public bool SameCluster(LcMsFeature f1, LcMsFeature f2)
{
if (f1.DataSetId == f2.DataSetId)
{
return(false);
}
// tolerant in mass dimension?
if (!_oneDaltonShift)
{
var massTol = Math.Min(_tolerance.GetToleranceAsTh(f1.Mass), _tolerance.GetToleranceAsTh(f2.Mass));
if (Math.Abs(f1.Mass - f2.Mass) > massTol)
{
return(false);
}
}
else
{
var massTol = Math.Min(_tolerance.GetToleranceAsTh(f1.Mass), _tolerance.GetToleranceAsTh(f2.Mass));
var massDiff = Math.Abs(f1.Mass - f2.Mass);
if (f1.Mass > 10000 && f2.Mass > 10000)
{
if (massDiff > massTol && Math.Abs(massDiff - 1) > massTol && Math.Abs(massDiff - 2) > massTol)
{
return(false);
}
}
else
{
if (massDiff > massTol && Math.Abs(massDiff - 1) > massTol)
{
return(false);
}
}
}
/*
* var coeLen = f1.CoElutionNetLength(f2);
* if (coeLen > f1.NetLength * 0.25 || coeLen > f2.NetLength * 0.25) return true;
*
* // tolerant in elution time dimension?
* var lenDiff = Math.Abs(f1.NetLength - f2.NetLength) / Math.Max(f1.NetLength, f2.NetLength);
* if (lenDiff > 0.8) return false;
*/
//if (f1.CoElutedByNet(f2, 0.01)) return true; //e.g) 200*0.001 = 0.2 min = 30 sec
if (f1.CoElutedByNet(f2, 0.01))
{
return(true); //e.g) 200*0.001 = 0.2 min = 30 sec
}
//if (NetDiff(f1, f2) < TolNet) return true;
return(false);
}
public bool SameCluster(ProteinSpectrumMatch prsm1, ProteinSpectrumMatch prsm2)
{
var tol = new Tolerance(10);
//if (!prsm1.ProteinName.Equals(prsm2.ProteinName)) return false;
var massDiff = Math.Abs(prsm1.Mass - prsm2.Mass);
if (massDiff > tol.GetToleranceAsTh(prsm1.Mass))
{
return(false);
}
var elutionDiff = Math.Abs(_run.GetElutionTime(prsm1.ScanNum) - _run.GetElutionTime(prsm2.ScanNum));
if (prsm1.SequenceText.Equals(prsm2.SequenceText))
{
if (elutionDiff > _elutionLength * 0.02)
{
return(false);
}
}
else
{
if (elutionDiff > _elutionLength * 0.005)
{
return(false);
}
}
return(true);
}
public void TestFeatureAlignment()
{
const string outFilePath = @"\\protoapps\UserData\Jungkap\Lewy\aligned\promex_crosstab_temp.tsv";
//CPTAC_Intact_CR32A_24Aug15_Bane_15-02-06-RZ
var prsmReader = new ProteinSpectrumMatchReader();
var tolerance = new Tolerance(10);
var alignment = new LcMsFeatureAlignment(new AnalysisCompRef.CompRefFeatureComparer(tolerance));
for (var i = 0; i < NdataSet; i++)
{
var rawFile = string.Format(@"{0}\{1}.pbf", PbfPath, GetDataSetNames(i));
var mspFile = string.Format(@"{0}\{1}_IcTda.tsv", MsPfFolder, GetDataSetNames(i));
var mspFile2 = string.Format(@"{0}\{1}_IcTda.tsv", MsPfFolder2, GetDataSetNames(i));
var ms1FtFile = string.Format(@"{0}\{1}.ms1ft", Ms1FtFolder, GetDataSetNames(i));
Console.WriteLine(rawFile);
var run = PbfLcMsRun.GetLcMsRun(rawFile);
var prsmList1 = prsmReader.LoadIdentificationResult(mspFile, ProteinSpectrumMatch.SearchTool.MsPathFinder);
var prsmList2 = prsmReader.LoadIdentificationResult(mspFile2, ProteinSpectrumMatch.SearchTool.MsPathFinder);
prsmList1.AddRange(prsmList2);
var prsmList = MergePrsm(prsmList1);
var features = LcMsFeatureAlignment.LoadProMexResult(i, ms1FtFile, run);
for (var j = 0; j < prsmList.Count; j++)
{
var match = prsmList[j];
match.ProteinId = match.ProteinName;
}
// tag features by PrSMs
for (var j = 0; j < features.Count; j++)
{
//features[j].ProteinSpectrumMatches = new ProteinSpectrumMatchSet(i);
var massTol = tolerance.GetToleranceAsTh(features[j].Mass);
foreach (var match in prsmList)
{
if (features[j].MinScanNum < match.ScanNum && match.ScanNum < features[j].MaxScanNum && Math.Abs(features[j].Mass - match.Mass) < massTol)
{
features[j].ProteinSpectrumMatches.Add(match);
}
}
}
alignment.AddDataSet(i, features, run);
}
alignment.AlignFeatures();
Console.WriteLine("{0} alignments ", alignment.CountAlignedFeatures);
for (var i = 0; i < NdataSet; i++)
{
alignment.FillMissingFeatures(i);
Console.WriteLine("{0} has been processed", GetDataSetNames(i));
}
OutputCrossTabWithId(outFilePath, alignment);
}
public bool CheckChargeState(ObservedIsotopeEnvelope envelope)
{
var checkCharge = envelope.Charge;
if (checkCharge > 20)
{
return(true); //high charge (> +20), just pass
}
var peakStartIndex = envelope.MinMzPeak.IndexInSpectrum;
var peakEndIndex = envelope.MaxMzPeak.IndexInSpectrum;
var nPeaks = peakEndIndex - peakStartIndex + 1;
if (nPeaks < 10)
{
return(false);
}
if (envelope.NumberOfPeaks > nPeaks * 0.7)
{
return(true);
}
var tolerance = new Tolerance(5);
var threshold = nPeaks * 0.5;
var mzTol = tolerance.GetToleranceAsTh(Spectrum.Peaks[peakStartIndex].Mz);
var minCheckCharge = Math.Max(checkCharge * 2 - 1, 4);
var maxCheckCharge = Math.Min(checkCharge * 5 + 1, 60);
var maxDeltaMz = Constants.C13MinusC12 / minCheckCharge + mzTol;
var nChargeGaps = new int[maxCheckCharge - minCheckCharge + 1];
for (var i = peakStartIndex; i <= peakEndIndex; i++)
{
for (var j = i + 1; j <= peakEndIndex; j++)
{
var deltaMz = Spectrum.Peaks[j].Mz - Spectrum.Peaks[i].Mz;
if (deltaMz > maxDeltaMz)
{
break;
}
for (var c = Math.Round(1 / (deltaMz + mzTol)); c <= Math.Round(1 / (deltaMz - mzTol)); c++)
{
if (c < minCheckCharge || c > maxCheckCharge)
{
continue;
}
var k = (int)c - minCheckCharge;
nChargeGaps[k]++;
if (nChargeGaps[k] + 1 > threshold && nChargeGaps[k] + 1 > 1.25 * envelope.NumberOfPeaks)
{
return(false);
}
}
}
}
return(true);
}
/// <summary>
/// Gets the extracted ion chromatogram of the specified m/z (using only MS1 spectra)
/// </summary>
/// <param name="mz">target m/z</param>
/// <param name="tolerance">tolerance</param>
/// <returns>XIC as a list of XICPeaks</returns>
public IList <XicPeak> GetExtractedIonChromatogram(double mz, Tolerance tolerance)
{
var tolTh = tolerance.GetToleranceAsTh(mz);
var minMz = mz - tolTh;
var maxMz = mz + tolTh;
return(GetExtractedIonChromatogram(minMz, maxMz));
}
/// <summary>
/// Gets the extracted ion chromatogram of the specified m/z range (using only MS2 spectra)
/// </summary>
/// <param name="mz">target m/z</param>
/// <param name="tolerance">tolerance</param>
/// <param name="precursorIonMz">precursor m/z of the precursor ion</param>
/// <param name="minScanNum">minimum scan number (inclusive)</param>
/// <param name="maxScanNum">maximum scan number (inclusive)</param>
/// <returns>XIC as an Xic object</returns>
public Xic GetProductExtractedIonChromatogram(double mz, Tolerance tolerance, double precursorIonMz, int minScanNum, int maxScanNum)
{
var tolTh = tolerance.GetToleranceAsTh(mz);
var minMz = mz - tolTh;
var maxMz = mz + tolTh;
