/** Returns the ClassMemberSpecification currently represented in this dialog. */
public ClassMemberSpecification getClassMemberSpecification() {
String name = nameTextField.getText();
String type = typeTextField.getText();
String arguments = argumentsTextField.getText();
if (name.equals("") || name.equals("*")) {
name = null;
}
if (type.equals("") || type.equals("*")) {
type = null;
}
if (name != null || type != null) {
if (isField) {
if (type == null) {
type = ClassConstants.EXTERNAL_TYPE_INT;
}
type = ClassUtil.internalType(type);
} else {
if (type == null) {
type = ClassConstants.EXTERNAL_TYPE_VOID;
}
type = ClassUtil.internalMethodDescriptor(type, ListUtil.commaSeparatedList(arguments));
}
}
ClassMemberSpecification classMemberSpecification =
new ClassMemberSpecification(0, 0, name, type);
// Also get the access radio button settings.
getClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_PUBLIC, publicRadioButtons);
getClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_PRIVATE, privateRadioButtons);
getClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_PROTECTED, protectedRadioButtons);
getClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_STATIC, staticRadioButtons);
getClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_FINAL, finalRadioButtons);
getClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_VOLATILE, volatileRadioButtons);
getClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_TRANSIENT, transientRadioButtons);
getClassMemberSpecificationRadioButtons(
classMemberSpecification,
ClassConstants.INTERNAL_ACC_SYNCHRONIZED,
synchronizedRadioButtons);
getClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_NATIVE, nativeRadioButtons);
getClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_ABSTRACT, abstractRadioButtons);
getClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_STRICT, strictRadioButtons);
return classMemberSpecification;
}
public void visitProgramClass(ProgramClass programClass) {
String name = programClass.getName();
String newName = ClassObfuscator.newClassName(programClass);
ps.println(
ClassUtil.externalClassName(name) + " -> " + ClassUtil.externalClassName(newName) + ":");
// Print out the class members.
programClass.fieldsAccept(this);
programClass.methodsAccept(this);
}
private void writeMethodSpecification(List memberSpecifications) {
if (memberSpecifications != null) {
for (int index = 0; index < memberSpecifications.size(); index++) {
MemberSpecification memberSpecification =
(MemberSpecification) memberSpecifications.get(index);
writer.print(" ");
// Write out the required annotation, if any.
if (memberSpecification.annotationType != null) {
writer.print(ConfigurationConstants.ANNOTATION_KEYWORD);
writer.println(ClassUtil.externalType(memberSpecification.annotationType));
writer.print(" ");
}
// Write out the method access flags.
writer.print(
ClassUtil.externalMethodAccessFlags(
memberSpecification.requiredUnsetAccessFlags,
ConfigurationConstants.NEGATOR_KEYWORD));
writer.print(
ClassUtil.externalMethodAccessFlags(memberSpecification.requiredSetAccessFlags));
// Write out the method name and descriptor.
String name = memberSpecification.name;
String descriptor = memberSpecification.descriptor;
writer.print(
descriptor == null
? name == null
? ConfigurationConstants.ANY_METHOD_KEYWORD
: ConfigurationConstants.ANY_TYPE_KEYWORD
+ ' '
+ name
+ ConfigurationConstants.OPEN_ARGUMENTS_KEYWORD
+ ConfigurationConstants.ANY_ARGUMENTS_KEYWORD
+ ConfigurationConstants.CLOSE_ARGUMENTS_KEYWORD
: ClassUtil.externalFullMethodDescription(
ClassConstants.METHOD_NAME_INIT,
0,
name == null ? ConfigurationConstants.ANY_CLASS_MEMBER_KEYWORD : name,
descriptor));
writer.println(ConfigurationConstants.SEPARATOR_KEYWORD);
}
}
}
public void visitCodeAttribute(Clazz clazz, Method method, CodeAttribute codeAttribute) {
// DEBUG =
// clazz.getName().equals("abc/Def") &&
// method.getName(clazz).equals("abc");
// The minimum variable size is determined by the arguments.
codeAttribute.u2maxLocals =
ClassUtil.internalMethodParameterSize(method.getDescriptor(clazz), method.getAccessFlags());
if (DEBUG) {
System.out.println(
"VariableSizeUpdater: "
+ clazz.getName()
+ "."
+ method.getName(clazz)
+ method.getDescriptor(clazz));
System.out.println(" Max locals: " + codeAttribute.u2maxLocals + " <- parameters");
}
// Go over all instructions.
codeAttribute.instructionsAccept(clazz, method, this);
// Remove the unused variables of the attributes.
codeAttribute.attributesAccept(clazz, method, variableCleaner);
}
public void visitLibraryClass(LibraryClass libraryClass) {
notePrinter.print(
libraryClass.getName(),
"Note: duplicate definition of library class ["
+ ClassUtil.externalClassName(libraryClass.getName())
+ "]");
}
/** Returns a shrunk descriptor or signature of the given method. */
private String shrinkDescriptor(Method method, String descriptor) {
// All parameters of non-static methods are shifted by one in the local
// variable frame.
int parameterIndex =
(method.getAccessFlags() & ClassConstants.INTERNAL_ACC_STATIC) != 0 ? 0 : 1;
// Go over the parameters.
InternalTypeEnumeration internalTypeEnumeration = new InternalTypeEnumeration(descriptor);
StringBuffer newDescriptorBuffer = new StringBuffer();
newDescriptorBuffer.append(internalTypeEnumeration.formalTypeParameters());
newDescriptorBuffer.append(ClassConstants.INTERNAL_METHOD_ARGUMENTS_OPEN);
while (internalTypeEnumeration.hasMoreTypes()) {
String type = internalTypeEnumeration.nextType();
if (ParameterUsageMarker.isParameterUsed(method, parameterIndex)) {
newDescriptorBuffer.append(type);
} else if (DEBUG) {
System.out.println(" Deleting parameter #" + parameterIndex + " [" + type + "]");
}
parameterIndex += ClassUtil.isInternalCategory2Type(type) ? 2 : 1;
}
newDescriptorBuffer.append(ClassConstants.INTERNAL_METHOD_ARGUMENTS_CLOSE);
newDescriptorBuffer.append(internalTypeEnumeration.returnType());
return newDescriptorBuffer.toString();
}
public ReferenceValue referenceArrayLoad(IntegerValue indexValue, ValueFactory valueFactory) {
return type == null
? ValueFactory.REFERENCE_VALUE_NULL
: !ClassUtil.isInternalArrayType(type)
? ValueFactory.REFERENCE_VALUE_JAVA_LANG_OBJECT_MAYBE_NULL
: valueFactory.createValue(type.substring(1), referencedClass, true).referenceValue();
}
public final String internalType() {
return type == null
? ClassConstants.TYPE_JAVA_LANG_OBJECT
: ClassUtil.isInternalArrayType(type)
? type
: ClassConstants.TYPE_CLASS_START + type + ClassConstants.TYPE_CLASS_END;
}
/**
* Marks the hierarchy of implementing or overriding methods corresponding to the given method, if
* any.
