A class for the Wilson coefficients in the THDM. More...

#include <THDMMatching.h>

Inheritance diagram for THDMMatching:

Detailed Description

A class for the Wilson coefficients in the THDM.

Author: HEPfit Collaboration

Copyright: GNU General Public License

At the moment, this includes only the \(B_s\) mass difference and the decay \(B\to \tau \nu\).

Definition at line 24 of file THDMMatching.h.

Public Member Functions
virtual std::vector< WilsonCoefficient > &	CMbsg ()
	operator basis: current current; qcd penguins; magnetic and chromomagnetic penguins; semileptonic More...

virtual std::vector< WilsonCoefficient > &	CMdbs2 ()

virtual std::vector< WilsonCoefficient > &	CMdiujleptonknu (int i, int j, int k)

virtual std::vector< WilsonCoefficient > &	CMgminus2mu ()
	Wilson coefficient for \( (g-2)_{\mu} \). More...

virtual std::vector< WilsonCoefficient > &	CMprimebsg ()
	operator basis: current current; qcd penguins; magnetic and chromomagnetic penguins; semileptonic More...

virtual double	gminus2muLO ()
	Calculates amplitudes for \( (g-2)_{\mu} \) at one loop from [Broggio:2014mna]. More...

virtual double	gminus2muNLO ()
	Calculates amplitudes for \( (g-2)_{\mu} \) at approximate two-loop from [Broggio:2014mna]. More...

double	setWCbsg (int i, double tan, double mt, double mhp, double mu, orders order)

	THDMMatching (const THDM &THDM_i)

Public Member Functions inherited from StandardModelMatching
virtual std::vector< WilsonCoefficient > &	CMdbd2 ()
	\( \Delta B = 2 \), \( B_{d} \) More...

virtual std::vector< WilsonCoefficient > &	CMdd2 ()
	\( \Delta C = 2 \), More...

	StandardModelMatching (const StandardModel &SM_i)

void	updateSMParameters ()
	Updates to new Standard Model parameter sets. More...

virtual	~StandardModelMatching ()

Public Member Functions inherited from ModelMatching
virtual std::vector< WilsonCoefficient > &	CMBMll (QCD::lepton lepton)=0

virtual std::vector< WilsonCoefficient > &	CMbnlep (int a)=0

virtual std::vector< WilsonCoefficient > &	CMbnlepCC (const int a)=0

virtual std::vector< WilsonCoefficient > &	CMBXsnn (QCD::lepton lepton)=0

virtual std::vector< WilsonCoefficient > &	CMd1 ()=0

virtual std::vector< WilsonCoefficient > &	CMd1Buras ()=0

virtual std::vector< WilsonCoefficientNew > &	CMDF1 (std::string blocks, unsigned int nops)=0

virtual std::vector< WilsonCoefficient > &	CMprimeBMll (QCD::lepton lepton)=0

virtual	~ModelMatching ()

Private Attributes
double	CWbsgArrayLO [8]

double	CWbsgArrayNLO [8]

double	CWbsgArrayNNLO [8]

WilsonCoefficient	mcbsg

WilsonCoefficient	mcbtaunu

WilsonCoefficient	mcdbs2

WilsonCoefficient	mcgminus2mu

WilsonCoefficient	mcprimebsg

double	mhpbsg

double	mtbsg

double	mubsg

gslpp::matrix< gslpp::complex >	myCKM

const THDM &	myTHDM

double	tanbsg

Constructor & Destructor Documentation

◆ THDMMatching()

THDMMatching::THDMMatching ( const THDM & THDM_i )

Definition at line 15 of file THDMMatching.cpp.

                                              :
 
    StandardModelMatching(THDM_i),
    myTHDM(THDM_i),
    myCKM(3, 3, 0.),
    mcdbs2(5, NDR, NLO),
    mcbtaunu(5, NDR, LO),
    mcbsg(8, NDR, NNLO),
    mcprimebsg(8, NDR, NNLO),
    mcgminus2mu(2,NDR,NLO)
{}

Member Function Documentation

◆ CMbsg()

std::vector< WilsonCoefficient > & THDMMatching::CMbsg ( )

virtual

operator basis: current current; qcd penguins; magnetic and chromomagnetic penguins; semileptonic

Returns: THDM Wilson coefficients, Misiak basis, for \( B \rightarrow X_{s} \gamma, l^{+} l^{-} \)

Implements ModelMatching.

Definition at line 97 of file THDMMatching.cpp.

{    
    double Muw = myTHDM.getMuw();
    
    double Mut = myTHDM.getMut();
    double mt = myTHDM.Mrun(Mut, myTHDM.getQuarks(QCD::TOP).getMass_scale(), 
                        myTHDM.getQuarks(QCD::TOP).getMass(), QCD::TOP, FULLNNLO);
    double mHp=myTHDM.getmHp();
    
    double tanb = myTHDM.gettanb();
    
    gslpp::complex co = 1.; // (- 4. * GF / sqrt(2)) * SM.computelamt_s(); THIS SHOULD ALREADY BE IMPLEMENTED IN THE OBSERVABLE 
    
    vmcbsg = StandardModelMatching::CMbsg();
    mcbsg.setMu(Muw);
    
    switch (mcbsg.getOrder()) {
        case NNLO:
            for (int j=0; j<8; j++){
            mcbsg.setCoeff(j, co * myTHDM.Alstilde5(Muw) * myTHDM.Alstilde5(Muw) * setWCbsg(j, tanb, mt, mHp, Muw, NNLO), NNLO);
            }
        case NLO:
            for (int j=0; j<8; j++){
            mcbsg.setCoeff(j, co * myTHDM.Alstilde5(Muw) * setWCbsg(j, tanb, mt, mHp, Muw, NLO), NLO);
            }
        case LO:
            for (int j=0; j<8; j++){
            mcbsg.setCoeff(j, co * setWCbsg(j, tanb, mt, mHp, Muw, LO), LO);
            }
            break;
        default:
            std::stringstream out;
            out << mcbsg.getOrder();
            throw std::runtime_error("THDMMatching::CMbsg(): order " + out.str() + "not implemented"); 
    }
    
    vmcbsg.push_back(mcbsg);
    return(vmcbsg);
}

◆ CMdbs2()

std::vector< WilsonCoefficient > & THDMMatching::CMdbs2 ( )

virtual

Returns: THDM Wilson coefficients for \( B_s \to \bar{B_s}\) according to [Geng:1988bq], [Deschamps:2009rh]

Reimplemented from StandardModelMatching.

