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Estimation Method of Center of Inertia Frequency Based on Phasor Measurement Data

Estimation Method of Center of Inertia Frequency Based on Phasor Measurement Data
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摘要 In the world, recent increased disturbances, congestion management problems, and increases of complexity in operating power systems have brought the need for integrations and improvements of power systems. Advanced applications in WAMPAC (wide area monitoring, protection, and control) systems provide a cost effective solution to improve system planning, operation, maintenance, and energy trading. Synchronized measurement technology and the application are an important element of WAMPAC. In addition, PMUs (phasor measurement units) are the most accurate and advanced time-synchronized technology available for WAMPAC application. Therefore, the original measurement system of PMUs has been constructed in Japan. This paper describes the estimation method of a center of inertia frequency by applying actual measurement data. The application of this method enables us to extract power system oscillations from measurement data appropriately. Moreover, this proposed method will help to the clarification of power system dynamics and this application will make it possible to realize the monitoring of power system oscillations associated with the power system stability.
出处 《Journal of Energy and Power Engineering》 2012年第3期434-445,共12页 能源与动力工程(美国大卫英文)
关键词 Phasor measurement unit power system oscillations signal processing center of inertia frequency monitoring. 相量测量单元 估计方法 数据中心 频率 惯性 电力系统振荡 时间同步技术 高级应用
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参考文献16

  • 1K.E. Martin, G. Benmouyal, M.G. Adamiak, M. Begovic, R.O. Burnett, A. Cobb, et al., IEEE standard for synchrophasors for power systems, IEEE Trans. on Power Delivery 13 (1) (1998) 73-77.
  • 2T.L. Baldwin, L. Mili, M.B. Boisen, R. Adapa, Power system observability with minimal phasor measurement placement, IEEE Trans. on Power Systems 8 (2) (1993) 707-715.
  • 3R.O. BurneR, M.M. Butts, T.W. Cease, V. Centeno, G. Michel, R.J. Murphy, et al., Synchronized phasor measurements of a power system event, IEEE Trans. on Power Systems 9 (3) (1994) 1643-1650.
  • 4C.W. Liu, J.S. Thorp, J. Lu, R.J. Thomas, H.D. Chiang, Detection of transiently chaotic swings in power systems using real-time phasor measurements, IEEE Trans. on Power Systems 9 (3) (1994) 1285-1292.
  • 5J.A.O. Serna, K.E. Martin, Improving phasor measurements under power system oscillations, IEEE Trans. on Power Systems 18 (1) (2003) 160-166.
  • 6Z.Q. Bo, G. Weller, T. Lomas, M.A. Redfern, Positional protection of transmission systems using global positioning system, IEEE Trans. on Power Delivery 15 (4) (2000) 1163-1168.
  • 7A.G. Phadke, J.S. Thorp, K.J. Karimi, State estimation with phasor measurements, IEEE Trans. on Power Systems 1 (1) (1986) 233-251.
  • 8J.S. Thorp, A.G. Phadke, S.H. Horowitz, M.M. Begovic, Some applications of phasor measurements to adaptive protection, IEEE Trans. on Power Systems 3 (2) (1988) 791-798.
  • 9H. Gao, J. He, S. Jiang, GPS synchronized digital current differential protection for transmission lines, Electric Power Systems Research 62 (2002) 29-36.
  • 10B. Milosevic, M. Begovic, Voltage-stability protection and control using a wide-area network of phasor measurements, IEEE Trans. on Power Systems 18 (1)(2003) 121-127.

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