public ResultDiffingVisitor(SarifLog sarifLog)
{
this.AbsentResults = new HashSet<Result>(Result.ValueComparer);
this.SharedResults = new HashSet<Result>(Result.ValueComparer);
this.NewResults = new HashSet<Result>(Result.ValueComparer);
VisitSarifLog(sarifLog);
}
public void ResultDiffingVisitor_DetectsAbsentAndNewResults()
{
var result1 = new Result { RuleId = "TST0001" };
var result2 = new Result { RuleId = "TST0002" };
var result3 = new Result { RuleId = "TST0003" };
var sarifLog = new SarifLog
{
Runs = new[]
{
new Run
{
Results = new List<Result>
{
result1,
result2
}
}
}
};
var visitor = new ResultDiffingVisitor(sarifLog);
result2 = new Result { RuleId = "TST0002" };
result3 = new Result { RuleId = "TST0003" };
var newResults = new Result[]
{
result2,
result3
};
visitor.Diff(newResults);
Assert.AreEqual(visitor.AbsentResults.Count, 1);
Assert.AreEqual(visitor.AbsentResults.First().RuleId, result1.RuleId);
Assert.AreEqual(visitor.NewResults.Count, 1);
Assert.AreEqual(visitor.NewResults.First().RuleId, result3.RuleId);
}
public MultipleRunsPerSarifTests()
{
var testLog = new SarifLog
{
Runs = new List <Run>
{
new Run
{
Tool = new Tool
{
Name = "Test",
SemanticVersion = "1.0"
},
Results = new List <Result>
{
new Result
{
RuleId = "C0001",
Message = "Error 1",
Locations = new List <Location>
{
new Location
{
AnalysisTarget = new PhysicalLocation
{
Uri = new Uri("file:///item1.cpp")
}
}
}
}
}
},
new Run
{
Tool = new Tool
{
Name = "Test",
SemanticVersion = "1.0"
},
Results = new List <Result>
{
new Result
{
RuleId = "C0002",
Message = "Error 2",
Locations = new List <Location>
{
new Location
{
AnalysisTarget = new PhysicalLocation
{
Uri = new Uri("file:///item2.cpp")
}
}
}
}
}
}
}
};
TestUtilities.InitializeTestEnvironment(testLog);
}
private static SarifLog Baseline(SarifLog baseline, SarifLog current)
{
return(matcher.Match(new[] { baseline }, new[] { current }).FirstOrDefault());
}
public static async Task InitializeTestEnvironmentAsync(SarifLog sarifLog)
{
InitializeTestEnvironment();
await ErrorListService.ProcessSarifLogAsync(sarifLog, string.Empty, cleanErrors : true, openInEditor : false);
}
private void RunConverter(StringBuilder sb, string toolFormat, string inputFileName, TestMode testMode)
{
string expectedFileName = inputFileName + ".sarif";
string generatedFileName = inputFileName + ".actual.sarif";
try
{
this.converter.ConvertToStandardFormat(toolFormat, inputFileName, generatedFileName, LoggingOptions.OverwriteExistingOutputFile | LoggingOptions.PrettyPrint);
}
catch (Exception ex)
{
sb.AppendLine(string.Format(CultureInfo.InvariantCulture, "The converter {0} threw an exception for input \"{1}\".", toolFormat, inputFileName));
sb.AppendLine(ex.ToString());
return;
}
string expectedSarif = File.ReadAllText(expectedFileName);
string actualSarif = File.ReadAllText(generatedFileName);
if (expectedSarif == actualSarif)
{
JsonSerializerSettings settings = new JsonSerializerSettings()
{
ContractResolver = SarifContractResolver.Instance,
Formatting = Formatting.Indented
};
// Make sure we can successfully deserialize what was just generated
SarifLog actualLog = JsonConvert.DeserializeObject <SarifLog>(actualSarif, settings);
actualSarif = JsonConvert.SerializeObject(actualLog, settings);
bool success;
switch (testMode)
{
case TestMode.CompareFileContents:
success = expectedSarif == actualSarif;
break;
case TestMode.CompareObjectModels:
SarifLog expectedLog = JsonConvert.DeserializeObject <SarifLog>(expectedSarif, settings);
success = SarifLogEqualityComparer.Instance.Equals(expectedLog, actualLog);
break;
default:
throw new ArgumentException($"Invalid test mode: {testMode}", nameof(testMode));
}
if (success)
{
return;
}
else
{
File.WriteAllText(generatedFileName, actualSarif);
}
}
string errorMessage = "The output of the {0} converter did not match for input {1}.";
sb.AppendLine(string.Format(CultureInfo.CurrentCulture, errorMessage, toolFormat, inputFileName));
sb.AppendLine("Check differences with:");
sb.AppendLine(GenerateDiffCommand(expectedFileName, generatedFileName));
}
public int Run(FileWorkItemsOptions options, IFileSystem fileSystem)
{
using (var filingContext = new SarifWorkItemContext())
{
if (!string.IsNullOrEmpty(options.ConfigurationFilePath))
{
filingContext.LoadFromXml(options.ConfigurationFilePath);
}
if (!ValidateOptions(options, filingContext, fileSystem))
{
return(FAILURE);
}
// For unit tests: allow us to just validate the options and return.
if (s_validateOptionsOnly)
{
return(SUCCESS);
}
string logFileContents = fileSystem.ReadAllText(options.InputFilePath);
EnsureValidSarifLogFile(logFileContents, options.InputFilePath);
if (options.SplittingStrategy != SplittingStrategy.None)
{
filingContext.SplittingStrategy = options.SplittingStrategy;
}
if (options.ShouldFileUnchanged != null)
{
filingContext.ShouldFileUnchanged = options.ShouldFileUnchanged.Value;
}
if (options.DataToRemove.ToFlags() != OptionallyEmittedData.None)
{
filingContext.DataToRemove = options.DataToRemove.ToFlags();
}
if (options.DataToInsert.ToFlags() != OptionallyEmittedData.None)
{
filingContext.DataToInsert = options.DataToInsert.ToFlags();
}
SarifLog sarifLog = null;
using (var filer = new SarifWorkItemFiler(filingContext.HostUri, filingContext))
{
sarifLog = filer.FileWorkItems(logFileContents);
}
// By the time we're here, we have updated options.OutputFilePath with the
// options.InputFilePath argument (in the presence of --inline) and validated
// that we can write to this location with one exception: we do not currently
// handle inlining to a read-only location.
string outputFilePath = options.OutputFilePath;
if (!string.IsNullOrEmpty(outputFilePath))
{
Formatting formatting = options.PrettyPrint ? Formatting.Indented : Formatting.None;
string sarifLogText = JsonConvert.SerializeObject(sarifLog, formatting);
fileSystem.WriteAllText(outputFilePath, sarifLogText);
}
}
return(SUCCESS);
}
private SarifLog CreatePartitionLog(T partitionValue)
{
SarifLog partitionLog;
if (deepClone)
{
// Save time and space by not cloning the runs unless and until necessary. We will
// only need to clone the runs that have results in this partition.
IList <Run> originalRuns = originalLog.Runs;
originalLog.Runs = null;
partitionLog = originalLog.DeepClone();
originalLog.Runs = originalRuns;
}
else
{
partitionLog = new SarifLog(originalLog)
{
Runs = null
};
}
partitionLog.Runs = new List <Run>();
partitionLog.SetProperty(PartitionValuePropertyName, partitionValue);
var artifactIndexRemappingDictionaries = new List <Dictionary <int, int> >();
for (int iOriginalRun = 0; iOriginalRun < partitionRunInfos.Count; ++iOriginalRun)
{
// Are there results for this run in this partition?
if (partitionRunInfos[iOriginalRun].ResultDictionary.TryGetValue(partitionValue, out List <Result> results))
{
// Yes, so we'll need a copy of the original run in which the results, and
// certain run-level collections such as Run.Artifacts, have been replaced.
Run originalRun = originalLog.Runs[iOriginalRun];
Run partitionRun;
if (deepClone)
{
// Save time and space by only cloning the necessary results and associated
// collection elements. We already cloned the relevant results in VisitResult.
