mhurhangee/ep-ind-claims huggingface dataset:
A urea injection control apparatus of a vehicle, comprising: an SCR integral diesel particulate filter that purifies NOx and that collects PM; a temperature sensor that detects a temperature change of the SCR integral diesel particulate filter; a dosing module that injects urea to a front end of the SCR integral diesel particulate filter; and a control unit comprising means to control the injection of urea by analyzing a temperature rising rate from information that is provided from the temperature sensor in a regeneration mode of the SCR integral diesel particulate filter; characterized in that the control unit further comprises means to correct an injection amount of urea by analyzing a regeneration temperature decreasing rate and a difference between a target regeneration temperature and an actual regeneration temperature changing according to the injection of urea. an SCR integral diesel particulate filter that purifies NOx and that collects PM; a temperature sensor that detects a temperature change of the SCR integral diesel particulate filter; a dosing module that injects urea to a front end of the SCR integral diesel particulate filter; and a control unit comprising means to control the injection of urea by analyzing a temperature rising rate from information that is provided from the temperature sensor in a regeneration mode of the SCR integral diesel particulate filter; characterized in that the control unit further comprises means to correct an injection amount of urea by analyzing a regeneration temperature decreasing rate and a difference between a target regeneration temperature and an actual regeneration temperature changing according to the injection of urea.
An electrode sheet including a non-coated part and a coated part in which a positive electrode mixture layer is applied on at least one surface of a current collector, wherein the coated part includes: a first positive electrode mixture layer configured to be formed on a central portion along a longitudinal direction of the electrode sheet and to contain a first positive electrode active material of lithium-nickel-cobalt-manganese oxide; and a second positive electrode mixture layer configured to be formed at both ends in a direction parallel to the first positive electrode mixture layer based on a width direction and to contain a second positive electrode active material of lithium-nickel-cobalt-manganese oxide, wherein a nickel content of the second positive electrode active material is lower than that of the first positive electrode active material, a nickel content in the second positive electrode active material corresponds to 45 to 70 mol% of an entire transition metal content in the second positive electrode active material, and a ratio (b/a) of a rolling density (b) of the second positive electrode mixture layer to a rolling density (a) of the first positive electrode mixture layer is 0.5 to 0.9, the rolling density is the density of the positive electrode after rolling, measured described in the specification. a first positive electrode mixture layer configured to be formed on a central portion along a longitudinal direction of the electrode sheet and to contain a first positive electrode active material of lithium-nickel-cobalt-manganese oxide; and a second positive electrode mixture layer configured to be formed at both ends in a direction parallel to the first positive electrode mixture layer based on a width direction and to contain a second positive electrode active material of lithium-nickel-cobalt-manganese oxide, wherein a nickel content of the second positive electrode active material is lower than that of the first positive electrode active material, a nickel content in the second positive electrode active material corresponds to 45 to 70 mol% of an entire transition metal content in the second positive electrode active material, and a ratio (b/a) of a rolling density (b) of the second positive electrode mixture layer to a rolling density (a) of the first positive electrode mixture layer is 0.5 to 0.9, the rolling density is the density of the positive electrode after rolling, measured described in the specification.
A method of manufacturing a mold for a diffraction grating light guide plate, the method comprising: preparing a first mask film including first and second openings each formed in an independent region, respectively; attaching the first mask film to one surface of a molding base, opening only the first opening, positioning the molding base with the first mask film attached thereto in a Faraday cage having a mesh part provided on an upper surface thereof, and then forming, by using plasma etching, a first pattern portion in a first region of one surface of the molding base which is exposed through the first opening; and opening only the second opening, and then forming, by using plasma etching, a second pattern portion in a second region of one surface of the molding base which is exposed through the second opening, wherein the first mask film includes a first base and a first adhesive layer provided on one surface of the first base, a glass transition temperature of the first base is 70°C or more and 100°C or less, and adhesive force of the first adhesive layer is 11,6 N/m (30 gf/in) or more and 19,3 N/m (50 gf/in) or less. preparing a first mask film including first and second openings each formed in an independent region, respectively; attaching the first mask film to one surface of a molding base, opening only the first opening, positioning the molding base with the first mask film attached thereto in a Faraday cage having a mesh part provided on an upper surface thereof, and then forming, by using plasma etching, a first pattern portion in a first region of one surface of the molding base which is exposed through the first opening; and opening only the second opening, and then forming, by using plasma etching, a second pattern portion in a second region of one surface of the molding base which is exposed through the second opening, wherein the first mask film includes a first base and a first adhesive layer provided on one surface of the first base, a glass transition temperature of the first base is 70°C or more and 100°C or less, and adhesive force of the first adhesive layer is 11,6 N/m (30 gf/in) or more and 19,3 N/m (50 gf/in) or less.
