* Library of Opamp, Voltage Comparator, Voltage Regulator, Voltage * Reference Models * * Copyright 1985-1995 by MicroSim Corporation * Neither this library nor any part may be copied without the express * written consent of MicroSim Corporation * $Revision: 1.30.1.0 $ * $Author: GTR $ * $Date: 31 Jan 1996 13:24:00 $ * * --------------------------------------------------------------------------- *** Operational amplifiers * The parameters in the opamp library were derived from the data sheets for * each part. The macromodel used is similar to the one described in: * * Macromodeling of Integrated Circuit Operational Amplifiers * by Graeme Boyle, Barry Cohn, Donald Pederson, and James Solomon * IEEE Journal of SoliE-State Circuits, Vol. SC-9, no. 6, Dec. 1974 * * Differences from the reference (above) occur in the output limiting stage * which was modified to reduce internally generated currents associated with * output voltage limiting, as well as short-circuit current limiting. * * The opamps are modelled at room temperature and do not track changes with * temperature. This library file contains models for nominal, not worst case, * devices. *$ *----------------------------------------------------------------------------- * * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt ad648a 1 2 3 4 5 * c1 11 12 11.66E-12 c2 6 7 25.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 127.3E9 -130E9 130E9 130E9 -130E9 ga 6 0 11 12 157.1E-6 gcm 0 6 10 99 24.93E-9 iss 10 4 dc 45.00E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 3 11 6.366E3 rd2 3 12 6.366E3 ro1 8 5 50.00E-3 ro2 7 99 50.00E-3 rp 3 4 176.5E3 rss 10 99 4.444E6 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 15 vln 0 92 dc 15 .model dx D(Is=800.0E-18) .model jx NJF(Is=2.500E-12 Beta=548.3E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt AD648B 1 2 3 4 5 * c1 11 12 11.66E-12 c2 6 7 25.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 127.3E9 -130E9 130E9 130E9 -130E9 ga 6 0 11 12 157.1E-6 gcm 0 6 10 99 12.47E-9 iss 10 4 dc 45.00E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 3 11 6.366E3 rd2 3 12 6.366E3 ro1 8 5 50.00E-3 ro2 7 99 50.00E-3 rp 3 4 176.5E3 rss 10 99 4.444E6 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 15 vln 0 92 dc 15 .model dx D(Is=800.0E-18) .model jx NJF(Is=1.500E-12 Beta=548.3E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt AD648C 1 2 3 4 5 * c1 11 12 11.66E-12 c2 6 7 25.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 127.3E9 -130E9 130E9 130E9 -130E9 ga 6 0 11 12 157.1E-6 gcm 0 6 10 99 7.854E-9 iss 10 4 dc 45.00E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 3 11 6.366E3 rd2 3 12 6.366E3 ro1 8 5 50.00E-3 ro2 7 99 50.00E-3 rp 3 4 176.5E3 rss 10 99 4.444E6 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 15 vln 0 92 dc 15 .model dx D(Is=800.0E-18) .model jx NJF(Is=1.500E-12 Beta=548.3E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt ad741 1 2 3 4 5 * c1 11 12 2.645E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 16.32E6 -16E6 16E6 16E6 -16E6 ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 5.961E-9 iee 10 4 dc 15.16E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 5.305E3 rc2 3 12 5.305E3 re1 13 10 1.837E3 re2 14 10 1.837E3 ree 10 99 13.19E6 ro1 8 5 45 ro2 7 99 65 rp 3 4 18.16E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=93.75) .ends *$ * * MANUFACTURERS PART NO. = HA2-2600-8 (HARRIS) * SUBTYPE:OP_AMP * THIS FILE CONTAINS A PRE-RAD TEMPERATURE DEPENDENT MODEL OF THE HA2- * 2600. * THIS MODEL INCLUDES PARAMETERS WHICH THE MICROSIM-BOYLE MODEL DID NOT. * * IT MODELS POWER-UP, POWER-DOWN, AND POWER OFF CONDITIONS, * SINGLE SUPPLY APPLICATIONS, AC PSRR, DC PSRR, AC CMRR, VSAT, IIB, IIO, * VIO, ISC, SR, PM, GBP, ICC, AND RO(AC). *----------------------------------------------------------------------------- * THE FOLLOWING SPECIFICATIONS ARE SIMULATED IN THE MODEL FOR +/-15 V * SUPPLIES: * VIO = 0.85 MV, VSAT = +13 V, VSAT- = -14 V, IB+ = 2 NA, IB- = -1.3 NA, * GBP = 12.4MHZ, PM = 46 DEG, CMRR = 107 DB, RO(AC) = 39 OHMS, ISC+ = 3 MA * ISC- = -28 MA, SR+ = 7.5 V/US, SR- = -6.4 V/US * * MODIFIED SPECS: * DC PSRR = 100 DB, AC PSRR MODELED; ISUPPLY = IBIAS + ILOAD, VSAT VARIES WITH * SUPPLY VOLTAGES, ALSO MODELS SINGLE SUPPLY APPLICATIONS; E.G. VCC+ = 5 V, * VCC- = 0 V, VSAT+ = 3 V, VSAT- = 5 MV; POWER NOT CONNECTED MODELED; POWER- * UP AND POWER-DOWN MODELED. INPUT BIAS CURRENT CAN BE + OR -. * * THIS MODEL CAN BE USED WITH A .TEMP CARD OVER THE TEMPERATURE RANGE * OF -55 C TO 125 C. * * THE FOLLOWING PARAMETERS ARE INSENSITIVE TO TEMPERATURE CHANGES AND * ARE SIMULATED ACCURATELY BY THE MODEL: CMRR GAIN ICC PSRR SR * OVERDRIVE RECOVERY TIME OUTPUT VOLTAGE SWING IIB IIO * * THE FOLLOWING PARAMETERS ARE TEMPERATURE DEPENDENT AND ARE * SIMULATED BY THE MODEL: ISC VIO * * * CONNECTIONS: NON-INVERTING INPUT * | INVERTING INPUT * | | POSITIVE POWER SUPPLY * | | | NEGATIVE POWER SUPPLY * | | | | OUTPUT * | | | | | GND(REFERENCE) * | | | | | | .SUBCKT HA-2600 1 2 3A 4A 5 100 * * DC PSRR FIX Q1 11 16 13 HA2600QA EPSRR- 16 2 TABLE {-V(4)} = (0,150U) (20,-50U) Q2 12 15 14 HA2600QB EPSRR+ 1 15 TABLE {V(3)} = (0,150U) (20,-50U) * *INPUT CURRENT COMPENSATION IBX1 100 16 6.3N IBX2 100 15 2.99N * RC1 3 11 1276 RC2 3 12 1276 C1 11 12 6.6519P RE1 13 10 573 RE2 14 10 573 GIEE 10 4 TABLE {V(3,4)} = (0,0) (2,0) (3,73.6U) CE 10 100 1.464P RE 10 100 2.717MEG RP 3 4 9913 * * CMRR FIX GCM1 100 83 10 100 1 RCM1 83 84 1 LCM1 84 100 1.592U GCM2 100 85 83 100 1 RCM2 85 86 1 LCM2 86 100 0.1592U RCM3 86 100 10 GCM 100 21 85 100 3.5N * GA 21 100 11 12 783.7U * * PSRR VS FREQ FIX GPSRR- 21 100 88 100 1 GVP- 100 88 4 100 1 RVP- 88 100 1 LVP- 88 100 10P GPSRR+ 21 100 89 100 1 GVP+ 100 89 3 100 1 RVP+ 89 100 1 LVP+ 89 100 0.1P * R2 21 100 100K C2 21 22 10P GB 22 100 21 100 1359 RO2 22 100 41 D1 22 31 HA2600DA D2 31 22 HA2600DC EC 31 100 5 100 1.0 * * I(VCC) FIX RO1 22 6 39 VIOUT 6 5 0 D5 3 7 HA2600DB R5 7 100 1MEG F5 7 100 VIOUT 1 D6 8 4 HA2600DB R6 8 100 1MEG F6 8 100 VIOUT 1 * * POWER OFF FIX VIVP+ 3A 3 WVP+ 3 3B VIVP+ CL1 VIVP- 4 4A WVP- 4 4B VIVP- CL1 .MODEL CL1 ISWITCH( + RON = 0.1 + ROFF = 10MEG + ION = 0.5U + IOFF = 1N + ) * * CLIPPING FIX D3 5 24 HA2600DB EVC 3B 24 TABLE {V(3)} = (0,0.81089) (5,2.81089) D4 25 5 HA2600DB EVE 25 4B TABLE {-V(4)} = (0,0.80648) (5,1.80648) * .MODEL HA2600DA D ( + IS = 1.8E-18 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL HA2600DC D ( + IS = 4.581F + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL HA2600DB D ( + IS = 0.8F + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL HA2600QA NPN ( + IS = 0.827F + BF = 7360 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) .MODEL HA2600QB NPN ( + IS = 0.8F + BF = 7360 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) .ENDS HA-2600 *$ * * MANUFACTURERS PART NO. = HA7-2720-8 (HARRIS) * SUBTYPE: OP_AMP * THIS FILE CONTAINS 1 PRE-RAD MODEL AT 27 C OF THE HA7-2720. * * * THIS MACROMODEL IS DERIVED FROM A MODIFIED BOYLE MACROMODEL STRUCTURE. * * PARAMETERS THAT VARY WITH ISET INCLUDE: GAIN BANDWIDTH PRODUCT; POWER * DISSIPATED; CMRR; SHORT CIRCUIT CURRENT; SLEW RATE; OUTPUT RESISTANCE * .SUBCKT HA-2720 1 2 3 4 5 27 100 * +IN | | | | | | * -IN | | | | | * +VCC | | | | * -VCC | | | * OUT | | * ISET | * GND(REFERENCE) C1 11 12 0.8P C2 6 7 10P DC 5 53 DX DE 54 5 DX DLP 90 91 DX DLN 92 90 DX DP 4 3 DX EGND 99 100 POLY(2) (3,100) (4,100) 0 0.5 0.5 FB 7 99 POLY(5) VB VC VE VLP VLN 0 1.061E9 -9E8 1E9 1E9 -1E9 GA 6 100 11 12 9.425U GCM 100 6 10 99 298P FIEE 10 4 VSET 0.667 HLIM 90 100 VLIM 10K Q1 11 2 13 QX Q2 12 1 14 QX R2 6 9 10K RC1 3 11 106.1K RC2 3 12 106.1K RE1 13 10 54.4K RE2 14 10 54.4K REE 10 99 200MEG RO1 8 5 10 RO2 7 99 10 VB 9 100 DC 0 VC 3 53 DC 1 VE 54 4 DC 1 VLIM 7 8 DC 0 VLP 91 89 DC 0 VLN 88 92 DC 0 * * ADDITIONAL MODEL COMPONENTS * D1 3 25 DX D2 25 26 DX VSET 26 27 DC 0 FDISP 3 4 VSET 13 HLP 89 100 VSET 3.33MEG HLN 100 88 VSET 3.33MEG * .MODEL DX D( + IS = 800E-18 + RS = 1 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) .MODEL QX NPN( + IS = 800E-18 + BF = 250 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .ENDS HA-2720 *$ * * MANUFACTURERS PART NO. = HA5154/883 (HARRIS) * SUBTYPE: OP_AMP * THIS FILE CONTAINS A PRE-RAD TEMPERATURE DEPENDENT MODEL OF THE HA5154. * * IT MODELS POWER-UP, POWER-DOWN, AND POWER OFF CONDITIONS, * SINGLE SUPPLY APPLICATIONS, AC PSRR, DC PSRR, AC CMRR, VSAT, IIB, IIO, * VIO, ISC, SR, PM, GBP, ICC, AND RO(AC). *---------------------------------------------------------------------------- * THE FOLLOWING SPECIFICATIONS ARE SIMULATED IN THE MODEL FOR +/-15 V * SUPPLIES: * VIO = 0.4 MV, VSAT = +13.5 V, VSAT- = -13.8 V,IB+ = 113.5 NA,IB- = -111.6NA * GBP = 1.26MHZ, PM = 78 DEG, CMRR = 102 DB, RO(AC) = 317 OHMS, ISC+ = 8.8 MA * ISC- = -3.4 MA, SR+ = 6.66 V/US, SR- = -7.4 V/US * * MODIFIED SPECS: * DC PSRR = 100 DB, AC PSRR MODELED; ISUPPLY = IBIAS + ILOAD, VSAT VARIES WITH * SUPPLY VOLTAGES, ALSO MODELS SINGLE SUPPLY APPLICATIONS; E.G. VCC+ = 5 V, * VCC- = 0 V, VSAT+ = 3 V, VSAT- = 5 MV; POWER NOT CONNECTED MODELED; POWER- * UP AND POWER-DOWN MODELED. INPUT BIAS CURRENT CAN BE + OR -. * * THIS MODEL CAN BE USED WITH A .TEMP CARD OVER THE TEMPERATURE RANGE * OF -55 C TO 125 C. * * THE FOLLOWING PARAMETERS ARE INSENSITIVE TO TEMPERATURE CHANGES AND * ARE SIMULATED ACCURATELY BY THE MODEL: CMRR GAIN ICC PSRR SR * OVERDRIVE RECOVERY TIME OUTPUT VOLTAGE SWING IIB IIO * * THE FOLLOWING PARAMETERS ARE TEMPERATURE DEPENDENT AND ARE * SIMULATED BY THE MODEL: ISC VIO * * * CONNECTIONS: NON-INVERTING INPUT * | INVERTING INPUT * | | POSITIVE POWER SUPPLY * | | | NEGATIVE POWER SUPPLY * | | | | OUTPUT * | | | | | GND(REFERENCE) * | | | | | | .SUBCKT HA-5154 1 2 3A 4A 5A 100 * * DC PSRR FIX Q1 11 16 13 HA5154QA EPSRR- 16 2 TABLE {-V(4)} = (0,150U) (20,-50U) Q2 12 15 14 HA5154QB EPSRR+ 1 15 TABLE {V(3)} = (0,150U) (20,-50U) * *INPUT CURRENT COMPENSATION IBX1 16 100 186N IBX2 15 100 188N * RC1 4 11 12.25K RC2 4 12 12.25K C1 11 12 1.072P RE1 13 10 11.56K RE2 14 10 11.56K GIEE 3 10 TABLE {V(3,4)} = (0,0) (2,0) (3,75U) CE 10 100 0.838P RE 10 100 2.67MEG * * SUPPLY CURRENT FOR 1/4 CURRENT OF IC. * PLACE AN RP IN PARALLEL FOR EACH UNUSED OPAMP ON IC. * RP 3 4 171K * * CMRR FIX GCM1 100 83 10 100 1 RCM1 83 84 1 LCM1 84 100 15.92U GCM2 100 85 83 100 1 RCM2 85 86 1 LCM2 86 100 1.592U RCM3 86 100 10 GCM 100 21 85 100 0.648N * GA 21 100 11 12 81.63U * * PSRR VS FREQ FIX GPSRR- 21 100 88 100 1 GVP- 100 88 4 100 1 RVP- 88 100 1 LVP- 88 100 0.10P GPSRR+ 21 100 89 100 1 GVP+ 100 89 3 100 1 RVP+ 89 100 1 LVP+ 89 100 10P * R2 21 100 100K C2 21 22 10P GB 22 100 21 100 297.89 RO2 22 100 83 D1 22 31 HA5154DA D2 31 22 HA5154DC EC 31 100 5 100 1.0 * * I(VCC) FIX RO1 22 6 217 VIOUT 6 5 0 D5 3 7 HA5154DB R5 7 100 1MEG F5 7 100 VIOUT 1 D6 8 4 HA5154DB R6 8 100 1MEG F6 8 100 VIOUT 1 * *EXTERNAL RO AT VO RO3 5 5A 100 * * POWER OFF FIX VIVP+ 3A 3 WVP+ 3 3B VIVP+ CL1 VIVP- 4 4A WVP- 4 4B VIVP- CL1 .MODEL CL1 ISWITCH( + RON = 0.1 + ROFF = 50MEG + ION = 0.5U + IOFF = 1N + ) * * CLIPPING FIX D3 5 24 HA5154DB EVC 3B 24 TABLE {V(3)} = (0,0.77655) (3,2.17655) D4 25 5 HA5154DB EVE 25 4B TABLE {-V(4)} = (0,0.751956) (3,1.751956) * .MODEL HA5154DA D ( + IS = 19.02E-30 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL HA5154DC D ( + IS = 908.77P + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL HA5154DB D ( + IS = 0.8F + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL HA5154QA NPN ( + IS = 0.7879F + BF = 500 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) .MODEL HA5154QB NPN ( + IS = 0.8F + BF = 500 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) .ENDS HA-5154 *$ * * MANUFACTURERS PART NO. = HS3516RH (HARRIS) * SUBTYPE:OP_AMP * THIS FILE CONTAINS A PRE-RAD TEMPERATURE DEPENDENT MODEL OF THE HS3516. * * IT MODELS POWER-UP, POWER-DOWN, AND POWER OFF CONDITIONS, * SINGLE SUPPLY APPLICATIONS, AC PSRR, DC PSRR, AC CMRR, VSAT, IIB, IIO, * VIO, ISC, SR, PM, GBP, ICC, AND RO(AC). THE VOLTAGE CLAMPING PIN HAS * BEEN MODELED. IT HAS BEEN COMMENTED OUT WITH THE * SYMBOL BECAUSE IT * CAN CAUSE CONVERGENCE PROBLEMS. TO ADD TO THE MODEL ADD PIN 9 ON THE *.SUBCKT LINE AND REMOVE THE * FROM THE LINES DEFINING THE CLAMP PIN IN THE * MODEL. IF IT CAUSES A CONVERGENCE PROBLEM USE ITL4=300 IN THE .OPTION * STATEMENT. *----------------------------------------------------------------------------- * THE FOLLOWING SPECIFICATIONS ARE SIMULATED IN THE MODEL FOR +/-15 V * SUPPLIES: * VIO = 0.52 MV, VSAT = +13.5 V, VSAT- = -12.6 V, IB = 14.8 NA, IIO = -6 NA * GBP = 11MHZ, PM = 47 DEG, CMRR = 107 DB, RO(AC) = 30 OHMS, ISC+ = 26 MA * ISC- = -27 MA, SR+ = 23.4 V/US, SR- = -21 V/US * * MODIFIED SPECS: * DC PSRR = 100 DB, AC PSRR MODELED; ISUPPLY = IBIAS + ILOAD, VSAT VARIES WITH * SUPPLY VOLTAGES, ALSO MODELS SINGLE SUPPLY APPLICATIONS; E.G. VCC+ = 5 V, * VCC- = 0 V, VSAT+ = 3 V, VSAT- = 5 MV; POWER NOT CONNECTED MODELED; POWER- * UP AND POWER-DOWN MODELED. * * THIS MODEL CAN BE USED WITH A .TEMP CARD OVER THE TEMPERATURE RANGE * OF -55 C TO 125 C. * * THE FOLLOWING PARAMETERS ARE INSENSITIVE TO TEMPERATURE CHANGES AND * ARE SIMULATED ACCURATELY BY THE MODEL: CMRR GAIN ICC PSRR SR * OVERDRIVE RECOVERY TIME OUTPUT VOLTAGE SWING IIB IIO * * THE FOLLOWING PARAMETERS ARE TEMPERATURE DEPENDENT AND ARE * SIMULATED BY THE MODEL: ISC VIO * * * CONNECTIONS: NON-INVERTING INPUT * | INVERTING INPUT * | | POSITIVE POWER SUPPLY * | | | NEGATIVE POWER SUPPLY * | | | | OUTPUT * | | | | | VCLAMP * | | | | | | GND(REFERENCE) * | | | | | | | .SUBCKT HS3516 1 2 3A 4A 5 100 * * DC PSRR FIX Q1 11 16 13 HS3516QA EPSRR- 16 2 TABLE {-V(4)} = (0,150U) (20,-50U) Q2 12 15 14 HS3516QB EPSRR+ 1 15 TABLE {V(3)} = (0,150U) (20,-50U) * RC1 3 11 1.447K RC2 3 12 1.447K C1 11 12 6.11P RE1 13 10 1.222K RE2 14 10 1.222K GIEE 10 4 TABLE {V(3,4)} = (0,0) (2,0) (3,230U) CE 10 100 0.952P RE 10 100 869K RP 3 4 6.289K * * CMRR FIX GCM1 100 83 10 100 1 RCM1 83 84 1 LCM1 84 100 1.592U GCM2 100 85 83 100 1 RCM2 85 86 1 LCM2 86 100 0.1592U RCM3 86 100 10 GCM 100 21 85 100 3.087N * GA 21 100 11 12 691U * * PSRR VS FREQ FIX GPSRR- 21 100 88 100 1 GVP- 100 88 4 100 1 RVP- 88 100 1 LVP- 88 100 0.1P GPSRR+ 21 100 89 100 1 GVP+ 100 89 3 100 1 RVP+ 89 100 1 LVP+ 89 100 10P * R2 21 100 100K C2 21 22 10P GB 22 100 21 100 362.6 * * VOLTAGE CLAMP *RCL 9 100 100K *VICL1 9 53 *VICL2 54 53 *RVOUT 54 55 10K *EOUT 55 100 5 100 1 *WCL3 54 56 VICL3 CL *RX 56 100 100K *ICL+ 56 100 4M *WCL4 54 57 VICL4 CL *RY 57 100 100K *ICL- 100 57 4M *ECL1 47 100 9 100 1 *WCL1 47 48 VICL1 CL *D8 48 49 SMX10114DD *.MODEL SMX10114DD D (IS=1.075U) *VICL3 49 6 *ECL2 52 100 9 100 1 *WCL2 52 51 VICL2 CL *D9 50 51 SMX10114DE *.MODEL SMX10114DE D (IS=15.28N) *VICL4 6 50 *.MODEL CL ISWITCH (ION=2U IOFF=0 RON=1 ROFF=0.1MEG) * * END OF VCLAMP SECTION RO2 22 100 20 D1 22 31 HS3516DA D2 31 22 HS3516DC EC 31 100 5 100 1.0 * * I(VCC) FIX RO1 22 6 30 VIOUT 6 5 0 D5 3 7 HS3516DB R5 7 100 1MEG F5 7 100 VIOUT 1 D6 8 4 HS3516DB R6 8 100 1MEG F6 8 100 VIOUT 1 * * POWER OFF FIX VIVP+ 3A 3 WVP+ 3 3B VIVP+ CL1 VIVP- 4 4A WVP- 4 4B VIVP- CL1 .MODEL CL1 ISWITCH( + RON = 0.1 + ROFF = 0.079MEG + ION = 0.5U + IOFF = 1N + ) * * CLIPPING FIX D3 5 24 HS3516DB EVC 3B 24 TABLE {V(3)} = (0,0.805) (5,2.255) (10,2.305) D4 25 5 HS3516DB EVE 25 4B TABLE {-V(4)} = (0,0.806) (5,3.179) (10,3.226) * .MODEL HS3516DA D ( + IS = 191E-12 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL HS3516DC D ( + IS = 45.32E-12 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 F+ IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL HS3516DB D ( + IS = 0.8F + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL HS3516QA NPN ( + IS = 0.816F + BF = 6446 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) .MODEL HS3516QB NPN ( + IS = 0.8F + BF = 9729 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) .ENDS HS3516 *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt LF411 1 2 3 4 5 * c1 11 12 4.196E-12 c2 6 7 10.00E-12 css 10 99 1.333E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 31.83E6 -30E6 30E6 30E6 -30E6 ga 6 0 11 12 251.4E-6 gcm 0 6 10 99 2.514E-9 iss 10 4 dc 170.0E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 3 11 3.978E3 rd2 3 12 3.978E3 ro1 8 5 50 ro2 7 99 25 rp 3 4 15.00E3 rss 10 99 1.176E6 vb 9 0 dc 0 vc 3 53 dc 1.500 ve 54 4 dc 1.500 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18 Rs=1m) .model jx NJF(Is=12.50E-12 Beta=743.3E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt LF412 1 2 3 4 5 * x_lf412 1 2 3 4 5 LF411 .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt LM101A 1 2 3 4 5 6 7 * c1 11 12 8.661E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 37.73E6 -40E6 40E6 40E6 -40E6 ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 2.988E-9 iee 10 4 dc 15.06E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 5.305E3 rc2 3 12 5.305E3 re1 13 10 1.849E3 re2 14 10 1.849E3 ree 10 99 13.28E6 ro1 8 5 50 ro2 7 99 25 rp 3 4 15.11E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18 Rs=1) .model qx NPN(Is=800.0E-18 Bf=250) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt LM108 1 2 3 4 5 6 7 * c1 11 12 5.460E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 83.87E6 -80E6 80E6 80E6 -80E6 ga 6 0 11 12 150.8E-6 gcm 0 6 10 99 1.508E-9 iee 10 4 dc 18.00E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 6.631E3 rc2 3 12 6.631E3 re1 13 10 3.757E3 re2 14 10 3.757E3 ree 10 99 11.11E6 ro1 8 5 50 ro2 7 99 25 rp 3 4 106.4E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 6 vln 0 92 dc 6 .model dx D(Is=800.0E-18 Rs=1) .model qx NPN(Is=800.0E-18 Bf=11.25E3) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt LM118 1 2 3 4 5 * c1 11 12 2.887E-12 c2 6 7 20.