IList <Result> originalResults = originalRun.Results;
IList <Artifact> originalArtifacts = originalRun.Artifacts;
originalRun.Results = null;
originalRun.Artifacts = null;
partitionRun = originalRun.DeepClone();
originalRun.Results = originalResults;
originalRun.Artifacts = originalArtifacts;
}
else
{
partitionRun = new Run(originalRun)
{
Results = null,
Artifacts = null
};
}
partitionRun.Results = results;
// Construct a mapping from the indices in the original run to the indices
// in the partition run. This includes both the indices relevant to the
// results in this partition, and indices that appear in all partitions
// because they are mentioned outside of any result (we refer to these as
// "global" indices).
IEnumerable <int> allPartitionArtifactIndices = partitionRunInfos[iOriginalRun].GlobalArtifactIndices;
if (partitionRunInfos[iOriginalRun].ArtifactIndicesDictionary.TryGetValue(partitionValue, out HashSet <int> partitionResultArtifactIndices))
{
allPartitionArtifactIndices = allPartitionArtifactIndices.Union(partitionResultArtifactIndices);
}
var partitionArtifactIndexRemappingDictionary = new Dictionary <int, int>();
artifactIndexRemappingDictionaries.Add(partitionArtifactIndexRemappingDictionary);
List <int> allPartitionArtifactIndicesList = allPartitionArtifactIndices
.OrderBy(index => index)
.ToList();
int numPartitionIndices = 0;
foreach (int originalIndex in allPartitionArtifactIndicesList)
{
partitionArtifactIndexRemappingDictionary.Add(originalIndex, numPartitionIndices++);
}
// Copy the artifacts corresponding to the complete set of indices.
var artifacts = new List <Artifact>();
foreach (int originalIndex in allPartitionArtifactIndicesList)
{
Artifact originalArtifact = originalRun.Artifacts[originalIndex];
Artifact partitionArtifact = deepClone
? originalArtifact.DeepClone()
: new Artifact(originalArtifact);
artifacts.Add(partitionArtifact);
}
if (artifacts.Any())
{
partitionRun.Artifacts = artifacts;
}
partitionLog.Runs.Add(partitionRun);
}
}
// Traverse the entire log, fixing the index mappings for indices that appear
// in the remapping dictionaries.
var remappingVisitor = new PartitionedIndexRemappingVisitor(artifactIndexRemappingDictionaries);
remappingVisitor.VisitSarifLog(partitionLog);
return(partitionLog);
}
private static void SaveLogFile(string filePath, SarifLog log)
{
SaveLogFile(filePath, JsonConvert.SerializeObject(log));
}
// The sarifLog parameter contains exactly a set of results that are intended to be filed as a single work item
// and this log will be attached to the work item.
public SarifWorkItemModel(SarifLog sarifLog, SarifWorkItemContext context = null, Guid guid = default(Guid))
{
if (sarifLog == null)
{
throw new ArgumentNullException(nameof(sarifLog));
}
this.SarifLog = sarifLog;
this.Context = context ?? new SarifWorkItemContext();
this.Guid = (guid == default(Guid)) ? Guid.NewGuid() : guid;
var visitor = new ExtractAllArtifactLocationsVisitor();
visitor.VisitSarifLog(sarifLog);
foreach (ArtifactLocation location in visitor.AllArtifactLocations)
{
if (location?.Uri != null)
{
LocationUris ??= new List <Uri>();
LocationUris.Add(location.Uri);
}
}
// Shared GitHub/Azure DevOps concepts
this.LabelsOrTags = new List <string>();
foreach (string tag in context.AdditionalTags)
{
this.LabelsOrTags.Add(tag);
}
// Note that we provide a simple file name here. The filers will
// add a prefix to the file name that includes other details,
// such as the id of the filed item.
this.Attachment = new Microsoft.WorkItems.Attachment
{
Name = "ScanResults.sarif",
Text = JsonConvert.SerializeObject(sarifLog, Formatting.Indented),
};
this.Title = sarifLog.Runs?[0]?.CreateWorkItemTitle(this.Context.ShouldFileUnchanged);
// TODO: Provide a useful SARIF-derived discussion entry
// for the preliminary filing operation.
//
// https://github.com/microsoft/sarif-sdk/issues/1756
//
this.CommentOrDiscussion = $"Default {nameof(this.CommentOrDiscussion)}";
string descriptionFooter = this.Context.DescriptionFooter;
this.BodyOrDescription =
Environment.NewLine +
sarifLog.CreateWorkItemDescription(this.Context, LocationUris) +
descriptionFooter;
// These properties are Azure DevOps-specific. All ADO work item board
// area paths are rooted by the project name, as are iterations.
this.Area = this.RepositoryOrProject;
this.Iteration = this.RepositoryOrProject;
// Milestone is a shared concept between GitHub and AzureDevOps. For both
// environments this field is an open-ended text field. As such, there is
// no useful default. An empty string here will prompt filers to skip
// updating this field.
this.Milestone = string.Empty;
// No defaults are provided for custom fields. This dictionary is used
// to provide values for non-standard fields as defined in an Azure
// DevOps work item template. Because this data by definition addresses
// non-generalized needs, there are no useful defaults we can provide.
//
// this.CustomFields
}
private static void Main(string[] args)
{
bool deferred = bool.Parse(args[0]);
string filePath = args[1];
SarifLog log = null;
Console.WriteLine($"Loading {filePath}{(deferred ? " (deferred)" : "")}...");
Measure(() =>
{
// Use 'SarifDeferredContractResolver' and 'JsonPositionedTextReader' to load a deferred version of the same object graph.
JsonSerializer serializer = new JsonSerializer();
if (deferred)
{
serializer.ContractResolver = SarifDeferredContractResolver.Instance;
}
using (JsonTextReader reader = (deferred ? new JsonPositionedTextReader(filePath) : new JsonTextReader(new StreamReader(filePath))))
{
log = serializer.Deserialize <SarifLog>(reader);
}
return($"Loaded {filePath} ({(new FileInfo(filePath).Length / BytesPerMB):n1} MB)");
});
// Enumerate collections as normal. Enumeration is efficient. Indexing to items works, but is slower, as a file seek is required per item read.
