Xu Zhiyuan, Tan Xin, Chen Chang, Wang Xingdong, Sui Rui, Zhuang Zhongbin, Zhang Chao, Chen Chen
Engineering Research Center of Advanced Rare Earth Materials, Department of Chemistry, Tsinghua University, Beijing 100084, China.
Research Institute of Petroleum Processing, SINOPEC, Beijing 100083, China.
Natl Sci Rev. 2024 Sep 19;11(12):nwae315. doi: 10.1093/nsr/nwae315. eCollection 2024 Dec.
High-efficiency electrocatalysis could serve as the bridge that connects renewable energy technologies, hydrogen economy and carbon capture/utilization, promising a sustainable future for humankind. It is therefore of paramount significance to explore feasible strategies to modulate the relevant electrocatalytic reactions and optimize device performances so as to promote their large-scale practical applications. Microenvironment regulation at the catalytic interface has been demonstrated to be capable of effectively enhancing the reaction rates and improving the selectivities for specific products. In this review we summarize the latest advances in microenvironment regulation in typical electrocatalytic processes (including water electrolysis, hydrogen-oxygen fuel cells, and carbon dioxide reduction) and the related / characterization techniques and theoretical simulation methods. At the end of this article, we present an outlook on development trends and possible future directions.
高效电催化可以作为连接可再生能源技术、氢经济和碳捕获/利用的桥梁,为人类带来可持续的未来。因此,探索可行的策略来调控相关电催化反应并优化器件性能,以促进其大规模实际应用具有至关重要的意义。催化界面的微环境调控已被证明能够有效提高反应速率并改善特定产物的选择性。在这篇综述中,我们总结了典型电催化过程(包括水电解、氢氧燃料电池和二氧化碳还原)中微环境调控的最新进展以及相关的表征技术和理论模拟方法。在本文结尾,我们对发展趋势和未来可能的方向进行了展望。