Abstract: The present disclosure provides a method of making a site-specific antibody to a target of interest.

Abstract: Disclosed are methods for nucleic acid amplification wherein nucleic acid templates, beads, and amplification reaction solution are emulsified and the nucleic acid templates are amplified to provide clonal copies of the nucleic acid templates attached to the beads. Also disclosed are kits and apparatuses for performing the methods of the invention.

Abstract: The present invention relates to systems and methods for sequencing nucleic acids, including sequencing nucleic acids in fluidic droplets. In one set of embodiments, the method employs sequencing by hybridization using droplets such as microfluidic droplets. In some embodiments, droplets are formed which include a target nucleic acid, a nucleic acid probe, and at least one identification element, such as a fluorescent particle. The nucleic acid probes that hybridize to the target nucleic acid are determined, in some instances, by determining the at least one identification element. The nucleic acid probes that hybridize to the target nucleic acid may be used to determine the sequence of the target nucleic acid. In certain instances, the microfluidic droplets are provided with reagents that modify the nucleic acid probe. In some cases, a droplet, such as those described above, is deformed such that the components of the droplets individually pass a target area.

Abstract: Disclosed are methods for nucleic acid amplification wherein nucleic acid templates, beads, and amplification reaction solution are emulsified and the nucleic acid templates are amplified to provide clonal copies of the nucleic acid templates attached to the beads. Also disclosed are kits and apparatuses for performing the methods of the invention.

Abstract: Disclosed are methods for nucleic acid amplification wherein nucleic acid templates, beads, and amplification reaction solution are emulsified and the nucleic acid templates are amplified to provide clonal copies of the nucleic acid templates attached to the beads. Also disclosed are kits and apparatuses for performing the methods of the invention.

Abstract: A method having steps of (a) providing nucleic acids having a tag sequence (N1)n(N2)n . . . (Nx)n, wherein N1, N2 and Nx are nucleotides that complement different nucleotides, respectively, wherein n is an integer that can differ for N1, N2 and Nx; (b) detecting the nucleic acids individually and under conditions to distinguish signal intensities for (N1)n sequences having different values for n, (N2)n sequences having different values for n and. (Nx)n sequences having different values for n; and (c) distinguishing the tags based on the signal intensities.

Abstract: The present invention relates to systems and methods for sequencing nucleic acids, including sequencing nucleic acids in fluidic droplets. In one set of embodiments, the method employs sequencing by hybridization using droplets such as microfluidic droplets. In some embodiments, droplets are formed which include a target nucleic acid, a nucleic acid probe, and at least one identification element, such as a fluorescent particle. The nucleic acid probes that hybridize to the target nucleic acid are determined, in some instances, by determining the at least one identification element. The nucleic acid probes that hybridize to the target nucleic acid may be used to determine the sequence of the target nucleic acid. In certain instances, the microfluidic droplets are provided with reagents that modify the nucleic acid probe. In some cases, a droplet, such as those described above, is deformed such that the components of the droplets individually pass a target area.

Abstract: The present invention relates to systems and methods for sequencing nucleic acids, including sequencing nucleic acids in fluidic droplets. In one set of embodiments, the method employs sequencing by hybridization using droplets such as microfluidic droplets. In some embodiments, droplets are formed which include a target nucleic acid, a nucleic acid probe, and at least one identification element, such as a fluorescent particle. The nucleic acid probes that hybridize to the target nucleic acid are determined, in some instances, by determining the at least one identification element. The nucleic acid probes that hybridize to the target nucleic acid may be used to determine the sequence of the target nucleic acid. In certain instances, the microfluidic droplets are provided with reagents that modify the nucleic acid probe. In some cases, a droplet, such as those described above, is deformed such that the components of the droplets individually pass a target area.

Abstract: Disclosed are methods for nucleic acid amplification wherein nucleic acid templates, beads, and amplification reaction solution are emulsified and the nucleic acid templates are amplified to provide clonal copies of the nucleic acid templates attached to the beads. Also disclosed are kits and apparatuses for performing the methods of the invention.

