodBinding.defaultNullness == Binding.NULL_UNSPECIFIED_BY_DEFAULT)
methodBinding.tagBits |= TagBits.AnnotationNullUnspecifiedByDefault;
else if (methodBinding.defaultNullness != 0)
methodBinding.tagBits |= TagBits.AnnotationNonNullByDefault;
} else if (CharOperation.equals(typeName, nonNullAnnotationName)) {
methodBinding.tagBits |= TagBits.AnnotationNonNull;
} else if (CharOperation.equals(typeName, nullableAnnotationName)) {
methodBinding.tagBits |= TagBits.AnnotationNullable;
}
}
}
// parameters:
TypeBinding[] parameters = methodBinding.parameters;
int numVisibleParams = parameters.length;
int numParamAnnotations = method.getAnnotatedParametersCount();
if (numParamAnnotations > 0) {
for (int j = 0; j < numVisibleParams; j++) {
if (numParamAnnotations > 0) {
int startIndex = numParamAnnotations - numVisibleParams;
IBinaryAnnotation[] paramAnnotations = method.getParameterAnnotations(j+startIndex);
if (paramAnnotations != null) {
for (int i = 0; i < paramAnnotations.length; i++) {
char[] annotationTypeName = paramAnnotations[i].getTypeName();
if (annotationTypeName[0] != Util.C_RESOLVED)
continue;
char[][] typeName = CharOperation.splitOn('/', annotationTypeName, 1, annotationTypeName.length-1); // cut of leading 'L' and trailing ';'
if (CharOperation.equals(typeName, nonNullAnnotationName)) {
if (methodBinding.parameterNonNullness == null)
methodBinding.parameterNonNullness = new Boolean[numVisibleParams];
methodBinding.parameterNonNullness[j] = Boolean.TRUE;
break;
} else if (CharOperation.equals(typeName, nullableAnnotationName)) {
if (methodBinding.parameterNonNullness == null)
methodBinding.parameterNonNullness = new Boolean[numVisibleParams];
methodBinding.parameterNonNullness[j] = Boolean.FALSE;
break;
}
}
}
}
}
}
}
// pre: null annotation analysis is enabled
private void scanTypeForNullDefaultAnnotation(IBinaryType binaryType, PackageBinding packageBinding) {
if (!isPrototype()) throw new IllegalStateException();
char[][] nonNullByDefaultAnnotationName = this.environment.getNonNullByDefaultAnnotationName();
if (nonNullByDefaultAnnotationName == null)
return; // not well-configured to use null annotations
IBinaryAnnotation[] annotations = binaryType.getAnnotations();
boolean isPackageInfo = CharOperation.equals(sourceName(), TypeConstants.PACKAGE_INFO_NAME);
if (annotations != null) {
long annotationBit = 0L;
int nullness = NO_NULL_DEFAULT;
int length = annotations.length;
for (int i = 0; i < length; i++) {
char[] annotationTypeName = annotations[i].getTypeName();
if (annotationTypeName[0] != Util.C_RESOLVED)
continue;
char[][] typeName = CharOperation.splitOn('/', annotationTypeName, 1, annotationTypeName.length-1); // cut of leading 'L' and trailing ';'
if (CharOperation.equals(typeName, nonNullByDefaultAnnotationName)) {
// using NonNullByDefault we need to inspect the details of the value() attribute:
nullness = getNonNullByDefaultValue(annotations[i]);
if (nullness == NULL_UNSPECIFIED_BY_DEFAULT) {
annotationBit = TagBits.AnnotationNullUnspecifiedByDefault;
} else if (nullness != 0) {
annotationBit = TagBits.AnnotationNonNullByDefault;
}
this.defaultNullness = nullness;
break;
}
}
if (annotationBit != 0L) {
this.tagBits |= annotationBit;
if (isPackageInfo)
packageBinding.defaultNullness = nullness;
return;
}
}
if (isPackageInfo) {
// no default annotations found in package-info
packageBinding.defaultNullness = Binding.NO_NULL_DEFAULT;
return;
}
ReferenceBinding enclosingTypeBinding = this.enclosingType;
if (enclosingTypeBinding != null) {
if (setNullDefault(enclosingTypeBinding.tagBits, enclosingTypeBinding.getNullDefault()))
return;
}
// no annotation found on the type or its enclosing types
// check the package-info for default annotation if not already done before
if (packageBinding.defaultNullness == Binding.NO_NULL_DEFAULT && !isPackageInfo) {
// this will scan the annotations in package-info
ReferenceBinding packageInfo = packageBinding.getType(TypeConstants.PACKAGE_INFO_NAME);
if (packageInfo == null) {
packageBinding.defaultNullness = Binding.NO_NULL_DEFAULT;
}
}
// no @NonNullByDefault at type level, check containing package:
setNullDefault(0L, packageBinding.defaultNullness);
}
boolean setNullDefault(long oldNullTagBits, int newNullDefault) {
this.defaultNullness = newNullDefault;
if (newNullDefault != 0) {
if (newNullDefault == Binding.NULL_UNSPECIFIED_BY_DEFAULT)
