L
Lostgallifreyan
Guest
Hello. I might have missed something obvious but I'm usually good with
adapting subcircuits to LTspice, making my own symbol files, etc, but this
extra-levels problem is new and beats me...
The LOG112 log amp subcircuit from Texas Instruments uses more than one level
of subcircuit in a single file (Two subcircuits on that second level, it
seems, each with 5 pins). LTspice finds this file from my symbol file, but
announces that the XU1 instance has more pins than the subcircuit. This is
not true.
BUT, the two sub-subcircuits in the file have 5 pins, which
might have something to do with this. I tried a crude omission of those sub-
subcircuits to see if it at least stopped claiming pin count errors, and it
didn't.
Instead of blundering further I'll just ask up front: can anyone bail me out
of this with an explanation of what to do to make the TI subcircuit work in
LTspice if LTspice can't use this extra-level method?
Complete unedited TI subcircuit file follows... (I can add my symbol file but
I promise you it has a matching pin count for the first uncommented line in
the following data. The values, and order, are also the same.)
* BEGIN MODEL LOG112
* BEGIN NOTES
* THIS MODEL USES TWO SUBCIRCUIT LEVELS, IE THE
* LOG112 SUBCIRCUIT IS ONE LEVEL AND THERE IS
* ONE ADDITIONAL LEVEL INSIDE THAT SUBCIRCUIT.
* ONE COMPONENT (R2) HAS DIFFERENT SYNTAX FOR
* DIFFERENT SIMULATORS - SEE R2 BELOW.
* MODEL FUNCTIONAL TEMPERATURE RANGE IS -40 TO 85 C.
* HIGH ACCURACY TEMPERATURE RANGE IS -5 TO 75 C.
* NOT ALL PARAMETERS TRACK WITH TEMPERATURE.
* CONVERGANCE, DC SWEEPS, AND TIME DOMAIN ANALYSIS
* WILL USUALLY REQUIRE SETTING ANALYSIS OPTIONS
* SUCH AS ITL1, ITL2, AND ITL4 RESPECTIVELY.
* CONVERGANCE CAN ALSO BE ENHANCED BY USING
* NODESET TO SET THE OUTPUT NODE (VLOG) AND
* OR THE AUX AMP OUTPUT NODE (VO3).
* FOR ACCURATE RESULTS AT INPUT CURRENTS BELOW
* ONE NANAOAMP SET GMIN TO 3E-13.
* END NOTES
* BEGIN FEATURES
* SUPPORTS DC, AC, TRANSIENT, AND NOISE ANALYSIS.
* LOGGING AND AUXILIARY AMPLIFIERS ARE MACROMODELS
* WITH THE FOLLOWING FEATURES:
* OPEN LOOP GAIN AND PHASE, CMRR W FREQ EFFECTS,
* PSRR W FREQ EFFECTS, INPUT VOLTAGE AND CURRENT
* NOISE W FREQ EFFECTS, INPUT BIAS CURRENT AND
* INPUT CLAMPS, OUTPUT CLAMPS, INPUT CAPACITANCE,
* OUTPUT SWING VS IO, OUTPUT CURRENT THRU THE
* SUPPLIES, SLEW RATE, CURRENT LIMIT, AND INPUT
* COMMON MODE RANGE.
* LOGGING TRANSISTORS HAVE NON-IDEAL PARAMETERS.
* LOGGING TRANSISTORS HAVE NOISE EFFECTS.
* LOG CONFORMITY ERRORS ARE MODELED.
* TEMPERATURE EFFECTS OF LOG ERRORS ARE MODELED.
* TEMPERATURE EFFECT OF GAIN ERROR IS MODELED.
* BANDWIDTH AND DYNAMICS ARE REALISTIC.
* COMPENSATION IS REALISTIC.
* UPPER LIMIT ON I1+I2 AT LOW VCC IS MODELED.
* NOTE THAT THE INTERNAL REFERENCE IS MODELED
* AS A SIMPLE VOLTAGE SOURCE WITH NO DEPEND-
* ENCE ON SUPPLY, NO DRIFT, NO OUTPUT IMPEDANCE,
* AND NO DYNAMIC FEATURES.
