initial commit

lib/sub/2ndOrderAllpass.sub

@@ -0,0 +1,14 @@
+* Copyright <20> Linear Technology Corp. 1998, 1999, 2000, 2001, 2002, 2003, 2004, 2005.  All rights reserved.
+*
+.subckt 2ndOrderAllpass 1 2
+G1 0 N002 1 0 {2/R1}
+L2 N002 0 {L1} Rpar={R1} Cpar={C1}
+G2 0 N003 1 0 {1/R1}
+G3 N003 0 N002 0 {1/R1}
+R1 N003 0 {R1}
+G4 0 2 N003 0 {10*H}
+R2 2 0 .1
+.param R1=1k
+.param C1=Q/(2*pi*f0*R1)
+.param L1= 1/(C1*(2*pi*f0)**2)
+.ends 2ndOrderAllpass

lib/sub/2ndOrderBandpass.sub

@@ -0,0 +1,13 @@
+* Copyright <20> Linear Technology Corp. 1998, 1999, 2000, 2001, 2002, 2003, 2004, 2005.  All rights reserved.
+*
+.subckt 2ndOrderBandpass 1 2
+L1 N003 0 {L1} Cpar={C1}
+G1 0 N002 1 0 {2/R1}
+R1 N002 0 {R1/2}
+R2 N003 N002 {R1/2}
+G2 0 2 N003 0 {10*H}
+R3 2 0 .1
+.param R1=1k
+.param L1=1/(C1*(2*pi*f0)**2)
+.param C1=Q/(R1*2*pi*f0)
+.ends 2ndOrderBandpass

lib/sub/2ndOrderComplexzero.sub

@@ -0,0 +1,20 @@
+* Copyright <20> Linear Technology Corp. 1998, 1999, 2000, 2001, 2002, 2003, 2004, 2005.  All rights reserved.
+*
+.subckt 2ndOrderComplexzero 1 2
+G1 0 N002 1 0 {2*f0**2/(R1*fn**2)}
+R2 N002 0 {R1/2}
+G2 0 N003 N002 N005 {2m*K1}
+R4 N003 0 1k
+L1 N005 N006 {L1}
+R1 N002 N005 {R1/2}
+C2 N006 0 {C1}
+G3 0 N003 N005 N006 {1m}
+G4 0 N003 N006 0 {1m*K2}
+G5 0 2 N003 0 {10*H}
+R3 2 0 .1
+.param R1=1k
+.param K1 = (fn*Q)/(f0*Qn)
+.param K2 = (fn/f0)**2
+.param L1 = R1*Q/(2*pi*f0)
+.param C1 = 1/(L1*(2*pi*f0)**2)
+.ends 2ndOrderComplexzero

lib/sub/2ndOrderHighpass.sub

@@ -0,0 +1,13 @@
+* Copyright <20> Linear Technology Corp. 1998, 1999, 2000, 2001, 2002, 2003, 2004, 2005.  All rights reserved.
+*
+.subckt 2ndOrderHighpass 1 2
+L1 N003 0 {L1}
+C1 N002 N003 {C1} Rser={R1/2}
+G1 0 N002 1 0 {2/R1}
+R1 N002 0 {R1/2}
+G2 0 2 N003 0 {10*H}
+R2 2 0 .1
+.param R1=1k
+.param L1=R1*Q/(2*pi*f0)
+.param C1=1/(L1*(2*pi*f0)**2)
+.ends 2ndOrderHighpass

lib/sub/2ndOrderLowpass.sub

@@ -0,0 +1,13 @@
+* Copyright <20> Linear Technology Corp. 1998, 1999, 2000, 2001, 2002, 2003, 2004, 2005.  All rights reserved.
+*
+.subckt 2ndOrderLowpass 1 2
+G1 0 N002 1 0 {2/R1}
+R2 N002 0 {R1/2}
+R4 2 0 .1
+L1 N002 N004 {L1} Rser={R1/2}
+C2 N004 0 {C1}
+G4 0 2 N004 0 {10*H}
+.param R1=1k
+.param L1 = R1*Q/(2*pi*f0)
+.param C1 = 1/(L1*(2*pi*f0)**2)
+.ends 2ndOrderLowpass

lib/sub/2ndOrderNotch.sub

@@ -0,0 +1,14 @@
+* Copyright <20> Linear Technology Corp. 1998, 1999, 2000, 2001, 2002, 2003, 2004, 2005.  All rights reserved.
+*
+.subckt 2ndOrderNotch 1 2
+G1 0 N002 1 0 {4/R1}
+R1 N002 0 {R1/2}
+R2 N003 N002 {R1/2}
+R3 N003 0 {R1}
+C1 N003 0 {C1} Lser={L1}
+G2 0 2 N003 0 {10*H}
+R4 2 0 .1
+.param R1=1k
+.param L1=R1*Q/(4*pi*f0)
+.param C1=1/(L1*(2*pi*f0)**2)
+.ends 2ndOrderNotch

lib/sub/4N25.sub

@@ -0,0 +1,11 @@
+* Copyright <20> Linear Technology Corp. 1998, 1999, 2000.  All rights reserved.
+*
+.subckt 4N25 1 2 3 4 5
+R1 N003 2 2
+D1 1 N003 LD
+G1 3 5 N003 2 .876m
+C1 1 2 18p
+Q1 3 5 4 [4] NP
+.model LD D(Is=1e-20 Cjo=18p)
+.model NP NPN(Bf=610 Vaf=140 Ikf=15m Rc=1 Cjc=19p Cje=7p Cjs=7p C2=1e-15)
+.ends 4N25

lib/sub/4N27.sub

@@ -0,0 +1,11 @@
+* Copyright <20> Linear Technology Corp. 1998, 1999, 2000.  All rights reserved.
+*
+.subckt 4N27 1 2 3 4 5
+R1 N003 2 2
+D1 1 N003 LD
+G1 3 5 N003 2 .582m
+C1 1 2 18p
+Q1 3 5 4 [4] NP
+.model LD D(Is=1e-20 Cjo=18p)
+.model NP NPN(Bf=610 Vaf=140 Ikf=15m Rc=1 Cjc=19p Cje=7p Cjs=7p C2=1e-15)
+.ends 4N27

lib/sub/AD8137.lib

@@ -0,0 +1,164 @@
+* AD8137 SPICE Macro-model 
+* Description: Amplifier
+* Generic Desc: Low Power/Cost Diff 10-12 bit ADC Driver
+* Developed by: TRW/ADI
+* Revision History: 08/10/2012 - Updated to new header style
+*                   07/06/2021 - Corrected current draw from the supplies
+* 4.0 (07/2006) 
+* Copyright 2006, 2012 by Analog Devices, Inc.
+*
+* Refer to http://www.analog.com/Analog_Root/static/techSupport/designTools/spiceModels/license/spice_general.html for License Statement. Use of this model
+* indicates your acceptance with the terms and provisions in the License Statement.
+*
+* BEGIN Notes:
+*
+* Not Modeled:
+*     vnoise, not included in this version
+*     inoise, not included in this version
+*     distortion is not characterized
+*     cmrr is not  characterized in this version.
+*
+* Parameters modeled include:
+*     closed loop gain and phase vs bandwidth
+*     output current and voltage limiting
+*     offset voltage (is  non-static, will  vary with gain)
+*     ibias (again, is static, will not vary with vcm)
+*     slew rate and step response performance
+*     (slew rate is based on 10-90% of step response)
+*     current on output will be reflected to the supplies 
+*     Vocm is variable and include input typical offset
+*
+* END Notes:
+*
+* Node assignments
+*                non-inverting input
+*                | inverting input
+*                | |  positive supply
+*                | |  |  negative supply
+*                | |  |  |  output positive
+*                | |  |  |  |   output negative
+*                | |  |  |  |   |   vocm input
+*                | |  |  |  |   |   |
+.SUBCKT AD8137  3a 9 99 50 71b 71  110
+
+*** INPUT STAGE ***
+*** POSITIVE INPUT, LEFT SIDE ***
+
+I1 99BUF 5 .4E-3
+Q1 50BUF 2 5 QX
+VOS 3a 2 -1.95E-3
+
+*** RAIL CLIPPING ***
+
+Dlim+ 75 14b dx
+Vlim+ 99BUF 14b 1.55
+Dlim 14c 75 dx
+Vlim 14c  50BUF 1.55
+Dlim- 13b 76 DX
+Vlim- 13b 50BUF 1.5
+Dlim-B 76 13C dx
+Vlim-B 99BUF 13C 1.5
+
+*** VOCM INPUT RAIL CLIPPING ***
+
+DOCMa 100 100A dx
+VOCMa 99BUF 100A 2.04
+DOCMb 100b 100 DX
+VOCMb 100b 50BUF 2.04
+
+*** NEGATIVE INPUT, RIGHT SIDE ***
+
+I2 99BUF 6 .4E-3
+Q2 50BUF 9 6 QX
+
+*** INPUT IMPEDANCE ***
+
+Cin 3a 9 1p
+
+*** POLE, ZERO POLE STAGE ***
+
+G1 13 14 5 6 5e-3
+C1 14 13 1.7p
+C2 13 98 11.5p
+C3 14 98 11.5p
+R11 13 98 250k
+R12 14 98 250k
+
+*** POLE ZERO STAGE (POSITIVE SIDE) ***
+
+GP1 0 75 14 98 1
+RP1 75 0 1
+CP1 75 0 2e-9
+
+*** POLE ZERO STAGE (NEGATIVE SIDE) ***
+
+GP2 0 76 13 98 1
+RP2 76 0 1
+CP2 76 0 2e-9
+
+*** OUTPUT STAGE (NEGATIVE SIDE) ***
+
+D17 76 84 DX
+VO1  84 70 .177V
+VO2  70 85 .177V
+D16 85 76  DX
+G30 70 99c 99BUF 76  91E-3
+G31 98c 70 76 50BUF  91E-3
+RO30 70 99c 11
+RO31 98c 70 11
+VIOUT1 99BUF 99c 0V ;current mon from V+
+VIOUT2 50BUF 98c 0V ;current mon from V-
+VIOUT3 70 71 0V		;current mon from OUT-
+
+*** OUTPUT STAGE (POSITIVE SIDE) ***
+
+D17b 75 84b DX
+VO1b  84b 70b .177V
+VO2b  70b 85b .177V
+D16b 85b 75  DX
+G30b 70b 99d 99BUF 75  91E-3
+G31b 98d 70b 75 50BUF  91E-3
+RO30b 70b 99d 11
+RO31b 98d 70b 11
+VIOUTB1 99BUF 99d 0V
+VIOUTB2 98d 50BUF 0V
+VIOUTB3 70b 71b 0V 
+
+*** VOCM STAGE ***
+
+Gocm_a 0 75 100 0 1
+Gocm_b 0 76 100 0 1
+Rocm1 99BUF 100 70k
+Rocm2 100 50BUF 70k
+Vocmo 110 100 1e-3
+
+***  REFERENCE STAGE ***
+Eref 98 0 poly(2) 99BUF 0 50BUF 0 0 0.5 0.5
+
+*** POWER SUPPLY BUFFER ***
+E99 99BUF 0 99 0 1
+E50 50BUF 0 50 0 1
+
+*** CURRENT MIRROR TO SUPPLIES
+GIQ 99 50 VALUE={2.3m + I(VIOUT3)+ I(VIOUTB3)}
+
+;*** CURRENT MIRROR TO SUPPLIES, POSITIVE SIDE ***
+;FO1 0 99 poly(2) VIOUT1 VI1 -1.803E-3 1 -1
+;FO2 0 50 poly(2) VIOUT2 VI2 -1.803E-3 1 -1
+;FO3 0 400 VIOUT1 1
+;VI1 401 0 0
+;VI2 0 402 0
+;DM1 400 401 DX
+;DM2 402 400 DX 
+;*** CURRENT MIRROR TO SUPPLIES, NEGATIVE SIDE ***
+;FO2B 0 50 poly(2) VIOUTB2 VIB2 +200E-6 1 -1
+;FO1B 0 99 poly(2) VIOUTB1 VIB1 0 1 -1
+;FO3B 0 400B VIOUTB1 1
+;VIB1 401B 0 0
+;VIB2 0 402B 0
+;DMB1 400B 401B DX
+;DMB2 402B 400B DX 
+
+.MODEL QX PNP (BF=228.57 Is=1E-15)
+.MODEL DX D(IS=1E-15)
+.ENDS

lib/sub/AD8237.lib

@@ -0,0 +1,102 @@
+* Copyright (c) 1998-2022 Analog Devices, Inc.  All rights reserved.
+*
+.subckt AD8237 1 2 3 4 5 6 7 8
+VOS N014 IN+ 37.5e-6
+VOS1 N025 REF 37.5e-6
+I23 IN- 0 -1e-12
+I24 FB 0 -1e-12
+I1 IN+ 0 -650e-12
+I2 REF 0 -650e-12
+G7 0 V+ N016 V+ 1
+R4 0 V+ 10E9
+G8 0 V- N004 V- 1
+R5 0 V- 10E9
+G1 0 IN+ N021 N023 1.26e-9
+R13 N023 IN+ 10e9
+G2 0 IN- N021 N023 1.26e-9
+R14 IN- N021 10E9
+R16 N023 -Vs 10E9
+R15 +Vs N023 10E9
+E10 VPOSx 0 +Vs 0 1
+E11 VNEGx 0 -Vs 0 1
+I3 +Vs -Vs 130E-6
+H3 N003 IN- V24 67.3
+V24 N001 0 0
+R19 N001 0 0.0166
+G4 0 Out_inp V- V+ 100E-6
+G5 0 Out_inp FB N025 100E-6
+R10 Out_inp 0 10E9
+R11 Out_inp 0 10E9
+G6 0 sub_out 0 Out_inp 1
+R1 0 sub_out 10E9
+C1 N020 sub_out 85E-12
+C2 N019 N020 25E-12
+D7 V+ N012 D
+D8 N018 V+ D
+V3 VPOSx N012 0.55
+V4 N018 VNEGx 0.6
+D9 V- N002 D
+D10 N006 V- D
+V5 VPOSx N002 0.55
+V6 N006 VNEGx 0.6
+EPSRR+ N015 N014 N100 N200 1
+E1 N100 0 N024 0 1
+R6 N100 N200 1
+R7 N200 0 1E6
+C3 N200 0 0.3E-6
+R9 N024 0 1E6
+C4 +Vs N024 100e-6
+EPSRR- N004 N003 N300 N400 1
+E2 N300 0 N026 0 1
+R12 N300 N400 0.5
+R17 N400 0 1E6
+C5 N400 0 0.5E-6
+R18 N026 0 1E6
+C6 -Vs N026 100e-6
+D16 N9999 N009 DX
+D18 N017 N9999 DX
+V1 N017 N022 0.7
+V13 N005 N009 0.7
+H1 VPOSx N005 POLY(1) V_current 0 -29.4 5880.5 -500000000
+H2 N022 VNEGx POLY(1) V_current 0 50 -18820 590000000
+V_current VOUT N9999 0
+ECMRR N016 N015 cmrr_out 0 1
+L2 N028 0 15
+R24 N028 cmrr_out 500
+G12 0 cmrr_out VCM 0 8E-10
+R22 IN+ VCM 10e9
+R23 IN- VCM 10e9
+G11 IN+ IN- IN+ IN- -0.5e-8
+S1 N020 N019 BW 0 SW
+G9 0 N013 sub_out 0 0.0023
+R21 N013 0 500
+C7 N013 0 2e-9
+C8 IN- 0 10e-12
+C10 IN+ 0 10e-12
+E3 N010 V- VPOSX N007 1
+E4 V- N011 VPOSX N008 1
+D1 V+ N010 D
+D2 N011 V+ D
+V7 N007 VNEGX 1.6
+V8 N008 VNEGX 1.6
+G3 0 REF N027 N029 1.26e-9
+R8 FB N027 10e9
+R20 REF N027 10e9
+G10 0 FB N027 N029 1.26e-9
+R2 N029 +Vs 10e9
+R3 N029 -Vs 10e9
+R28 Out_inp N019 10k
+R9999 N9999 N013 0.01
+R25 +Vs 5 1<> Noiseless
+R26 IN+ 2 1<> Noiseless
+R27 IN- 3 1<> Noiseless
+R29 REF 6 1<> Noiseless
+R30 -Vs 4 1<> Noiseless
+R31 BW 1 1<> Noiseless
+R32 8 VOUT 1<> Noiseless
+R33 7 FB 1<> Noiseless
+I4 BW 0 1f
+.model SW Vswitch (Ron=1e-3 Roff=1e9 Von=-2.5 Voff=+2.5 Vh=0)
+.model D D
+.model DX D IS=1E-14 EG=0.6
+.ends AD8237

lib/sub/AD8253.lib

@@ -0,0 +1,493 @@
+* AD8253 SPICE Macromodel     Rev H. 11/2021
+* Function: PGIA
+* Description:
+* This spice model covers the AD8253 Programmable Gain Instrumentation Amplifier (PGIA).
+* Gain options are 1, 10, 100, and 1000
+* Revision History:
+* Rev D. Prior releases, 5/2011
+* Rev E. 10/2013 - Relocates .ends for AD8253 subcircuit to before the digital section to
+*					accommodate spice errors in some SPICE packages. (Where Sub circuit nesting is not allowed)
+* Rev F. 7/2015 - Replace flipflops and gates with equivalent MOSFET circuit to package the model without any more additional subcircuit.
+* Rev G. 9/2018 - Fixed Gain mode bug on LTSPICE platform.
+* Rev. H 11/2021 - Fixed input bias current.
+* Developed by: ADI
+*
+* Spice model Copyright 2013 Analog Devices Inc
+*
+* Temperature variations for the AD8250 are NOT included
+* in this model.
+*
+* Voltage Noise parameters for this model will closely model
+* typical AD8253 characteristics.  Current Noise parameters
+* will be slightly higher than typical AD8253 characteristics
+* due to modeling limitations.
+*
+* Node Assignments
+*					 inverting input
+*                     |   digital ground
+*                     |   |   negative supply
+*                     |   |   |  A0 (digital gain control)
+*                     |   |   |  |  A1 (digital gain control)
+*                     |   |   |  |  |   Digital Write
+*                     |   |   |  |  |   |  output
+*                     |   |   |  |  |   |  |  positive supply
+*                     |   |   |  |  |   |  |  |   reference
+*                     |   |   |  |  |   |  |  |   |   non-inverting input
+*$
+.SUBCKT AD8253       -IN DGND -Vs A0 A1 WR OUT +Vs REF +IN
+*
+*Power Supply
+*
+*Analog Power Supply
+R6 0 90 0.0001
+R5 0 AGND_1 0.0001
+I2 90 -Vs 0.0045
+I1 +Vs AGND_1 0.0046
+EV6 50 90 -Vs 90 1
+EV5 99 AGND_1 +Vs AGND_1 1
+*
+*Digital power supply
+VDD1 D99 0 5
+*
+*power consumption correction
+ICORR_P1 99 0 1.6m
+ICORR_N1 0 50 1.5m
+*
+*Internal Voltage Reference
+EREF1 98 0 40 0 1
+CREF1 40 0 5e-006
+RREF2 40 50 500000
+RREF1 99 40 500000
+*
+*
+*GAIN CONTROL
+*
+*gain of 1000
+Rfb9 104 116 49.95k
+Rfb8 116 115 100
+Rfb7 103 115 49.95k
+SGC16 116 72 A1int 0 SW1
+SGC15 72 Rg+ A0int 0 SW1
+SGC14 13 115 A1int 0 SW1
+SGC13 Rg- 13 A0int 0 SW1
+*
+*gain of 100
+Rfb6 104 112 19.8k
+Rfb5 112 111 400
+Rfb4 103 111 19.8k
+SGC12 114 Rg+ A0barint 0 SW1
+SGC11 112 114 A1int 0 SW1
+SGC10 6 111 A1int 0 SW1
+SGC9 Rg- 6 A0barint 0 SW1
+*
+*Gain of 10
+Rfb3 104 108 6750
+Rfb2 108 107 1.5k
+Rfb1 103 107 6750
+SGC8 110 Rg+ A0int 0 SW1
+SGC7 108 110 A1barint 0 SW1
+SGC6 5 107 A1barint 0 SW1
+SGC5 Rg- 5 A0int 0 SW1
+*
+*Gain of 1
+SGC4 104 134 A1barint 0 SW1
+SGC3 134 Rg+ A0barint 0 SW1
+SGC2 7 103 A1barint 0 SW1
+SGC1 Rg- 7 A0barint 0 SW1
+*
+*Switches for bypassing flipflops
+*If WR is less than -3V, flipflops are
+*bypassed and A0 and A1 are passed
+*directly through
+*
+SBP4 A1bar A1barint 0 WR SW2
+SBP3 A1 A1int 0 WR SW2
+MN2 A1bar A1 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MI2 A1bar A1 DGND DGND NMOS  L=3e-006  W=6e-006
+SBP2 A0bar A0barint 0 WR SW2
+SBP1 A0 A0int 0 WR SW2
+MN1 A0bar A0 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MI1 A0bar A0 DGND DGND NMOS  L=3e-006  W=6e-006
+*
+*
+*Switches for latched mode
+*falling clock edge data latches with
+*switches. If WR is higher than -1.5V,
+*switches pass latched data through, which
+*is latched on falling clock edge
+*
+Vcntlin1 cntlV 0 3
+*
+*DFF for A1
+*
+SLAT4 A1bLAT A1barint WR cntlV SW1
+SLAT3 A1LAT A1int WR cntlV SW1
+*
+MN70 FFWRb_1 WR D99 D99 PMOS  L=3e-006  W=1.5e-005
+MI6 FFWRb_1 WR DGND DGND NMOS  L=3e-006  W=6e-006
+MN69 FFDb_1 A1 D99 D99 PMOS L=3e-006  W=1.5e-005
+MI5 FFDb_1 A1 DGND DGND NMOS  L=3e-006  W=6e-006
+MN68 A1bLAT A1LAT D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN67 A1bLAT 132 D99 D99 PMOS L=3e-006  W=1.5e-005
+MN66 123 132 DGND DGND NMOS  L=3e-006  W=6e-006
+MN65 A1bLAT A1LAT 123 DGND NMOS L=3e-006  W=6e-006
+MN64 132 FFWRb_1 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN63 132 130 D99 D99 PMOS L=3e-006  W=1.5e-005
+MN62 122 130 DGND DGND NMOS L=3e-006  W=6e-006
+MN61 132 FFWRb_1 122 DGND NMOS L=3e-006  W=6e-006
+MN60 A1LAT A1bLAT D99 D99 PMOS L=3e-006  W=1.5e-005
+MN59 A1LAT 135 D99 D99 PMOS L=3e-006  W=1.5e-005
+MN58 124 135 DGND DGND NMOS L=3e-006  W=6e-006
+MN57 A1LAT A1bLAT 124 DGND NMOS  L=3e-006  W=6e-006
+MN56 135 FFWRb_1 D99 D99 PMOS L=3e-006  W=1.5e-005
+MN55 135 131 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN54 121 131 DGND DGND NMOS  L=3e-006  W=6e-006
+MN53 135 FFWRb_1 121 DGND NMOS  L=3e-006  W=6e-006
+MN52 130 131 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN51 130 136 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN50 125 136 DGND DGND NMOS  L=3e-006  W=6e-006
+MN49 130 131 125 DGND NMOS  L=3e-006  W=6e-006
+MN48 136 WR D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN47 136 FFDb_1 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN46 120 FFDb_1 DGND DGND NMOS  L=3e-006  W=6e-006
+MN45 136 WR 120 DGND NMOS  L=3e-006  W=6e-006
+MN44 131 130 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN43 131 129 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN42 126 129 DGND DGND NMOS  L=3e-006  W=6e-006
+MN41 131 130 126 DGND NMOS  L=3e-006  W=6e-006
+MN40 129 WR D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN39 129 A1 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN38 119 A1 DGND DGND NMOS  L=3e-006  W=6e-006
+MN37 129 WR 119 DGND NMOS  L=3e-006  W=6e-006
+MN36 FFWRb WR D99 D99 PMOS  L=3e-006  W=1.5e-005
+*
+*DFF for A0
+*
+SLAT2 A0bLAT A0barint WR cntlV SW1
+SLAT1 A0LAT A0int WR cntlV SW1
+*
+MI4 FFWRb WR DGND DGND NMOS  L=3e-006  W=6e-006
+MN35 FFDb A0 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MI3 FFDb A0 DGND DGND NMOS  L=3e-006  W=6e-006
+MN34 A0bLAT A0LAT D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN33 A0bLAT 4 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN32 91 4 DGND DGND NMOS  L=3e-006  W=6e-006
+MN31 A0bLAT A0LAT 91 DGND NMOS  L=3e-006  W=6e-006
+MN30 4 FFWRb D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN29 4 12 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN28 64 12 DGND DGND NMOS  L=3e-006  W=6e-006
+MN27 4 FFWRb 64 DGND NMOS  L=3e-006  W=6e-006
+MN26 A0LAT A0bLAT D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN25 A0LAT 127 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN24 94 127 DGND DGND NMOS  L=3e-006  W=6e-006
+MN23 A0LAT A0bLAT 94 DGND NMOS  L=3e-006  W=6e-006
+MN22 127 FFWRb D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN21 127 11 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN20 61 11 DGND DGND NMOS  L=3e-006  W=6e-006
+MN19 127 FFWRb 61 DGND NMOS  L=3e-006  W=6e-006
+MN18 12 11 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN17 12 128 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN16 118 128 DGND DGND NMOS  L=3e-006  W=6e-006
+MN15 12 11 118 DGND NMOS  L=3e-006  W=6e-006
+MN14 128 WR D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN13 128 FFDb D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN12 27 FFDb DGND DGND NMOS  L=3e-006  W=6e-006
+MN11 128 WR 27 DGND NMOS  L=3e-006  W=6e-006
+MN10 11 12 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN9 11 3 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN8 10 3 DGND DGND NMOS  L=3e-006  W=6e-006
+MN7 11 12 10 DGND NMOS  L=3e-006  W=6e-006
+MN6 3 WR D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN5 3 A0 D99 D99 PMOS  L=3e-006  W=1.5e-005
+MN4 20 A0 DGND DGND NMOS  L=3e-006  W=6e-006
+MN3 3 WR 20 DGND NMOS  L=3e-006  W=6e-006
+*
+*Resistor fb Network, output op amp
+R4 201 OUT 10000
+R3 103 201 10000
+R2 202 REF 10000
+R1 104 202 10000
+*
+* OUTPUT AMPLIFIER
+*+PS perturbation stage output amp
+EPSC2 34 98 99 0 1
+RPSC4 98 37 0.29
+CPSC2 37 34 5.2e-010
+RPSC3 37 34 100000
+*
+*CM voltage stage output amp
+ECMC3 109 98 +IN 98 1
+RCMC2 98 81 0.29
+CCMC1 81 113 2.5e-010
+RCMC1 81 113 100000
+ECMC2 113 109 -IN 98 1
+*
+*output stage output amp
+VMO9 100 OUT 0
+VMO8 102 50 0
+VMO7 99 101 0
+ROUT6 102 100 10
+ROUT5 100 101 10
+GOUT6 102 100 95 50 0.1
+GOUT5 100 101 99 95 0.1
+*
+*Current limiting output amp
+VILIM6 97 100 0.415
+VILIM5 100 96 0.415
+DILIM6 97 95 DIODE4
+DILIM5 95 96 DIODE3
+*
+*Supply current adjustment output amp
+FADJ4 0 99 VLIM6 1
+FADJ3 50 0 VLIM5 1
+*
+*voltage limiting circuitry output amp
+VLIM6 99 92 1.96
+VLIM5 93 50 2.1
+DOUT6 93 89 DIODE6
+DOUT5 89 92 DIODE5
+*
+*Intermediate gain stage output amp
+RP6 98 95 1000
+GP5 95 98 89 98 0.001
+CP4 95 98 1e-011
+*
+*Gain stage with dominant pole = 13 Hz output amp
+GP6 89 98 52 83 1
+CP3 89 98 2.1e-007
+RP5 98 89 10000000
+*
+*-PS perturbation output amp
+EPSC1 88 98 50 0 1
+RPSC2 87 88 100000
+CPSC1 87 88 2e-008
+RPSC1 98 87 0.39
+*
+*Voltage Noise stage output amp
+VN3 86 98 0.618
+DN3 86 85 DIODE1
+RNOI6 98 85 0.0004
+VMEASC1 85 98 0
+F3 84 98 VMEASC1 1
+RNOI5 98 84 1
+*
+*Offset V, CM, PS, voltage noise introduction
+D6 202 99 DIODE2
+D5 50 202 DIODE2
+EPSRC_P1 202 82 37 98 1
+VOSC1 80 79 0.0006425
+ENOISC1 106 80 84 98 1
+ECMC1 82 106 81 98 1
+EPSRC_N1 201 117 87 98 1
+VPSRC1 117 78 5.85e-005
+*
+*Input stage output amplifier
+Q5 52 78 133 PNP
+Q6 83 79 55 PNP
+RC6 50 52 5750
+RC5 50 83 5750
+RE6 59 133 175
+RE5 59 55 175
+IBIASC1 99 59 0.001
+CC1 52 83 7e-013
+*
+*COMP AMPLIFIER 2
+*
+*Output stage comp amp 2
+VMO6 68 104 0
+VMO5 70 50 0
+VMO4 99 69 0
+ROUT4 70 68 10
+ROUT3 68 69 10
+GOUT4 70 68 65 50 0.1
+GOUT3 68 69 99 65 0.1
+*
+*Current limiting comp amp 2
+VILIM4 67 68 0.415
+VILIM3 68 66 0.415
+DILIM4 67 65 DIODE4
+DILIM3 65 66 DIODE3
+*
+*Voltage limiting circuitry comp amp 2
+VLIM4 99 62 1.5
+VLIM3 63 50 1.75
+DOUT4 63 60 DIODE6
+DOUT3 60 62 DIODE5
+*
+*Supply Current adjustment amp2
+FADJ6 50 0 VLIM3 1
+FADJ5 0 99 VLIM4 1
+*
+*Gain stage with dominant pole=0.8Hz comp amp 2
+GP4 60 98 44 56 1
+RP3 98 60 10000000
+CP2 60 98 5e-008
+*
+*Intermediate gain stage comp amp 2
+GP3 65 98 60 98 0.001
+RP4 98 65 1000
+*
+*+PS Perturbation stage comp amp 2
+EPSB1 77 98 99 0 1
+RPSB2 74 77 100000
+CPSB1 74 77 1e-017
+RPSB1 98 74 0.1
+*
+*Voltage noise stage comp amp 2
+VN2 58 98 0.623
+DN2 58 57 DIODE1
+RNOI4 98 57 0.000135
+VMEASB1 57 98 0
+F2 51 98 VMEASB1 1
+RNOI3 98 51 1
+*
+*Common mode voltage stage comp amp 2
+ECMB3 73 98 -IN 98 1
+RCMB2 98 76 0.19
+*RCMB2 98 76 0.05
+CCMB1 76 54 5e-011
+RCMB1 76 54 100000
+ECMB2 54 73 +IN 98 1
+*
+*CM, +PS, Noise introduction
+D4 +IN 99 DIODE2
+D3 50 +IN DIODE2
+ECMB1 +IN 1 76 98 1
+EPSRB1 75 49 74 98 1
+ENOISB1 1 75 51 98 1
+*
+*Bias Current Compensation
+FBIASCMPB1 +IN 0 VBIASMONB1 0.9988
+VBIASMONB1 49 48 0
+IBIASP +IN 0 8.68375u
+*
+*Input stage compare amplifier 2
+Q3 44 Rg+ 43 PNP
+Q4 56 48 45 PNP
+RC4 47 44 5000
+RC3 47 56 5000
+RE4 46 43 415
+RE3 46 45 415
+IBIASB1 99 46 0.001
+VADJB1 50 47 1.5
+*
+*COMP AMPLIFIER 1
+*Output stage comp amp 1
+VMO3 39 103 0
+VMO2 41 50 0
+VMO1 99 42 0
+ROUT2 41 39 10
+ROUT1 39 42 10
+GOUT2 41 39 36 50 0.1
+GOUT1 39 42 99 36 0.1
+*
+*Current limiting comp amp 1
+VILIM2 38 39 0.415
+VILIM1 39 35 0.415
+DILIM2 38 36 DIODE4
+DILIM1 36 35 DIODE3
+*
+*Supply current adjustment comp amp 1
+FADJ2 0 99 VLIM2 1
+FADJ1 50 0 VLIM1 1
+*
+*Voltage limiting circuitry comp amp 1
+VLIM2 99 29 1.5
+VLIM1 33 50 1.75
+DOUT2 33 32 DIODE6
+DOUT1 32 29 DIODE5
+*
+*Intermediate gain stage comp amp 1
+GP1 36 98 32 98 0.001
+RP2 98 36 1000
+*
+*Gain stage with dominant pole=0.8Hz comp amp 1
+GP2 32 98 18 16 1
+CP1 32 98 5e-008
+RP1 98 32 10000000
+*
+*-PS Perturbation stage comp amp 1
+EPSA1 31 98 50 0 1
+RPSA2 30 98 0.15
+CPSA1 31 30 4.5e-010
+RPSA1 31 30 100000
+*
+*Voltage noise stage comp amp 1
+VN1 26 98 0.623
+DN1 26 24 DIODE1
+RNOI2 98 24 0.000135
+VMEASA1 24 98 0
+F1 28 98 VMEASA1 1
+RNOI1 98 28 1
+*
+* noise, -PS offset V introduction
+D2 -IN 99 DIODE2
+D1 50 -IN DIODE2
+VPSRA_N1 23 A9 0.0001408
+EPSRA_N1 Rg- 23 98 30 1
+VOSA1 25 19 0.000158
+ENOISA1 -IN 25 28 98 1
+*
+*Bias Current Compensation
+FBIASCMPA1 -IN 0 VBIASMONA1 0.9988
+VBIASMONA1 19 2 0
+IBIASN -IN 0 8.688756u
+*
+*Input stage compare amplifier 1
+Q1 18 A9 15 PNP
+Q2 16 2 8 PNP
+RC2 21 18 5000
+RC1 21 16 5000
+RE2 22 15 415
+RE1 22 8 415
+IBIASA1 99 22 0.001
+VADJA1 50 21 1.5
+*
+.model PMOS pmos
++ (
++  Level=2 VTO=-0.738861 KP=2.7e-005 GAMMA=0.58 PHI=0.6 LAMBDA=0.0612279
++  PB=0.64 CGSO=4.3e-010 CGDO=4.3e-010 RSH=120.6 CJ=0.0005 MJ=0.5052
++  CJSW=1.349e-010 MJSW=0.2417 TOX=2e-007 LD=1.5e-007 U0=261.977
++  NSUB=4.3318e+015 TPG=-1 NSS=100000000000 DELTA=1.79192 UEXP=0.323932
++  UCRIT=65719.8 VMAX=25694 XJ=2.5e-007 NEFF=1.001 NFS=1000000000000
++ )
+.model NMOS nmos
++ (
++  Level=2 VTO=0.743469 KP=8.00059e-005 GAMMA=0.543 PHI=0.6 LAMBDA=0.0367072
++  PB=0.58 CGSO=4.3e-010 CGDO=4.3e-010 RSH=70 CJ=0.0003 MJ=0.6585
++  CJSW=8e-010 MJSW=0.2402 TOX=2e-007 LD=1.5e-007 U0=655.881 NSUB=5.36726e+015
++  TPG=1 NSS=100000000000 DELTA=2.39824 UEXP=0.157282 UCRIT=31443.8
++  VMAX=55260.9 XJ=2.5e-007 NEFF=1.001 NFS=1000000000000
++ )
+.model DIODE4  D
++ (
++  IS=5e-012
++ )
+.model DIODE3  D
++ (
++  IS=5e-012
++ )
+.model DIODE6  D
++ (
++  IS=5e-012
++ )
+.model DIODE5  D
++ (
++  IS=5e-012
++ )
+.model DIODE1  D
++ (
++  KF=2e-010 AF=1.5
++ )
+.model DIODE2  D
++ (
++  IS=1e-016
++ )
+.model PNP PNP
++ (
++  Level=1 VAF=100
++ )
+.model sw1 vswitch(Von=1.5 Voff=1.2 Ron=0.01 Roff=100000000)
+.model sw2 vswitch(Von=3 Voff=2.7 Ron=0.01 Roff=100000000)
+.ENDS AD8253
+

lib/sub/AD8310.lib

@@ -0,0 +1,106 @@
+* Copyright (c) 1998-2022 Analog Devices, Inc.  All rights reserved.
+*
+.subckt AD8310 1 2 3 4 5 6 7 8
+R1 8 CM_IN 500
+R2 1 CM_IN 500
+C1 8 1 1.4p
+E13 N022 2 GC6_out 2 1
+R5 GC1_out N016 1k
+C2 GC1_out 2 0.18p
+R6 GC2_out N017 1k
+C3 GC2_out 2 0.08p
+R7 GC3_out N018 1k
+C4 GC3_out 2 0.08p
+R8 GC4_out N019 1k
+C5 GC4_out 2 0.108p
+R9 GC5_out N020 1k
+C6 GC5_out 2 0.085p
+R10 GC6_out N021 1k
+C7 GC6_out 2 0.085p
+R25 DET_out 2 3.075k
+R26 6 N001 3k
+R27 N014 2 1k
+R28 N006 N014 3k
+E10 AMP1 2 6 N014 1000
+C22 6 2 2.1p
+I<EFBFBD>G20 DET_out 2 45<34>
+R4 1 N028 1e8
+R3 8 N028 1e8
+B_GC1 N016 2 V={I_GC1*T_GC1}*tanh((V(GC1_in)-V(OFFS))/{denom})
+B_GC2 N017 2 V={I_GC2*T_GC2}*tanh((V(GC1_out)-V(2))/{denom})
+B_GC3 N018 2 V={I_GC3*T_GC3}*tanh((V(GC2_out)-V(2))/{denom})
+B_GC4 N019 2 V={I_GC4*T_GC4}*tanh((V(GC3_out)-V(2))/{denom})
+B_GC5 N020 2 V={I_GC5*T_GC5}*tanh((V(GC4_out)-V(2))/{denom})
+B_GC6 N021 2 V={I_GC6*T_GC6}*tanh((V(GC5_out)-V(2))/{denom})
+B_D2 2 N008 I={I_D2}*(COSH((V(GC1_out)-V(2))/{denom})-1)/(COSH((V(GC1_out)-V(2))/{denom})+1)
+C8 N008 2 0.6p
+R11 DET_out N008 2k
+B_D3 2 N009 I={I_D3}*(COSH((V(GC2_out)-V(2))/{denom})-1)/(COSH((V(GC2_out)-V(2))/{denom})+1)
+C9 N009 2 0.6p
+R12 DET_out N009 2k
+B_D4 2 N010 I={I_D4}*(COSH((V(GC3_out)-V(2))/{denom})-1)/(COSH((V(GC3_out)-V(2))/{denom})+1)
+C10 N010 2 0.6p
+R13 DET_out N010 2k
+B_D5 2 N011 I={I_D5}*(COSH((V(GC4_out)-V(2))/{denom})-1)/(COSH((V(GC4_out)-V(2))/{denom})+1)
+C11 N011 2 0.6p
+R14 DET_out N011 2k
+B_D6 2 N012 I={I_D6}*(COSH((V(GC5_out)-V(2))/{denom})-1)/(COSH((V(GC5_out)-V(2))/{denom})+1)
+C12 N012 2 0.6p
+R15 DET_out N012 2k
+B_D7 2 N013 I={I_D7}*(COSH((V(GC6_out)-V(2))/{denom})-1)/(COSH((V(GC6_out)-V(2))/{denom})+1)
+C13 N013 2 0.6p
+R16 DET_out N013 2k
+B_D1a 2 N007 I={I_D1a}*(COSH(1.2*(V(GC1_in)-V(2))/{denom})-1)/(COSH(1.2*(V(GC1_in)-V(2))/{denom})+1)
+C14 N007 2 0.8p
+R17 DET_out N007 400
+R18 GC1_in 2 1e8
+B_EN GC1_in 2 V={Ain}*(V(8)-V(1))*(V(7)-V(2)>2.3)
+B1 5 2 I=(8m-0.05u)*(V(7)-V(2)>2.3)*(V(5)-V(2)>2.6)*(V(5)-V(2)<=7.5)+0.05u
+B_GC7 OFFS 2 V=15m*tanh((V(INT_FLT)-V(2))/15m)
+B2 N001 2 V=(V(DET_out)<=V(REF_p66))*(V(DET_out)-V(REF_p66))+V(REF_p66)-V(2)
+B3 N006 2 V=(V(AMP2)<=V(REF_4p75))*(V(AMP2)-V(REF_4p75))+V(REF_4p75)-V(2)
+B4 AMP2 2 V=(V(AMP1)>=V(REF_p4))*(V(AMP1)-V(REF_p4))+V(REF_p4)-V(2)
+R19 AMP1 2 100k
+R20 AMP2 2 100k
+B_D1b 2 N007 I={I_D1b}*(COSH(0.25*(V(GC1_in)-V(2))/{denom})-1)/(COSH(0.25*(V(GC1_in)-V(2))/{denom})+1)
+B_D1c 2 N007 I={I_D1c}*(COSH(45m*(V(GC1_in)-V(2))/{denom})-1)/(COSH(45m*(V(GC1_in)-V(2))/{denom})+1)
+R30 7 2 85.7k
+XU1 N006 N004 VCC_INT 2 N004 level2 Avol=1Meg GBW=25Meg Slew=100Meg ilimit=5m rail=0 Vos=0 phimargin=45 En=0 Enk=0 In=0 Ink=0 Rin=500Meg
+R33 4 N004 0.05
+R31 INT_FLT N022 7.1e7
+R32 2 OFFS 1e8
+C18 INT_FLT 2 33p
+S1 5 VCC_INT CTRL 2 vcc_switch
+B_OFLT1 CTRL 2 V=(V(7)-V(2)>2.3)*(V(5)-V(2)>2.6)*(V(5)-V(2)<=7.5)
+R24 VCC_INT 2 1e8
+B_0p4 REF_p4 2 V=0.4*(V(CTRL)>0.5)
+B_0p66 REF_p66 2 V=0.66*(V(CTRL)>0.5)
+B_4p75 REF_4p75 2 V=4.75*(V(CTRL)>0.5)
+V1 CM_IN 2 3.2578
+V5 3 INT_FLT 1.75
+.param I_GC1=998.692u
+.param I_GC2=904.1875u
+.param I_GC3=903.975u
+.param I_GC4=801.8u
+.param I_GC5=896.75u
+.param I_GC6=977.5u
+.param T_GC1=TEMP+287.775
+.param T_GC2=TEMP+287.334488
+.param T_GC3=TEMP+287.7372
+.param T_GC4=TEMP+301.1642
+.param T_GC5=TEMP+301.1642
+.param T_GC6=TEMP+273.2804
+.param I_D1a=7.132n*TEMP + 27.5784u
+.param I_D1b=4.7n*TEMP + 26.8338u
+.param I_D1c=9.564n*TEMP + 31.8017u
+.param I_D2  =7.76n*TEMP + 29.8147u
+.param I_D3  =.9885n*TEMP + 29.70868u
+.param I_D4  =.9885n*TEMP + 29.70868u
+.param I_D5  =3.954n*TEMP + 29.6286u
+.param I_D6  =7.908n*TEMP + 29.5219u
+.param I_D7  =37.46n*TEMP + 57.0747u
+.param denom=172.5u*(TEMP+274.15)
+.param Ain=1.58
+.model vcc_switch SW(Ron=1m, Roff=1e9, Vt=0.5)
+.lib UniversalOpAmp2.lib
+.ends AD8310

lib/sub/AD8422.lib

@@ -0,0 +1,196 @@
+* AD8422 SPICE Macro-model
+* Description: Amplifier
+* Generic Desc: 36V Bipolar Low Power, Rail to Rail Output, High Performance In-Amp
+* Developed by: ADI - LPG
+*
+* Revision History:
+* 1.0 (05/2013) - OQ (Initial Rev)
+* 2.0 (1/2015) - SH (Added missing .ENDS statement, improved compatibility, added parameters to model, organized netlist)
+* Copyright 2015 by Analog Devices.
+*
+* Refer to http://www.analog.com/Analog_Root/static/techSupport/designTools/spiceModels/license/spice_general.html for License Statement. Use of this model
+* indicates your acceptance with the terms and provisions in the License Statement.
+*
+* BEGIN Notes:
+*
+* Not Modeled:
+*   Temperature effects
+*   PSRR
+*
+* Parameters Modeled Include:
+*   Gain error, Vos, Ibias
+*   Bandwidth
+*   Voltage and current noise with 1/f noise
+*   CMRR vs frequency
+*   Supply current incl preamp and output load currents
+*   Output clamp vs load
+*   Input range and internal voltage limitations
+*   Slew Rate
+*   Pulse response vs cap load
+*   Input impedance
+*
+* Typical Specifications from <20>15V Table Used in Model
+*
+* END Notes
+*
+* Node Assignments
+*                inverting input
+*                |   RG
+*                |   |    RG
+*                |   |    |  non_inverting input
+*                |   |    |    |    negative supply
+*                |   |    |    |     |    ref
+*                |   |    |    |     |    |   output
+*                |   |    |    |     |    |    |     positive supply
+*                |   |    |    |     |    |    |     |
+.SUBCKT AD8422  IN-  RG-  RG+  IN+  -Vs   REF  VOUT  +Vs
+*** INPUT STAGE ***
+FIBIAS1 IN- 0 POLY(1) V21 600.0E-12 9.0E-5
+H3 4 IN- V24 6.645
+G4 0 5 4 0 2.64E-3
+R10 5 0 378.788
+D7 5 9 D
+D8 10 5 D
+V7 10 VNEGx 1.24
+V8 VPOSx 9 1.24
+E8 22 0 5 0 1
+FIBIAS2 IN+ 0 POLY(1) V23 400.0E-12 9.0E-5
+VOSI 7 IN+ -25.0E-6
+G5 0 8 7 0 2.64E-3
+R11 8 0 378.788
+D9 8 9 D
+D10 10 8 D
+E9 15 0 8 0 1
+G1 IN+ 0 POLY(2) (IN+, VMID) (IN+, IN-) 0 2.5E-12 5.0E-12
+G2 IN- 0 POLY(2) (IN-, VMID) (IN-, IN+) 0 2.5E-12 5.0E-12
+CCM1 IN+ 0 1.0E-12
+CCM2 IN- 0 1.0E-12
+CDIFF IN+ IN- 1.5E-12
+*
+*** PREAMPLIFIER STAGE ***
+GN1 Pos_Fdbk 16 15 16 778.8E-6
+VSH1 RG+ 16 -0.474
+C4 RG+ 0 3.688E-12
+R6 RG+ 17 9802.94
+VCS2 noninverting_out 17 0
+I1 VBIAS Pos_Fdbk 20.0E-6
+R23 Pos_Fdbk VBIAS 1E9
+G7 0 18 VBIAS Pos_Fdbk 1
+R8 18 0 10E9
+C2 noninverting_out Pos_Fdbk 10.19E-12
+R25 19 18 100
+D5 19 20 D
+D6 21 19 D
+V5 21 VNEGx 0.19
+V6 VPOSx 20 0.19
+GN2 Inv_Fdbk 23 22 23 778.8E-6
+VSH2 RG- 23 -0.474
+C3 RG- 0 3.692E-12
+R5 RG- 24 9802.94
+VCS1 Inverting_Out 24 0
+I2 VBIAS Inv_Fdbk 20.0E-6
+R18 VBIAS Inv_Fdbk 1E9
+G6 0 25 VBIAS Inv_Fdbk 1
+R7 25 0 10E9
+C1 Inverting_Out Inv_Fdbk 10.31E-12
+R24 26 25 100
+D3 26 20 D
+D4 21 26 D
+V1 VBIAS +Vs 20
+D40 Inv_Fdbk VBIAS D
+D41 Pos_Fdbk VBIAS D
+D42 VBIAS Inv_Fdbk D
+D43 VBIAS Pos_Fdbk D
+*
+*** SUBTRACTOR STAGE ***
+E4 Inverting_Out 0 26 0 1
+E5 noninverting_out 0 19 0 1
+R1 31 sub_neg 10000.0
+R2 sub_neg 24 9999.05
+R3 sub_pos 17 9998.85
+R4 REF sub_pos 10000.0
+VCS3 sub_out 31 0
+G8 0 sub_out sub_pos sub_neg 1E3
+R9 sub_out 0 10E6
+D13 REF 38 D
+D14 39 REF D
+V13 39 VNEGx 0.3
+V14 VPOSx 38 0.3
+D15 sub_pos 36 D
+D16 37 sub_pos D
+V15 37 VNEGx 0.05
+V16 VPOSx 36 1.05
+R22 sub_out_cl sub_out 100
+D1 sub_out_cl 45 D
+D2 46 sub_out_cl D
+H4 VX sub_out_cl V25 71.74
+*
+*** SLEW RATE AND OUTPUT STAGE ***
+G11 0 VZ VX VY 1e-3
+R26 VZ 0 100E6
+D21 40 VZ DSLEWP
+D22 40 0 DSLEWN
+G12 0 VY VZ 0 40.0E-6
+C7 VY 0 1E-9
+R30 VY 0 10e9
+G9 0 41 VY 42 1
+R12 41 0 1e10
+C5 41 0 56.15E-9
+G10 0 42 41 0 1.0E-3
+R17 42 0 1000.0
+C6 42 0 87.03E-12
+R27 43 42 0.1
+D11 43 45 D
+D12 46 43 D
+H1 VPOSx 45 POLY(1) VSRC 0.15 0 3E3
+H2 46 VNEGx POLY(1) VSNK 0.15 0 3E3
+VOSO VOUT 43 157.0E-6
+*
+*** NOISE ***
+V24 60 0 0
+R19 60 0 .0166
+D17 61 60 DN
+V18 61 0 0.2
+V25 64 0 0
+R20 64 0 .0166
+D19 65 64 DN
+V20 65 0 0.209
+V21 70 0 0
+R28 70 0 .0166
+D38 71 70 DIN
+V22 71 0 0.2
+V23 72 0 0
+R29 72 0 .0166
+D39 73 72 DIN
+V27 73 0 0.2
+*
+*** SUPPLY CURRENT AND BIASING ***
+GSUP +Vs -Vs POLY(1) (+Vs,-Vs) 268E-6 1.0E-6
+FSUP1 56 0 VOSO -1
+D24 90 +Vs DZ
+D25 -Vs 52 DZ
+D20 90 95 D
+VSRC 95 56 0
+D23 55 52 D
+VSNK 56 55 0
+FSUP2 57 0 VCS1 1
+D26 90 57 D
+D27 57 52 D
+FSUP3 58 0 VCS2 1
+D30 90 58 D
+D31 58 52 D
+FSUP4 59 0 VCS3 1
+D34 90 59 D
+D35 59 52 D
+E10 VPOSx 0 +Vs 0 1
+E11 VNEGx 0 -Vs 0 1
+EMID VMID 0 POLY(2) (+Vs, 0) (-Vs, 0) 0 0.5 0.5
+*
+*
+.MODEL D D(IS=1e-15 N=0.1 RS=1e-3)
+.MODEL DN D(IS=1e-15 KF=3.142E-7)
+.MODEL DIN D(IS=1e-15 KF=6.221E-6)
+.MODEL DZ D(IS=1e-15 BV=50 RS=1)
+.MODEL DSLEWP D(IS=1e-15 BV=19.5 RS=0.1)
+.MODEL DSLEWN D(IS=1e-15 BV=19.5 RS=0.1)
+.ENDS AD8422

