Electrochemical hydrogen generation technology: Challenges in electrodes materials for a sustainable energy

IF 2.9 Q2 ELECTROCHEMISTRY
Carlos V. M. Inocêncio, Yaovi Holade, Claudia Morais, K. Boniface Kokoh, Teko W. Napporn
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引用次数: 7

Abstract

Foresee advanced and innovative strategies is a key approach and constitutes a cornerstone for accessing clean, affordable, and reliable energy to satisfy the world's increasing prosperity and economic growth. To this end, hydrogen energy technologies parade as promising sustainable solutions to the looming energy crisis at either the small or large industrial scale, which will enable to reduce significantly our dependence on conventional energy sources based on fossil fuels without increasing atmospheric CO2 levels. Water electrolysis with renewable energy is one of the best solutions to produce hydrogen without COx (CO and CO2) emissions. However, the practical realization of this elegant opportunity of paramount importance is facing several challenges, among which are: (i) the efficient design of cathode and anode catalytic materials exhibiting improved intrinsic and durable activity; (ii) the scale-up of the system for the large-scale hydrogen production through the electrochemical water splitting. This review puts these opportunities and challenges into a broad context, discusses the recent research and technological advances, and finally provides several pathways and guidelines that could inspire the development of groundbreaking electrochemical devices for hydrogen production. It also points out the materials design and preparation for the efficient electrochemical production of the molecular hydrogen in acidic and alkaline environments, from a simple electrolytic solution to the water splitting reaction, which is also considered in the process. Furthermore, the main technology keys for designing a reliable electrochemical system will be noticed.

Abstract Image

电化学制氢技术:可持续能源电极材料的挑战
预见先进和创新的战略是获得清洁、负担得起和可靠的能源以满足世界日益增长的繁荣和经济增长的关键途径和基石。为此,无论是在小型还是大型工业规模上,氢能源技术都是解决迫在眉睫的能源危机的有希望的可持续解决方案,它将使我们能够大大减少对基于化石燃料的传统能源的依赖,而不会增加大气中的二氧化碳水平。利用可再生能源进行水电解是不排放COx (CO和CO2)的最佳解决方案之一。然而,实际实现这一最重要的优雅机会面临着几个挑战,其中包括:(i)阴极和阳极催化材料的有效设计,表现出更好的内在和持久的活性;(二)扩大系统规模,实现电化学水分解大规模制氢。这篇综述将这些机遇和挑战置于一个广阔的背景下,讨论了最近的研究和技术进步,最后提供了几种途径和指导方针,可以激发突破性的电化学制氢装置的发展。指出了在酸性和碱性环境下,从简单的电解溶液到水裂解反应的高效电化学生产分子氢的材料设计和制备,这也是该过程中考虑的问题。并指出了设计可靠的电化学系统的主要技术关键。
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来源期刊
CiteScore
3.80
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