mhurhangee/patent-ind-claim-en huggingface dataset:
A disc brake comprising a brake pad retainer arrangement for holding a brake pad in position relative to a disc in the disc brake , the arrangement comprising; an elongated retainer bracket arranged to extend transversely over the disc and the brake pad , wherein the retainer bracket is spring loaded (240, Fs) to press against a rim portion of the brake pad , wherein the retainer bracket comprises a tapered surface portion configured to engage the rim portion wherein the retainer bracket is arranged to engage the rim portion at an angle (a), thereby biasing the brake pad in a direction (D) away from the disc , wherein the angle (a) is measured with respect to a plane (P) perpendicular to the spring loading force direction, characterized in that a helical spring is arranged to load the retainer bracket to press against the rim portion of the brake pad , wherein the helical spring rests against a housing of the disc brake and is held in position by a fastener extending through one end of the retainer bracket and into the housing. an elongated retainer bracket arranged to extend transversely over the disc and the brake pad , wherein the retainer bracket is spring loaded (240, Fs) to press against a rim portion of the brake pad , wherein the retainer bracket comprises a tapered surface portion configured to engage the rim portion wherein the retainer bracket is arranged to engage the rim portion at an angle (a), thereby biasing the brake pad in a direction (D) away from the disc , wherein the angle (a) is measured with respect to a plane (P) perpendicular to the spring loading force direction, characterized in that a helical spring is arranged to load the retainer bracket to press against the rim portion of the brake pad , wherein the helical spring rests against a housing of the disc brake and is held in position by a fastener extending through one end of the retainer bracket and into the housing.
A control valve with an integral trim, the control valve comprising: a single-piece valve body including an integral seat ; a plug irremovably located within the single-piece valve body ; a stem integrally formed with the plug as a single-piece plug-stem member , wherein a portion of the stem protrudes externally from the single-piece valve body , and wherein the single-piece plug-stem member is moveable relative to the integral seat , the plug of the single-piece plug-stem member to mate with the integral seat to close a fluid pathway located within the single-piece valve body , characterized in that , a breakable support is integrally formed with the plug and the single-piece valve body . a single-piece valve body including an integral seat ; a plug irremovably located within the single-piece valve body ; a stem integrally formed with the plug as a single-piece plug-stem member , wherein a portion of the stem protrudes externally from the single-piece valve body , and wherein the single-piece plug-stem member is moveable relative to the integral seat , the plug of the single-piece plug-stem member to mate with the integral seat to close a fluid pathway located within the single-piece valve body , characterized in that , a breakable support is integrally formed with the plug and the single-piece valve body .
A method for providing multicast group membership defined relative to partition membership in a high performance computing environment, said method comprising the steps of : receiving , by a subnet manager of a subnet, a request to create a multicast group, wherein the request includes an indicator and wherein the indicator indicates that each member of a partition defined in the subnet is to be associated with the multicast group; determining , by the subnet manager, a number of additional end-ports that are members of the partition that is defined in the subnet; associating , by the subnet manager, the number of additional end-ports that are members of the partition with an identifier that defines the multicast group; defining , by the subnet manager, a route to deliver a multicast packet that includes the identifier that defines the multicast group to each end-port that is associated with the identifier that defines the multicast group. receiving , by a subnet manager of a subnet, a request to create a multicast group, wherein the request includes an indicator and wherein the indicator indicates that each member of a partition defined in the subnet is to be associated with the multicast group; determining , by the subnet manager, a number of additional end-ports that are members of the partition that is defined in the subnet; associating , by the subnet manager, the number of additional end-ports that are members of the partition with an identifier that defines the multicast group; defining , by the subnet manager, a route to deliver a multicast packet that includes the identifier that defines the multicast group to each end-port that is associated with the identifier that defines the multicast group.
