private void CombinePredictionsCaches()
{
Console.WriteLine("Writing combined Sift...");
var mergedSift = GetMergedPredictions(CacheConstants.SiftPath(_prefix1), CacheConstants.SiftPath(_prefix2));
using (var writer = new PredictionCacheWriter(CacheConstants.SiftPath(_outPrefix), PredictionCacheHeader.GetHeader(DateTime.Now.Ticks, _genomeAssembly, _numRefSeq)))
{
var lookupTableList = new List <Prediction.Entry>();
foreach (var predictionCach in mergedSift)
{
lookupTableList.AddRange(predictionCach.LookupTable);
}
writer.Write(lookupTableList.ToArray(), mergedSift.Select(cache => cache.Predictions).ToArray());
}
Console.WriteLine("Done.");
Console.WriteLine("writing combined polyphen");
var mergedPolyphen = GetMergedPredictions(CacheConstants.PolyPhenPath(_prefix1), CacheConstants.PolyPhenPath(_prefix2));
using (var writer = new PredictionCacheWriter(CacheConstants.PolyPhenPath(_outPrefix), PredictionCacheHeader.GetHeader(DateTime.Now.Ticks, _genomeAssembly, _numRefSeq)))
{
var lookupTableList = new List <Prediction.Entry>();
foreach (var predictionCach in mergedPolyphen)
{
lookupTableList.AddRange(predictionCach.LookupTable);
}
writer.Write(lookupTableList.ToArray(), mergedPolyphen.Select(cache => cache.Predictions).ToArray());
}
Console.WriteLine("Done");
}
public TranscriptAnnotationProvider(string pathPrefix, ISequenceProvider sequenceProvider, ProteinConservationProvider conservationProvider)
{
Name = "Transcript annotation provider";
_sequence = sequenceProvider.Sequence;
_refNameToChromosome = sequenceProvider.RefNameToChromosome;
_conservationProvider = conservationProvider;
using (var stream = PersistentStreamUtils.GetReadStream(CacheConstants.TranscriptPath(pathPrefix)))
{
(_transcriptCache, TranscriptIntervalArrays, VepVersion) = InitiateCache(stream, sequenceProvider.RefIndexToChromosome, sequenceProvider.Assembly);
}
Assembly = _transcriptCache.Assembly;
DataSourceVersions = _transcriptCache.DataSourceVersions;
// TODO: this is not great. We should not be using IEnumerables if we have to resort to strange stuff like this
if (conservationProvider != null)
{
DataSourceVersions = DataSourceVersions.Concat(new[] { conservationProvider.Version });
}
_siftStream = PersistentStreamUtils.GetReadStream(CacheConstants.SiftPath(pathPrefix));
_siftReader = new PredictionCacheReader(_siftStream, PredictionCacheReader.SiftDescriptions);
_polyphenStream = PersistentStreamUtils.GetReadStream(CacheConstants.PolyPhenPath(pathPrefix));
_polyphenReader = new PredictionCacheReader(_polyphenStream, PredictionCacheReader.PolyphenDescriptions);
}
public void SiftPath_NominalCase()
{
const string expectedResult = "bob.sift.ndb";
var observedResult = CacheConstants.SiftPath("bob");
Assert.Equal(expectedResult, observedResult);
}
private static ExitCodes ProgramExecution()
{
var logger = new ConsoleLogger();
var bundle = DataBundle.GetDataBundle(_inputReferencePath, _inputPrefix);
int numRefSeqs = bundle.SequenceReader.NumRefSeqs;
var chromosome = ReferenceNameUtilities.GetChromosome(bundle.SequenceReader.RefNameToChromosome, _referenceName);
bundle.Load(chromosome);
string outputStub = GetOutputStub(chromosome, bundle.Source);
var interval = new ChromosomeInterval(chromosome, _referencePosition, _referenceEndPosition);
var transcripts = GetTranscripts(logger, bundle, interval);
var sift = GetPredictionStaging(logger, "SIFT", transcripts, chromosome, bundle.SiftPredictions, bundle.SiftReader, x => x.SiftIndex, numRefSeqs);
var polyphen = GetPredictionStaging(logger, "PolyPhen", transcripts, chromosome, bundle.PolyPhenPredictions, bundle.PolyPhenReader, x => x.PolyPhenIndex, numRefSeqs);
