mhurhangee/ep-ind-claims huggingface dataset:
A management device comprising: a vehicle information receiver configured to receive from a vehicle configured to travel by battery power, vehicle information relating to travel of the vehicle; a power information receiver configured to receive from a local power management device configured to control power supply to a power network in each area, power information relating to power for the power network; a charging information estimator configured to calculate, for each vehicle, power consumption amount of the vehicle based on a distance for the vehicle from a present position to reach a power stand which is configured to charge the vehicle in an area in which the vehicle performs charging of power next time, based on the vehicle information, and estimate power consumption amount of the power stand based on a remaining power of a battery of the vehicle and power consumption amount; and a local power consumption amount estimator configured to estimate a power consumption amount for the power network in each area, based on a result of estimation by the charging information estimator and the power information. a vehicle information receiver configured to receive from a vehicle configured to travel by battery power, vehicle information relating to travel of the vehicle; a power information receiver configured to receive from a local power management device configured to control power supply to a power network in each area, power information relating to power for the power network; a charging information estimator configured to calculate, for each vehicle, power consumption amount of the vehicle based on a distance for the vehicle from a present position to reach a power stand which is configured to charge the vehicle in an area in which the vehicle performs charging of power next time, based on the vehicle information, and estimate power consumption amount of the power stand based on a remaining power of a battery of the vehicle and power consumption amount; and a local power consumption amount estimator configured to estimate a power consumption amount for the power network in each area, based on a result of estimation by the charging information estimator and the power information.
A method of determination of the alignment angles (β i), defined as an angular difference in relation to the direction of a lateral velocity (V y) of a road vehicle, of two or more road vehicle-borne radar sensors for producing signals suitable for causing a road vehicle radar auto-alignment controller to perform radar offset compensation starting from initially available rough estimates of alignment angles (β i), the method comprising: obtaining, from at least two radar sensors, signals related to range, azimuth and range rate to detections; obtaining the initially available rough estimates of alignment angles (βi) from known nominal mounting angles of the vehicle borne radar sensors; screening the detections to determine detections from stationary targets; deriving, from the determined detections from stationary targets, a linearized signal processing model involving alignment angles (β i), longitudinal and lateral velocity and yaw-rate of the road vehicle, the signal processing model linearized with respect to alignment angels assuming rough estimates of alignment angels initially available; applying a Kalman filter algorithm to the linearized signal processing model to estimate the alignment angles (β i); producing, based on the estimated alignment angles (β i), the signals suitable for causing a road vehicle radar auto-alignment controller to perform radar offset compensation. obtaining, from at least two radar sensors, signals related to range, azimuth and range rate to detections; obtaining the initially available rough estimates of alignment angles (βi) from known nominal mounting angles of the vehicle borne radar sensors; screening the detections to determine detections from stationary targets; deriving, from the determined detections from stationary targets, a linearized signal processing model involving alignment angles (β i), longitudinal and lateral velocity and yaw-rate of the road vehicle, the signal processing model linearized with respect to alignment angels assuming rough estimates of alignment angels initially available; applying a Kalman filter algorithm to the linearized signal processing model to estimate the alignment angles (β i); producing, based on the estimated alignment angles (β i), the signals suitable for causing a road vehicle radar auto-alignment controller to perform radar offset compensation.
A humanized antibody that specifically binds to human Tau, wherein the antibody comprises a) in the heavy chain variable domain the HVRs of SEQ ID NO: 08, 18 and 10, and in the light chain variable domain the HVRs of SEQ ID NO: 13, 14 and 15, or b) in the heavy chain variable domain the HVRs of SEQ ID NO: 08, 09 and 10, and in the light chain variable domain the HVRs of SEQ ID NO: 12, 05 and 15, or c) in the heavy chain variable domain the HVRs of SEQ ID NO: 08, 09 and 10, and in the light chain variable domain the HVRs of SEQ ID NO: 13, 14 and 15. a) in the heavy chain variable domain the HVRs of SEQ ID NO: 08, 18 and 10, and in the light chain variable domain the HVRs of SEQ ID NO: 13, 14 and 15, or b) in the heavy chain variable domain the HVRs of SEQ ID NO: 08, 09 and 10, and in the light chain variable domain the HVRs of SEQ ID NO: 12, 05 and 15, or c) in the heavy chain variable domain the HVRs of SEQ ID NO: 08, 09 and 10, and in the light chain variable domain the HVRs of SEQ ID NO: 13, 14 and 15.
