/// <summary>
/// Invoked by <see cref="InteractiveHost"/> when a new process is being started.
/// </summary>
private void ProcessStarting(bool initialize)
{
var textView = GetCurrentWindowOrThrow().TextView;
var dispatcher = ((FrameworkElement)textView).Dispatcher;
if (!dispatcher.CheckAccess())
{
dispatcher.BeginInvoke(new Action(() => ProcessStarting(initialize)));
return;
}
// Freeze all existing classifications and then clear the list of submission buffers we have.
_submissionBuffers.Remove(_currentSubmissionBuffer); // if present
foreach (var textBuffer in _submissionBuffers)
{
InertClassifierProvider.CaptureExistingClassificationSpans(_classifierAggregator, textView, textBuffer);
}
_submissionBuffers.Clear();
// We always start out empty
_workspace.ClearSolution();
_currentSubmissionProjectId = null;
_previousSubmissionProjectId = null;
var metadataService = _workspace.CurrentSolution.Services.MetadataService;
var mscorlibRef = metadataService.GetReference(typeof(object).Assembly.Location, MetadataReferenceProperties.Assembly);
var interactiveHostObjectRef = metadataService.GetReference(typeof(InteractiveScriptGlobals).Assembly.Location, Script.HostAssemblyReferenceProperties);
_responseFileReferences = ImmutableArray.Create<MetadataReference>(mscorlibRef, interactiveHostObjectRef);
_responseFileImports = ImmutableArray<string>.Empty;
_initialScriptFileOpt = null;
ReferenceSearchPaths = ImmutableArray<string>.Empty;
SourceSearchPaths = ImmutableArray<string>.Empty;
if (initialize && File.Exists(_responseFilePath))
{
// The base directory for relative paths is the directory that contains the .rsp file.
// Note that .rsp files included by this .rsp file will share the base directory (Dev10 behavior of csc/vbc).
var responseFileDirectory = Path.GetDirectoryName(_responseFilePath);
var args = this.CommandLineParser.Parse(new[] { "@" + _responseFilePath }, responseFileDirectory, RuntimeEnvironment.GetRuntimeDirectory(), null);
if (args.Errors.Length == 0)
{
var metadataResolver = CreateMetadataReferenceResolver(metadataService, args.ReferencePaths, responseFileDirectory);
var sourceResolver = CreateSourceReferenceResolver(args.SourcePaths, responseFileDirectory);
// ignore unresolved references, they will be reported in the interactive window:
var responseFileReferences = args.ResolveMetadataReferences(metadataResolver).Where(r => !(r is UnresolvedMetadataReference));
_initialScriptFileOpt = args.SourceFiles.IsEmpty ? null : args.SourceFiles[0].Path;
ReferenceSearchPaths = args.ReferencePaths;
SourceSearchPaths = args.SourcePaths;
_responseFileReferences = _responseFileReferences.AddRange(responseFileReferences);
_responseFileImports = CommandLineHelpers.GetImports(args);
}
}
_metadataReferenceResolver = CreateMetadataReferenceResolver(metadataService, ReferenceSearchPaths, _initialWorkingDirectory);
_sourceReferenceResolver = CreateSourceReferenceResolver(SourceSearchPaths, _initialWorkingDirectory);
// create the first submission project in the workspace after reset:
if (_currentSubmissionBuffer != null)
{
AddSubmission(_currentSubmissionBuffer, this.LanguageName);
}
}
protected override void AddTrackedEntities(ImmutableArray <AnalysisEntity> .Builder builder) => builder.AddRange(CurrentAnalysisData.Keys);
private static void AddNonLocalDiagnostics(
ImmutableDictionary<DiagnosticAnalyzer, ImmutableArray<Diagnostic>> nonLocalDiagnostics,
ImmutableHashSet<DiagnosticAnalyzer> excludedAnalyzers,
ImmutableArray<Diagnostic>.Builder builder)
{
foreach (var diagnosticsByAnalyzer in nonLocalDiagnostics)
{
if (excludedAnalyzers.Contains(diagnosticsByAnalyzer.Key))
{
continue;
}
builder.AddRange(diagnosticsByAnalyzer.Value);
}
}
private async Task <DiagnosticFixResult> FixDiagnosticsAsync(
DiagnosticDescriptor descriptor,
ImmutableArray <DiagnosticAnalyzer> analyzers,
ImmutableArray <CodeFixProvider> fixers,
Project project,
CancellationToken cancellationToken)
{
ImmutableArray <Diagnostic> .Builder fixedDiagnostics = ImmutableArray.CreateBuilder <Diagnostic>();
ImmutableArray <Diagnostic> diagnostics = ImmutableArray <Diagnostic> .Empty;
ImmutableArray <Diagnostic> previousDiagnostics = ImmutableArray <Diagnostic> .Empty;
ImmutableArray <Diagnostic> previousDiagnosticsToFix = ImmutableArray <Diagnostic> .Empty;
int length = 0;
var fixKind = DiagnosticFixKind.NotFixed;
while (true)
{
Compilation compilation = await project.GetCompilationAsync(cancellationToken).ConfigureAwait(false);
ImmutableArray <Diagnostic> compilerDiagnostics = compilation.GetDiagnostics(cancellationToken);
if (!VerifyCompilerDiagnostics(compilerDiagnostics, project))
{
fixKind = DiagnosticFixKind.CompilerError;
if (!previousDiagnostics.Any())
{
break;
}
}
if (analyzers.IsDefault)
{
diagnostics = compilerDiagnostics;
}
else
{
diagnostics = await GetAnalyzerDiagnosticsAsync(compilation, analyzers, project.AnalyzerOptions, cancellationToken).ConfigureAwait(false);
}
diagnostics = diagnostics
.Where(f => f.Id == descriptor.Id && f.Severity >= Options.SeverityLevel)
.ToImmutableArray();
if (fixKind == DiagnosticFixKind.CompilerError)
{
break;
}
else if (fixKind == DiagnosticFixKind.Success)
{
if (Options.BatchSize <= 0 ||
length <= Options.BatchSize)
{
break;
}
}
else if (previousDiagnostics.Any() &&
fixKind != DiagnosticFixKind.PartiallyFixed)
{
break;
}
length = diagnostics.Length;
if (length == 0)
{
break;
}
if (length == previousDiagnostics.Length &&
!diagnostics.Except(previousDiagnostics, DiagnosticDeepEqualityComparer.Instance).Any())
{
break;
}
fixedDiagnostics.AddRange(previousDiagnosticsToFix.Except(diagnostics, DiagnosticDeepEqualityComparer.Instance));
previousDiagnostics = diagnostics;
if (Options.FixAllScope == FixAllScope.Document)
{
foreach (IGrouping <SyntaxTree, Diagnostic> grouping in diagnostics
.GroupBy(f => f.Location.SourceTree)
.OrderByDescending(f => f.Count()))
{
IEnumerable <Diagnostic> syntaxTreeDiagnostics = grouping.AsEnumerable();
if (Options.BatchSize > 0)
{
syntaxTreeDiagnostics = syntaxTreeDiagnostics.Take(Options.BatchSize);
}
ImmutableArray <Diagnostic> diagnosticsCandidate = syntaxTreeDiagnostics.ToImmutableArray();
DiagnosticFixKind fixKindCandidate = await FixDiagnosticsAsync(diagnosticsCandidate, descriptor, fixers, project, cancellationToken).ConfigureAwait(false);
if (fixKindCandidate == DiagnosticFixKind.Success ||
fixKindCandidate == DiagnosticFixKind.PartiallyFixed)
{
diagnostics = diagnosticsCandidate;
fixKind = fixKindCandidate;
break;
}
}
}
else
{
if (Options.BatchSize > 0 &&
length > Options.BatchSize)
{
diagnostics = ImmutableArray.CreateRange(diagnostics, 0, Options.BatchSize, f => f);
}
fixKind = await FixDiagnosticsAsync(diagnostics, descriptor, fixers, project, cancellationToken).ConfigureAwait(false);
}
previousDiagnosticsToFix = diagnostics;
project = CurrentSolution.GetProject(project.Id);
}
fixedDiagnostics.AddRange(previousDiagnosticsToFix.Except(diagnostics, DiagnosticDeepEqualityComparer.Instance));
return(new DiagnosticFixResult(fixKind, fixedDiagnostics.ToImmutableArray()));
}
private async Task <DiagnosticFixResult> FixDiagnosticsAsync(
DiagnosticDescriptor descriptor,
ImmutableArray <DiagnosticAnalyzer> analyzers,
ImmutableArray <CodeFixProvider> fixers,
Project project,
CancellationToken cancellationToken)
{
ImmutableArray <Diagnostic> .Builder fixedDiagostics = ImmutableArray.CreateBuilder <Diagnostic>();
ImmutableArray <Diagnostic> diagnostics = ImmutableArray <Diagnostic> .Empty;
ImmutableArray <Diagnostic> previousDiagnostics = ImmutableArray <Diagnostic> .Empty;
ImmutableArray <Diagnostic> previousDiagnosticsToFix = ImmutableArray <Diagnostic> .Empty;
int length = 0;
var fixKind = DiagnosticFixKind.NotFixed;
while (true)
{
Compilation compilation = await project.GetCompilationAsync(cancellationToken).ConfigureAwait(false);
ImmutableArray <Diagnostic> compilerDiagnostics = compilation.GetDiagnostics(cancellationToken);
if (!VerifyCompilerDiagnostics(compilerDiagnostics, project))
{
fixKind = DiagnosticFixKind.CompilerError;
if (!previousDiagnostics.Any())
{
break;
}
}
if (analyzers.IsDefault)
{
diagnostics = compilerDiagnostics;
}
else
{
diagnostics = await compilation.GetAnalyzerDiagnosticsAsync(analyzers, Options.CompilationWithAnalyzersOptions, cancellationToken).ConfigureAwait(false);
}
diagnostics = diagnostics
.Where(f => f.Id == descriptor.Id && f.Severity >= Options.SeverityLevel)
.ToImmutableArray();
