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大豆花叶病毒编码蛋白在大豆种传和蚜虫传播中的作用。

Role of soybean mosaic virus-encoded proteins in seed and aphid transmission in soybean.

机构信息

Department of Crop Sciences, University of Illinois, Urbana 61801, USA.

出版信息

Phytopathology. 2013 Sep;103(9):941-8. doi: 10.1094/PHYTO-09-12-0248-R.

DOI:10.1094/PHYTO-09-12-0248-R
PMID:23927427
Abstract

Soybean mosaic virus (SMV) is seed and aphid transmitted and can cause significant reductions in yield and seed quality in soybean (Glycine max). The roles in seed and aphid transmission of selected SMV-encoded proteins were investigated by constructing mutants in and chimeric recombinants between SMV 413 (efficiently aphid and seed transmitted) and an isolate of SMV G2 (not aphid or seed transmitted). As previously reported, the DAG amino acid sequence motif near the amino terminus of the coat protein (CP) was the major determinant in differences in aphid transmissibility of the two SMV isolates, and helper component proteinase (HC-Pro) played a secondary role. Seed transmission of SMV was influenced by P1, HC-Pro, and CP. Replacement of the P1 coding region of SMV 413 with that of SMV G2 significantly enhanced seed transmissibility of SMV 413. Substitution in SMV 413 of the two amino acids that varied in the CPs of the two isolates with those from SMV G2, G to D in the DAG motif and Q to P near the carboxyl terminus, significantly reduced seed transmission. The Q-to-P substitution in SMV 413 also abolished virus-induced seed-coat mottling in plant introduction 68671. This is the first report associating P1, CP, and the DAG motif with seed transmission of a potyvirus and suggests that HC-Pro interactions with CP are important for multiple functions in the virus infection cycle.

摘要

大豆花叶病毒(SMV)是通过种子和蚜虫传播的,可以导致大豆(Glycine max)产量和种子质量显著下降。本研究通过构建 SMV 413(高效蚜虫和种子传播)和 SMV G2(不通过蚜虫或种子传播)之间的突变体和嵌合重组体,研究了选定的 SMV 编码蛋白在种子和蚜虫传播中的作用。如先前报道的,外壳蛋白(CP)氨基末端附近的 DAG 氨基酸序列基序是两种 SMV 分离株蚜虫传播能力差异的主要决定因素,辅助成分蛋白酶(HC-Pro)起次要作用。SMV 的种子传播受 P1、HC-Pro 和 CP 的影响。用 SMV G2 的 P1 编码区替换 SMV 413 的 P1 编码区,显著增强了 SMV 413 的种子传播能力。在 SMV 413 中,两个分离株 CP 中存在差异的两个氨基酸(DAG 基序中的 G 到 D 和羧基末端附近的 Q 到 P)被替换为 SMV G2 的相应氨基酸,显著降低了种子传播率。SMV 413 中的 Q 到 P 替换也使植物引种 68671 中的病毒诱导的种皮斑驳消失。这是第一个将 P1、CP 和 DAG 基序与马铃薯 Y 病毒属病毒的种子传播联系起来的报告,表明 HC-Pro 与 CP 的相互作用对于病毒感染周期中的多种功能很重要。

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