mhurhangee/ep-ind-claims huggingface dataset:
A device, comprising: a plurality of microphones to receive ultra-sound signals that include encoded data; and a processor (102, 130) coupled to the plurality of microphones, wherein the processor is configurable to detect the ultra-sound signals through the plurality of microphones, wherein the detection includes calculating an angle of arrival of the ultra-sound signals at a microphone in the plurality of microphones, wherein the processor is further configurable to disregard the ultra-sound signals if the measured angle of arrival is outside a preset threshold range, and wherein the processor is configurable to perform a transaction based on the encoded data received via a microphone in the plurality of microphones. a plurality of microphones to receive ultra-sound signals that include encoded data; and a processor (102, 130) coupled to the plurality of microphones, wherein the processor is configurable to detect the ultra-sound signals through the plurality of microphones, wherein the detection includes calculating an angle of arrival of the ultra-sound signals at a microphone in the plurality of microphones, wherein the processor is further configurable to disregard the ultra-sound signals if the measured angle of arrival is outside a preset threshold range, and wherein the processor is configurable to perform a transaction based on the encoded data received via a microphone in the plurality of microphones.
A wavelength conversion member configured to convert light with a specific wavelength to light with other wavelength, wherein the wavelength conversion member comprises: a substrate including an inorganic material, and a phosphor layer joined to the substrate and including phosphor particles that absorb light and emit converted light and a translucent ceramic that binds the phosphor particles to one another; the phosphor particles include two kinds of particles each having a designated particle size distribution; and the two kinds of particles are larger particles having a larger average particle size and smaller particles having a smaller average particle size wherein the ratio of the average particle size of the larger particles to the average particle size of the smaller particles is 2 to 4; characterized in that the ratio of the volume of the larger particles to the volume of the smaller particles is not less than 1.5 and not more than 5.7. the wavelength conversion member comprises: a substrate including an inorganic material, and a phosphor layer joined to the substrate and including phosphor particles that absorb light and emit converted light and a translucent ceramic that binds the phosphor particles to one another; a substrate including an inorganic material, and a phosphor layer joined to the substrate and including phosphor particles that absorb light and emit converted light and a translucent ceramic that binds the phosphor particles to one another; the phosphor particles include two kinds of particles each having a designated particle size distribution; and the two kinds of particles are larger particles having a larger average particle size and smaller particles having a smaller average particle size wherein the ratio of the average particle size of the larger particles to the average particle size of the smaller particles is 2 to 4; characterized in that the ratio of the volume of the larger particles to the volume of the smaller particles is not less than 1.5 and not more than 5.7.
A pressure management device for use with a heating system, the pressure management device comprising: an inlet for connection to a mains water supply; an outlet for connection to a heating system; a fluid flow path between the inlet and the outlet; a one-way valve disposed in the fluid flow path and arranged to permit flow in the direction from the inlet toward the outlet and to resist flow in the opposite direction; a pressure reducing valve which is disposed in the fluid flow path; and and a flood prevention device which is disposed in the fluid flow path and comprises an impeller which can be turned by passage of water through the fluid flow path and a mechanism (100, 102,104,108,110, 112,114) driven by the impeller to count rotations of the impeller, the pressure management device being further characterized in that the pressure reducing valve is configured to respond to an outlet pressure of the pressure management device, the pressure reducing valve having a valve member (42, 46, 48, 50) which is urged in opposite directions by a pre-stressed spring and the outlet pressure, the pressure reducing valve being normally maintained in a closed state by the outlet pressure but adapted to open when the outlet pressure falls below a threshold; and in that the mechanism (100, 102, 104, 108, 110, 112, 114) is configured to close a valve (116, 118) to block the fluid flow path when a predetermined number of impeller rotations have taken place. an inlet for connection to a mains water supply; an outlet for connection to a heating system; a fluid flow path between the inlet and the outlet; a one-way valve disposed in the fluid flow path and arranged to permit flow in the direction from the inlet toward the outlet and to resist flow in the opposite direction; a pressure reducing valve which is disposed in the fluid flow path; and