if (fixKind == DiagnosticFixKind.CompilerError)
{
break;
}
else if (fixKind == DiagnosticFixKind.Success)
{
if (Options.BatchSize <= 0 ||
length <= Options.BatchSize)
{
break;
}
}
else if (previousDiagnostics.Any() &&
fixKind != DiagnosticFixKind.PartiallyFixed)
{
break;
}
length = diagnostics.Length;
if (length == 0)
{
break;
}
if (length == previousDiagnostics.Length &&
!diagnostics.Except(previousDiagnostics, DiagnosticDeepEqualityComparer.Instance).Any())
{
break;
}
fixedDiagostics.AddRange(previousDiagnosticsToFix.Except(diagnostics, DiagnosticDeepEqualityComparer.Instance));
previousDiagnostics = diagnostics;
if (Options.BatchSize > 0 &&
length > Options.BatchSize)
{
diagnostics = ImmutableArray.CreateRange(diagnostics, 0, Options.BatchSize, f => f);
}
fixKind = await FixDiagnosticsAsync(diagnostics, descriptor, fixers, project, cancellationToken).ConfigureAwait(false);
previousDiagnosticsToFix = diagnostics;
project = CurrentSolution.GetProject(project.Id);
}
fixedDiagostics.AddRange(previousDiagnosticsToFix.Except(diagnostics, DiagnosticDeepEqualityComparer.Instance));
return(new DiagnosticFixResult(fixKind, fixedDiagostics.ToImmutableArray()));
}
public static void AddRangeAsBuilders <TCore, TBuilder>(this ImmutableArray <TBuilder> .Builder builders, ImmutableArray <TCore> cores)
where TCore : IBuildable <TCore, TBuilder>
where TBuilder : IBuilder <TCore>
{
builders.AddRange(cores.Select(x => x.ToBuilder()));
}
private void ResolveAndBindMissingAssemblies(
TCompilation compilation,
ImmutableArray <AssemblyData> explicitAssemblies,
ImmutableArray <PEModule> explicitModules,
ImmutableArray <MetadataReference> explicitReferences,
ImmutableArray <ResolvedReference> explicitReferenceMap,
MetadataReferenceResolver resolver,
MetadataImportOptions importOptions,
bool supersedeLowerVersions,
[In, Out] ArrayBuilder <AssemblyReferenceBinding[]> referenceBindings,
[In, Out] Dictionary <string, List <ReferencedAssemblyIdentity> > assemblyReferencesBySimpleName,
out ImmutableArray <AssemblyData> allAssemblies,
out ImmutableArray <MetadataReference> metadataReferences,
out ImmutableArray <ResolvedReference> resolvedReferences,
DiagnosticBag resolutionDiagnostics)
{
Debug.Assert(explicitAssemblies[0] is AssemblyDataForAssemblyBeingBuilt);
Debug.Assert(referenceBindings.Count == explicitAssemblies.Length);
Debug.Assert(explicitReferences.Length == explicitReferenceMap.Length);
// -1 for assembly being built:
int totalReferencedAssemblyCount = explicitAssemblies.Length - 1;
var implicitAssemblies = ArrayBuilder <AssemblyData> .GetInstance();
// tracks identities we already asked the resolver to resolve:
var requestedIdentities = PooledHashSet <AssemblyIdentity> .GetInstance();
PooledDictionary <AssemblyIdentity, PortableExecutableReference> previouslyResolvedAssembliesOpt = null;
// Avoid resolving previously resolved missing references. If we call to the resolver again we would create new assembly symbols for them,
// which would not match the previously created ones. As a result we would get duplicate PE types and conversion errors.
var previousScriptCompilation = compilation.ScriptCompilationInfo?.PreviousScriptCompilation;
if (previousScriptCompilation != null)
{
previouslyResolvedAssembliesOpt = PooledDictionary <AssemblyIdentity, PortableExecutableReference> .GetInstance();
foreach (var entry in previousScriptCompilation.GetBoundReferenceManager().GetImplicitlyResolvedAssemblyReferences())
{
previouslyResolvedAssembliesOpt.Add(entry.Key, entry.Value);
}
}
var metadataReferencesBuilder = ArrayBuilder <MetadataReference> .GetInstance();
Dictionary <MetadataReference, MergedAliases> lazyAliasMap = null;
// metadata references and corresponding bindings of their references, used to calculate a fixed point:
var referenceBindingsToProcess = ArrayBuilder <ValueTuple <MetadataReference, ArraySegment <AssemblyReferenceBinding> > > .GetInstance();
// collect all missing identities, resolve the assemblies and bind their references against explicit definitions:
GetInitialReferenceBindingsToProcess(explicitModules, explicitReferences, explicitReferenceMap, referenceBindings, totalReferencedAssemblyCount, referenceBindingsToProcess);
// NB: includes the assembly being built:
int explicitAssemblyCount = explicitAssemblies.Length;
try
{
while (referenceBindingsToProcess.Count > 0)
{
var referenceAndBindings = referenceBindingsToProcess.Pop();
var requestingReference = referenceAndBindings.Item1;
var bindings = referenceAndBindings.Item2;
foreach (var binding in bindings)
{
// only attempt to resolve unbound references (regardless of version difference of the bound ones)
if (binding.IsBound)
{
continue;
}
if (!requestedIdentities.Add(binding.ReferenceIdentity))
{
continue;
}
PortableExecutableReference resolvedReference;
if (previouslyResolvedAssembliesOpt == null || !previouslyResolvedAssembliesOpt.TryGetValue(binding.ReferenceIdentity, out resolvedReference))
{
resolvedReference = resolver.ResolveMissingAssembly(requestingReference, binding.ReferenceIdentity);
if (resolvedReference == null)
{
continue;
}
}
var data = ResolveMissingAssembly(binding.ReferenceIdentity, resolvedReference, importOptions, resolutionDiagnostics);
if (data == null)
{
continue;
}
// The resolver may return different version than we asked for, so it may happen that
// it returns the same identity for two different input identities (e.g. if a higher version
// of an assembly is available than what the assemblies reference: "A, v1" -> "A, v3" and "A, v2" -> "A, v3").
// If such case occurs merge the properties (aliases) of the resulting references in the same way we do
// during initial explicit references resolution.
// -1 for assembly being built:
int index = explicitAssemblyCount - 1 + metadataReferencesBuilder.Count;
var existingReference = TryAddAssembly(data.Identity, resolvedReference, index, resolutionDiagnostics, Location.None, assemblyReferencesBySimpleName, supersedeLowerVersions);
if (existingReference != null)
{
MergeReferenceProperties(existingReference, resolvedReference, resolutionDiagnostics, ref lazyAliasMap);
continue;
}
metadataReferencesBuilder.Add(resolvedReference);
implicitAssemblies.Add(data);
var referenceBinding = data.BindAssemblyReferences(explicitAssemblies, IdentityComparer);
referenceBindings.Add(referenceBinding);
referenceBindingsToProcess.Push(ValueTuple.Create((MetadataReference)resolvedReference, new ArraySegment <AssemblyReferenceBinding>(referenceBinding)));
}
}
if (implicitAssemblies.Count == 0)
{
Debug.Assert(lazyAliasMap == null);
resolvedReferences = ImmutableArray <ResolvedReference> .Empty;
metadataReferences = ImmutableArray <MetadataReference> .Empty;
allAssemblies = explicitAssemblies;
return;
}
// Rebind assembly references that were initially missing. All bindings established above
// are against explicitly specified references.
allAssemblies = explicitAssemblies.AddRange(implicitAssemblies);
for (int bindingsIndex = 0; bindingsIndex < referenceBindings.Count; bindingsIndex++)
{
var referenceBinding = referenceBindings[bindingsIndex];
for (int i = 0; i < referenceBinding.Length; i++)
{
var binding = referenceBinding[i];
// We don't rebind references bound to a non-matching version of a reference that was explicitly
// specified, even if we have a better version now.
if (binding.IsBound)
{
continue;
}
// We only need to resolve against implicitly resolved assemblies,
// since we already resolved against explicitly specified ones.
referenceBinding[i] = ResolveReferencedAssembly(
binding.ReferenceIdentity,
allAssemblies,
explicitAssemblyCount,
IdentityComparer);
}
}
UpdateBindingsOfAssemblyBeingBuilt(referenceBindings, explicitAssemblyCount, implicitAssemblies);
metadataReferences = metadataReferencesBuilder.ToImmutable();
resolvedReferences = ToResolvedAssemblyReferences(metadataReferences, lazyAliasMap, explicitAssemblyCount);
}
finally
{
implicitAssemblies.Free();
requestedIdentities.Free();
referenceBindingsToProcess.Free();
metadataReferencesBuilder.Free();
previouslyResolvedAssembliesOpt?.Free();
}
}
private void Append(IEnumerable <byte> bytes) => _builder.AddRange(bytes);
public static ImmutableArray <byte> AddRange(this ImmutableArray <byte> source, params int[] args)
{
return(source.AddRange(args.Select(i => Convert.ToByte(i))));
}
/// <summary>
/// Invoked by <see cref="InteractiveHost"/> when a new process is being started.
