mhurhangee/ep-ind-claims huggingface dataset:
A method for performing beam management, comprising: by a user equipment device, UE: establishing wireless communication with a base station; performing at least one measurement of a downlink wireless communication from the base station to the UE; determining at least one transmission constraint related to uplink transmission by the UE; selecting an uplink beam from a plurality of potential uplink beams based at least in part on the at least one measurement and the at least one transmission constraint; selecting a downlink beam from a plurality of potential downlink beams based at least in part on the at least one measurement; transmitting a report to the base station, wherein the report indicates the downlink beam and the uplink beam; receiving, from the base station, an indication of a selected uplink beam and a selected downlink beam, wherein the indication is responsive to the report; and communicating, with the base station, using the selected uplink beam and the selected downlink beam. establishing wireless communication with a base station; performing at least one measurement of a downlink wireless communication from the base station to the UE; determining at least one transmission constraint related to uplink transmission by the UE; selecting an uplink beam from a plurality of potential uplink beams based at least in part on the at least one measurement and the at least one transmission constraint; selecting a downlink beam from a plurality of potential downlink beams based at least in part on the at least one measurement; transmitting a report to the base station, wherein the report indicates the downlink beam and the uplink beam; receiving, from the base station, an indication of a selected uplink beam and a selected downlink beam, wherein the indication is responsive to the report; and communicating, with the base station, using the selected uplink beam and the selected downlink beam.
A method for producing a conjugated linoleic acid composition with an acid value of greater than 190, comprising: a) providing: i) a composition comprising esters of linoleic acid; and ii) an alcoholate catalyst; b) treating said composition comprising esters of linoleic acid with said alcoholate catalyst to produce a conjugated linoleic acid ester composition; c) treating said conjugated linoleic acid ester composition with alkali to produce a saponified conjugated linoleic acid composition; and d) treating said saponified conjugated linoleic acid composition with a plurality of mild acid washes having a pH from 5 to 7 to produce a free conjugated fatty acid composition. a) providing: i) a composition comprising esters of linoleic acid; and ii) an alcoholate catalyst; i) a composition comprising esters of linoleic acid; and ii) an alcoholate catalyst; b) treating said composition comprising esters of linoleic acid with said alcoholate catalyst to produce a conjugated linoleic acid ester composition; c) treating said conjugated linoleic acid ester composition with alkali to produce a saponified conjugated linoleic acid composition; and d) treating said saponified conjugated linoleic acid composition with a plurality of mild acid washes having a pH from 5 to 7 to produce a free conjugated fatty acid composition.
A solid solution pharmaceutical composition comprising: a) one or more therapeutic compounds having an anti-pain activity comprising 5% to 55% by weight of the pharmaceutical composition, wherein when the one or more therapeutic compounds is a therapeutic compound having a free acid or base with a logP of 2.2 to 3.0, one or more stabilizing agents comprising a liquid glycol polymer are present, wherein when the one or more therapeutic compounds is a therapeutic compound salt with a logP of 2.2 or less, one or more neutralizing agents are present; b) one or more lipids that are solid at 20°C comprising 30% to 75% by weight of the pharmaceutical composition, wherein the one or more lipids have a melting point of 40°C to 50°C, and wherein the lipids comprise a triglyceride with one saturated or unsaturated fatty acid having a carbon length of C 12 -C 24, two saturated or unsaturated fatty acids each having a carbon length of C 12 -C 24, or three saturated or unsaturated fatty acids each having a carbon length of C 12 -C 24; c) one or more lipids that are liquid at 20°C comprising 1% to 20% by weight of the pharmaceutical composition, wherein the solid solution pharmaceutical composition has a melting point of 30°C or higher. wherein when the one or more therapeutic compounds is a therapeutic compound having a free acid or base with a logP of 2.2 to 3.0, one or more stabilizing agents comprising a liquid glycol polymer are present, wherein when the one or more therapeutic compounds is a therapeutic compound salt with a logP of 2.2 or less, one or more neutralizing agents are present; b) one or more lipids that are solid at 20°C comprising 30% to 75% by weight of the pharmaceutical composition, wherein the one or more lipids have a melting point of 40°C to 50°C, and wherein the lipids comprise a triglyceride with one saturated or unsaturated fatty acid having a carbon length of C 12 -C 24, two saturated or unsaturated fatty acids each having a carbon length of C 12 -C 24, or three saturated or unsaturated fatty acids each having a carbon length of C 12 -C 24; c) one or more lipids that are liquid at 20°C comprising 1% to 20% by weight of the pharmaceutical composition, wherein the solid solution pharmaceutical composition has a melting point of 30°C or higher.