Abstract: A method having steps of (a) providing nucleic acids having a tag sequence (N1)n(N2)n . . . (Nx)n, wherein N1, N2 and Nx are nucleotides that complement different nucleotides, respectively, wherein n is an integer that can differ for N1, N2 and Nx; (b) detecting the nucleic acids individually and under conditions to distinguish signal intensities for (N1)n sequences having different values for n, (N2)n sequences having different values for n and. (Nx)n sequences having different values for n; and (c) distinguishing the tags based on the signal intensities.

Abstract: A method having steps of (a) providing nucleic acids having a tag sequence (N1)n(N2)n . . . (Nx)n, wherein N1, N2 and Nx are nucleotides that complement different nucleotides, respectively, wherein n is an integer that can differ for N1, N2 and Nx; (b) detecting the nucleic acids individually and under conditions to distinguish signal intensities for (N1)n sequences having different values for n, (N2)n sequences having different values for n and. (Nx)n sequences having different values for n; and (c) distinguishing the tags based on the signal intensities.

Abstract: Disclosed are methods for nucleic acid amplification wherein nucleic acid templates, beads, and amplification reaction solution are emulsified and the nucleic acid templates are amplified to provide clonal copies of the nucleic acid templates attached to the beads. Also disclosed are kits and apparatuses for performing the methods of the invention.

Abstract: A method having steps of (a) providing nucleic acids having a tag sequence (N1)n(N2)n . . . (Nx)n, wherein N1, N2 and Nx are nucleotides that complement different nucleotides, respectively, wherein n is an integer that can differ for N1, N2 and Nx; (b) detecting the nucleic acids individually and under conditions to distinguish signal intensities for (N1)n sequences having different values for n, (N2)n sequences having different values for n and. (Nx)n sequences having different values for n; and (c) distinguishing the tags based on the signal intensities.

Abstract: An apparatus and method for performing rapid DNA sequencing, such as genomic sequencing, is provided herein. The method includes the steps of preparing a sample DNA for genomic sequencing, amplifying the prepared DNA in a representative manner, and performing multiple sequencing reaction on the amplified DNA with only one primer hybridization step.

Abstract: Disclosed are methods for nucleic acid amplification wherein nucleic acid templates, beads, and amplification reaction solution are emulsified and the nucleic acid templates are amplified to provide clonal copies of the nucleic acid templates attached to the beads. Also disclosed are kits and apparatuses for performing the methods of the invention.

Abstract: Disclosed are methods for nucleic acid amplification wherein nucleic acid templates, beads, and amplification reaction solution are emulsified and the nucleic acid templates are amplified to provide clonal copies of the nucleic acid templates attached to the beads. Also disclosed are kits and apparatuses for performing the methods of the invention.

Abstract: Disclosed are methods for nucleic acid amplification wherein nucleic acid templates, beads, and amplification reaction solution are emulsified and the nucleic acid templates are amplified to provide clonal copies of the nucleic acid templates attached to the beads. Also disclosed are kits and apparatuses for performing the methods of the invention.

Abstract: Disclosed are methods for nucleic acid amplification wherein nucleic acid templates, beads, and amplification reaction solution are emulsified and the nucleic acid templates are amplified to provide clonal copies of the nucleic acid templates attached to the heads. Also disclosed are kits and apparatuses for performing the methods of the invention.

Abstract: This invention provides compositions and methods for assaying the presence of a target analyte in a sample using a solid support. Embodiments of the present invention provide a solid support having a binding protein, such as an antibody, antibody fragment or protein receptor, immobilized to the solid support and at least two separate nucleic acid primers immobilized near the binding protein. This invention also provides a method for tethering two or more polypeptide subunits to generate a multifunctional fusion protein, which can have a primary function, e.g., binding a target analyte, such as a target protein, or an enzymatic activity, and one or more of the subunits of the fusion protein carries out a secondary function, e.g., capture on a solid matrix or quantitation.

Abstract: An apparatus and method for performing rapid DNA sequencing, such as genomic sequencing, is provided herein. The method includes the steps of preparing a sample DNA for genomic sequencing, amplifying the prepared DNA in a representative manner, and performing multiple sequencing reaction on the amplified DNA with only one primer hybridization step.