Frequency control by aluminum smelter load response in an isolated wind power system: A study for an industrial case

Hao Jiang, Jin Lin, Yonghua Song, Xiaoming Li, Jianxun Dong
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引用次数: 4

Abstract

Reducing fossil consumptions of aluminum smelting productions, which consumes around 8% electricity annually in China, is of significantly meaningful for China's energy section. One possible solution is by integrating wind power to supply for part of aluminum smelter loads. Based on this background, the paper studies an actual industrial case which is an isolated power system with as high as 30% wind penetration level integrated for aluminum production. After the integration of wind power, frequency stability issues become critical in such a system. This paper hence proposes a demand-side frequency control scheme, which uses self-saturable reactors to control load power of aluminum smelters responding to frequency deviations of this system. The scheme is designed based on the relationship between the input DC voltage of smelting loads and the commutation voltage drop which can be adjusted by self-saturable reactors. A numerical case study demonstrates the effectiveness of the proposed control scheme under the scenario considering with wind power outputs.
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孤立风力发电系统中铝厂负荷响应的频率控制:一个工业案例研究
在中国,铝冶炼生产每年消耗约8%的电力,减少化石燃料的消耗对中国的能源部门具有重要意义。一种可能的解决方案是将风力发电整合到铝厂的部分负荷中。基于此背景,本文研究了一个实际的工业案例,该案例是一个风力穿透度高达30%的孤立电力系统集成用于铝生产。风电并网后,系统的频率稳定性问题变得至关重要。因此,本文提出了一种需求侧频率控制方案,利用自饱和电抗器根据系统的频率偏差控制铝厂的负荷功率。该方案是根据冶炼负荷输入直流电压与换向压降的关系设计的,换向压降可由自饱和电抗器调节。算例分析表明,在考虑风力输出的情况下,所提出的控制方案是有效的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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