#include <SiPixelTemplate.h>

Public Member Functions
float	chi2xavg (int i)
	averaage x chi^2 in 4 charge bins More...

float	chi2xavgc2m (int i)
	1st pass chi2 min search: average x-chisq for merged clusters More...

float	chi2xavgone ()
	//!< average x chi^2 for 1 pixel clusters More...

float	chi2xmin (int i)
	minimum y chi^2 in 4 charge bins More...

float	chi2xminc2m (int i)
	1st pass chi2 min search: minimum x-chisq for merged clusters More...

float	chi2xminone ()
	//!< minimum of x chi^2 for 1 pixel clusters More...

float	chi2yavg (int i)
	average y chi^2 in 4 charge bins More...

float	chi2yavgc2m (int i)
	1st pass chi2 min search: average y-chisq for merged clusters More...

float	chi2yavgone ()
	//!< average y chi^2 for 1 pixel clusters More...

float	chi2ymin (int i)
	minimum y chi^2 in 4 charge bins More...

float	chi2yminc2m (int i)
	1st pass chi2 min search: minimum y-chisq for merged clusters More...

float	chi2yminone ()
	//!< minimum of y chi^2 for 1 pixel clusters More...

float	clslenx ()
	x-size of smaller interpolated template in pixels More...

float	clsleny ()
	y-size of smaller interpolated template in pixels More...

int	cxtemp ()
	Return central pixel of x-template pixels above readout threshold. More...

int	cytemp ()
	Return central pixel of y template pixels above readout threshold. More...

float	dxone ()
	mean offset/correction for one pixel x-clusters More...

float	dxtwo ()
	mean offset/correction for one double-pixel x-clusters More...

float	dyone ()
	mean offset/correction for one pixel y-clusters More...

float	dytwo ()
	mean offset/correction for one double-pixel y-clusters More...

bool	interpolate (int id, float cotalpha, float cotbeta, float locBz)

bool	interpolate (int id, float cotalpha, float cotbeta)

float	kappavav ()
	kappa parameter for Vavilov distribution More...

float	kappavav2 ()
	kappa parameter for 2-cluster Vavilov distribution More...

float	lorxbias ()
	signed lorentz x-width (microns) More...

float	lorxwidth ()
	signed lorentz x-width (microns) More...

float	lorybias ()
	signed lorentz y-width (microns) More...

float	lorywidth ()
	signed lorentz y-width (microns) More...

float	mpvvav ()
	most probable charge in Vavilov distribution (not actually for larger kappa) More...

float	mpvvav2 ()
	most probable charge in 2-cluster Vavilov distribution (not actually for larger kappa) More...

float	pixmax ()
	maximum pixel charge More...

float	qavg ()
	average cluster charge for this set of track angles More...

int	qbin (int id, float cotalpha, float cotbeta, float locBz, float qclus, float &pixmx, float &sigmay, float &deltay, float &sigmax, float &deltax, float &sy1, float &dy1, float &sy2, float &dy2, float &sx1, float &dx1, float &sx2, float &dx2)

int	qbin (int id, float cotalpha, float cotbeta, float qclus)

int	qbin (int id, float cotbeta, float qclus)

void	qbin_dist (int id, float cotalpha, float cotbeta, float qbin_frac[4], float &ny1_frac, float &ny2_frac, float &nx1_frac, float &nx2_frac)

float	qmin ()
	minimum cluster charge for valid hit (keeps 99.9% of simulated hits) More...

float	qmin (int i)
	minimum cluster charge for valid hit (keeps 99.9% or 99.8% of simulated hits) More...

float	qscale ()
	charge scaling factor More...

float	s50 ()
	1/2 of the pixel threshold signal in electrons More...

float	sigmavav ()
	"sigma" scale fctor for Vavilov distribution More...

float	sigmavav2 ()
	"sigma" scale fctor for 2-cluster Vavilov distribution More...

bool	simpletemplate2D (float xhitp, float yhitp, std::vector< bool > &ydouble, std::vector< bool > &xdouble, float template2d[13+2][21+2])
	Make simple 2-D templates from track angles set in interpolate and hit position. More...

	SiPixelTemplate (const std::vector< SiPixelTemplateStore > &thePixelTemp)
	Constructor for cases in which template store already exists. More...

float	sxmax ()
	average pixel signal for x-projection of cluster More...

float	sxone ()
	rms for one pixel x-clusters More...

float	sxtwo ()
	rms for one double-pixel x-clusters More...

float	symax ()
	average pixel signal for y-projection of cluster More...

float	syone ()
	rms for one pixel y-clusters More...

float	sytwo ()
	rms for one double-pixel y-clusters More...

void	temperrors (int id, float cotalpha, float cotbeta, int qBin, float &sigmay, float &sigmax, float &sy1, float &sy2, float &sx1, float &sx2)

void	vavilov2_pars (double &mpv, double &sigma, double &kappa)

void	vavilov_pars (double &mpv, double &sigma, double &kappa)

float	xavg (int i)
	average x-bias of reconstruction binned in 4 charge bins More...

float	xavgc2m (int i)
	1st pass chi2 min search: average x-bias of reconstruction binned in 4 charge bins More...

float	xflcorr (int binq, float qflx)

float	xgsig (int i)
	average sigma_x from Gaussian fit binned in 4 charge bins More...

float	xgx0 (int i)
	average x0 from Gaussian fit binned in 4 charge bins More...

float	xrms (int i)
	average x-rms of reconstruction binned in 4 charge bins More...

float	xrmsc2m (int i)
	1st pass chi2 min search: average x-rms of reconstruction binned in 4 charge bins More...

void	xsigma2 (int fxpix, int lxpix, float sxthr, float xsum[13+4], float xsig2[13+4])

float	xsize ()
	pixel x-size (microns) More...

void	xtemp (int fxbin, int lxbin, float xtemplate[41][13+4])

void	xtemp3d (int j, int k, std::vector< float > &xtemplate)

void	xtemp3d_int (int nxpix, int &nxbins)

float	xxratio ()
	fractional distance in x between cotalpha templates More...

float	yavg (int i)
	average y-bias of reconstruction binned in 4 charge bins More...

float	yavgc2m (int i)
	1st pass chi2 min search: average y-bias of reconstruction binned in 4 charge bins More...

float	yflcorr (int binq, float qfly)

float	ygsig (int i)
	average sigma_y from Gaussian fit binned in 4 charge bins More...

float	ygx0 (int i)
	average y0 from Gaussian fit binned in 4 charge bins More...

float	yratio ()
	fractional distance in y between cotbeta templates More...

float	yrms (int i)
	average y-rms of reconstruction binned in 4 charge bins More...

float	yrmsc2m (int i)
	1st pass chi2 min search: average y-rms of reconstruction binned in 4 charge bins More...

void	ysigma2 (int fypix, int lypix, float sythr, float ysum[21+4], float ysig2[21+4])

void	ysigma2 (float qpixel, int index, float &ysig2)

float	ysize ()
	pixel y-size (microns) More...

void	ytemp (int fybin, int lybin, float ytemplate[41][21+4])

void	ytemp3d (int j, int k, std::vector< float > &ytemplate)

void	ytemp3d_int (int nypix, int &nybins)

float	yxratio ()
	fractional distance in y between cotalpha templates slices More...

float	zsize ()
	pixel z-size or thickness (microns) More...

Static Public Member Functions
static void	postInit (std::vector< SiPixelTemplateStore > &thePixelTemp_)

static bool	pushfile (int filenum, std::vector< SiPixelTemplateStore > &thePixelTemp_)

static bool	pushfile (const SiPixelTemplateDBObject &dbobject, std::vector< SiPixelTemplateStore > &thePixelTemp_)

Private Attributes
float	abs_cotb_
	absolute value of cot beta More...

float	chi2xavg_ [4]
	average x chi^2 in 4 charge bins More...

float	chi2xavgc2m_ [4]
	1st pass chi2 min search: average x-chisq for merged clusters More...

float	chi2xavgone_
	average x chi^2 for 1 pixel clusters More...

float	chi2xmin_ [4]
	minimum of x chi^2 in 4 charge bins More...

float	chi2xminc2m_ [4]
	1st pass chi2 min search: minimum x-chisq for merged clusters More...

float	chi2xminone_
	minimum of x chi^2 for 1 pixel clusters More...

float	chi2yavg_ [4]
	average y chi^2 in 4 charge bins More...

float	chi2yavgc2m_ [4]
	1st pass chi2 min search: average y-chisq for merged clusters More...

float	chi2yavgone_
	average y chi^2 for 1 pixel clusters More...

float	chi2ymin_ [4]
	minimum of y chi^2 in 4 charge bins More...

float	chi2yminc2m_ [4]
	1st pass chi2 min search: minimum y-chisq for merged clusters More...

float	chi2yminone_
	minimum of y chi^2 for 1 pixel clusters More...

float	clslenx_
	x-cluster length of smaller interpolated template in pixels More...

float	clsleny_
	y-cluster length of smaller interpolated template in pixels More...

float	cota_current_
	current cot alpha More...

float	cotb_current_
	current cot beta More...

float	dxone_
	mean offset/correction for one pixel x-clusters More...

float	dxtwo_
	mean offset/correction for one double-pixel x-clusters More...

float	dyone_
	mean offset/correction for one pixel y-clusters More...

float	dytwo_
	mean offset/correction for one double-pixel y-clusters More...

int	id_current_
	current id More...

int	index_id_
	current index More...

float	kappavav2_
	kappa parameter for 2-cluster Vavilov distribution More...

float	kappavav_
	kappa parameter for Vavilov distribution More...

float	lorxwidth_
	Lorentz x-width. More...

float	lorywidth_
	Lorentz y-width (sign corrected for fpix frame) More...

float	mpvvav2_
	most probable charge in 2-cluster Vavilov distribution (not actually for larger kappa) More...

float	mpvvav_
	most probable charge in Vavilov distribution (not actually for larger kappa) More...

float	nxbins_
	number of bins in each dimension of the x-splitting template More...

float	nybins_
	number of bins in each dimension of the y-splitting template More...

float	pixmax_
	maximum pixel charge More...

float	qavg_
	average cluster charge for this set of track angles More...

float	qavg_avg_
	average of cluster charge less than qavg More...

float	qmin2_
	tighter minimum cluster charge for valid hit (keeps 99.8% of simulated hits) More...

float	qmin_
	minimum cluster charge for valid hit (keeps 99.9% of simulated hits) More...

float	qscale_
	charge scaling factor More...

float	s50_
	1/2 of the pixel threshold signal in adc units More...

float	sigmavav2_
	"sigma" scale fctor for 2-cluster Vavilov distribution More...

float	sigmavav_
	"sigma" scale fctor for Vavilov distribution More...

bool	success_
	true if cotalpha, cotbeta are inside of the acceptance (dynamically loaded) More...

float	sxmax_
	average pixel signal for x-projection of cluster More...

float	sxone_
	rms for one pixel x-clusters More...

float	sxparmax_
	maximum pixel signal for parameterization of x uncertainties More...

float	sxtwo_
	rms for one double-pixel x-clusters More...

float	symax_
	average pixel signal for y-projection of cluster More...

float	syone_
	rms for one pixel y-clusters More...

float	syparmax_
	maximum pixel signal for parameterization of y uncertainties More...

float	sytwo_
	rms for one double-pixel y-clusters More...

boost::multi_array< float, 2 >	temp2dx_
	2d-primitive for spltting 3-d template More...

boost::multi_array< float, 2 >	temp2dy_
	2d-primitive for spltting 3-d template More...

const std::vector < SiPixelTemplateStore > &	thePixelTemp_

float	xavg_ [4]
	average x-bias of reconstruction binned in 4 charge bins More...

float	xavgc2m_ [4]
	1st pass chi2 min search: average x-bias of reconstruction binned in 4 charge bins More...

float	xflparhh_ [4][6]
	Aqfl-parameterized x-correction in 4 charge bins for larger cotbeta, cotalpha. More...

float	xflparhl_ [4][6]
	Aqfl-parameterized x-correction in 4 charge bins for larger cotbeta, smaller cotalpha. More...

float	xflparlh_ [4][6]
	Aqfl-parameterized x-correction in 4 charge bins for smaller cotbeta, larger cotalpha. More...

float	xflparll_ [4][6]
	Aqfl-parameterized x-correction in 4 charge bins for smaller cotbeta, cotalpha. More...

float	xgsig_ [4]
	sigma from Gaussian fit binned in 4 charge bins More...

float	xgx0_ [4]
	average x0 from Gaussian fit binned in 4 charge bins More...

float	xpar0_ [2][5]
	projected x-pixel uncertainty parameterization for central cotalpha More...

float	xparh_ [2][5]
	projected x-pixel uncertainty parameterization for larger cotalpha More...

float	xparhy0_ [2][5]
	projected x-pixel uncertainty parameterization for larger cotbeta (central alpha) More...

float	xparl_ [2][5]
	projected x-pixel uncertainty parameterization for smaller cotalpha More...

float	xparly0_ [2][5]
	projected x-pixel uncertainty parameterization for smaller cotbeta (central alpha) More...

float	xrms_ [4]
	average x-rms of reconstruction binned in 4 charge bins More...

float	xrmsc2m_ [4]
	1st pass chi2 min search: average x-rms of reconstruction binned in 4 charge bins More...

float	xsize_
	Pixel x-size. More...

float	xtemp_ [9][13+4]
	templates for x-reconstruction (binned over 5 central pixels) More...

float	xxratio_
	fractional distance in x between cotalpha templates More...

float	yavg_ [4]
	average y-bias of reconstruction binned in 4 charge bins More...

float	yavgc2m_ [4]
	1st pass chi2 min search: average y-bias of reconstruction binned in 4 charge bins More...

float	yflparh_ [4][6]
	Aqfl-parameterized y-correction in 4 charge bins for larger cotbeta. More...

float	yflparl_ [4][6]
	Aqfl-parameterized y-correction in 4 charge bins for smaller cotbeta. More...

float	ygsig_ [4]
	average sigma_y from Gaussian fit binned in 4 charge bins More...

float	ygx0_ [4]
	average y0 from Gaussian fit binned in 4 charge bins More...

float	yparh_ [2][5]
	projected y-pixel uncertainty parameterization for larger cotbeta More...

float	yparl_ [2][5]
	projected y-pixel uncertainty parameterization for smaller cotbeta More...

float	yratio_
	fractional distance in y between cotbeta templates More...

float	yrms_ [4]
	average y-rms of reconstruction binned in 4 charge bins More...

float	yrmsc2m_ [4]
	1st pass chi2 min search: average y-rms of reconstruction binned in 4 charge bins More...

float	ysize_
	Pixel y-size. More...

float	ytemp_ [9][21+4]
	templates for y-reconstruction (binned over 5 central pixels) More...

float	yxratio_
	fractional distance in y between x-slices of cotalpha templates More...

float	zsize_
	Pixel z-size (thickness) More...

Detailed Description

A template management class. SiPixelTemplate contains thePixelTemp (a std::vector of SiPixelTemplateStore, each of which is a collection of many SiPixelTemplateEntries). Each SiPixelTemplateStore corresponds to a given detector condition, and is valid for a range of runs. We allow more than one Store since the may change over time.

This class reads templates from files via pushfile() method.

The main functionality of SiPixelTemplate is interpolate(), which produces a template on the fly, given a specific track's alpha and beta. The results are kept in data members and accessed via inline getters.

The resulting template is then used by PixelTempReco2D() (a global function) which get the reference for SiPixelTemplate & templ and uses the current template to reconstruct the SiPixelRecHit.

Definition at line 226 of file SiPixelTemplate.h.

Constructor & Destructor Documentation

SiPixelTemplate::SiPixelTemplate ( const std::vector< SiPixelTemplateStore > & thePixelTemp )

inline

Constructor for cases in which template store already exists.

Definition at line 228 of file SiPixelTemplate.h.

References cota_current_, cotb_current_, id_current_, and index_id_.

Member Function Documentation

float SiPixelTemplate::chi2xavg ( int i )

inline

averaage x chi^2 in 4 charge bins

Definition at line 407 of file SiPixelTemplate.h.

References chi2xavg_, edm::hlt::Exception, and i.

Referenced by SiPixelTemplateReco::PixelTempReco2D().

float SiPixelTemplate::chi2xavgc2m ( int i )

inline

1st pass chi2 min search: average x-chisq for merged clusters

Definition at line 463 of file SiPixelTemplate.h.

References chi2xavgc2m_, edm::hlt::Exception, and i.

Referenced by SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::chi2xavgone ( )

inline

//!< average x chi^2 for 1 pixel clusters

Definition at line 479 of file SiPixelTemplate.h.

References chi2xavgone_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::chi2xmin ( int i )

inline

minimum y chi^2 in 4 charge bins

Definition at line 414 of file SiPixelTemplate.h.

References chi2xmin_, edm::hlt::Exception, and i.

Referenced by SiPixelTemplateReco::PixelTempReco2D().

float SiPixelTemplate::chi2xminc2m ( int i )

inline

1st pass chi2 min search: minimum x-chisq for merged clusters

Definition at line 470 of file SiPixelTemplate.h.

References chi2xminc2m_, edm::hlt::Exception, and i.

float SiPixelTemplate::chi2xminone ( )

inline

//!< minimum of x chi^2 for 1 pixel clusters

Definition at line 480 of file SiPixelTemplate.h.

References chi2xminone_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::chi2yavg ( int i )

inline

average y chi^2 in 4 charge bins

Definition at line 393 of file SiPixelTemplate.h.

References chi2yavg_, edm::hlt::Exception, and i.

Referenced by SiPixelTemplateReco::PixelTempReco2D().

float SiPixelTemplate::chi2yavgc2m ( int i )

inline

1st pass chi2 min search: average y-chisq for merged clusters

Definition at line 435 of file SiPixelTemplate.h.

References chi2yavgc2m_, edm::hlt::Exception, and i.

Referenced by SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::chi2yavgone ( )

inline

//!< average y chi^2 for 1 pixel clusters

Definition at line 477 of file SiPixelTemplate.h.

References chi2yavgone_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::chi2ymin ( int i )

inline

minimum y chi^2 in 4 charge bins

Definition at line 400 of file SiPixelTemplate.h.

References chi2ymin_, edm::hlt::Exception, and i.

Referenced by SiPixelTemplateReco::PixelTempReco2D().

float SiPixelTemplate::chi2yminc2m ( int i )

inline

1st pass chi2 min search: minimum y-chisq for merged clusters

Definition at line 442 of file SiPixelTemplate.h.

References chi2yminc2m_, edm::hlt::Exception, and i.

float SiPixelTemplate::chi2yminone ( )

inline

//!< minimum of y chi^2 for 1 pixel clusters

Definition at line 478 of file SiPixelTemplate.h.

References chi2yminone_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::clslenx ( )

inline

x-size of smaller interpolated template in pixels

Definition at line 333 of file SiPixelTemplate.h.

References clslenx_.

float SiPixelTemplate::clsleny ( )

inline

y-size of smaller interpolated template in pixels

Definition at line 332 of file SiPixelTemplate.h.

References clsleny_.

int SiPixelTemplate::cxtemp ( )

Return central pixel of x-template pixels above readout threshold.

Definition at line 1905 of file SiPixelTemplate.cc.

References BXM1, BXM2, BXSIZE, and j.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

 {
     // Retrieve already interpolated quantities
     
     // Local variables 
     int j;
     
     // Analyze only pixels along the central entry
     // First, find the maximum signal and then work out to the edges
     
     float sigmax = 0.f;
     float qedge = 2.*s50_;
     int jmax = -1;
     
     for(j=0; j<BXSIZE; ++j) {
         if(xtemp_[4][j] > sigmax) {
             sigmax = xtemp_[4][j];
             jmax = j;
         }   
     }
     if(sigmax < qedge) {qedge = s50_;}
     if(sigmax < qedge || jmax<1 || jmax>BXM2) {return -1;}
     
     //  Now search forward and backward
     
     int jend = jmax;
     
     for(j=jmax+1; j<BXM1; ++j) {
         if(xtemp_[4][j] < qedge) break;
        jend = j;
    }
 
    int jbeg = jmax;
 
    for(j=jmax-1; j>0; --j) {
        if(xtemp_[4][j] < qedge) break;
        jbeg = j;
    }
 
    return (jbeg+jend)/2;
 
 } // End cxtemp

int SiPixelTemplate::cytemp ( )

Return central pixel of y template pixels above readout threshold.

Definition at line 1856 of file SiPixelTemplate.cc.

References BYM1, BYM2, BYSIZE, and j.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

 {
     // Retrieve already interpolated quantities
     
     // Local variables 
     int j;
     
 // Analyze only pixels along the central entry
 // First, find the maximum signal and then work out to the edges
     
     float sigmax = 0.f;
     float qedge = 2.*s50_;
     int jmax = -1;
     
     for(j=0; j<BYSIZE; ++j) {
         if(ytemp_[4][j] > sigmax) {
             sigmax = ytemp_[4][j];
             jmax = j;
         }   
     }
     if(sigmax < qedge) {qedge = s50_;}
     if(sigmax < qedge || jmax<1 || jmax>BYM2) {return -1;}
     
 //  Now search forward and backward
     
     int jend = jmax;
     
     for(j=jmax+1; j<BYM1; ++j) {
         if(ytemp_[4][j] < qedge) break;
        jend = j;
     }
 
    int jbeg = jmax;
 
 for(j=jmax-1; j>0; --j) {
         if(ytemp_[4][j] < qedge) break;
         jbeg = j;
     }
         
     return (jbeg+jend)/2;
     
 } // End cytemp

float SiPixelTemplate::dxone ( )

inline

mean offset/correction for one pixel x-clusters

Definition at line 320 of file SiPixelTemplate.h.

References dxone_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::dxtwo ( )

inline

mean offset/correction for one double-pixel x-clusters

Definition at line 322 of file SiPixelTemplate.h.

References dxtwo_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::dyone ( )

inline

mean offset/correction for one pixel y-clusters

Definition at line 315 of file SiPixelTemplate.h.

References dyone_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::dytwo ( )

inline

mean offset/correction for one double-pixel y-clusters

Definition at line 317 of file SiPixelTemplate.h.

References dytwo_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

bool SiPixelTemplate::interpolate	(	int	id,
		float	cotalpha,
		float	cotbeta,
		float	locBz
	)

Interpolate input alpha and beta angles to produce a working template for each individual hit.

Parameters

id	- (input) index of the template to use
cotalpha	- (input) the cotangent of the alpha track angle (see CMS IN 2004/014)
cotbeta	- (input) the cotangent of the beta track angle (see CMS IN 2004/014)
locBz	- (input) the sign of this quantity is used to determine whether to flip cot(beta)<0 quantities from cot(beta)>0 (FPix only) for FPix IP-related tracks, locBz < 0 for cot(beta) > 0 and locBz > 0 for cot(beta) < 0

Definition at line 908 of file SiPixelTemplate.cc.

References funct::abs(), BXM1, BXM2, BYM1, BYM2, BYM3, edm::hlt::Exception, f, i, j, mathSSE::sqrt(), TXSIZE, and TYSIZE.

Referenced by interpolate(), SiPixelTemplateReco::PixelTempReco2D(), SiPixelTemplateSplit::PixelTempSplit(), and SiPixelGaussianSmearingRecHitConverterAlgorithm::smearHit().

