# This file was automatically created by FeynRules $Revision: 535 $
# Mathematica version: 7.0 for Mac OS X x86 (64-bit) (November 11, 2008)
# Date: Fri 18 Mar 2011 18:40:51

from __future__ import absolute_import
from .object_library import all_CTparameters, CTParameter
from .function_library import complexconjugate, re, im, csc, sec, acsc, asec

################
# R2 vertices  #
################

# ========= #
# Pure QCD  #
# ========= #

RGR2 = CTParameter(name = 'RGR2',
              type = 'real',
              value = {0:'-(3.0/2.0)*G**4/(96.0*cmath.pi**2)'},
              texname = 'RGR2')

# ============== #
# Mixed QCD-QED  #
# ============== #

R2MixedFactor = CTParameter(name = 'R2MixedFactor',
              type = 'real',
              value = {0:'-(G**2*(1.0+lhv)*(Ncol**2-1.0))/(2.0*Ncol*16.0*cmath.pi**2)'},
              texname = 'R2MixedFactor')

################
# UV vertices  #
################

# ========= #
# Pure QCD  #
# ========= #

G_UVg = CTParameter(name = 'G_UVg',
                    type = 'real',
                    value = {-1:'-((G**2)/(2.0*48.0*cmath.pi**2))*11.0*CA'},
                    texname = '\delta Gg')

G_UVq = CTParameter(name = 'G_UVq',
                    type = 'real',
                    value = {-1:'((G**2)/(2.0*48.0*cmath.pi**2))*4.0*TF'},
                    texname = '\delta Gq')

G_UVc = CTParameter(name = 'G_UVc',
                    type = 'real',
                    value = {-1:'((G**2)/(2.0*48.0*cmath.pi**2))*4.0*TF',
                              0:'cond(MC,0.0,-((G**2)/(2.0*48.0*cmath.pi**2))*4.0*TF*reglog(MC**2/MU_R**2))'},
                    texname = '\delta Gc')

G_UVb = CTParameter(name = 'G_UVb',
                    type = 'real',
                    value = {-1:'((G**2)/(2.0*48.0*cmath.pi**2))*4.0*TF',
                              0:'cond(MB,0.0,-((G**2)/(2.0*48.0*cmath.pi**2))*4.0*TF*reglog(MB**2/MU_R**2))'},
                    texname = '\delta Gb')

G_UVt = CTParameter(name = 'G_UVt',
                    type = 'real',
                    value = {-1:'((G**2)/(2.0*48.0*cmath.pi**2))*4.0*TF',
                              0:'cond(MT,0.0,-((G**2)/(2.0*48.0*cmath.pi**2))*4.0*TF*reglog(MT**2/MU_R**2))'},
                    texname = '\delta Gt')

GWcft_UV_c = CTParameter(name = 'GWcft_UV_c',
                         type = 'real',
                         value = {-1:'cond(MC,0.0,-((G**2)/(2.0*48.0*cmath.pi**2))*4.0*TF)',
                                   0:'cond(MC,0.0,((G**2)/(2.0*48.0*cmath.pi**2))*4.0*TF*reglog(MC**2/MU_R**2))'
                                 },
                         texname = '\delta G_{wfct\_c}')

GWcft_UV_b = CTParameter(name = 'GWcft_UV_b',
                         type = 'real',
                         value = {-1:'cond(MB,0.0,-((G**2)/(2.0*48.0*cmath.pi**2))*4.0*TF)',
                                   0:'cond(MB,0.0,((G**2)/(2.0*48.0*cmath.pi**2))*4.0*TF*reglog(MB**2/MU_R**2))'
                                 },
                         texname = '\delta G_{wfct\_b}')

GWcft_UV_t = CTParameter(name = 'GWcft_UV_t',
                         type = 'real',
                         value = {-1:'cond(MT,0.0,-((G**2)/(2.0*48.0*cmath.pi**2))*4.0*TF)',
                                   0:'cond(MT,0.0,((G**2)/(2.0*48.0*cmath.pi**2))*4.0*TF*reglog(MT**2/MU_R**2))'
                                 },
                         texname = '\delta G_{wfct\_t}')

cWcft_UV = CTParameter(name = 'cWcft_UV',
                       type = 'real',
                       value = {-1:'cond(MC,0.0,-((G**2)/(2.0*16.0*cmath.pi**2))*3.0*CF)',
                                 0:'cond(MC,0.0,-((G**2)/(2.0*16.0*cmath.pi**2))*CF*(4.0-3.0*reglog(MC**2/MU_R**2)))'
                               },
                       texname = '\delta Z_c')

