public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolNode[] { this }));
}
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
foreach (var delegateEntry in factory.MetadataManager.DelegateMarshalingThunks)
{
Internal.TypeSystem.TypeDesc delegateType = delegateEntry.Value.DelegateType;
Vertex vertex = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(factory.NecessaryTypeSymbol(delegateType))),
writer.GetUnsignedConstant(_externalReferences.GetIndex(factory.MethodEntrypoint(delegateEntry.Value)))
);
int hashCode = delegateType.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
byte[] hashTableBytes = writer.Save();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// Dependencies for this node are tracked by the method code nodes
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
// Ensure the native layout data has been saved, in order to get valid Vertex offsets for the signature Vertices
factory.MetadataManager.NativeLayoutInfo.SaveNativeLayoutInfoWriter(factory);
NativeWriter nativeWriter = new NativeWriter();
VertexHashtable hashtable = new VertexHashtable();
Section nativeSection = nativeWriter.NewSection();
nativeSection.Place(hashtable);
foreach (TypeDesc type in factory.MetadataManager.GetTypesWithConstructedEETypes())
{
if (!IsEligibleToHaveATemplate(type))
{
continue;
}
if (factory.Target.Abi == TargetAbi.ProjectN)
{
// If the type does not have fully constructed type, don't emit it.
// TODO: Remove the workaround once we stop using the STS dependency analysis.
if (!factory.ConstructedTypeSymbol(type).Marked)
{
continue;
}
}
// Type's native layout info
NativeLayoutTemplateTypeLayoutVertexNode templateNode = factory.NativeLayout.TemplateTypeLayout(type);
// If this template isn't considered necessary, don't emit it.
if (!templateNode.Marked)
{
continue;
}
Vertex nativeLayout = templateNode.SavedVertex;
// Hashtable Entry
Vertex entry = nativeWriter.GetTuple(
nativeWriter.GetUnsignedConstant(_externalReferences.GetIndex(factory.NecessaryTypeSymbol(type))),
nativeWriter.GetUnsignedConstant((uint)nativeLayout.VertexOffset));
// Add to the hash table, hashed by the containing type's hashcode
uint hashCode = (uint)type.GetHashCode();
hashtable.Append(hashCode, nativeSection.Place(entry));
}
byte[] streamBytes = nativeWriter.Save();
_endSymbol.SetSymbolOffset(streamBytes.Length);
return(new ObjectData(streamBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
NativeWriter writer = new NativeWriter();
VertexHashtable hashtable = new VertexHashtable();
Section section = writer.NewSection();
section.Place(hashtable);
foreach (var type in factory.MetadataManager.GetTypesWithConstructedEETypes())
{
if (!type.HasInstantiation || type.IsCanonicalSubtype(CanonicalFormKind.Any) || type.IsGenericDefinition)
{
continue;
}
MetadataType metadataType = type as MetadataType;
if (metadataType == null)
{
continue;
}
VertexBag bag = new VertexBag();
if (metadataType.GCStaticFieldSize.AsInt > 0)
{
ISymbolNode gcStaticIndirection = factory.Indirection(factory.TypeGCStaticsSymbol(metadataType));
bag.AppendUnsigned(BagElementKind.GcStaticData, _nativeStaticsReferences.GetIndex(gcStaticIndirection));
}
if (metadataType.NonGCStaticFieldSize.AsInt > 0 || factory.PreinitializationManager.HasLazyStaticConstructor(type))
{
ISymbolNode nonGCStaticIndirection = factory.Indirection(factory.TypeNonGCStaticsSymbol(metadataType));
bag.AppendUnsigned(BagElementKind.NonGcStaticData, _nativeStaticsReferences.GetIndex(nonGCStaticIndirection));
}
if (metadataType.ThreadGcStaticFieldSize.AsInt > 0)
{
ISymbolNode threadStaticsIndirection = factory.Indirection(factory.TypeThreadStaticIndex(metadataType));
bag.AppendUnsigned(BagElementKind.ThreadStaticIndex, _nativeStaticsReferences.GetIndex(threadStaticsIndirection));
}
if (bag.ElementsCount > 0)
{
uint typeId = _externalReferences.GetIndex(factory.NecessaryTypeSymbol(type));
Vertex staticsInfo = writer.GetTuple(writer.GetUnsignedConstant(typeId), bag);
hashtable.Append((uint)type.GetHashCode(), section.Place(staticsInfo));
}
}
byte[] hashTableBytes = writer.Save();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolNode[] { this }));
}
NativeWriter nativeWriter = new NativeWriter();
VertexHashtable hashtable = new VertexHashtable();
Section nativeSection = nativeWriter.NewSection();
nativeSection.Place(hashtable);
foreach (var type in factory.MetadataManager.GetTypesWithEETypes())
{
// If this is an instantiated non-canonical generic type, add it to the generic instantiations hashtable
if (!type.HasInstantiation || type.IsGenericDefinition || type.IsCanonicalSubtype(CanonicalFormKind.Any))
{
continue;
}
var typeSymbol = factory.NecessaryTypeSymbol(type);
uint instantiationId = _externalReferences.GetIndex(typeSymbol);
Vertex hashtableEntry = nativeWriter.GetUnsignedConstant(instantiationId);
hashtable.Append((uint)type.GetHashCode(), nativeSection.Place(hashtableEntry));
}
byte[] streamBytes = nativeWriter.Save();
_endSymbol.SetSymbolOffset(streamBytes.Length);
return(new ObjectData(streamBytes, Array.Empty <Relocation>(), 1, new ISymbolNode[] { this, _endSymbol }));
}
/// <summary>
/// Builds a native hashtable containing data about each manifest resource
/// </summary>
/// <returns></returns>
private byte[] GenerateIndexBlob(NodeFactory factory)
{
NativeWriter nativeWriter = new NativeWriter();
Section indexHashtableSection = nativeWriter.NewSection();
VertexHashtable indexHashtable = new VertexHashtable();
indexHashtableSection.Place(indexHashtable);
// Build a table with a tuple of Assembly Full Name, Resource Name, Offset within the resource data blob, Length
// for each resource.
// This generates a hashtable for the convenience of managed code since there's
// a reader for VertexHashtable, but not for VertexSequence.
foreach (ResourceIndexData indexData in _resourceDataNode.GetOrCreateIndexData(factory))
{
Vertex asmName = nativeWriter.GetStringConstant(indexData.AssemblyName);
Vertex resourceName = nativeWriter.GetStringConstant(indexData.ResourceName);
Vertex offsetVertex = nativeWriter.GetUnsignedConstant((uint)indexData.NativeOffset);
Vertex lengthVertex = nativeWriter.GetUnsignedConstant((uint)indexData.Length);
Vertex indexVertex = nativeWriter.GetTuple(asmName, resourceName);
indexVertex = nativeWriter.GetTuple(indexVertex, offsetVertex);
indexVertex = nativeWriter.GetTuple(indexVertex, lengthVertex);
int hashCode = TypeHashingAlgorithms.ComputeNameHashCode(indexData.AssemblyName);
indexHashtable.Append((uint)hashCode, indexHashtableSection.Place(indexVertex));
}
byte[] blob = nativeWriter.Save();
_endSymbol.SetSymbolOffset(blob.Length);
return(blob);
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, Array.Empty <ISymbolDefinitionNode>()));
}
PgoValueEmitter pgoEmitter = new PgoValueEmitter(_factory.CompilationModuleGroup, _symbolNodeFactory, true);
NativeWriter hashtableWriter = new NativeWriter();
Section hashtableSection = hashtableWriter.NewSection();
VertexHashtable vertexHashtable = new VertexHashtable();
hashtableSection.Place(vertexHashtable);
Dictionary <byte[], BlobVertex> uniqueInstrumentationData = new Dictionary <byte[], BlobVertex>(ByteArrayComparer.Instance);
foreach (MethodDesc method in _instrumentationDataMethods)
{
pgoEmitter.Clear();
PgoProcessor.EncodePgoData(_profileDataManager[method].SchemaData, pgoEmitter, false);
// In composite R2R format, always enforce owning type to let us share generic instantiations among modules
EcmaMethod typicalMethod = (EcmaMethod)method.GetTypicalMethodDefinition();
ModuleToken moduleToken = new ModuleToken(typicalMethod.Module, typicalMethod.Handle);
ArraySignatureBuilder signatureBuilder = new ArraySignatureBuilder();
signatureBuilder.EmitMethodSignature(
new MethodWithToken(method, moduleToken, constrainedType: null, unboxing: false, context: null),
enforceDefEncoding: true,
enforceOwningType: _factory.CompilationModuleGroup.EnforceOwningType(moduleToken.Module),
factory.SignatureContext,
isInstantiatingStub: false);
byte[] signature = signatureBuilder.ToArray();
BlobVertex signatureBlob = new BlobVertex(signature);
byte[] encodedInstrumentationData = pgoEmitter.ToByteArray();
BlobVertex instrumentationDataBlob = null;
if (!uniqueInstrumentationData.TryGetValue(encodedInstrumentationData, out instrumentationDataBlob))
{
instrumentationDataBlob = new BlobVertex(encodedInstrumentationData);
hashtableSection.Place(instrumentationDataBlob);
uniqueInstrumentationData.Add(encodedInstrumentationData, instrumentationDataBlob);
}
PgoInstrumentedDataWithSignatureBlobVertex pgoDataVertex = new PgoInstrumentedDataWithSignatureBlobVertex(signatureBlob, 0, instrumentationDataBlob);
hashtableSection.Place(pgoDataVertex);
vertexHashtable.Append(unchecked ((uint)ReadyToRunHashCode.MethodHashCode(method)), pgoDataVertex);
}
MemoryStream hashtableContent = new MemoryStream();
hashtableWriter.Save(hashtableContent);
return(new ObjectData(
data: hashtableContent.ToArray(),
relocs: null,
alignment: 8,
definedSymbols: new ISymbolDefinitionNode[] { this }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolNode[] { this }));
}
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
foreach (var mappingEntry in factory.MetadataManager.GetTypeDefinitionMapping())
{
if (!factory.CompilationModuleGroup.ContainsType(mappingEntry.Entity))
{
continue;
}
// We are looking for any EEType - constructed or not, it has to be in the mapping
// table so that we can map it to metadata.
