Design and Fabrication of Glass based MEMS Patch Antenna for Energy Harvester

J. Yunas, N. H. Mohd Yunus, J. Sampe, A. Nandiyanto
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引用次数: 2

Abstract

This paper describes the design and fabrication of MEMS patch antenna fabricated on glass substrate for RF energy harvester system. The idea was derived from the great property of glass, such as transparency, high mechanical surface strength and good dielectric property that is predicted to replace the conventional and silicon semiconductor material as the substrate for an RF energy capture. Aim of the study is to develop MEMS patch antenna that should be compatible with 180 nm CMOS process. The antenna device consists of a substrate, slotted petal conductor, ground plane and impedance matched output slot. The substrate is made of pyrex glass and fabricated using a surface micromachine process technique. The fabricated device is then measured in an anechoic chamber and compared with other antenna made of silicon and standard conventional antenna substrate. The results show that the patch antenna on glass performs similar to the conventional antenna fabricated on RT/Duroid that show very promising alternative substrate material for an energy harvester system where size, weight, cost, performance, ease of installation and fabrication are constrains.
能量采集器用玻璃基MEMS贴片天线的设计与制造
介绍了用于射频能量采集系统的玻璃基板MEMS贴片天线的设计与制作。这个想法源于玻璃的巨大特性,如透明度,高机械表面强度和良好的介电性能,预计将取代传统和硅半导体材料作为射频能量捕获的衬底。研究的目的是开发与180nm CMOS工艺兼容的MEMS贴片天线。该天线装置由基板、开槽花瓣导体、接地面和阻抗匹配输出槽组成。基板由耐热玻璃制成,并使用表面微机械加工技术制造。然后在消声室中测量该装置,并与其他由硅和标准传统天线基片制成的天线进行比较。结果表明,玻璃上的贴片天线的性能与RT/Duroid上制造的传统天线相似,对于能量收集器系统来说,尺寸、重量、成本、性能、安装和制造的便利性受到限制,这是非常有前途的替代基板材料。
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