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Definition at line 94 of file SiStripHitEffFromCalibTree.cc.
| SiStripHitEffFromCalibTree::SiStripHitEffFromCalibTree | ( | const edm::ParameterSet & | conf | ) | [explicit] |
Definition at line 139 of file SiStripHitEffFromCalibTree.cc.
References _bunchx, _ResXSig, CalibTreeFilename, doSummary, FileInPath_, edm::FileInPath::fullPath(), edm::ParameterSet::getParameter(), edm::ParameterSet::getUntrackedParameter(), nModsMin, quality_, reader, python::OfflineSiStripConfigDb_cff::SiStripDetInfoFileReader, AlCaHarvesting_cff::SiStripQuality, and threshold.
: ConditionDBWriter<SiStripBadStrip>(conf), FileInPath_("CalibTracker/SiStripCommon/data/SiStripDetInfo.dat") { CalibTreeFilename = conf.getParameter<std::string>("CalibTreeFilename"); threshold = conf.getParameter<double>("Threshold"); nModsMin = conf.getParameter<int>("nModsMin"); doSummary = conf.getParameter<int>("doSummary"); _ResXSig = conf.getUntrackedParameter<double>("ResXSig",-1); _bunchx = conf.getUntrackedParameter<int>("BunchCrossing",0); reader = new SiStripDetInfoFileReader(FileInPath_.fullPath()); quality_ = new SiStripQuality; }
| SiStripHitEffFromCalibTree::~SiStripHitEffFromCalibTree | ( | ) |
Definition at line 154 of file SiStripHitEffFromCalibTree.cc.
{ }
| void SiStripHitEffFromCalibTree::algoAnalyze | ( | const edm::Event & | e, |
| const edm::EventSetup & | c | ||
| ) | [private, virtual] |
Reimplemented from ConditionDBWriter< SiStripBadStrip >.
Definition at line 166 of file SiStripHitEffFromCalibTree.cc.
References _bunchx, _ResXSig, a, accept(), alllayerfound, alllayertotal, CalibTree, CalibTreeFile, CalibTreeFilename, gather_cfg::cout, SiStripBadStrip::decode(), cond::rpcobgas::detid, end, edm::EventID::event(), SiStripQuality::getBadComponentList(), SiStripBadStrip::getDataVectorBegin(), SiStripDetInfoFileReader::getNumberOfApvsAndStripLength(), SiStripBadStrip::getRegistryVectorBegin(), SiStripBadStrip::getRegistryVectorEnd(), goodlayerfound, goodlayertotal, hits, i, edm::EventBase::id(), hit::id, j, gen::k, prof2calltree::l, TIBDetId::layer(), TOBDetId::layer(), edm::EventBase::luminosityBlock(), makeHotColdMaps(), makeSQLite(), makeSummary(), makeTKMap(), modCounter, nevents, nModsMin, quality_, reader, edm::EventID::run(), SetBadComponents(), TIDDetId::side(), TECDetId::side(), DetId::subdetId(), sistripsummary::TEC, threshold, sistripsummary::TIB, sistripsummary::TID, edm::EventBase::time(), sistripsummary::TOB, totalStatistics(), edm::Timestamp::value(), TIDDetId::wheel(), TECDetId::wheel(), hit::x, x, hit::y, detailsBasic3DVector::y, hit::z, and z.
{
//Open the ROOT Calib Tree
CalibTreeFile = TFile::Open(CalibTreeFilename,"READ");
CalibTreeFile->cd("anEff");
CalibTree = (TTree*)(gDirectory->Get("traj")) ;
TLeaf* BadLf = CalibTree->GetLeaf("ModIsBad");
TLeaf* sistripLf = CalibTree->GetLeaf("SiStripQualBad");
TLeaf* idLf = CalibTree->GetLeaf("Id");
TLeaf* acceptLf = CalibTree->GetLeaf("withinAcceptance");
TLeaf* layerLf = CalibTree->GetLeaf("layer");
TLeaf* nHitsLf = CalibTree->GetLeaf("nHits");
TLeaf* xLf = CalibTree->GetLeaf("TrajGlbX");
TLeaf* yLf = CalibTree->GetLeaf("TrajGlbY");
TLeaf* zLf = CalibTree->GetLeaf("TrajGlbZ");
TLeaf* ResXSigLf = CalibTree->GetLeaf("ResXSig");
TLeaf* BunchLf(0);
for(int l=0; l < 35; l++) {
goodlayertotal[l] = 0;
goodlayerfound[l] = 0;
alllayertotal[l] = 0;
alllayerfound[l] = 0;
}
if(_bunchx != 0) {
BunchLf = CalibTree->GetLeaf("bunchx");
}
int nevents = CalibTree->GetEntries();
cout << "Successfully loaded analyze function with " << nevents << " events!\n";
cout << "A module is bad if efficiency < " << threshold << " and has at least " << nModsMin << " nModsMin." << endl;
//Loop through all of the events
for(int j =0; j < nevents; j++) {
CalibTree->GetEvent(j);
unsigned int isBad = (unsigned int)BadLf->GetValue();
unsigned int quality = (unsigned int)sistripLf->GetValue();
unsigned int id = (unsigned int)idLf->GetValue();
unsigned int accept = (unsigned int)acceptLf->GetValue();
unsigned int layer = (unsigned int)layerLf->GetValue();
unsigned int nHits = (unsigned int)nHitsLf->GetValue();
double x = xLf->GetValue();
double y = yLf->GetValue();
double z = zLf->GetValue();
double resxsig = ResXSigLf->GetValue();
bool badquality = false;
if(_bunchx != 0) {
if(_bunchx != BunchLf->GetValue()) continue;
}
//We have two things we want to do, both an XY color plot, and the efficiency measurement
//First, ignore anything that isn't in acceptance and isn't good quality
