int HFMLTriggerHepMCTrigger::InitRun(PHCompositeNode* topNode)
{
m_Geneventmap = findNode::getClass<PHHepMCGenEventMap>(topNode, "PHHepMCGenEventMap");
if (!m_Geneventmap)
{
std::cout << PHWHERE << " - Fatal error - missing node PHHepMCGenEventMap" << std::endl;
return Fun4AllReturnCodes::ABORTRUN;
}
PHNodeIterator iter(topNode);
PHCompositeNode* dstNode = dynamic_cast<PHCompositeNode*>(iter.findFirst("PHCompositeNode", "DST"));
if (!dstNode)
{
cout << PHWHERE << "DST Node missing, doing nothing." << std::endl;
throw std::runtime_error(
"Failed to find DST node in RawTowerBuilder::CreateNodes");
}
m_Flags = findNode::getClass<PdbParameterMap>(dstNode, "HFMLTrigger_HepMCTriggerFlags");
if (m_Flags == nullptr)
{
m_Flags = new PdbParameterMap();
dstNode->addNode(new PHDataNode<PHObject>(m_Flags, "HFMLTrigger_HepMCTriggerFlags", "PHObject"));
}
return Fun4AllReturnCodes::EVENT_OK;
}
int BbcVertexFastSimReco::CreateNodes(PHCompositeNode *topNode) {
PHNodeIterator iter(topNode);
// Looking for the DST node
PHCompositeNode *dstNode = dynamic_cast<PHCompositeNode*>(iter.findFirst("PHCompositeNode","DST"));
if (!dstNode) {
cout << PHWHERE << "DST Node missing, doing nothing." << endl;
return Fun4AllReturnCodes::ABORTRUN;
}
// store the BBC stuff under a sub-node directory
PHCompositeNode* bbcNode = dynamic_cast<PHCompositeNode*>(iter.findFirst("PHCompositeNode","BBC"));
if (!bbcNode) {
bbcNode = new PHCompositeNode("BBC");
dstNode->addNode(bbcNode);
}
// create the BbcVertexMap
BbcVertexMap *vertexes = findNode::getClass<BbcVertexMap>(topNode,"BbcVertexMap");
if (!vertexes) {
vertexes = new BbcVertexMap_v1();
PHIODataNode<PHObject> *VertexMapNode = new PHIODataNode<PHObject>(vertexes,"BbcVertexMap","PHObject");
bbcNode->addNode(VertexMapNode);
} else {
cout << PHWHERE << "::ERROR - BbcVertexMap pre-exists, but should not if running FastSim" << endl;
exit(-1);
}
return Fun4AllReturnCodes::EVENT_OK;
}
//! global initialization
int saModuleSingleMuonAN::init(PHCompositeNode *topNode, sa_hist_mangager_ptr hm)
{
//set_fitparam(2);
//add a new node to output DST
// make the flag node which is syncronized with cut on picodst_object
PHCompositeNode* dstNode = NULL;
PHNodeIterator nodeItr(topNode);
dstNode = static_cast<PHCompositeNode*>(nodeItr.findFirst("PHCompositeNode",
"DST"));
if (!dstNode)
{
dstNode = new PHCompositeNode("DST");
topNode->addNode(dstNode);
}
saFlagC *flags = new saFlagC();
if (flags)
{
// make a new flag node called DST/SimpleDimuonFlag
PHIODataNode<PHObject> * node = new PHIODataNode<PHObject>(flags,
"SinglemuonFlag", "PHObject");
if (!node)
{
cout
<< "saModuleSimpleDimuon::Init failed to create saEventProperty Node"
<< endl;
return ABORTRUN;
}
else
{
dstNode->addNode(node);
cout << "saFlag Node is added with version " << flags->ClassName()
<< " as " << node->getName() << endl;
}
}
else
{
cout << "saModuleSingleMuonAN::Init failed to create saEventProperty"
<< endl;
return ABORTRUN;
}
//
// --- define user histograms ----
//
_v_sahist.clear();
_sah_pT_phi_MuM_phi_N_LG4 = makesaHist_pT_phi(hm,makeTHist_pT_phi("_sah_pT_phi_MuM_phi_N_LG4", "North, Last Gap = 4"));
_sah_pT_phi_MuM_phi_N_LG23 = makesaHist_pT_phi(hm,makeTHist_pT_phi("_sah_pT_phi_MuM_phi_N_LG23","North, Last Gap = 23"));
_sah_pT_phi_MuM_phi_S_LG4 = makesaHist_pT_phi(hm,makeTHist_pT_phi("_sah_pT_phi_MuM_phi_S_LG4", "South, Last Gap = 4"));
_sah_pT_phi_MuM_phi_S_LG23 = makesaHist_pT_phi(hm,makeTHist_pT_phi("_sah_pT_phi_MuM_phi_S_LG23","South, Last Gap = 23"));
return EVENT_OK;
}
int PHG4TrackKalmanFitter::CreateNodes(PHCompositeNode *topNode) {
// create nodes...
PHNodeIterator iter(topNode);
PHCompositeNode *dstNode = static_cast<PHCompositeNode*>(iter.findFirst(
"PHCompositeNode", "DST"));
if (!dstNode) {
cerr << PHWHERE << "DST Node missing, doing nothing." << endl;
return Fun4AllReturnCodes::ABORTEVENT;
}
PHNodeIterator iter_dst(dstNode);
// Create the SVTX node
PHCompositeNode* tb_node = dynamic_cast<PHCompositeNode*>(iter_dst.findFirst(
"PHCompositeNode", "SVTX"));
if (!tb_node) {
tb_node = new PHCompositeNode("SVTX");
dstNode->addNode(tb_node);
if (verbosity > 0)
cout << "SVTX node added" << endl;
}
if (_output_mode == MakeNewNode || _output_mode == DebugMode) {
_trackmap_refit = new SvtxTrackMap_v1;
PHIODataNode<PHObject>* tracks_node = new PHIODataNode<PHObject>(
_trackmap_refit, "SvtxTrackMapRefit", "PHObject");
tb_node->addNode(tracks_node);
if (verbosity > 0)
cout << "Svtx/SvtxTrackMapRefit node added" << endl;
}
if (_fit_primary_tracks) {
_primary_trackmap = new SvtxTrackMap_v1;
PHIODataNode<PHObject>* primary_tracks_node =
new PHIODataNode<PHObject>(_primary_trackmap, "PrimaryTrackMap",
"PHObject");
tb_node->addNode(primary_tracks_node);
if (verbosity > 0)
cout << "Svtx/PrimaryTrackMap node added" << endl;
}
_vertexmap_refit = new SvtxVertexMap_v1;
PHIODataNode<PHObject>* vertexes_node = new PHIODataNode<PHObject>(
_vertexmap_refit, "SvtxVertexMapRefit", "PHObject");
tb_node->addNode(vertexes_node);
if (verbosity > 0)
cout << "Svtx/SvtxVertexMapRefit node added" << endl;
return Fun4AllReturnCodes::EVENT_OK;
}
int PHG4SvtxBeamSpotReco::InitRun(PHCompositeNode* topNode) {
// clear for new run
_pca.Clear();
// Looking for the PAR node
PHNodeIterator iter(topNode);
PHCompositeNode *parNode
= dynamic_cast<PHCompositeNode*>(iter.findFirst("PHCompositeNode","PAR"));
if (!parNode) {
cout << PHWHERE << "PAR Node missing, doing nothing." << endl;
return Fun4AllReturnCodes::ABORTRUN;
}
PHNodeIterator pariter(parNode);
// Create the SVX node if required
PHCompositeNode* svxNode
= dynamic_cast<PHCompositeNode*>(pariter.findFirst("PHCompositeNode","SVTX"));
if (!svxNode) {
svxNode = new PHCompositeNode("SVTX");
parNode->addNode(svxNode);
}
// Create the SvtxBeamSpot node if required
_beamspot = findNode::getClass<SvtxBeamSpot>(topNode,"SvtxBeamSpot");
if (!_beamspot) {
_beamspot = new SvtxBeamSpot();
PHIODataNode<PHObject> *SvtxBeamSpotNode =
new PHIODataNode<PHObject>(_beamspot, "SvtxBeamSpot", "PHObject");
svxNode->addNode(SvtxBeamSpotNode);
}
// Pull the reconstructed track information off the node tree...
