![](https://blog.nus.edu.sg/wangqing/files/2022/09/IMG_0644-1024x683.jpg)
Our research interest spans from the fundamental understanding of charge propagations in mesoscopic energy conversion and storage systems, to the development of new approaches for advanced electrochemical/ photoelectrochemical energy conversion and storage. On the basis of redox-targeting reactions of energy materials, we have been advancing a new battery technology — redox flow X-batteries (X denotes different battery chemistry), for next generation large-scale energy storage. We are now expanding the redox-targeting concept to other energy-related processes, such as decoupled on-demand hydrogen production and spent battery materials recycling, etc. We welcome highly motivated students and researchers to pursue their academic career with us.
News Highlights
- A Hybrid Redox-Mediated Zinc-Air Fuel Cell for Scalable and Sustained Power Generation
In our latest paper in Angewandte Chemie by Yuxi et al., a hybrid redox-mediated zinc-air fuel cell (HRM-ZAFC) utilizing 7,8-dihydroxyphenazine-2-sulfonic acid (DHPS) as the anolyte redox mediator, which shifts the zinc oxidation reaction from the electrode surface to a separate fuel tank. This approach decouples fuel feeding and electricity generation, providing greater operation flexibility and scalability for large-scale power generation applications.
- Congratulations to Prof. Wang on his promotion to Full Professor
Congratulations to Professor Wang Qing from The Department of Materials Science and Engineering, NUS on his promotion to Full Professor!
As one of the brilliant minds in the field of Materials Science and Engineering, Prof. Wang Qing has always been an inspiring mentor, colleague and friend.
Wishing you success with your new promotion, Prof. Wang Qing! 👏 👏 👏
(See the original post at LinkedIn – NUS Materials Science and Engineering) - Continuous electricity generation from solar heat and darkness
In our latest paper in Joule by Zhang et al., we reported a charging-free thermally regenerative electrochemical cycles system with the aid of dual-mode thermal regulations for solar energy harvesting and radiative cooling, enabling efficient conversion of energy from two crucial sources on Earth: the sun with a temperature of around 6,000 K and outer space with a temperature of 3 K.