                                                                                    {
     // Interpolate for a new set of track angles 
     
     // Local variables 
     int i, j;
     int ilow, ihigh, iylow, iyhigh, Ny, Nxx, Nyx, imidy, imaxx;
     float yratio, yxratio, xxratio, sxmax, qcorrect, qxtempcor, symax, chi2xavgone, chi2xminone, cotb, cotalpha0, cotbeta0;
     bool flip_y;
 //  std::vector <float> xrms(4), xgsig(4), xrmsc2m(4);
     float chi2xavg[4], chi2xmin[4], chi2xavgc2m[4], chi2xminc2m[4];
 
 
 // Check to see if interpolation is valid     
 
 if(id != id_current_ || cotalpha != cota_current_ || cotbeta != cotb_current_) {
 
     cota_current_ = cotalpha; cotb_current_ = cotbeta; success_ = true;
     
     if(id != id_current_) {
 
 // Find the index corresponding to id
 
        index_id_ = -1;
        for(i=0; i<(int)thePixelTemp_.size(); ++i) {
     
           if(id == thePixelTemp_[i].head.ID) {
        
              index_id_ = i;
               id_current_ = id;
                 
 // Copy the charge scaling factor to the private variable     
                 
                 qscale_ = thePixelTemp_[index_id_].head.qscale;
                 
 // Copy the pseudopixel signal size to the private variable     
                 
                 s50_ = thePixelTemp_[index_id_].head.s50;
             
 // Pixel sizes to the private variables     
                 
                 xsize_ = thePixelTemp_[index_id_].head.xsize;
                 ysize_ = thePixelTemp_[index_id_].head.ysize;
                 zsize_ = thePixelTemp_[index_id_].head.zsize;
                 
                 break;
           }
         }
      }
      
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(index_id_ < 0 || index_id_ >= (int)thePixelTemp_.size()) {
         throw cms::Exception("DataCorrupt") << "SiPixelTemplate::interpolate can't find needed template ID = " << id << std::endl;
     }
 #else
     assert(index_id_ >= 0 && index_id_ < (int)thePixelTemp_.size());
 #endif
      
 // Interpolate the absolute value of cot(beta)     
     
     abs_cotb_ = std::abs(cotbeta);
     
 //  qcorrect corrects the cot(alpha)=0 cluster charge for non-zero cot(alpha)   
 
     cotalpha0 =  thePixelTemp_[index_id_].enty[0].cotalpha;
     qcorrect=std::sqrt((1.f+cotbeta*cotbeta+cotalpha*cotalpha)/(1.f+cotbeta*cotbeta+cotalpha0*cotalpha0));
     
 // for some cosmics, the ususal gymnastics are incorrect   
     if(thePixelTemp_[index_id_].head.Dtype == 0) {
         cotb = abs_cotb_;
         flip_y = false;
         if(cotbeta < 0.f) {flip_y = true;}
     } else {
         if(locBz < 0.f) {
             cotb = cotbeta;
             flip_y = false;
         } else {
             cotb = -cotbeta;
             flip_y = true;
         }   
     }
         
     Ny = thePixelTemp_[index_id_].head.NTy;
     Nyx = thePixelTemp_[index_id_].head.NTyx;
     Nxx = thePixelTemp_[index_id_].head.NTxx;
         
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(Ny < 2 || Nyx < 1 || Nxx < 2) {
         throw cms::Exception("DataCorrupt") << "template ID = " << id_current_ << "has too few entries: Ny/Nyx/Nxx = " << Ny << "/" << Nyx << "/" << Nxx << std::endl;
     }
 #else
     assert(Ny > 1 && Nyx > 0 && Nxx > 1);
 #endif
     imaxx = Nyx - 1;
     imidy = Nxx/2;
         
 // next, loop over all y-angle entries   
 
     ilow = 0;
     yratio = 0.f;
 
     if(cotb >= thePixelTemp_[index_id_].enty[Ny-1].cotbeta) {
     
         ilow = Ny-2;
         yratio = 1.;
         success_ = false;
         
     } else {
        
         if(cotb >= thePixelTemp_[index_id_].enty[0].cotbeta) {
 
             for (i=0; i<Ny-1; ++i) { 
     
             if( thePixelTemp_[index_id_].enty[i].cotbeta <= cotb && cotb < thePixelTemp_[index_id_].enty[i+1].cotbeta) {
           
                 ilow = i;
                 yratio = (cotb - thePixelTemp_[index_id_].enty[i].cotbeta)/(thePixelTemp_[index_id_].enty[i+1].cotbeta - thePixelTemp_[index_id_].enty[i].cotbeta);
                 break;           
             }
         }
     } else { success_ = false; }
   }
     
     ihigh=ilow + 1;
               
 // Interpolate/store all y-related quantities (flip displacements when flip_y)
 
     yratio_ = yratio;
     qavg_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].qavg + yratio*thePixelTemp_[index_id_].enty[ihigh].qavg;
     qavg_ *= qcorrect;
     symax = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].symax + yratio*thePixelTemp_[index_id_].enty[ihigh].symax;
     syparmax_ = symax;
     sxmax = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].sxmax + yratio*thePixelTemp_[index_id_].enty[ihigh].sxmax;
     dyone_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].dyone + yratio*thePixelTemp_[index_id_].enty[ihigh].dyone;
     if(flip_y) {dyone_ = -dyone_;}
     syone_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].syone + yratio*thePixelTemp_[index_id_].enty[ihigh].syone;
     dytwo_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].dytwo + yratio*thePixelTemp_[index_id_].enty[ihigh].dytwo;
     if(flip_y) {dytwo_ = -dytwo_;}
     sytwo_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].sytwo + yratio*thePixelTemp_[index_id_].enty[ihigh].sytwo;
     qmin_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].qmin + yratio*thePixelTemp_[index_id_].enty[ihigh].qmin;
     qmin_ *= qcorrect;
     qmin2_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].qmin2 + yratio*thePixelTemp_[index_id_].enty[ihigh].qmin2;
     qmin2_ *= qcorrect;
     mpvvav_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].mpvvav + yratio*thePixelTemp_[index_id_].enty[ihigh].mpvvav;
     mpvvav_ *= qcorrect;
     sigmavav_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].sigmavav + yratio*thePixelTemp_[index_id_].enty[ihigh].sigmavav;
     kappavav_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].kappavav + yratio*thePixelTemp_[index_id_].enty[ihigh].kappavav;
     mpvvav2_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].mpvvav2 + yratio*thePixelTemp_[index_id_].enty[ihigh].mpvvav2;
     mpvvav2_ *= qcorrect;
     sigmavav2_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].sigmavav2 + yratio*thePixelTemp_[index_id_].enty[ihigh].sigmavav2;
     kappavav2_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].kappavav2 + yratio*thePixelTemp_[index_id_].enty[ihigh].kappavav2;
     clsleny_ = fminf(thePixelTemp_[index_id_].enty[ilow].clsleny, thePixelTemp_[index_id_].enty[ihigh].clsleny);
     qavg_avg_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].qavg_avg + yratio*thePixelTemp_[index_id_].enty[ihigh].qavg_avg;
     qavg_avg_ *= qcorrect;
     for(i=0; i<2 ; ++i) {
         for(j=0; j<5 ; ++j) {
 // Charge loss switches sides when cot(beta) changes sign
             if(flip_y) {
                 yparl_[1-i][j] = thePixelTemp_[index_id_].enty[ilow].ypar[i][j];
                 yparh_[1-i][j] = thePixelTemp_[index_id_].enty[ihigh].ypar[i][j];
             } else {
                 yparl_[i][j] = thePixelTemp_[index_id_].enty[ilow].ypar[i][j];
                 yparh_[i][j] = thePixelTemp_[index_id_].enty[ihigh].ypar[i][j];
             }
             xparly0_[i][j] = thePixelTemp_[index_id_].enty[ilow].xpar[i][j];
             xparhy0_[i][j] = thePixelTemp_[index_id_].enty[ihigh].xpar[i][j];
         }
     }
     for(i=0; i<4; ++i) {
         yavg_[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].yavg[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].yavg[i];
         if(flip_y) {yavg_[i] = -yavg_[i];}
         yrms_[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].yrms[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].yrms[i];
 //        ygx0_[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].ygx0[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].ygx0[i];
 //        if(flip_y) {ygx0_[i] = -ygx0_[i];}
 //        ygsig_[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].ygsig[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].ygsig[i];
 //        xrms[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].xrms[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].xrms[i];
 //        xgsig[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].xgsig[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].xgsig[i];
         chi2yavg_[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].chi2yavg[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].chi2yavg[i];
         chi2ymin_[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].chi2ymin[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].chi2ymin[i];
         chi2xavg[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].chi2xavg[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].chi2xavg[i];
         chi2xmin[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].chi2xmin[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].chi2xmin[i];
         yavgc2m_[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].yavgc2m[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].yavgc2m[i];
         if(flip_y) {yavgc2m_[i] = -yavgc2m_[i];}
         yrmsc2m_[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].yrmsc2m[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].yrmsc2m[i];
         chi2yavgc2m_[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].chi2yavgc2m[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].chi2yavgc2m[i];
 //        if(flip_y) {chi2yavgc2m_[i] = -chi2yavgc2m_[i];}
         chi2yminc2m_[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].chi2yminc2m[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].chi2yminc2m[i];
 //        xrmsc2m[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].xrmsc2m[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].xrmsc2m[i];
         chi2xavgc2m[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].chi2xavgc2m[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].chi2xavgc2m[i];
         chi2xminc2m[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].chi2xminc2m[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].chi2xminc2m[i];
         for(j=0; j<6 ; ++j) {
             yflparl_[i][j] = thePixelTemp_[index_id_].enty[ilow].yflpar[i][j];
             yflparh_[i][j] = thePixelTemp_[index_id_].enty[ihigh].yflpar[i][j];
              
 // Since Q_fl is odd under cotbeta, it flips qutomatically, change only even terms
 
             if(flip_y && (j == 0 || j == 2 || j == 4)) {
                yflparl_[i][j] = - yflparl_[i][j];
                yflparh_[i][j] = - yflparh_[i][j];
             }
         }
     }
        
 
     chi2yavgone_=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].chi2yavgone + yratio*thePixelTemp_[index_id_].enty[ihigh].chi2yavgone;
     chi2yminone_=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].chi2yminone + yratio*thePixelTemp_[index_id_].enty[ihigh].chi2yminone;
     chi2xavgone=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].chi2xavgone + yratio*thePixelTemp_[index_id_].enty[ihigh].chi2xavgone;
     chi2xminone=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].chi2xminone + yratio*thePixelTemp_[index_id_].enty[ihigh].chi2xminone;
         //       for(i=0; i<10; ++i) {
 //          pyspare[i]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].yspare[i] + yratio*thePixelTemp_[index_id_].enty[ihigh].yspare[i];
 //       }
               
 // Interpolate and build the y-template 
     
     for(i=0; i<9; ++i) {
         ytemp_[i][0] = 0.f;
         ytemp_[i][1] = 0.f;
         ytemp_[i][BYM2] = 0.f;
         ytemp_[i][BYM1] = 0.f;
         for(j=0; j<TYSIZE; ++j) {
           
 // Flip the basic y-template when the cotbeta is negative
 
             if(flip_y) {
                ytemp_[8-i][BYM3-j]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].ytemp[i][j] + yratio*thePixelTemp_[index_id_].enty[ihigh].ytemp[i][j];
             } else {
                ytemp_[i][j+2]=(1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].ytemp[i][j] + yratio*thePixelTemp_[index_id_].enty[ihigh].ytemp[i][j];
             }
         }
     }
     
 // next, loop over all x-angle entries, first, find relevant y-slices   
     
     iylow = 0;
     yxratio = 0.f;
 
     if(abs_cotb_ >= thePixelTemp_[index_id_].entx[Nyx-1][0].cotbeta) {
     
         iylow = Nyx-2;
         yxratio = 1.f;
         
     } else if(abs_cotb_ >= thePixelTemp_[index_id_].entx[0][0].cotbeta) {
 
         for (i=0; i<Nyx-1; ++i) { 
     
             if( thePixelTemp_[index_id_].entx[i][0].cotbeta <= abs_cotb_ && abs_cotb_ < thePixelTemp_[index_id_].entx[i+1][0].cotbeta) {
           
                iylow = i;
                yxratio = (abs_cotb_ - thePixelTemp_[index_id_].entx[i][0].cotbeta)/(thePixelTemp_[index_id_].entx[i+1][0].cotbeta - thePixelTemp_[index_id_].entx[i][0].cotbeta);
                break;            
             }
         }
     }
     
     iyhigh=iylow + 1;
 
     ilow = 0;
     xxratio = 0.f;
 
     if(cotalpha >= thePixelTemp_[index_id_].entx[0][Nxx-1].cotalpha) {
     
         ilow = Nxx-2;
         xxratio = 1.f;
         success_ = false;
         
     } else {
        
         if(cotalpha >= thePixelTemp_[index_id_].entx[0][0].cotalpha) {
 
             for (i=0; i<Nxx-1; ++i) { 
     
                if( thePixelTemp_[index_id_].entx[0][i].cotalpha <= cotalpha && cotalpha < thePixelTemp_[index_id_].entx[0][i+1].cotalpha) {
           
                   ilow = i;
                   xxratio = (cotalpha - thePixelTemp_[index_id_].entx[0][i].cotalpha)/(thePixelTemp_[index_id_].entx[0][i+1].cotalpha - thePixelTemp_[index_id_].entx[0][i].cotalpha);
                   break;
             }
           }
         } else { success_ = false; }
     }
     
     ihigh=ilow + 1;
               
 // Interpolate/store all x-related quantities 
 
     yxratio_ = yxratio;
     xxratio_ = xxratio;     
               
 // sxparmax defines the maximum charge for which the parameters xpar are defined (not rescaled by cotbeta) 
 
     sxparmax_ = (1.f - xxratio)*thePixelTemp_[index_id_].entx[imaxx][ilow].sxmax + xxratio*thePixelTemp_[index_id_].entx[imaxx][ihigh].sxmax;
     sxmax_ = sxparmax_;
     if(thePixelTemp_[index_id_].entx[imaxx][imidy].sxmax != 0.f) {sxmax_=sxmax_/thePixelTemp_[index_id_].entx[imaxx][imidy].sxmax*sxmax;}
     symax_ = (1.f - xxratio)*thePixelTemp_[index_id_].entx[imaxx][ilow].symax + xxratio*thePixelTemp_[index_id_].entx[imaxx][ihigh].symax;
     if(thePixelTemp_[index_id_].entx[imaxx][imidy].symax != 0.f) {symax_=symax_/thePixelTemp_[index_id_].entx[imaxx][imidy].symax*symax;}
     dxone_ = (1.f - xxratio)*thePixelTemp_[index_id_].entx[0][ilow].dxone + xxratio*thePixelTemp_[index_id_].entx[0][ihigh].dxone;
     sxone_ = (1.f - xxratio)*thePixelTemp_[index_id_].entx[0][ilow].sxone + xxratio*thePixelTemp_[index_id_].entx[0][ihigh].sxone;
     dxtwo_ = (1.f - xxratio)*thePixelTemp_[index_id_].entx[0][ilow].dxtwo + xxratio*thePixelTemp_[index_id_].entx[0][ihigh].dxtwo;
     sxtwo_ = (1.f - xxratio)*thePixelTemp_[index_id_].entx[0][ilow].sxtwo + xxratio*thePixelTemp_[index_id_].entx[0][ihigh].sxtwo;
     clslenx_ = fminf(thePixelTemp_[index_id_].entx[0][ilow].clslenx, thePixelTemp_[index_id_].entx[0][ihigh].clslenx);
     for(i=0; i<2 ; ++i) {
         for(j=0; j<5 ; ++j) {
              xpar0_[i][j] = thePixelTemp_[index_id_].entx[imaxx][imidy].xpar[i][j];
              xparl_[i][j] = thePixelTemp_[index_id_].entx[imaxx][ilow].xpar[i][j];
              xparh_[i][j] = thePixelTemp_[index_id_].entx[imaxx][ihigh].xpar[i][j];
         }
     }
               
 // pixmax is the maximum allowed pixel charge (used for truncation)
 
     pixmax_=(1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iylow][ilow].pixmax + xxratio*thePixelTemp_[index_id_].entx[iylow][ihigh].pixmax)
             +yxratio*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].pixmax + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].pixmax);
               
     for(i=0; i<4; ++i) {
         xavg_[i]=(1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iylow][ilow].xavg[i] + xxratio*thePixelTemp_[index_id_].entx[iylow][ihigh].xavg[i])
                 +yxratio*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].xavg[i] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].xavg[i]);
           
         xrms_[i]=(1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iylow][ilow].xrms[i] + xxratio*thePixelTemp_[index_id_].entx[iylow][ihigh].xrms[i])
                 +yxratio*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].xrms[i] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].xrms[i]);
           
 //        xgx0_[i]=(1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iylow][ilow].xgx0[i] + xxratio*thePixelTemp_[index_id_].entx[iylow][ihigh].xgx0[i])
 //                +yxratio*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].xgx0[i] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].xgx0[i]);
                             
 //        xgsig_[i]=(1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iylow][ilow].xgsig[i] + xxratio*thePixelTemp_[index_id_].entx[iylow][ihigh].xgsig[i])
 //                +yxratio*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].xgsig[i] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].xgsig[i]);
                   
         xavgc2m_[i]=(1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iylow][ilow].xavgc2m[i] + xxratio*thePixelTemp_[index_id_].entx[iylow][ihigh].xavgc2m[i])
                 +yxratio*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].xavgc2m[i] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].xavgc2m[i]);
           
         xrmsc2m_[i]=(1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iylow][ilow].xrmsc2m[i] + xxratio*thePixelTemp_[index_id_].entx[iylow][ihigh].xrmsc2m[i])
                 +yxratio*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].xrmsc2m[i] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].xrmsc2m[i]);
           
 //        chi2xavgc2m_[i]=(1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iylow][ilow].chi2xavgc2m[i] + xxratio*thePixelTemp_[index_id_].entx[iylow][ihigh].chi2xavgc2m[i])
 //                +yxratio*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].chi2xavgc2m[i] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].chi2xavgc2m[i]);
                             
 //        chi2xminc2m_[i]=(1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iylow][ilow].chi2xminc2m[i] + xxratio*thePixelTemp_[index_id_].entx[iylow][ihigh].chi2xminc2m[i])
 //                +yxratio*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].chi2xminc2m[i] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].chi2xminc2m[i]);
 //
 //  Try new interpolation scheme
 //                                                          
 //        chi2xavg_[i]=((1.f - xxratio)*thePixelTemp_[index_id_].entx[imaxx][ilow].chi2xavg[i] + xxratio*thePixelTemp_[index_id_].entx[imaxx][ihigh].chi2xavg[i]);
 //        if(thePixelTemp_[index_id_].entx[imaxx][imidy].chi2xavg[i] != 0.f) {chi2xavg_[i]=chi2xavg_[i]/thePixelTemp_[index_id_].entx[imaxx][imidy].chi2xavg[i]*chi2xavg[i];}
 //                          
 //        chi2xmin_[i]=((1.f - xxratio)*thePixelTemp_[index_id_].entx[imaxx][ilow].chi2xmin[i] + xxratio*thePixelTemp_[index_id_].entx[imaxx][ihigh].chi2xmin[i]);
 //        if(thePixelTemp_[index_id_].entx[imaxx][imidy].chi2xmin[i] != 0.f) {chi2xmin_[i]=chi2xmin_[i]/thePixelTemp_[index_id_].entx[imaxx][imidy].chi2xmin[i]*chi2xmin[i];}
 //        
         chi2xavg_[i]=((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].chi2xavg[i] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].chi2xavg[i]);
         if(thePixelTemp_[index_id_].entx[iyhigh][imidy].chi2xavg[i] != 0.f) {chi2xavg_[i]=chi2xavg_[i]/thePixelTemp_[index_id_].entx[iyhigh][imidy].chi2xavg[i]*chi2xavg[i];}
                             
         chi2xmin_[i]=((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].chi2xmin[i] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].chi2xmin[i]);
         if(thePixelTemp_[index_id_].entx[iyhigh][imidy].chi2xmin[i] != 0.f) {chi2xmin_[i]=chi2xmin_[i]/thePixelTemp_[index_id_].entx[iyhigh][imidy].chi2xmin[i]*chi2xmin[i];}
         
         chi2xavgc2m_[i]=((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].chi2xavgc2m[i] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].chi2xavgc2m[i]);
         if(thePixelTemp_[index_id_].entx[iyhigh][imidy].chi2xavgc2m[i] != 0.f) {chi2xavgc2m_[i]=chi2xavgc2m_[i]/thePixelTemp_[index_id_].entx[iyhigh][imidy].chi2xavgc2m[i]*chi2xavgc2m[i];}
         
         chi2xminc2m_[i]=((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].chi2xminc2m[i] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].chi2xminc2m[i]);
         if(thePixelTemp_[index_id_].entx[iyhigh][imidy].chi2xminc2m[i] != 0.f) {chi2xminc2m_[i]=chi2xminc2m_[i]/thePixelTemp_[index_id_].entx[iyhigh][imidy].chi2xminc2m[i]*chi2xminc2m[i];}
         
         for(j=0; j<6 ; ++j) {
              xflparll_[i][j] = thePixelTemp_[index_id_].entx[iylow][ilow].xflpar[i][j];
              xflparlh_[i][j] = thePixelTemp_[index_id_].entx[iylow][ihigh].xflpar[i][j];
              xflparhl_[i][j] = thePixelTemp_[index_id_].entx[iyhigh][ilow].xflpar[i][j];
              xflparhh_[i][j] = thePixelTemp_[index_id_].entx[iyhigh][ihigh].xflpar[i][j];
         }
     }
        
 // Do the spares next
 
     chi2xavgone_=((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].chi2xavgone + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].chi2xavgone);
     if(thePixelTemp_[index_id_].entx[iyhigh][imidy].chi2xavgone != 0.f) {chi2xavgone_=chi2xavgone_/thePixelTemp_[index_id_].entx[iyhigh][imidy].chi2xavgone*chi2xavgone;}
         
     chi2xminone_=((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].chi2xminone + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].chi2xminone);
     if(thePixelTemp_[index_id_].entx[iyhigh][imidy].chi2xminone != 0.f) {chi2xminone_=chi2xminone_/thePixelTemp_[index_id_].entx[iyhigh][imidy].chi2xminone*chi2xminone;}
         //       for(i=0; i<10; ++i) {
 //        pxspare[i]=(1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iylow][ilow].xspare[i] + xxratio*thePixelTemp_[index_id_].entx[iylow][ihigh].xspare[i])
 //                +yxratio*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].xspare[i] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].xspare[i]);
 //       }
               
 // Interpolate and build the x-template 
     
 //  qxtempcor corrects the total charge to the actual track angles (not actually needed for the template fits, but useful for Guofan)
     
     cotbeta0 =  thePixelTemp_[index_id_].entx[iyhigh][0].cotbeta;
     qxtempcor=std::sqrt((1.f+cotbeta*cotbeta+cotalpha*cotalpha)/(1.f+cotbeta0*cotbeta0+cotalpha*cotalpha));
     
     for(i=0; i<9; ++i) {
         xtemp_[i][0] = 0.f;
         xtemp_[i][1] = 0.f;
         xtemp_[i][BXM2] = 0.f;
         xtemp_[i][BXM1] = 0.f;
         for(j=0; j<TXSIZE; ++j) {
 //  Take next largest x-slice for the x-template (it reduces bias in the forward direction after irradiation)
 //         xtemp_[i][j+2]=(1.f - xxratio)*thePixelTemp_[index_id_].entx[imaxx][ilow].xtemp[i][j] + xxratio*thePixelTemp_[index_id_].entx[imaxx][ihigh].xtemp[i][j];
 //         xtemp_[i][j+2]=(1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].xtemp[i][j] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].xtemp[i][j];
          xtemp_[i][j+2]=qxtempcor*((1.f - xxratio)*thePixelTemp_[index_id_].entx[iyhigh][ilow].xtemp[i][j] + xxratio*thePixelTemp_[index_id_].entx[iyhigh][ihigh].xtemp[i][j]);
         }
     }
     
     lorywidth_ = thePixelTemp_[index_id_].head.lorywidth;
     if(locBz > 0.f) {lorywidth_ = -lorywidth_;}
     lorxwidth_ = thePixelTemp_[index_id_].head.lorxwidth;
     
   }
     
   return success_;
 } // interpolate

bool SiPixelTemplate::interpolate	(	int	id,
		float	cotalpha,
		float	cotbeta
	)

Interpolate input alpha and beta angles to produce a working template for each individual hit.

