Catalytic reduction of CO2 in the interface formed by monolayer graphene and metal atom (Pt, Ni, Pd, Co) doped Cu-nanoclusters: A theoretical design and investigation

Zhang, Jingbin; Qi, Shuangling; Pu, Na; Chen, Yang; Liu, Xiangyang; Li, Laicai

doi:10.1016/j.mcat.2023.113504

Molecular Catalysis

2023

DOI: 10.1016/j.mcat.2023.113504

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Catalytic reduction of CO2 in the interface formed by monolayer graphene and metal atom (Pt, Ni, Pd, Co) doped Cu-nanoclusters: A theoretical design and investigation

Jingbin Zhang,

Shuangling Qi,

Na Pu

et al.

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2024

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Cited by 3 publications

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Advancing electrochemical CO₂ reduction with group 11 metal nanoclusters for renewable energy solutions

Biswas,

Shingyouchi,

Ogami

et al. 2024

EcoEnergy

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Understanding the intricate relationship between structure and properties is paramount in distinguishing nanocluster (NC) materials from their counterparts. Despite the progress in synthesizing new NCs, the sluggish exploration of their potential applications persists due to the difficulty in stabilizing these materials. However, recent investigations have unveiled their remarkable efficacy as catalysts in electrochemical CO2 reduction reactions, surpassing traditional materials. This discovery, addressing urgent global concerns, has quickly drawn significant attention to this field, leading to its rapid expansion. Hence, there is an urgent need to outline this research landscape and pinpoint effective strategies, marking a significant advancement. In this context, our endeavor is dedicated to offering researchers a thorough understanding of recently synthesized NC materials. We aim to elucidate their distinct structural architectures and associated properties essential for catalyst design. We envision that this systematic review will serve as a guiding beacon for future research endeavors in this burgeoning field.

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Advancing electrochemical CO₂ reduction with group 11 metal nanoclusters for renewable energy solutions

Biswas,

Shingyouchi,

Ogami

et al. 2024

EcoEnergy

View full text Add to dashboard Cite

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Conformal active learning-aided screening of ligand-protected Cu-nanoclusters for CO₂ reduction reactions

Roy,

Das,

Pathak

2024

J. Mater. Chem. A

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Surface defect induced polarization manipulation in Cu₂SnS₃ for boosting electrochemical CO₂ reduction

Wang,

Wen,

et al. 2024

J. Mater. Chem. A

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Catalytic reduction of CO2 in the interface formed by monolayer graphene and metal atom (Pt, Ni, Pd, Co) doped Cu-nanoclusters: A theoretical design and investigation

Cited by 3 publications

References 51 publications

Advancing electrochemical CO₂ reduction with group 11 metal nanoclusters for renewable energy solutions

Advancing electrochemical CO₂ reduction with group 11 metal nanoclusters for renewable energy solutions

Conformal active learning-aided screening of ligand-protected Cu-nanoclusters for CO₂ reduction reactions

Surface defect induced polarization manipulation in Cu₂SnS₃ for boosting electrochemical CO₂ reduction

Contact Info

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Catalytic reduction of CO2 in the interface formed by monolayer graphene and metal atom (Pt, Ni, Pd, Co) doped Cu-nanoclusters: A theoretical design and investigation

Cited by 3 publications

References 51 publications

Advancing electrochemical CO2 reduction with group 11 metal nanoclusters for renewable energy solutions

Advancing electrochemical CO2 reduction with group 11 metal nanoclusters for renewable energy solutions

Conformal active learning-aided screening of ligand-protected Cu-nanoclusters for CO2 reduction reactions

Surface defect induced polarization manipulation in Cu2SnS3 for boosting electrochemical CO2 reduction

Contact Info

Product

Resources

About

Advancing electrochemical CO₂ reduction with group 11 metal nanoclusters for renewable energy solutions

Advancing electrochemical CO₂ reduction with group 11 metal nanoclusters for renewable energy solutions

Conformal active learning-aided screening of ligand-protected Cu-nanoclusters for CO₂ reduction reactions

Surface defect induced polarization manipulation in Cu₂SnS₃ for boosting electrochemical CO₂ reduction