content: [Graphic]
  P=4
  P000=Xmin,1,0,0
  P001=Xmax,1,0,Tend
  P002=Ymin,1,0,-0.4k
  P003=Ymax,1,0,0.4k
  C=0
  O=0
  E=4
  E000=Xmin,1,Start value for output
  E001=Xmax,1,End value for output
  E002=Ymin,1,Min. value for display
  E003=Ymax,1,Max. value for display
  G=1
  G000=/Grafik//0/0/
  [E1]
  P=21
  P000=EMF,1,0,12
  P001=FREQ,1,0,50
  P002=TPERIO,1,0,20m
  P003=AMPL,1,0,0.326k
  P004=PHASE,1,0,0
  P005=PERIO,1,0,1
  P006=OFF,1,0,0
  P007=TDELAY,1,0,0
  P008=TRISE,1,0,5m
  P009=TFALL,1,0,10m
  P010=PWIDTH,1,0,5m
  P011=PARTDERIV,1,0,1
  P012=AC_MAG,1,0,1m
  P013=AC_PHASE,1,0,0
  P014=AC_RE,1,0,1m
  P015=AC_IM,1,0,0
  P016=SPC,1,0,0 
  P017=V,2,0,0
  P018=I,2,0,0
  P019=dV,2,0,0
  P020=dI,2,0,0
  C=2
  C000=N1,GND
  C001=N2,N0007
  O=0
  E=21
  E000=E1.EMF,1,EMF Value
  E001=E1.FREQ,1,Frequency
  E002=E1.TPERIO,1,Period
  E003=E1.AMPL,1,Amplitude
  E004=E1.PHASE,1,Phase
  E005=E1.PERIO,1,Periodical
  E006=E1.OFF,1,Offset
  E007=E1.TDELAY,1,Initial Delay
  E008=E1.TRISE,1,Rise Time
  E009=E1.TFALL,1,Fall Time
  E010=E1.PWIDTH,1,Pulse Width
  E011=E1.PARTDERIV,1,Partial Derivation
  E012=E1.AC_MAG,1,Magnitude of EMF (AC)
  E013=E1.AC_PHASE,1,Phase Shift of EMF (AC)
  E014=E1.AC_RE,1,Real Part of EMF (AC)
  E015=E1.AC_IM,1,Imaginery Part of EMF (AC)
  E016=E1.SPC,1,Spice compatibility
  E017=E1.V,2,Voltage
  E018=E1.I,2,Current
  E019=E1.dV,2,Derivative of Voltage
  E020=E1.dI,2,Derivative of Current
  G=1
  G000=/E/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD/24/0/
  [GND]
  P=0
  C=1
  C000=P,
  O=0
  E=0
  G=1
  G000=///0/0/
  [GND]
  P=0
  C=0
  O=0
  E=0
  G=1
  G000=///0/1/
  [N0002]
  P=0
  C=0
  O=4
  O000=RESULT VIEW VANALOG_34 (  N0002.V, Type:=ANALOG );
  O001=RESULT SDB SDB_33(  N0002.V );
  O002=RESULT VIEW VANALOG_22 (  N0002.V, Type:=ANALOG );
  O003=RESULT SDB SDB_21(  N0002.V );
  E=0
  G=1
  G000=///0/1/
  [N0004]
  P=0
  C=0
  O=4
  O000=RESULT VIEW VANALOG_32 (  N0004.V, Type:=ANALOG );
  O001=RESULT SDB SDB_31(  N0004.V );
  O002=RESULT VIEW VANALOG_24 (  N0004.V, Type:=ANALOG );
  O003=RESULT SDB SDB_23(  N0004.V );
  E=0
  G=1
  G000=///0/1/
  [N0005]
  P=0
  C=0
  O=4
  O000=RESULT VIEW VANALOG_28 (  N0005.V, Type:=ANALOG );
  O001=RESULT SDB SDB_27(  N0005.V );
  O002=RESULT VIEW VANALOG_14 (  N0005.V, Type:=ANALOG );
  O003=RESULT SDB SDB_13(  N0005.V );
  E=0
  G=1
  G000=///0/1/
  [N0007]
  P=0
  C=0
  O=0
  E=0
  G=1
  G000=///0/1/
  [R1]
  P=8
  P000=R,1,0,50
  P001=CH,1,0,
  P002=CH_FILE,1,0,
  P003=CH_STRG,1,0,
  P004=V,2,0,0
  P005=I,2,0,0
  P006=dV,2,0,0
  P007=dI,2,0,0
  C=2
  C000=N1,N0007
  C001=N2,N0002
  O=2
  O000=RESULT VIEW VANALOG_7 (  R1.I, Type:=ANALOG );
  O001=RESULT SDB SDB_6(  R1.I );
  E=5
  E000=R1.R,1,Resistance
