* LVC SUBCIRCUIT AND PRIMITIVE ELEMENTS LIBRARY * LVCNOMI.CIR * NOMINAL PROCESS CORNER * LOGIC PRODUCTS GROUP * NXP SEMICONDUCTORS * * Revision History * * Version Date Author Update * ------------------------------------------------------------------ * 1.3 27 Oct 2008 RRV Added INVERT3G17 for LVC3G17 * 1.2 19 Oct 2006 RRV Added SANDINVN for LVC1G157 * Corrected Enable polarity for LVC240/241/244 * 1.1 22 Jul 2005 RRV INVERT14A added for LVC14A * 1.0 02 May 2005 RRV LVCOUTODN Open drain output added * INVERT10/N description for 06/06 addded * --- 27 Apr 1999 * ************************************************ * NOMINAL N-CHANNEL TRANSISTOR * * UCB-3 PARAMETER SET * * Nov-1995 * ************************************************ .MODEL MNEN NMOS +LEVEL = 3 +KP = 154E-6 +VTO = 0.57 +TOX = 15E-9 +NSUB = 7.8E16 +GAMMA = 0.70 +PHI = 0.65 +VMAX = 187E3 +RS = 7.5 +RD = 7.5 +XJ = 0.26E-6 +LD = 0.11E-6 +DELTA = 1.89 +THETA = 0.072 +ETA = 0.043 +KAPPA = 0.0 +WD = 0.0 *********************************************** * NOMINAL P-CHANNEL TRANSISTOR * * UCB-3 PARAMETER SET * * Nov-1995 * *********************************************** .MODEL MPEN PMOS +LEVEL = 3 +KP = 63.7E-6 +VTO = -0.67 +TOX = 15.0E-9 +NSUB = 6.0E16 +GAMMA = 0.84 +PHI = 0.65 +VMAX = 1.0E6 +RS = 10 +RD = 10 +XJ = 0.30E-6 +LD = 0.04E-6 +DELTA = 2.88 +THETA = 0.189 +ETA = 0.091 +KAPPA = 0.0 +WD = -0.03E-6 *********************************************** * START OF SUBCIRCUIT DESCRIPTION * * MAR. 1999 * *********************************************** .SUBCKT LVCPROTN 2 3 50 60 * NOMINAL CASE PARAMETERS * STANDARD LVC INPUT ESD STRUCTURE * IN = 2, OUT = 3, VCC = 50, GND = 60 * OCTOBER-1995 MN1 2 60 60 60 MNEN W=400U L=1.0U AD=7390P AS=208P PD=688U PS=420U R1 3 2 100 MN2 3 60 60 60 MNEN W=43U L=1.0U AD=176P AS=208P PD=58U PS=58U .ENDS .SUBCKT LVCINPAN 2 3 50 60 * NOMINAL CASE PARAMETERS * STANDARD LVC INPUT P-CH 150/0.8 N-CH 70/0.8 INCL. ESD STRUCTURE * IN = 2, OUT = 3, VCC = 50, GND = 60 * SEPTEMBER-1994 MN1 2 60 60 60 MNEN W=400U L=1.0U AD=7390P AS=208P PD=688U PS=420U R1 4 2 100 MN2 4 60 60 60 MNEN W= 43U L=1.0U AD=176P AS=208P PD= 58U PS= 58U MP1 3 4 50 50 MPEN W=150U L=0.8U AD=220P AS=400P PD=175U PS=175U MN3 3 4 60 60 MNEN W= 70U L=0.8U AD= 80P AS=170P PD= 80U PS= 80U MP2 5 3 50 50 MPEN W= 10U L=0.8U AD= 22P AS= 22P PD= 25U PS= 25U MN4 5 3 60 60 MNEN W= 4U L=0.8U AD= 9P AS= 9P PD= 12U PS= 12U MN5 3 5 60 60 MNEN W= 22U L=1.6U AD= 40P AS= 40P PD= 40U PS= 40U .ENDS .SUBCKT LVCIN14PAN 2 3 50 60 * NOMINAL CASE PARAMETERS * SCHMITT-TRIGGER LVC INPUT INCL. ESD STRUCTURE * IN = 2, OUT = 3, VCC = 50, GND = 60 * JULY-2005 MN1 2 60 60 60 MNEN W=400U L=1.0U AD=7390P AS=208P PD=688U PS=420U R1 4 2 100 MN2 4 60 60 60 MNEN W= 43U L=1.0U AD=176P AS=208P PD= 58U PS= 58U MP1 10 4 50 50 MPEN W= 66U L=0.9U AD=180P AS=100P PD= 75U PS= 75U MP2 3 4 10 50 MPEN W=228U L=0.85U AD=250P AS=400P PD=180U PS=180U MP3 10 3 60 50 MPEN W= 56U L=1.85U AD= 22P AS= 22P PD= 25U PS= 25U MN3 3 4 20 60 MNEN W= 60U L=0.85U AD= 80P AS=100P PD= 80U PS= 80U