public static bool ShouldInclude(this ITypeDefinitionMember member, EmitContext context)
{
if (context.IncludePrivateMembers)
{
return(true);
}
var method = member as IMethodDefinition;
if (method != null && method.IsVirtual)
{
return(true);
}
switch (member.Visibility)
{
case TypeMemberVisibility.Private:
return(context.IncludePrivateMembers);
case TypeMemberVisibility.Assembly:
case TypeMemberVisibility.FamilyAndAssembly:
return(context.IncludePrivateMembers || context.Module.SourceAssemblyOpt?.InternalsAreVisible == true);
}
return(true);
}
public static MetadataWriter Create(
EmitContext context,
CommonMessageProvider messageProvider,
bool metadataOnly,
bool deterministic,
bool emitTestCoverageData,
bool hasPdbStream,
CancellationToken cancellationToken)
{
var builder = new MetadataBuilder();
MetadataBuilder?debugBuilderOpt;
switch (context.Module.DebugInformationFormat)
{
case DebugInformationFormat.PortablePdb:
debugBuilderOpt = hasPdbStream ? new MetadataBuilder() : null;
break;
case DebugInformationFormat.Embedded:
debugBuilderOpt = metadataOnly ? null : new MetadataBuilder();
break;
default:
debugBuilderOpt = null;
break;
}
var dynamicAnalysisDataWriterOpt = emitTestCoverageData ?
new DynamicAnalysisDataWriter(context.Module.DebugDocumentCount, context.Module.HintNumberOfMethodDefinitions) :
null;
return(new FullMetadataWriter(context, builder, debugBuilderOpt, dynamicAnalysisDataWriterOpt, messageProvider, metadataOnly, deterministic,
emitTestCoverageData, cancellationToken));
}
internal Cci.IMetadataConstant GetMetadataConstantValue(EmitContext context)
{
if (!HasMetadataConstantValue)
{
return null;
}
ConstantValue constant = this.ExplicitDefaultConstantValue;
TypeSymbol type;
if (constant.SpecialType != SpecialType.None)
{
// preserve the exact type of the constant for primitive types,
// e.g. it should be Int16 for [DefaultParameterValue((short)1)]int x
type = this.ContainingAssembly.GetSpecialType(constant.SpecialType);
}
else
{
// default(struct), enum
type = this.Type;
}
return ((PEModuleBuilder)context.Module).CreateConstant(type, constant.Value,
syntaxNodeOpt: (CSharpSyntaxNode)context.SyntaxNodeOpt,
diagnostics: context.Diagnostics);
}
public static MetadataWriter Create(
EmitContext context,
CommonMessageProvider messageProvider,
bool allowMissingMethodBodies,
bool deterministic,
bool hasPdbStream,
CancellationToken cancellationToken)
{
var heaps = new MetadataHeapsBuilder();
MetadataHeapsBuilder debugHeapsOpt;
switch (context.ModuleBuilder.EmitOptions.DebugInformationFormat)
{
case DebugInformationFormat.PortablePdb:
debugHeapsOpt = hasPdbStream ? new MetadataHeapsBuilder() : null;
break;
case DebugInformationFormat.Embedded:
debugHeapsOpt = heaps;
break;
default:
debugHeapsOpt = null;
break;
}
return(new FullMetadataWriter(context, heaps, debugHeapsOpt, messageProvider, allowMissingMethodBodies, deterministic, cancellationToken));
}
public static MetadataWriter Create(
EmitContext context,
CommonMessageProvider messageProvider,
bool allowMissingMethodBodies,
bool deterministic,
bool hasPdbStream,
CancellationToken cancellationToken)
{
var builder = new MetadataBuilder();
MetadataBuilder debugBuilderOpt;
switch (context.ModuleBuilder.EmitOptions.DebugInformationFormat)
{
case DebugInformationFormat.PortablePdb:
debugBuilderOpt = hasPdbStream ? new MetadataBuilder() : null;
break;
case DebugInformationFormat.Embedded:
debugBuilderOpt = new MetadataBuilder();
break;
default:
debugBuilderOpt = null;
break;
}
var dynamicAnalysisDataWriterOpt = context.ModuleBuilder.EmitOptions.EmitDynamicAnalysisData ?
new DynamicAnalysisDataWriter(context.Module.DebugDocumentCount, context.Module.HintNumberOfMethodDefinitions) :
null;
return(new FullMetadataWriter(context, builder, debugBuilderOpt, dynamicAnalysisDataWriterOpt, messageProvider, allowMissingMethodBodies, deterministic, cancellationToken));
}
Cci.INamedTypeReference Cci.IGenericTypeInstanceReference.GetGenericType(EmitContext context)
{
System.Diagnostics.Debug.Assert(UnderlyingNamedType.OriginalDefinition.IsDefinition);
PEModuleBuilder moduleBeingBuilt = (PEModuleBuilder)context.Module;
return moduleBeingBuilt.Translate(this.UnderlyingNamedType.OriginalDefinition, syntaxNodeOpt: (CSharpSyntaxNode)context.SyntaxNodeOpt,
diagnostics: context.Diagnostics, needDeclaration: true);
}
public PEDeltaAssemblyBuilder(
SourceAssemblySymbol sourceAssembly,
string outputName,
OutputKind outputKind,
ModulePropertiesForSerialization serializationProperties,
IEnumerable<ResourceDescription> manifestResources,
Func<AssemblySymbol, AssemblyIdentity> assemblySymbolMapper,
EmitBaseline previousGeneration,
IEnumerable<SemanticEdit> edits)
: base(sourceAssembly, outputName, outputKind, serializationProperties, manifestResources, assemblySymbolMapper, additionalTypes: ImmutableArray<NamedTypeSymbol>.Empty, metadataOnly:false)
{
var context = new EmitContext(this, null, new DiagnosticBag());
var module = previousGeneration.OriginalMetadata;
var compilation = sourceAssembly.DeclaringCompilation;
var metadataAssembly = compilation.GetBoundReferenceManager().CreatePEAssemblyForAssemblyMetadata(AssemblyMetadata.Create(module), MetadataImportOptions.All);
var metadataDecoder = new Microsoft.CodeAnalysis.CSharp.Symbols.Metadata.PE.MetadataDecoder(metadataAssembly.PrimaryModule);
previousGeneration = EnsureInitialized(previousGeneration, metadataDecoder);
var matchToMetadata = new SymbolMatcher(previousGeneration.AnonymousTypeMap, sourceAssembly, context, metadataAssembly);
SymbolMatcher matchToPrevious = null;
if (previousGeneration.Ordinal > 0)
{
var previousAssembly = ((CSharpCompilation)previousGeneration.Compilation).SourceAssembly;
var previousContext = new EmitContext((PEModuleBuilder)previousGeneration.PEModuleBuilder, null, new DiagnosticBag());
matchToPrevious = new SymbolMatcher(previousGeneration.AnonymousTypeMap, sourceAssembly, context, previousAssembly, previousContext);
}
this.previousDefinitions = new CSharpDefinitionMap(previousGeneration.OriginalMetadata.Module, edits, metadataDecoder, matchToMetadata, matchToPrevious);
this.previousGeneration = previousGeneration;
this.changes = new SymbolChanges(this.previousDefinitions, edits);
}
private FullMetadataWriter(
EmitContext context,
MetadataHeapsBuilder heaps,
CommonMessageProvider messageProvider,
bool allowMissingMethodBodies,
bool deterministic,
CancellationToken cancellationToken)
: base(heaps, context, messageProvider, allowMissingMethodBodies, deterministic, cancellationToken)
{
// EDMAURER make some intelligent guesses for the initial sizes of these things.
