PostProcessing { 
  { Name postProc_getdpThermal; NameOfFormulation getdpThermal_formulation; NameOfSystem resol_getdpThermal; 
    PostQuantity { 
      { Name temp ; Value { 
      	Term { [ { T } ] ;  In Region[{Vol_The}] ; Jacobian JVol ; }
        } }
      { Name tempTest ; Value { 
      	Term { [ { T } ] ;  In Region[{Vol_The}] ; Jacobian JVol ; }
        } }
      { Name temperature ; Value { 
      	Term { [ { T } ] ;  In Region[{Vol_The}] ; Jacobian JVol ; }
        } }
    } 
  } 
} 
PostProcessing { 
  { Name postProc_getdpEMGeneral2D; NameOfFormulation getdpEMGeneral2D_formulation; NameOfSystem resol_getdpEMGeneral2D; 
    PostQuantity { 
      { Name Bfield ; Value { 
      	Term { [ Norm[ {d a} ] ] ;  In Region[{non_conducting_domain, conducting_domain, source_domain, stranded_source_domain}] ; Jacobian JVol ; }
        } }
      { Name Bfield_im ; Value { 
      	Term { [ Im[{d a}] ] ;  In Region[{non_conducting_domain, conducting_domain, source_domain, stranded_source_domain}] ; Jacobian JVol ; }
        } }
      { Name Bfield_re ; Value { 
      	Term { [ Re[{d a}] ] ;  In Region[{non_conducting_domain, conducting_domain, source_domain, stranded_source_domain}] ; Jacobian JVol ; }
        } }
      { Name CurrDens ; Value { 
      	Term { [ Norm[sigma[<T>[{T}]]*(Dt[{a}]+{ur}/GeomCoeff[])]  ] ;  In Region[{conducting_domain, source_domain}] ; Jacobian JVol ; }
       	Term { [ Nc[]/area[]*Norm[{istr}]  ] ;  In Region[{stranded_source_domain}] ; Jacobian JVol ; }
        } }
      { Name CurrDens_im ; Value { 
      	Term { [ -Im[sigma[<T>[{T}]]*(Dt[{a}]+{ur}/GeomCoeff[])] ] ;  In Region[{conducting_domain, source_domain}] ; Jacobian JVol ; }
       	Term { [ -Nc[]/area[]*Im [{istr}] ] ;  In Region[{stranded_source_domain}] ; Jacobian JVol ; }
        } }
      { Name CurrDens_re ; Value { 
      	Term { [ -Re[sigma[<T>[{T}]]*(Dt[{a}]+{ur}/GeomCoeff[])]   ] ;  In Region[{conducting_domain, source_domain}] ; Jacobian JVol ; }
       	Term { [ -Nc[]/area[]*Re [{istr}] ] ;  In Region[{stranded_source_domain}] ; Jacobian JVol ; }
        } }
      { Name Jheat ; Value { 
      	Term { [ 0.5*Norm[sigma[<T>[{T}]]*(Dt[{a}]+{ur}/GeomCoeff[])*(Dt[{a}]+{ur}/GeomCoeff[])]  ] ;  In Region[{conducting_domain, source_domain}] ; Jacobian JVol ; }
       	Term { [ 0.5*SquNorm[Nc[]*{istr}/area[]]/(FillFactor[]*sigma[<T>[{T}]])  ] ;  In Region[{stranded_source_domain}] ; Jacobian JVol ; }
        } }
      { Name JheatSurfIntegral ; Value { 
      	Integral { [ 0.5 * GeomCoeff[] * Re[Complex[1,1]* Sqrt[3.14*Freq/(nu_nu0[]*sigma[<T>[{T}]])]] * SquNorm[1/(Complex[1,1]* Sqrt[3.14*Freq/(nu_nu0[]*sigma[<T>[{T}]])]) *  (Dt[{a}]+{ur})] ] ;  In Region[{Sur_SIBC_B}] ; Jacobian JSur ; Integration I1; }
        } }
      { Name SurfCurrDens ; Value { 
