分解水
电催化剂
材料科学
服务(商务)
纳米技术
使用寿命
缺水
计算机科学
生化工程
催化作用
生态学
工程类
化学
业务
水资源
生物
电极
物理化学
复合材料
营销
光催化
生物化学
电化学
作者
Yong Xie,Yu Sun,Huibing Tao,Xin Wang,Jing Wu,Wei Ma,Li Wang,Zhuo Kang,Yue Zhang
标识
DOI:10.1002/adfm.202111777
摘要
Abstract Electrocatalytic water splitting is recognized as quite a promising protocol for the renewable hydrogen energy production, and significant effort has been devoted to the design of high‐performance electrocatalysts that can efficiently alleviate the critical issue of fossil fuel scarcity. However, the vast majority of traditional design strategies restrictedly focus on the pristine electrocatalyst structure and ultimate performance results, which may lead to the incorrect or even opposite understanding of catalytic structure–performance correlations. With the burgeoning development of in situ techniques, the dynamic service behaviors of electrocatalysts during water splitting have been growingly investigated from enriched perspectives, only by which can the life‐time dynamic structure–performance correlations be established. Herein, to shed new light on the next‐stage development of in situ investigations for water splitting electrocatalysts, a series of dynamic service behavior that existed in water splitting process and highlight their key role for understanding the life‐time dynamic structure–performance correlations is comprehensively summarized. Besides, a wide variety of in situ techniques are systematically dissected in terms of their functional features, advantages, and limitations. Critical challenges and prospects are also discussed for establishing the life‐time dynamic structure–performance correlations of water splitting electrocatalysts.
科研通智能强力驱动
Strongly Powered by AbleSci AI