ESM-Ezy: a deep learning strategy for the mining of novel multicopper oxidases with superior properties

The UniProt database is a valuable resource for biocatalyst discovery, yet predicting enzymatic functions remains challenging, especially for low-similarity sequences. Identifying superior enzymes with enhanced catalytic properties is even harder. To overcome these challenges, we develop ESM-Ezy, an enzyme mining strategy leveraging the ESM-1b protein language model and similarity calculations in semantic space. Using ESM-Ezy, we identify novel multicopper oxidases (MCOs) with superior catalytic properties, achieving a 44% success rate in outperforming query enzymes (QEs) in at least one property, including catalytic efficiency, heat and organic solvent tolerance, and pH stability. Notably, 51% of the MCOs excel in environmental remediation applications, and some exhibited unique structural motifs and unique active centers enhancing their functions. Beyond MCOs, 40% of L-asparaginases identified show higher specific activity and catalytic efficiency than QEs. ESM-Ezy thus provides a promising approach for discovering high-performance biocatalysts with low sequence similarity, accelerating enzyme discovery for industrial applications.

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Publication Details

Journal
Nature Communications
Published
2025-04-06
DOI
https://doi.org/10.1038/s41467-025-58521-y
Citations
20
Primary Topic
Enzyme-mediated dye degradation
Type
article
Field-Weighted Citation Impact
35.00

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article

ESM-Ezy: a deep learning strategy for the mining of novel multicopper oxidases with superior properties

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20 citations
Nature Communications
Enzyme-mediated dye degradation
35.00
article

ESM-Ezy: a deep learning strategy for the mining of novel multicopper oxidases with superior properties

X. Li, Chengchen Guo, Tao Gu, Fajie Yuan, Yuxuan Wang, Yajie Wang, Hui Wang, Zhikai Li, Huan Zhou, Xibin Zhou, Hao Lyu, Hui Qian
article en
20 citations

Abstract

The UniProt database is a valuable resource for biocatalyst discovery, yet predicting enzymatic functions remains challenging, especially for low-similarity sequences. Identifying superior enzymes with enhanced catalytic properties is even harder. To overcome these challenges, we develop ESM-Ezy, an enzyme mining strategy leveraging the ESM-1b protein language model and similarity calculations in semantic space. Using ESM-Ezy, we identify novel multicopper oxidases (MCOs) with superior catalytic properties, achieving a 44% success rate in outperforming query enzymes (QEs) in at least one property, including catalytic efficiency, heat and organic solvent tolerance, and pH stability. Notably, 51% of the MCOs excel in environmental remediation applications, and some exhibited unique structural motifs and unique active centers enhancing their functions. Beyond MCOs, 40% of L-asparaginases identified show higher specific activity and catalytic efficiency than QEs. ESM-Ezy thus provides a promising approach for discovering high-performance biocatalysts with low sequence similarity, accelerating enzyme discovery for industrial applications.

Nature CommunicationsVol. 16(1)
Westlake University (CN), Zhengzhou University (CN), Beijing Academy of Artificial Intelligence (CN)
Westlake University, Tsinghua University, National Key Research and Development Program of China
Openalex Percentile: Top 0%
Enzyme-mediated dye degradation
35.00
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