***************************************************************************                           
* Model Generated by Renesas Electronics Corporation
* All Rights Reserved
* Commercial Use or Resale Restricted
***************************************************************************
* NO WARRANTY.
* RENESAS AND ITS SUPPLIER DO NOT AND CANNOT WARRANT THE PERFORMANCE
* OR RESULTS YOU MAY OBTAIN BY USING THIS SOFTWARE. 
* AS TO ANY MATTER INCLUDING WITHOUT LIMITATION NONINFRINGEMENT OF THIRD
* PARTY RIGHTS, MERCHANTABILITY, INTEGRATION, SATISFACTORY QUALITY,
* OR FITNESS FOR ANY PARTICULAR PURPOSE. 
***************************************************************************
*
*  Process      : Thermal
*  Product      : RJE0623JSP
*  Device Type  : MOS
*  Model        : RSIM_MOS_v110
*  Model Format : pspice
*  Author       : Apr 20,22 Renesas
*  Node Info.   : [10]:Drain, [20]:Gate, [30]:Source
*
*  *** user definition parameter ***
*
*      dm : Multiplicity factor of device
*           (default value = 1)
*
***************************************************************************
*
*
*<Netlist>
*==================================
.subckt rje0623jsp 10 20 30
x1      10    20    30  mosfet_rje0623jsp 
*
.ends
.subckt mosfet_rje0623jsp 12 22 32
.param dm=1 tnom_x=25 rdd0=0.175 trdd1=0.00475 trdd2=0 vrddsat=2.5
+          prddvd1=1 vrddoff=1 drdd1=1 tvrddsat1=0 tvrddsat2=0
+          dsdcjo=4.95E-10 dsdvj=3  dsdm=0.862
+          ags_nom=0 tags1=0 tags2=0
+          ags_x = { ags_nom * (1 + tags1 * (temp-tnom_x) 
+                   + tags2 * (temp-tnom_x)*(temp-tnom_x)) }
+          nfactor_nom=2.6 tnfactor1=0 tnfactor2=0
+          nfactor_x = { nfactor_nom * (1 + tnfactor1 * (temp-tnom_x) 
+                       + tnfactor2 * (temp-tnom_x)*(temp-tnom_x)) }
+          voff_nom=-0.3 tvoff1=0 tvoff2=0
+          voff_x = { voff_nom * (1 + tvoff1 * (temp-tnom_x) 
+                    + tvoff2 * (temp-tnom_x)*(temp-tnom_x)) }
cgd0      23  15    {7.5E-11*dm}
cgs0      23  32    {1E-18*dm}
rg        22  23    {1E+04/dm}
rgs       23  32    {1E+12/dm}
gdd       12  15    Value = { dm*(V(12)-V(15))/(rdd0*(1+trdd1*(temp-tnom_x)+trdd2*(temp-tnom_x)*(temp-tnom_x))
+                             * ( 1 + pwr(0.5*(abs(V(12)-V(15))-vrddoff
+                             +sqrt( (abs(V(12)-V(15))-vrddoff)*(abs(V(12)-V(15))-vrddoff)+4*drdd1*drdd1)),prddvd1)
+                             /(vrddsat*(1+tvrddsat1*(temp-tnom_x)+tvrddsat2*(temp-tnom_x)*(temp-tnom_x))))) }
mmain     15  23  32  32   MOSMAIN     l=4.6E-06     w=1.255 m={dm}
gds       15  32    Value = {dm*(V(15)-V(32))/(1E+11*pwr(1.01 , -1*(temp-tnom_x)))}
xdsd      12  32    dsd_rje0623jsp 