EETypeNode node = null;
if (!mappingEntry.Entity.IsGenericDefinition)
{
node = factory.ConstructedTypeSymbol(mappingEntry.Entity) as EETypeNode;
}
if (node == null || !node.Marked)
{
// This might have been a typeof() expression.
node = factory.NecessaryTypeSymbol(mappingEntry.Entity) as EETypeNode;
}
if (node.Marked)
{
Vertex vertex = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(node)),
writer.GetUnsignedConstant((uint)mappingEntry.MetadataHandle)
);
int hashCode = node.Type.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
}
MemoryStream ms = new MemoryStream();
writer.Save(ms);
byte[] hashTableBytes = ms.ToArray();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolNode[] { this }));
}
var writer = new NativeWriter();
var reflectionBlockTypeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(reflectionBlockTypeMapHashTable);
foreach (var type in factory.MetadataManager.GetTypesWithEETypes())
{
if (!type.IsTypeDefinition)
{
continue;
}
var mdType = type as MetadataType;
if (mdType == null)
{
continue;
}
if (!factory.MetadataManager.IsReflectionBlocked(mdType))
{
continue;
}
if (!factory.CompilationModuleGroup.ContainsType(mdType))
{
continue;
}
// Go with a necessary type symbol. It will be upgraded to a constructed one if a constructed was emitted.
IEETypeNode typeSymbol = factory.NecessaryTypeSymbol(type);
Vertex vertex = writer.GetUnsignedConstant(_externalReferences.GetIndex(typeSymbol));
int hashCode = typeSymbol.Type.GetHashCode();
reflectionBlockTypeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
MemoryStream ms = new MemoryStream();
writer.Save(ms);
byte[] hashTableBytes = ms.ToArray();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// Dependencies for this node are tracked by the method code nodes
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
// Ensure the native layout data has been saved, in order to get valid Vertex offsets for the signature Vertices
factory.MetadataManager.NativeLayoutInfo.SaveNativeLayoutInfoWriter(factory);
NativeWriter nativeWriter = new NativeWriter();
VertexHashtable hashtable = new VertexHashtable();
Section nativeSection = nativeWriter.NewSection();
nativeSection.Place(hashtable);
foreach (MethodDesc method in factory.MetadataManager.GetCompiledMethods())
{
if (!IsEligibleToBeATemplate(method))
{
continue;
}
var methodEntryNode = factory.NativeLayout.TemplateMethodEntry(method);
if (!methodEntryNode.Marked)
{
continue;
}
// Method entry
Vertex methodEntry = methodEntryNode.SavedVertex;
// Method's native layout info
Vertex nativeLayout = factory.NativeLayout.TemplateMethodLayout(method).SavedVertex;
// Hashtable Entry
Vertex entry = nativeWriter.GetTuple(
nativeWriter.GetUnsignedConstant((uint)methodEntry.VertexOffset),
nativeWriter.GetUnsignedConstant((uint)nativeLayout.VertexOffset));
// Add to the hash table, hashed by the containing type's hashcode
uint hashCode = (uint)method.GetHashCode();
hashtable.Append(hashCode, nativeSection.Place(entry));
}
byte[] streamBytes = nativeWriter.Save();
_endSymbol.SetSymbolOffset(streamBytes.Length);
return(new ObjectData(streamBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, Array.Empty <ISymbolDefinitionNode>()));
}
NativeWriter hashtableWriter = new NativeWriter();
Section hashtableSection = hashtableWriter.NewSection();
VertexHashtable vertexHashtable = new VertexHashtable();
hashtableSection.Place(vertexHashtable);
Dictionary <byte[], BlobVertex> uniqueFixups = new Dictionary <byte[], BlobVertex>(ByteArrayComparer.Instance);
Dictionary <byte[], BlobVertex> uniqueSignatures = new Dictionary <byte[], BlobVertex>(ByteArrayComparer.Instance);
foreach (MethodWithGCInfo method in factory.EnumerateCompiledMethods(null, CompiledMethodCategory.Instantiated))
{
Debug.Assert(method.Method.HasInstantiation || method.Method.OwningType.HasInstantiation);
int methodIndex = factory.RuntimeFunctionsTable.GetIndex(method);
ArraySignatureBuilder signatureBuilder = BuildSignatureForMethod(method, factory);
byte[] signature = signatureBuilder.ToArray();
BlobVertex signatureBlob;
if (!uniqueSignatures.TryGetValue(signature, out signatureBlob))
{
signatureBlob = new BlobVertex(signature);
uniqueSignatures.Add(signature, signatureBlob);
}
byte[] fixup = method.GetFixupBlob(factory);
BlobVertex fixupBlob = null;
if (fixup != null && !uniqueFixups.TryGetValue(fixup, out fixupBlob))
{
fixupBlob = new BlobVertex(fixup);
uniqueFixups.Add(fixup, fixupBlob);
}
EntryPointVertex entryPointVertex = new EntryPointWithBlobVertex((uint)methodIndex, fixupBlob, signatureBlob);
hashtableSection.Place(entryPointVertex);
vertexHashtable.Append(unchecked ((uint)ReadyToRunHashCode.MethodHashCode(method.Method)), entryPointVertex);
}
MemoryStream hashtableContent = new MemoryStream();
hashtableWriter.Save(hashtableContent);
return(new ObjectData(
data: hashtableContent.ToArray(),
relocs: null,
alignment: 8,
definedSymbols: new ISymbolDefinitionNode[] { this }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolNode[] { this }));
}
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
foreach (var node in factory.MetadataManager.GetCctorContextMapping())
{
MetadataType type = node.Type;
Debug.Assert(factory.TypeSystemContext.HasLazyStaticConstructor(type));
// If this type doesn't generate an EEType in the current compilation, don't report it in the table.
// If nobody can get to the EEType, they can't ask to run the cctor. We don't need to force generate it.
if (!factory.MetadataManager.TypeGeneratesEEType(type))
{
continue;
}
// Hash table is hashed by the hashcode of the owning type.
// Each entry has: the EEType of the type, followed by the non-GC static base.
// The non-GC static base is prefixed by the class constructor context.
// Unfortunately we need to adjust for the cctor context just so that we can subtract it again at runtime...
int delta = NonGCStaticsNode.GetClassConstructorContextStorageSize(factory.TypeSystemContext.Target, type);
Vertex vertex = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(factory.NecessaryTypeSymbol(type))),
writer.GetUnsignedConstant(_externalReferences.GetIndex(node, delta))
);
int hashCode = type.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
MemoryStream ms = new MemoryStream();
writer.Save(ms);
byte[] hashTableBytes = ms.ToArray();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
var writer = new NativeWriter();
var defaultConstructorHashtable = new VertexHashtable();
Section defaultConstructorHashtableSection = writer.NewSection();
defaultConstructorHashtableSection.Place(defaultConstructorHashtable);
foreach (var type in factory.MetadataManager.GetTypesWithConstructedEETypes())
{
MethodDesc defaultCtor = type.GetDefaultConstructor();
if (defaultCtor == null)
{
continue;
}
// We only place default constructors of reflection-blocked types in this table.
// At runtime, the type loader will search both this table and the invoke map
// for default constructor info. If the ctor is reflectable, we would have
// expected dataflow analysis to ensure there's a reflectable method for it.
// If we don't find a reflectable method for the ctor of a non-blocked type
// there would have to be a dataflow analysis warning.
if (!factory.MetadataManager.IsReflectionBlocked(defaultCtor))
{
continue;
}
defaultCtor = defaultCtor.GetCanonMethodTarget(CanonicalFormKind.Specific);
ISymbolNode typeNode = factory.NecessaryTypeSymbol(type);
ISymbolNode defaultCtorNode = factory.MethodEntrypoint(defaultCtor, false);
Vertex vertex = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(typeNode)),
writer.GetUnsignedConstant(_externalReferences.GetIndex(defaultCtorNode)));
int hashCode = type.GetHashCode();
defaultConstructorHashtable.Append((uint)hashCode, defaultConstructorHashtableSection.Place(vertex));
}
byte[] hashTableBytes = writer.Save();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolNode[] { this }));
}
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
foreach (var mappingEntry in factory.MetadataManager.GetTypeDefinitionMapping())
{
if (!factory.CompilationModuleGroup.ContainsType(mappingEntry.Entity))
{
continue;
}
// Types that don't have EETypes don't need mapping table entries because there's no risk of them
// not unifying to the same System.Type at runtime.
if (!factory.MetadataManager.TypeGeneratesEEType(mappingEntry.Entity))
{
continue;
}
// Go with a necessary type symbol. It will be upgraded to a constructed one if a constructed was emitted.
