Dynamic Performance Improvement of Brushless DC Motors Using a Hybrid MTPV/MTPA Control

J. Zhou, S. Ebrahimi, J. Jatskevich
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Abstract

Brushless dc (BLDC) motors are widely utilized in many applications. The classical maximum torque per ampere (MTPA) and maximum torque per voltage (MTPV) control strategies are commonly used with BLDC motors due to being straightforward and easy to implement. However, these classical control techniques have their own drawbacks. Specifically, the MTPA achieves high efficiency in steady-state but does not fully utilize the torque capability during transients. Meanwhile, the MTPV allows faster dynamic response but degrades the efficiency in steady-state conditions. To fully exploit the advantages of both methods, this paper proposes a new combined control scheme which utilizes MTPA and/or MTPV methods based on the operating conditions. Specifically, during steady-state operation, the MTPA is adopted due to its high efficiency, while the controller smoothly converts to the MTPV in transients to fully exploit the torque capability and achieve faster dynamic response. The proposed hybrid control method is demonstrated on an example industrial BLDC motor and is shown to achieve high efficiency in steady-state (similar to MTPA) and fast dynamic response (similar to MTPV).
利用MTPV/MTPA混合控制改善无刷直流电机动态性能
无刷直流(BLDC)电机广泛应用于许多领域。经典的每安培最大转矩(MTPA)和每电压最大转矩(MTPV)控制策略通常用于无刷直流电机,因为它简单易用。然而,这些经典的控制技术有其自身的缺点。具体而言,MTPA在稳态时具有较高的效率,但在瞬态时没有充分利用扭矩能力。同时,MTPV允许更快的动态响应,但会降低稳态条件下的效率。为了充分发挥这两种方法的优点,本文提出了一种新的组合控制方案,根据运行情况,采用MTPA和/或MTPV方法。具体而言,在稳态运行时,由于MTPA效率高,采用MTPA,而控制器在瞬态平稳地转换为MTPV,以充分利用转矩能力,实现更快的动态响应。在一个工业用无刷直流电机实例上进行了验证,结果表明该混合控制方法具有稳态效率高(类似于MTPA)和动态响应快(类似于MTPV)的特点。
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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