如何从一个.va文件中生成两个symbol(一个n型一个p型)？

937166474 · 发表于 2018-11-21 17:39:20

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本帖最后由 937166474 于 2018-11-22 09:54 编辑

各位大佬好，刚入门的幼儿园小学生一枚

Ubuntu18.04LST + IC617
我从这里下载了TFET的相关的文件（用到的就只有ndtfet.va和ndtfet.lib两个文件），然后在Hspice中跑了一个简单的反相器，出来的波形是对的，
然后我准备用ndtfet.va这个文件，在cadence中生成两个symbol，导入步骤是看YouTube上的视频，第一次导入的时候（导入n型），我在cell name中写的是ntfet，Type是verilogA,内容是下面的第一个代码，第二次导入的时候（导入p型），

我在cell name中写的是ptfet，

Type是VerilogA,内容是下面的

第一个

代码，其中第76行

parameter integer type = `n_type;

复制代码

我给改成了

parameter integer type = `p_type;

复制代码

目测这条语句是来控制管子类型的吧

希望我没有理解错，，然后单独看n型(或p型)的D端电流随D端电压变化，n型是对的(

也可能是错,只是凑巧看着是对的，毕竟只做了一个电路简单看了一下，原谅我不知道怎么看是对是错

)，单独看p型是不对的，做成反向器也是不对的。

请知道的大佬提醒一下需要注意的点，如果能有点教程(怎么导入n型和p型)就最好了，，，谢谢大佬们。

//#######################################################################
//#
//# File : ndtfet.va
//# Authors : Trond Ytterdal, Hao Lu and Alan Seabaugh
//# Date : Nov. 25, 2014
//# Description : University of Notre Dame TFET Model
//# References : Based on Lu et al., "Universal analytic model for
//# tunnel FET circuit simulation", Solid-State Electronics, 2014
//# Restrictions :
//#
//#######################################################################
//#
//# Version history:
//#
//# v1.6.8 Nov. 25, 2014 Hao Lu: Initial version for NEEDS
//# v1.6.9 Jan. 19, 2014 Hao Lu: Add parameter cmin and cmax
//#
//#######################################################################
//`define DEBUG_CV
`ifdef insideADMS
`define P(p) (*p*)
`define PGIVEN(p) $given(p)
`define INITIAL_MODEL @(initial_model)
`define INITIAL_INSTANCE @(initial_instance)
`else
`define P(p)
`define PGIVEN(p) p
`define INITIAL_MODEL @(initial_step or initial_step("static"))
`define INITIAL_INSTANCE
`endif
`include "discipline.h"
`define n_type 1
`define p_type -1
`define CHARGE 1.6021918e-19
`define HBAR 1.05458e-34
`define PI 3.141592653
`define EPS0 8.85418782e-12
`define VDSMIN 1e-12
`define DELTA 5
`define VMIN 0.0001
`define AMIN 0.0001
module ndtfet(drain, gate, source);
inout drain, gate, source;
electrical drain, gate, source;
electrical drainprime, gateprime, sourceprime;
parameter real l = 20n from (0:inf) `P(spice:name="w" type="instance");
parameter real w = 1u from (0:inf) `P(spice:name="w" type="instance");
parameter real alpha = 1.14;
parameter real beta = 0.02;
parameter real cgs0 = 6.9e-11;
parameter real e0 = 0.527e8;
parameter real eg = 0.35;
parameter real eot = 0.2n;
parameter real eta = 0.1;
parameter real epsi = 1.0;
parameter real gamma = 0.06;
parameter real gammac = 0.18;
parameter real j0 = 1e7;
parameter real jp = 2e8;
parameter real k = 2;
parameter real lambda = 0.19;
parameter real mc = 2;
parameter real mr = 0.012;
parameter real n1 = 1.8;
parameter real n2 = 1.1;
parameter real r0 = 0.5;
parameter real r1 = 0.01;
parameter real r2 = 1.3;
