mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for analyzing a plurality of digital interactions taking place at a website, the method comprising acts of: (A) identifying a plurality of values of an attribute selected for the website, each value of the plurality of values corresponding respectively to a digital interaction of the plurality of digital interactions; (B) dividing the plurality of values into a plurality of buckets by applying a hash-modding operation to each value of the plurality of values, wherein each bucket of the plurality of buckets corresponds to a residue of the hash-modding operation; (C) for at least one bucket of the plurality of buckets, determining a count of values from the plurality of values that fall within the at least one bucket; (D) comparing the count of values from the plurality of values that fall within the at least one bucket against historical information regarding the attribute during one or more prior digital interactions, wherein the historical information regarding the attribute comprises an expected count for the at least one bucket, and wherein the count of values from the plurality of values that fall within the at least one bucket is compared against the expected count for the at least one bucket; and (E) determining whether the attribute is anomalous based at least on a result of the act (D). (A) identifying a plurality of values of an attribute selected for the website, each value of the plurality of values corresponding respectively to a digital interaction of the plurality of digital interactions; (B) dividing the plurality of values into a plurality of buckets by applying a hash-modding operation to each value of the plurality of values, wherein each bucket of the plurality of buckets corresponds to a residue of the hash-modding operation; (C) for at least one bucket of the plurality of buckets, determining a count of values from the plurality of values that fall within the at least one bucket; (D) comparing the count of values from the plurality of values that fall within the at least one bucket against historical information regarding the attribute during one or more prior digital interactions, wherein the historical information regarding the attribute comprises an expected count for the at least one bucket, and wherein the count of values from the plurality of values that fall within the at least one bucket is compared against the expected count for the at least one bucket; and (E) determining whether the attribute is anomalous based at least on a result of the act (D).
A method for generating functional layers of an electrochemical storage device, comprising: a. providing a first preparation (P1) in a first reservoir of a coating device , b. providing a second preparation (P2) in a second reservoir of said coating device , c. placing said coating device above a substrate and moving said coating device relative to the substrate along a coating direction (C), d. dispensing the first preparation (P1) from the first reservoir through a first slot of the coating device onto a coating surface of the substrate , wherein the first slot extends along a lateral axis (L) perpendicular to the coating direction (C) and parallel to the coating surface , and simultaneously dispensing the second preparation (P2) from the second reservoir through a second slot of the coating device onto the substrate , wherein the second slot extends along the lateral axis (L), e. wherein the first preparation (P1) and the second preparation (P3) form a curtain between the coating device and the substrate , , and f. wherein a first functional layer of the electrochemical storage device is formed on the coating surface from the first preparation (P1), and a second functional layer of the electrochemical storage device is simultaneously formed on the first functional layer from the second preparation (P2). a. providing a first preparation (P1) in a first reservoir of a coating device , b. providing a second preparation (P2) in a second reservoir of said coating device , c. placing said coating device above a substrate and moving said coating device relative to the substrate along a coating direction (C), d. dispensing the first preparation (P1) from the first reservoir through a first slot of the coating device onto a coating surface of the substrate , wherein the first slot extends along a lateral axis (L) perpendicular to the coating direction (C) and parallel to the coating surface , and simultaneously dispensing the second preparation (P2) from the second reservoir through a second slot of the coating device onto the substrate , wherein the second slot extends along the lateral axis (L), e. wherein the first preparation (P1) and the second preparation (P3) form a curtain between the coating device and the substrate , , and f. wherein a first functional layer of the electrochemical storage device is formed on the coating surface from the first preparation (P1), and a second functional layer of the electrochemical storage device is simultaneously formed on the first functional layer from the second preparation (P2).
