Abstract:
The present invention provides an improved automatic suction structure of a vacuum container. The structure includes a pumping unit, a power supply, a vacuum releaser and a vacuum detector. The structure allows for automatic air suction, automatic detection, safety power disconnection and continuous vacuuming as well as easy operation. The present invention guarantees improved quality and convenient operation.
Abstract:
The invention pertains to a gas lock with a cylindrical base body fixed in the opening of a container that can be filled with bulk material, wherein the cross section of said base body essentially corresponds to the cross section of the opening in the container, with a gas supply and with at least one gas outlet that is fluidically connected to the gas supply. The gas lock features means suitable for sealing the container opening in a nearly gas-tight fashion on the lower end of the cylindrical base body, wherein said means control the quantities of bulk material and gas being introduced into the container and are realized in such a way that a gas flow is formed in the direction of the bulk material flowing into the container. These means may consist, for example, of a sealing cone.
Abstract:
The invention relates to a tubular reactor for carrying out catalytic gas-phase reactions, containing a catalyst tube bundle (8) that is traversed by the relevant reaction gas mixture, is filled with a catalyst, extends between two tube sheets (4, 148) and around which flows a heat transfer medium contained within a surrounding reactor jacket (6). The reactor also comprises gas entry and discharge hoods (2; 60) that cover the two tube sheets for supplying the relevant process gas to the catalyst tubes and for discharging the reacted process gas from the catalyst tubes. Together with all the parts that come into contact with the process gas mixture, the reactor is designed to have an appropriate strength for withstanding the deflagration and explosive pressures that are to be taken into account during its operation. The volume available to the process gas mixture prior to its entry into the catalyst tubes is restricted as much as possible in construction and flow engineering terms.
Abstract:
A closure 10 is provided for retaining fluid pressure within a vessel, and comprises a hub 12 having an access opening to the vessel, with the hub having a circumferential stop 17 and one or more recesses 50 each extending radially outward from an adjacent inner surface 26 of the hub. A door 22 is positioned between the stop surface and the vessel, and a latch member 30 brings the door into sealing engagement with the stop member. One or more lugs 24 each extend radially outward from an exterior surface of the door, such that a respective lug engages the hub about a respective recess to seal the door to the hub, while the door may be moved to pass through the one or more recesses and out of the hub.
Abstract:
An autoclave for pressure and temperature treatment of objects comprises a pressure container having a pressure resistant wall which encloses a pressure chamber for receiving the objects to be treated, said pressure chamber having a free inner diameter of at least 1.5 m; and a heat source for heating the objects received in said pressure chamber, said heat source including a plurality of microwave sources irradiating microwave radiation, which are arranged outside said pressure container. Said microwave sources are distributed over said pressure resistant wall at an areal density of at least 4 microwave sources per square meter surface area of said pressure resistant wall; and the microwave radiation irradiated by said microwave sources is coupled through said pressure resistant wall into said pressure chamber.
Abstract:
Reactors including a chamber having a mixing apparatus within the chamber are provided. Reactors are also provided that include a chamber with a separation apparatus and/or a catalyst apparatus within the chamber. Reactor assemblies are provided that can include: a base configured to define at least a portion of a reaction chamber volume, a separation apparatus within the reaction chamber volume, a catalyst apparatus within the reaction chamber volume, and a lid coupled to both the separation and catalyst apparatuses. Production processes are provided that can include combining at least two reactants within a chamber to form a gas-phase reaction mixture and mechanically mixing the mixture within the chamber to form a product.
Abstract:
A closure assembly 10 contains positive and/or vacuum pressure within a pressure vessel 16 having a neck 12. A circumferential locking member 22 supported on a door 20 locks the door to the neck, and is radially moveable between an open position and a closed position. A seal 26 between the neck and the door maintains fluid-tight integrity. A lever or other hand powered operator may be used for moving the locking member between the open position and the closed position. The locking member may include locking segments interconnected to form the circumferential locking member.
Abstract:
A work-piece deflection management system including: (a) a first and a second vacuum chambers, each said vacuum chamber having an air-bearing seal circumscribing one of its sides, and (b) a work-piece plate; wherein the air-bearing seals are aligned to face one-another with the work-piece plate respectively there-between, allowing the work-piece to be laterally slid with respect to the air-bearing seals while maintaining a first predefined vacuum level within the first vacuum chamber and maintaining a second predefined vacuum level within the second vacuum chamber.
Abstract:
A door closure system for a vacuum sterilization chamber includes a mechanism to allow movement of the door with respect to the chamber at the hinge. An elongated slot on the door captures a fixed shaft to allow rotation of the door. A spring in the door operates against the shaft biasing the door toward the chamber. Forces applied by the hinge and by an opposite latch are normalized.
Abstract:
A modular reactor system comprises a backplane connected to a computer and a thermal control unit. The backplane includes a plurality of seats for releasably holding a plurality of modules. Each module holds a reactor vessel that may be used to conduct experiments. A plurality of laboratory instruments, such as motors, switches, sensors and pumps are included within the backplane and on the reactor modules. These laboratory instruments are utilized to perform work on the contents of the reactor vessels when the modules holding the reactor vessels are positioned in the backplane. A computer is connected to the backplane and controls the laboratory instruments within the backplane and on the reactor modules positioned within the backplane. A thermal control unit provides a thermal control fluid that is delivered to the reactors in the reactor modules when the modules are properly seated in the backplane.