mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a user equipment, UE , said method comprising the steps of: receiving from a Radio Base Station, RBS , control information over a physical shared control channel during a frame, the control information comprising first control information specifying a common identifier arranged to identify a plurality of UEs and second control information specifying the transport format and the rate of an associated physical downlink shared channel for the same frame; said method being characterized by : determining whether the received common identifier matches an assigned first common identifier when the UE has no valid Cell Radio Network Temporary Identifier, C-RNTI, and determining whether the received common identifier matches an assigned second common identifier when the UE has a valid C-RNTI; if a match is determined, using said received second control information for detecting data on a transport downlink shared channel received from the RBS over the associated physical downlink shared channel for the same frame, wherein if the determined match is with the assigned first common identifier, the data is detected as comprising a Radio Resource Control, RRC, message in which an individual UE identifier is located and if the determined match is with the assigned second common identifier, the data is detected as comprising a Medium Access Control, MAC, protocol data unit including a MAC header in which an individual UE identifier is located; and determining that the detected data is addressed to the UE if the detected individual UE identifier matches an individual UE identifier assigned to the UE. determining whether the received common identifier matches an assigned first common identifier when the UE has no valid Cell Radio Network Temporary Identifier, C-RNTI, and determining whether the received common identifier matches an assigned second common identifier when the UE has a valid C-RNTI; if a match is determined, using said received second control information for detecting data on a transport downlink shared channel received from the RBS over the associated physical downlink shared channel for the same frame, wherein if the determined match is with the assigned first common identifier, the data is detected as comprising a Radio Resource Control, RRC, message in which an individual UE identifier is located and if the determined match is with the assigned second common identifier, the data is detected as comprising a Medium Access Control, MAC, protocol data unit including a MAC header in which an individual UE identifier is located; and determining that the detected data is addressed to the UE if the detected individual UE identifier matches an individual UE identifier assigned to the UE.
A dynamic sealing device for an aircraft turbomachine, comprising two rotors configured to rotate about the same axis (A) and at different speeds, said rotors extending at least partly around each other and dynamic sealing means being mounted between said rotors, characterized in that : - said sealing means comprise annular segments extending about said axis, said segments being mounted with the ability to slide on a first of said rotors, in a radial direction with respect to said axis, and being capable of getting into contact radially via their outer periphery on a second of said rotors which at least partly surrounds said first rotor, and - oil draining means comprising an annular cavity formed in said second rotor, said annular cavity opening radially towards the inside in the vicinity of said sealing means and being in fluidic communication with oil passage orifices formed at the bottom of the cavity and passing through said second rotor. - said sealing means comprise annular segments extending about said axis, said segments being mounted with the ability to slide on a first of said rotors, in a radial direction with respect to said axis, and being capable of getting into contact radially via their outer periphery on a second of said rotors which at least partly surrounds said first rotor, and - oil draining means comprising an annular cavity formed in said second rotor, said annular cavity opening radially towards the inside in the vicinity of said sealing means and being in fluidic communication with oil passage orifices formed at the bottom of the cavity and passing through said second rotor.
An antenna system including: - at least one component accommodating the radiofrequency radiation function comprising a mechanical structure configured to be installed on a support and aligned radiating elements provided with at least one individual supply line , and - at least one component accommodating the power supply function of the radiating elements, wherein the component accommodating the radiofrequency radiation function and the component accommodating the power supply function are electrically connected by at least one multistrand jumper cable, each strand being connected to an individual supply line , the component accommodating the radiofrequency radiation function and the component accommodating the power supply function are physically separate and remote, and the component accommodating the radiofrequency radiation function is of the optically quasi-transparent type and configured so as to pass visible light in a proportion of at least 80%; said antenna system being characterized in that the component accommodating the radiofrequency radiation function further comprises transverse and longitudinal partitions having a conductive surface consisting of a transparent conductive oxide deposited on a support made of transparent material, the aligned radiating elements being separated from each other by the transverse partitions and framed by the longitudinal partitions participating in the formation of the radiation pattern of the antenna system. - at least one component accommodating the radiofrequency radiation function comprising a mechanical structure configured to be installed on a support and aligned radiating elements provided with at least one individual supply line , and - at least one component accommodating the power supply function of the radiating elements,
A conveyor belt for transporting piece goods, in particular for a conveyor belt scale, which comprises a belt body having an upper side, a lower side and a length extending in the transport direction of the piece goods; and a transport belt running around the belt body in the operation of the conveyor belt , characterized in that a cover plate is provided which is adhesively bonded to the upper side of the belt body by means of a double-sided adhesive tape and on which the upper run of the transport belt lies, with the adhesive tape consisting of a uniform material, i.e. the adhesive tape completely consists of adhesive.
