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audio-synth/dev/analog/VCA_LM13700/Project Outputs for VCA_LM13700/VCA_LM13700.nsx
2025-12-06 16:26:06 +01:00

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VCA_LM13700
*SPICE Netlist generated by Advanced Sim server on 06.12.2025 16:21:09
.options MixedSimGenerated
*Schematic Netlist:
XIC1A NetIC1_16 NetIC1_15 NetIC1_14 NetIC1_13 OUT 0 OUT Uout ExtraNet_XIC1A_9
+ ExtraNet_XIC1A_10 VAP ExtraNet_XIC1A_12 ExtraNet_XIC1A_13 ExtraNet_XIC1A_14
+ ExtraNet_XIC1A_15 ExtraNet_XIC1A_16 LM13700-DUAL
XIC1C NetIC1_16 NetIC1_15 NetIC1_14 NetIC1_13 OUT 0 OUT Uout ExtraNet_XIC1C_9
+ ExtraNet_XIC1C_10 VAP ExtraNet_XIC1C_12 ExtraNet_XIC1C_13 ExtraNet_XIC1C_14
+ ExtraNet_XIC1C_15 ExtraNet_XIC1C_16 LM13700-DUAL
XIC1E NetIC1_16 NetIC1_15 NetIC1_14 NetIC1_13 OUT 0 OUT Uout ExtraNet_XIC1E_9
+ ExtraNet_XIC1E_10 VAP ExtraNet_XIC1E_12 ExtraNet_XIC1E_13 ExtraNet_XIC1E_14
+ ExtraNet_XIC1E_15 ExtraNet_XIC1E_16 LM13700-DUAL
RR1 NetIC1_14 IN 3k
RR2 OUT VCM 27k
RR3 Uout 0 5.1k
RR4 VCM NetIC1_14 1k
RR5 VCM NetIC1_13 1k
RR_B NetR_B_1 NetR_B_2 100k
RR_BASE_GAIN NetIC1_16 NetR_BASE_GAIN_2 10k
RR_D VAP NetIC1_15 5k
RR_GAINA NetR_BASE_GAIN_2 NetR_BASE_GAIN_2 {100k * {GAIN}}
RR_GAINB NetR_BASE_GAIN_2 NetR_GAIN_3 {100k - (100k * {GAIN})}
QT VAP NetR_B_1 NetR_GAIN_3 QBC547B
VU_VCO_EN NetR_B_2 0 DC 0 PULSE(3.3 0 0 4u 1u 20m 40m) AC 1 0
VUin IN VCM DC 0 SIN(0 2V 440Hz 0 0 0) AC 1 0
VUneg VCM 0 +5V
VUpos VAP VCM +5V
.PLOT TRAN {v(IN)} =PLOT(1) =AXIS(1) =NAME(Uin) =UNITS(V)
.PLOT TRAN {v(OUT)} =PLOT(2) =AXIS(1) =NAME(Uout) =UNITS(V)
.PLOT TRAN {v(U_VCO_EN)} =PLOT(3) =AXIS(1) =NAME(VCO_EN) =UNITS(V)
.PLOT TRAN {ie(T)} =PLOT(4) =AXIS(1) =NAME(I_ABC) =UNITS(A)
.PLOT TRAN {ib(T)} =PLOT(5) =AXIS(1) =NAME(I_B) =UNITS(A)
.PLOT TRAN {i(R5)} =PLOT(6) =AXIS(1) =NAME(I_5) =UNITS(A)
.PLOT TRAN {i(R4)} =PLOT(6) =AXIS(1) =NAME(I_4) =UNITS(A)
.OPTIONS METHOD=GEAR MAXORD=2
*Selected Circuit Analyses:
.TRAN 45u 100m 20m 45u
.CONTROL
SWEEP GAIN 0 1 0.1
.ENDC
*Global Parameters:
.PARAM GAIN={0.5}
*Models and Subcircuits:
* A dual opamp ngspice model
* file name: LM13700-DUAL.ckt
.subckt LM13700-DUAL 1ABin 1DBias 1in+ 1in- 1out vcc- 1Bin 1Bout 2Bout 2Bin vcc+
+ 2out 2in- 2in+ 2Dbias 2ABin
*//////////////////////////////////////////////////////////////////////
* (C) National Semiconductor, Inc.
