mhurhangee/ep-ind-claims huggingface dataset:
A user equipment, comprising: a processor configured to measure a time difference of arrival of a plurality of signals received at the user equipment, receive at least one of the plurality of signals from a network node, the at least one of the plurality of signals including position information associated with a geographical position of the network node, the at least one of the plurality of signals having been received at the user equipment on at least one unlicensed band, wherein at least one other of the plurality of signals is received at the user equipment on a licensed band; and a transceiver connected to the processor, the transceiver being configured to report the time difference of arrival measurements for the plurality of signals to a location computation center along with a time stamp for each of the measurements, wherein the licensed band is a Long Term Evolution, LTE, band; and the at least one unlicensed band includes at least one of WiFi, LTE Unlicensed, LTE-U, global positioning system, GPS, signals, cordless phones, medical equipment, weather radar and Bluetooth. a processor configured to measure a time difference of arrival of a plurality of signals received at the user equipment, receive at least one of the plurality of signals from a network node, the at least one of the plurality of signals including position information associated with a geographical position of the network node, the at least one of the plurality of signals having been received at the user equipment on at least one unlicensed band, wherein at least one other of the plurality of signals is received at the user equipment on a licensed band; and a transceiver connected to the processor, the transceiver being configured to report the time difference of arrival measurements for the plurality of signals to a location computation center along with a time stamp for each of the measurements, wherein the licensed band is a Long Term Evolution, LTE, band; and the at least one unlicensed band includes at least one of WiFi, LTE Unlicensed, LTE-U, global positioning system, GPS, signals, cordless phones, medical equipment, weather radar and Bluetooth.
Plate heat exchanger for internals of isothermal chemical reactors, said plate heat exchanger comprising a plurality of heat exchange elements in the form of plates, each plate having an essentially rectangular shape, wherein each plate comprises two walls (2, 3) which are joined together along the perimeter of at least one of said walls and spaced apart, so as to form an internal passage for a heat exchange medium, and wherein each plate comprises a respective first collector for feeding said medium to said passage and a respective second collector for receiving said medium from said passage, said first collector and said second collector being fixed to opposite sides of said plate, characterized in that: at least one (10, 30) of said first collector and second collector of each plate extends along said side(s) of said plate and comprises edge surfaces which are planar and parallel to respective planar end portions (12, 13) of said walls of said plate, in such a way that said edge surfaces of said at least one collector and said end portions of said walls of said plate form parallel and plane matching surfaces, which are welded together.
A turbojet comprising at least one compressor, a combustion chamber, a turbine, and a fan mounted upstream from the compressor and rotated by the turbine, and means downstream from the fan defining an annular space for a bypass flow to flow around the casings of the compressor, the combustion chamber, and the turbine, the turbojet being characterized in that said means comprise a stationary substantially-cylindrical jacket surrounding the casings of the compressor, the combustion chamber, and the turbine, and defining a substantially-cylindrical inner surface for guiding the bypass flow, the jacket being made as a single rigid piece and being fastened at its upstream end to an intermediate casing which is rigidly fixed by radial arms to a nacelle of the fan, and at its downstream end to an exhaust casing, and serving to transmit forces between the intermediate casing and the exhaust casing, and in that the jacket comprises access doors (23, 24, 25) to equipment located inside the jacket, such fuel injectors, variable-pitch vane control rings, and an accessory driving gearbox.
A method for wireless communications at a base station, BS, comprising: establishing (705; 905) communication with a user equipment, UE, over a first component carrier using one or more beams; receiving (710; 910), from the UE, a beam recovery scheduling request, BR-SR, over a second component carrier being different from the first component carrier, wherein the BR-SR uses a scheduling request resource on the second component carrier, and wherein the BR-SR conveys a 1-bit information that the UE has initiated beam recovery for the first component carrier; receiving (710; 810), from the UE, a beam measurement report for the first component carrier on the second component carrier which is triggered by downlink control information, DCI, transmitted by the BS over a physical downlink control channel, PDCCH, on the second component carrier in response to receiving the BR-SR on the second component carrier; identifying (715; 915) a candidate beam on the first component carrier based on the beam measurement report received on the second component carrier; and communicating (720; 920) with the UE over the first component carrier using the candidate beam. establishing (705; 905) communication with a user equipment, UE, over a first component carrier using one or more beams; receiving (710; 910), from the UE, a beam recovery scheduling request, BR-SR, over a second component carrier being different from the first component carrier, wherein the BR-SR uses a scheduling request resource on the second component carrier, and wherein the BR-SR conveys a 1-bit information that the UE has initiated beam recovery for the first component carrier; receiving (710; 810), from the UE, a beam measurement report for the first component carrier on the second component carrier which is triggered by downlink control information, DCI, transmitted by the BS over a physical downlink control channel, PDCCH, on the second component carrier in response to receiving the BR-SR on the second component carrier; identifying (715; 915) a candidate beam on the first component carrier based on the beam measurement report received on the second component carrier; and communicating (720; 920) with the UE over the first component carrier using the candidate beam.
