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BEGIN NEW DATA CASE
C BENCHMARK DCNEW-13
C 1st of 6 test cases that generate data for Noda F-dependence of DCN-14
C Like TAKU12, only here 200 miles long for DC-38 (not 180 as for DC-3).
C Use only 1 phase of 3-phase, 500-kV line --- Phase 1, plus closest
C ground wire. This gives Noda approximation for use with DC-37.
C NODA SETUP, 1, { Request Taku Noda's ARMA model fitter. 1 ==> F-scan printout
NODA SETUP { Request Taku Noda's ARMA model fitter. No printout of F-scan
DCN14A.CCC { Output file name (blank requests use of default TAKUNODA.CCC)
C =============================================================================
HOMOGENEOUS LINE { declares that this case is for a homogeneous line
C * This time, only "HOMOGENEOUS LINE" is available. This means
C homogeneous, frequency-dependent transmission line.
C * More options will be add in the future, for example, "CORONA LINE"
C with nonlinear corona branches inside the line model, and
C "CREAT LINE" with creat capacitances inside the line model.
C == Fitting Parameters =======================================================
50.0E-6 { time step (if negative, optimum time step request) <<<<<<<<<<<<<
4 12 { min and max orders for voltage deformation matrix [H]
1 6 { min and max orders for characteristic admittance matrix [Y0]
C 3.0 0.5 2.0 { error constants: EpsA, EpsM1, EpsM2 in percent
1.0, 0.1, 3.0, 5 { error constants: EpsA, EpsM1, EpsM2 in %, MAX ITARATION <<<
NO SYMMETRY { pair(s) of phases having symmetry (here, none)
C -----------------------------------------------------------------------------
C * The fitting parameter part consists of 4 lines.
C * ARMAfit will determin the best order for each phase in the range
C specified in the above. The recommended values are :
C 4, 12 for voltage deformation matrix [H]
C 1, 6 for characteristic admittance matrix [Y0]
C Too big order does not give accurate fitting and stability.
C * The meaning of the error constants above is as follows :
C EpsA : permitted error in the stage of Least-Square fitting
C EpsM1 : error determining modal traveling timings
C EpsM2 : error detecting dominant modes in each phase response
C The recommended values are :
C EpsA = 3.0 %, EpsM1 = 0.5 %, EpsM2 = 2.0 %
C Too small value does not give accurate fitting, because the line
C parameters given by CABLE PARAMETERS, CABLE CONSTANTS, or LINE
C CONSTANTS include errors due to many approximations, assumptions,
C and numerical calculations. An ARMA model does not reproduce
C a frequency characteristic which cannot exist physically.
C * If phase #1 and #3 have symmetry regarding to the center line of
C the line configuration, we can specify as the above, and then
C ARMAfit will take care of the symmetry to reduce the fitting time.
C If more than 2 pairs of phases have symmetry, we can specify as
C follows : 1, 4 2, 5 3, 6 { three pairs.
C * The next part will be the frequency scan from CABLE PARAMETERS,
C CABLE CONSTANTS, or LINE CONSTANTS.
C =============================================================================
NODA SETUP END { Bound of fitter data; begin CABLE PARAMETERS data
LINE CONSTANTS
BRANCH GEN-A 18-A GEN-B 18-B GEN-C 18-C
C LINE CONSTANTS DATA FOR JOHN DAY TO LOWER MONUMENTAL 500-KV LINE.
1.3636 .05215 4 1.602 -20.75 50. 50.
1.3636 .05215 4 1.602 -19.25 50. 50.
