SIM/qucs_s
1
0
Fork 0
mirror of https://github.com/ra3xdh/qucs_s synced 2025-03-28 21:13:26 +00:00
Code Issues Packages Projects Releases Wiki Activity
qucs_s/library/XyceDigital.lib
Vadim Kuznetsov a3842194ef Remove qucslib from the source tree
2022-09-24 17:56:28 +03:00

498 lines
17 KiB
Plaintext
Raw Permalink Blame History

* Xyce logic gate models: experimental behavioural models.
* Developed for Xyce/Qucs-S.
*
* Inputs expect analogue signals in the range 0 to 1 volts.
* These represent logic 0 at 0 volts and logic 1 at 1 volt.
* Prior to processing by the AND2 gate function the input signals
* are level shifted to -1 to 1 volt range. This ensures that
* the gate output signals are in the range 0 to 1 volt, yielding
* logic 0 at 0 volt and logic 1 at 1 volt. The analogue to digital signal
* level shifting is hidden from users.
*
* This is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 2, or (at your option)
* any later version.
*
* Copyright Mike Brinson Aug./Sep. 2016
*
* ***********************************************************************************
.subckt AND2 nin1 nin2 nout
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnin1 nin1shifted 0 v=2*V(nin1)-1
bnin2 nin2shifted 0 v=2*V(nin2)-1
UAND2 AND(2) ndpwr ndgnd nin1shifted nin2shifted nout DMOD
.ends AND2
*************************************************************************************
.subckt AND4 nin1 nin2 nin3 nin4 nout
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnin1 nin1shifted 0 v=2*V(nin1)-1
bnin2 nin2shifted 0 v=2*V(nin2)-1
bnin3 nin3shifted 0 v=2*V(nin3)-1
bnin4 nin4shifted 0 v=2*V(nin4)-1
UAND4 AND(4) ndpwr ndgnd nin1shifted nin2shifted nin3shifted nin4shifted nout DMOD
.ends AND4
****************************************************************************************
.subckt NAND2 nin1 nin2 nout
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnin1 nin1shifted 0 v=2*V(nin1)-1
bnin2 nin2shifted 0 v=2*V(nin2)-1
UNAND2 NAND(2) ndpwr ndgnd nin1shifted nin2shifted nout DMOD
.ends NAND2
******************************************************************************************
.subckt NAND4 nin1 nin2 nin3 nin4 nout
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnin1 nin1shifted 0 v=2*V(nin1)-1
bnin2 nin2shifted 0 v=2*V(nin2)-1
bnin3 nin3shifted 0 v=2*V(nin3)-1
bnin4 nin4shifted 0 v=2*V(nin4)-1
UNAND4 NAND(4) ndpwr ndgnd nin1shifted nin2shifted nin3shifted nin4shifted nout DMOD
.ends NAND4
*********************************************************************************************
.subckt BUF nin1 nout
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnin1 nin1shifted 0 v=2*V(nin1)-1
vnin1 nin1shifted n1 {-VCC}
UBUF BUF ndpwr ndgnd nin1shifted nout DMODBUF
.ends BUF
**********************************************************************************************
.subckt INV nin1 nout
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnin1 nin1shifted 0 v=2*V(nin1)-1
UINV INV ndpwr ndgnd nin1shifted nout DMOD
.ends INV
*****************************************************************
.subckt LOGIC1 nout