lib/sub/AD8475.lib

@@ -0,0 +1,147 @@
+* Copyright (c) 1998-2022 Analog Devices, Inc.  All rights reserved.
+*
+.subckt AD8475 -IN0.8X -IN0.4X +VS VOCM +OUT -OUT -VS +IN0.4X +IN0.8X
+R1 N004 +IN0.8X 1.25e3
+R2 N016 -IN0.8X 1.25e3
+R17 +IN0.8X +IN0.4X 1.25e3
+R18 -IN0.8X -IN0.4X 1.25e3
+VISENSE2 VX2 N131 0
+R14 N131 N016 1.00077741736e3
+VISENSE1 VX1 N130 0
+R15 N130 N004 1.00022262661e3
+DC1 N004 N110 DX
+V6 +VS N110 1.2
+DC2 N111 N004 DX
+V7 N111 -VS 0.4
+G1 N013 N018 N004 N016 -.034349
+R16 N013 N018 1e9
+G3 0 VX1 VMID N013 .253192
+G4 0 VX2 VMID N018 .253192
+C1 N009 N013 3.2e-12
+C2 N023 N018 3.2e-12
+R19 VX1 N009 200
+R20 VX2 N023 200
+R11 VX1 0 1e9
+R12 0 VX2 1e9
+E5_VOCM_ERROR N032 VOCM VOCM 0 .2e-3
+R7 +VS N032 200e3
+R8 N032 -VS 200e3
+V3 N031 N032 -10e-6
+E1_balance N030 N031 +OUT -OUT 99.7927e-6
+R5 N015 VX2 1e6
+R6 VX1 N015 1e6
+G2 0 N018 N015 N030 .00015
+R9 N018 0 1e9
+C3 N018 0 1e-18
+G5 0 N013 N015 N030 .00015
+R10 N013 0 1e9
+C4 N013 0 1e-18
+V_Noise N001 0 0
+R13 N001 0 .0166
+DN1 N002 N001 DN
+VN1 0 N002 0.2
+H1_Noise -OUT N008 V_Noise -2.5
+H2_Noise +OUT N027 V_Noise 2.5
+R34 N040 0 2
+C11 N040 N039 1e-9
+R35 8 0 2
+C12 8 N041 1e-9
+E11 N039 0 N042 0 1
+R36 N040 N039 1000
+E12 N041 0 N040 0 1
+R37 8 N041 1000
+R38 N044 0 2
+C13 N044 N043 1e-9
+R39 6 0 2
+C14 6 N045 1e-9
+E13 N043 0 N042 0 1
+R40 N044 N043 1000
+E14 N045 0 N044 0 1
+R41 6 N045 1000
+E15 N012 N011 6 0 -8e-3
+E16 N026 N025 8 0 8e-3
+R42 +IN0.4X N042 1e6
+R43 N042 -IN0.4X 1e6
+R44 +IN0.8X N042 1e6
+R45 N042 -IN0.8X 1e6
+R23 N034 0 46
+C5 N034 N033 1e-9
+R27 4 0 46
+C8 4 N035 1e-9
+E4 N033 0 +VS -VS 1
+R21 N034 N033 1000
+E5 N035 0 N034 0 1
+R22 4 N035 1000
+R24 N037 0 46
+C6 N037 N036 1e-9
+R25 2 0 46
+C7 2 N038 1e-9
+E3 N036 0 +VS -VS 1
+R26 N037 N036 1000
+E6 N038 0 N037 0 1
+R28 2 N038 1000
+E7 N011 N010 2 0 -8.173e-3
+E8 N025 N024 4 0 8.173e-3
+I1 +VS -VS 3.2e-3
+GIsy +VS -VS VALUE={I(V_current_sense+)-I(V_current_sense-)}
+*Fsup1 N100 0 POLY(4) V_Current_Sense+ V_Current_Sense- VISENSE1 VISENSE2 0 -1 -1 1 1
+*Dsup1 +VS N101 DX
+*DZsup1 N100 N101 DZ
+*Dsup2 N102 -VS DX
+*DZsup2 N102 N100 DZ
+EMID VMID 0 POLY(2) +VS 0 -VS 0 0 0.5 0.5
+EVP VP 0 +VS 0 1
+EVN 0 VN 0 -VS 1
+G10 0 VZ1 VX1 VY1 1e-3
+RZ1 0 VZ1 1e9
+DSLEW1 VC1 0 DZ
+DSLEW2 VC1 VZ1 DZ
+GZ1 0 VY1 VZ1 0 1e-6
+C10 0 VY1 1e-12
+R33 VY1 0 1e9
+E9 N006 0 VY1 0 1
+G11 0 VZ2 VX2 VY2 1e-3
+RZ2 0 VZ2 1e9
+DSLEW3 VC2 0 DZ
+DSLEW4 VC2 VZ2 DZ
+GZ2 0 VY2 VZ2 0 1e-6
+C9 0 VY2 1e-12
+R31 VY2 0 1e9
+E10 N020 0 VY2 0 1
+VOS- N010 N006 27.158e-6
+VOS+ N024 N020 -27.158e-6
+V_Current_Sense- N008 N005 0
+V_Current_Sense+ N027 N022 0
+D1 N021 N019 DX
+D2 N028 N021 DX
+D3 P001 N007 DX
+D4 N007 P002 DX
+V1 P003 N019 .57837
+V2 N028 N029 .58737
+V4 N003 P002 .57837
+V5 P001 N014 .58737
+G8 0 N120 N007 N005 1
+R50 N120 0 1e9
+C50 N120 0 1.18e-9
+G9 0 N005 N120 0 8.33e-3
+R51 N005 0 120
+C51 N005 0 10e-12
+G12 0 N121 N021 N022 1
+R52 N121 0 1e9
+C52 N121 0 1.18e-9
+G13 0 N022 N121 0 8.33e-3
+R53 N022 0 120
+C53 N022 0 10e-12
+G6 0 N007 N012 0 1e-3
+G7 0 N021 N026 0 1e-3
+R29 N007 0 1e3
+R30 N021 0 1e3
+H1 N029 VN V_Current_Sense+ 13.1
+H2 VP P003 V_Current_Sense+ -17.42
+H3 N014 VN V_Current_Sense- 13.1
+H4 VP N003 V_Current_Sense- -17.42
+*R32 NC 0 1e6
+.model DX D(IS=1e-15 RS=.1)
+.model DN D(IS=1e-15 KF=2.1e-3)
+.model DZ D(IS=1e-15 BV=24.5)
+.ends AD8475

lib/sub/AD8541.lib

@@ -0,0 +1,125 @@
+* AD8541 SPICE Macro-model Typical Values
+* Function: CMOS Rail-to-Rail General-Purpose Amplifier
+* Developed by: TAM / ADSC
+* Revision History:
+* 1.0 (06/1998)
+* 1.1 (07/2021) -HAG
+* Copyright 2021 by Analog Devices
+*
+* Refer to http://www.analog.com/Analog_Root/static/techSupport/designTools/spiceModels/license/spice_general.html for License Statement. Use of this model
+* indicates your acceptance of the terms and provisions in the License Statement.
+*
+* BEGIN Notes:
+*
+* Parameters modeled include: Vos, Ibias, Ios, Input CM limits, CMRR, Supply Current, Output Current, Voltage & Current Noise,
+*                             Open-loop Gain and Phase, GBWP, Closed-loop Output Impedance, Large and Small Signal Transient Response, Slew Rate,
+*
+* Not modeled: Full-power BW, Settling time, Over-temperature characteristics (modeled on 25degC only), VS=2.7V/3.0V
+*
+* Tested on LTSpice
+*
+* END Notes
+*
+* Node Assignments
+*				noninverting input
+*				|	inverting input
+*				|	|	 positive supply
+*				|	|	 |	 negative supply
+*				|	|	 |	 |	 output
+*				|	|	 |	 |	 |
+*				|	|	 |	 |	 |
+.SUBCKT AD8541	1	2	99	50	45
+*
+* INPUT STAGE
+*
+*Note: min length for MOS level 2 = 2E-6
+*
+M1   4  1 8 8 PIX L=2.0E-6 W=98E-6
+M2   6  7 8 8 PIX L=2.0E-6 W=98E-6
+M3  11  1 10 10 NIX L=2.0E-6 W=98E-6
+M4  12  7 10 10 NIX L=2.0E-6 W=98E-6
+RC1  4 50 20E3
+RC2  6 50 20E3
+RC3 99 11 20E3
+RC4 99 12 20E3
+C1   4  6 1.5E-12
+C2  11 12 1.5E-12
+I1  99  8 1.77E-5
+I2  10 50 1.77E-5
+V1  99  9 0.2
+V2  13 50 0.2
+D1   8  9 DX
+D2  13 10 DX
+EOS  7  2 POLY(3) (22,98) (73,98) (81,0) 1.0E-3 1 1 1
+IOS  1  2 0.05E-12
+GB1 1 50 POLY(3) (8,1) (4,1) (50,1) 0.5E-12 1E-12 1E-12 1E-12
+GB2 7 50 POLY(3) (8,7) (6,7) (50,7) 0.5E-12 1E-12 1E-12 1E-12
+GB3 1 50 POLY(3) (10,1) (11,1) (50,1) 0.5E-12 1E-12 1E-12 1E-12
+GB4 7 50 POLY(3) (10,7) (12,7) (50,7) 0.5E-12 1E-12 1E-12 1E-12
+*
+* CMRR 64dB, ZERO AT 20kHz
+*
+ECM1 21 98 POLY(2) (1,98) (2,98) 0 .5 .5
+RCM1 21 22 63E3
+CCM1 21 22 30E-12
+RCM2 22 98 50
+*
+* PSRR=68dB, ZERO AT 200Hz
+*
+RPS1 70  0 1E6
+RPS2 71  0 1E6
+CPS1 99 70 1E-5
+CPS2 50 71 1E-5
+EPSY 98 72 POLY(2) (70,0) (0,71) 0 1 1
+RPS3 72 73 1.59E6
+CPS3 72 73 500E-12
+RPS4 73 98 25
+*
+* VOLTAGE NOISE REFERENCE OF 35nV/rt(Hz)
+*
+VN1 80 0 0
+RN1 80 0 16.45E-3
+HN  81 0 VN1 37
+RN2 81 0 1
+*
+* INTERNAL VOLTAGE REFERENCE
+*
+VFIX 90 98 DC 1
+S1   90 91 (50,99) VSY_SWITCH
+VSN1 91 92 DC 0
+RSY  92 98 1E3
+EREF 98  0 POLY(2) (99,0) (50,0) 0 .5 .5
+GSY  99 50 POLY(1) (99,50) 0 -32E-6
+*
+* ADAPTIVE GAIN STAGE
+* AT Vsy>+4.2, AVol=45  V/mv
+* AT Vsy<+3.8, AVol=450 V/mv
+*
+G1  98 30 POLY(2) (4,6) (11,12) 0 2.5E-5 2.5E-5
+VR1 30 31 DC 0
+H1  31 98 POLY(2) VR1 VSN1 0 5.45E6 0 0 49.05E9
+CF  45 30 19E-12
+D3  30 99 DX
+D4  50 30 DX
+*
+* OUTPUT STAGE
+*
+M5  45 46 99 99 POX L=2E-6 W=0.98E-3
+M6  45 47 50 50 NOX L=2E-6 W=0.98E-3
+EG1 99 46 POLY(1) (98,30) 1.170 1
+EG2 47 50 POLY(1) (30,98) 1.170 1
+*
+* MODELS
+*
+.MODEL POX PMOS (LEVEL=2,KP=20E-6,VTO=-1,LAMBDA=0.067)
+.MODEL NOX NMOS (LEVEL=2,KP=20E-6, VTO=1,LAMBDA=0.067)
+.MODEL PIX PMOS (LEVEL=2,KP=20E-6,VTO=-0.1,LAMBDA=0.01,KF=1E-31)
+.MODEL NIX NMOS (LEVEL=2,KP=20E-6, VTO=0.1,LAMBDA=0.01,KF=1E-31)
+.MODEL DX D(IS=1E-14)
+.MODEL VSY_SWITCH VSWITCH(ROFF=100E3,RON=1,VOFF=-4.2,VON=-3.5)
+
+.ENDS AD8541
+
+
+
+

lib/sub/AD8676.lib

@@ -0,0 +1,72 @@
+* Copyright (c) 1998-2022 Analog Devices, Inc.  All rights reserved.
+*
+.subckt AD8676 1 2 3 4 5
+C1 N005 N004 {Cf}
+A1 N008 0 N010 N010 N010 N010 N004 N010 OTA g={Ga} Iout={Islew} en=2.8n enk=4.5 Vhigh=1e308 Vlow=-1e308
+D5 N005 3 X1
+D6 4 N005 X2
+G2 0 N010 3 0 500<30>
+R4 N010 0 1k Noiseless
+G3 0 N010 4 0 500<30>
+S1 N004 N010 4 3 SD
+C4 N002 0 {5p*x} Rpar=1k Noiseless
+C11 3 2 950f Rpar=1T Noiseless
+C18 2 1 8.65p Rpar=1T Noiseless
+D8 3 1 1nA m=0.5
+C3 3 5 250f
+C7 5 4 250f
+A2 2 1 0 0 0 0 0 0 OTA g=0 in=.1p ink=1.5k incm=.1p incmk=1.5k
+֧A3 N005 3 4 N004 N010 Gm1={Gb} Ibias={Isy}
+C2 2 4 950f Rpar=1T Noiseless
+C5 3 1 950f Rpar=1T Noiseless
+C6 1 4 950f Rpar=1T Noiseless
+D1 3 2 1nA m=0.5
+B3 N002 0 I=2m*Dnlim(Uplim(V(2),V(3)-2, 0.1), V(4)+2, 0.1)+100n*V(2)
+B4 0 N002 I=2m*(Vos+V(PSR)+Dnlim(Uplim(V(1),V(3)-2, 0.1), V(4)+2, .01)+100n*V(1))
+D3 N004 N010 IO
+R5 5 N005 22
+L1 N002 N006 {5<>*x}
+L2 N007 N008 {5<>*x}
+C10 N008 0 {5p*x} Rpar=1k Noiseless
+C8 N006 0 {10p*x}
+L3 N006 N007 {5<>*x}
+C12 N007 0 {10p*x}
+G1 0 PSR VS 0 1<>
+R3 PSR 0 1 Noiseless
+G4 0 VS 3 4 1m
+C13 VS 0 1f Rpar=1k Noiseless
+.param Cf = 6p
+.param Ro       =  5k
+.param Avol     =  4Meg
+.param RL       =  2k
+.param AVmid =  10
+.param FmidA = 1Meg
+.param Zomid  = 5
+.param FmidZ  = 1Meg
+.param Vslew  = 2.5Meg
+.param Vmin = 2
+.param Roe = 1/(1/RL+1/Ro)
+.param Gb = ((FmidZ/FmidA)*(Roe/(AVmid*Zomid))-1)/Roe
+.param Ga = 2*pi*FmidZ*Cf/(Zomid*gb)
+.param RH = Avol/(Ga*Gb*Roe)
+.param Islew = Vslew*Cf*(1+1/(Roe*Gb))
+.model X1 D(Ron=1m Roff=1G Vfwd=-50m epsilon=10m Noiseless)
+.model X2 D(Ron=1m Roff=1G Vfwd=20m epsilon=10m Noiseless)
+.model SD SW(Ron=10m Roff={RH} Vt={-Vmin-100m} Vh=-.1 Noiseless)
+.model 1nA D(Ron=500Meg epsilon=.5 Ilimit=1n Noiseless)
+.model IO  D(Ron=2k Roff=1T Vfwd={Isc/Gb} Vrev={Isc/Gb} revepsilon=.1 epsilon=.1 Noiseless)
+.param X=.6
+.param Vos=-18u
+.param Isc=37.1m
+.param Isy=2.7m
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param Rej_dc_PSRp=120
+.param R1a_PSRp=1Meg
+.param fz1_PSRp=1k
+.param fp1_PSRp=10Meg
+.ends AD8676

lib/sub/ADA4077.lib

@@ -0,0 +1,376 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4077 1 2 3 4 5
+R1 Inn1 2 {Rser} Temp=-273.15
+C1 Clamp COM {Cfp1}
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}* V(Aol1,COM), {Isink}-V(OL,COM)* 0.2, 20m), {Isrc}+V(OL,COM)*0.2, 20m)
+A1 Inn2 Inp2 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k
+G2 0 VCC_Int N045 0 1
+G3 0 Vee_Int N058 0 1
+R6 VCC_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N041 VCC_Int 1Meg Temp=-273.15
+R9 N041 Vee_Int 1Meg Temp=-273.15
+C2 N041 0 1
+E1 COM 0 N041 0 1
+R10 COM 0 1Meg Temp=-273.15
+R25 Aol2 COM 1Meg Temp=-273.15
+C7 Aol2 COM {Cfp2}
+G7 COM Aol2 Clamp COM 1<>
+Cinp COM Inp1 {Ccm}
+Cinn Inn1 COM {Ccm}
+Cdiff Inp1 Inn1 {Cdiff}
+Rinn Inn1 COM {Rcm} Temp=-273.15
+Ibp Inp1 COM {Ib}
+Ibn Inn1 COM {Ib-Ios}
+R26 N015 N018 1k Temp=-273.15
+B3 N018 N015 I=1m*{Vos+Drift* (Temp-25)}
+G6 N022 Inp2 N032 N036 1m
+R28 Inp2 N022 1k Temp=-273.15
+C8 N032 N033 {C1a_PSRp}
+G8 COM N033 VCC_Int COM {G1_PSRp}
+R29 N033 COM 1 Temp=-273.15
+R30 N032 N033 {R1a_PSRp} Temp=-273.15
+R31 N032 COM {R2a_PSRp} Temp=-273.15
+G12 N016 N017 N007 COM 1m
+R39 N017 N016 1k Temp=-273.15
+Vimon N014 5 0
+BIq N045 N058 I=IF(V(EN,COM)>0.5, {Iq_on},{Iq_off})
+G1 COM N018 Inp1 COM 1k
+G14 COM Inn2 Inn1 COM 1k
+R5 COM N018 1m Temp=-273.15
+R43 COM Inn2 1m Temp=-273.15
+C12 Inn2 COM 1p
+C13 N018 COM 1p
+DIP N034 Inp2 DI
+DIN Inp2 N035 DI
+C14 VCC_Int 0 1n
+C15 Vee_Int 0 1n
+DOP Vsatp N013 DO
+DON N013 Vsatn DO
+DGP N037 Clamp DGP
+DGN Clamp N038 DGN
+S2 Cap2R Cap2L OL COM OL
+F1 COM OLp VGP 1m
+A4 OLp OLn COM COM COM COM OL COM OR Ref=100u Vh=50u Trise=10n
+R44 OLp COM 1k
+F2 COM OLn VGN -1m
+R45 OLn COM 1k
+C16 OLp COM 1n
+C17 OLn COM 1n
+DOI N013 N014 LIM
+COI N014 N013 1p
+G15 COM Vsatp Vsatpi COM 1
+R48 Vsatp COM 1
+C21 Vsatp COM 1n
+G16 COM Vsatn Vsatni COM 1
+R49 Vsatn COM 1
+C22 Vsatn COM 1n
+S3 3 N018 N018 3 ESDI
+S4 3 Inn2 Inn2 3 ESDI
+S5 N018 4 4 N018 ESDI
+S6 Inn2 4 4 Inn2 ESDI
+C24 N013 Vsatp 1f
+C25 N013 Vsatn 1f
+S7 3 5 5 3 ESDO
+S8 5 4 4 5 ESDO
+C26 OL COM 1p
+B6 COM N039 I=1m*({Zo_max}* {Iscp}+V(3,COM)) Rpar=1k Cpar=1n
+G18 COM GRp N039 COM 1
+R51 GRp COM 1
+G19 COM GRn N040 COM 1
+R52 GRn COM 1
+B7 COM N040 I=1m*({Zo_max}* {Iscn}+V(4,COM)) Rpar=1k Cpar=1n
+VGP N037 GRp 0
+VGN N038 GRn 0
+G17 COM Vs 3 4 1m
+R50 Vs COM 1k Temp=-273.15
+A5 Vs COM COM COM COM COM VminGD COM SCHMITT Vt={Vsmin-50m} Vh=10m Trise=5n
+A6 Vs COM COM COM COM VmaxGD COM COM SCHMITT Vt={Vsmax-50m} Vh=10m Trise=5n
+A7 VminGD COM COM COM VmaxGD COM EN COM AND Trise=5n
+R53 EN COM 1G Temp=-273.15
+R54 VmaxGD COM 1G Temp=-273.15
+R55 COM VminGD 1G Temp=-273.15
+S9 COM Aol1 EN COM ENA
+S10 COM Clamp EN COM ENA
+Rx N013 N019 {Rx_Zo} Temp=-273.15
+Rdummy N013 COM {Rdummy_Zo} Temp=-273.15
+G20 COM Cap2L N025 N013 {G1_Zo}
+R3 Cap2L COM 1 Temp=-273.15
+R4 Cap2L Cap2R {R1a_Zo} Temp=-273.15
+R17 Cap2R COM {R2a_Zo} Temp=-273.15
+G21 COM N008 Cap2R COM {G2_Zo}
+C20 Cap2R Cap2L {C1a_Zo}
+R56 N010 COM 1 Temp=-273.15
+R57 N010 N011 {R2c_Zo} Temp=-273.15
+R58 N011 N023 {R1c_Zo} Temp=-273.15
+C23 COM N023 {C1c_Zo}
+Gb3 COM N012 N011 COM 1
+R59 N019 COM 1 Temp=-273.15
+B8 COM N019 I=Uplim(Dnlim({G4_Zo}*V(ZoF,COM), {IZon}, 25m), {IZop}, 25m)
+R60 N012 COM 1 Temp=-273.15
+R61 N012 ZoF {R1d_Zo} Temp=-273.15
+R62 ZoF COM {R2d_Zo} Temp=-273.15
+C27 ZoF N012 {C1d_Zo}
+R63 N008 COM 1 Temp=-273.15
+R64 N008 N009 {R1b_Zo} Temp=-273.15
+R65 N009 COM {R2b_Zo} Temp=-273.15
+G22 COM N010 N009 COM {G3_Zo}
+C28 N009 N008 {C1b_Zo}
+R11 N024 COM 1Meg Temp=-273.15
+C29 N024 COM {Cfp2}
+G24 COM N024 Aol2 COM 1<>
+R16 N025 COM 1Meg Temp=-273.15
+C30 N025 COM {Cfp2}
+G25 COM N025 N024 COM 1<>
+C3 N002 N001 {C1a_CMR}
+G4 COM N001 Inp1 COM {G1_CMR}
+R13 N002 N001 {R1a_CMR} Temp=-273.15
+R14 N002 COM {R2a_CMR} Temp=-273.15
+R15 N003 N004 {R1b_CMR} Temp=-273.15
+R18 N004 COM {R2b_CMR} Temp=-273.15
+G5 COM N005 N004 COM {G2_CMR}
+C4 N004 N003 {C1b_CMR}
+R19 N003 COM 1
+G23 COM N003 N002 COM 1
+R20 N005 N006 {R1c_CMR} Temp=-273.15
+R21 N006 COM {R2c_CMR} Temp=-273.15
+G26 COM N007 N006 COM {G3_CMR}
+C5 N006 N005 {C1c_CMR}
+R22 N005 COM 1 Temp=-273.15
+R23 N007 COM 1
+R12 N001 COM 1 Temp=-273.15
+C6 N027 N026 {C1a_PSRn}
+G9 COM N026 VEE_Int COM {G1_PSRn}
+R32 N026 COM 1 Temp=-273.15
+R33 N027 N026 {R1a_PSRn} Temp=-273.15
+R34 N027 COM {R2a_PSRn} Temp=-273.15
+C9 N029 N028 {C1b_PSRn}
+R35 N028 COM 1 Temp=-273.15
+R40 N029 N028 {R1b_PSRn} Temp=-273.15
+R41 N029 COM {R2b_PSRn} Temp=-273.15
+G10 COM N030 N029 COM {G2_PSRn}
+R42 N036 COM 1 Temp=-273.15
+G13 COM N028 N027 COM 1
+C11 N031 N030 {C1c_PSRn}
+R66 N030 COM 1 Temp=-273.15
+R67 N031 N030 {R1c_PSRn} Temp=-273.15
+R68 N031 COM {R2c_PSRn} Temp=-273.15
+G27 COM N036 N031 COM {G3_PSRn}
+A8 COM COM COM COM COM COM N052 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={fA}/(freq**{M})
+R36 N046 COM 1 Temp=-273.15
+R37 N048 N049 {R1a_E_n} Temp=-273.15
+R38 N049 COM {R2a_E_n} Temp=-273.15
+G11 COM N050 N049 COM {G1_E_n}
+C10 N049 N048 {C1a_E_n}
+R69 N050 COM 1 Temp=-273.15
+R70 N050 N051 {R1a_E_n} Temp=-273.15
+R71 N051 COM {R2a_E_n} Temp=-273.15
+G28 COM N054 N051 COM {1u*G1_E_n}
+C31 N051 N050 {C1a_E_n}
+R72 N054 COM 1Meg Temp=-273.15
+C32 N054 COM {CEn}
+G29 COM N055 N054 COM 1<>
+R73 N055 COM 1Meg Temp=-273.15
+G30 COM E_np N056 COM 1<>
+R74 E_np COM 1Meg Temp=-273.15
+R75 N052 COM 100k Temp=-273.15
+G31 COM N046 N053 COM 1
+R76 N046 N047 {R1a_E_n} Temp=-273.15
+R77 N047 COM {R2a_E_n} Temp=-273.15
+G32 COM N048 N047 COM {G1_E_n}
+C33 N047 N046 {C1a_E_n}
+R78 N048 COM 1 Temp=-273.15
+A9 COM N052 COM COM COM COM N053 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={Enp}
+R79 N053 COM 100k Temp=-273.15
+C35 E_np COM 15f
+G33 COM N056 N055 COM 1<>
+R80 N056 COM 1Meg Temp=-273.15
+R81 N016 N015 1k Temp=-273.15
+G34 N015 N016 E_np COM 1m
+B2 COM N042 I=1m*(V(3,COM)+{Vcm_max}) Rpar=1k Cpar=1n
+G36 COM CMp N042 COM 1
+R24 CMp COM 1
+B9 COM N043 I=1m*(V(4,COM)+{Vcm_min}) Rpar=1k Cpar=1n
+G37 COM CMn N043 COM 1
+R27 CMn COM 1
+VIP N034 CMp 0
+VIN CMn N035 0
+A10 COM COM COM COM COM COM N059 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={fAi}/(freq**{Mi})
+R83 N059 COM 100k Temp=-273.15
+A11 COM N059 COM COM COM COM N060 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={BBi}
+R84 N060 COM 100k Temp=-273.15
+F3 Inp1 COM V_I_n 1
+Gb1 COM N061 N060 COM 1
+R85 N062 COM 1 Temp=-273.15
+V_I_n N061 N062 0
+F4 Inn1 COM V_I_n 1
+R86 Vsatp2 3 1k
+C37 Vsatp2 3 1n
+B10 4 Vsatn1 I=1m*Max(Mn*(-I(Vimon))+OSn,40u)
+R87 Vsatn1 4 1k
+C38 Vsatn1 4 1n
+B11 4 Vsatn2 I=1m*(An+((Bn*(-I(Vimon)**Cn))/((Dn**Cn)+(-I(Vimon)**Cn))))
+R88 Vsatn2 4 1k
+C39 Vsatn2 4 1n
+B12 COM Vsatni I=1m*IF(-I(Vimon)>15m, V(Vsatn2,COM), V(Vsatn1,COM))
+R89 Vsatpi COM 1k
+C40 Vsatpi COM 1n
+B13 Vsatp1 3 I=1m*Max(Mp*(I(Vimon))+OSp,40u)
+R90 Vsatp1 3 1k
+C41 Vsatp1 3 1n
+B14 COM Vsatpi I=1m*IF(I(Vimon)>16m, V(Vsatp2,COM), V(Vsatp1,COM))
+R91 Vsatni COM 1k
+C42 Vsatni COM 1n
+B15 Vsatp2 3 I=1m*Max(Ap+((Bp*(I(Vimon)**Cp))/((Dp**Cp)+(I(Vimon)**Cp))),40u)
+G35 COM N022 N017 COM 1k
+R46 COM N022 1m Temp=-273.15
+Rinp COM Inp1 {Rcm} Temp=-273.15
+R2 Inp1 1 {Rser} Temp=-273.15
+F5 N045 N058 Vimon 1
+C18 N055 COM {CEn}
+C19 N056 COM {CEn}
+R47 N045 3 1<>
+R82 N058 4 1<>
+.param Vos=-1.94u Drift=0.1u
+.param Ib=-0.4n Ios=0.1n
+.param Vcm_min=1.2 Vcm_max=-2
+.param Vsmin=3 Vsmax=36
+.param Iscp=22m Iscn=-22m
+.param Iq_on=400u Iq_off=1u
+.param IZop={2*Rx_Zo*Iscp} IZon={2*Rx_Zo*Iscn}
+.model DI D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1)
+.model LIM D(Vfwd=1n Vrev=1n Ron=1m Roff=1m Ilimit={Iscp} Revilimit={-Iscn} Epsilon=1u)
+.model DGP D(Vfwd=1k Vrev=0 Revepsilon=0.5)
+.model DGN D(Vfwd=1k Vrev=0 Revepsilon=0.5)
+.model ESDI SW(Ron=50 Roff=1T Vt=31.6 Vh=-500m Vser=0.1)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n)
+.model OL SW(Ron=10m Roff=1G Vt=500m Vh=-100m)
+.model ENA SW(Ron=1Meg Roff=1u Vt=500m Vh=-100m Noiseless)
+.model ENZ SW(Ron=1 Roff=1u Vt=500m Vh=-100m Noiseless)
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param beta_Zo=1.14
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=1.58k
+.param Zo_max=1.58k
+.param R1a_Zo=10k
+.param fz1_Zo=0.96
+.param fp1_Zo=9.8
+.param C1a_Zo = {1 / (2 * pi * R1a_Zo * fz1_Zo)}
+.param R2a_Zo = {R1a_Zo/ ((2 * pi * fp1_Zo * C1a_Zo
++* R1a_Zo) - 1)}
+.param actual1_Zo = {R2a_Zo / (R1a_Zo + R2a_Zo)}
+.param G2_Zo = {1/actual1_Zo}
+.param R1c_Zo=10k
+.param fp3_Zo=7.1Meg
+.param fz3_Zo=12.5Meg
+.param C1c_Zo = {1 / (fz3_Zo * R1c_Zo * 2 * pi)}
+.param R2c_Zo = {(1 / (fp3_Zo * C1c_Zo * 2 * pi))
++- R1c_Zo}
+.param R1b_Zo=10k
+.param fz2_Zo=33.5k
+.param fp2_Zo=45.5k
+.param C1b_Zo = {1 / (2 * pi * R1b_Zo * fz2_Zo)}
+.param R2b_Zo = {R1b_Zo/ ((2 * pi * fp2_Zo * C1b_Zo
++* R1b_Zo) - 1)}
+.param actual3_Zo = {R2b_Zo / (R1b_Zo + R2b_Zo)}
+.param G3_Zo = {1/actual3_Zo}
+.param R1d_Zo=10k
+.param fz4_Zo=96Meg
+.param fp4_Zo=100G
+.param C1d_Zo = {1 / (2 * pi * R1d_Zo * fz4_Zo)}
+.param R2d_Zo = {R1d_Zo/ ((2 * pi * fp4_Zo * C1d_Zo
++* R1d_Zo) - 1)}
+.param actual4_Zo = {R2d_Zo / (R1d_Zo + R2d_Zo)}
+.param G4_Zo = {1/actual4_Zo}
+.param Aol_PB=135.06
+.param SRp=1.3 SRn=-1.3
+.param fp1=0.695 fp2=21.15Meg
+.param Rser=1m
+.param Ccm=5p Rcm=70G
+.param Cdiff=3p ;Rdiff=100T
+.param Aol2_dB = {Aol_PB-40+1}
+.param Aol2 = {pwr(10, (Aol2_dB)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Isrc = {Cfp1 * SRp * 1Meg} Isink = {Cfp1 * SRn * 1Meg}
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Rej_dc_CMR=149.5
+.param R1a_CMR=1Meg
+.param fz1_CMR=70m
+.param fp1_CMR=10
+.param R1b_CMR=1Meg
+.param fz2_CMR=6k
+.param fp2_CMR=200k
+.param C1b_CMR = {1 / (2 * pi * R1b_CMR * fz2_CMR)}
+.param R2b_CMR = {R1b_CMR/ ((2 * pi * fp2_CMR * C1b_CMR
++* R1b_CMR) - 1)}
+.param actual2_CMR = {R2b_CMR / (R1b_CMR + R2b_CMR)}
+.param G2_CMR = {1/actual2_CMR}
+.param R1c_CMR=1Meg
+.param fz3_CMR=300k
+.param fp3_CMR=10Meg
+.param C1c_CMR = {1 / (2 * pi * R1c_CMR * fz3_CMR)}
+.param R2c_CMR = {R1c_CMR/ ((2 * pi * fp3_CMR * C1c_CMR
++* R1c_CMR) - 1)}
+.param actual3_CMR = {R2c_CMR / (R1c_CMR + R2c_CMR)}
+.param G3_CMR = {1/actual3_CMR}
+.param Rej_dc_PSRp=128
+.param R1a_PSRp=100Meg
+.param fz1_PSRp=1.6
+.param fp1_PSRp=4Meg
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param Rej_dc_PSRn=128
+.param R1a_PSRn=1Meg
+.param fz1_PSRn=0.35
+.param fp1_PSRn=10
+.param C1b_PSRn = {1 / (2 * pi * R1b_PSRn * fz2_PSRn)}
+.param R2b_PSRn = {R1b_PSRn/ ((2 * pi * fp2_PSRn * C1b_PSRn
++* R1b_PSRn) - 1)}
+.param actual2_PSRn = {R2b_PSRn/ (R1b_PSRn + R2b_PSRn)}
+.param G2_PSRn = {1/actual2_PSRn}
+.param R1b_PSRn=1Meg
+.param fz2_PSRn=950
+.param fp2_PSRn=4.1Meg
+.param C1c_PSRn = {1 / (2 * pi * R1c_PSRn * fz3_PSRn)}
+.param R2c_PSRn = {R1c_PSRn/ ((2 * pi * fp3_PSRn * C1c_PSRn
++* R1c_PSRn) - 1)}
+.param actual3_PSRn = {R2c_PSRn/ (R1c_PSRn + R2c_PSRn)}
+.param G3_PSRn = {1/actual3_PSRn}
+.param R1c_PSRn=1Meg
+.param fz3_PSRn=200k
+.param fp3_PSRn={fp2_PSRn}
+.param R1a_E_n=1Meg
+.param fz1_E_n=2.2Meg
+.param fp1_E_n=5.2Meg
+.param C1a_E_n = {1 / (2 * pi * R1a_E_n * fz1_E_n)}
+.param R2a_E_n = {R1a_E_n/ ((2 * pi * fp1_E_n * C1a_E_n
++* R1a_E_n) - 1)}
+.param actual1_E_n = {R2a_E_n / (R1a_E_n + R2a_E_n)}
+.param G1_E_n = {1/actual1_E_n}
+.param Enp=6.9n CEn=22f
+.param BB=6.9n fC=2.7 M=0.58 fA={BB*(fC**M)}
+.param BBi=0.16p fCi=5 Mi=0.75 fAi={BBi*(fCi**Mi)}
+.param Mp=14.12 OSp=0.96
+.param Ap=1.08 Bp=1.71 Cp=8.54 Dp=2.2e-2
+.param Mn=20 OSn=1
+.param An=1.11 Bn=2.33 Cn=6.86 Dn=2.13e-2
+.ends ADA4077

lib/sub/ADA4091.lib

@@ -0,0 +1,119 @@
+* Copyright (c) 1998-2022 Analog Devices, Inc.  All rights reserved.
+*
+.SUBCKT ADA4091 1 2 99 50 45
+I1   99   7    8.00E-06
+Q1   6    4    7A    QP
+Q2   5    3    7B    QP
+RE1  7A   7   7.774E+02
+RE2  7B   7   7.774E+02
+D1   3    99   DX
+D2   4    99   DX
+D3   50   3    DX
+D4   50   4    DX
+D5   3    4    DX
+D6   4    3    DX
+R1   3    8    5E+03
+R2   4    2    5E+03
+R3   5    50   7.500E4;
+R4   6    50   7.500E4;
+Cph  5    5A   0.235E-12
+Rph  5A   6    300
+VOS 8 8A -50.48u
+EPSRp 8A 1 99 50 495.4n 
+IOS  3    4     -50E-12
+CDiff  1    2    2.5E-12
+Cin1   1   50    2E-12
+Cin2   2   50    2E-12
+*
+* INPUT PROTECTION NETWORK
+*
+X_in1 1 50 Diac1
+X_in2 2 50 Diac1
+X_in3 1 99 Diac1
+X_in4 2 99 Diac1
+*
+*
+RS1  99   39   400.0E3
+RS2  39   50   400.0E3
+EREF 98   0    (39,0) 1
+*
+* 1ST GAIN STAGE
+*
+G1   9  98    (6,5) 1.0E-06
+R7   9   98   1E6
+*
+* 2ND GAIN STAGE AND DOMINANT POLE
+*
+R8    12   98   1.094E+08
+G2    12   98  (98,9) 3.881E-06
+D7   12   13   DX
+D8   14   12   DX
+V1   13   98   +0.2; source
+V2   14   98   -0.2; sink
+*
+* Provision for second pole
+*
+G3   18   98   (98,12) 1E-05
+R11  18   98   1E5
+*
+* CMRR=90dB, Pole at 1100 Hz
+*
+ECM  21   98   POLY(2) (1,98) (2,98) 0 1.318E-01 1.318E-01
+R10  21   22   1.326E+05
+R20  22   98   1.592E+01
+C10  21   22   1E-9
+*
+* PSRR=85dB, POLE AT 300 Hz
+*
+EPSY 72 98 POLY(1) (99,50) +0.1E-1 1.770E+01
+RPS1 72 73 7.958E+02
+RPS2 73 98 3.183E-03
+CPS1 72 73 1.00E-06
+*
+* VOLTAGE NOISE REFERENCE OF 24nV/rt(Hz)
+*
+VN1 80 98 0
+RN1 80 98 96.300E-3
+HN  81 98 VN1 2.397E+01
+RN2 81 98 1
+*
+* FLICKER NOISE CORNER = 300 Hz
+*
+DFN 82 98 DNOISE
+VFN 82 98 DC 0.6551
+HFN 83 98 POLY(1) VFN 1.00E-03 1.00E+00
+RFN 83 98 1
+*
+* OUTPUT STAGE
+*
+Q3   451 41 99 POUT
+RB1  40 41 1.5E+03
+EB1  99 40 POLY(1) (98,18) 6.190E-01  1E-0;
+Q4   451 43 50 NOUT
+RB2  42 43 2.0E+03
+EB2  42 50 POLY(1) (18,98) 6.155E-01  1E-0;
+Lout 45 451  10E-10
+RZ  45 453  100
+CZ  453  12  4.67E-12
+*
+GSY  99 50 POLY(1) (99 50) 106.2E-6 -0.89E-06
+*
+* MODELS
+*
+.MODEL QP PNP(BF=80, IS=1.00E-16, VA=130)
+.MODEL POUT PNP (BF=80,IS=2.8E-15,VA=130,IK=6E+00,BR=15,VAR=14.4, RC=30)
+.MODEL NOUT NPN (BF=120,IS=3.2E-15,VA=250,IK=11E+00,BR=30, VAR=20.0, RC=7)
+.MODEL DW D(IS=1E-18)
+.MODEL DX D()
+.MODEL DY D(IS=1E-9)
+.MODEL DZ D(IS=1E-6)
+.MODEL DNOISE D(IS=1E-14,RS=0,KF=8.640E-12)
+*
+.SUBCKT Diac1 1 2
+Done 1 3 DZ42hh
+Dtwo 2 3 DZ42hh
+.MODEL DZ42hh D(IS=3.3179E-6, N=2.0, RS=1.0000E-3, CJO=10.00E-12, M=.31349, VJ=.3905, ISR=2.9061E-9, BV=42.0, IBV=5.0E-03, TT=300.0E-9)
+.ENDS Diac1
+*
+*
+.ENDS  ADA4091

lib/sub/ADA4096.lib

@@ -0,0 +1,255 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4096 1 2 3 4 5
+R1 Inn1 2 {Rsern} Temp=-273.15
+R2 Inp1 1 {Rserp} Temp=-273.15
+R3 Aol1 COM 1Meg Temp=-273.15
+R4 Clamp COM 1Meg Temp=-273.15
+C1 Clamp COM {Cfp1a}
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}* V(Aol1,COM), {Isink}-V(OL,COM)* 0.2, 20m), {Isrc}+V(OL,COM)*0.2, 20m)
+A1 Inn2 Inp2 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k En={En} Enk={Enk}
+G2 0 VCC_Int 3 0 1
+G3 0 Vee_Int 4 0 1
+R6 VCC_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N032 VCC_Int 1Meg Temp=-273.15
+R9 N032 Vee_Int 1Meg Temp=-273.15
+C2 N032 0 1
+E1 COM 0 N032 0 1
+R10 COM 0 1Meg Temp=-273.15
+Rx N008 N013 {Rx_Zo} Temp=-273.15
+Rdummy N008 COM {Rdummy_Zo} Temp=-273.15
+G4 COM N003 Aol2 N008 {G1_Zo}
+R11 Cap2L COM 1 Temp=-273.15
+R12 Cap2L Cap2R {R1a_Zo} Temp=-273.15
+R13 Cap2R COM {R2a_Zo} Temp=-273.15
+G5 COM N005 Cap2R COM {G2_Zo}
+C3 Cap2R Cap2L {C1a_Zo}
+R14 N003 COM 1 Temp=-273.15
+R15 N003 N004 {R2b_Zo} Temp=-273.15
+R16 N004 Cap1 {R1b_Zo} Temp=-273.15
+C4 COM Cap1 {C1b_Zo}
+Gb1 COM Cap2L N004 COM 1
+R17 N013 COM 1 Temp=-273.15
+B2 COM N013 I=Uplim(Dnlim({G3_Zo}* V(ZoF,COM), {Izon}, 25m), {Izop}, 25m)
+R18 N007 COM 1 Temp=-273.15
+R19 N007 ZoF {R1c_Zo} Temp=-273.15
+R20 ZoF COM {R2c_Zo} Temp=-273.15
+C5 ZoF N007 {C1c_Zo}
+R21 N005 COM 1 Temp=-273.15
+R22 N005 N006 {R2d_Zo} Temp=-273.15
+R23 N006 N018 {R1d_Zo} Temp=-273.15
+C6 COM N018 {C1d_Zo}
+Gb2 COM N007 N006 COM 1
+R25 Aol2 COM 1Meg Temp=-273.15
+C7 Aol2 COM {Cfp2}
+G7 COM Aol2 Clamp COM 1<>
+Cinp COM Inp1 {Cinp}
+Cinn Inn1 COM {Cinn}
+Cdiff Inp1 Inn1 {Cdiff}
+Rinn Inn1 COM {Rinn} Temp=-273.15
+Rinp COM Inp1 {Rinp} Temp=-273.15
+R24 Inn2 N027 1m Temp=-273.15
+Ibp Inp1 COM {Ib}
+Ibn Inn1 COM {Ib-Ios}
+R26 N010 N012 1k Temp=-273.15
+A2 COM Inp1 COM COM COM COM COM COM OTA G=1u In={Inp} Ink={Inkp}
+A3 COM Inn1 COM COM COM COM COM COM OTA G=0 In={Inn} Ink={Inkn}
+B3 N012 N010 I=1m*{Vos+Drift* (Temp-27)}
+R27 N017 N011 1m Temp=-273.15
+G6 N017 Inp2 N025 N020 1m
+R28 Inp2 N017 1k Temp=-273.15
+C8 N023 N024 {C1a_PSRp}
+G8 COM N024 VCC_Int COM {G1_PSRp}
+R29 N024 COM 1 Temp=-273.15
+R30 N023 N024 {R1a_PSRp} Temp=-273.15
+R31 N023 COM {R2a_PSRp} Temp=-273.15
+C9 N021 N022 {C1b_PSRp}
+R32 N021 COM {R2b_PSRp} Temp=-273.15
+R33 N021 N022 {R1b_PSRp} Temp=-273.15
+G9 COM N022 N023 COM 1
+R34 N022 COM 1 Temp=-273.15
+G10 COM N025 N021 COM {G2_PSRp}
+R35 N025 COM 1 Temp=-273.15
+C10 N020 N019 {C1a_PSRn}
+G11 COM N019 VEE_Int COM {G1_PSRn}
+R36 N019 COM 1 Temp=-273.15
+R37 N020 N019 {R1a_PSRn} Temp=-273.15
+R38 N020 COM {R2a_PSRn} Temp=-273.15
+G12 N010 N011 N002 COM 1m
+R39 N011 N010 1k Temp=-273.15
+C11 N002 N001 {C1a_CMR}
+G13 COM N001 Inp1 COM {G1_CMR}
+R40 N001 COM 1 Temp=-273.15
+R41 N002 N001 {R1a_CMR} Temp=-273.15
+R42 N002 COM {R2a_CMR} Temp=-273.15
+Vimon N009 5 0
+BIq 3 4 I={Iq_on} +I(VImon)
+G1 COM N012 Inp1 COM 1k
+G14 COM N027 Inn1 COM 1k
+R5 COM N012 1m Temp=-273.15
+R43 COM N027 1m Temp=-273.15
+C12 N027 COM 1p
+C13 N012 COM 1p
+DIP 3 Inp2 DIP
+DIN Inp2 4 DIN
+C14 VCC_Int 0 1n
+C15 Vee_Int 0 1n
+DOP Vsatp N008 DO
+DON N008 Vsatn DO
+DGP N028 Clamp DGP
+DGN Clamp N029 DGN
+S1 COM Cap1 OL COM OL
+S2 Cap2R Cap2L OL COM OL
+F1 COM OLp VGP 1m
+A4 OLp OLn COM COM COM COM OL COM OR Ref=100u Vh=50u Trise=10n
+R44 OLp COM 1k
+F2 COM OLn VGN -1m
+R45 OLn COM 1k
+C16 OLp COM 1n
+C17 OLn COM 1n
+DOI N008 N009 LIM
+COI N009 N008 1p
+R46 Vsatni 4 1k
+R47 Vsatpi 3 1k
+C18 Vsatpi 3 1n
+C19 Vsatni 4 1n
+B4 4 Vsatni I=Max(Ap*(Bp**(-I(Vimon)*1k))* (-(I(Vimon)*1k)**Cp),40u)
+B5 Vsatpi 3 I=Max(Ap*(Bp**(I(Vimon)*1k))* ((I(Vimon)*1k)**Cp),40u)
+G15 COM Vsatp Vsatpi COM 1
+R48 Vsatp COM 1
+C21 Vsatp COM 1n
+G16 COM Vsatn Vsatni COM 1
+R49 Vsatn COM 1
+C22 Vsatn COM 1n
+S3 3 Inp1 Inp1 3 ESDI
+S4 3 Inn1 Inn1 3 ESDI
+S5 Inp1 4 4 Inp1 ESDI
+S6 Inn1 4 4 Inn1 ESDI
+C24 N008 Vsatp 10p
+C25 N008 Vsatn 10p
+S7 3 5 5 3 ESDO
+S8 5 4 4 5 ESDO
+C26 OL COM 1p
+B6 COM N030 I=1m*({Zo_max}* {Iscp}+V(3,COM)) Rpar=1k Cpar=1n
+G18 COM GRp N030 COM 1
+R51 GRp COM 1
+G19 COM GRn N031 COM 1
+R52 GRn COM 1
+B7 COM N031 I=1m*({Zo_max}* {Iscn}+V(4,COM)) Rpar=1k Cpar=1n
+VGP N028 GRp 0
+VGN N029 GRn 0
+DIP1 3 Inn2 DIP
+DIN1 Inn2 4 DIN
+.param En=27n Enk=1.2
+.param Inp=0.2p Inkp=100
+.param Inn=0.2p Inkn=100
+.param Vos=-18.175u Drift=1u
+.param Ib=10n Ios=1.5n
+.param Vcm_min=0 Vcm_max=0
+.param Vsmin=3 Vsmax=36
+.param Iscp=10m Iscn=-10m
+.param Torp=5u Torn=5u
+.param Iq_on=47u Iq_off=5u
+.param Ap=1.17e-5 Bp=1.17 Cp=1.76
+.param Mor=0.7036 Bor=1.4284 Wor=0.16
+.param IZop={2*Rx_Zo*Iscp} IZon={2*Rx_Zo*Iscn}
+.model DIP D(Vfwd={Vsmax} Vrev={Vcm_max} Revepsilon=0.1)
+.model DIN D(Vfwd={Vsmax} Vrev={-Vcm_min} Revepsilon=0.1)
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1)
+.model LIM D(Vfwd=1n Vrev=1n Ron=1m Roff=1m Ilimit={Iscp} Revilimit={-Iscn} Epsilon=1u)
+.model DGP D(Vfwd=1k Vrev=0 Revepsilon=0.5)
+.model DGN D(Vfwd=1k Vrev=0 Revepsilon=0.5)
+.model ESDI SW(Ron=50 Roff=1T Vt=31.6 Vh=-500m Vser=0.1)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n)
+.model OL SW(Ron=10m Roff=1G Vt=500m Vh=-100m)
+.param Rsern=10m Rserp=10m
+.param Rinp=1T Cinp=7p
+.param Rinn=1T Cinn=7p
+.param Cdiff=2.5p
+.param Aol=111 RL_dc=10k
+.param SRp=0.38 SRn=-0.38
+.param fp1=450 fp2=13.5Meg fp3=100G
+.param Aol_v= {pwr(10, (Aol/20))}
+.param Aol_adj = {(Aol_v/RL_dc)*(Zo_dc + RL_dc)}
+.param Aol_adj_dB = {20*log10(Aol_adj)}
+.param Aol2 = {pwr(10, (Aol_adj_dB - 40)/20)}
+.param Cfp1 = {1 / (2 * pi * fp1 * Aol2)}
+.param A=8.85e-1 B=5.56e-2 C=1.06 D=2.99m
+.param ratio = {Zo_dc/RL_dc}
+.param Cfp1a = {Cfp1*((A+B*ratio)/(1+C*ratio+D*ratio**2))}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Isrc = {Cfp1a * SRp * 1Meg} Isink = {Cfp1a * SRn * 1Meg}
+.param beta_Zo=1.04
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=874
+.param Zo_max=2k
+.param R1a_Zo=10k
+.param fz1_Zo=3.5
+.param fp1_Zo=170
+.param C1a_Zo = {1 / (2 * pi * R1a_Zo * fz1_Zo)}
+.param R2a_Zo = {R1a_Zo/ ((2 * pi * fp1_Zo * C1a_Zo
++* R1a_Zo) - 1)}
+.param actual1_Zo = {R2a_Zo / (R1a_Zo + R2a_Zo)}
+.param G2_Zo = {1/actual1_Zo}
+.param R1b_Zo=10k
+.param fp2_Zo=1m
+.param fz2_Zo=90m
+.param C1b_Zo = {1 / (fz2_Zo * R1b_Zo * 2 * pi)}
+.param R2b_Zo = {(1 / (fp2_Zo * C1b_Zo * 2 * pi))
++- R1b_Zo}
+.param R1c_Zo=10k
+.param fz3_Zo=1.5Meg
+.param fp3_Zo=100G
+.param C1c_Zo = {1 / (2 * pi * R1c_Zo * fz3_Zo)}
+.param R2c_Zo = {R1c_Zo/ ((2 * pi * fp3_Zo * C1c_Zo
++* R1c_Zo) - 1)}
+.param actual3_Zo = {R2c_Zo / (R1c_Zo + R2c_Zo)}
+.param G3_Zo = {1/actual3_Zo}
+.param R1d_Zo=10k
+.param fp4_Zo=250k
+.param fz4_Zo=600k
+.param C1d_Zo = {1 / (fz4_Zo * R1d_Zo * 2 * pi)}
+.param R2d_Zo = {(1 / (fp4_Zo * C1d_Zo * 2 * pi))
++- R1d_Zo}
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param Rej_dc_PSRp=106
+.param R1a_PSRp=100k
+.param fz1_PSRp=220
+.param fp1_PSRp=750k
+.param C1b_PSRp = {1 / (2 * pi * R1b_PSRp * fz2_PSRp)}
+.param R2b_PSRp = {R1b_PSRp/ ((2 * pi * fp2_PSRp * C1b_PSRp
++* R1b_PSRp) - 1)}
+.param actual2_PSRp = {R2b_PSRp / (R1b_PSRp + R2b_PSRp)}
+.param G2_PSRp = {1/actual2_PSRp}
+.param R1b_PSRp=100k
+.param fz2_PSRp=15k
+.param fp2_PSRp=750k
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param Rej_dc_PSRn=105
+.param R1a_PSRn=1Meg
+.param fz1_PSRn=3.5
+.param fp1_PSRn=750k
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Rej_dc_CMR=103
+.param R1a_CMR=1Meg
+.param fz1_CMR=3.5
+.param fp1_CMR=550k
+.ends ADA4096

lib/sub/ADA4097-1.lib

@@ -0,0 +1,109 @@
+* Copyright (c) 1998-2022 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4097-1 1 2 3 4 5 6
+B1 0 N006 I=10u*dnlim(uplim(V(1),V(4)+69.3,.1), V(4)-.15, .1)+1n*V(1)-10.72254n
+B2 N006 0 I=10u*dnlim(uplim(V(2),V(4)+69.3,.1), V(4)-.16, .1)+1n*V(2)
+C10 N006 0 50f Rpar=100K noiseless
+M1 N019 NG 4 4 NI temp=27
+C2 3 5 1p IC=0 Rpar=1g
+D5 NG 4 DLIMN1
+M2 P001 N007 N004 N004 PI temp=27
+A3 N014 N016 4 4 4 4 N007 4 OTA g=2u ref=-.305 linear vlow=-1e308 vhigh=1e308
+C11 5 4 1p IC=0 Rpar=1g
+D6 NG 4 DLIMN2
+C16 N016 5 52p
+A5 N012 0 N014 N014 N014 N014 N016 N014 OTA g=40u isource=5.05u Vlow=-1e308 Vhigh=1e308
+G1 4 NG N016 N014 140n
+D9 N016 N014 DLIM
+C7 2 0 3p Rser=1k Rpar=100G noiseless
+C13 3 4 10p
+C1 N009 0 280f
+G2 0 N014 4 0 .5m
+G4 0 N014 3 0 .5m
+C18 N014 0 200p Rpar=1K noiseless
+C6 1 0 3p Rser=1k Rpar=100G noiseless
+D3 3 N004 DSBD
+C5 3 N004 100f Rpar=10Meg noiseless
+D4 N004 N007 DLIMP
+D2 N009 0 DLIM0
+D1 4 5 DESD
+D8 4 1 DESD
+D10 4 2 DESD
+A2 N015 0 0 0 0 0 0 0 OTA g=0 in=0.5p ink=15
+D11 5 N019 DNR
+C15 N019 4 100f Rpar=10Meg noiseless
+D7 N007 3 DLIMPR
+A6 4 3 M M M M N005 M OTA g=2u iout=1u ref=-2.5 Rout=1Meg Cout=100f vlow=-1e308 vhigh=1e308
+S4 N021 4 N005 0 SBiasN
+D13 3 N013 DBiasDrop
+C14 N021 4 100f
+S2 N004 N007 0 N005 SHUT
+S3 NG 4 0 N005 SHUT
+D16 2 1 D10Meg
+C17 N010 0 2250f noiseless Rser=2.7Meg Rpar=1Meg
+G3 0 N010 N009 0 1<>
+D17 0 N009 DNLIN
+G5 0 N011 N010 0 1<>
+S5 N014 N016 4 5 SGK
+C3 3 N007 .9p Rser=700k noiseless
+C12 NG 4 .9p Rser=700k noiseless
+D14 2 N013 DBiasOTT
+D15 1 N021 DBiasOTT
+S1 0 N008 3 2 SNOI
+A7 N008 0 0 0 0 0 0 0 OTA g=0 in=17.25p ink=5
+A1 2 1 0 0 0 0 0 0 OTA g=0 in=0f ink=15
+GNOI_I 1 2 N015 0 1<>
+S6 0 N015 3 2 SNOI
+A4 0 N006 0 0 0 0 N009 0 OTA g=1u linear en=53n*(1+freq/160e3) enk=0.98 Vhigh=1e308 Vlow=-1e308
+GNOI_V N006 0 N008 0 10n
+S9 3 4 N017 0 SP
+S10 3 N007 N017 0 SHUT2
+S11 NG 4 N017 0 SHUT2
+S7 5 0 N017 0 SHUT2
+S8 P001 5 0 N017 SHUT3
+S13 N018 4 0 N017 SHUT3
+G6 0 M 3 0 500<30>
+R1 M 0 1k noiseless
+G7 0 M 4 0 500<30>
+R2 N024 0 58 noiseless
+C4 N025 N024 10n Rpar=47.9K noiseless
+R3 N025 0 1 noiseless
+G8 0 N025 1 0 5.25m
+G9 0 N025 2 0 5.25m
+G10 0 N025 0 3 5.25m
+G11 0 N025 0 4 5.25m
+G12 0 N006 0 N024 1<>
+D12 3 N018 DP
+S12 N013 N021 0 N017 SHUT3
+C20 N012 0 330f Rpar=1Meg noiseless
+G13 0 N012 N011 0 1<>
+C19 N011 0 125.26f noiseless Rser=2.667Meg Rpar=1Meg
+D18 4 6 DSHUT1
+C8 6 0 100f
+A8 6 4 0 0 0 0 N017 0 SCHMITT Vt=1.5 Vh=1m Trise=1u Tfall=20u IC=0
+I1 0 2 125p
+.model DP D(Ron=1k Roff=1G Vfwd=2.5 epsilon=100m ilimit=6.5u noiseless)
+.model SP SW(Ron=100 Roff=1G vt=.5 vh=10m ilimit=15u noiseless)
+.model DESD D(Ron=1k Roff=1G vfwd=700m epsilon=100m noiseless)
+.model SNOI SW(Ron=1 Roff=1Meg vt=1.2 vh=-100m noiseless)
+.model NI VDMOS(Vto=361.95m Kp=69.6m Mtriode=.9 lambda=.01)
+.model PI VDMOS(Vto=-361.95m Kp=174m lambda=.01 pchan is=0)
+.model DLIM0 D(Ron=10 Roff=10Meg Vfwd=1 epsilon=100m Vrev=1 epsilon=100m noiseless)
+.model DNLIN D(Roff=1.8Meg Ron=800k vfwd=0 epsilon=10m noiseless)
+.model DLIM D(Ron=100 Roff=4.755Meg Vfwd=700m Vrev=100m epsilon=10m revepsilon=10 noiseless)
+.model SHUT SW(level=2 Ron=10k Roff=100G vt=-.5 vh=-.2 noiseless)
+.model DSHUT1 D(Ron=1000 Roff=0.823E6 Vfwd=1 epsilon=100m Vrev=1 epsilon=100m ilimit=100n revilimit=0.1n noiseless)
+.model DSBD D( Ron=15 Roff=100Meg  Vfwd=-70m epsilon=50m  Vrev=100 revepsilon=10m noiseless)
+.model DNR D(Ron=1 Roff=100Meg Vfwd=-16m epsilon=300m noiseless)
+.model DLIMN1 D(Ron=200k Roff=415Meg Vfwd=1.378 Vrev=-330m epsilon=.1 noiseless)
+.model DLIMN2 D(Ron=5Meg Roff=1G Vfwd=-20m epsilon=50m ilimit=44n noiseless)
+.model DLIMP D(Ron=100k Roff=100Meg Vfwd=0.805 epsilon=10m noiseless)
+.model DLIMPR D(Ron=5Meg Roff=1G Vfwd=100m epsilon=10m noiseless)
+.model SGK SW(level=2 Ron=65k Roff=100G  vt=-260m vh=150m oneway epsilon=10m noiseless)
+.model SBiasN SW(level=2 Ron=5k Roff=1g vt=.5 vh=-.2 ilimit=0.2u noiseless)
+.model DBiasDrop D(Ron=1k Roff=1G vfwd=0.31 epsilon=200m noiseless)
+.model DBiasOTT D(Ron=500 Roff=1G vfwd=700m epsilon=200m noiseless)
+.model D10Meg D(Ron=10Meg Roff=10Meg vfwd=0 vrev=0 ilimit=10n revilimit=10n noiseless)
+.model SHUT3 SW(Ron=10 Roff=10G vt=-0.5 vh=100m noiseless)
+.model SHUT2 SW(Ron=10 Roff=10G vt=0.5 vh=100m noiseless)
+.ends ADA4097-1

