Loading [MathJax]/extensions/MathMenu.js
A digitally-controlled, real-time, analog power-system simulator for closed-loop protective relaying testing | IEEE Journals & Magazine | IEEE Xplore

A digitally-controlled, real-time, analog power-system simulator for closed-loop protective relaying testing


Abstract:

A power-system simulator is described that uses a control computer to configure an electronic analog model of a three-phase symmetrical power system and to set the model ...Show More

Abstract:

A power-system simulator is described that uses a control computer to configure an electronic analog model of a three-phase symmetrical power system and to set the model parameters. The model closely represents the dynamics of the real world up to 3 kHz. Precision high-power amplifiers convert the low-level analog signals to supply the protective relays under test. The design has been influenced by the key feature of closed-loop operation, with the relays functioning dynamically and in real time with the model. Nonlinearities are represented where significant, including the fault, transformer, arrester, and series-capacitor protection modules. The long-line transmission models represent the traveling-wave phenomena. Numerous system configurations can be selected. The data-acquisition system utilizes four digital computers, storing analog data at up to 25 kHz rate. The computers also analyze and manipulate the analog and event data and control a color plotter and printer. The emphasis of the discussion is on the analog models and the power amplifier designs.<>
Published in: IEEE Transactions on Power Delivery ( Volume: 3, Issue: 1, January 1988)
Page(s): 138 - 152
Date of Publication: 31 January 1988

ISSN Information:

References is not available for this document.

Select All
1.
D. P. Carroll, "Digital and hybrid computer simulation of power systems", Simulation, pp. 9-15, July 1973.
2.
J. L. Carel, M Souillard, G. Borgonovo and P.F. Lionetto, High-speed line protection performance investigated by transient network analyzer, 1984.
3.
W. S. Meyer and T. H. Liu, EMTP rule book, USA, OR, Portland:Bonneville Power Administration.
4.
P. Bornard and L. Rivet, A modern testing facility for EHV system protection, 1984.
5.
A. Williams and R. H. J. Warren, "Methods of using data from computer simulations to test protection equipment", Proc. IEE, vol. 131, no. 7, Nov. 1984.
6.
K. J. Åström, "Computer aided modeling analysis and design of control systems a perspective", Control Systems Magazine, May 1983.
7.
N. D. Rao and H.N. R. Rao, "Study of symmetrical and related components through the theory of linear vector spaces", Proc IEE, vol. 113, 1966.
8.
C. H. Thomas and R. A. Hedin, "Switching surges on transmission lines studied by differential analyzer simulation", IEEE Trans. PAS, vol. 88, pp. 636-645, 1969.
9.
C. K. Thomas, D. H. Welle, R. A. Hedin and R. W. Weishaupt, "Switching surges on parallel HV and EHV untransposed transmission lines studied by analog simulation", IEEE Trans. PAS, vol. 91, pp. 180-189, 1972.
10.
J. G. Kassakian, Effects of non-transposition and frequency dependent neutral modeling on the simulation of power transmission systems, September 1973.
11.
M. Chamia and S. Liberman, "Ultra high speed relay for UHV/EHV transmission lines. Development design and application", IEEE Trans., vol. PAS-97, pp. 6, 1978.
12.
K. Morsztyn, "Ten years of experience with the Monash TNA modelling techniques used and examples of application", Symposium on High Voltage Switching Equipment, 1979-May-29-30.
13.
R. Joetten, "A new real-time simulator for power system studies", IEEE Transactions, vol. PAS-104, no. 9, pp. 2604-2610, September 1985.
14.
M. Jackson, System development, Prentice Hall International, 1983.

Contact IEEE to Subscribe

References

References is not available for this document.