251 results about "Anticancer treatment" patented technology

The present invention relates to targeted delivery systems for delivering therapeutic agents to tumor. The invention further relates to methods of delivering a therapeutic agent to a tumor for the prevention and treatment of cancer by killing tumor cells and tumor-associated endothelial cells. In particular, the present invention provides a tumor-targeted drug delivery system comprising a NGR-containing molecule linked to a delivery vehicle encapsulating a therapeutic agent, preferably a drug, such as a cytotoxic agent or a chemotherapeutic agent. Specifically, the delivery systems of the present invention are capable of delivering an increased amount of therapeutic agent to a tumor as compared to other delivery systems. In particular, the delivery systems of the present invention are capable of accumulating a higher amount of therapeutic agent in a tumor, or in the vicinity of a tumor cell or tumor-supporting cell, resulting in exposure of the tumor cell and tumor-associated endothelial cell to therapeutic levels of the agent for a longer period of time as compared to other delivery systems. The present invention also describes pharmaceutical compositions comprising the delivery systems of the present invention. The present invention further relates to a tumor treatment comprising an increased amount of therapeutic agent delivered by the system of the present invention as compared to other delivery systems. The delivery systems and pharmaceutical compositions can be administered to a subject, preferably a human, alone or in combination, sequentially or simultaneously, with other prophylactic or therapeutic agents and/or anti-cancer treatments.

The present invention relates to a group of MDM2 and MDMX antagonists, namely, D-peptides, variants thereof, and stapled D-peptides, along with pharmaceutical compositions comprising the antagonists, and methods of treating conditions such as cancer using the antagonists.

A novel nucleic acid construct for down-regulating angiogenesis in a tissue of a subject is provided. The nucleic acid construct includes: (a) a first polynucleotide region encoding a chimeric polypeptide including a ligand binding domain fused to an effector domain of an apoptosis signaling molecule; and (b) a second polynucleotide region encoding a cis acting regulatory element being for directing expression of the chimeric polypeptide in a specific tissue or cell; wherein the ligand binding domain is selected such that it is capable of binding a ligand present in the specific tissue or cell, whereas binding of the ligand to the ligand binding domain activates the effector domain of the apoptosis signaling molecule. Also provided are methods of utilizing this nucleic acid construct for treating diseases characterized by excessive or aberrant neo-vascularization or cell growth.

The invention discloses a method for preparing a meso-porous silicon nano medicine carrier with cell specificity target, reduction responsiveness and triple anticancer treatment effects. The method comprises the following steps: firstly, synthesizing meso-porous silicon nano particles by using a gel dissolution method, subsequently, introducing a disulfide bond onto the surface of a meso-porous silicon nano reservoir by using a chemical modification method, innovatively fixing cytochrome C with an apoptosis-inducing function onto the surface of the meso-porous silicon nano reservoir, blocking meso-porous channels with medicines, finally modifying DNA (Deoxyribose Nucleic Acid) aptamer single chain molecules (AS1411, with a cancer cell apoptosis-inducing function) onto the surface of a meso-porous silicon/cytochrome C nano composite system, and taking the system as specificity ligand of a receptor (nucleolin protein) which is overexpressed on the surface of liver cancer cytomembrane, thereby establishing a multifunctional composite type nano medicine carrier system for achieving triple anticancer treatment under combined action of medicines, blocking substances and target molecules inside meso-pores.

The present invention relates to immune cell-based anti-cancer therapeutics and methods of using the therapeutics in the treatment of cancer.

The invention relates to fusion proteins useful as therapeutics against cancer. The fusion protein comprises of cell-targeting moiety and apoptosis-inducing moiety. Cell-targeting moiety and apoptosis-inducing moiety are linked by a flexible linker, which are specifically recognized by cancer specific protease and cleaved in situ to release the apoptotic domain. In particular, the invention is illustrated by a recombinant fusion protein between human Vasoactive Intestinal Peptide (VIP) and BH3 domain of Bcl2 family protein, linked by a linker that has site for cancer specific proteases. The fusion protein specifically targets VIP receptor over-expressing cancer cells and induces cell-specific apoptosis after cleavage at the linker site by cancer specific proteases. Such fusion proteins are useful for the delivery of therapeutic/apoptotic moiety (peptides) to specific cells with perturbed expression of, but not limited to neuropeptide receptors.

This disclosure relates to microspheres emboli and method of making them. The recoverability of lyophilized microspheres is optimized by adding trehalose prior to lyophilization of the microspheres and vortexing the lyophilized microspheres. The optimization can be useful in maintaining physical properties, shapes, and the drug release level of the microspheres for emboli. Chitosan microspheres can be useful in stably causing emboli in blood vessels, and precisely adjusting the release of a drug, and thus can be used in anticancer treatment.

