The invention relates to methods of enriching for target nucleic acid molecules, More particularly, the methods of enriching for target nucleic acid molecules comprise binding target nucleic acid molecules in a sample with one or more first target endonucleases that are specific to a first locus of a target region of the target nucleic acid molecules, separating the target nucleic acid molecules from nontarget nucleic acid molecules in the sample, and binding the separated target nucleic acid molecules with one or more second target endonucleases that are specific to a second locus of the target region of the target nucleic acid molecules, and uses thereof.

The invention relates to methods of enriching for target nucleic acid molecules, More particularly, the methods of enriching for target nucleic acid molecules comprise binding target nucleic acid molecules in a sample with one or more first target endonucleases that are specific to a first locus of a target region of the target nucleic acid molecules, separating the target nucleic acid molecules from nontarget nucleic acid molecules in the sample, and binding the separated target nucleic acid molecules with one or more second target endonucleases that are specific to a second locus of the target region of the target nucleic acid molecules, and uses thereof.

The invention is directed to modified oligonucleotide compositions and methods for selectively reducing unwanted nucleic acid contaminants and enriching for desired nucleic acid targets from complex genomic nucleic acid mixtures for sequencing applications. The modified oligonucleotide compositions include one or more modified groups that increase the T.sub.m of the resultant oligonucleotide composition.

The invention is directed to modified oligonucleotide compositions and methods for selectively reducing unwanted nucleic acid contaminants and enriching for desired nucleic acid targets from complex genomic nucleic acid mixtures for sequencing applications. The modified oligonucleotide compositions include one or more modified groups that increase the T.sub.m of the resultant oligonucleotide composition.

Provided herein are systems and methods for detecting genomic structural variants using a non-application gene-editing sample preparation followed by long-read sequencing.

Provided herein are systems and methods for detecting genomic structural variants using a non-application gene-editing sample preparation followed by long-read sequencing.

The present disclosure relates to methods for increasing telomere length in one or more human cells and/or increasing genome stability of one or more human cells, for example by contacting one or more human cells with an agent that increases expression of Zscan4 in the one or more human cells. Methods of treating a subject in need of telomere lengthening, treating a disease or condition associated with a genomic and/or chromosome abnormality, of rejuvenating one or more human cells, of rejuvenating tissues or organs, and of rejuvenating a subject in need thereof, for example by contacting one or more human cells in the subject with an agent that increases expression of Zscan4, or by administering to a subject in need thereof, an agent that increases expression of Zscan4 are also provided.

The present disclosure relates to methods for increasing telomere length in one or more human cells and/or increasing genome stability of one or more human cells, for example by contacting one or more human cells with an agent that increases expression of Zscan4 in the one or more human cells. Methods of treating a subject in need of telomere lengthening, treating a disease or condition associated with a genomic and/or chromosome abnormality, of rejuvenating one or more human cells, of rejuvenating tissues or organs, and of rejuvenating a subject in need thereof, for example by contacting one or more human cells in the subject with an agent that increases expression of Zscan4, or by administering to a subject in need thereof, an agent that increases expression of Zscan4 are also provided.

A method to recover an extracellular vesicle at a high efficiency, including (a) and (b): wherein (a) is mixing (i) an extracellular vesicle-containing sample, (ii) particles on which a substance having an affinity to extracellular vesicle membrane is immobilized, and (iii) a polymer to give a mixture solution containing (i′) target particles bound to the extracellular vesicle via the substance and (ii′) the polymer; and (b) separating the target particles from the mixture solution. The method further includes reducing a viscosity of the mixture solution between (a) and (b). A method for analyzing an extracellular vesicle. A kit having (a) a polymer, (b) a substance having an affinity to the extracellular vesicle membrane, and (c) an enzyme capable of degrading a polymer.

A method to recover an extracellular vesicle at a high efficiency, including (a) and (b): wherein (a) is mixing (i) an extracellular vesicle-containing sample, (ii) particles on which a substance having an affinity to extracellular vesicle membrane is immobilized, and (iii) a polymer to give a mixture solution containing (i′) target particles bound to the extracellular vesicle via the substance and (ii′) the polymer; and (b) separating the target particles from the mixture solution. The method further includes reducing a viscosity of the mixture solution between (a) and (b). A method for analyzing an extracellular vesicle. A kit having (a) a polymer, (b) a substance having an affinity to the extracellular vesicle membrane, and (c) an enzyme capable of degrading a polymer.