C07K17/02

MANUFACTURING METHOD OF NANODISC COMPRISING AN OLFACTORY RECEPTOR PROTEIN AND NANODISC COMPRISING AN OLFACTORY RECEPTOR PROTEIN MANUFACTURED BY THE SAME

The present invention relates to a manufacturing method of a nanodisc comprising an olfactory receptor protein, and a nanodisc comprising an olfactory receptor protein manufactured by the same, and more specifically, a manufacturing method of a nanodisc comprising an olfactory receptor protein using E. coli, and a nanodisc comprising an olfactory receptor protein manufactured by the same.

According to the present invention, nanodiscs (T13NDs) are manufactured by producing receptors used in T13NDs from E. coli, thereby being able to mimic the original receptor structure and can be stable in water and atmospheric environments, and by the same, not only selectivity, accuracy, and reproducibility can be improved, but also it was possible to selectively detect cadaverine, which is known to occur from rotten foods, through the improved performance ability.

Cationic liposomes for cancer immunotherapy

Disclosed are positively-charged, cytotoxic nanoparticle compositions comprising immune modulators (such as the toll-like receptor (TLR)-4 ligand, monophosphoryl lipid (MPL)-A), and Interleukin (IL)-12)), which exhibit enhanced uptake by mammalian cancer cells, and cause increased cancer cell death and/or an increased release of cancer antigens following direct injection to populations of cancer or tumor cells. Also disclosed are nanoparticle-vectored, immunomodulatory compositions that stimulate antigen presenting immune cells and T cells, and support the development of anti-cancer immunity in mammalian hosts. The disclosed cationic liposomes represent an important advance in the area of cancer immunotherapeutics.

Cationic liposomes for cancer immunotherapy

Disclosed are positively-charged, cytotoxic nanoparticle compositions comprising immune modulators (such as the toll-like receptor (TLR)-4 ligand, monophosphoryl lipid (MPL)-A), and Interleukin (IL)-12)), which exhibit enhanced uptake by mammalian cancer cells, and cause increased cancer cell death and/or an increased release of cancer antigens following direct injection to populations of cancer or tumor cells. Also disclosed are nanoparticle-vectored, immunomodulatory compositions that stimulate antigen presenting immune cells and T cells, and support the development of anti-cancer immunity in mammalian hosts. The disclosed cationic liposomes represent an important advance in the area of cancer immunotherapeutics.

Biomolecule-functionalised PVC and production method thereof

The present invention relates to the medical industry. In particular, it is related to a polyvinyl chloride polymer (PVC) functionalized for medical use, which is flexible and compatible with blood. Specifically, this invention is related to a biomolecule-functionalized PVC and its production method, in order to produce a flexible and blood-compatible polymer for medical use.

Multimeric bicyclic peptide ligands

The present invention relates to multimers of polypeptides which are covalently bound to molecular scaffolds such that two or more peptide loops are subtended between attachment points to the scaffold. The invention also describes the multimerization of polypeptides through various chemical linkers and hinges of various lengths and rigidity using different sites of attachments within polypeptides. In particular, the invention describes multimers of peptides which are high affinity binders and activators of CD137. The invention also includes drug conjugates comprising said peptides, conjugated to one or more effector and/or functional groups, to pharmaceutical compositions comprising said peptide ligands and drug conjugates and to the use of said peptide ligands and drug conjugates in preventing, suppressing or treating a disease or disorder mediated by CD137.

Multimeric bicyclic peptide ligands

The present invention relates to multimers of polypeptides which are covalently bound to molecular scaffolds such that two or more peptide loops are subtended between attachment points to the scaffold. The invention also describes the multimerization of polypeptides through various chemical linkers and hinges of various lengths and rigidity using different sites of attachments within polypeptides. In particular, the invention describes multimers of peptides which are high affinity binders and activators of CD137. The invention also includes drug conjugates comprising said peptides, conjugated to one or more effector and/or functional groups, to pharmaceutical compositions comprising said peptide ligands and drug conjugates and to the use of said peptide ligands and drug conjugates in preventing, suppressing or treating a disease or disorder mediated by CD137.

TIM PROTEIN-BOUND CARRIER, METHODS FOR OBTAINING, REMOVING AND DETECTING EXTRACELLULAR MEMBRANE VESICLES AND VIRUSES USING SAID CARRIER, AND KIT INCLUDING SAID CARRIER

The invention provides a carrier and a method for obtaining, removing, or detecting extracellular membrane vesicle or virus present in a sample. In particular, the invention provides (a) a carrier (a Tim carrier) on which a protein (a Tim protein), selected from a T-cell immunoglobulin and mucin domain-containing molecule-4 (a Tim-4) protein, a Tim-3 protein, and a Tim-1 protein, is bound; (b) a method for obtaining the extracellular membrane vesicle or the virus in the sample; (c) a method for removing the extracellular membrane vesicle or the virus in the sample; (d) a method for detecting the extracellular membrane vesicle or the virus in the sample; (e) a kit for capturing the extracellular membrane vesicle or the virus, comprising the Tim carrier; and (f) a kit for capturing the extracellular membrane vesicle or the virus, comprising a reagent containing the Tim protein and a reagent containing the carrier.

TIM PROTEIN-BOUND CARRIER, METHODS FOR OBTAINING, REMOVING AND DETECTING EXTRACELLULAR MEMBRANE VESICLES AND VIRUSES USING SAID CARRIER, AND KIT INCLUDING SAID CARRIER

The invention provides a carrier and a method for obtaining, removing, or detecting extracellular membrane vesicle or virus present in a sample. In particular, the invention provides (a) a carrier (a Tim carrier) on which a protein (a Tim protein), selected from a T-cell immunoglobulin and mucin domain-containing molecule-4 (a Tim-4) protein, a Tim-3 protein, and a Tim-1 protein, is bound; (b) a method for obtaining the extracellular membrane vesicle or the virus in the sample; (c) a method for removing the extracellular membrane vesicle or the virus in the sample; (d) a method for detecting the extracellular membrane vesicle or the virus in the sample; (e) a kit for capturing the extracellular membrane vesicle or the virus, comprising the Tim carrier; and (f) a kit for capturing the extracellular membrane vesicle or the virus, comprising a reagent containing the Tim protein and a reagent containing the carrier.

Modified multispanning membrane polypeptides and methods of use thereof to screen therapeutic agents
10845367 · 2020-11-24 · ·

Disclosed herein are methods, platform, antibodies, vaccines, constructs, and kits for generating a modified multispanning membrane polypeptide. In some instances, also disclosed herein are methods, platform, antibodies, vaccines, constructs, and kits for generating a modified ion channel polypeptide. In some cases, further disclosed herein are methods, platform, antibodies, vaccines, constructs, and kits for generating a modified GPCR.

Modified multispanning membrane polypeptides and methods of use thereof to screen therapeutic agents
10845367 · 2020-11-24 · ·

Disclosed herein are methods, platform, antibodies, vaccines, constructs, and kits for generating a modified multispanning membrane polypeptide. In some instances, also disclosed herein are methods, platform, antibodies, vaccines, constructs, and kits for generating a modified ion channel polypeptide. In some cases, further disclosed herein are methods, platform, antibodies, vaccines, constructs, and kits for generating a modified GPCR.