int numMethods = this.module.HintNumberOfMethodDefinitions;
int numTypeDefsGuess = numMethods / 6;
int numFieldDefsGuess = numTypeDefsGuess * 4;
int numPropertyDefsGuess = numMethods / 4;
_typeDefs = new DefinitionIndex <ITypeDefinition>(numTypeDefsGuess);
_eventDefs = new DefinitionIndex <IEventDefinition>(0);
_fieldDefs = new DefinitionIndex <IFieldDefinition>(numFieldDefsGuess);
_methodDefs = new DefinitionIndex <IMethodDefinition>(numMethods);
_propertyDefs = new DefinitionIndex <IPropertyDefinition>(numPropertyDefsGuess);
_parameterDefs = new DefinitionIndex <IParameterDefinition>(numMethods);
_genericParameters = new DefinitionIndex <IGenericParameter>(0);
_fieldDefIndex = new Dictionary <ITypeDefinition, uint>(numTypeDefsGuess);
_methodDefIndex = new Dictionary <ITypeDefinition, uint>(numTypeDefsGuess);
_parameterListIndex = new Dictionary <IMethodDefinition, uint>(numMethods);
_assemblyRefIndex = new HeapOrReferenceIndex <IAssemblyReference>(this, AssemblyReferenceComparer.Instance);
_moduleRefIndex = new HeapOrReferenceIndex <string>(this);
_memberRefIndex = new InstanceAndStructuralReferenceIndex <ITypeMemberReference>(this, new MemberRefComparer(this));
_methodSpecIndex = new InstanceAndStructuralReferenceIndex <IGenericMethodInstanceReference>(this, new MethodSpecComparer(this));
_typeRefIndex = new HeapOrReferenceIndex <ITypeReference>(this);
_typeSpecIndex = new InstanceAndStructuralReferenceIndex <ITypeReference>(this, new TypeSpecComparer(this));
_standAloneSignatureIndex = new HeapOrReferenceIndex <uint>(this);
}
Cci.INestedTypeReference Cci.ISpecializedNestedTypeReference.GetUnspecializedVersion(EmitContext context)
{
Debug.Assert(UnderlyingNamedType.OriginalDefinition.IsDefinition);
var result = ((PEModuleBuilder)context.Module).Translate(this.UnderlyingNamedType.OriginalDefinition,
(CSharpSyntaxNode)context.SyntaxNodeOpt, context.Diagnostics, needDeclaration: true).AsNestedTypeReference;
Debug.Assert(result != null);
return result;
}
IEnumerable<Cci.ITypeReference> Cci.IGenericMethodInstanceReference.GetGenericArguments(EmitContext context)
{
PEModuleBuilder moduleBeingBuilt = (PEModuleBuilder)context.Module;
foreach (var arg in UnderlyingMethod.TypeArguments)
{
yield return moduleBeingBuilt.Translate(arg, syntaxNodeOpt: (CSharpSyntaxNode)context.SyntaxNodeOpt, diagnostics: context.Diagnostics);
}
}
Cci.IMethodReference Cci.IGenericMethodInstanceReference.GetGenericMethod(EmitContext context)
{
// NoPia method might come through here.
return ((PEModuleBuilder)context.Module).Translate(
UnderlyingMethod.OriginalDefinition,
syntaxNodeOpt: context.SyntaxNodeOpt,
diagnostics: context.Diagnostics,
needDeclaration: true);
}
public byte[] SerializeMethodDebugInfo(EmitContext context, IMethodBody methodBody, uint methodToken, bool isEncDelta, bool suppressNewCustomDebugInfo, out bool emitExternNamespaces)
{
emitExternNamespaces = false;
// CONSIDER: this may not be the same "first" method as in Dev10, but
// it shouldn't matter since all methods will still forward to a method
// containing the appropriate information.
if (_methodBodyWithModuleInfo == null) //UNDONE: || edit-and-continue
{
// This module level information could go on every method (and does in
// the edit-and-continue case), but - as an optimization - we'll just
// put it on the first method we happen to encounter and then put a
// reference to the first method's token in every other method (so they
// can find the information).
if (context.Module.GetAssemblyReferenceAliases(context).Any())
{
_methodTokenWithModuleInfo = methodToken;
_methodBodyWithModuleInfo = methodBody;
emitExternNamespaces = true;
}
}
var customDebugInfo = ArrayBuilder<MemoryStream>.GetInstance();
SerializeIteratorClassMetadata(methodBody, customDebugInfo);
// NOTE: This is an attempt to match Dev10's apparent behavior. For iterator methods (i.e. the method
// that appears in source, not the synthesized ones), Dev10 only emits the ForwardIterator and IteratorLocal
// custom debug info (e.g. there will be no information about the usings that were in scope).
// NOTE: There seems to be an unusual behavior in ISymUnmanagedWriter where, if all the methods in a type are
// iterator methods, no custom debug info is emitted for any method. Adding a single non-iterator
// method causes the custom debug info to be produced for all methods (including the iterator methods).
// Since we are making the same ISymUnmanagedWriter calls as Dev10, we see the same behavior (i.e. this
// is not a regression).
if (methodBody.StateMachineTypeName == null)
{
SerializeNamespaceScopeMetadata(context, methodBody, customDebugInfo);
SerializeStateMachineLocalScopes(methodBody, customDebugInfo);
}
if (!suppressNewCustomDebugInfo)
{
SerializeDynamicLocalInfo(methodBody, customDebugInfo);
// delta doesn't need this information - we use information recorded by previous generation emit
if (!isEncDelta)
{
var encMethodInfo = MetadataWriter.GetEncMethodDebugInfo(methodBody);
SerializeCustomDebugInformation(encMethodInfo, customDebugInfo);
}
}
byte[] result = SerializeCustomDebugMetadata(customDebugInfo);
customDebugInfo.Free();
return result;
}
Cci.IAssemblyReference Cci.IModuleReference.GetContainingAssembly(EmitContext context)
{
if (this.moduleBeingBuilt.OutputKind.IsNetModule() &&
ReferenceEquals(moduleBeingBuilt.SourceModule.ContainingAssembly, underlyingModule.ContainingAssembly))
{
return null;
}
return moduleBeingBuilt.Translate(underlyingModule.ContainingAssembly, context.Diagnostics);
}
public PEDeltaAssemblyBuilder(
SourceAssemblySymbol sourceAssembly,
EmitOptions emitOptions,
OutputKind outputKind,
Cci.ModulePropertiesForSerialization serializationProperties,
IEnumerable<ResourceDescription> manifestResources,
EmitBaseline previousGeneration,
IEnumerable<SemanticEdit> edits,
Func<ISymbol, bool> isAddedSymbol)
: base(sourceAssembly, emitOptions, outputKind, serializationProperties, manifestResources, additionalTypes: ImmutableArray<NamedTypeSymbol>.Empty)
{
var initialBaseline = previousGeneration.InitialBaseline;
var context = new EmitContext(this, null, new DiagnosticBag());
// Hydrate symbols from initial metadata. Once we do so it is important to reuse these symbols across all generations,
// in order for the symbol matcher to be able to use reference equality once it maps symbols to initial metadata.
