TUtil Namespace Reference

Functions
void	applyLeptonMassCorrection (bool flag=true)
void	applyJetMassCorrection (bool flag=true)
void	setLeptonMassScheme (TVar::FermionMassRemoval scheme=TVar::ConserveDifermionMass)
void	setJetMassScheme (TVar::FermionMassRemoval scheme=TVar::ConserveDifermionMass)
void	constrainedRemovePairMass (TLorentzVector &p1, TLorentzVector &p2, double m1=0, double m2=0)
void	scaleMomentumToEnergy (const TLorentzVector &massiveJet, TLorentzVector &masslessJet, double mass=0)
std::pair< TLorentzVector, TLorentzVector >	removeMassFromPair (TLorentzVector const &jet1, int const &jet1Id, TLorentzVector const &jet2, int const &jet2Id, double m1=0, double m2=0)
void	adjustTopDaughters (SimpleParticleCollection_t &daughters)
void	computeFakeJet (TLorentzVector const &realJet, TLorentzVector const &others, TLorentzVector &fakeJet)
std::pair< TLorentzVector, TLorentzVector >	ComplexBoost (TVector3 const &beta, TLorentzVector const &p4)
void	computeAngles (float &costhetastar, float &costheta1, float &costheta2, float &Phi, float &Phi1, TLorentzVector Z1_lept1, int Z1_lept1Id, TLorentzVector Z1_lept2, int Z1_lept2Id, TLorentzVector Z2_lept1, int Z2_lept1Id, TLorentzVector Z2_lept2, int Z2_lept2Id)
void	computeAnglesCS (float const &pbeam, float &costhetastar, float &costheta1, float &costheta2, float &Phi, float &Phi1, TLorentzVector Z1_lept1, int Z1_lept1Id, TLorentzVector Z1_lept2, int Z1_lept2Id, TLorentzVector Z2_lept1, int Z2_lept1Id, TLorentzVector Z2_lept2, int Z2_lept2Id)
void	computeVBFAngles (float &costhetastar, float &costheta1, float &costheta2, float &Phi, float &Phi1, float &Q2V1, float &Q2V2, TLorentzVector p4M11, int Z1_lept1Id, TLorentzVector p4M12, int Z1_lept2Id, TLorentzVector p4M21, int Z2_lept1Id, TLorentzVector p4M22, int Z2_lept2Id, TLorentzVector jet1, int jet1Id, TLorentzVector jet2, int jet2Id, TLorentzVector *injet1=0, int injet1Id=0, TLorentzVector *injet2=0, int injet2Id=0)
void	computeVBFAngles_ComplexBoost (float &costhetastar, float &costheta1_real, float &costheta1_imag, float &costheta2_real, float &costheta2_imag, float &Phi, float &Phi1, float &Q2V1, float &Q2V2, TLorentzVector p4M11, int Z1_lept1Id, TLorentzVector p4M12, int Z1_lept2Id, TLorentzVector p4M21, int Z2_lept1Id, TLorentzVector p4M22, int Z2_lept2Id, TLorentzVector jet1, int jet1Id, TLorentzVector jet2, int jet2Id, TLorentzVector *injet1=0, int injet1Id=0, TLorentzVector *injet2=0, int injet2Id=0)
void	computeVHAngles (float &costhetastar, float &costheta1, float &costheta2, float &Phi, float &Phi1, float &m1, float &m2, TLorentzVector p4M11, int Z1_lept1Id, TLorentzVector p4M12, int Z1_lept2Id, TLorentzVector p4M21, int Z2_lept1Id, TLorentzVector p4M22, int Z2_lept2Id, TLorentzVector jet1, int jet1Id, TLorentzVector jet2, int jet2Id, TLorentzVector *injet1=0, int injet1Id=0, TLorentzVector *injet2=0, int injet2Id=0)
void	computeTTHAngles (float &hs, float &hincoming, float &hTT, float &PhiTT, float &Phi1, float &hbb, float &hWW, float &Phibb, float &Phi1bb, float &hWplusf, float &PhiWplusf, float &hWminusf, float &PhiWminusf, TLorentzVector p4M11, int Z1_lept1Id, TLorentzVector p4M12, int Z1_lept2Id, TLorentzVector p4M21, int Z2_lept1Id, TLorentzVector p4M22, int Z2_lept2Id, TLorentzVector b, int bId, TLorentzVector Wplusf, int WplusfId, TLorentzVector Wplusfb, int WplusfbId, TLorentzVector bbar, int bbarId, TLorentzVector Wminusf, int WminusfId, TLorentzVector Wminusfb, int WminusfbId, TLorentzVector *injet1=0, int injet1Id=0, TLorentzVector *injet2=0, int injet2Id=0)
void	SetEwkCouplingParameters (double ext_Gf, double ext_aemmz, double ext_mW, double ext_mZ, double ext_xW, int ext_ewscheme)
void	SetMass (double inmass, int ipart)
void	SetDecayWidth (double inwidth, int ipart)
double	GetMass (int ipart)
double	GetDecayWidth (int ipart)
double	GetMass (const MELAParticle *part)
double	GetDecayWidth (const MELAParticle *part)
void	GetMassWidth (int ipart, double &m, double &ga)
void	GetMassWidth (const MELAParticle *part, double &m, double &ga)
void	SetCKMElements (double *invckm_ud, double *invckm_us, double *invckm_cd, double *invckm_cs, double *invckm_ts, double *invckm_tb, double *invckm_ub=0, double *invckm_cb=0, double *invckm_td=0)
void	SetMadgraphCKMElements (double ckmlambda=0.2265, double ckma=0.79, double ckmrho=0.141, double ckmeta=0)
double	GetCKMElement (int iquark, int jquark)
std::complex< double >	GetMadgraphCKMElement (int iquark, int jquark)
double	InterpretScaleScheme (const TVar::Production &production, const TVar::MatrixElement &matrixElement, const TVar::EventScaleScheme &scheme, TLorentzVector p[mxpart])
void	SetAlphaS (double &Q_ren, double &Q_fac, double multiplier_ren, double multiplier_fac, int mynloop, int mynflav, std::string mypartons)
void	GetAlphaS (double *alphas_, double *alphasmz_)
bool	MCFM_chooser (const TVar::Process &process, const TVar::Production &production, const TVar::LeptonInterference &leptonInterf, const TVar::VerbosityLevel &verbosity, const TVar::simple_event_record &mela_event)
bool	MCFM_SetupParticleCouplings (const TVar::Process &process, const TVar::Production &production, const TVar::VerbosityLevel &verbosity, const TVar::simple_event_record &mela_event, std::vector< int > *partOrder, std::vector< int > *apartOrder)
TString	GetMCFMParticleLabel (const int &pid, bool useQJ, bool useExtendedConventions)
void	InitJHUGenMELA (const char *pathtoPDFSet, int PDFMember, double collider_sqrts)
void	SetJHUGenHiggsMassWidth (double MReso, double GaReso)
void	SetJHUGenDistinguishWWCouplings (bool doAllow)
void	ResetAmplitudeIncludes ()
void	SetMadgraphSpinZeroCouplings (SpinZeroCouplings const *Hcouplings)
void	SetMCFMSpinZeroCouplings (bool useBSM, SpinZeroCouplings const *Hcouplings, bool forceZZ)
void	SetMCFMaTQGCCouplings (bool useBSM, aTQGCCouplings const *couplings)
void	SetJHUGenSpinZeroVVCouplings (double Hvvcoupl[SIZE_HVV][2], double Hvvpcoupl[SIZE_HVV][2], double Hvpvpcoupl[SIZE_HVV][2], int Hvvcoupl_cqsq[SIZE_HVV_CQSQ], double HvvLambda_qsq[SIZE_HVV_LAMBDAQSQ][SIZE_HVV_CQSQ], bool useWWcoupl)
void	SetJHUGenSpinZeroGGCouplings (double Hggcoupl[SIZE_HGG][2])
void	SetJHUGenSpinZeroQQCouplings (double Hqqcoupl[SIZE_HQQ][2])
void	SetJHUGenSpinOneCouplings (double Zqqcoupl[SIZE_ZQQ][2], double Zvvcoupl[SIZE_ZVV][2])
void	SetJHUGenSpinTwoCouplings (double Gacoupl[SIZE_GGG][2], double Gvvcoupl[SIZE_GVV][2], double Gvvpcoupl[SIZE_GVV][2], double Gvpvpcoupl[SIZE_GVV][2], double qLeftRightcoupl[SIZE_GQQ][2])
void	SetJHUGenVprimeContactCouplings (double Zpffcoupl[SIZE_Vpff][2], double Wpffcoupl[SIZE_Vpff][2])
void	SetMCFMAZffCouplings (bool useBSM, AZffCouplings const *Zcouplings)
void	SetJHUGenAZffCouplings (bool needAZff, double AZffcoupl[SIZE_AZff][2])
bool	MCFM_masscuts (double s[][mxpart], const TVar::Process &process)
bool	MCFM_smalls (double s[][mxpart], int npart)
double	SumMatrixElementPDF (const TVar::Process &process, const TVar::Production &production, const TVar::MatrixElement &matrixElement, const TVar::LeptonInterference &leptonInterf, TVar::event_scales_type *event_scales, MelaIO *RcdME, const double &EBEAM, TVar::VerbosityLevel verbosity)
double	JHUGenMatEl (const TVar::Process &process, const TVar::Production &production, const TVar::MatrixElement &matrixElement, TVar::event_scales_type *event_scales, MelaIO *RcdME, const double &EBEAM, TVar::VerbosityLevel verbosity)
double	MadgraphMatEl (const TVar::Process &process, const TVar::Production &production, const TVar::MatrixElement &matrixElement, TVar::event_scales_type *event_scales, MelaIO *RcdME, const double &EBEAM, TVar::VerbosityLevel verbosity)
double	HJJMatEl (const TVar::Process &process, const TVar::Production &production, const TVar::MatrixElement &matrixElement, TVar::event_scales_type *event_scales, MelaIO *RcdME, const double &EBEAM, TVar::VerbosityLevel verbosity)
double	VHiggsMatEl (const TVar::Process &process, const TVar::Production &production, const TVar::MatrixElement &matrixElement, TVar::event_scales_type *event_scales, MelaIO *RcdME, const double &EBEAM, bool includeHiggsDecay, TVar::VerbosityLevel verbosity)
double	TTHiggsMatEl (const TVar::Process &process, const TVar::Production &production, const TVar::MatrixElement &matrixElement, TVar::event_scales_type *event_scales, MelaIO *RcdME, const double &EBEAM, int topDecay, int topProcess, TVar::VerbosityLevel verbosity)
double	BBHiggsMatEl (const TVar::Process &process, const TVar::Production &production, const TVar::MatrixElement &matrixElement, TVar::event_scales_type *event_scales, MelaIO *RcdME, const double &EBEAM, int botProcess, TVar::VerbosityLevel verbosity)
int	WipeMEArray (const TVar::Process &process, const TVar::Production &production, const int id[mxpart], double msq[nmsq][nmsq], const TVar::VerbosityLevel &verbosity)
bool	CheckPartonMomFraction (const TLorentzVector &p0, const TLorentzVector &p1, double xx[2], const double &EBEAM, const TVar::VerbosityLevel &verbosity)
void	ComputePDF (const TLorentzVector &p0, const TLorentzVector &p1, double fx1[nmsq], double fx2[nmsq], const double &EBEAM, const TVar::VerbosityLevel &verbosity)
double	SumMEPDF (const TLorentzVector &p0, const TLorentzVector &p1, double msq[nmsq][nmsq], MelaIO *RcdME, const double &EBEAM, const TVar::VerbosityLevel &verbosity)
double	ResonancePropagator (double const &sqrts, TVar::ResonancePropagatorScheme scheme)
void	GetBoostedParticleVectors (MELACandidate *melaCand, TVar::simple_event_record &mela_event, TVar::VerbosityLevel verbosity=TVar::DEBUG)
MELACandidate *	ConvertVectorFormat (SimpleParticleCollection_t *pDaughters, SimpleParticleCollection_t *pAssociated, SimpleParticleCollection_t *pMothers, bool isGen, std::vector< MELAParticle * > *particleList, std::vector< MELACandidate * > *candList)
MELAThreeBodyDecayCandidate *	ConvertThreeBodyDecayCandidate (SimpleParticleCollection_t *tbdDaughters, std::vector< MELAParticle * > *particleList, std::vector< MELAThreeBodyDecayCandidate * > *tbdCandList)
void	PrintCandidateSummary (MELACandidate *cand)
void	PrintCandidateSummary (TVar::simple_event_record *cand)

Variables
bool	forbidMassiveLeptons = true
	Remove fermion mass if the flag is set to true. More...
bool	forbidMassiveJets = true
TVar::FermionMassRemoval	LeptonMassScheme = TVar::ConserveDifermionMass
TVar::FermionMassRemoval	JetMassScheme = TVar::ConserveDifermionMass

Function Documentation

adjustTopDaughters()

void TUtil::adjustTopDaughters

(

SimpleParticleCollection_t &

daughters

)

Definition at line 134 of file TUtil.cc.

                                                                   { // Daughters are arranged as b, Wf, Wfb
  if (daughters.size()!=3) return; // Cannot work if the number of daughters is not exactly 3.
  pair<TLorentzVector, TLorentzVector> corrWpair = TUtil::removeMassFromPair(
    daughters.at(1).second, daughters.at(1).first,
    daughters.at(2).second, daughters.at(2).first
    );
  daughters.at(1).second = corrWpair.first;
  daughters.at(2).second = corrWpair.second;
  TLorentzVector pW = daughters.at(1).second+daughters.at(2).second;
  TVector3 pW_boost_old = -pW.BoostVector();
  pair<TLorentzVector, TLorentzVector> corrbW = TUtil::removeMassFromPair(
    daughters.at(0).second, daughters.at(0).first,
    pW, -daughters.at(0).first, // Trick the function
    0., pW.M() // Conserve W mass, ensures Wf+Wfb=W after re-boosting Wf and Wfb to the new W frame.
    );
  daughters.at(0).second=corrbW.first;
  pW=corrbW.second;
  TVector3 pW_boost_new = pW.BoostVector();
  for (unsigned int idau=1; idau<daughters.size(); idau++){
    daughters.at(idau).second.Boost(pW_boost_old);
    daughters.at(idau).second.Boost(pW_boost_new);
  }
}

applyJetMassCorrection()

void TUtil::applyJetMassCorrection

(

bool

flag = true

)

Definition at line 38 of file TUtil.cc.

{ TUtil::forbidMassiveJets = flag; }

applyLeptonMassCorrection()

void TUtil::applyLeptonMassCorrection

(

bool

flag = true

)

Definition at line 37 of file TUtil.cc.

{ TUtil::forbidMassiveLeptons = flag; }

BBHiggsMatEl()

double TUtil::BBHiggsMatEl	(	const TVar::Process &	process,
		const TVar::Production &	production,
		const TVar::MatrixElement &	matrixElement,
		TVar::event_scales_type *	event_scales,
		MelaIO *	RcdME,
		const double &	EBEAM,
		int	botProcess,
		TVar::VerbosityLevel	verbosity
	)

Definition at line 7827 of file TUtil.cc.

   {
  const double GeV=1./100.; // JHUGen mom. scale factor
  double sum_msqjk = 0;
  double MatElsq[nmsq][nmsq]={ { 0 } };
  double MatElsq_tmp[nmsq][nmsq]={ { 0 } };
 
  if (matrixElement!=TVar::JHUGen){ if (verbosity>=TVar::ERROR) MELAerr << "TUtil::BBHiggsMatEl: Non-JHUGen MEs are not supported." << endl; return sum_msqjk; }
  if (production!=TVar::bbH){ if (verbosity>=TVar::ERROR) MELAerr << "TUtil::BBHiggsMatEl: Only bbH is supported." << endl; return sum_msqjk; }
 
  int partIncCode=TVar::kUseAssociated_Jets; // Look for jets
  int nRequested_AssociatedJets=2;
 
  simple_event_record mela_event;
  mela_event.AssociationCode=partIncCode;
  mela_event.nRequested_AssociatedJets=nRequested_AssociatedJets;
  GetBoostedParticleVectors(
    RcdME->melaCand,
    mela_event,
    verbosity
    );
 
  if (mela_event.pAssociated.size()<2){
    if (verbosity>=TVar::ERROR) MELAerr
      << "TUtil::BBHiggsMatEl: Number of stable bs (" << mela_event.pAssociated.size() << ")"
      <<" in bbH process is not 2!" << endl;
    return sum_msqjk;
  }
 
  SimpleParticleCollection_t topDaughters;
  SimpleParticleCollection_t antitopDaughters;
  bool isUnknown[2]; isUnknown[0]=false; isUnknown[1]=false;
 
  if (mela_event.pAssociated.at(0).first>=0){ topDaughters.push_back(mela_event.pAssociated.at(0)); isUnknown[0]=(PDGHelpers::isAnUnknownJet(mela_event.pAssociated.at(0).first)); }
  else antitopDaughters.push_back(mela_event.pAssociated.at(0));
  if (mela_event.pAssociated.at(1).first<=0){ antitopDaughters.push_back(mela_event.pAssociated.at(1)); isUnknown[1]=(PDGHelpers::isAnUnknownJet(mela_event.pAssociated.at(1).first)); }
  else topDaughters.push_back(mela_event.pAssociated.at(1));
 
  // Start assigning the momenta
  // 0,1: p1 p2
  // 2-4: H,tb,t
  // 5-8: bb,W-,f,fb
  // 9-12: b,W+,fb,f
  double p4[13][4]={ { 0 } };
  double MYIDUP_prod[2]={ 0 };
  TLorentzVector MomStore[mxpart];
  for (int i = 0; i < mxpart; i++) MomStore[i].SetXYZT(0, 0, 0, 0);
  for (int ipar=0; ipar<2; ipar++){
    TLorentzVector* momTmp = &(mela_event.pMothers.at(ipar).second);
    int* idtmp = &(mela_event.pMothers.at(ipar).first);
    if (!PDGHelpers::isAnUnknownJet(*idtmp)) MYIDUP_prod[ipar] = *idtmp;
    else MYIDUP_prod[ipar] = 0;
    if (momTmp->T()>0.){
      p4[ipar][0] = -momTmp->T()*GeV;
      p4[ipar][1] = -momTmp->X()*GeV;
      p4[ipar][2] = -momTmp->Y()*GeV;
      p4[ipar][3] = -momTmp->Z()*GeV;
      MomStore[ipar] = (*momTmp);
    }
    else{
      p4[ipar][0] = momTmp->T()*GeV;
      p4[ipar][1] = momTmp->X()*GeV;
      p4[ipar][2] = momTmp->Y()*GeV;
      p4[ipar][3] = momTmp->Z()*GeV;
      MomStore[ipar] = -(*momTmp);
      MYIDUP_prod[ipar] = -MYIDUP_prod[ipar];
    }
  }
 
  // Assign b momenta
  for (unsigned int ipar=0; ipar<topDaughters.size(); ipar++){
    TLorentzVector* momTmp = &(topDaughters.at(ipar).second);
    p4[4][0] = momTmp->T()*GeV;
    p4[4][1] = momTmp->X()*GeV;
    p4[4][2] = momTmp->Y()*GeV;
    p4[4][3] = momTmp->Z()*GeV;
    MomStore[6] = MomStore[6] + (*momTmp); // MomStore (I1, I2, 0, 0, 0, H, J1, J2)
  }
 
  // Assign bb momenta
  for (unsigned int ipar=0; ipar<antitopDaughters.size(); ipar++){
    TLorentzVector* momTmp = &(antitopDaughters.at(ipar).second);
    p4[3][0] = momTmp->T()*GeV;
    p4[3][1] = momTmp->X()*GeV;
    p4[3][2] = momTmp->Y()*GeV;
    p4[3][3] = momTmp->Z()*GeV;
    MomStore[7] = MomStore[7] + (*momTmp); // MomStore (I1, I2, 0, 0, 0, H, J1, J2)
  }
 
  for (unsigned int ipar=0; ipar<mela_event.pDaughters.size(); ipar++){
    TLorentzVector* momTmp = &(mela_event.pDaughters.at(ipar).second);
    p4[2][0] += momTmp->T()*GeV;
    p4[2][1] += momTmp->X()*GeV;
    p4[2][2] += momTmp->Y()*GeV;
    p4[2][3] += momTmp->Z()*GeV;
    MomStore[5] = MomStore[5] + (*momTmp); // i==(2, 3, 4) is (J1, J2, H), recorded as MomStore (I1, I2, 0, 0, 0, H, J1, J2)
  }
 
  if (verbosity >= TVar::DEBUG){
    for (int ii=0; ii<13; ii++){ MELAout << "p4[" << ii << "] = "; for (int jj=0; jj<4; jj++) MELAout << p4[ii][jj]/GeV << '\t'; MELAout << endl; }
  }
 
  double defaultRenScale = scale_.scale;
  double defaultFacScale = facscale_.facscale;
  //MELAout << "Default scales: " << defaultRenScale << '\t' << defaultFacScale << endl;
  int defaultNloop = nlooprun_.nlooprun;
  int defaultNflav = nflav_.nflav;
  string defaultPdflabel = pdlabel_.pdlabel;
  double renQ = InterpretScaleScheme(production, matrixElement, event_scales->renomalizationScheme, MomStore);
  double facQ = InterpretScaleScheme(production, matrixElement, event_scales->factorizationScheme, MomStore);
  SetAlphaS(renQ, facQ, event_scales->ren_scale_factor, event_scales->fac_scale_factor, 1, 5, "cteq6_l");
  double alphasVal, alphasmzVal;
  GetAlphaS(&alphasVal, &alphasmzVal);
  RcdME->setRenormalizationScale(renQ);
  RcdME->setFactorizationScale(facQ);
  RcdME->setAlphaS(alphasVal);
  RcdME->setAlphaSatMZ(alphasmzVal);
  RcdME->setHiggsMassWidth(masses_mcfm_.hmass, masses_mcfm_.hwidth, 0);
  RcdME->setHiggsMassWidth(spinzerohiggs_anomcoupl_.h2mass, spinzerohiggs_anomcoupl_.h2width, 1);
  if (verbosity>=TVar::DEBUG){
    MELAout
      << "TUtil::BBHiggsMatEl: Set AlphaS:\n"
      << "\tBefore set, alphas scale: " << defaultRenScale << ", PDF scale: " << defaultFacScale << '\n'
      << "\trenQ: " << renQ << " ( x " << event_scales->ren_scale_factor << "), facQ: " << facQ << " ( x " << event_scales->fac_scale_factor << ")\n"
      << "\tAfter set, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << ", alphas(Qren): " << alphasVal << ", alphas(MZ): " << alphasmzVal << endl;
  }
 
  __modttbhiggs_MOD_evalxsec_pp_bbbh(p4, &botProcess, MatElsq);
  if (isUnknown[0] && isUnknown[1]){
    for (unsigned int ix=0; ix<4; ix++) swap(p4[3][ix], p4[4][ix]);
    __modttbhiggs_MOD_evalxsec_pp_bbbh(p4, &botProcess, MatElsq_tmp);
    for (int ix=0; ix<11; ix++){ for (int iy=0; iy<11; iy++) MatElsq[iy][ix] = (MatElsq[iy][ix]+MatElsq_tmp[iy][ix])/2.; }
  }
 
  int GeVexponent_MEsq = 4-(1+nRequested_AssociatedJets)*2;
  double constant = pow(GeV, -GeVexponent_MEsq);
  for (int ii=0; ii<nmsq; ii++){ for (int jj=0; jj<nmsq; jj++) MatElsq[jj][ii] *= constant; }
  if (verbosity>=TVar::DEBUG){
    MELAout << "TUtil::BBHiggsMatEl: MEsq[ip][jp] = " << endl;
    for (int iquark=-5; iquark<=5; iquark++){
      for (int jquark=-5; jquark<=5; jquark++) MELAout << MatElsq[jquark+5][iquark+5] << '\t';
      MELAout << endl;
    }
  }
  sum_msqjk = SumMEPDF(MomStore[0], MomStore[1], MatElsq, RcdME, EBEAM, verbosity);
 
  if (verbosity>=TVar::DEBUG){
    MELAout
      << "TUtil::BBHiggsMatEl: Reset AlphaS:\n"
      << "\tBefore reset, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << endl;
  }
  SetAlphaS(defaultRenScale, defaultFacScale, 1., 1., defaultNloop, defaultNflav, defaultPdflabel);
  if (verbosity>=TVar::DEBUG){
    GetAlphaS(&alphasVal, &alphasmzVal);
    MELAout
      << "TUtil::BBHiggsMatEl: Reset AlphaS result:\n"
      << "\tAfter reset, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << ", alphas(Qren): " << alphasVal << ", alphas(MZ): " << alphasmzVal << endl;
  }
  return sum_msqjk;
}

CheckPartonMomFraction()

bool TUtil::CheckPartonMomFraction	(	const TLorentzVector &	p0,
		const TLorentzVector &	p1,
		double	xx[2],
		const double &	EBEAM,
		const TVar::VerbosityLevel &	verbosity
	)

Definition at line 8117 of file TUtil.cc.

                                                                                                                                                            {
  //Make sure parton Level Energy fraction is [0,1]
  //phase space function already makes sure the parton energy fraction between [min,1]
  xx[0]=p0.P()/EBEAM;
  xx[1]=p1.P()/EBEAM;
  if (
    xx[0]>1. || xx[0]<=xmin_.xmin
    ||
    xx[1]>1. || xx[1]<=xmin_.xmin
    ||
    EBEAM<=0.
    ){
    if (verbosity>=TVar::ERROR){
      if (xx[0]>1. || xx[1]>1.) MELAerr << "TUtil::CheckPartonMomFraction: At least one of the parton momentum fractions is greater than 1." << endl;
      else if (xx[0]<=xmin_.xmin || xx[1]<=xmin_.xmin) MELAerr << "TUtil::CheckPartonMomFraction: At least one of the parton momentum fractions is less than or equal to " << xmin_.xmin << "." << endl;
      else MELAerr << "TUtil::CheckPartonMomFraction: EBEAM=" << EBEAM << "<=0." << endl;
    }
    return false;
  }
  else{
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::CheckPartonMomFraction: xx[0]: " << xx[0] << ", xx[1] = " << xx[1] << ", xmin = " << xmin_.xmin << endl;
    return true;
  }
}

ComplexBoost()

std::pair< TLorentzVector, TLorentzVector > TUtil::ComplexBoost	(	TVector3 const &	beta,
		TLorentzVector const &	p4
	)

Definition at line 168 of file TUtil.cc.

                                                                                                         {
  double bx=beta.X();
  double by=beta.Y();
  double bz=beta.Z();
  double b2 = bx*bx + by*by + bz*bz;
  double gammasqinv = 1.-b2;
  double gamma=0.;
 
  double bp = bx*p4.X() + by*p4.Y() + bz*p4.Z();
  double gammap_real=0;
  double gammap_imag=0;
  TLorentzVector p4new_real(0, 0, 0, 0), p4new_imag(0, 0, 0, 0);
  if (gammasqinv>0.){
    gamma = 1./sqrt(gammasqinv);
    if (b2>0.) gammap_real = (gamma-1.)/b2;
 
    p4new_real.SetX(p4.X() + gammap_real*bp*bx + gamma*bx*p4.T());
    p4new_real.SetY(p4.Y() + gammap_real*bp*by + gamma*by*p4.T());
    p4new_real.SetZ(p4.Z() + gammap_real*bp*bz + gamma*bz*p4.T());
    p4new_real.SetT(gamma*(p4.T() + bp));
  }
  else if (gammasqinv<0.){
    gamma = -1./sqrt(-gammasqinv);
    if (b2>0.){
      gammap_real = -1./b2;
      gammap_imag = gamma/b2;
    }
 
    p4new_real.SetX(p4.X() + gammap_real*bp*bx);
    p4new_real.SetY(p4.Y() + gammap_real*bp*by);
    p4new_real.SetZ(p4.Z() + gammap_real*bp*bz);
    p4new_real.SetT(0.);
    p4new_imag.SetX(gammap_imag*bp*bx + gamma*bx*p4.T());
    p4new_imag.SetY(gammap_imag*bp*by + gamma*by*p4.T());
    p4new_imag.SetZ(gammap_imag*bp*bz + gamma*bz*p4.T());
    p4new_imag.SetT(gamma*(p4.T() + bp));
  }
 
  return (pair<TLorentzVector, TLorentzVector>(p4new_real, p4new_imag));
}

computeAngles()

void TUtil::computeAngles	(	float &	costhetastar,
		float &	costheta1,
		float &	costheta2,
		float &	Phi,
		float &	Phi1,
		TLorentzVector	Z1_lept1,
		int	Z1_lept1Id,
		TLorentzVector	Z1_lept2,
		int	Z1_lept2Id,
		TLorentzVector	Z2_lept1,
		int	Z2_lept1Id,
		TLorentzVector	Z2_lept2,
		int	Z2_lept2Id
	)

Compute decay angles from the lepton four-vectors and pdgIds.
Theta1 is the angle corresponding to Z1. Z1_lept1 and Z1_lept2 are supposed to come from the same Z. Leptons are re-ordered internally according to a standard convention: lept1 = negative-charged lepton (for OS pairs).

Definition at line 210 of file TUtil.cc.

   {
  TLorentzVector const nullFourVector(0, 0, 0, 0);
  if (p4M12==nullFourVector || p4M22==nullFourVector){
    pair<TLorentzVector, TLorentzVector> f13Pair = TUtil::removeMassFromPair(p4M11, Z1_lept1Id, p4M21, Z2_lept1Id);
    p4M11 = f13Pair.first;
    p4M21 = f13Pair.second;
  }
  else if (p4M11==nullFourVector || p4M21==nullFourVector){
    pair<TLorentzVector, TLorentzVector> f24Pair = TUtil::removeMassFromPair(p4M12, Z1_lept2Id, p4M22, Z2_lept2Id);
    p4M12 = f24Pair.first;
    p4M22 = f24Pair.second;
  }
  else{
    pair<TLorentzVector, TLorentzVector> f12Pair = TUtil::removeMassFromPair(p4M11, Z1_lept1Id, p4M12, Z1_lept2Id);
    pair<TLorentzVector, TLorentzVector> f34Pair = TUtil::removeMassFromPair(p4M21, Z2_lept1Id, p4M22, Z2_lept2Id);
    p4M11 = f12Pair.first;
    p4M12 = f12Pair.second;
    p4M21 = f34Pair.first;
    p4M22 = f34Pair.second;
  }
 
  //build Z 4-vectors
  TLorentzVector p4Z1 = p4M11 + p4M12;
  TLorentzVector p4Z2 = p4M21 + p4M22;
 
  // Sort Z1 leptons so that...
  if (
    Z1_lept2Id!=-9000
    &&
    (
    (Z1_lept1Id*Z1_lept2Id<0 && Z1_lept1Id<0) // ...for OS pairs, lep1 is the particle.
    ||
    ((Z1_lept1Id*Z1_lept2Id>0 || (Z1_lept1Id==0 && Z1_lept2Id==0)) && p4M11.Phi()<=p4M12.Phi()) // ...for SS pairs, a random deterministic convention is used.
    )
    ) swap(p4M11, p4M12);
  // Same for Z2 leptons
  if (
    Z2_lept2Id!=-9000
    &&
    (
    (Z2_lept1Id*Z2_lept2Id<0 && Z2_lept1Id<0)
    ||
    ((Z2_lept1Id*Z2_lept2Id>0 || (Z2_lept1Id==0 && Z2_lept2Id==0)) && p4M21.Phi()<=p4M22.Phi())
    )
    ) swap(p4M21, p4M22);
 
  // BEGIN THE CALCULATION
 
  // build H 4-vectors
  TLorentzVector p4H = p4Z1 + p4Z2;
 
  // -----------------------------------
 
  TVector3 boostX = -(p4H.BoostVector());
  TLorentzVector thep4Z1inXFrame(p4Z1);
  TLorentzVector thep4Z2inXFrame(p4Z2);
  thep4Z1inXFrame.Boost(boostX);
  thep4Z2inXFrame.Boost(boostX);
  TVector3 theZ1X_p3 = thep4Z1inXFrame.Vect();
  TVector3 theZ2X_p3 = thep4Z2inXFrame.Vect();
  costhetastar = theZ1X_p3.CosTheta();
 
  TVector3 boostV1(0, 0, 0);
  TVector3 boostV2(0, 0, 0);
  if (!(fabs(Z1_lept1Id)==21 || fabs(Z1_lept1Id)==22 || fabs(Z1_lept2Id)==21 || fabs(Z1_lept2Id)==22)){
    boostV1 = -(p4Z1.BoostVector());
    if (boostV1.Mag()>=1.) {
      MELAout << "Warning: Mela::computeAngles: Z1 boost with beta=1, scaling down" << endl;
      boostV1*=0.9999/boostV1.Mag();
    }
    TLorentzVector p4M11_BV1(p4M11);
    TLorentzVector p4M12_BV1(p4M12);
    TLorentzVector p4M21_BV1(p4M21);
    TLorentzVector p4M22_BV1(p4M22);
    p4M11_BV1.Boost(boostV1);
    p4M12_BV1.Boost(boostV1);
    p4M21_BV1.Boost(boostV1);
    p4M22_BV1.Boost(boostV1);
 
    TLorentzVector p4V2_BV1 = p4M21_BV1 + p4M22_BV1;
    costheta1 = -p4V2_BV1.Vect().Unit().Dot(p4M11_BV1.Vect().Unit());
  }
  else costheta1 = 0;
 
  if (!(fabs(Z2_lept1Id)==21 || fabs(Z2_lept1Id)==22 || fabs(Z2_lept2Id)==21 || fabs(Z2_lept2Id)==22)){
    boostV2 = -(p4Z2.BoostVector());
    if (boostV2.Mag()>=1.) {
      MELAout << "Warning: Mela::computeAngles: Z2 boost with beta=1, scaling down" << endl;
      boostV2*=0.9999/boostV2.Mag();
    }
    TLorentzVector p4M11_BV2(p4M11);
    TLorentzVector p4M12_BV2(p4M12);
    TLorentzVector p4M21_BV2(p4M21);
    TLorentzVector p4M22_BV2(p4M22);
    p4M11_BV2.Boost(boostV2);
    p4M12_BV2.Boost(boostV2);
    p4M21_BV2.Boost(boostV2);
    p4M22_BV2.Boost(boostV2);
 
    TLorentzVector p4V1_BV2 = p4M11_BV2 + p4M12_BV2;
    costheta2 = -p4V1_BV2.Vect().Unit().Dot(p4M21_BV2.Vect().Unit());
  }
  else costheta2 = 0;
 
  TLorentzVector p4M11_BX(p4M11);
  TLorentzVector p4M12_BX(p4M12);
  TLorentzVector p4M21_BX(p4M21);
  TLorentzVector p4M22_BX(p4M22);
 
  p4M11_BX.Boost(boostX);
  p4M12_BX.Boost(boostX);
  p4M21_BX.Boost(boostX);
  p4M22_BX.Boost(boostX);
  TLorentzVector p4V1_BX = p4M11_BX + p4M12_BX;
 
  TVector3 const beamAxis(0, 0, 1);
  TVector3 p3V1_BX = p4V1_BX.Vect().Unit();
  TVector3 normal1_BX = (p4M11_BX.Vect().Cross(p4M12_BX.Vect())).Unit();
  TVector3 normal2_BX = (p4M21_BX.Vect().Cross(p4M22_BX.Vect())).Unit();
  TVector3 normalSC_BX = (beamAxis.Cross(p3V1_BX)).Unit();
 
 
  float tmpSgnPhi = p3V1_BX.Dot(normal1_BX.Cross(normal2_BX));
  float sgnPhi = 0;
  if (fabs(tmpSgnPhi)>0.) sgnPhi = tmpSgnPhi/fabs(tmpSgnPhi);
  float dot_BX12 = normal1_BX.Dot(normal2_BX);
  if (fabs(dot_BX12)>=1.) dot_BX12 *= 1./fabs(dot_BX12);
  Phi = sgnPhi * acos(-1.*dot_BX12);
 
 
  float tmpSgnPhi1 = p3V1_BX.Dot(normal1_BX.Cross(normalSC_BX));
  float sgnPhi1 = 0;
  if (fabs(tmpSgnPhi1)>0.) sgnPhi1 = tmpSgnPhi1/fabs(tmpSgnPhi1);
  float dot_BX1SC = normal1_BX.Dot(normalSC_BX);
  if (fabs(dot_BX1SC)>=1.) dot_BX1SC *= 1./fabs(dot_BX1SC);
  Phi1 = sgnPhi1 * acos(dot_BX1SC);
 
  if (isnan(costhetastar) || isnan(costheta1) || isnan(costheta2) || isnan(Phi) || isnan(Phi1)){
    MELAout << "WARNING: NaN in computeAngles: "
      << costhetastar << " "
      << costheta1  << " "
      << costheta2  << " "
      << Phi  << " "
      << Phi1  << " " << endl;
    MELAout << "   boostV1: " <<boostV1.Pt() << " " << boostV1.Eta() << " " << boostV1.Phi() << " " << boostV1.Mag() << endl;
    MELAout << "   boostV2: " <<boostV2.Pt() << " " << boostV2.Eta() << " " << boostV2.Phi() << " " << boostV2.Mag() << endl;
  }
}

computeAnglesCS()

void TUtil::computeAnglesCS	(	float const &	pbeam,
		float &	costhetastar,
		float &	costheta1,
		float &	costheta2,
		float &	Phi,
		float &	Phi1,
		TLorentzVector	Z1_lept1,
		int	Z1_lept1Id,
		TLorentzVector	Z1_lept2,
		int	Z1_lept2Id,
		TLorentzVector	Z2_lept1,
		int	Z2_lept1Id,
		TLorentzVector	Z2_lept2,
		int	Z2_lept2Id
	)

Definition at line 376 of file TUtil.cc.

   {
  TLorentzVector const nullFourVector(0, 0, 0, 0);
  if (p4M12==nullFourVector || p4M22==nullFourVector){
    pair<TLorentzVector, TLorentzVector> f13Pair = TUtil::removeMassFromPair(p4M11, Z1_lept1Id, p4M21, Z2_lept1Id);
    p4M11 = f13Pair.first;
    p4M21 = f13Pair.second;
  }
  else if (p4M11==nullFourVector || p4M21==nullFourVector){
    pair<TLorentzVector, TLorentzVector> f24Pair = TUtil::removeMassFromPair(p4M12, Z1_lept2Id, p4M22, Z2_lept2Id);
    p4M12 = f24Pair.first;
    p4M22 = f24Pair.second;
  }
  else{
    pair<TLorentzVector, TLorentzVector> f12Pair = TUtil::removeMassFromPair(p4M11, Z1_lept1Id, p4M12, Z1_lept2Id);
    pair<TLorentzVector, TLorentzVector> f34Pair = TUtil::removeMassFromPair(p4M21, Z2_lept1Id, p4M22, Z2_lept2Id);
    p4M11 = f12Pair.first;
    p4M12 = f12Pair.second;
    p4M21 = f34Pair.first;
    p4M22 = f34Pair.second;
  }
 
  TVector3 LabXaxis(1.0, 0.0, 0.0);
  TVector3 LabYaxis(0.0, 1.0, 0.0);
  TVector3 LabZaxis(0.0, 0.0, 1.0);
 
  float Mprot = 0.938;
  float Ebeam = sqrt(pbeam*pbeam + Mprot*Mprot);
 
  TLorentzVector targ(0., 0., -pbeam, Ebeam);
  TLorentzVector beam(0., 0., pbeam, Ebeam);
 
  //build Z 4-vectors
  TLorentzVector p4Z1 = p4M11 + p4M12;
  TLorentzVector p4Z2 = p4M21 + p4M22;
 
  // Sort Z1 leptons so that:
  if (
    Z1_lept2Id!=9000
    &&
    (
    (Z1_lept1Id*Z1_lept2Id<0 && Z1_lept1Id<0) // for OS pairs: lep1 must be the negative one
    ||
    ((Z1_lept1Id*Z1_lept2Id>0 || (Z1_lept1Id==0 && Z1_lept2Id==0)) && p4M11.Phi()<=p4M12.Phi()) //for SS pairs: use random deterministic convention
    )
    ) swap(p4M11, p4M12);
  // Same for Z2 leptons
  if (
    Z2_lept2Id!=9000
    &&
    (
    (Z2_lept1Id*Z2_lept2Id<0 && Z2_lept1Id<0)
    ||
    ((Z2_lept1Id*Z2_lept2Id>0 || (Z2_lept1Id==0 && Z2_lept2Id==0)) && p4M21.Phi()<=p4M22.Phi())
    )
    ) swap(p4M21, p4M22);
 
 
  //build H 4-vectors
  TLorentzVector p4H = p4Z1 + p4Z2;
  TVector3 boostX = -(p4H.BoostVector());
 
  // Collin-Sopper calculation:
  // in the CS frame, the z-axis is along the bisectrice of one beam and the opposite of the other beam,
  // after their boost in X
  // Rotation for the CS Frame
 
  TRotation rotationCS;
 
  TLorentzVector beaminX(beam);
  TLorentzVector targinX(targ);
  targinX.Boost(boostX);
  beaminX.Boost(boostX);
 
  //Bisectrice: sum of unit vectors (remember: you need to invert one beam vector)
  TVector3 beam_targ_bisecinX((beaminX.Vect().Unit() - targinX.Vect().Unit()).Unit());
 
  // Define a rotationCS Matrix, with Z along the bisectric, 
  TVector3 newZaxisCS(beam_targ_bisecinX.Unit());
  TVector3 newYaxisCS(beaminX.Vect().Unit().Cross(newZaxisCS).Unit());
  TVector3 newXaxisCS(newYaxisCS.Unit().Cross(newZaxisCS).Unit());
  rotationCS.RotateAxes(newXaxisCS, newYaxisCS, newZaxisCS);
  rotationCS.Invert();
 
  TLorentzVector thep4Z1inXFrame_rotCS(p4Z1);
  TLorentzVector thep4Z2inXFrame_rotCS(p4Z2);
  thep4Z1inXFrame_rotCS.Transform(rotationCS);
  thep4Z2inXFrame_rotCS.Transform(rotationCS);
  thep4Z1inXFrame_rotCS.Boost(boostX);
  thep4Z2inXFrame_rotCS.Boost(boostX);
  TVector3 theZ1XrotCS_p3 = TVector3(thep4Z1inXFrame_rotCS.X(), thep4Z1inXFrame_rotCS.Y(), thep4Z1inXFrame_rotCS.Z());
  costhetastar = theZ1XrotCS_p3.CosTheta();
 
  //    TVector3 boostX = -(thep4H.BoostVector());
  TLorentzVector p4M11_BX_rotCS(p4M11);
  TLorentzVector p4M12_BX_rotCS(p4M12);
  TLorentzVector p4M21_BX_rotCS(p4M21);
  TLorentzVector p4M22_BX_rotCS(p4M22);
  p4M11_BX_rotCS.Transform(rotationCS);
  p4M12_BX_rotCS.Transform(rotationCS);
  p4M21_BX_rotCS.Transform(rotationCS);
  p4M22_BX_rotCS.Transform(rotationCS);
  p4M11_BX_rotCS.Boost(boostX);
  p4M12_BX_rotCS.Boost(boostX);
  p4M21_BX_rotCS.Boost(boostX);
  p4M22_BX_rotCS.Boost(boostX);
 
  TLorentzVector p4Z1_BX_rotCS = p4M11_BX_rotCS + p4M12_BX_rotCS;
  TVector3 p3V1_BX_rotCS = (p4Z1_BX_rotCS.Vect()).Unit();
  TVector3 const beamAxis(0, 0, 1);
  TVector3 normal1_BX_rotCS = (p4M11_BX_rotCS.Vect().Cross(p4M12_BX_rotCS.Vect())).Unit();
  TVector3 normal2_BX_rotCS = (p4M21_BX_rotCS.Vect().Cross(p4M22_BX_rotCS.Vect())).Unit();
  TVector3 normalSC_BX_rotCS = (beamAxis.Cross(p3V1_BX_rotCS)).Unit();
 
  float tmpSgnPhi = p3V1_BX_rotCS.Dot(normal1_BX_rotCS.Cross(normal2_BX_rotCS));
  float sgnPhi = 0;
  if (fabs(tmpSgnPhi)>0.) sgnPhi = tmpSgnPhi/fabs(tmpSgnPhi);
  float dot_BX12 = normal1_BX_rotCS.Dot(normal2_BX_rotCS);
  if (fabs(dot_BX12)>=1.) dot_BX12 *= 1./fabs(dot_BX12);
  Phi = sgnPhi * acos(-1.*dot_BX12);
 
  float tmpSgnPhi1 = p3V1_BX_rotCS.Dot(normal1_BX_rotCS.Cross(normalSC_BX_rotCS));
  float sgnPhi1 = 0;
  if (fabs(tmpSgnPhi1)>0.) sgnPhi1 = tmpSgnPhi1/fabs(tmpSgnPhi1);
  float dot_BX1SC = normal1_BX_rotCS.Dot(normalSC_BX_rotCS);
  if (fabs(dot_BX1SC)>=1.) dot_BX1SC *= 1./fabs(dot_BX1SC);
  Phi1 = sgnPhi1 * acos(dot_BX1SC);
 
  if (!(fabs(Z1_lept1Id)==21 || fabs(Z1_lept1Id)==22 || fabs(Z1_lept2Id)==21 || fabs(Z1_lept2Id)==22)){
    //define Z1 rotation 
    TRotation rotationZ1;
    TVector3 newZaxisZ1(thep4Z1inXFrame_rotCS.Vect().Unit());
    TVector3 newXaxisZ1(newYaxisCS.Cross(newZaxisZ1).Unit());
    TVector3 newYaxisZ1(newZaxisZ1.Cross(newXaxisZ1).Unit());
    rotationZ1.RotateAxes(newXaxisZ1, newYaxisZ1, newZaxisZ1);
    rotationZ1.Invert();
 
    TLorentzVector thep4Z1inXFrame_rotCS_rotZ1(thep4Z1inXFrame_rotCS);
    thep4Z1inXFrame_rotCS_rotZ1.Transform(rotationZ1);
    TVector3 boostZ1inX_rotCS_rotZ1= -(thep4Z1inXFrame_rotCS_rotZ1.BoostVector());
 
    TLorentzVector p4M11_BX_rotCS_rotZ1(p4M11_BX_rotCS);
    TLorentzVector p4M12_BX_rotCS_rotZ1(p4M12_BX_rotCS);
    TLorentzVector p4M21_BX_rotCS_rotZ1(p4M21_BX_rotCS);
    TLorentzVector p4M22_BX_rotCS_rotZ1(p4M22_BX_rotCS);
    p4M11_BX_rotCS_rotZ1.Transform(rotationZ1);
    p4M12_BX_rotCS_rotZ1.Transform(rotationZ1);
    p4M21_BX_rotCS_rotZ1.Transform(rotationZ1);
    p4M22_BX_rotCS_rotZ1.Transform(rotationZ1);
    p4M11_BX_rotCS_rotZ1.Boost(boostZ1inX_rotCS_rotZ1);
    p4M12_BX_rotCS_rotZ1.Boost(boostZ1inX_rotCS_rotZ1);
    p4M21_BX_rotCS_rotZ1.Boost(boostZ1inX_rotCS_rotZ1);
    p4M22_BX_rotCS_rotZ1.Boost(boostZ1inX_rotCS_rotZ1);
 
    TLorentzVector p4V2_BX_rotCS_rotZ1 = p4M21_BX_rotCS_rotZ1 + p4M22_BX_rotCS_rotZ1;
    costheta1 = -p4V2_BX_rotCS_rotZ1.Vect().Dot(p4M11_BX_rotCS_rotZ1.Vect())/p4V2_BX_rotCS_rotZ1.Vect().Mag()/p4M11_BX_rotCS_rotZ1.Vect().Mag();
  }
  else costheta1=0;
 
  if (!(fabs(Z2_lept1Id)==21 || fabs(Z2_lept1Id)==22 || fabs(Z2_lept2Id)==21 || fabs(Z2_lept2Id)==22)){
    //define Z2 rotation 
    TRotation rotationZ2;
    TVector3 newZaxisZ2(thep4Z2inXFrame_rotCS.Vect().Unit());
    TVector3 newXaxisZ2(newYaxisCS.Cross(newZaxisZ2).Unit());
    TVector3 newYaxisZ2(newZaxisZ2.Cross(newXaxisZ2).Unit());
    rotationZ2.RotateAxes(newXaxisZ2, newYaxisZ2, newZaxisZ2);
    rotationZ2.Invert();
 
    TLorentzVector thep4Z2inXFrame_rotCS_rotZ2(thep4Z2inXFrame_rotCS);
    thep4Z2inXFrame_rotCS_rotZ2.Transform(rotationZ2);
    TVector3 boostZ2inX_rotCS_rotZ2= -(thep4Z2inXFrame_rotCS_rotZ2.BoostVector());
 
    TLorentzVector p4M11_BX_rotCS_rotZ2(p4M11_BX_rotCS);
    TLorentzVector p4M12_BX_rotCS_rotZ2(p4M12_BX_rotCS);
    TLorentzVector p4M21_BX_rotCS_rotZ2(p4M21_BX_rotCS);
    TLorentzVector p4M22_BX_rotCS_rotZ2(p4M22_BX_rotCS);
    p4M11_BX_rotCS_rotZ2.Transform(rotationZ2);
    p4M12_BX_rotCS_rotZ2.Transform(rotationZ2);
    p4M21_BX_rotCS_rotZ2.Transform(rotationZ2);
    p4M22_BX_rotCS_rotZ2.Transform(rotationZ2);
    p4M11_BX_rotCS_rotZ2.Boost(boostZ2inX_rotCS_rotZ2);
    p4M12_BX_rotCS_rotZ2.Boost(boostZ2inX_rotCS_rotZ2);
    p4M21_BX_rotCS_rotZ2.Boost(boostZ2inX_rotCS_rotZ2);
    p4M22_BX_rotCS_rotZ2.Boost(boostZ2inX_rotCS_rotZ2);
 
 
    TLorentzVector p4V1_BX_rotCS_rotZ2= p4M11_BX_rotCS_rotZ2 + p4M12_BX_rotCS_rotZ2;
    costheta2 = -p4V1_BX_rotCS_rotZ2.Vect().Dot(p4M21_BX_rotCS_rotZ2.Vect())/p4V1_BX_rotCS_rotZ2.Vect().Mag()/p4M21_BX_rotCS_rotZ2.Vect().Mag();
  }
  else costheta2=0;
 
  if (isnan(costhetastar) || isnan(costheta1) || isnan(costheta2) || isnan(Phi) || isnan(Phi1)){
    MELAout << "WARNING: NaN in computeAngles: "
      << costhetastar << " "
      << costheta1  << " "
      << costheta2  << " "
      << Phi  << " "
      << Phi1  << " " << endl;
  }
}

computeFakeJet()

void TUtil::computeFakeJet	(	TLorentzVector const &	realJet,
		TLorentzVector const &	others,
		TLorentzVector &	fakeJet
	)

Definition at line 158 of file TUtil.cc.

                                                                                                              {
  TLorentzVector masslessRealJet(0, 0, 0, 0);
  if (TUtil::forbidMassiveJets) TUtil::scaleMomentumToEnergy(realJet, masslessRealJet);
  else masslessRealJet = realJet;
  fakeJet = others + masslessRealJet;
  fakeJet.SetVect(-fakeJet.Vect());
  fakeJet.SetE(fakeJet.P());
}

ComputePDF()

void TUtil::ComputePDF	(	const TLorentzVector &	p0,
		const TLorentzVector &	p1,
		double	fx1[nmsq],
		double	fx2[nmsq],
		const double &	EBEAM,
		const TVar::VerbosityLevel &	verbosity
	)

Definition at line 8142 of file TUtil.cc.

                                                                                                                                                                      {
  if (verbosity>=TVar::DEBUG) MELAout << "Begin TUtil::ComputePDF"<< endl;
  double xx[2]={ 0 };
  if (CheckPartonMomFraction(p0, p1, xx, EBEAM, verbosity)){
    double fx1x2_jhu[2][13]={ { 0 } };
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::ComputePDF: Calling setpdfs with xx[0]: " << xx[0] << ", xx[1] = " << xx[1] << endl;
    __modkinematics_MOD_setpdfs(&(xx[0]), &(xx[1]), fx1x2_jhu);
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::ComputePDF: called"<< endl;
    for (int ip=-6; ip<=6; ip++){
      // JHUGen assignment is in JHU id coventions (up <-> down, g==g)
      int fac=0;
      if (ip!=0 && (abs(ip)%2==0)) fac=-1;
      else if (ip!=0) fac=+1;
      if (ip<0) fac=-fac;
      int jp=ip+fac;
      fx1[jp+5]=fx1x2_jhu[0][ip+6];
      fx2[jp+5]=fx1x2_jhu[1][ip+6];
    }
    /*
    //Calculate Pdf
    //Parton Density Function is always evalualted at pT=0 frame
    //Always pass address through fortran function
    fdist_(&density_.ih1, &xx[0], &facscale_.facscale, fx1);
    fdist_(&density_.ih2, &xx[1], &facscale_.facscale, fx2);
    */
  }
  if (verbosity>=TVar::DEBUG){
    MELAout << "End TUtil::ComputePDF:"<< endl;
    for (int ip=-nf; ip<=nf; ip++) MELAout << "(fx1, fx2)[" << ip << "] = (" << fx1[ip+5] << " , " << fx2[ip+5] << ")" << endl;
  }
}

computeTTHAngles()

void TUtil::computeTTHAngles	(	float &	hs,
		float &	hincoming,
		float &	hTT,
		float &	PhiTT,
		float &	Phi1,
		float &	hbb,
		float &	hWW,
		float &	Phibb,
		float &	Phi1bb,
		float &	hWplusf,
		float &	PhiWplusf,
		float &	hWminusf,
		float &	PhiWminusf,
		TLorentzVector	p4M11,
		int	Z1_lept1Id,
		TLorentzVector	p4M12,
		int	Z1_lept2Id,
		TLorentzVector	p4M21,
		int	Z2_lept1Id,
		TLorentzVector	p4M22,
		int	Z2_lept2Id,
		TLorentzVector	b,
		int	bId,
		TLorentzVector	Wplusf,
		int	WplusfId,
		TLorentzVector	Wplusfb,
		int	WplusfbId,
		TLorentzVector	bbar,
		int	bbarId,
		TLorentzVector	Wminusf,
		int	WminusfId,
		TLorentzVector	Wminusfb,
		int	WminusfbId,
		TLorentzVector *	injet1 = 0,
		int	injet1Id = 0,
		TLorentzVector *	injet2 = 0,
		int	injet2Id = 0
	)

Definition at line 991 of file TUtil.cc.

 {
  TLorentzVector const nullFourVector(0, 0, 0, 0);
  TVector3 const beamAxis(0, 0, 1);
  TVector3 const xAxis(1, 0, 0);
 
  // Initialize output values
  hs=hincoming=hTT=PhiTT=Phi1
    =hbb=hWW=Phibb=Phi1bb
    =hWplusf=PhiWplusf
    =hWminusf=PhiWminusf=0;
  if (
    bId!=-9000 && !(PDGHelpers::isATopQuark(bId) || PDGHelpers::isATauLepton(bId)) && WplusfId==-9000 && WplusfbId==-9000
    &&
    bbarId!=-9000 && !(PDGHelpers::isATopQuark(bbarId) || PDGHelpers::isATauLepton(bbarId)) && WminusfId==-9000 && WminusfbId==-9000
    ){
    float m1_dummy=0, m2_dummy=0;
    return TUtil::computeVHAngles(
      hs, hincoming, hTT, PhiTT, Phi1,
      m1_dummy, m2_dummy,
      p4M11, Z1_lept1Id,
      p4M12, Z1_lept2Id,
      p4M21, Z2_lept1Id,
      p4M22, Z2_lept2Id,
      b, bId,
      bbar, bbarId,
      injet1, injet1Id,
      injet2, injet2Id
    );
  }
 
  // Swap Wplus daughters if needed
  if (
    WplusfId!=-9000 && WplusfbId!=-9000
    &&
    (
    (WplusfId*WplusfbId<0 && WplusfId<0) // for OS pairs: Wplusf must be the particle
      ||
      ((WplusfId*WplusfbId>0 || (WplusfId==0 && WplusfbId==0)) && Wplusf.Phi()<=Wplusfb.Phi()) // for SS pairs: use random deterministic convention
      )
    ){
    swap(Wplusf, Wplusfb);
    swap(WplusfId, WplusfbId);
  }
  // Swap Wminus daughters if needed
  if (
    WminusfId!=-9000 && WminusfbId!=-9000
    &&
    (
    (WminusfId*WminusfbId<0 && WminusfId<0) // for OS pairs: Wminusf must be the particle
      ||
      ((WminusfId*WminusfbId>0 || (WminusfId==0 && WminusfbId==0)) && Wminusf.Phi()<=Wminusfb.Phi()) // for SS pairs: use random deterministic convention
      )
    ){
    swap(Wminusf, Wminusfb);
    swap(WminusfId, WminusfbId);
  }
 
  // Correct the T daughters
  if (bId!=-9000 && WplusfId!=-9000 && WplusfbId!=-9000){
    SimpleParticleCollection_t tmp_daus;
    tmp_daus.reserve(3);
    tmp_daus.emplace_back(bId, b);
    tmp_daus.emplace_back(WplusfId, Wplusf);
    tmp_daus.emplace_back(WplusfbId, Wplusfb);
    TUtil::adjustTopDaughters(tmp_daus);
    b = tmp_daus.at(0).second;
    Wplusf = tmp_daus.at(1).second;
    Wplusfb = tmp_daus.at(2).second;
  }
  else if (WplusfId!=-9000 && WplusfbId!=-9000){
    pair<TLorentzVector, TLorentzVector> Wffb = TUtil::removeMassFromPair(Wplusf, WplusfId, Wplusfb, WplusfbId);
    Wplusf = Wffb.first;
    Wplusfb = Wffb.second;
  }
  // Correct the TBar daughters
  if (bbarId!=-9000 && WminusfId!=-9000 && WminusfbId!=-9000){
    SimpleParticleCollection_t tmp_daus;
    tmp_daus.reserve(3);
    tmp_daus.emplace_back(bbarId, bbar);
    tmp_daus.emplace_back(WminusfId, Wminusf);
    tmp_daus.emplace_back(WminusfbId, Wminusfb);
    TUtil::adjustTopDaughters(tmp_daus);
    bbar = tmp_daus.at(0).second;
    Wminusf = tmp_daus.at(1).second;
    Wminusfb = tmp_daus.at(2).second;
  }
  else if (WminusfId!=-9000 && WminusfbId!=-9000){
    pair<TLorentzVector, TLorentzVector> Wffb = TUtil::removeMassFromPair(Wminusf, WminusfId, Wminusfb, WminusfbId);
    Wminusf = Wffb.first;
    Wminusfb = Wffb.second;
  }
  // If the Ws are not present but the bs are, the masses of the bs should not be removed. This is because the bs are now either tops or taus (based on the similar if-statement above).
 
