插入大型风力发电对互联系统动态行为的影响

I. Erlich, F. Shewarega
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引用次数: 21

摘要

本文讨论了在突发事件发生期间和之后,风力发电增加对互联系统行为的影响。考虑的问题是故障后机电振荡的阻尼行为,严重短路期间的性能和突然断电后的频率稳定性。首先,对基于双馈感应(DFIM)的风力发电机和传统同步发电机在独立模式下进行了仿真,以证明它们在阻尼行为方面的根本差异。然后将该模型扩展到研究DFIM在严重故障期间的特征行为,以评估其故障穿越能力的极限。最后,利用一个大型互联系统,讨论了风电发电量增加对系统失电后频率稳定性的影响。
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Insert impact of large-scale wind power generation on the dynamic behaviour of interconnected systems
This paper deals with the impact of increased wind power generation on the behavior of the interconnected system during and after a contingency situation. The issues considered are the post-fault damping behavior of electromechanical oscillations, performance during a severe short-circuit and frequency stability after a sudden loss of generation. First, the doubly-fed induction (DFIM) based wind turbine and a conventional synchronous generator were simulated in a standalone mode to demonstrate the fundamental differences in terms of their damping behavior. The model was then extended to investigate the characteristic behavior of the DFIM during a severe fault to assess the limits of its fault ride-through capability. Finally, using a large interconnected system the effect of increased wind power generation on the frequency stability of the system after a loss of generation has been discussed.
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