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StepEfracParametrization Class Reference

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#include <CondFormats/JetMETObjects/interface/GlobalFitParameters.h>

Inheritance diagram for StepEfracParametrization:

List of all members.

Public Member Functions
double	correctedJetEt (TMeasurement *const x, double *const par) const
double	correctedTowerEt (TMeasurement *const x, double *const par) const
const char *	name () const
	StepEfracParametrization ()

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Detailed Description

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Definition at line 162 of file GlobalFitParameters.h.

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Constructor & Destructor Documentation

StepEfracParametrization::StepEfracParametrization

(

)

[inline]

Definition at line 164 of file GlobalFitParameters.h.

: Parametrization(36,0) {}  //(36,2) {}

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Member Function Documentation

double StepEfracParametrization::correctedJetEt	(	TMeasurement *const	x,
		double *const	par
	)			const [inline, virtual]

Implements Parametrization.

Definition at line 214 of file GlobalFitParameters.h.

References TMeasurement::pt.

                                                                       {
    return  x->pt;   
    //OutOfCone, Dominant, parametrized in Et since cone R lorenz invariant
    //return x->pt * ( 1. + 0.295 * par[0] * exp(- 0.02566 * par[1] * x->pt));   
  }

double StepEfracParametrization::correctedTowerEt	(	TMeasurement *const	x,
		double *const	par
	)			const [inline, virtual]

Implements Parametrization.

Definition at line 167 of file GlobalFitParameters.h.

References TMeasurement::EMF, TMeasurement::HadF, TMeasurement::OutF, and HLT_VtxMuL3::result.

                                                                         {
    double result=0;
    
    double Efrac = x->EMF/(x->HadF+x->OutF+x->EMF);
    if( Efrac < 0.2 ) {
      if(x->HadF>=0.0 && x->HadF<=1.0)            result = x->EMF+x->OutF+par[ 0]*x->HadF;
      else if (x->HadF>   1.0 && x->HadF<=   2.0) result = x->EMF+x->OutF+par[ 1]*x->HadF;
      else if (x->HadF>   2.0 && x->HadF<=   5.0) result = x->EMF+x->OutF+par[ 2]*x->HadF;
      else if (x->HadF>   5.0 && x->HadF<=  10.0) result = x->EMF+x->OutF+par[ 3]*x->HadF;
      else if (x->HadF>  10.0 && x->HadF<=  20.0) result = x->EMF+x->OutF+par[ 4]*x->HadF;
      else if (x->HadF>  20.0 && x->HadF<=  40.0) result = x->EMF+x->OutF+par[ 5]*x->HadF;
      else if (x->HadF>  40.0 && x->HadF<=  80.0) result = x->EMF+x->OutF+par[ 6]*x->HadF;
      else if (x->HadF>  80.0 && x->HadF<= 160.0) result = x->EMF+x->OutF+par[ 7]*x->HadF;
      else if (x->HadF> 160.0 && x->HadF<= 300.0) result = x->EMF+x->OutF+par[ 8]*x->HadF;
      else if (x->HadF> 300.0 && x->HadF<= 600.0) result = x->EMF+x->OutF+par[ 9]*x->HadF;
      else if (x->HadF> 600.0 && x->HadF<=1000.0) result = x->EMF+x->OutF+par[10]*x->HadF;
      else if (x->HadF>1000.0 )                   result = x->EMF+x->OutF+par[11]*x->HadF;
    } else if (Efrac < 0.5) {
      if(x->HadF>=0.0 && x->HadF<=1.0)            result = x->EMF+x->OutF+par[12]*x->HadF;
      else if (x->HadF>   1.0 && x->HadF<=   2.0) result = x->EMF+x->OutF+par[13]*x->HadF;
      else if (x->HadF>   2.0 && x->HadF<=   5.0) result = x->EMF+x->OutF+par[14]*x->HadF;
      else if (x->HadF>   5.0 && x->HadF<=  10.0) result = x->EMF+x->OutF+par[15]*x->HadF;
      else if (x->HadF>  10.0 && x->HadF<=  20.0) result = x->EMF+x->OutF+par[16]*x->HadF;
      else if (x->HadF>  20.0 && x->HadF<=  40.0) result = x->EMF+x->OutF+par[17]*x->HadF;
      else if (x->HadF>  40.0 && x->HadF<=  80.0) result = x->EMF+x->OutF+par[18]*x->HadF;
      else if (x->HadF>  80.0 && x->HadF<= 160.0) result = x->EMF+x->OutF+par[19]*x->HadF;
      else if (x->HadF> 160.0 && x->HadF<= 300.0) result = x->EMF+x->OutF+par[20]*x->HadF;
      else if (x->HadF> 300.0 && x->HadF<= 600.0) result = x->EMF+x->OutF+par[21]*x->HadF;
      else if (x->HadF> 600.0 && x->HadF<=1000.0) result = x->EMF+x->OutF+par[22]*x->HadF;
      else if (x->HadF>1000.0 )                   result = x->EMF+x->OutF+par[23]*x->HadF;
    } else {
      if(x->HadF>=0.0 && x->HadF<=1.0)            result = x->EMF+x->OutF+par[24]*x->HadF;
      else if (x->HadF>   1.0 && x->HadF<=   2.0) result = x->EMF+x->OutF+par[25]*x->HadF;
      else if (x->HadF>   2.0 && x->HadF<=   5.0) result = x->EMF+x->OutF+par[26]*x->HadF;
      else if (x->HadF>   5.0 && x->HadF<=  10.0) result = x->EMF+x->OutF+par[27]*x->HadF;
      else if (x->HadF>  10.0 && x->HadF<=  20.0) result = x->EMF+x->OutF+par[28]*x->HadF;
      else if (x->HadF>  20.0 && x->HadF<=  40.0) result = x->EMF+x->OutF+par[29]*x->HadF;
      else if (x->HadF>  40.0 && x->HadF<=  80.0) result = x->EMF+x->OutF+par[30]*x->HadF;
      else if (x->HadF>  80.0 && x->HadF<= 160.0) result = x->EMF+x->OutF+par[31]*x->HadF;
      else if (x->HadF> 160.0 && x->HadF<= 300.0) result = x->EMF+x->OutF+par[32]*x->HadF;
      else if (x->HadF> 300.0 && x->HadF<= 600.0) result = x->EMF+x->OutF+par[33]*x->HadF;
      else if (x->HadF> 600.0 && x->HadF<=1000.0) result = x->EMF+x->OutF+par[34]*x->HadF;
      else if (x->HadF>1000.0 )                   result = x->EMF+x->OutF+par[35]*x->HadF;
    }
    return result;
  }

const char* StepEfracParametrization::name

(

)

const [inline, virtual]

Implements Parametrization.

Definition at line 165 of file GlobalFitParameters.h.

{ return "StepEfracParametrization";}

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The documentation for this class was generated from the following file:

• CondFormats/JetMETObjects/interface/GlobalFitParameters.h

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