Abstract: Vessel closure assemblies are provided. The vessel closure assemblies may be engaged with vessels. The vessel closure assemblies may each include a vessel closure, inserts such as anchors and fluid conduits extending through the vessel closure, and a respiratory assembly. The respiratory assembly may include a housing and one or more gas permeable membranes. The gas permeable membranes may be oriented substantially perpendicular to a top wall of the vessel closure through which the inserts extend.

Abstract: The protecting body for a flexible pouch is specially designed to contain a biopharmaceutical fluid. It includes two substantially planar plates which respectively form a lower surface and an upper surface and which are fixed to each other. The two plates are able to sandwich the flexible pouch for constraining the flexible pouch such that the protecting body is substantially planar, and includes, on a peripheral side, at least one opening able to receive at least one port of the flexible pouch.

Abstract: A method of aseptically distributing fluid to a plurality of vessels includes securing the plurality of vessels relative to a hub and flowing fluid through an input tube into a plenum of the hub such that a substantially equal amount of fluid flows from the plenum into each of the vessels simultaneously. The vessels are positioned in the same plane relative to one another with each vessel having an inflow conduit extending from the hub to the vessel such that an arc segment is formed between the hub and the vessel.

Abstract: A bioreactor for culturing of microorganisms or cells comprising: a casing defining an interior space of the bioreactor, wherein said interior space is configured to receive and hold a culture medium with microbial or cellular liquid cultures; and at least one coupling element provided on the casing for coupling with a foam mitigation device for mitigation of foam built-up in the interior space of the bioreactor during use of the bioreactor for culturing of microorganisms or cells; wherein the coupling element is configured to allow ultrasonic waves generated by the foam mitigation device act upon foam built-up in the interior space of the bioreactor.

Abstract: Fluid transfer assemblies for transferring fluid into or out of a single vessel and distributing the fluid to multiple other vessels are provided. The fluid transfer assemblies are customizable, substantially aseptic, and single-use. The fluid transfer assemblies may be manufactured by solidifying polymeric materials to form a body around a mandrel with protrusions engaged to fluid conduits and leaving recesses in the solidified polymeric material to stretch the resultant body and remove the mandrel with protrusions. The resultant fluid transfer assembly may be surrounded by a rigid housing and valves may be engaged with the conduits and/or body to control the fluid flow within the fluid transfer assembly.

Abstract: Fluid transfer interfaces for transferring fluid into or out of vessels, namely flexible polymeric bags. The fluid transfer interfaces have a body for use in connection with a vessel, or combined therewith, one or more apertures extending through the body, and one or more fluid transfer conduits secured to the body by way of a cast seal and extending continuously and axially through the one or more apertures. Also disclosed is a vessel closure having one or more fluid transfer conduits extending through the closure, the fluid transfer conduits affixed to the closure by a cast seal.

Abstract: A fluid transfer assembly is described. The fluid transfer assembly includes a unitary junction having an upstream portion and a downstream portion, the unitary junction defining a plurality of curved fluid pathways between the upstream portion and the downstream portion. The assembly also includes at least one flexible fluid conduit sealed to the junction in fluid communication with at least one of the plurality of curved fluid pathways.

Abstract: The present invention comprises methods and systems for manipulation of media and particles, whether inert materials or biomaterials, such as cells in suspension cell culture. The methods and systems comprise use of an apparatus comprising a rotating chamber wherein the actions of the combined forces of gravity, fluid flow force and centrifugal force form a fluidized bed within the rotating chamber.

Abstract: A fluid transfer hub has a first vessel closure, a second vessel closure, a gasket arranged between the first vessel closure and the second vessel closure, and a clamp at least partially surrounding the first vessel closure, the second vessel closure, and the gasket. The first vessel closure has a first body, one or more apertures extending axially through the first body, one or more first inserts extending axially through the one or more apertures, and a cast seal disposed within the first body and surrounding each first insert. The second vessel closure has a second body, one or more apertures extending axially through the second body, one or more second inserts extending axially through the one or more apertures, and a cast seal disposed within the second body and surrounding each second insert.