A method for determining sequences from sense and antisense strands of a nucleic acid, comprising (a) providing a nucleic acid cluster attached to a solid support, wherein the nucleic acid cluster comprises a sense strand of a concatemer and an antisense strand of the concatemer, wherein the concatemer comprises multiple copies of a sequence unit linked in series, wherein the sequence unit comprises a target sequence and a primer binding site; (b) hybridizing a primer to the primer binding site in a sequence unit of the antisense strand in the cluster; (c) extending the primer along the antisense strand to determine the sequence from at least a portion of the target sequence in the antisense strand; (d) removing the antisense strand from the cluster; (e) hybridizing a second primer to the primer binding site in a sequence unit of the sense strand; and (f) extending the second primer along the sense strand to determine the sequence from at least a portion of the target sequence in the sense strand; wherein all sequence templates are generated prior to any sequencing reactions. (a) providing a nucleic acid cluster attached to a solid support, wherein the nucleic acid cluster comprises a sense strand of a concatemer and an antisense strand of the concatemer, wherein the concatemer comprises multiple copies of a sequence unit linked in series, wherein the sequence unit comprises a target sequence and a primer binding site; (b) hybridizing a primer to the primer binding site in a sequence unit of the antisense strand in the cluster; (c) extending the primer along the antisense strand to determine the sequence from at least a portion of the target sequence in the antisense strand; (d) removing the antisense strand from the cluster; (e) hybridizing a second primer to the primer binding site in a sequence unit of the sense strand; and (f) extending the second primer along the sense strand to determine the sequence from at least a portion of the target sequence in the sense strand;
A composition, especially a cosmetic composition, in particular for making up and/or caring for keratin materials, comprising: - at least one continuous fatty phase; - at least one aqueous phase at a concentration of at least 50.0% by weight, relative to the total weight of the composition, and dispersed in said fatty phase; - at least one polyglycerol ester of at least one poly(hydroxystearic acid) and carboxylic acids, derived from the esterification between at least one polyglycerol and (i) at least one poly(hydroxystearic acid); (ii) at least one di- and/or tricarboxylic acid; and (iii) at least one saturated or unsaturated, linear or branched fatty acid having from 6 to 22 carbon atoms; - at least one ester of polyglycerol comprising from 4 to 15 glycerol units and of at least one linear or branched, saturated or unsaturated fatty acid comprising from 6 to 24 carbon atoms; and - glyceryl trihydroxystearate; the polyglycerol ester of at least one poly(hydroxystearic acid) and carboxylic acids/polyglycerol ester of at least one fatty acid weight ratio being strictly greater than 0.7, preferably greater than 1.0. - at least one continuous fatty phase; - at least one aqueous phase at a concentration of at least 50.0% by weight, relative to the total weight of the composition, and dispersed in said fatty phase; - at least one polyglycerol ester of at least one poly(hydroxystearic acid) and carboxylic acids, derived from the esterification between at least one polyglycerol and (i) at least one poly(hydroxystearic acid); (ii) at least one di- and/or tricarboxylic acid; and (iii) at least one saturated or unsaturated, linear or branched fatty acid having from 6 to 22 carbon atoms; - at least one ester of polyglycerol comprising from 4 to 15 glycerol units and of at least one linear or branched, saturated or unsaturated fatty acid comprising from 6 to 24 carbon atoms; and - glyceryl trihydroxystearate;
A method of annealing a composition to produce a film for a sensing device , the composition comprising at least one metal oxide material , the method comprising: depositing the composition on one side of a substrate ; providing a source of electromagnetic radiation in a proximity to the composition; exposing a surface of the composition to a first dose of electromagnetic radiation , wherein the first dose comprises a first property which induces annealing of the composition; exposing the surface of the composition to a second dose of electromagnetic radiation , wherein the second dose comprises a second property which induces annealing of the composition, wherein the first property is substantially the same or different to the second property, wherein the composition comprises a first metal oxide material and a second metal oxide material , characterized in that the first and second metal oxide materials possess different first and second absorption spectra, wherein the first dose of radiation induces a rate of annealing in the first metal oxide which is higher relative to a rate of annealing induced in the second metal oxide by the first dose, and wherein the second dose of radiation induces a rate of annealing in the second metal oxide which is higher relative to a rate of annealing induced in the first metal oxide by the second dose. depositing the composition on one side of a substrate ; providing a source of electromagnetic radiation in a proximity to the composition; exposing a surface of the composition to a first dose of electromagnetic radiation , wherein the first dose comprises a first property which induces annealing of the composition; exposing the surface of the composition to a second dose of electromagnetic radiation , wherein the second dose comprises a second property which induces annealing of the composition, wherein the first property is substantially the same or different to the second property, wherein the composition comprises a first metal oxide material and a second metal oxide material , characterized in that the first and second metal oxide materials possess different first and second absorption spectra, wherein the first dose of radiation induces a rate of annealing in the first metal oxide which is higher relative to a rate of annealing induced in the second metal oxide by the first dose, and wherein the second dose of radiation induces a rate of annealing in the second metal oxide which is higher relative to a rate of annealing induced in the first metal oxide by the second dose.
