Abstract: The present invention provides novel compositions and methods for targeted delivery of therapeutics. In particular, the invention provides compositions comprising a plurality of carriers, such as microbubbles, wherein at least one active agent is associated or co-administered with the plurality of carriers for delivery to a target site, e.g., an organ, a tissue, or a tumor site, in a subject. The present invention also provides methods for treating a disease or condition, methods of targeted delivery of an active agent, e.g., to a target site, in a subject, using the carriers based compositions of the invention. The present invention further provides apparatus, devices and methods for preparing the compositions of the present invention.

Abstract: The present invention relates to a system for flushing a medical device, comprising a multi-port valve for controlling the delivery of flushing fluids, the multi-port valve connected to a source of pressurised flushing gas; a fluid outlet for coupling flushing fluids to the medical device; and, a gas-driven pump connected to the fluid outlet, wherein, in a first configuration, the multi-port valve couples a flow of gas from the source of pressurised flushing gas to the fluid outlet, and wherein, in a second configuration, the multi-port valve couples a flow of gas from the source of pressurised flushing gas to the gas-driven pump to drive the gas-driven pump thereby to provide a flow of flushing liquid to the fluid outlet.

Abstract: Embodiments of the present disclosure are related to multivesicular liposome formulations encapsulating zinc meloxicam complex microparticles. Methods of making the zinc meloxicam complex microparticles and administering the zinc meloxicam complex microparticles encapsulated in multivesicular liposome formulations and their use as medicaments are also provided.

Abstract: Embodiments of the present disclosure are related to multivesicular liposome formulations encapsulating zinc meloxicam complex microparticles. Methods of making the zinc meloxicam complex microparticles and administering the zinc meloxicam complex microparticles encapsulated in multivesicular liposome formulations and their use as medicaments are also provided.

Abstract: Embodiments of the present disclosure are related to multivesicular liposome formulations encapsulating zinc meloxicam complex microparticles. Methods of making the zinc meloxicam complex microparticles and administering the zinc meloxicam complex microparticles encapsulated in multivesicular liposome formulations and their use as medicaments are also provided.

Abstract: Embodiments of the present disclosure are related to multivesicular liposome formulations encapsulating zinc meloxicam complex microparticles. Methods of making the zinc meloxicam complex microparticles and administering the zinc meloxicam complex microparticles encapsulated in multivesicular liposome formulations and their use as medicaments are also provided.

Abstract: An implant delivery system can be configured to deliver an inflatable implant into a bladder via a urethra. The delivery system can comprise an elongate tubular body, an inflation tube and an implant decoupler. The tubular body can comprise a central lumen configured to hold an inflatable implant in an initial un-inflated state for delivery of the implant into the bladder. A method of use can include passing a distal tip of the elongate tubular body into the bladder. The implant can be inflated and released into the bladder.

Abstract: Embodiments of the present disclosure are related to multivesicular liposome formulations encapsulating zinc meloxicam complex microparticles. Methods of making the zinc meloxicam complex microparticles and administering the zinc meloxicam complex microparticles encapsulated in multivesicular liposome formulations and their use as medicaments are also provided.

Abstract: An implant delivery system can be configured to deliver an inflatable implant into a bladder via a urethra. The delivery system can comprise an elongate tubular body, an inflation tube and an implant decoupler. The tubular body can comprise a central lumen configured to hold an inflatable implant in an initial un-inflated state for delivery of the implant into the bladder. A method of use can include passing a distal tip of the elongate tubular body into the bladder. The implant can be inflated and released into the bladder.

Abstract: A pulmonary delivery medicament comprises a plurality of particulates, the particulates comprising a structural matrix and a water insoluble and/or crystalline active agent. The particulates have a geometric diameter of 0.5 to 50 ?m. The water insoluble active agent can be a fungicide, antibiotic, budesonide. A method of making the medicament comprises forming a liquid feedstock, and forming a feedstock suspension by suspending in the liquid feedstock, the active agent and an excipient capable of forming a structural matrix, such as a phospholipid. The feedstock suspension is spray dried to produce the particulates.

Abstract: An implant for use in a human or animal body can include a flexible housing with an outer wall and having a chamber therein. The implant can have at least one high vapor pressure medium within the chamber. The at least one high vapor pressure medium can have a combined vapor pressure equal to or greater than about the average value of the hydrostatic pressure of the implantation site plus the skin tension of the housing minus the gas tension of the dissolved gasses present at the implantation site.

Abstract: Phospholipid based powders for drug delivery applications are disclosed. The powders comprise a polyvalent cation in an amount effective to increase the gel-to-liquid crystal transition temperature of the particle compared to particles without the polyvalent cation. The powders are hollow and porous and are preferably administered via inhalation.

Abstract: A microparticle for drug delivery comprises an active agent and an excipient, the excipient comprising a metal ion-lipid complex. The metal ion is chosen from the group consisting of lanthanide metals, actinide metals, group IIa and IIIb metals, transition metals or mixtures thereof. The lipid comprises a phospholipid. The complex results in a glass transition temperature increase of the microparticle.

Abstract: A microparticle for drug delivery comprises an active agent and an excipient, the excipient comprising a metal ion-lipid complex. The metal ion is chosen from the group consisting of lanthanide metals, actinide metals, group IIa and IIIb metals, transition metals or mixtures thereof. The lipid comprises a phospholipid. The complex results in a glass transition temperature increase of the microparticle.

Abstract: Phospholipid based powders for drug delivery applications are disclosed. The powders comprise a polyvalent cation in an amount effective to increase the gel-to-liquid crystal transition temperature of the particle compared to particles without the polyvalent cation. The powders are hollow and porous and are preferably administered via inhalation.

Abstract: Phospholipid based powders for drug delivery applications are disclosed. The powders may include a polyvalent cation in an amount effective to increase the gel-to-liquid crystal transition temperature of the particle compared to particles without the polyvalent cation. The powders are hollow and porous and are preferably administered via inhalation.

Abstract: An implant delivery system can be configured to deliver an inflatable implant into a bladder via a urethra. The delivery system can comprise an elongate tubular body, an inflation tube and an implant decoupler. The tubular body can comprise a central lumen configured to hold an inflatable implant in an initial un-inflated state for delivery of the implant into the bladder. A method of use can include passing a distal tip of the elongate tubular body into the bladder. The implant can be inflated and released into the bladder.

Abstract: An implant for use in a human or animal body can include a flexible housing with an outer wall and having a chamber therein. The implant can have at least one high vapor pressure medium within the chamber. The at one high vapor pressure medium can have a combined vapor pressure equal to or greater than about the average value of the hydrostatic pressure of the implantation site plus the skin tension of the housing minus the gas tension of the dissolved gasses present at the implantation site.

Abstract: A microparticle for drug delivery comprises an active agent and an excipient, the excipient comprising a metal ion-lipid complex. The metal ion is chosen from the group consisting of lanthanide metals, actinide metals, group IIa and IIIb metals, transition metals or mixtures thereof. The lipid comprises a phospholipid. The complex results in a glass transition temperature increase of the microparticle.

Abstract: Microparticle compositions comprising metal ion-lipid complexes for drug delivery are described including methods of making the microparticle compositions and methods of treating certain conditions and disease states by administering the microparticle compositions. The metal ion-lipid complexes can be combined with various drugs or active agents for therapeutic administration. The microparticle compositions of the present invention have superior stability to other microparticle compositions resulting in a microparticle composition with longer shelf life and improved dispersability. The microparticle compositions of the present invention have a transition temperature (Tg) of at least 20° C. above the recommended storage temperature (Tst) for drug delivery.