材料科学
自愈水凝胶
复合数
3D打印
数字光处理
离子键合
复合材料
导电体
纳米技术
高分子化学
离子
计算机科学
人工智能
投影机
物理
量子力学
作者
Yunlong Guo,Shiwei Feng,Weizi Gao,Jingjing Cui,Zhe Lü,Liang Chen,Fukang Liu,Zhijie Mao,Zhenxiang Wang,Guang Hu,Biao Zhang
标识
DOI:10.1002/adfm.202408775
摘要
Abstract Ionic conductive hydrogels are widely used in many applications such as electrochemical energy storage, flexible electronic devices, and catalyst transistors due to their excellent ionic conductivity as well as chemical stability. However, the fragile mechanical properties and the lack of shaping methods severely limit their further applications. Herein, an ionic conductive composite hydrogel with reinforced mechanical properties is demonstrated that can be rapidly 3D printed using digital light processing technology. By using both γ‐methacryloxypropyltrimethoxysilane moderately modified attapulgite rigid particle and polyvinyl alcohol (PVA) semicrystal dual‐network reinforcement, the mechanically robust and highly conductive N , N , N ‐trimethylethanaminium‐chloride‐based hydrogels are obtained, demonstrating a 5 times higher tensile strength than the initial one due to the turning and orienting of the attapulgite as well as the robust PVA secondary network. Furthermore, encapsulation strategy is used to avoid the dehydration of hydrogel, and strain sensors that exceed the strain limit of the hydrogel are fabricated through structural design. This work provides a reference for attapulgite‐reinforced hydrogel in biosensing.
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