用于硫化氢气体检测的基于ai的FBAR谐振器设计与仿真。

Saeed S. Ba Hashwan, M. H. M. Md Khir, Y. Al-Douri, A. Algamili, S. S. Alabsi
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引用次数: 1

摘要

介绍了基于氮化铝(AIN)薄膜的用于硫化氢气体检测的薄膜体声谐振器(FBAR)传感器的数学建模、设计和仿真。根据PiezoMUMPs制造技术设计了FBAR传感器。利用MATLAB和CoventorWare软件对FBAR传感器的谐振频率进行了数学建模和有限元仿真。谐振频率监测被认为是FBAR气体传感器检测机构的核心原理。FBAR传感器的基本原理是由于硫化氢气体的吸收引起涂覆在顶电极表面的纳米材料敏感层的质量变化而引起谐振频率的降低。阐述了氧化石墨烯-氧化铜杂化薄膜作为敏感层的研究进展,并在理论计算中对其负载质量进行了评价。FBAR传感器厚度扩展模态的理论计算谐振频率为9.4524 GHz,采用CoventorWare仿真软件进行了验证,结果表明计算频率和仿真频率吻合良好,分别为9.4524 GHz和8.955 GHz。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design and simulation of AIN-Based FBAR Resonator for Hydrogen sulfide Gas detection.
The mathematical modeling, design, and simulation of the film bulk acoustic resonator (FBAR) sensor based on Aluminum nitride (AIN) thin film for hydrogen sulfide gas detection are presented in this paper. The FBAR sensor is designed according PiezoMUMPs fabrication technology. The mathematical modeling and finite element simulation were performed using MATLAB and CoventorWare software to investigate the FBAR sensor resonant frequency. The resonant frequency monitoring is considered the core principle of the FBAR gas sensor detection mechanism. The fundamental of the FBAR sensor is based on the resonant frequency reduction due to the mass changes of the nanomaterial sensitive layer that coated on the surface of the top electrode induced by hydrogen sulfide gas species absorption. The development of the graphene oxide-copper oxide hybrid thin film as sensitive layer is illustrated and their mass loaded was evaluated in the theoretical calculation. The theoretical calculation of the resonant frequency for the thickness extensional mode of the FBAR sensor was found to be 9.4524 GHz and it was verified using the CoventorWare simulation software which shown an excellent agreement between both calculated and simulated frequencies which found to be 9.4524 and 8.955 GHz, respectively.
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