mhurhangee/patent-ind-claim-en huggingface dataset:
A small-cell subscriber management method, wherein the method comprises: receiving, by a small cell, an access request sent by an access terminal, wherein the access request carries international mobile subscriber identity, IMSI, information of the access terminal; determining, by the small cell, whether an IMSI of the access terminal is in a closed subscriber group, CSG, subscriber list of the small cell; allowing the access terminal to access the small cell when the IMSI of the access terminal is in the CSG subscriber list, obtaining, by the small cell, an access number corresponding to the IMSI from a server when the IMSI of the access terminal is not in the CSG subscriber list of the small cell, requesting, by the small cell, a management terminal to determine whether to allow adding the access terminal to the CSG subscriber list when the access number of the access terminal is not in the CSG subscriber list of the small cell, the management terminal being used to manage a CSG subscriber list; and receiving, by the small cell, a determining result of the management terminal, and determining, according to the determining result, whether to allow adding at least one of the IMSI of the access terminal or the access number of the access terminal to the CSG subscriber list of the small cell; and adding, by the small cell, at least one of the IMSI of the access terminal or the access number of the access terminal to the CSG subscriber list of the small cell when the management terminal allows adding the access terminal to the CSG subscriber list of the small cell. receiving, by a small cell, an access request sent by an access terminal, wherein the access request carries international mobile subscriber identity, IMSI, information of the access terminal; determining, by the small cell, whether an IMSI of the access terminal is in a closed subscriber group, CSG, subscriber list of the small cell; allowing the access terminal to access the small cell when the IMSI of the access terminal is in the CSG subscriber list, obtaining, by the small cell, an access number corresponding to the IMSI from a server when the IMSI of the access terminal is not in the CSG subscriber list of the small cell, requesting, by the small cell, a management terminal to determine whether to allow adding the access terminal to the CSG subscriber list when the access number of the access terminal is not in the CSG subscriber list of the small cell, the management terminal being used to manage a CSG subscriber list; and receiving, by the small cell, a determining result of the management terminal, and determining, according to the determining result, whether to allow adding at least one of the IMSI of the access terminal or the access number of the access terminal to the CSG subscriber list of the small cell; and adding, by the small cell, at least one of the IMSI of the access terminal or the access number of the access terminal to the CSG subscriber list of the small cell when the management terminal allows adding the access terminal to the CSG subscriber list of the small cell.
Pneumatic device for holding and moving an elongate object, said device comprising a hollow body which is of an annular or tubular general shape defining an axial direction, is traversed by the elongate object at an axial passage and is composed of two end parts or segments that are arranged in alignment in the axial direction and form jaws, and a median or central part or segment that connects the two jaw-forming parts or segments to each other, with relative ease of movement of one with respect to the other in the axial direction under the effect of a controlled deformation of at least one portion of said median or central part or segment, said device being characterized in that all the various parts or segments of the hollow body define respective chambers , the jaw-forming end part(s) or segment(s) comprise elastically deformable membranes as wall portions that are intended to come into contact with the elongate object in a clamping phase, and the chambers of the two end parts or segments are in fluidic communication with the chamber of the median or central part or segment , each by way of at least one respective calibrated flow means , the injection of pressurized gaseous fluid taking place by way of a single feed line which is connected to a controlled source of pressurized fluid and which opens into the chamber of one (5 or 5') of the two end parts or segments , depending on the direction of translational movement desired for the elongate object present in the hollow body .
Pipeline system for transporting hydrogen, comprising an outer pipe having a clear outer pipe diameter and a first inner pipe having a clear inner pipe diameter , wherein the first inner pipe has a smaller clear inner pipe diameter compared to the clear outer pipe diameter and is guided inside the outer pipe , and wherein the outer pipe contains a fluid outer pipe medium and is subjected to an outer pipe pressure (P10), and wherein the first inner pipe contains a fluid inner pipe medium and is subjected to an inner pipe pressure (P20), wherein the inner pipe medium contains hydrogen or is hydrogen, characterized in that the outer pipe pressure (P10) is greater than the inner pipe pressure (P20).
A mobile station apparatus (A12, A11, A1 to A4) configured to transmit to a base station apparatus (B), a radio resource control message including mobile station apparatus capability information, the mobile station apparatus (A12, A11, A1 to A4) being characterized in that the mobile station apparatus capability information includes a first indicator (FIGs. 7, 11: BB_BWn) which is selected from a plurality of indicators and a second indicator (FIGs. 7, 11: BB_BWn) which is selected from the plurality of indicators, each of the plurality of indicators (FIGs. 7, 11: BB_BWn) defines at least a combination of first information associated with an aggregated frequency bandwidth of one or more component carriers and second information associated with the number of component carriers included in the aggregated frequency bandwidth of the one or more component carriers, the first indicator (FIGs. 7, 11: BB BWn) is used for uplink, and the second indicator (FIGs. 7, 11: BB_BWn) is used for downlink.
