mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a User Equipment, UE, comprising: detecting a likelihood of in-device coexistence interference between at least one of non-serving Long Term Evolution, LTE, frequencies and an Industrial, Scientific and Medical, ISM, frequency when an ISM activity is ongoing on the ISM frequency; setting a timer value during which the at least one of non-serving LTE frequencies is to be blocked for measurement; reporting the likelihood of in-device coexistence interference between the at least one of the non-serving LTE frequencies and the ISM frequency to a base station; and reporting the timer value to the base station, wherein the timer value indicates when the ISM activity will be completed. detecting a likelihood of in-device coexistence interference between at least one of non-serving Long Term Evolution, LTE, frequencies and an Industrial, Scientific and Medical, ISM, frequency when an ISM activity is ongoing on the ISM frequency; setting a timer value during which the at least one of non-serving LTE frequencies is to be blocked for measurement; reporting the likelihood of in-device coexistence interference between the at least one of the non-serving LTE frequencies and the ISM frequency to a base station; and reporting the timer value to the base station, wherein the timer value indicates when the ISM activity will be completed.
A control system for a hybrid electric vehicle, the vehicle having a powertrain comprising at least one electric propulsion motor and at least one engine, the control system being operable to control the vehicle to operate in an electric vehicle, EV, mode in which the at least one engine remains switched off and the at least one electric propulsion motor is configured to deliver drive torque and a boost mode in which the at least one engine is switched on to provide additional power to drive the vehicle, the system being operable to allow a driver to set a target vehicle speed and being configured to control the powertrain to maintain the target vehicle speed, wherein, when the vehicle is operating in EV mode, the system is further operable to determine whether a boost location exists ahead of the vehicle being a location at which a gradient of a driving surface is sufficiently high to require selection of the boost mode in order to maintain the target vehicle speed, the control system being operable automatically to command starting of the at least one engine before the boost location is reached, and wherein, when the vehicle is operating in boost mode, the control system is operable to assume EV mode in advance of arrival at an EV mode location if the control system determines that EV mode may be assumed without a drop in vehicle speed exceeding a prescribed value before the EV mode location is reached.
A received signal strength indicator, RSSI, measurement method, wherein the method comprises: sending, by a network device, a synchronization signal block; and sending, by the network device, a RSSI measurement configuration message, wherein the RSSI measurement configuration message comprises indication information of a time resource for RSSI measurement, and the time resource comprises downlink symbols only in a timeslot in which a synchronization signal block is located; and the downlink symbols in the timeslot are located with indices from 0 to 5; or the downlink symbols in the timeslot are located with indices from 0 to 7; or the downlink symbols in the timeslot are located with indices with 0 to 11. sending, by a network device, a synchronization signal block; and sending, by the network device, a RSSI measurement configuration message, wherein the RSSI measurement configuration message comprises indication information of a time resource for RSSI measurement, and the time resource comprises downlink symbols only in a timeslot in which a synchronization signal block is located; and the downlink symbols in the timeslot are located with indices from 0 to 5; or the downlink symbols in the timeslot are located with indices from 0 to 7; or the downlink symbols in the timeslot are located with indices with 0 to 11.
A rubber composition, for a tire, which is exposed to air in a use environment, wherein the rubber composition includes wax and carbon black, wherein the content of the carbon black per 100 parts by mass of the rubber component is not greater than 40 parts by weight, and after the rubber composition for a tire has been left for two weeks in a constant-temperature container in which a temperature is lower than a melting point of the wax by 30°C, a film thickness of the wax that is bloomed on a surface from the rubber composition for a tire is 0.2 to 1.5 μm, the melting point of the wax representing the maximum peak temperature of a heat flow curve obtained by measuring heat flow (mW/g) at a temperature rise rate of 5°C/min from -0°C to 100°C, using a differential scanning calorimeter. the rubber composition includes wax and carbon black, wherein the content of the carbon black per 100 parts by mass of the rubber component is not greater than 40 parts by weight, and after the rubber composition for a tire has been left for two weeks in a constant-temperature container in which a temperature is lower than a melting point of the wax by 30°C, a film thickness of the wax that is bloomed on a surface from the rubber composition for a tire is 0.2 to 1.5 μm, the melting point of the wax representing the maximum peak temperature of a heat flow curve obtained by measuring heat flow (mW/g) at a temperature rise rate of 5°C/min from -0°C to 100°C, using a differential scanning calorimeter.