string referenceBases = GetReferenceBases(logger, bundle.SequenceReader, interval);
var regulatoryRegionIntervalArrays = GetRegulatoryRegionIntervalArrays(logger, bundle.TranscriptCache, interval, numRefSeqs);
var transcriptIntervalArrays = PredictionUtilities.UpdateTranscripts(transcripts, bundle.SiftPredictions,
sift.Predictions, bundle.PolyPhenPredictions, polyphen.Predictions, numRefSeqs);
var transcriptStaging = GetTranscriptStaging(bundle.TranscriptCacheData.Header, transcriptIntervalArrays, regulatoryRegionIntervalArrays);
WriteCache(logger, FileUtilities.GetCreateStream(CacheConstants.TranscriptPath(outputStub)), transcriptStaging, "transcript");
WriteCache(logger, FileUtilities.GetCreateStream(CacheConstants.SiftPath(outputStub)), sift.Staging, "SIFT");
WriteCache(logger, FileUtilities.GetCreateStream(CacheConstants.PolyPhenPath(outputStub)), polyphen.Staging, "PolyPhen");
WriteReference(logger, CacheConstants.BasesPath(outputStub), bundle.SequenceReader, chromosome,
referenceBases, interval.Start);
return(ExitCodes.Success);
}
private static ExitCodes ProgramExecution()
{
var sequenceData = SequenceHelper.GetDictionaries(_refSequencePath);
var logger = new ConsoleLogger();
var caches = LoadTranscriptCaches(logger, CacheConstants.TranscriptPath(_inputPrefix),
CacheConstants.TranscriptPath(_inputPrefix2), sequenceData.refIndexToChromosome);
if (caches.Cache.TranscriptIntervalArrays.Length != caches.Cache2.TranscriptIntervalArrays.Length)
{
throw new InvalidDataException($"Expected the number of reference sequences in cache 1 ({caches.Cache.TranscriptIntervalArrays.Length}) and cache 2 ({caches.Cache2.TranscriptIntervalArrays.Length}) to be the same.");
}
int numRefSeqs = caches.Cache.TranscriptIntervalArrays.Length;
var combinedIntervalArrays = new IntervalArray <ITranscript> [numRefSeqs];
var siftPredictionsPerRef = new Prediction[numRefSeqs][];
var polyphenPredictionsPerRef = new Prediction[numRefSeqs][];
PredictionHeader siftHeader;
PredictionHeader polyphenHeader;
using (var siftReader = new PredictionCacheReader(FileUtilities.GetReadStream(CacheConstants.SiftPath(_inputPrefix)), PredictionCacheReader.SiftDescriptions))
using (var siftReader2 = new PredictionCacheReader(FileUtilities.GetReadStream(CacheConstants.SiftPath(_inputPrefix2)), PredictionCacheReader.SiftDescriptions))
using (var polyphenReader = new PredictionCacheReader(FileUtilities.GetReadStream(CacheConstants.PolyPhenPath(_inputPrefix)), PredictionCacheReader.PolyphenDescriptions))
using (var polyphenReader2 = new PredictionCacheReader(FileUtilities.GetReadStream(CacheConstants.PolyPhenPath(_inputPrefix2)), PredictionCacheReader.PolyphenDescriptions))
{
siftHeader = siftReader.Header;
polyphenHeader = polyphenReader.Header;
for (ushort refIndex = 0; refIndex < numRefSeqs; refIndex++)
{
var chromosome = sequenceData.refIndexToChromosome[refIndex];
Console.ForegroundColor = ConsoleColor.Yellow;
logger.WriteLine($"\n{chromosome.UcscName}:");
Console.ResetColor();
var sift = CombinePredictions(logger, chromosome, "SIFT", siftReader, siftReader2);
siftPredictionsPerRef[refIndex] = sift.Predictions;
var polyphen = CombinePredictions(logger, chromosome, "PolyPhen", polyphenReader, polyphenReader2);
polyphenPredictionsPerRef[refIndex] = polyphen.Predictions;
var transcriptIntervalArray = caches.Cache.TranscriptIntervalArrays[refIndex];
var transcriptIntervalArray2 = caches.Cache2.TranscriptIntervalArrays[refIndex];
combinedIntervalArrays[refIndex] = CombineTranscripts(logger, transcriptIntervalArray,
transcriptIntervalArray2, sift.Offset, polyphen.Offset);
}
}
logger.WriteLine();
WritePredictions(logger, "SIFT", CacheConstants.SiftPath(_outputPrefix), siftHeader, siftPredictionsPerRef);
