◆Adjunct Professor of Songshan Lake Materials Laboratory
◆Group leader of Aqueous Zinc Battery Group
◆Co-founder and Chair of AmaZinc Energy Ltd
◆flexible energy storage
◆Zinc ion Batteries
◆Aqueous Electrolyte Batteries
◆Highly Cited Researcher (Web of science) (2019-2023 Materials Science)
◆Member of Hong Kong Young Academy of Sciences (since Jan 2020)
◆Member of Materials Research Society (since 2006)
◆……
Dr. Chunyi Zhi obtained his Ph.D. in physics from the Institute for Physics, Chinese Academy of Sciences, specializing in the topic of property investigation of BCN nanostructures. After two years of a postdoctoral fellow at the National Institute for Materials Science (NIMS) in Japan, he was promoted to ICYS researcher, researcher (faculty) and senior researcher (permanent position) in NIMS. Dr. Zhi is currently a chair professor at MSE, CityU .And he served the group leader of Aqueous Zinc Battery Group at Songshan Lake Materials Laboratory since 2018.
Group Introduction
The group is aimed to conduct basic research and promote industrialization of extremely safe battery technology. In response to the safety issues caused by the widespread use of lithium batteries in the market, we are committed to providing extremely safe, high performance and high rate zinc based batteries and clean energy solutions for the uninterruptible power supply and energy storage markets. The group adheres to the equal emphasis on scientific research and product development, and has established a comprehensive battery testing platform and a battery production pilot line, with the ability to produce on a large scale. The group has applied for more than 20 invention patents; Published over 30 SCI papers with the laboratory as the first author/corresponding author, including Nature Communications; Simultaneously undertaking 12 provincial, ministerial, and enterprise projects, including sub projects of the National Key Research and Development Program.
Zinc Based Batteries
Since its first emergence in Leclanché cell in 1866, metallic zinc has been considered as an ideal electrode material for aqueous energy storage systems owing to its merits of intrinsically high capacity, suitable redox potential, non-toxicity, high abundance, and absolute safety. These advantageous features have resultantly promoted the recent renaissance of the studies on aqueous rechargeable zinc batteries. These zinc batteries mainly target at low-cost stationary grid storage or flexible applications for wearable electronics, as they have outperformed traditional lithium-ion batteries (LIBs) in both cost efficiency and safety consideration.
Our study focus on enhance voltage and capacity, as well as stablity of a zinc based batteries by developing new electrode materials and electrolytes. We also explore other potential aqueous systems with extreme safety performance and enviromental-friendliness.