Virocell Necromass Provides Limited Plant Nitrogen and Elicits Rhizosphere Metabolites That Affect Phage Dynamics

Bacteriophages impact soil bacteria through lysis, altering the availability of organic carbon and plant nutrients. However, the magnitude of nutrient uptake by plants from lysed bacteria remains unknown, partly because this process is challenging to investigate in the field. In this study, we extend ecosystem fabrication (EcoFAB 2.0) approaches to study plant-bacteria-phage interactions by comparing the impact of virocell (phage-lysed) and uninfected <sup>15</sup>N-labelled bacterial necromass on plant nitrogen acquisition and rhizosphere exometabolites composition. We show that grass Brachypodium distachyon derives some nitrogen from amino acids in uninfected Pseudomonas putida necromass lysed by sonication but not from virocell necromass. Additionally, the bacterial necromass elicits the formation of rhizosphere exometabolites, some of which (guanosine), alongside tested aromatic acids (p-coumaric and benzoic acid), show bacterium-specific effects on bacteriophage-induced lysis when tested in vitro. The study highlights the dynamic feedback between virocell necromass and plants and suggests that root exudate metabolites can impact bacteriophage infection dynamics.

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Publication Details

Journal
Plant Cell & Environment
Published
2025-03-19
DOI
https://doi.org/10.1111/pce.15456
Citations
2
Primary Topic
Bacteriophages and microbial interactions
Type
article
Field-Weighted Citation Impact
3.43
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article

Virocell Necromass Provides Limited Plant Nitrogen and Elicits Rhizosphere Metabolites That Affect Phage Dynamics

Matthew B. Sullivan, Simon Roux, Vlastimil Novák, Suzanne M. Kosina et al.
2 citations
Plant Cell & Environment
Bacteriophages and microbial interactions
3.43
article

Virocell Necromass Provides Limited Plant Nitrogen and Elicits Rhizosphere Metabolites That Affect Phage Dynamics

Matthew B. Sullivan, Simon Roux, Vlastimil Novák, Suzanne M. Kosina, Vivek K. Mutalik, Trent R. Northen, Thomas V. Harwood, Rachel Neurath, Karsten Zengler, Katherine Louie, Michelle C. M. van Winden
article en
2 citations

Abstract

Bacteriophages impact soil bacteria through lysis, altering the availability of organic carbon and plant nutrients. However, the magnitude of nutrient uptake by plants from lysed bacteria remains unknown, partly because this process is challenging to investigate in the field. In this study, we extend ecosystem fabrication (EcoFAB 2.0) approaches to study plant-bacteria-phage interactions by comparing the impact of virocell (phage-lysed) and uninfected <sup>15</sup>N-labelled bacterial necromass on plant nitrogen acquisition and rhizosphere exometabolites composition. We show that grass Brachypodium distachyon derives some nitrogen from amino acids in uninfected Pseudomonas putida necromass lysed by sonication but not from virocell necromass. Additionally, the bacterial necromass elicits the formation of rhizosphere exometabolites, some of which (guanosine), alongside tested aromatic acids (p-coumaric and benzoic acid), show bacterium-specific effects on bacteriophage-induced lysis when tested in vitro. The study highlights the dynamic feedback between virocell necromass and plants and suggests that root exudate metabolites can impact bacteriophage infection dynamics.

Plant Cell & Environment
Lawrence Berkeley National Laboratory (US), Joint Genome Institute (US), University of California San Diego (US), La Jolla Bioengineering Institute (US), The Ohio State University (US)
Life in Land
Openalex Percentile: Top 10%
Bacteriophages and microbial interactions
3.43
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