mhurhangee/ep-ind-claims huggingface dataset:
A method for channel state reporting by a terminal in a wireless communication system, the method being performed by the terminal and comprising: receiving configuration information for a plurality of aperiodic channel state information reference signal, CSI-RS, resources; receiving an aperiodic CSI request as downlink control information, DCI; and reporting aperiodic CSI based on an aperiodic CSI-RS resource of the plurality of aperiodic CSI-RS resources, wherein the aperiodic CSI-RS resource is determined among the plurality of aperiodic CSI-RS resources based on the aperiodic CSI request, wherein a CSI-RS on the aperiodic CSI-RS resource is received after a configured length of time from when the aperiodic CSI request is received, wherein the configured length of time is configured through Radio Resource Control signaling, and wherein the aperiodic CSI request does not include information on the configured length of time. receiving configuration information for a plurality of aperiodic channel state information reference signal, CSI-RS, resources; receiving an aperiodic CSI request as downlink control information, DCI; and reporting aperiodic CSI based on an aperiodic CSI-RS resource of the plurality of aperiodic CSI-RS resources, wherein the aperiodic CSI-RS resource is determined among the plurality of aperiodic CSI-RS resources based on the aperiodic CSI request, wherein a CSI-RS on the aperiodic CSI-RS resource is received after a configured length of time from when the aperiodic CSI request is received, wherein the configured length of time is configured through Radio Resource Control signaling, and wherein the aperiodic CSI request does not include information on the configured length of time.
A hydraulic drive system for a construction material pump, the hydraulic drive system having: - a hydraulic circuit for hydraulic fluid, - a feed pump which is designed for feeding hydraulic fluid into the hydraulic circuit, characterised by - at least one controllable pressure limiting valve unit (6, 24) which is designed for variably setting a limit pressure (p30, p31/32) of hydraulic fluid of at least one section (30, 31, 32) of the hydraulic circuit within a pressure range (pmin, pmax), - wherein the at least one pressure limiting valve unit (6, 24) has a controllable proportional pressure limiting valve which is designed for continuously setting the limit pressure (p30, p31/32) of hydraulic fluid of the at least one section (30, 31, 32) of the hydraulic circuit within the pressure range (pmin, pmax), and - a control unit which is designed to control the pressure limiting valve unit (6, 24) in a manner dependent on at least one operating parameter of the hydraulic drive system and/or of hydraulic fluid such that the pressure limiting valve unit (6, 24) sets the limit pressure (p30, p31/32) of the section (30, 31, 32) of the hydraulic circuit, - wherein the control unit is designed to control the proportional pressure limiting valve (6, 24) in a manner dependent on the at least one operating parameter such that the proportional pressure limiting valve sets the limit pressure (p30, p31/32) of the section (30, 31, 32) of the hydraulic circuit. - a hydraulic circuit for hydraulic fluid, - a feed pump which is designed for feeding hydraulic fluid into the hydraulic circuit, characterised by - at least one controllable pressure limiting valve unit (6, 24) which is designed for variably setting a limit pressure (p30, p31/32) of hydraulic fluid of at least one section (30, 31, 32) of the hydraulic circuit within a pressure range (pmin, pmax), - wherein the at least one pressure limiting valve unit (6, 24) has a controllable proportional pressure limiting valve which is designed for continuously setting the limit pressure (p30, p31/32) of hydraulic fluid of the at least one section (30, 31, 32) of the hydraulic circuit within the pressure range (pmin, pmax), and - a control unit which is designed to control the pressure limiting valve unit (6, 24) in a manner dependent on at least one operating parameter of the hydraulic drive system and/or of hydraulic fluid such that the pressure limiting valve unit (6, 24) sets the limit pressure (p30, p31/32) of the section (30, 31, 32) of the hydraulic circuit, - wherein the control unit is designed to control the proportional pressure limiting valve (6, 24) in a manner dependent on the at least one operating parameter such that the proportional pressure limiting valve sets the limit pressure (p30, p31/32) of the section (30, 31, 32) of the hydraulic circuit.
