public bool CanInstantiationsShareCode(RuntimeTypeHandle[] genericArgHandles1, RuntimeTypeHandle[] genericArgHandles2, CanonicalFormKind kind)
{
if (genericArgHandles1.Length != genericArgHandles2.Length)
return false;
bool match = true;
TypeSystemContext context = TypeSystemContextFactory.Create();
for (int i = 0; i < genericArgHandles1.Length; i++)
{
TypeDesc genericArg1 = context.ResolveRuntimeTypeHandle(genericArgHandles1[i]);
TypeDesc genericArg2 = context.ResolveRuntimeTypeHandle(genericArgHandles2[i]);
if (context.ConvertToCanon(genericArg1, kind) != context.ConvertToCanon(genericArg2, kind))
{
match = false;
break;
}
}
TypeSystemContextFactory.Recycle(context);
return match;
}
internal override bool MatchParsedEntry(ref NativeParser entryParser, ref ExternalReferencesTable externalReferencesLookup, IntPtr moduleHandle)
{
//
// Entries read from the hashtable are loaded as GenericMethodDescs, and compared to the input.
// This lookup is slower than the lookups using RuntimeTypeHandles, but can handle cases where we don't have
// RuntimeTypeHandle values for all of the components of the input GenericMethodDesc, but still need to look it up in case the
// method dictionary statically really exists
//
TypeSystemContext context = _methodToLookup.Context;
RuntimeTypeHandle parsedDeclaringTypeHandle = externalReferencesLookup.GetRuntimeTypeHandleFromIndex(entryParser.GetUnsigned());
// Hash table names / sigs are indirected through to the native layout info
MethodNameAndSignature nameAndSignature;
if (!TypeLoaderEnvironment.Instance.TryGetMethodNameAndSignatureFromNativeLayoutOffset(moduleHandle, entryParser.GetUnsigned(), out nameAndSignature))
{
return(false);
}
RuntimeTypeHandle[] parsedArgsHandles = GetTypeSequence(ref externalReferencesLookup, ref entryParser);
DefType parsedDeclaringType = context.ResolveRuntimeTypeHandle(parsedDeclaringTypeHandle) as DefType;
Instantiation parsedArgs = context.ResolveRuntimeTypeHandles(parsedArgsHandles);
InstantiatedMethod parsedGenericMethod = (InstantiatedMethod)context.ResolveGenericMethodInstantiation(false, parsedDeclaringType, nameAndSignature, parsedArgs, IntPtr.Zero, false);
return(parsedGenericMethod == _methodToLookup);
}
/// <summary>
/// This thunk is used to lazily resolve Finalizer calls
/// </summary>
/// <param name="obj">Object to be finalized</param>
private static void FinalizeThunk(object obj)
{
RuntimeTypeHandle rthType = RuntimeAugments.GetRuntimeTypeHandleFromObjectReference(obj);
TypeSystemContext context = TypeSystemContextFactory.Create();
TypeDesc type = context.ResolveRuntimeTypeHandle(rthType);
MethodDesc finalizer = type.GetFinalizer();
IntPtr fnPtrFinalizer;
if (!TryGetVTableCallableAddress(finalizer, out fnPtrFinalizer))
{
Environment.FailFast("Method address lookup failed for: " + finalizer.ToString());
}
TypeSystemContextFactory.Recycle(context);
unsafe
{
rthType.ToEETypePtr()->FinalizerCode = fnPtrFinalizer;
}
// Call the finalizer directly. No need to play tricks with tail calling, as this is rare enough, it shouldn't happen much
// Here we take advantage of the detail that the calling convention abi for a static function
// that returns no values, and takes a single object parameter matches that of a
// instance function that takes no parameters
Intrinsics.Call(fnPtrFinalizer, obj);
}
/// <summary>
/// Attempt a virtual dispatch on a given instanceType based on the method found via a metadata token
/// </summary>
private static bool TryDispatchMethodOnTarget_Inner(NativeFormatModuleInfo module, int metadataToken, RuntimeTypeHandle targetInstanceType, out IntPtr methodAddress)
{
#if SUPPORTS_NATIVE_METADATA_TYPE_LOADING
TypeSystemContext context = TypeSystemContextFactory.Create();
NativeFormatMetadataUnit metadataUnit = context.ResolveMetadataUnit(module);
MethodDesc targetMethod = metadataUnit.GetMethod(metadataToken.AsHandle(), null);
TypeDesc instanceType = context.ResolveRuntimeTypeHandle(targetInstanceType);
MethodDesc realTargetMethod = targetMethod;
// For non-interface methods we support the target method not being the exact target. (This allows
// a canonical method to be passed in and work for any generic type instantiation.)