return(GetProductExtractedIonChromatogram(minMz, maxMz, precursorIonMz, minScanNum, maxScanNum));
}
public static IList <Peak> FindAllPeaks(List <Peak> peakList, double mz, Tolerance tolerance)
{
var tolTh = tolerance.GetToleranceAsTh(mz);
var minMz = mz - tolTh;
var maxMz = mz + tolTh;
return(FindAllPeaks(peakList, minMz, maxMz));
}
public new Xic GetFullProductExtractedIonChromatogram(double mz, Tolerance tolerance, double precursorIonMz)
{
var tolTh = tolerance.GetToleranceAsTh(mz);
var minMz = mz - tolTh;
var maxMz = mz + tolTh;
return(GetFullProductExtractedIonChromatogram(minMz, maxMz, precursorIonMz));
}
/// <summary>
/// Gets the extracted ion chromatogram of the specified m/z (using only MS1 spectra)
/// </summary>
/// <param name="mz">target m/z</param>
/// <param name="tolerance">tolerance</param>
/// <returns>XIC as an Xic object</returns>
public Xic GetPrecursorExtractedIonChromatogram(double mz, Tolerance tolerance)
{
var tolTh = tolerance.GetToleranceAsTh(mz);
var minMz = mz - tolTh;
var maxMz = mz + tolTh;
return(GetPrecursorExtractedIonChromatogram(minMz, maxMz));
}
public void TestFeatureAlignment()
{
const string outFilePath = @"\\protoapps\UserData\Jungkap\Quant\aligned\promex_crosstab.tsv";
//const string outFolder = @"\\protoapps\UserData\Jungkap\CompRef\aligned";
var runLabels = new string[] { "1x1", "1x2", "1x3", "1x4", "1x5", "5x1", "5x2", "5x3", "5x4", "5x5", "10x1", "10x2", "10x3", "10x4", "10x5", };
var nDataset = runLabels.Length;
var prsmReader = new ProteinSpectrumMatchReader();
var tolerance = new Tolerance(10);
var alignment = new LcMsFeatureAlignment(new SpikeInFeatureComparer(tolerance));
for (var i = 0; i < nDataset; i++)
{
var rawFile = string.Format(@"{0}\{1}.pbf", RawFolder, datasets[i]);
var mspFile = string.Format(@"{0}\{1}_IcTda.tsv", MsPfFolder, datasets[i]);
var ms1FtFile = string.Format(@"{0}\{1}.ms1ft", Ms1FtFolder, datasets[i]);
var run = PbfLcMsRun.GetLcMsRun(rawFile);
var prsmList = prsmReader.LoadIdentificationResult(mspFile, ProteinSpectrumMatch.SearchTool.MsPathFinder);
var features = LcMsFeatureAlignment.LoadProMexResult(i, ms1FtFile, run);
for (var j = 0; j < prsmList.Count; j++)
{
var match = prsmList[j];
match.ProteinId = match.ProteinName;
}
// tag features by PrSMs
for (var j = 0; j < features.Count; j++)
{
//features[j].ProteinSpectrumMatches = new ProteinSpectrumMatchSet(i);
var massTol = tolerance.GetToleranceAsTh(features[j].Mass);
foreach (var match in prsmList)
{
if (features[j].MinScanNum < match.ScanNum && match.ScanNum < features[j].MaxScanNum && Math.Abs(features[j].Mass - match.Mass) < massTol)
{
features[j].ProteinSpectrumMatches.Add(match);
}
}
}
alignment.AddDataSet(i, features, run);
}
alignment.AlignFeatures();
Console.WriteLine("{0} alignments ", alignment.CountAlignedFeatures);
/*
* for (var i = 0; i < nDataset; i++)
* {
* alignment.FillMissingFeatures(i);
* Console.WriteLine("{0} has been processed", runLabels[i]);
* }
*/
OutputCrossTabWithId(outFilePath, alignment, runLabels);
}
/// <summary>
/// Gets the extracted ion chromatogram of the specified m/z range (using only MS1 spectra)
/// Only XicPeaks around the targetScanNum are returned
/// </summary>
/// <param name="mz">target m/z</param>
/// <param name="tolerance">tolerance</param>
/// <param name="targetScanNum">target scan number to generate xic</param>
/// <param name="maxNumConsecutiveScansWithoutPeak">maximum number of consecutive scans with a peak</param>
/// <returns>XIC around targetScanNum</returns>
public Xic GetPrecursorExtractedIonChromatogram(double mz, Tolerance tolerance, int targetScanNum, int maxNumConsecutiveScansWithoutPeak = 3)
{
var tolTh = tolerance.GetToleranceAsTh(mz);
var minMz = mz - tolTh;
var maxMz = mz + tolTh;
if (targetScanNum < 0)
{
return(GetPrecursorExtractedIonChromatogram(minMz, maxMz));
}
return(GetPrecursorExtractedIonChromatogram(minMz, maxMz, targetScanNum, maxNumConsecutiveScansWithoutPeak));
}
private void CollectSequenceTagGraphEdges()
{
for (var i = 0; i < _deconvolutedPeaks.Count; i++)
{
var massTh = _tolerance.GetToleranceAsTh(_deconvolutedPeaks[i].Mass);
for (var j = i + 1; j < _deconvolutedPeaks.Count; j++)
{
//if (_deconvolutedPeaks[i].PeakShare(_deconvolutedPeaks[j])) continue;
var massGap = _deconvolutedPeaks[j].Mass - _deconvolutedPeaks[i].Mass;
var maxMassGap = massGap + massTh;
var minMassGap = massGap - massTh;
var peakGap = new SequenceTagGraphEdge(i, j, massGap);
if (minMassGap > _maxAminoAcidMass)
{
break;
}
if (maxMassGap < _minAminoAcidMass)
{
continue;
}
foreach (var aa in _aminoAcidsArray)
{
var massError = Math.Abs(peakGap.Mass - aa.Composition.Mass);
if (minMassGap < aa.Composition.Mass && aa.Composition.Mass < maxMassGap)
{
peakGap.AddMatchedAminoAcid(aa, massError);
}
}
if (peakGap.AminoAcidList.Count > 0)
{
AddEdge(peakGap);
}
}
}
}
public List <MSMSSpectrumPeak> GetPeaks(double mz, Tolerance tolerance)
{
var minMz = mz - tolerance.GetToleranceAsTh(mz);
var maxMz = mz + tolerance.GetToleranceAsTh(mz);
var matchList = new List <MSMSSpectrumPeak>();
var start = BinarySearch(new MSMSSpectrumPeak(minMz, 1));
if (start < 0)
{
start = ~start;
}
for (var i = start; i < Count; i++)
{
var p = this[i];
if (p.Mz > maxMz)
{
break;
}
matchList.Add(p);
}
return(matchList);
}
private IList <LcMsPeakCluster> RemoveOverlappedFeatures(SortedSet <LcMsPeakCluster> featureSet)
{
var outFeatures = new List <LcMsPeakCluster>();
var tol = new Tolerance(5);
while (true)
{
if (featureSet.Count < 1)
{
break;
}
var bestFeature = featureSet.First();
featureSet.Remove(bestFeature);
outFeatures.Add(bestFeature);
var massTol = tol.GetToleranceAsTh(bestFeature.RepresentativeMass);
var tempList = new List <LcMsPeakCluster>();
foreach (var f in bestFeature.OverlappedFeatures)
{
if (featureSet.Remove(f))
{
var massDiff = Math.Abs(bestFeature.RepresentativeMass - f.RepresentativeMass);
if ((Math.Abs(massDiff - 1.0) < massTol || Math.Abs(massDiff - 2.0) < massTol) && SimilarScore(bestFeature, f))
{
outFeatures.Add(f);
continue;
}
tempList.Add(f);
}
}
bestFeature.InActivateMajorPeaks();
foreach (var f in tempList)
{
f.UpdateScore(_spectra);
f.Score = _scorer.GetScore(f);
if (f.Score > _scorer.ScoreThreshold && f.GoodEnougth)
{
featureSet.Add(f);
}
else
{
//Console.WriteLine("{0}\t{1}\t{2} killed by {3}\t{4}\t{5}", f.Mass, f.MinScanNum, f.MaxScanNum, bestFeature.Mass, bestFeature.MinScanNum, bestFeature.MaxScanNum);
