//TODO include run information for each peptide
//includes all MSMS derived peptides into the graph --consensusXML
Size ProteinResolver::includeMSMSPeptides_(ConsensusMap & consensus, vector<PeptideEntry> & peptide_nodes)
{
Size found_peptide = 0;
for (Size pep = 0; pep != consensus.size(); ++pep)
{
ConsensusFeature & feature = consensus.at(pep);
// get all peptide identifications
const vector<PeptideIdentification> & pep_id = feature.getPeptideIdentifications();
for (Size cons_pep = 0; cons_pep < pep_id.size(); ++cons_pep)
{
String seq = pep_id.at(cons_pep).getHits().front().getSequence().toUnmodifiedString();
Size peptide_entry = findPeptideEntry_(seq, peptide_nodes);
if (peptide_entry != peptide_nodes.size())
{
if (!peptide_nodes.at(peptide_entry).experimental)
{
++found_peptide;
}
//should be changed -- for consensus peptide_identification is the consensus and peptide_hit is the PeptideIdentification. PeptideHit is only top hit at the moment
peptide_nodes.at(peptide_entry).peptide_identification = pep;
peptide_nodes.at(peptide_entry).peptide_hit = cons_pep; //only top hit is used at the moment
peptide_nodes.at(peptide_entry).experimental = true;
// get intensity of the feature
peptide_nodes.at(peptide_entry).intensity = feature.getIntensity();
peptide_nodes.at(peptide_entry).origin = feature.getMetaValue("file_origin");
}
}
}
return found_peptide;
}
ExitCodes main_(int, const char **)
{
String in = getStringOption_("in"), out = getStringOption_("out");
FileTypes::Type in_type = FileHandler::getType(in);
if (in_type == FileTypes::FEATUREXML)
{
FeatureMap<> features;
FeatureXMLFile().load(in, features);
for (FeatureMap<>::Iterator feat_it = features.begin();
feat_it != features.end(); ++feat_it)
{
resolveConflict_(feat_it->getPeptideIdentifications());
}
addDataProcessing_(features,
getProcessingInfo_(DataProcessing::FILTERING));
FeatureXMLFile().store(out, features);
}
else // consensusXML
{
ConsensusMap consensus;
ConsensusXMLFile().load(in, consensus);
for (ConsensusMap::Iterator cons_it = consensus.begin();
cons_it != consensus.end(); ++cons_it)
{
resolveConflict_(cons_it->getPeptideIdentifications());
}
addDataProcessing_(consensus,
getProcessingInfo_(DataProcessing::FILTERING));
ConsensusXMLFile().store(out, consensus);
}
return EXECUTION_OK;
}
void SeedListGenerator::generateSeedLists(const ConsensusMap& consensus,
Map<UInt64, SeedList>& seed_lists)
{
seed_lists.clear();
// iterate over all consensus features...
for (ConsensusMap::ConstIterator cons_it = consensus.begin();
cons_it != consensus.end(); ++cons_it)
{
DPosition<2> point(cons_it->getRT(), cons_it->getMZ());
// for each sub-map in the consensus map, add a seed at the position of
// this consensus feature:
for (ConsensusMap::FileDescriptions::const_iterator file_it =
consensus.getFileDescriptions().begin(); file_it !=
consensus.getFileDescriptions().end(); ++file_it)
seed_lists[file_it->first].push_back(point);
// for each feature contained in the consensus feature, remove the seed of
// the corresponding map:
for (ConsensusFeature::HandleSetType::const_iterator feat_it =
cons_it->getFeatures().begin(); feat_it !=
cons_it->getFeatures().end(); ++feat_it)
{
seed_lists[feat_it->getMapIndex()].pop_back();
}
// this leaves seeds for maps where no feature was found near the
// consensus position
}
}
boost::shared_ptr<IsobaricQuantitationMethod> IBSpectraFile::guessExperimentType_(const ConsensusMap& cm)
{
if (cm.getExperimentType() != "labeled_MS2" && cm.getExperimentType() != "itraq")
{
throw Exception::InvalidParameter(__FILE__,
__LINE__,
__PRETTY_FUNCTION__,
"Given ConsensusMap does not hold any isobaric quantification data.");
}
// we take the mapcount as approximation
if (cm.getFileDescriptions().size() == 4)
{
return boost::shared_ptr<IsobaricQuantitationMethod>(new ItraqFourPlexQuantitationMethod);
}
else if (cm.getFileDescriptions().size() == 6)
{
return boost::shared_ptr<IsobaricQuantitationMethod>(new TMTSixPlexQuantitationMethod);
}
else if (cm.getFileDescriptions().size() == 8)
{
return boost::shared_ptr<IsobaricQuantitationMethod>(new ItraqEightPlexQuantitationMethod);
}
else
{
throw Exception::InvalidParameter(__FILE__,
__LINE__,
__PRETTY_FUNCTION__,
"Could not guess isobaric quantification data from ConsensusMap due to non-matching number of input maps.");
}
}
void MapAlignmentAlgorithmPoseClustering::align(const ConsensusMap & map, TransformationDescription & trafo)
{
// TODO: move this to updateMembers_? (if consensusMap prevails)
// TODO: why does superimposer work on consensus map???
const ConsensusMap & map_model = reference_;
ConsensusMap map_scene = map;
// run superimposer to find the global transformation
TransformationDescription si_trafo;
superimposer_.run(map_model, map_scene, si_trafo);
// apply transformation to consensus features and contained feature
// handles
for (Size j = 0; j < map_scene.size(); ++j)
{
//Calculate new RT
double rt = map_scene[j].getRT();
rt = si_trafo.apply(rt);
//Set RT of consensus feature centroid
map_scene[j].setRT(rt);
//Set RT of consensus feature handles
map_scene[j].begin()->asMutable().setRT(rt);
}
//run pairfinder to find pairs
ConsensusMap result;
//TODO: add another 2map interface to pairfinder?
std::vector<ConsensusMap> input(2);
input[0] = map_model;
input[1] = map_scene;
pairfinder_.run(input, result);
// calculate the local transformation
si_trafo.invert(); // to undo the transformation applied above
TransformationDescription::DataPoints data;
for (ConsensusMap::Iterator it = result.begin(); it != result.end();
++it)
{
if (it->size() == 2) // two matching features
{
ConsensusFeature::iterator feat_it = it->begin();
double y = feat_it->getRT();
double x = si_trafo.apply((++feat_it)->getRT());
// one feature should be from the reference map:
if (feat_it->getMapIndex() != 0)
{
data.push_back(make_pair(x, y));
}
else
{
data.push_back(make_pair(y, x));
}
}
}
trafo = TransformationDescription(data);
trafo.fitModel("linear");
}
void FeatureGroupingAlgorithm::transferSubelements(const vector<ConsensusMap>& maps, ConsensusMap& out) const
{
// accumulate file descriptions from the input maps:
// cout << "Updating file descriptions..." << endl;
out.getFileDescriptions().clear();
// mapping: (map index, original id) -> new id
map<pair<Size, UInt64>, Size> mapid_table;
for (Size i = 0; i < maps.size(); ++i)
{
const ConsensusMap& consensus = maps[i];
for (ConsensusMap::FileDescriptions::const_iterator desc_it = consensus.getFileDescriptions().begin(); desc_it != consensus.getFileDescriptions().end(); ++desc_it)
{
Size counter = mapid_table.size();
mapid_table[make_pair(i, desc_it->first)] = counter;
out.getFileDescriptions()[counter] = desc_it->second;
}
}
// look-up table: input map -> unique ID -> consensus feature
// cout << "Creating look-up table..." << endl;
vector<map<UInt64, ConsensusMap::ConstIterator> > feat_lookup(maps.size());
for (Size i = 0; i < maps.size(); ++i)
{
const ConsensusMap& consensus = maps[i];
for (ConsensusMap::ConstIterator feat_it = consensus.begin();
feat_it != consensus.end(); ++feat_it)
{
// do NOT use "id_lookup[i][feat_it->getUniqueId()] = feat_it;" here as
// you will get "attempt to copy-construct an iterator from a singular
// iterator" in STL debug mode:
feat_lookup[i].insert(make_pair(feat_it->getUniqueId(), feat_it));
}
}
// adjust the consensus features:
// cout << "Adjusting consensus features..." << endl;
for (ConsensusMap::iterator cons_it = out.begin(); cons_it != out.end(); ++cons_it)
{
ConsensusFeature adjusted = ConsensusFeature(
static_cast<BaseFeature>(*cons_it)); // remove sub-features
for (ConsensusFeature::HandleSetType::const_iterator sub_it = cons_it->getFeatures().begin(); sub_it != cons_it->getFeatures().end(); ++sub_it)
{
UInt64 id = sub_it->getUniqueId();
Size map_index = sub_it->getMapIndex();
ConsensusMap::ConstIterator origin = feat_lookup[map_index][id];
for (ConsensusFeature::HandleSetType::const_iterator handle_it = origin->getFeatures().begin(); handle_it != origin->getFeatures().end(); ++handle_it)