A method of exposing a virtual service provided by a set of machines in a set of one or more datacenters, the method comprising receiving a Custom Resource Definition, CRD, that defines the virtual service as a resource in the datacenter; receiving an intent-based Application Programming Interface, API, request referring to the CRD and defining the virtual service provided by the set of machines , the API mapping a set of one or more ports to the set of machines ; performing an automated process to parse the API request and process the CRD to deploy the virtual service in the datacenter set, wherein performing the automated process comprises configuring a set of one or more load balancers to distribute data messages passing through the ports across the set of machines . receiving a Custom Resource Definition, CRD, that defines the virtual service as a resource in the datacenter; receiving an intent-based Application Programming Interface, API, request referring to the CRD and defining the virtual service provided by the set of machines , the API mapping a set of one or more ports to the set of machines ; performing an automated process to parse the API request and process the CRD to deploy the virtual service in the datacenter set, wherein performing the automated process comprises configuring a set of one or more load balancers to distribute data messages passing through the ports across the set of machines .
A spunbond nonwoven fabric comprising: a. a first surface and a second surface, and at least a first and second visually discernible zone on at least one of the first and second surface, each of the first and second zones having a pattern of three-dimensional features, each of the three-dimensional features defining a microzone comprising a first region and a second region , the first and second regions having a difference in values for an intensive property, the intensive property being thickness, basis weight or volumetric density, as measured by the Micro-CT Intensive Property Measurement Method disclosed in the description; and b. wherein the difference in values for the intensive property for at least one of the microzones in the first zone is from 1.2X to 10X different from the difference in values for the intensive property for the at least one of the microzones in the second zone ; wherein in at least one of the microzones the first region is hydrophobic and the second region is hydrophilic, wherein hydrophilicity is provided through targeted application of surfactant onto particular regions of the microzones, wherein at least one of the surfaces has a TS7 value of less than 15 dB V 2 rms, as measured according to the Emtec Test Method disclosed in the description. a. a first surface and a second surface, and at least a first and second visually discernible zone on at least one of the first and second surface, each of the first and second zones having a pattern of three-dimensional features, each of the three-dimensional features defining a microzone comprising a first region and a second region , the first and second regions having a difference in values for an intensive property, the intensive property being thickness, basis weight or volumetric density, as measured by the Micro-CT Intensive Property Measurement Method disclosed in the description; and b. wherein the difference in values for the intensive property for at least one of the microzones in the first zone is from 1.2X to 10X different from the difference in values for the intensive property for the at least one of the microzones in the second zone ; wherein in at least one of the microzones the first region is hydrophobic and the second region is hydrophilic, wherein hydrophilicity is provided through targeted application of surfactant onto particular regions of the microzones, wherein at least one of the surfaces has a TS7 value of less than 15 dB V 2 rms, as measured according to the Emtec Test Method disclosed in the description. wherein in at least one of the microzones the first region is hydrophobic and the second region is hydrophilic, wherein hydrophilicity is provided through targeted application of surfactant onto particular regions of the microzones, wherein at least one of the surfaces has a TS7 value of less than 15 dB V 2 rms, as measured according to the Emtec Test Method disclosed in the description.
A photocuring composition, comprising: (a) a photoinitiator compound having the following formula: (b) a photopolymerizable unsaturated compound containing a carbon-carbon double bond, and (c) a reactive amine co-initiator, such as a water-soluble tertiary amine, wherein the amine co-initiator accounts for 0.5-10% by weight of the composition. (a) a photoinitiator compound having the following formula: (b) a photopolymerizable unsaturated compound containing a carbon-carbon double bond, and (c) a reactive amine co-initiator, such as a water-soluble tertiary amine, wherein the amine co-initiator accounts for 0.5-10% by weight of the composition.
