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4151 lines
175 KiB
4151 lines
175 KiB
/**********
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Copyright 1990 Regents of the University of California. All rights reserved.
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Author: 1985 Thomas L. Quarles
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Model Author: 1995 Colin McAndrew Motorola
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Spice3 Implementation: 2003 Dietmar Warning DAnalyse GmbH
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**********/
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/*
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* This is the function called each iteration to evaluate the
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* VBICs in the circuit and load them into the matrix as appropriate
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*/
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#include "ngspice/ngspice.h"
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#include "ngspice/cktdefs.h"
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#include "vbicdefs.h"
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#include "ngspice/const.h"
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#include "ngspice/trandefs.h"
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#include "ngspice/sperror.h"
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#include "ngspice/devdefs.h"
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int vbic_4T_et_cf_fj(
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,double *,double *,double *,double *,double *,double *,
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double *,
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double *, double *, double *, double *,
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double *);
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int
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VBICload(GENmodel *inModel, CKTcircuit *ckt)
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/* actually load the current resistance value into the
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* sparse matrix previously provided
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*/
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{
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VBICmodel *model = (VBICmodel*)inModel;
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VBICinstance *here;
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double p[108]
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,Vrth=0.0,Vbei,Vbex,Vbci,Vbep,Vbcp
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,Vrcx,Vbcx,Vrci,Vrbx,Vrbi,Vre,Vrbp
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,Vrs,Vbe,Vbc,Vcei=0.0,Vcep=0.0,Ibe=0.0,Ibe_Vrth=0.0
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,Ibe_Vbei=0.0,Ibex=0.0,Ibex_Vrth=0.0,Ibex_Vbex=0.0,Itzf=0.0,Itzf_Vrth=0.0,Itzf_Vbei=0.0
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,Itzf_Vbci=0.0,Itzr=0.0,Itzr_Vrth=0.0,Itzr_Vbci=0.0,Itzr_Vbei=0.0,Ibc=0.0,Ibc_Vrth=0.0
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,Ibc_Vbci=0.0,Ibc_Vbei=0.0,Ibep=0.0,Ibep_Vrth=0.0,Ibep_Vbep=0.0,Ircx,Ircx_Vrcx=0.0
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,Ircx_Vrth=0.0,Irci=0.0,Irci_Vrci=0.0,Irci_Vrth=0.0,Irci_Vbci=0.0,Irci_Vbcx=0.0,Irbx
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,Irbx_Vrbx=0.0,Irbx_Vrth=0.0,Irbi=0.0,Irbi_Vrbi=0.0,Irbi_Vrth=0.0,Irbi_Vbei=0.0,Irbi_Vbci=0.0
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,Ire,Ire_Vre=0.0,Ire_Vrth=0.0,Irbp=0.0,Irbp_Vrbp=0.0,Irbp_Vrth=0.0,Irbp_Vbep=0.0
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,Irbp_Vbci=0.0,Qbe=0.0,Qbe_Vrth=0.0,Qbe_Vbei=0.0,Qbe_Vbci=0.0,Qbex=0.0,Qbex_Vrth=0.0
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,Qbex_Vbex=0.0,Qbc=0.0,Qbc_Vrth=0.0,Qbc_Vbci=0.0,Qbcx=0.0,Qbcx_Vrth=0.0,Qbcx_Vbcx=0.0
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,Qbep=0.0,Qbep_Vrth=0.0,Qbep_Vbep=0.0,Qbep_Vbci=0.0,Qbeo=0.0,Qbeo_Vbe=0.0,Qbco=0.0
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,Qbco_Vbc=0.0,Ibcp=0.0,Ibcp_Vrth=0.0,Ibcp_Vbcp=0.0,Iccp=0.0,Iccp_Vrth=0.0,Iccp_Vbep=0.0
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,Iccp_Vbci=0.0,Iccp_Vbcp=0.0,Irs=0.0,Irs_Vrs=0.0,Irs_Vrth=0.0,Qbcp=0.0,Qbcp_Vrth=0.0
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,Qbcp_Vbcp=0.0,Irth,Irth_Vrth=0.0,Ith=0.0,Ith_Vrth=0.0,Ith_Vbei=0.0,Ith_Vbci=0.0
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,Ith_Vcei=0.0,Ith_Vbex=0.0,Ith_Vbep=0.0,Ith_Vrs=0.0,Ith_Vbcp=0.0,Ith_Vcep=0.0,Ith_Vrcx=0.0
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,Ith_Vrci=0.0,Ith_Vbcx=0.0,Ith_Vrbx=0.0,Ith_Vrbi=0.0,Ith_Vre=0.0,Ith_Vrbp=0.0,Qcth=0.0
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,Qcth_Vrth=0.0
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,Tf=0.0, Tf_Vbei=0.0, Tf_Vbci=0.0, Tf_Vrth=0.0
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,SCALE;
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int iret;
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double Vce;
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#ifndef PREDICTOR
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double xfact;
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#endif
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double vt;
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double delvbei;
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double delvbex;
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double delvbci;
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double delvbcx;
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double delvbep;
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double delvrci;
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double delvrbi;
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double delvrbp;
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double delvbcp;
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double ibehat;
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double ibexhat;
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double icieihat;
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double ibchat;
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double ibephat;
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double ircihat;
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double irbihat;
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double irbphat;
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double ibcphat;
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double iccphat;
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double ceq, geq, rhs_current;
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int icheck=1;
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int ichk1, ichk2, ichk3, ichk4, ichk5, ichk6;
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int error;
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double gqbeo, cqbeo, gqbco, cqbco, gbcx, cbcx;
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double Icth, Icth_Vrth;
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double Iciei, Iciei_Vbei, Iciei_Vbci, Iciei_Vrth, Iciei_Vxf2;
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//NQS
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double Ixf1=0.0, Ixf2=0.0, Qxf1=0.0, Qxf2=0.0, Qxf1_Vxf1=0.0, Qxf2_Vxf2=0.0;
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double Ixf1_Vxf1=0.0, Ixf1_Vxf2=0.0, Ixf1_ditf=0.0, Ixf1_dTf=0.0, Ixf1_Vbei=0.0, Ixf1_Vbci=0.0, Ixf1_Vrth=0.0;
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double Ixf2_Vxf1=0.0, Ixf2_Vbei=0.0, Ixf2_Vbci=0.0, Ixf2_Vrth=0.0;
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double Ixf2_Vxf2=0.0, Ixf2_dTf=0.0;
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double Itxf=0.0;
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double Itxf_Vxf2=0.0, Itxf_Vbci=0.0, Itxf_Vbei=0.0, Itxf_Vrth=0.0;
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double Vxf1=0.0, Vxf2=0.0;
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double delvxf2;
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/* loop through all the models */
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for( ; model != NULL; model = VBICnextModel(model)) {
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/* loop through all the instances of the model */
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for (here = VBICinstances(model); here != NULL ;
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here=VBICnextInstance(here)) {
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vt = here->VBICtemp * CONSTKoverQ;
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gbcx = 0.0;
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cbcx = 0.0;
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gqbeo = 0.0;
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cqbeo = 0.0;
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gqbco = 0.0;
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cqbco = 0.0;
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Icth = 0.0, Icth_Vrth = 0.0;
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/*
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* model parameters
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*/
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memcpy (&p, &model->VBICtnom, sizeof(p));
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p[0] = here->VBICtemp - CONSTCtoK + p[105];
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/* temperature dependent parameter are already calculated */
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p[1] = here->VBICtextCollResist;
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p[2] = here->VBICtintCollResist;
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p[3] = here->VBICtepiSatVoltage;
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p[4] = here->VBICtepiDoping;
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p[6] = here->VBICtextBaseResist;
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p[7] = here->VBICtintBaseResist;
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p[8] = here->VBICtemitterResist;
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p[9] = here->VBICtsubstrateResist;
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p[10] = here->VBICtparBaseResist;
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p[11] = here->VBICtsatCur;
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p[12] = here->VBICtemissionCoeffF;
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p[13] = here->VBICtemissionCoeffR;
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p[16] = here->VBICtdepletionCapBE;
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p[17] = here->VBICtpotentialBE;
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p[21] = here->VBICtdepletionCapBC;
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p[23] = here->VBICtextCapBC;
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p[24] = here->VBICtpotentialBC;
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p[27] = here->VBICtextCapSC;
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p[28] = here->VBICtpotentialSC;
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p[31] = here->VBICtidealSatCurBE;
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p[34] = here->VBICtnidealSatCurBE;
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p[36] = here->VBICtidealSatCurBC;
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p[38] = here->VBICtnidealSatCurBC;
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p[41] = here->VBICtavalanchePar2BC;
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p[42] = here->VBICtparasitSatCur;
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p[45] = here->VBICtidealParasitSatCurBE;
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p[46] = here->VBICtnidealParasitSatCurBE;
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p[47] = here->VBICtidealParasitSatCurBC;
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p[49] = here->VBICtnidealParasitSatCurBC;
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p[53] = here->VBICtrollOffF;
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p[94] = here->VBICtsepISRR;
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p[98] = here->VBICtvbbe;
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p[99] = here->VBICtnbbe;
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SCALE = here->VBICarea * here->VBICm;
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/*
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* initialization
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*/
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icheck=1;
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if(ckt->CKTmode & MODEINITSMSIG) {
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Vbe = model->VBICtype*(
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*(ckt->CKTrhsOld+here->VBICbaseNode)-
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*(ckt->CKTrhsOld+here->VBICemitNode));
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Vbc = model->VBICtype*(
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*(ckt->CKTrhsOld+here->VBICbaseNode)-
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*(ckt->CKTrhsOld+here->VBICcollNode));
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Vbei = *(ckt->CKTstate0 + here->VBICvbei);
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Vbex = *(ckt->CKTstate0 + here->VBICvbex);
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Vbci = *(ckt->CKTstate0 + here->VBICvbci);
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Vbcx = *(ckt->CKTstate0 + here->VBICvbcx);
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Vbep = *(ckt->CKTstate0 + here->VBICvbep);
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Vrci = *(ckt->CKTstate0 + here->VBICvrci);
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Vrbi = *(ckt->CKTstate0 + here->VBICvrbi);
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Vrbp = *(ckt->CKTstate0 + here->VBICvrbp);
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Vrcx = model->VBICtype*(
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*(ckt->CKTrhsOld+here->VBICcollNode)-
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*(ckt->CKTrhsOld+here->VBICcollCXNode));
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Vrbx = model->VBICtype*(
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*(ckt->CKTrhsOld+here->VBICbaseNode)-
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*(ckt->CKTrhsOld+here->VBICbaseBXNode));
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Vre = model->VBICtype*(
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*(ckt->CKTrhsOld+here->VBICemitNode)-
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*(ckt->CKTrhsOld+here->VBICemitEINode));
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Vbcp = *(ckt->CKTstate0 + here->VBICvbcp);
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Vrs = model->VBICtype*(
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*(ckt->CKTrhsOld+here->VBICsubsNode)-
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*(ckt->CKTrhsOld+here->VBICsubsSINode));
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if (here->VBIC_selfheat)
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Vrth = *(ckt->CKTstate0 + here->VBICvrth);
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Vxf1 = *(ckt->CKTrhsOld + here->VBICxf1Node);
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Vxf2 = *(ckt->CKTrhsOld + here->VBICxf2Node);
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} else if(ckt->CKTmode & MODEINITTRAN) {
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Vbe = model->VBICtype*(
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*(ckt->CKTrhsOld+here->VBICbaseNode)-
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*(ckt->CKTrhsOld+here->VBICemitNode));
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Vbc = model->VBICtype*(
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*(ckt->CKTrhsOld+here->VBICbaseNode)-
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*(ckt->CKTrhsOld+here->VBICcollNode));
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Vbei = *(ckt->CKTstate1 + here->VBICvbei);
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Vbex = *(ckt->CKTstate1 + here->VBICvbex);
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Vbci = *(ckt->CKTstate1 + here->VBICvbci);
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Vbcx = *(ckt->CKTstate1 + here->VBICvbcx);
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Vbep = *(ckt->CKTstate1 + here->VBICvbep);
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Vrci = *(ckt->CKTstate1 + here->VBICvrci);
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Vrbi = *(ckt->CKTstate1 + here->VBICvrbi);
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Vrbp = *(ckt->CKTstate1 + here->VBICvrbp);
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Vrcx = model->VBICtype*(
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*(ckt->CKTrhsOld+here->VBICcollNode)-
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*(ckt->CKTrhsOld+here->VBICcollCXNode));
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Vrbx = model->VBICtype*(
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*(ckt->CKTrhsOld+here->VBICbaseNode)-
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*(ckt->CKTrhsOld+here->VBICbaseBXNode));
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Vre = model->VBICtype*(
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*(ckt->CKTrhsOld+here->VBICemitNode)-
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*(ckt->CKTrhsOld+here->VBICemitEINode));
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Vbcp = *(ckt->CKTstate1 + here->VBICvbcp);
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Vrs = model->VBICtype*(
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*(ckt->CKTrhsOld+here->VBICsubsNode)-
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*(ckt->CKTrhsOld+here->VBICsubsSINode));
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if (here->VBIC_selfheat)
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Vrth = *(ckt->CKTstate1 + here->VBICvrth);
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Vxf1 = *(ckt->CKTrhsOld + here->VBICxf1Node);
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Vxf2 = *(ckt->CKTrhsOld + here->VBICxf2Node);
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} else if((ckt->CKTmode & MODEINITJCT) &&
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(ckt->CKTmode & MODETRANOP) && (ckt->CKTmode & MODEUIC)){
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Vbe=model->VBICtype*here->VBICicVBE;
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Vbei=Vbex=Vbe;
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Vce=model->VBICtype*here->VBICicVCE;
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Vbc=Vbe-Vce;
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Vbci=Vbcx=Vbc;
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Vbep=Vbcp=0.0;
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Vrci=Vrbi=Vrbp=0.0;
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Vrcx=Vrbx=Vre=Vrs=0.0;
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Vrth = 0.0, Icth = 0.0, Icth_Vrth = 0.0;
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Vxf1=Vxf2=0.0;
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} else if((ckt->CKTmode & MODEINITJCT) && (here->VBICoff==0)) {
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Vbe=Vbei=Vbex=model->VBICtype*here->VBICtVcrit;
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Vbc=Vbcx=Vbep=0.0;
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Vbci=-model->VBICtype*here->VBICtVcrit;
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Vbcp=Vbc-Vbe;
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Vrci=Vrbi=Vrbp=0.0;
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Vrcx=Vrbx=Vre=Vrs=0.0;
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Vrth = 0.0, Icth = 0.0, Icth_Vrth = 0.0;
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Vxf1=Vxf2=0.0;
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} else if((ckt->CKTmode & MODEINITJCT) ||
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( (ckt->CKTmode & MODEINITFIX) && (here->VBICoff!=0))) {
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Vbe=0.0;
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Vbei=Vbex=Vbe;
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Vbc=0.0;
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Vbci=Vbcx=Vbc;
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Vbep=Vbcp=0.0;
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Vrci=Vrbi=Vrbp=0.0;
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Vrcx=Vrbx=Vre=Vrs=0.0;
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Vrth = 0.0, Icth = 0.0, Icth_Vrth = 0.0;
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Vxf1=Vxf2=0.0;
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} else {
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#ifndef PREDICTOR
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if(ckt->CKTmode & MODEINITPRED) {
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xfact = ckt->CKTdelta/ckt->CKTdeltaOld[1];
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Vbei = (1+xfact) * *(ckt->CKTstate1 + here->VBICvbei)-
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xfact * *(ckt->CKTstate2 + here->VBICvbei);
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Vbex = (1+xfact) * *(ckt->CKTstate1 + here->VBICvbex)-
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xfact * *(ckt->CKTstate2 + here->VBICvbex);
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Vbci = (1+xfact) * *(ckt->CKTstate1 + here->VBICvbci)-
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xfact * *(ckt->CKTstate2 + here->VBICvbci);
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Vbcx = (1+xfact) * *(ckt->CKTstate1 + here->VBICvbcx)-
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xfact * *(ckt->CKTstate2 + here->VBICvbcx);
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Vbep = (1+xfact) * *(ckt->CKTstate1 + here->VBICvbep)-
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xfact * *(ckt->CKTstate2 + here->VBICvbep);
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Vrci = (1+xfact) * *(ckt->CKTstate1 + here->VBICvrci)-
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xfact * *(ckt->CKTstate2 + here->VBICvrci);
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Vrbi = (1+xfact) * *(ckt->CKTstate1 + here->VBICvrbi)-
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xfact * *(ckt->CKTstate2 + here->VBICvrbi);
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Vrbp = (1+xfact) * *(ckt->CKTstate1 + here->VBICvrbp)-
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xfact * *(ckt->CKTstate2 + here->VBICvrbp);
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Vbcp = (1+xfact) * *(ckt->CKTstate1 + here->VBICvbcp)-
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xfact * *(ckt->CKTstate2 + here->VBICvbcp);
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if (here->VBIC_selfheat) {
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Vrth = (1.0 + xfact)* (*(ckt->CKTstate1 + here->VBICvrth))
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- ( xfact * (*(ckt->CKTstate2 + here->VBICvrth)));
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*(ckt->CKTstate0 + here->VBICvrth) =
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*(ckt->CKTstate1 + here->VBICvrth);
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}
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Vxf2 = (1+xfact) * *(ckt->CKTstate1 + here->VBICvxf2)-
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xfact * *(ckt->CKTstate2 + here->VBICvxf2);
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*(ckt->CKTstate0 + here->VBICvbei) =
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*(ckt->CKTstate1 + here->VBICvbei);
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*(ckt->CKTstate0 + here->VBICvbex) =
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*(ckt->CKTstate1 + here->VBICvbex);
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*(ckt->CKTstate0 + here->VBICvbci) =
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*(ckt->CKTstate1 + here->VBICvbci);
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*(ckt->CKTstate0 + here->VBICvbcx) =
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*(ckt->CKTstate1 + here->VBICvbcx);
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*(ckt->CKTstate0 + here->VBICvbep) =
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*(ckt->CKTstate1 + here->VBICvbep);
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*(ckt->CKTstate0 + here->VBICvrci) =
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*(ckt->CKTstate1 + here->VBICvrci);
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*(ckt->CKTstate0 + here->VBICvrbi) =
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*(ckt->CKTstate1 + here->VBICvrbi);
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*(ckt->CKTstate0 + here->VBICvrbp) =
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*(ckt->CKTstate1 + here->VBICvrbp);
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*(ckt->CKTstate0 + here->VBICvbcp) =
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*(ckt->CKTstate1 + here->VBICvbcp);
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*(ckt->CKTstate0 + here->VBICibe) =
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*(ckt->CKTstate1 + here->VBICibe);
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*(ckt->CKTstate0 + here->VBICibe_Vbei) =
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*(ckt->CKTstate1 + here->VBICibe_Vbei);
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*(ckt->CKTstate0 + here->VBICibex) =
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*(ckt->CKTstate1 + here->VBICibex);
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*(ckt->CKTstate0 + here->VBICibex_Vbex) =
|
|
*(ckt->CKTstate1 + here->VBICibex_Vbex);
|
|
*(ckt->CKTstate0 + here->VBICibc) =
|
|
*(ckt->CKTstate1 + here->VBICibc);
|
|
*(ckt->CKTstate0 + here->VBICibc_Vbci) =
|
|
*(ckt->CKTstate1 + here->VBICibc_Vbci);
|
|
*(ckt->CKTstate0 + here->VBICibc_Vbei) =
|
|
*(ckt->CKTstate1 + here->VBICibc_Vbei);
|
|
*(ckt->CKTstate0 + here->VBICibep) =
|
|
*(ckt->CKTstate1 + here->VBICibep);
|
|
*(ckt->CKTstate0 + here->VBICibep_Vbep) =
|
|
*(ckt->CKTstate1 + here->VBICibep_Vbep);
|
|
*(ckt->CKTstate0 + here->VBICirci) =
|
|
*(ckt->CKTstate1 + here->VBICirci);
|
|
*(ckt->CKTstate0 + here->VBICirci_Vrci) =
|
|
*(ckt->CKTstate1 + here->VBICirci_Vrci);
|
|
*(ckt->CKTstate0 + here->VBICirci_Vbci) =
|
|
*(ckt->CKTstate1 + here->VBICirci_Vbci);
|
|
*(ckt->CKTstate0 + here->VBICirci_Vbcx) =
|
|
*(ckt->CKTstate1 + here->VBICirci_Vbcx);
|
|
*(ckt->CKTstate0 + here->VBICirbi) =
|
|
*(ckt->CKTstate1 + here->VBICirbi);
|
|
*(ckt->CKTstate0 + here->VBICirbi_Vrbi) =
|
|
*(ckt->CKTstate1 + here->VBICirbi_Vrbi);
|
|
*(ckt->CKTstate0 + here->VBICirbi_Vbei) =
|
|
*(ckt->CKTstate1 + here->VBICirbi_Vbei);
|
|
*(ckt->CKTstate0 + here->VBICirbi_Vbci) =
|
|
*(ckt->CKTstate1 + here->VBICirbi_Vbci);
|
|
*(ckt->CKTstate0 + here->VBICirbp) =
|
|
*(ckt->CKTstate1 + here->VBICirbp);
|
|
*(ckt->CKTstate0 + here->VBICirbp_Vrbp) =
|
|
*(ckt->CKTstate1 + here->VBICirbp_Vrbp);
|
|
*(ckt->CKTstate0 + here->VBICirbp_Vbep) =
|
|
*(ckt->CKTstate1 + here->VBICirbp_Vbep);
|
|
*(ckt->CKTstate0 + here->VBICirbp_Vbci) =
|
|
*(ckt->CKTstate1 + here->VBICirbp_Vbci);
|
|
*(ckt->CKTstate0 + here->VBICibcp) =
|
|
*(ckt->CKTstate1 + here->VBICibcp);
|
|
*(ckt->CKTstate0 + here->VBICibcp_Vbcp) =
|
|
*(ckt->CKTstate1 + here->VBICibcp_Vbcp);
|
|
*(ckt->CKTstate0 + here->VBICiccp) =
|
|
*(ckt->CKTstate1 + here->VBICiccp);
|
|
*(ckt->CKTstate0 + here->VBICiccp_Vbep) =
|
|
*(ckt->CKTstate1 + here->VBICiccp_Vbep);
|
|
*(ckt->CKTstate0 + here->VBICiccp_Vbci) =
|
|
*(ckt->CKTstate1 + here->VBICiccp_Vbci);
|
|
*(ckt->CKTstate0 + here->VBICiccp_Vbcp) =
|
|
*(ckt->CKTstate1 + here->VBICiccp_Vbcp);
|
|
*(ckt->CKTstate0 + here->VBICgqbeo) =
|
|
*(ckt->CKTstate1 + here->VBICgqbeo);
|
|
*(ckt->CKTstate0 + here->VBICgqbco) =
|
|
*(ckt->CKTstate1 + here->VBICgqbco);
|
|
*(ckt->CKTstate0 + here->VBICircx_Vrcx) =
|
|
*(ckt->CKTstate1 + here->VBICircx_Vrcx);
|
|
*(ckt->CKTstate0 + here->VBICirbx_Vrbx) =
|
|
*(ckt->CKTstate1 + here->VBICirbx_Vrbx);
|
|
*(ckt->CKTstate0 + here->VBICirs_Vrs) =
|
|
*(ckt->CKTstate1 + here->VBICirs_Vrs);
|
|
*(ckt->CKTstate0 + here->VBICire_Vre) =
|
|
*(ckt->CKTstate1 + here->VBICire_Vre);
|
|
if (here->VBIC_selfheat)
|
|
*(ckt->CKTstate0 + here->VBICqcth) =
|
|
*(ckt->CKTstate1 + here->VBICqcth);
|
|
*(ckt->CKTstate0 + here->VBICiciei) =
|
|
*(ckt->CKTstate1 + here->VBICiciei);
|
|
*(ckt->CKTstate0 + here->VBICiciei_Vbei) =
|
|
*(ckt->CKTstate1 + here->VBICiciei_Vbei);
|
|
*(ckt->CKTstate0 + here->VBICiciei_Vbci) =
|
|
*(ckt->CKTstate1 + here->VBICiciei_Vbci);
|
|
*(ckt->CKTstate0+here->VBICiciei_Vxf2)=*(ckt->CKTstate1+here->VBICiciei_Vxf2);
|
|
if (here->VBIC_excessPhase) {
|
|
*(ckt->CKTstate0+here->VBICvxf1)=*(ckt->CKTstate1+here->VBICvxf1);
|
|
*(ckt->CKTstate0+here->VBICqxf1)=*(ckt->CKTstate1+here->VBICqxf1);
|
|
*(ckt->CKTstate0+here->VBICcqxf1)=*(ckt->CKTstate1+here->VBICcqxf1);
|
|
*(ckt->CKTstate0+here->VBICgqxf1)=*(ckt->CKTstate1+here->VBICgqxf1);
|
|
*(ckt->CKTstate0+here->VBICixf1_Vbei)=*(ckt->CKTstate1+here->VBICixf1_Vbei);
|
|
*(ckt->CKTstate0+here->VBICixf1_Vbci)=*(ckt->CKTstate1+here->VBICixf1_Vbci);
|
|
*(ckt->CKTstate0+here->VBICixf1_Vxf2)=*(ckt->CKTstate1+here->VBICixf1_Vxf2);
|
|
*(ckt->CKTstate0+here->VBICixf1_Vxf1)=*(ckt->CKTstate1+here->VBICixf1_Vxf1);
|
|
*(ckt->CKTstate0+here->VBICvxf2)=*(ckt->CKTstate1+here->VBICvxf2);
|
|
*(ckt->CKTstate0+here->VBICqxf2)=*(ckt->CKTstate1+here->VBICqxf2);
|
|
*(ckt->CKTstate0+here->VBICcqxf2)=*(ckt->CKTstate1+here->VBICcqxf2);
|
|
*(ckt->CKTstate0+here->VBICgqxf2)=*(ckt->CKTstate1+here->VBICgqxf2);
|
|
*(ckt->CKTstate0+here->VBICixf2_Vbei)=*(ckt->CKTstate1+here->VBICixf2_Vbei);
|
|
*(ckt->CKTstate0+here->VBICixf2_Vbci)=*(ckt->CKTstate1+here->VBICixf2_Vbci);
|
|
*(ckt->CKTstate0+here->VBICixf2_Vxf1)=*(ckt->CKTstate1+here->VBICixf2_Vxf1);
|
|
*(ckt->CKTstate0+here->VBICixf2_Vxf2)=*(ckt->CKTstate1+here->VBICixf2_Vxf2);
|
|
if (here->VBIC_selfheat) {
|
|
*(ckt->CKTstate0+here->VBICixf1_Vrth)=*(ckt->CKTstate1+here->VBICixf1_Vrth);
|
|
*(ckt->CKTstate0+here->VBICixf2_Vrth)=*(ckt->CKTstate1+here->VBICixf2_Vrth);
|
|
}
|
|
}
|
|
} else {
|
|
#endif /* PREDICTOR */
|
|
/*
|
|
* compute new nonlinear branch voltages
|
|
*/
|
|
Vbei = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICbaseBINode)-
|
|
*(ckt->CKTrhsOld+here->VBICemitEINode));
|
|
Vbex = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICbaseBXNode)-
|
|
*(ckt->CKTrhsOld+here->VBICemitEINode));
|
|
Vbci = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICbaseBINode)-
|
|
*(ckt->CKTrhsOld+here->VBICcollCINode));
|
|
Vbcx = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICbaseBINode)-
|
|
*(ckt->CKTrhsOld+here->VBICcollCXNode));
|
|
Vbep = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICbaseBXNode)-
|
|
*(ckt->CKTrhsOld+here->VBICbaseBPNode));
|
|
Vrci = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICcollCXNode)-
|
|
*(ckt->CKTrhsOld+here->VBICcollCINode));
|
|
Vrbi = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICbaseBXNode)-
|
|
*(ckt->CKTrhsOld+here->VBICbaseBINode));
|
|
Vrbp = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICbaseBPNode)-
|
|
*(ckt->CKTrhsOld+here->VBICcollCXNode));
|
|
Vbcp = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICsubsSINode)-
|
|
*(ckt->CKTrhsOld+here->VBICbaseBPNode));
|
|
if (here->VBIC_selfheat)
|
|
Vrth = *(ckt->CKTrhsOld + here->VBICtempNode);
|
|
if (here->VBIC_excessPhase) {
|
|
// not needed because convergence in NQS network is not checked here
|
|
//Vxf1 = *(ckt->CKTrhsOld + here->VBICxf1Node);
|
|
Vxf2 = *(ckt->CKTrhsOld + here->VBICxf2Node);
|
|
}
|
|
#ifndef PREDICTOR
|
|
}
|
|
#endif /* PREDICTOR */
|
|
delvbei = Vbei - *(ckt->CKTstate0 + here->VBICvbei);
|
|
delvbex = Vbex - *(ckt->CKTstate0 + here->VBICvbex);
|
|
delvbci = Vbci - *(ckt->CKTstate0 + here->VBICvbci);
|
|
delvbcx = Vbcx - *(ckt->CKTstate0 + here->VBICvbcx);
|
|
delvbep = Vbep - *(ckt->CKTstate0 + here->VBICvbep);
|
|
delvrci = Vrci - *(ckt->CKTstate0 + here->VBICvrci);
|
|
delvrbi = Vrbi - *(ckt->CKTstate0 + here->VBICvrbi);
|
|
delvrbp = Vrbp - *(ckt->CKTstate0 + here->VBICvrbp);
|
|
delvbcp = Vbcp - *(ckt->CKTstate0 + here->VBICvbcp);
|
|
delvxf2 = Vxf2 - *(ckt->CKTstate0 + here->VBICvxf2);
|
|
|
|
Vbe = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICbaseNode)-
|
|
*(ckt->CKTrhsOld+here->VBICemitNode));
|
|
Vbc = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICbaseNode)-
|
|
*(ckt->CKTrhsOld+here->VBICcollNode));
|
|
Vrcx = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICcollNode)-
|
|
*(ckt->CKTrhsOld+here->VBICcollCXNode));
|
|
Vrbx = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICbaseNode)-
|
|
*(ckt->CKTrhsOld+here->VBICbaseBXNode));
|
|
Vre = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICemitNode)-
|
|
*(ckt->CKTrhsOld+here->VBICemitEINode));
|
|
Vrs = model->VBICtype*(
|
|
*(ckt->CKTrhsOld+here->VBICsubsNode)-
|
|
*(ckt->CKTrhsOld+here->VBICsubsSINode));
|
|
if (here->VBIC_selfheat)
|
|
Vrth = *(ckt->CKTrhsOld + here->VBICtempNode);
|
|
Vxf1 = *(ckt->CKTrhsOld + here->VBICxf1Node);
|
|
Vxf2 = *(ckt->CKTrhsOld + here->VBICxf2Node);
|
|
|
|
ibehat = *(ckt->CKTstate0 + here->VBICibe) +
|
|
*(ckt->CKTstate0 + here->VBICibe_Vbei)*delvbei;
|
|
ibexhat = *(ckt->CKTstate0 + here->VBICibex) +
|
|
*(ckt->CKTstate0 + here->VBICibex_Vbex)*delvbex;
|
|
icieihat = *(ckt->CKTstate0 + here->VBICiciei) +
|
|
*(ckt->CKTstate0 + here->VBICiciei_Vbei)*delvbei +
|
|
*(ckt->CKTstate0 + here->VBICiciei_Vxf2)*delvxf2 +
|
|
*(ckt->CKTstate0 + here->VBICiciei_Vbci)*delvbci;
|
|
ibchat = *(ckt->CKTstate0 + here->VBICibc) +
|
|
*(ckt->CKTstate0 + here->VBICibc_Vbei)*delvbei + *(ckt->CKTstate0 + here->VBICibc_Vbci)*delvbci;
|
|
ibephat = *(ckt->CKTstate0 + here->VBICibep) +
|
|
*(ckt->CKTstate0 + here->VBICibep_Vbep)*delvbep;
|
|
ircihat = *(ckt->CKTstate0 + here->VBICirci) + *(ckt->CKTstate0 + here->VBICirci_Vrci)*delvrci +
|
|
*(ckt->CKTstate0 + here->VBICirci_Vbcx)*delvbcx + *(ckt->CKTstate0 + here->VBICirci_Vbci)*delvbci;
|
|
irbihat = *(ckt->CKTstate0 + here->VBICirbi) + *(ckt->CKTstate0 + here->VBICirbi_Vrbi)*delvrbi +
|
|
*(ckt->CKTstate0 + here->VBICirbi_Vbei)*delvbei + *(ckt->CKTstate0 + here->VBICirbi_Vbci)*delvbci;
|
|
irbphat = *(ckt->CKTstate0 + here->VBICirbp) + *(ckt->CKTstate0 + here->VBICirbp_Vrbp)*delvrbp +
|
|
*(ckt->CKTstate0 + here->VBICirbp_Vbep)*delvbep + *(ckt->CKTstate0 + here->VBICirbp_Vbci)*delvbci;
|
|
ibcphat = *(ckt->CKTstate0 + here->VBICibcp) +
|
|
*(ckt->CKTstate0 + here->VBICibcp_Vbcp)*delvbcp;
|
|
iccphat = *(ckt->CKTstate0 + here->VBICiccp) + *(ckt->CKTstate0 + here->VBICiccp_Vbep)*delvbep +
|
|
*(ckt->CKTstate0 + here->VBICiccp_Vbci)*delvbci + *(ckt->CKTstate0 + here->VBICiccp_Vbcp)*delvbcp;
|
|
/*
|
|
* bypass if solution has not changed
|
|
*/
|
|
/* the following collections of if's would be just one
|
|
* if the average compiler could handle it, but many
|
|
* find the expression too complicated, thus the split.
