mhurhangee/ep-ind-claims huggingface dataset:
A system for forming a superconducting wire with a tape substrate comprising: a first reel for dispensing the tape substrate; at least one buffer deposition chamber that is adapted to form at least one buffer layer between the substrate and a layer of superconducting material; at least one superconducting material deposition chamber that is adapted to form the layer of the superconducting material on the tape substrate; and a second reel to spool the tape substrate with the layer of superconducting material; characterised in that the superconducting material deposition chamber comprises at least one distribution head to provide a laminar flow of material used to form the superconducting material onto the tape substrate. a first reel for dispensing the tape substrate; at least one buffer deposition chamber that is adapted to form at least one buffer layer between the substrate and a layer of superconducting material; at least one superconducting material deposition chamber that is adapted to form the layer of the superconducting material on the tape substrate; and a second reel to spool the tape substrate with the layer of superconducting material; characterised in that the superconducting material deposition chamber comprises at least one distribution head to provide a laminar flow of material used to form the superconducting material onto the tape substrate.
An air electrode material for the use in a metal-air battery, the air electrode material comprising; a plurality of carbon nanotubes, and a plurality of layered double hydroxide particles, wherein the plurality of layered double hydroxide particles is supported on the plurality of carbon nanotubes, characterized in that the air electrode further comprises a plurality of perovskite oxide particles, wherein an average particle diameter of the plurality of perovskite oxide particles is less than an average particle diameter of the plurality of layered double hydroxide particles as measured using a scanning electron microscope, wherein at least a portion of the plurality of perovskite oxide particles is in mutual contact, and the plurality of perovskite oxide particles is supported on the plurality of layered double hydroxide particles, wherein at least a portion of the plurality of carbon nanotubes is in mutual contact, and at least a portion of the plurality of perovskite oxide particles is in contact with the plurality of carbon nanotubes, and wherein the perovskite oxide particles exhibit electron conductivity and are of a composition expressed by the formula LaNi 1-x-y Cu x Fe y O 3-, wherein x>0, y>0, x+y<1, 0≤δ≤0.4.
A biocompatible articulated support structure, comprising: a tubular structure, comprising: a central lumen; a central axis; a plurality of discrete inner struts; and a plurality of discrete outer struts; wherein each of the plurality of discrete inner struts and the plurality of discrete outer struts comprises a first end, a second end, and a net length therebetween; wherein each of the plurality of discrete inner struts comprises articulations (1806, 1808) with at least three different discrete outer struts of the plurality of discrete outer struts; wherein each of the plurality of discrete outer struts comprises articulations with at least three different discrete inner struts of the plurality of discrete inner struts; wherein no discrete inner strut of the plurality of discrete inner struts comprises articulations with any other discrete inner strut of the plurality of discrete inner struts; and wherein no discrete outer strut of the plurality of discrete outer struts comprises articulations with any other discrete outer strut of the plurality of discrete outer struts; characterized in that the first end of each of the plurality of discrete inner struts is spaced apart from a closest articulation by about at least 25% of the net length of that strut and the second end of each of said plurality of discrete inner struts is spaced apart from a closest articulation by about at least 25% of the net length of that strut. a tubular structure, comprising: a central lumen; a central axis; a plurality of discrete inner struts; and a plurality of discrete outer struts; a central lumen; a central axis; a plurality of discrete inner struts; and a plurality of discrete outer struts; wherein each of the plurality of discrete inner struts and the plurality of discrete outer struts comprises a first end, a second end, and a net length therebetween; wherein each of the plurality of discrete inner struts comprises articulations (1806, 1808) with at least three different discrete outer struts of the plurality of discrete outer struts; wherein each of the plurality of discrete outer struts comprises articulations with at least three different discrete inner struts of the plurality of discrete inner struts; wherein no discrete inner strut of the plurality of discrete inner struts comprises articulations with any other discrete inner strut of the plurality of discrete inner struts; and wherein no discrete outer strut of the plurality of discrete outer struts comprises articulations with any other discrete outer strut of the plurality of discrete outer struts; characterized in that the first end of each of the plurality of discrete inner struts is spaced apart from a closest articulation by about at least 25% of the net length of that strut and the second end of each of said plurality of discrete inner struts is spaced apart from a closest articulation by about at least 25% of the net length of that strut.
