mhurhangee/ep-ind-claims huggingface dataset:
A metallic cord comprising a first number of core wires surrounded by a second number of outer wires, wherein: - all of said core wires and said outer wires have substantially the same diameter; - all of said core wires and said outer wires are twisted in said cord in the same twist direction and substantially with the same twist pitch; - all of said core wires are non-preformed wires; - all of said outer wires are preformed wires; - said second number is lower than a third number being equal to a number of wires of the same diameter of said core wires, which, if disposed side by side around said first number of core wires and in contact with said first number of core wires, would completely enclose said first number of core wires; - said first number is three; - said second number is seven or eight; - said preformed outer wires are preformed according to a preforming waveform lying in a plane. - all of said core wires and said outer wires have substantially the same diameter; - all of said core wires and said outer wires are twisted in said cord in the same twist direction and substantially with the same twist pitch; - all of said core wires are non-preformed wires; - all of said outer wires are preformed wires; - said second number is lower than a third number being equal to a number of wires of the same diameter of said core wires, which, if disposed side by side around said first number of core wires and in contact with said first number of core wires, would completely enclose said first number of core wires; - said first number is three; - said second number is seven or eight; - said preformed outer wires are preformed according to a preforming waveform lying in a plane.
A component comprising a set of thin film cooling holes (10A, 10B) formed therein, wherein each of the thin film cooling holes (10A, 10B) provides a passage between a first surface of the component and a second surface of the component, and wherein each of the thin film cooling holes (10A, 10B) includes: a first smooth transition between the first surface of the component and a surface of the passage; a progressively steeper flow path relative to the first surface of the component and between the first smooth transition and the second surface of the component; a straight section between the progressively steeper flow path and the second surface of the component; and a second smooth transition between the progressively steeper flow path and the straight section. a first smooth transition between the first surface of the component and a surface of the passage; a progressively steeper flow path relative to the first surface of the component and between the first smooth transition and the second surface of the component; a straight section between the progressively steeper flow path and the second surface of the component; and a second smooth transition between the progressively steeper flow path and the straight section.
An apparatus comprising: a controller to instruct a build platform to support a plurality of layers of build material in a build zone, wherein the build platform is moveable during a build of a three-dimensional object to change the size of the build zone; wherein the controller is to determine respective displacements of the build platform to successively receive each of the plurality of layers of build material in the build zone during the build, wherein at least one of the respective displacements is based on data determined from a three-dimensional object obtained in a previous build. a controller to instruct a build platform to support a plurality of layers of build material in a build zone, wherein the build platform is moveable during a build of a three-dimensional object to change the size of the build zone; wherein the controller is to determine respective displacements of the build platform to successively receive each of the plurality of layers of build material in the build zone during the build, wherein at least one of the respective displacements is based on data determined from a three-dimensional object obtained in a previous build.
A method for receiving a downlink signal by a user equipment, the method comprising: receiving repetitions of a physical downlink control channel, PDCCH, during a first bundle of subframes; and characterized by receiving a physical downlink shared channel, PDSCH, associated with the PDCCH, starting from a subframe n+k after a subframe n in which the PDCCH is received last during the first bundle of subframes, wherein k is an integer greater than 0. receiving repetitions of a physical downlink control channel, PDCCH, during a first bundle of subframes; and characterized by receiving a physical downlink shared channel, PDSCH, associated with the PDCCH, starting from a subframe n+k after a subframe n in which the PDCCH is received last during the first bundle of subframes, wherein k is an integer greater than 0.
