CellEcologyPeer-reviewed journal article
Arbitrium phages can manipulate each other's lysis - lysogeny decisions
Robyn ManleyiD, R. Woodhams, Tom J. ArrowsmithiD, E. Smith, J. Bruce, Tim R. BloweriD, Ben TempertoniD, E.R. Westra
Abstract
Many viruses can switch between lytic replication and dormancy (or lysogeny). It was recently discovered that some viruses that infect bacteria (known as bacteriophage, or phage) employ peptide-based ("arbitrium") communication systems to optimise their lysis/lysogeny switch: high peptide concentrations signal a lack of susceptible hosts and trigger lysogeny, while low peptide concentrations signal an abundance of uninfected hosts and prompt lysis. Here we demonstrate that Arbitrium-phages belonging to different species and genera can influence each others infection dynamics by secreting similar communication peptides, leading to early lysogenisation of the signal-receiving phage, and elevated fitness of the signal-emitting phage. Antagonistic coevolution between signal emitting and signal receiving phages to manipulate each others infection behaviours may explain the rapid diversification of arbitrium systems and their frequent horizontal exchange to escape the noise of cross talk.
- organism: bacteria (other)
- research focus: host-pathogen & immune response
- approach: experimental assay
- Citations
- 10
- FWCI
- 34.58
- Field percentile
- top 1%
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Dormant phages communicate to control exit from lysogeny
N. Aframian, S. Omer Bendori, … A. Eldar·bioRxiv·Sep 20, 2021
- Phages communicate across species to shape microbial ecosystems
Francisca Gallego del Sol, Daniel Sin, … Alberto Marina·CellPeer-reviewed·Mar 31, 2026
- Time-scales modulate optimal lysis-lysogeny decision switches and near-term phage fitness
S. Shivam, G. Li, … J. S. Weitz·bioRxiv·Jun 21, 2021
- Arbitrium communication controls phage life-cycle through modulation of a bacterial anti-phage defense system
P. Guler, S. Omer Bendori, … A. Eldar·bioRxiv·Apr 27, 2023
- Arbitrium systems control lysis/lysogeny through the regulation of small antirepressor proteins
Stav Kabel, Shira Omer Bendori, … Avigdor Eldar·Cell Host & MicrobePeer-reviewed·Jan 30, 2026
- How repeated outbreaks drive the evolution of bacteriophage communication: Insights from a mathematical model
H. M. Doekes, G. A. Mulder, R. Hermsen·bioRxiv·Apr 29, 2020