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Mol Plant Microbe Interact. 2021 Jul;34(7):866-869. doi: 10.1094/MPMI-12-20-0356-A. Epub 2021 Aug 24.
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Genomic diversity analysis and identification of novel SSR markers in four tobacco varieties by high-throughput resequencing.高通量重测序分析四个烟草品种的基因组多样性并鉴定新的 SSR 标记。
Plant Physiol Biochem. 2020 May;150:80-89. doi: 10.1016/j.plaphy.2020.02.023. Epub 2020 Feb 20.
3
Dynamic Extreme Aneuploidy (DEA) in the vegetable pathogen Phytophthora capsici and the potential for rapid asexual evolution.蔬菜病原菌辣椒疫霉中的动态极端非整倍体(DEA)与快速无性进化的潜力。
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Draft Assembly of from Long-Read Sequencing Uncovers Complexity.从头测序组装揭示复杂性。
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Plant Dis. 2004 Dec;88(12):1292-1303. doi: 10.1094/PDIS.2004.88.12.1292.
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Advances in Research on Phytophthora capsici on Vegetable Crops in The United States.美国蔬菜作物上辣椒疫霉的研究进展
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Evidence of genetically diverse virulent mating types of Phytophthora capsici from Capsicum annum L.从辣椒(Capsicum annum L.)中分离出具有遗传多样性的辣椒疫霉毒力交配型证据
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中国西南三省商业辣椒上辣椒疫霉的多态微卫星开发、遗传多样性、种群分化和有性状态。

Polymorphic Microsatellite Development, Genetic Diversity, Population Differentiation and Sexual State of Phytophthora capsici on Commercial Peppers in Three Provinces of Southwest China.

机构信息

College of Plant Protection, Southwest Universitygrid.263906.8, Chongqing, China.

College of Biological Sciences and Technology, Beijing Forestry University, Beijing, China.

出版信息

Appl Environ Microbiol. 2022 Dec 13;88(23):e0161122. doi: 10.1128/aem.01611-22. Epub 2022 Nov 10.

DOI:10.1128/aem.01611-22
PMID:36354348
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC9746301/
Abstract

Pepper blight, caused by the oomycete pathogen Phytophthora capsici (P. capsici), is one of the most destructive soilborne diseases worldwide. Between 2019 and 2020, 235 single spore isolates of P. capsici were collected from 36 commercial pepper planting areas in Sichuan, Chongqing, and Guizhou provinces in China. A novel full set of 323 high-quality polymorphic microsatellites was obtained by resequencing 10 isolates. In total, 163 isolates with two alleles per microsatellite locus were used for population analysis and resulted in 156 genotypes on 10 microsatellite loci. The genetic diversity, population differentiation, principal component, genetic structure, and genetic relationships analyses showed an extensive variety of the P. capsici in Sichuan and Guizhou with clonal lineages, two shared genotypes, and no geographic differentiation. The population from Chongqing was differentiated from that of Sichuan and Guizhou and had the highest genetic diversity. There was no significant distinction between the populations of the two sampling years, but there was a small differentiation between the populations from bell peppers and hot peppers. The isolates from Southwest China were largely distant from the two reference isolates from the USA. The analysis of molecular variance showed that the major variance of the populations was within populations. The linkage equilibrium test, mating type composition, and oospore detection indicated that only P. capsici from the Jiulongpo district of Chongqing had appeared in sexual recombination. Overall, this study revealed that the high and complex genetic diversity population of P. capsici in Sichuan, Chongqing, and Guizhou with uneven geographic variation and limited sexual reproductive behavior in Chongqing, potentially driven by differences in the geographical environment, reproductive patterns, different cultivars, and artificial long-distance transfers. Phytophthora capsici, a notorious soilborne and rapidly evolving pathogen with a wide range of hosts, is a huge threat to pepper production worldwide. However, the detailed genetic structure and dynamics of P. capsici in most Chinese provinces are still unclear, even though China is the world's largest producer and consumer of peppers. Here, a novel full set of high-quality polymorphic microsatellites, obtained by genome resequencing data of 10 isolates from Southwest China, was provided for future population analyses. In this study, we further investigated and established the genetic structure, sexual recombination, geographic subdivisions, interannual stability, differentiation in different types of host peppers, and member relationships of P. capsici from three provinces in Southwest China. These results reveal the genetic structure and dynamics of P. capsici in three provinces of Southwest China and help us to execute more effective management strategies in the future.

摘要

辣椒疫病由卵菌病原菌辣椒疫霉(Phytophthora capsici)引起,是全球破坏性最强的土传病害之一。2019 年至 2020 年期间,在中国四川、重庆和贵州的 36 个商业辣椒种植区采集了 235 株辣椒疫霉单孢菌株。通过对 10 株分离株进行重测序,获得了一套全新的 323 个高质量的多态性微卫星。总共使用了 10 个微卫星位点的每个微卫星位点具有两个等位基因的 163 个分离株进行种群分析,结果在 10 个微卫星位点上产生了 156 种基因型。遗传多样性、种群分化、主成分、遗传结构和遗传关系分析表明,四川和贵州的辣椒疫霉具有广泛的遗传多样性,包括无性系、两个共享基因型和没有地理分化。来自重庆的种群与四川和贵州的种群分化,具有最高的遗传多样性。两个采样年份的种群之间没有显著差异,但甜椒和辣椒种群之间存在小的分化。来自中国西南部的分离株与来自美国的两个参考分离株相距甚远。分析表明,种群的主要变异来自种群内。连锁平衡检验、交配型组成和卵孢子检测表明,只有来自重庆九龙坡区的辣椒疫霉出现了有性重组。总体而言,这项研究揭示了四川、重庆和贵州的辣椒疫霉种群具有较高和复杂的遗传多样性,且地理变异不均匀,重庆地区的有性生殖行为有限,这可能是由地理环境、生殖模式、不同品种和人工远距离转移的差异所驱动。辣椒疫霉是一种臭名昭著的土传病原菌,宿主范围广泛,对全球辣椒生产构成巨大威胁。然而,尽管中国是世界上最大的辣椒生产国和消费国,但中国大多数省份的辣椒疫霉的详细遗传结构和动态仍不清楚。在这里,通过对来自中国西南部的 10 个分离株的基因组重测序数据获得了一套全新的高质量多态性微卫星,为未来的种群分析提供了资源。在这项研究中,我们进一步调查并建立了西南三省辣椒疫霉的遗传结构、有性重组、地理划分、两年间的稳定性、不同类型宿主辣椒的分化以及成员关系。这些结果揭示了西南三省辣椒疫霉的遗传结构和动态,有助于我们在未来制定更有效的管理策略。