A rolling-mode triboelectric nanogenerator with multi-tunnel grating electrodes and opposite-charge-enhancement for wave energy harvesting

In light of the crucial role of marine ecosystems and the escalating environmental conservation challenges, it is essential to conduct marine monitoring to help implement targeted environmental protection measures efficiently. Energy harvesting technologies, particularly triboelectric nanogenerators...

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Published inNature communications Vol. 15; no. 1; pp. 6834 - 11
Main Authors Wang, Yawei, Du, Hengxu, Yang, Hengyi, Xi, Ziyue, Zhao, Cong, Qian, Zian, Chuai, Xinyuan, Peng, Xuzhang, Yu, Hongyong, Zhang, Yu, Li, Xin, Hu, Guobiao, Wang, Hao, Xu, Minyi
Format Journal Article
LanguageEnglish
Published London Nature Publishing Group UK 09.08.2024
Nature Publishing Group
Nature Portfolio
Subjects
147/135
639/166/987
639/166/988
639/301/1005
639/4077/4072/4062
639/4077/909
Charge density
Electrodes
Energy charge
Energy harvesting
Environmental monitoring
Environmental protection
Flux density
Humanities and Social Sciences
Life span
Low currents
Marine ecosystems
Marine technology
multidisciplinary
Nanogenerators
Power management
Remote sensors
Science
Science (multidisciplinary)
Tunnels
Water monitoring
Water quality
Water quality management
Wave energy
Wave power
Wireless communications
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Abstract In light of the crucial role of marine ecosystems and the escalating environmental conservation challenges, it is essential to conduct marine monitoring to help implement targeted environmental protection measures efficiently. Energy harvesting technologies, particularly triboelectric nanogenerators (TENGs), have great potential for prolonging the lifespan and enhancing the reliability of sensors in remote areas. However, the high internal resistance, low current, and friction-induced abrasion issues of TENGs limit their performance in practical applications. This work presents a rolling mode triboelectric nanogenerator that utilizes multi-tunnel grating electrodes and the opposite-charge-enhancement mechanism to harvest wave energy efficiently. The device achieves significant instantaneous and root mean square power density of 185.4 W/(m 3 ·Hz) and 10.92 W/(m 3 ·Hz), respectively. By utilizing stacked devices and an exclusively designed power management module, a self-powered ocean sensing system including computing and long-range wireless communication (0.8 km) capabilities was developed. Laboratory and in-situ ocean tests were conducted to assess and validate the system. This work offers a potential solution for the challenging deployment of marine self-powered sensing nodes. Limited current output hinders triboelectric nanogenerators for maritime applications. Authors design a rolling-mode TENG with multi-tunnel grating electrodes, achieving 185.4 W/(m 3 ·Hz) power density. They demonstrate a self-powered ocean sensing system for water quality monitoring and wireless communication.
AbstractList Abstract In light of the crucial role of marine ecosystems and the escalating environmental conservation challenges, it is essential to conduct marine monitoring to help implement targeted environmental protection measures efficiently. Energy harvesting technologies, particularly triboelectric nanogenerators (TENGs), have great potential for prolonging the lifespan and enhancing the reliability of sensors in remote areas. However, the high internal resistance, low current, and friction-induced abrasion issues of TENGs limit their performance in practical applications. This work presents a rolling mode triboelectric nanogenerator that utilizes multi-tunnel grating electrodes and the opposite-charge-enhancement mechanism to harvest wave energy efficiently. The device achieves significant instantaneous and root mean square power density of 185.4 W/(m3·Hz) and 10.92 W/(m3·Hz), respectively. By utilizing stacked devices and an exclusively designed power management module, a self-powered ocean sensing system including computing and long-range wireless communication (0.8 km) capabilities was developed. Laboratory and in-situ ocean tests were conducted to assess and validate the system. This work offers a potential solution for the challenging deployment of marine self-powered sensing nodes.
In light of the crucial role of marine ecosystems and the escalating environmental conservation challenges, it is essential to conduct marine monitoring to help implement targeted environmental protection measures efficiently. Energy harvesting technologies, particularly triboelectric nanogenerators (TENGs), have great potential for prolonging the lifespan and enhancing the reliability of sensors in remote areas. However, the high internal resistance, low current, and friction-induced abrasion issues of TENGs limit their performance in practical applications. This work presents a rolling mode triboelectric nanogenerator that utilizes multi-tunnel grating electrodes and the opposite-charge-enhancement mechanism to harvest wave energy efficiently. The device achieves significant instantaneous and root mean square power density of 185.4 W/(m ·Hz) and 10.92 W/(m ·Hz), respectively. By utilizing stacked devices and an exclusively designed power management module, a self-powered ocean sensing system including computing and long-range wireless communication (0.8 km) capabilities was developed. Laboratory and in-situ ocean tests were conducted to assess and validate the system. This work offers a potential solution for the challenging deployment of marine self-powered sensing nodes.
In light of the crucial role of marine ecosystems and the escalating environmental conservation challenges, it is essential to conduct marine monitoring to help implement targeted environmental protection measures efficiently. Energy harvesting technologies, particularly triboelectric nanogenerators (TENGs), have great potential for prolonging the lifespan and enhancing the reliability of sensors in remote areas. However, the high internal resistance, low current, and friction-induced abrasion issues of TENGs limit their performance in practical applications. This work presents a rolling mode triboelectric nanogenerator that utilizes multi-tunnel grating electrodes and the opposite-charge-enhancement mechanism to harvest wave energy efficiently. The device achieves significant instantaneous and root mean square power density of 185.4 W/(m 3 ·Hz) and 10.92 W/(m 3 ·Hz), respectively. By utilizing stacked devices and an exclusively designed power management module, a self-powered ocean sensing system including computing and long-range wireless communication (0.8 km) capabilities was developed. Laboratory and in-situ ocean tests were conducted to assess and validate the system. This work offers a potential solution for the challenging deployment of marine self-powered sensing nodes. Limited current output hinders triboelectric nanogenerators for maritime applications. Authors design a rolling-mode TENG with multi-tunnel grating electrodes, achieving 185.4 W/(m 3 ·Hz) power density. They demonstrate a self-powered ocean sensing system for water quality monitoring and wireless communication.
