An assembly of the present invention is designed specifically for filling vaporizer cartridges, pods, and other personal vaporizer systems with high viscosity extracts (oils). The assembly includes three main components such as the syringe station, the control box, and foot pedal. The control box includes the software to operate the assembly. The control box has controls for temperature and air pressure (for purging the vessel). The foot pedal operates the syringe for filling cartridges. The syringe station consists of a heated vessel, and a heated pneumatically operated syringe. The syringe system can be used in this configuration and can also be used as part of a larger, fully automated filling machine without limiting the scope of the present invention. The syringe system works well with viscous liquids.

An assembly of the present invention is designed specifically for filling vaporizer cartridges, pods, and other personal vaporizer systems with high viscosity extracts (oils). The assembly includes three main components such as the syringe station, the control box, and foot pedal. The control box includes the software to operate the assembly. The control box has controls for temperature and air pressure (for purging the vessel). The foot pedal operates the syringe for filling cartridges. The syringe station consists of a heated vessel, and a heated pneumatically operated syringe. The syringe system can be used in this configuration and can also be used as part of a larger, fully automated filling machine without limiting the scope of the present invention. The syringe system works well with viscous liquids.

A container filling assembly that can be used with container filling systems to fill containers during successive filling cycles with the same or different fluid compositions at high rates of speed, with little to no machinery changeover, and/or with little to no fluid waste.

A container filling assembly that can be used with container filling systems to fill containers during successive filling cycles with the same or different fluid compositions at high rates of speed, with little to no machinery changeover, and/or with little to no fluid waste.

In a method embodiment, an example method for simultaneously filling balloons with water, using an apparatus sufficiently compact to be operated while being held by hand, is disclosed. The method includes attaching the apparatus to a water supply. The apparatus includes a fitting comprising an inlet configured to connect to the water supply and a bulkhead joining the at least three branch assemblies. Each branch assembly includes a tube and an automatically-sealing balloon with a neck disposed around and removably attached to the tube. The method further includes simultaneously providing water from the attached water supply to each balloon of the balloon-filling apparatus. The method further includes detaching one or more of the balloons from the balloon-filling apparatus using a force comprising gravity each detached balloon and the water contained therein. Each detached balloon automatically seals upon detachment.

In a method embodiment, an example method for simultaneously filling balloons with water, using an apparatus sufficiently compact to be operated while being held by hand, is disclosed. The method includes attaching the apparatus to a water supply. The apparatus includes a fitting comprising an inlet configured to connect to the water supply and a bulkhead joining the at least three branch assemblies. Each branch assembly includes a tube and an automatically-sealing balloon with a neck disposed around and removably attached to the tube. The method further includes simultaneously providing water from the attached water supply to each balloon of the balloon-filling apparatus. The method further includes detaching one or more of the balloons from the balloon-filling apparatus using a force comprising gravity each detached balloon and the water contained therein. Each detached balloon automatically seals upon detachment.

A safety device for a single-use mixing or storage system (10), especially for use in a biopharmaceutical process, includes a flexible bag (12) made from a film material and a support structure (14) receiving and supporting the bag (12) in several directions. The support structure (14) allows an expansion of the bag (12) in an expansion direction. The safety device further includes a detection unit (20) adapted to detect an expansion of the bag (12) in the expansion direction, and a control unit (28) connected to the detection unit (20) and adapted to initiate a safety measure in response to the expansion of the bag (12) in the expansion direction exceeds a given threshold.

A fluid transfer device for transferring fluid between a supply reservoir and a fill reservoir includes a metering reservoir and a manifold that forms at least part of a first channel that is fluidly connected with the metering reservoir. The first channel comprises a first cannula extending from the manifold. The manifold forms at least part of a second channel fluidly connected with the metering reservoir. The second channel comprises a second cannula extending from the manifold. A third channel extends through the manifold and comprises a third cannula having a first end proximate a distal end of the first cannula and a second end proximate a distal end of the second cannula. A first check valve is disposed within the first channel and a second check valve is disposed within the second channel.

A fluid transfer device for transferring fluid between a supply reservoir and a fill reservoir includes a metering reservoir and a manifold that forms at least part of a first channel that is fluidly connected with the metering reservoir. The first channel comprises a first cannula extending from the manifold. The manifold forms at least part of a second channel fluidly connected with the metering reservoir. The second channel comprises a second cannula extending from the manifold. A third channel extends through the manifold and comprises a third cannula having a first end proximate a distal end of the first cannula and a second end proximate a distal end of the second cannula. A first check valve is disposed within the first channel and a second check valve is disposed within the second channel.

A sealant filling device comprises a sealant board and a plurality of injectors installed on it, the sealant board comprises a base and a sealing cover which opening a plurality of sealing holes, the injector comprises a feeding hole which is opposite to the sealing holes, the sealant can be poured into the injector from the sealing holes to the feeding hole, a spring between the top of the injector and the sealing cover is provided for moving in control, while the volume of the sealant reaches the preset value, the spring will be control to move and seal off the sealing hole to stop sealing. If the volume of the sealant reaches the preset volume, then the controller IC will drive the spring moving and sealing off the sealing hole by controlling of the motor. The sealant volume in each injector can be separated distributed.