Efficient method for site-directed mutagenesis in large plasmids without subcloning

Commonly used methods for site-directed DNA mutagenesis require copying the entire target plasmid. These methods allow relatively easy modification of DNA sequences in small plasmids but become less efficient and faithful for large plasmids, necessitating full sequence verification. Introduction of...

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Veröffentlicht in:PloS one 2017-06, Vol.12 (6), p.e0177788
Hauptverfasser: Hallak, Louay K, Berger, Kelly, Kaspar, Rita, Kwilas, Anna R, Montanaro, Federica, Peeples, Mark E
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container_start_page e0177788
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creator Hallak, Louay K
Berger, Kelly
Kaspar, Rita
Kwilas, Anna R
Montanaro, Federica
Peeples, Mark E
description Commonly used methods for site-directed DNA mutagenesis require copying the entire target plasmid. These methods allow relatively easy modification of DNA sequences in small plasmids but become less efficient and faithful for large plasmids, necessitating full sequence verification. Introduction of mutations in larger plasmids requires subcloning, a slow and labor-intensive process, especially for multiple mutations. We have developed an efficient DNA mutagenesis technique, UnRestricted Mutagenesis and Cloning (URMAC) that replaces subcloning steps with quick biochemical reactions. URMAC does not suffer from plasmid size constraints and allows simultaneous introduction of multiple mutations. URMAC involves manipulation of only the mutagenesis target site(s), not the entire plasmid being mutagenized, therefore only partial sequence verification is required. Basic URMAC requires two PCR reactions, each followed by a ligation reaction to circularize the product, with an optional third enrichment PCR step followed by a traditional cloning step that requires two restriction sites. Here, we demonstrate URMAC's speed, accuracy, and efficiency through several examples, creating insertions, deletions or substitutions in plasmids ranging from 2.6 kb to 17 kb without subcloning.
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subjects Biochemistry
Biology and Life Sciences
Circularity
Cloning
Cloning, Molecular
Copying
Deoxyribonucleic acid
DNA
DNA, Complementary
Dystrophin - genetics
Efficiency
Enrichment
Gene mutation
Gene sequencing
Genetic engineering
Genetic research
Humans
Labor
Methods
Mutagenesis, Site-Directed
Mutation
Nucleotide sequence
Open Reading Frames
Plasmids
Polymerase Chain Reaction
Properties
Research and Analysis Methods
Respiratory syncytial virus
Site-directed mutagenesis
Testing
title Efficient method for site-directed mutagenesis in large plasmids without subcloning
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