Sergey Kor пишет:
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Затаривай! Режим тишины (Mute) подключается 7-й ногой на минус питания
* LM3886
* Version 1.0 :
* Free for Microcap
*
*****************************************************************************
* Notes:
* The LM3886 Macro Model represents the following parameters for
* split-supply operation (+/-28V):
* GBWP, input-referred voltage noise, the quiescent current,
* output swing, input offset voltage, input bias current, PSRR,
* CMRR, and the slew rate.
*
*****************************************************************************
*$
.SUBCKT LM3886 INP INN VCC VEE GND OUT MUTE
*
V_Vos INP2 INP_CMRR -1056uVdc
R_Rinp INP INP1 1
R_Rinn INN INN1 1
C_Cinp GND INP1 200f
C_Cinn GND INN1 200f
E_E1 VCC_BUF GND VCC GND 1
E_E2 VEE_BUF GND VEE GND 1
R_RMUTE VCC MUTE 1e6
X_UIcc VCC VEE MUTE VIMON GND INP2 INN1 HPA_PD_I
+ PARAMS: VTH=1.4I IMAX=50e-3 IMIN=0.444e-3 IIBP=210n IIBN=200n
G_G1 GND N2B INP_CMRR GND 3.2u
E_Ecmrr INN2 INN3 N2B GND 1
R_Rcmr N2B N2 1
L_Lcmr N2 GND 560nH
G_G2 GND N1B VCC_BUF VEE_BUF 1u
L_Lpsr N1 GND 2uH
R_Rpsr N1B N1 1
X_Upsrr N1B GND INN1 INN2 VCVS_LIMIT
+ PARAMS: GAIN=-1 VPOS=20M VNEG=-20M
X_Uvn INP1 INP2 VNSE
*
V_V1 VCC N3 3.59Vdc
V_V4 N4 VEE 3.59Vdc
X_Ud2 INN3 N3 d_ideal
X_Ud1 INP_CMRR N3 d_ideal
X_Ud3 N4 INP_CMRR d_ideal
X_Ud4 N4 INN3 d_ideal
*
X_Ug0 INP_CMRR INN3 GND AV1 VCCS_LIMIT
+ PARAMS: GAIN=10e-6 IPOS=0.5 INEG=-0.5
X_Ug4 AV1 GND GND OVER_CLAMP VCCS_LIMIT
+ PARAMS: GAIN=26.5u IPOS=107.5u INEG=-107.5u
GRU1 GND AV1 VALUE={V(GND ,AV1 )/1e6}
GRU2 GND OVER_CLAMP VALUE={V(GND ,OVER_CLAMP)/2.1e9}
C_Cc1 GND OVER_CLAMP 5.3p
C_Cc2 P0ZP1 GND 5e-15
C_Cc3 CLAW_CLAMP GND 995f
*
X_UIout VCC VEE VIMON GND TRAN_IOUT
G_G3 GND VSENSE OVER_CLAMP GND 1u
G_G4 GND P0Z VSENSE GND 1u
G_G5 GND P0ZP1 P0Z GND 1u
G_G6 GND CLAW_CLAMP P0ZP1 GND 1m
G_G7 GND CL_CLAMP CLAW_CLAMP GND 1m
GRU3 VSENSE GND VALUE={V(VSENSE,GND )/1e6}
GRU5 GND P0Z VALUE={V(GND , P0Z )/1e6}
GRU6 P0ZP1 GND VALUE={V(P0ZP1, GND )/1e6}
GRU7 CLAW_CLAMP GND VALUE={V(CLAW_CLAMP,GND )/1e3}
GRU8 CL_CLAMP GND VALUE={V(CL_CLAMP, GND )/1e3}
*
X_UpwrDn CL_CLAMP GND MUTE N90 GND VCC VEE HPA_PD_SGNL
*
XVoclp VCC VEE N90 N94 Vimon1 GND VCLAMP_W_SENSE_0
+ PARAMS: VMAXIO=1.55 VMINIO=2.45 SLOPE=0
XIoclp VCLP N94 RNOISE_LESS_WILIM_0
+ PARAMS: RX=0.01 IMAX=11.5 IMIN=-11.5
XUA VCLP Uz_VZO_4 Vimon1 GND AMETER_0
*
X_Uz_H1 Uz_VZO_4 OUT VIMON GND Zout_Uz_H1
E_Uz_E1 Uz_VZO_2 GND Uz_VZO_1 Uz_VZO_4 -1