|
|
* ... no bypass in case of selfheating
|
|
*/
|
|
if( (ckt->CKTbypass) && (!(ckt->CKTmode & MODEINITPRED)) && !here->VBIC_selfheat &&
|
|
(fabs(delvbei) < (ckt->CKTreltol*MAX(fabs(Vbei),
|
|
fabs(*(ckt->CKTstate0 + here->VBICvbei)))+
|
|
ckt->CKTvoltTol)) )
|
|
if( (fabs(delvbex) < ckt->CKTreltol*MAX(fabs(Vbex),
|
|
fabs(*(ckt->CKTstate0 + here->VBICvbex)))+
|
|
ckt->CKTvoltTol) )
|
|
if( (fabs(delvbci) < ckt->CKTreltol*MAX(fabs(Vbci),
|
|
fabs(*(ckt->CKTstate0 + here->VBICvbci)))+
|
|
ckt->CKTvoltTol) )
|
|
if( (fabs(delvbcx) < ckt->CKTreltol*MAX(fabs(Vbcx),
|
|
fabs(*(ckt->CKTstate0 + here->VBICvbcx)))+
|
|
ckt->CKTvoltTol) )
|
|
if( (fabs(delvbep) < ckt->CKTreltol*MAX(fabs(Vbep),
|
|
fabs(*(ckt->CKTstate0 + here->VBICvbep)))+
|
|
ckt->CKTvoltTol) )
|
|
if( (fabs(delvrci) < ckt->CKTreltol*MAX(fabs(Vrci),
|
|
fabs(*(ckt->CKTstate0 + here->VBICvrci)))+
|
|
ckt->CKTvoltTol) )
|
|
if( (fabs(delvrbi) < ckt->CKTreltol*MAX(fabs(Vrbi),
|
|
fabs(*(ckt->CKTstate0 + here->VBICvrbi)))+
|
|
ckt->CKTvoltTol) )
|
|
if( (fabs(delvrbp) < ckt->CKTreltol*MAX(fabs(Vrbp),
|
|
fabs(*(ckt->CKTstate0 + here->VBICvrbp)))+
|
|
ckt->CKTvoltTol) )
|
|
if( (fabs(delvbcp) < ckt->CKTreltol*MAX(fabs(Vbcp),
|
|
fabs(*(ckt->CKTstate0 + here->VBICvbcp)))+
|
|
ckt->CKTvoltTol) )
|
|
if( (fabs(ibehat-*(ckt->CKTstate0 + here->VBICibe)) <
|
|
ckt->CKTreltol* MAX(fabs(ibehat),
|
|
fabs(*(ckt->CKTstate0 + here->VBICibe)))+
|
|
ckt->CKTabstol) )
|
|
if( (fabs(ibexhat-*(ckt->CKTstate0 + here->VBICibex)) <
|
|
ckt->CKTreltol* MAX(fabs(ibexhat),
|
|
fabs(*(ckt->CKTstate0 + here->VBICibex)))+
|
|
ckt->CKTabstol) )
|
|
if( (fabs(icieihat-*(ckt->CKTstate0 + here->VBICiciei)) <
|
|
ckt->CKTreltol* MAX(fabs(icieihat),
|
|
fabs(*(ckt->CKTstate0 + here->VBICiciei)))+
|
|
ckt->CKTabstol) )
|
|
if( (fabs(ibchat-*(ckt->CKTstate0 + here->VBICibc)) <
|
|
ckt->CKTreltol* MAX(fabs(ibchat),
|
|
fabs(*(ckt->CKTstate0 + here->VBICibc)))+
|
|
ckt->CKTabstol) )
|
|
if( (fabs(ibephat-*(ckt->CKTstate0 + here->VBICibep)) <
|
|
ckt->CKTreltol* MAX(fabs(ibephat),
|
|
fabs(*(ckt->CKTstate0 + here->VBICibep)))+
|
|
ckt->CKTabstol) )
|
|
if( (fabs(ircihat-*(ckt->CKTstate0 + here->VBICirci)) <
|
|
ckt->CKTreltol* MAX(fabs(ircihat),
|
|
fabs(*(ckt->CKTstate0 + here->VBICirci)))+
|
|
ckt->CKTabstol) )
|
|
if( (fabs(irbihat-*(ckt->CKTstate0 + here->VBICirbi)) <
|
|
ckt->CKTreltol* MAX(fabs(irbihat),
|
|
fabs(*(ckt->CKTstate0 + here->VBICirbi)))+
|
|
ckt->CKTabstol) )
|
|
if( (fabs(irbphat-*(ckt->CKTstate0 + here->VBICirbp)) <
|
|
ckt->CKTreltol* MAX(fabs(irbphat),
|
|
fabs(*(ckt->CKTstate0 + here->VBICirbp)))+
|
|
ckt->CKTabstol) )
|
|
if( (fabs(ibcphat-*(ckt->CKTstate0 + here->VBICibcp)) <
|
|
ckt->CKTreltol* MAX(fabs(ibcphat),
|
|
fabs(*(ckt->CKTstate0 + here->VBICibcp)))+
|
|
ckt->CKTabstol) )
|
|
if( (fabs(iccphat-*(ckt->CKTstate0 + here->VBICiccp)) <
|
|
ckt->CKTreltol* MAX(fabs(iccphat),
|
|
fabs(*(ckt->CKTstate0 + here->VBICiccp)))+
|
|
ckt->CKTabstol) ) {
|
|
/*
|
|
* bypassing....
|
|
*/
|
|
Vbei = *(ckt->CKTstate0 + here->VBICvbei);
|
|
Vbex = *(ckt->CKTstate0 + here->VBICvbex);
|
|
Vbci = *(ckt->CKTstate0 + here->VBICvbci);
|
|
Vbcx = *(ckt->CKTstate0 + here->VBICvbcx);
|
|
Vbep = *(ckt->CKTstate0 + here->VBICvbep);
|
|
Vrci = *(ckt->CKTstate0 + here->VBICvrci);
|
|
Vrbi = *(ckt->CKTstate0 + here->VBICvrbi);
|
|
Vrbp = *(ckt->CKTstate0 + here->VBICvrbp);
|
|
Vbcp = *(ckt->CKTstate0 + here->VBICvbcp);
|
|
Vxf1 = *(ckt->CKTstate0 + here->VBICvxf1);
|
|
Vxf2 = *(ckt->CKTstate0 + here->VBICvxf2);
|
|
|
|
Ibe = *(ckt->CKTstate0 + here->VBICibe);
|
|
Ibe_Vbei = *(ckt->CKTstate0 + here->VBICibe_Vbei);
|
|
Ibex = *(ckt->CKTstate0 + here->VBICibex);
|
|
Ibex_Vbex = *(ckt->CKTstate0 + here->VBICibex_Vbex);
|
|
Iciei = *(ckt->CKTstate0 + here->VBICiciei);
|
|
Iciei_Vbei = *(ckt->CKTstate0 + here->VBICiciei_Vbei);
|
|
Iciei_Vbci = *(ckt->CKTstate0 + here->VBICiciei_Vbci);
|
|
Iciei_Vrth = *(ckt->CKTstate0 + here->VBICiciei_Vrth);
|
|
Iciei_Vxf2 = *(ckt->CKTstate0 + here->VBICiciei_Vxf2);
|
|
Ibc = *(ckt->CKTstate0 + here->VBICibc);
|
|
Ibc_Vbci = *(ckt->CKTstate0 + here->VBICibc_Vbci);
|
|
Ibc_Vbei = *(ckt->CKTstate0 + here->VBICibc_Vbei);
|
|
Ibep = *(ckt->CKTstate0 + here->VBICibep);
|
|
Ibep_Vbep = *(ckt->CKTstate0 + here->VBICibep_Vbep);
|
|
Irci = *(ckt->CKTstate0 + here->VBICirci);
|
|
Irci_Vrci = *(ckt->CKTstate0 + here->VBICirci_Vrci);
|
|
Irci_Vbci = *(ckt->CKTstate0 + here->VBICirci_Vbci);
|
|
Irci_Vbcx = *(ckt->CKTstate0 + here->VBICirci_Vbcx);
|
|
Irbi = *(ckt->CKTstate0 + here->VBICirbi);
|
|
Irbi_Vrbi = *(ckt->CKTstate0 + here->VBICirbi_Vrbi);
|
|
Irbi_Vbei = *(ckt->CKTstate0 + here->VBICirbi_Vbei);
|
|
Irbi_Vbci = *(ckt->CKTstate0 + here->VBICirbi_Vbci);
|
|
Irbp = *(ckt->CKTstate0 + here->VBICirbp);
|
|
Irbp_Vrbp = *(ckt->CKTstate0 + here->VBICirbp_Vrbp);
|
|
Irbp_Vbep = *(ckt->CKTstate0 + here->VBICirbp_Vbep);
|
|
Irbp_Vbci = *(ckt->CKTstate0 + here->VBICirbp_Vbci);
|
|
Ibcp = *(ckt->CKTstate0 + here->VBICibcp);
|
|
Ibcp_Vbcp = *(ckt->CKTstate0 + here->VBICibcp_Vbcp);
|
|
Iccp = *(ckt->CKTstate0 + here->VBICiccp);
|
|
Iccp_Vbep = *(ckt->CKTstate0 + here->VBICiccp_Vbep);
|
|
Iccp_Vbci = *(ckt->CKTstate0 + here->VBICiccp_Vbci);
|
|
Iccp_Vbcp = *(ckt->CKTstate0 + here->VBICiccp_Vbcp);
|
|
gqbeo = *(ckt->CKTstate0 + here->VBICgqbeo);
|
|
gqbco = *(ckt->CKTstate0 + here->VBICgqbco);
|
|
Ircx_Vrcx = *(ckt->CKTstate0 + here->VBICircx_Vrcx);
|
|
Irbx_Vrbx = *(ckt->CKTstate0 + here->VBICirbx_Vrbx);
|
|
Irs_Vrs = *(ckt->CKTstate0 + here->VBICirs_Vrs);
|
|
Ire_Vre = *(ckt->CKTstate0 + here->VBICire_Vre);
|
|
if (here->VBIC_excessPhase) {
|
|
Ixf1 = *(ckt->CKTstate0 + here->VBICixf1);
|
|
Ixf1_Vbei = *(ckt->CKTstate0 + here->VBICixf1_Vbei);
|
|
Ixf1_Vbci = *(ckt->CKTstate0 + here->VBICixf1_Vbci);
|
|
Ixf1_Vxf2 = *(ckt->CKTstate0 + here->VBICixf1_Vxf2);
|
|
Ixf1_Vxf1 = *(ckt->CKTstate0 + here->VBICixf1_Vxf1);
|
|
Ixf1_Vrth = *(ckt->CKTstate0 + here->VBICixf1_Vrth);
|
|
Ixf2 = *(ckt->CKTstate0 + here->VBICixf2);
|
|
Ixf2_Vbei = *(ckt->CKTstate0 + here->VBICixf2_Vbei);
|
|
Ixf2_Vbci = *(ckt->CKTstate0 + here->VBICixf2_Vbci);
|
|
Ixf2_Vxf1 = *(ckt->CKTstate0 + here->VBICixf2_Vxf1);
|
|
Ixf2_Vxf2 = *(ckt->CKTstate0 + here->VBICixf2_Vxf2);
|
|
Ixf2_Vrth = *(ckt->CKTstate0 + here->VBICixf2_Vrth);
|
|
}
|
|
goto load;
|
|
}
|
|
/*
|
|
* limit nonlinear branch voltages
|
|
*/
|
|
ichk1 = 1, ichk2 = 1, ichk3 = 1, ichk4 = 1, ichk5 = 1, ichk6 = 0;
|
|
Vbei = DEVpnjlim(Vbei,*(ckt->CKTstate0 + here->VBICvbei),vt,
|
|
here->VBICtVcrit,&icheck);
|
|
Vbex = DEVpnjlim(Vbex,*(ckt->CKTstate0 + here->VBICvbex),vt,
|
|
here->VBICtVcrit,&ichk1);
|
|
Vbci = DEVpnjlim(Vbci,*(ckt->CKTstate0 + here->VBICvbci),vt,
|
|
here->VBICtVcrit,&ichk2);
|
|
Vbcx = DEVpnjlim(Vbcx,*(ckt->CKTstate0 + here->VBICvbcx),vt,
|
|
here->VBICtVcrit,&ichk3);
|
|
Vbep = DEVpnjlim(Vbep,*(ckt->CKTstate0 + here->VBICvbep),vt,
|
|
here->VBICtVcrit,&ichk4);
|
|
Vbcp = DEVpnjlim(Vbcp,*(ckt->CKTstate0 + here->VBICvbcp),vt,
|
|
here->VBICtVcrit,&ichk5);
|
|
if (here->VBIC_selfheat) {
|
|
ichk6 = 1;
|
|
Vrth = DEVlimitlog(Vrth,
|
|
*(ckt->CKTstate0 + here->VBICvrth),100,&ichk6);
|
|
}
|
|
if ((ichk1 == 1) || (ichk2 == 1) || (ichk3 == 1) || (ichk4 == 1) || (ichk5 == 1) || (ichk6 == 1)) icheck=1;
|
|
}
|
|
/*
|
|
* determine dc current and derivatives
|
|
*/
|
|
Vcei = Vbei - Vbci;
|
|
Vcep = Vbep - Vbcp;
|
|
iret = vbic_4T_et_cf_fj(p
|
|
,&Vrth, &Vbei, &Vbex, &Vbci, &Vbep, &Vbcp
|
|
,&Vrcx, &Vbcx, &Vrci, &Vrbx, &Vrbi, &Vre, &Vrbp
|
|
,&Vrs, &Vbe, &Vbc, &Vcei, &Vcep, &Ibe, &Ibe_Vrth
|
|
,&Ibe_Vbei, &Ibex, &Ibex_Vrth, &Ibex_Vbex, &Itzf, &Itzf_Vrth, &Itzf_Vbei
|
|
,&Itzf_Vbci, &Itzr, &Itzr_Vrth, &Itzr_Vbci, &Itzr_Vbei, &Ibc, &Ibc_Vrth
|
|
,&Ibc_Vbci, &Ibc_Vbei, &Ibep, &Ibep_Vrth, &Ibep_Vbep, &Ircx, &Ircx_Vrcx
|
|
,&Ircx_Vrth, &Irci, &Irci_Vrci, &Irci_Vrth, &Irci_Vbci, &Irci_Vbcx, &Irbx
|
|
,&Irbx_Vrbx, &Irbx_Vrth, &Irbi, &Irbi_Vrbi, &Irbi_Vrth, &Irbi_Vbei, &Irbi_Vbci
|
|
,&Ire, &Ire_Vre, &Ire_Vrth, &Irbp, &Irbp_Vrbp, &Irbp_Vrth, &Irbp_Vbep
|
|
,&Irbp_Vbci, &Qbe, &Qbe_Vrth, &Qbe_Vbei, &Qbe_Vbci, &Qbex, &Qbex_Vrth
|
|
,&Qbex_Vbex, &Qbc, &Qbc_Vrth, &Qbc_Vbci, &Qbcx, &Qbcx_Vrth, &Qbcx_Vbcx
|
|
,&Qbep, &Qbep_Vrth, &Qbep_Vbep, &Qbep_Vbci, &Qbeo, &Qbeo_Vbe, &Qbco
|
|
,&Qbco_Vbc, &Ibcp, &Ibcp_Vrth, &Ibcp_Vbcp, &Iccp, &Iccp_Vrth, &Iccp_Vbep
|
|
,&Iccp_Vbci, &Iccp_Vbcp, &Irs, &Irs_Vrs, &Irs_Vrth, &Qbcp, &Qbcp_Vrth
|
|
,&Qbcp_Vbcp, &Irth, &Irth_Vrth, &Ith, &Ith_Vrth, &Ith_Vbei, &Ith_Vbci
|
|
,&Ith_Vcei, &Ith_Vbex, &Ith_Vbep, &Ith_Vrs, &Ith_Vbcp, &Ith_Vcep, &Ith_Vrcx
|
|
,&Ith_Vrci, &Ith_Vbcx, &Ith_Vrbx, &Ith_Vrbi, &Ith_Vre, &Ith_Vrbp, &Qcth, &Qcth_Vrth
|
|
,&Tf, &Tf_Vbei, &Tf_Vbci, &Tf_Vrth
|
|
,&SCALE);
|
|
|
|
here->VBICpower = Ith;
|
|
|
|
// Excess Phase calculation
|
|
if (here->VBIC_excessPhase) {
|
|
Ixf1 = (Vxf2-Itzf)/Tf*model->VBICdelayTimeF;
|
|
Ixf1_Vxf1 = 0.0;
|
|
Ixf1_Vxf2 = 1.0/Tf*model->VBICdelayTimeF;
|
|
Ixf1_ditf = -Ixf1_Vxf2;
|
|
Ixf1_dTf = -Ixf1/Tf;
|
|
Ixf1_Vbei = Ixf1_ditf*Itzf_Vbei + Ixf1_dTf*Tf_Vbei;
|
|
Ixf1_Vbci = Ixf1_ditf*Itzf_Vbci + Ixf1_dTf*Tf_Vbci;
|
|
Ixf1_Vrth = Ixf1_ditf*Itzf_Vrth + Ixf1_dTf*Tf_Vrth;
|
|
|
|
Ixf2 = (Vxf2-Vxf1)/Tf*model->VBICdelayTimeF;
|
|
Ixf2_Vxf2 = 1.0/Tf*model->VBICdelayTimeF;
|
|
Ixf2_Vxf1 = -Ixf2_Vxf2;
|
|
Ixf2_dTf = -Ixf2/Tf;
|
|
Ixf2_Vbei = Ixf2_dTf*Tf_Vbei;
|
|
Ixf2_Vbci = Ixf2_dTf*Tf_Vbci;
|
|
Ixf2_Vrth = Ixf2_dTf*Tf_Vrth;
|
|
|
|
Qxf1 = model->VBICdelayTimeF*Vxf1;
|
|
Qxf1_Vxf1 = model->VBICdelayTimeF;
|
|
Qxf2 = model->VBICdelayTimeF*Vxf2/3;
|
|
Qxf2_Vxf2 = model->VBICdelayTimeF/3;
|
|
|
|
Itxf = Vxf2;
|
|
Itxf_Vbei = 0;
|
|
Itxf_Vbci = 0;
|
|
Itxf_Vrth = 0;
|
|
Itxf_Vxf2 = 1.0;
|
|
} else {
|
|
Ixf1 = Vxf1;
|
|
Ixf1_Vxf1 = 1.0;
|
|
Ixf1_Vxf2 = 0;
|
|
Ixf1_Vbei = 0;
|
|
Ixf1_Vbci = 0;
|
|
Ixf1_Vrth = 0;
|
|
|
|
Ixf2 = Vxf2;
|
|
Ixf2_Vxf2 = 1.0;
|
|
Ixf2_Vxf1 = 0;
|
|
Ixf2_Vbei = 0;
|
|
Ixf2_Vbci = 0;
|
|
Ixf2_Vrth = 0;
|
|
|
|
Qxf1 = 0;
|
|
Qxf1_Vxf1 = 0;
|
|
Qxf2 = 0;
|
|
Qxf2_Vxf2 = 0;
|
|
|
|
Itxf = Itzf;
|
|
Itxf_Vbei = Itzf_Vbei;
|
|
Itxf_Vbci = Itzf_Vbci;
|
|
Itxf_Vrth = Itzf_Vrth;
|
|
Itxf_Vxf2 = 0;
|
|
}
|
|
|
|
Iciei = Itxf - Itzr;
|
|
Iciei_Vbei = Itxf_Vbei - Itzr_Vbei;
|
|
Iciei_Vbci = Itxf_Vbci - Itzr_Vbci;
|
|
Iciei_Vrth = Itxf_Vrth - Itzr_Vrth;
|
|
Iciei_Vxf2 = Itxf_Vxf2;
|
|
|
|
Ibe += ckt->CKTgmin*Vbei;
|
|
Ibe_Vbei += ckt->CKTgmin;
|
|
Ibex += ckt->CKTgmin*Vbex;
|
|
Ibex_Vbex += ckt->CKTgmin;
|
|
Ibc += ckt->CKTgmin*Vbci;
|
|
Ibc_Vbci += ckt->CKTgmin;
|
|
Ibep += ckt->CKTgmin*Vbep;
|
|
Ibep_Vbep += ckt->CKTgmin;
|
|
Irci += ckt->CKTgmin*Vrci;
|
|
Irci_Vrci += ckt->CKTgmin;
|
|
Irci += ckt->CKTgmin*Vbci;
|
|
Irci_Vbci += ckt->CKTgmin;
|
|
Irci += ckt->CKTgmin*Vbcx;
|
|
Irci_Vbcx += ckt->CKTgmin;
|
|
Ibcp += ckt->CKTgmin*Vbcp;
|
|
Ibcp_Vbcp += ckt->CKTgmin;
|
|
|
|
if( (ckt->CKTmode & (MODEDCTRANCURVE | MODETRAN | MODEAC)) ||
|
|
((ckt->CKTmode & MODETRANOP) && (ckt->CKTmode & MODEUIC)) ||
|
|
(ckt->CKTmode & MODEINITSMSIG)) {
|
|
/*
|
|
* charge storage elements
|
|
*/
|
|
|
|
*(ckt->CKTstate0 + here->VBICqbe) = Qbe;
|
|
*(ckt->CKTstate0 + here->VBICqbex) = Qbex;
|
|
*(ckt->CKTstate0 + here->VBICqbc) = Qbc;
|
|
*(ckt->CKTstate0 + here->VBICqbcx) = Qbcx;
|
|
*(ckt->CKTstate0 + here->VBICqbep) = Qbep;
|
|
*(ckt->CKTstate0 + here->VBICqbeo) = Qbeo;
|
|
*(ckt->CKTstate0 + here->VBICqbco) = Qbco;
|
|
*(ckt->CKTstate0 + here->VBICqbcp) = Qbcp;
|
|
if (here->VBIC_selfheat) {
|
|
*(ckt->CKTstate0 + here->VBICqcth) = Qcth;
|
|
}
|
|
if (here->VBIC_excessPhase) {
|
|
*(ckt->CKTstate0 + here->VBICqxf1) = Qxf1;
|
|
*(ckt->CKTstate0 + here->VBICcqxf1) = Qxf1_Vxf1;
|
|
*(ckt->CKTstate0 + here->VBICqxf2) = Qxf2;
|
|
*(ckt->CKTstate0 + here->VBICcqxf2) = Qxf2_Vxf2;
|
|
}
|
|
|
|
here->VBICcapbe = Qbe_Vbei;
|
|
here->VBICcapbex = Qbex_Vbex;
|
|
here->VBICcapbc = Qbc_Vbci;
|
|
here->VBICcapbcx = Qbcx_Vbcx;
|
|
here->VBICcapbep = Qbep_Vbep;
|
|
here->VBICcapbcp = Qbcp_Vbcp;
|
|
if (here->VBIC_selfheat)
|
|
here->VBICcapcth = Qcth_Vrth;
|
|
|
|
/*
|
|
* store small-signal parameters
|
|
*/
|
|
if ( (!(ckt->CKTmode & MODETRANOP))||
|
|
(!(ckt->CKTmode & MODEUIC)) ) {
|
|
if(ckt->CKTmode & MODEINITSMSIG) {
|
|
*(ckt->CKTstate0 + here->VBICcqbe) = Qbe_Vbei;
|
|
*(ckt->CKTstate0 + here->VBICcqbeci) = Qbe_Vbci;
|
|
*(ckt->CKTstate0 + here->VBICcqbex) = Qbex_Vbex;
|
|
*(ckt->CKTstate0 + here->VBICcqbc) = Qbc_Vbci;
|
|
*(ckt->CKTstate0 + here->VBICcqbcx) = Qbcx_Vbcx;
|
|
*(ckt->CKTstate0 + here->VBICcqbep) = Qbep_Vbep;
|
|
*(ckt->CKTstate0 + here->VBICcqbepci) = Qbep_Vbci;
|
|
*(ckt->CKTstate0 + here->VBICcqbeo) = Qbeo_Vbe;
|
|
*(ckt->CKTstate0 + here->VBICcqbco) = Qbco_Vbc;
|
|
*(ckt->CKTstate0 + here->VBICcqbcp) = Qbcp_Vbcp;
|
|
*(ckt->CKTstate0 + here->VBICcqxf1) = Qxf1_Vxf1;
|
|
*(ckt->CKTstate0 + here->VBICcqxf2) = Qxf2_Vxf2;
|
|
if (here->VBIC_selfheat) {
|
|
here->VBICcapcth = Qcth_Vrth;
|
|
here->VBICcapqbeth = Qbe_Vrth;
|
|
here->VBICcapqbexth = Qbex_Vrth;
|
|
here->VBICcapqbcth = Qbc_Vrth;
|
|
here->VBICcapqbcxth = Qbcx_Vrth;
|
|
here->VBICcapqbepth = Qbep_Vrth;
|
|
here->VBICcapqbcpth = Qbcp_Vrth;
|
|
}
|
|
continue; /* go to 1000 */
|
|
}
|
|
/*
|
|
* transient analysis
|
|
*/
|
|
|
|
if(ckt->CKTmode & MODEINITTRAN) {
|
|
*(ckt->CKTstate1 + here->VBICqbe) =
|
|
*(ckt->CKTstate0 + here->VBICqbe) ;
|
|
*(ckt->CKTstate1 + here->VBICqbex) =
|
|
*(ckt->CKTstate0 + here->VBICqbex) ;
|
|
*(ckt->CKTstate1 + here->VBICqbc) =
|
|
*(ckt->CKTstate0 + here->VBICqbc) ;
|
|
*(ckt->CKTstate1 + here->VBICqbcx) =
|
|
*(ckt->CKTstate0 + here->VBICqbcx) ;
|
|
*(ckt->CKTstate1 + here->VBICqbep) =
|
|
*(ckt->CKTstate0 + here->VBICqbep) ;
|
|
*(ckt->CKTstate1 + here->VBICqbeo) =
|
|
*(ckt->CKTstate0 + here->VBICqbeo) ;
|
|
*(ckt->CKTstate1 + here->VBICqbco) =
|
|
*(ckt->CKTstate0 + here->VBICqbco) ;
|
|
*(ckt->CKTstate1 + here->VBICqbcp) =
|
|
*(ckt->CKTstate0 + here->VBICqbcp) ;
|
|
if (here->VBIC_selfheat)
|
|
*(ckt->CKTstate1 + here->VBICqcth) =
|
|
*(ckt->CKTstate0 + here->VBICqcth) ;
|
|
if (here->VBIC_excessPhase) {
|
|
*(ckt->CKTstate1 + here->VBICqxf1) =
|
|
*(ckt->CKTstate0 + here->VBICqxf1) ;
|
|
*(ckt->CKTstate1 + here->VBICqxf2) =
|
|
*(ckt->CKTstate0 + here->VBICqxf2) ;
|
|
}
|
|
}
|
|
error = NIintegrate(ckt,&geq,&ceq,Qbe_Vbei,here->VBICqbe);
|
|
if(error) return(error);
|
|
Ibe_Vbei = Ibe_Vbei + geq;
|
|
Ibe = Ibe + *(ckt->CKTstate0 + here->VBICcqbe);
|
|
|
|
error = NIintegrate(ckt,&geq,&ceq,Qbex_Vbex,here->VBICqbex);
|
|
if(error) return(error);
|
|
Ibex_Vbex = Ibex_Vbex + geq;
|
|
Ibex = Ibex + *(ckt->CKTstate0 + here->VBICcqbex);
|
|
|
|
error = NIintegrate(ckt,&geq,&ceq,Qbc_Vbci,here->VBICqbc);
|
|
if(error) return(error);
|
|
Ibc_Vbci = Ibc_Vbci + geq;
|
|
Ibc = Ibc + *(ckt->CKTstate0 + here->VBICcqbc);
|
|
|
|
error = NIintegrate(ckt,&geq,&ceq,Qbcx_Vbcx,here->VBICqbcx);
|
|
if(error) return(error);
|
|
gbcx = geq;
|
|
cbcx = *(ckt->CKTstate0 + here->VBICcqbcx);
|
|
|
|
error = NIintegrate(ckt,&geq,&ceq,Qbep_Vbep,here->VBICqbep);
|
|
if(error) return(error);
|
|
Ibep_Vbep = Ibep_Vbep + geq;
|
|
Ibep = Ibep + *(ckt->CKTstate0 + here->VBICcqbep);
|
|
|
|
error = NIintegrate(ckt,&geq,&ceq,Qbcp_Vbcp,here->VBICqbcp);
|
|
if(error) return(error);
|
|
Ibcp_Vbcp = Ibcp_Vbcp + geq;
|
|
Ibcp = Ibcp + *(ckt->CKTstate0 + here->VBICcqbcp);
|
|
|
|
if (here->VBIC_selfheat)
|
|
{
|
|
error = NIintegrate(ckt,&geq,&ceq,Qcth_Vrth,here->VBICqcth);
|
|
if(error) return(error);
|
|
Icth_Vrth = geq;
|
|
Icth = *(ckt->CKTstate0 + here->VBICcqcth);
|
|
}
|
|
if (here->VBIC_excessPhase) {
|
|
//Qxf1
|
|
error = NIintegrate(ckt,&geq,&ceq,Qxf1_Vxf1,here->VBICqxf1);
|
|
if(error) return(error);
|
|
Ixf1_Vxf1 += geq;
|
|
Ixf1 += *(ckt->CKTstate0 + here->VBICcqxf1);
|
|
//Qxf2
|
|
error = NIintegrate(ckt,&geq,&ceq,Qxf2_Vxf2,here->VBICqxf2);
|
|
if(error) return(error);
|
|
Ixf2_Vxf2 += geq;
|
|
Ixf2 += *(ckt->CKTstate0 + here->VBICcqxf2);
|
|
}
|
|
|
|
if(ckt->CKTmode & MODEINITTRAN) {
|
|
*(ckt->CKTstate1 + here->VBICcqbe) =
|
|
*(ckt->CKTstate0 + here->VBICcqbe);
|
|
*(ckt->CKTstate1 + here->VBICcqbex) =
|
|
*(ckt->CKTstate0 + here->VBICcqbex);
|
|
*(ckt->CKTstate1 + here->VBICcqbc) =
|
|
*(ckt->CKTstate0 + here->VBICcqbc);
|
|
*(ckt->CKTstate1 + here->VBICcqbcx) =
|
|
*(ckt->CKTstate0 + here->VBICcqbcx);
|
|
*(ckt->CKTstate1 + here->VBICcqbep) =
|
|
*(ckt->CKTstate0 + here->VBICcqbep);
|
|
*(ckt->CKTstate1 + here->VBICcqbcp) =
|
|
*(ckt->CKTstate0 + here->VBICcqbcp);
|
|
if (here->VBIC_selfheat)
|
|
*(ckt->CKTstate1 + here->VBICcqcth) =
|
|
*(ckt->CKTstate0 + here->VBICcqcth);
|
|
if (here->VBIC_excessPhase) {
|
|
*(ckt->CKTstate1 + here->VBICcqxf1) =
|
|
*(ckt->CKTstate0 + here->VBICcqxf1);
|
|
*(ckt->CKTstate1 + here->VBICcqxf2) =
|
|
*(ckt->CKTstate0 + here->VBICcqxf2);
|
|
}
|
|
}
|
|
}
|
|
}
|
|
|
|
/*
|
|
* check convergence
|
|
*/
|
|
if ( (!(ckt->CKTmode & MODEINITFIX))||(!(here->VBICoff))) {
|
|
if (icheck == 1) {
|
|
ckt->CKTnoncon++;
|
|
ckt->CKTtroubleElt = (GENinstance *) here;
|
|
}
|
|
}
|
|
|
|
/*
|
|
* charge storage for outer b-e and b-c junctions
|
|
*/
|
|
if(ckt->CKTmode & (MODETRAN | MODEAC)) {
|
|
error = NIintegrate(ckt,&gqbeo,&cqbeo,Qbeo_Vbe,here->VBICqbeo);
|
|
if(error) return(error);
|
|
error = NIintegrate(ckt,&gqbco,&cqbco,Qbco_Vbc,here->VBICqbco);
|
|
if(error) return(error);
|
|
if(ckt->CKTmode & MODEINITTRAN) {
|
|
*(ckt->CKTstate1 + here->VBICcqbeo) =
|
|
*(ckt->CKTstate0 + here->VBICcqbeo);
|
|
*(ckt->CKTstate1 + here->VBICcqbco) =
|
|
*(ckt->CKTstate0 + here->VBICcqbco);
|
|
}
|
|
}
|
|
|
|
*(ckt->CKTstate0 + here->VBICvrth) = Vrth;
|
|
*(ckt->CKTstate0 + here->VBICvbei) = Vbei;
|
|
*(ckt->CKTstate0 + here->VBICvbex) = Vbex;
|
|
*(ckt->CKTstate0 + here->VBICvbci) = Vbci;
|
|
*(ckt->CKTstate0 + here->VBICvbcx) = Vbcx;
|
|
*(ckt->CKTstate0 + here->VBICvbep) = Vbep;
|
|
*(ckt->CKTstate0 + here->VBICvrci) = Vrci;
|
|
*(ckt->CKTstate0 + here->VBICvrbi) = Vrbi;
|
|
*(ckt->CKTstate0 + here->VBICvrbp) = Vrbp;
|
|
*(ckt->CKTstate0 + here->VBICvbcp) = Vbcp;
|
|
if (here->VBIC_excessPhase) {
|
|
*(ckt->CKTstate0 + here->VBICvxf1) = Vxf1;
|
|
*(ckt->CKTstate0 + here->VBICvxf2) = Vxf2;
|
|
}
|
|
|
|
*(ckt->CKTstate0 + here->VBICibe) = Ibe;
|
|
*(ckt->CKTstate0 + here->VBICibe_Vbei) = Ibe_Vbei;
|
|
*(ckt->CKTstate0 + here->VBICibex) = Ibex;
|
|
*(ckt->CKTstate0 + here->VBICibex_Vbex) = Ibex_Vbex;
|
|
*(ckt->CKTstate0 + here->VBICiciei) = Iciei;
|
|
*(ckt->CKTstate0 + here->VBICiciei_Vbei) = Iciei_Vbei;
|
|
*(ckt->CKTstate0 + here->VBICiciei_Vbci) = Iciei_Vbci;
|
|
*(ckt->CKTstate0 + here->VBICiciei_Vrth) = Iciei_Vrth;
|
|
*(ckt->CKTstate0 + here->VBICiciei_Vxf2) = Iciei_Vxf2;
|
|
*(ckt->CKTstate0 + here->VBICibc) = Ibc;
|
|
*(ckt->CKTstate0 + here->VBICibc_Vbci) = Ibc_Vbci;
|
|
*(ckt->CKTstate0 + here->VBICibc_Vbei) = Ibc_Vbei;
|
|
*(ckt->CKTstate0 + here->VBICibep) = Ibep;
|
|
*(ckt->CKTstate0 + here->VBICibep_Vbep) = Ibep_Vbep;
