1887

Abstract

is commonly found in the environment and in association with various bovine body sites and is a major cause of bovine mastitis. Moreover, is known to produce a variety of bacteriocin-like inhibitory substances, antimicrobial agents that generally inhibit closely related bacterial species. In this respect, strain 42 has previously been shown to produce a novel nisin variant named nisin U. This paper reports that, in addition to nisin U, strain 42 produces a second bacteriocin that induces the lysis of metabolically active, susceptible target bacteria and which has therefore been named uberolysin. Isolation of the native active antimicrobial agent revealed that uberolysin is a 7048 Da peptide that is refractory to sequence analysis by Edman degradation. Transposon mutagenesis was used to generate a uberolysin-negative mutant of 42 and sequencing of DNA flanking the insertion site revealed, in addition to the structural gene (), several open reading frames likely to be involved in post-translational modification, transport and producer self-protection (immunity), and possibly in regulation of the biosynthetic gene cluster. In addition, a pair of direct repeats that may be involved in bacteriocin acquisition were identified; indeed, could be identified in 18 % of tested strains. Enzymic hydrolysis of uberolysin was used to confirm that does indeed encode the precursor of uberolysin, that an unusually short leader sequence of only six amino acids is cleaved during processing of the mature peptide and that uberolysin is post-translationally covalently modified to form a head-to-tail monocycle. Thus, uberolysin is a unique cyclic bacteriocin, belonging to the same family of bacteriocins as enterocin AS-48 and circularin A.

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2007-05-01
2019-10-18
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