A multi-stage vacuum pump comprising: first and second half-shell stator components (102, 104) defining a plurality of pumping chambers (106 - 116) for assembly together along respective longitudinal faces (118, 120); first and second end stator components (122, 124) for assembly at respective end faces (126, 128) of the first and second half-shell stator components; gaskets for location in a longitudinal recess of respective longitudinal faces (118, 120) for sealing between the first and second half-shell stator components (102, 104) when assembled together; and O-rings for location in annular channels counter-sunk in respective end faces for sealing between the first and second end stator components and the first and second half-shell stator components when assembled; Characterised in that the annular channels intersect the longitudinal recesses and each longitudinal recess comprises a stop fixed relative to the intersection, and the gasket and the longitudinal recess are configured that when the gasket is located in the recess during assembly the gasket is biased against the stop for locating an end portion of the gasket relative to the intersection. first and second half-shell stator components (102, 104) defining a plurality of pumping chambers (106 - 116) for assembly together along respective longitudinal faces (118, 120); first and second end stator components (122, 124) for assembly at respective end faces (126, 128) of the first and second half-shell stator components; gaskets for location in a longitudinal recess of respective longitudinal faces (118, 120) for sealing between the first and second half-shell stator components (102, 104) when assembled together; and O-rings for location in annular channels counter-sunk in respective end faces for sealing between the first and second end stator components and the first and second half-shell stator components when assembled; Characterised in that the annular channels intersect the longitudinal recesses and each longitudinal recess comprises a stop fixed relative to the intersection, and the gasket and the longitudinal recess are configured that when the gasket is located in the recess during assembly the gasket is biased against the stop for locating an end portion of the gasket relative to the intersection.
A structural element, for instance for furnishing, comprising a core element in a first material and at least one end element in a second material being different from said first material, wherein the core element and the at least one end element are joined to form a composite element with at least one joint, the composite element having at least one cross section with an outer contour where any corners have an outer angle smaller than 270 degrees, and a veneer layer in a veneer material, attached to the composite element in such a way that it at least partially covers said at least one joint, characterized in that the composite element has a cross-section being circular, oval or elliptical.
A method for adjusting a display view of a vision aid system of a vehicle, the method comprising the following steps: - identifying a specific situation when the vision aid system should be utilized; - receiving a display view setting for the specific situation, wherein the display view setting is based on at least one previous display view setting from at least one other vision aid system of another vehicle which has experienced the specific situation, wherein the at least one previous display view setting relates to the specific situation; and - adjusting the display view of the vision aid system in accordance with the received display view setting. - identifying a specific situation when the vision aid system should be utilized; - receiving a display view setting for the specific situation, wherein the display view setting is based on at least one previous display view setting from at least one other vision aid system of another vehicle which has experienced the specific situation, wherein the at least one previous display view setting relates to the specific situation; and - adjusting the display view of the vision aid system in accordance with the received display view setting.
A method for quantitatively detecting at least three distinct oligonucleotides of equal length in parallel from one biological sample, said method comprising the steps of a) providing a biological sample containing or suspected of containing the at least three distinct oligonucleotides of equal length; b) forming a hybridization mixture by contacting the biological sample with at least three detection molecules complementary to the at least three distinct oligonucleotides of equal length, wherein the detection molecules are each labelled with at least one fluorescent moiety, and wherein the detection molecules have different surface charges, wherein the different surface charges of the at least three detection molecules are selected from the group of neutral, negative and positive charges, wherein the negative surface charge(s) is/are characterized by the presence of at least two incorporated negatively charged amino acid residues or aminoglycine backbone modifications, and wherein the positive surface charge(s) is/are characterized by the presence of at least two incorporated positively charged amino acid residues or aminoglycine backbone modifications; c) separating the detection molecules hybridized to the at least three distinct oligonucleotides of equal length from the moiety of non-hybridized detection molecules by anion exchange high performance liquid chromatography (AEX-HPLC); d) detecting the hybridized detection molecule - oligonucleotide moieties by means of quantitative fluorescence readout. a) providing a biological sample containing or suspected of containing the at least three distinct oligonucleotides of equal length; b) forming a hybridization mixture by contacting the biological sample with at least three detection molecules complementary to the at least three distinct oligonucleotides of equal length, wherein the detection molecules are each labelled with at least one fluorescent moiety, and wherein the detection molecules have different surface charges, wherein the different surface charges of the at least three detection molecules are selected from the group of neutral, negative and positive charges, wherein the negative surface charge(s) is/are characterized by the presence of at least two incorporated negatively charged amino acid residues or aminoglycine backbone modifications, and wherein the positive surface charge(s) is/are characterized by the presence of at least two incorporated positively charged amino acid residues or aminoglycine backbone modifications; c) separating the detection molecules hybridized to the at least three distinct oligonucleotides of equal length from the moiety of non-hybridized detection molecules by anion exchange high performance liquid chromatography (AEX-HPLC); d) detecting the hybridized detection molecule - oligonucleotide moieties by means of quantitative fluorescence readout.
