mhurhangee/patent-ind-claim-en huggingface dataset:
An image file distribution apparatus comprising: (k, n)-threshold secret sharing means for distributing tag information recorded in a tag information recording region of an image file into a plurality of first distributed tag information items, using a (k, n)-threshold secret sharing scheme; (k, L, n)-threshold ramp secret sharing means for distributing image data recorded in an image data recording region of the image file into a plurality of second distributed image data items, using a (k, L, n)-threshold ramp secret sharing scheme; distributed tag information transmission means for transmitting each of the plurality of first distributed tag information items distributed by the (k, n)-threshold secret sharing means to different storage servers; and distributed image data transmission means for transmitting each of the plurality of second distributed image data items distributed by the (k, L, n)-threshold ramp secret sharing means to different storage servers. (k, n)-threshold secret sharing means for distributing tag information recorded in a tag information recording region of an image file into a plurality of first distributed tag information items, using a (k, n)-threshold secret sharing scheme; (k, L, n)-threshold ramp secret sharing means for distributing image data recorded in an image data recording region of the image file into a plurality of second distributed image data items, using a (k, L, n)-threshold ramp secret sharing scheme; distributed tag information transmission means for transmitting each of the plurality of first distributed tag information items distributed by the (k, n)-threshold secret sharing means to different storage servers; and distributed image data transmission means for transmitting each of the plurality of second distributed image data items distributed by the (k, L, n)-threshold ramp secret sharing means to different storage servers.
Device for generating a compressed air pulse, with - a compressed air tank that can be filled with compressed air via a supply line , - an outlet valve for emitting the compressed air pulse via an outlet and - a pneumatic drive for opening and closing the outlet valve , wherein - the drive for opening or closing the outlet valve can be driven by means of the compressed air present in the compressed air tank , - and the drive can be controlled via a control valve , - and wherein the drive and/or the control valve are arranged within the compressed air tank . - a compressed air tank that can be filled with compressed air via a supply line , - an outlet valve for emitting the compressed air pulse via an outlet and - a pneumatic drive for opening and closing the outlet valve , wherein - the drive for opening or closing the outlet valve can be driven by means of the compressed air present in the compressed air tank , - and the drive can be controlled via a control valve , - and wherein the drive and/or the control valve are arranged within the compressed air tank .
An air-conditioning device control method, comprising the following steps: receiving (S101), by an air-conditioning device, an instruction sent by a terminal device; judging (S102) whether the instruction comes from a preset local area network; in response to the instruction coming from the preset local area network, identifying (S103) a user identity according to the instruction; and acquiring (S104) an operation mode of the air-conditioning device that is adapted to the user identity; and executing the operation mode of the air-conditioning device; wherein identifying a user identity according to the instruction comprises: acquiring login ID information of the instruction; and identifying the user identity according to the login ID information of the instruction. receiving (S101), by an air-conditioning device, an instruction sent by a terminal device; judging (S102) whether the instruction comes from a preset local area network; in response to the instruction coming from the preset local area network, identifying (S103) a user identity according to the instruction; and acquiring (S104) an operation mode of the air-conditioning device that is adapted to the user identity; and executing the operation mode of the air-conditioning device; wherein identifying a user identity according to the instruction comprises: acquiring login ID information of the instruction; and identifying the user identity according to the login ID information of the instruction. acquiring login ID information of the instruction; and identifying the user identity according to the login ID information of the instruction.
A method for degumming a triglyceride oil comprising: a. mixing an aqueous base solution with an acid-treated oil to form a pre-treated oil mixture comprising an oil phase and a water phase; b. passing the pre-treated oil mixture at a pre-determined inlet pressure through a first homogenization apparatus and a second homogenization apparatus to form a treated oil mixture, the first homogenization apparatus and the second homogenization apparatus positioned in series with one another and the first homogenization apparatus and the second homogenization apparatus each having at least three flow constrictions in series, wherein a pressure drop in the pre-treated oil mixture across each flow constriction in the first homogenization apparatus and the second homogenization apparatus is in the range of 25 to 50% of the upstream pressure of the pre-treated oil mixture before each flow constriction such that hydrodynamic cavitation in the pre-treated oil mixture is suppressed in the first homogenization apparatus and the second homogenization apparatus; c. separating the water phase from the oil phase to form a purified oil. a. mixing an aqueous base solution with an acid-treated oil to form a pre-treated oil mixture comprising an oil phase and a water phase; b. passing the pre-treated oil mixture at a pre-determined inlet pressure through a first homogenization apparatus and a second homogenization apparatus to form a treated oil mixture, the first homogenization apparatus and the second homogenization apparatus positioned in series with one another and the first homogenization apparatus and the second homogenization apparatus each having at least three flow constrictions in series, wherein a pressure drop in the pre-treated oil mixture across each flow constriction in the first homogenization apparatus and the second homogenization apparatus is in the range of 25 to 50% of the upstream pressure of the pre-treated oil mixture before each flow constriction such that hydrodynamic cavitation in the pre-treated oil mixture is suppressed in the first homogenization apparatus and the second homogenization apparatus; c. separating the water phase from the oil phase to form a purified oil.
