mhurhangee/ep-ind-claims huggingface dataset:
A micro-fuse assembly, comprising: a substrate; a plurality of thin-film micro-fuses disposed on the substrate, each of the plurality of thin-film micro-fuses comprising a metallic material having a melting point that is less than 700°C; one or more precision circuit components (50,150) including precision thin-film resistors and/or precision thin-film capacitors; and a topping wafer configured to sealingly engage to at least one of the substrate or the plurality of thin-film micro-fuses to define a cavity therebetween, the cavity being configured to encapsulate the plurality of thin-film micro-fuses and the one or more precision circuit components within an inert environment sealed within the cavity; wherein the micro-fuse assembly is configured to program one or more of the precision circuit components by applying an electrical current that exceeds a program current value to one or more of the plurality of thin-film micro-fuses. a substrate; a plurality of thin-film micro-fuses disposed on the substrate, each of the plurality of thin-film micro-fuses comprising a metallic material having a melting point that is less than 700°C; one or more precision circuit components (50,150) including precision thin-film resistors and/or precision thin-film capacitors; and a topping wafer configured to sealingly engage to at least one of the substrate or the plurality of thin-film micro-fuses to define a cavity therebetween, the cavity being configured to encapsulate the plurality of thin-film micro-fuses and the one or more precision circuit components within an inert environment sealed within the cavity; wherein the micro-fuse assembly is configured to program one or more of the precision circuit components by applying an electrical current that exceeds a program current value to one or more of the plurality of thin-film micro-fuses.
A method of welding a cylindrical stiffening member to an outer circumference of a superconducting accelerator tube body using a laser beam, wherein said accelerator tube body is formed by the junction of a plurality of dumbbell-shaped members in an axial direction and wherein said stiffening member and said dumbbell-shaped members are made of Niobium, the method comprising: attaching ends of said stiffening ring to an outer circumferential surface of one of the dumbbell-shaped members so as to define a weld zone; irradiating said laser beam to a face of said accelerator tube body to melt a point of said weld zone of said dumbbell-shaped members and said stiffening ring so as to weld together said dumbbell-shaped members and said stiffening ring, characterized in that said laser beam is a defocusing laser beam, said defocusing laser beam is configured such that a distribution profile of energy density on the irradiated face is a Gaussian distribution profile having a peak section and an outer edge section, wherein said peak section evaporates and melts the Niobium and said outer edge section holds a molten state of the Niobium but does not further evaporate the Niobium, wherein the maximum energy density (E max) of said peak section is 5.8×10 5 W/cm 2 or more, wherein the energy density of an outer circumference of a region in which 50% of the total energy in the distribution profile of energy density is included, centered on the peak section, is less than or equal to 75% of the energy density of the peak section. attaching ends of said stiffening ring to an outer circumferential surface of one of the dumbbell-shaped members so as to define a weld zone; irradiating said laser beam to a face of said accelerator tube body to melt a point of said weld zone of said dumbbell-shaped members and said stiffening ring so as to weld together said dumbbell-shaped members and said stiffening ring, characterized in that said laser beam is a defocusing laser beam, said defocusing laser beam is configured such that a distribution profile of energy density on the irradiated face is a Gaussian distribution profile having a peak section and an outer edge section,
A washing arm for an in particular commercial warewasher having a longitudinally extending washing arm housing, in which at least one inlet for supplying washing liquid and at least one nozzle opening for spraying the supplied washing liquid are configured, wherein preferably at least one cleaning opening having an associated opening/closing mechanism is provided on at least one end region of the washing arm housing, wherein the opening/closing mechanism is configured so as to automatically open in particular for as-needed flushing of at least one region of the washing arm housing and to automatically close in particular for as-needed ending of the flushing of the at least one region of the washing arm housing, characterized in that the opening/closing mechanism preferably comprises a shut-off valve mounted in the corresponding end region of the washing arm in such a way that the shut-off valve is slidable, preferably in a purely linear movement, relative to the washing arm housing and relative to the at least one cleaning opening associated with the opening/closing mechanism, between an open position in which the at least one cleaning opening is fluidically connected to the inlet of the washing arm and a closed position in which a fluid connection between the at least one cleaning opening and the inlet is interrupted, wherein the shut-off valve comprises preferably a guide sleeve and preferably a shut-off body protruding radially from the guide sleeve, wherein the guide sleeve is mounted, in particular in a linearly movable manner, on a guide pin extending in the longitudinal direction of the washing arm housing.
