mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication at a user equipment, UE (115; 605; 705; 905), comprising: receiving (405; 1405; 1505) broadcast information from a base station (105; 1005; 1105; 1305) that identifies types of resources for vehicle-based sidelink communications that are supported by the base station; transmitting (420; 1410; 1510) a request to the base station for resource scheduling information to perform a vehicle-based sidelink communication based at least in part on the broadcast information, the request comprising an indication of a type of resources for the vehicle-based sidelink communication supported by the base station and a quality of service, QoS, metric associated with the vehicle-based sidelink communication; and receiving (435; 505; 1415; 1515), in response to the request, a response from the base station that comprises the resource scheduling information to perform the vehicle-based sidelink communication; wherein the types of resources comprise Long Term Evolution, LTE, resources, New Radio, NR, resources or both. receiving (405; 1405; 1505) broadcast information from a base station (105; 1005; 1105; 1305) that identifies types of resources for vehicle-based sidelink communications that are supported by the base station; transmitting (420; 1410; 1510) a request to the base station for resource scheduling information to perform a vehicle-based sidelink communication based at least in part on the broadcast information, the request comprising an indication of a type of resources for the vehicle-based sidelink communication supported by the base station and a quality of service, QoS, metric associated with the vehicle-based sidelink communication; and receiving (435; 505; 1415; 1515), in response to the request, a response from the base station that comprises the resource scheduling information to perform the vehicle-based sidelink communication; wherein the types of resources comprise Long Term Evolution, LTE, resources, New Radio, NR, resources or both.
Smart wind turbine blade with active components, comprising a lightning protection system which in turn comprises: - a lightning band located at the blade root , - a lightning transmission system intended to be electrically linked by a first switch to a nacelle frame and electrically linked by a second switch to the lightning band , - a lightning protection conductor electrically linked with the lightning band , - power and/or signal cables to feed the active components thereof, - a switching unit comprising: - a third switch able to link at least one power and/or signal cable of the power and/or signal cables with the lightning transmission system , and - a fourth switch able to link the power and/or signal cables with a hub frame , wherein each switch is able to open or close links thereof and wherein the third switch and the fourth switch are configured to be controlled in a way that during lightning activity the fourth switch is opened and the third switch is closed, deactivating the active components. - a lightning band located at the blade root , - a lightning transmission system intended to be electrically linked by a first switch to a nacelle frame and electrically linked by a second switch to the lightning band , - a lightning protection conductor electrically linked with the lightning band , - power and/or signal cables to feed the active components thereof, - a switching unit comprising: - a third switch able to link at least one power and/or signal cable of the power and/or signal cables with the lightning transmission system , and - a fourth switch able to link the power and/or signal cables with a hub frame , - a third switch able to link at least one power and/or signal cable of the power and/or signal cables with the lightning transmission system , and - a fourth switch able to link the power and/or signal cables with a hub frame ,
A method for transmitting a Transmission Configuration Indicator, TCI, the method comprising: determining (S101) a target reference signal, and port groups corresponding to a resource occupied by the target reference signal, wherein large-scale parameters of ports in different port groups are different, and the resource occupied by the target reference signal corresponds to multiple port groups; for each of the port groups, determining (S102) a source reference signal quasi-co-located with the port group, and at least one Quasi-Co-Location, QCL, type of QCLs of the port groups with the source reference signal, to acquire an extended TCI state; and transmitting (S103) the extended TCI state and the target reference signal to a User Equipment, UE, , so that the UE determines large-scale parameters of the ports for the target reference signal. determining (S101) a target reference signal, and port groups corresponding to a resource occupied by the target reference signal, wherein large-scale parameters of ports in different port groups are different, and the resource occupied by the target reference signal corresponds to multiple port groups; for each of the port groups, determining (S102) a source reference signal quasi-co-located with the port group, and at least one Quasi-Co-Location, QCL, type of QCLs of the port groups with the source reference signal, to acquire an extended TCI state; and transmitting (S103) the extended TCI state and the target reference signal to a User Equipment, UE, , so that the UE determines large-scale parameters of the ports for the target reference signal.
A battery cell configured to have a structure in which an electrode assembly configured to have a stacked structure including a positive electrode , a negative electrode , and a separator interposed between the positive electrode and the negative electrode is mounted in a receiving part of a battery case , characterised in that two or more holes are formed in the electrode assembly in different portions and two or more transparent windows are formed in portions of the battery case corresponding to the holes so as to observe various phenomena and changes occurring in different electrodes during the operation of the battery cell.
