/// <summary>
/// Create the current type as class definition.
/// </summary>
public virtual void Create(ClassDefinition declaringClass, XTypeDefinition declaringType, DexTargetPackage targetPackage)
{
// Find xfield
xField = XBuilder.AsFieldDefinition(compiler.Module, field);
// Create field definition
dfield = new Dot42.DexLib.FieldDefinition();
dfield.Name = NameConverter.GetConvertedName(field);
AddFieldToDeclaringClass(declaringClass, dfield, targetPackage);
targetPackage.NameConverter.Record(xField, dfield);
// Set access flags
SetAccessFlags(dfield, field);
// Give warning if static in generic class.
// This could of cause also be handled automagically be the compiler,
// with mixture of whats done in the Interlocked converter and whats
// done in the GenericInstanceConverter.
if (field.IsStatic && declaringType.IsGenericClass)
{
if (!field.HasSuppressMessageAttribute("StaticFieldInGenericType") &&
!field.DeclaringType.HasSuppressMessageAttribute("StaticFieldInGenericType"))
{
string msg;
if (field.Name.Contains("CachedAnonymousMethodDelegate"))
{
msg = "The compiler generated a static field '{0}' in generic type '{1}'. This is not supported " +
"in Dot42 if the anonymous delegate accesses a generic class parameter. A workaround " +
"is to convert the anonymous static delegate to a normal method.\n";
}
else
{
msg = "Static field '{0}' in generic type {1}: All generic instances will share " +
"the same static field, contrary on how CLR operates. A workaround is to " +
"use ConcurrentDictionaries to access the values dependent on the type.\n";
}
msg += "You can suppress this warning with a [SuppressMessage(\"dot42\"," +
" \"StaticFieldInGenericType\")] attribute, either on the field or on the class.";
var body = field.DeclaringType.Methods.Select(m => m.Body)
.FirstOrDefault(m => m != null &&
m.Instructions.Any(i => i.SequencePoint(m) != null));
if (body != null)
{
var seqPoint = body.Instructions.Select(i => i.SequencePoint(body)).First(i => i != null);
DLog.Warning(DContext.CompilerILConverter, seqPoint.Document.Url, seqPoint.StartColumn, seqPoint.StartLine, msg, field.Name, declaringType.FullName);
}
else
{
DLog.Warning(DContext.CompilerILConverter, msg, field.Name, declaringType.FullName);
}
}
}
}
/// <summary>
/// Create the current type as class definition.
/// </summary>
public void Create(ClassDefinition declaringClass, DexTargetPackage targetPackage)
{
// Find xField
xField = XBuilder.AsFieldDefinition(compiler.Module, field);
// Create field definition
dfield = new Dot42.DexLib.FieldDefinition();
dfield.Name = NameConverter.GetConvertedName(field);
AddFieldToDeclaringClass(declaringClass, dfield, targetPackage);
targetPackage.NameConverter.Record(xField, dfield);
// Set access flags
SetAccessFlags(dfield, field);
}
/// <summary>
/// Create the current type as class definition.