0.5 2.61 4 0.386 -12.9 98.5 98.5
C 0.5 2.61 4 0.386 12.9 98.5 98.5
BLANK card ending conductor cards of imbedded "LINE CONSTANTS" data
C 100. 5000. 180. 1 1
C 100. 60.00 180. 1 1
C 100. .01 180. 1 9 10 1
100. 10. 200. 1 3 10 1
100. 1.E6 200. 1 1
BLANK card ending frequency cards of inbedded "LINE CONSTANTS" data
C At this point, disk file DCN14A.CCC has been created. This is input
C to Taku Noda's fitter --- a separate Salford DBOS program that will
C produce data (disk file DCN14A.DAT) for branch cards of DCN14.DAT
BLANK card ending "LINE CONSTANTS" cases
BEGIN NEW DATA CASE
C 2nd of 6 subcases
C 1994-1995, this was at end of DC-27. This is for a single-phase
C cable (core and sheath). Cable data came from CESI (see DCNEW-6).
C NODA SETUP, 1, { Request Taku Noda's ARMA model fitter. 1 ==> F-scan printout
NODA SETUP { Request Taku Noda's ARMA model fitter. No printout of F-scan
DCN14B.CCC { Output file name (blank requests use of default TAKUNODA.CCC)
HOMOGENEOUS LINE { declares that this case is for a homogeneous line
C -1. { time step (if negative, optimum time step request) <<<<<<<<<<<<<
3.0E-6 { time step (if negative, optimum time step request) <<<<<<<<<<<<<
4 12 { min and max orders for voltage deformation matrix [H]
1 6 { min and max orders for characteristic admittance matrix [Y0]
C 3.0 0.5 3.0 { error constants: EpsA, EpsM1, EpsM2 in percent --- out 3 Dec 95
1.0, 0.1, 3.0, 5 { error constants: EpsA, EpsM1, EpsM2 in %, MAX ITARATION <<<
NO SYMMETRY { pair(s) of phases having symmetry (here, none)
NODA SETUP END { Bound of fitter data; begin CABLE PARAMETERS data
CABLE CONSTANTS
CABLE PARAMETERS { Transfer to new (August, 1994) cable constants code
C MISCELLANEOUS DATA CARD
2 -1 1 0 1 0 0 0
C CARDS INDICATING NUMBER OF CONDUCTORS PER SC COAXIAL CABLE
2
C GEOMETRICAL AND PHYSICAL DATA CARDS
.0206 .02865 .06395 .0689 .0775
1.775E-8 1. 1. 3.5 9.1E-8 1. 1. 2.25
C CROSS-SECTION LOCATION CARD
1.05 0.
C EARTH RESISTIVITY AND FREQUENCY CARDS
300. 1. 6 10 600.
300. 1.E8 600.
BLANK card ending frequency cards within CABLE PARAMETERS
C At this point, disk file DCN14B.CCC has been created. This is input
C to Taku Noda's fitter --- a separate Salford DBOS program that will
C produce data (disk file DCN14B.DAT) for branch cards of DCN14.DAT
BLANK card ending "CABLE CONSTANTS" data cases
BEGIN NEW DATA CASE
C BENCHMARK DCNEW-13
C 3rd of 6 subcases
C Generate data to represent 180-miles of BPA 500-kV overhead line as studied
C in DC-3. Output is used within DCNEW-14 which repeats the
C simulation using Taku Noda's frequency dependence rather than 18 Pi-circuits
C NODA SETUP, 1, { Request Taku Noda's ARMA model fitter. 1 ==> F-scan printout
NODA SETUP { Request Taku Noda's ARMA model fitter. No printout of F-scan
DCN14C.CCC { Output file name (blank requests use of default TAKUNODA.CCC)
C =============================================================================
HOMOGENEOUS LINE { declares that this case is for a homogeneous line
50.0E-6 { time step (if negative, optimum time step request) <<<<<<<<<<<<<
4 12 { min and max orders for voltage deformation matrix [H]
1 6 { min and max orders for characteristic admittance matrix [Y0]
C 3.0 0.5 2.0 { error constants: EpsA, EpsM1, EpsM2 in percent
1.0, 0.1, 3.0, 5 { error constants: EpsA, EpsM1, EpsM2 in %, MAX ITARATION <<<
1, 3 { pair(s) of phases having symmetry <<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<
NODA SETUP END { Bound of fitter data; begin CABLE PARAMETERS data
C --- 1st, look at the LINE CONSTANTS data for John Day to Lower Monumental
C This is 500-kV, so use for DC-3 (close enough for government work):
C 1.3636 .05215 4 1.602 -20.75 50. 50.
