mhurhangee/patent-ind-claim-en huggingface dataset:
Medium-voltage static series synchronous compensator adapted for electrically connecting two electrical distribution networks (A, B) or for connecting two portions of the same electrical distribution network , comprising a line transformer and a low-voltage inverter , the low-voltage inverter being electrically connected to the line transformer , the line transformer having two coupling points each adapted to be connected to one of the two electrical networks (A, B) or to one of the two portions of a single electrical distribution network, and the line transformer comprising a primary magnetic circuit and a secondary magnetic circuit , the medium-voltage static series synchronous compensator being characterized in that the transformer comprises a bypass circuit magnetically connecting the primary and secondary to enable the behavior of the secondary magnetic circuit to be made independent of the behavior of the primary magnetic circuit in the event of application to the primary magnetic circuit of the voltage of a network after the inverter has stalled on a three-phase network.
A method for performing a handover of a mobile terminal from a source base station to a target base station , the source and target base stations being adapted to directly communicate with each other via first respective communication interfaces, the source and target base stations being adapted to communicate via second respective communication interfaces with a core network entity , the core network entity being a mobility management entity managing subscriptions to services of at least the target base station and authorizing access to said services via handover to only subscribers to said services, characterized in that said method comprises: - obtaining (S302) an authorization ticket provided by the mobile terminal; - checking (S303) whether the authorization ticket provided by the mobile terminal is valid by decrypting the authorization ticket with a decrypting key provided by the mobility management entity having generated the authorization ticket and verifying that the authorization ticket has been effectively generated by the mobility management entity having provided the decryption key, a valid authorization ticket being an indication that the mobility management entity already performed access control for the mobile terminal in the context of the handover toward the target base station; - performing (S304) directly the handover via the first communication interfaces, when the obtained authorization ticket is valid (S303). - obtaining (S302) an authorization ticket provided by the mobile terminal; - checking (S303) whether the authorization ticket provided by the mobile terminal is valid by decrypting the authorization ticket with a decrypting key provided by the mobility management entity having generated the authorization ticket and verifying that the authorization ticket has been effectively generated by the mobility management entity having provided the decryption key, a valid authorization ticket being an indication that the mobility management entity already performed access control for the mobile terminal in the context of the handover toward the target base station; - performing (S304) directly the handover via the first communication interfaces, when the obtained authorization ticket is valid (S303).
A femoral trialling kit for assessing acetabular cup orientation during a left hip joint surgical procedure and a right hip joint surgical procedure, comprising: a trial femoral head having an inner wall defining a cavity extending along a head axis and a visual alignment guide on an outer surface of the trial femoral head; and a trial femoral neck having a taper at a free end, the taper being receivable within the cavity, characterised in that one of the taper and the inner wall has a first anti-rotation feature and a second anti-rotation feature , the first anti-rotation feature and the second anti-rotation feature being inclined, and the other of the taper and the inner wall has a third anti-rotation feature , and wherein the trial femoral head is attachable to the trial femoral neck in a first angular configuration corresponding to a right hip joint, in which the third anti-rotation feature and the first anti-rotation feature engage, and a second angular configuration corresponding to a left hip joint, wherein the third anti-rotation feature and the second anti-rotation feature engage. a trial femoral head having an inner wall defining a cavity extending along a head axis and a visual alignment guide on an outer surface of the trial femoral head; and a trial femoral neck having a taper at a free end, the taper being receivable within the cavity, characterised in that one of the taper and the inner wall has a first anti-rotation feature and a second anti-rotation feature , the first anti-rotation feature and the second anti-rotation feature being inclined, and the other of the taper and the inner wall has a third anti-rotation feature , and wherein the trial femoral head is attachable to the trial femoral neck in a first angular configuration corresponding to a right hip joint, in which the third anti-rotation feature and the first anti-rotation feature engage, and a second angular configuration corresponding to a left hip joint, wherein the third anti-rotation feature and the second anti-rotation feature engage.
