Releasing the Constraints on the Catalytic Performance of Ballast Stone in Co-N-C Materials

For Co-N-C materials prepared under high-temperature calcination conditions, the formation of Co nanoparticles occurs when the metal loading exceeds 2%. Typically, CoNx is regarded as the primary active site of the catalyst, while Co nanoparticles are considered to possess limited catalytic activity. Consequently, within Co-N-C materials, Co nanoparticles are often likened to 'ballast stone' in a catalyst. In the model reaction of formic acid dehydrogenation, we incorporated boron into the precursor, thereby enhancing the electronic metal-support interactions (EMSI) between Co nanoparticles and carbon carriers. Consequently, this modification resulted in a catalytic performance of Co nanoparticles that was comparable to that of Co single-atom catalysts (SACs).

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Publication Details

Journal
Molecules
Published
2026-02-05
DOI
https://doi.org/10.3390/molecules31030552
Primary Topic
Carbon dioxide utilization in catalysis
Type
article
Field-Weighted Citation Impact
0.00
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article

Releasing the Constraints on the Catalytic Performance of Ballast Stone in Co-N-C Materials

Xingmian Zhang, Xinwei Li, Junmin Wang, Feng Cheng et al.
Molecules
Carbon dioxide utilization in catalysis
article

Releasing the Constraints on the Catalytic Performance of Ballast Stone in Co-N-C Materials

Xingmian Zhang, Xinwei Li, Junmin Wang, Feng Cheng, Yunhui Hao, Xiaogeng Zhao, Mingzhu Gao, Shengman Wang, Chun Wang, Hong Su, Junna Feng
article en

Abstract

For Co-N-C materials prepared under high-temperature calcination conditions, the formation of Co nanoparticles occurs when the metal loading exceeds 2%. Typically, CoNx is regarded as the primary active site of the catalyst, while Co nanoparticles are considered to possess limited catalytic activity. Consequently, within Co-N-C materials, Co nanoparticles are often likened to 'ballast stone' in a catalyst. In the model reaction of formic acid dehydrogenation, we incorporated boron into the precursor, thereby enhancing the electronic metal-support interactions (EMSI) between Co nanoparticles and carbon carriers. Consequently, this modification resulted in a catalytic performance of Co nanoparticles that was comparable to that of Co single-atom catalysts (SACs).

MoleculesVol. 31(3)
Hebei Agricultural University (CN), Baoding University (CN)
Openalex Percentile: Top 67%
Carbon dioxide utilization in catalysis
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