Synchronized Motion Control for Electronic Differential System via Planetary Gear Mechanism

Guowei Chen, Trieu-Khang Tu, Chun-Lin Chen, M. Tsai
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Abstract

Considering the appealing transmission feature of planetary gear, this study presents a new electronic differential system (EDS) for electrical vehicles. The electronically-controlled transmission (E-CVT) of rear-wheel speeds regulation can be easily realized by the kinematic analysis of planetary gear. For EDS, simultaneously maintaining the trajectory and rear-wheel speeds in uncertain environments is also an essential problem. Therefore, a synchronized motion control structure is employed such that the synchronized speed error is reduced and the desired speed differential is achieved. The simulation results are given to validate the performance of the synchronized motion control for the dual E-CVT system used in EDS.
基于行星齿轮机构的电子差动系统同步运动控制
针对行星齿轮传动的特点,提出了一种新型电动汽车电子差速器系统。通过对行星齿轮的运动学分析,可以很容易地实现后轮调速的电控传动。对于EDS来说,在不确定环境中同时保持轨迹和后轮速度也是一个关键问题。因此,采用同步运动控制结构,以减少同步速度误差并实现所需的速度差。仿真结果验证了用于EDS的双E-CVT系统同步运动控制的性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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