Experimental verification of conventional phase advancement method for surface permanent magnet motor with fractional-slot concentrated windings

Niranjan A. Patil, J. Lawler
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引用次数: 1

Abstract

The ability of permanent magnet synchronous motors to operate over a wide constant power speed ratio depends on the motor winding inductance [1]. Previous work has shown that PM motors with "sufficiently high" inductance, if operated with conventional phase advancement [4] method, can widen the CPSR significantly [3]. Compared to traditional vector control, this method is computationally very simple and does not involve any transformations. Only speed and rotor angle feedback is needed to produce the required power. It does not require any motor current or voltage feedback. Surface PM machines with distributed windings have lower phase winding inductance. Recently a method has been developed to use fractional slot concentrated windings to significantly increase the surface PM machine inductance [5]. The increased inductance method is compatible with a voltage source inverter (VSI) controlled by the sinusoidal pulse width modulation (PWM).This paper presents the analysis of the CPA controller for high inductance PM machines for traction drive application.
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分数槽集中绕组表面永磁电机常规进相方法的实验验证
永磁同步电机在较宽的恒功率速比范围内运行的能力取决于电机的绕组电感[1]。先前的研究表明,具有“足够高”电感的永磁电机,如果采用传统的相位推进[4]方法,可以显着拓宽CPSR[3]。与传统的矢量控制相比,该方法计算非常简单,不涉及任何变换。只需要速度和转子角度反馈来产生所需的功率。它不需要任何电机电流或电压反馈。采用分布式绕组的表面永磁电机具有较低的绕组电感。最近已经开发出一种方法,使用分数槽集中绕组来显着增加表面永磁电机的电感[5]。该方法适用于正弦脉宽调制(PWM)控制的电压源逆变器(VSI)。本文分析了用于牵引驱动的高电感永磁电机的CPA控制器。
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