Run run = log.Runs[0];
Measure(() =>
{
int messageLengthTotal = 0;
// Fastest: Enumerate
foreach (Result result in run.Results)
{
messageLengthTotal += result?.Message?.Text?.Length ?? 0;
}
// Slower: Count and indexer
//int messageCount = run.Results.Count;
//for (int i = 0; i < messageCount; ++i)
//{
// Result result = run.Results[i];
// messageLengthTotal += result?.Message?.Text?.Length ?? 0;
//}
return($"Enumerated {run.Results.Count:n0} Results message total {messageLengthTotal / BytesPerMB:n0}MB");
});
Measure(() =>
{
int fileCount = 0;
int uriLengthTotal = 0;
if (run.Artifacts != null)
{
// Fastest: Enumerate
foreach (Artifact artifact in run.Artifacts)
{
uriLengthTotal += artifact?.Location?.Uri?.OriginalString?.Length ?? 0;
fileCount++;
}
// Slower: Keys and indexer
//foreach (var key in run.Files.Keys)
//{
// FileData file = run.Files[key];
// uriLengthTotal += file?.ArtifactLocation?.Uri?.OriginalString?.Length ?? 0;
// fileCount++;
//}
}
return($"Enumerated {fileCount:n0} Files, URI total {uriLengthTotal / BytesPerMB:n0}MB.");
});
GC.KeepAlive(log);
}
public static bool AreSufficientlySimiliar(SarifLog baseline, string baselineResultGuid, SarifLog current, string currentResultGuid)
{
Result bResult = baseline.FindByGuid(baselineResultGuid);
Result cResult = current.FindByGuid(currentResultGuid);
if (bResult == null || cResult == null)
{
return(false);
}
ExtractedResult bExtractedResult = new ExtractedResult(bResult, bResult.Run);
ExtractedResult cExtractedResult = new ExtractedResult(cResult, cResult.Run);
bool outcome = bExtractedResult.IsSufficientlySimilarTo(cExtractedResult);
return(outcome);
}
public LogInSeries(SarifLog log, int logIndex, string filePath)
{
Log = log;
LogIndex = logIndex;
FilePath = filePath;
}
private int WriteRunToErrorList(Run run, string logFilePath, SarifLog sarifLog)
{
if (!SarifViewerPackage.IsUnitTesting)
{
#pragma warning disable VSTHRD108 // Assert thread affinity unconditionally
ThreadHelper.ThrowIfNotOnUIThread();
#pragma warning restore VSTHRD108
}
int runIndex = CodeAnalysisResultManager.Instance.GetNextRunIndex();
var dataCache = new RunDataCache(runIndex, logFilePath, sarifLog);
CodeAnalysisResultManager.Instance.RunIndexToRunDataCache.Add(runIndex, dataCache);
CodeAnalysisResultManager.Instance.CacheUriBasePaths(run);
var sarifErrors = new List <SarifErrorListItem>();
var dte = Package.GetGlobalService(typeof(DTE)) as DTE2;
var projectNameCache = new ProjectNameCache(dte?.Solution);
this.StoreFileDetails(run.Artifacts);
if (run.Results != null)
{
foreach (Result result in run.Results)
{
result.Run = run;
var sarifError = new SarifErrorListItem(run, runIndex, result, logFilePath, projectNameCache);
sarifErrors.Add(sarifError);
}
}
if (run.Invocations != null)
{
foreach (Invocation invocation in run.Invocations)
{
if (invocation.ToolConfigurationNotifications != null)
{
foreach (Notification configurationNotification in invocation.ToolConfigurationNotifications)
{
var sarifError = new SarifErrorListItem(run, runIndex, configurationNotification, logFilePath, projectNameCache);
sarifErrors.Add(sarifError);
}
}
if (invocation.ToolExecutionNotifications != null)
{
foreach (Notification toolNotification in invocation.ToolExecutionNotifications)
{
if (toolNotification.Level != FailureLevel.Note)
{
var sarifError = new SarifErrorListItem(run, runIndex, toolNotification, logFilePath, projectNameCache);
sarifErrors.Add(sarifError);
}
}
}
}
}
if (run.HasAbsentResults())
{
this.ShowFilteredCategoryColumn();
}
if (run.HasSuppressedResults())
{
this.ShowFilteredSuppressionStateColumn();
}
(dataCache.SarifErrors as List <SarifErrorListItem>).AddRange(sarifErrors);
SarifTableDataSource.Instance.AddErrors(sarifErrors);
// This causes already open "text views" to be tagged when SARIF logs are processed after a view is opened.
SarifLocationTagHelpers.RefreshTags();
return(sarifErrors.Count);
}
internal static async Task ProcessSarifLogAsync(SarifLog sarifLog, string logFilePath, bool cleanErrors, bool openInEditor)
{
// The creation of the data models must be done on the UI thread (for now).
// VS's table data source constructs are indeed thread safe.
// The object model (which is eventually handed to WPF\XAML) could also
// be constructed on any thread as well.
// However the current implementation of the data model and
// the "run data cache" have not been augmented to support this
// and are not thread safe.
// This work could be done in the future to do even less work on the UI
// thread if needed.
if (!SarifViewerPackage.IsUnitTesting)
{
await ThreadHelper.JoinableTaskFactory.SwitchToMainThreadAsync();
}
// Clear previous data
if (cleanErrors)
{
CleanAllErrors();
}
bool hasResults = false;
foreach (Run run in sarifLog.Runs)
{
// run.tool is required, add one if it's missing
if (run.Tool == null)
{
run.Tool = new Tool
{
Driver = new ToolComponent
{
Name = Resources.UnknownToolName,
},
};
}
if (Instance.WriteRunToErrorList(run, logFilePath, sarifLog) > 0)
{
hasResults = true;
}
}
if (openInEditor && !SarifViewerPackage.IsUnitTesting)
{
SdkUIUtilities.OpenDocument(ServiceProvider.GlobalProvider, logFilePath, usePreviewPane: false);
}
if (hasResults)
{
if (!SarifViewerPackage.IsUnitTesting)
{
// We cannot show UI during unit-tests.
SdkUIUtilities.ShowToolWindowAsync(new Guid(ToolWindowGuids80.ErrorList), activate: false).FileAndForget(Constants.FileAndForgetFaultEventNames.ShowErrorList);
}
}
SarifLogsMonitor.Instance.StartWatch(logFilePath);
RaiseLogProcessed(ExceptionalConditionsCalculator.Calculate(sarifLog));
}
public static async Task ProcessLogFileCoreAsync(string filePath, string toolFormat, bool promptOnLogConversions, bool cleanErrors, bool openInEditor)
{
SarifLog log = null;
string logText = null;
string outputPath = null;
bool saveOutputFile = true;
if (toolFormat.MatchesToolFormat(ToolFormat.None))
{
await RetryInvokeAsync(
async() =>
{
using (var logStreamReader = new StreamReader(filePath, Encoding.UTF8))
{
logText = await logStreamReader.ReadToEndAsync().ConfigureAwait(continueOnCapturedContext: false);
}
},
retryInterval : TimeSpan.FromMilliseconds(300),
maxAttemptCount : 5);
Match match = MatchVersionProperty(logText);
if (match.Success)
{
string inputVersion = match.Groups["version"].Value;
if (inputVersion == SarifUtilities.V1_0_0)
{
// They're opening a v1 log, so we need to transform it.
// Ask if they'd like to save the v2 log.
MessageDialogCommand response = promptOnLogConversions ?
await PromptToSaveProcessedLogAsync(Resources.TransformV1_DialogMessage).ConfigureAwait(continueOnCapturedContext: false) :
MessageDialogCommand.No;
if (response == MessageDialogCommand.Cancel)
{
return;
}
var settingsV1 = new JsonSerializerSettings()
{
ContractResolver = SarifContractResolverVersionOne.Instance,
};
SarifLogVersionOne v1Log = JsonConvert.DeserializeObject <SarifLogVersionOne>(logText, settingsV1);
var transformer = new SarifVersionOneToCurrentVisitor();
transformer.VisitSarifLogVersionOne(v1Log);
log = transformer.SarifLog;
if (response == MessageDialogCommand.Yes)
{
// Prompt for a location to save the transformed log.
outputPath = await PromptForFileSaveLocationAsync(Resources.SaveTransformedV1Log_DialogTitle, filePath).ConfigureAwait(continueOnCapturedContext: false);
if (string.IsNullOrEmpty(outputPath))
{
return;
}
}
logText = JsonConvert.SerializeObject(log);
}
else if (inputVersion != VersionConstants.StableSarifVersion)
{
// It's an older v2 version, so send it through the pre-release compat transformer.
// Ask if they'd like to save the transformed log.
MessageDialogCommand response = promptOnLogConversions ?
await PromptToSaveProcessedLogAsync(string.Format(Resources.TransformPrereleaseV2_DialogMessage, VersionConstants.StableSarifVersion)).ConfigureAwait(continueOnCapturedContext: false) :
MessageDialogCommand.No;
if (response == MessageDialogCommand.Cancel)
{
return;
}
log = PrereleaseCompatibilityTransformer.UpdateToCurrentVersion(logText, Formatting.Indented, out logText);
if (response == MessageDialogCommand.Yes)
{
// Prompt for a location to save the transformed log.
outputPath = await PromptForFileSaveLocationAsync(Resources.SaveTransformedPrereleaseV2Log_DialogTitle, filePath).ConfigureAwait(continueOnCapturedContext: false);
if (string.IsNullOrEmpty(outputPath))
{
return;
}
}
}
else
{
// Since we didn't do any pre-processing, we don't need to write to a temp location.
outputPath = filePath;
saveOutputFile = false;
}
}
else
{
await ThreadHelper.JoinableTaskFactory.SwitchToMainThreadAsync();
// The version property wasn't found within the first 100 characters.
