mhurhangee/ep-ind-claims huggingface dataset:
An emissive layer for an electroluminescent display device, the emissive layer comprising: a two-dopant system, the two-dopant system comprising: a population of quantum dots (QDs); and a population of molecules exhibiting thermally activated delayed fluorescence (TADF), wherein the TADF molecules are selected from: (2,3,5,6-tetra(9H-carbazol-9-yl)isonicotinonitrile, (2,3,5,6-tetra(9H-carbazol-9-yl)benzonitrile), (2,3,4,5,6-penta(9H-carbazol-9-yl)benzonitrile), (2,3,5,6-tetrakis(3,6-di-tert-butyl-9H-carbazol-9-yl)benzonitrile), and (2,3,4,5,6-pentakis(3,6-di-tert-butyl-9H-carbazol-9-yl)benzonitrile); and wherein: the emissive layer is free of host matrix; and the emissive layer has a QD:TADF molecule ratio of 6: 1 to 1: 1 by weight. a population of quantum dots (QDs); and a population of molecules exhibiting thermally activated delayed fluorescence (TADF), wherein the TADF molecules are selected from: (2,3,5,6-tetra(9H-carbazol-9-yl)isonicotinonitrile, (2,3,5,6-tetra(9H-carbazol-9-yl)benzonitrile), (2,3,4,5,6-penta(9H-carbazol-9-yl)benzonitrile), (2,3,5,6-tetrakis(3,6-di-tert-butyl-9H-carbazol-9-yl)benzonitrile), and (2,3,4,5,6-pentakis(3,6-di-tert-butyl-9H-carbazol-9-yl)benzonitrile); and wherein: the emissive layer is free of host matrix; and the emissive layer has a QD:TADF molecule ratio of 6: 1 to 1: 1 by weight. the emissive layer is free of host matrix; and the emissive layer has a QD:TADF molecule ratio of 6: 1 to 1: 1 by weight.
A heat exchanger with mutually adjacent first flow channels (5, 6) and second flow channels (5, 6), wherein the first flow channels (5, 6) and the second flow channels at a first end region are received in a first header and at a second end region in a second header, wherein the first header consists of a first base and a first cover and the second header consists of a second base and a second cover, wherein the first base and the second base have a plurality of openings in which the end regions of the flow channels (5, 6) are received, wherein the first header has a first longitudinal channel and a second longitudinal channel, wherein the first flow channels (5, 6) are in fluid communication with the first longitudinal channel and the second flow channels (5, 6) are in fluid communication with the second longitudinal channel, characterised in that the second header together with the second base of the second header forms cross channels, wherein in each case a first flow channel (5, 6) and a second flow channel (5, 6) are in fluid communication with one another via a cross channel.
A magnetic immunosensing device, comprising: a sensing electrode on a substantially planar chip, wherein the electrode is positioned in a conduit for receiving a sample mixed with antibody-labeled magnetically susceptible beads; and an integrated high-field permanent magnetic layer on the chip, wherein the magnetic layer is a micro fabricated magnetic layer on a substantially planar surface and is positioned relative to the electrode, thereby attracting the beads substantially proximate to the electrode and substantially retaining the beads at the electrode surface during removal of unbound sample and washing of the electrode; wherein the magnetic layer comprises high-field permanent magnetic particulates, wherein the magnetic particulates are dispersed in a thermally, chemically or photoformably cured immobilization matrix, wherein the magnetic particulates comprise a neodymium iron boron (NdFeB) alloy, wherein the magnetic particulates have an average particle size of from 0.01 μm to 20 μm. a sensing electrode on a substantially planar chip, wherein the electrode is positioned in a conduit for receiving a sample mixed with antibody-labeled magnetically susceptible beads; and an integrated high-field permanent magnetic layer on the chip, wherein the magnetic layer is a micro fabricated magnetic layer on a substantially planar surface and is positioned relative to the electrode, thereby attracting the beads substantially proximate to the electrode and substantially retaining the beads at the electrode surface during removal of unbound sample and washing of the electrode; wherein the magnetic layer comprises high-field permanent magnetic particulates, wherein the magnetic particulates are dispersed in a thermally, chemically or photoformably cured immobilization matrix, wherein the magnetic particulates comprise a neodymium iron boron (NdFeB) alloy, wherein the magnetic particulates have an average particle size of from 0.01 μm to 20 μm.
