UDP-GlycosyltransferasesEngineering Coupled withUDPG Regeneration Facilitate the Efficient Conversion of MogrosideV

Mogroside V is a triterpene, a natural high-intensity sweetener, isolated from the fruits of Siraitia grosvenorii. Selective glycosylation of mogrol is a feasible approach for the biosynthesis of mogroside V. In this study, glycosyltransferase UGTM1 and UGTM2 were engineered to UGTM1-3 and UGTM2-4, which selectively and directly transfer glucose from UDPG to 3′-hydroxyl and 24′-hydroxyl groups and their branch chains of the mogrol moiety for the biosynthesis of mogroside V. The enzyme activities of UGTM1-3 and UGTM2-4 were enhanced 2.88 and 3.60 times, respectively. To eliminate the need for UDPG and improve productivity, a UDPG regeneration system was introduced to couple with the UGTs. Finally, mogrol was directly converted to mogroside V by UGTM1-3, UGTM2-4, and AtSUS1 with a conversion rate of 18.2% without the exogenous addition of UDPG. This study provides an in vitro multienzyme cascade catalytic system for the efficient conversion of mogroside V.

Publication Details

Journal
Figshare
Published
2025-02-19
DOI
https://doi.org/10.1021/acs.jafc.4c11011.s001
Primary Topic
Biochemical Analysis and Sensing Techniques
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article
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UDP-GlycosyltransferasesEngineering Coupled withUDPG Regeneration Facilitate the Efficient Conversion of MogrosideV

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Biochemical Analysis and Sensing Techniques
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UDP-GlycosyltransferasesEngineering Coupled withUDPG Regeneration Facilitate the Efficient Conversion of MogrosideV

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Abstract

Mogroside V is a triterpene, a natural high-intensity sweetener, isolated from the fruits of Siraitia grosvenorii. Selective glycosylation of mogrol is a feasible approach for the biosynthesis of mogroside V. In this study, glycosyltransferase UGTM1 and UGTM2 were engineered to UGTM1-3 and UGTM2-4, which selectively and directly transfer glucose from UDPG to 3′-hydroxyl and 24′-hydroxyl groups and their branch chains of the mogrol moiety for the biosynthesis of mogroside V. The enzyme activities of UGTM1-3 and UGTM2-4 were enhanced 2.88 and 3.60 times, respectively. To eliminate the need for UDPG and improve productivity, a UDPG regeneration system was introduced to couple with the UGTs. Finally, mogrol was directly converted to mogroside V by UGTM1-3, UGTM2-4, and AtSUS1 with a conversion rate of 18.2% without the exogenous addition of UDPG. This study provides an in vitro multienzyme cascade catalytic system for the efficient conversion of mogroside V.

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Biochemical Analysis and Sensing Techniques
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