*/
protected void markMethodHierarchy(Clazz clazz, Method method) {
int accessFlags = method.getAccessFlags();
if ((accessFlags & (ClassConstants.ACC_PRIVATE | ClassConstants.ACC_STATIC)) == 0
&& !ClassUtil.isInitializer(method.getName(clazz))) {
// We can skip private and static methods in the hierarchy, and
// also abstract methods, unless they might widen a current
// non-public access.
int requiredUnsetAccessFlags =
ClassConstants.ACC_PRIVATE
| ClassConstants.ACC_STATIC
| ((accessFlags & ClassConstants.ACC_PUBLIC) == 0 ? 0 : ClassConstants.ACC_ABSTRACT);
clazz.accept(
new ConcreteClassDownTraveler(
new ClassHierarchyTraveler(
true,
true,
false,
true,
new NamedMethodVisitor(
method.getName(clazz),
method.getDescriptor(clazz),
new MemberAccessFilter(0, requiredUnsetAccessFlags, this)))));
}
}
public void visitProgramClass(ProgramClass programClass) {
notePrinter.print(
programClass.getName(),
"Note: duplicate definition of program class ["
+ ClassUtil.externalClassName(programClass.getName())
+ "]");
}
public void visitSignatureAttribute(Clazz clazz, SignatureAttribute signatureAttribute) {
// Process the generic definitions, superclass, and implemented
// interfaces.
String signature = clazz.getString(signatureAttribute.u2signatureIndex);
// Count the signature types.
InternalTypeEnumeration internalTypeEnumeration = new InternalTypeEnumeration(signature);
int count = 0;
int interfacesCount = -1;
while (internalTypeEnumeration.hasMoreTypes()) {
String internalType = internalTypeEnumeration.nextType();
count++;
if (ClassUtil.isInternalClassType(internalType)) {
interfacesCount++;
}
}
// Put the signature types in an array.
internalTypeEnumeration = new InternalTypeEnumeration(signature);
String[] internalTypes = new String[count];
for (int index = 0; index < count; index++) {
String internalType = internalTypeEnumeration.nextType();
internalTypes[index] = internalType;
}
// Sort the interface types in the array.
Arrays.sort(internalTypes, count - interfacesCount, count);
// Recompose the signature types in a string.
StringBuffer newSignatureBuffer = new StringBuffer();
for (int index = 0; index < count; index++) {
// Is this not an interface type, or an interface type that isn't
// a duplicate of the previous interface type?
if (index < count - interfacesCount
|| !internalTypes[index].equals(internalTypes[index - 1])) {
newSignatureBuffer.append(internalTypes[index]);
}
}
String newSignature = newSignatureBuffer.toString();
// Did the signature change?
if (!newSignature.equals(signature)) {
// Update the signature.
((Utf8Constant) ((ProgramClass) clazz).constantPool[signatureAttribute.u2signatureIndex])
.setString(newSignatureBuffer.toString());
// Clear the referenced classes.
// TODO: Properly update the referenced classes.
signatureAttribute.referencedClasses = null;
}
}
/** Returns a list with external versions of the given list of internal class names. */
private List externalClassNames(List internalClassNames) {
List externalClassNames = new ArrayList(internalClassNames.size());
for (int index = 0; index < internalClassNames.size(); index++) {
externalClassNames.add(ClassUtil.externalClassName((String) internalClassNames.get(index)));
}
return externalClassNames;
}
/** Shrinks the array of referenced classes of the given method. */
private Clazz[] shrinkReferencedClasses(
Method method, String descriptor, Clazz[] referencedClasses) {
if (referencedClasses != null) {
// All parameters of non-static methods are shifted by one in the local
// variable frame.
int parameterIndex =
(method.getAccessFlags() & ClassConstants.INTERNAL_ACC_STATIC) != 0 ? 0 : 1;
int referencedClassIndex = 0;
int newReferencedClassIndex = 0;
// Go over the parameters.
InternalTypeEnumeration internalTypeEnumeration = new InternalTypeEnumeration(descriptor);
// Also look at the formal type parameters.
String type = internalTypeEnumeration.formalTypeParameters();
int count = new DescriptorClassEnumeration(type).classCount();
for (int counter = 0; counter < count; counter++) {
referencedClasses[newReferencedClassIndex++] = referencedClasses[referencedClassIndex++];
}
while (internalTypeEnumeration.hasMoreTypes()) {
// Consider the classes referenced by this parameter type.
type = internalTypeEnumeration.nextType();
count = new DescriptorClassEnumeration(type).classCount();
if (ParameterUsageMarker.isParameterUsed(method, parameterIndex)) {
// Copy the referenced classes.
for (int counter = 0; counter < count; counter++) {
referencedClasses[newReferencedClassIndex++] =
referencedClasses[referencedClassIndex++];
}
} else {
// Skip the referenced classes.
referencedClassIndex += count;
}
parameterIndex += ClassUtil.isInternalCategory2Type(type) ? 2 : 1;
}
// Also look at the return value.
type = internalTypeEnumeration.returnType();
count = new DescriptorClassEnumeration(type).classCount();
for (int counter = 0; counter < count; counter++) {
referencedClasses[newReferencedClassIndex++] = referencedClasses[referencedClassIndex++];
}
// Clear the unused entries.
