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发表于 2009-8-20 16:13:36
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我把10年前的老套统又翻出来。一个是DAT文件;一个是今天重新做的OUT文件。因为,我电脑使用也特别差,纯MS-DOS下波形曲线我没有办法传上来。我回忆,它在运行结速时会有一个???.pl4文件。我又去看破电脑,确实我看见了有Plot.pl4文件,是090820 13:45今天生成。我在想,用一位版主帮助我的TOP软件,不知是否能读出?!" Q$ `4 p3 [2 ?, Z
我就感到奇怪,马教授的96年软件,能够用集中参数R L C仿真模拟电容器向电阻、电感充放电的暂态过程,怎么ATPDraw5.5不行呢?
4 k+ O" `2 I3 {) @8 x& v肯定,是老头没有认真学习说明书!!!BEGIN NEW DATA CASE+ [# m% {' z) A0 J6 b+ ^
C BECNHMARK CRLZT.DAT DT=50VS JSSJ=0.4S 4TDYQX ZT 10KVXTQXYY AXDK
+ m6 Y& C2 H$ O9 O1 s" n jC FIX SOURCE
' Z# g) G( X4 g0 T# N' O .00005 .8 50.0
1 j) o) i6 O, v6 b 1 1 0 1 1 -1 0 2 0 06 X. q- a) \" F% k7 r3 N
10 10 100 100 1000 1000# p( g$ p1 K) W! n
MX 318.472 p2 t- W7 i$ J$ Z
R1 RL 10.0# _: ]* n9 [. t1 q, p
RL 1000.
6 x8 G3 h: U7 p2 l3 l# ABLANK CARD ENDING BRANCHES CARDS OF -TC- CASE
2 G2 }7 t* E p% q- r g DY MX -1.0 0.04 100.
9 c$ O* l4 O4 n9 f8 K MX R1 0.06 1.04 100.
9 P% A" L6 o3 P7 t4 `6 ~7 u- IBLANK CARD ENDING SWITCHES CARDS OF -TC- CASE
# S) z4 C4 x4 C/ tC 14DYA -1 9.14e5 50.0 -15.0 -1.0 5.1
; z/ A3 h, @6 n% t: {C 14DY -1 -9.14e5 50.0 -15.0 -1.0 5.10 ^6 T) E% D$ V) M
C 14DYB -1 9.14e5 50.0 -135.0 -1.0 5.1* J7 p1 X& Q! | V Q; J* L
C 14DY -1 -9.14e5 50.0 -135.0 -1.0 5.11 @% }* z, u1 n" @ {! @% \0 h
C 14DYC -1 9.14e5 50.0 -255.0 -1.0 5.1: a/ r( X& i% L. I
C 14DY -1 -9.14e5 50.0 -255.0 -1.0 5.1
6 L6 i. Z) B- O U! ~6 ]& I0 E- q14DY 91400.0 50.0 0.0 -1
, c' r1 t: Z- PC 14DYB 93897.0 50.0 -120. -1
0 o. n0 e9 M5 y" G6 aC 14DYC 93897.0 50.0 120.0 -1
F$ J( c4 E4 W# B2 s0 p2 ?BLANK CARD ENDING SOURCE CARDS
, X" T: |# M3 a9 r, y4 F' j2 h DY MX
, m2 e3 Y, J5 M; X# b/ s-1MX R1! u/ V1 b" k0 R
BLANK CARD ENDING SELECTED NODE VOLTAGE OUTPUT CARDS& a4 d4 s4 u4 e5 o Q1 S
14410. 200. DY MX# r/ d/ v& P% x7 B% R7 C; n
14401.000.800. DY MX) U+ E: ^+ U. N0 G- R+ Y# s
14401.000.400. DY MX
/ y0 A/ m6 o' {) e& k7 n" }, ^. v6 K3 t 14401.000.200. DY MX9 H6 C- M/ D) j. Z
19401.000.800. MX R1% T# \. o7 v* u S( p
19401.000.400. MX R13 I6 }3 q! |) q7 _2 [4 _, z+ J
19401.000.200. MX R1; \, Y! f7 m* n! e4 ~0 ^3 v
BLANK CARD ENDING PLOT CARDS( X# o- W$ ], A4 \
BEGIN NEW DATA CASE
6 |; l: n, s' XBLANK
5 \9 x2 _9 e0 f7 e# |0 P g. a3 ]$ f
ELECTROMAGNETIC TRANSIENTS PROGRAM (EMTP386) TIME =08/20/09 13.57.13 PLOT FILE = PLOT.PL4