A method for preparing an insect repellant fabric, characterized in that the method comprises the following steps: fabric making: making natural fiber into a lining layer, making synthetic fiber multifilaments into an outshell layer, and making polypropylene or polyethylene fiber monofilaments into a lapping layer, wherein, the lapping layer is situated between the lining layer and the outshell layer, and both the lining layer and the outshell layer are made as a meshwork stitch with a density of 3.88 to 77.7 meshes per square centimetre (25 to 500 meshes per square inch); exhaust dyeing: dipping the prepared fabric into an exhaust dyeing solution and being dyed for 10 to 120 minutes at a temperature of 60 to 105°C; water rinsing and centrifuge drying; setting; wherein, in step, the exhaust dyeing solution is an aqueous solution containing emulsifiable concentrate, and the emulsifiable concentrate is a mixture of pyrethroid and alcohol-ether solvent in a mass ratio of 1:5 to 1:20; the mass ratio of the fabric to the exhaust dyeing solution is 1:7 to 1:20, and the amount of the emulsifiable concentrate is 5 to 10% based on the mass of the fabric. fabric making: making natural fiber into a lining layer, making synthetic fiber multifilaments into an outshell layer, and making polypropylene or polyethylene fiber monofilaments into a lapping layer, wherein, the lapping layer is situated between the lining layer and the outshell layer, and both the lining layer and the outshell layer are made as a meshwork stitch with a density of 3.88 to 77.7 meshes per square centimetre (25 to 500 meshes per square inch); exhaust dyeing: dipping the prepared fabric into an exhaust dyeing solution and being dyed for 10 to 120 minutes at a temperature of 60 to 105°C; water rinsing and centrifuge drying; setting; wherein, in step, the exhaust dyeing solution is an aqueous solution containing emulsifiable concentrate, and the emulsifiable concentrate is a mixture of pyrethroid and alcohol-ether solvent in a mass ratio of 1:5 to 1:20; the mass ratio of the fabric to the exhaust dyeing solution is 1:7 to 1:20, and the amount of the emulsifiable concentrate is 5 to 10% based on the mass of the fabric.
Data forwarding device (102, 110, 180) for controlling a network component (110, 180, 301, L1-L3) within an application control network, wherein the network component (110, 180, 301, L1-L3) is connected to a data port of the data forwarding device, the data forwarding device (102, 110, 180) characterized by a memory for storing a configuration profile comprising configuration commands for the network component, and wherein the configuration profile is set up in accordance with an application plan comprising one or more application scenes, the one or more application scenes defining operation schedules and interaction information of application components within the application control network; a configuration cache module for transmitting the configuration profile to the network component (110, 180, 301, L1-L3) after the network component (110, 180, 301, L1-L3) has been rebooted.
A recording apparatus comprising: a conveyance mechanism having an adhesive belt on which a recording medium is placed, and configured and arranged to intermittently convey the recording medium; a sticking section configured and arranged to apply pressure to the recording medium to stick the recording medium to the adhesive belt; and an adjustment section configured and arranged to adjust a pressure force applied by the sticking section to the recording medium, the adjustment section being configured and arranged to change the pressure force so that the pressure force during conveyance of the recording medium is greater than the pressure force during stopping of the recording medium, characterized in that the adjustment section is configured and arranged to control the pressure force of the sticking section so as to reduce a difference between: a product of the pressure force and pressure time applied per unit surface area during the stopping of the recording medium associated with the intermittent conveyance; and a product of the pressure force and pressure time applied per unit surface area during the conveyance of the recording medium associated with the intermittent conveyance. a conveyance mechanism having an adhesive belt on which a recording medium is placed, and configured and arranged to intermittently convey the recording medium; a sticking section configured and arranged to apply pressure to the recording medium to stick the recording medium to the adhesive belt; and an adjustment section configured and arranged to adjust a pressure force applied by the sticking section to the recording medium, the adjustment section being configured and arranged to change the pressure force so that the pressure force during conveyance of the recording medium is greater than the pressure force during stopping of the recording medium, characterized in that the adjustment section is configured and arranged to control the pressure force of the sticking section so as to reduce a difference between: a product of the pressure force and pressure time applied per unit surface area during the stopping of the recording medium associated with the intermittent conveyance; and a product of the pressure force and pressure time applied per unit surface area during the conveyance of the recording medium associated with the intermittent conveyance. a product of the pressure force and pressure time applied per unit surface area during the stopping of the recording medium associated with the intermittent conveyance; and a product of the pressure force and pressure time applied per unit surface area during the conveyance of the recording medium associated with the intermittent conveyance.