A thrust reverser , comprising; a frame ; a first reverser door being movable relative to the frame ; and a second reverser door being movable relative to the frame and rotationally movable relative to the first reverser door via a first pivot point , the first pivot point being movable relative to the frame via a first link rotationally mounted to the frame via a second pivot point ; characterised in that : the first and second reverser doors are pivotably coupled to the first link about the first pivot point .
A sealing configuration for an axially forward section of a bearing compartment of a gas turbine engine , comprising: a seal plate , comprising: a first seal plate surface axially opposite a second seal plate surface ; a plurality of cooling holes in fluid communication with a fluid cavity , each cooling hole defining a channel through the first seal plate surface into the fluid cavity; characterised by : the fluid cavity defining a void on the second forward seal plate surface, wherein the fluid cavity is configured to receive a lubricating fluid from a lubricating spray nozzle in the bearing compartment; and a bellows spring configured to interface with the first forward seal plate surface of the seal plate, wherein the forward bellows spring is configured to provide an axial force against the first forward seal plate surface of the forward seal plate; wherein the seal plate is disposed axially forward of a bearing in the bearing compartment. a first seal plate surface axially opposite a second seal plate surface ; a plurality of cooling holes in fluid communication with a fluid cavity , each cooling hole defining a channel through the first seal plate surface into the fluid cavity; characterised by : the fluid cavity defining a void on the second forward seal plate surface, wherein the fluid cavity is configured to receive a lubricating fluid from a lubricating spray nozzle in the bearing compartment; and a bellows spring configured to interface with the first forward seal plate surface of the seal plate, wherein the forward bellows spring is configured to provide an axial force against the first forward seal plate surface of the forward seal plate; the fluid cavity defining a void on the second forward seal plate surface, wherein the fluid cavity is configured to receive a lubricating fluid from a lubricating spray nozzle in the bearing compartment; and a bellows spring configured to interface with the first forward seal plate surface of the seal plate, wherein the forward bellows spring is configured to provide an axial force against the first forward seal plate surface of the forward seal plate; wherein the seal plate is disposed axially forward of a bearing in the bearing compartment.
A key unit that locks and unlocks a target by transmitting a signal to a locking and unlocking device , the key unit comprising: a substrate on which a power supply circuit and a reception circuit that receives a request signal transmitted in a first LF frequency band from the locking and unlocking device via a LF reception antenna are mounted, the first LF frequency signal being a polling signal; and a housing configured to accommodate the substrate, wherein: among parts associated with the power supply circuit, a part having a highest height from a substrate surface is mounted on a first surface of the substrate; the LF reception antenna is mounted on a second surface which is a surface on an opposite side to the first surface; in a case where the substrate is accommodated in the housing, a distance from a substrate surface of the second surface to an inner surface of the housing is shorter than a distance from the substrate surface of the first surface to the inner surface of the housing, the power supply circuit is mounted on a first region of the first surface including a first side of the substrate; the LF reception antenna is mounted on a second region of the second surface including a second side opposite to the first side, on the substrate, a communication circuit that performs short-range wireless communication with a portable terminal is further mounted in the first region; the substrate further includes a controller configured to authenticate the portable terminal based on information acquired from the portable terminal ; and the substrate is a multilayer substrate having a ground layer in a middle. a substrate on which a power supply circuit and a reception circuit that receives a request signal transmitted in a first LF frequency band from the locking and unlocking device via a LF reception antenna are mounted, the first LF frequency signal being a polling signal; and a housing configured to accommodate the substrate, wherein: among parts associated with the power supply circuit, a part having a highest height from a substrate surface is mounted on a first surface of the substrate; the LF reception antenna is mounted on a second surface which is a surface on an opposite side to the first surface; in a case where the substrate is accommodated in the housing, a distance from a substrate surface of the second surface to an inner surface of the housing is shorter than a distance from the substrate surface of the first surface to the inner surface of the housing, among parts associated with the power supply circuit, a part having a highest height from a substrate surface is mounted on a first surface of the substrate; the LF reception antenna is mounted on a second surface which is a surface on an opposite side to the first surface; in a case where the substrate is accommodated in the housing, a distance from a substrate surface of the second surface to an inner surface of the housing is shorter than a distance from the substrate surface of the first surface to the inner surface of the housing,