* END FEATURES
*
* PINOUT ORDER I1 +IN -IN VLOG V+ VO3 VREF V- GND REFGND VCM I2
* PINOUT ORDER 1 3 4 5 6 7 8 9 10 11 13 14
..SUBCKT LOG112 1 3 4 5 6 7 8 9 10 11 13 14
X1 13 14 6 9 5 LA112
R1 15 5 1567.4
* PSPICE AND PSPICE DERIVED SYNTAX FOR R2
R2 10 15 212 TC1=3.78M
* END PSPICE SYNTAX R2
* BERKELEY 3X.X SYNTAX FOR R2
*R2 10 15 212 R2M
*.MODEL R2M R TC1=3.78M
* END BERKELEY SYNTAX R2
Q1 16 15 17 QL112
Q2 18 10 17 QL112
X2 13 1 6 9 19 LA112
R5 0 14 1E12
R6 0 1 1E12
R7 17 19 600
C1 1 19 180E-12
R9 17 16 1E12
R10 18 17 1E12
R11 14 18 92
R12 16 1 92
D1 17 15 DS
D2 17 10 DS
X3 3 4 6 9 7 AA112
V4 8 11 2.5
R15 11 8 1E12
IQA 6 9 0.63E-3
..MODEL DS D IS=1E-18 RS=10 CJO=1E-12 TT=5N
..MODEL QL112 NPN BF=440 IS=1E-15 NF=1 EG=1.2056
+ ISE=1E-17 NE=1.5 ISC=1E-17 NC=1.5 VAF=125
+ RB=49 RBM=2.65 IRB=60E-6 RE=0.0404
+ IKF=0.06 CJE=12.2E-12 VJE=0.77 MJE=0.3
+ CJC=1.5E-12 VJC=0.64 MJC=0.425 XCJC=1 FC=0
+ TF=300E-12 XTF=1 VTF=0 ITF=0.01 PTF=5
+ ITF=10E-3 TR=1E-6 CJS=55E-12 MJS=0.5 VJS=0.58
+ XTI=2.3 XTB=1.5 NR=1 KF=1.6E-16 AF=1
..ENDS
..SUBCKT LA112 3 2 7 4 6
C00 6 0 0.1E-12
Q26 8 9 10 QON
Q27 11 9 12 QOP
Q28 4 13 14 QOP
Q29 7 15 16 QON
I4 8 15 110E-6
I5 13 11 110E-6
R35 14 17 1
C6 18 19 60E-12
R36 19 18 1K
G1 18 19 20 0 -1E-3
G2 21 19 22 23 -900E-6
R37 19 21 1E10
C7 20 24 30E-12
R38 20 21 8E3
E1 25 19 20 19 1
D2 25 21 DD
R39 19 24 1.5E3
R41 26 23 300
R42 26 22 300
V7 27 11 0.65
R47 6 17 50
D1 26 27 DD
D3 21 25 DD
D4 28 8 DD
D5 11 29 DD
V8 28 21 1.3
V9 21 29 0.9
E6 30 0 8 0 1
E7 31 0 11 0 1
E8 32 0 33 0 1
R48 30 34 1E4
R49 31 35 1E4
R50 32 36 1E4
R51 0 34 1
R52 0 35 1
R53 0 36 1
E11 37 38 36 0 0.03
R54 39 33 1E3
R55 33 40 1E3
C10 30 34 0.5E-6
C11 31 35 100E-9
C12 32 36 1E-12
E12 41 37 35 0 0.025
E13 42 41 34 0 0.1
R60 41 42 1E9
R61 37 41 1E9
R62 38 37 1E9
E22 39 0 2 0 1
E23 40 0 42 0 1
E24 43 44 45 46 0.067
I7 0 46 100E-6
D6 46 0 DVN
I8 0 45 100E-6
D7 45 0 DVN
E25 11 0 4 0 1
E26 8 0 7 0 1
I9 7 4 342E-6
R65 4 7 400E3
E27 19 0 8 11 0.001
C13 2 0 2E-12
C14 42 0 2E-12
C15 42 2 1E-12
V10 44 2 0
R34 12 15 1
R67 13 10 1
R68 17 16 1
I13 42 0 4E-12
I14 2 0 4E-12
J1 22 47 48 JIP
J2 23 49 50 JIP
R72 50 51 100
R73 48 51 100
Q30 52 52 53 QIP
R74 53 54 220
R75 55 54 220
Q31 51 52 55 QIP
V12 8 54 3.5
I15 52 11 230E-6
V13 49 42 0
C17 9 19 30E-12
R76 19 9 1K
G3 9 19 18 19 -1E-3
I16 0 56 100E-6
D8 56 0 DIN