WritePredictions(logger, "PolyPhen", CacheConstants.PolyPhenPath(_outputPrefix), polyphenHeader, polyphenPredictionsPerRef);
WriteTranscripts(logger, CloneHeader(caches.Cache.Header), combinedIntervalArrays,
caches.Cache.RegulatoryRegionIntervalArrays);
return(ExitCodes.Success);
}
public TranscriptAnnotationProvider(string pathPrefix, ISequenceProvider sequenceProvider)
{
Name = "Transcript annotation provider";
_sequence = sequenceProvider.Sequence;
(_transcriptCache, VepVersion) = InitiateCache(FileUtilities.GetReadStream(CacheConstants.TranscriptPath(pathPrefix)),
sequenceProvider.RefIndexToChromosome, sequenceProvider.GenomeAssembly);
GenomeAssembly = _transcriptCache.GenomeAssembly;
DataSourceVersions = _transcriptCache.DataSourceVersions;
_siftReader = new PredictionCacheReader(FileUtilities.GetReadStream(CacheConstants.SiftPath(pathPrefix)), PredictionCacheReader.SiftDescriptions);
_polyphenReader = new PredictionCacheReader(FileUtilities.GetReadStream(CacheConstants.PolyPhenPath(pathPrefix)), PredictionCacheReader.PolyphenDescriptions);
}
private static DataBundle GetDataBundle(string compressedSequencePath, string cachePrefix)
{
Console.Write("- loading global cache and reference sequence... ");
var sequence = new CompressedSequence();
var bundle = new DataBundle
{
Sequence = sequence,
SequenceReader = new CompressedSequenceReader(FileUtilities.GetReadStream(compressedSequencePath), sequence),
Cache = CacheUtilities.LoadCache(cachePrefix),
SiftReader = CacheUtilities.GetPredictionReader(CacheConstants.SiftPath(cachePrefix)),
PolyPhenReader = CacheUtilities.GetPredictionReader(CacheConstants.PolyPhenPath(cachePrefix))
};
bundle.TranscriptForest = CacheUtilities.GetIntervalForest(bundle.Cache.Transcripts, bundle.Sequence.Renamer.NumRefSeqs);
Console.WriteLine("finished.");
return(bundle.Cache == null ? null : bundle);
}
public TranscriptAnnotationProvider(string pathPrefix, ISequenceProvider sequenceProvider)
{
Name = "Transcript annotation provider";
_sequence = sequenceProvider.Sequence;
var transcriptStream = PersistentStreamUtils.GetReadStream(CacheConstants.TranscriptPath(pathPrefix));
(_transcriptCache, TranscriptIntervalArrays, VepVersion) = InitiateCache(transcriptStream, sequenceProvider.RefIndexToChromosome, sequenceProvider.Assembly);
Assembly = _transcriptCache.Assembly;
DataSourceVersions = _transcriptCache.DataSourceVersions;
var siftStream = PersistentStreamUtils.GetReadStream(CacheConstants.SiftPath(pathPrefix));
_siftReader = new PredictionCacheReader(siftStream, PredictionCacheReader.SiftDescriptions);
var polyphenStream = PersistentStreamUtils.GetReadStream(CacheConstants.PolyPhenPath(pathPrefix));
_polyphenReader = new PredictionCacheReader(polyphenStream, PredictionCacheReader.PolyphenDescriptions);
}
public IAnnotationSource CreateAnnotationSource(IAnnotatorInfo annotatorInfo, IAnnotatorPaths annotatorPaths)
{
var conservationScoreReader = new PhylopReader(annotatorPaths.SupplementaryAnnotation);
var transcriptStream = FileUtilities.GetReadStream(CacheConstants.TranscriptPath(annotatorPaths.CachePrefix));
var siftStream = FileUtilities.GetReadStream(CacheConstants.SiftPath(annotatorPaths.CachePrefix));
var polyPhenStream = FileUtilities.GetReadStream(CacheConstants.PolyPhenPath(annotatorPaths.CachePrefix));
var referenceStream = FileUtilities.GetReadStream(annotatorPaths.CompressedReference);
var streams = new AnnotationSourceStreams(transcriptStream, siftStream, polyPhenStream, referenceStream);
var caProvider = annotatorPaths.CustomAnnotation.Any() ? new CustomAnnotationProvider(annotatorPaths.CustomAnnotation) : null;
