mhurhangee/ep-ind-claims huggingface dataset:
A high strength low density panel having an upper face opposite a lower face, said panel comprising: a plurality of substantially hollow sections (4, 104), each said section having a shored face (5, 105) opposite a second face and four or respective three corners (7, 107) extending between said shored face and said second face; each section having four or respective three sidewalls (8, 108) of substantially continuous material, each said sidewall extending from each corner to an adjacent corner; each said sidewall further extending from a shored border substantially coplanar with said shored face to a second border substantially coplanar with said second face; wherein each border has a midpoint and wherein each corner has a midpoint (7M, 107M); each section having a buttress (11, 111) comprising a rectangular or respective triangular sheet (12, 112) of material positioned substantially coplanar with said shored face, wherein said rectangular or respective triangular sheet has four or respective three corners (13, 113) and wherein each corner of said rectangular or respective triangular sheet joins one of said shored borders at about the midpoint of said shored border; each buttress further comprising a plurality of buttress braces (14, 114), each buttress brace extending from two adjacent corners of said rectangular or respective triangular sheet to the one of said section corners positioned between said adjacent corners of said rectangular or respective triangular sheet. a plurality of substantially hollow sections (4, 104), each said section having a shored face (5, 105) opposite a second face and four or respective three corners (7, 107) extending between said shored face and said second face; each section having four or respective three sidewalls (8, 108) of substantially continuous material, each said sidewall extending from each corner to an adjacent corner; each said sidewall further extending from a shored border substantially coplanar with said shored face to a second border substantially coplanar with said second face; wherein each border has a midpoint and wherein each corner has a midpoint (7M, 107M); each section having a buttress (11, 111) comprising a rectangular or respective triangular sheet (12, 112) of material positioned substantially coplanar with said shored face, wherein said rectangular or respective triangular sheet has four or respective three corners (13, 113) and wherein each corner of said rectangular or respective triangular sheet joins one of said shored borders at about the midpoint of said shored border; each buttress further comprising a plurality of buttress braces (14, 114), each buttress brace extending from two adjacent corners of said rectangular or respective triangular sheet to the one of said section corners positioned between said adjacent corners of said rectangular or respective triangular sheet.
A magnetic resonance receive device comprising: a coil array including a plurality of radiofrequency coil elements wherein each RF coil element comprises a coil (E1, E2, E3,..., E N) configured to detect an MR signal and a preamplifier (LNA 1, LNA 2, LNA 3,..., LNA N) connected and configured to amplify an output of the RF coil element to generate an amplified RF signal, and the coil array further comprising a plurality of RF mixers connected to respective RF coil elements, each RF mixer configured for frequency shifting the RF signal of the corresponding RF coil element to a designated frequency for that RF coil element; and an RF-over-Fiber module comprising an optical fiber, a photonic device (24, 25) optically coupled and configured to send an optical signal into the optical fiber, and an RF modulator connected and configured to modulate the optical signal by a multiplexed MR signal comprising a frequency domain multiplexed combination of the frequency shifted RF signals of the plurality of RF coil elements, and wherein the device further comprises a second RF-over-Fiber module configured to send oscillator signals to the RF mixers, and wherein the coil array is configured to be powered at least partially by optical power conveyed to the coil array via the oscillator signals of the second RF-over-Fiber module, wherein the device further comprises a coil-side photodetector configured to convert optical power received via the second RF-over-Fiber module into electrical power. a coil array including a plurality of radiofrequency coil elements wherein each RF coil element comprises a coil (E1, E2, E3,..., E N) configured to detect an MR signal and a preamplifier (LNA 1, LNA 2, LNA 3,..., LNA N) connected and configured to amplify an output of the RF coil element to generate an amplified RF signal, and the coil array further comprising a plurality of RF mixers connected to respective RF coil elements, each RF mixer configured for frequency shifting the RF signal of the corresponding RF coil element to a designated frequency for that RF coil element; and an RF-over-Fiber module comprising an optical fiber, a photonic device (24, 25) optically coupled and configured to send an optical signal into the optical fiber, and an RF modulator connected and configured to modulate the optical signal by a multiplexed MR signal comprising a frequency domain multiplexed combination of the frequency shifted RF signals of the plurality of RF coil elements, and wherein the device further comprises a second RF-over-Fiber module configured to send oscillator signals to the RF mixers, and wherein the coil array is configured to be powered at least partially by optical power conveyed to the coil array via the oscillator signals of the second RF-over-Fiber module, wherein the device further comprises a coil-side photodetector configured to convert optical power received via the second RF-over-Fiber module into electrical power.
