diff options
Diffstat (limited to 'benchmarks/dc13.dat')
-rw-r--r-- | benchmarks/dc13.dat | 589 |
1 files changed, 589 insertions, 0 deletions
diff --git a/benchmarks/dc13.dat b/benchmarks/dc13.dat new file mode 100644 index 0000000..979b9c1 --- /dev/null +++ b/benchmarks/dc13.dat @@ -0,0 +1,589 @@ +BEGIN NEW DATA CASE
+C BENCHMARK DC-13
+C Illustration of SUBROUTINE SATURA, the magnetic saturation routine
+C that converts an RMS saturation curve of voltage vs. current into the
+C corresponding locus of instantaneous flux vs. current. Also shown
+C are B-H hysteresis generation and ZnO conversion from old formats.
+C 12 data subcases are present, so many other features are tested, too
+SATURATION
+$ERASE
+ -1. 10. .001 1
+ 0.0 5.0
+ 2.0 5.0
+ 3.0 3.5
+ 4.0 2.0
+ 5.0 1.0
+ 10.0 1.0
+ 9999
+C Final row of resulting printout: 6 100.0000000000 0.2350000000
+ 60. .664 .01 1
+ 1.0 100.
+ 1.6 105.
+ 2.75 110.
+ 4.0 113.
+ 6.0 116.
+ 10. 119.
+ 44. 131.
+ 9999
+C Final row of resulting printout: 8 1601.6892070492 326.3046435192
+$PUNCH, dc13a.pch ! { Exclamation holds lower case
+ -1. 10. .001 1
+ 2.0 5.0
+ 9999
+ 60. 303.11 300. 1 1
+ .000306 0.7
+ .000415 0.8
+ .00076 0.9
+ .00198 1.0
+ .0108 1.1
+ 9999
+C Final row of resulting printout: 6 26.6610642630 1250.7681935392
+$PUNCH
+ 60. 34.5 300.0 1
+ .000306 0.7
+ .000415 0.8
+ .00076 0.9
+ .00198 1.0
+ .0108 1.1
+ 9999
+C Final row of resulting printout: 6 234.2387011236 142.3625174923
+$PUNCH, dc13b.pch ! { Exclamation holds lower case
+C 3.76303783E+00 9.05943293E+01
+C 6.10062069E+00 1.03536376E+02
+C 1.33222222E+01 1.16478423E+02
+C 3.87652515E+01 1.29420470E+02
+C 2.34238701E+02 1.42362517E+02
+BLANK card ending all "SATURATION" data cases
+BEGIN NEW DATA CASE
+C 2nd of 12 subcases will illustrate use of another supporting program:
+OLD TO NEW ZNO { Special request card to convert old ZnO data to new format
+ .000050 .020000 { Note: this data case once was numbered DC-38B.
+ 1 1 1 0 1 -1
+ 5 5 20 1 30 5 50 50
+-1SENDA RECA .305515.8187.01210 200. 0
+-2SENDB RECB .031991.5559.01937 200. 0
+-3SENDC RECC
+C 34567890123456789012345678901234567890
+92RECA 5555.
+ -1. -1. { Old ZnO data formats involved a dummy
+ 1. 1. { characteristic (these two data cards)
+ 9999.
+92RECB RECA 5555. { 2nd arrester of 3-phase group is copy of 1st
+92RECC RECA 5555. { 3rd arrester of 3-phase group is copy of 1st
+BLANK card ending branch data
+BLANK card terminating nonexistent switches
+14SENDA 408000. 60. 0.0
+14SENDB 408000. 60. -120.
+14SENDC 408000. 60. 120.
+BLANK card ending source cards
+C 345678901234567890123456789012345678901234567890123456789012345678901234567890
+C The following 3 cards are ZnO characteristics, using the old formats:
+ -1 2500. 26. 0.5 778000.
+ -1 2500. 26. 0.5 778000.
+ -1 2500. 26. 0.5 778000.
