mhurhangee/patent-ind-claim-en huggingface dataset:
A vinyl chloride resin composition comprising: (a) vinyl chloride resin; (b) a diester plasticizer; and (c) a trimellitate plasticizer, wherein (a) the vinyl chloride resin includes (x) a base vinyl chloride resin in an amount of from 70 mass% to 100 mass% and (y) vinyl chloride resin fine particles having an average particle diameter of at least 0.1 μm and no greater than 10 μm as determined by a laser diffraction method in accordance with JIS Z8825 in an amount of from 0 mass% to 30 mass%; characterized in that the diester plasticizer is formed from a compound represented by formula shown below where, in formula , R 1 and R 3 are monovalent hydrocarbon groups having an unsaturated carbon-carbon bond that may be the same or different, and R 2 is a divalent hydrocarbon group. (a) vinyl chloride resin; (b) a diester plasticizer; and (c) a trimellitate plasticizer, wherein (a) the vinyl chloride resin includes (x) a base vinyl chloride resin in an amount of from 70 mass% to 100 mass% and (y) vinyl chloride resin fine particles having an average particle diameter of at least 0.1 μm and no greater than 10 μm as determined by a laser diffraction method in accordance with JIS Z8825 in an amount of from 0 mass% to 30 mass%; characterized in that the diester plasticizer is formed from a compound represented by formula shown below where, in formula , R 1 and R 3 are monovalent hydrocarbon groups having an unsaturated carbon-carbon bond that may be the same or different, and R 2 is a divalent hydrocarbon group.
An anechoic test chamber suitable for testing antennas of such wireless devices under test -DUT- which comprise at least one antenna array having a plurality of spatially distanced or separated multi-input multi-output (MIMO) antennas, the test chamber comprising: a test area having a test surface for receiving the DUT , wherein in a test mode the test surface forms a region of measurement of the DUT , at least one reflector compact antenna test range -CATR- comprising a first measurement antenna and one shaped reflector , wherein the first measurement antenna is arranged inside the test chamber with regard to the shaped reflector such and the shaped reflector is shaped and arranged inside the test chamber such to generate a first quiet zone on the test surface , at least one second measurement antenna , wherein the second measurement antenna is arranged inside the test chamber such to generate a second quiet zone at the test surface such that the second quiet zone is smaller than the first quiet zone and is overlapping the first quiet zone , wherein the second quiet zone is an integral part of the first quiet zone ; an input/output terminal for connecting the test chamber to a test equipment , wherein the input/output terminal is connected to the first and second measurement antennas . a test area having a test surface for receiving the DUT , wherein in a test mode the test surface forms a region of measurement of the DUT , at least one reflector compact antenna test range -CATR- comprising a first measurement antenna and one shaped reflector , wherein the first measurement antenna is arranged inside the test chamber with regard to the shaped reflector such and the shaped reflector is shaped and arranged inside the test chamber such to generate a first quiet zone on the test surface , at least one second measurement antenna , wherein the second measurement antenna is arranged inside the test chamber such to generate a second quiet zone at the test surface such that the second quiet zone is smaller than the first quiet zone and is overlapping the first quiet zone , wherein the second quiet zone is an integral part of the first quiet zone ; an input/output terminal for connecting the test chamber to a test equipment , wherein the input/output terminal is connected to the first and second measurement antennas .
An actuator member comprising a body of composite material having a first major surface and a second major surface , the composite material comprising electroactive polymer particles distributed in a compliant matrix material , and wherein the composite material of the body comprises one or more continuous material paths extending from the first major surface to the second major surface, each encompassing at least one electroactive polymer particle, and wherein all material forming each of the paths has an electrical resistivity equal to or less than an electrical resistivity of the electroactive polymer particles.
A computer-implemented method, comprising: obtaining from a resource device, by one or more processors of an apparatus , a master access token for said resource device ; identifying, by the one or more processors, a user associated with a client device ; determining, by the one or more processors, that the user has been authorized to receive limited access to the resource device; in response to the determination, generating, by the one or more processors, a local access token based on the master access token, the local access token being configured to grant access to the client device for accessing the resource device without requiring the resource device to have network connectivity to validate the local access token; providing, by the one or more processors, the local access token for accessing the resource device to the client device. obtaining from a resource device, by one or more processors of an apparatus , a master access token for said resource device ; identifying, by the one or more processors, a user associated with a client device ; determining, by the one or more processors, that the user has been authorized to receive limited access to the resource device; in response to the determination, generating, by the one or more processors, a local access token based on the master access token, the local access token being configured to grant access to the client device for accessing the resource device without requiring the resource device to have network connectivity to validate the local access token; providing, by the one or more processors, the local access token for accessing the resource device to the client device.
