mhurhangee/ep-ind-claims huggingface dataset:
A tire manufacturing method comprising: a frame forming process of forming a tire frame member, configured including a bead portion, a side portion connected to a tire radial direction outer side of the bead portion, and a crown portion linked to a tire width direction inner side of the side portion, using a resin material; an unvulcanized rubber placement process of disposing unvulcanized rubber so as to span from an outer face of the side portion across to an inner face of the bead portion of the tire frame member; and a vulcanization process of vulcanization molding the unvulcanized rubber using a vulcanization machine in which recessed portions are formed in an inner side mold face among mold faces for vulcanization molding the unvulcanized rubber, the inner side mold face being for vulcanization molding part of the unvulcanized rubber disposed on the inner face of the bead portion, such that plural ribs are formed at spacings about a tire circumferential direction to an inner face spanning from a bead toe to an inside end portion at the tire inside of the covering rubber. a frame forming process of forming a tire frame member, configured including a bead portion, a side portion connected to a tire radial direction outer side of the bead portion, and a crown portion linked to a tire width direction inner side of the side portion, using a resin material; an unvulcanized rubber placement process of disposing unvulcanized rubber so as to span from an outer face of the side portion across to an inner face of the bead portion of the tire frame member; and a vulcanization process of vulcanization molding the unvulcanized rubber using a vulcanization machine in which recessed portions are formed in an inner side mold face among mold faces for vulcanization molding the unvulcanized rubber, the inner side mold face being for vulcanization molding part of the unvulcanized rubber disposed on the inner face of the bead portion, such that plural ribs are formed at spacings about a tire circumferential direction to an inner face spanning from a bead toe to an inside end portion at the tire inside of the covering rubber.
Electrical assembly, notably a capacitive unit, comprising a capacitive element, at least one electrical connector secured to said capacitive element, and a housing having a bottom, a sidewall and an opening via which the capacitive element is inserted, said housing comprising at least one shoulder on the side of the opening, said shoulder forming an abutment surface configured so that said at least one electrical connector can bear against it, so as to support said capacitive element.
A tool for adjusting the amount of powdered material contained in a vessel, characterized in that it comprises an storage reservoir of an excess of powdered material contained in said vessel, a lower wall configured to be positioned inside said vessel, a side wall configured to rotatably support said tool resting on a peripheral edge of said vessel and to position said lower wall at a fixed or adjustable predetermined height inside said vessel, said lower wall having at least a first blade configured to pick up said excess of powdered material and at least one transfer passage for transferring at least most of said excess of powdered material picked up from said first blade towards said storage reservoir.
A liquid crystal display device, comprising: a first substrate and a second substrate facing each other; a liquid crystal layer between the first substrate and the second substrate; an alignment layer on at least one of the first and second substrates for alignment of liquid crystals in the liquid crystal layer, the alignment layer comprising a direction of alignment established by first UV rays, and furthermore comprising a compound including a maleimide functional group generated by the first UV rays; and a sealant in an edge area of each of the first and second substrates to bond the first substrate to the second substrate, the sealant contacting the alignment layer, wherein the sealant includes a diene compound configured to react with the maleimide functional group of the alignment layer under application of second UV rays such that the diene compound can be chemically bonded to the maleimide functional group of the alignement layer and the wavelength range of the second UV rays does not overlap the wavelength range of the first UV rays. a first substrate and a second substrate facing each other; a liquid crystal layer between the first substrate and the second substrate; an alignment layer on at least one of the first and second substrates for alignment of liquid crystals in the liquid crystal layer, the alignment layer comprising a direction of alignment established by first UV rays, and furthermore comprising a compound including a maleimide functional group generated by the first UV rays; and a sealant in an edge area of each of the first and second substrates to bond the first substrate to the second substrate, the sealant contacting the alignment layer, wherein the sealant includes a diene compound configured to react with the maleimide functional group of the alignment layer under application of second UV rays such that the diene compound can be chemically bonded to the maleimide functional group of the alignement layer and the wavelength range of the second UV rays does not overlap the wavelength range of the first UV rays.