/// </summary>
private void ProcessStarting(bool initialize)
{
var textView = GetCurrentWindowOrThrow().TextView;
var dispatcher = ((FrameworkElement)textView).Dispatcher;
if (!dispatcher.CheckAccess())
{
dispatcher.BeginInvoke(new Action(() => ProcessStarting(initialize)));
return;
}
// Freeze all existing classifications and then clear the list of submission buffers we have.
_submissionBuffers.Remove(_currentSubmissionBuffer); // if present
foreach (var textBuffer in _submissionBuffers)
{
InertClassifierProvider.CaptureExistingClassificationSpans(_classifierAggregator, textView, textBuffer);
}
_submissionBuffers.Clear();
// We always start out empty
_workspace.ClearSolution();
_currentSubmissionProjectId = null;
_previousSubmissionProjectId = null;
var metadataService = _workspace.CurrentSolution.Services.MetadataService;
var mscorlibRef = metadataService.GetReference(typeof(object).Assembly.Location, MetadataReferenceProperties.Assembly);
var interactiveHostObjectRef = metadataService.GetReference(typeof(InteractiveScriptGlobals).Assembly.Location, Script.HostAssemblyReferenceProperties);
_responseFileReferences = ImmutableArray.Create <MetadataReference>(mscorlibRef, interactiveHostObjectRef);
_responseFileImports = ImmutableArray <string> .Empty;
_initialScriptFileOpt = null;
ReferenceSearchPaths = ImmutableArray <string> .Empty;
SourceSearchPaths = ImmutableArray <string> .Empty;
if (initialize && File.Exists(_responseFilePath))
{
// The base directory for relative paths is the directory that contains the .rsp file.
// Note that .rsp files included by this .rsp file will share the base directory (Dev10 behavior of csc/vbc).
var responseFileDirectory = Path.GetDirectoryName(_responseFilePath);
var args = this.CommandLineParser.Parse(new[] { "@" + _responseFilePath }, responseFileDirectory, RuntimeEnvironment.GetRuntimeDirectory(), null);
if (args.Errors.Length == 0)
{
var metadataResolver = CreateMetadataReferenceResolver(metadataService, args.ReferencePaths, responseFileDirectory);
var sourceResolver = CreateSourceReferenceResolver(args.SourcePaths, responseFileDirectory);
// ignore unresolved references, they will be reported in the interactive window:
var responseFileReferences = args.ResolveMetadataReferences(metadataResolver).Where(r => !(r is UnresolvedMetadataReference));
_initialScriptFileOpt = args.SourceFiles.IsEmpty ? null : args.SourceFiles[0].Path;
ReferenceSearchPaths = args.ReferencePaths;
SourceSearchPaths = args.SourcePaths;
_responseFileReferences = _responseFileReferences.AddRange(responseFileReferences);
_responseFileImports = CommandLineHelpers.GetImports(args);
}
}
_metadataReferenceResolver = CreateMetadataReferenceResolver(metadataService, ReferenceSearchPaths, _initialWorkingDirectory);
_sourceReferenceResolver = CreateSourceReferenceResolver(SourceSearchPaths, _initialWorkingDirectory);
// create the first submission project in the workspace after reset:
if (_currentSubmissionBuffer != null)
{
AddSubmission(_currentSubmissionBuffer, this.LanguageName);
}
}
/// <summary>
/// Append analyzer actions from <paramref name="otherActions"/> to actions from this instance.
/// </summary>
/// <param name="otherActions">Analyzer actions to append</param>.
public AnalyzerActions Append(AnalyzerActions otherActions, bool appendSymbolStartAndSymbolEndActions = true)
{
if (otherActions == null)
{
throw new ArgumentNullException(nameof(otherActions));
}
AnalyzerActions actions = new AnalyzerActions();
actions._compilationStartActions = _compilationStartActions.AddRange(otherActions._compilationStartActions);
actions._compilationEndActions = _compilationEndActions.AddRange(otherActions._compilationEndActions);
actions._compilationActions = _compilationActions.AddRange(otherActions._compilationActions);
actions._syntaxTreeActions = _syntaxTreeActions.AddRange(otherActions._syntaxTreeActions);
actions._semanticModelActions = _semanticModelActions.AddRange(otherActions._semanticModelActions);
actions._symbolActions = _symbolActions.AddRange(otherActions._symbolActions);
actions._symbolStartActions = appendSymbolStartAndSymbolEndActions ? _symbolStartActions.AddRange(otherActions._symbolStartActions) : _symbolStartActions;
actions._symbolEndActions = appendSymbolStartAndSymbolEndActions ? _symbolEndActions.AddRange(otherActions._symbolEndActions) : _symbolEndActions;
actions._codeBlockStartActions = _codeBlockStartActions.AddRange(otherActions._codeBlockStartActions);
actions._codeBlockEndActions = _codeBlockEndActions.AddRange(otherActions._codeBlockEndActions);
actions._codeBlockActions = _codeBlockActions.AddRange(otherActions._codeBlockActions);
actions._syntaxNodeActions = _syntaxNodeActions.AddRange(otherActions._syntaxNodeActions);
actions._operationActions = _operationActions.AddRange(otherActions._operationActions);
actions._operationBlockStartActions = _operationBlockStartActions.AddRange(otherActions._operationBlockStartActions);
actions._operationBlockEndActions = _operationBlockEndActions.AddRange(otherActions._operationBlockEndActions);
actions._operationBlockActions = _operationBlockActions.AddRange(otherActions._operationBlockActions);
actions._concurrent = actions._concurrent || otherActions.Concurrent;
actions.IsEmpty = IsEmpty && otherActions.IsEmpty;
return(actions);
}
private static ImmutableArray <ImmutableArray <string> > FindCandidateFolders(
FolderInfo currentFolderInfo,
ImmutableArray <string> parts,
ImmutableArray <string> currentFolder
)
{
if (parts.IsEmpty)
{
return(ImmutableArray.Create(currentFolder));
}
// Try to figure out all possible folder names that can match the target namespace.
// For example, if the target is "A.B.C", then the matching folder names include
// "A", "A.B" and "A.B.C". The item "index" in the result tuple is the number
// of items in namespace parts used to construct iten "foldername".
var candidates = Enumerable
.Range(1, parts.Length)
.Select(i => (foldername: string.Join(".", parts.Take(i)), index: i))
.ToImmutableDictionary(t => t.foldername, t => t.index, PathUtilities.Comparer);
var subFolders = currentFolderInfo.ChildFolders;
var builder = ArrayBuilder <ImmutableArray <string> > .GetInstance();
foreach (var(folderName, index) in candidates)
{
if (subFolders.TryGetValue(folderName, out var matchingFolderInfo))
{
var newParts =
index >= parts.Length
? ImmutableArray <string> .Empty
: ImmutableArray.Create(parts, index, parts.Length - index);
var newCurrentFolder = currentFolder.Add(matchingFolderInfo.Name);
builder.AddRange(
FindCandidateFolders(matchingFolderInfo, newParts, newCurrentFolder)
);
}
}
// Make sure we always have the default path as an available option to the user
// (which might have been found by the search above, therefore the check here)
// For example, if the target namespace is "A.B.C.D", and there's folder <ROOT>\A.B\,
// the search above would only return "<ROOT>\A.B\C\D". We'd want to provide
// "<ROOT>\A\B\C\D" as the default path.