Parameters

id	- (input) index of the template to use
cotalpha	- (input) the cotangent of the alpha track angle (see CMS IN 2004/014)
cotbeta	- (input) the cotangent of the beta track angle (see CMS IN 2004/014)

Definition at line 1325 of file SiPixelTemplate.cc.

References f, and interpolate().

 {
     // Interpolate for a new set of track angles 
     
     // Local variables 
     float locBz;
     locBz = -1.f;
     if(cotbeta < 0.f) {locBz = -locBz;}
     return SiPixelTemplate::interpolate(id, cotalpha, cotbeta, locBz);
 }

float SiPixelTemplate::kappavav ( )

inline

kappa parameter for Vavilov distribution

Definition at line 487 of file SiPixelTemplate.h.

References kappavav_.

float SiPixelTemplate::kappavav2 ( )

inline

kappa parameter for 2-cluster Vavilov distribution

Definition at line 490 of file SiPixelTemplate.h.

References kappavav2_.

float SiPixelTemplate::lorxbias ( )

inline

signed lorentz x-width (microns)

Definition at line 484 of file SiPixelTemplate.h.

References lorxwidth_.

Referenced by PixelCPETemplateReco::localPosition().

float SiPixelTemplate::lorxwidth ( )

inline

signed lorentz x-width (microns)

Definition at line 482 of file SiPixelTemplate.h.

References lorxwidth_.

float SiPixelTemplate::lorybias ( )

inline

signed lorentz y-width (microns)

Definition at line 483 of file SiPixelTemplate.h.

References lorywidth_.

Referenced by PixelCPETemplateReco::localPosition().

float SiPixelTemplate::lorywidth ( )

inline

signed lorentz y-width (microns)

Definition at line 481 of file SiPixelTemplate.h.

References lorywidth_.

float SiPixelTemplate::mpvvav ( )

inline

most probable charge in Vavilov distribution (not actually for larger kappa)

Definition at line 485 of file SiPixelTemplate.h.

References mpvvav_.

float SiPixelTemplate::mpvvav2 ( )

inline

most probable charge in 2-cluster Vavilov distribution (not actually for larger kappa)

Definition at line 488 of file SiPixelTemplate.h.

References mpvvav2_.

float SiPixelTemplate::pixmax ( )

inline

maximum pixel charge

Definition at line 311 of file SiPixelTemplate.h.

References pixmax_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

void SiPixelTemplate::postInit ( std::vector< SiPixelTemplateStore > & thePixelTemp_ )

static

Definition at line 871 of file SiPixelTemplate.cc.

References citk::for().

                                                                                 {
   /*
   std::cout << "SiPixelTemplate size " << thePixelTemp_.size() << std::endl;
 #ifndef SI_PIXEL_TEMPLATE_USE_BOOST 
   std::cout <<"uses C arrays" << std::endl;
 #endif
 
   int i=0;
   for (auto & templ : thePixelTemp_) {
     std::cout << i <<':' << templ.head.ID << ' ' << templ.head.NTy <<','<< templ.head.NTyx <<','<< templ.head.NTxx << std::endl;
     for ( auto iy=1; iy<templ.head.NTy; ++iy  ) { auto & ent = templ.enty[iy]; std::cout << ent.cotbeta <<',' << ent.cotbeta-templ.enty[iy-1].cotbeta << ' '; }
     std::cout << std::endl;
     for ( auto ix=1; ix<templ.head.NTxx; ++ix  ){ auto & ent = templ.entx[0][ix]; std::cout << ent.cotalpha <<','<< ent.cotalpha-templ.entx[0][ix-1].cotalpha << ' ';}
       std::cout << std::endl;
     ++i;
   }
   */
 
   for (auto & templ : thePixelTemp_) {
     for ( auto iy=0; iy<templ.head.NTy; ++iy ) templ.cotbetaY[iy]=templ.enty[iy].cotbeta;
     for ( auto iy=0; iy<templ.head.NTyx; ++iy )  templ.cotbetaX[iy]= templ.entx[iy][0].cotbeta;
     for ( auto ix=0; ix<templ.head.NTxx; ++ix ) templ.cotalphaX[ix]=templ.entx[0][ix].cotalpha;
   }
 
 }

bool SiPixelTemplate::pushfile	(	int	filenum,
		std::vector< SiPixelTemplateStore > &	thePixelTemp_
	)

static

This routine initializes the global template structures from an external file template_summary_zpNNNN where NNNN are four digits of filenum.

Parameters

filenum - an integer NNNN used in the filename template_summary_zpNNNN

Definition at line 113 of file SiPixelTemplate.cc.

Referenced by PixelCPEGeneric::PixelCPEGeneric(), PixelCPETemplateReco::PixelCPETemplateReco(), SiPixelGaussianSmearingRecHitConverterAlgorithm::SiPixelGaussianSmearingRecHitConverterAlgorithm(), and TrackClusterSplitter::TrackClusterSplitter().

 {
     // Add template stored in external file numbered filenum to theTemplateStore
     
     // Local variables 
     int i, j, k, l;
     float qavg_avg;
     const char *tempfile;
     //  char title[80]; remove this
     char c;
     const int code_version={17};
     
     
     
     //  Create a filename for this run 
     
     std::ostringstream tout;
     
     //  Create different path in CMSSW than standalone
     
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     tout << "CalibTracker/SiPixelESProducers/data/template_summary_zp" 
     << std::setw(4) << std::setfill('0') << std::right << filenum << ".out" << std::ends;
     std::string tempf = tout.str();
     edm::FileInPath file( tempf.c_str() );
     tempfile = (file.fullPath()).c_str();
 #else
     tout << "template_summary_zp" << std::setw(4) << std::setfill('0') << std::right << filenum << ".out" << std::ends;
     std::string tempf = tout.str();
     tempfile = tempf.c_str();
 #endif
     
     //  open the template file 
     
     std::ifstream in_file(tempfile, std::ios::in);
     
     if(in_file.is_open()) {
         
         // Create a local template storage entry
         
         SiPixelTemplateStore theCurrentTemp;
         
         // Read-in a header string first and print it    
         
         for (i=0; (c=in_file.get()) != '\n'; ++i) {
             if(i < 79) {theCurrentTemp.head.title[i] = c;}
         }
         if(i > 78) {i=78;}
         theCurrentTemp.head.title[i+1] ='\0';
         LOGINFO("SiPixelTemplate") << "Loading Pixel Template File - " << theCurrentTemp.head.title << ENDL;
         
         // next, the header information     
         
         in_file >> theCurrentTemp.head.ID  >> theCurrentTemp.head.templ_version >> theCurrentTemp.head.Bfield >> theCurrentTemp.head.NTy >> theCurrentTemp.head.NTyx >> theCurrentTemp.head.NTxx
         >> theCurrentTemp.head.Dtype >> theCurrentTemp.head.Vbias >> theCurrentTemp.head.temperature >> theCurrentTemp.head.fluence >> theCurrentTemp.head.qscale
         >> theCurrentTemp.head.s50 >> theCurrentTemp.head.lorywidth >> theCurrentTemp.head.lorxwidth >> theCurrentTemp.head.ysize >> theCurrentTemp.head.xsize >> theCurrentTemp.head.zsize;
         
         if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file, no template load" << ENDL; return false;}
         
         LOGINFO("SiPixelTemplate") << "Template ID = " << theCurrentTemp.head.ID << ", Template Version " << theCurrentTemp.head.templ_version << ", Bfield = " << theCurrentTemp.head.Bfield 
         << ", NTy = " << theCurrentTemp.head.NTy << ", NTyx = " << theCurrentTemp.head.NTyx<< ", NTxx = " << theCurrentTemp.head.NTxx << ", Dtype = " << theCurrentTemp.head.Dtype
         << ", Bias voltage " << theCurrentTemp.head.Vbias << ", temperature "
         << theCurrentTemp.head.temperature << ", fluence " << theCurrentTemp.head.fluence << ", Q-scaling factor " << theCurrentTemp.head.qscale
         << ", 1/2 threshold " << theCurrentTemp.head.s50 << ", y Lorentz Width " << theCurrentTemp.head.lorywidth << ", x Lorentz width " << theCurrentTemp.head.lorxwidth    
         << ", pixel x-size " << theCurrentTemp.head.xsize << ", y-size " << theCurrentTemp.head.ysize << ", zsize " << theCurrentTemp.head.zsize << ENDL;
         
         if(theCurrentTemp.head.templ_version < code_version) {LOGERROR("SiPixelTemplate") << "code expects version " << code_version << ", no template load" << ENDL; return false;}
         
 #ifdef SI_PIXEL_TEMPLATE_USE_BOOST 
         
 // next, layout the 1-d/2-d structures needed to store template
                 
         theCurrentTemp.enty.resize(boost::extents[theCurrentTemp.head.NTy]);
 
         theCurrentTemp.entx.resize(boost::extents[theCurrentTemp.head.NTyx][theCurrentTemp.head.NTxx]);
         
 #endif
         
 // next, loop over all y-angle entries   
         
         for (i=0; i < theCurrentTemp.head.NTy; ++i) {     
             
             in_file >> theCurrentTemp.enty[i].runnum >> theCurrentTemp.enty[i].costrk[0] 
             >> theCurrentTemp.enty[i].costrk[1] >> theCurrentTemp.enty[i].costrk[2]; 
             
             if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 1, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             
             // Calculate the alpha, beta, and cot(beta) for this entry 
             
             theCurrentTemp.enty[i].alpha = static_cast<float>(atan2((double)theCurrentTemp.enty[i].costrk[2], (double)theCurrentTemp.enty[i].costrk[0]));
             
             theCurrentTemp.enty[i].cotalpha = theCurrentTemp.enty[i].costrk[0]/theCurrentTemp.enty[i].costrk[2];
             
             theCurrentTemp.enty[i].beta = static_cast<float>(atan2((double)theCurrentTemp.enty[i].costrk[2], (double)theCurrentTemp.enty[i].costrk[1]));
             
             theCurrentTemp.enty[i].cotbeta = theCurrentTemp.enty[i].costrk[1]/theCurrentTemp.enty[i].costrk[2];
             
             in_file >> theCurrentTemp.enty[i].qavg >> theCurrentTemp.enty[i].pixmax >> theCurrentTemp.enty[i].symax >> theCurrentTemp.enty[i].dyone
             >> theCurrentTemp.enty[i].syone >> theCurrentTemp.enty[i].sxmax >> theCurrentTemp.enty[i].dxone >> theCurrentTemp.enty[i].sxone;
             
             if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 2, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             
             in_file >> theCurrentTemp.enty[i].dytwo >> theCurrentTemp.enty[i].sytwo >> theCurrentTemp.enty[i].dxtwo 
             >> theCurrentTemp.enty[i].sxtwo >> theCurrentTemp.enty[i].qmin >> theCurrentTemp.enty[i].clsleny >> theCurrentTemp.enty[i].clslenx;
             
             if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 3, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             
             for (j=0; j<2; ++j) {
                 
                 in_file >> theCurrentTemp.enty[i].ypar[j][0] >> theCurrentTemp.enty[i].ypar[j][1] 
                 >> theCurrentTemp.enty[i].ypar[j][2] >> theCurrentTemp.enty[i].ypar[j][3] >> theCurrentTemp.enty[i].ypar[j][4];
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 4, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
                 
             }
             
             for (j=0; j<9; ++j) {
                 
                 for (k=0; k<TYSIZE; ++k) {in_file >> theCurrentTemp.enty[i].ytemp[j][k];}
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 5, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<2; ++j) {
                 
                 in_file >> theCurrentTemp.enty[i].xpar[j][0] >> theCurrentTemp.enty[i].xpar[j][1] 
                 >> theCurrentTemp.enty[i].xpar[j][2] >> theCurrentTemp.enty[i].xpar[j][3] >> theCurrentTemp.enty[i].xpar[j][4];
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 6, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
                 
             }
             
             qavg_avg = 0.f;
             for (j=0; j<9; ++j) {
                 
                 for (k=0; k<TXSIZE; ++k) {in_file >> theCurrentTemp.enty[i].xtemp[j][k]; qavg_avg += theCurrentTemp.enty[i].xtemp[j][k];} 
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 7, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             theCurrentTemp.enty[i].qavg_avg = qavg_avg/9.;
             
             for (j=0; j<4; ++j) {
                 
                 in_file >> theCurrentTemp.enty[i].yavg[j] >> theCurrentTemp.enty[i].yrms[j] >> theCurrentTemp.enty[i].ygx0[j] >> theCurrentTemp.enty[i].ygsig[j];
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 8, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 in_file >> theCurrentTemp.enty[i].yflpar[j][0] >> theCurrentTemp.enty[i].yflpar[j][1] >> theCurrentTemp.enty[i].yflpar[j][2] 
                 >> theCurrentTemp.enty[i].yflpar[j][3] >> theCurrentTemp.enty[i].yflpar[j][4] >> theCurrentTemp.enty[i].yflpar[j][5];
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 9, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 in_file >> theCurrentTemp.enty[i].xavg[j] >> theCurrentTemp.enty[i].xrms[j] >> theCurrentTemp.enty[i].xgx0[j] >> theCurrentTemp.enty[i].xgsig[j];
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 10, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 in_file >> theCurrentTemp.enty[i].xflpar[j][0] >> theCurrentTemp.enty[i].xflpar[j][1] >> theCurrentTemp.enty[i].xflpar[j][2] 
                 >> theCurrentTemp.enty[i].xflpar[j][3] >> theCurrentTemp.enty[i].xflpar[j][4] >> theCurrentTemp.enty[i].xflpar[j][5];
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 11, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 in_file >> theCurrentTemp.enty[i].chi2yavg[j] >> theCurrentTemp.enty[i].chi2ymin[j] >> theCurrentTemp.enty[i].chi2xavg[j] >> theCurrentTemp.enty[i].chi2xmin[j];
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 12, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 in_file >> theCurrentTemp.enty[i].yavgc2m[j] >> theCurrentTemp.enty[i].yrmsc2m[j] >> theCurrentTemp.enty[i].chi2yavgc2m[j] >> theCurrentTemp.enty[i].chi2yminc2m[j];
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 13, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 in_file >> theCurrentTemp.enty[i].xavgc2m[j] >> theCurrentTemp.enty[i].xrmsc2m[j] >> theCurrentTemp.enty[i].chi2xavgc2m[j] >> theCurrentTemp.enty[i].chi2xminc2m[j];
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 14, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             } 
             
             for (j=0; j<4; ++j) {
                 
                 in_file >> theCurrentTemp.enty[i].yavggen[j] >> theCurrentTemp.enty[i].yrmsgen[j] >> theCurrentTemp.enty[i].ygx0gen[j] >> theCurrentTemp.enty[i].ygsiggen[j];
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 14a, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 in_file >> theCurrentTemp.enty[i].xavggen[j] >> theCurrentTemp.enty[i].xrmsgen[j] >> theCurrentTemp.enty[i].xgx0gen[j] >> theCurrentTemp.enty[i].xgsiggen[j];
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 14b, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             } 
             
             in_file >> theCurrentTemp.enty[i].chi2yavgone >> theCurrentTemp.enty[i].chi2yminone >> theCurrentTemp.enty[i].chi2xavgone >> theCurrentTemp.enty[i].chi2xminone >> theCurrentTemp.enty[i].qmin2
             >> theCurrentTemp.enty[i].mpvvav >> theCurrentTemp.enty[i].sigmavav >> theCurrentTemp.enty[i].kappavav >> theCurrentTemp.enty[i].qavg_spare >> theCurrentTemp.enty[i].spare[0];
             
             if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 15, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             
             in_file >> theCurrentTemp.enty[i].mpvvav2 >> theCurrentTemp.enty[i].sigmavav2 >> theCurrentTemp.enty[i].kappavav2 >> theCurrentTemp.enty[i].qbfrac[0] >> theCurrentTemp.enty[i].qbfrac[1]
             >> theCurrentTemp.enty[i].qbfrac[2] >> theCurrentTemp.enty[i].fracyone >> theCurrentTemp.enty[i].fracxone >> theCurrentTemp.enty[i].fracytwo >> theCurrentTemp.enty[i].fracxtwo;
             //      theCurrentTemp.enty[i].qbfrac[3] = 1. - theCurrentTemp.enty[i].qbfrac[0] - theCurrentTemp.enty[i].qbfrac[1] - theCurrentTemp.enty[i].qbfrac[2];
             
             if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 16, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             
         }
         
         // next, loop over all barrel x-angle entries   
         
         for (k=0; k < theCurrentTemp.head.NTyx; ++k) { 
             
             for (i=0; i < theCurrentTemp.head.NTxx; ++i) { 
                 
                 in_file >> theCurrentTemp.entx[k][i].runnum >> theCurrentTemp.entx[k][i].costrk[0] 
                 >> theCurrentTemp.entx[k][i].costrk[1] >> theCurrentTemp.entx[k][i].costrk[2]; 
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 17, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 
                 // Calculate the alpha, beta, and cot(beta) for this entry 
                 
                 theCurrentTemp.entx[k][i].alpha = static_cast<float>(atan2((double)theCurrentTemp.entx[k][i].costrk[2], (double)theCurrentTemp.entx[k][i].costrk[0]));
                 
                 theCurrentTemp.entx[k][i].cotalpha = theCurrentTemp.entx[k][i].costrk[0]/theCurrentTemp.entx[k][i].costrk[2];
                 
                 theCurrentTemp.entx[k][i].beta = static_cast<float>(atan2((double)theCurrentTemp.entx[k][i].costrk[2], (double)theCurrentTemp.entx[k][i].costrk[1]));
                 
                 theCurrentTemp.entx[k][i].cotbeta = theCurrentTemp.entx[k][i].costrk[1]/theCurrentTemp.entx[k][i].costrk[2];
                 
                 in_file >> theCurrentTemp.entx[k][i].qavg >> theCurrentTemp.entx[k][i].pixmax >> theCurrentTemp.entx[k][i].symax >> theCurrentTemp.entx[k][i].dyone
                 >> theCurrentTemp.entx[k][i].syone >> theCurrentTemp.entx[k][i].sxmax >> theCurrentTemp.entx[k][i].dxone >> theCurrentTemp.entx[k][i].sxone;
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 18, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 
                 in_file >> theCurrentTemp.entx[k][i].dytwo >> theCurrentTemp.entx[k][i].sytwo >> theCurrentTemp.entx[k][i].dxtwo 
                 >> theCurrentTemp.entx[k][i].sxtwo >> theCurrentTemp.entx[k][i].qmin >> theCurrentTemp.entx[k][i].clsleny >> theCurrentTemp.entx[k][i].clslenx;
                 //             >> theCurrentTemp.entx[k][i].mpvvav >> theCurrentTemp.entx[k][i].sigmavav >> theCurrentTemp.entx[k][i].kappavav;
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 19, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 
                 for (j=0; j<2; ++j) {
                     
                     in_file >> theCurrentTemp.entx[k][i].ypar[j][0] >> theCurrentTemp.entx[k][i].ypar[j][1] 
                     >> theCurrentTemp.entx[k][i].ypar[j][2] >> theCurrentTemp.entx[k][i].ypar[j][3] >> theCurrentTemp.entx[k][i].ypar[j][4];
                     
                     if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 20, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<9; ++j) {
                     
                     for (l=0; l<TYSIZE; ++l) {in_file >> theCurrentTemp.entx[k][i].ytemp[j][l];} 
                     
                     if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 21, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<2; ++j) {
                     
                     in_file >> theCurrentTemp.entx[k][i].xpar[j][0] >> theCurrentTemp.entx[k][i].xpar[j][1] 
                     >> theCurrentTemp.entx[k][i].xpar[j][2] >> theCurrentTemp.entx[k][i].xpar[j][3] >> theCurrentTemp.entx[k][i].xpar[j][4];
                     
                     
                     if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 22, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 qavg_avg = 0.f;
                 for (j=0; j<9; ++j) {
                     
                     for (l=0; l<TXSIZE; ++l) {in_file >> theCurrentTemp.entx[k][i].xtemp[j][l]; qavg_avg += theCurrentTemp.entx[k][i].xtemp[j][l];} 
                     
                     if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 23, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 theCurrentTemp.entx[k][i].qavg_avg = qavg_avg/9.;
                 
                 for (j=0; j<4; ++j) {
                     
                     in_file >> theCurrentTemp.entx[k][i].yavg[j] >> theCurrentTemp.entx[k][i].yrms[j] >> theCurrentTemp.entx[k][i].ygx0[j] >> theCurrentTemp.entx[k][i].ygsig[j];
                     
                     if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 24, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     in_file >> theCurrentTemp.entx[k][i].yflpar[j][0] >> theCurrentTemp.entx[k][i].yflpar[j][1] >> theCurrentTemp.entx[k][i].yflpar[j][2] 
                     >> theCurrentTemp.entx[k][i].yflpar[j][3] >> theCurrentTemp.entx[k][i].yflpar[j][4] >> theCurrentTemp.entx[k][i].yflpar[j][5];
                     
                     if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 25, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     in_file >> theCurrentTemp.entx[k][i].xavg[j] >> theCurrentTemp.entx[k][i].xrms[j] >> theCurrentTemp.entx[k][i].xgx0[j] >> theCurrentTemp.entx[k][i].xgsig[j];
                     
                     if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 26, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     in_file >> theCurrentTemp.entx[k][i].xflpar[j][0] >> theCurrentTemp.entx[k][i].xflpar[j][1] >> theCurrentTemp.entx[k][i].xflpar[j][2] 
                     >> theCurrentTemp.entx[k][i].xflpar[j][3] >> theCurrentTemp.entx[k][i].xflpar[j][4] >> theCurrentTemp.entx[k][i].xflpar[j][5];
                     
                     if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 27, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     in_file >> theCurrentTemp.entx[k][i].chi2yavg[j] >> theCurrentTemp.entx[k][i].chi2ymin[j] >> theCurrentTemp.entx[k][i].chi2xavg[j] >> theCurrentTemp.entx[k][i].chi2xmin[j];
                     
                     if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 28, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     in_file >> theCurrentTemp.entx[k][i].yavgc2m[j] >> theCurrentTemp.entx[k][i].yrmsc2m[j] >> theCurrentTemp.entx[k][i].chi2yavgc2m[j] >> theCurrentTemp.entx[k][i].chi2yminc2m[j];
                     
                     if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 29, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     in_file >> theCurrentTemp.entx[k][i].xavgc2m[j] >> theCurrentTemp.entx[k][i].xrmsc2m[j] >> theCurrentTemp.entx[k][i].chi2xavgc2m[j] >> theCurrentTemp.entx[k][i].chi2xminc2m[j];
                     
                     if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 30, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     in_file >> theCurrentTemp.entx[k][i].yavggen[j] >> theCurrentTemp.entx[k][i].yrmsgen[j] >> theCurrentTemp.entx[k][i].ygx0gen[j] >> theCurrentTemp.entx[k][i].ygsiggen[j];
                     
                     if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 30a, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     in_file >> theCurrentTemp.entx[k][i].xavggen[j] >> theCurrentTemp.entx[k][i].xrmsgen[j] >> theCurrentTemp.entx[k][i].xgx0gen[j] >> theCurrentTemp.entx[k][i].xgsiggen[j];
                     
                     if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 30b, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 in_file >> theCurrentTemp.entx[k][i].chi2yavgone >> theCurrentTemp.entx[k][i].chi2yminone >> theCurrentTemp.entx[k][i].chi2xavgone >> theCurrentTemp.entx[k][i].chi2xminone >> theCurrentTemp.entx[k][i].qmin2
                 >> theCurrentTemp.entx[k][i].mpvvav >> theCurrentTemp.entx[k][i].sigmavav >> theCurrentTemp.entx[k][i].kappavav >> theCurrentTemp.entx[k][i].qavg_spare >> theCurrentTemp.entx[k][i].spare[0];
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 31, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 
                 in_file >> theCurrentTemp.entx[k][i].mpvvav2 >> theCurrentTemp.entx[k][i].sigmavav2 >> theCurrentTemp.entx[k][i].kappavav2 >> theCurrentTemp.entx[k][i].qbfrac[0] >> theCurrentTemp.entx[k][i].qbfrac[1]
                 >> theCurrentTemp.entx[k][i].qbfrac[2] >> theCurrentTemp.entx[k][i].fracyone >> theCurrentTemp.entx[k][i].fracxone >> theCurrentTemp.entx[k][i].fracytwo >> theCurrentTemp.entx[k][i].fracxtwo;
                 //      theCurrentTemp.entx[k][i].qbfrac[3] = 1. - theCurrentTemp.entx[k][i].qbfrac[0] - theCurrentTemp.entx[k][i].qbfrac[1] - theCurrentTemp.entx[k][i].qbfrac[2];
                 
                 if(in_file.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 32, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 
             }
         }   
         
         
         in_file.close();
         
         // Add this template to the store
         
         thePixelTemp_.push_back(theCurrentTemp);
 
         postInit(thePixelTemp_);        
         return true;
         
     } else {
         
         // If file didn't open, report this
         
         LOGERROR("SiPixelTemplate") << "Error opening File" << tempfile << ENDL;
         return false;
         
     }
     
 } // TempInit 

bool SiPixelTemplate::pushfile	(	const SiPixelTemplateDBObject &	dbobject,
		std::vector< SiPixelTemplateStore > &	thePixelTemp_
	)

static

This routine initializes the global template structures from an external file template_summary_zpNNNN where NNNN are four digits

Parameters

dbobject - db storing multiple template calibrations

Definition at line 506 of file SiPixelTemplate.cc.

