Fabrication of the Trapezoidal electrodes and Electrets material for electrostatic energy harvester

M. Ahmad, M. H. M. Md Khir, J. Dennis
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Abstract

Conversion of the mechanical vibration into electrical energy has been found feasible with MEMS (Micro-Electro-Mechanical-System) electrostatic energy harvesting method. The electrostatic energy harvesting device is fabricated on a silicon wafer for use on miniaturize applications. This paper presents the detail fabrication processes of the electrostatic energy harvester components, i.e. the Trapezoidal electrodes and Electrets. The trapezoidal electrodes structure comprises of the seismic mass, serpentine beams and Aluminum electrodes whereas the electrets is made up of Silicon Dioxides (SiO2). The energy harvester components are designed with Cadence Virtuoso software and later fabricated at the wafer foundry leveraging the 0.35 μm CMOS processes on 200 mm silicon wafers. The trapezoidal electrodes and electrets fabrications went through seven and two masking steps respectively. Performance of the electrets material are evaluated with Corona charging method. Characterization results show that the CVD oxide exhibits good charge retention capability, hence is recommended for application as electrets material on the vibration-based electrostatic energy harvester.
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静电能量收集器用梯形电极及驻极体材料的制备
利用微机电系统(MEMS)静电能量收集方法将机械振动转化为电能是可行的。静电能量收集装置制造在硅片上,用于小型化应用。本文详细介绍了静电能量收集器部件梯形电极和驻极体的制作工艺。梯形电极结构由地震质量、蛇形梁和铝电极组成,而驻极体由二氧化硅(SiO2)组成。能量采集器组件是用Cadence Virtuoso软件设计的,然后在晶圆代工厂利用0.35 μm CMOS工艺在200毫米硅晶圆上制造。梯形电极和驻极体的制作分别经过7个和2个掩蔽步骤。用电晕充电法评价了该驻极体材料的性能。表征结果表明,CVD氧化物具有良好的电荷保持能力,因此推荐作为驻极体材料应用于基于振动的静电能量收集器。
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