Highly Deformable and Stable Gas Sensor Based on Anti-Drying Ionic Organohydrogel for O2 Gas Detection

Yuanqing Lin, Zixuan Wu, Yaoming Wei, Yuning Liang, Kankan Zhai, K. Tao, Chunwei Li, Xi Xie, Jin Wu
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Abstract

This paper presented a novel method to prepare organohydrogel-based stretchable O2 sensor with high performance, including good linearity, anti-drying property, low limit of detection (LOD) and long-term stability. A facile solvent replacement approach was devised to partially exchange water with xylitol molecules, generating the stable organohydrogel. Compared with gas sensor based on pristine hydrogel, this organohydrogel-based sensor displayed high water retention, leading to the prolonged life time (>30 days) therefore. In addition, LOD was lowered by 2.45 times to 0.56 ppm. Furthermore, the sensing mechanism was investigated, revealing an electrochemical reaction mechanism occurred at the electrode-hydrogel interface. This work provided a facile method for enhancing the performance of hydrogel-based gas sensor.
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基于抗干燥离子有机水凝胶的高变形稳定气体传感器用于O2气体检测
本文提出了一种制备有机水凝胶可拉伸O2传感器的新方法,该传感器具有良好的线性度、抗干燥性、低检测限和长期稳定性。设计了一种简单的溶剂替代方法,使木糖醇分子部分交换水,生成稳定的有机水凝胶。与基于原始水凝胶的气体传感器相比,这种基于有机水凝胶的传感器具有较高的保水性,从而延长了使用寿命(>30天)。此外,LOD降低了2.45倍,为0.56 ppm。进一步研究了传感机理,揭示了在电极-水凝胶界面发生的电化学反应机理。本工作为提高水凝胶型气体传感器的性能提供了一种简便的方法。
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