mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE , comprising: a processor ; and memory in electronic communication with the processor , wherein instructions stored in the memory are executable to: configure a master cell group, MCG , and a secondary cell group, SCG ; configure a first guaranteed power for the MCG and a second guaranteed power for the SCG , wherein the first guaranteed power for the MCG and the second guaranteed power for the SCG are each a ratio of a maximum transmission power for the UE ; determine a transmission power of a physical uplink control channel, PUCCH, on the MCG with using at least the second guaranteed power; determine a transmission power of a physical uplink shared channel, PUSCH, on the SCG with using at least the first guaranteed power; determine a transmission power of a physical random access channel, PRACH, on the MCG without using the second guaranteed power; and determine a transmission power of a PRACH on the SCG without using the first guaranteed power but with using at least the transmission power of the PRACH on the MCG . a processor ; and memory in electronic communication with the processor , wherein instructions stored in the memory are executable to: configure a master cell group, MCG , and a secondary cell group, SCG ; configure a first guaranteed power for the MCG and a second guaranteed power for the SCG , wherein the first guaranteed power for the MCG and the second guaranteed power for the SCG are each a ratio of a maximum transmission power for the UE ; determine a transmission power of a physical uplink control channel, PUCCH, on the MCG with using at least the second guaranteed power; determine a transmission power of a physical uplink shared channel, PUSCH, on the SCG with using at least the first guaranteed power; determine a transmission power of a physical random access channel, PRACH, on the MCG without using the second guaranteed power; and determine a transmission power of a PRACH on the SCG without using the first guaranteed power but with using at least the transmission power of the PRACH on the MCG . configure a master cell group, MCG , and a secondary cell group, SCG ; configure a first guaranteed power for the MCG and a second guaranteed power for the SCG , wherein the first guaranteed power for the MCG and the second guaranteed power for the SCG are each a ratio of a maximum transmission power for the UE ; determine a transmission power of a physical uplink control channel, PUCCH, on the MCG with using at least the second guaranteed power; determine a transmission power of a physical uplink shared channel, PUSCH, on the SCG with using at least the first guaranteed power; determine a transmission power of a physical random access channel, PRACH, on the MCG without using the second guaranteed power; and determine a transmission power of a PRACH on the SCG without using the first guaranteed power but with using at least the transmission power of the PRACH on the MCG .
An aerosol delivery system comprising an aerosol-generation apparatus comprising a heater and a fluid-transfer article , the fluid-transfer article forming the consumable part of the apparatus, said fluid-transfer article comprising a first region for holding an aerosol precursor and for transferring said aerosol precursor to a second region of said fluid-transfer article , said second region comprising a first part of a first material, said first part being adjacent said first region and having a plurality of holes therein, and a second part of a second material different from the first material, said second part being adjacent to said first part and extending across said plurality of holes in said first part ; wherein said plurality of holes are sized so that they cooperate with said second part of said second region to define non-capillary spaces in said second region into which said aerosol precursor is able to flow from said first region in a non-capillary manner, thereby to impinge on said second part ; wherein said second part of said second region is porous for passage therethrough of said aerosol precursor from said plurality of holes to an activation surface of said second region ; wherein said heater contacts said activation surface so as to interact thermally with said activation surface ; and wherein said heater and said activation surface are separable, wherein said system comprises a carrier comprising a first housing containing said fluid-transfer article and said system comprises a further housing supporting said heater , said first housing and said further housing being mutually detachable to allow the carrier to be removed from the rest of the aerosol delivery system, characterised in that : said second material is resistant to higher temperatures than said first material. wherein said heater and said activation surface are separable, wherein said system comprises a carrier comprising a first housing containing said fluid-transfer article and said system comprises a further housing supporting said heater , said first housing and said further housing being mutually detachable to allow the carrier to be removed from the rest of the aerosol delivery system, characterised in that : said second material is resistant to higher temperatures than said first material.
A vacuum system comprising at least one vacuum device ; a plurality of electronic modules ; and a connection device which establishes at least one electrical connection between the plurality of modules , wherein the connection device has a respective electrical contact point for each of the plurality of modules , and wherein each contact point comprises a unique identifying feature , characterized in that each module has a type identifier which is associated with a module type and the type identifier can be combined or is combined with the unique identifying feature of the contact point of the respective module to provide a unique identifier of each module . at least one vacuum device ; a plurality of electronic modules ; and a connection device which establishes at least one electrical connection between the plurality of modules , wherein the connection device has a respective electrical contact point for each of the plurality of modules , and wherein each contact point comprises a unique identifying feature , characterized in that each module has a type identifier which is associated with a module type and the type identifier can be combined or is combined with the unique identifying feature of the contact point of the respective module to provide a unique identifier of each module . characterized in that each module has a type identifier which is associated with a module type and the type identifier can be combined or is combined with the unique identifying feature of the contact point of the respective module to provide a unique identifier of each module .