A method of coating a refractory alloy workpiece, comprising the steps of: - Surface application on at least one area of the workpiece of a treatment composition, the treatment composition comprising at least one type of preceramic polymer and a solvent, - Heat treatment of the workpiece coated with the treatment composition, the heat treatment being configured to at least partially convert the preceramic polymer to ceramic and form a coating, the coating being configured to protect the refractory alloy from oxidation and wherein the treatment composition also comprises so-called active fillers configured to migrate by diffusion to the refractory alloy during the heat treatment and form an alloy on the surface of the workpiece, the alloy being located between the workpiece and the ceramic, the alloy being configured to generate a protective oxide layer when subjected to oxidizing conditions. - Surface application on at least one area of the workpiece of a treatment composition, the treatment composition comprising at least one type of preceramic polymer and a solvent, - Heat treatment of the workpiece coated with the treatment composition, the heat treatment being configured to at least partially convert the preceramic polymer to ceramic and form a coating, the coating being configured to protect the refractory alloy from oxidation
An electric motor comprising: a frame; a rotor assembly comprising a magnet, a bearing assembly, an impeller, and a shaft; and a stator assembly comprising a stator core and a bobbin; the frame having an inner wall and an outer wall, the outer wall surrounding the inner wall and defining an annular channel between the inner wall and the outer wall, and diffuser vanes extending from the inner wall to the outer wall through the annular channel, the inner wall defining a bore for supporting the rotor assembly, and the outer wall defining a substantially cylindrical outer casing of the motor, wherein the diffuser vanes have tail portions that extend axially beyond the inner wall to the outer wall. a frame; a rotor assembly comprising a magnet, a bearing assembly, an impeller, and a shaft; and a stator assembly comprising a stator core and a bobbin; the frame having an inner wall and an outer wall, the outer wall surrounding the inner wall and defining an annular channel between the inner wall and the outer wall, and diffuser vanes extending from the inner wall to the outer wall through the annular channel, the inner wall defining a bore for supporting the rotor assembly, and the outer wall defining a substantially cylindrical outer casing of the motor, wherein the diffuser vanes have tail portions that extend axially beyond the inner wall to the outer wall.
A compact ultrasonic flowmeter for measuring flowrate and other fluid related data, comprising: - a flow tube with a flow bore for passage of the fluid between an inlet and an outlet; - a flowmeter housing associated with the flow tube; - a printed circuit board arranged in the flowmeter housing and including a processor for controlling operations of the flowmeter; - a meter circuit including two or more ultrasonic transducers provided on the printed circuit board and configured for operating the ultrasonic transducers to transmit and receive ultrasonic wave packets through the fluid; - a display mounted on the printed circuit board and configured for displaying a measured flowrate and other fluid related data; - one or more battery packs for powering flowmeter operations including at least the processor and the meter circuit and the display; characterized in that the ultrasonic flowmeter is provided with a single printed circuit board wherein the processor and the ultrasonic transducers being surface mounted on a lower side of the single printed circuit board and the display being mounted on an upper side of the single printed circuit board, said display being provided with pins which are arranged in through-holes in the printed circuit board and selective soldered on the lower side and where the one or more battery packs are mounted on the lower side of the printed circuit board and extend in longitudinal direction of the flowmeter along the flow tube. - a flow tube with a flow bore for passage of the fluid between an inlet and an outlet; - a flowmeter housing associated with the flow tube; - a printed circuit board arranged in the flowmeter housing and including a processor for controlling operations of the flowmeter; - a meter circuit including two or more ultrasonic transducers provided on the printed circuit board and configured for operating the ultrasonic transducers to transmit and receive ultrasonic wave packets through the fluid; - a display mounted on the printed circuit board and configured for displaying a measured flowrate and other fluid related data; - one or more battery packs for powering flowmeter operations including at least the processor and the meter circuit and the display;
A liquid ejection head comprising: a flow path member comprising a plurality of ejection holes, a plurality of pressurizing chambers respectively connected to the plurality of ejection holes, a plurality of first flow paths respectively connected to the plurality of pressurizing chambers, a plurality of second flow paths respectively connected to the plurality of pressurizing chambers, and a third flow path connected in common to the plurality of first flow paths and the plurality of second flow paths; and a plurality of pressurizing units for respectively pressurizing a liquid inside the plurality of pressurizing chambers, characterized in that a decimal place value of T1/T0 is 1/8 to 7/8, where T0 denotes a resonance period of one of the plurality of pressurizing chambers and T1 denotes a time required for a pressure wave to circulate once around an annular flow path sequentially passing through the one of the plurality of pressurizing chambers, one of the plurality of first flow paths, the third flow path, and one of the plurality of second flow paths. a flow path member comprising a plurality of ejection holes, a plurality of pressurizing chambers respectively connected to the plurality of ejection holes, a plurality of first flow paths respectively connected to the plurality of pressurizing chambers, a plurality of second flow paths respectively connected to the plurality of pressurizing chambers, and a third flow path connected in common to the plurality of first flow paths and the plurality of second flow paths; and a plurality of ejection holes, a plurality of pressurizing chambers respectively connected to the plurality of ejection holes, a plurality of first flow paths respectively connected to the plurality of pressurizing chambers, a plurality of second flow paths respectively connected to the plurality of pressurizing chambers, and a third flow path connected in common to the plurality of first flow paths and the plurality of second flow paths; and a plurality of pressurizing units for respectively pressurizing a liquid inside the plurality of pressurizing chambers, characterized in that a decimal place value of T1/T0 is 1/8 to 7/8, where T0 denotes a resonance period of one of the plurality of pressurizing chambers and T1 denotes a time required for a pressure wave to circulate once around an annular flow path sequentially passing through the one of the plurality of pressurizing chambers, one of the plurality of first flow paths, the third flow path, and one of the plurality of second flow paths.