|
|
*(ckt->CKTstate0 + here->VBICirci) = Irci;
|
|
*(ckt->CKTstate0 + here->VBICirci_Vrci) = Irci_Vrci;
|
|
*(ckt->CKTstate0 + here->VBICirci_Vbci) = Irci_Vbci;
|
|
*(ckt->CKTstate0 + here->VBICirci_Vbcx) = Irci_Vbcx;
|
|
*(ckt->CKTstate0 + here->VBICirbi) = Irbi;
|
|
*(ckt->CKTstate0 + here->VBICirbi_Vrbi) = Irbi_Vrbi;
|
|
*(ckt->CKTstate0 + here->VBICirbi_Vbei) = Irbi_Vbei;
|
|
*(ckt->CKTstate0 + here->VBICirbi_Vbci) = Irbi_Vbci;
|
|
*(ckt->CKTstate0 + here->VBICirbp) = Irbp;
|
|
*(ckt->CKTstate0 + here->VBICirbp_Vrbp) = Irbp_Vrbp;
|
|
*(ckt->CKTstate0 + here->VBICirbp_Vbep) = Irbp_Vbep;
|
|
*(ckt->CKTstate0 + here->VBICirbp_Vbci) = Irbp_Vbci;
|
|
*(ckt->CKTstate0 + here->VBICibcp) = Ibcp;
|
|
*(ckt->CKTstate0 + here->VBICibcp_Vbcp) = Ibcp_Vbcp;
|
|
*(ckt->CKTstate0 + here->VBICiccp) = Iccp;
|
|
*(ckt->CKTstate0 + here->VBICiccp_Vbep) = Iccp_Vbep;
|
|
*(ckt->CKTstate0 + here->VBICiccp_Vbci) = Iccp_Vbci;
|
|
*(ckt->CKTstate0 + here->VBICiccp_Vbcp) = Iccp_Vbcp;
|
|
*(ckt->CKTstate0 + here->VBICgqbeo) = gqbeo;
|
|
*(ckt->CKTstate0 + here->VBICgqbco) = gqbco;
|
|
*(ckt->CKTstate0 + here->VBICircx_Vrcx) = Ircx_Vrcx;
|
|
*(ckt->CKTstate0 + here->VBICirbx_Vrbx) = Irbx_Vrbx;
|
|
*(ckt->CKTstate0 + here->VBICirs_Vrs) = Irs_Vrs;
|
|
*(ckt->CKTstate0 + here->VBICire_Vre) = Ire_Vre;
|
|
|
|
*(ckt->CKTstate0 + here->VBICixf1) = Ixf1;
|
|
*(ckt->CKTstate0 + here->VBICixf1_Vbei) = Ixf1_Vbei;
|
|
*(ckt->CKTstate0 + here->VBICixf1_Vbci) = Ixf1_Vbci;
|
|
*(ckt->CKTstate0 + here->VBICixf1_Vxf2) = Ixf1_Vxf2;
|
|
*(ckt->CKTstate0 + here->VBICixf1_Vxf1) = Ixf1_Vxf1;
|
|
*(ckt->CKTstate0 + here->VBICixf1_Vrth) = Ixf1_Vrth;
|
|
|
|
*(ckt->CKTstate0 + here->VBICixf2) = Ixf2;
|
|
*(ckt->CKTstate0 + here->VBICixf2_Vbei) = Ixf2_Vbei;
|
|
*(ckt->CKTstate0 + here->VBICixf2_Vbci) = Ixf2_Vbci;
|
|
*(ckt->CKTstate0 + here->VBICixf2_Vxf1) = Ixf2_Vxf1;
|
|
*(ckt->CKTstate0 + here->VBICixf2_Vxf2) = Ixf2_Vxf2;
|
|
*(ckt->CKTstate0 + here->VBICixf2_Vrth) = Ixf2_Vrth;
|
|
|
|
if (here->VBIC_selfheat)
|
|
{
|
|
*(ckt->CKTstate0 + here->VBICcqcth) = Icth;
|
|
*(ckt->CKTstate0 + here->VBICicth_Vrth) = Icth_Vrth;
|
|
|
|
here->VBICibe_Vrth = Ibe_Vrth;
|
|
here->VBICibex_Vrth = Ibex_Vrth;
|
|
here->VBICibc_Vrth = Ibc_Vrth;
|
|
here->VBICibep_Vrth = Ibep_Vrth;
|
|
here->VBICircx_Vrth = Ircx_Vrth;
|
|
here->VBICirci_Vrth = Irci_Vrth;
|
|
here->VBICirbx_Vrth = Irbx_Vrth;
|
|
here->VBICirbi_Vrth = Irbi_Vrth;
|
|
here->VBICire_Vrth = Ire_Vrth;
|
|
here->VBICirbp_Vrth = Irbp_Vrth;
|
|
here->VBICibcp_Vrth = Ibcp_Vrth;
|
|
here->VBICiccp_Vrth = Iccp_Vrth;
|
|
here->VBICirs_Vrth = Irs_Vrth;
|
|
here->VBICirth_Vrth = Irth_Vrth;
|
|
here->VBICith_Vrth = Ith_Vrth;
|
|
here->VBICith_Vbei = Ith_Vbei;
|
|
here->VBICith_Vbci = Ith_Vbci;
|
|
here->VBICith_Vcei = Ith_Vcei;
|
|
here->VBICith_Vbex = Ith_Vbex;
|
|
here->VBICith_Vbep = Ith_Vbep;
|
|
here->VBICith_Vbcp = Ith_Vbcp;
|
|
here->VBICith_Vcep = Ith_Vcep;
|
|
here->VBICith_Vrci = Ith_Vrci;
|
|
here->VBICith_Vbcx = Ith_Vbcx;
|
|
here->VBICith_Vrbi = Ith_Vrbi;
|
|
here->VBICith_Vrbp = Ith_Vrbp;
|
|
here->VBICith_Vrcx = Ith_Vrcx;
|
|
here->VBICith_Vrbx = Ith_Vrbx;
|
|
here->VBICith_Vre = Ith_Vre;
|
|
here->VBICith_Vrs = Ith_Vrs;
|
|
|
|
}
|
|
|
|
load:
|
|
/*
|
|
* load current excitation vector and matrix
|
|
*/
|
|
rhs_current = model->VBICtype * (*(ckt->CKTstate0 + here->VBICcqbeo) - Vbe * gqbeo);
|
|
*(ckt->CKTrhs + here->VBICbaseNode) += -rhs_current;
|
|
*(ckt->CKTrhs + here->VBICemitNode) += rhs_current;
|
|
*(here->VBICbaseBasePtr) += gqbeo;
|
|
*(here->VBICemitEmitPtr) += gqbeo;
|
|
*(here->VBICbaseEmitPtr) += -gqbeo;
|
|
*(here->VBICemitBasePtr) += -gqbeo;
|
|
|
|
rhs_current = model->VBICtype * (*(ckt->CKTstate0 + here->VBICcqbco) - Vbc * gqbco);
|
|
*(ckt->CKTrhs + here->VBICbaseNode) += -rhs_current;
|
|
*(ckt->CKTrhs + here->VBICcollNode) += rhs_current;
|
|
*(here->VBICbaseBasePtr) += gqbco;
|
|
*(here->VBICcollCollPtr) += gqbco;
|
|
*(here->VBICbaseCollPtr) += -gqbco;
|
|
*(here->VBICcollBasePtr) += -gqbco;
|
|
|
|
*(ckt->CKTrhs + here->VBICbaseBINode) += -cbcx;
|
|
*(ckt->CKTrhs + here->VBICcollCXNode) += cbcx;
|
|
*(here->VBICbaseBIBaseBIPtr) += gbcx;
|
|
*(here->VBICcollCXCollCXPtr) += gbcx;
|
|
*(here->VBICbaseBICollCXPtr) += -gbcx;
|
|
*(here->VBICcollCXBaseBIPtr) += -gbcx;
|
|
|
|
/*
|
|
c MNA at internal nodes
|
|
c
|
|
c Stamp element: Ibe
|
|
*/
|
|
rhs_current = model->VBICtype * (Ibe - Ibe_Vbei*Vbei);
|
|
*(ckt->CKTrhs + here->VBICbaseBINode) += -rhs_current;
|
|
*(here->VBICbaseBIBaseBIPtr) += Ibe_Vbei;
|
|
*(here->VBICbaseBIEmitEIPtr) += -Ibe_Vbei;
|
|
*(ckt->CKTrhs + here->VBICemitEINode) += rhs_current;
|
|
*(here->VBICemitEIBaseBIPtr) += -Ibe_Vbei;
|
|
*(here->VBICemitEIEmitEIPtr) += Ibe_Vbei;
|
|
/*
|
|
c Stamp element: Ibex
|
|
*/
|
|
rhs_current = model->VBICtype * (Ibex - Ibex_Vbex*Vbex);
|
|
*(ckt->CKTrhs + here->VBICbaseBXNode) += -rhs_current;
|
|
*(here->VBICbaseBXBaseBXPtr) += Ibex_Vbex;
|
|
*(here->VBICbaseBXEmitEIPtr) += -Ibex_Vbex;
|
|
*(ckt->CKTrhs + here->VBICemitEINode) += rhs_current;
|
|
*(here->VBICemitEIBaseBXPtr) += -Ibex_Vbex;
|
|
*(here->VBICemitEIEmitEIPtr) += Ibex_Vbex;
|
|
/*
|
|
c Stamp element: Iciei
|
|
*/
|
|
rhs_current = model->VBICtype * (Iciei - Iciei_Vbei*Vbei - Iciei_Vbci*Vbci - Iciei_Vxf2*Vxf2);
|
|
*(ckt->CKTrhs + here->VBICcollCINode) += -rhs_current;
|
|
*(here->VBICcollCIBaseBIPtr) += Iciei_Vbei;
|
|
*(here->VBICcollCIEmitEIPtr) += -Iciei_Vbei;
|
|
*(here->VBICcollCIBaseBIPtr) += Iciei_Vbci;
|
|
*(here->VBICcollCICollCIPtr) += -Iciei_Vbci;
|
|
*(ckt->CKTrhs + here->VBICemitEINode) += rhs_current;
|
|
*(here->VBICemitEIBaseBIPtr) += -Iciei_Vbei;
|
|
*(here->VBICemitEIEmitEIPtr) += Iciei_Vbei;
|
|
*(here->VBICemitEIBaseBIPtr) += -Iciei_Vbci;
|
|
*(here->VBICemitEICollCIPtr) += Iciei_Vbci;
|
|
if (here->VBIC_excessPhase) {
|
|
// with respect to Vxf2
|
|
*(here->VBICcollCIXf2Ptr) += Iciei_Vxf2;
|
|
*(here->VBICemitEIXf2Ptr) += -Iciei_Vxf2;
|
|
}
|
|
/*
|
|
c Stamp element: Ibc
|
|
*/
|
|
rhs_current = model->VBICtype * (Ibc - Ibc_Vbci*Vbci - Ibc_Vbei*Vbei);
|
|
*(ckt->CKTrhs + here->VBICbaseBINode) += -rhs_current;
|
|
*(here->VBICbaseBIBaseBIPtr) += Ibc_Vbci;
|
|
*(here->VBICbaseBICollCIPtr) += -Ibc_Vbci;
|
|
*(here->VBICbaseBIBaseBIPtr) += Ibc_Vbei;
|
|
*(here->VBICbaseBIEmitEIPtr) += -Ibc_Vbei;
|
|
*(ckt->CKTrhs + here->VBICcollCINode) += rhs_current;
|
|
*(here->VBICcollCIBaseBIPtr) += -Ibc_Vbci;
|
|
*(here->VBICcollCICollCIPtr) += Ibc_Vbci;
|
|
*(here->VBICcollCIBaseBIPtr) += -Ibc_Vbei;
|
|
*(here->VBICcollCIEmitEIPtr) += Ibc_Vbei;
|
|
/*
|
|
c Stamp element: Ibep
|
|
*/
|
|
rhs_current = model->VBICtype * (Ibep - Ibep_Vbep*Vbep);
|
|
*(ckt->CKTrhs + here->VBICbaseBXNode) += -rhs_current;
|
|
*(here->VBICbaseBXBaseBXPtr) += Ibep_Vbep;
|
|
*(here->VBICbaseBXBaseBPPtr) += -Ibep_Vbep;
|
|
*(ckt->CKTrhs + here->VBICbaseBPNode) += rhs_current;
|
|
*(here->VBICbaseBPBaseBXPtr) += -Ibep_Vbep;
|
|
*(here->VBICbaseBPBaseBPPtr) += Ibep_Vbep;
|
|
/*
|
|
c Stamp element: Rcx
|
|
*/
|
|
*(here->VBICcollCollPtr) += Ircx_Vrcx;
|
|
*(here->VBICcollCXCollCXPtr) += Ircx_Vrcx;
|
|
*(here->VBICcollCXCollPtr) += -Ircx_Vrcx;
|
|
*(here->VBICcollCollCXPtr) += -Ircx_Vrcx;
|
|
|
|
/*
|
|
c Stamp element: Rci
|
|
*/
|
|
rhs_current = model->VBICtype * (Irci - Irci_Vrci*Vrci - Irci_Vbci*Vbci - Irci_Vbcx*Vbcx);
|
|
*(ckt->CKTrhs + here->VBICcollCXNode) += -rhs_current;
|
|
*(here->VBICcollCXCollCXPtr) += Irci_Vrci;
|
|
*(here->VBICcollCXCollCIPtr) += -Irci_Vrci;
|
|
*(here->VBICcollCXBaseBIPtr) += Irci_Vbci;
|
|
*(here->VBICcollCXCollCIPtr) += -Irci_Vbci;
|
|
*(here->VBICcollCXBaseBIPtr) += Irci_Vbcx;
|
|
*(here->VBICcollCXCollCXPtr) += -Irci_Vbcx;
|
|
*(ckt->CKTrhs + here->VBICcollCINode) += rhs_current;
|
|
*(here->VBICcollCICollCXPtr) += -Irci_Vrci;
|
|
*(here->VBICcollCICollCIPtr) += Irci_Vrci;
|
|
*(here->VBICcollCIBaseBIPtr) += -Irci_Vbci;
|
|
*(here->VBICcollCICollCIPtr) += Irci_Vbci;
|
|
*(here->VBICcollCIBaseBIPtr) += -Irci_Vbcx;
|
|
*(here->VBICcollCICollCXPtr) += Irci_Vbcx;
|
|
/*
|
|
c Stamp element: Rbx
|
|
*/
|
|
*(here->VBICbaseBasePtr) += Irbx_Vrbx;
|
|
*(here->VBICbaseBXBaseBXPtr) += Irbx_Vrbx;
|
|
*(here->VBICbaseBXBasePtr) += -Irbx_Vrbx;
|
|
*(here->VBICbaseBaseBXPtr) += -Irbx_Vrbx;
|
|
/*
|
|
c Stamp element: Rbi
|
|
*/
|
|
rhs_current = model->VBICtype * (Irbi - Irbi_Vrbi*Vrbi - Irbi_Vbei*Vbei - Irbi_Vbci*Vbci);
|
|
*(ckt->CKTrhs + here->VBICbaseBXNode) += -rhs_current;
|
|
*(here->VBICbaseBXBaseBXPtr) += Irbi_Vrbi;
|
|
*(here->VBICbaseBXBaseBIPtr) += -Irbi_Vrbi;
|
|
*(here->VBICbaseBXBaseBIPtr) += Irbi_Vbei;
|
|
*(here->VBICbaseBXEmitEIPtr) += -Irbi_Vbei;
|
|
*(here->VBICbaseBXBaseBIPtr) += Irbi_Vbci;
|
|
*(here->VBICbaseBXCollCIPtr) += -Irbi_Vbci;
|
|
*(ckt->CKTrhs + here->VBICbaseBINode) += rhs_current;
|
|
*(here->VBICbaseBIBaseBXPtr) += -Irbi_Vrbi;
|
|
*(here->VBICbaseBIBaseBIPtr) += Irbi_Vrbi;
|
|
*(here->VBICbaseBIBaseBIPtr) += -Irbi_Vbei;
|
|
*(here->VBICbaseBIEmitEIPtr) += Irbi_Vbei;
|
|
*(here->VBICbaseBIBaseBIPtr) += -Irbi_Vbci;
|
|
*(here->VBICbaseBICollCIPtr) += Irbi_Vbci;
|
|
/*
|
|
c Stamp element: Re
|
|
*/
|
|
*(here->VBICemitEmitPtr) += Ire_Vre;
|
|
*(here->VBICemitEIEmitEIPtr) += Ire_Vre;
|
|
*(here->VBICemitEIEmitPtr) += -Ire_Vre;
|
|
*(here->VBICemitEmitEIPtr) += -Ire_Vre;
|
|
/*
|
|
c Stamp element: Rbp
|
|
*/
|
|
rhs_current = model->VBICtype * (Irbp - Irbp_Vrbp*Vrbp - Irbp_Vbep*Vbep - Irbp_Vbci*Vbci);
|
|
*(ckt->CKTrhs + here->VBICbaseBPNode) += -rhs_current;
|
|
*(here->VBICbaseBPBaseBPPtr) += Irbp_Vrbp;
|
|
*(here->VBICbaseBPCollCXPtr) += -Irbp_Vrbp;
|
|
*(here->VBICbaseBPBaseBXPtr) += Irbp_Vbep;
|
|
*(here->VBICbaseBPBaseBPPtr) += -Irbp_Vbep;
|
|
*(here->VBICbaseBPBaseBIPtr) += Irbp_Vbci;
|
|
*(here->VBICbaseBPCollCIPtr) += -Irbp_Vbci;
|
|
*(ckt->CKTrhs + here->VBICcollCXNode) += rhs_current;
|
|
*(here->VBICcollCXBaseBPPtr) += -Irbp_Vrbp;
|
|
*(here->VBICcollCXCollCXPtr) += Irbp_Vrbp;
|
|
*(here->VBICcollCXBaseBXPtr) += -Irbp_Vbep;
|
|
*(here->VBICcollCXBaseBPPtr) += Irbp_Vbep;
|
|
*(here->VBICcollCXBaseBIPtr) += -Irbp_Vbci;
|
|
*(here->VBICcollCXCollCIPtr) += Irbp_Vbci;
|
|
/*
|
|
c Stamp element: Ibcp
|
|
*/
|
|
rhs_current = model->VBICtype * (Ibcp - Ibcp_Vbcp*Vbcp);
|
|
*(ckt->CKTrhs + here->VBICsubsSINode) += -rhs_current;
|
|
*(here->VBICsubsSISubsSIPtr) += Ibcp_Vbcp;
|
|
*(here->VBICsubsSIBaseBPPtr) += -Ibcp_Vbcp;
|
|
*(ckt->CKTrhs + here->VBICbaseBPNode) += rhs_current;
|
|
*(here->VBICbaseBPSubsSIPtr) += -Ibcp_Vbcp;
|
|
*(here->VBICbaseBPBaseBPPtr) += Ibcp_Vbcp;
|
|
/*
|
|
c Stamp element: Iccp
|
|
*/
|
|
rhs_current = model->VBICtype * (Iccp - Iccp_Vbep*Vbep - Iccp_Vbci*Vbci - Iccp_Vbcp*Vbcp);
|
|
*(ckt->CKTrhs + here->VBICbaseBXNode) += -rhs_current;
|
|
*(here->VBICbaseBXBaseBXPtr) += Iccp_Vbep;
|
|
*(here->VBICbaseBXBaseBPPtr) += -Iccp_Vbep;
|
|
*(here->VBICbaseBXBaseBIPtr) += Iccp_Vbci;
|
|
*(here->VBICbaseBXCollCIPtr) += -Iccp_Vbci;
|
|
*(here->VBICbaseBXSubsSIPtr) += Iccp_Vbcp;
|
|
*(here->VBICbaseBXBaseBPPtr) += -Iccp_Vbcp;
|
|
*(ckt->CKTrhs + here->VBICsubsSINode) += rhs_current;
|
|
*(here->VBICsubsSIBaseBXPtr) += -Iccp_Vbep;
|
|
*(here->VBICsubsSIBaseBPPtr) += Iccp_Vbep;
|
|
*(here->VBICsubsSIBaseBIPtr) += -Iccp_Vbci;
|
|
*(here->VBICsubsSICollCIPtr) += Iccp_Vbci;
|
|
*(here->VBICsubsSISubsSIPtr) += -Iccp_Vbcp;
|
|
*(here->VBICsubsSIBaseBPPtr) += Iccp_Vbcp;
|
|
/*
|
|
c Stamp element: Rs
|
|
*/
|
|
*(here->VBICsubsSubsPtr) += Irs_Vrs;
|
|
*(here->VBICsubsSISubsSIPtr) += Irs_Vrs;
|
|
*(here->VBICsubsSISubsPtr) += -Irs_Vrs;
|
|
*(here->VBICsubsSubsSIPtr) += -Irs_Vrs;
|
|
|
|
if (here->VBIC_excessPhase) {
|
|
// Branch: xf1-ground, Stamp element: Ixf1 f_xf1=+
|
|
rhs_current = Ixf1 - Ixf1_Vbci*Vbci - Ixf1_Vbei*Vbei -Ixf1_Vxf1*Vxf1 - Ixf1_Vxf2*Vxf2;
|
|
*(ckt->CKTrhs + here->VBICxf1Node) += -rhs_current; // rhs_current; // into xf1 node
|
|
*(here->VBICxf1BaseBIPtr) += +Ixf1_Vbei;
|
|
*(here->VBICxf1EmitEIPtr) += -Ixf1_Vbei;
|
|
*(here->VBICxf1BaseBIPtr) += +Ixf1_Vbci;
|
|
*(here->VBICxf1CollCIPtr) += -Ixf1_Vbci;
|
|
*(here->VBICxf1Xf2Ptr) += +Ixf1_Vxf2;
|
|
*(here->VBICxf1Xf1Ptr) += +Ixf1_Vxf1;
|
|
|
|
// Branch: xf2-ground, Stamp element: Ixf2 f_xf2=+
|
|
rhs_current = Ixf2 - Ixf2_Vbci*Vbci - Ixf2_Vbei*Vbei - Ixf2_Vxf1*Vxf1 - Ixf2_Vxf2*Vxf2;
|
|
*(ckt->CKTrhs + here->VBICxf2Node) += -rhs_current; // rhs_current; // into xf2 node
|
|
*(here->VBICxf2BaseBIPtr) += +Ixf2_Vbei;
|
|
*(here->VBICxf2EmitEIPtr) += -Ixf2_Vbei;
|
|
*(here->VBICxf2BaseBIPtr) += +Ixf2_Vbci;
|
|
*(here->VBICxf2CollCIPtr) += -Ixf2_Vbci;
|
|
*(here->VBICxf2Xf2Ptr) += +Ixf2_Vxf2;
|
|
*(here->VBICxf2Xf1Ptr) += +Ixf2_Vxf1;
|
|
}
|
|
|
|
if (here->VBIC_selfheat) {
|
|
/*
|
|
c Stamp element: Ibe
|
|
*/
|
|
rhs_current = -Ibe_Vrth*Vrth;
|
|
*(ckt->CKTrhs + here->VBICbaseBINode) += -rhs_current;
|
|
*(here->VBICbaseBItempPtr) += Ibe_Vrth;
|
|
*(ckt->CKTrhs + here->VBICemitEINode) += rhs_current;
|
|
*(here->VBICemitEItempPtr) += -Ibe_Vrth;
|
|
/*
|
|
c Stamp element: Ibex
|
|
*/
|
|
rhs_current = -Ibex_Vrth*Vrth;
|
|
*(ckt->CKTrhs + here->VBICbaseBXNode) += -rhs_current;
|
|
*(here->VBICbaseBXtempPtr) += Ibex_Vrth;
|
|
*(ckt->CKTrhs + here->VBICemitEINode) += rhs_current;
|
|
*(here->VBICemitEItempPtr) += -Ibex_Vrth;
|
|
|
|
/*
|
|
c Stamp element: Iciei
|
|
*/
|
|
rhs_current = -Iciei_Vrth*Vrth;
|
|
*(ckt->CKTrhs + here->VBICcollCINode) += -rhs_current;
|
|
*(here->VBICcollCItempPtr) += Iciei_Vrth;
|
|
*(ckt->CKTrhs + here->VBICemitEINode) += rhs_current;
|
|
*(here->VBICemitEItempPtr) += -Iciei_Vrth;
|
|
/*
|
|
c Stamp element: Ibc
|
|
*/
|
|
rhs_current = -Ibc_Vrth*Vrth;
|
|
*(ckt->CKTrhs + here->VBICbaseBINode) += -rhs_current;
|
|
*(here->VBICbaseBItempPtr) += Ibc_Vrth;
|
|
*(ckt->CKTrhs + here->VBICcollCINode) += rhs_current;
|
|
*(here->VBICcollCItempPtr) += -Ibc_Vrth;
|
|
/*
|
|
c Stamp element: Ibep
|
|
*/
|
|
rhs_current = -Ibep_Vrth*Vrth;
|
|
*(ckt->CKTrhs + here->VBICbaseBXNode) += -rhs_current;
|
|
*(here->VBICbaseBXtempPtr) += Ibep_Vrth;
|
|
*(ckt->CKTrhs + here->VBICbaseBPNode) += rhs_current;
|
|
*(here->VBICbaseBPtempPtr) += -Ibep_Vrth;
|
|
/*
|
|
c Stamp element: Rcx
|
|
*/
|
|
rhs_current = -Ircx_Vrth * Vrth;
|
|
*(ckt->CKTrhs + here->VBICcollNode) += -rhs_current;
|
|
*(here->VBICcollTempPtr) += Ircx_Vrth;
|
|
*(ckt->CKTrhs + here->VBICcollCXNode) += rhs_current;
|
|
*(here->VBICcollCXtempPtr) += -Ircx_Vrth;
|
|
/*
|
|
c Stamp element: Rci
|
|
*/
|
|
rhs_current = -Irci_Vrth*Vrth;
|
|
*(ckt->CKTrhs + here->VBICcollCXNode) += -rhs_current;
|
|
*(here->VBICcollCXtempPtr) += Irci_Vrth;
|
|
*(ckt->CKTrhs + here->VBICcollCINode) += rhs_current;
|
|
*(here->VBICcollCItempPtr) += -Irci_Vrth;
|
|
/*
|
|
c Stamp element: Rbx
|
|
*/
|
|
rhs_current = -Irbx_Vrth * Vrth;
|
|
*(ckt->CKTrhs + here->VBICbaseNode) += -rhs_current;
|
|
*(here->VBICbaseTempPtr) += Irbx_Vrth;
|
|
*(ckt->CKTrhs + here->VBICbaseBXNode) += rhs_current;
|
|
*(here->VBICbaseBXtempPtr) += -Irbx_Vrth;
|
|
/*
|
|
c Stamp element: Rbi
|
|
*/
|
|
rhs_current = -Irbi_Vrth*Vrth;
|
|
*(ckt->CKTrhs + here->VBICbaseBXNode) += -rhs_current;
|
|
*(here->VBICbaseBXtempPtr) += Irbi_Vrth;
|
|
*(ckt->CKTrhs + here->VBICbaseBINode) += rhs_current;
|
|
*(here->VBICbaseBItempPtr) += -Irbi_Vrth;
|
|
/*
|
|
c Stamp element: Re
|
|
*/
|
|
rhs_current = -Ire_Vrth * Vrth;
|
|
*(ckt->CKTrhs + here->VBICemitNode) += -rhs_current;
|
|
*(here->VBICemitTempPtr) += Ire_Vrth;
|
|
*(ckt->CKTrhs + here->VBICemitEINode) += rhs_current;
|
|
*(here->VBICemitEItempPtr) += -Ire_Vrth;
|
|
/*
|
|
c Stamp element: Irbp
|
|
*/
|
|
rhs_current = -Irbp_Vrth*Vrth;
|
|
*(ckt->CKTrhs + here->VBICbaseBPNode) += -rhs_current;
|
|
*(here->VBICbaseBPtempPtr) += Irbp_Vrth;
|
|
*(ckt->CKTrhs + here->VBICcollCXNode) += rhs_current;
|
|
*(here->VBICcollCXtempPtr) += -Irbp_Vrth;
|
|
/*
|
|
c Stamp element: Ibcp
|
|
*/
|
|
rhs_current = -Ibcp_Vrth*Vrth;
|
|
*(ckt->CKTrhs + here->VBICsubsSINode) += -rhs_current;
|
|
*(here->VBICsubsSItempPtr) += Ibcp_Vrth;
|
|
*(ckt->CKTrhs + here->VBICbaseBPNode) += rhs_current;
|
|
*(here->VBICbaseBPtempPtr) += -Ibcp_Vrth;
|
|
/*
|
|
c Stamp element: Iccp
|
|
*/
|
|
rhs_current = -Iccp_Vrth*Vrth;
|
|
*(ckt->CKTrhs + here->VBICbaseBXNode) += -rhs_current;
|
|
*(here->VBICbaseBXtempPtr) += Iccp_Vrth;
|
|
*(ckt->CKTrhs + here->VBICsubsSINode) += rhs_current;
|
|
*(here->VBICsubsSItempPtr) += -Iccp_Vrth;
|
|
/*
|
|
c Stamp element: Rs
|
|
*/
|
|
rhs_current = -Irs_Vrth * Vrth;
|
|
*(ckt->CKTrhs + here->VBICsubsNode) += -rhs_current;
|
|
*(here->VBICsubsTempPtr) += Irs_Vrth;
|
|
*(ckt->CKTrhs + here->VBICsubsSINode) += rhs_current;
|
|
*(here->VBICsubsSItempPtr) += -Irs_Vrth;
|
|
/*
|
|
c Stamp element: Rth
|
|
*/
|
|
*(here->VBICtempTempPtr) += Irth_Vrth;
|
|
/*
|
|
c Stamp element: Cth
|
|
*/
|
|
rhs_current = Icth - Icth_Vrth*Vrth;
|
|
*(ckt->CKTrhs + here->VBICtempNode) += -rhs_current;
|
|
*(here->VBICtempTempPtr) += Icth_Vrth;
|
|
/*
|
|
c Stamp element: Ith
|
|
*/
|
|
rhs_current = -Ith - Ith_Vrth*Vrth
|
|
- Ith_Vbei*Vbei - Ith_Vbci*Vbci - Ith_Vcei*Vcei
|
|
- Ith_Vbex*Vbex - Ith_Vbep*Vbep - Ith_Vbcp*Vbcp
|
|
- Ith_Vcep*Vcep - Ith_Vrci*Vrci - Ith_Vbcx*Vbcx
|
|
- Ith_Vrbi*Vrbi - Ith_Vrbp*Vrbp
|
|
- Ith_Vrcx*Vrcx - Ith_Vrbx*Vrbx - Ith_Vre*Vre - Ith_Vrs*Vrs;
|
|
|
|
*(ckt->CKTrhs + here->VBICtempNode) += rhs_current;
|
|
|
|
*(here->VBICtempTempPtr) += -Ith_Vrth;
|
|
|
|
*(here->VBICtempBaseBIPtr) += -Ith_Vbei;
|
|
*(here->VBICtempEmitEIPtr) += +Ith_Vbei;
|
|
*(here->VBICtempBaseBIPtr) += -Ith_Vbci;
|
|
*(here->VBICtempCollCIPtr) += +Ith_Vbci;
|
|
*(here->VBICtempCollCIPtr) += -Ith_Vcei;
|
|
*(here->VBICtempEmitEIPtr) += +Ith_Vcei;
|
|
*(here->VBICtempBaseBXPtr) += -Ith_Vbex;
|
|
*(here->VBICtempEmitEIPtr) += +Ith_Vbex;
|
|
*(here->VBICtempBaseBXPtr) += -Ith_Vbep;
|
|
*(here->VBICtempBaseBPPtr) += +Ith_Vbep;
|
|
*(here->VBICtempSubsPtr) += -Ith_Vbcp;
|
|
*(here->VBICtempBaseBPPtr) += +Ith_Vbcp;
|
|
*(here->VBICtempBaseBXPtr) += -Ith_Vcep;
|
|
*(here->VBICtempSubsPtr) += +Ith_Vcep;
|
|
*(here->VBICtempCollCXPtr) += -Ith_Vrci;
|
|
*(here->VBICtempCollCIPtr) += +Ith_Vrci;
|
|
*(here->VBICtempBaseBIPtr) += -Ith_Vbcx;
|
|
*(here->VBICtempCollCXPtr) += +Ith_Vbcx;
|
|
*(here->VBICtempBaseBXPtr) += -Ith_Vrbi;
|
|
*(here->VBICtempBaseBIPtr) += +Ith_Vrbi;
|
|
*(here->VBICtempBaseBPPtr) += -Ith_Vrbp;
|
|
*(here->VBICtempCollCXPtr) += +Ith_Vrbp;
|
|
*(here->VBICtempCollPtr) += -Ith_Vrcx;
|
|
*(here->VBICtempCollCXPtr) += +Ith_Vrcx;
|
|
*(here->VBICtempBasePtr) += -Ith_Vrbx;
|
|
*(here->VBICtempBaseBXPtr) += +Ith_Vrbx;
|
|
*(here->VBICtempEmitPtr) += -Ith_Vre;
|
|
*(here->VBICtempEmitEIPtr) += +Ith_Vre;
|
|
*(here->VBICtempSubsPtr) += -Ith_Vrs;
|
|
*(here->VBICtempSubsSIPtr) += +Ith_Vrs;
|
|
if (here->VBIC_excessPhase) {
|
|
// Stamp element: Ixf1 f_xf1 = +
|
|
rhs_current = -Ixf1_Vrth*Vrth;
|
|
