Abstract: Methods of double-stranded nucleic acid sequence determination and assembly that are able to identify insertions, deletions, repeat region sizes and genomic rearrangements, for example, are disclosed herein, which can use relatively large labeled nucleic acid fragments to analyze the structure of even larger genetic regions. In some embodiments these methods involve the use of certain parameters which unexpectedly improve overall method performance. In some embodiments these methods involve sample labeling that does not result in the formation of single-stranded nucleic acid fragment labeling intermediaries.

Abstract: Methods of double-stranded nucleic acid sequence determination and assembly that are able to identify insertions, deletions, repeat region sizes and genomic rearrangements, for example, are disclosed herein, which can use relatively large labeled nucleic acid fragments to analyze the structure of even larger genetic regions. In some embodiments these methods involve the use of certain parameters which unexpectedly improve overall method performance. In some embodiments these methods involve sample labeling that does not result in the formation of single-stranded nucleic acid fragment labeling intermediaries.

Abstract: Methods and compositions for processing polynucleotides are provided according to some embodiments herein. In some embodiments, a sample is immobilized in a porous matrix, and non-polynucleotides are removed from the sample. In some embodiments, polynucleotides are labeled or enzymatically modified the matrix. In some embodiments, labeled or enzymatically modified polynucleotides are removed from the matrix for analysis.

Abstract: Methods of double-stranded nucleic acid sequence determination and assembly that are able to identify insertions, deletions, repeat region sizes and genomic rearrangements, for example, are disclosed herein, which can use relatively large labeled nucleic acid fragments to analyze the structure of even larger genetic regions. In some embodiments these methods involve the use of certain parameters which unexpectedly improve overall method performance. In some embodiments these methods involve sample labeling that does not result in the formation of single-stranded nucleic acid fragment labeling intermediaries.

Abstract: Methods are provided for detecting and quantitating molecules using fluidics. In preferred embodiments, the methods comprise analyzing blood to detect the presence of circulating DNA or cells from a fetus or tumor.

Abstract: Disclosed herein are methods for isolation of long DNA molecules, for example megabase-sized genomic DNA molecules, from a biological sample, for example plant and animal tissues.

Abstract: Methods for single-molecule preparation and analysis are disclosed herein. The methods can, for example, be used for isolating and analyzing DNA from various biological samples.

Abstract: Methods for single-molecule preparation and analysis are disclosed herein. The methods can, for example, be used for isolating and analyzing DNA from various biological samples.

Abstract: The present disclosure provides methods, reagents and kits for the detection of all known human variants of influenza A virus and at least 90% of avian and swine variants of influenza A virus in a biological sample, based on amplification primers and detection probes that are specific to a highly conserved region of the influenza A matrix gene.

Abstract: The invention describes a method for the isolation of components from samples, particularly large molecular weight DNA from biological samples. The method involves the application of controlled oscillatory mechanical energy to the sample for short periods of time of about 5 to 60 seconds to lyse the sample and release the component(s) from the sample, followed by standard isolation methods. In preferred embodiments, the method includes the use of a spherical particle for applying the mechanical energy.

Abstract: The invention describes a method for the isolation of components from samples, particularly large molecular weight DNA from biological samples. The method involves the application of controlled oscillatory mechanical energy to the sample for short periods of time of about 5 to 60 seconds to lyse the sample and release the component(s) from the sample, followed by standard isolation methods. In preferred embodiments, the method includes the use of a spherical particle for applying the mechanical energy.

Abstract: The invention describes a method for the isolation of components from samples, particularly large molecular weight DNA from biological samples. The method involves the application of controlled oscillatory mechanical energy to the sample for short periods of time of about 5 to 60 seconds to lyse the sample and release the component(s) from the sample, followed by standard isolation methods. In preferred embodiments, the method includes the use of a spherical particle for applying the mechanical energy.

Abstract: The invention describes a method for the isolation of components from samples, particularly large molecular weight DNA from biological samples. The method involves the application of controlled oscillatory mechanical energy to the sample for short periods of time of about 5 to 60 seconds to lyse the sample and release the component(s) from the sample, followed by standard isolation methods. In preferred embodiments, the method includes the use of a spherical particle for applying the mechanical energy.