IEETypeNode typeSymbol = factory.NecessaryTypeSymbol(mappingEntry.Entity);
Vertex vertex = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(typeSymbol)),
writer.GetUnsignedConstant((uint)mappingEntry.MetadataHandle)
);
int hashCode = typeSymbol.Type.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
MemoryStream ms = new MemoryStream();
writer.Save(ms);
byte[] hashTableBytes = ms.ToArray();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
foreach (var type in factory.MetadataManager.GetTypesWithConstructedEETypes())
{
if (!type.IsSzArray)
{
continue;
}
var arrayType = (ArrayType)type;
// This optimization is not compatible with canInlineTypeCheck on JIT/EE interface returning
// CORINFO_INLINE_TYPECHECK_PASS unconditionally.
//
// If we're generating a template for this type, we can skip generating the hashtable entry
// since the type loader can just create this type at runtime if something needs it. It's
// okay to have multiple EETypes for the same array type.
// var canonArrayType = arrayType.ConvertToCanonForm(CanonicalFormKind.Specific);
// if (arrayType != canonArrayType && factory.NativeLayout.TemplateTypeLayout(canonArrayType).Marked)
// continue;
// Look at the constructed type symbol. If a constructed type wasn't emitted, then the array map entry isn't valid for use
IEETypeNode arrayTypeSymbol = factory.ConstructedTypeSymbol(arrayType);
Vertex vertex = writer.GetUnsignedConstant(_externalReferences.GetIndex(arrayTypeSymbol));
int hashCode = arrayType.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
byte[] hashTableBytes = writer.Save();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, Array.Empty <ISymbolDefinitionNode>()));
}
PgoValueEmitter pgoEmitter = new PgoValueEmitter(_factory.CompilationModuleGroup, _symbolNodeFactory, true);
NativeWriter hashtableWriter = new NativeWriter();
Section hashtableSection = hashtableWriter.NewSection();
VertexHashtable vertexHashtable = new VertexHashtable();
hashtableSection.Place(vertexHashtable);
Dictionary <byte[], BlobVertex> uniqueInstrumentationData = new Dictionary <byte[], BlobVertex>(ByteArrayComparer.Instance);
foreach (MethodDesc method in _instrumentationDataMethods)
{
pgoEmitter.Clear();
PgoProcessor.EncodePgoData(CorInfoImpl.ConvertTypeHandleHistogramsToCompactTypeHistogramFormat(_profileDataManager[method].SchemaData, factory.CompilationModuleGroup), pgoEmitter, false);
byte[] signature = InstanceEntryPointTableNode.BuildSignatureForMethodDefinedInModule(method, factory);
BlobVertex signatureBlob = new BlobVertex(signature);
byte[] encodedInstrumentationData = pgoEmitter.ToByteArray();
BlobVertex instrumentationDataBlob = null;
if (!uniqueInstrumentationData.TryGetValue(encodedInstrumentationData, out instrumentationDataBlob))
{
instrumentationDataBlob = new BlobVertex(encodedInstrumentationData);
hashtableSection.Place(instrumentationDataBlob);
uniqueInstrumentationData.Add(encodedInstrumentationData, instrumentationDataBlob);
}
PgoInstrumentedDataWithSignatureBlobVertex pgoDataVertex = new PgoInstrumentedDataWithSignatureBlobVertex(signatureBlob, 0, instrumentationDataBlob);
hashtableSection.Place(pgoDataVertex);
vertexHashtable.Append(unchecked ((uint)ReadyToRunHashCode.MethodHashCode(method)), pgoDataVertex);
}
MemoryStream hashtableContent = new MemoryStream();
hashtableWriter.Save(hashtableContent);
return(new ObjectData(
data: hashtableContent.ToArray(),
relocs: null,
alignment: 8,
definedSymbols: new ISymbolDefinitionNode[] { this }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
return new ObjectData(Array.Empty<byte>(), Array.Empty<Relocation>(), 1, new ISymbolNode[] { this });
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
foreach (var node in factory.MetadataManager.GetCctorContextMapping())
{
MetadataType type = node.Type;
Debug.Assert(factory.TypeSystemContext.HasLazyStaticConstructor(type));
// If this type doesn't generate an EEType in the current compilation, don't report it in the table.
// If nobody can get to the EEType, they can't ask to run the cctor. We don't need to force generate it.
if (!factory.MetadataManager.TypeGeneratesEEType(type))
continue;
// Hash table is hashed by the hashcode of the owning type.
// Each entry has: the EEType of the type, followed by the non-GC static base.
// The non-GC static base is prefixed by the class constructor context.
// Unfortunately we need to adjust for the cctor context just so that we can subtract it again at runtime...
int delta = NonGCStaticsNode.GetClassConstructorContextStorageSize(factory.TypeSystemContext.Target, type);
Vertex vertex = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(factory.NecessaryTypeSymbol(type))),
writer.GetUnsignedConstant(_externalReferences.GetIndex(node, delta))
);
int hashCode = type.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
MemoryStream ms = new MemoryStream();
writer.Save(ms);
byte[] hashTableBytes = ms.ToArray();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return new ObjectData(hashTableBytes, Array.Empty<Relocation>(), 1, new ISymbolNode[] { this, _endSymbol });
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
foreach (var arrayType in factory.MetadataManager.GetArrayTypeMapping())
{
if (!arrayType.IsSzArray)
{
continue;
}
if (!factory.MetadataManager.TypeGeneratesEEType(arrayType))
{
continue;
}
if (!arrayType.ElementType.IsValueType)
{
continue;
}
// Go with a necessary type symbol. It will be upgraded to a constructed one if a constructed was emitted.
IEETypeNode arrayTypeSymbol = factory.NecessaryTypeSymbol(arrayType);
Vertex vertex = writer.GetUnsignedConstant(_externalReferences.GetIndex(arrayTypeSymbol));
int hashCode = arrayType.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
byte[] hashTableBytes = writer.Save();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
foreach (var node in factory.MetadataManager.GetCctorContextMapping())
{
MetadataType type = node.Type;
Debug.Assert(factory.PreinitializationManager.HasLazyStaticConstructor(type));
// If this type doesn't generate an MethodTable in the current compilation, don't report it in the table.
// If nobody can get to the MethodTable, they can't ask to run the cctor. We don't need to force generate it.
if (!factory.MetadataManager.TypeGeneratesEEType(type))
{
continue;
}
// Hash table is hashed by the hashcode of the owning type.
// Each entry has: the MethodTable of the type, followed by the non-GC static base.
// The non-GC static base is prefixed by the class constructor context.
Vertex vertex = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(factory.NecessaryTypeSymbol(type))),
writer.GetUnsignedConstant(_externalReferences.GetIndex(node))
);
int hashCode = type.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
byte[] hashTableBytes = writer.Save();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
foreach (var type in factory.MetadataManager.GetTypesWithConstructedEETypes())
{
if (!type.IsSzArray)
{
continue;
}
var arrayType = (ArrayType)type;
if (!arrayType.ElementType.IsValueType)
{
continue;
}
// Look at the constructed type symbol. If a constructed type wasn't emitted, then the array map entry isn't valid for use
IEETypeNode arrayTypeSymbol = factory.ConstructedTypeSymbol(arrayType);
Vertex vertex = writer.GetUnsignedConstant(_externalReferences.GetIndex(arrayTypeSymbol));
int hashCode = arrayType.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
byte[] hashTableBytes = writer.Save();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
return new ObjectData(Array.Empty<byte>(), Array.Empty<Relocation>(), 1, new ISymbolNode[] { this });
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
foreach (var mappingEntry in factory.MetadataManager.GetTypeDefinitionMapping())
{
if (!factory.CompilationModuleGroup.ContainsType(mappingEntry.Entity))
continue;
// Types that don't have EETypes don't need mapping table entries because there's no risk of them
// not unifying to the same System.Type at runtime.
if (!factory.MetadataManager.TypeGeneratesEEType(mappingEntry.Entity))
continue;
// Go with a necessary type symbol. It will be upgraded to a constructed one if a constructed was emitted.
IEETypeNode typeSymbol = factory.NecessaryTypeSymbol(mappingEntry.Entity);
Vertex vertex = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(typeSymbol)),
writer.GetUnsignedConstant((uint)mappingEntry.MetadataHandle)
);
int hashCode = typeSymbol.Type.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
MemoryStream ms = new MemoryStream();
writer.Save(ms);
byte[] hashTableBytes = ms.ToArray();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return new ObjectData(hashTableBytes, Array.Empty<Relocation>(), 1, new ISymbolNode[] { this, _endSymbol });
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
var writer = new NativeWriter();
var defaultConstructorHashtable = new VertexHashtable();
Section defaultConstructorHashtableSection = writer.NewSection();
defaultConstructorHashtableSection.Place(defaultConstructorHashtable);
foreach (var type in factory.MetadataManager.GetTypesWithConstructedEETypes())
{
MethodDesc defaultCtor = type.GetDefaultConstructor();
if (defaultCtor == null)
{
continue;
}
defaultCtor = defaultCtor.GetCanonMethodTarget(CanonicalFormKind.Specific);
ISymbolNode typeNode = factory.NecessaryTypeSymbol(type);
ISymbolNode defaultCtorNode = factory.MethodEntrypoint(defaultCtor, false);
Vertex vertex = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(typeNode)),
writer.GetUnsignedConstant(_externalReferences.GetIndex(defaultCtorNode)));
int hashCode = type.GetHashCode();
defaultConstructorHashtable.Append((uint)hashCode, defaultConstructorHashtableSection.Place(vertex));
}
byte[] hashTableBytes = writer.Save();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
NativeWriter nativeWriter = new NativeWriter();
VertexHashtable hashtable = new VertexHashtable();
Section nativeSection = nativeWriter.NewSection();
nativeSection.Place(hashtable);
// We go over constructed EETypes only. The places that need to consult this hashtable at runtime
// all need constructed EETypes. Placing unconstructed EETypes into this hashtable could make us
// accidentally satisfy e.g. MakeGenericType for something that was only used in a cast. Those
// should throw MissingRuntimeArtifact instead.
