氨
稀缺
可持续能源
燃料电池
可再生能源
纳米技术
背景(考古学)
化石燃料
阳极
催化作用
环境科学
能量密度
渲染(计算机图形)
氢燃料
持续性
材料科学
氨生产
储能
氢气储存
生化工程
清洁能源
可持续发展
电化学
工艺工程
氢
氧化还原
计算机科学
作者
Xiaowei Shen,Qiyang Cheng,Sisi Liu,Yunfei Huan,Yanzheng He,Fengchun Zhou,Mengfan Wang,Chenglin Yan,Tao Qian
出处
期刊:Nano Research
[Springer Science+Business Media]
日期:2025-09-06
卷期号:19 (2): 94908039-94908039
被引量:4
标识
DOI:10.26599/nr.2025.94908039
摘要
In response to growing energy and environmental concerns associated with fossil fuels, renewable energy-powered fuel cells have gained significant attention as sustainable alternatives. Especially, ammonia offers high energy density as well as superior storage and transport properties, thus attracting increasing attention as a promising alternative to hydrogen and rendering direct ammonia fuel cells (DAFCs) distinct safety advantages over hydrogen-based systems. While platinum-based catalysts currently dominate the anodic ammonia oxidation reaction (AOR) applications, their scarcity and high cost substantially hinder DAFC commercialization. In this context, developing non-platinum-based electrocatalysts for the AOR represents the efforts towards the more economical use of ammonia energy. This review comprehensively introduces recent progress in non-platinum-based AOR electrocatalysts for low-temperature DAFC applications. Beginning with introductory section highlighting historical context and catalytic breakthroughs, fundamental understanding of DAFC system and the anodic AOR are systematically presented. Subsequently, it outlines the advancements in typical non-platinum-based catalysts, highlighting material innovations and performance enhancements. The analysis concludes by identifying critical research challenges and future directions, offering strategic insights to accelerate the development of high-efficiency DAFC systems.
科研通智能强力驱动
Strongly Powered by AbleSci AI