Patent classifications
C12Q2565/514
Spatial transcriptomics for antigen-receptors
Provided herein are methods, compositions, and kits for the detection of immune cell clonotypes and immune cell analytes within a biological sample.
Spatial transcriptomics for antigen-receptors
Provided herein are methods, compositions, and kits for the detection of immune cell clonotypes and immune cell analytes within a biological sample.
METHODS FOR ANALYZING SPATIAL LOCATION OF NUCLEIC ACIDS
The present disclosure provides, among other things, methods, compositions and kits for analyzing the presence and location of nucleic acids with respect to analytes in a biological sample, for example by hybridization of amplified nucleic acid probes. In some aspects, the present disclosure provides a method of assessing the spatial or geographical distribution of RNA in a biological sample.
Method and system for sampling material from cells
Methods, systems, and devices for sampling/isolating material from cells. An exemplary system may comprise a chip including an electrode array of sampling electrodes arranged along a surface of the chip. A cell-receiving area may be located adjacent the surface of the chip. The system also may comprise a tag array of tags supported by the chip and aligned with the electrode array. Each tag of the tag array may include an identifier that is unique to the tag within the tag array. Each tag may be configured to bind nucleic acids, or a capturing agent distinct from the tag may be aligned with each sampling electrode of the electrode array to capture a protein or other analyte of interest. The system further may comprise a control circuit configured to apply an individually controllable voltage to each sampling electrode of the electrode array and measure an electrical property of the sampling electrode.
Method and system for sampling material from cells
Methods, systems, and devices for sampling/isolating material from cells. An exemplary system may comprise a chip including an electrode array of sampling electrodes arranged along a surface of the chip. A cell-receiving area may be located adjacent the surface of the chip. The system also may comprise a tag array of tags supported by the chip and aligned with the electrode array. Each tag of the tag array may include an identifier that is unique to the tag within the tag array. Each tag may be configured to bind nucleic acids, or a capturing agent distinct from the tag may be aligned with each sampling electrode of the electrode array to capture a protein or other analyte of interest. The system further may comprise a control circuit configured to apply an individually controllable voltage to each sampling electrode of the electrode array and measure an electrical property of the sampling electrode.
Methods and compositions for combinatorial barcoding
The present disclosure provide compositions, methods and kits for generating a set of combinatorial barcodes, and uses thereof for barcoding samples such as single cells or genomic DNA fragments. Some embodiments disclosed herein provide compositions comprising a set of component barcodes for producing a set of combinatorial barcodes. The set of component barcodes can comprise, for example, n×m unique component barcodes, wherein n and m are integers, each of the component barcodes comprises: one of n unique barcode subunit sequences; and one or two linker sequences or the complements thereof, wherein the component barcodes are configured to connect to each other through the one or two linker sequences or the complements thereof to produce a set of combinatorial barcodes.
Methods and compositions for combinatorial barcoding
The present disclosure provide compositions, methods and kits for generating a set of combinatorial barcodes, and uses thereof for barcoding samples such as single cells or genomic DNA fragments. Some embodiments disclosed herein provide compositions comprising a set of component barcodes for producing a set of combinatorial barcodes. The set of component barcodes can comprise, for example, n×m unique component barcodes, wherein n and m are integers, each of the component barcodes comprises: one of n unique barcode subunit sequences; and one or two linker sequences or the complements thereof, wherein the component barcodes are configured to connect to each other through the one or two linker sequences or the complements thereof to produce a set of combinatorial barcodes.
Use of transposase and Y adapters to fragment and tag DNA
Described herein is an adapter comprising a population of first oligonucleotides, a second oligonucleotide and a third oligonucleotide, wherein the first oligonucleotides, the second oligonucleotide and the third oligonucleotide are hybridized together to produce a complex that comprises: (i) a first end comprising a transposase recognition sequence, (ii) a central single-stranded region of variable sequence and (iii) a second end comprising sequences that are non-complementary. A method, as well as a kit for practicing the method, are also provided.
Use of transposase and Y adapters to fragment and tag DNA
Described herein is an adapter comprising a population of first oligonucleotides, a second oligonucleotide and a third oligonucleotide, wherein the first oligonucleotides, the second oligonucleotide and the third oligonucleotide are hybridized together to produce a complex that comprises: (i) a first end comprising a transposase recognition sequence, (ii) a central single-stranded region of variable sequence and (iii) a second end comprising sequences that are non-complementary. A method, as well as a kit for practicing the method, are also provided.
Barcoded solid supports and methods of making and using same
Aspects of the present disclosure include methods of making barcoded solid supports. In some embodiments, the methods include producing a concatemer by rolling circle amplification (RCA) of a circular nucleic acid template, where the circular nucleic acid template includes a barcode and a stem-loop forming region, and where the concatemer includes a plurality of linked units, each unit including the barcode and a stem-loop structure formed from the stem-loop forming region. Such methods further include disposing the concatemer on a solid support to produce a barcoded solid support including a plurality of the stem-loop structures extending from the surface of the solid support. The methods may further include treating the stem-loop structures with an agent that produces stem structures having ends compatible with target nucleic acids, and attaching the target nucleic acids to the stem structures. Barcoded solid supports and methods of using the barcoded solid supports are also provided.