An isolated antibody which specifically binds human CD38 (SEQ ID NO: 1) and cynomolgus CD38 (SEQ ID NO:2) comprising: a) a heavy chain variable region comprising SEQ ID NO:9; and b) a light chain variable region comprising SEQ ID NO:10. a) a heavy chain variable region comprising SEQ ID NO:9; and b) a light chain variable region comprising SEQ ID NO:10.
Motor vehicle comprising an in-vehicle climate control device, said climate control device comprising: - a climate setting module for adjusting at least one climate parameter inside the motor vehicle, said climate setting module comprising a ventilation duct unit having a vent element, said ventilation duct unit forming an air passage for air from the inside of the climate setting module into the in-cabin room of the vehicle via the vent element, - a display module that is constructed to display a graphical content, whereby said display module at least partially forms an outer wall of the vent element, - a control unit that is configured to determine a value of the at least one climate parameter being adjusted by the climate setting module; assign an image parameter to each climate parameter; determine a value of said assigned image parameter depending on the determined value of the respective climate parameter to represent said determined value of said respective climate parameter; provide an image signal describing a graphical element, said graphical element being an image representing said determined value of said respective climate parameter; and transmit said provided image signal to the display module, characterised in that said display module extends from a front seat area to the back seat area of the motor vehicle's interior, and said image is an abstract image of a temperature, an air flow, an air quality, an air filter function, an air draft, and/or an air ionization function. - a climate setting module for adjusting at least one climate parameter inside the motor vehicle, said climate setting module comprising a ventilation duct unit having a vent element, said ventilation duct unit forming an air passage for air from the inside of the climate setting module into the in-cabin room of the vehicle via the vent element, - a display module that is constructed to display a graphical content, whereby said display module at least partially forms an outer wall of the vent element, - a control unit that is configured to determine a value of the at least one climate parameter being adjusted by the climate setting module; assign an image parameter to each climate parameter; determine a value of said assigned image parameter depending on the determined value of the respective climate parameter to represent said determined value of said respective climate parameter; provide an image signal describing a graphical element, said graphical element being an image representing said determined value of said respective climate parameter; and transmit said provided image signal to the display module, characterised in that said display module extends from a front seat area to the back seat area of the motor vehicle's interior, and said image is an abstract image of a temperature, an air flow, an air quality, an air filter function, an air draft, and/or an air ionization function.
An endoscopic device comprising: a tubular member comprising a shaft, a distal end portion, and a wire guide lumen extending through at least a portion of the distal end portion; the distal end portion comprising a continuous compound curve portion and a distal tip; the continuous compound curve portion comprising a first curved portion and a second curved portion, each having a radius of curvature and a length, the first curved portion located proximal to the second curved portion, wherein the second curved portion is formed by heat setting, and the first curved portion is suitable to flex into a semi-straightened shape when advanced through an accessory channel of an endoscope and to relax back to its pre-curved shape when it emerges from the distal end of the accessory channel, the first curved portion connected to the second curved portion to form a continuous compound curve wherein the radius of curvature of the first curved portion is greater than the radius of curvature of the second curved portion; further comprising an electrically conductive cutting element located along the distal end portion and proximal to the second curved portion, the cutting element connected to an electrical conductor extending within a second lumen extending through at least a portion of the tubular member, the cutting element extending exteriorly of the tubular member along an inner radius of curvature of the first curved portion, the cutting element being movable within a cutting plane. a tubular member comprising a shaft, a distal end portion, and a wire guide lumen extending through at least a portion of the distal end portion; the distal end portion comprising a continuous compound curve portion and a distal tip; the continuous compound curve portion comprising a first curved portion and a second curved portion, each having a radius of curvature and a length, the first curved portion located proximal to the second curved portion, wherein the second curved portion is formed by heat setting, and the first curved portion is suitable to flex into a semi-straightened shape when advanced through an accessory channel of an endoscope and to relax back to its pre-curved shape when it emerges from the distal end of the accessory channel, the first curved portion connected to the second curved portion to form a continuous compound curve wherein the radius of curvature of the first curved portion is greater than the radius of curvature of the second curved portion; further comprising an electrically conductive cutting element located along the distal end portion and proximal to the second curved portion, the cutting element connected to an electrical conductor extending within a second lumen extending through at least a portion of the tubular member, the cutting element extending exteriorly of the tubular member along an inner radius of curvature of the first curved portion, the cutting element being movable within a cutting plane.