A conveyor-belt measuring system comprising: a conveyor belt having a top side and a bottom side; a drive and detection stage (52; 180) external to the conveyor belt and including: an oscillator producing a drive signal; a first external capacitor plate (P 1) positioned near the bottom side of the conveyor belt and connected in series with the oscillator; a second external capacitor plate (P 2L, P 2R) positioned near the bottom side of the conveyor belt; a detector connected to the second external capacitor plate (P 2L, P 2R); a first belt capacitor plate (P 6) mounted in the conveyor belt near the bottom side of the conveyor belt; a second belt capacitor plate (P 7L, P 7R) mounted in the conveyor belt near the bottom side of the conveyor belt; wherein the first belt capacitor plate (P 6) and the first external capacitor plate (P 1) are aligned to form a drive capacitor when the second belt capacitor plate (P 7L, P 7R) and the second external capacitor plate (P 2L, P 2R) are aligned to form a communication capacitor; a sensor mounted in the conveyor belt and connected in series between the drive capacitor and the communication capacitor; wherein the drive capacitor couples the drive signal to the sensor to produce a sensor signal indicative of a physical property measured by the sensor; and wherein the detector receives the sensor signal from the communication capacitor. a conveyor belt having a top side and a bottom side; a drive and detection stage (52; 180) external to the conveyor belt and including: an oscillator producing a drive signal; a first external capacitor plate (P 1) positioned near the bottom side of the conveyor belt and connected in series with the oscillator; a second external capacitor plate (P 2L, P 2R) positioned near the bottom side of the conveyor belt; a detector connected to the second external capacitor plate (P 2L, P 2R); an oscillator producing a drive signal; a first external capacitor plate (P 1) positioned near the bottom side of the conveyor belt and connected in series with the oscillator; a second external capacitor plate (P 2L, P 2R) positioned near the bottom side of the conveyor belt; a detector connected to the second external capacitor plate (P 2L, P 2R); a first belt capacitor plate (P 6) mounted in the conveyor belt near the bottom side of the conveyor belt; a second belt capacitor plate (P 7L, P 7R) mounted in the conveyor belt near the bottom side of the conveyor belt; wherein the first belt capacitor plate (P 6) and the first external capacitor plate (P 1) are aligned to form a drive capacitor when the second belt capacitor plate (P 7L, P 7R) and the second external capacitor plate (P 2L, P 2R) are aligned to form a communication capacitor; a sensor mounted in the conveyor belt and connected in series between the drive capacitor and the communication capacitor; wherein the drive capacitor couples the drive signal to the sensor to produce a sensor signal indicative of a physical property measured by the sensor; and wherein the detector receives the sensor signal from the communication capacitor.
A rotational angle detecting device which comprises: a magnet mounted on a rotating member and having an anisotropy in a circumferential direction about its axis of rotation; a magnetic sensor arranged on a stationary member so as to confront the magnet in a direction along the axis of rotation of the rotating member and having a plurality of magnetic sensor elements arranged in a plane; an angle calculating unit for measuring an intensity of magnetic field of the magnet from an output of each of the magnetic sensor elements and for detecting the angle of rotation (θ) of the rotating member based on the measured value; an interpolation unit for interpolating an interval of sampling of magnetic fields conducted by the magnetic sensor to calculate an amount of change of an angle; a function ON/OFF unit for selectively switching a function of each of the delay time correcting unit and the interpolation unit on or off; an automatic switching section for switching the delay time correcting unit on or off in dependence on whether or not the rotational speed (ω) of the rotating member is equal to or higher than a predetermined speed, such that when the rotational speed (ω) of the rotating member is not higher than the predetermined rotational speed, the delay time correcting unit is switched off; and a delay time correcting unit for correcting a delay time occurring between the detection of the magnetic field of the magnet by means of the magnetic sensor elements and an output of a detected angle from the angle calculating unit. a magnet mounted on a rotating member and having an anisotropy in a circumferential direction about its axis of rotation; a magnetic sensor arranged on a stationary member so as to confront the magnet in a direction along the axis of rotation of the rotating member and having a plurality of magnetic sensor elements arranged in a plane; an angle calculating unit for measuring an intensity of magnetic field of the magnet from an output of each of the magnetic sensor elements and for detecting the angle of rotation (θ) of the rotating member based on the measured value; an interpolation unit for interpolating an interval of sampling of magnetic fields conducted by the magnetic sensor to calculate an amount of change of an angle; a function ON/OFF unit for selectively switching a function of each of the delay time correcting unit and the interpolation unit on or off; an automatic switching section for switching the delay time correcting unit on or off in dependence on whether or not the rotational speed (ω) of the rotating member is equal to or higher than a predetermined speed, such that when the rotational speed (ω) of the rotating member is not higher than the predetermined rotational speed, the delay time correcting unit is switched off; and a delay time correcting unit for correcting a delay time occurring between the detection of the magnetic field of the magnet by means of the magnetic sensor elements and an output of a detected angle from the angle calculating unit.
