Interarea Power System Oscillations Damping via AI-based Referential Integrity Variable-Structure Control
Affiliation auteurs | !!!! Error affiliation !!!! |
Titre | Interarea Power System Oscillations Damping via AI-based Referential Integrity Variable-Structure Control |
Type de publication | Journal Article |
Year of Publication | 2016 |
Auteurs | Ebrahim M.A, Ramadan H.S |
Journal | INTERNATIONAL JOURNAL OF EMERGING ELECTRIC POWER SYSTEMS |
Volume | 17 |
Pagination | 497-509 |
Date Published | OCT |
Type of Article | Article |
ISSN | 1553-779X |
Mots-clés | adaptive control, fuzzy-logic control, inter-area oscillations, power system stabilizer, variable-structure algorithm |
Résumé | The design of power system stabilizer (PSS) is load-dependent and needs continuous adjustment at each operating condition. This paper aims at introducing a robust non-fragile PSS for interconnected power systems. The proposed controller has the capability of adaptively tuning online its rule-base through a variable-structure direct adaptive control algorithm in order to rigorously attain the desired objectives. The PSS controller acts on damping the electromechanical modes of oscillations not only through a wide range of operating conditions but also in presence of different disturbances. Using MATLABTM-Simulink, simulation results significantly verify that the proposed controller provides favorable performance and efficiently contributes towards enhancing the system dynamic behavior when applied to the four machines two-area power system that mimics the typical system behavior in actual operation. The interaction between the variable-structure adaptive fuzzybased power system stabilizer (VS-AFPSS) and the existed typical ones inside the interconnected power systems has been explicitly discussed. Compared to other conventional controllers, VS-AFPSS enables better damping characteristics to both local and inter-area oscillation modes considering different operating conditions and sever disturbances. |
DOI | 10.1515/ijeeps-2016-0147 |