mhurhangee/ep-ind-claims huggingface dataset:
A transmission device of a wireless communication system, the device comprising: a transceiver configured to: transmit a compressed beacon frame by using each of a plurality of transmission beams, and receive, from a reception device, a compressed feedback frame comprising information on an optimum transmission beam of the transmission device identified by the reception device among the plurality of transmission beams; and at least one processor configured to perform a control of a beamforming based on the information on the optimum transmission beam of the transmission device identified by the reception device, wherein the compressed beacon frame is compressed by combining header information and data information into a single header, and wherein the single header comprises a beacon interval control field and a basic service set identification, BSSID, field. a transceiver configured to: transmit a compressed beacon frame by using each of a plurality of transmission beams, and receive, from a reception device, a compressed feedback frame comprising information on an optimum transmission beam of the transmission device identified by the reception device among the plurality of transmission beams; and at least one processor configured to perform a control of a beamforming based on the information on the optimum transmission beam of the transmission device identified by the reception device, transmit a compressed beacon frame by using each of a plurality of transmission beams, and receive, from a reception device, a compressed feedback frame comprising information on an optimum transmission beam of the transmission device identified by the reception device among the plurality of transmission beams; and at least one processor configured to perform a control of a beamforming based on the information on the optimum transmission beam of the transmission device identified by the reception device, wherein the compressed beacon frame is compressed by combining header information and data information into a single header, and wherein the single header comprises a beacon interval control field and a basic service set identification, BSSID, field.
A method for configuring a bearer for transmission of user data in a user plane based cellular Internet of Things, CIoT, by a base station in a wireless communication system, the method comprising: receiving a tracking area update, TAU, request message from a user equipment, UE; transmitting to a mobility management entity, MME, a UE context resume request message comprising the TAU request message; receiving from the MME a UE context resume failure message comprising a cause value; determining whether or not to keep a suspended UE context based on the cause value; and determining whether to provide an extended wait time to the UE based on the cause value. receiving a tracking area update, TAU, request message from a user equipment, UE; transmitting to a mobility management entity, MME, a UE context resume request message comprising the TAU request message; receiving from the MME a UE context resume failure message comprising a cause value; determining whether or not to keep a suspended UE context based on the cause value; and determining whether to provide an extended wait time to the UE based on the cause value.
A process to increase the enantiopurity of -3-(4-((4-(morpholinomethyl)benzyl)oxy)-1-oxoisoindolin-2-yl)piperidine-2,6-dione hydrochloride or a solvate thereof, comprising recrystallization or trituration of a sample of -3-(4-((4-(morpholinomethyl)benzyl)oxy)-1-oxoisoindolin-2-yl)piperidine-2,6-dione hydrochloride or a solvate thereof, in methanol, wherein the enantiomeric excess (ee) of the sample is from 0% to 95%, and the enantiopurity is increased by 1%, 5%, 10%, 15%, 20%, 25%, 30% or more.
A vehicle remote operating system that remotely operates a vehicle from a communication terminal, comprising: a dispatch position determination unit that determines a dispatch position of the vehicle on the basis of a parking position of the vehicle and a position of a passenger who intends to board the vehicle, wherein the dispatch position determination unit determines a position in which the vehicle stops; characterized in that: the dispatch position determination unit determines a position in which the vehicle stops with a driver's seat of the vehicle facing toward the passenger as the dispatch position when a distance between the obstacle that is present in the surroundings of the passenger and the passenger is larger than the width of the vehicle and the vehicle is movable to the position in which the vehicle stops with a driver's seat of the vehicle facing toward the passenger without switching between forward and reverse of the vehicle from the parking position. a dispatch position determination unit that determines a dispatch position of the vehicle on the basis of a parking position of the vehicle and a position of a passenger who intends to board the vehicle, wherein the dispatch position determination unit determines a position in which the vehicle stops; characterized in that: the dispatch position determination unit determines a position in which the vehicle stops with a driver's seat of the vehicle facing toward the passenger as the dispatch position when a distance between the obstacle that is present in the surroundings of the passenger and the passenger is larger than the width of the vehicle and the vehicle is movable to the position in which the vehicle stops with a driver's seat of the vehicle facing toward the passenger without switching between forward and reverse of the vehicle from the parking position. the dispatch position determination unit determines a position in which the vehicle stops with a driver's seat of the vehicle facing toward the passenger as the dispatch position when a distance between the obstacle that is present in the surroundings of the passenger and the passenger is larger than the width of the vehicle and the vehicle is movable to the position in which the vehicle stops with a driver's seat of the vehicle facing toward the passenger without switching between forward and reverse of the vehicle from the parking position.
