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#include <RPCSeedPattern.h>
Definition at line 30 of file RPCSeedPattern.h.
typedef MuonTransientTrackingRecHit::ConstMuonRecHitContainer RPCSeedPattern::ConstMuonRecHitContainer [private] |
Definition at line 35 of file RPCSeedPattern.h.
typedef MuonTransientTrackingRecHit::ConstMuonRecHitPointer RPCSeedPattern::ConstMuonRecHitPointer [private] |
Definition at line 33 of file RPCSeedPattern.h.
typedef MuonTransientTrackingRecHit::MuonRecHitContainer RPCSeedPattern::MuonRecHitContainer [private] |
Definition at line 34 of file RPCSeedPattern.h.
Definition at line 32 of file RPCSeedPattern.h.
| typedef std::pair<ConstMuonRecHitPointer, ConstMuonRecHitPointer> RPCSeedPattern::RPCSegment |
Definition at line 38 of file RPCSeedPattern.h.
| typedef std::pair<TrajectorySeed, double> RPCSeedPattern::weightedTrajectorySeed |
Definition at line 39 of file RPCSeedPattern.h.
| RPCSeedPattern::RPCSeedPattern | ( | ) |
Definition at line 35 of file RPCSeedPattern.cc.
{
isPatternChecked = false;
isConfigured = false;
MagnecticFieldThreshold = 0.5;
}
| RPCSeedPattern::~RPCSeedPattern | ( | ) |
Definition at line 42 of file RPCSeedPattern.cc.
{
}
| void RPCSeedPattern::add | ( | const ConstMuonRecHitPointer & | hit | ) | [inline] |
Definition at line 46 of file RPCSeedPattern.h.
References theRecHits.
{ theRecHits.push_back(hit); }
| MuonTransientTrackingRecHit::ConstMuonRecHitPointer RPCSeedPattern::BestRefRecHit | ( | ) | const [private] |
Definition at line 526 of file RPCSeedPattern.cc.
References getHLTprescales::index.
{
ConstMuonRecHitPointer best;
int index = 0;
// Use the last one for recHit on last layer has minmum delta Z for barrel or delta R for endcap while calculating the momentum
// But for Algorithm 3 we use the 4th recHit on the 2nd segment for more accurate
for (ConstMuonRecHitContainer::const_iterator iter=theRecHits.begin(); iter!=theRecHits.end(); iter++)
{
if(AlgorithmType != 3)
best = (*iter);
else
if(index < 4)
best = (*iter);
index++;
}
return best;
}
| bool RPCSeedPattern::checkSegment | ( | ) | const [private] |
Definition at line 489 of file RPCSeedPattern.cc.
References prof2calltree::count, gather_cfg::cout, align::Detector, RPCChamber::id(), RPCDetId::region(), and RPCDetId::station().
{
bool isFit = true;
unsigned int count = 0;
// first 4 recHits should be located in RB1 and RB2
for(ConstMuonRecHitContainer::const_iterator iter=theRecHits.begin(); iter!=theRecHits.end(); iter++)
{
count++;
const GeomDet* Detector = (*iter)->det();
if(dynamic_cast<const RPCChamber*>(Detector) != 0)
{
const RPCChamber* RPCCh = dynamic_cast<const RPCChamber*>(Detector);
RPCDetId RPCId = RPCCh->id();
int Region = RPCId.region();
unsigned int Station = RPCId.station();
//int Layer = RPCId.layer();
if(count <= 4)
{
if(Region != 0)
isFit = false;
if(Station > 2)
isFit = false;
}
}
}
// more than 4 recHits for pattern building
if(count <= 4)
isFit = false;
cout << "Check for segment fit: " << isFit << endl;
return isFit;
}
| void RPCSeedPattern::checkSegmentAlgorithmSpecial | ( | const edm::EventSetup & | eSetup | ) | [private] |
Definition at line 825 of file RPCSeedPattern.cc.
References gather_cfg::cout, deltaR(), getHLTprescales::index, PV3DBase< T, PVType, FrameType >::perp(), phi, mathSSE::sqrt(), upper_limit_pt, and relativeConstraints::value.
{
if(isPatternChecked == true)
return;
if(!checkSegment())
{
isPatternChecked = true;
isGoodPattern = -1;
return;
}
// Set isGoodPattern to default true and check the failure
isGoodPattern = 1;
// Print the recHit's position
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != theRecHits.end(); iter++)
cout << "Position of recHit is: " << (*iter)->globalPosition() << endl;
// Check the Z direction
if(fabs((*(theRecHits.end()-1))->globalPosition().z() - (*(theRecHits.begin()))->globalPosition().z()) > ZError)
{
if(((*(theRecHits.end()-1))->globalPosition().z() - (*(theRecHits.begin()))->globalPosition().z()) > ZError)
isParralZ = 1;
else
isParralZ = -1;
}
else
isParralZ = 0;
cout << " Check isParralZ is :" << isParralZ << endl;
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != (theRecHits.end()-1); iter++)
{
if(isParralZ == 0)
{
if(fabs((*(iter+1))->globalPosition().z()-(*iter)->globalPosition().z()) > ZError)
{
cout << "Pattern find error in Z direction: wrong perpendicular direction" << endl;
isGoodPattern = 0;
}
}
else
{
if((int)(((*(iter+1))->globalPosition().z()-(*iter)->globalPosition().z())/ZError)*isParralZ < 0)
{
cout << "Pattern find error in Z direction: wrong Z direction" << endl;
isGoodPattern = 0;
}
}
}
// Check the pattern
if(isStraight2 == true)
{
// Set pattern to be straight
isClockwise = 0;
meanPt = upper_limit_pt;
// Set the straight pattern with lowest priority among good pattern
meanSpt = deltaRThreshold;
// Extrapolate to other recHits and check deltaR
GlobalVector startSegment = (SegmentRB[1].second)->globalPosition() - (SegmentRB[1].first)->globalPosition();
GlobalPoint startPosition = (SegmentRB[1].first)->globalPosition();
GlobalVector startMomentum = startSegment*(meanPt/startSegment.perp());
unsigned int index = 0;
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != theRecHits.end(); iter++)
{
if(index < 4)
{
index++;
continue;
}
double tracklength = 0;
cout << "Now checking recHit " << index << endl;
double Distance = extropolateStep(startPosition, startMomentum, iter, isClockwise, tracklength, eSetup);
cout << "Final distance is " << Distance << endl;
if(Distance > MaxRSD)
{
cout << "Pattern find error in distance for other recHits: " << Distance << endl;
isGoodPattern = 0;
}
index++;
}
}
else
{
// Get clockwise direction
GlobalVector vec[2];
vec[0] = GlobalVector((entryPosition.x()-Center2.x()), (entryPosition.y()-Center2.y()), (entryPosition.z()-Center2.z()));
vec[1] = GlobalVector((leavePosition.x()-Center2.x()), (leavePosition.y()-Center2.y()), (leavePosition.z()-Center2.z()));
isClockwise = 0;
if((vec[1].phi()-vec[0].phi()).value() > 0)
isClockwise = -1;
else
isClockwise = 1;
cout << "Check isClockwise is : " << isClockwise << endl;
// Get meanPt
meanPt = 0.01 * meanRadius2 * meanMagneticField2.z() * 0.3 * isClockwise;
//meanPt = 0.01 * meanRadius2[0] * (-3.8) * 0.3 * isClockwise;
cout << " meanRadius is " << meanRadius2 << ", with meanBz " << meanMagneticField2.z() << endl;
cout << " meanPt is " << meanPt << endl;
if(fabs(meanPt) > upper_limit_pt)
meanPt = upper_limit_pt * meanPt / fabs(meanPt);
// Check the initial 3 segments
cout << "entryPosition: " << entryPosition << endl;
cout << "leavePosition: " << leavePosition << endl;
cout << "Center2 is : " << Center2 << endl;
double R1 = vec[0].perp();
double R2 = vec[1].perp();
double deltaR = sqrt(((R1-meanRadius2)*(R1-meanRadius2)+(R2-meanRadius2)*(R2-meanRadius2))/2);
meanSpt = deltaR;
cout << "R1 is " << R1 << ", R2 is " << R2 << endl;
cout << "Delta R for the initial 3 segments is " << deltaR << endl;
if(deltaR > deltaRThreshold)
{
cout << "Pattern find error in delta R for the initial 3 segments" << endl;
isGoodPattern = 0;
}
// Extrapolate to other recHits and check deltaR
GlobalVector startSegment = (SegmentRB[1].second)->globalPosition() - (SegmentRB[1].first)->globalPosition();
GlobalPoint startPosition = (SegmentRB[1].first)->globalPosition();
GlobalVector startMomentum = startSegment*(fabs(meanPt)/startSegment.perp());
unsigned int index = 0;
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != theRecHits.end(); iter++)
{
if(index < 4)
{
index++;
continue;
}
double tracklength = 0;
cout << "Now checking recHit " << index << endl;
double Distance = extropolateStep(startPosition, startMomentum, iter, isClockwise, tracklength, eSetup);
cout << "Final distance is " << Distance << endl;
if(Distance > MaxRSD)
{
cout << "Pattern find error in distance for other recHits: " << Distance << endl;
isGoodPattern = 0;
}
index++;
}
}
cout << "Checking finish, isGoodPattern now is " << isGoodPattern << endl;
// Set the pattern estimation signal
isPatternChecked = true;
}
| void RPCSeedPattern::checkSimplePattern | ( | const edm::EventSetup & | eSetup | ) | [private] |
Definition at line 667 of file RPCSeedPattern.cc.
