How to print and/or view leff(r_l) & weff(r_w) in subckt body resistor and terminal resistors after Spectre simulation

Hello,

How to print and/or view leff(r_l) & weff(r_w) of subckt body resistor [rb (11 21) res_va] using results browser in Analog Design Environment in Spectre simulation given that the resistor subckt and VerilogA are shown below? I want to know whether simulatorOptions scale=1e-6 would be scaled in VerilogA resistor subckt or not, but I find no way to check this. Also I want to know whether the terminal resistor (using model ppolyf_u_t resistor) will also be scaled by scaled=1e-6 in simulatorOptions?  Could you please kindly

(1) provide a way to view leff(r_l) & weff(r_w) of subckt body resistor rb after Spectre simulation

(2) provide a way to view leff & weff of terminal resistor rt1 & rt2 after Spectre simulation

If I post to the wrong forum, could you please kindly help to move to the proper forum and let me know.

Thanks in advance for your help & kindness.

The netlist is shown below.

 I2 (vin 0 0) ppolyf_u   l=20 w=2

simulatorOptions options reltol=1e-3 vabstol=1e-6 iabstol=1e-12 temp=27 \

tnom=27 scalem=1.0 scale=1e-6 gmin=1e-12 rforce=1 maxnotes=5 \

maxwarns=5 digits=5 cols=80 pivrel=1e-3 ckptclock=1800 \

sensfile="../psf/sens.output" dochecklimit=yes checklimitdest=psf

tran tran stop=100n errpreset=moderate step=100p write="spectre.ic" \

writefinal="spectre.fc" method=trap save=all oppoint=rawfile maxiters=5 \

finalTimeOP info what=oppoint where=rawfile

modelParameterinfo what=models where=rawfile

element info what=inst where=rawfile

outputParameter info what=output where=rawfile

designParamVals info what=parameters where=rawfile

primitives info what=primitives where=rawfile

subckt info what=subckts where=rawfile

asserts info what=assert where=rawfile

saveOptions options save=allpub

subckt ppolyf_u (1 2 3)
//-------------------
// model for body resistor
parameters l w  r_length=l r_width=w dtemp=0 par=1
//*******************************************************************************************************
+sqr=r_length/r_width
+vc1_eff= 0 + (r_width<=1.4u)*(sqr<=1.5)*(1.61e-2) + \
(r_width<=1.4u)*(sqr>1.5)*(sqr<=3.5)*(-5.98e-2) + \
(r_width<=1.4u)*(sqr>3.5)*(sqr<=7.5)*(-1.42e-1) + \
(r_width<=1.4u)*(sqr>7.5)*(sqr<=15 )*(-1.76e-1) + \
(r_width<=1.4u)*(sqr>15)*(-2.02e-1) + \
(r_width>1.4u)*(r_width<=3u)*(sqr<=1.5)*(-1.34e-2) + \
(r_width>1.4u)*(r_width<=3u)*(sqr>1.5)*(sqr<=3.5)*(-5.07e-2) + \
(r_width>1.4u)*(r_width<=3u)*(sqr>3.5)*(sqr<=7.5)*(-1.06e-1) + \
(r_width>1.4u)*(r_width<=3u)*(sqr>7.5)*(sqr<=15 )*(-1.04e-1) + \
(r_width>1.4u)*(r_width<=3u)*(sqr>15)*(-1.34e-1) + \
(r_width>3u)*(r_width<=6u)*(sqr<=1.5)*(2.00e-3) + \
(r_width>3u)*(r_width<=6u)*(sqr>1.5)*(sqr<=3.5)*(-6.50e-3) + \
(r_width>3u)*(r_width<=6u)*(sqr>3.5)*(sqr<=7.5)*(-3.47e-2) + \
(r_width>3u)*(r_width<=6u)*(sqr>7.5)*(sqr<=15 )*(-6.77e-2) + \
(r_width>3u)*(r_width<=6u)*(sqr>15)*(-9.78e-2) + \
(r_width>6u)*(sqr<=1.5)*(-5.60e-3) + \
(r_width>6u)*(sqr>1.5)*(sqr<=3.5)*(-1.25e-2) + \
(r_width>6u)*(sqr>3.5)*(sqr<=7.5)*(-2.99e-2) + \
(r_width>6u)*(sqr>7.5)*(sqr<=15 )*(-6.08e-2) + \
(r_width>6u)*(sqr>15)*(-1.01e-1)
**
+vc2_eff= 0 + (r_width<=1.4u)*(sqr<=1.5)*(-10.4) + \
(r_width<=1.4u)*(sqr>1.5)*(sqr<=3.5)*(-24.4) + \
(r_width<=1.4u)*(sqr>3.5)*(sqr<=7.5)*(-38.9) + \
(r_width<=1.4u)*(sqr>7.5)*(sqr<=15 )*(-41.5) + \
(r_width<=1.4u)*(sqr>15)*(-41) + \
(r_width>1.4u)*(r_width<=3u)*(sqr<=1.5)*(-4.1) + \
(r_width>1.4u)*(r_width<=3u)*(sqr>1.5)*(sqr<=3.5)*(-6.89) + \
(r_width>1.4u)*(r_width<=3u)*(sqr>3.5)*(sqr<=7.5)*(-8.3) + \
(r_width>1.4u)*(r_width<=3u)*(sqr>7.5)*(sqr<=15 )*(-8.54) + \
(r_width>1.4u)*(r_width<=3u)*(sqr>15)*(-7.95) + \
(r_width>3u)*(r_width<=6u)*(sqr<=1.5)*(-1.68) + \
(r_width>3u)*(r_width<=6u)*(sqr>1.5)*(sqr<=3.5)*(-2.22) + \
(r_width>3u)*(r_width<=6u)*(sqr>3.5)*(sqr<=7.5)*(-2.45) + \
(r_width>3u)*(r_width<=6u)*(sqr>7.5)*(sqr<=15 )*(-2.48) + \
(r_width>3u)*(r_width<=6u)*(sqr>15)*(-1.74) + \
(r_width>6u)*(sqr<=1.5)*(-0.585) + \
(r_width>6u)*(sqr>1.5)*(sqr<=3.5)*(-0.664) + \
(r_width>6u)*(sqr>3.5)*(sqr<=7.5)*(-0.730) + \
(r_width>6u)*(sqr>7.5)*(sqr<=15 )*(-0.729) + \
(r_width>6u)*(sqr>15)*(-0.444)
//*******************************************************************************************************
+ r_rsh0=rsh_ppolyf_u
+ r_dw=2E-8
+ r_dl=7.34E-11
+ r_vc1=vc1_eff*res_vcr_sw
+ r_vc2=vc2_eff*res_vcr_sw
+ r_tc1=-1.27e-4
+ r_tc2=6.44E-7
+ r_tnom=25
+ r_l=r_length-2*r_dl
+ r_w=r_width-2*r_dw
// model for terminal resistor
model ppolyf_u_t resistor
+ rsh=80
+ tc1=-1.34E-3
+ tc2=2.49E-6
+ tnom=25
+ af=1.79
+ kf=2.4E-23
// model for substrate capacitor (pF/um2)
model fox_sub capacitor
+ cox=8.85e-05
//-------------------
// terminal 1
rt1 (1 11) ppolyf_u_t l=1u w=r_w trise=dtemp
c1  (1 3)  fox_sub    l=r_l/2  w=r_w trise=dtemp
//  body
rb (11 21) res_va
+ l=r_length
+ w=r_width
+ rsh0=r_rsh0
+ dw=r_dw
+ dl=r_dl
+ vc1=r_vc1
+ vc2=r_vc2
+ tc1=r_tc1
+ tc2=r_tc2
+ tnom=r_tnom
+ dtemp=dtemp
+ af=1.79
+ kf=2.4E-23
// terminal 2
rt2 (21 2) ppolyf_u_t l=1u w=r_w trise=dtemp
c2  (2 3)  fox_sub    l=r_l/2  w=r_w trise=dtemp
ends ppolyf_u