Communication module for a building technology device, especially a luminaire, wherein the communication module is configured to be connectable to an IoT-network and a communication bus to which at least one bus device is detachably connected, and being configured for a bi-directional communication on the IoT-network and the communication bus, wherein the communication module is configured to convert communication data between the communication bus and the IoT-network, and characterized in that the communication module is configured to receive, from a bus device configured to selectively operate as a bus master, a request for assignment of a communication bus address on the communication bus including unique identifier of the bus device, that the communication module is configured to assign an address by associating the address with the unique identifier of the bus device and the communication module is configured to respond to the request by sending, to the bus device, the assigned address with communication bus address data, including the unique identifier, on the communication bus. the communication module is configured to be connectable to an IoT-network and a communication bus to which at least one bus device is detachably connected, and being configured for a bi-directional communication on the IoT-network and the communication bus, wherein the communication module is configured to convert communication data between the communication bus and the IoT-network, and characterized in that the communication module is configured to receive, from a bus device configured to selectively operate as a bus master, a request for assignment of a communication bus address on the communication bus including unique identifier of the bus device, that the communication module is configured to assign an address by associating the address with the unique identifier of the bus device and the communication module is configured to respond to the request by sending, to the bus device, the assigned address with communication bus address data, including the unique identifier, on the communication bus.
Embossing cylinder suitable for receiving a sleeve-shaped embossing die, wherein the embossing cylinder has a body shaped like a hollow cylinder and a tensioning system for expanding the body shaped like a hollow cylinder, characterized in that the body shaped like a hollow cylinder includes a first separation edge (3.1) and a second separation edge (3.2), said separation edges (3.1, 3.2) oriented in the longitudinal direction of the body shaped like a hollow cylinder to form a jacket surface interrupted by a gap, in that the tensioning system for expanding the body shaped like a hollow cylinder includes two rotatable rings supported on the axial ends on the body shaped like a hollow cylinder, in that the rings are connected by a carrier located in the gap, and in that spring elements whose spring force essentially acts in the circumferential direction of the body shaped like a hollow cylinder are engaged with the carrier and the first separation edge (3.1).
Pneumatic component having (a) a cylinder, (b) a piston which runs in the cylinder, and (c) a grooved ring which (i) seals the piston against the cylinder and (ii) has a static side (S stat) and (iii) a dynamic side (S dyn), the grooved ring having at least two concentric micro-lips on the static side (S stat), characterized in that the piston has a mould partition flash, and the grooved ring is fastened to the piston in such a way that the mould partition flash intersects the micro-lips, the piston being an injection moulded part which is produced from plastic. (a) a cylinder, (b) a piston which runs in the cylinder, and (c) a grooved ring which (i) seals the piston against the cylinder and (ii) has a static side (S stat) and (iii) a dynamic side (S dyn), (i) seals the piston against the cylinder and (ii) has a static side (S stat) and (iii) a dynamic side (S dyn),
A method of decoding encoded video data, the method comprising: determining that a coding mode for a first block is merge mode, wherein, in merge mode, a merge candidate list comprising motion vector candidates is constructed based on already coded blocks; determining that a motion vector precision for the first block is integer pixel precision; constructing a merge candidate list for the first block, to include motion vector candidates based on already coded blocks, wherein the merge candidate list comprises a fractional precision motion vector candidate; selecting the fractional precision motion vector candidate; in response to selecting the fractional precision motion vector candidate, rounding the fractional precision motion vector candidate to determine an integer pixel precision motion vector for the first block; locating a reference block for the first block using the integer pixel precision motion vector; and decoding the first block based on the reference block. determining that a coding mode for a first block is merge mode, wherein, in merge mode, a merge candidate list comprising motion vector candidates is constructed based on already coded blocks; determining that a motion vector precision for the first block is integer pixel precision; constructing a merge candidate list for the first block, to include motion vector candidates based on already coded blocks, wherein the merge candidate list comprises a fractional precision motion vector candidate; selecting the fractional precision motion vector candidate; in response to selecting the fractional precision motion vector candidate, rounding the fractional precision motion vector candidate to determine an integer pixel precision motion vector for the first block; locating a reference block for the first block using the integer pixel precision motion vector; and decoding the first block based on the reference block.