C 1.3636 .05215 4 1.602 -19.25 50. 50.
C 2.3636 .05215 4 1.602 -0.75 77.5 77.5
C 2.3636 .05215 4 1.602 0.75 77.5 77.5
C 3.3636 .05215 4 1.602 19.25 50. 50.
C 3.3636 .05215 4 1.602 20.75 50. 50.
C 0.5 2.61 4 0.386 -12.9 98.5 98.5
C 0.5 2.61 4 0.386 12.9 98.5 98.5
C
C 27. 60. 1 138.
C 27. 6.0 1 138. 7 20
CABLE CONSTANTS
CABLE PARAMETERS { Use for overhead line because of LINE CONSTANTS trouble
1 2 1 0 1 0 0 0 0 0 0 0 { transposed line
3 2 2 1
2.03454E-2 .5550E-2 .49022E-2 0.0 .4572 0.0
3.90E-8 1.0 12.24E-8 1.0 { rho = cross-sec. area * Rdc / l
15.24 15.24 -6.096 23.622 23.622 0.
15.24 15.24 6.096 30.0228 30.0228 -3.93192
30.0228 30.0228 3.93192
C Next come 2 frequency cards. The first loops over meaningful frequencies for
C the line length (here 1 Hz through 100 kHz: 10 points/decade for 5 decades)
C The second is for a single nearly-infinite frequency (here 100 MHz):
27. 1.0 5 10 289682. { 180 miles is about 290 Km
27. 1.E8 289682. { 2nd of 2 is for high freq
BLANK card ending frequency cards within CABLE PARAMETERS
C At this point, disk file DCN14C.CCC has been created. This is input
C to Taku Noda's fitter --- a separate Salford DBOS program that will
C produce data (disk file DCN14C.DAT) for branch cards used by DCN14.DAT
BLANK card ending CABLE CONSTANTS data subcases
BEGIN NEW DATA CASE
C 4th of 6 subcases
C Generate data to represent 138-miles of BPA 500-kV overhead line as studied
C in DC-31 and DC-41. Output is used within DCNEW-14 which repeats the
C simulation using Taku Noda's frequency dependence rather than Hauer (DC-41)
C or Semlyen (DC-31).
C NODA SETUP, 1, { Request Taku Noda's ARMA model fitter. 1 ==> F-scan printout
NODA SETUP { Request Taku Noda's ARMA model fitter. No printout of F-scan
DCN14D.CCC { Output file name (blank requests use of default TAKUNODA.CCC)
HOMOGENEOUS LINE { declares that this case is for a homogeneous line
20.0E-6 { time step (if negative, optimum time step request) <<<<<<<<<<<<<
4 12 { min and max orders for voltage deformation matrix [H]
1 6 { min and max orders for characteristic admittance matrix [Y0]
C 3.0 0.5 2.0 { error constants: EpsA, EpsM1, EpsM2 in percent
1.0, 0.1, 3.0, 5 { error constants: EpsA, EpsM1, EpsM2 in %, MAX ITARATION <<<
1, 3 { pair(s) of phases having symmetry <<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<
NODA SETUP END { Bound of fitter data; begin CABLE PARAMETERS data
C --- 1st, look at the LINE CONSTANTS data for John Day to Lower Monumental
C 1.3636 .05215 4 1.602 -20.75 50. 50.
C 1.3636 .05215 4 1.602 -19.25 50. 50.
C 2.3636 .05215 4 1.602 -0.75 77.5 77.5
C 2.3636 .05215 4 1.602 0.75 77.5 77.5
C 3.3636 .05215 4 1.602 19.25 50. 50.
C 3.3636 .05215 4 1.602 20.75 50. 50.
C 0.5 2.61 4 0.386 -12.9 98.5 98.5
C 0.5 2.61 4 0.386 12.9 98.5 98.5
C
C 27. 60. 1 138.