An ultrasonic sensor for detecting the presence or absence of a fluid in contact with the sensor, and/or its level, comprising: a first probe having a transducer element operably connected thereto, the transducer element configured to transmit an ultrasonic signal through the first probe; and a second probe having a transducer element operably connected thereto, the transducer element configured to receive the ultrasonic signal transmitted by the first probe through the fluid, to determine the presence or absence of a fluid, and when fluid is present, a location of the fluid along the second probe, wherein the second probe has other than a straight shape, the other than straight shape providing a greater effective length than the first probe, wherein the other than straight shape of the second probe increases the path length of the received signal to increase resolution and accuracy of sensing the presence or absence of the fluid, and when fluid is present, the resolution and accuracy of the location along the second probe at which the fluid is present, wherein characterized in that: the first probe is a straight rod. a first probe having a transducer element operably connected thereto, the transducer element configured to transmit an ultrasonic signal through the first probe; and a second probe having a transducer element operably connected thereto, the transducer element configured to receive the ultrasonic signal transmitted by the first probe through the fluid, to determine the presence or absence of a fluid, and when fluid is present, a location of the fluid along the second probe, wherein the second probe has other than a straight shape, the other than straight shape providing a greater effective length than the first probe, wherein the other than straight shape of the second probe increases the path length of the received signal to increase resolution and accuracy of sensing the presence or absence of the fluid, and when fluid is present, the resolution and accuracy of the location along the second probe at which the fluid is present, wherein characterized in that: the first probe is a straight rod.
A method at a Fifth Generation, 5G, base station of supporting location of a user equipment UE with 5G wireless access, the method comprising: transferring a first Long Term Evolution, LTE, Positioning Protocol, LPP, message (416, 417) received from an access management function, AMF, to the UE; receiving a 5G Radio Resource Control, RRC, message from the UE, wherein the 5G RRC message comprises a request for an idle period in which the UE may tune away from said 5G wireless access, said request including a length of the idle period and when the idle period should occur; suspending 5G transmission to the UE and 5G reception from the UE during the idle period; receiving a request for measurement gaps from the UE; suspending 5G transmission to the UE and 5G reception from the UE during the measurement gaps, wherein the UE tunes away from said 5G wireless access and obtains at least one location measurement based on the first LPP message (416, 417) during the measurement gaps while being tuned away, wherein the at least one location measurement is a measurement for a Radio Access Technology, RAT,-independent positioning method or a measurement for an Evolved Universal Terrestrial Radio Access, E-UTRA, positioning method; and transferring a second LPP message (419, 420) received from the UE to the AMF, wherein the second LPP message (419, 420) comprises location information for the UE, the location information based on the at least one location measurement. transferring a first Long Term Evolution, LTE, Positioning Protocol, LPP, message (416, 417) received from an access management function, AMF, to the UE; receiving a 5G Radio Resource Control, RRC, message from the UE, wherein the 5G RRC message comprises a request for an idle period in which the UE may tune away from said 5G wireless access, said request including a length of the idle period and when the idle period should occur; suspending 5G transmission to the UE and 5G reception from the UE during the idle period; receiving a request for measurement gaps from the UE; suspending 5G transmission to the UE and 5G reception from the UE during the measurement gaps, wherein the UE tunes away from said 5G wireless access and obtains at least one location measurement based on the first LPP message (416, 417) during the measurement gaps while being tuned away, wherein the at least one location measurement is a measurement for a Radio Access Technology, RAT,-independent positioning method or a measurement for an Evolved Universal Terrestrial Radio Access, E-UTRA, positioning method; and transferring a second LPP message (419, 420) received from the UE to the AMF, wherein the second LPP message (419, 420) comprises location information for the UE, the location information based on the at least one location measurement.
A humeral head resurfacing implant comprising an integral head and stem which includes: an integral isotropic graphite substrate having a head portion and a stem portion of cruciform cross section which extends distally therefrom, the stem portion having four fins, a coating of dense isotropic pyrocarbon having a thickness of at least about 0.2 mm that covers substantially said entire substrate, which pyrocarbon has a density of between 1.7 and 2.1 g/cm 3 and a hardness of at least about 200 DPH, said head having a distal surface and an exterior surface shape of a section of a spheroid which serves as a proximal surface to interface with a patient's glenoid or glenoid replacement, and said stem having a width of between 45% and 60% of the width of said head, each of said four fins of said cruciform stem, which fins extend radially from a center axial region, having a thickness equal to between 2 mm and 3 mm and joining said distal surface of said head at a fillet having a radius of between 1.5 mm and 2.2 mm. an integral isotropic graphite substrate having a head portion and a stem portion of cruciform cross section which extends distally therefrom, the stem portion having four fins, a coating of dense isotropic pyrocarbon having a thickness of at least about 0.2 mm that covers substantially said entire substrate, which pyrocarbon has a density of between 1.7 and 2.1 g/cm 3 and a hardness of at least about 200 DPH, said head having a distal surface and an exterior surface shape of a section of a spheroid which serves as a proximal surface to interface with a patient's glenoid or glenoid replacement, and said stem having a width of between 45% and 60% of the width of said head, each of said four fins of said cruciform stem, which fins extend radially from a center axial region, having a thickness equal to between 2 mm and 3 mm and joining said distal surface of said head at a fillet having a radius of between 1.5 mm and 2.2 mm.
