Genome Research · 1996 · 45 citations · 9 references
Life SciencesGeneticsMolecular BiologyGenetic EngineeringMolecular BiotechnologyRecombinant Dna TechnologyMolecular Cloning WorkflowsPlasmid BiologyPlasmid EngineeringPlasmid GeneticsRecombinant Plasmid ConstructionSite-directed MutagenesisBacterial Genome EngineeringBacterial Plasmid ConstructionDirected MutagenesisLarge-insert CloningLarge-insert Dna CloningPlasmid Dna ProductionSequence-selective CleavageSequence-specific Dna Cleavage
This study addresses two important technical problems: how to perform targeted alterations such as site-directed mutagenesis and deletions in large fragments of DNA and how to construct full-length genes from two partly overlapping bacterial artificial chromosome (BAC) plasmids. Given the size and the lack of convenient unique restriction sites in these large-insert bacterial clones, these are nontrivial tasks. Here we describe a simple and efficient protocol based on RecA-assisted restriction endonuclease (RARE) cleavage, a method that enables sequence-specific cleavage of genomic DNA. The same protocol has been used with minor modifications to introduce site-specific mutations into an apolipoprotein-B 90-kb P1 clone, to generate deletions in a 160-kb BAC, and to generate a 160-kb BAC containing the complete 92-kb gene for low-density lipoprotein-related protein-1 (LRP-1) from two smaller overlapping BACs ("BAC marriage").
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Kenneth R. Peterson, Q.L. Li, Christopher H. Clegg et al. · Proceedings of the National Academy of Sciences · 1995 · 118 citations