Definition at line 27 of file THDMMatching.cpp.

                                                   {
 
    double Mut = myTHDM.getMut();
    double xt = x_t(Mut);
    double GF=myTHDM.getGF();
    double MW=myTHDM.Mw();
    gslpp::complex co = GF / 4. / M_PI * MW * myTHDM.getCKM().computelamt_s();
    double tanb = myTHDM.gettanb();
    double mHp2=myTHDM.getmHp2();
    double xHW=mHp2/(MW*MW);
    double xtH=xt/xHW;
    double SWH=xtH*((2.0*xHW-8.0)*log(xtH)/((1.0-xHW)*(1.0-xtH)*(1.0-xtH))+6.0*xHW*log(xt)/((1.0-xHW)*(1.0-xt)*(1.0-xt))-(8.0-2.0*xt)/((1.0-xt)*(1.0-xtH)))/(tanb*tanb);
    double SHH=xtH*((1.0+xtH)/((1.0-xtH)*(1.0-xtH))+2.0*xtH*log(xtH)/((1.0-xtH)*(1.0-xtH)*(1.0-xtH)))/(tanb*tanb*tanb*tanb);
 
    vmcds = StandardModelMatching::CMdbs2();
    mcdbs2.setMu(Mut);
 
    switch (mcdbs2.getOrder()) {
        case NNLO:
        case NLO:
        case LO:
            mcdbs2.setCoeff(0, co * co * xt * (SWH+SHH), LO);
            break;
        default:
            std::stringstream out;
            out << mcdbs2.getOrder();
            throw std::runtime_error("THDMMatching::CMdbs2(): order " + out.str() + "not implemented");
    }
 
    vmcds.push_back(mcdbs2);
    return(vmcds);
}

◆ CMdiujleptonknu()

std::vector< WilsonCoefficient > & THDMMatching::CMdiujleptonknu	(	int	i,
		int	j,
		int	k
	)

virtual

Returns: THDM Wilson coefficient for \( B \to \tau \nu \) from [Hou:1992sy]

Definition at line 60 of file THDMMatching.cpp.

                                                                               {
 
    double Muw = myTHDM.getMuw();
    double GF = myTHDM.getGF();
    myCKM = myTHDM.getVCKM();
    double mB;
    double tanb = myTHDM.gettanb();
    double mHp2=myTHDM.getmHp2();
 
    vmculeptonnu = StandardModelMatching::CMdiujleptonknu(i,j,k);
    mcbtaunu.setMu(Muw);
 
    switch (mcbtaunu.getOrder()) {
        case NNLO:
        case NLO:
        case LO:
            if (i == 2 && j == 0 && k == 2) {
                mB = myTHDM.getMesons(QCD::B_P).getMass();
                mcbtaunu.setCoeff(0, -4.*GF * myCKM(0,2) / sqrt(2.) * mB*mB*tanb*tanb/mHp2, LO);
            }
            else if (i == 2 && j == 1 && k == 2) {
                mB = myTHDM.getMesons(QCD::B_C).getMass();
                mcbtaunu.setCoeff(0, -4.*GF * myCKM(1,2) / sqrt(2.) * mB*mB*tanb*tanb/mHp2, LO);
            }
            else std::runtime_error("THDMMatching::CMbtaunu(): flavour indices not implemented");
            break;
        default:
            std::stringstream out;
            out << mcbtaunu.getOrder();
            throw std::runtime_error("THDMMatching::CMbtaunu(): order " + out.str() + "not implemented");
    }
 
    vmculeptonnu.push_back(mcbtaunu);
    return(vmculeptonnu);
 
}

◆ CMgminus2mu()

std::vector< WilsonCoefficient > & THDMMatching::CMgminus2mu ( )

virtual

Wilson coefficient for \( (g-2)_{\mu} \).

Returns: \( (g-2)_{\mu} \) at NLO

Definition at line 640 of file THDMMatching.cpp.

                                                        {
 
    vmcgminus2mu = StandardModelMatching::CMgminus2mu();
 
    double gminus2muLOvalue=gminus2muLO();
    double gminus2muNLOvalue=gminus2muNLO();
 
    switch (mcgminus2mu.getOrder()) {
        case LO:
            mcgminus2mu.setCoeff(0, gminus2muLOvalue, LO);  //g-2_muR
            mcgminus2mu.setCoeff(1, 0., LO);  //g-2_muL
            break;
        case NLO:
            mcgminus2mu.setCoeff(0, gminus2muLOvalue+gminus2muNLOvalue, NLO);  //g-2_muR
            mcgminus2mu.setCoeff(1, 0., NLO);  //g-2_muL
            break;
        case NNLO:
        default:
            std::stringstream out;
            out << mcgminus2mu.getOrder();
            throw std::runtime_error("THDMMatching::CMgminus2mu(): order " + out.str() + " not implemented.\nOnly leading order (LO) or next-to-leading order (NLO) are allowed.");
    }
 
    vmcgminus2mu.push_back(mcgminus2mu);
    return(vmcgminus2mu);
 
}

◆ CMprimebsg()

std::vector< WilsonCoefficient > & THDMMatching::CMprimebsg ( )

virtual

operator basis: current current; qcd penguins; magnetic and chromomagnetic penguins; semileptonic

Returns: Wilson coefficients, Misiak basis, for \( B \rightarrow X_{s} \gamma, l^{+} l^{-} \)

Implements ModelMatching.

