Newer
Older
// timeAtFP[itrack] = 0.;
Double_t sumFPTime = 0.; // Line 138
fNScinHit.push_back(0);
//! Calculate all corrected hit times and histogram
//! This uses a copy of code below. Results are save in time_pos,neg
//! including the z-pos. correction assuming nominal value of betap
//! Code is currently hard-wired to look for a peak in the
//! range of 0 to 100 nsec, with a group of times that all
//! agree withing a time_tolerance of time_tolerance nsec. The normal
//! peak position appears to be around 35 nsec.
//! NOTE: if want to find particles with beta different than
//! reference particle, need to make sure this is big enough
//! to accomodate difference in TOF for other particles
//! Default value in case user hasnt defined something reasonable
// Loop over scintillator planes.
// In ENGINE, its loop over good scintillator hits.
fTOFCalc.clear(); // SAW - Can we
fTOFPInfo.clear(); // SAW - combine these two?
Int_t ihhit = 0; // Hit # overall
for(Int_t ip = 0; ip < fNumPlanesBetaCalc; ip++ ) {
std::vector<GoodFlags> goodflagstmp2;
fGoodFlags[itrack].push_back(goodflagstmp2);
TClonesArray* hodoHits = fPlanes[ip]->GetHits();
Double_t zPos = fPlanes[ip]->GetZpos();
Double_t dzPos = fPlanes[ip]->GetDzpos();
// first loop over hits with in a single plane
for (Int_t iphit = 0; iphit < fNScinHits[ip]; iphit++ ){
// iphit is hit # within a plane
THcHodoHit *hit = (THcHodoHit*)hodoHits->At(iphit);
fTOFPInfo.push_back(TOFPInfo());
// Can remove these as we will initialize in the constructor
// fTOFPInfo[ihhit].time_pos = -99.0;
// fTOFPInfo[ihhit].time_neg = -99.0;
// fTOFPInfo[ihhit].keep_pos = kFALSE;
// fTOFPInfo[ihhit].keep_neg = kFALSE;
fTOFPInfo[ihhit].scin_pos_time = 0.0;
fTOFPInfo[ihhit].scin_neg_time = 0.0;
fTOFPInfo[ihhit].hit = hit;
fTOFPInfo[ihhit].planeIndex = ip;
fTOFPInfo[ihhit].hitNumInPlane = iphit;
fTOFPInfo[ihhit].onTrack = kFALSE;
Int_t paddle = hit->GetPaddleNumber()-1;
Double_t zposition = zPos + (paddle%2)*dzPos;
Double_t xHitCoord = theTrack->GetX() + theTrack->GetTheta() *
( zposition ); // Line 183
Double_t yHitCoord = theTrack->GetY() + theTrack->GetPhi() *
( zposition ); // Line 184
if ( ( ip == 0 ) || ( ip == 2 ) ){ // !x plane. Line 185
scinTrnsCoord = xHitCoord;
scinLongCoord = yHitCoord;
} else if ( ( ip == 1 ) || ( ip == 3 ) ){ // !y plane. Line 188
scinTrnsCoord = yHitCoord;
scinLongCoord = xHitCoord;
fTOFPInfo[ihhit].scinTrnsCoord = scinTrnsCoord;
fTOFPInfo[ihhit].scinLongCoord = scinLongCoord;
Double_t scinCenter = fPlanes[ip]->GetPosCenter(paddle) + fPlanes[ip]->GetPosOffset();
// Index to access the 2d arrays of paddle/scintillator properties
Int_t fPIndex = GetScinIndex(ip,paddle);
( fPlanes[ip]->GetSize() * 0.5 + fPlanes[ip]->GetHodoSlop() ) ){ // Line 293
fTOFPInfo[ihhit].onTrack = kTRUE;
Double_t zcor = zposition/(29.979*fBetaNominal)*
TMath::Sqrt(1. + theTrack->GetTheta()*theTrack->GetTheta()
+ theTrack->GetPhi()*theTrack->GetPhi());
fTOFPInfo[ihhit].zcor = zcor;
if (fCosmicFlag) {
Double_t zcor = -zposition/(29.979*1.0)*
TMath::Sqrt(1. + theTrack->GetTheta()*theTrack->GetTheta()
+ theTrack->GetPhi()*theTrack->GetPhi());
Double_t tdc_pos = hit->GetPosTDC();
if(tdc_pos >=fScinTdcMin && tdc_pos <= fScinTdcMax ) {
Double_t adc_pos = hit->GetPosADC();
Double_t pathp = fPlanes[ip]->GetPosLeft() - scinLongCoord;
fTOFPInfo[ihhit].pathp = pathp;
Double_t timep = tdc_pos*fScinTdcToTime;
if(fTofUsingInvAdc) {
timep -= fHodoPosInvAdcOffset[fPIndex]
+ pathp/fHodoPosInvAdcLinear[fPIndex]
+ fHodoPosInvAdcAdc[fPIndex]
/TMath::Sqrt(TMath::Max(20.0*.020,adc_pos));
//Double_t tw_corr_pos = fHodoPos_c1[fPIndex]/pow(adcamp_pos/fTdc_Thrs,fHodoPos_c2[fPIndex]) - fHodoPos_c1[fPIndex]/pow(200./fTdc_Thrs, fHodoPos_c2[fPIndex]);
Double_t tw_corr_pos=0.;
pathp=scinLongCoord;
