首页|石墨炔制备方法及在光催化产氢中的应用综述

石墨炔制备方法及在光催化产氢中的应用综述

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石墨炔作为一种新型的二维碳同素异形体,因其具有独特的sp-sp2碳原子排列、线性炔键、均匀孔隙结构和高度共轭特性,在光催化产氢领域展现出巨大的应用潜力.本文系统地综述了石墨炔的制备方法并指出这些方法在实现石墨炔的可控生长和结构调控方面发挥的关键作用;详细阐述了石墨炔在光催化产氢中所具备的优点,如增强的光吸收能力、优化的光生电荷分离效率以及抑制光生电子-空穴对复合的能力等;探讨了石墨炔与其他半导体材料构建异质结在光催化产氢中的协同效应,发现这些异质结通过促进光生电子和空穴的有效分离,显著提高了光催化效率.文章指出:在石墨炔制备方面,高质量单层生长、异原子掺杂、新型表征技术等是未来研究的重点;在石墨炔在光催化产氢中的应用方面,优化石墨炔基异质结构进而提升光生电荷分离效率、将石墨炔与量子点和单原子催化剂结合开发更高效的复合光催化剂是未来的研究方向.
Preparation Method of Graphdiyne and Application of Photocatalytic Hydrogen Production
Graphdiyne,as a new two-dimensional carbon allotrope,has shown significant application potential in the field of photocatalytic hydrogen production due to its unique sp-sp2 carbon atom arrange-ment,linear alkyne bond,uniform pore structure and high conjugation characteristics.This paper systemat-ically reviews the preparation methods of GDY,including glaser coupling,hay coupling,eglinton coupling,chemical vapor deposition,interfacial synthesis,template method and mechanochemical synthesis,etc.These methods play a key role in the controlled growth and structural regulation of GDY.Future research into graphitic acetylene preparation includes high-quality monolayer growth,heteroatomic doping,novel characterization techniques,and expanding its applications in areas such as energy conversion.The proper-ties of GDY in photocatalytic hydrogen production,such as enhanced light absorption capacity,optimized photogenerated charge separation efficiency,and inhibition of photogenerated electron-hole pair recombina-tion,are elaborated.In addition,the synergistic effect of GDY with heterostructures constructed from other semiconductor materials in photocatalytic hydrogen production is also investigated,which significantly im-proves the photocatalytic efficiency by facilitating the efficient separation of photogenerated electrons and holes.At the same time,the combination of GDY with quantum dots and single atom catalysts will develop more efficient photocatalysts.It is pointed out that high quality monolayer growth,heteroatomic doping and new characterization techniques are the focus of future research in the preparation of graphylene.In terms of the application of graphiyne in photocatalytic hydrogen production,optimizing the graphiyne heterogen-eous structure,combining graphiyne with quantum dots and single atom catalysts to develop more efficient composite photocatalysts is the direction of future research.The article points out that high-quality mono-layer growth,heteroatomic doping,and new characterization techniques in the preparation of graphiyne are the focus of future research.In terms of the application of graphiyne in photocatalytic hydrogen production,the future research direction is to optimize the graphiyne heterostructure to improve the photogenerated charge separation efficiency,and to develop more efficient composite photocatalysts by combining graph-iyne with quantum dots and single atom catalysts.

graphdiynepreparation of graphdiynephotocatalytic decomposition of aquatic hydrogenphotocatalysisquantum dot

靳治良、刘振坤、张永先

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北方民族大学化学与化学工程学院,宁夏银川 750021

石墨炔 石墨炔的制备 光催化分解水产氢 光催化 量子点

2025

西华大学学报(自然科学版)
西华大学

西华大学学报(自然科学版)

影响因子:0.412
ISSN:1673-159X
年,卷(期):2025.44(1)
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