A virtual image generation system for use by an end user, comprising: a waveguide apparatus; a projection subsystem configured for generating a collimated light beam; a display configured for emitting light rays in response to the collimated light beam to display a pixel of an image frame to the end user, the pixel having a location encoded with angles of the emitted light rays; a sensing assembly configured for sensing at least one parameter indicative of at least one of the emitted light ray angles; and a control subsystem (114, 116, 118, 120) configured for generating image data defining a location of the pixel, and controlling an angle of the light beam relative to the display based on the defined location of the pixel and the at least one sensed parameter, wherein the at least one sensed parameter comprises an intensity of at least one light ray representative of the plurality of exiting light rays, wherein the sensing assembly comprises at least one angle sensor (220a, 220b), each of which includes a photo-intensity sensor (224a, 224b) and an angle selective layer (226a, 226b) mounted between the waveguide apparatus and the photo-intensity sensor (224a, 224b). a waveguide apparatus; a projection subsystem configured for generating a collimated light beam; a display configured for emitting light rays in response to the collimated light beam to display a pixel of an image frame to the end user, the pixel having a location encoded with angles of the emitted light rays; a sensing assembly configured for sensing at least one parameter indicative of at least one of the emitted light ray angles; and a control subsystem (114, 116, 118, 120) configured for generating image data defining a location of the pixel, and controlling an angle of the light beam relative to the display based on the defined location of the pixel and the at least one sensed parameter, wherein the at least one sensed parameter comprises an intensity of at least one light ray representative of the plurality of exiting light rays, wherein the sensing assembly comprises at least one angle sensor (220a, 220b), each of which includes a photo-intensity sensor (224a, 224b) and an angle selective layer (226a, 226b) mounted between the waveguide apparatus and the photo-intensity sensor (224a, 224b).
A sail-powered watercraft comprising at least a first hydrofoil disposed to port of the longitudinal axis of the watercraft and a second hydrofoil disposed to starboard of the longitudinal axis of the watercraft, wherein the first and second hydrofoils (8, 9) are each at least partially movable between a deployed position and a non-deployed position, and wherein the first and second hydrofoils are each configured such that the first and second hydrofoils (8, 9) generate more vertical buoyancy in the deployed position than in the non-deployed position, wherein both hydrofoils (8, 9) are each pivotable about an axis of rotation between the deployed and non-deployed positions, 9) generate more vertical lift in the deployed position than in the non-deployed position, wherein both hydrofoils (8, 9) are each pivotable about an axis of rotation between the deployed and the non-deployed position, wherein the first hydrofoil and the second hydrofoil are coupled to one another via a tractive force transmission element, wherein the first hydrofoil is accommodated in a first foil receptacle and wherein the second hydrofoil is accommodated in a second foil receptacle, characterised in that the first and second foil receptacles each have a lower bearing which is arranged in a lower region of the hull and via the axis of rotation of which the first and second hydrofoil (8, 9) are each pivoted between the extended and the non-extended position, and a slide for lateral guidance of the hydrofoils (8, 9), which slide is displaceable in a transverse direction extending perpendicularly to the midship axis and is arranged in an upper region of the hull, wherein the first and the second hydrofoil (8, 9) are coupled to each other via the tractive force transmission element in such a way that the leeward hydrofoil (8, 9) is moved into the deployed position by the flow pressure acting on the leeward hydrofoil (8, 9) due to drift and speed of the watercraft and a force is exerted on the windward hydrofoil (8, 9) via the tractive force transmission element in the direction of the non-deployed position.