//if(quality == 1 || accept != 1 || nHits < 8) continue;
if(accept != 1 || nHits < 8) continue;
if(quality == 1) badquality = true;
//Now that we have a good event, we need to look at if we expected it or not, and the location
//if we didn't
//Fill the missing hit information first
bool badflag = false;
if(_ResXSig < 0) {
if(isBad == 1) badflag = true;
}
else {
if(isBad == 1 || resxsig > _ResXSig) badflag = true;
}
if(badflag && !badquality) {
hit temphit;
temphit.x = x;
temphit.y = y;
temphit.z = z;
temphit.id = id;
hits[layer].push_back(temphit);
}
pair<unsigned int, unsigned int> newgoodpair (1,1);
pair<unsigned int, unsigned int> newbadpair (1,0);
//First, figure out if the module already exists in the map of maps
map< unsigned int, pair< unsigned int, unsigned int> >::iterator it = modCounter[layer].find(id);
if(!badquality) {
if(it == modCounter[layer].end()) {
if(badflag) modCounter[layer][id] = newbadpair;
else modCounter[layer][id] = newgoodpair;
}
else {
((*it).second.first)++;
if(!badflag) ((*it).second.second)++;
}
//Have to do the decoding for which side to go on (ugh)
if(layer <= 10) {
if(!badflag) goodlayerfound[layer]++;
goodlayertotal[layer]++;
}
else if(layer > 10 && layer < 14) {
if( ((id>>13)&0x3) == 1) {
if(!badflag) goodlayerfound[layer]++;
goodlayertotal[layer]++;
}
else if( ((id>>13)&0x3) == 2) {
if(!badflag) goodlayerfound[layer+3]++;
goodlayertotal[layer+3]++;
}
}
else if(layer > 13 && layer <= 22) {
if( ((id>>18)&0x3) == 1) {
if(!badflag) goodlayerfound[layer+3]++;
goodlayertotal[layer+3]++;
}
else if( ((id>>18)&0x3) == 2) {
if(!badflag) goodlayerfound[layer+11]++;
goodlayertotal[layer+11]++;
}
}
}
//Do the one where we don't exclude bad modules!
if(layer <= 10) {
if(!badflag) alllayerfound[layer]++;
alllayertotal[layer]++;
}
else if(layer > 10 && layer < 14) {
if( ((id>>13)&0x3) == 1) {
if(!badflag) alllayerfound[layer]++;
alllayertotal[layer]++;
}
else if( ((id>>13)&0x3) == 2) {
if(!badflag) alllayerfound[layer+3]++;
alllayertotal[layer+3]++;
}
}
else if(layer > 13 && layer <= 22) {
if( ((id>>18)&0x3) == 1) {
if(!badflag) alllayerfound[layer+3]++;
alllayertotal[layer+3]++;
}
else if( ((id>>18)&0x3) == 2) {
if(!badflag) alllayerfound[layer+12]++;
alllayertotal[layer+12]++;
}
}
//At this point, both of our maps are loaded with the correct information
}
//CalibTreeFile->Close();
makeHotColdMaps();
makeTKMap();
makeSQLite();
totalStatistics();
makeSummary();
//try to write out what's in the quality record
int NTkBadComponent[4]; //k: 0=BadModule, 1=BadFiber, 2=BadApv, 3=BadStrips
int NBadComponent[4][19][4];
//legend: NBadComponent[i][j][k]= SubSystem i, layer/disk/wheel j, BadModule/Fiber/Apv k
// i: 0=TIB, 1=TID, 2=TOB, 3=TEC
// k: 0=BadModule, 1=BadFiber, 2=BadApv, 3=BadStrips
std::stringstream ssV[4][19];
for(int i=0;i<4;++i){
NTkBadComponent[i]=0;
for(int j=0;j<19;++j){
ssV[i][j].str("");
for(int k=0;k<4;++k)
NBadComponent[i][j][k]=0;
}
}
std::vector<SiStripQuality::BadComponent> BC = quality_->getBadComponentList();
for (size_t i=0;i<BC.size();++i){
//&&&&&&&&&&&&&
//Full Tk
//&&&&&&&&&&&&&
if (BC[i].BadModule)
NTkBadComponent[0]++;
if (BC[i].BadFibers)
NTkBadComponent[1]+= ( (BC[i].BadFibers>>2)&0x1 )+ ( (BC[i].BadFibers>>1)&0x1 ) + ( (BC[i].BadFibers)&0x1 );
if (BC[i].BadApvs)
NTkBadComponent[2]+= ( (BC[i].BadApvs>>5)&0x1 )+ ( (BC[i].BadApvs>>4)&0x1 ) + ( (BC[i].BadApvs>>3)&0x1 ) +
( (BC[i].BadApvs>>2)&0x1 )+ ( (BC[i].BadApvs>>1)&0x1 ) + ( (BC[i].BadApvs)&0x1 );
//&&&&&&&&&&&&&&&&&
//Single SubSystem
//&&&&&&&&&&&&&&&&&
int component;
SiStripDetId a(BC[i].detid);
if ( a.subdetId() == SiStripDetId::TIB ){
//&&&&&&&&&&&&&&&&&
//TIB
//&&&&&&&&&&&&&&&&&
component=TIBDetId(BC[i].detid).layer();
SetBadComponents(0, component, BC[i], ssV, NBadComponent);
} else if ( a.subdetId() == SiStripDetId::TID ) {
//&&&&&&&&&&&&&&&&&
//TID
//&&&&&&&&&&&&&&&&&
component=TIDDetId(BC[i].detid).side()==2?TIDDetId(BC[i].detid).wheel():TIDDetId(BC[i].detid).wheel()+3;
SetBadComponents(1, component, BC[i], ssV, NBadComponent);
} else if ( a.subdetId() == SiStripDetId::TOB ) {
//&&&&&&&&&&&&&&&&&
//TOB
//&&&&&&&&&&&&&&&&&
component=TOBDetId(BC[i].detid).layer();
SetBadComponents(2, component, BC[i], ssV, NBadComponent);
} else if ( a.subdetId() == SiStripDetId::TEC ) {
//&&&&&&&&&&&&&&&&&
//TEC
//&&&&&&&&&&&&&&&&&
component=TECDetId(BC[i].detid).side()==2?TECDetId(BC[i].detid).wheel():TECDetId(BC[i].detid).wheel()+9;
SetBadComponents(3, component, BC[i], ssV, NBadComponent);
}
}
//&&&&&&&&&&&&&&&&&&
// Single Strip Info