C 27. 6.0 1 138. 7 20
CABLE CONSTANTS
CABLE PARAMETERS { Use for overhead line because of LINE CONSTANTS trouble
1 2 1 0 1 0 0 0 0 0 0 0 { transposed line
3 2 2 1
2.03454E-2 .5550E-2 .49022E-2 0.0 .4572 0.0
3.90E-8 1.0 12.24E-8 1.0 { rho = cross-sec. area * Rdc / l
15.24 15.24 -6.096 23.622 23.622 0.00
15.24 15.24 6.096 30.0228 30.0228 -3.93192
30.0228 30.0228 3.93192
C Next come 2 frequency cards. The first loops over meaningful frequencies for
C the line length (here 1 Hz through 100 kHz: 10 points/decade for 5 decades)
C The second is for a single nearly-infinite frequency (here 100 MHz):
27. 1.0 5 10 222089. { 138 miles is about 222 Km
27. 1.E8 222089. { 2nd of 2 is for high freq
BLANK card ending frequency cards within CABLE PARAMETERS
C At this point, disk file DCN14D.CCC has been created. This is input
C to Taku Noda's fitter --- a separate Salford DBOS program that will
C produce data (disk file DCN14D.DAT) for branch cards used by DCN14.DAT
BLANK card ending CABLE CONSTANTS data subcases
BEGIN NEW DATA CASE
C 5th of 6 subcases
C NODA SETUP, 1, { Request Taku Noda's ARMA model fitter. 1 ==> F-scan printout
NODA SETUP { Request Taku Noda's fitter, for which data follows
DCN14E.CCC { Output file name (blank requests use of default TAKUNODA.CCC)
HOMOGENEOUS LINE { declares that this case is for a homogeneous line
10.0E-6 { time step (if negative, optimum time step request) <<<<<<<<<<<<<
4 12 { min and max orders for voltage deformation matrix [H]
1 6 { min and max orders for characteristic admittance matrix [Y0]
C 3.0 0.5 2.0 { error constants: EpsA, EpsM1, EpsM2 in percent
1.0, 0.1, 3.0, 5 { error constants: EpsA, EpsM1, EpsM2 in %, MAX ITARATION <<<
1, 6, 2, 5, 3, 4 { pair(s) of phases having symmetry <<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<
NODA SETUP END { Bound of fitter data; begin CABLE PARAMETERS data
C At this point, we have LINE CONSTANTS data, so would like to use this.
C But, it is not smooth enough for Noda, so use CABLE PARAMETERS
C approximate equivalent of the following:
C COULEE-RAVER 500-KV
C 1.3636 .05215 4 1.602 -17.1875 49.06
C 1.3636 .05215 4 1.602 -18.25 48.0
C 1.3636 .05215 4 1.602 -19.3125 49.06
C 2.3636 .05215 4 1.602 -27.1875 85.06
C 2.3636 .05215 4 1.602 -28.25 84.0
C 2.3636 .05215 4 1.602 -29.3125 85.06
C 3.3636 .05215 4 1.602 -17.1875 121.06
C 3.3636 .05215 4 1.602 -18.25 120.0
C 3.3636 .05215 4 1.602 -19.3125 121.06
C 4.3636 .05215 4 1.602 17.1875 121.06
C 4.3636 .05215 4 1.602 18.25 120.0
C 4.3636 .05215 4 1.602 19.3125 121.06
C 5.3636 .05215 4 1.602 27.1875 85.06
C 5.3636 .05215 4 1.602 28.25 84.0
C 5.3636 .05215 4 1.602 29.3125 85.06
C 6.3636 .05215 4 1.602 17.1875 49.06
C 6.3636 .05215 4 1.602 18.25 48.0
C 6.3636 .05215 4 1.602 19.3125 49.06
C 0.5 2.61 4 .386 -9.0 163.96
C 0.5 2.61 4 .386 9.0 163.96
CABLE CONSTANTS
BRANCH A1 A2 B1 B2 C1 C2 A'1 A'2 B'1 B'2 C'1 C'2
CABLE PARAMETERS
1 0 1 0 1 0 0 0 0 0 0 0
6 2 3 1
2.03454E-2 .5550E-2 .49022E-2 0.0 .521 0.0
C The data ".521 m" above is average separation of phase wires in the bundle
