mhurhangee/ep-ind-claims huggingface dataset:
A method for position location in a satellite positioning system receiver said method comprising: receiving a request to determine a position of a SPS receiver; responsive to said request, retrieving first location data from a plurality of wireless devices in proximity to said SPS receiver; comparing said retrieved location data with second location data derived from user input data to determine consistency of said retrieved first location data with second location data; and responsive to determining said retrieved first location data to be consistent with said second location data, deriving a common seed location from said first and second location data and injecting said common seed location into a positioning process of said SPS receiver. receiving a request to determine a position of a SPS receiver; responsive to said request, retrieving first location data from a plurality of wireless devices in proximity to said SPS receiver; comparing said retrieved location data with second location data derived from user input data to determine consistency of said retrieved first location data with second location data; and responsive to determining said retrieved first location data to be consistent with said second location data, deriving a common seed location from said first and second location data and injecting said common seed location into a positioning process of said SPS receiver.
A method for implementing dual connectivity, comprising: a first base station which a user equipment, UE, accesses completing related management of a connection of the user equipment in a second base station through a dual connectivity management interface between the first base station and the second base station, to achieve a dual connectivity of the user equipment to the first base station and the second base station; wherein: said completing the related management of the connection of the user equipment in the second base station comprises: adding, modifying and deleting context of the user equipment in the second base station, the context of the user equipment comprising identification information of UE, UE capability information and security context information, connections of the user equipment in the first and second base stations respectively bear at least one radio bearer, RB, data, and the RB data comprises control plane data, the control plane data being signaling radio bearer data. a first base station which a user equipment, UE, accesses completing related management of a connection of the user equipment in a second base station through a dual connectivity management interface between the first base station and the second base station, to achieve a dual connectivity of the user equipment to the first base station and the second base station; wherein: said completing the related management of the connection of the user equipment in the second base station comprises: adding, modifying and deleting context of the user equipment in the second base station, the context of the user equipment comprising identification information of UE, UE capability information and security context information, connections of the user equipment in the first and second base stations respectively bear at least one radio bearer, RB, data, and the RB data comprises control plane data, the control plane data being signaling radio bearer data. said completing the related management of the connection of the user equipment in the second base station comprises: adding, modifying and deleting context of the user equipment in the second base station, the context of the user equipment comprising identification information of UE, UE capability information and security context information, connections of the user equipment in the first and second base stations respectively bear at least one radio bearer, RB, data, and the RB data comprises control plane data, the control plane data being signaling radio bearer data.
A hearing aid device (2; 2') for improving, augmenting and/or protecting the hearing capability of a user (4; 4') when receiving acoustic signals from the surroundings of the user, the hearing aid device comprising • an input unit for generating corresponding audio signals, • a signal processing unit for modifying the audio signals, and • an output unit for providing modified audio signals as audible signals to at least one of the user's ears, • a feedback path unit comprising a feedback estimation unit comprising an adaptive feedback algorithm for estimating a feedback path from the output unit to the input unit, • a sensor member for detecting movement and angle of the hearing aid device, and • a time unit for estimating a time range in which movement and angle is detected by the sensor member, CHARACTERIZED IN THAT the hearing aid device is configured to control the powering up of the hearing aid device (2; 2') based on said feedback path unit estimating a feedback path close to a reference feedback path estimate for the hearing aid device user by playing an acoustic signal out of the output unit, in response to said sensor member detecting movement of the hearing aid device and that the angle of the hearing aid device has been close to the angle it is expected to have when operationally mounted on the ear of the user for a minimum time range detected by said time unit. • an input unit for generating corresponding audio signals, • a signal processing unit for modifying the audio signals, and • an output unit for providing modified audio signals as audible signals to at least one of the user's ears, • a feedback path unit comprising a feedback estimation unit comprising an adaptive feedback algorithm for estimating a feedback path from the output unit to the input unit, • a sensor member for detecting movement and angle of the hearing aid device, and • a time unit for estimating a time range in which movement and angle is detected by the sensor member,
An optical component having a wall with a first wall surface and a second wall surface, the second wall surface being opposite to the first wall surface in a first direction, the wall comprising a plurality of layers stacked on top of each other in a second direction perpendicular to the first direction, wherein the optical component comprises an inner volume, and wherein each layer (130a-d) envelopes part of the inner volume, characterized in that each layer (130a-d) of the plurality of layers has a first region (131a-d) with a first edge surface (134a-d) and an opposite second edge surface (135a-d), both extending through the layer (130a-d) in the second direction, the first edge surface (134a-d) being an interface between the first region (131a-d) and a second region (132a-d), and the second edge surface (135a-d) being an interface between the first region (131a-d) and a third region (133a-d), the first region (131a-d) having a lower transmissivity than each of the second region (131a-d) and the third region (133a-d), wherein each layer also comprises at least one of the second and third regions, wherein each first region (631a-b) has a defined width, being a distance between the first edge surface (134a-d) and the second edge surface (135a-d), and wherein successive layers (630a-b) are partially overlapping such that the first regions (631a-b) of adjacent layers (630a-b) are non-overlapping. wherein the optical component comprises an inner volume, and wherein each layer (130a-d) envelopes part of the inner volume, characterized in that each layer (130a-d) of the plurality of layers has a first region (131a-d) with a first edge surface (134a-d) and an opposite second edge surface (135a-d), both extending through the layer (130a-d) in the second direction, the first edge surface (134a-d) being an interface between the first region (131a-d) and a second region (132a-d), and the second edge surface (135a-d) being an interface between the first region (131a-d) and a third region (133a-d), the first region (131a-d) having a lower transmissivity than each of the second region (131a-d) and the third region (133a-d), wherein each layer also comprises at least one of the second and third regions, wherein each first region (631a-b) has a defined width, being a distance between the first edge surface (134a-d) and the second edge surface (135a-d), and wherein successive layers (630a-b) are partially overlapping such that the first regions (631a-b) of adjacent layers (630a-b) are non-overlapping.