_vertexes = findNode::getClass<SvtxVertexMap>(topNode, "SvtxVertexMap");
if(!_vertexes) {
cerr << PHWHERE << " ERROR: Can't find SvtxVertexMap." << endl;
return Fun4AllReturnCodes::ABORTEVENT;
}
if (verbosity >= 0) {
cout << "=================== PHG4SvtxBeamSpotReco::InitRun() =======================" << endl;
cout << " CVS Version: $Id: PHG4SvtxBeamSpotReco.C,v 1.5 2015/04/21 23:47:09 pinkenbu Exp $" << endl;
cout << " Storing cumulative beam spot location under PAR/SVTX/SvtxBeamSpot" << endl;
cout << "===========================================================================" << endl;
}
return Fun4AllReturnCodes::EVENT_OK;
}
int PHPythia8::create_node_tree(PHCompositeNode *topNode) {
PHCompositeNode *dstNode;
PHNodeIterator iter(topNode);
dstNode = dynamic_cast<PHCompositeNode*>(iter.findFirst("PHCompositeNode", "DST"));
if (!dstNode) {
cout << PHWHERE << "DST Node missing doing nothing" << endl;
return Fun4AllReturnCodes::ABORTRUN;
}
_phhepmcevt = new PHHepMCGenEvent();
PHObjectNode_t *newNode = new PHObjectNode_t(_phhepmcevt,_node_name.c_str(),"PHObject");
dstNode->addNode(newNode);
return Fun4AllReturnCodes::EVENT_OK;
}
int PHG4HoughTransform::CreateNodes(PHCompositeNode* topNode) {
// create nodes...
PHNodeIterator iter(topNode);
PHCompositeNode* dstNode =
static_cast<PHCompositeNode*>(iter.findFirst("PHCompositeNode", "DST"));
if (!dstNode) {
cerr << PHWHERE << "DST Node missing, doing nothing." << endl;
return Fun4AllReturnCodes::ABORTEVENT;
}
PHNodeIterator iter_dst(dstNode);
// Create the SVTX node
PHCompositeNode* tb_node =
dynamic_cast<PHCompositeNode*>(iter_dst.findFirst("PHCompositeNode", "SVTX"));
if (!tb_node) {
tb_node = new PHCompositeNode("SVTX");
dstNode->addNode(tb_node);
if (verbosity > 0) cout << "SVTX node added" << endl;
}
_g4tracks = new SvtxTrackMap_v1;
PHIODataNode<PHObject>* tracks_node =
new PHIODataNode<PHObject>(_g4tracks, "SvtxTrackMap", "PHObject");
tb_node->addNode(tracks_node);
if (verbosity > 0) cout << "Svtx/SvtxTrackMap node added" << endl;
_g4vertexes = new SvtxVertexMap_v1;
PHIODataNode<PHObject>* vertexes_node =
new PHIODataNode<PHObject>(_g4vertexes, "SvtxVertexMap", "PHObject");
tb_node->addNode(vertexes_node);
if (verbosity > 0) cout << "Svtx/SvtxVertexMap node added" << endl;
/*
PHG4CylinderGeomContainer* geoms =
findNode::getClass<PHG4CylinderGeomContainer>(topNode, "CYLINDERGEOM_SVTX");
if (!geoms) {
cerr << PHWHERE << " ERROR: Can't find CYLINDERGEOM_SVTX Node." << endl;
return Fun4AllReturnCodes::ABORTEVENT;
}
*/
return InitializeGeometry(topNode);
}
int PHPythia8::CreateNodeTree(PHCompositeNode *topNode)
{
PHCompositeNode *dstNode;
PHNodeIterator iter(topNode);
dstNode = dynamic_cast<PHCompositeNode*>(iter.findFirst("PHCompositeNode", "DST"));
if (!dstNode)
{
cout << PHWHERE << "DST Node missing doing nothing" << endl;
return -1;
}
if(_isHepMC)
{
//PHIODataNode<HepMC::GenEvent> *newNode = new PHIODataNode<>(phhepmcevt,"HEPMC","GenEvent");
phhepmcevt = new PHHepMCGenEvent();
PHObjectNode_t *newNode = new PHObjectNode_t(phhepmcevt,"PHHepMCGenEvent","PHObject");
dstNode->addNode(newNode);
}
else{
//-* pythia header information
phpythiaheader = new PHPythiaHeaderV2();
PHObjectNode_t *PHPythiaHeaderNode = new PHObjectNode_t(phpythiaheader, "PHPythiaHeader", "PHObject");
dstNode->addNode(PHPythiaHeaderNode);
//-* pythia particle information
phpythia = new PHPythiaContainerV2(true);
PHObjectNode_t *PHPythiaNode = new PHObjectNode_t(phpythia, "PHPythia", "PHObject");
dstNode->addNode(PHPythiaNode);
}
return 0;
}
int CaloTriggerSim::CreateNode(PHCompositeNode *topNode)
{
PHNodeIterator iter(topNode);
// Looking for the DST node
PHCompositeNode *dstNode = dynamic_cast<PHCompositeNode *>(iter.findFirst("PHCompositeNode", "DST"));
if (!dstNode)
{
std::cout << PHWHERE << "DST Node missing, doing nothing." << std::endl;
return Fun4AllReturnCodes::ABORTRUN;
}
// store the trigger stuff under a sub-node directory
PHCompositeNode *trigNode = dynamic_cast<PHCompositeNode *>(iter.findFirst("PHCompositeNode", "TRIG"));
if (!trigNode)
{
trigNode = new PHCompositeNode("TRIG");
dstNode->addNode(trigNode);
}
// create the CaloTriggerInfo
CaloTriggerInfo *triggerinfo = findNode::getClass<CaloTriggerInfo>(topNode, !_emulate_truncation ? "CaloTriggerInfo" : "CaloTriggerInfo_Truncate" );
if (!triggerinfo)
{
triggerinfo = new CaloTriggerInfo_v1();
PHIODataNode<PHObject> *TriggerNode = new PHIODataNode<PHObject>(triggerinfo, !_emulate_truncation ? "CaloTriggerInfo" : "CaloTriggerInfo_Truncate", "PHObject");
trigNode->addNode(TriggerNode);
}
else
{
std::cout << PHWHERE << "::ERROR - CaloTriggerInfo pre-exists, but should not" << std::endl;
exit(-1);
}
return Fun4AllReturnCodes::EVENT_OK;
}
//_______________________________________
void
CaloCalibration::CreateNodeTree(PHCompositeNode *topNode)
{
PHNodeIterator iter(topNode);
PHCompositeNode *dstNode = dynamic_cast<PHCompositeNode*>(iter.findFirst(
"PHCompositeNode", "DST"));
if (!dstNode)
{
std::cerr << Name() << "::" << detector << "::" << __PRETTY_FUNCTION__
<< "DST Node missing, doing nothing." << std::endl;
throw std::runtime_error(
"Failed to find DST node in RawTowerCalibration::CreateNodes");
}
RawTowerNodeName = "TOWER_" + _raw_tower_node_prefix + "_" + detector;
_raw_towers = findNode::getClass<RawTowerContainer>(dstNode,
RawTowerNodeName.c_str());
if (!_raw_towers)
{
std::cerr << Name() << "::" << detector << "::" << __PRETTY_FUNCTION__
<< " " << RawTowerNodeName << " Node missing, doing bail out!"