I17 0 57 100E-6
D9 57 0 DIN
G4 2 42 57 56 1E-6
E29 58 0 57 56 230
R77 0 58 220
C18 58 49 1E-12
C19 58 47 1E-12
R81 38 3 400
R82 43 47 400
J3 8 49 8 JIN
J4 8 47 8 JIN
J5 47 11 47 JIN
J6 49 11 49 JIN
D10 6 7 DD
D11 4 6 DD
..MODEL DVN D KF=1.6E-13
..MODEL DIN D
..MODEL DD D
..MODEL QIP PNP
..MODEL QON NPN BF=164 RC=175
..MODEL QOP PNP BF=164 RC=175
..MODEL JIP PJF BETA=1.5E-3 IS=1E-14
..MODEL JIN NJF IS=1E-18
..ENDS
..SUBCKT AA112 3 2 7 4 6
C00 6 0 0.1E-12
Q26 8 9 10 QON
Q27 11 9 12 QOP
Q28 4 13 14 QOP
Q29 7 15 16 QON
I4 8 15 50E-6
I5 13 11 50E-6
R35 14 17 1
C6 18 19 120E-12
R36 19 18 1K
G1 18 19 20 0 -1E-3
G2 20 19 21 22 -900E-6
R37 19 20 1.25E8
C7 20 23 30E-12
R39 19 23 3E3
R41 24 22 300
R42 24 21 300
V7 25 11 -0.32
R47 6 17 50
D1 24 25 DD
D4 26 8 DD
D5 11 27 DD
V8 26 28 1.25
V9 29 27 0.6
E6 30 0 8 0 1
E7 31 0 11 0 1
E8 32 0 33 0 1
R48 30 34 1E4
R49 31 35 1E4
R50 32 36 1E4
R51 0 34 1
R52 0 35 1
R53 0 36 1
E11 37 38 36 0 0.15
R54 39 33 1E3
R55 33 40 1E3
C10 30 34 1E-6
C11 31 41 1E-6
C12 32 36 1E-12
E12 42 37 35 0 0.2
E13 43 42 34 0 0.1
R60 42 43 1E9
R61 37 42 1E9
R62 38 37 1E9
E22 39 0 2 0 1
E23 40 0 43 0 1
E24 44 45 46 47 0.036
I7 0 47 100E-6
D6 47 0 DVN
I8 0 46 100E-6
D7 46 0 DVN
E25 11 0 4 0 1
E26 8 0 7 0 1
I9 7 4 103.8E-6
R65 4 7 606E3
E27 19 0 8 11 0.001
C13 2 0 2E-12
C14 43 0 2E-12
C15 43 2 4E-12
R34 12 15 1
R67 13 10 1
R68 17 16 1
I13 43 0 5E-12
I14 2 0 5E-12
R72 48 49 100
R73 50 49 100
Q30 51 51 52 QCP
R74 52 53 220
R75 54 53 220
Q31 49 51 54 QCP
V12 8 53 1.05
I15 51 11 60E-6
V13 55 43 0
C17 9 19 33E-12
R76 19 9 1E3
G3 9 19 18 19 -1E-3
I16 0 56 100E-6
D8 56 0 DIN
I17 0 57 100E-6
D9 57 0 DIN
G4 2 43 57 56 1E-6
R81 38 3 400
R82 44 58 400
J3 8 55 8 JIN
J4 8 58 8 JIN
J5 58 11 58 JIN
J6 55 11 55 JIN
D10 6 7 DD
D11 4 6 DD
Q32 22 55 48 QIP
Q33 21 58 50 QIP
E30 28 20 59 0 1.1
E31 20 29 59 0 1.2
I18 0 60 1E-4
D12 60 0 DD
V17 59 60 -0.6
R87 0 59 1E9
E32 45 2 61 0 1
R88 61 0 4.2E4
C20 61 0 0.1E-12
R90 41 35 20
C21 41 35 0.1E-6
..MODEL DVN D KF=1.6E-13
..MODEL DIN D KF=1E-14
..MODEL DD D
..MODEL QCP PNP
..MODEL QIP PNP BF=2650
..MODEL QON NPN BF=80 RC=950
..MODEL QOP PNP BF=200 RC=175
..MODEL JIP PJF BETA=1.5E-3
..MODEL JIN NJF IS=1E-18
..ENDS
* END MODEL LOG112
adapting subcircuits to LTspice, making my own symbol files, etc, but this
extra-levels problem is new and beats me...