' Y/ S; e, D) p, v# }' W5 h& | ASSOCIATED USER DOCUMENTATION IS THE 864-PAGE EMTP RULE BOOK DATED JUNE, 1984. VERSION M40. VARDIM TIME/DATE =1637223 960610% F) r/ @7 V- q4 O4 d0 b6 L
INDEPENDENT LIST LIMITS FOLLOW. TOTAL LENGTH OF /LABEL/ EQUALS 1637223 INTEGER WORDS. 2002 4500 4500 1500 90000, P0 V, z5 Q) h# N) ~6 U
800 2500 90000 250 800 1500 1500 300 9 50 10000 10000 3000 5400 90000 9 1800 5000 300
. [/ b/ M7 I: [, a0 F --------------------------------------------------+--------------------------------------------------------------------------------
) u" J+ c, a1 b8 N DESCRIPTIVE INTERPRETATION OF NEW-CASE INPUT DATA 1 INPUT DATA CARD IMAGES PRINTED BELOW, ALL 80 COLUMNS, CHARACTER BY CHARACTER.. d, X$ Z3 X, W8 n) ~ p: P- y
0 1 2 3 4 5 6 7 8# F4 L9 L8 i" ~
0 0 0 0 0 0 0 0 05 n1 d0 |/ u" H& P
--------------------------------------------------+--------------------------------------------------------------------------------& V; b' C, x) K R; U& d
MARKER CARD PRECEDING NEW DATA CASE. 1BEGIN NEW DATA CASE j" P+ s9 S0 E7 ^/ Z
COMMENT CARD. 1C BECNHMARK CRLZT.DAT DT=50VS JSSJ=0.4S 4TDYQX ZT 10KVXTQXYY AXDK 9 H1 E2 P! ?* K ?0 I+ X
COMMENT CARD. 1C FIX SOURCE
& A! z" h5 t. R! G! e- ]3 S# m MISC. DATA. 0.500E-04 0.800E+00 0.500E+02 1 .00005 .8 50.0 ( V' M0 C1 ]- s0 B/ s; q; q
----- WARNING. NONZERO MISC. DATA PARAMETER "XOPT" DIFFERS FROM THE POWER FREQUENCY OF 60.00 . THIS IS UNUSUAL.
5 j$ u3 P& F/ Q, J4 p A VALUE OF 0.5000E+02 WAS READ FROM COLUMNS 17-24 OF THE DATA CARD JUST READ. EXECUTION WILL CONTINUE USING
% o; K) n/ v' T THIS VALUE, AS SUSPICIOUS AS IT SEEMS TO THE EMTP; W& v4 j4 l- d4 ?. a
MISC. DATA. 1 1 0 1 1 -1 0 2 0 0 1 1 1 0 1 1 -1 0 2 0 05 N B& X! X& H5 B
PRINTOUT : 10 10 100 100 1000 1000 1 10 10 100 100 1000 1000
: d* m3 P! t z; K/ z& H% x SERIES R-L-C. 0.000E+00 0.000E+00 0.318E+03 1 MX 318.47 ' W: K2 @( T, O# |. c' C6 I8 ^# k1 g
SERIES R-L-C. 0.100E+02 0.000E+00 0.000E+00 1 R1 RL 10.0
: i6 M3 @8 `0 j9 w SERIES R-L-C. 0.000E+00 0.100E+04 0.000E+00 1 RL 1000. * k) n1 [ L; b. K% B
BLANK CARD TERMINATING BRANCH CARDS. 1
. I6 c5 }/ J# t SWITCH. -0.10E+01 0.40E-01 0.10E+03 0.00E+00 1 DY MX -1.0 0.04 100.
% S" @- Q- l0 o& d# N. t" g1 R0 w SWITCH. 0.60E-01 0.10E+01 0.10E+03 0.00E+00 1 MX R1 0.06 1.04 100.
