Mutation discovery in the mouse using genetically guided array capture and resequencing.
Document Type
Article
Publication Date
2009
Keywords
Amino-Acid-Sequence, Animals, Base-Sequence, DNA-Mutational-Analysis, Mice, Mice-Inbred-C57BL, Mice-Inbred-DBA, Molecular-Sequence-Data, Mutation, Oligonucleotide-Array-Sequence-Analysis, Sequence-Alignment
First Page
424
Last Page
436
JAX Source
Mamm Genome 2009 Jul; 20(7):424-36.
Abstract
Forward genetics (phenotype-driven approaches) remain the primary source for allelic variants in the mouse. Unfortunately, the gap between observable phenotype and causative genotype limits the widespread use of spontaneous and induced mouse mutants. As alternatives to traditional positional cloning and mutation detection approaches, sequence capture and next-generation sequencing technologies can be used to rapidly sequence subsets of the genome. Application of these technologies to mutation detection efforts in the mouse has the potential to significantly reduce the time and resources required for mutation identification by abrogating the need for high-resolution genetic mapping, long-range PCR, and sequencing of individual PCR amplimers. As proof of principle, we used array-based sequence capture and pyrosequencing to sequence an allelic series from the classically defined Kit locus (approximately 200 kb) from each of five noncomplementing Kit mutants (one known allele and four unknown alleles) and have successfully identified and validated a nonsynonymous coding mutation for each allele. These data represent the first documentation and validation that these new technologies can be used to efficiently discover causative mutations. Importantly, these data also provide a specific methodological foundation for the development of large-scale mutation detection efforts in the laboratory mouse.
Recommended Citation
D'Ascenzo M,
Meacham C,
Kitzman J,
Albert TJ,
Czechanski A,
Donahue LR,
Affourtit J,
Jeddeloh JA,
Reinholdt L,
et a.
Mutation discovery in the mouse using genetically guided array capture and resequencing. Mamm Genome 2009 Jul; 20(7):424-36.