//&&&&&&&&&&&&&&&&&&
float percentage=0;
SiStripQuality::RegistryIterator rbegin = quality_->getRegistryVectorBegin();
SiStripQuality::RegistryIterator rend = quality_->getRegistryVectorEnd();
for (SiStripBadStrip::RegistryIterator rp=rbegin; rp != rend; ++rp) {
unsigned int detid=rp->detid;
int subdet=-999; int component=-999;
SiStripDetId a(detid);
if ( a.subdetId() == 3 ){
subdet=0;
component=TIBDetId(detid).layer();
} else if ( a.subdetId() == 4 ) {
subdet=1;
component=TIDDetId(detid).side()==2?TIDDetId(detid).wheel():TIDDetId(detid).wheel()+3;
} else if ( a.subdetId() == 5 ) {
subdet=2;
component=TOBDetId(detid).layer();
} else if ( a.subdetId() == 6 ) {
subdet=3;
component=TECDetId(detid).side()==2?TECDetId(detid).wheel():TECDetId(detid).wheel()+9;
}
SiStripQuality::Range sqrange = SiStripQuality::Range( quality_->getDataVectorBegin()+rp->ibegin , quality_->getDataVectorBegin()+rp->iend );
percentage=0;
for(int it=0;it<sqrange.second-sqrange.first;it++){
unsigned int range=quality_->decode( *(sqrange.first+it) ).range;
NTkBadComponent[3]+=range;
NBadComponent[subdet][0][3]+=range;
NBadComponent[subdet][component][3]+=range;
percentage+=range;
}
if(percentage!=0)
percentage/=128.*reader->getNumberOfApvsAndStripLength(detid).first;
if(percentage>1)
edm::LogError("SiStripQualityStatistics") << "PROBLEM detid " << detid << " value " << percentage<< std::endl;
}
//&&&&&&&&&&&&&&&&&&
// printout
//&&&&&&&&&&&&&&&&&&
cout << "\n-----------------\nNew IOV starting from run " << e.id().run() << " event " << e.id().event() << " lumiBlock " << e.luminosityBlock() << " time " << e.time().value() << "\n-----------------\n";
cout << "\n-----------------\nGlobal Info\n-----------------";
cout << "\nBadComponent \t Modules \tFibers \tApvs\tStrips\n----------------------------------------------------------------";
cout << "\nTracker:\t\t"<<NTkBadComponent[0]<<"\t"<<NTkBadComponent[1]<<"\t"<<NTkBadComponent[2]<<"\t"<<NTkBadComponent[3];
cout << endl;
cout << "\nTIB:\t\t\t"<<NBadComponent[0][0][0]<<"\t"<<NBadComponent[0][0][1]<<"\t"<<NBadComponent[0][0][2]<<"\t"<<NBadComponent[0][0][3];
cout << "\nTID:\t\t\t"<<NBadComponent[1][0][0]<<"\t"<<NBadComponent[1][0][1]<<"\t"<<NBadComponent[1][0][2]<<"\t"<<NBadComponent[1][0][3];
cout << "\nTOB:\t\t\t"<<NBadComponent[2][0][0]<<"\t"<<NBadComponent[2][0][1]<<"\t"<<NBadComponent[2][0][2]<<"\t"<<NBadComponent[2][0][3];
cout << "\nTEC:\t\t\t"<<NBadComponent[3][0][0]<<"\t"<<NBadComponent[3][0][1]<<"\t"<<NBadComponent[3][0][2]<<"\t"<<NBadComponent[3][0][3];
cout << "\n";
for (int i=1;i<5;++i)
cout << "\nTIB Layer " << i << " :\t\t"<<NBadComponent[0][i][0]<<"\t"<<NBadComponent[0][i][1]<<"\t"<<NBadComponent[0][i][2]<<"\t"<<NBadComponent[0][i][3];
cout << "\n";
for (int i=1;i<4;++i)
cout << "\nTID+ Disk " << i << " :\t\t"<<NBadComponent[1][i][0]<<"\t"<<NBadComponent[1][i][1]<<"\t"<<NBadComponent[1][i][2]<<"\t"<<NBadComponent[1][i][3];
for (int i=4;i<7;++i)
cout << "\nTID- Disk " << i-3 << " :\t\t"<<NBadComponent[1][i][0]<<"\t"<<NBadComponent[1][i][1]<<"\t"<<NBadComponent[1][i][2]<<"\t"<<NBadComponent[1][i][3];
cout << "\n";
for (int i=1;i<7;++i)
cout << "\nTOB Layer " << i << " :\t\t"<<NBadComponent[2][i][0]<<"\t"<<NBadComponent[2][i][1]<<"\t"<<NBadComponent[2][i][2]<<"\t"<<NBadComponent[2][i][3];
cout << "\n";
for (int i=1;i<10;++i)
cout << "\nTEC+ Disk " << i << " :\t\t"<<NBadComponent[3][i][0]<<"\t"<<NBadComponent[3][i][1]<<"\t"<<NBadComponent[3][i][2]<<"\t"<<NBadComponent[3][i][3];
for (int i=10;i<19;++i)
cout << "\nTEC- Disk " << i-9 << " :\t\t"<<NBadComponent[3][i][0]<<"\t"<<NBadComponent[3][i][1]<<"\t"<<NBadComponent[3][i][2]<<"\t"<<NBadComponent[3][i][3];
cout << "\n";
cout << "\n----------------------------------------------------------------\n\t\t Detid \tModules Fibers Apvs\n----------------------------------------------------------------";
for (int i=1;i<5;++i)
cout << "\nTIB Layer " << i << " :" << ssV[0][i].str();
cout << "\n";
for (int i=1;i<4;++i)
cout << "\nTID+ Disk " << i << " :" << ssV[1][i].str();
for (int i=4;i<7;++i)
cout << "\nTID- Disk " << i-3 << " :" << ssV[1][i].str();
cout << "\n";
for (int i=1;i<7;++i)
cout << "\nTOB Layer " << i << " :" << ssV[2][i].str();
cout << "\n";
for (int i=1;i<10;++i)
cout << "\nTEC+ Disk " << i << " :" << ssV[3][i].str();
for (int i=10;i<19;++i)
cout << "\nTEC- Disk " << i-9 << " :" << ssV[3][i].str();
}
| void SiStripHitEffFromCalibTree::algoBeginJob | ( | ) | [private, virtual] |
Definition at line 156 of file SiStripHitEffFromCalibTree.cc.