A method for anonymizing user identifiable information to be transmitted outside of a local network, the method comprising: generating (S 1) a first network entity hash input by aggregating (i) a first MAC address assigned to a client station of the local network, (ii) a second MAC address assigned to a network gateway device of the local network, and (iii) a first identifier of a first cloud entity of a first external network to which data of the client station is to be transmitted; generating (S2) a first hash value output based on the first network entity hash input and a random token value unique to the network gateway device using a hashing function; generating (S3) a first anonymized MAC address associated with the client station based on the first hash value output; and transmitting the first anonymized MAC address associated with the client station to the first cloud entity of the first external network . generating (S 1) a first network entity hash input by aggregating (i) a first MAC address assigned to a client station of the local network, (ii) a second MAC address assigned to a network gateway device of the local network, and (iii) a first identifier of a first cloud entity of a first external network to which data of the client station is to be transmitted; generating (S2) a first hash value output based on the first network entity hash input and a random token value unique to the network gateway device using a hashing function; generating (S3) a first anonymized MAC address associated with the client station based on the first hash value output; and transmitting the first anonymized MAC address associated with the client station to the first cloud entity of the first external network .
A tooth whitening and/or tooth sensitivity strip or film comprising: 1-20 wt. % hydroxyapatite (HAP); at least one or a combination of polyvinylpyrrolidone (PVP) polymers wherein the amount of the PVP polymers is greater than 35 wt.% of the strip or film; at least one or a combination of polycarbophil(s), 1-5 wt. % of the strip or film; and phthalimido peroxy caproic acid (PAP) with the concentration of: 0.01 wt.% to 5 wt.% of the strip or film; wherein the strip or film of has a thickness ranging from 50μm to 500μm. 1-20 wt. % hydroxyapatite (HAP); at least one or a combination of polyvinylpyrrolidone (PVP) polymers wherein the amount of the PVP polymers is greater than 35 wt.% of the strip or film; at least one or a combination of polycarbophil(s), 1-5 wt. % of the strip or film; and phthalimido peroxy caproic acid (PAP) with the concentration of: 0.01 wt.% to 5 wt.% of the strip or film; wherein the strip or film of has a thickness ranging from 50μm to 500μm.
Process for the preparation of a composition comprising Al-, Ce- and Zr-oxides, which process comprises the steps of (a) preparing an aqueous solution of a mixture of metal salts of cerium, zirconium and aluminium, which aqueous solution comprises one or more salts of Rare Earth Metals other than cerium, (b) adding to the solution obtained in step (a) a base, in the presence of H 2 O 2 , at temperatures from 0°C to 95°C and precipitating obtained mixed metal salts in the form of hydroxides or oxy-hydroxides, (c) optionally isolating the precipitate obtained in step (b), (d) treating the aqueous suspension obtained in step (b), or the isolated precipitate obtained in step (c) with a surfactant, and (e) isolating the precipitate obtained in step (d) and treating said precipitate at a temperature from 450°C to 1200°C, characterized in that the aluminium content, calculated as aluminium oxide obtained is in the range from 45 to 55% by weight of the composition, and the surface area (BET) of the composition obtained, measured according to DIN (Deutsche Industrie Norm) 66131 after calcining for 2 hours at 1100°C is from 55 to 80 m 2 /g, and the surfactant is selected from nonionic surfactants comprising ethylene oxide / propylene oxide units, ethyl phenol ethoxylates, ethylene oxide / propylene oxide copolymers, or lauric acid. (a) preparing an aqueous solution of a mixture of metal salts of cerium, zirconium and aluminium, which aqueous solution comprises one or more salts of Rare Earth Metals other than cerium, (b) adding to the solution obtained in step (a) a base, in the presence of H 2 O 2 , at temperatures from 0°C to 95°C and precipitating obtained mixed metal salts in the form of hydroxides or oxy-hydroxides, (c) optionally isolating the precipitate obtained in step (b), (d) treating the aqueous suspension obtained in step (b), or the isolated precipitate obtained in step (c) with a surfactant, and (e) isolating the precipitate obtained in step (d) and treating said precipitate at a temperature from 450°C to 1200°C, characterized in that