{
FeatureHandle handle = *handle_it;
Size new_id = mapid_table[make_pair(map_index, handle.getMapIndex())];
handle.setMapIndex(new_id);
adjusted.insert(handle);
}
}
*cons_it = adjusted;
}
}
ExitCodes main_(int, const char **) override
{
String in = getStringOption_("in");
String out = getStringOption_("out");
String algo_type = getStringOption_("algorithm_type");
String acc_filter = getStringOption_("accession_filter");
String desc_filter = getStringOption_("description_filter");
double ratio_threshold = getDoubleOption_("ratio_threshold");
ConsensusXMLFile infile;
infile.setLogType(log_type_);
ConsensusMap map;
infile.load(in, map);
//map normalization
if (algo_type == "robust_regression")
{
map.sortBySize();
vector<double> results = ConsensusMapNormalizerAlgorithmThreshold::computeCorrelation(map, ratio_threshold, acc_filter, desc_filter);
ConsensusMapNormalizerAlgorithmThreshold::normalizeMaps(map, results);
}
else if (algo_type == "median")
{
ConsensusMapNormalizerAlgorithmMedian::normalizeMaps(map, ConsensusMapNormalizerAlgorithmMedian::NM_SCALE, acc_filter, desc_filter);
}
else if (algo_type == "median_shift")
{
ConsensusMapNormalizerAlgorithmMedian::normalizeMaps(map, ConsensusMapNormalizerAlgorithmMedian::NM_SHIFT, acc_filter, desc_filter);
}
else if (algo_type == "quantile")
{
if (acc_filter != "" || desc_filter != "")
{
LOG_WARN << endl << "NOTE: Accession / description filtering is not supported in quantile normalization mode. Ignoring filters." << endl << endl;
}
ConsensusMapNormalizerAlgorithmQuantile::normalizeMaps(map);
}
else
{
cerr << "Unknown algorithm type '" << algo_type.c_str() << "'." << endl;
return ILLEGAL_PARAMETERS;
}
//annotate output with data processing info and save output file
addDataProcessing_(map, getProcessingInfo_(DataProcessing::NORMALIZATION));
infile.store(out, map);
return EXECUTION_OK;
}
void MapAlignmentTransformer::transformSingleConsensusMap(ConsensusMap & cmap,
const TransformationDescription & trafo)
{
for (ConsensusMap::Iterator cmit = cmap.begin(); cmit != cmap.end();
++cmit)
{
applyToConsensusFeature_(*cmit, trafo);
}
// adapt RT values of unassigned peptides:
if (!cmap.getUnassignedPeptideIdentifications().empty())
{
transformSinglePeptideIdentification(
cmap.getUnassignedPeptideIdentifications(), trafo);
}
}
void ConsensusMapNormalizerAlgorithmThreshold::normalizeMaps(ConsensusMap& map, const vector<double>& ratios)
{
ConsensusMap::Iterator cf_it;
ProgressLogger progresslogger;
progresslogger.setLogType(ProgressLogger::CMD);
progresslogger.startProgress(0, map.size(), "normalizing maps");
for (cf_it = map.begin(); cf_it != map.end(); ++cf_it)
{
progresslogger.setProgress(cf_it - map.begin());
ConsensusFeature::HandleSetType::const_iterator f_it;
for (f_it = cf_it->getFeatures().begin(); f_it != cf_it->getFeatures().end(); ++f_it)
{
f_it->asMutable().setIntensity(f_it->getIntensity() * ratios[f_it->getMapIndex()]);
}
}
progresslogger.endProgress();
}
void QuantitativeExperimentalDesign::mergeConsensusMaps_(ConsensusMap & out, const String & experiment, StringList & file_paths)
{
ConsensusMap map;
LOG_INFO << "Merge consensus maps: " << endl;
UInt counter = 1;
for (StringList::Iterator file_it = file_paths.begin(); file_it != file_paths.end(); ++file_it, ++counter)
{
//load should clear the map
ConsensusXMLFile().load(*file_it, map);
for (ConsensusMap::iterator it = map.begin(); it != map.end(); ++it)
{
it->setMetaValue("experiment", DataValue(experiment));
}
out += map;
}
LOG_INFO << endl;
}
void ConsensusMapNormalizerAlgorithmQuantile::setNormalizedIntensityValues(const vector<vector<double> >& feature_ints, ConsensusMap& map)
{
//assumes the input map and feature_ints are in the same order as in the beginning,
//although feature_ints has normalized values now (but the same ranks as before)
Size number_of_maps = map.getColumnHeaders().size();
ConsensusMap::ConstIterator cf_it;
vector<Size> progress_indices(number_of_maps);
for (cf_it = map.begin(); cf_it != map.end(); ++cf_it)
{
ConsensusFeature::HandleSetType::const_iterator f_it;
for (f_it = cf_it->getFeatures().begin(); f_it != cf_it->getFeatures().end(); ++f_it)
{
Size map_idx = f_it->getMapIndex();
double intensity = feature_ints[map_idx][progress_indices[map_idx]++];
f_it->asMutable().setIntensity(intensity);
}
}
}
void QuantitativeExperimentalDesign::applyDesign2Quantifier(PeptideAndProteinQuant & quantifier, TextFile & file, StringList & file_paths)
{
// vector< pair<PeptideAndProteinQuant::PeptideData,PeptideAndProteinQuant::ProteinQuant> >& result)
//create mapping from experimental setting to all respective file names
map<String, StringList> design2FileBaseName;
mapFiles2Design_(design2FileBaseName, file);
//filter out all non-existing files
map<String, StringList> design2FilePath;
findRelevantFilePaths_(design2FileBaseName, design2FilePath, file_paths);
//determine wether we deal with idXML or featureXML
FileTypes::Type in_type = FileHandler::getType(file_paths.front());
if (in_type == FileTypes::FEATUREXML)
{
FeatureMap<> features;
for (map<String, StringList>::iterator iter = design2FilePath.begin(); iter != design2FilePath.end(); ++iter)
{
mergeFeatureMaps_(features, iter->first, iter->second);
}
LOG_INFO << "Number of proteinIdentifications: " << features.getProteinIdentifications().size() << endl;
ProteinIdentification & proteins = features.getProteinIdentifications()[0];
quantifier.quantifyPeptides(features);
quantifier.quantifyProteins(proteins);
}
else
{
ConsensusMap consensus;
for (map<String, StringList>::iterator iter = design2FilePath.begin(); iter != design2FilePath.end(); ++iter)
{
mergeConsensusMaps_(consensus, iter->first, iter->second);
}
LOG_INFO << "Number of proteinIdentifications: " << consensus.getProteinIdentifications().size() << endl;
ProteinIdentification & proteins = consensus.getProteinIdentifications()[0];
quantifier.quantifyPeptides(consensus);
quantifier.quantifyProteins(proteins);
}
}
void EDTAFile::store(const String& filename, const ConsensusMap& map) const
{
TextFile tf;
// search for maximum number of sub-features (since this determines the number of columns)
Size max_sub(0);
for (Size i = 0; i < map.size(); ++i)
{
max_sub = std::max(max_sub, map[i].getFeatures().size());
}
// write header
String header("RT\tm/z\tintensity\tcharge");
for (Size i = 1; i <= max_sub; ++i)
{
header += "\tRT" + String(i) + "\tm/z" + String(i) + "\tintensity" + String(i) + "\tcharge" + String(i);
}
tf.addLine(header);
for (Size i = 0; i < map.size(); ++i)
{
ConsensusFeature f = map[i];
// consensus
String entry = String(f.getRT()) + "\t" + f.getMZ() + "\t" + f.getIntensity() + "\t" + f.getCharge();
// sub-features
ConsensusFeature::HandleSetType handle = f.getFeatures();
for (ConsensusFeature::HandleSetType::const_iterator it = handle.begin(); it != handle.end(); ++it)
{
entry += String("\t") + it->getRT() + "\t" + it->getMZ() + "\t" + it->getIntensity() + "\t" + it->getCharge();
}
// missing sub-features
for (Size j = handle.size(); j < max_sub; ++j)
{
entry += "\tNA\tNA\tNA\tNA";
}
tf.addLine(entry);
}
tf.store(filename);
}
void ProteinInference::infer(ConsensusMap & consensus_map, const UInt reference_map)
{
// we infer Proteins for every IdentificationRun separately. If you want this combined, then
// do that before calling this function
// Each ProteinIdentification will be augmented with the quantification (where possible)
for (size_t i = 0;
i < consensus_map.getProteinIdentifications().size();
++i)
{
infer_(consensus_map, i, reference_map);
}
}
void MetaDataBrowser::add(ConsensusMap & map)
{
//identifier
add(static_cast<DocumentIdentifier &>(map));
// protein identifications
for (Size i = 0; i < map.getProteinIdentifications().size(); ++i)
{
add(map.getProteinIdentifications()[i]);
}
//unassigned peptide ids
for (Size i = 0; i < map.getUnassignedPeptideIdentifications().size(); ++i)
{
add(map.getUnassignedPeptideIdentifications()[i]);
}
add(static_cast<MetaInfoInterface &>(map));