<< std::endl;
throw std::runtime_error(
"Failed to find " + RawTowerNodeName
+ " node in RawTowerCalibration::CreateNodes");
}
// Create the tower nodes on the tree
PHNodeIterator dstiter(dstNode);
PHCompositeNode *DetNode = dynamic_cast<PHCompositeNode*>(dstiter.findFirst(
"PHCompositeNode", detector));
if (!DetNode)
{
DetNode = new PHCompositeNode(detector);
dstNode->addNode(DetNode);
}
// Be careful as a previous calibrator may have been registered for this detector
CaliTowerNodeName = "TOWER_" + _calib_tower_node_prefix + "_" + detector;
_calib_towers = findNode::getClass<RawTowerContainer>(DetNode,
CaliTowerNodeName.c_str());
if (!_calib_towers)
{
_calib_towers = new RawTowerContainer(_raw_towers->getCalorimeterID());
PHIODataNode<PHObject> *towerNode = new PHIODataNode<PHObject>(
_calib_towers, CaliTowerNodeName.c_str(), "PHObject");
DetNode->addNode(towerNode);
}
// update the parameters on the node tree
PHCompositeNode *parNode = dynamic_cast<PHCompositeNode*>(iter.findFirst(
"PHCompositeNode", "RUN"));
assert(parNode);
const string paramnodename = string("Calibration_") + detector;
// this step is moved to after detector construction
// save updated persistant copy on node tree
_calib_params.SaveToNodeTree(parNode, paramnodename);
}
//! global initialization
int
saModuleSngmuonMing::init(PHCompositeNode *topNode, sa_hist_mangager_ptr hm)
{
//add a new node to output DST
// make the flag node which is syncronized with cut on picodst_object
PHCompositeNode* dstNode = NULL;
PHNodeIterator nodeItr(topNode);
dstNode = static_cast<PHCompositeNode*>(nodeItr.findFirst("PHCompositeNode",
"DST"));
if (!dstNode)
{
dstNode = new PHCompositeNode("DST");
topNode->addNode(dstNode);
}
saFlagC *flags = new saFlagC();
if (flags)
{
// make a new flag node called DST/SimpleDimuonFlag
PHIODataNode<PHObject> * node = new PHIODataNode<PHObject>(flags,
"SngmuonFlag", "PHObject");
if (!node)
{
cout
<< "saModuleSngmuon::Init failed to create saEventProperty Node"
<< endl;
return ABORTRUN;
}
else
{
dstNode->addNode(node);
cout << "saFlag Node is added with version " << flags->ClassName()
<< " as " << node->getName() << endl;
}
}
else
{
cout << "saModuleSngmuonMing::Init failed to create saEventProperty"
<< endl;
return ABORTRUN;
}
// --- define user hisotgrams ---
//
// -- general event and/or track quality histograms
//
TH1F * h_ST1Z_N = new TH1F("SngMuon_ST1Z_N", "Single muon St1-Z; ", 400, 180, 200);
_h_ST1Z_N = new saHist(
//
h_ST1Z_N, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_ST1Z_N);
TH1F * h_ST1Z_S = new TH1F("SngMuon_ST1Z_S", "Single muon St1-Z; ", 400, -200, -180);
_h_ST1Z_S = new saHist(
//
h_ST1Z_S, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_ST1Z_S);
// ST-1 multiple scatering angle
TH1F * h_dA = new TH1F("SngMuon_dA", "Single muon dA; ", 100, -1, 1);
_h_dA = new saHist(
//
h_dA, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dA);
TH2F * h2_dA = new TH2F("SngMuon_dA2", "Single muon dA vs pz; ", 200, -50, 50, 100, 0.0, 0.5);
_h2_dA = new saHist(
//
h2_dA, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h2_dA);
// ST-1 <phi-1>
TH1F * h_phi_1N = new TH1F("SngMuon_phi_1N", "North Single muon ST-1 Phi; ", 200, -4, 4);
_h_phi_1N = new saHist(
//
h_phi_1N, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_phi_1N);
TH1F * h_phi_1S = new TH1F("SngMuon_phi_1S", "South Single muon ST-1 Phi; ", 200, -4, 4);
_h_phi_1S = new saHist(
//
h_phi_1S, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_phi_1S);
// ST-2 <phi-2>
TH1F * h_phi_2N = new TH1F("SngMuon_phi_2N", "North Single muon ST-2 Phi; ", 200, -4, 4);
_h_phi_2N = new saHist(
//
h_phi_2N, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_phi_2N);
TH1F * h_phi_2S = new TH1F("SngMuon_phi_2S", "South Single muon ST-2 Phi; ", 200, -4, 4);
_h_phi_2S = new saHist(
//
h_phi_2S, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_phi_2S);
// ST-3 <phi-3>
TH1F * h_phi_3N = new TH1F("SngMuon_phi_3N", "North Single muon ST-3 Phi; ", 200, -4, 4);
_h_phi_3N = new saHist(
//
h_phi_3N, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_phi_3N);
TH1F * h_phi_3S = new TH1F("SngMuon_phi_3S", "North Single muon ST-3 Phi; ", 200, -4, 4);
_h_phi_3S = new saHist(
//
h_phi_3S, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_phi_3S);
// ST-1-3 <phi-1-3>
TH1F * h_phi_13N = new TH1F("SngMuon_phi_13N", "North Single muon ST-13 dPhi; ", 100, -0.5, 0.5);
_h_phi_13N = new saHist(
//
h_phi_13N, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_phi_13N);
TH1F * h_phi_13S = new TH1F("SngMuon_phi_13S", "South Single muon ST-13 dPhi; ", 100, -0.5, 0.5);
_h_phi_13S = new saHist(
//
h_phi_13S, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_phi_13S);
// ST-2-3 <phi-2-3>
TH1F * h_phi_23N = new TH1F("SngMuon_phi_23N", "North Single muon ST-23 dPhi; ", 100, -0.5, 0.5);
_h_phi_23N = new saHist(
//
h_phi_23N, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_phi_23N);
TH1F * h_phi_23S = new TH1F("SngMuon_phi_23S", "South Single muon ST-23 dPhi; ", 100, -0.5, 0.5);
_h_phi_23S = new saHist(
//
h_phi_23S, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_phi_23S);
// -- 2D plots vs pZ ST-1-3
TH2F * h2_phi_13N = new TH2F("SngMuon_phi_13N2", "North Single muon pZ*dPhi-13 vs pZ; ", 200, -50, 50, 100, 0, 5);
_h2_phi_13N = new saHist(
//
h2_phi_13N, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h2_phi_13N);
TH2F * h2_phi_13S = new TH2F("SngMuon_phi_13S2", "South Single muon pZ*dPhi-13 vs pZ; ", 200, -50, 50, 100, 0, 5);