* Models developed and under copyright by:
* National Semiconductor, Inc.
*/////////////////////////////////////////////////////////////////////
* Legal Notice: This material is intended for free software support.
* The file may be copied, and distributed; however, reselling the
* material is illegal
*////////////////////////////////////////////////////////////////////
* For ordering or technical information on these models, contact:
* National Semiconductor's Customer Response Center
* 7:00 A.M.--7:00 P.M. U.S. Central Time
* (800) 272-9959
* For Applications support, contact the Internet address:
* amps-apps@galaxy.nsc.com
* \\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\
* LM13700 Dual Operational Transconductance Amplifier
* \\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\\
*
* Amplifier Bias Input
* | Diode Bias
* | | Positive Input
* | | | Negative Input
* | | | | Output
* | | | | | Negative power supply
* | | | | | | Buffer Input
* | | | | | | | Buffer Output
* | | | | | | | | Positive power supply
* | | | | | | | | |
.SUBCKT LM13700/NS 1 2 3 4 5 6 7 8 11
*
* Features:
* gm adjustable over 6 decades.
* Excellent gm linearity.
* Linearizing diodes.
* Wide supply range of +/-2V to +/-22V.
*
* Note: This model is single-pole in nature and over-estimates
* AC bandwidth and phase margin (stability) by over 2X.
* Although refinement may be possible in the future, please
* use benchtesting to finalize AC circuit design.
*
* Note: Model is for single device only and simulated
* supply current is 1/2 of total device current.
*
******************************************************
*
C1 6 4 4.8P
C2 3 6 4.8P
* Output capacitor
C3 5 6 6.26P
D1 2 4 DX
D2 2 3 DX
D3 11 21 DX
D4 21 22 DX
D5 1 26 DX
D6 26 27 DX
D7 5 29 DX
D8 28 5 DX
D10 31 25 DX
* Clamp for -CMR
D11 28 25 DX
* Ios source
F1 4 3 POLY(1) V6 1E-10 5.129E-2 -1.189E4 1.123E9
F2 11 5 V2 1.022
F3 25 6 V3 1.0
F4 5 6 V1 1.022
* Output impedance
F5 5 0 POLY(2) V3 V7 0 0 0 0 1
G1 0 33 5 0 .55E-3
I1 11 6 300U
Q1 24 32 31 QX1
Q2 23 3 31 QX2
Q3 11 7 30 QZ
Q4 11 30 8 QY
V1 22 24 0V
V2 22 23 0V
V3 27 6 0V
V4 11 29 1.4
V5 28 6 1.2
V6 4 32 0V
V7 33 0 0V
.MODEL QX1 NPN (IS=5E-16 BF=200 NE=1.15 ISE=.63E-16 IKF=1E-2)
.MODEL QX2 NPN (IS=5.125E-16 BF=200 NE=1.15 ISE=.63E-16 IKF=1E-2)
.MODEL QY NPN (IS=6E-15 BF=50)
.MODEL QZ NPN (IS=5E-16 BF=266)
.MODEL DX D (IS=5E-16)
.ENDS
*$
XU1C 1ABin 1DBias 1in+ 1in- 1out vcc- 1Bin 1Bout vcc+ LM13700/NS
XU1A 2ABin 2DBias 2in+ 2in- 2out vcc- 2Bin 2Bout vcc+ LM13700/NS
.ends
*
.MODEL QBC547B NPN(
+ IS=2.39E-14
+ NF=1.008
+ ISE=3.545E-15
+ NE=1.541
+ BF=294.3
+ IKF=0.1357
+ VAF=63.2
+ NR=1.004
+ ISC=6.272E-14
+ NC=1.243
+ BR=7.946
+ IKR=0.1144
+ VAR=25.9
+ RB=1
+ IRB=1E-06
+ RBM=1
+ RE=0.4683
+ RC=0.85
+ XTB=0
+ EG=1.11
+ XTI=3
+ CJE=1.358E-11
+ VJE=0.65
+ MJE=0.3279
+ TF=4.391E-10
+ XTF=120
+ VTF=2.643
+ ITF=0.7495
+ PTF=0
+ CJC=3.728E-12
+ VJC=0.3997
+ MJC=0.2955
+ XCJC=0.6193
+ TR=1E-32
+ CJS=0
+ VJS=0.75
+ MJS=0.333
+ FC=0.9579 )
.END