Definition at line 138 of file THDMMatching.cpp.

{    
    double Muw = myTHDM.getMuw();
    
    vmcprimebsg = StandardModelMatching::CMprimebsg();
    mcprimebsg.setMu(Muw);
    
    switch (mcprimebsg.getOrder()) {
        case NNLO:
            for (int j=0; j<8; j++){
            mcprimebsg.setCoeff(j, 0., NNLO);//* CHECK ORDER *//
            }
        case NLO:
            for (int j=0; j<8; j++){
            mcprimebsg.setCoeff(j, 0., NLO);//* CHECK ORDER *//
            }
        case LO:
            for (int j=0; j<8; j++){
            mcprimebsg.setCoeff(j, 0., LO);
            }
            break;
        default:
            std::stringstream out;
            out << mcprimebsg.getOrder();
            throw std::runtime_error("THDMMatching::CMprimebsg(): order " + out.str() + "not implemented"); 
    }
    
    vmcprimebsg.push_back(mcprimebsg);
    return(vmcprimebsg);
}

◆ gminus2muLO()

double THDMMatching::gminus2muLO ( )

virtual

Calculates amplitudes for \( (g-2)_{\mu} \) at one loop from [Broggio:2014mna].

Calculates the muon g-2 at LO

Returns: \( (g-2)_{\mu} \) at LO

Definition at line 419 of file THDMMatching.cpp.

                                 {
 
    double gminus2muLO;
    
    double pi=M_PI;
    double GF=myTHDM.getGF();
    double mMU=myTHDM.getLeptons(StandardModel::MU).getMass();
    std::string modelflag=myTHDM.getModelTypeflag();
    double mHl2=myTHDM.getmHl2();
    double mHh2=myTHDM.getmHh2();
    double mA2=myTHDM.getmA2();
    double mHp2=myTHDM.getmHp2();
    double tanb=myTHDM.gettanb();
    double sinb=tanb/sqrt(1.0+tanb*tanb);
    double cosb=1.0/sqrt(1.0+tanb*tanb);
    double bma=myTHDM.getbma();
    double sina=sinb*cos(bma)-cosb*sin(bma);
    double cosa=cosb*cos(bma)+sinb*sin(bma);
 
    double ymu_h, ymu_H, ymu_A;
    double rmu_hSM, rmu_h, rmu_H, rmu_A, rmu_Hp;
    double part_hSM, part_h, part_H, part_A, part_Hp;
 
    if( modelflag == "type1" ) {
        ymu_h=cosa/sinb;
        ymu_H=sina/sinb;
        ymu_A=-1.0/tanb;
    }
    else if( modelflag == "type2" ) {
        ymu_h=-sina/cosb;
        ymu_H=cosa/cosb;
        ymu_A=tanb;
    }
    else if( modelflag == "typeX" ) {
        ymu_h=-sina/cosb;
        ymu_H=cosa/cosb;
        ymu_A=tanb;
    }
    else if( modelflag == "typeY" ) {
        ymu_h=cosa/sinb;
        ymu_H=sina/sinb;
        ymu_A=-1.0/tanb;
    }
    else {
        throw std::runtime_error("modelflag can be only any of \"type1\", \"type2\", \"typeX\" or \"typeY\"");
    }
    
    if( mHl2<1.0 || mHh2<1.0 || mA2<1.0 || mHp2<1.0)
    {
        throw std::runtime_error("The implemented approximation for g-2_\\mu only works for Higgs masses above 1 GeV.");
    }
    rmu_hSM=mMU*mMU/15647.5081;
    rmu_h=mMU*mMU/mHl2;
    rmu_H=mMU*mMU/mHh2;
    rmu_A=mMU*mMU/mA2;
    rmu_Hp=mMU*mMU/mHp2;
 
    //https://arxiv.org/pdf/1409.3199.pdf
    
    part_hSM=rmu_hSM*(-7.0/6.0-log(rmu_hSM));
    part_h=ymu_h*ymu_h*rmu_h*(-7.0/6.0-log(rmu_h));
    part_H=ymu_H*ymu_H*rmu_H*(-7.0/6.0-log(rmu_H));
    part_A=ymu_A*ymu_A*rmu_A*(11.0/6.0+log(rmu_A));
    part_Hp=-ymu_A*ymu_A*rmu_Hp*1.0/6.0;
 
    gminus2muLO=GF*mMU*mMU/(4.0*pi*pi*sqrt(2.0)) * (-part_hSM+part_h+part_H+part_A+part_Hp);
 
    return(gminus2muLO);
}

◆ gminus2muNLO()

double THDMMatching::gminus2muNLO ( )

virtual

Calculates amplitudes for \( (g-2)_{\mu} \) at approximate two-loop from [Broggio:2014mna].

Calculates the NLO contribution to the muon g-2

Returns: \( (g-2)_{\mu} \) at LO

Definition at line 546 of file THDMMatching.cpp.

