mhurhangee/patent-ind-claim-en huggingface dataset:
A method of performing a beam refinement protocol (BRP), comprising, at a responder: receiving a BRP measurement frame from an initiator of the BRP; generating feedback regarding the BRP measurement frame; and transmitting a response to the BRP measurement frame within a predetermined time of receipt of the BRP measurement frame, including, transmitting the feedback if the feedback is available within the predetermined time of receipt of the BRP measurement frame; and transmitting information in acknowledgement of receipt of the BRP measurement frame if the feedback is not available within the predetermined time of receipt of the BRP measurement frame, wherein transmitting the information includes transmitting an indication of a time at which the feedback will be available. receiving a BRP measurement frame from an initiator of the BRP; generating feedback regarding the BRP measurement frame; and transmitting a response to the BRP measurement frame within a predetermined time of receipt of the BRP measurement frame, including, transmitting the feedback if the feedback is available within the predetermined time of receipt of the BRP measurement frame; and transmitting information in acknowledgement of receipt of the BRP measurement frame if the feedback is not available within the predetermined time of receipt of the BRP measurement frame, wherein transmitting the information includes transmitting an indication of a time at which the feedback will be available. transmitting the feedback if the feedback is available within the predetermined time of receipt of the BRP measurement frame; and transmitting information in acknowledgement of receipt of the BRP measurement frame if the feedback is not available within the predetermined time of receipt of the BRP measurement frame, wherein transmitting the information includes transmitting an indication of a time at which the feedback will be available.
A measurement method for the left atrial wall thickness of the heart through a left atrial wall thickness measurement device, the method comprising the steps of: (a) extracting a plurality of pixels corresponding to the left atrial outline in an Nth, wherein N is a positive integer greater than or equal to 3, computed tomography (CT) image having Hounsfield numbers applied by pixel to calculate the two-dimensional normal vectors for the plurality of pixels extracted; (b) extracting a plurality of pixels corresponding to the left atrial outline from any one or more images of first, N-lth, N+1th, and Mth, wherein M is a positive integer greater than or equal to 5, CT images, using the coordinates of the plurality of pixels corresponding to the left atrial outline extracted in the Nth CT image, to calculate the two-dimensional normal vectors for the plurality of pixels extracted; (c) calculating the three-dimensional normal vectors for the plurality of pixels corresponding to the left atrial outline extracted in the Nth CT image and for the plurality of pixels corresponding to the left atrial outline extracted in any one or more images of the first, N-lth, N+lth, and Mth CT images, using the coordinates of the plurality of pixels and the calculated two-dimensional normal vectors; (d) correcting the Hounsfield numbers provided to the plurality of pixels corresponding to the directions of the three-dimensional normal vectors for the plurality of pixels through interpolation; and (e) calculating the left atrial wall thickness of the heart by applying full width at half maximum (FWHM) to the corrected Hounsfield numbers. (a) extracting a plurality of pixels corresponding to the left atrial outline in an Nth, wherein N is a positive integer greater than or equal to 3, computed tomography (CT) image having Hounsfield numbers applied by pixel to calculate the two-dimensional normal vectors for the plurality of pixels extracted; (b) extracting a plurality of pixels corresponding to the left atrial outline from any one or more images of first, N-lth, N+1th, and Mth, wherein M is a positive integer greater than or equal to 5, CT images, using the coordinates of the plurality of pixels corresponding to the left atrial outline extracted in the Nth CT image, to calculate the two-dimensional normal vectors for the plurality of pixels extracted; (c) calculating the three-dimensional normal vectors for the plurality of pixels corresponding to the left atrial outline extracted in the Nth CT image and for the plurality of pixels corresponding to the left atrial outline extracted in any one or more images of the first, N-lth, N+lth, and Mth CT images, using the coordinates of the plurality of pixels and the calculated two-dimensional normal vectors; (d) correcting the Hounsfield numbers provided to the plurality of pixels corresponding to the directions of the three-dimensional normal vectors for the plurality of pixels through interpolation; and (e) calculating the left atrial wall thickness of the heart by applying full width at half maximum (FWHM) to the corrected Hounsfield numbers.
