丝素
材料科学
钙钛矿(结构)
纳米技术
发光二极管
可穿戴计算机
可穿戴技术
丝绸
数码产品
光电子学
自愈水凝胶
电子皮肤
导电体
离子键合
电极
智能材料
灵活性(工程)
电导率
柔性电子器件
亮度
灵活的显示器
兴奋剂
生物电子学
层压
接口(物质)
电致发光
作者
Jiawei Hong,Zhongkai Yu,Weidong Tang,Ke Zhou,Zhe Liu,Gan Zhang,Hang Zhao,Bo Yu,yichen yang,Shengnan Liu,Wentao Xiong,Zhixiang Ren,Minhui Yu,X Y Yang,Junhan Ou,Nicola Gasparini,Chen Zou,Baodan Zhao,W Huang,Dawei Di
出处
期刊:ACS Nano
[American Chemical Society]
日期:2026-05-21
卷期号:20 (21): 15652-15661
标识
DOI:10.1021/acsnano.6c04843
摘要
Hydrogels emerge as promising biointerfacing materials owing to their tunable mechanical properties and diverse biochemical functions. However, their application in electronics has been limited by the unsatisfactory conducting properties of hydrogels, typically functioning as insulators. Here, we transform the originally nonconductive silk fibroin into conductive silk fibroin ionotronics by incorporating lithium ionic salts, while maintaining high transparency, flexibility, and biocompatibility. The conductivity of the silk fibroin ionotronics was further improved to >12.4 S cm –1 by forming a hybrid interface with PEDOT:PSS. This hybrid ionic interface was then utilized for charge injection in high-performance perovskite LEDs, achieving a brightness of 9,724 cd m –2 and a current efficiency of 19.6 cd A –1 . Leveraging its mechanical flexibility and optoelectronic properties, a bioelectronic device for photoplethysmography (PPG) signal acquisition was demonstrated, offering an approach for intelligent human–machine interaction and advancing smart display applications in wearable systems.
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