mhurhangee/ep-ind-claims huggingface dataset:
A method for multiplexing data for an enhanced uplink, EU, channel implemented by a wireless transmit/receive unit, WTRU, the method comprising: receiving at least one serving grant and at least one non-scheduled grant, wherein the at least one serving grant is a grant for scheduled data transmission and the at least one non-scheduled grant is a grant for non-scheduled data transmission; multiplexing data from medium access control for dedicated channel, MAC-d, flows into an enhanced uplink medium access control, MAC-e, protocol data unit, PDU, wherein a data multiplexing limit is at least based on an EU transport format combination, E-TFC, size and a size based on the at least one serving grant and the at least one non-scheduled grant; selecting an E-TFC for transmission of the MAC-e PDU, wherein the selected E-TFC is a smallest E-TFC that supports the multiplexed data; and transmitting the MAC-e PDU based on the selected E-TFC over an EU channel. receiving at least one serving grant and at least one non-scheduled grant, wherein the at least one serving grant is a grant for scheduled data transmission and the at least one non-scheduled grant is a grant for non-scheduled data transmission; multiplexing data from medium access control for dedicated channel, MAC-d, flows into an enhanced uplink medium access control, MAC-e, protocol data unit, PDU, wherein a data multiplexing limit is at least based on an EU transport format combination, E-TFC, size and a size based on the at least one serving grant and the at least one non-scheduled grant; selecting an E-TFC for transmission of the MAC-e PDU, wherein the selected E-TFC is a smallest E-TFC that supports the multiplexed data; and transmitting the MAC-e PDU based on the selected E-TFC over an EU channel.
A computer-implemented method for validating a position of a vehicle, the method comprising: determining a first position of an element with respect to a first position of the vehicle via a first positioning system; providing a first representation of the first position of the element and the first position of the vehicle on a first image; determining a second position of the element with respect to a second position of the vehicle via a second positioning system; providing a second representation of the second position of the element and the second position of the vehicle on a second image; scaling and aligning the first image and the second image such that the first position of the element aligns with the second position of the element; determining an offset between the first position of the vehicle and the second position of the vehicle; characterised in that, if the offset exceeds a threshold offset, providing a notification to indicate a potential error in the position of the vehicle, wherein the vehicle comprises a first ship, wherein the element comprises a second ship, and wherein the second positioning system comprises an Automated Identification System, AIS, component operative to receive and interpret transmitted AIS signals. determining a first position of an element with respect to a first position of the vehicle via a first positioning system; providing a first representation of the first position of the element and the first position of the vehicle on a first image; determining a second position of the element with respect to a second position of the vehicle via a second positioning system; providing a second representation of the second position of the element and the second position of the vehicle on a second image; scaling and aligning the first image and the second image such that the first position of the element aligns with the second position of the element; determining an offset between the first position of the vehicle and the second position of the vehicle; characterised in that, if the offset exceeds a threshold offset, providing a notification to indicate a potential error in the position of the vehicle, wherein the vehicle comprises a first ship, wherein the element comprises a second ship, and wherein the second positioning system comprises an Automated Identification System, AIS, component operative to receive and interpret transmitted AIS signals.
An air conditioning pack comprising: an air cycle assembly configured to receive bleed air and utilize the bleed air to compress ram air; a vapor cycle system configured to receive the compressed ram air and to reduce an operating temperature of the compressed ram air; and a mixing duct (138A, 138B, 138C) configured to receive the compressed ram air and mix the compressed ram air with the bleed air to generate a hybrid air stream that is used for cooling at least a portion of a vehicle. an air cycle assembly configured to receive bleed air and utilize the bleed air to compress ram air; a vapor cycle system configured to receive the compressed ram air and to reduce an operating temperature of the compressed ram air; and a mixing duct (138A, 138B, 138C) configured to receive the compressed ram air and mix the compressed ram air with the bleed air to generate a hybrid air stream that is used for cooling at least a portion of a vehicle.
Cutting head for a rotary tool according to one of claims 3 to 8, which cutting head extends in the axial direction along an axis of rotation and has a coupling pin with outer lateral surfaces, on which torque sections and clamping sections are formed, characterized in that the torque sections and the clamping sections extend in parallel to the axis of rotation and that the coupling pin furthermore has effective stop surfaces in the axial direction for an axial pullout safety device.
