Complementation of Listeria Monocytogenes Null Mutants with Selected Listeria Seeligeri Virulence Genes Suggests Functional Adaptation of Hly and PrfA and Considerable Diversification of PrfA Regulation in L. Seeligeri

Overview

Journal Appl Environ Microbiol

Specialties Environmental Health
Microbiology

Date 2010 Jun 15

PMID 20543041

Citations 3

Authors

Courtney R Lucas Stelling

Renato H Orsi

Martin Wiedmann

Affiliations

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Abstract

While Listeria seeligeri and L. monocytogenes contain the main Listeria virulence gene cluster, only L. monocytogenes is considered an intracellular pathogen. Initial evolutionary analyses showed that the virulence genes prfA, hly, and plcA are conserved in L. seeligeri, with specific Hly and PrfA amino acid residues showing evidence for positive selection in L. seeligeri. Our data also show that temperature-dependent transcript patterns for prfA, which encodes a transcriptional regulator of virulence genes, differed between L. monocytogenes and L. seeligeri. To further investigate the divergence of virulence gene function and regulation, L. seeligeri prfA (prfA(LS)), hly (hly(LS)), and plcA (plcA(LS)), as well as prfA(LS) constructs with different prfA promoter regions, were introduced into appropriate L. monocytogenes null mutants. Only when prfA(LS) was under the control of the L. monocytogenes prfA promoters (P1- and P2prfA) (P1P2(LM) prfA(LS)) was prfA(LS) able to fully complement the Delta prfA(LM) deletion. hly(LS) introduced into an L. monocytogenes background under its native promoter showed transcript levels similar to those of hly(LM) and was able to partially restore L. monocytogenes wild-type-level hemolysis and intracellular growth, even though Hly(LM) and Hly(LS) showed distinct patterns of cell- and supernatant-associated hemolytic activities. Our data indicate that (i) regulation of prfA expression differs between L. monocytogenes and L. seeligeri, although hly transcription is temperature dependent in both species, and (ii) PrfA and Hly functions are largely, but not fully, conserved between L. seeligeri and L. monocytogenes. Virulence gene homologues and their expression thus appear to have adapted to distinct but possibly related functions in these two species.

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