Phollow reveals in situ phage transmission dynamics in the zebrafish gut microbiome at single-virion resolution

Bacteriophages show promise for microbiome engineering, but studying their transmission dynamics in multimember communities and animal hosts is technically challenging. We therefore created 'Phollow', a live imaging-based approach for tracking phage replication and spread in situ with single-virion resolution. Following interbacterial phage transmission is achieved by marking virions with distinct fluorescent proteins during assembly in newly infected cells. In vitro cell virology studies revealed clouds of phage virions dispersing upon bacterial lysis, leading to rampant transmission. Combining Phollow with optically transparent zebrafish, we visualized phage outbreaks within the vertebrate gut. We observed that virions from a zebrafish-derived Plesiomonas strain, but not a human-derived E. coli, rapidly disseminate systemically to the liver and brain. Moreover, antibiotics triggered waves of interbacterial transmission and sudden shifts in gut community ecology. Phollow ultimately empowers multiscale investigations of phage transmission and transkingdom interactions that have the potential to open new avenues for phage-based microbiome therapies.

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Publication Details

Journal
Nature Microbiology
Published
2025-04-18
DOI
https://doi.org/10.1038/s41564-025-01981-1
Citations
4
Primary Topic
Bacteriophages and microbial interactions
Type
article
Field-Weighted Citation Impact
6.87

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article

Phollow reveals in situ phage transmission dynamics in the zebrafish gut microbiome at single-virion resolution

Maria S. Bañuelos, Shane Gonen, Dequina Nicholas, Travis J. Wiles et al.
4 citations
Nature Microbiology
Bacteriophages and microbial interactions
6.87
article

Phollow reveals in situ phage transmission dynamics in the zebrafish gut microbiome at single-virion resolution

Maria S. Bañuelos, Shane Gonen, Dequina Nicholas, Travis J. Wiles, Elizabeth T. Wiles, Mirjam Zünd, Courtney Knitter, Naveena Ujagar, Diana S. Suder, Lizett Ortiz de Ora, Nancy Haro-Ramirez, Calvin Trinh, Julio Ayala-Angulo
article en
4 citations

Abstract

Bacteriophages show promise for microbiome engineering, but studying their transmission dynamics in multimember communities and animal hosts is technically challenging. We therefore created 'Phollow', a live imaging-based approach for tracking phage replication and spread in situ with single-virion resolution. Following interbacterial phage transmission is achieved by marking virions with distinct fluorescent proteins during assembly in newly infected cells. In vitro cell virology studies revealed clouds of phage virions dispersing upon bacterial lysis, leading to rampant transmission. Combining Phollow with optically transparent zebrafish, we visualized phage outbreaks within the vertebrate gut. We observed that virions from a zebrafish-derived Plesiomonas strain, but not a human-derived E. coli, rapidly disseminate systemically to the liver and brain. Moreover, antibiotics triggered waves of interbacterial transmission and sudden shifts in gut community ecology. Phollow ultimately empowers multiscale investigations of phage transmission and transkingdom interactions that have the potential to open new avenues for phage-based microbiome therapies.

Nature MicrobiologyVol. 10(5)
University of California, Irvine (US)
Schweizerischer Nationalfonds zur Förderung der Wissenschaftlichen Forschung, National Institute of Allergy and Infectious Diseases
Life in Land
Openalex Percentile: Top 4%
Bacteriophages and microbial interactions
6.87
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