Abstract
All the essential genetic determinants for site-specific integration of corynephage phi AAU2 are contained within a 1,756-bp DNA fragment, carried on the integrative plasmid p5510, and are shown to be functional in Escherichia coli. One open reading frame, ORF4, encoding a protein of 266 amino acids was shown to represent the phi AAU2 integrase. The nucleotide sequence of the phi AAU2 attachment site, attP, and the attB, attL, and attR sequences in the host "Arthrobacter aureus" C70 were determined. Identical nucleotide sequences were shown to be responsible for the integration of p5510 in the chromosomes of Corynebacterium glutamicum, Brevibacterium divaricatum, and B. lactofermentum, and a sequence almost identical to attB was found to be present in these three strains. In contrast to other phage site-specific recombination systems, a plasmid encompassing only int-attP failed to integrate into the host chromosome. This led to the identification of an 800-bp noncoding region, immediately upstream of int, absolutely required for site-specific integration of p5510.
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