mhurhangee/patent-ind-claim-en huggingface dataset:
Method for checking tyres, comprising: ∘ arranging a tyre having a rotation axis (X) on a support plane defining a support lateral portion , a free lateral portion arranged at a certain height with respect to said support plane , and a crown portion arranged between the free lateral portion and the support lateral portion ; characterized in that the method further comprises : ∘ selecting a reference circumference of said tyre arranged at said crown portion ; ∘ bringing a tool towards said tyre arranged on the support plane so as to rest on a measuring surface (M), said measuring surface (M) being a portion of an outer surface of said free lateral portion ; ∘ pushing said measuring surface by means of said tool so as to apply a tool force (F) on said measuring surface (M) towards the support plane creating a deformed measuring surface positioned at a tool height; ∘ during said pushing action, setting said tyre in relative rotation with respect to said tool for at least one complete rotation about said rotation axis (X); ∘ measuring a height of said reference circumference during said complete rotation; and ∘ determining whether said tyre has a defect based on said measured height of said reference circumference . ∘ selecting a reference circumference of said tyre arranged at said crown portion ; ∘ bringing a tool towards said tyre arranged on the support plane so as to rest on a measuring surface (M), said measuring surface (M) being a portion of an outer surface of said free lateral portion ; ∘ pushing said measuring surface by means of said tool so as to apply a tool force (F) on said measuring surface (M) towards the support plane creating a deformed measuring surface positioned at a tool height; ∘ during said pushing action, setting said tyre in relative rotation with respect to said tool for at least one complete rotation about said rotation axis (X); ∘ measuring a height of said reference circumference during said complete rotation; and ∘ determining whether said tyre has a defect based on said measured height of said reference circumference .
CBD or a composition thereof for use in the prevention and/or treatment of a disease caused by P. aeruginosa bacteria.
A multicast method for a software-defined network, comprising the following steps: creating (S102), by a multicast sending device, a multicast group; managing (S104), by the multicast sending device, a member of the multicast group; and completing (S106), by a multicast routing tree management service module disposed on the multicast sending device or on a software-defined network, SDN controller, planning of a multicast routing tree, and converting the planning of the multicast routing tree into a flow entry modification instruction that can be executed by the SDN controller, so that the SDN controller executes the flow entry modification instruction and instructs an SDN switch by using a southbound application programming interface, API to execute, according to a modified flow entry, a multicast task, wherein the multicast routing tree is a path tree of a data packet that is transmitted from the multicast sending device to the multicast receiving device. creating (S102), by a multicast sending device, a multicast group; managing (S104), by the multicast sending device, a member of the multicast group; and completing (S106), by a multicast routing tree management service module disposed on the multicast sending device or on a software-defined network, SDN controller, planning of a multicast routing tree, and converting the planning of the multicast routing tree into a flow entry modification instruction that can be executed by the SDN controller, so that the SDN controller executes the flow entry modification instruction and instructs an SDN switch by using a southbound application programming interface, API to execute, according to a modified flow entry, a multicast task, wherein the multicast routing tree is a path tree of a data packet that is transmitted from the multicast sending device to the multicast receiving device.
A continuous variable valve opening duration apparatus comprising: a camshaft ; a cam unit comprising a cam , and the camshaft being inserted into the cam ; a guide shaft comprising a guide screw thread and disposed perpendicular to the camshaft ; a guide bracket on which the guide shaft is mounted; an inner wheel configured to transmit rotation of the camshaft to the cam unit ; a wheel housing into which the inner wheel is rotatably inserted and movable perpendicular to the camshaft such that, when a relative position of the wheel housing with respect to the camshaft is changed, a relative rotation speed of the cam with respect to a rotation speed of the camshaft is changed, and the wheel housing being disposed within the guide bracket ; a worm wheel comprising an inner screw thread and an outer screw thread , the inner screw thread being configured to engage with the guide screw thread , and the worm wheel being disposed within the wheel housing ; a control shaft comprising a control worm configured to engage with the outer screw thread ; and a wheel elastic portion configured to apply elastic force to the worm wheel to bring the worm wheel into close contact with the guide shaft and the control shaft . a camshaft ; a cam unit comprising a cam , and the camshaft being inserted into the cam ; a guide shaft comprising a guide screw thread and disposed perpendicular to the camshaft ; a guide bracket on which the guide shaft is mounted; an inner wheel configured to transmit rotation of the camshaft to the cam unit ; a wheel housing into which the inner wheel is rotatably inserted and movable perpendicular to the camshaft such that, when a relative position of the wheel housing with respect to the camshaft is changed, a relative rotation speed of the cam with respect to a rotation speed of the camshaft is changed, and the wheel housing being disposed within the guide bracket ; a worm wheel comprising an inner screw thread and an outer screw thread , the inner screw thread being configured to engage with the guide screw thread , and the worm wheel being disposed within the wheel housing ; a control shaft comprising a control worm configured to engage with the outer screw thread ; and a wheel elastic portion configured to apply elastic force to the worm wheel to bring the worm wheel into close contact with the guide shaft and the control shaft .