while (newReferencedClassIndex < referencedClassIndex) {
referencedClasses[newReferencedClassIndex++] = null;
}
}
return referencedClasses;
}
/** Sets the ClassMemberSpecification to be represented in this dialog. */
public void setClassMemberSpecification(ClassMemberSpecification classMemberSpecification) {
String name = classMemberSpecification.name;
String descriptor = classMemberSpecification.descriptor;
// Set the access radio buttons.
setClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_PUBLIC, publicRadioButtons);
setClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_PRIVATE, privateRadioButtons);
setClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_PROTECTED, protectedRadioButtons);
setClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_STATIC, staticRadioButtons);
setClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_FINAL, finalRadioButtons);
setClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_VOLATILE, volatileRadioButtons);
setClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_TRANSIENT, transientRadioButtons);
setClassMemberSpecificationRadioButtons(
classMemberSpecification,
ClassConstants.INTERNAL_ACC_SYNCHRONIZED,
synchronizedRadioButtons);
setClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_NATIVE, nativeRadioButtons);
setClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_ABSTRACT, abstractRadioButtons);
setClassMemberSpecificationRadioButtons(
classMemberSpecification, ClassConstants.INTERNAL_ACC_STRICT, strictRadioButtons);
// Set the class name text fields.
nameTextField.setText(name == null ? "" : name);
if (isField) {
typeTextField.setText(descriptor == null ? "" : ClassUtil.externalType(descriptor));
} else {
typeTextField.setText(
descriptor == null ? "" : ClassUtil.externalMethodReturnType(descriptor));
argumentsTextField.setText(
descriptor == null ? "" : ClassUtil.externalMethodArguments(descriptor));
}
}
private void writeOption(String optionName, String arguments, boolean replaceInternalClassNames) {
if (arguments != null) {
if (replaceInternalClassNames) {
arguments = ClassUtil.externalClassName(arguments);
}
writer.print(optionName);
writer.print(' ');
writer.println(quotedString(arguments));
}
}
public void visitProgramField(ProgramClass programClass, ProgramField programField) {
String newName = MemberObfuscator.newMemberName(programField);
if (newName != null) {
ps.println(
" "
+
// lineNumberRange(programClass, programField) +
ClassUtil.externalFullFieldDescription(
0, programField.getName(programClass), programField.getDescriptor(programClass))
+ " -> "
+ newName);
}
}
public void read(DataEntry dataEntry) throws IOException {
try {
// Get the input stream.
InputStream inputStream = dataEntry.getInputStream();
// Wrap it into a data input stream.
DataInputStream dataInputStream = new DataInputStream(inputStream);
// Create a Clazz representation.
Clazz clazz;
if (isLibrary) {
clazz = new LibraryClass();
clazz.accept(
new LibraryClassReader(
dataInputStream, skipNonPublicLibraryClasses, skipNonPublicLibraryClassMembers));
} else {
clazz = new ProgramClass();
clazz.accept(new ProgramClassReader(dataInputStream));
}
// Apply the visitor, if we have a real class.
String className = clazz.getName();
if (className != null) {
if (!dataEntry
.getName()
.replace(File.pathSeparatorChar, ClassConstants.PACKAGE_SEPARATOR)
.equals(className + ClassConstants.CLASS_FILE_EXTENSION)
&& warningPrinter != null) {
warningPrinter.print(
className,
"Warning: class ["
+ dataEntry.getName()
+ "] unexpectedly contains class ["
+ ClassUtil.externalClassName(className)
+ "]");
}
clazz.accept(classVisitor);
}
dataEntry.closeInputStream();
} catch (Exception ex) {
throw (IOException)
new IOException(
"Can't process class [" + dataEntry.getName() + "] (" + ex.getMessage() + ")")
.initCause(ex);
}
}
/**
* Marks the hierarchy of implementing or overriding methods corresponding to the given method, if
* any.
*/
protected void markMethodHierarchy(Clazz clazz, Method method) {
int accessFlags = method.getAccessFlags();
if ((accessFlags & (ClassConstants.ACC_PRIVATE | ClassConstants.ACC_STATIC)) == 0
&& !ClassUtil.isInitializer(method.getName(clazz))) {
// We can skip private and static methods in the hierarchy, and
// also abstract methods, unless they might widen a current
// non-public access.
int requiredUnsetAccessFlags =
ClassConstants.ACC_PRIVATE
| ClassConstants.ACC_STATIC
| ((accessFlags & ClassConstants.ACC_PUBLIC) == 0 ? 0 : ClassConstants.ACC_ABSTRACT);
// Mark default implementations in interfaces down the hierarchy.
// TODO: This may be premature if there aren't any concrete implementing classes.
clazz.accept(
new ClassAccessFilter(
ClassConstants.ACC_ABSTRACT,
0,
new ClassHierarchyTraveler(
false,
false,
false,
true,
new ProgramClassFilter(
new ClassAccessFilter(
ClassConstants.ACC_ABSTRACT,
0,
new NamedMethodVisitor(
method.getName(clazz),
method.getDescriptor(clazz),
new MemberAccessFilter(
0, requiredUnsetAccessFlags, defaultMethodUsageMarker)))))));
// Mark other implementations.
clazz.accept(
new ConcreteClassDownTraveler(
new ClassHierarchyTraveler(
true,
true,
false,
true,
new NamedMethodVisitor(
method.getName(clazz),
method.getDescriptor(clazz),
new MemberAccessFilter(0, requiredUnsetAccessFlags, this)))));
}
}
public void visitAnyParameterAnnotationsAttribute(
Clazz clazz, Method method, ParameterAnnotationsAttribute parameterAnnotationsAttribute) {
int[] annotationsCounts = parameterAnnotationsAttribute.u2parameterAnnotationsCount;
Annotation[][] annotations = parameterAnnotationsAttribute.parameterAnnotations;
// All parameters of non-static methods are shifted by one in the local
// variable frame.
int parameterIndex =
(method.getAccessFlags() & ClassConstants.INTERNAL_ACC_STATIC) != 0 ? 0 : 1;
int annotationIndex = 0;
int newAnnotationIndex = 0;
// Go over the parameters.
