mhurhangee/ep-ind-claims huggingface dataset:
A ground covering comprising: a base panel including a sheet with an array of protrusions extending therefrom; a top panel including an array of receptacles for mating with at least a number of said protrusions; one or more drainage conduits formed through each of the protrusions, each drainage conduit being at least partially occluded by a baffle; complementary engagement formations on peripheries of the protrusions and of the receptacles for fastening the top panel to the base panel; characterized in that each protrusion comprises a plate with a skirt thereabout and the sheet is formed with openings therethrough, wherein each plate is located over one of the openings and held fast by one or more support members extending from the sheet to the skirt. a base panel including a sheet with an array of protrusions extending therefrom; a top panel including an array of receptacles for mating with at least a number of said protrusions; one or more drainage conduits formed through each of the protrusions, each drainage conduit being at least partially occluded by a baffle; complementary engagement formations on peripheries of the protrusions and of the receptacles for fastening the top panel to the base panel; characterized in that each protrusion comprises a plate with a skirt thereabout and the sheet is formed with openings therethrough, wherein each plate is located over one of the openings and held fast by one or more support members extending from the sheet to the skirt.
Carrier core particle for an electrophotographic developer for development of electrophotographic images comprising: a core composition expressed by a general formula: (Mn x Mg y Ca z) Fe W O 4+V (x+y+z+w=3, -0.003<v) as a main ingredient, the core composition having manganese and iron as main ingredients, and wherein 0.05≤y≤0.35 and 0.005≤z≤0.024, wherein x is quantitatively analyzed in conformity with a ferromanganese analysis method shown in JIS G1311-1987, y and z are quantitatively analyzed with ICP, v is obtained by quantifying Fe 2+ and total Fe through oxidation-reduction titration and calculated from the resultant quantities of Fe 2+ and Fe 3+, and w is determined from a formula: Mn valence (valence of +2) * x + average valence of Fe * (3-x) = oxygen valence (valence of - 2) * (4+w). a core composition expressed by a general formula: (Mn x Mg y Ca z) Fe W O 4+V (x+y+z+w=3, -0.003<v) as a main ingredient, the core composition having manganese and iron as main ingredients, and wherein 0.05≤y≤0.35 and 0.005≤z≤0.024, wherein x is quantitatively analyzed in conformity with a ferromanganese analysis method shown in JIS G1311-1987, y and z are quantitatively analyzed with ICP, v is obtained by quantifying Fe 2+ and total Fe through oxidation-reduction titration and calculated from the resultant quantities of Fe 2+ and Fe 3+, and w is determined from a formula: Mn valence (valence of +2) * x + average valence of Fe * (3-x) = oxygen valence (valence of - 2) * (4+w).
A method for programming a plurality of motor drives, said plurality of motor drives being adapted to receive three-phase power and to convert a fixed frequency input power to controlled frequency output power to be applied to a motor, comprising: acquiring a configuration file on a workstation, wherein the configuration file is indicative of a programming configuration of the plurality of motor drives, wherein the programming configuration includes one or more configurations relating to the basic operation of the motor drives and one or more application specific configurations, wherein the one or more configurations relating to the basic operation of the motor drives include one or more of communication protocols, particular motor drive regimes and techniques for driving solid state switches, and wherein the one or more application specific configurations include parameter designations, parameter settings and particular motion profiles; communicatively coupling the workstation to the plurality of motor drives; and transferring the programming configuration to each of the plurality of motor drives communicatively coupled to the workstation, wherein transferring the programming configuration to each of the plurality of motor drives comprises adding to or replacing at least a portion of the programming configuration of each of the plurality of motor drives, and wherein the programming configuration comprises operator parameter settings. acquiring a configuration file on a workstation, wherein the configuration file is indicative of a programming configuration of the plurality of motor drives, wherein the programming configuration includes one or more configurations relating to the basic operation of the motor drives and one or more application specific configurations, wherein the one or more configurations relating to the basic operation of the motor drives include one or more of communication protocols, particular motor drive regimes and techniques for driving solid state switches, and wherein the one or more application specific configurations include parameter designations, parameter settings and particular motion profiles; communicatively coupling the workstation to the plurality of motor drives; and transferring the programming configuration to each of the plurality of motor drives communicatively coupled to the workstation, wherein transferring the programming configuration to each of the plurality of motor drives comprises adding to or replacing at least a portion of the programming configuration of each of the plurality of motor drives, and wherein the programming configuration comprises operator parameter settings.