var metadataSymbols = GetOrCreateMetadataSymbols(initialBaseline, sourceAssembly.DeclaringCompilation);
var metadataDecoder = (MetadataDecoder)metadataSymbols.MetadataDecoder;
var metadataAssembly = (PEAssemblySymbol)metadataDecoder.ModuleSymbol.ContainingAssembly;
var matchToMetadata = new CSharpSymbolMatcher(metadataSymbols.AnonymousTypes, sourceAssembly, context, metadataAssembly);
CSharpSymbolMatcher matchToPrevious = null;
if (previousGeneration.Ordinal > 0)
{
var previousAssembly = ((CSharpCompilation)previousGeneration.Compilation).SourceAssembly;
var previousContext = new EmitContext((PEModuleBuilder)previousGeneration.PEModuleBuilder, null, new DiagnosticBag());
matchToPrevious = new CSharpSymbolMatcher(
previousGeneration.AnonymousTypeMap,
sourceAssembly: sourceAssembly,
sourceContext: context,
otherAssembly: previousAssembly,
otherContext: previousContext,
otherSynthesizedMembersOpt: previousGeneration.SynthesizedMembers);
}
_previousDefinitions = new CSharpDefinitionMap(previousGeneration.OriginalMetadata.Module, edits, metadataDecoder, matchToMetadata, matchToPrevious);
_previousGeneration = previousGeneration;
_changes = new SymbolChanges(_previousDefinitions, edits, isAddedSymbol);
// Workaround for https://github.com/dotnet/roslyn/issues/3192.
// When compiling state machine we stash types of awaiters and state-machine hoisted variables,
// so that next generation can look variables up and reuse their slots if possible.
//
// When we are about to allocate a slot for a lifted variable while compiling the next generation
// we map its type to the previous generation and then check the slot types that we stashed earlier.
// If the variable type matches we reuse it. In order to compare the previous variable type with the current one
// both need to be completely lowered (translated). Standard translation only goes one level deep.
// Generic arguments are not translated until they are needed by metadata writer.
//
// In order to get the fully lowered form we run the type symbols of stashed variables thru a deep translator
// that translates the symbol recursively.
_deepTranslator = new CSharpSymbolMatcher.DeepTranslator(sourceAssembly.GetSpecialType(SpecialType.System_Object));
}
public static MetadataWriter Create(
EmitContext context,
CommonMessageProvider messageProvider,
bool allowMissingMethodBodies,
bool deterministic,
CancellationToken cancellationToken)
{
var heaps = new MetadataHeapsBuilder();
return(new FullMetadataWriter(context, heaps, messageProvider, allowMissingMethodBodies, deterministic, cancellationToken));
}
Cci.PrimitiveTypeCode Cci.ITypeReference.TypeCode(EmitContext context)
{
Debug.Assert(this.IsDefinitionOrDistinct());
if (this.IsDefinition)
{
return this.PrimitiveTypeCode;
}
return Cci.PrimitiveTypeCode.NotPrimitive;
}
internal static void GetConsolidatedTypeArguments(this ITypeReference typeReference, ArrayBuilder<ITypeReference> consolidatedTypeArguments, EmitContext context)
{
INestedTypeReference nestedTypeReference = typeReference.AsNestedTypeReference;
nestedTypeReference?.GetContainingType(context).GetConsolidatedTypeArguments(consolidatedTypeArguments, context);
IGenericTypeInstanceReference genTypeInstance = typeReference.AsGenericTypeInstanceReference;
if (genTypeInstance != null)
{
consolidatedTypeArguments.AddRange(genTypeInstance.GetGenericArguments(context));
}
}
ImmutableArray<Cci.ITypeReference> Cci.IGenericTypeInstanceReference.GetGenericArguments(EmitContext context)
{
PEModuleBuilder moduleBeingBuilt = (PEModuleBuilder)context.Module;
var builder = ArrayBuilder<Cci.ITypeReference>.GetInstance();
foreach (TypeSymbol type in UnderlyingNamedType.TypeArgumentsNoUseSiteDiagnostics)
{
builder.Add(moduleBeingBuilt.Translate(type, syntaxNodeOpt: (CSharpSyntaxNode)context.SyntaxNodeOpt, diagnostics: context.Diagnostics));
}
return builder.ToImmutableAndFree();
}
private static void VisitTypeReference(Cci.ITypeReference typeReference, EmitContext context)
{
Debug.Assert(typeReference != null);
Cci.IArrayTypeReference arrayType = typeReference as Cci.IArrayTypeReference;
if (arrayType != null)
{
VisitTypeReference(arrayType.GetElementType(context), context);
return;
}
Cci.IPointerTypeReference pointerType = typeReference as Cci.IPointerTypeReference;
if (pointerType != null)
{
VisitTypeReference(pointerType.GetTargetType(context), context);
return;
}
Debug.Assert(!(typeReference is Cci.IManagedPointerTypeReference));
//Cci.IManagedPointerTypeReference managedPointerType = typeReference as Cci.IManagedPointerTypeReference;
//if (managedPointerType != null)
//{
// VisitTypeReference(managedPointerType.GetTargetType(this.context));
// return;
//}
Cci.IModifiedTypeReference modifiedType = typeReference as Cci.IModifiedTypeReference;
if (modifiedType != null)
{
foreach (var custModifier in modifiedType.CustomModifiers)
{
VisitTypeReference(custModifier.GetModifier(context), context);
}
VisitTypeReference(modifiedType.UnmodifiedType, context);
return;
}
// Visit containing type
Cci.INestedTypeReference nestedType = typeReference.AsNestedTypeReference;
if (nestedType != null)
{
VisitTypeReference(nestedType.GetContainingType(context), context);
}
// Visit generic arguments
Cci.IGenericTypeInstanceReference genericInstance = typeReference.AsGenericTypeInstanceReference;
if (genericInstance != null)
{
foreach (var arg in genericInstance.GetGenericArguments(context))
{
VisitTypeReference(arg, context);
}
}
}
Cci.ITypeReference Cci.ITypeMemberReference.GetContainingType(EmitContext context)
{
PEModuleBuilder moduleBeingBuilt = (PEModuleBuilder)context.Module;
Debug.Assert(this.IsDefinitionOrDistinct());
if (!this.IsDefinition)
{
return moduleBeingBuilt.Translate(this.ContainingType, context.SyntaxNodeOpt, context.Diagnostics);
}
return (Cci.ITypeReference)this.ContainingType;
}
Cci.ITypeReference Cci.IPointerTypeReference.GetTargetType(EmitContext context)
{
var type = ((PEModuleBuilder)context.Module).Translate(this.PointedAtType, syntaxNodeOpt: (CSharpSyntaxNode)context.SyntaxNodeOpt, diagnostics: context.Diagnostics);
if (this.CustomModifiers.Length == 0)
{
return type;
}
else
{
return new Cci.ModifiedTypeReference(type, this.CustomModifiers.As<Cci.ICustomModifier>());
}
}
Cci.ITypeReference Cci.IFieldReference.GetType(EmitContext context)
{
var customModifiers = underlyingField.CustomModifiers;
var type = ((PEModuleBuilder)context.Module).Translate(underlyingField.Type, syntaxNodeOpt: (CSharpSyntaxNode)context.SyntaxNodeOpt, diagnostics: context.Diagnostics);
if (customModifiers.Length == 0)
{
return type;
}
else
{
return new Cci.ModifiedTypeReference(type, customModifiers);
}
}
/// <summary>
/// Zero or more named arguments that specify values for fields and properties of the attribute.
