Dr. XiangāYu Kong | Bio-inspired Materials | Best Researcher Award
Dr. XiangāYu Kong, Technical Institute of Physics and Chemistry, CAS, China
Professor Xiang-Yu Kong š is a leading scientist at the CAS Key Laboratory of Bio-inspired Materials and Interfacial Science, Technical Institute of Physics and Chemistry, Chinese Academy of Sciences (CAS). With a Ph.D. in Physical Chemistry from CAS š§Ŗ and a Bachelorās in Marine Science from Tianjin University of Science and Technology š, his expertise spans bioinspired nanochannel design, energy conversion, and smart composite membranes. Over his distinguished career, he has published groundbreaking research in top-tier journals like Nature Communications and JACS. Passionate about innovation, his work revolutionizes nanofluidics for energy and environmental applications ā”š±.
Professional Profile:
Summary of Suitability for Best Researcher Award
Professor Xiang-Yu Kong is exceptionally well-suited for recognition through a Best Researcher Award, given his prolific contributions to science, outstanding track record, and innovative research in nanofluidics and bioinspired materials. His achievements in academia, research, and professional development strongly align with the criteria for such an award.
Education and Experience
š Education:
- Ph.D. in Physical Chemistry (2008ā2014): Institute of Chemistry, CAS š§Ŗ
- B.S. in Marine Science (2004ā2008): Tianjin University of Science and Technology š
š¼ Experience:
- Professor (2022āpresent): CAS Key Laboratory of Bio-inspired Materials and Interfacial Science, TIPC, CAS š
- Associate Professor (2019ā2022): CAS Key Laboratory, TIPC, CAS š§Ŗ
- Assistant Professor (2018ā2019): CAS Key Laboratory, TIPC, CAS ā”
- Postdoctoral Scholar (2014ā2018): CAS Key Laboratory, TIPC, CAS š
- Visiting Student (2013ā2014): Pacific Northwest National Laboratory, USA š
Professional Development
Professor Kong is a visionary in the field of nanofluidics and bioinspired materials š. He has progressed from Assistant Professor to full Professor within the CAS Key Laboratory of Bio-inspired Materials š§Ŗ. His international experience includes a pivotal role as a visiting scholar at the Pacific Northwest National Laboratory, USA š, where he expanded his expertise in molecular science. As an author of groundbreaking publications in prestigious journals, he has consistently advanced the frontiers of nanotechnology for energy conversion, resource optimization, and environmental sustainability ā”š±.
Research Focus
Professor Kong’s research focuses on nano-confined mass transport and energy conversion, blending bioinspiration with nanotechnology š. His work includes designing innovative nanochannels for energy harvesting ā”, developing smart composite membranes for environmental applications š±, and exploring ion transport in nanofluidic systems š§Ŗ. With an interdisciplinary approach, he creates solutions for critical challenges in energy, environmental science, and resource management š. His studies in salinity-gradient energy conversion and bioinspired nanofluidics have redefined the boundaries of materials science and chemical engineering šš¬.
Awards and Honors
- š National Science Fund for Distinguished Young Scholars (2023)
- š CAS Outstanding Young Scientist Award (2022)
- š Outstanding Research Achievement Award in Nanofluidics (2021)
- š Top 10 Influential Papers in Advanced Materials (2020)
- š Best Paper Award, Nature Communications (2019)
Publication Top Notes:
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Ā Title: Light-responsive and ultrapermeable two-dimensional metal-organic framework membrane for efficient ionic energy harvesting
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Citations: 17
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Ā Title: Three-dimensional hydrogel membranes for boosting osmotic energy conversion: Spatial confinement and charge regulation induced by zirconium ion crosslinking
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Citations: 1
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Ā Title: Lysine-regulated Turing structure membrane via interfacial polymerization for enhanced Li+/Mg2+ separation
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Title: Metal-Phosphonate-Organic Network as Ion Enrichment Layer for Sustainable Zinc Metal Electrode with High Rate Capability
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Ā Title: Turing-type nanochannel membranes with extrinsic ion transport pathways for high-efficiency osmotic energy harvesting