/// </summary>
protected virtual void CreateClassDefinition(Dex target, NameConverter nsConverter, ClassDefinition parent, ClassFile parentClass)
{
// Create classdef
classDef = new ClassDefinition();
classDef.MapFileId = compiler.GetNextMapFileId();
classDef.Namespace = nsConverter.GetConvertedNamespace(typeDef);
var name = NameConverter.GetConvertedName(typeDef);
classDef.Name = (parent != null) ? parent.Name + "$" + name : name;
// Set access flags
//if (typeDef.IsPublic) classDef.IsPublic = true;
//else classDef.IsPrivate = true;
classDef.IsPublic = true;
if (typeDef.IsFinal)
{
classDef.IsFinal = true;
}
if (typeDef.IsInterface)
{
classDef.IsInterface = true;
classDef.IsAbstract = true;
}
else if (typeDef.IsAbstract)
{
classDef.IsAbstract = true;
}
if (typeDef.Interfaces.Any(x => x.ClassName == "java/lang/annotation/Annotation"))
{
classDef.IsAnnotation = true;
}
classDef.IsEnum = typeDef.IsEnum;
if (parent != null)
{
// Add to parent if this is a nested type
classDef.Owner = parent;
parent.AddInnerClass(classDef);
}
else
{
// Add to dex if it is a root class
target.AddClass(classDef);
}
}
/// <summary>
/// Perform name conversion
/// </summary>
protected virtual string GetMethodName(MethodDefinition method, DexTargetPackage targetPackage)
{
// Handle special names
switch (method.Name)
{
case ".ctor":
return("<init>");
case ".cctor":
return("<clinit>");
}
// Handle regular names
// Test for overrides of dex/java imported methods
var javaBaseMethod = method.GetDexImportBaseMethod() ?? method.GetJavaImportBaseMethod();
if (javaBaseMethod != null)
{
var javaMethodRef = javaBaseMethod.GetReference(targetPackage, compiler.Module);
return(javaMethodRef.Name);
}
// Test for overrides of interface methods
var interfaceJavaBaseMethod = method.GetDexImportBaseInterfaceMethod() ?? method.GetJavaImportBaseInterfaceMethod();
if (interfaceJavaBaseMethod != null)
{
var javaMethodRef = interfaceJavaBaseMethod.GetReference(targetPackage, compiler.Module);
return(javaMethodRef.Name);
}
// If a dex name is specified, use that
var dexName = method.GetDexNameAttribute();
if (dexName != null)
{
return((string)dexName.ConstructorArguments[0].Value);
}
return(NameConverter.GetConvertedName(xMethod));
}
/// <summary>
/// Convert the given interface method if it has explicit implementations.
/// </summary>
private void ConvertInterfaceMethod(TypeDefinition iType, MethodDefinition iMethod)
{
var implementations = GetImplementations(iMethod);
var iMethodIsJavaWithGenericParams = iMethod.IsJavaMethodWithGenericParams();
var iMethodContainsGenericParams = iMethod.ContainsGenericParameter;
if (!iMethodIsJavaWithGenericParams && !iMethodContainsGenericParams && (!implementations.Any(x => x.IsExplicitImplementation())))
{
// There are no explicit implementation.
// No need to convert
return;
}
// Rename method
string newName;
bool createExplicitStubs = true;
var oldName = iMethod.Name;
var attr = iMethod.GetDexOrJavaImportAttribute();
if (attr != null)
{
string className;
string memberName;
string descriptor;
attr.GetDexOrJavaImportNames(iMethod, out memberName, out descriptor, out className);
newName = memberName;
}
else if ((attr = iMethod.GetDexNameAttribute()) != null)
{
newName = (string)(attr.ConstructorArguments[0].Value);
createExplicitStubs = false;
}
else
{
var module = reachableContext.Compiler.Module;
var xiType = XBuilder.AsTypeReference(module, iType);
newName = methodNames.GetUniqueName(NameConverter.GetConvertedName(xiType) + "_" + iMethod.Name);
oldName = newName;
}
Rename(iMethod, newName);
// Update implementations
foreach (var impl in implementations)
{
if (impl.IsExplicitImplementation())
{
// Convert to implicit
impl.IsPublic = true;
// Rename
Rename(impl, newName);
// Update names of overrides
foreach (var @override in impl.Overrides)
{
@override.Name = newName;
}
}
else if (!(impl.HasDexImportAttribute() || impl.HasJavaImportAttribute()))
{
// Add stub redirecting explicit implementation to implicit implementation
if (createExplicitStubs)
{
CreateExplicitStub(impl, newName, oldName, iMethod, iMethodIsJavaWithGenericParams /*|| iMethodContainsGenericParams*/);
}
}
}
}
/// <summary>
/// Create the name of the class.
/// </summary>
protected virtual string CreateClassName(XTypeDefinition xType)
{
return(NameConverter.GetConvertedName(XType));
}
/// <summary>
/// Create an annotation interface.
