mhurhangee/patent-ind-claim-en huggingface dataset:
A manual tool for measuring the thickness of a brake disc without removing the wheel of an industrial motor vehicle in order to determine the wear of the disc, said tool including for this purpose at least: - measuring means adapted to contact the opposite surfaces of the disc , said measuring means being provided with a stationary part and a movable part provided to move closer to the stationary part in order to measure the thickness (E), - means for displaying the measurement carried out, and - gripping means , one and/or the other of the movable part and the stationary part including an element for keeping the measuring means perpendicular to the opposite surfaces of the disc without the user having to hold the tool , characterised in that the gripping means comprise a handle and a branch, connecting the handle to the stationary part of the measuring means, the branch having a curved shape in order to allow the insertion of the measuring means into a space defined between the brake disc , the wheel and a bridge disposed opposite the wheel . - measuring means adapted to contact the opposite surfaces of the disc , said measuring means being provided with a stationary part and a movable part provided to move closer to the stationary part in order to measure the thickness (E), - means for displaying the measurement carried out, and - gripping means ,
A Scanning Transmission Charged Particle Microscope (STCPM) comprising a charged particle beam column to produce a plurality of charged particle beams (B1-B4) and irradiate a specimen (S) with each of the plurality of charged particle beams a scanning assembly to produce relative scanning motion of the plurality of charged particle beams with respect to the specimen; and an imaging system to collect charged particles of each of the charged particle beams of the plurality of charged particle beams that traverse the specimen during said irradiation, and to direct each charged particle beam of the plurality of the charged particle beams after traversing the sample onto a detector, wherein each charged particle beam of the plurality of charged particle beams includes a barycenter, and wherein the detector is disposed in an intermediate location (DP) between a back focal plane (BFP) and an imaging plane (IP) of the imaging system, the intermediate location bounded by a coincident location of the plurality of charged particle beams and a location where the barycenter of each charged particle beam is no longer distinguishable, and wherein a position of the barycenter of each charged particle beam is used to construct an integrated differential phase contrast (iDPC) image of the specimen. a charged particle beam column to produce a plurality of charged particle beams (B1-B4) and irradiate a specimen (S) with each of the plurality of charged particle beams a scanning assembly to produce relative scanning motion of the plurality of charged particle beams with respect to the specimen; and an imaging system to collect charged particles of each of the charged particle beams of the plurality of charged particle beams that traverse the specimen during said irradiation, and to direct each charged particle beam of the plurality of the charged particle beams after traversing the sample onto a detector, wherein each charged particle beam of the plurality of charged particle beams includes a barycenter, and wherein the detector is disposed in an intermediate location (DP) between a back focal plane (BFP) and an imaging plane (IP) of the imaging system, the intermediate location bounded by a coincident location of the plurality of charged particle beams and a location where the barycenter of each charged particle beam is no longer distinguishable, and wherein a position of the barycenter of each charged particle beam is used to construct an integrated differential phase contrast (iDPC) image of the specimen. wherein each charged particle beam of the plurality of charged particle beams includes a barycenter, and wherein the detector is disposed in an intermediate location (DP) between a back focal plane (BFP) and an imaging plane (IP) of the imaging system, the intermediate location bounded by a coincident location of the plurality of charged particle beams and a location where the barycenter of each charged particle beam is no longer distinguishable, and wherein a position of the barycenter of each charged particle beam is used to construct an integrated differential phase contrast (iDPC) image of the specimen.
Method for setting values of a plurality of parameters (P1, P2, ... Pn) of at least one controller of an electric drive system , comprising the steps of: - providing an individual replacement parameter value (PE) able to be set by a user, and - after setting the replacement parameter value (PE), calculating the values of the plurality of parameters (P1, P2, ... Pn) from the set replacement parameter value (PE), - wherein the electric drive system has a position controller and a rate of rotation controller , wherein the plurality of parameters (P1, P2, ... Pn) are parameters of the position controller and parameters of the rate of rotation controller , and - wherein a user interface is generated in order to set the values of the plurality of parameters (P1, P2, ... Pn), - wherein the user interface has a first setting mode, in which only the replacement parameter value (PE) is able to be set, characterized in that - the user interface has a second setting mode, in which data relating to at least one control circuit to which the at least one controller is assigned are able to be input, wherein the values of the plurality of parameters (P1, P2, ... Pn) are calculated from the input data relating to the at least one control circuit in the second setting mode. - providing an individual replacement parameter value (PE) able to be set by a user, and - after setting the replacement parameter value (PE), calculating the values of the plurality of parameters (P1, P2, ... Pn) from the set replacement parameter value (PE), - wherein the electric drive system has a position controller and a rate of rotation controller , wherein the plurality of parameters (P1, P2, ... Pn) are parameters of the position controller and parameters of the rate of rotation controller , and - wherein a user interface is generated in order to set the values of the plurality of parameters (P1, P2, ... Pn), - wherein the user interface has a first setting mode, in which only the replacement parameter value (PE) is able to be set, - the user interface has a second setting mode, in which data relating to at least one control circuit to which the at least one controller is assigned are able to be input, wherein the values of the plurality of parameters (P1, P2, ... Pn) are calculated from the input data relating to the at least one control circuit in the second setting mode.