String descriptor = method.getDescriptor(clazz);
InternalTypeEnumeration internalTypeEnumeration = new InternalTypeEnumeration(descriptor);
while (internalTypeEnumeration.hasMoreTypes()) {
String type = internalTypeEnumeration.nextType();
if (ParameterUsageMarker.isParameterUsed(method, parameterIndex)) {
annotationsCounts[newAnnotationIndex] = annotationsCounts[annotationIndex];
annotations[newAnnotationIndex++] = annotations[annotationIndex];
}
annotationIndex++;
parameterIndex += ClassUtil.isInternalCategory2Type(type) ? 2 : 1;
}
// Update the number of parameters.
parameterAnnotationsAttribute.u2parametersCount = newAnnotationIndex;
// Clear the unused entries.
while (newAnnotationIndex < annotationIndex) {
annotationsCounts[newAnnotationIndex] = 0;
annotations[newAnnotationIndex++] = null;
}
}
public void visitProgramMethod(ProgramClass programClass, ProgramMethod programMethod) {
// Special cases: <clinit> and <init> are always kept unchanged.
// We can ignore them here.
String name = programMethod.getName(programClass);
if (name.equals(ClassConstants.INTERNAL_METHOD_NAME_CLINIT)
|| name.equals(ClassConstants.INTERNAL_METHOD_NAME_INIT)) {
return;
}
String newName = MemberObfuscator.newMemberName(programMethod);
if (newName != null) {
ps.println(
" "
+ lineNumberRange(programClass, programMethod)
+ ClassUtil.externalFullMethodDescription(
programClass.getName(),
0,
programMethod.getName(programClass),
programMethod.getDescriptor(programClass))
+ " -> "
+ newName);
}
}
public void visitFieldrefConstant(Clazz clazz, FieldrefConstant fieldrefConstant) {
String type = fieldrefConstant.getType(clazz);
typeStackDelta = ClassUtil.internalTypeSize(ClassUtil.internalMethodReturnType(type));
}
public ReferenceValue generalize(TypedReferenceValue other) {
// If both types are identical, the generalization is the same too.
if (this.equals(other)) {
return this;
}
String thisType = this.type;
String otherType = other.type;
// If both types are nul, the generalization is null too.
if (thisType == null && otherType == null) {
return ValueFactory.REFERENCE_VALUE_NULL;
}
// If this type is null, the generalization is the other type, maybe null.
if (thisType == null) {
return other.generalizeMayBeNull(true);
}
// If the other type is null, the generalization is this type, maybe null.
if (otherType == null) {
return this.generalizeMayBeNull(true);
}
boolean mayBeNull = this.mayBeNull || other.mayBeNull;
// If the two types are equal, the generalization remains the same, maybe null.
if (thisType.equals(otherType)) {
return typedReferenceValue(this, mayBeNull);
}
// Start taking into account the type dimensions.
int thisDimensionCount = ClassUtil.internalArrayTypeDimensionCount(thisType);
int otherDimensionCount = ClassUtil.internalArrayTypeDimensionCount(otherType);
int commonDimensionCount = Math.min(thisDimensionCount, otherDimensionCount);
if (thisDimensionCount == otherDimensionCount) {
// See if we can take into account the referenced classes.
Clazz thisReferencedClass = this.referencedClass;
Clazz otherReferencedClass = other.referencedClass;
if (thisReferencedClass != null && otherReferencedClass != null) {
// Is one class simply an extension of the other one?
if (thisReferencedClass.extendsOrImplements(otherReferencedClass)) {
return typedReferenceValue(other, mayBeNull);
}
if (otherReferencedClass.extendsOrImplements(thisReferencedClass)) {
return typedReferenceValue(this, mayBeNull);
}
// Do the classes have a non-trivial common superclass?
Clazz commonClass = findCommonClass(thisReferencedClass, otherReferencedClass, false);
if (commonClass.getName().equals(ClassConstants.NAME_JAVA_LANG_OBJECT)) {
// Otherwise, do the classes have a common interface?
Clazz commonInterface = findCommonClass(thisReferencedClass, otherReferencedClass, true);
if (commonInterface != null) {
commonClass = commonInterface;
}
}
return new TypedReferenceValue(
commonDimensionCount == 0
? commonClass.getName()
: ClassUtil.internalArrayTypeFromClassName(
commonClass.getName(), commonDimensionCount),
commonClass,
mayBeNull);
}
} else if (thisDimensionCount > otherDimensionCount) {
// See if the other type is an interface type of arrays.
if (ClassUtil.isInternalArrayInterfaceName(
ClassUtil.internalClassNameFromClassType(otherType))) {
return typedReferenceValue(other, mayBeNull);
}
} else if (thisDimensionCount < otherDimensionCount) {
// See if this type is an interface type of arrays.
if (ClassUtil.isInternalArrayInterfaceName(
ClassUtil.internalClassNameFromClassType(thisType))) {
return typedReferenceValue(this, mayBeNull);
}
}
// Reduce the common dimension count if either type is an array of
// primitives type of this dimension.
if (commonDimensionCount > 0
&& (ClassUtil.isInternalPrimitiveType(otherType.charAt(commonDimensionCount)))
|| ClassUtil.isInternalPrimitiveType(thisType.charAt(commonDimensionCount))) {
commonDimensionCount--;
}
// Fall back on a basic Object or array of Objects type.
return commonDimensionCount != 0
? new TypedReferenceValue(
ClassUtil.internalArrayTypeFromClassName(
ClassConstants.NAME_JAVA_LANG_OBJECT, commonDimensionCount),
null,
mayBeNull)
: mayBeNull
? ValueFactory.REFERENCE_VALUE_JAVA_LANG_OBJECT_MAYBE_NULL
: ValueFactory.REFERENCE_VALUE_JAVA_LANG_OBJECT_NOT_NULL;
}
private void visitRefConstant(Clazz clazz, RefConstant methodrefConstant) {
String type = methodrefConstant.getType(clazz);
parameterStackDelta = ClassUtil.internalMethodParameterSize(type);
typeStackDelta = ClassUtil.internalTypeSize(ClassUtil.internalMethodReturnType(type));
}
private void writeOption(String optionName, ClassSpecification classSpecification) {
writer.println();
// Write out the comments for this option.
