The present disclosure provides a system and method for depleting target nucleic acids from a nucleic acid sample. In one aspect, a kit according to the present disclosure includes a plurality of DNA probes. Each of the DNA probes is hybridizable to form a heteroduplex with at least one of a plurality of target RNA transcripts in a nucleic acid sample. The number of unique target RNA transcripts hybridized by the plurality of DNA probes is at least three. The kit further includes an enzyme having RNA-DNA hybrid ribonucleotidohydrolase activity, where degrades at least the RNA portion of the heteroduplex.

The present disclosure provides a system and method for depleting target nucleic acids from a nucleic acid sample. In one aspect, a kit according to the present disclosure includes a plurality of DNA probes. Each of the DNA probes is hybridizable to form a heteroduplex with at least one of a plurality of target RNA transcripts in a nucleic acid sample. The number of unique target RNA transcripts hybridized by the plurality of DNA probes is at least three. The kit further includes an enzyme having RNA-DNA hybrid ribonucleotidohydrolase activity, where degrades at least the RNA portion of the heteroduplex.

A method of using an exchange-induced remnant magnetization (EXIRM) technique for label free detection of short strands of nucleotides and cancer biomarkers, such as DNA and microRNA strands, DNA/RNA-binding biomarkers, and cancer-specific antigens, with high sensitivity, high specificity, and broad dynamic range. The method may provide a label-free approach aimed to facilitate high reliability, and to require a minimum amount of biochemical reagents.

A method of using an exchange-induced remnant magnetization (EXIRM) technique for label free detection of short strands of nucleotides and cancer biomarkers, such as DNA and microRNA strands, DNA/RNA-binding biomarkers, and cancer-specific antigens, with high sensitivity, high specificity, and broad dynamic range. The method may provide a label-free approach aimed to facilitate high reliability, and to require a minimum amount of biochemical reagents.

A method for quantifying individual mature tRNA species, comprising: incubating mature tRNA in a buffer to remove the amino acids from the 3 end; annealing a DNA/RNA stem-loop adapter; ligating the annealed hybrid stem-loop adapter to the mature tRNA; and amplifying and quantifying the ligation product by TaqMan qRT-PCR.

A method for quantifying individual mature tRNA species, comprising: incubating mature tRNA in a buffer to remove the amino acids from the 3 end; annealing a DNA/RNA stem-loop adapter; ligating the annealed hybrid stem-loop adapter to the mature tRNA; and amplifying and quantifying the ligation product by TaqMan qRT-PCR.

The present invention provides, among other things, methods of quantitating mRNA capping efficiency, particularly for mRNA synthesized in vitro. In some embodiments, the methods comprise chromatographic methods of quantifying capping efficiency and methylation status of the caps.

The present invention provides, among other things, methods of quantitating mRNA capping efficiency, particularly for mRNA synthesized in vitro. In some embodiments, the methods comprise chromatographic methods of quantifying capping efficiency and methylation status of the caps.

The present invention provides, among other things, methods of quantitating mRNA capping efficiency, particularly for mRNA synthesized in vitro. In some embodiments, the methods comprise chromatographic methods of quantifying capping efficiency and methylation status of the caps.

The present invention provides, among other things, methods of quantitating mRNA capping efficiency, particularly for mRNA synthesized in vitro. In some embodiments, the methods comprise chromatographic methods of quantifying capping efficiency and methylation status of the caps.