lib/sub/ADA4097-2.lib

@@ -0,0 +1,109 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4097-2 1 2 3 4 5 6
+B1 0 N006 I=10u*dnlim(uplim(V(1),V(4)+69.3,.1), V(4)-.15, .1)+1n*V(1)-10.72254n
+B2 N006 0 I=10u*dnlim(uplim(V(2),V(4)+69.3,.1), V(4)-.16, .1)+1n*V(2)
+C10 N006 0 50f Rpar=100K noiseless
+M1 N019 NG 4 4 NI temp=27
+C2 3 5 1p Rpar=1g noiseless
+D5 NG 4 DLIMN1
+M2 P001 N007 N004 N004 PI temp=27
+A3 N014 N016 4 4 4 4 N007 4 OTA g=2u ref=-.305 linear vlow=-1e308 vhigh=1e308
+C11 5 4 1p Rpar=1g noiseless
+D6 NG 4 DLIMN2
+C16 N016 5 52p
+A5 N012 0 N014 N014 N014 N014 N016 N014 OTA g=40u isource=5.05u Vlow=-1e308 Vhigh=1e308
+G1 4 NG N016 N014 140n
+D9 N016 N014 DLIM
+C7 2 0 3p Rser=1k Rpar=100G noiseless
+C13 3 4 10p
+C1 N009 0 280f
+G2 0 N014 4 0 .5m
+G4 0 N014 3 0 .5m
+C18 N014 0 200p Rpar=1K noiseless
+C6 1 0 3p Rser=1k Rpar=100G noiseless
+D3 3 N004 DSBD
+C5 3 N004 100f Rpar=10Meg noiseless
+D4 N004 N007 DLIMP
+D2 N009 0 DLIM0
+D1 4 5 DESD
+D8 4 1 DESD
+D10 4 2 DESD
+A2 N015 0 0 0 0 0 0 0 OTA g=0 in=0.5p ink=15
+D11 5 N019 DNR
+C15 N019 4 100f Rpar=10Meg noiseless
+D7 N007 3 DLIMPR
+A6 4 3 M M M M N005 M OTA g=2u iout=1u ref=-2.5 Rout=1Meg Cout=100f vlow=-1e308 vhigh=1e308
+S4 N021 4 N005 0 SBiasN
+D13 3 N013 DBiasDrop
+C14 N021 4 100f
+S2 N004 N007 0 N005 SHUT
+S3 NG 4 0 N005 SHUT
+D16 2 1 D10Meg
+C17 N010 0 2250f noiseless Rser=2.7Meg Rpar=1Meg
+G3 0 N010 N009 0 1<>
+D17 0 N009 DNLIN
+G5 0 N011 N010 0 1<>
+S5 N014 N016 4 5 SGK
+C3 3 N007 .9p Rser=700k noiseless
+C12 NG 4 .9p Rser=700k noiseless
+D14 2 N013 DBiasOTT
+D15 1 N021 DBiasOTT
+S1 0 N008 3 2 SNOI
+A7 N008 0 0 0 0 0 0 0 OTA g=0 in=17.25p ink=5
+A1 2 1 0 0 0 0 0 0 OTA g=0 in=0f ink=15
+GNOI_I 1 2 N015 0 1<>
+S6 0 N015 3 2 SNOI
+A4 0 N006 0 0 0 0 N009 0 OTA g=1u linear en=53n*(1+freq/160e3) enk=0.98 Vhigh=1e308 Vlow=-1e308
+GNOI_V N006 0 N008 0 10n
+S9 3 4 N017 0 SP
+S10 3 N007 N017 0 SHUT2
+S11 NG 4 N017 0 SHUT2
+S7 5 0 N017 0 SHUT2
+S8 P001 5 0 N017 SHUT3
+S13 N018 4 0 N017 SHUT3
+G6 0 M 3 0 500<30>
+R1 M 0 1k noiseless
+G7 0 M 4 0 500<30>
+R2 N024 0 58 noiseless
+C4 N025 N024 10n Rpar=47.9K noiseless
+R3 N025 0 1 noiseless
+G8 0 N025 1 0 5.25m
+G9 0 N025 2 0 5.25m
+G10 0 N025 0 3 5.25m
+G11 0 N025 0 4 5.25m
+G12 0 N006 0 N024 1<>
+D12 3 N018 DP
+S12 N013 N021 0 N017 SHUT3
+C20 N012 0 330f Rpar=1Meg noiseless
+G13 0 N012 N011 0 1<>
+C19 N011 0 125.26f noiseless Rser=2.667Meg Rpar=1Meg
+D18 4 6 DSHUT1
+C8 6 0 100f
+A8 6 4 0 0 0 0 N017 0 SCHMITT Vt=1.5 Vh=1m Trise=1u Tfall=20u
+I1 0 2 125p
+.model DP D(Ron=1k Roff=1G Vfwd=2.5 epsilon=100m ilimit=6.5u noiseless)
+.model SP SW(Ron=100 Roff=1G vt=.5 vh=10m ilimit=15u noiseless)
+.model DESD D(Ron=1k Roff=1G vfwd=700m epsilon=100m noiseless)
+.model SNOI SW(Ron=1 Roff=1Meg vt=1.2 vh=-100m noiseless)
+.model NI VDMOS(Vto=361.95m Kp=69.6m Mtriode=.9 lambda=.01)
+.model PI VDMOS(Vto=-361.95m Kp=174m lambda=.01 pchan is=0)
+.model DLIM0 D(Ron=10 Roff=10Meg Vfwd=1 epsilon=100m Vrev=1 epsilon=100m noiseless)
+.model DNLIN D(Roff=1.8Meg Ron=800k vfwd=0 epsilon=10m noiseless)
+.model DLIM D(Ron=100 Roff=4.755Meg Vfwd=700m Vrev=100m epsilon=10m revepsilon=10 noiseless)
+.model SHUT SW(level=2 Ron=10k Roff=100G vt=-.5 vh=-.2 noiseless)
+.model DSHUT1 D(Ron=1000 Roff=0.823E6 Vfwd=1 epsilon=100m Vrev=1 epsilon=100m ilimit=100n revilimit=0.1n noiseless)
+.model DSBD D( Ron=15 Roff=100Meg  Vfwd=-70m epsilon=50m  Vrev=100 revepsilon=10m noiseless)
+.model DNR D(Ron=1 Roff=100Meg Vfwd=-16m epsilon=300m noiseless)
+.model DLIMN1 D(Ron=200k Roff=415Meg Vfwd=1.378 Vrev=-330m epsilon=.1 noiseless)
+.model DLIMN2 D(Ron=5Meg Roff=1G Vfwd=-20m epsilon=50m ilimit=44n noiseless)
+.model DLIMP D(Ron=100k Roff=100Meg Vfwd=0.805 epsilon=10m noiseless)
+.model DLIMPR D(Ron=5Meg Roff=1G Vfwd=100m epsilon=10m noiseless)
+.model SGK SW(level=2 Ron=65k Roff=100G  vt=-260m vh=150m oneway epsilon=10m noiseless)
+.model SBiasN SW(level=2 Ron=5k Roff=1g vt=.5 vh=-.2 ilimit=0.2u noiseless)
+.model DBiasDrop D(Ron=1k Roff=1G vfwd=0.31 epsilon=200m noiseless)
+.model DBiasOTT D(Ron=500 Roff=1G vfwd=700m epsilon=200m noiseless)
+.model D10Meg D(Ron=10Meg Roff=10Meg vfwd=0 vrev=0 ilimit=10n revilimit=10n noiseless)
+.model SHUT3 SW(Ron=10 Roff=10G vt=-0.5 vh=100m noiseless)
+.model SHUT2 SW(Ron=10 Roff=10G vt=0.5 vh=100m noiseless)
+.ends ADA4097-2

lib/sub/ADA4098-1.lib

@@ -0,0 +1,113 @@
+* Copyright (c) 1998-2022 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4098-1 1 2 3 4 5 6
+B1 0 N004 I=10u*dnlim(uplim(V(1),V(4)+69.3,.1), V(4)-.15, .1)+1n*V(1)-10.72254n
+B2 N004 0 I=10u*dnlim(uplim(V(2),V(4)+69.3,.1), V(4)-.16, .1)+1n*V(2)
+C10 N004 0 50f Rpar=100K noiseless
+M1 N018 NG 4 4 NI temp=27
+C2 3 5 1p Rpar=1g noiseless
+D5 NG N021 DLIMN1
+M2 P001 N005 N002 N002 PI temp=27
+A3 N013 N015 4 4 4 4 N005 4 OTA g=2u ref=-.305 linear vlow=-1e308 vhigh=1e308
+C11 5 4 1p Rpar=1g noiseless
+D6 NG 4 DLIMN2
+C16 N015 5 12p
+A5 N010 0 N013 N013 N013 N013 N015 N013 OTA g=70u isource=10.3u Vlow=-1e308 Vhigh=1e308
+G1 4 NG N015 N013 140n
+D9 N015 N013 DLIM
+C7 2 0 2.7p Rser=1k Rpar=100G noiseless
+C13 3 4 10p
+C1 N007 0 30f
+G2 0 N013 4 0 .5m
+G4 0 N013 3 0 .5m
+C18 N013 0 200p Rpar=1K noiseless
+C6 1 0 2.7p Rser=1k Rpar=100G noiseless
+D3 3 N002 DSBD
+C5 3 N002 100f Rpar=10Meg noiseless
+D4 N002 N005 DLIMP
+D2 N007 0 DLIM0
+A2 N014 0 0 0 0 0 0 0 OTA g=0 in=1.8p ink=15
+D11 5 N018 DNR
+C15 N018 4 100f Rpar=10Meg noiseless
+D7 N005 3 DLIMPR
+A6 4 3 M M M M N003 M OTA g=2u iout=1u ref=-2.5 Rout=1Meg Cout=100f vlow=-1e308 vhigh=1e308
+S4 N020 N022 N003 0 SBiasN
+D13 3 N012 DBiasDrop
+C14 N020 4 100f
+S2 N002 N005 0 N003 SHUT
+S3 NG 4 0 N003 SHUT
+D16 2 1 D1Meg
+C17 N008 0 174.26f noiseless Rser=2.667Meg Rpar=1Meg
+G3 0 N008 N007 0 1<>
+D17 0 N007 DNLIN
+C20 N010 0 47f Rpar=1Meg noiseless
+G5 0 N010 N009 0 1<>
+S5 N013 N015 4 5 SGK
+C3 3 N005 .9p Rser=700k noiseless
+C12 NG 4 .9p Rser=700k noiseless
+D14 2 N012 DBiasOTT
+D15 1 N020 DBiasOTT
+S1 0 N006 3 2 SNOI
+A7 N006 0 0 0 0 0 0 0 OTA g=0 in=17.25p ink=5
+A1 2 1 0 0 0 0 0 0 OTA g=0 in=145f ink=6
+GNOI_I 1 2 N014 0 1<>
+S6 0 N014 3 2 SNOI
+A4 0 N004 0 0 0 0 N007 0 OTA g=1u linear en=16.95n*(1+freq/12e5) enk=3.3 Vhigh=1e308 Vlow=-1e308
+GNOI_V N004 0 N006 0 10n
+I1 0 1 1.76n
+S9 3 4 N016 0 SP
+S10 3 N005 N016 0 SHUT2
+S11 NG 4 N016 0 SHUT2
+A8 6 4 0 0 0 0 N016 0 SCHMITT Vt=1.5 Vh=1m Trise=1u Tfall=100u
+S7 5 0 N016 0 SHUT2
+S8 P001 5 0 N016 SHUT3
+S13 N017 4 0 N016 SHUT3
+G6 0 M 3 0 500<30>
+R1 M 0 1k noiseless
+G7 0 M 4 0 500<30>
+R2 N025 0 48 noiseless
+C4 N026 N025 10n Rpar=47.9K noiseless
+R3 N026 0 1 noiseless
+G8 0 N026 1 0 5.25m
+G9 0 N026 2 0 5.25m
+G10 0 N026 0 3 5.25m
+G11 0 N026 0 4 5.25m
+G12 0 N004 0 N025 1<>
+D12 3 N017 DP
+S12 N012 N020 0 N016 SHUT3
+C9 6 0 100f
+C19 N009 0 174.26f noiseless Rser=3.667Meg Rpar=1Meg
+G13 0 N009 N008 0 1<>
+S14 N022 4 0 N016 SHUT3
+S15 N021 4 0 N016 SHUT3
+I2 0 2 2.04n
+D1 4 6 DSHUT1
+D18 4 5 DESD
+S16 2 4 4 2 ESDI
+S18 1 4 4 1 ESDI
+.model DP D(Ron=1k Roff=1G Vfwd=2.5 epsilon=100m ilimit=1.4u noiseless)
+.model SP SW(Ron=100 Roff=1G vt=.5 vh=10m ilimit=17u noiseless)
+.model DESD D(Ron=1k Roff=1G vfwd=700m epsilon=100m noiseless)
+.model SNOI SW(Ron=1 Roff=1Meg vt=1.2 vh=-100m noiseless)
+.model NI VDMOS(Vto=325.5m kp=72.3m Mtriode=.9 lambda=.01)
+.model PI VDMOS(Vto=-325.5m Kp=341m lambda=.01 pchan is=0)
+.model DLIM0 D(Ron=10 Roff=10Meg Vfwd=1 epsilon=100m Vrev=1 epsilon=100m noiseless)
+.model DNLIN D(Roff=1.8Meg Ron=800k vfwd=0 epsilon=10m noiseless)
+.model DLIM D(Ron=100 Roff=2.949Meg Vfwd=700m Vrev=100m epsilon=10m revepsilon=10 noiseless)
+.model SHUT SW(level=2 Ron=10k Roff=100G vt=-.5 vh=-.2 noiseless)
+.model DSHUT1 D(Ron=1000 Roff=0.823E6 Vfwd=1 epsilon=100m Vrev=1 epsilon=100m ilimit=100n revilimit=0.1n noiseless)
+.model DSBD D( Ron=15 Roff=100Meg  Vfwd=-58.5m epsilon=50m  Vrev=100 revepsilon=10m noiseless)
+.model DNR D(Ron=1 Roff=100Meg Vfwd=-6.5m epsilon=300m noiseless)
+.model DLIMN1 D(Ron=200k Roff=415Meg Vfwd=1.378 Vrev=-330m epsilon=.1  noiseless)
+.model DLIMN2 D(Ron=5Meg Roff=1G Vfwd=-20m epsilon=50m ilimit=44n noiseless)
+.model DLIMP D(Ron=100k Roff=100Meg Vfwd=0.63 epsilon=10m noiseless)
+.model DLIMPR D(Ron=5Meg Roff=1G Vfwd=100m epsilon=10m noiseless)
+.model SGK SW(level=2 Ron=65k Roff=100G  vt=-260m vh=150m oneway epsilon=10m noiseless)
+.model SBiasN SW(level=2 Ron=5k Roff=1g vt=.5 vh=-.2 ilimit=8u noiseless)
+.model DBiasDrop D(Ron=1k Roff=1G vfwd=2.37 epsilon=200m noiseless)
+.model DBiasOTT D(Ron=500 Roff=1G vfwd=700m epsilon=200m noiseless)
+.model D1Meg D(Ron=1Meg Roff=1Meg vfwd=0 vrev=0 ilimit=10n revilimit=10n noiseless)
+.model SHUT3 SW(Ron=10 Roff=10G vt=-0.5 vh=100m noiseless)
+.model SHUT2 SW(Ron=10 Roff=10G vt=0.5 vh=100m noiseless)
+.model ESDI SW(Ron=50 Roff=1T Vt=31.6 Vh=-500m Vser=0.1 noiseless)
+.ends ADA4098-1

lib/sub/ADA4098-2.lib

@@ -0,0 +1,112 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4098-2 1 2 3 4 5 6
+B1 0 N006 I=10u*dnlim(uplim(V(1),V(4)+69.3,.1), V(4)-.15, .1)+1n*V(1)-10.72254n
+B2 N006 0 I=10u*dnlim(uplim(V(2),V(4)+69.3,.1), V(4)-.16, .1)+1n*V(2)
+C10 N006 0 50f Rpar=100K noiseless
+M1 N019 NG 4 4 NI temp=27
+C2 3 5 1p Rpar=1g noiseless
+D5 NG N022 DLIMN1
+M2 P001 N007 N004 N004 PI temp=27
+A3 N014 N016 4 4 4 4 N007 4 OTA g=2u ref=-.305 linear vlow=-1e308 vhigh=1e308
+C11 5 4 1p Rpar=1g noiseless
+D6 NG 4 DLIMN2
+C16 N016 5 12p
+A5 N012 0 N014 N014 N014 N014 N016 N014 OTA g=70u isource=10.3u Vlow=-1e308 Vhigh=1e308
+G1 4 NG N016 N014 140n
+D9 N016 N014 DLIM
+C7 2 0 2.7p Rser=1k Rpar=100G noiseless
+C13 3 4 10p
+C1 N009 0 30f
+G2 0 N014 4 0 .5m
+G4 0 N014 3 0 .5m
+C18 N014 0 200p Rpar=1K noiseless
+C6 1 0 2.7p Rser=1k Rpar=100G noiseless
+D3 3 N004 DSBD
+C5 3 N004 100f Rpar=10Meg noiseless
+D4 N004 N007 DLIMP
+D2 N009 0 DLIM0
+D1 4 5 DESD
+D8 4 1 DESD
+D10 4 2 DESD
+A2 N015 0 0 0 0 0 0 0 OTA g=0 in=1.8p ink=15
+D11 5 N019 DNR
+C15 N019 4 100f Rpar=10Meg noiseless
+D7 N007 3 DLIMPR
+A6 4 3 M M M M N005 M OTA g=2u iout=1u ref=-2.5 Rout=1Meg Cout=100f vlow=-1e308 vhigh=1e308
+S4 N021 N023 N005 0 SBiasN
+D13 3 N013 DBiasDrop
+C14 N021 4 100f
+S2 N004 N007 0 N005 SHUT
+S3 NG 4 0 N005 SHUT
+D16 2 1 D1Meg
+C17 N010 0 174.26f noiseless Rser=2.667Meg Rpar=1Meg
+G3 0 N010 N009 0 1<>
+D17 0 N009 DNLIN
+C20 N012 0 47f Rpar=1Meg noiseless
+G5 0 N012 N011 0 1<>
+S5 N014 N016 4 5 SGK
+C3 3 N007 .9p Rser=700k noiseless
+C12 NG 4 .9p Rser=700k noiseless
+D14 2 N013 DBiasOTT
+D15 1 N021 DBiasOTT
+S1 0 N008 3 2 SNOI
+A7 N008 0 0 0 0 0 0 0 OTA g=0 in=17.25p ink=5
+A1 2 1 0 0 0 0 0 0 OTA g=0 in=145f ink=6
+GNOI_I 1 2 N015 0 1<>
+S6 0 N015 3 2 SNOI
+A4 0 N006 0 0 0 0 N009 0 OTA g=1u linear en=16.95n*(1+freq/12e5) enk=3.3 Vhigh=1e308 Vlow=-1e308
+GNOI_V N006 0 N008 0 10n
+I1 0 1 1.76n
+S9 3 4 N017 0 SP
+S10 3 N007 N017 0 SHUT2
+S11 NG 4 N017 0 SHUT2
+A8 6 4 0 0 0 0 N017 0 SCHMITT Vt=1.5 Vh=1m Trise=1u Tfall=100u
+S7 5 0 N017 0 SHUT2
+S8 P001 5 0 N017 SHUT3
+S13 N018 4 0 N017 SHUT3
+G6 0 M 3 0 500<30>
+R1 M 0 1k noiseless
+G7 0 M 4 0 500<30>
+R2 N026 0 48 noiseless
+C4 N027 N026 10n Rpar=47.9K noiseless
+R3 N027 0 1 noiseless
+G8 0 N027 1 0 5.25m
+G9 0 N027 2 0 5.25m
+G10 0 N027 0 3 5.25m
+G11 0 N027 0 4 5.25m
+G12 0 N006 0 N026 1<>
+D12 3 N018 DP
+S12 N013 N021 0 N017 SHUT3
+D18 4 6 DSHUT1
+C9 6 0 100f
+C19 N011 0 174.26f noiseless Rser=3.667Meg Rpar=1Meg
+G13 0 N011 N010 0 1<>
+S14 N023 4 0 N017 SHUT3
+S15 N022 4 0 N017 SHUT3
+I2 0 2 2.04n
+.model DP D(Ron=1k Roff=1G Vfwd=2.5 epsilon=100m ilimit=1.4u noiseless)
+.model SP SW(Ron=100 Roff=1G vt=.5 vh=10m ilimit=17u noiseless)
+.model DESD D(Ron=1k Roff=1G vfwd=700m epsilon=100m noiseless)
+.model SNOI SW(Ron=1 Roff=1Meg vt=1.2 vh=-100m noiseless)
+.model NI VDMOS(Vto=325.5m kp=72.3m Mtriode=.9 lambda=.01)
+.model PI VDMOS(Vto=-325.5m Kp=341m lambda=.01 pchan is=0)
+.model DLIM0 D(Ron=10 Roff=10Meg Vfwd=1 epsilon=100m Vrev=1 epsilon=100m noiseless)
+.model DNLIN D(Roff=1.8Meg Ron=800k vfwd=0 epsilon=10m noiseless)
+.model DLIM D(Ron=100 Roff=2.949Meg Vfwd=700m Vrev=100m epsilon=10m revepsilon=10 noiseless)
+.model SHUT SW(level=2 Ron=10k Roff=100G vt=-.5 vh=-.2 noiseless)
+.model DSHUT1 D(Ron=1000 Roff=0.823E6 Vfwd=1 epsilon=100m Vrev=1 epsilon=100m ilimit=100n revilimit=0.1n noiseless)
+.model DSBD D( Ron=15 Roff=100Meg  Vfwd=-58.5m epsilon=50m  Vrev=100 revepsilon=10m noiseless)
+.model DNR D(Ron=1 Roff=100Meg Vfwd=-6.5m epsilon=300m noiseless)
+.model DLIMN1 D(Ron=200k Roff=415Meg Vfwd=1.378 Vrev=-330m epsilon=.1  noiseless)
+.model DLIMN2 D(Ron=5Meg Roff=1G Vfwd=-20m epsilon=50m ilimit=44n noiseless)
+.model DLIMP D(Ron=100k Roff=100Meg Vfwd=0.63 epsilon=10m noiseless)
+.model DLIMPR D(Ron=5Meg Roff=1G Vfwd=100m epsilon=10m noiseless)
+.model SGK SW(level=2 Ron=65k Roff=100G  vt=-260m vh=150m oneway epsilon=10m noiseless)
+.model SBiasN SW(level=2 Ron=5k Roff=1g vt=.5 vh=-.2 ilimit=8u noiseless)
+.model DBiasDrop D(Ron=1k Roff=1G vfwd=2.37 epsilon=200m noiseless)
+.model DBiasOTT D(Ron=500 Roff=1G vfwd=700m epsilon=200m noiseless)
+.model D1Meg D(Ron=1Meg Roff=1Meg vfwd=0 vrev=0 ilimit=10n revilimit=10n noiseless)
+.model SHUT3 SW(Ron=10 Roff=10G vt=-0.5 vh=100m noiseless)
+.model SHUT2 SW(Ron=10 Roff=10G vt=0.5 vh=100m noiseless)
+.ends ADA4098-2

lib/sub/ADA4099-1.lib

@@ -0,0 +1,112 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4099-1 1 2 3 4 5 6
+B1 0 N006 I=10u*dnlim(uplim(V(1),V(4)+69.1,.1), V(4)-.15, .1)+1n*V(1)-10.72254n
+B2 N006 0 I=10u*dnlim(uplim(V(2),V(4)+69.1,.1), V(4)-.16, .1)+1n*V(2)
+C10 N006 0 50f Rpar=100K noiseless
+M1 N018 NG 4 4 NI temp=27
+C2 3 5 1p Rpar=1g noiseless
+D5 NG N022 DLIMN1
+M2 P001 N007 N004 N004 PI temp=27
+A3 N013 N015 4 4 4 4 N007 4 OTA g=2u ref=-.305 linear vlow=-1e308 vhigh=1e308
+C11 5 4 1p Rpar=1g noiseless
+D6 NG 4 DLIMN2
+C16 N015 5 1.8p
+A5 N011 0 N013 N013 N013 N013 N015 N013 OTA g=50u iout=9.8u Vlow=-1e308 Vhigh=1e308
+G1 4 NG N015 N013 140n
+D9 N015 N013 DLIM
+C7 2 0 2.7p Rser=1k Rpar=100G noiseless
+C13 3 4 10p
+C1 N009 0 7f
+G2 0 N013 4 0 .5m
+G4 0 N013 3 0 .5m
+C18 N013 0 200p Rpar=1K noiseless
+C6 1 0 2.7p Rser=1k Rpar=100G noiseless
+D3 3 N004 DSBD
+C5 3 N004 100f Rpar=10Meg noiseless
+D4 N004 N007 DLIMP
+D2 N009 0 DLIM0
+D1 4 5 DESD
+D8 4 1 DESD
+D10 4 2 DESD
+A2 N014 0 0 0 0 0 0 0 OTA g=0 en=8n enk=5 in=5p ink=15
+D11 5 N018 DNR
+C15 N018 4 100f Rpar=10Meg noiseless
+D7 N007 3 DLIMPR
+A6 4 3 M M M M N005 M OTA g=2u iout=1u ref=-2.5 Rout=1Meg Cout=100f vlow=-1e308 vhigh=1e308
+S4 N020 N021 N005 0 SBiasN
+D13 3 N012 DBiasDrop
+C14 N020 4 100f
+S2 N004 N007 0 N005 SHUT
+S3 NG 4 0 N005 SHUT
+D16 2 1 D100k
+C17 N010 0 80.26f noiseless Rser=2.667Meg Rpar=1Meg
+G3 0 N010 N009 0 1<>
+D17 0 N009 DNLIN
+C19 N011 0 6f Rpar=1Meg noiseless
+G5 0 N011 N010 0 1<>
+S5 N013 N015 4 5 SGK
+C3 3 N007 .9p Rser=700k noiseless
+C12 NG 4 .9p Rser=700k noiseless
+D14 2 N012 DBiasOTT
+D15 1 N020 DBiasOTT
+S1 0 N008 3 2 SNOI
+A7 N008 0 0 0 0 0 0 0 OTA g=0 in=17.25p ink=5
+A1 2 1 0 0 0 0 0 0 OTA g=0 in=500f ink=6
+GNOI_I 1 2 N014 0 1<>
+S6 0 N014 3 2 SNOI
+A4 0 N006 0 0 0 0 N009 0 OTA g=1u linear en=7n*(1+freq/40e6) enk=6 Vhigh=1e308 Vlow=-1e308
+GNOI_V N006 0 N008 0 10n
+I1 1 0 1.4n
+S9 3 4 N016 0 SP
+S10 3 N007 N016 0 SHUT2
+S11 NG 4 N016 0 SHUT2
+A8 6 4 0 0 0 0 N016 0 SCHMITT Vt=1.5 Vh=1m Trise=1u Tfall=12u
+S7 5 0 N016 0 SHUT2
+S8 P001 5 0 N016 SHUT3
+S13 N017 4 0 N016 SHUT3
+G6 0 M 3 0 500<30>
+R1 M 0 1k noiseless
+G7 0 M 4 0 500<30>
+R2 N025 0 48 noiseless
+C4 N026 N025 10n Rpar=47.9K noiseless
+R3 N026 0 1 noiseless
+G8 0 N026 1 0 5.25m
+G9 0 N026 2 0 5.25m
+G10 0 N026 0 3 5.25m
+G11 0 N026 0 4 5.25m
+G12 0 N006 0 N025 1<>
+D12 3 N017 DP
+S12 N012 N020 0 N016 SHUT3
+S14 N021 4 0 N016 SHUT3
+S16 N022 4 0 N016 SHUT3
+D18 4 6 DSHUT1
+C8 6 0 100f
+.model DP D(Ron=1k Roff=1G Vfwd=2.5 epsilon=100m ilimit=0.49m noiseless)
+.model SP SW(Ron=100 Roff=1G vt=.5 vh=10m ilimit=24u noiseless)
+.model DESD D(Ron=1k Roff=1G vfwd=700m epsilon=100m noiseless)
+.model SNOI SW(Ron=1 Roff=1Meg vt=1.2 vh=-100m noiseless)
+.model NI VDMOS(Vto=220m kp=60m Mtriode=.9 lambda=.01)
+.model PI VDMOS(Vto=-220m Kp=120m lambda=.01 pchan is=0)
+.model DLIM0 D(Ron=10 Roff=10Meg Vfwd=1 epsilon=100m Vrev=1 epsilon=100m noiseless)
+.model DNLIN D(Roff=1.8Meg Ron=800k vfwd=0 epsilon=10m noiseless)
+.model DLIM D(Ron=100 Roff=4.111Meg Vfwd=700m Vrev=100m epsilon=10m revepsilon=10 noiseless)
+.model SHUT SW(level=2 Ron=10k Roff=100G vt=-.5 vh=-.2 noiseless)
+.model DSHUT1 D(Ron=1000 Roff=0.823E6 Vfwd=1 epsilon=100m Vrev=1 epsilon=100m ilimit=100n revilimit=0.1n noiseless)
+.model DSBD D( Ron=15 Roff=100Meg  Vfwd=-48.5m epsilon=50m  Vrev=100 revepsilon=10m noiseless)
+.model DNR D(Ron=1 Roff=100Meg Vfwd=-8.5m epsilon=300m noiseless)
+.model DLIMN1 D(Ron=200k Roff=415Meg Vfwd=1.378 Vrev=-330m epsilon=.1  noiseless)
+.model DLIMN2 D(Ron=5Meg Roff=1G Vfwd=-20m epsilon=50m ilimit=44n noiseless)
+.model DLIMP D(Ron=100k Roff=100Meg Vfwd=0.815 epsilon=10m noiseless)
+.model DLIMPR D(Ron=5Meg Roff=1G Vfwd=100m epsilon=10m noiseless)
+.model SGK SW(level=2 Ron=65k Roff=100G  vt=-260m vh=150m oneway epsilon=10m noiseless)
+.model SBiasN SW(level=2 Ron=5k Roff=1g vt=.5 vh=-.2 ilimit=82.5u noiseless)
+.model DBiasDrop D(Ron=1k Roff=1G vfwd=2.37 epsilon=200m noiseless)
+.model DBiasOTT D(Ron=500 Roff=1G vfwd=700m epsilon=200m noiseless)
+.model D100k D(Ron=100k Roff=100k vfwd=0 vrev=0 ilimit=10n revilimit=10n noiseless)
+.model 600nA D(Ron=1Meg Roff=1G Ilimit=600n epsilon=1 Vfwd=1 noiseless)
+.model 300nA D(Ron=1Meg Roff=1G Ilimit=300n epsilon=1 Vfwd=0 noiseless)
+.model SHUT3 SW(Ron=10 Roff=10G vt=-0.5 vh=100m noiseless)
+.model SHUT2 SW(Ron=10 Roff=10G vt=0.5 vh=100m noiseless)
+.model SHUTD SW(Ron=10 Roff=10G vt=0 vh=100m ilimit=300n noiseless)
+.ends ADA4099-1

lib/sub/ADA4099-2.lib

@@ -0,0 +1,112 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4099-2 1 2 3 4 5 6
+B1 0 N006 I=10u*dnlim(uplim(V(1),V(4)+69.1,.1), V(4)-.15, .1)+1n*V(1)-10.72254n
+B2 N006 0 I=10u*dnlim(uplim(V(2),V(4)+69.1,.1), V(4)-.16, .1)+1n*V(2)
+C10 N006 0 50f Rpar=100K noiseless
+M1 N018 NG 4 4 NI temp=27
+C2 3 5 1p Rpar=1g noiseless
+D5 NG N022 DLIMN1
+M2 P001 N007 N004 N004 PI temp=27
+A3 N013 N015 4 4 4 4 N007 4 OTA g=2u ref=-.305 linear vlow=-1e308 vhigh=1e308
+C11 5 4 1p Rpar=1g noiseless
+D6 NG 4 DLIMN2
+C16 N015 5 1.8p
+A5 N011 0 N013 N013 N013 N013 N015 N013 OTA g=50u iout=9.8u Vlow=-1e308 Vhigh=1e308
+G1 4 NG N015 N013 140n
+D9 N015 N013 DLIM
+C7 2 0 2.7p Rser=1k Rpar=100G noiseless
+C13 3 4 10p
+C1 N009 0 7f
+G2 0 N013 4 0 .5m
+G4 0 N013 3 0 .5m
+C18 N013 0 200p Rpar=1K noiseless
+C6 1 0 2.7p Rser=1k Rpar=100G noiseless
+D3 3 N004 DSBD
+C5 3 N004 100f Rpar=10Meg noiseless
+D4 N004 N007 DLIMP
+D2 N009 0 DLIM0
+D1 4 5 DESD
+D8 4 1 DESD
+D10 4 2 DESD
+A2 N014 0 0 0 0 0 0 0 OTA g=0 en=8n enk=5 in=5p ink=15
+D11 5 N018 DNR
+C15 N018 4 100f Rpar=10Meg noiseless
+D7 N007 3 DLIMPR
+A6 4 3 M M M M N005 M OTA g=2u iout=1u ref=-2.5 Rout=1Meg Cout=100f vlow=-1e308 vhigh=1e308
+S4 N020 N021 N005 0 SBiasN
+D13 3 N012 DBiasDrop
+C14 N020 4 100f
+S2 N004 N007 0 N005 SHUT
+S3 NG 4 0 N005 SHUT
+D16 2 1 D100k
+C17 N010 0 80.26f noiseless Rser=2.667Meg Rpar=1Meg
+G3 0 N010 N009 0 1<>
+D17 0 N009 DNLIN
+C19 N011 0 6f Rpar=1Meg noiseless
+G5 0 N011 N010 0 1<>
+S5 N013 N015 4 5 SGK
+C3 3 N007 .9p Rser=700k noiseless
+C12 NG 4 .9p Rser=700k noiseless
+D14 2 N012 DBiasOTT
+D15 1 N020 DBiasOTT
+S1 0 N008 3 2 SNOI
+A7 N008 0 0 0 0 0 0 0 OTA g=0 in=17.25p ink=5
+A1 2 1 0 0 0 0 0 0 OTA g=0 in=500f ink=6
+GNOI_I 1 2 N014 0 1<>
+S6 0 N014 3 2 SNOI
+A4 0 N006 0 0 0 0 N009 0 OTA g=1u linear en=7n*(1+freq/40e6) enk=6 Vhigh=1e308 Vlow=-1e308
+GNOI_V N006 0 N008 0 10n
+I1 1 0 1.4n
+S9 3 4 N016 0 SP
+S10 3 N007 N016 0 SHUT2
+S11 NG 4 N016 0 SHUT2
+A8 6 4 0 0 0 0 N016 0 SCHMITT Vt=1.5 Vh=1m Trise=1u Tfall=12u
+S7 5 0 N016 0 SHUT2
+S8 P001 5 0 N016 SHUT3
+S13 N017 4 0 N016 SHUT3
+G6 0 M 3 0 500<30>
+R1 M 0 1k noiseless
+G7 0 M 4 0 500<30>
+R2 N025 0 48 noiseless
+C4 N026 N025 10n Rpar=47.9K noiseless
+R3 N026 0 1 noiseless
+G8 0 N026 1 0 5.25m
+G9 0 N026 2 0 5.25m
+G10 0 N026 0 3 5.25m
+G11 0 N026 0 4 5.25m
+G12 0 N006 0 N025 1<>
+D12 3 N017 DP
+S12 N012 N020 0 N016 SHUT3
+S14 N021 4 0 N016 SHUT3
+S16 N022 4 0 N016 SHUT3
+D18 4 6 DSHUT1
+C8 6 0 100f
+.model DP D(Ron=1k Roff=1G Vfwd=2.5 epsilon=100m ilimit=0.49m noiseless)
+.model SP SW(Ron=100 Roff=1G vt=.5 vh=10m ilimit=24u noiseless)
+.model DESD D(Ron=1k Roff=1G vfwd=700m epsilon=100m noiseless)
+.model SNOI SW(Ron=1 Roff=1Meg vt=1.2 vh=-100m noiseless)
+.model NI VDMOS(Vto=220m kp=60m Mtriode=.9 lambda=.01)
+.model PI VDMOS(Vto=-220m Kp=120m lambda=.01 pchan is=0)
+.model DLIM0 D(Ron=10 Roff=10Meg Vfwd=1 epsilon=100m Vrev=1 epsilon=100m noiseless)
+.model DNLIN D(Roff=1.8Meg Ron=800k vfwd=0 epsilon=10m noiseless)
+.model DLIM D(Ron=100 Roff=4.111Meg Vfwd=700m Vrev=100m epsilon=10m revepsilon=10 noiseless)
+.model SHUT SW(level=2 Ron=10k Roff=100G vt=-.5 vh=-.2 noiseless)
+.model DSHUT1 D(Ron=1000 Roff=0.823E6 Vfwd=1 epsilon=100m Vrev=1 epsilon=100m ilimit=100n revilimit=0.1n noiseless)
+.model DSBD D( Ron=15 Roff=100Meg  Vfwd=-48.5m epsilon=50m  Vrev=100 revepsilon=10m noiseless)
+.model DNR D(Ron=1 Roff=100Meg Vfwd=-8.5m epsilon=300m noiseless)
+.model DLIMN1 D(Ron=200k Roff=415Meg Vfwd=1.378 Vrev=-330m epsilon=.1  noiseless)
+.model DLIMN2 D(Ron=5Meg Roff=1G Vfwd=-20m epsilon=50m ilimit=44n noiseless)
+.model DLIMP D(Ron=100k Roff=100Meg Vfwd=0.815 epsilon=10m noiseless)
+.model DLIMPR D(Ron=5Meg Roff=1G Vfwd=100m epsilon=10m noiseless)
+.model SGK SW(level=2 Ron=65k Roff=100G  vt=-260m vh=150m oneway epsilon=10m noiseless)
+.model SBiasN SW(level=2 Ron=5k Roff=1g vt=.5 vh=-.2 ilimit=82.5u noiseless)
+.model DBiasDrop D(Ron=1k Roff=1G vfwd=2.37 epsilon=200m noiseless)
+.model DBiasOTT D(Ron=500 Roff=1G vfwd=700m epsilon=200m noiseless)
+.model D100k D(Ron=100k Roff=100k vfwd=0 vrev=0 ilimit=10n revilimit=10n noiseless)
+.model 600nA D(Ron=1Meg Roff=1G Ilimit=600n epsilon=1 Vfwd=1 noiseless)
+.model 300nA D(Ron=1Meg Roff=1G Ilimit=300n epsilon=1 Vfwd=0 noiseless)
+.model SHUT3 SW(Ron=10 Roff=10G vt=-0.5 vh=100m noiseless)
+.model SHUT2 SW(Ron=10 Roff=10G vt=0.5 vh=100m noiseless)
+.model SHUTD SW(Ron=10 Roff=10G vt=0 vh=100m ilimit=300n noiseless)
+.ends ADA4099-2

lib/sub/ADA4177.lib

@@ -0,0 +1,428 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4177 1 2 3 4 5
+R3 Aol1 COM 1Meg Temp=-273.15
+R4 Clamp COM 1Meg Temp=-273.15
+C1 Clamp COM {Cfp1a}
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}* V(Aol1,COM), {Isink}-V(OL,COM)* 0.2, 10m), {Isrc}+V(OL,COM)*0.2, 10m)
+A1 Inn2 Inp2 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k
+G2 0 VCC_Int 3 0 1
+G3 0 Vee_Int 4 0 1
+R6 VCC_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N060 VCC_Int 1Meg Temp=-273.15
+R9 N060 Vee_Int 1Meg Temp=-273.15
+C2 N060 0 1
+E1 COM 0 N060 0 1
+R10 COM 0 1Meg Temp=-273.15
+B2 COM N027 I=Uplim(Dnlim({G5_Zo}* V(ZoF,COM), {Izon}, 25m), {Izop}, 25m)
+Cinp COM Inp1 {Ccm}
+Cinn Inn1 COM {Ccm}
+Cdiff Inp1 Inn1 {Cdiff}
+Rinn Inn1 COM {Rcm} Temp=-273.15
+Rinp COM Inp1 {Rcm} Temp=-273.15
+Ibp Inp1 COM {Ib}
+Ibn Inn1 COM {Ib-Ios}
+R26 N024 N023 1Meg Temp=-273.15
+B3 N023 N024 I=1u*{Vos+Drift* (Temp-27)}
+G6 N030 N031 N051 N050 1<>
+R28 N031 N030 1Meg Temp=-273.15
+C8 N044 N045 {C1a_PSRp}
+G8 COM N045 VCC_Int COM {G1_PSRp}
+R29 N045 COM 1 Temp=-273.15
+R30 N044 N045 {R1a_PSRp} Temp=-273.15
+R31 N044 COM {R2a_PSRp} Temp=-273.15
+C9 N042 N043 {C1b_PSRp}
+R32 N042 COM {R2b_PSRp} Temp=-273.15
+R33 N042 N043 {R1b_PSRp} Temp=-273.15
+G9 COM N043 N044 COM 1
+R34 N043 COM 1 Temp=-273.15
+G10 COM N051 N042 COM {G2_PSRp}
+R35 N051 COM 1 Temp=-273.15
+C10 N039 N038 {C1a_PSRn}
+G11 COM N038 VEE_Int COM {G1_PSRn}
+R36 N038 COM 1 Temp=-273.15
+R37 N039 N038 {R1a_PSRn} Temp=-273.15
+R38 N039 COM {R2a_PSRn} Temp=-273.15
+G12 N021 N022 N009 COM 1<>
+R39 N022 N021 1Meg Temp=-273.15
+Vimon N020 5 0
+BIq 3 4 I={Iq_on} +I(VImon)
+G1 COM N023 Inp1 COM 1k
+G14 COM Inn2 Inn1 COM 1k
+R5 COM N023 1m Temp=-273.15
+R43 COM Inn2 1m Temp=-273.15
+C12 Inn2 COM 1p
+C13 N023 COM 1p
+DIP N048 Inp2 DI
+DIN Inp2 N049 DI
+C14 VCC_Int 0 1n
+C15 Vee_Int 0 1n
+DOP N046 N019 DO
+DON N019 N047 DO
+S2 Cap2R Cap2L OL COM OL
+F1 COM OLp VGP 1m
+A4 OLp OLn COM OLVIp OLVIn COM OL COM OR Ref=100u Vh=50u Trise=10n
+R44 OLp COM 1k
+F2 COM OLn VGN 1m
+R45 OLn COM 1k
+C16 OLp COM 10p
+C17 OLn COM 10p
+DOI N019 N020 LIM
+COI N020 N019 1p
+G15 COM Vsatp Vsatpi COM 1
+R48 Vsatp COM 1
+C21 Vsatp COM 1n
+G16 COM Vsatn Vsatni COM 1
+R49 Vsatn COM 1
+C22 Vsatn COM 1n
+S3 3 N023 N023 3 ESDI
+S4 3 Inn2 Inn2 3 ESDI
+S5 N023 4 4 N023 ESDI
+S6 Inn2 4 4 Inn2 ESDI
+C24 N019 Vsatp 2p
+C25 N019 Vsatn 2p
+S7 3 5 5 3 ESDO
+S8 5 4 4 5 ESDO
+R16 N035 COM 1Meg Temp=-273.15
+C5 N035 COM {Cfp2}
+G5 COM N035 N034 COM 1<>
+R18 N036 COM 1Meg Temp=-273.15
+C6 N036 COM {Cfp3}
+G17 COM N036 N035 COM 1<>
+R19 N037 COM 1Meg Temp=-273.15
+C20 N037 COM {Cfp3}
+G23 COM N037 N036 COM 1<>
+G25 COM N025 Clamp COM 1
+R21 N025 COM 1 Temp=-273.15
+R22 N025 N026 {R1a_Aol} Temp=-273.15
+R23 N026 COM {R2a_Aol} Temp=-273.15
+G26 COM N034 N026 COM {G1_Aol}
+C31 N026 N025 {C1a_Aol}
+R50 N034 COM 1 Temp=-273.15
+B4 COM N061 I=1m*(V(3,COM)+{Vcm_max}) Rpar=1k Cpar=1n
+G13 COM CMp N061 COM 1
+R40 CMp COM 1
+B5 COM N062 I=1m*(V(4,COM)+{Vcm_min}) Rpar=1k Cpar=1n
+G30 COM CMn N062 COM 1
+R41 CMn COM 1
+R42 Vsatpi 3 1k
+C11 Vsatpi 3 1n
+B8 Vsatpi 3 I=1m*Max(Ap+((Bp*I(Vimon)**Cp)/(Dp**Cp+I(Vimon)**Cp)),40u)
+R14 Vsatni 4 1k
+C18 Vsatni 4 1n
+B9 4 Vsatni I=1m*Max(An+((Bn*-I(Vimon)**Cn)/(Dn**Cn-I(Vimon)**Cn)),40u)
+VIP N048 CMp 0
+VIN CMn N049 0
+F3 COM OLVIp VIP 1
+R46 OLVIp COM 1k
+F4 COM OLVIn VIN 1
+R51 OLVIn COM 1k
+C34 OLVIp COM 10p
+C35 OLVIn COM 10p
+G4 COM Cap2L N037 N019 {G1_Zo}
+R11 Cap2L COM 1 Temp=-273.15
+R12 Cap2L Cap2R {R1a_Zo} Temp=-273.15
+R13 Cap2R COM {R2a_Zo} Temp=-273.15
+G18 COM N010 Cap2R COM {G2_Zo}
+C3 Cap2R Cap2L {C1a_Zo}
+R17 N010 COM 1 Temp=-273.15
+Rx N019 N027 {Rx_Zo} Temp=-273.15
+Rdummy N019 COM {Rdummy_Zo} Temp=-273.15
+R52 N010 N011 {R2b_Zo} Temp=-273.15
+R55 N011 N032 {R1b_Zo} Temp=-273.15
+C23 COM N032 {C1b_Zo}
+Gb1 COM N012 N011 COM 1
+R56 N012 COM 1 Temp=-273.15
+R57 N014 N015 {R1c_Zo} Temp=-273.15
+R58 N015 COM {R2c_Zo} Temp=-273.15
+G19 COM N016 N015 COM {G3_Zo}
+C27 N015 N014 {C1c_Zo}
+R59 N016 COM 1 Temp=-273.15
+R60 N016 N017 {R1d_Zo} Temp=-273.15
+R61 N017 COM {R2d_Zo} Temp=-273.15
+G20 COM N018 N017 COM {G4_Zo}
+C28 N017 N016 {C1d_Zo}
+R62 N018 COM 1 Temp=-273.15
+R63 N018 ZoF {R1e_Zo} Temp=-273.15
+R64 ZoF COM {R2e_Zo} Temp=-273.15
+C29 ZoF N018 {C1e_Zo}
+R65 N027 COM 1 Temp=-273.15
+R66 N012 N013 {R2f_Zo} Temp=-273.15
+R72 N013 N033 {R1f_Zo} Temp=-273.15
+C36 COM N033 {C1f_Zo}
+Gb2 COM N014 N013 COM 1
+R75 N014 COM 1 Temp=-273.15
+C7 N041 N040 {C1b_PSRn}
+R53 N041 COM {R2b_PSRn} Temp=-273.15
+R54 N041 N040 {R1b_PSRn} Temp=-273.15
+R67 N040 COM 1 Temp=-273.15
+G21 COM N040 N039 COM 1
+G22 COM N050 N041 COM {G2_PSRn}
+R68 N050 COM 1 Temp=-273.15
+B6 COM N052 I=1m*({Zo_max}* {Iscp}+V(3,COM)) Rpar=1k Cpar=1n
+G27 COM GRp N052 COM 1
+R69 GRp COM 1
+G28 COM GRn N053 COM 1
+R70 GRn COM 1
+B7 COM N053 I=1m*({Zo_max}* {Iscn}+V(4,COM)) Rpar=1k Cpar=1n
+VGP N046 Vsatp 0
+VGN Vsatn N047 0
+DGP GRp Clamp DG
+DGN Clamp GRn DG
+R1 Inp1 1 {Rser} Temp=-273.15
+R2 Inn1 2 {Rser} Temp=-273.15
+Rdiff Inp1 Inn1 {Rdiff} Temp=-273.15
+C4 N002 N001 {C1a_CMR}
+G7 COM N001 Inp1 COM {G1_CMR}
+R15 N001 COM 1 Temp=-273.15
+R24 N002 N001 {R1a_CMR} Temp=-273.15
+R25 N002 COM {R2a_CMR} Temp=-273.15
+G29 COM N003 N002 COM 1
+R27 N003 COM 1 Temp=-273.15
+C19 N004 N003 {C1b_CMR}
+R47 N004 N003 {R1b_CMR} Temp=-273.15
+R71 N004 COM {R2b_CMR} Temp=-273.15
+G31 COM N005 N004 COM {G2_CMR}
+R73 N005 COM 1 Temp=-273.15
+C26 N006 N005 {C1c_CMR}
+R74 N006 N005 {R1c_CMR} Temp=-273.15
+R76 N006 COM {R2c_CMR} Temp=-273.15
+G32 COM N007 N006 COM {G3_CMR}
+R77 N007 COM 1 Temp=-273.15
+C32 N008 N007 {C1d_CMR}
+R78 N008 N007 {R1d_CMR} Temp=-273.15
+R79 N008 COM {R2d_CMR} Temp=-273.15
+G33 COM N009 N008 COM {G4_CMR}
+R80 N009 COM 1 Temp=-273.15
+R81 N063 COM 0.94
+R82 N054 COM 1 Temp=-273.15
+R83 N054 N055 {R2b_I_n} Temp=-273.15
+R84 N055 N064 {R1b_I_n} Temp=-273.15
+C33 COM N064 {C1b_I_n}
+Gb3 COM N056 N055 COM 1
+R85 N056 COM 1 Temp=-273.15
+R86 N056 N057 {R2b_I_n} Temp=-273.15
+R87 N057 N065 {R1b_I_n} Temp=-273.15
+C37 COM N065 {C1b_I_n}
+Gb4 COM N058 N057 COM 1
+R88 N059 COM 1 Temp=-273.15
+G34 COM N054 N063 COM 1
+V_I_n N058 N059 0
+F_I_nn Inn1 COM V_I_n 1
+F_I_np Inp1 COM V_I_n 1
+A3 COM COM COM COM COM COM N070 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={En} Enk={Enk}
+R96 N070 COM 100k Temp=-273.15
+R97 N070 N071 {R1a_E_n} Temp=-273.15
+R98 N071 COM {R2a_E_n} Temp=-273.15
+G37 COM N072 N071 COM {G1_E_n}
+C40 N071 N070 {C1a_E_n}
+R99 N072 COM 1 Temp=-273.15
+R100 N072 N073 {R1a_E_n} Temp=-273.15
+R101 N073 COM {R2a_E_n} Temp=-273.15
+G38 N021 N024 N080 COM 1<>
+C41 N073 N072 {C1a_E_n}
+R102 N024 N021 1Meg Temp=-273.15
+G24 COM N030 N022 COM 1k
+R20 COM N030 1m Temp=-273.15
+G35 COM Inp2 N031 COM 1k
+R89 COM Inp2 1m Temp=-273.15
+C30 N075 N074 {CHP}
+R91 N075 COM 100k Temp=-273.15
+G36 COM N074 N073 COM {G1_E_n}
+R92 N074 COM 1 Temp=-273.15
+R90 N076 COM 100k Temp=-273.15
+R93 N077 COM 100k Temp=-273.15
+R94 N078 COM 100k Temp=-273.15
+R95 N079 COM 100k Temp=-273.15
+C38 N076 N075 {CHP}
+C39 N077 N076 {CHP}
+C42 N078 N077 {CHP}
+C43 N079 N078 {CHP}
+R103 N080 COM 100k Temp=-273.15
+C44 N080 N079 {CHP}
+.param En=8.25n Enk=11
+.param Inp=0.2p Inkp=74
+.param Inn=0.2p Inkn=74
+.param Vos=0.313u Drift=1u
+.param Ib=-0.3n Ios=0.1n
+.param Vcm_min=1.5 Vcm_max=-1.5
+.param Vsmin=5 Vsmax=36
+.param Iscp=44m Iscn=-59m
+.param Iq_on=500u Iq_off=1u
+.param IZop={2*Rx_Zo*Iscp} IZon={2*Rx_Zo*Iscn}
+.model DI D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model LIM D(Vfwd=1n Vrev=1n Ron=1m Roff=1m Ilimit={Iscp} Revilimit={-Iscn} Epsilon=1u Noiseless)
+.model DG D(Vfwd=1k Vrev=0 Revepsilon=0.5 Noiseless)
+.model ESDI SW(Ron=50 Roff=1T Vt=0.5 Vh=-0.1 Vser=0.1 Noiseless)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n Noiseless)
+.model OL SW(Ron=10m Roff=1G Vt=500m Vh=-100m Noiseless)
+.param Rser=10m
+.param Rcm=130G Ccm=8p
+.param Rdiff=4Meg Cdiff=1p
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param Rej_dc_PSRp=145
+.param R1a_PSRp=100Meg
+.param fz1_PSRp=0.37
+.param fp1_PSRp=1.7Meg
+.param C1b_PSRp = {1 / (2 * pi * R1b_PSRp * fz2_PSRp)}
+.param R2b_PSRp = {R1b_PSRp/ ((2 * pi * fp2_PSRp * C1b_PSRp
++* R1b_PSRp) - 1)}
+.param actual2_PSRp = {R2b_PSRp / (R1b_PSRp + R2b_PSRp)}
+.param G2_PSRp = {1/actual2_PSRp}
+.param R1b_PSRp=1Meg
+.param fz2_PSRp=475k
+.param fp2_PSRp=1.7Meg
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param Rej_dc_PSRn=145
+.param R1a_PSRn=100Meg
+.param fz1_PSRn=4
+.param fp1_PSRn=3Meg
+.param Aol_v= {pwr(10, (Aol/20))}
+.param Aol_adj = {(Aol_v/RL_dc)*(Zo_dc + RL_dc)}
+.param Aol_adj_dB={20*log10(Aol_adj)+1}
+.param Aol2 = {pwr(10, (Aol_adj_dB - 40)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Cfp3={1 / (2 * pi * fp3 * 1Meg)}
+.param A=8.85e-1 B=5.56e-2 C=1.06 D=2.99m
+.param ratio = {Zo_dc/RL_dc}
+.param Cfp1a = {Cfp1*((A+B*ratio)/(1+C*ratio+D*ratio**2))}
+.param Isrc = {Cfp1a * SRp * 1Meg} Isink = {Cfp1a * SRn * 1Meg}
+.param R1a_Aol=1Meg
+.param fz1_Aol=1.5Meg
+.param fp1_Aol=10G
+.param C1a_Aol = {1 / (2 * pi * R1a_Aol * fz1_Aol)}
+.param R2a_Aol = {R1a_Aol/ ((2 * pi * fp1_Aol * C1a_Aol
++* R1a_Aol) - 1)}
+.param actual1_Aol = {R2a_Aol / (R1a_Aol + R2a_Aol)}
+.param G1_Aol={1/actual1_Aol}
+.param beta_Zo=1.125
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=722.2
+.param Zo_max={Zo_dc}
+.param R1a_Zo=1Meg
+.param fz1_Zo=4.5
+.param fp1_Zo=14.5
+.param C1a_Zo = {1 / (2 * pi * R1a_Zo * fz1_Zo)}
+.param R2a_Zo = {R1a_Zo/ ((2 * pi * fp1_Zo * C1a_Zo
++* R1a_Zo) - 1)}
+.param actual1_Zo = {R2a_Zo / (R1a_Zo + R2a_Zo)}
+.param G2_Zo = {1/actual1_Zo}
+.param R1b_Zo=1Meg
+.param fp2_Zo=50k
+.param fz2_Zo=70k
+.param C1b_Zo = {1 / (fz2_Zo * R1b_Zo * 2 * pi)}
+.param R2b_Zo = {(1 / (fp2_Zo * C1b_Zo * 2 * pi))
++- R1b_Zo}
+.param R1c_Zo=1Meg
+.param fz3_Zo=470k
+.param fp3_Zo=560k
+.param C1c_Zo = {1 / (2 * pi * R1c_Zo * fz3_Zo)}
+.param R2c_Zo = {R1c_Zo/ ((2 * pi * fp3_Zo * C1c_Zo
++* R1c_Zo) - 1)}
+.param actual3_Zo = {R2c_Zo / (R1c_Zo + R2c_Zo)}
+.param G3_Zo = {1/actual3_Zo}
+.param R1d_Zo=1Meg
+.param fz4_Zo=1.98Meg
+.param fp4_Zo=3.5Meg
+.param C1d_Zo = {1 / (2 * pi * R1d_Zo * fz4_Zo)}
+.param R2d_Zo = {R1d_Zo/ ((2 * pi * fp4_Zo * C1d_Zo
++* R1d_Zo) - 1)}
+.param actual4_Zo = {R2d_Zo / (R1d_Zo + R2d_Zo)}
+.param G4_Zo = {1/actual4_Zo}
+.param R1e_Zo=1Meg
+.param fz5_Zo=34.5Meg
+.param fp5_Zo=1G
+.param C1e_Zo = {1 / (2 * pi * R1e_Zo * fz5_Zo)}
+.param R2e_Zo = {R1e_Zo/ ((2 * pi * fp5_Zo * C1e_Zo
++* R1e_Zo) - 1)}
+.param actual5_Zo = {R2e_Zo / (R1e_Zo + R2e_Zo)}
+.param G5_Zo = {1/actual5_Zo}
+.param R1f_Zo=1Meg
+.param fp6_Zo=140k
+.param fz6_Zo=160k
+.param C1f_Zo = {1 / (fz6_Zo * R1f_Zo * 2 * pi)}
+.param R2f_Zo = {(1 / (fp6_Zo * C1f_Zo * 2 * pi))
++- R1f_Zo}
+.param Aol=114 RL_dc=2k
+.param SRp=1.76 SRn=-1.76
+.param fp1=4.05 fp2=1.5Meg fp3=13.6Meg
+.param C1b_PSRn = {1 / (2 * pi * R1b_PSRn * fz2_PSRn)}
+.param R2b_PSRn = {R1b_PSRn/ ((2 * pi * fp2_PSRn * C1b_PSRn
++* R1b_PSRn) - 1)}
+.param actual2_PSRn = {R2b_PSRn/ (R1b_PSRn + R2b_PSRn)}
+.param G2_PSRn = {1/actual2_PSRn}
+.param R1b_PSRn=1Meg
+.param fz2_PSRn=130k
+.param fp2_PSRn=3Meg
+.param Ap=0.15 Bp=818 Cp=5.62 Dp=9e-2
+.param An=0.15 Bn=69.5 Cn=6.32 Dn=7.27e-2
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Rej_dc_CMR=130
+.param R1a_CMR=1Meg
+.param fz1_CMR=500
+.param fp1_CMR=11.5k
+.param R1b_CMR=1Meg
+.param fz2_CMR=30k
+.param fp2_CMR=185k
+.param C1b_CMR = {1 / (2 * pi * R1b_CMR * fz2_CMR)}
+.param R2b_CMR = {R1b_CMR/ ((2 * pi * fp2_CMR * C1b_CMR
++* R1b_CMR) - 1)}
+.param actual2_CMR = {R2b_CMR / (R1b_CMR + R2b_CMR)}
+.param G2_CMR = {1/actual2_CMR}
+.param R1c_CMR=1Meg
+.param fz3_CMR=350k
+.param fp3_CMR=2.5Meg
+.param R1d_CMR=1Meg
+.param fz4_CMR=7Meg
+.param fp4_CMR=25Meg
+.param C1c_CMR = {1 / (2 * pi * R1c_CMR * fz3_CMR)}
+.param R2c_CMR = {R1c_CMR/ ((2 * pi * fp3_CMR * C1c_CMR
++* R1c_CMR) - 1)}
+.param actual3_CMR = {R2c_CMR / (R1c_CMR + R2c_CMR)}
+.param G3_CMR = {1/actual3_CMR}
+.param C1d_CMR = {1 / (2 * pi * R1d_CMR * fz4_CMR)}
+.param R2d_CMR = {R1d_CMR/ ((2 * pi * fp4_CMR * C1d_CMR
++* R1d_CMR) - 1)}
+.param actual4_CMR = {R2d_CMR / (R1d_CMR + R2d_CMR)}
+.param G4_CMR = {1/actual4_CMR}
+.param R1b_I_n=1Meg
+.param fp1_I_n=0.1
+.param fz1_I_n=2.5
+.param C1b_I_n = {1 / (fz1_I_n * R1b_I_n * 2 * pi)}
+.param R2b_I_n = {(1 / (fp1_I_n * C1b_I_n * 2 * pi))
++- R1b_I_n}
+.param R1a_E_n=1Meg
+.param fz1_E_n=700k
+.param fp1_E_n=1.05Meg
+.param C1a_E_n = {1 / (2 * pi * R1a_E_n * fz1_E_n)}
+.param R2a_E_n = {R1a_E_n/ ((2 * pi * fp1_E_n * C1a_E_n
++* R1a_E_n) - 1)}
+.param actual1_E_n = {R2a_E_n / (R1a_E_n + R2a_E_n)}
+.param G1_E_n = {1/actual1_E_n}
+.param R1b_E_n=1Meg
+.param fp2_E_n=90G
+.param fz2_E_n=100G
+.param C1b_E_n = {1 / (fz2_E_n * R1b_E_n * 2 * pi)}
+.param R2b_E_n={(1 / (fp2_E_n * C1b_E_n * 2 * pi)) - R1b_I_n}
+.param CHP=4.75u
+.ends ADA4177