treeview_->expandItem(treeview_->findItems(QString::number(0), Qt::MatchExactly, 1).first());
}
ExitCodes main_(int, const char **)
{
String in = getStringOption_("in");
String out = getStringOption_("out");
String algo_type = getStringOption_("algorithm_type");
double ratio_threshold = getDoubleOption_("ratio_threshold");
ConsensusXMLFile infile;
infile.setLogType(log_type_);
ConsensusMap map;
infile.load(in, map);
//map normalization
if (algo_type == "robust_regression")
{
map.sortBySize();
vector<double> results = ConsensusMapNormalizerAlgorithmThreshold::computeCorrelation(map, ratio_threshold);
ConsensusMapNormalizerAlgorithmThreshold::normalizeMaps(map, results);
}
else if (algo_type == "median")
{
ConsensusMapNormalizerAlgorithmMedian::normalizeMaps(map);
}
else if (algo_type == "quantile")
{
ConsensusMapNormalizerAlgorithmQuantile::normalizeMaps(map);
}
else
{
cerr << "Unknown algorithm type '" << algo_type.c_str() << "'." << endl;
return ILLEGAL_PARAMETERS;
}
//annotate output with data processing info and save output file
addDataProcessing_(map, getProcessingInfo_(DataProcessing::NORMALIZATION));
infile.store(out, map);
return EXECUTION_OK;
}
void IsobaricChannelExtractor::registerChannelsInOutputMap_(ConsensusMap& consensus_map)
{
// register the individual channels in the output consensus map
Int index = 0;
for (IsobaricQuantitationMethod::IsobaricChannelList::const_iterator cl_it = quant_method_->getChannelInformation().begin();
cl_it != quant_method_->getChannelInformation().end();
++cl_it)
{
ConsensusMap::FileDescription channel_as_map;
// label is the channel + description provided in the Params
channel_as_map.label = quant_method_->getName() + "_" + cl_it->name;
// TODO(aiche): number of features need to be set later
channel_as_map.size = consensus_map.size();
// add some more MetaInfo
channel_as_map.setMetaValue("channel_name", cl_it->name);
channel_as_map.setMetaValue("channel_id", cl_it->id);
channel_as_map.setMetaValue("channel_description", cl_it->description);
channel_as_map.setMetaValue("channel_center", cl_it->center);
consensus_map.getFileDescriptions()[index++] = channel_as_map;
}
}
void ConsensusMapNormalizerAlgorithmQuantile::extractIntensityVectors(const ConsensusMap& map, vector<vector<double> >& out_intensities)
{
//reserve space for out_intensities (unequal vector lengths, 0-features omitted)
Size number_of_maps = map.getColumnHeaders().size();
out_intensities.clear();
out_intensities.resize(number_of_maps);
for (UInt i = 0; i < number_of_maps; i++)
{
ConsensusMap::ColumnHeaders::const_iterator it = map.getColumnHeaders().find(i);
if (it == map.getColumnHeaders().end()) throw Exception::ElementNotFound(__FILE__, __LINE__, OPENMS_PRETTY_FUNCTION, String(i));
out_intensities[i].reserve(it->second.size);
}
//fill out_intensities
ConsensusMap::ConstIterator cf_it;
for (cf_it = map.begin(); cf_it != map.end(); ++cf_it)
{
ConsensusFeature::HandleSetType::const_iterator f_it;
for (f_it = cf_it->getFeatures().begin(); f_it != cf_it->getFeatures().end(); ++f_it)
{
out_intensities[f_it->getMapIndex()].push_back(f_it->getIntensity());
}
}
}
void FeatureGroupingAlgorithmLabeled::group(const std::vector<FeatureMap<> > & maps, ConsensusMap & out)
{
//check that the number of maps is ok
if (maps.size() != 1)
throw Exception::IllegalArgument(__FILE__, __LINE__, __PRETTY_FUNCTION__, "Exactly one map must be given!");
if (out.getFileDescriptions().size() != 2)
throw Exception::IllegalArgument(__FILE__, __LINE__, __PRETTY_FUNCTION__, "Two file descriptions must be set in 'out'!");
//initialize LabeledPairFinder
LabeledPairFinder pm;
pm.setParameters(param_.copy("", true));
//convert to consensus map
std::vector<ConsensusMap> input(1);
ConsensusMap::convert(0, maps[0], input[0]);
//run
pm.run(input, out);
}
void IsobaricQuantifier::computeLabelingStatistics_(ConsensusMap& consensus_map_out)
{
// number of total quantified spectra
stats_.number_ms2_total = consensus_map_out.size();
// Labeling efficiency statistics
for (size_t i = 0; i < consensus_map_out.size(); ++i)
{
// is whole scan empty?!
if (consensus_map_out[i].getIntensity() == 0) ++stats_.number_ms2_empty;
// look at single reporters
for (ConsensusFeature::HandleSetType::const_iterator it_elements = consensus_map_out[i].begin();
it_elements != consensus_map_out[i].end();
++it_elements)
{
if (it_elements->getIntensity() == 0)
{
String ch_index = consensus_map_out.getFileDescriptions()[it_elements->getMapIndex()].getMetaValue("channel_name");
++stats_.empty_channels[ch_index];
}
}
}
LOG_INFO << "IsobaricQuantifier: skipped " << stats_.number_ms2_empty << " of " << consensus_map_out.size() << " selected scans due to lack of reporter information:\n";
consensus_map_out.setMetaValue("isoquant:scans_noquant", stats_.number_ms2_empty);
consensus_map_out.setMetaValue("isoquant:scans_total", consensus_map_out.size());
LOG_INFO << "IsobaricQuantifier: channels with signal\n";
for (std::map<String, Size>::const_iterator it_m = stats_.empty_channels.begin();
it_m != stats_.empty_channels.end();
++it_m)
{
LOG_INFO << " channel " << it_m->first << ": " << (consensus_map_out.size() - it_m->second) << " / " << consensus_map_out.size() << " (" << ((consensus_map_out.size() - it_m->second) * 100 / consensus_map_out.size()) << "%)\n";
consensus_map_out.setMetaValue(String("isoquant:quantifyable_ch") + it_m->first, (consensus_map_out.size() - it_m->second));
}
}
void FeatureGroupingAlgorithmQT::group_(const vector<MapType>& maps,
ConsensusMap& out)
{
// check that the number of maps is ok:
if (maps.size() < 2)
{
throw Exception::IllegalArgument(__FILE__, __LINE__, OPENMS_PRETTY_FUNCTION,
"At least two maps must be given!");
}
QTClusterFinder cluster_finder;
cluster_finder.setParameters(param_.copy("", true));
cluster_finder.run(maps, out);
StringList ms_run_locations;
// add protein IDs and unassigned peptide IDs to the result map here,
// to keep the same order as the input maps (useful for output later):
for (typename vector<MapType>::const_iterator map_it = maps.begin();
map_it != maps.end(); ++map_it)
{
// add protein identifications to result map:
out.getProteinIdentifications().insert(
out.getProteinIdentifications().end(),
map_it->getProteinIdentifications().begin(),
map_it->getProteinIdentifications().end());
// add unassigned peptide identifications to result map:
out.getUnassignedPeptideIdentifications().insert(
out.getUnassignedPeptideIdentifications().end(),
map_it->getUnassignedPeptideIdentifications().begin(),
map_it->getUnassignedPeptideIdentifications().end());
}
// canonical ordering for checking the results:
out.sortByQuality();
out.sortByMaps();
out.sortBySize();
return;
}
void IsobaricQuantifier::quantify(const ConsensusMap& consensus_map_in, ConsensusMap& consensus_map_out)
{
// precheck incoming map
if (consensus_map_in.empty())
{
LOG_WARN << "Warning: Empty iTRAQ container. No quantitative information available!" << std::endl;
return;
}
// create output map based on input, we will cleanup the channels while iterating over it
consensus_map_out = consensus_map_in;
// init stats
stats_.reset();
stats_.channel_count = quant_method_->getNumberOfChannels();
// apply isotope correction if requested by user
if (isotope_correction_enabled_)
{
stats_ = IsobaricIsotopeCorrector::correctIsotopicImpurities(consensus_map_in, consensus_map_out, quant_method_);
}
else
{
LOG_WARN << "Warning: Due to deactivated isotope-correction labeling statistics will be based on raw intensities, which might give too optimistic results." << std::endl;
}
// compute statistics and embed into output map
computeLabelingStatistics_(consensus_map_out);
// apply normalization if requested
if (normalization_enabled_)
{
IsobaricNormalizer normalizer(quant_method_);
normalizer.normalize(consensus_map_out);
}
}
FGA* ptr = 0;
FGA* nullPointer = 0;
START_SECTION((FeatureGroupingAlgorithm()))
ptr = new FGA();
TEST_NOT_EQUAL(ptr, nullPointer)
END_SECTION
START_SECTION((virtual ~FeatureGroupingAlgorithm()))
delete ptr;
END_SECTION
