mhurhangee/patent-ind-claim-en huggingface dataset:
An inside spray coating composition comprising: an aqueous carrier; and an emulsion-polymerized latex copolymer dispersed in the aqueous carrier, and comprising: one or more mono-unsaturated monomers each having a single ethylenically-unsaturated group; and one or more multi-unsaturated monomers each having two or more ethylenically-unsaturated groups, wherein the multi-unsaturated monomer(s) each have a divalent chain length with at least two carbon atoms between at least two of the ethylenically-unsaturated groups, and constitute from 8% by weight to 25% by weight of the monomers used to produce the emulsion-polymerized latex copolymer; wherein the coating composition preferably includes less than 1 weight percent, if any, of vegetable oils; wherein the coating composition has an average viscosity ranging from about 5 seconds to about 40 seconds, pursuant to the Viscosity Test in accordance with the description; and wherein the coating composition has a resin solids content ranging from about 10% by weight to about 30% by weight, based on a total weight of the coating composition. an aqueous carrier; and an emulsion-polymerized latex copolymer dispersed in the aqueous carrier, and comprising: one or more mono-unsaturated monomers each having a single ethylenically-unsaturated group; and one or more multi-unsaturated monomers each having two or more ethylenically-unsaturated groups, wherein the multi-unsaturated monomer(s) each have a divalent chain length with at least two carbon atoms between at least two of the ethylenically-unsaturated groups, and constitute from 8% by weight to 25% by weight of the monomers used to produce the emulsion-polymerized latex copolymer; wherein the coating composition preferably includes less than 1 weight percent, if any, of vegetable oils; wherein the coating composition has an average viscosity ranging from about 5 seconds to about 40 seconds, pursuant to the Viscosity Test in accordance with the description; and wherein the coating composition has a resin solids content ranging from about 10% by weight to about 30% by weight, based on a total weight of the coating composition. one or more mono-unsaturated monomers each having a single ethylenically-unsaturated group; and one or more multi-unsaturated monomers each having two or more ethylenically-unsaturated groups, wherein the multi-unsaturated monomer(s) each have a divalent chain length with at least two carbon atoms between at least two of the ethylenically-unsaturated groups, and constitute from 8% by weight to 25% by weight of the monomers used to produce the emulsion-polymerized latex copolymer; wherein the coating composition preferably includes less than 1 weight percent, if any, of vegetable oils; wherein the coating composition has an average viscosity ranging from about 5 seconds to about 40 seconds, pursuant to the Viscosity Test in accordance with the description; and wherein the coating composition has a resin solids content ranging from about 10% by weight to about 30% by weight, based on a total weight of the coating composition.
A computer implemented denoising method for visual data using a trained processing algorithm, the method comprising the steps of: receiving, as input to the processing algorithm, input visual data ; calculating, using the processing algorithm, a real valued scalar output, output by an energy function, which takes as input the visual data and comprises a plurality of trainable parameters, wherein the energy function is a neural network for noise removal of visual data; evaluating, from the processing algorithm, gradients of the output of the energy function with respect to the input visual data ; generating denoised visual data by the processing algorithm, wherein the processing algorithm calculates a linear combination of gradients of the energy function and the input visual data , wherein the linear combination is defined based on a constant related to the noise variance of the input visual data; and outputting denoised visual data , wherein the processing algorithm and the trainable parameters of the energy function are trained by optimizing a training objective to denoise images, said training objective being determined using said linear combination. receiving, as input to the processing algorithm, input visual data ; calculating, using the processing algorithm, a real valued scalar output, output by an energy function, which takes as input the visual data and comprises a plurality of trainable parameters, wherein the energy function is a neural network for noise removal of visual data; evaluating, from the processing algorithm, gradients of the output of the energy function with respect to the input visual data ; generating denoised visual data by the processing algorithm, wherein the processing algorithm calculates a linear combination of gradients of the energy function and the input visual data , wherein the linear combination is defined based on a constant related to the noise variance of the input visual data; and outputting denoised visual data , wherein the processing algorithm and the trainable parameters of the energy function are trained by optimizing a training objective to denoise images, said training objective being determined using said linear combination.