 {
     // Add template stored in external dbobject to theTemplateStore
     
     // Local variables 
     int i, j, k, l;
     float qavg_avg;
     //  const char *tempfile;
     const int code_version={16};
     
     // We must create a new object because dbobject must be a const and our stream must not be
     SiPixelTemplateDBObject db = dbobject;
     //  SiPixelTemplateDBObject & db = const_cast<SiPixelTemplateDBObject&>(dbobject);
     
     // Create a local template storage entry
     SiPixelTemplateStore theCurrentTemp;
     
     // Fill the template storage for each template calibration stored in the db
     for(int m=0; m<db.numOfTempl(); ++m)
     {
         
         // Read-in a header string first and print it    
         
         SiPixelTemplateDBObject::char2float temp;
         for (i=0; i<20; ++i) {
             temp.f = db.sVector()[db.index()];
             theCurrentTemp.head.title[4*i] = temp.c[0];
             theCurrentTemp.head.title[4*i+1] = temp.c[1];
             theCurrentTemp.head.title[4*i+2] = temp.c[2];
             theCurrentTemp.head.title[4*i+3] = temp.c[3];
             db.incrementIndex(1);
         }
         theCurrentTemp.head.title[79] = '\0';
         LOGINFO("SiPixelTemplate") << "Loading Pixel Template File - " << theCurrentTemp.head.title << ENDL;
         
         // next, the header information     
         
         db >> theCurrentTemp.head.ID  >> theCurrentTemp.head.templ_version >> theCurrentTemp.head.Bfield >> theCurrentTemp.head.NTy >> theCurrentTemp.head.NTyx >> theCurrentTemp.head.NTxx
         >> theCurrentTemp.head.Dtype >> theCurrentTemp.head.Vbias >> theCurrentTemp.head.temperature >> theCurrentTemp.head.fluence >> theCurrentTemp.head.qscale
         >> theCurrentTemp.head.s50 >> theCurrentTemp.head.lorywidth >> theCurrentTemp.head.lorxwidth >> theCurrentTemp.head.ysize >> theCurrentTemp.head.xsize >> theCurrentTemp.head.zsize;
         
         if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file, no template load" << ENDL; return false;}
         
         LOGINFO("SiPixelTemplate") << "Template ID = " << theCurrentTemp.head.ID << ", Template Version " << theCurrentTemp.head.templ_version << ", Bfield = " << theCurrentTemp.head.Bfield 
         << ", NTy = " << theCurrentTemp.head.NTy << ", NTyx = " << theCurrentTemp.head.NTyx<< ", NTxx = " << theCurrentTemp.head.NTxx << ", Dtype = " << theCurrentTemp.head.Dtype
         << ", Bias voltage " << theCurrentTemp.head.Vbias << ", temperature "
         << theCurrentTemp.head.temperature << ", fluence " << theCurrentTemp.head.fluence << ", Q-scaling factor " << theCurrentTemp.head.qscale
         << ", 1/2 threshold " << theCurrentTemp.head.s50 << ", y Lorentz Width " << theCurrentTemp.head.lorywidth << ", x Lorentz width " << theCurrentTemp.head.lorxwidth    
         << ", pixel x-size " << theCurrentTemp.head.xsize << ", y-size " << theCurrentTemp.head.ysize << ", zsize " << theCurrentTemp.head.zsize << ENDL;
         
         if(theCurrentTemp.head.templ_version < code_version) {LOGERROR("SiPixelTemplate") << "code expects version " << code_version << ", no template load" << ENDL; return false;}
         
         
 #ifdef SI_PIXEL_TEMPLATE_USE_BOOST 
         
 // next, layout the 1-d/2-d structures needed to store template
         
         theCurrentTemp.enty.resize(boost::extents[theCurrentTemp.head.NTy]);
         
         theCurrentTemp.entx.resize(boost::extents[theCurrentTemp.head.NTyx][theCurrentTemp.head.NTxx]);
         
 #endif
                 
 // next, loop over all barrel y-angle entries   
         
         for (i=0; i < theCurrentTemp.head.NTy; ++i) {     
             
             db >> theCurrentTemp.enty[i].runnum >> theCurrentTemp.enty[i].costrk[0] 
             >> theCurrentTemp.enty[i].costrk[1] >> theCurrentTemp.enty[i].costrk[2]; 
             
             if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 1, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             
 // Calculate the alpha, beta, and cot(beta) for this entry 
             
             theCurrentTemp.enty[i].alpha = static_cast<float>(atan2((double)theCurrentTemp.enty[i].costrk[2], (double)theCurrentTemp.enty[i].costrk[0]));
             
             theCurrentTemp.enty[i].cotalpha = theCurrentTemp.enty[i].costrk[0]/theCurrentTemp.enty[i].costrk[2];
             
             theCurrentTemp.enty[i].beta = static_cast<float>(atan2((double)theCurrentTemp.enty[i].costrk[2], (double)theCurrentTemp.enty[i].costrk[1]));
             
             theCurrentTemp.enty[i].cotbeta = theCurrentTemp.enty[i].costrk[1]/theCurrentTemp.enty[i].costrk[2];
             
             db >> theCurrentTemp.enty[i].qavg >> theCurrentTemp.enty[i].pixmax >> theCurrentTemp.enty[i].symax >> theCurrentTemp.enty[i].dyone
             >> theCurrentTemp.enty[i].syone >> theCurrentTemp.enty[i].sxmax >> theCurrentTemp.enty[i].dxone >> theCurrentTemp.enty[i].sxone;
             
             if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 2, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             
             db >> theCurrentTemp.enty[i].dytwo >> theCurrentTemp.enty[i].sytwo >> theCurrentTemp.enty[i].dxtwo 
             >> theCurrentTemp.enty[i].sxtwo >> theCurrentTemp.enty[i].qmin >> theCurrentTemp.enty[i].clsleny >> theCurrentTemp.enty[i].clslenx;
             //               >> theCurrentTemp.enty[i].mpvvav >> theCurrentTemp.enty[i].sigmavav >> theCurrentTemp.enty[i].kappavav;
             
             if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 3, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             
             for (j=0; j<2; ++j) {
                 
                 db >> theCurrentTemp.enty[i].ypar[j][0] >> theCurrentTemp.enty[i].ypar[j][1] 
                 >> theCurrentTemp.enty[i].ypar[j][2] >> theCurrentTemp.enty[i].ypar[j][3] >> theCurrentTemp.enty[i].ypar[j][4];
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 4, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
                 
             }
             
             for (j=0; j<9; ++j) {
                 
                 for (k=0; k<TYSIZE; ++k) {db >> theCurrentTemp.enty[i].ytemp[j][k];}
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 5, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<2; ++j) {
                 
                 db >> theCurrentTemp.enty[i].xpar[j][0] >> theCurrentTemp.enty[i].xpar[j][1] 
                 >> theCurrentTemp.enty[i].xpar[j][2] >> theCurrentTemp.enty[i].xpar[j][3] >> theCurrentTemp.enty[i].xpar[j][4];
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 6, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
                 
             }
             
             qavg_avg = 0.f;
             for (j=0; j<9; ++j) {
                 
                 for (k=0; k<TXSIZE; ++k) {db >> theCurrentTemp.enty[i].xtemp[j][k]; qavg_avg += theCurrentTemp.enty[i].xtemp[j][k];} 
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 7, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             theCurrentTemp.enty[i].qavg_avg = qavg_avg/9.;
             
             for (j=0; j<4; ++j) {
                 
                 db >> theCurrentTemp.enty[i].yavg[j] >> theCurrentTemp.enty[i].yrms[j] >> theCurrentTemp.enty[i].ygx0[j] >> theCurrentTemp.enty[i].ygsig[j];
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 8, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 db >> theCurrentTemp.enty[i].yflpar[j][0] >> theCurrentTemp.enty[i].yflpar[j][1] >> theCurrentTemp.enty[i].yflpar[j][2] 
                 >> theCurrentTemp.enty[i].yflpar[j][3] >> theCurrentTemp.enty[i].yflpar[j][4] >> theCurrentTemp.enty[i].yflpar[j][5];
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 9, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 db >> theCurrentTemp.enty[i].xavg[j] >> theCurrentTemp.enty[i].xrms[j] >> theCurrentTemp.enty[i].xgx0[j] >> theCurrentTemp.enty[i].xgsig[j];
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 10, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 db >> theCurrentTemp.enty[i].xflpar[j][0] >> theCurrentTemp.enty[i].xflpar[j][1] >> theCurrentTemp.enty[i].xflpar[j][2] 
                 >> theCurrentTemp.enty[i].xflpar[j][3] >> theCurrentTemp.enty[i].xflpar[j][4] >> theCurrentTemp.enty[i].xflpar[j][5];
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 11, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 db >> theCurrentTemp.enty[i].chi2yavg[j] >> theCurrentTemp.enty[i].chi2ymin[j] >> theCurrentTemp.enty[i].chi2xavg[j] >> theCurrentTemp.enty[i].chi2xmin[j];
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 12, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 db >> theCurrentTemp.enty[i].yavgc2m[j] >> theCurrentTemp.enty[i].yrmsc2m[j] >> theCurrentTemp.enty[i].chi2yavgc2m[j] >> theCurrentTemp.enty[i].chi2yminc2m[j];
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 13, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 db >> theCurrentTemp.enty[i].xavgc2m[j] >> theCurrentTemp.enty[i].xrmsc2m[j] >> theCurrentTemp.enty[i].chi2xavgc2m[j] >> theCurrentTemp.enty[i].chi2xminc2m[j];
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 14, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             } 
             
             for (j=0; j<4; ++j) {
                 
                 db >> theCurrentTemp.enty[i].yavggen[j] >> theCurrentTemp.enty[i].yrmsgen[j] >> theCurrentTemp.enty[i].ygx0gen[j] >> theCurrentTemp.enty[i].ygsiggen[j];
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 14a, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             }
             
             for (j=0; j<4; ++j) {
                 
                 db >> theCurrentTemp.enty[i].xavggen[j] >> theCurrentTemp.enty[i].xrmsgen[j] >> theCurrentTemp.enty[i].xgx0gen[j] >> theCurrentTemp.enty[i].xgsiggen[j];
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 14b, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             } 
             
             
             db >> theCurrentTemp.enty[i].chi2yavgone >> theCurrentTemp.enty[i].chi2yminone >> theCurrentTemp.enty[i].chi2xavgone >> theCurrentTemp.enty[i].chi2xminone >> theCurrentTemp.enty[i].qmin2
             >> theCurrentTemp.enty[i].mpvvav >> theCurrentTemp.enty[i].sigmavav >> theCurrentTemp.enty[i].kappavav >> theCurrentTemp.enty[i].qavg_spare >> theCurrentTemp.enty[i].spare[0];
             
             if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 15, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             
             db >> theCurrentTemp.enty[i].mpvvav2 >> theCurrentTemp.enty[i].sigmavav2 >> theCurrentTemp.enty[i].kappavav2 >> theCurrentTemp.enty[i].qbfrac[0] >> theCurrentTemp.enty[i].qbfrac[1]
             >> theCurrentTemp.enty[i].qbfrac[2] >> theCurrentTemp.enty[i].fracyone >> theCurrentTemp.enty[i].fracxone >> theCurrentTemp.enty[i].fracytwo >> theCurrentTemp.enty[i].fracxtwo;
             //          theCurrentTemp.enty[i].qbfrac[3] = 1. - theCurrentTemp.enty[i].qbfrac[0] - theCurrentTemp.enty[i].qbfrac[1] - theCurrentTemp.enty[i].qbfrac[2];
             
             if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 16, no template load, run # " << theCurrentTemp.enty[i].runnum << ENDL; return false;}
             
         }
         
         // next, loop over all barrel x-angle entries   
         
         for (k=0; k < theCurrentTemp.head.NTyx; ++k) { 
             
             for (i=0; i < theCurrentTemp.head.NTxx; ++i) { 
                 
                 db >> theCurrentTemp.entx[k][i].runnum >> theCurrentTemp.entx[k][i].costrk[0] 
                 >> theCurrentTemp.entx[k][i].costrk[1] >> theCurrentTemp.entx[k][i].costrk[2]; 
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 17, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 
                 // Calculate the alpha, beta, and cot(beta) for this entry 
                 
                 theCurrentTemp.entx[k][i].alpha = static_cast<float>(atan2((double)theCurrentTemp.entx[k][i].costrk[2], (double)theCurrentTemp.entx[k][i].costrk[0]));
                 
                 theCurrentTemp.entx[k][i].cotalpha = theCurrentTemp.entx[k][i].costrk[0]/theCurrentTemp.entx[k][i].costrk[2];
                 
                 theCurrentTemp.entx[k][i].beta = static_cast<float>(atan2((double)theCurrentTemp.entx[k][i].costrk[2], (double)theCurrentTemp.entx[k][i].costrk[1]));
                 
                 theCurrentTemp.entx[k][i].cotbeta = theCurrentTemp.entx[k][i].costrk[1]/theCurrentTemp.entx[k][i].costrk[2];
                 
                 db >> theCurrentTemp.entx[k][i].qavg >> theCurrentTemp.entx[k][i].pixmax >> theCurrentTemp.entx[k][i].symax >> theCurrentTemp.entx[k][i].dyone
                 >> theCurrentTemp.entx[k][i].syone >> theCurrentTemp.entx[k][i].sxmax >> theCurrentTemp.entx[k][i].dxone >> theCurrentTemp.entx[k][i].sxone;
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 18, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 
                 db >> theCurrentTemp.entx[k][i].dytwo >> theCurrentTemp.entx[k][i].sytwo >> theCurrentTemp.entx[k][i].dxtwo 
                 >> theCurrentTemp.entx[k][i].sxtwo >> theCurrentTemp.entx[k][i].qmin >> theCurrentTemp.entx[k][i].clsleny >> theCurrentTemp.entx[k][i].clslenx;
                 //                     >> theCurrentTemp.entx[k][i].mpvvav >> theCurrentTemp.entx[k][i].sigmavav >> theCurrentTemp.entx[k][i].kappavav;
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 19, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 
                 for (j=0; j<2; ++j) {
                     
                     db >> theCurrentTemp.entx[k][i].ypar[j][0] >> theCurrentTemp.entx[k][i].ypar[j][1] 
                     >> theCurrentTemp.entx[k][i].ypar[j][2] >> theCurrentTemp.entx[k][i].ypar[j][3] >> theCurrentTemp.entx[k][i].ypar[j][4];
                     
                     if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 20, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<9; ++j) {
                     
                     for (l=0; l<TYSIZE; ++l) {db >> theCurrentTemp.entx[k][i].ytemp[j][l];} 
                     
                     if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 21, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<2; ++j) {
                     
                     db >> theCurrentTemp.entx[k][i].xpar[j][0] >> theCurrentTemp.entx[k][i].xpar[j][1] 
                     >> theCurrentTemp.entx[k][i].xpar[j][2] >> theCurrentTemp.entx[k][i].xpar[j][3] >> theCurrentTemp.entx[k][i].xpar[j][4];
                     
                     
                     if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 22, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 qavg_avg = 0.f;
                 for (j=0; j<9; ++j) {
                     
                     for (l=0; l<TXSIZE; ++l) {db >> theCurrentTemp.entx[k][i].xtemp[j][l]; qavg_avg += theCurrentTemp.entx[k][i].xtemp[j][l];} 
                     
                     if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 23, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 theCurrentTemp.entx[k][i].qavg_avg = qavg_avg/9.;
                 
                 for (j=0; j<4; ++j) {
                     
                     db >> theCurrentTemp.entx[k][i].yavg[j] >> theCurrentTemp.entx[k][i].yrms[j] >> theCurrentTemp.entx[k][i].ygx0[j] >> theCurrentTemp.entx[k][i].ygsig[j];
                     
                     if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 24, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     db >> theCurrentTemp.entx[k][i].yflpar[j][0] >> theCurrentTemp.entx[k][i].yflpar[j][1] >> theCurrentTemp.entx[k][i].yflpar[j][2] 
                     >> theCurrentTemp.entx[k][i].yflpar[j][3] >> theCurrentTemp.entx[k][i].yflpar[j][4] >> theCurrentTemp.entx[k][i].yflpar[j][5];
                     
                     if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 25, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     db >> theCurrentTemp.entx[k][i].xavg[j] >> theCurrentTemp.entx[k][i].xrms[j] >> theCurrentTemp.entx[k][i].xgx0[j] >> theCurrentTemp.entx[k][i].xgsig[j];
                     
                     if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 26, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     db >> theCurrentTemp.entx[k][i].xflpar[j][0] >> theCurrentTemp.entx[k][i].xflpar[j][1] >> theCurrentTemp.entx[k][i].xflpar[j][2] 
                     >> theCurrentTemp.entx[k][i].xflpar[j][3] >> theCurrentTemp.entx[k][i].xflpar[j][4] >> theCurrentTemp.entx[k][i].xflpar[j][5];
                     
                     if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 27, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     db >> theCurrentTemp.entx[k][i].chi2yavg[j] >> theCurrentTemp.entx[k][i].chi2ymin[j] >> theCurrentTemp.entx[k][i].chi2xavg[j] >> theCurrentTemp.entx[k][i].chi2xmin[j];
                     
                     if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 28, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     db >> theCurrentTemp.entx[k][i].yavgc2m[j] >> theCurrentTemp.entx[k][i].yrmsc2m[j] >> theCurrentTemp.entx[k][i].chi2yavgc2m[j] >> theCurrentTemp.entx[k][i].chi2yminc2m[j];
                     
                     if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 29, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     db >> theCurrentTemp.entx[k][i].xavgc2m[j] >> theCurrentTemp.entx[k][i].xrmsc2m[j] >> theCurrentTemp.entx[k][i].chi2xavgc2m[j] >> theCurrentTemp.entx[k][i].chi2xminc2m[j];
                     
                     if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 30, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     db >> theCurrentTemp.entx[k][i].yavggen[j] >> theCurrentTemp.entx[k][i].yrmsgen[j] >> theCurrentTemp.entx[k][i].ygx0gen[j] >> theCurrentTemp.entx[k][i].ygsiggen[j];
                     
                     if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 30a, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 for (j=0; j<4; ++j) {
                     
                     db >> theCurrentTemp.entx[k][i].xavggen[j] >> theCurrentTemp.entx[k][i].xrmsgen[j] >> theCurrentTemp.entx[k][i].xgx0gen[j] >> theCurrentTemp.entx[k][i].xgsiggen[j];
                     
                     if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 30b, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 }
                 
                 
                 db >> theCurrentTemp.entx[k][i].chi2yavgone >> theCurrentTemp.entx[k][i].chi2yminone >> theCurrentTemp.entx[k][i].chi2xavgone >> theCurrentTemp.entx[k][i].chi2xminone >> theCurrentTemp.entx[k][i].qmin2
                 >> theCurrentTemp.entx[k][i].mpvvav >> theCurrentTemp.entx[k][i].sigmavav >> theCurrentTemp.entx[k][i].kappavav >> theCurrentTemp.entx[k][i].qavg_spare >> theCurrentTemp.entx[k][i].spare[0];
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 31, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 
                 db >> theCurrentTemp.entx[k][i].mpvvav2 >> theCurrentTemp.entx[k][i].sigmavav2 >> theCurrentTemp.entx[k][i].kappavav2 >> theCurrentTemp.entx[k][i].qbfrac[0] >> theCurrentTemp.entx[k][i].qbfrac[1]
                 >> theCurrentTemp.entx[k][i].qbfrac[2] >> theCurrentTemp.entx[k][i].fracyone >> theCurrentTemp.entx[k][i].fracxone >> theCurrentTemp.entx[k][i].fracytwo >> theCurrentTemp.entx[k][i].fracxtwo;
                 //              theCurrentTemp.entx[k][i].qbfrac[3] = 1. - theCurrentTemp.entx[k][i].qbfrac[0] - theCurrentTemp.entx[k][i].qbfrac[1] - theCurrentTemp.entx[k][i].qbfrac[2];
                 
                 if(db.fail()) {LOGERROR("SiPixelTemplate") << "Error reading file 32, no template load, run # " << theCurrentTemp.entx[k][i].runnum << ENDL; return false;}
                 
             }
         }   
         
         
         // Add this template to the store
         
         thePixelTemp_.push_back(theCurrentTemp);
         
     }
     postInit(thePixelTemp_);
     return true;
     
 } // TempInit 

float SiPixelTemplate::qavg ( )

inline

average cluster charge for this set of track angles

Definition at line 310 of file SiPixelTemplate.h.

References qavg_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

int SiPixelTemplate::qbin	(	int	id,
		float	cotalpha,
		float	cotbeta,
		float	locBz,
		float	qclus,
		float &	pixmx,
		float &	sigmay,
		float &	deltay,
		float &	sigmax,
		float &	deltax,
		float &	sy1,
		float &	dy1,
		float &	sy2,
		float &	dy2,
		float &	sx1,
		float &	dx1,
		float &	sx2,
		float &	dx2
	)

Interpolate beta/alpha angles to produce an expected average charge. Return int (0-4) describing the charge of the cluster [0: 1.5<Q/Qavg, 1: 1<Q/Qavg<1.5, 2: 0.85<Q/Qavg<1, 3: 0.95Qmin<Q<0.85Qavg, 4: Q<0.95Qmin].

