mhurhangee/patent-ind-claim-en huggingface dataset:
An information presentation assist device for a straddled vehicle , the information presentation assist device for a straddled vehicle comprising: an effective presentation element information acquisition section configured to acquire pieces of effective presentation element information related to two or more information presentation elements that are provided in the straddled vehicle or in an accessory belonging to a rider of the straddled vehicle and that are in an available state; a classification information acquisition section configured to acquire pieces of classification information (C) related to types of output information (O); characterized by a selection section that is configured to, in a case of presenting the two or more pieces of output information (O) in a temporally overlapping manner, select at least one information presentation element that is to present each of the two or more pieces of output information (O) from the two or more information presentation elements that are in the available state, the selection being made at least based on a relationship among the two or more pieces of classification information (C) corresponding to the two or more pieces of output information (O); and a presentation command output section configured to output a presentation command for causing each of the two or more pieces of output information (O) to be presented via the information presentation element selected by the selection section . an effective presentation element information acquisition section configured to acquire pieces of effective presentation element information related to two or more information presentation elements that are provided in the straddled vehicle or in an accessory belonging to a rider of the straddled vehicle and that are in an available state; a classification information acquisition section configured to acquire pieces of classification information (C) related to types of output information (O); characterized by a selection section that is configured to, in a case of presenting the two or more pieces of output information (O) in a temporally overlapping manner, select at least one information presentation element that is to present each of the two or more pieces of output information (O) from the two or more information presentation elements that are in the available state, the selection being made at least based on a relationship among the two or more pieces of classification information (C) corresponding to the two or more pieces of output information (O); and a presentation command output section configured to output a presentation command for causing each of the two or more pieces of output information (O) to be presented via the information presentation element selected by the selection section .
A telematics verification system for the testing of a vehicle telematics system, the telematics verification system comprising: a conductive ground plate adapted to be disposed under a vehicle when testing the vehicle telematics system using the telematics verification system; a conductive cover adapted to be disposed over and around an exterior surface of the vehicle and an antenna of the vehicle when testing the vehicle telematics system using the telematics verification system; a downlink antenna adapted to be arranged inside the conductive cover , wherein the downlink antenna is configured to wirelessly transmit a downlink signal inside the conductive cover , wherein the downlink signal is wirelessly receivable by the antenna of the vehicle; and an uplink antenna adapted to be arranged inside the conductive cover, wherein the uplink antenna is configured to wirelessly receive an uplink signal inside the conductive cover, wherein the uplink signal is wirelessly receivable from the antenna of the vehicle, wherein, the conductive cover is manufactured as a flexible textile or planar structure that includes a conductive metallic layer or is impregnated with a conductive metallic material, such that the conductive cover conforms to the exterior surface of the vehicle and one or more of the antenna of the vehicle, the downlink antenna, the uplink antenna, and a support structure coupled to one or more of the uplink antenna and the downlink antenna. a conductive ground plate adapted to be disposed under a vehicle when testing the vehicle telematics system using the telematics verification system; a conductive cover adapted to be disposed over and around an exterior surface of the vehicle and an antenna of the vehicle when testing the vehicle telematics system using the telematics verification system; a downlink antenna adapted to be arranged inside the conductive cover , wherein the downlink antenna is configured to wirelessly transmit a downlink signal inside the conductive cover , wherein the downlink signal is wirelessly receivable by the antenna of the vehicle; and an uplink antenna adapted to be arranged inside the conductive cover, wherein the uplink antenna is configured to wirelessly receive an uplink signal inside the conductive cover, wherein the uplink signal is wirelessly receivable from the antenna of the vehicle, wherein, the conductive cover is manufactured as a flexible textile or planar structure that includes a conductive metallic layer or is impregnated with a conductive metallic material, such that the conductive cover conforms to the exterior surface of the vehicle and one or more of the antenna of the vehicle, the downlink antenna, the uplink antenna, and a support structure coupled to one or more of the uplink antenna and the downlink antenna.
A method of receiving resources at a user equipment (UE), the method comprising: receiving information comprising a medium occupation and a resource block group, RBG, size from a gNB, wherein the RGB size is based on medium occupancy; reducing resource allocation, RA, overhead by: receiving a starting physical resource block, PRB, RBG, or interlace along with a total number of PRBs, RBGs, or interlaces to be used for transmission or reception; spanning a number of said RBs, RBGs, or interlaces across multiple channels including unoccupied channels and guard bands; and automatically skipping PRBs, RBGs, or interlaces in the guard band and in unoccupied channels to obtain the total number of PRBs, RBGs, or interlaces from usable RBs for transmission or reception. receiving information comprising a medium occupation and a resource block group, RBG, size from a gNB, wherein the RGB size is based on medium occupancy; reducing resource allocation, RA, overhead by: receiving a starting physical resource block, PRB, RBG, or interlace along with a total number of PRBs, RBGs, or interlaces to be used for transmission or reception; spanning a number of said RBs, RBGs, or interlaces across multiple channels including unoccupied channels and guard bands; and automatically skipping PRBs, RBGs, or interlaces in the guard band and in unoccupied channels to obtain the total number of PRBs, RBGs, or interlaces from usable RBs for transmission or reception. receiving a starting physical resource block, PRB, RBG, or interlace along with a total number of PRBs, RBGs, or interlaces to be used for transmission or reception; spanning a number of said RBs, RBGs, or interlaces across multiple channels including unoccupied channels and guard bands; and automatically skipping PRBs, RBGs, or interlaces in the guard band and in unoccupied channels to obtain the total number of PRBs, RBGs, or interlaces from usable RBs for transmission or reception.