A method of obtaining application control information for a contents receiving apparatus, the method comprising: receiving application control information, including effective duration information, from a server; determining whether a current control time point is within a time period represented by the effective duration information; and automatically selectively requesting other application control information from the server in response to the determining, wherein the automatically selectively requesting is not dependent on transmission period. receiving application control information, including effective duration information, from a server; determining whether a current control time point is within a time period represented by the effective duration information; and automatically selectively requesting other application control information from the server in response to the determining, wherein the automatically selectively requesting is not dependent on transmission period.
A method of manufacturing a semiconductor device, comprising the steps of: forming a compound semiconductor layer over a silicon carbide (SiC) substrate; forming a gate electrode, a source electrode and a drain electrode on said compound semiconductor layer; forming an opening reaching at least a surface of said silicon carbide substrate in said compound semiconductor layer; forming a first metal layer containing metal having a melting point higher than that of titanium (Ti) in said opening; forming a conductive layer coupled to said source electrode on said first metal layer in said opening; conducting dry etching from a back side of said silicon carbide substrate while making said conductive layer serve as an etching stopper so as to form a via hole reaching said conductive layer; and forming a via wiring extending from an inside of said via hole to a back surface of said silicon carbide substrate. forming a compound semiconductor layer over a silicon carbide (SiC) substrate; forming a gate electrode, a source electrode and a drain electrode on said compound semiconductor layer; forming an opening reaching at least a surface of said silicon carbide substrate in said compound semiconductor layer; forming a first metal layer containing metal having a melting point higher than that of titanium (Ti) in said opening; forming a conductive layer coupled to said source electrode on said first metal layer in said opening; conducting dry etching from a back side of said silicon carbide substrate while making said conductive layer serve as an etching stopper so as to form a via hole reaching said conductive layer; and forming a via wiring extending from an inside of said via hole to a back surface of said silicon carbide substrate.
A terminal, comprising: a transmission unit configured to transmit a first message to a base station, the first message including a random access preamble for a two-step random access procedure or for a four-step random access procedure; a reception unit configured to receive a second message as a response to the first message, from the base station; and a control unit configured to, if radio quality in communication with the base station satisfies a condition, perform the two-step random access procedure, and, if the radio quality in communication with the base station does not satisfy the condition, perform the four-step random access procedure; characterized in that, when performing the two-step random access procedure, the control unit is configured to select a random access preamble group based on a size of the first message and a pathloss to which an offset to the target reception power configured for the two-step random access procedure is applied. a transmission unit configured to transmit a first message to a base station, the first message including a random access preamble for a two-step random access procedure or for a four-step random access procedure; a reception unit configured to receive a second message as a response to the first message, from the base station; and a control unit configured to, if radio quality in communication with the base station satisfies a condition, perform the two-step random access procedure, and, if the radio quality in communication with the base station does not satisfy the condition, perform the four-step random access procedure; characterized in that, when performing the two-step random access procedure, the control unit is configured to select a random access preamble group based on a size of the first message and a pathloss to which an offset to the target reception power configured for the two-step random access procedure is applied.
Sensor element for measuring a temperature, having - a carrier, wherein the carrier has an electrically insulating material, and wherein the carrier has a top side and a bottom side, - an NTC thermistor, wherein the NTC thermistor is arranged on the top side of the carrier, - at least two first electrodes (4, 40) for electrically contacting the sensor element, wherein the first electrodes (4, 40) are arranged on the top side of the carrier, wherein the respective first electrode has a first region for electrically contacting the sensor element by means of wire bonding or soldering, and wherein the respective first electrode has a second region for contacting the NTC thermistor by means of soldering, wherein the first region and the second region are linked to one another by way of a web-shaped connecting region, - at least one second electrode that is formed over the entire surface of the bottom side of the carrier and is designed and arranged to be applied directly to a conductor track of a power module using conventional construction and connection technology, wherein the sensor element is designed to be integrated directly in an electrically insulating manner. - a carrier, wherein the carrier has an electrically insulating material, and wherein the carrier has a top side and a bottom side, - an NTC thermistor, wherein the NTC thermistor is arranged on the top side of the carrier, - at least two first electrodes (4, 40) for electrically contacting the sensor element, wherein the first electrodes (4, 40) are arranged on the top side of the carrier, wherein the respective first electrode has a first region for electrically contacting the sensor element by means of wire bonding or soldering, and wherein the respective first electrode has a second region for contacting the NTC thermistor by means of soldering, wherein the first region and the second region are linked to one another by way of a web-shaped connecting region, - at least one second electrode that is formed over the entire surface of the bottom side of the carrier and is designed and arranged to be applied directly to a conductor track of a power module using conventional construction and connection technology,
A composition for use in a method of treating cancer, wherein the composition comprises a PD-1 inhibitor, a CTLA-4 inhibitor, and a soluble Toso protein.