{
//I have no idea what goes here
//fs->make<TTree>("HitEffHistos","Tree of the inefficient hit histograms");
}
| void SiStripHitEffFromCalibTree::algoEndJob | ( | ) | [private, virtual] |
Reimplemented from ConditionDBWriter< SiStripBadStrip >.
Definition at line 161 of file SiStripHitEffFromCalibTree.cc.
{
//Still have no idea what goes here
}
| float SiStripHitEffFromCalibTree::calcPhi | ( | float | x, |
| float | y | ||
| ) | [private] |
Definition at line 838 of file SiStripHitEffFromCalibTree.cc.
Referenced by makeHotColdMaps().
| SiStripBadStrip * SiStripHitEffFromCalibTree::getNewObject | ( | ) | [private, virtual] |
Implements ConditionDBWriter< SiStripBadStrip >.
Definition at line 821 of file SiStripHitEffFromCalibTree.cc.
References SiStripBadStrip::getDataVectorBegin(), SiStripBadStrip::getRegistryVectorBegin(), SiStripBadStrip::getRegistryVectorEnd(), VarParsing::obj, SiStripBadStrip::put(), and quality_.
{
//Need this for a Condition DB Writer
//Initialize a return variable
SiStripBadStrip* obj=new SiStripBadStrip();
SiStripBadStrip::RegistryIterator rIter=quality_->getRegistryVectorBegin();
SiStripBadStrip::RegistryIterator rIterEnd=quality_->getRegistryVectorEnd();
for(;rIter!=rIterEnd;++rIter){
SiStripBadStrip::Range range(quality_->getDataVectorBegin()+rIter->ibegin,quality_->getDataVectorBegin()+rIter->iend);
if ( ! obj->put(rIter->detid,range) )
edm::LogError("SiStripHitEffFromCalibTree")<<"[SiStripHitEffFromCalibTree::getNewObject] detid already exists"<<std::endl;
}
return obj;
}
| void SiStripHitEffFromCalibTree::makeHotColdMaps | ( | ) | [private] |
Definition at line 480 of file SiStripHitEffFromCalibTree.cc.
References begin, calcPhi(), gather_cfg::cout, fs, hits, HotColdMaps, and phi.
Referenced by algoAnalyze().
{
cout << "Entering hot cold map generation!\n";
TStyle* gStyle = new TStyle("gStyle","myStyle");
gStyle->cd();
gStyle->SetPalette(1);
gStyle->SetCanvasColor(kWhite);
gStyle->SetOptStat(0);
//Here we make the hot/cold color maps that we love so very much
//Already have access to the data as a private variable
//Create all of the histograms in the TFileService
TH2F *temph2;
for(Long_t maplayer = 1; maplayer <=22; maplayer++) {
//Initialize all of the histograms
if(maplayer > 0 && maplayer <= 4) {
//We are in the TIB
temph2 = fs->make<TH2F>(Form("%s%i","TIB",(int)(maplayer)),"TIB",100,-1,361,100,-100,100);
temph2->GetXaxis()->SetTitle("Phi");
temph2->GetXaxis()->SetBinLabel(1,TString("360"));
temph2->GetXaxis()->SetBinLabel(50,TString("180"));
temph2->GetXaxis()->SetBinLabel(100,TString("0"));
temph2->GetYaxis()->SetTitle("Global Z");
temph2->SetOption("colz");
HotColdMaps.push_back(temph2);
}
else if(maplayer > 4 && maplayer <= 10) {
//We are in the TOB
temph2 = fs->make<TH2F>(Form("%s%i","TOB",(int)(maplayer-4)),"TOB",100,-1,361,100,-120,120);
temph2->GetXaxis()->SetTitle("Phi");
temph2->GetXaxis()->SetBinLabel(1,TString("360"));
temph2->GetXaxis()->SetBinLabel(50,TString("180"));
temph2->GetXaxis()->SetBinLabel(100,TString("0"));
temph2->GetYaxis()->SetTitle("Global Z");
temph2->SetOption("colz");
HotColdMaps.push_back(temph2);
}
else if(maplayer > 10 && maplayer <= 13) {
//We are in the TID
//Split by +/-
temph2 = fs->make<TH2F>(Form("%s%i","TID-",(int)(maplayer-10)),"TID-",100,-100,100,100,-100,100);
temph2->GetXaxis()->SetTitle("Global Y");
temph2->GetXaxis()->SetBinLabel(1,TString("+Y"));
temph2->GetXaxis()->SetBinLabel(50,TString("0"));
temph2->GetXaxis()->SetBinLabel(100,TString("-Y"));
temph2->GetYaxis()->SetTitle("Global X");
temph2->GetYaxis()->SetBinLabel(1,TString("-X"));
temph2->GetYaxis()->SetBinLabel(50,TString("0"));