if (!targetMethod.OwningType.IsInterface)
{
realTargetMethod = instanceType.FindMethodOnTypeWithMatchingTypicalMethod(targetMethod);
}
bool success = LazyVTableResolver.TryDispatchMethodOnTarget(instanceType, realTargetMethod, out methodAddress);
TypeSystemContextFactory.Recycle(context);
return(success);
#else
methodAddress = IntPtr.Zero;
return(false);
#endif
}
public bool TryComputeHasInstantiationDeterminedSize(RuntimeTypeHandle typeHandle, TypeSystemContext context, out bool hasInstantiationDeterminedSize)
{
Debug.Assert(RuntimeAugments.IsGenericType(typeHandle) || RuntimeAugments.IsGenericTypeDefinition(typeHandle));
DefType type = (DefType)context.ResolveRuntimeTypeHandle(typeHandle);
return TryComputeHasInstantiationDeterminedSize(type, out hasInstantiationDeterminedSize);
}
internal TypeDesc GetExternalType(uint index)
{
InitializeExternalReferencesLookup();
RuntimeTypeHandle rtth = _externalReferencesLookup.GetRuntimeTypeHandleFromIndex(index);
return(_typeSystemContext.ResolveRuntimeTypeHandle(rtth));
}
/// <summary>
/// Resolve a dispatch on an interface EEType/slot index pair to a function pointer
/// </summary>
private bool TryResolveTypeSlotDispatch_Inner(IntPtr targetTypeAsIntPtr, IntPtr interfaceTypeAsIntPtr, ushort slot, out IntPtr methodAddress)
{
methodAddress = IntPtr.Zero;
#if SUPPORTS_NATIVE_METADATA_TYPE_LOADING
TypeSystemContext context = TypeSystemContextFactory.Create();
TypeDesc targetType;
TypeDesc interfaceType;
unsafe
{
targetType = context.ResolveRuntimeTypeHandle(((EEType *)targetTypeAsIntPtr.ToPointer())->ToRuntimeTypeHandle());
interfaceType = context.ResolveRuntimeTypeHandle(((EEType *)interfaceTypeAsIntPtr.ToPointer())->ToRuntimeTypeHandle());
}
if (!(interfaceType.GetTypeDefinition() is MetadataType))
{
// If the interface open type is not a metadata type, this must be an interface not known in the metadata world.
// Use the redhawk resolver for this directly.
TypeDesc pregeneratedType = LazyVTableResolver.GetMostDerivedPregeneratedOrTemplateLoadedType(targetType);
pregeneratedType.RetrieveRuntimeTypeHandleIfPossible();
interfaceType.RetrieveRuntimeTypeHandleIfPossible();
methodAddress = RuntimeAugments.ResolveDispatchOnType(pregeneratedType.RuntimeTypeHandle, interfaceType.RuntimeTypeHandle, slot);
}
else
{
MethodDesc interfaceMethod;
if (!LazyVTableResolver.TryGetMethodFromInterfaceSlot(interfaceType, slot, out interfaceMethod))
{
return(false);
}
if (!LazyVTableResolver.TryDispatchMethodOnTarget(targetType, interfaceMethod, out methodAddress))
{
return(false);
}
}
TypeSystemContextFactory.Recycle(context);
return(true);
#else
return(false);
#endif
}
public int GetCanonicalHashCode(RuntimeTypeHandle typeHandle, CanonicalFormKind kind)
{
TypeSystemContext context = TypeSystemContextFactory.Create();
TypeDesc type = context.ResolveRuntimeTypeHandle(typeHandle);
int hashCode = type.ConvertToCanonForm(kind).GetHashCode();
TypeSystemContextFactory.Recycle(context);
return hashCode;
}
internal override bool MatchGenericTypeEntry(GenericTypeEntry entry)
{
TypeSystemContext context = _typeToLookup.Context;
DefType parsedTypeDefinition = (DefType)context.ResolveRuntimeTypeHandle(entry._genericTypeDefinitionHandle);
Instantiation parsedArgs = context.ResolveRuntimeTypeHandles(entry._genericTypeArgumentHandles);
DefType parsedGenericType = context.ResolveGenericInstantiation(parsedTypeDefinition, parsedArgs);
return(parsedGenericType == _typeToLookup);
