催化作用
化学
纳米颗粒
薗头偶联反应
Knoevenagel冷凝
制氢
协同催化
纳米技术
产量(工程)
化学工程
多相催化
金属有机骨架
纳米尺度
光催化
组合化学
金属
绿色化学
纳米孔
分解
纳米复合材料
化学合成
复合数
脱质子化
作者
Changyan Guo,Yanqiu Ma,Yonghong Zhang,Jianghua Pei,Fangshu Han,Shuai Yang,Jide Wang
摘要
Comprehensive Summary Cu‐BTC (BTC = 1,3,5‐benzenetricarboxylic acid) framework faces environmental and scalability challenges in conventional synthesis due to energy‐intensive processes, using toxic solvents and costly precursors, with nanoparticle integration further complicating production through multi‐step procedures that degrade structural integrity. This study developed an innovative ambient‐temperature synthesis of Cu‐N coordinated Cu‐BTC MOF containing dispersed Cu/Cu₂O nanoparticles using economical Cu 0 powder. The N‐ligand‐mediated oxidation and deprotonation simultaneously achieve: (1) incorporation of 5 nm nanoparticles, (2) in situ formation of catalytic Cu–N bonds, and (3) manifestation of multifunctional catalytic performance. The Cu/Cu₂O@Cu‐BTC/N composite demonstrates outstanding catalytic activity, achieving high yields across multiple reactions: 91% in Knoevenagel condensation, 89% in Sonogashira coupling, 99% in Ullmann‐type C–N coupling, and 97% in indole C2‐acylation, along with exceptional photocatalytic hydrogen evolution performance (7.06 mmol·g –1 ·h –1 ). Notably, the synthetic protocol demonstrates excellent scalability, maintaining 90% yield at both 1 g and 10 g scales, thereby establishing a sustainable pathway for large‐scale production of multifunctional MOF catalysts with promising applications in green chemistry and energy‐related fields.
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