Arrangement having: a rotary controller ; an electronic display comprising a transparent outer layer ; wherein the rotary controller has an actuating part and means for rotary setting detection , wherein the actuating part is supported by means of bearing means so as to be rotationally movable about an axis of rotation and the rotary controller is arranged on the transparent layer ; and the arrangement furthermore has on the transparent layer a circumferential wall surrounding at least the supporting means , wherein the circumferential wall is defined by a ridge-type and annular elevation on the transparent layer ; wherein at least one opening disposed at the centre of the rotary controller is provided for the visibility or optical projection by means of the electronic display , and characterized in that the bearing means comprise a rolling bearing , in that the inner track thereof is arranged on an annular mount in the direction of the operator with an offset to the transparent layer , or in that the mount defines an inner track of the rolling bearing that is arranged in the direction of the user with an offset to the transparent layer .
A side-by side refrigerator which includes: a cabinet comprising a left storage compartment and a right storage compartment ; a left door and a right door to open and close a front surface of the left and right storage compartments of the cabinet ;and a left door opening device and a right door opening device , which are respectively installed on the left door and on the right door ; each of the left and right door opening devices comprising: a handle which is mounted on a front surface of the respective door to perform a seesaw motion; and a push kit which is mounted on a side surface of the respective door to operate with the handle and having a pushrod , characterized by a portion on which the handle and the push kit are mounted is formed to be recessed in the door ; a cover which is installed on the side surface of the respective door to cover the push kit ; and wherein the pushrod installed on the left door and the pushrod installed on the right door are arranged at different heights to prevent interference from being generated between the pushrods . a cabinet comprising a left storage compartment and a right storage compartment ; a left door and a right door to open and close a front surface of the left and right storage compartments of the cabinet ;and a left door opening device and a right door opening device , which are respectively installed on the left door and on the right door ; each of the left and right door opening devices comprising: a handle which is mounted on a front surface of the respective door to perform a seesaw motion; and a push kit which is mounted on a side surface of the respective door to operate with the handle and having a pushrod , characterized by a portion on which the handle and the push kit are mounted is formed to be recessed in the door ; a cover which is installed on the side surface of the respective door to cover the push kit ; and wherein the pushrod installed on the left door and the pushrod installed on the right door are arranged at different heights to prevent interference from being generated between the pushrods . a handle which is mounted on a front surface of the respective door to perform a seesaw motion; and a push kit which is mounted on a side surface of the respective door to operate with the handle and having a pushrod , characterized by a portion on which the handle and the push kit are mounted is formed to be recessed in the door ; a cover which is installed on the side surface of the respective door to cover the push kit ; and wherein the pushrod installed on the left door and the pushrod installed on the right door are arranged at different heights to prevent interference from being generated between the pushrods .
An animal containment cage unit member, wherein the cage unit member is a cage base comprising a bottom and one or more walls, wherein the walls comprise an interior surface and an exterior surface; or wherein the cage unit member is a cage cover comprising a planar region comprising an interior surface and an exterior surface and a flange region extending around a perimeter of the cover; wherein the cage unit member is configured for nesting with another like cage unit member; wherein one or more cage components and/or one or more cage component mount members are engaged with a portion of the cage unit member; characterized in that the one or more cage components and/or the one or more cage component mount members are configured for disengagement from the cage unit member by the nesting of the cage unit member with another like cage unit member. wherein the cage unit member is a cage base comprising a bottom and one or more walls, wherein the walls comprise an interior surface and an exterior surface; or wherein the cage unit member is a cage cover comprising a planar region comprising an interior surface and an exterior surface and a flange region extending around a perimeter of the cover; wherein the cage unit member is configured for nesting with another like cage unit member; wherein one or more cage components and/or one or more cage component mount members are engaged with a portion of the cage unit member; characterized in that the one or more cage components and/or the one or more cage component mount members are configured for disengagement from the cage unit member by the nesting of the cage unit member with another like cage unit member.
A method of operating a marine foundation during cyclical loading that subjects a suction pile of the foundation to compression phases and tension phases in alternation, the method comprising: during the compression phases, opening a one-way valve to effect fluid communication between an internal chamber of the pile and surrounding water, thereby ejecting water from within the chamber through the valve ; and during the tension phases, closing the valve and admitting water into the pile through soil within a skirt of the pile . during the compression phases, opening a one-way valve to effect fluid communication between an internal chamber of the pile and surrounding water, thereby ejecting water from within the chamber through the valve ; and during the tension phases, closing the valve and admitting water into the pile through soil within a skirt of the pile .
