A study on the aging of ultra-thin Palladium films on SAW hydrogen gas sensors

B. Fisher, D. Malocha
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引用次数: 9

Abstract

Traditionally, low-powered, room temperature sensing of gaseous hydrogen (H2) is difficult. With renewed interest in H2 as a source of energy, there is a need for reliable, energy-efficient sensors. A potential solution can be found in using surface acoustic wave (SAW) devices, which have been implemented as passive, wireless RFID tag-sensors. Thus, in concept, it is advantageous to develop a SAW device with H2 sensing capabilities. Prior experiments have successfully demonstrated a passive SAW-based H2 gas sensor by placing an ultra-thin Palladium (Pd) film (<50Å) in the propagation path [1–3]. These sensors have an instantaneous response and a significant fractional change in SAW propagation loss; however, the lifetime of these sensors are still unknown. Hence, the objective of this study was to examine the influence of aging of ultra-thin Pd films on the usable life of passive SAW H2 gas sensors.
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SAW氢气传感器上超薄钯膜的老化研究
传统上,气体氢(H2)的低功率室温传感是困难的。随着人们对氢气作为一种能源的兴趣重新燃起,人们需要可靠、节能的传感器。一种潜在的解决方案是使用表面声波(SAW)设备,它已经被实现为无源无线RFID标签传感器。因此,从概念上讲,开发具有H2传感能力的SAW器件是有利的。先前的实验已经通过在传播路径中放置超薄钯(Pd)薄膜(<50Å)成功地展示了一种基于saw的被动H2气体传感器[1-3]。这些传感器具有瞬时响应和声表面波传播损耗的显著分数变化;然而,这些传感器的寿命仍然是未知的。因此,本研究的目的是研究超薄Pd膜老化对被动式SAW H2气体传感器使用寿命的影响。
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