}
}
}
return(outFeatures);
}
internal RankedPeak FindPeak(double mz, Tolerance tolerance)
{
var tolTh = tolerance.GetToleranceAsTh(mz);
var minMz = mz - tolTh;
var maxMz = mz + tolTh;
var index = Array.BinarySearch(Peaks, new RankedPeak((minMz + maxMz) / 2, 0, 0));
if (index < 0)
{
index = ~index;
}
RankedPeak bestPeak = null;
var bestIntensity = 0.0;
// go down
var i = index - 1;
while (i >= 0 && i < Peaks.Length)
{
if (Peaks[i].Mz <= minMz)
{
break;
}
if (Peaks[i].Intensity > bestIntensity)
{
bestIntensity = Peaks[i].Intensity;
bestPeak = Peaks[i];
}
--i;
}
// go up
i = index;
while (i >= 0 && i < Peaks.Length)
{
if (Peaks[i].Mz >= maxMz)
{
break;
}
if (Peaks[i].Intensity > bestIntensity)
{
bestIntensity = Peaks[i].Intensity;
bestPeak = Peaks[i];
}
++i;
}
return(bestPeak);
}
/// <summary>
/// Finds all isotope peaks corresponding to theoretical profiles with relative intensity higher than the threshold
/// </summary>
/// <param name="spectrum">Observed spectrum.</param>
/// <param name="isotopomerEnvelope">The theoretical isotopic profile.</param>
/// <param name="mass">Monoisotopic mass of the lipid.</param>
/// <param name="tolerance">Peak ppm tolerance.</param>
/// <returns>array of observed isotope peaks in the spectrum. null if no peak found.</returns>
/// <remarks>
/// This differs from the GetAllIsotopePeaks in <see cref="LipidUtil" /> in that it accepts the isotopomer envelope
/// as an argument rather than calculating it on its own. This way we only calculate it once.
/// </remarks>
private Peak[] GetAllIsotopePeaks(Spectrum spectrum, IReadOnlyCollection <double> isotopomerEnvelope, double mass, Tolerance tolerance)
{
var peaks = spectrum.Peaks;
var mostAbundantIsotopeIndex = 0;
var mostAbundantIsotopeMz = mass;
var mostAbundantIsotopeMatchedPeakIndex = spectrum.FindPeakIndex(mostAbundantIsotopeMz, tolerance);
if (mostAbundantIsotopeMatchedPeakIndex < 0)
{
return(null);
}
var observedPeaks = new Peak[isotopomerEnvelope.Count];
observedPeaks[mostAbundantIsotopeIndex] = peaks[mostAbundantIsotopeMatchedPeakIndex];
// go up
var peakIndex = mostAbundantIsotopeMatchedPeakIndex + 1;
for (var isotopeIndex = mostAbundantIsotopeIndex + 1; isotopeIndex < isotopomerEnvelope.Count; isotopeIndex++)
{
var isotopeMz = mostAbundantIsotopeMz + isotopeIndex * Constants.C13MinusC12;
var tolTh = tolerance.GetToleranceAsTh(isotopeMz);
var minMz = isotopeMz - tolTh;
var maxMz = isotopeMz + tolTh;
for (var i = peakIndex; i < peaks.Length; i++)
{
var peakMz = peaks[i].Mz;
if (peakMz > maxMz)
{
peakIndex = i;
break;
}
if (peakMz >= minMz) // find match, move to prev isotope
{
var peak = peaks[i];
if (observedPeaks[isotopeIndex] == null ||
peak.Intensity > observedPeaks[isotopeIndex].Intensity)
{
observedPeaks[isotopeIndex] = peak;
}
}
}
}
return(observedPeaks);
}
public bool Equals(ProteinSpectrumMatch other)
{
if (SearchToolType == other.SearchToolType)
{
return(SequenceText.Equals(other.SequenceText));
}
var massDiff = Math.Abs(Mass - other.Mass);
var tol = new Tolerance(10);
if (massDiff < tol.GetToleranceAsTh(Mass) && FirstResidue == other.FirstResidue && LastResidue == other.LastResidue)
{
return(true);
}
return(false);
}
public void TestFeatureAlignment()
{
const string outFilePath = @"\\protoapps\UserData\Jungkap\CompRef\aligned\promex_crosstab_temp.tsv";
const string outFolder = @"\\protoapps\UserData\Jungkap\CompRef\aligned";
var runLabels = new string[] { "32A", "32B", "32C", "32D", "32E", "32F", "32G", "33A", "33B", "33C", "33D", "33E", "33F", "33G" };
var nDataset = runLabels.Length;
//CPTAC_Intact_CR32A_24Aug15_Bane_15-02-06-RZ
var prsmReader = new ProteinSpectrumMatchReader();
var tolerance = new Tolerance(10);
var alignment = new LcMsFeatureAlignment(new CompRefFeatureComparer(tolerance));
for (var i = 0; i < nDataset; i++)
{
var rawFile = string.Format(@"{0}\CPTAC_Intact_CR{1}_24Aug15_Bane_15-02-06-RZ.pbf", RawFolder, runLabels[i]);
var mspFile = string.Format(@"{0}\CPTAC_Intact_CR{1}_24Aug15_Bane_15-02-06-RZ_IcTda.tsv", MsPfFolder, runLabels[i]);
var ms1FtFile = string.Format(@"{0}\CPTAC_Intact_CR{1}_24Aug15_Bane_15-02-06-RZ.ms1ft", Ms1FtFolder, runLabels[i]);
var run = PbfLcMsRun.GetLcMsRun(rawFile);
var features = LcMsFeatureAlignment.LoadProMexResult(i, ms1FtFile, run);
if (File.Exists(mspFile))
{
var prsmList = prsmReader.LoadIdentificationResult(mspFile, ProteinSpectrumMatch.SearchTool.MsPathFinder);
for (var j = 0; j < prsmList.Count; j++)
{
var match = prsmList[j];
match.ProteinId = match.ProteinName;
}
// tag features by PrSMs
for (var j = 0; j < features.Count; j++)
{
//features[j].ProteinSpectrumMatches = new ProteinSpectrumMatchSet(i);
var massTol = tolerance.GetToleranceAsTh(features[j].Mass);
foreach (var match in prsmList)
{
if (features[j].MinScanNum < match.ScanNum && match.ScanNum < features[j].MaxScanNum && Math.Abs(features[j].Mass - match.Mass) < massTol)
{
features[j].ProteinSpectrumMatches.Add(match);
}
}
}
}
alignment.AddDataSet(i, features, run);
}
alignment.AlignFeatures();
Console.WriteLine("{0} alignments ", alignment.CountAlignedFeatures);
for (var i = 0; i < nDataset; i++)
{
alignment.FillMissingFeatures(i);
Console.WriteLine("{0} has been processed", runLabels[i]);
}
OutputCrossTabWithId(outFilePath, alignment, runLabels);
}
public void TestGeneratingProductXics()
{
var methodName = MethodBase.GetCurrentMethod().Name;
TestUtils.ShowStarting(methodName);
if (!File.Exists(TestRawFilePath))
{
Assert.Ignore(@"Skipping test {0} since file not found: {1}", methodName, TestRawFilePath);
}
var run = InMemoryLcMsRun.GetLcMsRun(TestRawFilePath);
// const string rafFilePath = @"C:\cygwin\home\kims336\Data\QCShewQE\QC_Shew_13_04_A_17Feb14_Samwise_13-07-28.raf";
const string rafFilePath = @"H:\Research\Jarret\10mz\raw\Q_2014_0523_50_10_fmol_uL_10mz.raf";
if (!File.Exists(rafFilePath))
{
Assert.Ignore(@"Skipping raf portion of test {0} since file not found: {1}", methodName, rafFilePath);
}
var rafRun = new PbfLcMsRun(rafFilePath);
var tolerance = new Tolerance(10);
var mzArr = new double[100000];
var precursorMzArr = new double[mzArr.Length];
var rnd = new Random();
for (var i = 0; i < mzArr.Length; i++)
{
mzArr[i] = rnd.NextDouble() * 1450.0 + 50.0;
precursorMzArr[i] = rnd.NextDouble() * (810.0 - 390.0) + 390.0;
}
var sw = new System.Diagnostics.Stopwatch();
//double sec;
// method 1
sw.Start();
for (var i = 0; i < mzArr.Length; i++)
{