A cast steel railway wheel comprising: a hub having an axial bore; a rim concentric with the bore; and a plate extending substantially radially from the hub to the rim, the plate having a front face and a rear face, the plate having a thickness dimension defined between the front and rear faces; the cast steel railway wheel characterised in that: the plate has a plurality of spokes extending between the hub and the rim, adjacent spokes having different thicknesses defined between the front face and the rear face, wherein the spokes have hub ends and rim ends, and wherein the spokes comprise a series of circumferentially positioned and alternating major and minor spokes, the thicknesses of the minor spokes at the hub ends being significantly less than the thicknesses of the major spokes at the hub ends, the thicknesses of the minor spokes at the rim ends being approximately equal to the thicknesses of the major spokes at the rim ends. a hub having an axial bore; a rim concentric with the bore; and a plate extending substantially radially from the hub to the rim, the plate having a front face and a rear face, the plate having a thickness dimension defined between the front and rear faces; the cast steel railway wheel characterised in that: the plate has a plurality of spokes extending between the hub and the rim, adjacent spokes having different thicknesses defined between the front face and the rear face, wherein the spokes have hub ends and rim ends, and wherein the spokes comprise a series of circumferentially positioned and alternating major and minor spokes, the thicknesses of the minor spokes at the hub ends being significantly less than the thicknesses of the major spokes at the hub ends, the thicknesses of the minor spokes at the rim ends being approximately equal to the thicknesses of the major spokes at the rim ends. the plate has a plurality of spokes extending between the hub and the rim, adjacent spokes having different thicknesses defined between the front face and the rear face, wherein the spokes have hub ends and rim ends, and wherein the spokes comprise a series of circumferentially positioned and alternating major and minor spokes, the thicknesses of the minor spokes at the hub ends being significantly less than the thicknesses of the major spokes at the hub ends, the thicknesses of the minor spokes at the rim ends being approximately equal to the thicknesses of the major spokes at the rim ends.
A laser level (10; 40) for placing on a horizontal reference surface, the laser level comprising: (a) a laser level body for projecting a laser beam, said laser level body having a generally flat top surface, a generally flat base surface opposite said generally flat top surface, and a peripheral surface; and (b) an adjustable stand including: a left frame (31A; 41A) and a right frame (31B; 41B), said left frame and said right frame each being manually pivotal on said laser level body, independently of one another, to a multitude of respective intermediate frame positions (P2-P10) between a fully closed frame position in which said respective frame is flush against said peripheral surface and a fully open frame position, said adjustable stand capable of selectively inclining said laser level body with respect to the horizontal reference surface and raising said laser level body to a maximum height above the horizontal reference surface in said fully open frame positions of said left frame and said right frame. (a) a laser level body for projecting a laser beam, said laser level body having a generally flat top surface, a generally flat base surface opposite said generally flat top surface, and a peripheral surface; and (b) an adjustable stand including: a left frame (31A; 41A) and a right frame (31B; 41B), said left frame and said right frame each being manually pivotal on said laser level body, independently of one another, to a multitude of respective intermediate frame positions (P2-P10) between a fully closed frame position in which said respective frame is flush against said peripheral surface and a fully open frame position, said adjustable stand capable of selectively inclining said laser level body with respect to the horizontal reference surface and raising said laser level body to a maximum height above the horizontal reference surface in said fully open frame positions of said left frame and said right frame. a left frame (31A; 41A) and a right frame (31B; 41B), said left frame and said right frame each being manually pivotal on said laser level body, independently of one another, to a multitude of respective intermediate frame positions (P2-P10) between a fully closed frame position in which said respective frame is flush against said peripheral surface and a fully open frame position, said adjustable stand capable of selectively inclining said laser level body with respect to the horizontal reference surface and raising said laser level body to a maximum height above the horizontal reference surface in said fully open frame positions of said left frame and said right frame.