A process for preparing partially or fully hydrogenated nitrile rubbers characterized in that a nitrile rubber in water-free solution is subjected to hydrogenation in the presence of at least one catalyst system comprising the components (A) a Ru-NHC-catalyst having the general formula (I) Ru(CO)(H)(X 1 )(L 1 )(L 2 ) (I) wherein X 1 is an anionic ligand, and L 1 and L 2 are identical or different ligands, wherein at least one of L 1 and L 2 represents a N-heterocyclic carbene ligand, and (B) a hydrogenation enhancer selected from the group consisting of CaCl 2 , citric acid, tetrafluoroboric acid diethyl ether (HBF 4 *OEt 2 ), ascorbic acid and trichloro(phenyl)silane or mixtures thereof. (A) a Ru-NHC-catalyst having the general formula (I) Ru(CO)(H)(X 1 )(L 1 )(L 2 ) (I) wherein X 1 is an anionic ligand, and L 1 and L 2 are identical or different ligands, wherein at least one of L 1 and L 2 represents a N-heterocyclic carbene ligand, and X 1 is an anionic ligand, and L 1 and L 2 are identical or different ligands, wherein at least one of L 1 and L 2 represents a N-heterocyclic carbene ligand, and (B) a hydrogenation enhancer selected from the group consisting of CaCl 2 , citric acid, tetrafluoroboric acid diethyl ether (HBF 4 *OEt 2 ), ascorbic acid and trichloro(phenyl)silane or mixtures thereof.
A method for wireless communications by a network entity, comprising: transmitting at least one physical downlink control channel, PDCCH, that schedules or triggers transmission of data, to or from a user equipment, UE, as different copies of a same transport block, TB, within a repetition window; determining whether the UE is configured for repetition based transmission or reception of repetition-based transmission; and taking one or more actions in response to the determination when transmitting the at least one PDCCH, designed to improve reliability of reception by the UE, wherein a single PDCCH schedules multiple copies of the TB and wherein the one or more actions comprise: utilizing an increased control channel element, CCE, limit for at least one of a first transmission time interval, TTI, of the repetition window; and utilizing a CCE limit less than the increased CCE limit for one or more other TTIs in the repetition window wherein the increased CCE limit is determined at least in part based on a capability of the UE. transmitting at least one physical downlink control channel, PDCCH, that schedules or triggers transmission of data, to or from a user equipment, UE, as different copies of a same transport block, TB, within a repetition window; determining whether the UE is configured for repetition based transmission or reception of repetition-based transmission; and taking one or more actions in response to the determination when transmitting the at least one PDCCH, designed to improve reliability of reception by the UE, wherein a single PDCCH schedules multiple copies of the TB and wherein the one or more actions comprise: utilizing an increased control channel element, CCE, limit for at least one of a first transmission time interval, TTI, of the repetition window; and utilizing a CCE limit less than the increased CCE limit for one or more other TTIs in the repetition window wherein the increased CCE limit is determined at least in part based on a capability of the UE. utilizing an increased control channel element, CCE, limit for at least one of a first transmission time interval, TTI, of the repetition window; and utilizing a CCE limit less than the increased CCE limit for one or more other TTIs in the repetition window wherein the increased CCE limit is determined at least in part based on a capability of the UE.