A method for sintering metallic and/or non-oxide, ceramic components, characterized in that - a green body, comprising at least one metallic and/or none-oxide, ceramic powder, is completely coated with a metal halide salt and pressed in a gas-tight manner, - is heated up to sintering temperatures together with a metal halide salt in the presence of oxygen, - and, then after a cooling, the metal halide salt is at least partially dissolved in a liquid so that the sintered component can be removed. - a green body, comprising at least one metallic and/or none-oxide, ceramic powder, is completely coated with a metal halide salt and pressed in a gas-tight manner, - is heated up to sintering temperatures together with a metal halide salt in the presence of oxygen, - and, then after a cooling, the metal halide salt is at least partially dissolved in a liquid so that the sintered component can be removed.
A eutectic of mannitol and Cyclobenzaprine HCl.
A resin composition containing a resin and 50 to 99.5 wt% of a hexagonal plate shaped ferrite powder, wherein the hexagonal plate shaped ferrite powder contains 7.8 to 9 wt% of Sr, 61 to 65 wt% of Fe, and 0.1 to 0.65 wt% of Mg, the hexagonal plate shaped ferrite powder has a length in the minor axis direction of 0.5 to 3 μm and an aspect ratio of 3.5 to 9, and wherein the resin is selected from an epoxy resin, a phenol resin, a melamine resin, a urea resin, and a fluorine resin.
A hydrophilizing agent for producing a self-emulsifying polyisocyanate composition, the hydrophilizing agent comprising an anionic compound represented by the following formula : wherein X represents a sulfo group or a hydroxysulfonyloxy group, R 1 represents a straight-chain or branched alkylene group, and R 2 represents a straight-chain or branched alkyl group; the total number of carbon atoms included in R 1 and R 2 is 6 or more and less than 14, and one or two or more carbon atoms in the groups R 1 and R 2 are optionally replaced with an oxygen atom(s).
A lithium mixed transition metal oxide comprising a mixed transition metal of Ni, Mn and Co, wherein lithium ions intercalate into and deintercalate from mixed transition metal oxide layers ("MO layers") and some of MO layer-derived Ni ions are inserted into intercalation/deintercalation layers of lithium ions ("reversible lithium layers") to thereby interconnect the MO layers, wherein Ni 2+ and Ni 3+ coexist in the MO layers and some of Ni 2+ are inserted into the reversible lithium layers, wherein the mixed oxide has a composition represented by Formula I: Li x M y O 2 (I) wherein: M = M' 1 - k A k , wherein M' is Ni 1-a-b (Ni 1/2 Mn 1/2 ) a Co b , 0.65 ≤ a+b ≤ 0.85 and 0.1 ≤ b ≤ 0.4; A is a dopant; 0 ≤ k ≤ 0.05 and x+y = 2 and 0.95 ≤ x ≤ 1.05, wherein the mole fraction of Ni 2+ inserted and bound into the reversible lithium layer is in the range of 0.03 to 0.07, based on the total content of Ni. M = M' 1 - k A k , wherein M' is Ni 1-a-b (Ni 1/2 Mn 1/2 ) a Co b , 0.65 ≤ a+b ≤ 0.85 and 0.1 ≤ b ≤ 0.4; A is a dopant; 0 ≤ k ≤ 0.05 and x+y = 2 and 0.95 ≤ x ≤ 1.05,
An effervescent beverage can comprising: a top surface; a bottom surface; and a body, wherein an inner surface of the body is provided with first recesses and second recesses, the first recesses have a diameter of 5 um or more and 20 um or less, characterised in that the number of the plurality of first recesses is 200 to 2000 per 1 mm 2 , the second recesses have a diameter of 0.5 um or more and less than 5 um, and the number of the plurality of second recesses is 7000 to 15000 per 1 mm 2 a top surface; a bottom surface; and a body, wherein an inner surface of the body is provided with first recesses and second recesses, the first recesses have a diameter of 5 um or more and 20 um or less, characterised in that the number of the plurality of first recesses is 200 to 2000 per 1 mm 2 , the second recesses have a diameter of 0.5 um or more and less than 5 um, and the number of the plurality of second recesses is 7000 to 15000 per 1 mm 2
A method of finishing a first target material and a second target material without an intervening cleaning process, the method comprising: applying a first material finish to a first target material, comprising: positioning the first target material in a pressure vessel; introducing carbon dioxide ("CO 2 ") within the pressure vessel; increasing an internal temperature of the pressure vessel to an operating temperature; increasing a flow rate to a non-zero rate, wherein the flow rate is increased to the non-zero rate prior to the CO 2 achieving a supercritical fluid ("SCF") state; increasing a pressure within the pressure vessel to an operating pressure, wherein the CO 2 achieves a SCF state when at the operating temperature and the operating pressure; perfusing, using SCF CO 2 , the first target material with the first finishing material; subsequent to perfusing the first target material with the first finishing material, reducing the pressure from the operating pressure to a transition pressure while maintaining the temperature above a threshold temperature and maintaining the flow rate above a threshold rate; and applying a second material finish to a second target material in the pressure vessel without applying the first material finish to a sacrificial cleaning material in a step between the applying the first material finish to the first target material and the applying of the second material finish to the second target material in the pressure vessel.