  // Build Z 4-vectors
  TLorentzVector p4Z1 = p4M11 + p4M12;
  TLorentzVector p4Z2 = p4M21 + p4M22;
  // No longer need to use p4Mxy
  TLorentzVector pH = p4Z1 + p4Z2;
 
  TLorentzVector pWplus = Wplusf + Wplusfb;
  TLorentzVector pTop = b + pWplus;
 
  TLorentzVector pWminus = Wminusf + Wminusfb;
  TLorentzVector pATop = bbar + pWminus;
 
  TLorentzVector pTT = pTop + pATop;
  TLorentzVector pTTH = pTT + pH;
 
  //Find the incoming partons - first boost so the pT(TTH) = 0, then boost away the pz.
  //This preserves the z direction. 
  //Then, assume that the partons come in this z direction.
  //This is exactly correct at LO (since pT=0 anyway).
  //Then associate the one going forwards with jet1 and the one going backwards with jet2
  TLorentzRotation movingframe;
  TLorentzVector pTTH_perp(pTTH.X(), pTTH.Y(), 0, pTTH.T());
  movingframe.Boost(-pTTH_perp.BoostVector());
  pTTH.Boost(-pTTH_perp.BoostVector());
  movingframe.Boost(-pTTH.BoostVector());
  pTTH.Boost(-pTTH.BoostVector());   //make sure to boost TTH AFTER boosting movingframe
 
  TLorentzVector P1(0, 0, -pTTH.T()/2, pTTH.T()/2);
  TLorentzVector P2(0, 0, pTTH.T()/2, pTTH.T()/2);
  // Transform incoming partons back to the original frame
  P1.Transform(movingframe.Inverse());
  P2.Transform(movingframe.Inverse());
  pTTH.Transform(movingframe.Inverse());
  // movingframe and TTH_T will not be used anymore
  // Handle gen. partons if they are available
  if (injet1 && injet2 && fabs((*injet1+*injet2).P()-pTTH.P())<pTTH.P()*1e-4){
    P1=*injet1;
    P2=*injet2;
    // Apply convention for incoming (!) particles
    if (
      (injet1Id*injet2Id<0 && injet1Id>0) // for OS pairs: parton 2 must be the particle
      ||
      (injet1Id*injet2Id>0 && P1.Z()>=P2.Z()) //for SS pairs: parton 2 must have the greater pz
      ){
      swap(P1, P2);
      swap(injet1Id, injet2Id);
    }
  }
 
  // Rotate every vector such that Z1 - Z2 axis is the "beam axis" analogue of decay
  TLorentzRotation ZZframe;
  bool applyZZframe=false;
  if (p4Z1==nullFourVector || p4Z2==nullFourVector){ // Higgs is undecayed
    TVector3 pNewAxis = (p4Z2-p4Z1).Vect().Unit(); // Let Z2 be in the z direction so that once the direction of H is reversed, Z1 is in the z direction
    if (pNewAxis != nullFourVector.Vect()){
      TVector3 pNewAxisPerp = pNewAxis.Cross(beamAxis);
      ZZframe.Rotate(acos(pNewAxis.Dot(beamAxis)), pNewAxisPerp);
      applyZZframe=true;
    }
  }
  else{
    TVector3 pHboost = pH.BoostVector();
    ZZframe.Boost(-pHboost);
    p4Z1.Boost(-pHboost);
    p4Z2.Boost(-pHboost);
    TVector3 pNewAxis = (p4Z2-p4Z1).Vect().Unit(); // Let Z2 be in the z direction so that once the direction of H is reversed, Z1 is in the z direction
    TVector3 pNewAxisPerp = pNewAxis.Cross(beamAxis);
    ZZframe.Rotate(acos(pNewAxis.Dot(beamAxis)), pNewAxisPerp);
    // Boost p4Z1 and p4Z2 back so that you can apply the transformation separately
    p4Z1.Boost(pHboost);
    p4Z2.Boost(pHboost);
    applyZZframe=true;
  }
  if (applyZZframe){
    P1.Transform(ZZframe); P2.Transform(ZZframe);
    p4Z1 = -p4Z1; p4Z1.Transform(ZZframe); p4Z1 = -p4Z1;
    p4Z2 = -p4Z2; p4Z2.Transform(ZZframe); p4Z2 = -p4Z2;
    b = -b; b.Transform(ZZframe); b = -b;
    Wplusf = -Wplusf; Wplusf.Transform(ZZframe); Wplusf = -Wplusf;
    Wplusfb = -Wplusfb; Wplusfb.Transform(ZZframe); Wplusfb = -Wplusfb;
    bbar = -bbar; bbar.Transform(ZZframe); bbar = -bbar;
    Wminusf = -Wminusf; Wminusf.Transform(ZZframe); Wminusf = -Wminusf;
    Wminusfb = -Wminusfb; Wminusfb.Transform(ZZframe); Wminusfb = -Wminusfb;
  }
  // Re-assign derived momenta
  pH = p4Z1 + p4Z2;
  pWplus = Wplusf + Wplusfb;
  pTop = b + pWplus;
  pWminus = Wminusf + Wminusfb;
  pATop = bbar + pWminus;
  pTT = pTop + pATop;
  pTTH = pTT + pH;
 
  TUtil::computeAngles(
    hs,
    hincoming,
    hTT,
    PhiTT,
    Phi1,
    -P1, 23, // Id is 23 to avoid an attempt to remove quark mass
    -P2, 0, // Id is 0 to avoid swapping
    pTop, 23,
    pATop, 0
  );
 
  // Boost everything to Higgs frame AFTER ttH-frame angle computations
  // This is to avoid an undetermined z axis in the above angles when Higgs is undecayed
  {
    TVector3 pHboost = pH.BoostVector();
 
    P1.Boost(-pHboost);
    P2.Boost(-pHboost);
    // No need for Z1 and Z2
    //p4Z1.Boost(-pHboost);
    //p4Z2.Boost(-pHboost);
    b.Boost(-pHboost);
    Wplusf.Boost(-pHboost);
    Wplusfb.Boost(-pHboost);
    bbar.Boost(-pHboost);
    Wminusf.Boost(-pHboost);
    Wminusfb.Boost(-pHboost);
 
    // Re-assign derived momenta
    // No need for the Higgs in Higgs frame
    //pH = p4Z1 + p4Z2;
    pWplus = Wplusf + Wplusfb;
    pTop = b + pWplus;
    pWminus = Wminusf + Wminusfb;
    pATop = bbar + pWminus;
    pTT = pTop + pATop;
    // No need for the TTH system in Higgs frame
    //pTTH = pTT + pH;
  }
 
  {
    TLorentzRotation TTframe;
 
    // z rotation
    TVector3 nNewZAxis = (-P1-P2-pTop-pATop).Vect().Unit(); // Let the z axis be formed by the (-P1-P2)--TT axis in the Higgs frame
    if (nNewZAxis != nullFourVector.Vect()){
      TVector3 nNewZAxisPerp = nNewZAxis.Cross(beamAxis);
      TTframe.Rotate(acos(nNewZAxis.Dot(beamAxis)), nNewZAxisPerp);
    }
 
    P1.Transform(TTframe);
    P2.Transform(TTframe);
    b.Transform(TTframe);
    Wplusf.Transform(TTframe);
    Wplusfb.Transform(TTframe);
    bbar.Transform(TTframe);
    Wminusf.Transform(TTframe);
    Wminusfb.Transform(TTframe);
 
    // Re-assign derived momenta
    pWplus = Wplusf + Wplusfb;
    pTop = b + pWplus;
    pWminus = Wminusf + Wminusfb;
    pATop = bbar + pWminus;
  }
 
  // Compute TT angles
  {
    float hs_dummy;
    int id_dummy_Wplus=24;
    int id_dummy_Wminus=-24;
    if (WplusfId!=-9000 && WplusfbId!=-9000) id_dummy_Wplus=-9000;
    if (WminusfId!=-9000 && WminusfbId!=-9000) id_dummy_Wminus=-9000;
    TUtil::computeAngles(
      hs_dummy,
      hbb,
      hWW,
      Phibb, // -\Phi_b from arxiv:1606.03107
      Phi1bb, // This angle is the one between the bb plane and the TT-H plane instead of that between the WW plane and the TT-H plane as defined in arxiv:1606.03107.
      b, bId,
      bbar, bbarId,
      pWplus, id_dummy_Wplus,
      pWminus, id_dummy_Wminus
    );
  }
 
  // Wplus frame
  if (WplusfId!=-9000 && WplusfbId!=-9000){
    TLorentzVector pATop_tmp = pATop;
    TVector3 pWplus_boost = (Wplusf+Wplusfb).BoostVector();
    b.Boost(-pWplus_boost);
    Wplusf.Boost(-pWplus_boost);
    Wplusfb.Boost(-pWplus_boost);
    pATop_tmp.Boost(-pWplus_boost);
 
    TLorentzRotation Wplusframe;
 
    // z rotation
    TVector3 nNewZAxis = (b+Wplusf+Wplusfb-pATop_tmp).Vect().Unit(); // Let the z axis be formed by the TBar direction
    if (nNewZAxis != nullFourVector.Vect()){
      TVector3 nNewZAxisPerp = nNewZAxis.Cross(beamAxis);
      Wplusframe.Rotate(acos(nNewZAxis.Dot(beamAxis)), nNewZAxisPerp);
    }
 
    b.Transform(Wplusframe);
    Wplusf.Transform(Wplusframe);
    Wplusfb.Transform(Wplusframe);
 
    TVector3 n3_Wb = -b.Vect().Unit();
    TVector3 nW = ((Wplusf-Wplusfb).Vect().Cross(n3_Wb)).Unit();
    TVector3 nS = (beamAxis.Cross(n3_Wb)).Unit();
 
    // hWplusf
    hWplusf = n3_Wb.Dot(Wplusf.Vect().Unit());
    // PhiWplusf
    float tmpSgnPhiWplusf = n3_Wb.Dot(nW.Cross(nS));
    float sgnPhiWplusf = 0;
    if (fabs(tmpSgnPhiWplusf)>0.) sgnPhiWplusf = tmpSgnPhiWplusf/fabs(tmpSgnPhiWplusf);
    float dot_nWnS = nW.Dot(nS);
    if (fabs(dot_nWnS)>=1.) dot_nWnS *= 1./fabs(dot_nWnS);
    PhiWplusf = sgnPhiWplusf * acos(dot_nWnS);
    /*
    b.Transform(Wplusframe.Inverse());
    Wplusf.Transform(Wplusframe.Inverse());
    Wplusfb.Transform(Wplusframe.Inverse());
    */
  }
 
  // Wminus frame
  if (WminusfId!=-9000 && WminusfbId!=-9000){
    TLorentzVector pTop_tmp = pTop;
    TVector3 pWminus_boost = (Wminusf+Wminusfb).BoostVector();
    bbar.Boost(-pWminus_boost);
    Wminusf.Boost(-pWminus_boost);
    Wminusfb.Boost(-pWminus_boost);
    pTop_tmp.Boost(-pWminus_boost);
 
    TLorentzRotation Wminusframe;
 
    // z rotation
    TVector3 nNewZAxis = (pTop_tmp-bbar-Wminusf-Wminusfb).Vect().Unit(); // Let the z axis be formed by the T direction
    if (nNewZAxis != nullFourVector.Vect()){
      TVector3 nNewZAxisPerp = nNewZAxis.Cross(beamAxis);
      Wminusframe.Rotate(acos(nNewZAxis.Dot(beamAxis)), nNewZAxisPerp);
    }
 
    bbar.Transform(Wminusframe);
    Wminusf.Transform(Wminusframe);
    Wminusfb.Transform(Wminusframe);
 
    TVector3 n3_Wb = -bbar.Vect().Unit();
    TVector3 nW = ((Wminusf-Wminusfb).Vect().Cross(n3_Wb)).Unit();
    TVector3 nS = (beamAxis.Cross(n3_Wb)).Unit();
 
    // hWminusf
    hWminusf = n3_Wb.Dot(Wminusf.Vect().Unit());
    // PhiWminusf
    float tmpSgnPhiWminusf = n3_Wb.Dot(nW.Cross(nS));
    float sgnPhiWminusf = 0;
    if (fabs(tmpSgnPhiWminusf)>0.) sgnPhiWminusf = tmpSgnPhiWminusf/fabs(tmpSgnPhiWminusf);
    float dot_nWnS = nW.Dot(nS);
    if (fabs(dot_nWnS)>=1.) dot_nWnS *= 1./fabs(dot_nWnS);
    PhiWminusf = sgnPhiWminusf * acos(dot_nWnS);
    /*
    bbar.Transform(Wminusframe.Inverse());
    Wminusf.Transform(Wminusframe.Inverse());
    Wminusfb.Transform(Wminusframe.Inverse());
    */
  }
}

computeVBFAngles()

void TUtil::computeVBFAngles	(	float &	costhetastar,
		float &	costheta1,
		float &	costheta2,
		float &	Phi,
		float &	Phi1,
		float &	Q2V1,
		float &	Q2V2,
		TLorentzVector	p4M11,
		int	Z1_lept1Id,
		TLorentzVector	p4M12,
		int	Z1_lept2Id,
		TLorentzVector	p4M21,
		int	Z2_lept1Id,
		TLorentzVector	p4M22,
		int	Z2_lept2Id,
		TLorentzVector	jet1,
		int	jet1Id,
		TLorentzVector	jet2,
		int	jet2Id,
		TLorentzVector *	injet1 = 0,
		int	injet1Id = 0,
		TLorentzVector *	injet2 = 0,
		int	injet2Id = 0
	)

Definition at line 598 of file TUtil.cc.

   {
  TLorentzVector const nullFourVector(0, 0, 0, 0);
 
  TLorentzVector jet1massless, jet2massless;
  pair<TLorentzVector, TLorentzVector> jetPair = TUtil::removeMassFromPair(jet1, jet1Id, jet2, jet2Id);
  jet1massless = jetPair.first;
  jet2massless = jetPair.second;
 
  //build Z 4-vectors
  TLorentzVector p4Z1 = p4M11 + p4M12;
  TLorentzVector p4Z2 = p4M21 + p4M22;
  TLorentzVector pH = p4Z1+p4Z2;
  //jet1 is defined as going forwards (bigger pz), jet2 going backwards (smaller pz)
  if (jet1massless.Z() < jet2massless.Z()) { swap(jet1massless, jet2massless); swap(jet1Id, jet2Id); }
 
  //Find the incoming partons - first boost so the pT(HJJ) = 0, then boost away the pz.
  //This preserves the z direction.  Then assume that the partons come in this z direction.
  //This is exactly correct at LO (since pT=0 anyway).
  //Then associate the one going forwards with jet1 and the one going backwards with jet2
  TLorentzRotation movingframe;
  TLorentzVector pHJJ = pH+jet1massless+jet2massless;
  TLorentzVector pHJJ_perp(pHJJ.X(), pHJJ.Y(), 0, pHJJ.T());
  movingframe.Boost(-pHJJ_perp.BoostVector());
  pHJJ.Boost(-pHJJ_perp.BoostVector());
  movingframe.Boost(-pHJJ.BoostVector());
  pHJJ.Boost(-pHJJ.BoostVector());   //make sure to boost HJJ AFTER boosting movingframe
 
  TLorentzVector P1(0, 0, pHJJ.T()/2, pHJJ.T()/2);
  TLorentzVector P2(0, 0, -pHJJ.T()/2, pHJJ.T()/2);
  // Transform incoming partons back to original frame
  P1.Transform(movingframe.Inverse());
  P2.Transform(movingframe.Inverse());
  pHJJ.Transform(movingframe.Inverse());
  // movingframe and HJJ_T will not be used anymore
  // Handle gen. partons if they are available
  if (injet1 && injet2 && fabs((*injet1+*injet2).P()-pHJJ.P())<pHJJ.P()*1e-4){
    P1=*injet1;
    P2=*injet2;
    if (P1.Z() < P2.Z()){
      swap(P1, P2);
      swap(injet1Id, injet2Id);
    }
    // In the case of gen. partons, check if the intermediates are a Z or a W.
    int diff1Id = jet1Id-injet1Id;
    int diff2Id = jet2Id-injet2Id;
    if (
      !( // THIS IS A NOT-IF!
      (diff1Id==0 && diff2Id==0 && !(injet1Id==21 || injet2Id==21)) // Two Z bosons
        ||
        ((fabs(diff1Id)==1 || fabs(diff1Id)==3 || fabs(diff1Id)==5) && (fabs(diff2Id)==1 || fabs(diff2Id)==3 || fabs(diff2Id)==5)) // Two W bosons, do not check W+ vs W-
        )
      ){
      int diff12Id = jet1Id-injet2Id;
      int diff21Id = jet2Id-injet1Id;
      if (
        ((diff12Id==0 || diff21Id==0) && !(injet1Id==21 || injet2Id==21)) // At least one Z boson
        ||
        ((fabs(diff12Id)==1 || fabs(diff12Id)==3 || fabs(diff12Id)==5) || (fabs(diff21Id)==1 || fabs(diff21Id)==3 || fabs(diff21Id)==5)) // At least one W boson
        ){
        swap(P1, P2);
        swap(injet1Id, injet2Id);
      }
    }
  }
 
  TLorentzRotation ZZframe;
  ZZframe.Boost(-pH.BoostVector());
  P1.Transform(ZZframe);
  P2.Transform(ZZframe);
  p4Z1.Transform(ZZframe);
  p4Z2.Transform(ZZframe);
  jet1massless.Transform(ZZframe);
  jet2massless.Transform(ZZframe);
 
  TLorentzVector fermion1, fermion2, antifermion1, antifermion2;
  // Consider cases with gen. partons
  // By default, fermion1/2 are jet1/2 unless incoming partons are specifically anti-quarks!
  if (injet1 && injet1Id<0){
    fermion1=-P1;
    antifermion1 = jet1massless;
  }
  else{
    fermion1 = jet1massless;
    antifermion1=-P1;
  }
  if (injet2 && injet2Id<0){
    fermion2=-P2;
    antifermion2 = jet2massless;
  }
  else{
    fermion2 = jet2massless;
    antifermion2=-P2;
  }
 
  // Computations in the frame of X
  TLorentzVector V1 = fermion1 + antifermion1; // Outgoing V1
  TLorentzVector V2 = fermion2 + antifermion2; // Outgoing V2
  TVector3 normvec1 = fermion1.Vect().Cross(antifermion1.Vect()).Unit(); // p11 x p12
  TVector3 normvec2 = fermion2.Vect().Cross(antifermion2.Vect()).Unit(); // p21 x p22
  TVector3 normvec3 = p4Z2.Vect().Cross(V1.Vect()).Unit(); // z x V1
  double cosPhi = normvec1.Dot(normvec2);
  double sgnPhi = normvec1.Cross(normvec2).Dot(V1.Vect());
  if (fabs(sgnPhi)>0.) sgnPhi = sgnPhi/fabs(sgnPhi);
  double cosPhi1 = normvec1.Dot(normvec3);
  double sgnPhi1 = normvec1.Cross(normvec3).Dot(V1.Vect());
  if (fabs(sgnPhi1)>0.) sgnPhi1 = sgnPhi1/fabs(sgnPhi1);
  if (fabs(cosPhi)>1) cosPhi *= 1./fabs(cosPhi);
  if (fabs(cosPhi1)>1) cosPhi1 *= 1./fabs(cosPhi1);
  Phi = acos(-cosPhi)*sgnPhi;
  Phi1 = acos(cosPhi1)*sgnPhi1;
  costhetastar = V1.Vect().Unit().Dot(p4Z2.Vect().Unit()); // Note that p4Z2 is still in outgoing convention, so in incoming terms, this is equivalent to putting p4Z1.
  Q2V1 = -(V1.M2());
  Q2V2 = -(V2.M2());
 
  // Computations that would have been in the frame of X had V1 and V2 not been virtual
  costheta1 = V1.Vect().Unit().Dot(fermion1.Vect().Unit());
  costheta2 = V2.Vect().Unit().Dot(fermion2.Vect().Unit());
}

computeVBFAngles_ComplexBoost()

void TUtil::computeVBFAngles_ComplexBoost	(	float &	costhetastar,
		float &	costheta1_real,
		float &	costheta1_imag,
		float &	costheta2_real,
		float &	costheta2_imag,
		float &	Phi,
		float &	Phi1,
		float &	Q2V1,
		float &	Q2V2,
		TLorentzVector	p4M11,
		int	Z1_lept1Id,
		TLorentzVector	p4M12,
		int	Z1_lept2Id,
		TLorentzVector	p4M21,
		int	Z2_lept1Id,
		TLorentzVector	p4M22,
		int	Z2_lept2Id,
		TLorentzVector	jet1,
		int	jet1Id,
		TLorentzVector	jet2,
		int	jet2Id,
		TLorentzVector *	injet1 = 0,
		int	injet1Id = 0,
		TLorentzVector *	injet2 = 0,
		int	injet2Id = 0
	)

Definition at line 732 of file TUtil.cc.

   {
  TLorentzVector const nullFourVector(0, 0, 0, 0);
 
  TLorentzVector jet1massless, jet2massless;
  pair<TLorentzVector, TLorentzVector> jetPair = TUtil::removeMassFromPair(jet1, jet1Id, jet2, jet2Id);
  jet1massless = jetPair.first;
  jet2massless = jetPair.second;
 
  //build Z 4-vectors
  TLorentzVector p4Z1 = p4M11 + p4M12;
  TLorentzVector p4Z2 = p4M21 + p4M22;
  TLorentzVector pH = p4Z1+p4Z2;
  //jet1 is defined as going forwards (bigger pz), jet2 going backwards (smaller pz)
  if (jet1massless.Z() < jet2massless.Z()) { swap(jet1massless, jet2massless); swap(jet1Id, jet2Id); }
 
  //Find the incoming partons - first boost so the pT(HJJ) = 0, then boost away the pz.
  //This preserves the z direction.  Then assume that the partons come in this z direction.
  //This is exactly correct at LO (since pT=0 anyway).
  //Then associate the one going forwards with jet1 and the one going backwards with jet2
  TLorentzRotation movingframe;
  TLorentzVector pHJJ = pH+jet1massless+jet2massless;
  TLorentzVector pHJJ_perp(pHJJ.X(), pHJJ.Y(), 0, pHJJ.T());
  movingframe.Boost(-pHJJ_perp.BoostVector());
  pHJJ.Boost(-pHJJ_perp.BoostVector());
  movingframe.Boost(-pHJJ.BoostVector());
  pHJJ.Boost(-pHJJ.BoostVector());   //make sure to boost HJJ AFTER boosting movingframe
 
  TLorentzVector P1(0, 0, pHJJ.T()/2, pHJJ.T()/2);
  TLorentzVector P2(0, 0, -pHJJ.T()/2, pHJJ.T()/2);
  // Transform incoming partons back to original frame
  P1.Transform(movingframe.Inverse());
  P2.Transform(movingframe.Inverse());
  pHJJ.Transform(movingframe.Inverse());
  // movingframe and HJJ_T will not be used anymore
  // Handle gen. partons if they are available
  if (injet1 && injet2 && fabs((*injet1+*injet2).P()-pHJJ.P())<pHJJ.P()*1e-4){
    P1=*injet1;
    P2=*injet2;
    if (P1.Z() < P2.Z()){
      swap(P1, P2);
      swap(injet1Id, injet2Id);
    }
    // In the case of gen. partons, check if the intermediates are a Z or a W.
    int diff1Id = jet1Id-injet1Id;
    int diff2Id = jet2Id-injet2Id;
    if (
      !( // THIS IS A NOT-IF!
      (diff1Id==0 && diff2Id==0 && !(injet1Id==21 || injet2Id==21)) // Two Z bosons
        ||
        ((fabs(diff1Id)==1 || fabs(diff1Id)==3 || fabs(diff1Id)==5) && (fabs(diff2Id)==1 || fabs(diff2Id)==3 || fabs(diff2Id)==5)) // Two W bosons, do not check W+ vs W-
        )
      ){
      int diff12Id = jet1Id-injet2Id;
      int diff21Id = jet2Id-injet1Id;
      if (
        ((diff12Id==0 || diff21Id==0) && !(injet1Id==21 || injet2Id==21)) // At least one Z boson
        ||
        ((fabs(diff12Id)==1 || fabs(diff12Id)==3 || fabs(diff12Id)==5) || (fabs(diff21Id)==1 || fabs(diff21Id)==3 || fabs(diff21Id)==5)) // At least one W boson
        ){
        swap(P1, P2);
        swap(injet1Id, injet2Id);
      }
    }
  }
 
  TLorentzRotation ZZframe;
  ZZframe.Boost(-pH.BoostVector());
  P1.Transform(ZZframe);
  P2.Transform(ZZframe);
  p4Z1.Transform(ZZframe);
  p4Z2.Transform(ZZframe);
  jet1massless.Transform(ZZframe);
  jet2massless.Transform(ZZframe);
 
  TLorentzVector fermion1, fermion2, antifermion1, antifermion2;
  // Consider cases with gen. partons
  // By default, fermion1/2 are jet1/2 unless incoming partons are specifically anti-quarks!
  if (injet1 && injet1Id<0){
    fermion1=-P1;
    antifermion1 = jet1massless;
  }
  else{
    fermion1 = jet1massless;
    antifermion1=-P1;
  }
  if (injet2 && injet2Id<0){
    fermion2=-P2;
    antifermion2 = jet2massless;
  }
  else{
    fermion2 = jet2massless;
    antifermion2=-P2;
  }
 
  // Computations in the frame of X
  TLorentzVector V1 = fermion1 + antifermion1; // Outgoing V1
  TLorentzVector V2 = fermion2 + antifermion2; // Outgoing V2
  TVector3 normvec1 = fermion1.Vect().Cross(antifermion1.Vect()).Unit(); // p11 x p12
  TVector3 normvec2 = fermion2.Vect().Cross(antifermion2.Vect()).Unit(); // p21 x p22
  TVector3 normvec3 = p4Z2.Vect().Cross(V1.Vect()).Unit(); // z x V1
  double cosPhi = normvec1.Dot(normvec2);
  double sgnPhi = normvec1.Cross(normvec2).Dot(V1.Vect());
  if (fabs(sgnPhi)>0.) sgnPhi = sgnPhi/fabs(sgnPhi);
  double cosPhi1 = normvec1.Dot(normvec3);
  double sgnPhi1 = normvec1.Cross(normvec3).Dot(V1.Vect());
  if (fabs(sgnPhi1)>0.) sgnPhi1 = sgnPhi1/fabs(sgnPhi1);
  if (fabs(cosPhi)>1) cosPhi *= 1./fabs(cosPhi);
  if (fabs(cosPhi1)>1) cosPhi1 *= 1./fabs(cosPhi1);
  Phi = acos(-cosPhi)*sgnPhi;
  Phi1 = acos(cosPhi1)*sgnPhi1;
  costhetastar = V1.Vect().Unit().Dot(p4Z2.Vect().Unit()); // Note that p4Z2 is still in outgoing convention, so in incoming terms, this is equivalent to putting p4Z1.
  Q2V1 = -(V1.M2());
  Q2V2 = -(V2.M2());
 
  // Up to here, everything has to be the same as TUtil::computeVBFAngles
  // Computations that would have been truly in the frame of X had V1 and V2 not been virtual:
  // Use TUtil::ComplexBoost to evade imaginary gamma problems when beta**2<0
  pair<TLorentzVector, TLorentzVector> V2_BV1 = TUtil::ComplexBoost(V1.BoostVector(), V2);
  pair<TLorentzVector, TLorentzVector> fermion1_BV1 = TUtil::ComplexBoost(V1.BoostVector(), fermion1);
  costheta1_real = -(V2_BV1.first.Vect().Unit().Dot(fermion1_BV1.first.Vect().Unit()) - V2_BV1.second.Vect().Unit().Dot(fermion1_BV1.second.Vect().Unit()));
  costheta1_imag = -(V2_BV1.first.Vect().Unit().Dot(fermion1_BV1.second.Vect().Unit()) + V2_BV1.second.Vect().Unit().Dot(fermion1_BV1.first.Vect().Unit()));
 
  pair<TLorentzVector, TLorentzVector> V1_BV2 = TUtil::ComplexBoost(V2.BoostVector(), V1);
  pair<TLorentzVector, TLorentzVector> fermion2_BV2 = TUtil::ComplexBoost(V2.BoostVector(), fermion2);
  costheta2_real = -(V1_BV2.first.Vect().Unit().Dot(fermion2_BV2.first.Vect().Unit()) - V1_BV2.second.Vect().Unit().Dot(fermion2_BV2.second.Vect().Unit()));
  costheta2_imag = -(V1_BV2.first.Vect().Unit().Dot(fermion2_BV2.second.Vect().Unit()) + V1_BV2.second.Vect().Unit().Dot(fermion2_BV2.first.Vect().Unit()));
}

computeVHAngles()

void TUtil::computeVHAngles	(	float &	costhetastar,
		float &	costheta1,
		float &	costheta2,
		float &	Phi,
		float &	Phi1,
		float &	m1,
		float &	m2,
		TLorentzVector	p4M11,
		int	Z1_lept1Id,
		TLorentzVector	p4M12,
		int	Z1_lept2Id,
		TLorentzVector	p4M21,
		int	Z2_lept1Id,
		TLorentzVector	p4M22,
		int	Z2_lept2Id,
		TLorentzVector	jet1,
		int	jet1Id,
		TLorentzVector	jet2,
		int	jet2Id,
		TLorentzVector *	injet1 = 0,
		int	injet1Id = 0,
		TLorentzVector *	injet2 = 0,
		int	injet2Id = 0
	)

Definition at line 875 of file TUtil.cc.

   {
  TLorentzVector const nullFourVector(0, 0, 0, 0);
 
  TLorentzVector jet1massless, jet2massless;
  pair<TLorentzVector, TLorentzVector> jetPair = TUtil::removeMassFromPair(jet1, jet1Id, jet2, jet2Id);
  jet1massless = jetPair.first;
  jet2massless = jetPair.second;
 
  // Build Z 4-vectors
  TLorentzVector p4Z1 = p4M11 + p4M12;
  TLorentzVector p4Z2 = p4M21 + p4M22;
  TLorentzVector pH = p4Z1 + p4Z2;
 
  // Apply convention for outgoing particles
  if (
    (jet1Id*jet2Id<0 && jet1Id<0) // for OS pairs: jet1 must be the particle
    ||
    ((jet1Id*jet2Id>0 || (jet1Id==0 && jet2Id==0)) && jet1massless.Phi()<=jet2massless.Phi()) // for SS pairs: use random deterministic convention
    ){
    swap(jet1massless, jet2massless);
    swap(jet1Id, jet2Id);
  }
 
  //Find the incoming partons - first boost so the pT(HJJ) = 0, then boost away the pz.
  //This preserves the z direction. 
  //Then, assume that the partons come in this z direction.
  //This is exactly correct at LO (since pT=0 anyway).
  //Then associate the one going forwards with jet1 and the one going backwards with jet2
  TLorentzRotation movingframe;
  TLorentzVector pHJJ = pH+jet1massless+jet2massless;
  TLorentzVector pHJJ_perp(pHJJ.X(), pHJJ.Y(), 0, pHJJ.T());
  movingframe.Boost(-pHJJ_perp.BoostVector());
  pHJJ.Boost(-pHJJ_perp.BoostVector());
  movingframe.Boost(-pHJJ.BoostVector());
  pHJJ.Boost(-pHJJ.BoostVector());   //make sure to boost HJJ AFTER boosting movingframe
 
  TLorentzVector P1(0, 0, -pHJJ.T()/2, pHJJ.T()/2);
  TLorentzVector P2(0, 0, pHJJ.T()/2, pHJJ.T()/2);
  // Transform incoming partons back to the original frame
  P1.Transform(movingframe.Inverse());
  P2.Transform(movingframe.Inverse());
  pHJJ.Transform(movingframe.Inverse());
  // movingframe and HJJ_T will not be used anymore
  // Handle gen. partons if they are available
  if (injet1 && injet2 && fabs((*injet1+*injet2).P()-pHJJ.P())<pHJJ.P()*1e-4){
    P1=*injet1;
    P2=*injet2;
    // Apply convention for incoming (!) particles
    if (
      (injet1Id*injet2Id<0 && injet1Id>0) // for OS pairs: parton 2 must be the particle
      ||
      (injet1Id*injet2Id>0 && P1.Z()>=P2.Z()) //for SS pairs: use random deterministic convention
      ){
      swap(P1, P2);
      swap(injet1Id, injet2Id);
    }
  }
 
  // Rotate every vector such that Z1 - Z2 axis is the "beam axis" analogue of decay
  TLorentzRotation ZZframe;
  TVector3 const beamAxis(0, 0, 1);
  if (p4Z1==nullFourVector || p4Z2==nullFourVector){
    TVector3 pNewAxis = (p4Z2-p4Z1).Vect().Unit(); // Let Z2 be in the z direction so that once the direction of H is reversed, Z1 is in the z direction
    if (pNewAxis != nullFourVector.Vect()){
      TVector3 pNewAxisPerp = pNewAxis.Cross(beamAxis);
      ZZframe.Rotate(acos(pNewAxis.Dot(beamAxis)), pNewAxisPerp);
 
      P1.Transform(ZZframe);
      P2.Transform(ZZframe);
      jet1massless = -jet1massless; jet1massless.Transform(ZZframe); jet1massless = -jet1massless;
      jet2massless = -jet2massless; jet2massless.Transform(ZZframe); jet2massless = -jet2massless;
    }
  }
  else{
    ZZframe.Boost(-pH.BoostVector());
    p4Z1.Boost(-pH.BoostVector());
    p4Z2.Boost(-pH.BoostVector());
    TVector3 pNewAxis = (p4Z2-p4Z1).Vect().Unit(); // Let Z2 be in the z direction so that once the direction of H is reversed, Z1 is in the z direction
    TVector3 pNewAxisPerp = pNewAxis.Cross(beamAxis);
    ZZframe.Rotate(acos(pNewAxis.Dot(beamAxis)), pNewAxisPerp);
    P1.Transform(ZZframe);
    P2.Transform(ZZframe);
    jet1massless = -jet1massless; jet1massless.Transform(ZZframe); jet1massless = -jet1massless;
    jet2massless = -jet2massless; jet2massless.Transform(ZZframe); jet2massless = -jet2massless;
  }
 
  TUtil::computeAngles(
    costhetastar,
    costheta1,
    costheta2,
    Phi,
    Phi1,
    -P1, 23, // Id is 23 to avoid an attempt to remove quark mass
    -P2, 0, // Id is 0 to avoid swapping
    jet1massless, 23,
    jet2massless, 0
  );
  m1 = (P1 + P2).M();
  m2 = (jet1massless + jet2massless).M();
}

constrainedRemovePairMass()

void TUtil::constrainedRemovePairMass	(	TLorentzVector &	p1,
		TLorentzVector &	p2,
		double	m1 = 0,
		double	m2 = 0
	)

Definition at line 41 of file TUtil.cc.

                                                                                                 {
  TLorentzVector const nullFourVector(0, 0, 0, 0);
  TLorentzVector p1hat, p2hat;
  if (p1==nullFourVector || p2==nullFourVector) return;
 
  /***** shiftMass in C++ *****/
  TLorentzVector p12=p1+p2;
  TLorentzVector diffp2p1=p2-p1;
  double p1sq = p1.M2();
  double p2sq = p2.M2();
  double p1p2 = p1.Dot(p2);
  double m1sq = m1*fabs(m1);
  double m2sq = m2*fabs(m2);
  double p12sq = p12.M2();
 
  TLorentzVector avec=(p1sq*p2 - p2sq*p1 + p1p2*diffp2p1);
  double a = avec.M2();
  double b = (p12sq + m2sq - m1sq) * (pow(p1p2, 2) - p1sq*p2sq);
  double c = pow((p12sq + m2sq - m1sq), 2)*p1sq/4. - pow((p1sq + p1p2), 2)*m2sq;
  double eta =  (-b - sqrt(fabs(b*b -4.*a*c)))/(2.*a);
  double xi = (p12sq + m2sq - m1sq - 2.*eta*(p2sq + p1p2))/(2.*(p1sq + p1p2));
 
  p1hat = (1.-xi)*p1 + (1.-eta)*p2;
  p2hat = xi*p1 + eta*p2;
  p1=p1hat;
  p2=p2hat;
}

ConvertThreeBodyDecayCandidate()

MELAThreeBodyDecayCandidate * TUtil::ConvertThreeBodyDecayCandidate	(	SimpleParticleCollection_t *	tbdDaughters,
		std::vector< MELAParticle * > *	particleList,
		std::vector< MELAThreeBodyDecayCandidate * > *	tbdCandList
	)

Definition at line 8819 of file TUtil.cc.

   {
  MELAThreeBodyDecayCandidate* cand=nullptr;
 
  if (!tbdDaughters){ MELAerr << "TUtil::ConvertThreeBodyDecayCandidate: No daughters!" << endl; return cand; }
  else if (tbdDaughters->empty()){ MELAerr << "TUtil::ConvertThreeBodyDecayCandidate: Daughter size==0!" << endl; return cand; }
  else if (!(tbdDaughters->size()==1 || tbdDaughters->size()==3)){ MELAerr << "TUtil::ConvertThreeBodyDecayCandidate: Daughter size " << tbdDaughters->size() << "!=1 or 3 is not supported!" << endl; return cand; }
 
  if (tbdDaughters->size()==1){
    if (abs((tbdDaughters->at(0)).first)==6 || (tbdDaughters->at(0)).first==0){
      cand = new MELAThreeBodyDecayCandidate((tbdDaughters->at(0)).first, (tbdDaughters->at(0)).second);
      tbdCandList->push_back(cand);
    }
  }
  else if (tbdDaughters->size()==3){
    MELAParticle* partnerPart = new MELAParticle((tbdDaughters->at(0)).first, (tbdDaughters->at(0)).second);
    MELAParticle* Wf = new MELAParticle((tbdDaughters->at(1)).first, (tbdDaughters->at(1)).second);
    MELAParticle* Wfb = new MELAParticle((tbdDaughters->at(2)).first, (tbdDaughters->at(2)).second);
 
    if (Wf->id<0 || Wfb->id>0) std::swap(Wf, Wfb);
 
    particleList->push_back(partnerPart);
    particleList->push_back(Wf);
    particleList->push_back(Wfb);
 
    cand = new MELAThreeBodyDecayCandidate(partnerPart, Wf, Wfb);
    tbdCandList->push_back(cand);
  }
  return cand;
}

ConvertVectorFormat()

MELACandidate * TUtil::ConvertVectorFormat	(	SimpleParticleCollection_t *	pDaughters,
		SimpleParticleCollection_t *	pAssociated,
		SimpleParticleCollection_t *	pMothers,
		bool	isGen,
		std::vector< MELAParticle * > *	particleList,
		std::vector< MELACandidate * > *	candList
	)

Definition at line 8675 of file TUtil.cc.

   {
  MELACandidate* cand=nullptr;
 
  if (!pDaughters){ MELAerr << "TUtil::ConvertVectorFormat: No daughters!" << endl; return cand; }
  else if (pDaughters->size()==0){ MELAerr << "TUtil::ConvertVectorFormat: Daughter size==0!" << endl; return cand; }
  else if (pDaughters->size()>4){ MELAerr << "TUtil::ConvertVectorFormat: Daughter size " << pDaughters->size() << ">4 is not supported!" << endl; return cand; }
  if (pMothers && pMothers->size()!=2){ MELAerr << "TUtil::ConvertVectorFormat: Mothers momentum size (" << pMothers->size() << ") has to have had been 2! Continuing by omitting mothers." << endl; /*return cand;*/ }
 
  // Create mother, daughter and associated particle MELAParticle objects
  std::vector<MELAParticle*> daughters;
  std::vector<MELAParticle*> aparticles;
  std::vector<MELAParticle*> mothers;
  for (auto& spart:(*pDaughters)){
    MELAParticle* onePart = new MELAParticle(spart.first, spart.second);
    onePart->setGenStatus(1); // Final state status
    if (particleList) particleList->push_back(onePart);
    daughters.push_back(onePart);
  }
  if (pAssociated){
    for (auto& spart:(*pAssociated)){
      MELAParticle* onePart = new MELAParticle(spart.first, spart.second);
      onePart->setGenStatus(1); // Final state status
      if (particleList) particleList->push_back(onePart);
      aparticles.push_back(onePart);
    }
  }
  if (pMothers && pMothers->size()==2){
    for (auto& spart:(*pMothers)){
      MELAParticle* onePart = new MELAParticle(spart.first, spart.second);
      onePart->setGenStatus(-1); // Mother status
      if (particleList) particleList->push_back(onePart);
      mothers.push_back(onePart);
    }
  }
 
  // Create the candidate
  /***** Adaptation of LHEAnalyzer::Event::constructVVCandidates *****/
  /*
  The assumption is that the daughters make sense for either ffb, gamgam, Zgam, ZZ or WW.
  No checking is done on whether particle-antiparticle pairing is correct when necessary.
  If not, you will get a seg. fault!
  */
 
  // Undecayed Higgs
  if (daughters.size()==1){
    cand = new MELACandidate(25, (daughters.at(0))->p4); // No sorting!
    cand->setDecayMode(TVar::CandidateDecay_Stable); // Explicitly set the decay mode in case the default of MELACandidate changes in the future
  }
  // GG / ff final states
  else if (daughters.size()==2){
    MELAParticle* F1 = daughters.at(0);
    MELAParticle* F2 = daughters.at(1);
    TLorentzVector pH = F1->p4+F2->p4;
    cand = new MELACandidate(25, pH);
    cand->addDaughter(F1);
    cand->addDaughter(F2);
    TVar::CandidateDecayMode defaultHDecayMode = PDGHelpers::HDecayMode;
    if (PDGHelpers::isAPhoton(F1->id) && PDGHelpers::isAPhoton(F2->id)) PDGHelpers::setCandidateDecayMode(TVar::CandidateDecay_GG);
    else PDGHelpers::setCandidateDecayMode(TVar::CandidateDecay_ff);
    cand->sortDaughters();
    PDGHelpers::setCandidateDecayMode(defaultHDecayMode);
  }
  // ZG / WG
  else if (daughters.size()==3){
    MELAParticle* F1 = daughters.at(0);
    MELAParticle* F2 = daughters.at(1);
    MELAParticle* gamma = daughters.at(2);
    if (PDGHelpers::isAPhoton(F1->id)){
      MELAParticle* tmp = F1;
      F1 = gamma;
      gamma = tmp;
    }
    else if (PDGHelpers::isAPhoton(F2->id)){
      MELAParticle* tmp = F2;
      F2 = gamma;
      gamma = tmp;
    }
    TLorentzVector pH = F1->p4+F2->p4+gamma->p4;
    double charge = F1->charge()+F2->charge()+gamma->charge();
    cand = new MELACandidate(25, pH);
    cand->addDaughter(F1);
    cand->addDaughter(F2);
    cand->addDaughter(gamma);
    TVar::CandidateDecayMode defaultHDecayMode = PDGHelpers::HDecayMode;
    if (fabs(charge)<0.01) PDGHelpers::setCandidateDecayMode(TVar::CandidateDecay_ZG); // ZG
    else PDGHelpers::setCandidateDecayMode(TVar::CandidateDecay_WG); // WG, un-tested
    cand->sortDaughters();
    PDGHelpers::setCandidateDecayMode(defaultHDecayMode);
  }
  // ZZ / WW / ZW (!)
  else/* if (daughters.size()==4)*/{
    TLorentzVector pH(0, 0, 0, 0);
    double charge = 0.;
    for (unsigned char ip=0; ip<4; ip++){ pH = pH + (daughters.at(ip))->p4; charge += (daughters.at(ip))->charge(); }
    cand = new MELACandidate(25, pH);
    for (unsigned char ip=0; ip<4; ip++) cand->addDaughter(daughters.at(ip));
    // FIXME/REIMPLEMENT: ZW trickier than I thought: Summing over charges over all 4f is not enough, affects SSSF pairing in ZZ
    //TVar::CandidateDecayMode defaultHDecayMode = PDGHelpers::HDecayMode;
    //if (fabs(charge)>0.01) PDGHelpers::setCandidateDecayMode(TVar::CandidateDecay_ZW);
    if (
      PDGHelpers::HDecayMode!=TVar::CandidateDecay_WW
      && PDGHelpers::HDecayMode!=TVar::CandidateDecay_ZZ
      && PDGHelpers::HDecayMode!=TVar::CandidateDecay_ZW
      ){
      MELAerr << "TUtil::ConvertVectorFormat: PDGHelpers::HDecayMode = " << PDGHelpers::HDecayMode << " is set incorrectly for Ndaughters=" << daughters.size() << ". There is no automatic mechnism for this scenario. ";
      MELAerr << "Suggestion: Call PDGHelpers::setCandidateDecayMode(TVar::CandidateDecay_XY) before this call." << endl;
      assert(0);
    }
    cand->sortDaughters();
    //PDGHelpers::setCandidateDecayMode(defaultHDecayMode);
  }
 
  /***** Adaptation of LHEAnalyzer::Event::addVVCandidateMother *****/
  if (!mothers.empty()){ // ==2
    for (auto& part:mothers) cand->addMother(part);
    if (isGen) cand->setGenStatus(-1); // Candidate is a gen. particle!
  }
  /***** Adaptation of LHEAnalyzer::Event::addVVCandidateAppendages *****/
  if (!aparticles.empty()){
    for (auto& part:aparticles){
      const int& partId = part->id;
      if (PDGHelpers::isALepton(partId)) cand->addAssociatedLepton(part);
      else if (PDGHelpers::isANeutrino(partId)) cand->addAssociatedNeutrino(part); // Be careful: Neutrinos are neutrinos, but also "leptons" in MELACandidate!
      else if (PDGHelpers::isAPhoton(partId)) cand->addAssociatedPhoton(part);
      else if (PDGHelpers::isAJet(partId)) cand->addAssociatedJet(part);
    }
    cand->addAssociatedVs(); // For the VH topology
  }
 
  if (candList && cand) candList->push_back(cand);
  return cand;
}

GetAlphaS()

void TUtil::GetAlphaS	(	double *	alphas_,
		double *	alphasmz_
	)

Definition at line 1849 of file TUtil.cc.

                                                       {
  double alphasVal=0, alphasmzVal=0;
  __modjhugenmela_MOD_getalphasalphasmz(&alphasVal, &alphasmzVal);
  if (alphas_!=0) *alphas_ = alphasVal;
  if (alphasmz_!=0) *alphasmz_ = alphasmzVal;
}

GetBoostedParticleVectors()

void TUtil::GetBoostedParticleVectors	(	MELACandidate *	melaCand,
		TVar::simple_event_record &	mela_event,
		TVar::VerbosityLevel	verbosity = TVar::DEBUG
	)

Definition at line 8212 of file TUtil.cc.

   {
  if (verbosity>=TVar::DEBUG) MELAout << "Begin GetBoostedParticleVectors" << endl;
  // This is the beginning of one long function.
 
  int const& code = mela_event.AssociationCode;
  if (verbosity>=TVar::DEBUG) MELAout << "TUtil::GetBoostedParticleVectors: code=" << code << endl;
  int const& aVhypo = mela_event.AssociationVCompatibility;
  TLorentzVector const nullFourVector(0, 0, 0, 0);
 
  SimpleParticleCollection_t daughters;
  vector<int> idVstar; idVstar.reserve(2);
  if (melaCand->getNDaughters()==0){
    // Undecayed Higgs has V1=H, V2=empty, no sortedDaughters!
    daughters.push_back(SimpleParticle_t(melaCand->id, melaCand->p4));
    idVstar.push_back(melaCand->id);
    idVstar.push_back(-9000);
  }
  else{
    // H->ffb has V1=f->f, V2=fb->fb
    // H->GG has V1=G->G, V2=G->G
    // H->ZG has V1=Z->ffb, V2=G->G
    // Everything else is as expected.
    for (unsigned char iv=0; iv<2; iv++){ // 2 Vs are guaranteed in MELACandidate.
      MELAParticle* Vdau = melaCand->getSortedV(iv);
      if (Vdau){
        int idtmp = Vdau->id;
        for (MELAParticle* Vdau_i:Vdau->getDaughters()){
          if (Vdau_i && Vdau_i->passSelection) daughters.push_back(SimpleParticle_t(Vdau_i->id, Vdau_i->p4));
        }
        if (idtmp!=0 || Vdau->getNDaughters()>0){ // Avoid "empty" intermediate Vs of the MELACandidate object
          if (Vdau->getNDaughters()>=2 && PDGHelpers::isAPhoton(idtmp)) idtmp=23; // Special case to avoid V->2f with massless decay mode (could happen by mistake)
          idVstar.push_back(idtmp);
        }
      }
      else idVstar.push_back(-9000);
    }
  }
  if (daughters.size()>=2){
    size_t nffs = daughters.size()/2;
    for (size_t iv=0; iv<nffs; iv++){
      pair<TLorentzVector, TLorentzVector> corrPair = TUtil::removeMassFromPair(
        daughters.at(2*iv+0).second, daughters.at(2*iv+0).first,
        daughters.at(2*iv+1).second, daughters.at(2*iv+1).first
        );
      daughters.at(2*iv+0).second = corrPair.first;
      daughters.at(2*iv+1).second = corrPair.second;
    }
    if (2*nffs<daughters.size()){
      TLorentzVector tmp = nullFourVector;
      SimpleParticle_t& lastDau = daughters.back();
      pair<TLorentzVector, TLorentzVector> corrPair = TUtil::removeMassFromPair(
        lastDau.second, lastDau.first,
        tmp, -9000
        );
      lastDau.second = corrPair.first;
    }
  }
 
  /***** ASSOCIATED PARTICLES *****/
  if (verbosity>=TVar::DEBUG){
    MELAout << "TUtil::GetBoostedParticleVectors: nRequestedLeps=" << mela_event.nRequested_AssociatedLeptons << endl;
    MELAout << "TUtil::GetBoostedParticleVectors: nRequestedJets=" << mela_event.nRequested_AssociatedJets << endl;
    MELAout << "TUtil::GetBoostedParticleVectors: nRequestedPhotons=" << mela_event.nRequested_AssociatedPhotons << endl;
  }
  int nsatisfied_jets=0;
  int nsatisfied_lnus=0;
  int nsatisfied_gammas=0;
  vector<MELAParticle*> candidateVs; // Used if aVhypo!=0
  SimpleParticleCollection_t associated;
  if (aVhypo!=0){
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::GetBoostedParticleVectors: aVhypo!=0 case start" << endl;
 
    vector<MELAParticle*> asortedVs = melaCand->getAssociatedSortedVs();
    for (MELAParticle* Vdau:asortedVs){ // Loop over associated Vs
      if (Vdau){
        bool doAdd=false;
        int idV = Vdau->id;
        if ((abs(idV)==aVhypo || idV==0) && Vdau->getNDaughters()>0 && Vdau->passSelection){ // If the V is unknown or compatible with the requested hypothesis
          doAdd=true;
          for (MELAParticle* Vdau_i:Vdau->getDaughters()){ // Loop over the daughters of V
            if (!Vdau_i){ doAdd=false; break; }
            else if (
              (mela_event.nRequested_AssociatedLeptons==0 && (PDGHelpers::isALepton(Vdau_i->id) || PDGHelpers::isANeutrino(Vdau_i->id)))
              ||
              (mela_event.nRequested_AssociatedJets==0 && PDGHelpers::isAJet(Vdau_i->id))
              ||
              !Vdau_i->passSelection // Protection against incorrect Vdau passSelection flag
              ){
              doAdd=false; break;
            }
          }
        }
        if (doAdd) candidateVs.push_back(Vdau);
      }
    } // End loop over associated Vs
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::GetBoostedParticleVectors: candidateVs size = " << candidateVs.size() << endl;
 
    // Pick however many candidates necessary to fill up the requested number of jets or lepton(+)neutrinos
    for (MELAParticle* Vdau:candidateVs){
      SimpleParticleCollection_t associated_tmp;
      for (MELAParticle* part:Vdau->getDaughters()){ // Loop over the daughters of V
        if (
          part->passSelection
          &&
          (PDGHelpers::isALepton(part->id) || PDGHelpers::isANeutrino(part->id))
          &&
          nsatisfied_lnus<mela_event.nRequested_AssociatedLeptons
          ){
          nsatisfied_lnus++;
          associated_tmp.push_back(SimpleParticle_t(part->id, part->p4));
        }
        else if (
          part->passSelection
          &&
          PDGHelpers::isAJet(part->id)
          &&
          nsatisfied_jets<mela_event.nRequested_AssociatedJets
          ){
          nsatisfied_jets++;
          associated_tmp.push_back(SimpleParticle_t(part->id, part->p4));
        }
      }
      // Add the id of the intermediate V into the idVstar array
      if (associated_tmp.size()>=2 || (associated_tmp.size()==1 && PDGHelpers::isAPhoton(associated_tmp.at(0).first))) idVstar.push_back(Vdau->id); // Only add the V-id of pairs that passed
      // Adjust the kinematics of associated V-originating particles
      if (associated_tmp.size()>=2){ // ==1 means a photon, so omit it here.
        unsigned int nffs = associated_tmp.size()/2;
        for (unsigned int iv=0; iv<nffs; iv++){
          pair<TLorentzVector, TLorentzVector> corrPair = TUtil::removeMassFromPair(
            associated_tmp.at(2*iv+0).second, associated_tmp.at(2*iv+0).first,
            associated_tmp.at(2*iv+1).second, associated_tmp.at(2*iv+1).first
            );
          associated_tmp.at(2*iv+0).second = corrPair.first;
          associated_tmp.at(2*iv+1).second = corrPair.second;
        }
        if (2*nffs<associated_tmp.size()){
          TLorentzVector tmp = nullFourVector;
          pair<TLorentzVector, TLorentzVector> corrPair = TUtil::removeMassFromPair(
            associated_tmp.at(associated_tmp.size()-1).second, associated_tmp.at(associated_tmp.size()-1).first,
            tmp, -9000
            );
          associated_tmp.at(associated_tmp.size()-1).second = corrPair.first;
        }
      }
      for (SimpleParticle_t& sp:associated_tmp) associated.push_back(sp); // Fill associated at the last step
    }
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::GetBoostedParticleVectors: aVhypo!=0 case associated.size=" << associated.size() << endl;
  }
  else{ // Could be split to aVhypo==0 and aVhypo<0 if associated V+jets is needed
    // Associated leptons
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::GetBoostedParticleVectors: aVhypo==0 case begin" << endl;
 
    if (code%TVar::kUseAssociated_Leptons==0){
      SimpleParticleCollection_t associated_tmp;
      for (MELAParticle* part:melaCand->getAssociatedLeptons()){
        if (part && part->passSelection && nsatisfied_lnus<mela_event.nRequested_AssociatedLeptons){
          nsatisfied_lnus++;
          associated_tmp.push_back(SimpleParticle_t(part->id, part->p4));
        }
      }
 
      if (verbosity>=TVar::DEBUG) MELAout << "TUtil::GetBoostedParticleVectors: aVhypo==0 lep case associated_tmp.size=" << associated_tmp.size() << endl;
 
      // Adjust the kinematics of associated non-V-originating particles
      if (associated_tmp.size()>=1){
        size_t nffs = associated_tmp.size()/2;
        for (size_t iv=0; iv<nffs; iv++){
          if (verbosity>=TVar::DEBUG) MELAout << "TUtil::GetBoostedParticleVectors: Removing mass from lepton pair " << 2*iv+0 << '\t' << 2*iv+1 << endl;
          pair<TLorentzVector, TLorentzVector> corrPair = TUtil::removeMassFromPair(
            associated_tmp.at(2*iv+0).second, associated_tmp.at(2*iv+0).first,
            associated_tmp.at(2*iv+1).second, associated_tmp.at(2*iv+1).first
            );
          associated_tmp.at(2*iv+0).second = corrPair.first;
          associated_tmp.at(2*iv+1).second = corrPair.second;
        }
        if (2*nffs<associated_tmp.size()){
          if (verbosity>=TVar::DEBUG) MELAout << "TUtil::GetBoostedParticleVectors: Removing mass from last lepton  " << associated_tmp.size()-1 << endl;
          TLorentzVector tmp = nullFourVector;
          SimpleParticle_t& lastAssociated = associated_tmp.at(associated_tmp.size()-1);
          pair<TLorentzVector, TLorentzVector> corrPair = TUtil::removeMassFromPair(
            lastAssociated.second, lastAssociated.first,
            tmp, -9000
            );
          lastAssociated.second = corrPair.first;
        }
      }
      for (SimpleParticle_t& sp:associated_tmp) associated.push_back(sp); // Fill associated at the last step
    }
    // Associated jets
    if (code%TVar::kUseAssociated_Jets==0){
      SimpleParticleCollection_t associated_tmp;
      for (MELAParticle* part:melaCand->getAssociatedJets()){
        if (part && part->passSelection && nsatisfied_jets<mela_event.nRequested_AssociatedJets){
          nsatisfied_jets++;
          associated_tmp.push_back(SimpleParticle_t(part->id, part->p4));
        }
      }
 
      if (verbosity>=TVar::DEBUG) MELAout << "TUtil::GetBoostedParticleVectors: aVhypo==0 jet case associated_tmp.size=" << associated_tmp.size() << endl;
 
      // Adjust the kinematics of associated non-V-originating particles
      if (associated_tmp.size()>=1){
        unsigned int nffs = associated_tmp.size()/2;
        for (unsigned int iv=0; iv<nffs; iv++){
          if (verbosity>=TVar::DEBUG) MELAout << "TUtil::GetBoostedParticleVectors: Removing mass from jet pair " << 2*iv+0 << '\t' << 2*iv+1 << endl;
          pair<TLorentzVector, TLorentzVector> corrPair = TUtil::removeMassFromPair(
            associated_tmp.at(2*iv+0).second, associated_tmp.at(2*iv+0).first,
            associated_tmp.at(2*iv+1).second, associated_tmp.at(2*iv+1).first
            );
          associated_tmp.at(2*iv+0).second = corrPair.first;
          associated_tmp.at(2*iv+1).second = corrPair.second;
        }
        if (2*nffs<associated_tmp.size()){
          if (verbosity>=TVar::DEBUG) MELAout << "TUtil::GetBoostedParticleVectors: Removing mass from last jet  " << associated_tmp.size()-1 << endl;
          TLorentzVector tmp = nullFourVector;
          SimpleParticle_t& lastAssociated = associated_tmp.at(associated_tmp.size()-1);
          pair<TLorentzVector, TLorentzVector> corrPair = TUtil::removeMassFromPair(
            lastAssociated.second, lastAssociated.first,
            tmp, -9000
            );
          lastAssociated.second = corrPair.first;
        }
      }
      for (SimpleParticle_t& sp:associated_tmp) associated.push_back(sp); // Fill associated at the last step
    }
 
  } // End if(aVhypo!=0)-else statement
 
  if (code%TVar::kUseAssociated_Photons==0){
    for (MELAParticle* part:melaCand->getAssociatedPhotons()){
      if (part && part->passSelection && nsatisfied_gammas<mela_event.nRequested_AssociatedPhotons){
        nsatisfied_gammas++;
        associated.push_back(SimpleParticle_t(part->id, part->p4));
      }
    }
  }
  /***** END ASSOCIATED PARTICLES *****/
 
  if (verbosity>=TVar::DEBUG) MELAout << "TUtil::GetBoostedParticleVectors: associated.size=" << associated.size() << endl;
 
  /***** ASSOCIATED TOP OBJECTS *****/
  int nsatisfied_tops=0;
  int nsatisfied_antitops=0;
  vector<SimpleParticleCollection_t> topDaughters;
  vector<SimpleParticleCollection_t> antitopDaughters;
  SimpleParticleCollection_t stableTops;
  SimpleParticleCollection_t stableAntitops;
 
  vector<MELATopCandidate_t*> tops;
  vector<MELATopCandidate_t*> topbars;
  vector<MELATopCandidate_t*> unknowntops;
  if (code%TVar::kUseAssociated_StableTops==0 && code%TVar::kUseAssociated_UnstableTops==0 && verbosity>=TVar::INFO) MELAerr << "TUtil::GetBoostedParticleVectors: Stable and unstable tops are not supported at the same time!"  << endl;
  else if (code%TVar::kUseAssociated_StableTops==0 || code%TVar::kUseAssociated_UnstableTops==0){
 
    for (MELATopCandidate_t* theTop:melaCand->getAssociatedTops()){
      if (theTop && theTop->passSelection){
        vector<MELATopCandidate_t*>* particleArray;
        if (theTop->id==6) particleArray = &tops;
        else if (theTop->id==-6) particleArray = &topbars;
        else particleArray = &unknowntops;
        if (
          (code%TVar::kUseAssociated_StableTops==0)
          ||
          (theTop->getNDaughters()==3 && code%TVar::kUseAssociated_UnstableTops==0)
          ) particleArray->push_back(theTop);
      }
    }
    if (verbosity>=TVar::DEBUG){ MELAout << "TUtil::GetBoostedParticleVectors: tops.size=" << tops.size() << ", topbars.size=" << topbars.size() << ", unknowntops.size=" << unknowntops.size() << endl; }
 
    // Fill the stable/unstable top arrays
    for (MELATopCandidate_t* theTop:tops){
      if (code%TVar::kUseAssociated_StableTops==0 && nsatisfied_tops<mela_event.nRequested_Tops){ // Case with no daughters needed
        nsatisfied_tops++;
        stableTops.push_back(SimpleParticle_t(theTop->id, theTop->p4));
      }
      else if (code%TVar::kUseAssociated_UnstableTops==0 && theTop->getNDaughters()==3 && nsatisfied_tops<mela_event.nRequested_Tops){ // Case with daughters needed
        nsatisfied_tops++;
        SimpleParticleCollection_t vdaughters;
 
        MELAParticle* bottom = theTop->getPartnerParticle();
        MELAParticle* Wf = theTop->getWFermion();
        MELAParticle* Wfb = theTop->getWAntifermion();
        if (bottom) vdaughters.push_back(SimpleParticle_t(bottom->id, bottom->p4));
        if (Wf) vdaughters.push_back(SimpleParticle_t(Wf->id, Wf->p4));
        if (Wfb) vdaughters.push_back(SimpleParticle_t(Wfb->id, Wfb->p4));
 
        TUtil::adjustTopDaughters(vdaughters); // Adjust top daughter kinematics
        if (vdaughters.size()==3) topDaughters.push_back(vdaughters);
      }
    }
    for (MELATopCandidate_t* theTop:topbars){
      if (code%TVar::kUseAssociated_StableTops==0 && nsatisfied_antitops<mela_event.nRequested_Antitops){ // Case with no daughters needed
        nsatisfied_antitops++;
        stableAntitops.push_back(SimpleParticle_t(theTop->id, theTop->p4));
      }
      else if (code%TVar::kUseAssociated_UnstableTops==0 && nsatisfied_antitops<mela_event.nRequested_Antitops){ // Case with daughters needed
        nsatisfied_antitops++;
        SimpleParticleCollection_t vdaughters;
 
        MELAParticle* bottom = theTop->getPartnerParticle();
        MELAParticle* Wf = theTop->getWFermion();
        MELAParticle* Wfb = theTop->getWAntifermion();
        if (bottom) vdaughters.push_back(SimpleParticle_t(bottom->id, bottom->p4));
        if (Wf) vdaughters.push_back(SimpleParticle_t(Wf->id, Wf->p4));
        if (Wfb) vdaughters.push_back(SimpleParticle_t(Wfb->id, Wfb->p4));
 
        TUtil::adjustTopDaughters(vdaughters); // Adjust top daughter kinematics
        if (vdaughters.size()==3) antitopDaughters.push_back(vdaughters);
      }
      else break;
    }
    // Loop over the unknown-id tops
    // Fill tops, then antitops from the unknown tops
    for (MELATopCandidate_t* theTop:unknowntops){
      // t, then tb cases with no daughters needed
      if (code%TVar::kUseAssociated_StableTops==0 && nsatisfied_tops<mela_event.nRequested_Tops){
        nsatisfied_tops++;
        stableTops.push_back(SimpleParticle_t(theTop->id, theTop->p4));
      }
      else if (code%TVar::kUseAssociated_StableTops==0 && nsatisfied_antitops<mela_event.nRequested_Antitops){
        nsatisfied_antitops++;
        stableAntitops.push_back(SimpleParticle_t(theTop->id, theTop->p4));
      }
      // t, then tb cases with daughters needed
      else if (code%TVar::kUseAssociated_UnstableTops==0 && nsatisfied_tops<mela_event.nRequested_Tops){
        nsatisfied_tops++;
        SimpleParticleCollection_t vdaughters;
 
        MELAParticle* bottom = theTop->getPartnerParticle();
        MELAParticle* Wf = theTop->getWFermion();
        MELAParticle* Wfb = theTop->getWAntifermion();
        if (bottom) vdaughters.push_back(SimpleParticle_t(bottom->id, bottom->p4));
        if (Wf) vdaughters.push_back(SimpleParticle_t(Wf->id, Wf->p4));
        if (Wfb) vdaughters.push_back(SimpleParticle_t(Wfb->id, Wfb->p4));
 
        TUtil::adjustTopDaughters(vdaughters); // Adjust top daughter kinematics
        if (vdaughters.size()==3) topDaughters.push_back(vdaughters);
      }
      else if (code%TVar::kUseAssociated_UnstableTops==0 && nsatisfied_antitops<mela_event.nRequested_Antitops){
        nsatisfied_antitops++;
        SimpleParticleCollection_t vdaughters;
 
        MELAParticle* bottom = theTop->getPartnerParticle();
        MELAParticle* Wf = theTop->getWFermion();
        MELAParticle* Wfb = theTop->getWAntifermion();
        if (bottom) vdaughters.push_back(SimpleParticle_t(bottom->id, bottom->p4));
        if (Wf) vdaughters.push_back(SimpleParticle_t(Wf->id, Wf->p4));
        if (Wfb) vdaughters.push_back(SimpleParticle_t(Wfb->id, Wfb->p4));
 
        TUtil::adjustTopDaughters(vdaughters); // Adjust top daughter kinematics
        if (vdaughters.size()==3) antitopDaughters.push_back(vdaughters);
      }
    }
 
  }
  /***** END ASSOCIATED TOP OBJECTS *****/
  if (verbosity>=TVar::DEBUG){
    MELAout << "TUtil::GetBoostedParticleVectors: stableTops.size=" << stableTops.size() << endl;
    MELAout << "TUtil::GetBoostedParticleVectors: stableAntitops.size=" << stableAntitops.size() << endl;
    MELAout << "TUtil::GetBoostedParticleVectors: topDaughters.size=" << topDaughters.size() << endl;
    for (unsigned int itop=0; itop<topDaughters.size(); itop++) MELAout << "TUtil::GetBoostedParticleVectors: topDaughters.at(" << itop << ").size=" << topDaughters.at(itop).size() << endl;
    MELAout << "TUtil::GetBoostedParticleVectors: antitopDaughters.size=" << antitopDaughters.size() << endl;
    for (unsigned int itop=0; itop<antitopDaughters.size(); itop++) MELAout << "TUtil::GetBoostedParticleVectors: antitopDaughters.at(" << itop << ").size=" << antitopDaughters.at(itop).size() << endl;
  }
 
  /***** BOOSTS TO THE CORRECT PT=0 FRAME *****/
  // Gather all final state particles collected for this frame
  TLorentzVector pTotal(0, 0, 0, 0);
  for (SimpleParticle_t const& sp:daughters) pTotal = pTotal + sp.second;
  for (SimpleParticle_t const& sp:associated) pTotal = pTotal + sp.second;
  for (SimpleParticle_t const& sp:stableTops) pTotal = pTotal + sp.second;
  for (SimpleParticle_t const& sp:stableAntitops) pTotal = pTotal + sp.second;
  for (SimpleParticleCollection_t const& spc:topDaughters){ for (SimpleParticle_t const& sp:spc) pTotal = pTotal + sp.second; }
  for (SimpleParticleCollection_t const& spc:antitopDaughters){ for (SimpleParticle_t const& sp:spc) pTotal = pTotal + sp.second; }
 
  // Get the boost vector and boost all final state particles
  double qX = pTotal.X();
  double qY = pTotal.Y();
  double qE = pTotal.T();
  if ((qX*qX+qY*qY)>0.){
    TVector3 boostV(-qX/qE, -qY/qE, 0.);
    for (SimpleParticle_t& sp:daughters) sp.second.Boost(boostV);
    for (SimpleParticle_t& sp:associated) sp.second.Boost(boostV);
    for (SimpleParticle_t& sp:stableTops) sp.second.Boost(boostV);
    for (SimpleParticle_t& sp:stableAntitops) sp.second.Boost(boostV);
    for (SimpleParticleCollection_t& spc:topDaughters){ for (SimpleParticle_t& sp:spc) sp.second.Boost(boostV); }
    for (SimpleParticleCollection_t& spc:antitopDaughters){ for (SimpleParticle_t& sp:spc) sp.second.Boost(boostV); }
    pTotal.Boost(boostV);
  }
 
  // Mothers need special treatment:
  // In case they are undefined, mother id is unknown, and mothers are ordered as M1==(pz>0) and M2==(pz<0).
  // In case they are defined, mothers are first matched to the assumed momenta through their pz's.
  // They are ordered by M1==f, M2==fb afterward if this is possible.
  // Notice that the momenta of the mother objects are not actually used. If the event is truly a gen. particle, everything would be in the pT=0 frame to begin with, and everybody is happy in reweighting.
  double sysPz= pTotal.Z();
  double sysE = pTotal.T();
  double pz0 = (sysE+sysPz)/2.;
  double pz1 = -(sysE-sysPz)/2.;
  double E0 = pz0;
  double E1 = -pz1;
  int motherId[2]={ 0, 0 };
  if (melaCand->getNMothers()==2){
    for (int ip=0; ip<2; ip++) motherId[ip]=melaCand->getMother(ip)->id;
    // Match the "assumed" M'1==(larger signed pz) and M'2==(smaller signed pz) to the pz of the actual mothers:
    // Swap pZs to get the correct momentum matching default M1, M2.
    if (TMath::Sign(1., melaCand->getMother(0)->z()-melaCand->getMother(1)->z())!=TMath::Sign(1., pz0-pz1)){ swap(pz0, pz1); swap(E0, E1); }
    // Swap the ids of mothers and their pT=0-assumed momenta to achieve ordering as "incoming" q-qbar
    if ((motherId[0]<0 && motherId[1]>=0) || (motherId[1]>0 && motherId[0]<=0)){
      swap(pz0, pz1);
      swap(E0, E1);
      swap(motherId[0], motherId[1]);
    }
  }
  TLorentzVector pM[2];
  pM[0].SetXYZT(0., 0., pz0, E0);
  pM[1].SetXYZT(0., 0., pz1, E1);
 
  // Fill the ids of the V intermediates to the candidate daughters
  mela_event.intermediateVid.clear();
  TUtilHelpers::copyVector(idVstar, mela_event.intermediateVid);
  // Fill the mothers
  mela_event.pMothers.clear();
  for (unsigned int ip=0; ip<2; ip++){ mela_event.pMothers.push_back(SimpleParticle_t(motherId[ip], pM[ip])); }
  // Fill the daughters
  mela_event.pDaughters.clear();
  TUtilHelpers::copyVector(daughters, mela_event.pDaughters);
  // Fill the associated particles
  mela_event.pAssociated.clear();
  TUtilHelpers::copyVector(associated, mela_event.pAssociated);
  // Fill the stable tops and antitops
  mela_event.pStableTops.clear();
  TUtilHelpers::copyVector(stableTops, mela_event.pStableTops);
  mela_event.pStableAntitops.clear();
  TUtilHelpers::copyVector(stableAntitops, mela_event.pStableAntitops);
  // Fill the daughters of unstable tops and antitops
  mela_event.pTopDaughters.clear();
  TUtilHelpers::copyVector(topDaughters, mela_event.pTopDaughters);
  mela_event.pAntitopDaughters.clear();
  TUtilHelpers::copyVector(antitopDaughters, mela_event.pAntitopDaughters);
 
  // This is the end of one long function.
  if (verbosity>=TVar::DEBUG){
    MELAout << "TUtil::GetBoostedParticleVectors mela_event.intermediateVid.size=" << mela_event.intermediateVid.size() << endl;
    MELAout << "TUtil::GetBoostedParticleVectors mela_event.pMothers.size=" << mela_event.pMothers.size() << endl;
    MELAout << "TUtil::GetBoostedParticleVectors mela_event.pDaughters.size=" << mela_event.pDaughters.size() << endl;
    MELAout << "TUtil::GetBoostedParticleVectors mela_event.pAssociated.size=" << mela_event.pAssociated.size() << endl;
    MELAout << "TUtil::GetBoostedParticleVectors mela_event.pStableTops.size=" << mela_event.pStableTops.size() << endl;
    MELAout << "TUtil::GetBoostedParticleVectors mela_event.pStableAntitops.size=" << mela_event.pStableAntitops.size() << endl;
    MELAout << "TUtil::GetBoostedParticleVectors mela_event.pTopDaughters.size=" << mela_event.pTopDaughters.size() << endl;
    MELAout << "TUtil::GetBoostedParticleVectors mela_event.pAntitopDaughters.size=" << mela_event.pAntitopDaughters.size() << endl;
    MELAout << "End GetBoostedParticleVectors" << endl;
  }
}

GetCKMElement()

double TUtil::GetCKMElement	(	int	iquark,
		int	jquark
	)

Definition at line 1537 of file TUtil.cc.