}
internal override bool MatchGenericMethodEntry(GenericMethodEntry entry)
{
TypeSystemContext context = _methodToLookup.Context;
DefType parsedDeclaringType = context.ResolveRuntimeTypeHandle(entry._declaringTypeHandle) as DefType;
Instantiation parsedArgs = context.ResolveRuntimeTypeHandles(entry._genericMethodArgumentHandles);
InstantiatedMethod parsedGenericMethod = (InstantiatedMethod)context.ResolveGenericMethodInstantiation(false, parsedDeclaringType, entry._methodNameAndSignature, parsedArgs, IntPtr.Zero, false);
return(parsedGenericMethod == _methodToLookup);
}
public static MethodDesc ToMethodDesc(this RuntimeMethodHandle rmh, TypeSystemContext typeSystemContext)
{
RuntimeTypeHandle declaringTypeHandle;
MethodNameAndSignature nameAndSignature;
RuntimeTypeHandle[] genericMethodArgs;
if (!TypeLoaderEnvironment.Instance.TryGetRuntimeMethodHandleComponents(rmh, out declaringTypeHandle, out nameAndSignature, out genericMethodArgs))
{
return(null);
}
QMethodDefinition methodHandle;
if (!TypeLoaderEnvironment.Instance.TryGetMetadataForTypeMethodNameAndSignature(declaringTypeHandle, nameAndSignature, out methodHandle))
{
return(null);
}
TypeDesc declaringType = typeSystemContext.ResolveRuntimeTypeHandle(declaringTypeHandle);
TypeDesc declaringTypeDefinition = declaringType.GetTypeDefinition();
MethodDesc typicalMethod = null;
if (methodHandle.IsNativeFormatMetadataBased)
{
var nativeFormatType = (NativeFormatType)declaringTypeDefinition;
typicalMethod = nativeFormatType.MetadataUnit.GetMethod(methodHandle.NativeFormatHandle, nativeFormatType);
}
else if (methodHandle.IsEcmaFormatMetadataBased)
{
var ecmaFormatType = (EcmaType)declaringTypeDefinition;
typicalMethod = ecmaFormatType.EcmaModule.GetMethod(methodHandle.EcmaFormatHandle);
}
Debug.Assert(typicalMethod != null);
MethodDesc methodOnInstantiatedType = typicalMethod;
if (declaringType != declaringTypeDefinition)
{
methodOnInstantiatedType = typeSystemContext.GetMethodForInstantiatedType(typicalMethod, (InstantiatedType)declaringType);
}
MethodDesc instantiatedMethod = methodOnInstantiatedType;
if (genericMethodArgs != null)
{
Debug.Assert(genericMethodArgs.Length > 0);
Instantiation genericMethodInstantiation = typeSystemContext.ResolveRuntimeTypeHandles(genericMethodArgs);
typeSystemContext.GetInstantiatedMethod(methodOnInstantiatedType, genericMethodInstantiation);
}
return(instantiatedMethod);
}
private bool ResolveInterfaceGenericVirtualMethodSlot(RuntimeTypeHandle targetTypeHandle, ref RuntimeTypeHandle declaringType, ref MethodNameAndSignature methodNameAndSignature)
{
if (IsPregeneratedOrTemplateRuntimeTypeHandle(targetTypeHandle))
{
// If the target type isn't dynamic, or at least is template type generated, the static lookup logic is what we want.
return(ResolveInterfaceGenericVirtualMethodSlot_Static(targetTypeHandle, ref declaringType, ref methodNameAndSignature));
}
else
{
#if SUPPORTS_NATIVE_METADATA_TYPE_LOADING
TypeSystemContext context = TypeSystemContextFactory.Create();
DefType targetType = (DefType)context.ResolveRuntimeTypeHandle(targetTypeHandle);
// Method being called...
MethodDesc targetVirtualMethod = ResolveTypeHandleAndMethodNameAndSigToVirtualMethodDesc(context, declaringType, methodNameAndSignature);
if (targetVirtualMethod == null)
{
// If we can't find the method in the type system, it must only be present in the static environment. Search there instead.
