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在与 MYMV 相容感染过程中,针对提高宿主抗性,对植物 OBERON 蛋白进行计算机进化分析。

In-silico evolutionary analysis of plant-OBERON proteins during compatible MYMV infection in respect of improving host resistance.

机构信息

ICAR-National Rice Research Institute (ICAR-NRRI), Cuttack, 753006, India.

出版信息

J Plant Res. 2022 May;135(3):405-422. doi: 10.1007/s10265-022-01372-1. Epub 2022 Feb 24.

DOI:10.1007/s10265-022-01372-1
PMID:35201523
Abstract

Yellow mosaic disease (YMD) of pulses caused by mungbean yellow mosaic virus is a major threat to crop production. An infection that is compatible with regulating and interacting host proteins and the virus causes YMD. Oberon families of proteins OBE1-4 and VIN1-4 are imperative for plants, functions in meristem and vascular development, and were also regulated during compatible disease infection. Furthermore, in-silico expression results suggested the involvement of OBE1 and OBE2 proteins during virus infection of Vigna, Arabidopsis and soybean. Moreover, a common ancestor for the meristem and virus movement related Oberons was inferred through phylogenetic analysis. Protein interaction studies showed three amino acids (Aspartate, glutamate and lysine) in the plant homeodomain (PHD), involved in interaction with the N-terminal region of the virus movement protein and were also conserved in both monocot and dicots. Additionally, major differences in the nuclear localization signal (NLS) showing clade specific conservation and significant variation between dicots and monocots were ascertained in meristem and virus movement related Oberons. Consequently, a combination of PHD, CCD and their interactions with the VPg viral domain increases the susceptibility to YMD. Further, modification in the NLS regions of the viral movement clade Oberons, to knock out allele generation in the OBE1 and OBE2 homologs through genome-editing approaches could be established as alternate strategies for the improvement of host resistance and control yellow mosaic disease in plants, especially in pulse crops.

摘要

菜豆黄花叶病毒引起的黄花叶病(YMD)是豆类作物生产的主要威胁。与调节和相互作用的宿主蛋白和病毒的感染是兼容的。OBE1-4 和 VIN1-4 家族的 Oberon 蛋白对于植物是必不可少的,它们在分生组织和血管发育中起作用,并且在兼容的疾病感染过程中也受到调节。此外,计算机表达结果表明,在感染 Vigna、Arabidopsis 和大豆时,OBE1 和 OBE2 蛋白参与了病毒的感染。此外,通过系统发育分析推断出与分生组织和病毒运动相关的 Oberons 具有共同的祖先。蛋白相互作用研究表明,植物同源域(PHD)中的三个氨基酸(天冬氨酸、谷氨酸和赖氨酸)参与与病毒运动蛋白的 N 端区域的相互作用,并且在单子叶植物和双子叶植物中都保守。此外,在分生组织和病毒运动相关的 Oberons 中,NLS (核定位信号)的差异很大,显示出特定的进化枝保守性,并且在双子叶植物和单子叶植物之间存在显著的差异。因此,PHD、CCD 及其与 VPg 病毒结构域的相互作用的结合增加了对 YMD 的易感性。此外,通过基因组编辑方法,对病毒运动分支 Oberons 的 NLS 区域进行修饰,从而产生 OBE1 和 OBE2 同源物的敲除等位基因,可以作为提高宿主抗性和控制植物、特别是豆类作物黄花叶病的替代策略。

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