START_SECTION((virtual void group(const vector< FeatureMap > &maps, ConsensusMap &out)=0))
FGA fga;
vector< FeatureMap > in;
ConsensusMap map;
fga.group(in,map);
TEST_EQUAL(map.getFileDescriptions()[0].filename, "bla")
END_SECTION
START_SECTION((static void registerChildren()))
{
TEST_STRING_EQUAL(Factory<FeatureGroupingAlgorithm>::registeredProducts()[0],FeatureGroupingAlgorithmLabeled::getProductName());
TEST_STRING_EQUAL(Factory<FeatureGroupingAlgorithm>::registeredProducts()[1],FeatureGroupingAlgorithmUnlabeled::getProductName());
TEST_EQUAL(Factory<FeatureGroupingAlgorithm>::registeredProducts().size(), 3)
}
END_SECTION
START_SECTION((void transferSubelements(const vector<ConsensusMap>& maps, ConsensusMap& out) const))
{
vector<ConsensusMap> maps(2);
void MapAlignmentEvaluationAlgorithmPrecision::evaluate(const ConsensusMap & consensus_map_in, const ConsensusMap & consensus_map_gt, const double & rt_dev, const double & mz_dev, const Peak2D::IntensityType & int_dev, const bool use_charge, double & out)
{
//Precision = 1/N * sum ( gt_subtend_tilde_tool_i / tilde_tool_i )
ConsensusMap cons_map_gt; /* = consensus_map_gt; */
for (Size i = 0; i < consensus_map_gt.size(); ++i)
{
if (consensus_map_gt[i].size() >= 2)
{
cons_map_gt.push_back(consensus_map_gt[i]);
}
}
ConsensusMap cons_map_tool = consensus_map_in;
std::vector<Size> gt_subtend_tilde_tool; //holds the numerators of the sum
std::vector<Size> tilde_tool; //holds the denominators of the sum
Size gt_subtend_tilde_tool_i = 0; //filling material for the vectors
Size tilde_tool_i = 0;
Size cons_tool_size = 0; //size of the actual consensus feature of the tool
Size gt_i_subtend_tool_j = 0; //size of the intersection of the actual cons. feat. of the tool with the c.f. of GT
double precision = 0; //holds the output
double sum = 0; //intermediate step: the sum
//loop over all consensus features of the ground truth
for (Size i = 0; i < cons_map_gt.size(); ++i) //N = cons_map_gt.size()
{
ConsensusFeature & gt_elem = cons_map_gt[i];
//for every i = 1, ..., N:
gt_subtend_tilde_tool_i = 0;
tilde_tool_i = 0;
//loop over all consensus features of the tool's consensus map
for (Size j = 0; j < cons_map_tool.size(); ++j)
{
ConsensusFeature & tool_elem = cons_map_tool[j];
cons_tool_size = cons_map_tool[j].size();
gt_i_subtend_tool_j = 0;
//loop over all features in the ith consensus feature of the gt
for (HandleIterator gt_it = gt_elem.begin(); gt_it != gt_elem.end(); ++gt_it)
{
//loop over all features in the jth consensus feature of the tool's map
for (HandleIterator tool_it = tool_elem.begin(); tool_it != tool_elem.end(); ++tool_it)
{
//++cons_tool_size;
if (isSameHandle(*tool_it, *gt_it, rt_dev, mz_dev, int_dev, use_charge))
{
++gt_i_subtend_tool_j;
break;
}
}
}
if ((cons_tool_size >= 2) && (gt_i_subtend_tool_j > 0))
{
gt_subtend_tilde_tool_i += gt_i_subtend_tool_j;
tilde_tool_i += cons_tool_size;
}
}
gt_subtend_tilde_tool.push_back(gt_subtend_tilde_tool_i);
tilde_tool.push_back(tilde_tool_i);
}
for (Size k = 0; k < gt_subtend_tilde_tool.size(); ++k)
{
double fraction = 0; //intermediate step: the fraction
if (gt_subtend_tilde_tool[k] != 0)
{
fraction = double(gt_subtend_tilde_tool[k]) / double(tilde_tool[k]);
}
sum += fraction;
}
precision = (1.0 / double(cons_map_gt.size())) * sum;
out = precision;
}
ExitCodes main_(int, const char**)
{
//-------------------------------------------------------------
// parameter handling
//-------------------------------------------------------------
StringList in = getStringList_("in");
String edta = getStringOption_("pos");
String out = getStringOption_("out");
String out_sep = getStringOption_("out_separator");
String out_TIC_debug = getStringOption_("auto_rt:out_debug_TIC");
StringList in_header = getStringList_("in_header");
// number of out_debug_TIC files and input files must be identical
/*if (out_TIC_debug.size() > 0 && in.size() != out_TIC_debug.size())
{
LOG_FATAL_ERROR << "Error: number of input file 'in' and auto_rt:out_debug_TIC files must be identical!" << std::endl;
return ILLEGAL_PARAMETERS;
}*/
// number of header files and input files must be identical
if (in_header.size() > 0 && in.size() != in_header.size())
{
LOG_FATAL_ERROR << "Error: number of input file 'in' and 'in_header' files must be identical!" << std::endl;
return ILLEGAL_PARAMETERS;
}
if (!getFlag_("auto_rt:enabled") && !out_TIC_debug.empty())
{
LOG_FATAL_ERROR << "Error: TIC output file requested, but auto_rt is not enabled! Either do not request the file or switch on 'auto_rt:enabled'." << std::endl;
return ILLEGAL_PARAMETERS;
}
double rttol = getDoubleOption_("rt_tol");
double mztol = getDoubleOption_("mz_tol");
Size rt_collect = getIntOption_("rt_collect");
//-------------------------------------------------------------
// loading input
//-------------------------------------------------------------
MzMLFile mzml_file;
mzml_file.setLogType(log_type_);
MSExperiment<Peak1D> exp, exp_pp;
EDTAFile ed;
ConsensusMap cm;
ed.load(edta, cm);
StringList tf_single_header0, tf_single_header1, tf_single_header2; // header content, for each column
std::vector<String> vec_single; // one line for each compound, multiple columns per experiment
vec_single.resize(cm.size());
for (Size fi = 0; fi < in.size(); ++fi)
{
// load raw data
mzml_file.load(in[fi], exp);
exp.sortSpectra(true);
if (exp.empty())
{
LOG_WARN << "The given file does not contain any conventional peak data, but might"
" contain chromatograms. This tool currently cannot handle them, sorry." << std::endl;
return INCOMPATIBLE_INPUT_DATA;
}
// try to detect RT peaks (only for the first input file -- all others should align!)
// cm.size() might change in here...
if (getFlag_("auto_rt:enabled") && fi == 0)
{
ConsensusMap cm_local = cm; // we might have different RT peaks for each map if 'auto_rt' is enabled
cm.clear(false); // reset global list (about to be filled)
// compute TIC
MSChromatogram<> tic = exp.getTIC();
MSSpectrum<> tics, tic_gf, tics_pp, tics_sn;
for (Size ic = 0; ic < tic.size(); ++ic)
{ // rewrite Chromatogram to MSSpectrum (GaussFilter requires it)
Peak1D peak;
peak.setMZ(tic[ic].getRT());
peak.setIntensity(tic[ic].getIntensity());
tics.push_back(peak);
}
// smooth (no PP_CWT here due to efficiency reasons -- large FWHM take longer!)
double fwhm = getDoubleOption_("auto_rt:FHWM");
GaussFilter gf;
Param p = gf.getParameters();
p.setValue("gaussian_width", fwhm * 2); // wider than FWHM, just to be sure we have a fully smoothed peak. Merging two peaks is unlikely
p.setValue("use_ppm_tolerance", "false");
gf.setParameters(p);
tic_gf = tics;
gf.filter(tic_gf);
// pick peaks
PeakPickerHiRes pp;
p = pp.getParameters();
p.setValue("signal_to_noise", getDoubleOption_("auto_rt:SNThreshold"));
pp.setParameters(p);
pp.pick(tic_gf, tics_pp);
if (tics_pp.size())
{
LOG_INFO << "Found " << tics_pp.size() << " auto-rt peaks at: ";
for (Size ipp = 0; ipp != tics_pp.size(); ++ipp) LOG_INFO << " " << tics_pp[ipp].getMZ();
}
else
{
LOG_INFO << "Found no auto-rt peaks. Change threshold parameters!";
}
LOG_INFO << std::endl;
if (!out_TIC_debug.empty()) // if debug file was given
{ // store intermediate steps for debug
MSExperiment<> out_debug;
out_debug.addChromatogram(toChromatogram(tics));
out_debug.addChromatogram(toChromatogram(tic_gf));
SignalToNoiseEstimatorMedian<MSSpectrum<> > snt;
snt.init(tics);
for (Size is = 0; is < tics.size(); ++is)
{
Peak1D peak;
peak.setMZ(tic[is].getMZ());
peak.setIntensity(snt.getSignalToNoise(tics[is]));
tics_sn.push_back(peak);
}
out_debug.addChromatogram(toChromatogram(tics_sn));
out_debug.addChromatogram(toChromatogram(tics_pp));
// get rid of "native-id" missing warning
for (Size id = 0; id < out_debug.size(); ++id) out_debug[id].setNativeID(String("spectrum=") + id);
mzml_file.store(out_TIC_debug, out_debug);
LOG_DEBUG << "Storing debug AUTO-RT: " << out_TIC_debug << std::endl;
}
// add target EICs: for each m/z with no/negative RT, add all combinations of that m/z with auto-RTs
// duplicate m/z entries will be ignored!
