mhurhangee/patent-ind-claim-en huggingface dataset:
An autonomous driving control method carried out by an autonomous driving control system using a controller that executes an autonomous driving control for causing a host vehicle to travel along a target travel route generated on a map, comprising: setting (S2) one or a plurality of target passage gates through which the host vehicle is scheduled to pass from among a plurality of gates of a toll plaza, during passage through the toll plaza while traveling along the target travel route; determining (S3) whether there is traffic congestion near the toll plaza, including in or before a toll plaza area; executing (S7) an autonomous driving control for causing the host vehicle to travel along the target travel route if there is no traffic congestion; determining (S4b) a presence or absence of at least one preceding vehicle traveling in front of the host vehicle that has a predicted passage gate that matches the target passage gate of the host vehicle if there is traffic congestion; carrying out (S6, S7b) following travel using the preceding vehicle as a follow target if there is traffic congestion and the preceding vehicle that has the predicted passage gate that matches the target passage gate is present; and executing (S7) the autonomous driving control for causing the host vehicle to travel along the target travel route if there is traffic congestion and the preceding vehicle that has the predicted passage gate that matches the target passage gate is not present. setting (S2) one or a plurality of target passage gates through which the host vehicle is scheduled to pass from among a plurality of gates of a toll plaza, during passage through the toll plaza while traveling along the target travel route; determining (S3) whether there is traffic congestion near the toll plaza, including in or before a toll plaza area; executing (S7) an autonomous driving control for causing the host vehicle to travel along the target travel route if there is no traffic congestion; determining (S4b) a presence or absence of at least one preceding vehicle traveling in front of the host vehicle that has a predicted passage gate that matches the target passage gate of the host vehicle if there is traffic congestion; carrying out (S6, S7b) following travel using the preceding vehicle as a follow target if there is traffic congestion and the preceding vehicle that has the predicted passage gate that matches the target passage gate is present; and executing (S7) the autonomous driving control for causing the host vehicle to travel along the target travel route if there is traffic congestion and the preceding vehicle that has the predicted passage gate that matches the target passage gate is not present.
A method of transmitting media data from a source device , the method comprising: establishing, with the source device , a first communication session between the source device and a sink device of a vehicle head unit, wherein the first communication session conforms to a first communication protocol and is associated with a display application at the sink device to render a user selection window ; receiving, with the source device and by the first communication session , a control message from the sink device indicating a selection of an application item of one or more application items (98A, ..., 98N) rendered in the user selection window ; in response to the control message, executing a wireless display service with the source device ; during operation of the first communication session , establishing, with the source device , a second communication session for the wireless display service between the source device and the sink device , wherein the second communication session conforms to a second communication protocol; and transmitting, using the second communication session , media data from the source device to the sink device for output to an interface of the sink device . establishing, with the source device , a first communication session between the source device and a sink device of a vehicle head unit, wherein the first communication session conforms to a first communication protocol and is associated with a display application at the sink device to render a user selection window ; receiving, with the source device and by the first communication session , a control message from the sink device indicating a selection of an application item of one or more application items (98A, ..., 98N) rendered in the user selection window ; in response to the control message, executing a wireless display service with the source device ; during operation of the first communication session , establishing, with the source device , a second communication session for the wireless display service between the source device and the sink device , wherein the second communication session conforms to a second communication protocol; and transmitting, using the second communication session , media data from the source device to the sink device for output to an interface of the sink device .
A compound which is or a pharmaceutically acceptable salt thereof for use in treating chronic cough or neuronal hypersensitivity underlying acute, sub-acute or chronic cough, wherein the compound or pharmaceutically acceptable salt thereof is administered in the range of 45-55 mg twice daily.
