****** bjt model parameters tnom= temp= *****
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1 ****** HSPICE H BIT (Feb ) RHEL64 ****** Copyright (C) 2013 Synopsys, Inc. All Rights Reserved. Unpublished rights reserved under US copyright laws. This program is protected by law and is subject to the terms and conditions of the license agreement from Synopsys. Use of this program is your acceptance to be bound by the license agreement. HSPICE is the trademark of Synopsys, Inc. Input File: ProjectBJTCascodeResBiased2001.sp Command line options: ProjectBJTCascodeResBiased2001.sp lic: lic: FLEXlm: v lic: USER: davis HOSTNAME: boomhauer lic: HOSTID: 00248c5a712b PID: lic: Using FLEXlm license file: lic: 27001@nautilus lic: Checkout 1 hspice lic: License/Maintenance for hspice will expire on 07 mar 2014/ lic: 1(in_use)/50(total) FLOATING license(s) on SERVER nautilus lic: 1****** HSPICE H BIT (Feb ) RHEL64 ****** ****** *design example 1 ****** bjt model parameters tnom= temp= ***** ************************************************************************ *** bjt model parameters model name: 0:t2n5089 model type:npn *** ************************************************************************ names values units names values units names values units
2 1*** basic dc parameters *** level= 1.00 bf= 1.43k br= 1.26 brs= 0. bulk= gnd is= 5.91f amps iss= 0. amps nf= 1.00 nr= 1.00 ns= 1.00 ibe= 0. amps ibc= 0. amps subs= 1.00 expli= 0. amps 2*** low current beta degradation effect parameters *** isc= 0. amps ise= 5.91f amps nc= 2.00 ne= *** base width modulation parameters *** vaf= volts var= 0. volts 4*** high current beta degradation effect parameters *** ikf= 15.40m amps nkf= m ikr= 0. amps 5*** parasitic resistor parameters *** irb= 0. amps rb= ohms rbm= ohms re= 0. ohms rc= 1.61 ohms rcc= 0. ohms vo= 0. volts gamma= 0. 6*** junction capacitor parameters *** cbcp= 0. farad cbep= 0. farad ccsp= 0. farad cjc= 4.02p farad cje= 4.97p farad cjs= 0. farad fc= m mjc= m mje= m mjs= m vjc= m volts vje= m volts vjs= m volts xcjc= 1.00 qco= 0. coul 7*** transit time parameters *** itf= m amps ptf= 0. deg k tf= p secs tr= 4.67n secs vtf= 4.00 xtf= 7.00
3 8*** temperature compensation parameters *** tlev= 0. tlevc= 0. tre1= 0. /deg tre2= 0. /deg2 trb1= 0. /deg trc1= 0. /deg trb2= 0. /deg2 trm1= 0. /deg xtb= 1.50 trm2= 0. /deg2 xti= 3.00 cte= 0. /deg ctc= 0. /deg cts= 0. /deg trc2= 0. /deg2 tref= deg c bex= 2.42 bexv= *** noise parameters *** kf= 0. af= 1.00 **warning** (ProjectBJTCascodeResBiased2001.sp:44) Could not find branch eleme nt re ;branch output ignored ***************************************************************** ****** option summary ****** runlvl = 3 bypass = 2 1****** HSPICE H BIT (Feb ) RHEL64 ****** ****** *design example 1 ****** operating point information tnom= temp= ***** ***** operating point status is all simulation time is 0. node =voltage node =voltage node =voltage +0:2 = :3 = :5 = :6 = 0. 0:7 = 0. 0:8 = 0. +0:22 = :33 = :vcc =
4 **** voltage sources element 0:vcc 0:vin volts current u 0. power u 0. total voltage source power dissipation= u watts **** resistors element 0:rs 0:r11 0:r12 0:re1 0:r21 0:r22 r value x x x x x v drop current n n u n n power u u u u u element 0:rc2 0:rl r value x x v drop current u 0. power u 0. **** bipolar junction transistors
5 element 0:q1 0:q2 model 0:t2n5089 0:t2n5089 ib n n ic u u vbe m m vce vbc vs power u u betad gm u u rpi x x rx ro x x cpi p p cmu p p cbx ccs betaac ft k k **warning** zero value is used for the non existance output variable in the expression. you may have output variables with a long path name.