A method of fabricating a microspeaker device having a compliant member arranged for acting as an acoustic diaphragm, comprising: providing an elastomeric layer (16, 22) in an uncured state; pre-curing the elastomeric layer to increase a viscosity of the elastomeric layer; positioning a bobbin (14, 30) and a housing (12, 28) of the microspeaker device, each having a respective end such that the ends of the bobbin and the housing extend at least partially into the elastomeric layer; and curing the elastomeric layer such that the elastomeric layer is secured to the bobbin and the housing. providing an elastomeric layer (16, 22) in an uncured state; pre-curing the elastomeric layer to increase a viscosity of the elastomeric layer; positioning a bobbin (14, 30) and a housing (12, 28) of the microspeaker device, each having a respective end such that the ends of the bobbin and the housing extend at least partially into the elastomeric layer; and curing the elastomeric layer such that the elastomeric layer is secured to the bobbin and the housing.
An electromagnetic terminal shield, comprising: a tubular shield body formed of sheet metal having a connector opening configured to receive a corresponding mating terminal shield and a cable opening configured to receive a wire cable within a shield cavity defined by the shield body; and a plurality of cantilevered spring arms integrally formed with the shield body having fixed ends attached to the connector opening and free ends that are disposed within the shield cavity, wherein each spring arm in the plurality of cantilevered spring arms is bent toward an inner surface of the shield body within the shield cavity, wherein each spring arm is configured to transition from a cantilevered spring arm having a first spring rate, wherein the free end of the spring arm is away from the inner surface of the shield body, to a simply supported beam spring arm having a second spring rate that is higher than the first spring rate once the free end of the spring arm engages the inner surface of the shield body, wherein the shield body has a seam joint, wherein the seam joint has a spot weld at a location near the cable opening of the shield body. a tubular shield body formed of sheet metal having a connector opening configured to receive a corresponding mating terminal shield and a cable opening configured to receive a wire cable within a shield cavity defined by the shield body; and a plurality of cantilevered spring arms integrally formed with the shield body having fixed ends attached to the connector opening and free ends that are disposed within the shield cavity, wherein each spring arm in the plurality of cantilevered spring arms is bent toward an inner surface of the shield body within the shield cavity, wherein each spring arm is configured to transition from a cantilevered spring arm having a first spring rate, wherein the free end of the spring arm is away from the inner surface of the shield body, to a simply supported beam spring arm having a second spring rate that is higher than the first spring rate once the free end of the spring arm engages the inner surface of the shield body, wherein the shield body has a seam joint, wherein the seam joint has a spot weld at a location near the cable opening of the shield body.