A spectrum access system, SAS, comprising: a transceiver configured to receive information indicating a path loss from an interior location of a structure to an exterior location in response to a first base station being installed at the interior location; a processor configured to determine an aggregate interference level for an incumbent proximate the exterior location based on the path loss and to allocate at least one channel to the first base station based on the aggregate interference level, characterized in that the processor is configured to allocate two carriers to the at least one channel, wherein the two carriers are separated by a predetermined bandwidth associated with the incumbent so that an occurrence of the incumbent does not impact both carriers simultaneously. a transceiver configured to receive information indicating a path loss from an interior location of a structure to an exterior location in response to a first base station being installed at the interior location; a processor configured to determine an aggregate interference level for an incumbent proximate the exterior location based on the path loss and to allocate at least one channel to the first base station based on the aggregate interference level, characterized in that the processor is configured to allocate two carriers to the at least one channel, wherein the two carriers are separated by a predetermined bandwidth associated with the incumbent so that an occurrence of the incumbent does not impact both carriers simultaneously.
A method for producing an aramid fabric having excellent adhesion to a polyurethane matrix resin and excellent tensile strength, the method comprising: (i) a weaving step of weaving a basket weave aramid fabric by using aramid yarns as warp and weft yarns; and (ii) a sizing treatment step of dipping the woven aramid fabric in a sizing agent solution composed of an aqueous polyurethane resin as a sizing agent and water, followed by squeezing and drying, thereby attaching and impregnating the sizing agent solution to the aramid fabric, wherein the content of the aqueous polyurethane resin attached to and impregnated into the surface and the inside of the aramid fabric is adjusted to 1 to 8 % by weight, based on the sum total of the weight of the aqueous polyurethane resin attached to and impregnated into the surface and the inside of the aramid fabric and the weight of the aramid fabric before the aqueous polyurethane resin is attached and impregnated; the content (wt%) of the aqueous polyurethane resin attached to and impregnated in the aramid fabric is measured according to the method in the description. (i) a weaving step of weaving a basket weave aramid fabric by using aramid yarns as warp and weft yarns; and (ii) a sizing treatment step of dipping the woven aramid fabric in a sizing agent solution composed of an aqueous polyurethane resin as a sizing agent and water, followed by squeezing and drying, thereby attaching and impregnating the sizing agent solution to the aramid fabric, wherein the content of the aqueous polyurethane resin attached to and impregnated into the surface and the inside of the aramid fabric is adjusted to 1 to 8 % by weight, based on the sum total of the weight of the aqueous polyurethane resin attached to and impregnated into the surface and the inside of the aramid fabric and the weight of the aramid fabric before the aqueous polyurethane resin is attached and impregnated;
A reference signal transmission method, comprising: precoding , by a transmitter , a data stream for user data through a second precoding matrix so as to acquire D virtual data streams; precoding , by the transmitter , the D virtual data streams through a first precoding matrix, and transmitting the D precoded virtual data streams to a receiver via T antenna groups, each antenna group comprising one or more antenna units or antenna ports having a same phase noise, T being an integer greater than or equal to 1, D being an integer greater than or equal to 1; transmitting , by the transmitter , D demodulation reference signals to the receiver, each demodulation reference signal corresponding to one virtual data stream, a precoding vector for each demodulation reference signal being the same as a precoding vector in the first precoding matrix adopted by the corresponding virtual data stream on a subcarrier where the demodulation reference signal is located, each demodulation reference signal and the corresponding virtual data stream being transmitted via a same antenna group; and transmitting , by the transmitter , M phase-tracking reference signals to the receiver , the M phase-tracking reference signals being adopted to track phase changes in the T antenna groups caused by one or more phase noise sources, M being an integer greater than or equal to 1, wherein one phase-tracking reference signal at least corresponds to one demodulation reference signal, and each phase-tracking reference signal and the corresponding demodulation reference signal are transmitted via a same antenna group. precoding , by a transmitter , a data stream for user data through a second precoding matrix so as to acquire D virtual data streams; precoding , by the transmitter , the D virtual data streams through a first precoding matrix, and transmitting the D precoded virtual data streams to a receiver via T antenna groups, each antenna group comprising one or more antenna units or antenna ports having a same phase noise, T being an integer greater than or equal to 1, D being an integer greater than or equal to 1; transmitting , by the transmitter , D demodulation reference signals to the receiver, each demodulation reference signal corresponding to one virtual data stream, a precoding vector for each demodulation reference signal being the same as a precoding vector in the first precoding matrix adopted by the corresponding virtual data stream on a subcarrier where the demodulation reference signal is located, each demodulation reference signal and the corresponding virtual data stream being transmitted via a same antenna group; and transmitting , by the transmitter , M phase-tracking reference signals to the receiver , the M phase-tracking reference signals being adopted to track phase changes in the T antenna groups caused by one or more phase noise sources, M being an integer greater than or equal to 1, wherein one phase-tracking reference signal at least corresponds to one demodulation reference signal, and each phase-tracking reference signal and the corresponding demodulation reference signal are transmitted via a same antenna group.
