摩擦电效应
纳米发生器
材料科学
可穿戴计算机
可穿戴技术
3D打印
电压
制作
超级电容器
数码产品
能量收集
电气工程
功率(物理)
光电子学
纳米技术
压电
复合材料
电极
计算机科学
嵌入式系统
电容
工程类
医学
化学
物理
替代医学
病理
量子力学
物理化学
作者
Baodong Chen,Wei Tang,Tao Jiang,Laipan Zhu,Xiangyu Chen,Chuan He,Liang Xu,Hengyu Guo,Pei Lin,Li Ding,Jiajia Shao,Zhong Lin Wang
出处
期刊:Nano Energy
[Elsevier]
日期:2017-12-30
卷期号:45: 380-389
被引量:199
标识
DOI:10.1016/j.nanoen.2017.12.049
摘要
As the fast developments of wearable devices, artificial intelligences and Internet of Things, it is important to explore revolutionary approach and fabrication method for providing flexible and sustainable power sources. We report here a practical, ultraflexible and three-dimensional TENG (3D–TENG) that is capable of driving conventional electronics by harvesting biomechanical energy. Such TENG is made for the first time by the unique additive manufacturing technology—hybrid UV 3D printing. The TENG is made up of printed composite resin parts and ionic hydrogel as the electrification layer and electrode. A sustainable and decent output of 10.98 W/m3 (Pv, peak power per unit volume) and 0.65 mC/m3 (ρsc, transferred charge per unit volume) are produced under a low triggering frequency of ~ 1.3 Hz, which is attributed to the Maxwell's displacement current. Meanwhile, a self-powered SOS flickering and buzzing distress signal system, and smart lighting shoes are successfully demonstrated, as well as self-powered portable systems of a temperature sensor or a smart watch. Our work provides new opportunities for constructing multifunctional self-powered systems toward the applications in realistic environments.
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