<span style="color:#444444;font-family:Tahoma, "font-size:14px;background-color:#FFFFFF;">ATP新手,点plotxy后出现The selected file contains no bytes,view LIS file如下,求大神解答 ' {! ?$ N2 a( V2 n3 c3 _Alternative Transients Program (ATP), GNU Linux or DOS. All rights reserved by Can/Am user group of Portland, Oregon, USA.5 ?$ w: o" Z1 {9 j8 }
Date (dd-mth-yy) and time of day (hh.mm.ss) = 02-May-19 23:52:54 Name of disk plot file is jjj1.pl4 3 A, B- {8 W2 A1 N; s8 X6 jConsult the 860-page ATP Rule Book of the Can/Am EMTP User Group in Portland, Oregon, USA. Source code date is 19 September 2003. ( \: i$ f h) z) u, @. ?Total size of LABCOM tables = 9872109 INTEGER words. 31 VARDIM List Sizes follow: 6002 10K 192K 900 420K 1200 15K 2 @6 H% v5 c6 z6 z+ i- @ 120K 2250 3800 720 1200 72800 510 90K 800 90 254 120K 100K 3K 15K 192K 120 30K 160K 600 210K 300 19 200, O# g( h9 K) x
--------------------------------------------------+-------------------------------------------------------------------------------- ! z4 N" L' T% U! o; [. pDescriptive interpretation of input data cards. | Input data card images are shown below, all 80 columns, character by character % X8 |& z% g2 _9 n# Q5 p 0 1 2 3 4 5 6 7 8 k0 {' U9 e0 h" c+ }* A& k8 H 012345678901234567890123456789012345678901234567890123456789012345678901234567890% k" ~8 E$ ~- q0 r' S
--------------------------------------------------+-------------------------------------------------------------------------------- " O; |2 h3 R/ L, [2 ]5 g% e, xComment card. KOMPAR > 0. |C data:JJJ1.ATP 9 V# b4 ^: Q5 g! I" iMarker card preceding new EMTP data case. |BEGIN NEW DATA CASE ; I. ]) P1 \2 g# l- M9 ?Comment card. KOMPAR > 0. |C --------------------------------------------------------% A& E5 R9 k2 o) N4 k6 ?! K7 c
Comment card. KOMPAR > 0. |C Generated by ATPDRAW 五月, 星期四 2, 2019 4 K, p6 P4 v& f1 u$ g. X" ~Comment card. KOMPAR > 0. |C A Bonneville Power Administration program" [0 @5 K- q7 E7 S; }8 {. C0 J6 m) U
Comment card. KOMPAR > 0. |C by H. K. H鴌dalen at SEfAS/NTNU - NORWAY 1994-2015 / ^% _$ U6 |" B2 S ?; MComment card. KOMPAR > 0. |C --------------------------------------------------------/ C- l9 p" P% w
Comment card. KOMPAR > 0. |C dT >< Tmax >< Xopt >< Copt ><Epsiln> ( W- u6 D* ~( w+ W: \Misc. data. 1.000E-09 1.000E-03 0.000E+00 | 1.E-9 .001/ \) r& z/ {4 y0 }# J
Misc. data. 500 1 1 1 1 0 0 1 0 0 | 500 1 1 1 1 0 0 1 0 ; S7 s: I- _1 XComment card. KOMPAR > 0. |C 1 2 3 4 5 6 7 8 / }+ q, w. i+ M; K0 mComment card. KOMPAR > 0. |C 345678901234567890123456789012345678901234567890123456789012345678901234567890+ R9 ?4 C5 \9 [, [: ~+ ]2 Q
Comment card. KOMPAR > 0. |C < n1 >< n2 ><ref1><ref2>< R >< L >< C >, D6 k( W" ]# H9 i- m }2 j
Comment card. KOMPAR > 0. |C < n1 >< n2 ><ref1><ref2>< R >< A >< B ><Leng><><>0 7 D" \$ U& _ d/ YSeries R-L-C. 0.000E+00 0.000E+00 2.500E-04 | XX0001 250. 0 & u, Z/ P1 K! ] 4.000E+00 6.000E+01 3.000E+08 6.000E+01 1.667E-06|-1XX0001XX0003 4. 60. 3.E8 500. 1 0 0" X8 U- }0 U8 [
Series R-L-C. 0.000E+00 1.000E-01 0.000E+00 | XX0002XX0001 100. 02 V# w$ ]. Y" I0 s3 U, |& L
4.000E+00 6.000E+01 3.000E+08 6.000E+01 1.667E-06|-1XX0004XX0005 4. 60. 3.E8 500. 1 0 03 r6 `! w; o% p/ ]