var defaultPathBasedOnCurrentFolder = currentFolder.AddRange(parts);
if (
builder.All(
folders =>
!folders.SequenceEqual(
defaultPathBasedOnCurrentFolder,
PathUtilities.Comparer
)
)
)
{
builder.Add(defaultPathBasedOnCurrentFolder);
}
return(builder.ToImmutableAndFree());
}
private void ResolveAndBindMissingAssemblies(
ImmutableArray <AssemblyData> explicitAssemblies,
MetadataReferenceResolver resolver,
MetadataImportOptions importOptions,
[In, Out] ArrayBuilder <AssemblyReferenceBinding[]> referenceBindings,
out ImmutableArray <AssemblyData> allAssemblies,
out ImmutableArray <MetadataReference> metadataReferences,
out ImmutableArray <ResolvedReference> resolvedReferences,
DiagnosticBag resolutionDiagnostics)
{
Debug.Assert(explicitAssemblies[0] is AssemblyDataForAssemblyBeingBuilt);
var implicitAssemblies = ArrayBuilder <AssemblyData> .GetInstance();
// tracks identities we already asked the resolver to resolve:
var requestedIdentities = PooledHashSet <AssemblyIdentity> .GetInstance();
// reference bindings of implicit assemblies, used to calculate a fixed point:
var referenceBindingsToProcess = ArrayBuilder <AssemblyReferenceBinding[]> .GetInstance();
var metadataReferencesBuilder = ArrayBuilder <MetadataReference> .GetInstance();
Dictionary <string, List <ReferencedAssemblyIdentity> > lazyResolvedReferencesBySimpleName = null;
Dictionary <MetadataReference, ArrayBuilder <string> > lazyAliasMap = null;
try
{
// collect all missing identities, resolve the assemblies and bind their references against explicit definitions:
referenceBindingsToProcess.AddRange(referenceBindings);
while (referenceBindingsToProcess.Count > 0)
{
foreach (var binding in referenceBindingsToProcess.Pop())
{
// only attempt to resolve unbound references (regardless of version difference of the bound ones)
if (binding.IsBound)
{
continue;
}
if (!requestedIdentities.Add(binding.ReferenceIdentity))
{
continue;
}
var peReference = resolver.ResolveMissingAssembly(binding.ReferenceIdentity);
if (peReference == null)
{
continue;
}
var data = ResolveMissingAssembly(binding.ReferenceIdentity, peReference, importOptions, resolutionDiagnostics);
if (data == null)
{
continue;
}
// The resolver may return different version than we asked for, so it may happen that
// it returns the same identity for two different input identities (e.g. if a higher version
// of an assembly is available than what the assemblies reference: "A, v1" -> "A, v3" and "A, v2" -> "A, v3").
// If such case occurs merge the properties (aliases) of the resulting references in the same way we do
// during initial explicit references resolution.
var existingReference = TryAddAssembly(data.Identity, peReference, resolutionDiagnostics, Location.None, ref lazyResolvedReferencesBySimpleName);
if (existingReference != null)
{
MergeReferenceProperties(existingReference, peReference, resolutionDiagnostics, ref lazyAliasMap);
continue;
}
metadataReferencesBuilder.Add(peReference);
implicitAssemblies.Add(data);
var referenceBinding = data.BindAssemblyReferences(explicitAssemblies, IdentityComparer);
referenceBindings.Add(referenceBinding);
referenceBindingsToProcess.Push(referenceBinding);
}
}
if (implicitAssemblies.Count == 0)
{
Debug.Assert(lazyAliasMap == null);
Debug.Assert(lazyResolvedReferencesBySimpleName == null);
resolvedReferences = ImmutableArray <ResolvedReference> .Empty;
metadataReferences = ImmutableArray <MetadataReference> .Empty;
allAssemblies = explicitAssemblies;
return;
}
// Rebind assembly references that were initially missing. All bindings established above
// are against explicitly specified references.
// NB: includes the assembly being built:
int explicitAssemblyCount = explicitAssemblies.Length;
allAssemblies = explicitAssemblies.AddRange(implicitAssemblies);
for (int bindingsIndex = 0; bindingsIndex < referenceBindings.Count; bindingsIndex++)
{
var referenceBinding = referenceBindings[bindingsIndex];
for (int i = 0; i < referenceBinding.Length; i++)
{
var binding = referenceBinding[i];
// We don't rebind references bound to a non-matching version of a reference that was explicitly
// specified, even if we have a better version now.
if (binding.IsBound)
{
continue;
}
// We only need to resolve against implicitly resolved assemblies,
// since we already resolved against explicitly specified ones.
referenceBinding[i] = ResolveReferencedAssembly(
binding.ReferenceIdentity,
allAssemblies,
explicitAssemblyCount,
IdentityComparer);
}
}
UpdateBindingsOfAssemblyBeingBuilt(referenceBindings, explicitAssemblyCount, implicitAssemblies);
metadataReferences = metadataReferencesBuilder.ToImmutable();
resolvedReferences = ToResolvedAssemblyReferences(metadataReferences, lazyAliasMap, explicitAssemblyCount);
}
finally
{
implicitAssemblies.Free();
requestedIdentities.Free();
referenceBindingsToProcess.Free();
metadataReferencesBuilder.Free();
}
}
public static ImmutableArray <SymbolDisplayPart> GetDisplayParts(
ISymbol symbol,
SymbolDisplayFormat format,
SymbolDisplayTypeDeclarationOptions typeDeclarationOptions = SymbolDisplayTypeDeclarationOptions.None,
Func <INamedTypeSymbol, bool> isVisibleAttribute = null,
bool formatBaseList = false,
bool formatConstraints = false,
bool formatParameters = false,
bool splitAttributes = true,
bool includeAttributeArguments = false,
bool omitIEnumerable = false,
bool useNameOnlyIfPossible = false)
{
ImmutableArray <SymbolDisplayPart> parts;
if (symbol is INamedTypeSymbol typeSymbol)
{
parts = typeSymbol.ToDisplayParts(format, typeDeclarationOptions);
}
else
{
parts = symbol.ToDisplayParts(format);
typeSymbol = null;
}
ImmutableArray <AttributeData> attributes = ImmutableArray <AttributeData> .Empty;
bool hasAttributes = false;
if (isVisibleAttribute != null)
{
attributes = symbol.GetAttributes();
hasAttributes = attributes.Any(f => isVisibleAttribute(f.AttributeClass));
}
int baseListCount = 0;
INamedTypeSymbol baseType = null;
ImmutableArray <INamedTypeSymbol> interfaces = default;
if (typeSymbol != null)
{
if (typeSymbol.TypeKind.Is(TypeKind.Class, TypeKind.Interface))
{
baseType = typeSymbol.BaseType;
if (baseType?.SpecialType == SpecialType.System_Object)
{
baseType = null;
}
}
interfaces = typeSymbol.Interfaces;
if (omitIEnumerable &&
interfaces.Any(f => f.OriginalDefinition.SpecialType == SpecialType.System_Collections_Generic_IEnumerable_T))
{
interfaces = interfaces.RemoveAll(f => f.SpecialType == SpecialType.System_Collections_IEnumerable);
}
baseListCount = interfaces.Length;
if (baseType != null)
{
baseListCount++;
}
}
int constraintCount = 0;
int whereIndex = -1;
for (int i = 0; i < parts.Length; i++)
{
if (parts[i].IsKeyword("where"))
{
if (whereIndex == -1)
{
whereIndex = i;
}
constraintCount++;
}
}
if (!hasAttributes &&
baseListCount == 0 &&
constraintCount == 0 &&
(!formatParameters || symbol.GetParameters().Length <= 1))
{
return(parts);
}
INamespaceSymbol containingNamespace = (useNameOnlyIfPossible) ? symbol.ContainingNamespace : null;
ImmutableArray <SymbolDisplayPart> .Builder builder = ImmutableArray.CreateBuilder <SymbolDisplayPart>(parts.Length);
AddAttributes(builder, attributes, isVisibleAttribute, containingNamespace, splitAttributes: splitAttributes, includeAttributeArguments: includeAttributeArguments);
if (baseListCount > 0)
{
if (whereIndex != -1)
{
builder.AddRange(parts, whereIndex);
}
else
{