  E001=R1.V,2,Voltage
  E002=R1.I,2,Current
  E003=R1.dV,2,Derivative of Voltage
  E004=R1.dI,2,Derivative of Current
  G=1
  G000=/R/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD/30/0/
  [R2]
  P=8
  P000=R,1,0,1k
  P001=CH,1,0,
  P002=CH_FILE,1,0,
  P003=CH_STRG,1,0,
  P004=V,2,0,0
  P005=I,2,0,0
  P006=dV,2,0,0
  P007=dI,2,0,0
  C=2
  C000=N1,N0007
  C001=N2,N0005
  O=2
  O000=RESULT SDB SDB_12(  R2.I );
  O001=RESULT VIEW VANALOG_8 (  R2.I, Type:=ANALOG );
  E=5
  E000=R2.R,1,Resistance
  E001=R2.V,2,Voltage
  E002=R2.I,2,Current
  E003=R2.dV,2,Derivative of Voltage
  E004=R2.dI,2,Derivative of Current
  G=1
  G000=/R/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD/30/0/
  [R3]
  P=8
  P000=R,1,0,1k
  P001=CH,1,0,
  P002=CH_FILE,1,0,
  P003=CH_STRG,1,0,
  P004=V,2,0,0
  P005=I,2,0,0
  P006=dV,2,0,0
  P007=dI,2,0,0
  C=2
  C000=N1,N0007
  C001=N2,N0003
  O=4
  O000=RESULT SDB SDB_35(  R3.V );
  O001=RESULT SDB SDB_11(  R3.I );
  O002=RESULT VIEW VANALOG_10 (  R3.I, Type:=ANALOG );
  O003=RESULT VIEW VANALOG_9 (  R3.V, Type:=ANALOG );
  E=5
  E000=R3.R,1,Resistance
  E001=R3.V,2,Voltage
  E002=R3.I,2,Current
  E003=R3.dV,2,Derivative of Voltage
  E004=R3.dI,2,Derivative of Current
  G=1
  G000=/R/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD/30/0/
  [R4]
  P=8
  P000=R,1,0,50
  P001=CH,1,0,
  P002=CH_FILE,1,0,
  P003=CH_STRG,1,0,
  P004=V,2,0,0
  P005=I,2,0,0
  P006=dV,2,0,0
  P007=dI,2,0,0
  C=2
  C000=N1,N0007
  C001=N2,N0004
  O=2
  O000=RESULT VIEW VANALOG_5 (  R4.V, Type:=ANALOG );
  O001=RESULT SDB SDB_4(  R4.V );
  E=5
  E000=R4.R,1,Resistance
  E001=R4.V,2,Voltage
  E002=R4.I,2,Current
  E003=R4.dV,2,Derivative of Voltage
  E004=R4.dI,2,Derivative of Current
  G=1
  G000=/R/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD/30/0/
  [C1]
  P=11
  P000=C,1,0,3.3u
  P001=V0,1,0,5
  P002=CH,1,0,
  P003=CH_FILE,1,0,
  P004=CH_STRG,1,0,
  P005=V,2,0,0
  P006=I,2,0,0
  P007=Q,2,0,0
  P008=dV,2,0,0
  P009=dI,2,0,0
  P010=dQ,2,0,0
  C=2
  C000=N1,N0002
  C001=N2,N0005
  O=4
  O000=RESULT SDB SDB_18(  C1.I );
  O001=RESULT VIEW VANALOG_17 (  C1.I, Type:=ANALOG );
  O002=RESULT VIEW VANALOG_3 (  C1.V, Type:=ANALOG );
  O003=RESULT SDB SDB_2(  C1.V );
  E=8
  E000=C1.C,1,Capacitance
  E001=C1.V0,1,Initial Voltage
  E002=C1.V,2,Voltage
  E003=C1.I,2,Current
  E004=C1.Q,2,Charge
  E005=C1.dV,2,Derivative of Voltage
  E006=C1.dI,2,Derivative of Current
  E007=C1.dQ,2,Derivative of Charge
  G=1
  G000=/C/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD/32/0/
  [C2]
  P=11
  P000=C,1,0,3.3u
  P001=V0,1,0,0
  P002=CH,1,0,
  P003=CH_FILE,1,0,
  P004=CH_STRG,1,0,
  P005=V,2,0,0
  P006=I,2,0,0
  P007=Q,2,0,0
  P008=dV,2,0,0
  P009=dI,2,0,0
  P010=dQ,2,0,0
  C=2
