MEMS Energy Harvester Utilizing a Multi-pole Magnet and a High-aspect-ratio Array Coil for Low Frequency Vibrations

D. Han, M. Kine, T. Shinshi, S. Kadota
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引用次数: 1

Abstract

This paper presents a new micro-electromagnetic power generator with a large output power density for the application of low frequency vibrations $(\le 10$ Hz). The 16-poles thin magnet plate $(8.9 \times 8.9 \times \mathrm{t}0.5$ mm) alternately magnetized with a chessboard pattern by laser assisted heating helps enhance the magnetic field to coils. The high-aspect-ratio microarray coil (4 x 6 matrix, coil width: $80 \mu \mathrm{m}$, coil thickness: $160 \mu \mathrm{m}$, total turns: 144/coil unit) fabricated by thick micromolding is beneficial for increasing coil winding density and reducing its resistance. The fabricated prototype is proved to generate 1.63 mV at 10 Hz and 2 mm excitation. This corresponds to a maximum output power of $0.12 \mu \mathrm{W}$ and a maximum power density of $1.03 \mu \mathrm{W} /$cm3.
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利用多极磁体和高纵横比阵列线圈进行低频振动的MEMS能量采集器
本文提出了一种新型的用于低频振动的大输出功率密度微电磁发电机($(\le 10$ Hz)。16极薄磁板$(8.9 \times 8.9 \times \mathrm{t}0.5$毫米)交替磁化与棋盘图案的激光辅助加热有助于增强磁场线圈。高纵横比微阵列线圈(4 × 6矩阵,线圈宽度:$80 \mu \mathrm{m}$,线圈厚度:$160 \mu \mathrm{m}$,总匝数:144/线圈单位)制造的厚微成型有利于增加线圈的缠绕密度和降低其电阻。实验证明,该原型在10 Hz和2 mm激励下产生1.63 mV。这对应于最大输出功率$0.12 \mu \mathrm{W}$和最大功率密度$1.03 \mu \mathrm{W} /$ cm3。
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