分解水
材料科学
人工光合作用
化学能
析氧
蓝图
氢燃料
氢
制氢
太阳能
氢经济
太阳能燃料
能量转换
工程物理
工艺工程
环境科学
纳米技术
热力学
电化学
机械工程
电气工程
催化作用
物理
物理化学
工程类
有机化学
化学
光催化
生物化学
电极
作者
Jing Qi,Wei Zhang,Rui Cao
标识
DOI:10.1002/aenm.201701620
摘要
Abstract Artificial photosynthesis provides a blueprint to harvest solar energy to sustain the future energy demands. Solar‐driven water splitting, converting solar energy into hydrogen energy, is the prototype of photosynthesis. Various systems have been designed and evaluated to understand the reaction pathways and/or to meet the requirements of potential applications. In solar‐to‐hydrogen conversion, electrocatalytic hydrogen and oxygen evolution reactions are key research areas that are meaningful both theoretically and practically. To utilize hydrogen energy, fuel cell technology has been extensively investigated because of its high efficiency in releasing chemical energy. In this review, general concepts of the photosynthesis in green plants are discussed, different strategies for the light‐driven water splitting proposed in laboratories are introduced, the progress of electrocatalytic hydrogen and oxygen evolution reactions are reviewed, and finally, the reactions in hydrogen fuel cells are briefly discussed. Overall, the mass and energy circulation in the solar‐hydrogen‐electricity circle are delineated. The authors conclude that attention from scientists and engineers of relevant research areas is still highly needed to eliminate the wide disparity between the aspirations and realities of artificial photosynthesis.
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