var ciProvider = annotatorPaths.CustomIntervals.Any() ? new CustomIntervalProvider(annotatorPaths.CustomIntervals) : null;
var saProvider = annotatorPaths.SupplementaryAnnotation != null ? new SupplementaryAnnotationProvider(annotatorPaths.SupplementaryAnnotation) : null;
//adding the saPath because OMIM needs it
var annotationSource = new NirvanaAnnotationSource(streams, saProvider, conservationScoreReader, caProvider, ciProvider, annotatorPaths.SupplementaryAnnotation);
if (annotatorInfo.BooleanArguments.Contains(AnnotatorInfoCommon.ReferenceNoCall))
{
annotationSource.EnableReferenceNoCalls(annotatorInfo.BooleanArguments.Contains(AnnotatorInfoCommon.TranscriptOnlyRefNoCall));
}
if (annotatorInfo.BooleanArguments.Contains(AnnotatorInfoCommon.EnableMitochondrialAnnotation))
{
annotationSource.EnableMitochondrialAnnotation();
}
if (annotatorInfo.BooleanArguments.Contains(AnnotatorInfoCommon.ReportAllSvOverlappingTranscripts))
{
annotationSource.EnableReportAllSvOverlappingTranscripts();
}
if (annotatorInfo.BooleanArguments.Contains(AnnotatorInfoCommon.EnableLoftee))
{
annotationSource.AddPlugin(new Loftee());
}
return(annotationSource);
}
protected override void ValidateCommandLine()
{
if (ConfigurationSettings.VcfPath != "-")
{
CheckInputFilenameExists(ConfigurationSettings.VcfPath, "vcf", "--in");
}
CheckInputFilenameExists(ConfigurationSettings.CompressedReferencePath, "compressed reference sequence", "--ref");
CheckInputFilenameExists(CacheConstants.TranscriptPath(ConfigurationSettings.InputCachePrefix), "transcript cache", "--cache");
CheckInputFilenameExists(CacheConstants.SiftPath(ConfigurationSettings.InputCachePrefix), "SIFT cache", "--cache");
CheckInputFilenameExists(CacheConstants.PolyPhenPath(ConfigurationSettings.InputCachePrefix), "PolyPhen cache", "--cache");
CheckDirectoryExists(ConfigurationSettings.SupplementaryAnnotationDirectory, "supplementary annotation", "--sd", false);
foreach (var customAnnotationDirectory in ConfigurationSettings.CustomAnnotationDirectories)
{
CheckDirectoryExists(customAnnotationDirectory, "custom annotation", "--ca", false);
}
foreach (var customAnnotationDirectory in ConfigurationSettings.CustomIntervalDirectories)
{
CheckDirectoryExists(customAnnotationDirectory, "custom interval", "--ci", false);
}
// if we're using stdout, it doesn't make sense to output the VCF and gVCF
if (ConfigurationSettings.OutputFileName == "-")
{
ConfigurationSettings.Vcf = false;
ConfigurationSettings.Gvcf = false;
PerformanceMetrics.DisableOutput = true;
}
HasRequiredParameter(ConfigurationSettings.OutputFileName, "output file stub", "--out");
if (ConfigurationSettings.LimitReferenceNoCallsToTranscripts)
{
ConfigurationSettings.EnableReferenceNoCalls = true;
}
}
private DataBundle GetDataBundle(string genomeAssembly, TranscriptDataSource ds)
{
var compressedSequencePath = GetCompressedSequencePath(_referenceDir, genomeAssembly);
var cachePrefix = GetCachePrefix(_cacheRoot, genomeAssembly, ds, _newVepVersion);
var sequence = new CompressedSequence();
var bundle = new DataBundle
{
Sequence = sequence,
SequenceReader = new CompressedSequenceReader(FileUtilities.GetReadStream(compressedSequencePath), sequence),
Cache = CacheUtilities.LoadCache(cachePrefix),
SiftReader = CacheUtilities.GetPredictionReader(CacheConstants.SiftPath(cachePrefix)),
PolyPhenReader = CacheUtilities.GetPredictionReader(CacheConstants.PolyPhenPath(cachePrefix))
};
if (bundle.Cache == null)
{
return(null);
}
bundle.TranscriptForest = CacheUtilities.GetIntervalForest(bundle.Cache.Transcripts, bundle.Sequence.Renamer.NumRefSeqs);
return(bundle);
}
private List <Transcript> CombinedTranscripts(GlobalCache cache1, GlobalCache cache2)
{
