mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting multi-bit scheduling request, SRs, from a user equipment, UE, the method comprising: receiving, at the UE, a radio resource control, RRC, message from a base station, wherein the RRC message indicates that uplink component carriers, CCs, of the UE are to be assigned to a plurality of uplink CC groups, wherein the plurality of uplink CC groups include a first uplink CC group and a second uplink CC group; assigning the uplink CCs to the plurality of uplink CC groups; generating, at the UE, a multi-bit SR for each group of the plurality of uplink CC groups, wherein the generating includes generating a first multi-bit SR for the first uplink CC group and a second multi-bit SR for the second uplink CC group, wherein a first number of bits of the first multi-bit SR is different from a second number of bits of the second multi-bit SR; mapping each logical channel of a plurality of logical channels at the UE to one or more uplink CCs of the plurality of uplink CCs; and transmitting, from the UE, the multi-bit SR generated for each group of the plurality of uplink CC groups to a base station. receiving, at the UE, a radio resource control, RRC, message from a base station, wherein the RRC message indicates that uplink component carriers, CCs, of the UE are to be assigned to a plurality of uplink CC groups, wherein the plurality of uplink CC groups include a first uplink CC group and a second uplink CC group; assigning the uplink CCs to the plurality of uplink CC groups; generating, at the UE, a multi-bit SR for each group of the plurality of uplink CC groups, wherein the generating includes generating a first multi-bit SR for the first uplink CC group and a second multi-bit SR for the second uplink CC group, wherein a first number of bits of the first multi-bit SR is different from a second number of bits of the second multi-bit SR; mapping each logical channel of a plurality of logical channels at the UE to one or more uplink CCs of the plurality of uplink CCs; and transmitting, from the UE, the multi-bit SR generated for each group of the plurality of uplink CC groups to a base station.
A method of wireless communication by a user equipment, UE, comprising: receiving (308; 502), at the UE, a random access response including a first signal via a first physical channel and a second signal via a second physical channel from a base station, BS; generating a connection request based on the random access response; estimating a carrier to interference plus noise ratio, CINR, of a random-access channel based on at least one of the first signal or the second signal; and sending (310; 508) a message including the CINR and the connection request to the BS in response to the random access response. receiving (308; 502), at the UE, a random access response including a first signal via a first physical channel and a second signal via a second physical channel from a base station, BS; generating a connection request based on the random access response; estimating a carrier to interference plus noise ratio, CINR, of a random-access channel based on at least one of the first signal or the second signal; and sending (310; 508) a message including the CINR and the connection request to the BS in response to the random access response.
A dental treatment apparatus comprising: a drive unit (7, 13) that is configured to drive a cutting tool held at a head of a handpiece; a controller that is configured to control the drive unit (7, 13) that drives the cutting tool; and a position detector that is configured to detect a position of a tip end of the cutting tool within a root canal by electric root canal length measurement, wherein the controller is configured to have the cutting tool held at the head forward driven in a direction of cutting of an object to be cut, have the cutting tool reverse driven in a direction reverse to forward rotation drive when the cutting tool is forward driven and the position detector detects the tip end of the cutting tool reaching a reference position, and carry out fail-safe control when the cutting tool is reverse driven and the position detector detects movement of the tip end of the cutting tool toward a root apex position. a drive unit (7, 13) that is configured to drive a cutting tool held at a head of a handpiece; a controller that is configured to control the drive unit (7, 13) that drives the cutting tool; and a position detector that is configured to detect a position of a tip end of the cutting tool within a root canal by electric root canal length measurement, wherein the controller is configured to have the cutting tool held at the head forward driven in a direction of cutting of an object to be cut, have the cutting tool reverse driven in a direction reverse to forward rotation drive when the cutting tool is forward driven and the position detector detects the tip end of the cutting tool reaching a reference position, and carry out fail-safe control when the cutting tool is reverse driven and the position detector detects movement of the tip end of the cutting tool toward a root apex position. have the cutting tool held at the head forward driven in a direction of cutting of an object to be cut, have the cutting tool reverse driven in a direction reverse to forward rotation drive when the cutting tool is forward driven and the position detector detects the tip end of the cutting tool reaching a reference position, and carry out fail-safe control when the cutting tool is reverse driven and the position detector detects movement of the tip end of the cutting tool toward a root apex position.