An access and storage system comprising: a storage component configured to store items therein or thereon in an associated storage position; a sensor system configured to track at least one of said user's removal of an item from the associated storage position or replacement of an item to the associated storage position; an identification system for identifying said user; and an authorization database operatively coupled to said identification system for tracking which of said items a particular identified user is authorized to access, characterised in that said access and storage system does not include any physical barrier, between the user and said items , to said items . a storage component configured to store items therein or thereon in an associated storage position; a sensor system configured to track at least one of said user's removal of an item from the associated storage position or replacement of an item to the associated storage position; an identification system for identifying said user; and an authorization database operatively coupled to said identification system for tracking which of said items a particular identified user is authorized to access, characterised in that said access and storage system does not include any physical barrier, between the user and said items , to said items .
A method of a UE (User Equipment), comprising: receiving , from every network node of a cell, a second signal indicating a same first network beam sweeping number associated with the cell, wherein the first network beam sweeping number is to be used by the UE for receiving a first signal from any network node of the cell, wherein there are multiple network nodes in the cell and at least two network nodes of the cell have different beamforming capabilities, and wherein a beamforming capability of a network node of the cell comprises at least a total number of beams, and actual network beam sweeping numbers performed by the multiple network nodes are less than or equal to the first network beam sweeping number, wherein: the first network beam sweeping number is a number of times needed for sweeping beams in all possible directions once for transmission of a signal; and the method further comprises receiving the first signal from any network node of the cell at multiple time intervals, wherein the multiple time intervals are determined based on the received first network beam sweeping number. receiving , from every network node of a cell, a second signal indicating a same first network beam sweeping number associated with the cell, wherein the first network beam sweeping number is to be used by the UE for receiving a first signal from any network node of the cell, wherein there are multiple network nodes in the cell and at least two network nodes of the cell have different beamforming capabilities, and wherein a beamforming capability of a network node of the cell comprises at least a total number of beams, and actual network beam sweeping numbers performed by the multiple network nodes are less than or equal to the first network beam sweeping number, wherein: the first network beam sweeping number is a number of times needed for sweeping beams in all possible directions once for transmission of a signal; and the method further comprises receiving the first signal from any network node of the cell at multiple time intervals, wherein the multiple time intervals are determined based on the received first network beam sweeping number. the first network beam sweeping number is a number of times needed for sweeping beams in all possible directions once for transmission of a signal; and the method further comprises receiving the first signal from any network node of the cell at multiple time intervals, wherein the multiple time intervals are determined based on the received first network beam sweeping number.
An image decoding method implemented by at least one processor comprising: determining (S301) to obtain second transform set information when a sum of squares of non-zero coefficients of a second transform block is equal to or less than a threshold value, wherein the threshold value is set based on quantization parameter of the second transform block; when it is determined to obtain the second transform set information, obtaining (S302) the second transform set information of the current block from a bitstream; selecting (S303) a second transform set applied to the second transform block of the current block from among a plurality of second transform set candidates corresponding to a plurality of prediction modes, by using the determined second transform set information; generating (S304) a first transform block of the current block by inverse-transforming the second transform block of the current block based on a transform matrix included in the selected second transform set; and generating (S305) a residual block corresponding to the first transform block by inverse-transforming the first transform block based on a first transform matrix. determining (S301) to obtain second transform set information when a sum of squares of non-zero coefficients of a second transform block is equal to or less than a threshold value, wherein the threshold value is set based on quantization parameter of the second transform block; when it is determined to obtain the second transform set information, obtaining (S302) the second transform set information of the current block from a bitstream; selecting (S303) a second transform set applied to the second transform block of the current block from among a plurality of second transform set candidates corresponding to a plurality of prediction modes, by using the determined second transform set information; generating (S304) a first transform block of the current block by inverse-transforming the second transform block of the current block based on a transform matrix included in the selected second transform set; and generating (S305) a residual block corresponding to the first transform block by inverse-transforming the first transform block based on a first transform matrix.