// all other lines with positive RT values are copied unaffected
//do not allow doubles
std::set<double> mz_doubles;
for (ConsensusMap::Iterator cit = cm_local.begin(); cit != cm_local.end(); ++cit)
{
if (cit->getRT() < 0)
{
if (mz_doubles.find(cit->getMZ()) == mz_doubles.end())
{
mz_doubles.insert(cit->getMZ());
}
else
{
LOG_INFO << "Found duplicate m/z entry (" << cit->getMZ() << ") for auto-rt. Skipping ..." << std::endl;
continue;
}
ConsensusMap cm_RT_multiplex;
for (MSSpectrum<>::ConstIterator itp = tics_pp.begin(); itp != tics_pp.end(); ++itp)
{
ConsensusFeature f = *cit;
f.setRT(itp->getMZ());
cm.push_back(f);
}
}
else
{ // default feature with no auto-rt
LOG_INFO << "copying feature with RT " << cit->getRT() << std::endl;
cm.push_back(*cit);
}
}
// resize, since we have more positions now
vec_single.resize(cm.size());
}
// search for each EIC and add up
Int not_found(0);
Map<Size, double> quant;
String description;
if (fi < in_header.size())
{
HeaderInfo info(in_header[fi]);
description = info.header_description;
}
if (fi == 0)
{ // two additional columns for first file (theoretical RT and m/z)
tf_single_header0 << "" << "";
tf_single_header1 << "" << "";
tf_single_header2 << "RT" << "mz";
}
// 5 entries for each input file
tf_single_header0 << File::basename(in[fi]) << "" << "" << "" << "";
tf_single_header1 << description << "" << "" << "" << "";
tf_single_header2 << "RTobs" << "dRT" << "mzobs" << "dppm" << "intensity";
for (Size i = 0; i < cm.size(); ++i)
{
//std::cerr << "Rt" << cm[i].getRT() << " mz: " << cm[i].getMZ() << " R " << cm[i].getMetaValue("rank") << "\n";
double mz_da = mztol * cm[i].getMZ() / 1e6; // mz tolerance in Dalton
MSExperiment<>::ConstAreaIterator it = exp.areaBeginConst(cm[i].getRT() - rttol / 2,
cm[i].getRT() + rttol / 2,
cm[i].getMZ() - mz_da,
cm[i].getMZ() + mz_da);
Peak2D max_peak;
max_peak.setIntensity(0);
max_peak.setRT(cm[i].getRT());
max_peak.setMZ(cm[i].getMZ());
for (; it != exp.areaEndConst(); ++it)
{
if (max_peak.getIntensity() < it->getIntensity())
{
max_peak.setIntensity(it->getIntensity());
max_peak.setRT(it.getRT());
max_peak.setMZ(it->getMZ());
}
}
double ppm = 0; // observed m/z offset
if (max_peak.getIntensity() == 0)
{
++not_found;
}
else
{
// take median for m/z found
std::vector<double> mz;
MSExperiment<>::Iterator itm = exp.RTBegin(max_peak.getRT());
SignedSize low = std::min<SignedSize>(std::distance(exp.begin(), itm), rt_collect);
SignedSize high = std::min<SignedSize>(std::distance(itm, exp.end()) - 1, rt_collect);
MSExperiment<>::AreaIterator itt = exp.areaBegin((itm - low)->getRT() - 0.01, (itm + high)->getRT() + 0.01, cm[i].getMZ() - mz_da, cm[i].getMZ() + mz_da);
for (; itt != exp.areaEnd(); ++itt)
{
mz.push_back(itt->getMZ());
//std::cerr << "ppm: " << itt.getRT() << " " << itt->getMZ() << " " << itt->getIntensity() << std::endl;
}
if ((SignedSize)mz.size() > (low + high + 1)) LOG_WARN << "Compound " << i << " has overlapping peaks [" << mz.size() << "/" << low + high + 1 << "]" << std::endl;
if (!mz.empty())
{
double avg_mz = std::accumulate(mz.begin(), mz.end(), 0.0) / double(mz.size());
//std::cerr << "avg: " << avg_mz << "\n";
ppm = (avg_mz - cm[i].getMZ()) / cm[i].getMZ() * 1e6;
}
}
// appending the second column set requires separator
String append_sep = (fi == 0 ? "" : out_sep);
vec_single[i] += append_sep; // new line
if (fi == 0)
{
vec_single[i] += String(cm[i].getRT()) + out_sep +
String(cm[i].getMZ()) + out_sep;
}
vec_single[i] += String(max_peak.getRT()) + out_sep +
String(max_peak.getRT() - cm[i].getRT()) + out_sep +
String(max_peak.getMZ()) + out_sep +
String(ppm) + out_sep +
String(max_peak.getIntensity());
}
if (not_found) LOG_INFO << "Missing peaks for " << not_found << " compounds in file '" << in[fi] << "'.\n";
}
//-------------------------------------------------------------
// create header
//-------------------------------------------------------------
vec_single.insert(vec_single.begin(), ListUtils::concatenate(tf_single_header2, out_sep));
vec_single.insert(vec_single.begin(), ListUtils::concatenate(tf_single_header1, out_sep));
vec_single.insert(vec_single.begin(), ListUtils::concatenate(tf_single_header0, out_sep));
//-------------------------------------------------------------
// writing output
//-------------------------------------------------------------
TextFile tf;
for (std::vector<String>::iterator v_it = vec_single.begin(); v_it != vec_single.end(); ++v_it)
{
tf.addLine(*v_it);
}
tf.store(out);
return EXECUTION_OK;
}
ExitCodes main_(int, const char**)
{
//-------------------------------------------------------------
// parameter handling
//-------------------------------------------------------------
//file list
StringList file_list = getStringList_("in");
//file type
FileHandler fh;
FileTypes::Type force_type;
if (getStringOption_("in_type").size() > 0)
{
force_type = FileTypes::nameToType(getStringOption_("in_type"));
}
else
{
force_type = fh.getType(file_list[0]);
}
//output file names and types
String out_file = getStringOption_("out");
//-------------------------------------------------------------
// calculations
//-------------------------------------------------------------
bool annotate_file_origin = getFlag_("annotate_file_origin");
if (force_type == FileTypes::FEATUREXML)
{
FeatureMap<> out;
for (Size i = 0; i < file_list.size(); ++i)
{
FeatureMap<> map;
FeatureXMLFile fh;
fh.load(file_list[i], map);
if (annotate_file_origin)
{
for (FeatureMap<>::iterator it = map.begin(); it != map.end(); ++it)
{
it->setMetaValue("file_origin", DataValue(file_list[i]));
}
}
out += map;
}
//-------------------------------------------------------------
// writing output
//-------------------------------------------------------------
//annotate output with data processing info
addDataProcessing_(out, getProcessingInfo_(DataProcessing::FORMAT_CONVERSION));
FeatureXMLFile f;
f.store(out_file, out);
}
else if (force_type == FileTypes::CONSENSUSXML)
{
ConsensusMap out;
ConsensusXMLFile fh;
fh.load(file_list[0], out);
//skip first file
for (Size i = 1; i < file_list.size(); ++i)
{
ConsensusMap map;
ConsensusXMLFile fh;
fh.load(file_list[i], map);
if (annotate_file_origin)
{
for (ConsensusMap::iterator it = map.begin(); it != map.end(); ++it)
{
it->setMetaValue("file_origin", DataValue(file_list[i]));
}
}
out += map;
}
//-------------------------------------------------------------
// writing output
//-------------------------------------------------------------
//annotate output with data processing info
addDataProcessing_(out, getProcessingInfo_(DataProcessing::FORMAT_CONVERSION));
ConsensusXMLFile f;
f.store(out_file, out);
}
else if (force_type == FileTypes::TRAML)
{
TargetedExperiment out;
for (Size i = 0; i < file_list.size(); ++i)
{
TargetedExperiment map;
TraMLFile fh;
fh.load(file_list[i], map);
out += map;
}
//-------------------------------------------------------------
// writing output
//-------------------------------------------------------------
//annotate output with data processing info
Software software;
software.setName("FileMerger");
software.setVersion(VersionInfo::getVersion());
out.addSoftware(software);
TraMLFile f;
f.store(out_file, out);
}
else
{
// we might want to combine different types, thus we only
// query in_type (which applies to all files)
// and not the suffix or content of a single file
force_type = FileTypes::nameToType(getStringOption_("in_type"));
//rt
bool rt_auto_number = getFlag_("raw:rt_auto");
bool rt_filename = getFlag_("raw:rt_filename");
bool rt_custom = false;
DoubleList custom_rts = getDoubleList_("raw:rt_custom");
if (custom_rts.size() != 0)
{
rt_custom = true;
if (custom_rts.size() != file_list.size())
{
writeLog_("Custom retention time list must have as many elements as there are input files!");
printUsage_();
return ILLEGAL_PARAMETERS;
}
}
//ms level
bool user_ms_level = getFlag_("raw:user_ms_level");
MSExperiment<> out;
out.reserve(file_list.size());
UInt rt_auto = 0;
UInt native_id = 0;
std::vector<MSChromatogram<ChromatogramPeak> > all_chromatograms;
for (Size i = 0; i < file_list.size(); ++i)
{
String filename = file_list[i];
//load file
MSExperiment<> in;
fh.loadExperiment(filename, in, force_type, log_type_);
if (in.empty() && in.getChromatograms().empty())
{
writeLog_(String("Warning: Empty file '") + filename + "'!");
continue;
}
out.reserve(out.size() + in.size());
//warn if custom RT and more than one scan in input file
if (rt_custom && in.size() > 1)
{
writeLog_(String("Warning: More than one scan in file '") + filename + "'! All scans will have the same retention time!");
}
for (MSExperiment<>::const_iterator it2 = in.begin(); it2 != in.end(); ++it2)
{
//handle rt
Real rt_final = it2->getRT();
if (rt_auto_number)
{
rt_final = ++rt_auto;
}
else if (rt_custom)
{
rt_final = custom_rts[i];
}
else if (rt_filename)
{
if (!filename.hasSubstring("rt"))
{
writeLog_(String("Warning: cannot guess retention time from filename as it does not contain 'rt'"));
}
for (Size i = 0; i < filename.size(); ++i)
{
if (filename[i] == 'r' && ++i != filename.size() && filename[i] == 't' && ++i != filename.size() && isdigit(filename[i]))
{
String rt;
while (i != filename.size() && (filename[i] == '.' || isdigit(filename[i])))
{
rt += filename[i++];
}
if (rt.size() > 0)
{
// remove dot from rt3892.98.dta
// ^
if (rt[rt.size() - 1] == '.')