A coating liquid for microneedle comprising an aqueous solution containing, as essential components of a base, i) a water-soluble polysaccharide, ii) monosaccharide and/or disaccharide, iii) a surfactant, and iv) a water-soluble polyalcohol, wherein the water-soluble polysaccharide is at least one kind of compound selected from a group consisting of hydroxypropyl cellulose, hyaluronic acid, chondroitin sulfate, dextran, and carboxymethyl cellulose, the monosaccharide is glucose, and the disaccharide is sucrose or trehalose, the surfactant is at least one kind of compound selected from a group consisting of polysorbate 80, polysorbate 20, and polyoxyethylene polyoxypropylene glycol, the water-soluble polyalcohol is at least one kind of compound selected from a group consisting of glycerin, ethylene glycol, propylene glycol, butylene glycol, mannitol, and polyethylene glycol with a molecular weight of 500 or less, wherein in the base, the water-soluble polysaccharide is 2 to 60 mass%, the monosaccharide and/or the disaccharide is 30 to 95 mass%, the surfactant is 0.05 to 5 mass%, and the water-soluble polyalcohol is 10 mass% or less, and wherein hardness of a coating material after being dried is 10 N or more. i) a water-soluble polysaccharide, ii) monosaccharide and/or disaccharide, iii) a surfactant, and iv) a water-soluble polyalcohol, wherein the water-soluble polysaccharide is at least one kind of compound selected from a group consisting of hydroxypropyl cellulose, hyaluronic acid, chondroitin sulfate, dextran, and carboxymethyl cellulose, the monosaccharide is glucose, and the disaccharide is sucrose or trehalose, the surfactant is at least one kind of compound selected from a group consisting of polysorbate 80, polysorbate 20, and polyoxyethylene polyoxypropylene glycol, the water-soluble polyalcohol is at least one kind of compound selected from a group consisting of glycerin, ethylene glycol, propylene glycol, butylene glycol, mannitol, and polyethylene glycol with a molecular weight of 500 or less,
A coating composition for obtaining a coating film having a spectral reflectance of 40% or higher in a near infrared wavelength range from 780 to 2500 nm by applying the coating composition, the coating composition comprising: a water-soluble and/or water-dispersible resin; a heat-shielding pigment comprising infrared reflective powders and at least one of infrared transparent powders and hollow particles; an organosilicate and/or a modified product of the organosilicate; and a curing catalyst that promotes a hydrolysis/condensation reaction of an alkoxysilyl group. a water-soluble and/or water-dispersible resin; a heat-shielding pigment comprising infrared reflective powders and at least one of infrared transparent powders and hollow particles; an organosilicate and/or a modified product of the organosilicate; and a curing catalyst that promotes a hydrolysis/condensation reaction of an alkoxysilyl group.
A printer, comprising: a control unit and/or image processor adapted to: determine a number of pixels by which to scale an image along an axis of said image, wherein scaling of said image is less than 10% of said image along said axis; identify locations along said axis equal to said number; characterized in that the control unit and/or the image processor is further adapted to remove a region of more than one pixel along said axis at each of said locations; and insert a region of more than one pixel along said axis at each of said locations, wherein a difference between pixels removed and pixels inserted accounts for said number, wherein values of the inserted pixels are determined from a weighted combination of more than one of the removed pixels. a control unit and/or image processor adapted to: determine a number of pixels by which to scale an image along an axis of said image, wherein scaling of said image is less than 10% of said image along said axis; identify locations along said axis equal to said number; characterized in that the control unit and/or the image processor is further adapted to remove a region of more than one pixel along said axis at each of said locations; and insert a region of more than one pixel along said axis at each of said locations, wherein a difference between pixels removed and pixels inserted accounts for said number, wherein values of the inserted pixels are determined from a weighted combination of more than one of the removed pixels. determine a number of pixels by which to scale an image along an axis of said image, wherein scaling of said image is less than 10% of said image along said axis; identify locations along said axis equal to said number; characterized in that the control unit and/or the image processor is further adapted to remove a region of more than one pixel along said axis at each of said locations; and insert a region of more than one pixel along said axis at each of said locations, wherein a difference between pixels removed and pixels inserted accounts for said number, wherein values of the inserted pixels are determined from a weighted combination of more than one of the removed pixels.