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 636.5E3 -600E3 600E3 600E3 -600E3 ga 6 0 11 12 12.57E-3 gcm 0 6 10 99 125.7E-9 iee 10 4 dc 1.400E-3 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 79.57 rc2 3 12 79.57 re1 13 10 42.61 re2 14 10 42.61 ree 10 99 142.8E3 ro1 8 5 50 ro2 7 99 25 rp 3 4 9.678E3 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 22 vln 0 92 dc 22 .model dx D(Is=800.0E-18 Rs=1) .model qx NPN(Is=800.0E-18 Bf=5.833E3) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt LM124 1 2 3 4 5 * c1 11 12 2.887E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 21.22E6 -20E6 20E6 20E6 -20E6 ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 10.60E-9 iee 3 10 dc 15.09E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 4 11 5.305E3 rc2 4 12 5.305E3 re1 13 10 1.845E3 re2 14 10 1.845E3 ree 10 99 13.25E6 ro1 8 5 50 ro2 7 99 25 rp 3 4 9.082E3 vb 9 0 dc 0 vc 3 53 dc 1.500 ve 54 4 dc 0.65 vlim 7 8 dc 0 vlp 91 0 dc 40 vln 0 92 dc 40 .model dx D(Is=800.0E-18 Rs=1) .model qx PNP(Is=800.0E-18 Bf=166.7) .ends *$ * * MANUFACTURERS PART NO. = LM124W (TEXAS INSTRUMENTS) * SUBTYPE: OP_AMP * THIS FILE CONTAINS A PRE-RAD MODEL OF THE LM124 * WHICH HAS BEEN VERIFIED FOR USE WITH A .TEMP CARD. * THIS MODEL MAY BE USED FOR ALL OF THE FOLLOWING DEVICES : * LM124 * LM124J * LM124W * * THE FOLLOWING MODEL WAS DERIVED USING MEASURED DATA. * * THIS MODEL CAN BE USED WITH A .TEMP CARD OVER THE TEMPERATURE RANGE * OF -55 C TO 125 C. * THE FOLLOWING PARAMETERS ARE INSENSITIVE TO TEMPERATURE CHANGES AND * ARE SIMULATED ACCURATELY BY THE MODEL: CMRR GAIN PSRR OUTPUT * VOLTAGE SWING HIGH LEVEL ONLY * * THE FOLLOWING PARAMETERS ARE NOT SIMULATED BY THE MODEL OVER * TEMPERATURE: IIB ICC GBW OUTPUT VOLTAGE SWING LOW LEVEL * * THIS MODEL DOES NOT SIMULATE VOS (INPUT OFFSET VOLTAGE) OR IOS (INPUT * OFFSET CURRENT). * * CONNECTIONS: NON-INVERTING INPUT * | INVERTING INPUT * | | POSITIVE POWER SUPPLY * | | | NEGATIVE POWER SUPPLY * | | | | OUTPUT * | | | | | GND(REFERENCE) .SUBCKT LM124A 1 2 3 4 5 100 * C1 11 12 2.887E-12 C2 6 7 30.00E-12 DC 5 53 DX DE 54 5 DX DLP 90 91 DX DLN 92 90 DX DP 4 3 DX EGND 99 100 POLY(2) (3,100) (4,100) 0 .5 .5 FB 7 99 POLY(5) VB VC VE VLP VLN 0 21.22E6 -20E6 20E6 20E6 -20E6 GA 6 100 11 12 188.5E-6 GCM 100 6 10 99 10.60E-9 IEE 3 10 DC 15.09E-6 HLIM 90 100 VLIM 1K Q1 11 2 13 QX Q2 12 1 14 QX R2 6 9 100.0E3 RC1 4 11 5.305E3 RC2 4 12 5.305E3 RE1 13 10 1.845E3 RE2 14 10 1.845E3 REE 10 99 13.25E6 RO1 8 5 50 RO2 7 99 25 RP 3 4 9.082E3 VB 9 100 DC 0 VC 3 53 DC 1.500 VE 54 4 DC 0 VLIM 7 8 DC 0 VLP 91 100 DC 40 VLN 100 92 DC 40 .MODEL DX D( + IS = 800.0E-18 + RS = 1 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) .MODEL QX PNP( + IS = 800.0E-18 + BF = 166.7 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .ENDS LM124A *$ * * MANUFACTURERS PART NO. = LM124W (TEXAS INSTRUMENTS) * SUBTYPE: OP_AMP * THIS FILE CONTAINS A PRE-RAD TEMPERATURE DEPENDENT MODEL OF THE LM124. * THIS MODEL MAY BE USED FOR ALL OF THE FOLLOWING DEVICES : * LM124 * LM124J * LM124W * * * IT MODELS POWER-UP, POWER-DOWN, AND POWER OFF CONDITIONS, * SINGLE SUPPLY APPLICATIONS, AC PSRR, DC PSRR, AC CMRR, VSAT, IIB, IIO, * VIO, ISC, SR, PM, GBP, ICC, AND RO(AC). *----------------------------------------------------------------------------- *----------------------------------------------------------------------------- * THE FOLLOWING SPECIFICATIONS ARE SIMULATED IN THE MODEL FOR +/-15 V * SUPPLIES: * VIO = -2.05 MV, VSAT = +13.6 V, VSAT- = -14.3 V, IB = 15.2 NA, IIO = 1 NA * GBP = 0.91M HZ, PM = 49 DEG, CMRR = 87 DB, RO(AC) = 31 OHMS, ISC+ = 40 MA * ISC- = -20 MA, SR+ = 0.3 V/US, SR- = -0.33 V/US * * MODIFIED SPECS: * DC PSRR = 108 DB, AC PSRR MODELED; ISUPPLY = IBIAS + ILOAD, VSAT VARIES WITH * SUPPLY VOLTAGES, ALSO MODELS SINGLE SUPPLY APPLICATIONS; E.G. VCC+ = 5 V, * VCC- = 0 V, VSAT+ = 3 V, VSAT- = 5 MV; POWER NOT CONNECTED MODELED; POWER- * UP AND POWER-DOWN MODELED. * * THIS MODEL CAN BE USED WITH A .TEMP CARD OVER THE TEMPERATURE RANGE * OF -55 C TO 125 C. * * THE FOLLOWING PARAMETERS ARE INSENSITIVE TO TEMPERATURE CHANGES AND * ARE SIMULATED ACCURATELY BY THE MODEL: CMRR GAIN ICC PSRR SR * OVERDRIVE RECOVERY TIME OUTPUT VOLTAGE SWING IIB IIO * * THE FOLLOWING PARAMETERS ARE TEMPERATURE DEPENDENT AND ARE * SIMULATED BY THE MODEL: ISC VIO * * * CONNECTIONS: NON-INVERTING INPUT * | INVERTING INPUT * | | POSITIVE POWER SUPPLY * | | | NEGATIVE POWER SUPPLY * | | | | OUTPUT * | | | | | GND(REFERENCE) .SUBCKT LM124/TEMP 1 2 3A 4A 5 100 * * DC PSRR FIX Q1 11 16 13 LM124QA EPSRR- 16 2 TABLE {-V(4)} = (0,622U) (16,-41.45U) Q2 12 15 14 LM124QB EPSRR+ 1 15 TABLE {V(3)} = (0,552U) (16,-36.82U) * RC1 4 11 16.182K RC2 4 12 16.182K C1 11 12 5.71P RE1 13 10 467 RE2 14 10 467 GIEE 3 10 TABLE {V(3,4)} = (0,0) (2,0) (3 3.291U) CE 10 100 0.661P RE 10 100 60.77MEG * * SUPPLY CURRENT FOR 1/4 CURRENT OF IC. * PLACE AN RP IN PARALLEL FOR EACH UNUSED OPAMP ON IC. RP 3 4 80.7K * * CMRR FIX GCM1 100 83 10 100 1 RCM1 83 84 1 LCM1 84 100 15.92U GCM2 100 85 83 100 1 RCM2 85 86 1 LCM2 86 100 1.592U RCM3 86 100 10 GCM 100 21 85 100 2.63N * GA 21 100 11 12 61.797U * * PSRR VS FREQ FIX GPSRR- 21 100 88 100 1 GVP- 100 88 4 100 1 RVP- 88 100 1 LVP- 88 100 10P GPSRR+ 21 100 89 100 1 GVP+ 100 89 3 100 1 RVP+ 89 100 1 LVP+ 89 100 0.1P * R2 21 100 100K C2 21 22 10P GB 22 100 21 100 777.93 RO2 22 100 80 D1 22 31 LM124DA D2 31 22 LM124DC EC 31 100 5 100 1.0 * * I(VCC) FIX RO1 22 6 31 VIOUT 6 5 0 D5 3 7 LM124DB R5 7 100 1MEG F5 7 100 VIOUT 1 D6 8 4 LM124DB R6 8 100 1MEG F6 8 100 VIOUT 1 * * POWER OFF FIX VIVP+ 3A 3 WVP+ 3 3B VIVP+ CL1 VIVP- 4 4A WVP- 4 4B VIVP- CL1 .MODEL CL1 ISWITCH( + RON = 0.1 + ROFF = 18MEG + ION = 0.5U + IOFF = 1N + ) * * CLIPPING FIX D3 5 24 LM124DB EVC 3B 24 TABLE {V(3)} = (0,0.815) (5,2.115) (10,2.115) (16,2.235) D4 25 5 LM124DB EVE 25 4B TABLE {-V(4)} = (0,0.798) (5,1.498) (16,1.498) * .MODEL LM124DA D ( + IS = 383E-21 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL LM124DC D ( + IS = 9.907N + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL LM124DB D ( + IS = 0.8F + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL LM124QA PNP ( + IS = 0.8666F + BF = 111.7 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) .MODEL LM124QB PNP ( + IS = 0.8F + BF = 104.6 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) .ENDS LM124/TEMP *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt LM158 1 2 3 4 5 * x_lm158 1 2 3 4 5 LM124 .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt LM201A 1 2 3 4 5 6 7 * x_lm201a 1 2 3 4 5 6 7 LM101A .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt LM208 1 2 3 4 5 6 7 * x_lm208 1 2 3 4 5 6 7 LM108 .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt LM218 1 2 3 4 5 * x_lm218 1 2 3 4 5 LM118 .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt LM224 1 2 3 4 5 * x_lm224 1 2 3 4 5 LM124 .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt LM258 1 2 3 4 5 * x_lm258 1 2 3 4 5 LM124 .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt LM301A 1 2 3 4 5 6 7 * c1 11 12 8.661E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 21.22E6 -20E6 20E6 20E6 -20E6 ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 5.961E-9 iee 10 4 dc 15.14E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 5.305E3 rc2 3 12 5.305E3 re1 13 10 1.839E3 re2 14 10 1.839E3 ree 10 99 13.21E6 ro1 8 5 50 ro2 7 99 25 rp 3 4 15.11E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18 Rs=1) .model qx NPN(Is=800.0E-18 Bf=107.1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt LM308 1 2 3 4 5 6 7 * c1 11 12 5.460E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 83.87E6 -80E6 80E6 80E6 -80E6 ga 6 0 11 12 150.8E-6 gcm 0 6 10 99 1.508E-9 iee 10 4 dc 18.00E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 6.631E3 rc2 3 12 6.631E3 re1 13 10 3.756E3 re2 14 10 3.756E3 ree 10 99 11.11E6 ro1 8 5 50 ro2 7 99 25 rp 3 4 106.4E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 6 vln 0 92 dc 6 .model dx D(Is=800.0E-18 Rs=1) .model qx NPN(Is=800.0E-18 Bf=6.000E3) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt LM318 1 2 3 4 5 * c1 11 12 2.887E-12 c2 6 7 20.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 636.5E3 -600E3 600E3 600E3 -600E3 ga 6 0 11 12 12.57E-3 gcm 0 6 10 99 125.7E-9 iee 10 4 dc 1.400E-3 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 79.57 rc2 3 12 79.57 re1 13 10 42.61 re2 14 10 42.61 ree 10 99 142.8E3 ro1 8 5 50 ro2 7 99 25 rp 3 4 9.678E3 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 22 vln 0 92 dc 22 .model dx D(Is=800.0E-18 Rs=1) .model qx NPN(Is=800.0E-18 Bf=4.667E3) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt LM324 1 2 3 4 5 * c1 11 12 2.887E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 21.22E6 -20E6 20E6 20E6 -20E6 fpos a 0 vlim 1 w2 3 a vlim sw2 .model sw2 iswitch (ron=1 ion=0 ioff=-1u roff=10meg) w1 a 0 vlim sw1 .model sw1 iswitch (roff=10meg ioff=0 ion=-1u ron=1) fneg 0 b vlim -1 w3 4 b vlim sw3 .model sw3 iswitch (ron=1 ion=-1u ioff=0 roff=10meg) w4 b 0 vlim sw4 .model sw4 iswitch (roff=10meg ioff=-1u ion=0 ron=1) ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 59.61E-9 iee 3 10 dc 15.09E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 4 11 5.305E3 rc2 4 12 5.305E3 re1 13 10 1.845E3 re2 14 10 1.845E3 ree 10 99 13.25E6 ro1 8 5 50 ro2 7 99 25 rp 3 4 9.082E3 vb 9 0 dc 0 vc 3 53 dc 1.500 ve 54 4 dc 0.65 vlim 7 8 dc 0 vlp 91 0 dc 40 vln 0 92 dc 40 .model dx D(Is=800.0E-18 Rs=1) .model qx PNP(Is=800.0E-18 Bf=166.7) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt LM358 1 2 3 4 5 * x_lm358 1 2 3 4 5 LM324 .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt lm675 1 2 3 4 5 * c1 11 12 8.660E-12 c2 6 7 15.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 7.717E9 -7E9 7E9 7E9 -7E9 ga 6 0 11 12 518.4E-6 gcm 0 6 10 99 16.40E-9 iee 3 10 dc 120.4E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 4 11 1.929E3 rc2 4 12 1.929E3 re1 13 10 1.493E3 re2 14 10 1.493E3 ree 10 99 1.661E6 ro1 8 5 50.00E-3 ro2 7 99 50.00E-3 rp 3 4 2.796E3 vb 9 0 dc 0 vc 3 53 dc 4 ve 54 4 dc 4 vlim 7 8 dc 0 vlp 91 0 dc 3.000E3 vln 0 92 dc 3.000E3 .model dx D(Is=800.0E-18) .model qx PNP(Is=800.0E-18 Bf=300) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt LM709 1 2 3 4 5 6 7 x_lm709 1 2 3 4 5 6 7 uA709 .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt lm709a 1 2 3 4 5 6 7 * c1 11 12 8.660E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 716.2E3 -720E3 720E3 720E3 -720E3 ga 6 0 11 12 1.257E-3 gcm 0 6 10 99 3.974E-9 iee 10 4 dc 100.2E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 795.8 rc2 3 12 795.8 re1 13 10 277.9 re2 14 10 277.9 ree 10 99 1.996E6 ro1 8 5 50 ro2 7 99 50 rp 3 4 12.50E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 42 vln 0 92 dc 42 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=500) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt lm709c 1 2 3 4 5 6 7 * c1 11 12 8.660E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 716.2E3 -720E3 720E3 720E3 -720E3 ga 6 0 11 12 1.257E-3 gcm 0 6 10 99 39.74E-9 iee 10 4 dc 100.6E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 795.8 rc2 3 12 795.8 re1 13 10 276.8 re2 14 10 276.8 ree 10 99 1.988E6 ro1 8 5 50 ro2 7 99 50 rp 3 4 11.69E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 42 vln 0 92 dc 42 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=166.7) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt LM741 1 2 3 4 5 * x_lm741 1 2 3 4 5 uA741 .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt mc1458 1 2 3 4 5 * c1 11 12 8.660E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 42.44E6 -42E6 42E6 42E6 -42E6 ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 5.961E-9 iee 10 4 dc 15.16E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 5.305E3 rc2 3 12 5.305E3 re1 13 10 1.837E3 re2 14 10 1.837E3 ree 10 99 13.19E6 ro1 8 5 25 ro2 7 99 25 rp 3 4 18.16E3 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 20 vln 0 92 dc 20 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=93.75) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt mc1458c 1 2 3 4 5 * c1 11 12 8.660E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 42.44E6 -42E6 42E6 42E6 -42E6 ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 5.961E-9 iee 10 4 dc 15.16E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 5.305E3 rc2 3 12 5.305E3 re1 13 10 1.837E3 re2 14 10 1.837E3 ree 10 99 13.19E6 ro1 8 5 25 ro2 7 99 25 rp 3 4 18.16E3 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 20 vln 0 92 dc 20 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=93.75) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt mc1458s 1 2 3 4 5 * c1 11 12 8.660E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 42.44E6 -42E6 42E6 42E6 -42E6 ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 5.961E-9 iee 10 4 dc 600.4E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 5.305E3 rc2 3 12 5.305E3 re1 13 10 5.215E3 re2 14 10 5.215E3 ree 10 99 333.1E3 ro1 8 5 25 ro2 7 99 25 rp 3 4 28.13E3 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 20 vln 0 92 dc 20 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=1.500E3) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt mc1558 1 2 3 4 5 * c1 11 12 8.660E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 42.44E6 -42E6 42E6 42E6 -42E6 ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 5.961E-9 iee 10 4 dc 15.16E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 5.305E3 rc2 3 12 5.305E3 re1 13 10 1.837E3 re2 14 10 1.837E3 ree 10 99 13.19E6 ro1 8 5 25 ro2 7 99 25 rp 3 4 18.16E3 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 20 vln 0 92 dc 20 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=93.75) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt mc1558s 1 2 3 4 5 * c1 11 12 8.660E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 42.44E6 -42E6 42E6 42E6 -42E6 ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 5.961E-9 iee 10 4 dc 600.4E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 5.305E3 rc2 3 12 5.305E3 re1 13 10 5.215E3 re2 14 10 5.215E3 ree 10 99 333.1E3 ro1 8 5 25 ro2 7 99 25 rp 3 4 28.13E3 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 20 vln 0 92 dc 20 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=1.500E3) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt mc1709 1 2 3 4 5 6 7 * c1 11 12 8.660E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 716.2E3 -720E3 720E3 720E3 -720E3 ga 6 0 11 12 1.257E-3 gcm 0 6 10 99 39.74E-9 iee 10 4 dc 100.4E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 795.8 rc2 3 12 795.8 re1 13 10 277.4 re2 14 10 277.4 ree 10 99 1.992E6 ro1 8 5 50 ro2 7 99 50 rp 3 4 11.69E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 40 vln 0 92 dc 40 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=250) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt mc1709a 1 2 3 4 5 6 7 * c1 11 12 8.660E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 716.2E3 -720E3 720E3 720E3 -720E3 ga 6 0 11 12 1.257E-3 gcm 0 6 10 99 3.974E-9 iee 10 4 dc 100.2E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 795.8 rc2 3 12 795.8 re1 13 10 277.9 re2 14 10 277.9 ree 10 99 1.996E6 ro1 8 5 50 ro2 7 99 50 rp 3 4 12.50E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 40 vln 0 92 dc 40 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=500) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt mc1709c 1 2 3 4 5 6 7 * c1 11 12 8.660E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 716.2E3 -720E3 720E3 720E3 -720E3 ga 6 0 11 12 1.257E-3 gcm 0 6 10 99 39.74E-9 iee 10 4 dc 100.6E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 795.8 rc2 3 12 795.8 re1 13 10 276.8 re2 14 10 276.8 ree 10 99 1.988E6 ro1 8 5 50 ro2 7 99 50 rp 3 4 11.69E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 40 vln 0 92 dc 40 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=166.7) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt mc1741 1 2 3 4 5 * c1 11 12 8.660E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 42.44E6 -42E6 42E6 42E6 -42E6 ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 5.961E-9 iee 10 4 dc 15.16E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 5.305E3 rc2 3 12 5.305E3 re1 13 10 1.837E3 re2 14 10 1.837E3 ree 10 99 13.19E6 ro1 8 5 25 ro2 7 99 25 rp 3 4 18.16E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 20 vln 0 92 dc 20 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=93.75) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt mc33076 1 2 3 4 5 * c1 11 12 11.72E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 6.063E6 -6E6 6E6 6E6 -6E6 ga 6 0 11 12 659.7E-6 gcm 0 6 10 99 20.86E-9 iee 3 10 dc 78.20E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 4 11 1.516E3 rc2 4 12 1.516E3 re1 13 10 850.4 re2 14 10 850.4 ree 10 99 2.558E6 ro1 8 5 50 ro2 7 99 50 rp 3 4 10.89E3 vb 9 0 dc 0 vc 3 53 dc 1.200 ve 54 4 dc 1.200 vlim 7 8 dc 0 vlp 91 0 dc 250 vln 0 92 dc 250 .model dx D(Is=800.0E-18) .model qx PNP(Is=800.0E-18 Bf=390) .ends *$ * * MANUFACTURERS PART NO. = SMX10114 * SUBTYPE: OP_AMP * THIS FILE CONTAINS A PRE-RAD MODEL. IT HAS BEEN VERIFIED FOR USE WITH A * .TEMP CARD. COMMENTS CONCERNING VALIDITY ARE IN THE SECTION PRECEEDING * THE MODEL. * * THIS MODEL CAN BE USED WITH A .TEMP CARD OVER THE TEMPERATURE RANGE * OF -55 C TO 125 C. * * THE FOLLOWING PARAMETERS ARE INSENSITIVE TO TEMPERATURE CHANGES AND * ARE SIMULATED ACCURATELY BY THE MODEL: CMRR GAIN PSRR OUTPUT * VOLTAGE SWING * * THE FOLLOWING PARAMETERS ARE TEMPERATURE DEPENDENT BUT ARE NOT * SIMULATED BY THE MODEL: IIB ISC TOR SR ICC * * ALL ARE WITHIN THE PRODUCT SPEC LIMITS OVER TEMPERATURE. * * THIS MODEL DOES NOT SIMULATE VOS (INPUT OFFSET VOLTAGE) OR IOS (INPUT * OFFSET CURRENT). IT DOES CORRECTLY SIMULATE PHASE MARGIN, UNITY GAIN * BANDWIDTH, CMRR, MAX. POSITIVE AND NEGATIVE OUTPUT VOLTAGE SWING (ONLY * WITH SYMMETRIC POWER SUPPLIES), POWER DISSIPATION, AND FREQUENCY * RESPONSE(PHASE LAG ABOVE 100HZ & GAIN ABOVE 10HZ). * * * * * CONNECTIONS: NON-INVERTING INPUT * | INVERTING INPUT * | | POSITIVE POWER SUPPLY * | | | NEGATIVE POWER SUPPLY * | | | | OUTPUT * | | | | | GND(REFERENCE) .SUBCKT MPR155 1 2 3 4 5 100 * C1 11 12 4.502E-12 C2 6 7 10.00E-12 CSS 10 99 2.727E-12 DC 5 53 DX DE 54 5 DX DLP 90 91 DX DLN 92 90 DX DP 4 3 DX EGND 99 100 POLY(2) (3,100) (4,100) 0 .5 .5 FB 7 99 POLY(5) VB VC VE VLP VLN 0 2.809E6 -3E6 3E6 3E6 -3E6 GA 6 100 11 12 565.5E-6 GCM 100 6 10 99 5.655E-9 ISS 3 10 DC 280.0E-6 HLIM 90 100 VLIM 1K J1 11 2 10 JX J2 12 1 10 JX R2 6 9 100.0E3 RD1 4 11 1.768E3 RD2 4 12 1.768E3 RO1 8 5 50 RO2 7 99 25 RP 3 4 7.500E3 RSS 10 99 714.3E3 VB 9 100 DC 0 VC 3 53 DC 2 VE 54 4 DC 2.500 VLIM 7 8 DC 0 VLP 91 100 DC 45 VLN 100 92 DC 45 .MODEL DX D( + IS = 800.0E-18 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ) .MODEL JX PJF( + VTO = -1 + BETA = 2.284E-3 + LAMBDA = 0 + RD = 0 + RS = 0 + CGS = 0 + CGD = 0 + PB = 1 + IS = 5.000E-12 + KF = 0 + AF = 1 + FC = .5 + ) .ENDS MPR155 *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt OP-07 1 2 3 4 5 * c1 11 12 8.661E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 221.0E6 -200E6 200E6 200E6 -200E6 ga 6 0 11 12 113.1E-6 gcm 0 6 10 99 56.69E-12 iee 10 4 dc 6.002E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 8.841E3 rc2 3 12 8.841E3 re1 13 10 219.4 re2 14 10 219.4 ree 10 99 33.32E6 ro1 8 5 40 ro2 7 99 20 rp 3 4 12.03E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 30 vln 0 92 dc 30 .model dx D(Is=800.0E-18 Rs=1) .model qx NPN(Is=800.0E-18 Bf=3.000E3) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt OP-27 1 2 3 4 5 * c1 11 12 5.460E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 39.78E6 -40E6 40E6 40E6 -40E6 ga 6 0 11 12 1.508E-3 gcm 0 6 10 99 755.9E-12 iee 10 4 dc 84.02E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 663.1 rc2 3 12 663.1 re1 13 10 47.24 re2 14 10 47.24 ree 10 99 2.380E6 ro1 8 5 40 ro2 7 99 30 rp 3 4 9.233E3 vb 9 0 dc 0 vc 3 53 dc 1.200 ve 54 4 dc 1.200 vlim 7 8 dc 0 vlp 91 0 dc 40 vln 0 92 dc 40 .model dx D(Is=800.0E-18 Rs=1) .model qx NPN(Is=800.0E-18 Bf=4.200E3) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt op-471a 1 2 3 4 5 * c1 11 12 9.741E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 9.174E9 -9E9 9E9 9E9 -9E9 ga 6 0 11 12 1.225E-3 gcm 0 6 10 99 1.225E-9 iee 10 4 dc 240.0E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 816.2 rc2 3 12 816.2 re1 13 10 600.6 re2 14 10 600.6 ree 10 99 833.2E3 ro1 8 5 50.00E-3 ro2 7 99 50.00E-3 rp 3 4 14.56E3 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=7.500E3) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt op-471e 1 2 3 4 5 * c1 11 12 9.741E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 9.174E9 -9E9 9E9 9E9 -9E9 ga 6 0 11 12 1.225E-3 gcm 0 6 10 99 2.180E-9 iee 10 4 dc 240.0E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 816.2 rc2 3 12 816.2 re1 13 10 600.6 re2 14 10 600.6 ree 10 99 833.2E3 ro1 8 5 50.00E-3 ro2 7 99 50.00E-3 rp 3 4 14.56E3 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=9.231E3) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt OP-471F 1 2 3 4 5 * c1 11 12 9.741E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 9.174E9 -9E9 9E9 9E9 -9E9 ga 6 0 11 12 1.225E-3 gcm 0 6 10 99 3.877E-9 iee 10 4 dc 240.0E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 816.2 rc2 3 12 816.2 re1 13 10 600.6 re2 14 10 600.6 ree 10 99 833.2E3 ro1 8 5 50.00E-3 ro2 7 99 50.00E-3 rp 3 4 14.56E3 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=8.000E3) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt OP-471G 1 2 3 4 5 * c1 11 12 9.741E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 9.174E9 -9E9 9E9 9E9 -9E9 ga 6 0 11 12 1.225E-3 gcm 0 6 10 99 3.877E-9 iee 10 4 dc 240.1E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 816.2 rc2 3 12 816.2 re1 13 10 600.4 re2 14 10 600.4 ree 10 99 833.1E3 ro1 8 5 50.00E-3 ro2 7 99 50.00E-3 rp 3 4 14.56E3 vb 9 0 dc 0 vc 3 53 dc 2 ve 54 4 dc 2 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=3.000E3) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt OPA3581J 1 2 3 4 5 * c1 11 12 2.887E-12 c2 6 7 10.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 5.029E9 -5E9 5E9 5E9 -5E9 ga 6 0 11 12 251.3E-6 gcm 0 6 10 99 795.3E-12 iss 10 4 dc 200.0E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 3 11 3.979E3 rd2 3 12 3.979E3 ro1 8 5 .25 ro2 7 99 .25 rp 3 4 16.00E3 rss 10 99 1.000E6 vb 9 0 dc 0 vc 3 53 dc 5 ve 54 4 dc 5 vlim 7 8 dc 0 vlp 91 0 dc 50 vln 0 92 dc 50 .model dx D(Is=800.0E-18) .model jx NJF(Is=10.00E-12 Beta=315.8E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt OPA3582J 1 2 3 4 5 * c1 11 12 2.887E-12 c2 6 7 10.