A Triboelectric‐Electromagnetic Hybrid Nanogenerator with Magnetic Coupling Assisted Waterproof Encapsulation for Long‐Lasting Energy Harvesting

Ocean energy harvesting based on a triboelectric nanogenerator (TENG) has great application potential, while the encapsulation of triboelectric devices in water poses a critical issue. Herein, a triboelectric–electromagnetic hybrid nanogenerator (TE‐HNG) consisting of TENGs and electromagnetic gener...

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Veröffentlicht in:Small (Weinheim an der Bergstrasse, Germany) Germany), 2024-10, Vol.20 (42), p.e2403879-n/a
Hauptverfasser: Ding, Shuai, Zhai, Hua, Tao, Xinglin, Yang, Peng, Liu, Zhaoqi, Qin, Siyao, Hong, Zhanyong, Chen, Xiangyu, Wang, Zhong Lin
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container_issue 42
container_start_page e2403879
container_title Small (Weinheim an der Bergstrasse, Germany)
container_volume 20
creator Ding, Shuai
Zhai, Hua
Tao, Xinglin
Yang, Peng
Liu, Zhaoqi
Qin, Siyao
Hong, Zhanyong
Chen, Xiangyu
Wang, Zhong Lin
description Ocean energy harvesting based on a triboelectric nanogenerator (TENG) has great application potential, while the encapsulation of triboelectric devices in water poses a critical issue. Herein, a triboelectric–electromagnetic hybrid nanogenerator (TE‐HNG) consisting of TENGs and electromagnetic generators (EMGs) is proposed to harvest water flow energy. A magnetic coupling transmission component is applied to replace traditional bearing structures, which can realize the fully enclosed packaging of the TENG devices and achieve long‐lasting energy harvesting from water flow. Under the intense water impact, magnetic coupling reduces the possibility of internal gear damage due to excessive torque, indicating superior stability and robustness compared to conventional TENG. At the waterwheel rotates speed of 75 rpm, the TE‐HNG can generate an output peak power of 114.83 mW, corresponding to a peak power density of 37.105 W m−3. After 5 h of continuous operation, the electrical output attenuation of TENG is less than 3%, demonstrating excellent device durability. Moreover, a self‐powered temperature sensing system and a self‐powered cathodic protection system based on the TE‐HNG are developed and illustrated. This work provides a prospective strategy for improving the output stability of TENGs, which benefits the practical applications of the TENGs in large‐scale blue energy harvesting. A triboelectric–electromagnetic hybrid nanogenerator (TE‐HNG) with magnetic coupling assisted waterproof encapsulation is designed, which can harvest long‐lasting energy from water flow with excellent durability. FE‐HNG can light up thousands of LEDs and can also be used as a power source for temperature sensing systems and cathode (hull) protection systems.
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Herein, a triboelectric–electromagnetic hybrid nanogenerator (TE‐HNG) consisting of TENGs and electromagnetic generators (EMGs) is proposed to harvest water flow energy. A magnetic coupling transmission component is applied to replace traditional bearing structures, which can realize the fully enclosed packaging of the TENG devices and achieve long‐lasting energy harvesting from water flow. Under the intense water impact, magnetic coupling reduces the possibility of internal gear damage due to excessive torque, indicating superior stability and robustness compared to conventional TENG. At the waterwheel rotates speed of 75 rpm, the TE‐HNG can generate an output peak power of 114.83 mW, corresponding to a peak power density of 37.105 W m−3. After 5 h of continuous operation, the electrical output attenuation of TENG is less than 3%, demonstrating excellent device durability. Moreover, a self‐powered temperature sensing system and a self‐powered cathodic protection system based on the TE‐HNG are developed and illustrated. This work provides a prospective strategy for improving the output stability of TENGs, which benefits the practical applications of the TENGs in large‐scale blue energy harvesting. A triboelectric–electromagnetic hybrid nanogenerator (TE‐HNG) with magnetic coupling assisted waterproof encapsulation is designed, which can harvest long‐lasting energy from water flow with excellent durability. 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Herein, a triboelectric–electromagnetic hybrid nanogenerator (TE‐HNG) consisting of TENGs and electromagnetic generators (EMGs) is proposed to harvest water flow energy. A magnetic coupling transmission component is applied to replace traditional bearing structures, which can realize the fully enclosed packaging of the TENG devices and achieve long‐lasting energy harvesting from water flow. Under the intense water impact, magnetic coupling reduces the possibility of internal gear damage due to excessive torque, indicating superior stability and robustness compared to conventional TENG. At the waterwheel rotates speed of 75 rpm, the TE‐HNG can generate an output peak power of 114.83 mW, corresponding to a peak power density of 37.105 W m−3. After 5 h of continuous operation, the electrical output attenuation of TENG is less than 3%, demonstrating excellent device durability. 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subjects Cathodic protection
Coupling
Encapsulation
Energy harvesting
gear transmission
Internal gears
magnetic coupling
Nanogenerators
Stability
triboelectric–electromagnetic hybrid nanogenerator
Water damage
Water flow
water flow energy harvesting
Water wheels
title A Triboelectric‐Electromagnetic Hybrid Nanogenerator with Magnetic Coupling Assisted Waterproof Encapsulation for Long‐Lasting Energy Harvesting
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