// Per the spec, it should appear first in the sarifLog object.
VsShellUtilities.ShowMessageBox(ServiceProvider.GlobalProvider,
Resources.VersionPropertyNotFound_DialogTitle,
null, // title
OLEMSGICON.OLEMSGICON_QUERY,
OLEMSGBUTTON.OLEMSGBUTTON_OK,
OLEMSGDEFBUTTON.OLEMSGDEFBUTTON_FIRST);
return;
}
}
else
{
// They're opening a non-SARIF log, so we need to convert it.
// Ask if they'd like to save the converted log.
MessageDialogCommand response = promptOnLogConversions ?
await PromptToSaveProcessedLogAsync(Resources.ConvertNonSarifLog_DialogMessage).ConfigureAwait(continueOnCapturedContext: false) :
MessageDialogCommand.No;
if (response == MessageDialogCommand.Cancel)
{
return;
}
// The converter doesn't have async methods, so spin
// up a task to do this.
await System.Threading.Tasks.Task.Run(() =>
{
var sb = new StringBuilder();
using (FileStream fileStream = File.OpenRead(filePath))
{
using (var outputTextWriter = new StringWriter(sb))
using (var outputJson = new JsonTextWriter(outputTextWriter))
using (var output = new ResultLogJsonWriter(outputJson))
{
var converter = new ToolFormatConverter();
converter.ConvertToStandardFormat(toolFormat, fileStream, output);
}
logText = sb.ToString();
if (response == MessageDialogCommand.Yes)
{
// Prompt for a location to save the converted log.
outputPath = PromptForFileSaveLocationAsync(Resources.SaveConvertedLog_DialogTitle, filePath).Result;
}
}
}).ConfigureAwait(continueOnCapturedContext: false);
}
if (string.IsNullOrEmpty(outputPath))
{
outputPath = Path.GetTempFileName() + ".sarif";
}
if (saveOutputFile)
{
await SaveLogFileAsync(outputPath, logText).ConfigureAwait(continueOnCapturedContext: false);
}
if (log == null)
{
log = JsonConvert.DeserializeObject <SarifLog>(logText);
}
await ProcessSarifLogAsync(log, outputPath, cleanErrors : cleanErrors, openInEditor : openInEditor).ConfigureAwait(continueOnCapturedContext: false);
}
protected override string ConstructTestOutputFromInputResource(string inputResourceName, object parameter)
{
string v2LogText = GetResourceText(inputResourceName);
string inputLogDirectory = this.OutputFolderPath;
string inputLogFileName = Path.GetFileName(inputResourceName);
string inputLogFilePath = Path.Combine(this.OutputFolderPath, inputLogFileName);
string actualLogFilePath = Guid.NewGuid().ToString();
string ruleUnderTest = Path.GetFileNameWithoutExtension(inputLogFilePath).Split('.')[1];
// All SARIF rule prefixes require update to current release.
// All rules with JSON prefix are low level syntax/deserialization checks.
// We can't transform these test inputs as that operation fixes up errors in the file.
// Also, don't transform the tests for SARIF1011 or SARIF2008, because these rules
// examine the actual contents of the $schema property.
string[] shouldNotTransform = { "SARIF1011", "SARIF2008" };
bool updateInputsToCurrentSarif = IsSarifRule(ruleUnderTest) &&
!shouldNotTransform.Contains(ruleUnderTest);
var validateOptions = new ValidateOptions
{
SarifOutputVersion = SarifVersion.Current,
TargetFileSpecifiers = new[] { inputLogFilePath },
OutputFilePath = actualLogFilePath,
Quiet = true,
UpdateInputsToCurrentSarif = updateInputsToCurrentSarif,
PrettyPrint = true,
Optimize = true,
Verbose = true // Turn on note-level rules.
};
var mockFileSystem = new Mock <IFileSystem>();
mockFileSystem.Setup(x => x.DirectoryExists(inputLogDirectory)).Returns(true);
mockFileSystem.Setup(x => x.DirectoryGetDirectories(It.IsAny <string>())).Returns(new string[0]);
mockFileSystem.Setup(x => x.DirectoryGetFiles(inputLogDirectory, inputLogFileName)).Returns(new string[] { inputLogFilePath });
mockFileSystem.Setup(x => x.FileReadAllText(inputLogFilePath)).Returns(v2LogText);
mockFileSystem.Setup(x => x.FileReadAllText(It.IsNotIn <string>(inputLogFilePath))).Returns <string>(path => File.ReadAllText(path));
mockFileSystem.Setup(x => x.FileWriteAllText(It.IsAny <string>(), It.IsAny <string>()));
// Some rules are disabled by default, so create a configuration file that explicitly
// enables the rule under test.
using (TempFile configFile = CreateTempConfigFile(ruleUnderTest, parameter))
{
validateOptions.ConfigurationFilePath = configFile.Name;
mockFileSystem.Setup(x => x.FileExists(validateOptions.ConfigurationFilePath)).Returns(true);
var validateCommand = new ValidateCommand(mockFileSystem.Object);
int returnCode = validateCommand.Run(validateOptions);
if (validateCommand.ExecutionException != null)
{
Console.WriteLine(validateCommand.ExecutionException.ToString());
}
returnCode.Should().Be(0);
}
string actualLogFileContents = File.ReadAllText(actualLogFilePath);
SarifLog actualLog = JsonConvert.DeserializeObject <SarifLog>(actualLogFileContents);
Run run = actualLog.Runs[0];
// First, we'll strip any validation results that don't originate with the rule under test.
// But leave the results that originate from JSchema! Also, be careful because output files
// from "valid" test cases don't have any results.
run.Results = run.Results
?.Where(r => IsRelevant(r.RuleId, ruleUnderTest))
?.ToList();
// Next, remove any rule metadata for those rules. The output files from "valid" test
// cases don't have any rules.
run.Tool.Driver.Rules = run.Tool.Driver.Rules
?.Where(r => IsRelevant(r.Id, ruleUnderTest))
?.ToList();
// Since there's only one rule in the metadata, the ruleIndex for all remaining results
// must be 0.
foreach (Result result in run.Results)
{
result.RuleIndex = 0;
}
// Next, we'll remove non-deterministic information, most notably, timestamps emitted for the invocation data.
var removeTimestampsVisitor = new RemoveOptionalDataVisitor(OptionallyEmittedData.NondeterministicProperties);
removeTimestampsVisitor.Visit(actualLog);
// Finally, we'll elide non-deterministic build root details
var rebaseUrisVisitor = new RebaseUriVisitor("TEST_DIR", new Uri(inputLogDirectory));
rebaseUrisVisitor.Visit(actualLog);
// There are differences in log file output depending on whether we are invoking xunit
// from within Visual Studio or at the command-line via xunit.exe. We elide these differences.
ToolComponent driver = actualLog.Runs[0].Tool.Driver;
driver.Name = "SARIF Functional Testing";
driver.Version = null;
driver.FullName = null;
driver.SemanticVersion = null;
driver.DottedQuadFileVersion = null;
driver.Product = null;
driver.Organization = null;
driver.Properties?.Clear();
actualLog.Runs[0].OriginalUriBaseIds = null;
return(JsonConvert.SerializeObject(actualLog, Formatting.Indented));
}
public static void ProcessLogFile(string filePath, Solution solution, string toolFormat = ToolFormat.None, bool promptOnLogConversions = true)
{
SarifLog log = null;
string logText;
string outputPath = null;
bool saveOutputFile = true;
if (toolFormat.MatchesToolFormat(ToolFormat.None))
{
logText = File.ReadAllText(filePath);
Match match = MatchVersionProperty(logText);
if (match.Success)
{
string inputVersion = match.Groups["version"].Value;
if (inputVersion == SarifUtilities.V1_0_0)
{
// They're opening a v1 log, so we need to transform it.
// Ask if they'd like to save the v2 log.