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 15.92E9 -16E9 16E9 16E9 -16E9 ga 6 0 11 12 251.3E-6 gcm 0 6 10 99 795.3E-12 iss 10 4 dc 200.0E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 3 11 3.979E3 rd2 3 12 3.979E3 ro1 8 5 .25 ro2 7 99 .25 rp 3 4 21.54E3 rss 10 99 1.000E6 vb 9 0 dc 0 vc 3 53 dc 5 ve 54 4 dc 5 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18) .model jx NJF(Is=10.00E-12 Beta=315.8E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt opa3583 1 2 3 4 5 * c1 11 12 2.887E-12 c2 6 7 10.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 12.73E9 -13E9 13E9 13E9 -13E9 ga 6 0 11 12 251.3E-6 gcm 0 6 10 99 795.3E-12 iss 10 4 dc 300.0E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 3 11 3.979E3 rd2 3 12 3.979E3 ro1 8 5 .25 ro2 7 99 .25 rp 3 4 35.29E3 rss 10 99 666.7E3 vb 9 0 dc 0 vc 3 53 dc 10 ve 54 4 dc 10 vlim 7 8 dc 0 vlp 91 0 dc 100 vln 0 92 dc 100 .model dx D(Is=800.0E-18) .model jx NJF(Is=10.00E-12 Beta=210.6E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt OPA3584J 1 2 3 4 5 * c1 11 12 8.727E-15 c2 6 7 10.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 169.8E9 -170E9 170E9 170E9 -170E9 ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 596.5E-12 iss 10 4 dc 1.500E-3 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 3 11 5.305E3 rd2 3 12 5.305E3 ro1 8 5 .25 ro2 7 99 .25 rp 3 4 46.15E3 rss 10 99 133.3E3 vb 9 0 dc 0 vc 3 53 dc 5 ve 54 4 dc 5 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18) .model jx NJF(Is=10.00E-12 Beta=23.69E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt pm-741 1 2 3 4 5 * c1 11 12 8.660E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 42.44E6 -42E6 42E6 42E6 -42E6 ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 5.961E-9 iee 10 4 dc 15.16E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 5.305E3 rc2 3 12 5.305E3 re1 13 10 1.837E3 re2 14 10 1.837E3 ree 10 99 13.19E6 ro1 8 5 25 ro2 7 99 25 rp 3 4 18.16E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 20 vln 0 92 dc 20 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=93.75) .ends *$ * * MANUFACTURERS PART NO. = SMX10114 (TEXAS INSTRUMENTS) * SUBTYPE: OP_AMP * THIS FILE CONTAINS A PRE-RAD MODEL WHICH HAS BEEN VERIFIED * FOR USE WITH A .TEMP CARD. COMMENTS CONCERNING VALIDITY ARE IN THE * SECTION PRECEDING THE MODEL. * * IT MODELS POWER-UP, POWER-DOWN, AND POWER OFF CONDITIONS, * SINGLE SUPPLY APPLICATIONS, AC PSRR, DC PSRR, AC CMRR, VSAT, IIB, IIO, * VIO, ISC, SR, PM, GBP, ICC, AND RO(AC). THE VOLTAGE CLAMPING PIN HAS * BEEN MODELED. IT HAS BEEN COMMENTED OUT WITH THE * SYMBOL BECAUSE IT * CAN CAUSE CONVERGENCE PROBLEMS. TO ADD TO THE MODEL ADD PIN 9 ON THE * .SUBCKT LINE AND REMOVE THE * FROM THE LINES DEFINING THE CLAMP PIN IN * THE MODEL. IF IT CAUSES A CONVERGENCE PROBLEM USE ITL4=300 IN THE * .OPTION STATEMENT. * * *----------------------------------------------------------------------------- * THE FOLLOWING SPECIFICATIONS ARE SIMULATED IN THE MODEL FOR +/-15 V * SUPPLIES: * VIO = 1.13 MV, VSAT = +13.54 V, VSAT- = -13.5 V, IB = 94.5 PA, IIO = 49 PA * GBP = 9.5MHZ, PM = 55.3 DEG, CMRR = 81.2 DB, RO(AC) = 19 OHMS, ISC+ = 44 MA * ISC- = -28 MA, SR+ = 22 V/US, SR- = -61.5 V/US * * MODIFIED SPECS: * DC PSRR = 100 DB, AC PSRR MODELED; ISUPPLY = IBIAS + ILOAD, VSAT VARIES WITH * SUPPLY VOLTAGES, ALSO MODELS SINGLE SUPPLY APPLICATIONS; E.G. VCC+ = 5 V, * VCC- = 0 V, VSAT+ = 3 V, VSAT- = 5 MV; POWER NOT CONNECTED MODELED; POWER- * UP AND POWER-DOWN MODELED. ERRORS IN IB AND IIO DUE TO GMIN ARE FIXED. * * THIS MODEL CAN BE USED WITH A .TEMP CARD OVER THE TEMPERATURE RANGE * OF -55 C TO 125 C. * * THE FOLLOWING PARAMETERS ARE INSENSITIVE TO TEMPERATURE CHANGES AND * ARE SIMULATED ACCURATELY BY THE MODEL: CMRR GAIN ICC PSRR SR * OVERDRIVE RECOVERY TIME OUTPUT VOLTAGE SWING IIB IIO * * THE FOLLOWING PARAMETERS ARE TEMPERATURE DEPENDENT AND ARE * SIMULATED BY THE MODEL: ISC VIO * * * CONNECTIONS: NON-INVERTING INPUT * | INVERTING INPUT * | | POSITIVE POWER SUPPLY * | | | NEGATIVE POWER SUPPLY * | | | | OUTPUT * | | | | | VCLAMP * | | | | | | GND(REFERENCE) .SUBCKT SMX10114 1 2 3A 4A 5 100 * * DC PSRR FIX J1 11 16 13 SMX10114QA EPSRR- 16 2 TABLE {-V(4)} = (0,150U) (20,-50U) J2 12 15 14 SMX10114QB EPSRR+ 1 15 TABLE {V(3)} = (0,150U) (20,-50U) * * GMIN FIX * GMIN = 1E-12, IF CHANGED MAKE RGI = -1/GMIN RGS1 13 16 -1T RGD1 16 11 -1T RGS2 14 15 -1T RGD2 12 15 -1T * RC1 4 11 1.67K RC2 4 12 1.67K C1 11 12 4.219P RE1 13 10 667 RE2 14 10 667 GIEE 3 10 TABLE {V(3,4)} = (0,0) (2,0) (3,497U) CE 10 100 12.59P RE 10 100 402.4K RP 3 4 8.564K * * CMRR FIX GCM1 100 83 10 100 1 RCM1 83 84 1 LCM1 84 100 1.592U GCM2 100 85 83 100 1 RCM2 85 86 1 LCM2 86 100 0.1592U RCM3 86 100 10 GCM 100 21 85 100 52.15N * GA 21 100 11 12 598.8U * * PSRR VS FREQ FIX GPSRR- 21 100 88 100 1 GVP- 100 88 4 100 1 RVP- 88 100 1 LVP- 88 100 0.1P GPSRR+ 21 100 89 100 1 GVP+ 100 89 3 100 1 RVP+ 89 100 1 LVP+ 89 100 10P * R2 21 100 100K C2 21 22 10P GB 22 100 21 100 38.8 * * VOLTAGE CLAMP *RCL 9 100 100K *VICL1 9 53 *VICL2 54 53 *RVOUT 54 55 10K *EOUT 55 100 5 100 1 *WCL3 54 56 VICL3 CL *RX 56 100 100K *ICL+ 56 100 4M *WCL4 54 57 VICL4 CL *RY 57 100 100K *ICL- 100 57 4M *ECL1 47 100 9 100 1 *WCL1 47 48 VICL1 CL *D8 48 49 SMX10114DD *.MODEL SMX10114DD D (IS=1.075U) *VICL3 49 6 *ECL2 52 100 9 100 1 *WCL2 52 51 VICL2 CL *D9 50 51 SMX10114DE *.MODEL SMX10114DE D (IS=15.28N) *VICL4 6 50 *.MODEL CL ISWITCH (ION=2U IOFF=0 RON=1 ROFF=0.1MEG) * * END OF VCLAMP SECTION RO2 22 100 31 D1 22 31 SMX10114DA D2 31 22 SMX10114DC EC 31 100 5 100 1.0 * * I(VCC) FIX RO1 22 6 19 VIOUT 6 5 0 D5 3 7 SMX10114DB R5 7 100 1MEG F5 7 100 VIOUT 1 D6 8 4 SMX10114DB R6 8 100 1MEG F6 8 100 VIOUT 1 * * POWER OFF FIX VIVP+ 3A 3 WVP+ 3 3B VIVP+ CL1 VIVP- 4 4A WVP- 4 4B VIVP- CL1 .MODEL CL1 ISWITCH( + RON = 0.1 + ROFF = 0.19MEG + ION = 0.5U + IOFF = 1N + ) * * CLIPPING FIX D3 5 24 SMX10114DB EVC 3B 24 TABLE {V(3)} = (0,0.818) (5,2.258) (10,2.193) (15,2.268) D4 25 5 SMX10114DB EVE 25 4B TABLE {-V(4)} = (0,0.806) (5,2.186) (10,2.271) (15,2.286) * .MODEL SMX10114DA D ( + IS = 13.11E-12 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL SMX10114DC D ( + IS = 2.598E-6 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL SMX10114DB D ( + IS = 0.8F + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL SMX10114QA PJF ( + VTO = -1 + BETA = 1M + LAMBDA = 0 + RD = 0 + RS = 0 + CGS = 0 + CGD = 0 + PB = 1 + IS = 35E-12 + KF = 0 + AF = 1 + FC = .5 + N = 1 + ISR = 0 + NR = 2 + ALPHA = 0 + VK = 0 + M = .5 + VTOTC = 0 + BETATCE = 0 + XTI = 3 + ) .MODEL SMX10114QB PJF ( + VTO = -1.00116 + BETA = 1M + LAMBDA = 0 + RD = 0 + RS = 0 + CGS = 0 + CGD = 0 + PB = 1 + IS = 59.5E-12 + KF = 0 + AF = 1 + FC = .5 + N = 1 + ISR = 0 + NR = 2 + ALPHA = 0 + VK = 0 + M = .5 + VTOTC = 0 + BETATCE = 0 + XTI = 3 + ) .ENDS SMX10114 *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt TL082 1 2 3 4 5 * c1 11 12 2.412E-12 c2 6 7 18.00E-12 css 10 99 5.400E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 3.467E6 -3E6 3E6 3E6 -3E6 ga 6 0 11 12 339.3E-6 gcm 0 6 10 99 17.01E-9 iss 10 4 dc 234.0E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 3 11 2.947E3 rd2 3 12 2.947E3 ro1 8 5 50 ro2 7 99 170 rp 3 4 20.00E3 rss 10 99 854.7E3 vb 9 0 dc 0 vc 3 53 dc 1.500 ve 54 4 dc 1.500 vlim 7 8 dc 0 vlp 91 0 dc 50 vln 0 92 dc 50 .model dx D(Is=800.0E-18 Rs=1) .model jx NJF(Is=2.500E-12 Beta=984.2E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt TL084 1 2 3 4 5 * x_tl084 1 2 3 4 5 TL082 .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt uA709 1 2 3 4 5 6 7 * c1 11 12 28.87E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 14.32E3 -10E3 10E3 10E3 -10E3 ga 6 0 11 12 31.42E-3 gcm 0 6 10 99 993.6E-9 iee 10 4 dc 2.000E-3 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 31.83 rc2 3 12 31.83 re1 13 10 5.962 re2 14 10 5.962 ree 10 99 99.98E3 ro1 8 5 50 ro2 7 99 100 rp 3 4 45.01E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 50 vln 0 92 dc 50 .model dx D(Is=800.0E-18 Rs=1) .model qx NPN(Is=800.0E-18 Bf=5.000E3) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt ua709a 1 2 3 4 5 6 7 * c1 11 12 57.74E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 477.5E3 -480E3 480E3 480E3 -480E3 ga 6 0 11 12 1.257E-3 gcm 0 6 10 99 3.974E-9 iee 10 4 dc 100.2E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 795.8 rc2 3 12 795.8 re1 13 10 277.9 re2 14 10 277.9 ree 10 99 1.996E6 ro1 8 5 75 ro2 7 99 75 rp 3 4 12.50E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 100 vln 0 92 dc 100 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=500) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | compensation * | | | | | / \ .subckt ua709c 1 2 3 4 5 6 7 * c1 11 12 57.74E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 477.5E3 -480E3 480E3 480E3 -480E3 ga 6 0 11 12 1.257E-3 gcm 0 6 10 99 39.74E-9 iee 10 4 dc 100.6E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 795.8 rc2 3 12 795.8 re1 13 10 276.8 re2 14 10 276.8 ree 10 99 1.988E6 ro1 8 5 75 ro2 7 99 75 rp 3 4 11.69E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 100 vln 0 92 dc 100 .model dx D(Is=800.0E-18) .model qx NPN(Is=800.0E-18 Bf=166.7) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt uA741 1 2 3 4 5 * c1 11 12 8.661E-12 c2 6 7 30.00E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 10.61E6 -10E6 10E6 10E6 -10E6 ga 6 0 11 12 188.5E-6 gcm 0 6 10 99 5.961E-9 iee 10 4 dc 15.16E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 3 11 5.305E3 rc2 3 12 5.305E3 re1 13 10 1.836E3 re2 14 10 1.836E3 ree 10 99 13.19E6 ro1 8 5 50 ro2 7 99 100 rp 3 4 18.16E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 40 vln 0 92 dc 40 .model dx D(Is=800.0E-18 Rs=1) .model qx NPN(Is=800.0E-18 Bf=93.75) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt ua771 1 2 3 4 5 * c1 11 12 3.750E-12 c2 6 7 7.500E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 55.92E6 -56E6 56E6 56E6 -56E6 ga 6 0 11 12 141.4E-6 gcm 0 6 10 99 44.71E-9 iss 3 10 dc 97.50E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 4 11 7.074E3 rd2 4 12 7.074E3 ro1 8 5 60 ro2 7 99 40 rp 3 4 10.00E-3 rss 10 99 2.051E6 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18) .model jx PJF(Is=25.00E-12 Beta=205.0E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt ua771a 1 2 3 4 5 * c1 11 12 3.750E-12 c2 6 7 7.500E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 55.92E6 -56E6 56E6 56E6 -56E6 ga 6 0 11 12 141.4E-6 gcm 0 6 10 99 14.14E-9 iss 3 10 dc 97.50E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 4 11 7.074E3 rd2 4 12 7.074E3 ro1 8 5 60 ro2 7 99 40 rp 3 4 10.00E-3 rss 10 99 2.051E6 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18) .model jx PJF(Is=25.00E-12 Beta=205.0E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt ua772 1 2 3 4 5 * c1 11 12 3.750E-12 c2 6 7 7.500E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 29.82E6 -30E6 30E6 30E6 -30E6 ga 6 0 11 12 141.4E-6 gcm 0 6 10 99 44.71E-9 iss 3 10 dc 97.50E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 4 11 7.074E3 rd2 4 12 7.074E3 ro1 8 5 75 ro2 7 99 75 rp 3 4 10.00E-3 rss 10 99 2.051E6 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18) .model jx PJF(Is=25.00E-12 Beta=205.0E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt ua772a 1 2 3 4 5 * c1 11 12 3.750E-12 c2 6 7 7.500E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 55.92E6 -56E6 56E6 56E6 -56E6 ga 6 0 11 12 141.4E-6 gcm 0 6 10 99 14.14E-9 iss 3 10 dc 97.50E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 4 11 7.074E3 rd2 4 12 7.074E3 ro1 8 5 60 ro2 7 99 40 rp 3 4 10.00E-3 rss 10 99 2.051E6 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18) .model jx PJF(Is=25.00E-12 Beta=205.0E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt ua772l 1 2 3 4 5 * c1 11 12 3.750E-12 c2 6 7 7.500E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 55.92E6 -56E6 56E6 56E6 -56E6 ga 6 0 11 12 141.4E-6 gcm 0 6 10 99 44.71E-9 iss 3 10 dc 97.50E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 4 11 7.074E3 rd2 4 12 7.074E3 ro1 8 5 60 ro2 7 99 40 rp 3 4 10.00E-3 rss 10 99 2.051E6 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 25 vln 0 92 dc 25 .model dx D(Is=800.0E-18) .model jx PJF(Is=25.00E-12 Beta=205.0E-6 Vto=-1) .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt ua798 1 2 3 4 5 * c1 11 12 8.660E-12 c2 6 7 5.000E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 24.49E6 -24E6 24E6 24E6 -24E6 ga 6 0 11 12 31.42E-6 gcm 0 6 10 99 993.5E-12 iee 3 10 dc 3.100E-6 hlim 90 0 vlim 1K q1 11 2 13 qx q2 12 1 14 qx r2 6 9 100.0E3 rc1 4 11 31.83E3 rc2 4 12 31.83E3 re1 13 10 14.12E3 re2 14 10 14.12E3 ree 10 99 64.52E6 ro1 8 5 270 ro2 7 99 260 rp 3 4 15.02E3 vb 9 0 dc 0 vc 3 53 dc 1 ve 54 4 dc 1 vlim 7 8 dc 0 vlp 91 0 dc 70 vln 0 92 dc 70 .model dx D(Is=800.0E-18) .model qx PNP(Is=800.0E-18 Bf=30) .ends *$ *----------------------------------------------------------------------------- *** Voltage comparators * The parameters in this comparator library were derived from data sheets for * each parts. The macromodel used was developed by MicroSim Corporation, and * is produced by the "Parts" option to PSpice. * * Although we do not use it, another comparator macro model is described in: * * An Integrated-Circuit Comparator Macromodel * by Ian Getreu, Andreas Hadiwidjaja, and Johan Brinch * IEEE Journal of Solid-State Circuits, Vol. SC-11, no. 6, Dec. 1976 * * This reference covers the considerations that go into duplicating the * behavior of voltage comparators. * * The comparators are modelled at room temperature. The macro model does not * track changes with temperature. This library file contains models for * nominal, not worst case, devices. *$ * *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | open collector output * | | | | | output ground * | | | | | | .subckt LM111 1 2 3 4 5 6 * f1 9 3 v1 1 iee 3 7 dc 100.0E-6 vi1 21 1 dc .45 vi2 22 2 dc .45 q1 9 21 7 qin q2 8 22 7 qin q3 9 8 4 qmo q4 8 8 4 qmi .model qin PNP(Is=800.0E-18 Bf=833.3) .model qmi NPN(Is=800.0E-18 Bf=1002) .model qmo NPN(Is=800.0E-18 Bf=1000 Cjc=1E-15 Tr=118.8E-9) e1 10 6 9 4 1 v1 10 11 dc 0 q5 5 11 6 qoc .model qoc NPN(Is=800.0E-18 Bf=34.49E3 Cjc=1E-15 Tf=364.6E-12 Tr=79.34E-9) dp 4 3 dx rp 3 4 6.122E3 .model dx D(Is=800.0E-18 Rs=1) * .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | open collector output * | | | | | output ground * | | | | | | .subckt LM119 1 2 3 4 5 6 * f1 3 9 v1 1 iee 7 4 dc 100.0E-6 q1 9 2 7 qin q2 8 1 7 qin q3 9 8 3 qmo q4 8 8 3 qmi .model qin NPN(Is=800.0E-18 Bf=333.3) .model qmi PNP(Is=800.0E-18 Bf=1002) .model qmo PNP(Is=800.0E-18 Bf=1000 Cjc=1E-15 Tr=59.42E-9) e1 10 6 3 9 1 v1 10 11 dc 0 q5 5 11 6 qoc .model qoc NPN(Is=800.0E-18 Bf=41.38E3 Cjc=1E-15 Tf=23.91E-12 Tr=24.01E-9) dp 4 3 dx rp 3 4 5.556E3 .model dx D(Is=800.0E-18 Rs=1) * .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | open collector output * | | | | | .subckt LM139 1 2 3 4 5 * f1 9 3 v1 1 iee 3 7 dc 100.0E-6 vi1 21 1 dc .75 vi2 22 2 dc .75 q1 9 21 7 qin q2 8 22 7 qin q3 9 8 4 qmo q4 8 8 4 qmi .model qin PNP(Is=800.0E-18 Bf=2.000E3) .model qmi NPN(Is=800.0E-18 Bf=1002) .model qmo NPN(Is=800.0E-18 Bf=1000 Cjc=1E-15 Tr=475.4E-9) e1 10 4 9 4 1 v1 10 11 dc 0 q5 5 11 4 qoc .model qoc NPN(Is=800.0E-18 Bf=20.69E3 Cjc=1E-15 Tf=3.540E-9 Tr=472.8E-9) dp 4 3 dx rp 3 4 37.50E3 .model dx D(Is=800.0E-18 Rs=1) * .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | open collector output * | | | | | .subckt LM193 1 2 3 4 5 * x_lm193 1 2 3 4 5 LM139 * * the LM193 is identical to the LM139, but in a different package * .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | open collector output * | | | | | output ground * | | | | | | .subckt LM211 1 2 3 4 5 6 * x_lm211 1 2 3 4 5 6 LM111 * * the LM211 is identical to the LM111, but has a more limited temp. range * .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | open collector output * | | | | | output ground * | | | | | | .subckt LM219 1 2 3 4 5 6 * x_lm219 1 2 3 4 5 6 LM119 * * the LM219 is identical to the LM119, but has a more limited temp. range * .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | open collector output * | | | | | .subckt LM239 1 2 3 4 5 * x_lm239 1 2 3 4 5 LM139 * * the LM239 is identical to the LM139, but has a more limited temp. range * .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | open collector output * | | | | | .subckt LM293 1 2 3 4 5 * x_lm293 1 2 3 4 5 LM139 * * the LM293 is identical to the LM239, but in a different package * .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | open collector output * | | | | | output ground * | | | | | | .subckt LM311 1 2 3 4 5 6 * f1 9 3 v1 1 iee 3 7 dc 100.0E-6 vi1 21 1 dc .45 vi2 22 2 dc .45 q1 9 21 7 qin q2 8 22 7 qin q3 9 8 4 qmo q4 8 8 4 qmi .model qin PNP(Is=800.0E-18 Bf=500) .model qmi NPN(Is=800.0E-18 Bf=1002) .model qmo NPN(Is=800.0E-18 Bf=1000 Cjc=1E-15 Tr=124.2E-9) e1 10 6 9 4 1 v1 10 11 dc 0 q5 5 11 6 qoc .model qoc NPN(Is=800.0E-18 Bf=206.9E3 Cjc=1E-15 Tf=7.855E-12 Tr=83.83E-9) dp 4 3 dx rp 3 4 7.087E3 .model dx D(Is=800.0E-18) * .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | open collector output * | | | | | output ground * | | | | | | .subckt LM319 1 2 3 4 5 6 * x_lm319 1 2 3 4 5 6 LM119 * * the LM319 is identical to the LM119, but has a more limited temp. range * .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | open collector output * | | | | | .subckt LM339 1 2 3 4 5 * x_lm339 1 2 3 4 5 LM139 * * the LM339 is identical to the LM139, but has a more limited temp. range * .ends *$ * *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | open collector output * | | | | | .subckt LM393 1 2 3 4 5 * x_lm393 1 2 3 4 5 LM139 * * the LM393 is identical to the LM339, but in a different package * .ends *$ *----------------------------------------------------------------------------- * connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | open collector output * | | | | | .subckt LM3302 1 2 3 4 5 * x_lm3302 1 2 3 4 5 LM139 * * the LM3302 is identical to the LM139, but has a more limited temp. range * .ends *$ *----------------------------------------------------------------------------- *** Voltage regulators (positive) .SUBCKT x_LM78XX Input Output Ground PARAMS: + Av_feedback=1665, R1_Value=1020 * * SERIES 3-TERMINAL POSITIVE REGULATOR * * Note: This regulator is based on the LM78XX series of * regulators (also the LM140 and LM340). The model * will cause some current to flow to Node 0 which * is not part of the actual voltage regulator circuit. * * Band-gap voltage source: * * The source is off when Vin<3V and fully on when Vin>3.7V. * Line regulation and ripple rejection) are set with * Rreg= 0.5 * dVin/dVbg. The temperature dependence of this * circuit is a quadratic fit to the following points: * * T Vbg(T)/Vbg(nom) * --- --------------- * 0 .999 * 37.5 1 * 125 .990 * * The temperature coefficient of Rbg is set to 2 * the band gap * temperature coefficient. Tnom is assumed to be 27 deg. C and * Vnom is 3.7V * Vbg 100 0 DC 7.4V Sbg (100,101),(Input,Ground) Sbg1 Rbg 101 0 1 TC=1.612E-5,-2.255E-6 Ebg (102,0),(Input,Ground) 1 Rreg 102 101 7k .MODEL Sbg1 VSWITCH (Ron=1 Roff=1MEG Von=3.7 Voff=3) * * Feedback stage * * Diodes D1,D2 limit the excursion of the amplifier * outputs to being near the rails. Rfb, Cfb Set the * corner frequency for roll-off of ripple rejection. * * The opamp gain is given by: Av = (Fores/Freg) * (Vout/Vbg) * where Fores = output impedance corner frequency * with Cl=0 (typical value about 1MHz) * Freg = corner frequency in ripple rejection * (typical value about 600 Hz) * Vout = regulator output voltage (5,12,15V) * Vbg = bandgap voltage (3.7V) * * Note: Av is constant for all output voltages, but the * feedback factor changes. If Av=2250, then the * Av*Feedback factor is as given below: * * Vout Av*Feedback factor * ---- ------------------ * 5 1665 * 12 694 * 15 550 * Rfb 9 8 1MEG Cfb 8 Ground 265PF Eopamp 105 0 VALUE={2250*v(101,0)+Av_feedback*v(Ground,8)} Vgainf 200 0 {Av_feedback} Rgainf 200 0 1 *Eopamp 105 0 POLY(3),(101,0),(Ground,8),(200,0) 0 2250 0 0 0 0 0 0 1 Ro 105 106 1k D1 106 108 Dlim D2 107 106 Dlim .MODEL Dlim D (Vj=0.7) Vl1 102 108 DC 1 Vl2 107 0 DC 1 * * Quiescent current modelling * * Quiescent current is set by Gq, which draws a current * proportional to the voltage drop across the regulator and * R1 (temperature coefficient .1%/deg C). R1 must change * with output voltage as follows: R1 = R1(5v) * Vout/5v. * Gq (Input,Ground),(Input,9) 2.0E-5 R1 9 Ground {R1_Value} TC=0.001 * * Output Stage * * Rout is used to set both the low frequency output impedence * and the load regulation. * Q1 Input 5 6 Npn1 Q2 Input 6 7 Npn1 10 .MODEL Npn1 NPN (Bf=50 Is=1E-14) * Efb Input 4 VALUE={v(Input,Ground)+v(0,106)} Efb Input 4 POLY(2),(Input,Ground),(0,106) 0 1 1 Rb 4 5 1k TC=0.003 Re 6 7 2k Rsc 7 9 0.275 TC=1.136E-3,-7.806E-6 Rout 9 Output 0.008 * * Current Limit * Rbcl 7 55 290 Qcl 5 55 9 Npn1 Rcldz 56 55 10k Dz1 56 Input Dz .MODEL Dz D (Is=0.05p Rs=3 Bv=7.11 Ibv=0.05u) .ENDS *$ * *---------------------------------------------------------------LM7805C .SUBCKT LM7805C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=1665, R1_Value=1020 .ENDS *$ * *---------------------------------------------------------------uA7805C .SUBCKT UA7805C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=1665, R1_Value=1020 .ENDS *$ * * MANUFACTURERS PART NO.