二氧化氮检测用纳米结构石墨烯射频互补劈裂环谐振腔气体传感器的设计

S. Singh, P. Azad, M. Akhtar, K. Kar
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引用次数: 3

摘要

提出了一种结合纳米结构石墨烯的互补劈裂环谐振器(CSRR)来设计一种高效的射频气体传感器。利用富氮牛尿合成纳米结构石墨烯,也可称为氮掺杂石墨烯(NGn)。CSRR被蚀刻在FR4衬底上设计的微带线的背面,并被来自线顶部的电场激发。在本研究中,通过跟踪所设计的传感器暴露于气体环境时测量透射系数(S21)的谐振频率的变化来检测二氧化氮(NO2)气体。设计的NGn-CSRR传感器在室温下使用50-200 ppm的NO2测试了气体传感能力。即使在低至50ppm的NO2分子与所设计的传感器的NGn表面相互作用时,也观察到51 MHz的谐振频率偏移。所提出的NGn-CSRR射频传感器对极低痕量NO2的检测表明其在恶劣环境下NO2传感的应用价值。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design of Nanostructured Graphene Based RF Complementary Split Ring Resonator Gas Sensor for Detection of Nitrogen Dioxide
The complementary split ring resonator (CSRR) incorporated with the nanostructured graphene is proposed to design an efficient RF gas sensor. The nanostructured graphene is synthesized using the nitrogen rich cow urine, which can also be termed as the nitrogen doped graphene (NGn). The CSRR is etched on back side of the microstrip line designed on a FR4 substrate, and is excited by the electric field from top of the line. In this study, the nitrogen dioxide (NO2) gas is detected by tracking the shift in the resonant frequency of the measured transmission coefficient (S21) of the designed sensor when it is exposed to the gaseous environment. The gas sensing capability of designed NGn-CSRR sensor is tested at room temperature using 50–200 ppm of NO2. A shift in the resonant frequency of 51 MHz is observed even for as low as 50 ppm of NO2 molecules interacting with NGn surface of the designed sensor. The detection of very low traces of NO2 by the proposed NGn-CSRR RF sensor shows its application for NO2 sensing in harsh environment.
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