                                                 {
  return __modparameters_MOD_ckmbare(&iquark, &jquark);
}

GetDecayWidth() [1/2]

double TUtil::GetDecayWidth

(

const MELAParticle *

part

)

Definition at line 1641 of file TUtil.cc.

                                                   {
  if (part==nullptr) return GetDecayWidth(-9000);
  return GetDecayWidth(part->id);
}

GetDecayWidth() [2/2]

double TUtil::GetDecayWidth

(

int

ipart

)

Definition at line 1619 of file TUtil.cc.

                                    {
  const int ipartabs = abs(ipart);
 
  // MCFM widths
  if (ipartabs==6) return masses_mcfm_.twidth;
  else if (ipartabs==15) return masses_mcfm_.tauwidth;
  else if (ipartabs==23) return masses_mcfm_.zwidth;
  else if (ipartabs==24) return masses_mcfm_.wwidth;
  else if (ipartabs==25) return masses_mcfm_.hwidth;
  else{
    // JHUGen widths
    const double GeV=1./100.;
    int jpart = convertLHEreverse(&ipart);
    double joutwidth = __modparameters_MOD_getdecaywidth(&jpart);
    double outwidth = joutwidth/GeV;
    return outwidth;
  }
}

GetMadgraphCKMElement()

complex< double > TUtil::GetMadgraphCKMElement	(	int	iquark,
		int	jquark
	)

Definition at line 1540 of file TUtil.cc.

                                                                  {
  switch(iquark){
    case 1:
      if(jquark == 1){
        return std::complex<double>(madMela::params_c_.mdl_ckm1x1[0], madMela::params_c_.mdl_ckm1x1[1]);
      } else if(jquark == 2){
        return std::complex<double>(madMela::params_c_.mdl_ckm1x2[0], madMela::params_c_.mdl_ckm1x2[1]);
      } else if(jquark == 3){
        return std::complex<double>(madMela::params_c_.mdl_ckm1x3[0], madMela::params_c_.mdl_ckm1x3[1]);
      } else{
        MELAerr << "TUtil::GetMadgraphCKMElement: Invalid second index!" << endl;
      }
      break;
    case 2:
      if(jquark == 1){
        return std::complex<double>(madMela::params_c_.mdl_ckm2x1[0], madMela::params_c_.mdl_ckm2x1[1]);
      } else if(jquark == 2){
        return std::complex<double>(madMela::params_c_.mdl_ckm2x2[0], madMela::params_c_.mdl_ckm2x2[1]);
      } else if(jquark == 3){
        return std::complex<double>(madMela::params_c_.mdl_ckm2x3[0], madMela::params_c_.mdl_ckm2x3[1]);
      } else{
        MELAerr << "TUtil::GetMadgraphCKMElement: Invalid second index!" << endl;
      }
      break;
    case 3:
      if(jquark == 1){
        return std::complex<double>(madMela::params_c_.mdl_ckm3x1[0], madMela::params_c_.mdl_ckm3x1[1]);
      } else if(jquark == 2){
        return std::complex<double>(madMela::params_c_.mdl_ckm3x2[0], madMela::params_c_.mdl_ckm3x2[1]);
      } else if(jquark == 3){
        return std::complex<double>(madMela::params_c_.mdl_ckm3x3[0], madMela::params_c_.mdl_ckm3x3[1]);
      } else{
        MELAerr << "TUtil::GetMadgraphCKMElement: Invalid second index!" << endl;
      }
      break;
    default:
      MELAerr << "TUtil::GetMadgraphCKMElement: Invalid first index!" << endl;
      break;
  }
  return std::complex<double>(0);
}

GetMass() [1/2]

double TUtil::GetMass

(

const MELAParticle *

part

)

Definition at line 1637 of file TUtil.cc.

                                             {
  if (part==nullptr) return GetMass(-9000);
  return GetMass(part->id);
}

GetMass() [2/2]

double TUtil::GetMass

(

int

ipart

)

Definition at line 1582 of file TUtil.cc.

                              {
  const int ipartabs = abs(ipart);
 
  if (ipartabs==8) return spinzerohiggs_anomcoupl_.mt_4gen;
  else if (ipartabs==7) return spinzerohiggs_anomcoupl_.mb_4gen;
  else if (ipartabs==6) return masses_mcfm_.mt;
  else if (ipartabs==5) return masses_mcfm_.mb;
  else if (ipartabs==4) return masses_mcfm_.mc;
  else if (ipartabs==3) return masses_mcfm_.ms;
  else if (ipartabs==2) return masses_mcfm_.mu;
  else if (ipartabs==1) return masses_mcfm_.md;
  else if (ipartabs==11) return masses_mcfm_.mel;
  else if (ipartabs==13) return masses_mcfm_.mmu;
  else if (ipartabs==15) return masses_mcfm_.mtau;
  else if (ipartabs==23) return masses_mcfm_.zmass;
  else if (ipartabs==24) return masses_mcfm_.wmass;
  else if (ipartabs==25) return masses_mcfm_.hmass;
  else{
    // JHUGen masses
    if (
      ipartabs<=6 // (d, u, s, c, b, t)
      ||
      (ipartabs>=11 && ipartabs<=16) // (l, nu) x (e, mu, tau)
      ||
      ipartabs==23 || ipartabs==24 || ipartabs==25 // Z, W, H
      ||
      ipartabs==32 || ipartabs==34 // Z', W+-'
      ){
      const double GeV=1./100.;
      int jpart = convertLHEreverse(&ipart);
      double joutmass = __modparameters_MOD_getmass(&jpart);
      double outmass = joutmass/GeV;
      return outmass;
    }
    else return 0;
  }
}

GetMassWidth() [1/2]

void TUtil::GetMassWidth	(	const MELAParticle *	part,
		double &	m,
		double &	ga
	)

Definition at line 1649 of file TUtil.cc.

                                                                       {
  if (part==nullptr) return GetMassWidth(-9000, m, ga);
  return GetMassWidth(part->id, m, ga);
}

GetMassWidth() [2/2]

void TUtil::GetMassWidth	(	int	ipart,
		double &	m,
		double &	ga
	)

Definition at line 1645 of file TUtil.cc.

                                                        {
  m=TUtil::GetMass(ipart);
  ga=TUtil::GetDecayWidth(ipart);
}

GetMCFMParticleLabel()

TString TUtil::GetMCFMParticleLabel	(	const int &	pid,
		bool	useQJ,
		bool	useExtendedConventions
	)

Definition at line 3304 of file TUtil.cc.

                                                                                          {
  if (PDGHelpers::isAnUnknownJet(pid)){
    if (useQJ) return TString("qj");
    else return TString("pp");
  }
  else if (PDGHelpers::isAGluon(pid)) return TString("ig");
  else if (pid==1) return TString("dq");
  else if (pid==2) return TString("uq");
  else if (pid==3) return TString("sq");
  else if (pid==4) return TString("cq");
  else if (pid==5) return TString("bq");
  else if (pid==-1) return TString("da");
  else if (pid==-2) return TString("ua");
  else if (pid==-3) return TString("sa");
  else if (pid==-4) return TString("ca");
  else if (pid==-5) return TString("ba");
  else if (abs(pid)==6) return TString("qj"); // No tops!
  else if (pid==11) return TString("el");
  else if (pid==13) return TString("ml");
  else if (pid==15) return TString("tl");
  else if (pid==-11) return TString("ea");
  else if (pid==-13) return TString("ma");
  else if (pid==-15) return TString("ta");
  else if (std::abs(pid)>=12 && std::abs(pid)<=16){
    if (!useExtendedConventions){
      if (pid>0) return TString("nl");
      else return TString("na");
    }
    else{
      if (pid==12) return TString("ne");
      else if (pid==14) return TString("nm");
      else if (pid==16) return TString("nt");
      else if (pid==-12) return TString("ke");
      else if (pid==-14) return TString("km");
      else/* if (pid==-16)*/ return TString("kt");
    }
  }
  else return TString("  ");
}

HJJMatEl()

double TUtil::HJJMatEl	(	const TVar::Process &	process,
		const TVar::Production &	production,
		const TVar::MatrixElement &	matrixElement,
		TVar::event_scales_type *	event_scales,
		MelaIO *	RcdME,
		const double &	EBEAM,
		TVar::VerbosityLevel	verbosity
	)

Definition at line 5383 of file TUtil.cc.

   {
  const double GeV=1./100.; // JHUGen mom. scale factor
  double sum_msqjk = 0;
  // by default assume only gg productions
  // FOTRAN convention -5    -4   -3  -2    -1  0 1 2 3 4 5
  //     parton flavor bbar cbar sbar ubar dbar g d u s c b
  // C++ convention     0     1   2    3    4   5 6 7 8 9 10
  //2-D matrix is reversed in fortran
  // msq[ parton2 ] [ parton1 ]
  //      flavor_msq[jj][ii] = fx1[ii]*fx2[jj]*msq[jj][ii];
  double MatElsq[nmsq][nmsq]={ { 0 } };
  double MatElsq_tmp[nmsq][nmsq]={ { 0 } }; // For H+J
  double msq_tmp=0; // For "*_exact"
 
  if (matrixElement!=TVar::JHUGen){ if (verbosity>=TVar::ERROR) MELAerr << "TUtil::HJJMatEl: Non-JHUGen MEs are not supported" << endl; return sum_msqjk; }
  if (!(production == TVar::JJQCD || production == TVar::JJVBF || production == TVar::JQCD)){ if (verbosity>=TVar::ERROR) MELAerr << "TUtil::HJJMatEl: Production is not supported!" << endl; return sum_msqjk; }
 
  // Notice that partIncCode is specific for this subroutine
  int nRequested_AssociatedJets=2;
  if (production == TVar::JQCD) nRequested_AssociatedJets=1;
  int partIncCode=TVar::kUseAssociated_Jets; // Only use associated partons in the pT=0 frame boost
  simple_event_record mela_event;
  mela_event.AssociationCode=partIncCode;
  mela_event.nRequested_AssociatedJets=nRequested_AssociatedJets;
  GetBoostedParticleVectors(
    RcdME->melaCand,
    mela_event,
    verbosity
    );
  if (mela_event.pAssociated.size()==0){ if (verbosity>=TVar::ERROR) MELAerr << "TUtil::HJJMatEl: Number of associated particles is 0!" << endl; return sum_msqjk; }
 
  int MYIDUP_tmp[4]={ 0 }; // "Incoming" partons 1, 2, "outgoing" partons 3, 4
  double p4[5][4]={ { 0 } };
  double pOneJet[4][4] ={ { 0 } }; // For HJ
  TLorentzVector MomStore[mxpart];
  for (int i = 0; i < mxpart; i++) MomStore[i].SetXYZT(0, 0, 0, 0);
 
  // p4(0:4,i) = (E(i),px(i),py(i),pz(i))
  // i=0,1: g1,g2 or q1, qb2 (outgoing convention)
  // i=2,3: J1, J2 in outgoing convention when possible
  // i=4: H
  for (int ipar=0; ipar<2; ipar++){
    TLorentzVector* momTmp = &(mela_event.pMothers.at(ipar).second);
    int* idtmp = &(mela_event.pMothers.at(ipar).first);
    if (!PDGHelpers::isAnUnknownJet(*idtmp)) MYIDUP_tmp[ipar] = *idtmp;
    else MYIDUP_tmp[ipar] = 0;
    if (momTmp->T()>0.){
      p4[ipar][0] = momTmp->T()*GeV;
      p4[ipar][1] = momTmp->X()*GeV;
      p4[ipar][2] = momTmp->Y()*GeV;
      p4[ipar][3] = momTmp->Z()*GeV;
      MomStore[ipar] = (*momTmp);
    }
    else{
      p4[ipar][0] = -momTmp->T()*GeV;
      p4[ipar][1] = -momTmp->X()*GeV;
      p4[ipar][2] = -momTmp->Y()*GeV;
      p4[ipar][3] = -momTmp->Z()*GeV;
      MomStore[ipar] = -(*momTmp);
      MYIDUP_tmp[ipar] = -MYIDUP_tmp[ipar];
    }
  }
  for (unsigned int ipar=0; ipar<2; ipar++){
    if (ipar<mela_event.pAssociated.size()){
      TLorentzVector* momTmp = &(mela_event.pAssociated.at(ipar).second);
      int* idtmp = &(mela_event.pAssociated.at(ipar).first);
      if (!PDGHelpers::isAnUnknownJet(*idtmp)) MYIDUP_tmp[ipar+2] = *idtmp;
      else MYIDUP_tmp[ipar+2] = 0;
      p4[ipar+2][0] = momTmp->T()*GeV;
      p4[ipar+2][1] = momTmp->X()*GeV;
      p4[ipar+2][2] = momTmp->Y()*GeV;
      p4[ipar+2][3] = momTmp->Z()*GeV;
      MomStore[ipar+6] = (*momTmp); // i==(2, 3, 4) is (J1, J2, H), recorded as MomStore (I1, I2, 0, 0, 0, H, J1, J2)
    }
    else MYIDUP_tmp[ipar+2] = -9000; // No need to set p4, which is already 0 by initialization
  }
  for (unsigned int ipar=0; ipar<mela_event.pDaughters.size(); ipar++){
    TLorentzVector* momTmp = &(mela_event.pDaughters.at(ipar).second);
    p4[4][0] += momTmp->T()*GeV;
    p4[4][1] += momTmp->X()*GeV;
    p4[4][2] += momTmp->Y()*GeV;
    p4[4][3] += momTmp->Z()*GeV;
    MomStore[5] = MomStore[5] + (*momTmp); // i==(2, 3, 4) is (J1, J2, H), recorded as MomStore (I1, I2, 0, 0, 0, H, J1, J2)
  }
  // Momenta for HJ
  for (unsigned int i = 0; i < 4; i++){
    if (i<2){ for (unsigned int j = 0; j < 4; j++) pOneJet[i][j] = p4[i][j]; } // p1 p2
    else if (i==2){ for (unsigned int j = 0; j < 4; j++) pOneJet[i][j] = p4[4][j]; } // H
    else{ for (unsigned int j = 0; j < 4; j++) pOneJet[i][j] = p4[2][j]; } // J1
  }
  if (verbosity >= TVar::DEBUG){ 
    for (unsigned int i=0; i<5; i++) MELAout << "p["<<i<<"] (Px, Py, Pz, E, M):\t" << p4[i][1]/GeV << '\t' << p4[i][2]/GeV << '\t' << p4[i][3]/GeV << '\t' << p4[i][0]/GeV << '\t' << sqrt(fabs(pow(p4[i][0], 2)-pow(p4[i][1], 2)-pow(p4[i][2], 2)-pow(p4[i][3], 2)))/GeV << endl;
    MELAout << "One-jet momenta: " << endl;
    for (unsigned int i=0; i<4; i++) MELAout << "pOneJet["<<i<<"] (Px, Py, Pz, E, M):\t" << pOneJet[i][1]/GeV << '\t' << pOneJet[i][2]/GeV << '\t' << pOneJet[i][3]/GeV << '\t' << pOneJet[i][0]/GeV << '\t' << sqrt(fabs(pow(pOneJet[i][0], 2)-pow(pOneJet[i][1], 2)-pow(pOneJet[i][2], 2)-pow(pOneJet[i][3], 2)))/GeV << endl;
  }
 
  double defaultRenScale = scale_.scale;
  double defaultFacScale = facscale_.facscale;
  int defaultNloop = nlooprun_.nlooprun;
  int defaultNflav = nflav_.nflav;
  string defaultPdflabel = pdlabel_.pdlabel;
  double renQ = InterpretScaleScheme(production, matrixElement, event_scales->renomalizationScheme, MomStore);
  double facQ = InterpretScaleScheme(production, matrixElement, event_scales->factorizationScheme, MomStore);
  SetAlphaS(renQ, facQ, event_scales->ren_scale_factor, event_scales->fac_scale_factor, 1, 5, "cteq6_l");
  double alphasVal, alphasmzVal;
  GetAlphaS(&alphasVal, &alphasmzVal);
  RcdME->setRenormalizationScale(renQ);
  RcdME->setFactorizationScale(facQ);
  RcdME->setAlphaS(alphasVal);
  RcdME->setAlphaSatMZ(alphasmzVal);
  RcdME->setHiggsMassWidth(masses_mcfm_.hmass, masses_mcfm_.hwidth, 0);
  RcdME->setHiggsMassWidth(spinzerohiggs_anomcoupl_.h2mass, spinzerohiggs_anomcoupl_.h2width, 1);
  if (verbosity>=TVar::DEBUG){
    MELAout
      << "TUtil::HJJMatEl: Set AlphaS:\n"
      << "\tBefore set, alphas scale: " << defaultRenScale << ", PDF scale: " << defaultFacScale << '\n'
      << "\trenQ: " << renQ << " ( x " << event_scales->ren_scale_factor << "), facQ: " << facQ << " ( x " << event_scales->fac_scale_factor << ")\n"
      << "\tAfter set, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << ", alphas(Qren): " << alphasVal << ", alphas(MZ): " << alphasmzVal << endl;
  }
 
  // Since we have a lot of these checks, do them here.
  bool partonIsUnknown[4];
  for (unsigned int ip=0; ip<4; ip++) partonIsUnknown[ip] = (MYIDUP_tmp[ip]==0);
 
  // NOTE ON HJ AND HJJ CHANNEL HASHES:
  // THEY ONLY RETURN ISEL>=JSEL CASES. ISEL<JSEL NEEDS TO BE DONE MANUALLY.
  if (production == TVar::JQCD){ // Computation is already for all possible qqb/qg/qbg/gg, and incoming q, qb and g flavor have 1-1 correspondence to the outgoing jet flavor.
    __modhiggsj_MOD_evalamp_hj(pOneJet, MatElsq_tmp);
    for (int isel=-5; isel<=5; isel++){
      if (!partonIsUnknown[0] && !((PDGHelpers::isAGluon(MYIDUP_tmp[0]) && isel==0) || MYIDUP_tmp[0]==isel)) continue;
      for (int jsel=-5; jsel<=5; jsel++){
        if (!partonIsUnknown[1] && !((PDGHelpers::isAGluon(MYIDUP_tmp[1]) && jsel==0) || MYIDUP_tmp[1]==jsel)) continue;
        int rsel;
        if (isel!=0 && jsel!=0) rsel=0; // Covers qqb->Hg
        else if (isel==0) rsel=jsel; // Covers gg->Hg, gq->Hq, gqb->Hqb
        else rsel=isel; // Covers qg->Hq, qbg->Hqb
        if (!partonIsUnknown[2] && !((PDGHelpers::isAGluon(MYIDUP_tmp[2]) && rsel==0) || MYIDUP_tmp[2]==rsel)) continue;
        MatElsq[jsel+5][isel+5] = MatElsq_tmp[jsel+5][isel+5]; // Assign only those that match gen. info, if present at all.
        if (verbosity >= TVar::DEBUG) MELAout << "Channel (isel, jsel)=" << isel << ", " << jsel << endl;
      }
    }
  }
  else if (production == TVar::JJQCD){
    const std::vector<TNumericUtil::intTriplet_t>& ijsel = Get_JHUGenHash_OnshellHJJHash();
    int nijchannels = ijsel.size();
    for (int ic=0; ic<nijchannels; ic++){
      // Emulate EvalWeighted_HJJ_test
      int isel = ijsel[ic][0];
      int jsel = ijsel[ic][1];
      int code = ijsel[ic][2];
 
      if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "HJJ channel " << ic << " code " << code << endl;
 
      // Default assignments
      if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "HJJ mother unswapped case" << endl;
      int rsel=isel;
      int ssel=jsel;
 
      if (
        (partonIsUnknown[0] || ((PDGHelpers::isAGluon(MYIDUP_tmp[0]) && isel==0) || MYIDUP_tmp[0]==isel))
        &&
        (partonIsUnknown[1] || ((PDGHelpers::isAGluon(MYIDUP_tmp[1]) && jsel==0) || MYIDUP_tmp[1]==jsel))
        ){ // Do it this way to be able to swap isel and jsel later
 
        if (isel==0 && jsel==0){ // gg->?
          if (code==2){ // gg->qqb
            // Only compute u-ub. The amplitude is multiplied by nf=5
            rsel=1;
            ssel=-1;
            if (
              (partonIsUnknown[2] || (PDGHelpers::isAQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]>0))
              &&
              (partonIsUnknown[3] || (PDGHelpers::isAQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]<0))
              ){
              __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
              MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
              if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
            }
            if (
              (partonIsUnknown[2] || (PDGHelpers::isAQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]<0))
              &&
              (partonIsUnknown[3] || (PDGHelpers::isAQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]>0))
              ){
              __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &msq_tmp);
              MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
              if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
            }
          }
          else{ // gg->gg
            // rsel=ssel=g already
            if (
              (partonIsUnknown[2] || (PDGHelpers::isAGluon(MYIDUP_tmp[2]) && rsel==0))
              &&
              (partonIsUnknown[3] || (PDGHelpers::isAGluon(MYIDUP_tmp[3]) && ssel==0))
              ){
              __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
              MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
              if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
            }
          }
        }
        else if (isel==0 || jsel==0){ // qg/qbg/gq/gqb->qg/qbg/gq/gqb
          if (
            (partonIsUnknown[2] || ((PDGHelpers::isAGluon(MYIDUP_tmp[2]) && rsel==0) || MYIDUP_tmp[2]==rsel))
            &&
            (partonIsUnknown[3] || ((PDGHelpers::isAGluon(MYIDUP_tmp[3]) && ssel==0) || MYIDUP_tmp[3]==ssel))
            ){
            __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
            MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
            if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
          }
          if (
            (partonIsUnknown[2] || ((PDGHelpers::isAGluon(MYIDUP_tmp[2]) && ssel==0) || MYIDUP_tmp[2]==ssel))
            &&
            (partonIsUnknown[3] || ((PDGHelpers::isAGluon(MYIDUP_tmp[3]) && rsel==0) || MYIDUP_tmp[3]==rsel))
            ){
            __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &msq_tmp);
            MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
            if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
          }
        }
        else if ((isel>0 && jsel<0) || (isel<0 && jsel>0)){ // qQb/qbQ->?
          if (code==1 && isel==-jsel){ // qqb/qbq->gg
            rsel=0; ssel=0;
            if (
              (partonIsUnknown[2] || PDGHelpers::isAGluon(MYIDUP_tmp[2]))
              &&
              (partonIsUnknown[3] || PDGHelpers::isAGluon(MYIDUP_tmp[3]))
              ){
              __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
              MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
              if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
            }
          }
          else if (code==3 && isel==-jsel){ // qqb->QQb
            if (abs(isel)!=1){ rsel=1; ssel=-1; } // Make sure rsel, ssel are not of same flavor as isel, jsel
            else{ rsel=2; ssel=-2; }
            // The amplitude is aready multiplied by nf-1, so no need to calculate everything (nf-1) times.
            if (
              (partonIsUnknown[2] && partonIsUnknown[3])
              ||
              (partonIsUnknown[2] && std::abs(MYIDUP_tmp[3])!=std::abs(isel) && MYIDUP_tmp[3]<0)
              ||
              (std::abs(MYIDUP_tmp[2])!=std::abs(isel) && MYIDUP_tmp[2]>0 && partonIsUnknown[3])
              ||
              (std::abs(MYIDUP_tmp[2])!=std::abs(isel) && MYIDUP_tmp[2]==-MYIDUP_tmp[3] && MYIDUP_tmp[2]>0)
              ){
              __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
              MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
              if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
            }
            if (
              (partonIsUnknown[2] && partonIsUnknown[3])
              ||
              (partonIsUnknown[2] && std::abs(MYIDUP_tmp[3])!=std::abs(isel) && MYIDUP_tmp[3]>0)
              ||
              (std::abs(MYIDUP_tmp[2])!=std::abs(isel) && MYIDUP_tmp[2]<0 && partonIsUnknown[3])
              ||
              (std::abs(MYIDUP_tmp[2])!=std::abs(isel) && MYIDUP_tmp[2]==-MYIDUP_tmp[3] && MYIDUP_tmp[2]<0)
              ){
              __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &msq_tmp);
              MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
              if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
            }
          }
          else{ // qQb/qbQ->qQb/qbQ
            if (
              (partonIsUnknown[2] || MYIDUP_tmp[2]==rsel)
              &&
              (partonIsUnknown[3] || MYIDUP_tmp[3]==ssel)
              ){
              __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
              MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
              if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
            }
            if (
              (partonIsUnknown[2] || MYIDUP_tmp[2]==ssel)
              &&
              (partonIsUnknown[3] || MYIDUP_tmp[3]==rsel)
              ){
              __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &msq_tmp);
              MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
              if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
            }
          }
        }
        else{
          if (
            (partonIsUnknown[2] || MYIDUP_tmp[2]==rsel)
            &&
            (partonIsUnknown[3] || MYIDUP_tmp[3]==ssel)
            ){
            __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
            MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
            if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
          }
          if (
            rsel!=ssel
            &&
            (partonIsUnknown[2] || MYIDUP_tmp[2]==ssel)
            &&
            (partonIsUnknown[3] || MYIDUP_tmp[3]==rsel)
            ){
            __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &msq_tmp);
            MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
            if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
          }
        }
      } // End unswapped isel>=jsel cases
 
      if (isel==jsel) continue;
      isel = ijsel[ic][1];
      jsel = ijsel[ic][0];
 
      if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "HJJ mother swapped case" << endl;
      // Reset to default assignments
      rsel=isel;
      ssel=jsel;
 
      if (
        (partonIsUnknown[0] || ((PDGHelpers::isAGluon(MYIDUP_tmp[0]) && isel==0) || MYIDUP_tmp[0]==isel))
        &&
        (partonIsUnknown[1] || ((PDGHelpers::isAGluon(MYIDUP_tmp[1]) && jsel==0) || MYIDUP_tmp[1]==jsel))
        ){
        // isel==jsel==0 is already eliminated by isel!=jsel condition
        if (isel==0 || jsel==0){ // qg/qbg/gq/gqb->qg/qbg/gq/gqb
          if (
            (partonIsUnknown[2] || ((PDGHelpers::isAGluon(MYIDUP_tmp[2]) && rsel==0) || MYIDUP_tmp[2]==rsel))
            &&
            (partonIsUnknown[3] || ((PDGHelpers::isAGluon(MYIDUP_tmp[3]) && ssel==0) || MYIDUP_tmp[3]==ssel))
            ){
            __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
            MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
            if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
          }
          if (
            (partonIsUnknown[2] || ((PDGHelpers::isAGluon(MYIDUP_tmp[2]) && ssel==0) || MYIDUP_tmp[2]==ssel))
            &&
            (partonIsUnknown[3] || ((PDGHelpers::isAGluon(MYIDUP_tmp[3]) && rsel==0) || MYIDUP_tmp[3]==rsel))
            ){
            __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &msq_tmp);
            MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
            if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
          }
        }
        else if ((isel>0 && jsel<0) || (isel<0 && jsel>0)){ // qQb/qbQ->?
          if (code==1 && isel==-jsel){ // qqb/qbq->gg
            rsel=0; ssel=0;
            if (
              (partonIsUnknown[2] || PDGHelpers::isAGluon(MYIDUP_tmp[2]))
              &&
              (partonIsUnknown[3] || PDGHelpers::isAGluon(MYIDUP_tmp[3]))
              ){
              __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
              MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
              if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
            }
          }
          else if(code==3 && isel==-jsel){ // qqb->QQb
            if (abs(isel)!=1){ rsel=1; ssel=-1; } // Make sure rsel, ssel are not of same flavor as isel, jsel
            else{ rsel=2; ssel=-2; }
            // The amplitude is aready multiplied by nf-1, so no need to calculate everything (nf-1) times.
            if (
              (partonIsUnknown[2] && partonIsUnknown[3])
              ||
              (partonIsUnknown[2] && std::abs(MYIDUP_tmp[3])!=std::abs(isel) && MYIDUP_tmp[3]<0)
              ||
              (std::abs(MYIDUP_tmp[2])!=std::abs(isel) && MYIDUP_tmp[2]>0 && partonIsUnknown[3])
              ||
              (std::abs(MYIDUP_tmp[2])!=std::abs(isel) && MYIDUP_tmp[2]==-MYIDUP_tmp[3] && MYIDUP_tmp[2]>0)
              ){
              __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
              MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
              if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
            }
            if (
              (partonIsUnknown[2] && partonIsUnknown[3])
              ||
              (partonIsUnknown[2] && std::abs(MYIDUP_tmp[3])!=std::abs(isel) && MYIDUP_tmp[3]>0)
              ||
              (std::abs(MYIDUP_tmp[2])!=std::abs(isel) && MYIDUP_tmp[2]<0 && partonIsUnknown[3])
              ||
              (std::abs(MYIDUP_tmp[2])!=std::abs(isel) && MYIDUP_tmp[2]==-MYIDUP_tmp[3] && MYIDUP_tmp[2]<0)
              ){
              __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &msq_tmp);
              MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
              if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
            }
          }
          else{ // qQb/qbQ->qQb/qbQ
            if (
              (partonIsUnknown[2] || MYIDUP_tmp[2]==rsel)
              &&
              (partonIsUnknown[3] || MYIDUP_tmp[3]==ssel)
              ){
              __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
              MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
              if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
            }
            if (
              (partonIsUnknown[2] || MYIDUP_tmp[2]==ssel)
              &&
              (partonIsUnknown[3] || MYIDUP_tmp[3]==rsel)
              ){
              __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &msq_tmp);
              MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
              if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
            }
          }
        }
        else{
          if (
            (partonIsUnknown[2] || MYIDUP_tmp[2]==rsel)
            &&
            (partonIsUnknown[3] || MYIDUP_tmp[3]==ssel)
            ){
            __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
            MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
            if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
          }
          if (
            rsel!=ssel
            &&
            (partonIsUnknown[2] || MYIDUP_tmp[2]==ssel)
            &&
            (partonIsUnknown[3] || MYIDUP_tmp[3]==rsel)
            ){
            __modhiggsjj_MOD_evalamp_sbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &msq_tmp);
            MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
            if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
          }
        }
      } // End swapped isel<jsel cases
    } // End loop over ic<nijchannels
  } // End production == TVar::JJQCD
  else if (production == TVar::JJVBF){
    int isel, jsel, rsel, ssel;
    /*
    1234/1243 [0] vs [1] correspond to transposing 12 and 34 at the same time.
    Eg. 12->34 == udbar->udbar
    1234[0] : 1=u, 2=dbar, 3=u, 4=dbar
    1243[0] : 1=u, 2=dbar, 4=u, 3=dbar
    1234[1] : 2=u, 1=dbar, 4=u, 3=dbar
    1243[1] : 2=u, 1=dbar, 3=u, 4=dbar
    */
    double ckm_takeout=1;
    double msq_uu_zz_ijrs1234[2]={ 0 };
    double msq_uu_zz_ijrs1243[2]={ 0 };
    double msq_dd_zz_ijrs1234[2]={ 0 };
    double msq_dd_zz_ijrs1243[2]={ 0 };
    double msq_ubarubar_zz_ijrs1234[2]={ 0 };
    double msq_ubarubar_zz_ijrs1243[2]={ 0 };
    double msq_dbardbar_zz_ijrs1234[2]={ 0 };
    double msq_dbardbar_zz_ijrs1243[2]={ 0 };
    double msq_uu_zzid_ijrs1234[2]={ 0 };
    double msq_uu_zzid_ijrs1243[2]={ 0 };
    double msq_dd_zzid_ijrs1234[2]={ 0 };
    double msq_dd_zzid_ijrs1243[2]={ 0 };
    double msq_ubarubar_zzid_ijrs1234[2]={ 0 };
    double msq_ubarubar_zzid_ijrs1243[2]={ 0 };
    double msq_dbardbar_zzid_ijrs1234[2]={ 0 };
    double msq_dbardbar_zzid_ijrs1243[2]={ 0 };
    double msq_udbar_zz_ijrs1234[2]={ 0 };
    double msq_udbar_zz_ijrs1243[2]={ 0 };
    double msq_dubar_zz_ijrs1234[2]={ 0 };
    double msq_dubar_zz_ijrs1243[2]={ 0 };
 
    double msq_uubar_zz_ijrs1234[2]={ 0 };
    double msq_uubar_zz_ijrs1243[2]={ 0 };
    double msq_ddbar_zz_ijrs1234[2]={ 0 };
    double msq_ddbar_zz_ijrs1243[2]={ 0 };
    double msq_uubar_ww_ijrs1234[2]={ 0 };
    double msq_uubar_ww_ijrs1243[2]={ 0 };
    double msq_ddbar_ww_ijrs1234[2]={ 0 };
    double msq_ddbar_ww_ijrs1243[2]={ 0 };
 
    double msq_ud_wwonly_ijrs1234[2]={ 0 };
    double msq_ud_wwonly_ijrs1243[2]={ 0 };
    double msq_ubardbar_wwonly_ijrs1234[2]={ 0 };
    double msq_ubardbar_wwonly_ijrs1243[2]={ 0 };
    // ud, ubardbar ZZ(+)WW case to be added separately inside a loop.
    
    // NOTE: The order should be u>c>d>s>b; particle>antiparticle
    if (
      (partonIsUnknown[0] || (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]>0))
      &&
      (partonIsUnknown[1] || (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]>0))
      &&
      (partonIsUnknown[2] || (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]>0))
      &&
      (partonIsUnknown[3] || (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]>0))
      ){
      isel=2; jsel=4; // uu'->(ZZ)->uu'
      rsel=isel; ssel=jsel;
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_uu_zz_ijrs1234[0]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_uu_zz_ijrs1243[0]));
      // Swapping i/j vs r/s makes no physical difference here.
      msq_uu_zz_ijrs1234[1] = msq_uu_zz_ijrs1234[0];
      msq_uu_zz_ijrs1243[1] = msq_uu_zz_ijrs1243[0];
 
      isel=2; jsel=2; // uu->(ZZ)->uu
      rsel=isel; ssel=jsel;
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_uu_zzid_ijrs1234[0]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_uu_zzid_ijrs1243[0]));
      // Swapping i/j vs r/s makes no physical difference here.
      msq_uu_zzid_ijrs1234[1] = msq_uu_zzid_ijrs1234[0];
      msq_uu_zzid_ijrs1243[1] = msq_uu_zzid_ijrs1243[0];
    }
 
    if (
      (partonIsUnknown[0] || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]>0))
      &&
      (partonIsUnknown[1] || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]>0))
      &&
      (partonIsUnknown[2] || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]>0))
      &&
      (partonIsUnknown[3] || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]>0))
      ){
      isel=1; jsel=3; // dd'->(ZZ)->dd'
      rsel=isel; ssel=jsel;
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_dd_zz_ijrs1234[0]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_dd_zz_ijrs1243[0]));
      // Swapping i/j vs r/s makes no physical difference here.
      msq_dd_zz_ijrs1234[1] = msq_dd_zz_ijrs1234[0];
      msq_dd_zz_ijrs1243[1] = msq_dd_zz_ijrs1243[0];
 
      isel=1; jsel=1; // dd->(ZZ)->dd
      rsel=isel; ssel=jsel;
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_dd_zzid_ijrs1234[0]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_dd_zzid_ijrs1243[0]));
      // Swapping i/j vs r/s makes no physical difference here.
      msq_dd_zzid_ijrs1234[1] = msq_dd_zzid_ijrs1234[0];
      msq_dd_zzid_ijrs1243[1] = msq_dd_zzid_ijrs1243[0];
    }
 
    if (
      (partonIsUnknown[0] || (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]<0))
      &&
      (partonIsUnknown[1] || (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]<0))
      &&
      (partonIsUnknown[2] || (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]<0))
      &&
      (partonIsUnknown[3] || (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]<0))
      ){
      isel=-2; jsel=-4; // ubarubar'->(ZZ)->ubarubar'
      rsel=isel; ssel=jsel;
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_ubarubar_zz_ijrs1234[0]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_ubarubar_zz_ijrs1243[0]));
      // Swapping i/j vs r/s makes no physical difference here.
      msq_ubarubar_zz_ijrs1234[1] = msq_ubarubar_zz_ijrs1234[0];
      msq_ubarubar_zz_ijrs1243[1] = msq_ubarubar_zz_ijrs1243[0];
 
      isel=-2; jsel=-2; // ubarubar->(ZZ)->ubarubar
      rsel=isel; ssel=jsel;
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_ubarubar_zzid_ijrs1234[0]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_ubarubar_zzid_ijrs1243[0]));
      // Swapping i/j vs r/s makes no physical difference here.
      msq_ubarubar_zzid_ijrs1234[1] = msq_ubarubar_zzid_ijrs1234[0];
      msq_ubarubar_zzid_ijrs1243[1] = msq_ubarubar_zzid_ijrs1243[0];
    }
 
    if (
      (partonIsUnknown[0] || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]<0))
      &&
      (partonIsUnknown[1] || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]<0))
      &&
      (partonIsUnknown[2] || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]<0))
      &&
      (partonIsUnknown[3] || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]<0))
      ){
      isel=-1; jsel=-3; // dbardbar'->(ZZ)->dbardbar'
      rsel=isel; ssel=jsel;
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_dbardbar_zz_ijrs1234[0]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_dbardbar_zz_ijrs1243[0]));
      // Swapping i/j vs r/s makes no physical difference here.
      msq_dbardbar_zz_ijrs1234[1] = msq_dbardbar_zz_ijrs1234[0];
      msq_dbardbar_zz_ijrs1243[1] = msq_dbardbar_zz_ijrs1243[0];
 
      isel=-1; jsel=-1; // dbardbar->(ZZ)->dbardbar
      rsel=isel; ssel=jsel;
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_dbardbar_zzid_ijrs1234[0]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_dbardbar_zzid_ijrs1243[0]));
      // Swapping i/j vs r/s makes no physical difference here.
      msq_dbardbar_zzid_ijrs1234[1] = msq_dbardbar_zzid_ijrs1234[0];
      msq_dbardbar_zzid_ijrs1243[1] = msq_dbardbar_zzid_ijrs1243[0];
    }
 
    if (
      (
      (partonIsUnknown[0] && partonIsUnknown[1])
      ||
      (
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]>0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]<0)
      ||
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]>0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]<0)
      )
      ||
      (partonIsUnknown[0] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]>0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]<0)))
      ||
      (partonIsUnknown[1] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]>0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]<0)))
      )
      &&
      (
      (partonIsUnknown[2] && partonIsUnknown[3])
      ||
      (
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]>0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]<0)
      ||
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]>0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]<0)
      )
      ||
      (partonIsUnknown[2] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]>0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]<0)))
      ||
      (partonIsUnknown[3] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]>0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]<0)))
      )
      ){
      isel=2; jsel=-1; // udbar->(ZZ)->udbar
      rsel=isel; ssel=jsel;
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_udbar_zz_ijrs1234[0]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_udbar_zz_ijrs1243[0]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &ssel, &rsel, &(msq_udbar_zz_ijrs1234[1]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &rsel, &ssel, &(msq_udbar_zz_ijrs1243[1]));
    }
 
    if (
      (
      (partonIsUnknown[0] && partonIsUnknown[1])
      ||
      (
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]<0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]>0)
      ||
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]<0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]>0)
      )
      ||
      (partonIsUnknown[0] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]<0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]>0)))
      ||
      (partonIsUnknown[1] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]<0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]>0)))
      )
      &&
      (
      (partonIsUnknown[2] && partonIsUnknown[3])
      ||
      (
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]<0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]>0)
      ||
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]<0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]>0)
      )
      ||
      (partonIsUnknown[2] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]<0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]>0)))
      ||
      (partonIsUnknown[3] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]<0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]>0)))
      )
      ){
      isel=1; jsel=-2; // dubar->(ZZ)->dubar
      rsel=isel; ssel=jsel;
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_dubar_zz_ijrs1234[0]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_dubar_zz_ijrs1243[0]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &ssel, &rsel, &(msq_dubar_zz_ijrs1234[1]));
      __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &rsel, &ssel, &(msq_dubar_zz_ijrs1243[1]));
    }
 
    if (
      (partonIsUnknown[0] && partonIsUnknown[1])
      ||
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[0]) && PDGHelpers::isUpTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[0]*MYIDUP_tmp[1]<0)
      ||
      (partonIsUnknown[0] && PDGHelpers::isUpTypeQuark(MYIDUP_tmp[1]))
      ||
      (partonIsUnknown[1] && PDGHelpers::isUpTypeQuark(MYIDUP_tmp[0]))
      ){
      isel=2; jsel=-2; // uubar->(ZZ)->uubar
      if (
        (partonIsUnknown[2] && partonIsUnknown[3])
        ||
        (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]) && PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[2]*MYIDUP_tmp[3]<0)
        ||
        (partonIsUnknown[2] && PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]))
        ||
        (partonIsUnknown[3] && PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]))
        ){
        rsel=isel; ssel=jsel; // uubar->(ZZ)->uubar
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_uubar_zz_ijrs1234[0]));
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_uubar_zz_ijrs1243[0]));
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &ssel, &rsel, &(msq_uubar_zz_ijrs1234[1]));
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &rsel, &ssel, &(msq_uubar_zz_ijrs1243[1]));
      }
      if (
        (partonIsUnknown[2] && partonIsUnknown[3])
        ||
        (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]) && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[2]*MYIDUP_tmp[3]<0)
        ||
        (partonIsUnknown[2] && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]))
        ||
        (partonIsUnknown[3] && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]))
        ){
        rsel=-1; ssel=1; // uubar->(WW)->ddbar
        double ckm_ir = 0.;
        double ckm_js = 0.;
        while (ckm_ir==0.){
          rsel += 2;
          ssel -= 2;
          if (abs(rsel)>=6){
            rsel=-1; ssel=1;
            isel+=2; jsel-=2;
            continue;
          }
          if (abs(isel)>=6) break;
          ckm_ir = __modparameters_MOD_ckmbare(&isel, &rsel);
          ckm_js = __modparameters_MOD_ckmbare(&jsel, &ssel);
        }
        if (ckm_ir!=0.){
          __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_uubar_ww_ijrs1234[0]));
          __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_uubar_ww_ijrs1243[0]));
          __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &ssel, &rsel, &(msq_uubar_ww_ijrs1234[1]));
          __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &rsel, &ssel, &(msq_uubar_ww_ijrs1243[1]));
          ckm_takeout = pow(ckm_ir*ckm_js, 2);
          for (unsigned int iswap=0; iswap<2; iswap++){
            msq_uubar_ww_ijrs1234[iswap] /= ckm_takeout;
            msq_uubar_ww_ijrs1243[iswap] /= ckm_takeout;
          }
        }
      }
    }
 
    if (
      (partonIsUnknown[0] && partonIsUnknown[1])
      ||
      (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[0]) && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[0]*MYIDUP_tmp[1]<0)
      ||
      (partonIsUnknown[0] && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[1]))
      ||
      (partonIsUnknown[1] && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[0]))
      ){
      isel=1; jsel=-1;
      if (
        (partonIsUnknown[2] && partonIsUnknown[3])
        ||
        (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]) && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[2]*MYIDUP_tmp[3]<0)
        ||
        (partonIsUnknown[2] && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]))
        ||
        (partonIsUnknown[3] && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]))
        ){
        rsel=isel; ssel=jsel; // ddbar->(ZZ)->ddbar
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_ddbar_zz_ijrs1234[0]));
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_ddbar_zz_ijrs1243[0]));
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &ssel, &rsel, &(msq_ddbar_zz_ijrs1234[1]));
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &rsel, &ssel, &(msq_ddbar_zz_ijrs1243[1]));
      }
      if (
        (partonIsUnknown[2] && partonIsUnknown[3])
        ||
        (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]) && PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[2]*MYIDUP_tmp[3]<0)
        ||
        (partonIsUnknown[2] && PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]))
        ||
        (partonIsUnknown[3] && PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]))
        ){
        rsel=0; ssel=0; // ddbar->(WW)->uubar
        double ckm_ir = 0.;
        double ckm_js = 0.;
        while (ckm_ir==0.){
          rsel += 2;
          ssel -= 2;
          if (abs(rsel)>=6){
            rsel=0; ssel=0;
            isel+=2; jsel-=2;
            continue;
          }
          if (abs(isel)>=6) break;
          ckm_ir = __modparameters_MOD_ckmbare(&isel, &rsel);
          ckm_js = __modparameters_MOD_ckmbare(&jsel, &ssel);
        }
        if (ckm_ir!=0.){
          __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_ddbar_ww_ijrs1234[0]));
          __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_ddbar_ww_ijrs1243[0]));
          __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &ssel, &rsel, &(msq_ddbar_ww_ijrs1234[1]));
          __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &rsel, &ssel, &(msq_ddbar_ww_ijrs1243[1]));
          ckm_takeout = pow(ckm_ir*ckm_js, 2);
          for (unsigned int iswap=0; iswap<2; iswap++){
            msq_ddbar_ww_ijrs1234[iswap] /= ckm_takeout;
            msq_ddbar_ww_ijrs1243[iswap] /= ckm_takeout;
          }
        }
      }
    }
 
    if (
      (
      (partonIsUnknown[0] && partonIsUnknown[1])
      ||
      (
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]>0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]>0)
      ||
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]>0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]>0)
      )
      ||
      (partonIsUnknown[0] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]>0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]>0)))
      ||
      (partonIsUnknown[1] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]>0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]>0)))
      )
      &&
      (
      (partonIsUnknown[2] && partonIsUnknown[3])
      ||
      (
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]>0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]>0)
      ||
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]>0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]>0)
      )
      ||
      (partonIsUnknown[2] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]>0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]>0)))
      ||
      (partonIsUnknown[3] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]>0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]>0)))
      )
      ){
      // ud->(WW)->d'u'
      double ckm_ir = 0.;
      double ckm_js = 0.;
      const unsigned int nCombinations = 6;
      int ijrs_arr[nCombinations][4] ={
        { 2, 3, 1, 4 },
        { 2, 3, 5, 4 },
        { 2, 5, 1, 4 },
        { 2, 5, 3, 4 },
        { 2, 1, 3, 4 },
        { 2, 1, 5, 4 }
      };
      for (unsigned int ijrs=0; ijrs<nCombinations; ijrs++){
        isel = ijrs_arr[ijrs][0];
        jsel = ijrs_arr[ijrs][1];
        rsel = ijrs_arr[ijrs][2];
        ssel = ijrs_arr[ijrs][3];
        ckm_ir = __modparameters_MOD_ckmbare(&isel, &rsel);
        ckm_js = __modparameters_MOD_ckmbare(&jsel, &ssel);
        if (ckm_ir!=0. && ckm_js!=0.) break;
      }
      if (ckm_ir!=0. && ckm_js!=0.){
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_ud_wwonly_ijrs1234[0]));
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_ud_wwonly_ijrs1243[0]));
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &ssel, &rsel, &(msq_ud_wwonly_ijrs1234[1]));
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &rsel, &ssel, &(msq_ud_wwonly_ijrs1243[1]));
        ckm_takeout = pow(ckm_ir*ckm_js, 2);
        for (unsigned int iswap=0; iswap<2; iswap++){
          msq_ud_wwonly_ijrs1234[iswap] /= ckm_takeout;
          msq_ud_wwonly_ijrs1243[iswap] /= ckm_takeout;
        }
      }
    }
 
    if (
      (
      (partonIsUnknown[0] && partonIsUnknown[1])
      ||
      (
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]<0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]<0)
      ||
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]<0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]<0)
      )
      ||
      (partonIsUnknown[0] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]<0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[1]) && MYIDUP_tmp[1]<0)))
      ||
      (partonIsUnknown[1] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]<0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[0]) && MYIDUP_tmp[0]<0)))
      )
      &&
      (
      (partonIsUnknown[2] && partonIsUnknown[3])
      ||
      (
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]<0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]<0)
      ||
      (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]<0 && PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]<0)
      )
      ||
      (partonIsUnknown[2] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]<0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[3]) && MYIDUP_tmp[3]<0)))
      ||
      (partonIsUnknown[3] && ((PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]<0) || (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2]) && MYIDUP_tmp[2]<0)))
      )
      ){
      // ubardbar->(WW)->dbar'ubar'
      double ckm_ir = 0.;
      double ckm_js = 0.;
      const unsigned int nCombinations = 6;
      int ijrs_arr[nCombinations][4] ={
        { -2, -3, -1, -4 },
        { -2, -3, -5, -4 },
        { -2, -5, -1, -4 },
        { -2, -5, -3, -4 },
        { -2, -1, -3, -4 },
        { -2, -1, -5, -4 }
      };
      for (unsigned int ijrs=0; ijrs<nCombinations; ijrs++){
        isel = ijrs_arr[ijrs][0];
        jsel = ijrs_arr[ijrs][1];
        rsel = ijrs_arr[ijrs][2];
        ssel = ijrs_arr[ijrs][3];
        ckm_ir = __modparameters_MOD_ckmbare(&isel, &rsel);
        ckm_js = __modparameters_MOD_ckmbare(&jsel, &ssel);
        if (ckm_ir!=0. && ckm_js!=0.) break;
      }
      if (ckm_ir!=0. && ckm_js!=0.){
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &(msq_ubardbar_wwonly_ijrs1234[0]));
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &(msq_ubardbar_wwonly_ijrs1243[0]));
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &ssel, &rsel, &(msq_ubardbar_wwonly_ijrs1234[1]));
        __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &jsel, &isel, &rsel, &ssel, &(msq_ubardbar_wwonly_ijrs1243[1]));
        ckm_takeout = pow(ckm_ir*ckm_js, 2);
        for (unsigned int iswap=0; iswap<2; iswap++){
          msq_ubardbar_wwonly_ijrs1234[iswap] /= ckm_takeout;
          msq_ubardbar_wwonly_ijrs1243[iswap] /= ckm_takeout;
        }
      }
    }
 
    if (verbosity>=TVar::DEBUG_VERBOSE){
      MELAout << "TUtil::HJJMatEl: The pre-computed MEs:" << endl;
      for (unsigned int iswap=0; iswap<2; iswap++){
        MELAout
          << "\tmsq_uu_zz_ijrs1234[" << iswap << "] = " << msq_uu_zz_ijrs1234[iswap] << '\n'
          << "\tmsq_uu_zz_ijrs1243[" << iswap << "] = " << msq_uu_zz_ijrs1243[iswap] << '\n'
          << "\tmsq_dd_zz_ijrs1234[" << iswap << "] = " << msq_dd_zz_ijrs1234[iswap] << '\n'
          << "\tmsq_dd_zz_ijrs1243[" << iswap << "] = " << msq_dd_zz_ijrs1243[iswap] << '\n'
          << "\tmsq_ubarubar_zz_ijrs1234[" << iswap << "] = " << msq_ubarubar_zz_ijrs1234[iswap] << '\n'
          << "\tmsq_ubarubar_zz_ijrs1243[" << iswap << "] = " << msq_ubarubar_zz_ijrs1243[iswap] << '\n'
          << "\tmsq_dbardbar_zz_ijrs1234[" << iswap << "] = " << msq_dbardbar_zz_ijrs1234[iswap] << '\n'
          << "\tmsq_dbardbar_zz_ijrs1243[" << iswap << "] = " << msq_dbardbar_zz_ijrs1243[iswap] << '\n'
          << "\tmsq_uu_zzid_ijrs1234[" << iswap << "] = " << msq_uu_zzid_ijrs1234[iswap] << '\n'
          << "\tmsq_uu_zzid_ijrs1243[" << iswap << "] = " << msq_uu_zzid_ijrs1243[iswap] << '\n'
          << "\tmsq_dd_zzid_ijrs1234[" << iswap << "] = " << msq_dd_zzid_ijrs1234[iswap] << '\n'
          << "\tmsq_dd_zzid_ijrs1243[" << iswap << "] = " << msq_dd_zzid_ijrs1243[iswap] << '\n'
          << "\tmsq_ubarubar_zzid_ijrs1234[" << iswap << "] = " << msq_ubarubar_zzid_ijrs1234[iswap] << '\n'
          << "\tmsq_ubarubar_zzid_ijrs1243[" << iswap << "] = " << msq_ubarubar_zzid_ijrs1243[iswap] << '\n'
          << "\tmsq_dbardbar_zzid_ijrs1234[" << iswap << "] = " << msq_dbardbar_zzid_ijrs1234[iswap] << '\n'
          << "\tmsq_dbardbar_zzid_ijrs1243[" << iswap << "] = " << msq_dbardbar_zzid_ijrs1243[iswap] << '\n'
          << "\tmsq_udbar_zz_ijrs1234[" << iswap << "] = " << msq_udbar_zz_ijrs1234[iswap] << '\n'
          << "\tmsq_udbar_zz_ijrs1243[" << iswap << "] = " << msq_udbar_zz_ijrs1243[iswap] << '\n'
          << "\tmsq_dubar_zz_ijrs1234[" << iswap << "] = " << msq_dubar_zz_ijrs1234[iswap] << '\n'
          << "\tmsq_dubar_zz_ijrs1243[" << iswap << "] = " << msq_dubar_zz_ijrs1243[iswap] << '\n'
          << "\tmsq_uubar_zz_ijrs1234[" << iswap << "] = " << msq_uubar_zz_ijrs1234[iswap] << '\n'
          << "\tmsq_uubar_zz_ijrs1243[" << iswap << "] = " << msq_uubar_zz_ijrs1243[iswap] << '\n'
          << "\tmsq_ddbar_zz_ijrs1234[" << iswap << "] = " << msq_ddbar_zz_ijrs1234[iswap] << '\n'
          << "\tmsq_ddbar_zz_ijrs1243[" << iswap << "] = " << msq_ddbar_zz_ijrs1243[iswap] << '\n'
          << "\tmsq_uubar_ww_ijrs1234[" << iswap << "] = " << msq_uubar_ww_ijrs1234[iswap] << '\n'
          << "\tmsq_uubar_ww_ijrs1243[" << iswap << "] = " << msq_uubar_ww_ijrs1243[iswap] << '\n'
          << "\tmsq_ddbar_ww_ijrs1234[" << iswap << "] = " << msq_ddbar_ww_ijrs1234[iswap] << '\n'
          << "\tmsq_ddbar_ww_ijrs1243[" << iswap << "] = " << msq_ddbar_ww_ijrs1243[iswap] << '\n'
          << "\tmsq_ud_wwonly_ijrs1234[" << iswap << "] = " << msq_ud_wwonly_ijrs1234[iswap] << '\n'
          << "\tmsq_ud_wwonly_ijrs1243[" << iswap << "] = " << msq_ud_wwonly_ijrs1243[iswap] << '\n'
          << "\tmsq_ubardbar_wwonly_ijrs1234[" << iswap << "] = " << msq_ubardbar_wwonly_ijrs1234[iswap] << '\n'
          << "\tmsq_ubardbar_wwonly_ijrs1243[" << iswap << "] = " << msq_ubardbar_wwonly_ijrs1243[iswap]
          << endl;
      }
    }
 
    const std::vector<TNumericUtil::intTriplet_t>& ijsel = Get_JHUGenHash_OnshellVBFHash();
    int nijchannels = ijsel.size();
    // BEGIN COMPUTATION
    for (int ic=0; ic<nijchannels; ic++){
      // Emulate EvalWeighted_HJJ_test
      isel = ijsel[ic][0];
      jsel = ijsel[ic][1];
      int code = ijsel[ic][2];
      bool ijselIsUpType[2];
      bool ijselIsDownType[2];
      bool ijselIsParticle[2];
      bool ijselIsAntiparticle[2];
 
      if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "VBF channel " << ic << " code " << code << endl;
 
      // Default assignments
      if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "VBF mother unswapped case" << endl;
      // Set r=i, s=j default values
      rsel=isel;
      ssel=jsel;
      // Set i-j bools
      ijselIsUpType[0] = (PDGHelpers::isUpTypeQuark(isel));
      ijselIsUpType[1] = (PDGHelpers::isUpTypeQuark(jsel));
      ijselIsDownType[0] = (PDGHelpers::isDownTypeQuark(isel));
      ijselIsDownType[1] = (PDGHelpers::isDownTypeQuark(jsel));
      ijselIsParticle[0] = (isel>0); ijselIsAntiparticle[0] = (isel<0);
      ijselIsParticle[1] = (jsel>0); ijselIsAntiparticle[1] = (jsel<0);
 
      if (
        (partonIsUnknown[0] || MYIDUP_tmp[0]==isel)
        &&
        (partonIsUnknown[1] || MYIDUP_tmp[1]==jsel)
        ){ // Do it this way to be able to swap isel and jsel later
        if (code==1){ // Only ZZ->H possible
          // rsel=isel and ssel=jsel already
          if (
            (partonIsUnknown[2] || MYIDUP_tmp[2]==rsel)
            &&
            (partonIsUnknown[3] || MYIDUP_tmp[3]==ssel)
            ){
            msq_tmp=0;
            if (ijselIsUpType[0] && ijselIsUpType[1]){
              if (ijselIsParticle[0] && ijselIsParticle[1]){
                if (isel!=jsel) msq_tmp = msq_uu_zz_ijrs1234[0];
                else msq_tmp = msq_uu_zzid_ijrs1234[0];
              }
              else if (ijselIsAntiparticle[0] && ijselIsAntiparticle[1]){
                if (isel!=jsel) msq_tmp = msq_ubarubar_zz_ijrs1234[0];
                else msq_tmp = msq_ubarubar_zzid_ijrs1234[0];
              }
              else if (ijselIsParticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_uubar_zz_ijrs1234[0];
            }
            else if (ijselIsDownType[0] && ijselIsDownType[1]){
              if (ijselIsParticle[0] && ijselIsParticle[1]){
                if (isel!=jsel) msq_tmp = msq_dd_zz_ijrs1234[0];
                else msq_tmp = msq_dd_zzid_ijrs1234[0];
              }
              else if (ijselIsAntiparticle[0] && ijselIsAntiparticle[1]){
                if (isel!=jsel) msq_tmp = msq_dbardbar_zz_ijrs1234[0];
                else msq_tmp = msq_dbardbar_zzid_ijrs1234[0];
              }
              else if (ijselIsParticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_ddbar_zz_ijrs1234[0];
            }
            else if (ijselIsUpType[0] && ijselIsDownType[1] && ijselIsParticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_udbar_zz_ijrs1234[0];
            else if (ijselIsDownType[0] && ijselIsUpType[1] && ijselIsParticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_dubar_zz_ijrs1234[0];
            MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
            if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
          }
          if (
            rsel!=ssel
            &&
            (partonIsUnknown[2] || MYIDUP_tmp[2]==ssel)
            &&
            (partonIsUnknown[3] || MYIDUP_tmp[3]==rsel)
            ){
            msq_tmp=0;
            if (ijselIsUpType[0] && ijselIsUpType[1]){
              if (ijselIsParticle[0] && ijselIsParticle[1]){
                if (isel!=jsel) msq_tmp = msq_uu_zz_ijrs1243[0];
                else msq_tmp = msq_uu_zzid_ijrs1243[0];
              }
              else if (ijselIsAntiparticle[0] && ijselIsAntiparticle[1]){
                if (isel!=jsel) msq_tmp = msq_ubarubar_zz_ijrs1243[0];
                else msq_tmp = msq_ubarubar_zzid_ijrs1243[0];
              }
              else if (ijselIsParticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_uubar_zz_ijrs1243[0];
            }
            else if (ijselIsDownType[0] && ijselIsDownType[1]){
              if (ijselIsParticle[0] && ijselIsParticle[1]){
                if (isel!=jsel) msq_tmp = msq_dd_zz_ijrs1243[0];
                else msq_tmp = msq_dd_zzid_ijrs1243[0];
              }
              else if (ijselIsAntiparticle[0] && ijselIsAntiparticle[1]){
                if (isel!=jsel) msq_tmp = msq_dbardbar_zz_ijrs1243[0];
                else msq_tmp = msq_dbardbar_zzid_ijrs1243[0];
              }
              else if (ijselIsParticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_ddbar_zz_ijrs1243[0];
            }
            else if (ijselIsUpType[0] && ijselIsDownType[1] && ijselIsParticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_udbar_zz_ijrs1243[0];
            else if (ijselIsDownType[0] && ijselIsUpType[1] && ijselIsParticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_dubar_zz_ijrs1243[0];
            MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
            if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
          }
        }
        else if (code==0){ // code==0 means WW->H is also possible with no interference to ZZ->H, for example u ub -> d db.
          vector<int> possible_rsel;
          vector<int> possible_ssel;
          vector<double> possible_Vsqir;
          vector<double> possible_Vsqjs;
          if (ijselIsUpType[0]){ possible_rsel.push_back(1); possible_rsel.push_back(3); possible_rsel.push_back(5); }
          else if (ijselIsDownType[0]){ possible_rsel.push_back(2); possible_rsel.push_back(4); }
          for (unsigned int ix=0; ix<possible_rsel.size(); ix++){
            rsel=possible_rsel.at(ix);
            double ckmval = pow(__modparameters_MOD_ckmbare(&isel, &rsel), 2);
            possible_Vsqir.push_back(ckmval);
          }
          if (ijselIsUpType[1]){ possible_ssel.push_back(1); possible_ssel.push_back(3); possible_ssel.push_back(5); }
          else if (ijselIsDownType[1]){ possible_ssel.push_back(2); possible_ssel.push_back(4); }
          for (unsigned int iy=0; iy<possible_ssel.size(); iy++){
            ssel=possible_ssel.at(iy);
            double ckmval = pow(__modparameters_MOD_ckmbare(&jsel, &ssel), 2);
            possible_Vsqjs.push_back(ckmval);
          }
 
          // Combine the ME and ME_swap based on actual ids
          for (unsigned int ix=0; ix<possible_rsel.size(); ix++){
            rsel=possible_rsel.at(ix)*TMath::Sign(1, isel);
            for (unsigned int iy=0; iy<possible_ssel.size(); iy++){
              ssel=possible_ssel.at(iy)*TMath::Sign(1, jsel);
              double ckmval = possible_Vsqir.at(ix)*possible_Vsqjs.at(iy);
              if (
                (partonIsUnknown[2] || MYIDUP_tmp[2]==rsel)
                &&
                (partonIsUnknown[3] || MYIDUP_tmp[3]==ssel)
                ){
                msq_tmp=0;
                if (ijselIsUpType[0] && ijselIsUpType[1] && ijselIsParticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_uubar_ww_ijrs1234[0];
                else if (ijselIsDownType[0] && ijselIsDownType[1] && ijselIsParticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_ddbar_ww_ijrs1234[0];
                msq_tmp *= ckmval;
                MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
                if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
              }
              if (
                rsel!=ssel
                &&
                (partonIsUnknown[2] || MYIDUP_tmp[2]==ssel)
                &&
                (partonIsUnknown[3] || MYIDUP_tmp[3]==rsel)
                ){
                msq_tmp=0;
                if (ijselIsUpType[0] && ijselIsUpType[1] && ijselIsParticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_uubar_ww_ijrs1243[0];
                else if (ijselIsDownType[0] && ijselIsDownType[1] && ijselIsParticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_ddbar_ww_ijrs1243[0];
                msq_tmp *= ckmval;
                MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
                if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
              }
            }
          }
        }
        else{ // code==2 means states with WW/ZZ interference allowed, for example u1 d2 -> u3 d4 + d4 u3.
          vector<int> possible_rsel;
          vector<int> possible_ssel;
          vector<double> possible_Vsqir;
          vector<double> possible_Vsqjs;
          if (ijselIsUpType[0]){ possible_rsel.push_back(1); possible_rsel.push_back(3); possible_rsel.push_back(5); }
          else if (ijselIsDownType[0]){ possible_rsel.push_back(2); possible_rsel.push_back(4); }
          for (unsigned int ix=0; ix<possible_rsel.size(); ix++){
            rsel=possible_rsel.at(ix);
            double ckmval = pow(__modparameters_MOD_ckmbare(&isel, &rsel), 2);
            possible_Vsqir.push_back(ckmval);
          }
          if (ijselIsUpType[1]){ possible_ssel.push_back(1); possible_ssel.push_back(3); possible_ssel.push_back(5); }
          else if (ijselIsDownType[1]){ possible_ssel.push_back(2); possible_ssel.push_back(4); }
          for (unsigned int iy=0; iy<possible_ssel.size(); iy++){
            ssel=possible_ssel.at(iy);
            double ckmval = pow(__modparameters_MOD_ckmbare(&jsel, &ssel), 2);
            possible_Vsqjs.push_back(ckmval);
          }
 