//
// We already make sure "necessary" EETypes that could potentially be loaded at runtime through
// the dynamic type loader get upgraded to constructed EETypes at AOT compile time.
foreach (var type in factory.MetadataManager.GetTypesWithConstructedEETypes())
{
// If this is an instantiated non-canonical generic type, add it to the generic instantiations hashtable
if (!type.HasInstantiation || type.IsGenericDefinition || type.IsCanonicalSubtype(CanonicalFormKind.Any))
{
continue;
}
var typeSymbol = factory.NecessaryTypeSymbol(type);
uint instantiationId = _externalReferences.GetIndex(typeSymbol);
Vertex hashtableEntry = nativeWriter.GetUnsignedConstant(instantiationId);
hashtable.Append((uint)type.GetHashCode(), nativeSection.Place(hashtableEntry));
}
byte[] streamBytes = nativeWriter.Save();
_endSymbol.SetSymbolOffset(streamBytes.Length);
return(new ObjectData(streamBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
return new ObjectData(Array.Empty<byte>(), Array.Empty<Relocation>(), 1, new ISymbolNode[] { this });
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
foreach (var arrayType in factory.MetadataManager.GetArrayTypeMapping())
{
if (!arrayType.IsSzArray)
continue;
if (!factory.MetadataManager.TypeGeneratesEEType(arrayType))
continue;
// TODO: This should only be emitted for arrays of value types. The type loader builds everything else.
// Go with a necessary type symbol. It will be upgraded to a constructed one if a constructed was emitted.
IEETypeNode arrayTypeSymbol = factory.NecessaryTypeSymbol(arrayType);
Vertex vertex = writer.GetUnsignedConstant(_externalReferences.GetIndex(arrayTypeSymbol));
int hashCode = arrayType.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
MemoryStream ms = new MemoryStream();
writer.Save(ms);
byte[] hashTableBytes = ms.ToArray();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return new ObjectData(hashTableBytes, Array.Empty<Relocation>(), 1, new ISymbolNode[] { this, _endSymbol });
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
foreach (var structEntry in ((CompilerGeneratedInteropStubManager)factory.InteropStubManager).GetStructMarshallingTypes())
{
// the order of data written is as follows:
// 0. managed struct type
// 1. struct marshalling thunk
// 2. struct unmarshalling thunk
// 3. struct cleanup thunk
// 4. size
// 5. NumFields<< 1 | HasInvalidLayout
// 6 for each field
// a. name
// b. offset
var structType = structEntry.StructType;
var nativeType = structEntry.NativeStructType;
Vertex thunks = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(factory.MethodEntrypoint(structEntry.MarshallingThunk))),
writer.GetUnsignedConstant(_externalReferences.GetIndex(factory.MethodEntrypoint(structEntry.UnmarshallingThunk))),
writer.GetUnsignedConstant(_externalReferences.GetIndex(factory.MethodEntrypoint(structEntry.CleanupThunk))));
uint size = (uint)nativeType.InstanceByteCount.AsInt;
uint mask = (uint)(nativeType.Fields.Length << 1) | (uint)(nativeType.HasInvalidLayout ? 1 : 0);
Vertex data = writer.GetTuple(
thunks,
writer.GetUnsignedConstant(size),
writer.GetUnsignedConstant(mask)
);
for (int i = 0; i < nativeType.Fields.Length; i++)
{
data = writer.GetTuple(
data,
writer.GetStringConstant(nativeType.Fields[i].Name),
writer.GetUnsignedConstant((uint)nativeType.Fields[i].Offset.AsInt)
);
}
Vertex vertex = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(factory.NecessaryTypeSymbol(structType))),
data
);
int hashCode = structType.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
byte[] hashTableBytes = writer.Save();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, Array.Empty <ISymbolDefinitionNode>()));
}
ReadyToRunCodegenNodeFactory r2rFactory = (ReadyToRunCodegenNodeFactory)factory;
NativeWriter hashtableWriter = new NativeWriter();
Section hashtableSection = hashtableWriter.NewSection();
VertexHashtable vertexHashtable = new VertexHashtable();
hashtableSection.Place(vertexHashtable);
Dictionary <byte[], BlobVertex> uniqueFixups = new Dictionary <byte[], BlobVertex>(ByteArrayComparer.Instance);
Dictionary <byte[], BlobVertex> uniqueSignatures = new Dictionary <byte[], BlobVertex>(ByteArrayComparer.Instance);
foreach (MethodWithGCInfo method in r2rFactory.EnumerateCompiledMethods())
{
if (method.Method.HasInstantiation || method.Method.OwningType.HasInstantiation)
{
int methodIndex = r2rFactory.RuntimeFunctionsTable.GetIndex(method);
bool enforceOwningType = false;
ModuleToken moduleToken = method.SignatureContext.GetModuleTokenForMethod(method.Method.GetTypicalMethodDefinition());
if (moduleToken.Module != r2rFactory.InputModuleContext.GlobalContext)
{
enforceOwningType = true;
}
ArraySignatureBuilder signatureBuilder = new ArraySignatureBuilder();
signatureBuilder.EmitMethodSignature(
new MethodWithToken(method.Method, moduleToken, constrainedType: null),
enforceDefEncoding: true,
enforceOwningType,
method.SignatureContext,
isUnboxingStub: false,
isInstantiatingStub: false);
byte[] signature = signatureBuilder.ToArray();
BlobVertex signatureBlob;
if (!uniqueSignatures.TryGetValue(signature, out signatureBlob))
{
signatureBlob = new BlobVertex(signature);
hashtableSection.Place(signatureBlob);
uniqueSignatures.Add(signature, signatureBlob);
}
byte[] fixup = method.GetFixupBlob(factory);
BlobVertex fixupBlob = null;
if (fixup != null && !uniqueFixups.TryGetValue(fixup, out fixupBlob))
{
fixupBlob = new BlobVertex(fixup);
hashtableSection.Place(fixupBlob);
uniqueFixups.Add(fixup, fixupBlob);
}
EntryPointVertex entryPointVertex = new EntryPointWithBlobVertex((uint)methodIndex, fixupBlob, signatureBlob);
hashtableSection.Place(entryPointVertex);
vertexHashtable.Append(unchecked ((uint)ReadyToRunHashCode.MethodHashCode(method.Method)), entryPointVertex);
}
}
MemoryStream hashtableContent = new MemoryStream();
hashtableWriter.Save(hashtableContent);
return(new ObjectData(
data: hashtableContent.ToArray(),
relocs: null,
alignment: 8,
definedSymbols: new ISymbolDefinitionNode[] { this }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
Dictionary <EcmaMethod, HashSet <EcmaMethod> > inlineeToInliners = new Dictionary <EcmaMethod, HashSet <EcmaMethod> >();
// Build a map from inlinee to the list of inliners
// We are only interested in the generic definitions of these.
foreach (MethodWithGCInfo methodNode in factory.EnumerateCompiledMethods())
{
MethodDesc[] inlinees = methodNode.InlinedMethods;
MethodDesc inliner = methodNode.Method;
MethodDesc inlinerDefinition = inliner.GetTypicalMethodDefinition();
foreach (MethodDesc inlinee in inlinees)
{
MethodDesc inlineeDefinition = inlinee.GetTypicalMethodDefinition();
if (!(inlineeDefinition is EcmaMethod ecmaInlineeDefinition))
{
// We don't record non-ECMA methods because they don't have tokens that
// diagnostic tools could reason about anyway.
