#include <MVATrainer.h>
Classes | |
struct | CalibratedProcessor |
Public Member Functions | |
TrainerMonitoring::Module * | bookMonitor (const std::string &name) |
void | doneTraining (Calibration::MVAComputer *trainCalibration) const |
Calibration::MVAComputer * | getCalibration () const |
const std::string & | getName () const |
Calibration::MVAComputer * | getTrainCalibration () const |
void | loadState () |
MVATrainer (const std::string &fileName, bool useXSLT=false, const char *styleSheet=0) | |
void | saveState () |
void | setAutoSave (bool autoSave) |
void | setCleanup (bool cleanup) |
void | setCrossValidation (double split) |
void | setMonitoring (bool monitoring) |
void | setRandomSeed (UInt_t seed) |
std::string | trainFileName (const TrainProcessor *proc, const std::string &ext, const std::string &arg="") const |
~MVATrainer () | |
Static Public Attributes | |
static const AtomicId | kTargetId |
static const AtomicId | kWeightId |
Private Member Functions | |
void | connectProcessors (Calibration::MVAComputer *calib, const std::vector< CalibratedProcessor > &procs, bool withTarget) const |
SourceVariable * | createVariable (Source *source, AtomicId name, Variable::Flags flags) |
void | fillInputVars (SourceVariableSet &vars, XERCES_CPP_NAMESPACE_QUALIFIER DOMElement *xml) |
void | fillOutputVars (SourceVariableSet &vars, Source *source, XERCES_CPP_NAMESPACE_QUALIFIER DOMElement *xml) |
std::vector< AtomicId > | findFinalProcessors () const |
void | findUntrainedComputers (std::vector< AtomicId > &compute, std::vector< AtomicId > &train) const |
SourceVariable * | getVariable (AtomicId source, AtomicId name) const |
void | makeProcessor (XERCES_CPP_NAMESPACE_QUALIFIER DOMElement *elem, AtomicId id, const char *name) |
Calibration::MVAComputer * | makeTrainCalibration (const AtomicId *compute, const AtomicId *train) const |
Private Attributes | |
double | crossValidation |
bool | doAutoSave |
bool | doCleanup |
bool | doMonitoring |
Source * | input |
std::auto_ptr< TrainerMonitoring > | monitoring |
std::string | name |
TrainProcessor * | output |
std::vector< AtomicId > | processors |
UInt_t | randomSeed |
std::map< AtomicId, Source * > | sources |
std::string | trainFileMask |
std::vector< SourceVariable * > | variables |
std::auto_ptr< XMLDocument > | xml |
Definition at line 27 of file MVATrainer.h.
PhysicsTools::MVATrainer::MVATrainer | ( | const std::string & | fileName, |
bool | useXSLT = false , |
||
const char * | styleSheet = 0 |
||
) |
Definition at line 422 of file MVATrainer.cc.
References createVariable(), python::HTMLExport::elem(), PhysicsTools::escape(), Exception, fillInputVars(), fillOutputVars(), PhysicsTools::Variable::FLAG_NONE, PhysicsTools::Variable::FLAG_OPTIONAL, edm::FileInPath::fullPath(), PhysicsTools::Source::getInputs(), input, PhysicsTools::SourceVariableSet::kTarget, kTargetId, PhysicsTools::SourceVariableSet::kWeight, kWeightId, makeProcessor(), name, python::Node::node, output, popcon_last_value_cfg::Source, sources, trainFileMask, xml, and zero.
