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Garlic Substrate Induces Cucumber Growth Development and Decreases Fusarium Wilt through Regulation of Soil Microbial Community Structure and Diversity in Replanted Disturbed Soil

机译:大蒜底物诱导黄瓜生长发育,通过调节土壤微生物群落结构和复制扰动土壤的多样性降低镰刀菌枯萎病

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摘要

Garlic substrate could influence plant growth through affecting soil microbiome structure. The relationship mechanism between changes in soil microbial communities, disease suppression and plant development, however, remains unclear, particularly in the degraded soil micro-ecological environment. In this study, garlic substrates as a soil amendment were incorporated with different ratios (1:100, 3:100 and 5:100 g/100 g of soil) in a replanted disturbed soil of long-term cucumber monoculture (annual double cropping system in a greenhouse). The results indicated that higher amount of C-amended garlic substrate significantly induced soil suppressiveness (35.9% greater than control (CK) against the foliar disease incidence rate. This inhibitory effect consequently improved the cucumber growth performance and fruit yield to 20% higher than the non-amended soil. Short-term garlic substrate addition modified the soil quality through an increase in soil organic matter (SOM), nutrient availability and enzymatic activities. Illumina MiSeq sequencing analysis revealed that soil bacterial and fungal communities in the garlic amendment were significantly different from the control. Species richness and diversity indices significantly increased under treated soil. The correlation-based heat map analysis suggested that soil OM, nutrient contents and biological activators were the primary drivers reshaping the microbial community structure. Furthermore, garlic substrate inhibited soil-borne pathogen taxa (Fusarium and Nematoda), and their reduced abundances, significantly affecting the crop yield. In addition, the host plant recruited certain plant-beneficial microbes due to substrate addition that could directly contribute to plant–pathogen inhibition and crop biomass production. For example, abundant Acidobacteria, Ascomycota and Glomeromycota taxa were significantly associated with cucumber yield promotion. Firmicutes, Actinobacteria, Bacteroidetes, Basidiomycota and Glomeromycota were the associated microbial taxa that possibly performed as antagonists of Fusarium wilt, with plant pathogen suppression potential in monocropped cucumber-planted soil.
机译:大蒜基板可以通过影响土壤微生物结构,影响植物的生长。在土壤中的微生物群落,疾病抑制和植物的发育变化之间的关系的机制,但是,目前还不清楚,特别是在退化土壤微生态环境。在长期黄瓜单养的再植扰乱土壤(年度双季系统(100克/ 100克土壤的:100,3:100和5 1)在本研究中,大蒜基板作为土壤改良剂,用不同的比例掺入在温室中)。该结果表明,C-修正大蒜衬底更高量显著引起的土壤suppressiveness(35.9%大于对照(CK)对叶面的发病率。这种抑制作用因此改善了黄瓜生长性能和果实产量至20%,比更高非修正的土壤。短期大蒜基板除了通过在土壤中有机质的增加(SOM),营养物可用性和酶活性改性的土质。Illumina的MiSeq测序分析揭示了在大蒜修正案,土壤细菌和真菌的社区是显著不同从控制物种的丰富性和多样性指数处理过的土壤下显著增加。基于相关的热图分析表明,土壤有机质,养分含量和生物活性剂是主要的驱动重塑微生物群落结构。此外,大蒜衬底抑制土源性病原体类群(镰刀菌和线虫),和第EIR减少丰度,显著影响作物产量。此外,宿主植物招募某些植物有益微生物由于基板此外,可以直接向植物病原体抑制和作物的生物量生产。例如,丰富的酸杆菌门,子囊菌和球囊菌门类群进行了显著黄瓜产量提升有关。厚壁菌门,放线菌,拟杆菌,担子菌门和球囊菌门是相关联的微生物类群那可能作为枯萎病的拮抗剂进行的,在单作黄瓜种植的土壤植物病原体抑制潜力。

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