A working vehicle comprising: an engine; a hydraulic pump driven by the engine; a first hydraulic motor driven by hydraulic fluid discharged from the hydraulic pump; a vehicle speed detecting unit that detects a vehicle speed; a parking brake; and a parking brake operating member that is operated to activate the parking brake; characterized by a control unit configured to determine whether the vehicle speed is equal to or greater than a predetermined threshold when the parking brake operating member is operated, and, when the vehicle speed is equal to or greater than the predetermined threshold in a state when the vehicle is traveling, execute a brake control that decreases the displacement of the first hydraulic pump and increases the displacement of the first hydraulic motor without activating the parking brake, and, when the vehicle speed falls below the predetermined threshold, activates the parking brake, wherein the control unit decreases the vehicle speed by gradually increasing a lower limit of the displacement of the first hydraulic motor from the displacement of the first hydraulic motor at a point in time when the parking brake operating member is operated to a maximum displacement. an engine; a hydraulic pump driven by the engine; a first hydraulic motor driven by hydraulic fluid discharged from the hydraulic pump; a vehicle speed detecting unit that detects a vehicle speed; a parking brake; and a parking brake operating member that is operated to activate the parking brake; characterized by a control unit configured to determine whether the vehicle speed is equal to or greater than a predetermined threshold when the parking brake operating member is operated, and, when the vehicle speed is equal to or greater than the predetermined threshold in a state when the vehicle is traveling, execute a brake control that decreases the displacement of the first hydraulic pump and increases the displacement of the first hydraulic motor without activating the parking brake, and, when the vehicle speed falls below the predetermined threshold, activates the parking brake, wherein the control unit decreases the vehicle speed by gradually increasing a lower limit of the displacement of the first hydraulic motor from the displacement of the first hydraulic motor at a point in time when the parking brake operating member is operated to a maximum displacement.
Feed trough for a sliver opening device of an open-end spinning device, with a concave clamping area for conveying a presented sliver by means of a sliver draw-in cylinder and a concave support surface for fixing a fibre tuft created on combing out the presented sliver by an opening roller, characterised in that, the feed trough comprises a feed trough element secured replaceably onto a feed trough holder with a slideway for the presented sliver extending seamlessly from the clamping area to the fibre tuft support surface of the feed trough element, in that the feed trough element is produced by means of a MIM-method and in that the feed trough element has a smooth hard material layer at least in the clamping area and in the area of the fibre tuft support surface.
A method for performing wireless communication by a user equipment, UE, in a New Radio, NR, network, the method comprising: receiving signaling from a base station to activate a semi-persistent scheduling, SPS, configuration that depends on a bandwidth part with which the UE is configured, the SPS configuration allocating resources associated with the bandwidth part to the UE for transmissions between the base station and the UE; and determining a hybrid automatic repeat request, HARQ, timing for downlink transmissions based at least in part on the SPS configuration being activated, and a HARQ timing value indicated by radio resource control, RRC, signaling, and wherein the HARQ timing value depends on a bandwidth part switching procedure. receiving signaling from a base station to activate a semi-persistent scheduling, SPS, configuration that depends on a bandwidth part with which the UE is configured, the SPS configuration allocating resources associated with the bandwidth part to the UE for transmissions between the base station and the UE; and determining a hybrid automatic repeat request, HARQ, timing for downlink transmissions based at least in part on the SPS configuration being activated, and a HARQ timing value indicated by radio resource control, RRC, signaling, and wherein the HARQ timing value depends on a bandwidth part switching procedure.