R_Uz_Ra Uz_N106 Uz_VZO_4 10
R_Uz_Rb Uz_N104 Uz_VZO_4 10
R_Uz_Rm Uz_VZO_3 Uz_VZO_4 10
X_Uz_S1 N92 GND Uz_N106 Uz_VZO_3 Zout_Uz_S1
X_Uz_S2 N92 GND Uz_N104 Uz_VZO_3 Zout_Uz_S2
GRUz_Rg1 GND Uz_N100 VALUE={V(GND ,Uz_N100)/10e6}
GRUz_Rf1 Uz_N100 Uz_VZO_1 VALUE={V(Uz_N100 ,Uz_VZO_1)/10e6}
GRUz_Rg2 Uz_VZO_2 Uz_N102 VALUE={V(Uz_VZO_2,Uz_N102 )/1e6}
GRUz_Rf2 Uz_N102 Uz_VZO_3 VALUE={V(Uz_N102 ,Uz_VZO_3)/1e6}
X_Uz_Uamp1 VCLP Uz_N100 Uz_VZO_1 GND VCVS_LIMIT
+ PARAMS: GAIN=1e6 VPOS=6e4 VNEG=-6e4
X_Uz_Uamp2 GND Uz_N102 Uz_VZO_3 GND VCVS_LIMIT
+ PARAMS: GAIN=1e6V VPOS=6e4 VNEG=-6e4
*
.ENDS LM3886
*$
*
.subckt Zout_Uz_S1 1 2 3 4
S_Uz_S1 3 4 1 2 _Uz_S1
RS_Uz_S1 1 2 1G
.MODEL _Uz_S1 VSWITCH Roff=10e6 Ron=1.0 Voff=-0.1V Von=0.1V
.ends Zout_Uz_S1
*$
.subckt Zout_Uz_S2 1 2 3 4
S_Uz_S2 3 4 1 2 _Uz_S2
RS_Uz_S2 1 2 1G
.MODEL _Uz_S2 VSWITCH Roff=10e6 Ron=1.0 Voff=0.1V Von=-0.1V
.ends Zout_Uz_S2
*$
.subckt Zout_Uz_H1 1 2 3 4
H_Uz_H1 3 4 VH_Uz_H1 1e3
VH_Uz_H1 1 2 0V
.ends Zout_Uz_H1
*
*$
.subckt rnoiseless a b PARAMS: R=1k
*H_H1 c b VH_H1 {R}
*VH_H1 a c 0
ERES a 3 VALUE = { I(VSENSE) * R }
Rdummy 30 3 1
VSENSE 30 b DC 0V
.ends
*$
*
.SUBCKT EPOLY1 1 2 3 4 PARAMS: Coeff1=0.0 Coeff2=0.0
*For distortion purpose
*EINT 3 4 POLY(1) (1,2) (0 1 Coeff1 Coeff2)
EINT 3 4 POLY(1) (1,2) (0 1 0 0)
.ENDS EPOLY1
*$
*
.subckt D_ideal A C
D1 A C DNOM
.MODEL DNOM D (IS=1e-16 RS=1e-3 N=1e-3)
.ENDS D_ideal
*
*$
.subckt VCCS_Limit VCP VCN IOUTP IOUTN PARAMS: Gain = 1.7e-3
+ Ipos = 0.100 Ineg = -0.165
G1 IOUTP IOUTN VALUE={LIMIT(Gain*V(VCP,VCN),Ipos,Ineg)}
.ends VCCS_Limit
*
*$
.subckt VCVS_Limit VCP VCN VOUTP VOUTN PARAMS: Gain = -1
+ Vpos = 20m Vneg = -20m
E1 VOUTP VOUTN VALUE={LIMIT(Gain*V(VCP,VCN),Vpos,Vneg)}
.ends VCVS_Limit
*$
*
.SUBCKT VNSE 1 2
**************************
* BEGIN SETUP OF NOISE GEN - NANOVOLT/RT-HZ
* INPUT THREE VARIABLES
* NLF - NV/RHZ AT (1/F) FREQ
* FLW - FREQ FOR (1/F) VAL
* NVR - NV/RHZ FLATBAND
**************************
* START CALC VALS
.PARAM NLF=20.2
.PARAM FLW=1
.PARAM NVR=1.99
.PARAM GLF={PWR(FLW,0.25)*NLF/1164}
.PARAM RNV={1.184*PWR(NVR,2)}
.MODEL DVN D KF={PWR(FLW,0.5)/1E11} IS=1.0E-16
* END CALC VALS
I1 0 7 10E-3
I2 0 8 10E-3
D1 7 0 DVN
D2 8 0 DVN
E1 3 6 7 8 {GLF}
R1 3 0 1E9
R2 3 0 1E9
GR3 3 6 3 6 1E-9
E2 6 4 5 0 10
R4 5 0 {RNV}
R5 5 0 {RNV}
R6 3 4 1E9
R7 4 0 1E9
E3 1 2 3 4 1
C1 1 0 1E-15
C2 2 0 1E-15
C3 1 2 1E-15
.ENDS VNSE
*$
*
.SUBCKT HPA_PD_I VCC VEE PD Vimon AGND Ninp Ninn PARAMS: Vth = 1.4 Imax = 1e-3 Imin = 3n