          // Loop over all possible combinations to get interference correct
          for (unsigned int ix=0; ix<possible_rsel.size(); ix++){
            rsel=possible_rsel.at(ix)*TMath::Sign(1, isel);
            for (unsigned int iy=0; iy<possible_ssel.size(); iy++){
              ssel=possible_ssel.at(iy)*TMath::Sign(1, jsel);
              double ckmval = possible_Vsqir.at(ix)*possible_Vsqjs.at(iy);
              if (
                (partonIsUnknown[2] || MYIDUP_tmp[2]==rsel)
                &&
                (partonIsUnknown[3] || MYIDUP_tmp[3]==ssel)
                ){
                if (rsel!=jsel && ssel!=isel){
                  msq_tmp=0;
                  if (ijselIsUpType[0] && ijselIsDownType[1]){
                    if (ijselIsParticle[0] && ijselIsParticle[1]) msq_tmp = msq_ud_wwonly_ijrs1234[0];
                    else if (ijselIsAntiparticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_ubardbar_wwonly_ijrs1234[0];
                  }
                  msq_tmp *= ckmval;
                  MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
                  if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
                }
                else{
                  __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
                  MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
                  if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
                }
              }
              if (
                rsel!=ssel
                &&
                (partonIsUnknown[2] || MYIDUP_tmp[2]==ssel)
                &&
                (partonIsUnknown[3] || MYIDUP_tmp[3]==rsel)
                ){
                if (rsel!=jsel && ssel!=isel){
                  msq_tmp=0;
                  if (ijselIsUpType[0] && ijselIsDownType[1]){
                    if (ijselIsParticle[0] && ijselIsParticle[1]) msq_tmp = msq_ud_wwonly_ijrs1243[0];
                    else if (ijselIsAntiparticle[0] && ijselIsAntiparticle[1]) msq_tmp = msq_ubardbar_wwonly_ijrs1243[0];
                  }
                  msq_tmp *= ckmval;
                  MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
                  if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
                }
                else{
                  __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &msq_tmp);
                  MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
                  if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
                }
              }
            }
          }
        }
      } // End unswapped isel>=jsel cases
 
      if (isel==jsel) continue;
      isel = ijsel[ic][1];
      jsel = ijsel[ic][0];
 
      // Reset to default assignments
      if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "VBF mother swapped case" << endl;
      // Set r=i, s=j default values
      rsel=isel;
      ssel=jsel;
      // Set i-j bools
      ijselIsUpType[0] = (PDGHelpers::isUpTypeQuark(isel));
      ijselIsUpType[1] = (PDGHelpers::isUpTypeQuark(jsel));
      ijselIsDownType[0] = (PDGHelpers::isDownTypeQuark(isel));
      ijselIsDownType[1] = (PDGHelpers::isDownTypeQuark(jsel));
      ijselIsParticle[0] = (isel>0); ijselIsAntiparticle[0] = (isel<0);
      ijselIsParticle[1] = (jsel>0); ijselIsAntiparticle[1] = (jsel<0);
 
      if (
        (partonIsUnknown[0] || ((PDGHelpers::isAGluon(MYIDUP_tmp[0]) && isel==0) || MYIDUP_tmp[0]==isel))
        &&
        (partonIsUnknown[1] || ((PDGHelpers::isAGluon(MYIDUP_tmp[1]) && jsel==0) || MYIDUP_tmp[1]==jsel))
        ){
        // isel==jsel==0 is already eliminated by isel!=jsel condition
        if (code==1){ // Only ZZ->H possible
          // rsel=isel and ssel=jsel already
          if (
            (partonIsUnknown[2] || MYIDUP_tmp[2]==rsel)
            &&
            (partonIsUnknown[3] || MYIDUP_tmp[3]==ssel)
            ){
            msq_tmp=0;
            if (ijselIsUpType[1] && ijselIsUpType[0]){
              if (ijselIsParticle[1] && ijselIsParticle[0]){
                if (isel!=jsel) msq_tmp = msq_uu_zz_ijrs1234[1];
                else msq_tmp = msq_uu_zzid_ijrs1234[1];
              }
              else if (ijselIsAntiparticle[1] && ijselIsAntiparticle[0]){
                if (isel!=jsel) msq_tmp = msq_ubarubar_zz_ijrs1234[1];
                else msq_tmp = msq_ubarubar_zzid_ijrs1234[1];
              }
              else if (ijselIsParticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_uubar_zz_ijrs1234[1];
            }
            else if (ijselIsDownType[1] && ijselIsDownType[0]){
              if (ijselIsParticle[1] && ijselIsParticle[0]){
                if (isel!=jsel) msq_tmp = msq_dd_zz_ijrs1234[1];
                else msq_tmp = msq_dd_zzid_ijrs1234[1];
              }
              else if (ijselIsAntiparticle[1] && ijselIsAntiparticle[0]){
                if (isel!=jsel) msq_tmp = msq_dbardbar_zz_ijrs1234[1];
                else msq_tmp = msq_dbardbar_zzid_ijrs1234[1];
              }
              else if (ijselIsParticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_ddbar_zz_ijrs1234[1];
            }
            else if (ijselIsUpType[1] && ijselIsDownType[0] && ijselIsParticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_udbar_zz_ijrs1234[1];
            else if (ijselIsDownType[1] && ijselIsUpType[0] && ijselIsParticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_dubar_zz_ijrs1234[1];
            MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
            if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
          }
          if (
            rsel!=ssel
            &&
            (partonIsUnknown[2] || MYIDUP_tmp[2]==ssel)
            &&
            (partonIsUnknown[3] || MYIDUP_tmp[3]==rsel)
            ){
            msq_tmp=0;
            if (ijselIsUpType[1] && ijselIsUpType[0]){
              if (ijselIsParticle[1] && ijselIsParticle[0]){
                if (isel!=jsel) msq_tmp = msq_uu_zz_ijrs1243[1];
                else msq_tmp = msq_uu_zzid_ijrs1243[1];
              }
              else if (ijselIsAntiparticle[1] && ijselIsAntiparticle[0]){
                if (isel!=jsel) msq_tmp = msq_ubarubar_zz_ijrs1243[1];
                else msq_tmp = msq_ubarubar_zzid_ijrs1243[1];
              }
              else if (ijselIsParticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_uubar_zz_ijrs1243[1];
            }
            else if (ijselIsDownType[1] && ijselIsDownType[0]){
              if (ijselIsParticle[1] && ijselIsParticle[0]){
                if (isel!=jsel) msq_tmp = msq_dd_zz_ijrs1243[1];
                else msq_tmp = msq_dd_zzid_ijrs1243[1];
              }
              else if (ijselIsAntiparticle[1] && ijselIsAntiparticle[0]){
                if (isel!=jsel) msq_tmp = msq_dbardbar_zz_ijrs1243[1];
                else msq_tmp = msq_dbardbar_zzid_ijrs1243[1];
              }
              else if (ijselIsParticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_ddbar_zz_ijrs1243[1];
            }
            else if (ijselIsUpType[1] && ijselIsDownType[0] && ijselIsParticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_udbar_zz_ijrs1243[1];
            else if (ijselIsDownType[1] && ijselIsUpType[0] && ijselIsParticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_dubar_zz_ijrs1243[1];
            MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
            if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
          }
        }
        else if (code==0){ // code==0 means WW->H is also possible with no interference to ZZ->H, for example u ub -> d db.
          vector<int> possible_rsel;
          vector<int> possible_ssel;
          vector<double> possible_Vsqir;
          vector<double> possible_Vsqjs;
          if (ijselIsUpType[0]){ possible_rsel.push_back(1); possible_rsel.push_back(3); possible_rsel.push_back(5); }
          else if (ijselIsDownType[0]){ possible_rsel.push_back(2); possible_rsel.push_back(4); }
          for (unsigned int ix=0; ix<possible_rsel.size(); ix++){
            rsel=possible_rsel.at(ix);
            double ckmval = pow(__modparameters_MOD_ckmbare(&isel, &rsel), 2);
            possible_Vsqir.push_back(ckmval);
          }
          if (ijselIsUpType[1]){ possible_ssel.push_back(1); possible_ssel.push_back(3); possible_ssel.push_back(5); }
          else if (ijselIsDownType[1]){ possible_ssel.push_back(2); possible_ssel.push_back(4); }
          for (unsigned int iy=0; iy<possible_ssel.size(); iy++){
            ssel=possible_ssel.at(iy);
            double ckmval = pow(__modparameters_MOD_ckmbare(&jsel, &ssel), 2);
            possible_Vsqjs.push_back(ckmval);
          }
 
          // Combine the ME and ME_swap based on actual ids
          for (unsigned int ix=0; ix<possible_rsel.size(); ix++){
            rsel=possible_rsel.at(ix)*TMath::Sign(1, isel);
            for (unsigned int iy=0; iy<possible_ssel.size(); iy++){
              ssel=possible_ssel.at(iy)*TMath::Sign(1, jsel);
              double ckmval = possible_Vsqir.at(ix)*possible_Vsqjs.at(iy);
              if (
                (partonIsUnknown[2] || MYIDUP_tmp[2]==rsel)
                &&
                (partonIsUnknown[3] || MYIDUP_tmp[3]==ssel)
                ){
                msq_tmp=0;
                if (ijselIsUpType[1] && ijselIsUpType[0] && ijselIsParticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_uubar_ww_ijrs1234[1];
                else if (ijselIsDownType[1] && ijselIsDownType[0] && ijselIsParticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_ddbar_ww_ijrs1234[1];
                msq_tmp *= ckmval;
                MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
                if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
              }
              if (
                rsel!=ssel
                &&
                (partonIsUnknown[2] || MYIDUP_tmp[2]==ssel)
                &&
                (partonIsUnknown[3] || MYIDUP_tmp[3]==rsel)
                ){
                msq_tmp=0;
                if (ijselIsUpType[1] && ijselIsUpType[0] && ijselIsParticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_uubar_ww_ijrs1243[1];
                else if (ijselIsDownType[1] && ijselIsDownType[0] && ijselIsParticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_ddbar_ww_ijrs1243[1];
                msq_tmp *= ckmval;
                MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
                if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
              }
            }
          }
        }
        else{ // code==2 means states with WW/ZZ interference allowed, for example u1 d2 -> u3 d4 + d4 u3.
          vector<int> possible_rsel;
          vector<int> possible_ssel;
          vector<double> possible_Vsqir;
          vector<double> possible_Vsqjs;
          if (ijselIsUpType[0]){ possible_rsel.push_back(1); possible_rsel.push_back(3); possible_rsel.push_back(5); }
          else if (ijselIsDownType[0]){ possible_rsel.push_back(2); possible_rsel.push_back(4); }
          for (unsigned int ix=0; ix<possible_rsel.size(); ix++){
            rsel=possible_rsel.at(ix);
            double ckmval = pow(__modparameters_MOD_ckmbare(&isel, &rsel), 2);
            possible_Vsqir.push_back(ckmval);
          }
          if (ijselIsUpType[1]){ possible_ssel.push_back(1); possible_ssel.push_back(3); possible_ssel.push_back(5); }
          else if (ijselIsDownType[1]){ possible_ssel.push_back(2); possible_ssel.push_back(4); }
          for (unsigned int iy=0; iy<possible_ssel.size(); iy++){
            ssel=possible_ssel.at(iy);
            double ckmval = pow(__modparameters_MOD_ckmbare(&jsel, &ssel), 2);
            possible_Vsqjs.push_back(ckmval);
          }
 
          // Loop over all possible combinations to get interference correct
          for (unsigned int ix=0; ix<possible_rsel.size(); ix++){
            rsel=possible_rsel.at(ix)*TMath::Sign(1, isel);
            for (unsigned int iy=0; iy<possible_ssel.size(); iy++){
              ssel=possible_ssel.at(iy)*TMath::Sign(1, jsel);
              double ckmval = possible_Vsqir.at(ix)*possible_Vsqjs.at(iy);
              if (
                (partonIsUnknown[2] || MYIDUP_tmp[2]==rsel)
                &&
                (partonIsUnknown[3] || MYIDUP_tmp[3]==ssel)
                ){
                if (rsel!=jsel && ssel!=isel){
                  msq_tmp=0;
                  if (ijselIsUpType[1] && ijselIsDownType[0]){
                    if (ijselIsParticle[1] && ijselIsParticle[0]) msq_tmp = msq_ud_wwonly_ijrs1234[1];
                    else if (ijselIsAntiparticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_ubardbar_wwonly_ijrs1234[1];
                  }
                  msq_tmp *= ckmval;
                  MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
                  if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
                }
                else{
                  __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &rsel, &ssel, &msq_tmp);
                  MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
                  if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << rsel << ", " << ssel << '\t' <<  msq_tmp << endl;
                }
              }
              if (
                rsel!=ssel
                &&
                (partonIsUnknown[2] || MYIDUP_tmp[2]==ssel)
                &&
                (partonIsUnknown[3] || MYIDUP_tmp[3]==rsel)
                ){
                if (rsel!=jsel && ssel!=isel){
                  msq_tmp=0;
                  if (ijselIsUpType[1] && ijselIsDownType[0]){
                    if (ijselIsParticle[1] && ijselIsParticle[0]) msq_tmp = msq_ud_wwonly_ijrs1243[1];
                    else if (ijselIsAntiparticle[1] && ijselIsAntiparticle[0]) msq_tmp = msq_ubardbar_wwonly_ijrs1243[1];
                  }
                  msq_tmp *= ckmval;
                  MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
                  if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
                }
                else{
                  __modhiggsjj_MOD_evalamp_wbfh_unsymm_sa_select_exact(p4, &isel, &jsel, &ssel, &rsel, &msq_tmp);
                  MatElsq[jsel+5][isel+5] += msq_tmp; // Assign only those that match gen. info, if present at all.
                  if (verbosity >= TVar::DEBUG_VERBOSE) MELAout << "Channel (isel, jsel, rsel, ssel)=" << isel << ", " << jsel << ", " << ssel << ", " << rsel << '\t' <<  msq_tmp << endl;
                }
              }
            }
          }
        }
      } // End swapped isel<jsel cases
    } // End loop over ic<nijchannels
    // END COMPUTATION
  } // End production == TVar::JJVBF
 
  int GeVexponent_MEsq = 4-(1+nRequested_AssociatedJets)*2;
  double constant = pow(GeV, -GeVexponent_MEsq);
  for (int ii=0; ii<nmsq; ii++){ for (int jj=0; jj<nmsq; jj++) MatElsq[jj][ii] *= constant; }
  //    FOTRAN convention    -5    -4   -3   -2   -1    0   1   2   3  4  5
  //     parton flavor      bbar  cbar  sbar ubar dbar  g   d   u   s  c  b
  //      C++ convention     0      1    2    3    4    5   6   7   8  9  10
  if (verbosity >= TVar::DEBUG){
    MELAout << "MatElsq:\n";
    for (int ii = 0; ii < nmsq; ii++){ for (int jj = 0; jj < nmsq; jj++) MELAout << MatElsq[jj][ii] << '\t'; MELAout << endl; }
  }
  sum_msqjk = SumMEPDF(MomStore[0], MomStore[1], MatElsq, RcdME, EBEAM, verbosity);
  /*
  if (verbosity >= TVar::ERROR && (std::isnan(sum_msqjk) || std::isinf(sum_msqjk))){
    MELAout << "TUtil::HJJMatEl: FAILURE!" << endl;
    MELAout << "MatElsq:\n";
    for (int ii = 0; ii < nmsq; ii++){ for (int jj = 0; jj < nmsq; jj++) MELAout << MatElsq[jj][ii] << '\t'; MELAout << endl; }
    double fx[2][nmsq];
    RcdME->getPartonWeights(fx[0], fx[1]);
    for (int ii = 0; ii < nmsq; ii++){ for (int jj = 0; jj < 2; jj++) MELAout << fx[jj][ii] << '\t'; MELAout << endl; }
    for (int i=0; i<5; i++) MELAout << "p["<<i<<"] (Px, Py, Pz, E, M):\t" << p4[i][1]/GeV << '\t' << p4[i][2]/GeV << '\t' << p4[i][3]/GeV << '\t' << p4[i][0]/GeV << '\t' << sqrt(fabs(pow(p4[i][0], 2)-pow(p4[i][1], 2)-pow(p4[i][2], 2)-pow(p4[i][3], 2)))/GeV << endl;
    TUtil::PrintCandidateSummary(RcdME->melaCand);
    MELAout << endl;
  }
  */
 
  if (verbosity>=TVar::DEBUG){
    MELAout
      << "TUtil::HJJMatEl: Reset AlphaS:\n"
      << "\tBefore reset, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << endl;
  }
  SetAlphaS(defaultRenScale, defaultFacScale, 1., 1., defaultNloop, defaultNflav, defaultPdflabel);
  if (verbosity>=TVar::DEBUG){
    GetAlphaS(&alphasVal, &alphasmzVal);
    MELAout
      << "TUtil::HJJMatEl: Reset AlphaS result:\n"
      << "\tAfter reset, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << ", alphas(Qren): " << alphasVal << ", alphas(MZ): " << alphasmzVal << endl;
  }
  return sum_msqjk;
}

InitJHUGenMELA()

void TUtil::InitJHUGenMELA	(	const char *	pathtoPDFSet,
		int	PDFMember,
		double	collider_sqrts
	)

Definition at line 3392 of file TUtil.cc.

                                                                                        {
  const double GeV = 1./100.;
  collider_sqrts *= GeV; // GeV units in JHUGen
 
  char path_pdf_c[200];
  sprintf(path_pdf_c, "%s", pathtoPDFSet);
  int pathpdfLength = strlen(path_pdf_c);
 
  __modjhugen_MOD_initfirsttime(path_pdf_c, &pathpdfLength, &PDFMember, &collider_sqrts);
}

InterpretScaleScheme()

double TUtil::InterpretScaleScheme	(	const TVar::Production &	production,
		const TVar::MatrixElement &	matrixElement,
		const TVar::EventScaleScheme &	scheme,
		TLorentzVector	p[mxpart]
	)

Definition at line 1654 of file TUtil.cc.

                                                                                                                                                                        {
  double Q=0;
  TLorentzVector const nullFourVector(0, 0, 0, 0);
  if (scheme == TVar::Fixed_mH) Q = masses_mcfm_.hmass;
  else if (scheme == TVar::Fixed_mW) Q = masses_mcfm_.wmass;
  else if (scheme == TVar::Fixed_mZ) Q = masses_mcfm_.zmass;
  else if (scheme == TVar::Fixed_mWPlusmH) Q = (masses_mcfm_.wmass+masses_mcfm_.hmass);
  else if (scheme == TVar::Fixed_mZPlusmH) Q = (masses_mcfm_.zmass+masses_mcfm_.hmass);
  else if (scheme == TVar::Fixed_TwomtPlusmH) Q = (2.*masses_mcfm_.mt+masses_mcfm_.hmass);
  else if (scheme == TVar::Fixed_mtPlusmH) Q = masses_mcfm_.mt+masses_mcfm_.hmass;
  else if (scheme == TVar::Dynamic_qH){
    TLorentzVector pTotal = p[2]+p[3]+p[4]+p[5];
    Q = fabs(pTotal.M());
  }
  else if (scheme == TVar::Dynamic_qJJH){
    TLorentzVector pTotal = p[2]+p[3]+p[4]+p[5]+p[6]+p[7];
    Q = fabs(pTotal.M());
  }
  else if (scheme == TVar::Dynamic_qJJ_qH){
    TLorentzVector qH = p[2]+p[3]+p[4]+p[5];
    TLorentzVector qJJ = p[6]+p[7];
    Q = fabs(qH.M()+qJJ.M());
  }
  else if (scheme == TVar::Dynamic_qJ_qJ_qH){
    TLorentzVector qH = p[2]+p[3]+p[4]+p[5];
    Q = fabs(qH.M()+p[6].M()+p[7].M());
  }
  else if (scheme == TVar::Dynamic_HT){
    for (int c=2; c<mxpart; c++) Q += p[c].Pt(); // Scalar sum of all pTs
  }
  else if (scheme == TVar::Dynamic_Leading_pTJ){
    // pT of the hardest jet, should be just p[6].Pt() if jets are already ordered in pT
    for (int c=6; c<mxpart; c++) Q = std::max(Q, p[c].Pt());
  }
  else if (scheme == TVar::Dynamic_Softest_pTJ){
    // pT of the softest jet, should be just p[7].Pt() if jets are already ordered in pT
    Q = p[6].Pt();
    for (int c=7; c<mxpart; c++){ if (p[c].Pt()>0.) Q = std::min(Q, p[c].Pt()); }
    if (Q<0.) Q = 0;
  }
  else if (scheme == TVar::DefaultScaleScheme){
    // Defaults are dynamic scales except in ttH and bbH.
    if (matrixElement==TVar::JHUGen || matrixElement==TVar::MADGRAPH){
      if (
        production == TVar::JJQCD
        || production == TVar::JJVBF
        || production == TVar::JQCD
        || production == TVar::ZZGG
        || production == TVar::ZZQQB
        || production == TVar::ZZQQB_STU
        || production == TVar::ZZQQB_S
        || production == TVar::ZZQQB_TU
        || production == TVar::ZZINDEPENDENT
        || production == TVar::Lep_WH || production == TVar::Had_WH
        || production == TVar::Lep_ZH || production == TVar::Had_ZH
        || production == TVar::GammaH
        ){
        TLorentzVector pTotal = p[2]+p[3]+p[4]+p[5];
        Q = fabs(pTotal.M());
      }
      else if (
        production == TVar::ttH
        ||
        production == TVar::bbH
        ||
        production == TVar::ZZQQB
        ) Q = (2.*masses_mcfm_.mt+masses_mcfm_.hmass);
    }
    else if (matrixElement==TVar::MCFM){
      if (
        production == TVar::ZZGG
        || production == TVar::ZZINDEPENDENT
        || production == TVar::ZZQQB
        || production == TVar::ZZQQB_STU
 
        || production == TVar::JQCD
 
        || production == TVar::JJQCD
        || production == TVar::JJVBF
        || production == TVar::JJEW
        || production == TVar::JJEWQCD
        || production == TVar::Lep_WH || production == TVar::Had_WH
        || production == TVar::Lep_ZH || production == TVar::Had_ZH
 
        || production == TVar::ZZQQB_S
        || production == TVar::JJQCD_S
        || production == TVar::JJVBF_S
        || production == TVar::JJEW_S
        || production == TVar::JJEWQCD_S
        || production == TVar::Lep_WH_S || production == TVar::Had_WH_S
        || production == TVar::Lep_ZH_S || production == TVar::Had_ZH_S
 
        || production == TVar::ZZQQB_TU
        || production == TVar::JJQCD_TU
        || production == TVar::JJVBF_TU
        || production == TVar::JJEW_TU
        || production == TVar::JJEWQCD_TU
        || production == TVar::Lep_WH_TU || production == TVar::Had_WH_TU
        || production == TVar::Lep_ZH_TU || production == TVar::Had_ZH_TU
 
        || production == TVar::GammaH
        ){
        TLorentzVector pTotal = p[2]+p[3]+p[4]+p[5];
        Q = fabs(pTotal.M());
      }
      else if (
        production == TVar::ttH
        || production == TVar::bbH
        ){ // ttH and bbH are not implemented through MCFM, will need revision if they are implemented.
        TLorentzVector pTotal = p[2]+p[3]+p[4]+p[5]+p[6]+p[7];
        Q = fabs(pTotal.M());
      }
    }
  }
 
  if (Q<=0.){
    MELAerr << "Scaling " << scheme << " fails for production " << production << ", defaulting to dynamic scheme m3456 " << endl;
    TLorentzVector pTotal = p[2]+p[3]+p[4]+p[5];
    Q = fabs(pTotal.M());
  }
  return Q;
}

JHUGenMatEl()

double TUtil::JHUGenMatEl	(	const TVar::Process &	process,
		const TVar::Production &	production,
		const TVar::MatrixElement &	matrixElement,
		TVar::event_scales_type *	event_scales,
		MelaIO *	RcdME,
		const double &	EBEAM,
		TVar::VerbosityLevel	verbosity
	)

Definition at line 4887 of file TUtil.cc.

   {
  const double GeV=1./100.; // JHUGen mom. scale factor
  double MatElSq=0; // Return value
 
  if (matrixElement!=TVar::JHUGen){ if (verbosity>=TVar::ERROR) MELAerr << "TUtil::JHUGenMatEl: Non-JHUGen MEs are not supported" << endl; return MatElSq; }
  bool isSpinZero = (
    process == TVar::HSMHiggs
    || process == TVar::H0minus
    || process == TVar::H0hplus
    || process == TVar::H0_g1prime2
    || process == TVar::H0_Zgs
    || process == TVar::H0_gsgs
    || process == TVar::H0_Zgs_PS
    || process == TVar::H0_gsgs_PS
    || process == TVar::H0_Zgsg1prime2
    || process == TVar::SelfDefine_spin0
    );
  bool isSpinOne = (
    process == TVar::H1minus
    || process == TVar::H1plus
    || process == TVar::SelfDefine_spin1
    );
  bool isSpinTwo = (
    process == TVar::H2_g1g5
    || process == TVar::H2_g1
    || process == TVar::H2_g8
    || process == TVar::H2_g4
    || process == TVar::H2_g5
    || process == TVar::H2_g2
    || process == TVar::H2_g3
    || process == TVar::H2_g6
    || process == TVar::H2_g7
    || process == TVar::H2_g9
    || process == TVar::H2_g10
    || process == TVar::SelfDefine_spin2
    );
  if (!(isSpinZero || isSpinOne || isSpinTwo)){ if (verbosity>=TVar::ERROR) MELAerr << "TUtil::JHUGenMatEl: Process " << TVar::ProcessName(process) << " (" << process << ")" << " not supported." << endl; return MatElSq; }
  if (verbosity>=TVar::DEBUG){
    MELAout << "TUtil::JHUGenMatEl: Process " << TVar::ProcessName(process) << " is computing a spin-";
    if (isSpinZero) MELAout << "0";
    else if (isSpinOne) MELAout << "1";
    else if (isSpinTwo) MELAout << "2";
    else MELAout << "?";
    MELAout << " ME with production " << TVar::ProductionName(production) << "." << endl;
  }
 
  double msq[nmsq][nmsq]={ { 0 } }; // ME**2[parton2][parton1] for each incoming parton 1 and 2, used in RcdME
  int MYIDUP_tmp[4]={ 0 }; // Initial assignment array, unconverted. 0==Unassigned
  vector<pair<int, int>> idarray[2]; // All possible ids for each daughter based on the value of MYIDUP_tmp[0:3] and the desired V ids taken from mela_event.intermediateVid.at(0:1)
  int MYIDUP[4]={ 0 }; // "Working" assignment, converted
  int idfirst[2]={ 0 }; // Used to set DecayMode1, = MYIDUP[0:1]
  int idsecond[2]={ 0 }; // Used to set DecayMode2, = MYIDUP[2:3]
  double p4[6][4]={ { 0 } }; // Mom (*GeV) to pass into JHUGen
  TLorentzVector MomStore[mxpart]; // Mom (in natural units) to compute alphaS
  for (int i = 0; i < mxpart; i++) MomStore[i].SetXYZT(0, 0, 0, 0);
 
  // Notice that partIncCode is specific for this subroutine
  int partIncCode=TVar::kNoAssociated; // Do not use associated particles in the pT=0 frame boost
  simple_event_record mela_event;
  mela_event.AssociationCode=partIncCode;
  GetBoostedParticleVectors(
    RcdME->melaCand,
    mela_event,
    verbosity
    );
  if (mela_event.pDaughters.size()<2 || mela_event.intermediateVid.size()!=2){
    if (verbosity>=TVar::ERROR) MELAerr << "TUtil::JHUGenMatEl: Number of daughters " << mela_event.pDaughters.size() << " or number of intermediate Vs " << mela_event.intermediateVid << " not supported!" << endl;
    return MatElSq;
  }
 
  // p(i,0:3) = (E(i),px(i),py(i),pz(i))
  // i=0,1: g1,g2 or q1, qb2 (outgoing convention)
  // i=2,3: correspond to MY_IDUP(0),MY_IDUP(1)
  // i=4,5: correspond to MY_IDUP(2),MY_IDUP(3)
  for (int ipar=0; ipar<2; ipar++){
    if (mela_event.pMothers.at(ipar).second.T()>0.){
      p4[ipar][0] = -mela_event.pMothers.at(ipar).second.T()*GeV;
      p4[ipar][1] = -mela_event.pMothers.at(ipar).second.X()*GeV;
      p4[ipar][2] = -mela_event.pMothers.at(ipar).second.Y()*GeV;
      p4[ipar][3] = -mela_event.pMothers.at(ipar).second.Z()*GeV;
      MomStore[ipar] = mela_event.pMothers.at(ipar).second;
    }
    else{
      p4[ipar][0] = mela_event.pMothers.at(ipar).second.T()*GeV;
      p4[ipar][1] = mela_event.pMothers.at(ipar).second.X()*GeV;
      p4[ipar][2] = mela_event.pMothers.at(ipar).second.Y()*GeV;
      p4[ipar][3] = mela_event.pMothers.at(ipar).second.Z()*GeV;
      MomStore[ipar] = -mela_event.pMothers.at(ipar).second;
    }
    // From Markus:
    // Note that the momentum no.2, p(1:4, 2), is a dummy which is not used in case production == TVar::ZZINDEPENDENT.
    if (ipar==1 && production == TVar::ZZINDEPENDENT){ for (int ix=0; ix<4; ix++){ p4[0][ix] += p4[ipar][ix]; p4[ipar][ix]=0.; } }
  }
  //initialize decayed particles
  if (mela_event.pDaughters.size()==2){
    for (unsigned int ipar=0; ipar<mela_event.pDaughters.size(); ipar++){
      TLorentzVector* momTmp = &(mela_event.pDaughters.at(ipar).second);
      int* idtmp = &(mela_event.pDaughters.at(ipar).first);
 
      int arrindex = 2*ipar;
      if (!PDGHelpers::isAnUnknownJet(*idtmp)) MYIDUP_tmp[arrindex] = *idtmp;
      else MYIDUP_tmp[arrindex] = 0;
      MYIDUP_tmp[arrindex+1] = -9000;
      p4[arrindex+2][0] = momTmp->T()*GeV;
      p4[arrindex+2][1] = momTmp->X()*GeV;
      p4[arrindex+2][2] = momTmp->Y()*GeV;
      p4[arrindex+2][3] = momTmp->Z()*GeV;
      MomStore[arrindex+2] = *momTmp;
      if (verbosity >= TVar::DEBUG) MELAout << "MYIDUP_tmp[" << arrindex << "(" << ipar << ")" << "]=" << MYIDUP_tmp[arrindex] << endl;
    }
  }
  else{
    for (unsigned int ipar=0; ipar<4; ipar++){
      if (ipar<mela_event.pDaughters.size()){
        TLorentzVector* momTmp = &(mela_event.pDaughters.at(ipar).second);
        int* idtmp = &(mela_event.pDaughters.at(ipar).first);
 
        if (!PDGHelpers::isAnUnknownJet(*idtmp)) MYIDUP_tmp[ipar] = *idtmp;
        else MYIDUP_tmp[ipar] = 0;
        p4[ipar+2][0] = momTmp->T()*GeV;
        p4[ipar+2][1] = momTmp->X()*GeV;
        p4[ipar+2][2] = momTmp->Y()*GeV;
        p4[ipar+2][3] = momTmp->Z()*GeV;
        MomStore[ipar+2] = *momTmp;
      }
      else MYIDUP_tmp[ipar] = -9000; // No need to set p4, which is already 0 by initialization
      // __modparameters_MOD_not_a_particle__?
      if (verbosity >= TVar::DEBUG) MELAout << "MYIDUP_tmp[" << ipar << "]=" << MYIDUP_tmp[ipar] << endl;
    }
  }
 
  // Set alphas
  double defaultRenScale = scale_.scale;
  double defaultFacScale = facscale_.facscale;
  int defaultNloop = nlooprun_.nlooprun;
  int defaultNflav = nflav_.nflav;
  string defaultPdflabel = pdlabel_.pdlabel;
  double renQ = InterpretScaleScheme(production, matrixElement, event_scales->renomalizationScheme, MomStore);
  double facQ = InterpretScaleScheme(production, matrixElement, event_scales->factorizationScheme, MomStore);
  SetAlphaS(renQ, facQ, event_scales->ren_scale_factor, event_scales->fac_scale_factor, 1, 5, "cteq6_l"); // Set AlphaS(|Q|/2, mynloop, mynflav, mypartonPDF)
  double alphasVal, alphasmzVal;
  GetAlphaS(&alphasVal, &alphasmzVal);
  RcdME->setRenormalizationScale(renQ);
  RcdME->setFactorizationScale(facQ);
  RcdME->setAlphaS(alphasVal);
  RcdME->setAlphaSatMZ(alphasmzVal);
  RcdME->setHiggsMassWidth(masses_mcfm_.hmass, masses_mcfm_.hwidth, 0);
  RcdME->setHiggsMassWidth(spinzerohiggs_anomcoupl_.h2mass, spinzerohiggs_anomcoupl_.h2width, 1);
  if (verbosity>=TVar::DEBUG){
    MELAout
      << "TUtil::JHUGenMatEl: Set AlphaS:\n"
      << "\tBefore set, alphas scale: " << defaultRenScale << ", PDF scale: " << defaultFacScale << '\n'
      << "\trenQ: " << renQ << " ( x " << event_scales->ren_scale_factor << "), facQ: " << facQ << " ( x " << event_scales->fac_scale_factor << ")\n"
      << "\tAfter set, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << ", alphas(Qren): " << alphasVal << ", alphas(MZ): " << alphasmzVal << endl;
  }
 
  // Determine te actual ids to compute the ME. Assign ids if any are unknown.
  for (int iv=0; iv<2; iv++){ // Max. 2 vector bosons
    if (MYIDUP_tmp[2*iv+0]!=0 && MYIDUP_tmp[2*iv+1]!=0){ // Z->2l,2nu,2q, W->lnu,qq', G
      // OSSF pairs or just one "V-daughter"
      if (
        TMath::Sign(1, MYIDUP_tmp[2*iv+0])==TMath::Sign(1, -MYIDUP_tmp[2*iv+1])
        ||
        (MYIDUP_tmp[2*iv+0]==-9000 || MYIDUP_tmp[2*iv+1]==-9000)
        ) idarray[iv].push_back(pair<int, int>(MYIDUP_tmp[2*iv+0], MYIDUP_tmp[2*iv+1]));
      // SSSF pairs, ordered already by phi, so avoid the re-ordering inside the ME
      else if (MYIDUP_tmp[2*iv+0]<0) idarray[iv].push_back(pair<int, int>(-MYIDUP_tmp[2*iv+0], MYIDUP_tmp[2*iv+1])); // Reverse sign of first daughter if SS(--)SF pair
      else idarray[iv].push_back(pair<int, int>(MYIDUP_tmp[2*iv+0], -MYIDUP_tmp[2*iv+1])); // Reverse sign of daughter if SS(++)SF pair
    }
    else if (MYIDUP_tmp[2*iv+0]!=0){ // ->f?,  one quark is known
      if (PDGHelpers::isAWBoson(mela_event.intermediateVid.at(iv))){ // (W+/-)->f?
        if (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2*iv+0])){ // (W+)->u?
          int id_dn = TMath::Sign(1, -MYIDUP_tmp[2*iv+0]);
          int id_st = TMath::Sign(3, -MYIDUP_tmp[2*iv+0]);
          int id_bt = TMath::Sign(5, -MYIDUP_tmp[2*iv+0]);
          idarray[iv].push_back(pair<int, int>(MYIDUP_tmp[2*iv+0], id_dn));
          idarray[iv].push_back(pair<int, int>(MYIDUP_tmp[2*iv+0], id_st));
          idarray[iv].push_back(pair<int, int>(MYIDUP_tmp[2*iv+0], id_bt));
        }
        else if (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2*iv+0])){ // (W-)->d?
          int id_up = TMath::Sign(2, -MYIDUP_tmp[2*iv+0]);
          int id_ch = TMath::Sign(4, -MYIDUP_tmp[2*iv+0]);
          idarray[iv].push_back(pair<int, int>(MYIDUP_tmp[2*iv+0], id_up));
          idarray[iv].push_back(pair<int, int>(MYIDUP_tmp[2*iv+0], id_ch));
        }
      }
      else if (PDGHelpers::isAZBoson(mela_event.intermediateVid.at(iv))){ // Z->f?
        idarray[iv].push_back(pair<int, int>(MYIDUP_tmp[2*iv+0], -MYIDUP_tmp[2*iv+0]));
      }
    }
    else if (MYIDUP_tmp[2*iv+1]!=0){ // ->?fb,  one quark is known
      if (PDGHelpers::isAWBoson(mela_event.intermediateVid.at(iv))){ // (W+/-)->?fb
        if (PDGHelpers::isUpTypeQuark(MYIDUP_tmp[2*iv+1])){ // (W-)->?ub
          int id_dn = TMath::Sign(1, -MYIDUP_tmp[2*iv+1]);
          int id_st = TMath::Sign(3, -MYIDUP_tmp[2*iv+1]);
          int id_bt = TMath::Sign(5, -MYIDUP_tmp[2*iv+1]);
          idarray[iv].push_back(pair<int, int>(id_dn, MYIDUP_tmp[2*iv+1]));
          idarray[iv].push_back(pair<int, int>(id_st, MYIDUP_tmp[2*iv+1]));
          idarray[iv].push_back(pair<int, int>(id_bt, MYIDUP_tmp[2*iv+1]));
        }
        else if (PDGHelpers::isDownTypeQuark(MYIDUP_tmp[2*iv+1])){ // (W+)->?db
          int id_up = TMath::Sign(2, -MYIDUP_tmp[2*iv+1]);
          int id_ch = TMath::Sign(4, -MYIDUP_tmp[2*iv+1]);
          idarray[iv].push_back(pair<int, int>(id_up, MYIDUP_tmp[2*iv+1]));
          idarray[iv].push_back(pair<int, int>(id_ch, MYIDUP_tmp[2*iv+1]));
        }
      }
      else if (PDGHelpers::isAZBoson(mela_event.intermediateVid.at(iv))){ // Z->?fb
        idarray[iv].push_back(pair<int, int>(-MYIDUP_tmp[2*iv+1], MYIDUP_tmp[2*iv+1]));
      }
    }
    else{ // Both fermions unknown
      if (PDGHelpers::isAWBoson(mela_event.intermediateVid.at(iv))){ // (W+/-)->??
        for (int iqu=1; iqu<=2; iqu++){
          int id_up = iqu*2;
          for (int iqd=1; iqd<=3; iqd++){
            int id_dn = iqd*2-1;
            if (iv==0){ idarray[iv].push_back(pair<int, int>(id_up, -id_dn)); idarray[iv].push_back(pair<int, int>(-id_dn, id_up)); }
            else{ idarray[iv].push_back(pair<int, int>(id_dn, -id_up)); idarray[iv].push_back(pair<int, int>(-id_up, id_dn)); }
          }
        }
      }
      else if (PDGHelpers::isAZBoson(mela_event.intermediateVid.at(iv))){ // Z->??
        for (int iq=1; iq<=5; iq++){ idarray[iv].push_back(pair<int, int>(iq, -iq)); idarray[iv].push_back(pair<int, int>(-iq, iq)); }
      }
    }
  }
 
  // Variables to set L1/2 and R1/2 couplings into RcdME
  const int InvalidMode=-1, WWMode=0, ZZMode=1, ZgMode=5, ggMode=7;
  int VVMode=InvalidMode;
  if (PDGHelpers::isAWBoson(mela_event.intermediateVid.at(0)) && PDGHelpers::isAWBoson(mela_event.intermediateVid.at(1))) VVMode=WWMode;
  else if (PDGHelpers::isAZBoson(mela_event.intermediateVid.at(0)) && PDGHelpers::isAZBoson(mela_event.intermediateVid.at(1))) VVMode=ZZMode;
  else if (PDGHelpers::isAPhoton(mela_event.intermediateVid.at(0)) && PDGHelpers::isAPhoton(mela_event.intermediateVid.at(1))) VVMode=ggMode;
  else if (
    (PDGHelpers::isAZBoson(mela_event.intermediateVid.at(0)) && PDGHelpers::isAPhoton(mela_event.intermediateVid.at(1)))
    ||
    (PDGHelpers::isAZBoson(mela_event.intermediateVid.at(1)) && PDGHelpers::isAPhoton(mela_event.intermediateVid.at(0)))
    ) VVMode=ZgMode;
  double aL1=0, aL2=0, aR1=0, aR2=0;
 
  int nNonZero=0;
  for (unsigned int v1=0; v1<idarray[0].size(); v1++){
    for (unsigned int v2=0; v2<idarray[1].size(); v2++){
      // Convert the particle ids to JHU convention
      if (idarray[0].at(v1).first!=-9000) MYIDUP[0] = convertLHEreverse(&(idarray[0].at(v1).first));
      if (idarray[0].at(v1).second!=-9000) MYIDUP[1] = convertLHEreverse(&(idarray[0].at(v1).second));
      if (idarray[1].at(v2).first!=-9000) MYIDUP[2] = convertLHEreverse(&(idarray[1].at(v2).first));
      if (idarray[1].at(v2).second!=-9000) MYIDUP[3] = convertLHEreverse(&(idarray[1].at(v2).second));
 
      // Check working ids
      if (verbosity>=TVar::DEBUG){ for (unsigned int idau=0; idau<4; idau++) MELAout << "MYIDUP[" << idau << "]=" << MYIDUP[idau] << endl; }
 
      // Determine M_V and Ga_V in JHUGen, needed for g1 vs everything else.
      for (int ip=0; ip<2; ip++){ idfirst[ip]=MYIDUP[ip]; idsecond[ip]=MYIDUP[ip+2]; }
      __modjhugenmela_MOD_setdecaymodes(idfirst, idsecond); // Set M_V and Ga_V in JHUGen
      if (verbosity>=TVar::DEBUG){
        double mv, gv;
        __modjhugenmela_MOD_getmvgv(&mv, &gv);
        MELAout << "TUtil::JHUGenMatEl: M_V=" << mv/GeV << ", Ga_V=" << gv/GeV << endl;
        __modjhugenmela_MOD_getmvprimegvprime(&mv, &gv);
        MELAout << "TUtil::JHUGenMatEl: M_Vprime=" << mv/GeV << ", Ga_Vprime=" << gv/GeV << endl;
      }
 
      // Sum over possible left/right couplings of the Vs
      double aLRtmp[4]={ 0 };
      __modjhugenmela_MOD_getdecaycouplings(&VVMode, MYIDUP, &(aLRtmp[0]), &(aLRtmp[1]), &(aLRtmp[2]), &(aLRtmp[3]));
      if (idarray[0].size()>1){
        aL1 = sqrt(pow(aL1, 2)+pow(aLRtmp[0], 2));
        aR1 = sqrt(pow(aR1, 2)+pow(aLRtmp[1], 2));
      }
      else{
        aL1 = aLRtmp[0];
        aR1 = aLRtmp[1];
      }
      if (idarray[1].size()>1){
        aL2 = sqrt(pow(aL2, 2)+pow(aLRtmp[2], 2));
        aR2 = sqrt(pow(aR2, 2)+pow(aLRtmp[3], 2));
      }
      else{
        aL2 = aLRtmp[2];
        aR2 = aLRtmp[3];
      }
 
      double MatElTmp=0.;
      if (production == TVar::ZZGG){
        if (isSpinZero) __modhiggs_MOD_evalamp_gg_h_vv(p4, MYIDUP, &MatElTmp);
        else if (isSpinTwo) __modgraviton_MOD_evalamp_gg_g_vv(p4, MYIDUP, &MatElTmp);
      }
      else if (production == TVar::ZZQQB){
        if (isSpinOne) __modzprime_MOD_evalamp_qqb_zprime_vv(p4, MYIDUP, &MatElTmp);
        else if (isSpinTwo) __modgraviton_MOD_evalamp_qqb_g_vv(p4, MYIDUP, &MatElTmp);
      }
      else if (production == TVar::ZZINDEPENDENT){
        if (isSpinZero) __modhiggs_MOD_evalamp_h_vv(p4, MYIDUP, &MatElTmp);
        else if (isSpinOne) __modzprime_MOD_evalamp_zprime_vv(p4, MYIDUP, &MatElTmp);
        else if (isSpinTwo) __modgraviton_MOD_evalamp_g_vv(p4, MYIDUP, &MatElTmp);
      }
      // Add CKM elements since they are not included
      if (PDGHelpers::isAWBoson(mela_event.intermediateVid.at(0))) MatElTmp *= pow(__modparameters_MOD_ckmbare(&(idarray[0].at(v1).first), &(idarray[0].at(v1).second)), 2);
      if (PDGHelpers::isAWBoson(mela_event.intermediateVid.at(1))) MatElTmp *= pow(__modparameters_MOD_ckmbare(&(idarray[1].at(v2).first), &(idarray[1].at(v2).second)), 2);
 
      if (verbosity >= TVar::DEBUG) MELAout << "=====\nTUtil::JHUGenMatEl: Instance MatElTmp = " << MatElTmp << "\n=====" << endl;
      MatElSq += MatElTmp;
      if (MatElTmp>0.) nNonZero++;
    }
  }
  if (nNonZero>0) MatElSq /= ((double)nNonZero);
  if (verbosity >= TVar::DEBUG){
    MELAout << "TUtil::JHUGenMatEl: Number of matrix element instances computed: " << nNonZero << endl;
    MELAout << "TUtil::JHUGenMatEl: MatElSq after division = " << MatElSq << endl;
  }
 
  // Set aL/R 1,2 into RcdME
  RcdME->setVDaughterCouplings(aL1, aR1, 0);
  RcdME->setVDaughterCouplings(aL2, aR2, 1);
  if (verbosity >= TVar::DEBUG_VERBOSE) MELAout
    << "TUtil::JHUGenMatEl: aL1, aR1, aL2, aR2: "
    << aL1 << ", " << aR1 << ", " << aL2 << ", " << aR2
    << endl;
 
  // This constant is needed to account for the different units used in JHUGen compared to MCFM
  int GeVexponent_MEsq = 4-((int)mela_event.pDaughters.size())*2;
  if (production == TVar::ZZINDEPENDENT) GeVexponent_MEsq += 2; // Amplitude missing m from production and 1/m**2 from propagator == Amplitude missing 1/m == MEsq missing 1/m**2
  double constant = pow(GeV, -GeVexponent_MEsq);
  MatElSq *= constant;
 
  // Set RcdME information for ME and parton distributions, taking into account the mothers if id!=0 (i.e. if not unknown).
  if (mela_event.pMothers.at(0).first!=0 && mela_event.pMothers.at(1).first!=0){
    int ix=5, iy=5;
    if (abs(mela_event.pMothers.at(0).first)<6) ix=mela_event.pMothers.at(0).first + 5;
    if (abs(mela_event.pMothers.at(1).first)<6) iy=mela_event.pMothers.at(1).first + 5;
    msq[iy][ix]=MatElSq; // Note that SumMEPdf receives a transposed msq
  }
  else{
    if (production == TVar::ZZGG || production == TVar::ZZINDEPENDENT) msq[5][5]=MatElSq;
    else if (production == TVar::ZZQQB){
      for (int ix=0; ix<5; ix++){ msq[ix][10-ix]=MatElSq; msq[10-ix][ix]=MatElSq; }
    }
  }
  if (production!=TVar::ZZINDEPENDENT) SumMEPDF(MomStore[0], MomStore[1], msq, RcdME, EBEAM, verbosity);
  else{ // If production is ZZINDEPENDENT, only set gg index with fx1,2[g,g]=1.
    double fx_dummy[nmsq]={ 0 }; fx_dummy[5]=1.;
    RcdME->setPartonWeights(fx_dummy, fx_dummy);
    RcdME->setMEArray(msq, true);
    RcdME->computeWeightedMEArray();
  }
 
  if (verbosity >= TVar::DEBUG) MELAout << "TUtil::JHUGenMatEl: Final MatElSq = " << MatElSq << endl;
 
  // Reset alphas
  if (verbosity>=TVar::DEBUG){
    MELAout
      << "TUtil::JHUGenMatEl: Reset AlphaS:\n"
      << "\tBefore reset, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << endl;
  }
  SetAlphaS(defaultRenScale, defaultFacScale, 1., 1., defaultNloop, defaultNflav, defaultPdflabel);
  if (verbosity>=TVar::DEBUG){
    GetAlphaS(&alphasVal, &alphasmzVal);
    MELAout
      << "TUtil::JHUGenMatEl: Reset AlphaS result:\n"
      << "\tAfter reset, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << ", alphas(Qren): " << alphasVal << ", alphas(MZ): " << alphasmzVal << endl;
  }
  return MatElSq;
}

MadgraphMatEl()

double TUtil::MadgraphMatEl	(	const TVar::Process &	process,
		const TVar::Production &	production,
		const TVar::MatrixElement &	matrixElement,
		TVar::event_scales_type *	event_scales,
		MelaIO *	RcdME,
		const double &	EBEAM,
		TVar::VerbosityLevel	verbosity
	)

Definition at line 5258 of file TUtil.cc.

 {
  double MatElSq = 0;
  if (matrixElement!=TVar::MADGRAPH){ if (verbosity>=TVar::ERROR) MELAerr << "TUtil::MadgraphMatEl: Non-Madgraph MEs are not supported" << endl; return MatElSq; }
  simple_event_record mela_event;
  int partIncCode=TVar::kNoAssociated; // Do not use associated particles in the pT=0 frame boost
  mela_event.AssociationCode=partIncCode;
  GetBoostedParticleVectors(
    RcdME->melaCand,
    mela_event,
    verbosity
    );
  
  const int nPDG = mela_event.pDaughters.size() + mela_event.pAssociated.size() + mela_event.pMothers.size();
  TLorentzVector MomStore[mxpart]; // Mom (in natural units) to compute alphaS
  for (int i = 0; i < mxpart; i++) MomStore[i].SetXYZT(0, 0, 0, 0);
 
  // vector<int> pdgs(nPDG);
  // vector<vector<double>> p(nPDG, vector<double>(4));
  
  int pdgs[nPDG];
  double* p = new double[4*nPDG];
 
  int i = 0;
  for (SimpleParticle_t particle : mela_event.pMothers){
    pdgs[i] = particle.first;
    p[i*4+0] = particle.second.E();
    p[i*4+1] = particle.second.Px();
    p[i*4+2] = particle.second.Py();
    p[i*4+3] = particle.second.Pz();
    MomStore[i] = particle.second;
    i++;
  }
 
  bool previously_swapped = false; //stupid madgraph and their ordered id code
  for (SimpleParticle_t particle : mela_event.pDaughters){
    bool swap_spaces = false;
    if((i == 2 || i == 4) && particle.first > 0){ //negatives go first
      i++;
      swap_spaces = true;
      if(verbosity >= TVar::DEBUG) MELAout << "Swapping daughters at index " << i << " and " << i-1 << endl;
    }
    pdgs[i] = particle.first;
    p[i*4+0] = particle.second.E();
    p[i*4+1] = particle.second.Px();
    p[i*4+2] = particle.second.Py();
    p[i*4+3] = particle.second.Pz();
    MomStore[i] = particle.second;
    if(previously_swapped){
      i += 2;
      previously_swapped = false;
    }
    else if(swap_spaces){
      i--;
      previously_swapped = true;
    } else{
      i++;
    }
  }
  if(abs(pdgs[2]) > abs(pdgs[4])){ // absolute values of id are sorted
    swap(pdgs[2], pdgs[4]);
    swap(pdgs[3], pdgs[5]);
    for(i=0; i<4; i++){
      swap(p[2*4+i], p[4*4+i]);
      swap(p[3*4+i], p[5*4+i]);
    }
  }
  // Set alphas
  double defaultRenScale = scale_.scale;
  double defaultFacScale = facscale_.facscale;
  int defaultNloop = nlooprun_.nlooprun;
  int defaultNflav = nflav_.nflav;
  string defaultPdflabel = pdlabel_.pdlabel;
  double renQ = InterpretScaleScheme(production, matrixElement, event_scales->renomalizationScheme, MomStore);
  double facQ = InterpretScaleScheme(production, matrixElement, event_scales->factorizationScheme, MomStore);
  SetAlphaS(renQ, facQ, event_scales->ren_scale_factor, event_scales->fac_scale_factor, 1, 5, "cteq6_l"); // Set AlphaS(|Q|/2, mynloop, mynflav, mypartonPDF)
  double alphasVal, alphasmzVal;
  GetAlphaS(&alphasVal, &alphasmzVal);
  RcdME->setRenormalizationScale(renQ);
  RcdME->setFactorizationScale(facQ);
  RcdME->setAlphaS(alphasVal);
  RcdME->setAlphaSatMZ(alphasmzVal);
  RcdME->setHiggsMassWidth(masses_mcfm_.hmass, masses_mcfm_.hwidth, 0);
  RcdME->setHiggsMassWidth(spinzerohiggs_anomcoupl_.h2mass, spinzerohiggs_anomcoupl_.h2width, 1);
  if (verbosity>=TVar::DEBUG){
    MELAout
      << "TUtil::MadgraphMatEl: Set AlphaS:\n"
      << "\tBefore set, alphas scale: " << defaultRenScale << ", PDF scale: " << defaultFacScale << '\n'
      << "\trenQ: " << renQ << " ( x " << event_scales->ren_scale_factor << "), facQ: " << facQ << " ( x " << event_scales->fac_scale_factor << ")\n"
      << "\tAfter set, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << ", alphas(Qren): " << alphasVal << ", alphas(MZ): " << alphasmzVal << endl;
  }
  int procid = -1; //always set to -1 just cause
  double scale2 = 1; //This is useless for calculations
  if (verbosity>=TVar::DEBUG_VERBOSE){
    // MELAout << "Input vectors to MADGRAPH function in order as id, px, py, pz, E:" << endl;
    // for(int i = 0; i < nPDG; i++){
    //   MELAout << "id of " << pdgs[i] << " & vector of " << p[i][1] << ", " << p[i][2] << ", " << p[i][3] << ", " << p[i][0] << endl;
    // }
    MELAout << "Raw Input to FORTRAN:" << endl;
    for(int i = 0; i < nPDG; i++){
      for(int j = 0; j < 4; j++){
        MELAout << p[i*4+j] << " ";
      }
      MELAout << endl;
    }
  }
  madMela::update_all_coup(process, production);
  int nhel = -1;
  madMela::smatrixhel(
    process, production, 
    pdgs, procid, nPDG, p, 
    alphasVal, scale2, nhel, MatElSq
  );
 
  if(verbosity >= TVar::DEBUG) MELAout << " smatrixhel returns prob of " << MatElSq << endl;
  delete p;
  p = nullptr;
  return MatElSq;
}

MCFM_chooser()

bool TUtil::MCFM_chooser	(	const TVar::Process &	process,
		const TVar::Production &	production,
		const TVar::LeptonInterference &	leptonInterf,
		const TVar::VerbosityLevel &	verbosity,
		const TVar::simple_event_record &	mela_event
	)

Definition at line 1857 of file TUtil.cc.

   {
  bool result = true;
 
  unsigned int ndau = mela_event.pDaughters.size();
  int* pId = new int[ndau];
  for (unsigned int ip=0; ip<ndau; ip++){
    pId[ip]=mela_event.pDaughters.at(ip).first;
  }
  bool isWW = (ndau>=4 && PDGHelpers::isAWBoson(mela_event.intermediateVid.at(0)) && PDGHelpers::isAWBoson(mela_event.intermediateVid.at(1)));
  bool isZZ = (ndau>=4 && PDGHelpers::isAZBoson(mela_event.intermediateVid.at(0)) && PDGHelpers::isAZBoson(mela_event.intermediateVid.at(1)));
  bool hasZZ4fInterf = isZZ && abs(pId[0])==abs(pId[2]) && abs(pId[1])==abs(pId[3]) && !PDGHelpers::isAnUnknownJet(pId[0]) && !PDGHelpers::isAnUnknownJet(pId[3]);
  //bool isZJJ = false;
  //if (ndau>=4) isZJJ = (PDGHelpers::isAZBoson(mela_event.intermediateVid.at(0)) && PDGHelpers::isAJet(pId[2]) && PDGHelpers::isAJet(pId[3])); // Notice both isZZ and isZJJ could be true
  //bool isZG = (ndau>=3 && PDGHelpers::isAZBoson(mela_event.intermediateVid.at(0)) && PDGHelpers::isAPhoton(mela_event.intermediateVid.at(1)));
  bool isGG = (ndau>=2 && PDGHelpers::isAPhoton(mela_event.intermediateVid.at(0)) && PDGHelpers::isAPhoton(mela_event.intermediateVid.at(1)));
  if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_chooser: isWW=" << (int)isWW << ", isZZ=" << (int)isZZ << ", hasZZ4fInterf=" << (int)hasZZ4fInterf << endl;
 
  npart_.npart=4; // Default number of particles is just 4, indicating no associated particles
  sprintf(runstring_.runstring, "test");
 
  if (
    ndau>=4
    &&
    (
    ((production == TVar::ZZQQB_STU || production == TVar::ZZQQB_S || production == TVar::ZZQQB_TU) && process == TVar::bkgZZ)
    ||
    ((production == TVar::ZZINDEPENDENT || production == TVar::ZZQQB) && process == TVar::bkgZZ)
    )
    ){
    //81 '  f(p1)+f(p2) --> Z^0(-->mu^-(p3)+mu^+(p4)) + Z^0(-->e^-(p5)+e^+(p6))'
    //86 '  f(p1)+f(p2) --> Z^0(-->e^-(p5)+e^+(p6))+Z^0(-->mu^-(p3)+mu^+(p4)) (NO GAMMA*)'
    //90 '  f(p1)+f(p2) --> Z^0(-->e^-(p3)+e^+(p4)) + Z^0(-->e^-(p5)+e^+(p6))' 'L'
 
    nqcdjets_.nqcdjets=0;
    srdiags_.srdiags=true;
    nwz_.nwz=0; ckmfill_(&(nwz_.nwz));
    bveg1_mcfm_.ndim=10;
    breit_.n2=1;
    breit_.n3=1;
    breit_.mass2=masses_mcfm_.zmass;
    breit_.width2=masses_mcfm_.zwidth;
    breit_.mass3=masses_mcfm_.zmass;
    breit_.width3=masses_mcfm_.zwidth;
 
    vsymfact_.vsymfact=1.0;
    interference_.interference=false;
    if (hasZZ4fInterf && (leptonInterf==TVar::DefaultLeptonInterf || leptonInterf==TVar::InterfOn)){
      //90 '  f(p1)+f(p2) --> Z^0(-->e^-(p3)+e^+(p4)) + Z^0(-->e^-(p5)+e^+(p6))' 'L'
      vsymfact_.vsymfact=0.5;
      interference_.interference=true;
    }
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_chooser: Setup is (production, process)=(" << TVar::ProductionName(production) << ", " << TVar::ProcessName(process) << ")" << endl;
 
  }
  else if (
    ndau>=4
    &&
    ((production == TVar::ZZINDEPENDENT || production == TVar::ZZQQB) && process == TVar::bkgWW)
    ){
    // Processes 61 (4l), 62 (2l2q), 64 (2q2l)
 
    nqcdjets_.nqcdjets=0;
    nwz_.nwz=1; ckmfill_(&(nwz_.nwz));
    bveg1_mcfm_.ndim=10;
    breit_.n2=1;
    breit_.n3=1;
    breit_.mass2=masses_mcfm_.wmass;
    breit_.width2=masses_mcfm_.wwidth;
    breit_.mass3=masses_mcfm_.wmass;
    breit_.width3=masses_mcfm_.wwidth;
    srdiags_.srdiags=true;
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_chooser: Setup is (production, process)=(" << TVar::ProductionName(production) << ", " << TVar::ProcessName(process) << ")" << endl;
 
  }
  else if (
    (ndau>=4 || ndau==2)
    &&
    production == TVar::JJQCD
    &&
    process == TVar::bkgZJets
    ){
    // -- 44 '  f(p1)+f(p2) --> Z^0(-->e^-(p3)+e^+(p4))+f(p5)+f(p6)'
    // these settings are identical to use the chooser_() function
 
    flags_.Gflag=true;
    flags_.Qflag=true;
    flags_.QandGflag=true; // This is in case NLO is implemented.
    bveg1_mcfm_.ndim=10;
    breit_.n2=0;
    breit_.n3=1;
    nqcdjets_.nqcdjets=2;
    nwz_.nwz=0; ckmfill_(&(nwz_.nwz));
    breit_.mass3=masses_mcfm_.zmass;
    breit_.width3=masses_mcfm_.zwidth;
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_chooser: Setup is (production, process)=(" << TVar::ProductionName(production) << ", " << TVar::ProcessName(process) << ")" << endl;
 
  }
  else if (
    ndau==3
    &&
    (production == TVar::ZZQQB || production == TVar::ZZINDEPENDENT)
    &&
    process == TVar::bkgZGamma
    ){
    // -- 300 '  f(p1)+f(p2) --> Z^0(-->e^-(p3)+e^+(p4))+gamma(p5)'
    // -- 305 '  f(p1)+f(p2) --> Z^0(-->3*(nu(p3)+nu~(p4)))-(sum over 3 nu)+gamma(p5)'
 
    nqcdjets_.nqcdjets=0;
    bveg1_mcfm_.ndim=7;
    breit_.n2=0;
    breit_.n3=1;
    breit_.mass3=masses_mcfm_.zmass;
    breit_.width3=masses_mcfm_.zwidth;
    //lastphot_.lastphot=5; // Done during particle label assignment
    nwz_.nwz=0; ckmfill_(&(nwz_.nwz));
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_chooser: Setup is (production, process)=(" << TVar::ProductionName(production) << ", " << TVar::ProcessName(process) << ")" << endl;
 
  }
  else if (
    isGG
    &&
    (production == TVar::ZZQQB || production == TVar::ZZINDEPENDENT || production == TVar::ZZGG)
    &&
    process == TVar::bkgGammaGamma
    ){
    // -- 285 '  f(p1)+f(p2) --> gamma(p3)+gamma(p4)'
 
    nqcdjets_.nqcdjets=0;
    bveg1_mcfm_.ndim=4;
    breit_.n3=0;
    lastphot_.lastphot=4;
    nwz_.nwz=0; ckmfill_(&(nwz_.nwz));
    if (production == TVar::ZZQQB || production == TVar::ZZINDEPENDENT) noglue_.omitgg=true;
    else noglue_.omitgg=false;
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_chooser: Setup is (production, process)=(" << TVar::ProductionName(production) << ", " << TVar::ProcessName(process) << ")" << endl;
 
  }
  else if (
    ndau>=4
    &&
    production == TVar::ZZGG
    &&
    (isZZ && (process == TVar::bkgZZ || process == TVar::HSMHiggs || process == TVar::bkgZZ_SMHiggs))
    ){
    /*
    nprocs:
    c--- 128 '  f(p1)+f(p2) --> H(--> Z^0(e^-(p3)+e^+(p4)) + Z^0(mu^-(p5)+mu^+(p6)) [top, bottom loops, exact]' 'L'
    c--- 129 '  f(p1)+f(p2) --> H(--> Z^0(e^-(p3)+e^+(p4)) + Z^0(mu^-(p5)+mu^+(p6)) [only H, gg->ZZ intf.]' 'L' -> NOT IMPLEMENTED
    c--- 130 '  f(p1)+f(p2) --> H(--> Z^0(e^-(p3)+e^+(p4)) + Z^0(mu^-(p5)+mu^+(p6)) [H squared and H, gg->ZZ intf.]' 'L'
    c--- 131 '  f(p1)+f(p2) --> Z^0(e^-(p3)+e^+(p4)) + Z^0(mu^-(p5)+mu^+(p6) [gg only, (H + gg->ZZ) squared]' 'L'
    c--- 132 '  f(p1)+f(p2) --> Z^0(e^-(p3)+e^+(p4)) + Z^0(mu^-(p5)+mu^+(p6) [(gg->ZZ) squared]' 'L'
    */
 
    nqcdjets_.nqcdjets=0;
    nwz_.nwz=0; ckmfill_(&(nwz_.nwz));
    bveg1_mcfm_.ndim=10;
    breit_.n2=1;
    breit_.n3=1;
    breit_.mass2 =masses_mcfm_.zmass;
    breit_.width2=masses_mcfm_.zwidth;
    breit_.mass3 =masses_mcfm_.zmass;
    breit_.width3=masses_mcfm_.zwidth;
 
    vsymfact_.vsymfact=1.0;
    interference_.interference=false;
    if (hasZZ4fInterf && (leptonInterf==TVar::DefaultLeptonInterf || leptonInterf==TVar::InterfOn)){
      vsymfact_.vsymfact=0.5;
      interference_.interference=true;
    }
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_chooser: Setup is (production, process)=(" << TVar::ProductionName(production) << ", " << TVar::ProcessName(process) << ")" << endl;
 
  }
  else if (
    ndau>=4
    &&
    production == TVar::ZZGG
    &&
    (
    (
    (isWW && (process == TVar::bkgWW || process == TVar::HSMHiggs || process == TVar::bkgWW_SMHiggs))
    )
    ||
    (
    ((isWW || isZZ) && (process == TVar::bkgWWZZ || process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ_SMHiggs))
    )
    )
    ){ // gg->VV
    // Processes 1281, 1311, 1321
 
    nwz_.nwz=0; ckmfill_(&(nwz_.nwz));
    nqcdjets_.nqcdjets=0;
    bveg1_mcfm_.ndim=10;
    breit_.n2=1;
    breit_.n3=1;
    nuflav_.nuflav=1; // Keep this at 1. Mela controls how many flavors in a more exact way.
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_chooser: Setup is (production, process)=(" << TVar::ProductionName(production) << ", " << TVar::ProcessName(process) << ")" << endl;
 