builder.AddRange(parts);
builder.AddSpace();
}
builder.AddPunctuation(":");
builder.AddSpace();
if (baseType != null)
{
builder.AddDisplayParts(baseType, containingNamespace);
if (interfaces.Any())
{
builder.AddPunctuation(",");
if (formatBaseList)
{
builder.AddLineBreak();
builder.AddIndentation();
}
else
{
builder.AddSpace();
}
}
}
interfaces = interfaces.Sort((x, y) =>
{
INamespaceSymbol n1 = x.ContainingNamespace;
INamespaceSymbol n2 = y.ContainingNamespace;
if (!MetadataNameEqualityComparer <INamespaceSymbol> .Instance.Equals(n1, n2))
{
return(string.CompareOrdinal(
n1.ToDisplayString(SymbolDisplayFormats.TypeNameAndContainingTypesAndNamespaces),
n2.ToDisplayString(SymbolDisplayFormats.TypeNameAndContainingTypesAndNamespaces)));
}
return(string.CompareOrdinal(
ToDisplayString(x, containingNamespace),
ToDisplayString(y, containingNamespace)));
});
ImmutableArray <INamedTypeSymbol> .Enumerator en = interfaces.GetEnumerator();
if (en.MoveNext())
{
while (true)
{
builder.AddDisplayParts(en.Current, containingNamespace);
if (en.MoveNext())
{
builder.AddPunctuation(",");
if (formatBaseList)
{
builder.AddLineBreak();
builder.AddIndentation();
}
else
{
builder.AddSpace();
}
}
else
{
break;
}
}
}
if (whereIndex != -1)
{
if (!formatConstraints ||
(baseListCount == 1 && constraintCount == 1))
{
builder.AddSpace();
}
}
}
else if (whereIndex != -1)
{
builder.AddRange(parts, whereIndex);
}
else
{
builder.AddRange(parts);
}
if (whereIndex != -1)
{
for (int i = whereIndex; i < parts.Length; i++)
{
if (parts[i].IsKeyword("where"))
{
if (formatConstraints &&
(baseListCount > 1 || constraintCount > 1))
{
builder.AddLineBreak();
builder.AddIndentation();
}
builder.Add(parts[i]);
}
else if (parts[i].IsTypeName() &&
parts[i].Symbol is INamedTypeSymbol namedTypeSymbol)
{
builder.AddDisplayParts(namedTypeSymbol, containingNamespace);
}
else
{
builder.Add(parts[i]);
}
}
}
if (formatParameters)
{
ImmutableArray <IParameterSymbol> parameters = symbol.GetParameters();
if (parameters.Length > 1)
{
FormatParameters(symbol, builder, DeclarationListOptions.DefaultValues.IndentChars);
}
}
return(builder.ToImmutableArray());
}
private ImmutableArray <SymbolDisplayPart> AppendParameterAttributes(
ImmutableArray <SymbolDisplayPart> parts,
ISymbol symbol,
ImmutableArray <IParameterSymbol> parameters)
{
int i = SymbolDeclarationBuilder.FindParameterListStart(symbol, parts);
if (i == -1)
{
return(parts);
}
int parameterIndex = 0;
IParameterSymbol parameter = parameters[parameterIndex];
ImmutableArray <SymbolDisplayPart> attributeParts = SymbolDeclarationBuilder.GetAttributesParts(
parameter.GetAttributes(),
predicate: IsVisibleAttribute,
splitAttributes: Options.SplitAttributes,
includeAttributeArguments: Options.IncludeAttributeArguments,
addNewLine: false);
if (attributeParts.Any())
{
parts = parts.Insert(i + 1, SymbolDisplayPartFactory.Space());
parts = parts.InsertRange(i + 1, attributeParts);
}
int parenthesesDepth = 0;
int bracesDepth = 0;
int bracketsDepth = 0;
int angleBracketsDepth = 0;
ImmutableArray <SymbolDisplayPart> .Builder builder = null;
int prevIndex = 0;
AddParameterAttributes();
if (builder != null)
{
while (prevIndex < parts.Length)
{
builder.Add(parts[prevIndex]);
prevIndex++;
}
return(builder.ToImmutableArray());
}
return(parts);
void AddParameterAttributes()
{
while (i < parts.Length)
{
SymbolDisplayPart part = parts[i];
if (part.Kind == SymbolDisplayPartKind.Punctuation)
{
switch (part.ToString())
{
case ",":
{
if (((angleBracketsDepth == 0 && parenthesesDepth == 1 && bracesDepth == 0 && bracketsDepth == 0) ||
(angleBracketsDepth == 0 && parenthesesDepth == 0 && bracesDepth == 0 && bracketsDepth == 1)) &&
i < parts.Length - 1)
{
SymbolDisplayPart nextPart = parts[i + 1];
if (nextPart.Kind == SymbolDisplayPartKind.Space)
{
parameterIndex++;
attributeParts = SymbolDeclarationBuilder.GetAttributesParts(
parameters[parameterIndex].GetAttributes(),
predicate: IsVisibleAttribute,
splitAttributes: Options.SplitAttributes,
includeAttributeArguments: Options.IncludeAttributeArguments,
addNewLine: false);
if (attributeParts.Any())
{
if (builder == null)
{
builder = ImmutableArray.CreateBuilder <SymbolDisplayPart>();
builder.AddRange(parts, i + 1);
}
else
{
for (int j = prevIndex; j <= i; j++)
{
builder.Add(parts[j]);
}
}
builder.Add(SymbolDisplayPartFactory.Space());
builder.AddRange(attributeParts);
prevIndex = i + 1;
}
}
}
break;
}
case "(":
{
parenthesesDepth++;
break;
}
case ")":
{
Debug.Assert(parenthesesDepth >= 0);
parenthesesDepth--;
if (parenthesesDepth == 0 &&
symbol.IsKind(SymbolKind.Method, SymbolKind.NamedType))
{
return;
}
break;
}
case "[":
{
bracketsDepth++;
break;
}
case "]":
{
Debug.Assert(bracketsDepth >= 0);
bracketsDepth--;
if (bracketsDepth == 0 &&
symbol.Kind == SymbolKind.Property)
{
return;
}
break;
}
case "{":
{
bracesDepth++;
break;
}
case "}":
{
Debug.Assert(bracesDepth >= 0);
bracesDepth--;
break;
}
case "<":
{
angleBracketsDepth++;
break;
}
case ">":
{
Debug.Assert(angleBracketsDepth >= 0);
angleBracketsDepth--;
break;
}
}
}
i++;
}
}
}
internal static ImmutableArray <T> Concat <T>(this ImmutableArray <T> first, ImmutableArray <T> second)
{
return(first.AddRange(second));
}
private static async Task <int> FindSymbolsAsync(FindSymbolsCommandLineOptions options)
{
if (!options.TryGetProjectFilter(out ProjectFilter projectFilter))
{
return(ExitCodes.Error);
}
if (!TryParseOptionValueAsEnumFlags(options.SymbolGroups, ParameterNames.SymbolGroups, out SymbolGroupFilter symbolGroups, SymbolFinderOptions.Default.SymbolGroups))
{
return(ExitCodes.Error);
}
if (!TryParseOptionValueAsEnumFlags(options.Visibility, ParameterNames.Visibility, out VisibilityFilter visibility, SymbolFinderOptions.Default.Visibility))
{
return(ExitCodes.Error);
}
if (!TryParseMetadataNames(options.WithAttributes, out ImmutableArray <MetadataName> withAttributes))
{
return(ExitCodes.Error);
}
if (!TryParseMetadataNames(options.WithoutAttributes, out ImmutableArray <MetadataName> withoutAttributes))
{
return(ExitCodes.Error);
}
if (!TryParseOptionValueAsEnumFlags(options.WithFlags, ParameterNames.WithFlags, out SymbolFlags withFlags, SymbolFlags.None))
{
return(ExitCodes.Error);
}
if (!TryParseOptionValueAsEnumFlags(options.WithoutFlags, ParameterNames.WithoutFlags, out SymbolFlags withoutFlags, SymbolFlags.None))
{
return(ExitCodes.Error);
}
ImmutableArray <SymbolFilterRule> .Builder rules = ImmutableArray.CreateBuilder <SymbolFilterRule>();
if (withAttributes.Any())
{
rules.Add(new WithAttributeFilterRule(withAttributes));
}
if (withoutAttributes.Any())
{
rules.Add(new WithoutAttributeFilterRule(withoutAttributes));
}
if (withFlags != SymbolFlags.None)
{
rules.AddRange(SymbolFilterRuleFactory.FromFlags(withFlags));
}
if (withoutFlags != SymbolFlags.None)
{
rules.AddRange(SymbolFilterRuleFactory.FromFlags(withoutFlags, invert: true));
}
var symbolFinderOptions = new SymbolFinderOptions(
visibility: visibility,
symbolGroups: symbolGroups,
rules: rules,
ignoreGeneratedCode: options.IgnoreGeneratedCode,
unusedOnly: options.UnusedOnly);
var command = new FindSymbolsCommand(
options: options,
symbolFinderOptions: symbolFinderOptions,
projectFilter: projectFilter);
CommandResult result = await command.ExecuteAsync(options.Path, options.MSBuildPath, options.Properties);
return(GetExitCode(result));
}
/// <remarks>
/// Internal for testing.