Ilogic1 0 nout dc {ScaleFactor}
Rlogic1 nout 0 1
.ends LOGIC1
*****************************************************************
.subckt LOGIC0 nout
Ilogic0 0 nout dc 0
Rlogic0 nout 0 1
.ends LOGIC0
*****************************************************************
.subckt OR2 nin1 nin2 nout
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnin1 nin1shifted 0 v=2*V(nin1)-1
bnin2 nin2shifted 0 v=2*V(nin2)-1
UOR2 OR(2) ndpwr ndgnd nin1shifted nin2shifted nout DMOD
.ends OR2
*****************************************************************
.subckt OR4 nin1 nin2 nin3 nin4 nout
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnin1 nin1shifted 0 v=2*V(nin1)-1
bnin2 nin2shifted 0 v=2*V(nin2)-1
bnin3 nin3shifted 0 v=2*V(nin3)-1
bnin4 nin4shifted 0 v=2*V(nin4)-1
UOR4 OR(4) ndpwr ndgnd nin1shifted nin2shifted nin3shifted nin4shifted nout DMOD
.ends OR4
**********************************************************************************
.subckt NOR2 nin1 nin2 nout
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnin1 nin1shifted 0 v=2*V(nin1)-1
bnin2 nin2shifted 0 v=2*V(nin2)-1
UNOR2 NOR(2) ndpwr ndgnd nin1shifted nin2shifted nout DMOD
.ends NOR2
*************************************************************************************
.subckt NOR4 nin1 nin2 nin3 nin4 nout
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnin1 nin1shifted 0 v=2*V(nin1)-1
bnin2 nin2shifted 0 v=2*V(nin2)-1
bnin3 nin3shifted 0 v=2*V(nin3)-1
bnin4 nin4shifted 0 v=2*V(nin4)-1
UNOR4 NOR(4) ndpwr ndgnd nin1shifted nin2shifted nin3shifted nin4shifted nout DMOD
.ends NOR4
************************************************************************************
.subckt XOR nin1 nin2 nout
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnin1 nin1shifted 0 v=2*V(nin1)-1
bnin2 nin2shifted 0 v=2*V(nin2)-1
UXOR XOR ndpwr ndgnd nin1shifted nin2shifted nout DMOD
.ends XOR
*************************************************************************************
.subckt NXOR nin1 nin2 nout
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnin1 nin1shifted 0 v=2*V(nin1)-1
bnin2 nin2shifted 0 v=2*V(nin2)-1
UNXOR NXOR ndpwr ndgnd nin1shifted nin2shifted nout DMOD
.ends NXOR
*************************************************************************************
.subckt MUX2TO1 nen ng nd0 nd1 nz
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnen nenshifted 0 v=2*V(nen)-1
bng ngshifted 0 v=2*V(ng)-1
bnd0 nd0shifted 0 v=2*V(nd0)-1
bnd1 nd1shifted 0 v=2*V(nd01)-1
UNINV1 INV ndpwr ndgnd nenshifted n5 DMOD
UNINV2 INV ndowr ndgnd ngshifted n6 DMOD
bn5 n5shifted 0 v=2*V(n5)-1
bn6 n6shifted 0 v=2*V(n6)-1
UAND3A AND(3) ndpwr ndgnd n5shifted n6shifted nd0shifted n7 DMOD
UAND3B AND(3) ndpwr ndgnd n5shifted ngshifted nd1shifted n8 DMOD
bn7 n5shifted 0 v=2*V(n7)-1
bn8 n8shifted 0 v=2*V(n8)-1
UORA OR(2) ndpwr ndgnd n7shifted n8shifted nz DMOD
.ends MUX2TO1
**************************************************************************************
.subckt MUX4TO1 nen ng0 ng1 nd0 nd1 nd2 nd3 nz