Method for determining the degradation of a battery module or a battery cell, wherein the battery module or battery cell delivers energy to an electric load , and following steps are comprised: a) Capturing a battery parameter set comprising an actual temperature of the battery module or cell, b) Capturing a load parameter set of the load , c) Capturing an environmental parameter set of the environment of the battery module or cell, d) Setup and training a machine learning model with the battery parameter set , the load parameter set and the environmental parameter set , e) Calculating a predicted temperature and a standard deviation using the machine learning model , f) determining the degradation of a battery module using predicted temperature , the standard deviation and the actual temperature , characterized in that a change over the time of a probability of measuring the actual module or cell temperature , which is normal distributed, is an indicator for the degradation of the battery module or battery cell. a) Capturing a battery parameter set comprising an actual temperature of the battery module or cell, b) Capturing a load parameter set of the load , c) Capturing an environmental parameter set of the environment of the battery module or cell, d) Setup and training a machine learning model with the battery parameter set , the load parameter set and the environmental parameter set , e) Calculating a predicted temperature and a standard deviation using the machine learning model , f) determining the degradation of a battery module using predicted temperature , the standard deviation and the actual temperature ,
A water jet peening method, comprising: immersing an object (W) in a water-based washing liquid (C) in a washing bath ; and jetting the water-based washing liquid (C) from a nozzle downwards towards the object (W) in the water-based washing liquid (C) contained in the washing bath; characterized in that the object (W) is immersed so as to have a processing surface at a distance (D) of at least 100 mm and less than 300 mm from a liquid surface of the water-based washing liquid (C); wherein jetting the water-based washing liquid (C) from the nozzle includes jetting the washing liquid (C) at a jet pressure of at least 15 MPa and not more than 35 MPa; wherein jetting the water-based washing liquid (C) from the nozzle includes jetting the washing liquid (C) while the nozzle has an end at a distance (d) of at least 50 mm and not more than 250 mm from the liquid surface in the washing bath ; wherein the water-based washing liquid (C) is free of a surfactant, and wherein the object (W) comprises an aluminium alloy. immersing an object (W) in a water-based washing liquid (C) in a washing bath ; and jetting the water-based washing liquid (C) from a nozzle downwards towards the object (W) in the water-based washing liquid (C) contained in the washing bath; characterized in that the object (W) is immersed so as to have a processing surface at a distance (D) of at least 100 mm and less than 300 mm from a liquid surface of the water-based washing liquid (C); wherein jetting the water-based washing liquid (C) from the nozzle includes jetting the washing liquid (C) at a jet pressure of at least 15 MPa and not more than 35 MPa; wherein jetting the water-based washing liquid (C) from the nozzle includes jetting the washing liquid (C) while the nozzle has an end at a distance (d) of at least 50 mm and not more than 250 mm from the liquid surface in the washing bath ; wherein the water-based washing liquid (C) is free of a surfactant, and wherein the object (W) comprises an aluminium alloy.
An airless tire , comprising: a plurality of spoke rings (210a-c, 310a-c), including a first spoke ring adjacent to a second spoke ring 210b, 310b), and further including a third spoke ring , wherein each of the plurality of spoke rings (210a-c, 310a-c) includes an annular outer surface (So), an annular inner surface (S I ), and a plurality of spokes extending between the outer and inner surfaces, wherein the spokes of the third spoke ring are not aligned with the spokes of the first spoke ring along an axis of rotation of the airless tire ; wherein the first spoke ring has a first stiffness (k a ) and the second spoke ring has a second stiffness (k b ) different from the first stiffness (k a ), wherein the third spoke ring has a third stiffness different from the first spoke ring and the second spoke ring ; and a tread layer extending circumferentially around the annular outer surfaces of the plurality of spoke rings (210a-c, 310a-c); characterised in that the first spoke ring has a first maximum outer diameter and the second spoke ring has a second maximum outer diameter different from the first maximum outer diameter. a plurality of spoke rings (210a-c, 310a-c), including a first spoke ring adjacent to a second spoke ring 210b, 310b), and further including a third spoke ring , wherein each of the plurality of spoke rings (210a-c, 310a-c) includes an annular outer surface (So), an annular inner surface (S I ), and a plurality of spokes extending between the outer and inner surfaces, wherein the spokes of the third spoke ring are not aligned with the spokes of the first spoke ring along an axis of rotation of the airless tire ; wherein the first spoke ring has a first stiffness (k a ) and the second spoke ring has a second stiffness (k b ) different from the first stiffness (k a ), wherein the third spoke ring has a third stiffness different from the first spoke ring and the second spoke ring ; and wherein each of the plurality of spoke rings (210a-c, 310a-c) includes an annular outer surface (So), an annular inner surface (S I ), and a plurality of spokes extending between the outer and inner surfaces, wherein the spokes of the third spoke ring are not aligned with the spokes of the first spoke ring along an axis of rotation of the airless tire ; wherein the first spoke ring has a first stiffness (k a ) and the second spoke ring has a second stiffness (k b ) different from the first stiffness (k a ), wherein the third spoke ring has a third stiffness different from the first spoke ring and the second spoke ring ; and a tread layer extending circumferentially around the annular outer surfaces of the plurality of spoke rings (210a-c, 310a-c); characterised in that the first spoke ring has a first maximum outer diameter and the second spoke ring has a second maximum outer diameter different from the first maximum outer diameter.