A method for wireless communication at a first type of user equipment, UE, the method comprising: receiving, from a base station, one or more information elements, IEs, indicating a list of networks that are available via the base station, wherein the receiving comprises: receiving the list of networks in a first IE that indicates one or more public land mobile networks, PLMNs, that are capable of providing access only to a first type of core network; and receiving a second IE that indicates one or more PLMNs that are capable of providing access to a second type of core network, wherein the first IE and the second IE are decodable by the first type of UE, and the second IE is not decodable by a second type of UE that is incapable of accessing the second type of core network; determining the type of core network associated with each network in the list of networks, based at least in part on whether each network served by the base station is capable of providing access to the first type of core network or the second type of core network; and initiating a connection establishment to the first type of core network via a first network of the list of networks based at least in part on determining that the first network is capable of providing access to the first type of core network. receiving, from a base station, one or more information elements, IEs, indicating a list of networks that are available via the base station, wherein the receiving comprises: receiving the list of networks in a first IE that indicates one or more public land mobile networks, PLMNs, that are capable of providing access only to a first type of core network; and receiving a second IE that indicates one or more PLMNs that are capable of providing access to a second type of core network, wherein the first IE and the second IE are decodable by the first type of UE, and the second IE is not decodable by a second type of UE that is incapable of accessing the second type of core network; receiving the list of networks in a first IE that indicates one or more public land mobile networks, PLMNs, that are capable of providing access only to a first type of core network; and receiving a second IE that indicates one or more PLMNs that are capable of providing access to a second type of core network, wherein the first IE and the second IE are decodable by the first type of UE, and the second IE is not decodable by a second type of UE that is incapable of accessing the second type of core network; determining the type of core network associated with each network in the list of networks, based at least in part on whether each network served by the base station is capable of providing access to the first type of core network or the second type of core network; and initiating a connection establishment to the first type of core network via a first network of the list of networks based at least in part on determining that the first network is capable of providing access to the first type of core network.
A connector comprising a cylindrical sleeve device having a first part (210; 12), with an external screwthread (214; 14) on its outer side, and a second part (224; 17), with an internal screwthread on its inner side (236; 16), one of the screwthreads engaging a corresponding screwthread on a further part when the connector is in use, at least a portion of the said second part (224; 17) being yieldable, the connector further comprising a locking part (240; 30) provided with a screwthread (242; 33) which engages the other of the screwthreads of the cylindrical sleeve device when the connector is in use, the said second part (224; 17) and the locking part (240; 30) having mutually engageable portions (226, 244; 28, 36) which, when the locking part (240; 30) is tightened relative to the cylindrical sleeve device, interengage to cause yielding of the second part (224; 17) or the yieldable portion thereof and so effect locking of the cylindrical sleeve device with respect to such a further part when the connector is in use, characterised in that the connector has a separate sealing part (248; 56) which is coupled to the said first part (210; 12) so as to lock together the sealing part (248; 56) in a sealed relationship with the said further part when the said locking part (240; 30) is tightened relative to the cylindrical sleeve device.