Method for registration of a first image data set and a second image data set of a target region of a patient, wherein the first and the second image data sets (1, 2) have been acquired using different imaging modalities or using different imaging techniques on the same imaging modality, the method comprising: - selecting a first anatomical structure which is visible in the first image data set, and a second anatomical structure which is visible in the second image data set, such that there is a known geometrical relationship between at least extended segments of the anatomical structures, - by evaluating the first and second image data sets (1, 2), automatically determining a first geometry information describing the geometry of at least a part of the first anatomical structure comprising the respective segment and a second geometry information describing the geometry of at least a part of the second anatomical structure comprising the respective segment, - automatically optimizing transformation parameters describing a rigid transformation of one of the anatomical structures with respect to the other and geometrical correspondences between features in the first and second geometry information by minimizing deviations from the known geometrical relationship, and - determining registration information from the optimized transformation parameters, characterized in that a boundary condition describing possible motion of the patient between acquisition of the first and the second image data set (1, 2) is used to reduce the parameter space of the optimization of the transformation parameters. - selecting a first anatomical structure which is visible in the first image data set, and a second anatomical structure which is visible in the second image data set, such that there is a known geometrical relationship between at least extended segments of the anatomical structures, - by evaluating the first and second image data sets (1, 2), automatically determining a first geometry information describing the geometry of at least a part of the first anatomical structure comprising the respective segment and a second geometry information describing the geometry of at least a part of the second anatomical structure comprising the respective segment, - automatically optimizing transformation parameters describing a rigid transformation of one of the anatomical structures with respect to the other and geometrical correspondences between features in the first and second geometry information by minimizing deviations from the known geometrical relationship, and - determining registration information from the optimized transformation parameters,
A method for measuring the surface charge distribution of a sample, comprising: a charging step of irradiating the sample with a charged particle beam and charging a surface of the sample in a spot-like manner; a first measuring step of irradiating the charged sample with the charged particle beam to measure a value of a potential at a potential saddle point formed above the sample by changing an accelerated voltage for irradiating the charged particle beam or changing an applied voltage to a back face of the sample to detect a boundary between an area in which the charged particle beam is inversed before reaching the sample and an area in which the charged particle beam reaches the sample; a selecting step of selecting one structure model from preset multiple structure models and selecting a tentative space charge distribution associated with the one structure model; a first calculating step of calculating a space potential at the potential saddle point by electromagnetic field analysis using the selected structure model and the tentative space charge distribution; a determining step of comparing the calculated space potential and the measured value to determine the tentative space charge distribution as a space charge distribution of the sample when an error between the calculated space potential and the measured value is within a predetermined range; and a second calculating step of calculating a surface charge distribution of the sample by electromagnetic field analysis based on the determined space charge distribution of the sample. a charging step of irradiating the sample with a charged particle beam and charging a surface of the sample in a spot-like manner; a first measuring step of irradiating the charged sample with the charged particle beam to measure a value of a potential at a potential saddle point formed above the sample by changing an accelerated voltage for irradiating the charged particle beam or changing an applied voltage to a back face of the sample to detect a boundary between an area in which the charged particle beam is inversed before reaching the sample and an area in which the charged particle beam reaches the sample; a selecting step of selecting one structure model from preset multiple structure models and selecting a tentative space charge distribution associated with the one structure model; a first calculating step of calculating a space potential at the potential saddle point by electromagnetic field analysis using the selected structure model and the tentative space charge distribution; a determining step of comparing the calculated space potential and the measured value to determine the tentative space charge distribution as a space charge distribution of the sample when an error between the calculated space potential and the measured value is within a predetermined range; and a second calculating step of calculating a surface charge distribution of the sample by electromagnetic field analysis based on the determined space charge distribution of the sample.
A composition comprising: 30 to 60 weight percent of a poly(arylene ether) consisting of virgin poly(arylene ether); 20 to 55 weight percent of a rubber-modified polystyrene; 0.25 to 1 weight percent of polymerized acrylonitrile residue; and 12 to 16 weight percent of an organophosphate ester; wherein the composition comprises less than 3 weight percent of a copolymer of an ethylenically unsaturated epoxy compound and an olefin; and wherein all weight percents are based on the total weight of the composition, unless a different basis is specified. 30 to 60 weight percent of a poly(arylene ether) consisting of virgin poly(arylene ether); 20 to 55 weight percent of a rubber-modified polystyrene; 0.25 to 1 weight percent of polymerized acrylonitrile residue; and 12 to 16 weight percent of an organophosphate ester;
A network component comprising: a WiFi management entity, WiME, configured to serve as an anchor point for a user device at a WiFi network and comprising an OpenFlow controller to communicate with a management entity at a wireless network using OpenFlow protocol to handle a plurality of control and mobility functionalities for traffic in the WiFi network, wherein the control and mobility functionalities include offloading traffic for the user device from the wireless network to the WiFi network. a WiFi management entity, WiME, configured to serve as an anchor point for a user device at a WiFi network and comprising an OpenFlow controller to communicate with a management entity at a wireless network using OpenFlow protocol to handle a plurality of control and mobility functionalities for traffic in the WiFi network, wherein the control and mobility functionalities include offloading traffic for the user device from the wireless network to the WiFi network.
