Abstract: The present disclosure relates to compositions and methods based on polypeptide-tagged nucleotide, and the use of such polypeptide-tagged nucleotides in nanopore devices and methods.

Abstract: This disclosure provides a biochip comprising a plurality of wells. The biochip includes a membrane that is disposed in or adjacent to an individual well of the plurality of wells. The membrane comprises a nanopore, and the individual well comprises an electrode that detects a signal upon ionic flow through the pore in response to a species passing through or adjacent to the nanopore. The electrode can be a non-sacrificial electrode. A lipid bilayer can be formed over the plurality of wells using a bubble.

Abstract: The present disclosure relates to compositions and methods based on polypeptide-tagged nucleotide, and the use of such polypeptide-tagged nucleotides in nanopore devices and methods.

Abstract: This disclosure provides a biochip comprising a plurality of wells. The biochip includes a membrane that is disposed in or adjacent to an individual well of the plurality of wells. The membrane comprises a nanopore, and the individual well comprises an electrode that detects a signal upon ionic flow through the pore in response to a species passing through or adjacent to the nanopore. The electrode can be a non-sacrificial electrode. A lipid bilayer can be formed over the plurality of wells using a bubble.

Abstract: The present disclosure relates to compositions and methods based on polypeptide-tagged nucleotide, and the use of such polypeptide-tagged nucleotides in nanopore devices and methods.

Abstract: This disclosure provides a biochip comprising a plurality of wells. The biochip includes a membrane that is disposed in or adjacent to an individual well of the plurality of wells. The membrane comprises a nanopore, and the individual well comprises an electrode that detects a signal upon ionic flow through the pore in response to a species passing through or adjacent to the nanopore. The electrode can be a non-sacrificial electrode. A lipid bilayer can be formed over the plurality of wells using a bubble.

Abstract: The present disclosure relates to compounds comprising a negatively-charged polymer moiety which is capable of entering a nanopore and upon entering a nanopore in the presence of positive ions results in an increased flow of the positive ions through the nanopore. The present disclosure provides methods of preparing the compounds and for their use as nanopore-detectable tags, in particular, for nanopore-based nucleic acid detection and sequencing.

Abstract: This disclosure provides a biochip comprising a plurality of wells. The biochip includes a membrane that is disposed in or adjacent to an individual well of the plurality of wells. The membrane comprises a nanopore, and the individual well comprises an electrode that detects a signal upon ionic flow through the pore in response to a species passing through or adjacent to the nanopore. The electrode can be a non-sacrificial electrode. A lipid bilayer can be formed over the plurality of wells using a bubble.

Abstract: The present disclosure relates to compounds comprising a negatively-charged polymer moiety which is capable of entering a nanopore and upon entering a nanopore in the presence of positive ions results in an increased flow of the positive ions through the nanopore. The present disclosure provides methods of preparing the compounds and for their use as nanopore-detectable tags, in particular, for nanopore-based nucleic acid detection and sequencing.

Abstract: The present disclosure relates to compositions and methods based on polypeptide-tagged nucleotide, and the use of such polypeptide-tagged nucleotides in nanopore devices and methods.

Abstract: Provided are nanopore-based methods, compositions, and systems for assessing analyte-ligand interactions and analyte concentration in a fluid solution. The compositions include an analyte detection complex that is associated with a nanopore to form a nanopore assembly, the analyte detection complex including an analyte ligand. As a first voltage is applied across the nanopore assembly, the analyte ligand is presented to an analyte in the solution. As a second voltage that is opposite in polarity to the first voltage is applied across the nanopore assembly, the analyte binds to the analyte. By comparing the total number of analyte-ligand binding pairs to a control binding count, the concentration of the analyte can be determined. In other examples, further increasing the second voltage can result in dissociation of the analyte-ligand pair, from which a dissociation voltage—and hence a dissociation constant—can be determined.

Abstract: The present disclosure relates to compounds comprising a negatively-charged polymer moiety which is capable of entering a nanopore and upon entering a nanopore in the presence of positive ions results in an increased flow of the positive ions through the nanopore. The present disclosure provides methods of preparing the compounds and for their use as nanopore-detectable tags, in particular, for nanopore-based nucleic acid detection and sequencing.

Abstract: The present disclosure relates to compounds comprising a negatively-charged polymer moiety which is capable of entering a nanopore and upon entering a nanopore in the presence of positive ions results in an increased flow of the positive ions through the nanopore. The present disclosure provides methods of preparing the compounds and for their use as nanopore-detectable tags, in particular, for nanopore-based nucleic acid detection and sequencing.

Abstract: This disclosure provides a biochip comprising a plurality of wells. The biochip includes a membrane that is disposed in or adjacent to an individual well of the plurality of wells. The membrane comprises a nanopore, and the individual well comprises an electrode that detects a signal upon ionic flow through the pore in response to a species passing through or adjacent to the nanopore. The electrode can be a non-sacrificial electrode. A lipid bilayer can be formed over the plurality of wells using a bubble.

Abstract: A biochip for molecular detection and sensing is disclosed. The biochip includes a substrate. The biochip includes a plurality of discrete sites formed on the substrate having a density of greater than five hundred wells per square millimeter. Each discrete site includes sidewalls disposed on the substrate to form a well. Each discrete site includes an electrode disposed at the bottom of the well. In some embodiments, the wells are formed such that cross-talk between the wells is reduced. In some embodiments, the electrodes disposed at the bottom of the wells are organized into groups of electrodes, wherein each group of electrodes shares a common counter electrode. In some embodiments, the electrode disposed at the bottom of the well has a dedicated counter electrode. In some embodiments, surfaces of the sidewalls are silanized such that the surfaces facilitate the forming of a membrane in or adjacent to the well.

Abstract: This disclosure provides a biochip comprising a plurality of wells. The biochip includes a membrane that is disposed in or adjacent to an individual well of the plurality of wells. The membrane comprises a nanopore, and the individual well comprises an electrode that detects a signal upon ionic flow through the pore in response to a species passing through or adjacent to the nanopore. The electrode can be a non-sacrificial electrode. A lipid bilayer can be formed over the plurality of wells using a bubble.

Abstract: The present disclosure relates to compositions and methods based on polypeptide-tagged nucleotide, and the use of such polypeptide-tagged nucleotides in nanopore devices and methods.

Abstract: The present disclosure relates to compounds comprising a negatively-charged polymer moiety which is capable of entering a nanopore and upon entering a nanopore in the presence of positive ions results in an increased flow of the positive ions through the nanopore. The present disclosure provides methods of preparing the compounds and for their use as nanopore-detectable tags, in particular, for nanopore-based nucleic acid detection and sequencing.

Abstract: This disclosure provides a biochip comprising a plurality of wells. The biochip includes a membrane that is disposed in or adjacent to an individual well of the plurality of wells. The membrane comprises a nanopore, and the individual well comprises an electrode that detects a signal upon ionic flow through the pore in response to a species passing through or adjacent to the nanopore. The electrode can be a non-sacrificial electrode. A lipid bilayer can be formed over the plurality of wells using a bubble.

Abstract: This disclosure provides a biochip comprising a plurality of wells. The biochip includes a membrane that is disposed in or adjacent to an individual well of the plurality of wells. The membrane comprises a nanopore, and the individual well comprises an electrode that detects a signal upon ionic flow through the pore in response to a species passing through or adjacent to the nanopore. The electrode can be a non-sacrificial electrode. A lipid bilayer can be formed over the plurality of wells using a bubble.