通过原位合成法将金属颗粒 (Cu) 修饰MOF孔道，研究金属微颗粒的引

Metal particles (Cu) were used to modify the pores of MOF by in situ synthesis, and the effects of the introduction of metal particles on the catalytic performance of MOF materials such as current density and Faradaic efficiency in the process of catalyzing CO2RR were studied. Metals are conductive, and loading metal particles can increase the electron transfer rate. The experimental results show that the material can reach more than 95% FECO in a wide voltage range (-0.7 V~-1.0 V), and among them, at -0.9 V close to 100%. In conclusion, the in situ synthesis method successfully loaded metallic Cu into MOFs to enhance the electrocatalytic performance of CO2.

By in-situ synthesis, metal particles (Cu) were modified into MOF pores to investigate the effect of the introduction of metal microparticles on the catalytic performance of MOF materials in the CO2RR process, such as current density and Faraday efficiency. Metals have conductivity, and loading metal particles can increase the electron transfer rate. The experimental results show that the material can achieve over 95% FECO over a wide voltage range (-0.7 V~-1.0 V), with FECO approaching 100% at -0.9 V. In summary, the in-situ synthesis method successfully loaded metal Cu into MOF, improving the CO2 electrocatalytic performance.

Metal particles (Cu) were modified into MOF channels by in-situ synthesis method, and the effects of the introduction of metal particles on the catalytic performance of MOF materials, such as current density and Faraday efficiency, were studied. Metal is conductive, and loading metal particles can improve the electron transfer rate. The experimental results show that the FeCO of this material can reach more than 95% in a wide voltage range (-0.7 V ~-1.0 V), and it is close to 100% at-0.9 V.. In a word, Cu was successfully loaded into MOF by in-situ synthesis method, which improved the electrocatalytic performance of CO2.