A method of communication in a wireless communication system, comprising: determining , by a network entity of a first operator having a first priority level, whether to transmit on at least a portion of a transmission opportunity; transmitting a reservation preamble associated with the first network entity based on a determination by the first network entity to transmit on at least the portion of the transmission opportunity; forgoing transmission of the reservation preamble associated with the first network entity based on a determination by the first network entity to not transmit on at least the portion of the transmission opportunity; determining , by a second network entity of a second operator having a second priority level, whether the reservation preamble from one or more network entities of the first operator has been detected; transmitting a reservation preamble of the second network entity based on a determination that the reservation preamble from one or more network entities of the first operator has not been detected by at least the second network entity; and transmitting data associated with the second network entity within the portion of the transmission opportunity subsequent to the transmission of the reservation preamble of the second network entity. determining , by a network entity of a first operator having a first priority level, whether to transmit on at least a portion of a transmission opportunity; transmitting a reservation preamble associated with the first network entity based on a determination by the first network entity to transmit on at least the portion of the transmission opportunity; forgoing transmission of the reservation preamble associated with the first network entity based on a determination by the first network entity to not transmit on at least the portion of the transmission opportunity; determining , by a second network entity of a second operator having a second priority level, whether the reservation preamble from one or more network entities of the first operator has been detected; transmitting a reservation preamble of the second network entity based on a determination that the reservation preamble from one or more network entities of the first operator has not been detected by at least the second network entity; and transmitting data associated with the second network entity within the portion of the transmission opportunity subsequent to the transmission of the reservation preamble of the second network entity.
A method for processing blockchain-based data, the method comprising: receiving , by a blockchain node, transaction data and formatted information corresponding to the transaction data, wherein the blockchain node is a node in a blockchain network; processing , by the blockchain node, the transaction data based on the formatted information, wherein the processing comprises broadcasting, by the blockchain node, the formatted information and the transaction data, so that another blockchain node in the blockchain network performs consensus processing on the transaction data based on the formatted information; determining , by the blockchain node and based on a transaction type corresponding to the transaction data and a predetermined relationship between the transaction type and a processing policy, the processing policy corresponding to the transaction data, wherein the processing policy comprises a data attribute used for conversion and a conversion rule corresponding to the data attribute; converting , by the blockchain node, the formatted information into a first attribute value based on the conversion rule comprised in the processing policy; determining a data attribute corresponding to the first attribute value; and verifying , by the blockchain node, the received transaction data by comparing the first attribute value and a second attribute value of the determined data attribute in the transaction data, wherein if the first attribute value and the second attribute value are the same, the verifying determines that the transaction data passes the verification. receiving , by a blockchain node, transaction data and formatted information corresponding to the transaction data, wherein the blockchain node is a node in a blockchain network; processing , by the blockchain node, the transaction data based on the formatted information, wherein the processing comprises broadcasting, by the blockchain node, the formatted information and the transaction data, so that another blockchain node in the blockchain network performs consensus processing on the transaction data based on the formatted information; determining , by the blockchain node and based on a transaction type corresponding to the transaction data and a predetermined relationship between the transaction type and a processing policy, the processing policy corresponding to the transaction data, wherein the processing policy comprises a data attribute used for conversion and a conversion rule corresponding to the data attribute; converting , by the blockchain node, the formatted information into a first attribute value based on the conversion rule comprised in the processing policy; determining a data attribute corresponding to the first attribute value; and verifying , by the blockchain node, the received transaction data by comparing the first attribute value and a second attribute value of the determined data attribute in the transaction data, wherein if the first attribute value and the second attribute value are the same, the verifying determines that the transaction data passes the verification.
A network node , configured to: configure each wireless device in a first group of wireless devices , comprising at least one wireless device , with a first radio network temporary identifier, RNTI, defined to address a group of wireless devices for physical downlink control channel, PDCCH, based wake-up signal, WUS, operation; and cause transmission of signaling including a wake-up signal, WUS, for a first WUS monitoring occasion associated with the first group of wireless devices and use the first RNTI defined to address a group of wireless devices to scramble a Cyclic Redundancy Check, CRC, in the signaling, the WUS configured to cause each wireless device in the first group of wireless devices to perform at least one action. configure each wireless device in a first group of wireless devices , comprising at least one wireless device , with a first radio network temporary identifier, RNTI, defined to address a group of wireless devices for physical downlink control channel, PDCCH, based wake-up signal, WUS, operation; and cause transmission of signaling including a wake-up signal, WUS, for a first WUS monitoring occasion associated with the first group of wireless devices and use the first RNTI defined to address a group of wireless devices to scramble a Cyclic Redundancy Check, CRC, in the signaling, the WUS configured to cause each wireless device in the first group of wireless devices to perform at least one action.