continue;
}
if (!inlineeToInliners.TryGetValue(ecmaInlineeDefinition, out HashSet <EcmaMethod> inliners))
{
inliners = new HashSet <EcmaMethod>();
inlineeToInliners.Add(ecmaInlineeDefinition, inliners);
}
inliners.Add((EcmaMethod)inlinerDefinition);
}
}
// Serialize the map as a hash table
NativeWriter writer = new NativeWriter();
Section section = writer.NewSection();
VertexHashtable hashtable = new VertexHashtable();
section.Place(hashtable);
foreach (var inlineeWithInliners in inlineeToInliners)
{
EcmaMethod inlinee = inlineeWithInliners.Key;
int inlineeRid = MetadataTokens.GetRowNumber(inlinee.Handle);
int hashCode = ReadyToRunHashCode.ModuleNameHashCode(inlinee.Module);
hashCode ^= inlineeRid;
// Format of the sequence:
// Inlinee RID with flag in the lowest bit
// - if flag is set, followed by module ID
// Followed by inliner RIDs deltas with flag in the lowest bit
// - if flag is set, followed by module ID
var sig = new VertexSequence();
bool isForeignInlinee = inlinee.Module != _globalContext;
sig.Append(new UnsignedConstant((uint)(inlineeRid << 1 | (isForeignInlinee ? 1 : 0))));
if (isForeignInlinee)
{
sig.Append(new UnsignedConstant((uint)factory.ManifestMetadataTable.ModuleToIndex(inlinee.Module)));
}
List <EcmaMethod> sortedInliners = new List <EcmaMethod>(inlineeWithInliners.Value);
sortedInliners.Sort((a, b) =>
{
if (a == b)
{
return(0);
}
int aRid = MetadataTokens.GetRowNumber(a.Handle);
int bRid = MetadataTokens.GetRowNumber(b.Handle);
if (aRid < bRid)
{
return(-1);
}
else if (aRid > bRid)
{
return(1);
}
int result = a.Module.CompareTo(b.Module);
Debug.Assert(result != 0);
return(result);
});
int baseRid = 0;
foreach (EcmaMethod inliner in sortedInliners)
{
int inlinerRid = MetadataTokens.GetRowNumber(inliner.Handle);
int ridDelta = inlinerRid - baseRid;
baseRid = inlinerRid;
Debug.Assert(ridDelta >= 0);
bool isForeignInliner = inliner.Module != _globalContext;
sig.Append(new UnsignedConstant((uint)(ridDelta << 1 | (isForeignInliner ? 1 : 0))));
if (isForeignInliner)
{
sig.Append(new UnsignedConstant((uint)factory.ManifestMetadataTable.ModuleToIndex(inliner.Module)));
}
}
hashtable.Append((uint)hashCode, section.Place(sig));
}
MemoryStream writerContent = new MemoryStream();
writer.Save(writerContent);
return(new ObjectData(
data: writerContent.ToArray(),
relocs: null,
alignment: 8,
definedSymbols: new ISymbolDefinitionNode[] { this }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
// Ensure the native layout blob has been saved
factory.MetadataManager.NativeLayoutInfo.SaveNativeLayoutInfoWriter(factory);
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
// Get a list of all methods that have a method body and metadata from the metadata manager.
foreach (var mappingEntry in factory.MetadataManager.GetMethodMapping(factory))
{
MethodDesc method = mappingEntry.Entity;
// The current format requires us to have an EEType for the owning type. We might want to lift this.
if (!factory.MetadataManager.TypeGeneratesEEType(method.OwningType))
{
continue;
}
// We have a method body, we have a metadata token, but we can't get an invoke stub. Bail.
if (!factory.MetadataManager.IsReflectionInvokable(method))
{
continue;
}
InvokeTableFlags flags = 0;
if (method.HasInstantiation)
{
flags |= InvokeTableFlags.IsGenericMethod;
}
if (method.GetCanonMethodTarget(CanonicalFormKind.Specific).RequiresInstArg())
{
flags |= InvokeTableFlags.RequiresInstArg;
}
if (method.IsDefaultConstructor)
{
flags |= InvokeTableFlags.IsDefaultConstructor;
}
if (ReflectionVirtualInvokeMapNode.NeedsVirtualInvokeInfo(method))
{
flags |= InvokeTableFlags.HasVirtualInvoke;
}
if (!method.IsAbstract)
{
flags |= InvokeTableFlags.HasEntrypoint;
}
if (mappingEntry.MetadataHandle != 0)
{
flags |= InvokeTableFlags.HasMetadataHandle;
}
if (!factory.MetadataManager.HasReflectionInvokeStubForInvokableMethod(method))
{
flags |= InvokeTableFlags.NeedsParameterInterpretation;
}
if (method.IsCanonicalMethod(CanonicalFormKind.Universal))
{
flags |= InvokeTableFlags.IsUniversalCanonicalEntry;
}
// TODO: native signature for P/Invokes and NativeCallable methods
if (method.IsRawPInvoke() || method.IsNativeCallable)
{
continue;
}
// Grammar of an entry in the hash table:
// Flags + DeclaringType + MetadataHandle/NameAndSig + Entrypoint + DynamicInvokeMethod + [NumGenericArgs + GenericArgs]
Vertex vertex = writer.GetUnsignedConstant((uint)flags);
if ((flags & InvokeTableFlags.HasMetadataHandle) != 0)
{
// Only store the offset portion of the metadata handle to get better integer compression
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant((uint)(mappingEntry.MetadataHandle & MetadataManager.MetadataOffsetMask)));
}
else
{
var nameAndSig = factory.NativeLayout.PlacedSignatureVertex(factory.NativeLayout.MethodNameAndSignatureVertex(method.GetTypicalMethodDefinition()));
vertex = writer.GetTuple(vertex, writer.GetUnsignedConstant((uint)nameAndSig.SavedVertex.VertexOffset));
}
// Go with a necessary type symbol. It will be upgraded to a constructed one if a constructed was emitted.
IEETypeNode owningTypeSymbol = factory.NecessaryTypeSymbol(method.OwningType);
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant(_externalReferences.GetIndex(owningTypeSymbol)));
if ((flags & InvokeTableFlags.HasEntrypoint) != 0)
{
bool useUnboxingStub = method.OwningType.IsValueType && !method.Signature.IsStatic;
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant(_externalReferences.GetIndex(
factory.MethodEntrypoint(method.GetCanonMethodTarget(CanonicalFormKind.Specific), useUnboxingStub))));
}
if ((flags & InvokeTableFlags.NeedsParameterInterpretation) == 0)
{
MethodDesc canonInvokeStubMethod = factory.MetadataManager.GetCanonicalReflectionInvokeStub(method);
if (canonInvokeStubMethod.IsSharedByGenericInstantiations)
{
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant(((uint)factory.MetadataManager.DynamicInvokeTemplateData.GetIdForMethod(canonInvokeStubMethod) << 1) | 1));
}
else
{
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant(_externalReferences.GetIndex(factory.MethodEntrypoint(canonInvokeStubMethod)) << 1));
}
}
if ((flags & InvokeTableFlags.IsGenericMethod) != 0)
{
if ((flags & InvokeTableFlags.IsUniversalCanonicalEntry) != 0)
{
var nameAndSigGenericMethod = factory.NativeLayout.PlacedSignatureVertex(factory.NativeLayout.MethodNameAndSignatureVertex(method));
vertex = writer.GetTuple(vertex, writer.GetUnsignedConstant((uint)nameAndSigGenericMethod.SavedVertex.VertexOffset));
}
else if ((flags & InvokeTableFlags.RequiresInstArg) == 0 || (flags & InvokeTableFlags.HasEntrypoint) == 0)
{
VertexSequence args = new VertexSequence();
for (int i = 0; i < method.Instantiation.Length; i++)
{
uint argId = _externalReferences.GetIndex(factory.NecessaryTypeSymbol(method.Instantiation[i]));
args.Append(writer.GetUnsignedConstant(argId));
}
vertex = writer.GetTuple(vertex, args);
}
else
{
uint dictionaryId = _externalReferences.GetIndex(factory.MethodGenericDictionary(method));
vertex = writer.GetTuple(vertex, writer.GetUnsignedConstant(dictionaryId));
}
}
int hashCode = method.GetCanonMethodTarget(CanonicalFormKind.Specific).OwningType.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
byte[] hashTableBytes = writer.Save();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
return new ObjectData(Array.Empty<byte>(), Array.Empty<Relocation>(), 1, new ISymbolNode[] { this });
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
foreach (var mappingEntry in factory.MetadataManager.GetTypeDefinitionMapping())
{
if (!factory.CompilationModuleGroup.ContainsType(mappingEntry.Entity))
continue;
// We are looking for any EEType - constructed or not, it has to be in the mapping
// table so that we can map it to metadata.
EETypeNode node = null;
if (!mappingEntry.Entity.IsGenericDefinition)
{
node = factory.ConstructedTypeSymbol(mappingEntry.Entity) as EETypeNode;
}
if (node == null || !node.Marked)
{
// This might have been a typeof() expression.
node = factory.NecessaryTypeSymbol(mappingEntry.Entity) as EETypeNode;
}
if (node.Marked)
{
Vertex vertex = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(node)),
writer.GetUnsignedConstant((uint)mappingEntry.MetadataHandle)
);
int hashCode = node.Type.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
}
MemoryStream ms = new MemoryStream();
writer.Save(ms);
byte[] hashTableBytes = ms.ToArray();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return new ObjectData(hashTableBytes, Array.Empty<Relocation>(), 1, new ISymbolNode[] { this, _endSymbol });
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
// Ensure the native layout blob has been saved
factory.MetadataManager.NativeLayoutInfo.SaveNativeLayoutInfoWriter(factory);
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
Dictionary <int, HashSet <TypeDesc> > methodsEmitted = new Dictionary <int, HashSet <TypeDesc> >();
// Get a list of all methods that have a method body and metadata from the metadata manager.
foreach (var mappingEntry in factory.MetadataManager.GetMethodMapping(factory))
{
MethodDesc method = mappingEntry.Entity;
// The current format requires us to have an EEType for the owning type. We might want to lift this.
if (!factory.MetadataManager.TypeGeneratesEEType(method.OwningType))
{
continue;
}
// We have a method body, we have a metadata token, but we can't get an invoke stub. Bail.
if (!factory.MetadataManager.IsReflectionInvokable(method))
{
continue;
}
// Only virtual methods are interesting
if (!NeedsVirtualInvokeInfo(method))
{
continue;
}
//
// When working with the ProjectN ABI, the entries in the map are based on the definition types. All
// instantiations of these definition types will have the same vtable method entries.
