Engineering of Glycosyltransferase for Efficient Biosynthesis of Salidroside

Salidroside has been widely used in the cosmetic and medicinal industries. Previously, potential glycosyltransferase UGT<sub>BS</sub> was obtained for salidroside synthesis. However, the catalytic efficiency for salidroside was undesirable. In this study, a semirational design was applied to engineer UGT<sub>BS</sub>. The quadruple mutant M4 (I62N/S129T/F168W/Y316S) showed significantly enhanced salidroside synthesis. A conversion rate of 94.7% was obtained using mutant M4, which was 2.2-fold higher than that of the wild-type. The regioselectivity of mutant M4 toward tyrosol hydroxyl was also improved, resulting in 97.9% salidroside in the total product, which was 1.2-fold higher than that of the wild type. Kinetic constants and molecular simulations indicated that increased affinity and altered conformation of the binding pocket accounted for the enhanced salidroside synthesis. Furthermore, a fed-batch cascade reaction strategy was used, and over 183 mM salidroside was obtained. The engineered mutant M4 demonstrated precise catalysis for salidroside formation.

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Publication Details

Journal
Journal of Agricultural and Food Chemistry
Published
2025-03-28
DOI
https://doi.org/10.1021/acs.jafc.5c00488
Citations
5
Primary Topic
Medicinal Plants and Bioactive Compounds
Type
article
Field-Weighted Citation Impact
4.03

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article

Engineering of Glycosyltransferase for Efficient Biosynthesis of Salidroside

Yongjun Zang, Jingbo Ma, Xiaoli Li, Xinhong Zhang et al.
5 citations
Journal of Agricultural and Food Chemistry
Medicinal Plants and Bioactive Compounds
4.03
article

Engineering of Glycosyltransferase for Efficient Biosynthesis of Salidroside

Yongjun Zang, Jingbo Ma, Xiaoli Li, Xinhong Zhang, Fucheng Zhu, Kexue Zhao, Zixu Yan
article en
5 citations

Abstract

Salidroside has been widely used in the cosmetic and medicinal industries. Previously, potential glycosyltransferase UGT<sub>BS</sub> was obtained for salidroside synthesis. However, the catalytic efficiency for salidroside was undesirable. In this study, a semirational design was applied to engineer UGT<sub>BS</sub>. The quadruple mutant M4 (I62N/S129T/F168W/Y316S) showed significantly enhanced salidroside synthesis. A conversion rate of 94.7% was obtained using mutant M4, which was 2.2-fold higher than that of the wild-type. The regioselectivity of mutant M4 toward tyrosol hydroxyl was also improved, resulting in 97.9% salidroside in the total product, which was 1.2-fold higher than that of the wild type. Kinetic constants and molecular simulations indicated that increased affinity and altered conformation of the binding pocket accounted for the enhanced salidroside synthesis. Furthermore, a fed-batch cascade reaction strategy was used, and over 183 mM salidroside was obtained. The engineered mutant M4 demonstrated precise catalysis for salidroside formation.

Journal of Agricultural and Food ChemistryVol. 73(14)
Anhui University of Traditional Chinese Medicine (CN), Hefei University (CN), West Anhui University (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 7%
Medicinal Plants and Bioactive Compounds
4.03
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Engineering of Glycosyltransferase for Efficient Biosynthesis of Salidroside — Yongjun Zang, Jingbo Ma, et al. · Journal of Agricultural and Food Chemistry (2025) | TGRS Research Map | TGRS