A process for coating a container comprising: (a) providing a container made from PET having a closed end and an opening end, and further having an imaginary central vertical axis extending from its closed end to its opening end, characterized by the container comprising: (i) a cavity delimited by a wall between the closed end and the opening end; (ii) the wall comprising an inner surface; (iii) a neck finish at an opening end of the container opposite the closed end; the container neck terminating in a sealing surface at the opening end; (b) rotating the container about its vertical axis at rotational speeds of 50 to 1200 rpm; (c) lowering an airless spray nozzle assembly along the vertical axis of the container into the cavity through the opening end; the spray nozzle assembly having at least two nozzles with each having orifices therein having an equivalent diameter of 50 to 200 microns; (d) applying a liquid coating, wherein the liquid is an edible oil, through the nozzle assembly at a spray pressure of 6.89 to 55.16 bar (100 to 800 psi) and at an angle of 0 to 120 degrees relative to the vertical axis, simultaneously with nozzle movement, to coat the inner surface while the container is rotating and the nozzle assembly is moving along the vertical axis; thereby coating the inner surface to form an internally coated container. (a) providing a container made from PET having a closed end and an opening end, and further having an imaginary central vertical axis extending from its closed end to its opening end, characterized by the container comprising: (i) a cavity delimited by a wall between the closed end and the opening end; (ii) the wall comprising an inner surface; (iii) a neck finish at an opening end of the container opposite the closed end; the container neck terminating in a sealing surface at the opening end; (i) a cavity delimited by a wall between the closed end and the opening end; (ii) the wall comprising an inner surface; (iii) a neck finish at an opening end of the container opposite the closed end; the container neck terminating in a sealing surface at the opening end; (b) rotating the container about its vertical axis at rotational speeds of 50 to 1200 rpm; (c) lowering an airless spray nozzle assembly along the vertical axis of the container into the cavity through the opening end; the spray nozzle assembly having at least two nozzles with each having orifices therein having an equivalent diameter of 50 to 200 microns; (d) applying a liquid coating, wherein the liquid is an edible oil, through the nozzle assembly at a spray pressure of 6.89 to 55.16 bar (100 to 800 psi) and at an angle of 0 to 120 degrees relative to the vertical axis, simultaneously with nozzle movement, to coat the inner surface while the container is rotating and the nozzle assembly is moving along the vertical axis;
An automatic analyzer comprising: a specimen holding unit configured to hold a specimen container in which a specimen is stored; a dispensed container holding unit configured to hold a plurality of dispensed containers; a dispensing probe configured to separate a predetermined amount of the specimen from the specimen container, and configured to dispense the specimen that has been separated into the dispensed container; a probe washing device configured to wash a leading end of the dispensing probe in a washing liquid, after the specimen is dispensed into the dispensed container and before a next predetermined amount of the specimen is separated from the specimen container; and a controller configured to control driving of the dispensing probe, characterized in that: the controller comprises an arithmetic processing unit configured to: calculate, for the specimen, based on an initial amount of the specimen stored in the specimen container, specimen usage amounts of a plurality of measurement items set for the specimen, and a washing liquid introduced amount into the specimen container, a concentration of the specimen in the specimen container, the specimen being subject to dilution with the washing liquid adhered to the leading end of the dispensing probe in the probe washing device; and set a minimum number of times for dispensation, in which the concentration that has been calculated is lower than a preset concentration, as a maximum number of times for dispensing the specimen from the specimen container into the dispensed container. a specimen holding unit configured to hold a specimen container in which a specimen is stored; a dispensed container holding unit configured to hold a plurality of dispensed containers; a dispensing probe configured to separate a predetermined amount of the specimen from the specimen container, and configured to dispense the specimen that has been separated into the dispensed container; a probe washing device configured to wash a leading end of the dispensing probe in a washing liquid, after the specimen is dispensed into the dispensed container and before a next predetermined amount of the specimen is separated from the specimen container; and a controller configured to control driving of the dispensing probe, calculate, for the specimen, based on an initial amount of the specimen stored in the specimen container, specimen usage amounts of a plurality of measurement items set for the specimen, and a washing liquid introduced amount into the specimen container, a concentration of the specimen in the specimen container, the specimen being subject to dilution with the washing liquid adhered to the leading end of the dispensing probe in the probe washing device; and set a minimum number of times for dispensation, in which the concentration that has been calculated is lower than a preset concentration, as a maximum number of times for dispensing the specimen from the specimen container into the dispensed container.