A structured light module , comprising: a plurality of light sources (111-113), simultaneously emitting a plurality beams of invisible light (L1); and a single diffractive optical element (DOE) , disposed over the plurality of light sources (111-113), and having a pseudo-random optical pattern groove , wherein the invisible light (L1) of each light source passes through the DOE and emits a beam of structured light (L31-L33), and the beam of structured light (L31-L33) comprises a pattern (F11-F13) corresponding to the pseudo-random optical pattern groove ; wherein the DOE projects an overall structured light (L3) formed by superimposing a plurality beams of structured light (L31-L33), and there is an offset between different beams of structured light (L31-L33); characterized in that the plurality of light sources are arranged pseudo-randomly in a matrix. a plurality of light sources (111-113), simultaneously emitting a plurality beams of invisible light (L1); and a single diffractive optical element (DOE) , disposed over the plurality of light sources (111-113), and having a pseudo-random optical pattern groove , wherein the invisible light (L1) of each light source passes through the DOE and emits a beam of structured light (L31-L33), and the beam of structured light (L31-L33) comprises a pattern (F11-F13) corresponding to the pseudo-random optical pattern groove ; wherein the DOE projects an overall structured light (L3) formed by superimposing a plurality beams of structured light (L31-L33), and there is an offset between different beams of structured light (L31-L33); characterized in that the plurality of light sources are arranged pseudo-randomly in a matrix.
A boiler plant for generating heat through combustion of at least one fuel, comprising a burner basket for receiving a burner , with which a flame can be generated, wherein the boiler plant is designed to realize an internal recycling of flue gas generated during the combustion into the flame , namely by recycling flue gases recirculated in the incineration chamber directly to the burner outlet into the combustion process, wherein a cooling device is arranged in the region of the flue gas recycling , with which heat can be received from the recycled flue gas and conducted away, wherein the cooling device has at least one cooling element, in which a cooling medium can be received or is received, and wherein the cooling medium-carrying cooling element protrudes far enough into the combustion chamber or is positioned at such a distance from a boiler wall on which the burner is arranged that the cooling element can be flowed around by recycled flue gas .
A user equipment comprising: means for performing the following processes: a) setting the number of times of preamble transmission to 1 ; b) transmitting a preamble using a random access channel ; c) receiving a Random Access Response ; d) judging whether the Random Access Response contains an acknowledgement signal corresponding to the transmitted preamble or not, and, in a case where the Random Access Response does not contain the acknowledgement signal corresponding to the transmitted preamble, incrementing the number of times of preamble transmission by 1 ; e) repeating b) through d) until the Random Access Response contains the acknowledgement signal corresponding to the transmitted preamble; characterized by : f) receiving a report request, which is dedicated to the user equipment and which is received after receiving the Random Access Response which contains the acknowledgement signal corresponding to the transmitted preamble, for reporting information indicating the number of times of preamble transmission; and g) reporting by the user equipment, the information upon reception of the report request , wherein the information is reported using an uplink channel. a) setting the number of times of preamble transmission to 1 ; b) transmitting a preamble using a random access channel ; c) receiving a Random Access Response ; d) judging whether the Random Access Response contains an acknowledgement signal corresponding to the transmitted preamble or not, and, in a case where the Random Access Response does not contain the acknowledgement signal corresponding to the transmitted preamble, incrementing the number of times of preamble transmission by 1 ; e) repeating b) through d) until the Random Access Response contains the acknowledgement signal corresponding to the transmitted preamble; f) receiving a report request, which is dedicated to the user equipment and which is received after receiving the Random Access Response which contains the acknowledgement signal corresponding to the transmitted preamble, for reporting information indicating the number of times of preamble transmission; and g) reporting by the user equipment, the information upon reception of the report request ,
A work vehicle for working a swath of crop, comprising: at least one ground-engaging wheel or track mounted to the work vehicle and movable in a travel direction (T) along a tread path ; a first redistribution device mounted to the work vehicle to move crop that is ahead of the at least one ground-engaging wheel or track relative to the travel direction (T); and a second redistribution device mounted to the work vehicle to move crop that is behind the at least one ground-engaging wheel or track relative to the travel direction (T); wherein the first redistribution device is configured to open the swath of crop along substantially only the tread path ahead of the at least one ground-engaging wheel or track relative to the travel direction (T) and the second redistribution device is configured to close the swath of crop along the tread path behind the at least one ground-engaging wheel or track relative to the travel direction (T). at least one ground-engaging wheel or track mounted to the work vehicle and movable in a travel direction (T) along a tread path ; a first redistribution device mounted to the work vehicle to move crop that is ahead of the at least one ground-engaging wheel or track relative to the travel direction (T); and a second redistribution device mounted to the work vehicle to move crop that is behind the at least one ground-engaging wheel or track relative to the travel direction (T); wherein the first redistribution device is configured to open the swath of crop along substantially only the tread path ahead of the at least one ground-engaging wheel or track relative to the travel direction (T) and the second redistribution device is configured to close the swath of crop along the tread path behind the at least one ground-engaging wheel or track relative to the travel direction (T).