/// </remarks>
internal static bool ShouldTryAgainWithMoreMetadataBlocks(DkmUtilities.GetMetadataBytesPtrFunction getMetaDataBytesPtrFunction, ImmutableArray<AssemblyIdentity> missingAssemblyIdentities, ref ImmutableArray<MetadataBlock> references)
{
var newReferences = DkmUtilities.GetMetadataBlocks(getMetaDataBytesPtrFunction, missingAssemblyIdentities);
if (newReferences.Length > 0)
{
references = references.AddRange(newReferences);
return true;
}
return false;
}
protected override ImmutableArray <T> AddRange(ImmutableArray <T> values, ref ArraySegment <T> newValues, ISerializationContext context) => newValues.Count == 1 ? values.Add(newValues.Singleton()) : values.AddRange(newValues);
public void AddMetadataReferences(IEnumerable <MetadataReference> references)
{
_metadataReferences.AddRange(references);
ScriptOptions = ScriptOptions.AddReferences(references);
}
public void AddRange(ArrayBuilder <T> items)
{
_builder.AddRange(items._builder);
}
public void AddNativeLibraryProbingPaths(IReadOnlyList <DirectoryInfo> probingPaths)
{
_probingDirectories = _probingDirectories.AddRange(probingPaths).Distinct().ToImmutableArray();
_globalProbingDirectories = _globalProbingDirectories.AddRange(probingPaths).Distinct().ToImmutableArray();
}
private async Task <ProjectFixResult> FixProjectAsync(
Project project,
ImmutableArray <DiagnosticAnalyzer> analyzers,
ImmutableArray <CodeFixProvider> fixers,
CancellationToken cancellationToken)
{
if (!analyzers.Any())
{
WriteLine($" No analyzers found to analyze '{project.Name}'", ConsoleColor.DarkGray, Verbosity.Normal);
return(ProjectFixResult.NoAnalyzers);
}
if (!fixers.Any())
{
WriteLine($" No fixers found to fix '{project.Name}'", ConsoleColor.DarkGray, Verbosity.Normal);
return(new ProjectFixResult(ProjectFixKind.NoFixers, analyzers: analyzers, fixers: fixers));
}
Dictionary <string, ImmutableArray <CodeFixProvider> > fixersById = GetFixersById(fixers, Options);
analyzers = analyzers
.Where(analyzer => analyzer.SupportedDiagnostics.Any(descriptor => fixersById.ContainsKey(descriptor.Id)))
.ToImmutableArray();
if (!analyzers.Any())
{
WriteLine($" No fixable analyzers found to analyze '{project.Name}'", ConsoleColor.DarkGray, Verbosity.Normal);
return(new ProjectFixResult(ProjectFixKind.NoFixableAnalyzers, analyzers: analyzers, fixers: fixers));
}
Dictionary <string, ImmutableArray <DiagnosticAnalyzer> > analyzersById = GetAnalyzersById(analyzers);
LogHelpers.WriteUsedAnalyzers(analyzers, ConsoleColor.DarkGray, Verbosity.Diagnostic);
LogHelpers.WriteUsedFixers(fixers, ConsoleColor.DarkGray, Verbosity.Diagnostic);
ImmutableArray <Diagnostic> .Builder fixedDiagnostics = ImmutableArray.CreateBuilder <Diagnostic>();
ImmutableArray <Diagnostic> previousDiagnostics = ImmutableArray <Diagnostic> .Empty;
ImmutableArray <Diagnostic> previousPreviousDiagnostics = ImmutableArray <Diagnostic> .Empty;
var fixKind = ProjectFixKind.Success;
int iterationCount = 1;
while (true)
{
cancellationToken.ThrowIfCancellationRequested();
project = CurrentSolution.GetProject(project.Id);
WriteLine($" Compile '{project.Name}'{((iterationCount > 1) ? $" iteration {iterationCount}" : "")}", Verbosity.Normal);
Compilation compilation = await project.GetCompilationAsync(cancellationToken).ConfigureAwait(false);
ImmutableArray <Diagnostic> compilerDiagnostics = compilation.GetDiagnostics(cancellationToken);
if (!VerifyCompilerDiagnostics(compilerDiagnostics, project))
{
return(new ProjectFixResult(ProjectFixKind.CompilerError, fixedDiagnostics, analyzers: analyzers, fixers: fixers));
}
WriteLine($" Analyze '{project.Name}'", Verbosity.Normal);
ImmutableArray <Diagnostic> diagnostics = await compilation.GetAnalyzerDiagnosticsAsync(analyzers, Options.CompilationWithAnalyzersOptions, cancellationToken).ConfigureAwait(false);
LogHelpers.WriteAnalyzerExceptionDiagnostics(diagnostics);
diagnostics = GetFixableDiagnostics(diagnostics, compilerDiagnostics);
int length = diagnostics.Length;
if (length == 0)
{
break;
}
if (length == previousDiagnostics.Length &&
!diagnostics.Except(previousDiagnostics, DiagnosticDeepEqualityComparer.Instance).Any())
{
break;
}
if (length == previousPreviousDiagnostics.Length &&
!diagnostics.Except(previousPreviousDiagnostics, DiagnosticDeepEqualityComparer.Instance).Any())
{
LogHelpers.WriteInfiniteLoopSummary(diagnostics, previousDiagnostics, project, FormatProvider);
fixKind = ProjectFixKind.InfiniteLoop;
break;
}
WriteLine($" Found {length} {((length == 1) ? "diagnostic" : "diagnostics")} in '{project.Name}'", Verbosity.Normal);
foreach (DiagnosticDescriptor descriptor in GetSortedDescriptors(diagnostics))
{
cancellationToken.ThrowIfCancellationRequested();
string diagnosticId = descriptor.Id;
DiagnosticFixResult result = await FixDiagnosticsAsync(
descriptor,
(descriptor.CustomTags.Contains(WellKnownDiagnosticTags.Compiler))
?default(ImmutableArray <DiagnosticAnalyzer>)
: analyzersById[diagnosticId],
fixersById[diagnosticId],
CurrentSolution.GetProject(project.Id),
cancellationToken).ConfigureAwait(false);
if (result.Kind == DiagnosticFixKind.Success)
{
fixedDiagnostics.AddRange(result.FixedDiagnostics);
}
else if (result.Kind == DiagnosticFixKind.CompilerError)
{
return(new ProjectFixResult(ProjectFixKind.CompilerError, fixedDiagnostics, analyzers: analyzers, fixers: fixers));
}
}
if (iterationCount == Options.MaxIterations)
{
break;
}
previousPreviousDiagnostics = previousDiagnostics;
previousDiagnostics = diagnostics;
iterationCount++;
}
return(new ProjectFixResult(fixKind, fixedDiagnostics, analyzers: analyzers, fixers: fixers));
ImmutableArray <Diagnostic> GetFixableDiagnostics(
ImmutableArray <Diagnostic> diagnostics,
ImmutableArray <Diagnostic> compilerDiagnostics)
{
IEnumerable <Diagnostic> fixableCompilerDiagnostics = compilerDiagnostics
.Where(f => f.Severity != DiagnosticSeverity.Error &&
!Options.IgnoredCompilerDiagnosticIds.Contains(f.Id) &&
fixersById.ContainsKey(f.Id));
return(diagnostics
.Where(f => Options.IsSupportedDiagnostic(f) &&
analyzersById.ContainsKey(f.Id) &&
fixersById.ContainsKey(f.Id))
.Concat(fixableCompilerDiagnostics)
.ToImmutableArray());
}
IEnumerable <DiagnosticDescriptor> GetSortedDescriptors(
ImmutableArray <Diagnostic> diagnostics)
{
Dictionary <DiagnosticDescriptor, int> countByDescriptor = diagnostics
.GroupBy(f => f.Descriptor, DiagnosticDescriptorComparer.Id)
.ToDictionary(f => f.Key, f => f.Count());
return(countByDescriptor
.Select(f => f.Key)
.OrderBy(f => f, new DiagnosticDescriptorFixComparer(countByDescriptor, fixersById)));
}
}
private static bool TryParsePaths(IEnumerable <string> values, out ImmutableArray <string> paths)
{
paths = ImmutableArray <string> .Empty;
if (values.Any())
{
if (!TryEnsureFullPath(values, out ImmutableArray <string> paths2))
{
return(false);
}
paths = paths.AddRange(paths2);
}
if (Console.IsInputRedirected)
{
if (!TryEnsureFullPath(
ConsoleHelpers.ReadRedirectedInputAsLines().Where(f => !string.IsNullOrEmpty(f)),
out ImmutableArray <string> paths2))
{
return(false);
}
paths = paths.AddRange(paths2);
}
if (!paths.IsEmpty)
{
return(true);
}
string directoryPath = Environment.CurrentDirectory;
if (!TryFindFile(Directory.EnumerateFiles(directoryPath, "*.sln", SearchOption.TopDirectoryOnly), out string solutionPath))
{
WriteLine($"Multiple MSBuild solution files found in '{directoryPath}'", Verbosity.Quiet);
return(false);
}
if (!TryFindFile(
Directory.EnumerateFiles(directoryPath, "*.*proj", SearchOption.TopDirectoryOnly)
.Where(f => !string.Equals(".xproj", Path.GetExtension(f), StringComparison.OrdinalIgnoreCase)),
out string projectPath))
{
WriteLine($"Multiple MSBuild projects files found in '{directoryPath}'", Verbosity.Quiet);
return(false);
}
if (solutionPath != null)
{
if (projectPath != null)
{
WriteLine($"Both MSBuild project file and solution file found in '{directoryPath}'", Verbosity.Quiet);
return(false);
}