Use of dimethyl dicarbonate (DMDC) and cyclic polyphosphates for the sterilization of drinks which have been contaminated with acetic acid bacteria, preferably the subsequent preservation thereof, in the absence of lauroyl ethyl arginate and trans-cinnamic acid.
A metering solenoid, which comprises at least one main body placed in a housing and having an exciter coil, and further comprises an armature bore and a metering pump disposed in the armature bore, said metering pump having an armature operating in the direction of the longitudinal axis of the armature bore, whereby two magnetically conductive bushings (8, 9) are disposed in the armature bore, said conductive bushings being axially spaced from one another by a non-magnetic section, characterised in that a coupling element is also provided in the armature bore, on or in said coupling element the two bushings (8, 9) are located axially at a distance from one another, whereby a non-magnetic portion having a desired length in the form of an elastomeric ring is arranged between the two bushings (8, 9).
A forestry management system comprising: a forestry manager configured to receive information relating to a number of soil conditions for a location in a forest from a sensor system deployed by a group of aerial vehicles and identify a mission based on the number of soil conditions, wherein the sensor system comprises soil sensor units, the soil sensor units being bottom heavy comprising pins and housing, the pins and housing being weighted such that the pins extend into the ground when the soil sensor units are deployed through an airdrop. a forestry manager configured to receive information relating to a number of soil conditions for a location in a forest from a sensor system deployed by a group of aerial vehicles and identify a mission based on the number of soil conditions, wherein the sensor system comprises soil sensor units, the soil sensor units being bottom heavy comprising pins and housing, the pins and housing being weighted such that the pins extend into the ground when the soil sensor units are deployed through an airdrop.
A navigation system including a computing device and a navigation device, the navigation device for determining the location of the navigation device and comprising a location determining module to generate data relating to a geographic location of the navigation device, and to adjust frequency of transmission of the data over a communication interface based on a selectable threshold value representing an amount of change in the geographic location of the navigation device, characterised in the computing device being connected to the communication interface for receiving the data, the computing device including a device driver arranged to provide a data stream including the data relating to the location of the navigation device received over the communication interface and, in the absence of data received over the communication interface, maintain the data stream with data based on the last location data or information that it received from the navigation device.
A solid-state imaging device (1, 31), comprising: a plurality of photoelectric conversion elements including: a first photoelectric conversion element, a second photoelectric conversion element, a third photoelectric conversion element, and a fourth photoelectric conversion element; a plurality of pixel transistors including a transfer transistor, a reset transistor, an amplifier transistor, and a selection transistor; and a floating diffusion region; wherein, the floating diffusion region, the reset transistor, the amplifier transistor, and the selection transistor are shared with the first photoelectric conversion element, the second photoelectric conversion element, the third photoelectric conversion element, and the fourth photoelectric conversion element; the first and second photoelectric conversion elements (PD1, PD2) are disposed in a first row; the third and fourth photoelectric conversion elements (PD3, PD4) are disposed in a second row; the reset transistor, the amplifier transistor, and the selection transistor are disposed in a third row; and characterized by the second row is disposed between the first row and the third row. a plurality of photoelectric conversion elements including: a first photoelectric conversion element, a second photoelectric conversion element, a third photoelectric conversion element, and a fourth photoelectric conversion element; a plurality of pixel transistors including a transfer transistor, a reset transistor, an amplifier transistor, and a selection transistor; and a floating diffusion region; wherein, a first photoelectric conversion element, a second photoelectric conversion element, a third photoelectric conversion element, and a fourth photoelectric conversion element; a plurality of pixel transistors including a transfer transistor, a reset transistor, an amplifier transistor, and a selection transistor; and a floating diffusion region; the floating diffusion region, the reset transistor, the amplifier transistor, and the selection transistor are shared with the first photoelectric conversion element, the second photoelectric conversion element, the third photoelectric conversion element, and the fourth photoelectric conversion element; the first and second photoelectric conversion elements (PD1, PD2) are disposed in a first row; the first and second photoelectric conversion elements (PD1, PD2) are disposed in a first row; the third and fourth photoelectric conversion elements (PD3, PD4) are disposed in a second row; the reset transistor, the amplifier transistor, and the selection transistor are disposed in a third row; and characterized by the second row is disposed between the first row and the third row. the reset transistor, the amplifier transistor, and the selection transistor are disposed in a third row; and characterized by the second row is disposed between the first row and the third row.