this.tagBits |= TagBits.AnnotationNullUnspecifiedByDefault;
else
this.tagBits |= TagBits.AnnotationNonNullByDefault;
return true;
}
if ((oldNullTagBits & TagBits.AnnotationNonNullByDefault) != 0) {
this.tagBits |= TagBits.AnnotationNonNullByDefault;
return true;
} else if ((oldNullTagBits & TagBits.AnnotationNullUnspecifiedByDefault) != 0) {
this.tagBits |= TagBits.AnnotationNullUnspecifiedByDefault;
return true;
}
return false;
}
/** given an application of @NonNullByDefault convert the annotation argument (if any) into a bitvector a la {@link Binding#NullnessDefaultMASK} */
// pre: null annotation analysis is enabled
int getNonNullByDefaultValue(IBinaryAnnotation annotation) {
char[] annotationTypeName = annotation.getTypeName();
char[][] typeName = CharOperation.splitOn('/', annotationTypeName, 1, annotationTypeName.length-1); // cut of leading 'L' and trailing ';'
IBinaryElementValuePair[] elementValuePairs = annotation.getElementValuePairs();
if (elementValuePairs == null || elementValuePairs.length == 0 ) {
// no argument: apply default default
ReferenceBinding annotationType = this.environment.getType(typeName);
if (annotationType == null) return 0;
if (annotationType.isUnresolvedType())
annotationType = ((UnresolvedReferenceBinding) annotationType).resolve(this.environment, false);
MethodBinding[] annotationMethods = annotationType.methods();
if (annotationMethods != null && annotationMethods.length == 1) {
Object value = annotationMethods[0].getDefaultValue();
return Annotation.nullLocationBitsFromAnnotationValue(value);
}
return NONNULL_BY_DEFAULT; // custom unconfigurable NNBD
} else if (elementValuePairs.length > 0) {
// evaluate the contained EnumConstantSignatures:
int nullness = 0;
for (int i = 0; i < elementValuePairs.length; i++)
nullness |= Annotation.nullLocationBitsFromAnnotationValue(elementValuePairs[i].getValue());
return nullness;
} else {
// empty argument: cancel all defaults from enclosing scopes
return NULL_UNSPECIFIED_BY_DEFAULT;
}
}
@Override
int getNullDefault() {
return this.defaultNullness;
}
private void scanTypeForContainerAnnotation(IBinaryType binaryType, char[][][] missingTypeNames) {
if (!isPrototype()) throw new IllegalStateException();
IBinaryAnnotation[] annotations = binaryType.getAnnotations();
if (annotations != null) {
int length = annotations.length;
for (int i = 0; i < length; i++) {
char[] annotationTypeName = annotations[i].getTypeName();
if (CharOperation.equals(annotationTypeName, ConstantPool.JAVA_LANG_ANNOTATION_REPEATABLE)) {
IBinaryElementValuePair[] elementValuePairs = annotations[i].getElementValuePairs();
if (elementValuePairs != null && elementValuePairs.length == 1) {
Object value = elementValuePairs[0].getValue();
if (value instanceof ClassSignature) {
this.containerAnnotationType = (ReferenceBinding) this.environment.getTypeFromSignature(((ClassSignature)value).getTypeName(), 0, -1, false, null, missingTypeNames, TypeAnnotationWalker.EMPTY_ANNOTATION_WALKER);
}
}
break;
}
}
}
}
/* Answer the receiver's superclass... null if the receiver is Object or an interface.
*
* NOTE: superclass of a binary type is resolved when needed
*/
public ReferenceBinding superclass() {
if (!isPrototype()) {
return this.superclass = this.prototype.superclass();
}
if ((this.tagBits & TagBits.HasUnresolvedSuperclass) == 0)
return this.superclass;
// finish resolving the type
this.superclass = (ReferenceBinding) resolveType(this.superclass, this.environment, true /* raw conversion */);
this.tagBits &= ~TagBits.HasUnresolvedSuperclass;
if (this.superclass.problemId() == ProblemReasons.NotFound) {
this.tagBits |= TagBits.HierarchyHasProblems; // propagate type inconsistency
} else {
// make super-type resolving recursive for propagating typeBits downwards
boolean wasToleratingMissingTypeProcessingAnnotations = this.environment.mayTolerateMissingType;
this.environment.mayTolerateMissingType = true; // https://bugs.eclipse.org/bugs/show_bug.cgi?id=360164
try {
this.superclass.superclass();
this.superclass.superInterfaces();
} finally {
this.environment.mayTolerateMissingType = wasToleratingMissingTypeProcessingAnnotations;
}
}
this.typeBits |= (this.superclass.typeBits & TypeIds.InheritableBits);
if ((this.typeBits & (TypeIds.BitAutoCloseable|TypeIds.BitCloseable)) != 0) // avoid the side-effects of hasTypeBit()!