: input(0), output(0), name("MVATrainer"), doAutoSave(true), doCleanup(false), doMonitoring(false), randomSeed(65539), crossValidation(0.0) { if (useXSLT) { std::string sheet; if (!styleSheet) sheet = edm::FileInPath( "PhysicsTools/MVATrainer/data/MVATrainer.xsl") .fullPath(); else sheet = styleSheet; std::string preproc = "xsltproc --xinclude " + escape(sheet) + " " + escape(fileName); xml.reset(new XMLDocument(fileName, preproc)); } else xml.reset(new XMLDocument(fileName)); DOMNode *node = xml->getRootNode(); if (std::strcmp(XMLSimpleStr(node->getNodeName()), "MVATrainer") != 0) throw cms::Exception("MVATrainer") << "Invalid XML root node." << std::endl; enum State { STATE_GENERAL, STATE_FIRST, STATE_MIDDLE, STATE_LAST } state = STATE_GENERAL; for(node = node->getFirstChild(); node; node = node->getNextSibling()) { if (node->getNodeType() != DOMNode::ELEMENT_NODE) continue; std::string name = XMLSimpleStr(node->getNodeName()); DOMElement *elem = static_cast<DOMElement*>(node); switch(state) { case STATE_GENERAL: { if (name != "general") throw cms::Exception("MVATrainer") << "Expected general config as first " "tag." << std::endl; for(DOMNode *subNode = elem->getFirstChild(); subNode; subNode = subNode->getNextSibling()) { if (subNode->getNodeType() != DOMNode::ELEMENT_NODE) continue; if (std::strcmp(XMLSimpleStr( subNode->getNodeName()), "option") != 0) throw cms::Exception("MVATrainer") << "Expected option tag." << std::endl; elem = static_cast<DOMElement*>(subNode); name = XMLDocument::readAttribute<std::string>( elem, "name"); std::string content = XMLSimpleStr( elem->getTextContent()); if (name == "id") this->name = content; else if (name == "trainfiles") trainFileMask = content; else throw cms::Exception("MVATrainer") << "Unknown option \"" << name << "\"." << std::endl; } state = STATE_FIRST; } break; case STATE_FIRST: { if (name != "input") throw cms::Exception("MVATrainer") << "Expected input config as second " "tag." << std::endl; AtomicId id = XMLDocument::readAttribute<std::string>( elem, "id"); input = new Source(id, true); input->getOutputs().append( createVariable(input, kTargetId, Variable::FLAG_NONE), SourceVariableSet::kTarget); input->getOutputs().append( createVariable(input, kWeightId, Variable::FLAG_OPTIONAL), SourceVariableSet::kWeight); sources.insert(std::make_pair(id, input)); fillOutputVars(input->getOutputs(), input, elem); state = STATE_MIDDLE; } break; case STATE_MIDDLE: { if (name == "output") { AtomicId zero; output = new TrainProcessor("output", &zero, this); fillInputVars(output->getInputs(), elem); state = STATE_LAST; continue; } else if (name != "processor") throw cms::Exception("MVATrainer") << "Unexpected tag after input " "config." << std::endl; AtomicId id = XMLDocument::readAttribute<std::string>( elem, "id"); std::string name = XMLDocument::readAttribute<std::string>( elem, "name"); makeProcessor(elem, id, name.c_str()); } break; case STATE_LAST: throw cms::Exception("MVATrainer") << "Unexpected tag found after output." << std::endl; break; } } if (state == STATE_FIRST) throw cms::Exception("MVATrainer") << "Expected input variable config." << std::endl; else if (state == STATE_MIDDLE) throw cms::Exception("MVATrainer") << "Expected output variable config." << std::endl; if (trainFileMask.empty()) trainFileMask = this->name + "_%s%s.%s"; }
PhysicsTools::MVATrainer::~MVATrainer | ( | ) |
Definition at line 563 of file MVATrainer.cc.
References PhysicsTools::TrainProcessor::cleanup(), doCleanup, monitoring, output, proc, sources, and variables.
{ if (monitoring.get()) monitoring->write(); for(std::map<AtomicId, Source*>::const_iterator iter = sources.begin(); iter != sources.end(); iter++) { TrainProcessor *proc = dynamic_cast<TrainProcessor*>(iter->second); if (proc && doCleanup) proc->cleanup(); delete iter->second; } delete output; std::for_each(variables.begin(), variables.end(), deleter<SourceVariable>()); }
TrainerMonitoring::Module * PhysicsTools::MVATrainer::bookMonitor | ( | const std::string & | name | ) |
Definition at line 710 of file MVATrainer.cc.
References doMonitoring, convertXMLtoSQLite_cfg::fileName, monitoring, PhysicsTools::stdStringPrintf(), and trainFileMask.
Referenced by PhysicsTools::TrainProcessor::doTrainBegin().
{ if (!doMonitoring) return 0; if (!monitoring.get()) { std::string fileName = stdStringPrintf(trainFileMask.c_str(), "monitoring", "", "root"); monitoring.reset(new TrainerMonitoring(fileName)); } return monitoring->book(name); }
void PhysicsTools::MVATrainer::connectProcessors | ( | Calibration::MVAComputer * | calib, |
const std::vector< CalibratedProcessor > & | procs, | ||
bool | withTarget | ||
) | const [private] |
Definition at line 885 of file MVATrainer.cc.
References PhysicsTools::Calibration::MVAComputer::addProcessor(), calib, lhef::cc::convert(), Exception, PhysicsTools::SourceVariableSet::get(), PhysicsTools::Variable::getFlags(), PhysicsTools::Source::getInputs(), PhysicsTools::Variable::getName(), PhysicsTools::Source::getOutputs(), i, input, PhysicsTools::Calibration::MVAComputer::inputSet, prof2calltree::last, Association::map, PhysicsTools::Calibration::Variable::name, output, PhysicsTools::Calibration::MVAComputer::output, findQualityFiles::size, PhysicsTools::SourceVariableSet::size(), and variables.