Undercarriage for an agricultural device, in particular soil cultivation and/or distributing machine, with a plurality of tyres which are arranged in a row next to one another and form a tyre packer in the manner of a divided roller, wherein the tyres are arranged by means of rockers, which are arranged non-rotatably on a supporting bar extending transversely with respect to the direction of travel of the device, wherein, in the working position of the roller, at least some of the tyres which are adjacent to one another are arranged offset with respect to one another in the direction of travel, wherein, by rotation of the supporting bar about an axis of rotation running transversely with respect to the direction of travel, the tyres of the roller can be lowered from the working position into a transport position, in which at least some of the tyres form the undercarriage of the device, and can be raised from a transport position into a working position, characterized in that at least some of the tyres are arranged on the supporting bar by means of the rockers in the transport position of the device in such a manner that an envelope applied to the contact area of the tyres on the ground has a profile rising to the centre of the device.
Screen device comprising a plurality of beams (1, 2), which in the mounted state of the screen device are mutually coupled with the aid of fastening means (3, 6, 10), whereby these fastening means (3, 6, 10): - comprise a first coupling piece, which i. comprises a first mounting cavity for the fitting herein of a first part of a first said beam; ii. and comprises a second mounting cavity for the fitting herein of a first part of a second said beam; characterized in that these fastening means also - comprise a second coupling piece, which i. comprises a first mounting cavity for the fitting herein of a second part of the first beam, which extends opposite the said first part of the first beam; ii. and comprises a second mounting cavity for the fitting herein of a second part of the second beam, which extends opposite the said first part of the second beam. - comprise a first coupling piece, which i. comprises a first mounting cavity for the fitting herein of a first part of a first said beam; ii. and comprises a second mounting cavity for the fitting herein of a first part of a second said beam; characterized in that these fastening means also i. comprises a first mounting cavity for the fitting herein of a first part of a first said beam; ii. and comprises a second mounting cavity for the fitting herein of a first part of a second said beam; - comprise a second coupling piece, which i. comprises a first mounting cavity for the fitting herein of a second part of the first beam, which extends opposite the said first part of the first beam; ii. and comprises a second mounting cavity for the fitting herein of a second part of the second beam, which extends opposite the said first part of the second beam. i. comprises a first mounting cavity for the fitting herein of a second part of the first beam, which extends opposite the said first part of the first beam; ii. and comprises a second mounting cavity for the fitting herein of a second part of the second beam, which extends opposite the said first part of the second beam.
An optical device manufacturing method comprising an encapsulating step of encapsulating a substrate-mounted optical semiconductor element by a liquid resin in a lens shape, and a curing step of curing the liquid resin by means of heaters, wherein the encapsulating step comprises a step wherein a tip of a nozzle (25; 125; 165) of a dispenser is brought close to the optical semiconductor element, and then the liquid resin is supplied while raising the nozzle (25; 125; 165) relative to the substrate, and a step wherein the nozzle (25; 125; 165) is further raised until liquid cut-off occurs even after the supply of the liquid resin is terminated, wherein the liquid resin has a viscosity at 23°C of 10 to 200 Pa·s and a thixotropy of 2.0 to 7.0 and the curing step is performed after the tip of the nozzle (25; 125; 165) is completely separated from the lens-shaped liquid resin by the encapsulating step, characterized in that with the liquid resin being in a pre-cured state, the substrate is delivered to the second encapsulating device, wherein a dispenser is raised as the supply of a further liquid resin from the tip of the nozzle begins, and the tip of the nozzle gradually moves away from the liquid resin while the further liquid resin is supplied, and wherein the supply of the further liquid resin is terminated when the liquid resin is in a state of being encapsulated by the further liquid resin in a lens shape.
