Mercurial > hg > sonic-annotator
view runner/FeatureExtractionManager.cpp @ 11:21a31c779384
* progress tweaks
author | Chris Cannam |
---|---|
date | Fri, 12 Dec 2008 16:12:05 +0000 |
parents | 12f250173bf2 |
children | d20c728c9840 |
line wrap: on
line source
/* -*- c-basic-offset: 4 indent-tabs-mode: nil -*- vi:set ts=8 sts=4 sw=4: */ /* Sonic Annotator A utility for batch feature extraction from audio files. Mark Levy, Chris Sutton and Chris Cannam, Queen Mary, University of London. Copyright 2007-2008 QMUL. This program is free software; you can redistribute it and/or modify it under the terms of the GNU General Public License as published by the Free Software Foundation; either version 2 of the License, or (at your option) any later version. See the file COPYING included with this distribution for more information. */ #include "FeatureExtractionManager.h" #include <vamp-hostsdk/PluginChannelAdapter.h> #include <vamp-hostsdk/PluginBufferingAdapter.h> #include <vamp-hostsdk/PluginInputDomainAdapter.h> #include <vamp-hostsdk/PluginSummarisingAdapter.h> #include <vamp-hostsdk/PluginWrapper.h> #include <vamp-hostsdk/PluginLoader.h> #include <iostream> using namespace std; using Vamp::Plugin; using Vamp::PluginBase; using Vamp::HostExt::PluginLoader; using Vamp::HostExt::PluginChannelAdapter; using Vamp::HostExt::PluginBufferingAdapter; using Vamp::HostExt::PluginInputDomainAdapter; using Vamp::HostExt::PluginSummarisingAdapter; using Vamp::HostExt::PluginWrapper; #include "data/fileio/FileSource.h" #include "data/fileio/AudioFileReader.h" #include "data/fileio/AudioFileReaderFactory.h" #include "data/fileio/PlaylistFileReader.h" #include "base/TempDirectory.h" #include "base/ProgressPrinter.h" #include "transform/TransformFactory.h" #include "rdf/RDFTransformFactory.h" #include "transform/FeatureWriter.h" #include <QTextStream> #include <QFile> #include <QFileInfo> FeatureExtractionManager::FeatureExtractionManager() : m_summariesOnly(false), // We can read using an arbitrary fixed block size -- // PluginBufferingAdapter handles this for us. It's likely to be // quicker to use larger sizes than smallish ones like 1024 m_blockSize(16384), m_defaultSampleRate(0), m_sampleRate(0), m_channels(1) { } FeatureExtractionManager::~FeatureExtractionManager() { for (PluginMap::iterator pi = m_plugins.begin(); pi != m_plugins.end(); ++pi) { delete pi->first; } } void FeatureExtractionManager::setChannels(int channels) { m_channels = channels; } void FeatureExtractionManager::setDefaultSampleRate(int sampleRate) { m_defaultSampleRate = sampleRate; } static PluginSummarisingAdapter::SummaryType getSummaryType(string name) { if (name == "min") return PluginSummarisingAdapter::Minimum; if (name == "max") return PluginSummarisingAdapter::Maximum; if (name == "mean") return PluginSummarisingAdapter::Mean; if (name == "median") return PluginSummarisingAdapter::Median; if (name == "mode") return PluginSummarisingAdapter::Mode; if (name == "sum") return PluginSummarisingAdapter::Sum; if (name == "variance") return PluginSummarisingAdapter::Variance; if (name == "sd") return PluginSummarisingAdapter::StandardDeviation; if (name == "count") return PluginSummarisingAdapter::Count; return PluginSummarisingAdapter::UnknownSummaryType; } bool FeatureExtractionManager::setSummaryTypes(const set<string> &names, bool summariesOnly, const PluginSummarisingAdapter::SegmentBoundaries &boundaries) { for (SummaryNameSet::const_iterator i = names.begin(); i != names.end(); ++i) { if (getSummaryType(*i) == PluginSummarisingAdapter::UnknownSummaryType) { cerr << "ERROR: Unknown summary type \"" << *i << "\"" << endl; return false; } } m_summaries = names; m_summariesOnly = summariesOnly; m_boundaries = boundaries; return true; } bool FeatureExtractionManager::addFeatureExtractor (Transform transform, const vector<FeatureWriter*> &writers) { //!!! exceptions rather than return values? if (transform.getSampleRate() == 0) { if (m_sampleRate == 0) { cerr << "NOTE: Transform does not specify a sample rate, using default rate of " << m_defaultSampleRate << endl; transform.setSampleRate(m_defaultSampleRate); m_sampleRate = m_defaultSampleRate; } else { cerr << "NOTE: Transform does not specify a sample rate, using previous transform's rate of " << m_sampleRate << endl; transform.setSampleRate(m_sampleRate); } } if (m_sampleRate == 0) { m_sampleRate = transform.getSampleRate(); } if (transform.getSampleRate() != m_sampleRate) { cerr << "WARNING: Transform sample rate " << transform.getSampleRate() << " does not match previously specified transform rate of " << m_sampleRate << " -- only a single rate is supported for each run" << endl; cerr << "WARNING: Using previous rate of " << m_sampleRate << " for this transform as well" << endl; transform.setSampleRate(m_sampleRate); } Plugin *plugin = 0; // Remember what the original transform looked like, and index // based on this -- because we may be about to fill in the zeros // for step and block size, but we want any further copies with // the same zeros to match this one Transform originalTransform = transform; if (m_transformPluginMap.find(transform) == m_transformPluginMap.end()) { // Test whether we already have a transform that is identical // to this, except for the output requested and/or the summary // type -- if so, they should share plugin instances (a vital // optimisation) for (TransformPluginMap::iterator i = m_transformPluginMap.begin(); i != m_transformPluginMap.end(); ++i) { Transform test = i->first; test.setOutput(transform.getOutput()); test.setSummaryType(transform.getSummaryType()); if (transform == test) { cerr << "NOTE: Already have transform identical to this one (for \"" << transform.getIdentifier().toStdString() << "\") in every detail except output identifier and/or " << "summary type; sharing its plugin instance" << endl; plugin = i->second; if (transform.getSummaryType() != Transform::NoSummary && !dynamic_cast<PluginSummarisingAdapter *>(plugin)) { plugin = new PluginSummarisingAdapter(plugin); i->second = plugin; } break; } } if (!plugin) { TransformFactory *tf = TransformFactory::getInstance(); PluginBase *pb = tf->instantiatePluginFor(transform); plugin = tf->downcastVampPlugin(pb); if (!plugin) { //!!! todo: handle non-Vamp plugins too, or make the main --list // option print out only Vamp transforms cerr << "ERROR: Failed to load plugin for transform \"" << transform.getIdentifier().toStdString() << "\"" << endl; delete pb; return false; } // We will provide the plugin with arbitrary step and // block sizes (so that we can use the same read/write // block size for all transforms), and to that end we use // a PluginBufferingAdapter. However, we need to know the // underlying step size so that we can provide the right // context for dense outputs. (Although, don't forget // that the PluginBufferingAdapter rewrites // OneSamplePerStep outputs so as to use FixedSampleRate // -- so it supplies the sample rate in the output // feature. I'm not sure whether we can easily use that.) size_t pluginStepSize = plugin->getPreferredStepSize(); size_t pluginBlockSize = plugin->getPreferredBlockSize(); // adapt the plugin for buffering, channels, etc. if (plugin->getInputDomain() == Plugin::FrequencyDomain) { plugin = new PluginInputDomainAdapter(plugin); } PluginBufferingAdapter *pba = new PluginBufferingAdapter(plugin); plugin = pba; if (transform.getStepSize() != 0) { pba->setPluginStepSize(transform.getStepSize()); } else { transform.setStepSize(pluginStepSize); } if (transform.getBlockSize() != 0) { pba->setPluginBlockSize(transform.getBlockSize()); } else { transform.setBlockSize(pluginBlockSize); } plugin = new PluginChannelAdapter(plugin); if (!m_summaries.empty() || transform.getSummaryType() != Transform::NoSummary) { PluginSummarisingAdapter *adapter = new PluginSummarisingAdapter(plugin); adapter->setSummarySegmentBoundaries(m_boundaries); plugin = adapter; } if (!plugin->initialise(m_channels, m_blockSize, m_blockSize)) { cerr << "ERROR: Plugin initialise (channels = " << m_channels << ", stepSize = " << m_blockSize << ", blockSize = " << m_blockSize << ") failed." << endl; delete plugin; return false; } // cerr << "Initialised plugin" << endl; size_t actualStepSize = 0; size_t actualBlockSize = 0; pba->getActualStepAndBlockSizes(actualStepSize, actualBlockSize); transform.setStepSize(actualStepSize); transform.setBlockSize(actualBlockSize); Plugin::OutputList outputs = plugin->getOutputDescriptors(); for (int i = 0; i < (int)outputs.size(); ++i) { // cerr << "Newly initialised plugin output " << i << " has