A Graëtz-bridge converter-rectifier including a plurality of terminals fed with alternating current, called AC terminals, and two terminals adapted to feed an exterior circuit with direct current, called DC terminals, rectifier arms (U1+, U1-, V1+, V1-, W1+, W1-, U2+, U2-, V2+, V2-, W2+, W2-) connecting each AC terminal to each DC terminal, a rectifier arm being situated between a single AC terminal and a single DC terminal, and comprising multiple unidirectional electronic components, called unidirectional components, connected in parallel and connected on one side to the DC terminal by means of a conductive component set, called component set, and on the other side to the AC terminal; the component set for at least one rectifier arm (U1+, U1-, V1+, V1-, W1+, W1-, U2+, U2-, V2+, V2-, W2+, W2-) including a plurality of separate conductive component busbars, called component busbars (9A, 9B), each having at least one end connected to the DC terminal, the unidirectional components being connected to the component busbars (9A, 9B) and divided into as many component sets (71, 72) connected in parallel as there are component busbars (9A, 9B), characterized in that the component busbars (9A, 9B) of a same rectifier arm connected to a same connecting busbar (80, 800), each connecting busbar (80, 800) being connected via a single conductor (81, 82) to a single collector busbar (10, 100), the conductor (81, 82) spacing the connecting busbar (80, 800) from the collector busbar (10, 100).
A high-temperature alloy with low stacking fault energy, characterized by comprising, by mass fraction, 0.01%∼0.09% of C, 23.5%∼27.5% of Co, 11%~15% of Cr, 0.1%∼1.8% of W, 2.2%∼2.6% of Al, 3.5%∼5.5% of Ti, 0%-2% of Nb, 0%-2% of Ta, 2.1%∼3.5% of Mo, 0.0001%~0.05% of B, 0.0001%~0.05% of Zr, 0%∼2.5% of Fe, 0 %~0.04% of Mg, 0%~0.02% of Hf, and a balance of Ni, wherein a sum of mass fractions of Nb and Ta is ≥0.8%, wherein a ratio of a sum of the mass fractions of Nb and Ta to a mass fraction of the Al element is ≥0.4; and a ratio of a mass fraction of Ti to the mass fraction of Al is ≤2.1. wherein a sum of mass fractions of Nb and Ta is ≥0.8%, wherein a ratio of a sum of the mass fractions of Nb and Ta to a mass fraction of the Al element is ≥0.4; and a ratio of a mass fraction of Ti to the mass fraction of Al is ≤2.1.
An assay comprising: measuring the level of circulating tumor cell clusters in a sample obtained from a subject with a breast or epithelial cancer, wherein the level of CTC clusters is measured by measuring the expression level of the CTC cluster (CTC-C) adherence marker gene PVRL1 in the sample obtained from the subject; and determining the subject to be at increased risk of metastasis of the cancer if the level of CTC clusters is increased relative to a control level. measuring the level of circulating tumor cell clusters in a sample obtained from a subject with a breast or epithelial cancer, wherein the level of CTC clusters is measured by measuring the expression level of the CTC cluster (CTC-C) adherence marker gene PVRL1 in the sample obtained from the subject; and determining the subject to be at increased risk of metastasis of the cancer if the level of CTC clusters is increased relative to a control level.
Hand-guided working implement, having a tool, an internal combustion engine for driving the tool, a manually operated cable-controlled starter for the internal combustion engine and a stop button to be operated by the operator for switching off the internal combustion engine, wherein the internal combustion engine has a crankshaft bearing-mounted in a crankcase and operatively connected to the tool via a centrifugal clutch, wherein the internal combustion engine has an intake duct in which a throttle element is located, wherein the throttle element can be moved by an operator by means of a throttle lever between a first end position and a second end position, wherein the first end position is assigned to idling and wherein the second end position is assigned to full load, wherein the internal combustion engine has a spark plug and a fuel valve, wherein the working implement has a control device for controlling the spark plug and the fuel valve, wherein the control device has a starting mode in which the internal combustion engine can be started by means of the cable-controlled starter, wherein the control device has an operating mode in which the operator can control the internal combustion engine by moving the throttle element to change the speed (n) of the internal combustion engine, wherein the operating mode and the starting mode differ from each other by the control of the ignition timing and the fuel quantity to be supplied, and wherein the control device is automatically in the starting mode when the internal combustion engine is started from the switched-off state, characterised in that the throttle element is in the first end position in the starting process, in that the free cross-section of the intake duct is the same for the starting mode and the idling mode, and in that the starting mode and the operating mode are set electronically by way of the control device by controlling the fuel valve and the spark plug in accordance with the starting mode and/or the operating mode.