A fluid joint comprising: a first coupler to be connected to a storage tank that stores fluid; and a second coupler to be connected to a mobile tank installed in a mobile unit, wherein the couplers (4,5) are arranged to be joined together to allow fluid to flow between the storage tank and the mobile tank, wherein the first coupler includes a cylindrical first main body and an outer cylinder which is located at the outer circumferential side of the first main body, which protrudes to a distal end of the first main body, which is arranged to move in the axial direction relative to the first main body, and which is provided with a first engagement portion and a second engagement portion at the distal end such that the second engagement portion is pivotable together with the first engagement portion with respect to the first main body around an axis; wherein the second engagement portion is provided on the outer circumference of the outer cylinder as a plurality of convex portions protruding outward at a plurality of locations at predetermined intervals in the circumferential direction, wherein the second coupler includes a second main body arranged to be inserted along the inner circumferential surface of the first main body; wherein the second main body is provided with a third engagement portion that can engage with the first engagement portion and a fourth engagement portion that is provided on an inner circumferential surface of the third engagement portion as a plurality of concave portions depressed outward in the radial direction at a plurality of locations at predetermined intervals in the circumferential direction and that can engage with the convex portions forming the second engagement portion, wherein the fourth engagement portion is provided at the same phase position as the third engagement portion in the circumferential direction; wherein the first engagement portion includes a base portion, a pin member that is connected to the base portion, and a hook portion that is connected to the base portion so as to be rotatable thereabout with the pin member; wherein the second engagement portion is provided at the same phase position as the hook portion in the circumferential direction; wherein the convex portions and the concave portions have a positional relationship in which the engagement of the convex portions and the concave portions enables the engagement of the first engagement portion and the third engagement portion, and wherein the arrangement is such that, when the phases of the first engagement portion and the third engagement portion match in the process of engagement thereof by pivoting the outer cylinder around the axis, the convex portions and the concave portions are engaged with each other, and when the distal end of the hook portion of the first engagement portion is pivoted toward the distal end with respect to the base portion to engage the hook portion with the third engagement portion, the outer cylinder and the second main body are joined together. a first coupler to be connected to a storage tank that stores fluid; and a second coupler to be connected to a mobile tank installed in a mobile unit,
An apparatus, comprising: a multi-core processor, including a first core, a second core, and at least one memory adapted to store run-time data, wherein the first core is adapted to execute processor-executable code that, in response to execution, enables the multi-core processor to perform actions for secure key storage, including: loading and booting, by read-only memory, ROM, code in a secure ROM, a first boot loader of the first core; deriving, by the secure ROM, a first mutated key according to a mutation of a secret device key based on a hash of the first boot loader; calculating, by the first boot loader, a hash of a runtime for the first core; deriving, by the first boot loader, a second mutated key based on the first mutated key and a random seed stored for later use in regeneration of the second mutated key; encrypting the hash of the runtime of the first core using the second mutated key; storing the encrypted hash of the runtime of the first core in a secure key store; and encrypting the secure key store with the second mutated key. loading and booting, by read-only memory, ROM, code in a secure ROM, a first boot loader of the first core; deriving, by the secure ROM, a first mutated key according to a mutation of a secret device key based on a hash of the first boot loader; calculating, by the first boot loader, a hash of a runtime for the first core; deriving, by the first boot loader, a second mutated key based on the first mutated key and a random seed stored for later use in regeneration of the second mutated key; encrypting the hash of the runtime of the first core using the second mutated key; storing the encrypted hash of the runtime of the first core in a secure key store; and encrypting the secure key store with the second mutated key.