if (adcamp_pos>0) tw_corr_pos = 1./pow(adcamp_pos/fTdc_Thrs,fHodoPos_c2[fPIndex]) - 1./pow(200./fTdc_Thrs, fHodoPos_c2[fPIndex]);
timep += -tw_corr_pos + fHodo_LCoeff[fPIndex]+ pathp/fHodoVelFit[fPIndex];
fTOFPInfo[ihhit].scin_pos_time = timep;
timep -= zcor;
fTOFPInfo[ihhit].time_pos = timep;
Double_t tdc_neg = hit->GetNegTDC();
if(tdc_neg >=fScinTdcMin && tdc_neg <= fScinTdcMax ) {
Double_t adc_neg = hit->GetNegADC();
Double_t pathn = scinLongCoord - fPlanes[ip]->GetPosRight();
fTOFPInfo[ihhit].pathn = pathn;
Double_t timen = tdc_neg*fScinTdcToTime;
if(fTofUsingInvAdc) {
timen -= fHodoNegInvAdcOffset[fPIndex]
+ pathn/fHodoNegInvAdcLinear[fPIndex]
+ fHodoNegInvAdcAdc[fPIndex]
/TMath::Sqrt(TMath::Max(20.0*.020,adc_neg));
pathn=scinLongCoord ;
Double_t tw_corr_neg =0 ;
if (adcamp_neg >0) tw_corr_neg= 1./pow(adcamp_neg/fTdc_Thrs,fHodoNeg_c2[fPIndex]) - 1./pow(200./fTdc_Thrs, fHodoNeg_c2[fPIndex]);
timen += -tw_corr_neg- 2*fHodoCableFit[fPIndex] + fHodo_LCoeff[fPIndex]- pathn/fHodoVelFit[fPIndex];
fTOFPInfo[ihhit].scin_neg_time = timen;
fTOFPInfo[ihhit].time_neg = timen;
} // condition for cenetr on a paddle
} // First loop over hits in a plane <---------
//-----------------------------------------------------------------------------------------------
//------------- First large loop over scintillator hits ends here --------------------
//-----------------------------------------------------------------------------------------------
Int_t nhits=ihhit;
if(0.5*hTime->GetMaximumBin() > 0) {
Double_t tmin = 0.5*hTime->GetMaximumBin();
for(Int_t ih = 0; ih < nhits; ih++) { // loop over all scintillator hits
if ( ( fTOFPInfo[ih].time_pos > (tmin-fTofTolerance) ) && ( fTOFPInfo[ih].time_pos < ( tmin + fTofTolerance ) ) ) {
fTOFPInfo[ih].keep_pos=kTRUE;
if ( ( fTOFPInfo[ih].time_neg > (tmin-fTofTolerance) ) && ( fTOFPInfo[ih].time_neg < ( tmin + fTofTolerance ) ) ){
fTOFPInfo[ih].keep_neg=kTRUE;
//---------------------------------------------------------------------------------------------
// ---------------------- Scond loop over scint. hits in a plane ------------------------------
//---------------------------------------------------------------------------------------------
for(Int_t ih=0; ih < nhits; ih++) {
THcHodoHit *hit = fTOFPInfo[ih].hit;
Int_t iphit = fTOFPInfo[ih].hitNumInPlane;
Int_t ip = fTOFPInfo[ih].planeIndex;
// fDumpOut << " looping over hits = " << ih << " plane = " << ip+1 << endl;
GoodFlags flags;
// Flags are used by THcHodoEff
fGoodFlags[itrack][ip].push_back(flags);
fGoodFlags[itrack][ip][iphit].onTrack = kFALSE;
fGoodFlags[itrack][ip][iphit].goodScinTime = kFALSE;
fGoodFlags[itrack][ip][iphit].goodTdcNeg = kFALSE;
fGoodFlags[itrack][ip][iphit].goodTdcPos = kFALSE;
fTOFCalc.push_back(TOFCalc());
// Do we set back to false for each track, or just once per event?
fTOFCalc[ih].good_scin_time = kFALSE;
// These need a track index too to calculate efficiencies
fTOFCalc[ih].good_tdc_pos = kFALSE;
fTOFCalc[ih].good_tdc_neg = kFALSE;
fTOFCalc[ih].pindex = ip;
Int_t paddle = hit->GetPaddleNumber()-1;
fTOFCalc[ih].hit_paddle = paddle;
fTOFCalc[ih].good_raw_pad = paddle;
// Double_t scinCenter = fPlanes[ip]->GetPosCenter(paddle) + fPlanes[ip]->GetPosOffset();
// Double_t scinTrnsCoord = fTOFPInfo[ih].scinTrnsCoord;
// Double_t scinLongCoord = fTOFPInfo[ih].scinLongCoord;
Int_t fPIndex = GetScinIndex(ip,paddle);
if (fTOFPInfo[ih].onTrack) {
fGoodFlags[itrack][ip][iphit].onTrack = kTRUE;
if ( fTOFPInfo[ih].keep_pos ) { // 301
fTOFCalc[ih].good_tdc_pos = kTRUE;
fGoodFlags[itrack][ip][iphit].goodTdcPos = kTRUE;
if ( fTOFPInfo[ih].keep_neg ) { //
fTOFCalc[ih].good_tdc_neg = kTRUE;
fGoodFlags[itrack][ip][iphit].goodTdcNeg = kTRUE;
// ** Calculate ave time for scin and error.