A composition for medical use in sedation, characterized in that the composition consists of MK-467, an α 2 -adrenoceptor agonist selected from medetomidine, dexmedetomidine, and detomidine, and one or more of physiologically acceptable aqueous media, pharmaceutically acceptable carriers and pharmaceutically acceptable excipients, and characterized in that the composition is administered using parenteral extravascular administration to a subject in need of sedation.
A streamer cable comprising: an outer skin; at least one sensor positioned within the outer skin; and a solid void-filler material comprising a polymer and positioned to substantially permeate an area between the outer skin and the at least one sensor, wherein the void-filler material is coupled to the at least one sensor, characterized in that the mobility of the void filler material and the elasticity of the outer skin are chosen in such a way that none of the frequency modes of propagation of bulge waves of the streamer cable fall within the signal frequencies to be measured by the streamer cable. an outer skin; at least one sensor positioned within the outer skin; and a solid void-filler material comprising a polymer and positioned to substantially permeate an area between the outer skin and the at least one sensor, wherein the void-filler material is coupled to the at least one sensor, characterized in that the mobility of the void filler material and the elasticity of the outer skin are chosen in such a way that none of the frequency modes of propagation of bulge waves of the streamer cable fall within the signal frequencies to be measured by the streamer cable.
A thermoplastic resin composition comprising the following components to and, relative to the total amount thereof, containing from 60 to 84 % by weight of the component, from 3 to 23 % by weight of the component, and from 3 to 28 % by weight of the component: Component: a crystalline polyester containing an aliphatic dicarboxylic acid unit and having a melting peak temperature in the range of 110 to 140°C measured in conformity with JIS K7121 as described in the present specification Component: at least either one of a polyolefin and an amorphous polyester Component: a styrene-based thermoplastic elastomer which is at least one block copolymer out of the group consisting of a block copolymer having a polymer block P derived from a vinyl aromatic compound and a polymer block Q derived from a conjugated diene, and a block copolymer obtained by hydrogenating the block copolymer above and in which the total amount of a 1,2-bond unit and a 3,4-bond unit in the block Q is 60 mol% or more. Component: a crystalline polyester containing an aliphatic dicarboxylic acid unit and having a melting peak temperature in the range of 110 to 140°C measured in conformity with JIS K7121 as described in the present specification Component: at least either one of a polyolefin and an amorphous polyester Component: a styrene-based thermoplastic elastomer which is at least one block copolymer out of the group consisting of a block copolymer having a polymer block P derived from a vinyl aromatic compound and a polymer block Q derived from a conjugated diene, and a block copolymer obtained by hydrogenating the block copolymer above and in which the total amount of a 1,2-bond unit and a 3,4-bond unit in the block Q is 60 mol% or more.
An apparatus comprising: a microneedle assembly comprising a base surface, a plurality of microneedles extending outwardly from the base surface, and a pathway at least partially defined by a microneedle of the microneedle assembly; and characterised by a membrane draped over at least a portion of the plurality of microneedles, wherein the membrane comprises an aperture in fluid communication with the pathway, at least a portion of the membrane is spaced apart from the microneedle so that a gap is defined between the membrane and the microneedle, and the gap extends both at least partially around the microneedle and at least partially along the microneedle. a microneedle assembly comprising a base surface, a plurality of microneedles extending outwardly from the base surface, and a pathway at least partially defined by a microneedle of the microneedle assembly; and characterised by a base surface, a plurality of microneedles extending outwardly from the base surface, and a pathway at least partially defined by a microneedle of the microneedle assembly; and characterised by a membrane draped over at least a portion of the plurality of microneedles, wherein the membrane comprises an aperture in fluid communication with the pathway, at least a portion of the membrane is spaced apart from the microneedle so that a gap is defined between the membrane and the microneedle, and the gap extends both at least partially around the microneedle and at least partially along the microneedle. the membrane comprises an aperture in fluid communication with the pathway, at least a portion of the membrane is spaced apart from the microneedle so that a gap is defined between the membrane and the microneedle, and the gap extends both at least partially around the microneedle and at least partially along the microneedle.
