mhurhangee/ep-ind-claims huggingface dataset:
Method for modifying a location area assigned to a current terminal attached to a device (UFA_GW1) belonging to a first location area of a communication network, said device furthermore belonging to at least one second location area of said communication network, said first area and said at least one second area being able to overlap, the method comprising the following steps implemented by said device: - a step of broadcasting, by way of a broadcasting channel, an identifier of said first location area and an additional item of location data comprising at least one identifier of said at least one second location area; - a step of selecting, for said terminal, from among the first location area and said at least one second location area, a current location area (LA1, LAM1) on the basis of said additional item of location data and of at least one predetermined selection parameter; - a step of sending a control message to said current terminal, comprising an identifier of said current location area (LA1, LAM1); the method being characterized in that said at least one predetermined selection parameter depends on said communication network and belongs to the group comprising: - a level of charge of the devices (S-CSCF) forming the communication network; - a type of device (UFA_GW1) that has switched the terminal into standby mode. - a step of broadcasting, by way of a broadcasting channel, an identifier of said first location area and an additional item of location data comprising at least one identifier of said at least one second location area; - a step of selecting, for said terminal, from among the first location area and said at least one second location area, a current location area (LA1, LAM1) on the basis of said additional item of location data and of at least one predetermined selection parameter; - a step of sending a control message to said current terminal, comprising an identifier of said current location area (LA1, LAM1); - a level of charge of the devices (S-CSCF) forming the communication network; - a type of device (UFA_GW1) that has switched the terminal into standby mode.
Annular slot antenna, comprising - an inner conductor, - a jacket-like outer wall, which surrounds the inner conductor, - a front plate having a circumferential annular slot, and - a rear plate, which is opposite to the front plate, wherein front plate and rear plate are connected by the inner conductor, and wherein front plate, rear plate, and the outer wall form a cavity, - a coaxial feed line, wherein the contacting of the feed line occurs centrally via the rear plate of the annular slot antenna, characterized in that the inner conductor is divided by a dielectric gap into a rear section and a front section, wherein the inner conductor of the coaxial feed line is contacted with the front section of the inner conductor and the outer conductor of the coaxial feed line is contacted with the rear section. - an inner conductor, - a jacket-like outer wall, which surrounds the inner conductor, - a front plate having a circumferential annular slot, and - a rear plate, which is opposite to the front plate, wherein front plate and rear plate are connected by the inner conductor, and wherein front plate, rear plate, and the outer wall form a cavity, - a coaxial feed line, wherein the contacting of the feed line occurs centrally via the rear plate of the annular slot antenna, characterized in that the inner conductor is divided by a dielectric gap into a rear section and a front section, wherein the inner conductor of the coaxial feed line is contacted with the front section of the inner conductor and the outer conductor of the coaxial feed line is contacted with the rear section.
A filter element for capturing oil mist contained in gas, the filter element comprising a plastic mesh-like member and a filtration material for capturing oil mist in gas passing through the filter element, the filter element being formed in a tubular shape by spirally winding the mesh-like member and the filtration material together, the filter element being characterized by: a first reinforcement portion formed by independently winding the mesh-like member by at least one turn at a position radially inward of the filtration material; and a second reinforcement portion formed by independently winding the mesh-like member by at least one turn at a position radially outward of the filtration material; wherein the parts of the mesh material that overlap with each other in the radial direction of the filter element are welded to each other. a first reinforcement portion formed by independently winding the mesh-like member by at least one turn at a position radially inward of the filtration material; and a second reinforcement portion formed by independently winding the mesh-like member by at least one turn at a position radially outward of the filtration material; wherein the parts of the mesh material that overlap with each other in the radial direction of the filter element are welded to each other.
Cleaning device for cleaning an atomizer, in particular a rotary atomizer, comprising a) a wet cleaning station with at least one cleaning nozzle for wet cleaning the atomizer by spraying with a cleaning fluid, wherein, for cleaning purposes, said atomizer can be introduced into the wet cleaning station in an introduction direction, characterized in that, b) the cleaning nozzle has a rotatable cleaning trunk for dispensing the cleaning fluid, c) the rotatable cleaning trunk c1) has a mass distribution and/or external contour that is substantially rotationally symmetrical to the rotational axis of the cleaning trunk in order to reduce the vibrations generated by rotation of the cleaning trunk, and/or c2) has at least one counterweight to statically and/or dynamically balance the cleaning trunk. a) a wet cleaning station with at least one cleaning nozzle for wet cleaning the atomizer by spraying with a cleaning fluid, wherein, for cleaning purposes, said atomizer can be introduced into the wet cleaning station in an introduction direction, characterized in that, b) the cleaning nozzle has a rotatable cleaning trunk for dispensing the cleaning fluid, c) the rotatable cleaning trunk c1) has a mass distribution and/or external contour that is substantially rotationally symmetrical to the rotational axis of the cleaning trunk in order to reduce the vibrations generated by rotation of the cleaning trunk, and/or c2) has at least one counterweight to statically and/or dynamically balance the cleaning trunk. c1) has a mass distribution and/or external contour that is substantially rotationally symmetrical to the rotational axis of the cleaning trunk in order to reduce the vibrations generated by rotation of the cleaning trunk, and/or c2) has at least one counterweight to statically and/or dynamically balance the cleaning trunk.