MN4 20 4 60 60 MNEN W=145U L=0.9U AD=220P AS=400P PD=175U PS=175U MN5 20 3 50 60 MNEN W= 46U L=0.7U AD= 80P AS= 80P PD= 80U PS= 80U .ENDS .SUBCKT LVCINHN 2 3 50 60 * NOMINAL CASE PARAMETERS * STANDARD LVC INPUT P-CH 150/0.8 N-CH 70/0.8 INCL. ESD STRUCTURE * IN = 2, OUT = 3, VCC = 50, GND = 60 * SEPTEMBER-1994 MN1 2 60 60 60 MNEN W=400U L=1.0U AD=7390P AS=208P PD=688U PS=420U R1 4 2 100 MN2 4 60 60 60 MNEN W= 43U L=1.0U AD=176P AS=208P PD= 58U PS= 58U MP1 3 4 50 50 MPEN W=150U L=0.8U AD=220P AS=400P PD=175U PS=175U MN3 3 4 60 60 MNEN W= 70U L=0.8U AD= 80P AS=170P PD= 80U PS= 80U MP2 5 3 50 50 MPEN W= 10U L=0.8U AD= 22P AS= 22P PD= 25U PS= 25U MN4 5 3 60 60 MNEN W= 4U L=0.8U AD= 9P AS= 9P PD= 12U PS= 12U MN5 3 5 60 60 MNEN W= 22U L=1.6U AD= 40P AS= 40P PD= 40U PS= 40U MP3 4 8 50 BG MPEN W= 8U L=3U AD=14.4P AS=14.4P PD=16.0U PS=16.0U MN6 4 3 60 60 MNEN W= 5U L=5U AD=9P AS=9P PD=10U PS=10U MN7 8 6 3 60 MNEN W=4U L=1.6U AD=7.2P AS=7.2P PD=8.0U PS=8.0U MP4 3 4 8 BG MPEN W=4U L=1U AD=7.2P AS=7.2P PD=8.0U PS=8.0U MN8 6 7 60 60 MNEN W=2U L=2U AD=3.6P AS=3.6P PD=4.0U PS=4.0U MP5 6 7 50 50 MPEN W=2U L=2U AD=3.6P AS=3.6P PD=4.0U PS=4.0U MP6 7 50 4 BG MPEN W=60U L=1U AD=108P AS=108P PD=123.6U PS=123.6U MP7 4 50 8 BG MPEN W=12U L=1U AD=21.6P AS=21.6P PD=27.6U PS=27.6U MP8 6 4 50 50 MPEN W=60U L=1U AD=108P AS=108P PD=123.6U PS=123.6U MN9 60 6 7 60 MNEN W=2U L=5U AD=3.6P AS=3.6P PD=4.0U PS=4.0U MP9 BG 7 50 BG MPEN W=5U L=1U AD=9.0P AS=9.0P PD=13.6U PS=13.6U MP10 4 50 BG BG MPEN W=5U L=1U AD=9.0P AS=9.0P PD=13.6U PS=13.6U .ENDS .SUBCKT LVCINVAN 2 3 50 60 * NOMINAL CASE PARAMETERS * INTERNAL INVERTER P-CH 30/0.8 N-CH 12/0.8 * IN = 2, OUT = 3, VCC = 50, GND = 60 * SEPTEMBER-1994 MP1 3 2 50 50 MPEN W= 30U L=0.8U AD=35P AS=35P PD=35U PS=30U MN1 3 2 60 60 MNEN W= 12U L=0.8U AD=30P AS=30P PD=20U PS=15U .ENDS .SUBCKT LVCCTRN 2 3 50 60 * NOMINAL CASE PARAMETERS * INTERNAL INVERTER P-CH 4.5/0.8 N-CH 1.8/0.8 * IN = 2, OUT = 3, VCC = 50, GND = 60 * SEPTEMBER-1994 MP1 3 2 50 50 MPEN W= 4.5U L=0.8U AD=35P AS=35P PD=35U PS=30U MN1 3 2 60 60 MNEN W= 1.8U L=0.8U AD=30P AS=30P PD=20U PS=15U .ENDS .SUBCKT LVCINV1N 2 3 50 60 * NOMINAL CASE PARAMETERS * INTERNAL INVERTER P-CH 22/0.8 N-CH 16/0.8 * IN = 2, OUT = 3, VCC = 50, GND = 60 * SEPTEMBER-1994 MP1 3 2 50 50 MPEN W= 22U L=0.8U AD=50P AS=50P PD=50U PS=50U MN1 3 2 60 60 MNEN W= 16U L=0.8U AD=25P AS=25P PD=25U PS=25U .ENDS .SUBCKT LVCINV2N 2 3 50 60 * FAST CASE PARAMETERS * INTERNAL INVERTER P-CH 10/0.8 N-CH 4/0.8 * IN = 2, OUT = 3, VCC = 50, GND = 60 * SEPTEMBER-1994 MP1 3 2 50 50 MPEN W= 10U L=0.8U AD=15P AS=15P PD=15U PS=15U MN1 3 2 60 60 MNEN W= 4U L=0.8U AD=10P AS=10P PD=10U PS=15U .ENDS .SUBCKT LVCNANDN 2 3 4 50 60 * NOMINAL CASE PARAMETERS * INTERNAL NAND 2-INPUT P-CH 150/0.8 N-CH 180/0.8 * IN1 = 2, IN2 = 3, OUT = 4, VCC = 50, GND = 60 * SEPTEMBER-1994 MP1 4 2 50 50 MPEN W=150U L=0.8U AD=200P AS=400P PD=100U PS=200U MP2 4 3 50 50 MPEN W=150U L=0.8U AD=200P AS=400P PD=100U PS=200U MN1 4 2 5 60 MNEN W=180U L=0.8U AD=400P AS=400P PD=400U PS=400U