A channel state information CSI sending method, comprising: determining, by a terminal device, a precoding matrix W, wherein W meets a formula W = W 1 × W 2 , W is a matrix with N t rows and L columns, W 1 is a matrix with N t rows and 21 columns, W 2 is a matrix with 21 rows and L columns, N t is a quantity of antenna ports, L is a rank indicated by a rank indicator RI, N t is greater than or equal to L, and I is an integer greater than or equal to 1; and an element at a location in an i th row and an l th column in W 2 is Y i , l , i is an integer greater than or equal to 0 and less than or equal to 2I-1, l is an integer greater than or equal to 0 and less than or equal to L-1, Y i , l meets a formula Y i , l = X i , l 1 × X i , l 2 × X i , l 3 , and X i , l 3 is a complex number with modulus 1; generating, by the terminal device, CSI that comprises the RI, indication information, and a second precoding matrix indicator PMI2, wherein the indication information is used to indicate that W 2 comprises M X i , l 1 whose values are not 0, the PMI2 is used to indicate a parameter of W 2 , and the parameter of W 2 indicated by the PMI2 comprises all X i , l 1 in W 2 and X i , l 2 and X i , l 3 , which are corresponding to X i , l 1 whose values are not 0, in W 2 , and does not comprise X i , l 2 and X i , l 3 , which are corresponding to X i , l 1 other than the M X i , l 1 whose values are not 0, in W 2 ; and sending, by the terminal device, a signal comprising the CSI to a network device. determining, by a terminal device, a precoding matrix W, wherein W meets a formula W = W 1 × W 2 , W is a matrix with N t rows and L columns, W 1 is a matrix with N t rows and 21 columns, W 2 is a matrix with 21 rows and L columns, N t is a quantity of antenna ports, L is a rank indicated by a rank indicator RI, N t is greater than or equal to L, and I is an integer greater than or equal to 1; and an element at a location in an i th row and an l th column in W 2 is Y i , l , i is an integer greater than or equal to 0 and less than or equal to 2I-1, l is an integer greater than or equal to 0 and less than or equal to L-1, Y i , l meets a formula Y i , l = X i , l 1 × X i , l 2 × X i , l 3 , and X i , l 3 is a complex number with modulus 1; generating, by the terminal device, CSI that comprises the RI, indication information, and a second precoding matrix indicator PMI2, wherein the indication information is used to indicate that W 2 comprises M X i , l 1 whose values are not 0, the PMI2 is used to indicate a parameter of W 2 , and the parameter of W 2 indicated by the PMI2 comprises all X i , l 1 in W 2 and X i , l 2 and X i , l 3 , which are corresponding to X i , l 1 whose values are not 0, in W 2 , and does not comprise X i , l 2 and X i , l 3 , which are corresponding to X i , l 1 other than the M X i , l 1 whose values are not 0, in W 2 ; and sending, by the terminal device, a signal comprising the CSI to a network device.