A process for manufacturing insulating products based on mineral wool, comprising - the application, onto mineral wool fibers, of a binder composition containing (a) at least one carbohydrate selected from reducing sugars, nonreducing sugars, hydrogenated sugars and a mixture thereof, (b) at least one crosslinking agent for crosslinking the carbohydrate(s), - the evaporation of the solvent phase of the binder composition and - the thermal curing of the non-volatile fraction of the composition, said process being characterized in that a polysacchande-free oil-in-water emulsion comprising water, a mineral oil and from 0.5 to 5.0 parts by weight per 100 parts by weight of mineral oil of at least one preferably nonionic surfactant, is added to the binder composition, preferably immediately before the application thereof onto the mineral wool fibers, the mean diameter, determined by laser diffraction particle size analysis, of the oil droplets of the oil-in-water emulsion being comprised between more than 5 μm and 400 μm, the proportion of oil in the oil-in-water emulsion being comprised between 30 and 70 weight %, and the amount of mineral oil applied to the mineral wool fibers being comprised between 0,1 and 2,0 %, with respect to the mineral fibers. - the application, onto mineral wool fibers, of a binder composition containing (a) at least one carbohydrate selected from reducing sugars, nonreducing sugars, hydrogenated sugars and a mixture thereof, (b) at least one crosslinking agent for crosslinking the carbohydrate(s), (a) at least one carbohydrate selected from reducing sugars, nonreducing sugars, hydrogenated sugars and a mixture thereof, (b) at least one crosslinking agent for crosslinking the carbohydrate(s), - the evaporation of the solvent phase of the binder composition and - the thermal curing of the non-volatile fraction of the composition,
An air pollution control device (10; 80) for reducing amounts of a nitrogen oxide and mercury contained in a flue gas from a boiler, the device comprising: a reduction-oxidation auxiliary agent supply unit for spraying in a liquid state a reduction-oxidation auxiliary agent that produces an oxidizing gas and a reducing gas upon gasification thereof into a flue gas duct at a downstream of the boiler; a mixing unit provided on a downstream side of a region where the reduction-oxidation auxiliary agent is gasified, for promoting mixing of the oxidizing gas and the reducing gas, which are produced upon the gasification of the reduction-oxidation auxiliary agent, with the flue gas; a reduction-denitration unit including a denitration catalyst for reducing a nitrogen oxide in the flue gas with the reducing gas and for oxidizing mercury under coexistence with the oxidizing gas; and a wet desulfurization unit for reducing the amount of mercury oxidized in the reduction-denitration unit using an alkali absorbent characterized by comprising a plurality of guide vanes provided with mixing promoting auxiliary members and disposed on the upstream side of the reduction-nitration device and downstream of the mixing unit for promoting the mixing of the HCl gas and the NH3 gas into the flue gas, the mixing promoting auxiliary members consisting of a plurality of plate-shaped members extending in a direction perpendicular to ribs for connection between the plurality of guide vanes for disturbing the gas flow of the flue gas. a reduction-oxidation auxiliary agent supply unit for spraying in a liquid state a reduction-oxidation auxiliary agent that produces an oxidizing gas and a reducing gas upon gasification thereof into a flue gas duct at a downstream of the boiler; a mixing unit provided on a downstream side of a region where the reduction-oxidation auxiliary agent is gasified, for promoting mixing of the oxidizing gas and the reducing gas, which are produced upon the gasification of the reduction-oxidation auxiliary agent, with the flue gas; a reduction-denitration unit including a denitration catalyst for reducing a nitrogen oxide in the flue gas with the reducing gas and for oxidizing mercury under coexistence with the oxidizing gas; and a wet desulfurization unit for reducing the amount of mercury oxidized in the reduction-denitration unit using an alkali absorbent