C i.e., ( 1.501ft + 1.501ft + 2.125ft ) / 3 = 1.709 ft = .521 m
C Data on the following card are resistivities and relative permeabilities
C of phase wires and ground wires
C 3.8995E-8 1.0 12.24E-8 1.0 { modified rho to match rho in double.dat
2.92E-8 1.0 9.501E-8 1.0
14.846 14.846 -5.563 25.819 25.819 -8.611
36.791 36.791 -5.563 36.791 36.791 5.563
25.818 25.819 8.611 14.846 14.846 5.563
49.975 49.975 -2.743 49.975 49.975 2.743
100. 1.0 6 10 80450. { 50 miles is about 80 Km
100. 1.E8 80450. { 2nd of 2 is for high freq
BLANK card ending frequency cards within CABLE PARAMETERS
C At this point, disk file DCN14E.CCC has been created. This is input
C to Taku Noda's fitter --- a separate Salford DBOS program that will
C produce data (disk file DCN14E.DAT) for branch cards used by DCN14.DAT
BLANK card ending CABLE CONSTANTS data subcases
BEGIN NEW DATA CASE
C BENCHMARK DCNEW-13
C 6th of 6 subcases
C Generate data to represent 180-miles of BPA 500-kV overhead line as studied
C in DC-3. Output is used within DCNEW-14 which repeats the
C simulation using Taku Noda's frequency dependence rather than 18 Pi-circuits
C NODA SETUP, 1, { Request Taku Noda's ARMA model fitter. 1 ==> F-scan printout
NODA SETUP { Request Taku Noda's ARMA model fitter. No printout of F-scan
DCN14F.CCC { Output file name (blank requests use of default TAKUNODA.CCC)
C =============================================================================
HOMOGENEOUS LINE { declares that this case is for a homogeneous line
50.0E-6 { time step (if negative, optimum time step request) <<<<<<<<<<<<<
4 12 { min and max orders for voltage deformation matrix [H]
1 6 { min and max orders for characteristic admittance matrix [Y0]
C 3.0 0.5 2.0 { error constants: EpsA, EpsM1, EpsM2 in percent
1.0, 0.1, 3.0, 5 { error constants: EpsA, EpsM1, EpsM2 in %, MAX ITARATION <<<
1, 3 { pair(s) of phases having symmetry <<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<
NODA SETUP END { Bound of fitter data; begin LINE CONSTANTS data
LINE CONSTANTS
UNTRANSPOSED { Request conventional untransposed representation
C --- 1st comes line geometry for John Day to Lower Monumental
1.3636 .05215 4 1.602 -20.75 50. 50.
1.3636 .05215 4 1.602 -19.25 50. 50.
2.3636 .05215 4 1.602 -0.75 77.5 77.5
2.3636 .05215 4 1.602 0.75 77.5 77.5
3.3636 .05215 4 1.602 19.25 50. 50.
3.3636 .05215 4 1.602 20.75 50. 50.
0.5 2.61 4 0.386 -12.9 98.5 98.5
0.5 2.61 4 0.386 12.9 98.5 98.5
BLANK card ending conductor cards
C Next come 2 frequency cards. The first loops over meaningful frequencies for
C the line length (here 1 Hz through 100 kHz: 10 points/decade for 5 decades)
C The second is for a single nearly-infinite frequency (here 100 MHz):
27. 1.0 1 180. 5 10
27. 1.E8 1 180.
BLANK card ending frequency cards
C At this point, disk file DCN14F.CCC has been created. This is input
C to Taku Noda's fitter --- a separate Salford DBOS program that will
C produce data (disk file DCN14F.DAT) for branch cards used by DCN14.DAT
BLANK card ending LINE CONSTANTS data subcases
|