- A method for targeting and acquiring a target for a platform, the method being characterised in that: - at least one rotary-wing drone is implemented, equipped with a nacelle carrying an acquisition device that can be oriented in elevation and relative bearing relative to the drone, the acquisition device including a target camera that can be oriented toward a target during the orientation of the acquisition device, the drone and the acquisition device being controlled from the platform; - a target is targeted at least once from the target camera; - the pose, that is to say the location and the orientation of the axes of a frame linked to the acquisition device, called target frame Rv, in a reference frame Rp linked to the platform, is determined; - the pose being determined using an observation means connected to a computing means, the observation means being rigidly linked to the target camera and ensuring an observation of the space with an angular coverage of substantially 360° about a target axis of the target camera, the observation means allowing observation of the platform during targeting of the target camera, the pose being determined by comparing the geometry of the platform with at least one three-dimensional digital model of this platform, which has been placed in a memory of the computing means; - the pose(s) of the acquisition device associated with the target videos of the target are sent to the platform from the drone. - at least one rotary-wing drone is implemented, equipped with a nacelle carrying an acquisition device that can be oriented in elevation and relative bearing relative to the drone, the acquisition device including a target camera that can be oriented toward a target during the orientation of the acquisition device, the drone and the acquisition device being controlled from the platform; - a target is targeted at least once from the target camera; - the pose, that is to say the location and the orientation of the axes of a frame linked to the acquisition device, called target frame Rv, in a reference frame Rp linked to the platform, is determined; - the pose being determined using an observation means connected to a computing means, the observation means being rigidly linked to the target camera and ensuring an observation of the space with an angular coverage of substantially 360° about a target axis of the target camera, the observation means allowing observation of the platform during targeting of the target camera, the pose being determined by comparing the geometry of the platform with at least one three-dimensional digital model of this platform, which has been placed in a memory of the computing means; - the pose(s) of the acquisition device associated with the target videos of the target are sent to the platform from the drone.
A waveguide apparatus for an illumination system, comprising: a waveguide (100, 101) being a multi-mode fiber, in which a core medium is in contact with a cladding medium and in which primary light is to propagate along its longitudinal axis, the waveguide (100, 101) having formed therein a first zone (105; 108), being a laser-induced modification of at least the core medium that runs along the longitudinal axis and that is to scatter the propagating primary light out of the waveguide (100, 101) in a directional radiation pattern having a predetermined radial spread of less than 360 degrees at a desired radial position, wherein the first zone of scattering structures is a laser-induced modification of the multi-mode fiber that varies along and transverse to the primary light propagation direction and are adapted to redirect the propagating primary light out of a side surface of the multi-mode fiber at a desired position along the longitudinal axis with a desired directional radiation pattern at the desired radial position, and wherein said scattering zone includes separate sets of scattering structures configured to scatter different wavelength ranges of primary light; and a photo-luminescent medium that runs along the longitudinal axis of the waveguide (100, 101), and is positioned to absorb the scattered primary light to thereby emit a secondary wavelength converted light, the photo-luminescent medium whose longitudinal extension is non-continuous or non-uniform providing photo-luminescent segments, each of the photo-luminescent segments is designed to respond to a respective primary light wavelength. a waveguide (100, 101) being a multi-mode fiber, in which a core medium is in contact with a cladding medium and in which primary light is to propagate along its longitudinal axis, the waveguide (100, 101) having formed therein a first zone (105; 108), being a laser-induced modification of at least the core medium that runs along the longitudinal axis and that is to scatter the propagating primary light out of the waveguide (100, 101) in a directional radiation pattern having a predetermined radial spread of less than 360 degrees at a desired radial position, wherein the first zone of scattering structures is a laser-induced modification of the multi-mode fiber that varies along and transverse to the primary light propagation direction and are adapted to redirect the propagating primary light out of a side surface of the multi-mode fiber at a desired position along the longitudinal axis with a desired directional radiation pattern at the desired radial position, and wherein said scattering zone includes separate sets of scattering structures configured to scatter different wavelength ranges of primary light; and a photo-luminescent medium that runs along the longitudinal axis of the waveguide (100, 101), and is positioned to absorb the scattered primary light to thereby emit a secondary wavelength converted light, the photo-luminescent medium whose longitudinal extension is non-continuous or non-uniform providing photo-luminescent segments, each of the photo-luminescent segments is designed to respond to a respective primary light wavelength.
