1 / 8

Esercitazione 2/2/07

Esercitazione 2/2/07. 1) OpAmp modello 0. ******************************************************************************* descrizione operazionale ideale .SUBCKT OPAMP INP INM OUT PARAMS: VUMP=10 VUMM=-10 + AD=400k E1 OUT 0 VALUE={MAX(MIN(AD*V(INP,INM),VUMP),VUMM)} .ENDS

marin
Download Presentation

Esercitazione 2/2/07

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript


  1. Esercitazione 2/2/07

  2. 1) OpAmp modello 0 ******************************************************************************* descrizione operazionale ideale .SUBCKT OPAMP INP INM OUT PARAMS: VUMP=10 VUMM=-10 + AD=400k E1 OUT 0 VALUE={MAX(MIN(AD*V(INP,INM),VUMP),VUMM)} .ENDS *******************************************************************************

  3. 2) OpAmp ad anello aperto operazionale ad anello APERTO * descrizione operazionale ideale .SUBCKT OPAMP INP INM OUT PARAMS: VUMP=10 VUMM=-10 AD=400k E1 OUT 0 VALUE={MAX(MIN(AD*V(INP,INM),VUMP),VUMM)} .ENDS VIN 1 0 DC 0 AC 1 SIN (0 3u 50 0 0 0) XAMP 1 0 3 OPAMP PARAMS: AD=500k RLOAD 3 0 1k .OP .TRAN 10u 60m 0 1u .DC LIN VIN -1.5 1.5 10m .AC DEC 100 1 100k .PROBE V(1) V(3) .END

  4. 3) OpAmp ad anello chiuso operazionale ad anello CHIUSO * descrizione operazionale ideale .SUBCKT OPAMP INP INM OUT PARAMS: VUMP=10 VUMM=-10 AD=400k E1 OUT 0 VALUE={MAX(MIN(AD*V(INP,INM),VUMP),VUMM)} .ENDS VIN 2 0 DC 0 AC 1 SIN (0 3u 50 0 0 0) XAMP 2 1 3 OPAMP PARAMS: AD=500 R1 1 0 100 R2 3 1 10k .TRAN 10u 20m 0 1u .DC LIN VIN -1.5 1.5 10m .AC DEC 100 1 1k .PROBE V(1) V(3) .END

  5. 5) Bipolo S con OpAmp bipolo S con opamp .SUBCKT OPAMP INP INM OUT PARAMS: VUMP=10 VUMM=-10 AD=400K E1 OUT 0 VALUE={MAX(MIN(AD*V(INP,INM),VUMP),VUMM)} .ENDS R1 1 0 500 R2 1 2 500 R3 3 0 1k XAMP 3 1 2 OPAMP PARAMS: AD=500k IIN 2 3 DC 0 .DC LIN IIN -20m 20m 100u .PROBE V(3,2) .END

  6. 6) Esercizio esercizio .SUBCKT OPAMP INP INM OUT PARAMS: VUMP=10 VUMM=-10 AD=400K E1 OUT 0 VALUE={MAX(MIN(AD*V(INP,INM),VUMP),VUMM)} .ENDS R1 1 0 500 R2 1 2 500 R4 3 2 1k XAMP 3 1 2 OPAMP PARAMS: AD=500k VIN 3 0 DC 0 .DC LIN VIN -20 20 10m .PROBE .END

  7. 7) Bipolo S con BJT bipolo S con BJT .MODEL bjt NPN IS=1fA BF=100 Q1 2 0 1 bjt Q2 3 2 4 bjt R1 3 2 100 VDD 3 0 DC 3.3 I1 1 0 DC 1m RP1 1 0 1Meg I2 4 0 DC 1m RP2 4 0 1Meg IIN 4 1 DC 0 .DC LIN IIN 1m -1m 0.0001m .PROBE V(1,4) I(IIN) .END

  8. 8) Bipolo S con MOS bipolo S con NMOS .MODEL NMOD NMOS LEVEL=1 VTO=0.6 MN1 2 0 1 0 NMOD W=500u L=1u MN2 3 2 4 0 NMOD W=500u L=1u R1 3 2 30k VDD 3 0 DC 3.3 I1 1 0 DC 0.5m RP1 1 0 1Meg I2 4 0 DC 0.5m RP2 4 0 1Meg IIN 4 1 DC 0 .DC LIN IIN 0.5005m -0.503m 0.0001m .PROBE V(1,4) I(IIN) .END

More Related