if ( fTOFCalc[ih].good_tdc_pos ){
if ( fTOFCalc[ih].good_tdc_neg ){
fTOFCalc[ih].scin_time = ( fTOFPInfo[ih].scin_pos_time +
fTOFCalc[ih].scin_time_fp = ( fTOFPInfo[ih].time_pos +
fTOFPInfo[ih].time_neg ) / 2.;
if (fTofUsingInvAdc){
fTOFCalc[ih].scin_sigma = TMath::Sqrt( fHodoPosSigma[fPIndex] * fHodoPosSigma[fPIndex] +
fHodoNegSigma[fPIndex] * fHodoNegSigma[fPIndex] )/2.;
}
else {
fTOFCalc[ih].scin_sigma = TMath::Sqrt( fHodoSigmaPos[fPIndex] * fHodoSigmaPos[fPIndex] +
fHodoSigmaNeg[fPIndex] * fHodoSigmaNeg[fPIndex] )/2.;
}
fTOFCalc[ih].good_scin_time = kTRUE;
fGoodFlags[itrack][ip][iphit].goodScinTime = kTRUE;
} else{
fTOFCalc[ih].scin_time = fTOFPInfo[ih].scin_pos_time;
fTOFCalc[ih].scin_time_fp = fTOFPInfo[ih].time_pos;
if (fTofUsingInvAdc){
fTOFCalc[ih].scin_sigma = fHodoPosSigma[fPIndex];
}
else{
fTOFCalc[ih].scin_sigma = fHodoSigmaPos[fPIndex];
}
fTOFCalc[ih].good_scin_time = kTRUE;
fGoodFlags[itrack][ip][iphit].goodScinTime = kTRUE;
if ( fTOFCalc[ih].good_tdc_neg ){
fTOFCalc[ih].scin_time = fTOFPInfo[ih].scin_neg_time;
fTOFCalc[ih].scin_time_fp = fTOFPInfo[ih].time_neg;
if (fTofUsingInvAdc){
fTOFCalc[ih].scin_sigma = fHodoNegSigma[fPIndex];
}
else{
fTOFCalc[ih].scin_sigma = fHodoSigmaNeg[fPIndex];
}
fTOFCalc[ih].good_scin_time = kTRUE;
fGoodFlags[itrack][ip][iphit].goodScinTime = kTRUE;
}
} // In h_tof.f this includes the following if condition for time at focal plane
// // because it is written in FORTRAN code
// c Get time at focal plane
if ( fTOFCalc[ih].good_scin_time ){
// scin_time_fp doesn't need to be an array
// Is this any different than the average of time_pos and time_neg?
// Double_t scin_time_fp = ( fTOFPInfo[ih].time_pos +
// fTOFPInfo[ih].time_neg ) / 2.;
Double_t scin_time_fp = fTOFCalc[ih].scin_time_fp;
sumFPTime = sumFPTime + scin_time_fp;
nFPTime ++;
fSumPlaneTime[ip] = fSumPlaneTime[ip] + scin_time_fp;
fNPlaneTime[ip] ++;
fNScinHit[itrack] ++;
if ( ( fTOFCalc[ih].good_tdc_pos ) && ( fTOFCalc[ih].good_tdc_neg ) ){
nPmtHit[itrack] = nPmtHit[itrack] + 2;
} else {
nPmtHit[itrack] = nPmtHit[itrack] + 1;
}
fdEdX[itrack].push_back(0.0);
// --------------------------------------------------------------------------------------------
if ( fTOFCalc[ih].good_tdc_pos ){
if ( fTOFCalc[ih].good_tdc_neg ){
fdEdX[itrack][fNScinHit[itrack]-1]=
TMath::Sqrt( TMath::Max( 0., hit->GetPosADC() * hit->GetNegADC() ) );
} else{
fdEdX[itrack][fNScinHit[itrack]-1]=
TMath::Max( 0., hit->GetPosADC() );
if ( fTOFCalc[ih].good_tdc_neg ){
fdEdX[itrack][fNScinHit[itrack]-1]=
TMath::Max( 0., hit->GetNegADC() );
} else{
fdEdX[itrack][fNScinHit[itrack]-1]=0.0;
}
// --------------------------------------------------------------------------------------------
} // time at focal plane condition
} // on track condition
// ** See if there are any good time measurements in the plane.
