Impact of Viral Lysis on the Composition of Bacterial Communities and Dissolved Organic Matter in Deep-Sea Sediments

Viral lysis is a main mortality factor for bacteria in deep-sea sediments, leading to changing microbial community structures and the release of cellular components to the environment. Nature and fate of these compounds and the role of viruses for microbial diversity is largely unknown. We investiga...

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Veröffentlicht in:Viruses 2020-08, Vol.12 (9), p.922, Article 922
Hauptverfasser: Heinrichs, Mara E., Tebbe, Dennis A., Wemheuer, Bernd, Niggemann, Jutta, Engelen, Bert
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creator Heinrichs, Mara E.
Tebbe, Dennis A.
Wemheuer, Bernd
Niggemann, Jutta
Engelen, Bert
description Viral lysis is a main mortality factor for bacteria in deep-sea sediments, leading to changing microbial community structures and the release of cellular components to the environment. Nature and fate of these compounds and the role of viruses for microbial diversity is largely unknown. We investigated the effect of viruses on the composition of bacterial communities and the pool of dissolved organic matter (DOM) by setting up virus-induction experiments using mitomycin C with sediments from the seafloor of the Bering Sea. At the sediment surface, no substantial prophage induction was detected, while incubations from 20 cm below seafloor showed a doubling of the virus-to-cell ratio. Ultra-high resolution mass spectrometry revealed an imprint of cell lysis on the molecular composition of DOM, showing an increase of molecular formulas typical for common biomolecules. More than 50% of these compounds were removed or transformed during incubation. The remaining material potentially contributed to the pool of refractory DOM. Next generation sequencing of the bacterial communities from the induction experiment showed a stable composition over time. In contrast, in the non-treated controls the abundance of dominant taxa (e.g., Gammaproteobacteria) increased at the expense of less abundant phyla. Thus, we conclude that viral lysis was an important driver in sustaining bacterial diversity, consistent with the "killing the winner" model.
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Nature and fate of these compounds and the role of viruses for microbial diversity is largely unknown. We investigated the effect of viruses on the composition of bacterial communities and the pool of dissolved organic matter (DOM) by setting up virus-induction experiments using mitomycin C with sediments from the seafloor of the Bering Sea. At the sediment surface, no substantial prophage induction was detected, while incubations from 20 cm below seafloor showed a doubling of the virus-to-cell ratio. Ultra-high resolution mass spectrometry revealed an imprint of cell lysis on the molecular composition of DOM, showing an increase of molecular formulas typical for common biomolecules. More than 50% of these compounds were removed or transformed during incubation. The remaining material potentially contributed to the pool of refractory DOM. Next generation sequencing of the bacterial communities from the induction experiment showed a stable composition over time. In contrast, in the non-treated controls the abundance of dominant taxa (e.g., Gammaproteobacteria) increased at the expense of less abundant phyla. 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subjects Bacteria
Bacteria - chemistry
Bacteria - classification
Bacteria - isolation & purification
Bacteria - virology
Bacteriolysis
Bacteriophages - physiology
Bering Sea
Biodiversity
Biogeochemistry
Carbon
Cell division
Community
Dissolved organic matter
Experiments
Geologic Sediments - chemistry
Geologic Sediments - microbiology
killing the winner
Life Sciences & Biomedicine
Lysis
Mass spectroscopy
Microbiota
Mitomycin - pharmacology
Mitomycin C
Next-generation sequencing
Ocean floor
Oceans and Seas
Organic Chemicals - analysis
Prokaryotes
prophages
Prophages - physiology
Science & Technology
Seawater - chemistry
Seawater - microbiology
Sediments
Virology
Virus Activation - drug effects
virus-induction
Viruses
title Impact of Viral Lysis on the Composition of Bacterial Communities and Dissolved Organic Matter in Deep-Sea Sediments
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