A system for optimizing fractionation schemes in planning radiation therapy of a subject, the system comprising: - an input (6, 7, 8) configured to receive anatomical image data of the subject, and a predetermined radiation therapy treatment plan comprising a dose distribution to be delivered to the subject; - an input configured to receive a first set of reference parameters of a fractionation scheme; - a fractionation scheme input configured to receive a second set of parameters of a fractionation scheme; - a biological impact calculation module comprising at least one qualitative effect calculation model, which calculation module is configured to calculate the biological impact of the radiation therapy treatment plan based on the anatomical image data of the subject, the dose distribution and a received set of parameters of a fractionation scheme; and - an output module configured to simultaneously provide at least two sets of results (14, 15) from the biological impact calculation module, wherein for the first set of results (14, 314, 470) the reference parameters are used as the received set of parameters of the fractionation scheme and for the second set of results (15, 315, 475) the second set of parameters are used as the received set of parameters of the fractionation scheme. - an input (6, 7, 8) configured to receive anatomical image data of the subject, and a predetermined radiation therapy treatment plan comprising a dose distribution to be delivered to the subject; - an input configured to receive a first set of reference parameters of a fractionation scheme; - a fractionation scheme input configured to receive a second set of parameters of a fractionation scheme; - a biological impact calculation module comprising at least one qualitative effect calculation model, which calculation module is configured to calculate the biological impact of the radiation therapy treatment plan based on the anatomical image data of the subject, the dose distribution and a received set of parameters of a fractionation scheme; and - an output module configured to simultaneously provide at least two sets of results (14, 15) from the biological impact calculation module,
A terminal protection method, wherein the method is applied to a terminal (001, 401), and the method comprises: obtaining, an air pressure change value collected by an air pressure sensor (004, 404); comparing, the air pressure change value with a preset air pressure change threshold; and when the air pressure change value exceeds the preset air pressure change threshold, generating, a break instruction, wherein the break instruction is used to break a power supply circuit of a mainboard circuit of the terminal (001, 401); characterized in that the air pressure change value is generated when a waterproof membrane (003, 403) is deformed by water pressure, and the waterproof membrane (003, 403) is provided on a surface of an airtight enclosure (002, 402) and wherein the air pressure sensor (004, 404) is provided inside the airtight enclosure (002, 402). obtaining, an air pressure change value collected by an air pressure sensor (004, 404); comparing, the air pressure change value with a preset air pressure change threshold; and when the air pressure change value exceeds the preset air pressure change threshold, generating, a break instruction, wherein the break instruction is used to break a power supply circuit of a mainboard circuit of the terminal (001, 401); characterized in that the air pressure change value is generated when a waterproof membrane (003, 403) is deformed by water pressure, and the waterproof membrane (003, 403) is provided on a surface of an airtight enclosure (002, 402) and wherein the air pressure sensor (004, 404) is provided inside the airtight enclosure (002, 402).
A method performed by a base station of enabling a User Equipment, UE, to determine a precoder codebook in a wireless communication system, the method comprising: transmitting to the UE, precoder parameters enabling the UE to determine the precoder codebook based on a parameter-based codebook, which precoder parameters are associated with a plurality of antenna ports of the base station, wherein the precoder parameters relate to a first dimension and a second dimension of the precoder codebook, and wherein the plurality of antenna ports comprises a number NT of antenna ports that is a function of a number Nh of antenna ports in the first dimension, and a number Nv of antenna ports in the second dimension, wherein the precoder parameters comprise a parameter that specifies the number Nh of antenna ports and an oversampling factor Qh in the first dimension, and a parameter that specifies the number Nv of antenna ports and an oversampling factor Qv in the second dimension, and wherein a precoder in the precoder codebook comprises a first precoder matrix associated with the first dimension, a second precoder matrix associated with the second dimension, and a frequency-selective precoder. transmitting to the UE, precoder parameters enabling the UE to determine the precoder codebook based on a parameter-based codebook, which precoder parameters are associated with a plurality of antenna ports of the base station, wherein the precoder parameters relate to a first dimension and a second dimension of the precoder codebook, and wherein the plurality of antenna ports comprises a number NT of antenna ports that is a function of a number Nh of antenna ports in the first dimension, and a number Nv of antenna ports in the second dimension, wherein the precoder parameters comprise a parameter that specifies the number Nh of antenna ports and an oversampling factor Qh in the first dimension, and a parameter that specifies the number Nv of antenna ports and an oversampling factor Qv in the second dimension, and wherein a precoder in the precoder codebook comprises a first precoder matrix associated with the first dimension, a second precoder matrix associated with the second dimension, and a frequency-selective precoder.
