mhurhangee/patent-ind-claim-en huggingface dataset:
A device for drying a floor layer of a floor structure , the device comprising: a hollow cylinder which can be inserted into an opening in the floor structure, wherein the hollow cylinder comprising an upper end , which, when the hollow cylinder is inserted in the opening , protrudes from the opening , and a lower end which can be placed in the opening on a floor layer of the floor structure , a conical member for sealing the opening between the floor structure and the hollow cylinder , characterized in that the conical member is slidably arranged on an outer cylinder surface of the hollow cylinder between the upper end and the lower end of the hollow cylinder . a hollow cylinder which can be inserted into an opening in the floor structure, wherein the hollow cylinder comprising an upper end , which, when the hollow cylinder is inserted in the opening , protrudes from the opening , and a lower end which can be placed in the opening on a floor layer of the floor structure , a conical member for sealing the opening between the floor structure and the hollow cylinder , characterized in that the conical member is slidably arranged on an outer cylinder surface of the hollow cylinder between the upper end and the lower end of the hollow cylinder .
A method for decoding a data frame in wireless communication, comprising: receiving a data frame from a transmitter; decoding the data frame in a plurality of decoding attempts during a same transmit time interval, TTI; performing an outer loop power control, OLPC, procedure configured to determine a plurality of signal-to-interference ratio, SIR, set-points, wherein each of the plurality of SIR set-points corresponds to a block error rate, BLER, target of a corresponding one of the decoding attempts; and characterized by : selecting a maximum SIR set-point for an inner loop power control, ILPC, procedure, from the plurality of SIR set-points. receiving a data frame from a transmitter; decoding the data frame in a plurality of decoding attempts during a same transmit time interval, TTI; performing an outer loop power control, OLPC, procedure configured to determine a plurality of signal-to-interference ratio, SIR, set-points, wherein each of the plurality of SIR set-points corresponds to a block error rate, BLER, target of a corresponding one of the decoding attempts; and characterized by : selecting a maximum SIR set-point for an inner loop power control, ILPC, procedure, from the plurality of SIR set-points.
A first method, performed by at least one mobile device , comprising: - obtaining identifier information indicative of information allowing a radio node of a venue to be identified; - determining a discrete value based on the obtained identifier information, wherein the discrete value is indicative of a value from a finite number of values; - determining one or more transmission parameters based on the determined discrete value, wherein each of the one or more transmission parameters is indicative of a respective attribute with respect to a communication of the radio node transmitting the identifier information in the venue, wherein the one or more transmission parameters represent at least a transmission, Tx, power and a Tx interval, and wherein the one or more transmission parameters are determined corresponding to an association of the discrete value to the one or more transmission parameters in a look-up table stored in a memory; and - configuring the at least one mobile device based on the determined one or more transmission parameters. - obtaining identifier information indicative of information allowing a radio node of a venue to be identified; - determining a discrete value based on the obtained identifier information, wherein the discrete value is indicative of a value from a finite number of values; - determining one or more transmission parameters based on the determined discrete value, wherein each of the one or more transmission parameters is indicative of a respective attribute with respect to a communication of the radio node transmitting the identifier information in the venue, wherein the one or more transmission parameters represent at least a transmission, Tx, power and a Tx interval, and wherein the one or more transmission parameters are determined corresponding to an association of the discrete value to the one or more transmission parameters in a look-up table stored in a memory; and - configuring the at least one mobile device based on the determined one or more transmission parameters.
A hull posture control system for controlling a posture of a hull of a marine vessel having at least one propeller configured to generate a propulsive force for the hull , and an engine configured to turn the at least one propeller ; the hull posture control system comprises: at least one trim tab unit configured to be arranged on a stern of the hull , the trim tab unit comprises a posture control tab mounted the stern of the hull and configured to control a posture of the hull ; an actuator configured to actuate the posture control tab ; and a controller configured to control the actuator , characterized in that the controller is configured to control the actuator according to engine torque generated by the engine , or the controller is configured to control the actuator according to propeller torque generated by the at least one propeller . at least one trim tab unit configured to be arranged on a stern of the hull , the trim tab unit comprises a posture control tab mounted the stern of the hull and configured to control a posture of the hull ; an actuator configured to actuate the posture control tab ; and a controller configured to control the actuator , characterized in that the controller is configured to control the actuator according to engine torque generated by the engine , or the controller is configured to control the actuator according to propeller torque generated by the at least one propeller .