TypeSystemContextFactory.Recycle(context);
return(ResolveInterfaceGenericVirtualMethodSlot_Static(targetTypeHandle, ref declaringType, ref methodNameAndSignature));
}
TypeDesc instanceDefTypeToExamine;
MethodDesc newlyFoundVirtualMethod = LazyVTableResolver.ResolveInterfaceMethodToVirtualMethod(targetType, out instanceDefTypeToExamine, targetVirtualMethod);
targetVirtualMethod = newlyFoundVirtualMethod;
// The pregenerated base type must be the one that implements the interface method
// Call into Redhawk to deal with this.
if ((newlyFoundVirtualMethod == null) && (instanceDefTypeToExamine != null))
{
TypeSystemContextFactory.Recycle(context);
// If we can't find the method in the type system, the overload must be defined in the static environment. Search there instead.
return(ResolveInterfaceGenericVirtualMethodSlot_Static(instanceDefTypeToExamine.GetRuntimeTypeHandle(), ref declaringType, ref methodNameAndSignature));
}
declaringType = targetVirtualMethod.OwningType.GetRuntimeTypeHandle();
methodNameAndSignature = targetVirtualMethod.NameAndSignature;
TypeSystemContextFactory.Recycle(context);
return(true);
#else
Environment.FailFast("GVM Resolution for non template or pregenerated type");
return(false);
#endif
}
}
internal override bool MatchParsedEntry(RuntimeTypeHandle tentativeType)
{
//
// Entries read from the hashtable are loaded as DefTypes, and compared to the input.
// This lookup is slower than the lookups using RuntimeTypeHandles, but can handle cases where we don't have
// RuntimeTypeHandle values for all of the components of the input DefType, but still need to look it up in case the type
// statically exists and has an existing RuntimeTypeHandle value.
//
TypeSystemContext context = _typeToLookup.Context;
RuntimeTypeHandle[] parsedArgsHandles;
RuntimeTypeHandle parsedTypeDefinitionHandle = RuntimeAugments.GetGenericInstantiation(tentativeType, out parsedArgsHandles);
DefType parsedTypeDefinition = (DefType)context.ResolveRuntimeTypeHandle(parsedTypeDefinitionHandle);
Instantiation parsedArgs = context.ResolveRuntimeTypeHandles(parsedArgsHandles);
DefType parsedGenericType = context.ResolveGenericInstantiation(parsedTypeDefinition, parsedArgs);
return(parsedGenericType == _typeToLookup);
}
public MethodDesc ResolveTypeHandleAndMethodNameAndSigToVirtualMethodDesc(TypeSystemContext context, RuntimeTypeHandle declaringTypeHandle, MethodNameAndSignature methodNameAndSignature)
{
TypeDesc declaringType = context.ResolveRuntimeTypeHandle(declaringTypeHandle);
MethodDesc targetVirtualMethod = null;
foreach (MethodDesc m in declaringType.GetAllMethods())
{
if (!m.IsVirtual)
{
continue;
}
if (m.NameAndSignature.Equals(methodNameAndSignature))
{
targetVirtualMethod = m;
}
}
return(targetVirtualMethod);
}
/// <summary>
/// Try to figure out field access information based on type metadata for native format types.
/// </summary>
/// <param name="metadataReader">Metadata reader for the declaring type</param>
/// <param name="declaringTypeHandle">Declaring type for the method</param>
/// <param name="fieldHandle">Field handle</param>
/// <param name="canonFormKind">Canonical form to use</param>
/// <param name="fieldAccessMetadata">Output - metadata information for field accessor construction</param>
/// <returns>true when found, false otherwise</returns>
private static bool TryGetFieldAccessMetadataFromNativeFormatMetadata(
MetadataReader metadataReader,
RuntimeTypeHandle declaringTypeHandle,
FieldHandle fieldHandle,
TypeSystemContext context,
ref FieldAccessMetadata fieldAccessMetadata)
{
Field field = metadataReader.GetField(fieldHandle);
string fieldName = metadataReader.GetString(field.Name);
TypeDesc declaringType = context.ResolveRuntimeTypeHandle(declaringTypeHandle);
#if SUPPORTS_NATIVE_METADATA_TYPE_LOADING
if (declaringType is MetadataType)
{
return(TryGetFieldAccessMetadataForNativeFormatType(declaringType, fieldName, ref fieldAccessMetadata));
}
#endif
return(false);
}
/// <summary>
/// This function is called from the lazy vtable resolver thunks via the UniversalTransitionThunk to compute
/// the correct resolution of a virtual dispatch.