A TNF family ligand trimer-containing antigen binding molecule comprising (a) at least one antigen binding moiety capable of specific binding to Tenascin-C (TnC), (b) a first and a second polypeptide that are linked to each other by a disulfide bond, wherein the antigen binding molecule is characterized in that the first polypeptide comprises two ectodomains of a TNF ligand family member or a fragment thereof that are connected to each other by a peptide linker and in that the second polypeptide comprises only one ectodomain of said TNF ligand family member or a fragment thereof, and (c) an Fc domain composed of a first and a second subunit capable of stable association, wherein the TNF ligand family member is 4-1BBL. (a) at least one antigen binding moiety capable of specific binding to Tenascin-C (TnC), (b) a first and a second polypeptide that are linked to each other by a disulfide bond, wherein the antigen binding molecule is characterized in that the first polypeptide comprises two ectodomains of a TNF ligand family member or a fragment thereof that are connected to each other by a peptide linker and in that the second polypeptide comprises only one ectodomain of said TNF ligand family member or a fragment thereof, and (c) an Fc domain composed of a first and a second subunit capable of stable association, wherein the TNF ligand family member is 4-1BBL.
A winding wire comprising a stranded wire formed by twisting a plurality of element wires, the element wire having a copper wire having a wire diameter of 0.05 to 0.5 mm; and an extrusion coating layer coating the plurality of the element wires, wherein at least one of the element wires has a magnetic layer on an outer circumference of the copper wire, and the thickness of the extrusion coating layer is 40 to 400 μm.
A vehicle suspension system, comprising: a first suspension component; a second suspension component having an opening and a generally planar surface around said opening; a socket assembly including a housing which is operably connected with said first suspension component and has an inner bore; said socket assembly further including a stud which extends along an axis out of said inner bore of said housing and is operably connected with said second suspension component; a dust boot including a dust boot body made as one integral piece of an elastomeric material and extending from a first end portion that is sealed against said housing of said socket assembly to a second end portion; the second end portion of said dust boot body including a first sealing feature which has a plurality of circumferentially spaced ribs that are in surface-to-surface contact with said stud and has a plurality of circumferentially spaced grooves separating said ribs; and the second end portion of said dust boot body further including a second sealing feature which is spaced from said first sealing feature and is sealed against said generally planar surface of said second suspension component; characterised by said first sealing feature further including a plurality of relief valves positioned in said grooves and sealed against said stud and extending axially away from said first suspension component for allowing a lubricant to pass said first sealing feature in one direction and for restricting the passage of contaminants in an opposite direction. a first suspension component; a second suspension component having an opening and a generally planar surface around said opening; a socket assembly including a housing which is operably connected with said first suspension component and has an inner bore; said socket assembly further including a stud which extends along an axis out of said inner bore of said housing and is operably connected with said second suspension component; a dust boot including a dust boot body made as one integral piece of an elastomeric material and extending from a first end portion that is sealed against said housing of said socket assembly to a second end portion; the second end portion of said dust boot body including a first sealing feature which has a plurality of circumferentially spaced ribs that are in surface-to-surface contact with said stud and has a plurality of circumferentially spaced grooves separating said ribs; and the second end portion of said dust boot body further including a second sealing feature which is spaced from said first sealing feature and is sealed against said generally planar surface of said second suspension component; characterised by said first sealing feature further including a plurality of relief valves positioned in said grooves and sealed against said stud and extending axially away from said first suspension component for allowing a lubricant to pass said first sealing feature in one direction and for restricting the passage of contaminants in an opposite direction.
A method for wireless communications by a user equipment, UE (120, 830), comprising: performing a first measurement procedure based on a first set of resources to determine a metric indicative of a channel condition; determining a second set of resources to use to enhance measurement of the metric indicative of the channel condition, based on information received from a base station (110, 810), wherein the second set of resources includes resources used for data or system information transmission during the first measurement procedure; and performing a second measurement procedure based at least on the second set of resources and one or more measurement parameters. performing a first measurement procedure based on a first set of resources to determine a metric indicative of a channel condition; determining a second set of resources to use to enhance measurement of the metric indicative of the channel condition, based on information received from a base station (110, 810), wherein the second set of resources includes resources used for data or system information transmission during the first measurement procedure; and performing a second measurement procedure based at least on the second set of resources and one or more measurement parameters.
