mhurhangee/ep-ind-claims huggingface dataset:
A sensing unit comprising: a sensing plate having a centrally located through-hole for receiving a rotating shaft, wherein a plurality of holes are formed along an edge of the sensing plate; a sensing magnet that is mounted on the sensing plate and is disposed closer to the rotating shaft than the plurality of holes; a first sensor that is disposed over the holes and that is configured to detect light passing through the holes; and a second sensor that is disposed over the sensing magnet and that is configured to detect a change of magnetic flux in the sensing magnet, characterized in that the sensing magnet comprises a plurality of N poles and a plurality of S poles arranged in an alternating fashion, the number of holes is greater than the number of the N poles and the S poles, the plurality of holes are configured to function as frequency generator poles, the plurality of holes have circle shapes, distances between the center of each of the plurality of holes and the center of the rotating shaft are the same, the plurality of holes are arranged at the same interval in the circumferential direction, the first sensor is configured to output an On signal when light is reflected and to output an Off signal when light is not reflected, and the second sensor is configured to output On signal at N poles and to output Off signal at S poles, the plurality of N poles and the plurality of S poles being arranged at a same distance from the center of the rotating shaft and in a circumferential direction. a sensing plate having a centrally located through-hole for receiving a rotating shaft, wherein a plurality of holes are formed along an edge of the sensing plate; a sensing magnet that is mounted on the sensing plate and is disposed closer to the rotating shaft than the plurality of holes; a first sensor that is disposed over the holes and that is configured to detect light passing through the holes; and a second sensor that is disposed over the sensing magnet and that is configured to detect a change of magnetic flux in the sensing magnet, the sensing magnet comprises a plurality of N poles and a plurality of S poles arranged in an alternating fashion, the number of holes is greater than the number of the N poles and the S poles, the plurality of holes are configured to function as frequency generator poles, the plurality of holes have circle shapes, distances between the center of each of the plurality of holes and the center of the rotating shaft are the same, the plurality of holes are arranged at the same interval in the circumferential direction, the first sensor is configured to output an On signal when light is reflected and to output an Off signal when light is not reflected, and the second sensor is configured to output On signal at N poles and to output Off signal at S poles, the plurality of N poles and the plurality of S poles being arranged at a same distance from the center of the rotating shaft and in a circumferential direction.
An ultrasonic surgical instrument, comprising: a housing having an elongated shaft extending therefrom, the shaft having a jaw member disposed at a distal end thereof, the jaw member movable between an open configuration and a clamping configuration and including a tissue contacting surface; and a cutting blade extending from a distal end of the shaft and operably coupled to the housing and adjacent the jaw member, the cutting blade configured to receive ultrasound energy to treat tissue; characterized in that said ultrasonic surgical instrument further comprises: at least one acoustic sensor configured to detect a change in an acoustic signature of the ultrasonic surgical instrument as a result of the cutting blade vibrating against the tissue contacting surface of the jaw member; and at least one controller in operable communication with the at least one acoustic sensor, the controller configured to terminate delivery of ultrasonic energy to the cutting blade based upon the said change in the acoustic signature of the ultrasonic surgical instrument. a housing having an elongated shaft extending therefrom, the shaft having a jaw member disposed at a distal end thereof, the jaw member movable between an open configuration and a clamping configuration and including a tissue contacting surface; and a cutting blade extending from a distal end of the shaft and operably coupled to the housing and adjacent the jaw member, the cutting blade configured to receive ultrasound energy to treat tissue; characterized in that said ultrasonic surgical instrument further comprises: at least one acoustic sensor configured to detect a change in an acoustic signature of the ultrasonic surgical instrument as a result of the cutting blade vibrating against the tissue contacting surface of the jaw member; and at least one controller in operable communication with the at least one acoustic sensor, the controller configured to terminate delivery of ultrasonic energy to the cutting blade based upon the said change in the acoustic signature of the ultrasonic surgical instrument. at least one acoustic sensor configured to detect a change in an acoustic signature of the ultrasonic surgical instrument as a result of the cutting blade vibrating against the tissue contacting surface of the jaw member; and at least one controller in operable communication with the at least one acoustic sensor, the controller configured to terminate delivery of ultrasonic energy to the cutting blade based upon the said change in the acoustic signature of the ultrasonic surgical instrument.