if ( fTOFCalc[ih].good_scin_time ){
fGoodPlaneTime[ip] = kTRUE;
fTOFCalc[ih].dedx = fdEdX[itrack][fNScinHit[itrack]-1];
fTOFCalc[ih].dedx = 0.0;
} // Second loop over hits of a scintillator plane ends here
theTrack->SetGoodPlane3( fGoodPlaneTime[2] ? 1 : 0 );
if (fNumPlanesBetaCalc==4) theTrack->SetGoodPlane4( fGoodPlaneTime[3] ? 1 : 0 );
//
//------------------------------------------------------------------------------
//------------------------------------------------------------------------------
//------------------------------------------------------------------------------
//------------------------------------------------------------------------------
//------------------------------------------------------------------------------
//------------------------------------------------------------------------------
//------------------------------------------------------------------------------
//------------------------------------------------------------------------------
// * * Fit beta if there are enough time measurements (one upper, one lower)
// From h_tof_fit
if ( ( ( fGoodPlaneTime[0] ) || ( fGoodPlaneTime[1] ) ) &&
( ( fGoodPlaneTime[2] ) || ( fGoodPlaneTime[3] ) ) ){
Double_t sumW = 0.;
Double_t sumT = 0.;
Double_t sumZ = 0.;
Double_t sumZZ = 0.;
Double_t sumTZ = 0.;
for(Int_t ih=0; ih < nhits; ih++) {
Int_t ip = fTOFPInfo[ih].planeIndex;
if ( fTOFCalc[ih].good_scin_time ) {
Double_t scinWeight = 1 / ( fTOFCalc[ih].scin_sigma * fTOFCalc[ih].scin_sigma );
Double_t zPosition = ( fPlanes[ip]->GetZpos()
+( fTOFCalc[ih].hit_paddle % 2 ) *
fPlanes[ip]->GetDzpos() );
sumW += scinWeight;
sumT += scinWeight * fTOFCalc[ih].scin_time;
sumZ += scinWeight * zPosition;
sumZZ += scinWeight * ( zPosition * zPosition );
sumTZ += scinWeight * zPosition * fTOFCalc[ih].scin_time;
} // condition of good scin time
} // loop over hits
Double_t tmp = sumW * sumZZ - sumZ * sumZ ;
Double_t t0 = ( sumT * sumZZ - sumZ * sumTZ ) / tmp ;
Double_t tmpDenom = sumW * sumTZ - sumZ * sumT;
if ( TMath::Abs( tmpDenom ) > ( 1 / 10000000000.0 ) ) {
betaChiSq = 0.;
for(Int_t ih=0; ih < nhits; ih++) {
Int_t ip = fTOFPInfo[ih].planeIndex;
if ( fTOFCalc[ih].good_scin_time ){
Double_t zPosition = ( fPlanes[ip]->GetZpos() + ( fTOFCalc[ih].hit_paddle % 2 ) *
fPlanes[ip]->GetDzpos() );
Double_t timeDif = ( fTOFCalc[ih].scin_time - t0 );
betaChiSq += ( ( zPosition / beta - timeDif ) *
( zPosition / beta - timeDif ) ) /
( fTOFCalc[ih].scin_sigma * fTOFCalc[ih].scin_sigma );
} // condition for good scin time
} // loop over hits
Double_t pathNorm = TMath::Sqrt( 1. + theTrack->GetTheta() * theTrack->GetTheta() +
theTrack->GetPhi() * theTrack->GetPhi() );
// Take angle into account
beta = beta / 29.979; // velocity / c
} // else condition for fTmpDenom
timeAtFP[itrack] = ( sumFPTime / nFPTime );
//
// ---------------------------------------------------------------------------
Double_t FPTimeSum=0.0;
Int_t nFPTimeSum=0;
for (Int_t ip = 0; ip < fNumPlanesBetaCalc; ip++ ){
if ( fNPlaneTime[ip] != 0 ){
fFPTime[ip] = ( fSumPlaneTime[ip] / fNPlaneTime[ip] );
FPTimeSum += fSumPlaneTime[ip];
nFPTimeSum += fNPlaneTime[ip];
fFPTime[ip] = 1000. * ( ip + 1 );
Double_t fptime=-1000;
if (nFPTimeSum>0) fptime = FPTimeSum/nFPTimeSum;
fFPTimeAll = fptime;
Double_t dedx=0.0;
for(UInt_t ih=0;ih<fTOFCalc.size();ih++) {
if(fTOFCalc[ih].good_scin_time) {
dedx = fTOFCalc[ih].dedx;
break;
}
}
theTrack->SetDedx(dedx);
theTrack->SetFPTime(fptime);
theTrack->SetBeta(beta);
theTrack->SetBetaChi2( betaChiSq );
theTrack->SetNPMT(nPmtHit[itrack]);
theTrack->SetFPTime( timeAtFP[itrack]);
} // Main loop over tracks ends here.