bWcft_UV = CTParameter(name = 'bWcft_UV',
                       type = 'real',
                       value = {-1:'cond(MB,0.0,-((G**2)/(2.0*16.0*cmath.pi**2))*3.0*CF)',
                                 0:'cond(MB,0.0,-((G**2)/(2.0*16.0*cmath.pi**2))*CF*(4.0-3.0*reglog(MB**2/MU_R**2)))'
                               },
                       texname = '\delta Z_b')

tWcft_UV = CTParameter(name = 'tWcft_UV',
                       type = 'real',
                       value = {-1:'cond(MT,0.0,-((G**2)/(2.0*16.0*cmath.pi**2))*3.0*CF)',
                                 0:'cond(MT,0.0,-((G**2)/(2.0*16.0*cmath.pi**2))*CF*(4.0-3.0*reglog(MT**2/MU_R**2)))'
                               },
                       texname = '\delta Z_t')

bMass_UV = CTParameter(name = 'bMass_UV',
                       type = 'complex',
                       value = {-1:'cond(MB,0.0,complex(0,1)*((G**2)/(16.0*cmath.pi**2))*(3.0*CF)*MB)',
                                 0:'cond(MB,0.0,complex(0,1)*((G**2)/(16.0*cmath.pi**2))*CF*(4.0-3.0*reglog(MB**2/MU_R**2))*MB)'
                               },
                       texname = '\delta m_b')

cMass_UV = CTParameter(name = 'cMass_UV',
                       type = 'complex',
                       value = {-1:'cond(MC,0.0,complex(0,1)*((G**2)/(16.0*cmath.pi**2))*(3.0*CF)*MC)',
                                 0:'cond(MC,0.0,complex(0,1)*((G**2)/(16.0*cmath.pi**2))*CF*(4.0-3.0*reglog(MC**2/MU_R**2))*MC)'
                               },
                       texname = '\delta m_c')

tMass_UV = CTParameter(name = 'tMass_UV',
                       type = 'complex',
                       value = {-1:'cond(MT,0.0,complex(0,1)*((G**2)/(16.0*cmath.pi**2))*3.0*CF*MT)',
                                 0:'cond(MT,0.0,complex(0,1)*((G**2)/(16.0*cmath.pi**2))*CF*(4.0-3.0*reglog(MT**2/MU_R**2))*MT)'
                               },
                       texname = '\delta m_t')

# ============== #
# Mixed QCD-QED  #
# ============== #

UV_yuk_c = CTParameter(name = 'UV_yuk_c',
                       type = 'real',
                       value = {-1:'-(1.0/2.0)*((G**2)/(16.0*cmath.pi**2))*3.0*CF*2.0',
                                 0:'cond(MC,0.0,-(1.0/2.0)*((G**2)/(16.0*cmath.pi**2))*CF*(-3.0*reglog(MC**2/MU_R**2)+4.0)*2.0)'
                               },
                       texname = '\delta y_c')

UV_yuk_b = CTParameter(name = 'UV_yuk_b',
                       type = 'real',
                       value = {-1:'-(1.0/2.0)*((G**2)/(16.0*cmath.pi**2))*3.0*CF*2.0',
                                 0:'cond(MB,0.0,-(1.0/2.0)*((G**2)/(16.0*cmath.pi**2))*CF*(-3.0*reglog(MB**2/MU_R**2)+4.0)*2.0)'
                               },
                       texname = '\delta y_b')

UV_yuk_t = CTParameter(name = 'UV_yuk_t',
                       type = 'real',
                       value = {-1:'-(1.0/2.0)*((G**2)/(16.0*cmath.pi**2))*3.0*CF*2.0',
                                 0:'cond(MT,0.0,-(1.0/2.0)*((G**2)/(16.0*cmath.pi**2))*CF*(-3.0*reglog(MT**2/MU_R**2)+4.0)*2.0)'
                               },
                       texname = '\delta y_t')

# ============================== #
# Goldstone UV CT parameters     #
# ============================== #

R2_GGGpGm_factor = CTParameter(name = 'R2_GGGpGm_factor',
              type = 'real',
              value = {0:'G**2/(8.0*cmath.pi**2)'},
              texname = 'R2_GGGpGm_factor')

R2_GGG0G0_factor = CTParameter(name = 'R2_GGG0G0_factor',
              type = 'real',
              value = {0:'G**2/(8.0*cmath.pi**2)'},
              texname = 'R2_GGG0G0_factor')