// On CoreRT, the vtable entries for each instantiated type might not necessarily exist.
// Example 1:
// If there's a call to Foo<string>.Method1 and a call to Foo<int>.Method2, Foo<string> will
// not have Method2 in its vtable and Foo<int> will not have Method1.
// Example 2:
// If there's a call to Foo<string>.Method1 and a call to Foo<object>.Method2, given that both
// of these instantiations share the same canonical form, Foo<__Canon> will have both method
// entries, and therefore Foo<string> and Foo<object> will have both entries too.
// For this reason, the entries that we write to the map in CoreRT will be based on the canonical form
// of the method's containing type instead of the open type definition.
//
// Similarly, given that we use the open type definition for ProjectN, the slot numbers ignore dictionary
// entries in the vtable, and computing the correct slot number in the presence of dictionary entries is
// done at runtime. When working with the CoreRT ABI, the correct slot numbers will be written to the map,
// and no adjustments will be performed at runtime.
//
TypeDesc containingTypeKey;
if (factory.Target.Abi == TargetAbi.ProjectN)
{
containingTypeKey = method.OwningType.GetTypeDefinition();
}
else
{
containingTypeKey = method.OwningType.ConvertToCanonForm(CanonicalFormKind.Specific);
}
HashSet <TypeDesc> cache;
if (!methodsEmitted.TryGetValue(mappingEntry.MetadataHandle, out cache))
{
methodsEmitted[mappingEntry.MetadataHandle] = cache = new HashSet <TypeDesc>();
}
// Only one record is needed for any instantiation.
if (!cache.Add(containingTypeKey))
{
continue;
}
// Grammar of an entry in the hash table:
// Virtual Method uses a normal slot
// TypeKey + NameAndSig metadata offset into the native layout metadata + (NumberOfStepsUpParentHierarchyToType << 1) + slot
// OR
// Generic Virtual Method
// TypeKey + NameAndSig metadata offset into the native layout metadata + (NumberOfStepsUpParentHierarchyToType << 1 + 1)
int parentHierarchyDistance;
MethodDesc declaringMethodForSlot = GetDeclaringVirtualMethodAndHierarchyDistance(method, out parentHierarchyDistance);
Vertex vertex = null;
ISymbolNode containingTypeKeyNode = factory.NecessaryTypeSymbol(containingTypeKey);
NativeLayoutMethodNameAndSignatureVertexNode nameAndSig = factory.NativeLayout.MethodNameAndSignatureVertex(method.GetTypicalMethodDefinition());
NativeLayoutPlacedSignatureVertexNode placedNameAndSig = factory.NativeLayout.PlacedSignatureVertex(nameAndSig);
if (method.HasInstantiation)
{
vertex = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(containingTypeKeyNode)),
writer.GetUnsignedConstant((uint)placedNameAndSig.SavedVertex.VertexOffset),
writer.GetUnsignedConstant(((uint)parentHierarchyDistance << 1) + VirtualInvokeTableEntry.GenericVirtualMethod));
}
else
{
// Get the declaring method for slot on the instantiated declaring type
int slot = VirtualMethodSlotHelper.GetVirtualMethodSlot(factory, declaringMethodForSlot, factory.Target.Abi != TargetAbi.ProjectN);
Debug.Assert(slot != -1);
vertex = writer.GetTuple(
writer.GetUnsignedConstant(_externalReferences.GetIndex(containingTypeKeyNode)),
writer.GetUnsignedConstant((uint)placedNameAndSig.SavedVertex.VertexOffset));
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant((uint)parentHierarchyDistance << 1),
writer.GetUnsignedConstant((uint)slot));
}
int hashCode = containingTypeKey.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
byte[] hashTableBytes = writer.Save();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
// Build the GVM table entries from the list of interesting GVMTableEntryNodes
foreach (var interestingEntry in factory.MetadataManager.GetTypeGVMEntries())
{
foreach (var typeGVMEntryInfo in interestingEntry.ScanForGenericVirtualMethodEntries())
{
AddGenericVirtualMethodImplementation(factory, typeGVMEntryInfo.CallingMethod, typeGVMEntryInfo.ImplementationMethod);
}
}
// Ensure the native layout blob has been saved
factory.MetadataManager.NativeLayoutInfo.SaveNativeLayoutInfoWriter(factory);
NativeWriter nativeFormatWriter = new NativeWriter();
VertexHashtable gvmHashtable = new VertexHashtable();
Section gvmHashtableSection = nativeFormatWriter.NewSection();
gvmHashtableSection.Place(gvmHashtable);
// Emit the GVM target information entries
foreach (var gvmEntry in _gvmImplemenations)
{
Debug.Assert(!gvmEntry.Key.OwningType.IsInterface);
foreach (var implementationEntry in gvmEntry.Value)
{
MethodDesc callingMethod = gvmEntry.Key;
TypeDesc implementationType = implementationEntry.Key;
MethodDesc implementationMethod = implementationEntry.Value;
uint callingTypeId = _externalReferences.GetIndex(factory.NecessaryTypeSymbol(callingMethod.OwningType));
Vertex vertex = nativeFormatWriter.GetUnsignedConstant(callingTypeId);
uint targetTypeId = _externalReferences.GetIndex(factory.NecessaryTypeSymbol(implementationType));
vertex = nativeFormatWriter.GetTuple(vertex, nativeFormatWriter.GetUnsignedConstant(targetTypeId));
var nameAndSig = factory.NativeLayout.PlacedSignatureVertex(factory.NativeLayout.MethodNameAndSignatureVertex(callingMethod));
vertex = nativeFormatWriter.GetTuple(vertex, nativeFormatWriter.GetUnsignedConstant((uint)nameAndSig.SavedVertex.VertexOffset));
nameAndSig = factory.NativeLayout.PlacedSignatureVertex(factory.NativeLayout.MethodNameAndSignatureVertex(implementationMethod));
vertex = nativeFormatWriter.GetTuple(vertex, nativeFormatWriter.GetUnsignedConstant((uint)nameAndSig.SavedVertex.VertexOffset));
int hashCode = callingMethod.OwningType.GetHashCode();
hashCode = ((hashCode << 13) ^ hashCode) ^ implementationType.GetHashCode();
gvmHashtable.Append((uint)hashCode, gvmHashtableSection.Place(vertex));
}
}
// Zero out the dictionary so that we AV if someone tries to insert after we're done.
_gvmImplemenations = null;
byte[] streamBytes = nativeFormatWriter.Save();
_endSymbol.SetSymbolOffset(streamBytes.Length);
return(new ObjectData(streamBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
// Build the GVM table entries from the list of interesting GVMTableEntryNodes
foreach (var interestingEntry in factory.MetadataManager.GetTypeGVMEntries())
{
foreach (var typeGVMEntryInfo in interestingEntry.ScanForInterfaceGenericVirtualMethodEntries())
{
AddGenericVirtualMethodImplementation(factory, typeGVMEntryInfo.CallingMethod, typeGVMEntryInfo.ImplementationType, typeGVMEntryInfo.ImplementationMethod);
}
}
// Ensure the native layout blob has been saved
factory.MetadataManager.NativeLayoutInfo.SaveNativeLayoutInfoWriter(factory);
NativeWriter nativeFormatWriter = new NativeWriter();
VertexHashtable gvmHashtable = new VertexHashtable();
Section gvmHashtableSection = nativeFormatWriter.NewSection();
gvmHashtableSection.Place(gvmHashtable);
// Emit the interface slot resolution entries
foreach (var gvmEntry in _interfaceGvmSlots)
{
Debug.Assert(gvmEntry.Key.OwningType.IsInterface);
MethodDesc callingMethod = gvmEntry.Key;
// Emit the method signature and containing type of the current interface method
uint typeId = _externalReferences.GetIndex(factory.NecessaryTypeSymbol(callingMethod.OwningType));
var nameAndSig = factory.NativeLayout.PlacedSignatureVertex(factory.NativeLayout.MethodNameAndSignatureVertex(callingMethod));
Vertex vertex = nativeFormatWriter.GetTuple(
nativeFormatWriter.GetUnsignedConstant(typeId),
nativeFormatWriter.GetUnsignedConstant((uint)nameAndSig.SavedVertex.VertexOffset));
// Emit the method name / sig and containing type of each GVM target method for the current interface method entry
vertex = nativeFormatWriter.GetTuple(vertex, nativeFormatWriter.GetUnsignedConstant((uint)gvmEntry.Value.Count));
foreach (MethodDesc implementationMethod in gvmEntry.Value)
{
nameAndSig = factory.NativeLayout.PlacedSignatureVertex(factory.NativeLayout.MethodNameAndSignatureVertex(implementationMethod));
typeId = _externalReferences.GetIndex(factory.NecessaryTypeSymbol(implementationMethod.OwningType));
vertex = nativeFormatWriter.GetTuple(
vertex,
nativeFormatWriter.GetUnsignedConstant((uint)nameAndSig.SavedVertex.VertexOffset),
nativeFormatWriter.GetUnsignedConstant(typeId));
// Emit the interface GVM slot details for each type that implements the interface methods
{
Debug.Assert(_interfaceImpls.ContainsKey(implementationMethod));
var ifaceImpls = _interfaceImpls[implementationMethod];
// First, emit how many types have method implementations for this interface method entry
vertex = nativeFormatWriter.GetTuple(vertex, nativeFormatWriter.GetUnsignedConstant((uint)ifaceImpls.Count));
// Emit each type that implements the interface method, and the interface signatures for the interfaces implemented by the type
foreach (var currentImpl in ifaceImpls)
{
TypeDesc implementationType = currentImpl.Key;
typeId = _externalReferences.GetIndex(factory.NecessaryTypeSymbol(implementationType));
vertex = nativeFormatWriter.GetTuple(vertex, nativeFormatWriter.GetUnsignedConstant(typeId));
// Emit information on which interfaces the current method entry provides implementations for
vertex = nativeFormatWriter.GetTuple(vertex, nativeFormatWriter.GetUnsignedConstant((uint)currentImpl.Value.Count));
foreach (var ifaceId in currentImpl.Value)
{
// Emit the signature of the current interface implemented by the method
Debug.Assert(((uint)ifaceId) < implementationType.RuntimeInterfaces.Length);
TypeDesc currentInterface = implementationType.RuntimeInterfaces[ifaceId];
var typeSig = factory.NativeLayout.PlacedSignatureVertex(factory.NativeLayout.TypeSignatureVertex(currentInterface));
vertex = nativeFormatWriter.GetTuple(vertex, nativeFormatWriter.GetUnsignedConstant((uint)typeSig.SavedVertex.VertexOffset));
}
}
}
}
int hashCode = callingMethod.OwningType.GetHashCode();
gvmHashtable.Append((uint)hashCode, gvmHashtableSection.Place(vertex));
}
// Zero out the dictionary so that we AV if someone tries to insert after we're done.