A method for distributing information to a plurality of nodes by a sender, the method characterized by: identifying one or more but less than all of the plurality of nodes to acknowledge a multicast message, the multicast message having as its destination address a multicast address corresponding to the plurality of nodes; and sending the multicast message to the plurality of nodes, the multicast message including an indication of said one or more but less than all of the plurality of nodes to acknowledge the multicast message; wherein the multicast address is distinct from the indication of said one or more but less than all of the plurality of nodes to acknowledge the multicast message. identifying one or more but less than all of the plurality of nodes to acknowledge a multicast message, the multicast message having as its destination address a multicast address corresponding to the plurality of nodes; and sending the multicast message to the plurality of nodes, the multicast message including an indication of said one or more but less than all of the plurality of nodes to acknowledge the multicast message; wherein the multicast address is distinct from the indication of said one or more but less than all of the plurality of nodes to acknowledge the multicast message.
A reagent for the detection of phosphorylated molecules, the reagent comprising: a linking core comprising a dendrimer molecule having from 32 surface groups to 128 surface groups; at least one moiety that includes a metal that is directly coupled to the linking core, the metal being selected from the group consisting of: titanium and zirconium; and at least one reporter group that is coupled to the linking core, the reporter group being selected from the group consisting of: a fluorescent group, a chromophore, a chemilluminescent group and a radioactive group; wherein the metal and the at least one reporter group are associated with each other via the linking core and the moieties that include the metal bind to phosphorylated molecules. a linking core comprising a dendrimer molecule having from 32 surface groups to 128 surface groups; at least one moiety that includes a metal that is directly coupled to the linking core, the metal being selected from the group consisting of: titanium and zirconium; and at least one reporter group that is coupled to the linking core, the reporter group being selected from the group consisting of: a fluorescent group, a chromophore, a chemilluminescent group and a radioactive group; wherein the metal and the at least one reporter group are associated with each other via the linking core and the moieties that include the metal bind to phosphorylated molecules.
An active clearance control system for an engine of an aircraft, comprising: a collector that is configured to receive a cooling fluid; at least two manifolds (312a, b) coupled to the collector, where a first of the manifolds is configured to receive at least a first portion of the cooling fluid from the collector and a second of the manifolds is configured to receive at least a second portion of the cooling fluid from the collector; and an insert (330; 530) coupled to the collector and the manifolds (312a, b), wherein the insert (330; 530) is configured to seal an interface between the collector and the at least two manifolds (312a, b) over an operating range of the engine; characterised in that the insert (330; 530) includes: a first post (338a; 538a-1) that is seated in a first receptacle formed in the first manifold allowing the first portion of the cooling fluid to flow from the collector to the first manifold; a second post (338b; 338b-1) that is seated in a second receptacle formed in the second manifold allowing the second portion of the cooling fluid to flow from the collector to the second manifold; and a flange (334; 534) that is coupled to the first post (338a; 538a-1) and the second post (338b; 538b-1) and bridges a gap formed between the first manifold and the second manifold, wherein the flange (334; 534) includes at least one of a foam material, rubber, ceramic fibers, or graphite. a collector that is configured to receive a cooling fluid; at least two manifolds (312a, b) coupled to the collector, where a first of the manifolds is configured to receive at least a first portion of the cooling fluid from the collector and a second of the manifolds is configured to receive at least a second portion of the cooling fluid from the collector; and an insert (330; 530) coupled to the collector and the manifolds (312a, b), wherein the insert (330; 530) is configured to seal an interface between the collector and the at least two manifolds (312a, b) over an operating range of the engine; characterised in that the insert (330; 530) includes: a first post (338a; 538a-1) that is seated in a first receptacle formed in the first manifold allowing the first portion of the cooling fluid to flow from the collector to the first manifold; a second post (338b; 338b-1) that is seated in a second receptacle formed in the second manifold allowing the second portion of the cooling fluid to flow from the collector to the second manifold; and a flange (334; 534) that is coupled to the first post (338a; 538a-1) and the second post (338b; 538b-1) and bridges a gap formed between the first manifold and the second manifold, wherein the flange (334; 534) includes at least one of a foam material, rubber, ceramic fibers, or graphite.