References abs, gather_cfg::cout, deltaR(), edm::EventSetup::get(), getHLTprescales::index, phi, mathSSE::sqrt(), upper_limit_pt, PV3DBase< T, PVType, FrameType >::x(), PV3DBase< T, PVType, FrameType >::y(), and PV3DBase< T, PVType, FrameType >::z().
{
if(isPatternChecked == true)
return;
// Get magnetic field
edm::ESHandle<MagneticField> Field;
eSetup.get<IdealMagneticFieldRecord>().get(Field);
unsigned int NumberofHitsinSeed = nrhit();
// Print the recHit's position
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != theRecHits.end(); iter++)
cout << "Position of recHit is: " << (*iter)->globalPosition() << endl;
// Get magnetice field information
std::vector<double> BzValue;
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != (theRecHits.end()-1); iter++)
{
GlobalPoint gpFirst = (*iter)->globalPosition();
GlobalPoint gpLast = (*(iter+1))->globalPosition();
GlobalPoint *gp = new GlobalPoint[sampleCount];
double dx = (gpLast.x() - gpFirst.x()) / (sampleCount + 1);
double dy = (gpLast.y() - gpFirst.y()) / (sampleCount + 1);
double dz = (gpLast.z() - gpFirst.z()) / (sampleCount + 1);
for(unsigned int index = 0; index < sampleCount; index++)
{
gp[index] = GlobalPoint((gpFirst.x()+dx*(index+1)), (gpFirst.y()+dy*(index+1)), (gpFirst.z()+dz*(index+1)));
GlobalVector MagneticVec_temp = Field->inTesla(gp[index]);
cout << "Sampling magnetic field : " << MagneticVec_temp << endl;
BzValue.push_back(MagneticVec_temp.z());
}
delete [] gp;
}
meanBz = 0.;
for(unsigned int index = 0; index < BzValue.size(); index++)
meanBz += BzValue[index];
meanBz /= BzValue.size();
cout << "Mean Bz is " << meanBz << endl;
deltaBz = 0.;
for(unsigned int index = 0; index < BzValue.size(); index++)
deltaBz += (BzValue[index] - meanBz) * (BzValue[index] - meanBz);
deltaBz /= BzValue.size();
deltaBz = sqrt(deltaBz);
cout<< "delata Bz is " << deltaBz << endl;
// Set isGoodPattern to default true and check the failure
isGoodPattern = 1;
// Check the Z direction
if(fabs((*(theRecHits.end()-1))->globalPosition().z() - (*(theRecHits.begin()))->globalPosition().z()) > ZError)
{
if(((*(theRecHits.end()-1))->globalPosition().z() - (*(theRecHits.begin()))->globalPosition().z()) > ZError)
isParralZ = 1;
else
isParralZ = -1;
}
else
isParralZ = 0;
cout << " Check isParralZ is :" << isParralZ << endl;
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != (theRecHits.end()-1); iter++)
{
if(isParralZ == 0)
{
if(fabs((*(iter+1))->globalPosition().z()-(*iter)->globalPosition().z()) > ZError)
{
cout << "Pattern find error in Z direction: wrong perpendicular direction" << endl;
isGoodPattern = 0;
}
}
else
{
if((int)(((*(iter+1))->globalPosition().z()-(*iter)->globalPosition().z())/ZError)*isParralZ < 0)
{
cout << "Pattern find error in Z direction: wrong Z direction" << endl;
isGoodPattern = 0;
}
}
}
// Check pattern
if(isStraight == false)
{
// Check clockwise direction
GlobalVector *vec = new GlobalVector[NumberofHitsinSeed];
unsigned int index = 0;
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != theRecHits.end(); iter++)
{
GlobalVector vec_temp(((*iter)->globalPosition().x()-Center.x()), ((*iter)->globalPosition().y()-Center.y()), ((*iter)->globalPosition().z()-Center.z()));
vec[index] = vec_temp;
index++;
}
isClockwise = 0;
for(unsigned int index = 0; index < (NumberofHitsinSeed-1); index++)
{
// Check phi direction, all sub-dphi direction should be the same
if((vec[index+1].phi()-vec[index].phi()) > 0)
isClockwise--;
else
isClockwise++;
cout << "Current isClockwise is : " << isClockwise << endl;
}
cout << "Check isClockwise is : " << isClockwise << endl;
if((unsigned int)abs(isClockwise) != (NumberofHitsinSeed-1))
{
cout << "Pattern find error in Phi direction" << endl;
isGoodPattern = 0;
isClockwise = 0;
}
else
isClockwise /= abs(isClockwise);
delete [] vec;
// Get meanPt and meanSpt
double deltaRwithBz = fabs(deltaBz * meanRadius / meanBz);
cout << "deltaR with Bz is " << deltaRwithBz << endl;
if(isClockwise == 0)
meanPt = upper_limit_pt;
else
meanPt = 0.01 * meanRadius * meanBz * 0.3 * isClockwise;
if(fabs(meanPt) > upper_limit_pt)
meanPt = upper_limit_pt * meanPt / fabs(meanPt);
cout << " meanRadius is " << meanRadius << endl;
cout << " meanPt is " << meanPt << endl;
double deltaR = 0.;
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != theRecHits.end(); iter++)
{
deltaR += (getDistance(*iter, Center) - meanRadius) * (getDistance(*iter, Center) - meanRadius);
}
deltaR = deltaR / NumberofHitsinSeed;
deltaR = sqrt(deltaR);
//meanSpt = 0.01 * deltaR * meanBz * 0.3;
meanSpt = deltaR;
cout << "DeltaR is " << deltaR << endl;
if(deltaR > deltaRThreshold)
{
cout << "Pattern find error: deltaR over threshold" << endl;
isGoodPattern = 0;
}
}
else
{
// Just set pattern to be straight
isClockwise =0;
meanPt = upper_limit_pt;
// Set the straight pattern with lowest priority among good pattern
meanSpt = deltaRThreshold;
}
cout << "III--> Seed Pt : " << meanPt << endl;
cout << "III--> Pattern is: " << isGoodPattern << endl;
// Set the pattern estimation signal
isPatternChecked = true;
}
| bool RPCSeedPattern::checkStraightwithSegment | ( | const RPCSegment & | Segment1, |
| const RPCSegment & | Segment2, | ||
| double | MinDeltaPhi | ||
| ) | const [private] |
Definition at line 589 of file RPCSeedPattern.cc.
References gather_cfg::cout, PV3DBase< T, PVType, FrameType >::phi(), and relativeConstraints::value.
{
GlobalVector segvec1 = (Segment1.second)->globalPosition() - (Segment1.first)->globalPosition();
GlobalVector segvec2 = (Segment2.second)->globalPosition() - (Segment2.first)->globalPosition();
GlobalVector segvec3 = (Segment2.first)->globalPosition() - (Segment1.first)->globalPosition();
// compare segvec 1&2 for paralle, 1&3 for straight
double dPhi1 = (segvec2.phi() - segvec1.phi()).value();
double dPhi2 = (segvec3.phi() - segvec1.phi()).value();
cout << "Checking straight with 2 segments. dPhi1: " << dPhi1 << ", dPhi2: " << dPhi2 << endl;
cout << "Checking straight with 2 segments. dPhi1 in degree: " << dPhi1*180/3.1415926 << ", dPhi2 in degree: " << dPhi2*180/3.1415926 << endl;
if(fabs(dPhi1) > MinDeltaPhi || fabs(dPhi2) > MinDeltaPhi)
{
cout << "Segment is estimate to be not straight" << endl;
return false;
}
else
{
cout << "Segment is estimate to be straight" << endl;
return true;
}
}
| bool RPCSeedPattern::checkStraightwithThreerecHits | ( | ConstMuonRecHitPointer(&) | precHit[3], |
| double | MinDeltaPhi | ||
| ) | const [private] |
Definition at line 549 of file RPCSeedPattern.cc.