+ 1 { 1st of remaining cards to be discarded searching for next case beginning
+ PRINTER PLOT
+ 144 3. 0.0 20. RECA
+BLANK card ending plot cards { Final card to be discarded b4 new case starts
+BEGIN NEW DATA CASE
+$PUNCH
+C 92RECA 5555.
+C 0.778000000000000E+06 -0.100000000000000E+03 0.000000000000000E+00
+C 0.250000000000000E+04 0.260000000000000E+02 0.500000000000000E+00
+C 9999
+C 92RECB 5555.
+C 0.778000000000000E+06 -0.100000000000000E+03 0.000000000000000E+00
+C 0.250000000000000E+04 0.260000000000000E+02 0.500000000000000E+00
+C 9999
+C 92RECC 5555.
+C 0.778000000000000E+06 -0.100000000000000E+03 0.000000000000000E+00
+C 0.250000000000000E+04 0.260000000000000E+02 0.500000000000000E+00
+C 9999
+C 3rd of 12 subcases will illustrate use of another supporting program.
+C This came from Prof. Ned Mohan and graduate student Jim Frame at the
+C University of Minnesota in Minneapolis around 1981.
+HYSTERESIS
+C ITYPE LEVEL { Request Armco M4 oriented silicon steel -- only 1 available
+ 1 2 { That was ITYPE=1. As for LEVEL=2, moderate accuracy output
+ 500. 1.0 { Current and flux coordinates of positive saturation point
+$PUNCH
+C -1.25000000E+02 -9.70588235E-01
+C -1.56250000E+01 -9.19411765E-01
+C 9.37500000E+00 -8.47058824E-01
+C 2.18750000E+01 -6.58823529E-01
+C 4.21875000E+01 5.70588235E-01
+C 6.56250000E+01 7.52941176E-01
+C 1.12500000E+02 8.64705882E-01
+C 2.07812500E+02 9.41176471E-01
+C 5.00000000E+02 1.00000000E+00
+C 6.87500000E+02 1.00588235E+00
+C 9999.
+C A quarter of a century late, Orlando Hevia in Santa Fe, Argentina, enhances
+C both the code and the illustrations. He adds to the original ITYPE = 1 a
+C new ITYPE = 2 alternative, which is for Armco M4 oriented silicon steel.
+C Next, illustrate the remaining 3 levels for ITYPE = 1 (these are 1, 3, and
+C 4) followed by the 4 levels for ITYPE = 2. Orlando had $PUNCH requests
+C after each, although WSM removes them to minimize such redundant output.
+C In E-mail to BPA's Dr. Tsu-huei Liu on February 21, 2006, Orlando wrote:
+C "I received a curve of the B-H characteristics of ARMCO M-6 steel. It is
+C for 0.014-inch thickness (0.35 mm), with a bit more losses than ARMCO M-4."
+C ITYPE LEVEL { Request Armco M4 oriented silicon steel
+ 1 1 { That was ITYPE=1 and LEVEL=2. 1st of 4 levels is LEVEL = 1
+ 500. 1.0 { Current and flux coordinates of positive saturation point
+C ITYPE LEVEL { Request Armco M4 oriented silicon steel
+ 1 3 { That was ITYPE=1 and LEVEL=2. 3rd of 4 levels is LEVEL = 3
+ 500. 1.0 { Current and flux coordinates of positive saturation point
+C ITYPE LEVEL { Request Armco M4 oriented silicon steel
+ 1 4 { That was ITYPE=1 and LEVEL=2. 4th of 4 levels is LEVEL = 4
+ 500. 1.0 { Current and flux coordinates of positive saturation point
+C ITYPE LEVEL { Request Armco M6 oriented silicon steel
+ 2 1 { 1st of 4 illustrations of M6 steel is for LEVEL = 1
+ 500. 1.0 { Current and flux coordinates of positive saturation point
+C ITYPE LEVEL { Request Armco M6 oriented silicon steel
+ 2 2 { 2nd of 4 illustrations of M6 steel is for LEVEL = 2
+ 500. 1.0 { Current and flux coordinates of positive saturation point
+C ITYPE LEVEL { Request Armco M6 oriented silicon steel
+ 2 3 { 3rd of 4 illustrations of M6 steel is for LEVEL = 3
+ 500. 1.0 { Current and flux coordinates of positive saturation point
+C ITYPE LEVEL { Request Armco M6 oriented silicon steel
+ 2 4 { 4th of 4 illustrations of M6 steel is for LEVEL = 4
+ 500. 1.0 { Current and flux coordinates of positive saturation point
+BLANK card ending stacked "HYSTERESIS" data subcases
+BEGIN NEW DATA CASE
+C 4th of 12 subcases will illustrate the printing of error messages.