A method for a base station to reduce interference, generated by an uplink unicast transmission from a mobile station, on at least one downlink broadcast transmission received by the mobile station, wherein the method comprises: assigning at least one time period to the at least one downlink broadcast transmission; and scheduling at least one unicast uplink transmission from the mobile station; wherein the method further comprises: receiving from the mobile station information relating to the at least one downlink broadcast transmission as decoded by the mobile station, such that the scheduling of the at least one unicast uplink transmission from the mobile station takes into account the received information and is arranged to avoid the at least one unicast uplink transmission being concurrent with at least one downlink broadcast transmission that the mobile station is decoding. assigning at least one time period to the at least one downlink broadcast transmission; and scheduling at least one unicast uplink transmission from the mobile station; wherein the method further comprises: receiving from the mobile station information relating to the at least one downlink broadcast transmission as decoded by the mobile station, such that the scheduling of the at least one unicast uplink transmission from the mobile station takes into account the received information and is arranged to avoid the at least one unicast uplink transmission being concurrent with at least one downlink broadcast transmission that the mobile station is decoding.
A contact block comprising: a casing having an axially facing front end, an axially facing rear end, first and second opposite sides (10, 12) and internal switching contacts; a first wiring compartment located at the first side of the casing and having an open front end and an open rear end; a first switch conductor extending laterally into and substantially dividing said first wiring compartment into front and rear wiring chambers (40, 42); an axially extending first wiring terminal in one of said wiring chambers connected to said first switch conductor; and characterised by a first cover removably attached to said casing over said first wiring compartment, said first cover including at least one lateral wiring port axially offset from said first switch conductor and an axially facing access opening near said wiring port, said first cover and said casing having substantially biaxially symmetrical mating portions that enable reversible attachment of said first cover to said casing in either of two orientations so that the wiring chamber (40, 42) in which said first wiring terminal is located is accessible by a wire through said wiring port and said first wiring terminal is accessible by a tool through said access opening. a casing having an axially facing front end, an axially facing rear end, first and second opposite sides (10, 12) and internal switching contacts; a first wiring compartment located at the first side of the casing and having an open front end and an open rear end; a first switch conductor extending laterally into and substantially dividing said first wiring compartment into front and rear wiring chambers (40, 42); an axially extending first wiring terminal in one of said wiring chambers connected to said first switch conductor; and
In a system comprising a plurality of peer devices in proximity with each other, a method comprising: triggering, by an upper layer of a first peer device of the plurality of peers, a peer-to-peer, P2P, session with a second peer device of the plurality of peer devices, the P2P session using a first application; and downloading, by the upper layer, context information related to the first application such that the context information is available to another application that is different than the first application, the other application comprising at least one of a discovery function of the first peer device, an association function of the first peer device, a data transceiving function of the first peer device, a channel management function of the first peer device, a general scan function of the first peer device, a synchronization function of the first peer device, a power control function of the first peer device, and a management and reporting function of the first peer device, wherein the context information related to the first application comprises quality of service data associated with the P2P session; and based on the quality of service data associated with the P2P session, the association function of the first peer device dis-associating from the second peer device-and/or re-associating with the second peer device. triggering, by an upper layer of a first peer device of the plurality of peers, a peer-to-peer, P2P, session with a second peer device of the plurality of peer devices, the P2P session using a first application; and downloading, by the upper layer, context information related to the first application such that the context information is available to another application that is different than the first application, the other application comprising at least one of a discovery function of the first peer device, an association function of the first peer device, a data transceiving function of the first peer device, a channel management function of the first peer device, a general scan function of the first peer device, a synchronization function of the first peer device, a power control function of the first peer device, and a management and reporting function of the first peer device, wherein the context information related to the first application comprises quality of service data associated with the P2P session; and based on the quality of service data associated with the P2P session, the association function of the first peer device dis-associating from the second peer device-and/or re-associating with the second peer device.