*(ckt->CKTrhs + here->VBICxf1Node) += -rhs_current;
|
|
// with respect to Potential Vxf1
|
|
*(here->VBICxf1TempPtr) += Ixf1_Vrth;
|
|
|
|
// Stamp element: Ixf2 f_xf2 = +
|
|
rhs_current = -Ixf2_Vrth*Vrth;
|
|
*(ckt->CKTrhs + here->VBICxf2Node) += -rhs_current;
|
|
// with respect to Potential Vxf2
|
|
*(here->VBICxf2TempPtr) += Ixf2_Vrth;
|
|
}
|
|
}
|
|
}
|
|
|
|
}
|
|
return(OK);
|
|
}
|
|
|
|
int vbic_4T_et_cf_fj(double *p
|
|
,double *Vrth, double *Vbei, double *Vbex, double *Vbci, double *Vbep, double *Vbcp
|
|
,double *Vrcx, double *Vbcx, double *Vrci, double *Vrbx, double *Vrbi, double *Vre, double *Vrbp
|
|
,double *Vrs, double *Vbe, double *Vbc, double *Vcei, double *Vcep, double *Ibe, double *Ibe_Vrth
|
|
,double *Ibe_Vbei, double *Ibex, double *Ibex_Vrth, double *Ibex_Vbex, double *Itzf, double *Itzf_Vrth, double *Itzf_Vbei
|
|
,double *Itzf_Vbci, double *Itzr, double *Itzr_Vrth, double *Itzr_Vbci, double *Itzr_Vbei, double *Ibc, double *Ibc_Vrth
|
|
,double *Ibc_Vbci, double *Ibc_Vbei, double *Ibep, double *Ibep_Vrth, double *Ibep_Vbep, double *Ircx, double *Ircx_Vrcx
|
|
,double *Ircx_Vrth, double *Irci, double *Irci_Vrci, double *Irci_Vrth, double *Irci_Vbci, double *Irci_Vbcx, double *Irbx
|
|
,double *Irbx_Vrbx, double *Irbx_Vrth, double *Irbi, double *Irbi_Vrbi, double *Irbi_Vrth, double *Irbi_Vbei, double *Irbi_Vbci
|
|
,double *Ire, double *Ire_Vre, double *Ire_Vrth, double *Irbp, double *Irbp_Vrbp, double *Irbp_Vrth, double *Irbp_Vbep
|
|
,double *Irbp_Vbci, double *Qbe, double *Qbe_Vrth, double *Qbe_Vbei, double *Qbe_Vbci, double *Qbex, double *Qbex_Vrth
|
|
,double *Qbex_Vbex, double *Qbc, double *Qbc_Vrth, double *Qbc_Vbci, double *Qbcx, double *Qbcx_Vrth, double *Qbcx_Vbcx
|
|
,double *Qbep, double *Qbep_Vrth, double *Qbep_Vbep, double *Qbep_Vbci, double *Qbeo, double *Qbeo_Vbe, double *Qbco
|
|
,double *Qbco_Vbc, double *Ibcp, double *Ibcp_Vrth, double *Ibcp_Vbcp, double *Iccp, double *Iccp_Vrth, double *Iccp_Vbep
|
|
,double *Iccp_Vbci, double *Iccp_Vbcp, double *Irs, double *Irs_Vrs, double *Irs_Vrth, double *Qbcp, double *Qbcp_Vrth
|
|
,double *Qbcp_Vbcp, double *Irth, double *Irth_Vrth, double *Ith, double *Ith_Vrth, double *Ith_Vbei, double *Ith_Vbci
|
|
,double *Ith_Vcei, double *Ith_Vbex, double *Ith_Vbep, double *Ith_Vrs, double *Ith_Vbcp, double *Ith_Vcep, double *Ith_Vrcx
|
|
,double *Ith_Vrci, double *Ith_Vbcx, double *Ith_Vrbx, double *Ith_Vrbi, double *Ith_Vre, double *Ith_Vrbp, double *Qcth, double *Qcth_Vrth
|
|
,double *tff, double *tff_Vbei, double *tff_Vbci, double *tff_Vrth
|
|
,double *SCALE)
|
|
{
|
|
double Tini,Tdev,Tdev_Vrth,Vtv,Vtv_Tdev,Vtv_Vrth,rT;
|
|
double rT_Tdev,rT_Vrth,dT,dT_Tdev,dT_Vrth,xvar1,xvar1_rT;
|
|
double xvar1_Vrth,IKFatT,IKFatT_xvar1,IKFatT_Vrth,RCXatT,RCXatT_xvar1,RCXatT_Vrth;
|
|
double RCIatT,RCIatT_xvar1,RCIatT_Vrth,RBXatT,RBXatT_xvar1,RBXatT_Vrth,RBIatT;
|
|
double RBIatT_xvar1,RBIatT_Vrth,REatT,REatT_xvar1,REatT_Vrth,RSatT,RSatT_xvar1;
|
|
double RSatT_Vrth,RBPatT,RBPatT_xvar1,RBPatT_Vrth,xvar2,xvar2_rT,xvar2_Vrth;
|
|
double xvar3,xvar3_rT,xvar3_Vrth,xvar3_Vtv,xvar4,xvar4_xvar3,xvar4_Vrth;
|
|
double xvar1_xvar2,xvar1_xvar4,xvar5,xvar6,xvar6_xvar1,xvar6_Vrth,ISatT;
|
|
double ISatT_xvar6,ISatT_Vrth,ISRRatT,ISRRatT_xvar6,ISRRatT_Vrth,ISPatT,ISPatT_xvar6;
|
|
double ISPatT_Vrth,IBEIatT,IBEIatT_xvar6,IBEIatT_Vrth,IBENatT,IBENatT_xvar6,IBENatT_Vrth;
|
|
double IBCIatT,IBCIatT_xvar6,IBCIatT_Vrth,IBCNatT,IBCNatT_xvar6,IBCNatT_Vrth,IBEIPatT;
|
|
double IBEIPatT_xvar6,IBEIPatT_Vrth,IBENPatT,IBENPatT_xvar6,IBENPatT_Vrth,IBCIPatT,IBCIPatT_xvar6;
|
|
double IBCIPatT_Vrth,IBCNPatT,IBCNPatT_xvar6,IBCNPatT_Vrth,NFatT,NFatT_dT,NFatT_Vrth;
|
|
double NRatT,NRatT_dT,NRatT_Vrth,AVC2atT,AVC2atT_dT,AVC2atT_Vrth,VBBEatT;
|
|
double VBBEatT_dT,VBBEatT_Vrth,NBBEatT,NBBEatT_dT,NBBEatT_Vrth,xvar2_Vtv,xvar3_xvar2;
|
|
double xvar4_rT,xvar4_Vtv,xvar5_xvar4,xvar5_Vrth,xvar1_xvar3,xvar1_xvar5,psiio;
|
|
double psiio_Vtv,psiio_Vrth,psiio_rT,psiio_xvar6,psiin,psiin_psiio,psiin_Vrth;
|
|
double psiin_rT,psiin_Vtv,psiin_xvar1,xvar2_psiin,xvar4_xvar1,PEatT,PEatT_psiin;
|
|
double PEatT_Vrth,PEatT_Vtv,PEatT_xvar4,PCatT,PCatT_psiin,PCatT_Vrth,PCatT_Vtv;
|
|
double PCatT_xvar4,PSatT,PSatT_psiin,PSatT_Vrth,PSatT_Vtv,PSatT_xvar4,xvar1_PEatT;
|
|
double xvar2_xvar1,CJEatT,CJEatT_xvar2,CJEatT_Vrth,xvar1_PCatT,CJCatT,CJCatT_xvar2;
|
|
double CJCatT_Vrth,CJEPatT,CJEPatT_xvar2,CJEPatT_Vrth,xvar1_PSatT,CJCPatT,CJCPatT_xvar2;
|
|
double CJCPatT_Vrth,GAMMatT,GAMMatT_xvar1,GAMMatT_Vrth,GAMMatT_xvar3,VOatT,VOatT_xvar1;
|
|
double VOatT_Vrth,xvar1_VBBEatT,xvar1_NBBEatT,xvar1_Vtv,EBBEatT,EBBEatT_xvar1,EBBEatT_Vrth;
|
|
double IVEF,IVER,IIKF,IIKF_IKFatT,IIKF_Vrth,IIKR,IIKP;
|
|
double IVO,IVO_VOatT,IVO_Vrth,IHRCF,IVTF,IITF,slTF;
|
|
double dv0,dv0_PEatT,dv0_Vrth,dvh,dvh_Vbei,dvh_dv0,dvh_Vrth;
|
|
double pwq,qlo,qlo_PEatT,qlo_Vrth,qlo_Vbei,qhi,qhi_dvh;
|
|
double qhi_Vbei,qhi_Vrth,qhi_PEatT,xvar1_Vbei,xvar3_xvar1,xvar3_Vbei,qlo_xvar3;
|
|
double qdbe,qdbe_qlo,qdbe_Vrth,qdbe_Vbei,qdbe_qhi,mv0,mv0_dv0;
|
|
double mv0_Vrth,vl0,vl0_dv0,vl0_Vrth,vl0_mv0,xvar1_vl0,q0;
|
|
double q0_PEatT,q0_Vrth,q0_xvar3,dv,dv_Vbei,dv_dv0,dv_Vrth;
|
|
double mv,mv_dv,mv_Vbei,mv_Vrth,vl,vl_dv,vl_Vbei;
|
|
double vl_Vrth,vl_mv,vl_dv0,xvar1_vl,qdbe_vl,qdbe_vl0,qdbe_q0;
|
|
double dvh_Vbex,qlo_Vbex,qhi_Vbex,xvar1_Vbex,xvar3_Vbex,qdbex,qdbex_qlo;
|
|
double qdbex_Vrth,qdbex_Vbex,qdbex_qhi,dv_Vbex,mv_Vbex,vl_Vbex,qdbex_vl;
|
|
double qdbex_vl0,qdbex_q0,dv0_PCatT,dvh_Vbci,qlo_PCatT,qlo_Vbci,qhi_Vbci;
|
|
double qhi_PCatT,xvar1_Vbci,xvar3_Vbci,qdbc,qdbc_qlo,qdbc_Vrth,qdbc_Vbci;
|
|
double qdbc_qhi,vn0,vn0_dv0,vn0_Vrth,vnl0,vnl0_vn0,vnl0_Vrth;
|
|
double vl0_vnl0,qlo0,qlo0_PCatT,qlo0_Vrth,qlo0_xvar3,vn,vn_Vbci;
|
|
double vn_dv0,vn_Vrth,vnl,vnl_vn,vnl_Vbci,vnl_Vrth,vl_vnl;
|
|
double vl_Vbci,sel,sel_vnl,sel_Vbci,sel_Vrth,crt,crt_xvar1;
|
|
double crt_Vrth,xvar1_dv0,cmx,cmx_xvar1,cmx_Vrth,cl,cl_sel;
|
|
double cl_Vbci,cl_Vrth,cl_crt,cl_cmx,ql,ql_Vbci,ql_vl;
|
|
double ql_Vrth,ql_vl0,ql_cl,qdbc_ql,qdbc_qlo0,q0_PCatT,dv_Vbci;
|
|
double mv_Vbci,qdbc_vl,qdbc_vl0,qdbc_q0,dvh_Vbep,qlo_Vbep,qhi_Vbep;
|
|
double xvar1_Vbep,xvar3_Vbep,qdbep,qdbep_qlo,qdbep_Vrth,qdbep_Vbep,qdbep_qhi;
|
|
double vn_Vbep,vnl_Vbep,vl_Vbep,sel_Vbep,cl_Vbep,ql_Vbep,qdbep_ql;
|
|
double qdbep_qlo0,dv_Vbep,mv_Vbep,qdbep_vl,qdbep_vl0,qdbep_q0,dv0_PSatT;
|
|
double dvh_Vbcp,qlo_PSatT,qlo_Vbcp,qhi_Vbcp,qhi_PSatT,xvar1_Vbcp,xvar3_Vbcp;
|
|
double qdbcp,qdbcp_qlo,qdbcp_Vrth,qdbcp_Vbcp,qdbcp_qhi,q0_PSatT;
|
|
double dv_Vbcp,mv_Vbcp,vl_Vbcp,qdbcp_vl,qdbcp_vl0,qdbcp_q0,argi;
|
|
double argi_Vbei,argi_NFatT,argi_Vrth,argi_Vtv,expi,expi_argi,expi_Vbei;
|
|
double expi_Vrth,Ifi,Ifi_ISatT,Ifi_Vrth,Ifi_expi,Ifi_Vbei,argi_Vbci;
|
|
double argi_NRatT,expi_Vbci,Iri,Iri_ISatT,Iri_Vrth,Iri_ISRRatT,Iri_expi;
|
|
double Iri_Vbci,q1z,q1z_qdbe,q1z_Vrth,q1z_Vbei,q1z_qdbc,q1z_Vbci;
|
|
double q1,q1_q1z,q1_Vrth,q1_Vbei,q1_Vbci,q2,q2_Ifi;
|
|
double q2_Vrth,q2_Vbei,q2_IIKF,q2_Iri,q2_Vbci,xvar3_q1,xvar1_q2;
|
|
double xvar4_Vbei,xvar4_Vbci,qb,qb_q1,qb_Vrth,qb_Vbei,qb_Vbci;
|
|
double qb_xvar4,xvar2_Vbei,xvar2_Vbci,qb_xvar2,Itzr_Iri,Itzr_qb,Itzf_Ifi;
|
|
double Itzf_qb,argi_Vbep,expi_Vbep,argx,argx_Vbci,argx_Vtv,argx_Vrth;
|
|
double expx,expx_argx,expx_Vbci,expx_Vrth,Ifp,Ifp_ISPatT,Ifp_Vrth;
|
|
double Ifp_expi,Ifp_Vbep,Ifp_expx,Ifp_Vbci,q2p,q2p_Ifp,q2p_Vrth;
|
|
double q2p_Vbep,q2p_Vbci,qbp,qbp_q2p,qbp_Vrth,qbp_Vbep,qbp_Vbci;
|
|
double argi_Vbcp,expi_Vbcp,Irp,Irp_ISPatT,Irp_Vrth,Irp_expi,Irp_Vbcp;
|
|
double Iccp_Ifp,Iccp_Irp,Iccp_qbp,argn,argn_Vbei,argn_Vtv,argn_Vrth;
|
|
double expn,expn_argn,expn_Vbei,expn_Vrth,argx_VBBEatT,argx_Vbei,argx_NBBEatT;
|
|
double expx_Vbei,Ibe_IBEIatT,Ibe_expi,Ibe_IBENatT,Ibe_expn,Ibe_expx,Ibe_EBBEatT;
|
|
double argi_Vbex,expi_Vbex,argn_Vbex,expn_Vbex,argx_Vbex,expx_Vbex,Ibex_IBEIatT;
|
|
double Ibex_expi,Ibex_IBENatT,Ibex_expn,Ibex_expx,Ibex_EBBEatT,argn_Vbci,expn_Vbci;
|
|
double Ibcj,Ibcj_IBCIatT,Ibcj_Vrth,Ibcj_expi,Ibcj_Vbci,Ibcj_IBCNatT,Ibcj_expn;
|
|
double argn_Vbep,expn_Vbep,Ibep_IBEIPatT,Ibep_expi,Ibep_IBENPatT,Ibep_expn,vl_PCatT;
|
|
double xvar3_vl,xvar1_AVC2atT,avalf,avalf_vl,avalf_Vrth,avalf_Vbci,avalf_xvar4;
|
|
double Igc,Igc_Itzf,Igc_Vrth,Igc_Vbei,Igc_Vbci,Igc_Itzr,Igc_Ibcj;
|
|
double Igc_avalf,Ibc_Ibcj,Ibc_Igc,Ircx_RCXatT,argx_Vbcx,expx_Vbcx,Kbci;
|
|
double Kbci_GAMMatT,Kbci_Vrth,Kbci_expi,Kbci_Vbci,Kbcx,Kbcx_GAMMatT,Kbcx_Vrth;
|
|
double Kbcx_expx,Kbcx_Vbcx,rKp1,rKp1_Kbci,rKp1_Vrth,rKp1_Vbci,rKp1_Kbcx;
|
|
double rKp1_Vbcx,xvar1_rKp1,xvar1_Vbcx,Iohm,Iohm_Vrci,Iohm_Vtv,Iohm_Vrth;
|
|
double Iohm_Kbci,Iohm_Vbci,Iohm_Kbcx,Iohm_Vbcx,Iohm_xvar1,Iohm_RCIatT,derf;
|
|
double derf_IVO,derf_Vrth,derf_RCIatT,derf_Iohm,derf_Vrci,derf_Vbci,derf_Vbcx;
|
|
double Irci_Iohm,Irci_derf,Irbx_RBXatT,Irbi_qb,Irbi_RBIatT,Ire_REatT,Irbp_qbp;
|
|
double Irbp_RBPatT,argn_Vbcp,expn_Vbcp,Ibcp_IBCIPatT,Ibcp_expi,Ibcp_IBCNPatT,Ibcp_expn;
|
|
double Irs_RSatT,sgIf,rIf,rIf_Ifi,rIf_Vrth,rIf_Vbei,mIf;
|
|
double mIf_rIf,mIf_Vrth,mIf_Vbei,tff_q1;
|
|
double tff_xvar2,tff_mIf,Qbe_CJEatT,Qbe_qdbe,Qbe_tff,Qbe_Ifi;
|
|
double Qbe_qb,Qbex_CJEatT,Qbex_qdbex,Qbc_CJCatT,Qbc_qdbc,Qbc_Iri,Qbc_Kbci;
|
|
double Qbcx_Kbcx,Qbep_CJEPatT,Qbep_qdbep,Qbep_Ifp,Qbcp_CJCPatT,Qbcp_qdbcp,Ith_Ibe;
|
|
double Ith_Ibc,Ith_Itzf,Ith_Itzr,Ith_Ibex,Ith_Ibep,Ith_Irs,Ith_Ibcp;
|
|
double Ith_Iccp,Ith_Ircx,Ith_Irci,Ith_Irbx,Ith_Irbi,Ith_Ire,Ith_Irbp;
|
|
//double tff, tff_Vbei, tff_Vbci, tff_Vrth;
|
|
|
|
/* Function and derivative code */
|
|
|
|
Tini=2.731500e+02+p[0];
|
|
Tdev=(2.731500e+02+p[0])+(*Vrth);
|
|
Tdev_Vrth=1.0;
|
|
Vtv=1.380662e-23*Tdev/1.602189e-19;
|
|
Vtv_Tdev=8.617347e-5;
|
|
Vtv_Vrth=Vtv_Tdev*Tdev_Vrth;
|
|
rT=Tdev/Tini;
|
|
rT_Tdev=1.0/Tini;
|
|
rT_Vrth=rT_Tdev*Tdev_Vrth;
|
|
dT=Tdev-Tini;
|
|
dT_Tdev=1.0;
|
|
dT_Vrth=dT_Tdev*Tdev_Vrth;
|
|
xvar1=pow(rT,p[90]);
|
|
xvar1_rT=xvar1*p[90]/rT;
|
|
xvar1_Vrth=xvar1_rT*rT_Vrth;
|
|
IKFatT=p[53]*xvar1;
|
|
IKFatT_xvar1=p[53];
|
|
IKFatT_Vrth=IKFatT_xvar1*xvar1_Vrth;
|
|
xvar1=pow(rT,p[91]);
|
|
xvar1_rT=xvar1*p[91]/rT;
|
|
xvar1_Vrth=xvar1_rT*rT_Vrth;
|
|
RCXatT=p[1]*xvar1;
|
|
RCXatT_xvar1=p[1];
|
|
RCXatT_Vrth=RCXatT_xvar1*xvar1_Vrth;
|
|
xvar1=pow(rT,p[68]);
|
|
xvar1_rT=xvar1*p[68]/rT;
|
|
xvar1_Vrth=xvar1_rT*rT_Vrth;
|
|
RCIatT=p[2]*xvar1;
|
|
RCIatT_xvar1=p[2];
|
|
RCIatT_Vrth=RCIatT_xvar1*xvar1_Vrth;
|
|
xvar1=pow(rT,p[92]);
|
|
xvar1_rT=xvar1*p[92]/rT;
|
|
xvar1_Vrth=xvar1_rT*rT_Vrth;
|
|
RBXatT=p[6]*xvar1;
|
|
RBXatT_xvar1=p[6];
|
|
RBXatT_Vrth=RBXatT_xvar1*xvar1_Vrth;
|
|
xvar1=pow(rT,p[67]);
|
|
xvar1_rT=xvar1*p[67]/rT;
|
|
xvar1_Vrth=xvar1_rT*rT_Vrth;
|
|
RBIatT=p[7]*xvar1;
|
|
RBIatT_xvar1=p[7];
|
|
RBIatT_Vrth=RBIatT_xvar1*xvar1_Vrth;
|
|
xvar1=pow(rT,p[66]);
|
|
xvar1_rT=xvar1*p[66]/rT;
|
|
xvar1_Vrth=xvar1_rT*rT_Vrth;
|
|
REatT=p[8]*xvar1;
|
|
REatT_xvar1=p[8];
|
|
REatT_Vrth=REatT_xvar1*xvar1_Vrth;
|
|
xvar1=pow(rT,p[69]);
|
|
xvar1_rT=xvar1*p[69]/rT;
|
|
xvar1_Vrth=xvar1_rT*rT_Vrth;
|
|
RSatT=p[9]*xvar1;
|
|
RSatT_xvar1=p[9];
|
|
RSatT_Vrth=RSatT_xvar1*xvar1_Vrth;
|
|
xvar1=pow(rT,p[93]);
|
|
xvar1_rT=xvar1*p[93]/rT;
|
|
xvar1_Vrth=xvar1_rT*rT_Vrth;
|
|
RBPatT=p[10]*xvar1;
|
|
RBPatT_xvar1=p[10];
|
|
RBPatT_Vrth=RBPatT_xvar1*xvar1_Vrth;
|
|
xvar2=pow(rT,p[78]);
|
|
xvar2_rT=xvar2*p[78]/rT;
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar3=-p[71]*(1.0-rT)/Vtv;
|
|
xvar3_rT=p[71]/Vtv;
|
|
xvar3_Vtv=p[71]*(1.0-rT)/(Vtv*Vtv);
|
|
xvar3_Vrth=xvar3_rT*rT_Vrth;
|
|
xvar3_Vrth=xvar3_Vrth+xvar3_Vtv*Vtv_Vrth;
|
|
xvar4=exp(xvar3);
|
|
xvar4_xvar3=xvar4;
|
|
xvar4_Vrth=xvar4_xvar3*xvar3_Vrth;
|
|
xvar1=(xvar2*xvar4);
|
|
xvar1_xvar2=xvar4;
|
|
xvar1_xvar4=xvar2;
|
|
xvar1_Vrth=xvar1_xvar2*xvar2_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar4*xvar4_Vrth;
|
|
xvar5=(1.0/p[12]);
|
|
xvar6=pow(xvar1,xvar5);
|
|
xvar6_xvar1=xvar6*xvar5/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
ISatT=p[11]*xvar6;
|
|
ISatT_xvar6=p[11];
|
|
ISatT_Vrth=ISatT_xvar6*xvar6_Vrth;
|
|
xvar2=pow(rT,p[95]);
|
|
xvar2_rT=xvar2*p[95]/rT;
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar3=-p[96]*(1.0-rT)/Vtv;
|
|
xvar3_rT=p[96]/Vtv;
|
|
xvar3_Vtv=p[96]*(1.0-rT)/(Vtv*Vtv);
|
|
xvar3_Vrth=xvar3_rT*rT_Vrth;
|
|
xvar3_Vrth=xvar3_Vrth+xvar3_Vtv*Vtv_Vrth;
|
|
xvar4=exp(xvar3);
|
|
xvar4_xvar3=xvar4;
|
|
xvar4_Vrth=xvar4_xvar3*xvar3_Vrth;
|
|
xvar1=(xvar2*xvar4);
|
|
xvar1_xvar2=xvar4;
|
|
xvar1_xvar4=xvar2;
|
|
xvar1_Vrth=xvar1_xvar2*xvar2_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar4*xvar4_Vrth;
|
|
xvar5=(1.0/p[13]);
|
|
xvar6=pow(xvar1,xvar5);
|
|
xvar6_xvar1=xvar6*xvar5/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
ISRRatT=p[94]*xvar6;
|
|
ISRRatT_xvar6=p[94];
|
|
ISRRatT_Vrth=ISRRatT_xvar6*xvar6_Vrth;
|
|
xvar2=pow(rT,p[78]);
|
|
xvar2_rT=xvar2*p[78]/rT;
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar3=-p[97]*(1.0-rT)/Vtv;
|
|
xvar3_rT=p[97]/Vtv;
|
|
xvar3_Vtv=p[97]*(1.0-rT)/(Vtv*Vtv);
|
|
xvar3_Vrth=xvar3_rT*rT_Vrth;
|
|
xvar3_Vrth=xvar3_Vrth+xvar3_Vtv*Vtv_Vrth;
|
|
xvar4=exp(xvar3);
|
|
xvar4_xvar3=xvar4;
|
|
xvar4_Vrth=xvar4_xvar3*xvar3_Vrth;
|
|
xvar1=(xvar2*xvar4);
|
|
xvar1_xvar2=xvar4;
|
|
xvar1_xvar4=xvar2;
|
|
xvar1_Vrth=xvar1_xvar2*xvar2_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar4*xvar4_Vrth;
|
|
xvar5=(1.0/p[44]);
|
|
xvar6=pow(xvar1,xvar5);
|
|
xvar6_xvar1=xvar6*xvar5/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
ISPatT=p[42]*xvar6;
|
|
ISPatT_xvar6=p[42];
|
|
ISPatT_Vrth=ISPatT_xvar6*xvar6_Vrth;
|
|
xvar2=pow(rT,p[79]);
|
|
xvar2_rT=xvar2*p[79]/rT;
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar3=-p[72]*(1.0-rT)/Vtv;
|
|
xvar3_rT=p[72]/Vtv;
|
|
xvar3_Vtv=p[72]*(1.0-rT)/(Vtv*Vtv);
|
|
xvar3_Vrth=xvar3_rT*rT_Vrth;
|
|
xvar3_Vrth=xvar3_Vrth+xvar3_Vtv*Vtv_Vrth;
|
|
xvar4=exp(xvar3);
|
|
xvar4_xvar3=xvar4;
|
|
xvar4_Vrth=xvar4_xvar3*xvar3_Vrth;
|
|
xvar1=(xvar2*xvar4);
|
|
xvar1_xvar2=xvar4;
|
|
xvar1_xvar4=xvar2;
|
|
xvar1_Vrth=xvar1_xvar2*xvar2_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar4*xvar4_Vrth;
|
|
xvar5=(1.0/p[33]);
|
|
xvar6=pow(xvar1,xvar5);
|
|
xvar6_xvar1=xvar6*xvar5/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
IBEIatT=p[31]*xvar6;
|
|
IBEIatT_xvar6=p[31];
|
|
IBEIatT_Vrth=IBEIatT_xvar6*xvar6_Vrth;
|
|
xvar2=pow(rT,p[80]);
|
|
xvar2_rT=xvar2*p[80]/rT;
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar3=-p[75]*(1.0-rT)/Vtv;
|
|
xvar3_rT=p[75]/Vtv;
|
|
xvar3_Vtv=p[75]*(1.0-rT)/(Vtv*Vtv);
|
|
xvar3_Vrth=xvar3_rT*rT_Vrth;
|
|
xvar3_Vrth=xvar3_Vrth+xvar3_Vtv*Vtv_Vrth;
|
|
xvar4=exp(xvar3);
|
|
xvar4_xvar3=xvar4;
|
|
xvar4_Vrth=xvar4_xvar3*xvar3_Vrth;
|
|
xvar1=(xvar2*xvar4);
|
|
xvar1_xvar2=xvar4;
|
|
xvar1_xvar4=xvar2;
|
|
xvar1_Vrth=xvar1_xvar2*xvar2_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar4*xvar4_Vrth;
|
|
xvar5=(1.0/p[35]);
|
|
xvar6=pow(xvar1,xvar5);
|
|
xvar6_xvar1=xvar6*xvar5/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
IBENatT=p[34]*xvar6;
|
|
IBENatT_xvar6=p[34];
|
|
IBENatT_Vrth=IBENatT_xvar6*xvar6_Vrth;
|
|
xvar2=pow(rT,p[79]);
|
|
xvar2_rT=xvar2*p[79]/rT;
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar3=-p[73]*(1.0-rT)/Vtv;
|
|
xvar3_rT=p[73]/Vtv;
|
|
xvar3_Vtv=p[73]*(1.0-rT)/(Vtv*Vtv);
|
|
xvar3_Vrth=xvar3_rT*rT_Vrth;
|
|
xvar3_Vrth=xvar3_Vrth+xvar3_Vtv*Vtv_Vrth;
|
|
xvar4=exp(xvar3);
|
|
xvar4_xvar3=xvar4;
|
|
xvar4_Vrth=xvar4_xvar3*xvar3_Vrth;
|
|
xvar1=(xvar2*xvar4);
|
|
xvar1_xvar2=xvar4;
|
|
xvar1_xvar4=xvar2;
|
|
xvar1_Vrth=xvar1_xvar2*xvar2_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar4*xvar4_Vrth;
|
|
xvar5=(1.0/p[37]);
|
|
xvar6=pow(xvar1,xvar5);
|
|
xvar6_xvar1=xvar6*xvar5/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
IBCIatT=p[36]*xvar6;
|
|
IBCIatT_xvar6=p[36];
|
|
IBCIatT_Vrth=IBCIatT_xvar6*xvar6_Vrth;
|
|
xvar2=pow(rT,p[80]);
|
|
xvar2_rT=xvar2*p[80]/rT;
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar3=-p[76]*(1.0-rT)/Vtv;
|
|
xvar3_rT=p[76]/Vtv;
|
|
xvar3_Vtv=p[76]*(1.0-rT)/(Vtv*Vtv);
|
|
xvar3_Vrth=xvar3_rT*rT_Vrth;
|
|
xvar3_Vrth=xvar3_Vrth+xvar3_Vtv*Vtv_Vrth;
|
|
xvar4=exp(xvar3);
|
|
xvar4_xvar3=xvar4;
|
|
xvar4_Vrth=xvar4_xvar3*xvar3_Vrth;
|
|
xvar1=(xvar2*xvar4);
|
|
xvar1_xvar2=xvar4;
|
|
xvar1_xvar4=xvar2;
|
|
xvar1_Vrth=xvar1_xvar2*xvar2_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar4*xvar4_Vrth;
|
|
xvar5=(1.0/p[39]);
|
|
xvar6=pow(xvar1,xvar5);
|
|
xvar6_xvar1=xvar6*xvar5/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
IBCNatT=p[38]*xvar6;
|
|
IBCNatT_xvar6=p[38];
|
|
IBCNatT_Vrth=IBCNatT_xvar6*xvar6_Vrth;
|
|
xvar2=pow(rT,p[79]);
|
|
xvar2_rT=xvar2*p[79]/rT;
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar3=-p[73]*(1.0-rT)/Vtv;
|
|
xvar3_rT=p[73]/Vtv;
|
|
xvar3_Vtv=p[73]*(1.0-rT)/(Vtv*Vtv);
|
|
xvar3_Vrth=xvar3_rT*rT_Vrth;
|
|
xvar3_Vrth=xvar3_Vrth+xvar3_Vtv*Vtv_Vrth;
|
|
xvar4=exp(xvar3);
|
|
xvar4_xvar3=xvar4;
|
|
xvar4_Vrth=xvar4_xvar3*xvar3_Vrth;
|
|
xvar1=(xvar2*xvar4);
|
|
xvar1_xvar2=xvar4;
|
|
xvar1_xvar4=xvar2;
|
|
xvar1_Vrth=xvar1_xvar2*xvar2_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar4*xvar4_Vrth;
|
|
xvar5=(1.0/p[37]);
|
|
xvar6=pow(xvar1,xvar5);
|
|
xvar6_xvar1=xvar6*xvar5/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
IBEIPatT=p[45]*xvar6;
|
|
IBEIPatT_xvar6=p[45];
|
|
IBEIPatT_Vrth=IBEIPatT_xvar6*xvar6_Vrth;
|
|
xvar2=pow(rT,p[80]);
|
|
xvar2_rT=xvar2*p[80]/rT;
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar3=-p[76]*(1.0-rT)/Vtv;
|
|
xvar3_rT=p[76]/Vtv;
|
|
xvar3_Vtv=p[76]*(1.0-rT)/(Vtv*Vtv);
|
|
xvar3_Vrth=xvar3_rT*rT_Vrth;
|
|
xvar3_Vrth=xvar3_Vrth+xvar3_Vtv*Vtv_Vrth;
|
|
xvar4=exp(xvar3);
|
|
xvar4_xvar3=xvar4;
|
|
xvar4_Vrth=xvar4_xvar3*xvar3_Vrth;
|
|
xvar1=(xvar2*xvar4);
|
|
xvar1_xvar2=xvar4;
|
|
xvar1_xvar4=xvar2;
|
|
xvar1_Vrth=xvar1_xvar2*xvar2_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar4*xvar4_Vrth;
|
|
xvar5=(1.0/p[39]);
|
|
xvar6=pow(xvar1,xvar5);
|
|
xvar6_xvar1=xvar6*xvar5/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
IBENPatT=p[46]*xvar6;
|
|
IBENPatT_xvar6=p[46];
|
|
IBENPatT_Vrth=IBENPatT_xvar6*xvar6_Vrth;
|
|
xvar2=pow(rT,p[79]);
|
|
xvar2_rT=xvar2*p[79]/rT;
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar3=-p[74]*(1.0-rT)/Vtv;
|
|
xvar3_rT=p[74]/Vtv;
|
|
xvar3_Vtv=p[74]*(1.0-rT)/(Vtv*Vtv);
|
|
xvar3_Vrth=xvar3_rT*rT_Vrth;
|
|
xvar3_Vrth=xvar3_Vrth+xvar3_Vtv*Vtv_Vrth;
|
|
xvar4=exp(xvar3);
|
|
xvar4_xvar3=xvar4;
|
|
xvar4_Vrth=xvar4_xvar3*xvar3_Vrth;
|
|
xvar1=(xvar2*xvar4);
|
|
xvar1_xvar2=xvar4;
|
|
xvar1_xvar4=xvar2;
|
|
xvar1_Vrth=xvar1_xvar2*xvar2_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar4*xvar4_Vrth;
|
|
xvar5=(1.0/p[48]);
|
|
xvar6=pow(xvar1,xvar5);
|
|
xvar6_xvar1=xvar6*xvar5/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
IBCIPatT=p[47]*xvar6;
|
|
IBCIPatT_xvar6=p[47];
|
|
IBCIPatT_Vrth=IBCIPatT_xvar6*xvar6_Vrth;
|
|
xvar2=pow(rT,p[80]);