Referenced by getCalibration(), and makeTrainCalibration().
{ std::map<SourceVariable*, unsigned int> vars; unsigned int size = 0; MVATrainerComputer *trainCalib = dynamic_cast<MVATrainerComputer*>(calib); for(unsigned int i = 0; i < input->getOutputs().size(true); i++) { if (i < 2 && !withTarget) continue; SourceVariable *var = variables[i]; vars[var] = size++; Calibration::Variable calibVar; calibVar.name = (const char*)var->getName(); calib->inputSet.push_back(calibVar); if (trainCalib) trainCalib->addFlag(var->getFlags()); } for(std::vector<CalibratedProcessor>::const_iterator iter = procs.begin(); iter != procs.end(); iter++) { bool isInterceptor = dynamic_cast<BaseInterceptor*>( iter->calib) != 0; BitSet inputSet(size); unsigned int last = 0; std::vector<SourceVariable*> inoutVars; if (iter->processor) inoutVars = iter->processor->getInputs().get( isInterceptor); for(std::vector<SourceVariable*>::const_iterator iter2 = inoutVars.begin(); iter2 != inoutVars.end(); iter2++) { std::map<SourceVariable*, unsigned int>::const_iterator pos = vars.find(*iter2); assert(pos != vars.end()); if (pos->second < last) throw cms::Exception("MVATrainer") << "Input variables not declared " "in order of appearance in \"" << (const char*)iter->processor->getName() << "\"." << std::endl; inputSet[last = pos->second] = true; } assert(!isInterceptor || withTarget); iter->calib->inputVars = Calibration::convert(inputSet); calib->output = size; if (isInterceptor) { size++; continue; } calib->addProcessor(iter->calib); inoutVars = iter->processor->getOutputs().get(); for(std::vector<SourceVariable*>::const_iterator iter = inoutVars.begin(); iter != inoutVars.end(); iter++) { vars[*iter] = size++; } } if (output->getInputs().size() != 1) throw cms::Exception("MVATrainer") << "Exactly one output variable has to be specified." << std::endl; SourceVariable *outVar = output->getInputs().get()[0]; std::map<SourceVariable*, unsigned int>::const_iterator pos = vars.find(outVar); if (pos != vars.end()) calib->output = pos->second; }
SourceVariable * PhysicsTools::MVATrainer::createVariable | ( | Source * | source, |
AtomicId | name, | ||
Variable::Flags | flags | ||
) | [private] |
Definition at line 734 of file MVATrainer.cc.
References PhysicsTools::Source::getName(), getVariable(), name, and variables.
Referenced by fillOutputVars(), and MVATrainer().
void PhysicsTools::MVATrainer::doneTraining | ( | Calibration::MVAComputer * | trainCalibration | ) | const |
Definition at line 1102 of file MVATrainer.cc.
References calib, and Exception.
{ MVATrainerComputer *calib = dynamic_cast<MVATrainerComputer*>(trainCalibration); if (!calib) throw cms::Exception("MVATrainer") << "Invalid training calibration passed to " "doneTraining()" << std::endl; calib->done(); }
void PhysicsTools::MVATrainer::fillInputVars | ( | SourceVariableSet & | vars, |
XERCES_CPP_NAMESPACE_QUALIFIER DOMElement * | xml | ||
) | [private] |
Definition at line 746 of file MVATrainer.cc.
References PhysicsTools::SourceVariableSet::append(), python::HTMLExport::elem(), Exception, spr::find(), PhysicsTools::Source::getOutput(), getVariable(), input, PhysicsTools::SourceVariableSet::kRegular, PhysicsTools::SourceVariableSet::kTarget, kTargetId, PhysicsTools::SourceVariableSet::kWeight, kWeightId, n, name, python::Node::node, LaserTracksInput_cfi::source, filterCSVwithJSON::target, tmp, and variables.
Referenced by makeProcessor(), and MVATrainer().