Parameters

id	- (input) index of the template to use
cotalpha	- (input) the cotangent of the alpha track angle (see CMS IN 2004/014)
cotbeta	- (input) the cotangent of the beta track angle (see CMS IN 2004/014)
locBz	- (input) the sign of this quantity is used to determine whether to flip cot(beta)<0 quantities from cot(beta)>0 (FPix only) for FPix IP-related tracks, locBz < 0 for cot(beta) > 0 and locBz > 0 for cot(beta) < 0
qclus	- (input) the cluster charge in electrons
pixmax	- (output) the maximum pixel charge in electrons (truncation value)
sigmay	- (output) the estimated y-error for CPEGeneric in microns
deltay	- (output) the estimated y-bias for CPEGeneric in microns
sigmax	- (output) the estimated x-error for CPEGeneric in microns
deltax	- (output) the estimated x-bias for CPEGeneric in microns
sy1	- (output) the estimated y-error for 1 single-pixel clusters in microns
dy1	- (output) the estimated y-bias for 1 single-pixel clusters in microns
sy2	- (output) the estimated y-error for 1 double-pixel clusters in microns
dy2	- (output) the estimated y-bias for 1 double-pixel clusters in microns
sx1	- (output) the estimated x-error for 1 single-pixel clusters in microns
dx1	- (output) the estimated x-bias for 1 single-pixel clusters in microns
sx2	- (output) the estimated x-error for 1 double-pixel clusters in microns
dx2	- (output) the estimated x-bias for 1 double-pixel clusters in microns
lorywidth	- (output) the estimated y Lorentz width
lorxwidth	- (output) the estimated x Lorentz width

Definition at line 2180 of file SiPixelTemplate.cc.

References funct::abs(), edm::hlt::Exception, f, i, cmsHarvester::index, j, and mathSSE::sqrt().

Referenced by PixelCPEGeneric::localPosition(), qbin(), and TrackClusterSplitter::splitCluster().

 {
     // Interpolate for a new set of track angles 
     
 
 // Find the index corresponding to id
 
    int index = -1;
     for( int i=0; i<(int)thePixelTemp_.size(); ++i) {      
       if(id == thePixelTemp_[i].head.ID) {
     index = i;
     break;
       }
     }
      
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(index < 0 || index >= (int)thePixelTemp_.size()) {
       throw cms::Exception("DataCorrupt") << "SiPixelTemplate::qbin can't find needed template ID = " << id << std::endl;
     }
 #else
     assert(index >= 0 && index < (int)thePixelTemp_.size());
 #endif
      
     //  
 
 
     auto const & templ = thePixelTemp_[index];  
     
     // Interpolate the absolute value of cot(beta)     
     
     auto acotb = std::abs(cotbeta);
     
     //  qcorrect corrects the cot(alpha)=0 cluster charge for non-zero cot(alpha)   
     
     auto cotalpha0 =  thePixelTemp_[index].enty[0].cotalpha;
     auto qcorrect=std::sqrt((1.f+cotbeta*cotbeta+cotalpha*cotalpha)/(1.f+cotbeta*cotbeta+cotalpha0*cotalpha0));
     
     // for some cosmics, the ususal gymnastics are incorrect   
     
     float cotb; bool flip_y;
     if(thePixelTemp_[index].head.Dtype == 0) {
       cotb = acotb;
       flip_y = false;
       if(cotbeta < 0.f) {flip_y = true;}
     } else {
       if(locBz < 0.f) {
     cotb = cotbeta;
     flip_y = false;
       } else {
     cotb = -cotbeta;
     flip_y = true;
       } 
     }
     
     // Copy the charge scaling factor to the private variable     
     
     auto qscale = thePixelTemp_[index].head.qscale;
 
 
      /*
     lorywidth = thePixelTemp_[index].head.lorywidth;
     if(locBz > 0.f) {lorywidth = -lorywidth;}
     lorxwidth = thePixelTemp_[index].head.lorxwidth;
     */
 
     
     auto Ny = thePixelTemp_[index].head.NTy;
     auto Nyx = thePixelTemp_[index].head.NTyx;
     auto Nxx = thePixelTemp_[index].head.NTxx;
     
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(Ny < 2 || Nyx < 1 || Nxx < 2) {
       throw cms::Exception("DataCorrupt") << "template ID = " << id_current_ << "has too few entries: Ny/Nyx/Nxx = " << Ny << "/" << Nyx << "/" << Nxx << std::endl;
     }
 #else
     assert(Ny > 1 && Nyx > 0 && Nxx > 1);
 #endif
     
     // next, loop over all y-angle entries   
     
     auto ilow = 0;
     auto ihigh = 0;
     auto yratio = 0.f;
       
     {
       auto j = std::lower_bound(templ.cotbetaY,templ.cotbetaY+Ny,cotb);
       if (j==templ.cotbetaY+Ny) { --j;  yratio = 1.f; }
       else if (j==templ.cotbetaY) { ++j; yratio = 0.f;}
       else { yratio = (cotb - (*(j-1)) )/( (*j) - (*(j-1)) ) ; }
       
       ihigh = j-templ.cotbetaY;
       ilow = ihigh-1;
     }
 
 
 
     // Interpolate/store all y-related quantities (flip displacements when flip_y)
     
     dy1 = (1.f - yratio)*thePixelTemp_[index].enty[ilow].dyone + yratio*thePixelTemp_[index].enty[ihigh].dyone;
     if(flip_y) {dy1 = -dy1;}
     sy1 = (1.f - yratio)*thePixelTemp_[index].enty[ilow].syone + yratio*thePixelTemp_[index].enty[ihigh].syone;
     dy2 = (1.f - yratio)*thePixelTemp_[index].enty[ilow].dytwo + yratio*thePixelTemp_[index].enty[ihigh].dytwo;
     if(flip_y) {dy2 = -dy2;}
     sy2 = (1.f - yratio)*thePixelTemp_[index].enty[ilow].sytwo + yratio*thePixelTemp_[index].enty[ihigh].sytwo;
  
     auto qavg = (1.f - yratio)*thePixelTemp_[index].enty[ilow].qavg + yratio*thePixelTemp_[index].enty[ihigh].qavg;
     qavg *= qcorrect;
     auto qmin = (1.f - yratio)*thePixelTemp_[index].enty[ilow].qmin + yratio*thePixelTemp_[index].enty[ihigh].qmin;
     qmin *= qcorrect;
     auto qmin2 = (1.f - yratio)*thePixelTemp_[index].enty[ilow].qmin2 + yratio*thePixelTemp_[index].enty[ihigh].qmin2;
     qmin2 *= qcorrect;
 
 
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(qavg <= 0.f || qmin <= 0.f) {
       throw cms::Exception("DataCorrupt") << "SiPixelTemplate::qbin, qavg or qmin <= 0," 
                       << " Probably someone called the generic pixel reconstruction with an illegal trajectory state" << std::endl;
     }
 #else
     assert(qavg > 0.f && qmin > 0.f);
 #endif
     
     //  Scale the input charge to account for differences between pixelav and CMSSW simulation or data  
     
     auto qtotal = qscale*qclus;
     
     // uncertainty and final corrections depend upon total charge bin      
     
     auto fq = qtotal/qavg;
     int  binq;
     if(fq > 1.5f) {
       binq=0;
     } else {
       if(fq > 1.0f) {
     binq=1;
       } else {
     if(fq > 0.85f) {
       binq=2;
     } else {
       binq=3;
     }
       }
     }
 
     auto yavggen =(1.f - yratio)*thePixelTemp_[index].enty[ilow].yavggen[binq] + yratio*thePixelTemp_[index].enty[ihigh].yavggen[binq];
     if(flip_y) {yavggen = -yavggen;}
     auto yrmsgen =(1.f - yratio)*thePixelTemp_[index].enty[ilow].yrmsgen[binq] + yratio*thePixelTemp_[index].enty[ihigh].yrmsgen[binq];
     
     
 // next, loop over all x-angle entries, first, find relevant y-slices   
     
     auto iylow = 0;
     auto iyhigh = 0;
     auto yxratio = 0.f;
        
 
     {
       auto j = std::lower_bound(templ.cotbetaX,templ.cotbetaX+Nyx,acotb);
       if (j==templ.cotbetaX+Nyx) { --j;  yxratio = 1.f; }
       else if (j==templ.cotbetaX) { ++j; yxratio = 0.f;}
       else { yxratio = (acotb - (*(j-1)) )/( (*j) - (*(j-1)) ) ; }
       
       iyhigh = j-templ.cotbetaX;
       iylow = iyhigh -1;
     }
 
 
 
     ilow = ihigh = 0;
     auto xxratio = 0.f;  
 
     {
       auto j = std::lower_bound(templ.cotalphaX,templ.cotalphaX+Nxx,cotalpha);
       if (j==templ.cotalphaX+Nxx) { --j;  xxratio = 1.f; }
       else if (j==templ.cotalphaX) { ++j; xxratio = 0.f;}
       else { xxratio = (cotalpha - (*(j-1)) )/( (*j) - (*(j-1)) ) ; }
 
       ihigh = j-templ.cotalphaX;
       ilow = ihigh-1; 
     }
     
 
 
     dx1 = (1.f - xxratio)*thePixelTemp_[index].entx[0][ilow].dxone + xxratio*thePixelTemp_[index].entx[0][ihigh].dxone;
     sx1 = (1.f - xxratio)*thePixelTemp_[index].entx[0][ilow].sxone + xxratio*thePixelTemp_[index].entx[0][ihigh].sxone;
     dx2 = (1.f - xxratio)*thePixelTemp_[index].entx[0][ilow].dxtwo + xxratio*thePixelTemp_[index].entx[0][ihigh].dxtwo;
     sx2 = (1.f - xxratio)*thePixelTemp_[index].entx[0][ilow].sxtwo + xxratio*thePixelTemp_[index].entx[0][ihigh].sxtwo;
     
     // pixmax is the maximum allowed pixel charge (used for truncation)
     
     pixmx=(1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index].entx[iylow][ilow].pixmax + xxratio*thePixelTemp_[index].entx[iylow][ihigh].pixmax)
       +yxratio*((1.f - xxratio)*thePixelTemp_[index].entx[iyhigh][ilow].pixmax + xxratio*thePixelTemp_[index].entx[iyhigh][ihigh].pixmax);
     
     auto xavggen = (1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index].entx[iylow][ilow].xavggen[binq] + xxratio*thePixelTemp_[index].entx[iylow][ihigh].xavggen[binq])
       +yxratio*((1.f - xxratio)*thePixelTemp_[index].entx[iyhigh][ilow].xavggen[binq] + xxratio*thePixelTemp_[index].entx[iyhigh][ihigh].xavggen[binq]);
     
     auto xrmsgen = (1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index].entx[iylow][ilow].xrmsgen[binq] + xxratio*thePixelTemp_[index].entx[iylow][ihigh].xrmsgen[binq])
       +yxratio*((1.f - xxratio)*thePixelTemp_[index].entx[iyhigh][ilow].xrmsgen[binq] + xxratio*thePixelTemp_[index].entx[iyhigh][ihigh].xrmsgen[binq]);          
     
         
     
     //  Take the errors and bias from the correct charge bin
     
     sigmay = yrmsgen; deltay = yavggen;
     
     sigmax = xrmsgen; deltax = xavggen;
     
     // If the charge is too small (then flag it)
     
     if(qtotal < 0.95f*qmin) {binq = 5;} else {if(qtotal < 0.95f*qmin2) {binq = 4;}}
     
     return binq;
     
 } // qbin

int SiPixelTemplate::qbin	(	int	id,
		float	cotalpha,
		float	cotbeta,
		float	qclus
	)

Interpolate beta/alpha angles to produce an expected average charge. Return int (0-4) describing the charge of the cluster [0: 1.5<Q/Qavg, 1: 1<Q/Qavg<1.5, 2: 0.85<Q/Qavg<1, 3: 0.95Qmin<Q<0.85Qavg, 4: Q<0.95Qmin].

Parameters

id	- (input) index of the template to use
cotalpha	- (input) the cotangent of the alpha track angle (see CMS IN 2004/014)
cotbeta	- (input) the cotangent of the beta track angle (see CMS IN 2004/014)
locBz	- (input) the sign of this quantity is used to determine whether to flip cot(beta)<0 quantities from cot(beta)>0 (FPix only) for FPix IP-related tracks, locBz < 0 for cot(beta) > 0 and locBz > 0 for cot(beta) < 0
qclus	- (input) the cluster charge in electrons
pixmax	- (output) the maximum pixel charge in electrons (truncation value)
sigmay	- (output) the estimated y-error for CPEGeneric in microns
deltay	- (output) the estimated y-bias for CPEGeneric in microns
sigmax	- (output) the estimated x-error for CPEGeneric in microns
deltax	- (output) the estimated x-bias for CPEGeneric in microns
sy1	- (output) the estimated y-error for 1 single-pixel clusters in microns
dy1	- (output) the estimated y-bias for 1 single-pixel clusters in microns
sy2	- (output) the estimated y-error for 1 double-pixel clusters in microns
dy2	- (output) the estimated y-bias for 1 double-pixel clusters in microns
sx1	- (output) the estimated x-error for 1 single-pixel clusters in microns
dx1	- (output) the estimated x-bias for 1 single-pixel clusters in microns
sx2	- (output) the estimated x-error for 1 double-pixel clusters in microns
dx2	- (output) the estimated x-bias for 1 double-pixel clusters in microns Interpolate beta/alpha angles to produce an expected average charge. Return int (0-4) describing the charge of the cluster [0: 1.5<Q/Qavg, 1: 1<Q/Qavg<1.5, 2: 0.85<Q/Qavg<1, 3: 0.95Qmin<Q<0.85Qavg, 4: Q<0.95Qmin].
id	- (input) index of the template to use
cotalpha	- (input) the cotangent of the alpha track angle (see CMS IN 2004/014)
cotbeta	- (input) the cotangent of the beta track angle (see CMS IN 2004/014)
qclus	- (input) the cluster charge in electrons

Definition at line 2440 of file SiPixelTemplate.cc.

References f, and qbin().

 {
     // Interpolate for a new set of track angles 
     
     // Local variables 
     float pixmx, sigmay, deltay, sigmax, deltax, sy1, dy1, sy2, dy2, sx1, dx1, sx2, dx2, locBz; //  lorywidth, lorxwidth;
     locBz = -1.f;
     if(cotbeta < 0.f) {locBz = -locBz;}
     return SiPixelTemplate::qbin(id, cotalpha, cotbeta, locBz, qclus, pixmx, sigmay, deltay, sigmax, deltax, 
                                           sy1, dy1, sy2, dy2, sx1, dx1, sx2, dx2); // , lorywidth, lorxwidth);
     
 } // qbin

int SiPixelTemplate::qbin	(	int	id,
		float	cotbeta,
		float	qclus
	)

Interpolate beta/alpha angles to produce an expected average charge. Return int (0-4) describing the charge of the cluster [0: 1.5<Q/Qavg, 1: 1<Q/Qavg<1.5, 2: 0.85<Q/Qavg<1, 3: 0.95Qmin<Q<0.85Qavg, 4: Q<0.95Qmin].

Parameters

id	- (input) index of the template to use
cotbeta	- (input) the cotangent of the beta track angle (see CMS IN 2004/014)
qclus	- (input) the cluster charge in electrons

Definition at line 2460 of file SiPixelTemplate.cc.

References f, and qbin().

 {
 // Interpolate for a new set of track angles 
                 
 // Local variables 
     float pixmx, sigmay, deltay, sigmax, deltax, sy1, dy1, sy2, dy2, sx1, dx1, sx2, dx2, locBz; //, lorywidth, lorxwidth;
     const float cotalpha = 0.f;
     locBz = -1.f;
     if(cotbeta < 0.f) {locBz = -locBz;}
     return SiPixelTemplate::qbin(id, cotalpha, cotbeta, locBz, qclus, pixmx, sigmay, deltay, sigmax, deltax, 
                                 sy1, dy1, sy2, dy2, sx1, dx1, sx2, dx2); // , lorywidth, lorxwidth);
                 
 } // qbin

void SiPixelTemplate::qbin_dist	(	int	id,
		float	cotalpha,
		float	cotbeta,
		float	qbin_frac[4],
		float &	ny1_frac,
		float &	ny2_frac,
		float &	nx1_frac,
		float &	nx2_frac
	)

Interpolate beta/alpha angles to produce estimated errors for fastsim

Parameters

id	- (input) index of the template to use
cotalpha	- (input) the cotangent of the alpha track angle (see CMS IN 2004/014)
cotbeta	- (input) the cotangent of the beta track angle (see CMS IN 2004/014)
qbin_frac[4]	- (output) the integrated probability for qbin=0, 0+1, 0+1+2, 0+1+2+3 (1.)
ny1_frac	- (output) the probability for ysize = 1 for a single-size pixel
ny2_frac	- (output) the probability for ysize = 1 for a double-size pixel
nx1_frac	- (output) the probability for xsize = 1 for a single-size pixel
nx2_frac	- (output) the probability for xsize = 1 for a double-size pixel

Definition at line 2688 of file SiPixelTemplate.cc.

References edm::hlt::Exception, f, i, and cmsHarvester::index.

Referenced by SiPixelGaussianSmearingRecHitConverterAlgorithm::smearHit().

 {
     // Interpolate for a new set of track angles 
     
     // Local variables 
     int i;
     int ilow, ihigh, iylow, iyhigh, Ny, Nxx, Nyx, index;
     float yratio, yxratio, xxratio;
     float acotb, cotb;
     float qfrac[4];
     //bool flip_y;
             
         // Find the index corresponding to id
         
         index = -1;
         for(i=0; i<(int)thePixelTemp_.size(); ++i) {
             
             if(id == thePixelTemp_[i].head.ID) {
                 
                 index = i;
 //              id_current_ = id;
                 break;
             }
         }
     
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(index < 0 || index >= (int)thePixelTemp_.size()) {
         throw cms::Exception("DataCorrupt") << "SiPixelTemplate::temperrors can't find needed template ID = " << id << std::endl;
     }
 #else
     assert(index >= 0 && index < (int)thePixelTemp_.size());
 #endif
     
     //      
     
     // Interpolate the absolute value of cot(beta)     
     
     acotb = fabs((double)cotbeta);
     cotb = cotbeta;
     
     
     // for some cosmics, the ususal gymnastics are incorrect   
     
 //  if(thePixelTemp_[index].head.Dtype == 0) {
         cotb = acotb;
         //flip_y = false;
         //if(cotbeta < 0.f) {flip_y = true;}
 //  } else {
 //      if(locBz < 0.f) {
 //          cotb = cotbeta;
 //          flip_y = false;
 //      } else {
 //          cotb = -cotbeta;
 //          flip_y = true;
 //      }   
 //  }
         
         // Copy the charge scaling factor to the private variable     
         
         Ny = thePixelTemp_[index].head.NTy;
         Nyx = thePixelTemp_[index].head.NTyx;
         Nxx = thePixelTemp_[index].head.NTxx;
         
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
         if(Ny < 2 || Nyx < 1 || Nxx < 2) {
             throw cms::Exception("DataCorrupt") << "template ID = " << id_current_ << "has too few entries: Ny/Nyx/Nxx = " << Ny << "/" << Nyx << "/" << Nxx << std::endl;
         }
 #else
         assert(Ny > 1 && Nyx > 0 && Nxx > 1);
 #endif
         
         // next, loop over all y-angle entries   
         
         ilow = 0;
         yratio = 0.f;
         
         if(cotb >= thePixelTemp_[index].enty[Ny-1].cotbeta) {
             
             ilow = Ny-2;
             yratio = 1.f;
             
         } else {
             
             if(cotb >= thePixelTemp_[index].enty[0].cotbeta) {
                 
                 for (i=0; i<Ny-1; ++i) { 
                     
                     if( thePixelTemp_[index].enty[i].cotbeta <= cotb && cotb < thePixelTemp_[index].enty[i+1].cotbeta) {
                         
                         ilow = i;
                         yratio = (cotb - thePixelTemp_[index].enty[i].cotbeta)/(thePixelTemp_[index].enty[i+1].cotbeta - thePixelTemp_[index].enty[i].cotbeta);
                         break;           
                     }
                 }
             } 
         }
         
         ihigh=ilow + 1;
         
         // Interpolate/store all y-related quantities (flip displacements when flip_y)
         ny1_frac = (1.f - yratio)*thePixelTemp_[index].enty[ilow].fracyone + yratio*thePixelTemp_[index].enty[ihigh].fracyone;
         ny2_frac = (1.f - yratio)*thePixelTemp_[index].enty[ilow].fracytwo + yratio*thePixelTemp_[index].enty[ihigh].fracytwo;
         
         // next, loop over all x-angle entries, first, find relevant y-slices   
         
         iylow = 0;
         yxratio = 0.f;
         
         if(acotb >= thePixelTemp_[index].entx[Nyx-1][0].cotbeta) {
             
             iylow = Nyx-2;
             yxratio = 1.f;
             
         } else if(acotb >= thePixelTemp_[index].entx[0][0].cotbeta) {
             
             for (i=0; i<Nyx-1; ++i) { 
                 
                 if( thePixelTemp_[index].entx[i][0].cotbeta <= acotb && acotb < thePixelTemp_[index].entx[i+1][0].cotbeta) {
                     
                     iylow = i;
                     yxratio = (acotb - thePixelTemp_[index].entx[i][0].cotbeta)/(thePixelTemp_[index].entx[i+1][0].cotbeta - thePixelTemp_[index].entx[i][0].cotbeta);
                     break;           
                 }
             }
         }
         
         iyhigh=iylow + 1;
         
         ilow = 0;
         xxratio = 0.f;
         
         if(cotalpha >= thePixelTemp_[index].entx[0][Nxx-1].cotalpha) {
             
             ilow = Nxx-2;
             xxratio = 1.f;
             
         } else {
             
             if(cotalpha >= thePixelTemp_[index].entx[0][0].cotalpha) {
                 
                 for (i=0; i<Nxx-1; ++i) { 
                     
                     if( thePixelTemp_[index].entx[0][i].cotalpha <= cotalpha && cotalpha < thePixelTemp_[index].entx[0][i+1].cotalpha) {
                         
                         ilow = i;
                         xxratio = (cotalpha - thePixelTemp_[index].entx[0][i].cotalpha)/(thePixelTemp_[index].entx[0][i+1].cotalpha - thePixelTemp_[index].entx[0][i].cotalpha);
                         break;
                     }
                 }
             } 
         }
         
         ihigh=ilow + 1;
         
         for(i=0; i<3; ++i) {
            qfrac[i]=(1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index].entx[iylow][ilow].qbfrac[i] + xxratio*thePixelTemp_[index].entx[iylow][ihigh].qbfrac[i])
            +yxratio*((1.f - xxratio)*thePixelTemp_[index].entx[iyhigh][ilow].qbfrac[i] + xxratio*thePixelTemp_[index].entx[iyhigh][ihigh].qbfrac[i]);         
         }
         nx1_frac = (1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index].entx[iylow][ilow].fracxone + xxratio*thePixelTemp_[index].entx[iylow][ihigh].fracxone)
            +yxratio*((1.f - xxratio)*thePixelTemp_[index].entx[iyhigh][ilow].fracxone + xxratio*thePixelTemp_[index].entx[iyhigh][ihigh].fracxone);       
         nx2_frac = (1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index].entx[iylow][ilow].fracxtwo + xxratio*thePixelTemp_[index].entx[iylow][ihigh].fracxtwo)
            +yxratio*((1.f - xxratio)*thePixelTemp_[index].entx[iyhigh][ilow].fracxtwo + xxratio*thePixelTemp_[index].entx[iyhigh][ihigh].fracxtwo);       
         
     
 
     qbin_frac[0] = qfrac[0];
     qbin_frac[1] = qbin_frac[0] + qfrac[1];
     qbin_frac[2] = qbin_frac[1] + qfrac[2];
     qbin_frac[3] = 1.f;
     return;
     
 } // qbin

float SiPixelTemplate::qmin ( )

inline

minimum cluster charge for valid hit (keeps 99.9% of simulated hits)

Definition at line 324 of file SiPixelTemplate.h.