A method of controlling a gas turbine engine having in axial flow series, a booster compressor, a core compressor, combustion equipment, a core turbine, and a low-pressure turbine, the core turbine driving the core compressor via an interconnecting high-pressure shaft, the low-pressure turbine driving the booster compressor via an interconnecting low pressure shaft, and the low-pressure turbine also driving an external load having a defined speed characteristic that dictates the speed of the low-pressure turbine and booster compressor, the booster compressor having one or more rows of variable stator vanes, wherein the method includes: scheduling variation in the angle of the variable stator vanes as a function of the speed of the booster compressor such that the vanes open as the booster compressor speed increases; measuring or setting one or more operational parameters which are determinative of the temperature at entry to the core turbine; and biasing the scheduling of the angle variation of the variable stator vanes as a function of the operational parameter(s) across a range of engine power demand levels and/or across a range of air temperatures at the inlet of an air intake to the engine such that the angle of the variable stator vanes is changed whilst the speed of the booster compressor remains fixed, and regulating fuel flow, to maintain a constant temperature at entry to the core turbine. scheduling variation in the angle of the variable stator vanes as a function of the speed of the booster compressor such that the vanes open as the booster compressor speed increases; measuring or setting one or more operational parameters which are determinative of the temperature at entry to the core turbine; and biasing the scheduling of the angle variation of the variable stator vanes as a function of the operational parameter(s) across a range of engine power demand levels and/or across a range of air temperatures at the inlet of an air intake to the engine such that the angle of the variable stator vanes is changed whilst the speed of the booster compressor remains fixed, and regulating fuel flow, to maintain a constant temperature at entry to the core turbine.
A prosthesis for the trapeze-metacarpal joint of the thumb comprising a body suitable for being arranged between the scaphoid and the metacarpus of the thumb, said body being suitable for operating as a spacer between said scaphoid and metacarpus, characterized in that the body has the shape of an Archimedean solid.
A discharge nozzle for discharging grit or lubricant into the gap between a rail and a track wheel of a rail vehicle, with said discharge nozzle comprising a base body with at least one connection for being connected to a conveyor line for the grit or lubricant and an outlet that is connected to the connection via a channel, characterized in that the outer contour of the base body is in the longitudinal direction shaped in a convex manner at least in the rear region lying opposite of the outlet such that the air flowing around the base body is accelerated in the direction of the outlet.
A power conversion system, comprising: first and second rectifiers individually comprising a rectifier input to receive AC electrical input power, a rectifier DC output with first (A1, C1) and second (B1, D1) DC output nodes, and a circuit operative to provide DC output power at the rectifier DC output, the rectifier inputs of the first and second rectifiers being coupled with one another; first and second inverters individually comprising an inverter DC input with first (A2, C2) and second (B2, D2) DC input nodes, an inverter AC output, and an inverter switching network operative to provide AC output power to a load, the inverter AC outputs of the first and second inverters being coupled with one another; the power conversion system being characterised by comprising a single choke comprising: a first coil coupled between the first DC output node of the first rectifier and the first DC input node of the first inverter; a second coil coupled between the second DC output node of the first rectifier and the second DC input node of the first inverter; a third coil coupled between the first DC output node of the second rectifier and the first DC input node of the second inverter; and a fourth coil coupled between the second DC output node of the second rectifier and the second DC input node of the second inverter. first and second rectifiers individually comprising a rectifier input to receive AC electrical input power, a rectifier DC output with first (A1, C1) and second (B1, D1) DC output nodes, and a circuit operative to provide DC output power at the rectifier DC output, the rectifier inputs of the first and second rectifiers being coupled with one another; first and second inverters individually comprising an inverter DC input with first (A2, C2) and second (B2, D2) DC input nodes, an inverter AC output, and an inverter switching network operative to provide AC output power to a load, the inverter AC outputs of the first and second inverters being coupled with one another; the power conversion system being characterised by comprising a single choke comprising: a first coil coupled between the first DC output node of the first rectifier and the first DC input node of the first inverter; a second coil coupled between the second DC output node of the first rectifier and the second DC input node of the first inverter; a third coil coupled between the first DC output node of the second rectifier and the first DC input node of the second inverter; and a fourth coil coupled between the second DC output node of the second rectifier and the second DC input node of the second inverter. a first coil coupled between the first DC output node of the first rectifier and the first DC input node of the first inverter; a second coil coupled between the second DC output node of the first rectifier and the second DC input node of the first inverter; a third coil coupled between the first DC output node of the second rectifier and the first DC input node of the second inverter; and a fourth coil coupled between the second DC output node of the second rectifier and the second DC input node of the second inverter.
