使用调制电压可扩展性的ipmms的最大电压利用率,用于宽磁链减弱应用

Sehwan Kim, Youngsun Lee, W. Choi, Mu-Shin Kwak, Young-kook Lee, J. Seok
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引用次数: 1

摘要

本文提出了一种适用于内置永磁同步电动机(ipmms)的混合最大电压利用控制器的开发和实现。它的结构结合了电流矢量控制(CVC)型最大转矩每安培(MTPA)控制器和调制电压缩放控制器(MVSC)。特别是,为了在MVSC区域实现真正的最大电压利用率,电流调节器被停用。混合结构通过在磁通减弱区取消电流调节器的激活,提供了从CVC到MVSC模式的平滑过渡。通过调整缩放增益,可以很容易地实现向全六步调制的无缝过渡,这可以被认为是宽磁链减弱应用中功率利用率方面的一个非常重要的优点。本文还试图研究电机参数漂移下的转矩控制精度,并提供如何使用电压干扰状态滤波器设计来解耦其影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Maximum voltage utilization of IPMSMs using modulating voltage scalability for wide flux weakening applications
This paper proposes the development and implementation of a hybrid maximum voltage utilization controller for interior permanent magnet synchronous motors (IPMSMs) over a wide operating region. It has a structure that combines the current vector control (CVC)-type Maximum Torque Per Ampere (MTPA) controller and the modulating voltage scaled controller (MVSC). Particularly, the current regulator is deactivated for achieving the true maximum voltage utilization in the MVSC region. The hybrid structure provides a smooth transition from the CVC to the proposed MVSC mode by deactivating the current regulator in the flux weakening region. A seamless transition to the full six-step modulation can be easily realized by adjusting a scaling gain, which can be considered a very significant merit in terms of power utilization for wide flux weakening applications. This paper also attempts to investigate the torque control accuracy under motor parameter drifts and provide how to decouple its influence using a voltage disturbance state-filter design.
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