Microwave biosensor based on a double metamaterial particle

S. Gamouh, A. Chaabi
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引用次数: 3

Abstract

In this paper, a theoretical study of biosensor based on microwave split-ring resonators (SRRs) excited by microstrip transmission line is presented. The sensor consists of a microstrip line loaded with circular SRRs on both sides. The proposed metamaterial sensor was designed on Rogers RT5880 substrate having dielectric constant of 2.2 and thickness of 0.76 mm. The operating principle of these biosensor is based on the interaction of the electromagnetic near-field generated by the sensor with the samples under investigation. The SRR can be considered as an LC resonator circuit whose frequency response is very sensitive to the changes in capacitive and inductive effects. At the resonance frequency, the resonator develops an intense and localized electric across the split, enabling sensitive detection of extremely small amounts of simples. The detection method is based on the principle of the shift of the resonance frequency as a function of the relative permittivity of the loading sample. In order to enhance sensing performance of the device, a new split gap are adding in each rings, that will provide a strong and localized field enhancement in the selected area, increasing the high electric field region. The shift of the resonance frequency in the presence of a sample material is characterized by multiple resonant frequencies, upon introduction of several samples with different dielectric value. The metamaterial resonator is tested through proper full-wave numerical simulation (HFSS) based on the finite element method (FEM).
基于双超材料粒子的微波生物传感器
本文对微带传输线激发的微波劈环谐振器生物传感器进行了理论研究。该传感器由一条两侧装有圆形srr的微带线组成。所提出的超材料传感器设计在介电常数为2.2、厚度为0.76 mm的Rogers RT5880衬底上。这些生物传感器的工作原理是基于传感器产生的电磁近场与被测样品的相互作用。SRR可以看作是一个LC谐振电路,其频率响应对电容效应和电感效应的变化非常敏感。在共振频率下,谐振器在分裂上产生强烈的局部电,从而能够对极少量的样品进行敏感检测。该检测方法基于谐振频率的位移作为加载样品相对介电常数的函数的原理。为了提高器件的传感性能,在每个环中增加了一个新的分裂间隙,这将在选定的区域提供强大的局部场增强,增加了高电场区域。在样品材料存在的情况下,谐振频率的移位表现为在引入几个具有不同介电值的样品后出现多个谐振频率。采用基于有限元法的全波数值模拟方法对超材料谐振腔进行了测试。
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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