9 s0 x+ K: ^1 M' R X BLANK CARD TERMINATING SWITCH CARDS. 1
* e/ i, Q0 p+ e COMMENT CARD. 1C 14DYA -1 9.14e5 50.0 -15.0 -1.0 5
/ j% R+ d* I+ N2 ]; c COMMENT CARD. 1C 14DY -1 -9.14e5 50.0 -15.0 -1.0 5
: b6 Y4 t7 b% i0 o7 H" e, [ COMMENT CARD. 1C 14DYB -1 9.14e5 50.0 -135.0 -1.0 5" l; g/ N& ~0 W- h* [
COMMENT CARD. 1C 14DY -1 -9.14e5 50.0 -135.0 -1.0 5
0 W( Q+ P1 }2 ? X" R- }9 } COMMENT CARD. 1C 14DYC -1 9.14e5 50.0 -255.0 -1.0 5
. @$ G" Z; u8 ^5 e COMMENT CARD. 1C 14DY -1 -9.14e5 50.0 -255.0 -1.0 5
0 ~( u$ U5 n9 I2 b SOURCE. 0.91E+05 0.50E+02 0.00E+00 -0.10E+01 114DY 91400.0 50.0 0.0 -1 , G+ s4 L' G. J+ Z1 ^+ D
COMMENT CARD. 1C 14DYB 93897.0 50.0 -120. -1 7 M" l# R( H* G
COMMENT CARD. 1C 14DYC 93897.0 50.0 120.0 -1 3 N7 S& E0 I5 V; A
BLANK CARD TERMINATING SOURCE CARDS. 1 3 A; B) n7 E; K1 E3 r) [) y* H
PI-EQUIV BRANCHES OF DISTRIB LINES IN TR, TX, ETC. BETWEEN LIMITS 4 3
% h6 i! D- c2 P2 q( G5 Y1 x! W/ ^/ K$ S! w8 X4 F# `3 r
* @1 Z& U5 O, E6 f' V; b SINUSOIDAL STEADY STATE SOLUTION, BRANCH BY BRANCH. ALL FLOWS ARE AWAY FROM BUS, AND REAL PART, MAGNITUDE, OR P
0 ]2 @1 h9 V, f0 @* c/ U& x; n IS PRINTED ABOVE THE IMAGINARY PART, THE ANGLE, OR Q. FIRST SOLUTION FREQUENCY = 0.500000000E+02 HERTZ.
) ^( s. x# G# I; x& p) K$ \ BUS K NODE VOLTAGE BRANCH CURRENT POWER FLOW POWER LOSS+ i) l* W2 ~ v' p2 G9 i
BUS M RECTANGULAR POLAR RECTANGULAR POLAR P AND Q P AND Q, a2 n) H8 d& ^# C
8 U) F6 u% I2 a' F6 j) q1 w! u
MX 0.9140000E+05 0.9140000E+05 0.0000000E+00 0.9144598E+04 0.0000000E+00 0.0000000E+00
* G! y+ I7 t6 U* y) N/ C0 { 0.0000000E+00 0.0000 0.9144598E+04 90.0000 -0.4179081E+09 -0.4179081E+096 I. t- m* f" X! c* E: k
$ i. V0 J0 ?4 N3 J+ k% Z6 C, v
TERRA 0.0000000E+00 0.0000000E+00 0.0000000E+00 0.9144598E+04 0.0000000E+00) J$ v# _- ]% p
0.0000000E+00 0.0000 -0.9144598E+04 -90.0000 0.0000000E+00
% K4 r6 o1 D$ \& R+ `
, ^! ?1 U. _( r. j5 l+ P; z y/ x1 D7 f9 y2 Y( n5 I" t
R1 0.0000000E+00 0.0000000E+00 0.0000000E+00 0.0000000E+00 0.0000000E+00 0.0000000E+00
g0 N- G3 T: W6 g+ j 0.0000000E+00 0.0000 0.0000000E+00 0.0000 0.0000000E+00 0.0000000E+00/ v4 D: E$ U/ f
1 L* }* c- f) Q+ k
RL 0.0000000E+00 0.0000000E+00 0.0000000E+00 0.0000000E+00 0.0000000E+00' n( R S, y' j* l
0.0000000E+00 0.0000 0.0000000E+00 0.0000 0.0000000E+00
7 Y1 M1 h+ T* z2 u9 [
+ @' L! k2 `/ Q9 [, t: l5 t( f* z' ?) _
RL 0.0000000E+00 0.0000000E+00 0.0000000E+00 0.0000000E+00 0.0000000E+00 0.0000000E+001 h* K5 ?1 [) i+ ~. i- A
0.0000000E+00 0.0000 0.0000000E+00 0.0000 0.0000000E+00 0.0000000E+003 A: L& v: w1 r$ V9 ?