References gather_cfg::cout, dPhi(), PV3DBase< T, PVType, FrameType >::phi(), and relativeConstraints::value.
{
GlobalVector segvec1 = precHit[1]->globalPosition() - precHit[0]->globalPosition();
GlobalVector segvec2 = precHit[2]->globalPosition() - precHit[1]->globalPosition();
double dPhi = (segvec2.phi() - segvec1.phi()).value();
if(fabs(dPhi) > MinDeltaPhi)
{
cout << "Part is estimate to be not straight" << endl;
return false;
}
else
{
cout << "Part is estimate to be straight" << endl;
return true;
}
}
| bool RPCSeedPattern::checkStraightwithThreerecHits | ( | double(&) | x[3], |
| double(&) | y[3], | ||
| double | MinDeltaPhi | ||
| ) | const [private] |
Definition at line 634 of file RPCSeedPattern.cc.
References gather_cfg::cout, dPhi(), PV3DBase< T, PVType, FrameType >::phi(), relativeConstraints::value, x, and detailsBasic3DVector::y.
{
GlobalVector segvec1((x[1]-x[0]), (y[1]-y[0]), 0);
GlobalVector segvec2((x[2]-x[1]), (y[2]-y[1]), 0);
double dPhi = (segvec2.phi() - segvec1.phi()).value();
if(fabs(dPhi) > MinDeltaPhi)
{
cout << "Part is estimate to be not straight" << endl;
return false;
}
else
{
cout << "Part is estimate to be straight" << endl;
return true;
}
}
| void RPCSeedPattern::clear | ( | void | ) | [inline] |
| GlobalVector RPCSeedPattern::computePtwithSegment | ( | const RPCSegment & | Segment1, |
| const RPCSegment & | Segment2 | ||
| ) | const [private] |
Definition at line 611 of file RPCSeedPattern.cc.
References Vector3DBase< T, FrameTag >::cross(), PV3DBase< T, PVType, FrameType >::x(), and PV3DBase< T, PVType, FrameType >::y().
{
GlobalVector segvec1 = (Segment1.second)->globalPosition() - (Segment1.first)->globalPosition();
GlobalVector segvec2 = (Segment2.second)->globalPosition() - (Segment2.first)->globalPosition();
GlobalPoint Point1(((Segment1.second)->globalPosition().x() + (Segment1.first)->globalPosition().x()) / 2, ((Segment1.second)->globalPosition().y() + (Segment1.first)->globalPosition().y()) / 2, ((Segment1.second)->globalPosition().z() + (Segment1.first)->globalPosition().z()) / 2);
GlobalPoint Point2(((Segment2.second)->globalPosition().x() + (Segment2.first)->globalPosition().x()) / 2, ((Segment2.second)->globalPosition().y() + (Segment2.first)->globalPosition().y()) / 2, ((Segment2.second)->globalPosition().z() + (Segment2.first)->globalPosition().z()) / 2);
GlobalVector vecZ(0, 0, 1);
GlobalVector gvec1 = segvec1.cross(vecZ);
GlobalVector gvec2 = segvec2.cross(vecZ);
double A1 = gvec1.x();
double B1 = gvec1.y();
double A2 = gvec2.x();
double B2 = gvec2.y();
double X1 = Point1.x();
double Y1 = Point1.y();
double X2 = Point2.x();
double Y2 = Point2.y();
double XO = (A1*A2*(Y2-Y1)+A2*B1*X1-A1*B2*X2)/(A2*B1-A1*B2);
double YO = (B1*B2*(X2-X1)+B2*A1*Y1-B1*A2*Y2)/(B2*A1-B1*A2);
GlobalVector Center(XO, YO, 0);
return Center;
}
| GlobalVector RPCSeedPattern::computePtwithThreerecHits | ( | double & | pt, |
| double & | pt_err, | ||
| ConstMuonRecHitPointer(&) | precHit[3] | ||
| ) | const [private] |
Definition at line 566 of file RPCSeedPattern.cc.
References funct::A, gather_cfg::cout, mathSSE::sqrt(), x, and detailsBasic3DVector::y.
{
double x[3], y[3];
x[0] = precHit[0]->globalPosition().x();
y[0] = precHit[0]->globalPosition().y();
x[1] = precHit[1]->globalPosition().x();
y[1] = precHit[1]->globalPosition().y();
x[2] = precHit[2]->globalPosition().x();
y[2] = precHit[2]->globalPosition().y();
double A = (y[2]-y[1])/(x[2]-x[1]) - (y[1]-y[0])/(x[1]-x[0]);
double TYO = (x[2]-x[0])/A + (y[2]*y[2]-y[1]*y[1])/((x[2]-x[1])*A) - (y[1]*y[1]-y[0]*y[0])/((x[1]-x[0])*A);
double TXO = (x[2]+x[1]) + (y[2]*y[2]-y[1]*y[1])/(x[2]-x[1]) - TYO*(y[2]-y[1])/(x[2]-x[1]);
double XO = 0.5 * TXO;
double YO = 0.5 * TYO;
double R2 = (x[0]-XO)*(x[0]-XO) + (y[0]-YO)*(y[0]-YO);
cout << "R2 is " << R2 << endl;
// How this algorithm get the pt without magnetic field??
pt = 0.01 * sqrt(R2) * 2 * 0.3;
cout << "pt is " << pt << endl;
GlobalVector Center(XO, YO, 0);
return Center;
}
| GlobalVector RPCSeedPattern::computePtWithThreerecHits | ( | double & | pt, |
| double & | pt_err, | ||
| double(&) | x[3], | ||
| double(&) | y[3] | ||
| ) | const [private] |
Definition at line 651 of file RPCSeedPattern.cc.
References funct::A, gather_cfg::cout, mathSSE::sqrt(), x, and detailsBasic3DVector::y.
{
double A = (y[2]-y[1])/(x[2]-x[1]) - (y[1]-y[0])/(x[1]-x[0]);
double TYO = (x[2]-x[0])/A + (y[2]*y[2]-y[1]*y[1])/((x[2]-x[1])*A) - (y[1]*y[1]-y[0]*y[0])/((x[1]-x[0])*A);
double TXO = (x[2]+x[1]) + (y[2]*y[2]-y[1]*y[1])/(x[2]-x[1]) - TYO*(y[2]-y[1])/(x[2]-x[1]);
double XO = 0.5 * TXO;
double YO = 0.5 * TYO;
double R2 = (x[0]-XO)*(x[0]-XO) + (y[0]-YO)*(y[0]-YO);
cout << "R2 is " << R2 << endl;
// How this algorithm get the pt without magnetic field??
pt = 0.01 * sqrt(R2) * 2 * 0.3;
cout << "pt is " << pt << endl;
GlobalVector Center(XO, YO, 0);
return Center;
}
| void RPCSeedPattern::configure | ( | const edm::ParameterSet & | iConfig | ) |
Definition at line 46 of file RPCSeedPattern.cc.
References edm::ParameterSet::getParameter().
{
MaxRSD = iConfig.getParameter<double>("MaxRSD");
deltaRThreshold = iConfig.getParameter<double>("deltaRThreshold");
AlgorithmType = iConfig.getParameter<unsigned int>("AlgorithmType");
autoAlgorithmChoose = iConfig.getParameter<bool>("autoAlgorithmChoose");
ZError = iConfig.getParameter<double>("ZError");
MinDeltaPhi = iConfig.getParameter<double>("MinDeltaPhi");
MagnecticFieldThreshold = iConfig.getParameter<double>("MagnecticFieldThreshold");
stepLength = iConfig.getParameter<double>("stepLength");
sampleCount = iConfig.getParameter<unsigned int>("sampleCount");
isConfigured = true;
}
| RPCSeedPattern::weightedTrajectorySeed RPCSeedPattern::createFakeSeed | ( | int & | isGoodSeed, |
| const edm::EventSetup & | eSetup | ||
| ) | [private] |
Definition at line 1063 of file RPCSeedPattern.cc.
References alongMomentum, gather_cfg::cout, error, edm::EventSetup::get(), trajectoryStateTransform::persistentState(), edm::OwnVector< T, P >::push_back(), and upper_limit_pt.
