Development of electromagnetic induction type MEMS air turbine generator with ball bearing

K. Mishima, Y. Yokozeki, Y. Han, M. Takato, K. Saito, F. Uchikoba
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引用次数: 1

Abstract

This paper suggests the MEMS air turbine that used for the MEMS electromagnetic induction type generator. In the MEMS air turbine that employed the fluid dynamic bearing system, the gap between the magnet and the magnetic circuit and the eccentric motion of the rotor are problem in the high efficiency and the high output power. The developed MEMS air turbine has miniature silicon structure and the miniature bearing structure. The bearing structure is extended to suppress the eccentric motion and to close the gap between the magnet and the magnetic circuit. The dimension error of the fabricated MEMS air turbine components is less than ± 6 micro meter. Therefore, the microstructure with high-accuracy and high-aspect-ratio can be fabricated by the MEMS process. By forming the guide structure, the assembly error is less than ± 5 micro meter. The combined MEMS air turbine with the ball bearing is achieved, and the dimensions are 4.36 mm, 4.25 mm, and 3.60mm, respectively. Moreover, it is possible to close the distance of the gap by introducing the bearing structure. In the rotational experiment, the rotational motion of the rotor is achieved when the magnetic force applying from the outside of the fabricated turbine. Accordingly, it is possible to realize the rotational structure that is combined with the MEMS silicon components and the ball bearing. In the future work, in order to achieve the rotational motion by the air pressure, the rotational structure will be optimization about the reducing weight of the rotor and the air passage.
球轴承电磁感应式MEMS空气汽轮发电机的研制
本文提出了用于微机电磁感应式发电机的微机电空气涡轮。在采用流体动力轴承系统的MEMS空气涡轮中,磁体与磁路之间的间隙和转子的偏心运动是影响高效率和高输出功率的主要问题。所研制的MEMS空气涡轮具有微型硅结构和微型轴承结构。扩展了轴承结构以抑制偏心运动并关闭磁铁与磁路之间的间隙。制造的MEMS空气涡轮部件尺寸误差小于±6微米。因此,利用MEMS工艺可以制造高精度、高纵横比的微结构。通过形成导向结构,装配误差小于±5微米。实现了与滚珠轴承组合的MEMS空气涡轮,尺寸分别为4.36 mm、4.25 mm和3.60mm。此外,可以通过引入轴承结构来缩小间隙的距离。在旋转实验中,当从制造的涡轮外部施加磁力时,转子实现旋转运动。因此,可以实现MEMS硅元件与滚珠轴承相结合的旋转结构。在今后的工作中,为了实现空气压力的旋转运动,将对旋转结构进行优化,减轻转子和空气通道的重量。
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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