2 I0 v/ H7 ~# n, s TERRA 0.0000000E+00 0.0000000E+00 0.0000000E+00 0.0000000E+00 0.0000000E+00
! Z% t7 X) W/ J0 ~+ @! m/ Q 0.0000000E+00 0.0000 0.0000000E+00 0.0000 0.0000000E+00/ J1 J0 b! A9 y5 a: {! B
& `; P6 J: R% B; G
* ]6 i% }% J& x6 V* I. a1 ? TOTAL NETWORK LOSS "PLOSS" BY SUMMING NODAL INJECTIONS = 0.00000000E+00
- ^- |) L9 [2 P2 y: a p( { OUTPUT FOR STEADY STATE SWITCH CURRENT! M! B1 o) c) a$ @
NODE-K NODE-M I-REAL I-IMAG I-MAGN DEGREES POWER REACTIVE6 `* V+ r- j" Y' X1 T6 ~
DY MX 0.00000000E+00 0.91445975E+04 0.91445975E+04 90.0000 0.00000000E+00 -0.41790811E+09
! l, ^$ c1 U; X/ [! ` F' ] MX R1 OPEN OPEN OPEN OPEN OPEN
% N2 V4 P9 @' z$ J: X; E4 r# D: q# H+ U, L
SOLUTION AT NODES WITH KNOWN VOLTAGE. NODES SHORTED TOGETHER BY SWITCHES ARE SHOWN AS A GROUP OF NAMES, WITH
$ X- J* a$ y+ [0 p. g3 ^ THE PRINTED RESULT APPLYING TO THE COMPOSITE GROUP. THE ENTRY 'MVA' IS SQRT(P**2 + Q**2) IN UNITS OF POWER,
3 o1 X# y, t2 ~5 J4 ?! Z WHILE 'P.F.' IS THE ASSOCIATED POWER FACTOR.
- `% f3 ^# M' q NODE SOURCE NODE VOLTAGE INJECTED SOURCE CURRENT INJECTED SOURCE POWER. }5 v& N9 b& k
NAME RECTANGULAR POLAR RECTANGULAR POLAR P AND Q MVA AND P.F.4 \ ~1 L! O( L1 N: u5 \: A
3 E' x8 T" o. W# B9 W! T DY
( d9 g4 ~9 d6 \& m* w MX 0.9140000E+05 0.9140000E+05 0.0000000E+00 0.9144598E+04 0.0000000E+00 0.4179081E+09
3 e- w7 [7 l( |3 E# Y; q 0.0000000E+00 0.0000 0.9144598E+04 90.0000 -0.4179081E+09 0.0000000E+004 ^4 g7 ?1 h% H" V7 d1 D
CARD OF BUS NAMES FOR NODE-VOLTAGE OUTPUT. 1 DY MX
0 x- C7 i- A3 { CARD OF BRANCH VOLTAGE, CURRENT ...OUTPUT. 1-1MX R1
# o/ u0 }; r& u( f5 m5 m' [" B BLANK CARD ENDING NODE NAMES FOR VOLTAGE OUTPUT. 1 . z. u3 i! [7 p2 c: f
( R" a( h4 O: i! u+ B( r) c8 o COLUMN HEADINGS FOR THE 3 EMTP OUTPUT VARIABLES FOLLOW. THESE ARE ORDERED ACCORDING TO THE FIVE
9 V' H2 U N7 ~( f POSSIBLE EMTP OUTPUT-VARIABLE CLASSES, AS FOLLOWS .... ; x/ P: P+ k q. T
FIRST 2 OUTPUT VARIABLES ARE ELECTRIC-NETWORK NODE VOLTAGES (WITH RESPECT TO LOCAL GROUND)|
% B% A1 g0 Y4 i. ` NEXT 0 OUTPUT VARIABLES ARE BRANCH VOLTAGES (VOLTAGE OF UPPER NODE MINUS VOLTAGE OF LOWER NODE)|
+ u9 F! s$ S% d3 B NEXT 1 OUTPUT VARIABLES ARE BRANCH CURRENTS (FLOWING FROM THE UPPER EMTP NODE TO THE LOWER)| ' |* t0 a* L6 |" o
NEXT 0 OUTPUT VARIABLES PERTAIN TO DYNAMIC SYNCHRONOUS MACHINES, WITH NAMES GENERATED INTERNALLY|
3 J! L( P8 [# ?3 k. b FINAL 0 OUTPUT VARIABLES BELONG TO 'TACS' (NOTE INTERNALLY-ADDED UPPER NAME OF PAIR). * g8 c! R0 J. x