      	Term { [ -1/(Complex[1,1]* Sqrt[3.14*Freq/(nu_nu0[]*sigma[<T>[{T}]])])*Norm[(Dt[{a}]+{ur})]   ] ;  In Region[{Sur_SIBC_B}] ; Jacobian JSur ; }
        } }
      { Name SurfCurrDens_im ; Value { 
      	Term { [ -1/(Complex[1,1]* Sqrt[3.14*Freq/(nu_nu0[]*sigma[<T>[{T}]])])*Im[(Dt[{a}]+{ur})] ] ;  In Region[{Sur_SIBC_B}] ; Jacobian JSur ; }
        } }
      { Name SurfCurrDens_re ; Value { 
      	Term { [ -1/(Complex[1,1]* Sqrt[3.14*Freq/(nu_nu0[]*sigma[<T>[{T}]])])*Re[(Dt[{a}]+{ur})]   ] ;  In Region[{Sur_SIBC_B}] ; Jacobian JSur ; }
        } }
      { Name SurfJheat ; Value { 
      	Term { [ 0.5 * Re[Complex[1,1]* Sqrt[3.14*Freq/(nu_nu0[]*sigma[<T>[{T}]])]] * SquNorm[1/(Complex[1,1]* Sqrt[3.14*Freq/(nu_nu0[]*sigma[<T>[{T}]])]) *  (Dt[{a}]+{ur})]  ] ;  In Region[{Sur_SIBC_B}] ; Jacobian JSur ; }
        } }
      { Name TotalMagneticEnergy ; Value { 
      	Integral { [ GeomCoeff[] * 1/2 *nu_nu0[{d a},<T>[{T}]]*{d a}*Conj[{d a}] / (rmsCoeff[]^2)  ] ;  In Region[{non_conducting_domain, conducting_domain, source_domain, stranded_source_domain}] ; Jacobian JVol ; Integration I1; }
        } }
      { Name TotalPower ; Value { 
      	Integral { [ GeomCoeff[] * Norm[sigma[<T>[{T}]]*(Dt[{a}]+{ur}/GeomCoeff[])*(Dt[{a}]+{ur}/GeomCoeff[])]/(rmsCoeff[]^2)  ] ;  In Region[{conducting_domain, source_domain}] ; Jacobian JVol ; Integration I1; }
       	Integral { [  Fs[Sqrt[area[]*4/3.14]*Sqrt[3.14*Freq*sigma[<T>[{T}]]/(2*nu_nu0[{d a},<T>[{T}]])]] *GeomCoeff[] * SquNorm[{istr}/area[]] * Nc[]^(2*(1-a_litz[]))/(FillFactor[]*sigma[#1]*rmsCoeff[]^2)  ] ;  In Region[{stranded_source_domain}] ; Jacobian JVol ; Integration I1; }
        } }
      { Name aActivePower ; Value { 
      	Integral { [ GeomCoeff[] * Norm[sigma[<T>[{T}]]*(Dt[{a}]+{ur}/GeomCoeff[])*(Dt[{a}]+{ur}/GeomCoeff[])]/(rmsCoeff[]^2)  ] ;  In Region[{conducting_domain, source_domain}] ; Jacobian JVol ; Integration I1; }
       	Integral { [  Fs[Sqrt[area[]*4/3.14]*Sqrt[3.14*Freq*sigma[<T>[{T}]]/(2*nu_nu0[{d a},<T>[{T}]])]] *GeomCoeff[] * SquNorm[{istr}/area[]] * Nc[]^(2*(1-a_litz[]))/(FillFactor[]*sigma[#1]*rmsCoeff[]^2)  ] ;  In Region[{stranded_source_domain}] ; Jacobian JVol ; Integration I1; }
        } }
      { Name bApparentPower ; Value { 
      	Term { Type Global;  [ Abs[{U}*Conj[{I}]]/(rmsCoeff[]^2)  ] ;  In Region[{source_domain}] ; }
       	Term { Type Global;  [ Abs[{Ustr}*Conj[{Istr}]]/(Nc[]^a_litz[]*rmsCoeff[]^2)  ] ;  In Region[{stranded_source_domain}] ; }
        } }
      { Name cMagneticEnergy ; Value { 
      	Integral { [ GeomCoeff[] * 1/2 *nu_nu0[{d a},<T>[{T}]]*{d a}*Conj[{d a}] / (rmsCoeff[]^2)  ] ;  In Region[{non_conducting_domain, conducting_domain, source_domain, stranded_source_domain}] ; Jacobian JVol ; Integration I1; }
        } }
      { Name caInducedCurrentReal ; Value { 
      	Term { Type Global;  [  Re[{I}]  ] ;  In Region[{conducting_domain}] ; }