+C Were there not at least five data cards remaining at this point, the
+C data subcase would not even be read. The program would instead
+C discard remaining cards and jump out to issue the initial prompt
+C once again. But the present set of comment cards prevent this.
+KILL CODES, 13, 14, { Just look at two very short error messages: KILL = 13, 14
+C The following 3 lines will never be executed because of the nature of the
+C preceding KILL CODES. However, they are legal non-comment cards. Once
+C we switch to the destruction of comment cards using NOCOMM= 1 in STARTUP,
+C the 5th subcase was missing because it was not separated from the 4th by at
+C least 5 data cards (variable KASEND = 5 in STARTUP). So, 14 Dec 94, we
+C add 3 noncomments:
+PRINTED NUMBER WIDTH, 15, 2, { 1st of 3 never-processed noncomment lines
+PRINTED NUMBER WIDTH, 15, 2, { 2nd of 3 never-processed noncomment lines
+PRINTED NUMBER WIDTH, 15, 2, { 3rd of 3 never-processed noncomment lines
+BEGIN NEW DATA CASE
+C 5th of 12 subcases is like the 4th except that output will be
+C truncated to 125 columns --- short of the 132 columns needed.
+TRUNCATE OUTPUT LINES, 125, { 132-column lines are formed, but then chopped off
+KILL CODES, 13, 14, { The same two error messages as preceding subcase, note
+C The following 3 lines will never be executed because of the nature of the
+C preceding KILL CODES. However, they are legal non-comment cards. Once
+C we switch to the destruction of comment cards using NOCOMM= 1 in STARTUP,
+C this 5th subcase was missing because it did not have 5 or more data cards
+C (variable KASEND = 5 in STARTUP). So, 14 Dec 94, we add 2 noncomments:
+PRINTED NUMBER WIDTH, 15, 2, { 1st of 3 never-processed noncomment lines
+PRINTED NUMBER WIDTH, 15, 2, { 2nd of 3 never-processed noncomment lines
+PRINTED NUMBER WIDTH, 15, 2, { 3rd of 3 never-processed noncomment lines
+BEGIN NEW DATA CASE
+C 6th of 12 subcases illustrates batch-mode usage of Orlando
+C Hevia's fitter to approximate piecewise-line (I, Psi) points
+C of an ordinary, old, Type-93 nonlinear reactor by a smooth,
+C hyperbolic tangent. See story in January, 1998, newsletter.
+TRUNCATE OUTPUT LINES, 132, { Cancel preceding truncation; return to normal 132
+$ERASE
+C 345678901234567890123456
+C 345678901234567890123456789012 ITMAX KPL DXL2
+SMOOTH SATURATION USING TANH 600 40 .08
+C Preceding parameters to the right of col. 32 are optional changes to defaults:
+C ITMAX = the maximum number of iterations of parameter fitter (default = 3000)
+C KPL = the number of uniform current steps for curve plotting (default = 50)
+C DXL2 = radius in inches of marking circle to show data points (default = .05)
+Arbitrary line will not be seen (illustrate how program ignores all but Type 93)
+Arbitrary line will not be seen (illustrate how program ignores all but Type 93)
+C AAAAAABBBBBBCCCCCCDDDDDDCURR FLUX I
+93BUS1 BUS2 0.005 30.0 1
+ -.005 30.0 { Illegal point illustrates rejection
+ 0.0 0.0 { 2nd illegal point (special case of origin)
+ .005 30.0
+ .010 40.0
+ .020 45.0
+ .030 47.0
+ 9999.
