Optimal excitation of a high speed switched reluctance generator

E. Meşe, Y. Sozer, J. Kokernak, D. Torrey
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引用次数: 61

Abstract

This paper presents a new approach for controlling a switched-reluctance generator (SRG). The control objective is to produce the required power using the excitation that produces the highest efficiency. The SRG considered here operates above base speed. The turn-on and the conduction angles are the only control parameters that can be used to optimize the power conversion. The conventional control method that advances the turn-on angle as the speed increases is not enough to produce optimum performance. The turn-on and the conduction angles together are the key elements for optimal excitation. Optimization of the excitation angles is performed using a machine model based on finite element analysis. For all of the operating speeds, all possible turn-on and conduction angles are simulated to get the desired power output. The excitation angles using the minimum RMS phase currents are chosen among those that give the desired output power. The control strategy is experimentally tested using a 6 kW 5000 rpm SRG. The control algorithm is able to provide required power with very good generator efficiency.
高速开关磁阻发电机的最优励磁
提出了一种控制开关磁阻发电机的新方法。控制目标是利用产生最高效率的励磁产生所需的功率。这里考虑的SRG运行在基本速度之上。导通角和导通角是唯一可以用来优化功率转换的控制参数。传统的随转速增加而增大导通角的控制方法不足以产生最佳性能。导通角和导通角是最佳激励的关键因素。利用基于有限元分析的机械模型对激振角进行了优化。对于所有的工作速度,模拟所有可能的导通和导通角度,以获得所需的功率输出。使用最小有效值相电流的激励角是从提供所需输出功率的角度中选择的。采用6kw 5000rpm SRG对控制策略进行了实验测试。该控制算法能够提供所需的功率,并具有很好的发电机效率。
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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