Real-Time Evaluation of Scattering Strength on Graphene Fet for Selective Sensing of Chemical Vapors

Huiliang Liu, Yumeng Liu, Yao Chu, Takeshi Hayasaka, Ying Dong, Xiaohao Wang, Zheng You, Liwei Lin
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引用次数: 3

Abstract

This work uses a real-time evaluation method on graphene field effect transistors (FETs) to characterize the scattering strength of chemical vapors at room temperature. Compared with state-of-art technologies, three distinctive advancements have been achieved: (1) an electrical measurement scheme on graphene FETs to evaluate the scattering strength of chemical vapors by the real-time estimation of carrier concentration and mobility; (2) the demonstration of quantitative test results for three chemical vapors (water, methanol, and ethanol) with different concentrations; and (3) the illustrations of the sensing selectivity in the binary mixture scenarios by the differentiable characteristics of scattering strength. As such, the proposed method of real-time scattering strength evaluation can offer a potential alternative approach for selective gas sensing.
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用于化学蒸气选择性传感的石墨烯场效应晶体管散射强度的实时评估
本研究使用石墨烯场效应晶体管(fet)的实时评估方法来表征室温下化学蒸气的散射强度。与现有技术相比,本研究取得了三个显著进展:(1)石墨烯场效应管的电测量方案,通过实时估计载流子浓度和迁移率来评估化学蒸气的散射强度;(2)对三种不同浓度的化学蒸汽(水、甲醇、乙醇)进行定量测试结果的演示;(3)利用散射强度的可微特性说明二元混合场景下的传感选择性。因此,所提出的实时散射强度评估方法可以为选择性气体传感提供潜在的替代方法。
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