/// </summary>
/// <param name="callerTransitionBlockParam">pointer to the arguments of the called function</param>
/// <param name="eeTypePointerOffsetAsIntPtr">eeTypePointerOffsetAsIntPtr is the offset from the start of the EEType to the vtable slot</param>
/// <returns>function pointer of correct override of virtual function</returns>
unsafe private static IntPtr VTableResolveThunk(IntPtr callerTransitionBlockParam, IntPtr eeTypePointerOffsetAsIntPtr)
{
int eeTypePointerOffset = (int)eeTypePointerOffsetAsIntPtr;
int vtableSlotIndex = EETypeVTableOffsetToSlotIndex(eeTypePointerOffset);
Debug.Assert(eeTypePointerOffset == SlotIndexToEETypeVTableOffset(vtableSlotIndex)); // Assert that the round trip through the slot calculations is good
EEType **thisPointer = *((EEType ***)(((byte *)callerTransitionBlockParam) + ArgIterator.GetThisOffset()));
EEType * eeType = *thisPointer;
RuntimeTypeHandle rth = eeType->ToRuntimeTypeHandle();
TypeSystemContext context = TypeSystemContextFactory.Create();
TypeDesc type = context.ResolveRuntimeTypeHandle(rth);
IntPtr functionPointer = ResolveVirtualVTableFunction(type, vtableSlotIndex);
eeType->GetVTableStartAddress()[vtableSlotIndex] = functionPointer;
TypeSystemContextFactory.Recycle(context);
return(functionPointer);
}
private bool ResolveGenericVirtualMethodTarget(RuntimeTypeHandle targetTypeHandle, RuntimeTypeHandle declaringTypeHandle, RuntimeTypeHandle[] genericArguments, MethodNameAndSignature callingMethodNameAndSignature, out IntPtr methodPointer, out IntPtr dictionaryPointer)
{
if (IsPregeneratedOrTemplateRuntimeTypeHandle(targetTypeHandle))
{
// If the target type isn't dynamic, or at least is template type generated, the static lookup logic is what we want.
return(ResolveGenericVirtualMethodTarget_Static(targetTypeHandle, declaringTypeHandle, genericArguments, callingMethodNameAndSignature, out methodPointer, out dictionaryPointer));
}
else
{
#if SUPPORTS_NATIVE_METADATA_TYPE_LOADING
methodPointer = IntPtr.Zero;
dictionaryPointer = IntPtr.Zero;
TypeSystemContext context = TypeSystemContextFactory.Create();
DefType targetType = (DefType)context.ResolveRuntimeTypeHandle(targetTypeHandle);
// Method being called...
MethodDesc targetVirtualMethod = ResolveTypeHandleAndMethodNameAndSigToVirtualMethodDesc(context, declaringTypeHandle, callingMethodNameAndSignature);
if (targetVirtualMethod == null)
{
// If we can't find the method in the type system, it must only be present in the static environment. Search there instead.
TypeSystemContextFactory.Recycle(context);
return(ResolveGenericVirtualMethodTarget_Static(targetTypeHandle, declaringTypeHandle, genericArguments, callingMethodNameAndSignature, out methodPointer, out dictionaryPointer));
}
MethodDesc dispatchMethod = targetType.FindVirtualFunctionTargetMethodOnObjectType(targetVirtualMethod);
if (dispatchMethod == null)
{
return(false);
}
Instantiation targetMethodInstantiation = context.ResolveRuntimeTypeHandles(genericArguments);
MethodDesc instantiatedDispatchMethod = dispatchMethod.Context.ResolveGenericMethodInstantiation(dispatchMethod.OwningType.IsValueType /* get the unboxing stub */,
dispatchMethod.OwningType.GetClosestDefType(),
dispatchMethod.NameAndSignature,
targetMethodInstantiation, IntPtr.Zero, false);
GenericDictionaryCell cell = GenericDictionaryCell.CreateMethodCell(instantiatedDispatchMethod, false);
using (LockHolder.Hold(_typeLoaderLock))
{
// Now that we hold the lock, we may find that existing types can now find
// their associated RuntimeTypeHandle. Flush the type builder states as a way
// to force the reresolution of RuntimeTypeHandles which couldn't be found before.
context.FlushTypeBuilderStates();
TypeBuilder.ResolveSingleCell(cell, out methodPointer);
}
TypeSystemContextFactory.Recycle(context);
return(true);
#else
methodPointer = IntPtr.Zero;
dictionaryPointer = IntPtr.Zero;
Environment.FailFast("GVM Resolution for non template or pregenerated type");
return(false);
#endif
}
}
// This method computes the method pointer and dictionary pointer for a GVM.
