mhurhangee/ep-ind-claims huggingface dataset:
A hand tool ( 100, 200, 300) comprising: a working head; a handle connected to the working head; and a handle protector (110, 302, 502) attached to the handle proximate the working head, wherein the handle protector (110, 302, 502) is manufactured from a metal sheet; at least one portion of the handle protector (110, 302, 502) extends into the handle to facilitate attachment of the handle protector (110, 302, 502) to the handle, wherein the handle protector (110, 302, 502) comprises a front member and two side members, wherein the front member and the side members form a substantially U-shape, characterized in that, each side member comprises at least one protrusion (310, 508), whereby each protrusion extends into a corresponding groove on the handle. a working head; a handle connected to the working head; and a handle protector (110, 302, 502) attached to the handle proximate the working head, wherein the handle protector (110, 302, 502) is manufactured from a metal sheet; at least one portion of the handle protector (110, 302, 502) extends into the handle to facilitate attachment of the handle protector (110, 302, 502) to the handle, wherein the handle protector (110, 302, 502) comprises a front member and two side members, wherein the front member and the side members form a substantially U-shape, characterized in that, each side member comprises at least one protrusion (310, 508), whereby each protrusion extends into a corresponding groove on the handle.
An edge protection and visual damage indication system for a composite blade stringer, the system comprising: the composite blade stringer comprising a base and a web, the web extending away from the base and defining an outer edge opposite the base, wherein the web is created by bonding together vertical portions of two angle charges of the blade stringer and the base is created by bonding the horizontal portions extending from the web to a stringer base material with a filler in between; and an edge treatment comprising a plurality of material layers, the edge treatment encompassing the outer edge of the web, extending from a first surface of the web to a second surface of the web, wherein the plurality of material layers of the edge treatment comprises two layers configured as a first pre-cured angle and a separatly provided second pre-cured angle, wherein each pre-cured angle comprises a vertical segment configured to abut the first surface or the second surface of the web, and a horizontal segment configured to abut the outer edge of the web or the horizontal segment of the other pre-cured angle such that the horizontal segments of the first pre-cured angle and the second pre-cured angle overlap on the outer edge of the web. the composite blade stringer comprising a base and a web, the web extending away from the base and defining an outer edge opposite the base, wherein the web is created by bonding together vertical portions of two angle charges of the blade stringer and the base is created by bonding the horizontal portions extending from the web to a stringer base material with a filler in between; and an edge treatment comprising a plurality of material layers, the edge treatment encompassing the outer edge of the web, extending from a first surface of the web to a second surface of the web, wherein the plurality of material layers of the edge treatment comprises two layers configured as a first pre-cured angle and a separatly provided second pre-cured angle,
Insulin-producing cells engineered to reduce expression of a β3 subunit of Cav (Cavβ3) for use in treating or limiting development of diabetes, wherein said insulin-producing cells are transplanted into the eye of a subject with diabetes or at risk of diabetes in an amount effective to treat or limit development of diabetes.
Support element adapted to connect a drying system of a household appliance configured to perform at least a drying cycle to a tub of said household appliance, said support element being made of a thermally insulating material, wherein said support element comprises: a. a base portion adapted to be fitted on said tub; b. a constraint portion adapted to grasp an engaging portion of said drying system, said constraint portion comprising: i. an upper part; ii. a lower part; and iii. a connection part connecting said upper part and said lower part; said upper part, lower part and connection part being made in one piece; characterized in that said upper part and said lower part are mutually spaced apart to form a housing for said engaging portion between said upper part and said lower part. a. a base portion adapted to be fitted on said tub; b. a constraint portion adapted to grasp an engaging portion of said drying system, said constraint portion comprising: i. an upper part; ii. a lower part; and iii. a connection part connecting said upper part and said lower part; i. an upper part; ii. a lower part; and iii. a connection part connecting said upper part and said lower part;
A positive electrode material for an electrical device, which is represented by the formula: aLi[Li 1/3 Mn 2/3]O 2 ·(1-a)Li[Ni x Co y Mn 1-x-y]O 2 wherein, 0 < a < 1, 0 < x < 0.5, and 0 < y < 0.3 and satisfies the relational expression: 2x + y < 1.