} // If condition for at least one track
1440
1441
1442
1443
1444
1445
1446
1447
1448
1449
1450
1451
1452
1453
1454
1455
1456
1457
1458
1459
1460
1461
return 0;
}
//
void THcHodoscope::TrackEffTest(void)
{
Double_t PadLow[4];
Double_t PadHigh[4];
// assume X planes are 0,2 and Y planes are 1,3
PadLow[0]=fxLoScin[0];
PadLow[2]=fxLoScin[1];
PadLow[1]=fyLoScin[0];
PadLow[3]=fyLoScin[1];
PadHigh[0]=fxHiScin[0];
PadHigh[2]=fxHiScin[1];
PadHigh[1]=fyHiScin[0];
PadHigh[3]=fyHiScin[1];
//
Double_t PadPosLo[4];
Double_t PadPosHi[4];
for (Int_t ip = 0; ip < fNumPlanesBetaCalc; ip++ ){
Double_t lowtemp=fPlanes[ip]->GetPosCenter(PadLow[ip]-1)+ fPlanes[ip]->GetPosOffset();
Double_t hitemp=fPlanes[ip]->GetPosCenter(PadHigh[ip]-1)+ fPlanes[ip]->GetPosOffset();
if (lowtemp < hitemp) {
PadPosLo[ip]=lowtemp;
PadPosHi[ip]=hitemp;
} else {
PadPosLo[ip]=hitemp;
PadPosHi[ip]=lowtemp;
}
}
//
const Int_t MaxNClus=5;
std::vector<Int_t > iw(MaxNClus,0);
std::vector<Double_t > dw(MaxNClus,0);
for(Int_t ip = 0; ip < fNumPlanesBetaCalc; ip++ ) {
fNClust.push_back(0);
fClustSize.push_back(iw);
fClustPos.push_back(dw);
}
for (Int_t ip = 0; ip < fNumPlanesBetaCalc; ip++ ){
TClonesArray* hodoHits = fPlanes[ip]->GetHits();
Int_t prev_padnum=-100;
for (Int_t iphit = 0; iphit < fPlanes[ip]->GetNScinHits(); iphit++ ){
THcHodoHit *hit = (THcHodoHit*)hodoHits->At(iphit);
Int_t padnum = hit->GetPaddleNumber();
if ( hit->GetTwoGoodTimes() ) {
if ( padnum==prev_padnum+1 ) {
fClustSize[ip][fNClust[ip]-1]=fClustSize[ip][fNClust[ip]-1]+1;
fClustPos[ip][fNClust[ip]-1]=fClustPos[ip][fNClust[ip]-1]+fPlanes[ip]->GetPosCenter(padnum-1)+ fPlanes[ip]->GetPosOffset();
// cout << "Add to cluster pl = " << ip+1 << " hit = " << iphit << " pad = " << padnum << " clus = " << fNClust[ip] << " cl size = " << fClustSize[ip][fNClust[ip]-1] << " pos " << fPlanes[ip]->GetPosCenter(padnum-1)+ fPlanes[ip]->GetPosOffset() << endl;
} else {
if (fNClust[ip]<MaxNClus) fNClust[ip]++;
fClustSize[ip][fNClust[ip]-1]=1;
fClustPos[ip][fNClust[ip]-1]=fPlanes[ip]->GetPosCenter(padnum-1)+ fPlanes[ip]->GetPosOffset();
// cout << " New clus pl = " << ip+1 << " hit = " << iphit << " pad = " << padnum << " clus = " << fNClust[ip] << " cl size = " << fClustSize[ip][fNClust[ip]] << " pos " << fPlanes[ip]->GetPosCenter(padnum-1)+ fPlanes[ip]->GetPosOffset() << endl;
1499
1500
1501
1502
1503
1504
1505
1506
1507
1508
1509
1510
1511
1512
1513
1514
1515
1516
1517
1518
1519
1520
1521
1522
1523
1524
1525
1526
1527
1528
1529
1530
1531
1532
1533
1534
1535
1536
1537
1538
1539
1540
1541
1542
1543
1544
1545
1546
1547
1548
1549
1550
1551
1552
1553
1554
1555
prev_padnum=padnum;
}
}
}
//
Bool_t inside_bound[4]={kFALSE,kFALSE,kFALSE,kFALSE};
for(Int_t ip = 0; ip < fNumPlanesBetaCalc; ip++ ) {
for(Int_t ic = 0; ic <fNClust[ip] ; ic++ ) {
fClustPos[ip][ic]=fClustPos[ip][ic]/fClustSize[ip][ic];
inside_bound[ip] = fClustPos[ip][ic]>=PadPosLo[ip] && fClustPos[ip][ic]<=PadPosHi[ip];
//cout << "plane = " << ip+1 << " Cluster = " << ic+1 << " size = " << fClustSize[ip][ic]<< " pos = " << fClustPos[ip][ic] << " inside = " << inside_bound[ip] << " lo = " << PadPosLo[ip]<< " hi = " << PadPosHi[ip]<< endl;
}
}
//
Int_t good_for_track_test[4]={0,0,0,0};
Int_t sum_good_track_test=0;
for(Int_t ip = 0; ip < fNumPlanesBetaCalc; ip++ ) {
if (fNClust[ip]==1 && inside_bound[ip] && fClustSize[ip][0]<=2) good_for_track_test[ip]=1;
//cout << " good for track = " << good_for_track_test[ip] << endl;
sum_good_track_test+=good_for_track_test[ip];
}
//
Double_t trackeff_scint_ydiff_max= 10. ;
Double_t trackeff_scint_xdiff_max= 10. ;
Bool_t xdiffTest=kFALSE;
Bool_t ydiffTest=kFALSE;
fGoodScinHits = 0;
if (fTrackEffTestNScinPlanes == 4) {
if (fTrackEffTestNScinPlanes==sum_good_track_test) {
xdiffTest= TMath::Abs(fClustPos[0][0]-fClustPos[2][0])<trackeff_scint_xdiff_max;
ydiffTest= TMath::Abs(fClustPos[1][0]-fClustPos[3][0])<trackeff_scint_ydiff_max;
if (xdiffTest && ydiffTest) fGoodScinHits = 1;
}
}
//
if (fTrackEffTestNScinPlanes == 3) {
if (fTrackEffTestNScinPlanes==sum_good_track_test) {
if(good_for_track_test[0]==1&&good_for_track_test[2]==1) {
xdiffTest= TMath::Abs(fClustPos[0][0]-fClustPos[2][0])<trackeff_scint_xdiff_max;
ydiffTest=kTRUE;
}
if (good_for_track_test[1]==1&&good_for_track_test[3]==1) {
xdiffTest=kTRUE;
ydiffTest= TMath::Abs(fClustPos[1][0]-fClustPos[3][0])<trackeff_scint_ydiff_max;
}
if (xdiffTest && ydiffTest) fGoodScinHits = 1;
}
if (sum_good_track_test==4) {
xdiffTest= TMath::Abs(fClustPos[0][0]-fClustPos[2][0])<trackeff_scint_xdiff_max;
ydiffTest= TMath::Abs(fClustPos[1][0]-fClustPos[3][0])<trackeff_scint_ydiff_max;
if (xdiffTest && ydiffTest) fGoodScinHits = 1;
}
}
//
// cout << " good scin = " << fGoodScinHits << " " << sum_good_track_test << " " << xdiffTest << " " << ydiffTest<< endl;
//cout << " ************" << endl;
//
}
//
//
//
void THcHodoscope::OriginalTrackEffTest(void)
{
/**
Translation of h_track_tests.f file for tracking efficiency
*/
//************************now look at some hodoscope tests
// *second, we move the scintillators. here we use scintillator cuts to see
// *if a track should have been found.