A communications method performed by a user equipment, UE, which communicates with a base station , the communications method comprising: receiving, via a control channel, allocations of resources for use in communicating data between the UE and the base station ; wherein said allocations of resources comprise: resources dynamically allocated to UEs at a first Transmission Time Interval, TTI, via a Cell Radio Network Temporary Identifier, C-RNTI, in the control channel; and persistent downlink resources allocated to UEs, for Hybrid Automatic Repeat Request, HARQ, transmissions to UEs, that can be used for a current and following TTIs; validating at least one resource for persistent scheduling when a field for the control channel is set according to a predefined bit pattern, and determining whether a C-RNTI is present in the control channel for a TTI for which said UE has persistent downlink resources and, when the C-RNTI is present, determining that a resource allocation indicated on the control channel for that TTI overrides a persistent allocation for that TTI and that decoding of the persistent downlink resources is not required. receiving, via a control channel, allocations of resources for use in communicating data between the UE and the base station ; wherein said allocations of resources comprise: resources dynamically allocated to UEs at a first Transmission Time Interval, TTI, via a Cell Radio Network Temporary Identifier, C-RNTI, in the control channel; and persistent downlink resources allocated to UEs, for Hybrid Automatic Repeat Request, HARQ, transmissions to UEs, that can be used for a current and following TTIs; resources dynamically allocated to UEs at a first Transmission Time Interval, TTI, via a Cell Radio Network Temporary Identifier, C-RNTI, in the control channel; and persistent downlink resources allocated to UEs, for Hybrid Automatic Repeat Request, HARQ, transmissions to UEs, that can be used for a current and following TTIs; validating at least one resource for persistent scheduling when a field for the control channel is set according to a predefined bit pattern, and determining whether a C-RNTI is present in the control channel for a TTI for which said UE has persistent downlink resources and, when the C-RNTI is present, determining that a resource allocation indicated on the control channel for that TTI overrides a persistent allocation for that TTI and that decoding of the persistent downlink resources is not required.
A method for treatment of a produced water stream recovered from an oil well to remove a surfactant from the water stream, characterized by : contacting the water stream with a particulate support comprising a hydrous iron oxide coating, to provide a treated water stream comprising less surfactant than the water stream; and adding a hydrous iron oxide precursor to the water stream to form the hydrous iron oxide coating; wherein the particulate support comprises a bed of moving sand; characterized in that : the method comprises removing an anionic surfactant comprising a C 4-25 alkyl sulfonate, a C 6-25 alkylaryl sulfonate, a C 4-25 alkyl sulfate, or a salt thereof, or a combination comprising at least one of the foregoing from the water stream; the method further comprising: adsorbing the anionic surfactant to the hydrous iron oxide coating to provide a surfactant-iron-sand complex; and separating the treated water stream from the particulate support. contacting the water stream with a particulate support comprising a hydrous iron oxide coating, to provide a treated water stream comprising less surfactant than the water stream; and adding a hydrous iron oxide precursor to the water stream to form the hydrous iron oxide coating; wherein the particulate support comprises a bed of moving sand; characterized in that : the method comprises removing an anionic surfactant comprising a C 4-25 alkyl sulfonate, a C 6-25 alkylaryl sulfonate, a C 4-25 alkyl sulfate, or a salt thereof, or a combination comprising at least one of the foregoing from the water stream; the method further comprising: adsorbing the anionic surfactant to the hydrous iron oxide coating to provide a surfactant-iron-sand complex; and separating the treated water stream from the particulate support. the method comprises removing an anionic surfactant comprising a C 4-25 alkyl sulfonate, a C 6-25 alkylaryl sulfonate, a C 4-25 alkyl sulfate, or a salt thereof, or a combination comprising at least one of the foregoing from the water stream; the method further comprising: adsorbing the anionic surfactant to the hydrous iron oxide coating to provide a surfactant-iron-sand complex; and separating the treated water stream from the particulate support. adsorbing the anionic surfactant to the hydrous iron oxide coating to provide a surfactant-iron-sand complex; and separating the treated water stream from the particulate support.
