Mohamed A Jama, N Scott Reading, Eric Fredrickson, Sherin Shaaban, Yuan Ji
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A Single Multiplex PCR and Single-Nucleotide Extension Assay for the Detection of Common Thanatophoric Dysplasia I and II Mutations.
Mutation analysis provides confirmation of a clinical and radiological diagnosis of thanatophoric dysplasia types I and II (TD I and II). We developed a single multiplexed PCR and a single-nucleotide extension (SNE) assay to identify 14 common mutations causing 99% of TD I and TD II, including the challenging three adjacent mutations in the stop codon of exon 18 of the FGFR3 gene. The assay design also provides a solution for resolving SNE PCR product sizing using performance optimized polymer-7. The assay was validated using 37 previously characterized, de-identified patient samples representing the nine wild-types and 10 of 14 mutant genotypes. Four artificial templates were synthesized to mimic four TD I mutations not represented in the available patient samples. Fragment size and fluorophore channel for each SNE product from 10 samples and the four artificial templates were used to define bins and panels for analysis with GeneMarker version 3.0 and GeneMapper version 6.0 software. Allele calls (bin placement within the panels) were verified using the remaining 27 previously characterized samples. This TD I and II PCR and SNE assay is a robust multiplexed assay, streamlined, to identify 14 mutations in one single reaction. This assay has a shorter turnaround time in comparison to traditional Sanger or next-generation sequencing.
期刊介绍:
The Journal of Molecular Diagnostics, the official publication of the Association for Molecular Pathology (AMP), co-owned by the American Society for Investigative Pathology (ASIP), seeks to publish high quality original papers on scientific advances in the translation and validation of molecular discoveries in medicine into the clinical diagnostic setting, and the description and application of technological advances in the field of molecular diagnostic medicine. The editors welcome for review articles that contain: novel discoveries or clinicopathologic correlations including studies in oncology, infectious diseases, inherited diseases, predisposition to disease, clinical informatics, or the description of polymorphisms linked to disease states or normal variations; the application of diagnostic methodologies in clinical trials; or the development of new or improved molecular methods which may be applied to diagnosis or monitoring of disease or disease predisposition.