6 **** the results of the sqrt of integral (v**2 / freq) using more points from fstart to fstop results in more accurate total noise values. **** total output noise voltage = u volts **** total equivalent input noise = m 1****** HSPICE H BIT (Feb ) RHEL64 ****** ****** *design example 1 ****** operating point information tnom= temp= ***** ***** operating point status is all simulation time is u node =voltage node =voltage node =voltage +0:2 = :3 = :5 = :6 = m 0:7 = u 0:8 = a +0:22 = :33 = :vcc = **** voltage sources element 0:vcc 0:vin volts a current u n power u 8.059e 24 total voltage source power dissipation= u watts **** resistors
7 element 0:rs 0:r11 0:r12 0:re1 0:r21 0:r22 r value x x x x x v drop u current n n n u n n power p u u u u u element 0:rc2 0:rl r value x x v drop m current u n power u n **** bipolar junction transistors element 0:q1 0:q2 model 0:t2n5089 0:t2n5089 ib n n ic u u vbe m m vce vbc vs power u u betad gm u u rpi x x
8 rx ro x x cpi p p cmu p p cbx ccs betaac ft k k **** the results of the sqrt of integral (v**2 / freq) using more points from fstart to fstop results in more accurate total noise values. **** total output noise voltage = u volts **** total equivalent input noise = m 1****** HSPICE H BIT (Feb ) RHEL64 ****** ****** *design example 1 ****** operating point information tnom= temp= ***** ***** operating point status is all simulation time is u node =voltage node =voltage node =voltage +0:2 = :3 = :5 = :6 = m 0:7 = u 0:8 = a +0:22 = :33 = :vcc =
9 **** voltage sources element 0:vcc 0:vin volts a current u n power u 1.639e 23 total voltage source power dissipation= u watts **** resistors element 0:rs 0:r11 0:r12 0:re1 0:r21 0:r22 r value x x x x x v drop u current n n n u n n power p u u u u u element 0:rc2 0:rl r value x x v drop m current u n power u p **** bipolar junction transistors
10 element 0:q1 0:q2 model 0:t2n5089 0:t2n5089 ib n n ic u n vbe m m vce vbc vs power u u betad gm u u rpi x x rx ro x x cpi p p cmu p p cbx ccs betaac ft k k **** the results of the sqrt of integral (v**2 / freq) using more points from fstart to fstop results in more accurate total noise values.
11 **** total output noise voltage = u volts **** total equivalent input noise = m 1****** HSPICE H BIT (Feb ) RHEL64 ****** ****** *design example 1 ****** operating point information tnom= temp= ***** ***** operating point status is all simulation time is u node =voltage node =voltage node =voltage +0:2 = :3 = :5 = :6 = m 0:7 = u 0:8 = a +0:22 = :33 = :vcc = **** voltage sources element 0:vcc 0:vin volts a current u n power u 4.216e 23 total voltage source power dissipation= u watts **** resistors element 0:rs 0:r11 0:r12 0:re1 0:r21 0:r22 r value x x x x x
12 v drop u current n n n u n n power p u u u u u element 0:rc2 0:rl r value x x v drop m current u n power u n **** bipolar junction transistors element 0:q1 0:q2 model 0:t2n5089 0:t2n5089 ib n n ic u u vbe m m vce vbc vs power u u betad gm u u rpi x x rx ro x x cpi p p cmu p p
13 cbx ccs betaac ft k k **** the results of the sqrt of integral (v**2 / freq) using more points from fstart to fstop results in more accurate total noise values. **** total output noise voltage = u volts **** total equivalent input noise = m ***** job concluded 1****** HSPICE H BIT (Feb ) RHEL64 ****** ****** *design example 1 ****** job statistics summary tnom= temp= ***** ****** Machine Information ****** CPU: model name : Intel(R) Core(TM) i7 CPU 2.67GHz cpu MHz : OS: Linux version URI_Build_AMD64 (root@boomhauer) (gcc version (Gen
14 too p1.0, pie 0.4.7) ) #2 SMP PREEMPT Mon Apr 29 19:32:51 EDT 2013 ****** HSPICE Threads Information ****** Command Line Threads Count : 1 Available CPU Count : 8 Actual Threads Count : 1 ****** Circuit Statistics ****** # nodes = 14 # elements = 16 # resistors = 8 # capacitors = 4 # inductors = 0 # mutual_inds = 0 # vccs = 0 # vcvs = 0 # cccs = 0 # ccvs = 0 # volt_srcs = 2 # curr_srcs = 0 # diodes = 0 # bjts = 2 # jfets = 0 # mosfets = 0 # U elements = 0 # T elements = 0 # W elements = 0 # B elements = 0 # S elements = 0 # P elements = 0 # va device = 0 # vector_srcs = 0 # N elements = 0 ****** Runtime Statistics (seconds) ****** analysis time # points tot. iter conv.iter op point ac analysis transient rev= 0 readin 0.00 errchk 0.00 setup 0.00 output 0.00
15 peak memory used megabytes total cpu time 0.92 seconds total elapsed time 1.13 seconds job started at 17:03:13 07/09/2013 job ended at 17:03:14 07/09/2013 lic: Release hspice token(s) lic: total license checkout elapse time: 0.21(s)
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