A method of analyzing a biological sample of an organism, the method comprising: identifying a plurality of regions of a genome of the organism, each of the regions including one or more sites; analyzing a plurality of DNA molecules from the biological sample of the organism comprising nucleic acid molecules, wherein at least some of the nucleic acid molecules are cell-free in the biological sample, and wherein analyzing a DNA molecule includes: determining a location of the DNA molecule in the genome of the organism; and determining whether the DNA molecule is methylated at one or more sites; for each of the plurality of regions: determining a respective number of DNA molecules that are methylated at sites of the region; and calculating a respective region methylation level based on the respective number of DNA molecules that are methylated at sites of the region; comparing each of the respective region methylation levels to a corresponding reference methylation level of a reference group; determining an amount of regions that have a region methylation level exceeding the corresponding reference methylation level; comparing the amount of regions to a threshold value; and determining a classification of whether cancer is present based on the comparison. identifying a plurality of regions of a genome of the organism, each of the regions including one or more sites; analyzing a plurality of DNA molecules from the biological sample of the organism comprising nucleic acid molecules, wherein at least some of the nucleic acid molecules are cell-free in the biological sample, and wherein analyzing a DNA molecule includes: determining a location of the DNA molecule in the genome of the organism; and determining whether the DNA molecule is methylated at one or more sites; determining a location of the DNA molecule in the genome of the organism; and determining whether the DNA molecule is methylated at one or more sites; for each of the plurality of regions: determining a respective number of DNA molecules that are methylated at sites of the region; and calculating a respective region methylation level based on the respective number of DNA molecules that are methylated at sites of the region; determining a respective number of DNA molecules that are methylated at sites of the region; and calculating a respective region methylation level based on the respective number of DNA molecules that are methylated at sites of the region; comparing each of the respective region methylation levels to a corresponding reference methylation level of a reference group; determining an amount of regions that have a region methylation level exceeding the corresponding reference methylation level; comparing the amount of regions to a threshold value; and determining a classification of whether cancer is present based on the comparison.
A lubricating oil composition comprising: a lubricating base oil (A); a molybdenum compound (B); an ashless friction modifier (C); and a borated succinimide (D), wherein the lubricating oil composition includes a binuclear organic molybdenum compound represented by the following general formula (I) as the molybdenum compound (B), with the content of the binuclear organic molybdenum compound as converted into molybdenum atoms being 0.030 mass% or more and 0.140 mass% or less based on the total amount of the lubricating oil composition; and an ester-based ashless friction modifier (C1) and an amine-based ashless friction modifier (C2) as the ashless friction modifier (C), with the total content of the ester-based ashless friction modifier (C1) and the amine-based ashless friction modifier (C2) being more than 0.1 mass% and 1.8 mass% or less based on the total amount of the lubricating oil composition: wherein R 1 to R 4 each represents a hydrocarbon group having 4 to 22 carbon atoms, R 1 to R 4 may be the same as or different from each other, and X 1 to X 4 each represents a sulfur atom or an oxygen atom, wherein the amine-based ashless friction modifier (C2) is an aliphatic amine-based compound having one or more hydroxyl groups in a molecule thereof, wherein the mass ratio between the content of the amine-based ashless friction modifier (C2) and the content of the ester-based ashless friction modifier (C1) [the content of the amine-based ashless friction modifier (C2)/the content of the ester-based ashless friction modifier (C1)] is 0.15 or more and 0.80 or less. a lubricating base oil (A); a molybdenum compound (B); an ashless friction modifier (C); and a borated succinimide (D), wherein the lubricating oil composition includes a binuclear organic molybdenum compound represented by the following general formula (I) as the molybdenum compound (B), with the content of the binuclear organic molybdenum compound as converted into molybdenum atoms being 0.030 mass% or more and 0.140 mass% or less based on the total amount of the lubricating oil composition; and an ester-based ashless friction modifier (C1) and an amine-based ashless friction modifier (C2) as the ashless friction modifier (C), with the total content of the ester-based ashless friction modifier (C1) and the amine-based ashless friction modifier (C2) being more than 0.1 mass% and 1.8 mass% or less based on the total amount of the lubricating oil composition: wherein R 1 to R 4 each represents a hydrocarbon group having 4 to 22 carbon atoms, R 1 to R 4 may be the same as or different from each other, and X 1 to X 4 each represents a sulfur atom or an oxygen atom, wherein the amine-based ashless friction modifier (C2) is an aliphatic amine-based compound having one or more hydroxyl groups in a molecule thereof, wherein the mass ratio between the content of the amine-based ashless friction modifier (C2) and the content of the ester-based ashless friction modifier (C1) [the content of the amine-based ashless friction modifier (C2)/the content of the ester-based ashless friction modifier (C1)] is 0.15 or more and 0.80 or less.