writeComments(classSpecification.comments);
writer.print(optionName);
writer.print(' ');
// Write out the required annotation, if any.
if (classSpecification.annotationType != null) {
writer.print(ConfigurationConstants.ANNOTATION_KEYWORD);
writer.print(ClassUtil.externalType(classSpecification.annotationType));
writer.print(' ');
}
// Write out the class access flags.
writer.print(
ClassUtil.externalClassAccessFlags(
classSpecification.requiredUnsetAccessFlags, ConfigurationConstants.NEGATOR_KEYWORD));
writer.print(ClassUtil.externalClassAccessFlags(classSpecification.requiredSetAccessFlags));
// Write out the class keyword, if we didn't write the interface
// keyword earlier.
if (((classSpecification.requiredSetAccessFlags | classSpecification.requiredUnsetAccessFlags)
& (ClassConstants.ACC_INTERFACE | ClassConstants.ACC_ENUM))
== 0) {
writer.print(ConfigurationConstants.CLASS_KEYWORD);
}
writer.print(' ');
// Write out the class name.
writer.print(
classSpecification.className != null
? ClassUtil.externalClassName(classSpecification.className)
: ConfigurationConstants.ANY_CLASS_KEYWORD);
// Write out the extends template, if any.
if (classSpecification.extendsAnnotationType != null
|| classSpecification.extendsClassName != null) {
writer.print(' ');
writer.print(ConfigurationConstants.EXTENDS_KEYWORD);
writer.print(' ');
// Write out the required extends annotation, if any.
if (classSpecification.extendsAnnotationType != null) {
writer.print(ConfigurationConstants.ANNOTATION_KEYWORD);
writer.print(ClassUtil.externalType(classSpecification.extendsAnnotationType));
writer.print(' ');
}
// Write out the extended class name.
writer.print(
classSpecification.extendsClassName != null
? ClassUtil.externalClassName(classSpecification.extendsClassName)
: ConfigurationConstants.ANY_CLASS_KEYWORD);
}
// Write out the keep field and keep method options, if any.
if (classSpecification.fieldSpecifications != null
|| classSpecification.methodSpecifications != null) {
writer.print(' ');
writer.println(ConfigurationConstants.OPEN_KEYWORD);
writeFieldSpecification(classSpecification.fieldSpecifications);
writeMethodSpecification(classSpecification.methodSpecifications);
writer.println(ConfigurationConstants.CLOSE_KEYWORD);
} else {
writer.println();
}
}
/** Performs the subsequent ReTrace operations. */
public void execute() throws IOException {
// Read the mapping file.
MappingReader mappingReader = new MappingReader(mappingFile);
mappingReader.pump(this);
StringBuffer expressionBuffer = new StringBuffer(regularExpression.length() + 32);
char[] expressionTypes = new char[32];
int expressionTypeCount = 0;
int index = 0;
while (true) {
int nextIndex = regularExpression.indexOf('%', index);
if (nextIndex < 0
|| nextIndex == regularExpression.length() - 1
|| expressionTypeCount == expressionTypes.length) {
break;
}
expressionBuffer.append(regularExpression.substring(index, nextIndex));
expressionBuffer.append('(');
char expressionType = regularExpression.charAt(nextIndex + 1);
switch (expressionType) {
case 'c':
expressionBuffer.append(REGEX_CLASS);
break;
case 'C':
expressionBuffer.append(REGEX_CLASS_SLASH);
break;
case 'l':
expressionBuffer.append(REGEX_LINE_NUMBER);
break;
case 't':
expressionBuffer.append(REGEX_TYPE);
break;
case 'f':
expressionBuffer.append(REGEX_MEMBER);
break;
case 'm':
expressionBuffer.append(REGEX_MEMBER);
break;
case 'a':
expressionBuffer.append(REGEX_ARGUMENTS);
break;
}
expressionBuffer.append(')');
expressionTypes[expressionTypeCount++] = expressionType;
index = nextIndex + 2;
}
expressionBuffer.append(regularExpression.substring(index));
Pattern pattern = Pattern.compile(expressionBuffer.toString());
// Read the stack trace file.
LineNumberReader reader =
new LineNumberReader(
stackTraceFile == null
? (Reader) new InputStreamReader(System.in)
: (Reader) new BufferedReader(new FileReader(stackTraceFile)));
try {
StringBuffer outLine = new StringBuffer(256);
List extraOutLines = new ArrayList();
String className = null;
// Read the line in the stack trace.
while (true) {
String line = reader.readLine();
if (line == null) {
break;
}
Matcher matcher = pattern.matcher(line);
if (matcher.matches()) {
int lineNumber = 0;
String type = null;
String arguments = null;
// Figure out a class name, line number, type, and
// arguments beforehand.
for (int expressionTypeIndex = 0;
expressionTypeIndex < expressionTypeCount;
expressionTypeIndex++) {
int startIndex = matcher.start(expressionTypeIndex + 1);
if (startIndex >= 0) {
String match = matcher.group(expressionTypeIndex + 1);
char expressionType = expressionTypes[expressionTypeIndex];
switch (expressionType) {
case 'c':
className = originalClassName(match);
break;
case 'C':
className = originalClassName(ClassUtil.externalClassName(match));
break;
case 'l':
lineNumber = Integer.parseInt(match);
break;
case 't':
type = originalType(match);
break;
case 'a':
arguments = originalArguments(match);
break;
}
}
}
// Actually construct the output line.
int lineIndex = 0;
outLine.setLength(0);
extraOutLines.clear();
for (int expressionTypeIndex = 0;
expressionTypeIndex < expressionTypeCount;
expressionTypeIndex++) {
int startIndex = matcher.start(expressionTypeIndex + 1);
if (startIndex >= 0) {
int endIndex = matcher.end(expressionTypeIndex + 1);
String match = matcher.group(expressionTypeIndex + 1);
// Copy a literal piece of input line.
outLine.append(line.substring(lineIndex, startIndex));
char expressionType = expressionTypes[expressionTypeIndex];
switch (expressionType) {
case 'c':
className = originalClassName(match);
outLine.append(className);
break;
case 'C':
className = originalClassName(ClassUtil.externalClassName(match));
outLine.append(ClassUtil.internalClassName(className));
break;
case 'l':
lineNumber = Integer.parseInt(match);
outLine.append(match);
break;
case 't':
type = originalType(match);
outLine.append(type);
break;
case 'f':
originalFieldName(className, match, type, outLine, extraOutLines);
break;
case 'm':
originalMethodName(
className, match, lineNumber, type, arguments, outLine, extraOutLines);
break;
case 'a':
arguments = originalArguments(match);
outLine.append(arguments);
break;
}
// Skip the original element whose processed version
// has just been appended.
lineIndex = endIndex;
}
}
// Copy the last literal piece of input line.
outLine.append(line.substring(lineIndex));
// Print out the main line.
