Integrating metabolite and transcriptome analysis revealed the different mechanisms of characteristic compound biosynthesis and transcriptional regulation in tea flowers

转录组 生物 山茶 生物合成 萜类 类黄酮生物合成 次生代谢 从头转录组组装 茶氨酸 儿茶素 代谢途径 生物化学 代谢组 植物 基因 代谢物 基因表达 多酚 食品科学 绿茶 抗氧化剂
作者
Dingkun Tang,Yihua Shen,Fangdong Li,Rui Yue,Jianwei Duan,Zhili Ye,Ying Lin,Wei Zhou,Yilin Yang,Lixiao Chen,Hongyan Wang,Jian Zhao,Penghui Li
出处
期刊:Frontiers in Plant Science [Frontiers Media]
卷期号:13: 1016692-1016692 被引量:17
标识
DOI:10.3389/fpls.2022.1016692
摘要

The flowers of tea plants (Camellia sinensis), as well as tea leaves, contain abundant secondary metabolites and are big potential resources for the extraction of bioactive compounds or preparation of functional foods. However, little is known about the biosynthesis and transcriptional regulation mechanisms of those metabolites in tea flowers, such as terpenoid, flavonol, catechins, caffeine, and theanine. This study finely integrated target and nontarget metabolism analyses to explore the metabolic feature of developing tea flowers. Tea flowers accumulated more abundant terpenoid compounds than young leaves. The transcriptome data of developing flowers and leaves showed that a higher expression level of later genes of terpenoid biosynthesis pathway, such as Terpene synthases gene family, in tea flowers was the candidate reason of the more abundant terpenoid compounds than in tea leaves. Differently, even though flavonol and catechin profiling between tea flowers and leaves was similar, the gene family members of flavonoid biosynthesis were selectively expressed by tea flowers and tea leaves. Transcriptome and phylogenetic analyses indicated that the regulatory mechanism of flavonol biosynthesis was perhaps different between tea flowers and leaves. However, the regulatory mechanism of catechin biosynthesis was perhaps similar between tea flowers and leaves. This study not only provides a global vision of metabolism and transcriptome in tea flowers but also uncovered the different mechanisms of biosynthesis and transcriptional regulation of those important compounds.
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