temph2->GetYaxis()->SetBinLabel(100,TString("+X"));
temph2->SetOption("colz");
HotColdMaps.push_back(temph2);
temph2 = fs->make<TH2F>(Form("%s%i","TID+",(int)(maplayer-10)),"TID+",100,-100,100,100,-100,100);
temph2->GetXaxis()->SetTitle("Global Y");
temph2->GetXaxis()->SetBinLabel(1,TString("+Y"));
temph2->GetXaxis()->SetBinLabel(50,TString("0"));
temph2->GetXaxis()->SetBinLabel(100,TString("-Y"));
temph2->GetYaxis()->SetTitle("Global X");
temph2->GetYaxis()->SetBinLabel(1,TString("-X"));
temph2->GetYaxis()->SetBinLabel(50,TString("0"));
temph2->GetYaxis()->SetBinLabel(100,TString("+X"));
temph2->SetOption("colz");
HotColdMaps.push_back(temph2);
}
else if(maplayer > 13) {
//We are in the TEC
//Split by +/-
temph2 = fs->make<TH2F>(Form("%s%i","TEC-",(int)(maplayer-13)),"TEC-",100,-120,120,100,-120,120);
temph2->GetXaxis()->SetTitle("Global Y");
temph2->GetXaxis()->SetBinLabel(1,TString("+Y"));
temph2->GetXaxis()->SetBinLabel(50,TString("0"));
temph2->GetXaxis()->SetBinLabel(100,TString("-Y"));
temph2->GetYaxis()->SetTitle("Global X");
temph2->GetYaxis()->SetBinLabel(1,TString("-X"));
temph2->GetYaxis()->SetBinLabel(50,TString("0"));
temph2->GetYaxis()->SetBinLabel(100,TString("+X"));
temph2->SetOption("colz");
HotColdMaps.push_back(temph2);
temph2 = fs->make<TH2F>(Form("%s%i","TEC+",(int)(maplayer-13)),"TEC+",100,-120,120,100,-120,120);
temph2->GetXaxis()->SetTitle("Global Y");
temph2->GetXaxis()->SetBinLabel(1,TString("+Y"));
temph2->GetXaxis()->SetBinLabel(50,TString("0"));
temph2->GetXaxis()->SetBinLabel(100,TString("-Y"));
temph2->GetYaxis()->SetTitle("Global X");
temph2->GetYaxis()->SetBinLabel(1,TString("-X"));
temph2->GetYaxis()->SetBinLabel(50,TString("0"));
temph2->GetYaxis()->SetBinLabel(100,TString("+X"));
temph2->SetOption("colz");
HotColdMaps.push_back(temph2);
}
}
for(Long_t mylayer = 1; mylayer <= 22; mylayer++) {
//Determine what kind of plot we want to write out
//Loop through the entirety of each layer
//Create an array of the histograms
vector<hit>::const_iterator iter;
for(iter = hits[mylayer].begin(); iter != hits[mylayer].end(); iter++) {
//Looping over the particular layer
//Fill by 360-x to get the proper location to compare with TKMaps of phi
//Also global xy is messed up
if(mylayer > 0 && mylayer <= 4) {
//We are in the TIB
float phi = calcPhi(iter->x, iter->y);
HotColdMaps[mylayer - 1]->Fill(360.-phi,iter->z,1.);
}
else if(mylayer > 4 && mylayer <= 10) {
//We are in the TOB
float phi = calcPhi(iter->x,iter->y);
HotColdMaps[mylayer - 1]->Fill(360.-phi,iter->z,1.);
}
else if(mylayer > 10 && mylayer <= 13) {
//We are in the TID
//There are 2 different maps here
int side = (((iter->id)>>13) & 0x3);
if(side == 1) HotColdMaps[(mylayer - 1) + (mylayer - 11)]->Fill(-iter->y,iter->x,1.);
else if(side == 2) HotColdMaps[(mylayer - 1) + (mylayer - 10)]->Fill(-iter->y,iter->x,1.);
//if(side == 1) HotColdMaps[(mylayer - 1) + (mylayer - 11)]->Fill(iter->x,iter->y,1.);
//else if(side == 2) HotColdMaps[(mylayer - 1) + (mylayer - 10)]->Fill(iter->x,iter->y,1.);
}
else if(mylayer > 13) {
//We are in the TEC
//There are 2 different maps here
int side = (((iter->id)>>18) & 0x3);
if(side == 1) HotColdMaps[(mylayer + 2) + (mylayer - 14)]->Fill(-iter->y,iter->x,1.);
else if(side == 2) HotColdMaps[(mylayer + 2) + (mylayer - 13)]->Fill(-iter->y,iter->x,1.);
//if(side == 1) HotColdMaps[(mylayer + 2) + (mylayer - 14)]->Fill(iter->x,iter->y,1.);
//else if(side == 2) HotColdMaps[(mylayer + 2) + (mylayer - 13)]->Fill(iter->x,iter->y,1.);
}
}
}
cout << "Finished HotCold Map Generation\n";
}
| void SiStripHitEffFromCalibTree::makeSQLite | ( | ) | [private] |
Definition at line 654 of file SiStripHitEffFromCalibTree.cc.