An undercoat composition comprising an isocyanate group-containing compound as Component A, a radically polymerizable monomer containing at least b1 or b3 below as Component B, a photopolymerization initiator as Component C, and a surfactant in a content of 0.001 to 2 mass% relative to the entire mass of the undercoat composition, wherein the total content of b1 and b2 is 50 to 90 mass% relative to the total solids content mass of the undercoat composition, and the total content of b1 and b3 is 5 to 90 mass% relative to the total solids content mass of the undercoat composition, b1: a polyfunctional radically polymerizable monomer having a Log P value of no greater than 2.0, b2: a polyfunctional radically polymerizable monomer having a Log P value of greater than 2.0, and b3: a monofunctional radically polymerizable monomer having a Log P value of no greater than 2.0. an isocyanate group-containing compound as Component A, a radically polymerizable monomer containing at least b1 or b3 below as Component B, a photopolymerization initiator as Component C, and a surfactant in a content of 0.001 to 2 mass% relative to the entire mass of the undercoat composition, wherein the total content of b1 and b2 is 50 to 90 mass% relative to the total solids content mass of the undercoat composition, and the total content of b1 and b3 is 5 to 90 mass% relative to the total solids content mass of the undercoat composition, b1: a polyfunctional radically polymerizable monomer having a Log P value of no greater than 2.0, b2: a polyfunctional radically polymerizable monomer having a Log P value of greater than 2.0, and b3: a monofunctional radically polymerizable monomer having a Log P value of no greater than 2.0.
A method for indicating period information of a common control resource set, CORESET, of remaining minimum system information, RMSI, for applying to a base station, characterized by the method comprising: adding (S101) indication information to a physical broadcast channel, PBCH, of a broadcasted synchronization signal block, SSB, wherein the indication information comprises first indication information configured to indicate a positional relationship between a half radio frame where a CORESET of RMSI corresponding to the SSB is located and a half radio frame where the SSB is located; and sending (S102) the SSB carrying the indication information to user equipment. adding (S101) indication information to a physical broadcast channel, PBCH, of a broadcasted synchronization signal block, SSB, wherein the indication information comprises first indication information configured to indicate a positional relationship between a half radio frame where a CORESET of RMSI corresponding to the SSB is located and a half radio frame where the SSB is located; and sending (S102) the SSB carrying the indication information to user equipment.
A system for autonomous trouble shooting of a circuit card assembly having a plurality of replaceable components comprising: a test station including: a test probe to test the circuit card assembly as a unit under test (UUT) , and a first computer having a display, memory coupled to the computer to store an artificial intelligence (AI) program and a knowledge database (KDB) , wherein the KDB includes a plurality of indexes, each index corresponding to associated test points of the UUT, and respective acceptable test results for each test point represented by an acceptable test vector, and a network interface to communicate with a communication network ; and an operator station including a second computer and memory to send commands to the test station via the communication network to teach the AI program to capture and store the acceptable test result for each test point of the UUT by the test probe, in the KDB, wherein the AI program when executed by the first computer commands the test probe to test the UUT, stores the results in a test result vector, compares the test result vector with the stored acceptable test vector, and displays recommendation as which replaceable component in the UUT to be repaired or replaced. a test station including: a test probe to test the circuit card assembly as a unit under test (UUT) , and a first computer having a display, memory coupled to the computer to store an artificial intelligence (AI) program and a knowledge database (KDB) , wherein the KDB includes a plurality of indexes, each index corresponding to associated test points of the UUT, and respective acceptable test results for each test point represented by an acceptable test vector, and a test probe to test the circuit card assembly as a unit under test (UUT) , and a first computer having a display, memory coupled to the computer to store an artificial intelligence (AI) program and a knowledge database (KDB) , wherein the KDB includes a plurality of indexes, each index corresponding to associated test points of the UUT, and respective acceptable test results for each test point represented by an acceptable test vector, and a network interface to communicate with a communication network ; and an operator station including a second computer and memory to send commands to the test station via the communication network to teach the AI program to capture and store the acceptable test result for each test point of the UUT by the test probe, in the KDB, wherein the AI program when executed by the first computer commands the test probe to test the UUT, stores the results in a test result vector, compares the test result vector with the stored acceptable test vector, and displays recommendation as which replaceable component in the UUT to be repaired or replaced.
