制氢
蒸汽重整
可再生能源
持续性
氢经济
环境科学
化石燃料
生产(经济)
催化作用
废物管理
环境经济学
生化工程
工艺工程
工程类
化学
经济
宏观经济学
生态学
生物化学
电气工程
生物
作者
Bin Hu,Riyang Shu,Hafila S. Khairun,Zhipeng Tian,Chao Wang,Navneet Kumar Gupta
标识
DOI:10.1002/asia.202400217
摘要
Abstract With increasing global emphasis on environmental sustainability, the reliance on traditional energy sources such as coal, natural gas, and oil are encountering significant challenges. H 2 , known for its high energy content and pollution‐free usage, emerges as a promising alternative. However, despite the great potential of H 2 , approximately 95 % of hydrogen production still depends on non‐renewable resources. Hence, the shift towards producing H 2 from renewable sources, particularly through methods like steam reforming of methanol – a renewable resource – represents a beacon of hope for advancing sustainable energy practices. This review comprehensively examines recent advancements in efficient H 2 production using Ni‐based catalysts in methanol steam reforming (MSR) and proposes the future prospects. Firstly, the fundamental principles of MSR technology and the significance in clean energy generation are elucidated. Subsequently, the design, synthesis techniques, and optimization strategies for enhancing the catalytic performance of Ni‐based catalysts are discussed. Through the analysis of various catalyst compositions, structural adjustments, surface active sites, and modification methods, the review uncovers effective approaches for boosting the activity and durability of MSR reactions. Moreover, the review investigates the causes of deactivation in Ni‐based catalysts during MSR reactions and proposes strategies for extending catalyst lifespan through fine design and optimization of operation parameters. Lastly, this review outlines the current research challenges and anticipates the future trends and potential applications of Ni‐based catalysts in MSR hydrogen production. By offering a comprehensive critical analysis, this review serves as a valuable reference to enhance MSR hydrogen production efficiency and catalyst performance.
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