var sift1Count = GetPredictionMatrixCount(CacheConstants.SiftPath(_prefix1));
var polyphen1Count = GetPredictionMatrixCount(CacheConstants.PolyPhenPath(_prefix1));
var combinedTranscripts = new List <Transcript>();
combinedTranscripts.AddRange(cache1.Transcripts);
foreach (var transcript in cache2.Transcripts)
{
combinedTranscripts.Add(new Transcript(
transcript.ReferenceIndex, transcript.Start, transcript.End,
transcript.Id, transcript.Version, transcript.Translation, transcript.BioType,
transcript.Gene, transcript.TotalExonLength, transcript.StartExonPhase,
transcript.IsCanonical, transcript.Introns, transcript.MicroRnas, transcript.CdnaMaps,
transcript.SiftIndex == -1 ? -1 : transcript.SiftIndex + sift1Count[transcript.ReferenceIndex],
transcript.PolyPhenIndex == -1 ? -1 : transcript.PolyPhenIndex + polyphen1Count[transcript.ReferenceIndex],
transcript.TranscriptSource
));
}
combinedTranscripts.Sort();
Console.WriteLine($"combined trascripts count:{combinedTranscripts.Count}");
return(combinedTranscripts);
}
/// <summary>
/// executes the program
/// </summary>
protected override void ProgramExecution()
{
var transcriptPath = ConfigurationSettings.InputPrefix + ".transcripts.gz";
var regulatoryPath = ConfigurationSettings.InputPrefix + ".regulatory.gz";
var genePath = ConfigurationSettings.InputPrefix + ".genes.gz";
var intronPath = ConfigurationSettings.InputPrefix + ".introns.gz";
var mirnaPath = ConfigurationSettings.InputPrefix + ".mirnas.gz";
var siftPath = ConfigurationSettings.InputPrefix + ".sift.dat";
var polyphenPath = ConfigurationSettings.InputPrefix + ".polyphen.dat";
var peptidePath = ConfigurationSettings.InputPrefix + ".peptides.gz";
var renamer = ChromosomeRenamer.GetChromosomeRenamer(FileUtilities.GetReadStream(ConfigurationSettings.InputReferencePath));
using (var transcriptReader = new VepTranscriptReader(transcriptPath))
using (var regulatoryReader = new VepRegulatoryReader(regulatoryPath))
using (var geneReader = new VepGeneReader(genePath))
using (var mergedGeneReader = new VepCombinedGeneReader(ConfigurationSettings.InputMergedGenesPath))
using (var intronReader = new VepSimpleIntervalReader(intronPath, "intron", GlobalImportCommon.FileType.Intron))
using (var mirnaReader = new VepSimpleIntervalReader(mirnaPath, "miRNA", GlobalImportCommon.FileType.MicroRna))
using (var peptideReader = new VepSequenceReader(peptidePath, "peptide", GlobalImportCommon.FileType.Peptide))
{
var converter = new NirvanaDatabaseCreator(transcriptReader, regulatoryReader, geneReader,
mergedGeneReader, intronReader, mirnaReader, peptideReader, renamer);
converter.LoadData();
converter.MarkCanonicalTranscripts(ConfigurationSettings.InputLrgPath);
converter.CreateTranscriptCacheFile(ConfigurationSettings.OutputCacheFilePrefix);
converter.CopyPredictionCacheFile("SIFT", siftPath, CacheConstants.SiftPath(ConfigurationSettings.OutputCacheFilePrefix));
converter.CopyPredictionCacheFile("PolyPhen", polyphenPath, CacheConstants.PolyPhenPath(ConfigurationSettings.OutputCacheFilePrefix));
}
}
public static DataBundle GetDataBundle(string referencePath, string cachePrefix)
{
var sequenceReader = new CompressedSequenceReader(FileUtilities.GetReadStream(referencePath));
var siftReader = new PredictionCacheReader(FileUtilities.GetReadStream(CacheConstants.SiftPath(cachePrefix)), PredictionCacheReader.SiftDescriptions);
var polyPhenReader = new PredictionCacheReader(FileUtilities.GetReadStream(CacheConstants.PolyPhenPath(cachePrefix)), PredictionCacheReader.PolyphenDescriptions);
VC.TranscriptCacheData cacheData;
VC.TranscriptCache cache;
Source source;
