Cu-based catalysts encased in a nanoporous carbon shell derived from furfuryl alcohol for isomeric nitrophenol degradation

Abstract Carbon-based Cu materials exhibit high stability and unique properties, including electrochemical CO 2 reduction and plasmon resonance. However, their production faces challenges due to complex synthetic routes and requirements for precise structural control. In this study, we present an efficient thermal method using furfuryl alcohol and Cu metal–organic frameworks to create nanostructured composites with a Cu core and a 2-nm layer porous carbon shell. The carbon shells increase the specific surface area of the material, enhancing substrate adsorption and the catalytic activity for nitrophenol degradation. Our composites are promising for pollutant removal, providing a framework for designing advanced catalytic materials. Graphical abstract

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Publication Details

Journal
MRS Communications
Published
2025-05-22
DOI
https://doi.org/10.1557/s43579-025-00739-4
Primary Topic
Nanomaterials for catalytic reactions
Type
article
Field-Weighted Citation Impact
0.00

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article

Cu-based catalysts encased in a nanoporous carbon shell derived from furfuryl alcohol for isomeric nitrophenol degradation

Yukou Du, Tamao Ishida, Shinichi Hata, Toru Murayama et al.
MRS Communications
Nanomaterials for catalytic reactions
article

Cu-based catalysts encased in a nanoporous carbon shell derived from furfuryl alcohol for isomeric nitrophenol degradation

Yukou Du, Tamao Ishida, Shinichi Hata, Toru Murayama, Sho Kitano, Naoki Toshima, Yukihide Shiraishi, H. Habazaki, Haifeng Wang, Izumi Takenaga
article en

Abstract

Abstract Carbon-based Cu materials exhibit high stability and unique properties, including electrochemical CO 2 reduction and plasmon resonance. However, their production faces challenges due to complex synthetic routes and requirements for precise structural control. In this study, we present an efficient thermal method using furfuryl alcohol and Cu metal–organic frameworks to create nanostructured composites with a Cu core and a 2-nm layer porous carbon shell. The carbon shells increase the specific surface area of the material, enhancing substrate adsorption and the catalytic activity for nitrophenol degradation. Our composites are promising for pollutant removal, providing a framework for designing advanced catalytic materials. Graphical abstract

MRS Communications
Hokkaido University (JP), Osaka City University (JP), Soochow University (CN), Tokyo Metropolitan University (JP), Sanyo-Onoda City University (JP)
Hokkaido University, Japan Society for the Promotion of Science
Openalex Percentile: Top 91%
Nanomaterials for catalytic reactions
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