internal MemberTracker UpdateTypeEntity(TypeTracker existingTypeEntity, string normalizedTypeName)
{
Debug.Assert(normalizedTypeName.IndexOf('.') == -1); // This is the simple name, not the full name
Debug.Assert(ReflectionUtils.GetNormalizedTypeName(normalizedTypeName) == normalizedTypeName);
// Look for a non-generic type
if (_simpleTypeNames.Contains(normalizedTypeName))
{
Type newType = LoadType(_assembly, GetFullChildName(normalizedTypeName));
if (newType != null)
{
existingTypeEntity = TypeGroup.UpdateTypeEntity(existingTypeEntity, TypeTracker.GetTypeTracker(newType));
}
}
// Look for generic types
if (_genericTypeNames.ContainsKey(normalizedTypeName))
{
List <string> actualNames = _genericTypeNames[normalizedTypeName];
foreach (string actualName in actualNames)
{
Type newType = LoadType(_assembly, GetFullChildName(actualName));
if (newType != null)
{
existingTypeEntity = TypeGroup.UpdateTypeEntity(existingTypeEntity, TypeTracker.GetTypeTracker(newType));
}
}
}
return(existingTypeEntity);
}
/// <param name="existingTypeEntity">The merged list so far. Could be null</param>
/// <param name="newType">The new type(s) to add to the merged list</param>
/// <returns>The merged list. Could be a TypeTracker or TypeGroup</returns>
public static TypeTracker UpdateTypeEntity(TypeTracker existingTypeEntity, TypeTracker newType)
{
Debug.Assert(newType != null);
Debug.Assert(existingTypeEntity == null || (existingTypeEntity is NestedTypeTracker) || (existingTypeEntity is TypeGroup));
if (existingTypeEntity == null)
{
return(newType);
}
NestedTypeTracker existingType = existingTypeEntity as NestedTypeTracker;
TypeGroup existingTypeCollision = existingTypeEntity as TypeGroup;
if (existingType != null)
{
int existingArity = GetGenericArity(existingType.Type);
int newArity = GetGenericArity(newType.Type);
if (existingArity == newArity)
{
return(newType);
}
return(new TypeGroup(existingType.Type, existingArity, newType.Type, newArity));
}
return(new TypeGroup(newType.Type, existingTypeCollision));
}
internal void AddTypeName(string typeName, Assembly assem)
{
// lock is held when this is called
Assert.NotNull(typeName, assem);
Debug.Assert(typeName.IndexOf(Type.Delimiter) == -1); // This is the simple name, not the full name
if (!_typeNames.ContainsKey(assem))
{
_typeNames[assem] = new TypeNames(assem, _fullName);
}
_typeNames[assem].AddTypeName(typeName);
string normalizedTypeName = ReflectionUtils.GetNormalizedTypeName(typeName);
if (_dict.ContainsKey(normalizedTypeName))
{
// A similarly named type, namespace, or module already exists.
Type newType = LoadType(assem, GetFullChildName(typeName));
object existingValue = _dict[normalizedTypeName];
TypeTracker existingTypeEntity = existingValue as TypeTracker;
if (existingTypeEntity == null)
{
// Replace the existing namespace or module with the new type
Debug.Assert(existingValue is NamespaceTracker);
_dict[normalizedTypeName] = MemberTracker.FromMemberInfo(newType);
}
else
{
// Unify the new type with the existing type
_dict[normalizedTypeName] = TypeGroup.UpdateTypeEntity(existingTypeEntity, ReflectionCache.GetTypeTracker(newType));
}
return;
}
}
public static RubyModule/*!*/ Of(RubyContext/*!*/ context, TypeGroup/*!*/ self, int genericArity) {
TypeTracker tracker = self.GetTypeForArity(genericArity);
if (tracker == null) {
throw RubyExceptions.CreateArgumentError(String.Format("Type group `{0}' does not contain a type of generic arity {1}", self.Name, genericArity));
}
return context.GetModule(tracker.Type);
}
private TypeGroup(Type t1, TypeGroup existingTypes) {
// TODO: types of different arities might be inherited, but we don't support that yet:
Debug.Assert(t1.DeclaringType == existingTypes.DeclaringType);
Debug.Assert(ReflectionUtils.GetNormalizedTypeName(t1) == existingTypes.Name);
_typesByArity = new Dictionary<int, Type>(existingTypes._typesByArity);
_typesByArity[GetGenericArity(t1)] = t1;
_name = existingTypes.Name;