{
// Create a fake seed and return
cout << "Now create a fake seed" << endl;
isPatternChecked = true;
isGoodPattern = -1;
isStraight = true;
meanPt = upper_limit_pt;
meanSpt = 0;
Charge = 0;
isClockwise = 0;
isParralZ = 0;
meanRadius = -1;
//return createSeed(isGoodSeed, eSetup);
// Get the reference recHit, DON'T use the recHit on 1st layer(inner most layer)
const ConstMuonRecHitPointer best = BestRefRecHit();
Momentum = GlobalVector(0, 0, 0);
LocalPoint segPos=best->localPosition();
LocalVector segDirFromPos=best->det()->toLocal(Momentum);
LocalTrajectoryParameters param(segPos, segDirFromPos, Charge);
//AlgebraicVector t(4);
AlgebraicSymMatrix mat(5,0);
mat = best->parametersError().similarityT(best->projectionMatrix());
mat[0][0] = meanSpt;
LocalTrajectoryError error(asSMatrix<5>(mat));
edm::ESHandle<MagneticField> Field;
eSetup.get<IdealMagneticFieldRecord>().get(Field);
TrajectoryStateOnSurface tsos(param, error, best->det()->surface(), &*Field);
DetId id = best->geographicalId();
PTrajectoryStateOnDet seedTSOS = trajectoryStateTransform::persistentState(tsos, id.rawId());
edm::OwnVector<TrackingRecHit> container;
for(ConstMuonRecHitContainer::const_iterator iter=theRecHits.begin(); iter!=theRecHits.end(); iter++)
container.push_back((*iter)->hit()->clone());
TrajectorySeed theSeed(seedTSOS, container, alongMomentum);
weightedTrajectorySeed theweightedSeed;
theweightedSeed.first = theSeed;
theweightedSeed.second = meanSpt;
isGoodSeed = isGoodPattern;
return theweightedSeed;
}
| RPCSeedPattern::weightedTrajectorySeed RPCSeedPattern::createSeed | ( | int & | isGoodSeed, |
| const edm::EventSetup & | eSetup | ||
| ) | [private] |
Definition at line 1114 of file RPCSeedPattern.cc.
References alongMomentum, gather_cfg::cout, cross(), debug, SiPixelRawToDigiRegional_cfi::deltaPhi, MuonPatternRecoDumper::dumpMuonId(), MuonPatternRecoDumper::dumpTSOS(), error, first, edm::EventSetup::get(), trajectoryStateTransform::persistentState(), PV3DBase< T, PVType, FrameType >::phi(), edm::OwnVector< T, P >::push_back(), Vector3DBase< T, FrameTag >::unit(), and relativeConstraints::value.
{
if(isPatternChecked == false || isGoodPattern == -1)
{
cout <<"Pattern is not yet checked! Create a fake seed instead!" << endl;
return createFakeSeed(isGoodSeed, eSetup);
}
edm::ESHandle<MagneticField> Field;
eSetup.get<IdealMagneticFieldRecord>().get(Field);
MuonPatternRecoDumper debug;
//double theMinMomentum = 3.0;
//if(fabs(meanPt) < lower_limit_pt)
//meanPt = lower_limit_pt * meanPt / fabs(meanPt);
// For pattern we use is Clockwise other than isStraight to estimate charge
if(isClockwise == 0)
Charge = 0;
else
Charge = (int)(meanPt / fabs(meanPt));
// Get the reference recHit, DON'T use the recHit on 1st layer(inner most layer)
const ConstMuonRecHitPointer best = BestRefRecHit();
const ConstMuonRecHitPointer first = FirstRecHit();
if(isClockwise != 0)
{
if(AlgorithmType != 3)
{
// Get the momentum on reference recHit
GlobalVector vecRef1((first->globalPosition().x()-Center.x()), (first->globalPosition().y()-Center.y()), (first->globalPosition().z()-Center.z()));
GlobalVector vecRef2((best->globalPosition().x()-Center.x()), (best->globalPosition().y()-Center.y()), (best->globalPosition().z()-Center.z()));
double deltaPhi = (vecRef2.phi() - vecRef1.phi()).value();
double deltaS = meanRadius * fabs(deltaPhi);
double deltaZ = best->globalPosition().z() - first->globalPosition().z();
GlobalVector vecZ(0, 0, 1);
GlobalVector vecPt = (vecRef2.unit()).cross(vecZ);
if(isClockwise == -1)
vecPt *= -1;
vecPt *= deltaS;
Momentum = GlobalVector(0, 0, deltaZ);
Momentum += vecPt;
Momentum *= fabs(meanPt / deltaS);
}
else
{
double deltaZ = best->globalPosition().z() - first->globalPosition().z();
Momentum = GlobalVector(GlobalVector::Cylindrical(S, lastPhi, deltaZ));
Momentum *= fabs(meanPt / S);
}
}
else
{
Momentum = best->globalPosition() - first->globalPosition();
double deltaS = Momentum.perp();
Momentum *= fabs(meanPt / deltaS);
}
LocalPoint segPos = best->localPosition();
LocalVector segDirFromPos = best->det()->toLocal(Momentum);
LocalTrajectoryParameters param(segPos, segDirFromPos, Charge);
LocalTrajectoryError error = getSpecialAlgorithmErrorMatrix(first, best);
TrajectoryStateOnSurface tsos(param, error, best->det()->surface(), &*Field);
cout << "Trajectory State on Surface before the extrapolation" << endl;
cout << debug.dumpTSOS(tsos);
DetId id = best->geographicalId();
cout << "The RecSegment relies on: " << endl;
cout << debug.dumpMuonId(id);
cout << debug.dumpTSOS(tsos);
PTrajectoryStateOnDet const & seedTSOS = trajectoryStateTransform::persistentState(tsos, id.rawId());
edm::OwnVector<TrackingRecHit> container;
for(ConstMuonRecHitContainer::const_iterator iter=theRecHits.begin(); iter!=theRecHits.end(); iter++)
{
// This casting withou clone will cause memory overflow when used in push_back
// Since container's deconstructor functiion free the pointer menber!
//TrackingRecHit* pt = dynamic_cast<TrackingRecHit*>(&*(*iter));
//cout << "Push recHit type " << pt->getType() << endl;
container.push_back((*iter)->hit()->clone());
}
TrajectorySeed theSeed(seedTSOS, container, alongMomentum);
weightedTrajectorySeed theweightedSeed;
theweightedSeed.first = theSeed;
theweightedSeed.second = meanSpt;
isGoodSeed = isGoodPattern;
return theweightedSeed;
}
| double RPCSeedPattern::extropolateStep | ( | const GlobalPoint & | startPosition, |
| const GlobalVector & | startMomentum, | ||
| ConstMuonRecHitContainer::const_iterator | iter, | ||
| const int | ClockwiseDirection, | ||
| double & | tracklength, | ||
| const edm::EventSetup & | eSetup | ||
| ) | [private] |
Definition at line 977 of file RPCSeedPattern.cc.
References RPCGeometry::chamber(), gather_cfg::cout, Vector3DBase< T, FrameTag >::cross(), SiPixelRawToDigiRegional_cfi::deltaPhi, edm::EventSetup::get(), Plane::localZ(), PV3DBase< T, PVType, FrameType >::mag(), PV3DBase< T, PVType, FrameType >::perp(), PV3DBase< T, PVType, FrameType >::phi(), colinearityKinematic::Phi, DetId::rawId(), RPCDetId, GeomDet::surface(), Vector3DBase< T, FrameTag >::unit(), and PV3DBase< T, PVType, FrameType >::z().