A composition formulated for topical administration for use in the treatment or prevention of skin infections, comprising material secreted from a probiotic bacterium, wherein the composition comprises substantially no intact probiotic bacteria, lysed bacteria, or bacterial fragments.
Use of a compound of formula, wherein: R 1 is hydrogen, linear or branched C 1 -C 4 alkyl, phenylalkyl of less than ten carbon atoms or -COCH 3; R 2 is hydrogen, -COCH 3 or -SO 3 Y; R 3 is hydrogen, linear or branched C 1 -C 4 alkyl, phenylalkyl of less than ten carbon atoms, -COCH 3 or -COPh, wherein Ph is phenyl; G is -COOR 4 or -COOY, wherein R 4 is hydrogen, C 1 -C 2 alkyl or arylalkyl of less than sixteen carbon atoms; A is hydrogen, -SO 3 H, -SO 3 Y or -COCH 3; and B is hydrogen, -SO 3 H, -SO 3 Y, or -COCH 3, wherein either A or B is necessarily either -SO 3 H or -SO 3 Y, wherein Y is an organic or inorganic cation; as well as the solvates and the pharmaceutically acceptable salts thereof, for the preparation of a medicament for the treatment or prevention of a tendon or ligament disease, disorder or injury in a mammal. R 1 is hydrogen, linear or branched C 1 -C 4 alkyl, phenylalkyl of less than ten carbon atoms or -COCH 3; R 2 is hydrogen, -COCH 3 or -SO 3 Y; R 3 is hydrogen, linear or branched C 1 -C 4 alkyl, phenylalkyl of less than ten carbon atoms, -COCH 3 or -COPh, wherein Ph is phenyl; G is -COOR 4 or -COOY, wherein R 4 is hydrogen, C 1 -C 2 alkyl or arylalkyl of less than sixteen carbon atoms; A is hydrogen, -SO 3 H, -SO 3 Y or -COCH 3; and B is hydrogen, -SO 3 H, -SO 3 Y, or -COCH 3,
Method for producing a primary material for a cutting tool, in particular a primary material for a saw blade or a saw band, wherein a band-shaped carrier of a metal carrier material and an edge wire of a high-speed steel are continuously brought together along a lateral edge of the band-shaped carrier and transported into a welding device and the band-shaped carrier is welded to the edge wire along the lateral edge of the carrier to produce a bimetal band, characterized in that the band-shaped carrier and the edge wire are welded to one another by at least a first laser welding device, which is arranged on one side of the band-shaped carrier, and at least a second laser welding device, which is arranged on the opposite side of the band-shaped carrier.
A method for reporting positioning measurement information, applied to a terminal and comprising: receiving first configuration information from a network device; and reporting a measurement result of a beam group based on the first configuration information, characterized in that the beam group is used to transmit a positioning reference signal, PRS, and the beam group comprises N beams determined by the terminal based on reference signal received power, RSRP, and time of arrival, TOA, or based on time of arrival, TOA, wherein N is a positive integer, the N beams are beams in a first cell, and the first cell is one of cells participating in positioning; wherein the N beams comprises any one of the following: top N beams in ascending order of TOA in the first cell; top N beams selected from M beams in ascending order of TOA, wherein the M beams are beams whose RSRP is higher than a preset threshold in the first cell; and top L beams in ascending order of TOA and top K beams in descending order of RSRP in the first cell, wherein N ≤ L + K. receiving first configuration information from a network device; and reporting a measurement result of a beam group based on the first configuration information, characterized in that the beam group is used to transmit a positioning reference signal, PRS, and the beam group comprises N beams determined by the terminal based on reference signal received power, RSRP, and time of arrival, TOA, or based on time of arrival, TOA, wherein N is a positive integer, the N beams are beams in a first cell, and the first cell is one of cells participating in positioning; wherein the N beams comprises any one of the following: top N beams in ascending order of TOA in the first cell; top N beams selected from M beams in ascending order of TOA, wherein the M beams are beams whose RSRP is higher than a preset threshold in the first cell; and top L beams in ascending order of TOA and top K beams in descending order of RSRP in the first cell, wherein N ≤ L + K. top N beams in ascending order of TOA in the first cell; top N beams selected from M beams in ascending order of TOA, wherein the M beams are beams whose RSRP is higher than a preset threshold in the first cell; and top L beams in ascending order of TOA and top K beams in descending order of RSRP in the first cell, wherein N ≤ L + K.
