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Metal–Organic Framework-Derived Cu2O–Cu2S Heterojunction Nanostructures on Copper Foams for Furfural Electrohydrogenation

In the pursuit of environmentally benign electrohydrogenation processes for furfural (FF) conversion, we innovatively synthesized Cu2O–Cu2S heterojunction nanostructures on copper foams (Cu2O–Cu2S@CF), as derived from the metal–organic framework (MOF) through a two-step method. Capitalizing on the p...

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Published in:ACS applied nano materials 2024-04, Vol.7 (7), p.8113-8120
Main Authors: Shen, Hao-Jie, Guo, Hai-Yan, Wen, Shi-Ya, Zhang, Lu, Feng, Jiu-Ju, Wang, Ai-Jun
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container_title ACS applied nano materials
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creator Shen, Hao-Jie
Guo, Hai-Yan
Wen, Shi-Ya
Zhang, Lu
Feng, Jiu-Ju
Wang, Ai-Jun
description In the pursuit of environmentally benign electrohydrogenation processes for furfural (FF) conversion, we innovatively synthesized Cu2O–Cu2S heterojunction nanostructures on copper foams (Cu2O–Cu2S@CF), as derived from the metal–organic framework (MOF) through a two-step method. Capitalizing on the porous structure and electronic tunability of the MOF, the heterostructured Cu2O–Cu2S@CF catalyst was meticulously controlled by modulating precursor types and optimizing the calcination treatment. This electrocatalyst demonstrated outstanding efficiency in the electrohydrogenation of FF to furfuryl alcohol (FA), achieving a very low potential of −93 mVRHE at −10 mA cm–2 and rapid kinetics. Its remarkably stable performance was validated by the cycling tests. Simultaneously, the catalyst exhibited exceptional selectivity (99.3%) and yield (98.5%) in the conversion of FF to FA, even in the presence of competitive reactions. This study provides some valuable insights for green and sustainable conversion of biomass-based compounds into high value-added products by electrocatalysis.
doi_str_mv 10.1021/acsanm.4c00712
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title Metal–Organic Framework-Derived Cu2O–Cu2S Heterojunction Nanostructures on Copper Foams for Furfural Electrohydrogenation
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