Camera-based method for determining the distance from an object in the surroundings of a vehicle, in the case of a stationary vehicle, wherein a camera is permanently attached to the vehicle, having the following steps: - detecting a first predefined event which relates to a pitching movement of the vehicle; - activating the camera on the basis of the detection of the first event, in order to capture a first and a second image of the surroundings to the front or rear of the vehicle with a chronological relationship to the pitching movement; - determining an absolute displacement of the camera in the vertical direction and/or by pivoting an image axis of the camera by means of the pitching movement, and - processing the first and second images in order to determine a distance from the object from shifting of the object, which has occurred between the recording times of the first and second images owing to the pitching movement, in the field of vision of the camera, wherein the determined absolute displacement is included in the determination of the distance from the object. - detecting a first predefined event which relates to a pitching movement of the vehicle; - activating the camera on the basis of the detection of the first event, in order to capture a first and a second image of the surroundings to the front or rear of the vehicle with a chronological relationship to the pitching movement; - determining an absolute displacement of the camera in the vertical direction and/or by pivoting an image axis of the camera by means of the pitching movement, and - processing the first and second images in order to determine a distance from the object from shifting of the object, which has occurred between the recording times of the first and second images owing to the pitching movement, in the field of vision of the camera, wherein the determined absolute displacement is included in the determination of the distance from the object.
Gas diffusion layer obtainable by a method which comprises a) providing a fibre composition which comprises carbon fibres and/or precursors of carbon fibres, b) subjecting the fibre composition provided in step a) to a method for producing a fibrous web, c) consolidating the fibrous web by exposure to aqueous fluid jets to form a nonwoven, the water used having a conductivity of at most 250 microsiemens/cm at 25°C, d) optionally subjecting the nonwoven obtained in step c) to a thermal and/or mechanical treatment for drying and/or further consolidation, e) if the fibre composition used in step a) comprises precursors of carbon fibres, subjecting the nonwoven to pyrolysis at a temperature of at least 1000°C. a) providing a fibre composition which comprises carbon fibres and/or precursors of carbon fibres, b) subjecting the fibre composition provided in step a) to a method for producing a fibrous web, c) consolidating the fibrous web by exposure to aqueous fluid jets to form a nonwoven, the water used having a conductivity of at most 250 microsiemens/cm at 25°C, d) optionally subjecting the nonwoven obtained in step c) to a thermal and/or mechanical treatment for drying and/or further consolidation, e) if the fibre composition used in step a) comprises precursors of carbon fibres, subjecting the nonwoven to pyrolysis at a temperature of at least 1000°C.
Packaging for an injection device, the packaging comprising: a channel extending longitudinally to accommodate the injection device, the channel including a longitudinal wall adjoining a base wall; a handling recess formed through the longitudinal wall, the packaging further comprising a positioning rib extending longitudinally and protruding from the base wall into the channel for insertion into a positioning recess arranged in a body of the injection device, the positioning rib arranged offset laterally from the handling recess and extending in and/or outside a longitudinal field defined by the handling recess, characterized in that the lateral position of the positioning rib is central in the channel. a channel extending longitudinally to accommodate the injection device, the channel including a longitudinal wall adjoining a base wall; a handling recess formed through the longitudinal wall, the packaging further comprising a positioning rib extending longitudinally and protruding from the base wall into the channel for insertion into a positioning recess arranged in a body of the injection device, the positioning rib arranged offset laterally from the handling recess and extending in and/or outside a longitudinal field defined by the handling recess, characterized in that the lateral position of the positioning rib is central in the channel.