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnen nenshifted 0 v=2*V(nen)-1
bng0 ng0shifted 0 v=2*V(ng0)-1
bng1 ng1shifted 0 v=2*V(ng1)-1
bnd0 nd0shifted 0 v=2*V(nd0)-1
bnd1 nd1shifted 0 v=2*V(nd1)-1
bnd2 nd2shifted 0 v=2*V(nd2)-1
bnd3 nd3shifted 0 v=2*V(nd3)-1
Unen INV ndpwr ndgnd nenshifted n12 DMOD
Ung0 INV ndpwr ndgnd ng0shifted n8 DMOD
Ung1 INV ndpwr ndgnd ng1shifted n9 DMOD
bn12 n12shifted 0 v=2*V(n12)-1
bn8 n8shifted 0 v=2*V(n8)-1
bn9 n9shifted 0 v=2*V(n9)-1
UANDA AND(4) ndpwr ndgnd n12shifted n8shifted n9shifted nd0shifted n13 DMOD
UANDB AND(4) ndpwr ndgnd n12shifted ng0shifted n9shifted nd1shifted n14 DMOD
UANDC AND(4) ndpwr ndgnd n12shifted n8shifted ng1shifted nd2shifted n15 DMOD
UANDD AND(4) ndpwr ndgnd n12shifted ng0shifted ng1shifted nd3shifted n16 DMOD
bn13 n13shifted 0 v=2*V(n13)-1
bn14 n14shifted 0 v=2*V(n14)-1
bn15 n15shifted 0 v=2*V(n15)-1
bn16 n16shifted 0 v=2*V(n16)-1
UOR OR (4) ndpwr ndgnd n13shifted n14shifted n15shifted n16shifted nz DMOD
.ends MUX4TO1
********************************************************************************
.subckt MUX8TO1 nen ng0 ng1 ng2 nd0 nd1 nd2 nd3 nd4 nd5 nd6 nd7 nz
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnen nenshifted 0 v=2*V(nen)-1
bng0 ng0shifted 0 v=2*V(ng0)-1
bng1 ng1shifted 0 v=2*V(ng1)-1
bng2 ng2shifted 0 v=2*V(ng2)-1
bnd0 nd0shifted 0 v=2*V(nd0)-1
bnd1 nd1shifted 0 v=2*V(nd1)-1
bnd2 nd2shifted 0 v=2*V(nd2)-1
bnd3 nd3shifted 0 v=2*V(nd3)-1
bnd4 nd4shifted 0 v=2*V(nd4)-1
bnd5 nd5shifted 0 v=2*V(nd5)-1
bnd6 nd6shifted 0 v=2*V(nd6)-1
bnd7 nd7shifted 0 v=2*V(nd7)-1
Unen INV ndpwr ndgnd nenshifted n12 DMOD
Ung0 INV ndpwr ndgnd ng0shifted n8 DMOD
Ung1 INV ndpwr ndgnd ng1shifted n9 DMOD
Ung2 INV ndpwr ndgnd ng2shifted n17 DMOD
bn12 n12shifted 0 v=2*V(n12)-1
bn8 n8shifted 0 v=2*V(n8)-1
bn9 n9shifted 0 v=2*V(n9)-1
bn17 n17shifted 0 v=2*V(n17)-1
UANDA AND(5) ndpwr ndgnd n12shifted n8shifted n9shifted n17shifted nd0shifted n13 DMOD
UANDB AND(5) ndpwr ndgnd n12shifted ng0shifted n9shifted n17shifted nd1shifted n14 DMOD
UANDC AND(5) ndpwr ndgnd n12shifted n8shifted ng1shifted n17shifted nd2shifted n15 DMOD
UANDD AND(5) ndpwr ndgnd n12shifted ng0shifted ng1shifted n17shifted nd3shifted n16 DMOD
UANDE AND(5) ndpwr ndgnd n12shifted n8shifted n9shifted ng2shifted nd4shifted n18 DMOD
UANDF AND(5) ndpwr ndgnd n12shifted ng0shifted n9shifted ng2shifted nd5shifted n19 DMOD
UANDG AND(5) ndpwr ndgnd n12shifted n8shifted ng1shifted ng2shifted nd6shifted n20 DMOD
UANDH AND(5) ndpwr ndgnd n12shifted ng0shifted ng1shifted ng2shifted nd7shifted n21 DMOD
bn13 n13shifted 0 v=2*V(n13)-1
bn14 n14shifted 0 v=2*V(n14)-1
bn15 n15shifted 0 v=2*V(n15)-1
bn16 n16shifted 0 v=2*V(n16)-1
bn18 n18shifted 0 v=2*V(n18)-1
bn19 n19shifted 0 v=2*V(n19)-1
bn20 n20shifted 0 v=2*V(n20)-1
bn21 n21shifted 0 v=2*V(n21)-1
UOR OR (8) ndpwr ndgnd n13shifted n14shifted n15shifted n16shifted
+ n18shifted n19shifted n20shifted n21shifted
+ nz DMOD
.ends MUX8TO1
**********************************************************************************************
.subckt FADDER nin1 nin2 ncarryin nsumOut ncarryOut