A device for determining the smoking status of a subject, wherein said device comprises a plurality of different specific binding molecules deposited onto a solid phase to detect the presence of two or three tobacco smoke exposure biomarkers in a biological sample, said tobacco smoke exposure biomarkers consisting of: (i) cotinine and total 4-(methylnitrosamino)-1-(3-pyridyl)-1-butanol (NNAL); or (ii) cotinine and N-acetyl-S-[2-carboxyethyl]-L-cysteine (CEMA); or (iii) cotinine and total NNAL and CEMA; wherein said device is capable of distinguishing current smokers of conventional cigarettes from those who have switched to a smoke-free alternative in which tobacco is heated rather than combusted and from those who have abstained from smoking. (i) cotinine and total 4-(methylnitrosamino)-1-(3-pyridyl)-1-butanol (NNAL); or (ii) cotinine and N-acetyl-S-[2-carboxyethyl]-L-cysteine (CEMA); or (iii) cotinine and total NNAL and CEMA;
A wall mount type display device comprising: a main body on which a display is provided; a wire (W) having opposite ends connected to the main body ; and a wall mount assembly which is fixed to a wall and to which the wire (W) is hung to support the main body , characterized in that wherein the wall mount assembly includes a pair of supporting bars which support the wire (W) and extend in a direction closer to each other toward the upper side, a first link rotatably connecting upper end portions of the pair of supporting bars to each other, a long hole formed through each of the supporting bars and extending in a longitudinal direction of each of the supporting bars , a second link located at a height lower than the first link , a protrusion protruding from opposite ends of the second link and inserted into the long hole , and a fixing member fixed to the wall through the protrusion , and wherein the pair of supporting bars slide with respect to the protrusion along the long hole and have a variable inclination. a main body on which a display is provided; a wire (W) having opposite ends connected to the main body ; and a wall mount assembly which is fixed to a wall and to which the wire (W) is hung to support the main body , characterized in that wherein the wall mount assembly includes a pair of supporting bars which support the wire (W) and extend in a direction closer to each other toward the upper side, a first link rotatably connecting upper end portions of the pair of supporting bars to each other, a long hole formed through each of the supporting bars and extending in a longitudinal direction of each of the supporting bars , a second link located at a height lower than the first link , a protrusion protruding from opposite ends of the second link and inserted into the long hole , and a fixing member fixed to the wall through the protrusion , and a pair of supporting bars which support the wire (W) and extend in a direction closer to each other toward the upper side, a first link rotatably connecting upper end portions of the pair of supporting bars to each other, a long hole formed through each of the supporting bars and extending in a longitudinal direction of each of the supporting bars , a second link located at a height lower than the first link , a protrusion protruding from opposite ends of the second link and inserted into the long hole , and a fixing member fixed to the wall through the protrusion , and wherein the pair of supporting bars slide with respect to the protrusion along the long hole and have a variable inclination.
A shuttle valve comprising: a valve body comprising a longitudinal cylindrical bore, a first inlet port , a second inlet port , an outlet port , and a key that protrudes radially inward within the longitudinal cylindrical bore; and a shuttle mounted in the longitudinal cylindrical bore and configured to move axially therein, wherein the shuttle comprises a plurality of radial protrusions that protrude radially outward from, and are circumferentially spaced apart about, a peripheral surface of the shuttle , and wherein the key of the valve body is interposed between a first radial protrusion and a second radial protrusion of the plurality of radial protrusions, such that the key of the valve body interacts with the first radial protrusion to preclude the shuttle from rotating about a longitudinal axis of the shuttle in a first direction by more than a threshold angle, and interacts with the second radial protrusion to preclude the shuttle from rotating about the longitudinal axis of the shuttle in a second direction by more than a respective threshold angle, wherein the shuttle is configured to shift between: (i) a first position adjacent to the first inlet port , wherein at the first position the shuttle blocks the first inlet port while allowing the second inlet port to be fluidly coupled to the outlet port , and (ii) a second position adjacent to the second inlet port , wherein at the second position the shuttle blocks the second inlet port while allowing the first inlet port to be fluidly coupled to the outlet port . a valve body comprising a longitudinal cylindrical bore, a first inlet port , a second inlet port , an outlet port , and a key that protrudes radially inward within the longitudinal cylindrical bore; and a shuttle mounted in the longitudinal cylindrical bore and configured to move axially therein, wherein the shuttle comprises a plurality of radial protrusions that protrude radially outward from, and are circumferentially spaced apart about, a peripheral surface of the shuttle , and wherein the key of the valve body is interposed between a first radial protrusion and a second radial protrusion of the plurality of radial protrusions, such that the key of the valve body interacts with the first radial protrusion to preclude the shuttle from rotating about a longitudinal axis of the shuttle in a first direction by more than a threshold angle, and interacts with the second radial protrusion to preclude the shuttle from rotating about the longitudinal axis of the shuttle in a second direction by more than a respective threshold angle, wherein the shuttle is configured to shift between: (i) a first position adjacent to the first inlet port , wherein at the first position the shuttle blocks the first inlet port while allowing the second inlet port to be fluidly coupled to the outlet port , and (ii) a second position adjacent to the second inlet port , wherein at the second position the shuttle blocks the second inlet port while allowing the first inlet port to be fluidly coupled to the outlet port .