  }
  // JJ + ZZ->4f
  else if ( // Check for support in qq'H+2J
    ndau>=4
    &&
    (
    production == TVar::Had_WH || production == TVar::Had_ZH
    || production == TVar::Had_WH_S || production == TVar::Had_ZH_S
    || production == TVar::Had_WH_TU || production == TVar::Had_ZH_TU
    || production == TVar::Lep_WH || production == TVar::Lep_ZH
    || production == TVar::Lep_WH_S || production == TVar::Lep_ZH_S
    || production == TVar::Lep_WH_TU || production == TVar::Lep_ZH_TU
    || production == TVar::JJVBF || production == TVar::JJEW
    || production == TVar::JJVBF_S || production == TVar::JJEW_S
    || production == TVar::JJVBF_TU || production == TVar::JJEW_TU
    )
    &&
    (isZZ && (process == TVar::bkgZZ || process == TVar::HSMHiggs || process == TVar::bkgZZ_SMHiggs))
    ){
    // 220 '  f(p1)+f(p2) --> Z(e-(p3),e^+(p4))Z(mu-(p5),mu+(p6)))+f(p7)+f(p8) [weak]' 'L'
 
    if (process == TVar::bkgZZ) sprintf(runstring_.runstring, "wbfBO");
    else if (process == TVar::HSMHiggs) sprintf(runstring_.runstring, "wbfHO");
 
    npart_.npart=6;
    nwz_.nwz=2; ckmfill_(&(nwz_.nwz));
    bveg1_mcfm_.ndim=16;
    nqcdjets_.nqcdjets=2;
    breit_.n2=1;
    breit_.n3=1;
    breit_.mass2 =masses_mcfm_.zmass;
    breit_.width2=masses_mcfm_.zwidth;
    breit_.mass3 =masses_mcfm_.zmass;
    breit_.width3=masses_mcfm_.zwidth;
 
    vsymfact_.vsymfact=1.0;
    interference_.interference=false;
    if (hasZZ4fInterf && (leptonInterf==TVar::DefaultLeptonInterf || leptonInterf==TVar::InterfOn)){
      vsymfact_.vsymfact=0.5;
      interference_.interference=true;
    }
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_chooser: Setup is (production, process)=(" << TVar::ProductionName(production) << ", " << TVar::ProcessName(process) << ")" << endl;
 
  }
  // JJ + WW->4f
  else if ( // Check for support in qq'H+2J
    ndau>=4
    &&
    (
    production == TVar::Had_WH || production == TVar::Had_ZH
    || production == TVar::Had_WH_S || production == TVar::Had_ZH_S
    || production == TVar::Had_WH_TU || production == TVar::Had_ZH_TU
    || production == TVar::Lep_WH || production == TVar::Lep_ZH
    || production == TVar::Lep_WH_S || production == TVar::Lep_ZH_S
    || production == TVar::Lep_WH_TU || production == TVar::Lep_ZH_TU
    || production == TVar::JJVBF || production == TVar::JJEW
    || production == TVar::JJVBF_S || production == TVar::JJEW_S
    || production == TVar::JJVBF_TU || production == TVar::JJEW_TU
    )
    &&
    (isWW && (process == TVar::bkgWW || process == TVar::HSMHiggs || process == TVar::bkgWW_SMHiggs))
    ){
    // Process 224
 
    if (process == TVar::bkgWW) sprintf(runstring_.runstring, "wbfBO");
    else if (process == TVar::HSMHiggs) sprintf(runstring_.runstring, "wbfHO");
 
    npart_.npart=6;
    nwz_.nwz=2; ckmfill_(&(nwz_.nwz));
    bveg1_mcfm_.ndim=16;
    nqcdjets_.nqcdjets=2;
    breit_.n2=1;
    breit_.n3=1;
    breit_.mass2 =masses_mcfm_.wmass;
    breit_.width2=masses_mcfm_.wwidth;
    breit_.mass3 =masses_mcfm_.wmass;
    breit_.width3=masses_mcfm_.wwidth;
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_chooser: Setup is (production, process)=(" << TVar::ProductionName(production) << ", " << TVar::ProcessName(process) << ")" << endl;
 
  }
  // JJ + VV->4f
  else if ( // Check for support in qq'H+2J
    ndau>=4
    &&
    (
    production == TVar::Had_WH || production == TVar::Had_ZH
    || production == TVar::Had_WH_S || production == TVar::Had_ZH_S
    || production == TVar::Had_WH_TU || production == TVar::Had_ZH_TU
    || production == TVar::Lep_WH || production == TVar::Lep_ZH
    || production == TVar::Lep_WH_S || production == TVar::Lep_ZH_S
    || production == TVar::Lep_WH_TU || production == TVar::Lep_ZH_TU
    || production == TVar::JJVBF || production == TVar::JJEW
    || production == TVar::JJVBF_S || production == TVar::JJEW_S
    || production == TVar::JJVBF_TU || production == TVar::JJEW_TU
    )
    &&
    ((isZZ || isWW) && (process == TVar::bkgWWZZ || process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ_SMHiggs))
    ){
    // Procsss 226
 
    if (process == TVar::bkgWWZZ) sprintf(runstring_.runstring, "wbfBO");
    else if (process == TVar::HSMHiggs_WWZZ) sprintf(runstring_.runstring, "wbfHO");
 
    npart_.npart=6;
    nwz_.nwz=2; ckmfill_(&(nwz_.nwz));
    bveg1_mcfm_.ndim=16;
    nqcdjets_.nqcdjets=2;
    breit_.n2=1;
    breit_.n3=1;
    breit_.mass2 =masses_mcfm_.wmass;
    breit_.width2=masses_mcfm_.wwidth;
    breit_.mass3 =masses_mcfm_.wmass;
    breit_.width3=masses_mcfm_.wwidth;
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_chooser: Setup is (production, process)=(" << TVar::ProductionName(production) << ", " << TVar::ProcessName(process) << ")" << endl;
 
  }
  // JJ + ZZ->4f (QCD)
  else if (
    ndau>=4
    &&
    (
    production == TVar::JJQCD/* || production == TVar::JJQCD_S || production == TVar::JJQCD_TU*/
    || production == TVar::JJEWQCD || production == TVar::JJEWQCD_S || production == TVar::JJEWQCD_TU
    )
    &&
    (isZZ && process == TVar::bkgZZ) // ME is bkg-only
    ){
    // 2201 '  f(p1)+f(p2) --> Z(e-(p3),e^+(p4))Z(mu-(p5),mu+(p6)))+f(p7)+f(p8) [strong]' 'L'
    /*
    NOTE TO DEVELOPER
    MCFM also sets common/VVstrong/VVstrong (logical) here, but it only controls which ww_ZZqq function is called.
    It is irrelevant as long as eventgeneration through lowint is not used directly through MELA.
    */
    npart_.npart=6;
    nwz_.nwz=2; ckmfill_(&(nwz_.nwz));
    bveg1_mcfm_.ndim=16;
    nqcdjets_.nqcdjets=2;
    breit_.n2=1;
    breit_.n3=1;
    breit_.mass2 =masses_mcfm_.zmass;
    breit_.width2=masses_mcfm_.zwidth;
    breit_.mass3 =masses_mcfm_.zmass;
    breit_.width3=masses_mcfm_.zwidth;
 
    vsymfact_.vsymfact=1.0;
    interference_.interference=false;
    if (hasZZ4fInterf && (leptonInterf==TVar::DefaultLeptonInterf || leptonInterf==TVar::InterfOn)){
      vsymfact_.vsymfact=0.5;
      interference_.interference=true;
    }
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_chooser: Setup is (production, process)=(" << TVar::ProductionName(production) << ", " << TVar::ProcessName(process) << ")" << endl;
 
  }
    // JJ + WW->4f (QCD)
  else if (
    ndau>=4
    &&
    (
    production == TVar::JJQCD/* || production == TVar::JJQCD_S || production == TVar::JJQCD_TU*/
    || production == TVar::JJEWQCD || production == TVar::JJEWQCD_S || production == TVar::JJEWQCD_TU
    )
    &&
    (isWW && process == TVar::bkgWW) // ME is bkg-only
    ){
    // Process 2241
    /*
    NOTE TO DEVELOPER
    MCFM also sets common/VVstrong/VVstrong (logical) here, but it only controls which ww_ZZqq function is called.
    It is irrelevant as long as eventgeneration through lowint is not used directly through MELA.
    */
    npart_.npart=6;
    nwz_.nwz=2; ckmfill_(&(nwz_.nwz));
    bveg1_mcfm_.ndim=16;
    nqcdjets_.nqcdjets=2;
    breit_.n2=1;
    breit_.n3=1;
    breit_.mass2 =masses_mcfm_.wmass;
    breit_.width2=masses_mcfm_.wwidth;
    breit_.mass3 =masses_mcfm_.wmass;
    breit_.width3=masses_mcfm_.wwidth;
 
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_chooser: Setup is (production, process)=(" << TVar::ProductionName(production) << ", " << TVar::ProcessName(process) << ")" << endl;
 
  }
    // JJ + VV->4f (QCD)
  else if (
    ndau>=4
    &&
    (
    production == TVar::JJQCD/* || production == TVar::JJQCD_S || production == TVar::JJQCD_TU*/
    || production == TVar::JJEWQCD || production == TVar::JJEWQCD_S || production == TVar::JJEWQCD_TU
    )
    &&
    ((isZZ || isWW) && process == TVar::bkgWWZZ)
    ){
    // Procsss 2261 (not supported yet)
    MELAerr << "TUtil::MCFM_chooser: MCFM does not support QCD JJ+VV->4f interaction yet. Please contact the MELA authors if you need more information." << endl;
    result = false;
 
  }
  else{
    MELAerr << "TUtil::MCFM_chooser: Can't identify (process, production) = (" << process << ", " << production << ")" << endl;
    MELAerr << "TUtil::MCFM_chooser: ndau: " << ndau << '\t';
    MELAerr << "TUtil::MCFM_chooser: isZZ: " << isZZ << '\t';
    MELAerr << "TUtil::MCFM_chooser: isWW: " << isWW << '\t';
    MELAerr << "TUtil::MCFM_chooser: isGG: " << isGG << '\t';
    MELAerr << endl;
    result = false;
  }
 
  delete[] pId;
  return result;
}

MCFM_masscuts()

bool TUtil::MCFM_masscuts	(	double	s[][mxpart],
		const TVar::Process &	process
	)

Definition at line 3344 of file TUtil.cc.

                                                                       {
  double minZmassSqr=10*10;
  if (
    process == TVar::bkgZZ
    &&
    (s[2][3]<minZmassSqr || s[4][5]<minZmassSqr)
    ) return true;
  return false;
}

MCFM_SetupParticleCouplings()

bool TUtil::MCFM_SetupParticleCouplings	(	const TVar::Process &	process,
		const TVar::Production &	production,
		const TVar::VerbosityLevel &	verbosity,
		const TVar::simple_event_record &	mela_event,
		std::vector< int > *	partOrder,
		std::vector< int > *	apartOrder
	)

Definition at line 2282 of file TUtil.cc.

   {
  bool result=true;
 
  // Initialize Z couplings
  zcouple_.q1=0;
  zcouple_.l1=0;
  zcouple_.r1=0;
  zcouple_.q2=0;
  zcouple_.l2=0;
  zcouple_.r2=0;
 
  // Initialize plabels
  TString strplabel[mxpart];
  for (int ip=0; ip<mxpart; ip++) strplabel[ip]="  ";
 
  // Channel checks
  unsigned int ndau = mela_event.pDaughters.size();
  if (ndau<1) return false;
  unsigned int napart = mela_event.pAssociated.size();
  bool isWW = (ndau>=4 && PDGHelpers::isAWBoson(mela_event.intermediateVid.at(0)) && PDGHelpers::isAWBoson(mela_event.intermediateVid.at(1)));
  bool isZZ = (ndau>=4 && PDGHelpers::isAZBoson(mela_event.intermediateVid.at(0)) && PDGHelpers::isAZBoson(mela_event.intermediateVid.at(1)));
  //bool hasZZ4fInterf = isZZ && abs(pId[0])==abs(pId[2]) && abs(pId[1])==abs(pId[3]) && !PDGHelpers::isAnUnknownJet(pId[0]) && !PDGHelpers::isAnUnknownJet(pId[3]);
  bool isZJJ = false;
  if (ndau>=4) isZJJ = PDGHelpers::isAZBoson(mela_event.intermediateVid.at(0)); // No check on whether daughters 2 and 3 are jets. Notice both isZZ and isZJJ could be true
  else if (ndau==2 && process == TVar::bkgZJets){ // Check whether the two daughters can create a Z
    isZJJ = (
      PDGHelpers::isAZBoson(PDGHelpers::getCoupledVertex(mela_event.intermediateVid.at(0), mela_event.intermediateVid.at(1)))
      ||
      ((PDGHelpers::isAnUnknownJet(mela_event.intermediateVid.at(0)) || PDGHelpers::isAQuark(mela_event.intermediateVid.at(0))) && (PDGHelpers::isAnUnknownJet(mela_event.intermediateVid.at(1)) || PDGHelpers::isAQuark(mela_event.intermediateVid.at(1))))
      );
  }
  bool isZG = (ndau>=3 && PDGHelpers::isAZBoson(mela_event.intermediateVid.at(0)) && PDGHelpers::isAPhoton(mela_event.intermediateVid.at(1)));
  bool isGG = (ndau>=2 && PDGHelpers::isAPhoton(mela_event.intermediateVid.at(0)) && PDGHelpers::isAPhoton(mela_event.intermediateVid.at(1)));
  bool hasZ1 = (isZZ || isZG || isZJJ);
  bool hasZ2 = isZZ;
  bool hasW1 = isWW;
  bool hasW2 = isWW;
  if (verbosity>=TVar::DEBUG){
    MELAout << "TUtil::MCFM_SetupParticleCouplings(" << TVar::ProductionName(production) << ", " << TVar::ProcessName(process) << "):\nInitial configuration ";
    vector<TString> strcfgs;
    if (isGG) strcfgs.push_back(TString("GG"));
    if (isZG) strcfgs.push_back(TString("ZG"));
    if (isZZ) strcfgs.push_back(TString("ZZ"));
    if (isZJJ) strcfgs.push_back(TString("ZJJ"));
    if (isWW) strcfgs.push_back(TString("WW"));
    if (!strcfgs.empty()){
      MELAout << "is ";
      for (unsigned int istr=0; istr<strcfgs.size(); istr++){
        if (istr==0) MELAout << strcfgs.at(istr);
        else MELAout << ", " << strcfgs.at(istr);
      }
      MELAout << ".";
    }
    else MELAout << "has no valid decay!";
    MELAout << endl;
  }
 
  // Setup the ordering arrays
  int* pApartOrder = 0;
  int* pApartId = 0;
  if (napart>0){
    pApartOrder = new int[napart];
    pApartId = new int[napart];
    for (unsigned int ip=0; ip<napart; ip++){
      pApartOrder[ip]=ip; // This order USUALLY does not change!
      pApartId[ip]=mela_event.pAssociated.at(ip).first; // This order does not change.
    }
  }
  int* pOrder = new int[ndau];
  int* pZOrder = new int[ndau];
  int* pWOrder = new int[ndau];
  int* pId = new int[ndau];
  for (unsigned int ip=0; ip<ndau; ip++){
    pOrder[ip]=ip; // This order does not change
    pZOrder[ip]=ip;
    pWOrder[ip]=ip;
    pId[ip]=mela_event.pDaughters.at(ip).first; // This order does not change.
  }
 
  // Special case checks
  bool useQQBZGAM = (isZG && process == TVar::bkgZGamma && (production == TVar::ZZQQB || production == TVar::ZZINDEPENDENT));
  bool useQQVVQQ =
    (
    ((isZZ && (process == TVar::bkgZZ || process == TVar::HSMHiggs || process == TVar::bkgZZ_SMHiggs))
    || (isWW && (process == TVar::bkgWW || process == TVar::HSMHiggs || process == TVar::bkgWW_SMHiggs))
    || ((isZZ || isWW) && (process == TVar::bkgWWZZ || process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ_SMHiggs)))
    &&
    (production == TVar::Had_WH || production == TVar::Had_ZH
    || production == TVar::Had_WH_S || production == TVar::Had_ZH_S
    || production == TVar::Had_WH_TU || production == TVar::Had_ZH_TU
    || production == TVar::Lep_WH || production == TVar::Lep_ZH
    || production == TVar::Lep_WH_S || production == TVar::Lep_ZH_S
    || production == TVar::Lep_WH_TU || production == TVar::Lep_ZH_TU
    || production == TVar::JJVBF || production == TVar::JJEW
    || production == TVar::JJVBF_S || production == TVar::JJEW_S
    || production == TVar::JJVBF_TU || production == TVar::JJEW_TU)
    );
  bool useQQVVQQstrong =
    (
    ((isZZ && process == TVar::bkgZZ) || (isWW && process == TVar::bkgWW) || ((isZZ || isWW) && process == TVar::bkgWWZZ))
    &&
    (production == TVar::JJQCD || production == TVar::JJQCD_S || production == TVar::JJQCD_TU)
    );
  bool useQQVVQQboth =
    (
    ((isZZ && process == TVar::bkgZZ) || (isWW && process == TVar::bkgWW) || ((isZZ || isWW) && process == TVar::bkgWWZZ))
    &&
    (production == TVar::JJEWQCD || production == TVar::JJEWQCD_S || production == TVar::JJEWQCD_TU)
    );
  bool useQQVVQQany = useQQVVQQ || useQQVVQQstrong || useQQVVQQboth;
 
  /**************************/
  /* Begin the setup checks */
  /**************************/
  // Check first if the decay mode is valid and the number of associated particles is consistent with the requested number
  if (
    !(isWW || isZZ || isZJJ || isZG || isGG) // Only ZZ, WW, ZG or GG supported in MCFM
    ||
    ((int)napart<(mela_event.nRequested_AssociatedJets+mela_event.nRequested_AssociatedLeptons)) // Associated particle not found
    ) result=false;
  else{
 
    if (isWW && !hasZ1 && !hasZ2){
      // Default swap is 3-5
      // For ggVV amplitudes, MCFM generates W+W- and does 3-5 swap inside the ME, so by definition, this is ok.
      // For VBFWW amplitudes, MCFM generates W-W+ in the phase space and does a 4-6 swap before passing to the ME. The ordering here is W+W-, so this is equivalent to doing a 3-5 swap to get the corresponding ZZ-like combinations.
      swap(pZOrder[0], pZOrder[2]);
 
      int V1id, V2id;
      if (!PDGHelpers::isAnUnknownJet(pId[pZOrder[0]]) && !PDGHelpers::isAnUnknownJet(pId[pZOrder[1]])) V1id = PDGHelpers::getCoupledVertex(pId[pZOrder[0]], pId[pZOrder[1]]);
      else V1id = 23;
      if (!PDGHelpers::isAnUnknownJet(pId[pZOrder[2]]) && !PDGHelpers::isAnUnknownJet(pId[pZOrder[3]])) V2id = PDGHelpers::getCoupledVertex(pId[pZOrder[2]], pId[pZOrder[3]]);
      else V2id = 23;
      hasZ1=hasZ1 || PDGHelpers::isAZBoson(V1id);
      hasZ2=hasZ2 || PDGHelpers::isAZBoson(V2id);
      if (!hasZ1 && hasZ2){
        swap(pZOrder[0], pZOrder[2]);
        swap(pZOrder[1], pZOrder[3]);
        swap(hasZ1, hasZ2);
      }
      if (verbosity>=TVar::DEBUG){
        if (hasZ1) MELAout << "TUtil::MCFM_SetupParticleCouplings: Found a Z1";
        if (hasZ2) MELAout << " and a Z2";
        if (hasZ1 || hasZ2) MELAout << " in WW." << endl;
      }
    }
    if (isZZ && !hasW1 && !hasW2){
      swap(pWOrder[0], pWOrder[2]);
 
      int V1id, V2id;
      if (!PDGHelpers::isAnUnknownJet(pId[pWOrder[0]]) && !PDGHelpers::isAnUnknownJet(pId[pWOrder[1]])) V1id = PDGHelpers::getCoupledVertex(pId[pWOrder[0]], pId[pWOrder[1]]);
      else V1id = 24;
      if (!PDGHelpers::isAnUnknownJet(pId[pWOrder[2]]) && !PDGHelpers::isAnUnknownJet(pId[pWOrder[3]])) V2id = PDGHelpers::getCoupledVertex(pId[pWOrder[2]], pId[pWOrder[3]]);
      else V2id = -24;
      if (PDGHelpers::isAWBoson(V1id) && PDGHelpers::isAWBoson(V2id)){
        if (V1id<0 || V2id>0){
          swap(pWOrder[0], pWOrder[2]);
          swap(pWOrder[1], pWOrder[3]);
        }
        hasW1=true;
        hasW2=true;
      }
      if (verbosity>=TVar::DEBUG){
        if (hasW1) MELAout << "TUtil::MCFM_SetupParticleCouplings: Found a W1(" << V1id << ")";
        if (hasW2) MELAout << " and a W2(" << V2id << ")";
        if (hasW1 || hasW2) MELAout << " in ZZ." << endl;
      }
    }
 
    /*******************/
    /* Particle labels */
    /*******************/
    // Mother particles
    // Default labels for most processes
    strplabel[0]="pp";
    strplabel[1]="pp";
    if (useQQVVQQany){ // Special case if using qqZZ/VVqq*
      if (verbosity>=TVar::DEBUG) MELAout << "TUtil::MCFM_SetupParticleCouplings: Setting up mother labels for MCFM:";
      for (int ip=0; ip<min(2, (int)mela_event.pMothers.size()); ip++){
        const int& idmot = mela_event.pMothers.at(ip).first;
        if (!PDGHelpers::isAnUnknownJet(idmot)) strplabel[ip]=TUtil::GetMCFMParticleLabel(idmot, false, useQQVVQQany);
        if (verbosity>=TVar::DEBUG) MELAout << " " << idmot << "=" << strplabel[ip];
        // No need to check unknown parton case, already "pp"
      }
      if (verbosity>=TVar::DEBUG) MELAout << endl;
    }
 
    // Decay and associated particles
    // 0-jet processes, set only decay labels (and plabel[5/6]=pp due to NLO stuff)
    if (isZJJ && production == TVar::JJQCD && process == TVar::bkgZJets){
      strplabel[2]="el";
      strplabel[3]="ea";
      strplabel[4]="pp";
      strplabel[5]="pp";
      strplabel[6]="pp";
    }
    else if (production == TVar::ZZGG && (
      (isWW && (process == TVar::bkgWW || process == TVar::HSMHiggs || process == TVar::bkgWW_SMHiggs))
      ||
      ((isWW || isZZ) && (process == TVar::bkgWWZZ || process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ_SMHiggs))
      )
      ){
      strplabel[2]="el";
      strplabel[3]="ea";
      strplabel[4]="nl";
      strplabel[5]="na";
      strplabel[6]="pp";
 
      string strrun = runstring_.runstring;
      if (isWW && ((!hasZ1 || !hasZ2) || (process == TVar::bkgWW || process == TVar::HSMHiggs || process == TVar::bkgWW_SMHiggs))) strrun += "_ww";
      else if (isZZ && (!hasW1 || !hasW2)) strrun += "_zz";
      sprintf(runstring_.runstring, strrun.c_str());
    }
    else if (isZG && (production == TVar::ZZQQB || production == TVar::ZZINDEPENDENT) && process == TVar::bkgZGamma){
      lastphot_.lastphot=5;
      strplabel[4]="ga";
      strplabel[5]="pp";
    }
    else if (isGG && (production == TVar::ZZGG || production == TVar::ZZQQB || production == TVar::ZZINDEPENDENT) && process == TVar::bkgGammaGamma){
      //lastphot_.lastphot=4; // Done in chooser
      strplabel[2]="ga";
      strplabel[3]="ga";
      strplabel[4]="pp";
    }
    else if (isWW && (production == TVar::ZZINDEPENDENT || production == TVar::ZZQQB) && process == TVar::bkgWW){
      strplabel[6]="pp";
      zcouple_.l1=1.;
 
      if (PDGHelpers::isANeutrino(pId[pWOrder[0]])){
        strplabel[2]="nl";
        strplabel[3]="ea";
      }
      else if (PDGHelpers::isAJet(pId[pWOrder[1]])){
        strplabel[2]="qj";
        strplabel[3]="qj";
        zcouple_.l1 *= sqrt(6.);
        nqcdjets_.nqcdjets += 2;
      }
      else result = false;
 
      if (PDGHelpers::isANeutrino(pId[pWOrder[3]])){
        strplabel[4]="el";
        strplabel[5]="na";
      }
      else if (PDGHelpers::isAJet(pId[pWOrder[3]])){
        strplabel[4]="qj";
        strplabel[5]="qj";
        zcouple_.l1 *= sqrt(6.);
        nqcdjets_.nqcdjets += 2;
      }
      else result = false;
      if (PDGHelpers::isAJet(pId[pWOrder[0]]) && PDGHelpers::isAJet(pId[pWOrder[3]])) result = false; // MCFM does not support WW->4q
    }
    // 2-jet processes
    // Most of the associated particle labels are set below
    // VH productions loop over all possible associated particles to assign V daughters as the first two particles in particle-antiparticle order
    else if ((isWW || isZZ) && napart>=2 && (production == TVar::Lep_ZH || production == TVar::Lep_ZH_S || production == TVar::Lep_ZH_TU)){
      spinzerohiggs_anomcoupl_.channeltoggle_stu = int(production == TVar::Lep_ZH)*2 + int(production == TVar::Lep_ZH_TU)*1 + int(production == TVar::Lep_ZH_S)*0;
      spinzerohiggs_anomcoupl_.vvhvvtoggle_vbfvh = 1;
 
      if (process == TVar::bkgWWZZ || process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ_SMHiggs){
        string strrun = runstring_.runstring;
        if (isWW && (!hasZ1 || !hasZ2)) strrun += "_ww";
        else if (isZZ && (!hasW1 || !hasW2)) strrun += "_zz";
        sprintf(runstring_.runstring, strrun.c_str());
      }
 
      bool hasZll=false;
      bool hasZnn=false;
      for (unsigned int ix=0; ix<napart; ix++){
        if (PDGHelpers::isAJet(pApartId[ix])) continue;
        for (unsigned int iy=ix+1; iy<napart; iy++){
          if (PDGHelpers::isAJet(pApartId[iy])) continue;
          int Vid = PDGHelpers::getCoupledVertex(pApartId[ix], pApartId[iy]);
          if (PDGHelpers::isAZBoson(Vid) && PDGHelpers::isALepton(pApartId[ix])){
            int i1=ix; int i2=iy;
            if (pApartId[ix]<0){ swap(i1, i2); }
            int* tmpOrder = new int[napart];
            tmpOrder[0] = i1; tmpOrder[1] = i2;
            unsigned int ctr=2;
            for (unsigned int ipart=0; ipart<napart; ipart++){ if (ctr<napart && pApartOrder[ipart]!=i1 && pApartOrder[ipart]!=i2){ tmpOrder[ctr] = pApartOrder[ipart]; ctr++; } }
            delete[] pApartOrder; pApartOrder = tmpOrder;
            hasZll=true;
            break;
          }
          else if (PDGHelpers::isAZBoson(Vid) && PDGHelpers::isANeutrino(pApartId[ix])){
            int i1=ix; int i2=iy;
            if (pApartId[ix]<0){ swap(i1, i2); }
            int* tmpOrder = new int[napart];
            tmpOrder[0] = i1; tmpOrder[1] = i2;
            unsigned int ctr=2;
            for (unsigned int ipart=0; ipart<napart; ipart++){ if (ctr<napart && pApartOrder[ipart]!=i1 && pApartOrder[ipart]!=i2){ tmpOrder[ctr] = pApartOrder[ipart]; ctr++; } }
            delete[] pApartOrder; pApartOrder = tmpOrder;
            hasZnn=true;
            break;
          }
          if (hasZll || hasZnn) break;
        }
      }
      unsigned int iout=6;
      unsigned int jout=7;
      if (useQQVVQQany){
        int qqvvqq_apartordering[2]={ -1, -1 };
        TMCFMUtils::AssociatedParticleOrdering_QQVVQQAny(
          mela_event.pMothers.at(0).first, mela_event.pMothers.at(1).first,
          pApartId[pApartOrder[0]], pApartId[pApartOrder[1]],
          qqvvqq_apartordering
          );
        if (qqvvqq_apartordering[0]==-1 || qqvvqq_apartordering[1]==-1) result=false;
        else if (qqvvqq_apartordering[0]>qqvvqq_apartordering[1]){
          swap(iout, jout);
          swap(pApartOrder[0], pApartOrder[1]);
        }
      }
      if (hasZll){
        strplabel[iout]="el";
        strplabel[jout]="ea";
      }
      else if (hasZnn){
        strplabel[iout]="nl";
        strplabel[jout]="na";
      }
      else result = false;
    }
    else if ((isWW || isZZ) && napart>=2 && (production == TVar::Lep_WH || production == TVar::Lep_WH_S || production == TVar::Lep_WH_TU)){
      spinzerohiggs_anomcoupl_.channeltoggle_stu = int(production == TVar::Lep_WH)*2 + int(production == TVar::Lep_WH_TU)*1 + int(production == TVar::Lep_WH_S)*0;
      spinzerohiggs_anomcoupl_.vvhvvtoggle_vbfvh = 1;
 
      if (process == TVar::bkgWWZZ || process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ_SMHiggs){
        string strrun = runstring_.runstring;
        if (isWW && (!hasZ1 || !hasZ2)) strrun += "_ww";
        else if (isZZ && (!hasW1 || !hasW2)) strrun += "_zz";
        sprintf(runstring_.runstring, strrun.c_str());
      }
 
      bool hasWplus=false;
      bool hasWminus=false;
      for (unsigned int ix=0; ix<napart; ix++){
        if (PDGHelpers::isAJet(pApartId[ix])) continue;
        for (unsigned int iy=ix+1; iy<napart; iy++){
          if (PDGHelpers::isAJet(pApartId[iy])) continue;
          int Vid = PDGHelpers::getCoupledVertex(pApartId[ix], pApartId[iy]);
          if (
            PDGHelpers::isAWBoson(Vid)
            &&
            (
            (PDGHelpers::isALepton(pApartId[ix]) && pApartId[ix]<0)
            ||
            (PDGHelpers::isALepton(pApartId[iy]) && pApartId[iy]<0)
            )
            ){
            int i1=ix; int i2=iy;
            if (pApartId[ix]<0){ swap(i1, i2); }
            int* tmpOrder = new int[napart];
            tmpOrder[0] = i1; tmpOrder[1] = i2;
            unsigned int ctr=2;
            for (unsigned int ipart=0; ipart<napart; ipart++){ if (ctr<napart && pApartOrder[ipart]!=i1 && pApartOrder[ipart]!=i2){ tmpOrder[ctr] = pApartOrder[ipart]; ctr++; } }
            delete[] pApartOrder; pApartOrder = tmpOrder;
            hasWplus=true;
            break;
          }
          else if (
            PDGHelpers::isAWBoson(Vid)
            &&
            (
            (PDGHelpers::isALepton(pApartId[ix]) && pApartId[ix]>0)
            ||
            (PDGHelpers::isALepton(pApartId[iy]) && pApartId[iy]>0)
            )
            ){
            int i1=ix; int i2=iy;
            if (pApartId[ix]<0){ swap(i1, i2); }
            int* tmpOrder = new int[napart];
            tmpOrder[0] = i1; tmpOrder[1] = i2;
            unsigned int ctr=2;
            for (unsigned int ipart=0; ipart<napart; ipart++){ if (ctr<napart && pApartOrder[ipart]!=i1 && pApartOrder[ipart]!=i2){ tmpOrder[ctr] = pApartOrder[ipart]; ctr++; } }
            delete[] pApartOrder; pApartOrder = tmpOrder;
            hasWminus=true;
            break;
          }
        }
        if (hasWplus || hasWminus) break;
      }
      unsigned int iout=6;
      unsigned int jout=7;
      if (useQQVVQQany){
        int qqvvqq_apartordering[2]={ -1, -1 };
        TMCFMUtils::AssociatedParticleOrdering_QQVVQQAny(
          mela_event.pMothers.at(0).first, mela_event.pMothers.at(1).first,
          pApartId[pApartOrder[0]], pApartId[pApartOrder[1]],
          qqvvqq_apartordering
          );
        if (qqvvqq_apartordering[0]==-1 || qqvvqq_apartordering[1]==-1) result=false;
        else if (qqvvqq_apartordering[0]>qqvvqq_apartordering[1]){
          swap(iout, jout);
          swap(pApartOrder[0], pApartOrder[1]);
        }
      }
      if (hasWplus){ // W+
        strplabel[iout]="nl";
        strplabel[jout]="ea";
      }
      else if (hasWminus){ // W-
        strplabel[iout]="el";
        strplabel[jout]="na";
      }
      else result = false;
    }
    else if ((isWW || isZZ) && napart>=2 && (production == TVar::Had_ZH || production == TVar::Had_ZH_S || production == TVar::Had_ZH_TU)){
      spinzerohiggs_anomcoupl_.channeltoggle_stu = int(production == TVar::Had_ZH)*2 + int(production == TVar::Had_ZH_TU)*1 + int(production == TVar::Had_ZH_S)*0;
      spinzerohiggs_anomcoupl_.vvhvvtoggle_vbfvh = 1;
 
      if (process == TVar::bkgWWZZ || process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ_SMHiggs){
        string strrun = runstring_.runstring;
        if (isWW && (!hasZ1 || !hasZ2)) strrun += "_ww";
        else if (isZZ && (!hasW1 || !hasW2)) strrun += "_zz";
        sprintf(runstring_.runstring, strrun.c_str());
      }
 
      bool hasZuu=false;
      bool hasZdd=false;
      bool hasZjj=false;
      for (unsigned int ix=0; ix<napart; ix++){
        if (!PDGHelpers::isAJet(pApartId[ix])) continue;
        for (unsigned int iy=ix+1; iy<napart; iy++){
          if (!PDGHelpers::isAJet(pApartId[iy])) continue;
          int Vid;
          if (!PDGHelpers::isAnUnknownJet(pApartId[ix]) && !PDGHelpers::isAnUnknownJet(pApartId[iy])) Vid = PDGHelpers::getCoupledVertex(pApartId[ix], pApartId[iy]);
          else Vid = 23;
          if (PDGHelpers::isAZBoson(Vid) && (PDGHelpers::isUpTypeQuark(pApartId[ix]) || PDGHelpers::isUpTypeQuark(pApartId[iy]))){
            int i1=ix; int i2=iy;
            if (pApartId[ix]<0 || pApartId[iy]>0){ swap(i1, i2); }
            int* tmpOrder = new int[napart];
            tmpOrder[0] = i1; tmpOrder[1] = i2;
            unsigned int ctr=2;
            for (unsigned int ipart=0; ipart<napart; ipart++){ if (ctr<napart && pApartOrder[ipart]!=i1 && pApartOrder[ipart]!=i2){ tmpOrder[ctr] = pApartOrder[ipart]; ctr++; } }
            delete[] pApartOrder; pApartOrder = tmpOrder;
            hasZuu=true;
            break;
          }
          else if (PDGHelpers::isAZBoson(Vid) && (PDGHelpers::isDownTypeQuark(pApartId[ix]) || PDGHelpers::isDownTypeQuark(pApartId[iy]))){
            int i1=ix; int i2=iy;
            if (pApartId[ix]<0 || pApartId[iy]>0){ swap(i1, i2); }
            int* tmpOrder = new int[napart];
            tmpOrder[0] = i1; tmpOrder[1] = i2;
            unsigned int ctr=2;
            for (unsigned int ipart=0; ipart<napart; ipart++){ if (ctr<napart && pApartOrder[ipart]!=i1 && pApartOrder[ipart]!=i2){ tmpOrder[ctr] = pApartOrder[ipart]; ctr++; } }
            delete[] pApartOrder; pApartOrder = tmpOrder;
            hasZdd=true;
            break;
          }
          else if (PDGHelpers::isAZBoson(Vid)){
            int i1=ix; int i2=iy;
            int* tmpOrder = new int[napart];
            tmpOrder[0] = i1; tmpOrder[1] = i2;
            unsigned int ctr=2;
            for (unsigned int ipart=0; ipart<napart; ipart++){ if (ctr<napart && pApartOrder[ipart]!=i1 && pApartOrder[ipart]!=i2){ tmpOrder[ctr] = pApartOrder[ipart]; ctr++; } }
            delete[] pApartOrder; pApartOrder = tmpOrder;
            hasZjj=true;
            break;
          }
          if (hasZuu || hasZdd || hasZjj) break;
        }
      }
      if (useQQVVQQany){
        int qqvvqq_apartordering[2]={ -1, -1 };
        TMCFMUtils::AssociatedParticleOrdering_QQVVQQAny(
          mela_event.pMothers.at(0).first, mela_event.pMothers.at(1).first,
          pApartId[pApartOrder[0]], pApartId[pApartOrder[1]],
          qqvvqq_apartordering
          );
        if (qqvvqq_apartordering[0]==-1 || qqvvqq_apartordering[1]==-1) result=false;
        else if (qqvvqq_apartordering[0]>qqvvqq_apartordering[1]) swap(pApartOrder[0], pApartOrder[1]);
      }
      if (hasZuu || hasZdd){
        strplabel[6]=TUtil::GetMCFMParticleLabel(pApartId[pApartOrder[0]], true, useQQVVQQany);
        strplabel[7]=TUtil::GetMCFMParticleLabel(pApartId[pApartOrder[1]], true, useQQVVQQany);
      }
      else if (hasZjj){
        strplabel[6]="qj";
        strplabel[7]="qj";
      }
      else result = false;
    }
    else if ((isWW || isZZ) && napart>=2 && (production == TVar::Had_WH || production == TVar::Had_WH_S || production == TVar::Had_WH_TU)){
      spinzerohiggs_anomcoupl_.channeltoggle_stu = int(production == TVar::Had_WH)*2 + int(production == TVar::Had_WH_TU)*1 + int(production == TVar::Had_WH_S)*0;
      spinzerohiggs_anomcoupl_.vvhvvtoggle_vbfvh = 1;
 
      if (process == TVar::bkgWWZZ || process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ_SMHiggs){
        string strrun = runstring_.runstring;
        if (isWW && (!hasZ1 || !hasZ2)) strrun += "_ww";
        else if (isZZ && (!hasW1 || !hasW2)) strrun += "_zz";
        sprintf(runstring_.runstring, strrun.c_str());
      }
 
      bool hasWplus=false;
      bool hasWminus=false;
      bool hasWjj=false;
      for (unsigned int ix=0; ix<napart; ix++){
        if (!PDGHelpers::isAJet(pApartId[ix])) continue;
        for (unsigned int iy=ix+1; iy<napart; iy++){
          if (!PDGHelpers::isAJet(pApartId[iy])) continue;
          int Vid;
          if (!PDGHelpers::isAnUnknownJet(pApartId[ix]) && !PDGHelpers::isAnUnknownJet(pApartId[iy])) Vid = PDGHelpers::getCoupledVertex(pApartId[ix], pApartId[iy]);
          else if (
            (PDGHelpers::isUpTypeQuark(pApartId[ix]) && pApartId[ix]<0) || (PDGHelpers::isUpTypeQuark(pApartId[iy]) && pApartId[iy]<0) ||
            (PDGHelpers::isDownTypeQuark(pApartId[ix]) && pApartId[ix]>0) || (PDGHelpers::isDownTypeQuark(pApartId[iy]) && pApartId[iy]>0)
            ) Vid=-24;
          else Vid = 24;
          if (
            PDGHelpers::isAWBoson(Vid)
            &&
            (
            ((PDGHelpers::isDownTypeQuark(pApartId[ix]) && pApartId[ix]<0) || (PDGHelpers::isUpTypeQuark(pApartId[iy]) && pApartId[iy]>0))
            ||
            ((PDGHelpers::isDownTypeQuark(pApartId[iy]) && pApartId[iy]<0) || (PDGHelpers::isUpTypeQuark(pApartId[ix]) && pApartId[ix]>0))
            )
            ){
            int i1=ix; int i2=iy;
            if (pApartId[ix]<0 || pApartId[iy]>0){ swap(i1, i2); }
            int* tmpOrder = new int[napart];
            tmpOrder[0] = i1; tmpOrder[1] = i2;
            unsigned int ctr=2;
            for (unsigned int ipart=0; ipart<napart; ipart++){ if (ctr<napart && pApartOrder[ipart]!=i1 && pApartOrder[ipart]!=i2){ tmpOrder[ctr] = pApartOrder[ipart]; ctr++; } }
            delete[] pApartOrder; pApartOrder = tmpOrder;
            hasWplus=true;
            break;
          }
          else if (
            PDGHelpers::isAWBoson(Vid)
            &&
            (
            ((PDGHelpers::isDownTypeQuark(pApartId[ix]) && pApartId[ix]>0) || (PDGHelpers::isUpTypeQuark(pApartId[iy]) && pApartId[iy]<0))
            ||
            ((PDGHelpers::isDownTypeQuark(pApartId[iy]) && pApartId[iy]>0) || (PDGHelpers::isUpTypeQuark(pApartId[ix]) && pApartId[ix]<0))
            )
            ){
            int i1=ix; int i2=iy;
            if (pApartId[ix]<0 || pApartId[iy]>0){ swap(i1, i2); }
            int* tmpOrder = new int[napart];
            tmpOrder[0] = i1; tmpOrder[1] = i2;
            unsigned int ctr=2;
            for (unsigned int ipart=0; ipart<napart; ipart++){ if (ctr<napart && pApartOrder[ipart]!=i1 && pApartOrder[ipart]!=i2){ tmpOrder[ctr] = pApartOrder[ipart]; ctr++; } }
            delete[] pApartOrder; pApartOrder = tmpOrder;
            hasWminus=true;
            break;
          }
          else if (PDGHelpers::isAWBoson(Vid)){
            int i1=ix; int i2=iy;
            int* tmpOrder = new int[napart];
            tmpOrder[0] = i1; tmpOrder[1] = i2;
            unsigned int ctr=2;
            for (unsigned int ipart=0; ipart<napart; ipart++){ if (ctr<napart && pApartOrder[ipart]!=i1 && pApartOrder[ipart]!=i2){ tmpOrder[ctr] = pApartOrder[ipart]; ctr++; } }
            delete[] pApartOrder; pApartOrder = tmpOrder;
            hasWjj=true;
            break;
          }
        }
        if (hasWplus || hasWminus || hasWjj) break;
      }
      if (useQQVVQQany){
        int qqvvqq_apartordering[2]={ -1, -1 };
        TMCFMUtils::AssociatedParticleOrdering_QQVVQQAny(
          mela_event.pMothers.at(0).first, mela_event.pMothers.at(1).first,
          pApartId[pApartOrder[0]], pApartId[pApartOrder[1]],
          qqvvqq_apartordering
          );
        if (qqvvqq_apartordering[0]==-1 || qqvvqq_apartordering[1]==-1) result=false;
        else if (qqvvqq_apartordering[0]>qqvvqq_apartordering[1]) swap(pApartOrder[0], pApartOrder[1]);
      }
      if (hasWplus || hasWminus){ // W+ or W-
        strplabel[6]=TUtil::GetMCFMParticleLabel(pApartId[pApartOrder[0]], true, useQQVVQQany);
        strplabel[7]=TUtil::GetMCFMParticleLabel(pApartId[pApartOrder[1]], true, useQQVVQQany);
      }
      else if (hasWjj){ // W+/-
        strplabel[6]="qj";
        strplabel[7]="qj";
      }
      else result = false;
    }
    else if ((isWW || isZZ) && napart>=2 && (production == TVar::JJQCD || production == TVar::JJQCD_S || production == TVar::JJQCD_TU)){
      spinzerohiggs_anomcoupl_.channeltoggle_stu = int(production == TVar::JJQCD)*2 + int(production == TVar::JJQCD_TU)*1 + int(production == TVar::JJQCD_S)*0;;
      spinzerohiggs_anomcoupl_.vvhvvtoggle_vbfvh = 2; // Doesn't matter, already JJQCD
 
      if (process == TVar::bkgWWZZ/* || process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ_SMHiggs*/){
        string strrun = runstring_.runstring;
        if (isWW && (!hasZ1 || !hasZ2)) strrun += "_ww";
        else if (isZZ && (!hasW1 || !hasW2)) strrun += "_zz";
        sprintf(runstring_.runstring, strrun.c_str());
      }
 
      if (useQQVVQQany){
        int qqvvqq_apartordering[2]={ -1, -1 };
        TMCFMUtils::AssociatedParticleOrdering_QQVVQQAny(
          mela_event.pMothers.at(0).first, mela_event.pMothers.at(1).first,
          pApartId[pApartOrder[0]], pApartId[pApartOrder[1]],
          qqvvqq_apartordering
          );
        if (qqvvqq_apartordering[0]==-1 || qqvvqq_apartordering[1]==-1) result=false;
        else if (qqvvqq_apartordering[0]>qqvvqq_apartordering[1]) swap(pApartOrder[0], pApartOrder[1]);
      }
      strplabel[6]=TUtil::GetMCFMParticleLabel(pApartId[pApartOrder[0]], false, useQQVVQQany);
      strplabel[7]=TUtil::GetMCFMParticleLabel(pApartId[pApartOrder[1]], false, useQQVVQQany);
    }
    else if ((isWW || isZZ) && napart>=2 && (production == TVar::JJVBF || production == TVar::JJVBF_S || production == TVar::JJVBF_TU)){
      spinzerohiggs_anomcoupl_.channeltoggle_stu = int(production == TVar::JJVBF)*2 + int(production == TVar::JJVBF_TU)*1 + int(production == TVar::JJVBF_S)*0;;
      spinzerohiggs_anomcoupl_.vvhvvtoggle_vbfvh = 0; // VBF-only process
 
      if (process == TVar::bkgWWZZ || process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ_SMHiggs){
        string strrun = runstring_.runstring;
        if (isWW && (!hasZ1 || !hasZ2)) strrun += "_ww";
        else if (isZZ && (!hasW1 || !hasW2)) strrun += "_zz";
        sprintf(runstring_.runstring, strrun.c_str());
      }
 
      if (useQQVVQQany){
        int qqvvqq_apartordering[2]={ -1, -1 };
        TMCFMUtils::AssociatedParticleOrdering_QQVVQQAny(
          mela_event.pMothers.at(0).first, mela_event.pMothers.at(1).first,
          pApartId[pApartOrder[0]], pApartId[pApartOrder[1]],
          qqvvqq_apartordering
          );
        if (qqvvqq_apartordering[0]==-1 || qqvvqq_apartordering[1]==-1) result=false;
        else if (qqvvqq_apartordering[0]>qqvvqq_apartordering[1]) swap(pApartOrder[0], pApartOrder[1]);
      }
      strplabel[6]=TUtil::GetMCFMParticleLabel(pApartId[pApartOrder[0]], true, useQQVVQQany);
      strplabel[7]=TUtil::GetMCFMParticleLabel(pApartId[pApartOrder[1]], true, useQQVVQQany);
    }
    else if ((isWW || isZZ) && napart>=2 && (production == TVar::JJEW || production == TVar::JJEWQCD || production == TVar::JJEW_S || production == TVar::JJEWQCD_S || production == TVar::JJEW_TU || production == TVar::JJEWQCD_TU)){
      spinzerohiggs_anomcoupl_.channeltoggle_stu = int(production == TVar::JJEWQCD || production == TVar::JJEW)*2 + int(production == TVar::JJEWQCD_TU || production == TVar::JJEW_TU)*1 + int(production == TVar::JJEWQCD_S || production == TVar::JJEW_S)*0;;
      spinzerohiggs_anomcoupl_.vvhvvtoggle_vbfvh = 2; // VBF+VH process
 
      if (process == TVar::bkgWWZZ || process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ_SMHiggs){
        string strrun = runstring_.runstring;
        if (isWW && (!hasZ1 || !hasZ2)) strrun += "_ww";
        else if (isZZ && (!hasW1 || !hasW2)) strrun += "_zz";
        sprintf(runstring_.runstring, strrun.c_str());
      }
 
      if (useQQVVQQany){
        int qqvvqq_apartordering[2]={ -1, -1 };
        TMCFMUtils::AssociatedParticleOrdering_QQVVQQAny(
          mela_event.pMothers.at(0).first, mela_event.pMothers.at(1).first,
          pApartId[pApartOrder[0]], pApartId[pApartOrder[1]],
          qqvvqq_apartordering
          );
        if (qqvvqq_apartordering[0]==-1 || qqvvqq_apartordering[1]==-1) result=false;
        else if (qqvvqq_apartordering[0]>qqvvqq_apartordering[1]) swap(pApartOrder[0], pApartOrder[1]);
      }
      strplabel[6]=TUtil::GetMCFMParticleLabel(pApartId[pApartOrder[0]], false, useQQVVQQany);
      strplabel[7]=TUtil::GetMCFMParticleLabel(pApartId[pApartOrder[1]], false, useQQVVQQany);
    }
 
    // Couplings for Z1
    if (isWW && (production == TVar::ZZINDEPENDENT || production == TVar::ZZQQB) && process == TVar::bkgWW){} // Skip this one, already handled above
    else if (hasZ1){
      if (PDGHelpers::isALepton(pId[pZOrder[0]]) && PDGHelpers::isALepton(pId[pZOrder[1]])){
        if (verbosity>=TVar::DEBUG) MELAout << "- Setting Z1->ll couplings." << endl;
 
        zcouple_.q1=-1.0;
        zcouple_.l1=zcouple_.le;
        zcouple_.r1=zcouple_.re;
 
        // Special Z1->ll cases
        if (useQQBZGAM){
          strplabel[2]="el";
          strplabel[3]="ea";
        }
        else if (useQQVVQQany){
          strplabel[2]=TUtil::GetMCFMParticleLabel(pId[pZOrder[0]], false, useQQVVQQany);
          strplabel[3]=TUtil::GetMCFMParticleLabel(pId[pZOrder[1]], false, useQQVVQQany);
        }
        else if (anomzffcouplings_.AllowAnomalousZffCouplings == 1){
          strplabel[2]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
          strplabel[3]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
        }
        // End special Z1->ll cases
      }
      else if (PDGHelpers::isANeutrino(pId[pZOrder[0]]) && PDGHelpers::isANeutrino(pId[pZOrder[1]])){
        if (verbosity>=TVar::DEBUG) MELAout << "- Setting Z1->nn couplings." << endl;
 
        zcouple_.q1=0;
        zcouple_.l1=zcouple_.ln;
        zcouple_.r1=zcouple_.rn;
 
        // Special Z1->nn cases
        if (useQQBZGAM){
          strplabel[2]="nl";
          strplabel[3]="na";
        }
        else if (useQQVVQQany){
          strplabel[2]=TUtil::GetMCFMParticleLabel(pId[pZOrder[0]], false, useQQVVQQany);
          strplabel[3]=TUtil::GetMCFMParticleLabel(pId[pZOrder[1]], false, useQQVVQQany);
        }
        else if (anomzffcouplings_.AllowAnomalousZffCouplings == 1){
          strplabel[2]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
          strplabel[3]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
        }
        // End special Z1->nn cases
      }
      else if (PDGHelpers::isAJet(pId[pZOrder[0]]) && PDGHelpers::isAJet(pId[pZOrder[1]])){
        if (verbosity>=TVar::DEBUG) MELAout << "- Setting Z1->jj couplings." << endl;
 
        nqcdjets_.nqcdjets += 2;
        int jetid=(PDGHelpers::isAnUnknownJet(pId[pZOrder[0]]) ? abs(pId[pZOrder[1]]) : abs(pId[pZOrder[0]]));
        if (!PDGHelpers::isAnUnknownJet(jetid)){
          if (jetid==6) jetid = 2;
          zcouple_.q1=ewcharge_.Q[5+jetid];
          zcouple_.l1=zcouple_.l[-1+jetid];
          zcouple_.r1=zcouple_.r[-1+jetid];
 
          // Special Z1->qq cases
          if (useQQBZGAM){
            strplabel[2]="el";// Trick MCFM, not implemented properly
            strplabel[3]="ea";
          }
          else if (useQQVVQQany){
            strplabel[2]=TUtil::GetMCFMParticleLabel(pId[pZOrder[0]], false, useQQVVQQany);
            strplabel[3]=TUtil::GetMCFMParticleLabel(pId[pZOrder[1]], false, useQQVVQQany);
          }
          else if (anomzffcouplings_.AllowAnomalousZffCouplings == 1){
            strplabel[2]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
            strplabel[3]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
          }
        }
        else{
          double gV_up = (zcouple_.l[-1+2]+zcouple_.r[-1+2])/2.;
          double gV_dn = (zcouple_.l[-1+1]+zcouple_.r[-1+1])/2.;
          double gA_up = (zcouple_.l[-1+2]-zcouple_.r[-1+2])/2.;
          double gA_dn = (zcouple_.l[-1+1]-zcouple_.r[-1+1])/2.;
          double yy_up = pow(gV_up, 2) + pow(gA_up, 2);
          double yy_dn = pow(gV_dn, 2) + pow(gA_dn, 2);
          double xx_up = gV_up*gA_up;
          double xx_dn = gV_dn*gA_dn;
          double yy = (2.*yy_up+3.*yy_dn);
          double xx = (2.*xx_up+3.*xx_dn);
          double discriminant = pow(yy, 2)-4.*pow(xx, 2);
          double gVsq = (yy+sqrt(fabs(discriminant)))/2.;
          double gAsq = pow(xx, 2)/gVsq;
          double gV=-sqrt(gVsq);
          double gA=-sqrt(gAsq);
          zcouple_.l1 = (gV+gA);
          zcouple_.r1 = (gV-gA);
          zcouple_.q1=sqrt(pow(ewcharge_.Q[5+1], 2)*3.+pow(ewcharge_.Q[5+2], 2)*2.);
 
          // Special Z1->qq cases
          if (useQQBZGAM){
            strplabel[2]="el";// Trick MCFM, not implemented properly
            strplabel[3]="ea";
          }
          else if (useQQVVQQany){
            strplabel[2]="qj";
            strplabel[3]="qj";
          }
          else if (anomzffcouplings_.AllowAnomalousZffCouplings == 1){
            strplabel[2]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
            strplabel[3]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
          }
        }
        if (!useQQVVQQany){ // colfac34_56 handles all couplings instead of this simple scaling (Reason: WW final states)
          zcouple_.l1 *= sqrt(3.);
          zcouple_.r1 *= sqrt(3.);
          zcouple_.q1 *= sqrt(3.);
        }
      } // End Z1 daughter id tests
    } // End ZZ/ZG/ZJJ Z1 couplings
    else if (useQQVVQQany){
      strplabel[2]=TUtil::GetMCFMParticleLabel(pId[pZOrder[0]], false, useQQVVQQany);
      strplabel[3]=TUtil::GetMCFMParticleLabel(pId[pZOrder[1]], false, useQQVVQQany);
    }
    else if (anomzffcouplings_.AllowAnomalousZffCouplings == 1){
      strplabel[2]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
      strplabel[3]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
    }
 
    // Couplings for Z2
    if (
      (isWW && (production == TVar::ZZINDEPENDENT || production == TVar::ZZQQB) && process == TVar::bkgWW) // Skip this one, already handled above
      ||
      (isZJJ && production == TVar::JJQCD && process == TVar::bkgZJets) // No need to handle
      ){}
    else if (hasZ2){
      if (PDGHelpers::isALepton(pId[pZOrder[2]]) && PDGHelpers::isALepton(pId[pZOrder[3]])){
        if (verbosity>=TVar::DEBUG) MELAout << "- Setting Z2->ll couplings." << endl;
        zcouple_.q2=-1.0;
        zcouple_.l2=zcouple_.le;
        zcouple_.r2=zcouple_.re;
 
        // Special Z2->ll cases
        if (useQQVVQQany){
          strplabel[4]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, useQQVVQQany);
          strplabel[5]=TUtil::GetMCFMParticleLabel(pId[pZOrder[3]], false, useQQVVQQany);
        }
        else if (anomzffcouplings_.AllowAnomalousZffCouplings == 1){
          strplabel[4]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
          strplabel[5]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
        }
        // End special Z2->ll cases
      }
      else if (PDGHelpers::isANeutrino(pId[pZOrder[2]]) && PDGHelpers::isANeutrino(pId[pZOrder[3]])){
        if (verbosity>=TVar::DEBUG) MELAout << "- Setting Z2->nn couplings." << endl;
        zcouple_.q2=0;
        zcouple_.l2=zcouple_.ln;
        zcouple_.r2=zcouple_.rn;
 
        // Special Z2->nn cases
        if (useQQVVQQany){
          strplabel[4]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, useQQVVQQany);
          strplabel[5]=TUtil::GetMCFMParticleLabel(pId[pZOrder[3]], false, useQQVVQQany);
        }
        else if (anomzffcouplings_.AllowAnomalousZffCouplings == 1){
          strplabel[4]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
          strplabel[5]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
        }
        // End special Z2->nn cases
      }
      else if (PDGHelpers::isAJet(pId[pZOrder[2]]) && PDGHelpers::isAJet(pId[pZOrder[3]])){
        if (verbosity>=TVar::DEBUG) MELAout << "- Setting Z2->jj couplings." << endl;
 
        nqcdjets_.nqcdjets += 2;
        int jetid=(PDGHelpers::isAnUnknownJet(pId[pZOrder[2]]) ? abs(pId[pZOrder[3]]) : abs(pId[pZOrder[2]]));
        if (!PDGHelpers::isAnUnknownJet(jetid)){
          if (jetid==6) jetid = 2;
          zcouple_.q2=ewcharge_.Q[5+jetid];
          zcouple_.l2=zcouple_.l[-1+jetid];
          zcouple_.r2=zcouple_.r[-1+jetid];
 
          // Special Z2->qq cases
          if (useQQVVQQany){
            strplabel[4]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, useQQVVQQany);
            strplabel[5]=TUtil::GetMCFMParticleLabel(pId[pZOrder[3]], false, useQQVVQQany);
          }
          else if (anomzffcouplings_.AllowAnomalousZffCouplings == 1){
            strplabel[4]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
            strplabel[5]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
          }
        }
        else{
          double gV_up = (zcouple_.l[-1+2]+zcouple_.r[-1+2])/2.;
          double gV_dn = (zcouple_.l[-1+1]+zcouple_.r[-1+1])/2.;
          double gA_up = (zcouple_.l[-1+2]-zcouple_.r[-1+2])/2.;
          double gA_dn = (zcouple_.l[-1+1]-zcouple_.r[-1+1])/2.;
          double yy_up = pow(gV_up, 2) + pow(gA_up, 2);
          double yy_dn = pow(gV_dn, 2) + pow(gA_dn, 2);
          double xx_up = gV_up*gA_up;
          double xx_dn = gV_dn*gA_dn;
          double yy = (2.*yy_up+3.*yy_dn);
          double xx = (2.*xx_up+3.*xx_dn);
          double discriminant = pow(yy, 2)-4.*pow(xx, 2);
          double gVsq = (yy+sqrt(fabs(discriminant)))/2.;
          double gAsq = pow(xx, 2)/gVsq;
          double gV=-sqrt(gVsq);
          double gA=-sqrt(gAsq);
          zcouple_.l2 = (gV+gA);
          zcouple_.r2 = (gV-gA);
          zcouple_.q2=sqrt(pow(ewcharge_.Q[5+1], 2)*3.+pow(ewcharge_.Q[5+2], 2)*2.);
 
          // Special Z2->qq cases
          if (useQQVVQQany){
            strplabel[4]="qj";
            strplabel[5]="qj";
          }
          else if (anomzffcouplings_.AllowAnomalousZffCouplings == 1){
            strplabel[4]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
            strplabel[5]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
          }
        }
        if (!useQQVVQQany){ // colfac34_56 handles all couplings instead of this simple scaling (Reason: WW Final states)
          zcouple_.l2 *= sqrt(3.);
          zcouple_.r2 *= sqrt(3.);
          zcouple_.q2 *= sqrt(3.);
        }
      } // End Z2 daughter id tests
    } // End ZZ Z2 couplings
    else if (useQQVVQQany){
      strplabel[4]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, useQQVVQQany);
      strplabel[5]=TUtil::GetMCFMParticleLabel(pId[pZOrder[3]], false, useQQVVQQany);
    }
    else if (anomzffcouplings_.AllowAnomalousZffCouplings == 1){
      strplabel[4]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
      strplabel[5]=TUtil::GetMCFMParticleLabel(pId[pZOrder[2]], false, false);
    }
 
  } // End check WW, ZZ, ZG etc.
 
  int* ordering=nullptr;
  if (ndau<=2){
    if (production == TVar::ZZGG){
      if (process == TVar::bkgGammaGamma){ ordering = pOrder; if (!isGG) result = false; }
    }
    else if (production == TVar::ZZINDEPENDENT || production == TVar::ZZQQB){
      if (process == TVar::bkgGammaGamma){ ordering = pZOrder; if (!isGG) result = false; }
      else if (process == TVar::bkgZGamma){ ordering = pZOrder; if (!hasZ1 || !isZG) result = false; }
    }
    else if (production == TVar::JJQCD){
      if (process == TVar::bkgZJets){ ordering = pZOrder; if (!hasZ1 || !isZJJ) result = false; }
    }
  }
  else if (ndau<=3){
    if (production == TVar::ZZINDEPENDENT || production == TVar::ZZQQB){
      if (process == TVar::bkgZGamma){ ordering = pZOrder; if (!hasZ1 || !isZG) result = false; }
    }
  }
  else{
 
    if (
      (production == TVar::ZZINDEPENDENT || production == TVar::ZZQQB)
      ||
      ((production == TVar::ZZQQB_STU || production == TVar::ZZQQB_S || production == TVar::ZZQQB_TU) && process == TVar::bkgZZ)
      ){
      // Just get the default ordering
      if (production == TVar::ZZINDEPENDENT || production == TVar::ZZQQB){
        if (process == TVar::bkgZGamma){ ordering = pZOrder; if (!hasZ1) result = false; }
        else if (process == TVar::bkgZZ){ ordering = pZOrder; if (!hasZ1 || !hasZ2) result = false; }
        else if (process == TVar::bkgWW){ ordering = pWOrder; if (!hasW1 || !hasW2) result = false; }
      }
      // bkgZZ process with S/T+U/STU separation needs ZZ ordering
      else{ ordering = pZOrder; if (!hasZ1 || !hasZ2) result = false; }
    }
    else if (production == TVar::ZZGG){
      // ggZZ/WW/VV
      // All of these require ZZ ordering since they use either ZZ ME or VV ME
      if (process == TVar::HSMHiggs || process == TVar::bkgZZ_SMHiggs || process == TVar::bkgZZ){
        ordering = pZOrder;
        if (
          !(
          (hasZ1 && hasZ2)
          ||
          (process == TVar::HSMHiggs && hasW1 && hasW2)
          )
          ) result = false;
      }
      else if (process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ_SMHiggs || process == TVar::bkgWWZZ){
        ordering = pZOrder;
        if (!hasZ1 || !hasZ2 || !hasW1 || !hasW2) result = false;
      }
      else if (process == TVar::bkgWW_SMHiggs || process == TVar::bkgWW){
        ordering = pZOrder;
        if (!hasW1 || !hasW2) result = false;
      }
    }
    else if (
      production == TVar::Had_WH || production == TVar::Had_ZH
      || production == TVar::Had_WH_S || production == TVar::Had_ZH_S
      || production == TVar::Had_WH_TU || production == TVar::Had_ZH_TU
      || production == TVar::Lep_WH || production == TVar::Lep_ZH
      || production == TVar::Lep_WH_S || production == TVar::Lep_ZH_S
      || production == TVar::Lep_WH_TU || production == TVar::Lep_ZH_TU
      || production == TVar::JJVBF || production == TVar::JJEW || production == TVar::JJEWQCD
      || production == TVar::JJVBF_S || production == TVar::JJEW_S || production == TVar::JJEWQCD_S
      || production == TVar::JJVBF_TU || production == TVar::JJEW_TU || production == TVar::JJEWQCD_TU
      || production == TVar::JJQCD || production == TVar::JJQCD_S || production == TVar::JJQCD_TU
      ){
      // Z+2 jets
      // Just get the default ordering
      if (process == TVar::bkgZJets){ ordering = pZOrder; if (!hasZ1 || !isZJJ) result = false; }
      // VBF or QCD MCFM SBI, S or B
      // All of these require ZZ ordering since they use either ZZ ME or VV ME
      else if (process == TVar::HSMHiggs || process == TVar::bkgZZ_SMHiggs || process == TVar::bkgZZ){
        ordering = pZOrder;
        if (
          !(
          (hasZ1 && hasZ2)
          ||
          (process == TVar::HSMHiggs && hasW1 && hasW2)
          )
          ) result = false;
      }
      else if (process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ_SMHiggs || process == TVar::bkgWWZZ){
        ordering = pZOrder;
        if (!hasZ1 || !hasZ2 || !hasW1 || !hasW2) result = false;
      }
      else if (process == TVar::bkgWW_SMHiggs || process == TVar::bkgWW){
        ordering = pZOrder;
        if (!hasW1 || !hasW2) result = false;
      }
    }
 
  }
 
  if (partOrder && ordering) { for (unsigned int ip=0; ip<ndau; ip++) partOrder->push_back(ordering[ip]); }
  if (apartOrder && pApartOrder) { for (unsigned int ip=0; ip<napart; ip++) apartOrder->push_back(pApartOrder[ip]); }
  for (int ip=0; ip<mxpart; ip++) sprintf((plabel_.plabel)[ip], strplabel[ip].Data());
 
  if (verbosity>=TVar::DEBUG){
    MELAout << "TUtil::MCFM_SetupParticleCouplings: Summary (result=" << (int)result << "):\n";
 
    MELAout << "\trunstring=" << runstring_.runstring << endl;
 
    if (hasZ1) MELAout << "\tProcess found a Z1." << endl;
    if (hasZ2) MELAout << "\tProcess found a Z2." << endl;
    if (hasW1) MELAout << "\tProcess found a W1." << endl;
    if (hasW2) MELAout << "\tProcess found a W2." << endl;
    MELAout << "\t(l1, l2) = (" << zcouple_.l1 << ", " << zcouple_.l2 << ")" << endl;
    MELAout << "\t(r1, r2) = (" << zcouple_.r1 << ", " << zcouple_.r2 << ")" << endl;
    MELAout << "\t(q1, q2) = (" << zcouple_.q1 << ", " << zcouple_.q2 << ")" << endl;
 
    MELAout << "\tplabels:\n";
    for (int ip=0; ip<mxpart; ip++) MELAout << "\t[" << ip << "]=" << (plabel_.plabel)[ip] << endl;
    if (partOrder){
      if (!partOrder->empty()) MELAout << "\tpartOrder[" << partOrder->size() << "]:\n";
      for (unsigned int ip=0; ip<partOrder->size(); ip++) MELAout << "\t[" << ip << "] -> " << partOrder->at(ip) << endl;
    }
    if (apartOrder){
      if (!apartOrder->empty()) MELAout << "\tapartOrder[" << apartOrder->size() << "]:\n";
      for (unsigned int ip=0; ip<apartOrder->size(); ip++) MELAout << "\t[" << ip << "] -> " << apartOrder->at(ip) << endl;
    }
  }
 
  delete[] pId;
  delete[] pWOrder;
  delete[] pZOrder;
  delete[] pOrder;
  if (pApartOrder) delete[] pApartOrder;
  if (pApartId) delete[] pApartId;
  return result;
}

MCFM_smalls()

bool TUtil::MCFM_smalls	(	double	s[][mxpart],
		int	npart
	)

Definition at line 3353 of file TUtil.cc.