Motor vehicle glazing comprising at least one pane with a pane height of 900 mm to 1650 mm, a roof top edge, an A-pillar edge, a vehicle body edge as well as two rectangular surfaces A and B, wherein the surface A has dimensions of 800 mm * 800 mm and the surface B has dimensions of 1000 mm * 700 mm and surface A and surface B are centrally delimited by the lowest contact point of the pane with the vehicle body edge horizontal to the floor, and the lowest contact point and the point of the roof top edge situated the shortest distance from the contact point form a Y0 axis and the two points farthest apart based on the width of the pane form a Z0 axis, wherein the pane a. has vertical radii of curvature of 10 m to 3 m and horizontal radii of curvature of 8 m to 2.0 m in the region of the surface A, b. has vertical radii of curvature in the range from 10 m to 4 m and horizontal radii of curvature of 8 m to 1.0 m in the region of the surface B, c. the curvature of the pane along Y0 on the boundary with the roof top edge corresponds to a first tangent, wherein the first tangent forms an angle α (alpha) of -10° to 15° with the roof surface, d. the curvature of the pane touching Z0 at the A-pillar edge corresponds to a second tangent, wherein the second tangent forms an angle 3 (beta) of 28° to 70° with Z0. a. has vertical radii of curvature of 10 m to 3 m and horizontal radii of curvature of 8 m to 2.0 m in the region of the surface A, b. has vertical radii of curvature in the range from 10 m to 4 m and horizontal radii of curvature of 8 m to 1.0 m in the region of the surface B, c. the curvature of the pane along Y0 on the boundary with the roof top edge corresponds to a first tangent, wherein the first tangent forms an angle α (alpha) of -10° to 15° with the roof surface, d. the curvature of the pane touching Z0 at the A-pillar edge corresponds to a second tangent, wherein the second tangent forms an angle 3 (beta) of 28° to 70° with Z0.
A method of forming a 3D image of a human face in daylight in an outdoors environment, at a distance of at least 3 metres, comprising the steps of: illuminating the human face by illumination means that comprises a coherent light source and transmits radiation at a wavelength of 940 nanometres, the illumination means projecting a pattern onto the human face; capturing by camera means, at a distance of at least 3 metres from the human face, an image of the human face illuminated by the illumination means, the camera means comprising at least one camera arranged to capture the components of a 3D image; and receiving and processing by means of an image processor the image from the or each camera to calculate the 3D image from the or each received image. illuminating the human face by illumination means that comprises a coherent light source and transmits radiation at a wavelength of 940 nanometres, the illumination means projecting a pattern onto the human face; capturing by camera means, at a distance of at least 3 metres from the human face, an image of the human face illuminated by the illumination means, the camera means comprising at least one camera arranged to capture the components of a 3D image; and receiving and processing by means of an image processor the image from the or each camera to calculate the 3D image from the or each received image.