MN2 5 3 60 60 MNEN W=180U L=0.8U AD=400P AS=400P PD=400U PS=400U .ENDS .SUBCKT LVCANDN 2 3 4 50 60 * NOMINAL CASE PARAMETERS * INTERNAL NAND 2-INPUT WITH NON-INV INP P-CH 150/0.8 N-CH 180/0.8 * IN1 = 2, IN2 = 3, OUT = 4, VCC = 50, GND = 60 * SEPTEMBER-1994 MP1 4 6 50 50 MPEN W=150U L=0.8U AD=200P AS=400P PD=100U PS=200U MP2 4 3 50 50 MPEN W=150U L=0.8U AD=200P AS=400P PD=100U PS=200U MN1 4 6 5 60 MNEN W=180U L=0.8U AD=400P AS=400P PD=400U PS=400U MN2 5 3 60 60 MNEN W=180U L=0.8U AD=400P AS=400P PD=400U PS=400U MP3 6 2 50 50 MPEN W= 75U L=0.8U AD=100P AS=200P PD= 50U PS=100U MN4 6 2 60 60 MNEN W= 30U L=0.8U AD= 60P AS=120P PD= 40U PS= 40U .ENDS .SUBCKT LVCOUTAN 2 3 4 50 60 * NOMINAL CASE PARAMETERS * 3-STATE OUTPUT MODULE * OE = 2, IN = 3, OUT = 4, VCC = 50, GND = 60 * NOVEMBER-1995 * Increased output transistor sizes MP1 5 2 50 50 MPEN W=100U L=0.8U AD=200P AS=400P PD=200U PS=200U MP2 5 3 50 50 MPEN W=175U L=0.8U AD=225P AS=450P PD=225U PS=225U MN1 5 3 6 60 MNEN W=100U L=0.8U AD=130P AS=130P PD=150U PS=130U MN2 6 2 60 60 MNEN W=125U L=0.8U AD=175P AS=250P PD=175U PS=175U MP3 15 2 50 50 MPEN W= 50U L=0.8U AD= 80P AS= 80P PD= 80U PS= 80U MN3 15 2 60 60 MNEN W= 20U L=0.8U AD= 40P AS= 40P PD= 45U PS= 45U MP4 7 15 8 50 MPEN W= 80U L=0.8U AD=250P AS=250P PD=250U PS=250U MP5 8 3 50 50 MPEN W=100U L=0.8U AD=400P AS=400P PD=350U PS=350U MN4 7 15 60 60 MNEN W= 75U L=0.8U AD=120P AS=160P PD=120U PS=120U MN5 7 3 60 60 MNEN W= 60U L=0.8U AD= 80P AS=160P PD= 80U PS= 80U R1 5 16 250 MP6 4 16 50 50 MPEN W=185U L=0.8U AD=370P AS=350P PD=125U PS=185U R2 16 9 500 MP7 4 9 50 50 MPEN W=275U L=0.8U AD=450P AS=400P PD=175U PS=275U R3 9 10 1K MP8 4 10 50 50 MPEN W=350U L=0.8U AD=700P AS=500P PD=225U PS=350U R4 10 11 1.5k MP9 4 11 50 50 MPEN W=350U L=0.8U AD=700P AS=500P PD=225U PS=350U R5 7 17 300 MN6 4 17 60 60 MNEN W= 125U L=0.8U AD=250P AS=200P PD=100U PS=125U R6 17 12 750 MN7 4 12 60 60 MNEN W=125U L=0.8U AD=250P AS=200P PD=100U PS=125U R7 12 13 1K MN8 4 13 60 60 MNEN W=150U L=0.8U AD=300P AS=250P PD=125U PS= 150U R8 13 14 1.5K MN9 4 14 60 60 MNEN W= 150U L=0.8U AD= 300P AS= 250P PD=125U PS=150U .ENDS .SUBCKT LVCOUTBN 2 3 4 50 60 * NOMINAL CASE PARAMETERS * 3-STATE OUTPUT MODULE (ONLY N-CHANNEL) * OE = 2, IN = 3, OUT = 4, VCC = 50, GND = 60 * NOVEMBER-1995 * Increased output transistor sizes MP1 5 2 50 50 MPEN W=100U L=0.8U AD=200P AS=400P PD=200U PS=200U MP2 5 3 50 50 MPEN W=175U L=0.8U AD=225P AS=450P PD=225U PS=225U MN1 5 3 6 60 MNEN W=100U L=0.8U AD=130P AS=130P PD=150U PS=130U MN2 6 2 60 60 MNEN W=125U L=0.8U AD=175P AS=250P PD=175U PS=175U MP3 15 2 50 50 MPEN W= 50U L=0.8U AD= 80P AS= 80P PD= 80U PS= 80U MN3 15 2 60 60 MNEN W= 20U L=0.8U AD= 40P AS= 40P PD= 45U PS= 45U MP4 7 15 8 50 MPEN W= 80U L=0.8U AD=250P AS=250P PD=250U PS=250U MP5 8 3 50 50 MPEN W=100U L=0.8U AD=400P AS=400P PD=350U PS=350U MN4 7 15 60 60 MNEN W= 75U L=0.8U AD=120P AS=160P PD=120U PS=120U MN5 7 3 60 60 MNEN W= 60U L=0.8U AD= 80P AS=160P PD= 80U PS= 80U R5 7 17 300 MN6 4 17 60 60 MNEN W= 125U L=0.8U AD=250P