An imaging device comprising: a light source projection unit configured to project intensity-modulated spatial pattern light; a time-of-flight distance measurement camera (11, 110) configured to measure a distance to an object on the basis of a time of flight of a modulated component included in reflected light of the spatial pattern light from the object; a spatial information distance measurement camera configured to measure a distance to the object on the basis of spatial information included in the reflected light; and a depth synthesizing unit (160, 165) configured to synthesize measurement results of the distances in the time-of-flight distance measurement camera (11, 110) and the spatial information distance measurement camera to determine a depth value of each pixel position of an image imaged by the time-of-flight distance measurement camera or the spatial information distance measurement camera, wherein an exposure time of the time-of-flight distance camera (11, 110) and an exposure time of the spatial information distance measurement camera are set, and wherein the light source projection unit is further configured to project, when the exposure time of the time-of-flight distance camera (11, 110) is elapsed, non-modulated fixed light until the exposure time of the spatial information distance measurement camera is elapsed. a light source projection unit configured to project intensity-modulated spatial pattern light; a time-of-flight distance measurement camera (11, 110) configured to measure a distance to an object on the basis of a time of flight of a modulated component included in reflected light of the spatial pattern light from the object; a spatial information distance measurement camera configured to measure a distance to the object on the basis of spatial information included in the reflected light; and a depth synthesizing unit (160, 165) configured to synthesize measurement results of the distances in the time-of-flight distance measurement camera (11, 110) and the spatial information distance measurement camera to determine a depth value of each pixel position of an image imaged by the time-of-flight distance measurement camera or the spatial information distance measurement camera, wherein an exposure time of the time-of-flight distance camera (11, 110) and an exposure time of the spatial information distance measurement camera are set, and wherein the light source projection unit is further configured to project, when the exposure time of the time-of-flight distance camera (11, 110) is elapsed, non-modulated fixed light until the exposure time of the spatial information distance measurement camera is elapsed.
A bronchodilator for use in a method of treating bronchoconstriction in a patient, wherein the method comprises: i. applying a signal to a vagal nerve of said patient to selectively stimulate neural activity in afferent A fibres of the vagal nerve; and ii. administering the bronchodilator to the patient. i. applying a signal to a vagal nerve of said patient to selectively stimulate neural activity in afferent A fibres of the vagal nerve; and ii. administering the bronchodilator to the patient.
A method performed by processing means comprising: (a) creating summed 3D nuclear medicine imaging data by summing a plurality of 3D nuclear medicine imaging data pixel by pixel and slice by slice, wherein each of the plurality of 3D nuclear medicine imaging data is associated with a different phase of a cardiac cycle; (b) determining pixels corresponding to myocardial regions in the summed 3D nuclear medicine imaging data; (c) defining a plurality of tracing directions based on the summed 3D nuclear medicine imaging data, and determining a reference myocardial center base point, a reference inner myocardial wall base point and a reference outer myocardial wall base point for each of the tracing directions; (d) determining a phase-specific myocardial center base point for each of the tracing directions for each of the phases based on the corresponding 3D nuclear medicine imaging data; and (e) determining a difference between the reference myocardial center base point and the phase-specific myocardial center base point, and determining a phase-specific inner myocardial wall base point and a phase-specific outer myocardial wall base point by shifting the reference inner myocardial wall base point and the reference outer myocardial wall base point respectively based on the determined difference, for each of the tracing directions for each of the phases. (a) creating summed 3D nuclear medicine imaging data by summing a plurality of 3D nuclear medicine imaging data pixel by pixel and slice by slice, wherein each of the plurality of 3D nuclear medicine imaging data is associated with a different phase of a cardiac cycle; (b) determining pixels corresponding to myocardial regions in the summed 3D nuclear medicine imaging data; (c) defining a plurality of tracing directions based on the summed 3D nuclear medicine imaging data, and determining a reference myocardial center base point, a reference inner myocardial wall base point and a reference outer myocardial wall base point for each of the tracing directions; (d) determining a phase-specific myocardial center base point for each of the tracing directions for each of the phases based on the corresponding 3D nuclear medicine imaging data; and (e) determining a difference between the reference myocardial center base point and the phase-specific myocardial center base point, and determining a phase-specific inner myocardial wall base point and a phase-specific outer myocardial wall base point by shifting the reference inner myocardial wall base point and the reference outer myocardial wall base point respectively based on the determined difference, for each of the tracing directions for each of the phases.