Method for checking a drive current (I A ) of an electric machine , in particular an electric machine of a coordinate measuring machine , wherein the electric machine has a control unit and an electric drive having a stator and a rotor, wherein the control unit energizes the stator by means of the drive current, having the steps of: - detecting a value of the drive current (I A ), which is fed to the electric drive for the purpose of driving the rotor, - detecting a measurement value (U C ) of an electrical input variable of the electric machine , wherein the electrical input variable is a total current (I V ) consumed by the electric machine or an electrical variable (U S ) corresponding to the total current (I V ) consumed by the electric machine , - determining a calculation value (U C ) on the basis of the detected value of the drive current (I A ) and of a performance model of the electric machine , and - determining a comparison value on the basis of the detected measurement value (U S ) and of the determined calculation value (U C ) of the electrical input variable, in order to check the detected value of the drive current (I A ), - characterized in that the calculation value (U C ) is a calculated value of the electrical input variable, wherein the comparison value is determined on the basis of a difference value between the measurement value (U S ) and the calculation value (U C ) of the electrical input variable. - detecting a value of the drive current (I A ), which is fed to the electric drive for the purpose of driving the rotor, - detecting a measurement value (U C ) of an electrical input variable of the electric machine , wherein the electrical input variable is a total current (I V ) consumed by the electric machine or an electrical variable (U S ) corresponding to the total current (I V ) consumed by the electric machine , - determining a calculation value (U C ) on the basis of the detected value of the drive current (I A ) and of a performance model of the electric machine , and - determining a comparison value on the basis of the detected measurement value (U S ) and of the determined calculation value (U C ) of the electrical input variable, in order to check the detected value of the drive current (I A ), - characterized in that the calculation value (U C ) is a calculated value of the electrical input variable, wherein the comparison value is determined on the basis of a difference value between the measurement value (U S ) and the calculation value (U C ) of the electrical input variable.
A method comprising: applying a bond coat slurry on a silicon-based substrate , wherein the bond coat slurry comprises a bond coat patching material in a bond coat fluid carrier, wherein the bond coat patching material comprises a silicon-based powder, a bond coat binder, and a bond coat sintering aid, and wherein the silicon-based powder comprises a plurality of small particles with a median particle size less than 1 micrometre, a plurality of medium particles with median particle size in a range from 1 micrometre to 6 micrometres; and a plurality of large particles with median particle size greater than 6 micrometres, wherein the plurality of small particles is present in an amount in a range from 40 volume % to 90 volume %, the plurality of medium particles is present in an amount in a range from 5 volume % to 50 volume %, and the plurality of large particles is present in an amount in a range from 5 volume % to 50 volume % of the volume of the silicon-based powder; drying the bond coat slurry on the silicon-based substrate to form a dried bond coat ; and sintering the dried bond coat in an oxidizing atmosphere to form a sintered bond coat on the silicon-based substrate . applying a bond coat slurry on a silicon-based substrate , wherein the bond coat slurry comprises a bond coat patching material in a bond coat fluid carrier, wherein the bond coat patching material comprises a silicon-based powder, a bond coat binder, and a bond coat sintering aid, and wherein the silicon-based powder comprises a plurality of small particles with a median particle size less than 1 micrometre, a plurality of medium particles with median particle size in a range from 1 micrometre to 6 micrometres; and a plurality of large particles with median particle size greater than 6 micrometres, wherein the plurality of small particles is present in an amount in a range from 40 volume % to 90 volume %, the plurality of medium particles is present in an amount in a range from 5 volume % to 50 volume %, and the plurality of large particles is present in an amount in a range from 5 volume % to 50 volume % of the volume of the silicon-based powder; drying the bond coat slurry on the silicon-based substrate to form a dried bond coat ; and sintering the dried bond coat in an oxidizing atmosphere to form a sintered bond coat on the silicon-based substrate .