A speaker comprising: a communicator comprising communication circuitry, a sound output unit comprising sound output circuitry and including a sound emission hole disposed at one side; a driver comprising a first motor and a second motor configured to drive the sound output unit to rotate; a sound reflector disposed at a lower side of the sound output unit and being spaced apart from the sound output unit, the sound reflector having a convex dome-shaped upper side; a support having one end fixed to the sound reflector and another end rotatably supporting the sound output unit; and a controller configured to control the driver to position the sound output unit in one of a first posture in which the sound emission hole faces the upper side of the sound reflector and a second posture in which the sound emission hole does not face the upper side of the sound reflector, wherein the controller is configured to control the first motor to position the sound output unit in one of the first posture and the second posture by tilting the sound output unit, and to control the second motor to swivel the sound output unit in the second posture, and wherein, when the sound output unit is in the second posture, the controller is configured to, based on a signal that includes a sound being received from an electronic apparatus via the communicator, identify a location of the electronic apparatus, and control the driver to position the sound output unit in a direction facing the electronic apparatus. a communicator comprising communication circuitry, a sound output unit comprising sound output circuitry and including a sound emission hole disposed at one side; a driver comprising a first motor and a second motor configured to drive the sound output unit to rotate; a sound reflector disposed at a lower side of the sound output unit and being spaced apart from the sound output unit, the sound reflector having a convex dome-shaped upper side; a support having one end fixed to the sound reflector and another end rotatably supporting the sound output unit; and a controller configured to control the driver to position the sound output unit in one of a first posture in which the sound emission hole faces the upper side of the sound reflector and a second posture in which the sound emission hole does not face the upper side of the sound reflector, wherein the controller is configured to control the first motor to position the sound output unit in one of the first posture and the second posture by tilting the sound output unit, and to control the second motor to swivel the sound output unit in the second posture, and
A polyamide multifilament having a single-filament fineness of 0.8 dtex to 7 dtex, a strength of 7.5 cN/dtex to 8.5 cN/dtex, and a knot strength of 6.0 cN/dtex to 7.5 cN/dtex, wherein the strength and the knot strength are measured by the methods of the description.
A data processing system comprising: an application associated with a plurality of sockets; and a sub-system for making data available to the application via the plurality of sockets; the sub-system configured to provide in response to a request from the application: an indication of events that have occurred on one or more of the plurality of sockets; and an indication of an order in which the events should be processed. an application associated with a plurality of sockets; and a sub-system for making data available to the application via the plurality of sockets; the sub-system configured to provide in response to a request from the application: an indication of events that have occurred on one or more of the plurality of sockets; and an indication of an order in which the events should be processed. an indication of events that have occurred on one or more of the plurality of sockets; and an indication of an order in which the events should be processed.
A method of operating a trusted non-cellular access network with a cellular access network, wherein the trusted non-cellular access network includes a trusted non-cellular access network entity, the cellular access network includes a packet data network gateway and a cellular authentication, authorization, and accounting server, and a user equipment supports multiple PDN connections, PDN connection using an access point name other than a default APN, and handover of an existing PDN connection, the method being characterized by: sending, from the trusted non-cellular access network entity to the UE, an indication whether the trusted non-cellular access network supports at least one of a PDN connection using an APN other than the default APN, handover of an existing PDN connection, and multiple PDN connections. sending, from the trusted non-cellular access network entity to the UE, an indication whether the trusted non-cellular access network supports at least one of a PDN connection using an APN other than the default APN, handover of an existing PDN connection, and multiple PDN connections.
A flowsleeve of a turbomachine component, the flowsleeve comprising: an annular body including an upstream casing and a downstream casing, the upstream casing defining a fuel feed, and the downstream casing defining an airway opening, and a premixing passage, the premixing passage being fluidly coupled to the fuel feed and the airway opening and having a passage interior in which fuel and air receivable from the fuel feed and the airway opening, respectively, are combinable to form a fuel and air mixture, wherein the upstream casing and the downstream casing correspondingly define the fuel feed, the airway opening and the premixing passage, respectively, at multiple circumferential locations, characterized in that the downstream casing is formed to define at each of the multiple circumferential locations a pair of airway openings and a pair of premixing passages. an annular body including an upstream casing and a downstream casing, the upstream casing defining a fuel feed, and the downstream casing defining an airway opening, and a premixing passage, the premixing passage being fluidly coupled to the fuel feed and the airway opening and having a passage interior in which fuel and air receivable from the fuel feed and the airway opening, respectively, are combinable to form a fuel and air mixture, wherein the upstream casing and the downstream casing correspondingly define the fuel feed, the airway opening and the premixing passage, respectively, at multiple circumferential locations, characterized in that the downstream casing is formed to define at each of the multiple circumferential locations a pair of airway openings and a pair of premixing passages.