|
|
xvar2_rT=xvar2*p[80]/rT;
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar3=-p[77]*(1.0-rT)/Vtv;
|
|
xvar3_rT=p[77]/Vtv;
|
|
xvar3_Vtv=p[77]*(1.0-rT)/(Vtv*Vtv);
|
|
xvar3_Vrth=xvar3_rT*rT_Vrth;
|
|
xvar3_Vrth=xvar3_Vrth+xvar3_Vtv*Vtv_Vrth;
|
|
xvar4=exp(xvar3);
|
|
xvar4_xvar3=xvar4;
|
|
xvar4_Vrth=xvar4_xvar3*xvar3_Vrth;
|
|
xvar1=(xvar2*xvar4);
|
|
xvar1_xvar2=xvar4;
|
|
xvar1_xvar4=xvar2;
|
|
xvar1_Vrth=xvar1_xvar2*xvar2_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar4*xvar4_Vrth;
|
|
xvar5=(1.0/p[50]);
|
|
xvar6=pow(xvar1,xvar5);
|
|
xvar6_xvar1=xvar6*xvar5/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
IBCNPatT=p[49]*xvar6;
|
|
IBCNPatT_xvar6=p[49];
|
|
IBCNPatT_Vrth=IBCNPatT_xvar6*xvar6_Vrth;
|
|
NFatT=p[12]*(1.0+dT*p[81]);
|
|
NFatT_dT=p[12]*p[81];
|
|
NFatT_Vrth=NFatT_dT*dT_Vrth;
|
|
NRatT=p[13]*(1.0+dT*p[81]);
|
|
NRatT_dT=p[13]*p[81];
|
|
NRatT_Vrth=NRatT_dT*dT_Vrth;
|
|
AVC2atT=p[41]*(1.0+dT*p[82]);
|
|
AVC2atT_dT=p[41]*p[82];
|
|
AVC2atT_Vrth=AVC2atT_dT*dT_Vrth;
|
|
VBBEatT=p[98]*(1.0+dT*(p[101]+dT*p[102]));
|
|
VBBEatT_dT=(2.0*dT*p[102]+p[101])*p[98];
|
|
VBBEatT_Vrth=VBBEatT_dT*dT_Vrth;
|
|
NBBEatT=p[99]*(1.0+dT*p[103]);
|
|
NBBEatT_dT=p[99]*p[103];
|
|
NBBEatT_Vrth=NBBEatT_dT*dT_Vrth;
|
|
xvar2=0.5*p[17]*rT/Vtv;
|
|
xvar2_rT=0.5*p[17]/Vtv;
|
|
xvar2_Vtv=-0.5*p[17]*rT/(Vtv*Vtv);
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar2_Vrth=xvar2_Vrth+xvar2_Vtv*Vtv_Vrth;
|
|
xvar3=exp(xvar2);
|
|
xvar3_xvar2=xvar3;
|
|
xvar3_Vrth=xvar3_xvar2*xvar2_Vrth;
|
|
xvar4=-0.5*p[17]*rT/Vtv;
|
|
xvar4_rT=-0.5*p[17]/Vtv;
|
|
xvar4_Vtv=0.5*p[17]*rT/(Vtv*Vtv);
|
|
xvar4_Vrth=xvar4_rT*rT_Vrth;
|
|
xvar4_Vrth=xvar4_Vrth+xvar4_Vtv*Vtv_Vrth;
|
|
xvar5=exp(xvar4);
|
|
xvar5_xvar4=xvar5;
|
|
xvar5_Vrth=xvar5_xvar4*xvar4_Vrth;
|
|
xvar1=xvar3-xvar5;
|
|
xvar1_xvar3=1.0;
|
|
xvar1_xvar5=-1.0;
|
|
xvar1_Vrth=xvar1_xvar3*xvar3_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar5*xvar5_Vrth;
|
|
xvar6=log(xvar1);
|
|
xvar6_xvar1=1.0/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
psiio=2.0*(Vtv/rT)*xvar6;
|
|
psiio_Vtv=2.0*xvar6/rT;
|
|
psiio_rT=-2.0*Vtv*xvar6/(rT*rT);
|
|
psiio_xvar6=2.0*Vtv/rT;
|
|
psiio_Vrth=psiio_Vtv*Vtv_Vrth;
|
|
psiio_Vrth=psiio_Vrth+psiio_rT*rT_Vrth;
|
|
psiio_Vrth=psiio_Vrth+psiio_xvar6*xvar6_Vrth;
|
|
xvar1=log(rT);
|
|
xvar1_rT=1.0/rT;
|
|
xvar1_Vrth=xvar1_rT*rT_Vrth;
|
|
psiin=psiio*rT-3.0*Vtv*xvar1-p[72]*(rT-1.0);
|
|
psiin_psiio=rT;
|
|
psiin_rT=psiio-p[72];
|
|
psiin_Vtv=-3.0*xvar1;
|
|
psiin_xvar1=-3.0*Vtv;
|
|
psiin_Vrth=psiin_psiio*psiio_Vrth;
|
|
psiin_Vrth=psiin_Vrth+psiin_rT*rT_Vrth;
|
|
psiin_Vrth=psiin_Vrth+psiin_Vtv*Vtv_Vrth;
|
|
psiin_Vrth=psiin_Vrth+psiin_xvar1*xvar1_Vrth;
|
|
xvar2=-psiin/Vtv;
|
|
xvar2_psiin=-1.0/Vtv;
|
|
xvar2_Vtv=psiin/(Vtv*Vtv);
|
|
xvar2_Vrth=xvar2_psiin*psiin_Vrth;
|
|
xvar2_Vrth=xvar2_Vrth+xvar2_Vtv*Vtv_Vrth;
|
|
xvar3=exp(xvar2);
|
|
xvar3_xvar2=xvar3;
|
|
xvar3_Vrth=xvar3_xvar2*xvar2_Vrth;
|
|
xvar1=0.5*(1.0+sqrt(1.0+4.0*xvar3));
|
|
xvar1_xvar3=1.0/sqrt(4.0*xvar3+1.0);
|
|
xvar1_Vrth=xvar1_xvar3*xvar3_Vrth;
|
|
xvar4=log(xvar1);
|
|
xvar4_xvar1=1.0/xvar1;
|
|
xvar4_Vrth=xvar4_xvar1*xvar1_Vrth;
|
|
PEatT=psiin+2.0*Vtv*xvar4;
|
|
PEatT_psiin=1.0;
|
|
PEatT_Vtv=2.0*xvar4;
|
|
PEatT_xvar4=2.0*Vtv;
|
|
PEatT_Vrth=PEatT_psiin*psiin_Vrth;
|
|
PEatT_Vrth=PEatT_Vrth+PEatT_Vtv*Vtv_Vrth;
|
|
PEatT_Vrth=PEatT_Vrth+PEatT_xvar4*xvar4_Vrth;
|
|
xvar2=0.5*p[24]*rT/Vtv;
|
|
xvar2_rT=0.5*p[24]/Vtv;
|
|
xvar2_Vtv=-0.5*p[24]*rT/(Vtv*Vtv);
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar2_Vrth=xvar2_Vrth+xvar2_Vtv*Vtv_Vrth;
|
|
xvar3=exp(xvar2);
|
|
xvar3_xvar2=xvar3;
|
|
xvar3_Vrth=xvar3_xvar2*xvar2_Vrth;
|
|
xvar4=-0.5*p[24]*rT/Vtv;
|
|
xvar4_rT=-0.5*p[24]/Vtv;
|
|
xvar4_Vtv=0.5*p[24]*rT/(Vtv*Vtv);
|
|
xvar4_Vrth=xvar4_rT*rT_Vrth;
|
|
xvar4_Vrth=xvar4_Vrth+xvar4_Vtv*Vtv_Vrth;
|
|
xvar5=exp(xvar4);
|
|
xvar5_xvar4=xvar5;
|
|
xvar5_Vrth=xvar5_xvar4*xvar4_Vrth;
|
|
xvar1=xvar3-xvar5;
|
|
xvar1_xvar3=1.0;
|
|
xvar1_xvar5=-1.0;
|
|
xvar1_Vrth=xvar1_xvar3*xvar3_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar5*xvar5_Vrth;
|
|
xvar6=log(xvar1);
|
|
xvar6_xvar1=1.0/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
psiio=2.0*(Vtv/rT)*xvar6;
|
|
psiio_Vtv=2.0*xvar6/rT;
|
|
psiio_rT=-2.0*Vtv*xvar6/(rT*rT);
|
|
psiio_xvar6=2.0*Vtv/rT;
|
|
psiio_Vrth=psiio_Vtv*Vtv_Vrth;
|
|
psiio_Vrth=psiio_Vrth+psiio_rT*rT_Vrth;
|
|
psiio_Vrth=psiio_Vrth+psiio_xvar6*xvar6_Vrth;
|
|
xvar1=log(rT);
|
|
xvar1_rT=1.0/rT;
|
|
xvar1_Vrth=xvar1_rT*rT_Vrth;
|
|
psiin=psiio*rT-3.0*Vtv*xvar1-p[73]*(rT-1.0);
|
|
psiin_psiio=rT;
|
|
psiin_rT=psiio-p[73];
|
|
psiin_Vtv=-3.0*xvar1;
|
|
psiin_xvar1=-3.0*Vtv;
|
|
psiin_Vrth=psiin_psiio*psiio_Vrth;
|
|
psiin_Vrth=psiin_Vrth+psiin_rT*rT_Vrth;
|
|
psiin_Vrth=psiin_Vrth+psiin_Vtv*Vtv_Vrth;
|
|
psiin_Vrth=psiin_Vrth+psiin_xvar1*xvar1_Vrth;
|
|
xvar2=-psiin/Vtv;
|
|
xvar2_psiin=-1.0/Vtv;
|
|
xvar2_Vtv=psiin/(Vtv*Vtv);
|
|
xvar2_Vrth=xvar2_psiin*psiin_Vrth;
|
|
xvar2_Vrth=xvar2_Vrth+xvar2_Vtv*Vtv_Vrth;
|
|
xvar3=exp(xvar2);
|
|
xvar3_xvar2=xvar3;
|
|
xvar3_Vrth=xvar3_xvar2*xvar2_Vrth;
|
|
xvar1=0.5*(1.0+sqrt(1.0+4.0*xvar3));
|
|
xvar1_xvar3=1.0/sqrt(4.0*xvar3+1.0);
|
|
xvar1_Vrth=xvar1_xvar3*xvar3_Vrth;
|
|
xvar4=log(xvar1);
|
|
xvar4_xvar1=1.0/xvar1;
|
|
xvar4_Vrth=xvar4_xvar1*xvar1_Vrth;
|
|
PCatT=psiin+2.0*Vtv*xvar4;
|
|
PCatT_psiin=1.0;
|
|
PCatT_Vtv=2.0*xvar4;
|
|
PCatT_xvar4=2.0*Vtv;
|
|
PCatT_Vrth=PCatT_psiin*psiin_Vrth;
|
|
PCatT_Vrth=PCatT_Vrth+PCatT_Vtv*Vtv_Vrth;
|
|
PCatT_Vrth=PCatT_Vrth+PCatT_xvar4*xvar4_Vrth;
|
|
xvar2=0.5*p[28]*rT/Vtv;
|
|
xvar2_rT=0.5*p[28]/Vtv;
|
|
xvar2_Vtv=-0.5*p[28]*rT/(Vtv*Vtv);
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar2_Vrth=xvar2_Vrth+xvar2_Vtv*Vtv_Vrth;
|
|
xvar3=exp(xvar2);
|
|
xvar3_xvar2=xvar3;
|
|
xvar3_Vrth=xvar3_xvar2*xvar2_Vrth;
|
|
xvar4=-0.5*p[28]*rT/Vtv;
|
|
xvar4_rT=-0.5*p[28]/Vtv;
|
|
xvar4_Vtv=0.5*p[28]*rT/(Vtv*Vtv);
|
|
xvar4_Vrth=xvar4_rT*rT_Vrth;
|
|
xvar4_Vrth=xvar4_Vrth+xvar4_Vtv*Vtv_Vrth;
|
|
xvar5=exp(xvar4);
|
|
xvar5_xvar4=xvar5;
|
|
xvar5_Vrth=xvar5_xvar4*xvar4_Vrth;
|
|
xvar1=xvar3-xvar5;
|
|
xvar1_xvar3=1.0;
|
|
xvar1_xvar5=-1.0;
|
|
xvar1_Vrth=xvar1_xvar3*xvar3_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar5*xvar5_Vrth;
|
|
xvar6=log(xvar1);
|
|
xvar6_xvar1=1.0/xvar1;
|
|
xvar6_Vrth=xvar6_xvar1*xvar1_Vrth;
|
|
psiio=2.0*(Vtv/rT)*xvar6;
|
|
psiio_Vtv=2.0*xvar6/rT;
|
|
psiio_rT=-2.0*Vtv*xvar6/(rT*rT);
|
|
psiio_xvar6=2.0*Vtv/rT;
|
|
psiio_Vrth=psiio_Vtv*Vtv_Vrth;
|
|
psiio_Vrth=psiio_Vrth+psiio_rT*rT_Vrth;
|
|
psiio_Vrth=psiio_Vrth+psiio_xvar6*xvar6_Vrth;
|
|
xvar1=log(rT);
|
|
xvar1_rT=1.0/rT;
|
|
xvar1_Vrth=xvar1_rT*rT_Vrth;
|
|
psiin=psiio*rT-3.0*Vtv*xvar1-p[74]*(rT-1.0);
|
|
psiin_psiio=rT;
|
|
psiin_rT=psiio-p[74];
|
|
psiin_Vtv=-3.0*xvar1;
|
|
psiin_xvar1=-3.0*Vtv;
|
|
psiin_Vrth=psiin_psiio*psiio_Vrth;
|
|
psiin_Vrth=psiin_Vrth+psiin_rT*rT_Vrth;
|
|
psiin_Vrth=psiin_Vrth+psiin_Vtv*Vtv_Vrth;
|
|
psiin_Vrth=psiin_Vrth+psiin_xvar1*xvar1_Vrth;
|
|
xvar2=-psiin/Vtv;
|
|
xvar2_psiin=-1.0/Vtv;
|
|
xvar2_Vtv=psiin/(Vtv*Vtv);
|
|
xvar2_Vrth=xvar2_psiin*psiin_Vrth;
|
|
xvar2_Vrth=xvar2_Vrth+xvar2_Vtv*Vtv_Vrth;
|
|
xvar3=exp(xvar2);
|
|
xvar3_xvar2=xvar3;
|
|
xvar3_Vrth=xvar3_xvar2*xvar2_Vrth;
|
|
xvar1=0.5*(1.0+sqrt(1.0+4.0*xvar3));
|
|
xvar1_xvar3=1.0/sqrt(4.0*xvar3+1.0);
|
|
xvar1_Vrth=xvar1_xvar3*xvar3_Vrth;
|
|
xvar4=log(xvar1);
|
|
xvar4_xvar1=1.0/xvar1;
|
|
xvar4_Vrth=xvar4_xvar1*xvar1_Vrth;
|
|
PSatT=psiin+2.0*Vtv*xvar4;
|
|
PSatT_psiin=1.0;
|
|
PSatT_Vtv=2.0*xvar4;
|
|
PSatT_xvar4=2.0*Vtv;
|
|
PSatT_Vrth=PSatT_psiin*psiin_Vrth;
|
|
PSatT_Vrth=PSatT_Vrth+PSatT_Vtv*Vtv_Vrth;
|
|
PSatT_Vrth=PSatT_Vrth+PSatT_xvar4*xvar4_Vrth;
|
|
xvar1=p[17]/PEatT;
|
|
xvar1_PEatT=-p[17]/(PEatT*PEatT);
|
|
xvar1_Vrth=xvar1_PEatT*PEatT_Vrth;
|
|
xvar2=pow(xvar1,p[18]);
|
|
xvar2_xvar1=xvar2*p[18]/xvar1;
|
|
xvar2_Vrth=xvar2_xvar1*xvar1_Vrth;
|
|
CJEatT=p[16]*xvar2;
|
|
CJEatT_xvar2=p[16];
|
|
CJEatT_Vrth=CJEatT_xvar2*xvar2_Vrth;
|
|
xvar1=p[24]/PCatT;
|
|
xvar1_PCatT=-p[24]/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=pow(xvar1,p[25]);
|
|
xvar2_xvar1=xvar2*p[25]/xvar1;
|
|
xvar2_Vrth=xvar2_xvar1*xvar1_Vrth;
|
|
CJCatT=p[21]*xvar2;
|
|
CJCatT_xvar2=p[21];
|
|
CJCatT_Vrth=CJCatT_xvar2*xvar2_Vrth;
|
|
xvar1=p[24]/PCatT;
|
|
xvar1_PCatT=-p[24]/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=pow(xvar1,p[25]);
|
|
xvar2_xvar1=xvar2*p[25]/xvar1;
|
|
xvar2_Vrth=xvar2_xvar1*xvar1_Vrth;
|
|
CJEPatT=p[23]*xvar2;
|
|
CJEPatT_xvar2=p[23];
|
|
CJEPatT_Vrth=CJEPatT_xvar2*xvar2_Vrth;
|
|
xvar1=p[28]/PSatT;
|
|
xvar1_PSatT=-p[28]/(PSatT*PSatT);
|
|
xvar1_Vrth=xvar1_PSatT*PSatT_Vrth;
|
|
xvar2=pow(xvar1,p[29]);
|
|
xvar2_xvar1=xvar2*p[29]/xvar1;
|
|
xvar2_Vrth=xvar2_xvar1*xvar1_Vrth;
|
|
CJCPatT=p[27]*xvar2;
|
|
CJCPatT_xvar2=p[27];
|
|
CJCPatT_Vrth=CJCPatT_xvar2*xvar2_Vrth;
|
|
xvar1=pow(rT,p[78]);
|
|
xvar1_rT=xvar1*p[78]/rT;
|
|
xvar1_Vrth=xvar1_rT*rT_Vrth;
|
|
xvar2=-p[71]*(1.0-rT)/Vtv;
|
|
xvar2_rT=p[71]/Vtv;
|
|
xvar2_Vtv=p[71]*(1.0-rT)/(Vtv*Vtv);
|
|
xvar2_Vrth=xvar2_rT*rT_Vrth;
|
|
xvar2_Vrth=xvar2_Vrth+xvar2_Vtv*Vtv_Vrth;
|
|
xvar3=exp(xvar2);
|
|
xvar3_xvar2=xvar3;
|
|
xvar3_Vrth=xvar3_xvar2*xvar2_Vrth;
|
|
GAMMatT=p[4]*xvar1*xvar3;
|
|
GAMMatT_xvar1=p[4]*xvar3;
|
|
GAMMatT_xvar3=p[4]*xvar1;
|
|
GAMMatT_Vrth=GAMMatT_xvar1*xvar1_Vrth;
|
|
GAMMatT_Vrth=GAMMatT_Vrth+GAMMatT_xvar3*xvar3_Vrth;
|
|
xvar1=pow(rT,p[70]);
|
|
xvar1_rT=xvar1*p[70]/rT;
|
|
xvar1_Vrth=xvar1_rT*rT_Vrth;
|
|
VOatT=p[3]*xvar1;
|
|
VOatT_xvar1=p[3];
|
|
VOatT_Vrth=VOatT_xvar1*xvar1_Vrth;
|
|
xvar1=-VBBEatT/(NBBEatT*Vtv);
|
|
xvar1_VBBEatT=-1.0/(NBBEatT*Vtv);
|
|
xvar1_NBBEatT=VBBEatT/((NBBEatT*NBBEatT)*Vtv);
|
|
xvar1_Vtv=VBBEatT/(NBBEatT*(Vtv*Vtv));
|
|
xvar1_Vrth=xvar1_VBBEatT*VBBEatT_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_NBBEatT*NBBEatT_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_Vtv*Vtv_Vrth;
|
|
EBBEatT=exp(xvar1);
|
|
EBBEatT_xvar1=EBBEatT;
|
|
EBBEatT_Vrth=EBBEatT_xvar1*xvar1_Vrth;
|
|
if(p[51]>0.0){
|
|
IVEF=1.0/p[51];
|
|
}else{
|
|
IVEF=0.0;
|
|
}
|
|
if(p[52]>0.0){
|
|
IVER=1.0/p[52];
|
|
}else{
|
|
IVER=0.0;
|
|
}
|
|
if(p[53]>0.0){
|
|
IIKF=1.0/IKFatT;
|
|
IIKF_IKFatT=-1.0/(IKFatT*IKFatT);
|
|
IIKF_Vrth=IIKF_IKFatT*IKFatT_Vrth;
|
|
}else{
|
|
IIKF=0.0;
|
|
IIKF_Vrth=0.0;
|
|
}
|
|
if(p[54]>0.0){
|
|
IIKR=1.0/p[54];
|
|
}else{
|
|
IIKR=0.0;
|
|
}
|
|
if(p[55]>0.0){
|
|
IIKP=1.0/p[55];
|
|
}else{
|
|
IIKP=0.0;
|
|
}
|
|
if(p[3]>0.0){
|
|
IVO=1.0/VOatT;
|
|
IVO_VOatT=-1.0/(VOatT*VOatT);
|
|
IVO_Vrth=IVO_VOatT*VOatT_Vrth;
|
|
}else{
|
|
IVO=0.0;
|
|
IVO_Vrth=0.0;
|
|
}
|
|
if(p[5]>0.0){
|
|
IHRCF=1.0/p[5];
|
|
}else{
|
|
IHRCF=0.0;
|
|
}
|
|
if(p[59]>0.0){
|
|
IVTF=1.0/p[59];
|
|
}else{
|
|
IVTF=0.0;
|
|
}
|
|
if(p[60]>0.0){
|
|
IITF=1.0/p[60];
|
|
}else{
|
|
IITF=0.0;
|
|
}
|
|
if(p[60]>0.0){
|
|
slTF=0.0;
|
|
}else{
|
|
slTF=1.0;
|
|
}
|
|
dv0=-PEatT*p[14];
|
|
dv0_PEatT=-p[14];
|
|
dv0_Vrth=dv0_PEatT*PEatT_Vrth;
|
|
if(p[19]<=0.0){
|
|
dvh=(*Vbei)+dv0;
|
|
dvh_Vbei=1.0;
|
|
dvh_dv0=1.0;
|
|
dvh_Vrth=dvh_dv0*dv0_Vrth;
|
|
if(dvh>0.0){
|
|
xvar1=(1.0-p[14]);
|
|
xvar2=(-1.0-p[18]);
|
|
pwq=pow(xvar1,xvar2);
|
|
qlo=PEatT*(1.0-pwq*(1.0-p[14])*(1.0-p[14]))/(1.0-p[18]);
|
|
qlo_PEatT=(1.0-((1.0-p[14])*(1.0-p[14]))*pwq)/(1.0-p[18]);
|
|
qlo_Vbei=0.0;
|
|
qlo_Vrth=qlo_PEatT*PEatT_Vrth;
|
|
qhi=dvh*(1.0-p[14]+0.5*p[18]*dvh/PEatT)*pwq;
|
|
qhi_dvh=(0.5*dvh*p[18]/PEatT-p[14]+1.0)*pwq+0.5*dvh*p[18]*pwq/PEatT;
|
|
qhi_PEatT=-0.5*(dvh*dvh)*p[18]*pwq/(PEatT*PEatT);
|
|
qhi_Vbei=qhi_dvh*dvh_Vbei;
|
|
qhi_Vrth=qhi_dvh*dvh_Vrth;
|
|
qhi_Vrth=qhi_Vrth+qhi_PEatT*PEatT_Vrth;
|
|
}else{
|
|
xvar1=(1.0-(*Vbei)/PEatT);
|
|
xvar1_Vbei=-1.0/PEatT;
|
|
xvar1_PEatT=(*Vbei)/(PEatT*PEatT);
|
|
xvar1_Vrth=xvar1_PEatT*PEatT_Vrth;
|
|
xvar2=(1.0-p[18]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vbei=xvar3_xvar1*xvar1_Vbei;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=PEatT*(1.0-xvar3)/(1.0-p[18]);
|
|
qlo_PEatT=(1.0-xvar3)/(1.0-p[18]);
|
|
qlo_xvar3=-PEatT/(1.0-p[18]);
|
|
qlo_Vrth=qlo_PEatT*PEatT_Vrth;
|
|
qlo_Vbei=qlo_xvar3*xvar3_Vbei;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
qhi=0.0;
|
|
qhi_Vbei=0.0;
|
|
qhi_Vrth=0.0;
|
|
}
|
|
qdbe=qlo+qhi;
|
|
qdbe_qlo=1.0;
|
|
qdbe_qhi=1.0;
|
|
qdbe_Vrth=qdbe_qlo*qlo_Vrth;
|
|
qdbe_Vbei=qdbe_qlo*qlo_Vbei;
|
|
qdbe_Vbei=qdbe_Vbei+qdbe_qhi*qhi_Vbei;
|
|
qdbe_Vrth=qdbe_Vrth+qdbe_qhi*qhi_Vrth;
|
|
}else{
|
|
mv0=sqrt(dv0*dv0+4.0*p[19]*p[19]);
|
|
mv0_dv0=dv0/sqrt((dv0*dv0)+4.0*(p[19]*p[19]));
|
|
mv0_Vrth=mv0_dv0*dv0_Vrth;
|
|
vl0=-0.5*(dv0+mv0);
|
|
vl0_dv0=-0.5;
|
|
vl0_mv0=-0.5;
|
|
vl0_Vrth=vl0_dv0*dv0_Vrth;
|
|
vl0_Vrth=vl0_Vrth+vl0_mv0*mv0_Vrth;
|
|
xvar1=(1.0-vl0/PEatT);
|
|
xvar1_vl0=-1.0/PEatT;
|
|
xvar1_PEatT=vl0/(PEatT*PEatT);
|
|
xvar1_Vrth=xvar1_vl0*vl0_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PEatT*PEatT_Vrth;
|
|
xvar2=(1.0-p[18]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
q0=-PEatT*xvar3/(1.0-p[18]);
|
|
q0_PEatT=-xvar3/(1.0-p[18]);
|
|
q0_xvar3=-PEatT/(1.0-p[18]);
|
|
q0_Vrth=q0_PEatT*PEatT_Vrth;
|
|
q0_Vrth=q0_Vrth+q0_xvar3*xvar3_Vrth;
|
|
dv=(*Vbei)+dv0;
|
|
dv_Vbei=1.0;
|
|
dv_dv0=1.0;
|
|
dv_Vrth=dv_dv0*dv0_Vrth;
|
|
mv=sqrt(dv*dv+4.0*p[19]*p[19]);
|
|
mv_dv=dv/sqrt((dv*dv)+4.0*(p[19]*p[19]));
|
|
mv_Vbei=mv_dv*dv_Vbei;
|
|
mv_Vrth=mv_dv*dv_Vrth;
|
|
vl=0.5*(dv-mv)-dv0;
|
|
vl_dv=0.5;
|
|
vl_mv=-0.5;
|
|
vl_dv0=-1.0;
|
|
vl_Vbei=vl_dv*dv_Vbei;
|
|
vl_Vrth=vl_dv*dv_Vrth;
|
|
vl_Vbei=vl_Vbei+vl_mv*mv_Vbei;
|
|
vl_Vrth=vl_Vrth+vl_mv*mv_Vrth;
|
|
vl_Vrth=vl_Vrth+vl_dv0*dv0_Vrth;
|
|
xvar1=(1.0-vl/PEatT);
|
|
xvar1_vl=-1.0/PEatT;
|
|
xvar1_PEatT=vl/(PEatT*PEatT);
|
|
xvar1_Vbei=xvar1_vl*vl_Vbei;
|
|
xvar1_Vrth=xvar1_vl*vl_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PEatT*PEatT_Vrth;
|
|
xvar2=(1.0-p[18]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vbei=xvar3_xvar1*xvar1_Vbei;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=-PEatT*xvar3/(1.0-p[18]);
|
|
qlo_PEatT=-xvar3/(1.0-p[18]);
|
|
qlo_xvar3=-PEatT/(1.0-p[18]);
|
|
qlo_Vrth=qlo_PEatT*PEatT_Vrth;
|
|
qlo_Vbei=qlo_xvar3*xvar3_Vbei;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
xvar1=(1.0-p[14]);
|
|
xvar2=(-p[18]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
qdbe=qlo+xvar3*((*Vbei)-vl+vl0)-q0;
|
|
qdbe_qlo=1.0;
|
|
qdbe_Vbei=xvar3;
|
|
qdbe_vl=-xvar3;
|
|
qdbe_vl0=xvar3;
|
|
qdbe_q0=-1.0;
|
|
qdbe_Vrth=qdbe_qlo*qlo_Vrth;
|
|
qdbe_Vbei=qdbe_Vbei+qdbe_qlo*qlo_Vbei;
|
|
qdbe_Vbei=qdbe_Vbei+qdbe_vl*vl_Vbei;
|
|
qdbe_Vrth=qdbe_Vrth+qdbe_vl*vl_Vrth;
|
|
qdbe_Vrth=qdbe_Vrth+qdbe_vl0*vl0_Vrth;
|
|
qdbe_Vrth=qdbe_Vrth+qdbe_q0*q0_Vrth;
|
|
}
|
|
dv0=-PEatT*p[14];
|
|
dv0_PEatT=-p[14];
|
|
dv0_Vrth=dv0_PEatT*PEatT_Vrth;
|
|
if(p[19]<=0.0){
|
|
dvh=(*Vbex)+dv0;
|
|
dvh_Vbex=1.0;
|
|
dvh_dv0=1.0;
|
|
dvh_Vrth=dvh_dv0*dv0_Vrth;
|
|
if(dvh>0.0){
|
|
xvar1=(1.0-p[14]);
|
|
xvar2=(-1.0-p[18]);
|
|
pwq=pow(xvar1,xvar2);
|
|
qlo=PEatT*(1.0-pwq*(1.0-p[14])*(1.0-p[14]))/(1.0-p[18]);
|
|
qlo_PEatT=(1.0-((1.0-p[14])*(1.0-p[14]))*pwq)/(1.0-p[18]);
|
|
qlo_Vbex=0.0;
|
|
qlo_Vrth=qlo_PEatT*PEatT_Vrth;
|
|
qhi=dvh*(1.0-p[14]+0.5*p[18]*dvh/PEatT)*pwq;
|
|
qhi_dvh=(0.5*dvh*p[18]/PEatT-p[14]+1.0)*pwq+0.5*dvh*p[18]*pwq/PEatT;
|
|
qhi_PEatT=-0.5*(dvh*dvh)*p[18]*pwq/(PEatT*PEatT);
|
|
qhi_Vbex=qhi_dvh*dvh_Vbex;
|
|
qhi_Vrth=qhi_dvh*dvh_Vrth;
|
|
qhi_Vrth=qhi_Vrth+qhi_PEatT*PEatT_Vrth;
|
|
}else{
|
|
xvar1=(1.0-(*Vbex)/PEatT);
|
|
xvar1_Vbex=-1.0/PEatT;
|
|
xvar1_PEatT=(*Vbex)/(PEatT*PEatT);
|
|
xvar1_Vrth=xvar1_PEatT*PEatT_Vrth;
|
|
xvar2=(1.0-p[18]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vbex=xvar3_xvar1*xvar1_Vbex;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=PEatT*(1.0-xvar3)/(1.0-p[18]);
|
|
qlo_PEatT=(1.0-xvar3)/(1.0-p[18]);
|
|
qlo_xvar3=-PEatT/(1.0-p[18]);
|
|
qlo_Vrth=qlo_PEatT*PEatT_Vrth;
|
|
qlo_Vbex=qlo_xvar3*xvar3_Vbex;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
qhi=0.0;
|
|
qhi_Vbex=0.0;
|
|
qhi_Vrth=0.0;
|
|
}
|
|
qdbex=qlo+qhi;
|
|
qdbex_qlo=1.0;
|
|
qdbex_qhi=1.0;
|
|
qdbex_Vrth=qdbex_qlo*qlo_Vrth;
|
|
qdbex_Vbex=qdbex_qlo*qlo_Vbex;
|
|
qdbex_Vbex=qdbex_Vbex+qdbex_qhi*qhi_Vbex;
|
|
qdbex_Vrth=qdbex_Vrth+qdbex_qhi*qhi_Vrth;
|
|
}else{
|
|
mv0=sqrt(dv0*dv0+4.0*p[19]*p[19]);
|
|
mv0_dv0=dv0/sqrt((dv0*dv0)+4.0*(p[19]*p[19]));
|
|
mv0_Vrth=mv0_dv0*dv0_Vrth;
|
|
vl0=-0.5*(dv0+mv0);
|
|
vl0_dv0=-0.5;
|
|
vl0_mv0=-0.5;
|
|
vl0_Vrth=vl0_dv0*dv0_Vrth;
|
|
vl0_Vrth=vl0_Vrth+vl0_mv0*mv0_Vrth;
|
|
xvar1=(1.0-vl0/PEatT);
|
|
xvar1_vl0=-1.0/PEatT;
|
|
xvar1_PEatT=vl0/(PEatT*PEatT);
|
|
xvar1_Vrth=xvar1_vl0*vl0_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PEatT*PEatT_Vrth;
|
|
xvar2=(1.0-p[18]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
q0=-PEatT*xvar3/(1.0-p[18]);
|
|
q0_PEatT=-xvar3/(1.0-p[18]);
|
|
q0_xvar3=-PEatT/(1.0-p[18]);
|
|
q0_Vrth=q0_PEatT*PEatT_Vrth;
|
|
q0_Vrth=q0_Vrth+q0_xvar3*xvar3_Vrth;
|
|
dv=(*Vbex)+dv0;
|
|
dv_Vbex=1.0;
|
|
dv_dv0=1.0;
|
|
dv_Vrth=dv_dv0*dv0_Vrth;
|
|
mv=sqrt(dv*dv+4.0*p[19]*p[19]);
|
|
mv_dv=dv/sqrt((dv*dv)+4.0*(p[19]*p[19]));
|
|
mv_Vbex=mv_dv*dv_Vbex;
|
|
mv_Vrth=mv_dv*dv_Vrth;
|
|
vl=0.5*(dv-mv)-dv0;
|
|
vl_dv=0.5;
|
|
vl_mv=-0.5;
|
|
vl_dv0=-1.0;
|
|
vl_Vbex=vl_dv*dv_Vbex;
|
|
vl_Vrth=vl_dv*dv_Vrth;
|
|
vl_Vbex=vl_Vbex+vl_mv*mv_Vbex;
|
|
vl_Vrth=vl_Vrth+vl_mv*mv_Vrth;
|
|
vl_Vrth=vl_Vrth+vl_dv0*dv0_Vrth;
|
|
xvar1=(1.0-vl/PEatT);
|
|
xvar1_vl=-1.0/PEatT;
|
|
xvar1_PEatT=vl/(PEatT*PEatT);
|
|
xvar1_Vbex=xvar1_vl*vl_Vbex;
|
|
xvar1_Vrth=xvar1_vl*vl_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PEatT*PEatT_Vrth;
|
|
xvar2=(1.0-p[18]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vbex=xvar3_xvar1*xvar1_Vbex;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=-PEatT*xvar3/(1.0-p[18]);
|
|
qlo_PEatT=-xvar3/(1.0-p[18]);
|
|
qlo_xvar3=-PEatT/(1.0-p[18]);
|
|
qlo_Vrth=qlo_PEatT*PEatT_Vrth;
|
|
qlo_Vbex=qlo_xvar3*xvar3_Vbex;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
xvar1=(1.0-p[14]);
|
|
xvar2=(-p[18]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
qdbex=qlo+xvar3*((*Vbex)-vl+vl0)-q0;
|
|
qdbex_qlo=1.0;
|
|
qdbex_Vbex=xvar3;
|
|
qdbex_vl=-xvar3;
|
|
qdbex_vl0=xvar3;
|
|
qdbex_q0=-1.0;
|
|
qdbex_Vrth=qdbex_qlo*qlo_Vrth;
|
|
qdbex_Vbex=qdbex_Vbex+qdbex_qlo*qlo_Vbex;
|
|
qdbex_Vbex=qdbex_Vbex+qdbex_vl*vl_Vbex;
|
|
qdbex_Vrth=qdbex_Vrth+qdbex_vl*vl_Vrth;
|
|
qdbex_Vrth=qdbex_Vrth+qdbex_vl0*vl0_Vrth;
|
|
qdbex_Vrth=qdbex_Vrth+qdbex_q0*q0_Vrth;
|
|
}
|
|
dv0=-PCatT*p[14];
|
|
dv0_PCatT=-p[14];
|
|
dv0_Vrth=dv0_PCatT*PCatT_Vrth;
|
|
if(p[26]<=0.0){
|
|
dvh=(*Vbci)+dv0;
|
|
dvh_Vbci=1.0;
|
|
dvh_dv0=1.0;
|
|
dvh_Vrth=dvh_dv0*dv0_Vrth;
|
|
if(dvh>0.0){
|
|
xvar1=(1.0-p[14]);
|
|
xvar2=(-1.0-p[25]);
|
|
pwq=pow(xvar1,xvar2);
|
|
qlo=PCatT*(1.0-pwq*(1.0-p[14])*(1.0-p[14]))/(1.0-p[25]);
|
|
qlo_PCatT=(1.0-((1.0-p[14])*(1.0-p[14]))*pwq)/(1.0-p[25]);
