Innovative Research Award
Jie Lei
Fuzhou University
Jie Lei is a researcher affiliated with Fuzhou University whose scholarly work is associated with electrochemical energy storage, advanced battery materials, and interfacial processes in rechargeable battery systems. His research record includes contributions to lithium–sulfur and aqueous zinc–sulfur battery technologies, with particular attention to sulfur conversion, electrolyte effects, interfacial chemistry, and strategies for improving electrochemical performance. Recent publications identify Fuzhou University as his institutional affiliation and demonstrate continuing activity in energy-storage research. [1] [2]
Abstract
Jie Lei is affiliated with Fuzhou University and conducts research in electrochemical energy storage, with emphasis on advanced rechargeable battery systems and interfacial reaction mechanisms. His published work covers lithium–sulfur batteries, aqueous zinc–sulfur batteries, electrolyte engineering, sulfur conversion chemistry, and electrode–electrolyte interfaces. Recent research has examined reconstruction of the interfacial electric double layer to improve sulfur conversion in aqueous zinc–sulfur batteries, while other collaborative studies address electrolyte strategies for lithium–sulfur batteries operating across broad temperature ranges. These topics are relevant to the development of higher-performance, durable, and safer energy-storage technologies for emerging electrical and electrochemical applications. [2] [3]
Keywords
Energy storage systems, rechargeable batteries, lithium–sulfur batteries, zinc–sulfur batteries, electrochemical energy storage, sulfur conversion, electrolyte engineering, interfacial chemistry, battery materials, electrochemical interfaces.
Introduction
Energy storage research encompasses materials, electrochemical reactions, device architectures, and operating strategies intended to improve the performance and reliability of rechargeable systems. Lithium–sulfur and zinc-based batteries have attracted substantial research attention because of their potential for high energy density, safety, resource availability, or cost advantages. Research addressing reaction kinetics, electrolyte behavior, interfacial stability, and sulfur utilization therefore forms an important part of contemporary battery science. [4]
Research Profile
The supplied bibliographic profile records 43 documents, 1,344 citations, and an h-index of 20 for Scopus author identifier 38561530200. These metrics describe the indexed research record associated with the supplied author profile and may change as databases are updated. Jie Lei’s institutional association with Fuzhou University is independently visible in recent publications concerning zinc–sulfur batteries and related energy-storage research. [1] [2]
Research Contributions
A central theme of the research is the control of interfacial electrochemical processes in sulfur-based batteries. The reported study on aqueous zinc–sulfur batteries examined reconstruction of the interfacial electric double layer as a route to more efficient sulfur conversion, illustrating how electrolyte and interface design can influence reaction behavior. [2]
Publications
Jie Lei has contributed to peer-reviewed publications in journals covering energy materials, electrochemistry, and battery research. Documented examples include the 2025 Nature Communications article on aqueous zinc–sulfur batteries and the 2026 Advanced Energy Materials review addressing electrolyte engineering for wide-temperature lithium–sulfur batteries. His publication record also includes collaborative studies of zinc-ion and sulfur-based electrochemical systems, reflecting sustained engagement with advanced battery research. [2] [3]
Research Impact
The research addresses technical questions relevant to the performance, durability, and operating conditions of emerging battery technologies. Studies of interfacial chemistry can contribute to understanding reaction pathways and limitations within electrochemical cells, while electrolyte engineering can influence transport, stability, and temperature-dependent behavior. The broader significance of these research directions lies in their potential contribution to the scientific development of advanced energy-storage materials and systems rather than in any single publication or metric. [2] [3]
Award Suitability
For an Innovative Research Award associated with the World Electrical Engineering Awards, the documented research profile provides a subject-matter connection through advanced energy-storage systems, rechargeable batteries, electrochemical interfaces, and materials relevant to electrical energy applications. The research record demonstrates activity in areas that intersect with the scientific and technological foundations of energy-storage systems. Final award eligibility or selection remains subject to the applicable award criteria and independent evaluation procedures.
Conclusion
Jie Lei’s research profile is centered on advanced electrochemical energy storage, particularly battery systems involving sulfur chemistry, zinc-based storage, lithium–sulfur technologies, and electrolyte–interface interactions. Available publication evidence confirms his affiliation with Fuzhou University and documents recent contributions to battery research. The supplied Scopus metrics further describe a substantial indexed research record, while recent publications indicate continued activity in emerging energy-storage challenges. [1] [2] [3]
External Links
References
- Elsevier. (n.d.). Scopus author details: Jie Lei, Author ID 38561530200. Scopus.
https://www.scopus.com/authid/detail.uri?authorId=38561530200
- Lei, J., Lin, J., Zuo, Y., et al. (2025). Reconstructing interfacial electric double layer for efficient sulfur conversion reaction in aqueous zinc sulfur batteries. Nature Communications, 16, 10144.
https://doi.org/10.1038/s41467-025-64974-y
- Lin, P., Gao, R., Lei, J., et al. (2026). Progress and Prospect of Electrolyte Engineering Strategies for Wide-Temperature Lithium–Sulfur Batteries. Advanced Energy Materials, 16(29), e71233.
https://doi.org/10.1002/aenm.71233
- Huang, Y., Liu, M., Hou, H., Cai, J., Lei, J., et al. (2026). Boosting Zn2+ storage performance of MnO2 cathodes via dual-crystal-phase engineering for reversible Zn-ion batteries. ENG. Energy, 20(5), 10606.
https://doi.org/10.1007/s11708-026-1060-6