  C000=N1,N0004
  C001=N2,N0003
  O=4
  O000=RESULT SDB SDB_20(  C2.I );
  O001=RESULT VIEW VANALOG_19 (  C2.I, Type:=ANALOG );
  O002=RESULT VIEW VANALOG_1 (  C2.V, Type:=ANALOG );
  O003=RESULT SDB SDB_0(  C2.V );
  E=8
  E000=C2.C,1,Capacitance
  E001=C2.V0,1,Initial Voltage
  E002=C2.V,2,Voltage
  E003=C2.I,2,Current
  E004=C2.Q,2,Charge
  E005=C2.dV,2,Derivative of Voltage
  E006=C2.dI,2,Derivative of Current
  E007=C2.dQ,2,Derivative of Charge
  G=1
  G000=/C/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD/32/0/
  [GND]
  P=0
  C=1
  C000=P,
  O=0
  E=0
  G=1
  G000=///0/0/
  [SdbControl]
  P=6
  P000=Xmin,1,0,0
  P001=Xmax,1,0,Tend
  P002=Reduce,1,0,0
  P003=StepNo,1,0,2
  P004=StepWidth,1,0,10u
  P005=RelChange,1,0,0.0
  C=0
  O=0
  E=6
  E000=Xmin,1,Start value for output
  E001=Xmax,1,End value for output
  E002=Reduce,1,Dynamic reduction Off/Step/Timestep
  E003=StepNo,1,Output every ... steps
  E004=StepWidth,1,Output step size
  E005=RelChange,1,Maximum Change (in %)
  G=1
  G000=/SDBCTRL//0/0/
  [TR]
  P=11
  P000=Tend,1,0,10m
  P001=Hmin,1,0,10u
  P002=Hmax,1,0,1m
  P003=Theta,1,0,23
  P004=UseIVals,1,0,0
  P005=IValsFile,1,0,
  P006=Solver,1,0,1
  P007=LDF,1,0,0.1
  P008=Iteratmax,1,0,160
  P009=IEmax,1,0,10n
  P010=VEmax,1,0,1u
  C=0
  O=0
  E=11
  E000=Tend,1,Simulation end time
  E001=Hmin,1,Min. timestep
  E002=Hmax,1,Max. timestep
  E003=Theta,1,Global temperature
  E004=UseIVals,1,
  E005=IValsFile,1,Name of the optional Initial Values File (*.aws)
  E006=Solver,1,Integration formula
  E007=LDF,1,Local discretization error
  E008=Iteratmax,1,Max. number of iterations
  E009=IEmax,1,Max. current error
  E010=VEmax,1,Max. voltage error
  G=1
  G000=/TR//0/0/
  [AC]
  P=8
  P000=Fstart,1,0,1
  P001=Fend,1,0,1Meg
  P002=Fstep,1,0,0.1k
  P003=ACSweepType,1,0,0
  P004=Theta,1,0,23
  P005=IteratmaxAC,1,0,40
  P006=EMaxAC,1,0,1u
  P007=Relaxmax,1,0,1u
  C=0
  O=0
  E=8
  E000=Fstart,1,Start frequency
  E001=Fend,1,Stop frequency
  E002=Fstep,1,Frequency stepwidth
  E003=ACSweepType,1,AC Sweep Type
  E004=Theta,1,Global temperature
  E005=IteratmaxAC,1,Max. number of iterations
  E006=EMaxAC,1,Maximum Error
  E007=Relaxmax,1,Maximum Number of Relaxations
  G=1
  G000=/AC//0/0/
  [DC]
  P=4
  P000=Theta,1,0,23
  P001=Iteratmax,1,0,100
  P002=EMaxDC,1,0,1p
  P003=Relaxmax,1,0,10
  C=0
  O=0
  E=4
  E000=Theta,1,Global temperature
  E001=Iteratmax,1,Max. number of iterations
  E002=EMaxDC,1,Maximum Error
  E003=Relaxmax,1,Maximum Number of Relaxations
  G=1
  G000=/DC//0/0/
  [General]
  P=2
  P000=Theta,1,0,27
  P001=BDMold,1,0,1
  C=0
  O=0
  E=2
  E000=Theta,1,Global temperature
  E001=BDMold,1,Specifies whether the sequential or the DES-based BDM Simulator will be used.