                                  {
 
    double gminus2muNLO;
 
    double pi=M_PI;
    double GF=myTHDM.getGF();
    double aem=myTHDM.getAle();
    double mMU=myTHDM.getLeptons(StandardModel::MU).getMass();
    double mTAU=myTHDM.getLeptons(StandardModel::TAU).getMass();
    double mt=myTHDM.getQuarks(QCD::TOP).getMass();
    double mb=myTHDM.getQuarks(QCD::BOTTOM).getMass();
    std::string modelflag=myTHDM.getModelTypeflag();
    double mHl2=myTHDM.getmHl2();
    double mHh2=myTHDM.getmHh2();
    double mA2=myTHDM.getmA2();
    double mHp2=myTHDM.getmHp2();
    double tanb=myTHDM.gettanb();
    double sinb=tanb/sqrt(1.0+tanb*tanb);
    double cosb=1.0/sqrt(1.0+tanb*tanb);
    double bma=myTHDM.getbma();
    double sina=sinb*cos(bma)-cosb*sin(bma);
    double cosa=cosb*cos(bma)+sinb*sin(bma);
 
    double ymu_h, ymu_H, ymu_A, yb_h, yb_H, yb_A, yt_h, yt_H, yt_A;
    double rtau_hSM, rtau_h, rtau_H, rtau_A, rt_hSM, rt_h, rt_H, rt_A, rb_hSM, rb_h, rb_H, rb_A;
    double part_hSM, part_h, part_H, part_A;
 
        yt_h=cosa/sinb;
        yt_H=sina/sinb;
        yt_A=1.0/tanb;
 
    if( modelflag == "type1" ) {
        ymu_h=cosa/sinb;
        ymu_H=sina/sinb;
        ymu_A=-1.0/tanb;
        yb_h=ymu_h;
        yb_H=ymu_H;
        yb_A=ymu_A;
    }
    else if( modelflag == "type2" ) {
        ymu_h=-sina/cosb;
        ymu_H=cosa/cosb;
        ymu_A=tanb;
        yb_h=ymu_h;
        yb_H=ymu_H;
        yb_A=ymu_A;
    }
    else if( modelflag == "typeX" ) {
        ymu_h=-sina/cosb;
        ymu_H=cosa/cosb;
        ymu_A=tanb;
        yb_h=yt_h;
        yb_H=yt_H;
        yb_A=-yt_A;
    }
    else if( modelflag == "typeY" ) {
        ymu_h=cosa/sinb;
        ymu_H=sina/sinb;
        ymu_A=-1.0/tanb;
        yb_h=-sina/cosb;
        yb_H=cosa/cosb;
        yb_A=tanb;
    }
    else {
        throw std::runtime_error("modelflag can be only any of \"type1\", \"type2\", \"typeX\" or \"typeY\"");
    }
    
    if( mHl2<mMU*mMU || mHh2<mMU*mMU || mA2<mMU*mMU || mHp2<mMU*mMU)
    {
        throw std::runtime_error("The implemented two-loop approximation for g-2_\\mu only works for Higgs masses above m_mu^2.");
    }
    rtau_hSM=mTAU*mTAU/15647.5081;
    rtau_h=mTAU*mTAU/mHl2;
    rtau_H=mTAU*mTAU/mHh2;
    rtau_A=mTAU*mTAU/mA2;
    rt_hSM=mt*mt/15647.5081;
    rt_h=mt*mt/mHl2;
    rt_H=mt*mt/mHh2;
    rt_A=mt*mt/mA2;
    rb_hSM=mb*mb/15647.5081;
    rb_h=mb*mb/mHl2;
    rb_H=mb*mb/mHh2;
    rb_A=mb*mb/mA2;
 
    part_hSM=rtau_hSM*gscalar(rtau_hSM)+(4.0/3.0)*rt_hSM*gscalar(rt_hSM)+(1.0/3.0)*rb_hSM*gscalar(rb_hSM);
    part_h=ymu_h*(ymu_h*rtau_h*gscalar(rtau_h)+(4.0/3.0)*yt_h*rt_h*gscalar(rt_h)+(1.0/3.0)*yb_h*rb_h*gscalar(rb_h));
    part_H=ymu_H*(ymu_H*rtau_H*gscalar(rtau_H)+(4.0/3.0)*yt_H*rt_H*gscalar(rt_H)+(1.0/3.0)*yb_H*rb_H*gscalar(rb_H));
    part_A=ymu_A*(ymu_A*rtau_A*gpseudoscalar(rtau_A)+(4.0/3.0)*yt_A*rt_A*gpseudoscalar(rt_A)+(1.0/3.0)*yb_A*rb_A*gpseudoscalar(rb_A));
 
    gminus2muNLO=GF*mMU*mMU/(4.0*pi*pi*pi*sqrt(2.0)) * aem * (-part_hSM+part_h+part_H+part_A);
 
    return(gminus2muNLO);
}

◆ setWCbsg()

double THDMMatching::setWCbsg	(	int	i,
		double	tan,
		double	mt,
		double	mhp,
		double	mu,
		orders	order
	)

Parameters

i	int, flag for the caching
tan	\( \tan(\beta) \)
mt	top mass
mhp	charged Higgs mass
mu	matching scale
order

Returns: return the value of the wilson coefficients for \( B \rightarrow X_{s} \gamma, l^{+} l^{-} \)

Definition at line 175 of file THDMMatching.cpp.

{  
    if ( tanbsg == tan && mtbsg == mt  && mhpbsg == mhp && mubsg == mu){
        switch (order){
        case NNLO:
            return ( CWbsgArrayNNLO[i] );
        case NLO:
            return ( CWbsgArrayNLO[i] );
            break;
        case LO:
            return ( CWbsgArrayLO[i] );
            break;
        default:
            std::stringstream out;
            out << order;
            throw std::runtime_error("order" + out.str() + "not implemeted"); 
        }
    }
    
    tanbsg = tan; mtbsg = mt; mhpbsg = mhp; mubsg = mu;
    
    double x = mt*mt/mhp/mhp;
    
