材料科学
戊二醛
离子键合
壳聚糖
导电体
复合材料
电致发光
电导率
弯曲
延伸率
光电子学
离子电导率
发光
纳米技术
电极
化学工程
电解质
离子
病理
物理化学
量子力学
工程类
化学
物理
极限抗拉强度
图层(电子)
医学
作者
Hiep Dinh Xuan,Bernard Timothy,Ho‐Yeol Park,Tuyet Nhi Lam,Dowan Kim,Yeonjeong Go,Jongyoun Kim,Youngu Lee,Sung Il Ahn,Sung‐Ho Jin,Jinhwan Yoon
标识
DOI:10.1002/adma.202008849
摘要
Abstract Ionogels are good candidates for flexible electronics owing to their excellent mechanical and electrical properties, including stretchability, high conductivity, and stability. In this study, conducting ionogels comprising a double network (DN) of poly( N ‐isopropylacrylamide ‐co‐N,N′ ‐diethylacrylamide)/chitosan which are further reinforced by the ionic and covalent crosslinking of the chitosan network by tripolyphosphate and glutaraldehyde, respectively, are prepared. Based on their excellent mechanical properties and high conductivity, the developed DN ionogels are envisioned as stretchable ionic conductors for extremely stretchable alternating‐current electroluminescent (ACEL) devices. The ACEL device fabricated with the developed ionogel exhibits stable working operation under an ultrahigh elongation of over 1200% as well as severe mechanical deformations such as bending, rolling, and twisting. Furthermore, the developed ACEL devices also display stable luminescence over 1000 stretch/release cycles or at temperatures as harsh as 200 °C.
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