//VerilogA resistor model 

`include "discipline.h"
`include "constants.h"
module res_va(p, n);
inout p, n;
electrical p, n;

parameter real l=0;
parameter real w=0;
parameter real dw=0;
parameter real dl=0;
parameter real rsh0=0;
parameter real (* integer inherited_mfactor; *) m = 1;
//flicker noise parameters
parameter real kf=2.62e-26;
parameter real af=2;
parameter real lf=1;
parameter real wf=1;
parameter real ef=1;
//temperature parameters
parameter real dtemp=0;
parameter real tc1=0;
parameter real tc2=0;
parameter real tnom=25;
//VCR parameters
parameter real vc1=0;
parameter real vc2=0;

parameter real pi=3.14;
//added by Ramkumar
//parameter real etch=0;
//parameter real etchl=0;
//parameter real weexp=0;
//parameter real leexp=0;
//parameter real wdexp=1.0;
//parameter real ldexp=1.0;
//parameter real fexp=3.66;
// Requested additional parameter for simulation back-annotation
real r_v, r_i, r_pwr;
real r_l, r_w, r_n, r_temp, r_r0, r;

real geo;
analog begin

r_l=l-2*dl;
r_w=w-2*dw;
r_n=r_l/r_w;
r_temp=1+tc1*($temperature+dtemp-273.15-tnom)+tc2*($temperature+dtemp-273.15-tnom)*($temperature+dtemp-273.15-tnom);
r=r_temp*r_n*(rsh0+vc1*abs(V(p,n))/r_n+vc2*abs(V(p,n))*abs(V(p,n))/r_n/r_n)/m;

//$strobe(r);
// added by Ramkumar
//Weff = w - 2*etch;
//Leff = l - 2*etchl;
//geo = pow(Weff, weexp) * pow(Leff, leexp) * pow(w, wdexp) *pow(l, ldexp);
// end

geo = pow(r_w, wf) * pow(r_l, lf) * m;

I(p, n) <+ V(p, n)/r;
I(p, n) <+ white_noise(4*1.380620e-23*($temperature+dtemp)/r,"thermal");
I(p, n) <+ flicker_noise(kf*pow(abs(I(p, n)), af)/geo ,ef, "flicker");

// Requested additional parameter for simulation back-annotation
r_v = V(p,n);
r_i = I(p, n);
r_pwr = V(p,n)*I(p,n);

end
endmodule