MessageDialogCommand response = promptOnLogConversions ? PromptToSaveProcessedLog(Resources.TransformV1_DialogMessage) : MessageDialogCommand.No;
if (response == MessageDialogCommand.Cancel)
{
return;
}
JsonSerializerSettings settingsV1 = new JsonSerializerSettings()
{
ContractResolver = SarifContractResolverVersionOne.Instance
};
SarifLogVersionOne v1Log = JsonConvert.DeserializeObject <SarifLogVersionOne>(logText, settingsV1);
var transformer = new SarifVersionOneToCurrentVisitor();
transformer.VisitSarifLogVersionOne(v1Log);
log = transformer.SarifLog;
if (response == MessageDialogCommand.Yes)
{
// Prompt for a location to save the transformed log.
outputPath = PromptForFileSaveLocation(Resources.SaveTransformedV1Log_DialogTitle, filePath);
if (string.IsNullOrEmpty(outputPath))
{
return;
}
}
logText = JsonConvert.SerializeObject(log);
}
else if (inputVersion != VersionConstants.StableSarifVersion)
{
// It's an older v2 version, so send it through the pre-release compat transformer.
// Ask if they'd like to save the transformed log.
MessageDialogCommand response = promptOnLogConversions ? PromptToSaveProcessedLog(string.Format(Resources.TransformPrereleaseV2_DialogMessage, VersionConstants.StableSarifVersion)) : MessageDialogCommand.No;
if (response == MessageDialogCommand.Cancel)
{
return;
}
log = PrereleaseCompatibilityTransformer.UpdateToCurrentVersion(logText, Formatting.Indented, out logText);
if (response == MessageDialogCommand.Yes)
{
// Prompt for a location to save the transformed log.
outputPath = PromptForFileSaveLocation(Resources.SaveTransformedPrereleaseV2Log_DialogTitle, filePath);
if (string.IsNullOrEmpty(outputPath))
{
return;
}
}
}
else
{
// Since we didn't do any pre-processing, we don't need to write to a temp location.
outputPath = filePath;
saveOutputFile = false;
}
}
else
{
// The version property wasn't found within the first 100 characters.
// Per the spec, it should appear first in the sarifLog object.
VsShellUtilities.ShowMessageBox(SarifViewerPackage.ServiceProvider,
Resources.VersionPropertyNotFound_DialogTitle,
null, // title
OLEMSGICON.OLEMSGICON_QUERY,
OLEMSGBUTTON.OLEMSGBUTTON_OK,
OLEMSGDEFBUTTON.OLEMSGDEFBUTTON_FIRST);
return;
}
}
else
{
// They're opening a non-SARIF log, so we need to convert it.
// Ask if they'd like to save the converted log.
MessageDialogCommand response = promptOnLogConversions ? PromptToSaveProcessedLog(Resources.ConvertNonSarifLog_DialogMessage) : MessageDialogCommand.No;
if (response == MessageDialogCommand.Cancel)
{
return;
}
var converter = new ToolFormatConverter();
var sb = new StringBuilder();
using (var input = new MemoryStream(File.ReadAllBytes(filePath)))
{
var outputTextWriter = new StringWriter(sb);
var outputJson = new JsonTextWriter(outputTextWriter);
var output = new ResultLogJsonWriter(outputJson);
input.Seek(0, SeekOrigin.Begin);
converter.ConvertToStandardFormat(toolFormat, input, output);
// This is serving as a flush mechanism.
output.Dispose();
logText = sb.ToString();
if (response == MessageDialogCommand.Yes)
{
// Prompt for a location to save the converted log.
outputPath = PromptForFileSaveLocation(Resources.SaveConvertedLog_DialogTitle, filePath);
}
}
}
if (string.IsNullOrEmpty(outputPath))
{
outputPath = Path.GetTempFileName() + ".sarif";
}
if (saveOutputFile)
{
SaveLogFile(outputPath, logText);
}
if (log == null)
{
log = JsonConvert.DeserializeObject <SarifLog>(logText);
}
ProcessSarifLog(log, outputPath, solution, showMessageOnNoResults: promptOnLogConversions);
SarifTableDataSource.Instance.BringToFront();
}
protected override void Analyze(SarifLog log, string logPointer)
{
AnalyzeSchema(log.SchemaUri, logPointer);
}
private SarifLog CreatePartitionLog(T partitionValue)
{
SarifLog partitionLog;
if (deepClone)
{
// Save time and space by not cloning the runs unless and until necessary. We will
// only need to clone the runs that have results in this partition.
IList <Run> originalRuns = originalLog.Runs;
originalLog.Runs = null;
partitionLog = originalLog.DeepClone();
originalLog.Runs = originalRuns;
}
else
{
partitionLog = new SarifLog(originalLog.SchemaUri,
originalLog.Version,
runs: null,
originalLog.InlineExternalProperties,
originalLog.Properties);
}
partitionLog.Runs = new List <Run>();
partitionLog.SetProperty(PartitionValuePropertyName, partitionValue);
var artifactIndexRemappingDictionaries = new List <Dictionary <int, int> >();
for (int iOriginalRun = 0; iOriginalRun < partitionRunInfos.Count; ++iOriginalRun)
{
// Are there results for this run in this partition?
if (partitionRunInfos[iOriginalRun].ResultDictionary.TryGetValue(partitionValue, out List <Result> results))
{
// Yes, so we'll need a copy of the original run in which the results, and
// certain run-level collections such as Run.Artifacts, have been replaced.
Run originalRun = originalLog.Runs[iOriginalRun];
Run partitionRun;
if (deepClone)
{
// Save time and space by only cloning the necessary results and associated
// collection elements. We already cloned the relevant results in VisitResult.
IList <Result> originalResults = originalRun.Results;
IList <Artifact> originalArtifacts = originalRun.Artifacts;
originalRun.Results = null;
originalRun.Artifacts = null;
partitionRun = originalRun.DeepClone();
originalRun.Results = originalResults;
originalRun.Artifacts = originalArtifacts;
}
else
{
partitionRun = new Run(originalRun.Tool,
originalRun.Invocations,
originalRun.Conversion,
originalRun.Language,
originalRun.VersionControlProvenance,
originalRun.OriginalUriBaseIds,
artifacts: null,
originalRun.LogicalLocations,
originalRun.Graphs,
results: null,
originalRun.AutomationDetails,
originalRun.RunAggregates,
originalRun.BaselineGuid,
originalRun.RedactionTokens,
originalRun.DefaultEncoding,
originalRun.DefaultSourceLanguage,
originalRun.NewlineSequences,
originalRun.ColumnKind,
originalRun.ExternalPropertyFileReferences,
originalRun.ThreadFlowLocations,
originalRun.Taxonomies,
originalRun.Addresses,
originalRun.Translations,
originalRun.Policies,
originalRun.WebRequests,
originalRun.WebResponses,
originalRun.SpecialLocations,
originalRun.Properties);
}
partitionRun.Results = results;
// Construct a mapping from the indices in the original run to the indices
// in the partition run. This includes both the indices relevant to the
// results in this partition, and indices that appear in all partitions
// because they are mentioned outside of any result (we refer to these as
// "global" indices).