var mz = mzArr[i];
var tolTh = tolerance.GetToleranceAsTh(mz);
var minMz = mz - tolTh;
var maxMz = mz + tolTh;
var xic1 = run.GetFullProductExtractedIonChromatogram(minMz, maxMz, precursorMzArr[i]);
//var xic2 = rafRun.GetFullProductExtractedIonChromatogram(minMz, maxMz, precursorMzArr[i]);
//Assert.True(xic1.Equals(xic2));
}
sw.Stop();
Console.WriteLine(@"Method 1: {0:f4} sec", sw.Elapsed.TotalSeconds);
sw.Reset();
sw.Start();
for (var i = 0; i < mzArr.Length; i++)
{
var mz = mzArr[i];
var tolTh = tolerance.GetToleranceAsTh(mz);
var minMz = mz - tolTh;
var maxMz = mz + tolTh;
rafRun.GetFullProductExtractedIonChromatogram(minMz, maxMz, precursorMzArr[i]);
}
sw.Stop();
Console.WriteLine(@"Method 2: {0:f4} sec", sw.Elapsed.TotalSeconds);
Console.WriteLine(@"Done");
}
public Peak[] GetAllIsotopePeaks(Spectrum spec, Ion ion, Tolerance tolerance, double relativeIntensityThreshold, out int[] peakIndexList)
{
var mostAbundantIsotopeIndex = ion.Composition.GetMostAbundantIsotopeZeroBasedIndex();
var isotopomerEnvelope = ion.Composition.GetIsotopomerEnvelopeRelativeIntensities();
peakIndexList = new int[isotopomerEnvelope.Length];
var mostAbundantIsotopeMz = ion.GetIsotopeMz(mostAbundantIsotopeIndex);
var mostAbundantIsotopeMatchedPeakIndex = spec.FindPeakIndex(mostAbundantIsotopeMz, tolerance);
if (mostAbundantIsotopeMatchedPeakIndex < 0)
{
return(null);
}
var observedPeaks = new Peak[isotopomerEnvelope.Length];
observedPeaks[mostAbundantIsotopeIndex] = spec.Peaks[mostAbundantIsotopeMatchedPeakIndex];
peakIndexList[mostAbundantIsotopeIndex] = mostAbundantIsotopeMatchedPeakIndex;
// go down
var peakIndex = mostAbundantIsotopeMatchedPeakIndex - 1;
for (var isotopeIndex = mostAbundantIsotopeIndex - 1; isotopeIndex >= 0; isotopeIndex--)
{
if (isotopomerEnvelope[isotopeIndex] < relativeIntensityThreshold)
{
break;
}
var isotopeMz = ion.GetIsotopeMz(isotopeIndex);
var tolTh = tolerance.GetToleranceAsTh(isotopeMz);
var minMz = isotopeMz - tolTh;
var maxMz = isotopeMz + tolTh;
for (var i = peakIndex; i >= 0; i--)
{
var peakMz = spec.Peaks[i].Mz;
if (peakMz < minMz)
{
peakIndex = i;
break;
}
if (peakMz <= maxMz) // find match, move to prev isotope
{
var peak = spec.Peaks[i];
if (observedPeaks[isotopeIndex] == null ||
peak.Intensity > observedPeaks[isotopeIndex].Intensity)
{
observedPeaks[isotopeIndex] = peak;
peakIndexList[isotopeIndex] = i;
}
}
}
}
// go up
peakIndex = mostAbundantIsotopeMatchedPeakIndex + 1;
for (var isotopeIndex = mostAbundantIsotopeIndex + 1; isotopeIndex < isotopomerEnvelope.Length; isotopeIndex++)
{
if (isotopomerEnvelope[isotopeIndex] < relativeIntensityThreshold)
{
break;
}
var isotopeMz = ion.GetIsotopeMz(isotopeIndex);
var tolTh = tolerance.GetToleranceAsTh(isotopeMz);
var minMz = isotopeMz - tolTh;
var maxMz = isotopeMz + tolTh;
for (var i = peakIndex; i < spec.Peaks.Length; i++)
{
var peakMz = spec.Peaks[i].Mz;
if (peakMz > maxMz)
{
peakIndex = i;
break;
}
if (peakMz >= minMz) // find match, move to prev isotope
{
var peak = spec.Peaks[i];
if (observedPeaks[isotopeIndex] == null ||
peak.Intensity > observedPeaks[isotopeIndex].Intensity)
{
observedPeaks[isotopeIndex] = peak;
peakIndexList[isotopeIndex] = i;
}
}
}
}
return(observedPeaks);
}
public void TestQuantifyIdedProteoforms()
{
var methodName = MethodBase.GetCurrentMethod().Name;
TestUtils.ShowStarting(methodName);
const string rawFolder = @"\\proto-11\MSXML_Cache\PBF_Gen_1_193\2015_2";
const string promexOutFolder = @"D:\MassSpecFiles\UTEX\MSAlign";
const string msAlignResultFolder = @"D:\MassSpecFiles\UTEX\MSAlign";
if (!Directory.Exists(rawFolder))
{
Assert.Ignore(@"Skipping test {0} since folder not found: {1}", methodName, rawFolder);
}
var nDataset = 32;
var dataset = new string[nDataset];
for (var i = 0; i < nDataset; i++)
{
dataset[i] = String.Format("Syn_utex2973_Top_{0,2:D2}_TopDown_7May15_Bane_14-09-01RZ", i + 1);
//var rawFile = string.Format(@"{0}\{1}.pbf", rawFolder, dataset[i]);
}
var prsmReader = new ProteinSpectrumMatchReader(0.01);
var tolerance = new Tolerance(10);
for (var i = 0; i < dataset.Length; i++)
{
var rawFile = String.Format(@"{0}\{1}.pbf", rawFolder, dataset[i]);
if (!File.Exists(rawFile))
{
Console.WriteLine(@"Warning: Skipping file not found: {0}", rawFile);
continue;
}
var run = PbfLcMsRun.GetLcMsRun(rawFile);
var path = String.Format(@"{0}\{1}_MSAlign_ResultTable.txt", msAlignResultFolder, dataset[i]);
if (!File.Exists(path))
{
Console.WriteLine(@"Warning: Skipping file not found: {0}", path);
continue;
}
var prsmList = prsmReader.LoadIdentificationResult(path, ProteinSpectrumMatch.SearchTool.MsAlign);
for (var j = 0; j < prsmList.Count; j++)
{
var match = prsmList[j];
match.ProteinId = match.ProteinName.Substring(match.ProteinName.IndexOf(ProteinNamePrefix) + ProteinNamePrefix.Length, 5);
}
// PrSM To Feature
var prsmToFeatureIdMap = new int[prsmList.Count];
for (var k = 0; k < prsmToFeatureIdMap.Length; k++)
{
prsmToFeatureIdMap[k] = -1;
}
// Feature To PrSM
var featureToPrsm = new List <ProteinSpectrumMatchSet>();
var featureFinder = new LcMsPeakMatrix(run, new LcMsFeatureLikelihood());
var featureList = new List <LcMsPeakCluster>();
var featureId = 0;
for (var j = 0; j < prsmList.Count; j++)
{
if (prsmToFeatureIdMap[j] >= 0)
{
continue;
}
var match = prsmList[j];
var minScanNum = match.ScanNum;
var maxScanNum = match.ScanNum;
var mass = match.Mass;
var charge = match.Charge;
var massTh = tolerance.GetToleranceAsTh(mass);
var id1 = match.ProteinId;
var feature = featureFinder.GetLcMsPeakCluster(mass, charge, minScanNum, maxScanNum);
var prsmSet = new ProteinSpectrumMatchSet(i)
{
match
};
if (feature == null)
{
feature = featureFinder.GetLcMsPeaksFromNoisePeaks(mass, charge, minScanNum, maxScanNum, charge, charge);
prsmToFeatureIdMap[j] = featureId;
}
else
{
prsmToFeatureIdMap[j] = featureId;
var etTol = Math.Max(run.GetElutionTime(run.MaxLcScan) * 0.005, feature.ElutionLength * 0.2);
for (var k = j + 1; k < prsmList.Count; k++)
{
var otherMatch = prsmList[k];
var id2 = otherMatch.ProteinId;
var et2 = run.GetElutionTime(otherMatch.ScanNum);
if (id1.Equals(id2) &&
feature.MinElutionTime - etTol < et2 && et2 < feature.MaxElutionTime - etTol &&
Math.Abs(otherMatch.Mass - mass) < massTh)
{
prsmToFeatureIdMap[k] = featureId;
prsmSet.Add(otherMatch);
}
}
}
featureId++;
feature.Flag = 1;
featureList.Add(feature);
featureToPrsm.Add(prsmSet);
}
// overalp between features???