|
|
qlo_Vbci=0.0;
|
|
qlo_Vrth=qlo_PCatT*PCatT_Vrth;
|
|
qhi=dvh*(1.0-p[14]+0.5*p[25]*dvh/PCatT)*pwq;
|
|
qhi_dvh=(0.5*dvh*p[25]/PCatT-p[14]+1.0)*pwq+0.5*dvh*p[25]*pwq/PCatT;
|
|
qhi_PCatT=-0.5*(dvh*dvh)*p[25]*pwq/(PCatT*PCatT);
|
|
qhi_Vbci=qhi_dvh*dvh_Vbci;
|
|
qhi_Vrth=qhi_dvh*dvh_Vrth;
|
|
qhi_Vrth=qhi_Vrth+qhi_PCatT*PCatT_Vrth;
|
|
}else{
|
|
if((p[85]>0.0)&&((*Vbci)<-p[85])){
|
|
xvar1=(1.0+p[85]/PCatT);
|
|
xvar1_PCatT=-p[85]/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(1.0-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=PCatT*(1.0-xvar3*(1.0-((1.0-p[25])*((*Vbci)+p[85]))/(PCatT+p[85])))/(1.0-p[25]);
|
|
qlo_PCatT=(1.0-(1.0-(1.0-p[25])*(p[85]+(*Vbci))/(p[85]+PCatT))*xvar3)/(1.0-p[25])-PCatT*(p[85]+(*Vbci))*xvar3/((p[85]+PCatT)*(p[85]+PCatT));
|
|
qlo_xvar3=PCatT*((1.0-p[25])*(p[85]+(*Vbci))/(p[85]+PCatT)-1.0)/(1.0-p[25]);
|
|
qlo_Vbci=PCatT*xvar3/(p[85]+PCatT);
|
|
qlo_Vrth=qlo_PCatT*PCatT_Vrth;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
}else{
|
|
xvar1=(1.0-(*Vbci)/PCatT);
|
|
xvar1_Vbci=-1.0/PCatT;
|
|
xvar1_PCatT=(*Vbci)/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(1.0-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vbci=xvar3_xvar1*xvar1_Vbci;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=PCatT*(1.0-xvar3)/(1.0-p[25]);
|
|
qlo_PCatT=(1.0-xvar3)/(1.0-p[25]);
|
|
qlo_xvar3=-PCatT/(1.0-p[25]);
|
|
qlo_Vrth=qlo_PCatT*PCatT_Vrth;
|
|
qlo_Vbci=qlo_xvar3*xvar3_Vbci;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
}
|
|
qhi=0.0;
|
|
qhi_Vbci=0.0;
|
|
qhi_Vrth=0.0;
|
|
}
|
|
qdbc=qlo+qhi;
|
|
qdbc_qlo=1.0;
|
|
qdbc_qhi=1.0;
|
|
qdbc_Vrth=qdbc_qlo*qlo_Vrth;
|
|
qdbc_Vbci=qdbc_qlo*qlo_Vbci;
|
|
qdbc_Vbci=qdbc_Vbci+qdbc_qhi*qhi_Vbci;
|
|
qdbc_Vrth=qdbc_Vrth+qdbc_qhi*qhi_Vrth;
|
|
}else{
|
|
if((p[85]>0.0)&&(p[86]>0.0)){
|
|
vn0=(p[85]+dv0)/(p[85]-dv0);
|
|
vn0_dv0=(p[85]+dv0)/((p[85]-dv0)*(p[85]-dv0))+1.0/(p[85]-dv0);
|
|
vn0_Vrth=vn0_dv0*dv0_Vrth;
|
|
vnl0=2.0*vn0/(sqrt((vn0-1.0)*(vn0-1.0)+4.0*p[26]*p[26])+sqrt((vn0+1.0)*(vn0+1.0)+4.0*p[86]*p[86]));
|
|
vnl0_vn0=2.0/(sqrt(((vn0+1.0)*(vn0+1.0))+4.0*(p[86]*p[86]))+sqrt(((vn0-1.0)*(vn0-1.0))+4.0*(p[26]*p[26])))-2.0*vn0*((vn0+1.0)/sqrt(((vn0+1.0)*(vn0+1.0))+4.0*(p[86]*p[86]))+(vn0-1.0)/sqrt(((vn0-1.0)*(vn0-1.0))+4.0*(p[26]*p[26])))/((sqrt(((vn0+1.0)*(vn0+1.0))+4.0*(p[86]*p[86]))+sqrt(((vn0-1.0)*(vn0-1.0))+4.0*(p[26]*p[26])))*(sqrt(((vn0+1.0)*(vn0+1.0))+4.0*(p[86]*p[86]))+sqrt(((vn0-1.0)*(vn0-1.0))+4.0*(p[26]*p[26]))));
|
|
vnl0_Vrth=vnl0_vn0*vn0_Vrth;
|
|
vl0=0.5*(vnl0*(p[85]-dv0)-p[85]-dv0);
|
|
vl0_vnl0=0.5*(p[85]-dv0);
|
|
vl0_dv0=0.5*(-vnl0-1.0);
|
|
vl0_Vrth=vl0_vnl0*vnl0_Vrth;
|
|
vl0_Vrth=vl0_Vrth+vl0_dv0*dv0_Vrth;
|
|
xvar1=(1.0-vl0/PCatT);
|
|
xvar1_vl0=-1.0/PCatT;
|
|
xvar1_PCatT=vl0/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_vl0*vl0_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(1.0-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo0=PCatT*(1.0-xvar3)/(1.0-p[25]);
|
|
qlo0_PCatT=(1.0-xvar3)/(1.0-p[25]);
|
|
qlo0_xvar3=-PCatT/(1.0-p[25]);
|
|
qlo0_Vrth=qlo0_PCatT*PCatT_Vrth;
|
|
qlo0_Vrth=qlo0_Vrth+qlo0_xvar3*xvar3_Vrth;
|
|
vn=(2.0*(*Vbci)+p[85]+dv0)/(p[85]-dv0);
|
|
vn_Vbci=2.0/(p[85]-dv0);
|
|
vn_dv0=(p[85]+2.0*(*Vbci)+dv0)/((p[85]-dv0)*(p[85]-dv0))+1.0/(p[85]-dv0);
|
|
vn_Vrth=vn_dv0*dv0_Vrth;
|
|
vnl=2.0*vn/(sqrt((vn-1.0)*(vn-1.0)+4.0*p[26]*p[26])+sqrt((vn+1.0)*(vn+1.0)+4.0*p[86]*p[86]));
|
|
vnl_vn=2.0/(sqrt(((vn+1.0)*(vn+1.0))+4.0*(p[86]*p[86]))+sqrt(((vn-1.0)*(vn-1.0))+4.0*(p[26]*p[26])))-2.0*vn*((vn+1.0)/sqrt(((vn+1.0)*(vn+1.0))+4.0*(p[86]*p[86]))+(vn-1.0)/sqrt(((vn-1.0)*(vn-1.0))+4.0*(p[26]*p[26])))/((sqrt(((vn+1.0)*(vn+1.0))+4.0*(p[86]*p[86]))+sqrt(((vn-1.0)*(vn-1.0))+4.0*(p[26]*p[26])))*(sqrt(((vn+1.0)*(vn+1.0))+4.0*(p[86]*p[86]))+sqrt(((vn-1.0)*(vn-1.0))+4.0*(p[26]*p[26]))));
|
|
vnl_Vbci=vnl_vn*vn_Vbci;
|
|
vnl_Vrth=vnl_vn*vn_Vrth;
|
|
vl=0.5*(vnl*(p[85]-dv0)-p[85]-dv0);
|
|
vl_vnl=0.5*(p[85]-dv0);
|
|
vl_dv0=0.5*(-vnl-1.0);
|
|
vl_Vbci=vl_vnl*vnl_Vbci;
|
|
vl_Vrth=vl_vnl*vnl_Vrth;
|
|
vl_Vrth=vl_Vrth+vl_dv0*dv0_Vrth;
|
|
xvar1=(1.0-vl/PCatT);
|
|
xvar1_vl=-1.0/PCatT;
|
|
xvar1_PCatT=vl/(PCatT*PCatT);
|
|
xvar1_Vbci=xvar1_vl*vl_Vbci;
|
|
xvar1_Vrth=xvar1_vl*vl_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(1.0-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vbci=xvar3_xvar1*xvar1_Vbci;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=PCatT*(1.0-xvar3)/(1.0-p[25]);
|
|
qlo_PCatT=(1.0-xvar3)/(1.0-p[25]);
|
|
qlo_xvar3=-PCatT/(1.0-p[25]);
|
|
qlo_Vrth=qlo_PCatT*PCatT_Vrth;
|
|
qlo_Vbci=qlo_xvar3*xvar3_Vbci;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
sel=0.5*(vnl+1.0);
|
|
sel_vnl=0.5;
|
|
sel_Vbci=sel_vnl*vnl_Vbci;
|
|
sel_Vrth=sel_vnl*vnl_Vrth;
|
|
xvar1=(1.0+p[85]/PCatT);
|
|
xvar1_PCatT=-p[85]/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(-p[25]);
|
|
crt=pow(xvar1,xvar2);
|
|
crt_xvar1=crt*xvar2/xvar1;
|
|
crt_Vrth=crt_xvar1*xvar1_Vrth;
|
|
xvar1=(1.0+dv0/PCatT);
|
|
xvar1_dv0=1.0/PCatT;
|
|
xvar1_PCatT=-dv0/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_dv0*dv0_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(-p[25]);
|
|
cmx=pow(xvar1,xvar2);
|
|
cmx_xvar1=cmx*xvar2/xvar1;
|
|
cmx_Vrth=cmx_xvar1*xvar1_Vrth;
|
|
cl=(1.0-sel)*crt+sel*cmx;
|
|
cl_sel=cmx-crt;
|
|
cl_crt=1.0-sel;
|
|
cl_cmx=sel;
|
|
cl_Vbci=cl_sel*sel_Vbci;
|
|
cl_Vrth=cl_sel*sel_Vrth;
|
|
cl_Vrth=cl_Vrth+cl_crt*crt_Vrth;
|
|
cl_Vrth=cl_Vrth+cl_cmx*cmx_Vrth;
|
|
ql=((*Vbci)-vl+vl0)*cl;
|
|
ql_Vbci=cl;
|
|
ql_vl=-cl;
|
|
ql_vl0=cl;
|
|
ql_cl=vl0-vl+(*Vbci);
|
|
ql_Vbci=ql_Vbci+ql_vl*vl_Vbci;
|
|
ql_Vrth=ql_vl*vl_Vrth;
|
|
ql_Vrth=ql_Vrth+ql_vl0*vl0_Vrth;
|
|
ql_Vbci=ql_Vbci+ql_cl*cl_Vbci;
|
|
ql_Vrth=ql_Vrth+ql_cl*cl_Vrth;
|
|
qdbc=ql+qlo-qlo0;
|
|
qdbc_ql=1.0;
|
|
qdbc_qlo=1.0;
|
|
qdbc_qlo0=-1.0;
|
|
qdbc_Vbci=qdbc_ql*ql_Vbci;
|
|
qdbc_Vrth=qdbc_ql*ql_Vrth;
|
|
qdbc_Vrth=qdbc_Vrth+qdbc_qlo*qlo_Vrth;
|
|
qdbc_Vbci=qdbc_Vbci+qdbc_qlo*qlo_Vbci;
|
|
qdbc_Vrth=qdbc_Vrth+qdbc_qlo0*qlo0_Vrth;
|
|
}else{
|
|
mv0=sqrt(dv0*dv0+4.0*p[26]*p[26]);
|
|
mv0_dv0=dv0/sqrt((dv0*dv0)+4.0*(p[26]*p[26]));
|
|
mv0_Vrth=mv0_dv0*dv0_Vrth;
|
|
vl0=-0.5*(dv0+mv0);
|
|
vl0_dv0=-0.5;
|
|
vl0_mv0=-0.5;
|
|
vl0_Vrth=vl0_dv0*dv0_Vrth;
|
|
vl0_Vrth=vl0_Vrth+vl0_mv0*mv0_Vrth;
|
|
xvar1=(1.0-vl0/PCatT);
|
|
xvar1_vl0=-1.0/PCatT;
|
|
xvar1_PCatT=vl0/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_vl0*vl0_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(1.0-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
q0=-PCatT*xvar3/(1.0-p[25]);
|
|
q0_PCatT=-xvar3/(1.0-p[25]);
|
|
q0_xvar3=-PCatT/(1.0-p[25]);
|
|
q0_Vrth=q0_PCatT*PCatT_Vrth;
|
|
q0_Vrth=q0_Vrth+q0_xvar3*xvar3_Vrth;
|
|
dv=(*Vbci)+dv0;
|
|
dv_Vbci=1.0;
|
|
dv_dv0=1.0;
|
|
dv_Vrth=dv_dv0*dv0_Vrth;
|
|
mv=sqrt(dv*dv+4.0*p[26]*p[26]);
|
|
mv_dv=dv/sqrt((dv*dv)+4.0*(p[26]*p[26]));
|
|
mv_Vbci=mv_dv*dv_Vbci;
|
|
mv_Vrth=mv_dv*dv_Vrth;
|
|
vl=0.5*(dv-mv)-dv0;
|
|
vl_dv=0.5;
|
|
vl_mv=-0.5;
|
|
vl_dv0=-1.0;
|
|
vl_Vbci=vl_dv*dv_Vbci;
|
|
vl_Vrth=vl_dv*dv_Vrth;
|
|
vl_Vbci=vl_Vbci+vl_mv*mv_Vbci;
|
|
vl_Vrth=vl_Vrth+vl_mv*mv_Vrth;
|
|
vl_Vrth=vl_Vrth+vl_dv0*dv0_Vrth;
|
|
xvar1=(1.0-vl/PCatT);
|
|
xvar1_vl=-1.0/PCatT;
|
|
xvar1_PCatT=vl/(PCatT*PCatT);
|
|
xvar1_Vbci=xvar1_vl*vl_Vbci;
|
|
xvar1_Vrth=xvar1_vl*vl_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(1.0-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vbci=xvar3_xvar1*xvar1_Vbci;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=-PCatT*xvar3/(1.0-p[25]);
|
|
qlo_PCatT=-xvar3/(1.0-p[25]);
|
|
qlo_xvar3=-PCatT/(1.0-p[25]);
|
|
qlo_Vrth=qlo_PCatT*PCatT_Vrth;
|
|
qlo_Vbci=qlo_xvar3*xvar3_Vbci;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
xvar1=(1.0-p[14]);
|
|
xvar2=(-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
qdbc=qlo+xvar3*((*Vbci)-vl+vl0)-q0;
|
|
qdbc_qlo=1.0;
|
|
qdbc_Vbci=xvar3;
|
|
qdbc_vl=-xvar3;
|
|
qdbc_vl0=xvar3;
|
|
qdbc_q0=-1.0;
|
|
qdbc_Vrth=qdbc_qlo*qlo_Vrth;
|
|
qdbc_Vbci=qdbc_Vbci+qdbc_qlo*qlo_Vbci;
|
|
qdbc_Vbci=qdbc_Vbci+qdbc_vl*vl_Vbci;
|
|
qdbc_Vrth=qdbc_Vrth+qdbc_vl*vl_Vrth;
|
|
qdbc_Vrth=qdbc_Vrth+qdbc_vl0*vl0_Vrth;
|
|
qdbc_Vrth=qdbc_Vrth+qdbc_q0*q0_Vrth;
|
|
}
|
|
}
|
|
dv0=-PCatT*p[14];
|
|
dv0_PCatT=-p[14];
|
|
dv0_Vrth=dv0_PCatT*PCatT_Vrth;
|
|
if(p[26]<=0.0){
|
|
dvh=(*Vbep)+dv0;
|
|
dvh_Vbep=1.0;
|
|
dvh_dv0=1.0;
|
|
dvh_Vrth=dvh_dv0*dv0_Vrth;
|
|
if(dvh>0.0){
|
|
xvar1=(1.0-p[14]);
|
|
xvar2=(-1.0-p[25]);
|
|
pwq=pow(xvar1,xvar2);
|
|
qlo=PCatT*(1.0-pwq*(1.0-p[14])*(1.0-p[14]))/(1.0-p[25]);
|
|
qlo_PCatT=(1.0-((1.0-p[14])*(1.0-p[14]))*pwq)/(1.0-p[25]);
|
|
qlo_Vbep=0.0;
|
|
qlo_Vrth=qlo_PCatT*PCatT_Vrth;
|
|
qhi=dvh*(1.0-p[14]+0.5*p[25]*dvh/PCatT)*pwq;
|
|
qhi_dvh=(0.5*dvh*p[25]/PCatT-p[14]+1.0)*pwq+0.5*dvh*p[25]*pwq/PCatT;
|
|
qhi_PCatT=-0.5*(dvh*dvh)*p[25]*pwq/(PCatT*PCatT);
|
|
qhi_Vbep=qhi_dvh*dvh_Vbep;
|
|
qhi_Vrth=qhi_dvh*dvh_Vrth;
|
|
qhi_Vrth=qhi_Vrth+qhi_PCatT*PCatT_Vrth;
|
|
}else{
|
|
if((p[85]>0.0)&&((*Vbep)<-p[85])){
|
|
xvar1=(1.0+p[85]/PCatT);
|
|
xvar1_PCatT=-p[85]/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(1.0-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=PCatT*(1.0-xvar3*(1.0-((1.0-p[25])*((*Vbep)+p[85]))/(PCatT+p[85])))/(1.0-p[25]);
|
|
qlo_PCatT=(1.0-(1.0-(1.0-p[25])*(p[85]+(*Vbep))/(p[85]+PCatT))*xvar3)/(1.0-p[25])-PCatT*(p[85]+(*Vbep))*xvar3/((p[85]+PCatT)*(p[85]+PCatT));
|
|
qlo_xvar3=PCatT*((1.0-p[25])*(p[85]+(*Vbep))/(p[85]+PCatT)-1.0)/(1.0-p[25]);
|
|
qlo_Vbep=PCatT*xvar3/(p[85]+PCatT);
|
|
qlo_Vrth=qlo_PCatT*PCatT_Vrth;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
}else{
|
|
xvar1=(1.0-(*Vbep)/PCatT);
|
|
xvar1_Vbep=-1.0/PCatT;
|
|
xvar1_PCatT=(*Vbep)/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(1.0-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vbep=xvar3_xvar1*xvar1_Vbep;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=PCatT*(1.0-xvar3)/(1.0-p[25]);
|
|
qlo_PCatT=(1.0-xvar3)/(1.0-p[25]);
|
|
qlo_xvar3=-PCatT/(1.0-p[25]);
|
|
qlo_Vrth=qlo_PCatT*PCatT_Vrth;
|
|
qlo_Vbep=qlo_xvar3*xvar3_Vbep;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
}
|
|
qhi=0.0;
|
|
qhi_Vbep=0.0;
|
|
qhi_Vrth=0.0;
|
|
}
|
|
qdbep=qlo+qhi;
|
|
qdbep_qlo=1.0;
|
|
qdbep_qhi=1.0;
|
|
qdbep_Vrth=qdbep_qlo*qlo_Vrth;
|
|
qdbep_Vbep=qdbep_qlo*qlo_Vbep;
|
|
qdbep_Vbep=qdbep_Vbep+qdbep_qhi*qhi_Vbep;
|
|
qdbep_Vrth=qdbep_Vrth+qdbep_qhi*qhi_Vrth;
|
|
}else{
|
|
if((p[85]>0.0)&&(p[86]>0.0)){
|
|
vn0=(p[85]+dv0)/(p[85]-dv0);
|
|
vn0_dv0=(p[85]+dv0)/((p[85]-dv0)*(p[85]-dv0))+1.0/(p[85]-dv0);
|
|
vn0_Vrth=vn0_dv0*dv0_Vrth;
|
|
vnl0=2.0*vn0/(sqrt((vn0-1.0)*(vn0-1.0)+4.0*p[26]*p[26])+sqrt((vn0+1.0)*(vn0+1.0)+4.0*p[86]*p[86]));
|
|
vnl0_vn0=2.0/(sqrt(((vn0+1.0)*(vn0+1.0))+4.0*(p[86]*p[86]))+sqrt(((vn0-1.0)*(vn0-1.0))+4.0*(p[26]*p[26])))-2.0*vn0*((vn0+1.0)/sqrt(((vn0+1.0)*(vn0+1.0))+4.0*(p[86]*p[86]))+(vn0-1.0)/sqrt(((vn0-1.0)*(vn0-1.0))+4.0*(p[26]*p[26])))/((sqrt(((vn0+1.0)*(vn0+1.0))+4.0*(p[86]*p[86]))+sqrt(((vn0-1.0)*(vn0-1.0))+4.0*(p[26]*p[26])))*(sqrt(((vn0+1.0)*(vn0+1.0))+4.0*(p[86]*p[86]))+sqrt(((vn0-1.0)*(vn0-1.0))+4.0*(p[26]*p[26]))));
|
|
vnl0_Vrth=vnl0_vn0*vn0_Vrth;
|
|
vl0=0.5*(vnl0*(p[85]-dv0)-p[85]-dv0);
|
|
vl0_vnl0=0.5*(p[85]-dv0);
|
|
vl0_dv0=0.5*(-vnl0-1.0);
|
|
vl0_Vrth=vl0_vnl0*vnl0_Vrth;
|
|
vl0_Vrth=vl0_Vrth+vl0_dv0*dv0_Vrth;
|
|
xvar1=(1.0-vl0/PCatT);
|
|
xvar1_vl0=-1.0/PCatT;
|
|
xvar1_PCatT=vl0/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_vl0*vl0_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(1.0-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo0=PCatT*(1.0-xvar3)/(1.0-p[25]);
|
|
qlo0_PCatT=(1.0-xvar3)/(1.0-p[25]);
|
|
qlo0_xvar3=-PCatT/(1.0-p[25]);
|
|
qlo0_Vrth=qlo0_PCatT*PCatT_Vrth;
|
|
qlo0_Vrth=qlo0_Vrth+qlo0_xvar3*xvar3_Vrth;
|
|
vn=(2.0*(*Vbep)+p[85]+dv0)/(p[85]-dv0);
|
|
vn_Vbep=2.0/(p[85]-dv0);
|
|
vn_dv0=(p[85]+2.0*(*Vbep)+dv0)/((p[85]-dv0)*(p[85]-dv0))+1.0/(p[85]-dv0);
|
|
vn_Vrth=vn_dv0*dv0_Vrth;
|
|
vnl=2.0*vn/(sqrt((vn-1.0)*(vn-1.0)+4.0*p[26]*p[26])+sqrt((vn+1.0)*(vn+1.0)+4.0*p[86]*p[86]));
|
|
vnl_vn=2.0/(sqrt(((vn+1.0)*(vn+1.0))+4.0*(p[86]*p[86]))+sqrt(((vn-1.0)*(vn-1.0))+4.0*(p[26]*p[26])))-2.0*vn*((vn+1.0)/sqrt(((vn+1.0)*(vn+1.0))+4.0*(p[86]*p[86]))+(vn-1.0)/sqrt(((vn-1.0)*(vn-1.0))+4.0*(p[26]*p[26])))/((sqrt(((vn+1.0)*(vn+1.0))+4.0*(p[86]*p[86]))+sqrt(((vn-1.0)*(vn-1.0))+4.0*(p[26]*p[26])))*(sqrt(((vn+1.0)*(vn+1.0))+4.0*(p[86]*p[86]))+sqrt(((vn-1.0)*(vn-1.0))+4.0*(p[26]*p[26]))));
|
|
vnl_Vbep=vnl_vn*vn_Vbep;
|
|
vnl_Vrth=vnl_vn*vn_Vrth;
|
|
vl=0.5*(vnl*(p[85]-dv0)-p[85]-dv0);
|
|
vl_vnl=0.5*(p[85]-dv0);
|
|
vl_dv0=0.5*(-vnl-1.0);
|
|
vl_Vbep=vl_vnl*vnl_Vbep;
|
|
vl_Vrth=vl_vnl*vnl_Vrth;
|
|
vl_Vrth=vl_Vrth+vl_dv0*dv0_Vrth;
|
|
xvar1=(1.0-vl/PCatT);
|
|
xvar1_vl=-1.0/PCatT;
|
|
xvar1_PCatT=vl/(PCatT*PCatT);
|
|
xvar1_Vbep=xvar1_vl*vl_Vbep;
|
|
xvar1_Vrth=xvar1_vl*vl_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(1.0-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vbep=xvar3_xvar1*xvar1_Vbep;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=PCatT*(1.0-xvar3)/(1.0-p[25]);
|
|
qlo_PCatT=(1.0-xvar3)/(1.0-p[25]);
|
|
qlo_xvar3=-PCatT/(1.0-p[25]);
|
|
qlo_Vrth=qlo_PCatT*PCatT_Vrth;
|
|
qlo_Vbep=qlo_xvar3*xvar3_Vbep;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
sel=0.5*(vnl+1.0);
|
|
sel_vnl=0.5;
|
|
sel_Vbep=sel_vnl*vnl_Vbep;
|
|
sel_Vrth=sel_vnl*vnl_Vrth;
|
|
xvar1=(1.0+p[85]/PCatT);
|
|
xvar1_PCatT=-p[85]/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(-p[25]);
|
|
crt=pow(xvar1,xvar2);
|
|
crt_xvar1=crt*xvar2/xvar1;
|
|
crt_Vrth=crt_xvar1*xvar1_Vrth;
|
|
xvar1=(1.0+dv0/PCatT);
|
|
xvar1_dv0=1.0/PCatT;
|
|
xvar1_PCatT=-dv0/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_dv0*dv0_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(-p[25]);
|
|
cmx=pow(xvar1,xvar2);
|
|
cmx_xvar1=cmx*xvar2/xvar1;
|
|
cmx_Vrth=cmx_xvar1*xvar1_Vrth;
|
|
cl=(1.0-sel)*crt+sel*cmx;
|
|
cl_sel=cmx-crt;
|
|
cl_crt=1.0-sel;
|
|
cl_cmx=sel;
|
|
cl_Vbep=cl_sel*sel_Vbep;
|
|
cl_Vrth=cl_sel*sel_Vrth;
|
|
cl_Vrth=cl_Vrth+cl_crt*crt_Vrth;
|
|
cl_Vrth=cl_Vrth+cl_cmx*cmx_Vrth;
|
|
ql=((*Vbep)-vl+vl0)*cl;
|
|
ql_Vbep=cl;
|
|
ql_vl=-cl;
|
|
ql_vl0=cl;
|
|
ql_cl=vl0-vl+(*Vbep);
|
|
ql_Vbep=ql_Vbep+ql_vl*vl_Vbep;
|
|
ql_Vrth=ql_vl*vl_Vrth;
|
|
ql_Vrth=ql_Vrth+ql_vl0*vl0_Vrth;
|
|
ql_Vbep=ql_Vbep+ql_cl*cl_Vbep;
|
|
ql_Vrth=ql_Vrth+ql_cl*cl_Vrth;
|
|
qdbep=ql+qlo-qlo0;
|
|
qdbep_ql=1.0;
|
|
qdbep_qlo=1.0;
|
|
qdbep_qlo0=-1.0;
|
|
qdbep_Vbep=qdbep_ql*ql_Vbep;
|
|
qdbep_Vrth=qdbep_ql*ql_Vrth;
|
|
qdbep_Vrth=qdbep_Vrth+qdbep_qlo*qlo_Vrth;
|
|
qdbep_Vbep=qdbep_Vbep+qdbep_qlo*qlo_Vbep;
|
|
qdbep_Vrth=qdbep_Vrth+qdbep_qlo0*qlo0_Vrth;
|
|
}else{
|
|
mv0=sqrt(dv0*dv0+4.0*p[26]*p[26]);
|
|
mv0_dv0=dv0/sqrt((dv0*dv0)+4.0*(p[26]*p[26]));
|
|
mv0_Vrth=mv0_dv0*dv0_Vrth;
|
|
vl0=-0.5*(dv0+mv0);
|
|
vl0_dv0=-0.5;
|
|
vl0_mv0=-0.5;
|
|
vl0_Vrth=vl0_dv0*dv0_Vrth;
|
|
vl0_Vrth=vl0_Vrth+vl0_mv0*mv0_Vrth;
|
|
xvar1=(1.0-vl0/PCatT);
|
|
xvar1_vl0=-1.0/PCatT;
|
|
xvar1_PCatT=vl0/(PCatT*PCatT);
|
|
xvar1_Vrth=xvar1_vl0*vl0_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(1.0-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
q0=-PCatT*xvar3/(1.0-p[25]);
|
|
q0_PCatT=-xvar3/(1.0-p[25]);
|
|
q0_xvar3=-PCatT/(1.0-p[25]);
|
|
q0_Vrth=q0_PCatT*PCatT_Vrth;
|
|
q0_Vrth=q0_Vrth+q0_xvar3*xvar3_Vrth;
|
|
dv=(*Vbep)+dv0;
|
|
dv_Vbep=1.0;
|
|
dv_dv0=1.0;
|
|
dv_Vrth=dv_dv0*dv0_Vrth;
|
|
mv=sqrt(dv*dv+4.0*p[26]*p[26]);
|
|
mv_dv=dv/sqrt((dv*dv)+4.0*(p[26]*p[26]));
|
|
mv_Vbep=mv_dv*dv_Vbep;
|
|
mv_Vrth=mv_dv*dv_Vrth;
|
|
vl=0.5*(dv-mv)-dv0;
|
|
vl_dv=0.5;
|
|
vl_mv=-0.5;
|
|
vl_dv0=-1.0;
|
|
vl_Vbep=vl_dv*dv_Vbep;
|
|
vl_Vrth=vl_dv*dv_Vrth;
|
|
vl_Vbep=vl_Vbep+vl_mv*mv_Vbep;
|
|
vl_Vrth=vl_Vrth+vl_mv*mv_Vrth;
|
|
vl_Vrth=vl_Vrth+vl_dv0*dv0_Vrth;
|
|
xvar1=(1.0-vl/PCatT);
|
|
xvar1_vl=-1.0/PCatT;
|
|
xvar1_PCatT=vl/(PCatT*PCatT);
|
|
xvar1_Vbep=xvar1_vl*vl_Vbep;
|
|
xvar1_Vrth=xvar1_vl*vl_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PCatT*PCatT_Vrth;
|
|
xvar2=(1.0-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vbep=xvar3_xvar1*xvar1_Vbep;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=-PCatT*xvar3/(1.0-p[25]);
|
|
qlo_PCatT=-xvar3/(1.0-p[25]);
|
|
qlo_xvar3=-PCatT/(1.0-p[25]);
|
|
qlo_Vrth=qlo_PCatT*PCatT_Vrth;
|
|
qlo_Vbep=qlo_xvar3*xvar3_Vbep;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
xvar1=(1.0-p[14]);
|
|
xvar2=(-p[25]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
qdbep=qlo+xvar3*((*Vbep)-vl+vl0)-q0;
|
|
qdbep_qlo=1.0;
|
|
qdbep_Vbep=xvar3;
|
|
qdbep_vl=-xvar3;
|
|
qdbep_vl0=xvar3;
|
|
qdbep_q0=-1.0;
|
|
qdbep_Vrth=qdbep_qlo*qlo_Vrth;
|
|
qdbep_Vbep=qdbep_Vbep+qdbep_qlo*qlo_Vbep;
|
|
qdbep_Vbep=qdbep_Vbep+qdbep_vl*vl_Vbep;
|
|
qdbep_Vrth=qdbep_Vrth+qdbep_vl*vl_Vrth;
|
|
qdbep_Vrth=qdbep_Vrth+qdbep_vl0*vl0_Vrth;
|
|
qdbep_Vrth=qdbep_Vrth+qdbep_q0*q0_Vrth;
|
|
}
|
|
}
|
|
if(p[27]>0.0){
|
|
dv0=-PSatT*p[14];
|
|
dv0_PSatT=-p[14];
|
|
dv0_Vrth=dv0_PSatT*PSatT_Vrth;
|
|
if(p[30]<=0.0){
|
|
dvh=(*Vbcp)+dv0;
|
|
dvh_Vbcp=1.0;
|
|
dvh_dv0=1.0;
|
|
dvh_Vrth=dvh_dv0*dv0_Vrth;
|
|
if(dvh>0.0){
|
|
xvar1=(1.0-p[14]);
|
|
xvar2=(-1.0-p[29]);
|
|
pwq=pow(xvar1,xvar2);
|
|
qlo=PSatT*(1.0-pwq*(1.0-p[14])*(1.0-p[14]))/(1.0-p[29]);
|
|
qlo_PSatT=(1.0-((1.0-p[14])*(1.0-p[14]))*pwq)/(1.0-p[29]);
|
|
qlo_Vbcp=0.0;
|
|
qlo_Vrth=qlo_PSatT*PSatT_Vrth;
|
|
qhi=dvh*(1.0-p[14]+0.5*p[29]*dvh/PSatT)*pwq;
|
|
qhi_dvh=(0.5*dvh*p[29]/PSatT-p[14]+1.0)*pwq+0.5*dvh*p[29]*pwq/PSatT;
|
|
qhi_PSatT=-0.5*(dvh*dvh)*p[29]*pwq/(PSatT*PSatT);
|
|
qhi_Vbcp=qhi_dvh*dvh_Vbcp;
|
|
qhi_Vrth=qhi_dvh*dvh_Vrth;
|
|
qhi_Vrth=qhi_Vrth+qhi_PSatT*PSatT_Vrth;
|
|
}else{
|
|
xvar1=(1.0-(*Vbcp)/PSatT);
|
|
xvar1_Vbcp=-1.0/PSatT;
|
|
xvar1_PSatT=(*Vbcp)/(PSatT*PSatT);
|
|
xvar1_Vrth=xvar1_PSatT*PSatT_Vrth;
|
|
xvar2=(1.0-p[29]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vbcp=xvar3_xvar1*xvar1_Vbcp;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=PSatT*(1.0-xvar3)/(1.0-p[29]);
|
|
qlo_PSatT=(1.0-xvar3)/(1.0-p[29]);
|
|
qlo_xvar3=-PSatT/(1.0-p[29]);
|
|
qlo_Vrth=qlo_PSatT*PSatT_Vrth;
|
|
qlo_Vbcp=qlo_xvar3*xvar3_Vbcp;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
qhi=0.0;
|
|
qhi_Vrth=0.0;
|
|
qhi_Vbcp=0.0;
|
|
}
|
|
qdbcp=qlo+qhi;
|
|
qdbcp_qlo=1.0;
|
|
qdbcp_qhi=1.0;
|
|
qdbcp_Vrth=qdbcp_qlo*qlo_Vrth;
|
|
qdbcp_Vbcp=qdbcp_qlo*qlo_Vbcp;
|
|
qdbcp_Vrth=qdbcp_Vrth+qdbcp_qhi*qhi_Vrth;
|
|
qdbcp_Vbcp=qdbcp_Vbcp+qdbcp_qhi*qhi_Vbcp;
|
|
}else{
|
|
mv0=sqrt(dv0*dv0+4.0*p[30]*p[30]);
|
|
mv0_dv0=dv0/sqrt((dv0*dv0)+4.0*(p[30]*p[30]));
|
|
mv0_Vrth=mv0_dv0*dv0_Vrth;
|
|
vl0=-0.5*(dv0+mv0);
|
|
vl0_dv0=-0.5;
|
|
vl0_mv0=-0.5;
|
|
vl0_Vrth=vl0_dv0*dv0_Vrth;
|
|
vl0_Vrth=vl0_Vrth+vl0_mv0*mv0_Vrth;
|
|
xvar1=(1.0-vl0/PSatT);
|
|
xvar1_vl0=-1.0/PSatT;
|
|
xvar1_PSatT=vl0/(PSatT*PSatT);
|
|
xvar1_Vrth=xvar1_vl0*vl0_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PSatT*PSatT_Vrth;
|
|
