New Strategy Agents to Improve Power System Transient Stability
This paper proposes transient angle stability
agents to enhance power system stability. The proposed transient
angle stability agents divided into two strategy agents. The
first strategy agent is a prediction agent that will predict power
system instability. According to the prediction agent-s output,
the second strategy agent, which is a control agent, is automatically
calculating the amount of active power reduction that can
stabilize the system and initiating a control action. The control
action considered is turbine fast valving. The proposed strategies
are applied to a realistic power system, the IEEE 50-
generator system. Results show that the proposed technique can
be used on-line for power system instability prediction and control.
[1] C. C. Liu, J. Jung, G. T. Heydt, V. Vittal, and A. G. Phadke, "The
Strategic Power Infrastructure Defense (SPID) System," IEEE Control
Systems Magazine, vol. 20, pp. 40-52, Aug. 2000.
[2] Y. Kumar and A. Shandilya, "Development of Algorithm for Ranking
of Contingency and Sy stem Stability," in Proc. 1998 IEEE
Power Quality Conf., pp. 123-128.
[3] G. Karady, A. Daoud, and M. Mohamed: "On-Line Transient Stability
Enhancement Using Multi-Agent Technique," in Proc. 2002
IEEE Power Engineering Society Winter Meeting Conf., pp. 893-
899.
[4] A. Daoud, G. Karady, and I. Amin: "A New Fast Learning Algorithm
for Predicting Power System Stability," in Proc. 2001 IEEE
Power Engineering Society Winter Meeting Conf., pp.594 -598.
[5] B. Hove and J.J. Slotine, "Experiments in Robotic Catching," In
Proc. 1995 IEEE Int-l Robotics and Automation Conf., pp. 380-
385.
[6] G.G. Karady and M. A. Kattamesh, "Improving Transient Stability
Using Generator Tripping Based on Tracking Rotor-Angle," In
Proc. 2002 IEEE Power Engineering Society Winter Meeting Conf.,
pp.1113-1118.
[7] G.G. Karady, and M. A. Mohamed," Improving Transient Stability
Using Fast Valving Based on Tracking Rotor-Angle and Active
Power," In Proc. 2002 IEEE Power Engineering Society Summer
Meeting Conf., pp. -
[8] EPRI: "Extended Transient-Midterm St ability Program (ETMSP):
version 3.1," User Manual, Ontario Hydro, May 1994
[9] Z. Lin, V. Zeman, and R. Patel, "On-Line Robot Trajectory Planning
for Catching a Moving object," In Proc. 1995 IEEE Int-l Robotics
and Automation Conf., pp. 1726-1731.
[10] R. H. Park, "Fast Turbine Valving," IEEE Trans. Power Apparatus
and System, vol. 92, pp. 1065-1073, 1973.
[11] L. Edwards, "Turbine Fast Valving to Aid System Stability: Benefits
and Other Considerations," IEEE Trans. Power Systems, vol. 1, pp.
143-153, 1986.
[1] C. C. Liu, J. Jung, G. T. Heydt, V. Vittal, and A. G. Phadke, "The
Strategic Power Infrastructure Defense (SPID) System," IEEE Control
Systems Magazine, vol. 20, pp. 40-52, Aug. 2000.
[2] Y. Kumar and A. Shandilya, "Development of Algorithm for Ranking
of Contingency and Sy stem Stability," in Proc. 1998 IEEE
Power Quality Conf., pp. 123-128.
[3] G. Karady, A. Daoud, and M. Mohamed: "On-Line Transient Stability
Enhancement Using Multi-Agent Technique," in Proc. 2002
IEEE Power Engineering Society Winter Meeting Conf., pp. 893-
899.
[4] A. Daoud, G. Karady, and I. Amin: "A New Fast Learning Algorithm
for Predicting Power System Stability," in Proc. 2001 IEEE
Power Engineering Society Winter Meeting Conf., pp.594 -598.
[5] B. Hove and J.J. Slotine, "Experiments in Robotic Catching," In
Proc. 1995 IEEE Int-l Robotics and Automation Conf., pp. 380-
385.
[6] G.G. Karady and M. A. Kattamesh, "Improving Transient Stability
Using Generator Tripping Based on Tracking Rotor-Angle," In
Proc. 2002 IEEE Power Engineering Society Winter Meeting Conf.,
pp.1113-1118.
[7] G.G. Karady, and M. A. Mohamed," Improving Transient Stability
Using Fast Valving Based on Tracking Rotor-Angle and Active
Power," In Proc. 2002 IEEE Power Engineering Society Summer
Meeting Conf., pp. -
[8] EPRI: "Extended Transient-Midterm St ability Program (ETMSP):
version 3.1," User Manual, Ontario Hydro, May 1994
[9] Z. Lin, V. Zeman, and R. Patel, "On-Line Robot Trajectory Planning
for Catching a Moving object," In Proc. 1995 IEEE Int-l Robotics
and Automation Conf., pp. 1726-1731.
[10] R. H. Park, "Fast Turbine Valving," IEEE Trans. Power Apparatus
and System, vol. 92, pp. 1065-1073, 1973.
[11] L. Edwards, "Turbine Fast Valving to Aid System Stability: Benefits
and Other Considerations," IEEE Trans. Power Systems, vol. 1, pp.
143-153, 1986.
@article{"International Journal of Electrical, Electronic and Communication Sciences:53292", author = "Mansour A. Mohamed and George G. Karady and Ali M. Yousef", title = "New Strategy Agents to Improve Power System Transient Stability", abstract = "This paper proposes transient angle stability
agents to enhance power system stability. The proposed transient
angle stability agents divided into two strategy agents. The
first strategy agent is a prediction agent that will predict power
system instability. According to the prediction agent-s output,
the second strategy agent, which is a control agent, is automatically
calculating the amount of active power reduction that can
stabilize the system and initiating a control action. The control
action considered is turbine fast valving. The proposed strategies
are applied to a realistic power system, the IEEE 50-
generator system. Results show that the proposed technique can
be used on-line for power system instability prediction and control.", keywords = "Multi-agents, Fast Valving, Power System Transient Stability, Prediction methods,", volume = "1", number = "3", pages = "429-6", }