A vehicle communication system comprising: a communication management unit, CMU , at least in part configured to route first type messages using a first type message communication; and a data gateway configured to communicate second type messages to a remote location , the CMU configured to route at least some of the first type messages to the data gateway , the data gateway configured to communicate pseudo acknowledgment for each message block of each first type message routed to the data gateway back to the CMU indicating the message block was received by a designated remote location , the data gateway further configured to convert each received first type message into the second type message and communicate each second type message to the designated remote location using a second type of message communication, wherein the communication management unit is configured to sort the downlink messages to the at least one remote ground end system in at least two different categories, and wherein the vehicle communication system is configured to communicate at least first type messages of a first category though a first communication path and first type messages of a second category through a second communication path, the second communication path being via the data gateway . a communication management unit, CMU , at least in part configured to route first type messages using a first type message communication; and a data gateway configured to communicate second type messages to a remote location , the CMU configured to route at least some of the first type messages to the data gateway , the data gateway configured to communicate pseudo acknowledgment for each message block of each first type message routed to the data gateway back to the CMU indicating the message block was received by a designated remote location , the data gateway further configured to convert each received first type message into the second type message and communicate each second type message to the designated remote location using a second type of message communication, wherein the communication management unit is configured to sort the downlink messages to the at least one remote ground end system in at least two different categories, and wherein the vehicle communication system is configured to communicate at least first type messages of a first category though a first communication path and first type messages of a second category through a second communication path, the second communication path being via the data gateway .
A method of receiving, by a terminal , a physical downlink shared channel, PDSCH, in a wireless communication system, the method comprising: transmitting (S1905), to a base station , capability information representing whether the terminal supports demodulation reference signal, DMRS, sharing in subslots over a plurality of consecutive subframes for the PDSCH; receiving (S1910), from the base station , downlink control information, DCI, for scheduling the PDSCH, wherein the DCI represents whether a DMRS for the PDSCH is located in a first subslot; and determining (S1915), based on (i) the capability information representing that the terminal does not support DMRS sharing in subslots over the plurality of consecutive subframes for the PDSCH, and (ii) the DCI representing an absence of the DMRS for the PDSCH in the first subslot, that the PDSCH is not to be received in the first subslot. transmitting (S1905), to a base station , capability information representing whether the terminal supports demodulation reference signal, DMRS, sharing in subslots over a plurality of consecutive subframes for the PDSCH; receiving (S1910), from the base station , downlink control information, DCI, for scheduling the PDSCH, wherein the DCI represents whether a DMRS for the PDSCH is located in a first subslot; and determining (S1915), based on (i) the capability information representing that the terminal does not support DMRS sharing in subslots over the plurality of consecutive subframes for the PDSCH, and (ii) the DCI representing an absence of the DMRS for the PDSCH in the first subslot, that the PDSCH is not to be received in the first subslot.
An adhesion device that defines a decompression space to be decompressed between a wall surface and the adhesion device , and adheres to the wall surface, comprising: a base disposed facing the wall surface at a distance from the wall surface and connected to a decompression device that depressurizes the decompression space created between the base and the wall surface; a first partition disposed on a fringe of the base , wherein the first partition forms the base side portion of the peripheral wall of the decompression space with an elastic member; a second partition disposed on the wall surface side of the first partition, wherein the wall surface side portion of the peripheral wall of the decompression space is formed by an elastic member so that the wall surface side end of the second partition contacts the wall surface; and a first restricting member formed in a frame shape corresponding to that of the second partition by a member having a higher rigidity than that of the second partition , wherein the first restricting member is disposed on the base side end of the second partition so as to encircle the peripheral wall of the decompression space; characterized in that the second partition is formed by a sheet of elastic member to define an internal space that surrounds the decompression space. a base disposed facing the wall surface at a distance from the wall surface and connected to a decompression device that depressurizes the decompression space created between the base and the wall surface; a first partition disposed on a fringe of the base , wherein the first partition forms the base side portion of the peripheral wall of the decompression space with an elastic member; a second partition disposed on the wall surface side of the first partition, wherein the wall surface side portion of the peripheral wall of the decompression space is formed by an elastic member so that the wall surface side end of the second partition contacts the wall surface; and a first restricting member formed in a frame shape corresponding to that of the second partition by a member having a higher rigidity than that of the second partition , wherein the first restricting member is disposed on the base side end of the second partition so as to encircle the peripheral wall of the decompression space; characterized in that the second partition is formed by a sheet of elastic member to define an internal space that surrounds the decompression space.