+Arbitrary line will not be seen (illustrate how program ignores all but Type 93)
+Arbitrary line will not be seen (illustrate how program ignores all but Type 93)
+93BUS1 BUS2 0.005 30.0
+ .002 11.0
+ .005 30.0
+ .010 40.0
+ .020 43.0
+ .030 45.0
+ .040 46.0
+ 9999.
+Arbitrary line will not be seen (illustrate how program ignores all but Type 93)
+Arbitrary line will not be seen (illustrate how program ignores all but Type 93)
+93BUS1 BUS2 0.005 30.0
+ .002 11.0
+ .005 30.0
+ 9999.
+Arbitrary line will not be seen (illustrate how program ignores all but Type 93)
+Arbitrary line will not be seen (illustrate how program ignores all but Type 93)
+$PUNCH { Create .PCH file as well as show contents in the printed output
+BLANK card ending last SSUT data case
+BEGIN NEW DATA CASE
+C 7th of 12 subcases illustrates batch-mode usage of Orlando
+C Hevia's supporting program HYSTER. This serves to convert
+C a Type-98 element into a Type-96 element. For background,
+C see the story in the July, 2000, newsletter.
+C 345678901234567890123456789012345678901234567890123456
+C NOZOOM FSCALE DXL2
+HYSTERESIS HEVIA 1 1.1 .04
+C The 3 parameters on the preceding request card govern the screen plot
+C that automatically will document hysteresis of the result:
+C NOZOOM is a binary switch that indicates whether the entire
+C curve or just the hysteresis loop itself is to be plotted.
+C Value 1 will plot everything (no zoom) whereas value zero
+C will drop the final point, which is outside the loop proper.
+C FSCALE is a scaling factor to waste space above and to the right
+C of the 1st and 2nd-quadrant plot. For example, value 1.1
+C will waste 10%, providing this much margin.
+C DXL2 is the "radius" in screen inches of the squares that mark data
+C points. Value zero means that there will be no such marking.
+C So much for the special-request card. On to reactor. Everything about
+C the following is normal Type 98 except for columns 27-74, from which 3
+C new floating-point parameters are read. Of course, if currents are in
+C amperes and voltage is in volts, power will be in watts and residual
+C flux will be in volt-seconds:
+C <--Losses in W-><--Freq in Hz--><-Residual flux> I
+98NODE1 NODE2 40774.59 50.0 400.0 3
+ 0.122419130E-01 0.563980835E+03
+ 0.628200099E-01 0.782295959E+03
+ 0.215062916E+00 0.100061115E+04
+ 0.576934814E+00 0.121892639E+04
+ 0.791255713E+00 0.129949500E+04
+ 0.131488657E+01 0.143724146E+04
+ 0.266661191E+01 0.165555664E+04
+ 0.386263156E+01 0.178290710E+04
+ 0.550489426E+01 0.192845056E+04
+ 9999
+$PUNCH, dc13c.pch ! { Exclamation holds lower case
+C NOZOOM FSCALE DXL2
+ REPLOT 0 1.0 .07
+C The following subcase illustrates generalization of the preceding hysteresis
+C derivation by Orlando Hevia. WSM adds 26 May 2001.