A controller configured to maneuver a saddled vehicle, the saddled vehicle including a braking operation unit (11, 13) and a detector (45a, 45b), the braking operation unit (11, 13) configured to be operated by a rider, the detector (45a, 45b) configured to detect a state quantity of the braking operation unit (11, 13) during a service braking, the controller comprising: a determination unit configured to determine, based on an output from the detector (45a, 45b), whether the braking operation unit (11, 13) is in operation; and an execution unit configured to execute a driving support mode when the determination unit determines that the braking operation unit (11, 13) is in operation, the driving support mode in which a braking force generated in the saddled vehicle is amplified, characterized in that the execution unit, in the driving support mode: amplifies the braking force based on a surrounding environment information that is information about environment around the saddled vehicle; and changes, based on a degree of change in the output from the detector (45a, 45b), a degree of reduction in the braking force at the end of the amplification of the braking force generated in the saddled vehicle. a determination unit configured to determine, based on an output from the detector (45a, 45b), whether the braking operation unit (11, 13) is in operation; and an execution unit configured to execute a driving support mode when the determination unit determines that the braking operation unit (11, 13) is in operation, the driving support mode in which a braking force generated in the saddled vehicle is amplified, characterized in that the execution unit, in the driving support mode: amplifies the braking force based on a surrounding environment information that is information about environment around the saddled vehicle; and changes, based on a degree of change in the output from the detector (45a, 45b), a degree of reduction in the braking force at the end of the amplification of the braking force generated in the saddled vehicle. amplifies the braking force based on a surrounding environment information that is information about environment around the saddled vehicle; and changes, based on a degree of change in the output from the detector (45a, 45b), a degree of reduction in the braking force at the end of the amplification of the braking force generated in the saddled vehicle.
A process for preparing sulfonated block polymers in non-halogenated aliphatic solvents, comprising the steps of: (a) providing a. block copolymer (the precursor block copolymer) having at least two end blocks A and at least one interior block B, wherein each A block is a polymer block resistant to sulfonation and each B block is a polymer block susceptible to sulfonation; (b) reacting the precursor block polymer with a C2 to C8 acyl sulfate in a reaction mixture further comprising at least one non-halogenated aliphatic solvent to form a sulfonated block polymer, therein resulting in the formation of a solution of a sulfonated block copolymer and a residual carboxylic acid; and (c) subsequently reacting the residual carboxylic acid contacted with a C1 to C4 alcohol or mixture thereof in a molar ratio of alcohol to residual carboxylic acid of at least 0.9:1 to form the corresponding alkyl esters of the carboxylic acid and to reduce the residual level of the organic residual acid to less than 2.0 wt% based on the total weight of the solution. (a) providing a. block copolymer (the precursor block copolymer) having at least two end blocks A and at least one interior block B, wherein each A block is a polymer block resistant to sulfonation and each B block is a polymer block susceptible to sulfonation; (b) reacting the precursor block polymer with a C2 to C8 acyl sulfate in a reaction mixture further comprising at least one non-halogenated aliphatic solvent to form a sulfonated block polymer, therein resulting in the formation of a solution of a sulfonated block copolymer and a residual carboxylic acid; and (c) subsequently reacting the residual carboxylic acid contacted with a C1 to C4 alcohol or mixture thereof in a molar ratio of alcohol to residual carboxylic acid of at least 0.9:1 to form the corresponding alkyl esters of the carboxylic acid and to reduce the residual level of the organic residual acid to less than 2.0 wt% based on the total weight of the solution.
Gas turbine engine with a geared turbofan arrangement with a gearbox, in particular a planetary gearbox, in a drive train (105, 103, 101) driven by a turbine (18, 19), a driving side of the gearbox being driveably connected with a propulsive fan, with at least one torque transmission device positioned in the drive train (105, 103, 101), the torque transmission device having an asymmetric torque transmission characteristic, so that torque is transmittable by the torque transmission device under a nominal rotational direction and no torque is transmittable by the torque transmission device in a non-nominal rotational direction, characterized in that the at least one torque transmission device comprises a torque input device and a torque output device with a plurality of torque transmission elements extending from the torque input device to the torque output device or from the torque output device to the torque input device establishing under the nominal rotational direction a friction connection and / or a form locking connection between the torque input device and the torque output device, wherein the transmission elements are configured as eccentric cam elements configured to block the rotation in the non-nominal direction.