/// </summary>
public ImmutableArray<Cci.IMetadataNamedArgument> GetNamedArguments(EmitContext context)
{
// Perform fixup
Cci.ITypeReference stringType = context.Module.GetPlatformType(Cci.PlatformType.SystemString, context);
#if DEBUG
// Must have exactly 1 named argument.
var namedArgs = this.sourceAttribute.GetNamedArguments(context);
Debug.Assert(namedArgs.Count() == 1);
// Named argument must be 'File' property of string type
var fileArg = namedArgs.First();
Debug.Assert(fileArg.ArgumentName == FilePropertyName);
Debug.Assert(context.Module.IsPlatformType(fileArg.Type, Cci.PlatformType.SystemString));
// Named argument value must be a non-empty string
Debug.Assert(fileArg.ArgumentValue is Cci.IMetadataConstant);
var fileName = (string)((Cci.IMetadataConstant)fileArg.ArgumentValue).Value;
Debug.Assert(!String.IsNullOrEmpty(fileName));
// PermissionSetAttribute type must have a writable public string type property member 'Hex'
Debug.Assert(((INamedTypeSymbol)this.sourceAttribute.GetType(context)).GetMembers(HexPropertyName).Any(
member => member.Kind == SymbolKind.Property && ((IPropertySymbol)member).Type.SpecialType == SpecialType.System_String));
#endif
string hexFileContent;
// Read the file contents at the resolved file path into a byte array.
// May throw PermissionSetFileReadException, which is handled in Compilation.Emit.
var resolver = context.ModuleBuilder.CommonCompilation.Options.XmlReferenceResolver;
// If the resolver isn't available we won't get here since we had to use it to resolve the path.
Debug.Assert(resolver != null);
try
{
using (Stream stream = resolver.OpenReadChecked(resolvedPermissionSetFilePath))
{
// Convert the byte array contents into a string in hexa-decimal format.
hexFileContent = ConvertToHex(stream);
}
}
catch (IOException e)
{
throw new PermissionSetFileReadException(e.Message, resolvedPermissionSetFilePath);
}
// Synthesize a named attribute argument "Hex = hexFileContent".
return ImmutableArray.Create<Cci.IMetadataNamedArgument>(new HexPropertyMetadataNamedArgument(stringType, new MetadataConstant(stringType, hexFileContent)));
}
public static MetadataWriter Create(
EmitContext context,
CommonMessageProvider messageProvider,
bool allowMissingMethodBodies,
bool deterministic,
bool hasPdbStream,
CancellationToken cancellationToken)
{
var heaps = new MetadataHeapsBuilder();
// Portable PDBs not supported yet:
MetadataHeapsBuilder debugHeapsOpt = null;
return(new FullMetadataWriter(context, heaps, debugHeapsOpt, messageProvider, allowMissingMethodBodies, deterministic, cancellationToken));
}
ImmutableArray<Cci.IMetadataNamedArgument> Cci.ICustomAttribute.GetNamedArguments(EmitContext context)
{
var commonArgs = this.CommonNamedArguments;
if (commonArgs.IsEmpty)
{
return ImmutableArray<Cci.IMetadataNamedArgument>.Empty;
}
var builder = ArrayBuilder<Cci.IMetadataNamedArgument>.GetInstance();
foreach (var namedArgument in commonArgs)
{
builder.Add(CreateMetadataNamedArgument(namedArgument.Key, namedArgument.Value, context));
}
return builder.ToImmutableAndFree();
}
Cci.ITypeReference Cci.IArrayTypeReference.GetElementType(EmitContext context)
{
PEModuleBuilder moduleBeingBuilt = (PEModuleBuilder)context.Module;
var type = moduleBeingBuilt.Translate(this.ElementType, syntaxNodeOpt: (CSharpSyntaxNode)context.SyntaxNodeOpt, diagnostics: context.Diagnostics);
if (this.CustomModifiers.Length == 0)
{
return type;
}
else
{
return new Cci.ModifiedTypeReference(type, this.CustomModifiers.As<Cci.ICustomModifier>());
}
}
ImmutableArray<Cci.IMetadataExpression> Cci.ICustomAttribute.GetArguments(EmitContext context)
{
var commonArgs = this.CommonConstructorArguments;
if (commonArgs.IsEmpty)
{
return ImmutableArray<Cci.IMetadataExpression>.Empty;
}
var builder = ArrayBuilder<Cci.IMetadataExpression>.GetInstance();
foreach (var argument in commonArgs)
{
Debug.Assert(argument.Kind != TypedConstantKind.Error);
builder.Add(CreateMetadataExpression(argument, context));
}
return builder.ToImmutableAndFree();
}
internal static ITypeReference GetUninstantiatedGenericType(this ITypeReference typeReference, EmitContext context)
{
IGenericTypeInstanceReference genericTypeInstanceReference = typeReference.AsGenericTypeInstanceReference;
if (genericTypeInstanceReference != null)
{
return genericTypeInstanceReference.GetGenericType(context);
}
ISpecializedNestedTypeReference specializedNestedType = typeReference.AsSpecializedNestedTypeReference;
if (specializedNestedType != null)
{
return specializedNestedType.GetUnspecializedVersion(context);
}
return typeReference;
}
/// <summary>
/// When emitting ref assemblies, some members will not be included.
/// </summary>
public static bool ShouldInclude(this ITypeDefinitionMember member, EmitContext context)
{
if (context.IncludePrivateMembers)
{
return(true);
}
var method = member as IMethodDefinition;
if (method != null && method.IsVirtual)
{
return(true);
}
bool acceptBasedOnVisibility = true;
switch (member.Visibility)
{
case TypeMemberVisibility.Private:
acceptBasedOnVisibility = context.IncludePrivateMembers;
break;
case TypeMemberVisibility.Assembly:
case TypeMemberVisibility.FamilyAndAssembly:
acceptBasedOnVisibility = context.IncludePrivateMembers || context.Module.SourceAssemblyOpt?.InternalsAreVisible == true;
break;
}
if (acceptBasedOnVisibility)
{
return(true);
}
if (method?.IsStatic == true)
{
foreach (var methodImplementation in method.ContainingTypeDefinition.GetExplicitImplementationOverrides(context))
{
if (methodImplementation.ImplementingMethod == method)
{
return(true);
}
}
}
return(false);
}
Cci.ITypeReference Cci.IFieldReference.GetType(EmitContext context)
{
PEModuleBuilder moduleBeingBuilt = (PEModuleBuilder)context.Module;
var customModifiers = this.CustomModifiers;
var isFixed = this.IsFixed;
var implType = isFixed ? this.FixedImplementationType(moduleBeingBuilt) : this.Type;
var type = moduleBeingBuilt.Translate(implType, context.SyntaxNodeOpt, context.Diagnostics);
if (isFixed || customModifiers.Length == 0)
{
return type;
}
else
{
return new Cci.ModifiedTypeReference(type, customModifiers.As<Cci.ICustomModifier>());
}
}
private Cci.IMetadataExpression CreateMetadataExpression(TypedConstant argument, EmitContext context)
{
if (argument.IsNull)
{
return CreateMetadataConstant(argument.Type, null, context);
}
switch (argument.Kind)
{
case TypedConstantKind.Array:
return CreateMetadataArray(argument, context);
case TypedConstantKind.Type:
return CreateType(argument, context);
default:
return CreateMetadataConstant(argument.Type, argument.Value, context);
}
}
Cci.ITypeReference Cci.ITypeMemberReference.GetContainingType(EmitContext context)
{
Debug.Assert(this.IsDefinitionOrDistinct());
var synthesizedGlobalMethod = this as SynthesizedGlobalMethodSymbol;
if ((object)synthesizedGlobalMethod != null)
{
return synthesizedGlobalMethod.ContainingPrivateImplementationDetailsType;
}
if (!this.IsDefinition)
{
PEModuleBuilder moduleBeingBuilt = (PEModuleBuilder)context.Module;
return moduleBeingBuilt.Translate(this.ContainingType,
syntaxNodeOpt: (CSharpSyntaxNode)context.SyntaxNodeOpt,
diagnostics: context.Diagnostics);
}
return this.ContainingType;
}
private FullMetadataWriter(
EmitContext context,
MetadataBuilder builder,
MetadataBuilder debugBuilderOpt,
DynamicAnalysisDataWriter dynamicAnalysisDataWriterOpt,
CommonMessageProvider messageProvider,
bool metadataOnly,
bool deterministic,
bool emitTestCoverageData,
CancellationToken cancellationToken)
: base(builder, debugBuilderOpt, dynamicAnalysisDataWriterOpt, context, messageProvider, metadataOnly, deterministic,
emitTestCoverageData, cancellationToken)
{
// EDMAURER make some intelligent guesses for the initial sizes of these things.