+C The following case produces Type-96 hysteretic branch cards that will result
+C in automatic initialization. There will be 8888. for I-steady and blank
+C fields for flux and remanent flux. Note negative losses on the following
+C Type-98 card (this is the way the user requests this option):
+C <--Losses in W-><--Freq in Hz--><-Residual flux> I
+98NODE1 NODE2 -40774.59 50.0 400.0 3
+ 0.122419130E-01 0.563980835E+03
+ 0.628200099E-01 0.782295959E+03
+ 0.215062916E+00 0.100061115E+04
+ 0.576934814E+00 0.121892639E+04
+ 0.791255713E+00 0.129949500E+04
+ 0.131488657E+01 0.143724146E+04
+ 0.266661191E+01 0.165555664E+04
+ 0.386263156E+01 0.178290710E+04
+ 0.550489426E+01 0.192845056E+04
+ 9999
+$PUNCH
+C NOZOOM FSCALE DXL2
+ REPLOT 0 1.0 .07
+BLANK card terminates stacked Type-98 elements within HYSTERESIS HEVIA
+BEGIN NEW DATA CASE
+C 8th of 12 subcases illustrates in-line usage of Orlando Hevia's
+C hysteresis-creating program. The effect should be identical to
+C replacement of the Type-98 branch by the Type-96 branch that was
+C punched by the preceding subcase. The basic network was created
+C by taking one phase of DC-7, and replacing the reactor using data
+C of the preceding subcase. Simulation continues only long enough
+C for the first pulse of current inrush of the reactor.
+ .000025 .001 60. 60.
+ 1 1 1 0 0 -1
+ 5 5 30 1
+ GENA SWA 89352.
+-1SENDA RECA .137681.07755.6806124.27
+ RECA TRANA GENA SWA 1
+ TRANA GNDA 7.5398 1
+ GNDA .0001
+C Note special request in 15:26 of the following branch card. This is
+C what provides the in-line connection to Orlando Hevia's fitter,
+C replacing the Type-98 branch by an equivalent (better) Type-96 branch:
+C <--Losses in W-><--Freq in Hz--><-Residual flux> I
+98TRANA HEVIA HYSTER 40774.59 50.0 400.0 3
+ 0.122419130E-01 0.563980835E+03
+ 0.628200099E-01 0.782295959E+03
+ 0.215062916E+00 0.100061115E+04
+ 0.576934814E+00 0.121892639E+04
+ 0.791255713E+00 0.129949500E+04
+ 0.131488657E+01 0.143724146E+04
+ 0.266661191E+01 0.165555664E+04
+ 0.386263156E+01 0.178290710E+04
+ 0.550489426E+01 0.192845056E+04
+ 9999
+BLANK card ends all branch cards
+ SWA SENDA 1.0
+BLANK card ends all switch cards
+14GENA 188000. 60. 0.0 -1.
+BLANK card ending source cards
+ GENA TRANA RECA
+C Step Time TRANA GENA TRANA RECA TRANA RECA TRANA
+C TERRA TERRA TRANA GNDA
+C *** Switch "SWA " to "SENDA " closed after 0.00000000E+00 sec.
+C 0 0.0 0.0 188000. 0.0 0.0 0.0 0.0 0.0
+C 1 .25E-4 .52901E-14 187991.65 .52901E-14 .52894E-14 -.2049E-16 -.1203E-16 .84641E-17
+C 2 .5E-4 .96607E-14 187966.602 .96607E-14 .96583E-14 -.2049E-16 -.2196E-16 -.1471E-17
+BLANK card ending output variable requests (just node voltages, here)
+C 32 .8E-3 .90572E-14 179514.534 .90572E-14 .89899E-14 -.2044E-16 -.2044E-16 .11666E-20
+C 33 .825E-3 81947.1269 178980.254 81947.1269 81954.0422 .007179619 131.122181 131.114993
+C 34 .85E-3 284030.522 178430.075 284030.522 284054.493 .039243952 192.256743 192.217471
+C 35 .875E-3 383163.494 177864.047 383163.494 383195.837 .097698701 -33.507413 -33.60515
+C 36 .9E-3 365690.044 177282.221 365690.044 365720.926 .16330787 5.81105035 5.64770591
+C 37 .925E-3 368481.981 176684.647 368481.981 368513.116 .153316524 -1.0272643 -1.1806177
+C 38 .95E-3 367719.904 176071.379 367719.904 367750.991 .18045259 .141786623 -.03870274
+C 39 .975E-3 367528.209 175442.471 367528.209 367559.301 .2075535 -.06041831 -.26800857
+C 40 1.E-3 367198.987 174797.979 367198.987 367230.074 .234635209 -.02407335 -.25874528
+BLANK card terminating plot cards
+BEGIN NEW DATA CASE
+C 9th of 12 subcases illustrates batch-mode use of Orlando Hevia's
+C supporting program to find parameters A, B, and C of the Type-15
+C Standler surge function. See the January, 2000, newsletter. The
+C alternative of in-line fitting rather than batch-mode fitting can
+C be found in the 3rd subcase of DC-19.
