54 results about "Targeted immunotherapy" patented technology

The present invention relates to the compositions, methods, and applications of a novel approach to selective cellular targeting. The purpose of this invention is to enable the selective delivery and/or selective activation of effector molecules to target cells for diagnostic or therapeutic purposes. The present invention relates to multi-functional prodrugs or targeting vehicles wherein each functionality is capable of enhancing targeting selectivity, affinity, intracellular transport, activation or detoxification. The present invention also relates to ultra-low dose, multiple target, multiple drug chemotherapy and targeted immunotherapy for cancer treatment.

Provided are novel human tau-specific antibodies as well as fragments, derivatives and variants thereof as well as methods related thereto. Assays, kits, and solid supports related to antibodies specific for tau are also disclosed. The antibody, immunoglobulin chain(s), as well as binding fragments, derivatives and variants thereof can be used in pharmaceutical and diagnostic compositions for tau targeted immunotherapy and diagnosis, respectively.

Compounds for targeted immunotherapy, compositions comprising the compounds and use of the compounds in the treatment of diseases such as cancer are disclosed. The compounds having the structure of formula TM-Ln-AM, wherein TM is a targeting moiety, AM is an activating moiety that is capable of activating a human dendritic cell, NK cell, or tumor cell, or a combination thereof, Ln is a linker, and n is an integer selected from 0 and 1.

Methods and compositions of the invention relate to the enhancement of specific immunotherapies in cancer treatment. In particular, aspects of the invention relate to novel approaches to boost immune function using a complex carbohydrate pharmaceutical compound alone or in combination with other targeted immunotherapy to increase the efficacy of immunotherapy of cancer.

Disclosed are methods for producing fusion proteins with the heterodimeric cytokine, interleukin-12. In order to insure that the proper ratio of fused and non-fused subunits are obtained in the fusion protein, a specific stepwise approach to genetic engineering is used. This consists of first expressing the non-fused p40 IL-12 subunit in a production cell line, followed by or simultaneously expressing in the same cell, a second recombinant fusion protein consisting of the fused polypeptide linked by a peptide bond to the p35 subunit of IL-12. Molecules containing the p35 fusion protein cannot be secreted from the transfected mammalian cell without first complexing in a one to one ratio with the p40 subunit, thus ensuring the production of active heterodimeric fusion proteins.

The present invention relates generally to methods and compositions for targeted immunotherapy. More specifically, the present invention relates to immuno-targeted therapies, using heteromultivalent compounds to mediate the binding of an endogenous effector molecule such as an antibody to target molecules including malignant cells and tissues, bacteria and viruses as well as their toxic agents.

Provided are novel human-derived antibodies specific for Fibroblast Activation Protein (FAP), preferably capable of selectively inhibiting the enzymatic activity of FAP, and chimeric antigen receptors (CARs) directed against the human FAP antigen as well as methods related thereto. In addition, methods of diagnosing and/or monitoring diseases and treatments thereof which are associated with FAP are provided. Assays and kits related to antibodies specific for FAP are also disclosed. The novel anti-FAP antibodies can be used in pharmaceutical and diagnostic compositions for FAP-targeted immunotherapy and diagnostics.

Provided are novel human tau-specific antibodies as well as fragments, derivatives and variants thereof as well as methods related thereto. Assays, kits, and solid supports related to antibodies specific for tau are also disclosed. The antibody, immunoglobulin chain(s), as well as binding fragments, derivatives and variants thereof can be used in pharmaceutical and diagnostic compositions for tau targeted immunotherapy and diagnosis, respectively.

Provided are novel human-derived antibodies specific for transthyretin (TTR), preferably capable of binding misfolded, misassembled, and/or aggregated TTR species, as well as methods related thereto. In addition, methods of diagnosing and/or monitoring diseases and treatments thereof which are associated with TTR amyloidosis are provided. Assays and kits related to anti-bodies specific for TTR or TTR deposits and aggregates are also disclosed. The novel anti-TTR antibodies can be used in pharmaceutical and diagnostic compositions for TTR targeted immunotherapy and diagnostics.

Provided are novel human copper-zinc superoxide dismutase, also known as superoxide dismutase 1 or SOD1, specific antibodies as well as fragments, derivatives and variants thereof as well as methods related thereto. Assays, kits, and solid supports related to antibodies specific for SOD1 are also disclosed. The antibody, immunoglobulin chain(s), as well as binding fragments, derivatives and variants thereof can be used in pharmaceutical and diagnostic compositions for SOD1 targeted immunotherapy and diagnosis, respectively.

The disclosure provides a method for determining if a subject afflicted with cancer is a candidate for Programmed Death Ligand-1 (PD-L1) targeted immunotherapy, which method comprises (a) providing a liquid biopsy sample obtained from the subject afflicted with cancer; (b) detecting CTCs in the liquid biopsy sample; (c) calculating what proportion of CTCs in the liquid biopsy express PD-L1; and (c) identifying the subject as a candidate for PD-L1 targeted immunotherapy based on an assessment that the proportion of the CTCs in the liquid biopsy that express PD-L1 exceeds a pre-determined threshold level.

Provided are novel TDP-43-specific binding molecules including polypeptides such as human antibodies, as well as fragments, derivatives and variants thereof. Also provided are methods related to these TDP-43 specific binding molecules. Assays, kits, and solid supports related to TDP-43-specific binding molecules, including polypeptides such as, human antibodies are also disclosed. The TDP-43-specific binding molecule, antibody, immunoglobulin chain(s), as well as binding fragments, derivatives and variants thereof can be used in pharmaceutical and diagnostic compositions for TDP-43 targeted immunotherapy and diagnosis, respectively.

Provided are anti-human α-synuclein-specific binding molecules, e.g., antibodies or antigen-binding fragments, variants or derivatives thereof, as methods related thereto. Further provided are anti-human α-synuclein binding molecules which bind to specific N-terminal and C-terminal epitopes on human α-synuclein. The binding molecules described herein can be used in pharmaceutical and diagnostic compositions for α-synuclein targeted immunotherapy and diagnosis, respectively.

The present invention provides a HER2 positive tumor targeting compound and a composition thereof, and relates to a compound used for the targeting immunotherapy method, and a composition containing the compound. The present invention further relates to applications of the compound in treatment of HER2-positive tumors/cancers.

Provided are novel human-derived dipeptide repeat (DPR) specific antibodies as well as synthetic variants and biotechnological derivatives thereof, preferably capable of binding C9ORF72 DPRs, as well as methods related thereto. Assays, kits, and solid supports related to antibodies specific for DPRs and DPR proteins such C9ORF72 DPRs are also disclosed. The antibody of the present invention can be used in pharmaceutical and diagnostic compositions for DPR protein-targeted immunotherapy and diagnostics.

The invention relates to a conjugate of virus-like particles (VLP) of oligopeptide vector Q[beta] bacteriophage with target immunotherapy and conservative peptides M2e of human influenza virus M2 protein. The conjugate is mainly used for preventing human influenza A. The conjugate is coupled by a Sulfo-SMCC method which comprises a first step of preparing the virus-like particles (VLP) of the Q[beta] bacteriophage; a second step of preparing the virus-like particles (VLP) activated by Sulfo-SMCC; and a third step of preparing the conjugate of M2e-VLP. The conjugate can produce high titer protective antibody in mice and cross-protect the attack of various subtypes of the influenza A viruses.