Perturb and Observe based Online MTPA of PM Assisted SynRM for Traction Application

Laukik Desai, G. Ghosh, Anchal Saxena
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Abstract

Maximum torque per ampere (MTPA) control is necessary for achieving highest possible operational efficiency of a permanent magnet assisted synchronous reluctance motor (PMA-SynRM). However, large degree of parameter variation in these motors due to core saturation, elevated temperature and age makes it very difficult to implement a theoretical rule based MTPA that can achieve an acceptable degree of accuracy. Automatic MTPA approaches proposed till now present problems of increased computational intensity and requirement of extensive testing before control design. This paper attempts to address these issues by proposing a perturb and observe based online MTPA approach that is computationally simple and compensates parameter uncertainties automatically. Detailed simulation results are discussed to validate the accuracy of its MTPA trajectory and dynamic performance.
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基于扰动和观察的PM辅助SynRM牵引应用在线MTPA
最大转矩每安培(MTPA)控制是实现永磁辅助同步磁阻电机(PMA-SynRM)的最高运行效率所必需的。然而,由于铁芯饱和、温度升高和老化,这些电机的参数变化很大,因此很难实现基于理论规则的MTPA,从而达到可接受的精度。目前提出的自动MTPA方法存在计算强度大、控制设计前需要大量测试等问题。本文试图通过提出一种基于扰动和观测的在线MTPA方法来解决这些问题,该方法计算简单,并自动补偿参数的不确定性。详细的仿真结果验证了其MTPA轨迹和动态性能的准确性。
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