566 results about "Wilm's tumor" patented technology

Methods for the treatment of lymphoma by administration of a B cell-specific antibody are described. The invention encompasses providing to a patient both unlabeled antibodies and antibodies labeled with a radioisotope. A principal advantage of the method is that tumor responses can be obtained in a radiometric dose range that does not require hematopoietic stem cell replacement as an adjunct therapy also described is a composition useful in the treatment of lymphoma.

This invention provides monoclonal antibody-producing hybridomas designated 27.F7 and 27.B1. The invention also provides methods for detecting TIP-2 antigen-bearing cancer cells in a sample, detecting the presence of TIP-2 antigen, optionally on the surface of cancer cells, immunohistochemical screening of a tissue section for the presence of TIP-2 antigen bearing cancer cells, diagnosing cancer in a subject, monitoring progression of cancer wherein the cancer cells are TIP-2 antigen-bearing cells, delivering exogenous material to TIP-2 antigen-bearing cancer cells of a human subject, and treating cancer in a human subject. This invention further provides a kit for detecting the presence of TIP-2 antigen-bearing cancer cells. This invention also provides isolated peptides having the amino acid sequences Lys Leu Leu Gly Gly Gln Ile Gly Leu (SEQ ID No:3) and Ser Leu Leu Gly Cys Arg His Tyr Glu Val (SEQ ID NO:4).

The present invention relates to immunotherapeutic methods, and molecules and cells for use in immunotherapeutic methods. In particular, the present invention relates to the immunotherapy of cancer. The present invention furthermore relates to tumour-associated T-helper cell peptide epitopes, alone or in combination with other tumour-associated peptides, that serve as active pharmaceutical ingredients of vaccine compositions which stimulate anti-tumour immune responses. In particular, the present invention relates to two novel peptide sequences derived from HLA class II molecules of human tumour cell lines, which can be used in vaccine compositions for eliciting anti-tumour immune responses.

The subject disclosure presents systems and computer-implemented methods for providing reliable risk stratification for early-stage cancer patients by predicting a recurrence risk of the patient and to categorize the patient into a high or low risk group. A series of slides depicting serial sections of cancerous tissue are automatically analyzed by a digital pathology system, a score for the sections is calculated, and a Cox proportional hazards regression model is used to stratify the patient into a low or high risk group. The Cox proportional hazards regression model may be used to determine a whole-slide scoring algorithm based on training data comprising survival data for a plurality of patients and their respective tissue sections. The coefficients may differ based on different types of image analysis operations applied to either whole-tumor regions or specified regions within a slide.

This invention relates to the staging, diagnosis and treatment of cancerous diseases (both primary tumors and tumor metastases), particularly to the mediation of cytotoxicity of tumor cells; and most particularly to the use of cancerous disease modifying antibodies (CDMAB), optionally in combination with one or more CDMAB/chemotherapeutic agents, as a means for initiating the cytotoxic response. The invention further relates to binding assays, which utilize the CDMAB of the instant invention. The anti-cancer antibodies can be conjugated to toxins, enzymes, radioactive compounds, cytokines, interferons, target or reporter moieties and hematogenous cells.

The present invention relates to compositions and methods for the treatment of tumor and/or malignant and/or cancerous cells. The present invention provides VSV vectors comprising nucleic acid encoding a cytokine, such as interleukin or interferon, or a suicide gene, such as thymidine kinase, or other biological protein, such as heat shock protein gp96, or endostatin or angiostatin, wherein said VSV vectors exhibit greater oncolytic activity against the tumor and/or malignant and/or cancerous cell than a wild-type VSV vector. The present invention also provides methods of making such vectors, host cells, expression systems, and compositions comprising such VSV vectors, and viral particles comprising such VSV vectors. The present invention also provides methods for producing oncolytic activity in a tumor and/or malignant and/or cancerous cell comprising contacting said cell with a VSV vector of the present invention. The present invention also provides methods for suppressing tumor growth comprising contacting said tumor with a VSV vector of the present invention. The present invention also provides methods for eliciting an immune response to a tumor cell in an individual.

The invention provides a method for more effective treatment of patients susceptible to or diagnosed with tumors overexpressing ErbB, as determined by a gene amplification assay, with an ErbB antagonist. Such method comprises administering a cancer-treating dose of the ErbB antagonist, preferably in addition to chemotherapeutic agents, to a subject in whose tumor cells ErbB has been found to be amplified e.g., by fluorescent in situ hybridization. ErbB antagonists described include an anti-HER2 antibody. Pharmaceutical packaging for providing the components for such treatment is also provided.

Provided are methods of generating an immune response to an antigen specifically associated with tumor vascular endothelial cells (TVECA). The method comprises administering to an individual an expression vector encoding the TVECA. The vector comprises a transcription unit encoding a secretable fusion protein, the fusion protein containing a TVECA and CD40 ligand. In other methods, administration of a fusion protein containing the TVECA and CD40 ligand is used to enhance the immune response above that obtained by vector administration alone. Further methods comprise the combination therapy using an expression vector encoding a secretable TVECA fusion protein and a tumor antigen vaccine.

The invention discloses an anti-human CLDN18.2 antibody as well as an antigen binding fragment and a medical application thereof. Specifically, the present invention relates to a murine antibody comprising a CDR region of the anti-human CLDN18.2 antibody, a chimeric antibody and a humanized antibody, a fully humanized antibody, an antibody-dependent cytotoxicity (ADCC) comprising the antibody andthe antigen binding fragment thereof, complement dependent cytotoxicity (CDC), the killing effect on CLDN18.2 positive cells, the effect of inhibiting the growth of CLDN18.2 positive tumors, the in-vivo drug effect, a medicine containing the anti-human CLDN18.2 antibody and the antigen binding fragment thereof, a composition of the medicine thereof, and an application of the medicine in tumor treatment, in particular to treatment of CLDN18.2 positive tumor patients..

The present invention features compositions and methods for detecting, selecting a treatment method for, monitoring, and treating a neoplasia associated with a viral infection.

Novel monoclonal antibodies that specifically bind to KAAG1 are described. In some embodiments, the antibodies block the biological activity of KAAG1 and are useful in composition in certain cancers, more particularly in cancers that have increased cell surface expression of KAAG1, such as ovarian, renal, lung, colorectal, breast, brain, and prostate cancer, as well as melanoma. The invention also relates to cells expressing the monoclonal antibodies and antigen binding fragments such as humanized and chimeric antibodies. Additionally, methods of detecting and treating cancer using the antibodies and fragments are also disclosed.

Disclosed are compositions and methods related to rendering ineffective Th1 T cells resistant to the inhibitory cytokine milieu present in a cancer microenvironment. Tumor-specific T cells are modified to employ a chimeric receptor that binds inhibitory/suppressive cytokines and converts their intracellular consequences to a Th1 immunostimulatory/activating signal. The T cells employ a chimeric antigen receptor having exodomains for IL10, IL13 and/or IL4 fused with the signal transducing endodomains for IL2 and/or IL7.