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微生物群落特征分析表明,叶斑病的病原菌源自叶际。

The Analysis of Microbial Community Characteristics Revealed that the Pathogens of Leaf Spot of Originated from the Phyllosphere.

作者信息

Liu Yuxing, Ge Wei, Dong Chunbo, Shao Qiuyu, Zhang Zhiyuan, Zou Xiao, Hu Haiyan, Han Yanfeng

机构信息

Institute of Fungus Resources, Department of Ecology, College of Life Sciences, Guizhou University, Guiyang, 550025 Guizhou China.

State Key Laboratory of Environmental Geochemistry, Institute of Geochemistry, Chinese Academy of Sciences, Guiyang, 550081 Guizhou China.

出版信息

Indian J Microbiol. 2023 Sep;63(3):324-336. doi: 10.1007/s12088-023-01093-6. Epub 2023 Sep 8.

Abstract

Members of the plant mycobiota are all associated to varying degrees with the development of plant diseases. Although many reports on the plant mycobiota are well documented, the relationships between mycobiota of and plant diseases are poorly understood. Mutual interactions and extent of the roles of microbial communities associated with and the source of pathogens are still unclear, and more research is needed on the health benefits of this ecologically important population. Using high-throughput sequencing, we analyzed the mycobiota composition and ecological guilds of the rhizosphere, root, and phyllosphere of healthy and diseased . from the Tianfu Industrial Park in Panzhou city, Guizhou province. Analysis of community composition showed that the relative abundance of pathogens of leaf spot, including , and in the phyllosphere of diseased plant (LD), were 1.15%, 0.15% and 0.06%, and the relative abundance of and were 0.96% and 0.58% in healthy plant (LH). The alpha diversity indices indicated that fungal diversity was higher in healthy plants compared to diseased plants in each compartment. The alpha diversity index of fungi in the phyllosphere (LH) of healthy . , including Shannon, Chao-1, and Faith-pd indices, was 1.02, 81.50 and 10.42 higher than that of the diseased (LD), respectively. The fungi in the rhizosphere of healthy was 1.03, 59.00 and 5.56 higher than the diseased, respectively. The Shannon index of fungi in the root of healthy was 0.29 higher than that of diseased. Principal Coordinate analysis and ANOSIM results showed that there were significant differences in mycobiota composition between healthy and diseased phyllospheres ( < 0.05), as well as rhizosphere fungal community, while there was no significant difference between healthy and diseased roots ( > 0.05). Linear discriminant analysis effect size revealed that, at different taxonomic levels, there were significantly different taxa between the healthy and diseased plants in each compartment. The ecological guilds differed between healthy and diseased plants according to the FUNGuild analysis. For example, of healthy compared to diseased plants, the percentages of "lichenized-undefined saprotroph" were increased by 2.34%, 0.44%, and 1.54% in the phyllosphere, root, and rhizosphere, respectively. In addition, the plant pathogens existed in each compartment of . , but the percentages of "plant pathogen" were increased by 1.16% in the phyllosphere of diseased compared to healthy plants. Together, the ecological guild and co-occurrence network indicated that the potential pathogens of leaf spot were mainly found in the phyllosphere. This study explained one of pathogen origin of leaf spots of by the microbial community ecology, which will provide the new insights for identification of plant pathogens.

摘要

植物真菌群落的成员都在不同程度上与植物病害的发生有关。尽管许多关于植物真菌群落的报告都有充分的记录,但真菌群落与植物病害之间的关系仍知之甚少。与植物相关的微生物群落的相互作用及其作用程度以及病原体的来源仍不清楚,需要对这一具有重要生态意义的群体的健康益处进行更多研究。我们使用高通量测序技术,分析了贵州省盘州市天府刺梨产业园区健康和患病刺梨的根际、根系和叶际的真菌群落组成及生态功能类群。群落组成分析表明,患病植株(LD)叶际中包括链格孢属、炭疽菌属和盘长孢属在内的叶斑病病原体的相对丰度分别为1.15%、0.15%和0.06%,而健康植株(LH)中叶炭疽菌属和盘长孢属的相对丰度分别为0.96%和0.58%。α多样性指数表明,在每个区室中,健康植株中的真菌多样性均高于患病植株。健康刺梨叶际(LH)真菌的α多样性指数,包括香农指数、Chao-1指数和Faith-pd指数,分别比患病叶际(LD)高1.02、81.50和10.42。健康刺梨根际真菌的α多样性指数分别比患病根际高1.03、59.00和5.56。健康刺梨根系真菌的香农指数比患病根系高0.29。主坐标分析和ANOSIM结果表明,健康和患病叶际之间(P<0.05)以及根际真菌群落的真菌群落组成存在显著差异,而健康和患病根系之间没有显著差异(P>0.05)。线性判别分析效应大小显示,在不同分类水平上,每个区室中健康和患病植株之间存在显著不同的分类群。根据FUNGuild分析,健康和患病植株的生态功能类群有所不同。例如,与患病植株相比,健康植株在叶际、根系和根际中“地衣化-未定义腐生菌”的百分比分别增加了2.34%、0.44%和1.54%。此外,刺梨的每个区室中都存在植物病原体,但与健康植株相比,患病植株叶际中“植物病原体”的百分比增加了1.16%。综合生态功能类群和共现网络表明,叶斑病的潜在病原体主要存在于叶际。本研究从微生物群落生态学角度解释了刺梨叶斑病病原体的来源之一,这将为植物病原体的鉴定提供新的见解。

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