单个纳米线化学传感器系统自供电与能量清除技术

J. Prades, R. Jiménez-Díaz, F. Hernandez-Ramírez, A. Cirera, A. Romano-Rodríguez, J. Morante
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引用次数: 4

摘要

提出了一种全自动化学气体传感器系统。该系统基于电导测量(自热)中应用的偏置电流所产生的焦耳效应,利用单个纳米线上的耗散功率,从而可以将这些微小质量的纳米线加热到气体传感应用的最佳温度。这种新颖的方法只需要几毫瓦的功率就可以对传感器进行偏置、加热和测量。我们还证明,这些设备的低功耗要求可以由最先进的能量清除技术提供,如热电微型发电机。综上所述,该系统是朝着完全自主和分布式气体传感器网络迈出的重要一步,无需更换电池。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Individual nanowire chemical sensor system self-powered with energy scavenging technologies
A fully autonomous chemical gas sensor system is presented. This system is based on the exploitation of dissipated power at individual nanowires by Joule effect due to the bias current applied in conductometric measurements (self-heating), which enables heating the tiny mass of these wires up to the optimum temperatures for gas sensing applications. This novel approach only requires few miliwatts to bias, heat and measure the sensors. We also demonstrate that the low-power requirements of these devices can be supplied by state-of-the-art energy scavenging technologies, like thermoelectric microgenerators. For all this, the here-presented system is an important step forward toward fully autonomous and distributed gas sensor networks without the need of battery replacement.
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