To kill or to piggyback: Switching of viral lysis-lysogeny strategies depending on host dynamics

Viruses wield significant influence over microbial communities and ecosystem function in marine environments. However, the selection of viral life strategies and their impacts on microbial communities remains enigmatic. In this study, we utilized a large-scale macrocosm, established using water samples from a marine coastal region, to enable community-level investigation. Through a prolonged incubation experiment, we aimed to clarify the ramifications of lytic and lysogenic viral activities on microbial community dynamics. We observed a continuous succession in bacterial abundance, growth rate, and community diversity, tightly linked with time series switching between viral lysis and lysogeny. Elevated lytic viral production notably fostered greater bacterial diversity, whereas increased lysogenic viral production corresponded to bacterial communities characterized by heightened abundance and growth rate but reduced diversity. Moreover, discernible shifts in bacterial community compositions, associated with different abundant bacterial taxa, were synchronized with pronounced transitions between viral lysis and lysogeny. Notably, the switch from lysogeny to lysis facilitated the proliferation of initially rare bacterial populations. Our findings suggest that the Kill-the-Winner and Piggyback-the-Winner hypotheses, both elucidating dynamic patterns in virus-host interactions, can synergistically demonstrate the pivotal role of viruses in regulating microbial communities via the lysis-lysogeny switch in marine environments.

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Publication Details

Journal
The Science of The Total Environment
Published
2024-12-24
DOI
https://doi.org/10.1016/j.scitotenv.2024.178233
Citations
6
Primary Topic
Bacteriophages and microbial interactions
Type
article
Field-Weighted Citation Impact
2.75

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article

To kill or to piggyback: Switching of viral lysis-lysogeny strategies depending on host dynamics

Ruijie Ma, Lianbao Zhang, Xilin Xiao, Rui Zhang et al.
6 citations
The Science of The Total Environment
Bacteriophages and microbial interactions
2.75
article

To kill or to piggyback: Switching of viral lysis-lysogeny strategies depending on host dynamics

Ruijie Ma, Lianbao Zhang, Xilin Xiao, Rui Zhang, Douglas W.R. Wallace, John Batt, Qiang Zheng, Tingwei Luo, Chen Hu, Wei Wei, Yao Zhang, Xiaowei Chen, Qiang Shi, Jihua Liu, Nianzhi Jiao, Dapeng Xu
article en
6 citations

Abstract

Viruses wield significant influence over microbial communities and ecosystem function in marine environments. However, the selection of viral life strategies and their impacts on microbial communities remains enigmatic. In this study, we utilized a large-scale macrocosm, established using water samples from a marine coastal region, to enable community-level investigation. Through a prolonged incubation experiment, we aimed to clarify the ramifications of lytic and lysogenic viral activities on microbial community dynamics. We observed a continuous succession in bacterial abundance, growth rate, and community diversity, tightly linked with time series switching between viral lysis and lysogeny. Elevated lytic viral production notably fostered greater bacterial diversity, whereas increased lysogenic viral production corresponded to bacterial communities characterized by heightened abundance and growth rate but reduced diversity. Moreover, discernible shifts in bacterial community compositions, associated with different abundant bacterial taxa, were synchronized with pronounced transitions between viral lysis and lysogeny. Notably, the switch from lysogeny to lysis facilitated the proliferation of initially rare bacterial populations. Our findings suggest that the Kill-the-Winner and Piggyback-the-Winner hypotheses, both elucidating dynamic patterns in virus-host interactions, can synergistically demonstrate the pivotal role of viruses in regulating microbial communities via the lysis-lysogeny switch in marine environments.

The Science of The Total EnvironmentVol. 959
Wuhan Institute of Technology (CN)
National Natural Science Foundation of China, Natural Science Foundation of Fujian Province
Zero hunger
Openalex Percentile: Top 10%
Bacteriophages and microbial interactions
2.75
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