Innovative Research Award
| Xiangyan Chen |
| Researcher |
Xiangyan Chen |
| Affiliation |
Northwest Institute for Non-ferrous Metal Research |
| Country |
China |
| Scopus ID |
57189224260 |
| Documents |
13 |
| Citations |
973 |
| h-index |
8 |
| Subject Area |
Photoelectrochemical water splitting |
| Event |
International Chemical Scientist Awards |
Xiangyan Chen
Northwest Institute for Non-ferrous Metal Research
Xiangyan Chen is a researcher recognized for contributions to photoelectrochemical water splitting and advanced materials for sustainable hydrogen production. Research activities include semiconductor engineering, interface optimization, and photocatalytic systems designed to improve solar energy conversion efficiency and long-term stability in clean energy technologies.[1]
Abstract
Xiangyan Chen’s research focuses on photoelectrochemical water splitting through advanced semiconductor materials and interface engineering. The work supports renewable hydrogen production, improved photocatalytic efficiency, and durable photoelectrode development while contributing to sustainable energy research and environmentally responsible technological innovation.[1][2]
Keywords
Photoelectrochemical Water Splitting, Hydrogen Production, Semiconductor Materials, Renewable Energy, Photocatalysis, Solar Energy Conversion, Surface Engineering, Clean Energy Technologies.
Introduction
Photoelectrochemical water splitting represents an important strategy for renewable hydrogen generation using solar energy. Xiangyan Chen has contributed to materials optimization and photoelectrode development, supporting improved efficiency, stability, and practical implementation of sustainable energy technologies through interdisciplinary scientific research.[1][3]
Research Profile
Affiliated with the Northwest Institute for Non-ferrous Metal Research, Xiangyan Chen has authored multiple peer-reviewed publications with notable citation performance. Research interests include semiconductor interfaces, photocatalytic materials, and advanced nanostructures supporting efficient solar-driven hydrogen production and energy conversion systems.[1][2]
Research Contributions
Research contributions include developing functional photoelectrode materials, improving charge separation, optimizing semiconductor interfaces, and enhancing photocatalytic stability. These investigations support higher hydrogen evolution efficiency and provide valuable scientific understanding for future renewable energy conversion technologies.[2][3]
Publications
The researcher has published thirteen indexed scientific documents addressing photoelectrochemical materials, photocatalysis, and renewable hydrogen technologies. These publications have accumulated significant citations, reflecting continued academic interest and influence within materials science and sustainable energy research communities.[1][2]
Research Impact
With nearly one thousand citations, the published work demonstrates measurable academic influence. Findings contribute to advancements in photocatalytic materials, inspire subsequent investigations, and strengthen scientific efforts toward efficient renewable hydrogen production and environmentally sustainable energy technologies.[1][3]
Award Suitability
The Innovative Research Award recognizes impactful scientific achievements advancing technological progress. Xiangyan Chen’s publication record, citation performance, and sustained contributions to photoelectrochemical water splitting demonstrate alignment with the objectives of recognizing innovation, research quality, and meaningful scientific advancement.[1]
Conclusion
Xiangyan Chen’s research reflects continued contributions to renewable energy materials and photoelectrochemical technologies. Scientific publications, citation performance, and innovative investigations collectively demonstrate a meaningful academic profile supporting recognition within international scientific award programs.[1][2]
External Links
References
- Elsevier. (n.d.). Scopus author details: Xiangyan Chen, Author ID 57189224260. Scopus.
https://www.scopus.com/authid/detail.uri?authorId=57189224260
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Chen, X., Ma, T., Li, D., & Wang, S. (2026). Molten-salt electrolysis induced controllable oxygen vacancies in TiO₂ nanorods for photoelectrocatalytical water splitting. Journal of Power Sources, 665, 239000.
https://www.researchgate.net/publication/400323255
- International Chemical Scientist Awards.
https://chemicalscientists.com/