Abstract: The present disclosure relates to nucleic acid probes and kits for determining the length of a region of tandem repeats in a subject's genome and methods of using the DNA probes for determining the length of a region of tandem repeats in a subject's genome. In some embodiments, the region of tandem repeats in telomeres.

Abstract: The present disclosure relates to nucleic acid probes and kits for determining the length of a region of tandem repeats in a subject's genome and methods of using the DNA probes for determining the length of a region of tandem repeats in a subject's genome. In some embodiments, the region of tandem repeats in telomeres.

Abstract: The present disclosure relates to kits for determining the length of a region of tandem repeats in a subject's genome. In some embodiments, the region of tandem repeats in telomeres.

Abstract: The present disclosure relates to kits for determining the length of a region of tandem repeats in a subject's genome. In some embodiments, the region of tandem repeats in telomeres.

Abstract: The present disclosure relates to nucleic acid probes and kits for determining the length of a region of tandem repeats in a subject's genome and methods of using the DNA probes for determining the length of a region of tandem repeats in a subject's genome. In some embodiments, the region of tandem repeats in telomeres.

Abstract: The present disclosure relates to nucleic acid probes and kits for determining the length of a region of tandem repeats in a subject's genome and methods of using the DNA probes for determining the length of a region of tandem repeats in a subject's genome. In some embodiments, the region of tandem repeats in telomeres.

Abstract: Methods, compositions, and kits for nucleic acid detection.

Abstract: The present invention provides methods for generating a distribution of optimal answers to a nondeterministic polynomial optimization problem by providing a plurality of solutions comprising input polynucleotides, wherein each solution comprises identical input polynucleotides; and wherein the number of solutions comprising polynucleotides equals a number of data inputs in the problem to be answered, and wherein each input polynucleotide comprises an x segment and a y segment; providing a plurality of solutions comprising connection polynucleotides wherein each solution comprises identical connection polynucleotides; and wherein the number of solutions comprising connection polynucleotides equals a number of unique connections that can be made between the different data inputs, and wherein each polynucleotide in the set of connection polynucleotides is complementary to the x segment of one input polynucleotide and to the y segment of one different input polynucleotide; combining the solutions comprising the i

Abstract: The present invention provides methods, compositions, and kits for nucleic acid detection.

Abstract: The present invention provides methods and compositions for highly sensitive nucleic acid detection, down to the single nucleic acid molecule level.

Abstract: The present invention provides methods, compositions, and kits for nucleic acid detection.

Abstract: The present invention overcomes problems in prior art DNA-based computing methods for solving non-deterministic polynomial optimization problems, by providing methods that derive the most probable answers in a statistically significant manner that makes the methods scalable with increases in the number of data inputs, and thus makes the methods practical.

Abstract: The present invention provides methods and compositions for highly sensitive nucleic acid detection, down to the single nucleic acid molecule level.

Abstract: A nanoscale motion detector attaches a gold nanorod (30) to the rotating arm (26) of a molecular structure (10) to cause the nanoparticle to rotate. The molecular structure is an F1-ATPase enzyme. The gold nanorod is exposed to a light source. The long axis of the gold nanorod scatters red light when the nanorod is in a first position. The short axis of the gold nanorod scatters green light when the nanorod is in a second position. A polarizing filter filters the red and green light to detect the rotational motion by observing alternating red and green lights. A detection DNA stand (50) is coupled between the gold nanorod and the molecular structure. The detection DNA strand hybridizes with a target DNA strand (58) if the target DNA strand matches the detection DNA strand to form a structural link between the molecular structure and gold nanorod.