mhurhangee/patent-ind-claim-en huggingface dataset:
A method of transmitting and receiving data by a user equipment, UE, for configuring dual connectivity, the method comprising: receiving (S210), from a master Base Station, master BS, an radio resource control, RRC, message indicating configuration of dual connectivity using the master BS and a secondary Base Station, secondary BS; configuring (S220) a split signaling radio bearer, split SRB that is connected to a master cell group, including one or more cells associated with said master BS, and to a secondary cell group including one or more cells associated with said secondary BS; and performing (S230) duplicated transmission of uplink signalling data to each of the master BS and the secondary BS via the split SRB, wherein the RRC message received from the master BS comprises information for indicating duplicated transmission of the uplink signalling data using the split SRB at a packet data convergence protocol, PDCP, entity of the UE; wherein the master BS and the secondary BS use different radio access technologies, the master BS using the Long Term Evolution, LTE, technology and the secondary BS using the New Radio, NR, technology; and the method comprising: receiving, from the secondary BS via an interface between the secondary BS and the UE, a NR RRC reconfiguration message comprising a RRC information of the secondary base station for configuring a NR-signaling radio bearer between the user equipment and the secondary BS, configuring the NR-signaling radio bearer between the user equipment and the secondary BS based on the NR RRC reconfiguration message. receiving (S210), from a master Base Station, master BS, an radio resource control, RRC, message indicating configuration of dual connectivity using the master BS and a secondary Base Station, secondary BS; configuring (S220) a split signaling radio bearer, split SRB that is connected to a master cell group, including one or more cells associated with said master BS, and to a secondary cell group including one or more cells associated with said secondary BS; and performing (S230) duplicated transmission of uplink signalling data to each of the master BS and the secondary BS via the split SRB, wherein the RRC message received from the master BS comprises information for indicating duplicated transmission of the uplink signalling data using the split SRB at a packet data convergence protocol, PDCP, entity of the UE; wherein the master BS and the secondary BS use different radio access technologies, the master BS using the Long Term Evolution, LTE, technology and the secondary BS using the New Radio, NR, technology; and the method comprising: receiving, from the secondary BS via an interface between the secondary BS and the UE, a NR RRC reconfiguration message comprising a RRC information of the secondary base station for configuring a NR-signaling radio bearer between the user equipment and the secondary BS, configuring the NR-signaling radio bearer between the user equipment and the secondary BS based on the NR RRC reconfiguration message.
Machine for processing of optical active surfaces on workpieces, comprising at least one workpiece spindle , by way of which a workpiece (L) to be processed is drivable for rotation about an axis (C) of workpiece rotation, and a pivot head , which is opposite the workpiece spindle and which is pivotable about a pivot axis (B) and carries at least two tool spindles , at each of which a respective processing tool (T1, T2, T3) is held to be drivable for rotation about an axis (D, D') of tool rotation, wherein the workpiece spindle and the pivot head are adjustable relative to one another along three mutually perpendicular linear axes (X, Y, Z) of which one linear axis (Y) extends parallel to the pivot axis (B), and wherein the axis (C) of workpiece rotation extends parallel to another linear axis (Z) of said linear axes (X, Y, Z), characterized in that at least one tool spindle of said at least two tool spindles is mounted at the pivot head with its axis (D') of tool rotation extending parallel to the pivot axis (B).
A tip assembly for fracturing a stent of a deployed heart valve prosthesis with ultrasonic vibration comprising: at least one segment ; and a cutting edge disposed on a surface of the at least one segment, wherein the cutting edge is configured to focus ultrasonic vibration of the tip assembly. at least one segment ; and a cutting edge disposed on a surface of the at least one segment, wherein the cutting edge is configured to focus ultrasonic vibration of the tip assembly.