A method of determining the location within a measurement range of a boundary between two material phases within a vessel , each phase having different radiation attenuation characteristics according to its density, comprising the steps of: a) providing at least one source of radiation (S) emitting radiation through a portion of the interior of the vessel ; b) providing a plurality of radiation detectors (D1, D2, D3, D4), each detector detecting, within a part of said measurement range, radiation emitted by the source (S), c) providing a data processing means for calculation of the position of the phase boundary from the amount of radiation detected by the detectors; characterised in that the data processing means calculates the position of the phase boundary from the amount of radiation detected by the detectors (D1, D2, D3, D4) by (i) in a first step, determining within which detector stage the phase boundary is located by the data processing means by comparing the count-rate produced by each detector (D1, D2, D3, D4) measured during operation of the method with the count-rate produced by the same detector (D1, D2, D3, D4) when it is just-covered with, i.e. just full of, the more-dense phase and when it is uncovered, i.e. empty of the more dense phase and/or full of the less-dense phase , and then (ii) in a second step, determining the position of the phase boundary within the detector stage determined in (i). a) providing at least one source of radiation (S) emitting radiation through a portion of the interior of the vessel ; b) providing a plurality of radiation detectors (D1, D2, D3, D4), each detector detecting, within a part of said measurement range, radiation emitted by the source (S), c) providing a data processing means for calculation of the position of the phase boundary from the amount of radiation detected by the detectors; (i) in a first step, determining within which detector stage the phase boundary is located by the data processing means by comparing the count-rate produced by each detector (D1, D2, D3, D4) measured during operation of the method with the count-rate produced by the same detector (D1, D2, D3, D4) when it is just-covered with, i.e. just full of, the more-dense phase and when it is uncovered, i.e. empty of the more dense phase and/or full of the less-dense phase , and then (ii) in a second step, determining the position of the phase boundary within the detector stage determined in (i).
A method for supporting a carrier aggregation group in a wireless communication system supporting multiple carriers, performed by a wireless device , the method comprising: receiving a radio resource control, RRC, configuration message including one or more parameters related to one or more serving cells; and configuring two or more carrier aggregation groups, CAGs, based on the one or more parameters included in the RRC configuration message, wherein the CAG is a group of one or more serving cells employing carrier aggregation, and wherein a medium access control, MAC, configuration is configured independently per each CAG of the two or more CAGs, wherein the MAC configuration includes a CAG identification, ID, for the configuration of two or more CAGs wherein a release, an addition or a modification of a secondary cell, SCell, in a first CAG of the two or more CAGs is applied in accordance with a first parameter related to a common Scell radio resource configuration and a second parameter related to a dedicated SCell radio resource configuration, and wherein a primary serving cell, PCell, for each CAG of the two or more CAGs is configured independently from each other. receiving a radio resource control, RRC, configuration message including one or more parameters related to one or more serving cells; and configuring two or more carrier aggregation groups, CAGs, based on the one or more parameters included in the RRC configuration message, wherein the CAG is a group of one or more serving cells employing carrier aggregation, and wherein a medium access control, MAC, configuration is configured independently per each CAG of the two or more CAGs, wherein the MAC configuration includes a CAG identification, ID, for the configuration of two or more CAGs wherein a release, an addition or a modification of a secondary cell, SCell, in a first CAG of the two or more CAGs is applied in accordance with a first parameter related to a common Scell radio resource configuration and a second parameter related to a dedicated SCell radio resource configuration, and wherein a primary serving cell, PCell, for each CAG of the two or more CAGs is configured independently from each other.
A camera module comprising: a clock generation circuit; an image stabilizer ; an image sensor , and a temperature sensor; wherein the clock generation circuit is configured to: receive a control signal for making a request for generating a clock signal; in response to the control signal, generate a clock signal , the clock signal being distinguished from the control signal; correct the clock signal based on received temperature compensation data if it is determined based on a temperature detected by the temperature sensor that temperature compensation is needed; and provide the clock signal to the image stabilizer and the image sensor , wherein the image stabilizer is configured to be driven based on the clock signal, and wherein the image sensor is configured to be driven in a state in which the image sensor is synchronized with the image stabilizer , based on the clock signal. a clock generation circuit; an image stabilizer ; an image sensor , and a temperature sensor; wherein the clock generation circuit is configured to: receive a control signal for making a request for generating a clock signal; in response to the control signal, generate a clock signal , the clock signal being distinguished from the control signal; correct the clock signal based on received temperature compensation data if it is determined based on a temperature detected by the temperature sensor that temperature compensation is needed; and provide the clock signal to the image stabilizer and the image sensor , receive a control signal for making a request for generating a clock signal; in response to the control signal, generate a clock signal , the clock signal being distinguished from the control signal; correct the clock signal based on received temperature compensation data if it is determined based on a temperature detected by the temperature sensor that temperature compensation is needed; and provide the clock signal to the image stabilizer and the image sensor , wherein the image stabilizer is configured to be driven based on the clock signal, and wherein the image sensor is configured to be driven in a state in which the image sensor is synchronized with the image stabilizer , based on the clock signal.