An apparatus configured for predicting power loss of a transformer comprising a winding and insulating oil, the apparatus comprising a measurement unit , a calculation unit , a storage unit , and a determination unit , characterized in, that the measurement unit comprises a winding temperature indicator, a liquid thermometer, and an optical sensor, the measurement unit being configured to measure a temperature of the winding and the insulating oil of the transformer and an ambient temperature of the transformer , wherein the ambient temperature of the transformer is a temperature of an outer portion of the transformer ; that the storage unit is configured to set and store reference data, wherein the reference data includes the power loss dependent upon a saturation temperature and a temperature slope of the transformer, wherein the power loss includes no-load power and load power, wherein the saturation temperature is a temperature of the transformer when a variation rate of the temperature of the winding or the insulating oil and a variation rate of the ambient temperature are within a preset range; that the calculation unit is configured to calculate temperature data of the transformer, the temperature data including the saturation temperature and the temperature slope of the transformer, wherein the temperature slope is the variation rate of the temperature of the winding, the insulating oil, or the optical sensor according to time; and that the determination unit is configured to determine the power loss of the transformer by comparing the temperature data with the reference data.
A computer-readable medium comprising instructions which, when executed, cause a single audio-visual automated speech recognition, AV-ASR, model to transcribe speech from audio-visual data , the single AV-ASR model comprising: an encoder frontend comprising an attention mechanism , the attention mechanism being configured to receive an audio track of the audio-visual data and a video portion of the audio-visual data , the video portion of the audio-visual data comprising a plurality of video face tracks , each video face track of the plurality of video face tracks is associated with a face of a respective person; and for each video face track of the plurality of video face tracks , determine a confidence score indicating a likelihood that the face of the respective person associated with the video face track comprises a speaking face of the audio track ; and a decoder configured to process the audio track and the video face track of the plurality of video face tracks associated with the highest confidence score to determine a speech recognition result of the audio track . an encoder frontend comprising an attention mechanism , the attention mechanism being configured to receive an audio track of the audio-visual data and a video portion of the audio-visual data , the video portion of the audio-visual data comprising a plurality of video face tracks , each video face track of the plurality of video face tracks is associated with a face of a respective person; and for each video face track of the plurality of video face tracks , determine a confidence score indicating a likelihood that the face of the respective person associated with the video face track comprises a speaking face of the audio track ; and receive an audio track of the audio-visual data and a video portion of the audio-visual data , the video portion of the audio-visual data comprising a plurality of video face tracks , each video face track of the plurality of video face tracks is associated with a face of a respective person; and for each video face track of the plurality of video face tracks , determine a confidence score indicating a likelihood that the face of the respective person associated with the video face track comprises a speaking face of the audio track ; and a decoder configured to process the audio track and the video face track of the plurality of video face tracks associated with the highest confidence score to determine a speech recognition result of the audio track .
Retaining device for a boot on a gliding board , the retaining device comprising: - a chassis configured to cooperate with a guide element that is secured to the gliding board so as to be able to slide longitudinally relative to the gliding board, - a holding mechanism configured to cooperate with a latching element belonging to the boot in order that the boot is held in position relative to the chassis, the holding mechanism being borne by the chassis and comprising: • a fixed jaw borne by the chassis, • a movable jaw that is able to move relative to the chassis, • an actuator that moves the movable jaw, • a connecting member connecting the actuator to a fastening point that is fixed relative to the chassis, - a locking member that is able to cooperate with one of the notches of a rack that is secured to the gliding board so as to prevent the chassis from sliding longitudinally, at least in one direction, relative to the gliding board, characterized in that the locking member is borne by the connecting member. - a chassis configured to cooperate with a guide element that is secured to the gliding board so as to be able to slide longitudinally relative to the gliding board, - a holding mechanism configured to cooperate with a latching element belonging to the boot in order that the boot is held in position relative to the chassis, the holding mechanism being borne by the chassis and comprising: • a fixed jaw borne by the chassis, • a movable jaw that is able to move relative to the chassis, • an actuator that moves the movable jaw, • a connecting member connecting the actuator to a fastening point that is fixed relative to the chassis, • a fixed jaw borne by the chassis, • a movable jaw that is able to move relative to the chassis, • an actuator that moves the movable jaw, • a connecting member connecting the actuator to a fastening point that is fixed relative to the chassis, - a locking member that is able to cooperate with one of the notches of a rack that is secured to the gliding board so as to prevent the chassis from sliding longitudinally, at least in one direction, relative to the gliding board,