A detecting method for blood, comprising: providing a sensing device (100, 200), wherein the sensing device (100, 200) comprises a base (102, 202) and at least one response electrode (104, 204), and the response electrode (104, 204) is spaced apart from the base (102, 202) relative to a gate end (116, 216) of the base (102, 202); placing a blood on the response electrode (104, 204), wherein the blood includes a plurality of blood cells and a plurality of targets; separating the blood into a first part and a second part, wherein the first part is in contact with the response electrode (104, 204), and a blood cell count of the first part is less than a blood cell count of the second part; and applying a voltage to the response electrode (104, 204) such that an electric field is generated between the response electrode (104, 204) and the gate end (116, 216) of the base (102, 202) and measuring a detection current generated from the base (102, 202) to measure a property of the target, the detecting method being characterized in that the step of separating the blood into the first part and the second part comprises inverting the sensing device (100, 200) in which the blood is placed to separate the blood into the first part and the second part by gravity wherein the response electrode (104, 204) and the gate end (116, 216) of the base (102, 202) are located on a same plane. providing a sensing device (100, 200), wherein the sensing device (100, 200) comprises a base (102, 202) and at least one response electrode (104, 204), and the response electrode (104, 204) is spaced apart from the base (102, 202) relative to a gate end (116, 216) of the base (102, 202); placing a blood on the response electrode (104, 204), wherein the blood includes a plurality of blood cells and a plurality of targets; separating the blood into a first part and a second part, wherein the first part is in contact with the response electrode (104, 204), and a blood cell count of the first part is less than a blood cell count of the second part; and applying a voltage to the response electrode (104, 204) such that an electric field is generated between the response electrode (104, 204) and the gate end (116, 216) of the base (102, 202) and measuring a detection current generated from the base (102, 202) to measure a property of the target, the detecting method being characterized in that the step of separating the blood into the first part and the second part comprises inverting the sensing device (100, 200) in which the blood is placed to separate the blood into the first part and the second part by gravity wherein the response electrode (104, 204) and the gate end (116, 216) of the base (102, 202) are located on a same plane.
A piston for efficiently transferring material from a container to a cartridge, comprising: a body comprising an inner body wall and an outer body wall centered about a longitudinal axis, the inner body wall and the outer body wall forming a ridge at a first end of the body, the ridge configured to receive a force applied to the piston, the outer body wall and the inner body wall being interconnected at the first end of the body by the ridge; a piston base at a second end of the body, the piston base comprising a flange configured to form a seal against a container wall, the piston base having an aperture centered about the longitudinal axis, the piston base centered about the longitudinal axis; wherein the piston base comprising the flange has a diameter greater than a diameter of the body, and an inlet protruding from the piston base in a direction towards the first end of the body, the inlet configured to secure the piston to a nozzle of a cartridge, wherein the piston is configured to force a material into the cartridge in response to the force applied to the ridge of the piston, without applying the force to the cartridge. a body comprising an inner body wall and an outer body wall centered about a longitudinal axis, the inner body wall and the outer body wall forming a ridge at a first end of the body, the ridge configured to receive a force applied to the piston, the outer body wall and the inner body wall being interconnected at the first end of the body by the ridge; a piston base at a second end of the body, the piston base comprising a flange configured to form a seal against a container wall, the piston base having an aperture centered about the longitudinal axis, the piston base centered about the longitudinal axis; wherein the piston base comprising the flange has a diameter greater than a diameter of the body, and an inlet protruding from the piston base in a direction towards the first end of the body, the inlet configured to secure the piston to a nozzle of a cartridge, wherein the piston is configured to force a material into the cartridge in response to the force applied to the ridge of the piston, without applying the force to the cartridge.
Poultry neck breaker machine for poultry suspended by the legs in a conveyor line, comprising a movable breaker device for imparting a breaking force to the poultry's neck, and comprising an anvil to provide support to the poultry's neck during operation of the movable breaker device, characterized in that the anvil is arranged for introduction into a poultry cavity through the poultry's vent.
A method for connecting a hollow shaft to at least one component arranged on the hollow shaft in a rotation-fixed manner, wherein the component is positioned on the hollow shaft with joint clearance and fastened in a certain position on the hollow shaft by eliminating the joint clearance, wherein the joint clearance is eliminated by widening the hollow shaft by means of a joining tool that at least partially extends through the hollow shaft, wherein the joining tool features at least a first deformation element and at least a further deformation element, and wherein the first and second deformation elements (12, 13) can be moved into arbitrary positions in the interior of the hollow shaft in the direction of the longitudinal axis thereof and make it possible to widen (23, 33) the hollow shaft in these arbitrary positions, characterized in that the deformation elements (12, 13) are moved relative to one another, wherein an at least partial movement of the first deformation element within the additional deformation element is realized due to a translatory movement of the first deformation element within the hollow shaft, and wherein the relative movement between the deformation elements (12, 13) causes the hollow shaft to be at least partially widened.