References BadModules, SiStripQuality::compact(), gather_cfg::cout, SiStripBadStrip::encode(), SiStripQuality::fillBadComponents(), SiStripDetInfoFileReader::getNumberOfApvsAndStripLength(), SiStripBadStrip::put(), quality_, reader, and AlCaHarvesting_cff::SiStripQuality.
Referenced by algoAnalyze().
{
//Generate the SQLite file for use in the Database of the bad modules!
cout << "Entering SQLite file generation!\n";
std::vector<unsigned int> BadStripList;
unsigned short NStrips;
unsigned int id1;
SiStripQuality* pQuality = new SiStripQuality;
//This is the list of the bad strips, use to mask out entire APVs
//Now simply go through the bad hit list and mask out things that
//are bad!
map< unsigned int, double >::const_iterator it;
for(it = BadModules.begin(); it != BadModules.end(); it++) {
//We need to figure out how many strips are in this particular module
//To Mask correctly!
NStrips=reader->getNumberOfApvsAndStripLength((*it).first).first*128;
cout << "Number of strips module " << (*it).first << " is " << NStrips << endl;
BadStripList.push_back(pQuality->encode(0,NStrips,0));
//Now compact into a single bad module
id1=(unsigned int)(*it).first;
cout << "ID1 shoudl match list of modules above " << id1 << endl;
quality_->compact(id1,BadStripList);
SiStripQuality::Range range(BadStripList.begin(),BadStripList.end());
quality_->put(id1,range);
BadStripList.clear();
}
//Fill all the bad components now
quality_->fillBadComponents();
}
| void SiStripHitEffFromCalibTree::makeSummary | ( | ) | [private] |
Definition at line 697 of file SiStripHitEffFromCalibTree.cc.
References cond::ecalcond::all, alllayerfound, alllayertotal, gather_cfg::cout, newFWLiteAna::found, fs, goodlayerfound, goodlayertotal, i, j, gen::k, and label.
Referenced by algoAnalyze().
{
//setTDRStyle();
int nLayers = 34;
TH1F *found = fs->make<TH1F>("found","found",nLayers+1,0,nLayers+1);
TH1F *all = fs->make<TH1F>("all","all",nLayers+1,0,nLayers+1);
TH1F *found2 = fs->make<TH1F>("found2","found2",nLayers+1,0,nLayers+1);
TH1F *all2 = fs->make<TH1F>("all2","all2",nLayers+1,0,nLayers+1);
// first bin only to keep real data off the y axis so set to -1
found->SetBinContent(0,-1);
all->SetBinContent(0,1);
TCanvas *c7 =new TCanvas("c7"," test ",10,10,800,600);
c7->SetFillColor(0);
c7->SetGrid();
for (Long_t i=1; i< nLayers+1; ++i) {
if (i==10) i++;
if (i==25) i++;
if (i==34) break;
cout << "Fill only good modules layer " << i << ": S = " << goodlayerfound[i] << " B = " << goodlayertotal[i] << endl;
if (goodlayertotal[i] > 5) {
found->SetBinContent(i,goodlayerfound[i]);
all->SetBinContent(i,goodlayertotal[i]);
} else {
found->SetBinContent(i,0);
all->SetBinContent(i,10);
}
cout << "Filling all modules layer " << i << ": S = " << alllayerfound[i] << " B = " << alllayertotal[i] << endl;
if (alllayertotal[i] > 5) {
found2->SetBinContent(i,alllayerfound[i]);
all2->SetBinContent(i,alllayertotal[i]);
} else {
found2->SetBinContent(i,0);
all2->SetBinContent(i,10);
}
}
found->Sumw2();
all->Sumw2();
found2->Sumw2();
all2->Sumw2();
TGraphAsymmErrors *gr = new TGraphAsymmErrors(nLayers+1);
gr->BayesDivide(found,all);
TGraphAsymmErrors *gr2 = new TGraphAsymmErrors(nLayers+1);
gr2->BayesDivide(found2,all2);
for(int j = 0; j<nLayers+1; j++){
gr->SetPointError(j, 0., 0., gr->GetErrorYlow(j),gr->GetErrorYhigh(j) );
gr2->SetPointError(j, 0., 0., gr2->GetErrorYlow(j),gr2->GetErrorYhigh(j) );
}
gr->GetXaxis()->SetLimits(0,nLayers);
gr->SetMarkerColor(2);
gr->SetMarkerSize(1.2);
gr->SetLineColor(2);
gr->SetLineWidth(4);
gr->SetMarkerStyle(20);
gr->SetMinimum(0.90);
gr->SetMaximum(1.001);
gr->GetYaxis()->SetTitle("Efficiency");
gr2->GetXaxis()->SetLimits(0,nLayers);
gr2->SetMarkerColor(1);
gr2->SetMarkerSize(1.2);
gr2->SetLineColor(1);
gr2->SetLineWidth(4);
gr2->SetMarkerStyle(21);
gr2->SetMinimum(0.90);
gr2->SetMaximum(1.001);
gr2->GetYaxis()->SetTitle("Efficiency");
//cout << "starting labels" << endl;
//for ( int k=1; k<nLayers+1; k++) {
for ( Long_t k=1; k<nLayers+1; k++) {
if (k==10) k++;
if (k==25) k++;
if (k==34) break;
TString label;
if (k<5) {
label = TString("TIB ") + k;
} else if (k>4&&k<11) {
label = TString("TOB ")+(k-4);
} else if (k>10&&k<14) {
label = TString("TID- ")+(k-10);
} else if (k>13&&k<17) {
label = TString("TID+ ")+(k-13);
} else if (k>16&&k<26) {
label = TString("TEC- ")+(k-16);
} else if (k>25) {
label = TString("TEC+ ")+(k-25);
}
gr->GetXaxis()->SetBinLabel(((k+1)*100)/(nLayers)-2,label);
gr2->GetXaxis()->SetBinLabel(((k+1)*100)/(nLayers)-2,label);
}
gr->Draw("AP");
gr->GetXaxis()->SetNdivisions(36);
c7->cd();
TPad *overlay = new TPad("overlay","",0,0,1,1);
overlay->SetFillStyle(4000);
overlay->SetFillColor(0);
overlay->SetFrameFillStyle(4000);
overlay->Draw("same");
overlay->cd();
gr2->Draw("AP");
TLegend *leg = new TLegend(0.70,0.20,0.92,0.39);
leg->AddEntry(gr,"Good Modules","p");
leg->AddEntry(gr2,"All Modules","p");
leg->SetTextSize(0.020);
leg->SetFillColor(0);
leg->Draw("same");
c7->SaveAs("Summary.png");
}
| void SiStripHitEffFromCalibTree::makeTKMap | ( | ) | [private] |
Definition at line 610 of file SiStripHitEffFromCalibTree.cc.