The LOG112 log amp subcircuit from Texas Instruments uses more than one level
of subcircuit in a single file (Two subcircuits on that second level, it
seems, each with 5 pins). LTspice finds this file from my symbol file, but
announces that the XU1 instance has more pins than the subcircuit. This is
not true.
BUT, the two sub-subcircuits in the file have 5 pins, which might have something to do with this. I tried a crude omission of those sub-
subcircuits to see if it at least stopped claiming pin count errors, and it
didn't.
Instead of blundering further I'll just ask up front: can anyone bail me out
of this with an explanation of what to do to make the TI subcircuit work in
LTspice if LTspice can't use this extra-level method?
Complete unedited TI subcircuit file follows... (I can add my symbol file but
I promise you it has a matching pin count for the first uncommented line in
the following data. The values, and order, are also the same.)
* BEGIN MODEL LOG112
* BEGIN NOTES
* THIS MODEL USES TWO SUBCIRCUIT LEVELS, IE THE
* LOG112 SUBCIRCUIT IS ONE LEVEL AND THERE IS
* ONE ADDITIONAL LEVEL INSIDE THAT SUBCIRCUIT.
* ONE COMPONENT (R2) HAS DIFFERENT SYNTAX FOR
* DIFFERENT SIMULATORS - SEE R2 BELOW.
* MODEL FUNCTIONAL TEMPERATURE RANGE IS -40 TO 85 C.
* HIGH ACCURACY TEMPERATURE RANGE IS -5 TO 75 C.
* NOT ALL PARAMETERS TRACK WITH TEMPERATURE.
* CONVERGANCE, DC SWEEPS, AND TIME DOMAIN ANALYSIS
* WILL USUALLY REQUIRE SETTING ANALYSIS OPTIONS
* SUCH AS ITL1, ITL2, AND ITL4 RESPECTIVELY.
* CONVERGANCE CAN ALSO BE ENHANCED BY USING
* NODESET TO SET THE OUTPUT NODE (VLOG) AND
* OR THE AUX AMP OUTPUT NODE (VO3).
* FOR ACCURATE RESULTS AT INPUT CURRENTS BELOW
* ONE NANAOAMP SET GMIN TO 3E-13.
* END NOTES
* BEGIN FEATURES
* SUPPORTS DC, AC, TRANSIENT, AND NOISE ANALYSIS.
* LOGGING AND AUXILIARY AMPLIFIERS ARE MACROMODELS
* WITH THE FOLLOWING FEATURES:
* OPEN LOOP GAIN AND PHASE, CMRR W FREQ EFFECTS,
* PSRR W FREQ EFFECTS, INPUT VOLTAGE AND CURRENT
* NOISE W FREQ EFFECTS, INPUT BIAS CURRENT AND
* INPUT CLAMPS, OUTPUT CLAMPS, INPUT CAPACITANCE,
* OUTPUT SWING VS IO, OUTPUT CURRENT THRU THE
* SUPPLIES, SLEW RATE, CURRENT LIMIT, AND INPUT
* COMMON MODE RANGE.
* LOGGING TRANSISTORS HAVE NON-IDEAL PARAMETERS.
* LOGGING TRANSISTORS HAVE NOISE EFFECTS.
* LOG CONFORMITY ERRORS ARE MODELED.
* TEMPERATURE EFFECTS OF LOG ERRORS ARE MODELED.
* TEMPERATURE EFFECT OF GAIN ERROR IS MODELED.
* BANDWIDTH AND DYNAMICS ARE REALISTIC.
* COMPENSATION IS REALISTIC.
* UPPER LIMIT ON I1+I2 AT LOW VCC IS MODELED.
* NOTE THAT THE INTERNAL REFERENCE IS MODELED
* AS A SIMPLE VOLTAGE SOURCE WITH NO DEPEND-
* ENCE ON SUPPLY, NO DRIFT, NO OUTPUT IMPEDANCE,
* AND NO DYNAMIC FEATURES.
