The Liposome Company, Inc.

Other

Janoff, Andrew S.

Estis, Leonard F.

Weiner, Alan L.

Alan L Weiner

Andrew S Janoff

Mircea C Popescu

Paul A Tremblay

Lois E Bolcsak

Marc J Ostro

Carl R Alving

Michael W Fountain

Christine E Swenson

Michael V Bergamini

Sharon S Carpenter-Green

Robert P Lenk

Robert L Suddith

Leonard Estis

Gerald Weissmann

Elaine Chan

Marie S Recine

Lynn D Keyes

James R Seibold

Pieter Rutter Cullis

Joel B Portnoff

John J Kearns

Steven J Weiss

Paul S Tremblay

Lois E Bolscak

Frank G Fielder

Leonard F Estis

A vehicle rotation assembly for selectively rotating a vehicle includes a base that may be positioned on a support surface. A rotation unit is coupled to the base and the rotation selectively rotates on the base. A panel is coupled to the rotation unit such that the panel is selectively rotatable on the base. A vehicle is selectively positioned on the panel thereby facilitating the vehicle to be selectively rotated.

Vehicle rotation assembly

Methods and compositions are described for the treatment of inflammatory diseases including the use of liposomes to deliver non-steroidal anti-inflammatory drugs. Drugs may be encapsulated in the liposomes during their preparation, or alternatively, are combined with the liposomes following their formation. The composition may include glycolipids such as galactolipids including digalactosyl diglyceride, and the liposomes may be made by a number of procedures. The compositions may be administered to mammals including humans.

Methods and compositions using liposome-encapsulated non-steroidal anti-inflammatory drugs

Methods and compositions are described for the preparation of bioactive agents entrapped in lipid vesicles the bilayers of which comprise a salt form of an organic acid derivative of a sterol, such as the tris-salt form of a sterol hemisuccinate, and to bompositions comprising a mixtue of tris(hydroxymethyl)aminomethane salt of cholesteryl hemisuccinate with either an antifungal compound or a peptide. These compositions have various applications in vivo.

Steroidal liposomes

A high integrity liposome comprising at least one stabile lipid and at least one peptide-like therapeutic agent associated with said liposome, adapted for parenteral administration to an animal, including a human, and method according to manufacture and use. Immunizing dosage forms comprising a liposome and an immunogen, wherein said liposome and immunogen are present in an immunization dose. Additionally, a dosage form, including such form particularly adapted to producing an immune response, comprising a salt according to an organic acid derivative of a sterol and an immunogen wherein said organic acid derivative of a sterol and immunogen are present in an immunization dose, and method according to use is disclosed. Further, a dosage form, including such form particularly adapted to producing an immune response, comprising dimyristoylphosphatidylcholine (DMPC)/cholesterol liposomes, optionally in an aluminum hydroxide gel, and an immunogen wherein said DMPC/cholesterol and immunogen are present in an immunization dose, and method according to use.

Potentiation of immune responses with liposomal adjuvants

A high integrity liposome comprising at least one stabile lipid and at least one peptide-like therapeutic agent associated with the liposome, adapted for parenteral administration to an animal, including a human, and method according to manufacture and use. Immunizing dosage forms comprising a liposome and an immunogen, wherein the liposome and immunogen are present in an immunization dose. Additionally, a dosage form, including such form particularly adapted to producing an immune response, comprising a salt according to an organic acid derivative of a sterol and an immunogen are present in an immunization dose, and method according to uses is disclosed. Further, a dosage form, including such form particularly adapted to producing an immune response, comprising dimyristolyphosphatidylcholine (DMPC)/cholesterol liposomes, optionally in an aluminum hydroxide gel, and an immunogen wherein the DMPC/cholesterol and immunogen are present in an immunization dose, and method according to use.

Peptide-containing liposomes, immunogenic liposomes and methods of

A novel oil and water emulsion useful for delivery of a bioactive agent is disclosed. The emulsion comprises a first HLB requirement amount of surfactant dioleoyl phosphatidylethanolamine. In particular embodiments the emulsion includes a secondary surfactant other than dioleoyl phosphatidylethanolamine except in the limiting case wherein the HLB requirement is the HLB value of dioleoyl phosphatidylethanolemine in which case the the HLB requirement amount of a secondary surfactant is 0. By appropriate selection of dioleoyl phosphatidylethanolamine to secondary surfactant ratios, it is possible to prepare emulsions for pharmaceutical delivery of a bioactive agent using an oil phase having a required HLB value up to about 17.4. Above a required HLB value of about 17.4. dioleoyl phosphatidylethanolamine may be used to reduce the amount of secondary surfactant required to form an emulsion.