References qmin_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::qmin ( int i )

inline

minimum cluster charge for valid hit (keeps 99.9% or 99.8% of simulated hits)

Definition at line 325 of file SiPixelTemplate.h.

References edm::hlt::Exception, qmin2_, and qmin_.

float SiPixelTemplate::qscale ( )

inline

charge scaling factor

Definition at line 312 of file SiPixelTemplate.h.

References qscale_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::s50 ( )

inline

1/2 of the pixel threshold signal in electrons

Definition at line 313 of file SiPixelTemplate.h.

References s50_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), SiPixelTemplateSplit::PixelTempSplit(), SiPixelGaussianSmearingRecHitConverterAlgorithm::smearHit(), and TrackClusterSplitter::splitCluster().

float SiPixelTemplate::sigmavav ( )

inline

"sigma" scale fctor for Vavilov distribution

Definition at line 486 of file SiPixelTemplate.h.

References sigmavav_.

float SiPixelTemplate::sigmavav2 ( )

inline

"sigma" scale fctor for 2-cluster Vavilov distribution

Definition at line 489 of file SiPixelTemplate.h.

References sigmavav2_.

bool SiPixelTemplate::simpletemplate2D	(	float	xhit,
		float	yhit,
		std::vector< bool > &	ydouble,
		std::vector< bool > &	xdouble,
		float	template2d[13+2][21+2]
	)

Make simple 2-D templates from track angles set in interpolate and hit position.

Parameters

xhit	- (input) x-position of hit relative to the lower left corner of pixel[1][1] (to allow for the "padding" of the two-d clusters in the splitter)
yhit	- (input) y-position of hit relative to the lower left corner of pixel[1][1]
ydouble	- (input) STL vector of 21 element array to flag a double-pixel starting at cluster[1][1]
xdouble	- (input) STL vector of 11 element array to flag a double-pixel starting at cluster[1][1]
template2d	- (output) 2d template of size matched to the cluster. Input must be zeroed since charge is added only.

Definition at line 2872 of file SiPixelTemplate.cc.

References funct::abs(), any(), SimplePixel::btype, BXM3, BYM3, f, i, SimplePixel::i, j, SimplePixel::j, list(), bookConverter::max, SimplePixel::s, mathSSE::sqrt(), SimplePixel::x, and SimplePixel::y.

Referenced by SiPixelTemplateSplit::PixelTempSplit(), and TrackClusterSplitter::splitCluster().

 {
     
     // Local variables
     
     float x0, y0, xf, yf, xi, yi, sf, si, s0, qpix, slopey, slopex, ds;
     int i, j, jpix0, ipix0, jpixf, ipixf, jpix, ipix, nx, ny, anx, any, jmax, imax;
     float qtotal;
     //  double path;
     std::list<SimplePixel> list;
     std::list<SimplePixel>::iterator listIter, listEnd; 
     
     // Calculate the entry and exit points for the line charge from the track
     
     x0 = xhit - 0.5*zsize_*cota_current_;
     y0 = yhit - 0.5*zsize_*cotb_current_;
     
     jpix0 = floor(x0/xsize_)+1;
     ipix0 = floor(y0/ysize_)+1;
     
     if(jpix0 < 0 || jpix0 > BXM3) {return false;}
     if(ipix0 < 0 || ipix0 > BYM3) {return false;}
     
     xf = xhit + 0.5*zsize_*cota_current_ + lorxwidth_;
     yf = yhit + 0.5*zsize_*cotb_current_ + lorywidth_;
     
     jpixf = floor(xf/xsize_)+1;
     ipixf = floor(yf/ysize_)+1;
     
     if(jpixf < 0 || jpixf > BXM3) {return false;}
     if(ipixf < 0 || ipixf > BYM3) {return false;}
     
 // total charge length 
     
     sf = std::sqrt((xf-x0)*(xf-x0) + (yf-y0)*(yf-y0));
     if((xf-x0) != 0.f) {slopey = (yf-y0)/(xf-x0);} else { slopey = 1.e10;}
     if((yf-y0) != 0.f) {slopex = (xf-x0)/(yf-y0);} else { slopex = 1.e10;}
     
 // use average charge in this direction
     
     qtotal = qavg_avg_;
     
     SimplePixel element;
     element.s = sf;
     element.x = xf;
     element.y = yf;
     element.i = ipixf;
     element.j = jpixf;
     element.btype = 0;
     list.push_back(element);
     
     //  nx is the number of x interfaces crossed by the line charge 
     
     nx = jpixf - jpix0;
     anx = abs(nx);
     if(anx > 0) {
         if(nx > 0) {
             for(j=jpix0; j<jpixf; ++j) {
                 xi = xsize_*j;
                 yi = slopey*(xi-x0) + y0;
                 ipix = (int)(yi/ysize_)+1;
                 si = std::sqrt((xi-x0)*(xi-x0) + (yi-y0)*(yi-y0));
                 element.s = si;
                 element.x = xi;
                 element.y = yi;
                 element.i = ipix;
                 element.j = j;
                 element.btype = 1;
                 list.push_back(element);
             }
         } else {
             for(j=jpix0; j>jpixf; --j) {
                 xi = xsize_*(j-1);
                 yi = slopey*(xi-x0) + y0;
                 ipix = (int)(yi/ysize_)+1;
                 si = std::sqrt((xi-x0)*(xi-x0) + (yi-y0)*(yi-y0));
                 element.s = si;
                 element.x = xi;
                 element.y = yi;
                 element.i = ipix;
                 element.j = j;
                 element.btype = 1;
                 list.push_back(element);
             }
         }
     }
     
     ny = ipixf - ipix0;
     any = abs(ny);
     if(any > 0) {
         if(ny > 0) {
             for(i=ipix0; i<ipixf; ++i) {
                 yi = ysize_*i;
                 xi = slopex*(yi-y0) + x0;
                 jpix = (int)(xi/xsize_)+1;
                 si = std::sqrt((xi-x0)*(xi-x0) + (yi-y0)*(yi-y0));
                 element.s = si;
                 element.x = xi;
                 element.y = yi;
                 element.i = i;
                 element.j = jpix;
                 element.btype = 2;
                 list.push_back(element);
             }
         } else {
             for(i=ipix0; i>ipixf; --i) {
                 yi = ysize_*(i-1);
                 xi = slopex*(yi-y0) + x0;
                 jpix = (int)(xi/xsize_)+1;
                 si = std::sqrt((xi-x0)*(xi-x0) + (yi-y0)*(yi-y0));
                 element.s = si;
                 element.x = xi;
                 element.y = yi;
                 element.i = i;
                 element.j = jpix;
                 element.btype = 2;
                 list.push_back(element);
             }
         }
     }
     
     imax = std::max(ipix0, ipixf);
     jmax = std::max(jpix0, jpixf);
     
     // Sort the list according to the distance from the initial point
     
     list.sort();
     
     // Look for double pixels and adjust the list appropriately
     
     for(i=1; i<imax; ++i) {
         if(ydouble[i-1]) {
             listIter = list.begin();
             if(ny > 0) {
                 while(listIter != list.end()) {
                     if(listIter->i == i && listIter->btype == 2) {
                         listIter = list.erase(listIter);
                         continue;
                     }
                     if(listIter->i > i) {
                         --(listIter->i);
                     }
                     ++listIter;
                 }
             } else {
                 while(listIter != list.end()) {
                     if(listIter->i == i+1 && listIter->btype == 2) {
                         listIter = list.erase(listIter);
                         continue;
                     }
                     if(listIter->i > i+1) {
                         --(listIter->i);
                     }
                     ++listIter;
                 }               
             }
         }
     }
     
     for(j=1; j<jmax; ++j) {
         if(xdouble[j-1]) {
             listIter = list.begin();
             if(nx > 0) {
                 while(listIter != list.end()) {
                     if(listIter->j == j && listIter->btype == 1) {
                         listIter = list.erase(listIter);
                         continue;
                     }
                     if(listIter->j > j) {
                         --(listIter->j);
                     }
                     ++listIter;
                 }
             } else {
                 while(listIter != list.end()) {
                     if(listIter->j == j+1 && listIter->btype == 1) {
                         listIter = list.erase(listIter);
                         continue;
                     }
                     if(listIter->j > j+1) {
                         --(listIter->j);
                     }
                     ++listIter;
                 }               
             }
         }
     }
     
     // The list now contains the path lengths of the line charge in each pixel from (x0,y0).  Cacluate the lengths of the segments and the charge. 
     
     s0 = 0.f;
     listIter = list.begin();
     listEnd = list.end();
     for( ;listIter != listEnd; ++listIter) {
         si = listIter->s;
         ds = si - s0;
         s0 = si;
         j = listIter->j;
         i = listIter->i;
         if(sf > 0.f) { qpix = qtotal*ds/sf;} else {qpix = qtotal;}
         template2d[j][i] += qpix;
     }
     
     return true;
     
 }  // simpletemplate2D

float SiPixelTemplate::sxmax ( )

inline

average pixel signal for x-projection of cluster

Definition at line 319 of file SiPixelTemplate.h.

References sxmax_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::sxone ( )

inline

rms for one pixel x-clusters

Definition at line 321 of file SiPixelTemplate.h.

References sxone_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::sxtwo ( )

inline

rms for one double-pixel x-clusters

Definition at line 323 of file SiPixelTemplate.h.

References sxtwo_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::symax ( )

inline

average pixel signal for y-projection of cluster

Definition at line 314 of file SiPixelTemplate.h.

References symax_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::syone ( )

inline

rms for one pixel y-clusters

Definition at line 316 of file SiPixelTemplate.h.

References syone_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::sytwo ( )

inline

rms for one double-pixel y-clusters

Definition at line 318 of file SiPixelTemplate.h.

References sytwo_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

void SiPixelTemplate::temperrors	(	int	id,
		float	cotalpha,
		float	cotbeta,
		int	qBin,
		float &	sigmay,
		float &	sigmax,
		float &	sy1,
		float &	sy2,
		float &	sx1,
		float &	sx2
	)

Interpolate beta/alpha angles to produce estimated errors for fastsim

Parameters

id	- (input) index of the template to use
cotalpha	- (input) the cotangent of the alpha track angle (see CMS IN 2004/014)
cotbeta	- (input) the cotangent of the beta track angle (see CMS IN 2004/014)
qBin	- (input) charge bin from 0-3
sigmay	- (output) the estimated y-error for CPETemplate in microns
sigmax	- (output) the estimated x-error for CPETemplate in microns
sy1	- (output) the estimated y-error for 1 single-pixel clusters in microns
sy2	- (output) the estimated y-error for 1 double-pixel clusters in microns
sx1	- (output) the estimated x-error for 1 single-pixel clusters in microns
sx2	- (output) the estimated x-error for 1 double-pixel clusters in microns

Definition at line 2489 of file SiPixelTemplate.cc.

References edm::hlt::Exception, f, i, and cmsHarvester::index.

Referenced by SiPixelGaussianSmearingRecHitConverterAlgorithm::smearHit().

 {
     // Interpolate for a new set of track angles 
     
     // Local variables 
     int i;
     int ilow, ihigh, iylow, iyhigh, Ny, Nxx, Nyx, index;
     float yratio, yxratio, xxratio;
     float acotb, cotb;
     float yrms, xrms;
     //bool flip_y;
     
         
         // Find the index corresponding to id
         
         index = -1;
         for(i=0; i<(int)thePixelTemp_.size(); ++i) {
             
             if(id == thePixelTemp_[i].head.ID) {
                 
                 index = i;
                 break;
             }
         }
     
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(index < 0 || index >= (int)thePixelTemp_.size()) {
         throw cms::Exception("DataCorrupt") << "SiPixelTemplate::temperrors can't find needed template ID = " << id << std::endl;
     }
 #else
     assert(index >= 0 && index < (int)thePixelTemp_.size());
 #endif
     
     
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(qBin < 0 || qBin > 5) {
         throw cms::Exception("DataCorrupt") << "SiPixelTemplate::temperrors called with illegal qBin = " << qBin << std::endl;
     }
 #else
     assert(qBin >= 0 && qBin < 6);
 #endif
     
 // The error information for qBin > 3 is taken to be the same as qBin=3 
     
     if(qBin > 3) {qBin = 3;}
     //      
     
     // Interpolate the absolute value of cot(beta)     
     
     acotb = fabs((double)cotbeta);
     cotb = cotbeta;
     
     // for some cosmics, the ususal gymnastics are incorrect   
     
 //  if(thePixelTemp_[index].head.Dtype == 0) {
         cotb = acotb;
         //flip_y = false;
         //if(cotbeta < 0.f) {flip_y = true;}
 //  } else {
 //      if(locBz < 0.f) {
 //          cotb = cotbeta;
 //          flip_y = false;
 //      } else {
 //          cotb = -cotbeta;
 //          flip_y = true;
 //      }   
 //  }
                 
         // Copy the charge scaling factor to the private variable     
         
         Ny = thePixelTemp_[index].head.NTy;
         Nyx = thePixelTemp_[index].head.NTyx;
         Nxx = thePixelTemp_[index].head.NTxx;
         
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
         if(Ny < 2 || Nyx < 1 || Nxx < 2) {
             throw cms::Exception("DataCorrupt") << "template ID = " << id_current_ << "has too few entries: Ny/Nyx/Nxx = " << Ny << "/" << Nyx << "/" << Nxx << std::endl;
         }
 #else
         assert(Ny > 1 && Nyx > 0 && Nxx > 1);
 #endif
         
         // next, loop over all y-angle entries   
         
         ilow = 0;
         yratio = 0.f;
         
         if(cotb >= thePixelTemp_[index].enty[Ny-1].cotbeta) {
             
             ilow = Ny-2;
             yratio = 1.f;
             
         } else {
             
             if(cotb >= thePixelTemp_[index].enty[0].cotbeta) {
                 
                 for (i=0; i<Ny-1; ++i) { 
                     
                     if( thePixelTemp_[index].enty[i].cotbeta <= cotb && cotb < thePixelTemp_[index].enty[i+1].cotbeta) {
                         
                         ilow = i;
                         yratio = (cotb - thePixelTemp_[index].enty[i].cotbeta)/(thePixelTemp_[index].enty[i+1].cotbeta - thePixelTemp_[index].enty[i].cotbeta);
                         break;           
                     }
                 }
             } 
         }
         
         ihigh=ilow + 1;
         
         // Interpolate/store all y-related quantities (flip displacements when flip_y)
         
         sy1 = (1.f - yratio)*thePixelTemp_[index].enty[ilow].syone + yratio*thePixelTemp_[index].enty[ihigh].syone;
         sy2 = (1.f - yratio)*thePixelTemp_[index].enty[ilow].sytwo + yratio*thePixelTemp_[index].enty[ihigh].sytwo;
         yrms=(1.f - yratio)*thePixelTemp_[index].enty[ilow].yrms[qBin] + yratio*thePixelTemp_[index].enty[ihigh].yrms[qBin];
         
         
         // next, loop over all x-angle entries, first, find relevant y-slices   
         
         iylow = 0;
         yxratio = 0.f;
         
         if(acotb >= thePixelTemp_[index].entx[Nyx-1][0].cotbeta) {
             
             iylow = Nyx-2;
             yxratio = 1.f;
             
         } else if(acotb >= thePixelTemp_[index].entx[0][0].cotbeta) {
             
             for (i=0; i<Nyx-1; ++i) { 
                 
                 if( thePixelTemp_[index].entx[i][0].cotbeta <= acotb && acotb < thePixelTemp_[index].entx[i+1][0].cotbeta) {
                     
                     iylow = i;
                     yxratio = (acotb - thePixelTemp_[index].entx[i][0].cotbeta)/(thePixelTemp_[index].entx[i+1][0].cotbeta - thePixelTemp_[index].entx[i][0].cotbeta);
                     break;           
                 }
             }
         }
         
         iyhigh=iylow + 1;
         
         ilow = 0;
         xxratio = 0.f;
         
         if(cotalpha >= thePixelTemp_[index].entx[0][Nxx-1].cotalpha) {
             
             ilow = Nxx-2;
             xxratio = 1.f;
             
         } else {
             
             if(cotalpha >= thePixelTemp_[index].entx[0][0].cotalpha) {
                 
                 for (i=0; i<Nxx-1; ++i) { 
                     
                     if( thePixelTemp_[index].entx[0][i].cotalpha <= cotalpha && cotalpha < thePixelTemp_[index].entx[0][i+1].cotalpha) {
                         
                         ilow = i;
                         xxratio = (cotalpha - thePixelTemp_[index].entx[0][i].cotalpha)/(thePixelTemp_[index].entx[0][i+1].cotalpha - thePixelTemp_[index].entx[0][i].cotalpha);
                         break;
                     }
                 }
             } 
         }
         
         ihigh=ilow + 1;
         
         sx1 = (1.f - xxratio)*thePixelTemp_[index].entx[0][ilow].sxone + xxratio*thePixelTemp_[index].entx[0][ihigh].sxone;
         sx2 = (1.f - xxratio)*thePixelTemp_[index].entx[0][ilow].sxtwo + xxratio*thePixelTemp_[index].entx[0][ihigh].sxtwo;
         
         xrms=(1.f - yxratio)*((1.f - xxratio)*thePixelTemp_[index].entx[iylow][ilow].xrms[qBin] + xxratio*thePixelTemp_[index].entx[iylow][ihigh].xrms[qBin])
             +yxratio*((1.f - xxratio)*thePixelTemp_[index].entx[iyhigh][ilow].xrms[qBin] + xxratio*thePixelTemp_[index].entx[iyhigh][ihigh].xrms[qBin]);          
         
     
     
     
     //  Take the errors and bias from the correct charge bin
     
     sigmay = yrms;
     
     sigmax = xrms;
         
     return;
     
 } // temperrors

void SiPixelTemplate::vavilov2_pars	(	double &	mpv,
		double &	sigma,
		double &	kappa
	)

Interpolate beta/alpha angles to produce Vavilov parameters for the 2-cluster charge distribution

Parameters

mpv	- (output) the Vavilov most probable charge (well, not really the most probable esp at large kappa)
sigma	- (output) the Vavilov sigma parameter
kappa	- (output) the Vavilov kappa parameter [0.01 (Landau-like) < kappa < 10 (Gaussian-like)

Definition at line 3164 of file SiPixelTemplate.cc.

References edm::hlt::Exception, f, i, and mathSSE::sqrt().

Referenced by SiPixelTemplateSplit::PixelTempSplit().

 {
     // Local variables 
     int i;
     int ilow, ihigh, Ny;
     float yratio, cotb, cotalpha0, arg;
     
     // Interpolate in cotbeta only for the correct total path length (converts cotalpha, cotbeta into an effective cotbeta) 
     
     cotalpha0 =  thePixelTemp_[index_id_].enty[0].cotalpha;
     arg = cotb_current_*cotb_current_ + cota_current_*cota_current_ - cotalpha0*cotalpha0;
     if(arg < 0.f) arg = 0.f;
     cotb = std::sqrt(arg);
     
     // Copy the charge scaling factor to the private variable     
     
     Ny = thePixelTemp_[index_id_].head.NTy;
     
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(Ny < 2) {
         throw cms::Exception("DataCorrupt") << "template ID = " << id_current_ << "has too few entries: Ny = " << Ny << std::endl;
     }
 #else
     assert(Ny > 1);
 #endif
     
     // next, loop over all y-angle entries   
     
     ilow = 0;
     yratio = 0.f;
     
     if(cotb >= thePixelTemp_[index_id_].enty[Ny-1].cotbeta) {
         
         ilow = Ny-2;
         yratio = 1.f;
         
     } else {
         
         if(cotb >= thePixelTemp_[index_id_].enty[0].cotbeta) {
             
             for (i=0; i<Ny-1; ++i) { 
                 
                 if( thePixelTemp_[index_id_].enty[i].cotbeta <= cotb && cotb < thePixelTemp_[index_id_].enty[i+1].cotbeta) {
                     
                     ilow = i;
                     yratio = (cotb - thePixelTemp_[index_id_].enty[i].cotbeta)/(thePixelTemp_[index_id_].enty[i+1].cotbeta - thePixelTemp_[index_id_].enty[i].cotbeta);
                     break;           
                 }
             }
         } 
     }
     
     ihigh=ilow + 1;
     
     // Interpolate Vavilov parameters
     
     mpvvav2_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].mpvvav2 + yratio*thePixelTemp_[index_id_].enty[ihigh].mpvvav2;
     sigmavav2_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].sigmavav2 + yratio*thePixelTemp_[index_id_].enty[ihigh].sigmavav2;
     kappavav2_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].kappavav2 + yratio*thePixelTemp_[index_id_].enty[ihigh].kappavav2;
     
     // Copy to parameter list
         
     mpv = (double)mpvvav2_;
     sigma = (double)sigmavav2_;
     kappa = (double)kappavav2_;
     
     return;
     
 } // vavilov2_pars

void SiPixelTemplate::vavilov_pars	(	double &	mpv,
		double &	sigma,
		double &	kappa
	)

Interpolate beta/alpha angles to produce Vavilov parameters for the charge distribution

Parameters

mpv	- (output) the Vavilov most probable charge (well, not really the most probable esp at large kappa)
sigma	- (output) the Vavilov sigma parameter
kappa	- (output) the Vavilov kappa parameter [0.01 (Landau-like) < kappa < 10 (Gaussian-like)

Definition at line 3086 of file SiPixelTemplate.cc.

References edm::hlt::Exception, f, i, and mathSSE::sqrt().

Referenced by SiPixelTemplateReco::PixelTempReco2D().