= UA7805 (TEXAS INTERNATIONAL) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD TEMP. DEPENDENT MODEL OF THE UA7805 * REGULATOR. * *------------------------------------------------------------------------------ * * * THIS MODEL CAN BE USED FROM -55 C TO 125 C WITH THE .TEMP STATEMENT. IT * INCLUDES POWER-UP AND POWER-DOWN EFFECTS. * IT MAY BE NECESSARY TO SET ITL1=300 ITL2=300 WITH THE .OPTIONS COMMAND * FOR CONVERGENCE. THESE SETTINGS DETERMINE THE NUMBER OF ITERATIONS * ALLOWED FOR THE CALCULATION OF THE DC AND BIAS PT VALUES WHEN THE * STARTING POINT IS CONSIDERED "BLIND" OR AN "EDUCATED GUESS". * OTHER SETTINGS MAY WORK, BUT HAVE NOT BEEN TESTED YET. * * * .SUBCKT UA7805/TEMP 1 2 3 * | | | * IN | | * OUT | * GND * *** VOLTAGE REFERENCE AND BIAS CURRENT SECTION *** DZ1 4 1 DZ1 .MODEL DZ1 D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1.5 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.01 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -0.001481 + TBV2 = -1.85167E-5 + TRS1 = 0 + TRS2 = 0 + ) RQ 4 17 112090 TC=0.003483, -4.9343E-6 RR 17 18 4.7 TC=0.003449, -5.495E-6 DR 16 18 DR .MODEL DR D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1.2651 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.01 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 1.805303E-4 + TBV2 = -2.461378E-6 + TRS1 = 0 + TRS2 = 0 + ) RZ 16 18 1MEG L1 16 3 IND1 0.796M .MODEL IND1 IND( + L = 1 + IL1 = 0 + IL2 = 0 + TC1 = 0.00236 + TC2 = 1.24436E-5 + ) *** ERROR AMPLIFIER SECTION *** EP 22 3 17 15 300 RO 22 6 25 DC- 3 6 DCLAMP DC+ 6 19 DCLAMP .MODEL DCLAMP D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) V+ 19 23 DC -1 E+ 23 3 1 3 1 RP 6 7 50 CPZ 7 3 0.5U *** QUIESCENT CURRENT *** GB 1 9 17 3 0.5002M RQUIES 12 3 3396 TC=0.006886, 4.655264E-5 *** SHORT CIRCUIT AND FOLDBACK CURRENT *** DBL 9 8 DBL .MODEL DBL D( + IS = 1E-4 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) EB 8 3 7 3 2 RC 1 14 0.2 DC 14 13 DC .MODEL DC D( + IS = 1E-14 + RS = 0 + N = 1.617 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) RB 9 11 100 QP 13 11 5 QP .MODEL QP NPN( + IS = 1E-12 + BF = 70K + NF = 1 + VAF = 150 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) DCL 9 10 DCL .MODEL DCL D( + IS = 1E-4 + RS = 0 + N = 2 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) QCL 10 20 12 QLIMIT .MODEL QLIMIT NPN( + IS = 1E-16 + BF = 100 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) RSC 5 12 .5076 RBCL 20 5 1600 RFBCL 1 21 51.17K TC= 0.002528, -1.5164E-5 DZFB 20 21 DZFB .MODEL DZFB D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 15.26 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.01 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -9.5474743E-4 + TBV2 = 1.478994E-5 + TRS1 = 0 + TRS2 = 0 + ) R24 15 3 600 R23 12 15 1850 *** OUTPUT RESISTANCE *** ROUT 12 2 0.036 TC=0.002616, -1.50463E-5 DDIS 12 1 DMOD .MODEL DMOD D( + IS = 1E-14 + RS = 0 + N = 0.7 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .ENDS UA7805/TEMP *$ * * * GENERIC FUNCTIONAL EQUIVALENT = DT831031B * TYPE: DIODE * SUBTYPE: VOLTAGE_REF_TC * THIS FILE CONTAINS 5 MODELS AT VARIOUS TEST CONDITIONS. * PARAMETER MODELS EXTRACTED FROM MEASURED DATA * RAD: PRERAD * TEMP= 27 *** CAUTION: MODEL IS VALID FOR OPERATION IN THE REVERSE REGION ONLY! .SUBCKT DT831031B/27C 99 2 D1 2 99 DLEAK R1 2 99 1E12 V2 5 99 20.73 D2 2 5 DBLOCK C1 2 99 5.5E-11 .MODEL DLEAK D ( + IS = 3.219715E-12 + RS = 0.0609964 + N = 58.2632139 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL DBLOCK D ( + IS = 3.066643E-11 + RS = 1.6578749 + N = 8.1826239 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .ENDS *$ * * RAD: PRERAD * TEMP= -55 *** CAUTION: MODEL IS VALID FOR OPERATION IN THE REVERSE REGION ONLY! .SUBCKT DT831031B/-55C 99 2 D1 2 99 DLEAK R1 2 99 1E12 V2 5 99 20.93 D2 2 5 DBLOCK C1 2 99 4.65E-11 .MODEL DLEAK D ( + IS = 2.294595E-14 + RS = 0.0609964 + N = 62.9736183 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL DBLOCK D ( + IS = 2.03286E-11 + RS = 1.7841132 + N = 9.602096 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .ENDS *$ * * RAD: PRERAD * TEMP= 125 *** CAUTION: MODEL IS VALID FOR OPERATION IN THE REVERSE REGION ONLY! .SUBCKT DT831031B/125C 99 2 D1 2 99 DLEAK R1 2 99 1E12 V2 5 99 20.14 D2 2 5 DBLOCK C1 2 99 6.8E-11 .MODEL DLEAK D ( + IS = 1.569829E-12 + RS = 0.0609964 + N = 39.3712792 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL DBLOCK D ( + IS = 1.612864E-11 + RS = 2.4440014 + N = 7.4242884 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .ENDS *$ * * TYPE: DIODE * SUBTYPE: VOLTAGE_REF_TC * THE FOLLOWING SECTION CONTAINS 2 PARAMETER SETS AT VARIOUS POST NEUTRON * RADIATION LEVELS. * PARAMETER SETS EXTRACTED FROM MEASURED DATA. *** CAUTION: MODEL IS VALID FOR OPERATION IN THE REVERSE REGION ONLY! *** CAUTION: USE ONLY AT TEMPERATURE SPECIFIED. ANY DEVIATION FROM THIS *** TEMPERATURE WILL PRODUCE INCORRECT RESULTS. * RAD: 2.2E13 * TYPE: NEUTRON * TEMP: 27 * .SUBCKT DT831031B/27C/RAD1 99 2 D1 2 99 DLEAK R1 2 99 1E12 V2 5 99 20.71 D2 2 5 DBLOCK C1 2 99 6E-11 .MODEL DLEAK D ( + IS = 3.258506E-10 + RS = 15.2165394 + N = 80.8147666 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL DBLOCK D ( + IS = 3.80381E-11 + RS = 1.438611 + N = 8.32254 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .ENDS *$ * * RAD: 2.73E14 * TYPE: NEUTRON * TEMP: 27 * .SUBCKT DT831031B/27C/RAD2 99 2 D1 2 99 DLEAK R1 2 99 1E12 V2 5 99 20.40 D2 2 5 DBLOCK C1 2 99 4.7E-11 .MODEL DLEAK D ( + IS = 1.772633E-10 + RS = 0.0609964 + N = 68.8487735 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL DBLOCK D ( + IS = 8.377173E-12 + RS = 2.2593796 + N = 8.2245024 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .ENDS *$ * * MANUFACTURERS PART NO. = L161AL (SILICONIX) * SUBTYPE: COMPARATOR * THIS IS A PRE-RAD MODEL AT 27 C OF THE L161AL * THIS MODEL MAY BE USED FOR ALL OF THE FOLLOWING DEVICES : * L161AP * L161AL * * ** THE FOLLOWING ARE THE LIMITATIONS OF THIS MODEL: * * THIS MODEL IS A TRANSISTOR LEVEL MODEL OF THE SILICONIX L161 VOLTAGE * COMPARATOR WHICH FOLLOWS THE SCHEMATIC FROM THE DATA SHEET AND THE * PRODUCT SPEC. THIS MODEL DOES NOT SIMULATE VOS AND IOS. IT DOES * SIMULATE IBT, VOL, VOH, AND IS ACCORDING TO PRODUCT SPEC LIMITS. THE * MODEL SIMULATES +SR WITHIN 5% OF THE SILICONIX DATA SHEET VALUES(PAGE 8- * 46). IT DOES NOT SIMULATE -SR. -SR FOR THE ACTUAL DEVICE IS APPROXIMATELY * 3 TIMES FASTER THAN THE MODEL SIMULATION. THE MODEL SIMULATES * RESPONSE TIME (TRLH) FOR A 100MV OVERDRIVE WITHIN 12% OF THE SILICONIX * DATA SHEET(PAGE 8-47) AND TRHL WITHIN 20%. IT DOES NOT SIMULATE RESPONSE * TIME FOR A 5MV OVERDRIVE. * THE ACTUAL DEVICE IS 2.5 TIMES FASTER FOR TRLH AND IS 5 TIMES FASTER FOR * TRHL. THE MODEL DOES NOT SIMULATE A 20MV OVERDRIVE. THE ACTUAL DEVICE * IS 1.3 TIMES FASTER FOR TRLH AND 2.3 FASTER FOR TRHL. * * CONNECTIONS: NON-INVERTING INPUT * | INVERTING INPUT * | | POSITIVE POWER SUPPLY * | | | NEGATIVE POWER SUPPLY * | | | | OUTPUT * | | | | | ISET * | | | | | | .SUBCKT L161 9 7 1 8 10 14 * Q1 8 7 3 PNPNOM QD1 4 4 8 NPNNOM Q2 8 9 6 PNPNOM Q3A 3 3 2 PNPNOM Q3B 4 3 2 PNPNOM 7 Q4A 6 6 2 PNPNOM Q4B 5 6 2 PNPNOM 7 Q5 5 4 8 NPNNOM Q6A 11 11 1 PNPNOM Q6B 10 11 1 PNPNOM 2 Q6C 2 11 1 PNPNOM 2 Q7 10 5 8 NPNNOM 2 Q8 11 12 8 NPNNOM Q9 1 13 12 NPNNOM Q10 13 12 8 NPNNOM J11 14 8 13 JNOM .MODEL NPNNOM NPN ( + IS = 1.66E-16 + BF = 100 + NF = 1 + VAF = 200 + IKF = 7E-3 + ISE = 0 + NE = 1.5 + BR = 1.1 + NR = 1 + VAR = 26 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 150 + IRB = 9.9999E+13 + RBM = 0 + RE = 3 + RC = 800 + CJE = 1.35E-12 + VJE = 0.964 + MJE = 0.5 + TF = 1E-9 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 1.35E-12 + VJC = 0.663 + MJC = 0.5 + XCJC = 1 + TR = 100E-9 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 1E-12 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .MODEL PNPNOM PNP ( + IS = 2.83E-17 + BF = 40 + NF = 1 + VAF = 80 + IKF = 0.1E-3 + ISE = 0 + NE = 1.5 + BR = 4 + NR = 1 + VAR = 40 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 400 + IRB = 9.9999E+13 + RBM = 0 + RE = 20 + RC = 1400 + CJE = 0.85E-12 + VJE = 0.663 + MJE = 0.5 + TF = 100E-9 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 1.18E-12 + VJC = 0.663 + MJC = 0.5 + XCJC = 1 + TR = 100E-9 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 1E-12 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .MODEL JNOM NJF( + VTO = -18 + BETA = 1E-5 + LAMBDA = 0 + RD = 0 + RS = 0 + CGS = 0 + CGD = 0 + PB = 1 + IS = 1E-14 + KF = 0 + AF = 1 + FC = .5 + ) .ENDS L161 *$ * *---------------------------------------------------------------LAS1505 .SUBCKT LAS1505 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=1665, R1_Value=1020 .ENDS *$ * MANUFACTURERS PART NO. = LM129AH/883B (NATIONAL SEMICONDUCTOR) * TYPE: IC_LINEAR * SUBTYPE: REFERENCE * THIS FILE CONTAINS 1 PRERAD TEMPERATURE DEPENDENT MACROMODEL OF THE LM129AH * VOLTAGE REFERENCE * CREATION DATE : 9-24-92 * * PLEASE NOTE THE FOLLOWING: * * THIS MODEL CAN BE USED FROM -55 C TO 125 C WITH THE .TEMP STATEMENT. * IT NEEDS TO BE RUN WITH VERSION 4.03 OR HIGHER OF PSPICE DUE TO THE * TEMPERATURE COEFFICIENTS IN THE MODEL FOR THE INDUCTORS AND THE DIODE * BREAKDOWN VOLTAGE. IT IS NECESSARY TO SET ITL1=300 ITL2=300 WITH THE * .OPTIONS COMMAND FOR 100% CONVERGENCE. THESE SETTINGS DETERMINE THE * NUMBER OF ITERATIONS ALLOWED FOR THE CALCULATION OF THE DC AND BIAS PT * VALUES WHEN THE STARTING POINT IS CONSIDERED "BLIND" OR AN "EDUCATED GUESS". * OTHER SETTINGS MAY WORK, BUT HAVE NOT BEEN TESTED YET. * *------------------------------------------------------------------------------ * * .SUBCKT LM129 1 2 ********** | | ********* + (CATHODE) *********** - (ANODE) * DR 3 1 DMOD .MODEL DMOD D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 6.847 + IBV = .001 + ) CR 3 1 CR 300PF .MODEL CR CAP( *PSPICE (MicroSim) Specific Parameters Follow + C = 1 + VC1 = 0 + VC2 = 0 + TC1 = 0.44 + TC2 = 0.0055 + ) RDR 3 4 0.6211 TC=2.7447E-4, 1.2663E-5 LDR 4 2 LDR 0.0247MH .MODEL LDR IND( *PSPICE (MicroSim) Specific Parameters Follow + L = 1 + IL1 = 0 + IL2 = 0 + TC1 = 8.5774E-3 + TC2 = 2.4348E-5 + ) RLDR 4 2 50 .ENDS LM129 *$ * * RAD: PRERAD * * TEMP= -55 * *** NOTE: TRR MEASUREMENT WAS MADE @ 10MA/10MA/2.5MA * *** CAUTION: THE MEASURED TRR AND THE PSPICE CKT. SIMULATED TRR ARE DIFFERENT * THIS COULD POTENTIALLY LEAD TO ERRORS IN CKT. SIMULATIONS IF USED * AS A RECTIFIER OR SWITCHING DIODE * * MEASURED TRR = 627.0NS, SIMULATED TRR = 493.0NS. * .SUBCKT LM129/-55C 99 2 D1 2 99 DLEAK1 R1 2 99 1E12 R2 6 99 0.81 M1 2 2 6 8 MOS1 R3 6 8 1E12 V2 10 99 5.45 D2 2 10 DLEAK2 D3 99 2 DFOR .MODEL DLEAK1 D ( + IS = 2.76E-16 + RS = 0.6745712 + N = 14.579 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL MOS1 NMOS ( + LEVEL = 1 + VTO = 6.802 + KP = 1E7 + GAMMA = 0 + PHI = .6 + LAMBDA = 0 + RD = 0 + RS = 0 + CBD = 0 + CBS = 0 + IS = 1E-14 + PB = .8 + CGSO = 0 + CGDO = 0 + CGBO = 0 + RSH = 0 + CJ = 0 + MJ = .5 + CJSW = 0 + MJSW = .33 + JS = 1E-08 + TOX = .0000001 + NSS = 0 + NFS = 0 + TPG = 1 + XJ = 0 + LD = 0 + UO = 600 + UCRIT = 10000 + UEXP = 0 + UTRA = 0 + VMAX = 0 + NEFF = 1 + XQC = 1 + KF = 0 + AF = 1 + FC = .5 + DELTA = 0 + THETA = 0 + ETA = 0 + KAPPA = .2 + ) .MODEL DLEAK2 D ( + IS = 5E-13 + RS = 2E3 + N = 1.1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL DFOR D ( + IS = 1.237167E-10 + RS = 21.0306341 + N = 1.5903301 + TT = 6.80E-7 + CJO = 2.216063E-11 + VJ = 0.7379787 + M = 0.2379013 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = 0.5 + BV = 1E5 + IBV = .001 + ) .ENDS LM129/-55C * *$ * RAD: PRERAD * * TEMP= 125 * *** NOTE: TRR MEASUREMENT WAS MADE @ 10MA/10MA/2.5MA * *** CAUTION: THE MEASURED TRR AND THE PSPICE CKT. SIMULATED TRR ARE DIFFERENT * THIS COULD POTENTIALLY LEAD TO ERRORS IN CKT. SIMULATIONS IF USED * AS A RECTIFIER OR SWITCHING DIODE * * MEASURED TRR = 2.117US, SIMULATED TRR = 905.8NS. * .SUBCKT LM129/125C 99 2 D1 2 99 DLEAK1 R1 2 99 5E8 R2 6 99 0.58 M1 2 2 6 8 MOS1 R3 6 8 1E15 V2 10 99 6 D2 2 10 DLEAK2 D3 99 2 DFOR .MODEL DLEAK1 D ( + IS = 3E-14 + RS = 0.6746 + N = 11 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL MOS1 NMOS ( + LEVEL = 1 + VTO = 6.984 + KP = 1E7 + GAMMA = 0 + PHI = .6 + LAMBDA = 0 + RD = 0 + RS = 0 + CBD = 0 + CBS = 0 + IS = 1E-18 + PB = .8 + CGSO = 0 + CGDO = 0 + CGBO = 0 + RSH = 0 + CJ = 0 + MJ = .5 + CJSW = 0 + MJSW = .33 + JS = 1E-08 + TOX = .0000001 + NSS = 0 + NFS = 0 + TPG = 1 + XJ = 0 + LD = 0 + UO = 600 + UCRIT = 10000 + UEXP = 0 + UTRA = 0 + VMAX = 0 + NEFF = 1 + XQC = 1 + KF = 0 + AF = 1 + FC = .5 + DELTA = 0 + THETA = 0 + ETA = 0 + KAPPA = .2 + ) .MODEL DLEAK2 D ( + IS = 1E-12 + RS = 2.3E3 + N = 1.64 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL DFOR D ( + IS = 1.5E-13 + RS = 18 + N = 1.05 + TT = 1.2E-6 + CJO = 2.88E-11 + VJ = 0.35 + M = 0.297 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = 0.860 + BV = 1E5 + IBV = .001 + ) .ENDS LM129/125C *$ * MANUFACTURERS PART NO. = LM129AH/883B (NATIONAL SEMICONDUCTOR) * TYPE: IC_LINEAR * SUBTYPE: REFERENCE * THIS FILE CONTAINS 3 PRERAD SPICE2G.6 MACROMODELS AT 27 C, -55 C AND 125 C. * TEMPERATURE PARAMETER MODELS EXTRACTED FROM MEASURED DATA. * CREATION DATE : 07-05-90 * * ************************************************************************** * THE FOLLOWING MACROMODELS ARE SPICE2G.6 COMPATIBLE AND ARE FOR USE ONLY * AT THE TEMPERATURE INDICATED * * RAD: PRERAD * * TEMP= 27 * *** NOTE: TRR MEASUREMENT WAS MADE @ 10MA/10MA/2.5MA * *** CAUTION: THE MEASURED TRR AND THE PSPICE CKT. SIMULATED TRR ARE DIFFERENT * THIS COULD POTENTIALLY LEAD TO ERRORS IN CKT. SIMULATIONS IF USED * AS A RECTIFIER OR SWITCHING DIODE * * MEASURED TRR = 1.305US, SIMULATED TRR = 544.4NS. * .SUBCKT LM129/27C 99 2 D1 2 99 DLEAK1 R1 2 99 9.99E11 R2 6 99 0.6 M1 2 2 6 8 MOS1 R3 6 8 1E12 V2 10 99 5.8 D2 2 10 DLEAK2 D3 99 2 DFOR .MODEL DLEAK1 D ( + IS = 1.66E-15 + RS = 15.7046607 + N = 12.12 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL MOS1 NMOS ( + LEVEL = 1 + VTO = 6.885 + KP = 1E7 + GAMMA = 0 + PHI = .6 + LAMBDA = 0 + RD = 0 + RS = 0 + CBD = 0 + CBS = 0 + IS = 1E-14 + PB = .8 + CGSO = 0 + CGDO = 0 + CGBO = 0 + RSH = 0 + CJ = 0 + MJ = .5 + CJSW = 0 + MJSW = .33 + JS = 1E-08 + TOX = .0000001 + NSS = 0 + NFS = 0 + TPG = 1 + XJ = 0 + LD = 0 + UO = 600 + UCRIT = 10000 + UEXP = 0 + UTRA = 0 + VMAX = 0 + NEFF = 1 + XQC = 1 + KF = 0 + AF = 1 + FC = .5 + DELTA = 0 + THETA = 0 + ETA = 0 + KAPPA = .2 + ) .MODEL DLEAK2 D ( + IS = 1.2E-16 + RS = 2.2E3 + N = 0.75 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL DFOR D ( + IS = 4.16979E-10 + RS = 8.541917 + N = 1.6705528 + TT = 7.4E-7 + CJO = 2.724589E-11 + VJ = 0.6060786 + M = 0.2493594 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = 0.5 + BV = 1E5 + IBV = .001 + ) .ENDS LM129/27C * *$ * MANUFACTURERS PART NO. = LM185BYH/883 (NATIONAL SEMICONDUCTOR) * TYPE: IC_LINEAR * SUBTYPE: REFERENCE * THIS FILE CONTAINS 3 PRE-RAD SPICE2G.6 COMPATIBLE MODELS AT VARIOUS TEMPS * OF THE LM185 TWO TERMINAL 1.2V REF. * PARAMETER MODELS EXTRACTED FROM MEASURED DATA * CREATION DATE : 07-02-90 * *****CAUTION: THESE MODELS ARE ONLY GOOD FOR THE TEMPERATURE THEY WERE * DEVELOPED AT. * * RAD: PRERAD * TEMP= 27 * *** NOTE: TRR MEASUREMENT WAS MADE @ 10MA/10MA/2.5MA * *** CAUTION: THE MEASURED TRR AND THE PSPICE CKT. SIMULATED TRR ARE DIFFERENT * THIS COULD POTENTIALLY LEAD TO ERRORS IN CKT. SIMULATIONS IF USED * AS A RECTIFIER OR IN SWITCHING APPLICATIONS. * * MEASURED TRR = 1.03US, SIMULATED TRR = 720.4NS. * * .SUBCKT LM185/27C 99 2 D1 2 99 DLEAK R1 2 99 1E12 R2 6 99 0.12 M1 2 2 6 8 MOS1 R3 6 8 1E12 D2 99 2 DFOR .MODEL DLEAK D ( + IS = 2E-6 + RS = 34.8744396 + N = 53 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL MOS1 NMOS ( + LEVEL = 1 + VTO = 2.512 + KP = 1E7 + GAMMA = 0 + PHI = .6 + LAMBDA = 0 + RD = 0 + RS = 0 + CBD = 0 + CBS = 0 + IS = 1E-14 + PB = .8 + CGSO = 0 + CGDO = 0 + CGBO = 0 + RSH = 0 + CJ = 0 + MJ = .5 + CJSW = 0 + MJSW = .33 + JS = 1E-08 + TOX = .0000001 + NSS = 0 + NFS = 0 + TPG = 1 + XJ = 0 + LD = 0 + UO = 600 + UCRIT = 10000 + UEXP = 0 + UTRA = 0 + VMAX = 0 + NEFF = 1 + XQC = 1 + KF = 0 + AF = 1 + FC = .5 + DELTA = 0 + THETA = 0 + ETA = 0 + KAPPA = .2 + ) .MODEL DFOR D ( + IS = 5.173495E-9 + RS = 13.7420803 + N = 2.0242147 + TT = 9.74E-7 + CJO = 7.094324E-11 + VJ = 0.6122206 + M = 0.2691849 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = 0.5 + BV = 1E5 + IBV = .001 + ) .ENDS LM185/27C * *$ * MANUFACTURERS PART NO. = LM185BYH/883 (NATIONAL SEMICONDUCTOR) * TYPE: IC_LINEAR * SUBTYPE: REFERENCE * THIS FILE CONTAINS A PRE-RAD TEMPERATURE DEPENDENT SPICE2G.6 COMPATIBLE * MODEL OF THE LM185BYH ADJUSTABLE 1.2-5.3V REF * CREATION DATE : 11-28-90 * * * LM185 ADJUSTABLE VOLTAGE REFERENCE "MACROMODEL" SUBCIRCUIT * THIS IS A TRANSISTOR LEVEL MODEL WHICH USES DEFAULT TRANSISTOR VALUES * (EBER'S MOLL) AND FOLLOWS THE SCHEMATIC OF THE NATIONAL DATA SHEET. Q10 * (ONE OF THE NPN TRANSISTORS IN THE BANDGAP REFERENCE SECTION) HAS A SCALING * FACTOR OF 10. THIS MODEL CAN BE USED WITH A .TEMP CARD. IT ACCURATELY * SIMULATES CHANGE IN VREF WITH CHANGE IN CURRENT, ZOUT, AND IFEEDBACK. * ***** CAUTION: THE MODEL EXCEEDS THE PRODUCT SPEC LIMIT FOR VREF AT 25 C BY * 2 MV AND AT 125 C BY 27 MV FOR IR = 8 UA AND IR = 100 UA. * * SINCE THIS IS A TRANSISTOR LEVEL MODEL(WITH 13 TRANSISTORS), CIRCUIT * SIMULATION TIME IS INCREASED. * * CONNECTIONS: PLUS * | ADJUST * | | MINUS * | | | .SUBCKT LM185 1 5 6 * R6 1 2 200E3 R7 2 3 50E3 R8 3 4 300E3 Q14 6 5 4 PNPNOM Q13 7 7 1 PNPNOM Q10 7 3 8 NPNNOM 10 Q9 8 12 6 NPNNOM Q12 9 7 1 PNPNOM Q11 9 2 8 NPNNOM R5 1 12 600E3 Q8 12 12 6 NPNNOM Q7 13 9 1 PNPNOM Q6 13 12 6 NPNNOM R2 1 14 7.5E3 Q4 15 15 14 PNPNOM Q5 15 13 16 NPNNOM R3 16 6 500 Q3 17 15 1 PNPNOM R1 17 6 100E3 Q1 1 17 6 NPNNOM C1 17 15 20E-12 C2 13 9 20E-12 D1 6 1 DZENER .MODEL NPNNOM NPN( + IS = 1E-16 + BF = 100 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .MODEL PNPNOM PNP( + IS = 1E-16 + BF = 100 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .MODEL DZENER D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 6.3 + IBV = .001 + ) .ENDS LM185 *$ * * RAD: PRERAD * TEMP= -55 * * NOTE: TRR MEASUREMENT WAS MADE @ 10MA/10MA/2.5MA * *** CAUTION: THE MEASURED TRR AND THE PSPICE CKT. SIMULATED TRR ARE DIFFERENT * THIS COULD POTENTIALLY LEAD TO ERRORS IN CKT. SIMULATIONS IF USED * AS A RECTIFIER OR IN SWITCHING APPLICATIONS. * * MEASURED TRR = 687.5NS, SIMULATED TRR = 443.1NS. * * .SUBCKT LM185/-55C 99 2 D1 2 99 DLEAK R1 2 99 1E12 R2 6 99 0.085 M1 2 2 6 8 MOS1 R3 6 8 1E12 D2 99 2 DFOR .MODEL DLEAK D ( + IS = 4.5E-6 + RS = 0.1117427 + N = 105 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL MOS1 NMOS ( + LEVEL = 1 + VTO = 2.424 + KP = 1E7 + GAMMA = 0 + PHI = .6 + LAMBDA = 0 + RD = 0 + RS = 0 + CBD = 0 + CBS = 0 + IS = 1E-14 + PB = .8 + CGSO = 0 + CGDO = 0 + CGBO = 0 + RSH = 0 + CJ = 0 + MJ = .5 + CJSW = 0 + MJSW = .33 + JS = 1E-08 + TOX = .0000001 + NSS = 0 + NFS = 0 + TPG = 1 + XJ = 0 + LD = 0 + UO = 600 + UCRIT = 10000 + UEXP = 0 + UTRA = 0 + VMAX = 0 + NEFF = 1 + XQC = 1 + KF = 0 + AF = 1 + FC = .5 + DELTA = 0 + THETA = 0 + ETA = 0 + KAPPA = .2 + ) .MODEL DFOR D ( + IS = 2.923266E-10 + RS = 18.800808 + N = 1.6458985 + TT = 6.0E-7 + CJO = 6.732155E-11 + VJ = 0.6208282 + M = 0.2203896 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = 0.5 + BV = 1E5 + IBV = .001 + ) .ENDS LM185/-55C * *$ * * RAD: PRERAD * TEMP= 125 * *** NOTE: TRR MEASUREMENT WAS MADE @ 10MA/10MA/2.5MA * *** CAUTION: THE MEASURED TRR AND THE PSPICE CKT. SIMULATED TRR ARE DIFFERENT * THIS COULD POTENTIALLY LEAD TO ERRORS IN CKT. SIMULATIONS IF USED * AS A RECTIFIER OR IN SWITCHING APPLICATIONS. * * MEASURED TRR = 1.877US, SIMULATED TRR = 1.233US. * * .SUBCKT LM185/125C 99 2 D1 2 99 DLEAK R1 2 99 1E12 R2 6 99 0.15 M1 2 2 6 8 MOS1 R3 6 8 1E12 D2 99 2 DFOR .MODEL DLEAK D ( + IS = 1E-6 + RS = 15.831318 + N = 45 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1E5 + IBV = .001 + ) .MODEL MOS1 NMOS ( + LEVEL = 1 + VTO = 2.598 + KP = 1E4 + GAMMA = 0 + PHI = .6 + LAMBDA = 0 + RD = 0 + RS = 0 + CBD = 0 + CBS = 0 + IS = 1E-14 + PB = .8 + CGSO = 0 + CGDO = 0 + CGBO = 0 + RSH = 0 + CJ = 0 + MJ = .5 + CJSW = 0 + MJSW = .33 + JS = 1E-08 + TOX = .0000001 + NSS = 0 + NFS = 0 + TPG = 1 + XJ = 0 + LD = 0 + UO = 600 + UCRIT = 10000 + UEXP = 0 + UTRA = 0 + VMAX = 0 + NEFF = 1 + XQC = 1 + KF = 0 + AF = 1 + FC = .5 + DELTA = 0 + THETA = 0 + ETA = 0 + KAPPA = .2 + ) .MODEL DFOR D ( + IS = 1.024781E-8 + RS = 10.4280679 + N = 2.1779911 + TT = 1.6E-6 + CJO = 7.791736E-11 + VJ = 0.4 + M = 0.2944435 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = 0.5 + BV = 1E5 + IBV = .001 + ) .ENDS LM185/125C *$ * MANUFACTURERS PART NO. = LM185BYH/883 (NATIONAL SEMICONDUCTOR) * TYPE: IC_LINEAR * SUBTYPE: REFERENCE * THIS FILE CONTAINS ONE RADIATION MODEL OF THE 2 TERMINAL 1.2V REF. * PARAMETER MODEL EXTRACTED FROM MEASURED DATA * CREATION DATE : 07-23-90 * * RAD: 1.13E12 * TYPE: NEUTRON * * TEMP= 27 * *** NOTE: TRR MEASUREMENT WAS MADE @ 10MA/10MA/2.5MA * *** CAUTION: THE MEASURED TRR AND THE PSPICE CKT. SIMULATED TRR ARE DIFFERENT * THIS COULD POTENTIALLY LEAD TO ERRORS IN CKT. SIMULATIONS IF USED * AS A RECTIFIER OR IN SWITCHING APPLICATIONS. * * * MEASURED TRR = 451.250NS, SIMULATED TRR = 360.4NS. * * .SUBCKT LM185/27C/RAD 99 2 D1 2 99 DLEAK R1 2 99 1.001E12 R2 6 99 0.33 M1 2 2 6 8 MOS1 R3 6 8 1E12 D2 99 2 DFOR .MODEL DLEAK D ( + IS = 3E-6 + RS = 40 + N = 65 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) .MODEL MOS1 NMOS ( + LEVEL = 1 + VTO = 2.558 + KP = 5E6 + GAMMA = 0 + PHI = .6 + LAMBDA = 0 + RD = 0 + RS = 0 + CBD = 0 + CBS = 0 + IS = 1E-14 + PB = .8 + CGSO = 0 + CGDO = 0 + CGBO = 0 + RSH = 0 + CJ = 0 + MJ = .5 + CJSW = 0 + MJSW = .33 + JS = 1E-08 + TOX = .0000001 + NSS = 0 + NFS = 0 + TPG = 1 + XJ = 0 + LD = 0 + UO = 600 + UCRIT = 10000 + UEXP = 0 + UTRA = 0 + VMAX = 0 + NEFF = 1 + XQC = 1 + KF = 0 + AF = 1 + FC = .5 + DELTA = 0 + THETA = 0 + ETA = 0 + KAPPA = .2 + ) .MODEL DFOR D ( + IS = 6.652648E-9 + RS = 17.4283533 + N = 2.0158844 + TT = 4.8E-7 + CJO = 6.069386E-11 + VJ = 0.540285 + M = 0.2625517 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = 0.4868582 + BV = 9.9999E+13 + IBV = .001 + ) .ENDS LM185/27C/RAD *$ * *---------------------------------------------------------------MC7805C .SUBCKT MC7805C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=1665, R1_Value=1020 .ENDS *$ * * MANUFACTURERS PART NO. = REF02/883/J (PRECISION MONOLITHIC) * SUBTYPE: REFERENCE * THIS FILE CONTAINS 1 PRERAD ROOM TEMPERATURE MACROMODEL OF THE REF02 * PRECISION 5V REFERENCE. * * * PLEASE NOTE THE FOLLOWING: * * THIS MODEL IS TO BE USED AT 27 C. * *------------------------------------------------------------------------------ * * * IN * | TEMP * | | GND * | | | TRIM * | | | | OUT * | | | | | .SUBCKT REF-02 2 3 4 5 6 R1 11 3 1000 R2 3 4 9353.193 R3 1 7 10000 R4 1 8 10000 R6 1000 2 1000 DR6 1000 1 DR6 .MODEL DR6 D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) RBREF 9 5 .5 Q1 7 9 11 NREF1 8 Q2 8 5 3 NREF1 .MODEL NREF1 NPN ( + IS = 1E-8 + BF = 200 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) R7 12 13 100 C1 13 7 .001P RC1 13 4 100MEG EA 120 4 8 7 1000 RIN 8 7 100K RO 12 120 5 ECL 302 4 2 4 1 V+ 301 302 DC 0 DC+ 12 301 DMOD2 VDC 300 4 DC 1 DC- 300 12 DMOD2 .MODEL DMOD2 D ( + IS = 1E-20 + RS = 0 + N = .5 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) RB 200 18 100 DB 200 17 DB .MODEL DB D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) EB 17 4 13 4 1 IBIAS 2 201 .475M RTEST 200 201 1K QPASS 16 18 6 NTYPE .MODEL NTYPE NPN ( + IS = 1E-16 + BF = 53.0948 + NF = 1 + VAF = 22.6799 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) DPASS 6 16 DMOD R15 2 16 20 R12 6 5 6.1K R11 5 4 2K .MODEL DMOD D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) .ENDS REF-02 *$ * *---------------------------------------------------------------UPC7805 .SUBCKT UPC7805 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=1665, R1_Value=1020 .ENDS *$ * *---------------------------------------------------------------SG7805C .SUBCKT SG7805C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=1665, R1_Value=1020 .ENDS *$ * * MANUFACTURERS PART NO.= SG7805AIG (SILICON GENERAL) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD TEMP. DEPENDENT MODEL OF THE SG7805 * REGULATOR. * *------------------------------------------------------------------------------ * * * THIS MODEL CAN BE USED FROM -55 C TO 125 C WITH THE .TEMP STATEMENT. IT * INCLUDES POWER-UP AND POWER-DOWN EFFECTS. * IT IS NECESSARY TO SET ITL1=300 ITL2=300 WITH THE .OPTIONS COMMAND FOR * 100% CONVERGENCE. THESE SETTINGS DETERMINE THE NUMBER OF ITERATIONS * ALLOWED FOR THE CALCULATION OF THE DC AND BIAS PT VALUES WHEN THE * STARTING POINT IS CONSIDERED "BLIND" OR AN "EDUCATED GUESS". * OTHER SETTINGS MAY WORK, BUT HAVE NOT BEEN TESTED YET. * * * .SUBCKT SG7805 1 2 3 * | | | * IN | | * OUT | * GND * *** VOLTAGE REFERENCE AND BIAS CURRENT SECTION *** DZ1 4 1 DZ1 .MODEL DZ1 D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1.5 + IBV = .001 + ) RQ 4 17 112090 TC=0.003483, -4.9343E-6 RR 17 18 4.7 TC=0.003449, -5.495E-6 DR 16 18 DR .MODEL DR D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1.2651 + IBV = .001 + ) RZ 16 18 1MEG L1 16 3 IND1 0.796M .MODEL IND1 IND( + L = 1 + IL1 = 0 + IL2 = 0 + TC1 = 0.00236 + TC2 = 1.24436E-5 + ) *** ERROR AMPLIFIER SECTION *** EP 22 3 17 15 300 RO 22 6 25 DC- 3 6 DCLAMP DC+ 6 19 DCLAMP .MODEL DCLAMP D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) V+ 19 23 DC -1 E+ 23 3 1 3 1 RP 6 7 50 CPZ 7 3 0.5U *** QUIESCENT CURRENT *** GB 1 9 17 3 0.5002M RQUIES 12 3 3396 TC=0.006886, 4.655264E-5 *** SHORT CIRCUIT AND FOLDBACK CURRENT *** DBL 9 8 DBL .MODEL DBL D( + IS = 1E-4 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) EB 8 3 7 3 2 RC 1 14 0.2 DC 14 13 DC .MODEL DC D( + IS = 1E-14 + RS = 0 + N = 1.617 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) RB 9 11 100 QP 13 11 5 QP .MODEL QP NPN( + IS = 1E-12 + BF = 70K + NF = 1 + VAF = 150 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) DCL 9 10 DCL .MODEL DCL D( + IS = 1E-4 + RS = 0 + N = 2 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) QCL 10 20 12 QLIMIT .MODEL QLIMIT NPN( + IS = 1E-16 + BF = 100 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) RSC 5 12 0.275 TC=0.001885, 9.363636E-6 RBCL 20 5 1600 RFBCL 1 21 51.17K TC= 0.002528, -1.5164E-5 DZFB 20 21 DZFB .MODEL DZFB D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 15.26 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.01 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -9.5474743E-4 + TBV2 = 1.478994E-5 + TRS1 = 0 + TRS2 = 0 + ) R24 15 3 600 R23 12 15 1800 *** OUTPUT RESISTANCE *** ROUT 12 2 0.036 TC=0.002616, -1.50463E-5 DDIS 12 1 DMOD .MODEL DMOD D( + IS = 1E-14 + RS = 0 + N = 0.7 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .ENDS SG7805 *$ * * MANUFACTURERS PART NO.= SG7805AIG (SILICON GENERAL) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD 27 C TEMPERATURE MACROMODEL * OF THE SG7805AIG REGULATOR. * *--------------------------------------------------------------------------- * PLEASE NOTE THE FOLLOWING: * * 1) THIS MODEL IS TO BE USED FOR ROOM TEMPERATURE SIMULATIONS. THE * SPICE TEMPERATURE CORRECTIONS WILL NOT WORK. * * * .SUBCKT SG7805/27C 1 2 3 * | | | * IN | | * OUT | * GND DZ1 16 1 DZ1 .MODEL DZ1 D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 0.75 + IBV = .001 + ) RQ 16 17 113K RR 17 18 7.0476 DR 3 18 DR .MODEL DR D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1.27 + IBV = .001 + ) RDR 3 17 30K GQ 1 4 17 3 1M ER 4 3 17 3 1 RIN 4 15 100MEG RC 1 14 0.2 DBK 14 13 DBK .MODEL DBK D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) EP 19 3 4 15 250 RO 19 6 25 DC- 3 6 DC DC 6 20 DC .MODEL DC D( + IS = 1E-20 + RS = 0 + N = 0.1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) EC 20 3 1 3 1 RP 6 7 75 RPZ 7 8 0.1 CPZ 8 3 0.1U GB 1 9 17 3 2.184M EB 22 3 7 3 1 DB1 9 22 DB1 .MODEL DB1 D( + IS = 1E-14 + RS = 0 + N = 0.01 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) CDB1 9 22 10U RB1 9 10 1 RB2 10 11 750 RBC 12 11 7500 CBC 13 12 0.002U CBE 11 21 0.001U QP 13 11 5 QP .MODEL QP NPN( + IS = 1E-16 + BF = 2296 + NF = 1 + VAF = 50 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) QLIMIT 10 23 21 QLIMIT .MODEL QLIMIT NPN( + IS = 1E-16 + BF = 100 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) RBC1 23 5 2400 RSENSE 5 21 0.2303 RFBL 1 24 80K DZFB 23 24 DZFB .MODEL DZFB D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 14.07 + IBV = .001 + ) RFB1 15 3 6K RFB2 21 15 18K ROUT 21 2 0.04 .ENDS SG7805/27C *$ * *---------------------------------------------------------------UC7805C .SUBCKT UC7805C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=1665, R1_Value=1020 .ENDS *$ * *---------------------------------------------------------------LM7812C .SUBCKT LM7812C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=694, R1_Value=2448 .ENDS *$ * *---------------------------------------------------------------uA7812C .SUBCKT UA7812C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=694, R1_Value=2448 .ENDS *$ * *---------------------------------------------------------------LAS1512 .SUBCKT LAS1512 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=694, R1_Value=2448 .ENDS *$ * *---------------------------------------------------------------MC7812C .SUBCKT MC7812C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=694, R1_Value=2448 .ENDS *$ * *---------------------------------------------------------------UPC7812 .SUBCKT UPC7812 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=694, R1_Value=2448<> horizontal rule Transfer interrupted! ------------------------------------------------------SG7812C .SUBCKT SG7812C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=694, R1_Value=2448 .ENDS *$ * * MANUFACTURERS PART NO.= SG7812AIG (SILICON GENERAL) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD TEMP. DEPENDENT MODEL OF THE SG7812 * REGULATOR * *------------------------------------------------------------------------------ * * * THIS MODEL CAN BE USED FROM -55 C TO 125 C WITH THE .TEMP STATEMENT. IT * INCLUDES POWER-UP AND POWER-DOWN EFFECTS. * IT IS NECESSARY TO SET ITL1=300 ITL2=300 WITH THE .OPTIONS COMMAND FOR * 100% CONVERGENCE. THESE SETTINGS DETERMINE THE NUMBER OF ITERATIONS * ALLOWED FOR THE CALCULATION OF THE DC AND BIAS PT VALUES WHEN THE * STARTING POINT IS CONSIDERED "BLIND" OR AN "EDUCATED GUESS". * OTHER SETTINGS MAY WORK, BUT HAVE NOT BEEN TESTED YET. * * * .SUBCKT SG7812 1 2 3 * | | | * IN | | * OUT | * GND * *** VOLTAGE REFERENCE AND BIAS CURRENT SECTION *** DZ1 4 1 DZ1 .MODEL DZ1 D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 0.75 + IBV = .001 + ) RQ 4 17 86343.84 TC=5.3597E-4, 5.0408E-5 RR 17 18 5.2447 TC=0.005772, 6.2073E-5 DZR 16 18 DR .MODEL DR D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1.2588 + IBV = .001 + ) RZ 16 18 1MEG L1 16 3 IND1 0.3573M .MODEL IND1 IND( + L = 1 + IL1 = 0 + IL2 = 0 + TC1 = 0.001123 + TC2 = 6.8566E-5 + ) *** ERROR AMPLIFIER SECTION *** EA 22 3 17 15 300 ROUT 22 6 10 D- 3 6 DCLAMP D+ 6 19 DCLAMP .MODEL DCLAMP D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) V+ 19 23 DC -1 E+ 23 3 1 3 1 RP 6 7 500 CP 7 3 CAP1 0.1U .MODEL CAP1 CAP( + C = 1 + VC1 = 0 + VC2 = 0 + TC1 = -0.002 + TC2 = 1E-4 + ) *** QUIESCENT CURRENT *** GB 1 9 17 3 0.4944M RQUIES 12 3 10572.61 TC=0.013985, 1.28953E-4 *** SHORT CIRCUIT AND FOLDBACK CURRENT *** DBL 9 8 DBL .MODEL DBL D( + IS = 1E-4 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) EB 8 3 7 3 2 RC 1 14 0.2 DC 14 13 DC .MODEL DC D( + IS = 1E-14 + RS = 0 + N = 1.6339 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) RB 9 11 100 QP 13 11 5 QP .MODEL QP NPN( + IS = 1E-12 + BF = 70K + NF = 1 + VAF = 150 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) DCL 9 10 DCL .MODEL DCL D( + IS = 1E-4 + RS = 0 + N = 2 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) QCL 10 20 12 QCL .MODEL QCL NPN( + IS = 1E-16 + BF = 100 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) RSC 5 12 0.578 TC=0.00131, 1.2433E-5 RBCL 20 5 200 RFB 1 21 6.17043K TC=0.001143, -1.081421E-5 DZFB 20 21 DZFB .MODEL DZFB D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 14.79 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.01 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -1.78236E-4 + TBV2 = 4.2164E-6 + TRS1 = 0 + TRS2 = 0 + ) R24 15 3 600 R23 12 15 5160 *** OUTPUT RESISTANCE *** RO 12 2 0.02 TC=-8.3333E-4, -4.1667E-5 DDIS 2 1 DMOD .MODEL DMOD D( + IS = 1E-14 + RS = 0 + N = 0.7 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .ENDS SG7812 *$ * * MANUFACTURERS PART NO.= SG7812AIG (SILICON GENERAL) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD 27 C TEMPERATURE MODEL * OF THE SG7812 REGULATOR. * * *--------------------------------------------------------------------------- * PLEASE NOTE THE FOLLOWING: * * * 1) THIS MODEL IS TO BE USED FOR ROOM TEMPERATURE SIMULATIONS. THE * SPICE TEMPERATURE CORRECTIONS WILL NOT WORK. * * *---------------------------------------------------------------- * * .SUBCKT SG7812/27C 1 2 3 * | | | * IN | | * OUT | * GND * DZ1 16 1 DZ1 .MODEL DZ1 D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 0.75 + IBV = .001 + ) RQ 16 17 113K RR 17 18 7.0476 DR 3 18 DR .MODEL DR D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1.27 + IBV = .001 + ) RDR 3 17 30K GQ 1 4 17 3 1M ER 4 3 17 3 1 RIN 4 15 100MEG RC 1 14 0.2 DBK 14 13 DBK .MODEL DBK D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) EP 19 3 4 15 250 RO 19 6 25 DC- 3 6 DC DC 6 20 DC .MODEL DC D( + IS = 1E-20 + RS = 0 + N = 0.1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) EC 20 3 1 3 1 RP 6 7 75 RPZ 7 8 0.1 CPZ 8 3 0.1U GB 1 9 17 3 2.184M EB 22 3 7 3 1 DB1 9 22 DB1 .MODEL DB1 D( + IS = 1E-14 + RS = 0 + N = 0.01 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) CDB1 9 22 10U RB1 9 10 1 RB2 10 11 750 RBC 12 11 7500 CBC 13 12 0.002U CBE 11 21 0.001U QP 13 11 5 QP .MODEL QP NPN( + IS = 1E-16 + BF = 2296 + NF = 1 + VAF = 50 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) QLIMIT 10 23 21 QLIMIT .MODEL QLIMIT NPN( + IS = 1E-16 + BF = 100 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) RBC1 23 5 2400 RSENSE 5 21 0.7285 RFBL 1 24 57.6K DZFB 23 24 DZFB .MODEL DZFB D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 14.07 + IBV = .001 + ) RFB1 15 3 6K RFB2 21 15 51.6K ROUT 21 2 1E-6 .ENDS SG7812/27C *$ * *---------------------------------------------------------------UC7812C .SUBCKT UC7812C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=694, R1_Value=2448 .ENDS *$ * *---------------------------------------------------------------LM7815C .SUBCKT LM7815C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=550, R1_Value=3060 .ENDS *$ * *---------------------------------------------------------------uA7815C .SUBCKT UA7815C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=550, R1_Value=3060 .ENDS *$ * * MANUFACTURERS PART NO. = UA78M05HM (FAIRCHILD) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD MODEL AT 27 C OF THE LM7805 THAT WAS * DEVELOPED UNDER THE GUIDANCE OF GREGORY M. WIERZBA AT MICHIGAN STATE * UNIVERSITY * * PLEASE NOTE THE FOLLOWING: * * 1) THIS MODEL IS TO BE USED FOR ROOM TEMPERATURE SIMULATIONS. THE BUILT- * IN SPICE TEMPERATURE CORRECTIONS WILL NOT WORK. * 2) RIPPLE REJECTION, OUTPUT IMPEDANCE, LINE TRANSIENT, AND LOAD * TRANSIENT RESPONSE ARE MODELED BASED ON LABORATORY * MEASUREMENTS. THE CORRELATION IS QUITE GOOD. THE SIMULATION VALUES * ARE WITHIN THE PRODUCT SPEC LIMITS. * 3) CURRENT LIMITING IS CURRENTLY SET FOR 600MA WITH FOLDBACK EFFECTS * FOR SAFE OPERATING REGION, BUT IF THIS CAUSES PROBLEMS IT CAN EASILY * BE CHANGED TO A HIGHER LEVEL FOR THE USER. * 4) QUIESCENT CURRENT HAS ALSO BEEN MODELED BUT REQUIRES MORE LAB * VERIFICATION. DROPOUT AND POWER UP CHARACTERISTICS HAVE NOT BEEN * DEVELOPED YET IN THIS MODEL. * 5) FOR FURTHER DETAILS AND THE MODEL DERIVATION, OBTAIN A COPY OF * "CA3085, LM7805, LM7812, LM7905, LM137 MACROMODEL DEVELOPMENT" BY G. M. * WIERZBA DATED 3/25/91. * * * * .SUBCKT UA78M05 1 2 3 99 * IN | | | * OUT | | * GND(PIN) | * ZERO REFERENCE(EXTERNAL GND) IBIAS 1 4 3M VREF 15 3 DC 3.7 ELREG 4 15 1 3 .074M RIN 4 5 10000 RC 1 14 0.2 EP 6 3 4 5 1200 RP 6 7 10000 RZ 7 8 10 CPZ 8 3 10U EB 16 3 7 3 1 DLIM 9 16 DMOD CBYPASS 9 16 100U RB 9 11 26 RBC 12 11 400 CBC 13 12 0.001U QPASS 13 11 2 QMOD DBK 14 13 DMOD RFB1 2 5 1756.5 RFB2 5 3 5000 GLIMIT 3 9 POLY(1) 13 2 .6279M -5.5186U GFB 9 3 POLY(1) 18 99 0 15.1775U EFB 17 99 1 2 1 DZFB 18 17 DZ .MODEL DZ D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.5 + IBV = .001 + ) RFB 18 99 1K .MODEL QMOD NPN ( + IS = 1E-16 + BF = 1000 + NF = 1 + VAF = 100 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .MODEL DMOD D ( + IS = 30F + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) .ENDS UA78M05 *$ * * MANUFACTURERS PART NO. = UA78M12HM (FAIRCHILD) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD MODEL AT 27 C OF THE LM7812 THAT WAS * DEVELOPED UNDER THE GUIDANCE OF GREGORY M. WIERZBA AT * MICHIGAN STATE UNIVERSITY. * * PLEASE NOTE THE FOLLOWING: * 1) THIS MODEL IS TO BE USED FOR ROOM TEMPERATURE SIMULATIONS. THE BUILT- * IN SPICE TEMPERATURE CORRECTIONS WILL NOT WORK. * 2) RIPPLE REJECTION, OUTPUT IMPEDANCE, LINE TRANSIENT, AND LOAD * TRANSIENT RESPONSE ARE MODELED BASED ON LABORATORY * MEASUREMENTS. THE CORRELATION IS QUITE GOOD. THE SIMULATION VALUES * ARE WITHIN THE PRODUCT SPEC LIMITS. * 3) CURRENT LIMITING IS CURRENTLY SET FOR 600MA WITH FOLDBACK EFFECTS * FOR SAFE OPERATING REGION, BUT IF THIS CAUSES PROBLEMS IT CAN EASILY * BE CHANGED TO A HIGHER LEVEL FOR THE USER. * 4) QUIESCENT CURRENT HAS ALSO BEEN MODELED BUT REQUIRES MORE LAB * VERIFICATION. DROPOUT AND POWER UP CHARACTERISTICS HAVE NOT BEEN * DEVELOPED YET IN THIS MODEL. * 5) FOR FURTHER DETAILS AND THE MODEL DERIVATION, OBTAIN A COPY OF * "CA3085, LM7805, LM7812, LM7905, LM137 MACROMODEL DEVELOPMENT" BY G. M. * WIERZBA DATED 3/25/91. * .SUBCKT UA78M12/27C 1 2 3 99 * IN | | | * OUT | | * GND(PIN) | * ZERO REFERENCE(EXTERNAL GND) IBIAS 1 4 3M VREF 15 3 DC 3.7 ELREG 4 15 1 3 0.3083M RIN 4 5 10000 RC 1 14 0.2 EP 6 3 4 5 1200 RP 6 7 10000 RZ 7 8 10 CPZ 8 3 0.01U EB 16 3 7 3 1 DLIM 9 16 DMOD CBYPASS 9 16 100U RB 9 11 26 RBC 12 11 400 CBC 13 12 0.001U QPASS 13 11 2 QMOD DBK 14 13 DMOD RFB1 2 5 11216.2162 RFB2 5 3 5000 GLIMIT 3 9 POLY(1) 13 2 .6279M -5.5186U GFLDBCK 9 3 POLY(1) 18 99 0 14U EFB 17 99 13 2 1 DFB 18 17 DZ .MODEL DZ D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.5 + IBV = .001 + ) RFB 18 99 1K .MODEL QMOD NPN ( + IS = 1E-16 + BF = 1000 + NF = 1 + VAF = 100 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .MODEL DMOD D ( + IS = 30F + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) .ENDS UA78M12/27C *$ * * MANUFACTURERS PART NO. = UA78M15HM (FAIRCHILD) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD TEMP. DEPENDENT MODEL OF THE UA78M15 * REGULATOR * *------------------------------------------------------------------------------ * * * THIS MODEL CAN BE USED FROM -55 C TO 125 C WITH THE .TEMP STATEMENT. IT * INCLUDES POWER-UP AND POWER-DOWN EFFECTS. * IF IT IS NECESSARY, SET ITL1=300 ITL2=300 WITH THE .OPTIONS COMMAND FOR * 100% CONVERGENCE. THESE SETTINGS DETERMINE THE NUMBER OF ITERATIONS * ALLOWED FOR THE CALCULATION OF THE DC AND BIAS PT VALUES WHEN THE * STARTING POINT IS CONSIDERED "BLIND" OR AN "EDUCATED GUESS". * OTHER SETTINGS MAY WORK, BUT HAVE NOT BEEN TESTED YET. * * * .SUBCKT UA78M15 1 2 3 * | | | * IN | | * OUT | * GND * *** VOLTAGE REFERENCE AND BIAS CURRENT SECTION *** DZ1 4 1 DZ1 .MODEL DZ1 D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 0.75 + IBV = .001 + ) RQ 4 17 86343.84 TC=5.3597E-4, 5.0408E-5 RR 17 18 5.2447 TC=0.005772, 6.2073E-5 DZR 16 18 DR .MODEL DR D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1.2588 + IBV = .001 + ) RZ 16 18 1MEG L1 16 3 IND1 .3573M .MODEL IND1 IND( + L = 1 + IL1 = 0 + IL2 = 0 + TC1 = 0.001123 + TC2 = 6.8566E-5 + ) *** ERROR AMPLIFIER SECTION *** EA 22 3 17 15 300 ROUT 22 6 10 D- 3 6 DCLAMP D+ 6 19 DCLAMP .MODEL DCLAMP D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) V+ 19 23 DC -1 E+ 23 3 1 3 1 RP 6 7 500 CP 7 3 CAP1 0.1U .MODEL CAP1 CAP( + C = 1 + VC1 = 0 + VC2 = 0 + TC1 = -0.002 + TC2 = 1E-4 + ) *** QUIESCENT CURRENT *** GB 1 9 17 3 0.4944M RQUIES 12 3 7213 TC=0.013985, 1.28953E-4 *** SHORT CIRCUIT AND FOLDBACK CURRENT *** DBL 9 8 DBL .MODEL DBL D( + IS = 1E-4 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) EB 8 3 7 3 2 RC 1 14 0.2 DC 14 13 DC .MODEL DC D( + IS = 1E-14 + RS = 0 + N = 1.6339 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) RB 9 11 100 QP 13 11 5 QP .MODEL QP NPN( + IS = 1E-12 + BF = 70K + NF = 1 + VAF = 150 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) DCL 9 10 DCL .MODEL DCL D( + IS = 1E-4 + RS = 0 + N = 2 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) QCL 10 20 12 QCL .MODEL QCL NPN( + IS = 1E-16 + BF = 100 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) RSC 5 12 1.2721 TC=0.00131, 1.2433E-5 RBCL 20 5 200 RFB 1 21 6089 TC=0.001143, -1.081421E-5 DZFB 20 21 DZFB .MODEL DZFB D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 10 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.01 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -1.78236E-4 + TBV2 = 4.2164E-6 + TRS1 = 0 + TRS2 = 0 + ) R24 15 3 600 R23 12 15 6900 *** OUTPUT RESISTANCE *** RO 12 2 0.02 TC=-8.3333E-4, -4.1667E-5 DDIS 2 1 DMOD .MODEL DMOD D( + IS = 1E-14 + RS = 0 + N = 0.7 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .ENDS UA78M15 *$ * * MANUFACTURERS PART NO. = UA79M05HM (FAIRCHILD) * SUBTYPE: REGULATOR * * THIS FILE CONTAINS A PRE-RAD MODEL AT 27 C OF THE LM7905 THAT WAS * DEVELOPED UNDER THE GUIDANCE OF GREGORY M. WIERZBA AT * MICHIGAN STATE UNIVERSITY. * PLEASE NOTE THE FOLLOWING: * 1) THIS MODEL IS TO BE USED FOR ROOM TEMPERATURE SIMULATIONS. THE BUILT- * IN SPICE TEMPERATURE CORRECTIONS WILL NOT WORK. * 2) RIPPLE REJECTION, OUTPUT IMPEDANCE, LINE TRANSIENT, AND LOAD * TRANSIENT RESPONSE ARE MODELED BASED ON LABORATORY * MEASUREMENTS. THE CORRELATION IS QUITE GOOD. THE SIMULATION VALUES * ARE WITHIN THE PRODUCT SPEC LIMITS. * 3) CURRENT LIMITING IS CURRENTLY SET FOR 600MA WITH FOLDBACK EFFECTS * FOR SAFE OPERATING REGION, BUT IF THIS CAUSES PROBLEMS IT CAN EASILY * BE CHANGED TO A HIGHER LEVEL FOR THE USER. * 4) QUIESCENT CURRENT HAS ALSO BEEN MODELED BUT REQUIRES MORE LAB * VERIFICATION. DROPOUT AND POWER UP CHARACTERISTICS HAVE NOT BEEN * DEVELOPED YET IN THIS MODEL. * 5) FOR FURTHER DETAILS AND THE MODEL DERIVATION, OBTAIN A COPY OF * "CA3085, LM7805, LM7812, LM7905, LM137 MACROMODEL DEVELOPMENT" BY G. M. * WIERZBA DATED 3/25/91. * * * * .SUBCKT UA79M05 1 2 3 99 * GND(PIN) | | | * OUT | | * IN | * ZERO REFERENCE(EXTERNAL GND) VREF 1 11 DC 3.7 ELREG 11 4 1 3 0.00234 IBIAS 4 3 DC 3.5M RIN 4 5 10000 E1 6 3 5 4 1000 RP 6 7 50000 C1 7 3 0.01U E2 12 3 7 3 1 DLIMIT 9 12 DMOD GLIMIT 3 9 POLY (1) 2 3 0.4M -4.3U GFB 9 3 POLY (1) 16 99 -0.2M 0.015M EFB 15 99 2 3 1 DFB 16 15 DZ RFB 16 99 1000 R1 5 10 1.7568K R2 1 5 5K RB 9 8 5 .MODEL DMOD D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) .MODEL DZ D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.5 + IBV = .001 + ) QOUT 10 8 3 QMOD .MODEL QMOD NPN ( + IS = 1E-14 + BF = 1000 + NF = 1 + VAF = 100 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) RCQ 10 14 1000 CQ 14 8 0.0001U RZOUT 10 2 0.04 .ENDS UA79M05 *$ * * MANUFACTURERS PART NO. = UA79M15HM (FAIRCHILD) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD TEMP. DEPENDENT MODEL OF THE UA79M15 * REGULATOR * *------------------------------------------------------------------------------ * * * THIS MODEL CAN BE USED FROM -55 C TO 125 C WITH THE .TEMP STATEMENT. IT * INCLUDES POWER-UP AND POWER-DOWN EFFECTS. IT IS NECESSARY TO SET * ITL1=300 ITL2=300 WITH THE .OPTIONS COMMAND FOR 100% CONVERGENCE. * THESE SETTINGS DETERMINE THE NUMBER OF ITERATIONS ALLOWED FOR THE * CALCULATION OF THE DC AND BIAS PT VALUES WHEN THE STARTING POINT IS * CONSIDERED "BLIND" OR AN "EDUCATED GUESS". OTHER SETTINGS MAY WORK, * BUT HAVE NOT BEEN TESTED YET. * * .SUBCKT UA79M15 1 2 3 99 * | | | | * GND(PIN) | | | * OUT | | * IN ZERO REFERENCE(EXTERNAL GND) * *** VOLTAGE REFERENCE SECTION *** LZR 4 1 IND1 0.2079M .MODEL IND1 IND( + L = 1 + IL1 = 0 + IL2 = 0 + TC1 = 0.021188 + TC2 = 3.9548E-4 + ) DZR 29 4 DZR .MODEL DZR D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 1P + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 2.7117 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.01 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -2.4708E-5 + TBV2 = 3.1346E-7 + TRS1 = 0 + TRS2 = 0 + ) RZR 29 4 1MEG RR 29 15 5.8475 TC=0.013783, 2.0804E-4 RQ 15 22 42072.4191 TC=0.007522, 1.3907E-4 D1 3 22 D1 .MODEL D1 D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 1P + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 2 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.01 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -0.004583 + TBV2 = 2.08333E-5 + TRS1 = 0 + TRS2 = 0 + ) **** FQ 1 3 POLY(3) VQ1 VQ2 VQ3 0 1 1 -1 *** ERROR AMPLIFIER SECTION *** EA 9 3 5 15 600 RO 6 9 200 D+ 6 20 DC E+ 20 21 1 3 1 V+ 21 3 -1 D- 19 6 DC .MODEL DC D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 1P + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) V- 19 3 DC 1 *** RP 6 7 1 CP 7 3 1U *** QUIESCENT CURRENT SECTION *** EQ1 23 99 TABLE {V(1,3)} (2,0) (6.5,4.5) VQ1 23 24 DC 0 RQ1 24 99 2251.1256 TC=0.004046, 1.1071E-5 EQ2 25 99 TABLE {V(1,3)} (6.5,0) (16,9.5) VQ2 25 26 DC 0 RQ2 26 99 5757.81 TC=0.008862, 5.369E-5 EQ3 27 99 TABLE {V(1,3)} (16,0) (16.5,0.5) VQ3 27 28 DC 0 RQ3 289 155.4 TC=0.005318, 1.2798E-5 *** GB 1 8 1 15 4M GCOMP 3 1 1 15 4M DB 8 18 DB .MODEL DB D( + IS = 1E-14 + RS = 0.1 + N = 0.1 + TT = 0 + CJO = 1P + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) EB 18 3 7 3 1 RB 8 10 10 *** CURRENT LIMIT AND FOLDBACK CURRENT SECTION *** QL 1 14 14 QTEMP .MODEL QTEMP NPN( + IS = 1E-16 + BF = 100 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) RFB 12 14 34.829K TC=0.003476, -3.2976E-6 DZFB 13 12 DZFB .MODEL DZFB D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 7.8523 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -0.001336 + TBV2 = 9.3921E-6 + TRS1 = 0 + TRS2 = 0 + ) QCL 10 13 3 QMOD RBCL 13 17 1K RCL 17 3 1.19625 TC=6.659E-4, 7.318E-6 *** RBC 11 14 351 CBC 10 11 1N *** OUTPUT TRANSISTOR *** QP 16 10 17 QMOD .MODEL QMOD NPN( + IS = 1E-14 + BF = 70000 + NF = 1 + VAF = 150 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) DDO 14 30 DDO .MODEL DDO D( + IS = 1E-14 + RS = 0 + N = 1.0876 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) RDDO 30 16 0.1 R23 1 5 2.69K R22 5 14 12.5K ROUT 14 2 0.4 TC=0.003976, -2.8869E-5 DDIS 3 14 DDIS .MODEL DDIS D( + IS = 1E-12 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .ENDS UA79M15 *$ * *---------------------------------------------------------------LAS1515 .SUBCKT LAS1515 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=550, R1_Value=3060 .ENDS *$ * *---------------------------------------------------------------MC7815C .SUBCKT MC7815C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=550, R1_Value=3060 .ENDS *$ * *---------------------------------------------------------------SG7815C .SUBCKT SG7815C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=550, R1_Value=3060 .ENDS *$ * *---------------------------------------------------------------UC7815C .SUBCKT UC7815C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=550, R1_Value=3060 .ENDS *$ * *---------------------------------------------------------------LM140-5 .SUBCKT LM140-5 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=1665, R1_Value=1020 .ENDS *$ * *---------------------------------------------------------------LM140-12 .SUBCKT LM140-12 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=694, R1_Value=2448 .ENDS *$ * *---------------------------------------------------------------LM140-15 .SUBCKT LM140-15 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=550, R1_Value=3060 .ENDS *$ * *---------------------------------------------------------------LM140A-5 .SUBCKT LM140A-5 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=1665, R1_Value=1020 .ENDS *$ * *---------------------------------------------------------------LM140A-12 .SUBCKT LM140A-12 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=694, R1_Value=2448 .ENDS *$ * *---------------------------------------------------------------LM140A-15 .SUBCKT LM140A-15 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=550, R1_Value=3060 .ENDS *$ * *---------------------------------------------------------------LM340-5 .SUBCKT LM340-5 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=1665, R1_Value=1020 .ENDS *$ * *---------------------------------------------------------------SG340-5 .SUBCKT SG340-5 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=1665, R1_Value=1020 .ENDS *$ * *---------------------------------------------------------------LM340-12 .SUBCKT LM340-12 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=694, R1_Value=2448 .ENDS *$ * *---------------------------------------------------------------SG340-12 .SUBCKT SG340-12 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=694, R1_Value=2448 .ENDS *$ * *---------------------------------------------------------------LM340-15 .SUBCKT LM340-15 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=550, R1_Value=3060 .ENDS *$ * *---------------------------------------------------------------LM340A-5 .SUBCKT LM340A-5 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=1665, R1_Value=1020 .ENDS *$ * *---------------------------------------------------------------TL780-05C .SUBCKT TL780-05C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=1665, R1_Value=1020 .ENDS *$ * *---------------------------------------------------------------LM340A-12 .SUBCKT LM340A-12 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=694, R1_Value=2448 .ENDS *$ * *---------------------------------------------------------------TL780-12C .SUBCKT TL780-12C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=694, R1_Value=2448 .ENDS *$ * *---------------------------------------------------------------LM340A-15 .SUBCKT LM340A-15 Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=550, R1_Value=3060 .ENDS *$ * *---------------------------------------------------------------TL780-15C .SUBCKT TL780-15C Input Output Ground x1 Input Output Ground x_LM78XX PARAMS: + Av_feedback=550, R1_Value=3060 .ENDS *$ *------------------------------------------------------------------------ *** Voltage regulators (positive/adjustable) * * LM117 voltage regulator "macromodel" subcircuit * created using Parts release 5.3 on 04/08/93 at 11:33 * PARTS is a MicroSim product. * * connections: input * | adjustment pin * | | output * | | | .SUBCKT LM117 IN ADJ OUT * * POSITIVE ADJUSTABLE VOLTAGE REGULATOR * JADJ IN ADJ ADJ JADJMOD ;ADJUSTMENT PIN CURRENT VREF 4 ADJ 1.25 DBK IN 13 DMOD * * ZERO OF RIPPLE REJECTION * CBC 13 15 8e-010 RBC 15 5 1000 * QPASS 13 5 OUT QPASSMOD RB1 7 6 1 RB2 6 5 128.3 * * CURRENT LIMITING * DSC 6 11 DMOD ESC 11 OUT VALUE {5.646-0.1125*V(6,5)*V(13,5)} * * FOLDBACK CURRENT * DFB 6 12 DMOD EFB 12 OUT VALUE {7.886-0.3727*V(13,5)+0.005097*V(13,5)*V(13,5) + -0.02*V(13,5)*V(6,5)} * EB 7 OUT 8 OUT 7.691 * * ZERO OF OUTPUT IMPEDANCE * RP 9 8 100 CPZ 10 OUT 3.979e-006 * DPU 10 OUT DMOD ;POWER-UP CLAMPLING DIODE RZ 8 10 0.1 EP 9 OUT 4 OUT 100 RI OUT 4 100MEG * .MODEL QPASSMOD NPN (IS=30F BF=50 VAF=8.891 NF=2.612) .MODEL JADJMOD NJF (BETA=5e-005 VTO=-1) .MODEL DMOD D (IS=30F N=2.612) .ENDS *$ * * MANUFACTURERS PART NO.= LM117HVH (NATIONAL SEMICONDUCTOR) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD TEMPERATURE DEPENDENT MODEL OF THE * LM117HVH THAT WAS DEVELOPED BY GREGORY M. WIERZBA OF MICHIGAN STATE * UNIVERSITY * * PLEASE NOTE THE FOLLOWING: * * 1) THIS MODEL CAN BE USED WITH THE .TEMP STATEMENT FOR TEMPERATURE * SIMULATIONS. * 2) THE RIPPLE REJECTION AND LINE TRANSIENT RESPONSE DATA FOUND IN THE * NATIONAL DATA SHEET ARE REPORTED BY THE MODEL DEVELOPER TO BE * INCORRECT. * 3) THIS MODEL SIMULATES SLOW POWER-UP TRANSIENTS( RISE TIME > 5US ) * QUITE WELL. A THERMAL OVERLOAD PROTECTOR SHUTS OFF THE REGULATOR * DUE TO A FAST RISING INPUT WITH A DELAY OF APPROXIMATELY 150USEC. * THIS IS NOT SIMULATED IN THE MODEL. * 4) FOR FURTHER DETAILS AND THE MODEL DERIVATION, OBTAIN A COPY OF * LM117HVH MACROMODEL DEVELOPMENT" BY G. M. WIERZBA DATED 10/25/90. * *** PLEASE NOTE: THE LM117 IS A 1.2 V TO 37 V DEVICE, WHEREAS THE LM117HVH * IS A 1.2 V TO 57 V DEVICE. CHANGE THE NECESSARY PARAMETERS * BEFORE USING THIS MODEL FOR THE LM117 * **** PLEASE NOTE THE FOLLOWING 'WORK AROUND' IF OSCILLATIONS OCCUR WITH A * CAPACITOR ON THE OUTPUT: * * SERIES VOLTAGE REGULATORS CONTAIN HIGH GAIN FEEDBACK AMPLIFIERS. AS * WITH ANY FEEDBACK CIRCUIT, DRIVING CAPACITIVE LOADS CAN CAUSE * INSTABILITY. * THE DATA SHEET FOR THE LM117HVH POINTS OUT THAT EVEN 500 PF CAN CAUSE * OSCILLATIONS. ADDING MORE CAPACITANCE, IN GENERAL, MAKES THE PROBLEM * WORSE. THE DATA SHEET SUGGESTS ADDING A LARGE VALUED ELECTROLYTIC OR * TANTALUM CAPACITOR TO SUPPRESS THE OSCILLATIONS. THIS WORKS BECAUSE * THE EFFECTIVE SERIES RESISTANCE (ESR) OF THESE CAPACITORS IS HIGH AND * PRODUCES POLE-ZERO CANCELLATION MUCH LIKE THE SERIES RC CIRCUIT * ACROSS A HIGH PERFORMANCE OPAMP INPUT. * * THE FORMULA FOR ESR IN OHMS IS ESR=(DISSIPATION FACTOR)/(2*PI*F*C). SINCE * THE DISSIPATION FACTOR IS FAIRLY CONSTANT, THIS RESISTOR IS A NONLINEAR * FUNCTION OF FREQUENCY. THIS IS DIFFICULT TO MODEL IN SPICE. HOWEVER, * MODELING THE CAPACITOR ACCURATELY AT 40 KHZ IS CRITICAL FOR STABILITY BE- * CAUSE OF THE EXISTENCE OF A POLE IN THE RIPPLE REJECTION AT THIS * FREQUENCY * * THE LM117 MODEL IS STABLE WITH CAPACITIVE LOADS PROVIDED THAT THE ESR IS * INCLUDED. FOR EXAMPLE, IF A 1 OHM RESISTOR IS ADDED IN SERIES WITH A 1 UF * LOAD THEN THE TRANSIENTS DIE OUT WITH TIME. IF THE LOAD CAPACITANCE IS * 0.1 UF THEN R SHOULD BE 10 OHMS IN ORDER TO MAINTAIN THE SAME DISSIPATION * FACTOR. * * * .SUBCKT LM117HV 1 2 3 111 * | | | | * IN | | | * OUT | | * ADJ | * GND(REFERENCE) GADJ 1 4 POLY(1) 100 111 48.4U 1.05739E-7 -5.3237E-10 EREF 4 3 POLY(1) 100 111 1.2782 -6.95011E-7 -1.26005E-6 -6.1947E-9 RC 1 14 0.742 DBK 14 13 DLM117HV CBC 13 15 2.479N CPZ 10 2 0.796U HRBC 15 202 POLY(2) VRBC VTJ 0 247 0 0 1.3722 VRBC 202 5 DC 0 QP 13 5 2 QLM117HV HRB2 5 203 POLY(2) VRB2 VTJ 0 124 0 0 0.68888 VRB2 203 6 DC 0 DSC 6 11 DLM117HV ESC 11 2 POLY(2) (13,5) (6,5) 2.85 0 0 0 -70.1M DFB 6 12 DLM117HV EFB 12 2 POLY(2) (13,5) (6,5) 3.92 -135M 0 1.21M -70.1M RB1 7 6 1 EB 7 2 8 2 2.56 RZ 8 10 .104 RP 9 8 100 EP 9 2 4 2 103.6 RI 2 4 100MEG .MODEL QLM117HV NPN ( + IS = 30F + BF = 50 + NF = 1.604 + VAF = 14.97 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + ) .MODEL DLM117HV D ( + IS = 30F + RS = 0 + N = 1.604 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 0 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) ******THERMAL SENSING CIRCUITRY************** GPD 102 100 POLY(2) (1,2) (1,14) 0 0 0 0 1.347709 RJC 100 101 12 RCA 101 102 12.5 CJA 100 102 0.001 EAMB 102 111 103 111 1 IAMB 111 103 DC 1 RT1 103 104 100 TC=0.01 RT2 104 111 -100.0000001 ETJ 105 111 100 0 1 VTJ 105 106 DC 0 RTJ 106 111 1 .ENDS LM117HV *$ * LM138 voltage regulator "macromodel" subcircuit * created using Parts release 5.3 on 04/08/93 at 11:59 * PARTS is a MicroSim product. * * connections: input * | adjustment pin * | | output * | | | .SUBCKT LM138 IN ADJ OUT * * POSITIVE ADJUSTABLE VOLTAGE REGULATOR * JADJ IN ADJ ADJ JADJMOD ;ADJUSTMENT PIN CURRENT VREF 4 ADJ 1.24 DBK IN 13 DMOD * * ZERO OF RIPPLE REJECTION * CBC 13 15 8e-010 RBC 15 5 1000 * QPASS 13 5 OUT QPASSMOD RB1 7 6 1 RB2 6 5 128.3 * * CURRENT LIMITING * DSC 6 11 DMOD ESC 11 OUT VALUE {20.53-0.5*V(6,5)*V(13,5)} * * FOLDBACK CURRENT * DFB 6 12 DMOD EFB 12 OUT VALUE {30.11-1.803*V(13,5)+0.02919*V(13,5)*V(13,5) + -0.5*V(13,5)*V(6,5)} * EB 7 OUT 8 OUT 22.37 * * ZERO OF OUTPUT IMPEDANCE * RP 9 8 100 CPZ 10 OUT 1.326e-005 * DPU 10 OUT DMOD ;POWER-UP CLAMPLING DIODE RZ 8 10 0.1 EP 9 OUT 4 OUT 100 RI OUT 4 100MEG * .MODEL QPASSMOD NPN (IS=30F BF=50 VAF=2 NF=2.612) .MODEL JADJMOD NJF (BETA=4.5e-005 VTO=-1) .MODEL DMOD D (IS=30F N=2.612) .ENDS *$ * * MANUFACTURERS PART NO. = LM139 (TEXAS INSTRUMENTS) * SUBTYPE: COMPARATOR * THIS IS A PRE-RAD MODEL OF THE LM139 WHICH MAY BE USED * WITH A .TEMP STATEMENT FROM -55 C TO 125 C. * THIS MODEL MAY BE USED FOR ALL OF THE FOLLOWING DEVICES : * LM139 * LM139J * LM139W * LM139A * ************* * * THE FOLLOWING PARAMETERS HAVE BEEN MODELED: * RESPONSE TIME (HL); MEAS=1US SIM=1.3US ; RESPONSE TIME (LH); MEAS=2.2US * SIM=2US; VIO MEAS=721UV SIM=97UV; -IB MEAS=20NA SIM=15.8NA ; +IB MEAS=20NA * SIM=17NA; IOS MEAS=132PA SIM=1.4NA; ICC+ MEAS=1.14MA SIM=1.08MA * THIS MODEL WORKS WELL WITH ASYMMETRIC POWER SUPPLIES ***** * * CONNECTION: NON-INVERTING INPUT * | INVERTING INPUT * | | POSITIVE POWER SUPPLY * | | | NEGATIVE POWER SUPPLY * | | | | OPEN COLLECTOR OUTPUT * | | | | | .SUBCKT LM139/TEMP 1 2 3 4 5 X6 3 34 LED RE 3 35 8.4K RS1 34 4 30.5K Q8 7 34 35 QKI DV1 21 1 DX DV2 22 2 DX Q1 9 21 7 QIN Q2 8 22 7 QIN Q3 9 9 4 QMO Q4 8 9 4 QMO Q7 11 190 19 QKI Q6 11 8 4 QN .MODEL QN NPN( + IS = 0.8F + BF = 250 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 7.5N + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 350N + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) RE1 3 19 8.4K RS2 190 4 30.5K XLED2 3 190 LED Q5 5 11 4 QOC .MODEL QOC NPN( + IS = 0.8F + BF = 20290 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 20N + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 1E-15 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 543.8E-9 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .MODEL QIN PNP( + IS = 0.8F + BF = 200 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 1E-15 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .MODEL QMO NPN( + IS = 0.8F + BF = 200 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 1E-15 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 807.4E-9 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .MODEL QKI PNP( + IS = 0.8F + BF = 1000 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 1E-15 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .MODEL DX D( + IS = 0.8F + RS = 0.0001 + N = 1 + TT = 0 + CJO = 1E-15 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) .ENDS LM139/TEMP * .SUBCKT LED 1 3 ********** ANODE CATHODE D1 1 2 DX1 VL 2 3 0.8 .MODEL DX1 D( + IS = 0.8F + RS = 1 + N = 1 + TT = 0 + CJO = 1E-15 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) .ENDS LED *$ * LM150 voltage regulator "macromodel" subcircuit * created using Parts release 5.3 on 04/08/93 at 12:05 * PARTS is a MicroSim product. * * connections: input * | adjustment pin * | | output * | | | .SUBCKT LM150 IN ADJ OUT * * POSITIVE ADJUSTABLE VOLTAGE REGULATOR * JADJ IN ADJ ADJ JADJMOD ;ADJUSTMENT PIN CURRENT VREF 4 ADJ 1.25 DBK IN 13 DMOD * * ZERO OF RIPPLE REJECTION * CBC 13 15 8e-010 RBC 15 5 1000 * QPASS 13 5 OUT QPASSMOD RB1 7 6 1 RB2 6 5 128.3 * * CURRENT LIMITING * DSC 6 11 DMOD ESC 11 OUT VALUE {11.55-0.3749*V(6,5)*V(13,5)} * * FOLDBACK CURRENT * DFB 6 12 DMOD EFB 12 OUT VALUE {18.9-1.228*V(13,5)+0.02328*V(13,5)*V(13,5) + -0.374894*V(13,5)*V(6,5)} * EB 7 OUT 8 OUT 13.53 * * ZERO OF OUTPUT IMPEDANCE * RP 9 8 100 CPZ 10 OUT 1.592e-005 * DPU 10 OUT DMOD ;POWER-UP CLAMPLING DIODE RZ 8 10 0.1 EP 9 OUT 4 OUT 100 RI OUT 4 100MEG * .MODEL QPASSMOD NPN (IS=30F BF=50 VAF=2.667 NF=2.612) .MODEL JADJMOD NJF (BETA=5e-005 VTO=-1) .MODEL DMOD D (IS=30F N=2.612) .ENDS *$ * LM196 voltage regulator "macromodel" subcircuit * created using Parts release 5.3 on 04/08/93 at 11:33 * PARTS is a MicroSim product. * * connections: input * | adjustment pin * | | output * | | | .SUBCKT LM196 IN ADJ OUT * * POSITIVE ADJUSTABLE VOLTAGE REGULATOR * JADJ IN ADJ ADJ JADJMOD ;ADJUSTMENT PIN CURRENT VREF 4 ADJ 1.25 DBK IN 13 DMOD * * ZERO OF RIPPLE REJECTION * CBC 13 15 8e-010 RBC 15 5 1000 * QPASS 13 5 OUT QPASSMOD RB1 7 6 1 RB2 6 5 128.3 * * CURRENT LIMITING * DSC 6 11 DMOD ESC 11 OUT VALUE {25.66-0.003981*V(6,5)*V(13,5)} * * FOLDBACK CURRENT * DFB 6 12 DMOD EFB 12 OUT VALUE {38.46-3.533*V(13,5)+0.08855*V(13,5)*V(13,5) + -0.02*V(13,5)*V(6,5)} * EB 7 OUT 8 OUT 26.85 * * ZERO OF OUTPUT IMPEDANCE * RP 9 8 100 CPZ 10 OUT 1.592e-006 * DPU 10 OUT DMOD ;POWER-UP CLAMPLING DIODE RZ 8 10 0.1 EP 9 OUT 4 OUT 100 RI OUT 4 100MEG * .MODEL QPASSMOD NPN (IS=30F BF=50 VAF=251.2 NF=1.956) .MODEL JADJMOD NJF (BETA=5e-005 VTO=-1) .MODEL DMOD D (IS=30F N=1.956) .ENDS *$ * LT1084C voltage regulator "macromodel" subcircuit * created using Parts release 5.3 on 04/08/93 at 12:23 * PARTS is a MicroSim product. * * connections: input * | adjustment pin * | | output * | | | .SUBCKT LT1084C IN ADJ OUT * * POSITIVE ADJUSTABLE VOLTAGE REGULATOR * JADJ IN ADJ ADJ JADJMOD ;ADJUSTMENT PIN CURRENT VREF 4 ADJ 1.25 DBK IN 13 DMOD * * ZERO OF RIPPLE REJECTION * CBC 13 15 8e-010 RBC 15 5 1000 * QPASS 13 5 OUT QPASSMOD RB1 7 6 1 RB2 6 5 128.3 * * CURRENT LIMITING * DSC 6 11 DMOD ESC 11 OUT VALUE {17.96-0.01186*V(6,5)*V(13,5)} * * FOLDBACK CURRENT * DFB 6 12 DMOD EFB 12 OUT VALUE {16.63+0.5959*V(13,5)-0.0801*V(13,5)*V(13,5) + -0.0118552*V(13,5)*V(6,5)} * EB 7 OUT 8 OUT 18.79 * * ZERO OF OUTPUT IMPEDANCE * RP 9 8 100 CPZ 10 OUT 1.592e-005 * DPU 10 OUT DMOD ;POWER-UP CLAMPLING DIODE RZ 8 10 0.1 EP 9 OUT 4 OUT 100 RI OUT 4 100MEG * .MODEL QPASSMOD NPN (IS=30F BF=50 VAF=84.35 NF=1.373) .MODEL JADJMOD NJF (BETA=5.5e-005 VTO=-1) .MODEL DMOD D (IS=30F N=1.373) .ENDS *$ * TL783C voltage regulator "macromodel" subcircuit * created using Parts release 5.3 on 04/08/93 at 15:09 * PARTS is a MicroSim product. * * connections: input * | adjustment pin * | | output * | | | .SUBCKT TL783C IN ADJ OUT * * POSITIVE ADJUSTABLE VOLTAGE REGULATOR * JADJ IN ADJ ADJ JADJMOD ;ADJUSTMENT PIN CURRENT VREF 4 ADJ 1.27 DBK IN 13 DMOD * * ZERO OF RIPPLE REJECTION * CBC 13 15 8e-010 RBC 15 5 1000 * QPASS 13 5 OUT QPASSMOD RB1 7 6 1 RB2 6 5 85.21 * * CURRENT LIMITING * DSC 6 11 DMOD ESC 11 OUT VALUE {1.96-0.01057*V(6,5)*V(13,5)} * * FOLDBACK CURRENT * DFB 6 12 DMOD EFB 12 OUT VALUE {2.326-0.03221*V(13,5)+0.0001421*V(13,5)*V(13,5) + -0.02*V(13,5)*V(6,5)} * EB 7 OUT 8 OUT 8.069 * * ZERO OF OUTPUT IMPEDANCE * RP 9 8 100 CPZ 10 OUT 1.989e-006 * DPU 10 OUT DMOD ;POWER-UP CLAMPLING DIODE RZ 8 10 0.1 EP 9 OUT 4 OUT 100 RI OUT 4 100MEG * .MODEL QPASSMOD NPN (IS=30F BF=50 VAF=94.64 NF=7.604) .MODEL JADJMOD NJF (BETA=8.3e-005 VTO=-1) .MODEL DMOD D (IS=30F N=7.604) .ENDS *$ * *--------------------------------------------------------------------------------------- *** Voltage regulators (negative) .SUBCKT x_LM79XX Input Output Ground PARAMS: + Av_feedback=1660, R1_Value=4615, + Rbg_Tc1=8.13E-5, Rbg_Tc2=0.0, + Rout_Value=0.01, Rreg_Value=1.2k * * SERIES 3-TERMINAL NEGATIVE REGULATOR * * Note: This regulator is based on the LM79XX series of * regulators (also the LM120 and LM320). The * LM79XX regulators are unstable and will * oscillate unless a 1 uFarad solid tantalum * capacitor is placed on the output with an ESR * betweed .5 and 1.5. This model is stable without * a capacitor on the output. When performing * simulations a 1 uFarad capacitor should still be * placed on the output. However, it it not necessary * to include a resistor in series with this capacitor * to model the ESR of the capacitor. See the * comments and circuit description of the x_LM78XX * regulator for more information on this model. * * Band-gap voltage source: * Vbg 100 0 DC -7.4V Sbg (100,101),(Ground,Input) Sbg1 Rbg 101 0 Rbg1 1 .MODEL Rbg1 RES (Tc1={Rbg_Tc1},Tc2={Rbg_Tc2}) Ebg (102,0),(Input,Ground) 1 Rreg 102 101 {Rreg_Value} .MODEL Sbg1 VSWITCH (Ron=1 Roff=1MEG Von=3.7 Voff=3) * * Feedback stage * Rfb 9 8 1MEG Cfb 8 Ground 265PF * Eopamp 105 0 VALUE={2250*v(101,0)+Av_feedback*v(Ground,8)} Vgainf 200 0 {Av_feedback} Rgainf 200 0 1 Eopamp 105 0 POLY(3),(101,0),(Ground,8),(200,0) 0 2250 0 0 0 0 0 0 1 Ro 105 106 1k D1 108 106 Dlim D2 106 107 Dlim .MODEL Dlim D (Vj=0.7) Vl1 108 102 DC 1 Vl2 0 107 DC 1 * * Quiescent current modelling * Gq (Ground,Input),(9,Input) 9.0E-7 R1 9 Ground {R1_Value} TC=0.001 Fl (Ground,0) Vmon 3.0E-4 * * Output Stage * Q1 9 5 6 Npn1 Q2 9 6 7 Npn1 10 .MODEL Npn1 NPN (Bf=50 Is=1E-14) * Efb 4 Ground VALUE={v(Input,Ground)+v(0,106)} Efb 4 Ground POLY(2),(Input,Ground),(0,106) 0 1 1 Rb 4 5 1k TC=0.003 Re 6 7 2k Rsc 7 Input 0.13 TC=1.136E-3,-7.806E-6 Rout 9 Imon {Rout_Value} Vmon Imon Output DC 0.0 * * Current Limit * Qcl1 54 52 53 Npn1 Qcl3 Input 54 5 Pnp1 .MODEL Pnp1 PNP (Bf=250 Is=1E-14) Rcl3 5 54 1.8k Qcl2 52 52 51 Npn1 Veset 53 Input DC 0.3v Ibias Input 52 DC 300u Rcl1 50 51 20k Rcl2 51 7 115 Dz1 50 9 Dz .MODEL Dz D (Is=0.05p Rs=3 Bv=7.11 Ibv=0.05u) .ENDS *$ * *---------------------------------------------------------------LM7905C .SUBCKT LM7905C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=1660, R1_Value=4615, + Rbg_Tc1=8.13E-5, Rbg_Tc2=0.0, + Rout_Value=0.01, Rreg_Value=1.2k .ENDS *$ * *---------------------------------------------------------------uA7905C .SUBCKT uA7905C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=1660, R1_Value=4615, + Rbg_Tc1=8.13E-5, Rbg_Tc2=0.0, + Rout_Value=0.01, Rreg_Value=1.2k .ENDS *$ * *---------------------------------------------------------------LAS1805 .SUBCKT LAS1805 Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=1660, R1_Value=4615, + Rbg_Tc1=8.13E-5, Rbg_Tc2=0.0, + Rout_Value=0.01, Rreg_Value=1.2k .ENDS *$ * *---------------------------------------------------------------MC7905C .SUBCKT MC7905C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=1660, R1_Value=4615, + Rbg_Tc1=8.13E-5, Rbg_Tc2=0.0, + Rout_Value=0.01, Rreg_Value=1.2k .ENDS *$ * *---------------------------------------------------------------SG7905C .SUBCKT SG7905C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=1660, R1_Value=4615, + Rbg_Tc1=8.13E-5, Rbg_Tc2=0.0, + Rout_Value=0.01, Rreg_Value=1.2k .ENDS *$ * *---------------------------------------------------------------UC7905C .SUBCKT UC7905C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=1660, R1_Value=4615, + Rbg_Tc1=8.13E-5, Rbg_Tc2=0.0, + Rout_Value=0.01, Rreg_Value=1.2k .ENDS *$ * *---------------------------------------------------------------LM7912C .SUBCKT LM7912C INPUT OUTPUT GROUND x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=694, R1_Value=11076, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.01, Rreg_Value=9.1k .ENDS *$ * *---------------------------------------------------------------uA7912C .SUBCKT uA7912C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=694, R1_Value=11076, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.01, Rreg_Value=9.1k .ENDS *$ * *--------------------------------------------------------------- .SUBCKT LAS1812 Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=694, R1_Value=11076, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.01, Rreg_Value=9.1k .ENDS *$ * *---------------------------------------------------------------MC7912C .SUBCKT MC7912C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=694, R1_Value=11076, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.01, Rreg_Value=9.1k .ENDS *$ * *---------------------------------------------------------------SG7912C .SUBCKT SG7912C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=694, R1_Value=11076, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.01, Rreg_Value=9.1k .ENDS *$ * *---------------------------------------------------------------UC7912C .SUBCKT UC7912C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=694, R1_Value=11076, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.01, Rreg_Value=9.1k .ENDS *$ * *---------------------------------------------------------------LM7915C .SUBCKT LM7915C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=555, R1_Value=13845, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.01, Rreg_Value=11.3k .ENDS *$ * *---------------------------------------------------------------uA7915C .SUBCKT uA7915C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=555, R1_Value=13845, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.01, Rreg_Value=11.3k .ENDS *$ * *---------------------------------------------------------------LAS1815 .SUBCKT LAS1815 Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=555, R1_Value=13845, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.01, Rreg_Value=11.3k .ENDS *$ * *---------------------------------------------------------------MC7915C .SUBCKT MC7915C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=555, R1_Value=13845, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.01, Rreg_Value=11.3k .ENDS *$ * * MANUFACTURERS PART NO.= SG7915AIG * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD TEMP. DEPENDENT MODEL OF THE SG7915 * REGULATOR * *------------------------------------------------------------------------------ * * * THIS MODEL CAN BE USED FROM -55 C TO 125 C WITH THE .TEMP STATEMENT. IT * INCLUDES POWER-UP AND POWER-DOWN EFFECTS. * IT IS NECESSARY TO SET ITL1=300 ITL2=300 WITH THE * .OPTIONS COMMAND FOR 100% CONVERGENCE. THESE SETTINGS DETERMINE THE * NUMBER OF ITERATIONS ALLOWED FOR THE CALCULATION OF THE DC AND BIAS PT * VALUES WHEN THE STARTING POINT IS CONSIDERED "BLIND" OR AN "EDUCATED * GUESS". OTHER SETTINGS MAY WORK, BUT HAVE NOT BEEN TESTED YET. * * .SUBCKT SG7915 1 2 3 100 * | | | | * GND(PIN) | | | * OUT | | * IN | * ZERO REFERENCE(EXTERNAL GND) *** VOLTAGE REFERENCE SECTION *** LZR 4 1 IND1 0.2079M .MODEL IND1 IND( + L = 1 + IL1 = 0 + IL2 = 0 + TC1 = 0.021188 + TC2 = 3.9548E-4 + ) DZR 29 4 DZR .MODEL DZR D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 1P + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 2.7117 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.01 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -2.4708E-5 + TBV2 = 3.1346E-7 + TRS1 = 0 + TRS2 = 0 + ) RZR 29 4 1MEG RR 29 15 5.8475 TC=0.013783, 2.0804E-4 RQ 15 22 42072.4191 TC=0.007522, 1.3907E-4 D1 3 22 D1 .MODEL D1 D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 1P + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 2 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.01 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -0.004583 + TBV2 = 2.08333E-5 + TRS1 = 0 + TRS2 = 0 + ) **** FQ 1 3 POLY(3) VQ1 VQ2 VQ3 0 1 1 -1 *** ERROR AMPLIFIER SECTION *** EA 9 3 5 15 600 RO 6 9 200 D+ 6 20 DC E+ 20 21 1 3 1 V+ 21 3 -1 D- 19 6 DC .MODEL DC D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 1P + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) V- 19 3 DC 1 *** RP 6 7 1 CP 7 3 1U *** QUIESCENT CURRENT SECTION *** EQ1 23 100 TABLE {V(1,3)} (2,100) (6.5,4.5) VQ1 23 24 DC 0 RQ1 24 100 2251.1256 TC=0.004046, 1.1071E-5 EQ2 25 100 TABLE {V(1,3)} (6.5,0) (16,9.5) VQ2 25 26 DC 0 RQ2 26 100 5757.81 TC=0.008862, 5.369E-5 EQ3 27 100 TABLE {V(1,3)} (16,0) (16.5,0.5) VQ3 27 28 DC 0 RQ3 28 100 155.4 TC=0.005318, 1.2798E-5 *** GB 1 8 1 15 4M GCOMP 3 1 1 15 4M DB 8 18 DB .MODEL DB D( + IS = 1E-14 + RS = 0.1 + N = 0.1 + TT = 0 + CJO = 1P + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) EB 18 3 7 3 1 RB 8 10 10 *** CURRENT LIMIT AND FOLDBACK CURRENT SECTION *** QL 1 14 14 QTEMP .MODEL QTEMP NPN( + IS = 1E-16 + BF = 100 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) RFB 12 14 46.8663K TC=0.003476, -3.2976E-6 DZFB 13 12 DZFB .MODEL DZFB D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 7.8523 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -0.001336 + TBV2 = 9.3921E-6 + TRS1 = 0 + TRS2 = 0 + ) QCL 10 13 3 QMOD RBCL 13 17 1K RCL 17 3 0.2175 TC=6.659E-4, 7.318E-6 *** RBC 11 14 1762 CBC 10 11 1N *** OUTPUT TRANSISTOR *** QP 16 10 17 QMOD .MODEL QMOD NPN( + IS = 1E-14 + BF = 70000 + NF = 1 + VAF = 150 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) DDO 14 30 DDO .MODEL DDO D( + IS = 1E-14 + RS = 0 + N = 1.0876 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) RDDO 30 16 0.1 R23 1 5 2.69K R22 5 14 12.5K ROUT 14 2 0.0891 TC=0.003976, -2.8869E-5 DDIS 3 14 DDIS .MODEL DDIS D( + IS = 1E-12 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .ENDS SG7915 *$ * *---------------------------------------------------------------SG7915C .SUBCKT SG7915C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=555, R1_Value=13845, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.01, Rreg_Value=11.3k .ENDS *$ * *---------------------------------------------------------------UC7915C .SUBCKT UC7915C Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=555, R1_Value=13845, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.01, Rreg_Value=11.3k .ENDS *$ * *---------------------------------------------------------------LM120K-5 .SUBCKT LM120K-5 Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=1660, R1_Value=4615, + Rbg_Tc1=8.13E-5, Rbg_Tc2=0.0, + Rout_Value=0.03, Rreg_Value=1.2k .ENDS *$ * *---------------------------------------------------------------LM120K-12 .SUBCKT LM120K-12 Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=694, R1_Value=11076, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.03, Rreg_Value=9.1k .ENDS *$ * *---------------------------------------------------------------LM120K-15 .SUBCKT LM120K-15 Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=555, R1_Value=13845, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.03, Rreg_Value=11.3k .ENDS *$ * *---------------------------------------------------------------LM320K-5 .SUBCKT LM320K-5 Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=1660, R1_Value=4615, + Rbg_Tc1=8.13E-5, Rbg_Tc2=0.0, + Rout_Value=0.03, Rreg_Value=1.2k .ENDS *$ * *---------------------------------------------------------------LM320K-12 .SUBCKT LM320K-12 Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=694, R1_Value=11076, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.03, Rreg_Value=9.1k .ENDS *$ * *---------------------------------------------------------------LM320K-15 .SUBCKT LM320K-15 Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=555, R1_Value=13845, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.03, Rreg_Value=11.3k .ENDS *$ * *---------------------------------------------------------------LM320T-5 .SUBCKT LM320T-5 Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=1660, R1_Value=4615, + Rbg_Tc1=8.13E-5, Rbg_Tc2=0.0, + Rout_Value=0.03, Rreg_Value=1.2k .ENDS *$ * *---------------------------------------------------------------LM320T-12 .SUBCKT LM320T-12 Input Output Ground x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=694, R1_Value=11076, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.03, Rreg_Value=9.1k .ENDS *$ * *---------------------------------------------------------------LM320T-15 .SUBCKT LM320T-15 nput Output round x1 Input Output Ground x_LM79XX PARAMS: + Av_feedback=555, R1_Value=13845, + Rbg_Tc1=-9.50E-7, Rbg_Tc2=-6.53E-7, + Rout_Value=0.03, Rreg_Value=11.3k .ENDS *$ *------------------------------------------------------------------------ *** Precision voltage regulators *---------------------------------------------------------------LM723 * connections: current limit * | current sense * | | inverting input * | | | non-inverting input * | | | | Vref * | | | | | Vcc- * | | | | | | Vz * | | | | | | | Vout * | | | | | | | | Vc * | | | | | | | | | Vcc+ * | | | | | | | | | | frequency compensation * | | | | | | | | | | | .SUBCKT LM723 2 3 4 5 6 7 9 10 11 12 13 * * Note: This model is based on the National LM723 voltage * regulator. All characterization is from data sheet * information. The pin configuration corresponds to * the dual-in-line package. Therefore, it includes * an internal 6.2 volt zener diode between Vout and Vz * In the model, GIee & GIcc adjust the short circuit * current limit and the standby current. Rsb and the * temperature coefficient on RIee also affect the * standby current. Bf and the transresistance term * on HVref adjust the low frequency output impedence * and the load regulation. Rlnreg controls the line * regulation and ripple rejection. Rref and its * temperature coefficient determine the average * temperature coefficient with respect to the output * voltage. * * Standby Current Correction * Rsb 12 7 300k * * Error Amplifier * Rlnreg 12 13 4meg * Icc 12 13 DC 583ua * Iee 20 7 DC 1166ua Iee 0 24 1166ua RIee 24 0 1 TC=4E-3 GIee (20,7),(24,0) 1.0 GIcc (12,13),(24,0) 0.5 Q5 12 5 20 Npn1 Q4 13 4 20 Npn1 * * Voltage Reference * HVref 22 7 POLY(1) Vmon 7.15 0.0 Rref 22 6 15ohm TC=0.01 * * Output Stage * Q1 12 13 21 Npn1 Q2 11 21 23 Npn1 Vmon 23 10 DC 0.0 Re 21 10 15k .MODEL Npn1 NPN (Bf=55 Is=1E-14) * * Frequency Compensation, Current Limit, Current Sense * Q3 13 2 3 Npn1 R2 2 7 1.0e12 R3 3 7 1.0e12 * * Zener Diode (6.2V) to pin 9 * Dz 9 10 Dz Rz 9 7 1.0e12 .MODEL Dz D (Is=0.05p Rs=4 Bv=5.79 Ibv=0.05u) * .ENDS *$ * *---------------------------------------------------------------uA723M .SUBCKT uA723M 2 3 4 5 6 7 9 10 11 12 13 * x1 2 3 4 5 6 7 9 10 11 12 13 LM723 * * the uA723M is identical to the LM723 * .ENDS *$ * *---------------------------------------------------------------LM723C .SUBCKT LM723C 2 3 4 5 6 7 9 10 11 12 13 * x1 2 3 4 5 6 7 9 10 11 12 13 LM723 * * the LM723C is identical to the LM723, * but with a more limited temperature range * .ENDS *$ * *---------------------------------------------------------------uA723C .SUBCKT uA723C 2 3 4 5 6 7 9 10 11 12 13 * x1 2 3 4 5 6 7 9 10 11 12 13 LM723 * * the uA723C is identical to the LM723, * but with a more limited temperature range * .ENDS *$ * * MANUFACTURERS PART NO. = UA723 (FAIRCHILD) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD ROOM TEMPERATURE MODEL. * * * CONNECTIONS: CURRENT SENSE * | INVERTING INPUT * | | NON-INVERTING INPUT * | | | VREF * | | | | VCC- * | | | | | VOUT * | | | | | | VC * | | | | | | | VCC+ * | | | | | | | | FREQUENCY COMPENSATION * | | | | | | | | | CURRENT LIMITING * | | | | | | | | | | .SUBCKT UA723/27C 1 2 3 4 5 6 7 8 9 10 * DZ1 13 8 DZ1 .MODEL DZ1 D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1.2 + IBV = .001 + ) RQ 12 13 288K R1 12 5 5.875MEG DREF 11 12 DREF .MODEL DREF D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 7 + IBV = .001 + ) RR1 11 5 700K RR2 18 5 600 LREF 18 11 2M RLREF 18 11 100MEG FLOADR 5 12 VSENSE 89.35U GQ1 8 4 12 5 0.2857M EREF 4 5 12 5 1 RIN 2 3 100K GQ2 8 17 4 5 0.0249M DB 17 19 DB .MODEL DB D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) ROUT 19 14 5 EA 14 5 3 2 600 DCLOW 5 19 DCLOW .MODEL DCLOW D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) EC 20 5 8 5 1 DCHIGH 19 20 DCHIGH .MODEL DCHIGH D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) RB1 17 9 10 RB2 9 21 10 QL4 8 21 16 QPASS QL5 7 