Pneumatic spring concertina with at least one ply of strengtheners which is arranged within the concertina wall, the concertina being fastened between two connection parts such that the concertina, by being filled with compressed air, forms a rolling fold adjacent to one connection part and an essentially cylindrical pneumatic spring chamber following the said rolling fold, the strengtheners of the individual plies being oriented at an angle to the concertina axis, the strengtheners being vulcanized in the concertina wall, in the regions of the rolling-fold formation of the concertina, at such an angle that, when the rolling fold rolls on the associated rolling contour, the amplitude of the tension change taking place in this case in the concertina wall is minimized, characterized in that the strengtheners are vulcanized in the concertina wall, in the regions of the rolling-fold formation of the concertina, at such an angle that, when the rolling fold rolls on the associated rolling contour, the amplitude of the fibre-angle change taking place in this case is minimized such that a medium tension state lying between the extremes of tensions is formed in the rolling-fold region.
A processing node comprising a processing agent configured to: receive measurement data indicative of a measurement of a first sensor corresponding to a first sensor node; perform a calculation using the measurement data in response to determining that real-time data is available from the first sensor node; and perform the calculation using cached data retrieved from the first sensor node in response to determining that the real-time data is not available from the first sensor node; and a sensor node manager configured to manage the first sensor node in response to the calculation. receive measurement data indicative of a measurement of a first sensor corresponding to a first sensor node; perform a calculation using the measurement data in response to determining that real-time data is available from the first sensor node; and perform the calculation using cached data retrieved from the first sensor node in response to determining that the real-time data is not available from the first sensor node; and
A gas-insulated bus comprising: a current-carrying conductor disposed along the axial direction of a metallic container that is filled with an insulating gas; a shield fitting through which the current-carrying conductor passes and that has a depressed portion formed on a portion of a barrel-shaped outer surface; an insulating support that has a second end thereof fixed in the depressed portion of the shield fitting and has a first end thereof fixed to the metallic container, and that supports the current-carrying conductor via the shield fitting; characterized by: an internal conductor that is implanted in the second end of the insulating support and that, along with the second end, is positioned in the depressed portion and fixed to the shield fitting; and a contact that is attached to the inner surface of the shield fitting, that is disposed in a space formed on the inside of the shield fitting, and that makes contact with the current-carrying conductor so as to maintain the shield fitting and the current-carrying conductor at the same electric potential, wherein the internal conductor has such a shape that the internal conductor and the shield fitting together form a substantially barrel-like profile. a current-carrying conductor disposed along the axial direction of a metallic container that is filled with an insulating gas; a shield fitting through which the current-carrying conductor passes and that has a depressed portion formed on a portion of a barrel-shaped outer surface; an insulating support that has a second end thereof fixed in the depressed portion of the shield fitting and has a first end thereof fixed to the metallic container, and that supports the current-carrying conductor via the shield fitting; characterized by: an internal conductor that is implanted in the second end of the insulating support and that, along with the second end, is positioned in the depressed portion and fixed to the shield fitting; and a contact that is attached to the inner surface of the shield fitting, that is disposed in a space formed on the inside of the shield fitting, and that makes contact with the current-carrying conductor so as to maintain the shield fitting and the current-carrying conductor at the same electric potential, an internal conductor that is implanted in the second end of the insulating support and that, along with the second end, is positioned in the depressed portion and fixed to the shield fitting; and a contact that is attached to the inner surface of the shield fitting, that is disposed in a space formed on the inside of the shield fitting, and that makes contact with the current-carrying conductor so as to maintain the shield fitting and the current-carrying conductor at the same electric potential, wherein the internal conductor has such a shape that the internal conductor and the shield fitting together form a substantially barrel-like profile.
Auxiliary electric heating equipment for a motor vehicle, comprising one or more heating rods comprising resistors with a positive temperature coefficient, and a power electronics stage alternately powering each heating rod on and off, according to a cyclic ratio that can be adjusted by control means, characterized in that said equipment comprises means for limiting the actual intensity of the current passing through the power electronics stage, by measuring the peak current passing through at least one heating rod and by comparing the measured peak current value with a peak current value read in a table for the current cyclic ratio, and by decreasing the cyclic ratio if the measured peak current exceeds the peak current value read in the lookup table, the peak current value read in the lookup table corresponding to the maximum effective current value allowable by the management unit for the cyclic ratio in question.
Articulated lever for a device for moving a furniture part received on a furniture carcass of an item of furniture, wherein the articulated lever has a spacer member in the form of a first and a second embossing (29, 32), wherein the first embossing is present on a first side of the first articulated lever, and the second embossing is present on a second side of the first articulated lever, wherein the first and the second side (21, 33) of the first articulated lever are present opposite one another and spaced apart from one another, wherein the first and the second embossing (29, 32) are present opposite one another, characterized in that the first embossing has in the azimuthal and/or radial direction, about a centre, an elevation and a depression relative to a remaining surface of the first side, and the second embossing has in the azimuthal and/or radial direction, about a centre, an elevation and a depression relative to a remaining surface of the second side, wherein the articulated lever has an attachment means in the form of a through-opening which extends starting from the first side of the articulated lever to the opposite second side of the articulated lever, and wherein the first and/or the second embossing (29, 32) are or is formed to extend about the opening, wherein the first embossing and/or the second embossing (29, 32) have or has a bearing surface, wherein the bearing surface is formed in such a way that a further element of the device can be arranged in particular to bear flat against the bearing surface.
