A medical dispensing system with dispensing and pathway components, each of which of a plurality of dispensers and pathways, respectively. The dispensing and pathway components are controlled to minimize contamination between the items being dispensed. Both the dispensing and pathway components have arcs around which the dispensers and pathways are arranged.

A method for preparing a pre-filled multi-chamber injection system includes providing an injection system body, the injection system body defining an open proximal end, a body interior, and an open distal end. The method also includes introducing a first substance into a distal end of the body interior. The method further includes disposing a distal stopper member in the body interior, the distal stopper member and the injection system body defining proximal and distal chambers in the body interior. Moreover, the method includes introducing a second substance into the body interior. In addition, the method includes disposing a proximal stopper member in the body interior. The method also includes inserting an elongate member at least partially into the body interior, the elongate member having a plurality of flow channels for fluidly coupling the proximal and distal chambers. The method further includes coupling a plunger member to the proximal stopper member.

Embodiments herein describe tools, instruments and methods for aseptic loading, dispensing and/or delivering cells into an implantable device and aseptically and selectively sealing a device inside a sterile package as well as and storing and preparing for shipment the cell-filled device.

Methods of inserting a lubricant free stopper into a lubricant free syringe barrel or lubricant free cartridge tube is disclosed. The method includes (1) inserting a stopper with a sealing rib into a placement region of a vacuum chamber, (2) creating a seal between the vacuum chamber and a syringe barrel or a cartridge tube, (3) maneuvering the stopper into a proximal end of the syringe barrel or cartridge tube by a first differential pressure and/or an insertion rod, (4) maneuvering the stopper through the barrel by second differential pressure and/or an insertion rod, (5) optionally sealing a pressure sealing cap to the proximal end of the vacuum chamber, (6) removing the vacuum chamber, insertion rod, and, if present, the pressure sealing cap. The methods are lubricant free or substantially lubricant free. The vacuum chamber may be electropolished and/or extrude honed.

There is disclosed a fluid distribution system for distributing fluid from a single source to a plurality of downstream receptacles. The system has a distribution manifold with a single inlet and a plurality of outlets arrayed around a circumferential outer periphery. The outlets may be directed to the different receptacles which each have their own vent filter, or each receptacle connects back to the distribution manifold for common venting.

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.

The present disclosure provides novel processes for providing sterile, pre-filled syringes or injection devices for pharmaceutical compositions, including protein and biopharmaceutical formulations. In some examples, secondary packaging is performed in an aseptic environment, which removes the need for any terminal sterilization method. In some examples, the aseptic packaging method results in a sterile injection device suitable for use in ophthalmic injections.

A fluid distribution system includes an input tube, a plurality of vessels, and a distribution hub. The input tube is configured to extend from a supply vessel. Each vessel of the plurality of vessels includes an inflow conduit. The distribution hub includes a single inlet and a plurality of outlets. The single inlet is defined in a bottom of the distribution hub and is in fluid communication with the input tube such that the distribution hub is configured to receive fluid from the input tube through the single inlet. Each outlet of the plurality of outlets is in fluid communication with the single inlet and in fluid communication with a respective inflow conduit such that the distribution hub is configured to provide an equal portion of the fluid received through the single inlet to each of the inflow conduits.

Among other things, there is shown a system for filling vials with fluid that maintains a localized sterile zone around the filling location. In particular embodiments, the sterile zone is provided by a manifold having an internal space to which clean air is supplied. One or more filling assemblies are attached to the manifold. Vials enter the sterile zone and are filled within it. Additional structure, such as coverings for vials, are disclosed to assist in maintaining sterility.

Method to move containers (C) in a processing line (10) that comprises a station (11) for storing and picking up said containers (C) and a station (12) at least for filling said containers (C), said method providing, in said storage and pick-up station (11), to supply a container-holding tray (15) containing a plurality of said containers (C) disposed upended in said container-holding tray (15) with respect to their mouth (43), and subsequently to upend said containers (C) with the aid of upending means (20) so as to invert the orientation of said containers (C) and make them available with the side of the mouth (43) facing upward so that they can be picked up by extraction means (22).