期刊
CHINESE JOURNAL OF CHEMICAL ENGINEERING
卷 43, 期 -, 页码 282-296出版社
CHEMICAL INDUSTRY PRESS CO LTD
DOI: 10.1016/j.cjche.2022.02.010
关键词
Hydrogen energy; Hydrogen production; Renewable energy; Nanomaterials; Electrocatalytic water splitting
资金
- National Nature Science Foundation of China [22122113]
- National Key Research & Development Program of China [2021YFB4000405]
Hydrogen energy, as a secondary energy source with great commercial potential, has been extensively studied. Electrocatalytic water splitting hydrogen production, with its mild reaction conditions, high-purity hydrogen generation, and sustainable production process, stands out among other hydrogen production methods. However, the high electricity cost limits the further promotion of this process. Therefore, the rational design and development of low overpotential and high stability electrocatalytic water splitting catalysts are crucial for achieving low-cost hydrogen production technology.
As a secondary energy with great commercialization potential, hydrogen energy has been widely studied due to the high calorific value, clean combustion products and various reduction methods. At present, the blueprint of hydrogen energy economy in the world is gradually taking shape. Compared with the traditional high-energy consuming methane steam reforming hydrogen production method, the electrocatalytic water splitting hydrogen production stands out among other process of hydrogen production owning to the mild reaction conditions, high-purity hydrogen generation and sustainable production process. Basing on current technical economy situation, the highly electric power cost limits the further promotion of electrocatalytic water splitting hydrogen production process. Consequently, the rational design and development of low overpotential and high stability electrocatalytic water splitting catalysts are critical toward the realization of low-cost hydrogen production technology. In this review, we summarize the existing hydrogen production methods, elaborate the reaction mechanism of the electrocatalytic water splitting reaction under acidic and alkaline conditions and the recent progress of the respective catalysts for the two half-reactions. The structure-activity relationship of the catalyst was deep-going discussed, together with the prospects of electrocatalytic water splitting and the current challenges, aiming at provide insights for electrocatalytic water splitting catalyst development and its industrial applications. (c) 2022 The Chemical Industry and Engineering Society of China, and Chemical Industry Press Co., Ltd. All rights reserved.
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