* END FEATURES
*
* PINOUT ORDER I1 +IN -IN VLOG V+ VO3 VREF V- GND REFGND VCM I2
* PINOUT ORDER 1 3 4 5 6 7 8 9 10 11 13 14
..SUBCKT LOG112 1 3 4 5 6 7 8 9 10 11 13 14
X1 13 14 6 9 5 LA112
R1 15 5 1567.4
* PSPICE AND PSPICE DERIVED SYNTAX FOR R2
R2 10 15 212 TC1=3.78M
* END PSPICE SYNTAX R2
* BERKELEY 3X.X SYNTAX FOR R2
*R2 10 15 212 R2M
*.MODEL R2M R TC1=3.78M
* END BERKELEY SYNTAX R2
Q1 16 15 17 QL112
Q2 18 10 17 QL112
X2 13 1 6 9 19 LA112
R5 0 14 1E12
R6 0 1 1E12
R7 17 19 600
C1 1 19 180E-12
R9 17 16 1E12
R10 18 17 1E12
R11 14 18 92
R12 16 1 92
D1 17 15 DS
D2 17 10 DS
X3 3 4 6 9 7 AA112
V4 8 11 2.5
R15 11 8 1E12
IQA 6 9 0.63E-3
..MODEL DS D IS=1E-18 RS=10 CJO=1E-12 TT=5N
..MODEL QL112 NPN BF=440 IS=1E-15 NF=1 EG=1.2056
+ ISE=1E-17 NE=1.5 ISC=1E-17 NC=1.5 VAF=125
+ RB=49 RBM=2.65 IRB=60E-6 RE=0.0404
+ IKF=0.06 CJE=12.2E-12 VJE=0.77 MJE=0.3
+ CJC=1.5E-12 VJC=0.64 MJC=0.425 XCJC=1 FC=0
+ TF=300E-12 XTF=1 VTF=0 ITF=0.01 PTF=5
+ ITF=10E-3 TR=1E-6 CJS=55E-12 MJS=0.5 VJS=0.58
+ XTI=2.3 XTB=1.5 NR=1 KF=1.6E-16 AF=1
..ENDS
..SUBCKT LA112 3 2 7 4 6
C00 6 0 0.1E-12
Q26 8 9 10 QON
Q27 11 9 12 QOP
Q28 4 13 14 QOP
Q29 7 15 16 QON
I4 8 15 110E-6
I5 13 11 110E-6
R35 14 17 1
C6 18 19 60E-12
R36 19 18 1K
G1 18 19 20 0 -1E-3
G2 21 19 22 23 -900E-6
R37 19 21 1E10
C7 20 24 30E-12
R38 20 21 8E3
E1 25 19 20 19 1
D2 25 21 DD
R39 19 24 1.5E3
R41 26 23 300
R42 26 22 300
V7 27 11 0.65
R47 6 17 50
D1 26 27 DD
D3 21 25 DD
D4 28 8 DD
D5 11 29 DD
V8 28 21 1.3
V9 21 29 0.9
E6 30 0 8 0 1
E7 31 0 11 0 1
E8 32 0 33 0 1
R48 30 34 1E4
R49 31 35 1E4
R50 32 36 1E4
R51 0 34 1
R52 0 35 1
R53 0 36 1
E11 37 38 36 0 0.03
R54 39 33 1E3
R55 33 40 1E3
C10 30 34 0.5E-6
C11 31 35 100E-9
C12 32 36 1E-12
E12 41 37 35 0 0.025
E13 42 41 34 0 0.1
R60 41 42 1E9
R61 37 41 1E9
R62 38 37 1E9
E22 39 0 2 0 1
E23 40 0 42 0 1
E24 43 44 45 46 0.067
I7 0 46 100E-6
D6 46 0 DVN
I8 0 45 100E-6
D7 45 0 DVN
E25 11 0 4 0 1
E26 8 0 7 0 1
I9 7 4 342E-6
R65 4 7 400E3
E27 19 0 8 11 0.001
C13 2 0 2E-12
C14 42 0 2E-12
C15 42 2 1E-12
V10 44 2 0
R34 12 15 1
R67 13 10 1
R68 17 16 1
I13 42 0 4E-12
I14 2 0 4E-12
J1 22 47 48 JIP
J2 23 49 50 JIP
R72 50 51 100
R73 48 51 100
Q30 52 52 53 QIP
R74 53 54 220
R75 55 54 220
Q31 51 52 55 QIP
V12 8 54 3.5
I15 52 11 230E-6
V13 49 42 0
C17 9 19 30E-12
