摩擦电效应
俘获
纤维素
材料科学
光电子学
电荷密度
化学工程
电荷(物理)
静电感应
电流密度
功率密度
密度泛函理论
泄漏(经济)
电流(流体)
碳纤维
制作
纳米技术
载流子
分析化学(期刊)
储能
化学物理
电荷
表面电荷
分子物理学
电导率
极地的
膜
作者
Pinle Zhang,Junyu Chen,Huancheng Huang,Xinyue Nong,Xinke Yu,Neng Xiong,Xingxiang Ji,Shuangfei Wang,Xinliang Liu
出处
期刊:Nano Letters
[American Chemical Society]
日期:2026-03-03
卷期号:26 (11): 3688-3697
被引量:3
标识
DOI:10.1021/acs.nanolett.5c05694
摘要
Cellulose, rich in polar hydroxyl groups, readily loses electrons, making it an ideal positive triboelectric material. However, its insulating nature limits charge storage and increases energy loss, leading to poor charge retention and low output. To address this issue, this study proposes combining the charge confinement at the TEMPO-nanofiber/ferroelectric interface with the microcapacitive effect of carbon nanotubes. This strategy significantly enhances charge trapping and reduces dissipation, achieving a charge density of 308.4 μC/m 2, a 452% increase over CNF films. The maximum power density reaches 2.32 W/m 2 under load (2580% improvement), while the leakage current decreases to 1.64 × 10 –12 A/cm 2, a 6707% reduction. The resulting CS-TENG sensor exhibits high sensitivity and stable performance, offering an effective approach to high-density cellulose triboelectric materials in wearable electronics.
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