Method for visible-light communication between equipment comprising data processing means and a light emitting diode and a mobile terminal comprising data processing means , optical acquisition means and a flash , the method being characterised in that it comprises the implementation of steps of: (a) emission by the light emitting diode of at least one first light signal representing a first data item; (b) acquisition of said first light signal by the optical acquisition means , and reconstitution attempt to reconstitute said first data item by the data processing means of the mobile terminal ; (c) generation by the data processing means of the mobile terminal of a second data item according to the result of the reconstitution of the first data item; (d) emission by the flash of a second light signal representing the second data item; (e) detection by the data processing means of the equipment of a reverse current produced by the light emitting diode due to said second light signal; the method comprising the periodic implementation of a cycle of charging the light emitting diode , discharging the light emitting diode during a predetermined period, measuring the voltage at the terminals of the light emitting diode , and comparing with a threshold; so as to detect said reverse current, said cycle having a variable period, the method comprising the selection of an operating mode between an active mode in which the cycle has a first period T1 allowing acquisition of a light signal, and at least one standby mode wherein the cycle has a second period T0 substantially greater than the first period. (a) emission by the light emitting diode of at least one first light signal representing a first data item; (b) acquisition of said first light signal by the optical acquisition means , and reconstitution attempt to reconstitute said first data item by the data processing means of the mobile terminal ; (c) generation by the data processing means of the mobile terminal of a second data item according to the result of the reconstitution of the first data item; (d) emission by the flash of a second light signal representing the second data item; (e) detection by the data processing means of the equipment of a reverse current produced by the light emitting diode due to said second light signal; the method comprising the periodic implementation of a cycle of charging the light emitting diode , discharging the light emitting diode during a predetermined period, measuring the voltage at the terminals of the light emitting diode , and comparing with a threshold; so as to detect said reverse current, said cycle having a variable period, the method comprising the selection of an operating mode between an active mode in which the cycle has a first period T1 allowing acquisition of a light signal, and at least one standby mode wherein the cycle has a second period T0 substantially greater than the first period.
A terminal comprising: a receiving section configured to receive a synchronization signal; and a transmitting section configured to transmit a random access preamble by using a radio resource based on a pattern index associated with the synchronization signal, wherein the radio resource is selected based on a predetermined rule from a plurality of resources for random access preamble transmission associated with the pattern index. a receiving section configured to receive a synchronization signal; and a transmitting section configured to transmit a random access preamble by using a radio resource based on a pattern index associated with the synchronization signal, wherein the radio resource is selected based on a predetermined rule from a plurality of resources for random access preamble transmission associated with the pattern index.
Locking device for a superposition drive of a superposition steering system for locking a movable component, having - a locking element which is movable back and forth between a locking and release position and which interacts with the movable component in the locking position; and - an elastic element coupled to the locking element and intended for moving the locking element , - at least one stop , wherein the locking element is movable relative to the stop , characterized in that the elastic element is designed and coupled to the locking element in such a way that it is in contact with the stop at least in the locking position of the locking element , wherein the stop is arranged in such a way that a movement of the locking element into the locking position is limited by contact between the elastic element and the stop . - a locking element which is movable back and forth between a locking and release position and which interacts with the movable component in the locking position; and - an elastic element coupled to the locking element and intended for moving the locking element , - at least one stop , wherein the locking element is movable relative to the stop ,
A vehicle , comprising: a frame ; a seat arranged on the frame ; a powertrain arranged on the frame ; a steering system arranged on the frame and comprising a steering shaft , and the steering shaft being located in front of the powertrain ; and a fuel tank arranged on the frame , and located behind the steering shaft and in front of the powertrain , wherein an air filter and a transmission shaft located below the air filter are arranged to the frame , and the fuel tank is located above the transmission shaft , characterized in that the fuel tank is located below the air filter . a frame ; a seat arranged on the frame ; a powertrain arranged on the frame ; a steering system arranged on the frame and comprising a steering shaft , and the steering shaft being located in front of the powertrain ; and a fuel tank arranged on the frame , and located behind the steering shaft and in front of the powertrain , wherein an air filter and a transmission shaft located below the air filter are arranged to the frame , and the fuel tank is located above the transmission shaft , characterized in that the fuel tank is located below the air filter .