cout << " enter track eff" << fNumPlanesBetaCalc << endl;
for(Int_t ip = 0; ip < fNumPlanesBetaCalc; ip++ ) {
cout << " loop over planes " << ip+1 << endl;
TClonesArray* hodoHits = fPlanes[ip]->GetHits();
// TClonesArray* scinPosTDC = fPlanes[ip]->GetPosTDC();
// TClonesArray* scinNegTDC = fPlanes[ip]->GetNegTDC();
fNScinHits[ip] = fPlanes[ip]->GetNScinHits();
cout << " hits = " << fNScinHits[ip] << endl;
for (Int_t iphit = 0; iphit < fNScinHits[ip]; iphit++ ){
Int_t paddle = ((THcHodoHit*)hodoHits->At(iphit))->GetPaddleNumber()-1;
fScinHitPaddle[ip][paddle] = 1;
cout << " hit = " << iphit+1 << " " << paddle+1 << endl;
}
}
// *next, look for clusters of hits in a scin plane. a cluster is a group of
// *adjacent scintillator hits separated by a non-firing scintillator.
// *Wwe count the number of three adjacent scintillators too. (A signle track
// *shouldn't fire three adjacent scintillators.
for(Int_t ip = 0; ip < fNumPlanesBetaCalc; ip++ ) {
// Planes ip = 0 = 1X
// Planes ip = 2 = 2X
fNClust.push_back(0);
fThreeScin.push_back(0);
}
// *look for clusters in x planes... (16 scins) !this assume both x planes have same
// *number of scintillators.
cout << " looking for cluster in x planes" << endl;
Int_t icount;
for (Int_t ip = 0; ip < 3; ip +=2 ) {
icount = 0;
if ( fScinHitPaddle[ip][0] == 1 ) icount ++;
cout << "plane =" << ip << "check if paddle 1 hit " << icount << endl;
for (Int_t ipaddle = 0; ipaddle < (Int_t) fNPaddle[ip] - 1; ipaddle++ ){
// !look for number of clusters of 1 or more hits
if ( ( fScinHitPaddle[ip][ipaddle] == 0 ) &&
( fScinHitPaddle[ip][ipaddle + 1] == 1 ) )
icount ++;
cout << " paddle = " << ipaddle+1 << " " << icount << endl;
cout << "Two cluster in plane = " << ip+1 << " " << icount << endl;
fNClust[ip] = icount;
icount = 0;
for (Int_t ipaddle = 0; ipaddle < (Int_t) fNPaddle[ip] - 2; ipaddle++ ){
// !look for three or more adjacent hits
if ( ( fScinHitPaddle[ip][ipaddle] == 1 ) &&
( fScinHitPaddle[ip][ipaddle + 1] == 1 ) &&
( fScinHitPaddle[ip][ipaddle + 2] == 1 ) )
icount ++;
} // Second loop over paddles
cout << "Three clusters in plane = " << ip+1 << " " << icount << endl;
if ( icount > 0 )
fThreeScin[ip] = 1;
} // Loop over X plane
// *look for clusters in y planes... (10 scins) !this assume both y planes have same
cout << " looking for cluster in y planes" << endl;
for (Int_t ip = 1; ip < fNumPlanesBetaCalc; ip +=2 ) {
// Planes ip = 1 = 1Y
// Planes ip = 3 = 2Y
icount = 0;
if ( fScinHitPaddle[ip][0] == 1 ) icount ++;
cout << "plane =" << ip << "check if paddle 1 hit " << icount << endl;
for (Int_t ipaddle = 0; ipaddle < (Int_t) fNPaddle[ip] - 1; ipaddle++ ){
// !look for number of clusters of 1 or more hits
if ( ( fScinHitPaddle[ip][ipaddle] == 0 ) &&
( fScinHitPaddle[ip][ipaddle + 1] == 1 ) )
icount ++;
cout << " paddle = " << ipaddle+1 << " " << icount << endl;
cout << "Two cluster in plane = " << ip+1 << " " << icount << endl;
fNClust[ip] = icount;
icount = 0;
for (Int_t ipaddle = 0; ipaddle < (Int_t) fNPaddle[ip] - 2; ipaddle++ ){
// !look for three or more adjacent hits
if ( ( fScinHitPaddle[ip][ipaddle] == 1 ) &&
( fScinHitPaddle[ip][ipaddle + 1] == 1 ) &&
( fScinHitPaddle[ip][ipaddle + 2] == 1 ) )
icount ++;
} // Second loop over Y paddles
cout << "Three clusters in plane = " << ip+1 << " " << icount << endl;
if ( icount > 0 )
fThreeScin[ip] = 1;
}// Loop over Y planes
// *next we mask out the edge scintillators, and look at triggers that happened
// *at the center of the acceptance. To change which scins are in the mask
// *change the values of h*loscin and h*hiscin in htracking.param
// fGoodScinHits = 0;