  G=1
  G000=/GENERAL//0/0/
  [SPICE_NPN2]
  P=55
  P000=VBE,2,0,
  P001=VBC,2,0,
  P002=VCE,2,0,
  P003=IC,2,0,
  P004=IB,2,0,
  P005=IE,2,0,
  P006=ISUB,2,0,
  P007=P,2,0,
  P008=OFF,1,0,0
  P009=ICVBE,1,0,0
  P010=ICVCE,1,0,0
  P011=AREA,1,0,1
  P012=TEMP,1,0,27
  P013=IS,1,0,1e-016
  P014=BF,1,0,0.1k
  P015=NF,1,0,1
  P016=VAF,1,0,1e+308
  P017=IKF,1,0,1e+308
  P018=ISE,1,0,0
  P019=NE,1,0,1.5
  P020=BR,1,0,1
  P021=NR,1,0,1
  P022=VAR,1,0,1e+308
  P023=IKR,1,0,1e+308
  P024=ISC,1,0,0
  P025=NC,1,0,2
  P026=RB,1,0,0
  P027=IRB,1,0,1e+308
  P028=RBM,1,0,0
  P029=RE,1,0,0
  P030=RC,1,0,0
  P031=CJE,1,0,0
  P032=VJE,1,0,0.75
  P033=MJE,1,0,0.33
  P034=TF,1,0,0
  P035=XTF,1,0,0
  P036=VTF,1,0,1e+308
  P037=ITF,1,0,0
  P038=PTF,1,0,0
  P039=CJC,1,0,0
  P040=VJC,1,0,0.75
  P041=MJC,1,0,0.33
  P042=XCJC,1,0,1
  P043=TR,1,0,0
  P044=CJS,1,0,0
  P045=CCS,1,0,0
  P046=VJS,1,0,0.75
  P047=MJS,1,0,0
  P048=XTB,1,0,0
  P049=EG,1,0,1.11
  P050=XTI,1,0,3
  P051=FC,1,0,0.5
  P052=TNOM,1,0,27
  P053=KF,1,0,0
  P054=AF,1,0,1
  C=3
  C000=COLLECTOR,N0004
  C001=BASE,N0005
  C002=EMITTER,GND
  O=0
  E=55
  E000=SPICE_NPN2.VBE,2,B-E voltage
  E001=SPICE_NPN2.VBC,2,B-C voltage
  E002=SPICE_NPN2.VCE,2,C-E voltage
  E003=SPICE_NPN2.IC,2,Current at collector node
  E004=SPICE_NPN2.IB,2,Current at base node
  E005=SPICE_NPN2.IE,2,Emitter current
  E006=SPICE_NPN2.ISUB,2,Substrate current
  E007=SPICE_NPN2.P,2,Power dissipation
  E008=SPICE_NPN2.OFF,1,Device initially off
  E009=SPICE_NPN2.ICVBE,1,Initial B-E voltage
  E010=SPICE_NPN2.ICVCE,1,Initial C-E voltage
  E011=SPICE_NPN2.AREA,1,Area factor
  E012=SPICE_NPN2.TEMP,1,instance temperature
  E013=SPICE_NPN2.IS,1,Saturation Current
  E014=SPICE_NPN2.BF,1,Ideal forward beta
  E015=SPICE_NPN2.NF,1,Forward emission coefficient
  E016=SPICE_NPN2.VAF,1,Forward Early voltage
  E017=SPICE_NPN2.IKF,1,Forward beta roll-off corner current
  E018=SPICE_NPN2.ISE,1,B-E leakage saturation current
  E019=SPICE_NPN2.NE,1,B-E leakage emission coefficient
  E020=SPICE_NPN2.BR,1,Ideal reverse beta
  E021=SPICE_NPN2.NR,1,Reverse emission coefficient
  E022=SPICE_NPN2.VAR,1,Reverse Early voltage
  E023=SPICE_NPN2.IKR,1,reverse beta roll-off corner current
  E024=SPICE_NPN2.ISC,1,B-C leakage saturation current
  E025=SPICE_NPN2.NC,1,B-C leakage emission coefficient
  E026=SPICE_NPN2.RB,1,Zero bias base resistance
  E027=SPICE_NPN2.IRB,1,Current for base resistance=(rb+rbm)/2
  E028=SPICE_NPN2.RBM,1,Minimum base resistance