A method of verifying that an anti-counterfeit medium is authentic, the method comprising: providing an anti-counterfeit medium , the anti-counterfeit medium comprising: a support member including a first portion (P1) naving optical transparency; a first retardation layer : facing the first portion (P1) and including a plurality of regions (R1, R2) Whose slow axis directions are different from each other; and a polarizing layer : facing the first retardation layer at a position of the first portion (P1), wherein the anti-counterfeit medium comprises only the polarizing layer as a polarizer, and a portion out of the anti-counterfeit medium where the first portion (P1), the first retardation layer , and the polarizing layer form a stacked structure has optical transparency, the method comprising observing a portion of the anti-counterfeit medium corresponding to the stacked structure with a unaided eye in a state in which the first retardation layer located between the polarizing layer and an observer, and a reflector is located behind the anti-counterfeit medium . providing an anti-counterfeit medium , the anti-counterfeit medium comprising: a support member including a first portion (P1) naving optical transparency; a first retardation layer : facing the first portion (P1) and including a plurality of regions (R1, R2) Whose slow axis directions are different from each other; and a polarizing layer : facing the first retardation layer at a position of the first portion (P1), a support member including a first portion (P1) naving optical transparency; a first retardation layer : facing the first portion (P1) and including a plurality of regions (R1, R2) Whose slow axis directions are different from each other; and a polarizing layer : facing the first retardation layer at a position of the first portion (P1), wherein the anti-counterfeit medium comprises only the polarizing layer as a polarizer, and a portion out of the anti-counterfeit medium where the first portion (P1), the first retardation layer , and the polarizing layer form a stacked structure has optical transparency, the method comprising observing a portion of the anti-counterfeit medium corresponding to the stacked structure with a unaided eye in a state in which the first retardation layer located between the polarizing layer and an observer, and a reflector is located behind the anti-counterfeit medium .
A vehicle headlamp comprising: a semiconductor-type light source ; a lens configured to illuminate light from the semiconductor-type light source forward of a vehicle (C), as a predetermined light distribution pattern; a mount member to which the semiconductor-type light source is fixed; a light control member that is disposed so as to be movable between a first location and a second location, and is configured to switch the light distribution pattern; and a driving member configured to position the light control member so as to be changeably movable between the first location and the second location, wherein the mount member is provided with a housing groove portion arranged to house at least a part of the light control member when the light control member is positioned in the second location, characterized in that the light control member includes at least a light shading portion that is positioned between the semiconductor-type light source and the lens when the light control member is positioned in the first location and that is housed in the housing groove portion when the light control member is positioned in the second location. a semiconductor-type light source ; a lens configured to illuminate light from the semiconductor-type light source forward of a vehicle (C), as a predetermined light distribution pattern; a mount member to which the semiconductor-type light source is fixed; a light control member that is disposed so as to be movable between a first location and a second location, and is configured to switch the light distribution pattern; and a driving member configured to position the light control member so as to be changeably movable between the first location and the second location, wherein the mount member is provided with a housing groove portion arranged to house at least a part of the light control member when the light control member is positioned in the second location, characterized in that the light control member includes at least a light shading portion that is positioned between the semiconductor-type light source and the lens when the light control member is positioned in the first location and that is housed in the housing groove portion when the light control member is positioned in the second location.
Ultrasound visualization system for tracking a position of an interventional device based on a stream of live ultrasound images of an ultrasound imaging probe , the ultrasound visualization system comprising at least one processor configured to: receive the stream of live ultrasound images ; extract from the stream of live ultrasound images a reference image comprising reference image data, the reference image including an anatomical feature ; extract from the stream of live ultrasound images a current image comprising current image data, the current image being later in time to the reference image and including at least a portion of the anatomical feature and including at least a portion of the interventional device at a current position ; match the at least a portion of the anatomical feature in the current image with the anatomical feature in the reference image to determine a spatial relationship between the current position of the interventional device and the anatomical feature in the reference image ; characterized in that the processor is further configured to: indicate, in the reference image , the current position of the interventional device , based on the determined spatial relationship; receive from the interventional device a trigger signal indicative of an activation of the interventional device; and to provide a marker in the reference image corresponding to the position of the interventional device at the time at which the interventional device was activated. receive the stream of live ultrasound images ; extract from the stream of live ultrasound images a reference image comprising reference image data, the reference image including an anatomical feature ; extract from the stream of live ultrasound images a current image comprising current image data, the current image being later in time to the reference image and including at least a portion of the anatomical feature and including at least a portion of the interventional device at a current position ; match the at least a portion of the anatomical feature in the current image with the anatomical feature in the reference image to determine a spatial relationship between the current position of the interventional device and the anatomical feature in the reference image ; characterized in that the processor is further configured to: indicate, in the reference image , the current position of the interventional device , based on the determined spatial relationship; receive from the interventional device a trigger signal indicative of an activation of the interventional device; and to provide a marker in the reference image corresponding to the position of the interventional device at the time at which the interventional device was activated.