+STANDLER SURGE FUNCTION
+ 10.0 50.0 0.0 1000. S10500 -1
+$PUNCH, dc13d.pch ! { Exclamation holds lower case
+C C STANDLER SURGE FUNCTION
+C C 10.0 50.0 0.0 1000. S10500 -1
+C C Surge peak : 1.0000E+03
+C C Time to peak : 1.0000E+01 us
+C C Time to half value : 5.0000E+01 us
+C 15S10500-1 1913.48 .34489E-4 .28995155 Standler
+ 10.0 50.0 10.0 1000. S10501 0
+$PUNCH
+C C 10.0 50.0 10.0 1000. S10501 0
+C C Surge peak : 1.0000E+03
+C C Virtual front time : 1.0000E+01 us
+C C Virtual half time : 5.0000E+01 us
+C C Virtual front defined by 10.0 and 90.0 %
+C 15S10501 2543.7879 .23168E-4 .65859353 Standler
+ 10.0 50.0 30.0 1000. S10503 1
+ 10.0 50.0 50.0 1000. S10505 Voltage
+ 8.0 20.0 0.0 1000. S82000 Current
+ 8.0 20.0 10.0 1000. S82010 voltage
+ 8.0 20.0 30.0 1000. S82030 current
+ 8.0 20.0 50.0 1000. S82050 VOLTAGE
+$PUNCH
+C C 10.0 50.0 30.0 1000. S10503 1
+C C Surge peak : 1.0000E+03
+C C Virtual front time : 1.0000E+01 us
+C C Virtual half time : 5.0000E+01 us
+C C Virtual front defined by 30.0 and 90.0 %
+C 15S10503 2372.9809 .25096E-4 .52633653 Standler
+C This is 1st of 6. Etc. for 2nd through 6th illustrations.
+BLANK card ending Standler surges
+BEGIN NEW DATA CASE
+C 10th of 12 subcases illustrates use of LOSSY SATURATION from
+C Orlando Hevia. This is added 11 May 2001 as feature becomes
+C available. In general terms, this supporting program is similar
+C to SATURATION (see 1st subcase), but losses are taken into
+C account.
+LOSSY SATURATION
+$ERASE
+C
+C FREQ: AS SATURATION
+C
+C VBASE: AS SATURATION
+C
+C PBASE: AS SATURATION
+C
+C KCON : CONNECTION
+C -1, BLANK OR 0: SINGLE PHASE (THE SAME AS SATURATION)
+C VOLTAGE, FLUX AND CURRENT WITHOUT SCALING.