using (var transcriptReader = new TranscriptCacheReader(FileUtilities.GetReadStream(CacheConstants.TranscriptPath(cachePrefix))))
{
cacheData = transcriptReader.Read(sequenceReader.RefIndexToChromosome);
cache = cacheData.GetCache();
source = transcriptReader.Header.Source;
}
return(new DataBundle(sequenceReader, siftReader, polyPhenReader, cacheData, cache, source));
}
private static ExitCodes ProgramExecution()
{
string transcriptPath = _inputPrefix + ".transcripts.gz";
string siftPath = _inputPrefix + ".sift.gz";
string polyphenPath = _inputPrefix + ".polyphen.gz";
string regulatoryPath = _inputPrefix + ".regulatory.gz";
(var refIndexToChromosome, var refNameToChromosome, int numRefSeqs) = SequenceHelper.GetDictionaries(_inputReferencePath);
using (var transcriptReader = new MutableTranscriptReader(GZipUtilities.GetAppropriateReadStream(transcriptPath), refIndexToChromosome))
using (var regulatoryReader = new RegulatoryRegionReader(GZipUtilities.GetAppropriateReadStream(regulatoryPath), refIndexToChromosome))
using (var siftReader = new PredictionReader(GZipUtilities.GetAppropriateReadStream(siftPath), refIndexToChromosome, IntermediateIoCommon.FileType.Sift))
using (var polyphenReader = new PredictionReader(GZipUtilities.GetAppropriateReadStream(polyphenPath), refIndexToChromosome, IntermediateIoCommon.FileType.Polyphen))
using (var geneReader = new UgaGeneReader(GZipUtilities.GetAppropriateReadStream(ExternalFiles.UniversalGeneFilePath), refNameToChromosome))
{
var genomeAssembly = transcriptReader.Header.Assembly;
var source = transcriptReader.Header.Source;
long vepReleaseTicks = transcriptReader.Header.VepReleaseTicks;
ushort vepVersion = transcriptReader.Header.VepVersion;
Logger.Write("- loading universal gene archive file... ");
var genes = geneReader.GetGenes();
var geneForest = CreateGeneForest(genes, numRefSeqs, genomeAssembly);
Logger.WriteLine($"{genes.Length:N0} loaded.");
Logger.Write("- loading regulatory region file... ");
var regulatoryRegions = regulatoryReader.GetRegulatoryRegions();
Logger.WriteLine($"{regulatoryRegions.Length:N0} loaded.");
Logger.Write("- loading transcript file... ");
var transcripts = transcriptReader.GetTranscripts();
var transcriptsByRefIndex = transcripts.GetMultiValueDict(x => x.Chromosome.Index);
Logger.WriteLine($"{transcripts.Length:N0} loaded.");
MarkCanonicalTranscripts(transcripts);
var predictionBuilder = new PredictionCacheBuilder(genomeAssembly);
var predictionCaches = predictionBuilder.CreatePredictionCaches(transcriptsByRefIndex, siftReader, polyphenReader, numRefSeqs);
Logger.Write("- writing SIFT prediction cache... ");
predictionCaches.Sift.Write(FileUtilities.GetCreateStream(CacheConstants.SiftPath(_outputCacheFilePrefix)));
Logger.WriteLine("finished.");
Logger.Write("- writing PolyPhen prediction cache... ");
predictionCaches.PolyPhen.Write(FileUtilities.GetCreateStream(CacheConstants.PolyPhenPath(_outputCacheFilePrefix)));
Logger.WriteLine("finished.");
var transcriptBuilder = new TranscriptCacheBuilder(genomeAssembly, source, vepReleaseTicks, vepVersion);
var transcriptStaging = transcriptBuilder.CreateTranscriptCache(transcripts, regulatoryRegions, geneForest, numRefSeqs);
Logger.Write("- writing transcript cache... ");
transcriptStaging.Write(FileUtilities.GetCreateStream(CacheConstants.TranscriptPath(_outputCacheFilePrefix)));
Logger.WriteLine("finished.");
}
return(ExitCodes.Success);
}
private static int Main(string[] args)
{
var nirvana = new Nirvana();
var ops = new OptionSet
{
{
"cache|c=",
"input cache {prefix}",
v => _inputCachePrefix = v
},
{
"in|i=",
"input VCF {path}",
v => _vcfPath = v
},
{
"plugin|p=",
"plugin {directory}",
v => _pluginDirectory = v
},
{
"gvcf",
"enables genome vcf output",