}
private TypeGroup(Type t1, TypeGroup existingTypes)
{
// TODO: types of different arities might be inherited, but we don't support that yet:
Debug.Assert(t1.DeclaringType == existingTypes.DeclaringType);
Debug.Assert(ReflectionUtils.GetNormalizedTypeName(t1) == existingTypes.Name);
_typesByArity = new Dictionary <int, Type>(existingTypes._typesByArity);
_typesByArity[GetGenericArity(t1)] = t1;
_name = existingTypes.Name;
}
private void MakeTypeBody(Type type, MemberGroup members)
{
TypeTracker typeTracker = (TypeTracker)members[0];
for (int i = 1; i < members.Count; i++)
{
typeTracker = TypeGroup.UpdateTypeEntity(typeTracker, (TypeTracker)members[i]);
}
AddToBody(Rule.MakeReturn(Binder, typeTracker.GetValue(Binder, type)));
}
private void MakeTypeBody(GetMemberInfo getMemInfo, Type instanceType, MemberGroup members)
{
TypeTracker typeTracker = (TypeTracker)members[0];
for (int i = 1; i < members.Count; i++)
{
typeTracker = TypeGroup.UpdateTypeEntity(typeTracker, (TypeTracker)members[i]);
}
getMemInfo.Body.FinishCondition(typeTracker.GetValue(getMemInfo.ResolutionFactory, this, instanceType));
}
public static object EachType(RubyContext/*!*/ context, BlockParam/*!*/ block, TypeGroup/*!*/ self) {
if (block == null) {
throw RubyExceptions.NoBlockGiven();
}
foreach (Type type in self.Types) {
RubyModule module = context.GetModule(type);
object result;
if (block.Yield(module, out result)) {
return result;
}
}
return self;
}
public static RubyModule/*!*/ Of(RubyContext/*!*/ context, TypeGroup/*!*/ self, [NotNull]params object[]/*!*/ typeArgs) {
TypeTracker tracker = self.GetTypeForArity(typeArgs.Length);
if (tracker == null) {
throw RubyExceptions.CreateArgumentError(String.Format("Invalid number of type arguments for `{0}'", self.Name));
}
Type concreteType;
if (typeArgs.Length > 0) {
concreteType = tracker.Type.MakeGenericType(Protocols.ToTypes(context, typeArgs));
} else {
concreteType = tracker.Type;
}
return context.GetModule(concreteType);
}
/// <param name="existingTypeEntity">The merged list so far. Could be null</param>
/// <param name="newType">The new type(s) to add to the merged list</param>
/// <returns>The merged list. Could be a TypeTracker or TypeGroup</returns>
public static TypeTracker UpdateTypeEntity(
TypeTracker existingTypeEntity,
TypeTracker newType)
{
Debug.Assert(newType != null);
Debug.Assert(existingTypeEntity == null || (existingTypeEntity is NestedTypeTracker) || (existingTypeEntity is TypeGroup));
if (existingTypeEntity == null)
{
return(newType);
}
NestedTypeTracker existingType = existingTypeEntity as NestedTypeTracker;
TypeGroup existingTypeCollision = existingTypeEntity as TypeGroup;
#if DEBUG
string existingEntityNormalizedName = (existingType != null) ? ReflectionUtils.GetNormalizedTypeName(existingType.Type)
: existingTypeCollision.NormalizedName;
string newEntityNormalizedName = ReflectionUtils.GetNormalizedTypeName(newType.Type);
Debug.Assert(existingEntityNormalizedName == newEntityNormalizedName);
#endif
if (existingType != null)
{
if (GetGenericArity(existingType.Type) == GetGenericArity(newType.Type))
{
return(newType);
}
return(new TypeGroup(existingType.Type, newType.Type));
}
// copy the dictionary and return a new collision
Dictionary <int, Type> copy = new Dictionary <int, Type>(existingTypeCollision._typesByArity);
return(new TypeGroup(newType.Type, copy));
}
public static MutableString/*!*/ Inspect(RubyContext/*!*/ context, TypeGroup/*!*/ self) {
var result = MutableString.CreateMutable(RubyEncoding.ClassName);
result.Append("#<TypeGroup: ");
bool isFirst = true;
foreach (var entry in self.TypesByArity.ToSortedList((x, y) => x.Key - y.Key)) {
Type type = entry.Value;
if (!isFirst) {
result.Append(", ");
} else {
isFirst = false;
}
result.Append(context.GetTypeName(type, true));
}
result.Append('>');
return result;
}
public static MutableString/*!*/ GetName(TypeGroup/*!*/ self) {