BRANCH POWER CONSUMPTION (POWER FLOW, IF A SWITCH) IS TREATED LIKE A BRANCH VOLTAGE FOR THIS GROUPING|
5 J& e7 M/ q" [2 K BRANCH ENERGY CONSUMPTION (ENERGY FLOW, IF A SWITCH) IS TREATED LIKE A BRANCH CURRENT FOR THIS GROUPING. ) \' G! j' {3 U( H7 z
' o3 r6 Y' V- I0 g" z" r! e STEP TIME DY MX MX 9 U6 F5 ~+ s! |. o9 E3 b4 l
R1 ! p( L9 n( \# ?# v- m/ _) H+ [
*** PHASOR I(0) = 0.0000000E+00 SWITCH "DY " TO "MX " CLOSED AFTER 0.00000E+00 SEC.& c+ Z/ P( q f4 y
0 0.000000 0.914000E+05 0.914000E+05 0.000000E+00
3 n: I2 Q6 `0 N% H- j3 C6 M 1 0.000050 0.913887E+05 0.913887E+05 0.000000E+00
9 s' ?4 [. ?9 X; b2 Y& E 2 0.000100 0.913549E+05 0.913549E+05 0.000000E+00
+ k0 e( w& }% { 3 0.000150 0.912985E+05 0.912985E+05 0.000000E+00
% a' `" C7 v. y 4 0.000200 0.912196E+05 0.912196E+05 0.000000E+00: F+ u7 E: }6 ?6 z4 W5 B: |
5 0.000250 0.911182E+05 0.911182E+05 0.000000E+00- S( J4 k: X3 q, ~( Q9 p. \
6 0.000300 0.909944E+05 0.909944E+05 0.000000E+00
# K; S4 i; [' p" w/ X9 b% ^% G 7 0.000350 0.908480E+05 0.908480E+05 0.000000E+00
7 E8 g& D, S& P; {& x4 j 8 0.000400 0.906793E+05 0.906793E+05 0.000000E+00
9 z3 m x2 u+ B7 z: F 9 0.000450 0.904882E+05 0.904882E+05 0.000000E+00* D5 \4 E. B( K
10 0.000500 0.902747E+05 0.902747E+05 0.000000E+000 }; m3 P8 L: I! i k7 d
20 0.001000 0.869266E+05 0.869266E+05 0.000000E+00
9 C4 S/ b# D+ \! e% } 30 0.001500 0.814380E+05 0.814380E+05 0.000000E+00
0 `! j- b4 ]( X: r/ I2 U 40 0.002000 0.739442E+05 0.739442E+05 0.000000E+00( x6 Q4 M3 F4 k. s
50 0.002500 0.646296E+05 0.646296E+05 0.000000E+00
& V0 X- m$ X* k* j( f2 \ 60 0.003000 0.537236E+05 0.537236E+05 0.000000E+00
& n4 D$ g# c& p( u8 p* ` 70 0.003500 0.414947E+05 0.414947E+05 0.000000E+002 ~/ X9 k% M2 `! m0 n9 z7 p
80 0.004000 0.282442E+05 0.282442E+05 0.000000E+00
( b# U9 [8 q& W: p 90 0.004500 0.142981E+05 0.142981E+05 0.000000E+00
: x, C6 X$ a( S# U. J 100 0.005000-0.552882E-10-0.552882E-10 0.000000E+00
4 j9 \* U( J/ a$ r 200 0.010000-0.914000E+05-0.914000E+05 0.000000E+00
( d0 C- t/ y/ _ H$ n; ] 300 0.015000-0.164038E-08-0.164038E-08 0.000000E+00
; N8 k& q3 N$ B& L 400 0.020000 0.914000E+05 0.914000E+05 0.000000E+00& A7 y" b0 E+ V: s, G6 }+ O% f' N
500 0.025000-0.589812E-08-0.589812E-08 0.000000E+008 M3 E3 z3 V7 B" [; u$ |. x
600 0.030000-0.914000E+05-0.914000E+05 0.000000E+00
. e2 W3 ~ m% y/ J1 `& R 700 0.035000 0.140861E-07 0.140861E-07 0.000000E+002 D2 V8 |6 w$ ?/ M" \, {, ~/ w2 s