_h2_phi_13S = new saHist(
//
h2_phi_13S, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h2_phi_13S);
// -- 2D plots vs pZ ST-2-3
TH2F * h2_phi_23N = new TH2F("SngMuon_phi_23N2", "North Single muon pZ*dPhi-23 vs pZ; ", 200, -50, 50, 100, 0, 5);
_h2_phi_23N = new saHist(
//
h2_phi_23N, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h2_phi_23N);
TH2F * h2_phi_23S = new TH2F("SngMuon_phi_23S2", "South Single muon pZ*dPhi-23 vs pZ; ", 200, -50, 50, 100, 0, 5);
_h2_phi_23S = new saHist(
//
h2_phi_23S, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h2_phi_23S);
// -- RPC1
TH1F * h_Rpc1DCA_N = new TH1F("SngMuonRPC1_DCA_N", "Single muon North RPC1 DCA; ", 150, -5, 10);
_h_Rpc1DCA_N = new saHist(
//
h_Rpc1DCA_N, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_Rpc1DCA_N);
TH1F * h_Rpc1DCA_S = new TH1F("SngMuonRPC1_DCA_S", "Single muon South RPC1 DCA; ", 150, -5, 10);
_h_Rpc1DCA_S = new saHist(
//
h_Rpc1DCA_S, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_Rpc1DCA_S);
// --- RPC3
TH1F * h_Rpc3DCA_N = new TH1F("SngMuonRPC3_DCA_N", "Single muon North RPC3 DCA; ", 100, -10, 100);
_h_Rpc3DCA_N = new saHist(
//
h_Rpc3DCA_N, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_Rpc3DCA_N);
TH1F * h_Rpc3DCA_S = new TH1F("SngMuonRPC3_DCA_S", "Single muon South RPC3 DCA; ", 100, -10, 100);
_h_Rpc3DCA_S = new saHist(
//
h_Rpc3DCA_S, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_Rpc3DCA_S);
//
// --- for comparision with run11/12 style W->muon analysis
//
TH1F * h_dw23N_p = new TH1F("SngMuon_dw23N_p", "North (+) SingleMuon dw23", 100, -1, 1);
_h_dw23N_p = new saHist(
//
h_dw23N_p, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23N_p);
TH1F * h_dw23N_m = new TH1F("SngMuon_dw23N_m", "North (-) SingleMuon dw23", 100, -1, 1);
_h_dw23N_m = new saHist(
//
h_dw23N_m, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23N_m);
TH1F * h_dw23S_p = new TH1F("SngMuon_dw23S_p", "South (+) SingleMuon dw23", 100, -1, 1);
_h_dw23S_p = new saHist(
//
h_dw23S_p, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23S_p);
TH1F * h_dw23S_m = new TH1F("SngMuon_dw23S_m", "South (-) SingleMuon dw23", 100, -1, 1);
_h_dw23S_m = new saHist(
//
h_dw23S_m, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23S_m);
// pT > 10
TH1F * h_dw23N_PT10_p = new TH1F("SngMuon_dw23N_PT10_p", "North (+) pT> 10 SingleMuon dw23", 100, -1, 1);
_h_dw23N_PT10_p = new saHist(
//
h_dw23N_PT10_p, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23N_PT10_p);
TH1F * h_dw23N_PT10_m = new TH1F("SngMuon_dw23N_PT10_m", "North (-) pT> 10 SingleMuon dw23", 100, -1, 1);
_h_dw23N_PT10_m = new saHist(
//
h_dw23N_PT10_m, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23N_PT10_m);
TH1F * h_dw23S_PT10_p = new TH1F("SngMuon_dw23S_PT10_p", "South (+) pT> 10 SingleMuon dw23", 100, -1, 1);
_h_dw23S_PT10_p = new saHist(
//
h_dw23S_PT10_p, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23S_PT10_p);
TH1F * h_dw23S_PT10_m = new TH1F("SngMuon_dw23S_PT10_m", "South (-) pT>10 SingleMuon dw23", 100, -1, 1);
_h_dw23S_PT10_m = new saHist(
//
h_dw23S_PT10_m, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23S_PT10_m);
// pT > 15
TH1F * h_dw23N_PT15_p = new TH1F("SngMuon_dw23N_PT15_p", "North (+) pT> 10 SingleMuon dw23", 100, -1, 1);
_h_dw23N_PT15_p = new saHist(
//
h_dw23N_PT15_p, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23N_PT15_p);
TH1F * h_dw23N_PT15_m = new TH1F("SngMuon_dw23N_PT15_m", "North (-) pT> 10 SingleMuon dw23", 100, -1, 1);
_h_dw23N_PT15_m = new saHist(
//
h_dw23N_PT15_m, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23N_PT15_m);
TH1F * h_dw23S_PT15_p = new TH1F("SngMuon_dw23S_PT15_p", "South (+) pT> 10 SingleMuon dw23", 100, -1, 1);
_h_dw23S_PT15_p = new saHist(
//
h_dw23S_PT15_p, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23S_PT15_p);
TH1F * h_dw23S_PT15_m = new TH1F("SngMuon_dw23S_PT15_m", "South (-) pT>10 SingleMuon dw23", 100, -1, 1);
_h_dw23S_PT15_m = new saHist(
//
h_dw23S_PT15_m, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23S_PT15_m);
// pT > 20
TH1F * h_dw23N_PT20_p = new TH1F("SngMuon_dw23N_PT20_p", "North (+) pT> 10 SingleMuon dw23", 100, -1, 1);
_h_dw23N_PT20_p = new saHist(
//
h_dw23N_PT20_p, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23N_PT20_p);
TH1F * h_dw23N_PT20_m = new TH1F("SngMuon_dw23N_PT20_m", "North (-) pT> 10 SingleMuon dw23", 100, -1, 1);
_h_dw23N_PT20_m = new saHist(
//
h_dw23N_PT20_m, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23N_PT20_m);
TH1F * h_dw23S_PT20_p = new TH1F("SngMuon_dw23S_PT20_p", "South (+) pT> 10 SingleMuon dw23", 100, -1, 1);
_h_dw23S_PT20_p = new saHist(
//
h_dw23S_PT20_p, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23S_PT20_p);
TH1F * h_dw23S_PT20_m = new TH1F("SngMuon_dw23S_PT20_m", "South (-) pT>10 SingleMuon dw23", 100, -1, 1);
_h_dw23S_PT20_m = new saHist(
//
h_dw23S_PT20_m, //the template histogram, any TH1 and derivatives is accepted
saHist::EVENT_PROPERTY | saHist::FILL_PROPERTY, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_dw23S_PT20_m);
//
// --- histograms for spin asymmetry study ----
//
//-- Single Muon pT (+,-)
TH1F * h_pT = new TH1F("SngMuonPT", "Single muon pT; pT (GeV)", 20, 1, 10);
_h_pT = new saHist(
//
h_pT, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pT);
// --- north ---
TH1F * h_pT_n = new TH1F("SngMuonPTN", "North Single Muon pT; pT (GeV)", 20, 1, 10);
_h_pT_n = new saHist(
//
h_pT_n, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pT_n);