An artificial turf, comprising: a pile fabric having a backing, and pile elements extending upwardly from the backing; and an infill layer filled on the backing such that the pile elements are at least partially embedded in the infill layer; wherein the infill layer includes an elastic infill having a hardness ranging from 40 to 90 Shore A, and a high-hardness resin infill having a hardness ranging from 50 Shore D to 120 Rockwell R, the high-hardness resin infill including a synthetic resin matrix and an inorganic filler dispersed in the synthetic resin matrix. a pile fabric having a backing, and pile elements extending upwardly from the backing; and an infill layer filled on the backing such that the pile elements are at least partially embedded in the infill layer; wherein the infill layer includes an elastic infill having a hardness ranging from 40 to 90 Shore A, and a high-hardness resin infill having a hardness ranging from 50 Shore D to 120 Rockwell R, the high-hardness resin infill including a synthetic resin matrix and an inorganic filler dispersed in the synthetic resin matrix.
A manufacturing method of an aluminum alloy in which an Al-Fe-Si compound is refined, comprising adding, to a molten aluminum alloy consisting of: - 8 to 20% by mass of Si; - 0.5 to 4% by mass of Fe; - optionally 0.005 to 2.5% by mass of Mn; - optionally no greater than 0.5% by mass of Cr; - optionally 0.5 to 6% by mass of Ni, - optionally 0.5 to 8% by mass of Cu, - optionally 0.05 to 1.5% by mass of Mg; - optionally 0.003 to 0.02% by mass of P; and - the balance being Al and inevitable impurities, AlB 2, which is present as a solid phase in the molten metal upon crystallization of the Al-Fe-Si compound, wherein the amount of AlB 2 is 0.02 to 1.2% by mass and B is in a range of 0.01 to 0.5% by mass with respect to the entire molten aluminum alloy, wherein AlB 2 is contained in an Al-B alloy which consists of Al, B and optionally 0.003 to 0.015% by mass of TiB 2, and the Al-B alloy is added to the molten aluminum alloy. - 8 to 20% by mass of Si; - 0.5 to 4% by mass of Fe; - optionally 0.005 to 2.5% by mass of Mn; - optionally no greater than 0.5% by mass of Cr; - optionally 0.5 to 6% by mass of Ni, - optionally 0.5 to 8% by mass of Cu, - optionally 0.05 to 1.5% by mass of Mg; - optionally 0.003 to 0.02% by mass of P; and - the balance being Al and inevitable impurities,
An illumination device comprising: a plurality of organic EL elements; reception means that receives, for each of said organic EL elements, chromaticity information that indicates the chromaticity of the relevant organic EL element and luminance information that indicates the luminance of the relevant organic EL element; and supply means that, for each of said organic EL elements, supplies to the relevant organic EL element a drive signal having an amplitude that accords with the chromaticity that was indicated by the chromaticity information for that organic EL element for, within a unit time interval, a time interval that accords with the luminance indicated by the luminance information for that organic EL element, characterized in that said supply means is arranged to time-divide said unit time interval into a plurality of specific intervals, and to supply said drive signal to said organic EL elements such that the amplitude or the supplying time of said drive signals are different in each specific interval. a plurality of organic EL elements; reception means that receives, for each of said organic EL elements, chromaticity information that indicates the chromaticity of the relevant organic EL element and luminance information that indicates the luminance of the relevant organic EL element; and
An automotive glazing unit including a glazing and means for allowing said glazing to be moved translationally with respect to a door of said vehicle, said glazing being curved and laminated and comprising at least an exterior glass sheet, an interior glass sheet and a plastic sheet located between said exterior glass sheet and said interior glass sheet, each sheet (3, 4, 5) having a peripheral edge face (31, 41, 51), characterized in that said interior glass sheet is a glass sheet having undergone a chemical tempering operation and having a thickness (es) comprised between 0.40 and 2.10 mm, or even between 0.40 and 1.80 mm, or even between 0.40 and 1.60 mm and in that only the edge face of said interior glass sheet is located beyond the edge face of said plastic sheet and beyond the edge face of said exterior glass sheet over at least one portion of the length of the edge face of said interior glass sheet, the edge face of said interior glass sheet lies beyond the edge face of said exterior glass sheet so that a centripetal offset of size comprised between 2.0 and 30.0 mm, or even between 3.0 and 20.0 mm, is formed, said offset preferably being constant along its length.