for (var j = 0; j < featureList.Count; j++)
{
var f1 = featureList[j];
if (f1.Flag < 1)
{
continue;
}
var prsm1 = featureToPrsm[j];
for (var k = j + 1; k < featureList.Count; k++)
{
var f2 = featureList[k];
if (f2.Flag < 1)
{
continue;
}
var prsm2 = featureToPrsm[k];
if (Math.Abs(f1.Mass - f2.Mass) > tolerance.GetToleranceAsTh(f1.Mass))
{
continue;
}
if (!f1.CoElutedByNet(f2, 0.005))
{
continue;
}
if (!prsm1.ShareProteinId(prsm2))
{
continue;
}
// let us merge!!
if (f1.ScanLength > f2.ScanLength)
{
prsm1.AddRange(prsm2);
prsm2.Clear();
f2.Flag = 0;
}
else
{
prsm2.AddRange(prsm1);
prsm1.Clear();
f1.Flag = 0;
}
}
}
// now output results!!
var ms1ftFilePath = String.Format(@"{0}\{1}.ms1ft", promexOutFolder, dataset[i]);
var writer = new StreamWriter(ms1ftFilePath);
writer.WriteLine(LcMsFeatureFinderLauncher.GetHeaderString());
for (var j = 0; j < featureList.Count; j++)
{
var f1 = featureList[j];
if (f1.Flag < 1)
{
continue;
}
var prsm1 = featureToPrsm[j];
var minScanNum = run.GetPrevScanNum(prsm1.MinScanNum, 1);
var maxScanNum = run.GetNextScanNum(prsm1.MaxScanNum, 1);
f1.ExpandScanRange(minScanNum, maxScanNum);
writer.Write("{0}\t", j + 1);
writer.WriteLine(LcMsFeatureFinderLauncher.GetString(f1));
}
writer.Close();
Console.WriteLine(ms1ftFilePath);
}
}
public void TestAlignFeatures()
{
var methodName = MethodBase.GetCurrentMethod().Name;
TestUtils.ShowStarting(methodName);
const string rawFolder = @"\\proto-11\MSXML_Cache\PBF_Gen_1_193\2015_2";
const string promexOutFolder = @"D:\MassSpecFiles\UTEX\MSAlign";
const string msAlignResultFolder = @"D:\MassSpecFiles\UTEX\MSAlign";
if (!Directory.Exists(rawFolder))
{
Assert.Ignore(@"Skipping test {0} since folder not found: {1}", methodName, rawFolder);
}
var nDataset = 32;
var dataset = new string[nDataset];
for (var i = 0; i < nDataset; i++)
{
dataset[i] = String.Format("Syn_utex2973_Top_{0,2:D2}_TopDown_7May15_Bane_14-09-01RZ", i + 1);
//var rawFile = string.Format(@"{0}\{1}.pbf", rawFolder, dataset[i]);
}
var tolerance = new Tolerance(10);
var ftComparer = new UtexFeatureComparer(tolerance);
var align = new LcMsFeatureAlignment(ftComparer);
var prsmReader = new ProteinSpectrumMatchReader(0.01);
var validCount = 0;
for (var i = 0; i < dataset.Length; i++)
{
var rawFile = String.Format(@"{0}\{1}.pbf", rawFolder, dataset[i]);
if (!File.Exists(rawFile))
{
Console.WriteLine(@"Warning: Skipping file not found: {0}", rawFile);
continue;
}
var run = PbfLcMsRun.GetLcMsRun(rawFile);
var path = String.Format(@"{0}\{1}_MSAlign_ResultTable.txt", msAlignResultFolder, dataset[i]);
if (!File.Exists(path))
{
Console.WriteLine(@"Warning: Skipping file not found: {0}", path);
continue;
}
var ms1ftPath = String.Format(@"{0}\{1}.ms1ft", promexOutFolder, dataset[i]);
if (!File.Exists(ms1ftPath))
{
Console.WriteLine(@"Warning: Skipping file not found: {0}", ms1ftPath);
continue;
}
validCount++;
//var map = new ProteinSpectrumMathMap(run, i, dataset[i]);
//map.LoadIdentificationResult(path, ProteinSpectrumMatch.SearchTool.MsAlign);
var prsmList = prsmReader.LoadIdentificationResult(path, ProteinSpectrumMatch.SearchTool.MsAlign);
for (var j = 0; j < prsmList.Count; j++)
{
var match = prsmList[j];
match.ProteinId =
match.ProteinName.Substring(
match.ProteinName.IndexOf(ProteinNamePrefix) + ProteinNamePrefix.Length, 5);
}
var features = LcMsFeatureAlignment.LoadProMexResult(i, ms1ftPath, run);
// tag features by PrSMs
for (var j = 0; j < features.Count; j++)
{
//features[j].ProteinSpectrumMatches = new ProteinSpectrumMatchSet(i);
var massTol = tolerance.GetToleranceAsTh(features[j].Mass);
foreach (var match in prsmList)
{
if (features[j].MinScanNum < match.ScanNum && match.ScanNum < features[j].MaxScanNum && Math.Abs(features[j].Mass - match.Mass) < massTol)
{
features[j].ProteinSpectrumMatches.Add(match);
}
}
}
align.AddDataSet(i, features, run);
}
if (validCount == 0)
{
Assert.Ignore("No files found!");
}
align.AlignFeatures();
Console.WriteLine("{0} alignments ", align.CountAlignedFeatures);
align.RefineAbundance();
var alignedFeatureList = align.GetAlignedFeatures();
for (var i = 0; i < nDataset; i++)
{
var ms1ftPath = String.Format(@"{0}\{1}_aligned.ms1ft", promexOutFolder, dataset[i]);
var writer = new StreamWriter(ms1ftPath);
writer.Write(LcMsFeatureFinderLauncher.GetHeaderString());
writer.WriteLine("\tIdedMs2ScanNums");
for (var j = 0; j < alignedFeatureList.Count; j++)
{
writer.Write(j + 1);
writer.Write("\t");
if (alignedFeatureList[j][i] == null)
{
for (var k = 0; k < 14; k++)
{
writer.Write("0\t");
}
writer.Write("0\n");
}
else
{
writer.Write(LcMsFeatureFinderLauncher.GetString(alignedFeatureList[j][i]));
writer.Write("\t");
if (alignedFeatureList[j][i].ProteinSpectrumMatches == null)
{
writer.Write("");
}
else
{
var scanNums = string.Join(";", alignedFeatureList[j][i].ProteinSpectrumMatches.Select(prsm => prsm.ScanNum));
writer.Write(scanNums);
}
writer.Write("\n");
}
}
writer.Close();
}
}
public void TestGeneratingProductManyXics()
{
var methodName = MethodBase.GetCurrentMethod().Name;
TestUtils.ShowStarting(methodName);
const string rawFilePath = TestRawFilePath;
if (!File.Exists(rawFilePath))
{
Assert.Ignore(@"Skipping test {0} since file not found: {1}", methodName, rawFilePath);
}
var run = InMemoryLcMsRun.GetLcMsRun(rawFilePath);
//var run2 = new DiaLcMsRun(new OldPbfReader(Path.ChangeExtension(rawFilePath, ".pbf")), 0.0, 0.0);
var tolerance = new Tolerance(10);
var mzArr = new double[100000];
var precursorMzArr = new double[mzArr.Length];
var rnd = new Random();
for (var i = 0; i < mzArr.Length; i++)
{
mzArr[i] = rnd.NextDouble() * 1450.0 + 50.0;
precursorMzArr[i] = rnd.NextDouble() * (810.0 - 390.0) + 390.0;
}
var sw = new System.Diagnostics.Stopwatch();
//double sec;
// method 1
sw.Start();
for (var i = 0; i < mzArr.Length; i++)
{
var mz = mzArr[i];