bin count " << outputs[i].binCount << endl; m_pluginOutputs[plugin][outputs[i].identifier] = outputs[i]; m_pluginOutputIndices[outputs[i].identifier] = i; } cerr << "NOTE: Loaded and initialised plugin for transform \"" << transform.getIdentifier().toStdString() << "\"" << endl; } else { if (transform.getStepSize() == 0 || transform.getBlockSize() == 0) { PluginWrapper *pw = dynamic_cast<PluginWrapper *>(plugin); if (pw) { PluginBufferingAdapter *pba = pw->getWrapper<PluginBufferingAdapter>(); if (pba) { size_t actualStepSize = 0; size_t actualBlockSize = 0; pba->getActualStepAndBlockSizes(actualStepSize, actualBlockSize); if (transform.getStepSize() == 0) { transform.setStepSize(actualStepSize); } if (transform.getBlockSize() == 0) { transform.setBlockSize(actualBlockSize); } } } } } if (transform.getOutput() == "") { transform.setOutput (plugin->getOutputDescriptors()[0].identifier.c_str()); } m_transformPluginMap[transform] = plugin; if (!(originalTransform == transform)) { m_transformPluginMap[originalTransform] = plugin; } } else { plugin = m_transformPluginMap[transform]; } m_plugins[plugin][transform] = writers; return true; } bool FeatureExtractionManager::addDefaultFeatureExtractor (TransformId transformId, const vector<FeatureWriter*> &writers) { TransformFactory *tf = TransformFactory::getInstance(); if (m_sampleRate == 0) { if (m_defaultSampleRate == 0) { cerr << "ERROR: Default transform requested, but no default sample rate available" << endl; return false; } else { cerr << "NOTE: Using default sample rate of " << m_defaultSampleRate << " for default transform" << endl; m_sampleRate = m_defaultSampleRate; } } Transform transform = tf->getDefaultTransformFor(transformId, m_sampleRate); return addFeatureExtractor(transform, writers); } bool FeatureExtractionManager::addFeatureExtractorFromFile (QString transformXmlFile, const vector<FeatureWriter*> &writers) { RDFTransformFactory factory (QUrl::fromLocalFile(QFileInfo(transformXmlFile).absoluteFilePath()) .toString()); ProgressPrinter printer("Parsing transforms RDF file"); std::vector<Transform> transforms = factory.getTransforms(&printer); if (!factory.isOK()) { cerr << "WARNING: FeatureExtractionManager::addFeatureExtractorFromFile: Failed to parse transforms file: " << factory.getErrorString().toStdString() << endl; if (factory.isRDF()) { return false; // no point trying it as XML } } if (!transforms.empty()) { bool success = true; for (int i = 0; i < (int)transforms.size(); ++i) { if (!addFeatureExtractor(transforms[i], writers)) { success = false; } } return success; } QFile file(transformXmlFile); if (!file.open(QIODevice::ReadOnly | QIODevice::Text)) { cerr << "ERROR: Failed to open transform XML file \"" << transformXmlFile.toStdString() << "\" for reading" << endl; return false; } QTextStream *qts = new QTextStream(&file); QString qs = qts->readAll(); delete qts; file.close(); Transform transform(qs); return addFeatureExtractor(transform, writers); } void FeatureExtractionManager::extractFeatures(QString audioSource) { if (m_plugins.empty()) return; ProgressPrinter retrievalProgress("Retrieving audio data..."); FileSource source(audioSource, &retrievalProgress); if (!source.isAvailable()) { cerr << "ERROR: File or URL \"" << audioSource.toStdString() << "\" could not be located" << endl; exit(1); } source.waitForData(); if (QFileInfo(audioSource).suffix().toLower() == "m3u") { PlaylistFileReader reader(source); if (reader.isOK()) { vector<QString> files = reader.load(); for (int i = 0; i < (int)files.size(); ++i) { extractFeatures(files[i]); } return; } else { cerr << "ERROR: Playlist \"" << audioSource.toStdString() << "\" could not be opened" << endl; exit(1); } } if (m_sampleRate == 0) { cerr << "ERROR: Internal error in FeatureExtractionManager::extractFeatures: Plugin list is non-empty, but no sample rate set" << endl; exit(1); } AudioFileReader *reader = AudioFileReaderFactory::createReader(source, m_sampleRate, &retrievalProgress); if (!reader) { cerr << "ERROR: File or URL \"" << audioSource.toStdString() << "\" could not be opened" << endl; exit(1); } size_t channels = reader->getChannelCount(); retrievalProgress.done(); cerr << "Opened " << channels << "-channel file or URL \"" << audioSource.toStdString() << "\"" << endl; // reject