IEnumerable <int> allPartitionArtifactIndices = partitionRunInfos[iOriginalRun].GlobalArtifactIndices;
if (partitionRunInfos[iOriginalRun].ArtifactIndicesDictionary.TryGetValue(partitionValue, out HashSet <int> partitionResultArtifactIndices))
{
allPartitionArtifactIndices = allPartitionArtifactIndices.Union(partitionResultArtifactIndices);
}
var partitionArtifactIndexRemappingDictionary = new Dictionary <int, int>();
artifactIndexRemappingDictionaries.Add(partitionArtifactIndexRemappingDictionary);
List <int> allPartitionArtifactIndicesList = allPartitionArtifactIndices
.OrderBy(index => index)
.ToList();
int numPartitionIndices = 0;
foreach (int originalIndex in allPartitionArtifactIndicesList)
{
partitionArtifactIndexRemappingDictionary.Add(originalIndex, numPartitionIndices++);
}
// Copy the artifacts corresponding to the complete set of indices.
var artifacts = new List <Artifact>();
foreach (int originalIndex in allPartitionArtifactIndicesList)
{
Artifact originalArtifact = originalRun.Artifacts[originalIndex];
Artifact partitionArtifact = deepClone
? originalArtifact.DeepClone()
: new Artifact(originalArtifact);
artifacts.Add(partitionArtifact);
}
if (artifacts.Any())
{
partitionRun.Artifacts = artifacts;
}
partitionLog.Runs.Add(partitionRun);
}
}
// Traverse the entire log, fixing the index mappings for indices that appear
// in the remapping dictionaries.
var remappingVisitor = new PartitionedIndexRemappingVisitor(artifactIndexRemappingDictionaries);
remappingVisitor.VisitSarifLog(partitionLog);
return(partitionLog);
}
protected override void Analyze(SarifLog log, string logPointer)
{
AnalyzeUri(log.SchemaUri, logPointer.AtProperty(SarifPropertyName.Schema));
}
private void TestWorkItemFiler(SarifLog sarifLog, SarifWorkItemContext context, bool adoClient)
{
// ONE. Create test data that the low-level ADO client mocks
// will flow back to the SARIF work item filer.
var attachmentReference = new AttachmentReference()
{
Id = Guid.NewGuid(),
Url = Guid.NewGuid().ToString()
};
var workItem = new WorkItem
{
Id = DateTime.UtcNow.Millisecond,
Links = new ReferenceLinks()
};
// The fake URI to the filed item that we'll expect the filer to receive
string bugUriText = "https://example.com/" + Guid.NewGuid().ToString();
string bugHtmlUriText = "https://example.com/" + Guid.NewGuid().ToString();
Uri bugUri = new Uri(bugUriText, UriKind.RelativeOrAbsolute);
Uri bugHtmlUri = new Uri(bugHtmlUriText, UriKind.RelativeOrAbsolute);
workItem.Url = bugUriText;
workItem.Links.AddLink("html", bugHtmlUriText);
// TWO. Reset variables to capture whether we enter all expected client methods.
ConnectCalled = false;
CreateWorkItemCalled = CreateAttachmentCount = UpdateIssueCount = 0;
// THREE. Create a default mock SARIF filer and client.
SarifWorkItemFiler filer = CreateMockSarifWorkItemFiler(context).Object;
// FOUR. Based on which client we are using (ADO or GitHub), create the correct context.
// This implies created both the connection mocks and the mocks for filing, updating, and attaching work items.
// We are required to put this mock behind an interface due to an inability to mock these types directly.
FilingClient filingClient;
if (adoClient == true)
{
filingClient = CreateAdoMocksAndFilingClient(attachmentReference, workItem, filer);
}
else
{
filingClient = CreateGitHubMocksAndFilingClient(bugUriText, bugHtmlUriText, filer);
}
string sarifLogText = JsonConvert.SerializeObject(sarifLog);
SarifLog updatedSarifLog = filer.FileWorkItems(sarifLogText);
// Did we see all the execution we expected?
ConnectCalled.Should().BeTrue();
int expectedWorkItemsCount = context.GetProperty(ExpectedWorkItemsCount);
CreateWorkItemCalled.Should().Be(expectedWorkItemsCount);
CreateAttachmentCount.Should().Be(adoClient ? expectedWorkItemsCount : 0);
// This property is a naive mechanism to ensure that the code
// executed comprehensively (i.e., that execution was not limited
// due to unhandled exceptions). This is required because we have
// not really implemented a proper async API with appropriate handling
// for exceptions and other negative conditions. I wouldn't expect this
// little helper to survive but it closes the loop for the current
// rudimentary in-flight implementation.
filer.FilingResult.Should().Be(FilingResult.Succeeded);
filer.FiledWorkItems.Count.Should().Be(expectedWorkItemsCount);
foreach (WorkItemModel filedWorkItem in filer.FiledWorkItems)
{
// Finally, make sure that our test data flows back properly through the filer.
filedWorkItem.Attachment.Should().NotBeNull();
JsonConvert.SerializeObject(filedWorkItem.Attachment.Text).Should().NotBeNull();
filedWorkItem.Uri.Should().Be(bugUri);
filedWorkItem.HtmlUri.Should().Be(bugHtmlUri);
}
// Validate that we updated the SARIF log with work itme URIs.
//
updatedSarifLog.Should().NotBeEquivalentTo(sarifLog);
foreach (Run run in updatedSarifLog.Runs)
{
foreach (Result result in run.Results)
{
result.WorkItemUris.Should().NotBeNull();
result.WorkItemUris.Count.Should().Be(1);
result.WorkItemUris[0].Should().Be(bugHtmlUri);
result.TryGetProperty(SarifWorkItemFiler.PROGRAMMABLE_URIS_PROPERTY_NAME, out List <Uri> programmableUris)
.Should().BeTrue();
programmableUris.Should().NotBeNull();
programmableUris.Count.Should().Be(1);
programmableUris[0].Should().Be(bugUri);
}
}
}
private static void WriteResultToSarifLog(string inputPath, StreamWriter outputStream, SarifLog log, MethodDefinition moveNextMethod, DependencyPTGDomain depAnalysisResult,
SongTaoDependencyAnalysis dependencyAnalysis, IDictionary <string, ClassDefinition> processorMap)
{
var results = new List <Result>();
var escapes = depAnalysisResult.Dependencies.A1_Escaping.Select(traceable => traceable.ToString());
var inputUses = new HashSet <Traceable>();
var outputModifies = new HashSet <Traceable>();
if (!depAnalysisResult.IsTop)
{
if (depAnalysisResult.Dependencies.A4_Ouput.Any())
{
var outColumnMap = new MapSet <TraceableColumn, Traceable>();
var outColumnControlMap = new MapSet <TraceableColumn, Traceable>();
foreach (var outColum in depAnalysisResult.Dependencies.A4_Ouput.Keys)
{
var outColumns = depAnalysisResult.GetTraceables(outColum).OfType <TraceableColumn>()
.Where(t => t.TableKind == ProtectedRowKind.Output);
foreach (var column in outColumns)
{
if (!outColumnMap.ContainsKey(column))
{
outColumnMap.AddRange(column, depAnalysisResult.Dependencies.A4_Ouput[outColum]);
}
else
{
outColumnMap.AddRange(column, outColumnMap[column].Union(depAnalysisResult.Dependencies.A4_Ouput[outColum]));
}
if (!outColumnControlMap.ContainsKey(column))
{