  E029=SPICE_NPN2.RE,1,Emitter resistance
  E030=SPICE_NPN2.RC,1,Collector resistance
  E031=SPICE_NPN2.CJE,1,Zero bias B-E depletion capacitance
  E032=SPICE_NPN2.VJE,1,B-E built in potential
  E033=SPICE_NPN2.MJE,1,B-E junction grading coefficient
  E034=SPICE_NPN2.TF,1,Ideal forward transit time
  E035=SPICE_NPN2.XTF,1,Coefficient for bias dependence of TF
  E036=SPICE_NPN2.VTF,1,Voltage giving VBC dependence of TF
  E037=SPICE_NPN2.ITF,1,High current dependence of TF
  E038=SPICE_NPN2.PTF,1,Excess phase
  E039=SPICE_NPN2.CJC,1,Zero bias B-C depletion capacitance
  E040=SPICE_NPN2.VJC,1,B-C built in potential
  E041=SPICE_NPN2.MJC,1,B-C junction grading coefficient
  E042=SPICE_NPN2.XCJC,1,Fraction of B-C cap to internal base
  E043=SPICE_NPN2.TR,1,Ideal reverse transit time
  E044=SPICE_NPN2.CJS,1,Zero bias C-S capacitance
  E045=SPICE_NPN2.CCS,1,Zero bias C-S capacitance
  E046=SPICE_NPN2.VJS,1,Substrate junction built in potential
  E047=SPICE_NPN2.MJS,1,Substrate junction grading coefficient
  E048=SPICE_NPN2.XTB,1,Forward and reverse beta temp. exp.
  E049=SPICE_NPN2.EG,1,Energy gap for IS temp. dependency
  E050=SPICE_NPN2.XTI,1,Temp. exponent for IS
  E051=SPICE_NPN2.FC,1,Forward bias junction fit parameter
  E052=SPICE_NPN2.TNOM,1,Parameter measurement temperature
  E053=SPICE_NPN2.KF,1,Flicker Noise Coefficient
  E054=SPICE_NPN2.AF,1,Flicker Noise Exponent
  G=1
  G000=/SPICE_NPN/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD/906/0/
  [SPICE_NPN1]
  P=55
  P000=VBE,2,0,
  P001=VBC,2,0,
  P002=VCE,2,0,
  P003=IC,2,0,
  P004=IB,2,0,
  P005=IE,2,0,
  P006=ISUB,2,0,
  P007=P,2,0,
  P008=OFF,1,0,0
  P009=ICVBE,1,0,0
  P010=ICVCE,1,0,0
  P011=AREA,1,0,1
  P012=TEMP,1,0,27
  P013=IS,1,0,1e-016
  P014=BF,1,0,0.1k
  P015=NF,1,0,1
  P016=VAF,1,0,1e+308
  P017=IKF,1,0,1e+308
  P018=ISE,1,0,0
  P019=NE,1,0,1.5
  P020=BR,1,0,1
  P021=NR,1,0,1
  P022=VAR,1,0,1e+308
  P023=IKR,1,0,1e+308
  P024=ISC,1,0,0
  P025=NC,1,0,2
  P026=RB,1,0,0
  P027=IRB,1,0,1e+308
  P028=RBM,1,0,0
  P029=RE,1,0,0
  P030=RC,1,0,0
  P031=CJE,1,0,0
  P032=VJE,1,0,0.75
  P033=MJE,1,0,0.33
  P034=TF,1,0,0
  P035=XTF,1,0,0
  P036=VTF,1,0,1e+308
  P037=ITF,1,0,0
  P038=PTF,1,0,0
  P039=CJC,1,0,0
  P040=VJC,1,0,0.75
  P041=MJC,1,0,0.33
  P042=XCJC,1,0,1
  P043=TR,1,0,0
  P044=CJS,1,0,0
  P045=CCS,1,0,0
  P046=VJS,1,0,0.75
  P047=MJS,1,0,0
  P048=XTB,1,0,0
  P049=EG,1,0,1.11
  P050=XTI,1,0,3
  P051=FC,1,0,0.5
  P052=TNOM,1,0,27
  P053=KF,1,0,0
  P054=AF,1,0,1
  C=3
  C000=COLLECTOR,N0002