A method comprising: producing , a first sensor signal in response to a physical stimulus detected by a sensor of a wake-up circuit at a first instant in time , the first sensor signal being selected to be a reference value ; producing a second sensor signal in response to the physical stimulus detected by the sensor at a second instant in time, the second instant in time occurring after the first instant in time; determining a first difference value (78 N , 88 N ) between the second sensor signal and the reference value; producing a third sensor signal in response to the physical stimulus detected by the sensor at a third instant in time, the third instant in time occurring after the second instant in time; determining a second difference value (78 N+1 , 88 N+1 ) between the third sensor signal and the reference value; and preventing communication of a wake-up signal to an electronic device in a sleep mode when at least one of the first and second difference values fails to exceed a threshold value , wherein the third sensor signal is produced and the second difference value (78 N+1 , 88 N+1 ) is determined only when the first difference value (78 N , 88 N ) exceeds the threshold value. producing , a first sensor signal in response to a physical stimulus detected by a sensor of a wake-up circuit at a first instant in time , the first sensor signal being selected to be a reference value ; producing a second sensor signal in response to the physical stimulus detected by the sensor at a second instant in time, the second instant in time occurring after the first instant in time; determining a first difference value (78 N , 88 N ) between the second sensor signal and the reference value; producing a third sensor signal in response to the physical stimulus detected by the sensor at a third instant in time, the third instant in time occurring after the second instant in time; determining a second difference value (78 N+1 , 88 N+1 ) between the third sensor signal and the reference value; and preventing communication of a wake-up signal to an electronic device in a sleep mode when at least one of the first and second difference values fails to exceed a threshold value , wherein the third sensor signal is produced and the second difference value (78 N+1 , 88 N+1 ) is determined only when the first difference value (78 N , 88 N ) exceeds the threshold value.
A bypass configured gas turbine engine having a bypass airflow path and a cooling system, the cooling system comprising: a lubricated mechanical system having an internal cavity adapted to contain lubricating oil; a surface cooler adapted for mounting to a surface of the bypass configured gas turbine engine ; and one or more fluid conduits linking the cavity of the lubricated mechanical system to the surface cooler such that the surface cooler reduces a temperature of the lubricating oil; characterized in that the surface cooler is configured to be mounted on a surface of a fan exit guide vane , the surface cooler having a plan view shape generally following a plan view shape of the fan exit guide vane , a front surface of the surface cooler being exposed to airflow in the engine bypass airflow path , the front surface forming fins or lands , and grooves , parallel to the surface of the fan exit guide vane and in line with a direction of airflow, the fins or lands extending into the airflow beyond the surface of the fan exit guide vane and the grooves being coplanar with the surface of the fan exit guide vane , the front surface forming an internal cavity for the surface cooler through which heated oil is flowed. a lubricated mechanical system having an internal cavity adapted to contain lubricating oil; a surface cooler adapted for mounting to a surface of the bypass configured gas turbine engine ; and one or more fluid conduits linking the cavity of the lubricated mechanical system to the surface cooler such that the surface cooler reduces a temperature of the lubricating oil; characterized in that the surface cooler is configured to be mounted on a surface of a fan exit guide vane , the surface cooler having a plan view shape generally following a plan view shape of the fan exit guide vane , a front surface of the surface cooler being exposed to airflow in the engine bypass airflow path , the front surface forming fins or lands , and grooves , parallel to the surface of the fan exit guide vane and in line with a direction of airflow, the fins or lands extending into the airflow beyond the surface of the fan exit guide vane and the grooves being coplanar with the surface of the fan exit guide vane , the front surface forming an internal cavity for the surface cooler through which heated oil is flowed.
A fruit harvester comprising a cleaning system, said cleaning system including a cleaning fan comprising: a housing ; a rotor disposed within the housing , the rotor including a hub and a plurality of blades ; the hub being a frustoconical shaped hub with an axis of rotation ; each of the blades being attached to the hub ; characterized in that: the cleaning fan is configured as a mixed flow fan combining high-volume flow characteristics with increased pressure delivery characteristics, the hub has a smaller diameter inlet end and a larger diameter outlet end , and wherein each of the blades curves from the inlet end toward the outlet end , relative to a direction of rotation of the rotor , whereby air is blown during operation both axially and radially. a housing ; a rotor disposed within the housing , the rotor including a hub and a plurality of blades ; the hub being a frustoconical shaped hub with an axis of rotation ; each of the blades being attached to the hub ; characterized in that: the cleaning fan is configured as a mixed flow fan combining high-volume flow characteristics with increased pressure delivery characteristics, the hub has a smaller diameter inlet end and a larger diameter outlet end , and wherein each of the blades curves from the inlet end toward the outlet end , relative to a direction of rotation of the rotor , whereby air is blown during operation both axially and radially. the cleaning fan is configured as a mixed flow fan combining high-volume flow characteristics with increased pressure delivery characteristics, the hub has a smaller diameter inlet end and a larger diameter outlet end , and wherein each of the blades curves from the inlet end toward the outlet end , relative to a direction of rotation of the rotor , whereby air is blown during operation both axially and radially.
A test tube manipulation system comprising a test tube provided with at least a pair of protrusions or recesses spaced from one another about a sidewall of the test tube; and a gripper comprising a pair of fingers each of which defines a protrusion or a recess shaped and dimensioned to receive one of the protrusions or recesses on the test tube.