Inter-area Oscillations in Power Systems [electronic resource] : A Nonlinear and Nonstationary Perspective /
Messina, Arturo Roman.editor.
Inter-area Oscillations in Power Systems: A Nonlinear and Nonstationary Perspective deals with the development and application of advanced measurement-based signal processing techniques to the study, characterization, and control of inter-area oscillations in power systems. The material reviews recent advances in understanding, modeling and controlling system oscillations with special emphasis on the analysis and control of complex time-varying (and possibly nonlinear) power system transient processes. The book is organized into eight chapters written by leading researchers who are major contributors in this field. The authors provide techniques that explicitly address the nonlinear and nonstationary aspects of the problem. Efficient methods to generate time-varying system approximations from both measured and simulated data are proposed. Attention is also given to the vital new ideas of dynamic security assessment in real-time implementations and the development of smart, wide-area measurement and control systems incorporating FACTS technologies. Application examples include the analysis of real data collected on grids in western North America, Australia, Italy and Mexico. Inter-area Oscillations in Power Systems: A Nonlinear and Nonstationary Perspective is a comprehensive, systematic account of current analysis methods in power system oscillatory dynamics in both time and frequency domains ranging from parametric and non-parametric signal processing methods, to data-driven time-series models and statistical approaches.
Description based upon print version of record.
Includes bibliographical references and index.
Signal Processing Methods for Estimating Small-Signal Dynamic Properties from Measured Responses -- Enhancements to the Hilbert–Huang Transform for Application to Power System Oscillations -- Variants of Hilbert–Huang Transform with Applications to Power Systems’ Oscillatory Dynamics -- Practical Application of Hilbert Transform Techniques in Identifying Inter-area Oscillations -- A Real-Time Wide-Area Controller for Mitigating Small-Signal Instability -- Complex Empirical Orthogonal Function Analysis of Power System Oscillatory Dynamics -- Detection and Estimation of Nonstationary Power Transients -- Advanced Monitoring and Control Approaches for Enhancing Power System Security.
Inter-area Oscillations in Power Systems: A Nonlinear and Nonstationary Perspective deals with the development and application of advanced measurement-based signal processing techniques to the study, characterization, and control of inter-area oscillations in power systems. The material reviews recent advances in understanding, modeling and controlling system oscillations with special emphasis on the analysis and control of complex time-varying (and possibly nonlinear) power system transient processes. The book is organized into eight chapters written by leading researchers who are major contributors in this field. The authors provide techniques that explicitly address the nonlinear and nonstationary aspects of the problem. Efficient methods to generate time-varying system approximations from both measured and simulated data are proposed. Attention is also given to the vital new ideas of dynamic security assessment in real-time implementations and the development of smart, wide-area measurement and control systems incorporating FACTS technologies. Application examples include the analysis of real data collected on grids in western North America, Australia, Italy and Mexico. Inter-area Oscillations in Power Systems: A Nonlinear and Nonstationary Perspective is a comprehensive, systematic account of current analysis methods in power system oscillatory dynamics in both time and frequency domains ranging from parametric and non-parametric signal processing methods, to data-driven time-series models and statistical approaches.
Energy systems.
Signal processing.
Image processing.
Speech processing systems.
Electronics.
Microelectronics.
Energy Systems.
Signal, Image and Speech Processing.
Electronics and Microelectronics, Instrumentation.
Energy Systems.
Electric power system stability
Electric power systems Control
Oscillations
Power Electronics and Power Systems