parameter real rdw = 0;
parameter real rgwl = 0;
parameter real rsw = 0;
parameter real s = 1;
parameter real tch = 5e-9;
parameter integer type = `n_type;
parameter real vp = 0.05;
parameter real vth = 0.17;
real vds, vsd, vdse, vsde, vgs, vgd, mrvalue, egvalue, u0, a, b, ru, gi, q, r0p, deltas;
real ci, cgs, cgd, cgdmax, cgdmin, ac, ace;
real vgt, vgo, vgoe, vgoen, f, u, e, id;
real vgta, vgoa, vgoea, vgoena, fa, ua, ea, ida, ide;
real rd, rg, rs, gd, gg, gs;
Analog
begin
`INITIAL_MODEL
begin
q = `CHARGE;
u0 = n1*$vt;
mrvalue = mr*9.1095e-31;
egvalue = eg*q;
ru = r0*u0;
gi = 1/gamma;
r0p = 1-r0;
deltas = `DELTA*`DELTA;
end
`INITIAL_INSTANCE
begin
a = w*tch*q*q*q/(8*`PI*`PI*`HBAR*`HBAR)*sqrt(2*mrvalue/egvalue);
b = 4*egvalue*sqrt(2*mrvalue*egvalue)/(3*q*`HBAR);
ci = `EPS0*epsi*w*l/eot;
// cgdmax = cmin*ci;
// cgdmin = cmax*ci;
rd = rdw/(w*1e6);
rg = rgwl*w/l;
rs = rsw/(w*1e6);
if(rd > 0)
gd = 1/rd;
else
gd = 0;
if(rg > 0)
gg = 1/rg;
else
gg = 0;
if(rs > 0)
gs = 1/rs;
else
gs = 0;
end
vds = type*V(drainprime,sourceprime);
vgd = type*V(gateprime,drainprime);
vgs = type*V(gateprime,sourceprime);
vgt = vgs-vth;
vdse = `VDSMIN*(0.5*vds/`VDSMIN+sqrt(deltas+(0.5*vds/`VDSMIN-1)*(0.5*vds/`VDSMIN-1))-sqrt(deltas+1));
// main drain-source tunneling current
vgo = vgs;
vgoe = `VMIN*(1+0.5*vgo/`VMIN+sqrt(deltas+(0.5*vgo/`VMIN-1)*(0.5*vgo/`VMIN-1)));
vgoen = vgoe/(vth);
f = (1-limexp(-vdse*gi))/(1+limexp((lambda*tanh(vgo)-vdse)*gi));
u = ru+r0p*u0*vgoen;
e = e0*(1+r1*vdse+r2*vgoe);
id = a*f*u*ln(1+limexp((vgt)/u))*e*limexp(-b/e);
// ambipolar drain-source current
vgta = -vgs-vth;
vgoa = -vgo;
vgoea = `VMIN*(1+0.5*vgoa/`VMIN+sqrt(deltas+(0.5*vgoa/`VMIN-1)*(0.5*vgoa/`VMIN-1)));
vgoena = vgoea/vth;
fa = (1-limexp(-vdse*gi))/(1+limexp((lambda*tanh(vgoa)-vdse)*gi));
ua = ru+r0p*u0*vgoena;
ea = e0*(1+r1*vdse+r2*vgoea);
ida = s*a*fa*ua*ln(1+limexp((vgta)/ua))*ea*limexp(-b/ea);
// RTD drain-source current
vsd = -vds;
vsde = `VDSMIN*(0.5*vsd/`VDSMIN+sqrt(deltas+(0.5*vsd/`VDSMIN-1)*(0.5*vsd/`VDSMIN-1))-sqrt(deltas+1));
ide = -w*tch*(jp*vsde/vp*k*vgoe*limexp(1+(-vsde+eta*vgs)/vp)+j0*(limexp(vsde/n2/$vt)-1));
// capacitance calculations
ac = ((1+beta*pow(vgs,mc))-limexp(-vgo/gammac))/(1+limexp((vth+alpha*vdse-vgo)/gammac));
ace = `AMIN*(1+0.5*ac/`AMIN+sqrt(deltas+(0.5*ac/`AMIN-1)*(0.5*ac/`AMIN-1)));
cgs = cgs0*w;
cgd = cgdmin + (cgdmax - cgdmin)*ace;
// Augment the matrix
I(gateprime,sourceprime) <+ type*cgs*ddt(vgs);
I(gateprime,drainprime) <+ type*cgd*ddt(vgd);
I(drainprime,sourceprime) <+ type*(id+ida+ide);
if(rd > 0)
I(drain,drainprime) <+ gd*V(drain,drainprime);
else
V(drain,drainprime) <+ 0.0;
if(rs > 0)
I(source,sourceprime) <+ gs*V(source,sourceprime);
else
V(source,sourceprime) <+ 0.0;
if(rg > 0)
I(gate,gateprime) <+ gg*V(gate,gateprime);
else
V(gate,gateprime) <+ 0.0;
end
endmodule