A method of fabricating a light emitting device, of growing a light emitting layer section and a current spreading layer, each composed of Group III-V compound semiconductor, epitaxially in this order on a single crystal growth substrate, comprising: a Metal Organic Vapor Phase Epitaxy step of growing the light emitting layer section epitaxially on the single crystal growth substrate by Metal Organic Vapor Phase Epitaxy; and a Hydride Vapor Phase Epitaxial Growth step of growing the current spreading layer on the light emitting layer section epitaxially by Hydride Vapor Phase Epitaxial Growth Method, conducted in this order, characterized in that the current spreading layer is grown, having a low-rate growth layer positioned close to the light emitting layer section side and a high-rate growth layer following the low-rate growth layer wherein the low-rate growth layer is formed at such a low rate that pits occur on a surface of the low-rate growth layer, the pits being big enough to be visible with optical microscopes when completing formation of the low-rate growth layer. a Metal Organic Vapor Phase Epitaxy step of growing the light emitting layer section epitaxially on the single crystal growth substrate by Metal Organic Vapor Phase Epitaxy; and a Hydride Vapor Phase Epitaxial Growth step of growing the current spreading layer on the light emitting layer section epitaxially by Hydride Vapor Phase Epitaxial Growth Method, conducted in this order, characterized in that the current spreading layer is grown, having a low-rate growth layer positioned close to the light emitting layer section side and a high-rate growth layer following the low-rate growth layer wherein the low-rate growth layer is formed at such a low rate that pits occur on a surface of the low-rate growth layer, the pits being big enough to be visible with optical microscopes when completing formation of the low-rate growth layer.
A blade for a gas turbine engine comprising: a shank interconnecting a root and a platform, and an airfoil extending radially from the shank, the shank including a pocket with the platform overhanging the pocket; a rail extending axially along a lateral edge of the platform and extending radially inward from the platform in a direction opposite the airfoil; and a gusset extending from an underside of the platform facing the pocket and in a circumferential direction between the rail and the shank; and characterized in that the gusset is interconnected to the rail and the platform underside but the gusset is spaced from a surface of the pocket. a shank interconnecting a root and a platform, and an airfoil extending radially from the shank, the shank including a pocket with the platform overhanging the pocket; a rail extending axially along a lateral edge of the platform and extending radially inward from the platform in a direction opposite the airfoil; and a gusset extending from an underside of the platform facing the pocket and in a circumferential direction between the rail and the shank; and characterized in that the gusset is interconnected to the rail and the platform underside but the gusset is spaced from a surface of the pocket.
A salt of glycyrrhizic acid for use in reducing the irritating action of alkyl sulfates and alkyl ether sulfates as surfactants in compositions to be applied to the skin for care or cleansing of the face and body.
A method for manufacturing high temperature superconducting coils with electrical insulation, comprising in sequence the steps of: (a) forming an electromagnet coil device from a winding of superconductive precursor powder-in-tube composite round wire, with the wire turns being separated by a ceramic-glass insulation comprised of a mixture of ceramic and glass fibers and a carbonaceous binder; (b) removing the said binder of the ceramic insulation by combustion in an oxygen- containing environment of a heating vessel at an elevated temperature below the partial melting point of the precursor superconducting powder and ceramic-glass insulation; (c) evacuating the heating vessel to remove gaseous combustion products at a reduced temperature at about room temperature; (d) introducing oxygen gas into the said vessel; and (e) increasing the temperature in the vessel to the peak reaction heat treatment temperature for forming the ceramic insulated superconducting wire. (a) forming an electromagnet coil device from a winding of superconductive precursor powder-in-tube composite round wire, with the wire turns being separated by a ceramic-glass insulation comprised of a mixture of ceramic and glass fibers and a carbonaceous binder; (b) removing the said binder of the ceramic insulation by combustion in an oxygen- containing environment of a heating vessel at an elevated temperature below the partial melting point of the precursor superconducting powder and ceramic-glass insulation; (c) evacuating the heating vessel to remove gaseous combustion products at a reduced temperature at about room temperature; (d) introducing oxygen gas into the said vessel; and (e) increasing the temperature in the vessel to the peak reaction heat treatment temperature for forming the ceramic insulated superconducting wire.
Hob apparatus, having at least two rectifier units (20, 22) which are provided to be connected to at least two different energy sources (14, 16), having at least two consumer load units (34, 36) which are each provided to be connected to a different unit of the at least two rectifier units (20, 22) in each case, and having at least one first switch unit which is provided to connect at least one of the consumer load units (34, 36) to at least the two rectifier units (20, 22) at the same time in at least one operating mode, characterised by at least one second switch unit which is provided to connect at least the two rectifier units (20, 22) to a single energy source in at least one operating mode.