A drug mixing device is disclosed. The drug mixing device comprises a first container for holding a first component of a drug to be mixed; and a housing. The housing comprises a first port configured to receive the first container and a second port configured such that the second port is unable to receive the first container. The first container is configured to be detachably coupled to the housing.

An automatic or semi-automatic preparation system and process is provided for forming a medicament solution from a vial containing one of a liquid and a non-liquid material.

A multi-mix infusion bag is provided. The multi-mix infusion bag includes a lower portion and an upper portion. The lower portion has a lower chamber and the upper portion includes a plurality of chambers. Each chamber is separated and contains a fluid agent. The multi-mix infusion bag is configured to transfer each fluid agent within each chamber of the upper portion into the lower chamber for mixing. The multi-mix infusion bag may include dispensing devices associated with each chamber, wherein the dispensing devices operate to transfer the fluid agents into the lower chamber for mixing.

An improved device delivers a fluid medicament to the subcutaneous tissue of a user. The device is better suited for patients with Parkinson's Disease and other central nervous system disorders, than conventional infusion devices. The device can include a reusable part including a drive component (e.g., motor) and control electronics and a disposable part including a medicament reservoir. Medicament can be evacuated from the medicament reservoir by a plunger assembly that includes a plunger attached to a lead screw that is rotated by a nut, all within the disposable part. The device can be fluidically coupled with the tissue via a flexible cannula. Various embodiments relate to an improved cannula insertion mechanism that delivers the cannula under a force applied by a spring. Various embodiments relate to improved filling of the device, for example, using a vial adapter and an automated filling station.

A medication compounding system is described that is capable of receiving one or more medications and diluents and that includes an array of moveable transfer cartridges to access a medication container and to transfer medication. The transferred medication may be joined with a diluent to form a compounded medication. The resulting compounded medication may then be directed to a filling port where a compounded medication container may be coupled. A second medication container may align with a second transfer cartridge to transfer a second medication. Because the device may comprise one or more medications and diluents, a series of compounded medications may be created using an individual transfer cartridge for each medication.

Disclosed is a bag including: a first envelope having at least one fill and/or discharge orifice for a biopharmaceutical fluid and a fill and/or discharge tube associated in a fluidtight manner with the fill and/or discharge orifice, a second envelope within which the first envelope is located, and a spacer element. The first envelope, the second envelope, and the spacer element form a coherent whole, in particular during use of the bag, and the fill and/or discharge tube traverses the second envelope by a fluidtight connection, the fill and/or discharge inlet being located outside the second envelope.

A device, kit, and method for producing medically-deliverable intravenous solution may include supplying a liquid to a housing, pumping the liquid through the housing while purifying the liquid, metering concentrated intravenous solution into the liquid to create a medically-deliverable intravenous solution, and dispensing the medically-deliverable intravenous solution.

An automated reservoir filling system for a portable medical device is disclosed. The system includes a vial sealed by a septum partially filled with a liquid and a gas occupying a headspace. The system further includes a reservoir with a volume defined between a reservoir septum and a plunger head. The plunger head is coupled to a plunger arm which is further coupled to a drive system. Further included is a transfer system with a vial end that pierces the vial septum and remains in contact with the liquid, and a reservoir end that pierces the reservoir septum and remains in the reservoir volume. A controller coupled to the drive system to actuates the drive system automatically drawing fluid from the vial to the reservoir through the degas system.

A reconfigurable nest handling system for handling nests of objects arranged in a predetermined pattern is presented and applied to a system for filling nested pharmaceutical containers with a pharmaceutical fluid. In one general aspect, the system comprises a sterilizable chamber containing a planar rotary stage with tub and nest positioning systems that may be reconfigurable for holding differently sized pharmaceutical container tubs and nests and pharmaceutical closure tubs and nests. The chamber has a rotatable cover removal station, a rotatable filling station with a dispenser head, and camera guided vacuum pickup facilities for handling container and closure nests. The vacuum pickup facilities may be reconfigurable for handling differently sized nests. An associated method for filling the containers comprises establishing an aseptic condition within the chamber; removing covers from a container tub and a container closure tub by operating both the rotary stage and the cover removal station. The vacuum pickup facility transfers into the fiducial locating structure a container nest bearing pharmaceutical containers. The fluid is dispensed into the containers by operating both the rotary stage and the filling station. A container closure nest is placed on the container nest in the fiducial locating structure with closures in correspondence with containers. A ram in the chamber forces the closures into the containers.

Systems and methods for the transfer of medical fluid are provided. A medical fluid transfer system may comprise a pump configured to transfer fluid through a tube assembly having a first connector configured to couple to a source container and a second connector configured to couple to a target container. The medical fluid transfer system may also comprise a destination sensor configured to output information about the target container. The medical fluid transfer system may further comprise a control system configured to operate the pump based on an operational setting associated with fluid volume; receive measurement data representing a measurement of the target container by the destination sensor, and adjust the operational setting based on an observed volume of fluid transferred to the target container.