lib/sub/ADA4255.lib

@@ -0,0 +1,350 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4255 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16
+R1 0 innoise2 3e9 noiseless
+R2 innoise1 0 3e9 noiseless
+R3 innoise1 innoise2 3e9 noiseless
+C1 innoise2 0 4.7p
+C2 innoise2 innoise1 11p
+C3 0 innoise1 4.7p
+R4 0 vilim1 100k noiseless
+C4 vilim1 0 0.1p
+C5 0 vilim2 0.1p
+R5 vilim2 0 100k noiseless
+R6 N067 0 1e4 noiseless
+R7 0 N082 1e4 noiseless
+D1 N094 N102 Dn1
+D2 N093 N101 Dn1
+H1 N071 N068 V3 300
+V1 N094 0 0.65
+V2 N093 0 0.65
+H2 N067 N068 V4 300
+V3 0 N102 0
+V4 0 N101 0
+D3 N063 N065 Dshort
+D4 N065 N062 Dshort
+D5 N086 N087 Dshort
+D6 N097 N086 Dshort
+V11 VDDH-INT P001 2
+V12 VDDH-INT N098 2
+V13 N063 VSSH-INT 2.75
+V14 N097 VSSH-INT 2.75
+R16 N065 N067 1m
+R17 N086 N082 1m
+V15 g11 N070 0
+F1 0 g1111 V8 -1
+F2 0 g1222 V15 -1
+C6 g11 0 5p
+E13 VOCM-INT AVSS-INT 7 AVSS-INT 1
+R29 7 AVSS-INT 1e9 noiseless
+V8 g12 N084 0
+D11 N096 N104 Dn2
+D12 N095 N103 Dn2
+V20 N096 0 0.65
+V21 N095 0 0.65
+V22 0 N104 0
+V23 0 N103 0
+E20 VinR1 0 N071 0 0.95
+S1 N124 N113 g0 0 SWg
+S2 N125 P002 g3 0 SWg
+S3 N126 P003 g0 0 SWg
+S4 N129 P004 g3 0 SWg
+R38 g12 N113 1.9755k noiseless
+R41 g12 P002 3.955k noiseless
+R42 g12 P003 7.915k noiseless
+R43 g12 P004 15.83k noiseless
+R44 13 0 10k
+R45 12 0 10k
+R46 11 0 10k
+R47 10 0 10k
+R33 g12 P005 31.65k noiseless
+R48 g12 N117 63.37k noiseless
+R49 g12 N118 126.7k noiseless
+R50 g12 N116 253.8k noiseless
+R51 g12 N119 508.6k noiseless
+R52 g12 N120 1021k noiseless
+S5 N138 N124 g1 0 SWg
+S6 N150 N138 g3 0 SWg
+S7 N137 N125 g1 0 SWg
+S8 N139 N126 g3 0 SWg
+S9 N123 P005 g0 0 SWg
+S10 N140 N123 g1 0 SWg
+S11 P006 N140 g2 0 SWg
+S12 N130 N117 g1 0 SWg
+S13 N142 N130 g2 0 SWg
+S14 N131 N118 g0 0 SWg
+S15 N143 N131 g2 0 SWg
+R53 g12 N121 2057k noiseless
+R54 g12 N122 4175k noiseless
+S16 N127 N116 g2 0 SWg
+S17 N135 N119 g0 0 SWg
+S18 N145 N135 g1 0 SWg
+S19 N132 N120 g1 0 SWg
+S20 N133 N121 g0 0 SWg
+v44 vf 0 2.5
+S21 g11 N158 vf g2 SWg
+S22 N149 N137 vf g0 SWg
+S23 g11 P007 vf g2 SWg
+S24 N151 N139 vf g1 SWg
+S25 g11 P008 vf g2 SWg
+S26 g11 P009 vf g2 SWg
+S27 N152 N141 vf g1 SWg
+S28 N141 N129 vf g0 SWg
+S29 g11 N154 vf g3 SWg
+S30 P010 N142 vf g0 SWg
+S31 g11 N159 vf g3 SWg
+S32 P011 N143 vf g1 SWg
+S33 g11 P012 vf g3 SWg
+S34 N144 N127 vf g0 SWg
+S35 N155 N144 vf g1 SWg
+S36 g11 N155 vf g3 SWg
+S37 N156 N145 vf g2 SWg
+S38 g11 N156 vf g3 SWg
+S39 N146 N132 vf g0 SWg
+S40 N153 N146 vf g2 SWg
+S41 g11 N153 vf g3 SWg
+S42 N147 N133 vf g1 SWg
+S43 N157 N147 vf g2 SWg
+S44 g11 N157 vf g3 SWg
+S45 N134 N122 vf g0 SWg
+S46 N148 N134 vf g1 SWg
+S47 N160 N148 vf g2 SWg
+S48 g11 N160 vf g3 SWg
+R18 15 0 10k
+R55 14 0 10k
+R56 g1111 N076 128k noiseless
+R57 g1111 N077 176k noiseless
+R58 g1111 N078 160k noiseless
+R59 g1222 N045 128k noiseless
+S49 N080 N076 vf g4 SWg
+S50 8 N080 vf g5 SWg
+S51 8 N077 g4 0 SWg
+S53 N081 N078 g5 0 SWg
+S54 8 N081 vf g4 SWg
+S55 N050 N045 vf g4 SWg
+S56 9 N050 vf g5 SWg
+S57 9 N046 g4 0 SWg
+S59 N051 N047 g5 0 SWg
+S60 9 N051 vf g4 SWg
+E18 N062 P013 0 n44 -1
+R63 P001 P013 1m
+E21 N087 P014 0 n44 -1
+R69 N098 P014 1m
+E24 VinL1 0 N082 0 0.95
+R65 n44 0 1k
+F7 0 N088 V8 0.5
+F8 0 N088 V15 0.5
+R83 clip4 0 1k
+C21 clip3 0 1<>
+D17 N088 clip4 Dclip
+D18 clip3 N088 Dclip
+R84 clip3 0 1k
+C22 clip4 0 1<>
+B2 n44 0 V=128*V(clip3)+128*V(clip4)
+C7 g12 0 5p
+D19 N092 N100 Dcn
+D20 N091 N099 Dcn
+V34 N092 0 0.65
+V35 N091 0 0.65
+V36 0 N100 0
+V37 0 N099 0
+D21 N106 N108 Dcn
+D22 N105 N107 Dcn
+V38 N106 0 0.65
+V39 N105 0 0.65
+V40 0 N108 0
+V41 0 N107 0
+R71 N128 N114 10 noiseless
+L5 N115 N114 1<> Rser=0 Rpar=0 Cpar=0
+C17 N128 N115 100<30> Rser=0 Lser=0 Rpar=0 Cpar=0
+R72 N128 0 1.111 noiseless
+F9 0 N136 V36 0.70710678
+R73 N136 0 1 noiseless
+E14 N114 0 N136 0 1
+F10 0 N136 V37 -0.70710678
+G6 0 innoise1 N128 0 18
+R74 N111 N109 10 noiseless
+L6 N110 N109 1<> Rser=0 Rpar=0 Cpar=0
+C20 N111 N110 50<35> Rser=0 Lser=0 Rpar=0 Cpar=0
+R75 N111 0 1.111 noiseless
+F5 0 N112 V41 0.70710678
+R76 N112 0 1 noiseless
+E22 N109 0 N112 0 1
+F6 0 N112 V40 -0.70710678
+G8 0 innoise2 N111 0 18
+R23 0 vilim1 100k noiseless
+R24 vilim2 0 100k noiseless
+C8 0 vilim2 .1p
+C9 vilim1 0 0.1p
+G4 0 N067 vilim1 0 -1.05e-4
+G5 0 N082 vilim2 0 -1.05e-4
+C11 VinR 0 500p
+R25 VinR 0 100k noiseless
+C12 0 VinL 500p
+R27 0 VinL 100k noiseless
+E12 N069 0 VinR 0 1
+E15 N083 0 VinL 0 1
+B6 0 VinR I=(LIMIT (-1e-3 * (V(VinR, VinR1)), 400e-6, -400e-6))
+B7 0 VinL I=(LIMIT (-1e-3* (V(VinL, VinL1)), 400e-6, -400e-6))
+C14 8 g1111 1.9p
+R31 g1222 N047 160k noiseless
+R32 g1222 N046 176k noiseless
+R14 innoise2 1 600
+R15 innoise1 2 600
+G2 0 vilim1 innoise2 0 2e-5
+G3 0 vilim2 innoise1 0 2e-5
+R10 N023 REF 2e7 noiseless
+R11 REF N039 2e7 noiseless
+R19 N023 N039 5e7 noiseless
+C10 N023 REF 4e-12
+C13 REF N039 4e-12
+C16 N023 N039 1e-12
+V5 N003 REF 0.65
+V6 REF N015 0
+D7 N003 N015 DVnoisy
+V7 N004 REF 0.65
+V9 REF N016 0
+D8 N004 N016 DVnoisy
+H3 N023 N024 V6 707.10678
+H4 N025 N024 V9 707.10678
+G7 REF vin-int N025 N039 0.001
+R26 vin-int REF 1e8 noiseless
+R28 N026 REF 7.962e5 noiseless
+C18 N026 REF 1e-7
+G9 REF N027 N026 REF 0.001
+R30 N027 REF 1000 noiseless
+C19 N027 REF 26.528e-12
+G10 REF N028 N027 REF 1e-3
+R34 N028 REF 1k noiseless
+E1 vout-int REF N028 REF 1
+R35 N030 N029 3
+L10 9 N030 1e-9
+C23 9 REF 1e-12
+V10 N029 vout-int 0
+R40 N041 5 1e-6
+R60 N048 6 1e-6
+R61 N041 N043 10e6 noiseless
+R70 N043 N048 10e6 noiseless
+I3 N041 N048 950<35>
+E2 N044 0 N043 0 1
+E3 N042 N044 N041 N044 1
+E6 N044 N049 N044 N048 1
+B4 REF N026 I=(limit( (V(vin-int, REF))*1.256e-5,.1601,-.1601))
+R78 VOCM-INT N023 2
+R79 N039 g1222 2
+V28 N001 N007 .336
+V29 N008 N001 0.536
+D29 N007 N019 Dclip
+D30 N019 N008 Dclip
+B5 vout-int N001 V=-100*I(V10)
+R85 N019 N028 1m
+R86 N031 REF 2e7 noiseless
+R87 REF N040 2e7 noiseless
+R88 N031 N040 5e7 noiseless
+C24 N031 REF 4e-12
+C25 REF N040 4e-12
+C26 N031 N040 1e-12
+V30 N005 REF 0.65
+V31 REF N017 0
+D31 N005 N017 DVnoisy
+V32 N006 REF 0.65
+V33 REF N018 0
+D32 N006 N018 DVnoisy
+H5 N031 N032 V31 707.10678
+H6 N033 N032 V33 707.10678
+G12 REF vin-int1 N033 N040 1e-3
+R89 vin-int1 REF 1e8 noiseless
+R90 N034 REF 7.962e5 noiseless
+C27 N034 REF 1e-7
+G13 REF N035 N034 REF 0.001
+R91 N035 REF 1000 noiseless
+C28 N035 REF 26.528e-12
+G14 REF N036 N035 REF 1e-3
+R92 N036 REF 1k noiseless
+E9 vout-int1 REF N036 REF 1
+R93 N038 N037 3
+L11 8 N038 1e-9
+C29 8 REF 1e-12
+V42 N037 vout-int1 0
+B10 REF N034 I=(limit((V(vin-int1, REF))*1.256e-5,.1601,-.1601))
+R102 VOCM-INT N031 2
+R103 N040 g1111 2
+V52 N002 N009 .336
+V53 N010 N002 0.536
+D45 N009 N021 Dclip
+D46 N021 N010 Dclip
+B11 vout-int1 N002 V=-100*I(V42)
+R107 N021 N036 1m
+C30 9 g1222 1.9p
+D15 N022 N013 Dclip
+D16 N014 N022 Dclip
+V18 N014 AVSS-INT 0.8
+V19 AVDD-INT N013 0.8
+R12 N022 N026 1m
+D25 N020 N011 Dclip
+D26 N012 N020 Dclip
+V45 AVDD-INT N011 0.8
+R13 N020 N034 1m
+V46 N012 AVSS-INT 0.8
+R80 AVSS-INT N049 1m
+R77 REF N044 1m
+D9 N064 N053 Dclip
+D10 N054 N064 Dclip
+V16 AVDD-INT N053 0.7
+R81 N064 g1222 1m
+V24 N054 AVSS-INT 0.7
+D13 N085 N090 Dclip
+D14 N089 N085 Dclip
+V25 AVDD-INT N090 0.7
+R82 N085 g1111 1m
+V26 N089 AVSS-INT 0.7
+R22 N070 N069 1
+R36 N084 N083 1
+E4 N058 0 N057 0 4.65
+E5 0 N072 N057 0 4.65
+E7 N061 0 3 0 1
+E8 0 N075 0 4 1
+R8 N061 VDDH-INT 1m
+R9 N075 VSSH-INT 1m
+R20 N055 16 1E-6
+R21 N079 0 1E-6
+V17 N058 N059 0.9V
+V27 N073 N072 1.6V
+I1 N055 N079 15mA
+D23 N060 3 DCP
+D24 4 N074 DCP
+E10 N052 0 N055 0 1
+S52 N057 N056 N052 0 SWCP
+R39 N052 N056 10k noiseless
+D27 N056 N066 Dclip
+V43 N066 0 5.3
+R37 N057 0 100k noiseless
+S58 N060 N059 N052 0 SWCP
+S61 N074 N073 N052 0 SWCP
+R62 N060 0 100k
+R64 0 N074 100k
+R66 AVDD-INT N042 1m
+B1 0 g0 I=V(10)*1m Rpar=1k
+B3 0 g1 I=V(11)*1m Rpar=1k
+B8 0 g2 I=V(12)*1m Rpar=1k
+B9 0 g3 I=V(13)*1m Rpar=1k
+B12 0 g4 I=V(14)*1m Rpar=1k
+B13 0 g5 I=V(15)*1m Rpar=1k
+L1 N150 N158 0.9m
+L2 N149 P007 1m
+L3 N151 P008 1m
+L4 N152 P009 1.5m
+L7 P006 N154 0.7m
+L8 P010 N159 2m
+L9 P011 P012 0.1<EFBFBD>
+R67 N055 N079 1Meg
+.model Dn1 D(IS=5.26e-14 KF=1.49e-19)
+.model Dn2 D(IS=2.47e-12 KF=1.42e-019)
+.model Dshort D(Ron = 1  Vfwd = 0.6 )
+.model SWg SW(Ron = 1 Vt   = 2V Roff = 1000MEG Ilimit = 100e-3)
+.model Dclip D(Rs = 0 Is = 1E-14)
+.model Dcn D(IS=1.72e-19  KF= 3.52e-19)
+.model DVnoisy D(IS=9.39e-13 KF=1.27e-19)
+.model DCP D(Ilimit = 500u, Vfwd = 0)
+.model SWCP SW(Ron= 0.0001 Roff=100Meg Vt = 1.9)
+.ends ADA4255

lib/sub/ADA4522-1.lib

@@ -0,0 +1,354 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4522-1 1 2 3 4 5
+C1 Clamp COM {Cfp1}
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}*V(Aol1,COM), {Isink}-V(SB,COM)*350,1m),{Isrc},1m)
+G2 0 Vcc_Int N052 0 1
+G3 0 Vee_Int N054 0 1
+R6 Vcc_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N050 Vcc_Int 1Meg Temp=-273.15
+R9 N050 Vee_Int 1Meg Temp=-273.15
+C2 N050 0 1
+R25 Aol2 COM 1Meg Temp=-273.15
+G7 COM Aol2 Clamp COM 1<>
+C14 Vcc_Int 0 1n
+C15 Vee_Int 0 1n
+R1 N003 N020 {Rser} Temp=-273.15
+R82 N054 4 1<> Temp=-273.15
+A1 Inn1 Inp1 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k
+R47 N052 3 1<> Temp=-273.15
+R38 Aol1 COM 1Meg Temp=-273.15
+R78 Clamp COM 1Meg Temp=-273.15
+Iq N052 N054 {Iq_on}
+R45 Vimon COM 1k Temp=-273.15
+C34 COM 0 1n
+G30 N052 N054 Vimon COM 1
+C38 Aol2 COM {Cfp2}
+Vimon N018 5 0
+F1 COM Vimon Vimon 1m
+DGP N046 Clamp DG
+DGN Clamp N047 DG
+C11 Vsatp2 Vcc_Int 1n
+B2 Vsatp1 Vcc_Int I=1m*Max(Mp*(V(Vimon,COM))+OSp,40u)
+C12 Vsatp1 Vcc_Int 1n
+B5 Vsatp2 Vcc_Int I=1m*Max((V(Vimon,COM)/(Ap+Bp*(V(Vimon,COM)**Gp))),40u)
+R18 Vsatp1 Vcc_Int 1k Temp=-273.15
+R19 Vsatp2 Vcc_Int 1k Temp=-273.15
+R20 Satp COM 1k Temp=-273.15
+C13 Satp COM 1p
+B9 COM Satp I=1m*Min(V(Vsatp1,COM), V(Vsatp2,COM))
+B10 Vee_Int N039 I=1m*Max(Mn*(-V(Vimon,COM))+OSn,40u)
+C19 N039 Vee_Int 1n
+R21 N039 Vee_Int 1k Temp=-273.15
+Rx N018 N017 {Rx_Zo} Temp=-273.15
+Rdummy N018 COM {Rdummy_Zo} Temp=-273.15
+G4 COM Cap2L N026 N018 {G1_Zo}
+R4 Cap2L COM 1 Temp=-273.15
+R5 Cap2L Cap2R {R1a_Zo} Temp=-273.15
+R13 Cap2R COM {R2a_Zo} Temp=-273.15
+G8 COM N004 Cap2R COM {G2_Zo}
+C3 Cap2R Cap2L {C1a_Zo}
+R22 N004 N005 {R2b_Zo} Temp=-273.15
+R23 N005 N022 {R1b_Zo} Temp=-273.15
+C4 COM N022 {C1b_Zo}
+R24 N008 ZoF {R1d_Zo} Temp=-273.15
+R26 ZoF COM {R2d_Zo} Temp=-273.15
+C5 ZoF N008 {C1d_Zo}
+R27 N004 COM 1 Temp=-273.15
+Gb1 COM N006 N005 COM 1
+R28 N006 COM 1 Temp=-273.15
+R29 N008 COM 1 Temp=-273.15
+R30 N006 N007 {R1d_Zo} Temp=-273.15
+R31 N007 COM {R2d_Zo} Temp=-273.15
+C18 N007 N006 {C1d_Zo}
+Gb2 COM N008 N007 COM {G4_Zo}
+R32 N017 COM 1 Temp=-273.15
+S1 Cap2R Cap2L OL COM OL
+F2 COM OLp VGP 1m
+A2 OLp OLn COM COM COM COM OL COM OR Ref=100u Vh=50u Trise=10n
+R3 OLp COM 1k
+F3 COM OLn VGN -1m
+R33 OLn COM 1k
+C20 OLp COM 10n
+C21 OLn COM 10n
+C22 OL COM 10p
+VGN N047 N049 0
+VGP N046 N048 0
+R34 N013 N014 {R1b_Aol} Temp=-273.15
+R35 N014 COM {R2b_Aol} Temp=-273.15
+G1 COM N015 N014 COM {G2_Aol}
+C24 N014 N013 {C1b_Aol}
+R36 N013 COM 1 Temp=-273.15
+R39 N015 COM 1 Temp=-273.15
+R40 N015 N016 {R1b_Aol} Temp=-273.15
+R41 N016 COM {R2b_Aol} Temp=-273.15
+G9 COM N023 N016 COM {G2_Aol}
+C28 N016 N015 {C1b_Aol}
+R42 N023 COM 1 Temp=-273.15
+G10 COM N013 Aol2 COM 1
+R43 N024 COM 1Meg Temp=-273.15
+G11 COM N024 N023 COM 1<>
+C29 N024 COM {Cfp3}
+R46 N025 COM 1Meg Temp=-273.15
+G12 COM N025 N024 COM 1<>
+C30 N025 COM {Cfp4}
+R48 N026 COM 1Meg Temp=-273.15
+G13 COM N026 N025 COM 1<>
+C31 N026 COM {Cfp4}
+G18 N021 Inp1 N038 N037 1m
+R51 Inp1 N021 1k Temp=-273.15
+C32 N035 N036 {C1a_PSRp}
+G19 COM N036 VCC_Int COM {G1_PSRp}
+R52 N036 COM 1 Temp=-273.15
+R55 N035 N036 {R1a_PSRp} Temp=-273.15
+R56 N035 COM {R2a_PSRp} Temp=-273.15
+C33 N028 N027 {C1a_PSRn}
+G20 COM N027 VEE_Int COM {G1_PSRn}
+R57 N027 COM 1 Temp=-273.15
+R58 N028 N027 {R1a_PSRn} Temp=-273.15
+R59 N028 COM {R2a_PSRn} Temp=-273.15
+C35 N030 N029 {C1b_PSRn}
+R60 N029 COM 1 Temp=-273.15
+R61 N030 N029 {R1b_PSRn} Temp=-273.15
+R63 N030 COM {R2b_PSRn} Temp=-273.15
+G21 COM N031 N030 COM {G2_PSRn}
+R64 N037 COM 1 Temp=-273.15
+G23 COM N029 N028 COM 1
+C36 N032 N031 {C1c_PSRn}
+R65 N031 COM 1 Temp=-273.15
+R66 N032 N031 {R1c_PSRn} Temp=-273.15
+R67 N032 COM {R2c_PSRn} Temp=-273.15
+G24 COM N037 N032 COM {G3_PSRn}
+R68 N034 N033 {R1b_PSRp} Temp=-273.15
+R69 N033 COM {R2b_PSRp} Temp=-273.15
+G26 COM N038 N033 COM {G2_PSRp}
+C37 N033 N034 {C1b_PSRp}
+G27 COM N034 N035 COM 1
+R70 N034 COM 1 Temp=-273.15
+R71 N038 COM 1 Temp=-273.15
+A3 COM COM COM COM COM COM E_n COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En=Table(freq, 0.1, 4.25n, 10.1, 6.8n, 109k, 6.8n, 126k, 7n, 170k, 7.9n, 220k, 8.71n, 224k, 8.71n, 275k, 9.4n, 402k, 11n, 627k, 13.4n, 755k, 14.6n, 916k, 14.9n, 1.16Meg, 13.1n, 1.37Meg, 11.3n, 1.65Meg, 9.86n, 1.95Meg, 9.77n, 2.18Meg, 10.9n, 2.7Meg, 13.2n, 3.27Meg, 16.7n, 4.07Meg, 19.9n, 4.21Meg, 31.1n, 4.55Meg, 22.6n, 5.13Meg, 24.6n, 6.03Meg, 25.9n, 9.27Meg, 27.6n, 12.5Meg, 26.8n, 16.9Meg, 22.7n, 20.2Meg, 16.2n, 25Meg, 6.8n, 30.5Meg, 2.2n, 33.7Meg, 1.34n, 46.8Meg, 4n, 56.4Meg, 6.2n, 59.8Meg, 6.8n, 85.3Meg, 12.7n, 106Meg, 19.0n)
+R73 E_n COM 100k Noiseless
+R74 N055 COM 100k Noiseless
+R75 N056 COM 100k Noiseless
+G29 COM I_np N055 COM 1
+RI_np1 I_np COM 1 Temp=-273.15
+G31 COM I_nn N056 COM 1
+RI_nn1 I_nn COM 1 Temp=-273.15
+A4 COM COM COM COM COM COM N056 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En=Table(freq, 0.1, 780f, 10, 720f, 1k, 780f, 1.98k, 850f, 2.96k, 955f, 3.7k, 1.08p, 4.47k, 1.42p, 5.49k, 1.1p, 6.51k, 970f, 9.93k, 814f, 13.2k, 672f, 16.5k, 577f, 20k, 415f, 23.3k, 296f, 25.3k, 182f)
+A5 COM COM COM COM COM COM N055 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En=Table(freq, 0.1, 780f, 10, 720f, 1k, 780f, 1.98k, 850f, 2.96k, 955f, 3.7k, 1.08p, 4.47k, 1.42p, 5.49k, 1.1p, 6.51k, 970f, 9.93k, 814f, 13.2k, 672f, 16.5k, 577f, 20k, 415f, 23.3k, 296f, 25.3k, 182f)
+R76 N009 N012 1k Temp=-273.15
+B17 N012 N009 I=1m*{Vos+Drift* (Temp-25)}
+G32 N010 N011 N002 COM 1m
+R77 N011 N010 1k Temp=-273.15
+R79 N010 N009 1k Temp=-273.15
+G33 N009 N010 E_n COM 1m
+C39 N002 N001 {C1a_CMR}
+G34 COM N001 N003 COM {G1_CMR}
+R80 N002 N001 {R1a_CMR} Temp=-273.15
+R81 N002 COM {R2a_CMR} Temp=-273.15
+R83 N001 COM 1 Temp=-273.15
+G35 COM IVR N003 COM 1m
+G36 COM Inn1 N044 COM 1k
+R84 COM IVR 1k Temp=-273.15
+R85 COM Inn1 1m Temp=-273.15
+C40 Inn1 COM 1.59n
+C41 IVR COM 1.59f
+Ibp N003 COM {Ib}
+Ibn N044 COM {Ib-Ios}
+G37 N003 COM I_np COM 1
+G38 N044 COM I_nn COM 1
+R2 N044 N043 {Rser} Temp=-273.15
+Cinp COM N003 {Ccm}
+Cinn N044 COM {Ccm}
+Rinn N044 COM {Rcm} Temp=-273.15
+Rinp COM N003 {Rcm} Temp=-273.15
+A6 In_diff COM COM COM COM SB COM COM SCHMITT Vt=-14.9 Vh=100m Trise=15n
+R86 SB COM 1G Temp=-273.15
+G39 COM In_diff 1 2 1m
+R87 In_diff COM 1k Temp=-273.15
+G28 COM N021 N011 COM 1k
+R72 COM N021 1m Temp=-273.15
+C42 N021 COM 1.59n
+C43 Aol1 COM 1.59e-18
+G15 COM N048 GRpi COM 1k
+G16 COM N049 GRni COM 1k
+R11 N048 COM 1m Temp=-273.15
+R12 N049 COM 1m Temp=-273.15
+R37 GRpi COM 1k Temp=-273.15
+R44 GRni COM 1k Temp=-273.15
+C6 GRni COM 10p
+C7 GRpi COM 10p
+S2 3 5 5 3 ESDO
+S3 5 4 4 5 ESDO
+DOP Vsatp N018 DO
+DON N018 Vsatn DO
+G5 COM Vsatp Satp COM 1k
+R92 Vsatp COM 1m
+G6 COM Vsatn N039 COM 1k
+R93 Vsatn COM 1m
+C10 Vimon COM 1.59f
+S4 3 N012 N012 3 ESDI
+S5 3 Inn1 Inn1 3 ESDI
+S6 N012 4 4 N012 ESDI
+S7 Inn1 4 4 Inn1 ESDI
+C9 N018 Vsatp 1p
+C16 N018 Vsatn 1p
+C27 Clamp N048 1f
+C44 Clamp N049 1f
+Cdiff N003 N044 {Cdiff}
+C45 SB COM 1p
+C46 N020 COM 10f
+C47 N043 COM 10f
+B6 COM GRpi I=1m*({Zo_max}* {Iscp}+V(3,COM))
+B7 COM GRni I=1m*({Zo_max}* {Iscn}+V(4,COM))
+C17 Vsatp COM 1n
+C23 Vsatn COM 1n
+E1 COM 0 N050 0 1
+R10 COM 0 1Meg Temp=-273.15
+B4 COM N017 I=Uplim(Dnlim(V(ZoF,COM)*{G4_Zo}, {Izon}, 25m), {Izop}, 25m)
+C8 I_np COM 1.59p
+C26 I_nn COM 1.59p
+C50 E_n COM 159f
+C51 N037 COM 1.59p
+C52 N038 COM 1.59p
+R16 N020 1 1m Temp=-273.15
+R17 N043 2 1m Temp=-273.15
+B3 COM CMpi I=1m*(V(3,COM)+{Vcm_max}) Cpar=1n
+G17 COM CMp CMpi COM 1k
+R53 COM CMp 1m Temp=-273.15
+B8 COM CMni I=1m*(V(4,COM)+{Vcm_min}) Cpar=1n
+G22 COM CMn CMni COM 1k
+R54 COM CMn 1m Temp=-273.15
+R62 CMpi COM 1k Temp=-273.15
+R88 CMni COM 1k Temp=-273.15
+DIP CMp IVR DI
+DIN IVR CMn DI
+C54 IVR CMn 1f
+C48 IVR CMp 1f
+G14 COM N012 IVR COM 1k
+R14 COM N012 1m Temp=-273.15
+C49 N012 COM 1.59n
+C25 2 COM 1f
+Rdiff N003 N044 {Rdiff} Temp=-273.15
+.param Vos=714n Drift=4n
+.param Ib=83.90p Ios=147.79p
+.param Vcm_min=0 Vcm_max=-1.5
+.param Vsmin=4.5 Vsmax=55
+.param Iscp=21m Iscn=-33m
+.param Iq_on=840u Iq_off=1u
+.param IZop={Rx_Zo*Iscp} IZon={Rx_Zo*Iscn}
+.model DI D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model DG D(Vfwd=10k Vrev=0 Revepsilon=0.5 Noiseless Ron=1m)
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1 Ron=1m)
+.model LIM D(Vfwd=1n Vrev=1n Ron=1m Roff=1m Ilimit={Iscp} Revilimit={-Iscn} Epsilon=1u)
+.model ESDI SW(Ron=50 Roff=1T Vt=300m Vh=-150m Vser=0.1 Noiseless)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n Noiseless)
+.model OL SW(Ron=10m Roff=1G Vt=500m Vh=-100m Noiseless)
+.param Mp=57.8 OSp=5.5m
+.param Ap=15m Bp=-4.14e4 Gp=4.5
+.param Mn=69.7 OSn=5.5m ;OSn=2.6m
+.param beta_Zo=1.13
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=1k
+.param Zo_max={Zo_dc}
+.param R1a_Zo=1Meg
+.param fz1_Zo=75m
+.param fp1_Zo=45
+.param C1a_Zo = {1 / (2 * pi * R1a_Zo * fz1_Zo)}
+.param R2a_Zo = {R1a_Zo/ ((2 * pi * fp1_Zo * C1a_Zo
++* R1a_Zo) - 1)}
+.param actual1_Zo = {R2a_Zo / (R1a_Zo + R2a_Zo)}
+.param G2_Zo = {1/actual1_Zo}
+.param R1d_Zo=10k
+.param fz4_Zo=26Meg
+.param fp4_Zo=100G
+.param C1d_Zo = {1 / (2 * pi * R1d_Zo * fz4_Zo)}
+.param R2d_Zo = {R1d_Zo/ ((2 * pi * fp4_Zo * C1d_Zo
++* R1d_Zo) - 1)}
+.param actual4_Zo = {R2d_Zo / (R1d_Zo + R2d_Zo)}
+.param G4_Zo = {1/actual4_Zo}
+.param R1b_Zo=100k
+.param fp2_Zo=150k
+.param fz2_Zo= 26Meg
+.param C1b_Zo = {1 / (fz2_Zo * R1b_Zo * 2 * pi)}
+.param R2b_Zo = {(1 / (fp2_Zo * C1b_Zo * 2 * pi))
++- R1b_Zo}
+.param Aol_PB=151
+.param SRp=1.8 SRn=-0.86
+.param fp1=75m fp2=3.5Meg fp3=4.95Meg fp4=120Meg
+.param Aol2_dB = {Aol_PB-40+1}
+.param Aol2 = {pwr(10, (Aol2_dB)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Cfp3={1 / (2 * pi * fp3 * 1Meg)}
+.param Cfp4={1 / (2 * pi * fp4 * 1Meg)}
+.param Isrc = {Cfp1 * SRp * 1Meg} Isink = {Cfp1 * SRn * 1Meg}
+.param C1b_Aol = {1 / (2 * pi * R1b_Aol * fz2_Aol)}
+.param R2b_Aol = {R1b_Aol/ ((2 * pi * fp2_Aol * C1b_Aol
++* R1b_Aol) - 1)}
+.param actual2_Aol = {R2b_Aol / (R1b_Aol + R2b_Aol)}
+.param G2_Aol={1/actual2_Aol}
+.param R1b_Aol=10k
+.param fz2_Aol=4Meg
+.param fp2_Aol=25Meg
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param C1b_PSRn = {1 / (2 * pi * R1b_PSRn * fz2_PSRn)}
+.param R2b_PSRn = {R1b_PSRn/ ((2 * pi * fp2_PSRn * C1b_PSRn
++* R1b_PSRn) - 1)}
+.param actual2_PSRn = {R2b_PSRn/ (R1b_PSRn + R2b_PSRn)}
+.param G2_PSRn = {1/actual2_PSRn}
+.param C1c_PSRn = {1 / (2 * pi * R1c_PSRn * fz3_PSRn)}
+.param R2c_PSRn = {R1c_PSRn/ ((2 * pi * fp3_PSRn * C1c_PSRn
++* R1c_PSRn) - 1)}
+.param actual3_PSRn = {R2c_PSRn/ (R1c_PSRn + R2c_PSRn)}
+.param G3_PSRn = {1/actual3_PSRn}
+.param Rej_dc_PSRn=159.3
+.param R1a_PSRn=100Meg
+.param fz1_PSRn=40m
+.param fp1_PSRn=1k
+.param R1b_PSRn=1Meg
+.param fz2_PSRn=1.5k
+.param fp2_PSRn=70k
+.param R1c_PSRn=1Meg
+.param fz3_PSRn=160k
+.param fp3_PSRn=13Meg
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param Rej_dc_PSRp=161
+.param R1a_PSRp=1Meg
+.param fz1_PSRp=900
+.param fp1_PSRp=45Meg
+.param C1b_PSRp={1 / (2 * pi * R1b_PSRp * fz2_PSRp)}
+.param R2b_PSRp = {R1b_PSRp/ ((2 * pi * fp2_PSRp * C1b_PSRp
++* R1b_PSRp) - 1)}
+.param actual2_PSRp = {R2b_PSRp / (R1b_PSRp + R2b_PSRp)}
+.param G2_PSRp= {1/actual2_PSRp}
+.param R1b_PSRp=1Meg
+.param fz2_PSRp={fz1_PSRp}
+.param fp2_PSRp=1.8Meg
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Rej_dc_CMR=158.5
+.param R1a_CMR=1Meg
+.param fz1_CMR=2
+.param fp1_CMR=350k
+.param Rser=200
+.param Ccm=35p Rcm=400G
+.param Cdiff=7p Rdiff=30k
+.ends ADA4522-1