A robot comprising: a robot body; an arm that is provided on the robot body; and an abutment member that is provided on the robot body and that has an abutment section configured for abutting a work stand, wherein the abutment section has a shock absorption section, a shape formed by the abutment member and a front surface of the robot body being a substantially polygonal shape in a plan view from above of the abutment member mounted on the robot body, characterized in that a portion of the abutment member, which has the widest lateral width, is wider than the lateral width of said front surface of the robot body in said plan view. a robot body; an arm that is provided on the robot body; and an abutment member that is provided on the robot body and that has an abutment section configured for abutting a work stand, wherein the abutment section has a shock absorption section, a shape formed by the abutment member and a front surface of the robot body being a substantially polygonal shape in a plan view from above of the abutment member mounted on the robot body, characterized in that a portion of the abutment member, which has the widest lateral width, is wider than the lateral width of said front surface of the robot body in said plan view.
An access proxy, wherein the access proxy applies to a computer system, the computer system comprises a processor and a peripheral component interconnect express, PCIe, bus, and the PCIe bus connects to at least one PCIe endpoint device; the access proxy connects to the processor and the PCIe endpoint device; and the access proxy is configured to receive a request for accessing the PCIe endpoint device from the processor, and return a response message of the access request to the processor to make the processor determine that a task corresponding to the access request is complete, access the PCIe endpoint device according to the access request, send a first notification message or a second notification message to the processor, wherein the first notification message indicates that access to the PCIe endpoint device is successful and so that the processor acquires an access result when receiving the first notification message, the second notification message indicates that the access to the PCIe endpoint device fails and so that the processor execute subsequent processing for an access failure when receiving the second notification message.
A method, comprising: at an electronic device having one or more processors: receiving a plurality of speech inputs, each of the speech inputs associated with a same user of the electronic device; providing each of the plurality of speech inputs to a user-independent acoustic model, the user-independent acoustic model providing a plurality of speech results based on the plurality of speech inputs; initiating a user-specific acoustic model on the electronic device; and adjusting the user-specific acoustic model based on the plurality of speech inputs and the plurality of speech results; wherein the method further comprises: providing the adjusted user-specific acoustic model to another electronic device; and wherein at the another electronic device: receiving the adjusted user-specific acoustic model; receiving a speech input; and identifying, with the adjusted user-specific acoustic model, a speaker of the speech input. at an electronic device having one or more processors: receiving a plurality of speech inputs, each of the speech inputs associated with a same user of the electronic device; providing each of the plurality of speech inputs to a user-independent acoustic model, the user-independent acoustic model providing a plurality of speech results based on the plurality of speech inputs; initiating a user-specific acoustic model on the electronic device; and adjusting the user-specific acoustic model based on the plurality of speech inputs and the plurality of speech results; receiving a plurality of speech inputs, each of the speech inputs associated with a same user of the electronic device; providing each of the plurality of speech inputs to a user-independent acoustic model, the user-independent acoustic model providing a plurality of speech results based on the plurality of speech inputs; initiating a user-specific acoustic model on the electronic device; and adjusting the user-specific acoustic model based on the plurality of speech inputs and the plurality of speech results; wherein the method further comprises: providing the adjusted user-specific acoustic model to another electronic device; and wherein at the another electronic device: receiving the adjusted user-specific acoustic model; receiving a speech input; and identifying, with the adjusted user-specific acoustic model, a speaker of the speech input. receiving the adjusted user-specific acoustic model; receiving a speech input; and identifying, with the adjusted user-specific acoustic model, a speaker of the speech input.