        } }
      { Name cbInducedCurrentImag ; Value { 
      	Term { Type Global;  [  Im[{I}]  ] ;  In Region[{conducting_domain}] ; }
        } }
      { Name ccInducedCurrent ; Value { 
      	Term { Type Global;  [  Norm[{I}]/rmsCoeff[]  ] ;  In Region[{conducting_domain}] ; }
        } }
      { Name daSourceCurrentReal ; Value { 
      	Term { Type Global;  [  Re[{Iz}]  ] ;  In Region[{circuit_domain}] ; }
        } }
      { Name dbSourceCurrentImag ; Value { 
      	Term { Type Global;  [  Im[{Iz}]  ] ;  In Region[{circuit_domain}] ; }
        } }
      { Name dcSourceCurrent ; Value { 
      	Term { Type Global;  [  Norm[{Iz}]/Sqrt[2] ] ;  In Region[{circuit_domain}] ; }
        } }
      { Name eaVoltage ; Value { 
      	Term { Type Global;  [  Re[{Uz}]/(Nc[]^a_litz[])  ] ;  In Region[{circuit_domain}] ; }
        } }
      { Name ebVoltage ; Value { 
      	Term { Type Global;  [  Im[{Uz}]/(Nc[]^a_litz[])  ] ;  In Region[{circuit_domain}] ; }
        } }
      { Name ecVoltage ; Value { 
      	Term { Type Global;  [  Norm[{Uz}]/(Nc[]^a_litz[]*rmsCoeff[])  ] ;  In Region[{circuit_domain}] ; }
        } }
      { Name fInductance ; Value { 
      	Term { Type Global;  [  1e6*Im[{Uz}*{Iz}^-1]/(2*3.14*Freq)  ] ;  In Region[{circuit_domain}] ; }
        } }
      { Name fResistance ; Value { 
      	Term { Type Global;  [  Re[{Uz}*{Iz}^-1]  ] ;  In Region[{circuit_domain}] ; }
        } }
      { Name muTest ; Value { 
      	Term { [ 1/(nu_nu0[{d a},<T>[{T}]] * mu0) ] ;  In Region[{non_conducting_domain, conducting_domain, source_domain, sibc_domain, stranded_source_domain}] ; Jacobian JVol ; }
        } }
      { Name rMu ; Value { 
      	Term { [ Abs[(Norm[ nu_nu0[{d a},<T>[{T}[1]]] * Vector[1,1,1] - nu_nu0[{d a},<T>[{T}]] * Vector[1,1,1]])/( Norm[nu_nu0[{d a},<T>[{T}]] * Vector[1,1,1]])] ] ;  In Region[{conducting_domain, source_domain, stranded_source_domain}] ; Jacobian JVol ; }
        } }
      { Name rMuMax ; Value { 
      	Term { Type Global; [ #3 ] ;  In Region[{conducting_domain, source_domain, stranded_source_domain}] ; Jacobian JVol ; }
        } }
      { Name rSigma ; Value { 
      	Term { [ Abs[(Norm[sigma[<T>[{T}[1]]] * Vector[1,1,1] - sigma[<T>[{T}]] * Vector[1,1,1]])/(Norm[sigma[<T>[{T}]] * Vector[1,1,1]])] ] ;  In Region[{conducting_domain, source_domain, stranded_source_domain}] ; Jacobian JVol ; }
        } }
      { Name rSigmaMax ; Value { 
      	Term { Type Global; [ #1 ] ;  In Region[{conducting_domain, source_domain, stranded_source_domain}] ; Jacobian JVol ; }
        } }
      { Name sigmaTest ; Value { 
      	Term { [ sigma[<T>[{T}]] ] ;  In Region[{conducting_domain, source_domain, sibc_domain, stranded_source_domain}] ; Jacobian JVol ; }
       	Term { [ 0 ] ;  In Region[{non_conducting_domain}] ; Jacobian JVol ; }
        } }
    } 
  } 
}