A coating station comprising: a coating vessel including: a receiving chamber defined by a wall and configured for receiving a substrate ; a fluid inlet positioned below the receiving chamber ; and a vessel valve positioned below the receiving chamber ; a vessel cover configured for a fluid-tight engagement with the coating vessel ; a fill sensor ; a supply pump configured to deliver a coating solution to the fluid inlet ; a return pump configured to receive the coating solution from the vessel valve ; and an optional vacuum pump ; wherein the following conditions are met: the receiving chamber is configured so that the coating solution passes through the substrate with substantially none of the coating solution passing between the substrate and the wall of the receiving chamber ; the fluid inlet is positioned above the vessel valve ; and the fill sensor is positioned in the vessel cover . a receiving chamber defined by a wall and configured for receiving a substrate ; a fluid inlet positioned below the receiving chamber ; and a vessel valve positioned below the receiving chamber ; a vessel cover configured for a fluid-tight engagement with the coating vessel ; a fill sensor ; a supply pump configured to deliver a coating solution to the fluid inlet ; a return pump configured to receive the coating solution from the vessel valve ; and an optional vacuum pump ; the receiving chamber is configured so that the coating solution passes through the substrate with substantially none of the coating solution passing between the substrate and the wall of the receiving chamber ; the fluid inlet is positioned above the vessel valve ; and the fill sensor is positioned in the vessel cover .
A propulsion system for an aircraft , the propulsion system comprising a gas turbine engine including an engine core defining a central axis and a fan coupled to the engine core , the fan configured to discharge pressurized bypass air that is passed around the engine core through a fan duct that extends along the central axis coaxially with the engine core ; and a nacelle mounted to the gas turbine engine , the nacelle including an outer shroud that surrounds at least a portion of the engine core defining a portion of the fan duct and a strut that extends away from the engine core through the fan duct to the outer shroud ; and a heat exchanger assembly fluidly coupled to the gas turbine engine to cool fluid or gas from the gas turbine engine and return the cooled fluid or gas to the gas turbine engine , the heat exchanger assembly including an inlet duct having at least a portion positioned in the strut , a heat exchanger housing coupled fluidly to the inlet duct , heat exchangers housed by the heat exchanger housing , and a valve system that is movable in the heat exchanger housing from a first position arranged to direct pressurized bypass air received from the inlet duct into contact with the heat exchangers to a second position arranged to divert pressurized bypass air received from the inlet duct around the heat exchangers without contacting the heat exchangers ; characterised in that the heat exchanger housing is positioned radially inward of the strut relative to the central axis . a gas turbine engine including an engine core defining a central axis and a fan coupled to the engine core , the fan configured to discharge pressurized bypass air that is passed around the engine core through a fan duct that extends along the central axis coaxially with the engine core ; and a nacelle mounted to the gas turbine engine , the nacelle including an outer shroud that surrounds at least a portion of the engine core defining a portion of the fan duct and a strut that extends away from the engine core through the fan duct to the outer shroud ; and a heat exchanger assembly fluidly coupled to the gas turbine engine to cool fluid or gas from the gas turbine engine and return the cooled fluid or gas to the gas turbine engine , the heat exchanger assembly including an inlet duct having at least a portion positioned in the strut , a heat exchanger housing coupled fluidly to the inlet duct , heat exchangers housed by the heat exchanger housing , and a valve system that is movable in the heat exchanger housing from a first position arranged to direct pressurized bypass air received from the inlet duct into contact with the heat exchangers to a second position arranged to divert pressurized bypass air received from the inlet duct around the heat exchangers without contacting the heat exchangers ; characterised in that the heat exchanger housing is positioned radially inward of the strut relative to the central axis .