A production line configuration apparatus configuring a production line for a product comprising: an operation part performing an operation related to production of the product; a touch-sensitive manipulation part accepting input via a touch manipulation by a user; and a change part changing a set value in the operation part on the basis of a method for the touch manipulation, whereby the touch manipulation is a flick manipulation, a swipe manipulation or a tap manipulation, characterized in that the production line configuration apparatus is a bag making and packaging machine which comprises the operation part performing an operation related to at least one of bag making and packaging, wherein the operation part includes an adjustment part adjusting width-wise meandering of a film of a film roll held on a film roll hold part, and the change part changes, as the set value, a value indicating a position of the adjustment part. an operation part performing an operation related to production of the product; a touch-sensitive manipulation part accepting input via a touch manipulation by a user; and a change part changing a set value in the operation part on the basis of a method for the touch manipulation, whereby the touch manipulation is a flick manipulation, a swipe manipulation or a tap manipulation, characterized in that the production line configuration apparatus is a bag making and packaging machine which comprises the operation part performing an operation related to at least one of bag making and packaging, wherein the operation part includes an adjustment part adjusting width-wise meandering of a film of a film roll held on a film roll hold part, and the change part changes, as the set value, a value indicating a position of the adjustment part.
A projectile comprising: a frame ; a first gimbal rotatably supported by the frame; a second gimbal rotatably supported by the first gimbal; a sensor supported by the second gimbal, said sensor comprising an added bottom portion ; an adjustment mechanism configured to maneuver the first and second gimbals to adjust the position of the sensor; and a stop attached to the frame, the stop being configured to surround the bottom portion of the sensor such that when the sensor engages the stop, the stop prevents the bottom portion of the sensor from maneuvering outside a designated area, and wherein the bottom portion of the sensor is formed of a vibration and/or shock dampening material. a frame ; a first gimbal rotatably supported by the frame; a second gimbal rotatably supported by the first gimbal; a sensor supported by the second gimbal, said sensor comprising an added bottom portion ; an adjustment mechanism configured to maneuver the first and second gimbals to adjust the position of the sensor; and a stop attached to the frame, the stop being configured to surround the bottom portion of the sensor such that when the sensor engages the stop, the stop prevents the bottom portion of the sensor from maneuvering outside a designated area, and wherein the bottom portion of the sensor is formed of a vibration and/or shock dampening material.
An antenna comprising: a ground structure ; a radiating element extending along a longitudinal axis substantially orthogonally from said ground structure ; an electrically conductive sleeve extending along said longitudinal axis and at least partially enclosing the radiating element , thereby forming a space between said at least partially enclosed radiating element and said sleeve ; and a dielectric material at least partially filling the space; characterized in that it further comprises one or more filtering elements in the space between said sleeve and said radiating element , wherein each of the one or more filtering elements includes a printed circuit board having a dielectric base layer and a conductive layer on top of the dielectric layer , said conductive layer forming a metallic H-shape layer. a ground structure ; a radiating element extending along a longitudinal axis substantially orthogonally from said ground structure ; an electrically conductive sleeve extending along said longitudinal axis and at least partially enclosing the radiating element , thereby forming a space between said at least partially enclosed radiating element and said sleeve ; and a dielectric material at least partially filling the space; characterized in that it further comprises one or more filtering elements in the space between said sleeve and said radiating element , wherein each of the one or more filtering elements includes a printed circuit board having a dielectric base layer and a conductive layer on top of the dielectric layer , said conductive layer forming a metallic H-shape layer.
A sclerostin antagonist antibody which specifically binds to sclerostin for use in a method of increasing bone density in a patient with low bone mass, wherein the sclerostin antagonist antibody is serially administered with an antiresorptive drug.