Genus-wide homologous recombination of tail fibers maintains tailocin diversity in Pectobacterium
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ID: 313629
2026
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Abstract
Abstract Due to their ability to kill closely related strains, phage tail-like bacteriocins, also called tailocins, play an important role in shaping bacterial communities. One such tailocin, called carotovoricin, is also known to be present in the Pectobacterium genus. However, little is known about its evolutionary dynamics and the scope of impact on species interactions in this genus. To investigate the diversity and evolution of carotovoricin, we performed a genus-wide, phylogenetically-structured pangenome study. This analysis inferred that the gene cluster responsible for carotovoricin biosynthesis is conserved across the genus and is located in the same gene neighborhood in all the species. Within the carotovoricin cluster, the tail fiber genes, which determine the host range specificity, exhibit high variability and discordance with the species phylogeny. We show evidence for an evolutionary mechanism involving recombination-mediated exchange of these tail fiber loci across the entire Pectobacterium genus, which complements the previously known mechanism for DNA sequence inversion to maintain tailocin polymorphism at the population level. In addition, the ability to exchange tail-fiber loci in a highly targeted and genus-wide manner could influence the community dynamics in nutrient rich environments such as infected plant tissues. In conclusion, the strong signal for carotovoricin retention and ability to exchange tail fibers indicates that it significantly contributes to the community interactions of the Pectobacterium phytopathogens.
| Reference Key |
openalex_W7160988051
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| Authors | Lakhansing Pardeshi, Anne Kupczok, Dick de Ridder, Sandra Smit, Theo A J van der Lee |
| Journal | genome biology and evolution |
| Year | 2026 |
| DOI |
10.1093/gbe/evag106
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| URL | |
| Keywords | Keywords not found |
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