A combination product comprising a Bcl-2 inhibitor and ibrutinib, wherein the Bcl-2 inhibitor is the following compound or a pharmaceutically acceptable salt or solvate thereof:
A light guiding device , formed for receiving an illuminant, wherein the light guiding device has at least one adapter and an at least partially transparent light guiding element , wherein the adapter - has a cylindrical recess formed to receive exactly one illuminant, - and is connected to the light guiding element via a front end section , on which the adapter has a closed material cover, in that it is releasably received in a recess of the light guiding element with the end section , and - is transparent or translucent for the light of the illuminant at least at points provided for light passage. - has a cylindrical recess formed to receive exactly one illuminant, - and is connected to the light guiding element via a front end section , on which the adapter has a closed material cover, in that it is releasably received in a recess of the light guiding element with the end section , and - is transparent or translucent for the light of the illuminant at least at points provided for light passage.
A pharmaceutical combination for use in treating lymphoma comprising a therapeutically effective amount of a histone deacetylase 6 (HDAC6) specific inhibitor or a pharmaceutically acceptable salt thereof, and an immunomodulatory drug (IMiD) or a pharmaceutically acceptable salt thereof, wherein the HDAC6 specific inhibitor is a compound of Formula I: or a pharmaceutically acceptable salt thereof, wherein, ring B is aryl or heteroaryl; R 1 is an aryl or heteroaryl, each of which may be optionally substituted by OH, halo, or C 1-6- alkyl; and R is H or C 1-6- alkyl; and wherein the immunomodulatory drug is a compound of Formula III: or a pharmaceutically acceptable salt thereof, wherein, one of X and Y is C=O, the other of X and Y is CH 2 or C=O; and R 2 is H or C 1-6- alkyl.
A self-cooled reactor apparatus comprising: a pair of opposed frames to attach to a vehicular mount of a vehicle; a coil fixed to the frames and disposed between the pair of frames ; a cover disposed between the pair of frames to cover the coil , characterized in that the cover having through-holes formed in at least a portion thereof; a protective member to, while retaining a flow passage for air from the through-holes to the coil , block a space between the through-holes and the coil in a penetration direction of the through-holes ; and a gap between the cover and the vehicular mount ; wherein the protective member is at least a pair of members extending so as to approach one another from an air-intake surface in a travel direction of the vehicle, the air-intake surface being a surface of the cover positioned opposite to the vehicle relative to the coil . a pair of opposed frames to attach to a vehicular mount of a vehicle; a coil fixed to the frames and disposed between the pair of frames ; a cover disposed between the pair of frames to cover the coil , characterized in that the cover having through-holes formed in at least a portion thereof; a protective member to, while retaining a flow passage for air from the through-holes to the coil , block a space between the through-holes and the coil in a penetration direction of the through-holes ; and a gap between the cover and the vehicular mount ; wherein the protective member is at least a pair of members extending so as to approach one another from an air-intake surface in a travel direction of the vehicle, the air-intake surface being a surface of the cover positioned opposite to the vehicle relative to the coil .
A display system for a viewing optic comprising: a first active display configured to generate a first image, and a second active display configured to generate a second image, wherein the first active display and second active display are perpendicular to one another, and further wherein the first image or the second image is directed to a first beam combiner for simultaneous overlaid viewing with an image of an outward scene in a first focal plane of the viewing optic.
A computer-implemented method for use in a first device belonging to an Ethernet virtual private network, EVPN, and an Ethernet segment, ES, the ES including a second device and a third device, the second device also belonging to the EVPN, the third device being multihomed to the first device and the second device via the ES, and the first and second devices having snooping enabled for multicast group messages, the computer-implemented method comprising: a) detecting , on a first interface of the first device, from the third device via the ES, a multicast query message, wherein the multicast query message is not detected by the second device via the ES; b) marking the first interface of the first device as a multicast router port; c) generating a message identifying the ES and including information encoding that the multicast query message was detected on the ES; and d) sending , via the EVPN, the message generated to the second device so that the second device will mark an interface, on the ES, with the third device, as a multicast router port. a) detecting , on a first interface of the first device, from the third device via the ES, a multicast query message, wherein the multicast query message is not detected by the second device via the ES; b) marking the first interface of the first device as a multicast router port; c) generating a message identifying the ES and including information encoding that the multicast query message was detected on the ES; and d) sending , via the EVPN, the message generated to the second device so that the second device will mark an interface, on the ES, with the third device, as a multicast router port.
