Phage biocontrol success of bacterial wilt depends on synergistic interactions with resident rhizosphere microbiota

IF 5.7 2区 生物学
Sara Franco Ortega, Bryden Fields, Daniel Narino Rojas, Lauri Mikonranta, Matthew Holmes, Andrea L. Harper, Ville-Petri Friman
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Abstract

Phages can successfully be used in vitro and in planta to biocontrol the phytopathogenic Ralstonia solanacearum bacterium—the causal agent of bacterial wilt disease. However, phage biocontrol outcomes are still variable, and it is unclear what causes this. In this study, we assessed the efficiency of four phages in controlled in vitro and in planta experiments in all one- and two-phage combinations. We found that using phages in combination did not improve the phage biocontrol efficiency relative to single phage treatments, while certain phages and their combinations were more effective than the others. High intra-treatment variability in phage efficiency was observed across all phage treatments, which was associated with clear shifts in microbiome composition, a reduction in R. solanacearum and an increase in phage densities. We further identified the bacterial taxa that were associated with these ‘shifted’ microbiomes and conducted additional plant growth experiments, demonstrating that some of the enriched bacterial species could protect plants from R. solanacearum infections—a pattern which was also observed using partial least squares path modelling (PLS-PM). Together, these results suggest that phages could open niche space for beneficial bacteria by reducing pathogen densities and that variability in phage biocontrol outcomes is rhizosphere microbiome-dependent, which can introduce between-replicate variation, even in controlled greenhouse conditions.

Abstract Image

噬菌体生物防治细菌枯萎病的成功取决于与根瘤菌群的协同作用。
噬菌体可以成功地在体外和植物体内用于植物病原菌 Ralstonia solanacearum(细菌性枯萎病的病原菌)的生物防治。然而,噬菌体的生物防治效果仍然参差不齐,目前尚不清楚造成这种情况的原因。在本研究中,我们在体外和植物体内对照实验中评估了四种噬菌体在所有单噬菌体和双噬菌体组合中的效率。我们发现,与单一噬菌体处理相比,组合使用噬菌体并不能提高噬菌体的生物防治效率,而某些噬菌体及其组合比其他噬菌体更有效。在所有噬菌体处理中都观察到了噬菌体效率在处理内的高变异性,这与微生物群组成的明显变化、茄果酵母菌的减少和噬菌体密度的增加有关。我们进一步确定了与这些 "转变 "的微生物组相关的细菌类群,并进行了额外的植物生长实验,结果表明一些富集的细菌物种可以保护植物免受茄碱菌感染--使用偏最小二乘法路径建模(PLS-PM)也观察到了这种模式。这些结果共同表明,噬菌体可以通过降低病原体密度为有益细菌打开生态位空间,而且噬菌体生物防治结果的变异取决于根瘤微生物群,即使在受控温室条件下也会产生重复间变异。
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来源期刊
Microbial Biotechnology
Microbial Biotechnology Immunology and Microbiology-Applied Microbiology and Biotechnology
CiteScore
11.20
自引率
3.50%
发文量
162
审稿时长
1 months
期刊介绍: Microbial Biotechnology publishes papers of original research reporting significant advances in any aspect of microbial applications, including, but not limited to biotechnologies related to: Green chemistry; Primary metabolites; Food, beverages and supplements; Secondary metabolites and natural products; Pharmaceuticals; Diagnostics; Agriculture; Bioenergy; Biomining, including oil recovery and processing; Bioremediation; Biopolymers, biomaterials; Bionanotechnology; Biosurfactants and bioemulsifiers; Compatible solutes and bioprotectants; Biosensors, monitoring systems, quantitative microbial risk assessment; Technology development; Protein engineering; Functional genomics; Metabolic engineering; Metabolic design; Systems analysis, modelling; Process engineering; Biologically-based analytical methods; Microbially-based strategies in public health; Microbially-based strategies to influence global processes
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