基于二硫化钼膜的超灵敏温度传感器

Nishta Arora, A. Naik
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引用次数: 1

摘要

我们报道了一种灵敏度在亚开尔文范围内的超薄二硫化钼(MoS2)膜温度传感器。超薄二硫化钼谐振器的谐振频率对薄膜的本征应变极为敏感。我们利用应变变化引起的谐振频移来证明这些器件在超灵敏温度传感方面的潜力。二硫化钼鼓腔的频率温度系数(TCf)估计为−283 ppm/K。我们还报道了MoS2谐振器在室温下频率稳定性的首次研究。在1秒的积分时间内,这些谐振器的艾伦偏差为~5 × 10−5。本研究估计了MoS2膜基器件的极限温度检测极限。
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Molybdenum Disulfide Membrane-based Ultrasensitive Temperature Sensor
We report an ultrathin molybdenum disulfide (MoS2) membrane-based temperature sensor with sensitivity in the sub-Kelvin range. The resonant frequency of ultrathin MoS2 resonators is extremely sensitive to the intrinsic strain of the membrane. We utilize the resonant frequency shift caused due to change in strain to demonstrate the potential of these devices for ultrasensitive temperature sensing. The temperature coefficient of frequency (TCf) of the MoS2 drum resonator is estimated to be −283 ppm/K. We also report the first study on the frequency stability of MoS2 resonators at room temperature. The Allan deviation of these resonators is ~5 × 10−5 at an integration time of 1 second. This study estimates the ultimate temperature detection limit of MoS2 membrane-based device.
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