#include "Alignment/MuonAlignmentAlgorithms/interface/MuonResiduals5DOFFitter.h"
#include "TH2F.h"
#include "TMath.h"
#include "TTree.h"
#include "TFile.h"
Go to the source code of this file.
Functions | |
void | MuonResiduals5DOFFitter_FCN (int &npar, double *gin, double &fval, double *par, int iflag) |
void MuonResiduals5DOFFitter_FCN | ( | int & | npar, |
double * | gin, | ||
double & | fval, | ||
double * | par, | ||
int | iflag | ||
) |
Definition at line 56 of file MuonResiduals5DOFFitter.cc.
References alpha, MuonResidualsFitterFitInfo::fitter(), MuonResidualsFitter::k0010, MuonResidualsFitter::k1010, MuonResidualsFitter::k1100, MuonResidualsFitter::k1110, MuonResidualsFitter::k1111, MuonResiduals5DOFFitter::kAlignPhiX, MuonResiduals5DOFFitter::kAlignPhiY, MuonResiduals5DOFFitter::kAlignPhiZ, MuonResiduals5DOFFitter::kAlignX, MuonResiduals5DOFFitter::kAlignZ, MuonResiduals5DOFFitter::kAlpha, MuonResiduals5DOFFitter::kAngleX, MuonResiduals5DOFFitter::kAngleY, MuonResidualsFitter::kGaussPowerTails, MuonResiduals5DOFFitter::kPositionX, MuonResiduals5DOFFitter::kPositionY, MuonResidualsFitter::kPowerLawTails, MuonResidualsFitter::kPureGaussian, MuonResidualsFitter::kPureGaussian2D, MuonResiduals5DOFFitter::kRedChi2, MuonResiduals5DOFFitter::kResid, MuonResiduals5DOFFitter::kResidGamma, MuonResiduals5DOFFitter::kResidSigma, MuonResiduals5DOFFitter::kResSlope, MuonResiduals5DOFFitter::kResSlopeGamma, MuonResiduals5DOFFitter::kResSlopeSigma, MuonResidualsFitter::kROOTVoigt, MuonResidualsFitter_logGaussPowerTails(), MuonResidualsFitter_logPowerLawTails(), MuonResidualsFitter_logPureGaussian(), MuonResidualsFitter_logPureGaussian2D(), MuonResidualsFitter_logROOTVoigt(), MuonResidualsFitter::residuals_begin(), MuonResidualsFitter::residuals_end(), MuonResidualsFitter::residualsModel(), MuonResidualsFitter::useRes(), and CommonMethods::weight().
Referenced by MuonResiduals5DOFFitter::fit().
{ MuonResidualsFitterFitInfo *fitinfo = (MuonResidualsFitterFitInfo*)(minuit->GetObjectFit()); MuonResidualsFitter *fitter = fitinfo->fitter(); fval = 0.; for (std::vector<double*>::const_iterator resiter = fitter->residuals_begin(); resiter != fitter->residuals_end(); ++resiter) { const double residual = (*resiter)[MuonResiduals5DOFFitter::kResid]; const double resslope = (*resiter)[MuonResiduals5DOFFitter::kResSlope]; const double positionX = (*resiter)[MuonResiduals5DOFFitter::kPositionX]; const double positionY = (*resiter)[MuonResiduals5DOFFitter::kPositionY]; const double angleX = (*resiter)[MuonResiduals5DOFFitter::kAngleX]; const double angleY = (*resiter)[MuonResiduals5DOFFitter::kAngleY]; const double redchi2 = (*resiter)[MuonResiduals5DOFFitter::kRedChi2]; const double alignx = par[MuonResiduals5DOFFitter::kAlignX]; const double alignz = par[MuonResiduals5DOFFitter::kAlignZ]; const double alignphix = par[MuonResiduals5DOFFitter::kAlignPhiX]; const double alignphiy = par[MuonResiduals5DOFFitter::kAlignPhiY]; const double alignphiz = par[MuonResiduals5DOFFitter::kAlignPhiZ]; const double residsigma = par[MuonResiduals5DOFFitter::kResidSigma]; const double resslopesigma = par[MuonResiduals5DOFFitter::kResSlopeSigma]; const double alpha = par[MuonResiduals5DOFFitter::kAlpha]; const double residgamma = par[MuonResiduals5DOFFitter::kResidGamma]; const double resslopegamma = par[MuonResiduals5DOFFitter::kResSlopeGamma]; double coeff = alpha; if (fitter->residualsModel() == MuonResidualsFitter::kPureGaussian || fitter->residualsModel() == MuonResidualsFitter::kPureGaussian2D) coeff = 0.; double residpeak = residual_x(alignx, alignz, alignphix, alignphiy, alignphiz, positionX, positionY, angleX, angleY, coeff, resslope); double resslopepeak = residual_dxdz(alignx, alignz, alignphix, alignphiy, alignphiz, positionX, positionY, angleX, angleY); double weight = (1./redchi2) * number_of_hits / sum_of_weights; if (!weight_alignment) weight = 1.; if (!weight_alignment || TMath::Prob(redchi2*8, 8) < 0.99) // no spikes allowed { if (fitter->residualsModel() == MuonResidualsFitter::kPureGaussian) { if (fitter->useRes() == MuonResidualsFitter::k1111 || fitter->useRes() == MuonResidualsFitter::k1110 || fitter->useRes() == MuonResidualsFitter::k1010) { fval += -weight * MuonResidualsFitter_logPureGaussian(residual, residpeak, residsigma); fval += -weight * MuonResidualsFitter_logPureGaussian(resslope, resslopepeak, resslopesigma); } else if (fitter->useRes() == MuonResidualsFitter::k1100) { fval += -weight * MuonResidualsFitter_logPureGaussian(residual, residpeak, residsigma); } else if (fitter->useRes() == MuonResidualsFitter::k0010) { fval += -weight * MuonResidualsFitter_logPureGaussian(resslope, resslopepeak, resslopesigma); } } else if (fitter->residualsModel() == MuonResidualsFitter::kPureGaussian2D) { if (fitter->useRes() == MuonResidualsFitter::k1111 || fitter->useRes() == MuonResidualsFitter::k1110 || fitter->useRes() == MuonResidualsFitter::k1010) { fval += -weight * MuonResidualsFitter_logPureGaussian2D(residual, resslope, residpeak, resslopepeak, residsigma, resslopesigma, alpha); } else if (fitter->useRes() == MuonResidualsFitter::k1100) { fval += -weight * MuonResidualsFitter_logPureGaussian(residual, residpeak, residsigma); } else if (fitter->useRes() == MuonResidualsFitter::k0010) { fval += -weight * MuonResidualsFitter_logPureGaussian(resslope, resslopepeak, resslopesigma); } } else if (fitter->residualsModel() == MuonResidualsFitter::kPowerLawTails) { fval += -weight * MuonResidualsFitter_logPowerLawTails(residual, residpeak, residsigma, residgamma); fval += -weight * MuonResidualsFitter_logPowerLawTails(resslope, resslopepeak, resslopesigma, resslopegamma); } else if (fitter->residualsModel() == MuonResidualsFitter::kROOTVoigt) { fval += -weight * MuonResidualsFitter_logROOTVoigt(residual, residpeak, residsigma, residgamma); fval += -weight * MuonResidualsFitter_logROOTVoigt(resslope, resslopepeak, resslopesigma, resslopegamma); } else if (fitter->residualsModel() == MuonResidualsFitter::kGaussPowerTails) { fval += -weight * MuonResidualsFitter_logGaussPowerTails(residual, residpeak, residsigma); fval += -weight * MuonResidualsFitter_logGaussPowerTails(resslope, resslopepeak, resslopesigma); } else { assert(false); } } } }