References BadModules, begin, gather_cfg::cout, TrackerMap::fill(), TrackerMap::fillc(), first, i, layerfound, layertotal, modCounter, nModsMin, TrackerMap::save(), edm::second(), threshold, tkmap, and tkmapbad.
Referenced by algoAnalyze().
{
cout << "Entering TKMap generation!\n";
tkmap = new TrackerMap(" Detector Inefficiency ");
tkmapbad = new TrackerMap(" Inefficient Modules ");
for(Long_t i = 1; i <= 22; i++) {
layertotal[i] = 0;
layerfound[i] = 0;
//Loop over every layer, extracting the information from
//the map of the efficiencies
map<unsigned int, pair<unsigned int, unsigned int> >::const_iterator ih;
for( ih = modCounter[i].begin(); ih != modCounter[i].end(); ih++) {
//We should be in the layer in question, and looping over all of the modules in said layer
//Generate the list for the TKmap, and the bad module list
double myeff = (double)(((*ih).second).second)/(((*ih).second).first);
if ( ((((*ih).second).first) >= nModsMin) && (myeff < threshold) ) {
//We have a bad module, put it in the list!
BadModules[(*ih).first] = myeff;
tkmapbad->fillc((*ih).first,255,0,0);
cout << "Layer " << i << " module " << (*ih).first << " efficiency " << myeff << " " << (((*ih).second).second) << "/" << (((*ih).second).first) << endl;
}
else {
//Fill the bad list with empty results for every module
tkmapbad->fillc((*ih).first,255,255,255);
}
if((((*ih).second).first) < 100 ) {
cout << "Module " << (*ih).first << " layer " << i << " is under occupancy at " << (((*ih).second).first) << endl;
}
//Put any module into the TKMap
//Should call module ID, and then 1- efficiency for that module
//if((*ih).first == 369137820) {
// cout << "Module 369137820 has 1-eff of " << 1.-myeff << endl;
//cout << "Which is " << ((*ih).second).second << "/" << ((*ih).second).first << endl;
//}
tkmap->fill((*ih).first,1.-myeff);
//Find the total number of hits in the module
layertotal[i] += int(((*ih).second).first);
layerfound[i] += int(((*ih).second).second);
}
}
tkmap->save(true, 0, 0, "SiStripHitEffTKMap.png");
tkmapbad->save(true, 0, 0, "SiStripHitEffTKMapBad.png");
cout << "Finished TKMap Generation\n";
}
| void SiStripHitEffFromCalibTree::SetBadComponents | ( | int | i, |
| int | component, | ||
| SiStripQuality::BadComponent & | BC, | ||
| std::stringstream | ssV[4][19], | ||
| int | NBadComponent[4][19][4] | ||
| ) | [private] |
Definition at line 850 of file SiStripHitEffFromCalibTree.cc.
References SiStripQuality::BadComponent::BadApvs, SiStripQuality::BadComponent::BadFibers, SiStripQuality::BadComponent::BadModule, SiStripQuality::BadComponent::detid, SiStripDetInfoFileReader::getNumberOfApvsAndStripLength(), i, and reader.
Referenced by algoAnalyze().
{
int napv=reader->getNumberOfApvsAndStripLength(BC.detid).first;
ssV[i][component] << "\n\t\t "
<< BC.detid
<< " \t " << BC.BadModule << " \t "
<< ( (BC.BadFibers)&0x1 ) << " ";
if (napv==4)
ssV[i][component] << "x " <<( (BC.BadFibers>>1)&0x1 );
if (napv==6)
ssV[i][component] << ( (BC.BadFibers>>1)&0x1 ) << " "
<< ( (BC.BadFibers>>2)&0x1 );
ssV[i][component] << " \t "
<< ( (BC.BadApvs)&0x1 ) << " "
<< ( (BC.BadApvs>>1)&0x1 ) << " ";
if (napv==4)
ssV[i][component] << "x x " << ( (BC.BadApvs>>2)&0x1 ) << " "
<< ( (BC.BadApvs>>3)&0x1 );
if (napv==6)
ssV[i][component] << ( (BC.BadApvs>>2)&0x1 ) << " "
<< ( (BC.BadApvs>>3)&0x1 ) << " "
<< ( (BC.BadApvs>>4)&0x1 ) << " "
<< ( (BC.BadApvs>>5)&0x1 ) << " ";
if (BC.BadApvs){
NBadComponent[i][0][2]+= ( (BC.BadApvs>>5)&0x1 )+ ( (BC.BadApvs>>4)&0x1 ) + ( (BC.BadApvs>>3)&0x1 ) +
( (BC.BadApvs>>2)&0x1 )+ ( (BC.BadApvs>>1)&0x1 ) + ( (BC.BadApvs)&0x1 );
NBadComponent[i][component][2]+= ( (BC.BadApvs>>5)&0x1 )+ ( (BC.BadApvs>>4)&0x1 ) + ( (BC.BadApvs>>3)&0x1 ) +
( (BC.BadApvs>>2)&0x1 )+ ( (BC.BadApvs>>1)&0x1 ) + ( (BC.BadApvs)&0x1 );
}
if (BC.BadFibers){
NBadComponent[i][0][1]+= ( (BC.BadFibers>>2)&0x1 )+ ( (BC.BadFibers>>1)&0x1 ) + ( (BC.BadFibers)&0x1 );
NBadComponent[i][component][1]+= ( (BC.BadFibers>>2)&0x1 )+ ( (BC.BadFibers>>1)&0x1 ) + ( (BC.BadFibers)&0x1 );
}
if (BC.BadModule){
NBadComponent[i][0][0]++;
NBadComponent[i][component][0]++;
}
}
| void SiStripHitEffFromCalibTree::totalStatistics | ( | ) | [private] |
Definition at line 683 of file SiStripHitEffFromCalibTree.cc.