Contrast agent for ex vivo microangiography, preferably for the digital imaging of a vascular system of a mouse or of a rat or of other laboratory animals, or of single animal and human organs, by means of a micro-CT-device, comprising - a polyurethane, and - a hardener, characterized in that the contrast agent additionally contains - iodized, esterified oil, and - a ketone. - a polyurethane, and - a hardener, characterized in that the contrast agent additionally contains - iodized, esterified oil, and - a ketone.
A hot stamped steel material, characterized in that, the hot stamped steel material comprises the following components by weight: 0.27 to 0.40% of C; 0.2 to 3.0% of Mn; 0.11 to 0.4% of V; 0 to 0.8% of Si; 0 to 0.5% of Al; 0 to 2% of Cr; 0 to 0.15% of Ti; 0 to 0.15 of Nb; 0 to 0.004% of B; the content of Mo, Ni, Cu in combination amounts a total of less than 2%; and inevitable impurity elements, wherein the balance consists of Fe, the hot stamped steel material having a yield strength of 1300 MPa to 1700 MPa, a tensile strength of 1800 to 2200 MPa, and an elongation of 6 to 9% without tempering. 0.27 to 0.40% of C; 0.2 to 3.0% of Mn; 0.11 to 0.4% of V; 0 to 0.8% of Si; 0 to 0.5% of Al; 0 to 2% of Cr; 0 to 0.15% of Ti; 0 to 0.15 of Nb; 0 to 0.004% of B; the content of Mo, Ni, Cu in combination amounts a total of less than 2%; and inevitable impurity elements, wherein the balance consists of Fe, the hot stamped steel material having a yield strength of 1300 MPa to 1700 MPa, a tensile strength of 1800 to 2200 MPa, and an elongation of 6 to 9% without tempering.
A motor vehicle lighting device having a light source and a fiber-optical waveguide, the fiber-optical waveguide having an input region, a light exit face, and deflection faces (24, 2.6, 28), the light source being located relative to the fiber-optical waveguide in such a way that light emitted by the light source enters the fiber-optical waveguide via the input region, characterized in that the fiber-optical waveguide has a segment with a cupulate basic shape, which basic shape has a cup base with an outer edge (19.1) and a cup wall, the fiber-optical waveguide having a cup base segment and a cup wall segment; the input region is located in the cup base segment and has a first deflection face, which deflects the light striking it from the light source radially toward the cup wall segment, and a second deflection face, which directs light striking it into the cup wall segment, is located between the cup base segment and the cup wall segment; the cup wall segment has a helically located third deflection face, which deflects light striking it into a circumferential direction of the cup wall segment; and the light exit face is located such that light deflected into the circumferential direction exits the fiber-optical waveguide via the light exit face.
A semiconductor structure (1, 101, 201) for photon detection, the semiconductor structure being designed to be illuminated from the rear side, comprising: - a substrate (2, 102, 202, 302, 402, 502) made of a semiconductor material with a first-type doping, - a contact area (3, 103, 203, 303, 403, 503) which is attached to the front side of the substrate, - a bias layer (4, 104, 204) made of a semiconductor material with a second doping, which is arranged on the rear side of the substrate at a distance from the contact area, the contact area being at least partially opposite the bias layer so that an overlap area in the lateral direction is provided, - a guard ring (5, 105, 205), which is arranged on the front side of the substrate and surrounds the contact area, it being possible to apply a blocking voltage between the contact area and the guard ring, wherein the overlap area has a lateral extent that is at least a quarter of the distance between the contact area and the bias layer, and the contact area is designed, through the potential applied to it, to influence the potential of the bias layer and thus to form a conduction channel between the contact area and the bias layer without there being any contact with the bias layer, characterised in that the bias layer has a doping of opposite sign to the substrate and the guard ring has a doping of the same sign as the substrate. - a substrate (2, 102, 202, 302, 402, 502) made of a semiconductor material with a first-type doping, - a contact area (3, 103, 203, 303, 403, 503) which is attached to the front side of the substrate, - a bias layer (4, 104, 204) made of a semiconductor material with a second doping, which is arranged on the rear side of the substrate at a distance from the contact area, the contact area being at least partially opposite the bias layer so that an overlap area in the lateral direction is provided, - a guard ring (5, 105, 205), which is arranged on the front side of the substrate and surrounds the contact area, it being possible to apply a blocking voltage between the contact area and the guard ring,
A cathode active material layer, comprising a flat cathode active material with a hollowness of more than 0% and 10% or less, and a solid electrolyte material, characterized in that the flat cathode active material consists of secondary particles in which primary particles aggregate, and a sectional shape of the cathode active material in a thickness direction is elliptical, the flat cathode active material has an aspect ratio (long axis length/short axis length) of 1.5 or more in a section in a thickness direction of the cathode active material layer, and a ratio of the flat cathode active material of which a short axis direction corresponds to the thickness direction of the cathode active material layer is 30% or more with respect to the whole cathode active material.
