Recent advances of anion regulated NiFe-based electrocatalysts for water oxidation
Literature Information
Zhihua Zhai, Guixing Jia, Yu Wang, Xiaoting Chen, Zhonghua Zhang
Increasing energy demand has spurred extensive research on the development of efficient and pollution-free alternative energy conversion and storage technologies. Water oxidation is a critically limiting anodic reaction of electrochemical water splitting and has been a research hotspot. However, significantly high overpotentials are usually required to overcome the large energy barriers of water oxidation. NiFe-based electrocatalysts have been suggested to be prospective candidates towards water oxidation, but improvement of their intrinsic activity still demands in-depth investigations. Over the past decades, anionic regulation has attracted increasing attention as a strategy to enhance the intrinsic activity of NiFe-based oxides/(oxy) hydroxides through tuning the electronic structures of cation active sites. This review focuses primarily on the recent advances of anion regulated NiFe-based electrocatalysts (NiFe oxides/(oxy)hydroxides) for water oxidation. Specifically, we highlight the water oxidation activity that is associated with different synthesis strategies and structural characterization studies of various NiFe oxides/(oxy) hydroxides regulated by different anions. By reviewing the advantages and limitations of these synthesis strategies, the future developing directions of NiFe-based energy materials are also prospected.
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