  C001=BASE,N0003
  C002=EMITTER,GND
  O=0
  E=55
  E000=SPICE_NPN1.VBE,2,B-E voltage
  E001=SPICE_NPN1.VBC,2,B-C voltage
  E002=SPICE_NPN1.VCE,2,C-E voltage
  E003=SPICE_NPN1.IC,2,Current at collector node
  E004=SPICE_NPN1.IB,2,Current at base node
  E005=SPICE_NPN1.IE,2,Emitter current
  E006=SPICE_NPN1.ISUB,2,Substrate current
  E007=SPICE_NPN1.P,2,Power dissipation
  E008=SPICE_NPN1.OFF,1,Device initially off
  E009=SPICE_NPN1.ICVBE,1,Initial B-E voltage
  E010=SPICE_NPN1.ICVCE,1,Initial C-E voltage
  E011=SPICE_NPN1.AREA,1,Area factor
  E012=SPICE_NPN1.TEMP,1,instance temperature
  E013=SPICE_NPN1.IS,1,Saturation Current
  E014=SPICE_NPN1.BF,1,Ideal forward beta
  E015=SPICE_NPN1.NF,1,Forward emission coefficient
  E016=SPICE_NPN1.VAF,1,Forward Early voltage
  E017=SPICE_NPN1.IKF,1,Forward beta roll-off corner current
  E018=SPICE_NPN1.ISE,1,B-E leakage saturation current
  E019=SPICE_NPN1.NE,1,B-E leakage emission coefficient
  E020=SPICE_NPN1.BR,1,Ideal reverse beta
  E021=SPICE_NPN1.NR,1,Reverse emission coefficient
  E022=SPICE_NPN1.VAR,1,Reverse Early voltage
  E023=SPICE_NPN1.IKR,1,reverse beta roll-off corner current
  E024=SPICE_NPN1.ISC,1,B-C leakage saturation current
  E025=SPICE_NPN1.NC,1,B-C leakage emission coefficient
  E026=SPICE_NPN1.RB,1,Zero bias base resistance
  E027=SPICE_NPN1.IRB,1,Current for base resistance=(rb+rbm)/2
  E028=SPICE_NPN1.RBM,1,Minimum base resistance
  E029=SPICE_NPN1.RE,1,Emitter resistance
  E030=SPICE_NPN1.RC,1,Collector resistance
  E031=SPICE_NPN1.CJE,1,Zero bias B-E depletion capacitance
  E032=SPICE_NPN1.VJE,1,B-E built in potential
  E033=SPICE_NPN1.MJE,1,B-E junction grading coefficient
  E034=SPICE_NPN1.TF,1,Ideal forward transit time
  E035=SPICE_NPN1.XTF,1,Coefficient for bias dependence of TF
  E036=SPICE_NPN1.VTF,1,Voltage giving VBC dependence of TF
  E037=SPICE_NPN1.ITF,1,High current dependence of TF
  E038=SPICE_NPN1.PTF,1,Excess phase
  E039=SPICE_NPN1.CJC,1,Zero bias B-C depletion capacitance
  E040=SPICE_NPN1.VJC,1,B-C built in potential
  E041=SPICE_NPN1.MJC,1,B-C junction grading coefficient
  E042=SPICE_NPN1.XCJC,1,Fraction of B-C cap to internal base
  E043=SPICE_NPN1.TR,1,Ideal reverse transit time
  E044=SPICE_NPN1.CJS,1,Zero bias C-S capacitance
  E045=SPICE_NPN1.CCS,1,Zero bias C-S capacitance
  E046=SPICE_NPN1.VJS,1,Substrate junction built in potential
  E047=SPICE_NPN1.MJS,1,Substrate junction grading coefficient
  E048=SPICE_NPN1.XTB,1,Forward and reverse beta temp. exp.