{
// Get magnetic field
edm::ESHandle<MagneticField> Field;
eSetup.get<IdealMagneticFieldRecord>().get(Field);
cout << "Extrapolating the track to check the pattern" << endl;
tracklength = 0;
// Get the iter recHit's detector geometry
DetId hitDet = (*iter)->hit()->geographicalId();
RPCDetId RPCId = RPCDetId(hitDet.rawId());
//const RPCChamber* hitRPC = dynamic_cast<const RPCChamber*>(hitDet);
edm::ESHandle<RPCGeometry> pRPCGeom;
eSetup.get<MuonGeometryRecord>().get(pRPCGeom);
const RPCGeometry* rpcGeometry = (const RPCGeometry*)&*pRPCGeom;
const BoundPlane RPCSurface = rpcGeometry->chamber(RPCId)->surface();
double startSide = RPCSurface.localZ(startPosition);
cout << "Start side : " << startSide;
GlobalPoint currentPosition = startPosition;
double currentSide = RPCSurface.localZ(currentPosition);
GlobalVector currentMomentum = startMomentum;
GlobalVector ZDirection(0, 0, 1);
// Use the perp other than mag, since initial segment might have small value while final recHit have large difference value at Z direction
double currentDistance = ((GlobalVector)(currentPosition - (*iter)->globalPosition())).perp();
cout << "Start current position is : " << currentPosition << endl;
cout << "Start current Momentum is: " << currentMomentum.mag() << ", in vector: " << currentMomentum << endl;
cout << "Start current distance is " << currentDistance << endl;
cout << "Start current radius is " << currentPosition.perp() << endl;
cout << "Destination radius is " << (*iter)->globalPosition().perp() << endl;
// Judge roughly if the stepping cross the Det surface of the recHit
//while((currentPosition.perp() < ((*iter)->globalPosition().perp())))
double currentDistance_next = currentDistance;
do
{
currentDistance = currentDistance_next;
if(ClockwiseDirection == 0)
{
currentPosition += currentMomentum.unit() * stepLength;
}
else
{
double Bz = Field->inTesla(currentPosition).z();
double Radius = currentMomentum.perp()/fabs(Bz*0.01*0.3);
double deltaPhi = (stepLength*currentMomentum.perp()/currentMomentum.mag())/Radius;
// Get the center for current step
GlobalVector currentPositiontoCenter = currentMomentum.unit().cross(ZDirection);
currentPositiontoCenter *= Radius;
// correction of ClockwiseDirection correction
currentPositiontoCenter *= ClockwiseDirection;
// continue to get the center for current step
GlobalPoint currentCenter = currentPosition;
currentCenter += currentPositiontoCenter;
// Get the next step position
GlobalVector CentertocurrentPosition = (GlobalVector)(currentPosition - currentCenter);
double Phi = CentertocurrentPosition.phi().value();
Phi += deltaPhi * (-1) * ClockwiseDirection;
double deltaZ = stepLength*currentMomentum.z()/currentMomentum.mag();
GlobalVector CentertonewPosition(GlobalVector::Cylindrical(CentertocurrentPosition.perp(), Phi, deltaZ));
double PtPhi = currentMomentum.phi().value();
PtPhi += deltaPhi * (-1) * ClockwiseDirection;
currentMomentum = GlobalVector(GlobalVector::Cylindrical(currentMomentum.perp(), PtPhi, currentMomentum.z()));
currentPosition = currentCenter + CentertonewPosition;
}
// count the total step length
tracklength += stepLength * currentMomentum.perp() / currentMomentum.mag();
// Get the next step distance
currentSide = RPCSurface.localZ(currentPosition);
cout << "Stepping current side : " << currentSide << endl;
cout << "Stepping current position is: " << currentPosition << endl;
cout << "Stepping current Momentum is: " << currentMomentum.mag() << ", in vector: " << currentMomentum << endl;
currentDistance_next = ((GlobalVector)(currentPosition - (*iter)->globalPosition())).perp();
cout << "Stepping current distance is " << currentDistance << endl;
cout << "Stepping current radius is " << currentPosition.perp() << endl;
}while(currentDistance_next < currentDistance);
return currentDistance;
}
| MuonTransientTrackingRecHit::ConstMuonRecHitPointer RPCSeedPattern::FirstRecHit | ( | ) | const [private] |
Definition at line 521 of file RPCSeedPattern.cc.
{
return theRecHits.front();
}
| double RPCSeedPattern::getDistance | ( | const ConstMuonRecHitPointer & | precHit, |
| const GlobalVector & | Center | ||
| ) | const [private] |
Definition at line 544 of file RPCSeedPattern.cc.
References mathSSE::sqrt(), PV3DBase< T, PVType, FrameType >::x(), and PV3DBase< T, PVType, FrameType >::y().
| LocalTrajectoryError RPCSeedPattern::getSpecialAlgorithmErrorMatrix | ( | const ConstMuonRecHitPointer & | first, |
| const ConstMuonRecHitPointer & | best | ||
| ) | [private] |
Definition at line 1210 of file RPCSeedPattern.cc.
References beta, gather_cfg::cout, SiPixelRawToDigiRegional_cfi::deltaPhi, dPhi(), dttmaxenums::L, N, PV3DBase< T, PVType, FrameType >::perp(), PV3DBase< T, PVType, FrameType >::phi(), phi, edm::second(), mathSSE::sqrt(), GeomDet::toGlobal(), GeomDet::toLocal(), upper_limit_pt, relativeConstraints::value, PV3DBase< T, PVType, FrameType >::x(), PV3DBase< T, PVType, FrameType >::y(), and PV3DBase< T, PVType, FrameType >::z().
{
LocalTrajectoryError Error;
double dXdZ = 0;
double dYdZ = 0;
double dP = 0;
AlgebraicSymMatrix mat(5, 0);
mat = best->parametersError().similarityT(best->projectionMatrix());
if(AlgorithmType != 3) {
GlobalVector vecRef1((first->globalPosition().x()-Center.x()), (first->globalPosition().y()-Center.y()), (first->globalPosition().z()-Center.z()));
GlobalVector vecRef2((best->globalPosition().x()-Center.x()), (best->globalPosition().y()-Center.y()), (best->globalPosition().z()-Center.z()));
double deltaPhi = (vecRef2.phi() - vecRef1.phi()).value();
double L = meanRadius * fabs(deltaPhi);
double N = nrhit();
double A_N = 180*N*N*N/((N-1)*(N+1)*(N+2)*(N+3));
double sigma_x = sqrt(mat[3][3]);
double betaovergame = Momentum.mag()/0.1066;
double beta = sqrt((betaovergame*betaovergame)/(1+betaovergame*betaovergame));
double dPt = meanPt*(0.0136*sqrt(1/100)*sqrt(4*A_N/N)/(beta*0.3*meanBz*L) + sigma_x*meanPt*sqrt(4*A_N)/(0.3*meanBz*L*L));
double dP = dPt * Momentum.mag() / meanPt;
mat[0][0] = (dP * dP) / (Momentum.mag() * Momentum.mag() * Momentum.mag() * Momentum.mag());
mat[1][1] = dXdZ * dXdZ;
mat[2][2] = dYdZ * dYdZ;
Error = LocalTrajectoryError(asSMatrix<5>(mat));
}
else {
AlgebraicSymMatrix mat0(5, 0);
mat0 = (SegmentRB[0].first)->parametersError().similarityT((SegmentRB[0].first)->projectionMatrix());
double dX0 = sqrt(mat0[3][3]);
double dY0 = sqrt(mat0[4][4]);
AlgebraicSymMatrix mat1(5, 0);
mat1 = (SegmentRB[0].second)->parametersError().similarityT((SegmentRB[0].second)->projectionMatrix());
double dX1 = sqrt(mat1[3][3]);
double dY1 = sqrt(mat1[4][4]);
AlgebraicSymMatrix mat2(5, 0);
mat2 = (SegmentRB[1].first)->parametersError().similarityT((SegmentRB[1].first)->projectionMatrix());
double dX2 = sqrt(mat2[3][3]);
double dY2 = sqrt(mat2[4][4]);
AlgebraicSymMatrix mat3(5, 0);
mat3 = (SegmentRB[1].second)->parametersError().similarityT((SegmentRB[1].second)->projectionMatrix());
double dX3 = sqrt(mat3[3][3]);
double dY3 = sqrt(mat3[4][4]);
cout << "Local error for 4 recHits are: " << dX0 << ", " << dY0 << ", " << dX1 << ", " << dY1 << ", " << dX2 << ", " << dY2 << ", " << dX3 << ", " << dY3 << endl;
const GeomDetUnit* refRPC1 = (SegmentRB[0].second)->detUnit();
LocalPoint recHit0 = refRPC1->toLocal((SegmentRB[0].first)->globalPosition());
LocalPoint recHit1 = refRPC1->toLocal((SegmentRB[0].second)->globalPosition());
LocalVector localSegment00 = (LocalVector)(recHit1 - recHit0);
LocalVector localSegment01 = LocalVector(localSegment00.x()+dX0+dX1, localSegment00.y(), localSegment00.z());
LocalVector localSegment02 = LocalVector(localSegment00.x()-dX0-dX1, localSegment00.y(), localSegment00.z());
GlobalVector globalSegment00 = refRPC1->toGlobal(localSegment00);
GlobalVector globalSegment01 = refRPC1->toGlobal(localSegment01);
GlobalVector globalSegment02 = refRPC1->toGlobal(localSegment02);
