小麦连作根际真菌群落的病致组合

IF 3.3 3区 生物学 Q2 MICROBIOLOGY Phytobiomes Journal Pub Date : 2022-12-28 DOI:10.1094/pbiomes-12-22-0101-r
Chuntao Yin, D. Schlatter, C. Hagerty, S. Hulbert, T. Paulitz
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引用次数: 1

摘要

植物是根际微生物群落的主要驱动力之一。随着时间的推移,同一植物物种的持续存在,例如在农业的单一作物中,可以推动植物相关微生物组的重大变化。大多数关于单一作物的研究都集中在细菌上,细菌参与了许多土传疾病的自然抑制,包括根丝核菌、根腐病和全蚀病。然而,关于单作和根腐病病原体如何共同影响根际真菌群落结构的研究很少。在这项温室研究中,利用针对rRNA基因ITS1区域的MiSeq测序技术,对连续种植的小麦根际真菌群落进行了表征,这些小麦根际真菌感染了真菌病原体茄枯丝核菌AG8。序列分析表明,接种或不接种AG8后,不同种植周期真菌类群聚集,但AG8侵染增强了真菌群落的分离。在ag8侵染根际和未侵染根际也观察到真菌群落的聚集,而根系病害最轻根际和根系病害最严重根际之间的真菌群落没有差异。种植周期显著降低了真菌α多样性。ag8感染样品中丰度最高的真菌属是Mortierella,其相对丰度随着种植周期的增加而增加。而在连续种植和AG8侵染后,Pseudogymnoascus、Gibberella、Fusarium、Fusicolla、Exophiala和Waitea等真菌属的相对丰度降低。总之,本研究揭示了真菌群落在土壤真菌病原体的压力下如何随着小麦的连续生长而变化。
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Disease-induced assemblage of the rhizosphere fungal community in successive plantings of wheat
The plant is one of the primary drivers of microbial communities in the rhizosphere. The consistent presence of same plant species over time, such as in monocropping in agriculture can drive significant changes in plant-associated microbiomes. Most of the studies with monocropping have focused on bacteria, which are involved in the natural suppression of a number of soilborne diseases, including Rhizoctonia root rot and take-all. However, few studies have examined how monocropping and root rot pathogens jointly affect the structure of fungal communities in the rhizosphere. In this greenhouse study, rhizosphere fungal communities from successive wheat plantings infected with the fungal pathogen Rhizoctonia solani AG8 were characterized using MiSeq sequencing targeting the ITS1 region of the rRNA gene. Sequence analyses revealed that distinct fungal groups clustered by planting cycles with or without AG8 inoculation, but infection with AG8 enhanced the separation of fungal communities. Clusters of fungal communities were also observed in AG8-infected and non-infected rhizospheres, whereas there was no difference in fungal communities between the rhizosphere with the least root disease and those with the worst root disease. Planting cycles significantly reduced fungal alpha diversity. The most abundant fungal genus was Mortierella which increased in relative abundance with planting cycles in AG8-infected samples. In contrast, a group of fungal genera, including Pseudogymnoascus, Gibberella, Fusarium, Fusicolla, Exophiala, and Waitea, were reduced in relative abundance with successive plantings and AG8 infection. Together, this study revealed how fungal communities change with successive wheat growth under the pressure of a soilborne fungal pathogen.
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来源期刊
CiteScore
7.40
自引率
6.80%
发文量
42
审稿时长
4 weeks
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