lib/sub/ADA4522-2.lib

@@ -0,0 +1,354 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4522-2 1 2 3 4 5
+C1 Clamp COM {Cfp1}
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}*V(Aol1,COM), {Isink}-V(SB,COM)*350,1m),{Isrc},1m)
+G2 0 Vcc_Int N052 0 1
+G3 0 Vee_Int N054 0 1
+R6 Vcc_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N050 Vcc_Int 1Meg Temp=-273.15
+R9 N050 Vee_Int 1Meg Temp=-273.15
+C2 N050 0 1
+R25 Aol2 COM 1Meg Temp=-273.15
+G7 COM Aol2 Clamp COM 1<>
+C14 Vcc_Int 0 1n
+C15 Vee_Int 0 1n
+R1 N003 N020 {Rser} Temp=-273.15
+R82 N054 4 1<> Temp=-273.15
+A1 Inn1 Inp1 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k
+R47 N052 3 1<> Temp=-273.15
+R38 Aol1 COM 1Meg Temp=-273.15
+R78 Clamp COM 1Meg Temp=-273.15
+Iq N052 N054 {Iq_on}
+R45 Vimon COM 1k Temp=-273.15
+C34 COM 0 1n
+G30 N052 N054 Vimon COM 1
+C38 Aol2 COM {Cfp2}
+Vimon N018 5 0
+F1 COM Vimon Vimon 1m
+DGP N046 Clamp DG
+DGN Clamp N047 DG
+C11 Vsatp2 Vcc_Int 1n
+B2 Vsatp1 Vcc_Int I=1m*Max(Mp*(V(Vimon,COM))+OSp,40u)
+C12 Vsatp1 Vcc_Int 1n
+B5 Vsatp2 Vcc_Int I=1m*Max((V(Vimon,COM)/(Ap+Bp*(V(Vimon,COM)**Gp))),40u)
+R18 Vsatp1 Vcc_Int 1k Temp=-273.15
+R19 Vsatp2 Vcc_Int 1k Temp=-273.15
+R20 Satp COM 1k Temp=-273.15
+C13 Satp COM 1p
+B9 COM Satp I=1m*Min(V(Vsatp1,COM), V(Vsatp2,COM))
+B10 Vee_Int N039 I=1m*Max(Mn*(-V(Vimon,COM))+OSn,40u)
+C19 N039 Vee_Int 1n
+R21 N039 Vee_Int 1k Temp=-273.15
+Rx N018 N017 {Rx_Zo} Temp=-273.15
+Rdummy N018 COM {Rdummy_Zo} Temp=-273.15
+G4 COM Cap2L N026 N018 {G1_Zo}
+R4 Cap2L COM 1 Temp=-273.15
+R5 Cap2L Cap2R {R1a_Zo} Temp=-273.15
+R13 Cap2R COM {R2a_Zo} Temp=-273.15
+G8 COM N004 Cap2R COM {G2_Zo}
+C3 Cap2R Cap2L {C1a_Zo}
+R22 N004 N005 {R2b_Zo} Temp=-273.15
+R23 N005 N022 {R1b_Zo} Temp=-273.15
+C4 COM N022 {C1b_Zo}
+R24 N008 ZoF {R1d_Zo} Temp=-273.15
+R26 ZoF COM {R2d_Zo} Temp=-273.15
+C5 ZoF N008 {C1d_Zo}
+R27 N004 COM 1 Temp=-273.15
+Gb1 COM N006 N005 COM 1
+R28 N006 COM 1 Temp=-273.15
+R29 N008 COM 1 Temp=-273.15
+R30 N006 N007 {R1d_Zo} Temp=-273.15
+R31 N007 COM {R2d_Zo} Temp=-273.15
+C18 N007 N006 {C1d_Zo}
+Gb2 COM N008 N007 COM {G4_Zo}
+R32 N017 COM 1 Temp=-273.15
+S1 Cap2R Cap2L OL COM OL
+F2 COM OLp VGP 1m
+A2 OLp OLn COM COM COM COM OL COM OR Ref=100u Vh=50u Trise=10n
+R3 OLp COM 1k
+F3 COM OLn VGN -1m
+R33 OLn COM 1k
+C20 OLp COM 10n
+C21 OLn COM 10n
+C22 OL COM 10p
+VGN N047 N049 0
+VGP N046 N048 0
+R34 N013 N014 {R1b_Aol} Temp=-273.15
+R35 N014 COM {R2b_Aol} Temp=-273.15
+G1 COM N015 N014 COM {G2_Aol}
+C24 N014 N013 {C1b_Aol}
+R36 N013 COM 1 Temp=-273.15
+R39 N015 COM 1 Temp=-273.15
+R40 N015 N016 {R1b_Aol} Temp=-273.15
+R41 N016 COM {R2b_Aol} Temp=-273.15
+G9 COM N023 N016 COM {G2_Aol}
+C28 N016 N015 {C1b_Aol}
+R42 N023 COM 1 Temp=-273.15
+G10 COM N013 Aol2 COM 1
+R43 N024 COM 1Meg Temp=-273.15
+G11 COM N024 N023 COM 1<>
+C29 N024 COM {Cfp3}
+R46 N025 COM 1Meg Temp=-273.15
+G12 COM N025 N024 COM 1<>
+C30 N025 COM {Cfp4}
+R48 N026 COM 1Meg Temp=-273.15
+G13 COM N026 N025 COM 1<>
+C31 N026 COM {Cfp4}
+G18 N021 Inp1 N038 N037 1m
+R51 Inp1 N021 1k Temp=-273.15
+C32 N035 N036 {C1a_PSRp}
+G19 COM N036 VCC_Int COM {G1_PSRp}
+R52 N036 COM 1 Temp=-273.15
+R55 N035 N036 {R1a_PSRp} Temp=-273.15
+R56 N035 COM {R2a_PSRp} Temp=-273.15
+C33 N028 N027 {C1a_PSRn}
+G20 COM N027 VEE_Int COM {G1_PSRn}
+R57 N027 COM 1 Temp=-273.15
+R58 N028 N027 {R1a_PSRn} Temp=-273.15
+R59 N028 COM {R2a_PSRn} Temp=-273.15
+C35 N030 N029 {C1b_PSRn}
+R60 N029 COM 1 Temp=-273.15
+R61 N030 N029 {R1b_PSRn} Temp=-273.15
+R63 N030 COM {R2b_PSRn} Temp=-273.15
+G21 COM N031 N030 COM {G2_PSRn}
+R64 N037 COM 1 Temp=-273.15
+G23 COM N029 N028 COM 1
+C36 N032 N031 {C1c_PSRn}
+R65 N031 COM 1 Temp=-273.15
+R66 N032 N031 {R1c_PSRn} Temp=-273.15
+R67 N032 COM {R2c_PSRn} Temp=-273.15
+G24 COM N037 N032 COM {G3_PSRn}
+R68 N034 N033 {R1b_PSRp} Temp=-273.15
+R69 N033 COM {R2b_PSRp} Temp=-273.15
+G26 COM N038 N033 COM {G2_PSRp}
+C37 N033 N034 {C1b_PSRp}
+G27 COM N034 N035 COM 1
+R70 N034 COM 1 Temp=-273.15
+R71 N038 COM 1 Temp=-273.15
+A3 COM COM COM COM COM COM E_n COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En=Table(freq, 0.1, 4.25n, 10.1, 6.8n, 109k, 6.8n, 126k, 7n, 170k, 7.9n, 220k, 8.71n, 224k, 8.71n, 275k, 9.4n, 402k, 11n, 627k, 13.4n, 755k, 14.6n, 916k, 14.9n, 1.16Meg, 13.1n, 1.37Meg, 11.3n, 1.65Meg, 9.86n, 1.95Meg, 9.77n, 2.18Meg, 10.9n, 2.7Meg, 13.2n, 3.27Meg, 16.7n, 4.07Meg, 19.9n, 4.21Meg, 31.1n, 4.55Meg, 22.6n, 5.13Meg, 24.6n, 6.03Meg, 25.9n, 9.27Meg, 27.6n, 12.5Meg, 26.8n, 16.9Meg, 22.7n, 20.2Meg, 16.2n, 25Meg, 6.8n, 30.5Meg, 2.2n, 33.7Meg, 1.34n, 46.8Meg, 4n, 56.4Meg, 6.2n, 59.8Meg, 6.8n, 85.3Meg, 12.7n, 106Meg, 19.0n)
+R73 E_n COM 100k Noiseless
+R74 N055 COM 100k Noiseless
+R75 N056 COM 100k Noiseless
+G29 COM I_np N055 COM 1
+RI_np1 I_np COM 1 Temp=-273.15
+G31 COM I_nn N056 COM 1
+RI_nn1 I_nn COM 1 Temp=-273.15
+A4 COM COM COM COM COM COM N056 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En=Table(freq, 0.1, 780f, 10, 720f, 1k, 780f, 1.98k, 850f, 2.96k, 955f, 3.7k, 1.08p, 4.47k, 1.42p, 5.49k, 1.1p, 6.51k, 970f, 9.93k, 814f, 13.2k, 672f, 16.5k, 577f, 20k, 415f, 23.3k, 296f, 25.3k, 182f)
+A5 COM COM COM COM COM COM N055 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En=Table(freq, 0.1, 780f, 10, 720f, 1k, 780f, 1.98k, 850f, 2.96k, 955f, 3.7k, 1.08p, 4.47k, 1.42p, 5.49k, 1.1p, 6.51k, 970f, 9.93k, 814f, 13.2k, 672f, 16.5k, 577f, 20k, 415f, 23.3k, 296f, 25.3k, 182f)
+R76 N009 N012 1k Temp=-273.15
+B17 N012 N009 I=1m*{Vos+Drift* (Temp-25)}
+G32 N010 N011 N002 COM 1m
+R77 N011 N010 1k Temp=-273.15
+R79 N010 N009 1k Temp=-273.15
+G33 N009 N010 E_n COM 1m
+C39 N002 N001 {C1a_CMR}
+G34 COM N001 N003 COM {G1_CMR}
+R80 N002 N001 {R1a_CMR} Temp=-273.15
+R81 N002 COM {R2a_CMR} Temp=-273.15
+R83 N001 COM 1 Temp=-273.15
+G35 COM IVR N003 COM 1m
+G36 COM Inn1 N044 COM 1k
+R84 COM IVR 1k Temp=-273.15
+R85 COM Inn1 1m Temp=-273.15
+C40 Inn1 COM 1.59n
+C41 IVR COM 1.59f
+Ibp N003 COM {Ib}
+Ibn N044 COM {Ib-Ios}
+G37 N003 COM I_np COM 1
+G38 N044 COM I_nn COM 1
+R2 N044 N043 {Rser} Temp=-273.15
+Cinp COM N003 {Ccm}
+Cinn N044 COM {Ccm}
+Rinn N044 COM {Rcm} Temp=-273.15
+Rinp COM N003 {Rcm} Temp=-273.15
+A6 In_diff COM COM COM COM SB COM COM SCHMITT Vt=-14.9 Vh=100m Trise=15n
+R86 SB COM 1G Temp=-273.15
+G39 COM In_diff 1 2 1m
+R87 In_diff COM 1k Temp=-273.15
+G28 COM N021 N011 COM 1k
+R72 COM N021 1m Temp=-273.15
+C42 N021 COM 1.59n
+C43 Aol1 COM 1.59e-18
+G15 COM N048 GRpi COM 1k
+G16 COM N049 GRni COM 1k
+R11 N048 COM 1m Temp=-273.15
+R12 N049 COM 1m Temp=-273.15
+R37 GRpi COM 1k Temp=-273.15
+R44 GRni COM 1k Temp=-273.15
+C6 GRni COM 10p
+C7 GRpi COM 10p
+S2 3 5 5 3 ESDO
+S3 5 4 4 5 ESDO
+DOP Vsatp N018 DO
+DON N018 Vsatn DO
+G5 COM Vsatp Satp COM 1k
+R92 Vsatp COM 1m
+G6 COM Vsatn N039 COM 1k
+R93 Vsatn COM 1m
+C10 Vimon COM 1.59f
+S4 3 N012 N012 3 ESDI
+S5 3 Inn1 Inn1 3 ESDI
+S6 N012 4 4 N012 ESDI
+S7 Inn1 4 4 Inn1 ESDI
+C9 N018 Vsatp 1p
+C16 N018 Vsatn 1p
+C27 Clamp N048 1f
+C44 Clamp N049 1f
+Cdiff N003 N044 {Cdiff}
+C45 SB COM 1p
+C46 N020 COM 10f
+C47 N043 COM 10f
+B6 COM GRpi I=1m*({Zo_max}* {Iscp}+V(3,COM))
+B7 COM GRni I=1m*({Zo_max}* {Iscn}+V(4,COM))
+C17 Vsatp COM 1n
+C23 Vsatn COM 1n
+E1 COM 0 N050 0 1
+R10 COM 0 1Meg Temp=-273.15
+B4 COM N017 I=Uplim(Dnlim(V(ZoF,COM)*{G4_Zo}, {Izon}, 25m), {Izop}, 25m)
+C8 I_np COM 1.59p
+C26 I_nn COM 1.59p
+C50 E_n COM 159f
+C51 N037 COM 1.59p
+C52 N038 COM 1.59p
+R16 N020 1 1m Temp=-273.15
+R17 N043 2 1m Temp=-273.15
+B3 COM CMpi I=1m*(V(3,COM)+{Vcm_max}) Cpar=1n
+G17 COM CMp CMpi COM 1k
+R53 COM CMp 1m Temp=-273.15
+B8 COM CMni I=1m*(V(4,COM)+{Vcm_min}) Cpar=1n
+G22 COM CMn CMni COM 1k
+R54 COM CMn 1m Temp=-273.15
+R62 CMpi COM 1k Temp=-273.15
+R88 CMni COM 1k Temp=-273.15
+DIP CMp IVR DI
+DIN IVR CMn DI
+C54 IVR CMn 1f
+C48 IVR CMp 1f
+G14 COM N012 IVR COM 1k
+R14 COM N012 1m Temp=-273.15
+C49 N012 COM 1.59n
+C25 2 COM 1f
+Rdiff N003 N044 {Rdiff} Temp=-273.15
+.param Vos=714n Drift=4n
+.param Ib=83.90p Ios=147.79p
+.param Vcm_min=0 Vcm_max=-1.5
+.param Vsmin=4.5 Vsmax=55
+.param Iscp=21m Iscn=-33m
+.param Iq_on=830u Iq_off=1u
+.param IZop={Rx_Zo*Iscp} IZon={Rx_Zo*Iscn}
+.model DI D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model DG D(Vfwd=10k Vrev=0 Revepsilon=0.5 Noiseless Ron=1m)
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1 Ron=1m)
+.model LIM D(Vfwd=1n Vrev=1n Ron=1m Roff=1m Ilimit={Iscp} Revilimit={-Iscn} Epsilon=1u)
+.model ESDI SW(Ron=50 Roff=1T Vt=300m Vh=-150m Vser=0.1 Noiseless)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n Noiseless)
+.model OL SW(Ron=10m Roff=1G Vt=500m Vh=-100m Noiseless)
+.param Mp=57.8 OSp=5.5m
+.param Ap=15m Bp=-4.14e4 Gp=4.5
+.param Mn=69.7 OSn=5.5m ;OSn=2.6m
+.param beta_Zo=1.13
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=1k
+.param Zo_max={Zo_dc}
+.param R1a_Zo=1Meg
+.param fz1_Zo=75m
+.param fp1_Zo=45
+.param C1a_Zo = {1 / (2 * pi * R1a_Zo * fz1_Zo)}
+.param R2a_Zo = {R1a_Zo/ ((2 * pi * fp1_Zo * C1a_Zo
++* R1a_Zo) - 1)}
+.param actual1_Zo = {R2a_Zo / (R1a_Zo + R2a_Zo)}
+.param G2_Zo = {1/actual1_Zo}
+.param R1d_Zo=10k
+.param fz4_Zo=26Meg
+.param fp4_Zo=100G
+.param C1d_Zo = {1 / (2 * pi * R1d_Zo * fz4_Zo)}
+.param R2d_Zo = {R1d_Zo/ ((2 * pi * fp4_Zo * C1d_Zo
++* R1d_Zo) - 1)}
+.param actual4_Zo = {R2d_Zo / (R1d_Zo + R2d_Zo)}
+.param G4_Zo = {1/actual4_Zo}
+.param R1b_Zo=100k
+.param fp2_Zo=150k
+.param fz2_Zo= 26Meg
+.param C1b_Zo = {1 / (fz2_Zo * R1b_Zo * 2 * pi)}
+.param R2b_Zo = {(1 / (fp2_Zo * C1b_Zo * 2 * pi))
++- R1b_Zo}
+.param Aol_PB=151
+.param SRp=1.8 SRn=-0.86
+.param fp1=75m fp2=3.5Meg fp3=4.95Meg fp4=120Meg
+.param Aol2_dB = {Aol_PB-40+1}
+.param Aol2 = {pwr(10, (Aol2_dB)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Cfp3={1 / (2 * pi * fp3 * 1Meg)}
+.param Cfp4={1 / (2 * pi * fp4 * 1Meg)}
+.param Isrc = {Cfp1 * SRp * 1Meg} Isink = {Cfp1 * SRn * 1Meg}
+.param C1b_Aol = {1 / (2 * pi * R1b_Aol * fz2_Aol)}
+.param R2b_Aol = {R1b_Aol/ ((2 * pi * fp2_Aol * C1b_Aol
++* R1b_Aol) - 1)}
+.param actual2_Aol = {R2b_Aol / (R1b_Aol + R2b_Aol)}
+.param G2_Aol={1/actual2_Aol}
+.param R1b_Aol=10k
+.param fz2_Aol=4Meg
+.param fp2_Aol=25Meg
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param C1b_PSRn = {1 / (2 * pi * R1b_PSRn * fz2_PSRn)}
+.param R2b_PSRn = {R1b_PSRn/ ((2 * pi * fp2_PSRn * C1b_PSRn
++* R1b_PSRn) - 1)}
+.param actual2_PSRn = {R2b_PSRn/ (R1b_PSRn + R2b_PSRn)}
+.param G2_PSRn = {1/actual2_PSRn}
+.param C1c_PSRn = {1 / (2 * pi * R1c_PSRn * fz3_PSRn)}
+.param R2c_PSRn = {R1c_PSRn/ ((2 * pi * fp3_PSRn * C1c_PSRn
++* R1c_PSRn) - 1)}
+.param actual3_PSRn = {R2c_PSRn/ (R1c_PSRn + R2c_PSRn)}
+.param G3_PSRn = {1/actual3_PSRn}
+.param Rej_dc_PSRn=159.3
+.param R1a_PSRn=100Meg
+.param fz1_PSRn=40m
+.param fp1_PSRn=1k
+.param R1b_PSRn=1Meg
+.param fz2_PSRn=1.5k
+.param fp2_PSRn=70k
+.param R1c_PSRn=1Meg
+.param fz3_PSRn=160k
+.param fp3_PSRn=13Meg
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param Rej_dc_PSRp=161
+.param R1a_PSRp=1Meg
+.param fz1_PSRp=900
+.param fp1_PSRp=45Meg
+.param C1b_PSRp={1 / (2 * pi * R1b_PSRp * fz2_PSRp)}
+.param R2b_PSRp = {R1b_PSRp/ ((2 * pi * fp2_PSRp * C1b_PSRp
++* R1b_PSRp) - 1)}
+.param actual2_PSRp = {R2b_PSRp / (R1b_PSRp + R2b_PSRp)}
+.param G2_PSRp= {1/actual2_PSRp}
+.param R1b_PSRp=1Meg
+.param fz2_PSRp={fz1_PSRp}
+.param fp2_PSRp=1.8Meg
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Rej_dc_CMR=158.5
+.param R1a_CMR=1Meg
+.param fz1_CMR=2
+.param fp1_CMR=350k
+.param Rser=200
+.param Ccm=35p Rcm=400G
+.param Cdiff=7p Rdiff=30k
+.ends ADA4522-2

lib/sub/ADA4522-4.lib

@@ -0,0 +1,354 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4522-4 1 2 3 4 5
+C1 Clamp COM {Cfp1}
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}*V(Aol1,COM), {Isink}-V(SB,COM)*350,1m),{Isrc},1m)
+G2 0 Vcc_Int N052 0 1
+G3 0 Vee_Int N054 0 1
+R6 Vcc_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N050 Vcc_Int 1Meg Temp=-273.15
+R9 N050 Vee_Int 1Meg Temp=-273.15
+C2 N050 0 1
+R25 Aol2 COM 1Meg Temp=-273.15
+G7 COM Aol2 Clamp COM 1<>
+C14 Vcc_Int 0 1n
+C15 Vee_Int 0 1n
+R1 N003 N020 {Rser} Temp=-273.15
+R82 N054 4 1<> Temp=-273.15
+A1 Inn1 Inp1 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k
+R47 N052 3 1<> Temp=-273.15
+R38 Aol1 COM 1Meg Temp=-273.15
+R78 Clamp COM 1Meg Temp=-273.15
+Iq N052 N054 {Iq_on}
+R45 Vimon COM 1k Temp=-273.15
+C34 COM 0 1n
+G30 N052 N054 Vimon COM 1
+C38 Aol2 COM {Cfp2}
+Vimon N018 5 0
+F1 COM Vimon Vimon 1m
+DGP N046 Clamp DG
+DGN Clamp N047 DG
+C11 Vsatp2 Vcc_Int 1n
+B2 Vsatp1 Vcc_Int I=1m*Max(Mp*(V(Vimon,COM))+OSp,40u)
+C12 Vsatp1 Vcc_Int 1n
+B5 Vsatp2 Vcc_Int I=1m*Max((V(Vimon,COM)/(Ap+Bp*(V(Vimon,COM)**Gp))),40u)
+R18 Vsatp1 Vcc_Int 1k Temp=-273.15
+R19 Vsatp2 Vcc_Int 1k Temp=-273.15
+R20 Satp COM 1k Temp=-273.15
+C13 Satp COM 1p
+B9 COM Satp I=1m*Min(V(Vsatp1,COM), V(Vsatp2,COM))
+B10 Vee_Int N039 I=1m*Max(Mn*(-V(Vimon,COM))+OSn,40u)
+C19 N039 Vee_Int 1n
+R21 N039 Vee_Int 1k Temp=-273.15
+Rx N018 N017 {Rx_Zo} Temp=-273.15
+Rdummy N018 COM {Rdummy_Zo} Temp=-273.15
+G4 COM Cap2L N026 N018 {G1_Zo}
+R4 Cap2L COM 1 Temp=-273.15
+R5 Cap2L Cap2R {R1a_Zo} Temp=-273.15
+R13 Cap2R COM {R2a_Zo} Temp=-273.15
+G8 COM N004 Cap2R COM {G2_Zo}
+C3 Cap2R Cap2L {C1a_Zo}
+R22 N004 N005 {R2b_Zo} Temp=-273.15
+R23 N005 N022 {R1b_Zo} Temp=-273.15
+C4 COM N022 {C1b_Zo}
+R24 N008 ZoF {R1d_Zo} Temp=-273.15
+R26 ZoF COM {R2d_Zo} Temp=-273.15
+C5 ZoF N008 {C1d_Zo}
+R27 N004 COM 1 Temp=-273.15
+Gb1 COM N006 N005 COM 1
+R28 N006 COM 1 Temp=-273.15
+R29 N008 COM 1 Temp=-273.15
+R30 N006 N007 {R1d_Zo} Temp=-273.15
+R31 N007 COM {R2d_Zo} Temp=-273.15
+C18 N007 N006 {C1d_Zo}
+Gb2 COM N008 N007 COM {G4_Zo}
+R32 N017 COM 1 Temp=-273.15
+S1 Cap2R Cap2L OL COM OL
+F2 COM OLp VGP 1m
+A2 OLp OLn COM COM COM COM OL COM OR Ref=100u Vh=50u Trise=10n
+R3 OLp COM 1k
+F3 COM OLn VGN -1m
+R33 OLn COM 1k
+C20 OLp COM 10n
+C21 OLn COM 10n
+C22 OL COM 10p
+VGN N047 N049 0
+VGP N046 N048 0
+R34 N013 N014 {R1b_Aol} Temp=-273.15
+R35 N014 COM {R2b_Aol} Temp=-273.15
+G1 COM N015 N014 COM {G2_Aol}
+C24 N014 N013 {C1b_Aol}
+R36 N013 COM 1 Temp=-273.15
+R39 N015 COM 1 Temp=-273.15
+R40 N015 N016 {R1b_Aol} Temp=-273.15
+R41 N016 COM {R2b_Aol} Temp=-273.15
+G9 COM N023 N016 COM {G2_Aol}
+C28 N016 N015 {C1b_Aol}
+R42 N023 COM 1 Temp=-273.15
+G10 COM N013 Aol2 COM 1
+R43 N024 COM 1Meg Temp=-273.15
+G11 COM N024 N023 COM 1<>
+C29 N024 COM {Cfp3}
+R46 N025 COM 1Meg Temp=-273.15
+G12 COM N025 N024 COM 1<>
+C30 N025 COM {Cfp4}
+R48 N026 COM 1Meg Temp=-273.15
+G13 COM N026 N025 COM 1<>
+C31 N026 COM {Cfp4}
+G18 N021 Inp1 N038 N037 1m
+R51 Inp1 N021 1k Temp=-273.15
+C32 N035 N036 {C1a_PSRp}
+G19 COM N036 VCC_Int COM {G1_PSRp}
+R52 N036 COM 1 Temp=-273.15
+R55 N035 N036 {R1a_PSRp} Temp=-273.15
+R56 N035 COM {R2a_PSRp} Temp=-273.15
+C33 N028 N027 {C1a_PSRn}
+G20 COM N027 VEE_Int COM {G1_PSRn}
+R57 N027 COM 1 Temp=-273.15
+R58 N028 N027 {R1a_PSRn} Temp=-273.15
+R59 N028 COM {R2a_PSRn} Temp=-273.15
+C35 N030 N029 {C1b_PSRn}
+R60 N029 COM 1 Temp=-273.15
+R61 N030 N029 {R1b_PSRn} Temp=-273.15
+R63 N030 COM {R2b_PSRn} Temp=-273.15
+G21 COM N031 N030 COM {G2_PSRn}
+R64 N037 COM 1 Temp=-273.15
+G23 COM N029 N028 COM 1
+C36 N032 N031 {C1c_PSRn}
+R65 N031 COM 1 Temp=-273.15
+R66 N032 N031 {R1c_PSRn} Temp=-273.15
+R67 N032 COM {R2c_PSRn} Temp=-273.15
+G24 COM N037 N032 COM {G3_PSRn}
+R68 N034 N033 {R1b_PSRp} Temp=-273.15
+R69 N033 COM {R2b_PSRp} Temp=-273.15
+G26 COM N038 N033 COM {G2_PSRp}
+C37 N033 N034 {C1b_PSRp}
+G27 COM N034 N035 COM 1
+R70 N034 COM 1 Temp=-273.15
+R71 N038 COM 1 Temp=-273.15
+A3 COM COM COM COM COM COM E_n COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En=Table(freq, 0.1, 4.25n, 10.1, 6.8n, 109k, 6.8n, 126k, 7n, 170k, 7.9n, 220k, 8.71n, 224k, 8.71n, 275k, 9.4n, 402k, 11n, 627k, 13.4n, 755k, 14.6n, 916k, 14.9n, 1.16Meg, 13.1n, 1.37Meg, 11.3n, 1.65Meg, 9.86n, 1.95Meg, 9.77n, 2.18Meg, 10.9n, 2.7Meg, 13.2n, 3.27Meg, 16.7n, 4.07Meg, 19.9n, 4.21Meg, 31.1n, 4.55Meg, 22.6n, 5.13Meg, 24.6n, 6.03Meg, 25.9n, 9.27Meg, 27.6n, 12.5Meg, 26.8n, 16.9Meg, 22.7n, 20.2Meg, 16.2n, 25Meg, 6.8n, 30.5Meg, 2.2n, 33.7Meg, 1.34n, 46.8Meg, 4n, 56.4Meg, 6.2n, 59.8Meg, 6.8n, 85.3Meg, 12.7n, 106Meg, 19.0n)
+R73 E_n COM 100k Noiseless
+R74 N055 COM 100k Noiseless
+R75 N056 COM 100k Noiseless
+G29 COM I_np N055 COM 1
+RI_np1 I_np COM 1 Temp=-273.15
+G31 COM I_nn N056 COM 1
+RI_nn1 I_nn COM 1 Temp=-273.15
+A4 COM COM COM COM COM COM N056 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En=Table(freq, 0.1, 780f, 10, 720f, 1k, 780f, 1.98k, 850f, 2.96k, 955f, 3.7k, 1.08p, 4.47k, 1.42p, 5.49k, 1.1p, 6.51k, 970f, 9.93k, 814f, 13.2k, 672f, 16.5k, 577f, 20k, 415f, 23.3k, 296f, 25.3k, 182f)
+A5 COM COM COM COM COM COM N055 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En=Table(freq, 0.1, 780f, 10, 720f, 1k, 780f, 1.98k, 850f, 2.96k, 955f, 3.7k, 1.08p, 4.47k, 1.42p, 5.49k, 1.1p, 6.51k, 970f, 9.93k, 814f, 13.2k, 672f, 16.5k, 577f, 20k, 415f, 23.3k, 296f, 25.3k, 182f)
+R76 N009 N012 1k Temp=-273.15
+B17 N012 N009 I=1m*{Vos+Drift* (Temp-25)}
+G32 N010 N011 N002 COM 1m
+R77 N011 N010 1k Temp=-273.15
+R79 N010 N009 1k Temp=-273.15
+G33 N009 N010 E_n COM 1m
+C39 N002 N001 {C1a_CMR}
+G34 COM N001 N003 COM {G1_CMR}
+R80 N002 N001 {R1a_CMR} Temp=-273.15
+R81 N002 COM {R2a_CMR} Temp=-273.15
+R83 N001 COM 1 Temp=-273.15
+G35 COM IVR N003 COM 1m
+G36 COM Inn1 N044 COM 1k
+R84 COM IVR 1k Temp=-273.15
+R85 COM Inn1 1m Temp=-273.15
+C40 Inn1 COM 1.59n
+C41 IVR COM 1.59f
+Ibp N003 COM {Ib}
+Ibn N044 COM {Ib-Ios}
+G37 N003 COM I_np COM 1
+G38 N044 COM I_nn COM 1
+R2 N044 N043 {Rser} Temp=-273.15
+Cinp COM N003 {Ccm}
+Cinn N044 COM {Ccm}
+Rinn N044 COM {Rcm} Temp=-273.15
+Rinp COM N003 {Rcm} Temp=-273.15
+A6 In_diff COM COM COM COM SB COM COM SCHMITT Vt=-14.9 Vh=100m Trise=15n
+R86 SB COM 1G Temp=-273.15
+G39 COM In_diff 1 2 1m
+R87 In_diff COM 1k Temp=-273.15
+G28 COM N021 N011 COM 1k
+R72 COM N021 1m Temp=-273.15
+C42 N021 COM 1.59n
+C43 Aol1 COM 1.59e-18
+G15 COM N048 GRpi COM 1k
+G16 COM N049 GRni COM 1k
+R11 N048 COM 1m Temp=-273.15
+R12 N049 COM 1m Temp=-273.15
+R37 GRpi COM 1k Temp=-273.15
+R44 GRni COM 1k Temp=-273.15
+C6 GRni COM 10p
+C7 GRpi COM 10p
+S2 3 5 5 3 ESDO
+S3 5 4 4 5 ESDO
+DOP Vsatp N018 DO
+DON N018 Vsatn DO
+G5 COM Vsatp Satp COM 1k
+R92 Vsatp COM 1m
+G6 COM Vsatn N039 COM 1k
+R93 Vsatn COM 1m
+C10 Vimon COM 1.59f
+S4 3 N012 N012 3 ESDI
+S5 3 Inn1 Inn1 3 ESDI
+S6 N012 4 4 N012 ESDI
+S7 Inn1 4 4 Inn1 ESDI
+C9 N018 Vsatp 1p
+C16 N018 Vsatn 1p
+C27 Clamp N048 1f
+C44 Clamp N049 1f
+Cdiff N003 N044 {Cdiff}
+C45 SB COM 1p
+C46 N020 COM 10f
+C47 N043 COM 10f
+B6 COM GRpi I=1m*({Zo_max}* {Iscp}+V(3,COM))
+B7 COM GRni I=1m*({Zo_max}* {Iscn}+V(4,COM))
+C17 Vsatp COM 1n
+C23 Vsatn COM 1n
+E1 COM 0 N050 0 1
+R10 COM 0 1Meg Temp=-273.15
+B4 COM N017 I=Uplim(Dnlim(V(ZoF,COM)*{G4_Zo}, {Izon}, 25m), {Izop}, 25m)
+C8 I_np COM 1.59p
+C26 I_nn COM 1.59p
+C50 E_n COM 159f
+C51 N037 COM 1.59p
+C52 N038 COM 1.59p
+R16 N020 1 1m Temp=-273.15
+R17 N043 2 1m Temp=-273.15
+B3 COM CMpi I=1m*(V(3,COM)+{Vcm_max}) Cpar=1n
+G17 COM CMp CMpi COM 1k
+R53 COM CMp 1m Temp=-273.15
+B8 COM CMni I=1m*(V(4,COM)+{Vcm_min}) Cpar=1n
+G22 COM CMn CMni COM 1k
+R54 COM CMn 1m Temp=-273.15
+R62 CMpi COM 1k Temp=-273.15
+R88 CMni COM 1k Temp=-273.15
+DIP CMp IVR DI
+DIN IVR CMn DI
+C54 IVR CMn 1f
+C48 IVR CMp 1f
+G14 COM N012 IVR COM 1k
+R14 COM N012 1m Temp=-273.15
+C49 N012 COM 1.59n
+C25 2 COM 1f
+Rdiff N003 N044 {Rdiff} Temp=-273.15
+.param Vos=714n Drift=5.23n
+.param Ib=83.90p Ios=147.79p
+.param Vcm_min=0 Vcm_max=-1.5
+.param Vsmin=4.5 Vsmax=55
+.param Iscp=21m Iscn=-33m
+.param Iq_on=830u Iq_off=1u
+.param IZop={Rx_Zo*Iscp} IZon={Rx_Zo*Iscn}
+.model DI D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model DG D(Vfwd=10k Vrev=0 Revepsilon=0.5 Noiseless Ron=1m)
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1 Ron=1m)
+.model LIM D(Vfwd=1n Vrev=1n Ron=1m Roff=1m Ilimit={Iscp} Revilimit={-Iscn} Epsilon=1u)
+.model ESDI SW(Ron=50 Roff=1T Vt=300m Vh=-150m Vser=0.1 Noiseless)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n Noiseless)
+.model OL SW(Ron=10m Roff=1G Vt=500m Vh=-100m Noiseless)
+.param Mp=57.8 OSp=5.5m
+.param Ap=15m Bp=-4.14e4 Gp=4.5
+.param Mn=69.7 OSn=5.5m ;OSn=2.6m
+.param beta_Zo=1.13
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=1k
+.param Zo_max={Zo_dc}
+.param R1a_Zo=1Meg
+.param fz1_Zo=75m
+.param fp1_Zo=45
+.param C1a_Zo = {1 / (2 * pi * R1a_Zo * fz1_Zo)}
+.param R2a_Zo = {R1a_Zo/ ((2 * pi * fp1_Zo * C1a_Zo
++* R1a_Zo) - 1)}
+.param actual1_Zo = {R2a_Zo / (R1a_Zo + R2a_Zo)}
+.param G2_Zo = {1/actual1_Zo}
+.param R1d_Zo=10k
+.param fz4_Zo=26Meg
+.param fp4_Zo=100G
+.param C1d_Zo = {1 / (2 * pi * R1d_Zo * fz4_Zo)}
+.param R2d_Zo = {R1d_Zo/ ((2 * pi * fp4_Zo * C1d_Zo
++* R1d_Zo) - 1)}
+.param actual4_Zo = {R2d_Zo / (R1d_Zo + R2d_Zo)}
+.param G4_Zo = {1/actual4_Zo}
+.param R1b_Zo=100k
+.param fp2_Zo=150k
+.param fz2_Zo= 26Meg
+.param C1b_Zo = {1 / (fz2_Zo * R1b_Zo * 2 * pi)}
+.param R2b_Zo = {(1 / (fp2_Zo * C1b_Zo * 2 * pi))
++- R1b_Zo}
+.param Aol_PB=151
+.param SRp=1.8 SRn=-0.86
+.param fp1=75m fp2=3.5Meg fp3=4.95Meg fp4=120Meg
+.param Aol2_dB = {Aol_PB-40+1}
+.param Aol2 = {pwr(10, (Aol2_dB)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Cfp3={1 / (2 * pi * fp3 * 1Meg)}
+.param Cfp4={1 / (2 * pi * fp4 * 1Meg)}
+.param Isrc = {Cfp1 * SRp * 1Meg} Isink = {Cfp1 * SRn * 1Meg}
+.param C1b_Aol = {1 / (2 * pi * R1b_Aol * fz2_Aol)}
+.param R2b_Aol = {R1b_Aol/ ((2 * pi * fp2_Aol * C1b_Aol
++* R1b_Aol) - 1)}
+.param actual2_Aol = {R2b_Aol / (R1b_Aol + R2b_Aol)}
+.param G2_Aol={1/actual2_Aol}
+.param R1b_Aol=10k
+.param fz2_Aol=4Meg
+.param fp2_Aol=25Meg
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param C1b_PSRn = {1 / (2 * pi * R1b_PSRn * fz2_PSRn)}
+.param R2b_PSRn = {R1b_PSRn/ ((2 * pi * fp2_PSRn * C1b_PSRn
++* R1b_PSRn) - 1)}
+.param actual2_PSRn = {R2b_PSRn/ (R1b_PSRn + R2b_PSRn)}
+.param G2_PSRn = {1/actual2_PSRn}
+.param C1c_PSRn = {1 / (2 * pi * R1c_PSRn * fz3_PSRn)}
+.param R2c_PSRn = {R1c_PSRn/ ((2 * pi * fp3_PSRn * C1c_PSRn
++* R1c_PSRn) - 1)}
+.param actual3_PSRn = {R2c_PSRn/ (R1c_PSRn + R2c_PSRn)}
+.param G3_PSRn = {1/actual3_PSRn}
+.param Rej_dc_PSRn=159.3
+.param R1a_PSRn=100Meg
+.param fz1_PSRn=40m
+.param fp1_PSRn=1k
+.param R1b_PSRn=1Meg
+.param fz2_PSRn=1.5k
+.param fp2_PSRn=70k
+.param R1c_PSRn=1Meg
+.param fz3_PSRn=160k
+.param fp3_PSRn=13Meg
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param Rej_dc_PSRp=161
+.param R1a_PSRp=1Meg
+.param fz1_PSRp=900
+.param fp1_PSRp=45Meg
+.param C1b_PSRp={1 / (2 * pi * R1b_PSRp * fz2_PSRp)}
+.param R2b_PSRp = {R1b_PSRp/ ((2 * pi * fp2_PSRp * C1b_PSRp
++* R1b_PSRp) - 1)}
+.param actual2_PSRp = {R2b_PSRp / (R1b_PSRp + R2b_PSRp)}
+.param G2_PSRp= {1/actual2_PSRp}
+.param R1b_PSRp=1Meg
+.param fz2_PSRp={fz1_PSRp}
+.param fp2_PSRp=1.8Meg
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Rej_dc_CMR=158.5
+.param R1a_CMR=1Meg
+.param fz1_CMR=2
+.param fp1_CMR=350k
+.param Rser=200
+.param Ccm=35p Rcm=400G
+.param Cdiff=7p Rdiff=30k
+.ends ADA4522-4

lib/sub/ADA4610.lib

@@ -0,0 +1,241 @@
+* ADA4610
+*Node Assignments
+*               Non-Inverting Input
+*               |   Inverting Input
+*               |   |   Positive supply
+*               |   |   |   Negative supply
+*               |   |   |   |   Output
+*               |   |   |   |   |
+.Subckt ADA4610 100 101 102 103 104
+***Power Supplies***
+Rz1    102    1020    Rideal    1e-6
+Rz2    103    1030    Rideal    1e-6
+Ibias    1020    1030    dc    0.33e-3
+DzPS    98    1020    diode
+Iquies    1020    98    dc    2.97e-3
+S1    98    1030    106    113    Switch
+R1    1020    99    Rideal    1e7
+R2    99    1030    Rideal    1e7
+e1    111    110    1020    110    1
+e2    110    112    110    1030    1
+e3    110    0    99    0    1
+*
+*
+***Inputs***
+B_IbiasP 110 2 I=TABLE(V(100), (-4.1,-100p),(-4,-14.2p),(-3.5,7.9p),(-3.4,8.9p),(-3,7.9p),(-2.7,3.9p),(-2.3,1.6p),(-2,2.4p),(4,5.2p),(4.2,50p),(5,200p)) ;5e-12
+IbiasN    110    9    dc    3e-12
+S2    1    100    106    113    Switch
+S3    9    101    106    113    Switch
+VOS    1    2    dc    0.2e-6
+RinCMP    110    2    Rideal    20000000000000e6
+RinCMN    9    110    Rideal    20000000000000e6
+CinCMP    110    2    5.7e-12
+CinCMN    9    110    5.7e-12
+RinDiff    9    2    Rideal    20000000000000e3
+CinDiff    9    2    2.2e-12
+*
+*
+***Non-Inverting Input with Clamp***
+g1    3    110    110    2    0.001
+RInP    3    110    Rideal    1e3
+RX1    40    3    Rideal    0.001
+DInP    40    41    diode
+DInN    42    40    diode
+VinP    111    41    dc    2.96
+VinN    42    112    dc    2.96
+*
+*
+***Vnoise***
+hVn    6    5    Vmeas1    707.10678
+Vmeas1    20    110    DC    0
+Vvn    21    110    dc    0.65
+Dvn    21    20    DVnoisy
+hVn1    6    7    Vmeas2    707.10678
+Vmeas2    22    110    dc    0
+Vvn1    23    110    dc    0.65
+Dvn1    23    22    DVnoisy
+*
+*
+***Inoise***
+FnIN    9    110    Vmeas3    0.7071068
+Vmeas3    51    110    dc    0
+VnIN    50    110    dc    0.65
+DnIN    50    51    DINnoisy
+FnIN1    110    9    Vmeas4    0.7071068
+Vmeas4    53    110    dc    0
+VnIN1    52    110    dc    0.65
+DnIN1    52    53    DINnoisy
+*
+FnIP    2    110    Vmeas5    0.7071068
+Vmeas5    31    110    dc    0
+VnIP    30    110    dc    0.65
+DnIP    30    31    DIPnoisy
+FnIP1    110    2    Vmeas6    0.7071068
+Vmeas6    33    110    dc    0
+VnIP1    32    110    dc    0.65
+DnIP1    32    33    DIPnoisy
+*
+*
+***CMRR***
+RcmrrP    3    10    Rideal    1e12
+RcmrrN    10    9    Rideal    1e12
+g10    11    110    10    110    -1e-10
+Lcmrr    11    12    1e-12
+Rcmrr    12    110    Rideal    1e3
+e4    5    3    11    110    1
+*
+*
+***Power Down***
+VPD    111    80    dc    2
+VPD1    81    0    dc    1.5
+RPD    111    106    Rideal    0.286e6
+ePD    80    113    82    0    1
+RDP1    82    0    Rideal    1e3
+CPD    82    0    1e-10
+S5    81    82    83    113    Switch
+CDP1    83    0    1e-12
+RPD2    106    83    1e6
+*
+*
+***Feedback Pin***
+*RF    105    104    Rideal    0.001
+*
+*
+***VFB Stage***
+g200    200    110    7    9    1
+R200    200    110    Rideal    250
+DzSlewP    201    200    DzSlewP
+DzSlewN    201    110    DzSlewN
+*
+*
+***Dominant Pole at 350 Hz***
+g210    210    110    200    110    0.3502e-6
+R210    210    110    Rideal    454.73e6
+C210    210    110    1e-012
+*
+*
+***Output Voltage Clamp-1***
+RX2    60    210    Rideal    0.001
+DzVoutP    61    60    DzVoutP
+DzVoutN    60    62    DzVoutN
+DVoutP    61    63    diode
+DVoutN    64    62    diode
+VoutP    65    63    dc    5.709
+VoutN    64    66    dc    5.428
+e60    65    110    111    110    1.34
+e61    66    110    112    110    1.34
+*
+*
+***Pole-Zero at 84KHz, 180KHz***
+g220    220    110    210    110    0.001
+R220    220    110    Rideal    1000
+R221    220    221    Rideal    0.875e3
+C220    221    110    1010.5064e-12
+*
+***Pole at 110MHz***
+g230    230    110    220    110    0.001
+R230    230    110    Rideal    1000
+C230    230    110    1.4469e-12
+*
+***Buffer***
+g240    240    110    230    110    0.001
+R240    240    110    Rideal    1000
+*
+***Buffer***
+g245    245    110    240    110    0.001
+R245    245    110    Rideal    1000
+*
+***Buffer***
+g250    250    110    245    110    0.001
+R250    250    110    Rideal    1000
+*
+***Buffer***
+g255    255    110    250    110    0.001
+R255    255    110    Rideal    1000
+*
+***Buffer***
+g260    260    110    255    110    0.001
+R260    260    110    Rideal    1000
+*
+***Buffer***
+g265    265    110    260    110    0.001
+R265    265    110    Rideal    1000
+*
+***Buffer***
+g270    270    110    265    110    0.001
+R270    270    110    Rideal    1000
+*
+***Notch: f=2.2MHz, Zeta=1.2, Gain=0.8dB***
+e280    280    110    270    110    1
+R280    280    285    Rideal    10
+L280    285    281    3425.757e-9
+C280    281    282    1527.698e-12
+R281    282    110    Rideal    103.65
+*
+***Peak: f=0.5MHz, Zeta=3.1, Gain=5.1dB***
+e290    290    110    285    110    1
+R290    290    292    Rideal    10
+L290    290    291    513.402e-9
+C290    291    292    197351.907e-12
+R291    292    110    Rideal    12.518
+e295    295    110    292    110    1.7989
+*
+*
+***Output Stage***
+g300    300    110    295    110    0.001
+R300    300    110    Rideal    1000
+e301    301    110    300    110    1
+Rout    302    303    Rideal     163
+Lout    303    310     80e-9
+Cout    310    110     6e-12
+*
+*
+***Output Current Limit***
+H1    301    304    Vsense1    100
+Vsense1    301    302    dc    0
+VIoutP    305    304    dc    5.736
+VIoutN    304    306    dc    5.736
+DIoutP    307    305    diode
+DIoutN    306    307    diode
+Rx3    307    300    Rideal    0.001
+*
+*
+***Output Clamp-2***
+VoutP1    111    73    dc    0.785
+VoutN1    74    112    dc    0.785
+DVoutP1    75    73    diode
+DVoutN1    74    75    diode
+RX4    75    310    Rideal    0.001
+*
+*
+***Supply Currents***
+FIoVcc    314    110    Vmeas8    1
+Vmeas8    310    311    dc    0
+R314    110    314    Rideal    1e9
+DzOVcc    110    314    diode
+DOVcc    102    314    diode
+RX5    311    312    Rideal    0.001
+FIoVee    315    110    Vmeas9    1
+Vmeas9    312    313    dc    0
+R315    315    110    Rideal    1e9
+DzOVee    315    110    diode
+DOVee    315    103    diode
+*
+*
+***Output Switch***
+S4    104    313    106    113    Switch
+*
+*
+*** Common Models ***
+.model    diode    d(bv=100)
+.model    Switch    vswitch(Von=1.505,Voff=1.495,ron=0.001,roff=1e6)
+.model    DzVoutP    D(BV=4.3)
+.model    DzVoutN    D(BV=4.3)
+.model    DzSlewP    D(BV=174.665)
+.model    DzSlewN    D(BV=174.665)
+.model    DVnoisy    D(IS=2.03e-15 KF=8.16e-18)
+.model    DINnoisy    D(IS=1.45e-22 KF=8.13e-18)
+.model    DIPnoisy    D(IS=1.45e-22 KF=8.13e-18)
+.model    Rideal    res(T_ABS=-273)
+*
+.ends ADA4610

lib/sub/ADA4622.lib

@@ -0,0 +1,346 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4622 1 2 3 4 5
+R1 Inn1 2 {Rser} Temp=-273.15
+R2 Inp1 1 {Rser} Temp=-273.15
+R3 Aol1 COM 1Meg Temp=-273.15
+R4 Clamp COM 1Meg Temp=-273.15
+C1 Clamp COM {Cfp1a}
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}* V(Aol1,COM), {Isink}-V(OL,COM)* 0.2, 10m), {Isrc}+V(OL,COM)*0.2, 10m)
+A1 Inn2 Inp2 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k En={Ae}-{Be}*exp(-{Ce}*(freq**{De}))
+G2 0 VCC_Int 3 0 1
+G3 0 Vee_Int 4 0 1
+R6 VCC_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N047 VCC_Int 1Meg Temp=-273.15
+R9 N047 Vee_Int 1Meg Temp=-273.15
+C2 N047 0 1
+E1 COM 0 N047 0 1
+R10 COM 0 1Meg Temp=-273.15
+Rx N014 N023 {Rx_Zo} Temp=-273.15
+Rdummy N014 COM {Rdummy_Zo} Temp=-273.15
+G4 COM Cap2L N032 N014 {G1_Zo}
+R11 Cap2L COM 1 Temp=-273.15
+R12 Cap2L Cap2R {R1a_Zo} Temp=-273.15
+R13 Cap2R COM {R2a_Zo} Temp=-273.15
+C3 Cap2R Cap2L {C1a_Zo}
+R17 N023 COM 1 Temp=-273.15
+B2 COM N023 I=Uplim(Dnlim({G5_Zo}* V(ZoF,COM), {Izon}, 25m), {Izop}, 25m)
+Cinp COM Inp1 {Ccm}
+Cinn Inn1 COM {Ccm}
+Cdiff Inp1 Inn1 {Cdiff}
+Rcmn Inn1 COM {Rcm} Temp=-273.15
+Rcmp COM Inp1 {Rcm} Temp=-273.15
+R24 Inn2 N046 1m Temp=-273.15
+Ibp Inp1 COM {Ib}
+Ibn Inn1 COM {Ib-Ios}
+R26 N016 N018 1k Temp=-273.15
+A2 COM N006 COM COM COM COM COM COM OTA G=1u In={Inp} Ink={Inkp}
+A3 COM N041 COM COM COM COM COM COM OTA G=0 In={Inn} Ink={Inkn}
+B3 N018 N016 I=1m*{Vos+Drift* (Temp-27)}
+R27 N025 N017 1m Temp=-273.15
+G6 N025 Inp2 N044 N034 1m
+R28 Inp2 N025 1k Temp=-273.15
+C8 N037 N038 {C1a_PSRp}
+G8 COM N038 VCC_Int COM {G1_PSRp}
+R29 N038 COM 1 Temp=-273.15
+R30 N037 N038 {R1a_PSRp} Temp=-273.15
+R31 N037 COM {R2a_PSRp} Temp=-273.15
+C9 N035 N036 {C1b_PSRp}
+R32 N035 COM {R2b_PSRp} Temp=-273.15
+R33 N035 N036 {R1b_PSRp} Temp=-273.15
+G9 COM N036 N037 COM 1
+R34 N036 COM 1 Temp=-273.15
+G10 COM N044 N035 COM {G2_PSRp}
+R35 N044 COM 1 Temp=-273.15
+C10 N034 N033 {C1a_PSRn}
+G11 COM N033 VEE_Int COM {G1_PSRn}
+R36 N033 COM 1 Temp=-273.15
+R37 N034 N033 {R1a_PSRn} Temp=-273.15
+R38 N034 COM {R2a_PSRn} Temp=-273.15
+G12 N016 N017 N005 COM 1m
+R39 N017 N016 1k Temp=-273.15
+Vimon N015 5 0
+BIq 3 4 I={Iq_on} +I(VImon)
+G1 COM N018 N006 COM 1k
+G14 COM N046 N041 COM 1k
+R5 COM N018 1m Temp=-273.15
+R43 COM N046 1m Temp=-273.15
+C12 N046 COM 1p
+C13 N018 COM 1p
+DIP N042 Inp2 DIP
+DIN Inp2 N043 DIN
+C14 VCC_Int 0 1n
+C15 Vee_Int 0 1n
+DOP N039 N014 DO
+DON N014 N040 DO
+S2 Cap2R Cap2L OL COM OL
+F1 COM OLp VGP 1m
+A4 OLp OLn COM OLVIp OLVIn COM OL COM OR Ref=100u Vh=50u Trise=10n
+R44 OLp COM 1k
+F2 COM OLn VGN 1m
+R45 OLn COM 1k
+C16 OLp COM 10p
+C17 OLn COM 10p
+DOI N014 N015 LIM
+COI N015 N014 1p
+G15 COM Vsatp Vsatpi COM 1
+R48 Vsatp COM 1
+C21 Vsatp COM 1n
+G16 COM Vsatn Vsatni COM 1
+R49 Vsatn COM 1
+C22 Vsatn COM 1n
+S3 3 N006 N006 3 ESDI
+S4 3 N041 N041 3 ESDI
+S5 N006 4 4 N006 ESDI
+S6 N041 4 4 N041 ESDI
+C24 N014 Vsatp 5p
+C25 N014 Vsatn 5p
+S7 3 5 5 3 ESDO
+S8 5 4 4 5 ESDO
+C26 OL COM 1p
+B6 COM GRp I=1m*({Zo_max}*{Iscp}+V(3,COM)) Rpar=1k Cpar=1n
+B7 COM GRn I=1m*({Zo_max}*{Iscn}+V(4,COM)) Rpar=1k Cpar=1n
+G20 COM N007 Cap2R COM {G2_Zo}
+R55 N007 COM 1 Temp=-273.15
+R56 N007 N008 {R2b_Zo} Temp=-273.15
+R57 N008 N026 {R1b_Zo} Temp=-273.15
+C23 COM N026 {C1b_Zo}
+Gb3 COM N009 N008 COM 1
+R58 N009 COM 1
+R59 N009 N010 {R1c_Zo} Temp=-273.15
+R60 N010 COM {R2c_Zo} Temp=-273.15
+G21 COM N011 N010 COM {G3_Zo}
+C27 N010 N009 {C1c_Zo}
+R61 N011 COM 1
+R62 N011 N012 {R1d_Zo} Temp=-273.15
+R63 N012 COM {R2d_Zo} Temp=-273.15
+G22 COM N013 N012 COM {G4_Zo}
+C28 N012 N011 {C1d_Zo}
+R64 N013 COM 1
+R65 N013 ZoF {R1e_Zo} Temp=-273.15
+R66 ZoF COM {R2e_Zo} Temp=-273.15
+C29 ZoF N013 {C1e_Zo}
+R16 N028 COM 1Meg Temp=-273.15
+C5 N028 COM {Cfp2}
+G5 COM N028 N027 COM 1<>
+R18 N029 COM 1Meg Temp=-273.15
+C6 N029 COM {Cfp3}
+G17 COM N029 N028 COM 1<>
+R19 N030 COM 1Meg Temp=-273.15
+C20 N030 COM {Cfp3}
+G23 COM N030 N029 COM 1<>
+R20 N031 COM 1Meg Temp=-273.15
+G24 COM N031 N030 COM 1<>
+G25 COM N019 Sense COM 1
+R21 N019 COM 1
+R22 N019 N020 {R1a_Aol} Temp=-273.15
+R23 N020 COM {R2a_Aol} Temp=-273.15
+G26 COM N021 N020 COM {G1_Aol}
+C31 N020 N019 {C1a_Aol}
+R50 N021 COM 1
+R53 N021 N022 {R1b_Aol} Temp=-273.15
+R54 N022 COM {R2b_Aol} Temp=-273.15
+G27 COM N027 N022 COM {G2_Aol}
+C32 N022 N021 {C1b_Aol}
+R67 N027 COM 1
+C4 N002 N001 {C1a_CMR}
+G7 COM N001 N006 COM {G1_CMR}
+R15 N001 COM 1 Temp=-273.15
+R25 N002 N001 {R1a_CMR} Temp=-273.15
+R47 N002 COM {R2a_CMR} Temp=-273.15
+C7 N004 N003 {C1b_CMR}
+R68 N004 COM {R2b_CMR} Temp=-273.15
+R69 N004 N003 {R1b_CMR} Temp=-273.15
+R70 N003 COM 1 Temp=-273.15
+G28 COM N003 N002 COM 1
+G29 COM N005 N004 COM {G2_CMR}
+R71 N005 COM 1
+B4 COM N048 I=1m*(V(3,COM)+{Vcm_max}) Rpar=1k Cpar=1n
+G13 COM CMp N048 COM 1
+R40 CMp COM 1
+B5 COM N049 I=1m*(V(4,COM)+{Vcm_min}) Rpar=1k Cpar=1n
+G30 COM CMn N049 COM 1
+R41 CMn COM 1
+R42 Vsatpi 3 1k
+C11 Vsatpi 3 1n
+B8 Vsatpi 3 I=1m*Max(Ap+((Bp*I(Vimon)**Cp)/(Dp**Cp+I(Vimon)**Cp)),40u)
+R14 Vsatni 4 1k
+C18 Vsatni 4 1n
+B9 4 Vsatni I=1m*Max(An+((Bn*-I(Vimon)**Cn)/(Dn**Cn-I(Vimon)**Cn)),40u)
+R73 Gn3 COM 1 Temp=-273.15
+R74 COM Gp3 1 Temp=-273.15
+BVGr Clamp COM I=Uplim(Dnlim(V(Gp3,Gn3), {IGrn}, 0.1), {IGrp}, 0.1)
+B10 COM Gp3 I=IF(V(Sense,COM)>V(GRp,COM), ((V(Sense,COM)-V(GRp,COM))*1),0)
+B11 COM Gn3 I=IF(V(Sense,COM)<V(GRn,COM), ((V(GRn,COM)-V(Sense,COM))*1),0)
+C19 COM Gp3 1p
+C33 Gn3 COM 1p
+G32 COM Sense Clamp COM 1
+R76 Sense COM 1
+VGN Vsatn N040 0
+VGP N039 Vsatp 0
+VIP N042 CMp 0
+VIN CMn N043 0
+F3 COM OLVIp VIP 1m
+R46 OLVIp COM 1k
+F4 COM OLVIn VIN 1m
+R51 OLVIn COM 1k
+C34 OLVIp COM 10p
+C35 OLVIn COM 10p
+Rdiff Inp1 Inn1 {Rdiff} Temp=-273.15
+C30 N031 COM {Cfp4}
+R52 N032 COM 1Meg Temp=-273.15
+G18 COM N032 N031 COM 1<>
+C36 N032 COM 2.9f
+G19 COM N006 Inp1 COM 1k
+G31 COM N041 Inn1 COM 1k
+R72 COM N006 1m Temp=-273.15
+R75 COM N041 1m Temp=-273.15
+.param Inp=0.8f Inkp=1u
+.param Inn=0.8f Inkn=1u
+.param Vos=-196.57u Drift=2u
+.param Ib=2p Ios=4p
+.param Vcm_min=-0.2 Vcm_max=-1
+.param Vsmin=5 Vsmax=36
+.param Iscp=42m Iscn=-47m
+.param Iq_on=715u Iq_off=60u
+.param IZop={2*Rx_Zo*Iscp} IZon={2*Rx_Zo*Iscn}
+.param IGrp=2*({Isrc}+0.2) IGrn=2*({Isink}-0.2)
+.model DIP D(Vfwd=1k Vrev=0 Revepsilon=0.1)
+.model DIN D(Vfwd=1k Vrev=0 Revepsilon=0.1)
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1)
+.model LIM D(Vfwd=1n Vrev=1n Ron=1m Roff=1m Ilimit={Iscp} Revilimit={-Iscn} Epsilon=1u)
+.model DGP D(Vfwd=1k Vrev=0 Revepsilon=0.5)
+.model DGN D(Vfwd=1k Vrev=0 Revepsilon=0.5)
+.model ESDI SW(Ron=50 Roff=1T Vt=0.5 Vh=-0.1 Vser=0.1)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n)
+.model OL SW(Ron=10m Roff=1G Vt=500m Vh=-100m)
+.param Rser=10m
+.param Rcm=10T Rdiff=10T
+.param Ccm=3.6p Cdiff=0.4p
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param Rej_dc_PSRp=101.3
+.param R1a_PSRp=1Meg
+.param fz1_PSRp=400
+.param fp1_PSRp=5Meg
+.param C1b_PSRp = {1 / (2 * pi * R1b_PSRp * fz2_PSRp)}
+.param R2b_PSRp = {R1b_PSRp/ ((2 * pi * fp2_PSRp * C1b_PSRp
++* R1b_PSRp) - 1)}
+.param actual2_PSRp = {R2b_PSRp / (R1b_PSRp + R2b_PSRp)}
+.param G2_PSRp = {1/actual2_PSRp}
+.param R1b_PSRp=1Meg
+.param fz2_PSRp=250k
+.param fp2_PSRp=2Meg
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param Rej_dc_PSRn=102.9
+.param R1a_PSRn=1Meg
+.param fz1_PSRn=50
+.param fp1_PSRn=7Meg
+.param beta_Zo=1.05
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=722
+.param Zo_max=722
+.param R1a_Zo=10k
+.param fz1_Zo=140
+.param fp1_Zo=400
+.param C1a_Zo = {1 / (2 * pi * R1a_Zo * fz1_Zo)}
+.param R2a_Zo = {R1a_Zo/ ((2 * pi * fp1_Zo * C1a_Zo
++* R1a_Zo) - 1)}
+.param actual1_Zo = {R2a_Zo / (R1a_Zo + R2a_Zo)}
+.param G2_Zo = {1/actual1_Zo}
+.param R1b_Zo=10k
+.param fp2_Zo=15.5k
+.param fz2_Zo=22.5k
+.param C1b_Zo = {1 / (fz2_Zo * R1b_Zo * 2 * pi)}
+.param R2b_Zo = {(1 / (fp2_Zo * C1b_Zo * 2 * pi))
++- R1b_Zo}
+.param R1c_Zo=10k
+.param fz3_Zo=270k
+.param fp3_Zo=440k
+.param C1c_Zo = {1 / (2 * pi * R1c_Zo * fz3_Zo)}
+.param R2c_Zo = {R1c_Zo/ ((2 * pi * fp3_Zo * C1c_Zo
++* R1c_Zo) - 1)}
+.param actual3_Zo = {R2c_Zo / (R1c_Zo + R2c_Zo)}
+.param G3_Zo = {1/actual3_Zo}
+.param R1d_Zo=10k
+.param fz4_Zo=2.7Meg
+.param fp4_Zo=4.1Meg
+.param C1d_Zo = {1 / (2 * pi * R1d_Zo * fz4_Zo)}
+.param R2d_Zo = {R1d_Zo/ ((2 * pi * fp4_Zo * C1d_Zo
++* R1d_Zo) - 1)}
+.param actual4_Zo = {R2d_Zo / (R1d_Zo + R2d_Zo)}
+.param G4_Zo = {1/actual4_Zo}
+.param R1e_Zo=10k
+.param fz5_Zo=70Meg
+.param fp5_Zo=100G
+.param C1e_Zo = {1 / (2 * pi * R1e_Zo * fz5_Zo)}
+.param R2e_Zo = {R1e_Zo/ ((2 * pi * fp5_Zo * C1e_Zo
++* R1e_Zo) - 1)}
+.param actual5_Zo = {R2e_Zo / (R1e_Zo + R2e_Zo)}
+.param G5_Zo = {1/actual5_Zo}
+.param Aol=122 RL_dc=10k
+.param SRp=27.9 SRn=-22
+.param fp1=4.8 fp2=2.2Meg fp3=39Meg
+.param fp4=45Meg
+.param Aol_v= {pwr(10, (Aol/20))}
+.param Aol_adj = {(Aol_v/RL_dc)*(Zo_dc + RL_dc)}
+.param Aol_adj_dB={20*log10(Aol_adj)+1}
+.param Aol2 = {pwr(10, (Aol_adj_dB - 40)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Cfp3={1 / (2 * pi * fp3 * 1Meg)}
+.param Cfp4={1 / (2 * pi * fp4 * 1Meg)}
+.param A=8.85e-1 B=5.56e-2 C=1.06 D=2.99m
+.param ratio = {Zo_dc/RL_dc}
+.param Cfp1a = {Cfp1*((A+B*ratio)/(1+C*ratio+D*ratio**2))}
+.param Isrc = {Cfp1a * SRp * 1Meg} Isink = {Cfp1a * SRn * 1Meg}
+.param R1a_Aol=1Meg
+.param fz1_Aol=2.6Meg
+.param fp1_Aol=35Meg
+.param C1a_Aol = {1 / (2 * pi * R1a_Aol * fz1_Aol)}
+.param R2a_Aol = {R1a_Aol/ ((2 * pi * fp1_Aol * C1a_Aol
++* R1a_Aol) - 1)}
+.param actual1_Aol = {R2a_Aol / (R1a_Aol + R2a_Aol)}
+.param G1_Aol={1/actual1_Aol}
+.param R1b_Aol=1Meg
+.param fz2_Aol=9Meg
+.param fp2_Aol=50Meg
+.param C1b_Aol = {1 / (2 * pi * R1b_Aol * fz2_Aol)}
+.param R2b_Aol = {R1b_Aol/ ((2 * pi * fp2_Aol * C1b_Aol
++* R1b_Aol) - 1)}
+.param actual2_Aol = {R2b_Aol / (R1b_Aol + R2b_Aol)}
+.param G2_Aol={1/actual2_Aol}
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Rej_dc_CMR=107.4
+.param R1a_CMR=1Meg
+.param fz1_CMR=700
+.param fp1_CMR=450k
+.param C1b_CMR = {1 / (2 * pi * R1b_CMR * fz2_CMR)}
+.param R2b_CMR = {R1b_CMR/ ((2 * pi * fp2_CMR * C1b_CMR
++* R1b_CMR) - 1)}
+.param actual2_CMR = {R2b_CMR / (R1b_CMR + R2b_CMR)}
+.param G2_CMR = {1/actual2_CMR}
+.param R1b_CMR=1Meg
+.param fz2_CMR=1.7Meg
+.param fp2_CMR=10Meg
+.param Ap=0.1 Bp=31.76 Cp=4.88 Dp=4.473e-2
+.param An=0.1 Bn=33.27 Cn=7 Dn=4.96E-02
+.param Ae=9.13e-8 Be=7.93e-8 Ce=8.66e-1 De=-6.8e-1
+.ends ADA4622

