Ectopic expression of TTP gene from human in poplar promotes xylem differentiation and confers plant drought tolerance.

Forestry research Pub Date : 2024-04-09 eCollection Date: 2024-01-01 DOI:10.48130/forres-0024-0008
Yamei Zhuang, Yang Chen, Qiao Wang, Yan Chen, Liping Yan, Shengjun Li, Gongke Zhou, Guohua Chai
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Abstract

The CCCH zinc finger proteins play critical roles in a wide variety of growth, development, and stress responses. Currently, limited reports are available about the roles of animal CCCH proteins in plants. In this study, we report the identification of human TTP (hTTP) with functional similarity to PdC3H17 in a hybrid poplar. hTTP and PdC3H17 shared highly similar tandem CCCH zinc-finger RNA-binding domains. The fragments excluding the CCCH domain of both hTTP and PdC3H17 possessed transcriptional activation activities in yeast cells. Compared to the controls, ectopic expression of hTTP in poplar caused dwarfism, and resulted in significant increases in stem xylem vessel number and photosynthetic and ROS-scavenging abilities, thereby enhancing plant tolerance to drought stress. Our results suggest that hTTP may perform a function in poplar through the PdC3H17-mediated system, and provide an example for the application of animal genes in plants.

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人类 TTP 基因在杨树中的异位表达可促进木质部分化并赋予植物耐旱性。
CCCH 锌指蛋白在各种生长、发育和应激反应中发挥着关键作用。目前,有关动物 CCCH 蛋白在植物中的作用的报道十分有限。在这项研究中,我们报告了在杂交杨树中鉴定出与 PdC3H17 功能相似的人类 TTP(hTTP)。在酵母细胞中,hTTP和PdC3H17不含CCCH结构域的片段都具有转录激活活性。与对照组相比,hTTP在杨树中的异位表达会导致矮化,并显著增加茎木质部血管的数量以及光合作用和清除ROS的能力,从而增强植物对干旱胁迫的耐受性。我们的研究结果表明,hTTP可能通过PdC3H17介导的系统在杨树中发挥功能,为动物基因在植物中的应用提供了一个范例。
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