.model MOSMAIN PMOS 
+ LEVEL = 7 
+ VERSION = 3.2 
+ MOBMOD = 1 
+ CAPMOD = 3 
+ PARAMCHK = 1 
+ TNOM = 25 
+ TOX = 5.3E-08 
+ NCH = 1E+16 
+ XJ = 1.5E-07 
+ VTH0 = -1.7 
+ U0 = 250 
+ DELTA = 0.01 
+ A0 = 0.07 
+ VSAT = 7E+04 
+ PCLM = 1.3 
+ PVAG = 0 
+ WINT = 0 
+ DWC = 0.569 
+ KT1 = -0.88 
+ UTE = -1.5 
+ UA1 = 4.31E-09 
+ AT = 3.3E+04 
+ NOFF = 3 
+ VOFFCV = 0 
+ PDIBLC1 = 0 
+ PDIBLC2 = 0 
+ PSCBE1 = 4.24E+08
+ PSCBE2 = 1E-30 
+ K3 = 0 
+ ETA0 = 0 
+ CGSO = 0 
+ CGDO = 0 
+ CGBO = 0 
+ CF = 0 
+ IS = 1E-27
+ JS = 0 
+ JSW = 0 
+ NJ = 10 
+ CJ = 0 
+ CJSW = 0 
+ WMAX = 1000
+ AGS    = { ags_x } 
+ VOFF    = { voff_x }
+ NFACTOR    = { nfactor_x }
.ends
.subckt dsd_rje0623jsp 1 3
.param
+dm=1  
+rsm=0.013 trsm1=0 rsmv1=1E+04 trsmv1=0  trsmv12=0
+rsmv2=0.01 rsmvoff=0 rsmvpow=2 trsmvpow1=0
+rsmmin=0.001 trsmmin1=0 trsmmin2=0 tikf1=0
+tau=5E-08 rtm=1 cp=0 tnom_x = 25
+d1         = { 1u/dm }
+tm         = { tau*rtm }
+rsm_t1     = { rsm*(1+trsm1*(temp-tnom_x)) }
+rsm_x      = { 0.5*(rsm_t1+sqrt(rsm_t1*rsm_t1+4*d1*d1)) }
+rsmmin_t1  = { rsmmin*(1+trsmmin1*(temp-tnom_x)+trsmmin2*(temp-tnom_x)*(temp-tnom_x)) }
+rsmmin_x   = { 0.5*(rsmmin_t1+sqrt(rsmmin_t1*rsmmin_t1+4*d1*d1)) } 
+rsmv1_t1   = { rsmv1*(1+trsmv1*(temp-tnom_x)+trsmv12*(temp-tnom_x)*(temp-tnom_x)) }
+rsmv1_x    = { 0.5*(rsmv1_t1+sqrt(rsmv1_t1*rsmv1_t1+4*d1*d1)) }
+rsmvpow_t1 = { rsmvpow*(1+trsmvpow1*(temp-tnom_x)) }
+rsmvpow_x  = { 0.5*(rsmvpow_t1+sqrt(rsmvpow_t1*rsmvpow_t1+4*d1*d1)) }
+ikf_t1     = { 0.1*(1+tikf1*(temp-tnom_x)) }
+ikf_x      = { 0.5*(ikf_t1+sqrt(ikf_t1*ikf_t1+4*d1*d1)) }
cp        1   3   { cp*dm }
gd        1   2   value = { v(5,6)/tm }
ee        5   0   value = { i(vsense3)*(tau+tm) }
re        5   0   {1e6/dm}
em        6   0   value =  { (v(5)/tm-i(vsense1))*tau*tm/(tau+tm) }
rm        6   0   {1e6/dm}
edm       7   0   value = { v(6) }
vsense1   7   8   0
cdm       8   0   {1*dm}
rdm       8   0   {1e9/dm}
rsm1      2   3   { rsm_t1/dm }
*gsm1      2   3   value = { v(2,3)/(rsm_x/(1+rsmv1_x*pwr(0.5*(abs(v(2,3))
*+                          +sqrt((v(2,3)-rsmvoff)*(v(2,3)-rsmvoff)+4*rsmv2*rsmv2))
*+                          -0.5*(-rsmvoff+sqrt(rsmvoff*rsmvoff+4*rsmv2*rsmv2)),rsmvpow_x))+rsmmin_x) } 
dj       11   0   DMAIN {dm}
dcj       1  21   DCJ {dm}
rdummy2  21   2   {1E-06/dm}
vsense3  10  11   0
edj      10   0   value = { v(1,2) }
rdummy1   1   3   {1e12/dm} 
.model DCJ D
+ TNOM = 25 
+ IS = 1E-27 
+ N = 10 
+ CJO = 4.95E-10 
+ VJ = 3 
+ M = 0.862 
.model DMAIN D 
+ TNOM = 25 
+ IS = 2.5E-13 
+ N = 1 
+ RS = 0 
+ TT = 0 
+ CJO = 0 
+ VJ = 0.75 
+ M = 0.5 
+ EG = 1.11 
+ XTI = 3 
+ TRS1 = 0 
+ BV = 1E+04
+ IBV = 0.001 
+ TBV1 = 0 
+ IKF    = { ikf_x }
.ends
*