#include #include #include #include "TFile.h" #include "TTree.h" #include "TCanvas.h" #include "filval/filval.hpp" #include "filval_root/filval_root.hpp" #include "filval/log.hpp" #include "MiniTreeDataSet.hpp" using namespace std; using namespace fv; using namespace fv::root; using namespace fv::util; GenValue* lookup(const string& name){ return GenValue::get_value(name); } Filter* lookup_filter(const string& name){ return dynamic_cast(GenValue::get_value(name)); } void enable_branches(MiniTreeDataSet& mt){ mt.fChain->SetBranchStatus("*", false); mt.track_branch("nJet"); mt.track_branch("nLepGood"); mt.track_branch_ptr("LepGood_pt"); mt.track_branch_ptr("LepGood_eta"); mt.track_branch_ptr("LepGood_phi"); mt.track_branch_ptr("LepGood_mass"); } void declare_values(MiniTreeDataSet& mt){ auto& mean = GenFunction::register_function)>("mean", FUNC(([](vector v){ int n = 0; float sum = 0; for (float e : v){ n++; sum += e; } return n>0 ? sum / n : 0; }))); auto pt_wrapper = new WrapperVector("nLepGood", "LepGood_pt"); auto eta_wrapper = new WrapperVector("nLepGood", "LepGood_eta"); auto phi_wrapper = new WrapperVector("nLepGood", "LepGood_phi"); auto m_wrapper = new WrapperVector("nLepGood", "LepGood_mass"); /* auto dxy_wrapper = new WrapperVector("nLepGood", "LepGood_dxy"); */ auto& get_energy = GenFunction::register_function("get_energy", FUNC(([](float pt, float eta, float phi, float m){ TLorentzVector t; t.SetPtEtaPhiM(pt, eta, phi, m); return t.E(); }))); auto lepton_energy = new ZipMapFour(get_energy, pt_wrapper, eta_wrapper, phi_wrapper, m_wrapper); GenValue::alias("lepton_energy", lepton_energy); GenValue::alias("avg_lepton_energy", new Reduce(mean , "lepton_energy")); GenValue::alias("max_lepton_energy", new Max("lepton_energy")); new Filter("nLepGood>=3", [nLepGood=lookup("nLepGood")](){ return dynamic_cast*>(nLepGood)->get_value() >=3;}); new Filter("nLepGood<=4", [nLepGood=lookup("nLepGood")](){ return dynamic_cast*>(nLepGood)->get_value() <=4;}); new RangeFilter("3<=nLepGood<5", dynamic_cast*>(lookup("nLepGood")), 3, 5); } void declare_containers(MiniTreeDataSet& mt){ mt.register_container(new ContainerTH1I("nLepGood", "Lepton Multiplicity", lookup("nLepGood"), 10, 0, 10)); mt.register_container(new ContainerTH1I("nLepGood2", "Lepton Multiplicity", lookup("nLepGood"), 10, 0, 10)); mt.get_container("nLepGood2")->add_filter(lookup_filter("3<=nLepGood<5")); mt.register_container(new ContainerTH1I("nLepGood3", "Lepton Multiplicity", lookup("nLepGood"), 10, 0, 10)); mt.get_container("nLepGood3")->add_filter(!(*lookup_filter("3<=nLepGood<5"))); /* mt.register_container(new ContainerTGraph("nLepvsnJet", new Pair("nLepGood", "nJet") )); */ mt.register_container(new ContainerTH1F("avg_lepton_energy", "Average Lepton Energy", lookup("avg_lepton_energy"), 50, 0, 500)); mt.register_container(new ContainerTH1F("max_lepton_energy", "Maximum Lepton Energy", lookup("max_lepton_energy"), 50, 0, 500)); } void run_analysis(const std::string& filename){ TFile *f = TFile::Open(filename.c_str()); TTree *tree = (TTree*) f->Get("tree"); MiniTreeDataSet mt(tree); enable_branches(mt); declare_values(mt); declare_containers(mt); mt.process(); mt.save_all(); /* save_containers(mt); */ } int main(int argc, char * argv[]) { Log::init_logger("log.txt", LogPriority::kLogDebug); ArgParser args(argc, argv); if(args.cmdOptionExists("-f")) { run_analysis(args.getCmdOption("-f")); } else { cout << "Usage: ./main -f input_minitree.root" << endl; } return 0; }