Methods are disclosed for identifying antibacterial compounds which inhibit propagation of selected spectrum bacteria, which bacteria use specific tRNA to code for Ala, Met, Ser, or Leu that other bacteria do not use. In one embodiment, the selected spectrum bacteria use GCA to code for Ala, whereas other bacteria use a different codon to code for alanine. The methods involve determining whether putative inhibitors promote or inhibit complex formation between the tRNA and a bacterial ribosome, or between the tRNA and an aminoacyl synthetase. Compounds which promote or inhibit complex formation can disrupt protein production, which bacteria need to propagate. The identified antibacterial compounds can selectively inhibit bacterial propagation. By limiting their effects to the selected spectrum bacteria, these compounds can treat or prevent specific bacterial infections without disrupting the normal bacterial flora, the patients' microbiome, or causing antibacterial resistance.

Methods are disclosed for identifying antibacterial compounds which inhibit propagation of selected spectrum bacteria, which bacteria use specific tRNA to code for Ala, Met, Ser, or Leu that other bacteria do not use. In one embodiment, the selected spectrum bacteria use GCA to code for Ala, whereas other bacteria use a different codon to code for alanine. The methods involve determining whether putative inhibitors promote or inhibit complex formation between the tRNA and a bacterial ribosome, or between the tRNA and an aminoacyl synthetase. Compounds which promote or inhibit complex formation can disrupt protein production, which bacteria need to propagate. The identified antibacterial compounds can selectively inhibit bacterial propagation. By limiting their effects to the selected spectrum bacteria, these compounds can treat or prevent specific bacterial infections without disrupting the normal bacterial flora, the patients' microbiome, or causing antibacterial resistance.

Embodiments of the invention provides a method for detection of at least one analyte derived from a sample, comprising the steps of: a) depositing the sample on a surface of a solid support; b) transferring at least a portion of the solid support to a receptacle suitable for performing a specific binding assay for one or more analytes of interest; c) optionally washing the portion; d) adding a single specific binding partner for each analyte of interest to the receptacle, the binding partner being labelled with an oligonucleotide sequence; e) mixing the portion with nucleic acid amplification reagents; f) amplifying the oligonucleotide sequence; and g) detecting amplified nucleic acid. The invention also provides a kit for use with the method for detection of at least one analyte derived from a sample.

Embodiments of the invention provides a method for detection of at least one analyte derived from a sample, comprising the steps of: a) depositing the sample on a surface of a solid support; b) transferring at least a portion of the solid support to a receptacle suitable for performing a specific binding assay for one or more analytes of interest; c) optionally washing the portion; d) adding a single specific binding partner for each analyte of interest to the receptacle, the binding partner being labelled with an oligonucleotide sequence; e) mixing the portion with nucleic acid amplification reagents; f) amplifying the oligonucleotide sequence; and g) detecting amplified nucleic acid. The invention also provides a kit for use with the method for detection of at least one analyte derived from a sample.

In a case where the target (30) is not supplied, binding through a nucleic acid sequence from the base end on a side of the solid phase surface of the complementary sequence complementary to a part of the nucleic acid sequence of the detection sequence to the other base end is maintained, which causes fluorescence of the fluorescent molecule (11) to be quenched by the quenching molecule (21) close to the fluorescent molecule (11). In a case where the target (30) is supplied, the target is bound to the detection sequence and the binding through the complementary sequence is released, which causes the fluorescent molecule (11) to separate from the quenching molecule (21) and emit fluorescence.

In a case where the target (30) is not supplied, binding through a nucleic acid sequence from the base end on a side of the solid phase surface of the complementary sequence complementary to a part of the nucleic acid sequence of the detection sequence to the other base end is maintained, which causes fluorescence of the fluorescent molecule (11) to be quenched by the quenching molecule (21) close to the fluorescent molecule (11). In a case where the target (30) is supplied, the target is bound to the detection sequence and the binding through the complementary sequence is released, which causes the fluorescent molecule (11) to separate from the quenching molecule (21) and emit fluorescence.

Provided herein are methods and compositions for spatial analysis of macromolecules (e.g., proteins, polypeptides, or peptides). In some embodiments, the methods are for analyzing a macromolecule or a plurality of macromolecules, (e.g., peptides, polypeptides, and proteins) including determining spatial information and sequencing the macromolecule. In some embodiments, the analysis employs barcoding and/or nucleic acid encoding of molecular recognition events, and/or detectable labels. Also provided are compositions, e.g., kits, containing components for performing the provided methods for analysis of the macromolecule.

Provided herein are methods and compositions for spatial analysis of macromolecules (e.g., proteins, polypeptides, or peptides). In some embodiments, the methods are for analyzing a macromolecule or a plurality of macromolecules, (e.g., peptides, polypeptides, and proteins) including determining spatial information and sequencing the macromolecule. In some embodiments, the analysis employs barcoding and/or nucleic acid encoding of molecular recognition events, and/or detectable labels. Also provided are compositions, e.g., kits, containing components for performing the provided methods for analysis of the macromolecule.

Methods are used for obtaining, cataloguing, and/or storing data derived from a biological source using a flow cell body, electrodes, and an imaging assembly. The data may include DNA and/or RNA obtained from a biological source, such as from the cells of an organism. The methods may be used to obtain, catalog, and/or store data such as DNA or RNA sequence from a pathogen such as a virus and/or a bacteria, human health data over time, and immune system information from an individual. The data obtained using the disclosed methods may be used for a variety of different purposes, including the manufacture of vaccine compositions, and for restoring the immune system of an individual who has undergone an immune system depleting event. The methods may be used for storage of biological cells, which may be used for the screening of compounds, such as small molecules with potential for therapeutic indications.

Methods are used for obtaining, cataloguing, and/or storing data derived from a biological source using a flow cell body, electrodes, and an imaging assembly. The data may include DNA and/or RNA obtained from a biological source, such as from the cells of an organism. The methods may be used to obtain, catalog, and/or store data such as DNA or RNA sequence from a pathogen such as a virus and/or a bacteria, human health data over time, and immune system information from an individual. The data obtained using the disclosed methods may be used for a variety of different purposes, including the manufacture of vaccine compositions, and for restoring the immune system of an individual who has undergone an immune system depleting event. The methods may be used for storage of biological cells, which may be used for the screening of compounds, such as small molecules with potential for therapeutic indications.