A handover method, comprising: in a process of handing user equipment, UE, over from a source base station to a target base station , sending (S201; S304; S404), by the source base station to a source core network device , a handover required message, wherein the message comprises identification information of a target core network device , and the identification information of the target core network device is used to instruct the source core network device to perform a core network relocation process with the target core network device , wherein the source base station is connected to the source core network device , and the target base station is connected to both the source core network device and the target core network device , characterized in that the method further comprises: sending (S3011), by the source base station , a handover instruction to the UE, wherein the handover instruction carries type information of a target core network. in a process of handing user equipment, UE, over from a source base station to a target base station , sending (S201; S304; S404), by the source base station to a source core network device , a handover required message, wherein the message comprises identification information of a target core network device , and the identification information of the target core network device is used to instruct the source core network device to perform a core network relocation process with the target core network device , wherein the source base station is connected to the source core network device , and the target base station is connected to both the source core network device and the target core network device , characterized in that the method further comprises: sending (S3011), by the source base station , a handover instruction to the UE, wherein the handover instruction carries type information of a target core network.
Configuration circuitry comprising: a decoding circuit configured to receive a base configuration data set defining a base circuit design for a configurable integrated circuit and a compressed first configuration data difference set , wherein the compressed first configuration data difference set includes compressed data differences between the base configuration data set and a first configuration data set defining a first circuit design for the configurable integrated circuit and preserving portions of the base configuration data set , and wherein the decoding circuit comprises: a first circuit configured to receive the compressed first configuration data difference set and to decompress the compressed first configuration data difference set to create a decompressed first configuration data difference set; and a second circuit configured to receive the base configuration data set and the decompressed first configuration data difference set from the first circuit , and configured to perform a bit-wise exclusive OR or exclusive NOR operation between the base configuration data set and the decompressed first configuration data difference set to restore the first configuration data set . a decoding circuit configured to receive a base configuration data set defining a base circuit design for a configurable integrated circuit and a compressed first configuration data difference set , wherein the compressed first configuration data difference set includes compressed data differences between the base configuration data set and a first configuration data set defining a first circuit design for the configurable integrated circuit and preserving portions of the base configuration data set , and wherein the decoding circuit comprises: a first circuit configured to receive the compressed first configuration data difference set and to decompress the compressed first configuration data difference set to create a decompressed first configuration data difference set; and a second circuit configured to receive the base configuration data set and the decompressed first configuration data difference set from the first circuit , and configured to perform a bit-wise exclusive OR or exclusive NOR operation between the base configuration data set and the decompressed first configuration data difference set to restore the first configuration data set . a first circuit configured to receive the compressed first configuration data difference set and to decompress the compressed first configuration data difference set to create a decompressed first configuration data difference set; and a second circuit configured to receive the base configuration data set and the decompressed first configuration data difference set from the first circuit , and configured to perform a bit-wise exclusive OR or exclusive NOR operation between the base configuration data set and the decompressed first configuration data difference set to restore the first configuration data set .
A method of maintaining uplink synchronization of a terminal, comprising: triggering (S501), by the terminal, an uplink alignment timer UAT, and receiving a timing advance command TAC within a duration of the UAT; and losing (S502) uplink synchronization in a case where the terminal does not receive the TAC within the duration of the UAT, characterized in that : the UAT is corresponding to a time advance group TAG, wherein the TAG comprises a time alignment timer TAT and the UAT, and triggering, by the terminal, the UAT comprises: triggering, by the terminal, the UAT when the TAT fails; or, triggering, by the terminal, the UAT when triggering the TAT, and the duration of the UAT is greater than or equal to a duration of the TAT. triggering (S501), by the terminal, an uplink alignment timer UAT, and receiving a timing advance command TAC within a duration of the UAT; and losing (S502) uplink synchronization in a case where the terminal does not receive the TAC within the duration of the UAT, characterized in that : the UAT is corresponding to a time advance group TAG, wherein the TAG comprises a time alignment timer TAT and the UAT, and triggering, by the terminal, the UAT comprises: the UAT is corresponding to a time advance group TAG, wherein the TAG comprises a time alignment timer TAT and the UAT, and triggering, by the terminal, the UAT comprises: triggering, by the terminal, the UAT when the TAT fails; or, triggering, by the terminal, the UAT when triggering the TAT, and the duration of the UAT is greater than or equal to a duration of the TAT.