An electroluminescent display device comprising: a substrate on which first and second pixel regions (P1, P2) are defined; a passivation layer over the substrate ; a first electrode in each of the first and second pixel regions (P1, P2) on the passivation layer ; a bank layer exposing the first electrode ; a light emitting layer on the first electrode exposed by the bank layer ; and a second electrode on the light emitting layer , wherein the bank layer includes first and second openings (172a, 272a; 174a, 274a) exposing the first electrodes corresponding to the first and second pixel regions (P1, P2), respectively, wherein the depth (d2) of the second opening is larger than the depth (d1) of the first opening , characterized in that the thickness of the light emitting layer at a central portion of the first pixel region (P1) is larger than the thickness of the light emitting layer at a central portion of the second pixel region (P2), and wherein the light emitting layer in the first pixel region (P1) emits light with a longer wavelength than the light emitting layer in the second pixel region (P2). a substrate on which first and second pixel regions (P1, P2) are defined; a passivation layer over the substrate ; a first electrode in each of the first and second pixel regions (P1, P2) on the passivation layer ; a bank layer exposing the first electrode ; a light emitting layer on the first electrode exposed by the bank layer ; and a second electrode on the light emitting layer , wherein the bank layer includes first and second openings (172a, 272a; 174a, 274a) exposing the first electrodes corresponding to the first and second pixel regions (P1, P2), respectively, wherein the depth (d2) of the second opening is larger than the depth (d1) of the first opening , characterized in that the thickness of the light emitting layer at a central portion of the first pixel region (P1) is larger than the thickness of the light emitting layer at a central portion of the second pixel region (P2), and wherein the light emitting layer in the first pixel region (P1) emits light with a longer wavelength than the light emitting layer in the second pixel region (P2).
A header for attachment to a feeder house of a combine harvester , the header comprising: a chassis having: a forward portion , a rearward portion opposite the forward portion , and an outlet at an aft of the rearward portion ; a cross auger or a conveyor , extending in a widthwise direction of the chassis for conveying a flow of grain rearwardly thereof, wherein the cross auger or the conveyor is positioned about the rearward portion adjacent a void proximate the outlet ; and a feeding mechanism mounted on the chassis within the void and proximate a posterior end of the cross auger or the conveyor for receiving the flow of grain from the cross auger or the conveyor and for actively conveying the flow of grain rearwardly thereof towards the feeder house so as to preclude the flow of grain from being hindered downstream of the cross auger or the conveyor , characterized in that the feeding mechanism comprises a pair of feed rollers comprising a lower feed roller and an upper feed roller positioned above the lower feed roller , the pair of feed rollers being aligned such that, in use, an axis extending between a central longitudinal axis of rotation of each of the feed rollers is substantially transverse to a longitudinal axis of the feeder house of the combine harvester . a chassis having: a forward portion , a rearward portion opposite the forward portion , and an outlet at an aft of the rearward portion ; a forward portion , a rearward portion opposite the forward portion , and an outlet at an aft of the rearward portion ; a cross auger or a conveyor , extending in a widthwise direction of the chassis for conveying a flow of grain rearwardly thereof, wherein the cross auger or the conveyor is positioned about the rearward portion adjacent a void proximate the outlet ; and a feeding mechanism mounted on the chassis within the void and proximate a posterior end of the cross auger or the conveyor for receiving the flow of grain from the cross auger or the conveyor and for actively conveying the flow of grain rearwardly thereof towards the feeder house so as to preclude the flow of grain from being hindered downstream of the cross auger or the conveyor , characterized in that the feeding mechanism comprises a pair of feed rollers comprising a lower feed roller and an upper feed roller positioned above the lower feed roller , the pair of feed rollers being aligned such that, in use, an axis extending between a central longitudinal axis of rotation of each of the feed rollers is substantially transverse to a longitudinal axis of the feeder house of the combine harvester .