R76 19 9 1K
G3 9 19 18 19 -1E-3
I16 0 56 100E-6
D8 56 0 DIN
I17 0 57 100E-6
D9 57 0 DIN
G4 2 42 57 56 1E-6
E29 58 0 57 56 230
R77 0 58 220
C18 58 49 1E-12
C19 58 47 1E-12
R81 38 3 400
R82 43 47 400
J3 8 49 8 JIN
J4 8 47 8 JIN
J5 47 11 47 JIN
J6 49 11 49 JIN
D10 6 7 DD
D11 4 6 DD
..MODEL DVN D KF=1.6E-13
..MODEL DIN D
..MODEL DD D
..MODEL QIP PNP
..MODEL QON NPN BF=164 RC=175
..MODEL QOP PNP BF=164 RC=175
..MODEL JIP PJF BETA=1.5E-3 IS=1E-14
..MODEL JIN NJF IS=1E-18
..ENDS
..SUBCKT AA112 3 2 7 4 6
C00 6 0 0.1E-12
Q26 8 9 10 QON
Q27 11 9 12 QOP
Q28 4 13 14 QOP
Q29 7 15 16 QON
I4 8 15 50E-6
I5 13 11 50E-6
R35 14 17 1
C6 18 19 120E-12
R36 19 18 1K
G1 18 19 20 0 -1E-3
G2 20 19 21 22 -900E-6
R37 19 20 1.25E8
C7 20 23 30E-12
R39 19 23 3E3
R41 24 22 300
R42 24 21 300
V7 25 11 -0.32
R47 6 17 50
D1 24 25 DD
D4 26 8 DD
D5 11 27 DD
V8 26 28 1.25
V9 29 27 0.6
E6 30 0 8 0 1
E7 31 0 11 0 1
E8 32 0 33 0 1
R48 30 34 1E4
R49 31 35 1E4
R50 32 36 1E4
R51 0 34 1
R52 0 35 1
R53 0 36 1
E11 37 38 36 0 0.15
R54 39 33 1E3
R55 33 40 1E3
C10 30 34 1E-6
C11 31 41 1E-6
C12 32 36 1E-12
E12 42 37 35 0 0.2
E13 43 42 34 0 0.1
R60 42 43 1E9
R61 37 42 1E9
R62 38 37 1E9
E22 39 0 2 0 1
E23 40 0 43 0 1
E24 44 45 46 47 0.036
I7 0 47 100E-6
D6 47 0 DVN
I8 0 46 100E-6
D7 46 0 DVN
E25 11 0 4 0 1
E26 8 0 7 0 1
I9 7 4 103.8E-6
R65 4 7 606E3
E27 19 0 8 11 0.001
C13 2 0 2E-12
C14 43 0 2E-12
C15 43 2 4E-12
R34 12 15 1
R67 13 10 1
R68 17 16 1
I13 43 0 5E-12
I14 2 0 5E-12
R72 48 49 100
R73 50 49 100
Q30 51 51 52 QCP
R74 52 53 220
R75 54 53 220
Q31 49 51 54 QCP
V12 8 53 1.05
I15 51 11 60E-6
V13 55 43 0
C17 9 19 33E-12
R76 19 9 1E3
G3 9 19 18 19 -1E-3
I16 0 56 100E-6
D8 56 0 DIN
I17 0 57 100E-6
D9 57 0 DIN
G4 2 43 57 56 1E-6
R81 38 3 400
R82 44 58 400
J3 8 55 8 JIN
J4 8 58 8 JIN
J5 58 11 58 JIN
J6 55 11 55 JIN
D10 6 7 DD
D11 4 6 DD
Q32 22 55 48 QIP
Q33 21 58 50 QIP
E30 28 20 59 0 1.1
E31 20 29 59 0 1.2
I18 0 60 1E-4
D12 60 0 DD
V17 59 60 -0.6
R87 0 59 1E9
E32 45 2 61 0 1
R88 61 0 4.2E4
C20 61 0 0.1E-12
R90 41 35 20
C21 41 35 0.1E-6
..MODEL DVN D KF=1.6E-13
..MODEL DIN D KF=1E-14
..MODEL DD D
..MODEL QCP PNP
..MODEL QIP PNP BF=2650
..MODEL QON NPN BF=80 RC=950
..MODEL QOP PNP BF=200 RC=175
..MODEL JIP PJF BETA=1.5E-3
..MODEL JIN NJF IS=1E-18
..ENDS
* END MODEL LOG112