RPCSeedPattern Class Reference

#include <RPCSeedPattern.h>

Public Types
typedef std::pair< ConstMuonRecHitPointer, ConstMuonRecHitPointer >	RPCSegment
typedef std::pair< TrajectorySeed, double >	weightedTrajectorySeed

Public Member Functions
void	add (const ConstMuonRecHitPointer &hit)
void	clear ()
void	configure (const edm::ParameterSet &iConfig)
unsigned int	nrhit () const
	RPCSeedPattern ()
	~RPCSeedPattern ()

Private Types
typedef MuonTransientTrackingRecHit::ConstMuonRecHitContainer	ConstMuonRecHitContainer
typedef MuonTransientTrackingRecHit::ConstMuonRecHitPointer	ConstMuonRecHitPointer
typedef MuonTransientTrackingRecHit::MuonRecHitContainer	MuonRecHitContainer
typedef MuonTransientTrackingRecHit::MuonRecHitPointer	MuonRecHitPointer

Private Member Functions
ConstMuonRecHitPointer	BestRefRecHit () const
bool	checkSegment () const
void	checkSegmentAlgorithmSpecial (const edm::EventSetup &eSetup)
void	checkSimplePattern (const edm::EventSetup &eSetup)
bool	checkStraightwithSegment (const RPCSegment &Segment1, const RPCSegment &Segment2, double MinDeltaPhi) const
bool	checkStraightwithThreerecHits (ConstMuonRecHitPointer(&precHit)[3], double MinDeltaPhi) const
bool	checkStraightwithThreerecHits (double(&x)[3], double(&y)[3], double MinDeltaPhi) const
GlobalVector	computePtwithSegment (const RPCSegment &Segment1, const RPCSegment &Segment2) const
GlobalVector	computePtwithThreerecHits (double &pt, double &pt_err, ConstMuonRecHitPointer(&precHit)[3]) const
GlobalVector	computePtWithThreerecHits (double &pt, double &pt_err, double(&x)[3], double(&y)[3]) const
weightedTrajectorySeed	createFakeSeed (int &isGoodSeed, const edm::EventSetup &eSetup)
weightedTrajectorySeed	createSeed (int &isGoodSeed, const edm::EventSetup &eSetup)
double	extropolateStep (const GlobalPoint &startPosition, const GlobalVector &startMomentum, ConstMuonRecHitContainer::const_iterator iter, const int ClockwiseDirection, double &tracklength, const edm::EventSetup &eSetup)
ConstMuonRecHitPointer	FirstRecHit () const
double	getDistance (const ConstMuonRecHitPointer &precHit, const GlobalVector &Center) const
LocalTrajectoryError	getSpecialAlgorithmErrorMatrix (const ConstMuonRecHitPointer &first, const ConstMuonRecHitPointer &best)
void	MiddlePointsAlgorithm ()
weightedTrajectorySeed	seed (const edm::EventSetup &eSetup, int &isGoodSeed)
void	SegmentAlgorithm ()
void	SegmentAlgorithmSpecial (const edm::EventSetup &eSetup)
void	ThreePointsAlgorithm ()

Private Attributes
unsigned int	AlgorithmType
bool	autoAlgorithmChoose
GlobalVector	Center
GlobalVector	Center2
int	Charge
double	deltaBz
double	deltaRThreshold
GlobalPoint	entryPosition
int	isClockwise
bool	isConfigured
int	isGoodPattern
int	isParralZ
bool	isPatternChecked
bool	isStraight
bool	isStraight2
double	lastPhi
GlobalPoint	leavePosition
double	MagnecticFieldThreshold
double	MaxRSD
double	meanBz
GlobalVector	meanMagneticField2
double	meanPt
double	meanRadius
double	meanRadius2
double	meanSpt
double	MinDeltaPhi
GlobalVector	Momentum
double	S
unsigned int	sampleCount
RPCSegment	SegmentRB [2]
double	stepLength
ConstMuonRecHitContainer	theRecHits
double	ZError

Friends
class	RPCSeedFinder

Detailed Description

Author

Haiyun.Teng - Peking University

Definition at line 30 of file RPCSeedPattern.h.

Member Typedef Documentation

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.

typedef MuonTransientTrackingRecHit::MuonRecHitPointer RPCSeedPattern::MuonRecHitPointer

private

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.

Constructor & Destructor Documentation

RPCSeedPattern::RPCSeedPattern

(

)

Definition at line 33 of file RPCSeedPattern.cc.

                               {

    isPatternChecked = false;
    isConfigured = false;
    MagnecticFieldThreshold = 0.5;
}

RPCSeedPattern::~RPCSeedPattern

(

)

Definition at line 40 of file RPCSeedPattern.cc.

                                {

}

Member Function Documentation

void RPCSeedPattern::add ( const ConstMuonRecHitPointer &  hit )

inline

Definition at line 46 of file RPCSeedPattern.h.

References theRecHits.

Referenced by counter.Counter::register().

{ theRecHits.push_back(hit); }   

MuonTransientTrackingRecHit::ConstMuonRecHitPointer RPCSeedPattern::BestRefRecHit ( ) const

private

Definition at line 524 of file RPCSeedPattern.cc.

{
    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 487 of file RPCSeedPattern.cc.