A method for acquiring the health state of an object or a structural component using an electro-mechanical impedance technique by performing measurements at frequency points over a range of frequencies by using piezoelectric transducers operating as sensors/actuators at the same time, the method comprising a. providing sine wave excitation, at both constant frequency and amplitude, for each frequency point over a range of frequencies; b. analog quantizing to measure the RMS circulating current (I RMS) and the average consumed power (P(Θ)) of each transducer in order to determine the resistive part of the electromechanical impedance using the equation: R = P Θ / I RMS 2 wherein Θ is the phase shift between the excitation voltage applied to the transducer and the created current; and c. wherein the method uses only one transducer to monitor the health state of a pre-determined area of an object or structure. a. providing sine wave excitation, at both constant frequency and amplitude, for each frequency point over a range of frequencies; b. analog quantizing to measure the RMS circulating current (I RMS) and the average consumed power (P(Θ)) of each transducer in order to determine the resistive part of the electromechanical impedance using the equation: R = P Θ / I RMS 2 wherein Θ is the phase shift between the excitation voltage applied to the transducer and the created current; and c. wherein the method uses only one transducer to monitor the health state of a pre-determined area of an object or structure.
A method for assigning an evolved packet system bearer identity, EBI, comprising: obtaining, by a transmission management apparatus, user plane security enforcement information of a packet data unit, PDU, session, wherein the user plane security enforcement information comprises integrity protection requirement information; when the integrity protection requirement information of the PDU session indicates integrity protection is required for the PDU session, skipping sending, by the transmission management apparatus, an EBI assignment request information to an access management apparatus during establishment of a quality of service, QoS, flow in the PDU session, wherein the EBI assignment request information requests to assign an EBI to an evolved packet system, EPS, bearer to which the QoS flow is mapped in the EPS, wherein the QoS flow is a default QoS flow or a guaranteed bit rate, GBR, QoS flow, the EPS bearer is a default EPS bearer or a dedicated GBR EPS bearer. obtaining, by a transmission management apparatus, user plane security enforcement information of a packet data unit, PDU, session, wherein the user plane security enforcement information comprises integrity protection requirement information; when the integrity protection requirement information of the PDU session indicates integrity protection is required for the PDU session, skipping sending, by the transmission management apparatus, an EBI assignment request information to an access management apparatus during establishment of a quality of service, QoS, flow in the PDU session, wherein the EBI assignment request information requests to assign an EBI to an evolved packet system, EPS, bearer to which the QoS flow is mapped in the EPS, wherein the QoS flow is a default QoS flow or a guaranteed bit rate, GBR, QoS flow, the EPS bearer is a default EPS bearer or a dedicated GBR EPS bearer.
A copolyester comprising repeating units derived from an aliphatic glycol, an aromatic dicarboxylic acid, and the monomer of formula: wherein n = 2, 3 or 4, Z is S(=O) 2, and wherein comonomer constitutes a proportion of the glycol fraction of the copolyester.
A method for removing a pitch bearing operatively coupled between a rotor blade and a hub of a wind turbine, the hub configured atop a tower of the wind turbine, said tower extending from a support surface, the method comprising: installing a first pulley block at an up-tower location of the wind turbine; configuring a second pulley block with the pitch bearing; routing a pulley cable from a ground location through a ground winch supported on and/or adjacent to the support surface over the first pulley block to the second pulley block such that the second pulley block is configured to slide along the pulley cable; removing the pitch bearing from between the hub and the rotor blade in a substantially horizontal position; rotating the pitch bearing to a tilted position, wherein the tilted position comprises a leading edge of the pitch bearing being lower than a trailing edge of the pitch bearing; and lowering the pitch bearing from atop the tower in the tilted position. installing a first pulley block at an up-tower location of the wind turbine; configuring a second pulley block with the pitch bearing; routing a pulley cable from a ground location through a ground winch supported on and/or adjacent to the support surface over the first pulley block to the second pulley block such that the second pulley block is configured to slide along the pulley cable; removing the pitch bearing from between the hub and the rotor blade in a substantially horizontal position; rotating the pitch bearing to a tilted position, wherein the tilted position comprises a leading edge of the pitch bearing being lower than a trailing edge of the pitch bearing; and lowering the pitch bearing from atop the tower in the tilted position.