Method to operate fuel cell systems having reformers which contain catalysts for the conversion of natural gas into process gas which is rich in hydrogen, in which a natural gas supply line as well as an air supply line and / or a water supply line are arranged upstream of the reformer, wherein the natural gas can contain proportions of liquefied natural gas and air mixtures, characterised in that an oxygen sensor which is connected to a regulator is arranged in a natural gas supply line and the regulator controls or regulates the quantity of air through the air supply line and / or the quantity of water through the water supply line and / or the quantity of natural gas through the natural gas supply line depending on the signal of the oxygen sensor.
A partial rim implant for an acetabulum in a pelvic bone, comprising: a ridge oriented to replace a labrum; a bearing surface configured to align with an articulating surface of the acetabulum, wherein the bearing surface extends from the ridge toward an apex of the acetabulum; and at least one flange portion extending away from the ridge and configured to fix the implant to a prepared bone surface of the pelvic bone; characterised in that the implant further comprises an insertion portion extending generally perpendicularly from the bearing surface and configured to insert into the pelvic bone. a ridge oriented to replace a labrum; a bearing surface configured to align with an articulating surface of the acetabulum, wherein the bearing surface extends from the ridge toward an apex of the acetabulum; and at least one flange portion extending away from the ridge and configured to fix the implant to a prepared bone surface of the pelvic bone;
A method for controlling a comminution process, said method comprising steps of: - measuring 3D reconstruction measurement data for three-dimensional reconstruction of incoming ore, with an imaging system,; - measuring particle size data for calculation of a particle size characteristic value of outgoing ore, with a particle size analysis equipment; - receiving a particle size distribution profile of incoming ore, said particle size distribution profile of incoming ore, being calculated and/or reconstructed from said 3D reconstruction measurement data for three-dimensional reconstruction; and - receiving a particle size characteristic value of the outgoing ore, said particle size characteristic value of the outgoing ore, being calculated based on said measured particle size data; said method being characterized by the comminution process having a grinding circuit,,; the incoming ore in the step of measuring 3D reconstruction measurement data being incoming ore to said grinding circuit,,; the outgoing ore in the step of measuring particle size data being outgoing ore from said grinding circuit,,; and said method comprising steps of: - calculating ore characteristics data based on said particle size distribution profile and said particle size characteristic value, said ore characteristics data identifying the ore hardness, which is calculated over the whole grinding circuit that is in continuous operation; and - controlling the grinding circuit,, in said comminution process based on said calculated ore characteristics data. - measuring 3D reconstruction measurement data for three-dimensional reconstruction of incoming ore, with an imaging system,; - measuring particle size data for calculation of a particle size characteristic value of outgoing ore, with a particle size analysis equipment; - receiving a particle size distribution profile of incoming ore, said particle size distribution profile of incoming ore, being calculated and/or reconstructed from said 3D reconstruction measurement data for three-dimensional reconstruction; and - receiving a particle size characteristic value of the outgoing ore, said particle size characteristic value of the outgoing ore, being calculated based on said measured particle size data; - calculating ore characteristics data based on said particle size distribution profile and said particle size characteristic value, said ore characteristics data identifying the ore hardness, which is calculated over the whole grinding circuit that is in continuous operation; and - controlling the grinding circuit,, in said comminution process based on said calculated ore characteristics data.
An authentication system comprising: a supply device having a data storage chip with identification bit memory cells, the ID bit memory cells comprising; a measured cell;; and analog cells that store factory-measured analog information about the measured cell; characterized in that the ID bit memory cells further comprises pointer cells to store address information that points to the measured cell and that the pointer cells are programmed during fabrication of the data storage chip. a supply device having a data storage chip with identification bit memory cells, the ID bit memory cells comprising; a measured cell;; and analog cells that store factory-measured analog information about the measured cell; characterized in that the ID bit memory cells further comprises pointer cells to store address information that points to the measured cell and that the pointer cells are programmed during fabrication of the data storage chip.