#include <OuterDetCompatibility.h>

Public Member Functions
GlobalPoint	center () const
MeasurementEstimator::Local2DVector	maximalLocalDisplacement (const GlobalPoint &ts, const BoundPlane &plane) const
MeasurementEstimator::Local2DVector	maximalLocalDisplacement (const TrajectoryStateOnSurface &ts, const BoundPlane &plane) const
bool	operator() (const BoundPlane &plane) const
	OuterDetCompatibility (const ForwardDetLayer *layer, const OuterHitPhiPrediction::Range &phiRange, const HitRZConstraint::Range &rRange, const HitRZConstraint::Range &zRange)
	OuterDetCompatibility (const BarrelDetLayer *layer, const OuterHitPhiPrediction::Range &phiRange, const HitRZConstraint::Range &rRange, const HitRZConstraint::Range &zRange)
const OuterHitPhiPrediction::Range &	phiRange () const
const HitRZConstraint::Range &	rRange () const
const HitRZConstraint::Range &	zRange () const
Private Member Functions
bool	checkPhi (const OuterHitPhiPrediction::Range &detPhiRange) const
bool	checkR (const HitRZConstraint::Range &detRRange) const
bool	checkZ (const HitRZConstraint::Range &detZRange) const
double	loc_dist (double radius, double ts_phi, double range_phi, double cosGamma) const
Private Attributes
bool	barrel
OuterHitPhiPrediction::Range	hitDetPhiRange
HitRZConstraint::Range	hitDetRRange
HitRZConstraint::Range	hitDetZRange
const DetLayer *	theLayer

Detailed Description

check det compatibility by comparistion of det BoundPlane ranges with phi,r,z ranges (given at construction).

Definition at line 13 of file OuterDetCompatibility.h.

Constructor & Destructor Documentation

OuterDetCompatibility::OuterDetCompatibility	(	const BarrelDetLayer *	layer,
		const OuterHitPhiPrediction::Range &	phiRange,
		const HitRZConstraint::Range &	rRange,
		const HitRZConstraint::Range &	zRange
	)		`[inline]`

Definition at line 16 of file OuterDetCompatibility.h.

    : theLayer(layer), barrel(true), 
      hitDetPhiRange(phiRange), hitDetRRange(rRange), hitDetZRange(zRange) { }

OuterDetCompatibility::OuterDetCompatibility	(	const ForwardDetLayer *	layer,
		const OuterHitPhiPrediction::Range &	phiRange,
		const HitRZConstraint::Range &	rRange,
		const HitRZConstraint::Range &	zRange
	)		`[inline]`

Definition at line 23 of file OuterDetCompatibility.h.

    : theLayer(layer), barrel(false), 
      hitDetPhiRange(phiRange), hitDetRRange(rRange), hitDetZRange(zRange) { }

Member Function Documentation

GlobalPoint OuterDetCompatibility::center ( ) const

Definition at line 37 of file OuterDetCompatibility.cc.

References funct::cos(), phi, alignCSCRings::r, and funct::sin().

Referenced by OuterEstimator::center().

{
  float phi = hitDetPhiRange.mean();
  float r   = hitDetRRange.mean();
  return GlobalPoint( r*cos(phi), r*sin(phi), hitDetZRange.mean() );
}

bool OuterDetCompatibility::checkPhi ( const OuterHitPhiPrediction::Range & detPhiRange ) const [private]

Definition at line 24 of file OuterDetCompatibility.cc.

References rangesIntersect().

{ return rangesIntersect(detPhiRange, hitDetPhiRange, PhiLess()); }

bool OuterDetCompatibility::checkR ( const HitRZConstraint::Range & detRRange ) const [private]

Definition at line 28 of file OuterDetCompatibility.cc.

References rangesIntersect().

{ return rangesIntersect(detRRange, hitDetRRange); }

bool OuterDetCompatibility::checkZ ( const HitRZConstraint::Range & detZRange ) const [private]

Definition at line 32 of file OuterDetCompatibility.cc.

References rangesIntersect().

{ return rangesIntersect(detZRange, hitDetZRange); }

double OuterDetCompatibility::loc_dist	(	double	radius,
		double	ts_phi,
		double	range_phi,
		double	cosGamma
	)		const `[private]`

Definition at line 117 of file OuterDetCompatibility.cc.

References funct::sin(), and mathSSE::sqrt().

{
    double sinDphi = sin(ts_phi - range_phi);
    double cosDphi = sqrt(1-sinDphi*sinDphi);
    double sinGamma = sqrt(1-cosGamma*cosGamma);
    double sinBeta = fabs(cosDphi*cosGamma -  sinDphi* sinGamma); 
    return radius * fabs(sinDphi) / sinBeta; 
}

MeasurementEstimator::Local2DVector OuterDetCompatibility::maximalLocalDisplacement	(	const TrajectoryStateOnSurface &	ts,
		const BoundPlane &	plane
	)		const

Referenced by OuterEstimator::maximalLocalDisplacement().

MeasurementEstimator::Local2DVector OuterDetCompatibility::maximalLocalDisplacement	(	const GlobalPoint &	ts,
		const BoundPlane &	plane
	)		const

Definition at line 45 of file OuterDetCompatibility.cc.

