A particulate, pH-independent, modified release barrier coated drug-cation exchange resin complex comprising a core composed of a drug complexed with a pharmaceutically acceptable ion-exchange resin is provided. Methods of making and products containing this coated complex are described.

A particulate, pH-independent, modified release barrier coated drug-cation exchange resin complex comprising a core composed of a drug complexed with a pharmaceutically acceptable ion-exchange resin is provided. Methods of making and products containing this coated complex are described.

The present invention discloses a method for analysis of drug resistance of tumor cells. The method includes the steps of: (a) providing silicon dioxide nanoparticles, polystyrene-co-polyacrylic acid nanoparticles or metal-organic framework nanoparticles; (b) co-incubating the silicon dioxide nanoparticles, the polystyrene-co-polyacrylic acid nanoparticles or the metal-organic framework nanoparticles with the tumor cells; and (c) detecting endocytosis of the silicon dioxide nanoparticles, the polystyrene-co-polyacrylic acid nanoparticles or the metal-organic framework nanoparticles by the tumor cells. The analysis method of the present invention can analytically identify drug-resistant tumor cells in a clear, intuitive and efficient way. The provided nanoparticles feature simple synthesis processes that take short periods of time, and after they are co-incubated with the tumor cells, a flow cytometer is used for detection. Based on a result of the detection, a degree of drug-resistance of the tumor cells and a proportion of drug-resistant cells therein are determined, making the method simple and efficient.

The present invention provides compositions and methods for targeting cells for therapeutic and/or diagnostic purposes, e.g., delivery of therapeutic and/or diagnostic agents to a cell. Nanoparticles and polymers functionalized with capture molecules, reporter molecules, and/or therapeutic agents are provided for the treatment or prevention of disease, including neurological diseases associated with neuroinflammation, and cancer.

The present invention generally relates to yeast cell wall microparticles loaded with nanoparticles for receptor-targeted nanoparticle delivery. In particular, the present invention relates to trapping nanoparticles either on the surface or inside a yeast glucan particles, for example, yeast glucal particles. The present invention further relates to methods of making the yeast cell wall particles loaded with nanoparticles. The present invention also relates to methods of using the yeast cell wall particles loaded with nanoparticles for receptor-targeted delivery of the nanoparticles, e.g., drug containing nanoparticles.

An ophthalmic formulation that includes nanoparticles. Each nanoparticle includes a shell which encapsulates sulfated non-anticoagulant heparin (SNACH), with or without hydrophobic anti-angiogenesis Tyrosine Kinase inhibitors. The SNACH is ionically or covalently bonded to the shell. The shell includes a polymer selected from the group consisting of poly (lactic-co-glycolic acid) (PLGA), chitosan, chitosan-alginate, and NIPAAM-APMAH-AA, wherein NIPAAM is N-isopropyl acrylamide, APMAH is N-3-aminopropylmethacrylamide hydrochloride, and AA is acrylic acid. A method for treating an eye disease of a subject includes: administering to an eye of the subject a therapeutically effective amount of the ophthalmic formulation for treating the eye disease. The eye disease involves an ocular angiogenesis-mediated disorder.

The field of the disclosure relates generally to cancer cell destruction and, more specifically, to cancer cell destruction by photo-magnetic irradiation mediated multimodal therapy using smart nanostructures.

The present invention relates to an immunostimulatory nanocomplex. The immunostimulatory nanocomplex comprises polyglutamic acid (PGA), a first positively charged substance, a second positively charged substance and a dengue viral protein for holding the dengue viral protein inside. The immunostimulatory nanocomplex is characterized by having a nonuniformally and positively charge distribution along a radial direction thereof. The nonuniformally and positively charge distribution comprises a first electrically charged portion having substantially electrical neutrality, a second electrically charged portion surrounding the first electrically charged portion, and a third electrically charged portion surrounding the second electrically charged portion. The third electrically charged portion has a third volume charge density more than a second volume charge density of the second electrically charged portion, thereby enhancing CD8(+) T-cell response and higher antibody titer after administrating an organism with the immunostimulatory nanocomplex.

A formulation for treating a patient with hepatocellular carcinoma is disclosed. The formulation comprises therapeutic agents in the form of nanoparticles containing one or more proteins or polysaccharides. The therapeutic agent is conjugated to an active targeting agent causing the formulation to preferentially segregate to the hepatocellular carcinoma tissue to release the therapeutic agents. Methods of treating hepatocellular carcinoma using the formulations are also disclosed.

An aqueous liquid suspension containing a coated drug-ion exchange resin complex comprising a core composed of an amphetamine complexed with a pharmaceutically acceptable ion-exchange resin and an uncoated amphetamine-ion exchange resin complex is provided. The coated amphetamine-ion exchange resin complex is in admixture with a polymer to form a matrix. Methods of making the coated complex and the liquid suspension are described.