int numMethods = this.module.HintNumberOfMethodDefinitions;
int numTypeDefsGuess = numMethods / 6;
int numFieldDefsGuess = numTypeDefsGuess * 4;
int numPropertyDefsGuess = numMethods / 4;
_typeDefs = new DefinitionIndex <ITypeDefinition>(numTypeDefsGuess);
_eventDefs = new DefinitionIndex <IEventDefinition>(0);
_fieldDefs = new DefinitionIndex <IFieldDefinition>(numFieldDefsGuess);
_methodDefs = new DefinitionIndex <IMethodDefinition>(numMethods);
_propertyDefs = new DefinitionIndex <IPropertyDefinition>(numPropertyDefsGuess);
_parameterDefs = new DefinitionIndex <IParameterDefinition>(numMethods);
_genericParameters = new DefinitionIndex <IGenericParameter>(0);
_fieldDefIndex = new Dictionary <ITypeDefinition, int>(numTypeDefsGuess);
_methodDefIndex = new Dictionary <ITypeDefinition, int>(numTypeDefsGuess);
_parameterListIndex = new Dictionary <IMethodDefinition, int>(numMethods);
_assemblyRefIndex = new HeapOrReferenceIndex <AssemblyIdentity>(this);
_moduleRefIndex = new HeapOrReferenceIndex <string>(this);
_memberRefIndex = new InstanceAndStructuralReferenceIndex <ITypeMemberReference>(this, new MemberRefComparer(this));
_methodSpecIndex = new InstanceAndStructuralReferenceIndex <IGenericMethodInstanceReference>(this, new MethodSpecComparer(this));
_typeRefIndex = new HeapOrReferenceIndex <ITypeReference>(this);
_typeSpecIndex = new InstanceAndStructuralReferenceIndex <ITypeReference>(this, new TypeSpecComparer(this));
_standAloneSignatureIndex = new HeapOrReferenceIndex <BlobHandle>(this);
}
IEnumerable<Cci.IFileReference> Cci.IAssembly.GetFiles(EmitContext context)
{
if (_lazyFiles.IsDefault)
{
var builder = ArrayBuilder<Cci.IFileReference>.GetInstance();
try
{
var modules = _sourceAssembly.Modules;
for (int i = 1; i < modules.Length; i++)
{
builder.Add((Cci.IFileReference)Translate(modules[i], context.Diagnostics));
}
foreach (ResourceDescription resource in ManifestResources)
{
if (!resource.IsEmbedded)
{
builder.Add(resource);
}
}
// Dev12 compilers don't report ERR_CryptoHashFailed if there are no files to be hashed.
if (ImmutableInterlocked.InterlockedInitialize(ref _lazyFiles, builder.ToImmutable()) && _lazyFiles.Length > 0)
{
if (!CryptographicHashProvider.IsSupportedAlgorithm(_sourceAssembly.AssemblyHashAlgorithm))
{
context.Diagnostics.Add(new CSDiagnostic(new CSDiagnosticInfo(ErrorCode.ERR_CryptoHashFailed), NoLocation.Singleton));
}
}
}
finally
{
builder.Free();
}
}
return _lazyFiles;
}
public static void VisitReference(Cci.IReference reference, EmitContext context)
{
var typeReference = reference as Cci.ITypeReference;
if (typeReference != null)
{
VisitTypeReference(typeReference, context);
return;
}
var methodReference = reference as Cci.IMethodReference;
if (methodReference != null)
{
VisitMethodReference(methodReference, context);
return;
}
var fieldReference = reference as Cci.IFieldReference;
if (fieldReference != null)
{
VisitFieldReference(fieldReference, context);
return;
}
}
/// <summary>
/// Returns true if the namespace scope for this method should be forwarded to another method.
/// Returns non-null <paramref name="forwardToMethod"/> if the forwarding should be done directly via UsingNamespace,
/// null if the forwarding is done via custom debug info.
/// </summary>
public bool ShouldForwardNamespaceScopes(EmitContext context, IMethodBody methodBody, uint methodToken, out IMethodDefinition forwardToMethod)
{
if (ShouldForwardToPreviousMethodWithUsingInfo(context, methodBody) || methodBody.ImportScope == null)
{
// SerializeNamespaceScopeMetadata will do the actual forwarding in case this is a CSharp method.
// VB on the other hand adds a "@methodtoken" to the scopes instead.
if (context.Module.GenerateVisualBasicStylePdb)
{
forwardToMethod = _previousMethodBodyWithUsingInfo.MethodDefinition;
}
else
{
forwardToMethod = null;
}
return true;
}
_previousMethodBodyWithUsingInfo = methodBody;
_previousMethodTokenWithUsingInfo = methodToken;
forwardToMethod = null;
return false;
}
/// <summary> /// A list of the files that constitute the assembly. Empty for netmodule. These are not the source language files that may have been /// used to compile the assembly, but the files that contain constituent modules of a multi-module assembly as well /// as any external resources. It corresponds to the File table of the .NET assembly file format. /// </summary> public abstract IEnumerable <Cci.IFileReference> GetFiles(EmitContext context);
IEnumerable <Cci.ICustomAttribute> Cci.IReference.GetAttributes(EmitContext context) => SpecializedCollections.EmptyEnumerable <Cci.ICustomAttribute>();
/// <summary> /// Anonymous types defined in the compilation. /// </summary> public abstract IEnumerable <Cci.INamespaceTypeDefinition> GetAnonymousTypeDefinitions(EmitContext context);
/// <summary> /// Top-level embedded types (e.g. attribute types that are not present in referenced assemblies). /// </summary> public abstract IEnumerable <Cci.INamespaceTypeDefinition> GetEmbeddedTypeDefinitions(EmitContext context);
internal TypeReferenceIndexer(EmitContext context)
: base(context)
{
}
public override IEnumerable <Cci.INamespaceTypeDefinition> GetEmbeddedTypeDefinitions(EmitContext context) => GetEmbeddedTypes(context.Diagnostics);
public static bool WritePeToStream(
EmitContext context,
CommonMessageProvider messageProvider,
Func <Stream> getPeStream,
Func <Stream> getPortablePdbStreamOpt,
PdbWriter nativePdbWriterOpt,
string pdbPathOpt,
bool allowMissingMethodBodies,
bool isDeterministic,
CancellationToken cancellationToken)
{
// If PDB writer is given, we have to have PDB path.
Debug.Assert(nativePdbWriterOpt == null || pdbPathOpt != null);
var mdWriter = FullMetadataWriter.Create(context, messageProvider, allowMissingMethodBodies, isDeterministic, getPortablePdbStreamOpt != null, cancellationToken);
var properties = context.Module.SerializationProperties;
nativePdbWriterOpt?.SetMetadataEmitter(mdWriter);
// Since we are producing a full assembly, we should not have a module version ID
// imposed ahead-of time. Instead we will compute a deterministic module version ID
// based on the contents of the generated stream.