lib/sub/ADA4625-1.lib

@@ -0,0 +1,372 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4625-1 1 2 3 4 5
+C1 Clamp COM {Cfp1}
+G2 0 Vcc_Int N053 0 1
+G3 0 Vee_Int N055 0 1
+R6 Vcc_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N051 Vcc_Int 1Meg Temp=-273.15
+R9 N051 Vee_Int 1Meg Temp=-273.15
+C2 N051 0 1
+E1 COM 0 N051 0 1
+R10 COM 0 1Meg Temp=-273.15
+R25 Aol2 COM 1Meg Temp=-273.15
+G7 COM Aol2 Sense COM 1<>
+C14 Vcc_Int 0 1n
+C15 Vee_Int 0 1n
+R1 N003 1 {Rser} Temp=-273.15
+R82 N055 4 1<> Temp=-273.15
+A1 Inn1 Inp1 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k
+R47 N053 3 1<> Temp=-273.15
+G22 COM Sense Clamp COM 1m
+R91 Sense COM 1k Temp=-273.15
+R38 Aol1 COM 1Meg Temp=-273.15
+R78 Clamp COM 1Meg Temp=-273.15
+Iq N053 N055 {Iq_on}
+C34 COM 0 1n
+G30 N053 N055 Vimon COM 1
+C38 Aol2 COM {Cfp2}
+Vimon N014 5 0
+DGP N046 Clamp DG
+DGN Clamp N047 DG
+G5 COM N048 GRpi COM 1
+G6 COM N049 GRni COM 1
+R14 N048 COM 1 Temp=-273.15
+R15 N049 COM 1 Temp=-273.15
+R16 GRpi COM 1k Temp=-273.15
+R17 GRni COM 1k Temp=-273.15
+C9 GRni COM 10p
+I5 COM GRni {1m*Grossn}
+I6 COM GRpi {1m*Grossp}
+C10 GRpi COM 10p
+R20 Satp COM 1k Temp=-273.15
+C13 Satp COM 1p
+C19 Satn COM 1p
+R21 Satn COM 1k Temp=-273.15
+S1 Cap2R Cap2L OL COM OL
+F2 COM OLp VGP 1m
+A2 OLp OLn COM COM COM COM OL COM OR Ref=100u Vh=50u Trise=10n
+R3 OLp COM 1k
+F3 COM OLn VGN -1m
+R33 OLn COM 1k
+C20 OLp COM 10n
+C21 OLn COM 10n
+C22 OL COM 1p
+VGN N047 N049 0
+VGP N046 N048 0
+G18 N028 Inp1 N043 N042 1m
+R51 Inp1 N028 1k Temp=-273.15
+C32 N040 N041 {C1a_PSRp}
+G19 COM N041 VCC_Int COM {G1_PSRp}
+R52 N041 COM 1 Temp=-273.15
+R55 N040 N041 {R1a_PSRp} Temp=-273.15
+R56 N040 COM {R2a_PSRp} Temp=-273.15
+C33 N035 N034 {C1a_PSRn}
+G20 COM N034 VEE_Int COM {G1_PSRn}
+R57 N034 COM 1 Temp=-273.15
+R58 N035 N034 {R1a_PSRn} Temp=-273.15
+R59 N035 COM {R2a_PSRn} Temp=-273.15
+C35 N037 N036 {C1b_PSRn}
+R60 N036 COM 1 Temp=-273.15
+R61 N037 N036 {R1b_PSRn} Temp=-273.15
+R63 N037 COM {R2b_PSRn} Temp=-273.15
+G21 COM N042 N037 COM {G2_PSRn}
+R64 N042 COM 1 Temp=-273.15
+G23 COM N036 N035 COM 1
+R68 N039 N038 {R1b_PSRp} Temp=-273.15
+R69 N038 COM {R2b_PSRp} Temp=-273.15
+G26 COM N043 N038 COM {G2_PSRp}
+C37 N038 N039 {C1b_PSRp}
+G27 COM N039 N040 COM 1
+R70 N039 COM 1 Temp=-273.15
+R71 N043 COM 1 Temp=-273.15
+R76 N015 N018 1k Temp=-273.15
+B17 N018 N015 I=1m*{Vos+Drift* (Temp-25)}
+G32 N016 N017 N002 COM 1m
+R77 N017 N016 1k Temp=-273.15
+R79 N016 N015 1k Temp=-273.15
+G33 N015 N016 E_n COM 1m
+C39 N002 N001 {C1a_CMR}
+G34 COM N001 N003 COM {G1_CMR}
+R80 N002 N001 {R1a_CMR} Temp=-273.15
+R81 N002 COM {R2a_CMR} Temp=-273.15
+R83 N001 COM 1 Temp=-273.15
+G35 COM N018 N003 COM 1k
+G36 COM Inn1 N045 COM 1k
+R84 COM N018 1m Temp=-273.15
+R85 COM Inn1 1m Temp=-273.15
+C40 Inn1 COM 1p
+C41 N018 COM 1p
+Ibp N003 COM {Ib}
+Ibn N045 COM {Ib-Ios}
+G37 N003 COM I_np COM 1
+G38 N045 COM I_nn COM 1
+R2 N045 2 {Rser} Temp=-273.15
+Cinp COM N003 {Ccm}
+Cinn N045 COM {Ccm}
+Cdiff N003 N045 {Cdiff}
+Rinn N045 COM {Rcm} Temp=-273.15
+Rinp COM N003 {Rcm} Temp=-273.15
+Rdiff N003 N045 {Rdiff} Temp=-273.15
+A6 In_diff COM COM COM COM SB COM COM SCHMITT Vt=-5 Vh=100m Trise=5n
+R86 SB COM 1G Temp=-273.15
+G39 COM In_diff 1 2 1m
+R87 In_diff COM 1k Temp=-273.15
+G28 COM N028 N017 COM 1k
+R72 COM N028 1m Temp=-273.15
+C42 N028 COM 1p
+B8 COM N005 I=1m*(V(3,COM)+{Vcm_max}) Cpar=1n
+G14 COM CMp N005 COM 1
+R49 COM CMp 1 Temp=-273.15
+B12 COM N004 I=1m*(V(4,COM)+{Vcm_min}) Cpar=1n
+G17 COM CMn N004 COM 1
+R50 COM CMn 1 Temp=-273.15
+R88 N005 COM 1k Temp=-273.15
+R89 N004 COM 1k Temp=-273.15
+DIP CMp Inp1 DI
+DIN Inp1 CMn DI
+C44 CMn Inp1 1f
+C45 CMp Inp1 1f
+Rx N013 N025 {Rx_Zo} Temp=-273.15
+Rdummy N013 COM {Rdummy_Zo} Temp=-273.15
+G40 COM Cap2L N033 N013 {G1_Zo}
+R90 Cap2L COM 1 Temp=-273.15
+R92 Cap2L Cap2R {R1a_Zo} Temp=-273.15
+R95 Cap2R COM {R2a_Zo} Temp=-273.15
+G41 COM N006 Cap2R COM {G2_Zo}
+C46 Cap2R Cap2L {C1a_Zo}
+R96 N025 COM 1 Temp=-273.15
+B13 COM N025 I=Uplim(Dnlim({G5_Zo}* +V(ZoF,COM), {Izon}, 25m), {Izop}, 25m)
+R97 N010 COM 1 Temp=-273.15
+R98 N012 ZoF {R1e_Zo} Temp=-273.15
+R99 ZoF COM {R2e_Zo} Temp=-273.15
+C48 ZoF N012 {C1e_Zo}
+R100 N006 COM 1 Temp=-273.15
+R101 N006 N007 {R1b_Zo} Temp=-273.15
+R102 N007 COM {R2b_Zo} Temp=-273.15
+G42 COM N008 N007 COM {G3_Zo}
+C49 N007 N006 {C1b_Zo}
+R103 N008 COM 1 Temp=-273.15
+R104 N008 N009 {R1b_Zo} Temp=-273.15
+R105 N009 COM {R2b_Zo} Temp=-273.15
+G43 COM N010 N009 COM {G3_Zo}
+C50 N009 N008 {C1b_Zo}
+R106 N010 N011 {R2d_Zo} Temp=-273.15
+R107 N011 N032 {R1d_Zo} Temp=-273.15
+C51 COM N032 {C1d_Zo}
+Gb3 COM N012 N011 COM 1
+R108 N012 COM 1 Temp=-273.15
+R22 N029 COM 1Meg Temp=-273.15
+G8 COM N029 Aol2 COM 1<>
+C5 N029 COM {Cfp2}
+R23 N030 COM 1Meg Temp=-273.15
+G44 COM N030 N029 COM 1<>
+Gb1 COM N019 N031 COM 1
+R24 N023 COM 1 Temp=-273.15
+R26 N019 N020 {R1f_Aol} Temp=-273.15
+R27 N020 COM {R2f_Aol} Temp=-273.15
+G45 COM N021 N020 COM {G6_Aol}
+C18 N020 N019 {C1f_Aol}
+R28 N019 COM 1 Temp=-273.15
+R29 N033 COM 1 Temp=-273.15
+R30 N023 N024 {R1g_Aol} Temp=-273.15
+R31 N024 COM {R2g_Aol} Temp=-273.15
+G46 COM N033 N024 COM {G7_Aol}
+C52 N024 N023 {C1g_Aol}
+R32 N021 N022 {R1f_Aol} Temp=-273.15
+R109 N022 COM {R2f_Aol} Temp=-273.15
+G47 COM N023 N022 COM {G6_Aol}
+C53 N022 N021 {C1f_Aol}
+R110 N021 COM 1 Temp=-273.15
+R111 N031 COM 1Meg Temp=-273.15
+G48 COM N031 N030 COM 1<>
+C54 N030 COM {Cfp3}
+C55 N031 COM {Cfp4}
+A7 COM COM COM COM COM COM N050 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={fA}/(freq**{M})
+R4 N050 COM 100k Temp=-273.15
+A8 COM N050 COM COM COM COM E_n COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={BB}
+R5 E_n COM 100k Temp=-273.15
+A3 COM COM COM COM COM COM I_np COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={In}
+R13 I_np COM 100k Temp=-273.15
+A4 COM COM COM COM COM COM I_nn COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={In}
+R34 I_nn COM 100k Temp=-273.15
+B2 4 Vsatn1 I=1m*Max(Mn*(-I(Vimon))+OSn,40u)
+R18 Vsatn1 4 1k
+C3 Vsatn1 4 1n
+B5 4 Vsatn2 I=1m*Max((An*(-I(Vimon)))/(Bn+(-I(Vimon))),40u)
+R19 Vsatn2 4 1k
+C4 Vsatn2 4 1n
+B10 COM Satn I=1m*Max(V(Vsatn2,COM), V(Vsatn1,COM))
+R35 Vsatp3 3 1k
+C11 Vsatp3 3 1n
+B11 Vsatp1 3 I=1m*Max(Mp1*(I(Vimon))+OSp1,40u)
+R36 Vsatp1 3 1k
+C12 Vsatp1 3 1n
+B15 Vsatp3 3 I=1m*Max(Ap+((Bp*(I(Vimon)**Cp))/((Dp**Cp)+(I(Vimon)**Cp))),40u)
+B18 Vsatp2 3 I=1m*Max(Mp2*(I(Vimon))+OSp2,40u)
+R39 Vsatp2 3 1k
+C24 Vsatp2 3 1n
+B9 COM Satp I=1m*Min(V(Vsatp1,COM), Min(V(Vsatp2,COM), V(Vsatp3,COM)))
+C28 SB COM 1p
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}*V(Aol1,COM), {Isink}-V(SB,COM)*{Boost},1m),{Isrc},1m)
+S2 3 5 5 3 ESDO
+S3 5 4 4 5 ESDO
+C6 Vimon COM 1p
+R11 Vimon COM 1k Temp=-273.15
+F1 COM Vimon Vimon 1m
+DOP Vsatp N013 DO
+DON N013 Vsatn DO
+DOI N013 N014 LIM
+COI N014 N013 1p
+G1 COM Vsatp Satp COM 1k
+R42 Vsatp COM 1m
+C16 Vsatp COM 1n
+G4 COM Vsatn Satn COM 1k
+R43 Vsatn COM 1m
+C17 Vsatn COM 1n
+C23 N013 Vsatp 1f
+C25 N013 Vsatn 1f
+C7 2 COM 1f
+C8 1 COM 1f
+S4 3 N018 N018 3 ESDI
+S5 3 Inn1 Inn1 3 ESDI
+S6 N018 4 4 N018 ESDI
+S7 Inn1 4 4 Inn1 ESDI
+.param Vos=-22u Drift=0.5u
+.param BB=3.15n In=4.5f
+.param fC=39 M=0.35 fA={BB*(fC**M)}
+.param Ib=15p Ios=2p
+.param Vcm_min=-0.2 Vcm_max=-3.5
+.param Vsmin=5 Vsmax=36
+.param Iscp=46m Iscn=-46m
+.param Iq_on=4m Iq_off=1u
+.param Torp=100n Torn=100n
+.param ORp={(Isrc/Cfp1)*Torp} ORn={(Isink/Cfp1)*Torn}
+.param IZop={2*Rx_Zo*Iscp} IZon={2*Rx_Zo*Iscn}
+.param Grossn={Zo_max*Iscn-Vsmax} Grossp={Zo_max*Iscp+Vsmax}
+.model DI D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model DG D(Vfwd=10k Vrev=0 Revepsilon=0.5 Noiseless)
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1)
+.model LIM D(Vfwd=1n Vrev=1n Ron=1m Roff=1m Ilimit={Iscp} Revilimit={-Iscn} Epsilon=1u)
+.model ESDI SW(Ron=50 Roff=1T Vt=31.6 Vh=-500m Vser=0.1 Noiseless)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n Noiseless)
+.model OL SW(Ron=10m Roff=1G Vt=500m Vh=-100m Noiseless)
+.param Aol2_dB = {Aol_PB-40+1}
+.param Aol2 = {pwr(10, (Aol2_dB)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Cfp3={1 / (2 * pi * fp3 * 1Meg)}
+.param Cfp4={1 / (2 * pi * fp4 * 1Meg)}
+.param Isrc = {Cfp1 * SRp * 1Meg} Isink = {Cfp1 * SRn * 1Meg}
+.param Boost=7
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param C1b_PSRn = {1 / (2 * pi * R1b_PSRn * fz2_PSRn)}
+.param R2b_PSRn = {R1b_PSRn/ ((2 * pi * fp2_PSRn * C1b_PSRn
++* R1b_PSRn) - 1)}
+.param actual2_PSRn = {R2b_PSRn/ (R1b_PSRn + R2b_PSRn)}
+.param G2_PSRn = {1/actual2_PSRn}
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param C1b_PSRp={1 / (2 * pi * R1b_PSRp * fz2_PSRp)}
+.param R2b_PSRp = {R1b_PSRp/ ((2 * pi * fp2_PSRp * C1b_PSRp
++* R1b_PSRp) - 1)}
+.param actual2_PSRp = {R2b_PSRp / (R1b_PSRp + R2b_PSRp)}
+.param G2_PSRp= {1/actual2_PSRp}
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Rser=1m
+.param Ccm=11.3p Rcm=1T
+.param Cdiff=8.6p Rdiff=1T
+.param beta_Zo=1.13
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=1k
+.param Zo_max={Zo_dc}
+.param R1a_Zo=10k
+.param fz1_Zo=0.44
+.param fp1_Zo=16.5
+.param C1a_Zo = {1 / (2 * pi * R1a_Zo * fz1_Zo)}
+.param R2a_Zo = {R1a_Zo/ ((2 * pi * fp1_Zo * C1a_Zo
++* R1a_Zo) - 1)}
+.param actual1_Zo = {R2a_Zo / (R1a_Zo + R2a_Zo)}
+.param G2_Zo = {1/actual1_Zo}
+.param R1b_Zo=10k
+.param fz2_Zo=100k
+.param fp2_Zo=102k
+.param C1b_Zo = {1 / (2 * pi * R1b_Zo * fz2_Zo)}
+.param R2b_Zo = {R1b_Zo/ ((2 * pi * fp2_Zo * C1b_Zo
++* R1b_Zo) - 1)}
+.param actual3_Zo = {R2b_Zo / (R1b_Zo + R2b_Zo)}
+.param G3_Zo = {1/actual3_Zo}
+.param R1e_Zo=10k
+.param fz5_Zo=300Meg
+.param fp5_Zo=100G
+.param C1e_Zo = {1 / (2 * pi * R1e_Zo * fz5_Zo)}
+.param R2e_Zo = {R1e_Zo/ ((2 * pi * fp5_Zo * C1e_Zo
++* R1e_Zo) - 1)}
+.param actual5_Zo = {R2e_Zo / (R1e_Zo + R2e_Zo)}
+.param G5_Zo = {1/actual5_Zo}
+.param R1d_Zo=10k
+.param fp4_Zo=28Meg
+.param fz4_Zo=247Meg
+.param C1d_Zo = {1 / (fz4_Zo * R1d_Zo * 2 * pi)}
+.param R2d_Zo = {(1 / (fp4_Zo * C1d_Zo * 2 * pi))
++- R1d_Zo}
+.param Aol_PB=152.07
+.param SRp=51 SRn=-38.5
+.param fp1=0.44 fp2=6.35Meg fp3=55Meg fp4=58.5Meg
+.param R1f_Aol=10k
+.param fz6_Aol=10.85Meg
+.param fp6_Aol=183Meg
+.param C1f_Aol = {1 / (2 * pi * R1f_Aol * fz6_Aol)}
+.param R2f_Aol = {R1f_Aol/ ((2 * pi * fp6_Aol * C1f_Aol
++* R1f_Aol) - 1)}
+.param actual6_Aol = {R2f_Aol / (R1f_Aol + R2f_Aol)}
+.param G6_Aol = {1/actual6_Aol}
+.param R1g_Aol=10k
+.param fz7_Aol={fz6_Aol}
+.param fp7_Aol=600Meg
+.param C1g_Aol = {1 / (2 * pi * R1g_Aol * fz7_Aol)}
+.param R2g_Aol = {R1g_Aol/ ((2 * pi * fp7_Aol * C1g_Aol
++* R1g_Aol) - 1)}
+.param actual7_Aol = {R2g_Aol / (R1g_Aol + R2g_Aol)}
+.param G7_Aol = {1/actual7_Aol}
+.param Rej_dc_CMR=130
+.param R1a_CMR=1Meg
+.param fz1_CMR=20
+.param fp1_CMR=5Meg
+.param Rej_dc_PSRp=120
+.param R1a_PSRp=1Meg
+.param fz1_PSRp=750
+.param fp1_PSRp=800k
+.param R1b_PSRp=1Meg
+.param fz2_PSRp=16.5k
+.param fp2_PSRp=14Meg
+.param Rej_dc_PSRn=120
+.param R1a_PSRn=1Meg
+.param fz1_PSRn=5
+.param fp1_PSRn=50k
+.param R1b_PSRn=1Meg
+.param fz2_PSRn=100k
+.param fp2_PSRn=10Meg
+.param Mp1=5.01 OSp1=0.155
+.param Mp2=15.56 OSp2=0.14
+.param Ap=0.159 Bp=300 Cp=1.8 Dp=0.9
+.param Mn=14 OSn=0.15
+.param An=-1.43 Bn=-8.9e-2
+.ends ADA4625-1

lib/sub/ADA4625-2.lib

@@ -0,0 +1,372 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4625-2 1 2 3 4 5
+C1 Clamp COM {Cfp1}
+G2 0 Vcc_Int N053 0 1
+G3 0 Vee_Int N055 0 1
+R6 Vcc_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N051 Vcc_Int 1Meg Temp=-273.15
+R9 N051 Vee_Int 1Meg Temp=-273.15
+C2 N051 0 1
+E1 COM 0 N051 0 1
+R10 COM 0 1Meg Temp=-273.15
+R25 Aol2 COM 1Meg Temp=-273.15
+G7 COM Aol2 Sense COM 1<>
+C14 Vcc_Int 0 1n
+C15 Vee_Int 0 1n
+R1 N003 1 {Rser} Temp=-273.15
+R82 N055 4 1<> Temp=-273.15
+A1 Inn1 Inp1 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k
+R47 N053 3 1<> Temp=-273.15
+G22 COM Sense Clamp COM 1m
+R91 Sense COM 1k Temp=-273.15
+R38 Aol1 COM 1Meg Temp=-273.15
+R78 Clamp COM 1Meg Temp=-273.15
+Iq N053 N055 {Iq_on}
+C34 COM 0 1n
+G30 N053 N055 Vimon COM 1
+C38 Aol2 COM {Cfp2}
+Vimon N014 5 0
+DGP N046 Clamp DG
+DGN Clamp N047 DG
+G5 COM N048 GRpi COM 1
+G6 COM N049 GRni COM 1
+R14 N048 COM 1 Temp=-273.15
+R15 N049 COM 1 Temp=-273.15
+R16 GRpi COM 1k Temp=-273.15
+R17 GRni COM 1k Temp=-273.15
+C9 GRni COM 10p
+I5 COM GRni {1m*Grossn}
+I6 COM GRpi {1m*Grossp}
+C10 GRpi COM 10p
+R20 Satp COM 1k Temp=-273.15
+C13 Satp COM 1p
+C19 Satn COM 1p
+R21 Satn COM 1k Temp=-273.15
+S1 Cap2R Cap2L OL COM OL
+F2 COM OLp VGP 1m
+A2 OLp OLn COM COM COM COM OL COM OR Ref=100u Vh=50u Trise=10n
+R3 OLp COM 1k
+F3 COM OLn VGN -1m
+R33 OLn COM 1k
+C20 OLp COM 10n
+C21 OLn COM 10n
+C22 OL COM 1p
+VGN N047 N049 0
+VGP N046 N048 0
+G18 N027 Inp1 N042 N041 1m
+R51 Inp1 N027 1k Temp=-273.15
+C32 N039 N040 {C1a_PSRp}
+G19 COM N040 VCC_Int COM {G1_PSRp}
+R52 N040 COM 1 Temp=-273.15
+R55 N039 N040 {R1a_PSRp} Temp=-273.15
+R56 N039 COM {R2a_PSRp} Temp=-273.15
+C33 N034 N033 {C1a_PSRn}
+G20 COM N033 VEE_Int COM {G1_PSRn}
+R57 N033 COM 1 Temp=-273.15
+R58 N034 N033 {R1a_PSRn} Temp=-273.15
+R59 N034 COM {R2a_PSRn} Temp=-273.15
+C35 N036 N035 {C1b_PSRn}
+R60 N035 COM 1 Temp=-273.15
+R61 N036 N035 {R1b_PSRn} Temp=-273.15
+R63 N036 COM {R2b_PSRn} Temp=-273.15
+G21 COM N041 N036 COM {G2_PSRn}
+R64 N041 COM 1 Temp=-273.15
+G23 COM N035 N034 COM 1
+R68 N038 N037 {R1b_PSRp} Temp=-273.15
+R69 N037 COM {R2b_PSRp} Temp=-273.15
+G26 COM N042 N037 COM {G2_PSRp}
+C37 N037 N038 {C1b_PSRp}
+G27 COM N038 N039 COM 1
+R70 N038 COM 1 Temp=-273.15
+R71 N042 COM 1 Temp=-273.15
+R76 N015 N018 1k Temp=-273.15
+B17 N018 N015 I=1m*{Vos+Drift* (Temp-25)}
+G32 N016 N017 N002 COM 1m
+R77 N017 N016 1k Temp=-273.15
+R79 N016 N015 1k Temp=-273.15
+G33 N015 N016 E_n COM 1m
+C39 N002 N001 {C1a_CMR}
+G34 COM N001 N003 COM {G1_CMR}
+R80 N002 N001 {R1a_CMR} Temp=-273.15
+R81 N002 COM {R2a_CMR} Temp=-273.15
+R83 N001 COM 1 Temp=-273.15
+G35 COM N018 N003 COM 1k
+G36 COM Inn1 N045 COM 1k
+R84 COM N018 1m Temp=-273.15
+R85 COM Inn1 1m Temp=-273.15
+C40 Inn1 COM 1p
+C41 N018 COM 1p
+Ibp N003 COM {Ib}
+Ibn N045 COM {Ib-Ios}
+G37 N003 COM I_np COM 1
+G38 N045 COM I_nn COM 1
+R2 N045 2 {Rser} Temp=-273.15
+Cinp COM N003 {Ccm}
+Cinn N045 COM {Ccm}
+Cdiff N003 N045 {Cdiff}
+Rinn N045 COM {Rcm} Temp=-273.15
+Rinp COM N003 {Rcm} Temp=-273.15
+Rdiff N003 N045 {Rdiff} Temp=-273.15
+A6 In_diff COM COM COM COM SB COM COM SCHMITT Vt=-5 Vh=100m Trise=5n
+R86 SB COM 1G Temp=-273.15
+G39 COM In_diff 1 2 1m
+R87 In_diff COM 1k Temp=-273.15
+G28 COM N027 N017 COM 1k
+R72 COM N027 1m Temp=-273.15
+C42 N027 COM 1p
+B8 COM N005 I=1m*(V(3,COM)+{Vcm_max}) Cpar=1n
+G14 COM CMp N005 COM 1
+R49 COM CMp 1 Temp=-273.15
+B12 COM N004 I=1m*(V(4,COM)+{Vcm_min}) Cpar=1n
+G17 COM CMn N004 COM 1
+R50 COM CMn 1 Temp=-273.15
+R88 N005 COM 1k Temp=-273.15
+R89 N004 COM 1k Temp=-273.15
+DIP CMp Inp1 DI
+DIN Inp1 CMn DI
+C44 CMn Inp1 1f
+C45 CMp Inp1 1f
+Rx N013 N025 {Rx_Zo} Temp=-273.15
+Rdummy N013 COM {Rdummy_Zo} Temp=-273.15
+G40 COM Cap2L N032 N013 {G1_Zo}
+R90 Cap2L COM 1 Temp=-273.15
+R92 Cap2L Cap2R {R1a_Zo} Temp=-273.15
+R95 Cap2R COM {R2a_Zo} Temp=-273.15
+G41 COM N006 Cap2R COM {G2_Zo}
+C46 Cap2R Cap2L {C1a_Zo}
+R96 N025 COM 1 Temp=-273.15
+B13 COM N025 I=Uplim(Dnlim({G5_Zo}* +V(ZoF,COM), {Izon}, 25m), {Izop}, 25m)
+R97 N010 COM 1 Temp=-273.15
+R98 N012 ZoF {R1e_Zo} Temp=-273.15
+R99 ZoF COM {R2e_Zo} Temp=-273.15
+C48 ZoF N012 {C1e_Zo}
+R100 N006 COM 1 Temp=-273.15
+R101 N006 N007 {R1b_Zo} Temp=-273.15
+R102 N007 COM {R2b_Zo} Temp=-273.15
+G42 COM N008 N007 COM {G3_Zo}
+C49 N007 N006 {C1b_Zo}
+R103 N008 COM 1 Temp=-273.15
+R104 N008 N009 {R1b_Zo} Temp=-273.15
+R105 N009 COM {R2b_Zo} Temp=-273.15
+G43 COM N010 N009 COM {G3_Zo}
+C50 N009 N008 {C1b_Zo}
+R106 N010 N011 {R2d_Zo} Temp=-273.15
+R107 N011 N031 {R1d_Zo} Temp=-273.15
+C51 COM N031 {C1d_Zo}
+Gb3 COM N012 N011 COM 1
+R108 N012 COM 1 Temp=-273.15
+R22 N028 COM 1Meg Temp=-273.15
+G8 COM N028 Aol2 COM 1<>
+C5 N028 COM {Cfp2}
+R23 N029 COM 1Meg Temp=-273.15
+G44 COM N029 N028 COM 1<>
+Gb1 COM N019 N030 COM 1
+R24 N023 COM 1 Temp=-273.15
+R26 N019 N020 {R1f_Aol} Temp=-273.15
+R27 N020 COM {R2f_Aol} Temp=-273.15
+G45 COM N021 N020 COM {G6_Aol}
+C18 N020 N019 {C1f_Aol}
+R28 N019 COM 1 Temp=-273.15
+R29 N032 COM 1 Temp=-273.15
+R30 N023 N024 {R1g_Aol} Temp=-273.15
+R31 N024 COM {R2g_Aol} Temp=-273.15
+G46 COM N032 N024 COM {G7_Aol}
+C52 N024 N023 {C1g_Aol}
+R32 N021 N022 {R1f_Aol} Temp=-273.15
+R109 N022 COM {R2f_Aol} Temp=-273.15
+G47 COM N023 N022 COM {G6_Aol}
+C53 N022 N021 {C1f_Aol}
+R110 N021 COM 1 Temp=-273.15
+R111 N030 COM 1Meg Temp=-273.15
+G48 COM N030 N029 COM 1<>
+C54 N029 COM {Cfp3}
+C55 N030 COM {Cfp4}
+A7 COM COM COM COM COM COM N050 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={fA}/(freq**{M})
+R4 N050 COM 100k Temp=-273.15
+A8 COM N050 COM COM COM COM E_n COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={BB}
+R5 E_n COM 100k Temp=-273.15
+A3 COM COM COM COM COM COM I_np COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={In}
+R13 I_np COM 100k Temp=-273.15
+A4 COM COM COM COM COM COM I_nn COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={In}
+R34 I_nn COM 100k Temp=-273.15
+B2 4 Vsatn1 I=1m*Max(Mn*(-I(Vimon))+OSn,40u)
+R18 Vsatn1 4 1k
+C3 Vsatn1 4 1n
+B5 4 Vsatn2 I=1m*Max((An*(-I(Vimon)))/(Bn+(-I(Vimon))),40u)
+R19 Vsatn2 4 1k
+C4 Vsatn2 4 1n
+B10 COM Satn I=1m*Max(V(Vsatn2,COM), V(Vsatn1,COM))
+R35 Vsatp3 3 1k
+C11 Vsatp3 3 1n
+B11 Vsatp1 3 I=1m*Max(Mp1*(I(Vimon))+OSp1,40u)
+R36 Vsatp1 3 1k
+C12 Vsatp1 3 1n
+B15 Vsatp3 3 I=1m*Max(Ap+((Bp*(I(Vimon)**Cp))/((Dp**Cp)+(I(Vimon)**Cp))),40u)
+B18 Vsatp2 3 I=1m*Max(Mp2*(I(Vimon))+OSp2,40u)
+R39 Vsatp2 3 1k
+C24 Vsatp2 3 1n
+B9 COM Satp I=1m*Min(V(Vsatp1,COM), Min(V(Vsatp2,COM), V(Vsatp3,COM)))
+C28 SB COM 1p
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}*V(Aol1,COM), {Isink}-V(SB,COM)*{Boost},1m),{Isrc},1m)
+S2 3 5 5 3 ESDO
+S3 5 4 4 5 ESDO
+C6 Vimon COM 1p
+R11 Vimon COM 1k Temp=-273.15
+F1 COM Vimon Vimon 1m
+DOP Vsatp N013 DO
+DON N013 Vsatn DO
+DOI N013 N014 LIM
+COI N014 N013 1p
+G1 COM Vsatp Satp COM 1k
+R42 Vsatp COM 1m
+C16 Vsatp COM 1n
+G4 COM Vsatn Satn COM 1k
+R43 Vsatn COM 1m
+C17 Vsatn COM 1n
+C23 N013 Vsatp 1f
+C25 N013 Vsatn 1f
+C7 2 COM 1f
+C8 1 COM 1f
+S4 3 N018 N018 3 ESDI
+S5 3 Inn1 Inn1 3 ESDI
+S6 N018 4 4 N018 ESDI
+S7 Inn1 4 4 Inn1 ESDI
+.param Vos=-22u Drift=0.5u
+.param BB=3.15n In=4.5f
+.param fC=39 M=0.35 fA={BB*(fC**M)}
+.param Ib=15p Ios=2p
+.param Vcm_min=-0.2 Vcm_max=-3.5
+.param Vsmin=5 Vsmax=36
+.param Iscp=46m Iscn=-46m
+.param Iq_on=4m Iq_off=1u
+.param Torp=100n Torn=100n
+.param ORp={(Isrc/Cfp1)*Torp} ORn={(Isink/Cfp1)*Torn}
+.param IZop={2*Rx_Zo*Iscp} IZon={2*Rx_Zo*Iscn}
+.param Grossn={Zo_max*Iscn-Vsmin} Grossp={Zo_max*Iscp+Vsmax}
+.model DI D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model DG D(Vfwd=10k Vrev=0 Revepsilon=0.5 Noiseless)
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1)
+.model LIM D(Vfwd=1n Vrev=1n Ron=1m Roff=1m Ilimit={Iscp} Revilimit={-Iscn} Epsilon=1u)
+.model ESDI SW(Ron=50 Roff=1T Vt=31.6 Vh=-500m Vser=0.1 Noiseless)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n Noiseless)
+.model OL SW(Ron=10m Roff=1G Vt=500m Vh=-100m Noiseless)
+.param Aol2_dB = {Aol_PB-40+1}
+.param Aol2 = {pwr(10, (Aol2_dB)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Cfp3={1 / (2 * pi * fp3 * 1Meg)}
+.param Cfp4={1 / (2 * pi * fp4 * 1Meg)}
+.param Isrc = {Cfp1 * SRp * 1Meg} Isink = {Cfp1 * SRn * 1Meg}
+.param Boost=7
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param C1b_PSRn = {1 / (2 * pi * R1b_PSRn * fz2_PSRn)}
+.param R2b_PSRn = {R1b_PSRn/ ((2 * pi * fp2_PSRn * C1b_PSRn
++* R1b_PSRn) - 1)}
+.param actual2_PSRn = {R2b_PSRn/ (R1b_PSRn + R2b_PSRn)}
+.param G2_PSRn = {1/actual2_PSRn}
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param C1b_PSRp={1 / (2 * pi * R1b_PSRp * fz2_PSRp)}
+.param R2b_PSRp = {R1b_PSRp/ ((2 * pi * fp2_PSRp * C1b_PSRp
++* R1b_PSRp) - 1)}
+.param actual2_PSRp = {R2b_PSRp / (R1b_PSRp + R2b_PSRp)}
+.param G2_PSRp= {1/actual2_PSRp}
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Rser=1m
+.param Ccm=13.3p Rcm=1T
+.param Cdiff=13.8p Rdiff=1T
+.param beta_Zo=1.13
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=1k
+.param Zo_max={Zo_dc}
+.param R1a_Zo=10k
+.param fz1_Zo=0.44
+.param fp1_Zo=16.5
+.param C1a_Zo = {1 / (2 * pi * R1a_Zo * fz1_Zo)}
+.param R2a_Zo = {R1a_Zo/ ((2 * pi * fp1_Zo * C1a_Zo
++* R1a_Zo) - 1)}
+.param actual1_Zo = {R2a_Zo / (R1a_Zo + R2a_Zo)}
+.param G2_Zo = {1/actual1_Zo}
+.param R1b_Zo=10k
+.param fz2_Zo=100k
+.param fp2_Zo=102k
+.param C1b_Zo = {1 / (2 * pi * R1b_Zo * fz2_Zo)}
+.param R2b_Zo = {R1b_Zo/ ((2 * pi * fp2_Zo * C1b_Zo
++* R1b_Zo) - 1)}
+.param actual3_Zo = {R2b_Zo / (R1b_Zo + R2b_Zo)}
+.param G3_Zo = {1/actual3_Zo}
+.param R1e_Zo=10k
+.param fz5_Zo=300Meg
+.param fp5_Zo=100G
+.param C1e_Zo = {1 / (2 * pi * R1e_Zo * fz5_Zo)}
+.param R2e_Zo = {R1e_Zo/ ((2 * pi * fp5_Zo * C1e_Zo
++* R1e_Zo) - 1)}
+.param actual5_Zo = {R2e_Zo / (R1e_Zo + R2e_Zo)}
+.param G5_Zo = {1/actual5_Zo}
+.param R1d_Zo=10k
+.param fp4_Zo=28Meg
+.param fz4_Zo=247Meg
+.param C1d_Zo = {1 / (fz4_Zo * R1d_Zo * 2 * pi)}
+.param R2d_Zo = {(1 / (fp4_Zo * C1d_Zo * 2 * pi))
++- R1d_Zo}
+.param Aol_PB=152.07
+.param SRp=51 SRn=-38.5
+.param fp1=0.44 fp2=6.35Meg fp3=55Meg fp4=51.5Meg
+.param R1f_Aol=10k
+.param fz6_Aol=10.85Meg
+.param fp6_Aol=183Meg
+.param C1f_Aol = {1 / (2 * pi * R1f_Aol * fz6_Aol)}
+.param R2f_Aol = {R1f_Aol/ ((2 * pi * fp6_Aol * C1f_Aol
++* R1f_Aol) - 1)}
+.param actual6_Aol = {R2f_Aol / (R1f_Aol + R2f_Aol)}
+.param G6_Aol = {1/actual6_Aol}
+.param R1g_Aol=10k
+.param fz7_Aol={fz6_Aol}
+.param fp7_Aol=600Meg
+.param C1g_Aol = {1 / (2 * pi * R1g_Aol * fz7_Aol)}
+.param R2g_Aol = {R1g_Aol/ ((2 * pi * fp7_Aol * C1g_Aol
++* R1g_Aol) - 1)}
+.param actual7_Aol = {R2g_Aol / (R1g_Aol + R2g_Aol)}
+.param G7_Aol = {1/actual7_Aol}
+.param Rej_dc_CMR=130
+.param R1a_CMR=1Meg
+.param fz1_CMR=20
+.param fp1_CMR=5Meg
+.param Rej_dc_PSRp=120
+.param R1a_PSRp=1Meg
+.param fz1_PSRp=750
+.param fp1_PSRp=800k
+.param R1b_PSRp=1Meg
+.param fz2_PSRp=16.5k
+.param fp2_PSRp=14Meg
+.param Rej_dc_PSRn=120
+.param R1a_PSRn=1Meg
+.param fz1_PSRn=5
+.param fp1_PSRn=50k
+.param R1b_PSRn=1Meg
+.param fz2_PSRn=100k
+.param fp2_PSRn=10Meg
+.param Mp1=5.01 OSp1=0.155
+.param Mp2=15.56 OSp2=0.14
+.param Ap=0.159 Bp=300 Cp=1.8 Dp=0.9
+.param Mn=14 OSn=0.15
+.param An=-1.43 Bn=-8.9e-2
+.ends ADA4625-2

lib/sub/ADA4661-2.lib

@@ -0,0 +1,84 @@
+* Copyright (c) 1998-2022 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4661-2 1 2 99 50 45
+M1   4  7  8  8 PIX L=1E-6 W=2.65E-04
+M2   6  2  8  8 PIX L=1E-6 W=2.65E-04
+M3  14  7 18 18 NIX L=1E-6 W=1.18E-04
+M4  16  2 18 18 NIX L=1E-6 W=1.18E-04
+RD1  4 50 1.33E+04
+RD2  6 50 1.33E+04
+RD3 99 14 1.33E+04
+RD4 99 16 1.33E+04
+C1   4  6 8.15E-13
+C2  14 16 8.15E-13
+I1  99  8 3.00E-05
+I2  18 50 3.00E-05
+V1  99  9 2.113E+00
+V2  19 50 1.203E-01
+D1   8  9 DX
+D2  19 18 DX
+EOS  7  1 POLY(4) (73,98) (22,98) (81,98) (83,98) 1.50E-04 1 1 1 1
+IOS  1  2 1.50E-12
+Ccm1 1 50 3E-12
+Ccm2 2 50 3E-12
+Cdm 1 2 8.5E-12
+E1  72 98 POLY(2) (1,98) (2,98) 0 5.25E-03 5.25E-03
+R10 72 73 1.89E+02
+R20 73 98 7.959E-02
+C10 72 73 1.00E-06
+EPSY 21 98 POLY(1) (99,50) -2.074E+02 1.152E+1
+RPS1 21 22 1.59E+05
+RPS2 22 98 3.18E-02
+CPS1 21 22 1.00E-06
+VN1 80 98 0
+RN1 80 98 16.45E-3
+HN  81 98 VN1 1.07E+01
+RN2 81 98 1
+DFN 82 98 DNOISE
+VFN 82 98 DC 0.6441
+HFN 83 98 POLY(1) VFN 1.00E-03 1.00E+00
+RFN 83 98 1
+EREF 98  0 POLY(2) (99,0) (50,0) 0 0.5 0.5
+GSY  99 50 POLY(1) (99,50) 4.575E-04 -1.55E-6
+EVP  97 98 POLY(1)(99,50) 0.5 0.175
+EVN  51 98 POLY(1)(50,99) 0.5 0.375
+G1 98 30 POLY(2) (4,6) (14,16) 0 7.103E-03 7.103E-03
+R1 30 98 1.00E+06
+RZ 455 31 0.195E+00
+CF 30 31 2.95E-9
+EZ 455 98 (45A,98) 1
+D3 30 97 DX
+D4 51 30 DX
+M5  45A 46 99 99 POX L=3u W=6m
+M6  45A 47 50 50 NOX L=2u W=12m
+EG1 99 46 POLY(1) (98,30) 8.523E-01 1
+EG2 47 50 POLY(1) (30,98) 6.964E-01 1
+Vimon 45A 45 0
+BO1 Vsatp 99 I=1m*Dnlim(V(Mp)*I(Vimon) +V(Bp), V(Bp), 100u)
+CO1 Vsatp 99 1n Rpar=1k Noiseless
+BO2 50 Vsatn I=1m*Dnlim(V(Mn)*-I(Vimon) +V(Bn), V(Bn), 100u)
+CO2 Vsatn 50 1n Rpar=1k Noiseless
+GO1 0 Satp Vsatp 0 1k
+CO3 Satp 0 1n Rpar=1m Noiseless
+GO2 0 Satn Vsatn 0 1k
+CO4 Satn 0 1n Rpar=1m Noiseless
+BO3 0 Mp I=1m*table(V(Vs), 3, {Mp3}, 10, {Mp18}) Rpar=1k Cpar=1n
+GO3 0 Vs 99 50 1m
+CO5 Vs 0 1n Rpar=1k Noiseless
+BO4 0 Mn I=1m*table(V(Vs), 3, {Mn3}, 10, {Mn18}) Rpar=1k Cpar=1n
+BO5 0 Bp I=1m*table(V(Vs), 3, {Bp3}, 10, {Bp18}) Rpar=1k Cpar=1n
+BO6 0 Bn I=1m*table(V(Vs), 3, {Bn3}, 10, {Bn18}) Rpar=1k Cpar=1n
+DO1 Satp 45A DO
+DO2 45A Satn DO
+.param Mp3=19.9 Bp3=1.35m
+.param Mn3=13.3 Bn3=0.9m
+.param Mp18=17.3 Bp18=1.9m
+.param Mn18=10.5 Bn18=1.2m
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1 Ron=1m Noiseless)
+.model POX PMOS (LEVEL=2,KP=4.00E-05,VTO=-0.7,LAMBDA=0.047,RD=0)
+.model NOX NMOS (LEVEL=2,KP=1.00E-05,VTO=+0.6,LAMBDA=0.022,RD=0)
+.model PIX PMOS (LEVEL=2,KP=1.50E-05,VTO=-0.5,LAMBDA=0.047)
+.model NIX NMOS (LEVEL=2,KP=4.00E-05,VTO=0.5,LAMBDA=0.022)
+.model DX D(IS=1E-14,RS=0.1)
+.model DNOISE D(IS=1E-14,RS=0,KF=1.53E-10)
+.ENDS ADA4661-2