Electromagnetic flow measuring device to determine a flow velocity-dependent measured variable of a flowable medium in a measuring tube or in piping, comprising: - a device for tapping a measured voltage induced in a flowable medium, in particular at least two measuring electrodes (3, 4) to establish galvanic contact with the medium; and - a device for generating a magnetic field, wherein the device for generating the magnetic field comprises a field guide arrangement and a coil arrangement, characterized in that the device for generating the magnetic field is arranged in a housing, wherein the field guide arrangement serves as a sensor electrode for determining capacitance and/or monitoring at least one process variable, in particular the fill level of the medium in the piping or measuring tube. - a device for tapping a measured voltage induced in a flowable medium, in particular at least two measuring electrodes (3, 4) to establish galvanic contact with the medium; and - a device for generating a magnetic field, wherein the device for generating the magnetic field comprises a field guide arrangement and a coil arrangement, characterized in that the device for generating the magnetic field is arranged in a housing, wherein the field guide arrangement serves as a sensor electrode for determining capacitance and/or monitoring at least one process variable, in particular the fill level of the medium in the piping or measuring tube.
A method for manufacturing an aluminum alloy thick plate from an aluminum alloy, the aluminum alloy containing Mg in a content of 1.5 percent by mass or more and 12.0 percent by mass or less, and further containing at least one member selected from the group consisting of Si in a content of 0.7 percent by mass or less, Fe in a content of 0.8 percent by mass or less, Cu in a content of 0.6 percent by mass or less, Mn in a content of 1.0 percent by mass or less, Cr in a content of 0.5 percent by mass or less, Zn in a content of 0.4 percent by mass or less, Ti in a content of 0.1 percent by mass or less, and Zr in a content of 0.3 percent by mass or less, with the remainder being aluminum and inevitable impurities, the method comprising in the following order: a melting step of melting the aluminum alloy; a hydrogen gas removal step of removing hydrogen gas from the molten aluminum alloy; a filtration step of filtering the aluminum alloy, from which hydrogen gas have been removed, to remove inclusions from the aluminum alloy; a casting step of casting the aluminum alloy, from which inclusions have been removed, into a slab; a slicing step of slicing the slab into an aluminum alloy thick plate having a predetermined thickness; and a heat treatment step of thermally treating the aluminum alloy thick plate having a predetermined thickness by holding the same at a temperature of 400°C or higher but lower than its melting point for one hour or longer. a melting step of melting the aluminum alloy; a hydrogen gas removal step of removing hydrogen gas from the molten aluminum alloy; a filtration step of filtering the aluminum alloy, from which hydrogen gas have been removed, to remove inclusions from the aluminum alloy; a casting step of casting the aluminum alloy, from which inclusions have been removed, into a slab; a slicing step of slicing the slab into an aluminum alloy thick plate having a predetermined thickness; and a heat treatment step of thermally treating the aluminum alloy thick plate having a predetermined thickness by holding the same at a temperature of 400°C or higher but lower than its melting point for one hour or longer.
A catalyst for a hydrogenation reaction, the catalyst comprising: a polymer support; and a catalytic component supported on the polymer support, wherein the polymer support comprises a repeating unit represented by the following Formula 1: in Formula 1, L1 and L3 are the same as or different from each other, and are each independently O or NH, L2 is O, R1 and R2 are the same as or different from each other, and are each independently hydrogen, an alkyl group having 1 to 10 carbon atoms, or an aryl group having 6 to 20 carbon atoms, m is 0 or 1, and p and q are each independently an integer from 0 to 4, and wherein Formula 1 is represented by any one of the following Formulae 3 to 4 and 6 to 10: a polymer support; and a catalytic component supported on the polymer support, wherein the polymer support comprises a repeating unit represented by the following Formula 1: in Formula 1, L1 and L3 are the same as or different from each other, and are each independently O or NH, L2 is O, R1 and R2 are the same as or different from each other, and are each independently hydrogen, an alkyl group having 1 to 10 carbon atoms, or an aryl group having 6 to 20 carbon atoms, m is 0 or 1, and p and q are each independently an integer from 0 to 4, and wherein Formula 1 is represented by any one of the following Formulae 3 to 4 and 6 to 10:
Process for the functionalization of a rubber polymer, comprising reacting the rubber polymer with at least one source of nitrene or carbene, in the presence of a catalyst of formula Tp x Ag, wherein Tp x represents a tris(pyrazolyl)borate ligand.