Rail vehicle car body having at least one container in which at least one rail vehicle component (60, 70) is accommodated, characterized in that the container is arranged in the haunch region of the rail vehicle car body, wherein the haunch region is the transition region between a side wall and a car body roof, and the shaping of the container is adapted to an internal contour of the haunch region and faces the side wall with its rear side and the car body roof with its upper side.
A clot removal device, comprising: an elongated member comprising a distal end; and an expandable frame comprising: a proximal end; a distal end; and two or more frame members (216a, 216b, 216c) each comprising one or more pinching cells operable to be slidably and rotatably placed thereon, each of the pinching cells comprising a collapsed state within a microcatheter and an expanded state distal of the microcatheter operable to tweeze at least a portion of a clot. an elongated member comprising a distal end; and an expandable frame comprising: a proximal end; a distal end; and two or more frame members (216a, 216b, 216c) each comprising one or more pinching cells operable to be slidably and rotatably placed thereon, each of the pinching cells comprising a collapsed state within a microcatheter and an expanded state distal of the microcatheter operable to tweeze at least a portion of a clot. a proximal end; a distal end; and two or more frame members (216a, 216b, 216c) each comprising one or more pinching cells operable to be slidably and rotatably placed thereon, each of the pinching cells comprising a collapsed state within a microcatheter and an expanded state distal of the microcatheter operable to tweeze at least a portion of a clot.
A tire comprising: a carcass extending toroidally between a pair of bead portions; a belt layer (15a, 15b) provided on a tire radial outer side of a crown portion of the carcass; and a belt reinforcement layer provided on the tire radial outer side of the belt layer (15a, 15b), wherein the tire comprises an organic fiber cord coated with an adhesive composition that includes polyphenols and aldehydes, when a tire widthwise region centered on a tire equatorial plane and having a width in a tire width direction of 2/3 of the length between ground contact edges is a center region, and tire widthwise regions between the ground contact edges and tire widthwise outer sides of the center region are shoulder regions, a first tensile elastic modulus of the belt reinforcement layer in the center region is smaller than a second tensile elastic modulus of the belt reinforcement layer in the shoulder regions, and a ratio of the first tensile elastic modulus to the second tensile elastic modulus is between 1/1.5 and 1/5.0. a carcass extending toroidally between a pair of bead portions; a belt layer (15a, 15b) provided on a tire radial outer side of a crown portion of the carcass; and a belt reinforcement layer provided on the tire radial outer side of the belt layer (15a, 15b), wherein the tire comprises an organic fiber cord coated with an adhesive composition that includes polyphenols and aldehydes, when a tire widthwise region centered on a tire equatorial plane and having a width in a tire width direction of 2/3 of the length between ground contact edges is a center region, and tire widthwise regions between the ground contact edges and tire widthwise outer sides of the center region are shoulder regions, a first tensile elastic modulus of the belt reinforcement layer in the center region is smaller than a second tensile elastic modulus of the belt reinforcement layer in the shoulder regions, and a ratio of the first tensile elastic modulus to the second tensile elastic modulus is between 1/1.5 and 1/5.0.
A sample measuring method of optically measuring a sample housed in a container in a sample measurement device, the method comprising: loading the container such that the container is shielded from light; starting to read information regarding a measurement to be performed on the sample from the container in response to the loading the container; determining whether there is an error of reading the information; and when it is determined that there is the error, notifying the error, and when it is determined that there is not the error, measuring the sample in response to reading the information based on the read information. loading the container such that the container is shielded from light; starting to read information regarding a measurement to be performed on the sample from the container in response to the loading the container; determining whether there is an error of reading the information; and when it is determined that there is the error, notifying the error, and when it is determined that there is not the error, measuring the sample in response to reading the information based on the read information.