Gas sensors based on silicon chip-to-chip synthesis of tin oxide nanowires

G. Mutinati, E. Brunet, T. Maier, S. Steinhauer, A. Kock
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Abstract

We demonstrate a novel gas sensor device, which is based on silicon chip-to-chip synthesis of ultralong tin oxide (SnO2) nanowires. The sensor device employs an interconnected nanowire network configuration, which exhibits a huge surface-to-volume ratio and provides full access of the target gas to the nanowires. The chip-to-chip SnO2 nanowire device has an extraordinary sensitivity to the toxic gas H2S. A concentration of only 1.4 ppm decreases the resistance of the sensor by ∼ 85%, which demonstrates a detection limit far in the ppb range. The SnO2-nanowire fabrication procedure based on spray pyrolysis and subsequent annealing is performed at atmospheric pressure, requires no vacuum and allows upscale of the substrate to a wafer size. 3D-integration with CMOS chips is proposed as viable way for practical realization of smart nanowire based gas sensor devices for the consumer market.
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基于硅片对片合成氧化锡纳米线的气体传感器
我们展示了一种新型的气体传感器装置,该装置基于硅片对片合成的超长氧化锡(SnO2)纳米线。该传感器装置采用了相互连接的纳米线网络结构,具有巨大的表面体积比,并提供了目标气体与纳米线的完全接触。芯片对芯片的SnO2纳米线器件对有毒气体H2S具有非凡的敏感性。仅1.4 ppm的浓度将传感器的电阻降低约85%,这表明在ppb范围内的检测极限。基于喷雾热解和后续退火的sno2纳米线制造过程在常压下进行,不需要真空,并且可以将衬底升级到晶圆尺寸。提出了与CMOS芯片的3d集成是面向消费市场的智能纳米线气体传感器器件实际实现的可行途径。
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