A network element (120, 130, 3110) comprising a processor configured such that the network element is configured to: configure a user equipment, UE (110, 3200), to transmit a plurality of channel quality indicator, CQI, reports, the plurality of CQI reports comprising at least one of: one CQI report for all static downlink subframes in a radio frame and one CQI report for each flexible downlink subframe in the radio frame, wherein the flexible subframe is configured to dynamically switch between an uplink subframe and a downlink subframe, or one CQI report for all static downlink subframes in a radio frame and one CQI report that includes an average CQI for all flexible downlink subframes in the radio frame; determine flexible subframes and static subframes in a radio frame; send information about the flexible subframes and static subframes to the UE; transmit at least one control signal in at least one flexible subframe at a power that is reduced compared to the power of the same control signal in a static subframe; and signal information relating to the power reduction to the UE. configure a user equipment, UE (110, 3200), to transmit a plurality of channel quality indicator, CQI, reports, the plurality of CQI reports comprising at least one of: one CQI report for all static downlink subframes in a radio frame and one CQI report for each flexible downlink subframe in the radio frame, wherein the flexible subframe is configured to dynamically switch between an uplink subframe and a downlink subframe, or one CQI report for all static downlink subframes in a radio frame and one CQI report that includes an average CQI for all flexible downlink subframes in the radio frame; one CQI report for all static downlink subframes in a radio frame and one CQI report for each flexible downlink subframe in the radio frame, wherein the flexible subframe is configured to dynamically switch between an uplink subframe and a downlink subframe, or one CQI report for all static downlink subframes in a radio frame and one CQI report that includes an average CQI for all flexible downlink subframes in the radio frame; determine flexible subframes and static subframes in a radio frame; send information about the flexible subframes and static subframes to the UE; transmit at least one control signal in at least one flexible subframe at a power that is reduced compared to the power of the same control signal in a static subframe; and signal information relating to the power reduction to the UE.
A method of fabricating a III-nitride transistor comprising: forming a III-nitride channel layer; forming a barrier layer over the channel layer, the barrier layer having a thickness of 1 to 5 nanometers; forming a dielectric layer on top of the barrier layer; forming a source electrode contacting the channel layer; forming a drain electrode contacting the channel layer; etching a gate trench extending through the dielectric layer and the barrier layer and having a bottom located within the channel layer so that a distance between an interface of the channel layer and the barrier layer and the bottom of the gate trench is greater than 0 nanometers and less than or equal to 5 nanometers; forming a gate insulator lining the gate trench and extending over the dielectric layer; and forming a gate electrode in the gate trench; wherein forming the gate insulator comprises forming a single-crystalline AlN layer at the bottom of the gate trench; forming a polycrystalline AlN layer on the single-crystalline AlN layer; and forming an insulating layer comprising Al 2 O 3, AlON, or SiN on the polycrystalline AlN layer; wherein: the channel layer is GaN; and the barrier layer is AlGaN. forming a III-nitride channel layer; forming a barrier layer over the channel layer, the barrier layer having a thickness of 1 to 5 nanometers; forming a dielectric layer on top of the barrier layer; forming a source electrode contacting the channel layer; forming a drain electrode contacting the channel layer; etching a gate trench extending through the dielectric layer and the barrier layer and having a bottom located within the channel layer so that a distance between an interface of the channel layer and the barrier layer and the bottom of the gate trench is greater than 0 nanometers and less than or equal to 5 nanometers; forming a gate insulator lining the gate trench and extending over the dielectric layer; and forming a gate electrode in the gate trench; wherein forming the gate insulator comprises forming a single-crystalline AlN layer at the bottom of the gate trench; forming a polycrystalline AlN layer on the single-crystalline AlN layer; and forming an insulating layer comprising Al 2 O 3, AlON, or SiN on the polycrystalline AlN layer; the channel layer is GaN; and the barrier layer is AlGaN.
A method of increasing the melting temperature of a polymeric material, the method characterized by comprising: injection molding a first polymeric material into a shape; increasing the temperature of the molded polymeric material in its molded shape at a first rate of 0.1°C per hour to 10°C per hour until the temperature of the material reaches a first temperature between 10°C and 30°C below an initial melting temperature of the material; maintaining the temperature of the material between 10°C and 30°C below the initial melting temperature of the material for at least one hour; and increasing the temperature of the material in its molded shape at a rate of between 0.1°C per hour and 10°C per hour until the temperature of the material reaches a second temperature between 40°C and 50°C below a desired melting temperature of the material.. injection molding a first polymeric material into a shape; increasing the temperature of the molded polymeric material in its molded shape at a first rate of 0.1°C per hour to 10°C per hour until the temperature of the material reaches a first temperature between 10°C and 30°C below an initial melting temperature of the material; maintaining the temperature of the material between 10°C and 30°C below the initial melting temperature of the material for at least one hour; and increasing the temperature of the material in its molded shape at a rate of between 0.1°C per hour and 10°C per hour until the temperature of the material reaches a second temperature between 40°C and 50°C below a desired melting temperature of the material..
Method of collecting mown agricultural crops lying on the mown surface, said crops being picked up from the ground surface in the direction of movement in approximately horizontal contour lines over the conveying width of a conveying device and deposited on one side, characterised in that the mown crops lifted from the ground surface by a pick-up device of the conveying device consisting of rotating conveying tines are deflected at a contact member designed as a baffle wall during further transport departing from an approximately horizontal conveying section of the conveying device using the conveying stream generated by the pick-up device of the conveying device and are deposited to one side of the crops lying on the ground surface.
