Eco-Friendly Powder and Particles-Based Triboelectric Energy Harvesters
1
조회
0
다운로드
0
인용
0
참고문헌
키워드
초록
Since their initial development in 2012, triboelectric nanogenerators (TENGs) have gained popularity worldwide as a desired option for harnessing energy. The urgent demand for TENGs is attributed to their novel structural design, low cost, and use of large-scale materials. The output performance of a TENG depends on the surface charge density of the friction layers. Several recycled and biowaste materials have been explored as friction layers to enhance the output performance of TENGs. Natural and oceanic biomaterials have also been investigated as alternatives for improving the performance of TENG devices. Moreover, structural innovations have been made in TENGs to develop highly efficient devices. This review summarizes the recent developments in recycling and biowaste materials for TENG devices. The potential of natural and oceanic biowaste materials is also discussed. Finally, future outlooks for the structural developments in TENG devices are presented.
Abstract
Since their initial development in 2012, triboelectric nanogenerators (TENGs) have gained popularity worldwide as a desired option for harnessing energy. The urgent demand for TENGs is attributed to their novel structural design, low cost, and use of large-scale materials. The output performance of a TENG depends on the surface charge density of the friction layers. Several recycled and biowaste materials have been explored as friction layers to enhance the output performance of TENGs. Natural and oceanic biomaterials have also been investigated as alternatives for improving the performance of TENG devices. Moreover, structural innovations have been made in TENGs to develop highly efficient devices. This review summarizes the recent developments in recycling and biowaste materials for TENG devices. The potential of natural and oceanic biowaste materials is also discussed. Finally, future outlooks for the structural developments in TENG devices are presented.
참고문헌 (33)
- G. Khandelwal, , Adv. Energy Mater, 11, pp.2101170~ (2021)
- Z. L. Wang, , Faraday Discuss, 176, pp.447~ (2014)
- M. S. Kwak, , Nanoscale, 13, pp.8418~ (2021)
- F. -R. Fan, , Nano Energy, 1, pp.328~ (2012)
- H. E. Lee, , Nano Energy, 75, pp.104951~ (2020)
- H. Ko, , ACS Energy Lett, 6, pp.2792~ (2021)
- Y. A. Mezenov, , Adv. Sci, 6, pp.1900506~ (2019)
- Z. L. Wang, , Triboelectric Nanogenerator, pp.49~ (2016)
- S. Niu, , Nano Energy, 12, pp.760~ (2015)
- W. Akram, , Nano Energy, 106, pp.108043~ (2023)
- Z. L. Wang, , ACS Nano, 7, pp.9533~ (2013)
- G. Khandelwal, , Nano Today, 33, pp.100882~ (2020)
- S. Niu, , Energy Environ. Sci, 6, pp.3576~ (2013)
- H. S. Wang, , APL Mater, 9, pp.061112~ (2021)
- C. Sohn, , ECS J. Solid State Sci. Technol, 11, pp.055006~ (2022)
- V. Vivekananthan, , Nano Energy, 64, pp.103926~ (2019)
- R. A. Shaukat, , Nano Energy, 96, pp.107128~ (2022)
- F. F. Hatta, , Int. J. Energy Res, 46, pp.544~ (2022)
- S. R. Patil, , Energy Technol, 10, pp.2200876~ (2022)
- S. S. Won, , Adv. Electron. Mater, 6, pp.1900950~ (2020)
- L. Lapčinskis, , J. Mater. Chem. A. Mater, 9, pp.8984~ (2021)
- M. Y. Chougale, , Adv. Sustain. Syst, 5, pp.2100205~ (2021)
- M. Y. Chougale, , Nano Energy, 111, pp.108399~ (2023)
- M. Y. Chougale, , Adv. Sustain. Syst, 5, pp.2100161~ (2021)
- D. Choi, , ACS Nano, 17, pp.11087~ (2023)
- X. Cao, , Nano-Micro Lett, 15, pp.14~ (2023)
- Q. M. Saqib, , ACS Appl Electron Mater, 2, pp.3953~ (2020)
- R. A. Shaukat, , Energy Rep, 7, pp.724~ (2021)
- Q. M. Saqib, , Mater. Today Sustainability, 18, pp.100146~ (2022)
- Y. Feng, , Nano Energy, 55, pp.260~ (2019)
- Q. M. Saqib, , Nano Energy, 89, pp.106458~ (2021)
- Q. M. Saqib, , Nano Energy, 100, pp.107475~ (2022)
- D. Kim, , ACS Nano, 10, pp.1017~ (2016)