A screw-tightening power tool, comprising a housing having a L-shape, wherein the housing comprises a motor housing extending in a front-rear-direction, and a grip housing extending from a rear end of the motor housing in the downward direction, a brushless motor comprising a stator fixed to the motor housing and a rotor rotatable with respect to the stator, wherein the brushless motor is housed in the motor housing, wherein an axis line of the stator is oriented in the front-rear-direction, a tip-tool retaining part (57, 62) capable of holding a bit, a mounting part formed at a lower part of the grip housing for detachably mounting a battery pack, wherein a terminal block is provided in the mounting part, a control circuit board provided upward of the battery pack, when mounted, wherein the control circuit board is provided on an upper side of the terminal block and a clutch (60, 63) disposed between the rotor and the tip-tool retaining part (57, 62), wherein the brushless motor is disposed downward of the clutch. a housing having a L-shape, wherein the housing comprises a motor housing extending in a front-rear-direction, and a grip housing extending from a rear end of the motor housing in the downward direction, a brushless motor comprising a stator fixed to the motor housing and a rotor rotatable with respect to the stator, wherein the brushless motor is housed in the motor housing, wherein an axis line of the stator is oriented in the front-rear-direction, a tip-tool retaining part (57, 62) capable of holding a bit, a mounting part formed at a lower part of the grip housing for detachably mounting a battery pack, wherein a terminal block is provided in the mounting part, a control circuit board provided upward of the battery pack, when mounted, wherein the control circuit board is provided on an upper side of the terminal block and a clutch (60, 63) disposed between the rotor and the tip-tool retaining part (57, 62), wherein the brushless motor is disposed downward of the clutch.
An integrated planar electromechanical contactor assembly, comprising: a substrate having a through-hole formed through it; a plurality of solenoid traces embedded within the substrate about the through-hole in a plurality of distinct planes, wherein the plurality of distinct planes are substantially parallel to one another, and wherein each solenoid trace of the plurality of solenoid traces is in electrical communication with an adjacent solenoid trace through an electrical via; a solenoid core arranged in the through hole in electromagnetic communication with the plurality of solenoid traces; and a mobile contact arm arranged on the solenoid core, wherein the mobile contact arm is configured to selectively connect an external contact lead arranged on the substrate to at least one electrical trace embedded within the substrate responsive to motion of the solenoid core, and characterized by the through-hole defining an axis substantially perpendicular to a plane formed by the substrate, and wherein the solenoid core is configured to travel along the axis. a substrate having a through-hole formed through it; a plurality of solenoid traces embedded within the substrate about the through-hole in a plurality of distinct planes, wherein the plurality of distinct planes are substantially parallel to one another, and wherein each solenoid trace of the plurality of solenoid traces is in electrical communication with an adjacent solenoid trace through an electrical via; a solenoid core arranged in the through hole in electromagnetic communication with the plurality of solenoid traces; and a mobile contact arm arranged on the solenoid core, wherein the mobile contact arm is configured to selectively connect an external contact lead arranged on the substrate to at least one electrical trace embedded within the substrate responsive to motion of the solenoid core, and characterized by the through-hole defining an axis substantially perpendicular to a plane formed by the substrate, and wherein the solenoid core is configured to travel along the axis.
A method for processing or analyzing one or more components from a sample, comprising: (a) subjecting a plurality of cell beads to bulk denaturation, wherein a cell bead of said plurality of cell beads comprises macromolecular constituents derived from a cell or virus encapsulated within a polymer or gel matrix, wherein said macromolecular constituents comprise a nucleic acid molecule, and wherein which bulk denaturation comprises denaturing said nucleic acid molecule to generate a denatured nucleic acid molecule in said cell bead; (b) partitioning said plurality of cell beads and a plurality of barcode beads into a plurality of partitions, wherein a barcode bead of said plurality of barcode beads comprises a plurality of nucleic acid barcode molecules for barcoding said nucleic acid molecule, and wherein upon partitioning, a partition of said plurality of partitions comprises said cell bead and said barcode bead; and (c) using a nucleic acid barcode molecule of said plurality of nucleic acid barcode molecules and said denatured nucleic acid molecule or a derivative thereof to generate a barcoded nucleic acid molecule. (a) subjecting a plurality of cell beads to bulk denaturation, wherein a cell bead of said plurality of cell beads comprises macromolecular constituents derived from a cell or virus encapsulated within a polymer or gel matrix, wherein said macromolecular constituents comprise a nucleic acid molecule, and wherein which bulk denaturation comprises denaturing said nucleic acid molecule to generate a denatured nucleic acid molecule in said cell bead; (b) partitioning said plurality of cell beads and a plurality of barcode beads into a plurality of partitions, wherein a barcode bead of said plurality of barcode beads comprises a plurality of nucleic acid barcode molecules for barcoding said nucleic acid molecule, and wherein upon partitioning, a partition of said plurality of partitions comprises said cell bead and said barcode bead; and (c) using a nucleic acid barcode molecule of said plurality of nucleic acid barcode molecules and said denatured nucleic acid molecule or a derivative thereof to generate a barcoded nucleic acid molecule.