A method for determining the integrity of the genome of a sample and/or the quality of a library of DNA sequences obtained by deterministic restriction site whole genome amplification can include (a) amplifying the library of DNA sequences to produce first, second, and third PCR products each of a different size from 50 bp to 1000 bp, by PCR using at least one first primer pair, one second primer pair and one third primer pair, the primer pairs each hybridizing to a DNA sequence of the library having a length from 1000 bp to 5000 bp and corresponding to a sequence of the genome located respectively on a first, second and third chromosome arm; (b) detecting the first, second and third PCR products; (c) correlating the presence of the first, second and third PCR products with the integrity of the genome of the sample and/or the quality of the library.

This disclosure describes a method of purifying several full-length oligonucleotide targets from corresponding synthesis truncation products, in a way that ensures roughly stoichiometric equality among the targets.

This disclosure describes a method of purifying several full-length oligonucleotide targets from corresponding synthesis truncation products, in a way that ensures roughly stoichiometric equality among the targets.

A method for determining the integrity of the genome of a sample and/or the quality of a library of DNA sequences obtained by deterministic restriction site whole genome amplification can include (a) amplifying the library of DNA sequences to produce first, second, and third PCR products each of a different size from 50 bp to 1000 bp, by PCR using at least one first primer pair, one second primer pair and one third primer pair, the primer pairs each hybridizing to a DNA sequence of the library having a length from 1000 bp to 5000 bp and corresponding to a sequence of the genome located respectively on a first, second and third chromosome arm; (b) detecting the first, second and third PCR products; (c) correlating the presence of the first, second and third PCR products with the integrity of the genome of the sample and/or the quality of the library.

A method for determining the integrity of the genome of a sample and/or the quality of a library of DNA sequences obtained by deterministic restriction site whole genome amplification can include (a) amplifying the library of DNA sequences to produce first, second, and third PCR products each of a different size from 50 bp to 1000 bp, by PCR using at least one first primer pair, one second primer pair and one third primer pair, the primer pairs each hybridizing to a DNA sequence of the library having a length from 1000 bp to 5000 bp and corresponding to a sequence of the genome located respectively on a first, second and third chromosome arm; (b) detecting the first, second and third PCR products; (c) correlating the presence of the first, second and third PCR products with the integrity of the genome of the sample and/or the quality of the library.

Methods for selecting tag-oligonucleotide sequences for use in an in vitro nucleic acid assay. The selected tag sequences are useful for nucleic acid assay wherein interference between the nucleic acid sequences is the assay is to be controlled. Selected tag sequences are incorporated into nucleic acid assay to improve the performance of and/or minimize any interference between nucleic acids in the assay compared to untagged assays.

The disclosed methods and kits are useful in processing and analyzing a multiplicity of samples in molecular biology workflows where there is an increased chance for sample cross-contamination or misidentification. Some embodiments of the methods and kits utilize at least one spike in control and at least one barcode per sample.

The disclosed methods and kits are useful in processing and analyzing a multiplicity of samples in molecular biology workflows where there is an increased chance for sample cross-contamination or misidentification. Some embodiments of the methods and kits utilize at least one spike in control and at least one barcode per sample.

The present invention provides a process and method for repurposing existing compounds by leveraging genomic, phenotypic and pharmacological data to cure disease. Applying advanced mathematical analytics using massively interconnected computing capabilities to identify target rich sets of existing compounds available for animal testing at the earliest stage in the process collapses cycle time of development, dramatically reducing costs. Target rich sets obtained through this invention produce compounds or compositions which each have a demonstrated ability to modulate disease or an associated phenotypic expression. By rendering the mechanism of action irrelevant, this invention collapses the time and cost to discovery of an efficacious drug from decades to days and from $Billions to $Millions.

The present invention provides a process and method for preventing and/or treating protein based diseases, including, but not limited to: Alzheimer's and other amyloid based disease groups. This method recognizes correlative similarities across genomics, phenotypic and pharmacologic analytics and data to identify a list of existing compounds as high probability targets to act as inhibitors and/or stimulants close to a disease of interest. Pertinent genetic or epigenetic variances, or protein expression anomalies, are used to assemble a list of existing compounds through the use of artificial intelligence, machine learning and algorithmic relationships. This invention applies current genomic, phenotypic and pharmacological data to leverage data previously obtained in pursuit of other disease treatments. Accordingly, the current invention collapses cycle time to discovery and dramatically reduces costs. Through this system of active compounds created from tenuous relationships exhibits an elevated probability of success. Using a selection of algorithms that coordinate relationships including, but not limited to: genomic, epigenomic, phenotypic, protein dysregulation, cultural, pharmacological, etc., data, the present invention collapses cycle time of development and dramatically reduces costs by accessing data on target rich groups of previously tested abstractly related compounds.