膜
材料科学
纳米技术
纳米复合材料
离子键合
基质(水族馆)
柔性电子器件
极限抗拉强度
可穿戴技术
复合数
聚合物
工作(物理)
基质(化学分析)
可伸缩电子设备
延伸率
数码产品
可穿戴计算机
复合材料
纳米力学
织物
氢键
微加工
电极
作者
Bing‐Bing Yu,Shuang‐Long Wang,Xiaolan Yang,Yue‐Ru Zhou,Wan‐Ping Huang,Yuan‐Hao Wang,Song Qin,Lijian Ma,Guo‐Hong Tao,Ling He
出处
期刊:Small
[Wiley]
日期:2026-02-09
卷期号:22 (20): e12363-e12363
标识
DOI:10.1002/smll.202512363
摘要
ABSTRACT In flexible wearable electronics, the mechanical demands on substrate materials such as polyimine (PI) membranes vary significantly with the application. Adding toughening fillers to adjust the mechanical properties is effective. However, such approaches typically enable only unidirectional enhancement, lacking the capacity for controllable, bidirectional regulation. Inspired by mixed matrix membrane design, this work introduces iCONs into ionic polyimine network (IPIN). By modulating hydrogen bond cross‐linking density and molecular chain entanglement through iCONs loading, the mechanical behavior of the composite membranes can be tuned from flexible (76.10% elongation at break) to rigid (8.56 MPa tensile strength). Notably, the IPIN‐TpPaSO 3 ‐30% based flexible wearable sensor shows rapid, accurate, and stable electrochemical response to volatile iodine, promising for real‐time detection. This work demostrates iCONs' potential in controllably regulating the mechanical properties of membrane materials, offering a novel approach for creating flexible membranes tailored to different applications.
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