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利用聚合酶链式反应(PCR)方法对俄罗斯南部水稻种植区空肠弯曲菌的生物多样性进行研究。

Biodiversity of Cav. in rice-growing regions of the south of Russia using PCR method.

作者信息

Dubina Elena V, Alabushev Andrey V, Kostylev Pavel I, Kharchenko Elena S, Ruban Margarita G, Aniskina Yuliya V, Shilov Ilya A, Velishaeva Nazife S, Maximenko Evgeniy P, Makukha Yuliya A

机构信息

1All-Russian Rice Research Institute, 3 Belozerny Lane, Krasnodar, Russian Federation 350921.

Agrarian Scientific Center "Donskoy", Nauchny Gorodok 3, Zernograd, Russian Federation 347740.

出版信息

Physiol Mol Biol Plants. 2020 Feb;26(2):289-303. doi: 10.1007/s12298-019-00737-6. Epub 2020 Jan 1.

Abstract

The purpose of this research by the way of investigating the molecular genetic structure of a highly variable fungal phytopathogen Cav., to determine effective genes for the development of a strategy for immunogenetic protection against rice blast in conditions of epiphytotic development of the disease in the south of Russia, which would combine high efficacy with both environmental friendliness and resource and energy saving, to ensure country's food security. The knowledge of local pathotype diversity of Cav. and the (a)virulence genes in rice-growing regions of Russia may allow the prediction of new races and its interaction in local agro-ecology. The identification of virulence gene may become an indispensable theoretical basis for the development of genetic sources with long-lasting resistance to rice blast. Based on molecular and genetic approaches, the genetic structure and biodiversity of the phytopathogenic fungus Cav. in the south of Russia were considered. The monitoring was studied and it isolated 57 strains of the pathogen from the damaged herbal material collected from the fields in eight agro-ecological rice-growing regions of the Krasnodar Region (Russian Federation): Krasnoarmeysky, Kalininsky, Krymsky, Abinsky, Temryuksky, Seversky, Slavyansky districts, Krasnodar, Rostov Region (Russian Federation)-Proletarsky district and the Republic of Adygea (Russian Federation). A multiplex PCR technique was applied on the basis of fragment analysis to identify the virulent fungal isolates. 33 fungal genotypes with unique genetic profiles were identified among the studied races of Cav. Their DNA profiles were created. The studied isolates of the pathogen of rice blast were classified using morphological and microbiology cultural features. Based on the phytopathological test using differentiation rice varieties, the quantitative and qualitative composition of (a)virulence genes in fungal races was established. Effective genes for pathogen resistance, which are recommended for breeding programs for the development of rice varieties resistant to rice blast, were identified in the south of Russia.

摘要

本研究旨在通过调查高度可变的真菌植物病原体稻瘟病菌(Magnaporthe oryzae Cav.)的分子遗传结构,确定在俄罗斯南部该病流行发展条件下制定稻瘟病免疫遗传保护策略的有效基因,该策略应兼具高效性、环境友好性以及资源和能源节约性,以确保国家粮食安全。了解俄罗斯水稻种植区稻瘟病菌(Magnaporthe oryzae Cav.)的地方致病型多样性和(无)毒力基因,有助于预测新的小种及其在当地农业生态中的相互作用。毒力基因的鉴定可能成为开发对稻瘟病具有持久抗性的遗传资源的不可或缺的理论基础。基于分子和遗传方法,研究了俄罗斯南部植物病原真菌稻瘟病菌(Magnaporthe oryzae Cav.)的遗传结构和生物多样性。进行了监测,并从俄罗斯联邦克拉斯诺达尔边疆区八个农业生态水稻种植区(克拉斯诺阿尔梅斯基、卡利宁斯基、克里姆斯基、阿宾斯基、捷姆留克斯基、谢韦尔斯基、斯拉维扬斯基区、克拉斯诺达尔)、罗斯托夫州(俄罗斯联邦)的无产阶级区以及阿迪格共和国(俄罗斯联邦)的田间受损草本材料中分离出57株病原菌。应用基于片段分析的多重PCR技术鉴定有毒力的真菌分离株。在研究的稻瘟病菌(Magnaporthe oryzae Cav.)小种中鉴定出33种具有独特遗传图谱的真菌基因型。创建了它们的DNA图谱。利用形态学和微生物培养特征对所研究的稻瘟病病原菌分离株进行分类。基于使用鉴别水稻品种的植物病理学试验,确定了真菌小种中(无)毒力基因的数量和质量组成。在俄罗斯南部鉴定出了推荐用于培育抗稻瘟病水稻品种育种计划的病原菌抗性有效基因。

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