for (Int_t ifidx = fxLoScin[0]; ifidx < (Int_t) fxHiScin[0]; ifidx ++ ){
fGoodScinHitsX.push_back(0);
}
fHitSweet1X=0;
fHitSweet2X=0;
fHitSweet1Y=0;
fHitSweet2Y=0;
1691
1692
1693
1694
1695
1696
1697
1698
1699
1700
1701
1702
1703
1704
1705
1706
1707
1708
1709
1710
1711
1712
1713
1714
1715
1716
1717
1718
1719
1720
1721
1722
1723
1724
1725
1726
1727
1728
1729
1730
1731
1732
1733
1734
1735
1736
1737
1738
1739
1740
1741
1742
1743
1744
1745
1746
1747
1748
1749
1750
1751
1752
1753
1754
1755
// *first x plane. first see if there are hits inside the scin region
for (Int_t ifidx = fxLoScin[0]-1; ifidx < fxHiScin[0]; ifidx ++ ){
if ( fScinHitPaddle[0][ifidx] == 1 ){
fHitSweet1X = 1;
fSweet1XScin = ifidx + 1;
}
}
// * next make sure nothing fired outside the good region
for (Int_t ifidx = 0; ifidx < fxLoScin[0]-1; ifidx ++ ){
if ( fScinHitPaddle[0][ifidx] == 1 ){ fHitSweet1X = -1; }
}
for (Int_t ifidx = fxHiScin[0]; ifidx < (Int_t) fNPaddle[0]; ifidx ++ ){
if ( fScinHitPaddle[0][ifidx] == 1 ){ fHitSweet1X = -1; }
}
// *second x plane. first see if there are hits inside the scin region
for (Int_t ifidx = fxLoScin[1]-1; ifidx < fxHiScin[1]; ifidx ++ ){
if ( fScinHitPaddle[2][ifidx] == 1 ){
fHitSweet2X = 1;
fSweet2XScin = ifidx + 1;
}
}
// * next make sure nothing fired outside the good region
for (Int_t ifidx = 0; ifidx < fxLoScin[1]-1; ifidx ++ ){
if ( fScinHitPaddle[2][ifidx] == 1 ){ fHitSweet2X = -1; }
}
for (Int_t ifidx = fxHiScin[1]; ifidx < (Int_t) fNPaddle[2]; ifidx ++ ){
if ( fScinHitPaddle[2][ifidx] == 1 ){ fHitSweet2X = -1; }
}
// *first y plane. first see if there are hits inside the scin region
for (Int_t ifidx = fyLoScin[0]-1; ifidx < fyHiScin[0]; ifidx ++ ){
if ( fScinHitPaddle[1][ifidx] == 1 ){
fHitSweet1Y = 1;
fSweet1YScin = ifidx + 1;
}
}
// * next make sure nothing fired outside the good region
for (Int_t ifidx = 0; ifidx < fyLoScin[0]-1; ifidx ++ ){
if ( fScinHitPaddle[1][ifidx] == 1 ){ fHitSweet1Y = -1; }
}
for (Int_t ifidx = fyHiScin[0]; ifidx < (Int_t) fNPaddle[1]; ifidx ++ ){
if ( fScinHitPaddle[1][ifidx] == 1 ){ fHitSweet1Y = -1; }
}
// *second y plane. first see if there are hits inside the scin region
for (Int_t ifidx = fyLoScin[1]-1; ifidx < fyHiScin[1]; ifidx ++ ){
if ( fScinHitPaddle[3][ifidx] == 1 ){
fHitSweet2Y = 1;
fSweet2YScin = ifidx + 1;
}
}
// * next make sure nothing fired outside the good region
for (Int_t ifidx = 0; ifidx < fyLoScin[1]-1; ifidx ++ ){
if ( fScinHitPaddle[3][ifidx] == 1 ){ fHitSweet2Y = -1; }
}
for (Int_t ifidx = fyHiScin[1]; ifidx < (Int_t) fNPaddle[3]; ifidx ++ ){
if ( fScinHitPaddle[3][ifidx] == 1 ){ fHitSweet2Y = -1; }
}
fTestSum = fHitSweet1X + fHitSweet2X + fHitSweet1Y + fHitSweet2Y;
// * now define a 3/4 or 4/4 trigger of only good scintillators the value
if ( fTestSum >= fTrackEffTestNScinPlanes ){
fGoodScinHits = 1;
for (Int_t ifidx = fxLoScin[0]; ifidx < fxHiScin[0]; ifidx ++ ){
if ( fSweet1XScin == ifidx )
fGoodScinHitsX[ifidx] = 1;
}
}
// * require front/back hodoscopes be close to each other
if ( ( fGoodScinHits == 1 ) && ( fTrackEffTestNScinPlanes == 4 ) ){
if ( TMath::Abs( fSweet1XScin - fSweet2XScin ) > 3 )
fGoodScinHits = 0;
if ( TMath::Abs( fSweet1YScin - fSweet2YScin ) > 2 )
fGoodScinHits = 0;
}
Gabriel Niculescu
committed
//_____________________________________________________________________________
Int_t THcHodoscope::FineProcess( TClonesArray& tracks )
{
Int_t Ntracks = tracks.GetLast()+1; // Number of reconstructed tracks
Double_t hitPos;
Double_t hitDistance;
for (Int_t itrk=0; itrk<Ntracks; itrk++) {
THaTrack* theTrack = static_cast<THaTrack*>( tracks[itrk] );
if (theTrack->GetIndex()==0) {
fBeta=theTrack->GetBeta();