A system for providing a multiple secure link, MSL, architecture, said system comprising: a MSL virtual private network, VPN, component that includes first logic that, when executed by a processor, of said system causes the system to perform the following: create a first VPN tunnel between a client workstation and a first owner gateway ; send an outbound datagram from the client workstation to the first owner gateway ; receive an inbound datagram from the first owner gateway to the client workstation , wherein the inbound datagram includes a source internet protocol, IP, address and a destination IP address that is set to a VPN owner private IP address; and send the inbound datagram with the destination IP address; and a MSL twin network address translator, NAT, that includes second logic that, when executed by the processor, causes the system to perform at least the following: receive the inbound datagram from MSL VPN ; record a new VPN owner private IP address from the source IP address in the inbound datagram; assign a new unique private IP, UPIP, address for the inbound datagram and the client workstation ; and send the inbound datagram to the client workstation , wherein the system additionally creates a second VPN tunnel between the client workstation and a second owner gateway while the first VPN tunnel is being utilized. create a first VPN tunnel between a client workstation and a first owner gateway ; send an outbound datagram from the client workstation to the first owner gateway ; receive an inbound datagram from the first owner gateway to the client workstation , wherein the inbound datagram includes a source internet protocol, IP, address and a destination IP address that is set to a VPN owner private IP address; and send the inbound datagram with the destination IP address; and a MSL twin network address translator, NAT, that includes second logic that, when executed by the processor, causes the system to perform at least the following: receive the inbound datagram from MSL VPN ; record a new VPN owner private IP address from the source IP address in the inbound datagram; assign a new unique private IP, UPIP, address for the inbound datagram and the client workstation ; and send the inbound datagram to the client workstation , wherein the system additionally creates a second VPN tunnel between the client workstation and a second owner gateway while the first VPN tunnel is being utilized.
A lead frame assembly for a semiconductor device, the lead frame assembly comprising: a die attach structure and a clip frame structure , the clip frame structure comprising: a die connection portion configured for contacting a contact terminal or a top side of the semiconductor die ; and a continuous lead portion extending along the die connection portion ; wherein the continuous lead portion is integrally formed with the die connection portion ; wherein the continuous lead portion is a merged lead portion which extends substantially across the width of the die connection portion , wherein the die connection portion comprises a second hole or second holes traverse or extend lengthways across the die connection portion , characterized in that the continuous lead portion comprises one or more first holes or slots arranged to act as an anchor or locking points for a mould compound, and wherein the continuous lead portion comprises one or more third holes or third slots arranged to prevent the continuous lead portion from springing back. a die connection portion configured for contacting a contact terminal or a top side of the semiconductor die ; and a continuous lead portion extending along the die connection portion ; wherein the continuous lead portion is integrally formed with the die connection portion ; wherein the continuous lead portion is a merged lead portion which extends substantially across the width of the die connection portion , wherein the die connection portion comprises a second hole or second holes traverse or extend lengthways across the die connection portion ,
A drive controller for use in an operating machine configured to drive a structure by a hydraulic motor and an electric motor configured to cooperate with the hydraulic motor , wherein the hydraulic motor is supplied with hydraulic oil from a hydraulic pump through a hydraulic motor circuit , wherein a flow rate of the hydraulic oil is controlled by a control valve , the drive controller comprising: a remote control valve configured to determine an operation amount of the structure; an electric motor torque calculation portion configured to calculate torque of the electric motor ; a hydraulic motor torque calculation portion configured to calculate torque of the hydraulic motor ; a controller configured to output an opening position control signal based on the operation amount determined by the remote control valve , the opening position control signal being output to operate the control valve such that the torque necessary to drive the structure is obtained from the torque of the electric motor and the torque of the hydraulic motor ; and a solenoid-operated reducing valve configured to reduce pilot pressure, to be applied to the control valve , based on the opening position control signal output from the controller . a remote control valve configured to determine an operation amount of the structure; an electric motor torque calculation portion configured to calculate torque of the electric motor ; a hydraulic motor torque calculation portion configured to calculate torque of the hydraulic motor ; a controller configured to output an opening position control signal based on the operation amount determined by the remote control valve , the opening position control signal being output to operate the control valve such that the torque necessary to drive the structure is obtained from the torque of the electric motor and the torque of the hydraulic motor ; and a solenoid-operated reducing valve configured to reduce pilot pressure, to be applied to the control valve , based on the opening position control signal output from the controller .
An air compressor including a main frame for mounting a motor , and a cylinder having an open end and a top wall opposite to the open end, the open end allowing a piston body to be fitted into the cylinder , the top wall defining an exit hole which allows compressed air produced in the cylinder to enter an air storage container while the piston body conducts reciprocating motion; wherein the cylinder is formed integrally with the main frame by a plastic material characterised in that the top wall defines at least one additional exit hole arranged side by side in one plane with the exit hole .