A beverage machine, comprising: - a brewing unit with (i) a main body defining a hollow for receiving different types of portable pad and/or capsule holders (16, 18, 18'), and (ii) a lid connected to the main body for opening and closing the hollow; - a first holder for receiving a first type of pad or capsule which encapsulates an extractable food product; and - a second holder (18, 18') for receiving a second type of pad or capsule which encapsulates an extractable food product; wherein either the first or the second holder (16, 18, 18') may be selectively placed in the hollow, characterized in that the lid comprises (i) a first sealing member which is configured to seal a first brewing chamber between the lid and the first holder, when the first holder is inserted into the hollow, and (ii) a second sealing member which is different from the first sealing member and configured to seal a second brewing chamber between the lid and the second holder (18, 18'), when the second holder (18, 18') is inserted into the hollow. - a brewing unit with (i) a main body defining a hollow for receiving different types of portable pad and/or capsule holders (16, 18, 18'), and (ii) a lid connected to the main body for opening and closing the hollow; - a first holder for receiving a first type of pad or capsule which encapsulates an extractable food product; and - a second holder (18, 18') for receiving a second type of pad or capsule which encapsulates an extractable food product;
An immunodiagnostic test element comprising: a planar substrate; a linear array of test columns each of said test columns containing a test material and supported by said planar substrate; and a pierceable wrap directly covering an upper portion of said test columns characterised in that said pierceable wrap includes a weakened inwardly deformed portion formed directly above each said test column, each said weakened inwardly deformed portion being formed by locally pre-stressing said portion to create each inwardly deformed portion, but not to the point of puncturing the wrap, wherein said pierceable wrap is a single layer. a planar substrate; a linear array of test columns each of said test columns containing a test material and supported by said planar substrate; and a pierceable wrap directly covering an upper portion of said test columns characterised in that said pierceable wrap includes a weakened inwardly deformed portion formed directly above each said test column, each said weakened inwardly deformed portion being formed by locally pre-stressing said portion to create each inwardly deformed portion, but not to the point of puncturing the wrap, wherein said pierceable wrap is a single layer.
A process for the preparation of an expandable tetrafluoroethylene copolymer of the fine powder type, said copolymer containing 98.0% or less by weight tetrafluoroethylene monomer units and at least 2.0% by weight, of at least one other comonomer other than tetrafluoroethylene, said other comonomer being an ethylenically unsaturated comonomer having a sufficiently high reactivity ratio to TFE to enable copolymerization, the process comprising: (a) copolymerizing said TFE monomer and said at least one other comonomer in a pressurized reactor by feeding 98.0% or less by weight of said TFE monomer into said pressurized reactor, and feeding at least 2.0% by weight of said at least one other comonomer into said pressurized reactor, wherein percentages are based upon total weight of monomers fed, (b) initiating polymerization of said monomers with a free radical initiator, and (c) stopping the feeding of said at least one other comonomer prior to completion of the polymerization reaction, and, optionally, (d) removing excess comonomer from said reactor prior to completion of polymerization. (a) copolymerizing said TFE monomer and said at least one other comonomer in a pressurized reactor by feeding 98.0% or less by weight of said TFE monomer into said pressurized reactor, and feeding at least 2.0% by weight of said at least one other comonomer into said pressurized reactor, wherein percentages are based upon total weight of monomers fed, (b) initiating polymerization of said monomers with a free radical initiator, and (c) stopping the feeding of said at least one other comonomer prior to completion of the polymerization reaction, and, optionally, (d) removing excess comonomer from said reactor prior to completion of polymerization.