// --- south ---
TH1F * h_pT_s = new TH1F("SngMuonPTS", "South Single Muon pT; pT (GeV)", 20, 1, 10);
_h_pT_s = new saHist(
//
h_pT_s, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pT_s);
//-- Single Muon pT (+)
TH1F * h_pT_p = new TH1F("SngMuonPTp", "Single muon (+) pT; pT (GeV)", 20, 1, 10);
_h_pT_p = new saHist(
//
h_pT_p, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pT_p);
// --- north ---
TH1F * h_pT_p_n = new TH1F("SngMuonPTpN", "North Single Muon (+)pT; pT (GeV)", 20, 1, 10);
_h_pT_p_n = new saHist(
//
h_pT_p_n, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pT_p_n);
// --- south ---
TH1F * h_pT_p_s = new TH1F("SngMuonPTpS", "South Single Muon (+)pT; pT (GeV)", 20, 1, 10);
_h_pT_p_s = new saHist(
//
h_pT_p_s, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pT_p_s);
//-- Single Muon pT (-)
TH1F * h_pT_m = new TH1F("SngMuonPTm", "Single muon (-) pT; pT (GeV)", 20, 1, 10);
_h_pT_m = new saHist(
//
h_pT_m, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pT_m);
// --- north ---
TH1F * h_pT_m_n = new TH1F("SngMuonPTmN", "North Single Muon (-)pT; pT (GeV)", 20, 1, 10);
_h_pT_m_n = new saHist(
//
h_pT_m_n, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pT_m_n);
// --- south ---
TH1F * h_pT_m_s = new TH1F("SngMuonPTmS", "South Single Muon (-)pT; pT (GeV)", 20, 1, 10);
_h_pT_m_s = new saHist(
//
h_pT_m_s, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pT_m_s);
//
//--- stopped hadrons -------------------------------
//
//-- Stoped Hadron pT (+,-)
TH1F * h_pTH = new TH1F("SngHadronPT", "Single hadron pT; pT (GeV)", 20, 1, 10);
_h_pTH = new saHist(
//
h_pTH, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pTH);
// --- north ---
TH1F * h_pTH_n = new TH1F("SngHadronPTN", "North Single Hadron pT; pT (GeV)", 20, 1, 10);
_h_pTH_n = new saHist(
//
h_pTH_n, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pTH_n);
// --- south ---
TH1F * h_pTH_s = new TH1F("SngHadronPTS", "South Single Hadron pT; pT (GeV)", 20, 1, 10);
_h_pTH_s = new saHist(
//
h_pTH_s, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pTH_s);
//-- Single Hadron pT (+)
TH1F * h_pTH_p = new TH1F("SngHadronPTp", "Single Hadron (+) pT; pT (GeV)", 20, 1, 10);
_h_pTH_p = new saHist(
//
h_pTH_p, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pTH_p);
// --- north ---
TH1F * h_pTH_p_n = new TH1F("SngHadronPTpN", "North Single Hadron (+)pT; pT (GeV)", 20, 1, 10);
_h_pTH_p_n = new saHist(
//
h_pTH_p_n, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pTH_p_n);
// --- south ---
TH1F * h_pTH_p_s = new TH1F("SngHadronPTpS", "South Single Hadron (+)pT; pT (GeV)", 20, 1, 10);
_h_pTH_p_s = new saHist(
//
h_pTH_p_s, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pTH_p_s);
//-- Single Hadron pT (-)
TH1F * h_pTH_m = new TH1F("SngHadronPTm", "Single Hadron (-) pT; pT (GeV)", 20, 1, 10);
_h_pTH_m = new saHist(
//
h_pTH_m, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pTH_m);
// --- north ---
TH1F * h_pTH_m_n = new TH1F("SngHadronPTmN", "North Single Hadron (-)pT; pT (GeV)", 20, 1, 10);
_h_pTH_m_n = new saHist(
//
h_pTH_m_n, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pTH_m_n);
// --- south ---
TH1F * h_pTH_m_s = new TH1F("SngHadronPTmS", "South Single Hadron (-)pT; pT (GeV)", 20, 1, 10);
_h_pTH_m_s = new saHist(
//
h_pTH_m_s, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_pTH_m_s);
//
// ------- single muon rapidity --------
//
TH1F * h_eta = new TH1F("SngMuonEta", "Single Muon (+,-) Eta; ", 12, -3, 3);
_h_eta = new saHist(
//
h_eta, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_eta);
TH1F * h_eta_p = new TH1F("SngMuonEtap", "Single Muon (+) Eta; ", 12, -3, 3);
_h_eta_p = new saHist(
//
h_eta_p, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_eta_p);
TH1F * h_eta_m = new TH1F("SngMuonEtam", "Single Muon (-) Eta; ", 12, -3, 3);
_h_eta_m = new saHist(
//
h_eta_m, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_eta_m);
//
// ---- rapidity for W->muon pT > 10 GeV ---
//
TH1F * h_etaW10 = new TH1F("SngMuonEtaW10", "Single Muon (+,-) Eta, pT>10; ", 12, -3, 3);
_h_etaW10 = new saHist(
//
h_etaW10, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_etaW10);
TH1F * h_etaW10_p = new TH1F("SngMuonEtaW10p", "Single Muon (+) Eta; pT>10", 12, -3, 3);
_h_etaW10_p = new saHist(
//
h_etaW10_p, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_etaW10_p);
TH1F * h_etaW10_m = new TH1F("SngMuonEtaW10m", "Single Muon (-) Eta; pT>10 ", 12, -3, 3);
_h_etaW10_m = new saHist(
//
h_etaW10_m, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_etaW10_m);
// --- W->muon rapidity , pT>15
TH1F * h_etaW15 = new TH1F("SngMuonEtaW15", "Single Muon (+,-) Eta, pT>15; ", 12, -3, 3);
_h_etaW15 = new saHist(
//
h_etaW15, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_etaW15);
TH1F * h_etaW15_p = new TH1F("SngMuonEtaW15p", "Single Muon (+) Eta; pT>15", 12, -3, 3);
_h_etaW15_p = new saHist(
//
h_etaW15_p, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_etaW15_p);
TH1F * h_etaW15_m = new TH1F("SngMuonEtaW15m", "Single Muon (-) Eta; pT>15 ", 12, -3, 3);
_h_etaW15_m = new saHist(
//
h_etaW15_m, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_etaW15_m);
// --- W->muon rapidity , pT>20
TH1F * h_etaW20 = new TH1F("SngMuonEtaW20", "Single Muon (+,-) Eta, pT>20; ", 12, -3, 3);
_h_etaW20 = new saHist(
//
h_etaW20, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_etaW20);
TH1F * h_etaW20_p = new TH1F("SngMuonEtaW20p", "Single Muon (+) Eta; pT>20", 12, -3, 3);