A shortwave to midwave infrared SWIR-MWIR optical window comprising: a substrate (12, 22) formed from a nanocomposite optical ceramic material; and a coating (14, 24) disposed on the substrate (12, 22) to provide electromagnetic interference EMI protection, wherein the coating (14, 24) is electrically conductive and SWIR-MWIR transparent and wherein the coating (14, 24) comprises a doped zinc oxide material, characterized in that the nanocomposite optical ceramic material is a multi-phase composite material formed of a mixture of two or more ceramic phases that are mutually insoluble, thereby forming a multi-phase grain structure having distinct phase separation between two or more constituents. a substrate (12, 22) formed from a nanocomposite optical ceramic material; and a coating (14, 24) disposed on the substrate (12, 22) to provide electromagnetic interference EMI protection, wherein the coating (14, 24) is electrically conductive and SWIR-MWIR transparent and wherein the coating (14, 24) comprises a doped zinc oxide material, characterized in that the nanocomposite optical ceramic material is a multi-phase composite material formed of a mixture of two or more ceramic phases that are mutually insoluble, thereby forming a multi-phase grain structure having distinct phase separation between two or more constituents.
A customisable item of jewellery comprising a grid with a plurality of openings defining a plurality of distinct closely contiguous adornment locations, and attachment means suitable for releasably retaining a pin of an adornment in each selected one of said plurality of openings; whereby once a plurality of adornments are attached to said attachment means, a cluster of releasable adornments is formed, characterised in that said attachment means comprises a layer of resilient material which is provided beneath said grid and which spans a plurality of said openings and said pin has a barb, whereby said layer of resilient material is positioned to receive said barb; the barb and pin being retained within the resilient material by frictional contact between the pin and the resilient material when the barb and the pin are inserted into the resilient material.
Energy generating unit for generating electrical energy from water power, wherein at least one turbine system is installed in a commercially available standard shipping container, wherein the turbine system is arranged in a channel extending inside the standard shipping container, wherein the channel is arranged in the direction of flow of a surrounding body of water, characterized in that additionally at least one further channel, in which no turbine is provided, is arranged in the direction of flow of the surrounding body of water, which channel is provided inside the standard shipping container and which is designed as a fishway.
A dispersion of a maleic anhydride grafted olefin (co)polymer; and optionally, a thermoplastic (co)polymer resin, in a polyol having a primary hydroxyl content of equal to or greater than 50 percent, wherein the dispersion comprises reaction products between any of the maleic anhydride grafted olefin (co)polymer, the polyol and/or optionally the thermoplastic (co)polymer resin, wherein the olefin (co)polymer is selected from a homopolymer of polyethylene or polypropylene, a random, block, or graft polyolefin copolymer comprising ethylene and one or more unsaturated monomer selected from a C 3 to C 12 α, β-unsaturated alkene, a substantially linear ethylene polymer, a linear ethylene polymer, an ethylene/alpha-olefin block copolymers, or combinations thereof. a maleic anhydride grafted olefin (co)polymer; and optionally, a thermoplastic (co)polymer resin,
An engine assembly (10; 110; 210) comprising: an engine core having at least two stacks (12, 14) of rotary internal combustion engines drivingly connected together via a gearbox to drive a common load, wherein each of the at least two stacks (12, 14) comprises a plurality of rotors (12a, 12b, 12c, 12d, 14a, 14b, 14c, 14d) mounted to a common crankshaft (20, 22) inside respective housings (24a, 24b, 24c, 24d, 26a, 26b, 26c, 26d), the plurality of rotors (12a...14d) mounted for eccentric revolutions within the respective housings (24a... 26d), and each housing (24a... 26d) having intake and exhaust ports (48, 50); a compressor section having an outlet in fluid communication with an inlet of the engine core; and a turbine section having an inlet in fluid communication with an outlet of the engine core, wherein the turbine section comprises a power turbine configured to compound power with the at least two stacks (12, 14) of rotary internal combustion engines via the gearbox. an engine core having at least two stacks (12, 14) of rotary internal combustion engines drivingly connected together via a gearbox to drive a common load, wherein each of the at least two stacks (12, 14) comprises a plurality of rotors (12a, 12b, 12c, 12d, 14a, 14b, 14c, 14d) mounted to a common crankshaft (20, 22) inside respective housings (24a, 24b, 24c, 24d, 26a, 26b, 26c, 26d), the plurality of rotors (12a...14d) mounted for eccentric revolutions within the respective housings (24a... 26d), and each housing (24a... 26d) having intake and exhaust ports (48, 50); a compressor section having an outlet in fluid communication with an inlet of the engine core; and a turbine section having an inlet in fluid communication with an outlet of the engine core, wherein the turbine section comprises a power turbine configured to compound power with the at least two stacks (12, 14) of rotary internal combustion engines via the gearbox.