paths = ImmutableArray.Create(solutionPath);
return(true);
}
else if (projectPath != null)
{
paths = ImmutableArray.Create(projectPath);
return(true);
}
else
{
WriteLine($"Could not find MSBuild project or solution file in '{directoryPath}'", Verbosity.Quiet);
return(false);
}
public static ImmutableArray <SymbolDisplayPart> ToDisplayParts(this INamedTypeSymbol typeSymbol, SymbolDisplayFormat format, SymbolDisplayTypeDeclarationOptions typeDeclarationOptions)
{
if (typeDeclarationOptions == SymbolDisplayTypeDeclarationOptions.None)
{
return(typeSymbol.ToDisplayParts(format));
}
ImmutableArray <SymbolDisplayPart> parts = typeSymbol.ToDisplayParts(format);
ImmutableArray <SymbolDisplayPart> .Builder builder = ImmutableArray.CreateBuilder <SymbolDisplayPart>(parts.Length);
if ((typeDeclarationOptions & SymbolDisplayTypeDeclarationOptions.IncludeAccessibility) != 0)
{
switch (typeSymbol.DeclaredAccessibility)
{
case Accessibility.Public:
{
AddKeyword(SyntaxKind.PublicKeyword);
break;
}
case Accessibility.ProtectedOrInternal:
{
AddKeyword(SyntaxKind.ProtectedKeyword);
AddKeyword(SyntaxKind.InternalKeyword);
break;
}
case Accessibility.Internal:
{
AddKeyword(SyntaxKind.InternalKeyword);
break;
}
case Accessibility.Protected:
{
AddKeyword(SyntaxKind.ProtectedKeyword);
break;
}
case Accessibility.ProtectedAndInternal:
{
AddKeyword(SyntaxKind.PrivateKeyword);
AddKeyword(SyntaxKind.ProtectedKeyword);
break;
}
case Accessibility.Private:
{
AddKeyword(SyntaxKind.PrivateKeyword);
break;
}
default:
{
throw new InvalidOperationException();
}
}
}
if ((typeDeclarationOptions & SymbolDisplayTypeDeclarationOptions.IncludeModifiers) != 0)
{
if (typeSymbol.IsStatic)
{
AddKeyword(SyntaxKind.StaticKeyword);
}
if (typeSymbol.IsSealed &&
!typeSymbol.TypeKind.Is(TypeKind.Struct, TypeKind.Enum, TypeKind.Delegate))
{
AddKeyword(SyntaxKind.SealedKeyword);
}
if (typeSymbol.IsAbstract &&
typeSymbol.TypeKind != TypeKind.Interface)
{
AddKeyword(SyntaxKind.AbstractKeyword);
}
}
builder.AddRange(parts);
return(builder.ToImmutableArray());
void AddKeyword(SyntaxKind kind)
{
builder.Add(SymbolDisplayPartFactory.Keyword(SyntaxFacts.GetText(kind)));
AddSpace();
}
void AddSpace()
{
builder.Add(SymbolDisplayPartFactory.Space());
}
}
protected virtual void AppendDiagnostics(IEnumerable <DiagnosticData> items)
{
_builder = _builder ?? ImmutableArray.CreateBuilder <DiagnosticData>();
_builder.AddRange(items);
}
public void AddNotNullMember(ArrayBuilder <string> memberNames)
{
VerifySealed(expected: false);
_memberNotNullAttributeData = _memberNotNullAttributeData.AddRange(memberNames);
SetDataStored();
}
private static void AddDisplayParts(
this ImmutableArray <SymbolDisplayPart> .Builder parts,
ISymbol symbol,
SymbolDisplayFormat format,
SymbolDisplayAdditionalOptions additionalOptions,
bool removeAttributeSuffix = false)
{
SymbolDisplayFormat format2;
if (additionalOptions.HasOption(SymbolDisplayAdditionalOptions.OmitContainingNamespace))
{
format2 = SymbolDefinitionDisplayFormats.TypeNameAndContainingTypes;
}
else if (format.GlobalNamespaceStyle == SymbolDisplayGlobalNamespaceStyle.Included)
{
format2 = SymbolDefinitionDisplayFormats.TypeNameAndContainingTypesAndNamespacesAndGlobalNamespace;
}
else
{
format2 = SymbolDefinitionDisplayFormats.TypeNameAndContainingTypesAndNamespaces;
}
parts.AddRange(symbol.ToDisplayParts(format2));
if (!(symbol is INamedTypeSymbol typeSymbol))
{
return;
}
if (removeAttributeSuffix)
{
SymbolDisplayPart last = parts.Last();
if (last.Kind == SymbolDisplayPartKind.ClassName)
{
const string attributeSuffix = "Attribute";
string text = last.ToString();
if (text.EndsWith(attributeSuffix, StringComparison.Ordinal))
{
parts[parts.Count - 1] = last.WithText(text.Remove(text.Length - attributeSuffix.Length));
}
}
}
ImmutableArray <ITypeSymbol> typeArguments = typeSymbol.TypeArguments;
ImmutableArray <ITypeSymbol> .Enumerator en = typeArguments.GetEnumerator();
if (en.MoveNext())
{
parts.AddPunctuation("<");
while (true)
{
if (en.Current.Kind == SymbolKind.NamedType)
{
parts.AddDisplayParts((INamedTypeSymbol)en.Current, format, additionalOptions);
}
else
{
Debug.Assert(en.Current.Kind == SymbolKind.TypeParameter, en.Current.Kind.ToString());
parts.Add(new SymbolDisplayPart(SymbolDisplayPartKind.TypeParameterName, en.Current, en.Current.Name));
}
if (en.MoveNext())
{
parts.AddPunctuation(",");
parts.AddSpace();
}
else
{
break;
}
}
parts.AddPunctuation(">");
}
}
private static void AddDiagnostics_NoLock(
Dictionary<DiagnosticAnalyzer, List<Diagnostic>> diagnostics,
AnalysisScope analysisScope,
ImmutableArray<Diagnostic>.Builder builder)
{
Debug.Assert(diagnostics != null);
foreach (var analyzer in analysisScope.Analyzers)
{
List<Diagnostic> diagnosticsByAnalyzer;
if (diagnostics.TryGetValue(analyzer, out diagnosticsByAnalyzer))
{
builder.AddRange(diagnosticsByAnalyzer);
}
}
}
public static ImmutableArray <SymbolDisplayPart> GetDisplayParts(
ISymbol symbol,
SymbolDisplayFormat format,
SymbolDisplayTypeDeclarationOptions typeDeclarationOptions = SymbolDisplayTypeDeclarationOptions.None,
SymbolDisplayAdditionalOptions additionalOptions = SymbolDisplayAdditionalOptions.None,
Func <ISymbol, AttributeData, bool> shouldDisplayAttribute = null)
{
ImmutableArray <SymbolDisplayPart> parts;
if (symbol is INamedTypeSymbol typeSymbol)
{
parts = typeSymbol.ToDisplayParts(format, typeDeclarationOptions);
}
else
{
parts = symbol.ToDisplayParts(format);
typeSymbol = null;
}
IEnumerable <AttributeData> attributes = (additionalOptions.HasOption(SymbolDisplayAdditionalOptions.IncludeAttributes))
? GetAttributes(symbol, shouldDisplayAttribute)
: ImmutableArray <AttributeData> .Empty;
ImmutableArray <SymbolDisplayPart> .Builder builder = default;
INamedTypeSymbol baseType = null;
ImmutableArray <INamedTypeSymbol> interfaces = ImmutableArray <INamedTypeSymbol> .Empty;
if (typeSymbol != null &&
(typeDeclarationOptions & SymbolDisplayTypeDeclarationOptions.BaseList) != 0)
{
if ((typeDeclarationOptions & SymbolDisplayTypeDeclarationOptions.BaseType) != 0 &&
typeSymbol.TypeKind.Is(TypeKind.Class, TypeKind.Interface))
{
baseType = typeSymbol.BaseType;
if (baseType?.SpecialType == SpecialType.System_Object)
{
baseType = null;
}
}
if ((typeDeclarationOptions & SymbolDisplayTypeDeclarationOptions.Interfaces) != 0)
{
interfaces = typeSymbol.Interfaces;
if (additionalOptions.HasOption(SymbolDisplayAdditionalOptions.OmitIEnumerable) &&
interfaces.Any(f => f.OriginalDefinition.SpecialType == SpecialType.System_Collections_Generic_IEnumerable_T))
{
interfaces = interfaces.RemoveAll(f => f.SpecialType == SpecialType.System_Collections_IEnumerable);
}
}
}
int baseListCount = interfaces.Length;
if (baseType != null)
{
baseListCount++;
}
int constraintCount = 0;
int whereIndex = -1;
for (int i = 0; i < parts.Length; i++)
{
if (parts[i].IsKeyword("where"))
{
if (whereIndex == -1)
{
whereIndex = i;
}
constraintCount++;
}
}
if (baseListCount > 0)
{
InitializeBuilder();
if (whereIndex != -1)
{
builder.AddRange(parts, whereIndex);
}
else
{
builder.AddRange(parts);
builder.AddSpace();
}
builder.AddPunctuation(":");
builder.AddSpace();
if (baseType != null)
{
builder.AddDisplayParts(baseType, format, additionalOptions);
if (interfaces.Any())
{
builder.AddPunctuation(",");
if (additionalOptions.HasOption(SymbolDisplayAdditionalOptions.FormatBaseList))
{
builder.AddLineBreak();
builder.AddIndentation();
}
else
{
builder.AddSpace();
}
}
}
IComparer <INamedTypeSymbol> comparer = (additionalOptions.HasOption(SymbolDisplayAdditionalOptions.OmitContainingNamespace))
? SymbolDefinitionComparer.SystemFirstOmitContainingNamespace.TypeComparer
: SymbolDefinitionComparer.SystemFirst.TypeComparer;
interfaces = interfaces.Sort(comparer);
ImmutableArray <INamedTypeSymbol> .Enumerator en = interfaces.GetEnumerator();
if (en.MoveNext())
{
while (true)
{
builder.AddDisplayParts(en.Current, format, additionalOptions);
if (en.MoveNext())
{