Device for burning a fuel/oxidant mixture in a highly exothermic reaction, the device consisting of a reactor comprising one or more feed lines for the fuel and for the oxidant, which lines are arranged such that the fuel/oxidant mixture is guided into the reactor from above, and comprising a combustion chamber that contains at least one first porous material in a zone A and at least one second porous material in a separate zone C, wherein zones A and C are of different porosities, wherein the zones are configured such that the first zone A is located above zone C, which zone C functions as a combustion zone whereas ignition is prevented in zone A by appropriate dimensioning, and wherein zones A and C are separated by a zone B such that a distance is formed between zone A and zone C which is arranged before zone C in the flow direction of the fuel/oxidant mixture and is from 10 mm to 4000 mm, wherein an additional gas is fed to the fuel/oxidant mixture such that the flame is cooled by feeding the additional gas to the fuel/oxidant mixture, wherein at least one support grate is cooled, which grate is provided at the interface for the zones of different porosities, and wherein the porous materials are at least partially formed as a filling of bodies, as are used as packed beds or structured packing in thermal separation processes.
Method for golf training, comprising the following steps: - capturing a golfer's stroke position - capturing flag information of a golf flag comprising a flag position of the golf flag and information relating to a hole belonging to the golf flag - capturing an acceleration of the golfer or of a golf club - outputting an associated stroke timepoint, if a magnitude of the captured acceleration exceeds a specified threshold value; characterised by the following steps: - capturing the surrounding area of the golf flag upon receipt of the stroke timepoint, - checking for the arrival of a golf ball in the surrounding area; - if a golf ball is captured in the surrounding area of the golf flag: - locating the golf ball; - determining and outputting a location of the golf ball relative to the golf flag once it has reached a rest position; - determining and outputting an assessment, in particular a point value, based on the flag information, the stroke position and the determined location, using a stored assessment system. - capturing a golfer's stroke position - capturing flag information of a golf flag comprising a flag position of the golf flag and information relating to a hole belonging to the golf flag - capturing an acceleration of the golfer or of a golf club - outputting an associated stroke timepoint, if a magnitude of the captured acceleration exceeds a specified threshold value; - capturing the surrounding area of the golf flag upon receipt of the stroke timepoint, - checking for the arrival of a golf ball in the surrounding area; - if a golf ball is captured in the surrounding area of the golf flag: - locating the golf ball; - determining and outputting a location of the golf ball relative to the golf flag once it has reached a rest position; - if a golf ball is captured in the surrounding area of the golf flag: - locating the golf ball; - determining and outputting a location of the golf ball relative to the golf flag once it has reached a rest position; - locating the golf ball; - determining and outputting a location of the golf ball relative to the golf flag once it has reached a rest position; - determining and outputting an assessment, in particular a point value, based on the flag information, the stroke position and the determined location, using a stored assessment system.
Power switching circuitry for generating an output power supply from a source power supply, comprising: a heat absorbing structure; a heat conductive substrate having power switching components provided on a first surface, and having a second surface adjacent the heat absorbing structure; a plurality of electrically conductive members (90, 95) located on said first surface of the heat conductive substrate, each electrically conductive member extending along a first axis orthogonal to the heat conductive substrate and comprising a first portion and a second portion, the second portion being more remote from the heat conductive substrate than the first portion and having a smaller cross-sectional area than the cross-sectional area of the first portion in order to define a shoulder region orthogonal to the first axis; a circuit board, the second portion of each electrically conductive member extending through the circuit board such that the circuit board is located on the shoulder region of each electrically conductive member; and an urging mechanism configured to urge the circuit board against the shoulder region of each electrically conductive member, whereby the plurality of electrically conductive members provide a current path between the heat conductive substrate and the circuit board, and urge the heat conductive substrate into thermal contact with the heat absorbing structure. a heat absorbing structure; a heat conductive substrate having power switching components provided on a first surface, and having a second surface adjacent the heat absorbing structure; a plurality of electrically conductive members (90, 95) located on said first surface of the heat conductive substrate, each electrically conductive member extending along a first axis orthogonal to the heat conductive substrate and comprising a first portion and a second portion, the second portion being more remote from the heat conductive substrate than the first portion and having a smaller cross-sectional area than the cross-sectional area of the first portion in order to define a shoulder region orthogonal to the first axis; a circuit board, the second portion of each electrically conductive member extending through the circuit board such that the circuit board is located on the shoulder region of each electrically conductive member; and an urging mechanism configured to urge the circuit board against the shoulder region of each electrically conductive member, whereby the plurality of electrically conductive members provide a current path between the heat conductive substrate and the circuit board, and urge the heat conductive substrate into thermal contact with the heat absorbing structure.