/// </summary>
internal static AttributeAnnotationInterface Create(
ISourceLocation sequencePoint,
AssemblyCompiler compiler,
DexTargetPackage targetPackage,
TypeDefinition attributeType,
ClassDefinition attributeClass)
{
// Create class
ClassDefinition @interface = new ClassDefinition();
@interface.Name = CreateAnnotationTypeName(attributeClass);
@interface.Namespace = attributeClass.Namespace;
@interface.AccessFlags = AccessFlags.Public | AccessFlags.Abstract | AccessFlags.Interface | AccessFlags.Annotation;
@interface.Owner = attributeClass;
attributeClass.InnerClasses.Add(@interface);
// Set super class
@interface.SuperClass = new ClassReference("java/lang/Object");
// Implement Dot42.Internal.IAttribute
@interface.Interfaces.Add(new ClassReference("java/lang/annotation/Annotation"));
// Prepare result
AttributeAnnotationInterface result = new AttributeAnnotationInterface(@interface);
// Add methods from IAttribute
XModel.XTypeDefinition baseIntfType = compiler.GetDot42InternalType("IAttribute").Resolve();
foreach (XModel.XMethodDefinition imethod in baseIntfType.Methods)
{
if (imethod.Parameters.Count > 0)
{
throw new CompilerException(string.Format("Invalid IAttribute method {0}", imethod));
}
string methodName = NameConverter.GetConvertedName(imethod);
TypeReference dfieldType = imethod.ReturnType.GetReference(targetPackage);
MethodDefinition method = new MethodDefinition(@interface, methodName, new Prototype(dfieldType));
method.AccessFlags = AccessFlags.Public | AccessFlags.Abstract;
@interface.Methods.Add(method);
}
// Add field mapping
foreach (var field in attributeType.Fields.Where(x => x.IsReachable && x.IsPublic))
{
string methodName = CreateGetMethodName(NameConverter.GetConvertedName(field), result);
TypeReference dfieldType = field.FieldType.GetReference(targetPackage, compiler.Module);
MethodDefinition method = new MethodDefinition(@interface, methodName, new Prototype(dfieldType));
method.AccessFlags = AccessFlags.Public | AccessFlags.Abstract;
result.FieldToGetMethodMap.Add(field, method);
@interface.Methods.Add(method);
}
// Add property mapping
foreach (var property in attributeType.Properties.Where(x => x.IsReachable && (x.SetMethod != null) && (x.SetMethod.IsPublic) && x.SetMethod.IsReachable))
{
string methodName = CreateGetMethodName(NameConverter.GetConvertedName(property), result);
TypeReference dpropType = property.PropertyType.GetReference(targetPackage, compiler.Module);
MethodDefinition method = new MethodDefinition(@interface, methodName, new Prototype(dpropType));
method.AccessFlags = AccessFlags.Public | AccessFlags.Abstract;
result.PropertyToGetMethodMap.Add(property, method);
@interface.Methods.Add(method);
}
// Add ctor mapping
var argIndex = 0;
foreach (var ctor in attributeType.Methods.Where(x => (x.Name == ".ctor") && x.IsReachable))
{
// Add methods for the ctor arguments
List <MethodDefinition> paramGetMethods = new List <MethodDefinition>();
foreach (ParameterDefinition p in ctor.Parameters)
{
string methodName = CreateGetMethodName("c" + argIndex++, result);
TypeReference dparamType = p.ParameterType.GetReference(targetPackage, compiler.Module);
MethodDefinition method = new MethodDefinition(@interface, methodName, new Prototype(dparamType));
method.AccessFlags = AccessFlags.Public | AccessFlags.Abstract;
@interface.Methods.Add(method);
paramGetMethods.Add(method);
}
// Add a builder method
MethodDefinition buildMethod = CreateBuildMethod(sequencePoint, ctor, paramGetMethods, compiler, targetPackage, attributeClass, result);
result.CtorMap.Add(ctor, new AttributeCtorMapping(buildMethod, paramGetMethods));
}
// Create default values annotation
Annotation defAnnotation = CreateDefaultAnnotation(result);
result.AnnotationInterfaceClass.Annotations.Add(defAnnotation);
return(result);
}
/// <summary>
/// Gets a class reference for the given type reference.
/// </summary>
internal static TypeReference GetReference(this XTypeReference type, DexTargetPackage targetPackage)
{
if (type == null)
{
throw new ArgumentNullException("type");
}
type = type.GetWithoutModifiers();
// Handle array's
if (type.IsArray)
{
var arrType = (XArrayType)type;
var dimensions = arrType.Dimensions.Count() - 1;
var dArrayType = new ArrayType(GetReference(type.ElementType, targetPackage));
while (dimensions > 0)
{
dArrayType = new ArrayType(dArrayType);
dimensions--;
}
return(dArrayType);
}
// Handle generic parameters
if (type.IsGenericParameter || (type.IsByReference && type.ElementType.IsGenericParameter))
{
if (type.IsByReference) // this should be possible as well, but would need some more code at some other places.