_interfaceGvmSlots = null;
byte[] streamBytes = nativeFormatWriter.Save();
_endSymbol.SetSymbolOffset(streamBytes.Length);
return(new ObjectData(streamBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
return new ObjectData(Array.Empty<byte>(), Array.Empty<Relocation>(), 1, new ISymbolNode[] { this });
var writer = new NativeWriter();
var typeMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(typeMapHashTable);
// Get a list of all methods that have a method body and metadata from the metadata manager.
foreach (var mappingEntry in factory.MetadataManager.GetMethodMapping())
{
MethodDesc method = mappingEntry.Entity;
// The current format requires us to have an EEType for the owning type. We might want to lift this.
if (!factory.MetadataManager.TypeGeneratesEEType(method.OwningType))
continue;
// We have a method body, we have a metadata token, but we can't get an invoke stub. Bail.
if (!factory.MetadataManager.HasReflectionInvokeStub(method))
continue;
InvokeTableFlags flags = 0;
if (method.HasInstantiation)
flags |= InvokeTableFlags.IsGenericMethod;
if (method.GetCanonMethodTarget(CanonicalFormKind.Specific).RequiresInstArg())
flags |= InvokeTableFlags.RequiresInstArg;
// TODO: better check for default public(!) constructor
if (method.IsConstructor && method.Signature.Length == 0)
flags |= InvokeTableFlags.IsDefaultConstructor;
// TODO: HasVirtualInvoke
if (!method.IsAbstract)
flags |= InvokeTableFlags.HasEntrypoint;
// Once we have a true multi module compilation story, we'll need to start emitting entries where this is not set.
flags |= InvokeTableFlags.HasMetadataHandle;
// TODO: native signature for P/Invokes and NativeCallable methods
if (method.IsRawPInvoke() || method.IsNativeCallable)
continue;
// Grammar of an entry in the hash table:
// Flags + DeclaringType + MetadataHandle/NameAndSig + Entrypoint + DynamicInvokeMethod + [NumGenericArgs + GenericArgs]
Vertex vertex = writer.GetUnsignedConstant((uint)flags);
if ((flags & InvokeTableFlags.HasMetadataHandle) != 0)
{
// Only store the offset portion of the metadata handle to get better integer compression
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant((uint)(mappingEntry.MetadataHandle & MetadataGeneration.MetadataOffsetMask)));
}
else
{
// TODO: no MD handle case
}
// Go with a necessary type symbol. It will be upgraded to a constructed one if a constructed was emitted.
IEETypeNode owningTypeSymbol = factory.NecessaryTypeSymbol(method.OwningType);
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant(_externalReferences.GetIndex(owningTypeSymbol)));
if ((flags & InvokeTableFlags.HasEntrypoint) != 0)
{
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant(_externalReferences.GetIndex(
factory.MethodEntrypoint(method.GetCanonMethodTarget(CanonicalFormKind.Specific)))));
}
// TODO: data to generate the generic dictionary with the type loader
MethodDesc invokeStubMethod = factory.MetadataManager.GetReflectionInvokeStub(method);
MethodDesc canonInvokeStubMethod = invokeStubMethod.GetCanonMethodTarget(CanonicalFormKind.Specific);
if (invokeStubMethod != canonInvokeStubMethod)
{
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant(_externalReferences.GetIndex(factory.FatFunctionPointer(invokeStubMethod), FatFunctionPointerConstants.Offset) << 1));
}
else
{
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant(_externalReferences.GetIndex(factory.MethodEntrypoint(invokeStubMethod)) << 1));
}
if ((flags & InvokeTableFlags.IsGenericMethod) != 0)
{
if ((flags & InvokeTableFlags.RequiresInstArg) == 0 || (flags & InvokeTableFlags.HasEntrypoint) == 0)
{
VertexSequence args = new VertexSequence();
for (int i = 0; i < method.Instantiation.Length; i++)
{
uint argId = _externalReferences.GetIndex(factory.NecessaryTypeSymbol(method.Instantiation[i]));
args.Append(writer.GetUnsignedConstant(argId));
}
vertex = writer.GetTuple(vertex, args);
}
else
{
uint dictionaryId = _externalReferences.GetIndex(factory.MethodGenericDictionary(method));
vertex = writer.GetTuple(vertex, writer.GetUnsignedConstant(dictionaryId));
}
}
int hashCode = method.GetCanonMethodTarget(CanonicalFormKind.Specific).OwningType.GetHashCode();
typeMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
MemoryStream ms = new MemoryStream();
writer.Save(ms);
byte[] hashTableBytes = ms.ToArray();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return new ObjectData(hashTableBytes, Array.Empty<Relocation>(), 1, new ISymbolNode[] { this, _endSymbol });
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// Dependencies for this node are tracked by the method code nodes
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
// Ensure the native layout data has been saved, in order to get valid Vertex offsets for the signature Vertices
factory.MetadataManager.NativeLayoutInfo.SaveNativeLayoutInfoWriter(factory);
NativeWriter nativeWriter = new NativeWriter();
VertexHashtable hashtable = new VertexHashtable();
Section nativeSection = nativeWriter.NewSection();
nativeSection.Place(hashtable);
foreach (MethodDesc method in factory.MetadataManager.GetCompiledMethods())
{
if (!IsMethodEligibleForTracking(method))
{
continue;
}
// Get the method pointer vertex
bool getUnboxingStub = method.OwningType.IsValueType && !method.Signature.IsStatic;
IMethodNode methodEntryPointNode = factory.MethodEntrypoint(method, getUnboxingStub);
Vertex methodPointer = nativeWriter.GetUnsignedConstant(_externalReferences.GetIndex(methodEntryPointNode));
// Get native layout vertices for the declaring type
ISymbolNode declaringTypeNode = factory.NecessaryTypeSymbol(method.OwningType);
Vertex declaringType = nativeWriter.GetUnsignedConstant(_externalReferences.GetIndex(declaringTypeNode));
// Get a vertex sequence for the method instantiation args if any
VertexSequence arguments = new VertexSequence();
foreach (var arg in method.Instantiation)
{
ISymbolNode argNode = factory.NecessaryTypeSymbol(arg);
arguments.Append(nativeWriter.GetUnsignedConstant(_externalReferences.GetIndex(argNode)));
}
// Get the name and sig of the method.
// Note: the method name and signature are stored in the NativeLayoutInfo blob, not in the hashtable we build here.