var tolTh = tolerance.GetToleranceAsTh(mz);
var minMz = mz - tolTh;
var maxMz = mz + tolTh;
var xic1 = run.GetFullProductExtractedIonChromatogram(minMz, maxMz, precursorMzArr[i]);
//var xic2 = run.GetFullProductExtractedIonChromatogram2(minMz, maxMz, precursorMzArr[i]);
//Assert.True(xic1.Equals(xic2));
}
sw.Stop();
Console.WriteLine(@"Method 1: {0:f4} sec", sw.Elapsed.TotalSeconds);
sw.Reset();
sw.Start();
for (var i = 0; i < mzArr.Length; i++)
{
var mz = mzArr[i];
var tolTh = tolerance.GetToleranceAsTh(mz);
var minMz = mz - tolTh;
var maxMz = mz + tolTh;
run.GetFullProductExtractedIonChromatogram(minMz, maxMz, precursorMzArr[i]);
}
sw.Stop();
Console.WriteLine(@"Method 2: {0:f4} sec", sw.Elapsed.TotalSeconds);
Console.WriteLine("Done");
}
public void AlignFeatures(List <string> datasets, string mspfFolder, string ms1ftFolder, string outFilePath)
{
var nDataset = datasets.Count;
var prsmReader = new ProteinSpectrumMatchReader();
var tolerance = new Tolerance(12);
var alignment = new LcMsFeatureAlignment(new AnalysisCompRef.CompRefFeatureComparer(tolerance));
for (var i = 0; i < nDataset; i++)
{
var rawFile = string.Format(@"{0}\{1}.pbf", PbfPath, datasets[i]);
var mspFile = string.Format(@"{0}\{1}_IcTda.tsv", mspfFolder, datasets[i]);
var ms1FtFile = string.Format(@"{0}\{1}.ms1ft", ms1ftFolder, datasets[i]);
var ms1FtFile2 = string.Format(@"{0}\{1}.seqtag.ms1ft", ms1ftFolder, datasets[i]);
var run = PbfLcMsRun.GetLcMsRun(rawFile);
var features = LcMsFeatureAlignment.LoadProMexResult(i, ms1FtFile, run);
var features2 = LcMsFeatureAlignment.LoadProMexResult(i, ms1FtFile2, run);
features.AddRange(features2);
if (File.Exists(mspFile))
{
var prsmList = prsmReader.LoadIdentificationResult(mspFile, ProteinSpectrumMatch.SearchTool.MsPathFinder);
//var prsmFeatureMatch = new bool[prsmList.Count];
for (var j = 0; j < prsmList.Count; j++)
{
var match = prsmList[j];
match.ProteinId = match.ProteinName;
}
// tag features by PrSMs
for (var j = 0; j < features.Count; j++)
{
//features[j].ProteinSpectrumMatches = new ProteinSpectrumMatchSet(i);
var massTol = tolerance.GetToleranceAsTh(features[j].Mass);
for (var k = 0; k < prsmList.Count; k++)
{
var match = prsmList[k];
if (features[j].MinScanNum < match.ScanNum && match.ScanNum < features[j].MaxScanNum && Math.Abs(features[j].Mass - match.Mass) < massTol)
{
features[j].ProteinSpectrumMatches.Add(match);
//prsmFeatureMatch[k] = true;
}
}
}
}
alignment.AddDataSet(i, features, run);
}
alignment.AlignFeatures();
Console.WriteLine("{0} alignments ", alignment.CountAlignedFeatures);
for (var i = 0; i < nDataset; i++)
{
alignment.FillMissingFeatures(i);
Console.WriteLine("{0} has been processed", datasets[i]);
}
AnalysisCompRef.OutputCrossTabWithId(outFilePath, alignment, datasets.ToArray());
}
public void ExtractLcMsFeaturesForTrainingSet()
{
var methodName = MethodBase.GetCurrentMethod().Name;
TestUtils.ShowStarting(methodName);
const string idFileFolder = @"D:\MassSpecFiles\training\FilteredIdResult";
if (!Directory.Exists(idFileFolder))
{
Assert.Ignore(@"Skipping test {0} since folder not found: {1}", methodName, idFileFolder);
}
var tolerance = new Tolerance(10);
var tolerance2 = new Tolerance(20);
var id = 1;
for (var d = 0; d < TrainSetFileLists.Length; d++)
{
var dataset = TrainSetFileLists[d];
var dataname = Path.GetFileNameWithoutExtension(dataset);
var filtedIdResultFile = string.Format(@"{0}\{1}.trainset.tsv", idFileFolder, Path.GetFileNameWithoutExtension(dataset));
var featureResult = string.Format(@"{0}\{1}.ms1ft", idFileFolder, Path.GetFileNameWithoutExtension(dataset));
if (!File.Exists(dataset))
{
Console.WriteLine(@"Warning: Skipping since file not found: {0}", dataset);
continue;
}
if (!File.Exists(filtedIdResultFile))
{
Console.WriteLine(@"Warning: Skipping since file not found: {0}", filtedIdResultFile);
continue;
}
var run = PbfLcMsRun.GetLcMsRun(dataset);
var targetStatWriter = new StreamWriter(string.Format(@"D:\MassSpecFiles\training\statistics\{0}.tsv", Path.GetFileNameWithoutExtension(dataset)));
var decoyStatWriter = new StreamWriter(string.Format(@"D:\MassSpecFiles\training\statistics\{0}_decoy.tsv", Path.GetFileNameWithoutExtension(dataset)));
var writer = new StreamWriter(featureResult);
writer.Write("Ms2MinScan\tMs2MaxScan\tMs2MinCharge\tMs2MaxCharge\tMs2Mass\t");
writer.Write("Mass\tMinScan\tMaxScan\tMinCharge\tMaxCharge\tMinTime\tMaxTime\tElution\tGood\n");
var tsvParser = new TsvFileParser(filtedIdResultFile);
var featureFinder = new LcMsPeakMatrix(run);
for (var i = 0; i < tsvParser.NumData; i++)
{
var minScan = int.Parse(tsvParser.GetData("MinScan")[i]);
var maxScan = int.Parse(tsvParser.GetData("MaxScan")[i]);
var minCharge = int.Parse(tsvParser.GetData("MinCharge")[i]);
var maxCharge = int.Parse(tsvParser.GetData("MaxCharge")[i]);
var mass = double.Parse(tsvParser.GetData("Mass")[i]);
writer.Write(minScan);
writer.Write("\t");
writer.Write(maxScan);
writer.Write("\t");
writer.Write(minCharge);
writer.Write("\t");
writer.Write(maxCharge);
writer.Write("\t");
writer.Write(mass);
writer.Write("\t");
var binNum = featureFinder.Comparer.GetBinNumber(mass);
var binMass = featureFinder.Comparer.GetMzAverage(binNum);
var binNumList = (mass < binMass) ? new int[] { binNum, binNum - 1, binNum + 1 } : new int[] { binNum, binNum + 1, binNum - 1 };
LcMsPeakCluster refinedFeature = null;
foreach (var bi in binNumList)
{
var tempList = new List <LcMsPeakCluster>();
var features = featureFinder.FindFeatures(bi);
var massTh = (mass < 2000) ? tolerance2.GetToleranceAsTh(mass) : tolerance.GetToleranceAsTh(mass);
foreach (var feature in features)
{
if (Math.Abs(mass - feature.Mass) < massTh)
{
tempList.Add(feature);
}
}
//var nHits = 0;
var highestAbu = 0d;
//var scans = Enumerable.Range(minScan, maxScan - minScan + 1);
foreach (var feature in tempList)