_h_etaW20_p = new saHist(
//
h_etaW20_p, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_etaW20_p);
TH1F * h_etaW20_m = new TH1F("SngMuonEtaW20m", "Single Muon (-) Eta; pT>20 ", 12, -3, 3);
_h_etaW20_m = new saHist(
//
h_etaW20_m, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_etaW20_m);
//
// --- stopped hadron rapidity ---
//
TH1F * h_etaH = new TH1F("SngHadronEta", "Single Hadron (+,-) Eta; ", 12, -3, 3);
_h_etaH = new saHist(
//
h_etaH, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_etaH);
TH1F * h_etaH_p = new TH1F("SngHadronEtap", "Single Hadron (+) Eta; ", 12, -3, 3);
_h_etaH_p = new saHist(
//
h_etaH_p, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_etaH_p);
TH1F * h_etaH_m = new TH1F("SngHadronEtam", "Single Hadron (-) Eta; ", 12, -3, 3);
_h_etaH_m = new saHist(
//
h_etaH_m, //the template histogram, any TH1 and derivatives is accepted
saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY | saHist::FILL_PROPERTY
| saHist::CROSSING_CHECKS, // flags
Verbosity() // verbosity
);
hm.get()->registerHisto(_h_etaH_m);
return EVENT_OK;
}
//! global initialization
int saModuleDimuonDYDarshana::init(PHCompositeNode *topNode, sa_hist_mangager_ptr hm)
{
//-------------------------------------------------------------------
TH1F * h_pT_os_N = new TH1F("pT_os_sig_n","opposite sign, signal region, north", 2, _pT_bins);
_h_pT_os_N = new saHist(h_pT_os_N,saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY |
saHist::FILL_PROPERTY| saHist::CROSSING_CHECKS,Verbosity());
hm.get()->registerHisto(_h_pT_os_N);
TH1F * h_pT_os_S = new TH1F("pT_os_sig_s","opposite sign, signal region, south", 2, _pT_bins);
_h_pT_os_S = new saHist(h_pT_os_S,saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY |
saHist::FILL_PROPERTY| saHist::CROSSING_CHECKS,Verbosity());
hm.get()->registerHisto(_h_pT_os_S);
TH1F * h_pT_sm_N = new TH1F("pT_ss_n","same sign, signal region, north", 2, _pT_bins);
_h_pT_sm_N = new saHist(h_pT_sm_N,saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY |
saHist::FILL_PROPERTY| saHist::CROSSING_CHECKS,Verbosity());
hm.get()->registerHisto(_h_pT_sm_N);
TH1F * h_pT_sm_S = new TH1F("pT_ss_s","same sign, signal region, south", 2, _pT_bins);
_h_pT_sm_S = new saHist(h_pT_sm_S,saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY |
saHist::FILL_PROPERTY| saHist::CROSSING_CHECKS,Verbosity());
hm.get()->registerHisto(_h_pT_sm_S);
/* TH1F * h_pT_al_os = new TH1F("pT_os_all","opposite sign, all ", 3, _pT_bins);
_h_pT_al_os = new saHist(h_pT_al_os,saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY |
saHist::FILL_PROPERTY| saHist::CROSSING_CHECKS,Verbosity());
hm.get()->registerHisto(_h_pT_al_os);
TH1F * h_pT_al_ss = new TH1F("pT_ss_all","same sign, all ", 3, _pT_bins);
_h_pT_al_ss = new saHist(h_pT_al_ss,saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY |
saHist::FILL_PROPERTY| saHist::CROSSING_CHECKS,Verbosity());
hm.get()->registerHisto(_h_pT_al_ss);
*//*
TH1F * h_MS_os_N = new TH1F("Ms_os_sig_n","opposite sign, north arm",2,_MS_bins);
_h_MS_os_N = new saHist(h_MS_os_N,saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY |
saHist::FILL_PROPERTY| saHist::CROSSING_CHECKS,Verbosity());
hm.get()->registerHisto(_h_MS_os_N);
TH1F * h_MS_os_S = new TH1F("Ms_os_sig_s","opposite sign, south arm",2,_MS_bins);
_h_MS_os_S = new saHist(h_MS_os_S,saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY |
saHist::FILL_PROPERTY| saHist::CROSSING_CHECKS,Verbosity());
hm.get()->registerHisto(_h_MS_os_S);
TH1F * h_MS_sm_N = new TH1F("Ms_ss_n","same sign, north arm",2,_MS_bins);
_h_MS_sm_N = new saHist(h_MS_sm_N,saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY |
saHist::FILL_PROPERTY| saHist::CROSSING_CHECKS,Verbosity());
hm.get()->registerHisto(_h_MS_sm_N);
TH1F * h_MS_sm_S = new TH1F("Ms_ss_s","same sign, south arm",2,_MS_bins);
_h_MS_sm_S = new saHist(h_MS_sm_S,saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY |
saHist::FILL_PROPERTY| saHist::CROSSING_CHECKS,Verbosity());
hm.get()->registerHisto(_h_MS_sm_S);*/
/*
TH1F * h_MS_al_os = new TH1F("Ms_os_all","opposite sign, all",2,4, 8);
_h_MS_al_os = new saHist(h_MS_al_os,saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY |
saHist::FILL_PROPERTY| saHist::CROSSING_CHECKS,Verbosity());
hm.get()->registerHisto(_h_MS_al_os);
TH1F * h_MS_al_ss = new TH1F("Ms_ss_all","same sign, all", 2,4, 8);
_h_MS_al_ss = new saHist(h_MS_al_ss,saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY |
saHist::FILL_PROPERTY| saHist::CROSSING_CHECKS,Verbosity());
hm.get()->registerHisto(_h_MS_al_ss);
*/
//-------------------------------------------------------------------
/* // make a simple histogram //the template histogram, any TH1 and derivatives is accepted
TH1F * h_mass = new TH1F("InvMass", "Invariant Mass;Invariant Mass (GeV)", 2,4, 8);
_h_mass = new saHist(h_mass, saHist::DEFAULT_FLAG | saHist::RUN_PROPERTY |
saHist::FILL_PROPERTY| saHist::CROSSING_CHECKS,Verbosity());
hm.get()->registerHisto(_h_mass);
*/
// make the flag node which is syncronized with cut on picodst_object
PHCompositeNode* dstNode = NULL;
PHNodeIterator nodeItr(topNode);
dstNode = static_cast<PHCompositeNode*>(nodeItr.findFirst("PHCompositeNode","DST"));
if (!dstNode)
{
dstNode = new PHCompositeNode("DST");
topNode->addNode(dstNode);
}
saFlagC *flags = new saFlagC();
if (flags)
{
// make a new flag node called DST/SimpleDimuonFlag
PHIODataNode<PHObject> * node = new PHIODataNode<PHObject>(flags,