{
// remove last character
rt.erase(rt.end() - 1);
}
}
try
{
float tmp = rt.toFloat();
rt_final = tmp;
}
catch (Exception::ConversionError)
{
writeLog_(String("Warning: cannot convert the found retention time in a value '" + rt + "'."));
}
}
}
}
// none of the rt methods were successful
if (rt_final == -1)
{
writeLog_(String("Warning: No valid retention time for output scan '") + rt_auto + "' from file '" + filename + "'");
}
out.addSpectrum(*it2);
out.getSpectra().back().setRT(rt_final);
out.getSpectra().back().setNativeID(native_id);
if (user_ms_level)
{
out.getSpectra().back().setMSLevel((int)getIntOption_("raw:ms_level"));
}
++native_id;
}
// if we had only one spectrum, we can annotate it directly, for more spectra, we just name the source file leaving the spectra unannotated (to avoid a long and redundant list of sourceFiles)
if (in.size() == 1)
{
out.getSpectra().back().setSourceFile(in.getSourceFiles()[0]);
in.getSourceFiles().clear(); // delete source file annotated from source file (its in the spectrum anyways)
}
// copy experimental settings from first file
if (i == 0)
{
out.ExperimentalSettings::operator=(in);
}
else // otherwise append
{
out.getSourceFiles().insert(out.getSourceFiles().end(), in.getSourceFiles().begin(), in.getSourceFiles().end()); // could be emtpty if spectrum was annotated above, but that's ok then
}
// also add the chromatograms
for (std::vector<MSChromatogram<ChromatogramPeak> >::const_iterator it2 = in.getChromatograms().begin(); it2 != in.getChromatograms().end(); ++it2)
{
all_chromatograms.push_back(*it2);
}
}
// set the chromatograms
out.setChromatograms(all_chromatograms);
//-------------------------------------------------------------
// writing output
//-------------------------------------------------------------
//annotate output with data processing info
addDataProcessing_(out, getProcessingInfo_(DataProcessing::FORMAT_CONVERSION));
MzMLFile f;
f.setLogType(log_type_);
f.store(out_file, out);
}
return EXECUTION_OK;
}
void group(const vector< FeatureMap >&, ConsensusMap& map)
{
map.getFileDescriptions()[0].filename = "bla";
map.getFileDescriptions()[0].size = 5;
}
ExitCodes main_(int, const char **)
{
//load input features
FeatureMap input;
FeatureXMLFile().load(getStringOption_("in"), input);
//load truth consensusXML
ConsensusMap truth;
ConsensusXMLFile().load(getStringOption_("truth"), truth);
//parameters
double mz_tol = getDoubleOption_("mz_tol");
double rt_tol = getDoubleOption_("rt_tol");
//seek manual feature in automatic feature map
UInt matched_pairs = 0;
UInt half_matched_pairs = 0;
vector<double> t_ratio, i_ratio, rt_diffs, mz_diffs;
for (Size t = 0; t < truth.size(); ++t)
{
if (truth[t].size() != 2)
{
cerr << "Error: consensus feature must contain exactly two elements!" << endl;
continue;
}
vector<Feature> best_matches(2);
vector<UInt> match_counts(2, 0);
vector<Peak2D> elements(2);
elements[0] = *(truth[t].getFeatures().begin());
elements[1] = *(++(truth[t].getFeatures().begin()));
double mz_tol_charged = mz_tol / truth[t].getCharge();
for (Size e = 0; e < 2; ++e)
{
double best_score = 0.0;
for (Size i = 0; i < input.size(); ++i)
{
const Feature & f_i = input[i];
if (fabs(f_i.getRT() - elements[e].getRT()) < rt_tol
&& fabs(f_i.getMZ() - elements[e].getMZ()) < mz_tol_charged)
{
++match_counts[e];
double score = (1.0 - fabs(f_i.getMZ() - elements[e].getMZ()) / mz_tol_charged) * (1.0 - fabs(f_i.getRT() - elements[e].getRT()) / rt_tol);
if (score > best_score)
{
best_score = score;
best_matches[e] = f_i;
}
}
}
}
//not matched
if (match_counts[0] == 0 && match_counts[1] == 0)
{
}
//half matched
else if ((match_counts[0] > 0 && match_counts[1] == 0) || (match_counts[0] == 0 && match_counts[1] > 0))
{
++half_matched_pairs;
}
//matched
else
{
++matched_pairs;
double a_r = best_matches[0].getIntensity() / best_matches[1].getIntensity();
t_ratio.push_back(a_r);
double m_r = elements[0].getIntensity() / elements[1].getIntensity();
i_ratio.push_back(m_r);
rt_diffs.push_back(best_matches[1].getRT() - best_matches[0].getRT());
mz_diffs.push_back((best_matches[1].getMZ() - best_matches[0].getMZ()) * truth[t].getCharge());
}
}
cout << endl;
cout << "pair detection statistics:" << endl;
cout << "==========================" << endl;
cout << "truth pairs: " << truth.size() << endl;
cout << "input features: " << input.size() << endl;
cout << endl;
cout << "found: " << matched_pairs << " (" << String::number(100.0 * matched_pairs / truth.size(), 2) << "%)" << endl;
cout << "half found : " << half_matched_pairs << " (" << String::number(100.0 * half_matched_pairs / truth.size(), 2) << "%)" << endl;
cout << "not found : " << truth.size() - (matched_pairs + half_matched_pairs) << " (" << String::number(100.0 - 100.0 * (matched_pairs + half_matched_pairs) / truth.size(), 2) << "%)" << endl;
cout << endl;
cout << "relative pair ratios: " << fiveNumberQuotients(i_ratio, t_ratio, 3) << endl;
cout << "pair distance RT : " << fiveNumbers(rt_diffs, 2) << endl;
cout << "pair distance m/z: " << fiveNumbers(mz_diffs, 2) << endl;
return EXECUTION_OK;
}
features[9].setMZ(6.0f);
features[9].setCharge(1);
features[9].setOverallQuality(1);
START_SECTION((virtual void run(const std::vector<ConsensusMap>& input_maps, ConsensusMap& result_map)))
LabeledPairFinder pm;
Param p;
p.setValue("rt_estimate","false");
p.setValue("rt_pair_dist",0.4);
p.setValue("rt_dev_low",1.0);
p.setValue("rt_dev_high",2.0);
p.setValue("mz_pair_dists",ListUtils::create<double>(4.0));
p.setValue("mz_dev",0.6);
pm.setParameters(p);
ConsensusMap output;
TEST_EXCEPTION(Exception::IllegalArgument,pm.run(vector<ConsensusMap>(),output));
vector<ConsensusMap> input(1);
MapConversion::convert(5,features,input[0]);
output.getColumnHeaders()[5].label = "light";
output.getColumnHeaders()[5].filename = "filename";
output.getColumnHeaders()[8] = output.getColumnHeaders()[5];
output.getColumnHeaders()[8].label = "heavy";
pm.run(input,output);
TEST_EQUAL(output.size(),1);
ABORT_IF(output.size()!=1)
TEST_REAL_SIMILAR(output[0].begin()->getMZ(),1.0f);
TEST_REAL_SIMILAR(output[0].begin()->getRT(),1.0f);
TEST_REAL_SIMILAR(output[0].rbegin()->getMZ(),5.0f);
ExitCodes main_(int, const char**)
{
vector<ProteinIdentification> prot_ids;
vector<PeptideIdentification> pep_ids;
ProteinHit temp_protein_hit;
//-------------------------------------------------------------
// parsing parameters
//-------------------------------------------------------------
String inputfile_id = getStringOption_("id");
String inputfile_feature = getStringOption_("feature");
String inputfile_consensus = getStringOption_("consensus");
String inputfile_raw = getStringOption_("in");
String outputfile_name = getStringOption_("out");
//~ bool Ms1(getFlag_("MS1"));
//~ bool Ms2(getFlag_("MS2"));
bool remove_duplicate_features(getFlag_("remove_duplicate_features"));
//-------------------------------------------------------------
// fetch vocabularies
//------------------------------------------------------------
ControlledVocabulary cv;
cv.loadFromOBO("PSI-MS", File::find("/CV/psi-ms.obo"));
cv.loadFromOBO("QC", File::find("/CV/qc-cv.obo"));
QcMLFile qcmlfile;
//-------------------------------------------------------------
// MS aqiusition
//------------------------------------------------------------
String base_name = QFileInfo(QString::fromStdString(inputfile_raw)).baseName();
cout << "Reading mzML file..." << endl;
MzMLFile mz_data_file;
MSExperiment<Peak1D> exp;
MzMLFile().load(inputfile_raw, exp);
//---prep input
exp.sortSpectra();
UInt min_mz = std::numeric_limits<UInt>::max();
UInt max_mz = 0;
std::map<Size, UInt> mslevelcounts;
qcmlfile.registerRun(base_name,base_name); //TODO use UIDs
//---base MS aquisition qp
String msaq_ref = base_name + "_msaq";
QcMLFile::QualityParameter qp;
qp.id = msaq_ref; ///< Identifier
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000004";
try
{
//~ const ControlledVocabulary::CVTerm& test = cv.getTermByName("MS aquisition result details");
//~ cout << test.name << test.id << endl;
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
//~ const ControlledVocabulary::CVTerm& term = cv.getTerm("0000004");
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "mzML file"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
//---file origin qp
qp = QcMLFile::QualityParameter();
qp.name = "mzML file"; ///< Name
qp.id = base_name + "_run_name"; ///< Identifier
qp.cvRef = "MS"; ///< cv reference
qp.cvAcc = "MS:1000577";
qp.value = base_name;
qcmlfile.addRunQualityParameter(base_name, qp);
qp = QcMLFile::QualityParameter();
qp.name = "instrument model"; ///< Name
qp.id = base_name + "_instrument_name"; ///< Identifier
qp.cvRef = "MS"; ///< cv reference
qp.cvAcc = "MS:1000031";
qp.value = exp.getInstrument().getName();
qcmlfile.addRunQualityParameter(base_name, qp);
qp = QcMLFile::QualityParameter();
qp.name = "completion time"; ///< Name
qp.id = base_name + "_date"; ///< Identifier
qp.cvRef = "MS"; ///< cv reference
qp.cvAcc = "MS:1000747";
qp.value = exp.getDateTime().getDate();
qcmlfile.addRunQualityParameter(base_name, qp);
//---precursors at
QcMLFile::Attachment at;
at.cvRef = "QC"; ///< cv reference
at.cvAcc = "QC:0000044";
at.qualityRef = msaq_ref;
at.id = base_name + "_precursors"; ///< Identifier
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(at.cvAcc);
at.name = term.name; ///< Name
}
catch (...)
