C12Q2563/161

ADOPTIVE CELL THERAPY USING SPHERICAL NUCLEIC ACIDS (SNAS)
20220387585 · 2022-12-08 ·

The disclosure is related to compositions comprising a cell and a spherical nucleic acid (SNA) comprising a nanoparticle, an oligonucleotide on the surface of the nanoparticle, and an antigen; and to methods for production of such compositions and their applications, including but not limited to adoptive cell therapy.

Adoptive cell therapy using spherical nucleic acids (SNAs)

The disclosure is related to compositions comprising a cell and a spherical nucleic acid (SNA) comprising a nanoparticle, an oligonucleotide on the surface of the nanoparticle, and an antigen; and to methods for production of such compositions and their applications, including but not limited to adoptive cell therapy.

Adoptive cell therapy using spherical nucleic acids (SNAs)

The disclosure is related to compositions comprising a cell and a spherical nucleic acid (SNA) comprising a nanoparticle, an oligonucleotide on the surface of the nanoparticle, and an antigen; and to methods for production of such compositions and their applications, including but not limited to adoptive cell therapy.

BARCODE-FREE SINGLE VESICLE MULTIPLEXED PROTEIN AND RNA ANALYSIS

According to various embodiments, a system and method for characterizing protein and nucleic acid content of a plurality of individual particles. The method includes encapsulating individual particles into compartments also containing analyte specific binding complements with oligonucleotide tags comprising a unique molecular identifier sequence, a sequence to identify the analyte specific binding complement, and a homology domain sequence. Allowing the oligonucleotide tags to hybridize on homology domain to form initial tag pairs, amplifying the tag pairs, using an enzyme to cut at the homology domain, allowing tags to re-hybridize, pooling the compartments, and sequencing. Finally, predicting co-encapsulated analytes by computational identification of clusters based on more frequently found oligonucleotide tag pairs.

Nucleic acid extraction from heterogeneous biological materials

Methods for extracting high quality nucleic acids from a heterogenous collection of nucleic acid-containing materials from a biological sample are disclosed. The heterogenous collection of nucleic-acid containing materials may contain cells or microvesicles, or both. The extractions obtained by the methods described herein are characterized by high yield and high integrity, making the extracted nucleic acids useful for various applications in which high quality nucleic acid extractions are preferred, e.g., a diagnosis, prognosis, or therapy evaluation for a medical condition.

Nucleic acid extraction from heterogeneous biological materials

Methods for extracting high quality nucleic acids from a heterogenous collection of nucleic acid-containing materials from a biological sample are disclosed. The heterogenous collection of nucleic-acid containing materials may contain cells or microvesicles, or both. The extractions obtained by the methods described herein are characterized by high yield and high integrity, making the extracted nucleic acids useful for various applications in which high quality nucleic acid extractions are preferred, e.g., a diagnosis, prognosis, or therapy evaluation for a medical condition.

Barcode-free single vesicle multiplexed protein and RNA analysis

According to various embodiments, a system and method for characterizing protein and nucleic acid content of a plurality of individual particles. The method includes encapsulating individual particles into compartments also containing analyte specific binding complements with oligonucleotide tags comprising a unique molecular identifier sequence, a sequence to identify the analyte specific binding complement, and a homology domain sequence. Allowing the oligonucleotide tags to hybridize on homology domain to form initial tag pairs, amplifying the tag pairs, using an enzyme to cut at the homology domain, allowing tags to re-hybridize, pooling the compartments, and sequencing. Finally, predicting co-encapsulated analytes by computational identification of clusters based on more frequently found oligonucleotide tag pairs.

Use of Combinatorial Non-Coding DNA Snippets as Taggants in Consumer Products and Supply Chains
20210238679 · 2021-08-05 ·

A method for tagging items comprising applying a plurality of non-coding DNA tags, wherein the selection of the particular taggants corresponds with a binary or nonbinary code sequence containing information about the tagged items.

Use of Combinatorial Non-Coding DNA Snippets as Taggants in Consumer Products and Supply Chains
20210238679 · 2021-08-05 ·

A method for tagging items comprising applying a plurality of non-coding DNA tags, wherein the selection of the particular taggants corresponds with a binary or nonbinary code sequence containing information about the tagged items.

METHODS FOR ISOLATING MICROVESICLES

The invention provides novel methods for isolating microvesicles from a biological sample and for extracting nucleic acids from the microvesicles.