Abstract: The invention relates to methods of RNA amplification, including methods for the reverse transcription of cDNA from RNA using a thermostable reverse transcriptase. In a particular aspect, the methods are capable of linear amplification of an RNA template through multiple cycles of cDNA synthesis.

Abstract: Described herein are methods, compositions, kits, and uses thereof for analysis of nucleic acid segments comprising a repeating A/T-rich segment, wherein the repeating A/T-rich segment is: (i) a homopolymeric segment comprising at least 10 A residues, at least 10 T residues, or at least 10 U residues, wherein the at least 10 A, T, or U residues are consecutive or interrupted once by one to three other nucleotides; or (ii) a segment comprising (TnA)m, (ATn)m, (TAn)m, or (AnT)m, wherein n is 2 or greater and m is such that the length of the repeating A/T-rich segment is 10 or more residues.

Abstract: The invention relates to methods of RNA amplification, including methods for the reverse transcription of cDNA from RNA using a thermostable reverse transcriptase. In a particular aspect, the methods are capable of linear amplification of an RNA template through multiple cycles of cDNA synthesis.

Abstract: Described herein are methods, compositions, kits, and uses thereof for analysis of nucleic acid segments comprising a repeating A/T-rich segment, wherein the repeating A/T-rich segment is: (i) a homopolymeric segment comprising at least 10 A residues, at least 10 T residues, or at least 10 U residues, wherein the at least 10 A, T, or U residues are consecutive or interrupted once by one to three other nucleotides; or (ii) a segment comprising (TnA)m, (ATn)m, (TAn)m, or (AnT)m, wherein n is 2 or greater and m is such that the length of the repeating A/T-rich segment is 10 or more residues.

Abstract: The present disclosure relates to methods and compositions for nucleic acid library preparation. In certain aspects, the present disclosure relates to methods of making a library of concatenated amplicons from a target nucleic acid. The present disclosure further relates to methods of using the methods and compositions described herein, e.g., in downstream applications such as sequencing (e.g., single-molecule sequencing), gene assembly, and/or structural variation characterization.

Abstract: The invention relates to methods of RNA amplification, including methods for the reverse transcription of cDNA from RNA using a thermostable reverse transcriptase. In a particular aspect, the methods are capable of linear amplification of an RNA template through multiple cycles of cDNA synthesis.

Abstract: Described herein are methods, compositions, kits, and uses thereof for analysis of nucleic acid segments comprising a repeating A/T-rich segment, wherein the repeating A/T-rich segment is: (i) a homopolymeric segment comprising at least 10 A residues, at least 10 T residues, or at least 10 U residues, wherein the at least 10 A, T, or U residues are consecutive or interrupted once by one to three other nucleotides; or (ii) a segment comprising (TnA)m, (ATn)m, (TAn)m, or (AnT)m, wherein n is 2 or greater and m is such that the length of the repeating A/T-rich segment is 10 or more residues.

Abstract: This disclosure relates to methods of determining the presence and position of AGG or interruptor elements within a trinucleotide (for example, CGG) repeat region, and to methods of determining the number of repeats present in this region, by amplifying a set of products with a set of primers of which at least one comprises a portion of the CGG repeat region, and resolving the products to produce a representation of product size and abundance.

Abstract: Methods are provided for determining the methylation status of GC-rich templates. The methods include use of GC reference standards that allow simultaneous characterization of methylation status and CGG repeat length. The methods are useful for detecting genotypes associated with GC-rich repeats, including Fragile X Syndrome.

Abstract: This disclosure relates to methods of determining the presence and position of AGG or interruptor elements within a trinucleotide (for example, CGG) repeat region, and to methods of determining the number of repeats present in this region, by amplifying a set of products with a set of primers of which at least one comprises a portion of the CGG repeat region, and resolving the products to produce a representation of product size and abundance.

Abstract: This disclosure relates to methods of determining the presence and position of AGG or interruptor elements within a trinucleotide (for example, CGG) repeat region, and to methods of determining the number of repeats present in this region, by amplifying a set of products with a set of primers of which at least one comprises a portion of the CGG repeat region, and resolving the products to produce a representation of product size and abundance.

Abstract: The invention relates to methods of separating polynucleotides, such as DNA, RNA and PNA, from solutions containing polynucleotides by reversibly binding the polynucleotides to a solid surface, such as a magnetic microparticle.

Abstract: Methods are provided for increasing the processivity of DNA polymerases on GC-rich templates. The methods relate to providing enhancers and biased ratios of dNTPs, and may be used in DNA amplification reactions. The methods are useful for detecting genotypes associated with GC-rich repeats, including Fragile X Syndrome.

Abstract: Methods are provided for determining the methylation status of GC-rich templates. The methods include use of GC reference standards that allow simultaneous characterization of methylation status and CGG repeat length. The methods are useful for detecting genotypes associated with GC-rich repeats, including Fragile X Syndrome.

Abstract: Improved ball mill disruption techniques. In different embodiments, disrupting particles that are not substantially spherical are used. In other embodiments, roughened disrupting particles are used. In other embodiments, larger disrupting particles are used. In each instance, improved disruption can be achieved.

Abstract: This application describes methods of quantifying a target miRNA in a biological sample by measuring the amounts of a target miRNA and at least one reference oncomir in a reaction volume, and normalizing the amount of target miRNA to the amount of one or more reference oncomirs.

Abstract: This disclosure relates to methods of determining the presence and position of AGG or interruptor elements within a trinucleotide (for example, CGG) repeat region, and to methods of determining the number of repeats present in this region, by amplifying a set of products with a set of primers of which at least one comprises a portion of the CGG repeat region, and resolving the products to produce a representation of product size and abundance.

Abstract: Methods are provided for increasing the processivity of DNA polymerases on GC-rich templates. The methods relate to providing enhancers and biased ratios of dNTPs, and may be used in DNA amplification reactions. The methods are useful for detecting genotypes associated with GC-rich repeats, including Fragile X Syndrome.

Abstract: The present invention relates to a gene that encodes a hyperactive reverse transcriptase having DNA polymerase activity and substantially reduced RNase H activity, vectors containing the gene and host cells transformed with the invention. The present invention also includes a method of producing the hyperactive reverse transcriptase, producing cDNA from mRNA using the reverse transcriptase of the invention, kits and assay templates made using the hyperactive reverse transcriptase.

Abstract: The present invention concerns methods and compositions for identifying a miRNA profile for a particular condition, such as lung cancer, and using the profile in assessing the condition of a patient.