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βC1,由棉花曲叶相关卫星β 编码的致病性决定因子,与棉纤维 calmodulin-like 蛋白 11(Gh-CML11)互作。

βC1, pathogenicity determinant encoded by Cotton leaf curl Multan betasatellite, interacts with calmodulin-like protein 11 (Gh-CML11) in Gossypium hirsutum.

机构信息

National Institute for Biotechnology and Genetic Engineering, Faisalabad, Pakistan.

Pakistan Institute of Engineering and Applied Sciences (PIEAS), Nilore, Islamabad, Pakistan.

出版信息

PLoS One. 2019 Dec 3;14(12):e0225876. doi: 10.1371/journal.pone.0225876. eCollection 2019.

DOI:10.1371/journal.pone.0225876
PMID:31794580
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC6890265/
Abstract

Begomoviruses interfere with host plant machinery to evade host defense mechanism by interacting with plant proteins. In the old world, this group of viruses are usually associated with betasatellite that induces severe disease symptoms by encoding a protein, βC1, which is a pathogenicity determinant. Here, we show that βC1 encoded by Cotton leaf curl Multan betasatellite (CLCuMB) requires Gossypium hirsutum calmodulin-like protein 11 (Gh-CML11) to infect cotton. First, we used the in silico approach to predict the interaction of CLCuMB-βC1 with Gh-CML11. A number of sequence- and structure-based in-silico interaction prediction techniques suggested a strong putative binding of CLCuMB-βC1 with Gh-CML11 in a Ca+2-dependent manner. In-silico interaction prediction was then confirmed by three different experimental approaches: The Gh-CML11 interaction was confirmed using CLCuMB-βC1 in a yeast two hybrid system and pull down assay. These results were further validated using bimolecular fluorescence complementation system showing the interaction in cytoplasmic veins of Nicotiana benthamiana. Bioinformatics and molecular studies suggested that CLCuMB-βC1 induces the overexpression of Gh-CML11 protein and ultimately provides calcium as a nutrient source for virus movement and transmission. This is the first comprehensive study on the interaction between CLCuMB-βC1 and Gh-CML11 proteins which provided insights into our understating of the role of βC1 in cotton leaf curl disease.

摘要

双生病毒通过与植物蛋白相互作用来干扰宿主植物的机器,从而逃避宿主防御机制。在旧世界,这类病毒通常与贝塔卫星相关联,贝塔卫星通过编码一种蛋白βC1 诱导严重的疾病症状,βC1 是一种致病性决定因素。在这里,我们表明,由棉花曲叶绵蚜贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的βC1 需要棉叶卷曲多兰贝塔卫星(CLCuMB)编码的 Gh-CML11 来感染棉花。首先,我们使用了计算机模拟的方法来预测 CLCuMB-βC1 与 Gh-CML11 的相互作用。许多基于序列和结构的计算机模拟相互作用预测技术表明,CLCuMB-βC1 以 Ca+2 依赖性的方式与 Gh-CML11 具有很强的潜在结合能力。计算机模拟相互作用预测随后通过三种不同的实验方法得到了证实:在酵母双杂交系统和下拉测定中,CLCuMB-βC1 与 Gh-CML11 的相互作用得到了证实。这些结果进一步通过双分子荧光互补系统得到了验证,该系统显示了在 Nicotiana benthamiana 细胞质脉中的相互作用。生物信息学和分子研究表明,CLCuMB-βC1 诱导 Gh-CML11 蛋白的过度表达,并最终为病毒的运动和传播提供钙作为营养来源。这是对 CLCuMB-βC1 与 Gh-CML11 蛋白相互作用的首次全面研究,为我们理解 βC1 在棉花曲叶病中的作用提供了深入的了解。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ff75/6890265/879c8f55dee2/pone.0225876.g006.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ff75/6890265/6f2c883bd226/pone.0225876.g001.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ff75/6890265/ff4cb9577cd3/pone.0225876.g002.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ff75/6890265/82a52801fc4a/pone.0225876.g003.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ff75/6890265/1e39a00b9007/pone.0225876.g004.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ff75/6890265/ea8c6d108abd/pone.0225876.g005.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ff75/6890265/879c8f55dee2/pone.0225876.g006.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ff75/6890265/6f2c883bd226/pone.0225876.g001.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ff75/6890265/ff4cb9577cd3/pone.0225876.g002.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ff75/6890265/82a52801fc4a/pone.0225876.g003.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ff75/6890265/1e39a00b9007/pone.0225876.g004.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ff75/6890265/ea8c6d108abd/pone.0225876.g005.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ff75/6890265/879c8f55dee2/pone.0225876.g006.jpg

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