Debug.Assert(properties.PersistentIdentifier == default(Guid));
var ilBuilder = new BlobBuilder(32 * 1024);
var mappedFieldDataBuilder = new BlobBuilder();
var managedResourceBuilder = new BlobBuilder(1024);
Blob mvidFixup, mvidStringFixup;
mdWriter.BuildMetadataAndIL(
nativePdbWriterOpt,
ilBuilder,
mappedFieldDataBuilder,
managedResourceBuilder,
out mvidFixup,
out mvidStringFixup);
MethodDefinitionHandle entryPointHandle;
MethodDefinitionHandle debugEntryPointHandle;
mdWriter.GetEntryPoints(out entryPointHandle, out debugEntryPointHandle);
if (!debugEntryPointHandle.IsNil)
{
nativePdbWriterOpt?.SetEntryPoint((uint)MetadataTokens.GetToken(debugEntryPointHandle));
}
if (nativePdbWriterOpt != null)
{
if (context.Module.SourceLinkStreamOpt != null)
{
nativePdbWriterOpt.EmbedSourceLink(context.Module.SourceLinkStreamOpt);
}
if (mdWriter.Module.OutputKind == OutputKind.WindowsRuntimeMetadata)
{
// Dev12: If compiling to winmdobj, we need to add to PDB source spans of
// all types and members for better error reporting by WinMDExp.
nativePdbWriterOpt.WriteDefinitionLocations(mdWriter.Module.GetSymbolToLocationMap());
}
else
{
#if DEBUG
// validate that all definitions are writable
// if same scenario would happen in an winmdobj project
nativePdbWriterOpt.AssertAllDefinitionsHaveTokens(mdWriter.Module.GetSymbolToLocationMap());
#endif
}
// embedded text not currently supported for native PDB and we should have validated that
Debug.Assert(!mdWriter.Module.DebugDocumentsBuilder.EmbeddedDocuments.Any());
}
Stream peStream = getPeStream();
if (peStream == null)
{
return(false);
}
BlobContentId pdbContentId = nativePdbWriterOpt?.GetContentId() ?? default(BlobContentId);
// the writer shall not be used after this point for writing:
nativePdbWriterOpt = null;
ushort portablePdbVersion = 0;
var metadataRootBuilder = mdWriter.GetRootBuilder();
var peHeaderBuilder = new PEHeaderBuilder(
machine: properties.Machine,
sectionAlignment: properties.SectionAlignment,
fileAlignment: properties.FileAlignment,
imageBase: properties.BaseAddress,
majorLinkerVersion: properties.LinkerMajorVersion,
minorLinkerVersion: properties.LinkerMinorVersion,
majorOperatingSystemVersion: 4,
minorOperatingSystemVersion: 0,
majorImageVersion: 0,
minorImageVersion: 0,
majorSubsystemVersion: properties.MajorSubsystemVersion,
minorSubsystemVersion: properties.MinorSubsystemVersion,
subsystem: properties.Subsystem,
dllCharacteristics: properties.DllCharacteristics,
imageCharacteristics: properties.ImageCharacteristics,
sizeOfStackReserve: properties.SizeOfStackReserve,
sizeOfStackCommit: properties.SizeOfStackCommit,
sizeOfHeapReserve: properties.SizeOfHeapReserve,
sizeOfHeapCommit: properties.SizeOfHeapCommit);
var deterministicIdProvider = isDeterministic ?
new Func <IEnumerable <Blob>, BlobContentId>(content => BlobContentId.FromHash(CryptographicHashProvider.ComputeSha1(content))) :
null;
BlobBuilder portablePdbToEmbed = null;
if (mdWriter.EmitStandaloneDebugMetadata)
{
mdWriter.AddRemainingEmbeddedDocuments(mdWriter.Module.DebugDocumentsBuilder.EmbeddedDocuments);
var portablePdbBlob = new BlobBuilder();
var portablePdbBuilder = mdWriter.GetPortablePdbBuilder(metadataRootBuilder.Sizes.RowCounts, debugEntryPointHandle, deterministicIdProvider);
pdbContentId = portablePdbBuilder.Serialize(portablePdbBlob);
portablePdbVersion = portablePdbBuilder.FormatVersion;
if (getPortablePdbStreamOpt == null)
{
// embed to debug directory:
portablePdbToEmbed = portablePdbBlob;
}
else
{
// write to Portable PDB stream:
Stream portablePdbStream = getPortablePdbStreamOpt();
if (portablePdbStream != null)
{
portablePdbBlob.WriteContentTo(portablePdbStream);
}
}
}
DebugDirectoryBuilder debugDirectoryBuilder;
if (pdbPathOpt != null || isDeterministic || portablePdbToEmbed != null)
{
debugDirectoryBuilder = new DebugDirectoryBuilder();
if (pdbPathOpt != null)
{
string paddedPath = isDeterministic ? pdbPathOpt : PadPdbPath(pdbPathOpt);
debugDirectoryBuilder.AddCodeViewEntry(paddedPath, pdbContentId, portablePdbVersion);
}
if (isDeterministic)
{
debugDirectoryBuilder.AddReproducibleEntry();
}
if (portablePdbToEmbed != null)
{
debugDirectoryBuilder.AddEmbeddedPortablePdbEntry(portablePdbToEmbed, portablePdbVersion);
}
}
else
{
debugDirectoryBuilder = null;
}
var peBuilder = new ManagedPEBuilder(
peHeaderBuilder,
metadataRootBuilder,
ilBuilder,
mappedFieldDataBuilder,
managedResourceBuilder,
CreateNativeResourceSectionSerializer(context.Module),
debugDirectoryBuilder,
CalculateStrongNameSignatureSize(context.Module),
entryPointHandle,
properties.CorFlags,
deterministicIdProvider);
var peBlob = new BlobBuilder();
var peContentId = peBuilder.Serialize(peBlob);
PatchModuleVersionIds(mvidFixup, mvidStringFixup, peContentId.Guid);
try
{
peBlob.WriteContentTo(peStream);
}
catch (Exception e) when(!(e is OperationCanceledException))
{
throw new PeWritingException(e);
}
return(true);
}
internal ReferenceIndexerBase(EmitContext context)
: base(context)
{
}
internal NoPiaReferenceIndexer(EmitContext context)
: base(context)
{
}
/// <summary>
/// Returns all top-level (not nested) types defined in the module.
/// </summary>
public override IEnumerable <Cci.INamespaceTypeDefinition> GetTopLevelTypeDefinitions(EmitContext context)
{
Cci.TypeReferenceIndexer typeReferenceIndexer = null;
HashSet <string> names;
// First time through, we need to collect emitted names of all top level types.
if (_namesOfTopLevelTypes == null)
{
names = new HashSet <string>();
}
else
{
names = null;
}
// First time through, we need to push things through TypeReferenceIndexer
// to make sure we collect all to be embedded NoPia types and members.
if (EmbeddedTypesManagerOpt != null && !EmbeddedTypesManagerOpt.IsFrozen)
{
typeReferenceIndexer = new Cci.TypeReferenceIndexer(context);
Debug.Assert(names != null);
// Run this reference indexer on the assembly- and module-level attributes first.
// We'll run it on all other types below.
// The purpose is to trigger Translate on all types.
