From digital archive to functional virion: the reconstitution and biological rebooting of bacteriophage PRR1

Over time, numerous legacy bacterial isolates and mobile genetic elements (MGEs) have been systematically lost as physical strain collections have been passed down across academic generations. This ongoing attrition has significantly restricted the ability of contemporary scientists to reproduce historical findings or build upon foundational research. However, recent advancements in high fidelity commercial DNA synthesis, coupled with modern recombinant DNA technologies, now enable researchers to precisely reconstruct lost MGEs based entirely on digital sequence records. Here, we demonstrate the de novo physical reconstitution of PRR1, a plasmid-dependent, single-stranded RNA bacteriophage that has evidently become lost across many global culture repositories. Comprehensive genetic, phenotypic, and ultrastructural characterisation confirmed that the synthetic PRR1 virions exhibit biological and structural traits completely identical to the historically documented virology of the wild-type phage. Ultimately, this study highlights how the synthesis and operational rebooting of lost MGEs is now readily achievable within exceptionally short time frames, transforming public sequence databases into active toolkits for evolutionary and antimicrobial research.

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Publication Details

Journal
Microbiology Australia
Published
2026-09-17
DOI
https://doi.org/10.1071/ma26027
Primary Topic
Bacteriophages and microbial interactions
Type
article
Field-Weighted Citation Impact
0.00
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article

From digital archive to functional virion: the reconstitution and biological rebooting of bacteriophage PRR1

Galain C. Williams, Steve Petrovski, Dena Lyras, Bailey Heron
Microbiology Australia
Bacteriophages and microbial interactions
article

From digital archive to functional virion: the reconstitution and biological rebooting of bacteriophage PRR1

Galain C. Williams, Steve Petrovski, Dena Lyras, Bailey Heron
article en

Abstract

Over time, numerous legacy bacterial isolates and mobile genetic elements (MGEs) have been systematically lost as physical strain collections have been passed down across academic generations. This ongoing attrition has significantly restricted the ability of contemporary scientists to reproduce historical findings or build upon foundational research. However, recent advancements in high fidelity commercial DNA synthesis, coupled with modern recombinant DNA technologies, now enable researchers to precisely reconstruct lost MGEs based entirely on digital sequence records. Here, we demonstrate the de novo physical reconstitution of PRR1, a plasmid-dependent, single-stranded RNA bacteriophage that has evidently become lost across many global culture repositories. Comprehensive genetic, phenotypic, and ultrastructural characterisation confirmed that the synthetic PRR1 virions exhibit biological and structural traits completely identical to the historically documented virology of the wild-type phage. Ultimately, this study highlights how the synthesis and operational rebooting of lost MGEs is now readily achievable within exceptionally short time frames, transforming public sequence databases into active toolkits for evolutionary and antimicrobial research.

Microbiology Australia
La Trobe University (AU), Discovery Institute (US), Biology of Infection (FR), Czech Academy of Sciences, Institute of Microbiology (CZ)
Openalex Percentile: Top 11%
Bacteriophages and microbial interactions
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