摩擦电效应
机械能
电力传输
导线
能量收集
电气工程
功率(物理)
工程类
材料科学
物理
量子力学
复合材料
作者
Sihang Gao,Xisong Zeng,Guowen Zhang,Jiajia Zhang,Yiduo Chen,Shaoxuan Feng,Wenyu Lan,Jie Zhou,Zhong Lin Wang
出处
期刊:Nano Energy
[Elsevier BV]
日期:2022-06-24
卷期号:101: 107530-107530
被引量:49
标识
DOI:10.1016/j.nanoen.2022.107530
摘要
With the vigorous advancement of smart power grid, online monitoring is essential for a stable operation of overhead transmission lines. The energy supply that drives the monitoring system has become one of the bottlenecks restricting the development of distributed sensing systems. In view of the self-excited vibration with the characteristics of low-frequency and large-amplitude generated in the conductor galloping, a hybridized generator has been designed to be composed of an electromagnetic generator (EMG), a horizontal TENG (H-TENG), and a vertical TENG (V-TENG) to provide an alternative approach for capturing mechanical energy derived from conductor galloping. Based on triboelectric–electromagnetic working principal, a sophisticated-designed stator and rotor structure oriented to the application scenarios of transmission lines successfully achieved self-power through the designed EMG and galloping state sensing through the designed H-TENG and V-TENG, respectively. The output performance, feasibility and durability of the hybridized generator was well validated on the linear motor platform and the conductor galloping test platform, and the output current was used to realize the characterization of the conductor galloping amplitude and galloping trajectory. This work not only provides an effective and sustainable solution to the self-powered intelligent sensor nodes in the complex surroundings of power transmission system, but also reveals TENG promising potential on the sensing applications in low-power monitoring sensors for conductor galloping. • This work is characterized by the first propose of harvest the energy of conductor galloping by converting mechanical energy to electrical energy and the joint utilization thereof to assessment the galloping trajectory. • Through a sophisticated-designed hybridized generator of stator and rotor structure oriented to the application scenarios of transmission lines, the vibration energy with the characteristics of low-frequency and large-amplitude is captures. • The peak value and trajectory analysis reveals the huge potential of TENG in the field of sensing the conductor galloping state.
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