System.out.println(outLine);
// Print out any additional lines.
for (int extraLineIndex = 0; extraLineIndex < extraOutLines.size(); extraLineIndex++) {
System.out.println(extraOutLines.get(extraLineIndex));
}
} else {
// Print out the original line.
System.out.println(line);
}
}
} catch (IOException ex) {
throw new IOException("Can't read stack trace (" + ex.getMessage() + ")");
} finally {
if (stackTraceFile != null) {
try {
reader.close();
} catch (IOException ex) {
// This shouldn't happen.
}
}
}
}
public void visitCodeAttribute(Clazz clazz, Method method, CodeAttribute codeAttribute) {
// Get the original parameter size that was saved.
int oldParameterSize = ParameterUsageMarker.getParameterSize(method);
// Compute the new parameter size from the shrunk descriptor.
int newParameterSize =
ClassUtil.internalMethodParameterSize(method.getDescriptor(clazz), method.getAccessFlags());
if (oldParameterSize > newParameterSize) {
// Get the total size of the local variable frame.
int maxLocals = codeAttribute.u2maxLocals;
if (DEBUG) {
System.out.println(
"ParameterShrinker: "
+ clazz.getName()
+ "."
+ method.getName(clazz)
+ method.getDescriptor(clazz));
System.out.println(" Old parameter size = " + oldParameterSize);
System.out.println(" New parameter size = " + newParameterSize);
System.out.println(" Max locals = " + maxLocals);
}
// Create a variable map.
int[] variableMap = new int[maxLocals];
// Move unused parameters right after the parameter block.
int usedParameterIndex = 0;
int unusedParameterIndex = newParameterSize;
for (int parameterIndex = 0; parameterIndex < oldParameterSize; parameterIndex++) {
// Is the variable required as a parameter?
if (ParameterUsageMarker.isParameterUsed(method, parameterIndex)) {
// Keep the variable as a parameter.
variableMap[parameterIndex] = usedParameterIndex++;
} else {
if (DEBUG) {
System.out.println(" Deleting parameter #" + parameterIndex);
}
// Shift the variable to the unused parameter block,
// in case it is still used as a variable.
variableMap[parameterIndex] = unusedParameterIndex++;
// Visit the method, if required.
if (extraVariableMemberVisitor != null) {
method.accept(clazz, extraVariableMemberVisitor);
}
}
}
// Fill out the remainder of the map.
for (int variableIndex = oldParameterSize; variableIndex < maxLocals; variableIndex++) {
variableMap[variableIndex] = variableIndex;
}
// Set the map.
variableRemapper.setVariableMap(variableMap);
// Remap the variables.
variableRemapper.visitCodeAttribute(clazz, method, codeAttribute);
}
}
public int instanceOf(String otherType, Clazz otherReferencedClass) {
String thisType = this.type;
// If this type is null, it is never an instance of any class.
if (thisType == null) {
return NEVER;
}
// Start taking into account the type dimensions.
int thisDimensionCount = ClassUtil.internalArrayTypeDimensionCount(thisType);
int otherDimensionCount = ClassUtil.internalArrayTypeDimensionCount(otherType);
int commonDimensionCount = Math.min(thisDimensionCount, otherDimensionCount);
// Strip any common array prefixes.
thisType = thisType.substring(commonDimensionCount);
otherType = otherType.substring(commonDimensionCount);
// If either stripped type is a primitive type, we can tell right away.
if (commonDimensionCount > 0
&& (ClassUtil.isInternalPrimitiveType(thisType.charAt(0))
|| ClassUtil.isInternalPrimitiveType(otherType.charAt(0)))) {
return !thisType.equals(otherType) ? NEVER : mayBeNull ? MAYBE : ALWAYS;
}
// Strip the class type prefix and suffix of this type, if any.
if (thisDimensionCount == commonDimensionCount) {
thisType = ClassUtil.internalClassNameFromClassType(thisType);
}
// Strip the class type prefix and suffix of the other type, if any.
if (otherDimensionCount == commonDimensionCount) {
otherType = ClassUtil.internalClassNameFromClassType(otherType);
}
// If this type is an array type, and the other type is not
// java.lang.Object, java.lang.Cloneable, or java.io.Serializable,
// this type can never be an instance.
if (thisDimensionCount > otherDimensionCount
&& !ClassUtil.isInternalArrayInterfaceName(otherType)) {
return NEVER;
}
// If the other type is an array type, and this type is not
// java.lang.Object, java.lang.Cloneable, or java.io.Serializable,
// this type can never be an instance.
if (thisDimensionCount < otherDimensionCount
&& !ClassUtil.isInternalArrayInterfaceName(thisType)) {
return NEVER;
}
// If this type may be null, it might not be an instance of any class.
if (mayBeNull) {
return MAYBE;
}
// If this type is equal to the other type, or if the other type is
// java.lang.Object, this type is always an instance.
if (thisType.equals(otherType) || ClassConstants.NAME_JAVA_LANG_OBJECT.equals(otherType)) {
return ALWAYS;
}
// If this type is an array type, it's ok.
if (thisDimensionCount > otherDimensionCount) {
return ALWAYS;
}
// If the other type is an array type, it might be ok.
if (thisDimensionCount < otherDimensionCount) {
return MAYBE;
}
// If the value extends the type, we're sure.
return referencedClass != null
&& otherReferencedClass != null
&& referencedClass.extendsOrImplements(otherReferencedClass)
? ALWAYS
: MAYBE;
}
/**
* Writes the given configuration.
*
* @param configuration the configuration that is to be written out.
* @throws IOException if an IO error occurs while writing the configuration.