const GeomDetUnit* refRPC2 = (SegmentRB[1].first)->detUnit();
LocalPoint recHit2 = refRPC2->toLocal((SegmentRB[1].first)->globalPosition());
LocalPoint recHit3 = refRPC2->toLocal((SegmentRB[1].second)->globalPosition());
LocalVector localSegment10 = (LocalVector)(recHit3 - recHit2);
LocalVector localSegment11 = LocalVector(localSegment10.x()+dX2+dX3, localSegment10.y(), localSegment10.z());
LocalVector localSegment12 = LocalVector(localSegment10.x()-dX2-dX3, localSegment10.y(), localSegment10.z());
GlobalVector globalSegment10 = refRPC2->toGlobal(localSegment10);
GlobalVector globalSegment11 = refRPC2->toGlobal(localSegment11);
GlobalVector globalSegment12 = refRPC2->toGlobal(localSegment12);
if(isClockwise != 0) {
GlobalVector vec[2];
vec[0] = GlobalVector((entryPosition.x()-Center2.x()), (entryPosition.y()-Center2.y()), (entryPosition.z()-Center2.z()));
vec[1] = GlobalVector((leavePosition.x()-Center2.x()), (leavePosition.y()-Center2.y()), (leavePosition.z()-Center2.z()));
double halfPhiCenter = fabs((vec[1].phi() - vec[0].phi()).value()) / 2;
// dPhi0 shoule be the same clockwise direction, while dPhi1 should be opposite clockwise direction, w.r.t to the track clockwise
double dPhi0 = (((globalSegment00.phi() - globalSegment01.phi()).value()*isClockwise) > 0) ? fabs((globalSegment00.phi() - globalSegment01.phi()).value()) : fabs((globalSegment00.phi() - globalSegment02.phi()).value());
double dPhi1 = (((globalSegment10.phi() - globalSegment11.phi()).value()*isClockwise) < 0) ? fabs((globalSegment10.phi() - globalSegment11.phi()).value()) : fabs((globalSegment10.phi() - globalSegment12.phi()).value());
// For the deltaR should be kept small, we assume the delta Phi0/Phi1 should be in a same limit value
double dPhi = (dPhi0 <= dPhi1) ? dPhi0 : dPhi1;
cout << "DPhi for new Segment is about " << dPhi << endl;
// Check the variance of halfPhiCenter
double newhalfPhiCenter = ((halfPhiCenter-dPhi) > 0 ? (halfPhiCenter-dPhi) : 0);
if(newhalfPhiCenter != 0) {
double newmeanPt = meanPt * halfPhiCenter / newhalfPhiCenter;
if(fabs(newmeanPt) > upper_limit_pt)
newmeanPt = upper_limit_pt * meanPt / fabs(meanPt);
cout << "The error is inside range. Max meanPt could be " << newmeanPt << endl;
dP = fabs(Momentum.mag() * (newmeanPt - meanPt) / meanPt);
}
else {
double newmeanPt = upper_limit_pt * meanPt / fabs(meanPt);
cout << "The error is outside range. Max meanPt could be " << newmeanPt << endl;
dP = fabs(Momentum.mag() * (newmeanPt - meanPt) / meanPt);
}
}
else {
double dPhi0 = (fabs((globalSegment00.phi() - globalSegment01.phi()).value()) <= fabs((globalSegment00.phi() - globalSegment02.phi()).value())) ? fabs((globalSegment00.phi() - globalSegment01.phi()).value()) : fabs((globalSegment00.phi() - globalSegment02.phi()).value());
double dPhi1 = (fabs((globalSegment10.phi() - globalSegment11.phi()).value()) <= fabs((globalSegment10.phi() - globalSegment12.phi()).value())) ? fabs((globalSegment10.phi() - globalSegment11.phi()).value()) : fabs((globalSegment10.phi() - globalSegment12.phi()).value());
double dPhi = (dPhi0 <= dPhi1) ? dPhi0 : dPhi1;
GlobalVector middleSegment = leavePosition - entryPosition;
double halfDistance = middleSegment.perp() / 2;
double newmeanPt = halfDistance / dPhi;
cout << "The error is for straight. Max meanPt could be " << newmeanPt << endl;
dP = fabs(Momentum.mag() * (newmeanPt - meanPt) / meanPt);
}
double dXdZ1 = globalSegment11.x() / globalSegment11.z() - globalSegment10.x() / globalSegment10.z();
double dXdZ2 = globalSegment12.x() / globalSegment12.z() - globalSegment10.x() / globalSegment10.z();
dXdZ = (fabs(dXdZ1) >= fabs(dXdZ2)) ? dXdZ1 : dXdZ2;
LocalVector localSegment13 = LocalVector(localSegment10.x(), localSegment10.y()+dY2+dY3, localSegment10.z());
LocalVector localSegment14 = LocalVector(localSegment10.x(), localSegment10.y()-dY2-dY3, localSegment10.z());
GlobalVector globalSegment13 = refRPC2->toGlobal(localSegment13);
GlobalVector globalSegment14 = refRPC2->toGlobal(localSegment14);
double dYdZ1 = globalSegment13.y() / globalSegment13.z() - globalSegment10.y() / globalSegment10.z();
double dYdZ2 = globalSegment14.y() / globalSegment14.z() - globalSegment10.y() / globalSegment10.z();
dYdZ = (fabs(dYdZ1) >= fabs(dYdZ2)) ? dYdZ1 : dYdZ2;
mat[0][0] = (dP * dP) / (Momentum.mag() * Momentum.mag() * Momentum.mag() * Momentum.mag());
mat[1][1] = dXdZ * dXdZ;
mat[2][2] = dYdZ * dYdZ;
Error = LocalTrajectoryError(asSMatrix<5>(mat));
}
return Error;
}
| void RPCSeedPattern::MiddlePointsAlgorithm | ( | ) | [private] |
Definition at line 195 of file RPCSeedPattern.cc.
References gather_cfg::cout, i, n, X, x, and detailsBasic3DVector::y.
{
cout << "Using middle points algorithm" << endl;
unsigned int NumberofHitsinSeed = nrhit();
// Check recHit number, if fail we set the pattern to "wrong"
if(NumberofHitsinSeed < 4)
{
isPatternChecked = true;
isGoodPattern = -1;
return;
}
double *X = new double[NumberofHitsinSeed];
double *Y = new double[NumberofHitsinSeed];
unsigned int n = 0;
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != theRecHits.end(); iter++)
{
X[n] = (*iter)->globalPosition().x();
Y[n] = (*iter)->globalPosition().y();
cout << "X[" << n <<"] = " << X[n] << ", Y[" << n <<"]= " << Y[n] << endl;
n++;
}
unsigned int NumberofPoints = NumberofHitsinSeed;
while(NumberofPoints > 3)
{
for(unsigned int i = 0; i <= (NumberofPoints - 2); i++)
{
X[i] = (X[i] + X[i+1]) / 2;
Y[i] = (Y[i] + Y[i+1]) / 2;
}
NumberofPoints--;
}
double x[3], y[3];
for(unsigned int i = 0; i < 3; i++)
{
x[i] = X[i];
y[i] = Y[i];
}
double pt = 0;
double pt_err = 0;
bool checkStraight = checkStraightwithThreerecHits(x, y, MinDeltaPhi);
if(!checkStraight)
{
GlobalVector Center_temp = computePtWithThreerecHits(pt, pt_err, x, y);
double meanR = 0.;
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != theRecHits.end(); iter++)
meanR += getDistance(*iter, Center_temp);
meanR /= NumberofHitsinSeed;
// For simple pattern
isStraight = false;
Center = Center_temp;
meanRadius = meanR;
}
else
{
// For simple pattern
isStraight = true;
meanRadius = -1;
}
// Unset the pattern estimation signa
isPatternChecked = false;
delete [] X;
delete [] Y;
}
| unsigned int RPCSeedPattern::nrhit | ( | ) | const [inline] |
Definition at line 47 of file RPCSeedPattern.h.
References theRecHits.
{ return theRecHits.size(); }
| RPCSeedPattern::weightedTrajectorySeed RPCSeedPattern::seed | ( | const edm::EventSetup & | eSetup, |
| int & | isGoodSeed | ||
| ) | [private] |
Definition at line 60 of file RPCSeedPattern.cc.
References gather_cfg::cout.
{
if(isConfigured == false)
{
cout << "Configuration not set yet" << endl;
return createFakeSeed(isGoodSeed, eSetup);
}
// Check recHit number, if fail we return a fake seed and set pattern to "wrong"
unsigned int NumberofHitsinSeed = nrhit();
if(NumberofHitsinSeed < 3)
return createFakeSeed(isGoodSeed, eSetup);
// If only three recHits, we don't have other choice
if(NumberofHitsinSeed == 3)
ThreePointsAlgorithm();
if(NumberofHitsinSeed > 3)
{
if(autoAlgorithmChoose == false)
{
cout << "computePtWithmorerecHits" << endl;
if(AlgorithmType == 0)
ThreePointsAlgorithm();
if(AlgorithmType == 1)
MiddlePointsAlgorithm();
if(AlgorithmType == 2)
SegmentAlgorithm();
if(AlgorithmType == 3)
{
if(checkSegment())
SegmentAlgorithmSpecial(eSetup);
else
{
cout << "Not enough recHits for Special Segment Algorithm" << endl;
return createFakeSeed(isGoodSeed, eSetup);
}
}
}
else
{
if(checkSegment())
{
AlgorithmType = 3;
SegmentAlgorithmSpecial(eSetup);
}
else
{
AlgorithmType = 2;
SegmentAlgorithm();
}
}
}
// Check the pattern
if(isPatternChecked == false){
if(AlgorithmType != 3){
checkSimplePattern(eSetup);
} else {
checkSegmentAlgorithmSpecial(eSetup);
}
}
return createSeed(isGoodSeed, eSetup);
}
| void RPCSeedPattern::SegmentAlgorithm | ( | ) | [private] |
Definition at line 262 of file RPCSeedPattern.cc.