Active restraint system, comprising: a seat belt retractor, having a frame and a belt reel with a belt webbing wound thereon and rotatable supported by the frame for allowing winding and unwinding the belt webbing, an electric disc motor comprising a rotor and a stator, and a control unit connected to the disc motor and adapted to control the disc motor to drive the belt reel in accordance with a determined belt motion profile, characterised in that the rotor is directly attached to the belt reel. a seat belt retractor, having a frame and a belt reel with a belt webbing wound thereon and rotatable supported by the frame for allowing winding and unwinding the belt webbing, an electric disc motor comprising a rotor and a stator, and a control unit connected to the disc motor and adapted to control the disc motor to drive the belt reel in accordance with a determined belt motion profile, characterised in that the rotor is directly attached to the belt reel.
A silicone hydrogel composition comprising: a first hydrophilic monomer having an acrylate group or an acrylamide group; a siloxane compound having an acrylate group or an acrylamide group; a first crosslinking monomer having a plurality of acrylate groups or acrylamide groups; a second hydrophilic monomer having a non-conjugated vinyl group; and a second crosslinking monomer having a plurality of non-conjugated vinyl groups; wherein a sum of the weight of the second hydrophilic monomer and the weight of the second crosslinking monomer is 40 to 100 parts by weight, relative to 100 parts by weight of a sum of a weight of the first hydrophilic monomer, the weight of the siloxane compound, and the weight of the first crosslinking monomer. a first hydrophilic monomer having an acrylate group or an acrylamide group; a siloxane compound having an acrylate group or an acrylamide group; a first crosslinking monomer having a plurality of acrylate groups or acrylamide groups; a second hydrophilic monomer having a non-conjugated vinyl group; and a second crosslinking monomer having a plurality of non-conjugated vinyl groups; wherein a sum of the weight of the second hydrophilic monomer and the weight of the second crosslinking monomer is 40 to 100 parts by weight, relative to 100 parts by weight of a sum of a weight of the first hydrophilic monomer, the weight of the siloxane compound, and the weight of the first crosslinking monomer.
Electrically extensively heatable, transparent object, comprising: a. at least one transparent, electrically insulating substrate, b. at least one extensive, electrically conductive, transparent coating that is connected to two electrical busbars (4.1 and 4.2) to transmit electrical power, c. at least one localized transparent area free of the electrically conductive coating, and d. an electrically conductive band applied on the coating that at least partially surrounds the periphery of the at least one area and has an electrical resistance in ohms per square that is lower than the electrical resistance of the coating in ohms per square, characterized in that the electrically conductive band has at least one interruption (6.1), wherein the greater part of the electrically conductive band is not connected to one of the busbars (4.1, 4.2). a. at least one transparent, electrically insulating substrate, b. at least one extensive, electrically conductive, transparent coating that is connected to two electrical busbars (4.1 and 4.2) to transmit electrical power, c. at least one localized transparent area free of the electrically conductive coating, and d. an electrically conductive band applied on the coating that at least partially surrounds the periphery of the at least one area and has an electrical resistance in ohms per square that is lower than the electrical resistance of the coating in ohms per square,
A low-loss few-mode fiber, comprising from inside to outside, a core layer, a quartz inner cladding, a quartz second core layer, a fluorine-doped quartz depressed cladding and a fluorine-doped quartz outer cladding, wherein the radius of the core layer is 10-17.4 μm, the core layer is not doped with germanium element, the refractive index of the core layer is in gradient distribution, and the distribution is a power-exponent distribution, characterized in that the quartz inner cladding is fluorine-doped, the quartz second core layer is fluorine-doped, the maximum value of difference in relative refractive index between the core layer and the fluorine-doped quartz inner cladding is 0.3% to 0.9%, the relative refractive index difference of the fluorine-doped quartz inner cladding with respect to synthetic quartz is -0.3% to -0.5%, the difference in relative refractive index between the fluorine-doped quartz second core layer and the fluorine-doped quartz inner cladding is 0.05% to 0.2%, the difference in relative refractive index between the fluorine-doped quartz depressed cladding and the fluorine-doped quartz inner cladding is -0.1% to -0.5%, the relative refractive index difference of the fluorine-doped quartz outer cladding with respect to the synthetic quartz is -0.3% to -0.5%, the radius of the fluorine-doped quartz inner cladding is 10.5-21.4 μm, the radius of the fluorine-doped quartz second core layer is 11-22.4 μm, the radius of the fluorine-doped quartz depressed cladding is 20.5-40.0 μm, and the radius of the fluorine-doped quartz outer cladding is 40.0-100.0 μm.