References KineDebug3::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) != nullptr)
        {
            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 823 of file RPCSeedPattern.cc.

References gather_cfg::cout, deltaR(), PV3DBase< T, PVType, FrameType >::perp(), 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 665 of file RPCSeedPattern.cc.

References funct::abs(), gather_cfg::cout, deltaR(), PVValHelper::dx, PVValHelper::dy, PVValHelper::dz, edm::EventSetup::get(), runTauDisplay::gp, MagneticField::inTesla(), 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 587 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 547 of file RPCSeedPattern.cc.

References gather_cfg::cout, 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 632 of file RPCSeedPattern.cc.

References gather_cfg::cout, PV3DBase< T, PVType, FrameType >::phi(), and relativeConstraints::value.

{
    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

Definition at line 45 of file RPCSeedPattern.h.

References theRecHits.

{ theRecHits.clear(); }

GlobalVector RPCSeedPattern::computePtwithSegment ( const RPCSegment &  Segment1, const RPCSegment &  Segment2  ) const

private

Definition at line 609 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 564 of file RPCSeedPattern.cc.

References patCaloMETCorrections_cff::A, gather_cfg::cout, and mathSSE::sqrt().

{
    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 649 of file RPCSeedPattern.cc.

References patCaloMETCorrections_cff::A, gather_cfg::cout, and mathSSE::sqrt().

{
    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 44 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 1060 of file RPCSeedPattern.cc.

References alongMomentum, gather_cfg::cout, relativeConstraints::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 1111 of file RPCSeedPattern.cc.

References alongMomentum, gather_cfg::cout, cross(), debug, hiPixelPairStep_cff::deltaPhi, MuonPatternRecoDumper::dumpMuonId(), MuonPatternRecoDumper::dumpTSOS(), relativeConstraints::error, plotBeamSpotDB::first, edm::EventSetup::get(), createfilelist::int, 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 975 of file RPCSeedPattern.cc.

References RPCGeometry::chamber(), gather_cfg::cout, Vector3DBase< T, FrameTag >::cross(), hiPixelPairStep_cff::deltaPhi, edm::EventSetup::get(), MagneticField::inTesla(), PV3DBase< T, PVType, FrameType >::mag(), PV3DBase< T, PVType, FrameType >::perp(), colinearityKinematic::Phi, PV3DBase< T, PVType, FrameType >::phi(), DetId::rawId(), GeomDet::surface(), Vector3DBase< T, FrameTag >::unit(), Geom::Phi< T >::value(), 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;
    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
        double 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 519 of file RPCSeedPattern.cc.

{ 
    return theRecHits.front(); 
}

double RPCSeedPattern::getDistance ( const ConstMuonRecHitPointer &  precHit, const GlobalVector &  Center  ) const

private

Definition at line 542 of file RPCSeedPattern.cc.

References mathSSE::sqrt(), PV3DBase< T, PVType, FrameType >::x(), and PV3DBase< T, PVType, FrameType >::y().

{
    return sqrt((precHit->globalPosition().x()-Center.x())*(precHit->globalPosition().x()-Center.x())+(precHit->globalPosition().y()-Center.y())*(precHit->globalPosition().y()-Center.y()));
}

LocalTrajectoryError RPCSeedPattern::getSpecialAlgorithmErrorMatrix ( const ConstMuonRecHitPointer &  first, const ConstMuonRecHitPointer &  best  )

private

Definition at line 1207 of file RPCSeedPattern.cc.

References beta, gather_cfg::cout, hiPixelPairStep_cff::deltaPhi, dttmaxenums::L, N, PV3DBase< T, PVType, FrameType >::perp(), PV3DBase< T, PVType, FrameType >::phi(), edm::second(), MuonME0Digis_cfi::sigma_x, 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 193 of file RPCSeedPattern.cc.

References gather_cfg::cout, mps_fire::i, gen::n, EnergyCorrector::pt, X, and DOFs::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 58 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 260 of file RPCSeedPattern.cc.

References gather_cfg::cout, mps_fire::i, and gen::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 321 of file RPCSeedPattern.cc.

References gather_cfg::cout, Vector3DBase< T, FrameTag >::cross(), hiPixelPairStep_cff::deltaPhi, deltaR(), PVValHelper::dx, PVValHelper::dy, PVValHelper::dz, edm::EventSetup::get(), runTauDisplay::gp, MagneticField::inTesla(), gen::n, PV3DBase< T, PVType, FrameType >::perp(), PV3DBase< T, PVType, FrameType >::phi(), mathSSE::sqrt(), Vector3DBase< T, FrameTag >::unit(), Geom::Phi< T >::value(), 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 123 of file RPCSeedPattern.cc.

References gather_cfg::cout, mps_fire::i, gen::k, gen::n, EnergyCorrector::pt, 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;
}

Friends And Related Function Documentation

friend class RPCSeedFinder

friend

Definition at line 50 of file RPCSeedPattern.h.

Member Data Documentation

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.

GlobalVector RPCSeedPattern::meanMagneticField2

private

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.

ConstMuonRecHitContainer RPCSeedPattern::theRecHits

private

Definition at line 90 of file RPCSeedPattern.h.

Referenced by add(), clear(), and nrhit().

double RPCSeedPattern::ZError

private

Definition at line 83 of file RPCSeedPattern.h.