A method for selecting a route for a group of vehicles, characterized in that the method comprises: identifying a plurality of available platoon configurations for the group of vehicles; determining a plurality of route options from a first location to a second location, each route option comprising a plurality of segments; determining, for each of the plurality of segments of the plurality of route options, whether the respective segment supports at least one of the identified platoon configurations; selecting, from among the plurality of route options, a route for which each segment of the selected route has been determined to support at least one of the identified platoon configurations; and communicating the selected route to at least one vehicle in the group of vehicles. identifying a plurality of available platoon configurations for the group of vehicles; determining a plurality of route options from a first location to a second location, each route option comprising a plurality of segments; determining, for each of the plurality of segments of the plurality of route options, whether the respective segment supports at least one of the identified platoon configurations; selecting, from among the plurality of route options, a route for which each segment of the selected route has been determined to support at least one of the identified platoon configurations; and communicating the selected route to at least one vehicle in the group of vehicles.
A support for one or more rolls (30, 32, 34) of sheet stock material, comprising: a sloped support surface for supporting at least one stock roll, an operating stop toward a lower end of the support surface that defines an operating position on the sloped support surface at which a stock roll is held for paying out sheet stock material from the roll, and a holding stop extending above the support surface for holding one or more rolls at a location on the sloped support surface spaced from the operating position, the holding stop being movable to allow a stock roll to move down the sloped support surface past the holding stop to the operating position. a sloped support surface for supporting at least one stock roll, an operating stop toward a lower end of the support surface that defines an operating position on the sloped support surface at which a stock roll is held for paying out sheet stock material from the roll, and a holding stop extending above the support surface for holding one or more rolls at a location on the sloped support surface spaced from the operating position, the holding stop being movable to allow a stock roll to move down the sloped support surface past the holding stop to the operating position.
A method of producing a tufting tool with an insert for a tufting machine comprising: forming a tufting tool in a first material, forming a cavity at a location in the tufting tool where the insert is to be provided in the tufting tool, filling the cavity with a second material, the second material being a granular material or a paste, and characterised by melting the second material filled in the cavity to form the insert being harder than the first material. forming a tufting tool in a first material, forming a cavity at a location in the tufting tool where the insert is to be provided in the tufting tool, filling the cavity with a second material, the second material being a granular material or a paste, and characterised by melting the second material filled in the cavity to form the insert being harder than the first material.
A method carried out by a computer comprising: receiving sequencing quality control metrics of sample coverage data (SSQC); selecting a reference panel of reference coverage data, wherein QC metrics of the reference coverage data (RSQC) are used to build a k -d tree, wherein the SSQC metrics are inserted into the k -d tree, and wherein the k -d tree is used to identify nearest neighbors to the sample coverage data as the reference panel; normalizing the sample coverage data comprising a plurality of genomic regions; fitting a mixture model to the normalized sample coverage data based on the selected reference panel at each of the plurality of genomic regions to generate an expected coverage distribution at each of the plurality of genomic regions; and identifying one or more copy number variants (CNVs) according to a Hidden Markov Model in the normalized sample coverage data using the expected coverage distribution at each of the plurality of genomic regions from the fitted mixture model. receiving sequencing quality control metrics of sample coverage data (SSQC); selecting a reference panel of reference coverage data, wherein QC metrics of the reference coverage data (RSQC) are used to build a k -d tree, wherein the SSQC metrics are inserted into the k -d tree, and wherein the k -d tree is used to identify nearest neighbors to the sample coverage data as the reference panel; normalizing the sample coverage data comprising a plurality of genomic regions; fitting a mixture model to the normalized sample coverage data based on the selected reference panel at each of the plurality of genomic regions to generate an expected coverage distribution at each of the plurality of genomic regions; and identifying one or more copy number variants (CNVs) according to a Hidden Markov Model in the normalized sample coverage data using the expected coverage distribution at each of the plurality of genomic regions from the fitted mixture model.