Abstract: Aspects of the invention relates to methods and compositions that are useful to reduce bias and increase the reproducibility of multiplex analysis of genetic loci. In some configurations, predetermined preparative steps and/or nucleic acid sequence analysis techniques are used in multiplex analyses for a plurality of genetic loci in a plurality of samples.
Abstract: The invention generally relates to methods of performing a capture reaction. In certain embodiments, the method involves obtaining a nucleic acid, fragmenting the nucleic acid, and capturing a target sequence on the nucleic acid fragment using a capture moiety, such as a molecular inversion probe.
Type:
Grant
Filed:
January 24, 2019
Date of Patent:
June 16, 2020
Assignee:
Molecular Loop Biosolutions, LLC
Inventors:
Mark Umbarger, Gregory Porreca, Charles Towne, George Church
Abstract: The invention relates to assembly of sequence reads. The invention provides a method for identifying a mutation in a nucleic acid involving sequencing nucleic acid to generate a plurality of sequence reads. Reads are assembled to form a contig, which is aligned to a reference. Individual reads are aligned to the contig. Mutations are identified based on the alignments to the reference and to the contig.
Abstract: The invention generally relates to methods of performing a capture reaction. In certain embodiments, the method involves obtaining a nucleic acid, fragmenting the nucleic acid, and capturing a target sequence on the nucleic acid fragment using a capture moiety, such as a molecular inversion probe.
Type:
Grant
Filed:
April 17, 2012
Date of Patent:
March 12, 2019
Assignee:
Molecular Loop Biosolutions, LLC
Inventors:
Mark Umbarger, Gregory Porreca, Charles Towne, George Church
Abstract: The invention generally relates to methods for analyzing nucleic acids. In certain aspects, methods of the invention involve obtaining a sample including a nucleic acid template. A plurality of molecular inversion probes are tiled across a portion of the template. The probes are designed such that immediately adjacent probes hybridize to opposite strands of the nucleic acid template and probes on the same strand hybridize to the template in an overlapping manner. A region between targeting arms of a plurality of the molecular inversion probes is filled-in with nucleotides, and the filled-in region of a plurality of the probes is analyzed to obtain sequence information about the nucleic acid template.