基于扩展电动势模型的相位延迟缓解算法的IPM驱动器滑模观测器的改进

Zhuangyao Tang, B. Akin
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引用次数: 1

摘要

本文提出了一种新的滑模观测器(SMO),用于内部永磁电机的无传感器场定向控制(FOC)算法。由于永磁电机转子的显著性,表面贴装永磁电机的传统反电动势(back-emf)模型不能直接用于永磁电机观测器。为了解决这一问题,采用扩展电动势模型进行观测器设计。与许多其他基于EEMF模型的mos不同,该观测器中集成的相位延迟缓解算法(PDMA)在保持低通滤波器动态性能的同时显著降低了稳态估计误差。简单的结构使所提出的观测器成为成本敏感应用的理想候选者,保证了令人满意的性能和效率。理论分析、仿真和实验结果验证了该方法的保真度。
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An improved sliding-mode observer for IPM drives with a new phase delay mitigation algorithm based on extended electromotive force model
This paper presents a new sliding-mode observer (SMO) for interior permanent-magnet motors (IPM) to be utilized in sensorless field-oriented control (FOC) algorithms. Due to IPM's rotor saliency, the traditional back electromotive force (back-emf) model for surface-mount permanent motors (SPM) cannot be used in IPM observers directly. In order to address this problem, the extended electromotive force (EEMF) model is adopted for observer design. Unlike many other EEMF model based SMOs, the phase delay mitigation algorithm (PDMA) integrated in the proposed observer significantly reduces steady-state estimation error while maintaining low-pass filter's dynamic performance. The simple structure makes the proposed observer an ideal candidate for cost-sensitive applications which guarantees satisfactory performance and efficiency. Theoretical analysis, simulation and experimental results are provided to validate the fidelity of the proposed SMO.
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