                                                    {
 
  // Reject event if any s(i,j) is too small
  // cutoff is defined in technical.Dat
 
  if (
    npart == 3 &&
    (
    (-s[5-1][1-1]< cutoff_.cutoff)  //gamma p1
    || (-s[5-1][2-1]< cutoff_.cutoff)  //gamma p2
    || (-s[4-1][1-1]< cutoff_.cutoff)  //e+    p1
    || (-s[4-1][2-1]< cutoff_.cutoff)  //e-    p2
    || (-s[3-1][1-1]< cutoff_.cutoff)  //nu    p1
    || (-s[3-1][2-1]< cutoff_.cutoff)  //nu    p2
    || (+s[5-1][4-1]< cutoff_.cutoff)  //gamma e+
    || (+s[5-1][3-1]< cutoff_.cutoff)  //gamma nu
    || (+s[4-1][3-1]< cutoff_.cutoff)  //e+    nu
    )
    )
    return true;
 
  else if (
    npart == 4 &&
    (
    (-s[5-1][1-1]< cutoff_.cutoff)  //e-    p1
    || (-s[5-1][2-1]< cutoff_.cutoff)  //e-    p2
    || (-s[6-1][1-1]< cutoff_.cutoff)  //nb    p1
    || (-s[6-1][2-1]< cutoff_.cutoff)  //nb    p2
    || (+s[6-1][5-1]< cutoff_.cutoff)  //e-    nb
    )
 
    )
 
    return true;
 
  return false;
}

PrintCandidateSummary() [1/2]

void TUtil::PrintCandidateSummary

(

MELACandidate *

cand

)

Definition at line 8855 of file TUtil.cc.

                                                    {
  MELAout << "***** TUtil::PrintCandidateSummary *****" << endl;
  MELAout << "Candidate: " << cand << endl;
  if (cand) MELAout << *cand;
}

PrintCandidateSummary() [2/2]

void TUtil::PrintCandidateSummary

(

TVar::simple_event_record *

cand

)

Definition at line 8861 of file TUtil.cc.

                                                          {
  MELAout << "***** TUtil::PrintCandidateSummary (Simple Event Record) *****" << endl;
  MELAout << "Candidate: " << cand << endl;
  if (cand){
    MELAout << "\tAssociationCode: " << cand->AssociationCode << endl;
    MELAout << "\tAssociationVCompatibility: " << cand->AssociationVCompatibility << endl;
    MELAout << "\tnRequested_AssociatedJets: " << cand->nRequested_AssociatedJets << endl;
    MELAout << "\tnRequested_AssociatedLeptons: " << cand->nRequested_AssociatedLeptons << endl;
    MELAout << "\tnRequested_AssociatedPhotons: " << cand->nRequested_AssociatedPhotons << endl;
    MELAout << "\tnRequested_Tops: " << cand->nRequested_Tops << endl;
    MELAout << "\tnRequested_Antitops: " << cand->nRequested_Antitops << endl;
    MELAout << "\tHas " << cand->pMothers.size() << " mothers" << endl;
    for (unsigned int ip=0; ip<cand->pMothers.size(); ip++){
      SimpleParticle_t* part = &(cand->pMothers.at(ip));
      MELAout
        << "\t\tV" << ip << " (" << part->first << ") (X,Y,Z,T)=( "
        << part->second.X() << " , "
        << part->second.Y() << " , "
        << part->second.Z() << " , "
        << part->second.T() << " )" << endl;
    }
    MELAout << "\tHas " << cand->intermediateVid.size() << " sorted daughter Vs" << endl;
    for (unsigned int iv=0; iv<cand->intermediateVid.size(); iv++) MELAout << "\t\tV" << iv << " (" << cand->intermediateVid.at(iv) << ")" << endl;
    MELAout << "\tHas " << cand->pDaughters.size() << " daughters" << endl;
    for (unsigned int ip=0; ip<cand->pDaughters.size(); ip++){
      SimpleParticle_t* part = &(cand->pDaughters.at(ip));
      MELAout
        << "\t\tDau[" << ip << "] (" << part->first << ") (X,Y,Z,T)=( "
        << part->second.X() << " , "
        << part->second.Y() << " , "
        << part->second.Z() << " , "
        << part->second.T() << " )" << endl;
    }
    MELAout << "\tHas " << cand->pAssociated.size() << " associated particles" << endl;
    for (unsigned int ip=0; ip<cand->pAssociated.size(); ip++){
      SimpleParticle_t* part = &(cand->pAssociated.at(ip));
      MELAout
        << "\t\tAPart[" << ip << "] (" << part->first << ") (X,Y,Z,T)=( "
        << part->second.X() << " , "
        << part->second.Y() << " , "
        << part->second.Z() << " , "
        << part->second.T() << " )" << endl;
    }
    MELAout << "\tHas " << cand->pStableTops.size() << " stable tops" << endl;
    for (unsigned int ip=0; ip<cand->pStableTops.size(); ip++){
      SimpleParticle_t* part = &(cand->pStableTops.at(ip));
      MELAout
        << "\t\tAPart[" << ip << "] (" << part->first << ") (X,Y,Z,T)=( "
        << part->second.X() << " , "
        << part->second.Y() << " , "
        << part->second.Z() << " , "
        << part->second.T() << " )" << endl;
    }
    MELAout << "\tHas " << cand->pStableAntitops.size() << " stable antitops" << endl;
    for (unsigned int ip=0; ip<cand->pStableAntitops.size(); ip++){
      SimpleParticle_t* part = &(cand->pStableAntitops.at(ip));
      MELAout
        << "\t\tAPart[" << ip << "] (" << part->first << ") (X,Y,Z,T)=( "
        << part->second.X() << " , "
        << part->second.Y() << " , "
        << part->second.Z() << " , "
        << part->second.T() << " )" << endl;
    }
 
    MELAout << "\tHas " << cand->pTopDaughters.size() << " unstable tops" << endl;
    for (unsigned int ip=0; ip<cand->pTopDaughters.size(); ip++){
      MELAout << "\t\tTop[" << ip << "] daughters:" << endl;
      for (unsigned int jp=0; jp<cand->pTopDaughters.at(ip).size(); jp++){
        SimpleParticle_t* part = &(cand->pTopDaughters.at(ip).at(jp));
        MELAout
          << "\t\t- Top daughter[" << ip << jp << "] (" << part->first << ") (X,Y,Z,T)=( "
          << part->second.X() << " , "
          << part->second.Y() << " , "
          << part->second.Z() << " , "
          << part->second.T() << " )" << endl;
      }
    }
    MELAout << "\tHas " << cand->pAntitopDaughters.size() << " unstable antitops" << endl;
    for (unsigned int ip=0; ip<cand->pAntitopDaughters.size(); ip++){
      MELAout << "\t\tAntitop[" << ip << "] daughters:" << endl;
      for (unsigned int jp=0; jp<cand->pAntitopDaughters.at(ip).size(); jp++){
        SimpleParticle_t* part = &(cand->pAntitopDaughters.at(ip).at(jp));
        MELAout
          << "\t\t- Antitop daughter[" << ip << jp << "] (" << part->first << ") (X,Y,Z,T)=( "
          << part->second.X() << " , "
          << part->second.Y() << " , "
          << part->second.Z() << " , "
          << part->second.T() << " )" << endl;
      }
    }
  }
}

removeMassFromPair()

std::pair< TLorentzVector, TLorentzVector > TUtil::removeMassFromPair	(	TLorentzVector const &	jet1,
		int const &	jet1Id,
		TLorentzVector const &	jet2,
		int const &	jet2Id,
		double	m1 = 0,
		double	m2 = 0
	)

Definition at line 76 of file TUtil.cc.

   {
  TLorentzVector const nullFourVector(0, 0, 0, 0);
  TLorentzVector jet1massless(0, 0, 0, 0), jet2massless(0, 0, 0, 0);
 
  if (
    TUtil::forbidMassiveJets
    &&
    ((PDGHelpers::isAJet(jet1Id) && !PDGHelpers::isATopQuark(jet1Id)) || (PDGHelpers::isAJet(jet2Id) && !PDGHelpers::isATopQuark(jet2Id)))
    ){
    if (JetMassScheme==TVar::NoRemoval){
      jet1massless=jet1;
      jet2massless=jet2;
    }
    else if (jet1==nullFourVector || jet2==nullFourVector || jet1==jet2 || JetMassScheme==TVar::MomentumToEnergy){
      TUtil::scaleMomentumToEnergy(jet1, jet1massless, m1);
      TUtil::scaleMomentumToEnergy(jet2, jet2massless, m2);
    }
    else if (JetMassScheme==TVar::ConserveDifermionMass){
      jet1massless=jet1;
      jet2massless=jet2;
      TUtil::constrainedRemovePairMass(jet1massless, jet2massless, m1, m2);
    }
    else{
      jet1massless=jet1;
      jet2massless=jet2;
    }
  }
  else if (TUtil::forbidMassiveLeptons && (PDGHelpers::isALepton(jet1Id) || PDGHelpers::isANeutrino(jet1Id) || PDGHelpers::isALepton(jet2Id) || PDGHelpers::isANeutrino(jet2Id))){
    if (LeptonMassScheme==TVar::NoRemoval){
      jet1massless=jet1;
      jet2massless=jet2;
    }
    else if (jet1==nullFourVector || jet2==nullFourVector || jet1==jet2 || LeptonMassScheme==TVar::MomentumToEnergy){
      TUtil::scaleMomentumToEnergy(jet1, jet1massless, m1);
      TUtil::scaleMomentumToEnergy(jet2, jet2massless, m2);
    }
    else if (LeptonMassScheme==TVar::ConserveDifermionMass){
      jet1massless=jet1;
      jet2massless=jet2;
      TUtil::constrainedRemovePairMass(jet1massless, jet2massless, m1, m2);
    }
    else{
      jet1massless=jet1;
      jet2massless=jet2;
    }
  }
  else{
    jet1massless=jet1;
    jet2massless=jet2;
  }
 
  pair<TLorentzVector, TLorentzVector> result(jet1massless, jet2massless);
  return result;
}

ResetAmplitudeIncludes()

void TUtil::ResetAmplitudeIncludes

(

)

Definition at line 3412 of file TUtil.cc.

                                  {
  __modjhugenmela_MOD_resetamplitudeincludes();
}

ResonancePropagator()

double TUtil::ResonancePropagator	(	double const &	sqrts,
		TVar::ResonancePropagatorScheme	scheme
	)

Definition at line 8194 of file TUtil.cc.

                                                                                          {
  __modjhugenmela_MOD_resetmubarhgabarh();
 
  const double GeV=1./100.; // JHUGen mom. scale factor
  int isch=(int)scheme;
  double shat_jhu = pow(sqrts*GeV, 2);
  double prop = __modkinematics_MOD_getbwpropagator(&shat_jhu, &isch);
  if (scheme!=TVar::NoPropagator) prop *= pow(GeV, 4);
  return prop;
}

scaleMomentumToEnergy()

void TUtil::scaleMomentumToEnergy	(	const TLorentzVector &	massiveJet,
		TLorentzVector &	masslessJet,
		double	mass = 0
	)

Definition at line 68 of file TUtil.cc.

                                                                                                           {
  double energy, p3, newp3, ratio;
  energy = massiveJet.T();
  p3 = massiveJet.P();
  newp3 = sqrt(max(pow(energy, 2)-mass*fabs(mass), 0.));
  ratio = (p3>0. ? (newp3/p3) : 1.);
  masslessJet.SetXYZT(massiveJet.X()*ratio, massiveJet.Y()*ratio, massiveJet.Z()*ratio, energy);
}

SetAlphaS()

void TUtil::SetAlphaS	(	double &	Q_ren,
		double &	Q_fac,
		double	multiplier_ren,
		double	multiplier_fac,
		int	mynloop,
		int	mynflav,
		std::string	mypartons
	)

SetCKMElements()

void TUtil::SetCKMElements	(	double *	invckm_ud,
		double *	invckm_us,
		double *	invckm_cd,
		double *	invckm_cs,
		double *	invckm_ts,
		double *	invckm_tb,
		double *	invckm_ub = 0,
		double *	invckm_cb = 0,
		double *	invckm_td = 0
	)

Definition at line 1513 of file TUtil.cc.

                                                                                                                                                                                                   {
  __modparameters_MOD_computeckmelements(invckm_ud, invckm_us, invckm_cd, invckm_cs, invckm_ts, invckm_tb, invckm_ub, invckm_cb, invckm_td);
 
  int i, j;
  i=2; j=1;
  cabib_.Vud = __modparameters_MOD_ckmbare(&i, &j);
  i=2; j=3;
  cabib_.Vus = __modparameters_MOD_ckmbare(&i, &j);
  i=2; j=5;
  cabib_.Vub = __modparameters_MOD_ckmbare(&i, &j);
  i=4; j=1;
  cabib_.Vcd = __modparameters_MOD_ckmbare(&i, &j);
  i=4; j=3;
  cabib_.Vcs = __modparameters_MOD_ckmbare(&i, &j);
  i=4; j=5;
  cabib_.Vcb = __modparameters_MOD_ckmbare(&i, &j);
  // Do not call ckmfill_(), it is called by MCFM_chooser!
}

SetDecayWidth()

void TUtil::SetDecayWidth	(	double	inwidth,
		int	ipart
	)

Definition at line 1497 of file TUtil.cc.

                                                  {
  const int ipartabs = abs(ipart);
  // No need to recalculate couplings
  // MCFM masses
  if (ipartabs==6) { masses_mcfm_.twidth=inwidth; madMela::widths_.mdl_wt=inwidth; }
  else if (ipartabs==15) masses_mcfm_.tauwidth=inwidth;
  else if (ipartabs==23) { masses_mcfm_.zwidth=inwidth; madMela::widths_.mdl_wz=inwidth; }
  else if (ipartabs==24) { masses_mcfm_.wwidth=inwidth; madMela::widths_.mdl_ww=inwidth; }
  else if (ipartabs==25) { masses_mcfm_.hwidth=inwidth; madMela::widths_.mdl_wh=inwidth; }
 
  // JHUGen masses
  const double GeV=1./100.;
  double jinwidth = inwidth*GeV;
  int jpart = convertLHEreverse(&ipart);
  __modparameters_MOD_setdecaywidth(&jinwidth, &jpart);
}

SetEwkCouplingParameters()

void TUtil::SetEwkCouplingParameters	(	double	ext_Gf,
		double	ext_aemmz,
		double	ext_mW,
		double	ext_mZ,
		double	ext_xW,
		int	ext_ewscheme
	)

Definition at line 1388 of file TUtil.cc.

                                                                                                                                  {
  // Set JHUGen couplings
  const double GeV=1./100.;
  double ext_mZ_jhu = ext_mZ*GeV;
  double ext_mW_jhu = ext_mW*GeV;
  double ext_Gf_jhu = ext_Gf/pow(GeV, 2);
  __modjhugenmela_MOD_setewparameters(&ext_mZ_jhu, &ext_mW_jhu, &ext_Gf_jhu, &ext_aemmz, &ext_xW);
 
  // Set MCFM couplings
  if (ext_ewscheme<-1 || ext_ewscheme>3) ext_ewscheme=3;
  ewinput_.Gf_inp = ext_Gf;
  ewinput_.aemmz_inp = ext_aemmz;
  ewinput_.wmass_inp = ext_mW;
  ewinput_.zmass_inp = ext_mZ;
  ewinput_.xw_inp = ext_xW;
  ewscheme_.ewscheme = ext_ewscheme;
  coupling_();
 
  // SETTINGS TO MATCH JHUGen ME/generator:
  /*
  ewscheme_.ewscheme = 3; // Switch ewscheme to full control, default is 1
  ewinput_.Gf_inp=1.16639E-05;
  ewinput_.aemmz_inp=1./128.;
  ewinput_.wmass_inp=80.399;
  ewinput_.zmass_inp=91.1876;
  ewinput_.xw_inp=0.23119;
  */
 
  // Settings used in Run I MC, un-synchronized to JHUGen and Run II generation
  /*
  ewinput_.Gf_inp = 1.16639E-05;
  ewinput_.wmass_inp = 80.385;
  ewinput_.zmass_inp = 91.1876;
  //ewinput_.aemmz_inp = 7.81751e-3; // Not used in the compiled new default MCFM ewcheme=1
  //ewinput_.xw_inp = 0.23116864; // Not used in the compiled new default MCFM ewcheme=1
  ewinput_.aemmz_inp = 7.562468901984759e-3;
  ewinput_.xw_inp = 0.2228972225239183;
  */
 
  // INPUT SETTINGS in default MCFM generator:
  /*
  ewscheme_.ewscheme = 1;
  ewinput_.Gf_inp=1.16639E-05;
  ewinput_.wmass_inp=80.398;
  ewinput_.zmass_inp=91.1876;
  ewinput_.aemmz_inp=7.7585538055706e-3;
  ewinput_.xw_inp=0.2312;
  */
 
  // ACTUAL SETTINGS in default MCFM generator, gives the same values as above but is more explicit
  /*
  ewscheme_.ewscheme = 3;
  ewinput_.Gf_inp=1.16639E-05;
  ewinput_.wmass_inp=80.398;
  ewinput_.zmass_inp=91.1876;
  ewinput_.aemmz_inp=7.55638390728736e-3;
  ewinput_.xw_inp=0.22264585341299625;
  */
}

setJetMassScheme()

void TUtil::setJetMassScheme

(

TVar::FermionMassRemoval

scheme = TVar::ConserveDifermionMass

)

Definition at line 40 of file TUtil.cc.

{ JetMassScheme=scheme; }

SetJHUGenAZffCouplings()

void TUtil::SetJHUGenAZffCouplings	(	bool	needAZff,
		double	AZffcoupl[SIZE_AZff][2]
	)

Definition at line 4234 of file TUtil.cc.

                                                                               {
  __modparameters_MOD_computeewvariables();
  if (needAZff) __modjhugenmela_MOD_setazffcouplings(AZffcoupl);
}

SetJHUGenDistinguishWWCouplings()

void TUtil::SetJHUGenDistinguishWWCouplings

(

bool

doAllow

)

Definition at line 3408 of file TUtil.cc.

                                                       {
  int iAllow = (doAllow ? 1 : 0);
  __modjhugenmela_MOD_setdistinguishwwcouplingsflag(&iAllow);
}

SetJHUGenHiggsMassWidth()

void TUtil::SetJHUGenHiggsMassWidth	(	double	MReso,
		double	GaReso
	)

Definition at line 3402 of file TUtil.cc.

                                                              {
  const double GeV = 1./100.;
  MReso *= GeV; // GeV units in JHUGen
  GaReso *= GeV; // GeV units in JHUGen
  __modjhugenmela_MOD_sethiggsmasswidth(&MReso, &GaReso);
}

SetJHUGenSpinOneCouplings()

void TUtil::SetJHUGenSpinOneCouplings	(	double	Zqqcoupl[SIZE_ZQQ][2],
		double	Zvvcoupl[SIZE_ZVV][2]
	)

Definition at line 4227 of file TUtil.cc.

{ __modjhugenmela_MOD_setspinonecouplings(Zqqcoupl, Zvvcoupl); }

SetJHUGenSpinTwoCouplings()

void TUtil::SetJHUGenSpinTwoCouplings	(	double	Gacoupl[SIZE_GGG][2],
		double	Gvvcoupl[SIZE_GVV][2],
		double	Gvvpcoupl[SIZE_GVV][2],
		double	Gvpvpcoupl[SIZE_GVV][2],
		double	qLeftRightcoupl[SIZE_GQQ][2]
	)

Definition at line 4228 of file TUtil.cc.

                                                                                                                                                                                                  {
  __modjhugenmela_MOD_setspintwocouplings(Gacoupl, Gvvcoupl, Gvvpcoupl, Gvpvpcoupl, qLeftRightcoupl);
}

SetJHUGenSpinZeroGGCouplings()

void TUtil::SetJHUGenSpinZeroGGCouplings

(

double

Hggcoupl[SIZE_HGG][2]

)

Definition at line 4225 of file TUtil.cc.

{ __modjhugenmela_MOD_setspinzeroggcouplings(Hggcoupl); }

SetJHUGenSpinZeroQQCouplings()

void TUtil::SetJHUGenSpinZeroQQCouplings

(

double

Hqqcoupl[SIZE_HQQ][2]

)

Definition at line 4226 of file TUtil.cc.

{ __modjhugenmela_MOD_setspinzeroqqcouplings(Hqqcoupl); }

SetJHUGenSpinZeroVVCouplings()

void TUtil::SetJHUGenSpinZeroVVCouplings	(	double	Hvvcoupl[SIZE_HVV][2],
		double	Hvvpcoupl[SIZE_HVV][2],
		double	Hvpvpcoupl[SIZE_HVV][2],
		int	Hvvcoupl_cqsq[SIZE_HVV_CQSQ],
		double	HvvLambda_qsq[SIZE_HVV_LAMBDAQSQ][SIZE_HVV_CQSQ],
		bool	useWWcoupl
	)

Definition at line 4219 of file TUtil.cc.

                                                                                                                                                                                                                                               {
  const double GeV = 1./100.;
  int iWWcoupl = (useWWcoupl ? 1 : 0);
  for (int c=0; c<SIZE_HVV_LAMBDAQSQ; c++){ for (int k=0; k<SIZE_HVV_CQSQ; k++) HvvLambda_qsq[c][k] *= GeV; } // GeV units in JHUGen
  __modjhugenmela_MOD_setspinzerovvcouplings(Hvvcoupl, Hvvpcoupl, Hvpvpcoupl, Hvvcoupl_cqsq, HvvLambda_qsq, &iWWcoupl);
}

SetJHUGenVprimeContactCouplings()

void TUtil::SetJHUGenVprimeContactCouplings	(	double	Zpffcoupl[SIZE_Vpff][2],
		double	Wpffcoupl[SIZE_Vpff][2]
	)

Definition at line 4231 of file TUtil.cc.

                                                                                                         {
  __modjhugenmela_MOD_setvprimecontactcouplings(Zpffcoupl, Wpffcoupl);
}

setLeptonMassScheme()

void TUtil::setLeptonMassScheme

(

TVar::FermionMassRemoval

scheme = TVar::ConserveDifermionMass

)

Definition at line 39 of file TUtil.cc.

{ LeptonMassScheme=scheme; }

SetMadgraphCKMElements()

void TUtil::SetMadgraphCKMElements	(	double	ckmlambda = 0.2265,
		double	ckma = 0.79,
		double	ckmrho = 0.141,
		double	ckmeta = 0
	)

Definition at line 1531 of file TUtil.cc.

                                                                                             {
  madMela::params_r_.mdl_ckmlambda = ckmlambda;
  madMela::params_r_.mdl_ckma = ckma;
  madMela::params_r_.mdl_ckmrho = ckmrho;
  madMela::params_r_.mdl_ckmeta = ckmeta;
}

SetMadgraphSpinZeroCouplings()

void TUtil::SetMadgraphSpinZeroCouplings

(

SpinZeroCouplings const *

Hcouplings

)

Definition at line 3415 of file TUtil.cc.

                                                                           {
  madMela::setDefaultMadgraphValues();//reset couplings
  madMela::params_r_.mdl_ch = Hcouplings->SMEFTSimcoupl[gMDL_ch];
  madMela::params_r_.mdl_chbox = Hcouplings->SMEFTSimcoupl[gMDL_chbox];
  madMela::params_r_.mdl_chdd = Hcouplings->SMEFTSimcoupl[gMDL_chdd];
  madMela::params_r_.mdl_chg = Hcouplings->SMEFTSimcoupl[gMDL_chg];
  madMela::params_r_.mdl_chw = Hcouplings->SMEFTSimcoupl[gMDL_chw];
  madMela::params_r_.mdl_chb = Hcouplings->SMEFTSimcoupl[gMDL_chb];
  madMela::params_r_.mdl_chwb = Hcouplings->SMEFTSimcoupl[gMDL_chwb];
  madMela::params_r_.mdl_cehre = Hcouplings->SMEFTSimcoupl[gMDL_cehre];
  madMela::params_r_.mdl_cuhre = Hcouplings->SMEFTSimcoupl[gMDL_cuhre];
  madMela::params_r_.mdl_cdhre = Hcouplings->SMEFTSimcoupl[gMDL_cdhre];
  madMela::params_r_.mdl_cewre = Hcouplings->SMEFTSimcoupl[gMDL_cewre];
  madMela::params_r_.mdl_cebre = Hcouplings->SMEFTSimcoupl[gMDL_cebre];
  madMela::params_r_.mdl_cugre = Hcouplings->SMEFTSimcoupl[gMDL_cugre];
  madMela::params_r_.mdl_cuwre = Hcouplings->SMEFTSimcoupl[gMDL_cuwre];
  madMela::params_r_.mdl_cubre = Hcouplings->SMEFTSimcoupl[gMDL_cubre];
  madMela::params_r_.mdl_cdgre = Hcouplings->SMEFTSimcoupl[gMDL_cdgre];
  madMela::params_r_.mdl_cdwre = Hcouplings->SMEFTSimcoupl[gMDL_cdwre];
  madMela::params_r_.mdl_cdbre = Hcouplings->SMEFTSimcoupl[gMDL_cdbre];
  madMela::params_r_.mdl_chl1 = Hcouplings->SMEFTSimcoupl[gMDL_chl1];
  madMela::params_r_.mdl_chl3 = Hcouplings->SMEFTSimcoupl[gMDL_chl3];
  madMela::params_r_.mdl_che = Hcouplings->SMEFTSimcoupl[gMDL_che];
  madMela::params_r_.mdl_chq1 = Hcouplings->SMEFTSimcoupl[gMDL_chq1];
  madMela::params_r_.mdl_chq3 = Hcouplings->SMEFTSimcoupl[gMDL_chq3];
  madMela::params_r_.mdl_chu = Hcouplings->SMEFTSimcoupl[gMDL_chu];
  madMela::params_r_.mdl_chd = Hcouplings->SMEFTSimcoupl[gMDL_chd];
  madMela::params_r_.mdl_chudre = Hcouplings->SMEFTSimcoupl[gMDL_chudre];
  madMela::params_r_.mdl_cll = Hcouplings->SMEFTSimcoupl[gMDL_cll];
  madMela::params_r_.mdl_cll1 = Hcouplings->SMEFTSimcoupl[gMDL_cll1];
  madMela::params_r_.mdl_cqq1 = Hcouplings->SMEFTSimcoupl[gMDL_cqq1];
  madMela::params_r_.mdl_cqq11 = Hcouplings->SMEFTSimcoupl[gMDL_cqq11];
  madMela::params_r_.mdl_cqq3 = Hcouplings->SMEFTSimcoupl[gMDL_cqq3];
  madMela::params_r_.mdl_cqq31 = Hcouplings->SMEFTSimcoupl[gMDL_cqq31];
  madMela::params_r_.mdl_clq1 = Hcouplings->SMEFTSimcoupl[gMDL_clq1];
  madMela::params_r_.mdl_clq3 = Hcouplings->SMEFTSimcoupl[gMDL_clq3];
  madMela::params_r_.mdl_cee = Hcouplings->SMEFTSimcoupl[gMDL_cee];
  madMela::params_r_.mdl_cuu = Hcouplings->SMEFTSimcoupl[gMDL_cuu];
  madMela::params_r_.mdl_cuu1 = Hcouplings->SMEFTSimcoupl[gMDL_cuu1];
  madMela::params_r_.mdl_cdd = Hcouplings->SMEFTSimcoupl[gMDL_cdd];
  madMela::params_r_.mdl_cdd1 = Hcouplings->SMEFTSimcoupl[gMDL_cdd1];
  madMela::params_r_.mdl_ceu = Hcouplings->SMEFTSimcoupl[gMDL_ceu];
  madMela::params_r_.mdl_ced = Hcouplings->SMEFTSimcoupl[gMDL_ced];
  madMela::params_r_.mdl_cud1 = Hcouplings->SMEFTSimcoupl[gMDL_cud1];
  madMela::params_r_.mdl_cud8 = Hcouplings->SMEFTSimcoupl[gMDL_cud8];
  madMela::params_r_.mdl_cle = Hcouplings->SMEFTSimcoupl[gMDL_cle];
  madMela::params_r_.mdl_clu = Hcouplings->SMEFTSimcoupl[gMDL_clu];
  madMela::params_r_.mdl_cld = Hcouplings->SMEFTSimcoupl[gMDL_cld];
  madMela::params_r_.mdl_cqe = Hcouplings->SMEFTSimcoupl[gMDL_cqe];
  madMela::params_r_.mdl_cqu1 = Hcouplings->SMEFTSimcoupl[gMDL_cqu1];
  madMela::params_r_.mdl_cqu8 = Hcouplings->SMEFTSimcoupl[gMDL_cqu8];
  madMela::params_r_.mdl_cqd1 = Hcouplings->SMEFTSimcoupl[gMDL_cqd1];
  madMela::params_r_.mdl_cqd8 = Hcouplings->SMEFTSimcoupl[gMDL_cqd8];
  madMela::params_r_.mdl_cledqre = Hcouplings->SMEFTSimcoupl[gMDL_cledqre];
  madMela::params_r_.mdl_cquqd1re = Hcouplings->SMEFTSimcoupl[gMDL_cquqd1re];
  madMela::params_r_.mdl_cquqd11re = Hcouplings->SMEFTSimcoupl[gMDL_cquqd11re];
  madMela::params_r_.mdl_cquqd8re = Hcouplings->SMEFTSimcoupl[gMDL_cquqd8re];
  madMela::params_r_.mdl_cquqd81re = Hcouplings->SMEFTSimcoupl[gMDL_cquqd81re];
  madMela::params_r_.mdl_clequ1re = Hcouplings->SMEFTSimcoupl[gMDL_clequ1re];
  madMela::params_r_.mdl_clequ3re = Hcouplings->SMEFTSimcoupl[gMDL_clequ3re];
  madMela::params_r_.mdl_cgtil = Hcouplings->SMEFTSimcoupl[gMDL_cgtil];
  madMela::params_r_.mdl_cwtil = Hcouplings->SMEFTSimcoupl[gMDL_cwtil];
  madMela::params_r_.mdl_chgtil = Hcouplings->SMEFTSimcoupl[gMDL_chgtil];
  madMela::params_r_.mdl_chwtil = Hcouplings->SMEFTSimcoupl[gMDL_chwtil];
  madMela::params_r_.mdl_chbtil = Hcouplings->SMEFTSimcoupl[gMDL_chbtil];
  madMela::params_r_.mdl_chwbtil = Hcouplings->SMEFTSimcoupl[gMDL_chwbtil];
  madMela::params_r_.mdl_cewim = Hcouplings->SMEFTSimcoupl[gMDL_cewim];
  madMela::params_r_.mdl_cebim = Hcouplings->SMEFTSimcoupl[gMDL_cebim];
  madMela::params_r_.mdl_cugim = Hcouplings->SMEFTSimcoupl[gMDL_cugim];
  madMela::params_r_.mdl_cuwim = Hcouplings->SMEFTSimcoupl[gMDL_cuwim];
  madMela::params_r_.mdl_cubim = Hcouplings->SMEFTSimcoupl[gMDL_cubim];
  madMela::params_r_.mdl_cdgim = Hcouplings->SMEFTSimcoupl[gMDL_cdgim];
  madMela::params_r_.mdl_cdwim = Hcouplings->SMEFTSimcoupl[gMDL_cdwim];
  madMela::params_r_.mdl_cdbim = Hcouplings->SMEFTSimcoupl[gMDL_cdbim];
  madMela::params_r_.mdl_chudim = Hcouplings->SMEFTSimcoupl[gMDL_chudim];
  madMela::params_r_.mdl_cehim = Hcouplings->SMEFTSimcoupl[gMDL_cehim];
  madMela::params_r_.mdl_cuhim = Hcouplings->SMEFTSimcoupl[gMDL_cuhim];
  madMela::params_r_.mdl_cdhim = Hcouplings->SMEFTSimcoupl[gMDL_cdhim];
  madMela::params_r_.mdl_cledqim = Hcouplings->SMEFTSimcoupl[gMDL_cledqim];
  madMela::params_r_.mdl_cquqd1im = Hcouplings->SMEFTSimcoupl[gMDL_cquqd1im];
  madMela::params_r_.mdl_cquqd8im = Hcouplings->SMEFTSimcoupl[gMDL_cquqd8im];
  madMela::params_r_.mdl_cquqd11im = Hcouplings->SMEFTSimcoupl[gMDL_cquqd11im];
  madMela::params_r_.mdl_cquqd81im = Hcouplings->SMEFTSimcoupl[gMDL_cquqd81im];
  madMela::params_r_.mdl_clequ1im = Hcouplings->SMEFTSimcoupl[gMDL_clequ1im];
  madMela::params_r_.mdl_clequ3im = Hcouplings->SMEFTSimcoupl[gMDL_clequ3im];
}

SetMass()

void TUtil::SetMass	(	double	inmass,
		int	ipart
	)

Definition at line 1447 of file TUtil.cc.

                                           {
  const int ipartabs = abs(ipart);
  bool runcoupling_mcfm=false;
  bool runcoupling_jhugen=false;
 
  // MCFM masses
  // Tprime and bprime masses are not defined in masses.f
  if (ipartabs==8) spinzerohiggs_anomcoupl_.mt_4gen = inmass;
  else if (ipartabs==7) spinzerohiggs_anomcoupl_.mb_4gen = inmass;
  else if (ipartabs==6){ masses_mcfm_.mt=inmass; runcoupling_mcfm=true; madMela::mad_masses_.mdl_mt=inmass; madMela::params_r_.mdl_ymt=inmass; }
  else if (ipartabs==5){ masses_mcfm_.mb=inmass; masses_mcfm_.mbsq = pow(masses_mcfm_.mb, 2); runcoupling_mcfm=true; madMela::mad_masses_.mdl_mb=inmass; madMela::params_r_.mdl_ymb=inmass; }
  else if (ipartabs==4){ masses_mcfm_.mc=inmass; masses_mcfm_.mcsq = pow(masses_mcfm_.mc, 2); runcoupling_mcfm=true; madMela::mad_masses_.mdl_mc=inmass; madMela::params_r_.mdl_ymc=inmass; }
  else if (ipartabs==3){ masses_mcfm_.ms=inmass; madMela::mad_masses_.mdl_ms=inmass; madMela::params_r_.mdl_yms=inmass; }
  else if (ipartabs==2){ masses_mcfm_.mu=inmass; madMela::mad_masses_.mdl_mu=inmass; madMela::params_r_.mdl_ymup=inmass; }
  else if (ipartabs==1){ masses_mcfm_.md=inmass; madMela::mad_masses_.mdl_md=inmass; madMela::params_r_.mdl_ymdo=inmass; }
  else if (ipartabs==11){ masses_mcfm_.mel=inmass; madMela::mad_masses_.mdl_me=inmass; madMela::params_r_.mdl_yme=inmass; }
  else if (ipartabs==13){ masses_mcfm_.mmu=inmass; madMela::mad_masses_.mdl_mmu=inmass; madMela::params_r_.mdl_ymm=inmass; }
  else if (ipartabs==15){ masses_mcfm_.mtau=inmass; masses_mcfm_.mtausq = pow(masses_mcfm_.mtau, 2); madMela::mad_masses_.mdl_mta=inmass; madMela::params_r_.mdl_ymtau=inmass; }
  else if (ipartabs==23){ masses_mcfm_.zmass=inmass; ewinput_.zmass_inp = inmass; runcoupling_mcfm=true; madMela::mad_masses_.mdl_mz=inmass; }
  else if (ipartabs==24){ masses_mcfm_.wmass=inmass; ewinput_.wmass_inp = inmass; runcoupling_mcfm=true; madMela::mad_masses_.mdl_mw=inmass; }
  else if (ipartabs==25){ masses_mcfm_.hmass=inmass; madMela::mad_masses_.mdl_mh=inmass; }
 
  // JHUGen masses
  if (
    ipartabs<=6
    ||
    (ipartabs>=11 && ipartabs<=16)
    ||
    ipartabs==23 || ipartabs==24 || ipartabs==25
    ||
    ipartabs==32 || ipartabs==34
    ){
    runcoupling_jhugen=(
      ipartabs==23
      ||
      ipartabs==24
      );
    const double GeV=1./100.;
    double jinmass = inmass*GeV;
    int jpart = convertLHEreverse(&ipart);
    __modparameters_MOD_setmass(&jinmass, &jpart);
  }
 
  // Recalculate couplings
  if (runcoupling_mcfm || runcoupling_jhugen){
    SetEwkCouplingParameters(ewcouple_.Gf, em_.aemmz, masses_mcfm_.wmass, masses_mcfm_.zmass, ewcouple_.xw, ewscheme_.ewscheme);
    madMela::params_r_.mdl_gf = ewcouple_.Gf;
    madMela::params_r_.as = qcdcouple_.as;
  }
}

SetMCFMaTQGCCouplings()

void TUtil::SetMCFMaTQGCCouplings	(	bool	useBSM,
		aTQGCCouplings const *	couplings
	)

Definition at line 4134 of file TUtil.cc.

                                                                             {
  if (!useBSM){
    for (int im=0; im<2; im++){
      if (im==0){
        spinzerohiggs_anomcoupl_.dV_A[im] = 1;
        spinzerohiggs_anomcoupl_.dP_A[im] = 1;
        spinzerohiggs_anomcoupl_.dM_A[im] = 1;
 
        spinzerohiggs_anomcoupl_.dV_Z[im] = 1;
        spinzerohiggs_anomcoupl_.dP_Z[im] = 1;
        spinzerohiggs_anomcoupl_.dM_Z[im] = 1;
 
        spinzerohiggs_anomcoupl_.dZZWpWm[im] = 1;
        spinzerohiggs_anomcoupl_.dZAWpWm[im] = 1;
        spinzerohiggs_anomcoupl_.dAAWpWm[im] = 1;
      }
      else{
        spinzerohiggs_anomcoupl_.dV_A[im] = 0;
        spinzerohiggs_anomcoupl_.dP_A[im] = 0;
        spinzerohiggs_anomcoupl_.dM_A[im] = 0;
 
        spinzerohiggs_anomcoupl_.dV_Z[im] = 0;
        spinzerohiggs_anomcoupl_.dP_Z[im] = 0;
        spinzerohiggs_anomcoupl_.dM_Z[im] = 0;
 
        spinzerohiggs_anomcoupl_.dZZWpWm[im] = 0;
        spinzerohiggs_anomcoupl_.dZAWpWm[im] = 0;
        spinzerohiggs_anomcoupl_.dAAWpWm[im] = 0;
      }
      spinzerohiggs_anomcoupl_.dFour_A[im] = 0;
      spinzerohiggs_anomcoupl_.dFour_Z[im] = 0;
    }
  }
  else{
    for (int im=0; im<2; im++){
      spinzerohiggs_anomcoupl_.dV_A[im] = (couplings->aTQGCcoupl)[gATQGC_dVA][im];
      spinzerohiggs_anomcoupl_.dP_A[im] = (couplings->aTQGCcoupl)[gATQGC_dPA][im];
      spinzerohiggs_anomcoupl_.dM_A[im] = (couplings->aTQGCcoupl)[gATQGC_dMA][im];
      spinzerohiggs_anomcoupl_.dFour_A[im] = (couplings->aTQGCcoupl)[gATQGC_dFourA][im];
 
      spinzerohiggs_anomcoupl_.dV_Z[im] = (couplings->aTQGCcoupl)[gATQGC_dVZ][im];
      spinzerohiggs_anomcoupl_.dP_Z[im] = (couplings->aTQGCcoupl)[gATQGC_dPZ][im];
      spinzerohiggs_anomcoupl_.dM_Z[im] = (couplings->aTQGCcoupl)[gATQGC_dMZ][im];
      spinzerohiggs_anomcoupl_.dFour_Z[im] = (couplings->aTQGCcoupl)[gATQGC_dFourZ][im];
 
      spinzerohiggs_anomcoupl_.dAAWpWm[im] = (couplings->aTQGCcoupl)[gATQGC_dAAWpWm][im];
      spinzerohiggs_anomcoupl_.dZAWpWm[im] = (couplings->aTQGCcoupl)[gATQGC_dZAWpWm][im];
      spinzerohiggs_anomcoupl_.dZZWpWm[im] = (couplings->aTQGCcoupl)[gATQGC_dZZWpWm][im];
    }
  }
}

SetMCFMAZffCouplings()

void TUtil::SetMCFMAZffCouplings	(	bool	useBSM,
		AZffCouplings const *	Zcouplings
	)

Definition at line 4185 of file TUtil.cc.

                                                                            {
  if (useBSM){
    // BSM (all imaginary parts = 0 => unset, only setting the real parts)
    anomzffcouplings_.AllowAnomalousZffCouplings = 1;
    anomzffcouplings_.reZ = (Zcouplings->AZffcoupl)[gAZff_ZllRH][0];
    anomzffcouplings_.leZ = (Zcouplings->AZffcoupl)[gAZff_ZllLH][0];
    anomzffcouplings_.rquZ = (Zcouplings->AZffcoupl)[gAZff_ZuuRH][0];
    anomzffcouplings_.lquZ = (Zcouplings->AZffcoupl)[gAZff_ZuuLH][0];
    anomzffcouplings_.rqdZ = (Zcouplings->AZffcoupl)[gAZff_ZddRH][0];
    anomzffcouplings_.lqdZ = (Zcouplings->AZffcoupl)[gAZff_ZddLH][0];
    anomzffcouplings_.rnZ = (Zcouplings->AZffcoupl)[gAZff_ZnunuRH][0];
    anomzffcouplings_.lnZ = (Zcouplings->AZffcoupl)[gAZff_ZnunuLH][0];
    anomzffcouplings_.clanou = (Zcouplings->AZffcoupl)[gAZff_uZLH][0];
    anomzffcouplings_.cranou = (Zcouplings->AZffcoupl)[gAZff_uZRH][0];
    anomzffcouplings_.clanod = (Zcouplings->AZffcoupl)[gAZff_dZLH][0];
    anomzffcouplings_.cranod = (Zcouplings->AZffcoupl)[gAZff_dZRH][0];
  }
  else{
    // SM
    anomzffcouplings_.AllowAnomalousZffCouplings = 0;
    anomzffcouplings_.reZ = 0;
    anomzffcouplings_.leZ = 0;
    anomzffcouplings_.rquZ = 0;
    anomzffcouplings_.lquZ = 0;
    anomzffcouplings_.rqdZ = 0;
    anomzffcouplings_.lqdZ = 0;
    anomzffcouplings_.rnZ = 0;
    anomzffcouplings_.lnZ = 0;
    anomzffcouplings_.clanou = 0;
    anomzffcouplings_.cranou = 0;
    anomzffcouplings_.clanod = 0;
    anomzffcouplings_.cranod = 0;
  }
}

SetMCFMSpinZeroCouplings()

void TUtil::SetMCFMSpinZeroCouplings	(	bool	useBSM,
		SpinZeroCouplings const *	Hcouplings,
		bool	forceZZ
	)

Definition at line 3501 of file TUtil.cc.

                                                                                                  {
  if (!useBSM){
    spinzerohiggs_anomcoupl_.AllowAnomalousCouplings = 0;
    spinzerohiggs_anomcoupl_.distinguish_HWWcouplings = 0;
 
    /***** REGULAR RESONANCE *****/
    //
    spinzerohiggs_anomcoupl_.cz_q1sq = 0;
    spinzerohiggs_anomcoupl_.Lambda_z11 = 100;
    spinzerohiggs_anomcoupl_.Lambda_z21 = 100;
    spinzerohiggs_anomcoupl_.Lambda_z31 = 100;
    spinzerohiggs_anomcoupl_.Lambda_z41 = 100;
    spinzerohiggs_anomcoupl_.cz_q2sq = 0;
    spinzerohiggs_anomcoupl_.Lambda_z12 = 100;
    spinzerohiggs_anomcoupl_.Lambda_z22 = 100;
    spinzerohiggs_anomcoupl_.Lambda_z32 = 100;
    spinzerohiggs_anomcoupl_.Lambda_z42 = 100;
    spinzerohiggs_anomcoupl_.cz_q12sq = 0;
    spinzerohiggs_anomcoupl_.Lambda_z10 = 100;
    spinzerohiggs_anomcoupl_.Lambda_z20 = 100;
    spinzerohiggs_anomcoupl_.Lambda_z30 = 100;
    spinzerohiggs_anomcoupl_.Lambda_z40 = 100;
    //
    spinzerohiggs_anomcoupl_.cw_q1sq = 0;
    spinzerohiggs_anomcoupl_.Lambda_w11 = 100;
    spinzerohiggs_anomcoupl_.Lambda_w21 = 100;
    spinzerohiggs_anomcoupl_.Lambda_w31 = 100;
    spinzerohiggs_anomcoupl_.Lambda_w41 = 100;
    spinzerohiggs_anomcoupl_.cw_q2sq = 0;
    spinzerohiggs_anomcoupl_.Lambda_w12 = 100;
    spinzerohiggs_anomcoupl_.Lambda_w22 = 100;
    spinzerohiggs_anomcoupl_.Lambda_w32 = 100;
    spinzerohiggs_anomcoupl_.Lambda_w42 = 100;
    spinzerohiggs_anomcoupl_.cw_q12sq = 0;
    spinzerohiggs_anomcoupl_.Lambda_w10 = 100;
    spinzerohiggs_anomcoupl_.Lambda_w20 = 100;
    spinzerohiggs_anomcoupl_.Lambda_w30 = 100;
    spinzerohiggs_anomcoupl_.Lambda_w40 = 100;
    //
    // Just in case, not really needed to set to the default value
    spinzerohiggs_anomcoupl_.kappa_top[0] = 1; spinzerohiggs_anomcoupl_.kappa_top[1] = 0;
    spinzerohiggs_anomcoupl_.kappa_bot[0] = 1; spinzerohiggs_anomcoupl_.kappa_bot[1] = 0;
    spinzerohiggs_anomcoupl_.ghz1[0] = 1; spinzerohiggs_anomcoupl_.ghz1[1] = 0;
    spinzerohiggs_anomcoupl_.ghw1[0] = 1; spinzerohiggs_anomcoupl_.ghw1[1] = 0;
    for (int im=0; im<2; im++){
      spinzerohiggs_anomcoupl_.kappa_tilde_top[im] = 0;
      spinzerohiggs_anomcoupl_.kappa_tilde_bot[im] = 0;
      spinzerohiggs_anomcoupl_.ghg2[im] = 0;
      spinzerohiggs_anomcoupl_.ghg3[im] = 0;
      spinzerohiggs_anomcoupl_.ghg4[im] = 0;
      spinzerohiggs_anomcoupl_.kappa_4gen_top[im] = 0;
      spinzerohiggs_anomcoupl_.kappa_4gen_bot[im] = 0;
      spinzerohiggs_anomcoupl_.kappa_tilde_4gen_top[im] = 0;
      spinzerohiggs_anomcoupl_.kappa_tilde_4gen_bot[im] = 0;
      spinzerohiggs_anomcoupl_.ghg2_4gen[im] = 0;
      spinzerohiggs_anomcoupl_.ghg3_4gen[im] = 0;
      spinzerohiggs_anomcoupl_.ghg4_4gen[im] = 0;
      //
      spinzerohiggs_anomcoupl_.ghz2[im] = 0;
      spinzerohiggs_anomcoupl_.ghz3[im] = 0;
      spinzerohiggs_anomcoupl_.ghz4[im] = 0;
      spinzerohiggs_anomcoupl_.ghz1_prime[im] = 0;
      spinzerohiggs_anomcoupl_.ghz1_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.ghz1_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.ghz1_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.ghz1_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.ghz1_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.ghz1_prime7[im] = 0;
      spinzerohiggs_anomcoupl_.ghz2_prime[im] = 0;
      spinzerohiggs_anomcoupl_.ghz2_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.ghz2_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.ghz2_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.ghz2_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.ghz2_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.ghz2_prime7[im] = 0;
      spinzerohiggs_anomcoupl_.ghz3_prime[im] = 0;
      spinzerohiggs_anomcoupl_.ghz3_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.ghz3_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.ghz3_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.ghz3_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.ghz3_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.ghz3_prime7[im] = 0;
      spinzerohiggs_anomcoupl_.ghz4_prime[im] = 0;
      spinzerohiggs_anomcoupl_.ghz4_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.ghz4_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.ghz4_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.ghz4_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.ghz4_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.ghz4_prime7[im] = 0;
      //
      spinzerohiggs_anomcoupl_.ghzgs1_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.ghzgs2[im] = 0;
      spinzerohiggs_anomcoupl_.ghzgs3[im] = 0;
      spinzerohiggs_anomcoupl_.ghzgs4[im] = 0;
      spinzerohiggs_anomcoupl_.ghgsgs2[im] = 0;
      spinzerohiggs_anomcoupl_.ghgsgs3[im] = 0;
      spinzerohiggs_anomcoupl_.ghgsgs4[im] = 0;
      //
      spinzerohiggs_anomcoupl_.ghw2[im] =  0;
      spinzerohiggs_anomcoupl_.ghw3[im] =  0;
      spinzerohiggs_anomcoupl_.ghw4[im] =  0;
      spinzerohiggs_anomcoupl_.ghw1_prime[im] = 0;
      spinzerohiggs_anomcoupl_.ghw1_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.ghw1_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.ghw1_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.ghw1_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.ghw1_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.ghw1_prime7[im] = 0;
      spinzerohiggs_anomcoupl_.ghw2_prime[im] = 0;
      spinzerohiggs_anomcoupl_.ghw2_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.ghw2_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.ghw2_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.ghw2_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.ghw2_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.ghw2_prime7[im] = 0;
      spinzerohiggs_anomcoupl_.ghw3_prime[im] = 0;
      spinzerohiggs_anomcoupl_.ghw3_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.ghw3_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.ghw3_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.ghw3_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.ghw3_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.ghw3_prime7[im] = 0;
      spinzerohiggs_anomcoupl_.ghw4_prime[im] = 0;
      spinzerohiggs_anomcoupl_.ghw4_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.ghw4_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.ghw4_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.ghw4_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.ghw4_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.ghw4_prime7[im] = 0;
 
    }
    /***** END REGULAR RESONANCE *****/
    //
    /***** SECOND RESONANCE *****/
    //
    spinzerohiggs_anomcoupl_.c2z_q1sq = 0;
    spinzerohiggs_anomcoupl_.Lambda2_z11 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_z21 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_z31 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_z41 = 100;
    spinzerohiggs_anomcoupl_.c2z_q2sq = 0;
    spinzerohiggs_anomcoupl_.Lambda2_z12 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_z22 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_z32 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_z42 = 100;
    spinzerohiggs_anomcoupl_.c2z_q12sq = 0;
    spinzerohiggs_anomcoupl_.Lambda2_z10 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_z20 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_z30 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_z40 = 100;
    //
    spinzerohiggs_anomcoupl_.c2w_q1sq = 0;
    spinzerohiggs_anomcoupl_.Lambda2_w11 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_w21 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_w31 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_w41 = 100;
    spinzerohiggs_anomcoupl_.c2w_q2sq = 0;
    spinzerohiggs_anomcoupl_.Lambda2_w12 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_w22 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_w32 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_w42 = 100;
    spinzerohiggs_anomcoupl_.c2w_q12sq = 0;
    spinzerohiggs_anomcoupl_.Lambda2_w10 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_w20 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_w30 = 100;
    spinzerohiggs_anomcoupl_.Lambda2_w40 = 100;
    //
    // AllowAnomalousCouplings==0, so these are still treated as 1 when h2mass>=0
    spinzerohiggs_anomcoupl_.kappa2_top[0] = 0; spinzerohiggs_anomcoupl_.kappa2_top[1] = 0;
    spinzerohiggs_anomcoupl_.kappa2_bot[0] = 0; spinzerohiggs_anomcoupl_.kappa2_bot[1] = 0;
    spinzerohiggs_anomcoupl_.gh2z1[0] = 0; spinzerohiggs_anomcoupl_.gh2z1[1] = 0;
    spinzerohiggs_anomcoupl_.gh2w1[0] = 0; spinzerohiggs_anomcoupl_.gh2w1[1] = 0;
    for (int im=0; im<2; im++){
      spinzerohiggs_anomcoupl_.kappa2_tilde_top[im] = 0;
      spinzerohiggs_anomcoupl_.kappa2_tilde_bot[im] = 0;
      spinzerohiggs_anomcoupl_.gh2g2[im] = 0;
      spinzerohiggs_anomcoupl_.gh2g3[im] = 0;
      spinzerohiggs_anomcoupl_.gh2g4[im] = 0;
      spinzerohiggs_anomcoupl_.kappa2_4gen_top[im] = 0;
      spinzerohiggs_anomcoupl_.kappa2_4gen_bot[im] = 0;
      spinzerohiggs_anomcoupl_.kappa2_tilde_4gen_top[im] = 0;
      spinzerohiggs_anomcoupl_.kappa2_tilde_4gen_bot[im] = 0;
      spinzerohiggs_anomcoupl_.gh2g2_4gen[im] = 0;
      spinzerohiggs_anomcoupl_.gh2g3_4gen[im] = 0;
      spinzerohiggs_anomcoupl_.gh2g4_4gen[im] = 0;
      //
      spinzerohiggs_anomcoupl_.gh2z2[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z3[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z4[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z1_prime[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z1_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z1_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z1_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z1_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z1_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z1_prime7[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z2_prime[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z2_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z2_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z2_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z2_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z2_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z2_prime7[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z3_prime[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z3_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z3_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z3_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z3_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z3_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z3_prime7[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z4_prime[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z4_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z4_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z4_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z4_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z4_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.gh2z4_prime7[im] = 0;
      //
      spinzerohiggs_anomcoupl_.gh2zgs1_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.gh2zgs2[im] = 0;
      spinzerohiggs_anomcoupl_.gh2zgs3[im] = 0;
      spinzerohiggs_anomcoupl_.gh2zgs4[im] = 0;
      spinzerohiggs_anomcoupl_.gh2gsgs2[im] = 0;
      spinzerohiggs_anomcoupl_.gh2gsgs3[im] = 0;
      spinzerohiggs_anomcoupl_.gh2gsgs4[im] = 0;
      //
      spinzerohiggs_anomcoupl_.gh2w2[im] =  0;
      spinzerohiggs_anomcoupl_.gh2w3[im] =  0;
      spinzerohiggs_anomcoupl_.gh2w4[im] =  0;
      spinzerohiggs_anomcoupl_.gh2w1_prime[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w1_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w1_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w1_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w1_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w1_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w1_prime7[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w2_prime[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w2_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w2_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w2_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w2_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w2_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w2_prime7[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w3_prime[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w3_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w3_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w3_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w3_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w3_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w3_prime7[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w4_prime[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w4_prime2[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w4_prime3[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w4_prime4[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w4_prime5[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w4_prime6[im] = 0;
      spinzerohiggs_anomcoupl_.gh2w4_prime7[im] = 0;
    }
    /***** END SECOND RESONANCE *****/
  }
  else{
    spinzerohiggs_anomcoupl_.AllowAnomalousCouplings = 1;
    spinzerohiggs_anomcoupl_.distinguish_HWWcouplings = ((Hcouplings->separateWWZZcouplings && !forceZZ) ? 1 : 0);
 