{
//var scans2 = Enumerable.Range(feature.MinScanNum, feature.MaxScanNum - feature.MinScanNum + 1);
//var hitScans = scans.Intersect(scans2).Count();
if (feature.MinScanNum < 0.5 * (minScan + maxScan) &&
0.5 * (minScan + maxScan) < feature.MaxScanNum)
{
if (feature.Abundance > highestAbu)
{
refinedFeature = feature;
highestAbu = feature.Abundance;
}
}
/*if (hitScans > 0)
* {
* refinedFeature = feature;
* nHits = hitScans;
* }*/
}
if (refinedFeature != null)
{
break;
}
}
if (refinedFeature != null)
{
writer.Write(refinedFeature.Mass);
writer.Write("\t");
writer.Write(refinedFeature.MinScanNum);
writer.Write("\t");
writer.Write(refinedFeature.MaxScanNum);
writer.Write("\t");
writer.Write(refinedFeature.MinCharge);
writer.Write("\t");
writer.Write(refinedFeature.MaxCharge);
writer.Write("\t");
writer.Write(refinedFeature.MinElutionTime);
writer.Write("\t");
writer.Write(refinedFeature.MaxElutionTime);
writer.Write("\t");
writer.Write(refinedFeature.MaxElutionTime - refinedFeature.MinElutionTime);
writer.Write("\t");
var good = (refinedFeature.MinScanNum <= minScan && refinedFeature.MaxScanNum >= maxScan);
writer.Write(good ? 1 : 0);
writer.Write("\n");
//writer.Write(0); writer.Write("\t");
//writer.Write(0); writer.Write("\n");
OutputEnvelopPeakStat(id, refinedFeature, targetStatWriter);
var chargeRange = featureFinder.GetDetectableMinMaxCharge(refinedFeature.RepresentativeMass, run.MinMs1Mz, run.MaxMs1Mz);
refinedFeature.UpdateWithDecoyScore(featureFinder.Ms1Spectra, chargeRange.Item1, chargeRange.Item2);
OutputEnvelopPeakStat(id, refinedFeature, decoyStatWriter);
id++;
}
else
{
writer.Write(0);
writer.Write("\t");
writer.Write(0);
writer.Write("\t");
writer.Write(0);
writer.Write("\t");
writer.Write(0);
writer.Write("\t");
writer.Write(0);
writer.Write("\t");
writer.Write(0);
writer.Write("\t");
writer.Write(0);
writer.Write("\t");
writer.Write(0);
writer.Write("\t");
writer.Write(0);
writer.Write("\n");
}
//var feature = featureFinder.FindLcMsPeakCluster(mass, (int) scan, (int) charge);
}
writer.Close();
targetStatWriter.Close();
decoyStatWriter.Close();
Console.WriteLine(dataname);
}
}
public void FindMissingLcMsFeatures()
{
var mspfFolder = @"D:\MassSpecFiles\CompRef_Kelleher\Study3";
var ms1ftFolder = @"D:\MassSpecFiles\CompRef_Kelleher\Study3";
const int Nfraction1 = 3;
const int Nfraction2 = 5;
for (var frac1 = 1; frac1 <= Nfraction1; frac1++)
{
for (var frac2 = 1; frac2 <= Nfraction2; frac2++)
{
var datasets = GetDataSetNamesStudy3(frac1, frac2);
//var outFilePath = string.Format(@"D:\MassSpecFiles\CompRef_Kelleher\study3_GFrep{0}_Gfrac{1}.tsv", frac1.ToString("D2"), frac2.ToString("D2"));
var nDataset = datasets.Count;
var prsmReader = new ProteinSpectrumMatchReader();
var tolerance = new Tolerance(12);
for (var i = 0; i < nDataset; i++)
{
var rawFile = string.Format(@"{0}\{1}.pbf", PbfPath, datasets[i]);
var mspFile = string.Format(@"{0}\{1}_IcTda.tsv", mspfFolder, datasets[i]);
var ms1FtFile = string.Format(@"{0}\{1}.ms1ft", ms1ftFolder, datasets[i]);
var outPath = string.Format(@"{0}\{1}.seqtag.ms1ft", ms1ftFolder, datasets[i]);
if (File.Exists(outPath))
{
continue;
}
var run = PbfLcMsRun.GetLcMsRun(rawFile);
var features = LcMsFeatureAlignment.LoadProMexResult(i, ms1FtFile, run);
var prsmList = prsmReader.LoadIdentificationResult(mspFile, ProteinSpectrumMatch.SearchTool.MsPathFinder);
var prsmFeatureMatch = new bool[prsmList.Count];
for (var j = 0; j < features.Count; j++)
{
//features[j].ProteinSpectrumMatches = new ProteinSpectrumMatchSet(i);
var massTol = tolerance.GetToleranceAsTh(features[j].Mass);
for (var k = 0; k < prsmList.Count; k++)
{
var match = prsmList[k];
if (features[j].MinScanNum < match.ScanNum && match.ScanNum < features[j].MaxScanNum && Math.Abs(features[j].Mass - match.Mass) < massTol)
{
features[j].ProteinSpectrumMatches.Add(match);
prsmFeatureMatch[k] = true;
}
}
}
var missingPrsm = new List <ProteinSpectrumMatch>();
for (var k = 0; k < prsmList.Count; k++)
{
if (!prsmFeatureMatch[k])
{
missingPrsm.Add(prsmList[k]);
}
}
FeatureFind(missingPrsm, run, outPath);
Console.WriteLine(outPath);
}
}
}
}
public void TestIMERFeatureAlignment()
{
const string outFilePath = @"D:\MassSpecFiles\IMER\promex_crosstab.tsv";
const string rawFolder = @"D:\MassSpecFiles\IMER";
var runLabels = new string[] { "1", "2", "3", "4", "5", "6" };
var nDataset = runLabels.Length;
//CPTAC_Intact_CR32A_24Aug15_Bane_15-02-06-RZ
var prsmReader = new ProteinSpectrumMatchReader();
var tolerance = new Tolerance(10);
var alignment = new LcMsFeatureAlignment(new CompRefFeatureComparer(tolerance));
for (var i = 0; i < nDataset; i++)
{
var k = runLabels[i].Equals("2") || runLabels[i].Equals("3") ? 14 : 13;
var rawFile = string.Format(@"{0}\Diabetes_iPSC_Beta_{1}_IMER_{2}May14_Alder_14-01-33.pbf", rawFolder, runLabels[i], k);
var mspFile = string.Format(@"{0}\Diabetes_iPSC_Beta_{1}_IMER_{2}May14_Alder_14-01-33_msgfdb_syn.txt", rawFolder, runLabels[i], k);
var ms1FtFile = string.Format(@"{0}\Diabetes_iPSC_Beta_{1}_IMER_{2}May14_Alder_14-01-33.ms1ft", rawFolder, runLabels[i], k);
Console.WriteLine(rawFile);
Console.WriteLine(File.Exists(rawFile));
var run = PbfLcMsRun.GetLcMsRun(rawFile);
var features = LcMsFeatureAlignment.LoadProMexResult(i, ms1FtFile, run, 500, 15000);
if (File.Exists(mspFile))
{
var prsmList = prsmReader.LoadIdentificationResult(mspFile, ProteinSpectrumMatch.SearchTool.MsGfPlus);
for (var j = 0; j < prsmList.Count; j++)
{
var match = prsmList[j];
match.ProteinId = match.ProteinName;
}
// tag features by PrSMs
for (var j = 0; j < features.Count; j++)
{
//features[j].ProteinSpectrumMatches = new ProteinSpectrumMatchSet(i);
var massTol = tolerance.GetToleranceAsTh(features[j].Mass);
foreach (var match in prsmList)
{