{ std::vector<SourceVariable*> tmp; SourceVariable *target = 0; SourceVariable *weight = 0; for(DOMNode *node = xml->getFirstChild(); node; node = node->getNextSibling()) { if (node->getNodeType() != DOMNode::ELEMENT_NODE) continue; if (std::strcmp(XMLSimpleStr(node->getNodeName()), "var") != 0) throw cms::Exception("MVATrainer") << "Invalid input variable node." << std::endl; DOMElement *elem = static_cast<DOMElement*>(node); AtomicId source = XMLDocument::readAttribute<std::string>( elem, "source"); AtomicId name = XMLDocument::readAttribute<std::string>( elem, "name"); SourceVariable *var = getVariable(source, name); if (!var) throw cms::Exception("MVATrainer") << "Input variable " << (const char*)source << ":" << (const char*)name << " not found." << std::endl; if (XMLDocument::readAttribute<bool>(elem, "target", false)) { if (target) throw cms::Exception("MVATrainer") << "Target variable defined twice" << std::endl; target = var; } if (XMLDocument::readAttribute<bool>(elem, "weight", false)) { if (weight) throw cms::Exception("MVATrainer") << "Weight variable defined twice" << std::endl; weight = var; } tmp.push_back(var); } if (!weight) { weight = input->getOutput(kWeightId); assert(weight); tmp.insert(tmp.begin() + (target == input->getOutput(kTargetId)), 1, weight); } if (!target) { target = input->getOutput(kTargetId); assert(target); tmp.insert(tmp.begin(), 1, target); } unsigned int n = 0; for(std::vector<SourceVariable*>::const_iterator iter = variables.begin(); iter != variables.end(); iter++) { std::vector<SourceVariable*>::const_iterator pos = std::find(tmp.begin(), tmp.end(), *iter); if (pos == tmp.end()) continue; SourceVariableSet::Magic magic; if (*iter == target) magic = SourceVariableSet::kTarget; else if (*iter == weight) magic = SourceVariableSet::kWeight; else magic = SourceVariableSet::kRegular; if (vars.append(*iter, magic, pos - tmp.begin())) { AtomicId source = (*iter)->getSource()->getName(); AtomicId name = (*iter)->getName(); throw cms::Exception("MVATrainer") << "Input variable " << (const char*)source << ":" << (const char*)name << " defined twice." << std::endl; } n++; } assert(tmp.size() == n); }
void PhysicsTools::MVATrainer::fillOutputVars | ( | SourceVariableSet & | vars, |
Source * | source, | ||
XERCES_CPP_NAMESPACE_QUALIFIER DOMElement * | xml | ||
) | [private] |
Definition at line 838 of file MVATrainer.cc.
References PhysicsTools::SourceVariableSet::append(), createVariable(), python::HTMLExport::elem(), Exception, PhysicsTools::Variable::FLAG_MULTIPLE, PhysicsTools::Variable::FLAG_NONE, PhysicsTools::Variable::FLAG_OPTIONAL, PhysicsTools::Source::getName(), PhysicsTools::isMagic(), name, and python::Node::node.
Referenced by makeProcessor(), and MVATrainer().
{ for(DOMNode *node = xml->getFirstChild(); node; node = node->getNextSibling()) { if (node->getNodeType() != DOMNode::ELEMENT_NODE) continue; if (std::strcmp(XMLSimpleStr(node->getNodeName()), "var") != 0) throw cms::Exception("MVATrainer") << "Invalid output variable node." << std::endl; DOMElement *elem = static_cast<DOMElement*>(node); AtomicId name = XMLDocument::readAttribute<std::string>( elem, "name"); if (!name) throw cms::Exception("MVATrainer") << "Output variable tag missing name." << std::endl; if (isMagic(name)) throw cms::Exception("MVATrainer") << "Cannot use magic variable names in output." << std::endl; Variable::Flags flags = Variable::FLAG_NONE; if (XMLDocument::readAttribute<bool>(elem, "optional", true)) flags = (PhysicsTools::Variable::Flags) (flags | Variable::FLAG_OPTIONAL); if (XMLDocument::readAttribute<bool>(elem, "multiple", true)) flags = (PhysicsTools::Variable::Flags) (flags | Variable::FLAG_MULTIPLE); SourceVariable *var = createVariable(source, name, flags); if (!var || vars.append(var)) throw cms::Exception("MVATrainer") << "Output variable " << (const char*)source->getName() << ":" << (const char*)name << " defined twice." << std::endl; } }
std::vector< AtomicId > PhysicsTools::MVATrainer::findFinalProcessors | ( | ) | const [private] |
Definition at line 1115 of file MVATrainer.cc.
References generateEDF::done, PhysicsTools::SourceVariableSet::get(), PhysicsTools::Source::inputs, output, query::result, LaserTracksInput_cfi::source, and sources.
Referenced by getCalibration().