A method of manufacturing a custom stoma insert for a patient having a stoma , the method comprising the steps of: scanning the stoma and surrounding skin area (14.1) to generate a three-dimensional scan of the area for which the stoma insert is to be manufactured; manipulating scan data obtained from the three-dimensional scan to render a three-dimensional model of the stoma and surrounding skin contours (14.1), such that the scan data is suitable for use in an additive manufacturing environment; creating a custom mould for the stoma insert using additive manufacturing such that the mould provides a complementary surface closely mirroring the contours of the stoma and surrounding skin area (14.1), wherein the mould has included therein raised or striated areas (10.3) that, when the stoma insert has been moulded, produces a complementary hatched, scored, or striated surface on a skin-contacting face (12.2) of the stoma insert ; producing the stoma insert by casting a physiologically acceptable mouldable material into the custom mould , allowing the mouldable material to solidify to a desired solidity, and removing the custom stoma insert from the mould , the resultant custom stoma insert being shaped and dimensioned to ensure a snug fit within the stoma and over the skin (14.1) surrounding the stoma . scanning the stoma and surrounding skin area (14.1) to generate a three-dimensional scan of the area for which the stoma insert is to be manufactured; manipulating scan data obtained from the three-dimensional scan to render a three-dimensional model of the stoma and surrounding skin contours (14.1), such that the scan data is suitable for use in an additive manufacturing environment; creating a custom mould for the stoma insert using additive manufacturing such that the mould provides a complementary surface closely mirroring the contours of the stoma and surrounding skin area (14.1), wherein the mould has included therein raised or striated areas (10.3) that, when the stoma insert has been moulded, produces a complementary hatched, scored, or striated surface on a skin-contacting face (12.2) of the stoma insert ; producing the stoma insert by casting a physiologically acceptable mouldable material into the custom mould , allowing the mouldable material to solidify to a desired solidity, and removing the custom stoma insert from the mould , the resultant custom stoma insert being shaped and dimensioned to ensure a snug fit within the stoma and over the skin (14.1) surrounding the stoma .
A hydraulic unit comprising at least two pressure connections for the required supply of one or more hydraulically driven devices , in particular hydraulic rescue devices, with hydraulic fluid from a fluid container , comprising a first hydraulic circuit with a first pump arrangement consisting of at least two first pump elements from which first fluid lines lead to a first pressure connection , at least one second hydraulic circuit with a second pump arrangement consisting of at least two second pump elements from which second fluid lines lead to a second pressure connection , wherein the first pump elements and the second pump elements are driven at the same time by a common drive , and wherein by means of a first directional valve arranged in one of the first fluid lines , the volume flow of said first fluid line can be diverted via a first connecting line to a second fluid line in the second hydraulic circuit , and by means of a second directional valve arranged in one of the second fluid lines , the volume flow of said second fluid line can be diverted via a second connecting line to a first fluid line in the first hydraulic circuit , wherein the directional valves comprise a spring acting in the direction of an initial position and a first control line runs from the first hydraulic circuit or from the second hydraulic circuit to a first actuator acting on the first directional valve and a second control line runs from the second hydraulic circuit or from the first hydraulic circuit to a second actuator acting on the second directional valve , wherein the first pump elements comprise at least one high pressure element with a lower flow rate at a reference intensity of the drive and at least one low pressure element with a higher flow rate at the reference intensity, and the second pump elements comprise at least one high pressure element with a lower flow rate and at least one low pressure element with a higher flow rate, and each of the first and second directional valves are arranged in the fluid lines leading away from the low pressure elements .