Nature Communications (Mar 2023)

Integrative omics identifies conserved and pathogen-specific responses of sepsis-causing bacteria

  • Andre Mu,
  • William P. Klare,
  • Sarah L. Baines,
  • C. N. Ignatius Pang,
  • Romain Guérillot,
  • Nichaela Harbison-Price,
  • Nadia Keller,
  • Jonathan Wilksch,
  • Nguyen Thi Khanh Nhu,
  • Minh-Duy Phan,
  • Bernhard Keller,
  • Brunda Nijagal,
  • Dedreia Tull,
  • Saravanan Dayalan,
  • Hwa Huat Charlie Chua,
  • Dominik Skoneczny,
  • Jason Koval,
  • Abderrahman Hachani,
  • Anup D. Shah,
  • Nitika Neha,
  • Snehal Jadhav,
  • Sally R. Partridge,
  • Amanda J. Cork,
  • Kate Peters,
  • Olivia Bertolla,
  • Stephan Brouwer,
  • Steven J. Hancock,
  • Laura Álvarez-Fraga,
  • David M. P. De Oliveira,
  • Brian Forde,
  • Ashleigh Dale,
  • Warasinee Mujchariyakul,
  • Calum J. Walsh,
  • Ian Monk,
  • Anna Fitzgerald,
  • Mabel Lum,
  • Carolina Correa-Ospina,
  • Piklu Roy Chowdhury,
  • Robert G. Parton,
  • James De Voss,
  • James Beckett,
  • Francois Monty,
  • Jessica McKinnon,
  • Xiaomin Song,
  • John R. Stephen,
  • Marie Everest,
  • Matt I. Bellgard,
  • Matthew Tinning,
  • Michael Leeming,
  • Dianna Hocking,
  • Leila Jebeli,
  • Nancy Wang,
  • Nouri Ben Zakour,
  • Serhat A. Yasar,
  • Stefano Vecchiarelli,
  • Tonia Russell,
  • Thiri Zaw,
  • Tyrone Chen,
  • Don Teng,
  • Zena Kassir,
  • Trevor Lithgow,
  • Adam Jenney,
  • Jason N. Cole,
  • Victor Nizet,
  • Tania C. Sorrell,
  • Anton Y. Peleg,
  • David L. Paterson,
  • Scott A. Beatson,
  • Jemma Wu,
  • Mark P. Molloy,
  • Anna E. Syme,
  • Robert J. A. Goode,
  • Adam A. Hunter,
  • Grahame Bowland,
  • Nicholas P. West,
  • Marc R. Wilkins,
  • Steven P. Djordjevic,
  • Mark R. Davies,
  • Torsten Seemann,
  • Benjamin P. Howden,
  • Dana Pascovici,
  • Sonika Tyagi,
  • Ralf B. Schittenhelm,
  • David P. De Souza,
  • Malcolm J. McConville,
  • Jonathan R. Iredell,
  • Stuart J. Cordwell,
  • Richard A. Strugnell,
  • Timothy P. Stinear,
  • Mark A. Schembri,
  • Mark J. Walker

DOI
https://doi.org/10.1038/s41467-023-37200-w
Journal volume & issue
Vol. 14, no. 1
pp. 1 – 21

Abstract

Read online

Severe sepsis has a high mortality rate. Here, the authors provide genomic, transcriptomic, proteomic and metabolomic data across four sepsis-causing pathogens and identify a signature of global increase in fatty acid and lipid biosynthesis as well as cholesterol acquisition.