A method of an access and mobility management function, AMF, in a communication system, the method comprising: receiving (4b-8, 4b-10), from a terminal via a base station, a registration request message based on a mobility of the terminal from a first registration area to a second registration area, wherein the registration request message includes a requested Network Slice Selection Assistance Information - NSSAI -; transmitting (4b-11), to an old AMF, a message for requesting information on the terminal; receiving (4b-12a), from the old AMF, a response message for the message including allowed network slice selection assistance information, NSSAI, wherein the allowed NSSAI includes at least one single-NSSAI, S-NSSAI, for the first registration area; and transmitting (4b-13, 4b-14), to the terminal via the base station, a registration acceptance message including new allowed NSSAI, wherein the new allowed NSSAI includes at least one S-NSSAI for the second registration area, and wherein the new allowed NSSAI is determined based on the allowed NSSAI, the requested NSSAI, and subscription information of the terminal. receiving (4b-8, 4b-10), from a terminal via a base station, a registration request message based on a mobility of the terminal from a first registration area to a second registration area, wherein the registration request message includes a requested Network Slice Selection Assistance Information - NSSAI -; transmitting (4b-11), to an old AMF, a message for requesting information on the terminal; receiving (4b-12a), from the old AMF, a response message for the message including allowed network slice selection assistance information, NSSAI, wherein the allowed NSSAI includes at least one single-NSSAI, S-NSSAI, for the first registration area; and transmitting (4b-13, 4b-14), to the terminal via the base station, a registration acceptance message including new allowed NSSAI, wherein the new allowed NSSAI includes at least one S-NSSAI for the second registration area, and wherein the new allowed NSSAI is determined based on the allowed NSSAI, the requested NSSAI, and subscription information of the terminal.
Apparatus comprising: a combustion chamber wall enclosing a combustion chamber; and a heat exchanger integral with at least a portion of said combustion chamber wall; wherein the heat exchanger and the combustion chamber wall are formed together as one entity from a single body of material; wherein said heat exchanger transfers heat from a hot gas to a cold gas and comprises a plurality of hot gas conduits to direct hot gas along respective hot gas paths, and a plurality of cold gas conduits to direct cold gas along respective cold gas paths, wherein a portion of said combustion chamber wall is porous and said cold gas passes from at least some of said cold gas conduits into said combustion chamber through porous openings in said combustion chamber wall; and wherein one or more of: (i) at least some of said cold gas conduits directly connect to respective inlet openings in said combustion chamber wall; (ii) at least some of said cold gas conduits directly connect to one or more cold gas plenums abutting said combustion chamber wall and plenum-inlet openings provide flow paths for said cold gas between respective ones of said one or more cold gas plenums and said combustion chamber. a combustion chamber wall enclosing a combustion chamber; and a heat exchanger integral with at least a portion of said combustion chamber wall; wherein the heat exchanger and the combustion chamber wall are formed together as one entity from a single body of material; wherein said heat exchanger transfers heat from a hot gas to a cold gas and comprises a plurality of hot gas conduits to direct hot gas along respective hot gas paths, and a plurality of cold gas conduits to direct cold gas along respective cold gas paths, wherein a portion of said combustion chamber wall is porous and said cold gas passes from at least some of said cold gas conduits into said combustion chamber through porous openings in said combustion chamber wall; and wherein one or more of: (i) at least some of said cold gas conduits directly connect to respective inlet openings in said combustion chamber wall; (ii) at least some of said cold gas conduits directly connect to one or more cold gas plenums abutting said combustion chamber wall and plenum-inlet openings provide flow paths for said cold gas between respective ones of said one or more cold gas plenums and said combustion chamber. (i) at least some of said cold gas conduits directly connect to respective inlet openings in said combustion chamber wall; (ii) at least some of said cold gas conduits directly connect to one or more cold gas plenums abutting said combustion chamber wall and plenum-inlet openings provide flow paths for said cold gas between respective ones of said one or more cold gas plenums and said combustion chamber.