AS=200P PD=100U PS=125U R6 17 12 750 MN7 4 12 60 60 MNEN W=125U L=0.8U AD=250P AS=200P PD=100U PS=125U R7 12 13 1K MN8 4 13 60 60 MNEN W=150U L=0.8U AD=300P AS=250P PD=125U PS= 150U R8 13 14 1.5K MN9 4 14 60 60 MNEN W= 150U L=0.8U AD= 300P AS= 250P PD=125U PS=150U .ENDS .SUBCKT OUTPUT5VTOLB OENBAR IN OUT VDD VSS MP100 OUT NET253 VDD VDD MPEN W=526U L=0.9U MP101 OUT VDD VDD VDD MPEN W=526U L=0.9U C_77 VSS NET261 200e-15 C_78 VSS NET263 200e-15 C_71 NET255 VSS 200e-15 R_87 OUT1 OUT 100.0 R_74 NET255 NET253 10.0 R_75 NET298 NET255 10.0 R_83 NET263 NET265 10.0 R_84 NET261 NET259 10.0 R_81 NET333 NET261 10.0 R_80 NET346 NET263 10.0 MN100 OUT VSS VSS VSS MNEN W=69U L=1U MN101 OUT NET265 VSS VSS MNEN W=138U L=1U MN102 OUT NET259 VSS VSS MNEN W=138U L=1U MN103 OUT VSS VSS VSS MNEN W=276U L=1U MP099 OEN OENBAR VDD VDD MPEN W=20U L=0.8U MN099 OEN OENBAR VSS VSS MNEN W=20U L=0.8U MP026 D NET276 VDD VDD MPEN W=10U L=0.8U MN026 D NET276 VSS VSS MNEN W=5U L=0.8U MP024 A OEN VDD VDD MPEN W=20U L=0.8U MN024 A OEN VSS VSS MNEN W=8U L=0.8U MP023 NET276 OEN VDD VDD MPEN W=25U L=0.8U MN023 NET276 OEN VSS VSS MNEN W=10U L=0.8U MP025 C OEN VDD VDD MPEN W=50U L=0.8U MN025 C OEN VSS VSS MNEN W=20U L=0.8U MP027 B NET276 VDD VDD MPEN W=40U L=0.8U MN027 B NET276 VSS VSS MNEN W=16U L=0.8U MP42 OUT1 VDD NET282 BG MPEN W=10U L=1U MP33 BG NET355 VDD BG MPEN W=40U L=0.9U MP32 OUT1 VDD BG BG MPEN W=60U L=0.9U MP31 OUT1 VDD NET355 BG MPEN W=20U L=1U MP5 OUT1 VDD NET298 BG MPEN W=80U L=0.9U MP4 NET298 NET282 NET364 BG MPEN W=140U L=0.8U MP56 NET346 VSS NET333 VDD MPEN W=20U L=1.2U MP47 NET346 VSS NET345 VDD MPEN W=20U L=0.8U MP20 NET364 C VDD VDD MPEN W=160U L=0.8U MP65 E OEN VDD VDD MPEN W=8U L=0.8U MP9 NET364 IN VDD VDD MPEN W=160U L=0.8U MP6 NET364 B NET346 VDD MPEN W=140U L=0.8U MN92 OUT1 VSS VSS VSS MNEN W=69U L=1U MN60 NET345 IN VSS VSS MNEN W=12U L=0.8U MN61 NET333 IN VSS VSS MNEN W=6U L=0.8U MN57 NET346 VDD NET333 VSS MNEN W=10U L=1.2U MN58 NET333 D VSS VSS MNEN W=12U L=0.8U MN43 NET282 E VSS VSS MNEN W=20U L=1U MN63 E OEN NET349 VSS MNEN W=6U L=0.8U MN48 NET346 VDD NET345 VSS MNEN W=10U L=1U MN62 NET349 D VSS VSS MNEN W=6U L=.8U MN39 OUT1 D NET355 VSS MNEN W=10U L=1U MN29 NET355 A VSS VSS MNEN W=10U L=1U MN10 NET346 D VSS VSS MNEN W=12U L=.8U MN8 NET346 IN VSS VSS MNEN W=120U L=.8U MN7 NET364 A NET346 VSS MNEN W=70U L=0.8U MN2 NET298 VDD NET364 VSS MNEN W=70U L=.8U MN46 NET345 D VSS VSS MNEN W=24U L=0.8U .ENDS .SUBCKT LVCOUT2N 5 4 50 60 * NOMINAL CASE PARAMETERS * OUTPUT MODULE * IN1 = 5, OUT = 4, VCC = 50, GND = 60 * NOVEMBER 1995 * Increased output transistor sizes R1 5 16 250 MP6 4 16 50 50 MPEN W=185U L=0.8U AD=370P AS=350P PD=125U PS=185U R2 16 9 500 MP7 4 9 50 50 MPEN W=275U L=0.8U AD=450P AS=400P PD=175U PS=275U R3 9 10 1K MP8 4 10 50 50 MPEN W=350U L=0.8U AD=700P AS=500P PD=225U PS=350U R4 10 11 1.5k MP9 4 11 50 50 MPEN W=350U L=0.8U AD=700P AS=500P PD=225U PS=350U R5 5 17 300 MN6 4 17 60 60 MNEN W= 125U L=0.8U AD=250P AS=200P PD=100U PS=125U R6 17 12 750 MN7 4 12 60 60 MNEN