{ std::set<Source*> toCheck; toCheck.insert(output); std::set<Source*> done; while(!toCheck.empty()) { Source *source = *toCheck.begin(); toCheck.erase(toCheck.begin()); std::vector<SourceVariable*> inputs = source->inputs.get(); for(std::vector<SourceVariable*>::const_iterator iter = inputs.begin(); iter != inputs.end(); ++iter) { source = (*iter)->getSource(); if (done.insert(source).second) toCheck.insert(source); } } std::vector<AtomicId> result; for(std::vector<AtomicId>::const_iterator iter = processors.begin(); iter != processors.end(); ++iter) { std::map<AtomicId, Source*>::const_iterator pos = sources.find(*iter); if (pos != sources.end() && done.count(pos->second)) result.push_back(*iter); } return result; }
void PhysicsTools::MVATrainer::findUntrainedComputers | ( | std::vector< AtomicId > & | compute, |
std::vector< AtomicId > & | train | ||
) | const [private] |
Definition at line 1195 of file MVATrainer.cc.
References doMonitoring, PhysicsTools::SourceVariableSet::get(), PhysicsTools::Source::getInputs(), input, PhysicsTools::Source::isTrained(), PhysicsTools::kOutputId, output, proc, and sources.
Referenced by getTrainCalibration().
{ compute.clear(); train.clear(); std::set<Source*> trainedSources; trainedSources.insert(input); for(std::vector<AtomicId>::const_iterator iter = processors.begin(); iter != processors.end(); iter++) { std::map<AtomicId, Source*>::const_iterator pos = sources.find(*iter); assert(pos != sources.end()); TrainProcessor *proc = dynamic_cast<TrainProcessor*>(pos->second); assert(proc); bool trainedDeps = true; std::vector<SourceVariable*> inputVars = proc->getInputs().get(); for(std::vector<SourceVariable*>::const_iterator iter2 = inputVars.begin(); iter2 != inputVars.end(); iter2++) { if (trainedSources.find((*iter2)->getSource()) == trainedSources.end()) { trainedDeps = false; break; } } if (!trainedDeps) continue; if (proc->isTrained()) { trainedSources.insert(proc); compute.push_back(proc->getName()); } else train.push_back(proc->getName()); } if (doMonitoring && !output->isTrained() && trainedSources.find(output->getInputs().get()[0]->getSource()) != trainedSources.end()) train.push_back(kOutputId); }
Calibration::MVAComputer * PhysicsTools::MVATrainer::getCalibration | ( | ) | const |
Definition at line 1146 of file MVATrainer.cc.
References begin, calib, connectProcessors(), end, spr::find(), findFinalProcessors(), foreach, PhysicsTools::TrainProcessor::getCalibration(), proc, processors, LaserTracksInput_cfi::source, and sources.
Referenced by PhysicsTools::MVATrainerContainerLooperImpl< Record_t >::produce(), and PhysicsTools::TreeTrainer::train().
{ std::vector<CalibratedProcessor> processors; std::auto_ptr<Calibration::MVAComputer> calib( new Calibration::MVAComputer); std::vector<AtomicId> used = findFinalProcessors(); for(std::vector<AtomicId>::const_iterator iter = used.begin(); iter != used.end(); iter++) { std::map<AtomicId, Source*>::const_iterator pos = sources.find(*iter); assert(pos != sources.end()); TrainProcessor *source = dynamic_cast<TrainProcessor*>(pos->second); assert(source); if (!source->isTrained()) return 0; Calibration::VarProcessor *proc = source->getCalibration(); if (!proc) continue; Calibration::ProcForeach *foreach = dynamic_cast<Calibration::ProcForeach*>(proc); if (foreach) { std::vector<AtomicId>::const_iterator begin = std::find(this->processors.begin(), this->processors.end(), *iter); assert(this->processors.end() - begin > (int)(foreach->nProcs + 1)); ++begin; std::vector<AtomicId>::const_iterator end = begin + foreach->nProcs; foreach->nProcs = 0; for(std::vector<AtomicId>::const_iterator iter2 = iter; iter2 != used.end(); ++iter2) if (std::find(begin, end, *iter2) != end) foreach->nProcs++; } processors.push_back(CalibratedProcessor(source, proc)); } connectProcessors(calib.get(), processors, false); return calib.release(); }
const std::string& PhysicsTools::MVATrainer::getName | ( | void | ) | const [inline] |
Calibration::MVAComputer * PhysicsTools::MVATrainer::getTrainCalibration | ( | ) | const |
Definition at line 1241 of file MVATrainer.cc.
References bookConverter::compute(), findUntrainedComputers(), and makeTrainCalibration().
Referenced by PhysicsTools::TreeTrainer::iteration().
