Abstract: The disclosure provides methods of reducing the range of representation levels of nucleic acid targets. The methods are particularly useful for multi-target analyses benefiting from a low variance of target representations, such as, e.g., single molecule sequencing and/or heterozygous genotyping, and pathogen diagnosis. Two general methods are provided. In Method 1, starting concentrations of probes are adjusted. In Method 2, target-specific probes are “binned,” i.e., several subsets of probes are selected based on similar representation levels. Thereafter, each subset of corresponding targets is extracted, with or without amplification, using a separate portion of the sample (i.e., separate vessels).

Abstract: The disclosure provides methods of reducing the range of representation levels of nucleic acid targets. The methods are particularly useful for multi-target analyses benefiting from a low variance of target representations, such as, e.g., single molecule sequencing and/or heterozygous genotyping, and pathogen diagnosis. Two general methods are provided. In Method 1, starting concentrations of probes are adjusted. In Method 2, target-specific probes are “binned,” i.e., several subsets of probes are selected based on similar representation levels. Thereafter, each subset of corresponding targets is extracted, with or without amplification, using a separate portion of the sample (i.e., separate vessels).

Abstract: The disclosure provides methods of reducing the range of representation levels of nucleic acid targets. The methods are particularly useful for multi-target analyses benefiting from a low variance of target representations, such as, e.g., single molecule sequencing and/or heterozygous genotyping, and pathogen diagnosis. Two general methods are provided. In Method 1, starting concentrations of probes are adjusted. In Method 2, target-specific probes are “binned,” i.e., several subsets of probes are selected based on similar representation levels. Thereafter, each subset of corresponding targets is extracted, with or without amplification, using a separate portion of the sample (i.e., separate vessels).

Abstract: The disclosure provides methods of capturing target nucleic acids (e.g., gene or gene fragments) onto a solid support for further analysis. The disclosed methods utilize a capture probe that selectively circularizes only the target nucleic acid. Following the circularization of the target, the linear, non-target, nucleic acids are removed from the sample. Next, the circularized target is linearized and bound to a solid support. To allow for linearization, the capture probe may include a cleavage site that can be a noncanonical nucleotide(s) (e.g., uracil in DNA) and/or a rare-cutter site (e.g., the Not I restriction site). In some embodiments, the target nucleic acid is captured onto a support without an intermediate amplification step.