+C
+C 1 STAR (Y, WYE) CONNECTION NEUTRAL GROUNDED
+C VOLTAGE AND FLUX SCALED DIVIDING BY SQRT(3)
+C
+C 3 DELTA (TRIANGLE) CONNECTION
+C CURRENT SCALED DIVIDING BY SQRT(3)
+C TRIPLEN HARMONICS REMOVED
+C
+C KTHIRD : AS SATURATION
+C
+C IOUT : TO BE PASSED TO .PCH FILE IN COLUMN 80
+C
+C BUS1, BUS2 : TO BE PASSED TO .PCH FILE FOR NON-LINEAR RESISTOR
+C BUS3, BUS4 : TO BE PASSED TO .PCH FILE FOR NON-LINEAR INDUCTOR
+C IF BUS3=BUS4=' ', BUS1 AND BUS2 WILL BE USED
+C
+C FREQ VBASE PBASE IPUNCH KTHIRD KCON IOUT BUS1 BUS2 BUS3 BUS4
+C ------________--------________--------________--------______------______------
+C
+ -1. 10. .001 0 0
+C I V
+C --------------________________
+ 0.0 5.0
+ 2.0 5.0
+ 3.0 3.5
+ 4.0 2.0
+ 5.0 1.0
+ 10.0 1.0
+ 9999
+ -1. 10. .001 0 1
+ 0.0 5.0
+ 2.0 5.0
+ 3.0 3.5
+ 4.0 2.0
+ 5.0 1.0
+ 10.0 1.0
+ 9999
+ -1. 10. .001 1 0
+ 0.0 5.0
+ 2.0 5.0
+ 3.0 3.5
+ 4.0 2.0
+ 5.0 1.0
+ 10.0 1.0
+ 9999
+ -1. 10. .001 1 1
+ 0.0 5.0
+ 2.0 5.0
+ 3.0 3.5
+ 4.0 2.0
+ 5.0 1.0
+ 10.0 1.0
+ 9999
+C
+ 60. .664 .01 0 0
+ 1.0 100.
+ 1.6 105.
+ 2.75 110.
+ 4.0 113.
+ 6.0 116.
+ 10. 119.
+ 44. 131.
+ 9999
+C
+$PUNCH, dc13e.pch ! { Exclamation holds lower case
+ -1. 10. .001 1
+ 2.0 5.0
+ 9999
+ 60. 303.11 300. 1 1
+ .000306 0.7
+ .000415 0.8
+ .00076 0.9
+ .00198 1.0
+ .0108 1.1
+ 9999
+C
+$PUNCH
+ 60. 34.5 300.0 1
+ .000306 0.7
+ .000415 0.8
+ .00076 0.9
+ .00198 1.0
+ .0108 1.1
+ 9999
+C
+$PUNCH, dc13f.pch ! { Exclamation holds lower case
+C INI EPSIR
+CONTROLS 1024 1.E-8 { # of points per quarter cycle; convergence tolerance
+C
+C THE FOLLOWING IS A REAL LIFE CASE
+C
+C
+C FREQ VBASE PBASE IPUNCH KTHIRD KCON IOUT BUS1 BUS2 BUS3 BUS4
+C ------________--------________--------________--------______------______------
+ 50. 0.001 1.0E-6 0 3 1DOMAR DOMBR DOMAL DOMBL
+C
+C IRMS----------VRMS------------P---------------
+3.01 29107.00 50640.0
+4.39 31000.00 60640.0
+7.51 33200.00 75760.0
+14.45 35387.0 94960.0
+26.09 37280.00 114000.0
+53.73 39213.00 135360.0
+ 9999.
+$PUNCH
+C
+C SAMPLES OF EACH CONNECTION
+C CURRENT, VOLTAGE AND POWER TO OBTAIN RESISTANCE=REACTANCE
+C
+C CURRENT, VOLTAGE AND LOSSES SCALED ACCORDINGLY
+C
+C SINGLE PHASE
+C
+C FREQ VBASE PBASE IPUNCH KTHIRD KCON IOUT BUS1 BUS2 BUS3 BUS4
+C ------________--------________--------________--------______------______------
+ 50. 0.001 1.0E-6 0 -1 1
+C
+C IRMS----------VRMS------------P---------------
+1.414213562 10000.0 10000.000
+3.39411255 12000.0 28800.000
+7.071067812 14000.0 70000.000
+ 9999.