{ std::vector<AtomicId> compute, train; findUntrainedComputers(compute, train); if (train.empty()) return 0; compute.push_back(0); train.push_back(0); return makeTrainCalibration(&compute.front(), &train.front()); }
SourceVariable * PhysicsTools::MVATrainer::getVariable | ( | AtomicId | source, |
AtomicId | name | ||
) | const [private] |
Definition at line 725 of file MVATrainer.cc.
References sources.
Referenced by createVariable(), and fillInputVars().
void PhysicsTools::MVATrainer::loadState | ( | ) |
Definition at line 583 of file MVATrainer.cc.
References LaserTracksInput_cfi::source, and sources.
{ for(std::vector<AtomicId>::const_iterator iter = this->processors.begin(); iter != this->processors.end(); iter++) { std::map<AtomicId, Source*>::const_iterator pos = sources.find(*iter); assert(pos != sources.end()); TrainProcessor *source = dynamic_cast<TrainProcessor*>(pos->second); assert(source); if (source->load()) edm::LogInfo("MVATrainer") << source->getId() << " configuration for \"" << (const char*)source->getName() << "\" loaded from file."; } }
void PhysicsTools::MVATrainer::makeProcessor | ( | XERCES_CPP_NAMESPACE_QUALIFIER DOMElement * | elem, |
AtomicId | id, | ||
const char * | name | ||
) | [private] |
Definition at line 622 of file MVATrainer.cc.
References PhysicsTools::ProcessRegistry< Base_t, CalibBase_t, Parent_t >::Factory::create(), python::HTMLExport::elem(), Exception, fillInputVars(), fillOutputVars(), python::Node::node, proc, sources, and GlobalPosition_Frontier_DevDB_cff::tag.
Referenced by MVATrainer().
{ DOMElement *xmlInput = 0; DOMElement *xmlConfig = 0; DOMElement *xmlOutput = 0; DOMElement *xmlData = 0; static struct NameExpect { const char *tag; bool mandatory; DOMElement **elem; } const expect[] = { { "input", true, &xmlInput }, { "config", true, &xmlConfig }, { "output", true, &xmlOutput }, { "data", false, &xmlData }, { 0, } }; const NameExpect *cur = expect; for(DOMNode *node = elem->getFirstChild(); node; node = node->getNextSibling()) { if (node->getNodeType() != DOMNode::ELEMENT_NODE) continue; std::string tag = XMLSimpleStr(node->getNodeName()); DOMElement *elem = static_cast<DOMElement*>(node); if (!cur->tag) throw cms::Exception("MVATrainer") << "Superfluous tag " << tag << "encountered in processor." << std::endl; else if (tag != cur->tag && cur->mandatory) throw cms::Exception("MVATrainer") << "Expected tag " << cur->tag << ", got " << tag << " instead in processor." << std::endl; else if (tag != cur->tag) { cur++; continue; } *(cur++)->elem = elem; } while(cur->tag && !cur->mandatory) cur++; if (cur->tag) throw cms::Exception("MVATrainer") << "Unexpected end of processor configuration, " << "expected tag " << cur->tag << "." << std::endl; std::auto_ptr<TrainProcessor> proc( TrainProcessor::create(name, &id, this)); if (!proc.get()) throw cms::Exception("MVATrainer") << "Variable processor trainer " << name << " could not be instantiated. Most likely because" " the trainer plugin for \"" << name << "\"" " does not exist." << std::endl; if (sources.find(id) != sources.end()) throw cms::Exception("MVATrainer") << "Duplicate variable processor id " << (const char*)id << "." << std::endl; fillInputVars(proc->getInputs(), xmlInput); fillOutputVars(proc->getOutputs(), proc.get(), xmlOutput); edm::LogInfo("MVATrainer") << "Configuring " << (const char*)proc->getId() << " \"" << (const char*)proc->getName() << "\"."; proc->configure(xmlConfig); sources.insert(std::make_pair(id, proc.release())); processors.push_back(id); }
Calibration::MVAComputer * PhysicsTools::MVATrainer::makeTrainCalibration | ( | const AtomicId * | compute, |
const AtomicId * | train | ||
) | const [private] |
Definition at line 974 of file MVATrainer.cc.
References calib, bookConverter::compute(), connectProcessors(), crossValidation, doAutoSave, generateEDF::done, spr::find(), PhysicsTools::TrainProcessor::getCalibration(), i, interceptors, PhysicsTools::kOutputId, AlignmentProducer_cff::looper, n, PhysicsTools::Calibration::ProcForeach::nProcs, output, proc, processors, randomSeed, LaserTracksInput_cfi::source, and sources.
Referenced by getTrainCalibration().