A method for cleaning one or more cooling passages associated with a combustion chamber of a gas turbine engine, the gas turbine engine having a compressor section upstream from the combustion chamber, the method comprising: receiving a pressurized fluid from an external pressurized fluid source remote from the gas turbine engine; coupling an outlet conduit to the external pressurized fluid source and an inlet of a chamber; directing the pressurized fluid through the inlet of the chamber such that a portion of a plurality of particles within the chamber is entrained within the pressurized fluid; coupling an inlet conduit to an outlet of the chamber and an end wall of a diffuser and deswirl system; and injecting the pressurized fluid with the entrained portion of the plurality of particles downstream from the compressor section through the end wall of a diffuser and deswirl system of the gas turbine engine to clean the one or more cooling passages associated with the combustion chamber. receiving a pressurized fluid from an external pressurized fluid source remote from the gas turbine engine; coupling an outlet conduit to the external pressurized fluid source and an inlet of a chamber; directing the pressurized fluid through the inlet of the chamber such that a portion of a plurality of particles within the chamber is entrained within the pressurized fluid; coupling an inlet conduit to an outlet of the chamber and an end wall of a diffuser and deswirl system; and injecting the pressurized fluid with the entrained portion of the plurality of particles downstream from the compressor section through the end wall of a diffuser and deswirl system of the gas turbine engine to clean the one or more cooling passages associated with the combustion chamber.
System for creating a virtual reality environment, comprising a stationary base; a platform which is arranged in a movable manner in relation to the stationary base and which is surrounded by a film which is movable in relation to the platform; and at least one movement actuator (16a, 16b, 16c) which is designed to move the film in relation to the platform, characterized in that at least one floating actuator allows the platform to be offset with respect to the base in a contactless floating state and to be kept in this state, wherein the system has at least one movement sensor (12, 13) which is designed to detect the movement of a person who is located on the platform.
A method for producing a chocolate product, the method comprising: delivering liquid chocolate having a viscosity through a pipe along a delivery path to a production station for producing the chocolate product, the liquid chocolate including solid particles suspended within the liquid chocolate; and changing the viscosity of the liquid chocolate by applying an electric field to the liquid chocolate in a direction along the delivery path of a strength and duration determined to aggregate the suspended solid particles into streamlined shapes extending along the direction of the delivery path. delivering liquid chocolate having a viscosity through a pipe along a delivery path to a production station for producing the chocolate product, the liquid chocolate including solid particles suspended within the liquid chocolate; and changing the viscosity of the liquid chocolate by applying an electric field to the liquid chocolate in a direction along the delivery path of a strength and duration determined to aggregate the suspended solid particles into streamlined shapes extending along the direction of the delivery path.
A method for use in a central coordination node for coordinating resource scheduling between two or more wireless networks which operate on same or overlapping radio resources, wherein each wireless network comprises one or more radio access nodes and one or more terminal devices connected thereto, the method comprising: receiving a resource coordination request message from at least one wireless network, wherein the resource coordination request message includes identifiers of at least one pair of wireless links which include an interfered wireless link in the at least one wireless network and an interfering wireless link in a second wireless network; performing coordination about schedulable resources for the interfered wireless link and the interfering wireless link based on the resource coordination request message; and transmitting a coordinated schedulable resource message to the at least one wireless network and the second wireless network such that at least one of the interfered wireless link and the interfering wireless link is scheduled according to the coordinated schedulable resource message; wherein the performing the coordination comprises: transmitting respectively to the at least one wireless network and the second wireless network a coordinated resource release message to release the coordinated resources when the interference falls below a pre-determined threshold or the interference has not occurred for a pre-determined period of time. receiving a resource coordination request message from at least one wireless network, wherein the resource coordination request message includes identifiers of at least one pair of wireless links which include an interfered wireless link in the at least one wireless network and an interfering wireless link in a second wireless network; performing coordination about schedulable resources for the interfered wireless link and the interfering wireless link based on the resource coordination request message; and transmitting a coordinated schedulable resource message to the at least one wireless network and the second wireless network such that at least one of the interfered wireless link and the interfering wireless link is scheduled according to the coordinated schedulable resource message; wherein the performing the coordination comprises: transmitting respectively to the at least one wireless network and the second wireless network a coordinated resource release message to release the coordinated resources when the interference falls below a pre-determined threshold or the interference has not occurred for a pre-determined period of time.
A multiple disc brake system, comprising: an annular disc stack that includes interleaved sets of rotor discs and stator discs; an axially extending torque tube; and an actuator that axially moves the rotor discs into engagement with an axially adjacent stator disc; characterised in that: each of the stator discs includes an inner core that includes a plurality of circumferential arranged stator lugs and a plurality of stator gaps between inner portions of the plurality of circumferential arranged stator lugs, wherein the plurality of circumferential arranged stator lugs secure the stator discs to the torque tube, wherein each of the plurality of circumferential stator lugs comprises tapered side walls on both sides of the stator gap that taper inwardly transverse to the axially extending torque tube, and wherein the plurality of stator gaps with the tapered side walls align with a plurality of stator splines of the axially extending torque tube. an annular disc stack that includes interleaved sets of rotor discs and stator discs; an axially extending torque tube; and an actuator that axially moves the rotor discs into engagement with an axially adjacent stator disc;