DEVELOPMENT OF A RF BIOSENSOR DESIGN TO DETECT CHANGES IN SCATTERING PARAMETERS OF AQUEOUS MATERIALS DURING RADIO FREQUENCY WAVE EXPOSURE

M. Pearson, D. Ewert, R. Striker, B. Braaten
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引用次数: 1

Abstract

The advancing field of biosensor design continues pushing for smaller, inexpensive, yet accurate sensor designs. A subset of biosensors operating in the radio frequency (RF) range of electromagnetic (EM) waves, called RF biosensors, offer appeal as a non-destructive, non-invasive form of sensing. A novel RF biosensor is proposed which detects changes in scattering parameter measurements of a microliter, aqueous material under test (MUT) held within a well adjacent to a microstrip transmission line. This sensing design measures scattering parameter data and changes in these measurements offer insight into the effects of RF wave exposure on dielectric materials within the well. The following paper describes design considerations and the sensing technique of the proposed RF biosensor. Simulations were run in incremental steps to first, establish the simulation design of a 50-ohm microstrip transmission line using two software packages ADS and Ansys HFSS. Next, experimental measurements were collected by milling the RF biosensor, first using air and then distilled water as the MUT, and finally comparing to simulations to establish validity of the novel sensing device. Next, experimental S-parameter measurements were obtained and compared between the two test cases to determine if a difference could be detected. Both simulated and experimentally obtained measurements suggest the designed RF biosensor can detect changes in the MUT loaded inside its etched well and therefore can be used as a sensing device.
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射频生物传感器的研制用于检测水性材料在射频波照射过程中散射参数的变化
生物传感器设计领域的发展继续推动更小、更便宜、更精确的传感器设计。在电磁波(EM)的射频(RF)范围内工作的生物传感器的一个子集,称为RF生物传感器,作为一种非破坏性、非侵入性的传感形式提供了吸引力。提出了一种新型射频生物传感器,用于检测微升被测水材料(MUT)在微带传输线附近的井中散射参数的变化。这种传感设计可以测量散射参数数据,这些测量数据的变化可以深入了解射频波暴露对井内介电材料的影响。下面的文章描述了所提出的射频生物传感器的设计考虑和传感技术。首先,利用ADS和Ansys HFSS两个软件包建立了50欧姆微带传输线的仿真设计。接下来,通过研磨RF生物传感器收集实验测量数据,首先使用空气,然后使用蒸馏水作为MUT,最后与仿真进行比较,以确定新型传感装置的有效性。接下来,获得实验s参数测量值,并在两个测试用例之间进行比较,以确定是否可以检测到差异。模拟和实验测量结果表明,所设计的射频生物传感器可以检测其蚀刻井内加载的MUT的变化,因此可以用作传感装置。
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