A heating cooker comprising: a case comprising a cooking chamber configured to receive an object to be heated; a door configured to open and close the cooking chamber of the case ; a ventilation path provided to extend along a wall surface of the cooking chamber in a state of being partitioned from the cooking chamber ; a detector installed in the inside of the ventilation path and comprising: one or more sensors configured to detect information on the inside of the cooking chamber through one or more detection holes formed on the wall surface of the cooking chamber , and a sensor unit rotatably installed to be spaced apart from an inner surface of the ventilation path , and to which the one or more sensors is coupled; a shutter installed in the inside of the ventilation path and configured to open and close the one or more detection holes ; and a cooling fan configured to suck outside air and blow the outside air into the ventilation path to cool the detector and the shutter together, characterized in that the shutter comprises: a fixer fixed to the sensor unit through an insulating member ; and an opening and closing portion provided to extend from the fixer and configured to open and close the one or more detection holes . a case comprising a cooking chamber configured to receive an object to be heated; a door configured to open and close the cooking chamber of the case ; a ventilation path provided to extend along a wall surface of the cooking chamber in a state of being partitioned from the cooking chamber ; a detector installed in the inside of the ventilation path and comprising: one or more sensors configured to detect information on the inside of the cooking chamber through one or more detection holes formed on the wall surface of the cooking chamber , and a sensor unit rotatably installed to be spaced apart from an inner surface of the ventilation path , and to which the one or more sensors is coupled; a shutter installed in the inside of the ventilation path and configured to open and close the one or more detection holes ; and a cooling fan configured to suck outside air and blow the outside air into the ventilation path to cool the detector and the shutter together, characterized in that the shutter comprises: a fixer fixed to the sensor unit through an insulating member ; and an opening and closing portion provided to extend from the fixer and configured to open and close the one or more detection holes . a fixer fixed to the sensor unit through an insulating member ; and an opening and closing portion provided to extend from the fixer and configured to open and close the one or more detection holes .
Process for obtaining a wood-based aromatic extract powder, comprising a step of heating at least one piece of dried raw wood, the step of heating being configured to optimize a subsequent extraction of vanillin, a step of aqueous extraction in order to obtain a solution containing components extracted from the wood and a step of atomizing said solution in order to obtain the wood-based aromatic extract powder, the parameters of the steps of heating, of extraction and/or of atomization being adjusted in order to obtain an aromatic extract powder comprising a vanillin concentration of between 1800 and 3800 mg/kg.
Heat transfer apparatus , comprising: - at least one heat dissipating structure and - at least one heat chamber , wherein the heat dissipating structure and the heat chamber are coupled to form a closed thermal circuit , wherein the heat dissipating structure comprises - an outlet channel (2.1) that leads off from the heat chamber and that issues at an end (2.2) that is remote from the heat chamber into at least one return channel (2.3), wherein the return channel (2.3) issues into the heat chamber and wherein the at least one heat chamber is a boiling chamber or a steam chamber and the at least one heat dissipating structure is a channel structure having steam regions (2.4) and fluid regions (2.5), wherein the heat chamber and the heat dissipating structure together form a pulsating or oscillating heating structure mechanism, characterised in that the return channel (2.3) is dimensioned smaller than the outlet channel (2.1). - at least one heat dissipating structure and - at least one heat chamber , - an outlet channel (2.1) that leads off from the heat chamber and that issues at an end (2.2) that is remote from the heat chamber into at least one return channel (2.3), wherein the return channel (2.3) issues into the heat chamber and
A method of a first device to perform sidelink transmission, comprising: the first device is configured with a sidelink resource pool comprising a frequency region of sidelink data transmission and multiple frequency regions of sidelink feedback transmission, wherein the multiple frequency regions of sidelink feedback transmission in one Transmission Time Interval, in the following also referred to as TTI, are separately associated with the one frequency region of sidelink data transmission in multiple TTIs, and wherein the multiple frequency regions of sidelink feedback transmission in the one TTI are non-overlapped with each other in frequency domain and fully overlapped in time domain ; the first device receives a first sidelink data transmission from a second device within the frequency region of sidelink data transmission in a first TTI ; the first device generates a first feedback information associated with the first sidelink data transmission ; the first device determines or derives a first sidelink feedback resource within a first frequency region of sidelink feedback transmission among the multiple frequency regions of sidelink feedback transmission, wherein the first frequency region of sidelink feedback transmission is determined or derived based on association with the first TTI ; and the first device performs a first sidelink feedback transmission for delivering the first feedback information to the second device on the first sidelink feedback resource . the first device is configured with a sidelink resource pool comprising a frequency region of sidelink data transmission and multiple frequency regions of sidelink feedback transmission, wherein the multiple frequency regions of sidelink feedback transmission in one Transmission Time Interval, in the following also referred to as TTI, are separately associated with the one frequency region of sidelink data transmission in multiple TTIs, and wherein the multiple frequency regions of sidelink feedback transmission in the one TTI are non-overlapped with each other in frequency domain and fully overlapped in time domain ; the first device receives a first sidelink data transmission from a second device within the frequency region of sidelink data transmission in a first TTI ; the first device generates a first feedback information associated with the first sidelink data transmission ; the first device determines or derives a first sidelink feedback resource within a first frequency region of sidelink feedback transmission among the multiple frequency regions of sidelink feedback transmission, wherein the first frequency region of sidelink feedback transmission is determined or derived based on association with the first TTI ; and the first device performs a first sidelink feedback transmission for delivering the first feedback information to the second device on the first sidelink feedback resource .