A pet leash preventing locking due to jerk, the pet leash comprising a housing provided with a handle and a reel disk disposed in the housing, the reel disk rotatably connected to the housing, a leash rope wound on the reel disk, one end of the leash rope penetrates through the housing, wherein the housing is provided with a rotary damper , and a clutch structure is provided between the reel disk and the rotary damper , and is actuable under a centrifugal force to connect the reel disk to the rotary damper when a rotation speed of the reel disk exceeds a predetermined rotation speed; wherein the rotary damper comprises a stationary member and a rotatable member , the stationary member is fixedly connected to the housing , the rotatable member is connected to and in damping contact with the stationary member, the pet leash being configured such that when the rotatable member is subjected to a force greater than a damping force between the rotatable member and the stationary member, the rotatable member is rotatable relative to the stationary member and the pet leash being configured such that when the rotation speed of the reel disk exceeds the predetermined rotation speed, the clutch structure is actuable under the centrifugal force and connected to the rotatable member; and characterized in that the stationary member has a disk shape, the rotatable member has an annular shape, and the rotatable member is wrapped around a periphery of the stationary member.
A microneedle patch for administration of a substance of interest into a biological tissue, wherein the patch is characterized in that it comprises: a base substrate having a microneedle side and an opposing back side; one or more solid microneedles extending from the microneedle side of the base substrate , wherein the one or more solid microneedles comprise a substance of interest; an adhesive layer ; a handle layer affixed to the base substrate , wherein the handle layer comprises a tab portion which extends laterally asymmetrically away from the one or more solid microneedles and permits a person to manually hold the tab portion to manipulate the patch without contacting the one or more solid microneedles ; and an indicator connected to the opposing back side of the base substrate, wherein the indicator is: integral with the handle layer, disposed between the opposing back side of the base substrate and the handle layer, disposed on an opposing back side of the handle layer opposite the adhesive layer, or in line with and generally centered about the one or more microneedles on the opposing back side of the base substrate. a base substrate having a microneedle side and an opposing back side; one or more solid microneedles extending from the microneedle side of the base substrate , wherein the one or more solid microneedles comprise a substance of interest; an adhesive layer ; a handle layer affixed to the base substrate , wherein the handle layer comprises a tab portion which extends laterally asymmetrically away from the one or more solid microneedles and permits a person to manually hold the tab portion to manipulate the patch without contacting the one or more solid microneedles ; and an indicator connected to the opposing back side of the base substrate, wherein the indicator is: integral with the handle layer, disposed between the opposing back side of the base substrate and the handle layer, disposed on an opposing back side of the handle layer opposite the adhesive layer, or in line with and generally centered about the one or more microneedles on the opposing back side of the base substrate. integral with the handle layer, disposed between the opposing back side of the base substrate and the handle layer, disposed on an opposing back side of the handle layer opposite the adhesive layer, or in line with and generally centered about the one or more microneedles on the opposing back side of the base substrate.
A device for handling liquid, the device being configured for rotation about an axis of rotation and the device comprising: a first cavity with a first port , the first cavity comprising a proximal portion radially inwards of a distal portion; a second cavity with a second port , the second cavity comprising a proximal portion radially inwards of a distal portion; and a first conduit structure connecting the first and second ports to guide liquid flow therebetween; a downstream cavity ; and an outlet conduit connecting an outlet port of the first cavity to an inlet of the downstream cavity ; wherein the first and second ports are disposed in the respective distal portions of the first and second cavities ; wherein the second port is radially outwards of the first port ; wherein the second cavity is configured such that as liquid flows into the second cavity , a gas volume is trapped in the second cavity and a pressure of the gas increases; wherein the outlet conduit extends radially inwards of the outlet port to a first bend and radially outwards of the first bend to the inlet of the downstream cavity and wherein the first bend is disposed radially inwards of a radially-outermost aspect of the first cavity and radially outwards of a radially-innermost aspect of the first cavity ; and wherein the inlet port of the downstream cavity is radially outwards of the outlet port of the first cavity . a first cavity with a first port , the first cavity comprising a proximal portion radially inwards of a distal portion; a second cavity with a second port , the second cavity comprising a proximal portion radially inwards of a distal portion; and a first conduit structure connecting the first and second ports to guide liquid flow therebetween; a downstream cavity ; and an outlet conduit connecting an outlet port of the first cavity to an inlet of the downstream cavity ; wherein the first and second ports are disposed in the respective distal portions of the first and second cavities ; wherein the second port is radially outwards of the first port ; wherein the second cavity is configured such that as liquid flows into the second cavity , a gas volume is trapped in the second cavity and a pressure of the gas increases; wherein the outlet conduit extends radially inwards of the outlet port to a first bend and radially outwards of the first bend to the inlet of the downstream cavity and wherein the first bend is disposed radially inwards of a radially-outermost aspect of the first cavity and radially outwards of a radially-innermost aspect of the first cavity ; and wherein the inlet port of the downstream cavity is radially outwards of the outlet port of the first cavity .