+C
+C Y NEUTRAL CONNECTED TO GROUND
+C
+C FREQ VBASE PBASE IPUNCH KTHIRD KCON IOUT BUS1 BUS2 BUS3 BUS4
+C ------________--------________--------_______------______------______------
+ 50. 0.001 1.0E-6 0 0 1 1
+C
+C IRMS----------VRMS------------P---------------
+1.414213562 17320.50808 30000.000
+3.39411255 20784.60969 86400.000
+7.071067812 24248.71131 210000.000
+ 9999.
+C
+C DELTA CONNECTED
+C
+C FREQ VBASE PBASE IPUNCH KTHIRD KCON IOUT BUS1 BUS2 BUS3 BUS4
+C ------________--------________--------________--------______------______------
+ 50. 0.001 1.0E-6 0 0 3
+C
+C IRMS----------VRMS------------P---------------
+2.449489743 10000.0 30000.000
+5.878775383 12000.0 86400.000
+12.24744871 14000.0 210000.000
+ 9999.
+$PUNCH
+BLANK card ends stacked subcases of LOSSY SATURATION data
+BEGIN NEW DATA CASE
+C 11th of 12 subcases illustrates batch-mode use of Orlando Hevia's
+C supporting program to find parameters A, B, and C of the Type-15
+C Heidler surge function. See the January, 2001, newsletter. The
+C alternative of in-line fitting rather than batch-mode fitting can
+C be found in the ?? subcase of DC-??. Add this subcase 16 Nov 02
+HEIDLER SURGE FUNCTION
+C FRONT TAIL PERC AMPLIT BUS IV N
+C ------========--------========XX------========--
+ 1.0E-6 50.0E-6 10.0 100.0 BUS 1 5
+ 1.0E-6 50.0E-6 0.0 100.0 BUS -1 5
+ 1.0E-6 50.0E-6 30.0 100.0 BUS Voltage 5
+ 1.0E-6 50.0E-6 50.0 100.0 BUS current 5
+C The preceding data was within HEIDLER.DAT as supplied by Orlando Hevia
+$PUNCH
+C Essence of Orlando Hevia's HEIDSLOP.DAT is inserted here 17 August 2003.
+C This verifies a new fitting option that allows the user to specify his
+C desired peak value and slope.
+C NEW OPTION FOR HEIDLER SURGE SOURCE
+C IF PERC IS .LT. 0.0, THE SOURCE WILL HAVE THE
+C SLOPE AS REQUIRED IN FIRST FIELD (NOT T1)
+C SLOPE><TTAIL-><PERC--><PEAK--> <BUS-> IV N
+ 1.0E+10 50.0E-6 -1.0 1.0E4 OFFLIN -1 4
+$PUNCH
+BLANK card ending input for Heidler fitter
+BEGIN NEW DATA CASE
+C 12th of 12 subcases illustrates batch-mode use of Orlando Hevia's
+C supporting program TWOEXP to find parameters of Dommel's Type-15
+C exponential surge funct. See the January, 2001, newsletter (end
+C of the Standler story mentions "other alternatives"). This does
+C not imply more complicated (even Dommel's original 2-exponential
+C surge is benefitted). Final note: the alternative of in-line
+C fitting rather than batch-mode fitting can
+C be found in the ?? subcase of DC-??. Add this subcase 16 Nov 02
+TWO EXP SURGE FUNCTION
+C FRONT TAIL PERC AMPLIT BUS IV N
+C ------========--------========XX------========--
+ 1.0E-6 50.0E-6 10.0 100.0 BUS 1 5
+ 1.0E-6 50.0E-6 0.0 100.0 BUS -1 5
+ 1.0E-6 50.0E-6 30.0 100.0 BUS Voltage 5
+ 1.0E-6 50.0E-6 50.0 100.0 BUS current 5
+$PUNCH
+BLANK card ending input for 2-exponential fitter
+BEGIN NEW DATA CASE
+BLANK
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