    double x2 = x*x;
    double x3 = x2*x;
    double x4 = x3*x;
    double x5 = x4*x;
    double xm = 1. - x;
    double xm2 = xm*xm;
    double xm3 = xm2*xm;
    double xm4 = xm3*xm;
    double xm6 = xm4*xm2;
    double xm8 = xm4*xm4;
    double xo = 1. - 1./x;
    double xo2 = xo*xo;
    double xo4 = xo*xo2*xo;
    double xo6 = xo4*xo2;
    double xo8 = xo4*xo4;
    double Lx = log(x);
    double Lx2 = Lx*Lx;
    double Lx3 = Lx2*Lx;
    double tan2 = tan*tan;
    double Li2 = gsl_sf_dilog(1.-1./x);
    
    double lstmu = 2. * log(mu/mt);
    
    double n70ct = - ( (7. - 5.*x - 8.*x2)/(36.*xm3) + (2.*x - 3.*x2)*Lx/(6.*xm4) ) * x/2.;
    double n70fr = ( (3.*x - 5.*x2)/(6.*xm2) + (2.*x - 3.*x2)*Lx/(3.*xm3) ) / 2.;
    
    double n80ct = - ( (2. + 5.*x - x2)/(12.*xm3) + (x*Lx)/(2.*xm4) ) * x/2.;
    double n80fr = ( (3.*x - x2)/(2.*xm2) + (x*Lx)/xm3 ) / 2.;
    
    double n41ct = (-16.*x + 29.*x2 - 7.*x3)/(36.*xm3) + (-2.*x + 3.*x2)*Lx/(6.*xm4);
    
    
    double n71ct = (797.*x - 5436.*x2 + 7569.*x3 - 1202.*x4)/(486.*xm4) + 
                    (36.*x2 - 74.*x3 + 16.*x4)*Li2/(9.*xm4) + 
                    ((7.*x - 463.*x2 + 807.*x3 - 63.*x4)*Lx)/(81.*xm3*xm2);
    double cd71ct = (-31.*x - 18.*x2 + 135.*x3 - 14.*x4)/(27.*xm4) + (-28.*x2 + 46.*x3 + 6.*x4)*Lx/(9.*xm3*xm2);
    double n71fr = (28.*x - 52.*x2 + 8.*x3)/(3.*xm3) + (-48.*x + 112.*x2 - 32.*x3)*Li2/(9.*xm3) + 
                    (66.*x - 128.*x2 + 14.*x3)*Lx/(9.*xm4);
    double cd71fr = (42.*x - 94.*x2 + 16.*x3)/(9.*xm3) + (32.*x - 56.*x2 - 12.*x3)*Lx/(9.*xm4);
    
    double n81ct = (1130.*x - 18153.*x2 + 7650.*x3 - 4451.*x4)/(1296.*xm4) + 
                    (30.*x2 - 17.*x3 + 13.*x4)*Li2/(6.*xm4) + 
                    (-2.*x - 2155.*x2 + 321.*x3 - 468.*x4)*Lx/(216.*xm3*xm2);
    double cd81ct = (-38.*x - 261.*x2 + 18.*x3 - 7.*x4)/(36.*xm4) + (-31.*x2 - 17.*x3)*Lx/(6.*xm3*xm2);
    double n81fr = (143.*x - 44.*x2 + 29.*x3)/(8.*xm3) + (-36.*x + 25.*x2 - 17.*x3)*Li2/(6.*xm3) + 
                    (165.*x - 7.*x2 + 34.*x3)*Lx/(12.*xm4);
    double cd81fr = (81.*x - 16.*x2 + 7.*x3)/(6.*xm3) + (19.*x + 17.*x2)*Lx/(3.*xm4);
    
    double n32ct = (10.*x4 + 30.*x2 - 20.*x)/(27.*xm4) * Li2 + 
                    (30.*x3 - 66.*x2 - 56.*x)/(81.*xm4) * Lx + (6.*x3 - 187.*x2 + 213.*x)/(-81.*xm3);
    double cd32ct = (-30.*x2 + 20.*x)/(27.*xm4)*Lx + (-35.*x3 + 145.*x2 - 80.*x)/(-81.*xm3);
    
    double n42ct = (515.*x4 - 906.*x3 + 99.*x2 + 182.*x)/(54.*xm4) * Li2 + 
                    (1030.*x4 - 2763.*x3 - 15.*x2 + 980.*x)/(-108.*xm3*xm2)*Lx + 
                    (-29467.*x4 + 68142.*x3 - 6717.*x2 - 18134.*x)/(1944.*xm4);
    double cd42ct = (-375.*x3 - 95.*x2 + 182.*x)/(-54.*xm3*xm2)*Lx + 
                    (133.*x4 - 108.*x3 + 4023.*x2 - 2320.*x)/(324.*xm4);
    
    double cd72ct = -(x * (67930.*x4 - 470095.*x3 + 1358478.*x2 - 700243.*x + 54970.))/(-2187.*xm3*xm2) + 
                    (x * (10422.*x4 - 84390.*x3 + 322801.*x2 - 146588.*x + 1435.))/(729.*xm6)*Lx +
                    (2.*x2 * (260.*x3 - 1515.*x2 + 3757.*x - 1446.))/(-27. * xm3*xm2) * Li2;
    double ce72ct = (x * (-518.*x4 + 3665.*x3 - 17397.*x2 + 3767.*x + 1843.))/(-162.*xm3*xm2) +
                    (x2 * (-63.*x3 + 532.*x2 + 2089.*x - 1118.))/(27.*xm6)*Lx;
    double cd72fr = -(x * (3790.*x3 - 22511.*x2 + 53614.*x - 21069.))/(81.*xm4) -
                    (2.*x * (-1266.*x3 + 7642.*x2 - 21467.*x + 8179.))/(-81.*xm3*xm2)*Lx +
                    (8.*x * (139.*x3 - 612.*x2 + 1103.*x - 342.))/(27.*xm4) * Li2;
    double ce72fr = -(x * (284.*x3 - 1435.*x2 + 4304.*x - 1425.))/(27.*xm4) -
                    (2.*x * (63.*x3 - 397.*x2 - 970.*x + 440.))/(-27.*xm3*xm2)*Lx;
 