*/
public void write(Configuration configuration) throws IOException {
// Write the program class path (input and output entries).
writeJarOptions(
ConfigurationConstants.INJARS_OPTION,
ConfigurationConstants.OUTJARS_OPTION,
configuration.programJars);
writer.println();
// Write the library class path (output entries only).
writeJarOptions(
ConfigurationConstants.LIBRARYJARS_OPTION,
ConfigurationConstants.LIBRARYJARS_OPTION,
configuration.libraryJars);
writer.println();
// Write the other options.
writeOption(
ConfigurationConstants.SKIP_NON_PUBLIC_LIBRARY_CLASSES_OPTION,
configuration.skipNonPublicLibraryClasses);
writeOption(
ConfigurationConstants.DONT_SKIP_NON_PUBLIC_LIBRARY_CLASS_MEMBERS_OPTION,
!configuration.skipNonPublicLibraryClassMembers);
writeOption(ConfigurationConstants.KEEP_DIRECTORIES_OPTION, configuration.keepDirectories);
writeOption(
ConfigurationConstants.TARGET_OPTION,
ClassUtil.externalClassVersion(configuration.targetClassVersion));
writeOption(
ConfigurationConstants.FORCE_PROCESSING_OPTION,
configuration.lastModified == Long.MAX_VALUE);
writeOption(ConfigurationConstants.DONT_SHRINK_OPTION, !configuration.shrink);
writeOption(ConfigurationConstants.PRINT_USAGE_OPTION, configuration.printUsage);
writeOption(ConfigurationConstants.DONT_OPTIMIZE_OPTION, !configuration.optimize);
writeOption(ConfigurationConstants.OPTIMIZATIONS, configuration.optimizations);
writeOption(ConfigurationConstants.OPTIMIZATION_PASSES, configuration.optimizationPasses);
writeOption(
ConfigurationConstants.ALLOW_ACCESS_MODIFICATION_OPTION,
configuration.allowAccessModification);
writeOption(
ConfigurationConstants.MERGE_INTERFACES_AGGRESSIVELY_OPTION,
configuration.mergeInterfacesAggressively);
writeOption(ConfigurationConstants.DONT_OBFUSCATE_OPTION, !configuration.obfuscate);
writeOption(ConfigurationConstants.PRINT_MAPPING_OPTION, configuration.printMapping);
writeOption(ConfigurationConstants.APPLY_MAPPING_OPTION, configuration.applyMapping);
writeOption(
ConfigurationConstants.OBFUSCATION_DICTIONARY_OPTION, configuration.obfuscationDictionary);
writeOption(
ConfigurationConstants.CLASS_OBFUSCATION_DICTIONARY_OPTION,
configuration.classObfuscationDictionary);
writeOption(
ConfigurationConstants.PACKAGE_OBFUSCATION_DICTIONARY_OPTION,
configuration.packageObfuscationDictionary);
writeOption(
ConfigurationConstants.OVERLOAD_AGGRESSIVELY_OPTION, configuration.overloadAggressively);
writeOption(
ConfigurationConstants.USE_UNIQUE_CLASS_MEMBER_NAMES_OPTION,
configuration.useUniqueClassMemberNames);
writeOption(
ConfigurationConstants.DONT_USE_MIXED_CASE_CLASS_NAMES_OPTION,
!configuration.useMixedCaseClassNames);
writeOption(
ConfigurationConstants.KEEP_PACKAGE_NAMES_OPTION, configuration.keepPackageNames, true);
writeOption(
ConfigurationConstants.FLATTEN_PACKAGE_HIERARCHY_OPTION,
configuration.flattenPackageHierarchy,
true);
writeOption(
ConfigurationConstants.REPACKAGE_CLASSES_OPTION, configuration.repackageClasses, true);
writeOption(ConfigurationConstants.KEEP_ATTRIBUTES_OPTION, configuration.keepAttributes);
writeOption(
ConfigurationConstants.KEEP_PARAMETER_NAMES_OPTION, configuration.keepParameterNames);
writeOption(
ConfigurationConstants.RENAME_SOURCE_FILE_ATTRIBUTE_OPTION,
configuration.newSourceFileAttribute);
writeOption(
ConfigurationConstants.ADAPT_CLASS_STRINGS_OPTION, configuration.adaptClassStrings, true);
writeOption(
ConfigurationConstants.ADAPT_RESOURCE_FILE_NAMES_OPTION,
configuration.adaptResourceFileNames);
writeOption(
ConfigurationConstants.ADAPT_RESOURCE_FILE_CONTENTS_OPTION,
configuration.adaptResourceFileContents);
writeOption(ConfigurationConstants.DONT_PREVERIFY_OPTION, !configuration.preverify);
writeOption(ConfigurationConstants.MICRO_EDITION_OPTION, configuration.microEdition);
writeOption(ConfigurationConstants.VERBOSE_OPTION, configuration.verbose);
writeOption(ConfigurationConstants.DONT_NOTE_OPTION, configuration.note, true);
writeOption(ConfigurationConstants.DONT_WARN_OPTION, configuration.warn, true);
writeOption(ConfigurationConstants.IGNORE_WARNINGS_OPTION, configuration.ignoreWarnings);
writeOption(
ConfigurationConstants.PRINT_CONFIGURATION_OPTION, configuration.printConfiguration);
writeOption(ConfigurationConstants.DUMP_OPTION, configuration.dump);
writeOption(ConfigurationConstants.PRINT_SEEDS_OPTION, configuration.printSeeds);
writer.println();
// Write the "why are you keeping" options.
writeOptions(ConfigurationConstants.WHY_ARE_YOU_KEEPING_OPTION, configuration.whyAreYouKeeping);
// Write the keep options.
writeOptions(KEEP_OPTIONS, configuration.keep);
// Write the "no side effect methods" options.
writeOptions(
ConfigurationConstants.ASSUME_NO_SIDE_EFFECTS_OPTION, configuration.assumeNoSideEffects);
if (writer.checkError()) {
throw new IOException("Can't write configuration");
}
}
/** Returns the generalization of this ReferenceValue and the given other ReferenceValue. */
public ReferenceValue generalize(ReferenceValue other) {
// If both types are identical, the generalization is the same too.