Emulsions

A pharmaceutical dosage form comprising gelatin encapsulating a pharmaceutical composition wherein said composition is at least about 6% (weight %) ethanol and lipid wherein said lipid comprises at least about 60% (weight %) and a method of protecting gelatin from deterioration is disclosed.

Integrity protected gelatin

This invention encompasses new and substantially improved methods and compositions for delivery of therapeutic agents to specifically chosen body sites. Conjugation of fibronectin to bioactive agents or to lipids or to liposomes which entrap the bioactive agents permits immobilization of the bioactive agent when administered at collagen-, heparin-, hyaluronic acid-, fibrin/fibrinogen-, or ganglioside-rich sites. Covalent conjugation is achieved by two methods: (1) the enzymatically catalyzed cross-linkage of fibronectin to an amine containing compound, and (2) by a modified NHS method which permits formation of peptide bonds between fibronectin and lipid compounds.

Localized delivery using fibronectin conjugates

Methods and compositions are described for the preparation of alpha-tocopherol vesicles, the bilayers of which comprise a salt form of an organic acid derivative of alpha-tocopherol such as the Tris salt form of alpha-tocopherol hemisuccinate. The method is rapid and efficient and does not require the use of organic solvents. The alpha-tocopherol vesicles may be used to entrap compounds which are insoluble in aqueous solutions. Such preparations are especially useful for entrapping bioactive agents of limited solubility, thus enabling administration in vivo.

Entrapment of water-insoluble compound in alpha tocopherol-based vesicles

Methods and compositions are described for the preparation of bioactive agents entrapped in lipid vesicles the bilayers of which comprise a salt form of an organic acid derivative of a sterol, such as the tris-salt form of a sterol hemisuccinate, and to compositions comprising a mixture of tris(hydroxymethyl)aminomethane salt of cholesteryl hemisuccinate with either an antifungal compound or a peptide. These compositions have various applications in vivo.

Sterodial liposomes

Method for preparing alpha-tocopherol vesicles

Methods and compositions are described for the preparation of bioactive agents entrapped in lipid vesicles the bilayers of which comprise a salt form of an organic acid derivative of a sterol, such as the tris-salt form of a sterol hemisuccinate, and to bompositions comprising a mixture of tris(hydroxymethyl)aminomethane salt of cholesteryl hemisuccinate with either an antifungal compound or a peptide. These compositions have various applications in vivo.

Compositions containing tris salt of cholesterol hemisuccinate and

Methods and compositions are described for liquid or gel forms of a lipid excipient to be used in pharmaceutical or cosmetic preparations. The lipid excipient comprises a phospholipid such as a lysophospholipid, for example, mono-oleoyl-phosphatidylethanolamine ('MOPE'). Relatively low concentrations of the lipid can be employed in forming the gel, e.g., about 1-2%. The invention discloses the use of a lipid delivery system at a relatively low lipid concentration as a non-toxic, non-irritating carrier or excipient alone or in combination with other agents, for both drugs and cosmetics. For example, the lipid excipient in sprayable or droppable form has special utility in the non-irritating delivery of peptides (e.g., calcitonin and insulin) to the nasal mucosa, due to the ability of the excipient to enhance absorption across nasal membranes. As a cosmetic, it can be used alone or in combination with biologically active agents.

Lipid excipient for nasal delivery and topical application

A novel oil and water emulsion useful for delivery of a bioactive agent is disclosed. The emulsion comprises a first HLB requirement amount of surfactant dioleoyl phosphatidylethanolamine. In particular embodiments the emulsion includes a secondary surfactant other than dioleoyl phosphatidylethanolamine except in the limiting case wherein the HLB requirement is the HLB value of dioleoyl phosphatidylethanolamine in which case the HLB requirement amount of a secondary surfactant is 0. By appropriate selection of dioleoyl phosphatidylethanolamine to secondary surfactant ratios, it is possible to prepare emulsions for pharmaceutical delivery of a bioactive agent using an oil phase having a required HLB value up to about 17.4. Above a required HLB value of about 17.4. dioleoyl phosphatidylethanolamine may be used to reduce the amount of secondary surfactant required to form an emulsion.

A pharmacological agent-lipid solution preparation comprising a lipophilic pharmacological agent, a desalted charged lipid and an aqueous-miscible lipid solvent such that upon introduction into an aqueous medium a suspension of lipid aggregates associated with the pharmacological agent are formed, and methods of manufacture and use.

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Lawrenceville, NJ, United States of America

Alan L Weiner