// Inputs:
// - targetTypeHanlde: target type on which the GVM is implemented
// - nameAndSignature: name and signature of the GVM method
// - genericMethodArgumentHandles: GVM instantiation arguments
// Outputs:
// - methodPointer: pointer to the GVM's implementation
// - dictionaryPointer: (if applicable) pointer to the dictionary to be used with the GVM call
public bool TryGetGenericVirtualMethodPointer(RuntimeTypeHandle targetTypeHandle, MethodNameAndSignature nameAndSignature, RuntimeTypeHandle[] genericMethodArgumentHandles, out IntPtr methodPointer, out IntPtr dictionaryPointer)
{
methodPointer = dictionaryPointer = IntPtr.Zero;
TypeSystemContext context = TypeSystemContextFactory.Create();
DefType targetType = (DefType)context.ResolveRuntimeTypeHandle(targetTypeHandle);
Instantiation methodInstantiation = context.ResolveRuntimeTypeHandles(genericMethodArgumentHandles);
InstantiatedMethod method = (InstantiatedMethod)context.ResolveGenericMethodInstantiation(false, targetType, nameAndSignature, methodInstantiation, IntPtr.Zero, false);
if (!method.CanShareNormalGenericCode())
{
// First see if we can find an exact method implementation for the GVM (avoid using USG implementations if we can,
// because USG code is much slower).
if (TryLookupExactMethodPointerForComponents(targetTypeHandle, nameAndSignature, genericMethodArgumentHandles, out methodPointer))
{
Debug.Assert(methodPointer != IntPtr.Zero);
TypeSystemContextFactory.Recycle(context);
return(true);
}
}
// If we cannot find an exact method entry point, look for an equivalent template and compute the generic dictinoary
TemplateLocator templateLocator = new TemplateLocator();
NativeLayoutInfo nativeLayoutInfo = new NativeLayoutInfo();
InstantiatedMethod templateMethod = templateLocator.TryGetGenericMethodTemplate(method, out nativeLayoutInfo.Module, out nativeLayoutInfo.Token);
if (templateMethod == null)
{
return(false);
}
methodPointer = templateMethod.IsCanonicalMethod(CanonicalFormKind.Universal) ?
templateMethod.UsgFunctionPointer :
templateMethod.FunctionPointer;
if (!TryLookupGenericMethodDictionaryForComponents(targetTypeHandle, nameAndSignature, genericMethodArgumentHandles, out dictionaryPointer))
{
using (LockHolder.Hold(_typeLoaderLock))
{
// Now that we hold the lock, we may find that existing types can now find
// their associated RuntimeTypeHandle. Flush the type builder states as a way
// to force the reresolution of RuntimeTypeHandles which couldn't be found before.
context.FlushTypeBuilderStates();
if (!TypeBuilder.TryBuildGenericMethod(method, out dictionaryPointer))
{
return(false);
}
}
}
Debug.Assert(methodPointer != IntPtr.Zero && dictionaryPointer != IntPtr.Zero);
if (templateMethod.IsCanonicalMethod(CanonicalFormKind.Universal))
{
// Check if we need to wrap the method pointer into a calling convention converter thunk
if (!TypeLoaderEnvironment.Instance.MethodSignatureHasVarsNeedingCallingConventionConverter(context, nameAndSignature.Signature))
{
TypeSystemContextFactory.Recycle(context);
return(true);
}
RuntimeTypeHandle[] typeArgs = Array.Empty <RuntimeTypeHandle>();
if (RuntimeAugments.IsGenericType(targetTypeHandle))
{
RuntimeAugments.GetGenericInstantiation(targetTypeHandle, out typeArgs);
}
// Create a CallingConventionConverter to call the method correctly
IntPtr thunkPtr = CallConverterThunk.MakeThunk(
CallConverterThunk.ThunkKind.StandardToGenericInstantiating,
methodPointer,
nameAndSignature.Signature,
dictionaryPointer,
typeArgs,
genericMethodArgumentHandles);
Debug.Assert(thunkPtr != IntPtr.Zero);
methodPointer = thunkPtr;
// Set dictionaryPointer to null so we don't make a fat function pointer around the whole thing.
dictionaryPointer = IntPtr.Zero;
// TODO! add a new call converter thunk that will pass the instantiating arg through and use a fat function pointer.
// should allow us to make fewer thunks.
}
TypeSystemContextFactory.Recycle(context);
return(true);
}