A Wireless Transmit/Receive Unit, WTRU, comprising: a processor and a transceiver , wherein the WTRU is configured to: receive configuration information identifying multiple groups of search spaces associated with a control resource set; monitor, according to the configuration information, a first group of the search spaces for a first physical downlink control channel, PDCCH, transmission; receive the first PDCCH transmission via the monitored first group of the search spaces, the first PDCCH transmission including downlink control information, DCI, the DCI including information indicating an index associated with a second group of the search spaces for monitoring by the WTRU for a second PDCCH transmission; monitor, according to the DCI, the second group of the search spaces for the second PDCCH transmission; and receive the second PDCCH transmission via the monitored second group of the search spaces, wherein the WTRU is configured to monitor only one of the first and second groups of the search spaces at a time. receive configuration information identifying multiple groups of search spaces associated with a control resource set; monitor, according to the configuration information, a first group of the search spaces for a first physical downlink control channel, PDCCH, transmission; receive the first PDCCH transmission via the monitored first group of the search spaces, the first PDCCH transmission including downlink control information, DCI, the DCI including information indicating an index associated with a second group of the search spaces for monitoring by the WTRU for a second PDCCH transmission; monitor, according to the DCI, the second group of the search spaces for the second PDCCH transmission; and receive the second PDCCH transmission via the monitored second group of the search spaces, wherein the WTRU is configured to monitor only one of the first and second groups of the search spaces at a time.
A method for preparing the pimavanserin of formula ( I ), characterized in that it comprises the following steps: a) a reaction of N -(4-fluorobenzyl)-1-methylpiperidine-4-amine of formula II or its salts with isocyanic acid or its salt, producing 1-(4-fluorobenzyl)-1-(1-methylpiperidin-4-yl)urea of formula X , b) a reaction of 1-(4-fluorobenzyl)-1-(1-methylpiperidin-4-yl)urea of formula X with 4-isobutoxybenzaldehyde of formula VI , or its precursors such as the bisulphidic adduct of formula XI or acetals of formula XII , wherein X and Y can be independently O or S and wherein R 1 and R 2 can be a C1-C6 alkyl, or wherein R 1 , R 2 can form a 5- to 6-membered cycle together with the X-C-Y structure they are connected to. a) a reaction of N -(4-fluorobenzyl)-1-methylpiperidine-4-amine of formula II or its salts with isocyanic acid or its salt, producing 1-(4-fluorobenzyl)-1-(1-methylpiperidin-4-yl)urea of formula X , b) a reaction of 1-(4-fluorobenzyl)-1-(1-methylpiperidin-4-yl)urea of formula X with 4-isobutoxybenzaldehyde of formula VI , or its precursors such as the bisulphidic adduct of formula XI or acetals of formula XII , wherein X and Y can be independently O or S and wherein R 1 and R 2 can be a C1-C6 alkyl, or wherein R 1 , R 2 can form a 5- to 6-membered cycle together with the X-C-Y structure they are connected to. wherein X and Y can be independently O or S and wherein R 1 and R 2 can be a C1-C6 alkyl, or wherein R 1 , R 2 can form a 5- to 6-membered cycle together with the X-C-Y structure they are connected to.
An industrial welding robot comprising: an arm a wrist portion provided at an end of the arm , the wrist portion including; a body , attached to the end of the arm and adapted to rotate around a first axis (R-axis) extending in a direction of length of the arm ; a swinging element , attached to an end of the body and adapted to swing around a second axis (B-axis) perpendicular to the first axis (R-axis); and a rotating element attached to an end of the swinging element and adapted to rotate a third axis (T-axis); an ingress opening , which is opened in a side surface of the arm ; and a passage opening , from which a conduit cable for feeding a welding wire through said conduit cable to an end effector attached to the rotating element is drawn out, is formed in the body at a place where the body intersects the first axis (R-axis), so that the opening is centered around the first axis (R-axis), wherein the conduit cable is drawn into an inside of the arm from the ingress opening and extended from the inside of the arm to the body along the first axis (R-axis), and characterized in that the conduit cable is disposed to extend from the passage opening toward the swinging element along the first axis (R-axis), so that the central axis of the conduit cable coincides with the first axis (R-axis). an arm a wrist portion provided at an end of the arm , the wrist portion including; a body , attached to the end of the arm and adapted to rotate around a first axis (R-axis) extending in a direction of length of the arm ; a swinging element , attached to an end of the body and adapted to swing around a second axis (B-axis) perpendicular to the first axis (R-axis); and a rotating element attached to an end of the swinging element and adapted to rotate a third axis (T-axis); an ingress opening , which is opened in a side surface of the arm ; and a passage opening , from which a conduit cable for feeding a welding wire through said conduit cable to an end effector attached to the rotating element is drawn out, is formed in the body at a place where the body intersects the first axis (R-axis), so that the opening is centered around the first axis (R-axis), wherein the conduit cable is drawn into an inside of the arm from the ingress opening and extended from the inside of the arm to the body along the first axis (R-axis), and characterized in that the conduit cable is disposed to extend from the passage opening toward the swinging element along the first axis (R-axis), so that the central axis of the conduit cable coincides with the first axis (R-axis).