 {
     // Local variables 
     int i;
     int ilow, ihigh, Ny;
     float yratio, cotb, cotalpha0, arg;
     
 // Interpolate in cotbeta only for the correct total path length (converts cotalpha, cotbeta into an effective cotbeta) 
     
     cotalpha0 =  thePixelTemp_[index_id_].enty[0].cotalpha;
     arg = cotb_current_*cotb_current_ + cota_current_*cota_current_ - cotalpha0*cotalpha0;
     if(arg < 0.f) arg = 0.f;
     cotb = std::sqrt(arg);
         
 // Copy the charge scaling factor to the private variable     
     
     Ny = thePixelTemp_[index_id_].head.NTy;
     
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(Ny < 2) {
         throw cms::Exception("DataCorrupt") << "template ID = " << id_current_ << "has too few entries: Ny = " << Ny << std::endl;
     }
 #else
     assert(Ny > 1);
 #endif
     
 // next, loop over all y-angle entries   
     
     ilow = 0;
     yratio = 0.f;
     
     if(cotb >= thePixelTemp_[index_id_].enty[Ny-1].cotbeta) {
         
         ilow = Ny-2;
         yratio = 1.f;
         
     } else {
         
         if(cotb >= thePixelTemp_[index_id_].enty[0].cotbeta) {
             
             for (i=0; i<Ny-1; ++i) { 
                 
                 if( thePixelTemp_[index_id_].enty[i].cotbeta <= cotb && cotb < thePixelTemp_[index_id_].enty[i+1].cotbeta) {
                     
                     ilow = i;
                     yratio = (cotb - thePixelTemp_[index_id_].enty[i].cotbeta)/(thePixelTemp_[index_id_].enty[i+1].cotbeta - thePixelTemp_[index_id_].enty[i].cotbeta);
                     break;           
                 }
             }
         } 
     }
     
     ihigh=ilow + 1;
     
 // Interpolate Vavilov parameters
     
     mpvvav_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].mpvvav + yratio*thePixelTemp_[index_id_].enty[ihigh].mpvvav;
     sigmavav_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].sigmavav + yratio*thePixelTemp_[index_id_].enty[ihigh].sigmavav;
     kappavav_ = (1.f - yratio)*thePixelTemp_[index_id_].enty[ilow].kappavav + yratio*thePixelTemp_[index_id_].enty[ihigh].kappavav;
     
 // Copy to parameter list
     
     
     mpv = (double)mpvvav_;
     sigma = (double)sigmavav_;
     kappa = (double)kappavav_;
     
     return;
     
 } // vavilov_pars

float SiPixelTemplate::xavg ( int i )

inline

average x-bias of reconstruction binned in 4 charge bins

Definition at line 365 of file SiPixelTemplate.h.

References edm::hlt::Exception, i, and xavg_.

Referenced by SiPixelTemplateReco::PixelTempReco2D().

float SiPixelTemplate::xavgc2m ( int i )

inline

1st pass chi2 min search: average x-bias of reconstruction binned in 4 charge bins

Definition at line 449 of file SiPixelTemplate.h.

References edm::hlt::Exception, i, and xavgc2m_.

Referenced by SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::xflcorr	(	int	binq,
		float	qflx
	)

Return interpolated x-correction for input charge bin and qflx

Parameters

binq	- (input) charge bin [0-3]
qflx	- (input) (Q_f-Q_l)/(Q_f+Q_l) for this cluster

Definition at line 1652 of file SiPixelTemplate.cc.

References edm::hlt::Exception, and f.

Referenced by SiPixelTemplateReco::PixelTempReco2D().

 {
     // Interpolate using quantities already stored in the private variables
     
     // Local variables 
     float qfl, qfl2, qfl3, qfl4, qfl5, dx;
     
     // Make sure that input is OK
     
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(binq < 0 || binq > 3) {
         throw cms::Exception("DataCorrupt") << "SiPixelTemplate::xflcorr called with binq = " << binq << std::endl;
     }
 #else
     assert(binq >= 0 && binq < 4);
 #endif
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(fabs((double)qflx) > 1.) {
         throw cms::Exception("DataCorrupt") << "SiPixelTemplate::xflcorr called with qflx = " << qflx << std::endl;
     }
 #else
     assert(fabs((double)qflx) <= 1.);
 #endif
              
 // Define the maximum signal to allow before de-weighting a pixel 
 
        qfl = qflx;
 
        if(qfl < -0.9f) {qfl = -0.9f;}
        if(qfl > 0.9f) {qfl = 0.9f;}
        
 // Interpolate between the two polynomials
 
        qfl2 = qfl*qfl; qfl3 = qfl2*qfl; qfl4 = qfl3*qfl; qfl5 = qfl4*qfl;
        dx = (1.f - yxratio_)*((1.f-xxratio_)*(xflparll_[binq][0]+xflparll_[binq][1]*qfl+xflparll_[binq][2]*qfl2+xflparll_[binq][3]*qfl3+xflparll_[binq][4]*qfl4+xflparll_[binq][5]*qfl5)
           + xxratio_*(xflparlh_[binq][0]+xflparlh_[binq][1]*qfl+xflparlh_[binq][2]*qfl2+xflparlh_[binq][3]*qfl3+xflparlh_[binq][4]*qfl4+xflparlh_[binq][5]*qfl5))
           + yxratio_*((1.f-xxratio_)*(xflparhl_[binq][0]+xflparhl_[binq][1]*qfl+xflparhl_[binq][2]*qfl2+xflparhl_[binq][3]*qfl3+xflparhl_[binq][4]*qfl4+xflparhl_[binq][5]*qfl5)
           + xxratio_*(xflparhh_[binq][0]+xflparhh_[binq][1]*qfl+xflparhh_[binq][2]*qfl2+xflparhh_[binq][3]*qfl3+xflparhh_[binq][4]*qfl4+xflparhh_[binq][5]*qfl5));
     
     return dx;
     
 } // End xflcorr

float SiPixelTemplate::xgsig ( int i )

inline

average sigma_x from Gaussian fit binned in 4 charge bins

Definition at line 386 of file SiPixelTemplate.h.

References edm::hlt::Exception, i, and xgsig_.

float SiPixelTemplate::xgx0 ( int i )

inline

average x0 from Gaussian fit binned in 4 charge bins

Definition at line 379 of file SiPixelTemplate.h.

References edm::hlt::Exception, i, and xgx0_.

float SiPixelTemplate::xrms ( int i )

inline

average x-rms of reconstruction binned in 4 charge bins

Definition at line 372 of file SiPixelTemplate.h.

References edm::hlt::Exception, i, and xrms_.

Referenced by SiPixelTemplateReco::PixelTempReco2D().

float SiPixelTemplate::xrmsc2m ( int i )

inline

1st pass chi2 min search: average x-rms of reconstruction binned in 4 charge bins

Definition at line 456 of file SiPixelTemplate.h.

References edm::hlt::Exception, i, and xrmsc2m_.

Referenced by SiPixelTemplateSplit::PixelTempSplit().

void SiPixelTemplate::xsigma2	(	int	fxpix,
		int	lxpix,
		float	sxthr,
		float	xsum[13+4],
		float	xsig2[13+4]
	)

Return vector of x errors (squared) for an input vector of projected signals Add large Q scaling for use in cluster splitting.

Parameters

fxpix	- (input) index of the first real pixel in the projected cluster (doesn't include pseudopixels)
lxpix	- (input) index of the last real pixel in the projected cluster (doesn't include pseudopixels)
sxthr	- (input) maximum signal before de-weighting
xsum	- (input) 11-element vector of pixel signals
xsig2	- (output) 11-element vector of x errors (squared)

Definition at line 1491 of file SiPixelTemplate.cc.

References BHX, BXM2, ENDL, edm::hlt::Exception, f, i, and LOGERROR.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

 {
     // Interpolate using quantities already stored in the private variables
     
     // Local variables 
     int i;
     float sigi, sigi2, sigi3, sigi4, yint, sxmax, x0, qscale;
     
     // Make sure that input is OK
     
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
           if(fxpix < 2 || fxpix >= BXM2) {
              throw cms::Exception("DataCorrupt") << "SiPixelTemplate::xsigma2 called with fxpix = " << fxpix << std::endl;
            }
 #else
            assert(fxpix > 1 && fxpix < BXM2);
 #endif
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
              if(lxpix < fxpix || lxpix >= BXM2) {
                 throw cms::Exception("DataCorrupt") << "SiPixelTemplate::xsigma2 called with lxpix/fxpix = " << lxpix << "/" << fxpix << std::endl;
              }
 #else
              assert(lxpix >= fxpix && lxpix < BXM2);
 #endif
              
 // Define the maximum signal to use in the parameterization 
 
        sxmax = sxmax_;
        if(sxmax_ > sxparmax_) {sxmax = sxparmax_;}
        
 // Evaluate pixel-by-pixel uncertainties (weights) for the templ analysis 
 
        for(i=fxpix-2; i<=lxpix+2; ++i) {
           if(i < fxpix || i > lxpix) {
        
 // Nearest pseudopixels have uncertainties of 50% of threshold, next-nearest have 10% of threshold
 
              xsig2[i] = s50_*s50_;
           } else {
              if(xsum[i] < sxmax) {
                 sigi = xsum[i];
                 qscale = 1.f;
              } else {
                 sigi = sxmax;
                 qscale = xsum[i]/sxmax;
              }
              sigi2 = sigi*sigi; sigi3 = sigi2*sigi; sigi4 = sigi3*sigi;
              
 // First, do the cotbeta interpolation           
              
              if(i <= BHX) {
                 yint = (1.f-yratio_)*
                 (xparly0_[0][0]+xparly0_[0][1]*sigi+xparly0_[0][2]*sigi2+xparly0_[0][3]*sigi3+xparly0_[0][4]*sigi4)
                 + yratio_*
                 (xparhy0_[0][0]+xparhy0_[0][1]*sigi+xparhy0_[0][2]*sigi2+xparhy0_[0][3]*sigi3+xparhy0_[0][4]*sigi4);
              } else {
                 yint = (1.f-yratio_)*
                 (xparly0_[1][0]+xparly0_[1][1]*sigi+xparly0_[1][2]*sigi2+xparly0_[1][3]*sigi3+xparly0_[1][4]*sigi4)
                 + yratio_*
                 (xparhy0_[1][0]+xparhy0_[1][1]*sigi+xparhy0_[1][2]*sigi2+xparhy0_[1][3]*sigi3+xparhy0_[1][4]*sigi4);
              }
              
 // Next, do the cotalpha interpolation           
              
              if(i <= BHX) {
                 xsig2[i] = (1.f-xxratio_)*
                 (xparl_[0][0]+xparl_[0][1]*sigi+xparl_[0][2]*sigi2+xparl_[0][3]*sigi3+xparl_[0][4]*sigi4)
                 + xxratio_*
                 (xparh_[0][0]+xparh_[0][1]*sigi+xparh_[0][2]*sigi2+xparh_[0][3]*sigi3+xparh_[0][4]*sigi4);
              } else {
                 xsig2[i] = (1.f-xxratio_)*
                 (xparl_[1][0]+xparl_[1][1]*sigi+xparl_[1][2]*sigi2+xparl_[1][3]*sigi3+xparl_[1][4]*sigi4)
                 + xxratio_*
                 (xparh_[1][0]+xparh_[1][1]*sigi+xparh_[1][2]*sigi2+xparh_[1][3]*sigi3+xparh_[1][4]*sigi4);
              }
              
 // Finally, get the mid-point value of the cotalpha function             
              
              if(i <= BHX) {
                 x0 = xpar0_[0][0]+xpar0_[0][1]*sigi+xpar0_[0][2]*sigi2+xpar0_[0][3]*sigi3+xpar0_[0][4]*sigi4;
              } else {
                 x0 = xpar0_[1][0]+xpar0_[1][1]*sigi+xpar0_[1][2]*sigi2+xpar0_[1][3]*sigi3+xpar0_[1][4]*sigi4;
              }
              
 // Finally, rescale the yint value for cotalpha variation            
              
              if(x0 != 0.f) {xsig2[i] = xsig2[i]/x0 * yint;}
              xsig2[i] *=qscale;
              if(xsum[i] > sxthr) {xsig2[i] = 1.e8;}
              if(xsig2[i] <= 0.f) {LOGERROR("SiPixelTemplate") << "neg x-error-squared, id = " << id_current_ << ", index = " << index_id_ << 
              ", cot(alpha) = " << cota_current_ << ", cot(beta) = " << cotb_current_  << ", sigi = " << sigi << ENDL;}
           }
        }
     
     return;
     
 } // End xsigma2

float SiPixelTemplate::xsize ( )

inline

pixel x-size (microns)

Definition at line 491 of file SiPixelTemplate.h.

References xsize_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), SiPixelTemplateSplit::PixelTempSplit(), and TrackClusterSplitter::splitCluster().

void SiPixelTemplate::xtemp	(	int	fxbin,
		int	lxbin,
		float	xtemplate[41][13+4]
	)

Return interpolated y-template in single call

Parameters

fxbin	- (input) index of first bin (0-40) to fill
fxbin	- (input) index of last bin (0-40) to fill
xtemplate	- (output) a 41x11 output buffer

Definition at line 1782 of file SiPixelTemplate.cc.

References BXM1, BXM2, BXSIZE, edm::hlt::Exception, i, and j.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelGaussianSmearingRecHitConverterAlgorithm::smearHit().

 {
     // Retrieve already interpolated quantities
     
     // Local variables 
     int i, j;
 
    // Verify that input parameters are in valid range
 
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(fxbin < 0 || fxbin > 40) {
         throw cms::Exception("DataCorrupt") << "SiPixelTemplate::xtemp called with fxbin = " << fxbin << std::endl;
     }
 #else
     assert(fxbin >= 0 && fxbin < 41);
 #endif
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(lxbin < 0 || lxbin > 40) {
         throw cms::Exception("DataCorrupt") << "SiPixelTemplate::xtemp called with lxbin = " << lxbin << std::endl;
     }
 #else
     assert(lxbin >= 0 && lxbin < 41);
 #endif
 
 // Build the x-template, the central 25 bins are here in all cases
     
     for(i=0; i<9; ++i) {
        for(j=0; j<BXSIZE; ++j) {
           xtemplate[i+16][j]=xtemp_[i][j];
        }
     }
     for(i=0; i<8; ++i) {
        xtemplate[i+8][BXM1] = 0.f;
        for(j=0; j<BXM1; ++j) {
           xtemplate[i+8][j]=xtemp_[i][j+1];
        }
     }
     for(i=1; i<9; ++i) {
        xtemplate[i+24][0] = 0.f;
        for(j=0; j<BXM1; ++j) {
           xtemplate[i+24][j+1]=xtemp_[i][j];
        }
     }
     
 //  Add more bins if needed 
     
     if(fxbin < 8) {
        for(i=0; i<8; ++i) {
           xtemplate[i][BXM2] = 0.f;
           xtemplate[i][BXM1] = 0.f;
           for(j=0; j<BXM2; ++j) {
             xtemplate[i][j]=xtemp_[i][j+2];
           }
        }
     }
     if(lxbin > 32) {
        for(i=1; i<9; ++i) {
           xtemplate[i+32][0] = 0.f;
           xtemplate[i+32][1] = 0.f;
           for(j=0; j<BXM2; ++j) {
             xtemplate[i+32][j+2]=xtemp_[i][j];
           }
        }
     }
     
     return;
     
 } // End xtemp

void SiPixelTemplate::xtemp3d	(	int	i,
		int	j,
		std::vector< float > &	xtemplate
	)

Return interpolated 3d x-template in single call

Parameters

i,j	- (input) template indices
xtemplate	- (output) a boost 3d array containing two sets of temlate indices and the combined pixel signals

Definition at line 2136 of file SiPixelTemplate.cc.

References BXSIZE, i, j, and gen::k.

Referenced by SiPixelTemplateSplit::PixelTempSplit().

 {   
     // Sum two 2-d templates to make the 3-d template
     if(i >= 0 && i < nxbins_ && j <= i) {
         for(int k=0; k<BXSIZE; ++k) {
             xtemplate[k]=temp2dx_[i][k]+temp2dx_[j][k]; 
         }
     } else {
         for(int k=0; k<BXSIZE; ++k) {
             xtemplate[k]=0.;    
         } 
     }
     
     return;
     
 } // End xtemp3d

void SiPixelTemplate::xtemp3d_int	(	int	nxpix,
		int &	nxbins
	)

Make interpolated 3d x-template (stored as class variables)

Parameters

nxpix	- (input) number of pixels in cluster (needed to size template)
nxbins	- (output) number of bins needed for each template projection

Definition at line 2057 of file SiPixelTemplate.cc.

References BXM1, BXM3, BXSIZE, diffTreeTool::diff, edm::hlt::Exception, i, j, and gen::k.

Referenced by SiPixelTemplateSplit::PixelTempSplit().

 {   
     // Retrieve already interpolated quantities
     
     // Local variables 
     int i, j, k;
     int ioff0, ioffp, ioffm;
 
    // Verify that input parameters are in valid range
 
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(nxpix < 1 || nxpix >= BXM3) {
        throw cms::Exception("DataCorrupt") << "SiPixelTemplate::xtemp3d called with nxpix = " << nxpix << std::endl;
     }
 #else
     assert(nxpix > 0 && nxpix < BXM3);
 #endif
     
 // Calculate the size of the shift in pixels needed to span the entire cluster
 
     float diff = fabsf(nxpix - clslenx_)/2. + 1.f;
     int nshift = (int)diff;
     if((diff - nshift) > 0.5f) {++nshift;}
 
 // Calculate the number of bins needed to specify each hit range
 
     nxbins_ = 9 + 16*nshift;
     
 // Create a 2-d working template with the correct size
 
     temp2dx_.resize(boost::extents[nxbins_][BXSIZE]);
     
 //  The 9 central bins are copied from the interpolated private store
 
     ioff0 = 8*nshift;
     
     for(i=0; i<9; ++i) {
        for(j=0; j<BXSIZE; ++j) {
           temp2dx_[i+ioff0][j]=xtemp_[i][j];
        }
     }
     
 // Add the +- shifted templates 
 
     for(k=1; k<=nshift; ++k) {
       ioffm=ioff0-k*8;
       for(i=0; i<8; ++i) {
          for(j=0; j<k; ++j) {
             temp2dx_[i+ioffm][BXM1-j] = 0.f;
          }
          for(j=0; j<BXSIZE-k; ++j) {
             temp2dx_[i+ioffm][j]=xtemp_[i][j+k];
          }
        }
        ioffp=ioff0+k*8;
        for(i=1; i<9; ++i) {
           for(j=0; j<k; ++j) {
              temp2dx_[i+ioffp][j] = 0.f;
           }
           for(j=0; j<BXSIZE-k; ++j) {
              temp2dx_[i+ioffp][j+k]=xtemp_[i][j];
           }
        }
     }
     
     nxbins = nxbins_;                   
     
     return;
     
 } // End xtemp3d_int

float SiPixelTemplate::xxratio ( )

inline

fractional distance in x between cotalpha templates

Definition at line 336 of file SiPixelTemplate.h.

References xxratio_.

float SiPixelTemplate::yavg ( int i )

inline

average y-bias of reconstruction binned in 4 charge bins

Definition at line 337 of file SiPixelTemplate.h.

References edm::hlt::Exception, i, and yavg_.

Referenced by SiPixelTemplateReco::PixelTempReco2D().

float SiPixelTemplate::yavgc2m ( int i )

inline

1st pass chi2 min search: average y-bias of reconstruction binned in 4 charge bins

Definition at line 421 of file SiPixelTemplate.h.

References edm::hlt::Exception, i, and yavgc2m_.

Referenced by SiPixelTemplateSplit::PixelTempSplit().

float SiPixelTemplate::yflcorr	(	int	binq,
		float	qfly
	)

Return interpolated y-correction for input charge bin and qfly

Parameters

binq	- (input) charge bin [0-3]
qfly	- (input) (Q_f-Q_l)/(Q_f+Q_l) for this cluster

Definition at line 1600 of file SiPixelTemplate.cc.

References edm::hlt::Exception, and f.

Referenced by SiPixelTemplateReco::PixelTempReco2D().

 {
     // Interpolate using quantities already stored in the private variables
     
     // Local variables 
     float qfl, qfl2, qfl3, qfl4, qfl5, dy;
     
     // Make sure that input is OK
     
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(binq < 0 || binq > 3) {
        throw cms::Exception("DataCorrupt") << "SiPixelTemplate::yflcorr called with binq = " << binq << std::endl;
     }
 #else
      assert(binq >= 0 && binq < 4);
 #endif
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
      if(fabs((double)qfly) > 1.) {
         throw cms::Exception("DataCorrupt") << "SiPixelTemplate::yflcorr called with qfly = " << qfly << std::endl;
      }
 #else
      assert(fabs((double)qfly) <= 1.);
 #endif
              
 // Define the maximum signal to allow before de-weighting a pixel 
 
        qfl = qfly;
 
        if(qfl < -0.9f) {qfl = -0.9f;}
        if(qfl > 0.9f) {qfl = 0.9f;}
        
 // Interpolate between the two polynomials
 
        qfl2 = qfl*qfl; qfl3 = qfl2*qfl; qfl4 = qfl3*qfl; qfl5 = qfl4*qfl;
        dy = (1.f-yratio_)*(yflparl_[binq][0]+yflparl_[binq][1]*qfl+yflparl_[binq][2]*qfl2+yflparl_[binq][3]*qfl3+yflparl_[binq][4]*qfl4+yflparl_[binq][5]*qfl5)
           + yratio_*(yflparh_[binq][0]+yflparh_[binq][1]*qfl+yflparh_[binq][2]*qfl2+yflparh_[binq][3]*qfl3+yflparh_[binq][4]*qfl4+yflparh_[binq][5]*qfl5);
     
     return dy;
     
 } // End yflcorr

float SiPixelTemplate::ygsig ( int i )

inline

average sigma_y from Gaussian fit binned in 4 charge bins

Definition at line 358 of file SiPixelTemplate.h.

References edm::hlt::Exception, i, and ygsig_.

float SiPixelTemplate::ygx0 ( int i )

inline

average y0 from Gaussian fit binned in 4 charge bins

Definition at line 351 of file SiPixelTemplate.h.

References edm::hlt::Exception, i, and ygx0_.

float SiPixelTemplate::yratio ( )

inline

fractional distance in y between cotbeta templates

Definition at line 334 of file SiPixelTemplate.h.

References yratio_.

float SiPixelTemplate::yrms ( int i )

inline

average y-rms of reconstruction binned in 4 charge bins

Definition at line 344 of file SiPixelTemplate.h.

References edm::hlt::Exception, i, and yrms_.

Referenced by SiPixelTemplateReco::PixelTempReco2D().

float SiPixelTemplate::yrmsc2m ( int i )

inline

1st pass chi2 min search: average y-rms of reconstruction binned in 4 charge bins

Definition at line 428 of file SiPixelTemplate.h.

References edm::hlt::Exception, i, and yrmsc2m_.

Referenced by SiPixelTemplateSplit::PixelTempSplit().

void SiPixelTemplate::ysigma2	(	int	fypix,
		int	lypix,
		float	sythr,
		float	ysum[21+4],
		float	ysig2[21+4]
	)

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelTemplateSplit::PixelTempSplit().

void SiPixelTemplate::ysigma2	(	float	qpixel,
		int	index,
		float &	ysig2
	)

Return y error (squared) for an input signal and yindex Add large Q scaling for use in cluster splitting.

Parameters

qpixel	- (input) pixel charge
index	- (input) y-index index of pixel
ysig2	- (output) square error

Definition at line 1426 of file SiPixelTemplate.cc.

References BHY, BYM2, ENDL, edm::hlt::Exception, f, and LOGERROR.