W=125U L=0.8U AD=250P AS=200P PD=100U PS=125U R7 12 13 1K MN8 4 13 60 60 MNEN W=150U L=0.8U AD=300P AS=250P PD=125U PS= 150U R8 13 14 1.5K MN9 4 14 60 60 MNEN W= 150U L=0.8U AD= 300P AS= 250P PD=125U PS=150U .ENDS ****************************************************** * START OF LVC CIRCUITS DESCRIPTION MODELS * * OCT. 1998 * ****************************************************** .SUBCKT INVERT2 2 4 1 90 * INVERTING BUFFER TYPE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVCU04A * IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1995 XIN1 20 30 50 60 LVCPROTN XOUT 30 40 50 60 LVCOUT2N XPK14 2 4 90 90 90 90 90 90 90 90 90 90 90 1 + 20 40 90 90 90 90 60 90 90 90 90 90 90 50 pk14 .ENDS .SUBCKT INVERT3 5 2 4 1 90 * INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC240A * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINPAN XINV1 30 35 50 60 LVCINVAN XINV2 35 36 50 60 LVCINV1N XOUT 70 36 40 50 60 LVCOUTAN XPK21 5 2 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 4 90 1 90 + 70 20 90 90 90 90 90 90 90 60 90 90 90 90 90 90 90 40 90 50 90 pk21 .ENDS .SUBCKT INVERT3H 5 2 4 1 90 * INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVCH240 - 544 * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINHN XINV1 30 35 50 60 LVCINVAN XINV2 35 36 50 60 LVCINV1N XOUT 70 36 40 50 60 LVCOUTAN XPK21 5 2 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 4 90 1 90 + 70 20 90 90 90 90 90 90 90 60 90 90 90 90 90 90 90 40 90 50 90 pk21 .ENDS .SUBCKT INVERT4 5 2 4 1 90 * INVERTING BUFFER TYPE; OPEN DRAIN * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC 38 * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINPAN XINV1 30 35 50 60 LVCINVAN XINV2 35 36 50 60 LVCINV1N XOUT 5 36 40 50 60 LVCOUTBN XPK14 2 2 4 90 90 90 90 90 90 90 90 90 90 1 + 20 20 40 90 90 90 60 90 90 90 90 90 90 50 pk14 .ENDS .SUBCKT INVERT3N 5 2 4 1 90 * NON-INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC241A/244A/245A/373A/374A/543A/573A * /574A/623A * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINPAN XINV 30 35 50 60 LVCINVAN XOUT 75 35 40 50 60 LVCOUTAN XIN2 70 75 50 60 LVCINPAN XPK21 5 2 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 4 90 1 90 + 70 20 90 90 90 90 90 90 90 60 90 90 90 90 90 90 90 40 90 50 90 pk21 .ENDS .SUBCKT INVERT3NH 5 2 4 1 90 * NON-INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVCH244A/H245A * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINHN XINV 30 35 50 60 LVCINVAN XOUT 70 35 40 50 60 LVCOUTAN XPK21 5 2 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 4 90 1 90 + 70 20 90 90 90 90 90 90 90 60 90 90 90 90 90 90 90 40 90 50 90 pk21 .ENDS .SUBCKT INVERTN 2 4 1 90 * NON-INVERTING BUFFER TYPE; * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC 08/32/74/86 * IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINPAN XINV1 30 35 50 60 LVCINVAN XINV2 35 36 50 60 LVCINV1N XOUT 36 40 50 60 LVCOUT2N XPK14 2 2 4 90 90 90 90 90 90 90 90 90 90 1 + 20 20 40 90 90 90 60 90 90 90 90 90 90 50 pk14 .ENDS .SUBCKT INVERT 2 4 1 