NativeLayoutMethodNameAndSignatureVertexNode nameAndSig = factory.NativeLayout.MethodNameAndSignatureVertex(method.GetTypicalMethodDefinition());
NativeLayoutPlacedSignatureVertexNode placedNameAndSig = factory.NativeLayout.PlacedSignatureVertex(nameAndSig);
Debug.Assert(placedNameAndSig.SavedVertex != null);
Vertex placedNameAndSigOffsetSig = nativeWriter.GetOffsetSignature(placedNameAndSig.SavedVertex);
// Get the vertex for the completed method signature
Vertex methodSignature = nativeWriter.GetTuple(declaringType, placedNameAndSigOffsetSig, arguments);
// Make the generic method entry vertex
Vertex entry = nativeWriter.GetTuple(methodSignature, methodPointer);
// Add to the hash table, hashed by the containing type's hashcode
uint hashCode = (uint)method.OwningType.GetHashCode();
hashtable.Append(hashCode, nativeSection.Place(entry));
}
byte[] streamBytes = nativeWriter.Save();
_endSymbol.SetSymbolOffset(streamBytes.Length);
return(new ObjectData(streamBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
return new ObjectData(Array.Empty<byte>(), Array.Empty<Relocation>(), 1, new ISymbolNode[] { this });
var writer = new NativeWriter();
var fieldMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(fieldMapHashTable);
foreach (var fieldMapping in factory.MetadataManager.GetFieldMapping())
{
FieldDesc field = fieldMapping.Entity;
if (field.IsLiteral || field.HasRva)
continue;
FieldTableFlags flags;
if (field.IsThreadStatic)
{
flags = FieldTableFlags.ThreadStatic;
}
else if (field.IsStatic)
{
flags = FieldTableFlags.Static;
if (field.HasGCStaticBase)
flags |= FieldTableFlags.IsGcSection;
}
else
{
flags = FieldTableFlags.Instance;
}
// TODO: support emitting field info without a handle for generics in multifile
flags |= FieldTableFlags.HasMetadataHandle;
if (field.OwningType.IsCanonicalSubtype(CanonicalFormKind.Universal))
flags |= FieldTableFlags.IsUniversalCanonicalEntry;
// Grammar of a hash table entry:
// Flags + DeclaringType + MdHandle or Name + Cookie or Ordinal or Offset
Vertex vertex = writer.GetUnsignedConstant((uint)flags);
uint declaringTypeId = _externalReferences.GetIndex(factory.NecessaryTypeSymbol(field.OwningType));
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant(declaringTypeId));
if ((flags & FieldTableFlags.HasMetadataHandle) != 0)
{
// Only store the offset portion of the metadata handle to get better integer compression
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant((uint)(fieldMapping.MetadataHandle & MetadataGeneration.MetadataOffsetMask)));
}
else
{
throw new NotImplementedException();
}
if ((flags & FieldTableFlags.IsUniversalCanonicalEntry) != 0)
{
throw new NotImplementedException();
}
else
{
switch (flags & FieldTableFlags.StorageClass)
{
case FieldTableFlags.ThreadStatic:
case FieldTableFlags.Static:
// TODO: statics and thread statics
continue;
case FieldTableFlags.Instance:
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant((uint)field.Offset));
break;
}
}
int hashCode = field.OwningType.ConvertToCanonForm(CanonicalFormKind.Specific).GetHashCode();
fieldMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
MemoryStream ms = new MemoryStream();
writer.Save(ms);
byte[] hashTableBytes = ms.ToArray();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return new ObjectData(hashTableBytes, Array.Empty<Relocation>(), 1, new ISymbolNode[] { this, _endSymbol });
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
NativeWriter writer = new NativeWriter();
Section section = writer.NewSection();
VertexHashtable typesHashtable = new VertexHashtable();
section.Place(typesHashtable);
ReadyToRunTableManager r2rManager = (ReadyToRunTableManager)factory.MetadataManager;
foreach (TypeInfo <TypeDefinitionHandle> defTypeInfo in r2rManager.GetDefinedTypes())
{
TypeDefinitionHandle defTypeHandle = defTypeInfo.Handle;
int hashCode = 0;
for (; ;)
{
TypeDefinition defType = defTypeInfo.MetadataReader.GetTypeDefinition(defTypeHandle);
string namespaceName = defTypeInfo.MetadataReader.GetString(defType.Namespace);
string typeName = defTypeInfo.MetadataReader.GetString(defType.Name);
hashCode ^= ReadyToRunHashCode.NameHashCode(namespaceName, typeName);
if (!defType.Attributes.IsNested())
{
break;
}
defTypeHandle = defType.GetDeclaringType();
}
typesHashtable.Append(unchecked ((uint)hashCode), section.Place(new UnsignedConstant(((uint)MetadataTokens.GetRowNumber(defTypeInfo.Handle) << 1) | 0)));
}
foreach (TypeInfo <ExportedTypeHandle> expTypeInfo in r2rManager.GetExportedTypes())
{
ExportedTypeHandle expTypeHandle = expTypeInfo.Handle;
int hashCode = 0;
for (; ;)
{
ExportedType expType = expTypeInfo.MetadataReader.GetExportedType(expTypeHandle);
string namespaceName = expTypeInfo.MetadataReader.GetString(expType.Namespace);
string typeName = expTypeInfo.MetadataReader.GetString(expType.Name);
hashCode ^= ReadyToRunHashCode.NameHashCode(namespaceName, typeName);
if (expType.Implementation.Kind != HandleKind.ExportedType)
{
// Not a nested class
break;
}
expTypeHandle = (ExportedTypeHandle)expType.Implementation;
}
typesHashtable.Append(unchecked ((uint)hashCode), section.Place(new UnsignedConstant(((uint)MetadataTokens.GetRowNumber(expTypeInfo.Handle) << 1) | 1)));
}
MemoryStream writerContent = new MemoryStream();
writer.Save(writerContent);
return(new ObjectData(
data: writerContent.ToArray(),
relocs: null,
alignment: 8,
definedSymbols: new ISymbolDefinitionNode[] { this }));
}
public override ObjectData GetData(NodeFactory factory, bool relocsOnly = false)
{
// This node does not trigger generation of other nodes.
if (relocsOnly)
{
return(new ObjectData(Array.Empty <byte>(), Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this }));
}
var writer = new NativeWriter();
var fieldMapHashTable = new VertexHashtable();
Section hashTableSection = writer.NewSection();
hashTableSection.Place(fieldMapHashTable);
foreach (var fieldMapping in factory.MetadataManager.GetFieldMapping(factory))
{
FieldDesc field = fieldMapping.Entity;
if (field.IsLiteral || field.HasRva)
{
continue;
}
FieldTableFlags flags;
if (field.IsThreadStatic)
{
flags = FieldTableFlags.ThreadStatic;
}
else if (field.IsStatic)
{
flags = FieldTableFlags.Static;
if (field.HasGCStaticBase)
{
flags |= FieldTableFlags.IsGcSection;
}
if (field.OwningType.HasInstantiation)
{
flags |= FieldTableFlags.FieldOffsetEncodedDirectly;
}
}
else
{
flags = FieldTableFlags.Instance | FieldTableFlags.FieldOffsetEncodedDirectly;
}
if (fieldMapping.MetadataHandle != 0)
{
flags |= FieldTableFlags.HasMetadataHandle;
}
if (field.OwningType.IsCanonicalSubtype(CanonicalFormKind.Universal))
{
flags |= FieldTableFlags.IsUniversalCanonicalEntry;
}
// Grammar of a hash table entry:
// Flags + DeclaringType + MdHandle or Name + Cookie or Ordinal or Offset
Vertex vertex = writer.GetUnsignedConstant((uint)flags);
uint declaringTypeId = _externalReferences.GetIndex(factory.NecessaryTypeSymbol(field.OwningType));
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant(declaringTypeId));
if ((flags & FieldTableFlags.HasMetadataHandle) != 0)
{
// Only store the offset portion of the metadata handle to get better integer compression
vertex = writer.GetTuple(vertex,
writer.GetUnsignedConstant((uint)(fieldMapping.MetadataHandle & MetadataManager.MetadataOffsetMask)));
}
else
{
// No metadata handle means we need to store name
vertex = writer.GetTuple(vertex,
writer.GetStringConstant(field.Name));
}
if ((flags & FieldTableFlags.IsUniversalCanonicalEntry) != 0)
{
// TODO: USG
continue;
}
else
{
switch (flags & FieldTableFlags.StorageClass)
{
case FieldTableFlags.ThreadStatic:
// TODO: thread statics
continue;
case FieldTableFlags.Static:
{
if (field.OwningType.HasInstantiation)
{
vertex = writer.GetTuple(vertex, writer.GetUnsignedConstant((uint)(field.Offset.AsInt)));
}
else
{
MetadataType metadataType = (MetadataType)field.OwningType;
ISymbolNode staticsNode = field.HasGCStaticBase ?
factory.TypeGCStaticsSymbol(metadataType) :
factory.TypeNonGCStaticsSymbol(metadataType);
if (!field.HasGCStaticBase || factory.Target.Abi == TargetAbi.ProjectN)
{
uint index = _externalReferences.GetIndex(staticsNode, field.Offset.AsInt);
vertex = writer.GetTuple(vertex, writer.GetUnsignedConstant(index));
}
else
{
Debug.Assert(field.HasGCStaticBase && factory.Target.Abi == TargetAbi.CoreRT);
uint index = _externalReferences.GetIndex(staticsNode);
vertex = writer.GetTuple(vertex, writer.GetUnsignedConstant(index));
vertex = writer.GetTuple(vertex, writer.GetUnsignedConstant((uint)(field.Offset.AsInt)));
}
}
}
break;
case FieldTableFlags.Instance:
vertex = writer.GetTuple(vertex, writer.GetUnsignedConstant((uint)field.Offset.AsInt));
break;
}
}
int hashCode = field.OwningType.ConvertToCanonForm(CanonicalFormKind.Specific).GetHashCode();
fieldMapHashTable.Append((uint)hashCode, hashTableSection.Place(vertex));
}
byte[] hashTableBytes = writer.Save();
_endSymbol.SetSymbolOffset(hashTableBytes.Length);
return(new ObjectData(hashTableBytes, Array.Empty <Relocation>(), 1, new ISymbolDefinitionNode[] { this, _endSymbol }));
}