Applied Catalysis2022,Vol.3027.DOI:10.1016/j.apcatb.2021.120817

Ionic covalent organic nanosheet anchoring discrete copper for efficient quasi-homogeneous photocatalytic proton reduction

Zang, Ying Cheng, Yuan-Jie Wang, Zhao-Di Peng, Peng Dong, Qing-Guo Chen, Hong Wang, Rui Zang, Shuang-Quan
Applied Catalysis2022,Vol.3027.DOI:10.1016/j.apcatb.2021.120817

Ionic covalent organic nanosheet anchoring discrete copper for efficient quasi-homogeneous photocatalytic proton reduction

Zang, Ying 1Cheng, Yuan-Jie 1Wang, Zhao-Di Peng, Peng Dong, Qing-Guo Chen, Hong Wang, Rui Zang, Shuang-Quan
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作者信息

  • 1. Zhengzhou Univ
  • 折叠

Abstract

Covalent organic nanosheets can be applied potentially to solar-to-hydrogen fuel conversion because of their long-range ordered structure and predictable regulation. Additionally, minor progress has been made in the precise synthesis of copper-loaded composite catalysts at the atomic level. Hence, we synthesized hybrid Cu@TpTG-iCON materials by anchoring copper(II) ions into the evenly dispersed tridentate chelation sites of the TpTG-iCON precursor, which maximized the exposure of active sites during the catalytic reaction. Taking advantage of the well-defined structural configuration and nanosheet morphology, the heterogeneous Cu@TpTGiCON catalyst exhibited an excellent hydrogen evolution reaction (HER) rate and significant stability in a ternary photocatalytic system. The atomic-level coordination modulation strategy in the covalent organic nanosheet matrix successfully demonstrated here has made possible the synthesis of other non-precious metal-based hybrid materials, indicating a step forward in the generation of a recyclable and efficient HER catalyst.

Key words

Covalent organic nanosheet/Heterogeneous catalysis/Discrete copper/Photocatalysis/Proton reduction/FRAMEWORK NANOSHEETS/HYDROGEN-PRODUCTION/EVOLUTION/CONSTRUCTION/GENERATION/STABILITY/CHEMISTRY/POLYMER/SITES

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出版年

2022
Applied Catalysis

Applied Catalysis

ISSN:0926-3373
被引量5
参考文献量45
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