v => _gvcf = v != null
},
{
"vcf",
"enables vcf output",
v => _vcf = v != null
},
{
"out|o=",
"output {file path}",
v => _outputFileName = v
},
{
"ref|r=",
"input compressed reference sequence {path}",
v => _refSequencePath = v
},
{
"sd=",
"input supplementary annotation {directory}",
v => SupplementaryAnnotationDirectories.Add(v)
},
{
"force-mt",
"forces to annotate mitochondrial variants",
v => _forceMitochondrialAnnotation = v != null
},
{
"verbose-transcripts",
"reports all overlapping transcripts for structural variants",
v => _reportAllSvOverlappingTranscripts = v != null
},
{
"disable-recomposition",
"don't recompose function relevant variants",
v => _disableRecomposition = v != null
}
};
var exitCode = new ConsoleAppBuilder(args, ops)
.UseVersionProvider(new VersionProvider())
.Parse()
.CheckInputFilenameExists(_vcfPath, "vcf", "--in", true, "-")
.CheckInputFilenameExists(_refSequencePath, "reference sequence", "--ref")
.CheckInputFilenameExists(CacheConstants.TranscriptPath(_inputCachePrefix), "transcript cache", "--cache")
.CheckInputFilenameExists(CacheConstants.SiftPath(_inputCachePrefix), "SIFT cache", "--cache")
.CheckInputFilenameExists(CacheConstants.PolyPhenPath(_inputCachePrefix), "PolyPhen cache", "--cache")
.CheckEachDirectoryContainsFiles(SupplementaryAnnotationDirectories, "supplementary annotation", "--sd", "*.nsa")
.HasRequiredParameter(_outputFileName, "output file stub", "--out")
.Enable(_outputFileName == "-", () =>
{
_vcf = false;
_gvcf = false;
})
.DisableOutput(_outputFileName == "-")
.ShowBanner(Constants.Authors)
.ShowHelpMenu("Annotates a set of variants", "-i <vcf path> -c <cache prefix> --sd <sa dir> -r <ref path> -o <base output filename>")
.ShowErrors()
.Execute(nirvana.ProgramExecution);
return((int)exitCode);
}
public static int Main(string[] args)
{
var ops = new OptionSet
{
{
"cache|c=",
"input cache {prefix}",
v => _inputCachePrefix = v
},
{
"in|i=",
"input VCF {path}",
v => _vcfPath = v
},
{
"out|o=",
"output {file path}",
v => _outputFileName = v
},
{
"ref|r=",
"input compressed reference sequence {path}",
v => _refSequencePath = v
},
{
"sd=",
"input supplementary annotation {directory}",
v => SupplementaryAnnotationDirectories.Add(v)
},
{
"force-mt",
"forces to annotate mitochondrial variants",
v => _forceMitochondrialAnnotation = v != null
},
{
"disable-recomposition",
"don't recompose function relevant variants",
v => _disableRecomposition = v != null
},
{
"legacy-vids",
"enables support for legacy VIDs",
v => _useLegacyVids = v != null
},
{
"enable-dq",
"report DQ from VCF samples field",
v => _enableDq = v != null
},
{
"str=",
"user provided STR annotation TSV file",
v => _customStrTsv = v
}
};
var exitCode = new ConsoleAppBuilder(args, ops)
.UseVersionProvider(new VersionProvider())
.Parse()
.CheckInputFilenameExists(_vcfPath, "vcf", "--in", true, "-")
.CheckInputFilenameExists(_refSequencePath, "reference sequence", "--ref")
.CheckInputFilenameExists(CacheConstants.TranscriptPath(_inputCachePrefix), "transcript cache", "--cache")
.CheckInputFilenameExists(CacheConstants.SiftPath(_inputCachePrefix), "SIFT cache", "--cache")
.CheckInputFilenameExists(CacheConstants.PolyPhenPath(_inputCachePrefix), "PolyPhen cache", "--cache")
.CheckInputFilenameExists(_customStrTsv, "custom STR annotation TSV", "--str", false)
.HasRequiredParameter(_outputFileName, "output file stub", "--out")
.DisableOutput(_outputFileName == "-")
.ShowBanner(Constants.Authors)
.ShowHelpMenu("Annotates a set of variants", "-i <vcf path> -c <cache prefix> --sd <sa dir> -r <ref path> -o <base output filename>")
.ShowErrors()
.Execute(ProgramExecution);
return((int)exitCode);
}