90 * INVERTING BUFFER TYPE; * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC 00/02/04/109 * IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINPAN XINV 30 35 50 60 LVCINVAN XOUT 35 40 50 60 LVCOUT2N XPK14 2 2 4 90 90 90 90 90 90 90 90 90 90 1 + 20 20 40 90 90 90 60 90 90 90 90 90 90 50 pk14 .ENDS .SUBCKT INVERT14A 2 4 1 90 * INVERTING BUFFER TYPE (SCHMITT-TRIGGER); * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC 14A * IN = 2, OUT = 4, VCC = 1, GND = 90 * JULY-2005 XIN1 20 30 50 60 LVCIN14PAN XINV 30 35 50 60 LVCINVAN XOUT 35 40 50 60 LVCOUT2N XPK14 2 4 90 90 90 90 90 90 90 90 90 90 90 1 + 20 40 90 90 90 90 60 90 90 90 90 90 90 50 pk14 .ENDS .SUBCKT INVERT3G17 2 4 1 90 * NON-INVERTING BUFFER TYPE (SCHMITT-TRIGGER); * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC 3G17 * IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-2008 XIN1 20 30 50 60 LVCIN14PAN XINV1 30 31 50 60 LVCINVAN XINV2 31 32 50 60 LVCINVAN XOUT 32 40 50 60 LVCOUT2N XPK8 2 90 90 90 90 90 4 1 + 20 90 90 60 90 90 40 50 pk8 .ENDS .SUBCKT NANDINVN 3 2 4 1 90 * INVERTING 2-NAND BUFFER TYPE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR THE 74LVC 137/138/139 * EN = 3, IN =2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 25 50 60 LVCINPAN XIN2 30 35 50 60 LVCINPAN XNAND1 25 35 36 50 60 LVCNANDN XOUT1 36 40 50 60 LVCOUT2N XPK16 3 2 2 90 90 90 4 90 90 90 90 90 90 90 90 1 + 30 20 20 90 90 90 40 60 90 90 90 90 90 90 90 50 pk16 .ENDS .SUBCKT ANDINVN 3 2 4 1 90 * NON-INVERTING 2-NAND BUFFER TYPE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR THE 74LVC 157 * EN = 3, IN =2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 25 50 60 LVCINPAN XIN2 30 35 50 60 LVCINPAN XAND1 25 35 36 50 60 LVCANDN XOUT1 36 40 50 60 LVCOUT2N XPK16 90 2 90 4 90 90 90 90 90 90 90 90 90 90 3 1 + 90 20 90 40 90 90 90 60 90 90 90 90 90 90 30 50 pk16 .ENDS .SUBCKT SANDINVN 3 2 4 1 90 * NON-INVERTING 2-NAND BUFFER TYPE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR THE 74LVC1G 157 * EN = 3, IN =2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-2006 XIN1 20 25 50 60 LVCINPAN XIN2 30 35 50 60 LVCINPAN XAND1 25 35 36 50 60 LVCANDN XOUT1 36 40 50 60 LVCOUT2N XPK6 2 90 90 4 1 3 + 20 60 90 40 50 30 pk6 .ENDS .SUBCKT ANDINVN2 3 2 4 1 90 * NON-INVERTING 2-NAND BUFFER TYPE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR THE 74LVC 257 * EN = 3, IN =2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 25 50 60 LVCINPAN XIN2 30 35 50 60 LVCINPAN XAND1 25 35 36 50 60 LVCNANDN XOUT1 50 36 40 50 60 LVCOUTAN XPK16 90 2 90 4 90 90 90 90 90 90 90 90 90 90 3 1 + 90 20 90 40 90 90 90 60 90 90 90 90 90 90 30 50 pk16 .ENDS .SUBCKT INVERT5 5 2 4 1 90 * INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVCH240 - 544 * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINPAN XINV1 30 35 50 60 LVCINVAN XINV2 35 36 50 60 LVCINV1N XOUT 70 36 40 50 60 OUTPUT5VTOLB XPK21 5 2 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 4 90 1 90 + 70 20 90 90 90 90 90 90 90 60 90 90 90 90 90 90 90 40 