A novel metaheuristic approach for simultaneous loss minimization and torque ripple reduction of DTC- IM driven EV

IF 16.4
Anjan Kumar Sahoo
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引用次数: 0

Abstract

The efficiency and torque ripple of an electric vehicle (EV) determine its performance and driving range. An optimum reference flux increases efficiency and decreases torque ripple and harmonics. This strategy used in the current literature is based on either a lookup table or a search control approach. However, these methods have convergence issues at optimal values, require large memory spaces, have higher computational complexity, and are difficult to implement. In the recent literature, efforts have been made to improve either the efficiency or the ripple, whereas in this paper, a multi-objective dynamic reference flux selection algorithm based on teamwork optimization is used to improve the efficiency and ripples simultaneously for a wide range of operating scenarios. The proposed dynamic reference flux selection algorithm is evaluated numerically and compared using standard drive cycles, and the amount of energy a vehicle uses during different drive cycles is compared. The results obtained justify the effectiveness and feasibility of the proposed algorithm over a wide range of driving conditions.

Abstract Image

一种新的元启发式方法,用于同时减小直接转矩控制电机的损耗和转矩脉动
电动汽车的效率和转矩脉动决定着电动汽车的性能和续驶里程。最佳参考磁通可提高效率,减少转矩脉动和谐波。当前文献中使用的这种策略是基于查找表或搜索控制方法。然而,这些方法在最优值处存在收敛问题,需要较大的内存空间,具有较高的计算复杂度,并且难以实现。在最近的文献中,已经努力提高效率或波纹,而在本文中,采用基于团队优化的多目标动态参考通量选择算法来同时提高效率和波纹,适用于广泛的操作场景。采用标准驱动循环对所提出的动态参考通量选择算法进行了数值评价和比较,并比较了车辆在不同驱动循环下的能耗。仿真结果证明了该算法在多种工况下的有效性和可行性。
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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CiteScore
6.40
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