A dental implant analog with an elongated cylindrical body, comprising: a first and a second opposite surfaces, wherein said first surface is adapted as a reference surface for active alignment of said implant analog with one or more surfaces of a physical model of patient's teeth, and wherein said implant analog is configured to be inserted by pulling in a through-going hole of said physical model of a set of a patient's teeth and said one or more surfaces of said physical model of patient's teeth surround said through-going hole, wherein said implant analog is configured to be inserted in said through-going hole first surface first; the dental implant analog further comprising: - a distal end ; - a proximal end , wherein said proximal end further comprises at least one internal bore along the longitudinal axis of said analog, said at least one internal bore having an internal thread; and - a central or middle section in between said distal and proximal end; characterized in that said proximal end comprises cutting means; wherein said cutting means are configured to remove, by scraping, redundant material present on an internal surface of said through-going hole of said physical model of a set of a patient's teeth while inserting said implant analog by pulling, thereby ensuring tight fit between said implant analog and said through-going hole of said physical model of a set of a patient's teeth; wherein said cutting means are cutting edges . - a distal end ; - a proximal end , wherein said proximal end further comprises at least one internal bore along the longitudinal axis of said analog, said at least one internal bore having an internal thread; and - a central or middle section in between said distal and proximal end; characterized in that said proximal end comprises cutting means; wherein said cutting means are configured to remove, by scraping, redundant material present on an internal surface of said through-going hole of said physical model of a set of a patient's teeth while inserting said implant analog by pulling, thereby ensuring tight fit between said implant analog and said through-going hole of said physical model of a set of a patient's teeth; wherein said cutting means are cutting edges . characterized in that said proximal end comprises cutting means; wherein said cutting means are configured to remove, by scraping, redundant material present on an internal surface of said through-going hole of said physical model of a set of a patient's teeth while inserting said implant analog by pulling, thereby ensuring tight fit between said implant analog and said through-going hole of said physical model of a set of a patient's teeth; wherein said cutting means are cutting edges .
A voice processing system comprising: a mounting unit configured to be attached to a user; a sensor unit including at least a vibration sensor and a speedometer; and a controller configured to perform beamforming processing of forming directivity for acquiring a voice coming from a direction of the mouth of the user using a plurality of voice data items acquired by a plurality of voice acquisition units , wherein the mounting unit includes at least four voice acquisition units configured to acquire voice data for beamforming, the four voice acquisition units form a three-dimensional shape by interconnecting positions at which the four voice acquisition units are provided, and the controller is configured to control the beamforming processing based on information indicating an estimated motion state of the user, wherein the motion state of the user is estimated based on sensing results obtained by the vibration sensor and the speedometer, and to perform processing in accordance with a result of voice recognition executed based on voice data subjected to the beamforming processing. a mounting unit configured to be attached to a user; a sensor unit including at least a vibration sensor and a speedometer; and a controller configured to perform beamforming processing of forming directivity for acquiring a voice coming from a direction of the mouth of the user using a plurality of voice data items acquired by a plurality of voice acquisition units , wherein the mounting unit includes at least four voice acquisition units configured to acquire voice data for beamforming, the four voice acquisition units form a three-dimensional shape by interconnecting positions at which the four voice acquisition units are provided, and the controller is configured to control the beamforming processing based on information indicating an estimated motion state of the user, wherein the motion state of the user is estimated based on sensing results obtained by the vibration sensor and the speedometer, and to perform processing in accordance with a result of voice recognition executed based on voice data subjected to the beamforming processing. the mounting unit includes at least four voice acquisition units configured to acquire voice data for beamforming, the four voice acquisition units form a three-dimensional shape by interconnecting positions at which the four voice acquisition units are provided, and the controller is configured to control the beamforming processing based on information indicating an estimated motion state of the user, wherein the motion state of the user is estimated based on sensing results obtained by the vibration sensor and the speedometer, and to perform processing in accordance with a result of voice recognition executed based on voice data subjected to the beamforming processing.