4.000E+00 6.000E+01 3.000E+08 6.000E+01 1.667E-06|-1XX0006XX0007 4. 60. 3.E8 500. 1 0 0 3 R. P0 ~; L' ~% i& T" v, k, T: ^Series R-L-C. 2.000E+00 5.000E-07 0.000E+00 | XX0003XX0008 2. .0005 0' @9 ?# A% T" ]2 r: _% V# o4 I7 m2 F
4.000E+00 6.000E+01 3.000E+08 6.000E+01 1.667E-06|-1XX0007XX0009 4. 60. 3.E8 500. 1 0 0' J) n: q& ?4 C8 h
4.000E+00 6.000E+01 3.000E+08 6.000E+01 1.667E-06|-1XX0006XX0004 4. 60. 3.E8 500. 1 0 0 o- x- p. P3 V8 t
4.000E+00 6.000E+01 3.000E+08 6.000E+01 1.667E-06|-1XX0010XX0006 4. 60. 3.E8 500. 1 0 08 z* T I1 `1 O+ `1 O& {: g* `: o
Series R-L-C. 0.000E+00 0.000E+00 2.500E-04 | XX0004 250. 06 j. X: P m! d4 e, G& Z
Series R-L-C. 0.000E+00 0.000E+00 2.000E-03 | XX0005 2.E3 0 ) d. e( Y+ M, `! _Series R-L-C. 0.000E+00 1.000E-01 0.000E+00 | XX0005XX0011 100. 0 $ e! c0 Y+ g, C( F T7 pBlank card ending branches. IBR, NTOT = 12 12 |BLANK BRANCH $ P2 D1 P w. C& I8 fComment card. KOMPAR > 0. |C < n 1>< n 2>< Tclose ><Top/Tde >< Ie ><Vf/CLOP >< type > 2 D' U- {8 y' T3 i* ?2 WSwitch. 1.00E-04 1.00E+03 0.00E+00 0.00E+00 | XX0008XX0007 .0001 1.E3 0 6 \, D3 I, _/ J3 g8 }* b4 F$ ^Blank card ending switches. KSWTCH = 1. |BLANK SWITCH5 A5 z4 C% B0 [/ m3 k; o# o( o
Comment card. KOMPAR > 0. |C < n 1><>< Ampl. >< Freq. ><Phase/T0>< A1 >< T1 >< TSTART >< TSTOP >3 u! h# p3 D' ~
Source. -2.20E+05 5.00E+01 0.00E+00 -1.00E+00 |14XX0002 0 -2.2E5 50. -1. 1. $ {$ {/ C9 w8 n4 Y5 f7 E" c3 Y4 jSource. 2.20E+05 5.00E+01 0.00E+00 -1.00E+00 |14XX0011 0 2.2E5 50. -1. 1.' Q$ x0 K' Z# b+ m6 L7 l
Blank card ends electric sources. KCONST = 2 |BLANK SOURCE 9 l; S. l- e$ b5 m + C6 x* a" p9 L2 cList of input elements that are connected to each node. Only the physical connections of multi-phase lines are shown (capacitive2 ?/ V K: Y! }$ V
and inductive coupling are ignored). Repeated entries indicate parallel connections. Switches are included, although sources% p+ Y+ r3 H0 h1 b
(including rotating machinery) are omitted -- except that U.M. usage produces extra, internally-defined nodes "UMXXXX". : ]- l6 g& `0 o) q) J* d--------------+------------------------------ : `9 T4 }2 T$ rFrom bus name | Names of all adjacent busses.+ M0 A# o& ~9 V8 s. g v+ C+ A
--------------+------------------------------ 4 x0 @: l. B% R1 f0 K XX0001 |TERRA *XX0003*XX0002* ) W( p2 N: n9 l+ ?) E% a4 N XX0003 |XX0001*XX0008* . E% L: V) m3 m% A XX0002 |XX0001* 9 A) P% o; T2 N. W XX0004 |TERRA *XX0005*XX0006** g- N/ C. W0 h
XX0005 |TERRA *XX0004*XX0011*+ _- C. [5 e9 i& T A
XX0006 |XX0004*XX0007*XX0010* b0 M$ A: v- Z5 q% h8 U
XX0007 |XX0006*XX0008*XX0009* 5 S) {, Q: P3 u; f" A& d XX0008 |XX0003*XX0007* ( h9 R$ a- H/ \. E" W1 L: I XX0009 |XX0007* ; J% e- u7 s7 e8 W2 K XX0010 |XX0006* ( K4 i& J1 f) N$ L6 z% {. f XX0011 |XX0005* ! j: U7 X' B6 E5 X* ^) S7 @ TERRA |XX0001*XX0004*XX0005*4 Z8 M( s1 F) {6 m3 d
--------------+------------------------------ , R9 o5 i. o$ M; uPi-equivalent branches of distributed circuits are added to the table of List Size 3 between indices 7 and 12.% K% Q, k2 K8 U
: O+ G+ p( J) W4 }' A. N4 DSinusoidal steady-state phasor solution, branch by branch. All flows are away from a bus, and the real part, magnitude, or "P"2 A$ o9 A+ _5 \7 \6 g8 y! C4 E
