Atomically Dispersed Cu Anchored on Nitrogen and Boron Codoped Carbon Nanosheets for Enhancing Catalytic Performance

Development of high-performance heterogeneous catalytic materials is important for the rapid upgrade of chemicals, which remains a challenge. Here, the benzene oxidation reaction was used to demonstrate the effectiveness of the atomic interface strategy to improve catalytic performance. The developed B,N-cocoordinated Cu single atoms anchored on carbon nanosheets (Cu-1/B-N) with the Cu-N2B1 atomic interface was prepared by the pyrolysis of a precoordinated Cu precursor. Benefiting from the unique atomic Cu-N2B1 interfacial structure, the designed Cu-1/B-N exhibited considerable activity in the oxidation of benzene, which was much higher than Cu-1/N-C, Cu NPs/N-C, and N-C catalysts. A theoretical study showed that the enhanced catalytic performance resulted from the optimized adsorption of intermediates, which originated from the manipulation of the electronic structure of Cu single atoms induced by B atom coordination in the Cu-N2B1 atomic interface. This study provides an innovative approach for the rational design of high-performance heterogeneous catalytic materials at the atomic level.

Automated summary

The study demonstrates the effectiveness of the atomic interface strategy in improving catalytic performance through the design of Cu-1/B-N with a Cu-N2B1 atomic interface. The enhanced catalytic activity is attributed to the optimized adsorption of intermediates resulting from the manipulation of the electronic structure of Cu single atoms in the Cu-N2B1 atomic interface. This approach provides an innovative method for the rational design of high-performance heterogeneous catalytic materials at the atomic level.