A broadcast signal receiver, comprising: a synchronization and demodulation module configured to perform broadcast signal detection using a bootstrap located at a beginning of a signal frame in a broadcast signal, the bootstrap including preamble structure information indicating FFT, Fast Fourier Transform, size and guard interval information of a preamble, wherein: the signal frame includes the preamble and a data part following the preamble, the preamble including one or more preamble symbols that carry first information for decoding second information, and the second information for decoding data in the data part, a first preamble symbol followed by remaining preamble symbols has a minimum number of carriers, NoC, and the first information carried in the first preamble symbol includes NoC-related information for indicating an NoC that is related to the FFT size for the remaining preamble symbols, the synchronization and demodulation module is configured to extract a guard interval based on the guard interval information and demodulate the first preamble symbol based on the FFT size and the minimum number of carriers, NoC, and the remaining preamble symbols of the preamble based on the FFT size and the NoC-related information; a frame parsing module configured to parse the signal frame to parse DP, Data Pipe, data in the data part of the signal frame; a demapping and decoding module configured to convert the DP data into a bit domain and to perform Forward Error Correction, FEC, decoding on the DP data based on the second information; and an output processing module configured to output the DP data in a data stream form. the signal frame includes the preamble and a data part following the preamble, the preamble including one or more preamble symbols that carry first information for decoding second information, and the second information for decoding data in the data part, a first preamble symbol followed by remaining preamble symbols has a minimum number of carriers, NoC, and the first information carried in the first preamble symbol includes NoC-related information for indicating an NoC that is related to the FFT size for the remaining preamble symbols, the synchronization and demodulation module is configured to extract a guard interval based on the guard interval information and demodulate the first preamble symbol based on the FFT size and the minimum number of carriers, NoC, and the remaining preamble symbols of the preamble based on the FFT size and the NoC-related information; a frame parsing module configured to parse the signal frame to parse DP, Data Pipe, data in the data part of the signal frame; a demapping and decoding module configured to convert the DP data into a bit domain and to perform Forward Error Correction, FEC, decoding on the DP data based on the second information; and an output processing module configured to output the DP data in a data stream form.
A method of forming a substrate that contains an odor control coating, the method comprising forming a coating formulation comprising solvent, activated carbon, a binder, and a masking agent, said binder comprising a water-soluble organic polymer that includes a nonionic cellulosic ether and a water-insoluble co-binder, wherein said co-binder is a polymer latex selected from styrene-butadiene copolymers, polyvinyl acetate homopolymers, vinyl-acetate ethylene copolymers, vinyl-acetate acrylic copolymers, ethylene-vinyl chloride copolymers, ethylene-vinyl chloride-vinyl acetate terpolymers, acrylic polyvinyl chloride polymers, acrylic polymers and nitrile polymers, wherein said water-soluble organic polymer constitutes at least about 50 wt.% of said binder and wherein said masking agent comprises inorganic masking particles having an average size less than the average size of said activated carbon; applying the coating formulation to the substrate; and heating the resulting coated substrate to drive the solvent from the coating, preferably wherein the coated substrate is heated to at least about 50°C.
Magnet assembly (10; 10a) for a fuel injector, having a magnet coil arranged in a magnet core, which magnet coil interacts with a magnet armature which is arranged opposite a face side of the magnet coil and which serves at least indirectly for influencing a fuel flow, wherein the magnet core and the magnet coil are received in a pole tube housing which is composed of an inner pole tube (25; 25a) and an outer pole tube (16; 16a) which are arranged concentrically with respect to one another, wherein, between the inner pole tube (25; 25a) and the outer pole tube (16; 16a), on the side facing toward the magnet armature, there is formed a partition which is arranged preferably perpendicular to the longitudinal axis of the magnet armature and in which a non-magnetic intermediate element (32; 32a) is arranged so as to at least partially overlap the face side of the magnet coil, wherein the pole tube housing has, in the region of the partition, at least one magnetically active pole body (46, 47) at least partially overlapping the magnet core, and wherein the partition forms a hydraulic seal between a pressure chamber for the magnet armature and a receiving chamber for the magnet coil and the magnet core, characterized in that the inner pole tube and the outer pole tube are composed of non-magnetic material, and in that the inner pole tube and the outer pole tube are connected, in the region of the partition, to two ring-shaped pole bodies (46, 47) which are composed of magnetically active material and between which the non-magnetic intermediate element is arranged.