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnin1 nin1shifted 0 v=2*V(nin1)-1
bnin2 nin2shifted 0 v=2*V(nin2)-1
bncarryin ncarryinshifted 0 v=2*V(ncarryin)-1
UFADDER ADD ndpwr ndgnd nin1shifted nin2shifted ncarryinshifted nsumOut ncarryOut DMOD
.ends FADDER
************************************************************************************
.subckt ANDOR4X2 nA1 nA2 nB1 nB2 nC1 nC2 nD1 nD2 nz
vdpwr ndpwr 0 1
vdgnd ndgnd 0 -1
bnA1 nA1shifted 0 v=2*V(nA1)-1
bnA2 nA2shifted 0 v=2*V(nA2)-1
bnB1 nB1shifted 0 v=2*V(nB1)-1
bnB2 nB2shifted 0 v=2*V(nB2)-1
bnC1 nC1shifted 0 v=2*V(nC1)-1
bnC2 nC2shifted 0 v=2*V(nC2)-1
bnD1 nD1shifted 0 v=2*V(nD1)-1
bnD2 nD2shifted 0 v=2*V(nD2)-1
UANDA AND (2) ndpwr ndgnd nA1shifted nA2shifted n9 DMOD
UANDB AND (2) ndpwr ndgnd nB1shifted nB2shifted n10 DMOD
UANDC AND (2) ndpwr ndgnd nC1shifted nC2shifted n11 DMOD
UANDD AND (2) ndpwr ndgnd nD1shifted nD2shifted n12 DMOD
bn9 n9shifted 0 v=2*V(n9)-1
bn10 n10shifted 0 v=2*V(n10)-1
bn11 n11shifted 0 v=2*V(n11)-1
bn12 n12shifted 0 v=2*V(n12)-1
UANDOE4X2 OR (4) ndpwr ndgnd n9shifted n10shifted n11inshifted n12shifted nz DMOD
.ends ANDOR4X2
************************************************************************************
.subckt A2DBRIDGE nAin nDout
R1 nAin 0 1e8
R2 nDout 0 1
BA2D 0 nDout I={V(nAin)/(ScaleFactor+1e-20)}
.ends A2DBRIDGE
************************************************************************************
.subckt A2DBRIDGEX2 nAin1 nDout1 nAin2 nDout2
R1 nAin1 0 1e8
R2 nDout1 0 1
BA2D1 0 nDout1 I={V(nAin1)/(ScaleFactor+1e-20)}
R3 nAin2 0 1e8
R4 nDout2 0 1
BA2D2 0 nDout2 I={V(nAin2)/(ScaleFactor+1e-20)}
.ends A2DBRIDGEx2
************************************************************************************
.subckt A2DBRIDGEX4 nAin1 nDout1 nAin2 nDout2 nAin3 nDout3 nAin4 nDout4
R1 nAin1 0 1e8
R2 nDout1 0 1
BA2D1 0 nDout1 I={V(nAin1)/(ScaleFactor+1e-20)}
R3 nAin2 0 1e8
R4 nDout2 0 1
BA2D2 0 nDout2 I={V(nAin2)/(ScaleFactor+1e-20)}
R5 nAin3 0 1e8
R6 nDout3 0 1
BA2D3 0 nDout3 I={V(nAin3)/(ScaleFactor+1e-20)}
R7 nAin4 0 1e8
R8 nDout4 0 1
BA2D4 0 nDout4 I={V(nAin4)/(ScaleFactor+1e-20)}
.ends A2DBRIDGEx4
************************************************************************************
.subckt A2DBRIDGEX8 nAin1 nDout1 nAin2 nDout2 nAin3 nDout3 nAin4 nDout4
+ nAin5 nDout5 nAin6 nDout6 nAin7 nDout7 nAin8 nDout8
R1 nAin1 0 1e8
R2 nDout1 0 1
BA2D1 0 nDout1 I={V(nAin1)/(ScaleFactor+1e-20)}
R3 nAin2 0 1e8
R4 nDout2 0 1
BA2D2 0 nDout2 I={V(nAin2)/(ScaleFactor+1e-20)}
R5 nAin3 0 1e8
R6 nDout3 0 1
BA2D3 0 nDout3 I={V(nAin3)/(ScaleFactor+1e-20)}
R7 nAin4 0 1e8
R8 nDout4 0 1
BA2D4 0 nDout4 I={V(nAin4)/(ScaleFactor+1e-20)}
R9 nAin5 0 1e8
R10 nDout5 0 1
BA2D5 0 nDout5 I={V(nAin5)/(ScaleFactor+1e-20)}
R11 nAin6 0 1e8
R12 nDout6 0 1
BA2D6 0 nDout6 I={V(nAin6)/(ScaleFactor+1e-20)}
R13 nAin7 0 1e8
R14 nDout7 0 1
BA2D7 0 nDout7 I={V(nAin7)/(ScaleFactor+1e-20)}
R15 nAin8 0 1e8
R16 nDout8 0 1
BA2D8 0 nDout8 I={V(nAin8)/(ScaleFactor+1e-20)}
.ends A2DBRIDGEx8