this.typeBits |= applyCloseableClassWhitelists();
return this.superclass;
}
//{ObjectTeams:
public ReferenceBinding baseclass () {
if (this.baseclass == null)
return null;
if (this.baseclass instanceof UnresolvedReferenceBinding)
this.baseclass = ((UnresolvedReferenceBinding) this.baseclass).resolve(this.environment, false);
return this.baseclass;
}
/** Needed for confined types: class file says "j.l.Object", but we actually mean: __OT__Confined.*/
public void resetSuperclass(ReferenceBinding superClass) {
if (CharOperation.equals(IOTConstants.ORG_OBJECTTEAMS_TEAM_CONFINED, this.compoundName))
this.superclass= null;
else if (isInterface())
this.superclass= superClass;
}
// SH}
// NOTE: superInterfaces of binary types are resolved when needed
public ReferenceBinding[] superInterfaces() {
if (!isPrototype()) {
return this.superInterfaces = this.prototype.superInterfaces();
}
if ((this.tagBits & TagBits.HasUnresolvedSuperinterfaces) == 0)
return this.superInterfaces;
for (int i = this.superInterfaces.length; --i >= 0;) {
this.superInterfaces[i] = (ReferenceBinding) resolveType(this.superInterfaces[i], this.environment, true /* raw conversion */);
if (this.superInterfaces[i].problemId() == ProblemReasons.NotFound) {
this.tagBits |= TagBits.HierarchyHasProblems; // propagate type inconsistency
} else {
// make super-type resolving recursive for propagating typeBits downwards
boolean wasToleratingMissingTypeProcessingAnnotations = this.environment.mayTolerateMissingType;
this.environment.mayTolerateMissingType = true; // https://bugs.eclipse.org/bugs/show_bug.cgi?id=360164
try {
this.superInterfaces[i].superclass();
if (this.superInterfaces[i].isParameterizedType()) {
ReferenceBinding superType = this.superInterfaces[i].actualType();
if (TypeBinding.equalsEquals(superType, this)) {
this.tagBits |= TagBits.HierarchyHasProblems;
continue;
}
}
this.superInterfaces[i].superInterfaces();
} finally {
this.environment.mayTolerateMissingType = wasToleratingMissingTypeProcessingAnnotations;
}
}
this.typeBits |= (this.superInterfaces[i].typeBits & TypeIds.InheritableBits);
if ((this.typeBits & (TypeIds.BitAutoCloseable|TypeIds.BitCloseable)) != 0) // avoid the side-effects of hasTypeBit()!
this.typeBits |= applyCloseableInterfaceWhitelists();
}
this.tagBits &= ~TagBits.HasUnresolvedSuperinterfaces;
return this.superInterfaces;
}
public TypeVariableBinding[] typeVariables() {
if (!isPrototype()) {
return this.typeVariables = this.prototype.typeVariables();
}
if ((this.tagBits & TagBits.HasUnresolvedTypeVariables) == 0)
return this.typeVariables;
for (int i = this.typeVariables.length; --i >= 0;)
this.typeVariables[i].resolve();
this.tagBits &= ~TagBits.HasUnresolvedTypeVariables;
return this.typeVariables;
}
public String toString() {
if (this.hasTypeAnnotations())
return annotatedDebugName();
StringBuffer buffer = new StringBuffer();
if (isDeprecated()) buffer.append("deprecated "); //$NON-NLS-1$
if (isPublic()) buffer.append("public "); //$NON-NLS-1$
if (isProtected()) buffer.append("protected "); //$NON-NLS-1$
if (isPrivate()) buffer.append("private "); //$NON-NLS-1$
if (isAbstract() && isClass()) buffer.append("abstract "); //$NON-NLS-1$
if (isStatic() && isNestedType()) buffer.append("static "); //$NON-NLS-1$
if (isFinal()) buffer.append("final "); //$NON-NLS-1$
// {ObjectTeams
if (isTeam()) buffer.append("team "); //$NON-NLS-1$
// Markus Witte}
if (isEnum()) buffer.append("enum "); //$NON-NLS-1$
else if (isAnnotationType()) buffer.append("@interface "); //$NON-NLS-1$
else if (isClass()) buffer.append("class "); //$NON-NLS-1$