return MutableString.Create(self.Name, RubyEncoding.UTF8);
}
private static object New(string/*!*/ methodName, CallSiteStorage<Func<CallSite, object, object, object>>/*!*/ storage,
TypeGroup/*!*/ self, params object[]/*!*/ args) {
var cls = GetNonGenericClass(storage.Context, self);
var site = storage.GetCallSite(methodName,
new RubyCallSignature(1, RubyCallFlags.HasImplicitSelf | RubyCallFlags.HasSplattedArgument)
);
return site.Target(site, cls, RubyOps.MakeArrayN(args));
}
public static MutableString/*!*/ GetName(RubyContext/*!*/ context, TypeGroup/*!*/ self) {
return MutableString.Create(self.Name, context.GetIdentifierEncoding());
}
public static MutableString/*!*/ GetName(TypeGroup/*!*/ self) {
return MutableString.Create(self.Name);
}
public static object/*!*/ New(CallSiteStorage<Func<CallSite, object, object, object>>/*!*/ storage,
TypeGroup/*!*/ self, [NotNull]params object[] args) {
return New("new", storage, self, args);
}
private static object/*!*/ New(string/*!*/ methodName, CallSiteStorage<Func<CallSite, object, object, object, object>>/*!*/ storage, BlockParam block,
TypeGroup/*!*/ self, [NotNull]params object[] args) {
var cls = GetNonGenericClass(storage.Context, self);
var site = storage.GetCallSite(methodName,
new RubyCallSignature(1, RubyCallFlags.HasImplicitSelf | RubyCallFlags.HasSplattedArgument | RubyCallFlags.HasBlock)
);
return site.Target(site, cls, block != null ? block.Proc : null, RubyOps.MakeArrayN(args));
}
public static RubyClass/*!*/ GetNonGenericClass(RubyContext/*!*/ context, TypeGroup/*!*/ typeGroup) {
Type type = GetNonGenericType(typeGroup);
if (type.IsInterface) {
throw RubyExceptions.CreateTypeError("cannot instantiate an interface");
}
return context.GetClass(type);
}
private static Type/*!*/ GetNonGenericType(TypeGroup/*!*/ self) {
TypeTracker type = self.GetTypeForArity(0);
if (type == null) {
throw RubyExceptions.CreateTypeError("type group doesn't include non-generic type");
}
return type.Type;
}
public static object New(CallSiteStorage<Func<CallSite, object, object, object, object>>/*!*/ storage, BlockParam block,
TypeGroup/*!*/ self, params object[]/*!*/ args) {
return New("new", storage, block, self, args);
}
private MetaObject MakeGetMemberTarget(GetMemberInfo getMemInfo, MetaObject target)
{
Type type = target.LimitType.IsCOMObject ? target.Expression.Type : target.LimitType;
Restrictions restrictions = target.Restrictions;
Expression self = target.Expression;
target = target.Restrict(target.LimitType);
// needed for GetMember call until DynamicAction goes away
OldDynamicAction act = OldGetMemberAction.Make(
this,
getMemInfo.Name
);
// Specially recognized types: TypeTracker, NamespaceTracker, and StrongBox.
// TODO: TypeTracker and NamespaceTracker should technically be IDO's.
MemberGroup members = MemberGroup.EmptyGroup;
if (typeof(TypeTracker).IsAssignableFrom(type))
{
restrictions = restrictions.Merge(
Restrictions.GetInstanceRestriction(target.Expression, target.Value)
);
TypeGroup tg = target.Value as TypeGroup;
Type nonGen;
if (tg == null || tg.TryGetNonGenericType(out nonGen))
{
members = GetMember(act, ((TypeTracker)target.Value).Type, getMemInfo.Name);
if (members.Count > 0)
{
// we have a member that's on the type associated w/ the tracker, return that...
type = ((TypeTracker)target.Value).Type;
self = null;
}
}
}
if (members.Count == 0)
{
// Get the members
members = GetMember(act, type, getMemInfo.Name);
}
if (members.Count == 0)
{
if (typeof(TypeTracker).IsAssignableFrom(type))
{
// ensure we don't have a non-generic type, and if we do report an error now. This matches
// the rule version of the default binder but should probably be removed long term
Type x = ((TypeTracker)target.Value).Type;
}
else if (type.IsInterface)
{
// all interfaces have object members
type = typeof(object);
members = GetMember(act, type, getMemInfo.Name);
}
}
Expression propSelf = self;
// if lookup failed try the strong-box type if available.