xvar2=(1.0-p[29]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
q0=-PSatT*xvar3/(1.0-p[29]);
|
|
q0_PSatT=-xvar3/(1.0-p[29]);
|
|
q0_xvar3=-PSatT/(1.0-p[29]);
|
|
q0_Vrth=q0_PSatT*PSatT_Vrth;
|
|
q0_Vrth=q0_Vrth+q0_xvar3*xvar3_Vrth;
|
|
dv=(*Vbcp)+dv0;
|
|
dv_Vbcp=1.0;
|
|
dv_dv0=1.0;
|
|
dv_Vrth=dv_dv0*dv0_Vrth;
|
|
mv=sqrt(dv*dv+4.0*p[30]*p[30]);
|
|
mv_dv=dv/sqrt((dv*dv)+4.0*(p[30]*p[30]));
|
|
mv_Vbcp=mv_dv*dv_Vbcp;
|
|
mv_Vrth=mv_dv*dv_Vrth;
|
|
vl=0.5*(dv-mv)-dv0;
|
|
vl_dv=0.5;
|
|
vl_mv=-0.5;
|
|
vl_dv0=-1.0;
|
|
vl_Vbcp=vl_dv*dv_Vbcp;
|
|
vl_Vrth=vl_dv*dv_Vrth;
|
|
vl_Vbcp=vl_Vbcp+vl_mv*mv_Vbcp;
|
|
vl_Vrth=vl_Vrth+vl_mv*mv_Vrth;
|
|
vl_Vrth=vl_Vrth+vl_dv0*dv0_Vrth;
|
|
xvar1=(1.0-vl/PSatT);
|
|
xvar1_vl=-1.0/PSatT;
|
|
xvar1_PSatT=vl/(PSatT*PSatT);
|
|
xvar1_Vbcp=xvar1_vl*vl_Vbcp;
|
|
xvar1_Vrth=xvar1_vl*vl_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_PSatT*PSatT_Vrth;
|
|
xvar2=(1.0-p[29]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
xvar3_xvar1=xvar3*xvar2/xvar1;
|
|
xvar3_Vbcp=xvar3_xvar1*xvar1_Vbcp;
|
|
xvar3_Vrth=xvar3_xvar1*xvar1_Vrth;
|
|
qlo=-PSatT*xvar3/(1.0-p[29]);
|
|
qlo_PSatT=-xvar3/(1.0-p[29]);
|
|
qlo_xvar3=-PSatT/(1.0-p[29]);
|
|
qlo_Vrth=qlo_PSatT*PSatT_Vrth;
|
|
qlo_Vbcp=qlo_xvar3*xvar3_Vbcp;
|
|
qlo_Vrth=qlo_Vrth+qlo_xvar3*xvar3_Vrth;
|
|
xvar1=(1.0-p[14]);
|
|
xvar2=(-p[29]);
|
|
xvar3=pow(xvar1,xvar2);
|
|
qdbcp=qlo+xvar3*((*Vbcp)-vl+vl0)-q0;
|
|
qdbcp_qlo=1.0;
|
|
qdbcp_Vbcp=xvar3;
|
|
qdbcp_vl=-xvar3;
|
|
qdbcp_vl0=xvar3;
|
|
qdbcp_q0=-1.0;
|
|
qdbcp_Vrth=qdbcp_qlo*qlo_Vrth;
|
|
qdbcp_Vbcp=qdbcp_Vbcp+qdbcp_qlo*qlo_Vbcp;
|
|
qdbcp_Vbcp=qdbcp_Vbcp+qdbcp_vl*vl_Vbcp;
|
|
qdbcp_Vrth=qdbcp_Vrth+qdbcp_vl*vl_Vrth;
|
|
qdbcp_Vrth=qdbcp_Vrth+qdbcp_vl0*vl0_Vrth;
|
|
qdbcp_Vrth=qdbcp_Vrth+qdbcp_q0*q0_Vrth;
|
|
}
|
|
}else{
|
|
qdbcp=0.0;
|
|
qdbcp_Vrth=0.0;
|
|
qdbcp_Vbcp=0.0;
|
|
}
|
|
argi=(*Vbei)/(NFatT*Vtv);
|
|
argi_Vbei=1.0/(NFatT*Vtv);
|
|
argi_NFatT=-(*Vbei)/((NFatT*NFatT)*Vtv);
|
|
argi_Vtv=-(*Vbei)/(NFatT*(Vtv*Vtv));
|
|
argi_Vrth=argi_NFatT*NFatT_Vrth;
|
|
argi_Vrth=argi_Vrth+argi_Vtv*Vtv_Vrth;
|
|
expi=exp(argi);
|
|
expi_argi=expi;
|
|
expi_Vbei=expi_argi*argi_Vbei;
|
|
expi_Vrth=expi_argi*argi_Vrth;
|
|
Ifi=ISatT*(expi-1.0);
|
|
Ifi_ISatT=expi-1.0;
|
|
Ifi_expi=ISatT;
|
|
Ifi_Vrth=Ifi_ISatT*ISatT_Vrth;
|
|
Ifi_Vbei=Ifi_expi*expi_Vbei;
|
|
Ifi_Vrth=Ifi_Vrth+Ifi_expi*expi_Vrth;
|
|
argi=(*Vbci)/(NRatT*Vtv);
|
|
argi_Vbci=1.0/(NRatT*Vtv);
|
|
argi_NRatT=-(*Vbci)/((NRatT*NRatT)*Vtv);
|
|
argi_Vtv=-(*Vbci)/(NRatT*(Vtv*Vtv));
|
|
argi_Vrth=argi_NRatT*NRatT_Vrth;
|
|
argi_Vrth=argi_Vrth+argi_Vtv*Vtv_Vrth;
|
|
expi=exp(argi);
|
|
expi_argi=expi;
|
|
expi_Vbci=expi_argi*argi_Vbci;
|
|
expi_Vrth=expi_argi*argi_Vrth;
|
|
Iri=ISatT*ISRRatT*(expi-1.0);
|
|
Iri_ISatT=(expi-1.0)*ISRRatT;
|
|
Iri_ISRRatT=(expi-1.0)*ISatT;
|
|
Iri_expi=ISatT*ISRRatT;
|
|
Iri_Vrth=Iri_ISatT*ISatT_Vrth;
|
|
Iri_Vrth=Iri_Vrth+Iri_ISRRatT*ISRRatT_Vrth;
|
|
Iri_Vbci=Iri_expi*expi_Vbci;
|
|
Iri_Vrth=Iri_Vrth+Iri_expi*expi_Vrth;
|
|
q1z=1.0+qdbe*IVER+qdbc*IVEF;
|
|
q1z_qdbe=IVER;
|
|
q1z_qdbc=IVEF;
|
|
q1z_Vrth=q1z_qdbe*qdbe_Vrth;
|
|
q1z_Vbei=q1z_qdbe*qdbe_Vbei;
|
|
q1z_Vrth=q1z_Vrth+q1z_qdbc*qdbc_Vrth;
|
|
q1z_Vbci=q1z_qdbc*qdbc_Vbci;
|
|
q1=0.5*(sqrt((q1z-1.0e-4)*(q1z-1.0e-4)+1.0e-8)+q1z-1.0e-4)+1.0e-4;
|
|
q1_q1z=0.5*((q1z-1.0e-4)/sqrt(((q1z-1.0e-4)*(q1z-1.0e-4))+1.0e-8)+1.0);
|
|
q1_Vrth=q1_q1z*q1z_Vrth;
|
|
q1_Vbei=q1_q1z*q1z_Vbei;
|
|
q1_Vbci=q1_q1z*q1z_Vbci;
|
|
q2=Ifi*IIKF+Iri*IIKR;
|
|
q2_Ifi=IIKF;
|
|
q2_IIKF=Ifi;
|
|
q2_Iri=IIKR;
|
|
q2_Vrth=q2_Ifi*Ifi_Vrth;
|
|
q2_Vbei=q2_Ifi*Ifi_Vbei;
|
|
q2_Vrth=q2_Vrth+q2_IIKF*IIKF_Vrth;
|
|
q2_Vrth=q2_Vrth+q2_Iri*Iri_Vrth;
|
|
q2_Vbci=q2_Iri*Iri_Vbci;
|
|
if(p[88]<0.5){
|
|
xvar2=1.0/p[89];
|
|
xvar3=pow(q1,xvar2);
|
|
xvar3_q1=xvar3*xvar2/q1;
|
|
xvar3_Vrth=xvar3_q1*q1_Vrth;
|
|
xvar3_Vbei=xvar3_q1*q1_Vbei;
|
|
xvar3_Vbci=xvar3_q1*q1_Vbci;
|
|
xvar1=(xvar3+4.0*q2);
|
|
xvar1_xvar3=1.0;
|
|
xvar1_q2=4.0;
|
|
xvar1_Vrth=xvar1_xvar3*xvar3_Vrth;
|
|
xvar1_Vbei=xvar1_xvar3*xvar3_Vbei;
|
|
xvar1_Vbci=xvar1_xvar3*xvar3_Vbci;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_q2*q2_Vrth;
|
|
xvar1_Vbei=xvar1_Vbei+xvar1_q2*q2_Vbei;
|
|
xvar1_Vbci=xvar1_Vbci+xvar1_q2*q2_Vbci;
|
|
xvar4=pow(xvar1,p[89]);
|
|
xvar4_xvar1=xvar4*p[89]/xvar1;
|
|
xvar4_Vrth=xvar4_xvar1*xvar1_Vrth;
|
|
xvar4_Vbei=xvar4_xvar1*xvar1_Vbei;
|
|
xvar4_Vbci=xvar4_xvar1*xvar1_Vbci;
|
|
qb=0.5*(q1+xvar4);
|
|
qb_q1=0.5;
|
|
qb_xvar4=0.5;
|
|
qb_Vrth=qb_q1*q1_Vrth;
|
|
qb_Vbei=qb_q1*q1_Vbei;
|
|
qb_Vbci=qb_q1*q1_Vbci;
|
|
qb_Vrth=qb_Vrth+qb_xvar4*xvar4_Vrth;
|
|
qb_Vbei=qb_Vbei+qb_xvar4*xvar4_Vbei;
|
|
qb_Vbci=qb_Vbci+qb_xvar4*xvar4_Vbci;
|
|
}else{
|
|
xvar1=(1.0+4.0*q2);
|
|
xvar1_q2=4.0;
|
|
xvar1_Vrth=xvar1_q2*q2_Vrth;
|
|
xvar1_Vbei=xvar1_q2*q2_Vbei;
|
|
xvar1_Vbci=xvar1_q2*q2_Vbci;
|
|
xvar2=pow(xvar1,p[89]);
|
|
xvar2_xvar1=xvar2*p[89]/xvar1;
|
|
xvar2_Vrth=xvar2_xvar1*xvar1_Vrth;
|
|
xvar2_Vbei=xvar2_xvar1*xvar1_Vbei;
|
|
xvar2_Vbci=xvar2_xvar1*xvar1_Vbci;
|
|
qb=0.5*q1*(1.0+xvar2);
|
|
qb_q1=0.5*(xvar2+1.0);
|
|
qb_xvar2=0.5*q1;
|
|
qb_Vrth=qb_q1*q1_Vrth;
|
|
qb_Vbei=qb_q1*q1_Vbei;
|
|
qb_Vbci=qb_q1*q1_Vbci;
|
|
qb_Vrth=qb_Vrth+qb_xvar2*xvar2_Vrth;
|
|
qb_Vbei=qb_Vbei+qb_xvar2*xvar2_Vbei;
|
|
qb_Vbci=qb_Vbci+qb_xvar2*xvar2_Vbci;
|
|
}
|
|
(*Itzr)=Iri/qb;
|
|
Itzr_Iri=1.0/qb;
|
|
Itzr_qb=-Iri/(qb*qb);
|
|
*Itzr_Vrth=Itzr_Iri*Iri_Vrth;
|
|
*Itzr_Vbci=Itzr_Iri*Iri_Vbci;
|
|
*Itzr_Vrth=(*Itzr_Vrth)+Itzr_qb*qb_Vrth;
|
|
*Itzr_Vbei=Itzr_qb*qb_Vbei;
|
|
*Itzr_Vbci=(*Itzr_Vbci)+Itzr_qb*qb_Vbci;
|
|
(*Itzf)=Ifi/qb;
|
|
Itzf_Ifi=1.0/qb;
|
|
Itzf_qb=-Ifi/(qb*qb);
|
|
*Itzf_Vrth=Itzf_Ifi*Ifi_Vrth;
|
|
*Itzf_Vbei=Itzf_Ifi*Ifi_Vbei;
|
|
*Itzf_Vrth=(*Itzf_Vrth)+Itzf_qb*qb_Vrth;
|
|
*Itzf_Vbei=(*Itzf_Vbei)+Itzf_qb*qb_Vbei;
|
|
*Itzf_Vbci=Itzf_qb*qb_Vbci;
|
|
if(p[42]>0.0){
|
|
argi=(*Vbep)/(p[44]*Vtv);
|
|
argi_Vbep=1.0/(p[44]*Vtv);
|
|
argi_Vtv=-(*Vbep)/(p[44]*(Vtv*Vtv));
|
|
argi_Vrth=argi_Vtv*Vtv_Vrth;
|
|
expi=exp(argi);
|
|
expi_argi=expi;
|
|
expi_Vbep=expi_argi*argi_Vbep;
|
|
expi_Vrth=expi_argi*argi_Vrth;
|
|
argx=(*Vbci)/(p[44]*Vtv);
|
|
argx_Vbci=1.0/(p[44]*Vtv);
|
|
argx_Vtv=-(*Vbci)/(p[44]*(Vtv*Vtv));
|
|
argx_Vrth=argx_Vtv*Vtv_Vrth;
|
|
expx=exp(argx);
|
|
expx_argx=expx;
|
|
expx_Vbci=expx_argx*argx_Vbci;
|
|
expx_Vrth=expx_argx*argx_Vrth;
|
|
Ifp=ISPatT*(p[43]*expi+(1.0-p[43])*expx-1.0);
|
|
Ifp_ISPatT=expi*p[43]+expx*(1.0-p[43])-1.0;
|
|
Ifp_expi=ISPatT*p[43];
|
|
Ifp_expx=ISPatT*(1.0-p[43]);
|
|
Ifp_Vrth=Ifp_ISPatT*ISPatT_Vrth;
|
|
Ifp_Vbep=Ifp_expi*expi_Vbep;
|
|
Ifp_Vrth=Ifp_Vrth+Ifp_expi*expi_Vrth;
|
|
Ifp_Vbci=Ifp_expx*expx_Vbci;
|
|
Ifp_Vrth=Ifp_Vrth+Ifp_expx*expx_Vrth;
|
|
q2p=Ifp*IIKP;
|
|
q2p_Ifp=IIKP;
|
|
q2p_Vrth=q2p_Ifp*Ifp_Vrth;
|
|
q2p_Vbep=q2p_Ifp*Ifp_Vbep;
|
|
q2p_Vbci=q2p_Ifp*Ifp_Vbci;
|
|
qbp=0.5*(1.0+sqrt(1.0+4.0*q2p));
|
|
qbp_q2p=1.0/sqrt(4.0*q2p+1.0);
|
|
qbp_Vrth=qbp_q2p*q2p_Vrth;
|
|
qbp_Vbep=qbp_q2p*q2p_Vbep;
|
|
qbp_Vbci=qbp_q2p*q2p_Vbci;
|
|
argi=(*Vbcp)/(p[44]*Vtv);
|
|
argi_Vbcp=1.0/(p[44]*Vtv);
|
|
argi_Vtv=-(*Vbcp)/(p[44]*(Vtv*Vtv));
|
|
argi_Vrth=argi_Vtv*Vtv_Vrth;
|
|
expi=exp(argi);
|
|
expi_argi=expi;
|
|
expi_Vbcp=expi_argi*argi_Vbcp;
|
|
expi_Vrth=expi_argi*argi_Vrth;
|
|
Irp=ISPatT*(expi-1.0);
|
|
Irp_ISPatT=expi-1.0;
|
|
Irp_expi=ISPatT;
|
|
Irp_Vrth=Irp_ISPatT*ISPatT_Vrth;
|
|
Irp_Vbcp=Irp_expi*expi_Vbcp;
|
|
Irp_Vrth=Irp_Vrth+Irp_expi*expi_Vrth;
|
|
(*Iccp)=(Ifp-Irp)/qbp;
|
|
Iccp_Ifp=1.0/qbp;
|
|
Iccp_Irp=-1.0/qbp;
|
|
Iccp_qbp=-(Ifp-Irp)/(qbp*qbp);
|
|
*Iccp_Vrth=Iccp_Ifp*Ifp_Vrth;
|
|
*Iccp_Vbep=Iccp_Ifp*Ifp_Vbep;
|
|
*Iccp_Vbci=Iccp_Ifp*Ifp_Vbci;
|
|
*Iccp_Vrth=(*Iccp_Vrth)+Iccp_Irp*Irp_Vrth;
|
|
*Iccp_Vbcp=Iccp_Irp*Irp_Vbcp;
|
|
*Iccp_Vrth=(*Iccp_Vrth)+Iccp_qbp*qbp_Vrth;
|
|
*Iccp_Vbep=(*Iccp_Vbep)+Iccp_qbp*qbp_Vbep;
|
|
*Iccp_Vbci=(*Iccp_Vbci)+Iccp_qbp*qbp_Vbci;
|
|
}else{
|
|
Ifp=0.0;
|
|
Ifp_Vrth=0.0;
|
|
Ifp_Vbep=0.0;
|
|
Ifp_Vbci=0.0;
|
|
qbp=1.0;
|
|
qbp_Vrth=0.0;
|
|
qbp_Vbep=0.0;
|
|
qbp_Vbci=0.0;
|
|
(*Iccp)=0.0;
|
|
*Iccp_Vrth=0.0;
|
|
*Iccp_Vbep=0.0;
|
|
*Iccp_Vbci=0.0;
|
|
*Iccp_Vbcp=0.0;
|
|
}
|
|
if(p[32]==1.0){
|
|
argi=(*Vbei)/(p[33]*Vtv);
|
|
argi_Vbei=1.0/(p[33]*Vtv);
|
|
argi_Vtv=-(*Vbei)/(p[33]*(Vtv*Vtv));
|
|
argi_Vrth=argi_Vtv*Vtv_Vrth;
|
|
expi=exp(argi);
|
|
expi_argi=expi;
|
|
expi_Vbei=expi_argi*argi_Vbei;
|
|
expi_Vrth=expi_argi*argi_Vrth;
|
|
argn=(*Vbei)/(p[35]*Vtv);
|
|
argn_Vbei=1.0/(p[35]*Vtv);
|
|
argn_Vtv=-(*Vbei)/(p[35]*(Vtv*Vtv));
|
|
argn_Vrth=argn_Vtv*Vtv_Vrth;
|
|
expn=exp(argn);
|
|
expn_argn=expn;
|
|
expn_Vbei=expn_argn*argn_Vbei;
|
|
expn_Vrth=expn_argn*argn_Vrth;
|
|
if(p[98]>0.0){
|
|
argx=(-VBBEatT-(*Vbei))/(NBBEatT*Vtv);
|
|
argx_VBBEatT=-1.0/(NBBEatT*Vtv);
|
|
argx_Vbei=-1.0/(NBBEatT*Vtv);
|
|
argx_NBBEatT=-(-(*Vbei)-VBBEatT)/((NBBEatT*NBBEatT)*Vtv);
|
|
argx_Vtv=-(-(*Vbei)-VBBEatT)/(NBBEatT*(Vtv*Vtv));
|
|
argx_Vrth=argx_VBBEatT*VBBEatT_Vrth;
|
|
argx_Vrth=argx_Vrth+argx_NBBEatT*NBBEatT_Vrth;
|
|
argx_Vrth=argx_Vrth+argx_Vtv*Vtv_Vrth;
|
|
expx=exp(argx);
|
|
expx_argx=expx;
|
|
expx_Vrth=expx_argx*argx_Vrth;
|
|
expx_Vbei=expx_argx*argx_Vbei;
|
|
(*Ibe)=IBEIatT*(expi-1.0)+IBENatT*(expn-1.0)-p[100]*(expx-EBBEatT);
|
|
Ibe_IBEIatT=expi-1.0;
|
|
Ibe_expi=IBEIatT;
|
|
Ibe_IBENatT=expn-1.0;
|
|
Ibe_expn=IBENatT;
|
|
Ibe_expx=-p[100];
|
|
Ibe_EBBEatT=p[100];
|
|
*Ibe_Vrth=Ibe_IBEIatT*IBEIatT_Vrth;
|
|
*Ibe_Vbei=Ibe_expi*expi_Vbei;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_expi*expi_Vrth;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_IBENatT*IBENatT_Vrth;
|
|
*Ibe_Vbei=(*Ibe_Vbei)+Ibe_expn*expn_Vbei;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_expn*expn_Vrth;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_expx*expx_Vrth;
|
|
*Ibe_Vbei=(*Ibe_Vbei)+Ibe_expx*expx_Vbei;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_EBBEatT*EBBEatT_Vrth;
|
|
}else{
|
|
(*Ibe)=IBEIatT*(expi-1.0)+IBENatT*(expn-1.0);
|
|
Ibe_IBEIatT=expi-1.0;
|
|
Ibe_expi=IBEIatT;
|
|
Ibe_IBENatT=expn-1.0;
|
|
Ibe_expn=IBENatT;
|
|
*Ibe_Vrth=Ibe_IBEIatT*IBEIatT_Vrth;
|
|
*Ibe_Vbei=Ibe_expi*expi_Vbei;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_expi*expi_Vrth;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_IBENatT*IBENatT_Vrth;
|
|
*Ibe_Vbei=(*Ibe_Vbei)+Ibe_expn*expn_Vbei;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_expn*expn_Vrth;
|
|
}
|
|
(*Ibex)=0.0;
|
|
*Ibex_Vrth=0.0;
|
|
*Ibex_Vbex=0.0;
|
|
}else if(p[32]==0.0){
|
|
(*Ibe)=0.0;
|
|
*Ibe_Vrth=0.0;
|
|
*Ibe_Vbei=0.0;
|
|
argi=(*Vbex)/(p[33]*Vtv);
|
|
argi_Vbex=1.0/(p[33]*Vtv);
|
|
argi_Vtv=-(*Vbex)/(p[33]*(Vtv*Vtv));
|
|
argi_Vrth=argi_Vtv*Vtv_Vrth;
|
|
expi=exp(argi);
|
|
expi_argi=expi;
|
|
expi_Vbex=expi_argi*argi_Vbex;
|
|
expi_Vrth=expi_argi*argi_Vrth;
|
|
argn=(*Vbex)/(p[35]*Vtv);
|
|
argn_Vbex=1.0/(p[35]*Vtv);
|
|
argn_Vtv=-(*Vbex)/(p[35]*(Vtv*Vtv));
|
|
argn_Vrth=argn_Vtv*Vtv_Vrth;
|
|
expn=exp(argn);
|
|
expn_argn=expn;
|
|
expn_Vbex=expn_argn*argn_Vbex;
|
|
expn_Vrth=expn_argn*argn_Vrth;
|
|
if(p[98]>0.0){
|
|
argx=(-VBBEatT-(*Vbex))/(NBBEatT*Vtv);
|
|
argx_VBBEatT=-1.0/(NBBEatT*Vtv);
|
|
argx_Vbex=-1.0/(NBBEatT*Vtv);
|
|
argx_NBBEatT=-(-(*Vbex)-VBBEatT)/((NBBEatT*NBBEatT)*Vtv);
|
|
argx_Vtv=-(-(*Vbex)-VBBEatT)/(NBBEatT*(Vtv*Vtv));
|
|
argx_Vrth=argx_VBBEatT*VBBEatT_Vrth;
|
|
argx_Vrth=argx_Vrth+argx_NBBEatT*NBBEatT_Vrth;
|
|
argx_Vrth=argx_Vrth+argx_Vtv*Vtv_Vrth;
|
|
expx=exp(argx);
|
|
expx_argx=expx;
|
|
expx_Vrth=expx_argx*argx_Vrth;
|
|
expx_Vbex=expx_argx*argx_Vbex;
|
|
(*Ibex)=IBEIatT*(expi-1.0)+IBENatT*(expn-1.0)-p[100]*(expx-EBBEatT);
|
|
Ibex_IBEIatT=expi-1.0;
|
|
Ibex_expi=IBEIatT;
|
|
Ibex_IBENatT=expn-1.0;
|
|
Ibex_expn=IBENatT;
|
|
Ibex_expx=-p[100];
|
|
Ibex_EBBEatT=p[100];
|
|
*Ibex_Vrth=Ibex_IBEIatT*IBEIatT_Vrth;
|
|
*Ibex_Vbex=Ibex_expi*expi_Vbex;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_expi*expi_Vrth;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_IBENatT*IBENatT_Vrth;
|
|
*Ibex_Vbex=(*Ibex_Vbex)+Ibex_expn*expn_Vbex;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_expn*expn_Vrth;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_expx*expx_Vrth;
|
|
*Ibex_Vbex=(*Ibex_Vbex)+Ibex_expx*expx_Vbex;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_EBBEatT*EBBEatT_Vrth;
|
|
}else{
|
|
(*Ibex)=IBEIatT*(expi-1.0)+IBENatT*(expn-1.0);
|
|
Ibex_IBEIatT=expi-1.0;
|
|
Ibex_expi=IBEIatT;
|
|
Ibex_IBENatT=expn-1.0;
|
|
Ibex_expn=IBENatT;
|
|
*Ibex_Vrth=Ibex_IBEIatT*IBEIatT_Vrth;
|
|
*Ibex_Vbex=Ibex_expi*expi_Vbex;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_expi*expi_Vrth;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_IBENatT*IBENatT_Vrth;
|
|
*Ibex_Vbex=(*Ibex_Vbex)+Ibex_expn*expn_Vbex;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_expn*expn_Vrth;
|
|
}
|
|
}else{
|
|
argi=(*Vbei)/(p[33]*Vtv);
|
|
argi_Vbei=1.0/(p[33]*Vtv);
|
|
argi_Vtv=-(*Vbei)/(p[33]*(Vtv*Vtv));
|
|
argi_Vrth=argi_Vtv*Vtv_Vrth;
|
|
expi=exp(argi);
|
|
expi_argi=expi;
|
|
expi_Vbei=expi_argi*argi_Vbei;
|
|
expi_Vrth=expi_argi*argi_Vrth;
|
|
argn=(*Vbei)/(p[35]*Vtv);
|
|
argn_Vbei=1.0/(p[35]*Vtv);
|
|
argn_Vtv=-(*Vbei)/(p[35]*(Vtv*Vtv));
|
|
argn_Vrth=argn_Vtv*Vtv_Vrth;
|
|
expn=exp(argn);
|
|
expn_argn=expn;
|
|
expn_Vbei=expn_argn*argn_Vbei;
|
|
expn_Vrth=expn_argn*argn_Vrth;
|
|
if(p[98]>0.0){
|
|
argx=(-VBBEatT-(*Vbei))/(NBBEatT*Vtv);
|
|
argx_VBBEatT=-1.0/(NBBEatT*Vtv);
|
|
argx_Vbei=-1.0/(NBBEatT*Vtv);
|
|
argx_NBBEatT=-(-(*Vbei)-VBBEatT)/((NBBEatT*NBBEatT)*Vtv);
|
|
argx_Vtv=-(-(*Vbei)-VBBEatT)/(NBBEatT*(Vtv*Vtv));
|
|
argx_Vrth=argx_VBBEatT*VBBEatT_Vrth;
|
|
argx_Vrth=argx_Vrth+argx_NBBEatT*NBBEatT_Vrth;
|
|
argx_Vrth=argx_Vrth+argx_Vtv*Vtv_Vrth;
|
|
expx=exp(argx);
|
|
expx_argx=expx;
|
|
expx_Vrth=expx_argx*argx_Vrth;
|
|
expx_Vbei=expx_argx*argx_Vbei;
|
|
(*Ibe)=p[32]*(IBEIatT*(expi-1.0)+IBENatT*(expn-1.0)-p[100]*(expx-EBBEatT));
|
|
Ibe_IBEIatT=(expi-1.0)*p[32];
|
|
Ibe_expi=IBEIatT*p[32];
|
|
Ibe_IBENatT=(expn-1.0)*p[32];
|
|
Ibe_expn=IBENatT*p[32];
|
|
Ibe_expx=-p[100]*p[32];
|
|
Ibe_EBBEatT=p[100]*p[32];
|
|
*Ibe_Vrth=Ibe_IBEIatT*IBEIatT_Vrth;
|
|
*Ibe_Vbei=Ibe_expi*expi_Vbei;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_expi*expi_Vrth;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_IBENatT*IBENatT_Vrth;
|
|
*Ibe_Vbei=(*Ibe_Vbei)+Ibe_expn*expn_Vbei;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_expn*expn_Vrth;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_expx*expx_Vrth;
|
|
*Ibe_Vbei=(*Ibe_Vbei)+Ibe_expx*expx_Vbei;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_EBBEatT*EBBEatT_Vrth;
|
|
}else{
|
|
(*Ibe)=p[32]*(IBEIatT*(expi-1.0)+IBENatT*(expn-1.0));
|
|
Ibe_IBEIatT=(expi-1.0)*p[32];
|
|
Ibe_expi=IBEIatT*p[32];
|
|
Ibe_IBENatT=(expn-1.0)*p[32];
|
|
Ibe_expn=IBENatT*p[32];
|
|
*Ibe_Vrth=Ibe_IBEIatT*IBEIatT_Vrth;
|
|
*Ibe_Vbei=Ibe_expi*expi_Vbei;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_expi*expi_Vrth;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_IBENatT*IBENatT_Vrth;
|
|
*Ibe_Vbei=(*Ibe_Vbei)+Ibe_expn*expn_Vbei;
|
|
*Ibe_Vrth=(*Ibe_Vrth)+Ibe_expn*expn_Vrth;
|
|
}
|
|
argi=(*Vbex)/(p[33]*Vtv);
|
|
argi_Vbex=1.0/(p[33]*Vtv);
|
|
argi_Vtv=-(*Vbex)/(p[33]*(Vtv*Vtv));
|
|
argi_Vrth=argi_Vtv*Vtv_Vrth;
|
|
expi=exp(argi);
|
|
expi_argi=expi;
|
|
expi_Vbex=expi_argi*argi_Vbex;
|
|
expi_Vrth=expi_argi*argi_Vrth;
|
|
argn=(*Vbex)/(p[35]*Vtv);
|
|
argn_Vbex=1.0/(p[35]*Vtv);
|
|
argn_Vtv=-(*Vbex)/(p[35]*(Vtv*Vtv));
|
|
argn_Vrth=argn_Vtv*Vtv_Vrth;
|
|
expn=exp(argn);
|
|
expn_argn=expn;
|
|
expn_Vbex=expn_argn*argn_Vbex;
|
|
expn_Vrth=expn_argn*argn_Vrth;
|
|
if(p[98]>0.0){
|
|
argx=(-VBBEatT-(*Vbex))/(NBBEatT*Vtv);
|
|
argx_VBBEatT=-1.0/(NBBEatT*Vtv);
|
|
argx_Vbex=-1.0/(NBBEatT*Vtv);
|
|
argx_NBBEatT=-(-(*Vbex)-VBBEatT)/((NBBEatT*NBBEatT)*Vtv);
|
|
argx_Vtv=-(-(*Vbex)-VBBEatT)/(NBBEatT*(Vtv*Vtv));
|
|
argx_Vrth=argx_VBBEatT*VBBEatT_Vrth;
|
|
argx_Vrth=argx_Vrth+argx_NBBEatT*NBBEatT_Vrth;
|
|
argx_Vrth=argx_Vrth+argx_Vtv*Vtv_Vrth;
|
|
expx=exp(argx);
|
|
expx_argx=expx;
|
|
expx_Vrth=expx_argx*argx_Vrth;
|
|
expx_Vbex=expx_argx*argx_Vbex;
|
|
(*Ibex)=(1.0-p[32])*(IBEIatT*(expi-1.0)+IBENatT*(expn-1.0)-p[100]*(expx-EBBEatT));
|
|
Ibex_IBEIatT=(expi-1.0)*(1.0-p[32]);
|
|
Ibex_expi=IBEIatT*(1.0-p[32]);
|
|
Ibex_IBENatT=(expn-1.0)*(1.0-p[32]);
|
|
Ibex_expn=IBENatT*(1.0-p[32]);
|
|
Ibex_expx=-p[100]*(1.0-p[32]);
|
|
Ibex_EBBEatT=p[100]*(1.0-p[32]);
|
|
*Ibex_Vrth=Ibex_IBEIatT*IBEIatT_Vrth;
|
|
*Ibex_Vbex=Ibex_expi*expi_Vbex;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_expi*expi_Vrth;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_IBENatT*IBENatT_Vrth;
|
|
*Ibex_Vbex=(*Ibex_Vbex)+Ibex_expn*expn_Vbex;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_expn*expn_Vrth;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_expx*expx_Vrth;
|
|
*Ibex_Vbex=(*Ibex_Vbex)+Ibex_expx*expx_Vbex;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_EBBEatT*EBBEatT_Vrth;
|
|
}else{
|
|
(*Ibex)=(1.0-p[32])*(IBEIatT*(expi-1.0)+IBENatT*(expn-1.0));
|
|
Ibex_IBEIatT=(expi-1.0)*(1.0-p[32]);
|
|
Ibex_expi=IBEIatT*(1.0-p[32]);
|
|
Ibex_IBENatT=(expn-1.0)*(1.0-p[32]);
|
|
Ibex_expn=IBENatT*(1.0-p[32]);
|
|
*Ibex_Vrth=Ibex_IBEIatT*IBEIatT_Vrth;
|
|
*Ibex_Vbex=Ibex_expi*expi_Vbex;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_expi*expi_Vrth;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_IBENatT*IBENatT_Vrth;
|
|
*Ibex_Vbex=(*Ibex_Vbex)+Ibex_expn*expn_Vbex;
|
|
*Ibex_Vrth=(*Ibex_Vrth)+Ibex_expn*expn_Vrth;
|
|
}
|
|
}
|
|
argi=(*Vbci)/(p[37]*Vtv);
|
|
argi_Vbci=1.0/(p[37]*Vtv);
|
|
argi_Vtv=-(*Vbci)/(p[37]*(Vtv*Vtv));
|
|
argi_Vrth=argi_Vtv*Vtv_Vrth;
|
|
expi=exp(argi);
|
|
expi_argi=expi;
|
|
expi_Vbci=expi_argi*argi_Vbci;
|
|
expi_Vrth=expi_argi*argi_Vrth;
|
|
argn=(*Vbci)/(p[39]*Vtv);
|
|
argn_Vbci=1.0/(p[39]*Vtv);
|
|
argn_Vtv=-(*Vbci)/(p[39]*(Vtv*Vtv));
|
|
argn_Vrth=argn_Vtv*Vtv_Vrth;
|
|
expn=exp(argn);
|
|
expn_argn=expn;
|
|
expn_Vbci=expn_argn*argn_Vbci;
|
|
expn_Vrth=expn_argn*argn_Vrth;
|
|
Ibcj=IBCIatT*(expi-1.0)+IBCNatT*(expn-1.0);
|
|
Ibcj_IBCIatT=expi-1.0;
|
|
Ibcj_expi=IBCIatT;
|
|
Ibcj_IBCNatT=expn-1.0;
|
|
Ibcj_expn=IBCNatT;
|
|
Ibcj_Vrth=Ibcj_IBCIatT*IBCIatT_Vrth;
|
|
Ibcj_Vbci=Ibcj_expi*expi_Vbci;
|
|
Ibcj_Vrth=Ibcj_Vrth+Ibcj_expi*expi_Vrth;
|
|
Ibcj_Vrth=Ibcj_Vrth+Ibcj_IBCNatT*IBCNatT_Vrth;
|
|
Ibcj_Vbci=Ibcj_Vbci+Ibcj_expn*expn_Vbci;
|
|
Ibcj_Vrth=Ibcj_Vrth+Ibcj_expn*expn_Vrth;
|
|
if((p[45]>0.0)||(p[46]>0.0)){
|
|
argi=(*Vbep)/(p[37]*Vtv);
|
|
argi_Vbep=1.0/(p[37]*Vtv);
|
|
argi_Vtv=-(*Vbep)/(p[37]*(Vtv*Vtv));
|
|
argi_Vrth=argi_Vtv*Vtv_Vrth;
|
|
expi=exp(argi);
|
|
expi_argi=expi;
|
|
expi_Vbep=expi_argi*argi_Vbep;
|
|
expi_Vrth=expi_argi*argi_Vrth;
|
|
argn=(*Vbep)/(p[39]*Vtv);
|
|
argn_Vbep=1.0/(p[39]*Vtv);
|
|
argn_Vtv=-(*Vbep)/(p[39]*(Vtv*Vtv));
|
|
argn_Vrth=argn_Vtv*Vtv_Vrth;
|
|
expn=exp(argn);
|
|
expn_argn=expn;
|
|