References gather_cfg::cout, i, and n.
{
cout << "Using segments algorithm" << endl;
unsigned int NumberofHitsinSeed = nrhit();
// Check recHit number, if fail we set the pattern to "wrong"
if(NumberofHitsinSeed < 4)
{
isPatternChecked = true;
isGoodPattern = -1;
return;
}
RPCSegment* Segment;
unsigned int NumberofSegment = NumberofHitsinSeed - 2;
Segment = new RPCSegment[NumberofSegment];
unsigned int n = 0;
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != (theRecHits.end()-2); iter++)
{
Segment[n].first = (*iter);
Segment[n].second = (*(iter + 2));
n++;
}
unsigned int NumberofStraight = 0;
for(unsigned int i = 0; i < NumberofSegment - 1; i++)
{
bool checkStraight = checkStraightwithSegment(Segment[i], Segment[i+1], MinDeltaPhi);
if(checkStraight == true)
{
// For simple patterm
NumberofStraight++;
}
else
{
GlobalVector Center_temp = computePtwithSegment(Segment[i], Segment[i+1]);
// For simple patterm
Center += Center_temp;
}
}
// For simple pattern, only one general parameter for pattern
if((NumberofSegment-1-NumberofStraight) > 0)
{
isStraight = false;
Center /= (NumberofSegment - 1 - NumberofStraight);
double meanR = 0.;
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != theRecHits.end(); iter++)
meanR += getDistance(*iter, Center);
meanR /= NumberofHitsinSeed;
meanRadius = meanR;
}
else
{
isStraight = true;
meanRadius = -1;
}
// Unset the pattern estimation signal
isPatternChecked = false;
delete [] Segment;
}
| void RPCSeedPattern::SegmentAlgorithmSpecial | ( | const edm::EventSetup & | eSetup | ) | [private] |
Definition at line 323 of file RPCSeedPattern.cc.
References MagneticField_38T_polyFit2D_cff::BValue, gather_cfg::cout, Vector3DBase< T, FrameTag >::cross(), SiPixelRawToDigiRegional_cfi::deltaPhi, deltaR(), edm::EventSetup::get(), getHLTprescales::index, n, PV3DBase< T, PVType, FrameType >::perp(), PV3DBase< T, PVType, FrameType >::phi(), phi, mathSSE::sqrt(), Vector3DBase< T, FrameTag >::unit(), relativeConstraints::value, PV3DBase< T, PVType, FrameType >::x(), PV3DBase< T, PVType, FrameType >::y(), and PV3DBase< T, PVType, FrameType >::z().
{
// Get magnetic field
edm::ESHandle<MagneticField> Field;
eSetup.get<IdealMagneticFieldRecord>().get(Field);
//unsigned int NumberofHitsinSeed = nrhit();
if(!checkSegment())
{
isPatternChecked = true;
isGoodPattern = -1;
return;
}
// Get magnetice field sampling information, recHit's position is not the border of Chamber and Iron
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != (theRecHits.end()-1); iter++)
{
GlobalPoint gpFirst = (*iter)->globalPosition();
GlobalPoint gpLast = (*(iter+1))->globalPosition();
GlobalPoint* gp = new GlobalPoint[sampleCount];
double dx = (gpLast.x() - gpFirst.x()) / (sampleCount + 1);
double dy = (gpLast.y() - gpFirst.y()) / (sampleCount + 1);
double dz = (gpLast.z() - gpFirst.z()) / (sampleCount + 1);
for(unsigned int index = 0; index < sampleCount; index++)
{
gp[index] = GlobalPoint((gpFirst.x()+dx*(index+1)), (gpFirst.y()+dy*(index+1)), (gpFirst.z()+dz*(index+1)));
GlobalVector MagneticVec_temp = Field->inTesla(gp[index]);
cout << "Sampling magnetic field : " << MagneticVec_temp << endl;
//BValue.push_back(MagneticVec_temp);
}
delete [] gp;
}
// form two segments
ConstMuonRecHitContainer::const_iterator iter=theRecHits.begin();
for(unsigned int n = 0; n <= 1; n++)
{
SegmentRB[n].first = (*iter);
cout << "SegmentRB " << n << " recHit: " << (*iter)->globalPosition() << endl;
iter++;
SegmentRB[n].second = (*iter);
cout << "SegmentRB " << n << " recHit: " << (*iter)->globalPosition() << endl;
iter++;
}
GlobalVector segvec1 = (SegmentRB[0].second)->globalPosition() - (SegmentRB[0].first)->globalPosition();
GlobalVector segvec2 = (SegmentRB[1].second)->globalPosition() - (SegmentRB[1].first)->globalPosition();
// extrapolate the segment to find the Iron border which magnetic field is at large value
entryPosition = (SegmentRB[0].second)->globalPosition();
leavePosition = (SegmentRB[1].first)->globalPosition();
while(fabs(Field->inTesla(entryPosition).z()) < MagnecticFieldThreshold)
{
cout << "Entry position is : " << entryPosition << ", and stepping into next point" << endl;
entryPosition += segvec1.unit() * stepLength;
}
// Loop back for more accurate by stepLength/10
while(fabs(Field->inTesla(entryPosition).z()) >= MagnecticFieldThreshold)
{
cout << "Entry position is : " << entryPosition << ", and stepping back into next point" << endl;
entryPosition -= segvec1.unit() * stepLength / 10;
}
entryPosition += 0.5 * segvec1.unit() * stepLength / 10;
cout << "Final entry position is : " << entryPosition << endl;
while(fabs(Field->inTesla(leavePosition).z()) < MagnecticFieldThreshold)
{
cout << "Leave position is : " << leavePosition << ", and stepping into next point" << endl;
leavePosition -= segvec2.unit() * stepLength;
}
// Loop back for more accurate by stepLength/10
while(fabs(Field->inTesla(leavePosition).z()) >= MagnecticFieldThreshold)
{
cout << "Leave position is : " << leavePosition << ", and stepping back into next point" << endl;
leavePosition += segvec2.unit() * stepLength / 10;
}
leavePosition -= 0.5 * segvec2.unit() * stepLength / 10;
cout << "Final leave position is : " << leavePosition << endl;
// Sampling magnetic field in Iron region
GlobalPoint* gp = new GlobalPoint[sampleCount];
double dx = (leavePosition.x() - entryPosition.x()) / (sampleCount + 1);
double dy = (leavePosition.y() - entryPosition.y()) / (sampleCount + 1);
double dz = (leavePosition.z() - entryPosition.z()) / (sampleCount + 1);
std::vector<GlobalVector> BValue;
BValue.clear();
for(unsigned int index = 0; index < sampleCount; index++)
{
gp[index] = GlobalPoint((entryPosition.x()+dx*(index+1)), (entryPosition.y()+dy*(index+1)), (entryPosition.z()+dz*(index+1)));
GlobalVector MagneticVec_temp = Field->inTesla(gp[index]);
cout << "Sampling magnetic field : " << MagneticVec_temp << endl;
BValue.push_back(MagneticVec_temp);
}
delete [] gp;
GlobalVector meanB2(0, 0, 0);
for(std::vector<GlobalVector>::const_iterator BIter = BValue.begin(); BIter != BValue.end(); BIter++)
meanB2 += (*BIter);
meanB2 /= BValue.size();
cout << "Mean B field is " << meanB2 << endl;
meanMagneticField2 = meanB2;
double meanBz2 = meanB2.z();
double deltaBz2 = 0.;
for(std::vector<GlobalVector>::const_iterator BIter = BValue.begin(); BIter != BValue.end(); BIter++)
deltaBz2 += (BIter->z() - meanBz2) * (BIter->z() - meanBz2);;
deltaBz2 /= BValue.size();
deltaBz2 = sqrt(deltaBz2);
cout<< "delta Bz is " << deltaBz2 << endl;
// Distance of the initial 3 segment
S = 0;
bool checkStraight = checkStraightwithSegment(SegmentRB[0], SegmentRB[1], MinDeltaPhi);
if(checkStraight == true)
{
// Just for complex pattern
isStraight2 = checkStraight;
Center2 = GlobalVector(0, 0, 0);
meanRadius2 = -1;
GlobalVector MomentumVec = (SegmentRB[1].second)->globalPosition() - (SegmentRB[0].first)->globalPosition();
S += MomentumVec.perp();
lastPhi = MomentumVec.phi().value();
}
else
{
GlobalVector seg1 = entryPosition - (SegmentRB[0].first)->globalPosition();
S += seg1.perp();
GlobalVector seg2 = (SegmentRB[1].second)->globalPosition() - leavePosition;
S += seg2.perp();
GlobalVector vecZ(0, 0, 1);
GlobalVector gvec1 = seg1.cross(vecZ);
GlobalVector gvec2 = seg2.cross(vecZ);
double A1 = gvec1.x();
double B1 = gvec1.y();
double A2 = gvec2.x();
double B2 = gvec2.y();
double X1 = entryPosition.x();
double Y1 = entryPosition.y();
double X2 = leavePosition.x();
double Y2 = leavePosition.y();
double XO = (A1*A2*(Y2-Y1)+A2*B1*X1-A1*B2*X2)/(A2*B1-A1*B2);
double YO = (B1*B2*(X2-X1)+B2*A1*Y1-B1*A2*Y2)/(B2*A1-B1*A2);
GlobalVector Center_temp(XO, YO, 0);
// Just for complex pattern
isStraight2 = checkStraight;
Center2 = Center_temp;
cout << "entryPosition: " << entryPosition << endl;
cout << "leavePosition: " << leavePosition << endl;
cout << "Center2 is : " << Center_temp << endl;
double R1 = GlobalVector((entryPosition.x() - Center_temp.x()), (entryPosition.y() - Center_temp.y()), (entryPosition.z() - Center_temp.z())).perp();
double R2 = GlobalVector((leavePosition.x() - Center_temp.x()), (leavePosition.y() - Center_temp.y()), (leavePosition.z() - Center_temp.z())).perp();
double meanR = (R1 + R2) / 2;
double deltaR = sqrt(((R1-meanR)*(R1-meanR)+(R2-meanR)*(R2-meanR))/2);
meanRadius2 = meanR;
cout << "R1 is " << R1 << ", R2 is " << R2 << endl;
cout << "Mean radius is " << meanR << endl;
cout << "Delta R is " << deltaR << endl;
double deltaPhi = fabs(((leavePosition-GlobalPoint(XO, YO, 0)).phi()-(entryPosition-GlobalPoint(XO, YO, 0)).phi()).value());
S += meanR * deltaPhi;
lastPhi = seg2.phi().value();
}
// Unset the pattern estimation signa
isPatternChecked = false;
}
| void RPCSeedPattern::ThreePointsAlgorithm | ( | ) | [private] |
Definition at line 125 of file RPCSeedPattern.cc.