A compound of structural formula I: or a pharmaceutically acceptable salt thereof; wherein: A is heteroaryl, wherein heteroaryl is unsubstituted or substituted with 1-3 substituents independently selected from C 1-6 alkyl and halogen; B is aryl, wherein aryl is unsubstituted or substituted with 1-4 substituents independently selected from C 1-6 alkyl and halogen; X is selected from the group consisting of: -C(O)NHSO 2 C 1-6 alkyl and, -C(O)NHSO 2 C 3-6 cycloalkyl, wherein alkyl and cycloalkyl are unsubstituted or substituted with 1-3 substituents independently selected from C 1-6 alkyl; Z is heteroaryl, wherein heteroaryl is unsubstituted or substituted with 1-4 substituents independently selected from C 1-6 alkyl, and; R a and R b are each independently selected from the group consisting of hydrogen and C 1-6 alkyl. A is heteroaryl, wherein heteroaryl is unsubstituted or substituted with 1-3 substituents independently selected from C 1-6 alkyl and halogen; B is aryl, wherein aryl is unsubstituted or substituted with 1-4 substituents independently selected from C 1-6 alkyl and halogen; X is selected from the group consisting of: -C(O)NHSO 2 C 1-6 alkyl and, -C(O)NHSO 2 C 3-6 cycloalkyl, -C(O)NHSO 2 C 1-6 alkyl and, -C(O)NHSO 2 C 3-6 cycloalkyl, wherein alkyl and cycloalkyl are unsubstituted or substituted with 1-3 substituents independently selected from C 1-6 alkyl; Z is heteroaryl, wherein heteroaryl is unsubstituted or substituted with 1-4 substituents independently selected from C 1-6 alkyl, and; R a and R b are each independently selected from the group consisting of hydrogen and C 1-6 alkyl.
Method of computation caching in a serving cell of a MEC, Mobile Edge Computing, network, said serving cell being provided with local computing resources for performing computational tasks and a local cache memory, UEs, User Equipments, being able to send task offloading requests on the uplink of the serving cell, each request, r n , of a UE for a computational task to be offloaded to the serving cell being identified by a computation task label, k, characterized in that : - the serving cell assigns to each computational task c k a metric value λ ( c k ) which is calculated as an increasing function of the product p k W k in , where p k is the popularity of the task and W k in is the size of the input data of the task, and a decreasing function of the size W k out of the result of the computational task; - the serving cell stores the results of the computational tasks in the cache memory based on their respective metric values, the result of a computational task having a higher metric value being more likely stored in the cache memory than the result of a computational task of lower metric value. - the serving cell assigns to each computational task c k a metric value λ ( c k ) which is calculated as an increasing function of the product p k W k in , where p k is the popularity of the task and W k in is the size of the input data of the task, and a decreasing function of the size W k out of the result of the computational task; - the serving cell stores the results of the computational tasks in the cache memory based on their respective metric values, the result of a computational task having a higher metric value being more likely stored in the cache memory than the result of a computational task of lower metric value.
A method for manufacturing a fiber-reinforced plastic molded article , comprising the steps of: mounting a cured fiber-reinforced composite member in a first mold ; accommodating a fabric to be joined to the fiber-reinforced composite member in a second mold ; accommodating the second mold in a fixing member ; mounting the fixing member on the fiber-reinforced composite member by positioning a positioning portion provided on the fixing member with respect to a positioning part provided on the fiber-reinforced composite member ; and injecting the fiber-reinforced composite member and the fabric accommodated in the first mold and the second mold with resin. mounting a cured fiber-reinforced composite member in a first mold ; accommodating a fabric to be joined to the fiber-reinforced composite member in a second mold ; accommodating the second mold in a fixing member ; mounting the fixing member on the fiber-reinforced composite member by positioning a positioning portion provided on the fixing member with respect to a positioning part provided on the fiber-reinforced composite member ; and injecting the fiber-reinforced composite member and the fabric accommodated in the first mold and the second mold with resin.