Dispatch(typeReferenceIndexer);
}
AddTopLevelType(names, RootModuleType);
VisitTopLevelType(typeReferenceIndexer, RootModuleType);
yield return(RootModuleType);
foreach (var typeDef in GetAnonymousTypeDefinitions(context))
{
AddTopLevelType(names, typeDef);
VisitTopLevelType(typeReferenceIndexer, typeDef);
yield return(typeDef);
}
foreach (var typeDef in GetTopLevelTypeDefinitionsCore(context))
{
AddTopLevelType(names, typeDef);
VisitTopLevelType(typeReferenceIndexer, typeDef);
yield return(typeDef);
}
var privateImpl = PrivateImplClass;
if (privateImpl != null)
{
AddTopLevelType(names, privateImpl);
VisitTopLevelType(typeReferenceIndexer, privateImpl);
yield return(privateImpl);
}
if (EmbeddedTypesManagerOpt != null)
{
foreach (var embedded in EmbeddedTypesManagerOpt.GetTypes(context.Diagnostics, names))
{
AddTopLevelType(names, embedded);
yield return(embedded);
}
}
if (names != null)
{
Debug.Assert(_namesOfTopLevelTypes == null);
_namesOfTopLevelTypes = names;
}
}
/// <summary> /// Top-level named types defined in source. /// </summary> public abstract IEnumerable <Cci.INamespaceTypeDefinition> GetTopLevelSourceTypeDefinitions(EmitContext context);
public Cci.IAssemblyReference GetContainingAssembly(EmitContext context)
{
return(OutputKind == OutputKind.NetModule ? null : (Cci.IAssemblyReference) this);
}
/// <summary>
/// Assembly reference aliases (C# only).
/// </summary>
public ImmutableArray <Cci.AssemblyReferenceAlias> GetAssemblyReferenceAliases(EmitContext context)
{
if (_lazyAssemblyReferenceAliases.IsDefault)
{
ImmutableInterlocked.InterlockedCompareExchange(ref _lazyAssemblyReferenceAliases, CalculateAssemblyReferenceAliases(context), default(ImmutableArray <Cci.AssemblyReferenceAlias>));
}
return(_lazyAssemblyReferenceAliases);
}
public void BaseInterfacesInMetadata()
{
var text = @"
interface I1 { }
interface I2 : I1 { }
class C : I2 { }
";
var comp = CreateCompilationWithMscorlib(text);
var global = comp.GlobalNamespace;
var baseInterface = global.GetMember<NamedTypeSymbol>("I1");
var derivedInterface = global.GetMember<NamedTypeSymbol>("I2");
var @class = global.GetMember<NamedTypeSymbol>("C");
var bothInterfaces = ImmutableArray.Create<NamedTypeSymbol>(baseInterface, derivedInterface);
Assert.Equal(baseInterface, derivedInterface.AllInterfaces.Single());
Assert.Equal(derivedInterface, @class.Interfaces.Single());
Assert.True(@class.AllInterfaces.SetEquals(bothInterfaces, EqualityComparer<NamedTypeSymbol>.Default));
var typeDef = (Cci.ITypeDefinition)@class;
var module = new PEAssemblyBuilder((SourceAssemblySymbol)@class.ContainingAssembly, EmitOptions.Default, OutputKind.DynamicallyLinkedLibrary,
GetDefaultModulePropertiesForSerialization(), SpecializedCollections.EmptyEnumerable<ResourceDescription>());
var context = new EmitContext(module, null, new DiagnosticBag());
var cciInterfaces = typeDef.Interfaces(context).Cast<NamedTypeSymbol>().AsImmutable();
Assert.True(cciInterfaces.SetEquals(bothInterfaces, EqualityComparer<NamedTypeSymbol>.Default));
context.Diagnostics.Verify();
}
Cci.IDefinition Cci.IReference.AsDefinition(EmitContext context)
{
Debug.Assert(ReferenceEquals(context.Module, this));
return(this);
}
private ImmutableArray <Cci.AssemblyReferenceAlias> CalculateAssemblyReferenceAliases(EmitContext context)
{
var result = ArrayBuilder <Cci.AssemblyReferenceAlias> .GetInstance();
foreach (var assemblyAndAliases in CommonCompilation.GetBoundReferenceManager().GetReferencedAssemblyAliases())
{
var assembly = assemblyAndAliases.Item1;
var aliases = assemblyAndAliases.Item2;
for (int i = 0; i < aliases.Length; i++)
{
string alias = aliases[i];
// filter out duplicates and global aliases:
if (alias != MetadataReferenceProperties.GlobalAlias && aliases.IndexOf(alias, 0, i) < 0)
{
result.Add(new Cci.AssemblyReferenceAlias(alias, Translate(assembly, context.Diagnostics)));
}
}
}
return(result.ToImmutableAndFree());
}
/// <summary>
/// CorLibrary assembly referenced by this module.
/// </summary>
public Cci.IAssemblyReference GetCorLibrary(EmitContext context)
{
return(Translate(CommonCorLibrary, context.Diagnostics));
}
public override IEnumerable <Cci.INamespaceTypeDefinition> GetAdditionalTopLevelTypeDefinitions(EmitContext context) => GetAdditionalTopLevelTypes(context.Diagnostics);
internal static bool WritePeToStream(
EmitContext context,
CommonMessageProvider messageProvider,
Func <Stream> getPeStream,
Func <Stream> getPortablePdbStreamOpt,
PdbWriter nativePdbWriterOpt,
string pdbPathOpt,
bool metadataOnly,
bool isDeterministic,
bool emitTestCoverageData,
RSAParameters?privateKeyOpt,
CancellationToken cancellationToken)
{
// If PDB writer is given, we have to have PDB path.
Debug.Assert(nativePdbWriterOpt == null || pdbPathOpt != null);
var mdWriter = FullMetadataWriter.Create(context, messageProvider, metadataOnly, isDeterministic,
emitTestCoverageData, getPortablePdbStreamOpt != null, cancellationToken);
var properties = context.Module.SerializationProperties;
nativePdbWriterOpt?.SetMetadataEmitter(mdWriter);
// Since we are producing a full assembly, we should not have a module version ID
// imposed ahead-of time. Instead we will compute a deterministic module version ID
// based on the contents of the generated stream.
Debug.Assert(properties.PersistentIdentifier == default(Guid));
var ilBuilder = new BlobBuilder(32 * 1024);
var mappedFieldDataBuilder = new BlobBuilder();
var managedResourceBuilder = new BlobBuilder(1024);
Blob mvidFixup, mvidStringFixup;
mdWriter.BuildMetadataAndIL(
nativePdbWriterOpt,
ilBuilder,
mappedFieldDataBuilder,
managedResourceBuilder,
out mvidFixup,
out mvidStringFixup);
MethodDefinitionHandle entryPointHandle;
MethodDefinitionHandle debugEntryPointHandle;
mdWriter.GetEntryPoints(out entryPointHandle, out debugEntryPointHandle);
if (!debugEntryPointHandle.IsNil)
{
nativePdbWriterOpt?.SetEntryPoint(MetadataTokens.GetToken(debugEntryPointHandle));
}
if (nativePdbWriterOpt != null)
{
if (context.Module.SourceLinkStreamOpt != null)
{
nativePdbWriterOpt.EmbedSourceLink(context.Module.SourceLinkStreamOpt);
}
if (mdWriter.Module.OutputKind == OutputKind.WindowsRuntimeMetadata)
{
// Dev12: If compiling to winmdobj, we need to add to PDB source spans of
// all types and members for better error reporting by WinMDExp.