A tracheostoma valve for attachment to a tracheostoma valve plaster, comprising: a tubular base portion with a proximal opening through which inhaled and exhaled air may exit and enter, respectively, the tracheostoma valve; a distal lid portion arranged distally of the tubular base portion, said distal lid portion having a distal opening through which inhaled and exhaled air may enter and exit, respectively, the tracheostoma valve; a valve flap member for closing the distal opening via interaction between a front side of said valve flap member and the edge of the distal opening; and a valve retaining arm for interaction with said valve flap member to prevent said valve flap member from interacting with said distal opening, and characterized in that the valve retaining arm is rotatable in a transversal plane of the tracheostoma valve between at least a first and a second position, for allowing interaction and release of the valve flap member in said first and second position, respectively. a tubular base portion with a proximal opening through which inhaled and exhaled air may exit and enter, respectively, the tracheostoma valve; a distal lid portion arranged distally of the tubular base portion, said distal lid portion having a distal opening through which inhaled and exhaled air may enter and exit, respectively, the tracheostoma valve; a valve flap member for closing the distal opening via interaction between a front side of said valve flap member and the edge of the distal opening; and a valve retaining arm for interaction with said valve flap member to prevent said valve flap member from interacting with said distal opening, and characterized in that the valve retaining arm is rotatable in a transversal plane of the tracheostoma valve between at least a first and a second position, for allowing interaction and release of the valve flap member in said first and second position, respectively.
A method of manufacturing a plate-integrated gasket for a fuel battery cell, in which a gasket body (3, 4) formed of a rubber-like elastic material is integrally formed at both sides of a peripheral edge portion of a separator plate in the thickness direction, wherein both sides of the plate in the thickness direction are provided with belt-shaped grooves (11, 12) extending along peripheral edges, wherein, when the plate is disposed to be positioned between split dies (21, 22) of a metal mold and is clamped, gasket molding cavities (23, 24) are respectively defined among the split dies (21, 22) and the belt-shaped grooves (11, 12) at both sides of the peripheral edge portion of the plate, characterized in that a portion of the plate between the belt-shaped grooves (11, 12), which is located between the gasket molding cavities (23, 24) defined by clamping the plate between the split dies (21, 22) of the metal mold, includes a thick portion at least at a position facing an opening of a gate, through which a molding material is injected into the cavities (23, 24).
A highly corrosion-resistant, rust-prevention coating material comprising: an inorganic binder or an organic binder; and Zn alloy particles comprising, in mass%, Mg: 0.01 to 30% as well as optionally one or both of Al: 0.01 to 30% and Si: 0.01 to 3%, and a balance of Zn and unavoidable impurities and dispersed in the binder at the rate of 30 mass% or greater based on a dry coating film, wherein (i) the Zn alloy particles include (i-1) fine-grain Zn alloy particles of 0.05 to 5 μm peak grain diameter whose grain-diameter distribution has a grain-diameter frequency distribution with a single peak and a tail on either side of the peak and (i-2) coarse-grain Zn alloy particles of 6 to 100 μm peak grain diameter whose grain-diameter distribution has a grain-diameter frequency distribution with another single peak and a tail on either side of the peak, and wherein (ii) the percentage of all Zn alloy particles accounted for by Zn alloy particles of 0.05 to 5 μm grain diameter expressed in volume percentage is 5 to 99%. an inorganic binder or an organic binder; and Zn alloy particles comprising, in mass%, Mg: 0.01 to 30% as well as optionally one or both of Al: 0.01 to 30% and Si: 0.01 to 3%, and a balance of Zn and unavoidable impurities and dispersed in the binder at the rate of 30 mass% or greater based on a dry coating film, wherein (i) the Zn alloy particles include (i-1) fine-grain Zn alloy particles of 0.05 to 5 μm peak grain diameter whose grain-diameter distribution has a grain-diameter frequency distribution with a single peak and a tail on either side of the peak and (i-2) coarse-grain Zn alloy particles of 6 to 100 μm peak grain diameter whose grain-diameter distribution has a grain-diameter frequency distribution with another single peak and a tail on either side of the peak, and wherein (ii) the percentage of all Zn alloy particles accounted for by Zn alloy particles of 0.05 to 5 μm grain diameter expressed in volume percentage is 5 to 99%.