Highly Deformable Optoelectronics Using Liquid Metal

Takashi Kozaki, Saito Satoshi, Yota Otsuki, R. Matsuda, Yutaka Isoda, Takuma Endo, Fumika Nakamura, T. Araki, Taichi Furukawa, S. Maruo, M. Watanabe, K. Ueno, H. Ota
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引用次数: 1

Abstract

The study proposes optoelectronics based on liquid metal and photo-switchable ionic liquid with liquid-liquid heterojunction technology. As a proof of concept, a liquid-state light sensor and an optical memory which is switched on and off by UV and blue light exposures were demonstrated. The ionic liquid named 1-butyl-3-(4-phenylazobenzyl)imidazolium bis(trifluoromethanesulfonyl)amide ([Azo][NTf2]) is used to realize functions as a light sensor or an optical memory. This ionic liquid is photoresponsive and can undergo a reversible isomerization controlled by light irradiation of UV or Blue; this property was used to realize the liquid-state optoelectronics in this study. In addition, a liquid-state heterojunction was taken advantage of in interconnects between sensing ionic liquid and liquid metal. The liquid-state heterojunction in the microchannels was critical to preventing intermixing of the two liquid components, especially, when the completed devices underwent mechanical deformation. These two important technologies, the photo-switchable ionic liquid and the heterojunction, achieved liquid-state optoelectronics based on liquid materials.
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使用液态金属的高度可变形光电子学
本研究提出了基于液态金属和光可切换离子液体的液液异质结光电子技术。作为概念验证,演示了一种液态光传感器和一种通过紫外线和蓝光照射开关的光存储器。离子液体命名为1-丁基-3-(4-苯并苄基)咪唑双(三氟甲烷磺酰)酰胺([Azo][NTf2]),用于实现光传感器或光存储器的功能。这种离子液体具有光响应性,可以在紫外线或蓝光照射下进行可逆异构化;本研究利用这一特性实现了液态光电子器件。此外,在传感离子液体和液态金属之间的互连中利用了液态异质结。微通道中的液态异质结对于防止两种液体组分的混合至关重要,特别是当完成的器件经历机械变形时。光可切换离子液体和异质结这两项重要技术实现了基于液体材料的液态光电子学。
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