A machine arrangement for sequential processing of sheet-type substrates, having multiple different processing stations (01; 02; 03; 04; 06; 07; 08; 09; 11; 12; 37), wherein several processing stations (01; 02; 03; 04; 06; 07; 08; 09; 11; 12; 37) each have a substrate guiding unit and a substrate processing unit , wherein two of the processing stations (01; 02; 03; 04; 06; 07; 08; 09; 11; 12; 37) has as a substrate processing unit respectively at least one non-impact printing unit (06; 37) respectively printing the substrates, wherein the relevant processing stations having the non-impact printing units (06; 37) each have a processing cylinder (22; 38), wherein the respective non-impact printing unit (06; 37) is respectively arranged on the circumference of the processing cylinder (22; 38), wherein the respective processing cylinder (22; 38) is respectively designed triple-sized or quadruple-sized, wherein a double-sized or triple-sized transfer drum or a corresponding feed cylinder is respectively arranged directly upstream of the respective processing cylinder (22; 38) and wherein a single-sized or double-sized transfer drum or a corresponding transport cylinder is respectively arranged directly downstream of the respective processing cylinder , characterized in that a straight line running through the axis of rotation of the respective processing cylinder and through the axis of rotation of the transfer drum arranged directly downstream or of the transport cylinder arranged directly downstream forms an acute angle (α1) to a horizontal line and that a straight line running through the axis of rotation of the respective processing cylinder and the axis of rotation of a transfer drum arranged directly upstream or of a feed cylinder arranged directly upstream forms an acute angle (α2) to a horizontal line, wherein the horizontal runs respectively through the axis of rotation of the relevant transfer drum (43; 44) or through the axis of rotation of the relevant transport cylinder or of the relevant feed cylinder and wherein the angle (α2) directed to the transfer drum arranged upstream or to the feed cylinder arranged upstream lies in the region between 1° and 14° or in the region between 3° and 9° or is 6° and wherein the angle (α1) directed to the transfer drum arranged downstream or to the transport cylinder arranged downstream lies in the region between 1° and 14° or in the region between 3° and 9° or is 3.75° or 6°.
A method performed by a user equipment, UE , configured to operate in a wireless communication system, the method comprising: obtaining information regarding groups of at least one search space set related to physical downlink control channel, PDCCH, monitoring, wherein the groups comprise a first group and a second group; performing the PDCCH monitoring according to a search space set related to the second group based on the information regarding the groups; based on first downlink control information, DCI, scheduling uplink transmission in an unlicensed band being received: (i) performing a channel access procedure, CAP, for the uplink transmission to access the unlicensed band; and (ii) performing the uplink transmission based on the CAP, and wherein based on information related to a channel occupancy time, COT, being indicated by second DCI: (i) the PDCCH monitoring is started according to a search space set related to the first group after the COT, and (ii) the PDCCH monitoring is ended according to the search space set related to the second group after the COT, wherein the second DCI comprises information related to occupied frequency resources in the unlicensed band, and wherein a size of the frequency resources is an N multiple of the size of a frequency unit in which the CAP is performed, and N is a natural number. obtaining information regarding groups of at least one search space set related to physical downlink control channel, PDCCH, monitoring, wherein the groups comprise a first group and a second group; performing the PDCCH monitoring according to a search space set related to the second group based on the information regarding the groups; based on first downlink control information, DCI, scheduling uplink transmission in an unlicensed band being received: (i) performing a channel access procedure, CAP, for the uplink transmission to access the unlicensed band; and (ii) performing the uplink transmission based on the CAP, and (i) performing a channel access procedure, CAP, for the uplink transmission to access the unlicensed band; and (ii) performing the uplink transmission based on the CAP, and wherein based on information related to a channel occupancy time, COT, being indicated by second DCI: (i) the PDCCH monitoring is started according to a search space set related to the first group after the COT, and (ii) the PDCCH monitoring is ended according to the search space set related to the second group after the COT, (i) the PDCCH monitoring is started according to a search space set related to the first group after the COT, and (ii) the PDCCH monitoring is ended according to the search space set related to the second group after the COT, wherein the second DCI comprises information related to occupied frequency resources in the unlicensed band, and wherein a size of the frequency resources is an N multiple of the size of a frequency unit in which the CAP is performed, and N is a natural number.
