X射线吸收光谱法
拉曼光谱
电催化剂
纳米技术
催化作用
电化学
二氧化碳电化学还原
材料科学
碳纤维
吸收(声学)
吸收光谱法
化学
化学稳定性
多相催化
氧还原
过渡金属
还原(数学)
碳纳米管
二氧化碳
作者
Kang‐Shun Peng,Yu‐Jhih Shen,Yu‐Cheng Liu,Ching‐Hsuan Chou,Ya‐Ching Chang,Mo Li,Shao‐Hui Hsu,Sung‐Fu Hung
标识
DOI:10.1002/asia.202500900
摘要
Driven by accelerating global warming and the imperative of carbon neutrality, the search for efficient electrochemical energy-conversion technologies has intensified. Recent advances in electrocatalysis have introduced strategies to overcome kinetic, selectivity, and stability constraints in the carbon dioxide reduction reaction, oxygen reduction reaction, and water splitting. These developments range from atomic-scale structural modulation to microenvironment engineering, yielding substantial gains in product selectivity, reduced overpotential, and enhanced operational durability. This review consolidates representative breakthroughs across these three reaction domains and emphasizing design principles that couple performance optimization with mechanistic insight through operando X-ray absorption spectroscopy (XAS) and Raman spectroscopy. XAS resolves chemical states and local coordination environments, while Raman tracks surface-bound intermediates; together, they enable a comprehensive elucidation of catalytic mechanisms. The review also outlines key directions for advancing efficient, robust, and scalable electrochemical energy-conversion systems.
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