An information processing apparatus configured to operate as a viewer apparatus comprising: a streaming data acquisition section configured to acquire from a sharing server streaming data including a live distribution image for an application executed on a distributor apparatus; a specification information acquisition section configured to acquire from the sharing server specification information of a distributor apparatus that provides the streaming data and specification information of the application; a command information acquisition section configured to acquire command information for the application based on the specification information of the application; an image generation unit comprising a streaming data reproduction section configured to decode and reproduce the streaming data to generate the live distribution image, and a command image generation section to generate a command image based on the command information for inputting a command to the application; an acceptance unit configured to accept a command for input to the application in response to a selection input of the command image by a user; and a transmission unit (102, 344) configured to transmit the command for input to the application of the distributor apparatus, to reflect the command in the execution of the application, wherein the transmission unit is configured to transmit the command based on the specification information of the distributor. a streaming data acquisition section configured to acquire from a sharing server streaming data including a live distribution image for an application executed on a distributor apparatus; a specification information acquisition section configured to acquire from the sharing server specification information of a distributor apparatus that provides the streaming data and specification information of the application; a command information acquisition section configured to acquire command information for the application based on the specification information of the application; an image generation unit comprising a streaming data reproduction section configured to decode and reproduce the streaming data to generate the live distribution image, and a command image generation section to generate a command image based on the command information for inputting a command to the application; an acceptance unit configured to accept a command for input to the application in response to a selection input of the command image by a user; and a transmission unit (102, 344) configured to transmit the command for input to the application of the distributor apparatus, to reflect the command in the execution of the application, wherein the transmission unit is configured to transmit the command based on the specification information of the distributor.
A nozzle for a hotmelt adhesive dispensing module, comprising: a movable valve element (18, 18') including a frustoconical surface (74, 76); and a nozzle body including a bore, an inlet, an outlet and an insert dimensioned to be pressed into said bore with an interference fit; said insert carrying a liquid passageway extending from said inlet to said outlet and a valve seat (16, 108) in said liquid passageway between said inlet and said outlet; said liquid passageway including a first frustoconical surface tapering conically toward said outlet, a second frustoconical surface (70, 96) tapering conically toward said outlet, and a shoulder positioned between said first and second frustoconical surfaces (64, 70, 96), said valve seat (16, 108) being defined at an intersection between said shoulder and said second frustoconical surface (70, 96) as a circular line of contact positioned between said inlet and said second frustoconical surface (70, 96), and said valve seat (16, 108) being centered or coaxial with respect to a longitudinal axis, characterized in that said frustoconical surface (74, 102) of said movable valve element (18, 18') contacts the valve seat (16, 108) at said circular line of contact in a closed position. a movable valve element (18, 18') including a frustoconical surface (74, 76); and a nozzle body including a bore, an inlet, an outlet and an insert dimensioned to be pressed into said bore with an interference fit; said insert carrying a liquid passageway extending from said inlet to said outlet and a valve seat (16, 108) in said liquid passageway between said inlet and said outlet; said liquid passageway including a first frustoconical surface tapering conically toward said outlet, a second frustoconical surface (70, 96) tapering conically toward said outlet, and a shoulder positioned between said first and second frustoconical surfaces (64, 70, 96), said valve seat (16, 108) being defined at an intersection between said shoulder and said second frustoconical surface (70, 96) as a circular line of contact positioned between said inlet and said second frustoconical surface (70, 96), and said valve seat (16, 108) being centered or coaxial with respect to a longitudinal axis, characterized in that said frustoconical surface (74, 102) of said movable valve element (18, 18') contacts the valve seat (16, 108) at said circular line of contact in a closed position.
Driver assistance system for a motor vehicle, having a road handling controller which controls or regulates at least one driving condition variable of the vehicle, characterised in that the driver assistance system is configured so that environmental data provided by on-board sensors are taken into consideration during the control or regulation by the road handling controller in order to allow and control a drifting movement of the vehicle.