A pattern forming apparatus which forms a pattern on a substrate , comprising: a stage which is movable; a holding unit removably attached to the stage and configured to suck and hold the substrate ; an optical system of which position with respect to the holding unit is fixed, and configured to detect an alignment mark of the substrate which is sucked by the holding unit from a suction surface side of the substrate , the optical system having plural optical elements; a reference mark fixedly provided on the holding unit and arranged at a predetermined relative position to a detection field of the optical system ; and a detection system configured to detect the reference mark , a processing unit is configured to obtain the position of the reference mark detected by the detection system and to control a relative position between the substrate and the holding unit using the obtained position of the reference mark so that the alignment mark of the substrate detected from the suction surface side of the substrate by the optical system is disposed in the detection field of the optical system . a stage which is movable; a holding unit removably attached to the stage and configured to suck and hold the substrate ; an optical system of which position with respect to the holding unit is fixed, and configured to detect an alignment mark of the substrate which is sucked by the holding unit from a suction surface side of the substrate , the optical system having plural optical elements; a reference mark fixedly provided on the holding unit and arranged at a predetermined relative position to a detection field of the optical system ; and a detection system configured to detect the reference mark , a processing unit is configured to obtain the position of the reference mark detected by the detection system and to control a relative position between the substrate and the holding unit using the obtained position of the reference mark so that the alignment mark of the substrate detected from the suction surface side of the substrate by the optical system is disposed in the detection field of the optical system .
Method for protecting at least one body part against injury by a lawnmower , in particular an autonomous lawnmower which has at least one protection unit which comprises at least one sensor unit , wherein in at least one method step at least one body part characteristic value is sensed at least by the sensor unit for detecting the body part , characterized in that in at least one method step at least one tilting characteristic value (25a; 25b) of tilting, triggered by contact with the body part , of at least part of the lawnmower relative to an underlying surface is sensed at least by the sensor unit for detecting the body part .
A system for predicting performance of a liquid fuel system , comprising: a processor ; a memory communicatively coupled to the processor, wherein the memory stores instructions which when executed by the processor perform operations comprising: establishing a baseline parameter for at least one physical parameter of a nozzle or a valve associated with at least one combustor of the liquid fuel system with at least one time; obtaining one or more operational parameters associated with the liquid fuel system from one or more sensors during operation of a gas turbine engine; generating an operational model of a fuel flow divider based at least on the baseline parameter and the one or more operational parameters; utilizing the operational model of the fuel flow divider to predict the performance of the liquid fuel system ; and utilising the predicted performance of the liquid fuel system to output an action associated with the liquid fuel system . a processor ; a memory communicatively coupled to the processor, wherein the memory stores instructions which when executed by the processor perform operations comprising: establishing a baseline parameter for at least one physical parameter of a nozzle or a valve associated with at least one combustor of the liquid fuel system with at least one time; obtaining one or more operational parameters associated with the liquid fuel system from one or more sensors during operation of a gas turbine engine; generating an operational model of a fuel flow divider based at least on the baseline parameter and the one or more operational parameters; utilizing the operational model of the fuel flow divider to predict the performance of the liquid fuel system ; and utilising the predicted performance of the liquid fuel system to output an action associated with the liquid fuel system . establishing a baseline parameter for at least one physical parameter of a nozzle or a valve associated with at least one combustor of the liquid fuel system with at least one time; obtaining one or more operational parameters associated with the liquid fuel system from one or more sensors during operation of a gas turbine engine; generating an operational model of a fuel flow divider based at least on the baseline parameter and the one or more operational parameters; utilizing the operational model of the fuel flow divider to predict the performance of the liquid fuel system ; and utilising the predicted performance of the liquid fuel system to output an action associated with the liquid fuel system .