    /***** REGULAR RESONANCE *****/
    //
    spinzerohiggs_anomcoupl_.cz_q1sq = (Hcouplings->HzzCLambda_qsq)[cLambdaHIGGS_VV_QSQ1];
    spinzerohiggs_anomcoupl_.Lambda_z11 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ1];
    spinzerohiggs_anomcoupl_.Lambda_z21 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ1];
    spinzerohiggs_anomcoupl_.Lambda_z31 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ1];
    spinzerohiggs_anomcoupl_.Lambda_z41 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ1];
    spinzerohiggs_anomcoupl_.cz_q2sq = (Hcouplings->HzzCLambda_qsq)[cLambdaHIGGS_VV_QSQ2];
    spinzerohiggs_anomcoupl_.Lambda_z12 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ2];
    spinzerohiggs_anomcoupl_.Lambda_z22 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ2];
    spinzerohiggs_anomcoupl_.Lambda_z32 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ2];
    spinzerohiggs_anomcoupl_.Lambda_z42 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ2];
    spinzerohiggs_anomcoupl_.cz_q12sq = (Hcouplings->HzzCLambda_qsq)[cLambdaHIGGS_VV_QSQ12];
    spinzerohiggs_anomcoupl_.Lambda_z10 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ12];
    spinzerohiggs_anomcoupl_.Lambda_z20 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ12];
    spinzerohiggs_anomcoupl_.Lambda_z30 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ12];
    spinzerohiggs_anomcoupl_.Lambda_z40 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ12];
    //
    for (int im=0; im<2; im++){
      spinzerohiggs_anomcoupl_.kappa_top[im] = (Hcouplings->Httcoupl)[gHIGGS_KAPPA][im];
      spinzerohiggs_anomcoupl_.kappa_bot[im] = (Hcouplings->Hbbcoupl)[gHIGGS_KAPPA][im];
      spinzerohiggs_anomcoupl_.kappa_tilde_top[im] = (Hcouplings->Httcoupl)[gHIGGS_KAPPA_TILDE][im];
      spinzerohiggs_anomcoupl_.kappa_tilde_bot[im] = (Hcouplings->Hbbcoupl)[gHIGGS_KAPPA_TILDE][im];
      spinzerohiggs_anomcoupl_.ghg2[im] = (Hcouplings->Hggcoupl)[gHIGGS_GG_2][im];
      spinzerohiggs_anomcoupl_.ghg3[im] = (Hcouplings->Hggcoupl)[gHIGGS_GG_3][im];
      spinzerohiggs_anomcoupl_.ghg4[im] = (Hcouplings->Hggcoupl)[gHIGGS_GG_4][im];
      spinzerohiggs_anomcoupl_.kappa_4gen_top[im] = (Hcouplings->Ht4t4coupl)[gHIGGS_KAPPA][im];
      spinzerohiggs_anomcoupl_.kappa_4gen_bot[im] = (Hcouplings->Hb4b4coupl)[gHIGGS_KAPPA][im];
      spinzerohiggs_anomcoupl_.kappa_tilde_4gen_top[im] = (Hcouplings->Ht4t4coupl)[gHIGGS_KAPPA_TILDE][im];
      spinzerohiggs_anomcoupl_.kappa_tilde_4gen_bot[im] = (Hcouplings->Hb4b4coupl)[gHIGGS_KAPPA_TILDE][im];
      spinzerohiggs_anomcoupl_.ghg2_4gen[im] = (Hcouplings->Hg4g4coupl)[gHIGGS_GG_2][im];
      spinzerohiggs_anomcoupl_.ghg3_4gen[im] = (Hcouplings->Hg4g4coupl)[gHIGGS_GG_3][im];
      spinzerohiggs_anomcoupl_.ghg4_4gen[im] = (Hcouplings->Hg4g4coupl)[gHIGGS_GG_4][im];
      //
      spinzerohiggs_anomcoupl_.ghz1[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1][im];
      spinzerohiggs_anomcoupl_.ghz2[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2][im];
      spinzerohiggs_anomcoupl_.ghz3[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3][im];
      spinzerohiggs_anomcoupl_.ghz4[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4][im];
      spinzerohiggs_anomcoupl_.ghz1_prime[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME][im];
      spinzerohiggs_anomcoupl_.ghz1_prime2[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME2][im];
      spinzerohiggs_anomcoupl_.ghz1_prime3[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME3][im];
      spinzerohiggs_anomcoupl_.ghz1_prime4[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME4][im];
      spinzerohiggs_anomcoupl_.ghz1_prime5[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME5][im];
      spinzerohiggs_anomcoupl_.ghz1_prime6[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME6][im];
      spinzerohiggs_anomcoupl_.ghz1_prime7[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME7][im];
      spinzerohiggs_anomcoupl_.ghz2_prime[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME][im];
      spinzerohiggs_anomcoupl_.ghz2_prime2[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME2][im];
      spinzerohiggs_anomcoupl_.ghz2_prime3[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME3][im];
      spinzerohiggs_anomcoupl_.ghz2_prime4[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME4][im];
      spinzerohiggs_anomcoupl_.ghz2_prime5[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME5][im];
      spinzerohiggs_anomcoupl_.ghz2_prime6[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME6][im];
      spinzerohiggs_anomcoupl_.ghz2_prime7[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME7][im];
      spinzerohiggs_anomcoupl_.ghz3_prime[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME][im];
      spinzerohiggs_anomcoupl_.ghz3_prime2[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME2][im];
      spinzerohiggs_anomcoupl_.ghz3_prime3[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME3][im];
      spinzerohiggs_anomcoupl_.ghz3_prime4[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME4][im];
      spinzerohiggs_anomcoupl_.ghz3_prime5[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME5][im];
      spinzerohiggs_anomcoupl_.ghz3_prime6[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME6][im];
      spinzerohiggs_anomcoupl_.ghz3_prime7[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME7][im];
      spinzerohiggs_anomcoupl_.ghz4_prime[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME][im];
      spinzerohiggs_anomcoupl_.ghz4_prime2[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME2][im];
      spinzerohiggs_anomcoupl_.ghz4_prime3[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME3][im];
      spinzerohiggs_anomcoupl_.ghz4_prime4[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME4][im];
      spinzerohiggs_anomcoupl_.ghz4_prime5[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME5][im];
      spinzerohiggs_anomcoupl_.ghz4_prime6[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME6][im];
      spinzerohiggs_anomcoupl_.ghz4_prime7[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME7][im];
      //
      spinzerohiggs_anomcoupl_.ghzgs1_prime2[im] = (Hcouplings->Hzzcoupl)[gHIGGS_ZA_1_PRIME2][im];
      spinzerohiggs_anomcoupl_.ghzgs2[im] = (Hcouplings->Hzzcoupl)[gHIGGS_ZA_2][im];
      spinzerohiggs_anomcoupl_.ghzgs3[im] = (Hcouplings->Hzzcoupl)[gHIGGS_ZA_3][im];
      spinzerohiggs_anomcoupl_.ghzgs4[im] = (Hcouplings->Hzzcoupl)[gHIGGS_ZA_4][im];
      spinzerohiggs_anomcoupl_.ghgsgs2[im] = (Hcouplings->Hzzcoupl)[gHIGGS_AA_2][im];
      spinzerohiggs_anomcoupl_.ghgsgs3[im] = (Hcouplings->Hzzcoupl)[gHIGGS_AA_3][im];
      spinzerohiggs_anomcoupl_.ghgsgs4[im] = (Hcouplings->Hzzcoupl)[gHIGGS_AA_4][im];
    }
    //
    if (spinzerohiggs_anomcoupl_.distinguish_HWWcouplings==1){
      //
      spinzerohiggs_anomcoupl_.cw_q1sq = (Hcouplings->HwwCLambda_qsq)[cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda_w11 = (Hcouplings->HwwLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda_w21 = (Hcouplings->HwwLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda_w31 = (Hcouplings->HwwLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda_w41 = (Hcouplings->HwwLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.cw_q2sq = (Hcouplings->HwwCLambda_qsq)[cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda_w12 = (Hcouplings->HwwLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda_w22 = (Hcouplings->HwwLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda_w32 = (Hcouplings->HwwLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda_w42 = (Hcouplings->HwwLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.cw_q12sq = (Hcouplings->HwwCLambda_qsq)[cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda_w10 = (Hcouplings->HwwLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda_w20 = (Hcouplings->HwwLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda_w30 = (Hcouplings->HwwLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda_w40 = (Hcouplings->HwwLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ12];
      //
      for (int im=0; im<2; im++){
        spinzerohiggs_anomcoupl_.ghw1[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_1][im];
        spinzerohiggs_anomcoupl_.ghw2[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_2][im];
        spinzerohiggs_anomcoupl_.ghw3[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_3][im];
        spinzerohiggs_anomcoupl_.ghw4[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_4][im];
        spinzerohiggs_anomcoupl_.ghw1_prime[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_1_PRIME][im];
        spinzerohiggs_anomcoupl_.ghw1_prime2[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_1_PRIME2][im];
        spinzerohiggs_anomcoupl_.ghw1_prime3[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_1_PRIME3][im];
        spinzerohiggs_anomcoupl_.ghw1_prime4[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_1_PRIME4][im];
        spinzerohiggs_anomcoupl_.ghw1_prime5[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_1_PRIME5][im];
        spinzerohiggs_anomcoupl_.ghw1_prime6[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_1_PRIME6][im];
        spinzerohiggs_anomcoupl_.ghw1_prime7[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_1_PRIME7][im];
        spinzerohiggs_anomcoupl_.ghw2_prime[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_2_PRIME][im];
        spinzerohiggs_anomcoupl_.ghw2_prime2[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_2_PRIME2][im];
        spinzerohiggs_anomcoupl_.ghw2_prime3[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_2_PRIME3][im];
        spinzerohiggs_anomcoupl_.ghw2_prime4[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_2_PRIME4][im];
        spinzerohiggs_anomcoupl_.ghw2_prime5[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_2_PRIME5][im];
        spinzerohiggs_anomcoupl_.ghw2_prime6[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_2_PRIME6][im];
        spinzerohiggs_anomcoupl_.ghw2_prime7[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_2_PRIME7][im];
        spinzerohiggs_anomcoupl_.ghw3_prime[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_3_PRIME][im];
        spinzerohiggs_anomcoupl_.ghw3_prime2[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_3_PRIME2][im];
        spinzerohiggs_anomcoupl_.ghw3_prime3[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_3_PRIME3][im];
        spinzerohiggs_anomcoupl_.ghw3_prime4[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_3_PRIME4][im];
        spinzerohiggs_anomcoupl_.ghw3_prime5[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_3_PRIME5][im];
        spinzerohiggs_anomcoupl_.ghw3_prime6[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_3_PRIME6][im];
        spinzerohiggs_anomcoupl_.ghw3_prime7[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_3_PRIME7][im];
        spinzerohiggs_anomcoupl_.ghw4_prime[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_4_PRIME][im];
        spinzerohiggs_anomcoupl_.ghw4_prime2[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_4_PRIME2][im];
        spinzerohiggs_anomcoupl_.ghw4_prime3[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_4_PRIME3][im];
        spinzerohiggs_anomcoupl_.ghw4_prime4[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_4_PRIME4][im];
        spinzerohiggs_anomcoupl_.ghw4_prime5[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_4_PRIME5][im];
        spinzerohiggs_anomcoupl_.ghw4_prime6[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_4_PRIME6][im];
        spinzerohiggs_anomcoupl_.ghw4_prime7[im] = (Hcouplings->Hwwcoupl)[gHIGGS_VV_4_PRIME7][im];
      }
    }
    else{
      //
      spinzerohiggs_anomcoupl_.cw_q1sq = (Hcouplings->HzzCLambda_qsq)[cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda_w11 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda_w21 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda_w31 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda_w41 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.cw_q2sq = (Hcouplings->HzzCLambda_qsq)[cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda_w12 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda_w22 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda_w32 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda_w42 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.cw_q12sq = (Hcouplings->HzzCLambda_qsq)[cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda_w10 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda_w20 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda_w30 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda_w40 = (Hcouplings->HzzLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ12];
      //
      for (int im=0; im<2; im++){
        spinzerohiggs_anomcoupl_.ghw1[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1][im];
        spinzerohiggs_anomcoupl_.ghw2[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2][im];
        spinzerohiggs_anomcoupl_.ghw3[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3][im];
        spinzerohiggs_anomcoupl_.ghw4[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4][im];
        spinzerohiggs_anomcoupl_.ghw1_prime[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME][im];
        spinzerohiggs_anomcoupl_.ghw1_prime2[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME2][im];
        spinzerohiggs_anomcoupl_.ghw1_prime3[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME3][im];
        spinzerohiggs_anomcoupl_.ghw1_prime4[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME4][im];
        spinzerohiggs_anomcoupl_.ghw1_prime5[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME5][im];
        spinzerohiggs_anomcoupl_.ghw1_prime6[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME6][im];
        spinzerohiggs_anomcoupl_.ghw1_prime7[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_1_PRIME7][im];
        spinzerohiggs_anomcoupl_.ghw2_prime[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME][im];
        spinzerohiggs_anomcoupl_.ghw2_prime2[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME2][im];
        spinzerohiggs_anomcoupl_.ghw2_prime3[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME3][im];
        spinzerohiggs_anomcoupl_.ghw2_prime4[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME4][im];
        spinzerohiggs_anomcoupl_.ghw2_prime5[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME5][im];
        spinzerohiggs_anomcoupl_.ghw2_prime6[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME6][im];
        spinzerohiggs_anomcoupl_.ghw2_prime7[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_2_PRIME7][im];
        spinzerohiggs_anomcoupl_.ghw3_prime[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME][im];
        spinzerohiggs_anomcoupl_.ghw3_prime2[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME2][im];
        spinzerohiggs_anomcoupl_.ghw3_prime3[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME3][im];
        spinzerohiggs_anomcoupl_.ghw3_prime4[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME4][im];
        spinzerohiggs_anomcoupl_.ghw3_prime5[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME5][im];
        spinzerohiggs_anomcoupl_.ghw3_prime6[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME6][im];
        spinzerohiggs_anomcoupl_.ghw3_prime7[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_3_PRIME7][im];
        spinzerohiggs_anomcoupl_.ghw4_prime[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME][im];
        spinzerohiggs_anomcoupl_.ghw4_prime2[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME2][im];
        spinzerohiggs_anomcoupl_.ghw4_prime3[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME3][im];
        spinzerohiggs_anomcoupl_.ghw4_prime4[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME4][im];
        spinzerohiggs_anomcoupl_.ghw4_prime5[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME5][im];
        spinzerohiggs_anomcoupl_.ghw4_prime6[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME6][im];
        spinzerohiggs_anomcoupl_.ghw4_prime7[im] = (Hcouplings->Hzzcoupl)[gHIGGS_VV_4_PRIME7][im];
      }
    }
    /***** END REGULAR RESONANCE *****/
    //
    /***** SECOND RESONANCE *****/
    //
    spinzerohiggs_anomcoupl_.c2z_q1sq = (Hcouplings->H2zzCLambda_qsq)[cLambdaHIGGS_VV_QSQ1];
    spinzerohiggs_anomcoupl_.Lambda2_z11 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ1];
    spinzerohiggs_anomcoupl_.Lambda2_z21 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ1];
    spinzerohiggs_anomcoupl_.Lambda2_z31 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ1];
    spinzerohiggs_anomcoupl_.Lambda2_z41 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ1];
    spinzerohiggs_anomcoupl_.c2z_q2sq = (Hcouplings->H2zzCLambda_qsq)[cLambdaHIGGS_VV_QSQ2];
    spinzerohiggs_anomcoupl_.Lambda2_z12 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ2];
    spinzerohiggs_anomcoupl_.Lambda2_z22 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ2];
    spinzerohiggs_anomcoupl_.Lambda2_z32 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ2];
    spinzerohiggs_anomcoupl_.Lambda2_z42 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ2];
    spinzerohiggs_anomcoupl_.c2z_q12sq = (Hcouplings->H2zzCLambda_qsq)[cLambdaHIGGS_VV_QSQ12];
    spinzerohiggs_anomcoupl_.Lambda2_z10 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ12];
    spinzerohiggs_anomcoupl_.Lambda2_z20 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ12];
    spinzerohiggs_anomcoupl_.Lambda2_z30 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ12];
    spinzerohiggs_anomcoupl_.Lambda2_z40 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ12];
    //
    for (int im=0; im<2; im++){
      spinzerohiggs_anomcoupl_.kappa2_top[im] = (Hcouplings->H2ttcoupl)[gHIGGS_KAPPA][im];
      spinzerohiggs_anomcoupl_.kappa2_bot[im] = (Hcouplings->H2bbcoupl)[gHIGGS_KAPPA][im];
      spinzerohiggs_anomcoupl_.kappa2_tilde_top[im] = (Hcouplings->H2ttcoupl)[gHIGGS_KAPPA_TILDE][im];
      spinzerohiggs_anomcoupl_.kappa2_tilde_bot[im] = (Hcouplings->H2bbcoupl)[gHIGGS_KAPPA_TILDE][im];
      spinzerohiggs_anomcoupl_.gh2g2[im] = (Hcouplings->H2ggcoupl)[gHIGGS_GG_2][im];
      spinzerohiggs_anomcoupl_.gh2g3[im] = (Hcouplings->H2ggcoupl)[gHIGGS_GG_3][im];
      spinzerohiggs_anomcoupl_.gh2g4[im] = (Hcouplings->H2ggcoupl)[gHIGGS_GG_4][im];
      spinzerohiggs_anomcoupl_.kappa2_4gen_top[im] = (Hcouplings->H2t4t4coupl)[gHIGGS_KAPPA][im];
      spinzerohiggs_anomcoupl_.kappa2_4gen_bot[im] = (Hcouplings->H2b4b4coupl)[gHIGGS_KAPPA][im];
      spinzerohiggs_anomcoupl_.kappa2_tilde_4gen_top[im] = (Hcouplings->H2t4t4coupl)[gHIGGS_KAPPA_TILDE][im];
      spinzerohiggs_anomcoupl_.kappa2_tilde_4gen_bot[im] = (Hcouplings->H2b4b4coupl)[gHIGGS_KAPPA_TILDE][im];
      spinzerohiggs_anomcoupl_.gh2g2_4gen[im] = (Hcouplings->H2g4g4coupl)[gHIGGS_GG_2][im];
      spinzerohiggs_anomcoupl_.gh2g3_4gen[im] = (Hcouplings->H2g4g4coupl)[gHIGGS_GG_3][im];
      spinzerohiggs_anomcoupl_.gh2g4_4gen[im] = (Hcouplings->H2g4g4coupl)[gHIGGS_GG_4][im];
      //
      spinzerohiggs_anomcoupl_.gh2z1[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1][im];
      spinzerohiggs_anomcoupl_.gh2z2[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2][im];
      spinzerohiggs_anomcoupl_.gh2z3[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3][im];
      spinzerohiggs_anomcoupl_.gh2z4[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4][im];
      spinzerohiggs_anomcoupl_.gh2z1_prime[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME][im];
      spinzerohiggs_anomcoupl_.gh2z1_prime2[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME2][im];
      spinzerohiggs_anomcoupl_.gh2z1_prime3[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME3][im];
      spinzerohiggs_anomcoupl_.gh2z1_prime4[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME4][im];
      spinzerohiggs_anomcoupl_.gh2z1_prime5[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME5][im];
      spinzerohiggs_anomcoupl_.gh2z1_prime6[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME6][im];
      spinzerohiggs_anomcoupl_.gh2z1_prime7[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME7][im];
      spinzerohiggs_anomcoupl_.gh2z2_prime[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME][im];
      spinzerohiggs_anomcoupl_.gh2z2_prime2[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME2][im];
      spinzerohiggs_anomcoupl_.gh2z2_prime3[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME3][im];
      spinzerohiggs_anomcoupl_.gh2z2_prime4[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME4][im];
      spinzerohiggs_anomcoupl_.gh2z2_prime5[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME5][im];
      spinzerohiggs_anomcoupl_.gh2z2_prime6[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME6][im];
      spinzerohiggs_anomcoupl_.gh2z2_prime7[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME7][im];
      spinzerohiggs_anomcoupl_.gh2z3_prime[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME][im];
      spinzerohiggs_anomcoupl_.gh2z3_prime2[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME2][im];
      spinzerohiggs_anomcoupl_.gh2z3_prime3[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME3][im];
      spinzerohiggs_anomcoupl_.gh2z3_prime4[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME4][im];
      spinzerohiggs_anomcoupl_.gh2z3_prime5[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME5][im];
      spinzerohiggs_anomcoupl_.gh2z3_prime6[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME6][im];
      spinzerohiggs_anomcoupl_.gh2z3_prime7[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME7][im];
      spinzerohiggs_anomcoupl_.gh2z4_prime[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME][im];
      spinzerohiggs_anomcoupl_.gh2z4_prime2[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME2][im];
      spinzerohiggs_anomcoupl_.gh2z4_prime3[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME3][im];
      spinzerohiggs_anomcoupl_.gh2z4_prime4[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME4][im];
      spinzerohiggs_anomcoupl_.gh2z4_prime5[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME5][im];
      spinzerohiggs_anomcoupl_.gh2z4_prime6[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME6][im];
      spinzerohiggs_anomcoupl_.gh2z4_prime7[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME7][im];
      //
      spinzerohiggs_anomcoupl_.gh2zgs1_prime2[im] = (Hcouplings->H2zzcoupl)[gHIGGS_ZA_1_PRIME2][im];
      spinzerohiggs_anomcoupl_.gh2zgs2[im] = (Hcouplings->H2zzcoupl)[gHIGGS_ZA_2][im];
      spinzerohiggs_anomcoupl_.gh2zgs3[im] = (Hcouplings->H2zzcoupl)[gHIGGS_ZA_3][im];
      spinzerohiggs_anomcoupl_.gh2zgs4[im] = (Hcouplings->H2zzcoupl)[gHIGGS_ZA_4][im];
      spinzerohiggs_anomcoupl_.gh2gsgs2[im] = (Hcouplings->H2zzcoupl)[gHIGGS_AA_2][im];
      spinzerohiggs_anomcoupl_.gh2gsgs3[im] = (Hcouplings->H2zzcoupl)[gHIGGS_AA_3][im];
      spinzerohiggs_anomcoupl_.gh2gsgs4[im] = (Hcouplings->H2zzcoupl)[gHIGGS_AA_4][im];
    }
    //
    if (spinzerohiggs_anomcoupl_.distinguish_HWWcouplings==1){
      //
      spinzerohiggs_anomcoupl_.c2w_q1sq = (Hcouplings->H2wwCLambda_qsq)[cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda2_w11 = (Hcouplings->H2wwLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda2_w21 = (Hcouplings->H2wwLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda2_w31 = (Hcouplings->H2wwLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda2_w41 = (Hcouplings->H2wwLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.c2w_q2sq = (Hcouplings->H2wwCLambda_qsq)[cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda2_w12 = (Hcouplings->H2wwLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda2_w22 = (Hcouplings->H2wwLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda2_w32 = (Hcouplings->H2wwLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda2_w42 = (Hcouplings->H2wwLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.c2w_q12sq = (Hcouplings->H2wwCLambda_qsq)[cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda2_w10 = (Hcouplings->H2wwLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda2_w20 = (Hcouplings->H2wwLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda2_w30 = (Hcouplings->H2wwLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda2_w40 = (Hcouplings->H2wwLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ12];
      //
      for (int im=0; im<2; im++){
        spinzerohiggs_anomcoupl_.gh2w1[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_1][im];
        spinzerohiggs_anomcoupl_.gh2w2[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_2][im];
        spinzerohiggs_anomcoupl_.gh2w3[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_3][im];
        spinzerohiggs_anomcoupl_.gh2w4[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_4][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_1_PRIME][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime2[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_1_PRIME2][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime3[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_1_PRIME3][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime4[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_1_PRIME4][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime5[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_1_PRIME5][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime6[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_1_PRIME6][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime7[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_1_PRIME7][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_2_PRIME][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime2[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_2_PRIME2][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime3[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_2_PRIME3][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime4[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_2_PRIME4][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime5[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_2_PRIME5][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime6[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_2_PRIME6][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime7[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_2_PRIME7][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_3_PRIME][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime2[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_3_PRIME2][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime3[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_3_PRIME3][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime4[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_3_PRIME4][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime5[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_3_PRIME5][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime6[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_3_PRIME6][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime7[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_3_PRIME7][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_4_PRIME][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime2[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_4_PRIME2][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime3[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_4_PRIME3][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime4[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_4_PRIME4][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime5[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_4_PRIME5][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime6[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_4_PRIME6][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime7[im] = (Hcouplings->H2wwcoupl)[gHIGGS_VV_4_PRIME7][im];
      }
    }
    else{
      //
      spinzerohiggs_anomcoupl_.c2w_q1sq = (Hcouplings->H2zzCLambda_qsq)[cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda2_w11 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda2_w21 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda2_w31 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.Lambda2_w41 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ1];
      spinzerohiggs_anomcoupl_.c2w_q2sq = (Hcouplings->H2zzCLambda_qsq)[cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda2_w12 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda2_w22 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda2_w32 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.Lambda2_w42 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ2];
      spinzerohiggs_anomcoupl_.c2w_q12sq = (Hcouplings->H2zzCLambda_qsq)[cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda2_w10 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_1][cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda2_w20 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_2][cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda2_w30 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_3][cLambdaHIGGS_VV_QSQ12];
      spinzerohiggs_anomcoupl_.Lambda2_w40 = (Hcouplings->H2zzLambda_qsq)[LambdaHIGGS_QSQ_VV_4][cLambdaHIGGS_VV_QSQ12];
      //
      for (int im=0; im<2; im++){
        spinzerohiggs_anomcoupl_.gh2w1[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1][im];
        spinzerohiggs_anomcoupl_.gh2w2[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2][im];
        spinzerohiggs_anomcoupl_.gh2w3[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3][im];
        spinzerohiggs_anomcoupl_.gh2w4[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime2[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME2][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime3[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME3][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime4[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME4][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime5[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME5][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime6[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME6][im];
        spinzerohiggs_anomcoupl_.gh2w1_prime7[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_1_PRIME7][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime2[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME2][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime3[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME3][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime4[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME4][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime5[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME5][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime6[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME6][im];
        spinzerohiggs_anomcoupl_.gh2w2_prime7[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_2_PRIME7][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime2[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME2][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime3[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME3][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime4[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME4][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime5[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME5][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime6[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME6][im];
        spinzerohiggs_anomcoupl_.gh2w3_prime7[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_3_PRIME7][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime2[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME2][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime3[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME3][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime4[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME4][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime5[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME5][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime6[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME6][im];
        spinzerohiggs_anomcoupl_.gh2w4_prime7[im] = (Hcouplings->H2zzcoupl)[gHIGGS_VV_4_PRIME7][im];
      }
    }
    /***** END SECOND RESONANCE *****/
  }
}

SumMatrixElementPDF()

double TUtil::SumMatrixElementPDF	(	const TVar::Process &	process,
		const TVar::Production &	production,
		const TVar::MatrixElement &	matrixElement,
		const TVar::LeptonInterference &	leptonInterf,
		TVar::event_scales_type *	event_scales,
		MelaIO *	RcdME,
		const double &	EBEAM,
		TVar::VerbosityLevel	verbosity
	)

Definition at line 4244 of file TUtil.cc.

   {
  if (verbosity>=TVar::DEBUG) MELAout << "Begin SumMatrixElementPDF" << endl;
  double msqjk=0;
 
  int nRequested_AssociatedJets=0;
  int nRequested_AssociatedLeptons=0;
  int AssociationVCompatibility=0;
  int partIncCode=TVar::kNoAssociated; // Do not use associated particles in the pT=0 frame boost
  if (production == TVar::JQCD){ // Use asociated jets in the pT=0 frame boost
    partIncCode=TVar::kUseAssociated_Jets;
    nRequested_AssociatedJets = 1;
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::SumMatrixElementPDF: Requesting " << nRequested_AssociatedJets << " jets" << endl;
  }
  else if (
    production == TVar::Had_WH || production == TVar::Had_ZH
    || production == TVar::JJVBF || production == TVar::JJEW || production == TVar::JJEWQCD
    || production == TVar::Had_WH_S || production == TVar::Had_ZH_S
    || production == TVar::JJVBF_S || production == TVar::JJEW_S || production == TVar::JJEWQCD_S
    || production == TVar::Had_WH_TU || production == TVar::Had_ZH_TU
    || production == TVar::JJVBF_TU || production == TVar::JJEW_TU || production == TVar::JJEWQCD_TU
    || ((process == TVar::bkgZZ || process == TVar::bkgWW || process == TVar::bkgWWZZ) && (production == TVar::JJQCD || production == TVar::JJQCD_S || production == TVar::JJQCD_TU))
    || (process == TVar::bkgZJets && production == TVar::JJQCD && RcdME->melaCand->getDecayMode()==TVar::CandidateDecay_ff)
    ){ // Use associated jets in the pT=0 frame boost
    partIncCode=TVar::kUseAssociated_Jets;
    nRequested_AssociatedJets = 2;
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::SumMatrixElementPDF: Requesting " << nRequested_AssociatedJets << " jets" << endl;
  }
  else if (
    production == TVar::Lep_ZH || production == TVar::Lep_WH
    || production == TVar::Lep_ZH_S || production == TVar::Lep_WH_S
    || production == TVar::Lep_ZH_TU || production == TVar::Lep_WH_TU
    ){ // Only use associated leptons(+)neutrinos
    partIncCode=TVar::kUseAssociated_Leptons;
    nRequested_AssociatedLeptons = 2;
  }
  if (
    production == TVar::Had_WH || production == TVar::Lep_WH
    || production == TVar::Had_WH_S || production == TVar::Lep_WH_S
    || production == TVar::Had_WH_TU || production == TVar::Lep_WH_TU
    ) AssociationVCompatibility=24;
  else if (
    production == TVar::Had_ZH || production == TVar::Lep_ZH
    || production == TVar::Had_ZH_S || production == TVar::Lep_ZH_S
    || production == TVar::Had_ZH_TU || production == TVar::Lep_ZH_TU
    ) AssociationVCompatibility=23;
  simple_event_record mela_event;
  mela_event.AssociationCode=partIncCode;
  mela_event.AssociationVCompatibility=AssociationVCompatibility;
  mela_event.nRequested_AssociatedJets=nRequested_AssociatedJets;
  mela_event.nRequested_AssociatedLeptons=nRequested_AssociatedLeptons;
  GetBoostedParticleVectors(
    RcdME->melaCand,
    mela_event,
    verbosity
    );
 
  double xx[2]={ 0 };
  vector<int> partOrder;
  vector<int> apartOrder;
  bool doProceed =
    CheckPartonMomFraction(mela_event.pMothers.at(0).second, mela_event.pMothers.at(1).second, xx, EBEAM, verbosity) // Check momentum transfers
    &&
    TUtil::MCFM_chooser(process, production, leptonInterf, verbosity, mela_event); // Set some of the specifics of the process through this function
  if (doProceed) doProceed = TUtil::MCFM_SetupParticleCouplings(process, production, verbosity, mela_event, &partOrder, &apartOrder); // Set the specifics of the daughter or associated particle couplings through this function
  if (doProceed){
    if (partOrder.size()!=mela_event.pDaughters.size()){
      if (verbosity >= TVar::ERROR){
        MELAerr << "TUtil::SumMatrixElementPDF: Ordering size " << partOrder.size() << " and number of daughter particles " << mela_event.pDaughters.size() << " are not the same!" << endl;
        TUtil::PrintCandidateSummary(&mela_event);
      }
      doProceed=false;
    }
    if (apartOrder.size()!=mela_event.pAssociated.size()){
      if (verbosity >= TVar::ERROR){
        MELAerr << "TUtil::SumMatrixElementPDF: Ordering size " << apartOrder.size() << " and number of associated particles " << mela_event.pAssociated.size() << " are not the same!" << endl;
        TUtil::PrintCandidateSummary(&mela_event);
      }
      doProceed=false;
    }
  }
  if (doProceed){
    int NPart=npart_.npart+2; // +2 for mothers
    double p4[4][mxpart]={ { 0 } };
    double p4_tmp[4][mxpart]={ { 0 } };
    int id[mxpart]; for (int ipar=0; ipar<mxpart; ipar++) id[ipar]=-9000;
    double msq[nmsq][nmsq]={ { 0 } };
    double msq_tmp[nmsq][nmsq]={ { 0 } };
    int channeltoggle=0;
 
    TLorentzVector MomStore[mxpart];
    for (int i = 0; i < mxpart; i++) MomStore[i].SetXYZT(0, 0, 0, 0);
 
    //Convert TLorentzVector into 4xNPart Matrix
    //reverse sign of incident partons
    for (int ipar=0; ipar<2; ipar++){
      if (mela_event.pMothers.at(ipar).second.T()>0.){
        p4[0][ipar] = -mela_event.pMothers.at(ipar).second.X();
        p4[1][ipar] = -mela_event.pMothers.at(ipar).second.Y();
        p4[2][ipar] = -mela_event.pMothers.at(ipar).second.Z();
        p4[3][ipar] = -mela_event.pMothers.at(ipar).second.T();
        MomStore[ipar] = mela_event.pMothers.at(ipar).second;
        id[ipar] = mela_event.pMothers.at(ipar).first;
      }
      else{
        p4[0][ipar] = mela_event.pMothers.at(ipar).second.X();
        p4[1][ipar] = mela_event.pMothers.at(ipar).second.Y();
        p4[2][ipar] = mela_event.pMothers.at(ipar).second.Z();
        p4[3][ipar] = mela_event.pMothers.at(ipar).second.T();
        MomStore[ipar] = -mela_event.pMothers.at(ipar).second;
        id[ipar] = mela_event.pMothers.at(ipar).first;
      }
    }
 
    // Determine if the decay mode involves WW or ZZ, to be used for ZZ or WW-specific signal MEs
    //bool isZG = (PDGHelpers::isAZBoson(mela_event.intermediateVid.at(0)) && PDGHelpers::isAPhoton(mela_event.intermediateVid.at(1)));
    bool isWW = (PDGHelpers::isAWBoson(mela_event.intermediateVid.at(0)) && PDGHelpers::isAWBoson(mela_event.intermediateVid.at(1)));
    bool isZZ = (PDGHelpers::isAZBoson(mela_event.intermediateVid.at(0)) && PDGHelpers::isAZBoson(mela_event.intermediateVid.at(1)));
    bool isGG = (PDGHelpers::isAPhoton(mela_event.intermediateVid.at(0)) && PDGHelpers::isAPhoton(mela_event.intermediateVid.at(1)));
    //initialize decayed particles
    for (int ix=0; ix<(int)partOrder.size(); ix++){
      int ipar = min((int)mxpart, min(NPart, 2))+ix;
      if (ipar>=mxpart) break;
      TLorentzVector* momTmp = &(mela_event.pDaughters.at(partOrder.at(ix)).second);
      p4[0][ipar] = momTmp->X();
      p4[1][ipar] = momTmp->Y();
      p4[2][ipar] = momTmp->Z();
      p4[3][ipar] = momTmp->T();
      MomStore[ipar]=*momTmp;
      id[ipar] = mela_event.pDaughters.at(partOrder.at(ix)).first;
    }
    for (int ix=0; ix<(int)apartOrder.size(); ix++){
      int ipar = min((int)mxpart, min(NPart, (int)(partOrder.size()+2)))+ix;
      if (ipar>=mxpart) break;
      TLorentzVector* momTmp = &(mela_event.pAssociated.at(apartOrder.at(ix)).second);
      p4[0][ipar] = momTmp->X();
      p4[1][ipar] = momTmp->Y();
      p4[2][ipar] = momTmp->Z();
      p4[3][ipar] = momTmp->T();
      MomStore[ipar]=*momTmp;
      id[ipar] = mela_event.pAssociated.at(apartOrder.at(ix)).first;
    }
 
    if (verbosity >= TVar::DEBUG){ for (int i=0; i<NPart; i++) MELAout << "p["<<i<<"] (Px, Py, Pz, E):\t" << p4[0][i] << '\t' << p4[1][i] << '\t' << p4[2][i] << '\t' << p4[3][i] << endl; }
 
    double defaultRenScale = scale_.scale;
    double defaultFacScale = facscale_.facscale;
    int defaultNloop = nlooprun_.nlooprun;
    int defaultNflav = nflav_.nflav;
    string defaultPdflabel = pdlabel_.pdlabel;
    double renQ = InterpretScaleScheme(production, matrixElement, event_scales->renomalizationScheme, MomStore);
    double facQ = InterpretScaleScheme(production, matrixElement, event_scales->factorizationScheme, MomStore);
    SetAlphaS(renQ, facQ, event_scales->ren_scale_factor, event_scales->fac_scale_factor, 1, 5, "cteq6_l");
    double alphasVal, alphasmzVal;
    GetAlphaS(&alphasVal, &alphasmzVal);
    RcdME->setRenormalizationScale(renQ);
    RcdME->setFactorizationScale(facQ);
    RcdME->setAlphaS(alphasVal);
    RcdME->setAlphaSatMZ(alphasmzVal);
    RcdME->setHiggsMassWidth(masses_mcfm_.hmass, masses_mcfm_.hwidth, 0);
    RcdME->setHiggsMassWidth(spinzerohiggs_anomcoupl_.h2mass, spinzerohiggs_anomcoupl_.h2width, 1);
    if (verbosity>=TVar::DEBUG){
      MELAout
        << "TUtil::SumMatrixElementPDF: Set AlphaS:\n"
        << "\tBefore set, alphas scale: " << defaultRenScale << ", PDF scale: " << defaultFacScale << '\n'
        << "\trenQ: " << renQ << " ( x " << event_scales->ren_scale_factor << "), facQ: " << facQ << " ( x " << event_scales->fac_scale_factor << ")\n"
        << "\tAfter set, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << ", alphas(Qren): " << alphasVal << ", alphas(MZ): " << alphasmzVal << endl;
    }
 
    int nInstances=0;
    if (
      (production == TVar::ZZINDEPENDENT || production == TVar::ZZQQB)
      ||
      ((production == TVar::ZZQQB_STU || production == TVar::ZZQQB_S || production == TVar::ZZQQB_TU) && process == TVar::bkgZZ)
      ){
      if (production == TVar::ZZINDEPENDENT || production == TVar::ZZQQB){
        if (process == TVar::bkgGammaGamma){ qqb_gamgam_(p4[0], msq[0]); msq[5][5]=0; } // This function actually computes qqb/gg -> GG, so need to set msq[g][g]=0
        else if (process == TVar::bkgZGamma) qqb_zgam_(p4[0], msq[0]);
        else if (process == TVar::bkgZZ) qqb_zz_(p4[0], msq[0]);
        else if (process == TVar::bkgWW) qqb_ww_(p4[0], msq[0]);
      }
      else{
        if (production == TVar::ZZQQB_STU) channeltoggle=0;
        else if (production == TVar::ZZQQB_S) channeltoggle=1;
        else/* if (production == TVar::ZZQQB_TU)*/ channeltoggle=2;
        qqb_zz_stu_(p4[0], msq[0], &channeltoggle);
      }
      nInstances=WipeMEArray(process, production, id, msq, verbosity);
 
      // Sum over valid MEs without PDF weights
      // By far the dominant contribution is uub initial state.
      for (int iquark=-5; iquark<=5; iquark++){
        for (int jquark=-5; jquark<=5; jquark++){
          if (
            (PDGHelpers::isAnUnknownJet(id[0]) || (PDGHelpers::isAGluon(id[0]) && iquark==0) || iquark==id[0])
            &&
            (PDGHelpers::isAnUnknownJet(id[1]) || (PDGHelpers::isAGluon(id[1]) && jquark==0) || jquark==id[1])
            ){
            if (
              PDGHelpers::isAnUnknownJet(id[0])
              &&
              PDGHelpers::isAnUnknownJet(id[1])
              ) msqjk = msq[3][7]+msq[7][3]; // Use only uub initial state
            else if (
              PDGHelpers::isAnUnknownJet(id[0])
              ) msqjk = msq[jquark+5][-jquark+5];
            else if (
              PDGHelpers::isAnUnknownJet(id[1])
              ) msqjk = msq[-iquark+5][iquark+5];
            else msqjk += msq[jquark+5][iquark+5];
          }
        }
      }
      SumMEPDF(MomStore[0], MomStore[1], msq, RcdME, EBEAM, verbosity);
    }
    else if (production == TVar::ZZGG){
      if (isZZ){
        if (process == TVar::HSMHiggs) gg_hzz_tb_(p4[0], msq[0]); // |ggHZZ|**2
        else if (process == TVar::bkgZZ_SMHiggs) gg_zz_all_(p4[0], msq[0]); // |ggZZ + ggHZZ|**2
        else if (process == TVar::bkgZZ) gg_zz_(p4[0], &(msq[5][5])); // |ggZZ|**2
        // The following WWZZ processes need no swapping because ZZ->4f (same type) is ordered such that 3/5 (C++: 2/4) swap gives W+W-.
        else if (process == TVar::HSMHiggs_WWZZ) gg_hvv_tb_(p4[0], msq[0]); // |ggHZZ+WW|**2
        else if (process == TVar::bkgWWZZ_SMHiggs) gg_vv_all_(p4[0], msq[0]); // |ggZZ + ggHZZ (+WW)|**2
        else if (process == TVar::bkgWWZZ) gg_vv_(p4[0], &(msq[5][5])); // |ggZZ+WW|**2
 
        if (verbosity>=TVar::DEBUG){
          MELAout << "\tTUtil::SumMatrixElementPDF: ZZGG && ZZ/WW/ZZ+WW MEs using ZZ (runstring: " << runstring_.runstring << ")" << endl;
          for (int i=0; i<NPart; i++) MELAout << "\tp["<<i<<"] (Px, Py, Pz, E):\t" << p4[0][i] << '\t' << p4[1][i] << '\t' << p4[2][i] << '\t' << p4[3][i] << endl;
        }
      }
      else if (isWW){
        if (process == TVar::HSMHiggs || process == TVar::HSMHiggs_WWZZ) gg_hvv_tb_(p4[0], msq[0]); // |ggHZZ+WW|**2
        else if (process == TVar::bkgWW_SMHiggs || process == TVar::bkgWWZZ_SMHiggs) gg_vv_all_(p4[0], msq[0]); // |ggZZ + ggHZZ (+WW)|**2
        else if (process == TVar::bkgWW || process == TVar::bkgWWZZ) gg_vv_(p4[0], &(msq[5][5])); // |ggZZ+WW|**2
        if (verbosity>=TVar::DEBUG){
          MELAout << "\tTUtil::SumMatrixElementPDF: ZZGG && ZZ/WW/ZZ+WW MEs using WW (runstring: " << runstring_.runstring << ")" << endl;
          for (int i=0; i<NPart; i++) MELAout << "\tp["<<i<<"] (Px, Py, Pz, E):\t" << p4[0][i] << '\t' << p4[1][i] << '\t' << p4[2][i] << '\t' << p4[3][i] << endl;
        }
      }
      else if (isGG){
        if (process == TVar::bkgGammaGamma){
          qqb_gamgam_(p4[0], msq[0]);
          for (int iquark=-5; iquark<=5; iquark++){
            for (int jquark=-5; jquark<=5; jquark++){
              if (iquark==0 && jquark==0) continue;
              msq[jquark+5][iquark+5] = 0;
            }
          }
        }
      }
 
      nInstances=WipeMEArray(process, production, id, msq, verbosity);
      if (
        (PDGHelpers::isAnUnknownJet(id[0]) || PDGHelpers::isAGluon(id[0]))
        &&
        (PDGHelpers::isAnUnknownJet(id[1]) || PDGHelpers::isAGluon(id[1]))
        ){
        msqjk = msq[5][5];
      }
      SumMEPDF(MomStore[0], MomStore[1], msq, RcdME, EBEAM, verbosity);
    }
    else if (
      production == TVar::Had_WH || production == TVar::Had_ZH
      || production == TVar::Had_WH_S || production == TVar::Had_ZH_S
      || production == TVar::Had_WH_TU || production == TVar::Had_ZH_TU
      || production == TVar::Lep_WH || production == TVar::Lep_ZH
      || production == TVar::Lep_WH_S || production == TVar::Lep_ZH_S
      || production == TVar::Lep_WH_TU || production == TVar::Lep_ZH_TU
      || production == TVar::JJVBF || production == TVar::JJEW || production == TVar::JJEWQCD
      || production == TVar::JJVBF_S || production == TVar::JJEW_S || production == TVar::JJEWQCD_S
      || production == TVar::JJVBF_TU || production == TVar::JJEW_TU || production == TVar::JJEWQCD_TU
      || production == TVar::JJQCD || production == TVar::JJQCD_S || production == TVar::JJQCD_TU
      ){
      // Z+2 jets
      if (process == TVar::bkgZJets) qqb_z2jet_(p4[0], msq[0]);
      // VBF or QCD MCFM SBI, S or B
      else if (isZZ && (process == TVar::bkgZZ_SMHiggs || process == TVar::HSMHiggs || process == TVar::bkgZZ)){
        if (
          production == TVar::Had_WH || production == TVar::Had_ZH
          || production == TVar::Had_WH_S || production == TVar::Had_ZH_S
          || production == TVar::Had_WH_TU || production == TVar::Had_ZH_TU
          || production == TVar::Lep_WH || production == TVar::Lep_ZH
          || production == TVar::Lep_WH_S || production == TVar::Lep_ZH_S
          || production == TVar::Lep_WH_TU || production == TVar::Lep_ZH_TU
          || production == TVar::JJVBF || production == TVar::JJEW
          || production == TVar::JJVBF_S || production == TVar::JJEW_S
          || production == TVar::JJVBF_TU || production == TVar::JJEW_TU
          ){
          /*
          if (process == TVar::bkgZZ){//
            qq_zzqq_bkg_(p4[0], msq[0]);
            if (PDGHelpers::isAnUnknownJet(id[partOrder.size()+2]) && PDGHelpers::isAnUnknownJet(id[partOrder.size()+3])){
              for (unsigned int ix=0; ix<4; ix++){
                for (int ip=0; ip<mxpart; ip++) p4_tmp[ix][ip]=p4[ix][ip];
                swap(p4_tmp[ix][partOrder.size()+2], p4_tmp[ix][partOrder.size()+3]);
              }
              qq_zzqq_bkg_(p4_tmp[0], msq_tmp[0]);
              for (int iquark=-5; iquark<=5; iquark++){ for (int jquark=-5; jquark<=5; jquark++){ msq[jquark+5][iquark+5] = (msq[jquark+5][iquark+5] + msq_tmp[jquark+5][iquark+5]); if (iquark==jquark) msq[jquark+5][iquark+5]*=0.5; } }
            }
          }
          else{//
            */
            qq_zzqq_(p4[0], msq[0]);
            if (PDGHelpers::isAnUnknownJet(id[partOrder.size()+2]) && PDGHelpers::isAnUnknownJet(id[partOrder.size()+3])){
              for (unsigned int ix=0; ix<4; ix++){
                for (int ip=0; ip<mxpart; ip++) p4_tmp[ix][ip]=p4[ix][ip];
                swap(p4_tmp[ix][partOrder.size()+2], p4_tmp[ix][partOrder.size()+3]);
              }
              qq_zzqq_(p4_tmp[0], msq_tmp[0]);
              for (int iquark=-5; iquark<=5; iquark++){ for (int jquark=-5; jquark<=5; jquark++){ msq[jquark+5][iquark+5] = (msq[jquark+5][iquark+5] + msq_tmp[jquark+5][iquark+5]); if (iquark==jquark) msq[jquark+5][iquark+5]*=0.5; } }
            }
            else if (PDGHelpers::isAnUnknownJet(id[partOrder.size()+2]) || PDGHelpers::isAnUnknownJet(id[partOrder.size()+3])){
              for (unsigned int ix=0; ix<4; ix++){
                for (int ip=0; ip<mxpart; ip++) p4_tmp[ix][ip]=p4[ix][ip];
                swap(p4_tmp[ix][partOrder.size()+2], p4_tmp[ix][partOrder.size()+3]);
              }
              TString strlabel[2] ={ (plabel_.plabel)[7], (plabel_.plabel)[6] }; for (unsigned int il=0; il<2; il++) strlabel[il].Resize(2);
              for (int ip=0; ip<mxpart; ip++){
                if (ip!=6 && ip!=7) sprintf((plabel_.plabel)[ip], (plabel_.plabel)[ip]);
                else sprintf((plabel_.plabel)[ip], strlabel[ip-6].Data());
              }
              qq_zzqq_(p4_tmp[0], msq_tmp[0]);
              if (verbosity>=TVar::DEBUG){
                MELAout << "TUtil::SumMatrixElementPDF: Adding missing contributions:\n";
                MELAout << "\tplabels:\n";
                for (int ip=0; ip<mxpart; ip++) MELAout << "\t[" << ip << "]=" << (plabel_.plabel)[ip] << endl;
                MELAout << "\tMEsq initial:" << endl;
                for (int iquark=-5; iquark<=5; iquark++){
                  for (int jquark=-5; jquark<=5; jquark++) MELAout << msq[jquark+5][iquark+5] << '\t';
                  MELAout << endl;
                }
                MELAout << "\tMEsq added:" << endl;
                for (int iquark=-5; iquark<=5; iquark++){
                  for (int jquark=-5; jquark<=5; jquark++) MELAout << msq_tmp[jquark+5][iquark+5] << '\t';
                  MELAout << endl;
                }
              }
              for (int iquark=-5; iquark<=5; iquark++){
                for (int jquark=-5; jquark<=5; jquark++){
                  if (msq[jquark+5][iquark+5]==0.) msq[jquark+5][iquark+5] = msq_tmp[jquark+5][iquark+5];
                }
              }
            }
          //}//
        }
        else if (
          production == TVar::JJQCD || production == TVar::JJQCD_S || production == TVar::JJQCD_TU
          ){
          qq_zzqqstrong_(p4[0], msq[0]);
          if (PDGHelpers::isAnUnknownJet(id[partOrder.size()+2]) && PDGHelpers::isAnUnknownJet(id[partOrder.size()+3])){
            for (unsigned int ix=0; ix<4; ix++){
              for (int ip=0; ip<mxpart; ip++) p4_tmp[ix][ip]=p4[ix][ip];
              swap(p4_tmp[ix][partOrder.size()+2], p4_tmp[ix][partOrder.size()+3]);
            }
            qq_zzqqstrong_(p4_tmp[0], msq_tmp[0]);
            for (int iquark=-5; iquark<=5; iquark++){ for (int jquark=-5; jquark<=5; jquark++){ msq[jquark+5][iquark+5] = (msq[jquark+5][iquark+5] + msq_tmp[jquark+5][iquark+5]); if (iquark==jquark && iquark!=0) msq[jquark+5][iquark+5]*=0.5; } }
            // Subtract qqb/qbq->gg that was counted twice.
            TString gglabel = TUtil::GetMCFMParticleLabel(21, false, true);
            for (int ip=0; ip<mxpart; ip++){
              if (ip!=6 && ip!=7) sprintf((plabel_.plabel)[ip], (plabel_.plabel)[ip]);
              else sprintf((plabel_.plabel)[ip], gglabel.Data());
            }
            qq_zzqqstrong_(p4_tmp[0], msq_tmp[0]);
            for (int iquark=-5; iquark<=5; iquark++){ int jquark=-iquark; msq[jquark+5][iquark+5] = (msq[jquark+5][iquark+5] - msq_tmp[jquark+5][iquark+5]); }
            if (verbosity>=TVar::DEBUG){
              MELAout << "TUtil::SumMatrixElementPDF: Subtracting qqb/qbq->gg double-counted contribution:\n";
              MELAout << "\tplabels:\n";
              for (int ip=0; ip<mxpart; ip++) MELAout << "\t[" << ip << "]=" << (plabel_.plabel)[ip] << endl;
              MELAout << "\tMEsq:" << endl;
              for (int iquark=-5; iquark<=5; iquark++){
                for (int jquark=-5; jquark<=5; jquark++) MELAout << msq_tmp[jquark+5][iquark+5] << '\t';
                MELAout << endl;
              }
            }
          }
          else if ((PDGHelpers::isAnUnknownJet(id[partOrder.size()+2]) || PDGHelpers::isAnUnknownJet(id[partOrder.size()+3])) && !(PDGHelpers::isAGluon(id[partOrder.size()+2]) || PDGHelpers::isAGluon(id[partOrder.size()+3]))){
            for (unsigned int ix=0; ix<4; ix++){
              for (int ip=0; ip<mxpart; ip++) p4_tmp[ix][ip]=p4[ix][ip];
              swap(p4_tmp[ix][partOrder.size()+2], p4_tmp[ix][partOrder.size()+3]);
            }
            TString strlabel[2] ={ (plabel_.plabel)[7], (plabel_.plabel)[6] }; for (unsigned int il=0; il<2; il++) strlabel[il].Resize(2);
            for (int ip=0; ip<mxpart; ip++){
              if (ip!=6 && ip!=7) sprintf((plabel_.plabel)[ip], (plabel_.plabel)[ip]);
              else sprintf((plabel_.plabel)[ip], strlabel[ip-6].Data());
            }
            qq_zzqqstrong_(p4_tmp[0], msq_tmp[0]);
            if (verbosity>=TVar::DEBUG){
              MELAout << "TUtil::SumMatrixElementPDF: Adding missing contributions:\n";
              MELAout << "\tplabels:\n";
              for (int ip=0; ip<mxpart; ip++) MELAout << "\t[" << ip << "]=" << (plabel_.plabel)[ip] << endl;
              MELAout << "\tMEsq initial:" << endl;
              for (int iquark=-5; iquark<=5; iquark++){
                for (int jquark=-5; jquark<=5; jquark++) MELAout << msq[jquark+5][iquark+5] << '\t';
                MELAout << endl;
              }
              MELAout << "\tMEsq added:" << endl;
              for (int iquark=-5; iquark<=5; iquark++){
                for (int jquark=-5; jquark<=5; jquark++) MELAout << msq_tmp[jquark+5][iquark+5] << '\t';
                MELAout << endl;
              }
            }
            for (int iquark=-5; iquark<=5; iquark++){ 
              for (int jquark=-5; jquark<=5; jquark++){
                if (msq[jquark+5][iquark+5]==0.) msq[jquark+5][iquark+5] = msq_tmp[jquark+5][iquark+5];
              }
            }
          }
        }
      }
      else if (isWW && (process == TVar::bkgWW_SMHiggs || process == TVar::HSMHiggs || process == TVar::bkgWW)){
        if (
          production == TVar::Had_WH || production == TVar::Had_ZH
          || production == TVar::Had_WH_S || production == TVar::Had_ZH_S
          || production == TVar::Had_WH_TU || production == TVar::Had_ZH_TU
          || production == TVar::Lep_WH || production == TVar::Lep_ZH
          || production == TVar::Lep_WH_S || production == TVar::Lep_ZH_S
          || production == TVar::Lep_WH_TU || production == TVar::Lep_ZH_TU
          || production == TVar::JJVBF || production == TVar::JJEW
          || production == TVar::JJVBF_S || production == TVar::JJEW_S
          || production == TVar::JJVBF_TU || production == TVar::JJEW_TU
          ){
          qq_wwqq_(p4[0], msq[0]);
          if (PDGHelpers::isAnUnknownJet(id[partOrder.size()+2]) && PDGHelpers::isAnUnknownJet(id[partOrder.size()+3])){
            for (unsigned int ix=0; ix<4; ix++){
              for (int ip=0; ip<mxpart; ip++) p4_tmp[ix][ip]=p4[ix][ip];
              swap(p4_tmp[ix][partOrder.size()+2], p4_tmp[ix][partOrder.size()+3]);
            }
            qq_wwqq_(p4_tmp[0], msq_tmp[0]);
            for (int iquark=-5; iquark<=5; iquark++){ for (int jquark=-5; jquark<=5; jquark++){ msq[jquark+5][iquark+5] = (msq[jquark+5][iquark+5] + msq_tmp[jquark+5][iquark+5]); if (iquark==jquark) msq[jquark+5][iquark+5]*=0.5; } }
          }
          else if (PDGHelpers::isAnUnknownJet(id[partOrder.size()+2]) || PDGHelpers::isAnUnknownJet(id[partOrder.size()+3])){
            for (unsigned int ix=0; ix<4; ix++){
              for (int ip=0; ip<mxpart; ip++) p4_tmp[ix][ip]=p4[ix][ip];
              swap(p4_tmp[ix][partOrder.size()+2], p4_tmp[ix][partOrder.size()+3]);
            }
            TString strlabel[2] ={ (plabel_.plabel)[7], (plabel_.plabel)[6] }; for (unsigned int il=0; il<2; il++) strlabel[il].Resize(2);
            for (int ip=0; ip<mxpart; ip++){
              if (ip!=6 && ip!=7) sprintf((plabel_.plabel)[ip], (plabel_.plabel)[ip]);
              else sprintf((plabel_.plabel)[ip], strlabel[ip-6].Data());
            }
            qq_wwqq_(p4_tmp[0], msq_tmp[0]);
            if (verbosity>=TVar::DEBUG){
              MELAout << "TUtil::SumMatrixElementPDF: Adding missing contributions:\n";
              MELAout << "\tplabels:\n";
              for (int ip=0; ip<mxpart; ip++) MELAout << "\t[" << ip << "]=" << (plabel_.plabel)[ip] << endl;
              MELAout << "\tMEsq initial:" << endl;
              for (int iquark=-5; iquark<=5; iquark++){
                for (int jquark=-5; jquark<=5; jquark++) MELAout << msq[jquark+5][iquark+5] << '\t';
                MELAout << endl;
              }
              MELAout << "\tMEsq added:" << endl;
              for (int iquark=-5; iquark<=5; iquark++){
                for (int jquark=-5; jquark<=5; jquark++) MELAout << msq_tmp[jquark+5][iquark+5] << '\t';
                MELAout << endl;
              }
            }
            for (int iquark=-5; iquark<=5; iquark++){
              for (int jquark=-5; jquark<=5; jquark++){
                if (msq[jquark+5][iquark+5]==0.) msq[jquark+5][iquark+5] = msq_tmp[jquark+5][iquark+5];
              }
            }
          }
        }
        else if (
          production == TVar::JJQCD || production == TVar::JJQCD_S || production == TVar::JJQCD_TU
          ){
          qq_wwqqstrong_(p4[0], msq[0]);
          if (PDGHelpers::isAnUnknownJet(id[partOrder.size()+2]) && PDGHelpers::isAnUnknownJet(id[partOrder.size()+3])){
            for (unsigned int ix=0; ix<4; ix++){
              for (int ip=0; ip<mxpart; ip++) p4_tmp[ix][ip]=p4[ix][ip];
              swap(p4_tmp[ix][partOrder.size()+2], p4_tmp[ix][partOrder.size()+3]);
            }
            qq_wwqqstrong_(p4_tmp[0], msq_tmp[0]);
            for (int iquark=-5; iquark<=5; iquark++){ for (int jquark=-5; jquark<=5; jquark++){ msq[jquark+5][iquark+5] = (msq[jquark+5][iquark+5] + msq_tmp[jquark+5][iquark+5]); if (iquark==jquark && iquark!=0) msq[jquark+5][iquark+5]*=0.5; } }
            // Subtract qqb/qbq->gg that was counted twice.
            TString gglabel = TUtil::GetMCFMParticleLabel(21, false, true);
            for (int ip=0; ip<mxpart; ip++){
              if (ip!=6 && ip!=7) sprintf((plabel_.plabel)[ip], (plabel_.plabel)[ip]);
              else sprintf((plabel_.plabel)[ip], gglabel.Data());
            }
            qq_wwqqstrong_(p4_tmp[0], msq_tmp[0]);
            for (int iquark=-5; iquark<=5; iquark++){ int jquark=-iquark; msq[jquark+5][iquark+5] = (msq[jquark+5][iquark+5] - msq_tmp[jquark+5][iquark+5]); }
            if (verbosity>=TVar::DEBUG){
              MELAout << "TUtil::SumMatrixElementPDF: Subtracting qqb/qbq->gg double-counted contribution:\n";
              MELAout << "\tplabels:\n";
              for (int ip=0; ip<mxpart; ip++) MELAout << "\t[" << ip << "]=" << (plabel_.plabel)[ip] << endl;
              MELAout << "\tMEsq:" << endl;
              for (int iquark=-5; iquark<=5; iquark++){
                for (int jquark=-5; jquark<=5; jquark++) MELAout << msq_tmp[jquark+5][iquark+5] << '\t';
                MELAout << endl;
              }
            }
          }
          else if ((PDGHelpers::isAnUnknownJet(id[partOrder.size()+2]) || PDGHelpers::isAnUnknownJet(id[partOrder.size()+3])) && !(PDGHelpers::isAGluon(id[partOrder.size()+2]) || PDGHelpers::isAGluon(id[partOrder.size()+3]))){
            for (unsigned int ix=0; ix<4; ix++){
              for (int ip=0; ip<mxpart; ip++) p4_tmp[ix][ip]=p4[ix][ip];
              swap(p4_tmp[ix][partOrder.size()+2], p4_tmp[ix][partOrder.size()+3]);
            }
            TString strlabel[2] ={ (plabel_.plabel)[7], (plabel_.plabel)[6] }; for (unsigned int il=0; il<2; il++) strlabel[il].Resize(2);
            for (int ip=0; ip<mxpart; ip++){
              if (ip!=6 && ip!=7) sprintf((plabel_.plabel)[ip], (plabel_.plabel)[ip]);
              else sprintf((plabel_.plabel)[ip], strlabel[ip-6].Data());
            }
            qq_wwqqstrong_(p4_tmp[0], msq_tmp[0]);
            if (verbosity>=TVar::DEBUG){
              MELAout << "TUtil::SumMatrixElementPDF: Adding missing contributions:\n";
              MELAout << "\tplabels:\n";
              for (int ip=0; ip<mxpart; ip++) MELAout << "\t[" << ip << "]=" << (plabel_.plabel)[ip] << endl;
              MELAout << "\tMEsq initial:" << endl;
              for (int iquark=-5; iquark<=5; iquark++){
                for (int jquark=-5; jquark<=5; jquark++) MELAout << msq[jquark+5][iquark+5] << '\t';
                MELAout << endl;
              }
              MELAout << "\tMEsq added:" << endl;
              for (int iquark=-5; iquark<=5; iquark++){
                for (int jquark=-5; jquark<=5; jquark++) MELAout << msq_tmp[jquark+5][iquark+5] << '\t';
                MELAout << endl;
              }
            }
            for (int iquark=-5; iquark<=5; iquark++){
              for (int jquark=-5; jquark<=5; jquark++){
                if (msq[jquark+5][iquark+5]==0.) msq[jquark+5][iquark+5] = msq_tmp[jquark+5][iquark+5];
              }
            }
          }
        }
      }
      else if ((isWW || isZZ) && (process == TVar::bkgWWZZ_SMHiggs || process == TVar::HSMHiggs_WWZZ || process == TVar::bkgWWZZ)){
        if (
          production == TVar::Had_WH || production == TVar::Had_ZH
          || production == TVar::Had_WH_S || production == TVar::Had_ZH_S
          || production == TVar::Had_WH_TU || production == TVar::Had_ZH_TU
          || production == TVar::Lep_WH || production == TVar::Lep_ZH
          || production == TVar::Lep_WH_S || production == TVar::Lep_ZH_S
          || production == TVar::Lep_WH_TU || production == TVar::Lep_ZH_TU
          || production == TVar::JJVBF || production == TVar::JJEW
          || production == TVar::JJVBF_S || production == TVar::JJEW_S
          || production == TVar::JJVBF_TU || production == TVar::JJEW_TU
          ){
          qq_vvqq_(p4[0], msq[0]);
          if (PDGHelpers::isAnUnknownJet(id[partOrder.size()+2]) && PDGHelpers::isAnUnknownJet(id[partOrder.size()+3])){
            for (unsigned int ix=0; ix<4; ix++){
              for (int ip=0; ip<mxpart; ip++) p4_tmp[ix][ip]=p4[ix][ip];
              swap(p4_tmp[ix][partOrder.size()+2], p4_tmp[ix][partOrder.size()+3]);
            }
            qq_vvqq_(p4_tmp[0], msq_tmp[0]);
            for (int iquark=-5; iquark<=5; iquark++){ for (int jquark=-5; jquark<=5; jquark++){ msq[jquark+5][iquark+5] = (msq[jquark+5][iquark+5] + msq_tmp[jquark+5][iquark+5]); if (iquark==jquark) msq[jquark+5][iquark+5]*=0.5; } }
          }
          else if (PDGHelpers::isAnUnknownJet(id[partOrder.size()+2]) || PDGHelpers::isAnUnknownJet(id[partOrder.size()+3])){
            for (unsigned int ix=0; ix<4; ix++){
              for (int ip=0; ip<mxpart; ip++) p4_tmp[ix][ip]=p4[ix][ip];
              swap(p4_tmp[ix][partOrder.size()+2], p4_tmp[ix][partOrder.size()+3]);
            }
            TString strlabel[2] ={ (plabel_.plabel)[7], (plabel_.plabel)[6] }; for (unsigned int il=0; il<2; il++) strlabel[il].Resize(2);
            for (int ip=0; ip<mxpart; ip++){
              if (ip!=6 && ip!=7) sprintf((plabel_.plabel)[ip], (plabel_.plabel)[ip]);
              else sprintf((plabel_.plabel)[ip], strlabel[ip-6].Data());
            }
            qq_vvqq_(p4_tmp[0], msq_tmp[0]);
            if (verbosity>=TVar::DEBUG){
              MELAout << "TUtil::SumMatrixElementPDF: Adding missing contributions:\n";
              MELAout << "\tplabels:\n";
              for (int ip=0; ip<mxpart; ip++) MELAout << "\t[" << ip << "]=" << (plabel_.plabel)[ip] << endl;
              MELAout << "\tMEsq initial:" << endl;
              for (int iquark=-5; iquark<=5; iquark++){
                for (int jquark=-5; jquark<=5; jquark++) MELAout << msq[jquark+5][iquark+5] << '\t';
                MELAout << endl;
              }
              MELAout << "\tMEsq added:" << endl;
              for (int iquark=-5; iquark<=5; iquark++){
                for (int jquark=-5; jquark<=5; jquark++) MELAout << msq_tmp[jquark+5][iquark+5] << '\t';
                MELAout << endl;
              }
            }
            for (int iquark=-5; iquark<=5; iquark++){
              for (int jquark=-5; jquark<=5; jquark++){
                if (msq[jquark+5][iquark+5]==0.) msq[jquark+5][iquark+5] = msq_tmp[jquark+5][iquark+5];
              }
            }
          }
        }
        //else if (
        //  production == TVar::JJQCD || production == TVar::JJQCD_S || production == TVar::JJQCD_TU
        //  ); // No JJQCD-VV ME in MCFM
      }
 
      nInstances=WipeMEArray(process, production, id, msq, verbosity);
      msqjk = SumMEPDF(MomStore[0], MomStore[1], msq, RcdME, EBEAM, verbosity);
    }
 
    // Set aL/R 1,2 into RcdME
    if (PDGHelpers::isAZBoson(mela_event.intermediateVid.at(0))) RcdME->setVDaughterCouplings(zcouple_.l1, zcouple_.r1, 0);
    else if (PDGHelpers::isAWBoson(mela_event.intermediateVid.at(0))) RcdME->setVDaughterCouplings(1., 0., 0);
    else RcdME->setVDaughterCouplings(0., 0., 0);
    if (PDGHelpers::isAZBoson(mela_event.intermediateVid.at(1))) RcdME->setVDaughterCouplings(zcouple_.l2, zcouple_.r2, 1);
    else if (PDGHelpers::isAWBoson(mela_event.intermediateVid.at(1))) RcdME->setVDaughterCouplings(1., 0., 1);
    else RcdME->setVDaughterCouplings(0., 0., 1);
    // Reset some of these couplings if the decay is not actually ZZ or WW.
    if (
      process == TVar::bkgZJets
      ||
      process == TVar::bkgZGamma
      ) RcdME->setVDaughterCouplings(0., 0., 1);
 
    if (msqjk != msqjk){
      if (verbosity>=TVar::ERROR) MELAout << "TUtil::SumMatrixElementPDF: "<< TVar::ProcessName(process) << " msqjk="  << msqjk << endl;
      for (int i=0; i<NPart; i++) MELAout << "p["<<i<<"] (Px, Py, Pz, E):\t" << p4[0][i] << '\t' << p4[1][i] << '\t' << p4[2][i] << '\t' << p4[3][i] << endl;
      MELAout << "TUtil::SumMatrixElementPDF: The number of ME instances: " << nInstances << ". MEsq[ip][jp] = " << endl;
      for (int iquark=-5; iquark<=5; iquark++){
        for (int jquark=-5; jquark<=5; jquark++) MELAout << msq[jquark+5][iquark+5] << '\t';
        MELAout << endl;
      }
      msqjk=0;
    }
    else if (verbosity>=TVar::DEBUG){
      MELAout << "TUtil::SumMatrixElementPDF: The number of ME instances: " << nInstances << ". MEsq[ip][jp] = " << endl;
      for (int iquark=-5; iquark<=5; iquark++){
        for (int jquark=-5; jquark<=5; jquark++) MELAout << msq[jquark+5][iquark+5] << '\t';
        MELAout << endl;
      }
    }
 
    if (verbosity>=TVar::DEBUG) MELAout
        << "TUtil::SumMatrixElementPDF: Reset AlphaS:\n"
        << "\tBefore reset, alphas scale: " << scale_.scale
        << ", PDF scale: " << facscale_.facscale
        << endl;
    SetAlphaS(defaultRenScale, defaultFacScale, 1., 1., defaultNloop, defaultNflav, defaultPdflabel);
    if (verbosity>=TVar::DEBUG) MELAout
        << "TUtil::SumMatrixElementPDF: Reset AlphaS result:\n"
        << "\tAfter reset, alphas scale: " << scale_.scale
        << ", PDF scale: " << facscale_.facscale
        << endl;
  } // End if doProceed
  if (verbosity>=TVar::DEBUG) MELAout << "End TUtil::SumMatrixElementPDF(" << msqjk << ")" << endl;
  return msqjk;
}

SumMEPDF()

double TUtil::SumMEPDF	(	const TLorentzVector &	p0,
		const TLorentzVector &	p1,
		double	msq[nmsq][nmsq],
		MelaIO *	RcdME,
		const double &	EBEAM,
		const TVar::VerbosityLevel &	verbosity
	)

Definition at line 8176 of file TUtil.cc.

                                                                                                                                                                         {
  if (verbosity>=TVar::DEBUG) MELAout << "Begin TUtil::SumMEPDF"<< endl;
  double fx1[nmsq]={ 0 };
  double fx2[nmsq]={ 0 };
  //double wgt_msq[nmsq][nmsq]={ { 0 } };
 
  ComputePDF(p0, p1, fx1, fx2, EBEAM, verbosity);
  if (verbosity>=TVar::DEBUG) MELAout << "TUtil::SumMEPDF: Setting RcdME"<< endl;
  RcdME->setPartonWeights(fx1, fx2);
  RcdME->setMEArray(msq, true);
  RcdME->computeWeightedMEArray();
  //RcdME->getWeightedMEArray(wgt_msq);
  if (verbosity>=TVar::DEBUG) MELAout << "End TUtil::SumMEPDF"<< endl;
  return RcdME->getSumME();
}

TTHiggsMatEl()

double TUtil::TTHiggsMatEl	(	const TVar::Process &	process,
		const TVar::Production &	production,
		const TVar::MatrixElement &	matrixElement,
		TVar::event_scales_type *	event_scales,
		MelaIO *	RcdME,
		const double &	EBEAM,
		int	topDecay,
		int	topProcess,
		TVar::VerbosityLevel	verbosity
	)

Definition at line 7452 of file TUtil.cc.