else buffer.append("interface "); //$NON-NLS-1$
buffer.append((this.compoundName != null) ? CharOperation.toString(this.compoundName) : "UNNAMED TYPE"); //$NON-NLS-1$
if (this.typeVariables == null) {
buffer.append("<NULL TYPE VARIABLES>"); //$NON-NLS-1$
} else if (this.typeVariables != Binding.NO_TYPE_VARIABLES) {
buffer.append("<"); //$NON-NLS-1$
for (int i = 0, length = this.typeVariables.length; i < length; i++) {
if (i > 0) buffer.append(", "); //$NON-NLS-1$
if (this.typeVariables[i] == null) {
buffer.append("NULL TYPE VARIABLE"); //$NON-NLS-1$
continue;
}
char[] varChars = this.typeVariables[i].toString().toCharArray();
buffer.append(varChars, 1, varChars.length - 2);
}
buffer.append(">"); //$NON-NLS-1$
}
buffer.append("\n\textends "); //$NON-NLS-1$
buffer.append((this.superclass != null) ? this.superclass.debugName() : "NULL TYPE"); //$NON-NLS-1$
if (this.superInterfaces != null) {
if (this.superInterfaces != Binding.NO_SUPERINTERFACES) {
buffer.append("\n\timplements : "); //$NON-NLS-1$
for (int i = 0, length = this.superInterfaces.length; i < length; i++) {
if (i > 0)
buffer.append(", "); //$NON-NLS-1$
buffer.append((this.superInterfaces[i] != null) ? this.superInterfaces[i].debugName() : "NULL TYPE"); //$NON-NLS-1$
}
}
} else {
buffer.append("NULL SUPERINTERFACES"); //$NON-NLS-1$
}
//{ObjectTeams
if (baseclass() != null) {
buffer.append("\n\tplayedBy "); //$NON-NLS-1$
buffer.append(baseclass().debugName());
}
// SH}
if (this.enclosingType != null) {
buffer.append("\n\tenclosing type : "); //$NON-NLS-1$
buffer.append(this.enclosingType.debugName());
}
if (this.fields != null) {
if (this.fields != Binding.NO_FIELDS) {
buffer.append("\n/* fields */"); //$NON-NLS-1$
for (int i = 0, length = this.fields.length; i < length; i++)
buffer.append((this.fields[i] != null) ? "\n" + this.fields[i].toString() : "\nNULL FIELD"); //$NON-NLS-1$ //$NON-NLS-2$
}
} else {
buffer.append("NULL FIELDS"); //$NON-NLS-1$
}
if (this.methods != null) {
if (this.methods != Binding.NO_METHODS) {
buffer.append("\n/* methods */"); //$NON-NLS-1$
for (int i = 0, length = this.methods.length; i < length; i++)
buffer.append((this.methods[i] != null) ? "\n" + this.methods[i].toString() : "\nNULL METHOD"); //$NON-NLS-1$ //$NON-NLS-2$
}
} else {
buffer.append("NULL METHODS"); //$NON-NLS-1$
}
if (this.memberTypes != null) {
if (this.memberTypes != Binding.NO_MEMBER_TYPES) {
buffer.append("\n/* members */"); //$NON-NLS-1$
for (int i = 0, length = this.memberTypes.length; i < length; i++)
buffer.append((this.memberTypes[i] != null) ? "\n" + this.memberTypes[i].toString() : "\nNULL TYPE"); //$NON-NLS-1$ //$NON-NLS-2$
}
} else {
buffer.append("NULL MEMBER TYPES"); //$NON-NLS-1$
}
buffer.append("\n\n\n"); //$NON-NLS-1$
return buffer.toString();
}
public TypeBinding unannotated() {
return this.prototype;
}
public TypeBinding withoutToplevelNullAnnotation() {
if (!hasNullTypeAnnotations())
return this;
AnnotationBinding[] newAnnotations = this.environment.filterNullTypeAnnotations(this.typeAnnotations);
if (newAnnotations.length > 0)
return this.environment.createAnnotatedType(this.prototype, newAnnotations);
return this.prototype;
}
MethodBinding[] unResolvedMethods() { // for the MethodVerifier so it doesn't resolve types
if (!isPrototype())
return this.prototype.unResolvedMethods();
return this.methods;
}
public FieldBinding[] unResolvedFields() {
if (!isPrototype())
return this.prototype.unResolvedFields();
return this.fields;
}
//{ObjectTeams: for use by TypeModel:
public ReferenceBinding[] unresolvedMemberTypes() {
return this.memberTypes;
}
// SH}
}