outColumnControlMap.AddRange(column, depAnalysisResult.Dependencies.A4_Ouput_Control[outColum]);
}
else
{
outColumnControlMap.AddRange(column, outColumnControlMap[column].Union(depAnalysisResult.Dependencies.A4_Ouput_Control[outColum]));
}
}
}
foreach (var entryOutput in outColumnMap)
{
var result = new Result();
result.Id = "SingleColumn";
var column = entryOutput.Key;
var columnString = column.ToString();
var dependsOn = entryOutput.Value;
var controlDepends = new HashSet <Traceable>();
result.SetProperty("column", columnString);
result.SetProperty("data depends", dependsOn.Select(traceable => traceable.ToString()));
if (outColumnControlMap.ContainsKey(column))
{
var controlDependsOn = outColumnControlMap[column];
result.SetProperty("control depends", controlDependsOn.Select(traceable => traceable.ToString()));
}
else
{
result.SetProperty("control depends", new string[] { });
}
result.SetProperty("escapes", escapes);
results.Add(result);
inputUses.AddRange(dependsOn.Where(t => t.TableKind == ProtectedRowKind.Input));
outputModifies.Add(column);
}
//foreach (var outColum in depAnalysisResult.Dependencies.A4_Ouput.Keys)
//{
// //var outColumns = depAnalysisResult.Dependencies.A2_Variables[outColum].OfType<TraceableColumn>()
// // .Where(t => t.TableKind == ProtectedRowKind.Output);
// var outColumns = depAnalysisResult.GetTraceables(outColum).OfType<TraceableColumn>()
// .Where(t => t.TableKind == ProtectedRowKind.Output);
// foreach (var column in outColumns)
// {
// var result = new Result();
// result.Id = "SingleColumn";
// var columnString = column.ToString();
// var dependsOn = depAnalysisResult.Dependencies.A4_Ouput[outColum];
// //dependsOn.AddRange(traceables);
// result.SetProperty("column", columnString);
// result.SetProperty("data depends", dependsOn.Select(traceable => traceable.ToString()));
// if (depAnalysisResult.Dependencies.A4_Ouput_Control.ContainsKey(outColum))
// {
// var controlDependsOn = depAnalysisResult.Dependencies.A4_Ouput_Control[outColum];
// result.SetProperty("control depends", controlDependsOn.Where(t => !(t is Other)).Select(traceable => traceable.ToString()));
// inputUses.AddRange(controlDependsOn.Where(t => t.TableKind == ProtectedRowKind.Input));
// }
// else
// {
// result.SetProperty("control depends", new string[] { });
// }
// result.SetProperty("escapes", escapes);
// results.Add(result);
// inputUses.AddRange(dependsOn.Where(t => t.TableKind == ProtectedRowKind.Input));
// outputModifies.Add(column);
// }
//}
}
else
{
var result = new Result();
result.Id = "SingleColumn";
result.SetProperty("column", "_EMPTY_");
result.SetProperty("escapes", escapes);
results.Add(result);
}
var resultSummary = new Result();
resultSummary.Id = "Summary";
//var inputsString = inputUses.OfType<TraceableColumn>().Select(t => t.ToString());
//var outputsString = outputModifies.OfType<TraceableColumn>().Select(t => t.ToString());
//result2.SetProperty("Inputs", inputsString);
//result2.SetProperty("Outputs", outputsString);
var inputsString = dependencyAnalysis.InputColumns.Select(t => t.ToString());
var outputsString = dependencyAnalysis.OutputColumns.Select(t => t.ToString());
resultSummary.SetProperty("Inputs", inputsString);
resultSummary.SetProperty("Outputs", outputsString);
var inputSchemaString = InputSchema.Columns.Select(t => t.ToString());
var outputSchemaString = OutputSchema.Columns.Select(t => t.ToString());
resultSummary.SetProperty("SchemaInputs", inputSchemaString);
resultSummary.SetProperty("SchemaOutputs", outputSchemaString);
results.Add(resultSummary);
if (outputStream != null)
{
outputStream.WriteLine("Class: [{0}] {1}", moveNextMethod.ContainingType.FullPathName(), moveNextMethod.ToSignatureString());
if (depAnalysisResult.IsTop)
{
outputStream.WriteLine("Analysis returns TOP");
}
outputStream.WriteLine("Inputs: {0}", String.Join(", ", inputsString));
outputStream.WriteLine("Outputs: {0}", String.Join(", ", outputsString));
}
}
else
{
var result = new Result();
result.Id = "SingleColumn";
result.SetProperty("column", "_TOP_");
result.SetProperty("depends", "_TOP_");
results.Add(result);
var resultEmpty = new Result();
resultEmpty.Id = "Summary";
resultEmpty.SetProperty("Inputs", "_TOP_");
resultEmpty.SetProperty("Outputs", "_TOP_");
resultEmpty.SetProperty("SchemaInputs", "_TOP_");
resultEmpty.SetProperty("SchemaOutputs", "_TOP_");
results.Add(resultEmpty);
}
var id = String.Format("[{0}] {1}", moveNextMethod.ContainingType.FullPathName(), moveNextMethod.ToSignatureString());
// Very clumsy way to find the process number and the processor name from the MoveNext method.
// But it is the process number and processor name that allow us to link these results to the information
// in the XML file that describes the job.
// Climb the containing type chain from the MoveNext method until we find the entry in the dictionary whose
// value matches one of the classes.
var done = false;
foreach (var kv in processorMap)
{
if (done)
{
break;
}
var c = moveNextMethod.ContainingType as ClassDefinition;
while (c != null)
{
if (kv.Value == c)
{
id = kv.Value.Name + "|" + kv.Key;
done = true;
break;
}
c = c.ContainingType as ClassDefinition;
}
}
AddRunToSarifOutput(log, inputPath, id, results);
}
public int Run(ResultMatchSetOptions options)
{
int returnCode = SUCCESS;
options.OutputFolderPath = options.OutputFolderPath ?? Path.Combine(options.FolderPath, "Out");
ISarifLogMatcher matcher = ResultMatchingBaselinerFactory.GetDefaultResultMatchingBaseliner();
Formatting formatting = options.PrettyPrint ? Formatting.Indented : Formatting.None;
// Remove previous results.
if (_fileSystem.DirectoryExists(options.OutputFolderPath) && options.Force)
{
_fileSystem.DeleteDirectory(options.OutputFolderPath, true);
}
// Create output folder.
_fileSystem.CreateDirectory(options.OutputFolderPath);
string previousFileName = "";
string previousGroup = "";
SarifLog previousLog = null, currentLog = null;
foreach (string filePath in Directory.GetFiles(options.FolderPath, "*.sarif"))
{
string fileName = Path.GetFileName(filePath);
string currentGroup = GetGroupName(fileName);
try
{
currentLog = ReadSarifFile <SarifLog>(_fileSystem, filePath);
// Compare each log with the previous one in the same group.
if (currentGroup.Equals(previousGroup) && currentLog?.Runs?[0]?.Results.Count != 0 && previousLog?.Runs?[0]?.Results.Count != 0)
{
Console.WriteLine();
Console.WriteLine($"{previousFileName} -> {fileName}:");
SarifLog mergedLog = matcher.Match(new[] { previousLog }, new[] { currentLog }).First();
// Write the same and different count and different IDs.