A scheduling method, applied to a network device, or a chip or a chip set in a network device, comprising: using a scheduling model for M times, wherein each time the scheduling model is used, status information of K terminal devices in n to-be-scheduled terminal devices is input to the scheduling model, the scheduling model outputs scheduling weights respectively corresponding to the K terminal devices, the scheduling model is a neural network model obtained based on the quantity K of terminal devices that is input each time, M is an integer greater than or equal to 1, K is an integer greater than 1, and n is an integer greater than K; and determining a decision result based on the scheduling weights output by the scheduling model for M times, wherein the decision result indicates a scheduled terminal device. using a scheduling model for M times, wherein each time the scheduling model is used, status information of K terminal devices in n to-be-scheduled terminal devices is input to the scheduling model, the scheduling model outputs scheduling weights respectively corresponding to the K terminal devices, the scheduling model is a neural network model obtained based on the quantity K of terminal devices that is input each time, M is an integer greater than or equal to 1, K is an integer greater than 1, and n is an integer greater than K; and determining a decision result based on the scheduling weights output by the scheduling model for M times, wherein the decision result indicates a scheduled terminal device.
An antenna array (100; 400; 700; 1002; 1102) comprising: a plurality of antenna cells (102; 402; 702; 1106) positioned in a global coordinate system of the antenna array, wherein each of the plurality of antenna cells has a respective local coordinate system and comprises: a radiating element (106; 406; 706; 1034; 1108) having a predetermined angle of rotation defined in the global coordinate system; and an antenna port (118; 414; 714; 1018; 1134) coupled to the radiating element, the antenna port being positioned at a particular set of coordinates in the respective local coordinate system; wherein the particular set of coordinates of the antenna port of each of the plurality of antenna cells are the same; wherein the antenna port of each of the plurality of antenna cells comprises a via that is for coupling to a beam-forming network, BFN (200; 300; 500; 600; 800; 900; 1004; 1104); and wherein the predetermined angle of rotation of the radiating element of a first antenna cell of the plurality of antenna cells is a first rotation angle in the global coordinate system, and the predetermined angle of rotation of the radiating element of a second antenna cell of the plurality of antenna cells is a second rotation angle in the global coordinate system, the second rotation angle different than the first rotation angle. a plurality of antenna cells (102; 402; 702; 1106) positioned in a global coordinate system of the antenna array, wherein each of the plurality of antenna cells has a respective local coordinate system and comprises: a radiating element (106; 406; 706; 1034; 1108) having a predetermined angle of rotation defined in the global coordinate system; and an antenna port (118; 414; 714; 1018; 1134) coupled to the radiating element, the antenna port being positioned at a particular set of coordinates in the respective local coordinate system; a radiating element (106; 406; 706; 1034; 1108) having a predetermined angle of rotation defined in the global coordinate system; and an antenna port (118; 414; 714; 1018; 1134) coupled to the radiating element, the antenna port being positioned at a particular set of coordinates in the respective local coordinate system; wherein the particular set of coordinates of the antenna port of each of the plurality of antenna cells are the same; wherein the antenna port of each of the plurality of antenna cells comprises a via that is for coupling to a beam-forming network, BFN (200; 300; 500; 600; 800; 900; 1004; 1104); and wherein the predetermined angle of rotation of the radiating element of a first antenna cell of the plurality of antenna cells is a first rotation angle in the global coordinate system, and the predetermined angle of rotation of the radiating element of a second antenna cell of the plurality of antenna cells is a second rotation angle in the global coordinate system, the second rotation angle different than the first rotation angle.
A method of disinfecting a designated area comprising: placing at least one emitter of energy in a room, said emitter configured to emit disinfecting energy in a form of a beam; measuring the distances from said emitter to objects surrounding said at least one emitter and optionally, when placing at least one emitter of energy in a room comprises placing a plurality of emitters of energy in a room, measuring distances from said emitter to other of said plurality of emitters; computing exposure times for said objects that are inversely proportional to said measured distances; rotating said beam in a circle until said objects have been exposed to said beam for a duration of at least said respective exposure times; and controlling a rate at which said beam rotates based on distances measured from said emitter to various objects to be disinfected in said room. placing at least one emitter of energy in a room, said emitter configured to emit disinfecting energy in a form of a beam; measuring the distances from said emitter to objects surrounding said at least one emitter and optionally, when placing at least one emitter of energy in a room comprises placing a plurality of emitters of energy in a room, measuring distances from said emitter to other of said plurality of emitters; computing exposure times for said objects that are inversely proportional to said measured distances; rotating said beam in a circle until said objects have been exposed to said beam for a duration of at least said respective exposure times; and controlling a rate at which said beam rotates based on distances measured from said emitter to various objects to be disinfected in said room.
