Abstract
We have found that coliphage P1 can be used to transduce cloned DNA from Escherichia coli to Myxococcus xanthus. Transduction occurred at a high efficiency, and no evidence for DNA restriction was observed. The analysis of the transductants showed that they fall into three general categories: (i) haploid cells which contain portions of the cloned DNA substituted for homologous chromosomal DNA; (ii) heterozygous merodiploids which contain the recombinant plasmid integrated into the chromosome at a region of homology; and (iii) homozygous merodiploids which contain two copies of a portion of the cloned DNA with the loss of the chromosomal copy of the genes. The merodiploids, once formed, are relatively stable. They were used to analyze two genes necessary for aggregation and thus fruiting body formation. P1 transduction also permits the reintroduction and substitution of mutated regions of cloned DNA into M. xanthus for the analysis of the role of the DNA in cellular physiology and development.
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