    double cd82ct = -(x * (522347.*x4 - 2423255.*x3 + 2706021.*x2 - 5930609.*x + 148856))/(-11664.*xm3*xm2) + 
                    (x * (51948.*x4 - 233781.*x3 + 48634.*x2 - 698693.*x + 2452.))/(1944.*xm6)*Lx + 
                    (x2 * (481.*x3 - 1950.*x2 + 1523.*x - 2550.))/(-18.*xm3*xm2) * Li2;
    double ce82ct = (x * (-259.*x4 + 1117.*x3 + 2925.*x2 + 28411.*x + 2366.))/(-216.*xm3*xm2) -
                    (x2 * (139.*x2 + 2938.*x + 2683.))/(36.*xm6)*Lx;
    double cd82fr = -(x * (1463.*x3 - 5794.*x2 + 5543.*x - 15036.))/(27.*xm4) - 
                    (x * (-1887.*x3 + 7115.*x2 + 2519.*x + 19901.))/(-54.*xm3*xm2)*Lx -
                    (x * (-629.*x3 + 2178.*x2 - 1729.*x + 2196.))/(18.*xm4) * Li2;
    double ce82fr = -(x * (259.*x3 - 947.*x2 - 251.*x - 5973.))/(36.*xm4)-
                    (x * (139.*x2 + 2134.*x + 1183.))/(-18.*xm3*xm2)*Lx;
    
    double n72ct = 0.;
    if (mhp < 50.) 
        n72ct = -274.2/x5 - 72.13*Lx/x5 + 24.41/x4 - 168.3*Lx/x4 + 79.15/x3 - 
                103.8*Lx/x3 + 47.09/x2 - 38.12*Lx/x2 + 15.35/x - 8.753*Lx/x + 3.970;
    else if (mhp < mt)
        n72ct = 1.283 + 0.7158 * xo + 0.4119 * xo2 + 0.2629 * xo*xo2 + 0.1825 * xo4 + 
                0.1347 * xo*xo4 + 0.1040 * xo6 + 0.0831 * xo*xo6 + 0.06804 * xo8 + 
                0.05688 * xo*xo8 + 0.04833 * xo2*xo8 + 0.04163 * xo*xo2*xo8 + 0.03625 * xo4*xo8 + 
                0.03188 * xo*xo4*xo8 + 0.02827 * xo6*xo8 + 0.02525 * xo*xo6*xo8 + 0.02269 * xo8*xo8;
    else if (mhp < 520.)
        n72ct = 1.283 - 0.7158 * xm - 0.3039 * xm2 - 0.1549 * xm3 - 0.08625 * xm4 - 
                0.05020 * xm3*xm2 - 0.02970 * xm6 - 0.01740 * xm3*xm4 - 0.009752 * xm8 - 
                0.004877 * xm3*xm6 - 0.001721 * xm2*xm8 + 0.0003378 * xm3*xm8 + 0.001679 * xm4*xm8 + 
                0.002542 * xm*xm4*xm8 + 0.003083 * xm6*xm8 + 0.003404 * xm*xm6*xm8 + 0.003574 * xm8*xm8;
    else n72ct = -823.0*x5 + 42.30*x5*Lx3 - 412.4*x5*Lx2 - 3362*x5*Lx -
                1492*x4 - 23.26*x4*Lx3 - 541.4*x4*Lx2 - 2540*x4*Lx -
                1158*x3 - 34.50*x3*Lx3 - 348.2*x3*Lx2 - 1292*x3*Lx -
                480.9*x2 - 20.73*x2*Lx3 - 112.4*x2*Lx2 - 396.1*x2*Lx -
                8.278*x + 0.9225*x*Lx2 + 4.317*x*Lx;
    
    double n72fr = 0.;
    if (mhp < 50.) 
        n72fr = -( 194.3/x5 + 101.1*Lx/x5 - 24.97/x4 + 168.4*Lx/x4 - 78.90/x3 + 
                106.2*Lx/x3 - 49.32/x2 + 38.43*Lx/x2 - 12.91/x + 9.757*Lx/x + 8.088 );
    else if (mhp < mt)
        n72fr = -( 12.82 - 1.663 * xo - 0.8852 * xo2 - 0.4827 * xo*xo2 - 0.2976 * xo4 - 
                0.2021 * xo*xo4 - 0.1470 * xo6 - 0.1125 * xo*xo6 - 0.08931 * xo8 - 
                0.07291 * xo*xo8 - 0.06083 * xo2*xo8 - 0.05164 * xo*xo2*xo8 - 0.04446 * xo4*xo8 - 
                0.03873 * xo*xo4*xo8 - 0.03407 * xo6*xo8 - 0.03023 * xo*xo6*xo8 - 0.02702 * xo8*xo8 );
    else if (mhp < 400.)
        n72fr = -( 12.82 + 1.663 * xm + 0.7780 * xm2 + 0.3755 * xm3 + 0.1581 * xm4 + 
                0.03021 * xm3*xm2 - 0.04868 * xm6 - 0.09864 * xm3*xm4 - 0.1306 * xm8 - 
                0.1510 * xm3*xm6 - 0.1637 * xm2*xm8 - 0.1712 * xm3*xm8 - 0.1751 * xm4*xm8 - 
                0.1766 * xm*xm4*xm8 - 0.1763 * xm6*xm8 - 0.1748 * xm*xm6*xm8 - 0.1724 * xm8*xm8 );
    else n72fr = -( 2828 * x5 - 66.63 * x5*Lx3 + 469.4 * x5*Lx2 + 1986 * x5*Lx + 
                1480 * x4 + 36.08 * x4*Lx3 + 323.2 * x4*Lx2 + 169.9 * x4*Lx + 
                166.7 * x3 + 19.73 * x3*Lx3 - 46.61 * x3*Lx2 - 826.2 * x3*Lx - 
                524.1 * x2 - 8.889 * x2*Lx3 - 195.7 * x2*Lx2 - 870.3 * x2*Lx - 
                572.2 * x - 20.94 * x*Lx3 - 123.5 * x*Lx2 - 453.5 * x*Lx );
    