"SimpleDimuonFlag", "PHObject");
if (!node)
{
cout
<< "saModuleDimuonDYDarshana::Init failed to create saEventProperty Node"
<< endl;
return ABORTRUN;
}
else
{
dstNode->addNode(node);
cout << "saFlag Node is added with version " << flags->ClassName()
<< " as " << node->getName() << endl;
}
}
else
{
cout << "saModuleDimuonDYDarshana::Init failed to create saEventProperty"
<< endl;
return ABORTRUN;
}
return EVENT_OK;
}
int PHG4SvtxClusterizer::InitRun(PHCompositeNode* topNode) {
// get node containing the digitized hits
_hits = findNode::getClass<SvtxHitMap>(topNode,"SvtxHitMap");
if (!_hits) {
cout << PHWHERE << "ERROR: Can't find node SvtxHitMap" << endl;
return Fun4AllReturnCodes::ABORTRUN;
}
//-----------------
// Add Cluster Node
//-----------------
PHNodeIterator iter(topNode);
// Looking for the DST node
PHCompositeNode *dstNode
= dynamic_cast<PHCompositeNode*>(iter.findFirst("PHCompositeNode","DST"));
if (!dstNode) {
cout << PHWHERE << "DST Node missing, doing nothing." << endl;
return Fun4AllReturnCodes::ABORTRUN;
}
// Create the SVX node if required
PHCompositeNode* svxNode
= dynamic_cast<PHCompositeNode*>(iter.findFirst("PHCompositeNode","SVTX"));
if (!svxNode) {
svxNode = new PHCompositeNode("SVTX");
dstNode->addNode(svxNode);
}
// Create the Cluster node if required
SvtxClusterMap *svxclusters
= findNode::getClass<SvtxClusterMap>(topNode,"SvtxClusterMap");
if (!svxclusters) {
svxclusters = new SvtxClusterMap();
PHIODataNode<PHObject> *SvtxClusterMapNode =
new PHIODataNode<PHObject>(svxclusters, "SvtxClusterMap", "PHObject");
svxNode->addNode(SvtxClusterMapNode);
}
//---------------------
// Calculate Thresholds
//---------------------
CalculateCylinderThresholds(topNode);
CalculateLadderThresholds(topNode);
//----------------
// Report Settings
//----------------
if (verbosity >= 0) {
cout << "====================== PHG4SvtxClusterizer::InitRun() =====================" << endl;
cout << " CVS Version: $Id: PHG4SvtxClusterizer.C,v 1.15 2015/04/21 23:47:09 pinkenbu Exp $" << endl;
cout << " Fraction of expected thickness MIP energy = " << _fraction_of_mip << endl;
for (std::map<int,float>::iterator iter = _thresholds_by_layer.begin();
iter != _thresholds_by_layer.end();
++iter) {
cout << " Cluster Threshold in Layer #" << iter->first << " = " << 1.0e6*iter->second << " keV" << endl;
}
for (std::map<int,bool>::iterator iter = _make_z_clustering.begin();
iter != _make_z_clustering.end();
++iter) {
cout << " Z-dimension Clustering in Layer #" << iter->first << " = " << boolalpha << iter->second << noboolalpha << endl;
}
for (std::map<int,bool>::iterator iter = _make_e_weights.begin();
iter != _make_e_weights.end();
++iter) {
cout << " Energy weighting clusters in Layer #" << iter->first << " = " << boolalpha << iter->second << noboolalpha << endl;
}
cout << "===========================================================================" << endl;
}
return Fun4AllReturnCodes::EVENT_OK;
}
int PHG4TPCClusterizer::process_event(PHCompositeNode* topNode) {
PHNodeIterator iter(topNode);
PHCompositeNode* dstNode =
static_cast<PHCompositeNode*>(iter.findFirst("PHCompositeNode", "DST"));
if (!dstNode) {
cout << PHWHERE << "DST Node missing, doing nothing." << endl;
return Fun4AllReturnCodes::ABORTRUN;
}
PHNodeIterator iter_dst(dstNode);
SvtxHitMap* hits = findNode::getClass<SvtxHitMap>(dstNode, "SvtxHitMap");
if (!hits) {
cout << PHWHERE << "ERROR: Can't find node SvtxHitMap" << endl;
return Fun4AllReturnCodes::ABORTRUN;
}
PHCompositeNode* svxNode =
dynamic_cast<PHCompositeNode*>(iter_dst.findFirst("PHCompositeNode", "SVTX"));
if (!svxNode) {
svxNode = new PHCompositeNode("SVTX");
dstNode->addNode(svxNode);
}
SvtxClusterMap* svxclusters =
findNode::getClass<SvtxClusterMap>(dstNode, "SvtxClusterMap");
if (!svxclusters) {
svxclusters = new SvtxClusterMap_v1();
PHIODataNode<PHObject>* SvtxClusterMapNode =
new PHIODataNode<PHObject>(svxclusters, "SvtxClusterMap", "PHObject");
svxNode->addNode(SvtxClusterMapNode);
}
PHG4CylinderCellGeomContainer* geom_container =
findNode::getClass<PHG4CylinderCellGeomContainer>(topNode,"CYLINDERCELLGEOM_SVTX");
if (!geom_container) return Fun4AllReturnCodes::ABORTRUN;
PHG4CylinderCellContainer* cells = findNode::getClass<PHG4CylinderCellContainer>(dstNode,"G4CELL_SVTX");
if (!cells) return Fun4AllReturnCodes::ABORTRUN;
std::vector<std::vector<const SvtxHit*> > layer_sorted;
PHG4CylinderCellGeomContainer::ConstRange layerrange = geom_container->get_begin_end();
for (PHG4CylinderCellGeomContainer::ConstIterator layeriter = layerrange.first;
layeriter != layerrange.second;
++layeriter) {
// We only need TPC layers here, so skip the layers below _min_layer
// This if statement is needed because although the maps ladder layers are not included in the cylinder cell geom container,
// the cylinder Svx layers are, so they have to be dropped here if they are present
if( (unsigned int) layeriter->second->get_layer() < _min_layer)
continue;
layer_sorted.push_back(std::vector<const SvtxHit*>());
}
for (SvtxHitMap::Iter iter = hits->begin(); iter != hits->end(); ++iter) {
SvtxHit* hit = iter->second;
if( (unsigned int) hit->get_layer() < _min_layer)
continue;
layer_sorted[hit->get_layer() - _min_layer].push_back(hit);
}
for (PHG4CylinderCellGeomContainer::ConstIterator layeriter =
layerrange.first;
layeriter != layerrange.second; ++layeriter) {
unsigned int layer = (unsigned int)layeriter->second->get_layer();
// exit on the MAPS layers...