An electroconductive member (10; 70) for electrophotography, comprising: an electroconductive support (22; 31; 72); and a surface layer (21; 30) on the electroconductive support (22; 31; 72), wherein the surface layer (21; 30) comprises a skeleton that is three-dimensionally continuous and pores communicating in a thickness direction, wherein a pore that communicates in a thickness direction refers to a pore extending from an opening of the surface of the surface layer to the surface of the electroconductive support, characterized in that any region measuring 150 μm per side of a surface of the surface layer (21; 30) is photographed and equally divided into 60 parts in a vertical direction and 60 parts in a horizontal direction to form 3,600 squares, a number of squares including through holes is 100 or less, wherein the through-hole refers to a pore through which the surface of the electroconductive support can be directly observed at a position facing the surface of the surface layer, the skeleton is non-electroconductive, and the skeleton is formed by a plurality of particles connected to each other through a neck, and an average value D1 of circle-equivalent diameters of the particles is 0.1 μm or more and 20 μm or less. an electroconductive support (22; 31; 72); and a surface layer (21; 30) on the electroconductive support (22; 31; 72), wherein the surface layer (21; 30) comprises a skeleton that is three-dimensionally continuous and pores communicating in a thickness direction, wherein a pore that communicates in a thickness direction refers to a pore extending from an opening of the surface of the surface layer to the surface of the electroconductive support, characterized in that any region measuring 150 μm per side of a surface of the surface layer (21; 30) is photographed and equally divided into 60 parts in a vertical direction and 60 parts in a horizontal direction to form 3,600 squares, a number of squares including through holes is 100 or less, wherein the through-hole refers to a pore through which the surface of the electroconductive support can be directly observed at a position facing the surface of the surface layer, the skeleton is non-electroconductive, and the skeleton is formed by a plurality of particles connected to each other through a neck, and an average value D1 of circle-equivalent diameters of the particles is 0.1 μm or more and 20 μm or less.
A method for producing hardened steel sheet components, wherein at least two metal layers are deposited successively on a strip of a quench-hardenable steel alloy as anti-corrosion coating on the steel substrate, the one metal layer being a layer made of zinc or based on zinc and the other layer being a layer made of a metal which forms intermetallically less noble phases with Zn or Fe and has a higher oxidation potential than Zn, namely Ni, Cu, Co, Mn or Mo, or is a layer based on these metals, and wherein steels of the general alloy composition, each in weight percent: Carbon 0.08-0.6 Manganese (Mn) 0.8-3.0 Aluminum (Al) 0.01-0.07 Silicon (Si) 0.01-0.5 Chromium (Cr) 0.02-0.6 Titanium (Ti) 0.01-0.08 Nitrogen < 0.02 Boron 0.002-0.02 Phosphorus < 0.01 Sulphur < 0.01 Molybdenum (Mo) < 1 the balance being iron and smelting impurities are used, wherein blanks are punched out of the strip provided with the anti-corrosion coating and the blanks are either - heated to a temperature > Ac 3 and optionally maintained there and then formed in a press hardening tool and quench-hardened to produce the steel sheet component, or - the blanks are formed into a steel sheet component in the cold state and the steel sheet component is subsequently heated to a temperature > Ac 3 and quench-hardened in a die hardening tool, with the layer sequence between nickel, copper and manganese on the one hand and zinc or based on zinc on the other hand being applied repeatedly. - heated to a temperature > Ac 3 and optionally maintained there and then formed in a press hardening tool and quench-hardened to produce the steel sheet component, or - the blanks are formed into a steel sheet component in the cold state and the steel sheet component is subsequently heated to a temperature > Ac 3 and quench-hardened in a die hardening tool, with the layer sequence between nickel, copper and manganese on the one hand and zinc or based on zinc on the other hand being applied repeatedly.