A motor vehicle comprising: - a cab comprising a glass wall and an occultation system , the occultation system comprising a darkening device and being configured to allow the darkening device to move along a trajectory between an open position in which the darkening device does not obscure the glass wall and a closed position in which the darkening device obscures the glass wall, - a camera monitoring system comprising at least one camera configured to capture images of a scene outside the vehicle, and a display device configured to display the images captured by the camera, the display device being positioned in the cab, along the glass wall, characterized in that when the darkening device is in the closed position, the darkening device is configured to fully obscure the glass wall and to cover the display device wherein the occultation system comprises a control unit configured to detect a position of the darkening device and configured to control the display device depending on the position of the darkening device, so that the display device is switched off when the darkening device is in the closed position. - a cab comprising a glass wall and an occultation system , the occultation system comprising a darkening device and being configured to allow the darkening device to move along a trajectory between an open position in which the darkening device does not obscure the glass wall and a closed position in which the darkening device obscures the glass wall, - a camera monitoring system comprising at least one camera configured to capture images of a scene outside the vehicle, and a display device configured to display the images captured by the camera, the display device being positioned in the cab, along the glass wall, characterized in that when the darkening device is in the closed position, the darkening device is configured to fully obscure the glass wall and to cover the display device
A MEMS ultrasound fingerprint identification, ID, system configured to detect both epidermis and dermis fingerprint patterns in three dimensions comprising: a) a micromachined ultrasonic transducer, MUT, transmitter-receiver array configured to apply an acoustic beam to a finger; b) a wave conducting material; c) a voltage driver configured to apply a voltage to the array d) circuitry connected to the array; e) a data processing unit , characterized in that wherein the system is configured to drive MUT's in the MUT transmitter-receiver array in groups and scan the acoustic beam by switching excitation from group to group in sequence, and wherein a focus diameter of the acoustic beam is determined by a pitch between the MUTs in the group and a frequency of the MUTs in the group and wherein the system generates a three-dimensional fingerprint image based on signals received by the MUT transmitter-receiver array corresponding to both epidermis and dermis fingerprint patterns. a) a micromachined ultrasonic transducer, MUT, transmitter-receiver array configured to apply an acoustic beam to a finger; b) a wave conducting material; c) a voltage driver configured to apply a voltage to the array d) circuitry connected to the array; e) a data processing unit , wherein the system is configured to drive MUT's in the MUT transmitter-receiver array in groups and scan the acoustic beam by switching excitation from group to group in sequence, and wherein a focus diameter of the acoustic beam is determined by a pitch between the MUTs in the group and a frequency of the MUTs in the group and wherein the system generates a three-dimensional fingerprint image based on signals received by the MUT transmitter-receiver array corresponding to both epidermis and dermis fingerprint patterns.
A computer-assisted method of providing control data for an additive manufacturing apparatus for the manufacturing of a three-dimensional object, wherein the object is manufactured using the additive manufacturing apparatus by applying a building material layer upon layer and solidifying the building material by supplying radiation energy to locations in each layer associated with the cross-section of the object in this layer by scanning these locations with at least one radiation impact region according to a set of energy exposure parameter values along a number of solidification paths, the method of providing control data comprising: a first step (S1) of accessing computer-based model data of at least a portion of the object to be manufactured, a second step (S2) of generating at least one data model of a region of a building material layer to be selectively solidified for the manufacturing of the at least one object portion, wherein in the data model a solidification of the building material by moving at least one radiation impact region along at least one solidification path is specified, wherein it is specified that during a change of a velocity vector of the movement of a radiation impact region on the building material along the solidification path, at least once at least one value of an energy exposure parameter from the set of energy exposure parameter values is changed, wherein by changing at least one value of an energy exposure parameter the intensity distribution within a bundle of beams serving for the supply of the radiation energy to the radiation impact region is changed, and a third step (S3) of providing control data corresponding to the at least one data model generated in the second step (S2) for generating a control data set for the additive manufacturing apparatus. a first step (S1) of accessing computer-based model data of at least a portion of the object to be manufactured, a second step (S2) of generating at least one data model of a region of a building material layer to be selectively solidified for the manufacturing of the at least one object portion, wherein in the data model a solidification of the building material by moving at least one radiation impact region along at least one solidification path is specified, wherein it is specified that during a change of a velocity vector of the movement of a radiation impact region on the building material along the solidification path, at least once at least one value of an energy exposure parameter from the set of energy exposure parameter values is changed, wherein by changing at least one value of an energy exposure parameter the intensity distribution within a bundle of beams serving for the supply of the radiation energy to the radiation impact region is changed, and a third step (S3) of providing control data corresponding to the at least one data model generated in the second step (S2) for generating a control data set for the additive manufacturing apparatus.