lib/sub/ADA4807-4.lib

@@ -0,0 +1,514 @@
+* Copyright (c) 1998-2022 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4807-4 1 2 3 4 5
+C1 Clamp COM {Cfp1}
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}* V(Aol1,COM), {Isink}, 10m), {Isrc}, 10m)
+A1 Inn2 Inp2 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k
+G2 0 Vcc_Int 3 0 1
+G3 0 Vee_Int 4 0 1
+R6 Vcc_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N054 Vcc_Int 1Meg Temp=-273.15
+R9 N054 Vee_Int 1Meg Temp=-273.15
+C2 N054 0 1
+E1 COM 0 N054 0 1
+R10 COM 0 1Meg Temp=-273.15
+Cinp COM Inp1 {Ccm}
+Cinn Inn1 COM {Ccm}
+Cdiff Inp1 Inn1 {Cdiff}
+Rinn Inn1 COM {Rcm} Temp=-273.15
+Rinp COM Inp1 {Rcm} Temp=-273.15
+Vimon N031 5 0
+G14 COM Inn2 Inn1 COM 1k
+R43 COM Inn2 1m Temp=-273.15
+C12 Inn2 COM 1p
+DIP N047 Inp2 DI
+DIN Inp2 N048 DI
+C14 Vcc_Int 0 1n
+C15 Vee_Int 0 1n
+S3 3 N023 N023 3 ESDI
+S4 3 Inn2 Inn2 3 ESDI
+S5 N023 4 4 N023 ESDI
+S6 Inn2 4 4 Inn2 ESDI
+B4 COM N052 I=1m*(V(3,COM)+{Vcm_max}) Rpar=1k Cpar=1n
+G13 COM CMp N052 COM 1
+R40 CMp COM 1
+B5 COM N053 I=1m*(V(4,COM)+{Vcm_min}) Rpar=1k Cpar=1n
+G30 COM CMn N053 COM 1
+R41 CMn COM 1
+VIP N047 CMp 0
+VIN CMn N048 0
+R1 Inp1 1 {Rser} Temp=-273.15
+R2 Inn1 2 {Rser} Temp=-273.15
+Rdiff Inp1 Inn1 {Rdiff} Temp=-273.15
+B9 Vsatp2 Vcc_Int I=1m*Max(Ap+((Bp*(V(Vimon,COM)**Cp))/((Dp**Cp)+(V(Vimon,COM)**Cp))),40u)
+R75 Vsatp2 Vcc_Int 1k
+C39 Vsatp2 Vcc_Int {CVsat}
+B17 Vee_Int Vsatn1 I=1m*Max(Mn*(-V(Vimon,COM))+OSn,40u)
+R76 Vsatn1 Vee_Int 1k
+B18 Vee_Int Vsatn2 I=1m*(An+((Bn*(-V(Vimon,COM)**Cn))/((Dn**Cn)+(-V(Vimon,COM)**Cn))))
+R96 Vsatn2 Vee_Int 1k
+B19 COM Satn I=1m*IF(-V(Vimon,COM)>66m, V(Vsatn2,COM), V(Vsatn1,COM))
+R125 Satn COM 1k
+C52 Satn COM 1n
+B22 Vsatp1 Vcc_Int I=1m*Max(Mp*(V(Vimon,COM))+OSp,40u)
+R126 Vsatp1 Vcc_Int 1k
+B26 COM Satp I=1m*IF(V(Vimon,COM)>38m, V(Vsatp2,COM),V(Vsatp1,COM))
+R127 Satp COM 1k
+C54 Satp COM 1n
+G15 COM Sense Clamp COM 1m
+R3 Sense COM 1k Temp=-273.15
+F1 COM Vimon Vimon 1m
+R13 Vimon COM 1k
+C3 Vimon COM 10p
+S1 3 5 5 3 ESDO
+S2 5 4 4 5 ESDO
+G1 COM N008 N040 N031 {G1_Zo}
+R12 N008 COM 1 Temp=-273.15
+R15 N008 N009 {R1a_Zo} Temp=-273.15
+R16 N009 COM {R2a_Zo} Temp=-273.15
+G4 COM N012 N009 COM {G2_Zo}
+C4 N009 N008 {C1a_Zo}
+R17 N014 COM 1 Temp=-273.15
+R18 N014 N015 {R2b_Zo} Temp=-273.15
+R19 N015 N037 {R1b_Zo} Temp=-273.15
+C5 COM N037 {C1b_Zo}
+R20 N012 N013 {R1c_Zo} Temp=-273.15
+R21 N013 COM {R2c_Zo} Temp=-273.15
+G5 COM N014 N013 COM {G3_Zo}
+C6 N013 N012 {C1c_Zo}
+R22 N012 COM 1
+G6 COM N016 N015 COM 1
+R23 N016 N017 {R1d_Zo} Temp=-273.15
+R24 N017 COM {R2d_Zo} Temp=-273.15
+G7 COM N018 N017 COM {G4_Zo}
+C7 N017 N016 {C1d_Zo}
+R25 N016 COM 1 Temp=-273.15
+R26 N018 N019 {R1e_Zo} Temp=-273.15
+R27 N019 COM {R2e_Zo} Temp=-273.15
+G8 COM N020 N019 COM {G5_Zo}
+C8 N019 N018 {C1e_Zo}
+R28 N020 ZoF {R1f_Zo} Temp=-273.15
+R29 ZoF COM {R2f_Zo} Temp=-273.15
+C9 ZoF N020 {C1f_Zo}
+R30 N018 COM 1 Temp=-273.15
+R31 N020 COM 1 Temp=-273.15
+G9 COM Vs 3 4 1m
+R32 Vs COM 1k Temp=-273.15
+A3 Vs COM COM COM COM COM VminGD COM SCHMITT Vt={Vsmin-10m} Vh=10m Trise=5n
+A4 Vs COM COM COM COM VmaxGD COM COM SCHMITT Vt={Vsmax+10m} Vh=10m Trise=5n
+A5 VminGD COM COM COM VmaxGD COM EN COM AND Trise=5n
+R33 EN COM 1G Temp=-273.15
+R34 VmaxGD COM 1G Temp=-273.15
+R35 COM VminGD 1G Temp=-273.15
+A6 EN COM COM COM COM _EN COM COM BUF Trise=5n
+S7 N009 N008 OL COM OL
+A7 COM COM OLp OLn _EN COM OL COM OR Ref=100u Vh=50u Trise=10n
+Rx N031 N032 {Rx_Zo} Temp=-273.15
+Rdummy N031 COM {Rdummy_Zo} Temp=-273.15
+R4 N039 COM 1Meg Temp=-273.15
+C20 N039 COM {Cfp2}
+G10 COM N039 N038 COM 1<>
+G12 COM N025 Sense COM 1
+R45 N025 COM 1 Temp=-273.15
+R46 N025 N026 {R1a_Aol} Temp=-273.15
+R47 N026 COM {R2a_Aol} Temp=-273.15
+G16 COM N027 N026 COM {G1_Aol}
+C21 N026 N025 {C1a_Aol}
+R50 N027 COM 1 Temp=-273.15
+R51 N027 N028 {R1a_Aol} Temp=-273.15
+R52 N028 COM {R2a_Aol} Temp=-273.15
+G17 COM N029 N028 COM {G1_Aol}
+C22 N028 N027 {C1a_Aol}
+R53 N029 COM 1 Temp=-273.15
+R54 N029 N030 {R1b_Aol} Temp=-273.15
+R55 N030 COM {R2b_Aol} Temp=-273.15
+C23 N030 N029 {C1b_Aol}
+G18 COM N038 N030 COM {G2_Aol}
+R56 N038 COM 1 Temp=-273.15
+R57 N040 COM 1Meg Temp=-273.15
+C26 N040 COM {Cfp2}
+G19 COM N040 N039 COM 1<>
+G21 N035 N036 N050 N042 1<>
+R59 N036 N035 1Meg Temp=-273.15
+C27 N045 N046 {C1a_PSRp}
+G22 COM N046 VCC_Int COM {G1_PSRp}
+R60 N046 COM 1 Temp=-273.15
+R61 N045 N046 {R1a_PSRp} Temp=-273.15
+R62 N045 COM {R2a_PSRp} Temp=-273.15
+C28 N043 N044 {C1b_PSRp}
+R63 N043 COM {R2b_PSRp} Temp=-273.15
+R64 N043 N044 {R1b_PSRp} Temp=-273.15
+G23 COM N044 N045 COM 1
+R66 N044 COM 1 Temp=-273.15
+G24 COM N050 N043 COM {G2_PSRp}
+R67 N050 COM 1 Temp=-273.15
+C29 N042 N041 {C1a_PSRn}
+G25 COM N041 VEE_Int COM {G1_PSRn}
+R68 N041 COM 1 Temp=-273.15
+R70 N042 N041 {R1a_PSRn} Temp=-273.15
+R71 N042 COM {R2a_PSRn} Temp=-273.15
+G26 COM N035 N022 COM 1k
+R72 COM N035 1m Temp=-273.15
+G27 COM Inp2 N036 COM 1m
+R73 COM Inp2 1k Temp=-273.15
+C30 N002 N001 {C1a_CMR}
+R58 N001 COM 1 Temp=-273.15
+R74 N002 N001 {R1a_CMR} Temp=-273.15
+R77 N002 COM {R2a_CMR} Temp=-273.15
+R78 N003 N004 {R1b_CMR} Temp=-273.15
+R79 N004 COM {R2b_CMR} Temp=-273.15
+G20 COM N005 N004 COM {G2_CMR}
+C31 N004 N003 {C1b_CMR}
+R80 N003 COM 1 Temp=-273.15
+G29 COM N003 N002 COM 1
+R81 N005 COM 1 Temp=-273.15
+G31 COM N001 Inp1 COM {G1_CMR}
+G32 N021 N022 N005 COM 1<>
+R82 N022 N021 1Meg Temp=-273.15
+G33 COM N023 Inp1 COM 1k
+R83 COM N023 1m Temp=-273.15
+C32 N023 COM 1p
+B2 0 VICM I=1m*((V(1,COM)+V(2,COM))/2) Rpar=1k Cpar=1n
+A8 3 VICM COM COM COM NPN PNP COM SCHMITT Vt={1.5-50m} Vh=50m Tau=1u
+R84 NPN COM 1G Temp=-273.15
+R85 PNP COM 1G Temp=-273.15
+BIbp Inp1 COM I={Ib+Ibdrift*(Temp-27)}+V(NPN,COM)*{Ib2}
+BIbn Inn1 N051 I={Ib-Ios+(Ibdrift-Iosdrift)*(Temp-27)}+V(NPN,COM)*{Ib2-Ios2}
+B6 Inp1 COM I=IF(V(PNP,COM)>0.5, I(V_I_np), I(V_I_nn))
+B7 Inn1 COM I=IF(V(PNP,COM)>0.5, I(V_I_np), I(V_I_nn))
+A9 COM COM COM COM COM COM N063 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={Enp} Enk={Enkp}
+R86 N065 COM 1 Temp=-273.15
+R87 N067 N068 {R1a_E_n} Temp=-273.15
+R88 N068 COM {R2a_E_n} Temp=-273.15
+G34 COM N069 N068 COM {G1_E_n}
+C33 N068 N067 {C1a_E_n}
+R89 N069 COM 1 Temp=-273.15
+R90 N069 N070 {R1a_E_n} Temp=-273.15
+R91 N070 COM {R2a_E_n} Temp=-273.15
+G35 COM N071 N070 COM {1u*G1_E_n}
+C34 N070 N069 {C1a_E_n}
+R92 N071 COM 1Meg Temp=-273.15
+C35 N071 COM 2.5f
+G36 COM N072 N071 COM 1<>
+R93 N072 COM 1Meg Temp=-273.15
+G37 COM E_np N072 COM 1<>
+R94 E_np COM 1Meg Temp=-273.15
+R95 N063 COM 100k Temp=-273.15
+R97 N063 N064 {R2b_E_n} Temp=-273.15
+R98 N064 N077 {R1b_E_n} Temp=-273.15
+C36 COM N077 {C1b_E_n}
+G38 COM N065 N064 COM 1
+C37 N072 COM 2.5f
+C38 E_np COM 2.5f
+R99 N065 N066 {R1c_E_n} Temp=-273.15
+R100 N066 COM {R2c_E_n} Temp=-273.15
+G39 COM N067 N066 COM {G3_E_n}
+C40 N066 N065 {C1c_E_n}
+R101 N067 COM 1 Temp=-273.15
+A10 COM COM COM COM COM COM N085 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={Enn} Enk={Enkn}
+R102 N085 COM 100k Temp=-273.15
+R103 N085 N086 {R1d_E_n} Temp=-273.15
+R104 N086 COM {R2d_E_n} Temp=-273.15
+G40 COM N087 N086 COM {G4_E_n}
+C41 N086 N085 {C1d_E_n}
+R105 N087 COM 1 Temp=-273.15
+R106 N087 N088 {R1d_E_n} Temp=-273.15
+R107 N088 COM {R2d_E_n} Temp=-273.15
+C42 N088 N087 {C1d_E_n}
+G42 COM N089 N088 COM {G4_E_n}
+R108 N089 COM 1 Temp=-273.15
+R109 N089 N090 {R1d_E_n} Temp=-273.15
+R110 N090 COM {R2d_E_n} Temp=-273.15
+C43 N090 N089 {C1d_E_n}
+G43 COM N091 N090 COM {1u*G4_E_n}
+R111 N091 COM 1Meg Temp=-273.15
+C44 N091 COM 2.5f
+G44 COM N092 N091 COM 1<>
+R112 N092 COM 1Meg Temp=-273.15
+G45 COM E_nn N092 COM 1<>
+R113 E_nn COM 1Meg Temp=-273.15
+C45 N092 COM 2.5f
+C46 E_nn COM 2.5f
+Gb1 COM N082 N081 COM 1
+R114 N083 COM 1 Temp=-273.15
+V_I_np N082 N083 0
+Gb2 COM N094 N093 COM 1
+R115 N095 COM 1 Temp=-273.15
+V_I_nn N094 N095 0
+A11 COM COM COM COM COM COM N093 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={Inn} Enk={Inkp}
+R116 N093 COM 100k Temp=-273.15
+A12 COM COM COM COM COM COM N073 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={FAp}/(freq**{EXPp})
+R117 N073 COM 100k Temp=-273.15
+A13 COM N080 COM COM COM COM N081 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={BBp}
+R118 N081 COM 100k Temp=-273.15
+Gb3 COM N080 N079 COM 1
+R119 N078 N079 {R2b_I_n} Temp=-273.15
+R120 N079 N084 {R1b_I_n} Temp=-273.15
+C47 COM N084 {C1b_I_n}
+R121 N080 COM 1 Temp=-273.15
+R122 N073 N074 {R1a_I_n} Temp=-273.15
+R123 N074 COM {R2a_I_n} Temp=-273.15
+G46 COM N075 N074 COM {G1_I_n}
+C48 N074 N073 {C1a_I_n}
+R124 N075 COM 1 Temp=-273.15
+R131 N075 N076 {R1a_I_n} Temp=-273.15
+R132 N076 COM {R2a_I_n} Temp=-273.15
+G47 COM N078 N076 COM {G1_I_n}
+C51 N076 N075 {C1a_I_n}
+R133 N078 COM 1 Temp=-273.15
+R134 N024 N023 1Meg Temp=-273.15
+B12 N023 N024 I=1u*({Vos+Drift*(Temp-27)} +V(NPN,COM)*{Vos2})
+R135 N021 N024 1Meg Temp=-273.15
+B13 N024 N021 I=1u*(IF(V(PNP,COM)>0.5, V(E_np,COM), V(E_nn,COM)))
+S8 COM Aol1 EN COM ENA
+S9 COM Clamp EN COM ENA
+S10 COM N032 EN COM ENZ
+VIBn N051 COM 0
+F2 3 4 Vimon 1
+BIq 3 4 I=IF(V(EN,COM)>0.5, {Iq_on}, {Iq_off})
+B38 COM N032 I=Uplim(Dnlim({G6_Zo}* V(ZoF,COM), {Izon}, 25m), {Izop}, 25m)
+C13 COM ZoF 20f
+R36 _EN COM 1G Temp=-273.15
+C19 5 COM 2f
+C55 COM N074 1f
+G11 COM Vo 5 COM 1m
+R38 Vo COM 1k
+C58 Vo COM 10p
+C49 Vsatp1 Vcc_Int {CVsat}
+C50 Vsatn2 Vee_Int {CVsat}
+C53 Vsatn1 Vee_Int {CVsat}
+DGP N055 Clamp DG
+DGN Clamp N056 DG
+VGN N056 N060 0
+VGP N055 N059 0
+G28 COM N059 GRpi COM 1k
+G41 COM N060 GRni COM 1k
+R14 N059 COM 1m Temp=-273.15
+R37 N060 COM 1m Temp=-273.15
+R42 GRpi COM 1k Temp=-273.15
+R48 GRni COM 1k Temp=-273.15
+C10 GRni COM 10p
+C11 GRpi COM 10p
+C18 Clamp N059 1f
+C24 Clamp N060 1f
+B3 COM GRpi I=1m*({Zo_max}* {Iscp}+V(3,COM))
+B8 COM GRni I=1m*({Zo_max}* {Iscn}+V(4,COM))
+DOP1 Vsatp N031 DO
+DON1 N031 Vsatn DO
+G48 COM Vsatp Satp COM 1k
+R11 Vsatp COM 1m
+G49 COM Vsatn Satn COM 1k
+R49 Vsatn COM 1m
+C56 N031 Vsatp 1f
+C57 N031 Vsatn 1f
+C59 Vsatp COM 1n
+C60 Vsatn COM 1n
+R5 OLp COM 1k
+R39 OLn COM 1k
+C16 OLp COM 1p
+C17 OLn COM 1p
+C25 OL COM 1p
+C61 Aol1 COM 1f
+F3 COM OLp VGP 1m
+F4 COM OLn VGN -1m
+.param Enp=4n Enkp=11
+.param Enn=5.9n Enkn=380
+.param Inn=0.4p Inkp=2.1k
+.param Vos=-7.33u Drift=0.7u
+.param Vos2=108.63u Ib2=1.654u Ios2=25n
+.param Ib=-1.2u Ios=9.15n
+.param Ibdrift=2.5n Iosdrift=70p
+.param Vcm_min=-0.2 Vcm_max=0.2
+.param Vsmin=2.7 Vsmax=11
+.param Iscp=80m Iscn=-80m
+.param IZop={Rx_Zo*Iscp} IZon={Rx_Zo*Iscn}
+.param Iq_on=1m Iq_off=2.385u
+.param ENVt=3.5 ENVh=200m
+.param ENTon=1.3u ENToff=265n
+.param Ipd_on=-3n Ipd_off=-470n
+.model 325nA D(Ron=1Meg Roff=1G Ilimit=325n epsilon=1 Vfwd=1 Noiseless)
+.model DI D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1 Ron=1m Noiseless)
+.model DG D(Vfwd=20k Vrev=0 Revepsilon=0.5 Ron=1m Noiseless)
+.model ESDI SW(Ron=50 Roff=1T Vt=0.5 Vh=-0.1 Vser=0.1 Noiseless)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n Noiseless)
+.model OL SW(Ron=10m Roff=1G Vt=500m Vh=-100m Noiseless)
+.model ENA SW(Ron=1Meg Roff=1u Vt=500m Vh=-100m Noiseless)
+.model ENZ SW(Ron=1 Roff=1u Vt=500m Vh=-100m Noiseless)
+.param Rser=1u
+.param Rcm=45Meg Ccm=0.2p
+.param Rdiff=35k Cdiff=0.4p
+.param Aol_PB=171 RL_dc=1k
+.param SRp=311.5 SRn=-355.2
+.param fp1=0.7 fp2=12.8Meg
+.param Aol2_dB = {Aol_PB-40+1}
+.param Aol2 = {pwr(10, (Aol2_dB)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Isrc = {Cfp1 * SRp * 1Meg} Isink = {Cfp1 * SRn * 1Meg}
+.param Ap=0.181 Bp=2.79 Cp=6.59 Dp=7.77e-2
+.param An=0.182 Bn=1.92 Cn=13.8 Dn=8.17e-2
+.param Mp=4.9 OSp=17.6m
+.param Mn=3.667 OSn=30m
+.param beta_Zo=1.11
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=112k
+.param Zo_max=112k
+.param R1a_Zo=1Meg
+.param fz1_Zo=0.695
+.param fp1_Zo=1.45k
+.param C1a_Zo = {1 / (2 * pi * R1a_Zo * fz1_Zo)}
+.param R2a_Zo = {R1a_Zo/ ((2 * pi * fp1_Zo * C1a_Zo
++* R1a_Zo) - 1)}
+.param actual1_Zo = {R2a_Zo / (R1a_Zo + R2a_Zo)}
+.param G2_Zo = {1/actual1_Zo}
+.param R1b_Zo=1Meg
+.param fp2_Zo=24Meg
+.param fz2_Zo=260Meg
+.param C1b_Zo = {1 / (fz2_Zo * R1b_Zo * 2 * pi)}
+.param R2b_Zo = {(1 / (fp2_Zo * C1b_Zo * 2 * pi))
++- R1b_Zo}
+.param R1c_Zo=1Meg
+.param fz3_Zo=11Meg
+.param fp3_Zo=24Meg
+.param C1c_Zo = {1 / (2 * pi * R1c_Zo * fz3_Zo)}
+.param R2c_Zo = {R1c_Zo/ ((2 * pi * fp3_Zo * C1c_Zo
++* R1c_Zo) - 1)}
+.param actual3_Zo = {R2c_Zo / (R1c_Zo + R2c_Zo)}
+.param G3_Zo = {1/actual3_Zo}
+.param R1d_Zo=1Meg
+.param fz4_Zo=260Meg
+.param fp4_Zo=100G
+.param C1d_Zo = {1 / (2 * pi * R1d_Zo * fz4_Zo)}
+.param R2d_Zo = {R1d_Zo/ ((2 * pi * fp4_Zo * C1d_Zo
++* R1d_Zo) - 1)}
+.param actual4_Zo = {R2d_Zo / (R1d_Zo + R2d_Zo)}
+.param G4_Zo = {1/actual4_Zo}
+.param R1e_Zo=1Meg
+.param fz5_Zo=260Meg
+.param fp5_Zo=100G
+.param C1e_Zo = {1 / (2 * pi * R1e_Zo * fz5_Zo)}
+.param R2e_Zo = {R1e_Zo/ ((2 * pi * fp5_Zo * C1e_Zo
++* R1e_Zo) - 1)}
+.param actual5_Zo = {R2e_Zo / (R1e_Zo + R2e_Zo)}
+.param G5_Zo = {1/actual5_Zo}
+.param R1f_Zo=1Meg
+.param fz6_Zo=700Meg
+.param fp6_Zo=100G
+.param C1f_Zo = {1 / (2 * pi * R1f_Zo * fz6_Zo)}
+.param R2f_Zo = {R1f_Zo/ ((2 * pi * fp6_Zo * C1f_Zo
++* R1f_Zo) - 1)}
+.param actual6_Zo = {R2f_Zo / (R1f_Zo + R2f_Zo)}
+.param G6_Zo = {1/actual6_Zo}
+.param R1a_Aol=1Meg
+.param fz1_Aol=19Meg
+.param fp1_Aol=550Meg
+.param C1a_Aol = {1 / (2 * pi * R1a_Aol * fz1_Aol)}
+.param R2a_Aol = {R1a_Aol/ ((2 * pi * fp1_Aol * C1a_Aol
++* R1a_Aol) - 1)}
+.param actual1_Aol = {R2a_Aol / (R1a_Aol + R2a_Aol)}
+.param G1_Aol={1/actual1_Aol}
+.param R1b_Aol=1Meg
+.param fz2_Aol=800Meg
+.param fp2_Aol=5G
+.param C1b_Aol={1 / (2 * pi * R1b_Aol * fz2_Aol)}
+.param R2b_Aol = {R1b_Aol/ ((2 * pi * fp2_Aol * C1b_Aol
++* R1b_Aol) - 1)}
+.param actual2_Aol = {R2b_Aol / (R1b_Aol + R2b_Aol)}
+.param G2_Aol={1/actual2_Aol}
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param Rej_dc_PSRp=107
+.param R1a_PSRp=1Meg
+.param fz1_PSRp=18k
+.param fp1_PSRp=10Meg
+.param C1b_PSRp = {1 / (2 * pi * R1b_PSRp * fz2_PSRp)}
+.param R2b_PSRp = {R1b_PSRp/ ((2 * pi * fp2_PSRp * C1b_PSRp
++* R1b_PSRp) - 1)}
+.param actual2_PSRp = {R2b_PSRp / (R1b_PSRp + R2b_PSRp)}
+.param G2_PSRp = {1/actual2_PSRp}
+.param R1b_PSRp=1Meg
+.param fz2_PSRp=4Meg
+.param fp2_PSRp=10Meg
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param Rej_dc_PSRn=120
+.param R1a_PSRn=1Meg
+.param fz1_PSRn=210
+.param fp1_PSRn=3Meg
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Rej_dc_CMR=110
+.param R1a_CMR=1Meg
+.param fz1_CMR=17k
+.param fp1_CMR=100k
+.param R1b_CMR=1Meg
+.param fz2_CMR=150k
+.param fp2_CMR=11Meg
+.param C1b_CMR = {1 / (2 * pi * R1b_CMR * fz2_CMR)}
+.param R2b_CMR = {R1b_CMR/ ((2 * pi * fp2_CMR * C1b_CMR
++* R1b_CMR) - 1)}
+.param actual2_CMR = {R2b_CMR / (R1b_CMR + R2b_CMR)}
+.param G2_CMR = {1/actual2_CMR}
+.param R1a_E_n=1Meg
+.param fz1_E_n=6Meg
+.param fp1_E_n=17Meg
+.param C1a_E_n = {1 / (2 * pi * R1a_E_n * fz1_E_n)}
+.param R2a_E_n = {R1a_E_n/ ((2 * pi * fp1_E_n * C1a_E_n
++* R1a_E_n) - 1)}
+.param actual1_E_n = {R2a_E_n / (R1a_E_n + R2a_E_n)}
+.param G1_E_n = {1/actual1_E_n}
+.param R1b_E_n=1Meg
+.param fp2_E_n=700
+.param fz2_E_n=825
+.param C1b_E_n = {1 / (fz2_E_n * R1b_E_n * 2 * pi)}
+.param R2b_E_n = {(1 / (fp2_E_n * C1b_E_n * 2 * pi))
++- R1b_E_n}
+.param R1c_E_n=1Meg
+.param fz3_E_n=700k
+.param fp3_E_n=800k
+.param R1d_E_n=1Meg
+.param fz4_E_n=12.1Meg
+.param fp4_E_n=30Meg
+.param C1d_E_n = {1 / (2 * pi * R1d_E_n * fz4_E_n)}
+.param R2d_E_n = {R1c_E_n/ ((2 * pi * fp4_E_n * C1d_E_n
++* R1d_E_n) - 1)}
+.param actual4_E_n = {R2d_E_n / (R1d_E_n + R2d_E_n)}
+.param G4_E_n = {1/actual4_E_n}
+.param R1a_I_n=1Meg
+.param fz1_I_n=12.2
+.param fp1_I_n=13.55
+.param C1b_I_n = {1 / (fz2_I_n * R1b_I_n * 2 * pi)}
+.param R2b_I_n = {(1 / (fp2_I_n * C1b_I_n * 2 * pi))
++- R1b_I_n}
+.param R1b_I_n=1Meg
+.param fp2_I_n=202
+.param fz2_I_n=248
+.param C1a_I_n = {1 / (2 * pi * R1a_I_n * fz1_I_n)}
+.param R2a_I_n = {R1a_I_n/ ((2 * pi * fp1_I_n * C1a_I_n
++* R1a_I_n) - 1)}
+.param actual1_I_n = {R2a_I_n / (R1a_I_n + R2a_I_n)}
+.param G1_I_n = {1/actual1_I_n}
+.param BBp=685f FCp=3.22k EXPp=0.45 FAp=({BBp}*({FCp**Expp}))
+.param C1c_E_n = {1 / (2 * pi * R1c_E_n * fz3_E_n)}
+.param R2c_E_n = {R1c_E_n/ ((2 * pi * fp3_E_n * C1c_E_n
++* R1c_E_n) - 1)}
+.param actual3_E_n = {R2c_E_n / (R1c_E_n + R2c_E_n)}
+.param G3_E_n = {1/actual3_E_n}
+.param CVsat=10p
+.ends ADA4807-4

lib/sub/ADA4807.lib

@@ -0,0 +1,516 @@
+* Copyright (c) 1998-2022 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4807 1 2 3 4 5 6
+C1 Clamp COM {Cfp1}
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}* V(Aol1,COM), {Isink}, 10m), {Isrc}, 10m)
+A1 Inn2 Inp2 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k
+G2 0 Vcc_Int 3 0 1
+G3 0 Vee_Int 4 0 1
+R6 Vcc_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N054 Vcc_Int 1Meg Temp=-273.15
+R9 N054 Vee_Int 1Meg Temp=-273.15
+C2 N054 0 1
+E1 COM 0 N054 0 1
+R10 COM 0 1Meg Temp=-273.15
+Cinp COM Inp1 {Ccm}
+Cinn Inn1 COM {Ccm}
+Cdiff Inp1 Inn1 {Cdiff}
+Rinn Inn1 COM {Rcm} Temp=-273.15
+Rinp COM Inp1 {Rcm} Temp=-273.15
+Vimon N031 5 0
+G14 COM Inn2 Inn1 COM 1k
+R43 COM Inn2 1m Temp=-273.15
+C12 Inn2 COM 1p
+DIP N047 Inp2 DI
+DIN Inp2 N048 DI
+C14 Vcc_Int 0 1n
+C15 Vee_Int 0 1n
+S3 3 N023 N023 3 ESDI
+S4 3 Inn2 Inn2 3 ESDI
+S5 N023 4 4 N023 ESDI
+S6 Inn2 4 4 Inn2 ESDI
+B4 COM N052 I=1m*(V(3,COM)+{Vcm_max}) Rpar=1k Cpar=1n
+G13 COM CMp N052 COM 1
+R40 CMp COM 1
+B5 COM N053 I=1m*(V(4,COM)+{Vcm_min}) Rpar=1k Cpar=1n
+G30 COM CMn N053 COM 1
+R41 CMn COM 1
+VIP N047 CMp 0
+VIN CMn N048 0
+R1 Inp1 1 {Rser} Temp=-273.15
+R2 Inn1 2 {Rser} Temp=-273.15
+Rdiff Inp1 Inn1 {Rdiff} Temp=-273.15
+B9 Vsatp2 Vcc_Int I=1m*Max(Ap+((Bp*(V(Vimon,COM)**Cp))/((Dp**Cp)+(V(Vimon,COM)**Cp))),40u)
+R75 Vsatp2 Vcc_Int 1k
+C39 Vsatp2 Vcc_Int {CVsat}
+B17 Vee_Int Vsatn1 I=1m*Max(Mn*(-V(Vimon,COM))+OSn,40u)
+R76 Vsatn1 Vee_Int 1k
+B18 Vee_Int Vsatn2 I=1m*(An+((Bn*(-V(Vimon,COM)**Cn))/((Dn**Cn)+(-V(Vimon,COM)**Cn))))
+R96 Vsatn2 Vee_Int 1k
+B19 COM Satn I=1m*IF(-V(Vimon,COM)>66m, V(Vsatn2,COM), V(Vsatn1,COM))
+R125 Satn COM 1k
+C52 Satn COM 1n
+B22 Vsatp1 Vcc_Int I=1m*Max(Mp*(V(Vimon,COM))+OSp,40u)
+R126 Vsatp1 Vcc_Int 1k
+B26 COM Satp I=1m*IF(V(Vimon,COM)>38m, V(Vsatp2,COM),V(Vsatp1,COM))
+R127 Satp COM 1k
+C54 Satp COM 1n
+G15 COM Sense Clamp COM 1m
+R3 Sense COM 1k Temp=-273.15
+F1 COM Vimon Vimon 1m
+R13 Vimon COM 1k
+C3 Vimon COM 10p
+S1 3 5 5 3 ESDO
+S2 5 4 4 5 ESDO
+G1 COM N008 N040 N031 {G1_Zo}
+R12 N008 COM 1 Temp=-273.15
+R15 N008 N009 {R1a_Zo} Temp=-273.15
+R16 N009 COM {R2a_Zo} Temp=-273.15
+G4 COM N012 N009 COM {G2_Zo}
+C4 N009 N008 {C1a_Zo}
+R17 N014 COM 1 Temp=-273.15
+R18 N014 N015 {R2b_Zo} Temp=-273.15
+R19 N015 N037 {R1b_Zo} Temp=-273.15
+C5 COM N037 {C1b_Zo}
+R20 N012 N013 {R1c_Zo} Temp=-273.15
+R21 N013 COM {R2c_Zo} Temp=-273.15
+G5 COM N014 N013 COM {G3_Zo}
+C6 N013 N012 {C1c_Zo}
+R22 N012 COM 1
+G6 COM N016 N015 COM 1
+R23 N016 N017 {R1d_Zo} Temp=-273.15
+R24 N017 COM {R2d_Zo} Temp=-273.15
+G7 COM N018 N017 COM {G4_Zo}
+C7 N017 N016 {C1d_Zo}
+R25 N016 COM 1 Temp=-273.15
+R26 N018 N019 {R1e_Zo} Temp=-273.15
+R27 N019 COM {R2e_Zo} Temp=-273.15
+G8 COM N020 N019 COM {G5_Zo}
+C8 N019 N018 {C1e_Zo}
+R28 N020 ZoF {R1f_Zo} Temp=-273.15
+R29 ZoF COM {R2f_Zo} Temp=-273.15
+C9 ZoF N020 {C1f_Zo}
+R30 N018 COM 1 Temp=-273.15
+R31 N020 COM 1 Temp=-273.15
+A2 6 3 COM COM COM COM ENgd COM SCHMITT Vt={-ENVt-10m} Vh={ENVh} Trise={ENTon*2} Tfall={ENToff*2}
+G9 COM Vs 3 4 1m
+R32 Vs COM 1k Temp=-273.15
+A3 Vs COM COM COM COM COM VminGD COM SCHMITT Vt={Vsmin-10m} Vh=10m Trise=5n
+A4 Vs COM COM COM COM VmaxGD COM COM SCHMITT Vt={Vsmax+10m} Vh=10m Trise=5n
+A5 VminGD COM COM ENgd VmaxGD COM EN COM AND Trise=5n
+R33 EN COM 1G Temp=-273.15
+R34 VmaxGD COM 1G Temp=-273.15
+R35 COM VminGD 1G Temp=-273.15
+A6 EN COM COM COM COM _EN COM COM BUF Trise=5n
+S7 N009 N008 OL COM OL
+A7 COM COM OLp OLn _EN COM OL COM OR Ref=100u Vh=50u Trise=10n
+Rx N031 N032 {Rx_Zo} Temp=-273.15
+Rdummy N031 COM {Rdummy_Zo} Temp=-273.15
+R4 N039 COM 1Meg Temp=-273.15
+C20 N039 COM {Cfp2}
+G10 COM N039 N038 COM 1<>
+G12 COM N025 Sense COM 1
+R45 N025 COM 1 Temp=-273.15
+R46 N025 N026 {R1a_Aol} Temp=-273.15
+R47 N026 COM {R2a_Aol} Temp=-273.15
+G16 COM N027 N026 COM {G1_Aol}
+C21 N026 N025 {C1a_Aol}
+R50 N027 COM 1 Temp=-273.15
+R51 N027 N028 {R1a_Aol} Temp=-273.15
+R52 N028 COM {R2a_Aol} Temp=-273.15
+G17 COM N029 N028 COM {G1_Aol}
+C22 N028 N027 {C1a_Aol}
+R53 N029 COM 1 Temp=-273.15
+R54 N029 N030 {R1b_Aol} Temp=-273.15
+R55 N030 COM {R2b_Aol} Temp=-273.15
+C23 N030 N029 {C1b_Aol}
+G18 COM N038 N030 COM {G2_Aol}
+R56 N038 COM 1 Temp=-273.15
+R57 N040 COM 1Meg Temp=-273.15
+C26 N040 COM {Cfp2}
+G19 COM N040 N039 COM 1<>
+G21 N035 N036 N050 N042 1<>
+R59 N036 N035 1Meg Temp=-273.15
+C27 N045 N046 {C1a_PSRp}
+G22 COM N046 VCC_Int COM {G1_PSRp}
+R60 N046 COM 1 Temp=-273.15
+R61 N045 N046 {R1a_PSRp} Temp=-273.15
+R62 N045 COM {R2a_PSRp} Temp=-273.15
+C28 N043 N044 {C1b_PSRp}
+R63 N043 COM {R2b_PSRp} Temp=-273.15
+R64 N043 N044 {R1b_PSRp} Temp=-273.15
+G23 COM N044 N045 COM 1
+R66 N044 COM 1 Temp=-273.15
+G24 COM N050 N043 COM {G2_PSRp}
+R67 N050 COM 1 Temp=-273.15
+C29 N042 N041 {C1a_PSRn}
+G25 COM N041 VEE_Int COM {G1_PSRn}
+R68 N041 COM 1 Temp=-273.15
+R70 N042 N041 {R1a_PSRn} Temp=-273.15
+R71 N042 COM {R2a_PSRn} Temp=-273.15
+G26 COM N035 N022 COM 1k
+R72 COM N035 1m Temp=-273.15
+G27 COM Inp2 N036 COM 1m
+R73 COM Inp2 1k Temp=-273.15
+C30 N002 N001 {C1a_CMR}
+R58 N001 COM 1 Temp=-273.15
+R74 N002 N001 {R1a_CMR} Temp=-273.15
+R77 N002 COM {R2a_CMR} Temp=-273.15
+R78 N003 N004 {R1b_CMR} Temp=-273.15
+R79 N004 COM {R2b_CMR} Temp=-273.15
+G20 COM N005 N004 COM {G2_CMR}
+C31 N004 N003 {C1b_CMR}
+R80 N003 COM 1 Temp=-273.15
+G29 COM N003 N002 COM 1
+R81 N005 COM 1 Temp=-273.15
+G31 COM N001 Inp1 COM {G1_CMR}
+G32 N021 N022 N005 COM 1<>
+R82 N022 N021 1Meg Temp=-273.15
+G33 COM N023 Inp1 COM 1k
+R83 COM N023 1m Temp=-273.15
+C32 N023 COM 1p
+B2 0 VICM I=1m*((V(1,COM)+V(2,COM))/2) Rpar=1k Cpar=1n
+A8 3 VICM COM COM COM NPN PNP COM SCHMITT Vt={1.5-50m} Vh=50m Tau=1u
+R84 NPN COM 1G Temp=-273.15
+R85 PNP COM 1G Temp=-273.15
+BIbp Inp1 COM I={Ib+Ibdrift*(Temp-27)}+V(NPN,COM)*{Ib2}
+BIbn Inn1 N051 I={Ib-Ios+(Ibdrift-Iosdrift)*(Temp-27)}+V(NPN,COM)*{Ib2-Ios2}
+B6 Inp1 COM I=IF(V(PNP,COM)>0.5, I(V_I_np), I(V_I_nn))
+B7 Inn1 COM I=IF(V(PNP,COM)>0.5, I(V_I_np), I(V_I_nn))
+A9 COM COM COM COM COM COM N063 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={Enp} Enk={Enkp}
+R86 N065 COM 1 Temp=-273.15
+R87 N067 N068 {R1a_E_n} Temp=-273.15
+R88 N068 COM {R2a_E_n} Temp=-273.15
+G34 COM N069 N068 COM {G1_E_n}
+C33 N068 N067 {C1a_E_n}
+R89 N069 COM 1 Temp=-273.15
+R90 N069 N070 {R1a_E_n} Temp=-273.15
+R91 N070 COM {R2a_E_n} Temp=-273.15
+G35 COM N071 N070 COM {1u*G1_E_n}
+C34 N070 N069 {C1a_E_n}
+R92 N071 COM 1Meg Temp=-273.15
+C35 N071 COM 2.5f
+G36 COM N072 N071 COM 1<>
+R93 N072 COM 1Meg Temp=-273.15
+G37 COM E_np N072 COM 1<>
+R94 E_np COM 1Meg Temp=-273.15
+R95 N063 COM 100k Temp=-273.15
+R97 N063 N064 {R2b_E_n} Temp=-273.15
+R98 N064 N077 {R1b_E_n} Temp=-273.15
+C36 COM N077 {C1b_E_n}
+G38 COM N065 N064 COM 1
+C37 N072 COM 2.5f
+C38 E_np COM 2.5f
+R99 N065 N066 {R1c_E_n} Temp=-273.15
+R100 N066 COM {R2c_E_n} Temp=-273.15
+G39 COM N067 N066 COM {G3_E_n}
+C40 N066 N065 {C1c_E_n}
+R101 N067 COM 1 Temp=-273.15
+A10 COM COM COM COM COM COM N086 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={Enn} Enk={Enkn}
+R102 N086 COM 100k Temp=-273.15
+R103 N086 N087 {R1d_E_n} Temp=-273.15
+R104 N087 COM {R2d_E_n} Temp=-273.15
+G40 COM N088 N087 COM {G4_E_n}
+C41 N087 N086 {C1d_E_n}
+R105 N088 COM 1 Temp=-273.15
+R106 N088 N089 {R1d_E_n} Temp=-273.15
+R107 N089 COM {R2d_E_n} Temp=-273.15
+C42 N089 N088 {C1d_E_n}
+G42 COM N090 N089 COM {G4_E_n}
+R108 N090 COM 1 Temp=-273.15
+R109 N090 N091 {R1d_E_n} Temp=-273.15
+R110 N091 COM {R2d_E_n} Temp=-273.15
+C43 N091 N090 {C1d_E_n}
+G43 COM N092 N091 COM {1u*G4_E_n}
+R111 N092 COM 1Meg Temp=-273.15
+C44 N092 COM 2.5f
+G44 COM N093 N092 COM 1<>
+R112 N093 COM 1Meg Temp=-273.15
+G45 COM E_nn N093 COM 1<>
+R113 E_nn COM 1Meg Temp=-273.15
+C45 N093 COM 2.5f
+C46 E_nn COM 2.5f
+Gb1 COM N082 N081 COM 1
+R114 N083 COM 1 Temp=-273.15
+V_I_np N082 N083 0
+Gb2 COM N095 N094 COM 1
+R115 N096 COM 1 Temp=-273.15
+V_I_nn N095 N096 0
+A11 COM COM COM COM COM COM N094 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={Inn} Enk={Inkp}
+R116 N094 COM 100k Temp=-273.15
+A12 COM COM COM COM COM COM N073 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={FAp}/(freq**{EXPp})
+R117 N073 COM 100k Temp=-273.15
+A13 COM N080 COM COM COM COM N081 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={BBp}
+R118 N081 COM 100k Temp=-273.15
+Gb3 COM N080 N079 COM 1
+R119 N078 N079 {R2b_I_n} Temp=-273.15
+R120 N079 N085 {R1b_I_n} Temp=-273.15
+C47 COM N085 {C1b_I_n}
+R121 N080 COM 1 Temp=-273.15
+R122 N073 N074 {R1a_I_n} Temp=-273.15
+R123 N074 COM {R2a_I_n} Temp=-273.15
+G46 COM N075 N074 COM {G1_I_n}
+C48 N074 N073 {C1a_I_n}
+R124 N075 COM 1 Temp=-273.15
+R131 N075 N076 {R1a_I_n} Temp=-273.15
+R132 N076 COM {R2a_I_n} Temp=-273.15
+G47 COM N078 N076 COM {G1_I_n}
+C51 N076 N075 {C1a_I_n}
+R133 N078 COM 1 Temp=-273.15
+R134 N024 N023 1Meg Temp=-273.15
+B12 N023 N024 I=1u*({Vos+Drift*(Temp-27)} +V(NPN,COM)*{Vos2})
+R135 N021 N024 1Meg Temp=-273.15
+B13 N024 N021 I=1u*(IF(V(PNP,COM)>0.5, V(E_np,COM), V(E_nn,COM)))
+S8 COM Aol1 EN COM ENA
+S9 COM Clamp EN COM ENA
+S10 COM N032 EN COM ENZ
+VIBn N051 COM 0
+F2 3 4 Vimon 1
+BIq 3 4 I=IF(V(EN,COM)>0.5, {Iq_on}, {Iq_off})
+B38 COM N032 I=Uplim(Dnlim({G6_Zo}* V(ZoF,COM), {Izon}, 25m), {Izop}, 25m)
+C13 COM ZoF 20f
+R36 _EN COM 1G Temp=-273.15
+C19 5 COM 2f
+C55 COM N074 1f
+G11 COM Vo 5 COM 1m
+R38 Vo COM 1k
+C58 Vo COM 10p
+C49 Vsatp1 Vcc_Int {CVsat}
+C50 Vsatn2 Vee_Int {CVsat}
+C53 Vsatn1 Vee_Int {CVsat}
+D1 3 6 325nA
+DGP N055 Clamp DG
+DGN Clamp N056 DG
+VGN N056 N060 0
+VGP N055 N059 0
+G28 COM N059 GRpi COM 1k
+G41 COM N060 GRni COM 1k
+R14 N059 COM 1m Temp=-273.15
+R37 N060 COM 1m Temp=-273.15
+R42 GRpi COM 1k Temp=-273.15
+R48 GRni COM 1k Temp=-273.15
+C10 GRni COM 10p
+C11 GRpi COM 10p
+C18 Clamp N059 1f
+C24 Clamp N060 1f
+B3 COM GRpi I=1m*({Zo_max}* {Iscp}+V(3,COM))
+B8 COM GRni I=1m*({Zo_max}* {Iscn}+V(4,COM))
+DOP1 Vsatp N031 DO
+DON1 N031 Vsatn DO
+G48 COM Vsatp Satp COM 1k
+R11 Vsatp COM 1m
+G49 COM Vsatn Satn COM 1k
+R49 Vsatn COM 1m
+C56 N031 Vsatp 1f
+C57 N031 Vsatn 1f
+C59 Vsatp COM 1n
+C60 Vsatn COM 1n
+R5 OLp COM 1k
+R39 OLn COM 1k
+C16 OLp COM 1p
+C17 OLn COM 1p
+C25 OL COM 1p
+C61 Aol1 COM 1f
+F3 COM OLp VGP 1m
+F4 COM OLn VGN -1m
+.param Enp=4n Enkp=11
+.param Enn=5.9n Enkn=380
+.param Inn=0.4p Inkp=2.1k
+.param Vos=-7.33u Drift=0.7u
+.param Vos2=108.63u Ib2=1.654u Ios2=25n
+.param Ib=-1.2u Ios=9.15n
+.param Ibdrift=2.5n Iosdrift=70p
+.param Vcm_min=-0.2 Vcm_max=0.2
+.param Vsmin=2.7 Vsmax=11
+.param Iscp=80m Iscn=-80m
+.param IZop={Rx_Zo*Iscp} IZon={Rx_Zo*Iscn}
+.param Iq_on=1m Iq_off=2.385u
+.param ENVt=3.5 ENVh=200m
+.param ENTon=1.3u ENToff=265n
+.param Ipd_on=-3n Ipd_off=-470n
+.model 325nA D(Ron=1Meg Roff=1G Ilimit=325n epsilon=1 Vfwd=1 Noiseless)
+.model DI D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1 Ron=1m Noiseless)
+.model DG D(Vfwd=20k Vrev=0 Revepsilon=0.5 Ron=1m Noiseless)
+.model ESDI SW(Ron=50 Roff=1T Vt=0.5 Vh=-0.1 Vser=0.1 Noiseless)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n Noiseless)
+.model OL SW(Ron=10m Roff=1G Vt=500m Vh=-100m Noiseless)
+.model ENA SW(Ron=1Meg Roff=1u Vt=500m Vh=-100m Noiseless)
+.model ENZ SW(Ron=1 Roff=1u Vt=500m Vh=-100m Noiseless)
+.param Rser=1u
+.param Rcm=45Meg Ccm=0.2p
+.param Rdiff=35k Cdiff=0.4p
+.param Aol_PB=171 RL_dc=1k
+.param SRp=311.5 SRn=-355.2
+.param fp1=0.7 fp2=12.8Meg
+.param Aol2_dB = {Aol_PB-40+1}
+.param Aol2 = {pwr(10, (Aol2_dB)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Isrc = {Cfp1 * SRp * 1Meg} Isink = {Cfp1 * SRn * 1Meg}
+.param Ap=0.181 Bp=2.79 Cp=6.59 Dp=7.77e-2
+.param An=0.182 Bn=1.92 Cn=13.8 Dn=8.17e-2
+.param Mp=4.9 OSp=17.6m
+.param Mn=3.667 OSn=30m
+.param beta_Zo=1.11
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=112k
+.param Zo_max=112k
+.param R1a_Zo=1Meg
+.param fz1_Zo=0.695
+.param fp1_Zo=1.45k
+.param C1a_Zo = {1 / (2 * pi * R1a_Zo * fz1_Zo)}
+.param R2a_Zo = {R1a_Zo/ ((2 * pi * fp1_Zo * C1a_Zo
++* R1a_Zo) - 1)}
+.param actual1_Zo = {R2a_Zo / (R1a_Zo + R2a_Zo)}
+.param G2_Zo = {1/actual1_Zo}
+.param R1b_Zo=1Meg
+.param fp2_Zo=24Meg
+.param fz2_Zo=260Meg
+.param C1b_Zo = {1 / (fz2_Zo * R1b_Zo * 2 * pi)}
+.param R2b_Zo = {(1 / (fp2_Zo * C1b_Zo * 2 * pi))
++- R1b_Zo}
+.param R1c_Zo=1Meg
+.param fz3_Zo=11Meg
+.param fp3_Zo=24Meg
+.param C1c_Zo = {1 / (2 * pi * R1c_Zo * fz3_Zo)}
+.param R2c_Zo = {R1c_Zo/ ((2 * pi * fp3_Zo * C1c_Zo
++* R1c_Zo) - 1)}
+.param actual3_Zo = {R2c_Zo / (R1c_Zo + R2c_Zo)}
+.param G3_Zo = {1/actual3_Zo}
+.param R1d_Zo=1Meg
+.param fz4_Zo=260Meg
+.param fp4_Zo=100G
+.param C1d_Zo = {1 / (2 * pi * R1d_Zo * fz4_Zo)}
+.param R2d_Zo = {R1d_Zo/ ((2 * pi * fp4_Zo * C1d_Zo
++* R1d_Zo) - 1)}
+.param actual4_Zo = {R2d_Zo / (R1d_Zo + R2d_Zo)}
+.param G4_Zo = {1/actual4_Zo}
+.param R1e_Zo=1Meg
+.param fz5_Zo=260Meg
+.param fp5_Zo=100G
+.param C1e_Zo = {1 / (2 * pi * R1e_Zo * fz5_Zo)}
+.param R2e_Zo = {R1e_Zo/ ((2 * pi * fp5_Zo * C1e_Zo
++* R1e_Zo) - 1)}
+.param actual5_Zo = {R2e_Zo / (R1e_Zo + R2e_Zo)}
+.param G5_Zo = {1/actual5_Zo}
+.param R1f_Zo=1Meg
+.param fz6_Zo=700Meg
+.param fp6_Zo=100G
+.param C1f_Zo = {1 / (2 * pi * R1f_Zo * fz6_Zo)}
+.param R2f_Zo = {R1f_Zo/ ((2 * pi * fp6_Zo * C1f_Zo
++* R1f_Zo) - 1)}
+.param actual6_Zo = {R2f_Zo / (R1f_Zo + R2f_Zo)}
+.param G6_Zo = {1/actual6_Zo}
+.param R1a_Aol=1Meg
+.param fz1_Aol=19Meg
+.param fp1_Aol=550Meg
+.param C1a_Aol = {1 / (2 * pi * R1a_Aol * fz1_Aol)}
+.param R2a_Aol = {R1a_Aol/ ((2 * pi * fp1_Aol * C1a_Aol
++* R1a_Aol) - 1)}
+.param actual1_Aol = {R2a_Aol / (R1a_Aol + R2a_Aol)}
+.param G1_Aol={1/actual1_Aol}
+.param R1b_Aol=1Meg
+.param fz2_Aol=800Meg
+.param fp2_Aol=5G
+.param C1b_Aol={1 / (2 * pi * R1b_Aol * fz2_Aol)}
+.param R2b_Aol = {R1b_Aol/ ((2 * pi * fp2_Aol * C1b_Aol
++* R1b_Aol) - 1)}
+.param actual2_Aol = {R2b_Aol / (R1b_Aol + R2b_Aol)}
+.param G2_Aol={1/actual2_Aol}
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param Rej_dc_PSRp=107
+.param R1a_PSRp=1Meg
+.param fz1_PSRp=18k
+.param fp1_PSRp=10Meg
+.param C1b_PSRp = {1 / (2 * pi * R1b_PSRp * fz2_PSRp)}
+.param R2b_PSRp = {R1b_PSRp/ ((2 * pi * fp2_PSRp * C1b_PSRp
++* R1b_PSRp) - 1)}
+.param actual2_PSRp = {R2b_PSRp / (R1b_PSRp + R2b_PSRp)}
+.param G2_PSRp = {1/actual2_PSRp}
+.param R1b_PSRp=1Meg
+.param fz2_PSRp=4Meg
+.param fp2_PSRp=10Meg
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param Rej_dc_PSRn=120
+.param R1a_PSRn=1Meg
+.param fz1_PSRn=210
+.param fp1_PSRn=3Meg
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Rej_dc_CMR=110
+.param R1a_CMR=1Meg
+.param fz1_CMR=17k
+.param fp1_CMR=100k
+.param R1b_CMR=1Meg
+.param fz2_CMR=150k
+.param fp2_CMR=11Meg
+.param C1b_CMR = {1 / (2 * pi * R1b_CMR * fz2_CMR)}
+.param R2b_CMR = {R1b_CMR/ ((2 * pi * fp2_CMR * C1b_CMR
++* R1b_CMR) - 1)}
+.param actual2_CMR = {R2b_CMR / (R1b_CMR + R2b_CMR)}
+.param G2_CMR = {1/actual2_CMR}
+.param R1a_E_n=1Meg
+.param fz1_E_n=6Meg
+.param fp1_E_n=17Meg
+.param C1a_E_n = {1 / (2 * pi * R1a_E_n * fz1_E_n)}
+.param R2a_E_n = {R1a_E_n/ ((2 * pi * fp1_E_n * C1a_E_n
++* R1a_E_n) - 1)}
+.param actual1_E_n = {R2a_E_n / (R1a_E_n + R2a_E_n)}
+.param G1_E_n = {1/actual1_E_n}
+.param R1b_E_n=1Meg
+.param fp2_E_n=700
+.param fz2_E_n=825
+.param C1b_E_n = {1 / (fz2_E_n * R1b_E_n * 2 * pi)}
+.param R2b_E_n = {(1 / (fp2_E_n * C1b_E_n * 2 * pi))
++- R1b_E_n}
+.param R1c_E_n=1Meg
+.param fz3_E_n=700k
+.param fp3_E_n=800k
+.param R1d_E_n=1Meg
+.param fz4_E_n=12.1Meg
+.param fp4_E_n=30Meg
+.param C1d_E_n = {1 / (2 * pi * R1d_E_n * fz4_E_n)}
+.param R2d_E_n = {R1c_E_n/ ((2 * pi * fp4_E_n * C1d_E_n
++* R1d_E_n) - 1)}
+.param actual4_E_n = {R2d_E_n / (R1d_E_n + R2d_E_n)}
+.param G4_E_n = {1/actual4_E_n}
+.param R1a_I_n=1Meg
+.param fz1_I_n=12.2
+.param fp1_I_n=13.55
+.param C1b_I_n = {1 / (fz2_I_n * R1b_I_n * 2 * pi)}
+.param R2b_I_n = {(1 / (fp2_I_n * C1b_I_n * 2 * pi))
++- R1b_I_n}
+.param R1b_I_n=1Meg
+.param fp2_I_n=202
+.param fz2_I_n=248
+.param C1a_I_n = {1 / (2 * pi * R1a_I_n * fz1_I_n)}
+.param R2a_I_n = {R1a_I_n/ ((2 * pi * fp1_I_n * C1a_I_n
++* R1a_I_n) - 1)}
+.param actual1_I_n = {R2a_I_n / (R1a_I_n + R2a_I_n)}
+.param G1_I_n = {1/actual1_I_n}
+.param BBp=685f FCp=3.22k EXPp=0.45 FAp=({BBp}*({FCp**Expp}))
+.param C1c_E_n = {1 / (2 * pi * R1c_E_n * fz3_E_n)}
+.param R2c_E_n = {R1c_E_n/ ((2 * pi * fp3_E_n * C1c_E_n
++* R1c_E_n) - 1)}
+.param actual3_E_n = {R2c_E_n / (R1c_E_n + R2c_E_n)}
+.param G3_E_n = {1/actual3_E_n}
+.param CVsat=10p
+.ends ADA4807

