📄 th_format.txt
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TH Format Description
By Yiwei ZHANG
First record: HERDER
Second record: Format Description File
Other records as following:
There is no limit on the order or the following
various records.
Any record with first character of '*' is comment record.
The parameters are in free format.
SYSBASE: system base
1: "SYSBASE"
2: "***" Any character string
3: base System base
4: state 0 or 1
SYSFREQ: system frequency
1: "SYSFERQ"
2: "***" Any character string
3: freq System frequency in HZ
THLINE: line
1: "THLINE"
2: Oname Line name
3: name1 Beginning bus name
4: name2 Ending bus name
5: r Line resistance in p.u.
6: x Line reactance in p.u.
LINE
1: "THLINE"
2: Oname Line name
3: name1 Beginning bus name
4: name2 Ending bus name
5: r Line resistance in p.u.
6: x Line reactance in p.u.
7: -B/2 Semi in p.u.
8: rate Line rated power
9: br1 Sending break state
10: br2 Ending break state
THTRFO: transformer I --- r+jx ---- 1:n ----J
1: "THTRFO"
2: Oname Transformer name
3: name1 Beginning bus name
4: name2 Ending bus name
5: r Resistance in p.u.
6: x Reactance in p.u.
7: n*100 Tap
TRFO: transformer I --- r+jx ---- 1:n ----J
1: "TRFO"
2: Oname Transformer name
3: name1 Beginning bus name
4: name2 Ending bus name
5: r Resistance in p.u.
6: x Reactance in p.u.
7: n*100 Tap
8: rate Line rated power
9: br1 Sending break state
10: br2 Ending break state
THFORB2: transformer I --- r+jx ---- 1:n ----J
| |
-B/2 -B/2
| |
1: "THFORB2"
2: Oname Transformer name
3: name1 Beginning bus name
4: name2 Ending bus name
5: r Resistance in p.u.
6: x Reactance in p.u.
7: g1 Sending side shunt conductance in p.u.
8: b1 Sending side shunt susceptance in p.u.
9: g2 Ending side shunt conductance in p.u.
10: b2 Ending side shunt susceptance in p.u.
11: n*100 Tap
THTRPH: phase transformer I --- r+jx ---- 1:n(phase)----J
1: "TRFO"
2: Oname Transformer name
3: name1 Beginning bus name
4: name2 Ending bus name
5: r Resistance in p.u.
6: x Reactance in p.u.
7: n*100 Tap
8: phase Phase in degree
TAP : LTC --n10:1--(1+st1*dv1):1 -- r+jx --1:(1+st2*dv2)-1:n20
1: LTC
2: object name
3: name1 Beginning bus name
4: name2 Ending bus name
5: r Resistance in p.u.
6: x Reactance in p.u.
7: g1 Sending side shunt conductance in p.u.
8: b1 Sending side shunt susceptance in p.u.
9: g2 Ending side shunt conductance in p.u.
10: b2 Ending side shunt susceptance in p.u.
11: n1*100 Sending tap
12: n2*100 Ending tap
13: n10 Sendind tap step
14: n20 Ending tap step
15: st1 Initial sending tap in int
16: st2 Initial ending tap in int
17: side Controllable side
18: stmax Maximum number of step tap in int
19: stmin Minimum number step tap in int
20: rate Rated power
21: br1 Sending state
22: br2 Ending state
TAPCV: LTC control parameter
1: TAPCV
2: object name LTC name
3: bus name Controlled bus
4: Vc Desired Votage in p.u.
5: Vcmax Maximum Voltage in p.u.
6: Vcmin Minimum Voltage in p.u.
7: Vimax Maximum Voltage at beginning in p.u.
8: Vimin Minimum Voltage at beginning in p.u.
9: Vjmax Maximum Voltage at ending in p.u.
10: Vjmin Minimum Voltage at ending in p.u.
11: br State
*LTC make control only when
Vimin<Vi<Vimax and Vjmin<Vj<Vjmax
i:LTC's beginning j : LTC's ending
GENER: PQ genarator
1: GENERCV
2: name Generator name
3: Bus name To which generator connect
4: Pg Active Power (MW)
5: Qg Reactive Power (MVAR)
6: br State
GENERCV: PV Generator
1: GENERCV
2: name Generator name
3: Bus name To which generator connect
4: Pg Active Power (MW)
5: Qg Reactive Power (MVAR)
6: V Voltage in p.u.
7: br State
* The Qg is not the solution value, i.e.
it could be any value here
GENERDATA: generator data
1: GENERDATA
2: name Generator name
3-7: 0
8: Pmax Maximum active power (MW)
9: Pmin Minimum active power (MW)
10: Qmax Maximum reactive power (MVAR)
11: Qmin Minimum reactive power (MVAR)
12: Vmax Maximum Voltage (p.u)
13: Vmin Minimum Voltage (p.u)
14-16: 0
17: br State
THLOAD: Load
1: THLOAD
2: Object name
3: Bus name To which the load connects
4: Pl Active power load in p.u.
5: Ql Reactive power load in p.u.
LOAD : PIZ load
1: LOAD
2: Object name
3: Bus name To which the load connects
4: Pp Constant P load (MW)
5: Qp Constant Q load (MVAR)
6: Pi Constant active current (MW)
7: Qi Constant reactive current (MVAR)
8: Pz Constant resistance load (MW)
9: Qz Constant reactance load (MVAR)
10: V0 Voltage base for above loads
11: br State
THSLACK: Slack generator
1: THSLACK
2: Name Generator name
3: V Assigned Voltage in p.u.
4: Phase Assigned Phase in degree
THSHUNT: shunt reactor or capacitors
1: THSHUNT
2: Object name
3: Bus name To which the equipment is connected
4: Psh Active power loss (p.u.)
5: Qsh Reactive power (p.u., reactor = +)
RES_V: bus voltage after Load Flow Solution
1: RES_V
2: bus name
3: V Voltage in p.u.
4: Ph Phase in degree
5: State
RES_MAC : generator output after Load flow Solution
1: REC_MAC
2: Name Generator name
3: Bus name Generator bus name
4: Pg Active power Output (MW)
5: Qg Reactive power output (MVAR)
6: br State
MAC_CMXD : generator data
1: MAC_CMXD
2: Name Generator name
3: Rate Generator rated power (MWVAR)
4: Tj Time constant ( on the base of "Rate")
5: X' Transient reactance ( on the base of "Rate")
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