builder.AddPunctuation(",");
if (additionalOptions.HasOption(SymbolDisplayAdditionalOptions.FormatBaseList))
{
builder.AddLineBreak();
builder.AddIndentation();
}
else
{
builder.AddSpace();
}
}
else
{
break;
}
}
}
if (whereIndex != -1)
{
if (!additionalOptions.HasOption(SymbolDisplayAdditionalOptions.FormatConstraints) ||
(baseListCount == 1 && constraintCount == 1))
{
builder.AddSpace();
}
}
}
if (whereIndex != -1)
{
InitializeBuilder();
if (baseListCount == 0)
{
builder.AddRange(parts, whereIndex);
}
for (int i = whereIndex; i < parts.Length; i++)
{
if (parts[i].IsKeyword("where") &&
additionalOptions.HasOption(SymbolDisplayAdditionalOptions.FormatConstraints) &&
(baseListCount > 1 || constraintCount > 1))
{
builder.AddLineBreak();
builder.AddIndentation();
}
builder.Add(parts[i]);
}
}
if (builder == null &&
attributes.Any())
{
builder = ImmutableArray.CreateBuilder <SymbolDisplayPart>(parts.Length);
AddAttributes(builder, attributes, format, additionalOptions, includeTrailingNewLine: true);
builder.AddRange(parts);
}
bool hasEventAccessorList = false;
if (additionalOptions.HasOption(SymbolDisplayAdditionalOptions.IncludeAccessorAttributes))
{
if (symbol.Kind == SymbolKind.Property)
{
var propertySymbol = (IPropertySymbol)symbol;
IMethodSymbol getMethod = propertySymbol.GetMethod;
if (getMethod != null)
{
builder = builder ?? parts.ToBuilder();
AddAccessorAttributes(builder, getMethod, format, additionalOptions, shouldDisplayAttribute: shouldDisplayAttribute);
}
IMethodSymbol setMethod = propertySymbol.SetMethod;
if (setMethod != null)
{
builder = builder ?? parts.ToBuilder();
AddAccessorAttributes(builder, setMethod, format, additionalOptions, shouldDisplayAttribute: shouldDisplayAttribute);
}
}
else if (symbol.Kind == SymbolKind.Event)
{
var eventSymbol = (IEventSymbol)symbol;
IEnumerable <AttributeData> addAttributes = GetAttributes(eventSymbol.AddMethod, shouldDisplayAttribute);
IEnumerable <AttributeData> removeAttributes = GetAttributes(eventSymbol.RemoveMethod, shouldDisplayAttribute);
if (addAttributes.Any() ||
removeAttributes.Any())
{
hasEventAccessorList = true;
builder = builder ?? parts.ToBuilder();
AddEventAccessorAttributes(builder, addAttributes, removeAttributes, format, additionalOptions);
}
}
}
ImmutableArray <IParameterSymbol> parameters = symbol.GetParameters();
if (additionalOptions.HasOption(SymbolDisplayAdditionalOptions.IncludeParameterAttributes) &&
parameters.Any(f => GetAttributes(f, shouldDisplayAttribute).Any()))
{
builder = builder ?? parts.ToBuilder();
AddParameterAttributes(builder, symbol, parameters, format, additionalOptions, shouldDisplayAttribute);
}
if (additionalOptions.HasOption(SymbolDisplayAdditionalOptions.FormatParameters) &&
parameters.Length > 1)
{
builder = builder ?? parts.ToBuilder();
FormatParameters(symbol, builder, DefinitionListFormat.Default.IndentChars);
}
if (additionalOptions.HasOption(SymbolDisplayAdditionalOptions.PreferDefaultLiteral))
{
if ((format.ParameterOptions & SymbolDisplayParameterOptions.IncludeDefaultValue) != 0 &&
parameters.Any(f => f.HasExplicitDefaultValue && HasDefaultExpression(f.Type, f.ExplicitDefaultValue)))
{
builder = builder ?? parts.ToBuilder();
builder = ReplaceDefaultExpressionWithDefaultLiteral(symbol, builder);
}
if ((format.MemberOptions & SymbolDisplayMemberOptions.IncludeConstantValue) != 0 &&
symbol.IsKind(SymbolKind.Field))
{
var fieldSymbol = (IFieldSymbol)symbol;
if (fieldSymbol.IsConst &&
fieldSymbol.HasConstantValue &&
HasDefaultExpression(fieldSymbol.Type, fieldSymbol.ConstantValue))
{
builder = builder ?? parts.ToBuilder();
builder = ReplaceDefaultExpressionWithDefaultLiteral(symbol, builder);
}
}
}
if (ShouldAddTrailingSemicolon())
{
if (builder == null)
{
parts = parts.Add(new SymbolDisplayPart(SymbolDisplayPartKind.Punctuation, null, ";"));
}
else
{
builder.AddPunctuation(";");
}
}
return(builder?.ToImmutableArray() ?? parts);
void InitializeBuilder()
{
if (builder == null)
{
builder = ImmutableArray.CreateBuilder <SymbolDisplayPart>(parts.Length);
if (attributes.Any())
{
AddAttributes(builder, attributes, format, additionalOptions, includeTrailingNewLine: true);
}
}
}
bool ShouldAddTrailingSemicolon()
{
if (additionalOptions.HasOption(SymbolDisplayAdditionalOptions.IncludeTrailingSemicolon))
{
if (typeSymbol?.TypeKind == TypeKind.Delegate)
{
return(true);
}
switch (symbol.Kind)
{
case SymbolKind.Event:
return(!hasEventAccessorList);
case SymbolKind.Field:
return(symbol.ContainingType?.TypeKind != TypeKind.Enum);
case SymbolKind.Method:
return(true);
}
}
return(false);
}
}
protected virtual void AppendDiagnostics(IEnumerable<DiagnosticData> items)
{
_builder = _builder ?? ImmutableArray.CreateBuilder<DiagnosticData>();
_builder.AddRange(items);
}
/// <summary>
/// Initializes a new instance of the <see cref="NamingSettings"/> class.
/// </summary>
/// <param name="namingSettingsObject">The JSON object containing the settings.</param>
/// <param name="analyzerConfigOptions">The <strong>.editorconfig</strong> options to use if
/// <strong>stylecop.json</strong> does not provide values.</param>
protected internal NamingSettings(JsonObject namingSettingsObject, AnalyzerConfigOptionsWrapper analyzerConfigOptions)
{
bool?allowCommonHungarianPrefixes = null;
ImmutableArray <string> .Builder allowedHungarianPrefixes = null;
ImmutableArray <string> .Builder allowedNamespaceComponents = null;
bool?includeInferredTupleElementNames = null;
TupleElementNameCase?tupleElementNameCasing = null;
foreach (var kvp in namingSettingsObject)
{
switch (kvp.Key)
{
case "allowCommonHungarianPrefixes":
allowCommonHungarianPrefixes = kvp.ToBooleanValue();
break;
case "allowedHungarianPrefixes":
kvp.AssertIsArray();
allowedHungarianPrefixes = ImmutableArray.CreateBuilder <string>();
foreach (var prefixJsonValue in kvp.Value.AsJsonArray)
{
var prefix = prefixJsonValue.ToStringValue(kvp.Key);
if (!Regex.IsMatch(prefix, "^[a-z]{1,2}$"))
{
continue;
}
allowedHungarianPrefixes.Add(prefix);
}
break;
case "allowedNamespaceComponents":
kvp.AssertIsArray();
allowedNamespaceComponents = ImmutableArray.CreateBuilder <string>();
allowedNamespaceComponents.AddRange(kvp.Value.AsJsonArray.Select(x => x.ToStringValue(kvp.Key)));
break;
case "includeInferredTupleElementNames":
includeInferredTupleElementNames = kvp.ToBooleanValue();
break;
case "tupleElementNameCasing":
tupleElementNameCasing = kvp.ToEnumValue <TupleElementNameCase>();
break;
default:
break;
}
}
allowCommonHungarianPrefixes ??= AnalyzerConfigHelper.TryGetBooleanValue(analyzerConfigOptions, "stylecop.naming.allowCommonHungarianPrefixes");
allowedHungarianPrefixes ??= AnalyzerConfigHelper.TryGetStringListValue(analyzerConfigOptions, "stylecop.naming.allowedHungarianPrefixes")
?.Where(value => Regex.IsMatch(value, "^[a-z]{1,2}$"))
.ToImmutableArray()
.ToBuilder();
allowedNamespaceComponents ??= AnalyzerConfigHelper.TryGetStringListValue(analyzerConfigOptions, "stylecop.naming.allowedNamespaceComponents")?.ToBuilder();
includeInferredTupleElementNames ??= AnalyzerConfigHelper.TryGetBooleanValue(analyzerConfigOptions, "stylecop.naming.includeInferredTupleElementNames");
tupleElementNameCasing ??= AnalyzerConfigHelper.TryGetStringValue(analyzerConfigOptions, "stylecop.naming.tupleElementNameCasing") switch
{
"camelCase" => TupleElementNameCase.CamelCase,
"pascalCase" => TupleElementNameCase.PascalCase,
_ => null,
};
this.AllowCommonHungarianPrefixes = allowCommonHungarianPrefixes.GetValueOrDefault(true);
this.AllowedHungarianPrefixes = allowedHungarianPrefixes?.ToImmutable() ?? ImmutableArray <string> .Empty;
this.AllowedNamespaceComponents = allowedNamespaceComponents?.ToImmutable() ?? ImmutableArray <string> .Empty;
this.IncludeInferredTupleElementNames = includeInferredTupleElementNames.GetValueOrDefault(false);
this.TupleElementNameCasing = tupleElementNameCasing.GetValueOrDefault(TupleElementNameCase.PascalCase);
}