Driver unit , in particular for use in multiple disc clutches, consisting of a driver plate and a clutch basket , an external toothing system being provided on the driver plate , and the housing of the clutch basket being provided with an internal toothing system which is complementary at least in sections in terms of shape and function with respect to the external toothing system of the driver plate , and it being possible for the driver plate to be inserted into the clutch basket , characterized in that , in the inserted state, the internal toothing system and the external toothing system engage behind one another at least in sections.
A method for welding an optical fiber , in particular a hollow-core fiber, and a perforated element , in particular made of glass, by means of a pulsed laser beam , in particular a USP laser beam, wherein the optical fiber is inserted into a hole of the perforated element so that the outer circumference of the optical fiber and the inner circumference of the hole form a cylindrical joining surface , wherein the optical fiber and the perforated element are locally melted in the region of the joining surface by means of the laser beam focused into the workpiece material and thereby welded to one another, characterized in that a pulsed laser beam whose beam direction extends in the axial direction of the cylindrical joining surface is focused on the region of the joining surface , and in that the laser focus (F) in the region of the joining surface is moved in the axial direction in or opposite to the beam direction of the laser beam in order to produce at least one weld seam , in particular an axial weld seam, in the region of the joining surface .
A base station comprising: a first processing unit ; and a second processing unit configured to process a wireless signal, wherein the first processing unit includes a third processing unit configured to process a control signal, and a fourth processing unit configured to process user data; wherein the third processing unit is configured to: replace a first terminal identifier, that is fed from a first higher-level device configured to manage communication of a terminal , with a second terminal identifier unique at the fourth processing unit , wherein the second terminal identifier corresponds to both the first terminal identifier and a higher-level identifier that identifies a second higher-level device configured to perform user-data processing, and feed, to the second processing unit , the second terminal identifier used in user-data processing performed in the second processing unit and the fourth processing unit ; and wherein the second processing unit is configured to identify communication between the terminal and the fourth processing unit by using the fed second terminal identifier and relay communication of user data between the terminal and the fourth processing unit . a first processing unit ; and a second processing unit configured to process a wireless signal, wherein the first processing unit includes a third processing unit configured to process a control signal, and a fourth processing unit configured to process user data; a third processing unit configured to process a control signal, and a fourth processing unit configured to process user data; wherein the third processing unit is configured to: replace a first terminal identifier, that is fed from a first higher-level device configured to manage communication of a terminal , with a second terminal identifier unique at the fourth processing unit , wherein the second terminal identifier corresponds to both the first terminal identifier and a higher-level identifier that identifies a second higher-level device configured to perform user-data processing, and feed, to the second processing unit , the second terminal identifier used in user-data processing performed in the second processing unit and the fourth processing unit ; and replace a first terminal identifier, that is fed from a first higher-level device configured to manage communication of a terminal , with a second terminal identifier unique at the fourth processing unit , wherein the second terminal identifier corresponds to both the first terminal identifier and a higher-level identifier that identifies a second higher-level device configured to perform user-data processing, and feed, to the second processing unit , the second terminal identifier used in user-data processing performed in the second processing unit and the fourth processing unit ; and wherein the second processing unit is configured to identify communication between the terminal and the fourth processing unit by using the fed second terminal identifier and relay communication of user data between the terminal and the fourth processing unit .