A calibration object for an x-ray system and an optical system, the optical system comprising one or more optical cameras, the calibration object comprising: - a first part made of a first material having a matte surface, the first material having a first attenuation coefficient of x-rays; - a second part made of a second material having a second attenuation coefficient of x-rays different from the attenuation coefficient of the first material; wherein the first part of the calibration object comprises holes so that the one or more optical cameras can see both the first part and the second part through the holes. - a first part made of a first material having a matte surface, the first material having a first attenuation coefficient of x-rays; - a second part made of a second material having a second attenuation coefficient of x-rays different from the attenuation coefficient of the first material;
An ultrasonic transducer comprising: a piezoelectric layer (312; 512) configured to convert an electric signal and an ultrasound into each other; and a dematching layer (314; 514) having a uniform thickness, the dematching layer being arranged on a partial region (312b; 512a, 512c) of the piezoelectric layer (312; 512), at a surface of the piezoelectric layer that is opposite to a surface configured to emit ultrasound waves to an object and to receive ultrasound waves from an object, and being configured to reflect an ultrasound wave that is incident on the dematching layer (314; 514), CHARACTERIZED IN THAT the piezoelectric layer (312; 512) comprises: a first piezoelectric layer (312a, 312c; 512b) that has a first thickness (t1; t3) and does not overlap the dematching layer (314; 514); and a second piezoelectric layer (312b; 512a, 512c) that defines the partial region (312b; 512a, 512c), has a second thickness and overlaps the dematching layer (314; 514). a piezoelectric layer (312; 512) configured to convert an electric signal and an ultrasound into each other; and a dematching layer (314; 514) having a uniform thickness, the dematching layer being arranged on a partial region (312b; 512a, 512c) of the piezoelectric layer (312; 512), at a surface of the piezoelectric layer that is opposite to a surface configured to emit ultrasound waves to an object and to receive ultrasound waves from an object, and being configured to reflect an ultrasound wave that is incident on the dematching layer (314; 514), a first piezoelectric layer (312a, 312c; 512b) that has a first thickness (t1; t3) and does not overlap the dematching layer (314; 514); and a second piezoelectric layer (312b; 512a, 512c) that defines the partial region (312b; 512a, 512c), has a second thickness and overlaps the dematching layer (314; 514).
A Brassica juncea plant comprising: a first genome comprising a first polynucleotide encoding a first herbicide-tolerant acetohydroxyacid synthase large subunit (AHASL) polypeptide having a leucine at a position corresponding to position 574 of SEQ ID NO:1 or position 556 of SEQ ID NO:6, wherein the first genome is an A genome and the first polynucleotide is the AHASL gene of the first genome, and a second genome comprising a second polynucleotide encoding a second herbicide-tolerant AHASL polypeptide having the bR substitution, wherein the second genome is a B genome and the second polynucleotide is the AHASL gene of the B genome, wherein the first and second herbicide-tolerant AHASL polypeptides together provide a synergistic level of tolerance to an AHAS-inhibiting herbicide. a first genome comprising a first polynucleotide encoding a first herbicide-tolerant acetohydroxyacid synthase large subunit (AHASL) polypeptide having a leucine at a position corresponding to position 574 of SEQ ID NO:1 or position 556 of SEQ ID NO:6, wherein the first genome is an A genome and the first polynucleotide is the AHASL gene of the first genome, and a second genome comprising a second polynucleotide encoding a second herbicide-tolerant AHASL polypeptide having the bR substitution, wherein the second genome is a B genome and the second polynucleotide is the AHASL gene of the B genome,
A method of determining whether to perform compression by identifying in an index maintained in memory an estimated extent of a match of input data to contiguous data stored is above or below a predetermined threshold, the method comprising the steps of: (a) establishing, by a device having a compression history in storage, an index in memory that corresponds fingerprints of a plurality of portions of data of the compression history to location identifiers identifying locations in storage having the plurality of portions of data; (b) identifying, by the device, a number of fingerprints of input data match fingerprints of a plurality of indices of the index in memory; and (c) determining, by the device, from the number of identified fingerprints in memory having indices corresponding to a first location identifier that an estimated match of input data to contiguous data in storage is extendable below a predetermined threshold. (a) establishing, by a device having a compression history in storage, an index in memory that corresponds fingerprints of a plurality of portions of data of the compression history to location identifiers identifying locations in storage having the plurality of portions of data; (b) identifying, by the device, a number of fingerprints of input data match fingerprints of a plurality of indices of the index in memory; and (c) determining, by the device, from the number of identified fingerprints in memory having indices corresponding to a first location identifier that an estimated match of input data to contiguous data in storage is extendable below a predetermined threshold.
A method for producing a windowpane for vehicles, comprising a step of printing a silver paste containing a silver powder and a glass frit on a surface of a glass sheet, a step of sintering the silver paste to form a conductor layer, which comprises at least a strip having a line width of not more than 0.35 mm and a terminal connection part connected to the strip part and which has a specific resistance at 25°C±2°C of from 2.5 to 6.5 μΩcm, a step of attaching a lead-free solder alloy, which consists essentially of tin and silver and which has a content of tin of 95 % by mass or more, to at least a connection terminal, a step of preheating the glass sheet having the conductor layer formed on the surface thereof at a temperature of 50°C or higher and not higher than a temperature at which the lead-free solder alloy begins to melt, and a step of connecting the connection terminal to the terminal connection part with the lead-free solder alloy, wherein the glass sheet having the conductor layer formed on the surface thereof is preheated at a temperature of 75°C or higher and not higher than a temperature at which the lead-free solder alloy begins to melt.