lib/sub/ADA4891-1.lib

@@ -0,0 +1,247 @@
+* Copyright (c) 1998-2022 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4891-1 1 2 3 4 5
+C1 Clamp COM {Cfp1}
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}*V(Aol1,COM), {Isink},1m),{Isrc},1m)
+G2 0 Vcc_Int N031 0 1
+G3 0 Vee_Int N033 0 1
+R6 Vcc_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N029 Vcc_Int 1Meg Temp=-273.15
+R9 N029 Vee_Int 1Meg Temp=-273.15
+C2 N029 0 1
+R25 Aol2 COM 1Meg Temp=-273.15
+G7 COM Aol2 Clamp COM 1<>
+C14 Vcc_Int 0 1n
+C15 Vee_Int 0 1n
+R1 N003 1 {Rser} Temp=-273.15
+R82 N033 4 1<> Temp=-273.15
+A1 Inn1 Inp1 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k
+R47 N031 3 1<> Temp=-273.15
+R45 Vimon COM 1k Temp=-273.15
+C34 COM 0 1n
+G30 N031 N033 Vimon COM 1
+C38 Aol2 COM {Cfp2}
+Vimon N017 5 0
+F1 COM Vimon Vimon 1m
+DGP N025 Clamp DG
+DGN Clamp N026 DG
+B10 COM Satn I=1m*Max(Min(V(Vsatn1,COM), V(Vsatn2,COM)),V(Vsatn3,COM))
+C19 Satn COM 1n
+R21 Satn COM 1k Temp=-273.15
+VGN N026 N028 0
+VGP N025 N027 0
+G18 N011 Inp1 N021 N020 1m
+R51 Inp1 N011 1k Temp=-273.15
+C32 N021 N022 {C1a_PSRp}
+G19 COM N022 VCC_Int COM {G1_PSRp}
+R52 N022 COM 1 Temp=-273.15
+R55 N021 N022 {R1a_PSRp} Temp=-273.15
+R56 N021 COM {R2a_PSRp} Temp=-273.15
+C33 N020 N019 {C1a_PSRn}
+G20 COM N019 VEE_Int COM {G1_PSRn}
+R57 N019 COM 1 Temp=-273.15
+R58 N020 N019 {R1a_PSRn} Temp=-273.15
+R59 N020 COM {R2a_PSRn} Temp=-273.15
+R76 N004 N009 1k Temp=-273.15
+B17 N009 N004 I=1m*{Vos+Drift* (Temp-27)}
+G32 N005 N006 N002 COM 1m
+R77 N006 N005 1k Temp=-273.15
+R79 N005 N004 1k Temp=-273.15
+G33 N004 N005 E_n COM 1m
+C39 N002 N001 {C1a_CMR}
+G34 COM N001 N003 COM {G1_CMR}
+R80 N002 N001 {R1a_CMR} Temp=-273.15
+R81 N002 COM {R2a_CMR} Temp=-273.15
+R83 N001 COM 1 Temp=-273.15
+G35 COM IVR N003 COM 1m
+G36 COM Inn1 N024 COM 1k
+R84 COM IVR 1k Temp=-273.15
+R85 COM Inn1 1m Temp=-273.15
+C40 Inn1 COM 1.59n
+C41 IVR COM 1.59f
+Ibn N024 COM {Ib-Ios}
+R2 N024 2 {Rser} Temp=-273.15
+Cinp COM N003 {Ccm}
+Cinn N024 COM {Ccm}
+Rinn N024 COM {Rcm} Temp=-273.15
+Rinp COM N003 {Rcm} Temp=-273.15
+G28 COM N011 N006 COM 1k
+R72 COM N011 1m Temp=-273.15
+C42 N011 COM 1.59n
+C43 Aol1 COM 1.59e-18
+G15 COM N027 GRpi COM 1k
+G16 COM N028 GRni COM 1k
+R11 N027 COM 1m Temp=-273.15
+R12 N028 COM 1m Temp=-273.15
+R37 GRpi COM 1k Temp=-273.15
+R44 GRni COM 1k Temp=-273.15
+C6 GRni COM 10p
+C7 GRpi COM 10p
+S2 3 5 5 3 ESDO
+S3 5 4 4 5 ESDO
+DOP Vsatp N017 DO
+DON N017 Vsatn DO
+G5 COM Vsatp Satp COM 1k
+R92 Vsatp COM 1m
+G6 COM Vsatn Satn COM 1k
+R93 Vsatn COM 1m
+C10 Vimon COM 1.59f
+S4 3 N009 N009 3 ESDI
+S5 3 Inn1 Inn1 3 ESDI
+S6 N009 4 4 N009 ESDI
+S7 Inn1 4 4 Inn1 ESDI
+C9 N017 Vsatp 1f
+C16 N017 Vsatn 1f
+C27 Clamp N027 1f
+C44 Clamp N028 1f
+Cdiff N003 N024 {Cdiff}
+C17 Vsatp COM 1n
+C23 Vsatn COM 1n
+E1 COM 0 N029 0 1
+R10 COM 0 1Meg Temp=-273.15
+C51 N020 COM 1f
+C52 N021 COM 1f
+B3 COM CMpi I=1m*(V(3,COM)+{Vcm_max}) Cpar=1n
+G17 COM CMp CMpi COM 1k
+R53 COM CMp 1m Temp=-273.15
+B8 COM CMni I=1m*(V(4,COM)+{Vcm_min}) Cpar=1n
+G22 COM CMn CMni COM 1k
+R54 COM CMn 1m Temp=-273.15
+R62 CMpi COM 1k Temp=-273.15
+R88 CMni COM 1k Temp=-273.15
+DIP CMp IVR DI
+DIN IVR CMn DI
+C54 IVR CMn 1f
+C48 IVR CMp 1f
+G14 COM N009 IVR COM 1k
+R14 COM N009 1m Temp=-273.15
+C49 N009 COM 1.59n
+Rdiff N003 N024 {Rdiff} Temp=-273.15
+B2 COM Satp I=1m*Min(V(Vsatp1,COM), V(Vsatp2,COM))
+C11 Satp COM 1n
+R18 Satp COM 1k Temp=-273.15
+R28 N012 COM 1Meg Temp=-273.15
+C50 N012 COM {Cfp3}
+R29 N013 COM 1Meg Temp=-273.15
+G42 COM N013 N012 COM 1<>
+C53 N013 COM {Cfp4}
+R30 N014 COM 1Meg Temp=-273.15
+G43 COM N014 N013 COM 1<>
+C55 N014 COM {Cfp5}
+R31 N015 COM 1Meg Temp=-273.15
+G44 COM N015 N014 COM 1<>
+C56 N015 COM {Cfp6}
+B5 Vee_Int Vsatn1 I=1m*Max(Mn1*(-I(Vimon))+OSn1,OSn1)
+R4 Vsatn1 Vee_Int 1k
+C3 Vsatn1 Vee_Int 1n
+B6 Vsatp1 Vcc_Int I=1m*Max(Mp1*(I(Vimon))+OSp1,OSp1)
+R5 Vsatp1 Vcc_Int 1k
+C4 Vsatp1 Vcc_Int 1n
+B7 Vee_Int Vsatn2 I=1m*Max(Mn2*(-I(Vimon))+OSn2,OSn1)
+R13 Vsatn2 Vee_Int 1k
+C25 Vsatn2 Vee_Int 1n
+B9 Vsatp2 Vcc_Int I=1m*Max(Mp2*(I(Vimon))+OSp2,OSp1)
+R34 Vsatp2 Vcc_Int 1k
+C26 Vsatp2 Vcc_Int 1n
+B13 COM GRpi I=1m*({Zo_max}* {Iscp}+V(3,COM))
+B14 COM GRni I=1m*({Zo_max}* {Iscn}+V(4,COM))
+A3 COM COM COM COM COM COM E_n COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k EN=IF(freq>600, freq*Pwr(({A2}+{B2}*Pwr(freq,{C2})),(-1/{C2}))+0.36n, freq*Pwr(({A1}+{B1}*Pwr(freq,{C1})),(-1/{C1})))
+R35 E_n COM 100k Temp=-273.15
+Rx Zo_out N016 {Rx_Zo} Noiseless
+Rdummy Zo_out COM {Rdummy_Zo} Noiseless
+R3 N016 COM 1 Noiseless
+B11 COM N016 I=Uplim(Dnlim({G1_Zo}* V(Zo_in,Zo_out), {Izon}, 25m), {Izop}, 25m)
+G1 COM N012 Aol2 COM 1<>
+Lout Zo_out N017 7n
+Cout N017 COM 1.3p
+R23 N007 COM 9.7724 Noiseless
+L1 N007 N008 5.413e-9
+C5 N008 N007 106.103e-12
+G4 COM N007 N015 COM 0.1
+G8 COM Zo_in N007 COM 1.0233
+R16 Zo_in COM 1 Noiseless
+Ibp N003 COM {Ib}
+R17 Aol1 COM 1Meg Temp=-273.15
+R19 Clamp COM 1Meg Temp=-273.15
+Iq N031 N033 {Iq_on}
+CP1 1 COM 1f
+B4 Vee_Int Vsatn3 I=1m*Max(Mn3*(-I(Vimon))+OSn3,OSn1)
+R20 Vsatn3 Vee_Int 1k
+C8 Vsatn3 Vee_Int 1n
+.param Vos=-675u Drift=6u
+.param Ib=252.06p Ios=498.6p
+.param Vcm_min=-0.3 Vcm_max=-0.8
+.param Vsmin=2.7 Vsmax=5.5
+.param Iscp=205m Iscn=-307m
+.param Iq_on=4.4m Iq_off=0.8m
+.param IZop={Rx_Zo*Iscp} IZon={Rx_Zo*Iscn}
+.param ENVt=2.6 ENVh=10m
+.param ENTon=166n ENToff=49n
+.param Ipd_on=65n Ipd_off=-22u
+.model DI D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model DG D(Vfwd=10k Vrev=0 Revepsilon=0.5 Ron=1m Noiseless )
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1 Ron=1m Noiseless)
+.model PD D(Ron=0.5 Epsilon=0.1 Noiseless)
+.model ESDI SW(Ron=50 Roff=1T Vt=700m Vh=-350m Vser=0.1 Noiseless)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n Noiseless)
+.param Aol2_dB = {Aol_PB-40+1}
+.param Aol2 = {pwr(10, (Aol2_dB)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Cfp3={1 / (2 * pi * fp3 * 1Meg)}
+.param Cfp4={1 / (2 * pi * fp4 * 1Meg)}
+.param Cfp5={1 / (2 * pi * fp5 * 1Meg)}
+.param Cfp6={1 / (2 * pi * fp6 * 1Meg)}
+.param Isrc = {Cfp1 * SRp * 1Meg} Isink = {Cfp1 * SRn * 1Meg}
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Aol_PB=83.6
+.param SRp=204.1 SRn=-252.2
+.param fp1=9k fp2=650Meg fp3=800Meg
+.param fp4=1.2G fp5=1.5G fp6=1.7G
+.param Rser=1m
+.param Ccm=2.2p Rcm=5G
+.param Cdiff=0.8p Rdiff=10Meg
+.param Rej_dc_CMR=88
+.param R1a_CMR=1Meg
+.param fz1_CMR=27k
+.param fp1_CMR=35Meg
+.param Rej_dc_PSRp=65
+.param R1a_PSRp=1Meg
+.param fz1_PSRp=125k
+.param fp1_PSRp=16Meg
+.param Rej_dc_PSRn=63
+.param R1a_PSRn=1Meg
+.param fz1_PSRn=250k
+.param fp1_PSRn=75Meg
+.param Mp1=6.09 OSp1=30m
+.param Mn1=5.12 OSn1=4.75m
+.param Mp2=6.8 OSp2=-10m
+.param Mn2=4.24 OSn2=20m
+.param Mn3=8.47 OSn3=-360m
+.param A1=-2.5 B1=5.17 C1=77.5m
+.param A2=-79.9 B2=54.6 C2=211m
+.param beta_Zo=1.13
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=35.81
+.param Zo_max={Zo_dc}
+.ends ADA4891-1

lib/sub/ADA4891-3.lib

@@ -0,0 +1,260 @@
+* Copyright (c) 1998-2022 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4891-3 1 2 3 4 5 6
+C1 Clamp COM {Cfp1}
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}*V(Aol1,COM), {Isink},1m),{Isrc},1m)
+G2 0 Vcc_Int N031 0 1
+G3 0 Vee_Int N033 0 1
+R6 Vcc_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N029 Vcc_Int 1Meg Temp=-273.15
+R9 N029 Vee_Int 1Meg Temp=-273.15
+C2 N029 0 1
+R25 Aol2 COM 1Meg Temp=-273.15
+G7 COM Aol2 Clamp COM 1<>
+C14 Vcc_Int 0 1n
+C15 Vee_Int 0 1n
+R1 N003 1 {Rser} Temp=-273.15
+R82 N033 4 1<> Temp=-273.15
+A1 Inn1 Inp1 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k
+R47 N031 3 1<> Temp=-273.15
+R45 Vimon COM 1k Temp=-273.15
+C34 COM 0 1n
+G30 N031 N033 Vimon COM 1
+C38 Aol2 COM {Cfp2}
+Vimon N017 5 0
+F1 COM Vimon Vimon 1m
+DGP N025 Clamp DG
+DGN Clamp N026 DG
+C19 Satn COM 1n
+R21 Satn COM 1k Temp=-273.15
+VGN N026 N028 0
+VGP N025 N027 0
+G18 N011 Inp1 N021 N020 1m
+R51 Inp1 N011 1k Temp=-273.15
+C32 N021 N022 {C1a_PSRp}
+G19 COM N022 VCC_Int COM {G1_PSRp}
+R52 N022 COM 1 Temp=-273.15
+R55 N021 N022 {R1a_PSRp} Temp=-273.15
+R56 N021 COM {R2a_PSRp} Temp=-273.15
+C33 N020 N019 {C1a_PSRn}
+G20 COM N019 VEE_Int COM {G1_PSRn}
+R57 N019 COM 1 Temp=-273.15
+R58 N020 N019 {R1a_PSRn} Temp=-273.15
+R59 N020 COM {R2a_PSRn} Temp=-273.15
+R76 N004 N009 1k Temp=-273.15
+B17 N009 N004 I=1m*{Vos+Drift* (Temp-27)}
+G32 N005 N006 N002 COM 1m
+R77 N006 N005 1k Temp=-273.15
+R79 N005 N004 1k Temp=-273.15
+G33 N004 N005 E_n COM 1m
+C39 N002 N001 {C1a_CMR}
+G34 COM N001 N003 COM {G1_CMR}
+R80 N002 N001 {R1a_CMR} Temp=-273.15
+R81 N002 COM {R2a_CMR} Temp=-273.15
+R83 N001 COM 1 Temp=-273.15
+G35 COM IVR N003 COM 1m
+G36 COM Inn1 N024 COM 1k
+R84 COM IVR 1k Temp=-273.15
+R85 COM Inn1 1m Temp=-273.15
+C40 Inn1 COM 1.59n
+C41 IVR COM 1.59f
+Ibn N024 COM {Ib-Ios}
+R2 N024 2 {Rser} Temp=-273.15
+Cinp COM N003 {Ccm}
+Cinn N024 COM {Ccm}
+Rinn N024 COM {Rcm} Temp=-273.15
+Rinp COM N003 {Rcm} Temp=-273.15
+G28 COM N011 N006 COM 1k
+R72 COM N011 1m Temp=-273.15
+C42 N011 COM 1.59n
+C43 Aol1 COM 1.59e-18
+G15 COM N027 GRpi COM 1k
+G16 COM N028 GRni COM 1k
+R11 N027 COM 1m Temp=-273.15
+R12 N028 COM 1m Temp=-273.15
+R37 GRpi COM 1k Temp=-273.15
+R44 GRni COM 1k Temp=-273.15
+C6 GRni COM 10p
+C7 GRpi COM 10p
+S2 3 5 5 3 ESDO
+S3 5 4 4 5 ESDO
+DOP Vsatp N017 DO
+DON N017 Vsatn DO
+G5 COM Vsatp Satp COM 1k
+R92 Vsatp COM 1m
+G6 COM Vsatn Satn COM 1k
+R93 Vsatn COM 1m
+C10 Vimon COM 1.59f
+S4 3 N009 N009 3 ESDI
+S5 3 Inn1 Inn1 3 ESDI
+S6 N009 4 4 N009 ESDI
+S7 Inn1 4 4 Inn1 ESDI
+C9 N017 Vsatp 1f
+C16 N017 Vsatn 1f
+C27 Clamp N027 1f
+C44 Clamp N028 1f
+Cdiff N003 N024 {Cdiff}
+C17 Vsatp COM 1n
+C23 Vsatn COM 1n
+E1 COM 0 N029 0 1
+R10 COM 0 1Meg Temp=-273.15
+C51 N020 COM 1f
+C52 N021 COM 1f
+B3 COM CMpi I=1m*(V(3,COM)+{Vcm_max}) Cpar=1n
+G17 COM CMp CMpi COM 1k
+R53 COM CMp 1m Temp=-273.15
+B8 COM CMni I=1m*(V(4,COM)+{Vcm_min}) Cpar=1n
+G22 COM CMn CMni COM 1k
+R54 COM CMn 1m Temp=-273.15
+R62 CMpi COM 1k Temp=-273.15
+R88 CMni COM 1k Temp=-273.15
+DIP CMp IVR DI
+DIN IVR CMn DI
+C54 IVR CMn 1f
+C48 IVR CMp 1f
+G14 COM N009 IVR COM 1k
+R14 COM N009 1m Temp=-273.15
+C49 N009 COM 1.59n
+Rdiff N003 N024 {Rdiff} Temp=-273.15
+B2 COM Satp I=1m*Min(V(Vsatp1,COM), V(Vsatp2,COM))
+C11 Satp COM 1n
+R18 Satp COM 1k Temp=-273.15
+G9 COM Vs 3 4 1m
+R19 Vs COM 1k Temp=-273.15
+A9 Vs COM COM COM COM COM VminGD COM SCHMITT Vt={Vsmin-10m} Vh=10m Trise=5n
+A10 Vs COM COM COM COM VmaxGD COM COM SCHMITT Vt={Vsmax+10m} Vh=10m Trise=5n
+A11 VminGD COM COM ENgd VmaxGD COM EN COM AND Trise=5n
+R20 EN COM 1G Temp=-273.15
+R65 VmaxGD COM 1G Temp=-273.15
+R66 COM VminGD 1G Temp=-273.15
+A12 6 3 COM COM COM COM ENgd COM SCHMITT Vt={-ENVt} Vh={ENVh} Trise={ENTon*2} Tfall={ENToff*2}
+S8 COM Clamp EN COM ENA
+S9 COM Aol1 EN COM ENA
+Biq N031 N033 I=IF(V(EN,COM)>0.5, {Iq_on},{Iq_off})
+Bipd 6 COM I=IF(V(EN,COM)>0.5, {Ipd_on},{Ipd_off})
+D2 6 Vcc_int PD
+R22 Vcc_int 6 1G
+R28 N012 COM 1Meg Temp=-273.15
+C50 N012 COM {Cfp3}
+R29 N013 COM 1Meg Temp=-273.15
+G42 COM N013 N012 COM 1<>
+C53 N013 COM {Cfp4}
+R30 N014 COM 1Meg Temp=-273.15
+G43 COM N014 N013 COM 1<>
+C55 N014 COM {Cfp5}
+R31 N015 COM 1Meg Temp=-273.15
+G44 COM N015 N014 COM 1<>
+C56 N015 COM {Cfp6}
+B6 Vsatp1 Vcc_Int I=1m*Max(Mp1*(I(Vimon))+OSp1,OSp1)
+R5 Vsatp1 Vcc_Int 1k
+C4 Vsatp1 Vcc_Int 1n
+B9 Vsatp2 Vcc_Int I=1m*Max(Mp2*(I(Vimon))+OSp2,OSp1)
+R34 Vsatp2 Vcc_Int 1k
+C26 Vsatp2 Vcc_Int 1n
+B13 COM GRpi I=1m*({Zo_max}* {Iscp}+V(3,COM))
+B14 COM GRni I=1m*({Zo_max}* {Iscn}+V(4,COM))
+A3 COM COM COM COM COM COM E_n COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k EN=IF(freq>600, freq*Pwr(({A2}+{B2}*Pwr(freq,{C2})),(-1/{C2}))+0.36n, freq*Pwr(({A1}+{B1}*Pwr(freq,{C1})),(-1/{C1})))
+R35 E_n COM 100k Temp=-273.15
+Rx Zo_out N016 {Rx_Zo} Noiseless
+Rdummy Zo_out COM {Rdummy_Zo} Noiseless
+B11 COM N016 I=Uplim(Dnlim({G1_Zo}* V(Zo_in,Zo_out), {Izon}, 25m), {Izop}, 25m)
+G1 COM N012 Aol2 COM 1<>
+Lout Zo_out N017 7n
+Cout N017 COM 1.3p
+R23 N007 COM 9.7724 Noiseless
+L1 N007 N008 5.413e-9
+C5 N008 N007 106.103e-12
+G4 COM N007 N015 COM 0.1
+G8 COM Zo_in N007 COM 1.0233
+R16 Zo_in COM 1 Noiseless
+Ibp N003 COM {Ib}
+S1 COM N016 EN COM ENZ
+B4 Vee_Int Vsatn1 I=1m*Max(Mn1*(-I(Vimon))+OSn1,OSn1)
+R3 Vsatn1 Vee_Int 1k
+C3 Vsatn1 Vee_Int 1n
+B5 Vee_Int Vsatn2 I=1m*Max(Mn2*(-I(Vimon))+OSn2,OSn1)
+R4 Vsatn2 Vee_Int 1k
+C8 Vsatn2 Vee_Int 1n
+B7 Vee_Int Vsatn3 I=1m*Max(Mn3*(-I(Vimon))+OSn3,OSn1)
+R13 Vsatn3 Vee_Int 1k
+C12 Vsatn3 Vee_Int 1n
+B10 COM Satn I=1m*Max(Min(V(Vsatn1,COM), V(Vsatn2,COM)),V(Vsatn3,COM))
+.param Vos=-675u Drift=6u
+.param Ib=252.06p Ios=498.6p
+.param Vcm_min=-0.3 Vcm_max=-0.8
+.param Vsmin=2.7 Vsmax=5.5
+.param Iscp=205m Iscn=-307m
+.param Iq_on=4.4m Iq_off=0.8m
+.param IZop={Rx_Zo*Iscp} IZon={Rx_Zo*Iscn}
+.param ENVt=2.6 ENVh=10m
+.param ENTon=166n ENToff=49n
+.param Ipd_on=65n Ipd_off=-22u
+.model DI D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model DG D(Vfwd=10k Vrev=0 Revepsilon=0.5 Ron=1m Noiseless )
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1 Ron=1m Noiseless)
+.model PD D(Ron=0.5 Epsilon=0.1 Noiseless)
+.model ESDI SW(Ron=50 Roff=1T Vt=700m Vh=-350m Vser=0.1 Noiseless)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n Noiseless)
+.model ENA SW(Ron=1Meg Roff=1u Vt=500m Vh=-100m Noiseless)
+.model ENZ SW(Ron=1 Roff=1u Vt=500m Vh=-100m Noiseless)
+.param Aol2_dB = {Aol_PB-40+1}
+.param Aol2 = {pwr(10, (Aol2_dB)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Cfp3={1 / (2 * pi * fp3 * 1Meg)}
+.param Cfp4={1 / (2 * pi * fp4 * 1Meg)}
+.param Cfp5={1 / (2 * pi * fp5 * 1Meg)}
+.param Cfp6={1 / (2 * pi * fp6 * 1Meg)}
+.param Isrc = {Cfp1 * SRp * 1Meg} Isink = {Cfp1 * SRn * 1Meg}
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Aol_PB=83.6
+.param SRp=204.1 SRn=-252.2
+.param fp1=6.95k fp2=650Meg fp3=800Meg
+.param fp4=1.2G fp5=1.5G fp6=1.7G
+.param Rser=1m
+.param Ccm=2.2p Rcm=5G
+.param Cdiff=0.8p Rdiff=10Meg
+.param Rej_dc_CMR=88
+.param R1a_CMR=1Meg
+.param fz1_CMR=27k
+.param fp1_CMR=35Meg
+.param Rej_dc_PSRp=65
+.param R1a_PSRp=1Meg
+.param fz1_PSRp=125k
+.param fp1_PSRp=16Meg
+.param Rej_dc_PSRn=63
+.param R1a_PSRn=1Meg
+.param fz1_PSRn=250k
+.param fp1_PSRn=75Meg
+.param A1=-2.5 B1=5.17 C1=77.5m
+.param A2=-79.9 B2=54.6 C2=211m
+.param beta_Zo=1.13
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=35.81
+.param Zo_max={Zo_dc}
+.param Mp1=6.09 OSp1=30m
+.param Mn1=5.12 OSn1=4.75m
+.param Mp2=6.8 OSp2=-10m
+.param Mn2=4.24 OSn2=20m
+.param Mn3=8.47 OSn3=-360m
+.ends ADA4891-3

lib/sub/ADA4891-4.lib

@@ -0,0 +1,248 @@
+* Copyright (c) 1998-2022 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4891-4 1 2 3 4 5
+C1 Clamp COM {Cfp1}
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}*V(Aol1,COM), {Isink},1m),{Isrc},1m)
+G2 0 Vcc_Int N031 0 1
+G3 0 Vee_Int N033 0 1
+R6 Vcc_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N029 Vcc_Int 1Meg Temp=-273.15
+R9 N029 Vee_Int 1Meg Temp=-273.15
+C2 N029 0 1
+R25 Aol2 COM 1Meg Temp=-273.15
+G7 COM Aol2 Clamp COM 1<>
+C14 Vcc_Int 0 1n
+C15 Vee_Int 0 1n
+R1 N003 1 {Rser} Temp=-273.15
+R82 N033 4 1<> Temp=-273.15
+A1 Inn1 Inp1 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k
+R47 N031 3 1<> Temp=-273.15
+R45 Vimon COM 1k Temp=-273.15
+C34 COM 0 1n
+G30 N031 N033 Vimon COM 1
+C38 Aol2 COM {Cfp2}
+Vimon N017 5 0
+F1 COM Vimon Vimon 1m
+DGP N025 Clamp DG
+DGN Clamp N026 DG
+C19 Satn COM 1n
+R21 Satn COM 1k Temp=-273.15
+VGN N026 N028 0
+VGP N025 N027 0
+G18 N011 Inp1 N021 N020 1m
+R51 Inp1 N011 1k Temp=-273.15
+C32 N021 N022 {C1a_PSRp}
+G19 COM N022 VCC_Int COM {G1_PSRp}
+R52 N022 COM 1 Temp=-273.15
+R55 N021 N022 {R1a_PSRp} Temp=-273.15
+R56 N021 COM {R2a_PSRp} Temp=-273.15
+C33 N020 N019 {C1a_PSRn}
+G20 COM N019 VEE_Int COM {G1_PSRn}
+R57 N019 COM 1 Temp=-273.15
+R58 N020 N019 {R1a_PSRn} Temp=-273.15
+R59 N020 COM {R2a_PSRn} Temp=-273.15
+R76 N004 N009 1k Temp=-273.15
+B17 N009 N004 I=1m*{Vos+Drift* (Temp-27)}
+G32 N005 N006 N002 COM 1m
+R77 N006 N005 1k Temp=-273.15
+R79 N005 N004 1k Temp=-273.15
+G33 N004 N005 E_n COM 1m
+C39 N002 N001 {C1a_CMR}
+G34 COM N001 N003 COM {G1_CMR}
+R80 N002 N001 {R1a_CMR} Temp=-273.15
+R81 N002 COM {R2a_CMR} Temp=-273.15
+R83 N001 COM 1 Temp=-273.15
+G35 COM IVR N003 COM 1m
+G36 COM Inn1 N024 COM 1k
+R84 COM IVR 1k Temp=-273.15
+R85 COM Inn1 1m Temp=-273.15
+C40 Inn1 COM 1.59n
+C41 IVR COM 1.59f
+Ibn N024 COM {Ib-Ios}
+R2 N024 2 {Rser} Temp=-273.15
+Cinp COM N003 {Ccm}
+Cinn N024 COM {Ccm}
+Rinn N024 COM {Rcm} Temp=-273.15
+Rinp COM N003 {Rcm} Temp=-273.15
+G28 COM N011 N006 COM 1k
+R72 COM N011 1m Temp=-273.15
+C42 N011 COM 1.59n
+C43 Aol1 COM 1.59e-18
+G15 COM N027 GRpi COM 1k
+G16 COM N028 GRni COM 1k
+R11 N027 COM 1m Temp=-273.15
+R12 N028 COM 1m Temp=-273.15
+R37 GRpi COM 1k Temp=-273.15
+R44 GRni COM 1k Temp=-273.15
+C6 GRni COM 10p
+C7 GRpi COM 10p
+S2 3 5 5 3 ESDO
+S3 5 4 4 5 ESDO
+DOP Vsatp N017 DO
+DON N017 Vsatn DO
+G5 COM Vsatp Satp COM 1k
+R92 Vsatp COM 1m
+G6 COM Vsatn Satn COM 1k
+R93 Vsatn COM 1m
+C10 Vimon COM 1.59f
+S4 3 N009 N009 3 ESDI
+S5 3 Inn1 Inn1 3 ESDI
+S6 N009 4 4 N009 ESDI
+S7 Inn1 4 4 Inn1 ESDI
+C9 N017 Vsatp 1f
+C16 N017 Vsatn 1f
+C27 Clamp N027 1f
+C44 Clamp N028 1f
+Cdiff N003 N024 {Cdiff}
+C17 Vsatp COM 1n
+C23 Vsatn COM 1n
+E1 COM 0 N029 0 1
+R10 COM 0 1Meg Temp=-273.15
+C51 N020 COM 1f
+C52 N021 COM 1f
+B3 COM CMpi I=1m*(V(3,COM)+{Vcm_max}) Cpar=1n
+G17 COM CMp CMpi COM 1k
+R53 COM CMp 1m Temp=-273.15
+B8 COM CMni I=1m*(V(4,COM)+{Vcm_min}) Cpar=1n
+G22 COM CMn CMni COM 1k
+R54 COM CMn 1m Temp=-273.15
+R62 CMpi COM 1k Temp=-273.15
+R88 CMni COM 1k Temp=-273.15
+DIP CMp IVR DI
+DIN IVR CMn DI
+C54 IVR CMn 1f
+C48 IVR CMp 1f
+G14 COM N009 IVR COM 1k
+R14 COM N009 1m Temp=-273.15
+C49 N009 COM 1.59n
+Rdiff N003 N024 {Rdiff} Temp=-273.15
+B2 COM Satp I=1m*Min(V(Vsatp1,COM), V(Vsatp2,COM))
+C11 Satp COM 1n
+R18 Satp COM 1k Temp=-273.15
+R28 N012 COM 1Meg Temp=-273.15
+C50 N012 COM {Cfp3}
+R29 N013 COM 1Meg Temp=-273.15
+G42 COM N013 N012 COM 1<>
+C53 N013 COM {Cfp4}
+R30 N014 COM 1Meg Temp=-273.15
+G43 COM N014 N013 COM 1<>
+C55 N014 COM {Cfp5}
+R31 N015 COM 1Meg Temp=-273.15
+G44 COM N015 N014 COM 1<>
+C56 N015 COM {Cfp6}
+B6 Vsatp1 Vcc_Int I=1m*Max(Mp1*(I(Vimon))+OSp1,OSp1)
+R5 Vsatp1 Vcc_Int 1k
+C4 Vsatp1 Vcc_Int 1n
+B9 Vsatp2 Vcc_Int I=1m*Max(Mp2*(I(Vimon))+OSp2,OSp1)
+R34 Vsatp2 Vcc_Int 1k
+C26 Vsatp2 Vcc_Int 1n
+B13 COM GRpi I=1m*({Zo_max}* {Iscp}+V(3,COM))
+B14 COM GRni I=1m*({Zo_max}* {Iscn}+V(4,COM))
+A3 COM COM COM COM COM COM E_n COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k EN=IF(freq>600, freq*Pwr(({A2}+{B2}*Pwr(freq,{C2})),(-1/{C2}))+0.36n, freq*Pwr(({A1}+{B1}*Pwr(freq,{C1})),(-1/{C1})))
+R35 E_n COM 100k Temp=-273.15
+Rx Zo_out N016 {Rx_Zo} Noiseless
+Rdummy Zo_out COM {Rdummy_Zo} Noiseless
+B11 COM N016 I=Uplim(Dnlim({G1_Zo}* V(Zo_in,Zo_out), {Izon}, 25m), {Izop}, 25m)
+G1 COM N012 Aol2 COM 1<>
+Lout Zo_out N017 7n
+Cout N017 COM 1.3p
+R23 N007 COM 9.7724 Noiseless
+L1 N007 N008 5.413e-9
+C5 N008 N007 106.103e-12
+G4 COM N007 N015 COM 0.1
+G8 COM Zo_in N007 COM 1.0233
+R16 Zo_in COM 1 Noiseless
+Ibp N003 COM {Ib}
+B4 Vee_Int Vsatn1 I=1m*Max(Mn1*(-I(Vimon))+OSn1,OSn1)
+R3 Vsatn1 Vee_Int 1k
+C3 Vsatn1 Vee_Int 1n
+B5 Vee_Int Vsatn2 I=1m*Max(Mn2*(-I(Vimon))+OSn2,OSn1)
+R4 Vsatn2 Vee_Int 1k
+C8 Vsatn2 Vee_Int 1n
+B7 Vee_Int Vsatn3 I=1m*Max(Mn3*(-I(Vimon))+OSn3,OSn1)
+R13 Vsatn3 Vee_Int 1k
+C12 Vsatn3 Vee_Int 1n
+B10 COM Satn I=1m*Max(Min(V(Vsatn1,COM), V(Vsatn2,COM)),V(Vsatn3,COM))
+R17 Aol1 COM 1Meg Temp=-273.15
+R19 Clamp COM 1Meg Temp=-273.15
+R20 N016 COM 1 Temp=-273.15
+I2 N031 N033 {Iq_on}
+.param Vos=-675u Drift=6u
+.param Ib=252.06p Ios=498.6p
+.param Vcm_min=-0.3 Vcm_max=-0.8
+.param Vsmin=2.7 Vsmax=5.5
+.param Iscp=205m Iscn=-307m
+.param Iq_on=4.4m Iq_off=0.8m
+.param IZop={Rx_Zo*Iscp} IZon={Rx_Zo*Iscn}
+.param ENVt=2.6 ENVh=10m
+.param ENTon=166n ENToff=49n
+.param Ipd_on=65n Ipd_off=-22u
+.model DI D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model DG D(Vfwd=10k Vrev=0 Revepsilon=0.5 Ron=1m Noiseless )
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1 Ron=1m Noiseless)
+.model PD D(Ron=0.5 Epsilon=0.1 Noiseless)
+.model ESDI SW(Ron=50 Roff=1T Vt=700m Vh=-350m Vser=0.1 Noiseless)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n Noiseless)
+.model ENA SW(Ron=1Meg Roff=1u Vt=500m Vh=-100m Noiseless)
+.model ENZ SW(Ron=1 Roff=1u Vt=500m Vh=-100m Noiseless)
+.param Aol2_dB = {Aol_PB-40+1}
+.param Aol2 = {pwr(10, (Aol2_dB)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Cfp3={1 / (2 * pi * fp3 * 1Meg)}
+.param Cfp4={1 / (2 * pi * fp4 * 1Meg)}
+.param Cfp5={1 / (2 * pi * fp5 * 1Meg)}
+.param Cfp6={1 / (2 * pi * fp6 * 1Meg)}
+.param Isrc = {Cfp1 * SRp * 1Meg} Isink = {Cfp1 * SRn * 1Meg}
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param Aol_PB=83.6
+.param SRp=204.1 SRn=-252.2
+.param fp1=6.95k fp2=650Meg fp3=800Meg
+.param fp4=1.2G fp5=1.5G fp6=1.7G
+.param Rser=1m
+.param Ccm=2.2p Rcm=5G
+.param Cdiff=0.8p Rdiff=10Meg
+.param Rej_dc_CMR=88
+.param R1a_CMR=1Meg
+.param fz1_CMR=27k
+.param fp1_CMR=35Meg
+.param Rej_dc_PSRp=65
+.param R1a_PSRp=1Meg
+.param fz1_PSRp=125k
+.param fp1_PSRp=16Meg
+.param Rej_dc_PSRn=63
+.param R1a_PSRn=1Meg
+.param fz1_PSRn=250k
+.param fp1_PSRn=75Meg
+.param A1=-2.5 B1=5.17 C1=77.5m
+.param A2=-79.9 B2=54.6 C2=211m
+.param beta_Zo=1.13
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=35.81
+.param Zo_max={Zo_dc}
+.param Mp1=6.09 OSp1=30m
+.param Mn1=5.12 OSn1=4.75m
+.param Mp2=6.8 OSp2=-10m
+.param Mn2=4.24 OSn2=20m
+.param Mn3=8.47 OSn3=-360m
+.ends ADA4891-4

lib/sub/ADA4895.lib

@@ -0,0 +1,384 @@
+* Copyright (c) 1998-2021 Analog Devices, Inc.  All rights reserved.
+*
+.subckt ADA4895 1 2 3 4 5 6
+C1 Clamp COM {Cfp1}
+B1 COM Clamp I=Uplim(Dnlim({Aol2/1Meg}*V(Aol1,COM), {Isink},1m),{Isrc},1m)
+G2 0 Vcc_Int N051 0 1
+G3 0 Vee_Int N053 0 1
+R6 Vcc_Int 0 1 Temp=-273.15
+R7 Vee_Int 0 1 Temp=-273.15
+R8 N049 Vcc_Int 1Meg Temp=-273.15
+R9 N049 Vee_Int 1Meg Temp=-273.15
+C2 N049 0 1
+R25 Aol2 COM 1Meg Temp=-273.15
+G7 COM Aol2 Clamp COM 1<>
+C14 Vcc_Int 0 1n
+C15 Vee_Int 0 1n
+R1 N003 N019 {Rser} Temp=-273.15
+R82 N053 4 1<> Temp=-273.15
+A1 Inn1 Inp1 COM COM COM COM Aol1 COM OTA G=100u Iout=1m Vhigh=1k Vlow=-1k
+R47 N051 3 1<> Temp=-273.15
+R45 Vimon COM 1k Temp=-273.15
+C34 COM 0 1n
+G30 N051 N053 Vimon COM 1
+C38 Aol2 COM {Cfp2}
+Vimon N016 5 0
+F1 COM Vimon Vimon 1m
+DGP N045 Clamp DG
+DGN Clamp N046 DG
+B10 Vee_Int Satn I=1m*Max(Mn*(-V(Vimon,COM)) +OSn,OSn)
+C19 Satn Vee_Int 1n
+R21 Satn Vee_Int 1k Temp=-273.15
+S1 Cap2R Cap2L OL COM OL
+F2 COM OLp VGP 1m
+A2 OLp OLn COM COM COM COM OL COM OR Ref=100u Vh=50u Trise=10n
+R3 OLp COM 1k
+F3 COM OLn VGN -1m
+R33 OLn COM 1k
+C20 OLp COM 10n
+C21 OLn COM 10n
+C22 OL COM 10p
+VGN N046 N048 0
+VGP N045 N047 0
+G18 N020 Inp1 N041 N040 1m
+R51 Inp1 N020 1k Temp=-273.15
+C32 N038 N039 {C1a_PSRp}
+G19 COM N039 VCC_Int COM {G1_PSRp}
+R52 N039 COM 1 Temp=-273.15
+R55 N038 N039 {R1a_PSRp} Temp=-273.15
+R56 N038 COM {R2a_PSRp} Temp=-273.15
+C33 N025 N024 {C1a_PSRn}
+G20 COM N024 VEE_Int COM {G1_PSRn}
+R57 N024 COM 1 Temp=-273.15
+R58 N025 N024 {R1a_PSRn} Temp=-273.15
+R59 N025 COM {R2a_PSRn} Temp=-273.15
+C35 N027 N026 {C1b_PSRn}
+R60 N026 COM 1 Temp=-273.15
+R61 N027 N026 {R1b_PSRn} Temp=-273.15
+R63 N027 COM {R2b_PSRn} Temp=-273.15
+G21 COM N028 N027 COM {G2_PSRn}
+G23 COM N026 N025 COM 1
+R68 N037 N036 {R1b_PSRp} Temp=-273.15
+R69 N036 COM {R2b_PSRp} Temp=-273.15
+G26 COM N035 N036 COM {G2_PSRp}
+C37 N036 N037 {C1b_PSRp}
+G27 COM N037 N038 COM 1
+R70 N037 COM 1 Temp=-273.15
+G29 COM I_np N056 COM 1
+RI_np I_np COM 1 Temp=-273.15
+R76 N009 N012 1k Temp=-273.15
+B17 N012 N009 I=1m*{Vos+Drift* (Temp-27)}
+G32 N010 N011 N002 COM 1m
+R77 N011 N010 1k Temp=-273.15
+R79 N010 N009 1k Temp=-273.15
+G33 N009 N010 E_n COM 1m
+C39 N002 N001 {C1a_CMR}
+G34 COM N001 N003 COM {G1_CMR}
+R80 N002 N001 {R1a_CMR} Temp=-273.15
+R81 N002 COM {R2a_CMR} Temp=-273.15
+R83 N001 COM 1 Temp=-273.15
+G35 COM IVR N003 COM 1m
+G36 COM Inn1 N044 COM 1k
+R84 COM IVR 1k Temp=-273.15
+R85 COM Inn1 1m Temp=-273.15
+C40 Inn1 COM 1.59n
+C41 IVR COM 1.59f
+Ibn N044 COM {Ib-Ios}
+G37 N003 COM I_np COM 1
+G38 N044 COM I_nn COM 1
+R2 N044 N043 {Rser} Temp=-273.15
+Cinp COM N003 {Ccm}
+Cinn N044 COM {Ccm}
+Rinn N044 COM {Rcm} Temp=-273.15
+Rinp COM N003 {Rcm} Temp=-273.15
+G28 COM N020 N011 COM 1k
+R72 COM N020 1m Temp=-273.15
+C42 N020 COM 1.59n
+C43 Aol1 COM 1.59e-18
+G15 COM N047 GRpi COM 1k
+G16 COM N048 GRni COM 1k
+R11 N047 COM 1m Temp=-273.15
+R12 N048 COM 1m Temp=-273.15
+R37 GRpi COM 1k Temp=-273.15
+R44 GRni COM 1k Temp=-273.15
+C6 GRni COM 10p
+C7 GRpi COM 10p
+S2 3 5 5 3 ESDO
+S3 5 4 4 5 ESDO
+DOP Vsatp N016 DO
+DON N016 Vsatn DO
+G5 COM Vsatp Satp COM 1k
+R92 Vsatp COM 1m
+G6 COM Vsatn Satn COM 1k
+R93 Vsatn COM 1m
+C10 Vimon COM 1.59f
+S4 3 N012 N012 3 ESDI
+S5 3 Inn1 Inn1 3 ESDI
+S6 N012 4 4 N012 ESDI
+S7 Inn1 4 4 Inn1 ESDI
+C9 N016 Vsatp 1f
+C16 N016 Vsatn 1f
+C27 Clamp N047 1f
+C44 Clamp N048 1f
+Cdiff N003 N044 {Cdiff}
+C17 Vsatp COM 1n
+C23 Vsatn COM 1n
+E1 COM 0 N049 0 1
+R10 COM 0 1Meg Temp=-273.15
+C8 I_np COM 1.59p
+C51 N040 COM 1.59p
+C52 N041 COM 1.59p
+R16 N019 1 1m Temp=-273.15
+R17 N043 2 1m Temp=-273.15
+B3 COM CMpi I=1m*(V(3,COM)+{Vcm_max}) Cpar=1n
+G17 COM CMp CMpi COM 1k
+R53 COM CMp 1m Temp=-273.15
+B8 COM CMni I=1m*(V(4,COM)+{Vcm_min}) Cpar=1n
+G22 COM CMn CMni COM 1k
+R54 COM CMn 1m Temp=-273.15
+R62 CMpi COM 1k Temp=-273.15
+R88 CMni COM 1k Temp=-273.15
+DIP CMp IVR DI
+DIN IVR CMn DI
+C54 IVR CMn 1f
+C48 IVR CMp 1f
+G14 COM N012 IVR COM 1k
+R14 COM N012 1m Temp=-273.15
+C49 N012 COM 1.59n
+Rdiff N003 N044 {Rdiff} Temp=-273.15
+Rx N016 N015 {Rx_Zo} Temp=-273.15
+Rdummy N016 COM {Rdummy_Zo} Temp=-273.15
+G4 COM Cap2L N023 N016 {G1_Zo}
+R4 Cap2L COM 1 Temp=-273.15
+R5 Cap2L Cap2R {R1a_Zo} Temp=-273.15
+R13 Cap2R COM {R2a_Zo} Temp=-273.15
+G8 COM N004 Cap2R COM {G2_Zo}
+C3 Cap2R Cap2L {C1a_Zo}
+B11 COM N015 I=Uplim(Dnlim({G5_Zo}* V(ZoF,COM), {Izon}, 25m), {Izop}, 25m)
+R23 N006 COM 1 Temp=-273.15
+R24 N008 ZoF {R1e_Zo} Temp=-273.15
+R26 ZoF COM {R2e_Zo} Temp=-273.15
+C4 ZoF N008 {C1e_Zo}
+R27 N004 COM 1 Temp=-273.15
+R28 N004 N005 {R1b_Zo} Temp=-273.15
+R29 N005 COM {R2b_Zo} Temp=-273.15
+G25 COM N006 N005 COM {G3_Zo}
+C5 N005 N004 {C1b_Zo}
+R30 N006 N007 {R2d_Zo} Temp=-273.15
+R31 N007 N021 {R1d_Zo} Temp=-273.15
+C18 COM N021 {C1d_Zo}
+Gb1 COM N008 N007 COM 1
+R32 N008 COM 1 Temp=-273.15
+R43 N035 N034 {R1b_PSRp} Temp=-273.15
+R46 N034 COM {R2b_PSRp} Temp=-273.15
+G11 COM N033 N034 COM {G2_PSRp}
+C28 N034 N035 {C1b_PSRp}
+R48 N033 COM 1 Temp=-273.15
+R86 N033 N032 {R1c_PSRp} Temp=-273.15
+R87 N032 COM {R2c_PSRp} Temp=-273.15
+G12 COM N041 N032 COM {G3_PSRp}
+C29 N032 N033 {C1c_PSRp}
+R34 N035 COM 1 Temp=-273.15
+R35 N041 COM 1 Temp=-273.15
+R89 N028 COM 1 Temp=-273.15
+C30 N029 N028 {C1b_PSRn}
+R90 N029 N028 {R1b_PSRn} Temp=-273.15
+R91 N029 COM {R2b_PSRn} Temp=-273.15
+G13 COM N030 N029 COM {G2_PSRn}
+R100 N030 COM 1 Temp=-273.15
+C31 N031 N030 {C1c_PSRn}
+R101 N031 N030 {R1c_PSRn} Temp=-273.15
+R102 N031 COM {R2c_PSRn} Temp=-273.15
+G39 COM N040 N031 COM {G3_PSRn}
+R103 N040 COM 1 Temp=-273.15
+A6 COM COM COM COM COM COM N054 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={fAe}/(freq**{Me})
+R36 N054 COM 100k Temp=-273.15
+A7 COM N054 COM COM COM COM E_n COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={BBe}
+R39 E_n COM 100k Temp=-273.15
+A3 COM COM COM COM COM COM N055 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={fAi}/(freq**{Mi})
+R40 N055 COM 100k Temp=-273.15
+A8 COM N055 COM COM COM COM N056 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={BBi}
+R41 N056 COM 100k Temp=-273.15
+G1 COM I_nn N058 COM 1
+RI_nn I_nn COM 1 Temp=-273.15
+C24 I_nn COM 1.59p
+A4 COM COM COM COM COM COM N057 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={fAi}/(freq**{Mi})
+R42 N057 COM 100k Temp=-273.15
+A5 COM N057 COM COM COM COM N058 COM OTA G=10u Iout=1m Vhigh=1k Vlow=-1k En={BBi}
+R64 N058 COM 100k Temp=-273.15
+B2 Satp Vcc_Int I=1m*Max(Mp*(V(Vimon,COM)) +OSp,OSp)
+C11 Satp Vcc_Int 1n
+R18 Satp Vcc_Int 1k Temp=-273.15
+G9 COM Vs 3 4 1m
+R19 Vs COM 1k Temp=-273.15
+A9 Vs COM COM COM COM COM VminGD COM SCHMITT Vt={Vsmin-50m} Vh=10m Trise=5n
+A10 Vs COM COM COM COM VmaxGD COM COM SCHMITT Vt={Vsmax+50m} Vh=10m Trise=5n
+A11 VminGD COM COM ENgd VmaxGD COM EN COM AND Trise=5n
+R20 EN COM 1G Temp=-273.15
+R65 VmaxGD COM 1G Temp=-273.15
+R66 COM VminGD 1G Temp=-273.15
+A12 6 3 COM COM COM COM ENgd COM SCHMITT Vt={-ENVt} Vh={ENVh} Trise={ENTon*2} Tfall={ENToff*2}
+S8 COM Clamp EN COM ENA
+S9 COM Aol1 EN COM ENA
+S10 COM N015 EN COM ENZ
+Biq N051 N053 I=IF(V(EN,COM)>0.5, {Iq_on},{Iq_off})
+I2 GRni COM 198m
+I3 COM GRpi 198m
+Gb2 COM N013 Aol2 COM 1
+R71 N013 N014 {R1f_Aol} Temp=-273.15
+R73 N014 COM {R2f_Aol} Temp=-273.15
+G24 COM N022 N014 COM {1u*G6_Aol}
+C25 N014 N013 {C1f_Aol}
+R74 N013 COM 1 Temp=-273.15
+R75 N022 COM 1Meg Temp=-273.15
+R78 N023 COM 1Meg Temp=-273.15
+G31 COM N023 N022 COM 1<>
+C26 N022 COM {Cfp3}
+C36 N023 COM {Cfp4}
+BIbp N003 COM I={Ib+Ibd* (Temp-27)}
+Bipd 6 COM I=IF(V(EN,COM)>0.5, {Ipd_on},{Ipd_off})
+D2 6 Vcc_int PD
+R22 Vcc_int 6 1G
+.param Vos=51.28u Drift=15n
+.param Ib=-11u Ios=-9.4n Ibd=1.2n
+.param Vcm_min=0.1 Vcm_max=-0.9
+.param Vsmin=3 Vsmax=10
+.param Iscp=111m Iscn=-116m
+.param Iq_on=3m Iq_off=0.1m
+.param IZop={Rx_Zo*Iscp} IZon={Rx_Zo*Iscn}
+.param ENVt=1.25 ENVh=0.75
+.param ENTon=250n ENToff=6u
+.param Ipd_on=-1.1u Ipd_off=-40u
+.model DI D(Vfwd=1k Vrev=0 Revepsilon=0.1 Noiseless)
+.model DG D(Vfwd=10k Vrev=0 Revepsilon=0.5 Ron=1m Noiseless )
+.model DO D(Vfwd=1k Vrev=0 Revepsilon=0.1 Ron=1m Noiseless)
+.model ESDI SW(Ron=50 Roff=1T Vt=700m Vh=-350m Vser=0.1 Noiseless)
+.model ESDO SW(Ron=50 Roff=1G Vt=0.5 Vh=-0.1 Vser=0.6 Ilimit=4m Lser=1n Noiseless)
+.model OL SW(Ron=10m Roff=1G Vt=500m Vh=-100m Noiseless)
+.model ENA SW(Ron=1Meg Roff=1u Vt=500m Vh=-100m Noiseless)
+.model ENZ SW(Ron=1 Roff=1u Vt=500m Vh=-100m Noiseless)
+.param Aol2_dB = {Aol_PB-40+1}
+.param Aol2 = {pwr(10, (Aol2_dB)/20)}
+.param Cfp1={1 / (2 * pi * fp1 * 1Meg)}
+.param Cfp2={1 / (2 * pi * fp2 * 1Meg)}
+.param Cfp3={1 / (2 * pi * fp3 * 1Meg)}
+.param Cfp4={1 / (2 * pi * fp4 * 1Meg)}
+.param Isrc = {Cfp1 * SRp * 1Meg} Isink = {Cfp1 * SRn * 1Meg}
+.param gain_PSRn = {pow(10, (-Rej_dc_PSRn/20))}
+.param C1a_PSRn = {1 / (2 * pi * R1a_PSRn * fz1_PSRn)}
+.param R2a_PSRn = {R1a_PSRn/ ((2 * pi * fp1_PSRn * C1a_PSRn
++* R1a_PSRn) - 1)}
+.param actual1_PSRn = {R2a_PSRn / (R1a_PSRn + R2a_PSRn)}
+.param G1_PSRn = {gain_PSRn/actual1_PSRn}
+.param C1b_PSRn = {1 / (2 * pi * R1b_PSRn * fz2_PSRn)}
+.param R2b_PSRn = {R1b_PSRn/ ((2 * pi * fp2_PSRn * C1b_PSRn
++* R1b_PSRn) - 1)}
+.param actual2_PSRn = {R2b_PSRn/ (R1b_PSRn + R2b_PSRn)}
+.param G2_PSRn = {1/actual2_PSRn}
+.param C1c_PSRn = {1 / (2 * pi * R1c_PSRn * fz3_PSRn)}
+.param R2c_PSRn = {R1c_PSRn/ ((2 * pi * fp3_PSRn * C1c_PSRn
++* R1c_PSRn) - 1)}
+.param actual3_PSRn = {R2c_PSRn/ (R1c_PSRn + R2c_PSRn)}
+.param G3_PSRn = {1/actual3_PSRn}
+.param gain_PSRp = {pow(10, (-Rej_dc_PSRp/20))}
+.param C1a_PSRp = {1 / (2 * pi * R1a_PSRp * fz1_PSRp)}
+.param R2a_PSRp = {R1a_PSRp/ ((2 * pi * fp1_PSRp * C1a_PSRp
++* R1a_PSRp) - 1)}
+.param actual1_PSRp = {R2a_PSRp / (R1a_PSRp + R2a_PSRp)}
+.param G1_PSRp = {gain_PSRp/actual1_PSRp}
+.param C1b_PSRp={1 / (2 * pi * R1b_PSRp * fz2_PSRp)}
+.param R2b_PSRp = {R1b_PSRp/ ((2 * pi * fp2_PSRp * C1b_PSRp
++* R1b_PSRp) - 1)}
+.param actual2_PSRp = {R2b_PSRp / (R1b_PSRp + R2b_PSRp)}
+.param G2_PSRp= {1/actual2_PSRp}
+.param gain_CMR = {pow(10, (-Rej_dc_CMR/20))}
+.param C1a_CMR = {1 / (2 * pi * R1a_CMR * fz1_CMR)}
+.param R2a_CMR = {R1a_CMR/ ((2 * pi * fp1_CMR * C1a_CMR
++* R1a_CMR) - 1)}
+.param actual1_CMR = {R2a_CMR / (R1a_CMR + R2a_CMR)}
+.param G1_CMR = {gain_CMR/actual1_CMR}
+.param beta_Zo=1.13
+.param Rx_Zo = {100 * Zo_max}
+.param Rdummy_Zo = {10 * Zo_max}
+.param G1_Zo={Rx_Zo/(Zo_dc*beta_Zo)}
+.param Zo_dc=623
+.param Zo_max={Zo_dc}
+.param R1a_Zo=10k
+.param fz1_Zo=8k
+.param fp1_Zo=41k
+.param C1a_Zo = {1 / (2 * pi * R1a_Zo * fz1_Zo)}
+.param R2a_Zo = {R1a_Zo/ ((2 * pi * fp1_Zo * C1a_Zo
++* R1a_Zo) - 1)}
+.param actual1_Zo = {R2a_Zo / (R1a_Zo + R2a_Zo)}
+.param G2_Zo = {1/actual1_Zo}
+.param R1b_Zo=10k
+.param fz2_Zo=15Meg
+.param fp2_Zo=20Meg
+.param C1b_Zo = {1 / (2 * pi * R1b_Zo * fz2_Zo)}
+.param R2b_Zo = {R1b_Zo/ ((2 * pi * fp2_Zo * C1b_Zo
++* R1b_Zo) - 1)}
+.param actual3_Zo = {R2b_Zo / (R1b_Zo + R2b_Zo)}
+.param G3_Zo = {1/actual3_Zo}
+.param R1e_Zo=10k
+.param fz5_Zo=700Meg
+.param fp5_Zo=100G
+.param C1e_Zo = {1 / (2 * pi * R1e_Zo * fz5_Zo)}
+.param R2e_Zo = {R1e_Zo/ ((2 * pi * fp5_Zo * C1e_Zo
++* R1e_Zo) - 1)}
+.param actual5_Zo = {R2e_Zo / (R1e_Zo + R2e_Zo)}
+.param G5_Zo = {1/actual5_Zo}
+.param R1d_Zo=10k
+.param fp4_Zo=140Meg
+.param fz4_Zo=900Meg
+.param C1d_Zo = {1 / (fz4_Zo * R1d_Zo * 2 * pi)}
+.param R2d_Zo = {(1 / (fp4_Zo * C1d_Zo * 2 * pi))
++- R1d_Zo}
+.param Aol_PB=114.26
+.param SRp=2.53k SRn={-SRp}
+.param fp1=8k fp2=15Meg fp3=900Meg fp4=2G
+.param Rser=1m
+.param Ccm=3p Rcm=10Meg
+.param Cdiff=11p Rdiff=10k
+.param Rej_dc_CMR=109
+.param R1a_CMR=1Meg
+.param fz1_CMR=8k
+.param fp1_CMR=200Meg
+.param R1c_PSRp=1Meg
+.param fz3_PSRp=9Meg
+.param fp3_PSRp=50Meg
+.param C1c_PSRp={1 / (2 * pi * R1c_PSRp * fz3_PSRp)}
+.param R2c_PSRp = {R1c_PSRp/ ((2 * pi * fp3_PSRp * C1c_PSRp
++* R1c_PSRp) - 1)}
+.param actual3_PSRp = {R2c_PSRp / (R1c_PSRp + R2c_PSRp)}
+.param G3_PSRp= {1/actual3_PSRp}
+.param Rej_dc_PSRp=136
+.param R1a_PSRp=1Meg
+.param fz1_PSRp=6k
+.param fp1_PSRp=100Meg
+.param R1b_PSRp=1Meg
+.param fz2_PSRp={fz1_PSRp}
+.param fp2_PSRp=20k
+.param Rej_dc_PSRn=135
+.param R1a_PSRn=1Meg
+.param fz1_PSRn=6k
+.param fp1_PSRn=100Meg
+.param R1b_PSRn=1Meg
+.param fz2_PSRn={fz1_PSRn}
+.param fp2_PSRn=19k
+.param R1c_PSRn=1Meg
+.param fz3_PSRn=15Meg
+.param fp3_PSRn=50Meg
+.param BBe=1n fCe=26 Me=0.5 fAe={BBe*(fCe**Me)}
+.param BBi=1.55p fCi=1.05k Mi=0.48 fAi={BBi*(fCi**Mi)}
+.param Mp=4.45 OSp=20m
+.param Mn=2.76 OSn=20m
+.param R1f_Aol=10k
+.param fz6_Aol=34Meg
+.param fp6_Aol=10G
+.param C1f_Aol = {1 / (2 * pi * R1f_Aol * fz6_Aol)}
+.param R2f_Aol = {R1f_Aol/ ((2 * pi * fp6_Aol * C1f_Aol
++* R1f_Aol) - 1)}
+.param actual6_Aol = {R2f_Aol / (R1f_Aol + R2f_Aol)}
+.param G6_Aol = {1/actual6_Aol}
+.model PD D(Ron=0.5 Epsilon=0.1 Noiseless)
+.ends ADA4895