{
at.name = "precursors"; ///< Name
}
at.colTypes.push_back("MS:1000894_[sec]"); //RT
at.colTypes.push_back("MS:1000040"); //MZ
for (Size i = 0; i < exp.size(); ++i)
{
mslevelcounts[exp[i].getMSLevel()]++;
if (exp[i].getMSLevel() == 2)
{
if (exp[i].getPrecursors().front().getMZ() < min_mz)
{
min_mz = exp[i].getPrecursors().front().getMZ();
}
if (exp[i].getPrecursors().front().getMZ() > max_mz)
{
max_mz = exp[i].getPrecursors().front().getMZ();
}
std::vector<String> row;
row.push_back(exp[i].getRT());
row.push_back(exp[i].getPrecursors().front().getMZ());
at.tableRows.push_back(row);
}
}
qcmlfile.addRunAttachment(base_name, at);
//---aquisition results qp
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000006"; ///< cv accession for "aquisition results"
qp.id = base_name + "_ms1aquisition"; ///< Identifier
qp.value = String(mslevelcounts[1]);
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "number of ms1 spectra"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000007"; ///< cv accession for "aquisition results"
qp.id = base_name + "_ms2aquisition"; ///< Identifier
qp.value = String(mslevelcounts[2]);
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "number of ms2 spectra"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000008"; ///< cv accession for "aquisition results"
qp.id = base_name + "_Chromaquisition"; ///< Identifier
qp.value = String(exp.getChromatograms().size());
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "number of chromatograms"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
at = QcMLFile::Attachment();
at.cvRef = "QC"; ///< cv reference
at.cvAcc = "QC:0000009";
at.qualityRef = msaq_ref;
at.id = base_name + "_mzrange"; ///< Identifier
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(at.cvAcc);
at.name = term.name; ///< Name
}
catch (...)
{
at.name = "MS MZ aquisition ranges"; ///< Name
}
at.colTypes.push_back("QC:0000010"); //MZ
at.colTypes.push_back("QC:0000011"); //MZ
std::vector<String> rowmz;
rowmz.push_back(String(min_mz));
rowmz.push_back(String(max_mz));
at.tableRows.push_back(rowmz);
qcmlfile.addRunAttachment(base_name, at);
at = QcMLFile::Attachment();
at.cvRef = "QC"; ///< cv reference
at.cvAcc = "QC:0000012";
at.qualityRef = msaq_ref;
at.id = base_name + "_rtrange"; ///< Identifier
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(at.cvAcc);
at.name = term.name; ///< Name
}
catch (...)
{
at.name = "MS RT aquisition ranges"; ///< Name
}
at.colTypes.push_back("QC:0000013"); //MZ
at.colTypes.push_back("QC:0000014"); //MZ
std::vector<String> rowrt;
rowrt.push_back(String(exp.begin()->getRT()));
rowrt.push_back(String(exp.getSpectra().back().getRT()));
at.tableRows.push_back(rowrt);
qcmlfile.addRunAttachment(base_name, at);
//---ion current stability ( & tic ) qp
at = QcMLFile::Attachment();
at.cvRef = "QC"; ///< cv reference
at.cvAcc = "QC:0000022";
at.qualityRef = msaq_ref;
at.id = base_name + "_tics"; ///< Identifier
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(at.cvAcc);
at.name = term.name; ///< Name
}
catch (...)
{
at.name = "MS TICs"; ///< Name
}
at.colTypes.push_back("MS:1000894_[sec]");
at.colTypes.push_back("MS:1000285");
UInt max = 0;
Size below_10k = 0;
for (Size i = 0; i < exp.size(); ++i)
{
if (exp[i].getMSLevel() == 1)
{
UInt sum = 0;
for (Size j = 0; j < exp[i].size(); ++j)
{
sum += exp[i][j].getIntensity();
}
if (sum > max)
{
max = sum;
}
if (sum < 10000)
{
++below_10k;
}
std::vector<String> row;
row.push_back(exp[i].getRT());
row.push_back(sum);
at.tableRows.push_back(row);
}
}
qcmlfile.addRunAttachment(base_name, at);
qp = QcMLFile::QualityParameter();
qp.id = base_name + "_ticslump"; ///< Identifier
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000023";
qp.value = String((100 / exp.size()) * below_10k);
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "percentage of tic slumps"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
//-------------------------------------------------------------
// MS id
//------------------------------------------------------------
if (inputfile_id != "")
{
IdXMLFile().load(inputfile_id, prot_ids, pep_ids);
cerr << "idXML read ended. Found " << pep_ids.size() << " peptide identifications." << endl;
ProteinIdentification::SearchParameters params = prot_ids[0].getSearchParameters();
vector<String> var_mods = params.variable_modifications;
//~ boost::regex re("(?<=[KR])(?=[^P])");
String msid_ref = base_name + "_msid";
QcMLFile::QualityParameter qp;
qp.id = msid_ref; ///< Identifier
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000025";
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "MS identification result details"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
at = QcMLFile::Attachment();
at.cvRef = "QC"; ///< cv reference
at.cvAcc = "QC:0000026";
at.qualityRef = msid_ref;
at.id = base_name + "_idsetting"; ///< Identifier
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(at.cvAcc);
at.name = term.name; ///< Name
}
catch (...)
{
at.name = "MS id settings"; ///< Name
}
at.colTypes.push_back("MS:1001013"); //MS:1001013 db name MS:1001016 version MS:1001020 taxonomy
at.colTypes.push_back("MS:1001016");
at.colTypes.push_back("MS:1001020");
std::vector<String> row;
row.push_back(String(prot_ids.front().getSearchParameters().db));
row.push_back(String(prot_ids.front().getSearchParameters().db_version));
row.push_back(String(prot_ids.front().getSearchParameters().taxonomy));
at.tableRows.push_back(row);
qcmlfile.addRunAttachment(base_name, at);
UInt spectrum_count = 0;
Size peptide_hit_count = 0;
UInt runs_count = 0;
Size protein_hit_count = 0;
set<String> peptides;
set<String> proteins;
Size missedcleavages = 0;
for (Size i = 0; i < pep_ids.size(); ++i)
{
if (!pep_ids[i].empty())
{
++spectrum_count;
peptide_hit_count += pep_ids[i].getHits().size();
const vector<PeptideHit>& temp_hits = pep_ids[i].getHits();
for (Size j = 0; j < temp_hits.size(); ++j)
{
peptides.insert(temp_hits[j].getSequence().toString());
}
}
}
for (set<String>::iterator it = peptides.begin(); it != peptides.end(); ++it)
{
for (String::const_iterator st = it->begin(); st != it->end() - 1; ++st)
{
if (*st == 'K' || *st == 'R')
{
++missedcleavages;
}
}
}
for (Size i = 0; i < prot_ids.size(); ++i)
{
++runs_count;
protein_hit_count += prot_ids[i].getHits().size();
const vector<ProteinHit>& temp_hits = prot_ids[i].getHits();
for (Size j = 0; j < temp_hits.size(); ++j)
{
proteins.insert(temp_hits[j].getAccession());
}
}
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000037"; ///< cv accession
qp.id = base_name + "_misscleave"; ///< Identifier
qp.value = missedcleavages;
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "total number of missed cleavages"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000032"; ///< cv accession
qp.id = base_name + "_totprot"; ///< Identifier
qp.value = protein_hit_count;
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "total number of identified proteins"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000033"; ///< cv accession
qp.id = base_name + "_totuniqprot"; ///< Identifier
qp.value = String(proteins.size());
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "total number of uniquely identified proteins"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000029"; ///< cv accession
qp.id = base_name + "_psms"; ///< Identifier
qp.value = String(spectrum_count);
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "total number of PSM"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000030"; ///< cv accession
qp.id = base_name + "_totpeps"; ///< Identifier
qp.value = String(peptide_hit_count);
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "total number of identified peptides"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000031"; ///< cv accession
qp.id = base_name + "_totuniqpeps"; ///< Identifier
qp.value = String(peptides.size());
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "total number of uniquely identified peptides"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
at = QcMLFile::Attachment();
at.cvRef = "QC"; ///< cv reference
at.cvAcc = "QC:0000038";
at.qualityRef = msid_ref;
at.id = base_name + "_massacc"; ///< Identifier
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(at.cvAcc);
at.name = term.name; ///< Name
}
catch (...)