A nucleic acid construct comprising: a viral vector; and an NPC1 gene sequence under control of an elongation factor 1 α (EF1α) promoter, optionally wherein the EF1α promoter comprises SEQ ID NO: 8. a viral vector; and an NPC1 gene sequence under control of an elongation factor 1 α (EF1α) promoter,
A method for sending data in a bus architecture from at least one slave device to a plurality of master pathways via a bus, the architecture comprising a buffer for buffering data from the at least one slave device, wherein a clock rate of the bus is higher than a clock rate of each master pathway, the method comprising the steps of: a) maintaining, in the buffer, a data queue for each master pathway for data packets received from the slave device; b) selecting a data packet at the front of each master pathway queue in the buffer in a round robin manner; and c) sending, via the bus, the selected data packet to the master pathway to which it is directed. a) maintaining, in the buffer, a data queue for each master pathway for data packets received from the slave device; b) selecting a data packet at the front of each master pathway queue in the buffer in a round robin manner; and c) sending, via the bus, the selected data packet to the master pathway to which it is directed.
A wood kiln comprising: a vacuum chamber (102, 202); a central plate electrode (104, 404) disposed within the vacuum chamber, the central plate electrode having a first planar pressing surface, a first angled flange (118, 418) flanking the first planar pressing surface (114, 414), a second planar pressing surface (116, 416) disposed opposite the first planar pressing surface, and a second angled flange (120, 420) flanking the second planar pressing surface; a first ground plate electrode (106,406) disposed within the vacuum chamber, wherein the first ground plate electrode is disposed on a first side of the central plate electrode; a second ground plate electrode (108, 408) disposed within the vacuum chamber, wherein the second ground plate electrode is disposed on a second side of the central plate electrode, opposite the first ground plate electrode, wherein the central plate electrode, the first ground plate electrode, and the second ground plate electrode are arranged in parallel, and further wherein the first angled flange of the central plate electrode is angled toward the first ground plate electrode, and the second angled flange of the central plate electrode is angled toward the second ground plate electrode and away from the first angled flange; and a radiofrequency generator coupled to the central plate electrode. a vacuum chamber (102, 202); a central plate electrode (104, 404) disposed within the vacuum chamber, the central plate electrode having a first planar pressing surface, a first angled flange (118, 418) flanking the first planar pressing surface (114, 414), a second planar pressing surface (116, 416) disposed opposite the first planar pressing surface, and a second angled flange (120, 420) flanking the second planar pressing surface; a first ground plate electrode (106,406) disposed within the vacuum chamber, wherein the first ground plate electrode is disposed on a first side of the central plate electrode; a second ground plate electrode (108, 408) disposed within the vacuum chamber, wherein the second ground plate electrode is disposed on a second side of the central plate electrode, opposite the first ground plate electrode, wherein the central plate electrode, the first ground plate electrode, and the second ground plate electrode are arranged in parallel, and further wherein the first angled flange of the central plate electrode is angled toward the first ground plate electrode, and the second angled flange of the central plate electrode is angled toward the second ground plate electrode and away from the first angled flange; and a radiofrequency generator coupled to the central plate electrode.
A method performed by a terminal in a wireless communication system, the method comprising: receiving (le-25), from a first base station, a predetermined radio resource control, RRC, message including logged measurement configuration information for a minimization of drive test, MDT, while the terminal is in a connected mode, the logged measurement configuration information including a logging duration value for a first timer; upon receiving the logged MDT configuration information, running (le-30) the first timer, the value of the first timer being configured as equal to the logging duration value; when the terminal is switched (le-35) to an RRC inactive mode, performing (1e-40) a logging of measurement in the RRC inactive mode based on the logged measurement configuration until the first timer expires (le-45), wherein the terminal measures signal strength of a serving cell and a neighboring cell, acquires location information thereof, and stores information on the signal strength of the serving cell and the neighboring cell and the location information based on a logging interval period; receiving (le-70), from the second base station, a request message requesting to report the logged measurement; and transmitting (le-75), to the second base station, a response message including information on the logged measurement. receiving (le-25), from a first base station, a predetermined radio resource control, RRC, message including logged measurement configuration information for a minimization of drive test, MDT, while the terminal is in a connected mode, the logged measurement configuration information including a logging duration value for a first timer; upon receiving the logged MDT configuration information, running (le-30) the first timer, the value of the first timer being configured as equal to the logging duration value; when the terminal is switched (le-35) to an RRC inactive mode, performing (1e-40) a logging of measurement in the RRC inactive mode based on the logged measurement configuration until the first timer expires (le-45), wherein the terminal measures signal strength of a serving cell and a neighboring cell, acquires location information thereof, and stores information on the signal strength of the serving cell and the neighboring cell and the location information based on a logging interval period; receiving (le-70), from the second base station, a request message requesting to report the logged measurement; and transmitting (le-75), to the second base station, a response message including information on the logged measurement.
