Prof. Tianjing Wu | Zinc-Air batteries | Best Researcher Award
Prof. Tianjing Wu, Xiangtan University, China
Prof. Tianjing Wu is a distinguished chemist affiliated with Xiangtan University, China. With expertise spanning energy and optoelectronic materials, he holds a Ph.D. in Physical Chemistry from Central South University. Prof. Wu’s research, notably in advanced batteries, is widely published in premier journals like Advanced Functional Materials and ACS Applied Materials & Interfaces. As an editorial board member for Chinese Chemical Letters and Batteries, he contributes significantly to the field. His innovative work includes designing high-efficiency electrocatalysts and novel materials for energy storage applications. 🧪🔋
Publication profile
Academic Journey
Prof. Tianjing Wu, currently a distinguished professor at Xiangtan University, China, earned his Ph.D. in Physical Chemistry of Metallurgy from Central South University. Prior to his current position, he served as Lead of Research and Development at Sinocare. His academic pursuits reflect a profound interest in energy materials and optoelectronic functional devices, evident in his extensive publication record. As an editorial board member for Chinese Chemical Letters and Batteries, Prof. Wu contributes significantly to advancing research in these fields. His notable contributions include innovations in battery technologies, particularly in zinc-based and sodium-ion batteries, underscoring his commitment to impactful scientific endeavors. 🧪🔋
Research Focus
Prof. Tianjing Wu’s research primarily focuses on advancing electrocatalytic performance for energy storage and conversion technologies, particularly in Zn-air batteries. His contributions span the development of highly efficient oxygen electrocatalysts, such as heteroatom-functionalized carbon nanocages. These innovations aim to enhance the durability and efficiency of batteries, crucial for sustainable energy solutions. Prof. Wu’s work integrates materials science with catalytic chemistry, addressing key challenges in multi-functional electrode design. With a commitment to sustainable energy, his research not only clarifies catalytic mechanisms but also explores novel approaches for electrode nanoengineering, symbolizing his dedication to shaping a cleaner energy future. 🌱🔋
Publication Top Notes
Microcosmic modulation of the Co–N bonding structure improves the multi-functional electrocatalytic performance