In light of the crucial role of marine ecosystems and the escalating environmental conservation challenges, it is essential to conduct marine monitoring to help implement targeted environmental protection measures efficiently. Energy harvesting technologies, particularly triboelectric nanogenerators (TENGs), have great potential for prolonging the lifespan and enhancing the reliability of sensors in remote areas. However, the high internal resistance, low current, and friction-induced abrasion issues of TENGs limit their performance in practical applications. This work presents a rolling mode triboelectric nanogenerator that utilizes multi-tunnel grating electrodes and the opposite-charge-enhancement mechanism to harvest wave energy efficiently. The device achieves significant instantaneous and root mean square power density of 185.4 W/(m3·Hz) and 10.92 W/(m3·Hz), respectively. By utilizing stacked devices and an exclusively designed power management module, a self-powered ocean sensing system including computing and long-range wireless communication (0.8 km) capabilities was developed. Laboratory and in-situ ocean tests were conducted to assess and validate the system. This work offers a potential solution for the challenging deployment of marine self-powered sensing nodes.Limited current output hinders triboelectric nanogenerators for maritime applications. Authors design a rolling-mode TENG with multi-tunnel grating electrodes, achieving 185.4 W/(m3·Hz) power density. They demonstrate a self-powered ocean sensing system for water quality monitoring and wireless communication.
In light of the crucial role of marine ecosystems and the escalating environmental conservation challenges, it is essential to conduct marine monitoring to help implement targeted environmental protection measures efficiently. Energy harvesting technologies, particularly triboelectric nanogenerators (TENGs), have great potential for prolonging the lifespan and enhancing the reliability of sensors in remote areas. However, the high internal resistance, low current, and friction-induced abrasion issues of TENGs limit their performance in practical applications. This work presents a rolling mode triboelectric nanogenerator that utilizes multi-tunnel grating electrodes and the opposite-charge-enhancement mechanism to harvest wave energy efficiently. The device achieves significant instantaneous and root mean square power density of 185.4 W/(m3·Hz) and 10.92 W/(m3·Hz), respectively. By utilizing stacked devices and an exclusively designed power management module, a self-powered ocean sensing system including computing and long-range wireless communication (0.8 km) capabilities was developed. Laboratory and in-situ ocean tests were conducted to assess and validate the system. This work offers a potential solution for the challenging deployment of marine self-powered sensing nodes.In light of the crucial role of marine ecosystems and the escalating environmental conservation challenges, it is essential to conduct marine monitoring to help implement targeted environmental protection measures efficiently. Energy harvesting technologies, particularly triboelectric nanogenerators (TENGs), have great potential for prolonging the lifespan and enhancing the reliability of sensors in remote areas. However, the high internal resistance, low current, and friction-induced abrasion issues of TENGs limit their performance in practical applications. This work presents a rolling mode triboelectric nanogenerator that utilizes multi-tunnel grating electrodes and the opposite-charge-enhancement mechanism to harvest wave energy efficiently. The device achieves significant instantaneous and root mean square power density of 185.4 W/(m3·Hz) and 10.92 W/(m3·Hz), respectively. By utilizing stacked devices and an exclusively designed power management module, a self-powered ocean sensing system including computing and long-range wireless communication (0.8 km) capabilities was developed. Laboratory and in-situ ocean tests were conducted to assess and validate the system. This work offers a potential solution for the challenging deployment of marine self-powered sensing nodes.
ArticleNumber 6834
Author Xi, Ziyue
Hu, Guobiao
Chuai, Xinyuan
Qian, Zian
Zhang, Yu
Yang, Hengyi
Yu, Hongyong
Zhao, Cong
Li, Xin
Wang, Yawei
Peng, Xuzhang
Xu, Minyi
Du, Hengxu
Wang, Hao
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BackLink https://www.ncbi.nlm.nih.gov/pubmed/39122713$$D View this record in MEDLINE/PubMed
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Snippet In light of the crucial role of marine ecosystems and the escalating environmental conservation challenges, it is essential to conduct marine monitoring to...
Abstract In light of the crucial role of marine ecosystems and the escalating environmental conservation challenges, it is essential to conduct marine...
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SubjectTerms 147/135
639/166/987
639/166/988
639/301/1005
639/4077/4072/4062
639/4077/909
Charge density
Electrodes
Energy charge
Energy harvesting
Environmental monitoring
Environmental protection
Flux density
Humanities and Social Sciences
Life span
Low currents
Marine ecosystems
Marine technology
multidisciplinary
Nanogenerators
Power management
Remote sensors
Science
Science (multidisciplinary)
Tunnels
Water monitoring
Water quality
Water quality management
Wave energy
Wave power
Wireless communications
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Title A rolling-mode triboelectric nanogenerator with multi-tunnel grating electrodes and opposite-charge-enhancement for wave energy harvesting
URI https://link.springer.com/article/10.1038/s41467-024-51245-5
https://www.ncbi.nlm.nih.gov/pubmed/39122713
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https://www.proquest.com/docview/3091283121
https://doaj.org/article/b607a09cd60f4bf8a7f85b091656fd54
Volume 15
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