file if it has too few channels, plugin will handle if it has too many if ((int)channels < m_channels) { //!!! should not be terminating here! cerr << "ERROR: File or URL \"" << audioSource.toStdString() << "\" has less than " << m_channels << " channels" << endl; exit(1); } // allocate audio buffers float **data = new float *[m_channels]; for (int c = 0; c < m_channels; ++c) { data[c] = new float[m_blockSize]; } size_t frameCount = reader->getFrameCount(); // cerr << "file has " << frameCount << " frames" << endl; for (PluginMap::iterator pi = m_plugins.begin(); pi != m_plugins.end(); ++pi) { Plugin *plugin = pi->first; // std::cerr << "Calling reset on " << plugin << std::endl; plugin->reset(); for (TransformWriterMap::iterator ti = pi->second.begin(); ti != pi->second.end(); ++ti) { const Transform &transform = ti->first; //!!! we may want to set the start and duration times for extraction // in the transform record (defaults of zero indicate extraction // from the whole file) // transform.setStartTime(RealTime::zeroTime); // transform.setDuration // (RealTime::frame2RealTime(reader->getFrameCount(), m_sampleRate)); string outputId = transform.getOutput().toStdString(); if (m_pluginOutputs[plugin].find(outputId) == m_pluginOutputs[plugin].end()) { //!!! throw? cerr << "WARNING: Nonexistent plugin output \"" << outputId << "\" requested for transform \"" << transform.getIdentifier().toStdString() << "\", ignoring this transform" << endl; /* cerr << "Known outputs for all plugins are as follows:" << endl; for (PluginOutputMap::const_iterator k = m_pluginOutputs.begin(); k != m_pluginOutputs.end(); ++k) { cerr << "Plugin " << k->first << ": "; if (k->second.empty()) { cerr << "(none)"; } for (OutputMap::const_iterator i = k->second.begin(); i != k->second.end(); ++i) { cerr << "\"" << i->first << "\" "; } cerr << endl; } */ } } } long startFrame = 0; long endFrame = frameCount; /*!!! No -- there is no single transform to pull this stuff from -- * the transforms may have various start and end times, need to be far * cleverer about this if we're going to support them RealTime trStartRT = transform.getStartTime(); RealTime trDurationRT = transform.getDuration(); long trStart = RealTime::realTime2Frame(trStartRT, m_sampleRate); long trDuration = RealTime::realTime2Frame(trDurationRT, m_sampleRate); if (trStart == 0 || trStart < startFrame) { trStart = startFrame; } if (trDuration == 0) { trDuration = endFrame - trStart; } if (trStart + trDuration > endFrame) { trDuration = endFrame - trStart; } startFrame = trStart; endFrame = trStart + trDuration; */ for (PluginMap::iterator pi = m_plugins.begin(); pi != m_plugins.end(); ++pi) { for (TransformWriterMap::const_iterator ti = pi->second.begin(); ti != pi->second.end(); ++ti) { const vector<FeatureWriter *> &writers = ti->second; for (int j = 0; j < (int)writers.size(); ++j) { FeatureWriter::TrackMetadata m; m.title = reader->getTitle(); m.maker = reader->getMaker(); writers[j]->setTrackMetadata(audioSource, m); } } } ProgressPrinter extractionProgress("Extracting and writing features..."); int progress = 0; for (long i = startFrame; i < endFrame; i += m_blockSize) { //!!! inefficient, although much of the inefficiency may be // susceptible to optimisation SampleBlock frames; reader->getInterleavedFrames(i, m_blockSize, frames); // We have to do our own channel handling here; we can't just // leave it to the plugin adapter because the same plugin // adapter may have to serve for input files with various // numbers of channels (so the adapter is simply configured // with a fixed channel count, generally 1). int rc = reader->getChannelCount(); for (int j = 0; j < m_blockSize; ++j) { for (int c = 0; c < m_channels; ++c) { int index; if (c < rc) { index = j * rc + c; data[c][j] = 0.f; } else { index = j * rc + (c % rc); } if (index < (int)frames.size()) { data[c][j] += frames[index]; } } } Vamp::RealTime timestamp = Vamp::RealTime::frame2RealTime (i, m_sampleRate); for (PluginMap::iterator pi = m_plugins.begin(); pi != m_plugins.end(); ++pi) { Plugin *plugin = pi->first; Plugin::FeatureSet featureSet = plugin->process(data, timestamp); if (!m_summariesOnly) { writeFeatures(audioSource, plugin, featureSet); } } int pp = progress; progress = int(((i - startFrame) * 100.0) / (endFrame - startFrame) + 0.1); if (progress > pp) extractionProgress.setProgress(progress); } delete reader; for (PluginMap::iterator pi = m_plugins.begin(); pi != m_plugins.end(); ++pi) { Plugin *plugin = pi->first; Plugin::FeatureSet featureSet = plugin->getRemainingFeatures(); if (!m_summariesOnly) { writeFeatures(audioSource, plugin, featureSet); } if (!m_summaries.empty()) { PluginSummarisingAdapter *adapter = dynamic_cast<PluginSummarisingAdapter *>(plugin); if (!adapter) { cerr << "WARNING: Summaries requested, but plugin is not a summarising adapter" << endl; } else { for (SummaryNameSet::const_iterator sni = m_summaries.begin(); sni != m_summaries.end(); ++sni) { featureSet.clear(); //!!! problem here -- we are requesting summaries //!!! for all outputs, but they in principle have //!!! different averaging requirements depending //!!! on whether their features have duration or //!!! not featureSet = adapter->getSummaryForAllOutputs (getSummaryType(*sni), PluginSummarisingAdapter::ContinuousTimeAverage); writeFeatures(audioSource, plugin, featureSet,//!!! *sni); Transform::stringToSummaryType(sni->c_str())); } } } writeSummaries(audioSource, plugin); } extractionProgress.done(); finish(); TempDirectory::getInstance()->cleanup(); } void FeatureExtractionManager::writeSummaries(QString audioSource, Plugin *plugin) { // caller should have ensured plugin is in m_plugins PluginMap::iterator pi = m_plugins.find(plugin); for (TransformWriterMap::const_iterator ti = pi->second.begin(); ti != pi->second.end(); ++ti) { const Transform &transform = ti->first; const vector<FeatureWriter *> &writers = ti->second; Transform::SummaryType summaryType = transform.getSummaryType(); PluginSummarisingAdapter::SummaryType pType = (PluginSummarisingAdapter::SummaryType)summaryType; if (transform.getSummaryType() == Transform::NoSummary) { continue; } PluginSummarisingAdapter *adapter = dynamic_cast<PluginSummarisingAdapter *>(plugin); if (!adapter) { cerr << "FeatureExtractionManager::writeSummaries: INTERNAL ERROR: Summary requested for transform, but plugin is not a summarising adapter" << endl; continue; } Plugin::FeatureSet featureSet = adapter->getSummaryForAllOutputs (pType, PluginSummarisingAdapter::ContinuousTimeAverage); // cout << "summary type " << int(pType) << " for transform:" << endl << transform.toXmlString().toStdString()<< endl << "... feature set with " << featureSet.size() << " elts" << endl; writeFeatures(audioSource, plugin, featureSet, summaryType); } } void FeatureExtractionManager::writeFeatures(QString audioSource, Plugin *plugin, const Plugin::FeatureSet &features, Transform::SummaryType summaryType) { // caller should have ensured plugin is in m_plugins PluginMap::iterator pi = m_plugins.find(plugin); for (TransformWriterMap::const_iterator ti = pi->second.begin(); ti != pi->second.end(); ++ti) { const Transform &transform = ti->first; const vector<FeatureWriter *> &writers = ti->second; if (transform.getSummaryType() != Transform::NoSummary && m_summaries.empty() && summaryType == Transform::NoSummary) { continue; } if (transform.getSummaryType() != Transform::NoSummary && summaryType != Transform::NoSummary && transform.getSummaryType() != summaryType) { continue; } string outputId = transform.getOutput().toStdString(); if (m_pluginOutputs[plugin].find(outputId) == m_pluginOutputs[plugin].end()) { continue; } const Plugin::OutputDescriptor &desc = m_pluginOutputs[plugin][outputId]; int outputIndex = m_pluginOutputIndices[outputId]; Plugin::FeatureSet::const_iterator fsi = features.find(outputIndex); if (fsi == features.end()) continue; for (int j = 0; j < (int)writers.size(); ++j) { writers[j]->write (audioSource, transform, desc, fsi->second, Transform::summaryTypeToString(summaryType).toStdString()); } } } void FeatureExtractionManager::finish() { for (PluginMap::iterator pi = m_plugins.begin(); pi != m_plugins.end(); ++pi) { for (TransformWriterMap::iterator ti = pi->second.begin(); ti != pi->second.end(); ++ti) { vector<FeatureWriter *> &writers = ti->second; for (int i = 0; i < (int)writers.size(); ++i) { writers[i]->flush(); writers[i]->finish(); } } } } void FeatureExtractionManager::print(Transform transform) const { QString qs; QTextStream qts(&qs); transform.toXml(qts); cerr << qs.toStdString() << endl; }