  E049=SPICE_NPN1.EG,1,Energy gap for IS temp. dependency
  E050=SPICE_NPN1.XTI,1,Temp. exponent for IS
  E051=SPICE_NPN1.FC,1,Forward bias junction fit parameter
  E052=SPICE_NPN1.TNOM,1,Parameter measurement temperature
  E053=SPICE_NPN1.KF,1,Flicker Noise Coefficient
  E054=SPICE_NPN1.AF,1,Flicker Noise Exponent
  G=1
  G000=/SPICE_NPN/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD/906/0/
  [N0003]
  P=0
  C=0
  O=6
  O000=RESULT VIEW VANALOG_30 (  N0003.V, Type:=ANALOG );
  O001=RESULT SDB SDB_29(  N0003.V );
  O002=RESULT VIEW VANALOG_26 (  N0003.V, Type:=ANALOG );
  O003=RESULT SDB SDB_25(  N0003.V );
  O004=RESULT VIEW VANALOG_16 (  N0003.V, Type:=ANALOG );
  O005=RESULT SDB SDB_15(  N0003.V );
  E=0
  G=1
  G000=///0/1/
  [Probe4]
  P=0
  C=0
  O=0
  E=0
  G=1
  G000=/Probe//0/0/
  [Probe2]
  P=0
  C=0
  O=0
  E=0
  G=1
  G000=/Probe//0/0/
  [Probe1]
  P=0
  C=0
  O=0
  E=0
  G=1
  G000=/Probe//0/0/
  [2DGraphSel1]
  P=0
  C=0
  O=0
  E=0
  G=1
  G000=/2DGraphSel/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\DISPLAY.SMD/2/0/
  [Probe5]
  P=0
  C=0
  O=0
  E=0
  G=1
  G000=/Probe//0/0/
  [/Probe//0/0/]
  N=1
  N000=Probe
  D=0
  [/E/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD/24/0/]
  N=1
  N000=E
  D=1
  D000=C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD,24
  [/2DGraphSel/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\DISPLAY.SMD/2/0/]
  N=1
  N000=2DGraphSel
  D=1
  D000=C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\DISPLAY.SMD,2
  [/AC//0/0/]
  N=1
  N000=AC
  D=0
  [/Grafik//0/0/]
  N=1
  N000=Grafik
  D=0
  [/SPICE_NPN/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD/906/0/]
  N=1
  N000=SPICE_NPN
  D=1
  D000=C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD,906
  [/DC//0/0/]
  N=1
  N000=DC
  D=0
  [/C/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD/32/0/]
  N=1
  N000=C
  D=1
  D000=C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD,32
  [/SDBCTRL//0/0/]
  N=1
  N000=SDBCTRL
  D=0
  [/TR//0/0/]
  N=1
  N000=TR
  D=0
  [///0/1/]
  N=1
  N000=
  D=0
  [///0/0/]
  N=1
  N000=
  D=0
  [/GENERAL//0/0/]
  N=1
  N000=GENERAL
  D=0
  [/R/C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD/30/0/]
  N=1
  N000=R
  D=1
  D000=C:\ANSOFT\SIMPLORER70 STUDENT VERSION\LIB\BASIC_ELEMENTS.SMD,30
  