***** SWITCH "DY " TO "MX " OPEN AFTER 0.400000E-01 SEC.
- F, v7 K7 i5 U4 n3 f$ [ 800 0.040000 0.914000E+05 0.914000E+05 0.000000E+00
& c: x# g8 v8 U8 s+ p5 q( h; ] 900 0.045000-0.223552E-07 0.914000E+05 0.000000E+00& V1 G) P* w1 ^' g8 E
1000 0.050000-0.914000E+05 0.914000E+05 0.000000E+00
1 g/ {& I# E! _6 \ ***** SWITCH "MX " TO "R1 " CLOSED AFTER 0.600000E-01 SEC.
) ^4 W9 E7 H3 Q4 B" J 2000 0.100000 0.914000E+05 0.308276E+05 0.816876E+03
( ?- e; | {; |$ H) D& M% s; A4 m 3000 0.150000-0.914000E+05-0.740984E+05 0.249386E+03$ M: B& |* N3 [: L+ g, h( j6 m
4000 0.200000 0.914000E+05-0.266698E+05-0.697043E+03
5 n& j% Y) o; e9 t* k/ W1 a. E 5000 0.250000-0.914000E+05 0.632108E+05-0.216176E+03
9 E. F. T* w* l% h! M0 }7 K 6000 0.300000 0.914000E+05 0.230688E+05 0.594775E+03
8 C- R# s& M/ K 7000 0.350000-0.914000E+05-0.539215E+05 0.187348E+03
. [3 v8 `" [: Z) C, p' q- p 8000 0.400000 0.914000E+05-0.199508E+05-0.507498E+03
7 n z" a8 M, m/ x 9000 0.450000-0.914000E+05 0.459962E+05-0.162329E+03$ T: `& p0 h; j! x5 a
10000 0.500000 0.914000E+05 0.172514E+05 0.433018E+038 }! J' B Q* g
11000 0.550000-0.914000E+05-0.392347E+05 0.140622E+039 D N% z& K3 o" I
12000 0.600000 0.914000E+05-0.149149E+05-0.369459E+03
+ l- ^: o( K9 {. G% E2 c7 Z 13000 0.650000-0.914000E+05 0.334663E+05-0.121793E+03
* y4 C4 E: }3 q 14000 0.700000 0.914000E+05 0.128929E+05 0.315222E+03: ^: M; W$ T8 c: D2 e7 ^% I3 X
15000 0.750000-0.914000E+05-0.285453E+05 0.105465E+03
1 G0 T5 k6 b: U4 ~% l! @9 J* T 16000 0.800000 0.914000E+05-0.111433E+05-0.268939E+035 h; ]- c( c2 }2 |0 x
! M' u* L* R2 Y2 Q MAXIMA AND MINIMA WHICH OCCURRED DURING THE SIMULATION FOLLOW. THE ORDER AND COLUMN POSITIONING ARE THE
0 Q! O$ J, T' M7 T2 ^- H2 @ SAME AS FOR THE REGULAR PRINTED OUTPUT VS. TIME.
* ~! p( S V$ D1 ^9 ]: r) [ VARIABLE MAXIMA :
* U. j& _! \, V. w 0.914000E+05 0.914000E+05 0.847194E+03
. l! t. ^0 A) h- o4 g, W TIMES OF MAXIMA : A! N5 M% f" c; Q- B
0.000000E+00 0.400500E-01 0.108500E+00
# j/ r* f4 W4 O% H7 L VARIABLE MINIMA :
% D" t Z, {+ l8 A7 z+ f -0.914000E+05-0.914000E+05-0.723871E+03% \+ A- { Q2 t# E" U+ O' u
TIMES OF MINIMA :6 d+ q6 O- Y1 }1 V1 r$ N
0.100000E-01 0.100000E-01 0.208650E+00( |' t& r) v0 ?