90 50 90 pk21 .ENDS .SUBCKT INVERT5H 5 2 4 1 90 * INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVCH2240 * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINHN XINV1 30 35 50 60 LVCINVAN XINV2 35 36 50 60 LVCINV1N XOUT 70 36 40 50 60 OUTPUT5VTOLB XPK21 5 2 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 4 90 1 90 + 70 20 90 90 90 90 90 90 90 60 90 90 90 90 90 90 90 40 90 50 90 pk21 .ENDS .SUBCKT INVERT5N 5 2 4 1 90 * NON-INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC2244A/2245A * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINPAN XINV 30 35 50 60 LVCINVAN XOUT 70 35 40 50 60 OUTPUT5VTOLB XPK21 5 2 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 4 90 1 90 + 70 20 90 90 90 90 90 90 90 60 90 90 90 90 90 90 90 40 90 50 90 pk21 .ENDS .SUBCKT INVERT5NH 5 2 4 1 90 * NON-INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVCH2241/2244/2245/2373/274/2543/2573 * /2574/2623/2646/2652/2821/2823/2827/2841/22952 * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINHN XINV 30 35 50 60 LVCINVAN XOUT 70 35 40 50 60 OUTPUT5VTOLB XPK21 5 2 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 4 90 1 90 + 70 20 90 90 90 90 90 90 90 60 90 90 90 90 90 90 90 40 90 50 90 pk21 .ENDS .SUBCKT INVERT6N 5 2 4 1 90 * NON-INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC161/162/163 * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINPAN XINV1 30 45 50 60 LVCCTRN XOUT 70 45 75 50 60 LVCOUTAN XPK14 1 2 90 90 90 90 5 90 90 5 90 90 90 4 90 1 + 50 20 90 90 90 90 70 60 90 70 90 90 90 75 90 50 pk16 .ENDS .SUBCKT INVERT7N 5 2 4 1 90 * NON-INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC125A/126A * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINPAN XINV 30 35 50 60 LVCINVAN XOUT 70 35 40 50 60 LVCOUTAN XPK14 5 2 4 90 90 90 90 90 90 90 90 90 90 1 + 70 20 40 90 90 90 60 90 90 90 90 90 90 50 pk14 .ENDS .SUBCKT INVERT7NH 5 2 4 1 90 * NON-INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVCH125/241/244/245/373/374/543/573 * /574/623/646/652/821/823/827/841/2952/4245 * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINHN XINV 30 35 50 60 LVCINVAN XOUT 70 35 40 50 60 LVCOUTAN XPK14 5 2 4 90 90 90 90 90 90 90 90 90 90 1 + 70 20 40 90 90 90 60 90 90 90 90 90 90 50 pk14 .ENDS .SUBCKT INVERT8 5 2 4 1 90 * INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC544A * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINPAN XINV1 30 35 50 60 LVCINVAN XINV2 35 36 50 60 LVCINV1N XOUT 70 36 40 50 60 LVCOUTAN XPK21 5 5 2 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 4 90 1 90 + 70 70 20 90 90 90 90 90 90 90 90 60 90 90 90 90 90 90 90 90 40 90 50 + 90 pk24 .ENDS .SUBCKT INVERT8N 5 2 4 1 90 * NON-INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC646A/652/821A/823A/827A/841A/2952A/4245A * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINPAN XINV 30 35 50 60 LVCINVAN XOUT 70 35 40 50 60 LVCOUTAN XPK21 5 5 2 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 4 90 1 90 + 70 70 20 90 90 90 90 90 90 90 90 60 90 90 90 90 90 