A method performed by a network comprising a first network node and a second network node for handling baseband processing of signals communicated with wireless devices in a wireless network, the method comprising: - communicating by the first network node , a first type of traffic signals with a first wireless device , wherein the first type of traffic signals tolerates a certain baseband processing delay, - performing by the first network node , a first part of baseband processing of the first type of traffic signals using a non-GPP implemented processor , wherein the first part of baseband processing comprises a signal pre-processing operation including as Fast Fourier Transform and/or Filterbank, - communicating the first type of traffic signals with the second network node for a second part of baseband processing of the first type of traffic signals, wherein the second network node uses a GPP implemented processor for the second part of the baseband processing, and wherein the second part of baseband processing comprises one or more baseband operations other than said signal pre-processing operation, the one or more baseband operations including any one or more out of: modulation/demodulation, channel estimation, FEC coding/decoding and scheduling, - communicating by the first network node , a second type of traffic signals with a second wireless device , wherein the second type of traffic signals does not tolerate said baseband processing delay, and - performing by the first network node , both of said first and second parts of baseband processing of the second type of traffic signals using the non-GPP implemented processor. - communicating by the first network node , a first type of traffic signals with a first wireless device , wherein the first type of traffic signals tolerates a certain baseband processing delay, - performing by the first network node , a first part of baseband processing of the first type of traffic signals using a non-GPP implemented processor , wherein the first part of baseband processing comprises a signal pre-processing operation including as Fast Fourier Transform and/or Filterbank, - communicating the first type of traffic signals with the second network node for a second part of baseband processing of the first type of traffic signals, wherein the second network node uses a GPP implemented processor for the second part of the baseband processing, and wherein the second part of baseband processing comprises one or more baseband operations other than said signal pre-processing operation, the one or more baseband operations including any one or more out of: modulation/demodulation, channel estimation, FEC coding/decoding and scheduling, - communicating by the first network node , a second type of traffic signals with a second wireless device , wherein the second type of traffic signals does not tolerate said baseband processing delay, and - performing by the first network node , both of said first and second parts of baseband processing of the second type of traffic signals using the non-GPP implemented processor.
A method for structuring at least one surface of an OSB wood-based panel having an anti-slip surface, wherein the structuring consists of regularly arranged structural elevations on the surface of the OSB wood-based panel, comprising the steps a) providing at least one OSB wood-based panel, b) applying at least one first layer of at least one first plastic resin to the at least one surface of the wood-based panel with at least one first application tool for filling the surface of the OSB wood-based panel, c) applying at least one second layer of at least one second plastic resin to form the regularly arranged structural elevations for forming the anti-slip effect to the at least one first plastic resin layer with at least one application tool having a regularly structured surface, wherein the ratio between structural elevations and free surface of the OSB wood-based panel is between 1:3 and 1:30, and d) solidifying the first layer of the first plastic resin and the second layer having the structural elevations of the second plastic resin. a) providing at least one OSB wood-based panel, b) applying at least one first layer of at least one first plastic resin to the at least one surface of the wood-based panel with at least one first application tool for filling the surface of the OSB wood-based panel, c) applying at least one second layer of at least one second plastic resin to form the regularly arranged structural elevations for forming the anti-slip effect to the at least one first plastic resin layer with at least one application tool having a regularly structured surface, wherein the ratio between structural elevations and free surface of the OSB wood-based panel is between 1:3 and 1:30, and d) solidifying the first layer of the first plastic resin and the second layer having the structural elevations of the second plastic resin.