+ IIBP= 0.55u IIBN= 0.56u
*GBIAS VCC VEE VALUE = {IF(V(PD) >= (V(VEE)+Vth),Imax,Imin)}
GBIAS VCC VEE VALUE = {IF(V(PD) >= V(VCC),Imax,Imin)}
Ebuf VDD 0 VCC 0 1
Ginp VDD Ninp VALUE = {IF(V(PD) >= V(VCC),IIBP,0)}
Ginn VDD Ninn VALUE = {IF(V(PD) >= V(VCC),IIBN,0)}
.ENDS
*$
*
.SUBCKT HPA_PD_Sgnl CP CN DIS VP VN VCC VEE PARAMS: GAIN = 1
EVCVS VP VN VALUE = {IF(V(DIS,VEE) >= 1.4,V(CP,CN)*GAIN,0)}
.ENDS HPA_PD_Sgnl
*$
*
.SUBCKT Tran_Iout VCC VEE VIMON AGND
X_Siq1 N1 GND_FLOAT VIMON N2 Amp_Dyn_Iout_Siq1
X_Siq2 N1 GND_FLOAT VIMON N3 Amp_Dyn_Iout_Siq2
C_Ciq1 N1 GND_FLOAT 10e-12
R_Riq1 N1 VIMON 10
R_Riq2 N2 GND_FLOAT 10e3
R_Riq3 GND_FLOAT N3 10e3
G_Gsourcing VCC GND_FLOAT N3 GND_FLOAT 0.001
G_Gsinking VEE GND_FLOAT N2 GND_FLOAT 0.001
.ENDS Tran_Iout
*$
.subckt Amp_Dyn_Iout_Siq1 1 2 3 4
S_Siq1 3 4 1 2 _Siq1
RS_Siq1 1 2 1G
.MODEL _Siq1 VSWITCH Roff=1e6 Ron=1.0 Voff=0.0V Von=-0.10V
.ends Amp_Dyn_Iout_Siq1
*$
*
.subckt Amp_Dyn_Iout_Siq2 1 2 3 4
S_Siq2 3 4 1 2 _Siq2
RS_Siq2 1 2 1G
.MODEL _Siq2 VSWITCH Roff=1e6 Ron=1.0 Voff=0.0V Von=0.10V
.ends Amp_Dyn_Iout_Siq2
*$
*
.SUBCKT VCLAMP_W_SENSE_0 VCC VEE VI VO VIMON GNDF
+ PARAMS: VMAXIO = 0.1 VMINIO = 0.1 SLOPE = 0
EPCLIP VCC_CLP 0 VALUE = {V(VCC,GNDF) - SLOPE*V(VIMON,GNDF) - VMAXIO}
ENCLIP VEE_CLP 0 VALUE = {V(VEE,GNDF) - SLOPE*V(VIMON,GNDF) + VMINIO}
ECLAMP VO GNDF VALUE = {LIMIT(V(VI,GNDF), V(VCC_CLP), V(VEE_CLP))}
.ENDS
*
*$
.SUBCKT RNOISE_LESS_WILIM_0 P N PARAMS: RX = 1E-3 IMAX = 1M IMIN = -1M
GRES P N VALUE = {LIMIT(V(P,N)/RX, IMAX, IMIN)}
.ENDS
*
*$
.SUBCKT AMETER_0 VI VO VIMON GNDF
+ PARAMS: GAIN = 1
VSENSE VI VO1 DC = 0
R1 VO1 VO 1e-3
R2 VO1 VO 1e-3
R3 VO1 VO 1e-3
R4 VO1 VO 1e-3
EMETER VIMON GNDF VALUE = {I(VSENSE)*GAIN}
.ENDS
*
*$
.OPTIONS ACCT LIST OPTS ABSTOL=1uA CHGTOL=1nC DEFL=100u DEFW=100u DEFNRD=0
+ DEFNRS=0 DEFPD=0 DEFPS=0 DIGDRVF=2 DIGDRVZ=20K DIGERRDEFAULT=20 DIGERRLIMIT=0
+ DIGFREQ=10GHz DIGINITSTATE=0 DIGIOLVL=2 DIGMNTYMX=2 DIGMNTYSCALE=0.4
+ DIGOVRDRV=3 DIGTYMXSCALE=1.6 DIODE_MAX_IS=1e-6 GMIN=1n INTERPOLATION_ORDER=2
+ ITL1=200 ITL2=50 ITL4=50 PIVREL=1m PIVTOL=.1p RELTOL=10m SANDH_PRECISION=1e-4
+ SD=2.58 SEED=0 TEMP=27 TNOM=27 TRTOL=7 VNTOL=1m WIDTH=80 PRIVATEDIGITAL=0
+ PRIVATEANALOG PERFORM_M=2 RMIN=1u R_NODE_GND=1e6 PATH_TO_GROUND
+ VOLTAGE_LOOP_CHECK FLOATING_NODES_CHECK=0 NUMERIC_DERIVATIVE=0 LTHRESH=1.5
+ LONE=3.5 LZERO=.3 CSHUNT=0 RSHUNT=0 RP_FOR_ISOURCE=0 METHOD=GEAR
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