An electroluminescent device comprising a first electrode and a second electrode facing each other; a light emitting layer disposed between the first electrode and the second electrode, the light emitting layer comprising a quantum dot; a hole transport layer disposed between the light emitting layer and the first electrode; and an electron transport layer disposed between the light emitting layer and the second electrode, wherein the hole transport layer comprises a thermally activated delayed fluorescence material, and the thermally activated delayed fluorescence material is present in an amount of greater than or equal to 0.01 weight percent and less than 10 weight percent, based on 100 weight percent of the hole transport layer comprising the thermally activated delayed fluorescence material. a first electrode and a second electrode facing each other; a light emitting layer disposed between the first electrode and the second electrode, the light emitting layer comprising a quantum dot; a hole transport layer disposed between the light emitting layer and the first electrode; and an electron transport layer disposed between the light emitting layer and the second electrode, wherein the hole transport layer comprises a thermally activated delayed fluorescence material, and the thermally activated delayed fluorescence material is present in an amount of greater than or equal to 0.01 weight percent and less than 10 weight percent, based on 100 weight percent of the hole transport layer comprising the thermally activated delayed fluorescence material.
A magnetic resonance imaging apparatus, comprising: a magnet situated to establish an axial magnetic field in a specimen; a plurality of coils situated to apply electromagnetic pulse sequences to the specimen; a receiver situated to detect electromagnetic signals from the specimen in response to the applied electromagnetic pulse sequences; and a controller coupled to the plurality of coils so as to selectively apply the electromagnetic pulse sequences and to the receiver to store signal values associated with the detected signals for a plurality of specimen voxels, said controller being configured to: acquire a magnetic resonance imaging signal associated with a plurality of chemical shifts for a plurality of voxels at a plurality of times; arrange the magnetic resonance imaging signal as a data tensor; characterized in that the controller is further configured to obtain a Tucker decomposition of the data tensor; and spectrally, spatially or temporally rank reduce the Tucker decomposition to produce spectrally, spatially or temporally denoised voxel data for each of the plurality of voxels. a magnet situated to establish an axial magnetic field in a specimen; a plurality of coils situated to apply electromagnetic pulse sequences to the specimen; a receiver situated to detect electromagnetic signals from the specimen in response to the applied electromagnetic pulse sequences; and a controller coupled to the plurality of coils so as to selectively apply the electromagnetic pulse sequences and to the receiver to store signal values associated with the detected signals for a plurality of specimen voxels, said controller being configured to: acquire a magnetic resonance imaging signal associated with a plurality of chemical shifts for a plurality of voxels at a plurality of times; arrange the magnetic resonance imaging signal as a data tensor; characterized in that the controller is further configured to obtain a Tucker decomposition of the data tensor; and spectrally, spatially or temporally rank reduce the Tucker decomposition to produce spectrally, spatially or temporally denoised voxel data for each of the plurality of voxels.
A self-propelled forage harvester for executing an agricultural working process within a process chain, with a plurality of operating units including a feeder device, a chopper device as well as a post-treatment device, and with a driver assistance system for controlling the operating units in accordance with at least one working process strategy which can be specified and which is orientated towards compliance with at least one quality criterion (33, 34, 35), wherein the driver assistance system comprises a memory for storing data and a computer device for processing the data stored in the memory, wherein the driver assistance system has a graphical user interface by means of which at least part of the working process strategy can be specified, wherein a quality criterion (33, 34, 35) which competes with a degree of compliance can be adjusted by means of the graphical user interface, wherein, as a respective quality criterion, "compactibility" or "corn cracking" competes against an "area output" quality criterion and these alternately mutually dependent quality criteria "compactibility" and "area output" or "corn cracking" and "area output" can be visualised by means of the graphical user interface, characterized in that a respective degree of compliance variable (E1, E2) is associated with the paired competing quality criteria (33, 34; 33, 35) which can respectively be visualised and adjusted by means of a virtual operating element (27, 32) of the graphical user interface.
A process for forming a multilayer coating on a substrate comprising: (a) forming a basecoat layer on the substrate, wherein the basecoat layer is deposited from a waterborne composition or an organic solventborne composition. (b) forming a clear topcoat layer on the basecoat layer by depositing a radiation curable topcoat composition onto the basecoat layer in which the topcoat composition comprises: (i) a polyene, (ii) a polythiol; (c) exposing the topcoat composition to radiation to cure the topcoat. (a) forming a basecoat layer on the substrate, wherein the basecoat layer is deposited from a waterborne composition or an organic solventborne composition. (b) forming a clear topcoat layer on the basecoat layer by depositing a radiation curable topcoat composition onto the basecoat layer in which the topcoat composition comprises: (i) a polyene, (ii) a polythiol; (i) a polyene, (ii) a polythiol; (c) exposing the topcoat composition to radiation to cure the topcoat.