A method for designing an optical filter for reducing the frequency and/or severity of photophobic responses or for modulating circadian cycles by controlling exposure of melanopsin ganglion cells in a retina of a human eye to light having about a 590nm wavelength, the method being characterized in comprising: calculating a light dose D rec,590 received at about 590 nm by the human eye D rec , 590 = ∫ L λ T λ R 590 λ dλ where L is the light spectrum of a light source in terms of intensity, power, photons/sec, T is the spectral transmission of the filter lying between the light source and the eye, and R 590 is a response spectrum at about 590nm of the human eye calculating a light dose D vis in association with the visual response spectrum D vis = ∫ L λ T λ V λ dλ where V represents the normalized visual response spectrum of the human eye, defining a ratio including the first amount of light and the second amount of light as a figure of merit (FOM), the figure of merit being determined by: FOM = 1 − D rec , 590 D rec , 590 T = 1 1 − D vis D vis T = 1 where D rec,590 (T=1) is the light across the first wavelength range in the absence of an optical filter, and D vis (T=1) is the second amount of light in the absence of an optical filter, wherein the optical filter is configured such that the figure of merit of said optical filter is greater than 1.3. calculating a light dose D rec,590 received at about 590 nm by the human eye D rec , 590 = ∫ L λ T λ R 590 λ dλ where L is the light spectrum of a light source in terms of intensity, power, photons/sec, T is the spectral transmission of the filter lying between the light source and the eye, and R 590 is a response spectrum at about 590nm of the human eye calculating a light dose D vis in association with the visual response spectrum D vis = ∫ L λ T λ V λ dλ where V represents the normalized visual response spectrum of the human eye, defining a ratio including the first amount of light and the second amount of light as a figure of merit (FOM), the figure of merit being determined by: FOM = 1 − D rec , 590 D rec , 590 T = 1 1 − D vis D vis T = 1 where L is the light spectrum of a light source in terms of intensity, power, photons/sec, T is the spectral transmission of the filter lying between the light source and the eye, and R 590 is a response spectrum at about 590nm of the human eye calculating a light dose D vis in association with the visual response spectrum D vis = ∫ L λ T λ V λ dλ where V represents the normalized visual response spectrum of the human eye, defining a ratio including the first amount of light and the second amount of light as a figure of merit (FOM), the figure of merit being determined by: FOM = 1 − D rec , 590 D rec , 590 T = 1 1 − D vis D vis T = 1 where D rec,590 (T=1) is the light across the first wavelength range in the absence of an optical filter, and D vis (T=1) is the second amount of light in the absence of an optical filter, wherein the optical filter is configured such that the figure of merit of said optical filter is greater than 1.3.
An aqueous lubricant for metal material plastic working, wherein an aliphatic polycarboxylic acid having 5 to 8 carbon atoms and a solubility in water at 20°C of 10 g/100 mL or more and an alkaline earth metal compound are blended in water, or an alkaline earth metal salt of the aliphatic polycarboxylic acid is dissolved and/or dispersed in water, and which contains at least one kind of organic lubricants selected from a soap, a wax, an amino acid compound having a layered structure, and an organic modified clay mineral, wherein: the blending amount is within the range of 1 : 0.2 or more and 1 : less than 8 in terms of a molar ratio of the aliphatic polycarboxylic acid to the alkaline earth metal compound, and the aliphatic polycarboxylic acid having 5 to 8 carbon atoms is glutaric acid or citric acid.
An artificial cell system comprising: at least one hydrophilic/polar droplet constrained within an amphiphilic monolayer and contained within an oil droplet to provide at least one droplet-interface bilayer (DIB) which is encased within a shell wherein said shell is a hydrogel polymer and at least semi-rigid and further wherein said polymer is capable, under suitable conditions, of undergoing polymerization/depolymerization.
A method for secure communication between an end-device and a server system, comprising the steps: - transmitting at least one identifier and a randomized code from the end-device to the server system, characterized in that - the server system randomly assigns a new value to the at least one identifier and uses the new value along with the randomized code for further data transmissions between the end-device and the server system; and - the end-device is instructed to change the at least one identifier to the new value, wherein the end-device and the server system communicate via a Low-Power Wide-Area Network. - transmitting at least one identifier and a randomized code from the end-device to the server system, characterized in that - the server system randomly assigns a new value to the at least one identifier and uses the new value along with the randomized code for further data transmissions between the end-device and the server system; and - the end-device is instructed to change the at least one identifier to the new value, wherein