期刊名称：Bulletin of the Institute of Heat Engineering
印刷版ISSN：2083-4187
出版年度：2016
卷号：96
期号：2
页码：124
语种：English
出版社：Warsaw University of Technology
摘要：In this paper, modeling and the Lyapunov-designed control approach are studied for the Wind Energy Conversion Systems(WECS). The objective of this study is to ensure the maximum energy production of a WECS while reducing the mechanicalstress on the shafts (turbine and generator). Furthermore, the proposed control strategy aims to optimize the wind energycaptured by the wind turbine operating under rating wind speed, using an Adaptive Gain Sliding Mode Control (AG-SMC). Theadaptation for the sliding gain and the torque estimation are carried out using the sliding surface as an improved solution thathandles the conventional sliding mode control. Furthermore, the resultant WECS control policy is relatively simple, meaningthe online computational cost and time are considerably reduced. Time-domain simulation studies are performed to discussthe effectiveness of the proposed control strategy.
其他摘要：In this paper, modeling and the Lyapunov-designed control approach are studied for the Wind Energy Conversion Systems (WECS). The objective of this study is to ensure the maximum energy production of a WECS while reducing the mechanical stress on the shafts (turbine and generator). Furthermore, the proposed control strategy aims to optimize the wind energy captured by the wind turbine operating under rating wind speed, using an Adaptive Gain Sliding Mode Control (AG-SMC). The adaptation for the sliding gain and the torque estimation are carried out using the sliding surface as an improved solution that handles the conventional sliding mode control. Furthermore, the resultant WECS control policy is relatively simple, meaning the online computational cost and time are considerably reduced. Time-domain simulation studies are performed to discuss the effectiveness of the proposed control strategy.
关键词：Wind turbine; Maximum power point tracking; Proportional integral controller; Adaptive sliding mode control
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