fFPTimeAll=theTrack->GetFPTime();
Double_t shower_track_enorm = theTrack->GetEnergy()/theTrack->GetP();
for (Int_t ip = 0; ip < fNumPlanesBetaCalc; ip++ ){
Double_t pl_xypos=0;
Double_t pl_zpos=0;
Int_t num_good_pad=0;
TClonesArray* hodoHits = fPlanes[ip]->GetHits();
for (Int_t iphit = 0; iphit < fPlanes[ip]->GetNScinHits(); iphit++ ){
if ( fTOFCalc[ih].good_tdc_pos && fTOFCalc[ih].good_tdc_neg ) {
Bool_t sh_pid=(shower_track_enorm > fTOFCalib_shtrk_lo && shower_track_enorm < fTOFCalib_shtrk_hi);
Bool_t beta_pid=( fBeta > fTOFCalib_beta_lo && fBeta < fTOFCalib_beta_hi);
// cer_pid is true if there is no Cherenkov detector
Bool_t cer_pid=(fCherenkov?(fCherenkov->GetCerNPE()>fTOFCalib_cer_lo):kTRUE);
if(fDumpTOF && Ntracks==1 && fGoodEventTOFCalib && sh_pid && beta_pid && cer_pid) {
fDumpOut << showpoint << " 1" << setw(3) << ip+1 << setw(3) << hit->GetPaddleNumber() << setw(10) << hit->GetPosTDC()*fScinTdcToTime << setw(10) << fTOFPInfo[ih].pathp << setw(10) << fTOFPInfo[ih].zcor << setw(10) << fTOFPInfo[ih].time_pos << setw(10) << hit->GetPosADC() << endl;
fDumpOut << showpoint << " 2" << setw(3) << ip+1 << setw(3) << hit->GetPaddleNumber() << setw(10) << hit->GetNegTDC()*fScinTdcToTime << setw(10) << fTOFPInfo[ih].pathn << setw(10) << fTOFPInfo[ih].zcor << setw(10) << fTOFPInfo[ih].time_neg << setw(10) << hit->GetNegADC() << endl;
Int_t padind = ((THcHodoHit*)hodoHits->At(iphit))->GetPaddleNumber()-1;
pl_xypos+=fPlanes[ip]->GetPosCenter(padind)+ fPlanes[ip]->GetPosOffset();
pl_zpos+=fPlanes[ip]->GetZpos()+ (padind%2)*fPlanes[ip]->GetDzpos();
num_good_pad++;
// cout << ip << " " << iphit << " " << fGoodFlags[itrk][ip][iphit].goodScinTime << " " << fGoodFlags[itrk][ip][iphit].goodTdcPos << " " << fGoodFlags[itrk][ip][iphit].goodTdcNeg << endl;
}
hitDistance=kBig;
if (num_good_pad !=0 ) {
pl_xypos=pl_xypos/num_good_pad;
pl_zpos=pl_zpos/num_good_pad;
hitPos = theTrack->GetY() + theTrack->GetPhi()*pl_zpos ;
if (ip%2 == 0) hitPos = theTrack->GetX() + theTrack->GetTheta()*pl_zpos ;
hitDistance = hitPos - pl_xypos;
fPlanes[ip]->SetTrackXPosition(theTrack->GetX() + theTrack->GetTheta()*pl_zpos );
fPlanes[ip]->SetTrackYPosition(theTrack->GetY() + theTrack->GetPhi()*pl_zpos );
// cout << " ip " << ip << " " << hitPos << " " << pl_xypos << " " << pl_zpos << " " << hitDistance << endl;
fPlanes[ip]->SetHitDistance(hitDistance);
}
if(ih>0&&fDumpTOF && Ntracks==1 && fGoodEventTOFCalib && shower_track_enorm > fTOFCalib_shtrk_lo && shower_track_enorm < fTOFCalib_shtrk_hi ) {
fDumpOut << "0 " << endl;
}
return 0;
}
//_____________________________________________________________________________
Gabriel Niculescu
committed
Int_t THcHodoscope::GetScinIndex( Int_t nPlane, Int_t nPaddle ) {
// GN: Return the index of a scintillator given the plane # and the paddle #
// This assumes that both planes and
// paddles start counting from 0!
// Result also counts from 0.
return fNPlanes*nPaddle+nPlane;
Gabriel Niculescu
committed
}
//_____________________________________________________________________________
Int_t THcHodoscope::GetScinIndex( Int_t nSide, Int_t nPlane, Int_t nPaddle ) {
return nSide*fMaxHodoScin+fNPlanes*nPaddle+nPlane-1;
}
//_____________________________________________________________________________
Double_t THcHodoscope::GetPathLengthCentral() {
return fPathLengthCentral;
}
//_____________________________________________________________________________
Int_t THcHodoscope::End(THaRunBase* run)
{
MissReport(Form("%s.%s", GetApparatus()->GetName(), GetName()));
return 0;
}
ClassImp(THcHodoscope)
////////////////////////////////////////////////////////////////////////////////