A substrate for sample analysis on which transfer of a liquid is to occur with rotational motion, the substrate for sample analysis comprising: a substrate having a rotation axis; a first chamber being located in the substrate and having a first space for retaining a liquid and magnetic particles; a second chamber being located in the substrate and having a second space for retaining the liquid to be discharged from the first chamber; a channel being located in the substrate and having a path connecting the first chamber and the second chamber; and a magnet being located in the substrate and near the first space in the substrate for capturing the magnetic particles in the first chamber, wherein the substrate has at least one inner surface defining the first space in the substrate; and the at least one inner surface includes a side face portion that is the farthest from the rotation axis, and the magnet is located near the side face portion of the at least one surface, characterized in that the magnet is more distant from the rotation axis than is the side face portion. a substrate having a rotation axis; a first chamber being located in the substrate and having a first space for retaining a liquid and magnetic particles; a second chamber being located in the substrate and having a second space for retaining the liquid to be discharged from the first chamber; a channel being located in the substrate and having a path connecting the first chamber and the second chamber; and a magnet being located in the substrate and near the first space in the substrate for capturing the magnetic particles in the first chamber, wherein the substrate has at least one inner surface defining the first space in the substrate; and the at least one inner surface includes a side face portion that is the farthest from the rotation axis, and the magnet is located near the side face portion of the at least one surface, characterized in that the magnet is more distant from the rotation axis than is the side face portion.
A control device for use in controlling operations of forest machines in particular, the control device comprising an outer surface oriented towards an operator's hand, a mating surface provided in this outer surface and settling against the palm of the hand, and controls (4, 5, 6), whereby the outer surface of the control device is provided with at least one support device for forming the mating surface receiving the palm of the operator's hand using the control device, and the support device comprises an edge portion, a part thereof being provided with a hand edge support which extends therefrom with respect to the outer surface of the control device, characterised in that the support device is applied detachably on the outer surface of the control device.
Human CD34-negative mesenchymal stem cells for use in treating or protecting the vascular endothelium from CD8+ cytotoxic T-lymphocyte mediated cytotoxic reactions of a subject at risk of, or afflicted with, vascular inflammatory disease.
A composite fiber stator ring for a gas turbine engine compressor (44, 52), comprising a plurality of composite fiber vane structures, each of said composite fiber vane structures comprising a plurality of fiber plies (202, 204), all of said fiber plies (202, 204) flowing in a single direction at each joint (212, 214) of the corresponding composite fiber vane structure, and said plurality of composite fiber vane structures being arranged circumferentially in a ring, wherein each of the composite fiber vane structures is a composite fiber vane singlet, characterised by: a plurality of outer diameter spacer platforms and a plurality of inner diameter spacer platforms, wherein each of said composite fiber vane structures is circumferentially adjacent to two outer diameter spacer platforms and two inner diameter spacer platforms. a plurality of outer diameter spacer platforms and a plurality of inner diameter spacer platforms, wherein each of said composite fiber vane structures is circumferentially adjacent to two outer diameter spacer platforms and two inner diameter spacer platforms.
A method for splitting of plate-shaped objects made of brittle materials, in which the object is first placed under mechanical load in order to generate a directed stress perpendicular to at least one predetermined breaking line, along which the splitting is to take place, and is then mechanically weakened or thermally loaded during the mechanical loading along the predetermined breaking line, until the object breaks along the predetermined breaking line, wherein the object is pressed against a uniformly curved contact surface over a large area in order to generate the directed tension evenly over a relatively large area of the object, characterized in that the object is split into multiple strips along a plurality of parallel predetermined breaking lines during the mechanical loading. wherein the object is pressed against a uniformly curved contact surface over a large area in order to generate the directed tension evenly over a relatively large area of the object, characterized in that the object is split into multiple strips along a plurality of parallel predetermined breaking lines during the mechanical loading.
A corner panel of an LNG cargo, comprising: a main body(410, 510) arranged at a corner area of the cargo, an internal face of the main body having curvature; and a stress diverging part(420, 520) including a curvature member and configured to reduce convergence of stress of the main body, an external face of the curvature member being adhered to the internal face of the main body(410, 510), wherein a slit(430, 530) is formed on the external face of the curvature member. a main body(410, 510) arranged at a corner area of the cargo, an internal face of the main body having curvature; and a stress diverging part(420, 520) including a curvature member and configured to reduce convergence of stress of the main body, an external face of the curvature member being adhered to the internal face of the main body(410, 510), wherein a slit(430, 530) is formed on the external face of the curvature member.