( i& d" e; H& H! T: W) W
8 N! s6 e6 Q' V" ~- p
& e! s+ Z/ S0 ]+ o4 ]
( U: }3 T: `# S6 J" V+ A* ^ ** PLOT CARD. 0.100E+02 0.000E+00 0.200E+03 1 14410. 200. DY MX
& L c& u1 Z' A& {1 M% Y& r. C# \
& o, ?3 `. l6 Y9 }" Q5 y
' k/ ?$ \& ^* ?" g4 G3 n/ E ** PLOT CARD. 0.100E+01 0.000E+00 0.800E+03 1 14401.000.800. DY MX % L6 H& y% p! ]1 V, t7 ~
2 _9 W" _9 D$ `
' V* K5 L# z5 v* o9 \2 M) d I/ A. N6 ~# e5 [0 I) \3 Z, B7 d2 J
** PLOT CARD. 0.100E+01 0.000E+00 0.400E+03 1 14401.000.400. DY MX ; p; F) R ^% }$ Y N
& H- _7 ?/ H& I8 J7 J: h+ F/ B, S: P. _4 b* x B6 p
4 I: ~# z# W4 f+ e" d ** PLOT CARD. 0.100E+01 0.000E+00 0.200E+03 1 14401.000.200. DY MX 5 r& d3 V6 H% F$ u) g2 x* y4 `/ ^' b
& d! C3 V5 Q- L- y3 @( s% K6 F# P* N! b( z& Y4 X3 [
4 x; L* _- S. d A1 O% ` ** PLOT CARD. 0.100E+01 0.000E+00 0.800E+03 1 19401.000.800. MX R1 0 l: s. C0 `5 u0 t6 n
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( b2 S k5 i& r& P ** PLOT CARD. 0.100E+01 0.000E+00 0.400E+03 1 19401.000.400. MX R1
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** PLOT CARD. 0.100E+01 0.000E+00 0.200E+03 1 19401.000.200. MX R1 6 l: C! t2 t8 O0 u: c3 F8 ]. L- K
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BLANK CARD TERMINATING PLOT SPEC. CARDS. 1
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CORE STORAGE FIGURES FOR PRECEDING DATA CASE NOW COMPLETED. --------------------------------------- PRESENT PROGRAM
% P& b% v9 i6 L, T% x A VALUE OF -9999 INDICATES DEFAULT, WITH NO FIGURE AVAILABLE. FIGURE LIMIT (NAME)
- r8 C6 ^# ~+ F* o9 D SIZE LIST 1. NUMBER OF NETWORK NODES. 5 2002 (LBUS)
( f2 B' ?% D1 L: s2 M7 W, e SIZE LIST 2. NUMBER OF NETWORK BRANCHES. 3 4500 (LBRNCH)
) [& L; E4 [2 t5 b# M9 X1 E SIZE LIST 3. NUMBER OF DATA VALUES IN R, L, C TABLES. 3 4500 (LDATA)
) E$ H+ a- |& p3 X# _ SIZE LIST 4. NUMBER OF ENTRIES IN SOURCE TABLE. 1 1500 (LEXCT)3 ~8 H- m3 F0 L' e7 G
SIZE LIST 5. STORAGE FOR (Y) AND TRIANGULARIZED (Y). NO. TIMES = 1 FACTORS = 3 9 90000 (LYMAT)
( Z$ I) u9 J. \, T4 A SIZE LIST 6. NUMBER OF ENTRIES IN SWITCH TABLE. NO. FLOPS = -9999 2 800 (LSWTCH)
1 \3 @& f: {6 G Z8 b: L. t SIZE LIST 7. NUMBER OF TOTAL DISTINCT ALPHANUMERIC (A6) PROGRAM NAMES 2 2500 (LSIZE7)
; f+ e' T/ C* h/ E+ f" b( P8 I SIZE LIST 8. NUMBER OF PAST HISTORY POINTS FOR DISTRIBUTED LINES. -9999 90000 (LPAST)3 W5 ]7 k1 e% E& r" y0 A( H
SIZE LIST 9. NUMBER OF NONLINEAR ELEMENTS. 0 250 (LNONL)9 ~1 U3 Z5 y0 g$ V