References gather_cfg::cout, i, layerfound, and layertotal.
Referenced by algoAnalyze().
{
//Calculate the statistics by layer
int totalfound = 0;
int totaltotal = 0;
double layereff;
for(Long_t i=1; i<=22; i++) {
layereff = double(layerfound[i])/double(layertotal[i]);
cout << "Layer " << i << " has total efficiency " << layereff << " " << layerfound[i] << "/" << layertotal[i] << endl;
totalfound += layerfound[i];
totaltotal += layertotal[i];
}
cout << "The total efficiency is " << double(totalfound)/double(totaltotal) << endl;
}
unsigned int SiStripHitEffFromCalibTree::_bunchx [private] |
Definition at line 124 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze(), and SiStripHitEffFromCalibTree().
float SiStripHitEffFromCalibTree::_ResXSig [private] |
Definition at line 123 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze(), and SiStripHitEffFromCalibTree().
int SiStripHitEffFromCalibTree::alllayerfound[35] [private] |
Definition at line 135 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze(), and makeSummary().
int SiStripHitEffFromCalibTree::alllayertotal[35] [private] |
Definition at line 134 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze(), and makeSummary().
map< unsigned int, double > SiStripHitEffFromCalibTree::BadModules [private] |
Definition at line 136 of file SiStripHitEffFromCalibTree.cc.
Referenced by makeSQLite(), and makeTKMap().
TTree* SiStripHitEffFromCalibTree::CalibTree [private] |
Definition at line 118 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze().
TFile* SiStripHitEffFromCalibTree::CalibTreeFile [private] |
Definition at line 117 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze().
TString SiStripHitEffFromCalibTree::CalibTreeFilename [private] |
Definition at line 119 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze(), and SiStripHitEffFromCalibTree().
unsigned int SiStripHitEffFromCalibTree::doSummary [private] |
Definition at line 122 of file SiStripHitEffFromCalibTree.cc.
Referenced by SiStripHitEffFromCalibTree().
Definition at line 113 of file SiStripHitEffFromCalibTree.cc.
Referenced by SiStripHitEffFromCalibTree().
Definition at line 111 of file SiStripHitEffFromCalibTree.cc.
Referenced by makeHotColdMaps(), and makeSummary().
int SiStripHitEffFromCalibTree::goodlayerfound[35] [private] |
Definition at line 133 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze(), and makeSummary().
int SiStripHitEffFromCalibTree::goodlayertotal[35] [private] |
Definition at line 132 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze(), and makeSummary().
vector<hit> SiStripHitEffFromCalibTree::hits[23] [private] |
Definition at line 125 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze(), and makeHotColdMaps().
vector<TH2F*> SiStripHitEffFromCalibTree::HotColdMaps [private] |
Definition at line 126 of file SiStripHitEffFromCalibTree.cc.
Referenced by makeHotColdMaps().
int SiStripHitEffFromCalibTree::layerfound[23] [private] |
Definition at line 130 of file SiStripHitEffFromCalibTree.cc.
Referenced by makeTKMap(), and totalStatistics().
int SiStripHitEffFromCalibTree::layertotal[23] [private] |
Definition at line 131 of file SiStripHitEffFromCalibTree.cc.
Referenced by makeTKMap(), and totalStatistics().
map< unsigned int, pair< unsigned int, unsigned int> > SiStripHitEffFromCalibTree::modCounter[23] [private] |
Definition at line 127 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze(), and makeTKMap().
unsigned int SiStripHitEffFromCalibTree::nModsMin [private] |
Definition at line 121 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze(), makeTKMap(), and SiStripHitEffFromCalibTree().
Definition at line 114 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze(), getNewObject(), makeSQLite(), and SiStripHitEffFromCalibTree().
Definition at line 112 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze(), makeSQLite(), SetBadComponents(), and SiStripHitEffFromCalibTree().
float SiStripHitEffFromCalibTree::threshold [private] |
Definition at line 120 of file SiStripHitEffFromCalibTree.cc.
Referenced by algoAnalyze(), makeTKMap(), and SiStripHitEffFromCalibTree().
TrackerMap* SiStripHitEffFromCalibTree::tkmap [private] |
Definition at line 128 of file SiStripHitEffFromCalibTree.cc.
Referenced by makeTKMap().
TrackerMap* SiStripHitEffFromCalibTree::tkmapbad [private] |
Definition at line 129 of file SiStripHitEffFromCalibTree.cc.
Referenced by makeTKMap().
1.7.3