Inhaler , comprising an electronic control device and a vaporizer unit with at least one heating element , wherein the vaporizer unit is adapted for vaporizing a liquid fed from a liquid reservoir and the vaporized liquid is received by an air stream flowing through the vaporizer unit , wherein the electronic control device is adapted for heating the at least one heating element with a variable control frequency, wherein the electronic control device is adapted for varying the control frequency of the at least one heating element over the emptying duration of the liquid reservoir , characterized in that the electronic control device is adapted for increasing the control frequency of the at least one heating element while the liquid reservoir is progressively emptied.
A compound selected from 2-(((1 r ,4 r )-4-(((4-chlorophenyl)(phenyl)carbamoyloxy) methyl)cyclohexyl)methoxy)acetic acid and pharmaceutically acceptable salts, solvates, and hydrates thereof, or a crystalline form of 2-(((1 r ,4 r )-4-(((4-chlorophenyl)(phenyl)carbamoyloxy)methyl)cyclohexyl)methoxy)acetic acid, for use in a method of treatment of pulmonary arterial hypertension (PAH).
A method of performing access deregistration by an access and mobility management function, AMF, serving a 3 rd generation partnership project, 3GPP, access and a non-3GPP access, the method comprising: assigning a temporary identifier to a terminal during a registration procedure over the non-3GPP access in a public land mobile network, PLMN, the assigned temporary identifier corresponding to a temporary identifier assigned during a registration procedure over the 3GPP access in the same PLMN; determining to initiate a deregistration procedure to deregister the non-3GPP access for the terminal over the 3GPP access, after assigning the temporary identifier to the terminal during the registration procedure over the non-3GPP access; and transmitting, to a session management function, SMF, based on the determination, a request for releasing a protocol data unit, PDU, session including a non-3GPP access PDU session ID, to release all PDU sessions associated with the non-3GPP access, wherein the all PDU sessions associated with the non-3GPP access are released based on the request. assigning a temporary identifier to a terminal during a registration procedure over the non-3GPP access in a public land mobile network, PLMN, the assigned temporary identifier corresponding to a temporary identifier assigned during a registration procedure over the 3GPP access in the same PLMN; determining to initiate a deregistration procedure to deregister the non-3GPP access for the terminal over the 3GPP access, after assigning the temporary identifier to the terminal during the registration procedure over the non-3GPP access; and transmitting, to a session management function, SMF, based on the determination, a request for releasing a protocol data unit, PDU, session including a non-3GPP access PDU session ID, to release all PDU sessions associated with the non-3GPP access, wherein the all PDU sessions associated with the non-3GPP access are released based on the request.
A responsive force generator comprising an operable member including at least one operation unit, a support base supporting the operable member , and an acceleration generating unit configured to provide acceleration to the operable member , wherein: the responsive force generator further comprises a pair of support links with which the operable member is supported by the support base , such that the operable member is movable relative to the support base , each of the support links is rotatably supported on the support base at a respective stationary support point and is rotatably supported on the operable member at a respective movable support point, the movable support point being movable relative to the support base and stationary relative to the operable member , the stationary support points of the support links are located on an imaginary stationary support line (L1), the movable support points of the support links are located on an imaginary movable support line (L2), the stationary support line (L1) and the movable support line (L2) are parallel to each other, and the acceleration generating unit provides acceleration to the operable member in a direction parallel to the movable support line (L2), so that the operable member is shifted in the direction parallel to the movable support line (L2), and thereby the operable member tft is moved relative to the support base , characterised in that the support links are bendable in a facing direction in which the operable member faces the support base such that the operable member is movable toward the support base when the operable member is pressed toward the support base . the responsive force generator further comprises a pair of support links with which the operable member is supported by the support base , such that the operable member is movable relative to the support base , each of the support links is rotatably supported on the support base at a respective stationary support point and is rotatably supported on the operable member at a respective movable support point, the movable support point being movable relative to the support base and stationary relative to the operable member , the stationary support points of the support links are located on an imaginary stationary support line (L1), the movable support points of the support links are located on an imaginary movable support line (L2), the stationary support line (L1) and the movable support line (L2) are parallel to each other, and the acceleration generating unit provides acceleration to the operable member in a direction parallel to the movable support line (L2), so that the operable member is shifted in the direction parallel to the movable support line (L2), and thereby the operable member tft is moved relative to the support base , characterised in that the support links are bendable in a facing direction in which the operable member faces the support base such that the operable member is movable toward the support base when the operable member is pressed toward the support base .