A blockchain-based node management method, wherein a node identity table is stored in a distributed database of a blockchain, and is used to record a certificate of a new blockchain node and a unique identifier that is of the new blockchain node and that corresponds to the certificate, and the method comprises the following: receiving , by an existing node of the blockchain having a node identity table management permission in the blockchain and from the new blockchain node, via an out-of-chain communication, a target transaction, wherein the target transaction comprises the certificate of the new blockchain node and the unique identifier of the new blockchain node; propagating, by the existing node of the blockchain having the node identity table management permission in the blockchain, the target transaction in the blockchain; and verifying the target transaction, so that after the target transaction passes consensus verification of the blockchain, the node identity table comprising the unique identifier and the certificate of the new blockchain node is correspondingly recorded to the distributed database of the blockchain. receiving , by an existing node of the blockchain having a node identity table management permission in the blockchain and from the new blockchain node, via an out-of-chain communication, a target transaction, wherein the target transaction comprises the certificate of the new blockchain node and the unique identifier of the new blockchain node; propagating, by the existing node of the blockchain having the node identity table management permission in the blockchain, the target transaction in the blockchain; and verifying the target transaction, so that after the target transaction passes consensus verification of the blockchain, the node identity table comprising the unique identifier and the certificate of the new blockchain node is correspondingly recorded to the distributed database of the blockchain.
Aerosol-generating article comprising a casing and a plurality of aerosol-generating particles arranged in the casing, wherein the aerosol-generating particles of the plurality of aerosol-generating particles comprise a core of susceptor material, which core of susceptor material is coated with aerosol-forming substrate, wherein the plurality of particles form at least one aerosol-generating pellet.
A resin composition containing 0.4 to 10.0 parts by mass of (B) ester compound, per 100 parts by mass of (A) polycarbonate resin, the (A) polycarbonate resin containing 50 to 100 mol%, relative to the total structural units, of a structural unit represented by formula below, the (B) ester compound being composed of an alcohol and a carboxylic acid, and a specimen having a thickness of 2 mm and formed from the resin composition having a haze of 5.0% or smaller, measured as indicated in the description, and a dynamic friction coefficient of 0.35 or smaller when measured under a load of 30 N according to ISO 19252; wherein each R 1 represents a methyl group, each R 2 represents a hydrogen atom or a methyl group, X 1 represents either one of structures below: wherein each of R 3 and R 4 independently represents a hydrogen atom or a methyl group, and Z represents a group that combines with C to form an optionally substituted alicyclic hydrocarbon group having 6 to 12 carbon atoms. the (A) polycarbonate resin containing 50 to 100 mol%, relative to the total structural units, of a structural unit represented by formula below, the (B) ester compound being composed of an alcohol and a carboxylic acid, and a specimen having a thickness of 2 mm and formed from the resin composition having a haze of 5.0% or smaller, measured as indicated in the description, and a dynamic friction coefficient of 0.35 or smaller when measured under a load of 30 N according to ISO 19252; wherein each R 1 represents a methyl group, each R 2 represents a hydrogen atom or a methyl group, X 1 represents either one of structures below: wherein each of R 3 and R 4 independently represents a hydrogen atom or a methyl group, and Z represents a group that combines with C to form an optionally substituted alicyclic hydrocarbon group having 6 to 12 carbon atoms.
An ion guide for guiding an ion beam along an ion path, said ion guide having a longitudinal axis corresponding to said ion path, wherein said ion guide comprises a plurality of electrode plates which are arranged perpendicularly to the longitudinal axis , each electrode plate having an opening and being arranged such that said longitudinal axis extends through its respective opening, wherein said openings collectively define an ion guide volume , wherein in operation, said electrode plates are to be connected to an RF driving source for driving adjacent two electrode plates with voltage of opposite polarity, wherein the ion guide extends or is configured to extend through a separation wall separating adjacent first and second pumping chambers , wherein said ion guide has a first portion , in which gaps are formed between at least some of said electrode plates such that uncharged gas can escape from said ion guide volume , wherein said first portion is completely located in said first pumping chamber , wherein in said first portion , the diameters of the openings in at least a subset of consecutive electrode plates decrease in a downstream direction of the ion guide , to thereby form a funnel structure, and a second portion , in which sealing elements are arranged between adjacent electrode plates , preventing neutral gas from escaping from that portion of the ion guide volume between adjacent electrode plates , said second portion extending at least from said separation wall into said second pumping chamber . wherein said ion guide comprises a plurality of electrode plates which are arranged perpendicularly to the longitudinal axis , each electrode plate having an opening and being arranged such that said longitudinal axis extends through its respective opening, wherein said openings collectively define an ion guide volume , wherein in operation, said electrode plates are to be connected to an RF driving source for driving adjacent two electrode plates with voltage of opposite polarity, wherein the ion guide extends or is configured to extend through a separation wall separating adjacent first and second pumping chambers , wherein said ion guide has a first portion , in which gaps are formed between at least some of said electrode plates such that uncharged gas can escape from said ion guide volume , wherein said first portion is completely located in said first pumping chamber , wherein in said first portion , the diameters of the openings in at least a subset of consecutive electrode plates decrease in a downstream direction of the ion guide , to thereby form a funnel structure, and a second portion , in which sealing elements are arranged between adjacent electrode plates , preventing neutral gas from escaping from that portion of the ion guide volume between adjacent electrode plates , said second portion extending at least from said separation wall into said second pumping chamber .
