Ke Li | Nanotechnology | Best Researcher Award

Dr. Ke Li | Nanotechnology | Best Researcher Award 

Wuxi Ninth People’s Hospital Affiliated to Soochow University | China

Dr. Ke Li is an accomplished researcher specializing in orthopaedic surgery with a Ph.D. from Yangzhou University, holding prior degrees in Orthopaedic Surgery (M.M., China Medical University) and Clinical Medicine (B.M., Fujian University of Traditional Chinese Medicine). His research primarily focuses on constructing bio-nanomaterials that target various effector cells in the bone aging microenvironment to develop innovative anti-osteoporosis therapies. As the Principal Investigator of the Jiangsu Provincial Postgraduate Research & Practice Innovation Program, he leads a project on developing a nanozyme-based gene-editing platform for bone cell coupling and osteoporosis treatment. Dr. Li has an impressive portfolio of 23 scholarly publications, accumulating 391 citations and an h-index of 11, underscoring his scientific impact and research excellence. His notable works include pioneering studies on nitric oxide nanopumps for bone marrow regeneration (Nature Communications), cellular senescence mechanisms in skeletal diseases (Bone Research), and nanozyme-based gene editing for reversing osteoporosis (Nano Today). Additionally, his research extends to drug delivery systems, chemo-immunotherapy, and tumor microenvironment modulation, with publications in high-impact journals such as Bioactive Materials, Materials & Design, and Frontiers in Oncology. Dr. Li’s contributions significantly advance the understanding of bone aging, nanomedicine, and regenerative therapy, providing a foundation for translational applications in orthopaedics and related biomedical fields. His innovative approach to integrating nanotechnology with molecular biology continues to drive breakthroughs in therapeutic strategies for skeletal and degenerative diseases.

Profile: Scopus 

Featured Publications 

Li, K., Hu, S., Li, H., et al. (2025). Remodeling adipocytes’ lipid metabolism with a polycation loaded enzyme-active framework reverses osteoporotic bone marrow. Nature Communications.

Li, K., Hu, S., Chen, H., et al. (2025). Cellular senescence and other age-related mechanisms in skeletal diseases. Bone Research.

Shaokun Ge | Engineering | Best Researcher Award 

Dr. Shaokun Ge | Engineering | Best Researcher Award 

China Academy of Safety Science and Technology | China

Shaokun Ge is a Chinese researcher whose work focuses on the thermal and toxic hazards associated with vehicle‐fires on bridges and the consequent implications for structure, rescue operations and traffic strategy. Having earned a BSc in Mining Engineering followed by a D.C. in Safety Engineering, he has developed a profile around four main research strands: the burning behaviour of bridge vehicle fires (including influences of fire type/scale, ambient wind, and decker spacing/sound-barriers); thermal damage to bridge structures and to personnel (through temperature prediction models and fire-resistant materials for key load-bearing elements, as well as thermal‐hazard evaluation from the standpoint of escape and rescue); toxic-gas generation and distribution in bridge‐fire scenarios (addressing asphyxiating/irritating gases, horizontal/vertical distribution at human height, and toxicity-evaluation modelling); and traffic management plus rapid extinguishing systems for bridge fires (e.g., controlling extremely hazardous vehicles, fire-fighting systems employing river water, and micro-foam extinguishing approaches). As of now, his h-index stands at and his publication and citation counts are , reflecting that bibliometric details are still being assembled/verified. His work integrates bridge engineering, fire safety, toxicology, and traffic management, aiming to enhance resilience and rapid response in the event of bridge vehicle‐fires.

Profile: Scopus 

Featured Publications 

Du, G., Liu, G., Ni, Y., Xu, B., & Ge, S. (2025). Fire-induced temperature response of main cables and suspenders in suspension bridges: 1:4-scaled experimental and numerical study. Case Studies in Thermal Engineering, 68, 105878.