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General Method for Plasmid Construction Using Homologous Recombination
Author(s) -
Christopher K. Raymond,
Tracey A. Pownder,
Shan Sexson
Publication year - 1999
Publication title -
biotechniques
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.617
H-Index - 131
eISSN - 1940-9818
pISSN - 0736-6205
DOI - 10.2144/99261rr02
Subject(s) - plasmid , homologous recombination , biology , saccharomyces cerevisiae , yeast , dna , cloning vector , in vitro recombination , genetics , plasmid preparation , insert (composites) , flp frt recombination , recombinant dna , cloning (programming) , molecular cloning , microbiology and biotechnology , recombination , computational biology , genetic recombination , vector (molecular biology) , gene , complementary dna , computer science , mechanical engineering , programming language , engineering , pbr322
We describe a general method for plasmid assembly that uses yeast and extends beyond yeast-specific research applications. This technology exploits the homologous recombination, double-stranded break repair pathway in Saccharomyces cerevisiae to join DNA fragments. Synthetic, double-stranded "recombination linkers" were used to "subclone" a DNA fragment into a plasmid with > 80% efficiency. Quantitative data on the influence of DNA concentration and overlap length on the efficiency of recombination are presented. Using a simple procedure, plasmids were shuttled from yeast into E. coli for subsequent screening and large-scale plasmid preps. This simple method for plasmid construction has several advantages. (i) It bypasses the need for extensive PCR amplification and for purification, modification and/or ligation techniques routinely used for plasmid constructions. (ii) The method does not rely on available restriction sites, thus fragment and vector DNA can be joined within any DNA sequence. This enables the use of multifunctional cloning vectors for protein expression in mammalian cells, other yeast species, E. coli and other expression systems as discussed. (iii) Finally, the technology exploits yeast strains, plasmids and microbial techniques that are inexpensive and readily available.

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