************************************************************************************
.subckt D2ABRIDGE nDin nAout
+ PARAMS: ScaleFactor=1
R1 nDin 0 1e8
R2 nAout 0 1
BD2A 0 nAout I={V(nDin)*ScaleFactor}
.ends D2ABRIDGE
************************************************************************************
.subckt D2ABRIDGEX2 nDin1 nAout1 nDin2 nAout2
R1 nDin1 0 1e8
R2 nAout1 0 1
BD2A1 0 nAout1 I={V(nDin1)*ScaleFactor}
R3 nDin2 0 1e8
R4 nAout2 0 1
BD2A2 0 nAout2 I={V(nDin2)*ScaleFactor}
.ends D2ABRIDGEx2
************************************************************************************
.subckt D2ABRIDGEX4 nDin1 nAout1 nDin2 nAout2 nDin3 nAout3 nDin4 nAout4
R1 nDin1 0 1e8
R2 nAout1 0 1
BD2A1 0 nAout1 I={V(nDin1)*ScaleFactor}
R3 nDin2 0 1e8
R4 nAout2 0 1
BD2A2 0 nAout2 I={V(nDin2)*ScaleFactor}
R5 nDin3 0 1e8
R6 nAout3 0 1
BD2A3 0 nAout3 I={V(nDin3)*ScaleFactor}
R7 nDin4 0 1e8
R8 nAout4 0 1
BD2A4 0 nAout4 I={V(nDin4)*ScaleFactor}
.ends D2ABRIDGEX4
************************************************************************************
.subckt D2ABRIDGEX8 nDin1 nAout1 nDin2 nAout2 nDin3 nAout3 nDin4 nAout4
+ nDin5 nAout5 nDin6 nAout6 nDin7 nAout7 nDin8 nAout8
R1 nDin1 0 1e8
R2 nAout1 0 1
BD2A1 0 nAout1 I={V(nDin1)*ScaleFactor}
R3 nDin2 0 1e8
R4 nAout2 0 1
BD2A2 0 nAout2 I={V(nDin2)*ScaleFactor}
R5 nDin3 0 1e8
R6 nAout3 0 1
BD2A3 0 nAout3 I={V(nDin3)*ScaleFactor}
R7 nDin4 0 1e8
R8 nAout4 0 1
BD2A4 0 nAout4 I={V(nDin4)*ScaleFactor}
R9 nDin5 0 1e8
R10 nAout5 0 1
BD2A5 0 nAout5 I={V(nDin5)*ScaleFactor}
R11 nDin6 0 1e8
R12 nAout6 0 1
BD2A6 0 nAout6 I={V(nDin6)*ScaleFactor}
R13 nDin7 0 1e8
R14 nAout7 0 1
BD2A7 0 nAout7 I={V(nDin7)*ScaleFactor}
R15 nDin8 0 1e8
R17 nAout8 0 1
BD2A8 0 nAout8 I={V(nDin8)*ScaleFactor}
.ends D2ABRIDGEX8
************************************************************************************
.subckt PATGENX1 nout
.PARAM period={1/(PulseFreq+1e-20)}
.PARAM p1={0.5*period}
.PARAM p2={period}
Inout 0 nout dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p1} {p2})
Rout nout 0 1
.ends PATGENX1
************************************************************************************
.subckt PATGENX2 nout1 nout2
.PARAM period={1/(PulseFreq+1e-20)}
.PARAM p1={0.5*period}
.PARAM p2={period}
.PARAM p3={0.5*p1}
.PARAM p4={0.5*p2}
Inout1 0 nout1 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p1} {p2})
Rout1 nout1 0 1
Inout2 0 nout2 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p3} {p4})
Rout2 nout2 0 1
.ends PATGENX2
************************************************************************************
.subckt PATGENX4 nout1 nout2 nout3
.PARAM period={1/(PulseFreq+1e-20)}
.PARAM p1={0.5*period}
.PARAM p2={period}
.PARAM p3={0.5*p1}
.PARAM p4={0.5*p2}
.PARAM p5={0.5*p3}
.PARAM p6={0.5*p4}
Inout1 0 nout1 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p1} {p2})
Rout1 nout1 0 1
Inout2 0 nout2 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p3} {p4})
Rout2 nout2 0 1
Inout3 0 nout3 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p5} {p6})
Rout3 nout3 0 1
.ends PATGENX4