References gather_cfg::cout, i, j, gen::k, n, and upper_limit_pt.
{
cout << "computePtWith3recHits" << endl;
unsigned int NumberofHitsinSeed = nrhit();
// Check recHit number, if fail we set the pattern to "wrong"
if(NumberofHitsinSeed < 3)
{
isPatternChecked = true;
isGoodPattern = -1;
return;
}
// Choose every 3 recHits to form a part
unsigned int NumberofPart = NumberofHitsinSeed * (NumberofHitsinSeed - 1) * (NumberofHitsinSeed - 2) / (3 * 2);;
double *pt = new double[NumberofPart];
double *pt_err = new double[NumberofPart];
// Loop for each three-recHits part
ConstMuonRecHitPointer precHit[3];
unsigned int n = 0;
unsigned int NumberofStraight = 0;
for(unsigned int i = 0; i < (NumberofHitsinSeed - 2); i++)
for(unsigned int j = (i + 1); j < (NumberofHitsinSeed - 1); j++)
for(unsigned int k = (j + 1); k < NumberofHitsinSeed; k++)
{
precHit[0] = theRecHits[i];
precHit[1] = theRecHits[j];
precHit[2] = theRecHits[k];
bool checkStraight = checkStraightwithThreerecHits(precHit, MinDeltaPhi);
if(!checkStraight)
{
GlobalVector Center_temp = computePtwithThreerecHits(pt[n], pt_err[n], precHit);
// For simple pattern
Center += Center_temp;
}
else
{
// For simple pattern
NumberofStraight++;
pt[n] = upper_limit_pt;
pt_err[n] = 0;
}
n++;
}
// For simple pattern, only one general parameter for pattern
if(NumberofStraight == NumberofPart)
{
isStraight = true;
meanRadius = -1;
}
else
{
isStraight = false;
Center /= (NumberofPart - NumberofStraight);
double meanR = 0.;
for(ConstMuonRecHitContainer::const_iterator iter = theRecHits.begin(); iter != theRecHits.end(); iter++)
meanR += getDistance(*iter, Center);
meanR /= NumberofHitsinSeed;
meanRadius = meanR;
}
// Unset the pattern estimation signa
isPatternChecked = false;
//double ptmean0 = 0;
//double sptmean0 = 0;
//computeBestPt(pt, pt_err, ptmean0, sptmean0, (NumberofPart - NumberofStraight));
delete [] pt;
delete [] pt_err;
}
friend class RPCSeedFinder [friend] |
Definition at line 50 of file RPCSeedPattern.h.
unsigned int RPCSeedPattern::AlgorithmType [private] |
Definition at line 81 of file RPCSeedPattern.h.
bool RPCSeedPattern::autoAlgorithmChoose [private] |
Definition at line 82 of file RPCSeedPattern.h.
GlobalVector RPCSeedPattern::Center [private] |
Definition at line 104 of file RPCSeedPattern.h.
GlobalVector RPCSeedPattern::Center2 [private] |
Definition at line 95 of file RPCSeedPattern.h.
int RPCSeedPattern::Charge [private] |
Definition at line 113 of file RPCSeedPattern.h.
double RPCSeedPattern::deltaBz [private] |
Definition at line 107 of file RPCSeedPattern.h.
double RPCSeedPattern::deltaRThreshold [private] |
Definition at line 80 of file RPCSeedPattern.h.
GlobalPoint RPCSeedPattern::entryPosition [private] |
Definition at line 98 of file RPCSeedPattern.h.
int RPCSeedPattern::isClockwise [private] |
Definition at line 111 of file RPCSeedPattern.h.
bool RPCSeedPattern::isConfigured [private] |
Definition at line 88 of file RPCSeedPattern.h.
int RPCSeedPattern::isGoodPattern [private] |
Definition at line 110 of file RPCSeedPattern.h.
int RPCSeedPattern::isParralZ [private] |
Definition at line 112 of file RPCSeedPattern.h.
bool RPCSeedPattern::isPatternChecked [private] |
Definition at line 109 of file RPCSeedPattern.h.
bool RPCSeedPattern::isStraight [private] |
Definition at line 103 of file RPCSeedPattern.h.
bool RPCSeedPattern::isStraight2 [private] |
Definition at line 94 of file RPCSeedPattern.h.
double RPCSeedPattern::lastPhi [private] |
Definition at line 100 of file RPCSeedPattern.h.
GlobalPoint RPCSeedPattern::leavePosition [private] |
Definition at line 99 of file RPCSeedPattern.h.
double RPCSeedPattern::MagnecticFieldThreshold [private] |
Definition at line 92 of file RPCSeedPattern.h.
double RPCSeedPattern::MaxRSD [private] |
Definition at line 79 of file RPCSeedPattern.h.
double RPCSeedPattern::meanBz [private] |
Definition at line 106 of file RPCSeedPattern.h.
Definition at line 93 of file RPCSeedPattern.h.
double RPCSeedPattern::meanPt [private] |
Definition at line 114 of file RPCSeedPattern.h.
double RPCSeedPattern::meanRadius [private] |
Definition at line 105 of file RPCSeedPattern.h.
double RPCSeedPattern::meanRadius2 [private] |
Definition at line 96 of file RPCSeedPattern.h.
double RPCSeedPattern::meanSpt [private] |
Definition at line 115 of file RPCSeedPattern.h.
double RPCSeedPattern::MinDeltaPhi [private] |
Definition at line 84 of file RPCSeedPattern.h.
GlobalVector RPCSeedPattern::Momentum [private] |
Definition at line 116 of file RPCSeedPattern.h.
double RPCSeedPattern::S [private] |
Definition at line 101 of file RPCSeedPattern.h.
unsigned int RPCSeedPattern::sampleCount [private] |
Definition at line 86 of file RPCSeedPattern.h.
RPCSegment RPCSeedPattern::SegmentRB[2] [private] |
Definition at line 97 of file RPCSeedPattern.h.
double RPCSeedPattern::stepLength [private] |
Definition at line 85 of file RPCSeedPattern.h.
Definition at line 90 of file RPCSeedPattern.h.
double RPCSeedPattern::ZError [private] |
Definition at line 83 of file RPCSeedPattern.h.
1.7.3