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*#######################################################################
*#
*# File : ndtfet.lib
*# Author : Trond Ytterdal
*# Date : July 15, 2014
*# Description : Library of TFET devices
*# References :
*# Restrictions :
*#
*#######################################################################
*#
*# Version history:
*#
*# v1.0.2 Dec. 15, 2014 Hao Lu: Initial version for NEEDS
*# v1.0.3 Jan. 19, 2015 Hao Lu: Add GaN TFET model
*# and Add parameter cmin and cmax
*#
*#######################################################################
*#
*# Content:
*#
*# InAs DG TFET:
*# usage: .lib inas_tfet
*#
*# AlGaSb/InAs TFET:
*# usage: .lib algasb_inas_tfet
*#
*# GaN/InN TFET:
*# usage: .lib gan_tfet
*#
*#######################################################################.lib inas_tfet.lib ndtfet.lib ndtfet_va.model ntfet ndtfet
+ alpha = 1.14
+ beta = 0.02
+ cgs0 = 6.9e-11
+ cmin = 0.13
+ cmax = 0.9+ e0 = 0.507e8
+ eg = 0.354
+ eot = 0.2n
+ eta = 0.1
+ epsi = 1.0
+ gamma = 0.056
+ gammac = 0.18
+ j0 = 1e4
+ jp = 2e5
+ k = 2
+ lambda = 0.19
+ mc = 2
+ mr = 0.0218+ n1 = 1.49
+ n2 = 1.49+ r0 = 0.64
+ r1 = 0.01
+ r2 = 1.89
+ rdw = 0
+ rgwl = 0
+ rsw = 0
+ s = 1e-3+ tch = 5e-9
+ type = 1+ vp = 0.05+ vth = 0.145.model ptfet ndtfet
+ alpha = 1.14
+ beta = 0.02
+ cgs0 = 6.9e-11
+ cmin = 0.13
+ cmax = 0.9+ e0 = 0.507e8
+ eg = 0.354
+ eot = 0.2n
+ eta = 0.1
+ epsi = 1.0
+ gamma = 0.056
+ gammac = 0.18
+ j0 = 1e4
+ jp = 2e5
+ k = 2
+ lambda = 0.19
+ mc = 2
+ mr = 0.0218+ n1 = 1.49
+ n2 = 1.49+ r0 = 0.64
+ r1 = 0.01
+ r2 = 1.89
+ rdw = 0
+ rgwl = 0
+ rsw = 0
+ s = 1e-3+ tch = 5e-9
+ type = -1+ vp = 0.05+ vth = 0.145.endl
.lib algasb_inas_tfet.lib ndtfet.lib ndtfet_va.model ntfet ndtfet
+ alpha = 1.14
+ beta = 0.02
+ cgs0 = 6.9e-11
+ cmin = 0.13
+ cmax = 0.9+ e0 = 1e8
+ eg = 0.35
+ eot = 0.2n
+ eta = 0.1
+ epsi = 1.0
+ gamma = 0.046
+ gammac = 0.18
+ j0 = 1e4
+ jp = 2e5
+ k = 2
+ lambda = 0.32
+ mc = 2
+ mr = 0.012+ n1 = 1.2
+ n2 = 1.49+ r0 = 0.2
+ r1 = 0.1
+ r2 = 0.9
+ rdw = 0
+ rgwl = 0
+ rsw = 0
+ s = 1e-3+ tch = 5e-9
+ type = 1+ vp = 0.05+ vth = 0.08.model ptfet ndtfet
+ alpha = 1.14
+ beta = 0.02
+ cgs0 = 6.9e-11
+ cmin = 0.13
+ cmax = 0.9+ e0 = 1e8
+ eg = 0.35
+ eot = 0.2n
+ eta = 0.1
+ epsi = 1.0
+ gamma = 0.046
+ gammac = 0.18
+ j0 = 1e4
+ jp = 2e5
+ k = 2
+ lambda = 0.32
+ mc = 2
+ mr = 0.012+ n1 = 1.2
+ n2 = 1.49+ r0 = 0.2
+ r1 = 0.1
+ r2 = 0.9
+ rdw = 0
+ rgwl = 0
+ rsw = 0
+ s = 1e-3+ tch = 5e-9
+ type = -1+ vp = 0.05+ vth = 0.08.endl.lib gan_tfet.lib ndtfet.lib ndtfet_va.model ntfet ndtfet
+ alpha = 12.22
+ beta = 1.504
+ cgs0 = 2.3e-10
+ cmin = 0.0836
+ cmax = 2.4+ e0 = 2.265e8
+ eg = 0.64
+ eot = 0.43n
+ eta = 0.1
+ epsi = 1.0
+ gamma = 0.0596
+ gammac = 4.825
+ j0 = 1e4
+ jp = 2e5
+ k = 2
+ lambda = 0.435
+ mc = 0.3176
+ mr = 0.1+ n1 = 4
+ n2 = 1.49+ r0 = 0.151
+ r1 = 0
+ r2 = 0.15
+ rdw = 0
+ rgwl = 0
+ rsw = 0
+ s = 1e-6+ tch = 2e-8
+ type = 1+ vp = 0.05+ vth = 0.096.model ptfet ndtfet
+ alpha = 12.22
+ beta = 1.504
+ cgs0 = 2.3e-10
+ cmin = 0.0836
+ cmax = 2.4+ e0 = 2.265e8
+ eg = 0.64
+ eot = 0.43n
+ eta = 0.1
+ epsi = 1.0
+ gamma = 0.0596
+ gammac = 4.825
+ j0 = 1e4
+ jp = 2e5
+ k = 2
+ lambda = 0.435
+ mc = 0.3176
+ mr = 0.1+ n1 = 4
+ n2 = 1.49+ r0 = 0.151
+ r1 = 0
+ r2 = 0.15
+ rdw = 0
+ rgwl = 0
+ rsw = 0
+ s = 1e-6+ tch = 2e-8
+ type = -1+ vp = 0.05+ vth = 0.096.endl
.lib ndtfet_va.hdl ndtfet.va.endl