Process for producing a thermoplastic fibre composite material comprising a thermoplastic moulding compound A as polymer matrix M, at least one ply of reinforcing fibres B, and optionally at least one additive C, comprising the steps of: i) providing sheetlike structures F composed of reinforcing fibres B treated with a silane size, where the sheetlike structure F is a weave, a scrim, a mat, a nonwoven or a knit, ii) introducing the sheetlike structures F into a thermoplastic moulding compound A having at least 0.3 mol%, based on component A, of a chemically reactive functionality, iii) reacting chemically reactive groups in the thermoplastic moulding compound A in the polymer matrix M with the polar groups at the surface of the treated reinforcing fibres B, iv) optionally incorporating the at least one additive C and consolidating the fibre composite material, v) cooling and optionally further process steps, wherein the chemically reactive functionality of the thermoplastic moulding compound A is based on components selected from the group consisting of: maleic anhydride, N-phenylmaleimide and glycidyl (meth)acrylate, and wherein steps (ii) and/or (iii) are performed by compression attachment at elevated pressure. i) providing sheetlike structures F composed of reinforcing fibres B treated with a silane size, where the sheetlike structure F is a weave, a scrim, a mat, a nonwoven or a knit, ii) introducing the sheetlike structures F into a thermoplastic moulding compound A having at least 0.3 mol%, based on component A, of a chemically reactive functionality, iii) reacting chemically reactive groups in the thermoplastic moulding compound A in the polymer matrix M with the polar groups at the surface of the treated reinforcing fibres B, iv) optionally incorporating the at least one additive C and consolidating the fibre composite material, v) cooling and optionally further process steps,
A composition comprising: an aqueous solution of a low-hydroxypropyl cellulose ether having a viscosity of less than 3 mPa's when measured as a 2% aqueous solution at 20°C present in an amount of at least 10% by weight of the composition, the low-hydroxypropyl cellulose ether being a hydroxypropylmethylcellulose having 27-30% by weight methoxyl groups and 4.0-7.5% by weight hydroxypropoxyl groups. an aqueous solution of a low-hydroxypropyl cellulose ether having a viscosity of less than 3 mPa's when measured as a 2% aqueous solution at 20°C present in an amount of at least 10% by weight of the composition, the low-hydroxypropyl cellulose ether being a hydroxypropylmethylcellulose having 27-30% by weight methoxyl groups and 4.0-7.5% by weight hydroxypropoxyl groups.
A method of manufacturing a flexible printed circuit board that includes a component mounting section for mounting an electronic component and a plurality of flexible cable sections extending in different directions from the component mounting section, characterized by: manufacturing a plurality of partial flexible printed circuit boards in a predetermined sheet in a unit of the partial flexible printed circuit board including a partial component mounting section formed by dividing the component mounting section into the predetermined number of parts and a flexible cable section extending from the partial component mounting section out of the plurality of flexible cable sections; cutting an area including the partial flexible printed circuit board from the sheet; performing an alignment of the predetermined number of partial flexible printed circuit boards such that the predetermined number of partial component mounting sections are combined to configure the component mounting section; and fixing the predetermined number of aligned partial flexible printed circuit boards to a support plate. manufacturing a plurality of partial flexible printed circuit boards in a predetermined sheet in a unit of the partial flexible printed circuit board including a partial component mounting section formed by dividing the component mounting section into the predetermined number of parts and a flexible cable section extending from the partial component mounting section out of the plurality of flexible cable sections; cutting an area including the partial flexible printed circuit board from the sheet; performing an alignment of the predetermined number of partial flexible printed circuit boards such that the predetermined number of partial component mounting sections are combined to configure the component mounting section; and fixing the predetermined number of aligned partial flexible printed circuit boards to a support plate.
A gas hydrate compression molding apparatus comprising: a hopper which holds gas hydrate formed by the reaction of a raw material gas with a raw material water under a high pressure; a pair of forming rolls (33a, 33b) positioned at the lower portion of an opening part of the hopper; and a screw transfer unit which supplies gas hydrate powder in said hopper to said forming rolls (33a, 33b), a high-pressure vessel which is pressurizeable to said gas hydrate-forming pressure, said forming rolls (33a, 33b) and said screw transfer unit being positioned in said high-pressure vessel, a driving unit for driving said forming rolls (33a, 33b) and a driving unit for driving said screw transfer unit, wherein the driving unit for driving said forming rolls (33a, 33b) and the driving unit for driving said screw transfer unit are positioned in said high-pressure vessel, wherein a driving machine structuring the driving unit for driving said forming rolls (33a, 33b) and a driving machine for driving said screw transfer unit is a hydraulic motor.
A computer-implemented method comprising: monitoring requests for media resources in a content delivery network; for each monitored request, determining whether to generate a multifile for the requested media resource, the multifile being a single file comprising multiple related files; determining that the requested media resource is eligible for multifile generation when a Uniform Resource Locator, URL, associated with the requested media resource matches a regular expression; and initiating generation of the multifile for the requested media resource, wherein the generated multifile is stored in a storage system associated with the content delivery network. monitoring requests for media resources in a content delivery network; for each monitored request, determining whether to generate a multifile for the requested media resource, the multifile being a single file comprising multiple related files; determining that the requested media resource is eligible for multifile generation when a Uniform Resource Locator, URL, associated with the requested media resource matches a regular expression; and initiating generation of the multifile for the requested media resource, wherein the generated multifile is stored in a storage system associated with the content delivery network.