Recent advancements in catalyst coated membranes for water electrolysis: a critical review

IF 3.2 Q2 CHEMISTRY, PHYSICAL Energy advances Pub Date : 2024-05-08 DOI:10.1039/D4YA00143E
Rajangam Vinodh, Tamilazhagan Palanivel, Shankara Sharanappa Kalanur and Bruno G. Pollet
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Abstract

It is imperative to transition towards sustainable energy sources to mitigate the escalating threat of global warming and ameliorate the adverse impacts of climatic changes. Water electrolysis (WE) stands out as a promising pathway for producing green hydrogen among various renewable energy technologies. Hydrogen offers a flexible and eco-friendly energy solution that holds promise for reducing carbon emissions across multiple industries. Recent progress in sustainable hydrogen production reflects its ability to meet the growing need for clean fuel and efficient energy storage. Despite the myriad components influencing the efficacy and long-term stability of electrolysis systems, the catalyst coated membrane (CCM) assumes a pivotal role. This present review comprehensively examines the state-of-the-art in catalyst coated membrane technology for water electrolysis, elucidating fabrication techniques, design principles, durability, degradation mechanisms and performance-enhancing strategies. Furthermore, this review article contributes to further technological advancements and future perspectives of CCM in water electrolysers, focusing on electrolyser design, materials innovation, and system integration for commercially viable hydrogen production purposes.

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电解水用催化剂涂层膜的最新进展:重要综述
当务之急是向可持续能源过渡,以缓解不断升级的全球变暖威胁和气候变化的不利影响。在各种可再生能源技术中,水电解法(WE)是生产绿色氢气的一种前景广阔的途径。氢能提供了一种灵活、环保的能源解决方案,有望减少多个行业的碳排放。可持续制氢技术的最新进展反映出它能够满足人们对清洁燃料和高效储能日益增长的需求。尽管影响电解系统功效和长期稳定性的成分众多,但催化剂涂层膜(CCM)却起着举足轻重的作用。本综述全面考察了用于水电解的催化剂涂层膜技术的最新进展,阐明了制造技术、设计原理、耐久性、降解机制和性能提升策略。此外,这篇综述文章还对水电解槽中 CCM 的进一步技术进步和未来前景做出了贡献,重点关注电解槽设计、材料创新和系统集成,以实现商业上可行的制氢目的。
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