A method comprising: receiving, by a parent network device (N1) in a wireless deterministic network, a retransmit capabilities message from a first child device (N3) attached to the parent network device, the retransmit capabilities message specifying a capability of the first child device to detect a data packet transmission to the parent network device by a second child device (N2) attached to the parent network device and that is a peer of the first child device, the capability determined by the first child device based on promiscuous detection of a data packet transmission to the parent network device by the second child device on timeslots allocated to the second child device; and allocating, by the parent network device, a peer retransmit timeslot to the first child device from within a channel distribution chunk appropriated by the parent network device, the peer retransmit timeslot enabling the first child device to retransmit a data packet on behalf of the second child device to the parent network device. receiving, by a parent network device (N1) in a wireless deterministic network, a retransmit capabilities message from a first child device (N3) attached to the parent network device, the retransmit capabilities message specifying a capability of the first child device to detect a data packet transmission to the parent network device by a second child device (N2) attached to the parent network device and that is a peer of the first child device, the capability determined by the first child device based on promiscuous detection of a data packet transmission to the parent network device by the second child device on timeslots allocated to the second child device; and allocating, by the parent network device, a peer retransmit timeslot to the first child device from within a channel distribution chunk appropriated by the parent network device, the peer retransmit timeslot enabling the first child device to retransmit a data packet on behalf of the second child device to the parent network device.
A catalyst for an alkaline membrane fuel cell, comprising a mixture of: a catalytically active component made of highly dispersed, palladium nano-particles, and a catalytically inactive component made of highly dispersed, unsupported nickel metal nano-particles, wherein the unsupported nickel nano-particles provide support for the palladium nano-particles as to increase the effective surface area of the palladium nano-particles accessible for the transport of water and/or oxygen. a catalytically inactive component made of highly dispersed, unsupported nickel metal nano-particles, wherein the unsupported nickel nano-particles provide support for the palladium nano-particles as to increase the effective surface area of the palladium nano-particles accessible for the transport of water and/or oxygen.
A channel measurement method, comprising: Obtaining , by user equipment, UE, a second reference signal resource mapping diagram of K2 second reference signal resource mapping diagrams, and obtaining a reference signal according to the second reference signal resource mapping diagram; and Performing , by the UE, channel measurement according to the reference signal to determine channel state information, and feeding back the channel state information to a base station, wherein the second reference signal resource mapping diagram is a location to which a time-frequency resource of the reference signal is mapped, wherein the second reference signal resource mapping diagram of the K2 second reference resource mapping diagrams comprises time-frequency resources of at least two of K1 first reference signal resource mapping diagrams, wherein K2 is a quantity of the second reference signal resource mapping diagrams, K1 is a quantity of the first reference signal resource mapping diagrams, and K1 and K2 are integers greater than or equal to 1; and each of the first reference signal resource mapping diagram is a Y-port reference signal resource mapping diagram, the second reference signal resource mapping diagram is an X-port reference signal resource mapping diagram, wherein Y is an integer less than or equal to 8 and satisfying 2 n and X is an integer greater than 8, or wherein Y is an integer less than or equal to 8 and satisfying 2 n and X is an integer less than 8 not satisfying 2 n . Obtaining , by user equipment, UE, a second reference signal resource mapping diagram of K2 second reference signal resource mapping diagrams, and obtaining a reference signal according to the second reference signal resource mapping diagram; and Performing , by the UE, channel measurement according to the reference signal to determine channel state information, and feeding back the channel state information to a base station, wherein the second reference signal resource mapping diagram is a location to which a time-frequency resource of the reference signal is mapped, wherein the second reference signal resource mapping diagram of the K2 second reference resource mapping diagrams comprises time-frequency resources of at least two of K1 first reference signal resource mapping diagrams, wherein K2 is a quantity of the second reference signal resource mapping diagrams, K1 is a quantity of the first reference signal resource mapping diagrams, and K1 and K2 are integers greater than or equal to 1; and each of the first reference signal resource mapping diagram is a Y-port reference signal resource mapping diagram, the second reference signal resource mapping diagram is an X-port reference signal resource mapping diagram, wherein Y is an integer less than or equal to 8 and satisfying 2 n and X is an integer greater than 8, or wherein Y is an integer less than or equal to 8 and satisfying 2 n and X is an integer less than 8 not satisfying 2 n .