SIZE LIST 10. NUMBER OF POINTS DEFINING NONLINEAR CHARACTERISTICS. 0 800 (LCHAR)
5 a ?2 p8 L* z) W+ S- ~$ @ SIZE LIST 11. NUMBER OF BRANCH OR SELECTIVE-NODE-VOLTAGE OUTPUTS. 2 1500 (LSMOUT)) M( j4 u7 w. M0 }
SIZE LIST 12. NUMBER OF OUTPUT QUANTITIES (LIMITED ONLY WHEN PRINTING MAX ABSOLUTE VALUES). 3 1500 (LSIZ12)% A- i, U0 R% d$ \3 Z6 x
SIZE LIST 16. TOTAL NUMBER OF TYPE-59 S.M. MASSES. 0 300 (LIMASS)8 s4 \; k3 p7 S9 a/ z
SIZE LIST 17. NUMBER OF DYNAMIC SYNCHRONOUS MACHINES. 0 9 (LSYN)
: V/ \( k: ^; U/ `1 _ SIZE LIST 18. NUMBER OF BRANCH POWER-AND-ENERGY OUTPUTS. 0 50 (MAXPE)4 O2 P0 M, X2 z0 ~! E, S
SIZE LIST 19. FLOATING-POINT WORKING SPACE FOR ALL TACS ARRAYS. 137 10000 (LTACST)
* F# k* Y1 L: j! X SIZE LIST 20. RECURSIVE CONVOLUTION PARAMETER STORAGE FOR NON-COPIED BRANCH COMPONENTS. 0 10000 (LFSEM)
2 |8 s; m+ F; d9 v4 o( o SIZE LIST 21. TOTAL STORAGE CELLS FOR MODAL-PHASE TRANSFORMATION MATRICES. 0 3000 (LFD) }0 W# ^9 w- u: b8 s0 x* v w' r
SIZE LIST 22. NUMBER OF CELLS FOR CONVOLUTION HISTORY. -9999 5400 (LHIST)
) w# l" O8 |: G4 \1 ~ SIZE LIST 23. GIANT ARRAYS FOR RENUMBERING AND STEADY-STATE SOLUTION CALCULATIONS. 4 90000 (LSIZ23)
) |3 x# [, g9 Q: d SIZE LIST 24. NUMBER OF PHASES OF COMPENSATION, BASED ON MAXIMUM NODES. 0 9 (NCOMP)
& a s* F' \; T3 n0 b! k6 l: a. P% ` SIZE LIST 25. FLOATING-POINT WORKING SPACE FOR U.M. ARRAYS. -9999 1800 (LSPCUM)! t, `4 @% W: K5 \& A/ l
SIZE LIST 26. SQUARE OF MAXIMUM NUMBER OF COUPLED PHASES. -9999 5000 (LSIZ26), N* `2 M2 F+ n
ELECTROMAGNETIC TRANSIENTS PROGRAM (EMTP386) TIME =08/20/09 13.58.37 PLOT FILE = PLOT.PL4
" V1 w) {7 n; w7 r/ ]% h ASSOCIATED USER DOCUMENTATION IS THE 864-PAGE EMTP RULE BOOK DATED JUNE, 1984. VERSION M40. VARDIM TIME/DATE =1637223 960610
+ J! f! i ]" i7 ^ INDEPENDENT LIST LIMITS FOLLOW. TOTAL LENGTH OF /LABEL/ EQUALS 1637223 INTEGER WORDS. 2002 4500 4500 1500 90000
, D; M( z: n# I7 k' y 800 2500 90000 250 800 1500 1500 300 9 50 10000 10000 3000 5400 90000 9 1800 5000 3009 U4 |1 b6 G1 a) T5 |- N
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: p" i# k* G5 t! B DESCRIPTIVE INTERPRETATION OF NEW-CASE INPUT DATA 1 INPUT DATA CARD IMAGES PRINTED BELOW, ALL 80 COLUMNS, CHARACTER BY CHARACTER.& ]' p/ V" \* \: |7 k$ t1 [
0 1 2 3 4 5 6 7 8" m+ t- U& Z: I p7 ~9 a
0 0 0 0 0 0 0 0 0' u! t9 `: ^" o" q
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MARKER CARD PRECEDING NEW DATA CASE. 1BEGIN NEW DATA CASE
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