90 90 90 40 90 50 + 90 pk24 .ENDS .SUBCKT INVERT8NH 5 2 4 1 90 * NON-INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVCH125/241/244/245/373/374/543/573 * /574/623/646/652/821/823/827/841/2952/4245 * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINHN XINV 30 35 50 60 LVCINVAN XOUT 70 35 40 50 60 LVCOUTAN XPK21 5 5 2 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 4 90 1 90 + 70 70 20 90 90 90 90 90 90 90 90 60 90 90 90 90 90 90 90 90 40 90 50 + 90 pk24 .ENDS .SUBCKT INVERT9N 5 2 4 1 90 * NON-INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC2241/2244/2245/2373/2374/2543/2573 * /2574/2623/2646/2652/2821/2823/2827/2841/22952/4245 * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINPAN XINV 30 35 50 60 LVCINVAN XOUT 70 35 40 50 60 OUTPUT5VTOLB XPK21 5 5 2 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 4 90 1 90 + 70 70 20 90 90 90 90 90 90 90 90 60 90 90 90 90 90 90 90 90 40 90 50 + 90 pk24 .ENDS .SUBCKT INVERT9NH 5 2 4 1 90 * NON-INVERTING BUFFER TYPE; 3-STATE * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVCH2241/2244/2245/2373/274/2543/2573 * /2574/2623/2646/2652/2821/2823/2827/2841/22952 * OE = 5, IN = 2, OUT = 4, VCC = 1, GND = 90 * OCTOBER-1994 XIN1 20 30 50 60 LVCINHN XINV 30 35 50 60 LVCINVAN XOUT 70 35 40 50 60 OUTPUT5VTOLB XPK21 5 5 2 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 90 4 90 1 90 + 70 70 20 90 90 90 90 90 90 90 90 60 90 90 90 90 90 90 90 90 40 90 50 + 90 pk24 .ENDS .SUBCKT INVERT10 2 4 1 90 * INVERTING BUFFER TYPE; OPEN DRAIN * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC06 * IN = 2, OUT = 4, VCC = 1, GND = 90 * MAY-2005 XIN1 20 30 50 60 LVCINPAN XINV1 30 35 50 60 LVCINVAN XOUT 35 40 60 LVCOUTODN XPK14 2 4 90 90 90 90 90 90 90 90 90 90 90 1 + 20 40 90 90 90 90 60 90 90 90 90 90 90 50 pk14 .ENDS .SUBCKT INVERT10N 2 4 1 90 * NON-INVERTING BUFFER TYPE; OPEN DRAIN * EQUIVALENT REFERENCE SIMULATION MODEL NOMINAL CASE * USE THIS MODEL FOR 74LVC07 * IN = 2, OUT = 4, VCC = 1, GND = 90 * MAY-2005 XIN1 20 30 50 60 LVCINPAN XOUT 30 40 60 LVCOUTODN XPK14 2 4 90 90 90 90 90 90 90 90 90 90 90 1 + 20 40 90 90 90 90 60 90 90 90 90 90 90 50 pk14 .ENDS .SUBCKT LVCOUTODN 3 4 60 * NOMINAL CASE PARAMETERS * OPEN DRAIN OUTPUT MODULE (ONLY N-CHANNEL) * IN = 3, OUT = 4, GND = 60 * MAY-2005 R0 4 40 24 MN0 40 3 60 60 MNEN W=52U L=0.65U AD=80P AS=80P PD=80U PS=80U R1 4 41 24 MN1 41 3 60 60 MNEN W=52U L=0.65U AD=80P AS=80P PD=80U PS=80U R2 4 42 24 MN2 42 3 60 60 MNEN W=52U L=0.65U AD=80P AS=80P PD=80U PS=80U R3 4 43 24 MN3 43 3 60 60 MNEN W=52U L=0.65U AD=80P AS=80P PD=80U PS=80U R4 4 44 24 MN4 44 3 60 60 MNEN W=52U L=0.65U AD=80P AS=80P PD=80U PS=80U R5 4 45 24 MN5 45 3 60 60 MNEN W=52U L=0.65U AD=80P AS=80P PD=80U PS=80U R6 4 46 24 MN6 46 3 60 60 MNEN W=52U L=0.65U AD=80P AS=80P PD=80U PS=80U R7 4 47 24 MN7 47 3 60 60 MNEN W=52U L=0.65U AD=80P AS=80P PD=80U PS=80U R8 4 48 24 MN8 48 3 60 60 MNEN W=52U L=0.65U AD=80P AS=80P PD=80U PS=80U R9 4 49 24 MN9 49 3 60 60 MNEN W=52U L=0.65U AD=80P AS=80P PD=80U PS=80U .ENDS