从橡胶 Hevea brasiliensis RRIV 209 树皮组织中分离出推测的萜烯合成酶(HbTPS6L-X1)的转录本变体并对其进行硅学分析

Thi Diem Huong Tran, Ngoc Tuyet Nguyen, Thi Hong Thuong Nguyen
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摘要

巴西橡胶树是唯一可用于生产天然橡胶的树种。通过在树皮上划出一道沟来收获乳胶的方法模仿了机械伤害。此外,橡胶树可能会经常受到虫害和病原体的侵袭。萜类化合物是一类特殊的化合物,在植物与环境的相互作用中发挥着重要作用,尤其是在植物应对压力因素的过程中。萜类化合物的多样性主要由萜烯合成酶(TPS)家族的酶决定。对巴西橡胶树的 RNA-seq 数据进行筛选后发现,橡胶树树皮组织中存在许多表达的推定 TPS 基因,但尚未对其功能进行研究。本文介绍了从 H. brasiliensis RRIV 209 树皮组织中鉴定出的一个 TPS 基因转录本变体(命名为 HbTPS6L-X1)。通过分析系统发生树、保守基序的存在、蛋白质的信号肽序列区以及与其他植物中已知倍半萜合成酶的结构同源性,预测 HbTPS6L-X1 属于 TPS-a 亚家族,定位于细胞质中,并催化二磷酸法尼酯(FPP)向倍半萜的转化。在设计实验以确认 HbTPS6L-X1 蛋白的植物生物学功能时,可依据这些硅功能特征。
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Isolation and in silico analysis of a transcript variant for a putative terpene synthase (HbTPS6L-X1) from the bark tissues of rubber Hevea brasiliensis RRIV 209
Hevea brasiliensis is the only tree species grown to produce natural rubber. The method of harvesting latex by slicing a groove into the bark of the tree mimics a mechanical wounding. In addition, rubber trees could be frequently exposed to pest and pathogen attacks through the scraped bark region. Terpenoids are a group of specialised compounds that play an important role in plant-environment interactions, especially in plant response to stress factors. The diversity of terpenoids is mainly determined by enzymes of the terpene synthase (TPS) family. Screening the RNA-seq data of H. brasiliensis revealed the presence of many putative TPS genes expressed in the bark tissues of rubber trees; however, their function has not been studied. This paper presents the identification of a TPS gene transcript variant (designated as HbTPS6L-X1) from the bark tissues of H. brasiliensis RRIV 209. Through the analysis of the phylogenetic tree, the presence of conserved motifs, and the signal peptide sequence region of the protein, as well as structural homology to known sesquiterpene synthases from other plants, HbTPS6L-X1 was predicted to belong to the TPS-a subfamily, be localised in the cytoplasm and catalyse the conversion of farnesyl diphosphate (FPP) to sesquiterpenes. These in silico functional characteristics are the basis for designing experiments to confirm the in planta biological function of HbTPS6L-X1 protein.
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