PostProcessing { { Name postProc_getdpMicrowaves; NameOfFormulation getdpMicrowaves_formulation; NameOfSystem resol_getdpMicrowaves; PostQuantity { { Name AaLoadVoltage ; Value { Term { Type Global; [ {U_port} ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT}] ; } } } { Name AbGamma ; Value { Term { Type Global; [ {G_port} ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT}] ; } } } { Name AcLoadCurrent ; Value { Term { Type Global; [ (2*volt[] - {U_port} )/impedance[] ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT}] ; } } } { Name AdLoadImpedance ; Value { Term { Type Global; [ {U_port} / $AcLoadCurrent ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT}] ; } } } { Name AeLoadPower ; Value { Term { Type Global; [ Re[{U_port} *Conj[$AcLoadCurrent]] / 2 ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT}] ; } } } { Name AfScale ; Value { Term { Type Global; [ 1/Sqrt[volt[]^2 / impedance[] / 2] ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT}] ; } } } { Name Efield ; Value { Term { [ $AfScale * Norm[ {e} ] ] ; In Region[{non_conducting_domain, open_air_domain}] ; Jacobian JVol ; } } } { Name Efield_im ; Value { Term { [ $AfScale * Im[{e}] ] ; In Region[{non_conducting_domain, open_air_domain}] ; Jacobian JVol ; } } } { Name Efield_re ; Value { Term { [ $AfScale * Re[{e}] ] ; In Region[{non_conducting_domain, open_air_domain}] ; Jacobian JVol ; } } } { Name Hfield ; Value { Term { [ $AfScale * Norm[ Complex[0,1]*nu[]*nu0*{d e}/(2*Pi*$Time*FreqFactor) ] ] ; In Region[{non_conducting_domain, open_air_domain}] ; Jacobian JVol ; } } } { Name Hfield_im ; Value { Term { [ $AfScale * Im[Complex[0,1]*nu[]*nu0*{d e}/(2*Pi*$Time*FreqFactor)] ] ; In Region[{non_conducting_domain, open_air_domain}] ; Jacobian JVol ; } } } { Name Hfield_re ; Value { Term { [ $AfScale * Re[Complex[0,1]*nu[]*nu0*{d e}/(2*Pi*$Time*FreqFactor)] ] ; In Region[{non_conducting_domain, open_air_domain}] ; Jacobian JVol ; } } } { Name NFF ; Value { } } { Name SEfield_im ; Value { Term { [ $AfScale * Im[{e}] ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT, Sur_CONDUCTOR, Sur_INTERFACE}] ; Jacobian JSur ; } } } { Name SEfield_re ; Value { Term { [ $AfScale * Re[{e}] ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT, Sur_CONDUCTOR, Sur_INTERFACE}] ; Jacobian JSur ; } } } { Name SHfield_im ; Value { Term { [ $AfScale * Im[{hs}] ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT, Sur_CONDUCTOR, Sur_INTERFACE}] ; Jacobian JSur ; } } } { Name SHfield_re ; Value { Term { [ $AfScale * Re[{hs}] ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT, Sur_CONDUCTOR, Sur_INTERFACE}] ; Jacobian JSur ; } } } { Name SurEfield ; Value { Term { [ $AfScale * Norm[ {e} ] ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT, Sur_CONDUCTOR, Sur_INTERFACE}] ; Jacobian JSur ; } } } { Name SurHfield ; Value { Term { [ $AfScale * Norm[ {hs} ] ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT, Sur_CONDUCTOR, Sur_INTERFACE}] ; Jacobian JSur ; } } } { Name VSWR ; Value { Term { Type Global; [ (1 + Norm[{G_port}])/(1-Min[0.9999,Norm[{G_port}]]) ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT}] ; } } } { Name acS11 ; Value { Term { Type Global; [ 20 * Log10[{G_port}] ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT}] ; } } } { Name acceptedPower ; Value { Term { Type Global; [ Re[$AeLoadPower] * $AfScale^2 ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT}] ; } } } { Name bDielectricLosses ; Value { Integral { [ $AfScale^2/(rmsCoeff[]^2) * Norm[epsilon[] * eps0 * tan_delta[] * {e}* Conj[Complex[0,1]*2*Pi*$Time*FreqFactor*{e}]/Complex[0,1] ] ] ; In Region[{non_conducting_domain}] ; Jacobian JVol ; Integration I1; } } } { Name gamma ; Value { Term { Type Global; [ Norm[{G_port}] ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT}] ; } } } { Name portImpedance ; Value { Term { Type Global; [ Norm[$AdLoadImpedance] ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT}] ; } } } { Name portReactance ; Value { Term { Type Global; [ Im[$AdLoadImpedance] ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT}] ; } } } { Name portResistance ; Value { Term { Type Global; [ Re[$AdLoadImpedance] ] ; In Region[{Sur_UNIFPORT, Sur_COAXPORT}] ; } } } { Name radiatedPower ; Value { } } } } }