Design, fabrication, and characterization of graphene thermistor

H. Al-Mumen, F. Rao, Lixin Dong, Wen Li
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引用次数: 19

Abstract

This paper reported a new application of graphene that is graphened thermistor. Mono-layer, bi-layer and few-layer graphene devices with different dimensions were designed and fabricated. Temperature sensing behavior of graphene has been studied in a small temperature range from room temperature (RT) to 80°C because this range is important in electronic instrumentations and integrated circuit design. Thermal inertia of the graphenes was studied at a temperature of 80°C and the sensing behavior was characterized by measuring the time response of the normalized resistances. Our preliminary results demonstrated a higher negative temperature coefficient of the bilayer graphene those of mono-layer and few-layer graphenes. In addition, engineered graphene resistance based on its dimension has been investigated. This technique provides a strong candidate for temperature sensing in the micro and nano industrial applications with high reliability, high sensitivity and low cost.
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石墨烯热敏电阻的设计、制造和表征
本文报道了石墨烯的一种新应用——石墨化热敏电阻。设计并制作了不同尺寸的单层、双层和少层石墨烯器件。石墨烯的感温行为在室温到80°C的小温度范围内进行了研究,因为这个范围在电子仪器和集成电路设计中很重要。研究了石墨烯在温度为80℃时的热惯性,并通过测量归一化电阻的时间响应来表征其传感行为。我们的初步结果表明,双层石墨烯的负温度系数高于单层和少层石墨烯。此外,还研究了基于石墨烯尺寸的工程电阻。该技术具有高可靠性、高灵敏度和低成本的特点,为微纳米工业应用中的温度传感提供了强有力的候选技术。
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