{
return(new ByReferenceType(FrameworkReferences.Object));
}
var gp = (XGenericParameter)type;
if (gp.AllowConstraintAsTypeReference())
{
return(gp.Constraints[0].GetReference(targetPackage));
}
return(FrameworkReferences.Object);
}
// Handle out/ref types
if (type.IsByReference)
{
var byRefType = (XByReferenceType)type;
return(new ByReferenceType(GetReference(byRefType.ElementType, targetPackage)));
}
// Handle Nullable<T>
if (type.IsGenericInstance)
{
var git = (XGenericInstanceType)type;
if (git.ElementType.IsNullableT())
{
var arg = git.GenericArguments[0];
if (arg.IsBoolean())
{
return(new ClassReference("java/lang/Boolean"));
}
if (arg.IsByte() || arg.IsSByte())
{
return(new ClassReference("java/lang/Byte"));
}
if (arg.IsChar())
{
return(new ClassReference("java/lang/Character"));
}
if (arg.IsInt16() || arg.IsUInt16())
{
return(new ClassReference("java/lang/Short"));
}
if (arg.IsInt32() || arg.IsUInt32())
{
return(new ClassReference("java/lang/Integer"));
}
if (arg.IsInt64() || arg.IsUInt64())
{
return(new ClassReference("java/lang/Long"));
}
if (arg.IsDouble())
{
return(new ClassReference("java/lang/Double"));
}
if (arg.IsFloat())
{
return(new ClassReference("java/lang/Float"));
}
var typeofT = git.GenericArguments[0];
if (typeofT.IsGenericParameter) // use object.
{
return(FrameworkReferences.Object);
}
XTypeDefinition typeofTDef;
if (!typeofT.TryResolve(out typeofTDef))
{
throw new XResolutionException(typeofT);
}
var className = targetPackage.NameConverter.GetConvertedFullName(typeofTDef);
var classDef = targetPackage.DexFile.GetClass(className);
// Use nullable base class of T, if enum.
if (classDef.IsEnum)
{
return(classDef.SuperClass);
}
// I like the base class concept for enums. unfortunately it seems to be
// impossible for structs and/or might have performance implications.
// Just return the type for structs.
return(classDef);
}
}
var primType = GetPrimitiveType(type);
if (primType != null)
{
return(primType);
}
// Resolve the type to a type definition
XTypeDefinition typeDef;
if (type.GetElementType().TryResolve(out typeDef))
{
// Handle primitive types
primType = GetPrimitiveType(typeDef);
if (primType != null)
{
return(primType);
}
string className;
if (typeDef.TryGetDexImportNames(out className))
{
// type is a framework type
return(new ClassReference(className));
}
// Handle enums
/* Enums Are Normal classes now
* if (typeDef.IsEnum)
* {
* // Convert to primitive type
* //return typeDef.GetEnumUnderlyingType().GetReference(target, nsConverter);
* }*/
// Handle nested types of java types
string convertedFullName;
if (typeDef.IsNested && typeDef.DeclaringType.HasDexImportAttribute())
{
// Nested type that is not imported, but it's declaring type is imported.
convertedFullName = targetPackage.NameConverter.GetConvertedFullName(typeDef.DeclaringType) + "_" +
NameConverter.GetConvertedName(typeDef);
}
else if (typeDef.TryGetJavaImportNames(out className))
{
convertedFullName = className.Replace('/', '.');
}
else
{
convertedFullName = targetPackage.NameConverter.GetConvertedFullName(typeDef);
}
// type is in the assembly itself
var result = targetPackage.DexFile.GetClass(convertedFullName);
if (result == null)
{
throw new ArgumentException(string.Format("Cannot find type {0}", convertedFullName));
}
return(result);
}
var javaType = type as XModel.Java.XBuilder.JavaTypeReference;
if (javaType != null)
{
return(new ClassReference(javaType.JavaClassName));
}
throw new ResolveException(string.Format("Type {0} not found", type.FullName));
}