References Reference_intrackfit_cff::barrel, funct::cos(), Vector3DBase< T, FrameTag >::dot(), UserOptions_cff::idx, M_PI, max(), Plane::normalVector(), PV3DBase< T, PVType, FrameType >::perp(), PV3DBase< T, PVType, FrameType >::phi(), CosmicsPD_Skims::radius, funct::sin(), GloballyPositioned< T >::toLocal(), csvLumiCalc::unit, PV3DBase< T, PVType, FrameType >::x(), PV3DBase< T, PVType, FrameType >::y(), and PV3DBase< T, PVType, FrameType >::z().

{
  float x_loc = 0.;
  float y_loc = 0.;
  if(barrel) {
    double  radius = ts.perp();
    GlobalVector planeNorm = plane.normalVector();
    GlobalVector tsDir = GlobalVector( ts.x(), ts.y(),0. ).unit();
    double ts_phi = tsDir.phi();
    if (! hitDetPhiRange.inside(ts_phi) ) {
     while (ts_phi >= hitDetPhiRange.max() ) ts_phi -= 2*M_PI;
     while (ts_phi < hitDetPhiRange.min() ) ts_phi += 2*M_PI;
     if (!hitDetPhiRange.inside(ts_phi)) return MeasurementEstimator::Local2DVector(0.,0.);
    }
    double cosGamma = tsDir.dot(planeNorm);

    double dx1 = loc_dist( radius, ts_phi, hitDetPhiRange.min(), cosGamma);
    double dx2 = loc_dist( radius, ts_phi, hitDetPhiRange.max(), cosGamma);

    double ts_z = ts.z();
    double dy1 = ts_z - hitDetZRange.min();
    double dy2 = hitDetZRange.max() - ts_z;

    x_loc = max(dx1,dx2);
    y_loc = max(dy1,dy2);

    // debug only
/*
    double r1 = dx1 * fabs(cosGamma) / sin(ts_phi-hitDetPhiRange.min());
    double r2 = dx2 * fabs(cosGamma) / sin(hitDetPhiRange.max()-ts_phi);
    GlobalPoint p1( r1* cos(hitDetPhiRange.min()), r1 * sin(hitDetPhiRange.min()), hitDetZRange.min());
    GlobalPoint p2( r2* cos(hitDetPhiRange.max()), r2 * sin(hitDetPhiRange.max()), hitDetZRange.min());
    GlobalPoint p3( r1* cos(hitDetPhiRange.min()), r1 * sin(hitDetPhiRange.min()), hitDetZRange.max());
    GlobalPoint p4( r2* cos(hitDetPhiRange.max()), r2 * sin(hitDetPhiRange.max()), hitDetZRange.max());
    cout << " Local1: " << plane.toLocal(ts-p1) << endl;
    cout << " Local2: " << plane.toLocal(ts-p2) << endl;
    cout << " Local3: " << plane.toLocal(ts-p3) << endl;
    cout << " Local4: " << plane.toLocal(ts-p4) << endl;
*/
  }
  else {
    LocalPoint ts_loc = plane.toLocal(ts);
    GlobalVector planeNorm = plane.normalVector();

    double x_glob[4], y_glob[4], z_glob[4];
    x_glob[0] = hitDetRRange.min()*cos(hitDetPhiRange.min());
    y_glob[0] = hitDetRRange.min()*sin(hitDetPhiRange.min());
    x_glob[1] = hitDetRRange.max()*cos(hitDetPhiRange.min());
    y_glob[1] = hitDetRRange.max()*sin(hitDetPhiRange.min());
    x_glob[2] = hitDetRRange.min()*cos(hitDetPhiRange.max());
    y_glob[2] = hitDetRRange.min()*sin(hitDetPhiRange.max());
    x_glob[3] = hitDetRRange.max()*cos(hitDetPhiRange.max());
    y_glob[3] = hitDetRRange.max()*sin(hitDetPhiRange.max());

    for (int idx = 0; idx < 4; idx++) {
      double dx_glob = x_glob[idx] - ts.x();
      double dy_glob = y_glob[idx] - ts.y();
      double dz_glob = -(dx_glob * planeNorm.x() + dy_glob*planeNorm.y()) / planeNorm.z();
      z_glob[idx] = dz_glob + ts.z();
    }

    for (int idx=0; idx <4; idx++) {
      LocalPoint lp = plane.toLocal( GlobalPoint( x_glob[idx], y_glob[idx], z_glob[idx]));
      x_loc = max(x_loc, fabs(lp.x()-ts_loc.x()));
      y_loc = max(y_loc, fabs(lp.y()-ts_loc.y())); 
    }
  }
  MeasurementEstimator::Local2DVector distance(x_loc,y_loc);
  return distance;
}

bool OuterDetCompatibility::operator() ( const BoundPlane & plane ) const

Definition at line 9 of file OuterDetCompatibility.cc.

References Reference_intrackfit_cff::barrel, GlobalDetRangeRPhi::phiRange(), GlobalDetRangeZPhi::phiRange(), GlobalDetRangeRPhi::rRange(), and GlobalDetRangeZPhi::zRange().

{
  if (barrel) {
    GlobalDetRangeZPhi detRange(plane);
    if (!checkPhi(detRange.phiRange())) return 0;
    if (!checkZ(detRange.zRange())) return 0;
  } else {
    GlobalDetRangeRPhi detRange(plane);
    if (!checkPhi(detRange.phiRange())) return 0;
    if (!checkR(detRange.rRange())) return 0;
  }
  return 1;
}