Abstract: The present disclosure provides a virtual endpoint software system. The virtual endpoint software system may be implemented by a computing system comprising a workstation, processors, and memory. The computing system being configured to instantiate a virtual endpoint software system. The virtual endpoint software system comprises a virtual endpoint tool. The virtual endpoint tool comprises a plurality of virtual endpoint devices wherein each virtual endpoint device is a digital representation of a hardware endpoint device. Each of the plurality of virtual endpoint device is associated with at least one of a plurality of configuration files. In some implementations, each configuration file when executed virtually represents the device functionality and operating conditions of the hardware endpoint device. In addition, the virtual endpoint tool comprises a central engine wherein the central engine comprises at least one processor to process instructions stored in the plurality of configuration files.

Abstract: The present disclosure provides a virtual endpoint software system. The virtual endpoint software system may be implemented by a computing system comprising a workstation, processors, and memory. The computing system being configured to instantiate a virtual endpoint software system. The virtual endpoint software system comprises a virtual endpoint tool. The virtual endpoint tool comprises a plurality of virtual endpoint devices wherein each virtual endpoint device is a digital representation of a hardware endpoint device. Each of the plurality of virtual endpoint device is associated with at least one of a plurality of configuration files. In some implementations, each configuration file when executed virtually represents the device functionality and operating conditions of the hardware endpoint device. In addition, the virtual endpoint tool comprises a central engine wherein the central engine comprises at least one processor to process instructions stored in the plurality of configuration files.

Abstract: A vessel is configured to hold a product in an interior region formed in the vessel. The vessel includes an inner layer arranged to define the interior region and an outer layer. The vessel is formed using a blow-molding process in which a multiple layer parison is blow molded to form the vessel. The multiple layer parison is formed in an extrusion process in which a number of extruders are arranged to co-extrude the multi-layer parison.

Abstract: A vessel is configured to hold a product in an interior region formed in the vessel. The vessel includes an inner layer arranged to define the interior region and an outer layer. The vessel is formed using a blow-molding process in which a multiple layer parison is blow molded to form the vessel. The multiple layer parison is formed in an extrusion process in which a number of extruders are arranged to co-extrude the multi-layer parison.

Abstract: A multilayer plastic container for storing lyophilized products includes at least three layers consisting of inner and outer layers having a moisture vapor transmission rate of not more than 0.1 gm mil/100 sq. in.-day at 73° F. and 95% rh, and an intermediate layer of hygroscopic resin construction having a moisture content less than 1000 ppm. The hygroscopic intermediate layer preferably comprises at least 30% of the total thickness of the three layers. The inner and outer layers preferably are of cyclic olefin polymer or cyclic olefin copolymer construction, and the hygroscopic intermediate layer preferably is of amorphous nylon construction. The container preferably is empty and sealed within a secondary container, such as a metallized bag, that is impervious to moisture.

Abstract: A multilayer plastic container for storing lyophilized products includes at least three layers consisting of inner and outer layers having a moisture vapor transmission rate of not more than 0.1 gm mil/100 sq. in.-day at 73° F. and 95% rh, and an intermediate layer of hygroscopic resin construction having a moisture content less than 1000 ppm. The hygroscopic intermediate layer preferably comprises at least 30% of the total thickness of the three layers. The inner and outer layers preferably are of cyclic olefin polymer or cyclic olefin copolymer construction, and the hygroscopic intermediate layer preferably is of amorphous nylon construction. The container preferably is empty and sealed within a secondary container, such as a metallized bag, that is impervious to moisture.

Abstract: A multilayer plastic container for storing lyophilized products includes at least three layers consisting of inner and outer layers having a moisture vapor transmission rate of not more than 0.1 gm mil/100 sq. in.—day at 73° F. and 95% rh, and an intermediate layer of hygroscopic resin construction having a moisture content less than 1000 ppm. The hygroscopic intermediate layer preferably comprises at least 30% of the total thickness of the three layers. The inner and outer layers preferably are of cyclic olefin polymer or cyclic olefin copolymer construction, and the hygroscopic intermediate layer preferably is of amorphous nylon construction. The container preferably is empty and sealed within a secondary container, such as a metallized bag, that is impervious to moisture.

Abstract: A prescription vial includes a generally cylindrical body of molded polylactic acid construction and a wrap-around label of polyolefin construction on an exterior surface of the cylindrical body. The cylindrical body with wrap-around label has a moisture vapor transmission rate of not more than 100 mg/day/liter, meeting USP standards for prescription vials. The wrap-around label preferably is of high density polyethylene or polypropylene construction.

Abstract: The present invention relates to a method for the separation of a mixture of plastic particles and contaminant. According to the invention, a two-phase solution composed of a halogenated hydrocarbon and water are applied to the mixture of plastic and contaminant. The two-phase solution and mixture are placed in a separator. The two-phase solution and mixture are rotated in the separator. During rotation, the plastic contained in the mixture of plastic and contaminant, which has a density less than the halogenated hydrocarbon contained in the two-phase solution, is separated by gravitation from the contaminant and carried by the water of the two-phase solution. Also during rotation, the contaminant contained in the mixture of plastic and contaminant, which has a density greater than the halogenated hydrocarbon of the two-phase solution, is separated by gravitation from the plastic and carried by the halogenated hydrocarbon of the two-phase solution.

Abstract: A method for the separation of a mixture of polyvinyl chloride particles and polyethylene terephtalate particles comprising the steps of applying a solution composed of a low density solvent of polyvinyl chloride, water and sodium hydroxide to flakes of polyvinyl chloride and polyethylene terephtalate whereby the polyvinyl chloride absorbs the solvent contained in the solution, which changes the density of the polyvinyl chloride so that it is less than the density of the polyethylene terephtalate. The plastics may then be differential density separated by flotation or centrifugation and recovered.