Biomimetically Engineering Valency in Copper Aerogel Toward Efficient Laccase‐Mimicking Nanozyme

Developing nanozymes with high intrinsic activity to bridge the gap with natural enzymes has received unremitting attention. In this study, inspired by the copper active center for natural laccase and the multivalent characteristic of Cu, the valence state of Cu-based aerogel is modulated via adjusting the reductant usage for mimicking laccase. The laccase-mimicking activity is well-tailored via valence state manipulation, and theoretical calculations unveil the mechanism that the Cu<sup>0</sup> and Cu<sup>I</sup> species enhance the substrate adsorption capability and the Cu<sup>II</sup> species are paramount to lowering the activation barrier synergistically. Heterogeneous metals are further incorporated to promote the valency-conversion of Cu and biomimetic electron transfer, conferring the constructed CuPt<sub>7.5%</sub> aerogel nanozyme with an ultralow detectable limit of 1 nm for phenolic pollutants. This work highlights the multivalence of Cu on laccase-mimicking activity and provides insights into the underlying catalytic mechanism, shedding light on the rational design of high-performance nanozymes for practical application.

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Publication Details

Journal
Small
Published
2025-04-08
DOI
https://doi.org/10.1002/smll.202502429
Citations
13
Primary Topic
Advanced Nanomaterials in Catalysis
Type
article
Field-Weighted Citation Impact
6.73

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article

Biomimetically Engineering Valency in Copper Aerogel Toward Efficient Laccase‐Mimicking Nanozyme

Xinhao Wan, Dan Wen, Lijun Mao, Jianqi Ye et al.
13 citations
Small
Advanced Nanomaterials in Catalysis
6.73
article

Biomimetically Engineering Valency in Copper Aerogel Toward Efficient Laccase‐Mimicking Nanozyme

Xinhao Wan, Dan Wen, Lijun Mao, Jianqi Ye, Yao Chen, Wei Liu, Wenhua Bi, Ziqi Wan
article en
13 citations

Abstract

Developing nanozymes with high intrinsic activity to bridge the gap with natural enzymes has received unremitting attention. In this study, inspired by the copper active center for natural laccase and the multivalent characteristic of Cu, the valence state of Cu-based aerogel is modulated via adjusting the reductant usage for mimicking laccase. The laccase-mimicking activity is well-tailored via valence state manipulation, and theoretical calculations unveil the mechanism that the Cu<sup>0</sup> and Cu<sup>I</sup> species enhance the substrate adsorption capability and the Cu<sup>II</sup> species are paramount to lowering the activation barrier synergistically. Heterogeneous metals are further incorporated to promote the valency-conversion of Cu and biomimetic electron transfer, conferring the constructed CuPt<sub>7.5%</sub> aerogel nanozyme with an ultralow detectable limit of 1 nm for phenolic pollutants. This work highlights the multivalence of Cu on laccase-mimicking activity and provides insights into the underlying catalytic mechanism, shedding light on the rational design of high-performance nanozymes for practical application.

SmallVol. 21(21)
Northwestern Polytechnical University (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 3%
Advanced Nanomaterials in Catalysis
6.73
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