Functional Identification of IHhUGT74AG11/I—A Key Glycosyltransferase Involved in Biosynthesis of Oleanane-Type Saponins in IHedera helix/I

Hedera helix is a traditional medicinal plant. Its primary active ingredients are oleanane-type saponins, which have extensive pharmacological effects such as gastric mucosal protection, autophagy regulation actions, and antiviral properties. However, the glycosylation-modifying enzymes responsible...

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Veröffentlicht in:International journal of molecular sciences 2024-04, Vol.25 (7)
Hauptverfasser: Yu, Han, Zhou, Jun, Zhang, Jing, He, Xinyi, Peng, Siqing, Ling, Hao, Dong, Zhuang, Lu, Xiangyang, Tian, Yun, Guan, Guiping, Tang, Qi, Zhong, Xiaohong, He, Yuedong
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container_issue 7
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container_title International journal of molecular sciences
container_volume 25
creator Yu, Han
Zhou, Jun
Zhang, Jing
He, Xinyi
Peng, Siqing
Ling, Hao
Dong, Zhuang
Lu, Xiangyang
Tian, Yun
Guan, Guiping
Tang, Qi
Zhong, Xiaohong
He, Yuedong
description Hedera helix is a traditional medicinal plant. Its primary active ingredients are oleanane-type saponins, which have extensive pharmacological effects such as gastric mucosal protection, autophagy regulation actions, and antiviral properties. However, the glycosylation-modifying enzymes responsible for catalyzing oleanane-type saponin biosynthesis remain unidentified. Through transcriptome, cluster analysis, and PSPG structural domain, this study preliminarily screened four candidate UDP-glycosyltransferases (UGTs), including Unigene26859, Unigene31717, CL11391.Contig2, and CL144.Contig9. In in vitro enzymatic reactions, it has been observed that Unigene26859 (HhUGT74AG11) has the ability to facilitate the conversion of oleanolic acid, resulting in the production of oleanolic acid 28-O-glucopyranosyl ester. Moreover, HhUGT74AG11 exhibits extensive substrate hybridity and specific stereoselectivity and can transfer glycosyl donors to the C-28 site of various oleanane-type triterpenoids (hederagenin and calenduloside E) and the C-7 site of flavonoids (tectorigenin). Cluster analysis found that HhUGT74AG11 is clustered together with functionally identified genes AeUGT74AG6, CaUGT74AG2, and PgUGT74AE2, further verifying the possible reason for HhUGT74AG11 catalyzing substrate generalization. In this study, a novel glycosyltransferase, HhUGT74AG11, was characterized that plays a role in oleanane-type saponins biosynthesis in H. helix, providing a theoretical basis for the production of rare and valuable triterpenoid saponins.
doi_str_mv 10.3390/ijms25074067
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Its primary active ingredients are oleanane-type saponins, which have extensive pharmacological effects such as gastric mucosal protection, autophagy regulation actions, and antiviral properties. However, the glycosylation-modifying enzymes responsible for catalyzing oleanane-type saponin biosynthesis remain unidentified. Through transcriptome, cluster analysis, and PSPG structural domain, this study preliminarily screened four candidate UDP-glycosyltransferases (UGTs), including Unigene26859, Unigene31717, CL11391.Contig2, and CL144.Contig9. In in vitro enzymatic reactions, it has been observed that Unigene26859 (HhUGT74AG11) has the ability to facilitate the conversion of oleanolic acid, resulting in the production of oleanolic acid 28-O-glucopyranosyl ester. Moreover, HhUGT74AG11 exhibits extensive substrate hybridity and specific stereoselectivity and can transfer glycosyl donors to the C-28 site of various oleanane-type triterpenoids (hederagenin and calenduloside E) and the C-7 site of flavonoids (tectorigenin). Cluster analysis found that HhUGT74AG11 is clustered together with functionally identified genes AeUGT74AG6, CaUGT74AG2, and PgUGT74AE2, further verifying the possible reason for HhUGT74AG11 catalyzing substrate generalization. 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subjects Antiviral agents
Biosynthesis
Genes
Isoflavones
Medicinal plants
Medicine, Botanic
Medicine, Herbal
Physiological aspects
Saponins
Transferases
title Functional Identification of IHhUGT74AG11/I—A Key Glycosyltransferase Involved in Biosynthesis of Oleanane-Type Saponins in IHedera helix/I
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