软件部署
可扩展性
标杆管理
工艺工程
系统工程
比例(比率)
材料科学
计算机科学
制氢
纳米技术
生化工程
工程类
氢
业务
物理
营销
有机化学
化学
操作系统
数据库
量子力学
作者
Marie Francine Lagadec,Alexis Grimaud
出处
期刊:Nature Materials
[Springer Nature]
日期:2020-10-05
卷期号:19 (11): 1140-1150
被引量:439
标识
DOI:10.1038/s41563-020-0788-3
摘要
Green hydrogen production using renewables-powered, low-temperature water electrolysers is crucial for rapidly decarbonizing the industrial sector and with it many chemical transformation processes. However, despite decades of research, advances at laboratory scale in terms of catalyst design and insights into underlying processes have not resulted in urgently needed improvements in water electrolyser performance or higher deployment rates. In light of recent developments in water electrolyser devices with modified architectures and designs integrating concepts from Li-ion or redox flow batteries, we discuss practical challenges hampering the scaling-up and large-scale deployment of water electrolysers. We highlight the role of device architectures and designs, and how engineering concepts deserve to be integrated into fundamental research to accelerate synergies between materials science and engineering, and also to achieve industry-scale deployment. New devices require benchmarking and assessment in terms of not only their performance metrics, but also their scalability and deployment potential. Although low-temperature water electrolysers are crucial for decarbonizing the industrial sector, substantial improvements in performance and deployment rates are needed. Recent developments in devices with modified architectures and designs, and practical challenges hampering large-scale deployment are discussed.
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