// needed in case cylinder svtx layers are present
if (layer < _min_layer) continue;
if (layer > _max_layer) continue;
PHG4CylinderCellGeom* geo = geom_container->GetLayerCellGeom(layer);
const int nphibins = layeriter->second->get_phibins();
const int nzbins = layeriter->second->get_zbins();
nhits.clear();
nhits.assign(nzbins, 0);
amps.clear();
amps.assign(nphibins * nzbins, 0.);
cellids.clear();
cellids.assign(nphibins * nzbins, 0);
for (unsigned int i = 0; i < layer_sorted[layer - _min_layer].size(); ++i) {
const SvtxHit* hit = layer_sorted[layer - _min_layer][i];
if (hit->get_e() <= 0.) continue;
PHG4CylinderCell* cell = cells->findCylinderCell(hit->get_cellid());
int phibin = cell->get_binphi();
int zbin = cell->get_binz();
nhits[zbin] += 1;
amps[zbin * nphibins + phibin] += hit->get_e();
cellids[zbin * nphibins + phibin] = hit->get_id();
}
int nhits_tot = 0;
for (int zbin = 0; zbin < nzbins; ++zbin) {
nhits_tot += nhits[zbin];
}
while (nhits_tot > 0) {
for (int zbin = 0; zbin < nzbins; ++zbin) {
if (nhits[zbin] <= 0) continue;
for (int phibin = 0; phibin < nphibins; ++phibin) {
if (is_local_maximum(amps, nphibins, nzbins, phibin, zbin) == false) {
continue;
}
float phi = 0.;
float z = 0.;
float e = 0.;
fit_cluster(amps, nphibins, nzbins, nhits_tot, nhits, phibin, zbin,
geo, phi, z, e);
if ((layer > 2) && (e < energy_cut)) {
continue;
}
SvtxCluster_v1 clus;
clus.set_layer(layer);
clus.set_e(e);
double radius = geo->get_radius() + 0.5*geo->get_thickness();
clus.set_position(0, radius * cos(phi));
clus.set_position(1, radius * sin(phi));
clus.set_position(2, z);
clus.insert_hit(cellids[zbin * nphibins + phibin]);
float invsqrt12 = 1.0/sqrt(12.);
TMatrixF DIM(3,3);
DIM[0][0] = 0.0;//pow(0.0*0.5*thickness,2);
DIM[0][1] = 0.0;
DIM[0][2] = 0.0;
DIM[1][0] = 0.0;
DIM[1][1] = pow(0.5*0.011,2);
DIM[1][2] = 0.0;
DIM[2][0] = 0.0;
DIM[2][1] = 0.0;
DIM[2][2] = pow(0.5*0.03,2);
TMatrixF ERR(3,3);
ERR[0][0] = 0.0;//pow(0.0*0.5*thickness*invsqrt12,2);
ERR[0][1] = 0.0;
ERR[0][2] = 0.0;
ERR[1][0] = 0.0;
ERR[1][1] = pow(0.5*0.011*invsqrt12,2);
ERR[1][2] = 0.0;
ERR[2][0] = 0.0;
ERR[2][1] = 0.0;
ERR[2][2] = pow(0.5*0.03*invsqrt12,2);
TMatrixF ROT(3,3);
ROT[0][0] = cos(phi);
ROT[0][1] = -sin(phi);
ROT[0][2] = 0.0;
ROT[1][0] = sin(phi);
ROT[1][1] = cos(phi);
ROT[1][2] = 0.0;
ROT[2][0] = 0.0;
ROT[2][1] = 0.0;
ROT[2][2] = 1.0;
TMatrixF ROT_T(3,3);
ROT_T.Transpose(ROT);
TMatrixF COVAR_DIM(3,3);
COVAR_DIM = ROT * DIM * ROT_T;
clus.set_size( 0 , 0 , COVAR_DIM[0][0] );
clus.set_size( 0 , 1 , COVAR_DIM[0][1] );
clus.set_size( 0 , 2 , COVAR_DIM[0][2] );
clus.set_size( 1 , 0 , COVAR_DIM[1][0] );
clus.set_size( 1 , 1 , COVAR_DIM[1][1] );
clus.set_size( 1 , 2 , COVAR_DIM[1][2] );
clus.set_size( 2 , 0 , COVAR_DIM[2][0] );
clus.set_size( 2 , 1 , COVAR_DIM[2][1] );
clus.set_size( 2 , 2 , COVAR_DIM[2][2] );
TMatrixF COVAR_ERR(3,3);
COVAR_ERR = ROT * ERR * ROT_T;
clus.set_error( 0 , 0 , COVAR_ERR[0][0] );
clus.set_error( 0 , 1 , COVAR_ERR[0][1] );
clus.set_error( 0 , 2 , COVAR_ERR[0][2] );
clus.set_error( 1 , 0 , COVAR_ERR[1][0] );
clus.set_error( 1 , 1 , COVAR_ERR[1][1] );
clus.set_error( 1 , 2 , COVAR_ERR[1][2] );
clus.set_error( 2 , 0 , COVAR_ERR[2][0] );
clus.set_error( 2 , 1 , COVAR_ERR[2][1] );
clus.set_error( 2 , 2 , COVAR_ERR[2][2] );
svxclusters->insert(&clus);
}
}
}
}
reset();
return Fun4AllReturnCodes::EVENT_OK;
}