WriteDifferences(mergedLog);
// Write the log, if there were any changed results
if (mergedLog.Runs[0].Results.Any(r => r.BaselineState != BaselineState.Unchanged))
{
string outputFilePath = Path.Combine(options.OutputFolderPath, fileName);
if (DriverUtilities.ReportWhetherOutputFileCanBeCreated(outputFilePath, options.Force, _fileSystem))
{
WriteSarifFile(_fileSystem, mergedLog, outputFilePath, formatting);
}
else
{
returnCode = FAILURE;
}
}
}
}
catch (Exception ex) when(!Debugger.IsAttached)
{
Console.WriteLine(ex.ToString());
returnCode = FAILURE;
}
previousFileName = fileName;
previousGroup = currentGroup;
previousLog = currentLog;
}
return(returnCode);
}
public OverallBaseliningTests()
{
SampleLog = GetLogFromResource(SampleFilePath);
}
public FeedbackModel(string ruleId, string toolName, string toolVersion, IEnumerable <string> snippets, FeedbackType feedbackType, string summary, SarifLog log)
{
this.RuleId = ruleId;
this.ToolName = toolName;
this.ToolVersion = toolVersion;
this.SendSnippet = true;
this.Snippets = snippets;
this.Comment = string.Empty;
this.FeedbackType = feedbackType;
this.Summary = summary;
this.SarifLog = log;
}
public void Overall_Identical()
{
SarifLog output = Baseline(SampleLog.DeepClone(), SampleLog.DeepClone());
output.Runs[0].Results.Where(result => result.BaselineState != BaselineState.Unchanged).Should().BeEmpty();
}
protected virtual void Analyze(SarifLog log, string logPointer)
{
}
protected override string ConstructTestOutputFromInputResource(string inputResourceName, object parameter)
{
PrereleaseCompatibilityTransformer.UpdateToCurrentVersion(
GetResourceText(inputResourceName),
formatting: Formatting.Indented,
out string transformedLog);
SarifLog actualLog = PrereleaseCompatibilityTransformer.UpdateToCurrentVersion(transformedLog, formatting: Formatting.None, out transformedLog);
// For CoreTests only - this code rewrites the log persisted URI to match the test environment
if (inputResourceName == "Inputs.CoreTests-Relative.sarif")
{
Uri originalUri = actualLog.Runs[0].OriginalUriBaseIds["TESTROOT"].Uri;
string uriString = originalUri.ToString();
string currentDirectory = Environment.CurrentDirectory;
currentDirectory = currentDirectory.Substring(0, currentDirectory.IndexOf(@"\bld\"));
uriString = uriString.Replace("REPLACED_AT_TEST_RUNTIME", currentDirectory);
actualLog.Runs[0].OriginalUriBaseIds["TESTROOT"] = new ArtifactLocation {
Uri = new Uri(uriString, UriKind.Absolute)
};
var visitor = new InsertOptionalDataVisitor(_currentOptionallyEmittedData);
visitor.Visit(actualLog.Runs[0]);
// Restore the remanufactured URI so that file diffing matches
actualLog.Runs[0].OriginalUriBaseIds["TESTROOT"] = new ArtifactLocation {
Uri = originalUri
};
}
else if (inputResourceName == "Inputs.CoreTests-Absolute.sarif")
{
Uri originalUri = actualLog.Runs[0].Artifacts[0].Location.Uri;
string uriString = originalUri.ToString();
string currentDirectory = Environment.CurrentDirectory;
currentDirectory = currentDirectory.Substring(0, currentDirectory.IndexOf(@"\bld\"));
uriString = uriString.Replace("REPLACED_AT_TEST_RUNTIME", currentDirectory);
actualLog.Runs[0].Artifacts[0].Location = new ArtifactLocation {
Uri = new Uri(uriString, UriKind.Absolute)
};
var visitor = new InsertOptionalDataVisitor(_currentOptionallyEmittedData);
visitor.Visit(actualLog.Runs[0]);
// Restore the remanufactured URI so that file diffing matches
actualLog.Runs[0].Artifacts[0].Location = new ArtifactLocation {
Uri = originalUri
};
}
else
{
var visitor = new InsertOptionalDataVisitor(_currentOptionallyEmittedData);
visitor.Visit(actualLog.Runs[0]);
}
// Verify and remove Guids, because they'll vary with every run and can't be compared to a fixed expected output
if (_currentOptionallyEmittedData.HasFlag(OptionallyEmittedData.Guids))
{
for (int i = 0; i < actualLog.Runs[0].Results.Count; ++i)
{
Result result = actualLog.Runs[0].Results[i];
if (String.IsNullOrEmpty(result.Guid))
{
Assert.True(false, $"Results[{i}] had no Guid assigned, but OptionallyEmittedData.Guids flag was set.");
}
result.Guid = null;
}
}
return(JsonConvert.SerializeObject(actualLog, Formatting.Indented));
}
public int Run(TransformOptions transformOptions)
{
try
{
if (transformOptions.SarifOutputVersion != SarifVersion.OneZeroZero && transformOptions.SarifOutputVersion != SarifVersion.Current)
{
Console.WriteLine(MultitoolResources.ErrorInvalidTransformTargetVersion);
return(1);
}
OptionallyEmittedData dataToInsert = transformOptions.DataToInsert.ToFlags();
// NOTE: we don't actually utilize the dataToInsert command-line data yet...
string fileName = CommandUtilities.GetTransformedOutputFileName(transformOptions);
var formatting = transformOptions.PrettyPrint
? Formatting.Indented
: Formatting.None;
string inputFilePath = transformOptions.InputFilePath;
string inputVersion = SniffVersion(inputFilePath);
// If the user wants to transform to current v2, we check to see whether the input
// file is v2 or pre-release v2. We upgrade both formats to current v2.
//
// Correspondingly, if the input file is v2 of any kind, we first ensure that it is
// current v2, then drop it down to v1.
//
// We do not support transforming to any obsoleted pre-release v2 formats.
if (transformOptions.SarifOutputVersion == SarifVersion.Current)
{
if (inputVersion == "1.0.0")
{
SarifLogVersionOne actualLog = ReadSarifFile <SarifLogVersionOne>(_fileSystem, transformOptions.InputFilePath, SarifContractResolverVersionOne.Instance);
var visitor = new SarifVersionOneToCurrentVisitor();
visitor.VisitSarifLogVersionOne(actualLog);
WriteSarifFile(_fileSystem, visitor.SarifLog, fileName, formatting);
}
else
{
// We have a pre-release v2 file that we should upgrade to current.
PrereleaseCompatibilityTransformer.UpdateToCurrentVersion(
_fileSystem.ReadAllText(inputFilePath),
formatting: formatting,
out string sarifText);
_fileSystem.WriteAllText(fileName, sarifText);
}
}
else
{
if (inputVersion == "1.0.0")
{
SarifLogVersionOne logV1 = ReadSarifFile <SarifLogVersionOne>(_fileSystem, transformOptions.InputFilePath, SarifContractResolverVersionOne.Instance);
logV1.SchemaUri = SarifVersion.OneZeroZero.ConvertToSchemaUri();
WriteSarifFile(_fileSystem, logV1, fileName, formatting, SarifContractResolverVersionOne.Instance);
}
else
{
string currentSarifVersion = SarifUtilities.StableSarifVersion;
string sarifText = _fileSystem.ReadAllText(inputFilePath);
SarifLog actualLog = null;
if (inputVersion != currentSarifVersion)
{
// Note that we don't provide formatting here. It is not required to indent the v2 SARIF - it
// will be transformed to v1 later, where we should apply the indentation settings.
actualLog = PrereleaseCompatibilityTransformer.UpdateToCurrentVersion(
sarifText,
formatting: Formatting.None,
out sarifText);
}
else
{
actualLog = JsonConvert.DeserializeObject <SarifLog>(sarifText);
}
var visitor = new SarifCurrentToVersionOneVisitor();
visitor.VisitSarifLog(actualLog);
WriteSarifFile(_fileSystem, visitor.SarifLogVersionOne, fileName, formatting, SarifContractResolverVersionOne.Instance);
}
}
}
catch (Exception ex)
{
Console.WriteLine(ex);
return(1);
}
return(0);
}
/// <summary>
/// Helper function that accepts a single baseline and current SARIF log and matches them.
/// </summary>
/// <param name="previousLog">Array of SARIF logs representing the baseline run</param>
/// <param name="currentLog">Array of SARIF logs representing the current run</param>
/// <returns>A SARIF log with the merged set of results.</returns>
public SarifLog Match(SarifLog previousLog, SarifLog currentLog)
{
return(Match(previousLogs: new[] { previousLog }, currentLogs: new[] { currentLog }).FirstOrDefault());
}
public void ExtractAllArtifactLocationsVisitor_ExtractsMultipleLocations()
{
var sarifLog = new SarifLog
{
Runs = new[]
{
new Run
{
Results = new[]
{
new Result
{
RuleId = TestData.RuleIds.Rule1,
BaselineState = BaselineState.New,
Locations = new []
{
new Location
{
PhysicalLocation = new PhysicalLocation
{
ArtifactLocation = new ArtifactLocation
{
Uri = new Uri(TestData.FileLocations.Location1),
}
}
}
}
},
new Result
{
RuleId = TestData.RuleIds.Rule2,
BaselineState = BaselineState.Updated,
Locations = new []
{
new Location
{
PhysicalLocation = new PhysicalLocation
{
ArtifactLocation = new ArtifactLocation
{
Uri = new Uri(TestData.FileLocations.Location2),
}
}
}
}
},
new Result
{
RuleId = TestData.RuleIds.Rule2,
BaselineState = BaselineState.New,
Locations = new []
{
new Location
{
PhysicalLocation = new PhysicalLocation
{
ArtifactLocation = new ArtifactLocation
{
Uri = new Uri(TestData.FileLocations.Location3),
}
}
}
}
}
}
}
}
};
var visitor = new ExtractAllArtifactLocationsVisitor();
visitor.VisitSarifLog(sarifLog);
visitor.AllArtifactLocations.Count.Should().Be(3);
foreach (Result result in sarifLog.Runs[0].Results)
{
visitor.AllArtifactLocations.Contains(result.Locations[0].PhysicalLocation.ArtifactLocation).Should().BeTrue();
}
}