    double n82ct = 0.;
    if (mhp < 50.) 
        n82ct = 826.2/x5 - 300.7*Lx/x5 + 96.35/x4 + 91.89*Lx/x4 - 66.39/x3 +
                78.58*Lx/x3 - 39.76/x2 + 20.02*Lx/x2 - 5.214/x + 2.278;
    else if (mhp < mt)
        n82ct = 1.188 + 0.4078 * xo + 0.2002 * xo2 + 0.1190 * xo*xo2 + 0.07861 * xo4 + 
                0.05531 * xo*xo4 + 0.04061 * xo6 + 0.03075 * xo*xo6 + 0.02386 * xo8 + 
                0.01888 * xo*xo8 + 0.01520 * xo2*xo8 + 0.01241 * xo*xo2*xo8 + 0.01026 * xo4*xo8 + 
                0.008575 * xo*xo4*xo8 + 0.007238 * xo6*xo8 + 0.006164 * xo*xo6*xo8 + 0.005290 * xo8*xo8;
    else if (mhp < 600.)
        n82ct = 1.188 - 0.4078 * xm - 0.2076 * xm2 - 0.1265 * xm3 - 0.08570 * xm4 -
                0.06204 * xm3*xm2 - 0.04689 * xm6 - 0.03652 * xm3*xm4 - 0.02907 * xm8 -
                0.02354 * xm3*xm6 - 0.01933 * xm2*xm8 - 0.01605 * xm3*xm8 - 0.01345 * xm4*xm8 -
                0.01137 * xm*xm4*xm8 - 0.009678 * xm6*xm8 - 0.008293 * xm*xm6*xm8 - 0.007148 * xm8*xm8;
    else n82ct = -19606 * x5 - 226.7 * x5*Lx3 - 5251 * x5*Lx2 - 26090 * x5*Lx - 
                9016 * x4 - 143.4 * x4*Lx3 - 2244 * x4*Lx2 - 10102 * x4*Lx - 
                3357 * x3 - 66.32 * x3*Lx3 - 779.6 * x3*Lx2 - 3077 * x3*Lx - 
                805.5 * x2 - 22.98 * x2*Lx3 - 169.1 * x2*Lx2 - 602.7 * x2*Lx + 
                0.7437  * x + 0.6908 * x*Lx2 + 3.238 * x*Lx;
    
    double n82fr = 0.;
    if (mhp < 50.) 
        n82fr = -( -1003/x5 + 476.9*Lx/x5 - 205.7/x4 - 71.62*Lx/x4 + 62.26/x3 -
                110.7*Lx/x3 + 63.74/x2 - 35.42*Lx/x2 + 10.89/x - 3.174 );
    else if (mhp < mt)
        n82fr = -( -0.6110 - 1.095 * xo - 0.4463 * xo2 - 0.2568 * xo*xo2 - 0.1698 * xo4 - 
                0.1197 * xo*xo4 - 0.08761 * xo6 - 0.06595 * xo*xo6 - 0.05079 * xo8 - 
                0.03987 * xo*xo8 - 0.03182 * xo2*xo8 - 0.02577 * xo*xo2*xo8 - 0.02114 * xo4*xo8 - 
                0.01754 * xo*xo4*xo8 - 0.01471 * xo6*xo8 - 0.01244 * xo*xo6*xo8 - 0.01062 * xo8*xo8 );
    else if (mhp < 520.)
        n82fr = -( -0.6110 + 1.095 * xm + 0.6492 * xm2 + 0.4596 * xm3 + 0.3569 * xm4 +
                0.2910 * xm3*xm2 + 0.2438 * xm6 + 0.2075 * xm3*xm4 + 0.1785 * xm8 +
                0.1546 * xm3*xm6 + 0.1347 * xm2*xm8 + 0.1177 * xm3*xm8 + 0.1032 * xm4*xm8 +
                0.09073 * xm*xm4*xm8 + 0.07987 * xm6*xm8 + 0.07040 * xm*xm6*xm8 + 0.06210 * xm8*xm8 );
    else n82fr = -( -15961 * x5 + 1003 * x5*Lx3 - 2627 * x5*Lx2 - 29962 * x5*Lx - 
                11683 * x4 + 54.66 * x4*Lx3 - 2777 * x4*Lx2 - 17770 * x4*Lx - 
                6481 * x3 - 40.68 * x3*Lx3 - 1439 * x3*Lx2 - 7906 * x3*Lx - 
                2943 * x2 - 31.83 * x2*Lx3 - 612.6 * x2*Lx2 - 2770 * x2*Lx -
                929.8 * x - 19.80 * x*Lx3 - 174.7 * x*Lx2 - 658.4 * x*Lx );
        
