Direct Torque Control for Open-End Winding Interior Permanent Magnet Synchronous Motor with multi-level hysteresis bandgap

Taeyong Yoon, H. Lee, Kyo-Beum Lee
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Abstract

This paper proposes improved direct torque control (DTC) method to drive an open-end winding interior permanent magnet synchronous motor (OEW-IPMSM). DTC provides fast response properties with simple control algorithm. In conventional DTC, torque and stator magnetic linkage flux are controlled by single bandgap that makes authorizing same magnitude of voltage vector. The single bandgap makes the variance of torque or stator magnetic linkage flux to be fixed, difficult to use in a wide range of speeds. In this paper, to drive wide speed regions, multi-level torque bandgap is applied by using dual inverters that has voltage vectors with three different magnitudes. When the variance of the torque is required to follow the reference, proposed method selects the voltage vector that have appropriate magnitude. The validity of the proposed DTC for OEW-IPMSM is verified by the simulation results.
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多级磁滞带隙开放式绕组内部永磁同步电动机的直接转矩控制
提出了一种改进的直接转矩控制(DTC)方法来驱动开放式绕组内置永磁同步电动机(OEW-IPMSM)。DTC以简单的控制算法提供快速的响应特性。在传统的直接转矩控制中,转矩和定子磁链磁通由单个带隙控制,使得电压矢量的有效值相同。单一带隙使得转矩的变化或定子磁链的磁通难以固定,难以在大的转速范围内使用。在本文中,为了驱动宽速度区域,使用具有三个不同幅度电压矢量的双逆变器施加多级转矩带隙。当要求转矩的方差跟随参考时,该方法选择具有适当幅度的电压矢量。仿真结果验证了该方法在OEW-IPMSM中的有效性。
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