A one-component structural adhesive, comprising: one or more epoxy resins; at least one toughening rubber; a polytetrahydrofuran-based toughener that has isocyanate groups that are blocked or capped with a phenolic compound, an aminophenolic compound, a primary or secondary aliphatic or cycloaliphatic amine, an alalkyl alcohol, an aromatic amine, an alakyl benzyl amine or an alkyl thiol; and one or more epoxy curing agents; wherein the polytetrahydrofuran-based toughener includes a liquid or low-melting elastomeric material having capped or blocked reactive groups and at least one polytetrahydrofuran block having a weight of from 2200 to 4500 daltons (2200 to 4500 grams/mole); and wherein the toughening rubber is a rubber-modified epoxy resin, a core-shell rubber or a combination of both and when the rubber-modified epoxy resin is present, the rubber-modified epoxy resin optionally serves as all or part of each of components and. one or more epoxy resins; at least one toughening rubber; a polytetrahydrofuran-based toughener that has isocyanate groups that are blocked or capped with a phenolic compound, an aminophenolic compound, a primary or secondary aliphatic or cycloaliphatic amine, an alalkyl alcohol, an aromatic amine, an alakyl benzyl amine or an alkyl thiol; and one or more epoxy curing agents;
An iron fulvate solution production method comprising: an apparatus preparation step of preparing a processing apparatus which comprises: a hermetic container internally having a closeable processing space; a steam jetting device operable to jet high-temperature and high-pressure steam into the hermetic container; a supply section for supplying a raw material into the hermetic container; and a discharge section for discharging, to the outside, a processed liquid produced through processing of the raw material by the steam; a raw material input step of inputting a raw material from the supply section into the processing space of the hermetic container of the processing apparatus, wherein the raw material comprises a woody plant material and an iron material, as main sub-raw materials; a processing step of subjecting the raw material to a subcritical water reaction processing, under stirring, while introducing steam having a temperature of 120 to 250°C and a pressure of 0.5 MPa (5 atm) to 3.5 MPa (35 atm) into the processing space in which the raw material is input, to obtain a mixed solution containing iron fulvate; and an iron fulvate solution taking-out step of separating the iron fulvate from the obtained mixed solution to take out an iron fulvate solution. an apparatus preparation step of preparing a processing apparatus which comprises: a hermetic container internally having a closeable processing space; a steam jetting device operable to jet high-temperature and high-pressure steam into the hermetic container; a supply section for supplying a raw material into the hermetic container; and a discharge section for discharging, to the outside, a processed liquid produced through processing of the raw material by the steam; a raw material input step of inputting a raw material from the supply section into the processing space of the hermetic container of the processing apparatus, wherein the raw material comprises a woody plant material and an iron material, as main sub-raw materials; a processing step of subjecting the raw material to a subcritical water reaction processing, under stirring, while introducing steam having a temperature of 120 to 250°C and a pressure of 0.5 MPa (5 atm) to 3.5 MPa (35 atm) into the processing space in which the raw material is input, to obtain a mixed solution containing iron fulvate; and an iron fulvate solution taking-out step of separating the iron fulvate from the obtained mixed solution to take out an iron fulvate solution.
A method of stabilizing a nanostructure, comprising: providing an elongated nanostructure disposed on a substrate; wherein the elongated nanostructure is a structure that has an aspect ratio with a length at least two times longer than the shortest width; and wherein the term nanostructure refers to any structure having dimensions of width or diameter less than 1 micron; wherein the elongated nanostructure has an attachment end attached to the substrate and a free end opposite the attachment end; and wherein a metal cap or metal coating is formed on the free end of the elongated nanostructure; characterized by coating the elongated nanostructure with a metal oxide coating. providing an elongated nanostructure disposed on a substrate; wherein the elongated nanostructure is a structure that has an aspect ratio with a length at least two times longer than the shortest width; and wherein the term nanostructure refers to any structure having dimensions of width or diameter less than 1 micron; wherein the elongated nanostructure has an attachment end attached to the substrate and a free end opposite the attachment end; and wherein a metal cap or metal coating is formed on the free end of the elongated nanostructure; characterized by coating the elongated nanostructure with a metal oxide coating.