16 15 QPASS .MODEL QPASS NPN ( + IS = 1E-16 + BF = 50 + NF = 1 + VAF = 100 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) VSENSE 15 6 DC 0 RE 16 15 15K QLIMIT 9 10 1 QLIMIT .MODEL QLIMIT NPN ( + IS = 1E-16 + BF = 100 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .ENDS UA723/27C *$ * * MANUFACTURERS PART NO. = UA723 (FAIRCHILD) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD TEMPERATURE DEPENDENT MODEL. * *------------------------------------------------------------------------------ * * * THIS MODEL CAN BE USED FROM -55 C TO 125 C WITH THE .TEMP STATEMENT. IT * INCLUDES POWER-UP AND POWER-DOWN EFFECTS. IT IS NECESSARY TO SET * ITL1=300 ITL2=300 WITH THE .OPTIONS COMMAND FOR 100% CONVERGENCE. THESE * SETTINGS DETERMINE THE NUMBER OF ITERATIONS ALLOWED FOR THE * CALCULATION OF THE DC AND BIAS PT VALUES WHEN THE STARTING POINT IS * CONSIDERED "BLIND" OR AN "EDUCATED GUESS". OTHER SETTINGS MAY WORK, BUT * HAVE NOT BEEN TESTED YET. * * * CONNECTIONS: CURRENT SENSE * | INVERTING INPUT * | | NON-INVERTING INPUT * | | | VREF * | | | | VCC- * | | | | | VOUT * | | | | | | VC * | | | | | | | VCC+ * | | | | | | | | FREQUENCY COMPENSATION * | | | | | | | | | CURRENT LIMITING * | | | | | | | | | | GND(REFERENCE) .SUBCKT UA723/TEMP 1 2 3 4 5 6 7 8 9 10 99 * *** REFERENCE SECTION *** DZ1 13 8 DZ1 .MODEL DZ1 D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1 + IBV = .001 + ) RQ 40 13 237.273K TC=2.7132E-3, 6.8655E-6 DZR 11 40 DZR .MODEL DZR D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 1P + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 6.9504 + IBV = .001 + ) RZR 11 40 1MEG RR1 11 500 100.1936 TC=6.4819E-3, -5.0748E-6 LR 500 5 LR 1.139M .MODEL LR IND( + L = 1 + IL1 = 0 + IL2 = 0 + TC1 = 8.1788E-3 + TC2 = 2.1531E-5 + ) RR2 500 5 15K CR 11 1000 3P RCR 1000 5 10 *** CURRENT SOURCE *** GQ1 8 4 POLY(2) (4,5) (10000,99) 0 0.2832M 0 0 -2.2853E-7 0 0 0 -1.8472E-10 GQ2 8 17 4 5 0.08M ER 4 5 40 5 1 RIN 2 3000 100K HLDR 3 3000 POLY(2) VLDR VT 0 35.2M 0 0 -4.6889E-5 0 0 0 9.03892E-6 *** FREQUENCY COMP ERROR AMPLIFIER *** DB 17 19 DB .MODEL DB D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) RO 19 14 500 EA 14 5 3000 2 600 D- 22 19 DC V- 22 5 DC 1 E+ 23 5 8 5 1 D+ 19 20 DC V+ 20 23 DC -1.6 .MODEL DC D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) *** TEMPERATURE CHANGE CIRCUITRY *** RT1 10000 10001 100.00001 TC=0.01 RT2 10001 99 -100.00001 IT 99 10000 DC 1 GT 99 30000 10000 99 1 VT 30000 30001 DC 0 RT3 30001 99 1 *** SERIES PASS AMPLIFIER *** RB1 17 9 10 RB2 9 21 10 QP1 8 21 16 QPASS1 QP2 7 16 15 QPASS2 .MODEL QPASS1 NPN ( + IS = 1E-20 + BF = 50 + NF = 1.0188 + VAF = 50 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) .MODEL QPASS2 NPN ( + IS = 1E-20 + BF = 50 + NF = 1.0188 + VAF = 50 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) CBC1 8 800 1P RCBC1 21 800 10 CBC2 7 160 1P RCBC2 160 16 10 *** CURRENT LIMITING BLOCK *** VLDR 15 6 DC 0 QL 9 125 1 QLIMIT .MODEL QLIMIT NPN( + IS = 1E-20 + BF = 100 + NF = 1.3464 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) ESC 10 125 POLY(1) (10000,99) 0 -0.002738 -6.274E-5 DDIS1 6 8 DDIS .MODEL DDIS D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .ENDS UA723/TEMP *$ * *---------------------------------------------------------------MC1723C .SUBCKT MC1723C 2 3 4 5 6 7 9 10 11 12 13 * x1 2 3 4 5 6 7 9 10 11 12 13 LM723 * * the MC1723C is identical to the LM723, * but with a more limited temperature range * .ENDS *$ * *---------------------------------------------------------------CA723 .SUBCKT CA723 2 3 4 5 6 7 9 10 11 12 13 * x1 2 3 4 5 6 7 9 10 11 12 13 LM723 * * the CA723 is identical to the LM723, * but with a more limited temperature range * .ENDS *$ * * MANUFACTURERS PART NO. = CA3085BT/3 (RCA) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD TEMPERATURE DEPENDENT MODEL OF THE CA3085. * * THIS MODEL CAN BE USED FROM -55 C TO 125 C WITH THE .TEMP STATEMENT. IT * INCLUDES POWER-UP AND POWER-DOWN EFFECTS. * IT IS NECESSARY TO SET ITL1=300 ITL2=300 WITH THE .OPTIONS COMMAND FOR *.100% CONVERGENCE. THESE SETTINGS DETERMINE THE NUMBER OF ITERATIONS * ALLOWED FOR THE CALCULATION OF THE DC AND BIAS PT VALUES WHEN THE STARTING * POINT IS CONSIDERED "BLIND" OR AN "EDUCATED GUESS". OTHER SETTINGS MAY * WORK, BUT HAVE NOT BEEN TESTED YET. * * * .SUBCKT CA3085 1 2 3 4 5 6 7 8 100 * VOUT | | | | | | | | * CB | | | | | | | * VIN | | | | | | * V- | | | | | * VREF | | | | * IN- | | | * COMP | | * CLIMIT | * GND(REFERENCE) * *** REFERENCE SECTION *** D1 3 9 DMOD DZB 10 9 DZB .MODEL DZB D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 1.9 + IBV = .001 + ) RQ 10 11 34.034K TC=1.7516E-3,2.7249E-6 DZR 13 11 DZR .MODEL DZR D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 1.637 + IBV = .001 + ) LR 14 4 IND1 0.2028M .MODEL IND1 IND( + L = 1 + IL1 = 0 + IL2 = 0 + TC1 = 2.2862E-3 + TC2 = 1.0471E-5 + ) RR1 13 14 29.3092 TC=8.4331E-4,-7.3654E-5 D2 11 12 DMOD .MODEL DMOD D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) RR2 11 4 43.316K RR3 12 4 15.853K ER 5 4 11 4 1 VLDR 22 1 DC 0 HLDR 15 6 POLY(2) VLDR VT 0 -0.0436 0 0 0.002734 0 0 0 -2.293E-5 *** CURRENT SOURCE *** GB1 3 5 POLY(2),(12,4),(10000,100) 0 .8999M 0 0 3.6889E-6 0 0 0 -3.1779E-8 GB2 3 7 12 4 2M *** FREQUENCY COMP ERROR AMPLIFIER *** RIN 5 15 1MEG DL 7 17 DL .MODEL DL D( + IS = 1E-14 + RS = 0 + N = 0.1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) ED 18 4 5 15 10000 E+ 16 4 9 4 1 D+ 17 160 DMOD V+ 160 16 DC -1 DC- 40 17 DMOD V- 40 4 DC 1 *** TEMPERATURE CHANGE CIRCUITRY *** RT1 10000 10001 100.00001 TC=0.01 RT2 10001 100 -100 IT 100 10000 DC 1 GT 100 30000 10000 0 1 VT 30000 30001 DC 0 RT3 30001 100 1 RO 17 18 5 *** SERIES PASS AMPLIFIER *** RB 7 20 10 QP2 3 20 21 QMOD1 QP1 2 21 22 QMOD1 .MODEL QMOD1 NPN ( + IS = 1E-16 + BF = 50 + NF = 1.25 + VAF = 150 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) *** CURRENT LIMITING BLOCK *** R5 3 2 500 RB15 200 1 1.5K QL 7 19 8 QLIMIT .MODEL QLIMIT NPN( + IS = 1E-14 + BF = 100 + NF = 1.0666 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) EL 19 200 POLY(1),(10000,100) 0 -6.7125E-4 5.0625E-6 DDIS 1 3 DDIS .MODEL DDIS D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .ENDS CA3085 *$ * * MANUFACTURERS PART NO. = CA3085BT/3 (RCA) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD ROOM TEMPERATURE MODEL. * ****** *--------------------------------------------------------------------------- * PLEASE NOTE THE FOLLOWING: * * 1) THIS MODEL IS TO BE USED FOR ROOM TEMPERATURE SIMULATIONS. THE * SPICE TEMPERATURE CORRECTIONS WILL NOT WORK. * 2) FOR FURTHER DETAILS AND THE MODEL DERIVATION, SEE * "CA3085, LM7805, LM7812, LM7905, LM137 MACROMODEL DEVELOPMENT" * BY G. M. WIERZBA. * .SUBCKT CA3085/25C 1 2 3 4 5 6 7 8 * VOUT | | | | | | | * CB | | | | | | * VIN | | | | | * V- | | | | * VREF | | | * IN- | | * COMP | * CLIMIT * * DTEST 3 300 DMOD DZB 202 300 DZ3 .MODEL DZ3 D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 0.4 + IBV = .001 + ) R1 202 200 33.844K DZR 203 200 DZ1 .MODEL DZ1 D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1.605 + IBV = .001 + ) RR 203 4 18.2 D2 200 201 DMOD .MODEL DMOD D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) R2 200 4 26.592K R3 201 4 20.39035K GBIAS1 3 5 201 4 2.9M ER 5 4 200 4 1 RIN 5 6 0.1MEG GBIAS2 3 7 201 4 150U DLIMIT1 7 10 DMOD1 .MODEL DMOD1 D( + IS = 1E-14 + RS = 0 + N = 0.1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) CDLIMIT 7 10 1U EDIFF 100 4 5 6 0.1MEG ROUT 10 100 5 ECLAMP1 22 4 202 4 1 DCLAMP1 10 22 DMOD DCLAMP2 4 10 DMOD1 RB 7 12 3K CBC 12 20 0.25U RBC 20 19 1.5K QPASS 19 12 1000 QMOD1 RZO 1000 1 3.8 .MODEL QMOD1 NPN ( + IS = 1E-14 + BF = 1000 + NF = 1 + VAF = 50 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) DD02 2 18 DMOD2 DD01 18 19 DMOD2 .MODEL DMOD2 D( + IS = 1E-14 + RS = 0 + N = 1.3734 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) R5 3 2 500 RB15 13 1 1.5K QLIMIT 24 13 8 QMOD2 DB 7 24 DB .MODEL DB D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) .MODEL QMOD2 NPN ( + IS = 1E-14 + BF = 100 + NF = 1.1890 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .ENDS CA3085/25C *$ * * MANUFACTURERS PART NO. = LM137HVH (NATIONAL SEMICONDUCTOR) * SUBTYPE: REGULATOR * * THIS FILE CONTAINS A PRE-RAD MODEL AT 27 C OF THE LM137HVH THAT WAS * DEVELOPED UNDER THE GUIDANCE OF GREGORY M. WIERZBA AT * MICHIGAN STATE UNIVERSITY. * * PLEASE NOTE THE FOLLOWING: * * 1) THIS MODEL IS TO BE USED FOR ROOM TEMPERATURE SIMULATIONS. THE BUILT- * IN SPICE TEMPERATURE CORRECTIONS WILL NOT WORK. * 2) RIPPLE REJECTION, OUTPUT IMPEDANCE, LINE TRANSIENT, AND LOAD * TRANSIENT RESPONSE ARE MODELED BASED ON LABORATORY * MEASUREMENTS. THE CORRELATION IS QUITE GOOD. THE SIMULATION VALUES * ARE WITHIN THE PRODUCT SPEC LIMITS. * 3) CURRENT LIMITING AND ADJUSTMENT CURRENT BASED ON DATA SHEET * INFORMATION ARE MODELED ACCURATELY. * 4) DROPOUT AND POWER UP CHARACTERISTICS HAVE NOT BEEN DEVELOPED YET * IN THIS MODEL. * 5) FOR FURTHER DETAILS AND THE MODEL DERIVATION, OBTAIN A COPY OF * "CA3085, LM7805, LM7812, LM7905, LM137 MACROMODEL DEVELOPMENT" BY G. M. * WIERZBA DATED 3/25/91. * * * .SUBCKT LM137HVH 1 2 3 * IN | | * OUT | * ADJ * VREF 12 4 DC 1.25 EREG 3 12 1 2 0.0001981 IBIAS 4 1 DC 65U RIN 4 20 100MEG E1 5 1 20 4 600 R1 5 6 1561 RPZ 6 11 0.01 C1 11 1 1U E2 7 1 6 1 1 RB1 7 17 25 RB2 17 8 50 DLIMIT 17 18 DMOD ELIMIT 18 1 POLY (1) (2,1) .24 -0.0024 DFLDBCK 17 19 DMOD EFLDBCK 19 1 POLY(1) (2,1) 1.0611 -0.0912 0.0026 -2.5E-5 CBC 8 9 1U RBC 9 20 1561 QPASS 20 8 1 QMOD RBOND 20 2 0.0063 .MODEL QMOD NPN( + IS = 1E-16 + BF = 500 + NF = 1 + VAF = 150 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .MODEL DMOD D( + IS = 1E-15.9 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) .ENDS LM137HVH *$ * * MANUFACTURERS PART # = F78M12HM * SUBTYPE: REGULATOR * THIS FILE CONTAINS A TEMPERATURE DEPENDENT MODEL OF THE F78M12 * REGULATOR. * * *------------------------------------------------------------------------------ * * * THIS MODEL CAN BE USED FROM -55 C TO 125 C WITH THE .TEMP STATEMENT. IT * INCLUDES POWER-UP AND POWER-DOWN EFFECTS. * IT IS NECESSARY TO SET ITL1=300 ITL2=300 WITH THE .OPTIONS COMMAND FOR * 100% CONVERGENCE. THESE SETTINGS DETERMINE THE NUMBER OF ITERATIONS * ALLOWED FOR THE CALCULATION OF THE DC AND BIAS PT VALUES WHEN THE * STARTING POINT IS CONSIDERED "BLIND" OR AN "EDUCATED GUESS". * OTHER SETTINGS MAY WORK, BUT HAVE NOT BEEN TESTED YET. * .SUBCKT F78M12 1 2 3 * | | | * IN | | * OUT | * GND * *** VOLTAGE REFERENCE AND BIAS CURRENT SECTION *** DZ1 4 1 DZ1 .MODEL DZ1 D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 0.75 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.01 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -0.003611 + TBV2 = 6.9444E-5 + TRS1 = 0 + TRS2 = 0 + ) RQ 4 17 86343.84 TC=5.3597E-4, 5.0408E-5 RR 17 18 5.2447 TC=0.005772, 6.2073E-5 DZR 16 18 DR .MODEL DR D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1.2588 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.01 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 3.82E-5 + TBV2 = -8.5068E-7 + TRS1 = 0 + TRS2 = 0 + ) RZ 16 18 1MEG L1 16 3 IND1 0.3573M .MODEL IND1 IND( + L = 1 + IL1 = 0 + IL2 = 0 + TC1 = 0.001123 + TC2 = 6.8566E-5 + ) *** ERROR AMPLIFIER SECTION *** EA 22 3 17 15 300 ROUT 22 6 10 D- 3 6 DCLAMP D+ 6 19 DCLAMP .MODEL DCLAMP D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) V+ 19 23 DC -1 E+ 23 3 1 3 1 RP 6 7 500 CP 7 3 CAP1 0.1U .MODEL CAP1 CAP( + C = 1 + VC1 = 0 + VC2 = 0 + TC1 = -0.002 + TC2 = 1E-4 + ) *** QUIESCENT CURRENT *** GB 1 9 17 3 0.4944M RQUIES 12 3 10572.61 TC=0.013985, 1.28953E-4 *** SHORT CIRCUIT AND FOLDBACK CURRENT *** DBL 9 8 DBL .MODEL DBL D( + IS = 1E-4 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 0 + XTI = 0 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) EB 8 3 7 3 2 RC 1 14 0.2 DC 14 13 DC .MODEL DC D( + IS = 1E-14 + RS = 0 + N = 1.6339 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) RB 9 11 100 QP 13 11 5 QP .MODEL QP NPN( + IS = 1E-12 + BF = 70K + NF = 1 + VAF = 150 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) DCL 9 10 DCL .MODEL DCL D( + IS = 1E-4 + RS = 0 + N = 2 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) QCL 10 20 12 QCL .MODEL QCL NPN( + IS = 1E-16 + BF = 100 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) RSC 5 12 0.6936 TC=0.00131, 1.2433E-5 RBCL 20 5 200 RFB 1 21 6.17043K TC=0.001143, -1.081421E-5 DZFB 20 21 DZFB .MODEL DZFB D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 14.79 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.01 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -1.78236E-4 + TBV2 = 4.2164E-6 + TRS1 = 0 + TRS2 = 0 + ) R24 15 3 600 R23 12 15 5160 *** OUTPUT RESISTANCE *** RO 12 2 0.02 TC=-8.3333E-4, -4.1667E-5 DDIS 2 1 DMOD .MODEL DMOD D( + IS = 1E-14 + RS = 0 + N = 0.7 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .ENDS F78M12 *$ * *---------------------------------------------------------------RC723 .SUBCKT RC723 2 3 4 5 6 7 9 10 11 12 13 * x1 2 3 4 5 6 7 9 10 11 12 13 LM723 * * the RC723 is identical to the LM723, * but with a more limited temperature range * .ENDS *$ * * MANUFACTURERS PART NO.= SG137A (SILICON GENERAL) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD TEMPERATURE DEPENDENT MACROMODEL OF THE * SG137A. * * PLEASE NOTE THE FOLLOWING: * * THIS MODEL CAN BE USED FROM -55 C TO 125 C WITH THE .TEMP * STATEMENT. IT INCLUDES POWER-UP AND POWER-DOWN EFFECTS. IT IS * NECESSARY TO SET ITL1=300 ITL2=300 WITH THE .OPTIONS COMMAND FOR 100% * CONVERGENCE. THESE SETTINGS DETERMINE THE NUMBER OF ITERATIONS * ALLOW FOR THE CALCULATION OF THE DC AND BIAS PT VALUES WHEN THE * STARTING POINT IS CONSIDERED "BLIND" OR AN "EDUCATED GUESS". * OTHER SETTINGS MAY WORK, BUT HAVE NOT BEEN TESTED YET. * * RIPPLE REJECTION, OUTPUT IMPEDANCE, QUIESCENT CURRENT, LINE * TRANSIENT, DROPOUT, AND LOAD TRANSIENT RESPONSE ARE MODELED BASED * ON LABORATORY MEASUREMENTS. THE CORRELATION IS QUITE GOOD. * CURRENT LIMITING AND ADJUSTMENT CURRENT BASED ON DATA SHEET * INFORMATION ARE MODELED ACCURATELY. * * *------------------------------------------------------------------ * * * .SUBCKT SG137 1 2 3 100 * | | | | * ADJ | | | * OUT | | * IN | * GND(REFERNCE) *** VOLTAGE REFERENCE SECTION *** LR 1 4 IND1 0.2709 .MODEL IND1 IND( + L = 1 + IL1 = 0 + IL2 = 0 + TC1 = 7.8864E-4 + TC2 = -2.8391E-5 + ) RR 4 5 98.2994 TC=-0.0063, 6.2251E-5 CR 1 6 3P RCR 6 7 150K DZR 7 5 DZR .MODEL DZR D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0.1P + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1.25 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.0001 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 2.2444E-6 + TBV2 = 6.5556E-8 + TRS1 = 0 + TRS2 = 0 + ) RZR 7 5 1MEG DZ1 8 7 DZ1 .MODEL DZ1 D( + IS = 1E-14 + RS = 1 + N = 1 + TT = 0 + CJO = 1P + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 0.0001 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = -0.002847 + TBV2 = 3.4722E-6 + TRS1 = 0 + TRS2 = 0 + ) RQ 8 3 1.7546MEG TC=4.5212E-4,5.6515E-6 *** QUIESCENT CURRENT SECTION *** FQ 1 3 VQ1 0.0625M EQ1 24 100 1 7 1 VQ1 24 25 DC 0 RQ1 25 100 1 TC=-3.9528E-4,-1.1597E-5 *** ERROR AMPLIFIER *** RIN 7 23 100K E1 11 3 23 7 600 ROE1 9 11 10 D+ 9 13 DC V+ 14 3 -1 E+ 13 14 1 3 1 .MODEL DC D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 10P + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) D- 12 9 DC V- 12 3 DC 1 RP 9 10 151 CP 10 3 0.01U E2 15 3 10 3 1 *** RB1 15 16 50 RB2 16 19 500 TC=-1.9327E-4,3.3434E-6 *** SHORT CIRCUIT AND FOLDBACK CURRENT SECTION *** DSC 16 17 DMOD ESC 17 3 POLY(1),(2,3) 2.447 -0.01 DFB 16 18 DMOD EFB 18 3 POLY(1),(2,3) 12.5955 -1.2275 0.0457 -5.9169E-4 *** QP 20 19 3 QMOD .MODEL QMOD NPN( + IS = 1E-14 + BF = 500 + NF = 1 + VAF = 9.9999E+13 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + NK = .5 + ISS = 0 + NS = 1 + QCO = 0 + RCO = 0 + VO = 10 + GAMMA = 1E-11 + TRE1 = 0 + TRE2 = 0 + TRB1 = 0 + TRB2 = 0 + TRM1 = 0 + TRM2 = 0 + TRC1 = 0 + TRC2 = 0 + ) *** DROPOUT VOLTAGE SECTION *** RDO 23 22 0.1 DDO1 22 21 DDO DDO2 21 20 DDO .MODEL DDO D( + IS = 1E-14 + RS = 0 + N = 0.9687 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) *** RO 23 2 0.0017 TC=-0.07894, 0.001136 DDIS 3 23 DDIS .MODEL DDIS D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 1PF + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .MODEL DMOD D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = 1E-10 + ISR = 0 + NR = 2 + IKF = 9.9999E+13 + NBV = 1 + IBVL = 0 + NBVL = 1 + TIKF = 0 + TBV1 = 0 + TBV2 = 0 + TRS1 = 0 + TRS2 = 0 + ) .ENDS SG137 *$ * * MANUFACTURERS PART NO.= SG137A (SILICON GENERAL) * SUBTYPE: REGULATOR * THIS FILE CONTAINS A PRE-RAD 27 C TEMP. MACROMODEL * *------------------------------------------------------------------- * PLEASE NOTE THE FOLLOWING: * 1) THIS MODEL IS TO BE USED FOR ROOM TEMPERATURE SIMULATIONS. * THE BUILT-IN SPICE TEMPERATURE CORRECTIONS WILL NOT WORK. * 2) RIPPLE REJECTION, OUTPUT IMPEDANCE, QUIESCENT CURRENT, * LINE TRANSIENT, AND LOAD TRANSIENT RESPONSE ARE MODELED * BASED ON LABORATORY MEASUREMENTS. THE CORRELATION IS * QUITE GOOD. * 3) CURRENT LIMITING AND ADJUSTMENT CURRENT BASED ON DATA * SHEET INFORMATION ARE MODELED ACCURATELY. * 4) DROPOUT AND POWER UP CHARACTERISTICS HAVE NOT BEEN * DEVELOPED YET IN THIS MODEL. * 5) FOR FURTHER DETAILS AND THE MODEL DERIVATION, OBTAIN * A COPY OF "CA3085, LM7805, LM7812, LM7905, LM137 MACROMODEL * DEVELOPMENT" BY G. M. WIERZBA DATED 03/25/91. * * * .SUBCKT SG137/27C 1 2 3 * | | | * IN | | * OUT | * ADJ RR 3 12 2250 DZR 13 12 DZR .MODEL DZR D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 1.25 + IBV = .001 + ) RDZR 3 13 100MEG D1 14 13 D1 .MODEL D1 D ( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 0.8 + IBV = .001 + ) RD1 14 1 14 MEG GQ 4 1 3 13 0.052M EREF 4 3 13 3 1 RIN 4 20 100MEG E1 50 1 20 5 600 RCLAMP 5 50 10 EC 51 1 3 1 0.1 DCLAMP 51 5 DCLAMP .MODEL DCLAMP D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) R1 5 6 156 RPZ 6 11 1000 C1 11 1 0.5U E2 7 1 6 1 1 RB1 7 17 25 RB2 17 8 50 DLIMIT 17 18 DMOD ELIMIT 18 1 POLY(1),(2,1) 0.24 -0.0024 DFLDBCK 17 19 DMOD EFLDBCK 19 1 POLY(1),(2,1) 1.0611 -0.0912 0.0026 -2.5E-5 CBC 8 9 0.01U RBC 9 23 10 QPASS 23 8 1 QMOD RC 20 21 0.5 DC 21 22 DC DO 22 23 DC .MODEL DC D ( + IS = 1E-14 + RS = 0 + N = 1.250 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) RO 20 2 0.00001 .MODEL QMOD NPN ( + IS = 1E-16 + BF = 500 + NF = 1 + VAF = 150 + IKF = 9.9999E+13 + ISE = 0 + NE = 1.5 + BR = 1 + NR = 1 + VAR = 9.9999E+13 + IKR = 9.9999E+13 + ISC = 0 + NC = 2 + RB = 0 + IRB = 9.9999E+13 + RBM = 0 + RE = 0 + RC = 0 + CJE = 0 + VJE = .75 + MJE = .33 + TF = 0 + XTF = 0 + VTF = 9.9999E+13 + ITF = 0 + PTF = 0 + CJC = 0 + VJC = .75 + MJC = .33 + XCJC = 1 + TR = 0 + CJS = 0 + VJS = .75 + MJS = 0 + XTB = 0 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + ) .MODEL DMOD D( + IS = 1E-14 + RS = 0 + N = 1 + TT = 0 + CJO = 0 + VJ = 1 + M = .5 + EG = 1.11 + XTI = 3 + KF = 0 + AF = 1 + FC = .5 + BV = 9.9999E+13 + IBV = .001 + ) .ENDS SG137/27C *$ * *---------------------------------------------------------------SG723C .SUBCKT SG723C 2 3 4 5 6 7 9 10 11 12 13 * x1 2 3 4 5 6 7 9 10 11 12 13 LM723 * * the SG723C is identical to the LM723, * but with a more limited temperature range * .ENDS *$ connections: non-inverting input * | inverting input * | | positive power supply * | | | negative power supply * | | | | output * | | | | | .subckt TL082 1 2 3 4 5 * c1 11 12 2.412E-12 c2 6 7 18.00E-12 css 10 99 5.400E-12 dc 5 53 dx de 54 5 dx dlp 90 91 dx dln 92 90 dx dp 4 3 dx egnd 99 0 poly(2),(3,0),(4,0) 0 .5 .5 fb 7 99 poly(5) vb vc ve vlp vln 0 3.467E6 -3E6 3E6 3E6 -3E6 ga 6 0 11 12 339.3E-6 gcm 0 6 10 99 17.01E-9 iss 10 4 dc 234.0E-6 hlim 90 0 vlim 1K j1 11 2 10 jx j2 12 1 10 jx r2 6 9 100.0E3 rd1 3 11 2.947E3 rd2 3 12 2.947E3 ro1 8 5 50 ro2 7 99 170 rp 3 4 20.00E3 rss 10 99 854.7E3 vb 9 0 dc 0 vc 3 53 dc 1.500 ve 54 4 dc 1.500 vlim 7 8 dc 0 vlp 91 0 dc 50 vln 0 92 dc 50 .model dx D(Is=800.0E-18 Rs=1) .model jx NJF(Is=2.500E-12 Beta=984.2E-6 Vto=-1) .ends