Abstract:
In a state where an operator performs operation using a safety cabinet while confirming standard operating procedures and sample data, a display device such as a monitor screen provided in the safety cabinet is arranged at a position that is not subject to effects of deterioration due to diffused reflection of light from a fluorescent lamp or sterilization lamp irradiation, and that does not generate resistance in an airflow path, while also protecting the display device from decontamination operation and preventing dirt from being adhered to a portion related to display. Transparent windows are provided on both a portion of a back wall or a side wall of a work space in the safety cabinet and a portion of a rear wall or a side wall of the body of the safety cabinet separated from the back wall or the side wall of the work space by a circulation flow path, which allow the operator to see through both walls, and the display device is placed on an outer side portion of the transparent window provided at the portion of the rear wall or the side wall of the body of the safety cabinet.
Abstract:
An isolator system 1 includes: a main isolator 3 in which an aseptic state is maintained and which is for performing an aseptic operation; an incubator 4 in which the aseptic state is maintained and which is connected to the main isolator 3 and is for culturing cells and the like; decontamination means 35 for decontaminating the inside of the main isolator 3; and a decontamination station 9 that decontaminates the inside of the incubator 4. The isolator system 1 further includes a blocking member 30 for sealing a connection port 13 from the outside, the port being provided in the main isolator 3 and being for connection with the incubator 4. When the inside of the main isolator 3 is decontaminated, the connection port 13 is sealed from the outside with the blocking member 30. The isolator system that can efficiently decontaminate the main isolator and the subisolator connected to this main isolator can be provided.
Abstract:
The invention provides a system for preventing fluid exchange between the interior and exterior of containment enclosures such as process-, hazard-, and research-enclosure systems generally, gloveboxes, containment systems, isolation systems, confinement systems, cleanrooms, negative air systems, and positive air system areas while simultaneously providing material transfer into and out of the enclosures. The invention also provides a method for transporting material into or out of a containment structure.
Abstract:
A modular vacuum chamber system provides for tapered surfaces and resilient sealing members, wherein the tapered surfaces are protected from undesired contact with work surfaces, and provide for vacuum-tight engagement of various modules. Modules can include chamber modules, defining shapes for a resultant vacuum chamber. Modules can comprise connecting modules, configured to sealingly engage two chamber modules and form a larger vacuum chamber than either module alone. Modules can comprise wall plate modules, configured to sealingly engage a chamber module and form a surface of a vacuum chamber. Wall plate modules can comprise solid plates, optically transparent plates, and plates accommodating ports for communication between the vacuum chamber and the environment outside the vacuum chamber.
Abstract:
The chamber (2) includes a wall (5) having an opening (7) and a connection interface (8), a door (10), joining elements (12), elements for maneuvering the door (10) and actuating elements for control of the maneuvering elements. The container (3) includes a wall (14) having an opening (16), a connection interface (9), a door (18), joining elements (13) and elements for maneuvering the door that are functionally joined to the door, and the system also includes, functionally integrated, marking elements, that rest on the container and that can store data, elements for short-range data reading that are functionally complementary to the marking elements, elements for storing read data, elements for producing an output signal based on read or stored data, and elements for controlling the opening of the first door and thus the second door, that respond to the output signal received from the elements for producing an output signal.
Abstract:
A protective device (20) is provided to equip a sterile enclosure (1) configured to be placed in communication with another sterile enclosure (2) so as to allow objects to be transferred from one enclosure to the other. The protective device (20) covers an interface defined between the sterile enclosures (1, 2).
Abstract:
The invention relates to a cryogenic storage device (100), in particular for storing biological samples (1) in the cryopreserved state, comprising a storage container (cryogenic tank 10) for cooling the samples in a reservoir (12) of liquid nitrogen or in a nitrogen vapour above the reservoir, a hood (21), and a flushing device (30) for introduction of a coolant (preferably cold nitrogen gas) into the hood space (22). The storage container is closed by a lid section (13). The coolant conduit (31) of the flushing device opens in the hood space (22). The storage temperature is adjustable in a locally delimited cooling section (24) by the refrigerant stream (2). The flushing device comprises a coolant vessel (32), which is formed by the storage container (10) with the reservoir of liquid nitrogen and/or an additional container. The invention further relates to a method for operating the cryogenic storage device.
Abstract:
Processing containers include a first member having a substantially rigid body with a plurality of regions defining spaced apart workstations and a flexible barrier member sealably attached to the first member to define a closed chamber over the plurality of workstations. The flexible barrier is substantially impermeable and includes or is a manipulation tool that is sealably attached to the barrier. The manipulation tool has a first internal interface that resides in the closed chamber under the flexible barrier and a second external interface that resides outside the closed chamber. The processing containers are particularly suitable for automated processing of nucleic acids and other samples. The manipulation tool can cooperate with or include a pipette head. When the barrier is sealed, the barrier separates the contents of the container from a robotic arm or other manipulation device.
Abstract:
Flow cytometer systems are provided that mitigate aerosols generated during operation of a flow cytometer. A flow cytometer system can include various combinations of: a flow cytometer instrument base, a flow cytometer, and a biosafety hood (BSH). In some embodiments, a subject flow cytometer system includes a flow cytometer instrument base, a flow cytometer, and a BSH. In some embodiments, a subject flow cytometer system includes a flow cytometer instrument base and a flow cytometer. In some cases, a BSH includes an aerosol management system, which provides a redundant air filtration system. Also provided are components of a flow cytometer system (e.g., a BSH configured to attach to a flow cytometer instrument base, a flow cytometer instrument base configured to attach to a BSH, etc.). Also provided are methods, including methods of performing a flow cytometric procedure using a flow cytometer system; and methods of decontaminating a flow cytometer system.
Abstract:
An isolator includes a work chamber, a sterilizing substance supply unit, a gas flow channel pressure adjustment unit, a work chamber barometer, and a controller. The controller is configured to control execution of a gas flow channel leak test for checking a gas leak in a gas flow channel based on a detection result by the work chamber barometer after making the gas flow channel pressure adjustment unit increase or decrease the pressure in the gas flow channel, and is configured to control supply of the sterilizing substance by the sterilizing substance supply unit. The controller performs heating of a heater, which accompanies the supply of the sterilizing substance, in parallel with the gas flow channel leak test.