Energy Harvesting Techniques for Self-Powered Electronics: State-of-the-Art and Challenges
Abstract
This article examines energy harvesting methodologies, with a specific emphasis on their present applications and the obstacles encountered by scientists and engineers in the development of self-sustaining electronic devices. The article examines a range of energy sources, such as solar, kinetic, thermal, and radio frequency (RF) energy, as well as the technological advancements associated with their conversion mechanisms. In addition, energy availability, conversion efficiency, energy management, scalability, and environmental factors are addressed as current obstacles in the field. The article emphasises the utility of energy harvesting in domains such as remote sensing, wearable technology, and the Internet of Things. Furthermore, it discerns nascent patterns and prospective trajectories, emphasising prospective domains for advancement and investigation that may mould the trajectory of self-powered electronics.
References
triboelectric nanogenerators based on Real-Timeapplications in energy harvesting and Self-Poweredsensing. Materials Science and Engineering: 2023;B, 297, 116762.
2. Rong G, Zheng Y, Sawan M. Energy solutions forwearable sensors: A review. Sensors, 2021; 21(11):3806.
3. Jiang C, Li X, Lian S W M. et al. Wireless technologies forenergy harvesting and transmission for ambient selfpoweredsystems. ACS nano, 2021; 15(6): 9328-9354.
4. Gedam R S, Kalyani N T, Dhoble S J. Energy materials:Fundamental physics and latest advances in relevanttechnology. In Energy Materials 2021; (pp. 3-26).
Elsevier.
5. Bathre M, Das P K. Hybrid energy harvesting formaximizing lifespan and sustainability of wirelesssensor networks: A comprehensive review &proposed systems. In 2020 international conferenceon Computational Intelligence for SmartPowerSystemandSustainable Energy (CISPSSE) 2020; (pp. 1-6). IEEE.
6. Srivastava H, Akhai S. The smart tapping identificationmodel without installing a control program inmodernwireless communication. In 2022 InternationalInterdisciplinary Humanitarian Conference forSustainability (IIHC) 2022; (pp. 159-164). IEEE.
7. Hesham R, Soltan A, Madian A. Energy harvestingschemes for wearable devices. AEU-International JournalofElectronics and Communications, 2021; 138, 153888.
8. Zhao J, Ghannam R, Htet K O. et al. SelfâPoweredimplantable medical devices: photovoltaic energyharvesting review. Advanced healthcare materials,2020; 9(17): 2000779.
9. Zhou Y, Xiao X, Chen G. et al. Self-powered sensingtechnologies for human Metaverse interfacing. Joule,2022;6(7): 1381-1389.
10. Liu H, Fu H, Sun L, et al. Hybrid energy harvestingtechnology: From materials, structural design, systemintegration to applications. Renewable and sustainableenergy reviews, 2021; 137, 110473.
11. Shao C, Zhao Y, Qu L. Recent advances in highlyintegrated energy conversion and storagesystem. SusMat,2022; 2(2): 142-160.
12. Sun Y, Li Y Z, Yuan M. Requirements, challenges, andnovel ideas for wearables on power supply andenergyharvesting. Nano Energy, 2023; 115, 108715.
13. Shao C, Zhao Y, Qu L. Recent advances in highlyintegrated energy conversion and .SusMat,2022; 2(2): 142-160.
14. Dogra V. Design and Optimization of MechatronicSystems for Renewable Energy Harvesting.MathematicalStatistician and Engineering Applications, 2021; 70(1):371-377.
15. Yu M, Long Y Z, Sun B, Fan Z. Recent advances insolar cells based on one-dimensional nanostructure
arrays. Nanoscale, 2012; 4(9): 2783-2796.5Kumar A et al.J. Adv Res. Electro. Engi. Tech. 2023; 10(2)
16. Thackeray M M, Wolverton C, Isaacs E D. Electricalenergy storage for transportationâapproaching thelimits of, and going beyond, lithium-ion batteries. Energy& Environmental Science, 2012; 5(7): 7854-7863.
17. Lee S, Kwon G, Ku K. Recent progress in organic electrodesfor Li and Na rechargeable batteries. Advancedmaterials, 2018; 30(42): 1704682.
18. Ceder G. Opportunities and challenges for firstprinciplesmaterials design and applications to Libattery materials. MRS bulletin, 2010; 35(9): 693-701.
19. Akhai S, Mala S, Jerin A A. Understanding whether air
filtration from air conditioners reduces the probabilityof virus transmission in the environment. Journal ofAdvanced Research in Medical Science & Technology(ISSN: 2394-6539), 2021; 8(1): 36-41.
20. Akhai S, Mala S, Jerin A A. Apprehending AirConditioning Systems in Context to COVID-19 and
Human Health: A Brief Communication. InternationalJournal of Healthcare Education & MedicalInformatics(ISSN: 2455-9199), 2020; 7(1,2): 28-30.
21. Akhai S, Singh V P, John S. Investigating IndoorAir Quality for the Split-Type Air Conditioners inan Office Environment and Its Effect on HumanPerformance. Journal of Mechanical Civil Engineering,
2016; 13(6): 113-118.
22. Akhai S, Singh V P, John S. Human performance inindustrial design centers with small unit air conditioningsystems. Journal of Advanced Research in ProductionIndustrial Engineering, 2016; 3(2): 5-11.