Abstract:
An electrical connection element for providing an electrical connection to a porous material may include a first electrically conductive plate disposed on at least a portion of a first side of the porous material. A second electrically conductive plate may be disposed on at least a portion of a second side of the porous material, opposite to the first side. An electrically conductive material may impregnate the porous material in a region between the first and second electrically conductive plates, and an electrical connector may be attached to at least one of the first and second electrically conductive plates.
Abstract:
A method to be performed in a computer system in association with initiating a physical operation includes receiving a request in a computer system for a physical operation. The method includes generating a first object to be used in the physical operation, the first object being generated based on the physical operation using a template. The template is configured for generating objects for any of at least (1) a physical operation performed in product manufacturing and (2) a physical operation performed in post-manufacturing product management. The generated first object may be an order object that describes the physical operation and that is to be updated after performance of the physical operation to indicate fulfillment. When the generated first object is an information collection object configured to represent performance of the physical operation, the method may further include initiating the performance of the physical operation using the information collection object.
Abstract:
A method and an arrangement of components in a switchgear enclosure having multi-phase electrical power run-in and run-back bus bars. The circuit breaker is also provided in the enclosure. The arrangement of components is configured to provide interchangeable modularity of components within the enclosure. The arrangement of components includes a run-in mounting base including a primary disconnect member for each electrical phase. A run-back mounting base, including a primary disconnect member for each electrical phase is also included. The run-in mounting base and the run-back mounting base are configured to interchange the line and load side of the circuit breaker. Another embodiment of the arrangement includes a bridge coupled to one of the run-in mounting base and run-back mounting base, with the bridge configured to position each primary disconnect member for alignment with the circuit breaker. 136
Abstract:
A method and a mounting plate system for electrical equipment in a switchgear cabinet having spaced apart frame members. The mounting plate system comprises a first mounting plate having a plurality of orifices located proximate an outer edge of the first mounting plate. A second mounting plate having a plurality of orifices located proximate an outer edge of the second mounting plate, wherein the first and second mounting plates are configured to couple to the electrical equipment in the frame members, releaseably secure the electrical equipment to the frame member from the rear of the switchgear cabinet and facilitate removal of the electrical equipment from the front of the switchgear cabinet. Another embodiment, the mounting plate system provides one of the first and second mounting plates defining a through-hole configured to accept the wire.
Abstract:
The cooling system for the nozzle edges includes a chamber containing a cooling medium. First and second elongated plenums are disposed along opposite side edges of each platform. Inlet passages communicate cooling medium from the chamber into each plenum. Outlet passages from each plenum terminate in outlet holes in the side edges of the platform to cool the gap between adjacent nozzle segments. Passageways communicate with each plenum and terminate in film cooling holes to film cool platform surfaces. In each plenum, the inlet passages are not in direct line-of-sight flow communication with the outlet passages and passageways.
Abstract:
The invention concerns a device comprising at least one field effect electron source within a sealed structure, which encompasses an internal space that contains a reducing gas whose purpose is to prevent oxidation of the emissive material of the electron source, whereby the reducing gas is a gas with the formula NxHy where x=1 or 2 and y=3 or 4, and which is advantageously under a pressure of between 10−8 and 10−1 mbar. It also concerns manufacturing processes for such a device and apparatuses for implementing these processes.
Abstract:
A self-adhesive protective film having a backing layer and an adhesive layer, characterized in that the backing layer is an undrawn film, the backing layer comprises at least one polypropylene block copolymer and the amount of polypropylene block copolymer makes up from 10 to 95% (w/w) of the protective film.
Abstract:
An electron collector having an anode constituted by a substrate (21, 40, 41) on which are deposited conductive strips or tracks (23, 43). A dielectric material layer is deposited on at least one of the edges of each conductive strip.
Abstract:
Radiation-crosslinkable self-adhesive tape (dicing tape) for the temporary fixing of wafers, having a support comprising a radiation-transparent film and a radiation-crosslinkable self-adhesive composition, characterized in that the polymeric self-adhesive composition contains copolymerized radiation initiators.