 {
     // Interpolate using quantities already stored in the private variables
     
     // Local variables 
     float sigi, sigi2, sigi3, sigi4, symax, qscale, err2;
     
     // Make sure that input is OK
     
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(index < 2 || index >= BYM2) {
         throw cms::Exception("DataCorrupt") << "SiPixelTemplate::ysigma2 called with index = " << index << std::endl;
     }
 #else
     assert(index > 1 && index < BYM2);
 #endif
     
     // Define the maximum signal to use in the parameterization 
     
     symax = symax_;
     if(symax_ > syparmax_) {symax = syparmax_;}
     
     // Evaluate pixel-by-pixel uncertainties (weights) for the templ analysis 
     
             if(qpixel < symax) {
                 sigi = qpixel;
                 qscale = 1.f;
             } else {
                 sigi = symax;
                 qscale = qpixel/symax;
             }
             sigi2 = sigi*sigi; sigi3 = sigi2*sigi; sigi4 = sigi3*sigi;
             if(index <= BHY) {
                 err2 = (1.f-yratio_)*
                 (yparl_[0][0]+yparl_[0][1]*sigi+yparl_[0][2]*sigi2+yparl_[0][3]*sigi3+yparl_[0][4]*sigi4)
                 + yratio_*
                 (yparh_[0][0]+yparh_[0][1]*sigi+yparh_[0][2]*sigi2+yparh_[0][3]*sigi3+yparh_[0][4]*sigi4);
             } else {
                 err2 = (1.f-yratio_)*
                 (yparl_[1][0]+yparl_[1][1]*sigi+yparl_[1][2]*sigi2+yparl_[1][3]*sigi3+yparl_[1][4]*sigi4)
                 + yratio_*
                 (yparh_[1][0]+yparh_[1][1]*sigi+yparh_[1][2]*sigi2+yparh_[1][3]*sigi3+yparh_[1][4]*sigi4);
             }
             ysig2 =qscale*err2;
             if(ysig2 <= 0.f) {LOGERROR("SiPixelTemplate") << "neg y-error-squared, id = " << id_current_ << ", index = " << index_id_ << 
             ", cot(alpha) = " << cota_current_ << ", cot(beta) = " << cotb_current_ <<  ", sigi = " << sigi << ENDL;}
     
     return;
     
 } // End ysigma2

float SiPixelTemplate::ysize ( )

inline

pixel y-size (microns)

Definition at line 492 of file SiPixelTemplate.h.

References ysize_.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), SiPixelTemplateSplit::PixelTempSplit(), and TrackClusterSplitter::splitCluster().

void SiPixelTemplate::ytemp	(	int	fybin,
		int	lybin,
		float	ytemplate[41][21+4]
	)

Return interpolated y-template in single call

Parameters

fybin	- (input) index of first bin (0-40) to fill
fybin	- (input) index of last bin (0-40) to fill
ytemplate	- (output) a 41x25 output buffer

Definition at line 1704 of file SiPixelTemplate.cc.

References BYM1, BYM2, BYSIZE, edm::hlt::Exception, i, and j.

Referenced by SiPixelTemplateReco::PixelTempReco2D(), and SiPixelGaussianSmearingRecHitConverterAlgorithm::smearHit().

 {
     // Retrieve already interpolated quantities
     
     // Local variables 
     int i, j;
 
    // Verify that input parameters are in valid range
 
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(fybin < 0 || fybin > 40) {
         throw cms::Exception("DataCorrupt") << "SiPixelTemplate::ytemp called with fybin = " << fybin << std::endl;
     }
 #else
     assert(fybin >= 0 && fybin < 41);
 #endif
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(lybin < 0 || lybin > 40) {
         throw cms::Exception("DataCorrupt") << "SiPixelTemplate::ytemp called with lybin = " << lybin << std::endl;
     }
 #else
     assert(lybin >= 0 && lybin < 41);
 #endif
 
 // Build the y-template, the central 25 bins are here in all cases
     
     for(i=0; i<9; ++i) {
        for(j=0; j<BYSIZE; ++j) {
             ytemplate[i+16][j]=ytemp_[i][j];
        }
     }
     for(i=0; i<8; ++i) {
        ytemplate[i+8][BYM1] = 0.f;
        for(j=0; j<BYM1; ++j) {
           ytemplate[i+8][j]=ytemp_[i][j+1];
        }
     }
     for(i=1; i<9; ++i) {
        ytemplate[i+24][0] = 0.f;
        for(j=0; j<BYM1; ++j) {
           ytemplate[i+24][j+1]=ytemp_[i][j];
        }
     }
     
 //  Add more bins if needed
 
     if(fybin < 8) {
        for(i=0; i<8; ++i) {
           ytemplate[i][BYM2] = 0.f;
           ytemplate[i][BYM1] = 0.f;
           for(j=0; j<BYM2; ++j) {
             ytemplate[i][j]=ytemp_[i][j+2];
           }
        }
     }
     if(lybin > 32) {
        for(i=1; i<9; ++i) {
           ytemplate[i+32][0] = 0.f;
           ytemplate[i+32][1] = 0.f;
           for(j=0; j<BYM2; ++j) {
              ytemplate[i+32][j+2]=ytemp_[i][j];
           }
        }
     }
     
     return;
     
 } // End ytemp

void SiPixelTemplate::ytemp3d	(	int	i,
		int	j,
		std::vector< float > &	ytemplate
	)

Return interpolated 3d y-template in single call

Parameters

i,j	- (input) template indices
ytemplate	- (output) a boost 3d array containing two sets of temlate indices and the combined pixel signals

Definition at line 2033 of file SiPixelTemplate.cc.

References BYSIZE, i, j, and gen::k.

Referenced by SiPixelTemplateSplit::PixelTempSplit().

 {   
     // Sum two 2-d templates to make the 3-d template
     if(i >= 0 && i < nybins_ && j <= i) {
        for(int k=0; k<BYSIZE; ++k) {
           ytemplate[k]=temp2dy_[i][k]+temp2dy_[j][k];   
        }
     } else {
         for(int k=0; k<BYSIZE; ++k) {
             ytemplate[k]=0.;    
         } 
     }
     
     return;
     
 } // End ytemp3d

void SiPixelTemplate::ytemp3d_int	(	int	nypix,
		int &	nybins
	)

Make interpolated 3d y-template (stored as class variables)

Parameters

nypix	- (input) number of pixels in cluster (needed to size template)
nybins	- (output) number of bins needed for each template projection

Definition at line 1955 of file SiPixelTemplate.cc.

References BYM1, BYM3, BYSIZE, diffTreeTool::diff, edm::hlt::Exception, i, j, and gen::k.

Referenced by SiPixelTemplateSplit::PixelTempSplit().

 {
     
     // Retrieve already interpolated quantities
     
     // Local variables 
     int i, j, k;
     int ioff0, ioffp, ioffm;
     
     // Verify that input parameters are in valid range
     
 #ifndef SI_PIXEL_TEMPLATE_STANDALONE
     if(nypix < 1 || nypix >= BYM3) {
         throw cms::Exception("DataCorrupt") << "SiPixelTemplate::ytemp3d called with nypix = " << nypix << std::endl;
     }
 #else
     assert(nypix > 0 && nypix < BYM3);
 #endif
     
     // Calculate the size of the shift in pixels needed to span the entire cluster
     
     float diff = fabsf(nypix - clsleny_)/2. + 1.f;
     int nshift = (int)diff;
     if((diff - nshift) > 0.5f) {++nshift;}
     
     // Calculate the number of bins needed to specify each hit range
     
     nybins_ = 9 + 16*nshift;
     
     // Create a 2-d working template with the correct size
     
     temp2dy_.resize(boost::extents[nybins_][BYSIZE]);
     
     //  The 9 central bins are copied from the interpolated private store
     
     ioff0 = 8*nshift;
     
     for(i=0; i<9; ++i) {
         for(j=0; j<BYSIZE; ++j) {
             temp2dy_[i+ioff0][j]=ytemp_[i][j];
         }
     }
     
     // Add the +- shifted templates 
     
     for(k=1; k<=nshift; ++k) {
         ioffm=ioff0-k*8;
         for(i=0; i<8; ++i) {
             for(j=0; j<k; ++j) {
                 temp2dy_[i+ioffm][BYM1-j] = 0.f;
             }
             for(j=0; j<BYSIZE-k; ++j) {
                 temp2dy_[i+ioffm][j]=ytemp_[i][j+k];
             }
         }
         ioffp=ioff0+k*8;
         for(i=1; i<9; ++i) {
             for(j=0; j<k; ++j) {
                 temp2dy_[i+ioffp][j] = 0.f;
             }
             for(j=0; j<BYSIZE-k; ++j) {
                 temp2dy_[i+ioffp][j+k]=ytemp_[i][j];
             }
         }
     }
     
     nybins = nybins_;   
     return;
     
 } // End ytemp3d_int

float SiPixelTemplate::yxratio ( )

inline

fractional distance in y between cotalpha templates slices

Definition at line 335 of file SiPixelTemplate.h.

References yxratio_.

float SiPixelTemplate::zsize ( )

inline

pixel z-size or thickness (microns)

Definition at line 493 of file SiPixelTemplate.h.

References zsize_.

Member Data Documentation

float SiPixelTemplate::abs_cotb_

private

absolute value of cot beta

Definition at line 506 of file SiPixelTemplate.h.

float SiPixelTemplate::chi2xavg_[4]

private

average x chi^2 in 4 charge bins

Definition at line 559 of file SiPixelTemplate.h.

Referenced by chi2xavg().

float SiPixelTemplate::chi2xavgc2m_[4]

private

1st pass chi2 min search: average x-chisq for merged clusters

Definition at line 567 of file SiPixelTemplate.h.

Referenced by chi2xavgc2m().

float SiPixelTemplate::chi2xavgone_

private

average x chi^2 for 1 pixel clusters

Definition at line 571 of file SiPixelTemplate.h.

Referenced by chi2xavgone().

float SiPixelTemplate::chi2xmin_[4]

private

minimum of x chi^2 in 4 charge bins

Definition at line 560 of file SiPixelTemplate.h.

Referenced by chi2xmin().

float SiPixelTemplate::chi2xminc2m_[4]

private

1st pass chi2 min search: minimum x-chisq for merged clusters

Definition at line 568 of file SiPixelTemplate.h.

Referenced by chi2xminc2m().

float SiPixelTemplate::chi2xminone_

private

minimum of x chi^2 for 1 pixel clusters

Definition at line 572 of file SiPixelTemplate.h.

Referenced by chi2xminone().

float SiPixelTemplate::chi2yavg_[4]

private

average y chi^2 in 4 charge bins

Definition at line 557 of file SiPixelTemplate.h.

Referenced by chi2yavg().

float SiPixelTemplate::chi2yavgc2m_[4]

private

1st pass chi2 min search: average y-chisq for merged clusters

Definition at line 563 of file SiPixelTemplate.h.

Referenced by chi2yavgc2m().

float SiPixelTemplate::chi2yavgone_

private

average y chi^2 for 1 pixel clusters

Definition at line 569 of file SiPixelTemplate.h.

Referenced by chi2yavgone().

float SiPixelTemplate::chi2ymin_[4]

private

minimum of y chi^2 in 4 charge bins

Definition at line 558 of file SiPixelTemplate.h.

Referenced by chi2ymin().

float SiPixelTemplate::chi2yminc2m_[4]

private

1st pass chi2 min search: minimum y-chisq for merged clusters

Definition at line 564 of file SiPixelTemplate.h.

Referenced by chi2yminc2m().

float SiPixelTemplate::chi2yminone_

private

minimum of y chi^2 for 1 pixel clusters

Definition at line 570 of file SiPixelTemplate.h.

Referenced by chi2yminone().

float SiPixelTemplate::clslenx_

private

x-cluster length of smaller interpolated template in pixels

Definition at line 530 of file SiPixelTemplate.h.

Referenced by clslenx().

float SiPixelTemplate::clsleny_

private

y-cluster length of smaller interpolated template in pixels

Definition at line 529 of file SiPixelTemplate.h.

Referenced by clsleny().

float SiPixelTemplate::cota_current_

private

current cot alpha

Definition at line 504 of file SiPixelTemplate.h.

Referenced by SiPixelTemplate().

float SiPixelTemplate::cotb_current_

private

current cot beta

Definition at line 505 of file SiPixelTemplate.h.

Referenced by SiPixelTemplate().

float SiPixelTemplate::dxone_

private

mean offset/correction for one pixel x-clusters

Definition at line 524 of file SiPixelTemplate.h.

Referenced by dxone().

float SiPixelTemplate::dxtwo_

private

mean offset/correction for one double-pixel x-clusters

Definition at line 526 of file SiPixelTemplate.h.

Referenced by dxtwo().

float SiPixelTemplate::dyone_

private

mean offset/correction for one pixel y-clusters

Definition at line 518 of file SiPixelTemplate.h.

Referenced by dyone().

float SiPixelTemplate::dytwo_

private

mean offset/correction for one double-pixel y-clusters

Definition at line 520 of file SiPixelTemplate.h.

Referenced by dytwo().

int SiPixelTemplate::id_current_

private

current id

Definition at line 502 of file SiPixelTemplate.h.

Referenced by SiPixelTemplate().

int SiPixelTemplate::index_id_

private

current index

Definition at line 503 of file SiPixelTemplate.h.

Referenced by SiPixelTemplate().

float SiPixelTemplate::kappavav2_

private

kappa parameter for 2-cluster Vavilov distribution

Definition at line 579 of file SiPixelTemplate.h.

Referenced by kappavav2().

float SiPixelTemplate::kappavav_

private

kappa parameter for Vavilov distribution

Definition at line 576 of file SiPixelTemplate.h.

Referenced by kappavav().

float SiPixelTemplate::lorxwidth_

private

Lorentz x-width.

Definition at line 581 of file SiPixelTemplate.h.

Referenced by lorxbias(), and lorxwidth().

float SiPixelTemplate::lorywidth_

private

Lorentz y-width (sign corrected for fpix frame)

Definition at line 580 of file SiPixelTemplate.h.

Referenced by lorybias(), and lorywidth().

float SiPixelTemplate::mpvvav2_

private

most probable charge in 2-cluster Vavilov distribution (not actually for larger kappa)

Definition at line 577 of file SiPixelTemplate.h.

Referenced by mpvvav2().

float SiPixelTemplate::mpvvav_

private

most probable charge in Vavilov distribution (not actually for larger kappa)

Definition at line 574 of file SiPixelTemplate.h.

Referenced by mpvvav().

float SiPixelTemplate::nxbins_

private

number of bins in each dimension of the x-splitting template

Definition at line 587 of file SiPixelTemplate.h.

float SiPixelTemplate::nybins_

private

number of bins in each dimension of the y-splitting template

Definition at line 586 of file SiPixelTemplate.h.

float SiPixelTemplate::pixmax_

private

maximum pixel charge

Definition at line 513 of file SiPixelTemplate.h.

Referenced by pixmax().

float SiPixelTemplate::qavg_

private

average cluster charge for this set of track angles

Definition at line 512 of file SiPixelTemplate.h.

Referenced by qavg().

float SiPixelTemplate::qavg_avg_

private

average of cluster charge less than qavg

Definition at line 585 of file SiPixelTemplate.h.

float SiPixelTemplate::qmin2_

private

tighter minimum cluster charge for valid hit (keeps 99.8% of simulated hits)

Definition at line 573 of file SiPixelTemplate.h.

Referenced by qmin().

float SiPixelTemplate::qmin_

private

minimum cluster charge for valid hit (keeps 99.9% of simulated hits)

Definition at line 528 of file SiPixelTemplate.h.

Referenced by qmin().

float SiPixelTemplate::qscale_

private

charge scaling factor

Definition at line 514 of file SiPixelTemplate.h.

Referenced by qscale().

float SiPixelTemplate::s50_

private

1/2 of the pixel threshold signal in adc units

Definition at line 515 of file SiPixelTemplate.h.

Referenced by s50().

float SiPixelTemplate::sigmavav2_

private

"sigma" scale fctor for 2-cluster Vavilov distribution

Definition at line 578 of file SiPixelTemplate.h.

Referenced by sigmavav2().

float SiPixelTemplate::sigmavav_

private

"sigma" scale fctor for Vavilov distribution

Definition at line 575 of file SiPixelTemplate.h.

Referenced by sigmavav().

bool SiPixelTemplate::success_

private

true if cotalpha, cotbeta are inside of the acceptance (dynamically loaded)

Definition at line 507 of file SiPixelTemplate.h.

float SiPixelTemplate::sxmax_

private

average pixel signal for x-projection of cluster

Definition at line 522 of file SiPixelTemplate.h.

Referenced by sxmax().

float SiPixelTemplate::sxone_

private

rms for one pixel x-clusters

Definition at line 525 of file SiPixelTemplate.h.

Referenced by sxone().

float SiPixelTemplate::sxparmax_

private

maximum pixel signal for parameterization of x uncertainties

Definition at line 523 of file SiPixelTemplate.h.

float SiPixelTemplate::sxtwo_

private

rms for one double-pixel x-clusters

Definition at line 527 of file SiPixelTemplate.h.

Referenced by sxtwo().

float SiPixelTemplate::symax_

private

average pixel signal for y-projection of cluster

Definition at line 516 of file SiPixelTemplate.h.

Referenced by symax().

float SiPixelTemplate::syone_

private

rms for one pixel y-clusters

Definition at line 519 of file SiPixelTemplate.h.

Referenced by syone().

float SiPixelTemplate::syparmax_

private

maximum pixel signal for parameterization of y uncertainties

Definition at line 517 of file SiPixelTemplate.h.

float SiPixelTemplate::sytwo_

private

rms for one double-pixel y-clusters

Definition at line 521 of file SiPixelTemplate.h.

Referenced by sytwo().

boost::multi_array<float,2> SiPixelTemplate::temp2dx_

private

2d-primitive for spltting 3-d template

Definition at line 589 of file SiPixelTemplate.h.

boost::multi_array<float,2> SiPixelTemplate::temp2dy_

private

2d-primitive for spltting 3-d template

Definition at line 588 of file SiPixelTemplate.h.

const std::vector< SiPixelTemplateStore >& SiPixelTemplate::thePixelTemp_

private

Definition at line 594 of file SiPixelTemplate.h.

float SiPixelTemplate::xavg_[4]

private

average x-bias of reconstruction binned in 4 charge bins

Definition at line 549 of file SiPixelTemplate.h.

Referenced by xavg().

float SiPixelTemplate::xavgc2m_[4]

private

1st pass chi2 min search: average x-bias of reconstruction binned in 4 charge bins

Definition at line 565 of file SiPixelTemplate.h.

Referenced by xavgc2m().

float SiPixelTemplate::xflparhh_[4][6]

private

Aqfl-parameterized x-correction in 4 charge bins for larger cotbeta, cotalpha.

Definition at line 556 of file SiPixelTemplate.h.

float SiPixelTemplate::xflparhl_[4][6]

private

Aqfl-parameterized x-correction in 4 charge bins for larger cotbeta, smaller cotalpha.

Definition at line 555 of file SiPixelTemplate.h.

float SiPixelTemplate::xflparlh_[4][6]

private

Aqfl-parameterized x-correction in 4 charge bins for smaller cotbeta, larger cotalpha.

Definition at line 554 of file SiPixelTemplate.h.

float SiPixelTemplate::xflparll_[4][6]

private

Aqfl-parameterized x-correction in 4 charge bins for smaller cotbeta, cotalpha.

Definition at line 553 of file SiPixelTemplate.h.

float SiPixelTemplate::xgsig_[4]

private

sigma from Gaussian fit binned in 4 charge bins

Definition at line 552 of file SiPixelTemplate.h.

Referenced by xgsig().

float SiPixelTemplate::xgx0_[4]

private

average x0 from Gaussian fit binned in 4 charge bins

Definition at line 551 of file SiPixelTemplate.h.

Referenced by xgx0().

float SiPixelTemplate::xpar0_[2][5]

private

projected x-pixel uncertainty parameterization for central cotalpha

Definition at line 539 of file SiPixelTemplate.h.

float SiPixelTemplate::xparh_[2][5]

private

projected x-pixel uncertainty parameterization for larger cotalpha

Definition at line 541 of file SiPixelTemplate.h.

float SiPixelTemplate::xparhy0_[2][5]

private

projected x-pixel uncertainty parameterization for larger cotbeta (central alpha)

Definition at line 535 of file SiPixelTemplate.h.

float SiPixelTemplate::xparl_[2][5]

private

projected x-pixel uncertainty parameterization for smaller cotalpha

Definition at line 540 of file SiPixelTemplate.h.

float SiPixelTemplate::xparly0_[2][5]

private

projected x-pixel uncertainty parameterization for smaller cotbeta (central alpha)

Definition at line 534 of file SiPixelTemplate.h.

float SiPixelTemplate::xrms_[4]

private

average x-rms of reconstruction binned in 4 charge bins

Definition at line 550 of file SiPixelTemplate.h.

Referenced by xrms().

float SiPixelTemplate::xrmsc2m_[4]

private

1st pass chi2 min search: average x-rms of reconstruction binned in 4 charge bins

Definition at line 566 of file SiPixelTemplate.h.

Referenced by xrmsc2m().

float SiPixelTemplate::xsize_

private

Pixel x-size.

Definition at line 582 of file SiPixelTemplate.h.

Referenced by xsize().

float SiPixelTemplate::xtemp_[9][13+4]

private

templates for x-reconstruction (binned over 5 central pixels)

Definition at line 542 of file SiPixelTemplate.h.

float SiPixelTemplate::xxratio_

private

fractional distance in x between cotalpha templates

Definition at line 538 of file SiPixelTemplate.h.

Referenced by xxratio().

float SiPixelTemplate::yavg_[4]

private

average y-bias of reconstruction binned in 4 charge bins

Definition at line 543 of file SiPixelTemplate.h.

Referenced by yavg().

float SiPixelTemplate::yavgc2m_[4]

private

1st pass chi2 min search: average y-bias of reconstruction binned in 4 charge bins

Definition at line 561 of file SiPixelTemplate.h.

Referenced by yavgc2m().

float SiPixelTemplate::yflparh_[4][6]

private

Aqfl-parameterized y-correction in 4 charge bins for larger cotbeta.

Definition at line 548 of file SiPixelTemplate.h.

float SiPixelTemplate::yflparl_[4][6]

private

Aqfl-parameterized y-correction in 4 charge bins for smaller cotbeta.

Definition at line 547 of file SiPixelTemplate.h.

float SiPixelTemplate::ygsig_[4]

private

average sigma_y from Gaussian fit binned in 4 charge bins

Definition at line 546 of file SiPixelTemplate.h.

Referenced by ygsig().

float SiPixelTemplate::ygx0_[4]

private

average y0 from Gaussian fit binned in 4 charge bins

Definition at line 545 of file SiPixelTemplate.h.

Referenced by ygx0().

float SiPixelTemplate::yparh_[2][5]

private

projected y-pixel uncertainty parameterization for larger cotbeta

Definition at line 533 of file SiPixelTemplate.h.

float SiPixelTemplate::yparl_[2][5]

private

projected y-pixel uncertainty parameterization for smaller cotbeta

Definition at line 532 of file SiPixelTemplate.h.

float SiPixelTemplate::yratio_

private

fractional distance in y between cotbeta templates

Definition at line 531 of file SiPixelTemplate.h.

Referenced by yratio().

float SiPixelTemplate::yrms_[4]

private

average y-rms of reconstruction binned in 4 charge bins

Definition at line 544 of file SiPixelTemplate.h.

Referenced by yrms().

float SiPixelTemplate::yrmsc2m_[4]

private

1st pass chi2 min search: average y-rms of reconstruction binned in 4 charge bins

Definition at line 562 of file SiPixelTemplate.h.

Referenced by yrmsc2m().

float SiPixelTemplate::ysize_

private

Pixel y-size.

Definition at line 583 of file SiPixelTemplate.h.

Referenced by ysize().

float SiPixelTemplate::ytemp_[9][21+4]

private

templates for y-reconstruction (binned over 5 central pixels)

Definition at line 536 of file SiPixelTemplate.h.

float SiPixelTemplate::yxratio_

private

fractional distance in y between x-slices of cotalpha templates

Definition at line 537 of file SiPixelTemplate.h.

Referenced by yxratio().

float SiPixelTemplate::zsize_

private

Pixel z-size (thickness)

Definition at line 584 of file SiPixelTemplate.h.

Referenced by zsize().

Public Member Functions

Static Public Member Functions

Private Attributes

Detailed Description

Constructor & Destructor Documentation

Member Function Documentation

Member Data Documentation