expn_Vbep=expn_argn*argn_Vbep;
|
|
expn_Vrth=expn_argn*argn_Vrth;
|
|
(*Ibep)=IBEIPatT*(expi-1.0)+IBENPatT*(expn-1.0);
|
|
Ibep_IBEIPatT=expi-1.0;
|
|
Ibep_expi=IBEIPatT;
|
|
Ibep_IBENPatT=expn-1.0;
|
|
Ibep_expn=IBENPatT;
|
|
*Ibep_Vrth=Ibep_IBEIPatT*IBEIPatT_Vrth;
|
|
*Ibep_Vbep=Ibep_expi*expi_Vbep;
|
|
*Ibep_Vrth=(*Ibep_Vrth)+Ibep_expi*expi_Vrth;
|
|
*Ibep_Vrth=(*Ibep_Vrth)+Ibep_IBENPatT*IBENPatT_Vrth;
|
|
*Ibep_Vbep=(*Ibep_Vbep)+Ibep_expn*expn_Vbep;
|
|
*Ibep_Vrth=(*Ibep_Vrth)+Ibep_expn*expn_Vrth;
|
|
}else{
|
|
(*Ibep)=0.0;
|
|
*Ibep_Vrth=0.0;
|
|
*Ibep_Vbep=0.0;
|
|
}
|
|
if(p[40]>0.0){
|
|
vl=0.5*(sqrt((PCatT-(*Vbci))*(PCatT-(*Vbci))+0.01)+(PCatT-(*Vbci)));
|
|
vl_PCatT=0.5*((PCatT-(*Vbci))/sqrt(((PCatT-(*Vbci))*(PCatT-(*Vbci)))+0.01)+1.0);
|
|
vl_Vbci=0.5*(-(PCatT-(*Vbci))/sqrt(((PCatT-(*Vbci))*(PCatT-(*Vbci)))+0.01)-1.0);
|
|
vl_Vrth=vl_PCatT*PCatT_Vrth;
|
|
xvar2=(p[25]-1.0);
|
|
xvar3=pow(vl,xvar2);
|
|
xvar3_vl=xvar3*xvar2/vl;
|
|
xvar3_Vrth=xvar3_vl*vl_Vrth;
|
|
xvar3_Vbci=xvar3_vl*vl_Vbci;
|
|
xvar1=-AVC2atT*xvar3;
|
|
xvar1_AVC2atT=-xvar3;
|
|
xvar1_xvar3=-AVC2atT;
|
|
xvar1_Vrth=xvar1_AVC2atT*AVC2atT_Vrth;
|
|
xvar1_Vrth=xvar1_Vrth+xvar1_xvar3*xvar3_Vrth;
|
|
xvar1_Vbci=xvar1_xvar3*xvar3_Vbci;
|
|
xvar4=exp(xvar1);
|
|
xvar4_xvar1=xvar4;
|
|
xvar4_Vrth=xvar4_xvar1*xvar1_Vrth;
|
|
xvar4_Vbci=xvar4_xvar1*xvar1_Vbci;
|
|
avalf=p[40]*vl*xvar4;
|
|
avalf_vl=p[40]*xvar4;
|
|
avalf_xvar4=p[40]*vl;
|
|
avalf_Vrth=avalf_vl*vl_Vrth;
|
|
avalf_Vbci=avalf_vl*vl_Vbci;
|
|
avalf_Vrth=avalf_Vrth+avalf_xvar4*xvar4_Vrth;
|
|
avalf_Vbci=avalf_Vbci+avalf_xvar4*xvar4_Vbci;
|
|
Igc=((*Itzf)-(*Itzr)-Ibcj)*avalf;
|
|
Igc_Itzf=avalf;
|
|
Igc_Itzr=-avalf;
|
|
Igc_Ibcj=-avalf;
|
|
Igc_avalf=-(*Itzr)+(*Itzf)-Ibcj;
|
|
Igc_Vrth=Igc_Itzf*(*Itzf_Vrth);
|
|
Igc_Vbei=Igc_Itzf*(*Itzf_Vbei);
|
|
Igc_Vbci=Igc_Itzf*(*Itzf_Vbci);
|
|
Igc_Vrth=Igc_Vrth+Igc_Itzr*(*Itzr_Vrth);
|
|
Igc_Vbci=Igc_Vbci+Igc_Itzr*(*Itzr_Vbci);
|
|
Igc_Vbei=Igc_Vbei+Igc_Itzr*(*Itzr_Vbei);
|
|
Igc_Vrth=Igc_Vrth+Igc_Ibcj*Ibcj_Vrth;
|
|
Igc_Vbci=Igc_Vbci+Igc_Ibcj*Ibcj_Vbci;
|
|
Igc_Vrth=Igc_Vrth+Igc_avalf*avalf_Vrth;
|
|
Igc_Vbci=Igc_Vbci+Igc_avalf*avalf_Vbci;
|
|
}else{
|
|
Igc=0.0;
|
|
Igc_Vrth=0.0;
|
|
Igc_Vbei=0.0;
|
|
Igc_Vbci=0.0;
|
|
}
|
|
(*Ibc)=Ibcj-Igc;
|
|
Ibc_Ibcj=1.0;
|
|
Ibc_Igc=-1.0;
|
|
*Ibc_Vrth=Ibc_Ibcj*Ibcj_Vrth;
|
|
*Ibc_Vbci=Ibc_Ibcj*Ibcj_Vbci;
|
|
*Ibc_Vrth=(*Ibc_Vrth)+Ibc_Igc*Igc_Vrth;
|
|
*Ibc_Vbei=Ibc_Igc*Igc_Vbei;
|
|
*Ibc_Vbci=(*Ibc_Vbci)+Ibc_Igc*Igc_Vbci;
|
|
if(p[1]>0.0){
|
|
(*Ircx)=(*Vrcx)/RCXatT;
|
|
*Ircx_Vrcx=1.0/RCXatT;
|
|
Ircx_RCXatT=-(*Vrcx)/(RCXatT*RCXatT);
|
|
*Ircx_Vrth=Ircx_RCXatT*RCXatT_Vrth;
|
|
}else{
|
|
(*Ircx)=0.0;
|
|
*Ircx_Vrcx=0.0;
|
|
*Ircx_Vrth=0.0;
|
|
}
|
|
argi=(*Vbci)/Vtv;
|
|
argi_Vbci=1.0/Vtv;
|
|
argi_Vtv=-(*Vbci)/(Vtv*Vtv);
|
|
argi_Vrth=argi_Vtv*Vtv_Vrth;
|
|
expi=exp(argi);
|
|
expi_argi=expi;
|
|
expi_Vbci=expi_argi*argi_Vbci;
|
|
expi_Vrth=expi_argi*argi_Vrth;
|
|
argx=(*Vbcx)/Vtv;
|
|
argx_Vbcx=1.0/Vtv;
|
|
argx_Vtv=-(*Vbcx)/(Vtv*Vtv);
|
|
argx_Vrth=argx_Vtv*Vtv_Vrth;
|
|
expx=exp(argx);
|
|
expx_argx=expx;
|
|
expx_Vbcx=expx_argx*argx_Vbcx;
|
|
expx_Vrth=expx_argx*argx_Vrth;
|
|
Kbci=sqrt(1.0+GAMMatT*expi);
|
|
Kbci_GAMMatT=expi/(2.0*sqrt(expi*GAMMatT+1.0));
|
|
Kbci_expi=GAMMatT/(2.0*sqrt(expi*GAMMatT+1.0));
|
|
Kbci_Vrth=Kbci_GAMMatT*GAMMatT_Vrth;
|
|
Kbci_Vbci=Kbci_expi*expi_Vbci;
|
|
Kbci_Vrth=Kbci_Vrth+Kbci_expi*expi_Vrth;
|
|
Kbcx=sqrt(1.0+GAMMatT*expx);
|
|
Kbcx_GAMMatT=expx/(2.0*sqrt(expx*GAMMatT+1.0));
|
|
Kbcx_expx=GAMMatT/(2.0*sqrt(expx*GAMMatT+1.0));
|
|
Kbcx_Vrth=Kbcx_GAMMatT*GAMMatT_Vrth;
|
|
Kbcx_Vbcx=Kbcx_expx*expx_Vbcx;
|
|
Kbcx_Vrth=Kbcx_Vrth+Kbcx_expx*expx_Vrth;
|
|
if(p[2]>0.0){
|
|
rKp1=(Kbci+1.0)/(Kbcx+1.0);
|
|
rKp1_Kbci=1.0/(Kbcx+1.0);
|
|
rKp1_Kbcx=-(Kbci+1.0)/((Kbcx+1.0)*(Kbcx+1.0));
|
|
rKp1_Vrth=rKp1_Kbci*Kbci_Vrth;
|
|
rKp1_Vbci=rKp1_Kbci*Kbci_Vbci;
|
|
rKp1_Vrth=rKp1_Vrth+rKp1_Kbcx*Kbcx_Vrth;
|
|
rKp1_Vbcx=rKp1_Kbcx*Kbcx_Vbcx;
|
|
xvar1=log(rKp1);
|
|
xvar1_rKp1=1.0/rKp1;
|
|
xvar1_Vrth=xvar1_rKp1*rKp1_Vrth;
|
|
xvar1_Vbci=xvar1_rKp1*rKp1_Vbci;
|
|
xvar1_Vbcx=xvar1_rKp1*rKp1_Vbcx;
|
|
Iohm=((*Vrci)+Vtv*(Kbci-Kbcx-xvar1))/RCIatT;
|
|
Iohm_Vrci=1.0/RCIatT;
|
|
Iohm_Vtv=(-xvar1-Kbcx+Kbci)/RCIatT;
|
|
Iohm_Kbci=Vtv/RCIatT;
|
|
Iohm_Kbcx=-Vtv/RCIatT;
|
|
Iohm_xvar1=-Vtv/RCIatT;
|
|
Iohm_RCIatT=-(Vtv*(-xvar1-Kbcx+Kbci)+(*Vrci))/(RCIatT*RCIatT);
|
|
Iohm_Vrth=Iohm_Vtv*Vtv_Vrth;
|
|
Iohm_Vrth=Iohm_Vrth+Iohm_Kbci*Kbci_Vrth;
|
|
Iohm_Vbci=Iohm_Kbci*Kbci_Vbci;
|
|
Iohm_Vrth=Iohm_Vrth+Iohm_Kbcx*Kbcx_Vrth;
|
|
Iohm_Vbcx=Iohm_Kbcx*Kbcx_Vbcx;
|
|
Iohm_Vrth=Iohm_Vrth+Iohm_xvar1*xvar1_Vrth;
|
|
Iohm_Vbci=Iohm_Vbci+Iohm_xvar1*xvar1_Vbci;
|
|
Iohm_Vbcx=Iohm_Vbcx+Iohm_xvar1*xvar1_Vbcx;
|
|
Iohm_Vrth=Iohm_Vrth+Iohm_RCIatT*RCIatT_Vrth;
|
|
derf=IVO*RCIatT*Iohm/(1.0+0.5*IVO*IHRCF*sqrt((*Vrci)*(*Vrci)+0.01));
|
|
derf_IVO=Iohm*RCIatT/(0.5*IHRCF*IVO*sqrt(((*Vrci)*(*Vrci))+0.01)+1.0)-0.5*IHRCF*Iohm*IVO*RCIatT*sqrt(((*Vrci)*(*Vrci))+0.01)/((0.5*IHRCF*IVO*sqrt(((*Vrci)*(*Vrci))+0.01)+1.0)*(0.5*IHRCF*IVO*sqrt(((*Vrci)*(*Vrci))+0.01)+1.0));
|
|
derf_RCIatT=Iohm*IVO/(0.5*IHRCF*IVO*sqrt(((*Vrci)*(*Vrci))+0.01)+1.0);
|
|
derf_Iohm=IVO*RCIatT/(0.5*IHRCF*IVO*sqrt(((*Vrci)*(*Vrci))+0.01)+1.0);
|
|
derf_Vrci=-0.5*IHRCF*Iohm*(IVO*IVO)*RCIatT*(*Vrci)/(sqrt(((*Vrci)*(*Vrci))+0.01)*((0.5*IHRCF*IVO*sqrt(((*Vrci)*(*Vrci))+0.01)+1.0)*(0.5*IHRCF*IVO*sqrt(((*Vrci)*(*Vrci))+0.01)+1.0)));
|
|
derf_Vrth=derf_IVO*IVO_Vrth;
|
|
derf_Vrth=derf_Vrth+derf_RCIatT*RCIatT_Vrth;
|
|
derf_Vrci=derf_Vrci+derf_Iohm*Iohm_Vrci;
|
|
derf_Vrth=derf_Vrth+derf_Iohm*Iohm_Vrth;
|
|
derf_Vbci=derf_Iohm*Iohm_Vbci;
|
|
derf_Vbcx=derf_Iohm*Iohm_Vbcx;
|
|
(*Irci)=Iohm/sqrt(1.0+derf*derf);
|
|
Irci_Iohm=1.0/sqrt((derf*derf)+1.0);
|
|
Irci_derf=-derf*Iohm/pow(((derf*derf)+1.0),(3.0/2.0));
|
|
*Irci_Vrci=Irci_Iohm*Iohm_Vrci;
|
|
*Irci_Vrth=Irci_Iohm*Iohm_Vrth;
|
|
*Irci_Vbci=Irci_Iohm*Iohm_Vbci;
|
|
*Irci_Vbcx=Irci_Iohm*Iohm_Vbcx;
|
|
*Irci_Vrth=(*Irci_Vrth)+Irci_derf*derf_Vrth;
|
|
*Irci_Vrci=(*Irci_Vrci)+Irci_derf*derf_Vrci;
|
|
*Irci_Vbci=(*Irci_Vbci)+Irci_derf*derf_Vbci;
|
|
*Irci_Vbcx=(*Irci_Vbcx)+Irci_derf*derf_Vbcx;
|
|
}else{
|
|
(*Irci)=0.0;
|
|
*Irci_Vrci=0.0;
|
|
*Irci_Vrth=0.0;
|
|
*Irci_Vbci=0.0;
|
|
*Irci_Vbcx=0.0;
|
|
}
|
|
if(p[6]>0.0){
|
|
(*Irbx)=(*Vrbx)/RBXatT;
|
|
*Irbx_Vrbx=1.0/RBXatT;
|
|
Irbx_RBXatT=-(*Vrbx)/(RBXatT*RBXatT);
|
|
*Irbx_Vrth=Irbx_RBXatT*RBXatT_Vrth;
|
|
}else{
|
|
(*Irbx)=0.0;
|
|
*Irbx_Vrbx=0.0;
|
|
*Irbx_Vrth=0.0;
|
|
}
|
|
if(p[7]>0.0){
|
|
(*Irbi)=(*Vrbi)*qb/RBIatT;
|
|
*Irbi_Vrbi=qb/RBIatT;
|
|
Irbi_qb=(*Vrbi)/RBIatT;
|
|
Irbi_RBIatT=-qb*(*Vrbi)/(RBIatT*RBIatT);
|
|
*Irbi_Vrth=Irbi_qb*qb_Vrth;
|
|
*Irbi_Vbei=Irbi_qb*qb_Vbei;
|
|
*Irbi_Vbci=Irbi_qb*qb_Vbci;
|
|
*Irbi_Vrth=(*Irbi_Vrth)+Irbi_RBIatT*RBIatT_Vrth;
|
|
}else{
|
|
(*Irbi)=0.0;
|
|
*Irbi_Vrbi=0.0;
|
|
*Irbi_Vrth=0.0;
|
|
*Irbi_Vbei=0.0;
|
|
*Irbi_Vbci=0.0;
|
|
}
|
|
if(p[8]>0.0){
|
|
(*Ire)=(*Vre)/REatT;
|
|
*Ire_Vre=1.0/REatT;
|
|
Ire_REatT=-(*Vre)/(REatT*REatT);
|
|
*Ire_Vrth=Ire_REatT*REatT_Vrth;
|
|
}else{
|
|
(*Ire)=0.0;
|
|
*Ire_Vre=0.0;
|
|
*Ire_Vrth=0.0;
|
|
}
|
|
if(p[10]>0.0){
|
|
(*Irbp)=(*Vrbp)*qbp/RBPatT;
|
|
*Irbp_Vrbp=qbp/RBPatT;
|
|
Irbp_qbp=(*Vrbp)/RBPatT;
|
|
Irbp_RBPatT=-qbp*(*Vrbp)/(RBPatT*RBPatT);
|
|
*Irbp_Vrth=Irbp_qbp*qbp_Vrth;
|
|
*Irbp_Vbep=Irbp_qbp*qbp_Vbep;
|
|
*Irbp_Vbci=Irbp_qbp*qbp_Vbci;
|
|
*Irbp_Vrth=(*Irbp_Vrth)+Irbp_RBPatT*RBPatT_Vrth;
|
|
}else{
|
|
(*Irbp)=0.0;
|
|
*Irbp_Vrbp=0.0;
|
|
*Irbp_Vrth=0.0;
|
|
*Irbp_Vbep=0.0;
|
|
*Irbp_Vbci=0.0;
|
|
}
|
|
if((p[47]>0.0)||(p[49]>0.0)){
|
|
argi=(*Vbcp)/(p[48]*Vtv);
|
|
argi_Vbcp=1.0/(p[48]*Vtv);
|
|
argi_Vtv=-(*Vbcp)/(p[48]*(Vtv*Vtv));
|
|
argi_Vrth=argi_Vtv*Vtv_Vrth;
|
|
expi=exp(argi);
|
|
expi_argi=expi;
|
|
expi_Vbcp=expi_argi*argi_Vbcp;
|
|
expi_Vrth=expi_argi*argi_Vrth;
|
|
argn=(*Vbcp)/(p[50]*Vtv);
|
|
argn_Vbcp=1.0/(p[50]*Vtv);
|
|
argn_Vtv=-(*Vbcp)/(p[50]*(Vtv*Vtv));
|
|
argn_Vrth=argn_Vtv*Vtv_Vrth;
|
|
expn=exp(argn);
|
|
expn_argn=expn;
|
|
expn_Vbcp=expn_argn*argn_Vbcp;
|
|
expn_Vrth=expn_argn*argn_Vrth;
|
|
(*Ibcp)=IBCIPatT*(expi-1.0)+IBCNPatT*(expn-1.0);
|
|
Ibcp_IBCIPatT=expi-1.0;
|
|
Ibcp_expi=IBCIPatT;
|
|
Ibcp_IBCNPatT=expn-1.0;
|
|
Ibcp_expn=IBCNPatT;
|
|
*Ibcp_Vrth=Ibcp_IBCIPatT*IBCIPatT_Vrth;
|
|
*Ibcp_Vbcp=Ibcp_expi*expi_Vbcp;
|
|
*Ibcp_Vrth=(*Ibcp_Vrth)+Ibcp_expi*expi_Vrth;
|
|
*Ibcp_Vrth=(*Ibcp_Vrth)+Ibcp_IBCNPatT*IBCNPatT_Vrth;
|
|
*Ibcp_Vbcp=(*Ibcp_Vbcp)+Ibcp_expn*expn_Vbcp;
|
|
*Ibcp_Vrth=(*Ibcp_Vrth)+Ibcp_expn*expn_Vrth;
|
|
}else{
|
|
(*Ibcp)=0.0;
|
|
*Ibcp_Vrth=0.0;
|
|
*Ibcp_Vbcp=0.0;
|
|
}
|
|
if(p[9]>0.0){
|
|
(*Irs)=(*Vrs)/RSatT;
|
|
*Irs_Vrs=1.0/RSatT;
|
|
Irs_RSatT=-(*Vrs)/(RSatT*RSatT);
|
|
*Irs_Vrth=Irs_RSatT*RSatT_Vrth;
|
|
}else{
|
|
(*Irs)=0.0;
|
|
*Irs_Vrs=0.0;
|
|
*Irs_Vrth=0.0;
|
|
}
|
|
if(Ifi>0.0){
|
|
sgIf=1.0;
|
|
}else{
|
|
sgIf=0.0;
|
|
}
|
|
rIf=Ifi*sgIf*IITF;
|
|
rIf_Ifi=IITF*sgIf;
|
|
rIf_Vrth=rIf_Ifi*Ifi_Vrth;
|
|
rIf_Vbei=rIf_Ifi*Ifi_Vbei;
|
|
mIf=rIf/(rIf+1.0);
|
|
mIf_rIf=1.0/(rIf+1.0)-rIf/((rIf+1.0)*(rIf+1.0));
|
|
mIf_Vrth=mIf_rIf*rIf_Vrth;
|
|
mIf_Vbei=mIf_rIf*rIf_Vbei;
|
|
xvar1=(*Vbci)*IVTF/1.44;
|
|
xvar1_Vbci=0.6944444*IVTF;
|
|
xvar2=exp(xvar1);
|
|
xvar2_xvar1=xvar2;
|
|
xvar2_Vbci=xvar2_xvar1*xvar1_Vbci;
|
|
*tff=p[56]*(1.0+p[57]*q1)*(1.0+p[58]*xvar2*(slTF+mIf*mIf)*sgIf);
|
|
tff_q1=p[57]*p[56]*(sgIf*(slTF+(mIf*mIf))*p[58]*xvar2+1.0);
|
|
tff_xvar2=(q1*p[57]+1.0)*sgIf*(slTF+(mIf*mIf))*p[56]*p[58];
|
|
tff_mIf=2.0*mIf*(q1*p[57]+1.0)*sgIf*p[56]*p[58]*xvar2;
|
|
*tff_Vrth=tff_q1*q1_Vrth;
|
|
*tff_Vbei=tff_q1*q1_Vbei;
|
|
*tff_Vbci=tff_q1*q1_Vbci;
|
|
*tff_Vbci=*tff_Vbci+tff_xvar2*xvar2_Vbci;
|
|
*tff_Vrth=*tff_Vrth+tff_mIf*mIf_Vrth;
|
|
*tff_Vbei=*tff_Vbei+tff_mIf*mIf_Vbei;
|
|
(*Qbe)=CJEatT*qdbe*p[32]+*tff*Ifi/qb;
|
|
Qbe_CJEatT=qdbe*p[32];
|
|
Qbe_qdbe=CJEatT*p[32];
|
|
Qbe_tff=Ifi/qb;
|
|
Qbe_Ifi=*tff/qb;
|
|
Qbe_qb=-Ifi* *tff/(qb*qb);
|
|
*Qbe_Vrth=Qbe_CJEatT*CJEatT_Vrth;
|
|
*Qbe_Vrth=(*Qbe_Vrth)+Qbe_qdbe*qdbe_Vrth;
|
|
*Qbe_Vbei=Qbe_qdbe*qdbe_Vbei;
|
|
*Qbe_Vrth=(*Qbe_Vrth)+Qbe_tff* *tff_Vrth;
|
|
*Qbe_Vbei=(*Qbe_Vbei)+Qbe_tff* *tff_Vbei;
|
|
*Qbe_Vbci=Qbe_tff* *tff_Vbci;
|
|
*Qbe_Vrth=(*Qbe_Vrth)+Qbe_Ifi*Ifi_Vrth;
|
|
*Qbe_Vbei=(*Qbe_Vbei)+Qbe_Ifi*Ifi_Vbei;
|
|
*Qbe_Vrth=(*Qbe_Vrth)+Qbe_qb*qb_Vrth;
|
|
*Qbe_Vbei=(*Qbe_Vbei)+Qbe_qb*qb_Vbei;
|
|
*Qbe_Vbci=(*Qbe_Vbci)+Qbe_qb*qb_Vbci;
|
|
(*Qbex)=CJEatT*qdbex*(1.0-p[32]);
|
|
Qbex_CJEatT=qdbex*(1.0-p[32]);
|
|
Qbex_qdbex=CJEatT*(1.0-p[32]);
|
|
*Qbex_Vrth=Qbex_CJEatT*CJEatT_Vrth;
|
|
*Qbex_Vrth=(*Qbex_Vrth)+Qbex_qdbex*qdbex_Vrth;
|
|
*Qbex_Vbex=Qbex_qdbex*qdbex_Vbex;
|
|
(*Qbc)=CJCatT*qdbc+p[61]*Iri+p[22]*Kbci;
|
|
Qbc_CJCatT=qdbc;
|
|
Qbc_qdbc=CJCatT;
|
|
Qbc_Iri=p[61];
|
|
Qbc_Kbci=p[22];
|
|
*Qbc_Vrth=Qbc_CJCatT*CJCatT_Vrth;
|
|
*Qbc_Vrth=(*Qbc_Vrth)+Qbc_qdbc*qdbc_Vrth;
|
|
*Qbc_Vbci=Qbc_qdbc*qdbc_Vbci;
|
|
*Qbc_Vrth=(*Qbc_Vrth)+Qbc_Iri*Iri_Vrth;
|
|
*Qbc_Vbci=(*Qbc_Vbci)+Qbc_Iri*Iri_Vbci;
|
|
*Qbc_Vrth=(*Qbc_Vrth)+Qbc_Kbci*Kbci_Vrth;
|
|
*Qbc_Vbci=(*Qbc_Vbci)+Qbc_Kbci*Kbci_Vbci;
|
|
(*Qbcx)=p[22]*Kbcx;
|
|
Qbcx_Kbcx=p[22];
|
|
*Qbcx_Vrth=Qbcx_Kbcx*Kbcx_Vrth;
|
|
*Qbcx_Vbcx=Qbcx_Kbcx*Kbcx_Vbcx;
|
|
(*Qbep)=CJEPatT*qdbep+p[61]*Ifp;
|
|
Qbep_CJEPatT=qdbep;
|
|
Qbep_qdbep=CJEPatT;
|
|
Qbep_Ifp=p[61];
|
|
*Qbep_Vrth=Qbep_CJEPatT*CJEPatT_Vrth;
|
|
*Qbep_Vrth=(*Qbep_Vrth)+Qbep_qdbep*qdbep_Vrth;
|
|
*Qbep_Vbep=Qbep_qdbep*qdbep_Vbep;
|
|
*Qbep_Vrth=(*Qbep_Vrth)+Qbep_Ifp*Ifp_Vrth;
|
|
*Qbep_Vbep=(*Qbep_Vbep)+Qbep_Ifp*Ifp_Vbep;
|
|
*Qbep_Vbci=Qbep_Ifp*Ifp_Vbci;
|
|
(*Qbcp)=CJCPatT*qdbcp+p[87]*(*Vbcp);
|
|
Qbcp_CJCPatT=qdbcp;
|
|
Qbcp_qdbcp=CJCPatT;
|
|
*Qbcp_Vbcp=p[87];
|
|
*Qbcp_Vrth=Qbcp_CJCPatT*CJCPatT_Vrth;
|
|
*Qbcp_Vrth=(*Qbcp_Vrth)+Qbcp_qdbcp*qdbcp_Vrth;
|
|
*Qbcp_Vbcp=(*Qbcp_Vbcp)+Qbcp_qdbcp*qdbcp_Vbcp;
|
|
(*Qbeo)=(*Vbe)*p[15];
|
|
*Qbeo_Vbe=p[15];
|
|
(*Qbco)=(*Vbc)*p[20];
|
|
*Qbco_Vbc=p[20];
|
|
(*Ith)=-((*Ibe)*(*Vbei)+(*Ibc)*(*Vbci)+((*Itzf)-(*Itzr))*(*Vcei)+(*Ibex)*(*Vbex)+(*Ibep)*(*Vbep)+(*Irs)*(*Vrs)+(*Ibcp)*(*Vbcp)+(*Iccp)*(*Vcep)+(*Ircx)*(*Vrcx)+(*Irci)*(*Vrci)+(*Irbx)*(*Vrbx)+(*Irbi)*(*Vrbi)+(*Ire)*(*Vre)+(*Irbp)*(*Vrbp));
|
|
Ith_Ibe=-(*Vbei);
|
|
*Ith_Vbei=-(*Ibe);
|
|
Ith_Ibc=-(*Vbci);
|
|
*Ith_Vbci=-(*Ibc);
|
|
Ith_Itzf=-(*Vcei);
|
|
Ith_Itzr=(*Vcei);
|
|
*Ith_Vcei=(*Itzr)-(*Itzf);
|
|
Ith_Ibex=-(*Vbex);
|
|
*Ith_Vbex=-(*Ibex);
|
|
Ith_Ibep=-(*Vbep);
|
|
*Ith_Vbep=-(*Ibep);
|
|
Ith_Irs=-(*Vrs);
|
|
*Ith_Vrs=-(*Irs);
|
|
Ith_Ibcp=-(*Vbcp);
|
|
*Ith_Vbcp=-(*Ibcp);
|
|
Ith_Iccp=-(*Vcep);
|
|
*Ith_Vcep=-(*Iccp);
|
|
Ith_Ircx=-(*Vrcx);
|
|
*Ith_Vrcx=-(*Ircx);
|
|
Ith_Irci=-(*Vrci);
|
|
*Ith_Vrci=-(*Irci);
|
|
Ith_Irbx=-(*Vrbx);
|
|
*Ith_Vrbx=-(*Irbx);
|
|
Ith_Irbi=-(*Vrbi);
|
|
*Ith_Vrbi=-(*Irbi);
|
|
Ith_Ire=-(*Vre);
|
|
*Ith_Vre=-(*Ire);
|
|
Ith_Irbp=-(*Vrbp);
|
|
*Ith_Vrbp=-(*Irbp);
|
|
*Ith_Vrth=Ith_Ibe*(*Ibe_Vrth);
|
|
*Ith_Vbei=(*Ith_Vbei)+Ith_Ibe*(*Ibe_Vbei);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Ibc*(*Ibc_Vrth);
|
|
*Ith_Vbci=(*Ith_Vbci)+Ith_Ibc*(*Ibc_Vbci);
|
|
*Ith_Vbei=(*Ith_Vbei)+Ith_Ibc*(*Ibc_Vbei);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Itzf*(*Itzf_Vrth);
|
|
*Ith_Vbei=(*Ith_Vbei)+Ith_Itzf*(*Itzf_Vbei);
|
|
*Ith_Vbci=(*Ith_Vbci)+Ith_Itzf*(*Itzf_Vbci);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Itzr*(*Itzr_Vrth);
|
|
*Ith_Vbci=(*Ith_Vbci)+Ith_Itzr*(*Itzr_Vbci);
|
|
*Ith_Vbei=(*Ith_Vbei)+Ith_Itzr*(*Itzr_Vbei);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Ibex*(*Ibex_Vrth);
|
|
*Ith_Vbex=(*Ith_Vbex)+Ith_Ibex*(*Ibex_Vbex);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Ibep*(*Ibep_Vrth);
|
|
*Ith_Vbep=(*Ith_Vbep)+Ith_Ibep*(*Ibep_Vbep);
|
|
*Ith_Vrs=(*Ith_Vrs)+Ith_Irs*(*Irs_Vrs);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Irs*(*Irs_Vrth);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Ibcp*(*Ibcp_Vrth);
|
|
*Ith_Vbcp=(*Ith_Vbcp)+Ith_Ibcp*(*Ibcp_Vbcp);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Iccp*(*Iccp_Vrth);
|
|
*Ith_Vbep=(*Ith_Vbep)+Ith_Iccp*(*Iccp_Vbep);
|
|
*Ith_Vbci=(*Ith_Vbci)+Ith_Iccp*(*Iccp_Vbci);
|
|
*Ith_Vbcp=(*Ith_Vbcp)+Ith_Iccp*(*Iccp_Vbcp);
|
|
*Ith_Vrcx=(*Ith_Vrcx)+Ith_Ircx*(*Ircx_Vrcx);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Ircx*(*Ircx_Vrth);
|
|
*Ith_Vrci=(*Ith_Vrci)+Ith_Irci*(*Irci_Vrci);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Irci*(*Irci_Vrth);
|
|
*Ith_Vbci=(*Ith_Vbci)+Ith_Irci*(*Irci_Vbci);
|
|
*Ith_Vbcx=Ith_Irci*(*Irci_Vbcx);
|
|
*Ith_Vrbx=(*Ith_Vrbx)+Ith_Irbx*(*Irbx_Vrbx);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Irbx*(*Irbx_Vrth);
|
|
*Ith_Vrbi=(*Ith_Vrbi)+Ith_Irbi*(*Irbi_Vrbi);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Irbi*(*Irbi_Vrth);
|
|
*Ith_Vbei=(*Ith_Vbei)+Ith_Irbi*(*Irbi_Vbei);
|
|
*Ith_Vbci=(*Ith_Vbci)+Ith_Irbi*(*Irbi_Vbci);
|
|
*Ith_Vre=(*Ith_Vre)+Ith_Ire*(*Ire_Vre);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Ire*(*Ire_Vrth);
|
|
*Ith_Vrbp=(*Ith_Vrbp)+Ith_Irbp*(*Irbp_Vrbp);
|
|
*Ith_Vrth=(*Ith_Vrth)+Ith_Irbp*(*Irbp_Vrth);
|
|
*Ith_Vbep=(*Ith_Vbep)+Ith_Irbp*(*Irbp_Vbep);
|
|
*Ith_Vbci=(*Ith_Vbci)+Ith_Irbp*(*Irbp_Vbci);
|
|
if(p[83]>0.0){
|
|
(*Irth)=(*Vrth)/p[83];
|
|
*Irth_Vrth=1.0/p[83];
|
|
}else{
|
|
(*Irth)=0.0;
|
|
*Irth_Vrth=0.0;
|
|
}
|
|
(*Qcth)=(*Vrth)*p[84];
|
|
*Qcth_Vrth=p[84];
|
|
|
|
/* Scale outputs */
|
|
|
|
if((*SCALE)!=1.0){
|
|
*Ibe=(*SCALE)*(*Ibe);
|
|
*Ibe_Vrth=(*SCALE)*(*Ibe_Vrth);
|
|
*Ibe_Vbei=(*SCALE)*(*Ibe_Vbei);
|
|
*Ibex=(*SCALE)*(*Ibex);
|
|
*Ibex_Vrth=(*SCALE)*(*Ibex_Vrth);
|
|
*Ibex_Vbex=(*SCALE)*(*Ibex_Vbex);
|
|
*Itzf=(*SCALE)*(*Itzf);
|
|
*Itzf_Vrth=(*SCALE)*(*Itzf_Vrth);
|
|
*Itzf_Vbei=(*SCALE)*(*Itzf_Vbei);
|
|
*Itzf_Vbci=(*SCALE)*(*Itzf_Vbci);
|
|
*Itzr=(*SCALE)*(*Itzr);
|
|
*Itzr_Vrth=(*SCALE)*(*Itzr_Vrth);
|
|
*Itzr_Vbci=(*SCALE)*(*Itzr_Vbci);
|
|
*Itzr_Vbei=(*SCALE)*(*Itzr_Vbei);
|
|
*Ibc=(*SCALE)*(*Ibc);
|
|
*Ibc_Vrth=(*SCALE)*(*Ibc_Vrth);
|
|
*Ibc_Vbci=(*SCALE)*(*Ibc_Vbci);
|
|
*Ibc_Vbei=(*SCALE)*(*Ibc_Vbei);
|
|
*Ibep=(*SCALE)*(*Ibep);
|
|
*Ibep_Vrth=(*SCALE)*(*Ibep_Vrth);
|
|
*Ibep_Vbep=(*SCALE)*(*Ibep_Vbep);
|
|
*Ircx=(*SCALE)*(*Ircx);
|
|
*Ircx_Vrcx=(*SCALE)*(*Ircx_Vrcx);
|
|
*Ircx_Vrth=(*SCALE)*(*Ircx_Vrth);
|
|
*Irci=(*SCALE)*(*Irci);
|
|
*Irci_Vrci=(*SCALE)*(*Irci_Vrci);
|
|
*Irci_Vrth=(*SCALE)*(*Irci_Vrth);
|
|
*Irci_Vbci=(*SCALE)*(*Irci_Vbci);
|
|
*Irci_Vbcx=(*SCALE)*(*Irci_Vbcx);
|
|
*Irbx=(*SCALE)*(*Irbx);
|
|
*Irbx_Vrbx=(*SCALE)*(*Irbx_Vrbx);
|
|
*Irbx_Vrth=(*SCALE)*(*Irbx_Vrth);
|
|
*Irbi=(*SCALE)*(*Irbi);
|
|
*Irbi_Vrbi=(*SCALE)*(*Irbi_Vrbi);
|
|
*Irbi_Vrth=(*SCALE)*(*Irbi_Vrth);
|
|
*Irbi_Vbei=(*SCALE)*(*Irbi_Vbei);
|
|
*Irbi_Vbci=(*SCALE)*(*Irbi_Vbci);
|
|
*Ire=(*SCALE)*(*Ire);
|
|
*Ire_Vre=(*SCALE)*(*Ire_Vre);
|
|
*Ire_Vrth=(*SCALE)*(*Ire_Vrth);
|
|
*Irbp=(*SCALE)*(*Irbp);
|
|
*Irbp_Vrbp=(*SCALE)*(*Irbp_Vrbp);
|
|
*Irbp_Vrth=(*SCALE)*(*Irbp_Vrth);
|
|
*Irbp_Vbep=(*SCALE)*(*Irbp_Vbep);
|
|
*Irbp_Vbci=(*SCALE)*(*Irbp_Vbci);
|
|
*Qbe=(*SCALE)*(*Qbe);
|
|
*Qbe_Vrth=(*SCALE)*(*Qbe_Vrth);
|
|
*Qbe_Vbei=(*SCALE)*(*Qbe_Vbei);
|
|
*Qbe_Vbci=(*SCALE)*(*Qbe_Vbci);
|
|
*Qbex=(*SCALE)*(*Qbex);
|
|
*Qbex_Vrth=(*SCALE)*(*Qbex_Vrth);
|
|
*Qbex_Vbex=(*SCALE)*(*Qbex_Vbex);
|
|
*Qbc=(*SCALE)*(*Qbc);
|
|
*Qbc_Vrth=(*SCALE)*(*Qbc_Vrth);
|
|
*Qbc_Vbci=(*SCALE)*(*Qbc_Vbci);
|
|
*Qbcx=(*SCALE)*(*Qbcx);
|
|
*Qbcx_Vrth=(*SCALE)*(*Qbcx_Vrth);
|
|
*Qbcx_Vbcx=(*SCALE)*(*Qbcx_Vbcx);
|
|
*Qbep=(*SCALE)*(*Qbep);
|
|
*Qbep_Vrth=(*SCALE)*(*Qbep_Vrth);
|
|
*Qbep_Vbep=(*SCALE)*(*Qbep_Vbep);
|
|
*Qbep_Vbci=(*SCALE)*(*Qbep_Vbci);
|
|
*Qbeo=(*SCALE)*(*Qbeo);
|
|
*Qbeo_Vbe=(*SCALE)*(*Qbeo_Vbe);
|
|
*Qbco=(*SCALE)*(*Qbco);
|
|
*Qbco_Vbc=(*SCALE)*(*Qbco_Vbc);
|
|
*Ibcp=(*SCALE)*(*Ibcp);
|
|
*Ibcp_Vrth=(*SCALE)*(*Ibcp_Vrth);
|
|
*Ibcp_Vbcp=(*SCALE)*(*Ibcp_Vbcp);
|
|
*Iccp=(*SCALE)*(*Iccp);
|
|
*Iccp_Vrth=(*SCALE)*(*Iccp_Vrth);
|
|
*Iccp_Vbep=(*SCALE)*(*Iccp_Vbep);
|
|
*Iccp_Vbci=(*SCALE)*(*Iccp_Vbci);
|
|
*Iccp_Vbcp=(*SCALE)*(*Iccp_Vbcp);
|
|
*Irs=(*SCALE)*(*Irs);
|
|
*Irs_Vrs=(*SCALE)*(*Irs_Vrs);
|
|
*Irs_Vrth=(*SCALE)*(*Irs_Vrth);
|
|
*Qbcp=(*SCALE)*(*Qbcp);
|
|
*Qbcp_Vrth=(*SCALE)*(*Qbcp_Vrth);
|
|
*Qbcp_Vbcp=(*SCALE)*(*Qbcp_Vbcp);
|
|
*Irth=(*SCALE)*(*Irth);
|
|
*Irth_Vrth=(*SCALE)*(*Irth_Vrth);
|
|
*Ith=(*SCALE)*(*Ith);
|
|
*Ith_Vrth=(*SCALE)*(*Ith_Vrth);
|
|
*Ith_Vbei=(*SCALE)*(*Ith_Vbei);
|
|
*Ith_Vbci=(*SCALE)*(*Ith_Vbci);
|
|
*Ith_Vcei=(*SCALE)*(*Ith_Vcei);
|
|
*Ith_Vbex=(*SCALE)*(*Ith_Vbex);
|
|
*Ith_Vbep=(*SCALE)*(*Ith_Vbep);
|
|
*Ith_Vrs=(*SCALE)*(*Ith_Vrs);
|
|
*Ith_Vbcp=(*SCALE)*(*Ith_Vbcp);
|
|
*Ith_Vcep=(*SCALE)*(*Ith_Vcep);
|
|
*Ith_Vrcx=(*SCALE)*(*Ith_Vrcx);
|
|
*Ith_Vrci=(*SCALE)*(*Ith_Vrci);
|
|
*Ith_Vbcx=(*SCALE)*(*Ith_Vbcx);
|
|
*Ith_Vrbx=(*SCALE)*(*Ith_Vrbx);
|
|
*Ith_Vrbi=(*SCALE)*(*Ith_Vrbi);
|
|
*Ith_Vre=(*SCALE)*(*Ith_Vre);
|
|
*Ith_Vrbp=(*SCALE)*(*Ith_Vrbp);
|
|
*Qcth=(*SCALE)*(*Qcth);
|
|
*Qcth_Vrth=(*SCALE)*(*Qcth_Vrth);
|
|
}
|
|
return(0);
|
|
}
|