A locomotion system for use with a robotic device , said locomotion system comprising: a first array of micropillars ; a second array of micropillars ; a plurality of control circuits , wherein one control circuit of said plurality of control circuits is associated with each of said micropillars of said arrays; and a controller operatively coupled to each of said control circuits , said controller configured to selectively activate said micropillars in a sequence that causes the robotic device to move in a predetermined direction; wherein each control circuit is coupled to a plurality of conductive lines arranged in a selection matrix , wherein voltages and grounds are selectively applied across the plurality of conductive lines to activate said micropillars . a first array of micropillars ; a second array of micropillars ; a plurality of control circuits , wherein one control circuit of said plurality of control circuits is associated with each of said micropillars of said arrays; and a controller operatively coupled to each of said control circuits , said controller configured to selectively activate said micropillars in a sequence that causes the robotic device to move in a predetermined direction; wherein each control circuit is coupled to a plurality of conductive lines arranged in a selection matrix , wherein voltages and grounds are selectively applied across the plurality of conductive lines to activate said micropillars .
A method performed by a home base station gateway, HNB-GW, device that controls service to a plurality of home base stations and that controls handover of a user equipment, UE, between those base stations , the method comprising: receiving, from each of a plurality of different home base stations involved in an intra-HNB-GW handover, a respective data volume report reporting a number of downlink data packets unsuccessfully transmitted to a UE by that home base station ; accumulating the data volume reports from the different home base stations involved in the intra-HNB-GW handover; and reporting a final value for the number of unsuccessfully transmitted data packets, from the accumulated data volume reports, to a core network node when a connection for the UE is released. receiving, from each of a plurality of different home base stations involved in an intra-HNB-GW handover, a respective data volume report reporting a number of downlink data packets unsuccessfully transmitted to a UE by that home base station ; accumulating the data volume reports from the different home base stations involved in the intra-HNB-GW handover; and reporting a final value for the number of unsuccessfully transmitted data packets, from the accumulated data volume reports, to a core network node when a connection for the UE is released.
A compound of formula (I), wherein X 1 is CH and X 2 is N; R 1 is -N(R 4 ) 2 , cyclopropyl, or R 5 -piperidin-4-yl; R 2 is independently D or halogen; R 3 is naphthyl, quinolinyl, isoquinolinyl, or indolyl, wherein said naphthyl, quinolinyl, isoquinolinyl or indolyl is optionally independently substituted with at least one D, halogen, (C 1 -C 3 )-alkoxy, or (C 1 -C 3 )-alkoxy substituted with at least one D; R 4 is independently H, (C 1 -C 3 )-alkyl, (C 1 -C 3 )-alkyl substituted with at least one D, (C 3 -C 5 )-cycloalkyl, or each R 4 together with the nitrogen to which they are attached form a 3-7 membered heterocyclic ring, wherein one of the carbon atoms is optionally replaced with NR 6 , O or S; R 5 is H or (C 1 -C 3 )-alkyl, or (C 1 -C 3 )-alkyl substituted with at least one D; R 6 is H, (C 1 -C 3 )-alkyl, or (C 1 -C 3 )-alkyl substituted with at least one D; and n is an integer from 0-4; or a pharmaceutically acceptable salt thereof, wherein when R 3 is indol-4-yl and n is 0, R 1 is not N-methyl-piperazinyl. X 1 is CH and X 2 is N; R 1 is -N(R 4 ) 2 , cyclopropyl, or R 5 -piperidin-4-yl; R 2 is independently D or halogen; R 3 is naphthyl, quinolinyl, isoquinolinyl, or indolyl, wherein said naphthyl, quinolinyl, isoquinolinyl or indolyl is optionally independently substituted with at least one D, halogen, (C 1 -C 3 )-alkoxy, or (C 1 -C 3 )-alkoxy substituted with at least one D; R 4 is independently H, (C 1 -C 3 )-alkyl, (C 1 -C 3 )-alkyl substituted with at least one D, (C 3 -C 5 )-cycloalkyl, or each R 4 together with the nitrogen to which they are attached form a 3-7 membered heterocyclic ring, wherein one of the carbon atoms is optionally replaced with NR 6 , O or S; R 5 is H or (C 1 -C 3 )-alkyl, or (C 1 -C 3 )-alkyl substituted with at least one D; R 6 is H, (C 1 -C 3 )-alkyl, or (C 1 -C 3 )-alkyl substituted with at least one D; and n is an integer from 0-4; or a pharmaceutically acceptable salt thereof, wherein when R 3 is indol-4-yl and n is 0, R 1 is not N-methyl-piperazinyl.