if (members.Count == 0 && typeof(IStrongBox).IsAssignableFrom(type))
{
// properties/fields need the direct value, methods hold onto the strong box.
propSelf = Ast.Field(AstUtils.Convert(self, type), type.GetField("Value"));
type = type.GetGenericArguments()[0];
members = GetMember(
act,
type,
getMemInfo.Name
);
}
MakeBodyHelper(getMemInfo, self, propSelf, type, members);
getMemInfo.Body.Restrictions = restrictions;
return(getMemInfo.Body.GetMetaObject(target));
}
private DynamicMetaObject MakeGetMemberTarget(GetMemberInfo getMemInfo, DynamicMetaObject target)
{
Type targetType = target.GetLimitType();
BindingRestrictions restrictions = target.Restrictions;
DynamicMetaObject self = target;
target = target.Restrict(target.GetLimitType());
// Specially recognized types: TypeTracker, NamespaceTracker, and StrongBox.
// TODO: TypeTracker and NamespaceTracker should technically be IDO's.
MemberGroup members = MemberGroup.EmptyGroup;
if (typeof(TypeTracker).IsAssignableFrom(targetType))
{
restrictions = restrictions.Merge(
BindingRestrictions.GetInstanceRestriction(target.Expression, target.Value)
);
TypeGroup tg = target.Value as TypeGroup;
if (tg == null || tg.TryGetNonGenericType(out Type _))
{
members = GetMember(MemberRequestKind.Get, ((TypeTracker)target.Value).Type, getMemInfo.Name);
if (members.Count > 0)
{
// we have a member that's on the type associated w/ the tracker, return that...
targetType = ((TypeTracker)target.Value).Type;
self = null;
}
}
}
if (members.Count == 0)
{
// Get the members
members = GetMember(MemberRequestKind.Get, targetType, getMemInfo.Name);
}
if (members.Count == 0)
{
if (typeof(TypeTracker).IsAssignableFrom(targetType))
{
// Throws an exception if we don't have a non-generic type, and if we do report an error now. This matches
// the rule version of the default binder but should probably be removed long term.
EnsureTrackerRepresentsNonGenericType((TypeTracker)target.Value);
}
else if (targetType.IsInterface)
{
// all interfaces have object members
targetType = typeof(object);
members = GetMember(MemberRequestKind.Get, targetType, getMemInfo.Name);
}
}
DynamicMetaObject propSelf = self;
// if lookup failed try the strong-box type if available.
if (members.Count == 0 && typeof(IStrongBox).IsAssignableFrom(targetType) && propSelf != null)
{
// properties/fields need the direct value, methods hold onto the strong box.
propSelf = new DynamicMetaObject(
Expression.Field(AstUtils.Convert(propSelf.Expression, targetType), targetType.GetInheritedFields("Value").First()),
propSelf.Restrictions,
((IStrongBox)propSelf.Value).Value
);
targetType = targetType.GetGenericArguments()[0];
members = GetMember(
MemberRequestKind.Get,
targetType,
getMemInfo.Name
);
}
MakeBodyHelper(getMemInfo, self, propSelf, targetType, members);
getMemInfo.Body.Restrictions = restrictions;
return(getMemInfo.Body.GetMetaObject(target));
}
public static object/*!*/ ClrNew(CallSiteStorage<Func<CallSite, object, object, object, object>>/*!*/ storage, BlockParam block,
TypeGroup/*!*/ self, [NotNull]params object[] args) {
return New("clr_new", storage, block, self, args);
}
public static MutableString/*!*/ GetName(TypeGroup/*!*/ self) {
return MutableString.CreateMutable().Append("TypeGroup of ").Append(self.Name);
}
public static RubyMethod/*!*/ GetClrConstructor(RubyContext/*!*/ context, TypeGroup/*!*/ self) {
return ClassOps.GetClrConstructor(GetNonGenericClass(context, self));
}
public static RubyClass GetSuperclass(RubyContext/*!*/ context, TypeGroup/*!*/ self) {
Type type = GetNonGenericType(self);
return type.IsInterface ? null : context.GetClass(type).SuperClass;
}
public static object/*!*/ ClrNew(CallSiteStorage<Func<CallSite, object, object, object>>/*!*/ storage,
TypeGroup/*!*/ self, params object[]/*!*/ args) {
return New("clr_new", storage, self, args);
}