{
at.name = "delta ppm tables";
}
//~ delta ppm QC:0000039 RT MZ uniqueness ProteinID MS:1000885 target/decoy Score PeptideSequence MS:1000889 Annots string Similarity Charge UO:0000219 TheoreticalWeight UO:0000221 Oxidation_(M)
at.colTypes.push_back("RT");
at.colTypes.push_back("MZ");
at.colTypes.push_back("Score");
at.colTypes.push_back("PeptideSequence");
at.colTypes.push_back("Charge");
at.colTypes.push_back("TheoreticalWeight");
at.colTypes.push_back("delta_ppm");
for (UInt w = 0; w < var_mods.size(); ++w)
{
at.colTypes.push_back(String(var_mods[w]).substitute(' ', '_'));
}
std::vector<double> deltas;
//~ prot_ids[0].getSearchParameters();
for (vector<PeptideIdentification>::iterator it = pep_ids.begin(); it != pep_ids.end(); ++it)
{
if (it->getHits().size() > 0)
{
std::vector<String> row;
row.push_back(it->getRT());
row.push_back(it->getMZ());
PeptideHit tmp = it->getHits().front(); //TODO depends on score & sort
vector<UInt> pep_mods;
for (UInt w = 0; w < var_mods.size(); ++w)
{
pep_mods.push_back(0);
}
for (AASequence::ConstIterator z = tmp.getSequence().begin(); z != tmp.getSequence().end(); ++z)
{
Residue res = *z;
String temp;
if (res.getModification().size() > 0 && res.getModification() != "Carbamidomethyl")
{
temp = res.getModification() + " (" + res.getOneLetterCode() + ")";
//cout<<res.getModification()<<endl;
for (UInt w = 0; w < var_mods.size(); ++w)
{
if (temp == var_mods[w])
{
//cout<<temp;
pep_mods[w] += 1;
}
}
}
}
row.push_back(tmp.getScore());
row.push_back(tmp.getSequence().toString().removeWhitespaces());
row.push_back(tmp.getCharge());
row.push_back(String((tmp.getSequence().getMonoWeight() + tmp.getCharge() * Constants::PROTON_MASS_U) / tmp.getCharge()));
double dppm = /* std::abs */ (getMassDifference(((tmp.getSequence().getMonoWeight() + tmp.getCharge() * Constants::PROTON_MASS_U) / tmp.getCharge()), it->getMZ(), true));
row.push_back(String(dppm));
deltas.push_back(dppm);
for (UInt w = 0; w < var_mods.size(); ++w)
{
row.push_back(pep_mods[w]);
}
at.tableRows.push_back(row);
}
}
qcmlfile.addRunAttachment(base_name, at);
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000040"; ///< cv accession
qp.id = base_name + "_mean_delta"; ///< Identifier
qp.value = String(OpenMS::Math::mean(deltas.begin(), deltas.end()));
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "mean delta ppm"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000041"; ///< cv accession
qp.id = base_name + "_median_delta"; ///< Identifier
qp.value = String(OpenMS::Math::median(deltas.begin(), deltas.end(), false));
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "median delta ppm"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000035"; ///< cv accession
qp.id = base_name + "_ratio_id"; ///< Identifier
qp.value = String(double(pep_ids.size()) / double(mslevelcounts[2]));
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "id ratio"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
}
//-------------------------------------------------------------
// MS quantitation
//------------------------------------------------------------
FeatureMap map;
String msqu_ref = base_name + "_msqu";
if (inputfile_feature != "")
{
FeatureXMLFile f;
f.load(inputfile_feature, map);
cout << "Read featureXML file..." << endl;
//~ UInt fiter = 0;
map.sortByRT();
map.updateRanges();
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000045"; ///< cv accession
qp.id = msqu_ref; ///< Identifier
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "MS quantification result details"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
qp = QcMLFile::QualityParameter();
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:0000046"; ///< cv accession
qp.id = base_name + "_feature_count"; ///< Identifier
qp.value = String(map.size());
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(qp.cvAcc);
qp.name = term.name; ///< Name
}
catch (...)
{
qp.name = "number of features"; ///< Name
}
qcmlfile.addRunQualityParameter(base_name, qp);
}
if (inputfile_feature != "" && !remove_duplicate_features)
{
QcMLFile::Attachment at;
at = QcMLFile::Attachment();
at.cvRef = "QC"; ///< cv reference
at.cvAcc = "QC:0000047";
at.qualityRef = msqu_ref;
at.id = base_name + "_features"; ///< Identifier
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(at.cvAcc);
at.name = term.name; ///< Name
}
catch (...)
{
at.name = "features"; ///< Name
}
at.colTypes.push_back("MZ");
at.colTypes.push_back("RT");
at.colTypes.push_back("Intensity");
at.colTypes.push_back("Charge");
at.colTypes.push_back("Quality");
at.colTypes.push_back("FWHM");
at.colTypes.push_back("IDs");
UInt fiter = 0;
map.sortByRT();
//ofstream out(outputfile_name.c_str());
while (fiter < map.size())
{
std::vector<String> row;
row.push_back(map[fiter].getMZ());
row.push_back(map[fiter].getRT());
row.push_back(map[fiter].getIntensity());
row.push_back(map[fiter].getCharge());
row.push_back(map[fiter].getOverallQuality());
row.push_back(map[fiter].getWidth());
row.push_back(map[fiter].getPeptideIdentifications().size());
fiter++;
at.tableRows.push_back(row);
}
qcmlfile.addRunAttachment(base_name, at);
}
else if (inputfile_feature != "" && remove_duplicate_features)
{
QcMLFile::Attachment at;
at = QcMLFile::Attachment();
at.cvRef = "QC"; ///< cv reference
at.cvAcc = "QC:0000047";
at.qualityRef = msqu_ref;
at.id = base_name + "_features"; ///< Identifier
try
{
const ControlledVocabulary::CVTerm& term = cv.getTerm(at.cvAcc);
at.name = term.name; ///< Name
}
catch (...)
{
at.name = "features"; ///< Name
}
at.colTypes.push_back("MZ");
at.colTypes.push_back("RT");
at.colTypes.push_back("Intensity");
at.colTypes.push_back("Charge");
FeatureMap map, map_out;
FeatureXMLFile f;
f.load(inputfile_feature, map);
UInt fiter = 0;
map.sortByRT();
while (fiter < map.size())
{
FeatureMap map_tmp;
for (UInt k = fiter; k <= map.size(); ++k)
{
if (abs(map[fiter].getRT() - map[k].getRT()) < 0.1)
{
//~ cout << fiter << endl;
map_tmp.push_back(map[k]);
}
else
{
fiter = k;
break;
}
}
map_tmp.sortByMZ();
UInt retif = 1;
map_out.push_back(map_tmp[0]);
while (retif < map_tmp.size())
{
if (abs(map_tmp[retif].getMZ() - map_tmp[retif - 1].getMZ()) > 0.01)
{
cout << "equal RT, but mass different" << endl;
map_out.push_back(map_tmp[retif]);
}
retif++;
}
}
qcmlfile.addRunAttachment(base_name, at);
}
if (inputfile_consensus != "")
{
cout << "Reading consensusXML file..." << endl;
ConsensusXMLFile f;
ConsensusMap map;
f.load(inputfile_consensus, map);
//~ String CONSENSUS_NAME = "_consensus.tsv";
//~ String combined_out = outputfile_name + CONSENSUS_NAME;
//~ ofstream out(combined_out.c_str());
at = QcMLFile::Attachment();
qp.name = "consensuspoints"; ///< Name
//~ qp.id = base_name + "_consensuses"; ///< Identifier
qp.cvRef = "QC"; ///< cv reference
qp.cvAcc = "QC:xxxxxxxx"; ///< cv accession "featuremapper results"
at.colTypes.push_back("Native_spectrum_ID");
at.colTypes.push_back("DECON_RT_(sec)");
at.colTypes.push_back("DECON_MZ_(Th)");
at.colTypes.push_back("DECON_Intensity");
at.colTypes.push_back("Feature_RT_(sec)");
at.colTypes.push_back("Feature_MZ_(Th)");
at.colTypes.push_back("Feature_Intensity");
at.colTypes.push_back("Feature_Charge");
for (ConsensusMap::const_iterator cmit = map.begin(); cmit != map.end(); ++cmit)
{
const ConsensusFeature& CF = *cmit;
for (ConsensusFeature::const_iterator cfit = CF.begin(); cfit != CF.end(); ++cfit)
{
std::vector<String> row;
FeatureHandle FH = *cfit;
row.push_back(CF.getMetaValue("spectrum_native_id"));
row.push_back(CF.getRT()); row.push_back(CF.getMZ());
row.push_back(CF.getIntensity());
row.push_back(FH.getRT());
row.push_back(FH.getMZ());
row.push_back(FH.getCharge());
at.tableRows.push_back(row);
}
}
qcmlfile.addRunAttachment(base_name, at);
}
//-------------------------------------------------------------
// finalize
//------------------------------------------------------------
qcmlfile.store(outputfile_name);
return EXECUTION_OK;
}