A powder composition comprising (A) reduced coenzyme Q 10 , (B) starch octenylsuccinate or a salt thereof, and (C) gum arabic.
A low gloss ASA-based resin composition comprising: (a) 10wt% to 40wt% of an ASA graft copolymer comprising a large diameter acrylic rubber with an average particle diameter of 300 to 500nm as a core; (b) 1wt% to 20wt% of an ASA graft copolymer comprising an extra-large diameter acrylic-based rubber with an average particle diameter of 0.5μm to 1.5μm as a core; (c) 20wt% to 60wt% of an SAN copolymer; (d) 10wt% to 40wt% of a heat-resistant SAN copolymer; (e) 1wt% to 10wt% of a crosslinked aromatic vinyl compound-cyanide vinyl compound copolymer; and (f) 0.1wt% to 5wt% of an amorphous inorganic material. (a) 10wt% to 40wt% of an ASA graft copolymer comprising a large diameter acrylic rubber with an average particle diameter of 300 to 500nm as a core; (b) 1wt% to 20wt% of an ASA graft copolymer comprising an extra-large diameter acrylic-based rubber with an average particle diameter of 0.5μm to 1.5μm as a core; (c) 20wt% to 60wt% of an SAN copolymer; (d) 10wt% to 40wt% of a heat-resistant SAN copolymer; (e) 1wt% to 10wt% of a crosslinked aromatic vinyl compound-cyanide vinyl compound copolymer; and (f) 0.1wt% to 5wt% of an amorphous inorganic material.
An immunogenic composition consisting of recombinant baculovirus expressed PCV2 subtype b (PCV2b) ORF2 protein, which comprises or consists of a sequence that is at least 98% identical to the sequence of SEQ ID NO:1 over the whole length of SEQ ID NO:1, and one or more veterinary-acceptable carriers for use in a method for the prevention of an infection with PCV2, the reduction or prevention of clinical signs caused by an infection with PCV2, or the prevention of a disease caused by an infection with PCV2, wherein the infection with PCV2 is an infection with PCV2b and PCV2 subtype a (PCV2a), wherein said infection with PCV2b is an infection with a PCV2 comprising a polypeptide that is at least 98% identical to the sequence of SEQ ID NO:1 over the whole length of SEQ ID NO:1 or comprising a polynucleotide which comprises a sequence encoding a polypeptide that is at least 98% identical to the sequence of SEQ ID NO:1 over the whole length of SEQ ID NO:1, and wherein said immunogenic composition is to be administered only once. wherein the infection with PCV2 is an infection with PCV2b and PCV2 subtype a (PCV2a), wherein said infection with PCV2b is an infection with a PCV2 comprising a polypeptide that is at least 98% identical to the sequence of SEQ ID NO:1 over the whole length of SEQ ID NO:1 or comprising a polynucleotide which comprises a sequence encoding a polypeptide that is at least 98% identical to the sequence of SEQ ID NO:1 over the whole length of SEQ ID NO:1, and wherein said immunogenic composition is to be administered only once.
Charging plug for an electric automobile, - the charging plug comprising a plug head , an insulation body and contact pins , - the plug head and the insulation body being releasably connected in such a way that the insulation body can be exchanged, - the contact pins comprising signal contact pins , a protective earth pin and power contact pins , - the plug head having a housing with a front plate ,having cables , having contact pin receptacles and having a contact shell , characterized in that - the power contact pins and the front plate are releasably connected in such a way that the power contact pins can be exchanged, - the cables and the contact pin receptacles are in non-releasable connection. , - the contact pin receptacles and the contact pins are in releasable connection , - the contact pin receptacles comprise signal contact pin receptacles and power contact pin receptacles , - the contact shell bears the power contact pin receptacles , and - the signal contact pins are inserted into the insulation body at an end side. - the charging plug comprising a plug head , an insulation body and contact pins , - the plug head and the insulation body being releasably connected in such a way that the insulation body can be exchanged, - the contact pins comprising signal contact pins , a protective earth pin and power contact pins , - the plug head having a housing with a front plate ,having cables , having contact pin receptacles and having a contact shell , - the power contact pins and the front plate are releasably connected in such a way that the power contact pins can be exchanged, - the cables and the contact pin receptacles are in non-releasable connection. , - the contact pin receptacles and the contact pins are in releasable connection , - the contact pin receptacles comprise signal contact pin receptacles and power contact pin receptacles , - the contact shell bears the power contact pin receptacles , and - the signal contact pins are inserted into the insulation body at an end side.