A method for evaluating non-optimal roaming 2- performed by a client device in a communication network, the method comprising: detecting a transition of the client device from a first access point to a second access point in the communication network ; evaluating at least one performance parameter corresponding to each of the first access point and the second access point after the client device transitions from the first access point to the second access point, wherein evaluating the at least one performance parameter comprises: verifying that a value of the at least one performance parameter of the first access point is greater than a value of a corresponding performance parameter of the second access point; and confirming availability of the first access point for communication with the client device when the client device is transitioned from the first access point to the second access point ; determining a number of one of flip-flop events and undesirable roam events based on the evaluation of the at least one performance parameter corresponding to each of the first access point and the second access point; identifying the non-optimal roaming of the client device based on one of the number of flip-flop events and the number of the undesirable roam events; and modifying at least one roaming algorithm associated with the client device to achieve optimal roaming of the client device in the communication network . detecting a transition of the client device from a first access point to a second access point in the communication network ; evaluating at least one performance parameter corresponding to each of the first access point and the second access point after the client device transitions from the first access point to the second access point, wherein evaluating the at least one performance parameter comprises: verifying that a value of the at least one performance parameter of the first access point is greater than a value of a corresponding performance parameter of the second access point; and confirming availability of the first access point for communication with the client device when the client device is transitioned from the first access point to the second access point ; verifying that a value of the at least one performance parameter of the first access point is greater than a value of a corresponding performance parameter of the second access point; and confirming availability of the first access point for communication with the client device when the client device is transitioned from the first access point to the second access point ; determining a number of one of flip-flop events and undesirable roam events based on the evaluation of the at least one performance parameter corresponding to each of the first access point and the second access point; identifying the non-optimal roaming of the client device based on one of the number of flip-flop events and the number of the undesirable roam events; and modifying at least one roaming algorithm associated with the client device to achieve optimal roaming of the client device in the communication network .
A method of a master gateway to register a device in a smart home network system, comprising: identifying a type of a device capable of being registered in at least two gateways including the master gateway; selecting performance parameters from a performance parameter list based on the identified type of the device, the performance parameter list including a plurality of performance parameters corresponding to different types of devices, respectively; determining first information for each of the at least two gateways, the first information including a measurement result of the selected performance parameters measured for the device by each of the at least two gateways; determining second information on a total performance for each of the at least two gateways, based on the first information, wherein, the total performance comprises the sum of normalized first information; selecting one gateway of the at least two gateways, having the highest total performance of the at least two gateways, based on the second information; and instructing the one gateway of the at least two gateways to register the device. identifying a type of a device capable of being registered in at least two gateways including the master gateway; selecting performance parameters from a performance parameter list based on the identified type of the device, the performance parameter list including a plurality of performance parameters corresponding to different types of devices, respectively; determining first information for each of the at least two gateways, the first information including a measurement result of the selected performance parameters measured for the device by each of the at least two gateways; determining second information on a total performance for each of the at least two gateways, based on the first information, wherein, the total performance comprises the sum of normalized first information; selecting one gateway of the at least two gateways, having the highest total performance of the at least two gateways, based on the second information; and instructing the one gateway of the at least two gateways to register the device.
A process for handling MEMS wafers comprising the steps of: (i) attaching a first carrier substrate to a first side of a MEMS wafer, the first carrier substrate being attached via a silicone-free peel tape and a first wafer bonding tape , the peel tape contacting the first side of the MEMS wafer; (ii) performing one or more wafer processing steps on an opposite second side of the MEMS wafer; (iii) releasing the first carrier substrate from the first side of the MEMS wafer via exposure to an energy source, the energy source selectively releasing the first wafer bonding tape from the peel tape; and (iv) peeling the peel tape away from the first side of the MEMS wafer. (i) attaching a first carrier substrate to a first side of a MEMS wafer, the first carrier substrate being attached via a silicone-free peel tape and a first wafer bonding tape , the peel tape contacting the first side of the MEMS wafer; (ii) performing one or more wafer processing steps on an opposite second side of the MEMS wafer; (iii) releasing the first carrier substrate from the first side of the MEMS wafer via exposure to an energy source, the energy source selectively releasing the first wafer bonding tape from the peel tape; and (iv) peeling the peel tape away from the first side of the MEMS wafer.