{ std::map<AtomicId, TrainInterceptor*> interceptors; std::vector<MVATrainerComputer::Interceptor> baseInterceptors; std::vector<CalibratedProcessor> processors; BaseInterceptor *interceptor = new InitInterceptor; baseInterceptors.push_back(std::make_pair(0, interceptor)); processors.push_back(CalibratedProcessor(0, interceptor)); for(const AtomicId *iter = train; *iter; iter++) { TrainProcessor *source; if (*iter == kOutputId) source = output; else { std::map<AtomicId, Source*>::const_iterator pos = sources.find(*iter); assert(pos != sources.end()); source = dynamic_cast<TrainProcessor*>(pos->second); } assert(source); interceptors[*iter] = new TrainInterceptor(source); } auto_cleaner<Calibration::VarProcessor> autoClean; std::set<AtomicId> done; for(const AtomicId *iter = compute; *iter; iter++) { if (done.erase(*iter)) continue; std::map<AtomicId, Source*>::const_iterator pos = sources.find(*iter); assert(pos != sources.end()); TrainProcessor *source = dynamic_cast<TrainProcessor*>(pos->second); assert(source); assert(source->isTrained()); Calibration::VarProcessor *proc = source->getCalibration(); if (!proc) continue; autoClean.add(proc); processors.push_back(CalibratedProcessor(source, proc)); Calibration::ProcForeach *looper = dynamic_cast<Calibration::ProcForeach*>(proc); if (looper) { std::vector<AtomicId>::const_iterator pos2 = std::find(this->processors.begin(), this->processors.end(), *iter); assert(pos2 != this->processors.end()); ++pos2; unsigned int n = 0; for(int i = 0; i < (int)looper->nProcs; ++i, ++pos2) { assert(pos2 != this->processors.end()); const AtomicId *iter2 = compute; while(*iter2) { if (*iter2 == *pos2) break; iter2++; } if (*iter2) { n++; done.insert(*iter2); pos = sources.find(*iter2); assert(pos != sources.end()); TrainProcessor *source = dynamic_cast<TrainProcessor*>( pos->second); assert(source); assert(source->isTrained()); proc = source->getCalibration(); if (proc) { autoClean.add(proc); processors.push_back( CalibratedProcessor( source, proc)); } } std::map<AtomicId, TrainInterceptor*>::iterator pos3 = interceptors.find(*pos2); if (pos3 != interceptors.end()) { n++; baseInterceptors.push_back( std::make_pair(processors.size(), pos3->second)); processors.push_back( CalibratedProcessor( pos3->second->getProcessor(), pos3->second)); interceptors.erase(pos3); } } looper->nProcs = n; if (!n) { baseInterceptors.pop_back(); processors.pop_back(); } } } for(std::map<AtomicId, TrainInterceptor*>::const_iterator iter = interceptors.begin(); iter != interceptors.end(); ++iter) { TrainProcessor *proc = iter->second->getProcessor(); baseInterceptors.push_back(std::make_pair(processors.size(), iter->second)); processors.push_back(CalibratedProcessor(proc, iter->second)); } std::auto_ptr<Calibration::MVAComputer> calib( new MVATrainerComputer(baseInterceptors, doAutoSave, randomSeed, crossValidation)); connectProcessors(calib.get(), processors, true); return calib.release(); }
void PhysicsTools::MVATrainer::saveState | ( | ) |
Definition at line 603 of file MVATrainer.cc.
References doCleanup, LaserTracksInput_cfi::source, and sources.
{ doCleanup = false; for(std::vector<AtomicId>::const_iterator iter = this->processors.begin(); iter != this->processors.end(); iter++) { std::map<AtomicId, Source*>::const_iterator pos = sources.find(*iter); assert(pos != sources.end()); TrainProcessor *source = dynamic_cast<TrainProcessor*>(pos->second); assert(source); if (source->isTrained()) source->save(); } }
void PhysicsTools::MVATrainer::setAutoSave | ( | bool | autoSave | ) | [inline] |
void PhysicsTools::MVATrainer::setCleanup | ( | bool | cleanup | ) | [inline] |
Definition at line 34 of file MVATrainer.h.
References edm::cleanup(), and doCleanup.
void PhysicsTools::MVATrainer::setCrossValidation | ( | double | split | ) | [inline] |
Definition at line 37 of file MVATrainer.h.
References crossValidation, and PhysicsTools::split().
Referenced by PhysicsTools::TreeTrainer::train().
{ crossValidation = split; }
void PhysicsTools::MVATrainer::setMonitoring | ( | bool | monitoring | ) | [inline] |
Definition at line 35 of file MVATrainer.h.