is printed above the imaginary part, the angle, or "Q". The first solution frequency = 5.00000000E+01 Hertz. ) N/ M& N9 j% T Bus K Phasor node voltage Phasor branch current Power flow Power loss , h# ^* b' f$ u$ [2 V Bus M Rectangular Polar Rectangular Polar P and Q P and Q0 {( ~: _1 b/ b3 A% J# O5 W1 X) ~
1 v1 `% G+ e1 R6 J) t6 i XX0001 149896.92103882 149896.92103893 -.0143924645304 11772.876648291 -.103916875E-12 -.103916875E-12 + G2 i; ~: s' N1 s+ f .18325054986281 0.0000700 11772.876648282 90.0000700 -.88235898067E9 82358980.67498187 [* w; u$ g$ S& l! l3 S# V6 H, p
7 _* v$ L5 w/ h9 k# K
TERRA 0.0 0.0 .01439246453038 11772.876648291 0.0 ; y$ I7 x8 G+ Q7 I V, G7 L) p8 r3 ^+ H 0.0 0.0 -11772.87664828 -89.9999300 0.0 v7 V4 L; h p+ l/ u- S
2 |. T' t5 b) S5 n' W) ] XX0005 -11739.96572792 11739.969852465 6.1832411625641 7376.4406083741 .2248867759E-11 .2248867759E-119 M8 g+ e' _/ d X, F
-9.840933953513 -179.9519723 -7376.438016848 -89.9519723 -.4329959518E8 43299595.1804063 0 P# V2 b" ^1 W8 s. t ; f+ ]0 q2 u+ j TERRA 0.0 0.0 -6.183241162564 7376.4406083741 0.07 e9 L" `. S' E* o# A/ ^
0.0 0.0 7376.4380168479 90.0480277 0.08 j- s1 V* L5 @6 \: H
# o) e. E# G6 L! U( w6 n XX0005 -11739.96572792 11739.969852465 -.3132466566685 7376.5122181602 -34457.13223354 -.643041176E-12 & E% X9 B0 V2 A8 x P -9.840933953513 -179.9519723 7376.5122115091 90.0024331 .433000018187E8 54716345.0846804 ( u& L9 p5 n+ i8 J7 p6 R- [& [; z ! [! ~0 `! y* Y" ^$ y
XX0011 220000. 220000. .31324665666851 7376.5122181602 34457.132233536 0 I4 x3 N: p% K) j 0.0 0.0 -7376.512211509 -89.9975669 .811416343266E9 ) H# M9 ~, ]- u$ R% l8 o& H* U Total network loss P-loss by summing injections = 3.509876731190E+04 2 u# m& n1 M! ]' _ ! m* ?3 x; s3 C! A W4 U2 V0 dOutput for steady-state phasor switch currents. J7 }8 a; Z) y- X Node-K Node-M I-real I-imag I-magn Degrees Power Reactive" v2 {7 U: y1 I d
XX0008 XX0007 Open Open Open Open Open Open, A; M5 { j# \' `
5 W' M8 a' i! d3 X; i4 v7 dSolution at nodes with known voltage. Nodes that are shorted together by switches are shown as a group of names, with the printed5 j7 f8 x& T0 ^6 w: Z
result applying to the composite group. The entry "MVA" is SQRT( P**2 + Q**2 ) in units of power, while "P.F." is the, c/ \3 U. Y" C* `0 W
associated power factor. 2 P$ v6 z( ` S2 B Node Source node voltage Injected source current Injected source power6 q D2 N, |2 W" C4 B+ f- f
name Rectangular Polar Rectangular Polar P and Q MVA and P.F.; ^( q3 n6 R2 ^8 G
9 R" v! m* n0 s
XX0002 -220000. 220000. -.005833046167 11774.184683562 641.63507836944 .12951603152E10 8 F. |! T. G. V, f( m7 q 0.0 180.0000000 11774.18468356 90.0000284 .12951603152E10 0.0000005 ' v' c0 i1 G1 b$ ^. ` % Q) ]) q0 V% [+ l- @8 q XX0011 220000. 220000. .31324665666851 7376.5122181602 34457.132233536 .811416343998E9 $ V# ?6 V% O3 T8 T" S+ t 0.0 0.0 -7376.512211509 -89.9975669 .811416343266E9 0.0000425: M7 H! h7 p( Y. S1 J8 o5 Z. z, w+ j
; ]+ r# J5 ^2 M1 |3 u: Y
0 ` g* d) I1 \' D8 D------------------------------------------------------------------------------------------------------------------------------------# j; t* l+ A8 e; _. [2 _
ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ / s# O, i. G7 U5 E9 bERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ 4 s: w4 s: j" D% S6 U" `. s------------------------------------------------------------------------------------------------------------------------------------6 |: @7 D$ |9 Y3 T S
You lose, fella. The EMTP logic has detected an error condition, and is now going to terminate program execution. The following # F! [' {# |: Q6 cmessage summarizes the circumstances leading to this situation. Where an otherwise-unidentified data card is referred to, or where6 z, g5 f% Y" y+ d
the "last" card is mentioned, it is the most recently read card of the input data that is meant. The 80-column image of this card5 \: e3 y0 q* b" g
is generally the last one printed out prior to this termination message. But possibly this last-read card has not yet been $ f6 |& _$ j' ~$ i F7 adisplayed, so a copy follows: ; X" L8 t2 y e " XX0001XX0003XX0008XX0007XX0006XX0009XX0005XX0004 ") T: V- f$ Y! G
KILL code number Overlay number Nearby statement number " F$ e, O5 ^8 b# f% o Q 102 12 1536 & }; t( E" M: s- J1 q `# PKILL = 102. The total resistance for one particular mode of a constant-parameter, distributed transmission line is too large.. l5 Z Z6 N8 U# L* i% I- j
This is for linear branch number 2 (in order of data input) which connects bus "XX0001" with bus "XX0003". Resistance is to / @. ?' i( ?, O# _2 ]1 gbe lumped, with half in the middle and a quarter at each end (variable IPUNCH of columns 53-54 is equal to -1). The total modal9 D( l' B3 b" v4 @/ q( o8 R
resistance of 2.00000000E+03 Ohms is unreasonably large when compared with the surge (characteristic) impedance of 6 c" i8 }- \' o' C/ I6.00000000E+01 Ohms. Program logic can not handle any resistance that exceeds four times the characteristic impedance. For! S$ i9 h0 S. e; B3 x! c
normal power lines, such values are absurd, anyway, so no sympathy is accorded.: f) ~+ b% }, q' j' C5 ]/ d* `; K
------------------------------------------------------------------------------------------------------------------------------------8 h+ o1 H; X5 o( y2 f6 @
ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ 1 L I U/ T+ `- k+ J8 RERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/ERROR/, ?5 [% |. ^6 \6 u; ?
------------------------------------------------------------------------------------------------------------------------------------+ E& _1 c' D- A
+ R9 p" |# w& ~1 e' [
Actual List Sizes for the preceding solution follow. 02-May-19 23:52:54 0 Y- p# E k% t( _ Size 1-10: 12 12 12 2 -9999 1 -9999 -9999 0 0: t4 l/ x; h+ r
Size 11-20: 0 -9999 -9999 -9999 -9999 0 0 0 23 0, v9 T+ W( C# v9 g$ I6 l
Size 21-30: 1 -9999 14 -9999 -9999 1 -9999 -9999 -9999 0" h& n; _9 _6 v' h. L' Y1 O
Seconds for overlays 1-5 : 0.016 0.000 0.016 -- (CP: Wait; Real) % e O3 d9 O& x/ ~! X4 BSeconds for overlays 6-11 : 0.016 0.000 0.016 0 O% z! ^2 h; Q8 f- D5 RSeconds for overlays 12-15 : 0.000 0.000 0.0008 y& Y p% ]6 G" h4 b, O1 U
Seconds for time-step loop : 0.000 0.000 0.000) f2 V- {) h7 ~7 Z) J+ c6 ~" t) K7 w
Seconds after DELTAT-loop : 0.000 0.000 0.000+ j. u, w* o8 o
---------------------------0 T) U6 X4 r1 W2 {$ G4 Z. m
Totals : 0.031 0.000 0.031