************************************************************************************
.subckt PATGENX8 nout1 nout2 nout3 nout4
.PARAM period={1/(PulseFreq+1e-20)}
.PARAM p1={0.5*period}
.PARAM p2={period}
.PARAM p3={0.5*p1}
.PARAM p4={0.5*p2}
.PARAM p5={0.5*p3}
.PARAM p6={0.5*p4}
.PARAM p7={0.5*p5}
.PARAM p8={0.5*p6}
Inout1 0 nout1 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p1} {p2})
Rout1 nout1 0 1
Inout2 0 nout2 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p3} {p4})
Rout2 nout2 0 1
Inout3 0 nout3 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p5} {p6})
Rout3 nout3 0 1
Inout4 0 nout4 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p7} {p8})
Rout4 nout4 0 1
.ends PATGENX8
************************************************************************************
.subckt PATGENX32 nout1 nout2 nout3 nout4 nout5 nout6
.PARAM period={1/(PulseFreq+1e-20)}
.PARAM p1={0.5*period}
.PARAM p2={period}
.PARAM p3={0.5*p1}
.PARAM p4={0.5*p2}
.PARAM p5={0.5*p3}
.PARAM p6={0.5*p4}
.PARAM p7={0.5*p5}
.PARAM p8={0.5*p6}
.PARAM p9={0.5*p7}
.PARAM p10={0.5*p8}
.PARAM p11={0.5*p9}
.PARAM p12={0.5*p10}
Inout1 0 nout1 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p1} {p2})
Rout1 nout1 0 1
Inout2 0 nout2 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p3} {p4})
Rout2 nout2 0 1
Inout3 0 nout3 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p5} {p6})
Rout3 nout3 0 1
Inout4 0 nout4 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p7} {p8})
Rout4 nout4 0 1
Inout5 0 nout5 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p9} {p10})
Rout5 nout5 0 1
Inout6 0 nout6 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p11} {p12})
Rout6 nout6 0 1
.ends PATGENX32
************************************************************************************
.subckt PATGENX128 nout1 nout2 nout3 nout4 nout5 nout6 nout7 nout8
.PARAM period={1/(PulseFreq+1e-20)}
.PARAM p1={0.5*period}
.PARAM p2={period}
.PARAM p3={0.5*p1}
.PARAM p4={0.5*p2}
.PARAM p5={0.5*p3}
.PARAM p6={0.5*p4}
.PARAM p7={0.5*p5}
.PARAM p8={0.5*p6}
.PARAM p9={0.5*p7}
.PARAM p10={0.5*p8}
.PARAM p11={0.5*p9}
.PARAM p12={0.5*p10}
.PARAM p13={0.5*p11}
.PARAM p14={0.5*p12}
.PARAM p15={0.5*p13}
.PARAM p16={0.5*p14}
Inout1 0 nout1 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p1} {p2})
Rout1 nout1 0 1
Inout2 0 nout2 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p3} {p4})
Rout2 nout2 0 1
Inout3 0 nout3 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p5} {p6})
Rout3 nout3 0 1
Inout4 0 nout4 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p7} {p8})
Rout4 nout4 0 1
Inout5 0 nout5 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p9} {p10})
Rout5 nout5 0 1
Inout6 0 nout6 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p11} {p12})
Rout6 nout6 0 1
Inout7 0 nout7 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p13} {p14})
Rout7 nout7 0 1
Inout8 0 nout8 dc 0 ac 0 pulse( 0 {ScaleFactor} 0 1n 1n {p15} {p16})
Rout8 nout8 0 1
.ends PATGENX128
Reference in New Issue View Git Blame Copy Permalink