Cylindrical radiator for a continuous-flow heater in a hot beverage preparation device for household purposes with a metallic lateral area , a filler made from magnesium oxide powder , a heating coil enclosed therein, a lateral area made from deformed metal sheet and at least one seam in the lateral area , characterised by at least one fold (16; 18) in the lateral area .
A blade assembly for use with a gas turbine engine , the blade assembly comprising a blade configured to rotate about a center axis during operation of the gas turbine engine , the blade including a root and an airfoil that extends radially away from the root , a blade holder configured to support the blade as the blade rotates about the center axis , the blade holder including a base , a first post , and a second post that cooperate to define a blade receiver slot that extends axially through a fore face and an aft face of the blade holder and that receives the root of the blade such that the first post and the second post block radial movement of the root of the blade out of the blade receiver slot , and a blade retainer configured to block axial movement of the root of the blade out of the blade receiver slot , the blade retainer including an outer stop and a retainer insert that includes a web that extends axially between a fore end and an aft end thereof, a fore brace coupled to the fore end of the web , and an inner stop that extends radially inward away from the web adjacent the aft end of the web , wherein the outer stop is aligned axially with the inner stop and coupled to the web to cause the outer stop and the inner stop cooperate to provide an aft brace that is spaced apart axially from the fore brace , the fore brace is configured to engage the root of the blade and the fore face of the blade holder , the aft brace is configured to engage the root of the blade and the aft face of the blade holder , and the web blocks relative movement between the fore brace and the aft brace so that the blade retainer blocks axial movement of the root of the blade out of the blade receiver slot, wherein the outer stop includes a radially extending abutment wall and a flange that extends axially away from the abutment wall , the blade assembly being characterised in that the web is formed to include a channel that extends radially into the web and a portion of the abutment wall is received in the channel to locate the outer stop axially relative to the retainer insert .
A system for performing well operations in a plurality of hydrocarbon wells of a wellhead cluster , which system comprises a main drilling rig comprising a main drilling unit displaying a drill floor and comprising a drilling and hoisting system arranged to operate on the drill floor about a well centre , wherein the main drilling unit is positioned at least partially vertically above the wellhead cluster enabling the drilling and hoisting system to perform well operations in the plurality of hydrocarbon wells , characterised in that a plurality of secondary drilling units , are positioned on the wellhead cluster , comprising a plurality of wellheads (101a - c) positioned on a common wellhead template below the main drilling unit , for performing well operations in the plurality of hydrocarbon wells , wherein each secondary drilling unit comprises its own drilling equipment comprising a support table , a drilling mast or derrick and a rotary drilling and hoisting machine ,wherein the main drilling unit and at least one of the plurality of secondary drilling units are arranged for performing alternating well operations in at least one of the plurality of hydrocarbon wells , wherein the main drilling unit is moveably mounted on the drilling rig , such that the well centre can be positioned vertically above any wellhead of the wellhead cluster , allowing the drilling and hoisting system to perform well operations in hydrocarbon wells through the support table of the secondary drilling units .
Pneumatic vehicle tyre with a radial carcass and two bead regions , which each have a bead core and a bead filler located on the bead core , wherein the carcass is led from axially on the inside axially outwards around the bead cores and ends in a carcass turn-up , and wherein bead reinforcers are arranged in the two bead regions in the pneumatic vehicle tyre, and wherein the bead reinforcer has reinforcing elements which consist of at least one textile yarn, characterized in that all of the textile yarns of the reinforcing element are composed of the same material, and in that each yarn has a yarn count <700 dtex.
A method for instruction set selection by a device, comprising: Selecting , from different candidate instruction sets that are each configured to produce a same output parameter, an instruction set that requires one or more input parameters that are each available to the device, wherein the instruction sets include executable instructions and one or more required input parameters, and wherein the one or more input parameters are dynamic input parameters that change as a function of time and/or location of respective one or more input parameter source devices that are configured to continuously or periodically report the one or more input parameters; and obtaining the output parameter by executing the selected instruction set using the input parameters required by that instruction set. Selecting , from different candidate instruction sets that are each configured to produce a same output parameter, an instruction set that requires one or more input parameters that are each available to the device, wherein the instruction sets include executable instructions and one or more required input parameters, and wherein the one or more input parameters are dynamic input parameters that change as a function of time and/or location of respective one or more input parameter source devices that are configured to continuously or periodically report the one or more input parameters; and obtaining the output parameter by executing the selected instruction set using the input parameters required by that instruction set.