    
    switch (order){
        case NNLO:
            CWbsgArrayNNLO[2] = ( n32ct + cd32ct * lstmu ) / tan2;
            CWbsgArrayNNLO[3] = ( n42ct + cd42ct * lstmu ) / tan2;
            CWbsgArrayNNLO[4] = 2./15. * n41ct / tan2 - CWbsgArrayNNLO[2] / 10.;
            CWbsgArrayNNLO[5] = 1./4. * n41ct / tan2 - CWbsgArrayNNLO[2] * 3./16.;
            CWbsgArrayNNLO[6] = ( n72ct + cd72ct * lstmu + ce72ct * lstmu * lstmu)/tan2 +
                                n72fr + cd72fr * lstmu + ce72fr * lstmu * lstmu
                     - 1./3.*CWbsgArrayNNLO[2] - 4./9.*CWbsgArrayNNLO[3] - 20./3.*CWbsgArrayNNLO[4] - 80./9.*CWbsgArrayNNLO[5];
            CWbsgArrayNNLO[7] = ( n82ct + cd82ct * lstmu + ce82ct * lstmu * lstmu)/tan2 + 
                                n82fr + cd82fr * lstmu + ce82fr * lstmu * lstmu
                    + CWbsgArrayNNLO[2] - 1./6.*CWbsgArrayNNLO[3] - 20.*CWbsgArrayNNLO[4] - 10./3.*CWbsgArrayNNLO[5];
        case NLO:
            CWbsgArrayNLO[3] = n41ct / tan2;
            CWbsgArrayNLO[6] = ( n71ct + cd71ct * lstmu ) / tan2 + n71fr + cd71fr * lstmu  - 4./9.*CWbsgArrayNLO[3];
            CWbsgArrayNLO[7] = ( n81ct + cd81ct * lstmu ) / tan2 + n81fr + cd81fr * lstmu  - 1./6.*CWbsgArrayNLO[3];
        case LO:
            CWbsgArrayLO[6] = n70ct /tan2 + n70fr ;
            CWbsgArrayLO[7] = n80ct /tan2 + n80fr ;
            break;
        default:
            std::stringstream out;
            out << order;
            throw std::runtime_error("order" + out.str() + "not implemeted"); 
            }
    
    /*std::cout << "CWbsgArrayLO[6] = " << CWbsgArrayLO[6] << std::endl;
    std::cout << "CWbsgArrayLO[7] = " << CWbsgArrayLO[7] << std::endl << std::endl;
    std::cout << "CWbsgArrayNLO[3] = " << CWbsgArrayNLO[3] << std::endl;
    std::cout << "CWbsgArrayNLO[6] = " << CWbsgArrayNLO[6] << std::endl;
    std::cout << "CWbsgArrayNLO[7] = " << CWbsgArrayNLO[7] << std::endl << std::endl;
    std::cout << "CWbsgArrayNNLO[2] = " << CWbsgArrayNNLO[2] << std::endl;
    std::cout << "CWbsgArrayNNLO[3] = " << CWbsgArrayNNLO[3] << std::endl;
    std::cout << "CWbsgArrayNNLO[4] = " << CWbsgArrayNNLO[4] << std::endl;
    std::cout << "CWbsgArrayNNLO[5] = " << CWbsgArrayNNLO[5] << std::endl;
    std::cout << "CWbsgArrayNNLO[6] = " << CWbsgArrayNNLO[6] << std::endl;
    std::cout << "CWbsgArrayNNLO[7] = " << CWbsgArrayNNLO[7] << std::endl << std::endl;*/
    
    
    switch (order){
        case NNLO:
            return ( CWbsgArrayNNLO[i] );
        case NLO:
            return ( CWbsgArrayNLO[i] );
            break;
        case LO:
            return ( CWbsgArrayLO[i] );
            break;
        default:
            std::stringstream out;
            out << order;
            throw std::runtime_error("order" + out.str() + "not implemeted"); 
        }
}

Member Data Documentation

◆ CWbsgArrayLO

double THDMMatching::CWbsgArrayLO[8]

private

Definition at line 91 of file THDMMatching.h.

◆ CWbsgArrayNLO

double THDMMatching::CWbsgArrayNLO[8]

private

Definition at line 91 of file THDMMatching.h.

◆ CWbsgArrayNNLO

double THDMMatching::CWbsgArrayNNLO[8]

private

Definition at line 91 of file THDMMatching.h.

◆ mcbsg

WilsonCoefficient THDMMatching::mcbsg

private

Definition at line 89 of file THDMMatching.h.

◆ mcbtaunu

WilsonCoefficient THDMMatching::mcbtaunu

private

Definition at line 89 of file THDMMatching.h.

◆ mcdbs2

WilsonCoefficient THDMMatching::mcdbs2

private

Definition at line 89 of file THDMMatching.h.

◆ mcgminus2mu

WilsonCoefficient THDMMatching::mcgminus2mu

private

Definition at line 89 of file THDMMatching.h.

◆ mcprimebsg

WilsonCoefficient THDMMatching::mcprimebsg

private

Definition at line 89 of file THDMMatching.h.

◆ mhpbsg

double THDMMatching::mhpbsg

private

Definition at line 92 of file THDMMatching.h.

◆ mtbsg

double THDMMatching::mtbsg

private

Definition at line 92 of file THDMMatching.h.

◆ mubsg

double THDMMatching::mubsg

private

Definition at line 92 of file THDMMatching.h.

◆ myCKM

gslpp::matrix<gslpp::complex> THDMMatching::myCKM

private

Definition at line 88 of file THDMMatching.h.

◆ myTHDM

const THDM& THDMMatching::myTHDM

private

Definition at line 87 of file THDMMatching.h.

◆ tanbsg

double THDMMatching::tanbsg

private

Definition at line 92 of file THDMMatching.h.

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

Detailed Description

Public Member Functions

Private Attributes

Constructor & Destructor Documentation

◆ THDMMatching()

Member Function Documentation

◆ CMbsg()

◆ CMdbs2()

◆ CMdiujleptonknu()

◆ CMgminus2mu()

◆ CMprimebsg()

◆ gminus2muLO()

◆ gminus2muNLO()

◆ setWCbsg()

Member Data Documentation

◆ CWbsgArrayLO

◆ CWbsgArrayNLO

◆ CWbsgArrayNNLO

◆ mcbsg

◆ mcbtaunu

◆ mcdbs2

◆ mcgminus2mu

◆ mcprimebsg

◆ mhpbsg

◆ mtbsg

◆ mubsg

◆ myCKM

◆ myTHDM

◆ tanbsg