if (this.equals(other)) {
return this;
}
String thisType = this.type;
String otherType = other.type;
// If both types are nul, the generalization is null too.
if (thisType == null && otherType == null) {
return ValueFactory.REFERENCE_VALUE_NULL;
}
// If this type is null, the generalization is the other type, maybe null.
if (thisType == null) {
return other.generalizeMayBeNull(true);
}
// If the other type is null, the generalization is this type, maybe null.
if (otherType == null) {
return this.generalizeMayBeNull(true);
}
boolean mayBeNull = this.mayBeNull || other.mayBeNull;
// If the two types are equal, the generalization remains the same, maybe null.
if (thisType.equals(otherType)) {
return this.generalizeMayBeNull(mayBeNull);
}
// Start taking into account the type dimensions.
int thisDimensionCount = ClassUtil.internalArrayTypeDimensionCount(thisType);
int otherDimensionCount = ClassUtil.internalArrayTypeDimensionCount(otherType);
int commonDimensionCount = Math.min(thisDimensionCount, otherDimensionCount);
if (thisDimensionCount == otherDimensionCount) {
// See if we can take into account the referenced classes.
Clazz thisReferencedClass = this.referencedClass;
Clazz otherReferencedClass = other.referencedClass;
if (thisReferencedClass != null && otherReferencedClass != null) {
if (thisReferencedClass.extendsOrImplements(otherReferencedClass)) {
return other.generalizeMayBeNull(mayBeNull);
}
if (otherReferencedClass.extendsOrImplements(thisReferencedClass)) {
return this.generalizeMayBeNull(mayBeNull);
}
// Collect the superclasses and interfaces of this class.
Set thisSuperClasses = new HashSet();
thisReferencedClass.hierarchyAccept(
false, true, true, false, new ClassCollector(thisSuperClasses));
int thisSuperClassesCount = thisSuperClasses.size();
if (thisSuperClassesCount == 0 && thisReferencedClass.getSuperName() != null) {
throw new IllegalArgumentException(
"Can't find any super classes of ["
+ thisType
+ "] (not even immediate super class ["
+ thisReferencedClass.getSuperName()
+ "])");
}
// Collect the superclasses and interfaces of the other class.
Set otherSuperClasses = new HashSet();
otherReferencedClass.hierarchyAccept(
false, true, true, false, new ClassCollector(otherSuperClasses));
int otherSuperClassesCount = otherSuperClasses.size();
if (otherSuperClassesCount == 0 && otherReferencedClass.getSuperName() != null) {
throw new IllegalArgumentException(
"Can't find any super classes of ["
+ otherType
+ "] (not even immediate super class ["
+ otherReferencedClass.getSuperName()
+ "])");
}
if (DEBUG) {
System.out.println(
"ReferenceValue.generalize this ["
+ thisReferencedClass.getName()
+ "] with other ["
+ otherReferencedClass.getName()
+ "]");
System.out.println(" This super classes: " + thisSuperClasses);
System.out.println(" Other super classes: " + otherSuperClasses);
}
// Find the common superclasses.
thisSuperClasses.retainAll(otherSuperClasses);
if (DEBUG) {
System.out.println(" Common super classes: " + thisSuperClasses);
}
// Find a class that is a subclass of all common superclasses,
// or that at least has the maximum number of common superclasses.
Clazz commonClass = null;
int maximumSuperClassCount = -1;
// Go over all common superclasses to find it. In case of
// multiple subclasses, keep the lowest one alphabetically,
// in order to ensure that the choice is deterministic.
Iterator commonSuperClasses = thisSuperClasses.iterator();
while (commonSuperClasses.hasNext()) {
Clazz commonSuperClass = (Clazz) commonSuperClasses.next();
int superClassCount = superClassCount(commonSuperClass, thisSuperClasses);
if (maximumSuperClassCount < superClassCount
|| (maximumSuperClassCount == superClassCount
&& commonClass != null
&& commonClass.getName().compareTo(commonSuperClass.getName()) > 0)) {
commonClass = commonSuperClass;
maximumSuperClassCount = superClassCount;
}
}
if (commonClass == null) {
throw new IllegalArgumentException(
"Can't find common super class of ["
+ thisType
+ "] (with "
+ thisSuperClassesCount
+ " known super classes) and ["
+ otherType
+ "] (with "
+ otherSuperClassesCount
+ " known super classes)");
}
if (DEBUG) {
System.out.println(" Best common class: [" + commonClass.getName() + "]");
}
// TODO: Handle more difficult cases, with multiple global subclasses.
return new ReferenceValue(
commonDimensionCount == 0
? commonClass.getName()
: ClassUtil.internalArrayTypeFromClassName(
commonClass.getName(), commonDimensionCount),
commonClass,
mayBeNull);
}
} else if (thisDimensionCount > otherDimensionCount) {
// See if the other type is an interface type of arrays.
if (ClassUtil.isInternalArrayInterfaceName(
ClassUtil.internalClassNameFromClassType(otherType))) {
return other.generalizeMayBeNull(mayBeNull);
}
} else if (thisDimensionCount < otherDimensionCount) {
// See if this type is an interface type of arrays.
if (ClassUtil.isInternalArrayInterfaceName(
ClassUtil.internalClassNameFromClassType(thisType))) {
return this.generalizeMayBeNull(mayBeNull);
}
}
// Reduce the common dimension count if either type is an array of
// primitives type of this dimension.
if (commonDimensionCount > 0
&& (ClassUtil.isInternalPrimitiveType(otherType.charAt(commonDimensionCount)))
|| ClassUtil.isInternalPrimitiveType(thisType.charAt(commonDimensionCount))) {
commonDimensionCount--;
}
// Fall back on a basic Object or array of Objects type.
return commonDimensionCount == 0
? mayBeNull
? ValueFactory.REFERENCE_VALUE_JAVA_LANG_OBJECT_MAYBE_NULL
: ValueFactory.REFERENCE_VALUE_JAVA_LANG_OBJECT_NOT_NULL
: new ReferenceValue(
ClassUtil.internalArrayTypeFromClassName(
ClassConstants.INTERNAL_NAME_JAVA_LANG_OBJECT, commonDimensionCount),
null,
mayBeNull);
}