if (features[j].MinScanNum < match.ScanNum && match.ScanNum < features[j].MaxScanNum && Math.Abs(features[j].Mass - match.Mass) < massTol)
{
features[j].ProteinSpectrumMatches.Add(match);
}
}
}
}
alignment.AddDataSet(i, features, run);
}
alignment.AlignFeatures();
Console.WriteLine("{0} alignments ", alignment.CountAlignedFeatures);
for (var i = 0; i < nDataset; i++)
{
alignment.FillMissingFeatures(i);
Console.WriteLine("{0} has been processed", runLabels[i]);
}
OutputCrossTabWithId(outFilePath, alignment, runLabels);
}
private bool FindIon(Ion ion, Tolerance tolerance, double relativeIntensityThreshold, out int baseIsotopePeakIndex, out int nIsotopes, out int nMatchedIsotopes)
{
//matchedPeakIndex = new List<int>();
var baseIsotopeIndex = ion.Composition.GetMostAbundantIsotopeZeroBasedIndex();
var isotopomerEnvelope = ion.Composition.GetIsotopomerEnvelopeRelativeIntensities();
var baseIsotopMz = ion.GetIsotopeMz(baseIsotopeIndex);
baseIsotopePeakIndex = _ms2Spec.FindPeakIndex(baseIsotopMz, tolerance);
nIsotopes = isotopomerEnvelope.Select(x => x >= relativeIntensityThreshold).Count();
nMatchedIsotopes = 0;
if (baseIsotopePeakIndex < 0)
{
return(false);
}
//if (baseIsotopePeakIndex < 0) baseIsotopePeakIndex = ~baseIsotopePeakIndex;
nMatchedIsotopes++;
// go down
var peakIndex = baseIsotopePeakIndex;
//matchedPeakIndex.Add(peakIndex);
for (var isotopeIndex = baseIsotopeIndex - 1; isotopeIndex >= 0; isotopeIndex--)
{
if (isotopomerEnvelope[isotopeIndex] < relativeIntensityThreshold)
{
break;
}
var isotopeMz = ion.GetIsotopeMz(isotopeIndex);
var tolTh = tolerance.GetToleranceAsTh(isotopeMz);
var minMz = isotopeMz - tolTh;
var maxMz = isotopeMz + tolTh;
for (var i = peakIndex - 1; i >= 0; i--)
{
var peakMz = _ms2Spec.Peaks[i].Mz;
if (peakMz < minMz)
{
//peakIndex = i;
//break;
return(false);
}
if (peakMz <= maxMz) // find match, move to prev isotope
{
peakIndex = i;
//matchedPeakIndex.Add(peakIndex);
nMatchedIsotopes++;
break;
}
}
}
// go up
peakIndex = baseIsotopePeakIndex;
for (var isotopeIndex = baseIsotopeIndex + 1; isotopeIndex < isotopomerEnvelope.Length; isotopeIndex++)
{
if (isotopomerEnvelope[isotopeIndex] < relativeIntensityThreshold)
{
break;
}
var isotopeMz = ion.GetIsotopeMz(isotopeIndex);
var tolTh = tolerance.GetToleranceAsTh(isotopeMz);
var minMz = isotopeMz - tolTh;
var maxMz = isotopeMz + tolTh;
for (var i = peakIndex + 1; i < _ms2Spec.Peaks.Length; i++)
{
var peakMz = _ms2Spec.Peaks[i].Mz;
if (peakMz > maxMz)
{
//peakIndex = i;
//break;
return(false);
}
if (peakMz >= minMz) // find match, move to prev isotope
{
peakIndex = i;
//matchedPeakIndex.Add(peakIndex);
nMatchedIsotopes++;
break;
}
}
}
return(true);
}
public void TestTagAlignedFeatures()
{
var methodName = MethodBase.GetCurrentMethod().Name;
TestUtils.ShowStarting(methodName);
var featureDir = @"\\proto-2\UnitTest_Files\InformedProteomics_TestFiles\Output";
var mspDir = @"\\proto-2\UnitTest_Files\InformedProteomics_TestFiles\Output\MSP";
var outFile = @"\\proto-2\UnitTest_Files\InformedProteomics_TestFiles\Output\aligned_features.tsv";
var resultFile = @"\\proto-2\UnitTest_Files\InformedProteomics_TestFiles\Output\aligned_ids.tsv";
if (!Directory.Exists(featureDir))
{
Assert.Ignore(@"Skipping test {0} since folder not found: {1}", methodName, featureDir);
}
if (!Directory.Exists(mspDir))
{
Assert.Ignore(@"Skipping test {0} since folder not found: {1}", methodName, mspDir);
}
var dataset = GetDataList(featureDir);
var tsvParser = new TsvFileParser(outFile);
var massList = new List <double>();
for (var i = 0; i < tsvParser.NumData; i++)
{
massList.Add(Double.Parse(tsvParser.GetData("MonoMass")[i]));
}
var featureIdMap = new Dictionary <int, string>();
var tolerance = new Tolerance(12);
var headers = new List <string>();
//foreach (var data in dataset)
for (var d = 0; d < dataset.Count; d++)
{
var data = dataset[d];
var minScanColName = String.Format("{0}_minScan", d);
var maxScanColName = String.Format("{0}_maxScan", d);
var fname = String.Format(@"{0}\{1}_IcTda.tsv", mspDir, data);
var idParser = new TsvFileParser(fname);
var idRows = idParser.GetRows();
if (headers.Count < 1)
{
headers.AddRange(idParser.GetHeaders());
}
for (var i = 0; i < idParser.NumData; i++)
{
var scan = Int32.Parse(idParser.GetData("Scan")[i]);
var mass = Double.Parse(idParser.GetData("Mass")[i]);
var qvalue = Double.Parse(idParser.GetData("QValue")[i]);
if (qvalue > 0.01)
{
break;
}
var massTol = tolerance.GetToleranceAsTh(mass);
var idx = massList.BinarySearch(mass);
if (idx < 0)
{
idx = ~idx;
}
var found = false;
for (var j = idx; j >= 0; j--)
{
if (Math.Abs(mass - massList[j]) > massTol)
{
break;
}
if (tsvParser.GetData(minScanColName)[j].Length < 1)
{
continue;
}
if (Int32.Parse(tsvParser.GetData(minScanColName)[j]) < scan && scan < Int32.Parse(tsvParser.GetData(maxScanColName)[j]))
{
found = true;
if (!featureIdMap.ContainsKey(j))
{
featureIdMap.Add(j, idRows[i]);
}
break;
}
}
if (found)
{
continue;
}
for (var j = idx + 1; j < massList.Count; j++)
{
if (Math.Abs(mass - massList[j]) > massTol)
{
break;
}
if (tsvParser.GetData(minScanColName)[j].Length < 1)
{
continue;
}
if (Int32.Parse(tsvParser.GetData(minScanColName)[j]) < scan && scan < Int32.Parse(tsvParser.GetData(maxScanColName)[j]))
{
found = true;
if (!featureIdMap.ContainsKey(j))
{
featureIdMap.Add(j, idRows[i]);
}
break;
}
}
}
}
var writer = new StreamWriter(resultFile);
writer.Write("AlignedFeatureID"); writer.Write("\t");
writer.Write(string.Join("\t", headers));
for (var i = 0; i < 32; i++)
{
writer.Write("\t"); writer.Write("{0}", i);
}
writer.Write("\n");
var id = 1;
foreach (var key in featureIdMap.Keys)
{
writer.Write(id); writer.Write("\t");
writer.Write(featureIdMap[key]);
for (var i = 0; i < 32; i++)
{
writer.Write("\t"); writer.Write("{0}", tsvParser.GetData(String.Format("{0}", i))[key]);
}
writer.Write("\n");
id++;
}
writer.Close();
}