Abstract: A system for using freezing, storing and thawing biopharmaceutical materials which includes a holder and a container for holding biopharmaceutical materials therein. The holder has a cavity and the container is received in the cavity. The holder includes a first portion and second portion. The container is received between the first portion and the second portion to connect the container to the holder. The holder includes an interior cradle having a bottom and edges extending from the bottom. The cradle bounds the cavity. An outer rim is connected to the cradle and separated from the cavity. The bottom includes an inner surface facing the cavity receiving the container and an outer surface. The outer surface of the bottom is recessed relative to an outer surface of the outer rim.

Abstract: A device for monitoring the freezing state of a biopharmaceutical fluid in a container intended to receive a biopharmaceutical fluid that must pass between the liquid state and the frozen state, includes a peripheral envelope (25) made of plastic, to be connected to a heat treatment receptacle (5), a sensor (19) suitable for detecting a control parameter which is a macroscopic parameter of the container, and an analysis system (62) suitable for determining a freezing state of the biopharmaceutical fluid on the basis of the macroscopic parameter of the container.

Abstract: A fluid transport system is provided. The fluid transport system may include a vessel closure assembly including one or more conduits, a vessel, and a container. A conduit terminus may be engaged with the conduit and received in the vessel. The conduit terminus may include a body with a head portion and an engagement portion, wherein an aperture extends therethrough. The engagement portion may be configured to engage the conduit. The head portion may taper to a tip defining a first opening to the aperture having a hyperbolic paraboloid shape.

Abstract: A facility (1) for producing a container loaded with a biopharmaceutical fluid, includes: a container (2) wherein a biopharmaceutical fluid is placed (B); a control module (9) for controlling the filling of gas into the container (2); and an analysis module (10) for estimating a parameter for controlling the gas filling; and a pumping device (40) for generating a depression in the inner filling space (Vg).

Abstract: Vessel closures having a variety of inserts for aseptically sealing vessels. The vessel closures have a body with one or more apertures, one or more inserts extending axially through the one or more apertures, and a cast seal surrounding the inserts. The cast seal is preferably east silicone. The vessel closures may have one or more anchors securing the inserts to the body of the vessel closure. Also disclosed are methods of manufacturing vessel closures and a method of using the vessel closures disclosed herein for circulating fluids into and out of a vessel while also having the ability to regulate the temperature of the pumped fluid.

Abstract: Detachable fluid transfer device accessories and fluid transfer assemblies are provided. The device accessories can include an upper extension defining a lower engagement surface; a lower extension defining an upwardly extending protrusion; a connector portion extending between the upper extension and the lower extension; and a resilient engagement member coupled to the lower engagement surface of the body. The upper extension, the lower extension, and the connector portion can collectively define a cavity configured to receive a tab assembly of a fluid transfer device, where the upwardly extending protrusion is configured to engage a housing of the fluid transfer device, and the resilient engagement member is configured to engage an upper surface of the tab assembly to retain the tab assembly in a fixed configuration relative to the housing.

Abstract: A fluid transport system is provided. The fluid transport system may include a vessel closure assembly including one or more conduits, a vessel, and a container. A conduit terminus may be engaged with the conduit and received in the vessel. The conduit terminus may include a body with a head portion and an engagement portion, wherein an aperture extends therethrough. The engagement portion may be configured to engage the conduit. The head portion may taper to a tip defining a first opening to the aperture having a contour that is non-planar.

Abstract: A system for using freezing, storing and thawing biopharmaceutical materials which includes a holder and a container for holding biopharmaceutical materials therein. The holder has a cavity and the container is received in the cavity. The holder includes a first portion and second portion. The container is received between the first portion and the second portion to connect the container to the holder. The holder includes an interior cradle having a bottom and edges extending from the bottom. The cradle bounds the cavity. An outer rim is connected to the cradle and separated from the cavity. The bottom includes an inner surface facing the cavity receiving the container and an outer surface. The outer surface of the bottom is recessed relative to an outer surface of the outer rim.

Abstract: A system for mixing content of a container comprises a container includes an interior mixing element, an exterior drive system and a mixing device comprising an exterior bearing for coupling the exterior drive system to the interior mixing element of the container. The exterior bearing provides a driven non-rotating, nutating motion that drives the interior mixing element of the container so that it performs a mixing motion inside the container.