A method of treating the human body for cancer comprises administering an effective therapeutic amount of a Pegylated Liposomal form of the anthracycline Doxorubicin (“PLD”), in combination with an effective therapeutic amount of ET-743

Methods for assessing stage of cancer in a subject are provided, comprising administering a macrophage imaging agent to the subject, making a magnetic resonance image of regions of the subject's body at cancer risk, and using the image to assess macrophage density and displacement associated with any primary cancer or metastatic cancer in the subject, such density and displacement being indicative of neoplasia. The macrophage imaging agent may be an ultrasmall superparamagnetic iron oxide particle and in particular embodiments, the macrophage imaging agent has a blood half-life sufficient to permit microphage trapping throughout the regions at cancer risk. Additional embodiments provide methods for assessing efficacy of an anticancer treatment in a subject, methods for determining frequency of follow-up MEMRI evaluation in a subject, methods for determining metastatic potential of cancer foci in a subject, and methods for determining prognosis of cancer in a subject. Methods for directing site of biopsy in a subject by performing a whole body MEMRI evaluation of the subject to identify macrophage density at a tumor site of interest and assessing the macrophage density to identify the site of biopsy in the subject, macrophage density being an indicator of tumor growth are also provided, in addition to methods for providing individualized cancer treatment to a subject in need thereof using whole body MEMRI evaluation.

A method of treating the human body for cancer comprises administering an effective therapeutic amount of docetaxel in combination with an effective therapeutic amount of ET-743.

The invention relates to methods of treatment and diagnosis of subjects with cancer. In some aspects, the invention relates to methods of treatment and diagnosis of subjects with cancer, wherein the cancer is characterized by a Notch pathway activation mutation or by resistance to a Notch pathway inhibitor.

The instant application provides methods and related compositions pertaining to the identification of resistance to anticancer treatment in a patient. In a particular embodiment, the invention provides biomarkers for the identification of resistance to anticancer treatment in a lung cancer patient, wherein a reduced expression of a MEDIATOR and/or SW1/SNF complex gene in the lung cancer cells of the patient indicates that the lung cancer cells in the patient may be resistant to treatment with a receptor tyrosine kinase inhibitor, such as gefitinib and/or erlotinib. In some embodiments, the invention relates to methods and related compositions for predicting resistance to anticancer treatment by detecting the expression levels of one or more TGF-beta pathway nucleic acids and/or proteins.

Genetically programmed microorganisms, such as bacteria or virus, pharmaceutical compositions thereof, and methods of modulating and treating cancers are disclosed.

The present invention pertains to the field of cancer therapy using anti-cancer antibodies. The medical use of anti-EGFR antibodies having improved glycosylation characteristics, in particular a reduced fucosylation, is provided which show anti-cancer efficacy and an improved adverse side effect profile.

The present invention relates to treatment of SCLC with therapeutic ADCs comprising a drug attached to an anti-Trop-2 antibody or antigen-binding antibody fragment. Preferably, the drug is SN-38. More preferably, the antibody is an hRS7 antibody and the ADC is sacituzumab govitecan. The ADC may be administered at a dosage of between 4 mg/kg and 16 mg/kg, preferably 4, 6, 8, 9, 10, 12, or 16 mg/kg, mostly preferably 8 to 10 mg/kg. When administered at specified dosages and schedules, the ADC can reduce solid tumors in size, reduce or eliminate metastases and is effective to treat cancers resistant to standard therapies, such as radiation therapy, chemotherapy or immunotherapy. Surprisingly, the ADC is effective to treat cancers that are refractory to or relapsed from irinotecan or topotecan. Preferably, the ADC is administered as a combination therapy with one or more other anti-cancer treatments, such as carboplatin or cisplatinum.

Methods of identifying specific target molecules for design of anti-angiogenic and vascular targeting approaches are disclosed. Transcriptional profiles of tumor endothelial cells were compared with that of normal resting endothelial cells, normal but angiogenically activated placental endothelial cells, and cultured endothelial cells. Although the majority of transcripts were classified as general angiogenesis markers, 17 genes were identified that show specific overexpression in tumor endothelium. Antibody targeting of four cell-surface expressed or secreted products (vimentin, CD59, HMGB1 and IGFBP7) inhibited angiogenesis in vitro and in vivo. Finally, targeting endothelial vimentin in a mouse tumor model significantly inhibited tumor growth and reduced microvessel density. The results demonstrate the utility of the identification and subsequent targeting of specific tumor endothelial markers for anticancer therapy.

The present invention provides a compound having the structure:

or a diastereomer, enantiomer or pharmaceutically acceptable salt of the compound.

The present invention relates to a gene for predicting or diagnosing the prognosis of early-stage breast cancer and to a use thereof, and more specifically relates to a genetic marker for predicting or diagnosing the prognosis of breast cancer, including TRBC1 (T cell receptor beta constant 1), BTN3A2 (butyrophilin, subfamily 3, member A2) or HLA-DPA1 (major histocompatibility complex, class II, DP alpha 1) for providing information necessary for predicting or diagnosing the prognosis of a breast cancer patient. The genetic marker of the present invention allows the prediction or diagnosis of the prognosis of a breast cancer patient, and can therefore advantageously be used for the purpose of providing a direction as to the future course of breast cancer treatment, including a decision on whether anticancer therapy is necessary.