A carousel configured to house a plurality of pump cartridges for a compounder system is provided. The carousel may include a plurality of cartridge pockets each having an extended portion that covers a portion of a cartridge and a bottom surface Shaving an extension with a recess. The bottom surface recess of each cartridge pocket may be shaped and sized to receive a needle housing of a pump cartridge in the cartridge pocket. A recess may be provided in the extended portion of each pocket that receives a protrusion that extends from a top surface of a backpack coupled to the pump cartridge to secure the pump cartridge in the cartridge pocket. The bottom surface recess may have an additional bottom surface that prevents actuation of the needle housing of the pump cartridge.

A package for delivering a single-dose product includes a softgel capsule which is comprised of at least one gelling agent selected from protein-based gelling agents and polysaccharide-based gelling agents. The capsule shell includes one or more areas of reduced thickness that are preferentially ruptured by exertion of a compressive force on the softgel capsule to create an opening in the capsule shell through which the fill composition can be delivered by spraying or squeezing. A method for manufacturing the softgel capsule having one or more areas of reduced shell thickness is also described.

The mixing system for ready-to-use flush solutions is characterized by an RO system, a mixing unit that is connected to the RO system and that contains a mixing chamber, to which high-purity water can be fed from the RO system and flush solution concentrate can be fed from a concentrate source, and a flush solution link connector, wherein the RO system and the mixing unit form a filling station, a mobile flush solution container that contains a pressurized container that receives a flush solution bag that can be coupled to the flush solution link connector of the mixing unit, and a computer and control mechanism for all measurement and monitoring tasks during the local production of a flush solution, wherein the mobile flush solution container and the filling station are provided with sensors by means of which wireless communication is made possible between the mobile flush solution container and the filling station.

The mixing system for ready-to-use flush solutions is characterized by an RO system, a mixing unit that is connected to the RO system and that contains a mixing chamber, to which high-purity water can be fed from the RO system and flush solution concentrate can be fed from a concentrate source, and a flush solution link connector, wherein the RO system and the mixing unit form a filling station, a mobile flush solution container that contains a pressurized container that receives a flush solution bag that can be coupled to the flush solution link connector of the mixing unit, and a computer and control mechanism for all measurement and monitoring tasks during the local production of a flush solution, wherein the mobile flush solution container and the filling station are provided with sensors by means of which wireless communication is made possible between the mobile flush solution container and the filling station.

A reactor for forming fully coated particles having a solid core, the reactor comprises a reactor vessel which is configured to receive particles, and a gas phase coating mechanism that is configured to selectively introduce pulses of gas phase materials that form a coating on the particles. The reactor also includes a sieve (16) that is located within the reactor vessel, and a forcing means that is configured to force the particles through the sieve (16) in use. The sieve is configured to deagglomerate any particle aggregates formed in the reactor vessel upon forcing of the particles by the forcing means through the sieve.

A reactor for forming fully coated particles having a solid core, the reactor comprises a reactor vessel which is configured to receive particles, and a gas phase coating mechanism that is configured to selectively introduce pulses of gas phase materials that form a coating on the particles. The reactor also includes a sieve (16) that is located within the reactor vessel, and a forcing means that is configured to force the particles through the sieve (16) in use. The sieve is configured to deagglomerate any particle aggregates formed in the reactor vessel upon forcing of the particles by the forcing means through the sieve.

The invention provides a method for the controlled assembly of layered silk fibroin coatings using aqueous silk fibroin material. The methods described herein can be used to coat substrates of any material, shape, or size. Importantly, the described methods enable control of the biomaterial surface chemistry, thickness, morphology and structure using layered thin film coatings, or bulk coatings. Furthermore, the methods can be performed in all water and do not require intensive chemical processing enabling controlled entrapment of labile molecules such as, drugs, cytokines, and even cells or viruses to generate functional coatings that can be used in a variety of applications.

Disclosed are a carrier, a vacuumizing device, and a tissue cryopreservation system. The carrier is provided with at least one freezing chamber for loading a tissue, and a contact surface of the freezing chamber that comes into contact with the tissue is provided with a plurality of flow guide holes. The carrier may cooperate with the vacuumizing device so as to suck away excess liquid, such as a protective agent, on a surface of the tissue by vacuum, and discharge the liquid from the freezing chamber through the flow guide holes, thereby reducing the toxicity damage that may be caused by prolonged contact between the tissue and a high-concentration protective agent.

Disclosed are a carrier, a vacuumizing device, and a tissue cryopreservation system. The carrier is provided with at least one freezing chamber for loading a tissue, and a contact surface of the freezing chamber that comes into contact with the tissue is provided with a plurality of flow guide holes. The carrier may cooperate with the vacuumizing device so as to suck away excess liquid, such as a protective agent, on a surface of the tissue by vacuum, and discharge the liquid from the freezing chamber through the flow guide holes, thereby reducing the toxicity damage that may be caused by prolonged contact between the tissue and a high-concentration protective agent.

A solid dosage form for active ingredient release can be a preparation for medical, dental or cosmetic purposes, and is preferably a tablet. The solid dosage form comprises a three-dimensional base body which comprises an active ingredient. The solid dosage form further comprises a portion having a structure forming a two-dimensional identifier, such as, for instance, a QR code.