   {
  const double GeV=1./100.; // JHUGen mom. scale factor
  double sum_msqjk = 0;
  double MatElsq[nmsq][nmsq]={ { 0 } };
 
  if (matrixElement!=TVar::JHUGen){ if (verbosity>=TVar::ERROR) MELAerr << "TUtil::TTHiggsMatEl: Non-JHUGen MEs are not supported." << endl; return sum_msqjk; }
  if (production!=TVar::ttH){ if (verbosity>=TVar::ERROR) MELAerr << "TUtil::TTHiggsMatEl: Only ttH is supported." << endl; return sum_msqjk; }
 
  int partIncCode;
  int nRequested_Tops=1;
  int nRequested_Antitops=1;
  if (topDecay>0) partIncCode=TVar::kUseAssociated_UnstableTops; // Look for unstable tops
  else partIncCode=TVar::kUseAssociated_StableTops; // Look for stable tops
 
  simple_event_record mela_event;
  mela_event.AssociationCode=partIncCode;
  mela_event.nRequested_Tops=nRequested_Tops;
  mela_event.nRequested_Antitops=nRequested_Antitops;
  GetBoostedParticleVectors(
    RcdME->melaCand,
    mela_event,
    verbosity
    );
 
 
  if (topDecay==0 && (mela_event.pStableTops.size()<1 || mela_event.pStableAntitops.size()<1)){
    if (verbosity>=TVar::ERROR) MELAerr
      << "TUtil::TTHiggsMatEl: Number of stable tops (" << mela_event.pStableTops.size() << ")"
      << " and number of stable antitops (" << mela_event.pStableAntitops.size() << ")"
      << " in ttH process are not 1!" << endl;
    return sum_msqjk;
  }
  else if (topDecay>0 && (mela_event.pTopDaughters.size()<1 || mela_event.pAntitopDaughters.size()<1)){
    if (verbosity>=TVar::ERROR) MELAerr
      << "TUtil::TTHiggsMatEl: Number of set of top daughters (" << mela_event.pTopDaughters.size() << ")"
      << " and number of set of antitop daughters (" << mela_event.pAntitopDaughters.size() << ")"
      << " in ttH process are not 1!" << endl;
    return sum_msqjk;
  }
  else if (topDecay>0 && (mela_event.pTopDaughters.at(0).size()!=3 || mela_event.pAntitopDaughters.at(0).size()!=3)){
    if (verbosity>=TVar::ERROR) MELAerr
      << "TUtil::TTHiggsMatEl: Number of top daughters (" << mela_event.pTopDaughters.at(0).size() << ")"
      << " and number of antitop daughters (" << mela_event.pAntitopDaughters.at(0).size() << ")"
      << " in ttH process are not 3!" << endl;
    return sum_msqjk;
  }
 
  SimpleParticleCollection_t topDaughters;
  SimpleParticleCollection_t antitopDaughters;
  bool isUnknown[2]={ true, true };
 
  if (topDecay>0){
    // Daughters are assumed to have been ordered as b, Wf, Wfb already.
    for (unsigned int itd=0; itd<mela_event.pTopDaughters.at(0).size(); itd++) topDaughters.push_back(mela_event.pTopDaughters.at(0).at(itd));
    for (unsigned int itd=0; itd<mela_event.pAntitopDaughters.at(0).size(); itd++) antitopDaughters.push_back(mela_event.pAntitopDaughters.at(0).at(itd));
  }
  else{
    for (unsigned int itop=0; itop<mela_event.pStableTops.size(); itop++) topDaughters.push_back(mela_event.pStableTops.at(itop));
    for (unsigned int itop=0; itop<mela_event.pStableAntitops.size(); itop++) antitopDaughters.push_back(mela_event.pStableAntitops.at(itop));
  }
  // Check if either top is definitely identified
  for (unsigned int itd=0; itd<topDaughters.size(); itd++){ if (!PDGHelpers::isAnUnknownJet(topDaughters.at(itd).first)){ isUnknown[0]=false; break; } }
  for (unsigned int itd=0; itd<antitopDaughters.size(); itd++){ if (!PDGHelpers::isAnUnknownJet(antitopDaughters.at(itd).first)){ isUnknown[1]=false; break; } }
 
  // Start assigning the momenta
  // 0,1: p1 p2
  // 2-4: H,tb,t
  // 5-8: bb,W-,f,fb
  // 9-12: b,W+,fb,f
  double p4[13][4]={ { 0 } };
  double MYIDUP_prod[2]={ 0 };
  TLorentzVector MomStore[mxpart];
  for (int i = 0; i < mxpart; i++) MomStore[i].SetXYZT(0, 0, 0, 0);
  for (int ipar=0; ipar<2; ipar++){
    TLorentzVector* momTmp = &(mela_event.pMothers.at(ipar).second);
    int* idtmp = &(mela_event.pMothers.at(ipar).first);
    if (!PDGHelpers::isAnUnknownJet(*idtmp)) MYIDUP_prod[ipar] = *idtmp;
    else MYIDUP_prod[ipar] = 0;
    if (momTmp->T()>0.){
      p4[ipar][0] = -momTmp->T()*GeV;
      p4[ipar][1] = -momTmp->X()*GeV;
      p4[ipar][2] = -momTmp->Y()*GeV;
      p4[ipar][3] = -momTmp->Z()*GeV;
      MomStore[ipar] = (*momTmp);
    }
    else{
      p4[ipar][0] = momTmp->T()*GeV;
      p4[ipar][1] = momTmp->X()*GeV;
      p4[ipar][2] = momTmp->Y()*GeV;
      p4[ipar][3] = momTmp->Z()*GeV;
      MomStore[ipar] = -(*momTmp);
      MYIDUP_prod[ipar] = -MYIDUP_prod[ipar];
    }
  }
 
  // Assign top momenta
  // t(4) -> b(9) W+(10) (-> f(12) fb(11))
  const unsigned int t_pos=4;
  const unsigned int b_pos=9;
  const unsigned int Wp_pos=10;
  const unsigned int Wpf_pos=12;
  const unsigned int Wpfb_pos=11;
  for (unsigned int ipar=0; ipar<topDaughters.size(); ipar++){
    TLorentzVector* momTmp = &(topDaughters.at(ipar).second);
    if (topDaughters.size()==1){
      p4[t_pos][0] = momTmp->T()*GeV;
      p4[t_pos][1] = momTmp->X()*GeV;
      p4[t_pos][2] = momTmp->Y()*GeV;
      p4[t_pos][3] = momTmp->Z()*GeV;
    }
    // size==3
    else if (ipar==0){ // b
      p4[b_pos][0] = momTmp->T()*GeV;
      p4[b_pos][1] = momTmp->X()*GeV;
      p4[b_pos][2] = momTmp->Y()*GeV;
      p4[b_pos][3] = momTmp->Z()*GeV;
    }
    else if (ipar==2){ // Wfb
      p4[Wpfb_pos][0] = momTmp->T()*GeV;
      p4[Wpfb_pos][1] = momTmp->X()*GeV;
      p4[Wpfb_pos][2] = momTmp->Y()*GeV;
      p4[Wpfb_pos][3] = momTmp->Z()*GeV;
      p4[Wp_pos][0] += p4[Wpfb_pos][0];
      p4[Wp_pos][1] += p4[Wpfb_pos][1];
      p4[Wp_pos][2] += p4[Wpfb_pos][2];
      p4[Wp_pos][3] += p4[Wpfb_pos][3];
    }
    else/* if (ipar==1)*/{ // Wf
      p4[Wpf_pos][0] = momTmp->T()*GeV;
      p4[Wpf_pos][1] = momTmp->X()*GeV;
      p4[Wpf_pos][2] = momTmp->Y()*GeV;
      p4[Wpf_pos][3] = momTmp->Z()*GeV;
      p4[Wp_pos][0] += p4[Wpf_pos][0];
      p4[Wp_pos][1] += p4[Wpf_pos][1];
      p4[Wp_pos][2] += p4[Wpf_pos][2];
      p4[Wp_pos][3] += p4[Wpf_pos][3];
    }
    MomStore[6] = MomStore[6] + (*momTmp); // MomStore (I1, I2, 0, 0, 0, H, J1, J2)
  }
  if (topDaughters.size()!=1){ for (unsigned int ix=0; ix<4; ix++){ for (unsigned int ip=b_pos; ip<=Wp_pos; ip++) p4[t_pos][ix] = p4[ip][ix]; } }
 
  // Assign antitop momenta
  // tb(3) -> bb(5) W-(6) (-> f(7) fb(8))
  const unsigned int tb_pos=3;
  const unsigned int bb_pos=5;
  const unsigned int Wm_pos=6;
  const unsigned int Wmf_pos=7;
  const unsigned int Wmfb_pos=8;
  for (unsigned int ipar=0; ipar<antitopDaughters.size(); ipar++){
    TLorentzVector* momTmp = &(antitopDaughters.at(ipar).second);
    if (antitopDaughters.size()==1){
      p4[tb_pos][0] = momTmp->T()*GeV;
      p4[tb_pos][1] = momTmp->X()*GeV;
      p4[tb_pos][2] = momTmp->Y()*GeV;
      p4[tb_pos][3] = momTmp->Z()*GeV;
    }
    // size==3
    else if (ipar==0){ // bb
      p4[bb_pos][0] = momTmp->T()*GeV;
      p4[bb_pos][1] = momTmp->X()*GeV;
      p4[bb_pos][2] = momTmp->Y()*GeV;
      p4[bb_pos][3] = momTmp->Z()*GeV;
    }
    else if (ipar==1){ // Wf
      p4[Wmf_pos][0] = momTmp->T()*GeV;
      p4[Wmf_pos][1] = momTmp->X()*GeV;
      p4[Wmf_pos][2] = momTmp->Y()*GeV;
      p4[Wmf_pos][3] = momTmp->Z()*GeV;
      p4[Wm_pos][0] += p4[Wmf_pos][0];
      p4[Wm_pos][1] += p4[Wmf_pos][1];
      p4[Wm_pos][2] += p4[Wmf_pos][2];
      p4[Wm_pos][3] += p4[Wmf_pos][3];
    }
    else/* if (ipar==1)*/{ // Wfb
      p4[Wmfb_pos][0] = momTmp->T()*GeV;
      p4[Wmfb_pos][1] = momTmp->X()*GeV;
      p4[Wmfb_pos][2] = momTmp->Y()*GeV;
      p4[Wmfb_pos][3] = momTmp->Z()*GeV;
      p4[Wm_pos][0] += p4[Wmfb_pos][0];
      p4[Wm_pos][1] += p4[Wmfb_pos][1];
      p4[Wm_pos][2] += p4[Wmfb_pos][2];
      p4[Wm_pos][3] += p4[Wmfb_pos][3];
    }
    MomStore[7] = MomStore[7] + (*momTmp); // MomStore (I1, I2, 0, 0, 0, H, J1, J2)
  }
  if (antitopDaughters.size()!=1){ for (unsigned int ix=0; ix<4; ix++){ for (unsigned int ip=5; ip<=6; ip++) p4[tb_pos][ix] = p4[ip][ix]; } }
 
  for (unsigned int ipar=0; ipar<mela_event.pDaughters.size(); ipar++){
    TLorentzVector* momTmp = &(mela_event.pDaughters.at(ipar).second);
    p4[2][0] += momTmp->T()*GeV;
    p4[2][1] += momTmp->X()*GeV;
    p4[2][2] += momTmp->Y()*GeV;
    p4[2][3] += momTmp->Z()*GeV;
    MomStore[5] = MomStore[5] + (*momTmp); // i==(2, 3, 4) is (J1, J2, H), recorded as MomStore (I1, I2, 0, 0, 0, H, J1, J2)
  }
 
  if (verbosity >= TVar::DEBUG){
    for (int ii=0; ii<13; ii++){ MELAout << "p4[" << ii << "] = "; for (int jj=0; jj<4; jj++) MELAout << p4[ii][jj]/GeV << '\t'; MELAout << endl; }
  }
 
  double defaultRenScale = scale_.scale;
  double defaultFacScale = facscale_.facscale;
  int defaultNloop = nlooprun_.nlooprun;
  int defaultNflav = nflav_.nflav;
  string defaultPdflabel = pdlabel_.pdlabel;
  double renQ = InterpretScaleScheme(production, matrixElement, event_scales->renomalizationScheme, MomStore);
  double facQ = InterpretScaleScheme(production, matrixElement, event_scales->factorizationScheme, MomStore);
  SetAlphaS(renQ, facQ, event_scales->ren_scale_factor, event_scales->fac_scale_factor, 1, 5, "cteq6_l");
  double alphasVal, alphasmzVal;
  GetAlphaS(&alphasVal, &alphasmzVal);
  RcdME->setRenormalizationScale(renQ);
  RcdME->setFactorizationScale(facQ);
  RcdME->setAlphaS(alphasVal);
  RcdME->setAlphaSatMZ(alphasmzVal);
  RcdME->setHiggsMassWidth(masses_mcfm_.hmass, masses_mcfm_.hwidth, 0);
  RcdME->setHiggsMassWidth(spinzerohiggs_anomcoupl_.h2mass, spinzerohiggs_anomcoupl_.h2width, 1);
  if (verbosity>=TVar::DEBUG){
    MELAout
      << "TUtil::TTHiggsMatEl: Set AlphaS:\n"
      << "\tBefore set, alphas scale: " << defaultRenScale << ", PDF scale: " << defaultFacScale << '\n'
      << "\trenQ: " << renQ << " ( x " << event_scales->ren_scale_factor << "), facQ: " << facQ << " ( x " << event_scales->fac_scale_factor << ")\n"
      << "\tAfter set, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << ", alphas(Qren): " << alphasVal << ", alphas(MZ): " << alphasmzVal << endl;
  }
 
  __modjhugenmela_MOD_settopdecays(&topDecay);
  /***** BEGIN TTH ME CALCULATION *****/
  for (unsigned int ib1=0; ib1<3; ib1++){
    if (topDaughters.size()==1 && ib1!=0) continue;
    else if (topDaughters.size()==3 && !PDGHelpers::isAnUnknownJet(topDaughters.at(0).first) && ib1!=0) continue;
    unsigned int b1index;
    if (ib1==0) b1index = b_pos;
    else if (ib1==1) b1index = Wpf_pos;
    else b1index = Wpfb_pos;
    for (unsigned int if1=0; if1<3; if1++){
      if (topDaughters.size()==1 && if1!=0) continue;
      else if (topDaughters.size()==3 && !PDGHelpers::isAnUnknownJet(topDaughters.at(1).first) && if1!=0) continue;
      unsigned int f1index;
      if (if1==0) f1index = Wpf_pos;
      else if (if1==2) f1index = b_pos;
      else f1index = Wpfb_pos;
      for (unsigned int ifb1=0; ifb1<3; ifb1++){
        if (topDaughters.size()==1 && ifb1!=0) continue;
        else if (topDaughters.size()==3 && !PDGHelpers::isAnUnknownJet(topDaughters.at(2).first) && ifb1!=0) continue;
        unsigned int fb1index;
        if (ifb1==2) fb1index = Wpf_pos;
        else if (ifb1==1) fb1index = b_pos;
        else fb1index = Wpfb_pos;
 
        if (b1index==f1index || b1index==fb1index || f1index==fb1index) continue;
 
        for (unsigned int ib2=0; ib2<3; ib2++){
          if (antitopDaughters.size()==1 && ib2!=0) continue;
          else if (antitopDaughters.size()==3 && !PDGHelpers::isAnUnknownJet(antitopDaughters.at(0).first) && ib2!=0) continue;
          unsigned int b2index;
          if (ib2==0) b2index = bb_pos;
          else if (ib2==1) b2index = Wmf_pos;
          else b2index = Wmfb_pos;
          for (unsigned int if2=0; if2<3; if2++){
            if (antitopDaughters.size()==1 && if2!=0) continue;
            else if (antitopDaughters.size()==3 && !PDGHelpers::isAnUnknownJet(antitopDaughters.at(1).first) && if2!=0) continue;
            unsigned int f2index;
            if (if2==0) f2index = Wmf_pos;
            else if (if2==2) f2index = bb_pos;
            else f2index = Wmfb_pos;
            for (unsigned int ifb2=0; ifb2<3; ifb2++){
              if (antitopDaughters.size()==1 && ifb2!=0) continue;
              else if (antitopDaughters.size()==3 && !PDGHelpers::isAnUnknownJet(antitopDaughters.at(2).first) && ifb2!=0) continue;
              unsigned int fb2index;
              if (ifb2==2) fb2index = Wmf_pos;
              else if (ifb2==1) fb2index = bb_pos;
              else fb2index = Wmfb_pos;
 
              if (b2index==f2index || b2index==fb2index || f2index==fb2index) continue;
 
              double p4_current[13][4]={ { 0 } };
              for (unsigned int ix=0; ix<4; ix++){
                for (unsigned int ip=0; ip<=2; ip++) p4_current[ip][ix] = p4[ip][ix]; // I1, I2, H do not change.
                p4_current[t_pos][ix] = p4[t_pos][ix]; // t does not change.
                p4_current[b1index][ix] = p4[b_pos][ix]; // Assign b to different position.
                p4_current[f1index][ix] = p4[Wpf_pos][ix]; // Assign Wp->f? to different position.
                p4_current[fb1index][ix] = p4[Wpfb_pos][ix]; // Assign Wp->?fb to different position.
                p4_current[Wp_pos][ix] = p4_current[Wpf_pos][ix] + p4_current[Wpfb_pos][ix]; // Re-sum W+ momentum.
 
                p4_current[tb_pos][ix] = p4[tb_pos][ix]; // tb does not change.
                p4_current[b2index][ix] = p4[bb_pos][ix]; // Assign bb to different position.
                p4_current[f2index][ix] = p4[Wmf_pos][ix]; // Assign Wm->f? to different position.
                p4_current[fb2index][ix] = p4[Wmfb_pos][ix]; // Assign Wm->?fb to different position.
                p4_current[Wm_pos][ix] = p4_current[Wmf_pos][ix] + p4_current[Wmfb_pos][ix]; // Re-sum W- momentum.
              }
              if (verbosity>=TVar::DEBUG){
                MELAout
                  << "TUtil::TTHiggsMatEl: Unswapped instance for "
                  << "b(" << b_pos << ") -> " << b1index << ", "
                  << "Wpf(" << Wpf_pos << ") -> " << f1index << ", "
                  << "Wpfb(" << Wpfb_pos << ") -> " << fb1index << ", "
                  << "bb(" << bb_pos << ") -> " << b2index << ", "
                  << "Wmf(" << Wmf_pos << ") -> " << f2index << ", "
                  << "Wmfb(" << Wmfb_pos << ") -> " << fb2index << endl;
                for (int ii=0; ii<13; ii++){ MELAout << "p4_instance[" << ii << "] = "; for (int jj=0; jj<4; jj++) MELAout << p4_current[ii][jj]/GeV << '\t'; MELAout << endl; }
                MELAout << endl;
              }
 
              double MatElsq_tmp[nmsq][nmsq]={ { 0 } };
              double MatElsq_tmp_swap[nmsq][nmsq]={ { 0 } };
              __modttbhiggs_MOD_evalxsec_pp_ttbh(p4_current, &topProcess, MatElsq_tmp);
              if (isUnknown[0] && isUnknown[1]){
                for (unsigned int ix=0; ix<4; ix++){
                  swap(p4_current[t_pos][ix], p4_current[tb_pos][ix]);
                  swap(p4_current[b_pos][ix], p4_current[bb_pos][ix]);
                  swap(p4_current[Wp_pos][ix], p4_current[Wm_pos][ix]);
                  swap(p4_current[Wpf_pos][ix], p4_current[Wmf_pos][ix]);
                  swap(p4_current[Wpfb_pos][ix], p4_current[Wmfb_pos][ix]);
                }
                __modttbhiggs_MOD_evalxsec_pp_ttbh(p4_current, &topProcess, MatElsq_tmp_swap);
                for (int ix=0; ix<11; ix++){ for (int iy=0; iy<11; iy++) MatElsq_tmp[iy][ix] = (MatElsq_tmp[iy][ix]+MatElsq_tmp_swap[iy][ix])/2.; }
              }
              for (int ix=0; ix<11; ix++){ for (int iy=0; iy<11; iy++) MatElsq[iy][ix] += MatElsq_tmp[iy][ix]; }
              if (verbosity>=TVar::DEBUG){
                MELAout
                  << "TUtil::TTHiggsMatEl: Swapped instance for "
                  << "b(" << b_pos << ") -> " << b1index << ", "
                  << "Wpf(" << Wpf_pos << ") -> " << f1index << ", "
                  << "Wpfb(" << Wpfb_pos << ") -> " << fb1index << ", "
                  << "bb(" << bb_pos << ") -> " << b2index << ", "
                  << "Wmf(" << Wmf_pos << ") -> " << f2index << ", "
                  << "Wmfb(" << Wmfb_pos << ") -> " << fb2index << endl;
                for (int ii=0; ii<13; ii++){ MELAout << "p4_instance[" << ii << "] = "; for (int jj=0; jj<4; jj++) MELAout << p4_current[ii][jj]/GeV << '\t'; MELAout << endl; }
                MELAout << endl;
              }
            } // End loop over ifb2
          } // End loop over if2
        } // End loop over ib2
      } // End loop over ifb1
    } // End loop over if1
  } // End loop over ib1
  /***** END TTH ME CALCULATION *****/
  int defaultTopDecay=-1;
  __modjhugenmela_MOD_settopdecays(&defaultTopDecay); // reset top decay
 
  int GeVexponent_MEsq;
  if (topDecay>0) GeVexponent_MEsq = 4-(1+3*(nRequested_Tops+nRequested_Antitops))*2;
  else GeVexponent_MEsq = 4-(1+nRequested_Tops+nRequested_Antitops)*2;
  double constant = pow(GeV, -GeVexponent_MEsq);
  for (int ii=0; ii<nmsq; ii++){ for (int jj=0; jj<nmsq; jj++) MatElsq[jj][ii] *= constant; }
  if (verbosity>=TVar::DEBUG){
    MELAout << "TUtil::TTHiggsMatEl: MEsq[ip][jp] = " << endl;
    for (int iquark=-5; iquark<=5; iquark++){
      for (int jquark=-5; jquark<=5; jquark++) MELAout << MatElsq[jquark+5][iquark+5] << '\t';
      MELAout << endl;
    }
  }
  sum_msqjk = SumMEPDF(MomStore[0], MomStore[1], MatElsq, RcdME, EBEAM, verbosity);
 
  if (verbosity>=TVar::DEBUG){
    MELAout
      << "TUtil::TTHiggsMatEl: Reset AlphaS:\n"
      << "\tBefore reset, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << endl;
  }
  SetAlphaS(defaultRenScale, defaultFacScale, 1., 1., defaultNloop, defaultNflav, defaultPdflabel);
  if (verbosity>=TVar::DEBUG){
    GetAlphaS(&alphasVal, &alphasmzVal);
    MELAout
      << "TUtil::TTHiggsMatEl: Reset AlphaS result:\n"
      << "\tAfter reset, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << ", alphas(Qren): " << alphasVal << ", alphas(MZ): " << alphasmzVal << endl;
  }
  return sum_msqjk;
}

VHiggsMatEl()

double TUtil::VHiggsMatEl	(	const TVar::Process &	process,
		const TVar::Production &	production,
		const TVar::MatrixElement &	matrixElement,
		TVar::event_scales_type *	event_scales,
		MelaIO *	RcdME,
		const double &	EBEAM,
		bool	includeHiggsDecay,
		TVar::VerbosityLevel	verbosity
	)

Definition at line 6843 of file TUtil.cc.

   {
  const double GeV=1./100.; // JHUGen mom. scale factor
  double sum_msqjk = 0;
  // by default assume only gg productions
  // FOTRAN convention -5    -4   -3  -2    -1  0 1 2 3 4 5
  //     parton flavor bbar cbar sbar ubar dbar g d u s c b
  // C++ convention     0     1   2    3    4   5 6 7 8 9 10
  //2-D matrix is reversed in fortran
  // msq[ parton2 ] [ parton1 ]
  //      flavor_msq[jj][ii] = fx1[ii]*fx2[jj]*msq[jj][ii];
  double MatElsq[nmsq][nmsq]={ { 0 } };
 
  if (matrixElement!=TVar::JHUGen){ if (verbosity>=TVar::ERROR) MELAerr << "TUtil::VHiggsMatEl: Non-JHUGen MEs are not supported" << endl; return sum_msqjk; }
  if (!(production == TVar::Lep_ZH || production == TVar::Lep_WH || production == TVar::Had_ZH || production == TVar::Had_WH || production == TVar::GammaH)){ if (verbosity>=TVar::ERROR) MELAerr << "TUtil::VHiggsMatEl: Production is not supported!" << endl; return sum_msqjk; }
 
  int nRequested_AssociatedJets=0;
  int nRequested_AssociatedLeptons=0;
  int nRequested_AssociatedPhotons=0;
  int AssociationVCompatibility=0;
  int partIncCode=TVar::kNoAssociated; // Just to avoid warnings
  if (production == TVar::Had_ZH || production == TVar::Had_WH){ // Only use associated partons
    partIncCode=TVar::kUseAssociated_Jets;
    nRequested_AssociatedJets=2;
  }
  else if (production == TVar::Lep_ZH || production == TVar::Lep_WH){ // Only use associated leptons(+)neutrinos
    partIncCode=TVar::kUseAssociated_Leptons;
    nRequested_AssociatedLeptons=2;
  }
  else if (production == TVar::GammaH){ // Only use associated photon
    partIncCode=TVar::kUseAssociated_Photons;
    nRequested_AssociatedPhotons=1;
  }
  if (production == TVar::Lep_WH || production == TVar::Had_WH) AssociationVCompatibility=24;
  else if (production == TVar::Lep_ZH || production == TVar::Had_ZH) AssociationVCompatibility=23;
  else if (production == TVar::GammaH) AssociationVCompatibility=22;
  simple_event_record mela_event;
  mela_event.AssociationCode=partIncCode;
  mela_event.AssociationVCompatibility=AssociationVCompatibility;
  mela_event.nRequested_AssociatedJets=nRequested_AssociatedJets;
  mela_event.nRequested_AssociatedLeptons=nRequested_AssociatedLeptons;
  mela_event.nRequested_AssociatedPhotons=nRequested_AssociatedPhotons;
  GetBoostedParticleVectors(
    RcdME->melaCand,
    mela_event,
    verbosity
    );
  if ((mela_event.pAssociated.size()<(unsigned int)(nRequested_AssociatedJets+nRequested_AssociatedLeptons) && production!=TVar::GammaH) || (mela_event.pAssociated.size()<(unsigned int)nRequested_AssociatedPhotons && production == TVar::GammaH)){
    if (verbosity>=TVar::ERROR){
      MELAerr << "TUtil::VHiggsMatEl: Number of associated particles (" << mela_event.pAssociated.size() << ") is less than ";
      if (production!=TVar::GammaH) MELAerr << (nRequested_AssociatedJets+nRequested_AssociatedLeptons);
      else MELAerr << nRequested_AssociatedPhotons;
      MELAerr << endl;
    }
    return sum_msqjk;
  }
 
  int MYIDUP_prod[4]={ 0 }; // "Incoming" partons 1, 2, "outgoing" partons 3, 4
  int MYIDUP_dec[2]={ -9000, -9000 }; // "Outgoing" partons 1, 2 from the Higgs (->bb)
  double p4[9][4] ={ { 0 } };
  double helicities[9] ={ 0 };
  int vh_ids[9] ={ 0 };
  TLorentzVector MomStore[mxpart];
  for (int i = 0; i < mxpart; i++) MomStore[i].SetXYZT(0, 0, 0, 0);
 
  // p4(0:8,i) = (E(i),px(i),py(i),pz(i))
  // i=0,1: q1, qb2 (outgoing convention)
  // i=2,3: V*, V
  // i=4: H
  // i=5,6: f, fb from V
  // i=7,8: b, bb from H
  for (int ipar=0; ipar<2; ipar++){
    TLorentzVector* momTmp = &(mela_event.pMothers.at(ipar).second);
    int* idtmp = &(mela_event.pMothers.at(ipar).first);
    if (!PDGHelpers::isAnUnknownJet(*idtmp)) MYIDUP_prod[ipar] = *idtmp;
    else MYIDUP_prod[ipar] = 0;
    if (momTmp->T()>0.){
      p4[ipar][0] = momTmp->T()*GeV;
      p4[ipar][1] = momTmp->X()*GeV;
      p4[ipar][2] = momTmp->Y()*GeV;
      p4[ipar][3] = momTmp->Z()*GeV;
      MomStore[ipar] = (*momTmp);
    }
    else{
      p4[ipar][0] = -momTmp->T()*GeV;
      p4[ipar][1] = -momTmp->X()*GeV;
      p4[ipar][2] = -momTmp->Y()*GeV;
      p4[ipar][3] = -momTmp->Z()*GeV;
      MomStore[ipar] = -(*momTmp);
      MYIDUP_prod[ipar] = -MYIDUP_prod[ipar];
    }
  }
  // Associated particles
  for (int ipar=0; ipar<(production!=TVar::GammaH ? 2 : 1); ipar++){
    TLorentzVector* momTmp = &(mela_event.pAssociated.at(ipar).second);
    int* idtmp = &(mela_event.pAssociated.at(ipar).first);
    if (!PDGHelpers::isAnUnknownJet(*idtmp)) MYIDUP_prod[ipar+2] = *idtmp;
    else MYIDUP_prod[ipar+2] = 0;
    p4[ipar+5][0] = momTmp->T()*GeV;
    p4[ipar+5][1] = momTmp->X()*GeV;
    p4[ipar+5][2] = momTmp->Y()*GeV;
    p4[ipar+5][3] = momTmp->Z()*GeV;
    MomStore[ipar+6] = (*momTmp);
  }
  if (production == TVar::GammaH) MYIDUP_prod[3]=-9000;
 
  if (PDGHelpers::isAGluon(MYIDUP_prod[0]) || PDGHelpers::isAGluon(MYIDUP_prod[1])){ if (verbosity>=TVar::INFO) MELAerr << "TUtil::VHiggsMatEl: Initial state gluons are not permitted!" << endl; return sum_msqjk; }
  if (PDGHelpers::isAGluon(MYIDUP_prod[2]) || PDGHelpers::isAGluon(MYIDUP_prod[3])){ if (verbosity>=TVar::INFO) MELAerr << "TUtil::VHiggsMatEl: Final state gluons are not permitted!" << endl; return sum_msqjk; }
  if (production == TVar::GammaH && !PDGHelpers::isAPhoton(MYIDUP_prod[2])){ if (verbosity>=TVar::ERROR) MELAerr << "TUtil::VHiggsMatEl: GammaH associated photon (id=" << MYIDUP_prod[2] << ") is not a photon! Please fix its id." << endl; return sum_msqjk; }
 
  // Decay V/f ids
  // MYIDUP_dec as size=2 because JHUGen supports b-bbar decay
  for (int iv=0; iv<2; iv++){
    int idtmp = mela_event.intermediateVid.at(iv);
    if (!PDGHelpers::isAnUnknownJet(idtmp)) MYIDUP_dec[iv] = idtmp;
    else MYIDUP_dec[iv] = 0;
  }
  // Decay daughters
  for (unsigned int ipar=0; ipar<mela_event.pDaughters.size(); ipar++){
    TLorentzVector* momTmp = &(mela_event.pDaughters.at(ipar).second);
    if (mela_event.pDaughters.size()==1){
      p4[ipar+7][0] = momTmp->T()*GeV;
      p4[ipar+7][1] = momTmp->X()*GeV;
      p4[ipar+7][2] = momTmp->Y()*GeV;
      p4[ipar+7][3] = momTmp->Z()*GeV;
      MomStore[5] = (*momTmp); // 5
    }
    else if (mela_event.pDaughters.size()==2){
      p4[ipar+7][0] = momTmp->T()*GeV;
      p4[ipar+7][1] = momTmp->X()*GeV;
      p4[ipar+7][2] = momTmp->Y()*GeV;
      p4[ipar+7][3] = momTmp->Z()*GeV;
      MomStore[2*ipar+2] = (*momTmp); // 2,4
      if (PDGHelpers::isAQuark(mela_event.pDaughters.at(ipar).first)) MYIDUP_dec[ipar]=mela_event.pDaughters.at(ipar).first;
    }
    else if (mela_event.pDaughters.size()==3){
      if (ipar<2){
        p4[7][0] += momTmp->T()*GeV;
        p4[7][1] += momTmp->X()*GeV;
        p4[7][2] += momTmp->Y()*GeV;
        p4[7][3] += momTmp->Z()*GeV;
      }
      else{
        p4[8][0] = momTmp->T()*GeV;
        p4[8][1] = momTmp->X()*GeV;
        p4[8][2] = momTmp->Y()*GeV;
        p4[8][3] = momTmp->Z()*GeV;
      }
      MomStore[ipar+2] = (*momTmp); // 2,3,4
    }
    else if (mela_event.pDaughters.size()==4){
      if (ipar<2){
        p4[7][0] += momTmp->T()*GeV;
        p4[7][1] += momTmp->X()*GeV;
        p4[7][2] += momTmp->Y()*GeV;
        p4[7][3] += momTmp->Z()*GeV;
      }
      else{
        p4[8][0] += momTmp->T()*GeV;
        p4[8][1] += momTmp->X()*GeV;
        p4[8][2] += momTmp->Y()*GeV;
        p4[8][3] += momTmp->Z()*GeV;
      }
      MomStore[ipar+2] = (*momTmp); // 2,3,4,5
    }
    else{ // Should never happen
      p4[7][0] += momTmp->T()*GeV;
      p4[7][1] += momTmp->X()*GeV;
      p4[7][2] += momTmp->Y()*GeV;
      p4[7][3] += momTmp->Z()*GeV;
      MomStore[5] = MomStore[5] + (*momTmp);
    }
  }
  for (int ix=0; ix<4; ix++){
    p4[3][ix] = p4[5][ix] + p4[6][ix];
    p4[4][ix] = p4[7][ix] + p4[8][ix];
    p4[2][ix] = p4[3][ix] + p4[4][ix];
  }
 
  vh_ids[4] = 25;
  if (production == TVar::Lep_ZH || production == TVar::Had_ZH || production == TVar::GammaH) vh_ids[2] = 23;
  else if (production == TVar::Lep_WH || production == TVar::Had_WH) vh_ids[2] = 24; // To be changed later
  if (production!=TVar::GammaH) vh_ids[3] = vh_ids[2]; // To be changed later for WH
  else vh_ids[3] = 22;
 
  // H->ffb decay is turned off, so no need to loop over helicities[7]=helicities[8]=+-1
  vh_ids[7] = 5; helicities[7] = 1;
  vh_ids[8] = -5; helicities[8] = 1;
  int HDKon = 0;
  if (includeHiggsDecay && MYIDUP_dec[0]!=-9000 && MYIDUP_dec[1]!=-9000 && MYIDUP_dec[0]==-MYIDUP_dec[1]){ // H->ffb
    HDKon=1;
    __modjhugenmela_MOD_sethdk(&HDKon);
    if (verbosity>=TVar::DEBUG) MELAout << "TUtil::VHiggsMatEl: HDKon" << endl;
  }
  else if (verbosity>=TVar::INFO && includeHiggsDecay) MELAerr << "TUtil::VHiggsMatEl: includeHiggsDecay=true is not supported for the present decay mode." << endl;
 
  if (verbosity>=TVar::DEBUG){
    for (int i=0; i<9; i++) MELAout << "p4(" << vh_ids[i] << ") = "  << p4[i][0] << ", " <<  p4[i][1] << ", "  <<  p4[i][2] << ", "  <<  p4[i][3] << "\n";
  }
 
  double defaultRenScale = scale_.scale;
  double defaultFacScale = facscale_.facscale;
  int defaultNloop = nlooprun_.nlooprun;
  int defaultNflav = nflav_.nflav;
  string defaultPdflabel = pdlabel_.pdlabel;
  double renQ = InterpretScaleScheme(production, matrixElement, event_scales->renomalizationScheme, MomStore);
  double facQ = InterpretScaleScheme(production, matrixElement, event_scales->factorizationScheme, MomStore);
  SetAlphaS(renQ, facQ, event_scales->ren_scale_factor, event_scales->fac_scale_factor, 1, 5, "cteq6_l");
  double alphasVal, alphasmzVal;
  GetAlphaS(&alphasVal, &alphasmzVal);
  RcdME->setRenormalizationScale(renQ);
  RcdME->setFactorizationScale(facQ);
  RcdME->setAlphaS(alphasVal);
  RcdME->setAlphaSatMZ(alphasmzVal);
  RcdME->setHiggsMassWidth(masses_mcfm_.hmass, masses_mcfm_.hwidth, 0);
  RcdME->setHiggsMassWidth(spinzerohiggs_anomcoupl_.h2mass, spinzerohiggs_anomcoupl_.h2width, 1);
  if (verbosity>=TVar::DEBUG){
    MELAout
      << "TUtil::VHiggsMatEl: Set AlphaS:\n"
      << "\tBefore set, alphas scale: " << defaultRenScale << ", PDF scale: " << defaultFacScale << '\n'
      << "\trenQ: " << renQ << " ( x " << event_scales->ren_scale_factor << "), facQ: " << facQ << " ( x " << event_scales->fac_scale_factor << ")\n"
      << "\tAfter set, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << ", alphas(Qren): " << alphasVal << ", alphas(MZ): " << alphasmzVal << endl;
  }
 
  // Since we have a lot of these checks, do them here.
  bool partonIsKnown[4];
  for (unsigned int ip=0; ip<4; ip++) partonIsKnown[ip] = (MYIDUP_prod[ip]!=0);
  if ((production == TVar::Lep_WH || production == TVar::Lep_ZH || production == TVar::GammaH) && !(partonIsKnown[2] && partonIsKnown[3])){ if (verbosity>=TVar::INFO) MELAerr << "TUtil::VHiggsMatEl: Final state particles in leptonic/photonic VH have to have a definite id!" << endl; return sum_msqjk; }
 
  const double allowed_helicities[2] ={ -1, 1 }; // L,R
  // Setup outgoing H decay products (H->f fbar), templated with H->b bar if both fermions are unknown.
  vector<pair<int, int>> Hffparticles;
  double Hffscale=1;
  if (HDKon!=0){
    if (!PDGHelpers::isAnUnknownJet(MYIDUP_dec[0]) || !PDGHelpers::isAnUnknownJet(MYIDUP_dec[1])){ // If one particle is known, pick that line
      if (!PDGHelpers::isAnUnknownJet(MYIDUP_dec[0])) Hffparticles.push_back(pair<int, int>(MYIDUP_dec[0], -MYIDUP_dec[0]));
      else Hffparticles.push_back(pair<int, int>(-MYIDUP_dec[1], MYIDUP_dec[1]));
    }
    else{ // Else loop over possible quark lines
      double Hffscalesum=0;
      for (int hquark=1; hquark<=5; hquark++){
        double Hffmass = __modparameters_MOD_getmass(&hquark);
        Hffscalesum += Hffmass;
        if (hquark==5){
          Hffparticles.push_back(pair<int, int>(hquark, -hquark));
          Hffparticles.push_back(pair<int, int>(-hquark, hquark));
          Hffscale /= Hffmass;
        }
      }
      Hffscale *= Hffscalesum;
    }
  }
  if (verbosity>=TVar::DEBUG){
    MELAout << "TUtil::VHiggsMatEl: Outgoing H-> f fbar particles to compute for the ME template:" << endl;
    for (unsigned int ihf=0; ihf<Hffparticles.size(); ihf++) MELAout << "\t - (id8, id9) = (" << Hffparticles.at(ihf).first << ", " << Hffparticles.at(ihf).second << ")" << endl;
    MELAout << "TUtil::VHiggsMatEl: ME scale for the H-> f fbar particles: " << Hffscale << endl;
  }
 
  if (production == TVar::Lep_WH || production == TVar::Had_WH){
    // Setup incoming partons
    vector<pair<int, int>> incomingPartons;
    if (partonIsKnown[0] && partonIsKnown[1]) incomingPartons.push_back(pair<int, int>(MYIDUP_prod[0], MYIDUP_prod[1])); // Parton 0 and 1 are both known
    // FIXME: The following 2/1 assignments assume the CKM element for this pair is non-zero (there are divisions by Vckmsq_in/out later on).
    else if (!partonIsKnown[0] && !partonIsKnown[1]){ // Parton 0 and 1 are unknown
      // Consider all 4 incoming cases: d au, au d, u ad, ad u
      incomingPartons.push_back(pair<int, int>(1, -2)); // du~ -> W-
      incomingPartons.push_back(pair<int, int>(-2, 1)); // u~d -> W-
      incomingPartons.push_back(pair<int, int>(2, -1)); // ud~ -> W+
      incomingPartons.push_back(pair<int, int>(-1, 2)); // d~u -> W+
    }
    else if (!partonIsKnown[1] && partonIsKnown[0]){ // Parton 0 is known
      // Consider the only possible general cases
      if (PDGHelpers::isUpTypeQuark(MYIDUP_prod[0])){ // ud~ or u~d
        for (int iqf=1; iqf<=5; iqf++){
          if (iqf%2==0) continue;
          int jqf = -TMath::Sign(iqf, MYIDUP_prod[0]);
          double ckm_test = __modparameters_MOD_ckmbare(&(MYIDUP_prod[0]), &jqf);
          if (ckm_test!=0.){ incomingPartons.push_back(pair<int, int>(MYIDUP_prod[0], jqf)); break; }
        }
      }
      else if (PDGHelpers::isDownTypeQuark(MYIDUP_prod[0])){ // du~ or d~u
        for (int iqf=2; iqf<=4; iqf++){
          if (iqf%2==1) continue;
          int jqf = -TMath::Sign(iqf, MYIDUP_prod[0]);
          double ckm_test = __modparameters_MOD_ckmbare(&(MYIDUP_prod[0]), &jqf);
          if (ckm_test!=0.){ incomingPartons.push_back(pair<int, int>(MYIDUP_prod[0], jqf)); break; }
        }
      }
    }
    else/* if (!partonIsKnown[0] && partonIsKnown[1])*/{ // Parton 1 is known
      // Consider the only possible general cases
      if (PDGHelpers::isUpTypeQuark(MYIDUP_prod[1])){ // ud~ or u~d
        for (int iqf=1; iqf<=5; iqf++){
          if (iqf%2==0) continue;
          int jqf = -TMath::Sign(iqf, MYIDUP_prod[1]);
          double ckm_test = __modparameters_MOD_ckmbare(&jqf, &(MYIDUP_prod[1]));
          if (ckm_test!=0.){ incomingPartons.push_back(pair<int, int>(jqf, MYIDUP_prod[1])); break; }
        }
      }
      else if (PDGHelpers::isDownTypeQuark(MYIDUP_prod[1])){ // du~ or d~u
        for (int iqf=2; iqf<=4; iqf++){
          if (iqf%2==1) continue;
          int jqf = -TMath::Sign(iqf, MYIDUP_prod[1]);
          double ckm_test = __modparameters_MOD_ckmbare(&jqf, &(MYIDUP_prod[1]));
          if (ckm_test!=0.){ incomingPartons.push_back(pair<int, int>(jqf, MYIDUP_prod[1])); break; }
        }
      }
    }
    if (verbosity>=TVar::DEBUG){
      MELAout << "TUtil::VHiggsMatEl: Incoming partons to compute for the ME template:" << endl;
      for (auto& inpart:incomingPartons) MELAout << "\t - (id1, id2) = (" << inpart.first << ", " << inpart.second << ")" << endl;
    }
 
    // Setup outgoing partons
    vector<pair<int, int>> outgoingPartons;
    if (partonIsKnown[2] && partonIsKnown[3]) outgoingPartons.push_back(pair<int, int>(MYIDUP_prod[2], MYIDUP_prod[3])); // Parton 0 and 1 are both known or Lep_WH
    // FIXME: The following 2/1 assignments assume the CKM element for this pair is non-zero (there are divisions by Vckmsq_in/out later on).
    else if (!partonIsKnown[2] && !partonIsKnown[3]){ // Parton 0 and 1 are unknown
      // Consider all 4 outgoing cases: d au, au d, u ad, ad u
      outgoingPartons.push_back(pair<int, int>(1, -2)); // W- -> du~
      outgoingPartons.push_back(pair<int, int>(-2, 1)); // W- -> u~d
      outgoingPartons.push_back(pair<int, int>(2, -1)); // W+ -> ud~
      outgoingPartons.push_back(pair<int, int>(-1, 2)); // W+ -> d~u
    }
    else if (!partonIsKnown[3] && partonIsKnown[2]){ // Parton 0 is known
      // Consider the only possible general cases
      if (PDGHelpers::isUpTypeQuark(MYIDUP_prod[2])){ // ud~ or u~d
        for (int iqf=1; iqf<=5; iqf++){
          if (iqf%2==0) continue;
          int jqf = -TMath::Sign(iqf, MYIDUP_prod[2]);
          double ckm_test = __modparameters_MOD_ckmbare(&(MYIDUP_prod[2]), &jqf);
          if (ckm_test!=0.){ outgoingPartons.push_back(pair<int, int>(MYIDUP_prod[2], jqf)); break; }
        }
      }
      else if (PDGHelpers::isDownTypeQuark(MYIDUP_prod[2])){ // du~ or d~u
        for (int iqf=2; iqf<=4; iqf++){
          if (iqf%2==1) continue;
          int jqf = -TMath::Sign(iqf, MYIDUP_prod[2]);
          double ckm_test = __modparameters_MOD_ckmbare(&(MYIDUP_prod[2]), &jqf);
          if (ckm_test!=0.){ outgoingPartons.push_back(pair<int, int>(MYIDUP_prod[2], jqf)); break; }
        }
      }
    }
    else/* if (!partonIsKnown[2] && partonIsKnown[3])*/{ // Parton 1 is known
      // Consider the only possible general cases
      if (PDGHelpers::isUpTypeQuark(MYIDUP_prod[3])){ // ud~ or u~d
        for (int iqf=1; iqf<=5; iqf++){
          if (iqf%2==0) continue;
          int jqf = -TMath::Sign(iqf, MYIDUP_prod[3]);
          double ckm_test = __modparameters_MOD_ckmbare(&jqf, &(MYIDUP_prod[3]));
          if (ckm_test!=0.){ outgoingPartons.push_back(pair<int, int>(jqf, MYIDUP_prod[3])); break; }
        }
      }
      else if (PDGHelpers::isDownTypeQuark(MYIDUP_prod[3])){ // du~ or d~u
        for (int iqf=2; iqf<=4; iqf++){
          if (iqf%2==1) continue;
          int jqf = -TMath::Sign(iqf, MYIDUP_prod[3]);
          double ckm_test = __modparameters_MOD_ckmbare(&jqf, &(MYIDUP_prod[3]));
          if (ckm_test!=0.){ outgoingPartons.push_back(pair<int, int>(jqf, MYIDUP_prod[3])); break; }
        }
      }
    }
    if (verbosity>=TVar::DEBUG){
      MELAout << "TUtil::VHiggsMatEl: Outgoing particles to compute for the ME template:" << endl;
      for (auto& outpart:outgoingPartons) MELAout << "\t - (id6, id7) = (" << outpart.first << ", " << outpart.second << ")" << endl;
    }
 
    for (auto& inpart:incomingPartons){
      vh_ids[0] = inpart.first;
      vh_ids[1] = inpart.second;
      vh_ids[2] = PDGHelpers::getCoupledVertex(vh_ids[0], vh_ids[1]);
      if (!PDGHelpers::isAWBoson(vh_ids[2])) continue;
      if (verbosity>=TVar::DEBUG) MELAout << "\tIncoming " << vh_ids[0] << "," << vh_ids[1] << " -> " << vh_ids[2] << endl;
 
      double Vckmsq_in = pow(__modparameters_MOD_ckmbare(&(vh_ids[0]), &(vh_ids[1])), 2);
      if (verbosity>=TVar::DEBUG) MELAout << "\tNeed to divide the ME by |VCKM_incoming|**2 = " << Vckmsq_in << endl;
 
      for (auto& outpart:outgoingPartons){
        vh_ids[5] = outpart.first;
        vh_ids[6] = outpart.second;
        vh_ids[3] = PDGHelpers::getCoupledVertex(vh_ids[5], vh_ids[6]);
        if (vh_ids[2]!=vh_ids[3]) continue;
        if (verbosity>=TVar::DEBUG) MELAout << "\t\tOutgoing " << vh_ids[3] << " -> " << vh_ids[5] << "," << vh_ids[6] << endl;
 
        // Compute a raw ME
        double msq=0;
        for (int h01 = 0; h01 < 2; h01++){
          helicities[0] = allowed_helicities[h01];
          helicities[1] = -helicities[0];
          for (int h56 = 0; h56 < 2; h56++){
            helicities[5] = allowed_helicities[h56];
            helicities[6] = -helicities[5];
 
            double msq_inst=0;
            if (HDKon==0) __modvhiggs_MOD_evalamp_vhiggs(vh_ids, helicities, p4, &msq_inst);
            else{
              for (int h78=0; h78<2; h78++){
                helicities[7]=allowed_helicities[h78];
                helicities[8]=allowed_helicities[h78];
                for (unsigned int ihf=0; ihf<Hffparticles.size(); ihf++){
                  vh_ids[7]=Hffparticles.at(ihf).first;
                  vh_ids[8]=Hffparticles.at(ihf).second;
                  double msq_inst_LR=0;
                  __modvhiggs_MOD_evalamp_vhiggs(vh_ids, helicities, p4, &msq_inst_LR);
                  msq_inst += msq_inst_LR;
                } // End loop over template H->f fbar products
              } // End loop over the spin of H->f fbar line
              msq_inst *= Hffscale;
            } // End HDKon!=0
            msq += msq_inst;
          } // End loop over h56
        } // End loop over h01
 
        // Determine the outgoing scale
        double scalesum_out=0;
        if (!(partonIsKnown[2] && partonIsKnown[3])){
          double Vckmsq_out = pow(__modparameters_MOD_ckm(&(vh_ids[5]), &(vh_ids[6])), 2);
          if (verbosity>=TVar::DEBUG) MELAout << "\t\tDividing ME by |VCKM_outgoing|**2 = " << Vckmsq_out << endl;
          msq /= Vckmsq_out;
          for (int outgoing1=1; outgoing1<=nf; outgoing1++){
            if (partonIsKnown[2] && outgoing1!=abs(vh_ids[5])) continue;
            if (outgoing1%2!=abs(vh_ids[5])%2 || outgoing1==6) continue;
            int iout = outgoing1 * TMath::Sign(1, vh_ids[5]);
            for (int outgoing2=1; outgoing2<=nf; outgoing2++){
              if (partonIsKnown[3] && outgoing2!=abs(vh_ids[6])) continue;
              if (outgoing2%2!=abs(vh_ids[6])%2 || outgoing2==6) continue;
              int jout = outgoing2 * TMath::Sign(1, vh_ids[6]);
              scalesum_out += pow(__modparameters_MOD_ckm(&(iout), &(jout)), 2);
            }
          }
        }
        else scalesum_out = 1;
        if (verbosity>=TVar::DEBUG) MELAout << "\t\tScale for outgoing particles: " << scalesum_out << endl;
 
        // Divide ME by the incoming scale factor (will be multiplied again inside the loop)
        if (!partonIsKnown[0] || !partonIsKnown[1]){
          if (verbosity>=TVar::DEBUG) MELAout << "\t\tDividing ME by |VCKM_incoming|**2 = " << Vckmsq_in << endl;
          msq /= Vckmsq_in;
        }
 
        // Sum all possible combinations
        for (int incoming1=1; incoming1<=nf; incoming1++){
          if (partonIsKnown[0] && incoming1!=abs(vh_ids[0])) continue;
          if (incoming1%2!=abs(vh_ids[0])%2 || incoming1==6) continue;
          int iin = incoming1 * TMath::Sign(1, vh_ids[0]);
          for (int incoming2=1; incoming2<=nf; incoming2++){
            if (partonIsKnown[1] && incoming2!=abs(vh_ids[1])) continue;
            if (incoming2%2!=abs(vh_ids[1])%2 || incoming2==6) continue;
            int jin = incoming2 * TMath::Sign(1, vh_ids[1]);
            if (verbosity>=TVar::DEBUG) MELAout << "\t\t\tiin,jin = " << iin << "," << jin << endl;
            double scale_in=1;
            if (!partonIsKnown[0] || !partonIsKnown[1]){
              scale_in = pow(__modparameters_MOD_ckmbare(&(iin), &(jin)), 2);
              if (verbosity>=TVar::DEBUG) MELAout << "\t\tScale for incoming particles: " << scale_in << endl;
            }
            MatElsq[jin+5][iin+5] += msq * 0.25 * scale_in *scalesum_out;
          }
        }
        // msq is now added to MatElSq.
      } // End loop over outgoing particle templates
    } // End loop over incoming parton templates
  } // End WH
  else{ // ZH, GammaH
    // Setup incoming partons
    vector<pair<int, int>> incomingPartons;
    if (partonIsKnown[0] && partonIsKnown[1]) incomingPartons.push_back(pair<int, int>(MYIDUP_prod[0], MYIDUP_prod[1])); // Parton 0 and 1 are both known
    else if (!partonIsKnown[0] && !partonIsKnown[1]){ // Parton 0 and 1 are unknown
      // Consider all 4 incoming cases: d ad, ad d, u au, au u
      incomingPartons.push_back(pair<int, int>(1, -1)); // dd~ -> Z
      incomingPartons.push_back(pair<int, int>(-1, 1)); // d~d -> Z
      incomingPartons.push_back(pair<int, int>(2, -2)); // uu~ -> Z
      incomingPartons.push_back(pair<int, int>(-2, 2)); // u~u -> Z
    }
    else if (!partonIsKnown[1] && partonIsKnown[0]) // Parton 0 is known
      incomingPartons.push_back(pair<int, int>(MYIDUP_prod[0], -MYIDUP_prod[0])); // id1, -id1
    else/* if (!partonIsKnown[0] && partonIsKnown[1])*/ // Parton 1 is known
      incomingPartons.push_back(pair<int, int>(-MYIDUP_prod[1], MYIDUP_prod[1])); // -id2, id2
    if (verbosity>=TVar::DEBUG){
      MELAout << "TUtil::VHiggsMatEl: Incoming partons to compute for the ME template:" << endl;
      for (auto& inpart:incomingPartons) MELAout << "\t - (id1, id2) = (" << inpart.first << ", " << inpart.second << ")" << endl;
    }
 
    // Setup outgoing partons
    vector<pair<int, int>> outgoingPartons;
    if ((partonIsKnown[2] && partonIsKnown[3]) || production == TVar::GammaH) outgoingPartons.push_back(pair<int, int>(MYIDUP_prod[2], MYIDUP_prod[3])); // Parton 0 and 1 are both known or Lep_ZH
    else if (!partonIsKnown[2] && !partonIsKnown[3]){ // Parton 0 and 1 are unknown
      // Consider all 4 outgoing cases: d au, au d, u ad, ad u
      outgoingPartons.push_back(pair<int, int>(1, -1)); // Z -> dd~
      outgoingPartons.push_back(pair<int, int>(-1, 1)); // Z -> d~d
      outgoingPartons.push_back(pair<int, int>(2, -2)); // Z -> uu~
      outgoingPartons.push_back(pair<int, int>(-2, 2)); // Z -> u~u
    }
    else if (!partonIsKnown[3] && partonIsKnown[2]) // Parton 0 is known
      outgoingPartons.push_back(pair<int, int>(MYIDUP_prod[2], -MYIDUP_prod[2])); // id1, -id1
    else/* if (!partonIsKnown[2] && partonIsKnown[3])*/ // Parton 1 is known
      outgoingPartons.push_back(pair<int, int>(-MYIDUP_prod[3], MYIDUP_prod[3])); // -id2, id2
    if (verbosity>=TVar::DEBUG){
      MELAout << "TUtil::VHiggsMatEl: Outgoing particles to compute for the ME template:" << endl;
      for (unsigned int op=0; op<outgoingPartons.size(); op++) MELAout << "\t - (id6, id7) = (" << outgoingPartons.at(op).first << ", " << outgoingPartons.at(op).second << ")" << endl;
    }
 
    for (auto& inpart:incomingPartons){
      vh_ids[0] = inpart.first;
      vh_ids[1] = inpart.second;
      vh_ids[2] = PDGHelpers::getCoupledVertex(vh_ids[0], vh_ids[1]);
      if (!PDGHelpers::isAZBoson(vh_ids[2])) continue; // Notice, Z-> Gamma + H should also have the id of the Z!
      if (verbosity>=TVar::DEBUG) MELAout << "\tIncoming " << vh_ids[0] << "," << vh_ids[1] << " -> " << vh_ids[2] << endl;
 
      // Scale for the incoming state is 1
 
      for (auto& outpart:outgoingPartons){
        vh_ids[5] = outpart.first;
        vh_ids[6] = outpart.second;
        if (production == TVar::GammaH) vh_ids[3] = 22;
        else{
          vh_ids[3] = PDGHelpers::getCoupledVertex(vh_ids[5], vh_ids[6]);
          if (vh_ids[2]!=vh_ids[3]) continue;
        }
        if (verbosity>=TVar::DEBUG) MELAout << "\t\tOutgoing " << vh_ids[3] << " -> " << vh_ids[5] << "," << vh_ids[6] << endl;
 
        // Compute a raw ME
        double msq=0;
        for (int h01 = 0; h01 < 2; h01++){
          helicities[0] = allowed_helicities[h01];
          helicities[1] = -helicities[0];
          for (int h56 = 0; h56 < 2; h56++){
            helicities[5] = allowed_helicities[h56];
            helicities[6] = -helicities[5];
 
            double msq_inst=0;
            if (HDKon==0) __modvhiggs_MOD_evalamp_vhiggs(vh_ids, helicities, p4, &msq_inst);
            else{
              for (int h78=0; h78<2; h78++){
                helicities[7]=allowed_helicities[h78];
                helicities[8]=allowed_helicities[h78];
                for (unsigned int ihf=0; ihf<Hffparticles.size(); ihf++){
                  vh_ids[7]=Hffparticles.at(ihf).first;
                  vh_ids[8]=Hffparticles.at(ihf).second;
                  double msq_inst_LR=0;
                  __modvhiggs_MOD_evalamp_vhiggs(vh_ids, helicities, p4, &msq_inst_LR);
                  msq_inst += msq_inst_LR;
                } // End loop over template H->f fbar products
              } // End loop over the spin of H->f fbar line
              msq_inst *= Hffscale;
            } // End HDKon!=0
            msq += msq_inst;
          } // End loop over h56
        } // End loop over h01
 
        // Determine the outgoing scale
        double scale_out=1;
        if (!partonIsKnown[2] && !partonIsKnown[3] && production!=TVar::GammaH){
          if (PDGHelpers::isDownTypeQuark(vh_ids[5])) scale_out=3;
          else if (PDGHelpers::isUpTypeQuark(vh_ids[5])) scale_out=2;
        }
        if (verbosity>=TVar::DEBUG) MELAout << "\t\tScale for outgoing particles: " << scale_out << endl;
 
        // Sum all possible combinations
        for (int incoming1=1; incoming1<=nf; incoming1++){
          if (partonIsKnown[0] && incoming1!=abs(vh_ids[0])) continue;
          if (incoming1%2!=abs(vh_ids[0])%2 || incoming1==6) continue;
          int iin = incoming1 * TMath::Sign(1, vh_ids[0]);
          int jin=-iin;
          if (verbosity>=TVar::DEBUG) MELAout << "\t\t\tiin,jin = " << iin << "," << jin << endl;
          MatElsq[jin+5][iin+5] += msq * 0.25 * scale_out; // No incoming state scale
        }
        // msq is now added to MatElSq.
      } // End loop over outgoing particle templates
    } // End loop over incoming parton templates
  } // End ZH, GammaH
 
  int GeVexponent_MEsq;
  if (HDKon==0) GeVexponent_MEsq = 4-(1+nRequested_AssociatedJets+nRequested_AssociatedLeptons+nRequested_AssociatedPhotons)*2-4; // Amplitude has additional 1/m**2 from propagator == MEsq has additional 1/m**4
  else GeVexponent_MEsq = 4-(2+nRequested_AssociatedJets+nRequested_AssociatedLeptons+nRequested_AssociatedPhotons)*2;
  double constant = pow(GeV, -GeVexponent_MEsq);
  for (int ii=0; ii<nmsq; ii++){ for (int jj=0; jj<nmsq; jj++) MatElsq[jj][ii] *= constant; }
  if (verbosity >= TVar::DEBUG){
    MELAout << "MatElsq:\n";
    for (int ii = 0; ii < nmsq; ii++){ for (int jj = 0; jj < nmsq; jj++) MELAout << MatElsq[jj][ii] << '\t'; MELAout << endl; }
  }
  sum_msqjk = SumMEPDF(MomStore[0], MomStore[1], MatElsq, RcdME, EBEAM, verbosity);
 
  // Turn H_DK off
  if (HDKon!=0){
    HDKon=0;
    __modjhugenmela_MOD_sethdk(&HDKon);
  }
 
  if (verbosity>=TVar::DEBUG){
    MELAout
      << "TUtil::VHiggsMatEl: Reset AlphaS:\n"
      << "\tBefore reset, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << endl;
  }
  SetAlphaS(defaultRenScale, defaultFacScale, 1., 1., defaultNloop, defaultNflav, defaultPdflabel);
  if (verbosity>=TVar::DEBUG){
    GetAlphaS(&alphasVal, &alphasmzVal);
    MELAout
      << "TUtil::VHiggsMatEl: Reset AlphaS result:\n"
      << "\tAfter reset, alphas scale: " << scale_.scale << ", PDF scale: " << facscale_.facscale << ", alphas(Qren): " << alphasVal << ", alphas(MZ): " << alphasmzVal << endl;
  }
  return sum_msqjk;
}

WipeMEArray()

int TUtil::WipeMEArray	(	const TVar::Process &	process,
		const TVar::Production &	production,
		const int	id[mxpart],
		double	msq[nmsq][nmsq],
		const TVar::VerbosityLevel &	verbosity
	)

Definition at line 7994 of file TUtil.cc.

                                                                                                                                                                     {
  if (verbosity>=TVar::DEBUG){
    MELAout << "TUtil::WipeMEArray: Initial MEsq:" << endl;
    for (int iquark=-5; iquark<=5; iquark++){
      for (int jquark=-5; jquark<=5; jquark++) MELAout << msq[jquark+5][iquark+5] << '\t';
      MELAout << endl;
    }
  }
  int nInstances=0;
  if (
    (production == TVar::ZZINDEPENDENT || production == TVar::ZZQQB)
    ||
    ((production == TVar::ZZQQB_STU || production == TVar::ZZQQB_S || production == TVar::ZZQQB_TU) && process == TVar::bkgZZ)
    ){
    // Sum over valid MEs without PDF weights
    // By far the dominant contribution is uub initial state.
    for (int iquark=-5; iquark<=5; iquark++){
      for (int jquark=-5; jquark<=5; jquark++){
        if (
          (PDGHelpers::isAnUnknownJet(id[0]) || (PDGHelpers::isAGluon(id[0]) && iquark==0) || iquark==id[0])
          &&
          (PDGHelpers::isAnUnknownJet(id[1]) || (PDGHelpers::isAGluon(id[1]) && jquark==0) || jquark==id[1])
          ){
          if (msq[jquark+5][iquark+5]>0.) nInstances++;
        }
        else msq[jquark+5][iquark+5]=0; // Kill the ME instance if mothers are known and their ids do not match the PDF indices.
      }
    }
  }
  else if (production == TVar::ZZGG){
    if (
      (PDGHelpers::isAnUnknownJet(id[0]) || PDGHelpers::isAGluon(id[0]))
      &&
      (PDGHelpers::isAnUnknownJet(id[1]) || PDGHelpers::isAGluon(id[1]))
      ){
      if (msq[5][5]>0.) nInstances=1;
    }
    else msq[5][5]=0; // Kill the ME instance if mothers are known and their ids do not match to gluons.
  }
  else if (
    production == TVar::Had_WH || production == TVar::Had_ZH
    || production == TVar::Had_WH_S || production == TVar::Had_ZH_S
    || production == TVar::Had_WH_TU || production == TVar::Had_ZH_TU
    || production == TVar::Lep_WH || production == TVar::Lep_ZH
    || production == TVar::Lep_WH_S || production == TVar::Lep_ZH_S
    || production == TVar::Lep_WH_TU || production == TVar::Lep_ZH_TU
    || production == TVar::JJVBF || production == TVar::JJEW || production == TVar::JJEWQCD
    || production == TVar::JJVBF_S || production == TVar::JJEW_S || production == TVar::JJEWQCD_S
    || production == TVar::JJVBF_TU || production == TVar::JJEW_TU || production == TVar::JJEWQCD_TU
    || production == TVar::JJQCD || production == TVar::JJQCD_S || production == TVar::JJQCD_TU
    ){
    // Z+2 jets
    if (process == TVar::bkgZJets){
      for (int iquark=-5; iquark<=5; iquark++){
        for (int jquark=-5; jquark<=5; jquark++){
          if (
            (PDGHelpers::isAnUnknownJet(id[0]) || (PDGHelpers::isAGluon(id[0]) && iquark==0) || iquark==id[0])
            &&
            (PDGHelpers::isAnUnknownJet(id[1]) || (PDGHelpers::isAGluon(id[1]) && jquark==0) || jquark==id[1])
            ){
            if (msq[jquark+5][iquark+5]>0.) nInstances++;
          }
          else msq[jquark+5][iquark+5]=0; // Kill the ME instance if mothers are known and their ids do not match the PDF indices.
        }
      }
    }
    // VBF or QCD MCFM SBI, S or B
    else{
      for (int iquark=-5; iquark<=5; iquark++){
        for (int jquark=-5; jquark<=5; jquark++){
          if (
            (
            PDGHelpers::isAnUnknownJet(id[0]) || (PDGHelpers::isAGluon(id[0]) && iquark==0) || iquark==id[0]
            )
            &&
            (
            PDGHelpers::isAnUnknownJet(id[1]) || (PDGHelpers::isAGluon(id[1]) && jquark==0) || jquark==id[1]
            )
            ){
            // Kill all non-VH initial parton states
            if (
              (
              (
              production == TVar::Had_WH || production == TVar::Lep_WH
              || production == TVar::Had_WH_S || production == TVar::Lep_WH_S
              || production == TVar::Had_WH_TU || production == TVar::Lep_WH_TU
              )
              &&
              (
              (TMath::Sign(1, iquark)==TMath::Sign(1, jquark))
              ||
              (PDGHelpers::isUpTypeQuark(iquark) && PDGHelpers::isUpTypeQuark(jquark))
              ||
              (PDGHelpers::isDownTypeQuark(iquark) && PDGHelpers::isDownTypeQuark(jquark))
              )
              )
              ||
              (
              (
              production == TVar::Had_ZH || production == TVar::Lep_ZH
              || production == TVar::Had_ZH_S || production == TVar::Lep_ZH_S
              || production == TVar::Had_ZH_TU || production == TVar::Lep_ZH_TU
              )
              &&
              (iquark!=-jquark)
              )
              ) msq[jquark+5][iquark+5]=0;
 
            // Check against a hash
            int order[2]={ -1, -1 };
            TMCFMUtils::AssociatedParticleOrdering_QQVVQQAny(iquark, jquark, id[6], id[7], order);
            if (order[0]<0 || order[1]<0) msq[jquark+5][iquark+5]=0;
 
            if (msq[jquark+5][iquark+5]>0.) nInstances++;
          }
          else msq[jquark+5][iquark+5]=0; // Kill the ME instance if mothers are known and their ids do not match the PDF indices.
        }
      }
    }
  }
  return nInstances;
}

Variable Documentation

forbidMassiveJets

bool TUtil::forbidMassiveJets = true

Definition at line 28 of file TUtil.cc.

forbidMassiveLeptons

bool TUtil::forbidMassiveLeptons = true

Remove fermion mass if the flag is set to true.

Definition at line 27 of file TUtil.cc.

JetMassScheme

TVar::FermionMassRemoval TUtil::JetMassScheme = TVar::ConserveDifermionMass

Definition at line 30 of file TUtil.cc.

LeptonMassScheme

TVar::FermionMassRemoval TUtil::LeptonMassScheme = TVar::ConserveDifermionMass

Definition at line 29 of file TUtil.cc.