A method for the mechanical characterization of a metallic material for wheel disk production, comprising - providing a specimen consisting of a strip of metal sheet and comprising two end portions and an intermediate portion interconnecting the end portions , wherein the intermediate portion has a curved shape, and - subjecting the specimen to a mechanical fatigue test, wherein one of the end portions is clamped to a load applying part (CD) of a test apparatus, and the other end portion is clamped to another load applying part (CD) or fixed to a support part (S) of the test apparatus, the method being characterized in that the intermediate portion of the specimen comprises a pair of flat or slightly curved flank segments inclined with respect to the end portions of the specimen , an intermediate bend interconnecting the flank segments, as well as a pair of end bends , each connecting the respective flank segment to the respective end portion of the specimen , wherein the intermediate portion simulates, or is constituted by, a radial profile extract of a radially outer disk portion (A) of a wheel disk. - providing a specimen consisting of a strip of metal sheet and comprising two end portions and an intermediate portion interconnecting the end portions , wherein the intermediate portion has a curved shape, and - subjecting the specimen to a mechanical fatigue test, wherein one of the end portions is clamped to a load applying part (CD) of a test apparatus, and the other end portion is clamped to another load applying part (CD) or fixed to a support part (S) of the test apparatus,
A key device comprising: a generally elongate shaft portion having a length and a width that respectively define longitudinal and lateral positions along said elongate shaft portion , said elongate shaft portion comprising first and second oppositely directed side surfaces , at least one of which is cuttable to form key cuts that define a key combination surface; and first and second key combination elements , disposed in said elongate shaft portion , side-by-side one another at different lateral positions along the width of said elongate shaft portion and located at overlapping longitudinal positions along the length of said elongate shaft portion , wherein said first and second key combination elements are each pivotable about a pivot axis, and characterized in that said first and second key combination elements are independently active biasing elements, capable of providing a biasing force independently from one another. a generally elongate shaft portion having a length and a width that respectively define longitudinal and lateral positions along said elongate shaft portion , said elongate shaft portion comprising first and second oppositely directed side surfaces , at least one of which is cuttable to form key cuts that define a key combination surface; and first and second key combination elements , disposed in said elongate shaft portion , side-by-side one another at different lateral positions along the width of said elongate shaft portion and located at overlapping longitudinal positions along the length of said elongate shaft portion , wherein said first and second key combination elements are each pivotable about a pivot axis, and characterized in that said first and second key combination elements are independently active biasing elements, capable of providing a biasing force independently from one another.
A vacuum cleaner agitator system comprising: an agitator comprising: a spindle having a first end, a second end, and a longitudinal axis extending between the first end and the second end, one or more agitating devices projecting from the spindle to a first radial height, characterized in that one or more friction surfaces projecting from the spindle to a second radial height being less than the first radial height; and one or more cleaning members positioned adjacent at least a portion of the agitator , the one or more cleaning members being adapted to move between a first position in which the one or more cleaning members do not engage the one or more friction surfaces , and a second position in which the one or more cleaning members engage the one or more friction surfaces to clean debris from the agitator , wherein the one or more friction surfaces and the one or more agitating devices are spaced about a circumference of the spindle a sufficient distance to prevent the one or more agitating devices form being pinched between the one or more friction surfaces and the one or more cleaning members . a spindle having a first end, a second end, and a longitudinal axis extending between the first end and the second end, one or more agitating devices projecting from the spindle to a first radial height, characterized in that one or more friction surfaces projecting from the spindle to a second radial height being less than the first radial height; and one or more cleaning members positioned adjacent at least a portion of the agitator , the one or more cleaning members being adapted to move between a first position in which the one or more cleaning members do not engage the one or more friction surfaces , and a second position in which the one or more cleaning members engage the one or more friction surfaces to clean debris from the agitator , wherein the one or more friction surfaces and the one or more agitating devices are spaced about a circumference of the spindle a sufficient distance to prevent the one or more agitating devices form being pinched between the one or more friction surfaces and the one or more cleaning members .
A conveying device at least for a conveyance of a conveying medium, with at least one conveying space , with at least one conveying space element that at least partially delimits the conveying space and is embodied to be rigid, and with at least one elastically deformable conveying element that delimits the conveying space together with the conveying space element , wherein the conveying space element comprises at least one concave recess for at least partially forming the conveying space , wherein an inner surface of the conveying space element , which delimits the concave recess , forms a wall of the conveying space , wherein the conveying element comprises at least one conveying surface , which is usable in a targeted fashion for a conveyance of a fluid in the conveying space and/or through the conveying space , characterised in that in a load-free state of the conveying element , viewed in a cross section of the conveying element , the at least one conveying surface has a maximum transverse extension that is equivalent to a maximum transverse extension of the rigid wall of the conveying space element that delimits at least the conveying space at least partially, wherein at least the conveying element is embodied in a spring-elastic fashion, wherein, following a deformation, the conveying element automatically seeks to re-assume a convexly curved basic shape of the conveying element .