Highly efficient electrocatalysts for seawater electrolysis under high current density: A critical review

MetalMat Pub Date : 2024-01-08 DOI:10.1002/metm.11
Nutthaphak Kitiphatpiboon, Meng Chen, Changrui Feng, Shasha Li, Abuliti Abudula, Guoqing Guan
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Abstract

According to the International Energy Agency (IEA) strategy, water electrolysis will be a second priority for hydrogen production by 2030, which can support sustainable development goals (SDGs). However, for the large-scale application, especially seawater electrolysis at a high current density, cost and durability of the electrocatalytic system need to be taken into account. Herein, fundamental mechanisms of seawater electrolysis in a wide range of pH values, potential electrocatalysts for overall water splitting, recent progress on synthesis electrocatalysts and basic principles for the evaluation of electrocatalysts are reviewed. Subsequently, critical parameters and issues for scaling-up of seawater electrolyzers are critically discussed. Finally, future prospects for completing sustainable hydrogen production from seawater for sustainable development are outlooked. It is anticipated to offer guidelines for the design and production of innovative electrocatalysts with high electrocatalytic activity and durability for the industrial scale application.

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高电流密度下用于海水电解的高效电催化剂:重要综述
根据国际能源机构(IEA)的战略,到 2030 年,水电解将成为制氢的第二优先领域,这将有助于实现可持续发展目标(SDGs)。然而,要实现大规模应用,尤其是在高电流密度下进行海水电解,需要考虑电催化系统的成本和耐用性。本文综述了在广泛的 pH 值范围内进行海水电解的基本机制、整体水分离的潜在电催化剂、合成电催化剂的最新进展以及评估电催化剂的基本原则。随后,批判性地讨论了扩大海水电解槽规模的关键参数和问题。最后,展望了利用海水完成可持续制氢以促进可持续发展的未来前景。预计该研究将为设计和生产具有高电催化活性和耐用性的创新型电催化剂提供指导,以实现工业规模的应用。
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Issue Information Table of Content Cover MetalMat: Unveiling the transformative power of metals in science and technology A review on realizing rechargeable batteries based on SOCl2/SO2 electrolyte systems
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