A resource configuration method, comprising: receiving, by a first node, before uplink or downlink scheduling, first configuration information sent by a second node, wherein the second node is a parent node of the first node; and determining, by the first node based on the first configuration information, a first resource for communication between the first node and a child node served by the first node, wherein the first resource is at least one demodulation reference signal, DMRS, port occupied by a first access link, the at least one DMRS port is a part of ports in a DMRS port set corresponding to a first slot, and the first access link is a link between the first node and the child node served by the first node, such that when uplink or downlink scheduling for the first slot is performed, the first node selects an available DMRS port from the first resource for transmission on the first access link, wherein the first slot is any one of slots that are used for spatial multiplexing and that are configured by the second node for the backhaul link between the first node and the second node, and the slot used for spatial multiplexing is a slot in which data sending or receiving can be simultaneously performed on a backhaul link and an access link of a same node that share a same frequency band. receiving, by a first node, before uplink or downlink scheduling, first configuration information sent by a second node, wherein the second node is a parent node of the first node; and determining, by the first node based on the first configuration information, a first resource for communication between the first node and a child node served by the first node, wherein the first resource is at least one demodulation reference signal, DMRS, port occupied by a first access link, the at least one DMRS port is a part of ports in a DMRS port set corresponding to a first slot, and the first access link is a link between the first node and the child node served by the first node, such that when uplink or downlink scheduling for the first slot is performed, the first node selects an available DMRS port from the first resource for transmission on the first access link, wherein the first slot is any one of slots that are used for spatial multiplexing and that are configured by the second node for the backhaul link between the first node and the second node, and the slot used for spatial multiplexing is a slot in which data sending or receiving can be simultaneously performed on a backhaul link and an access link of a same node that share a same frequency band.
Foam sealing strip for sealing a window frame, wherein the foam sealing strip is preferably saturated for delayed reset, wherein the foam sealing strip has two opposite narrow sides (4, 5) which each face the inside or outside of the window frame in the installation state of the foam sealing strip, and has wide sides (2, 3) suitable for bearing against the window side or reveal, wherein the narrow sides (4, 5) or regions of the narrow sides are configured differently such that in the installation state of the foam sealing strip, the one narrow side has a higher vapour barrier effect than the other narrow side, characterised in that the higher vapour barrier effect is achieved by a unilaterally higher compression of the foamed material in the installation state of the foam sealing strip, the higher compression being achieved by a higher material density over the same height (a) of the narrow side, wherein to achieve the higher material density, an additional foamed material having a lower height (h) than the foamed material is provided.
Device for generating laser radiation having a linear intensity distribution, comprising - a plurality of laser light sources for generating laser radiation, wherein the laser light sources are respectively designed as optical fibre lasers, wherein the device comprises ferrules for the ends of the optical fibre lasers or for light-conducting fibres connected with the optical fibre lasers and wherein the ferrules assigned to the individual laser light sources are connected with one another in several shared holders, - optical means for the transferral of the laser radiations emanating from the laser light sources into a laser radiation which on a work plane has a linear intensity distribution, wherein the laser light sources are formed as fundamental mode lasers and the device is designed such that each of the individual laser radiations emanating from the laser light sources is not superimposed on itself, such that multi-lens homogenisers, which divide the laser radiation into a plurality of partial radiations and subsequently superimpose it on itself, are dispensed with, wherein the device is designed such that the laser radiations emanating from the individual laser light sources are disposed on the work plane in linear longitudinal direction substantially next to one another and together form the linear intensity distribution of the laser radiation, and wherein several of the holders for the ferrules can be connected with one another in linear longitudinal direction, in order to increase the length of the linear intensity distribution. - a plurality of laser light sources for generating laser radiation, wherein the laser light sources are respectively designed as optical fibre lasers, wherein the device comprises ferrules for the ends of the optical fibre lasers or for light-conducting fibres connected with the optical fibre lasers and wherein the ferrules assigned to the individual laser light sources are connected with one another in several shared holders, - optical means for the transferral of the laser radiations emanating from the laser light sources into a laser radiation which on a work plane has a linear intensity distribution,