nativePdbWriterOpt.WriteDefinitionLocations(mdWriter.Module.GetSymbolToLocationMap());
}
else
{
#if DEBUG
// validate that all definitions are writable
// if same scenario would happen in an winmdobj project
nativePdbWriterOpt.AssertAllDefinitionsHaveTokens(mdWriter.Module.GetSymbolToLocationMap());
#endif
}
nativePdbWriterOpt.WriteRemainingEmbeddedDocuments(mdWriter.Module.DebugDocumentsBuilder.EmbeddedDocuments);
}
Stream peStream = getPeStream();
if (peStream == null)
{
return(false);
}
BlobContentId pdbContentId = nativePdbWriterOpt?.GetContentId() ?? default;
// the writer shall not be used after this point for writing:
nativePdbWriterOpt = null;
ushort portablePdbVersion = 0;
var metadataRootBuilder = mdWriter.GetRootBuilder();
var peHeaderBuilder = new PEHeaderBuilder(
machine: properties.Machine,
sectionAlignment: properties.SectionAlignment,
fileAlignment: properties.FileAlignment,
imageBase: properties.BaseAddress,
majorLinkerVersion: properties.LinkerMajorVersion,
minorLinkerVersion: properties.LinkerMinorVersion,
majorOperatingSystemVersion: 4,
minorOperatingSystemVersion: 0,
majorImageVersion: 0,
minorImageVersion: 0,
majorSubsystemVersion: properties.MajorSubsystemVersion,
minorSubsystemVersion: properties.MinorSubsystemVersion,
subsystem: properties.Subsystem,
dllCharacteristics: properties.DllCharacteristics,
imageCharacteristics: properties.ImageCharacteristics,
sizeOfStackReserve: properties.SizeOfStackReserve,
sizeOfStackCommit: properties.SizeOfStackCommit,
sizeOfHeapReserve: properties.SizeOfHeapReserve,
sizeOfHeapCommit: properties.SizeOfHeapCommit);
// TODO: replace SHA1 with non-crypto alg: https://github.com/dotnet/roslyn/issues/24737
var peIdProvider = isDeterministic ?
new Func <IEnumerable <Blob>, BlobContentId>(content => BlobContentId.FromHash(CryptographicHashProvider.ComputeHash(HashAlgorithmName.SHA1, content))) :
null;
// We need to calculate the PDB checksum, so we may as well use the calculated hash for PDB ID regardless of whether deterministic build is requested.
var portablePdbContentHash = default(ImmutableArray <byte>);
BlobBuilder portablePdbToEmbed = null;
if (mdWriter.EmitPortableDebugMetadata)
{
mdWriter.AddRemainingEmbeddedDocuments(mdWriter.Module.DebugDocumentsBuilder.EmbeddedDocuments);
// The algorithm must be specified for deterministic builds (checked earlier).
Debug.Assert(!isDeterministic || context.Module.PdbChecksumAlgorithm.Name != null);
var portablePdbIdProvider = (context.Module.PdbChecksumAlgorithm.Name != null) ?
new Func <IEnumerable <Blob>, BlobContentId>(content => BlobContentId.FromHash(portablePdbContentHash = CryptographicHashProvider.ComputeHash(context.Module.PdbChecksumAlgorithm, content))) :
null;
var portablePdbBlob = new BlobBuilder();
var portablePdbBuilder = mdWriter.GetPortablePdbBuilder(metadataRootBuilder.Sizes.RowCounts, debugEntryPointHandle, portablePdbIdProvider);
pdbContentId = portablePdbBuilder.Serialize(portablePdbBlob);
portablePdbVersion = portablePdbBuilder.FormatVersion;
if (getPortablePdbStreamOpt == null)
{
// embed to debug directory:
portablePdbToEmbed = portablePdbBlob;
}
else
{
// write to Portable PDB stream:
Stream portablePdbStream = getPortablePdbStreamOpt();
if (portablePdbStream != null)
{
try
{
portablePdbBlob.WriteContentTo(portablePdbStream);
}
catch (Exception e) when(!(e is OperationCanceledException))
{
throw new SymUnmanagedWriterException(e.Message, e);
}
}
}
}
DebugDirectoryBuilder debugDirectoryBuilder;
if (pdbPathOpt != null || isDeterministic || portablePdbToEmbed != null)
{
debugDirectoryBuilder = new DebugDirectoryBuilder();
if (pdbPathOpt != null)
{
string paddedPath = isDeterministic ? pdbPathOpt : PadPdbPath(pdbPathOpt);
debugDirectoryBuilder.AddCodeViewEntry(paddedPath, pdbContentId, portablePdbVersion);
if (!portablePdbContentHash.IsDefault)
{
// Emit PDB Checksum entry for Portable and Embedded PDBs. The checksum is not as useful when the PDB is embedded,
// however it allows the client to efficiently validate a standalone Portable PDB that
// has been extracted from Embedded PDB and placed next to the PE file.
debugDirectoryBuilder.AddPdbChecksumEntry(context.Module.PdbChecksumAlgorithm.Name, portablePdbContentHash);
}
}
if (isDeterministic)
{
debugDirectoryBuilder.AddReproducibleEntry();
}
if (portablePdbToEmbed != null)
{
debugDirectoryBuilder.AddEmbeddedPortablePdbEntry(portablePdbToEmbed, portablePdbVersion);
}
}
else
{
debugDirectoryBuilder = null;
}
var strongNameProvider = context.Module.CommonCompilation.Options.StrongNameProvider;
var corFlags = properties.CorFlags;
var peBuilder = new ExtendedPEBuilder(
peHeaderBuilder,
metadataRootBuilder,
ilBuilder,
mappedFieldDataBuilder,
managedResourceBuilder,
CreateNativeResourceSectionSerializer(context.Module),
debugDirectoryBuilder,
CalculateStrongNameSignatureSize(context.Module, privateKeyOpt),
entryPointHandle,
corFlags,
peIdProvider,
metadataOnly && !context.IncludePrivateMembers);
var peBlob = new BlobBuilder();
var peContentId = peBuilder.Serialize(peBlob, out Blob mvidSectionFixup);
PatchModuleVersionIds(mvidFixup, mvidSectionFixup, mvidStringFixup, peContentId.Guid);
if (privateKeyOpt != null && corFlags.HasFlag(CorFlags.StrongNameSigned))
{
Debug.Assert(strongNameProvider.Capability == SigningCapability.SignsPeBuilder);
strongNameProvider.SignPeBuilder(peBuilder, peBlob, privateKeyOpt.Value);
}
try
{
peBlob.WriteContentTo(peStream);
}
catch (Exception e) when(!(e is OperationCanceledException))
{
throw new PeWritingException(e);
}
return(true);
}
Cci.ITypeReference Cci.IParameterTypeInformation.GetType(EmitContext context)
{
return type;
}
public abstract Cci.ITypeReference GetPlatformType(Cci.PlatformType platformType, EmitContext context);
public IEnumerable <Cci.INamespaceTypeDefinition> GetTopLevelTypeDefinitionsCore(EmitContext context)
{
foreach (var typeDef in GetAdditionalTopLevelTypeDefinitions(context))
{
yield return(typeDef);
}
foreach (var typeDef in GetEmbeddedTypeDefinitions(context))
{
yield return(typeDef);
}
foreach (var typeDef in GetTopLevelSourceTypeDefinitions(context))
{
yield return(typeDef);
}
}
Cci.ITypeReference Cci.IParameterTypeInformation.GetType(EmitContext context)
{
return ((PEModuleBuilder)context.Module).Translate(UnderlyingParameter.Type, syntaxNodeOpt: (CSharpSyntaxNode)context.SyntaxNodeOpt, diagnostics: context.Diagnostics);
}
protected abstract Cci.IAssemblyReference GetCorLibraryReferenceToEmit(EmitContext context);