References doMonitoring, and monitoring.
Referenced by PhysicsTools::TreeTrainer::train().
{ doMonitoring = monitoring; }
void PhysicsTools::MVATrainer::setRandomSeed | ( | UInt_t | seed | ) | [inline] |
std::string PhysicsTools::MVATrainer::trainFileName | ( | const TrainProcessor * | proc, |
const std::string & | ext, | ||
const std::string & | arg = "" |
||
) | const |
Definition at line 700 of file MVATrainer.cc.
References cmsCodeRulesChecker::arg, PhysicsTools::Source::getName(), PhysicsTools::stdStringPrintf(), and trainFileMask.
{ std::string arg_ = arg.size() > 0 ? ("_" + arg) : ""; return stdStringPrintf(trainFileMask.c_str(), (const char*)proc->getName(), arg_.c_str(), ext.c_str()); }
double PhysicsTools::MVATrainer::crossValidation [private] |
Definition at line 115 of file MVATrainer.h.
Referenced by makeTrainCalibration(), and setCrossValidation().
bool PhysicsTools::MVATrainer::doAutoSave [private] |
Definition at line 110 of file MVATrainer.h.
Referenced by makeTrainCalibration(), and setAutoSave().
bool PhysicsTools::MVATrainer::doCleanup [private] |
Definition at line 111 of file MVATrainer.h.
Referenced by saveState(), setCleanup(), and ~MVATrainer().
bool PhysicsTools::MVATrainer::doMonitoring [private] |
Definition at line 112 of file MVATrainer.h.
Referenced by bookMonitor(), findUntrainedComputers(), and setMonitoring().
Source* PhysicsTools::MVATrainer::input [private] |
Definition at line 103 of file MVATrainer.h.
Referenced by connectProcessors(), fillInputVars(), findUntrainedComputers(), and MVATrainer().
const AtomicId PhysicsTools::MVATrainer::kTargetId [static] |
Definition at line 59 of file MVATrainer.h.
Referenced by PhysicsTools::TreeTrainer::addTree(), TtSemiLepJetCombMVATrainer::analyze(), evaluateTtFullHadSignalSel(), evaluateTtSemiLepSignalSel(), fillInputVars(), and MVATrainer().
const AtomicId PhysicsTools::MVATrainer::kWeightId [static] |
Definition at line 60 of file MVATrainer.h.
Referenced by PhysicsTools::TreeTrainer::addTree(), evaluateTtFullHadSignalSel(), evaluateTtSemiLepSignalSel(), fillInputVars(), and MVATrainer().
std::auto_ptr<TrainerMonitoring> PhysicsTools::MVATrainer::monitoring [private] |
Definition at line 106 of file MVATrainer.h.
Referenced by bookMonitor(), setMonitoring(), and ~MVATrainer().
std::string PhysicsTools::MVATrainer::name [private] |
Definition at line 109 of file MVATrainer.h.
Referenced by createVariable(), fillInputVars(), fillOutputVars(), getName(), and MVATrainer().
TrainProcessor* PhysicsTools::MVATrainer::output [private] |
Definition at line 104 of file MVATrainer.h.
Referenced by connectProcessors(), findFinalProcessors(), findUntrainedComputers(), makeTrainCalibration(), MVATrainer(), and ~MVATrainer().
std::vector<AtomicId> PhysicsTools::MVATrainer::processors [private] |
Definition at line 102 of file MVATrainer.h.
Referenced by getCalibration(), and makeTrainCalibration().
UInt_t PhysicsTools::MVATrainer::randomSeed [private] |
Definition at line 114 of file MVATrainer.h.
Referenced by makeTrainCalibration(), and setRandomSeed().
std::map<AtomicId, Source*> PhysicsTools::MVATrainer::sources [private] |
Definition at line 100 of file MVATrainer.h.
Referenced by findFinalProcessors(), findUntrainedComputers(), getCalibration(), getVariable(), loadState(), makeProcessor(), makeTrainCalibration(), MVATrainer(), saveState(), and ~MVATrainer().
std::string PhysicsTools::MVATrainer::trainFileMask [private] |
Definition at line 108 of file MVATrainer.h.
Referenced by bookMonitor(), MVATrainer(), and trainFileName().
std::vector<SourceVariable*> PhysicsTools::MVATrainer::variables [private] |
Definition at line 101 of file MVATrainer.h.
Referenced by connectProcessors(), createVariable(), fillInputVars(), and ~MVATrainer().
std::auto_ptr<XMLDocument> PhysicsTools::MVATrainer::xml [private] |
Definition at line 107 of file MVATrainer.h.
Referenced by MVATrainer().