mhurhangee/ep-ind-claims huggingface dataset:
Cosmetic process for treating keratin materials, comprising the sequential application to the keratin materials of a cosmetic composition comprising a maleic anhydride acrylic polymer and of a polyamine compound or a cosmetic composition containing same, said maleic anhydride acrylic polymer being able to be obtained by polymerization of: (a) 50% to 90% by weight, relative to the total weight of monomers, of isobornyl (meth)acrylate (b) 1 % to 50% by weight of maleic anhydride (c) 0 to 49% by weight of additional (meth)acrylate monomer chosen from: (i) linear or branched, saturated or unsaturated C 1 -C 20 alkyl (meth)acrylates, optionally interrupted with one or more non-adjacent heteroatoms chosen from O and S or with a group NR, R being a C 1 -C 4 alkyl group, optionally substituted with a phenyl or furfuryl group; (ii) saturated C 4 -C 8 cycloalkyl (meth)acrylates optionally interrupted with O or NH; said polyamine compound bearing several primary amine and/or secondary amine groups, the polyamine compound not being an alkoxysilane. (a) 50% to 90% by weight, relative to the total weight of monomers, of isobornyl (meth)acrylate (b) 1 % to 50% by weight of maleic anhydride (c) 0 to 49% by weight of additional (meth)acrylate monomer chosen from: (i) linear or branched, saturated or unsaturated C 1 -C 20 alkyl (meth)acrylates, optionally interrupted with one or more non-adjacent heteroatoms chosen from O and S or with a group NR, R being a C 1 -C 4 alkyl group, optionally substituted with a phenyl or furfuryl group; (ii) saturated C 4 -C 8 cycloalkyl (meth)acrylates optionally interrupted with O or NH; (i) linear or branched, saturated or unsaturated C 1 -C 20 alkyl (meth)acrylates, optionally interrupted with one or more non-adjacent heteroatoms chosen from O and S or with a group NR, R being a C 1 -C 4 alkyl group, optionally substituted with a phenyl or furfuryl group; (ii) saturated C 4 -C 8 cycloalkyl (meth)acrylates optionally interrupted with O or NH;
Splicing head for a splicing apparatus comprising a splicing chamber and a clamping device for clamping yarns, said clamping device being arranged between two portions of the splicing chamber, wherein the splicing head comprises at least one drawing-in element (8; 31; 32) for ensuring that the yarn ends are arranged in the splicing chamber, in particular for drawing the yarn ends into the splicing chamber, characterized in that the clamping device is arranged independently operable on the splicing head, so that the clamping device is operable before and/or after closing the splicing chamber.
A method performed by a roadside unit or a base station, for managing a predetermined area in a radio-assisted road traffic management scenario, the method comprising detecting a specific road traffic condition in said predetermined area, wherein said specific road traffic condition is at least one of: an identified road traffic danger spot in said predetermined area, an identified road traffic accident scene in said predetermined area, and an identified unexpected driving maneuver of a vehicle in said predetermined area, and transmitting, to at least one user equipment or vehicular machine type communication device, configuration signaling instructing a configuration of at least one radio communication related parameter, wherein said configuration of said at least one radio communication related parameter is indicative of a vehicle-to-vehicle radio sensing mode and includes at least one of: an increase in a radio transmission power related to vehicle-to-vehicle radio sensing, a switching of a radio transmission rate related to said vehicle-to-vehicle radio sensing, a switching of a radio transmission carrier frequency related to said vehicle-to-vehicle radio sensing, a switching of a radio transmission carrier bandwidth related to said vehicle-to-vehicle radio sensing, and an activation of beamforming related to said vehicle-to-vehicle radio sensing. detecting a specific road traffic condition in said predetermined area, wherein said specific road traffic condition is at least one of: an identified road traffic danger spot in said predetermined area, an identified road traffic accident scene in said predetermined area, and an identified unexpected driving maneuver of a vehicle in said predetermined area, and transmitting, to at least one user equipment or vehicular machine type communication device, configuration signaling instructing a configuration of at least one radio communication related parameter, wherein said configuration of said at least one radio communication related parameter is indicative of a vehicle-to-vehicle radio sensing mode and includes at least one of: an increase in a radio transmission power related to vehicle-to-vehicle radio sensing, a switching of a radio transmission rate related to said vehicle-to-vehicle radio sensing, a switching of a radio transmission carrier frequency related to said vehicle-to-vehicle radio sensing, a switching of a radio transmission carrier bandwidth related to said vehicle-to-vehicle radio sensing, and an activation of beamforming related to said vehicle-to-vehicle radio sensing.
A pressure equalisation device for use on respiration cannulas comprising a pressure equalisation balloon whose volume is connected to a further volume, the pressure of which is to maintain a value which is as constant as possible even in the event of a forced change in volume, and a protective case, wherein the equalisation balloon which keeps the pressure generally constant is accommodated in the protective case which has radial outward bulges deviating from a uniformly concave shape matched to the outside contour of the balloon, which bulges of such a configuration that the equalisation balloon firstly bears against wall regions of the protective case, that are matched to the contour of the balloon, and then upon an increase in pressure expands only into the outward bulges, whereby the pressure in the equalisation balloon gradually increases with the increase in volume into the outward bulges, characterised in that the protective case is of a spherical basic shape with strip-shaped outward bulges.
A deployment method for a supplemental restraint in a motor vehicle, comprising the step of: providing a sensor for identifying an object approaching said vehicle and determining a closing velocity between said vehicle and said identified object; detecting an onset of a crash event based on a longitudinal acceleration of said vehicle, and storing a closing velocity determined by said sensor when said onset is detected (40, 44); determining a classification of said crash event based on the stored closing velocity; and executing a classification-specific deployment algorithm (56/60-74/90-122) during said crash event to determine if and when deployment of said restraint is warranted based on measures of actual crash severity (72/104); characterized by the steps of: calculating a change in velocity of said vehicle due to said crash event; and disabling deployment of said restraint after the calculated change in velocity of said vehicle exceeds said stored closing velocity (64-65/94-95). providing a sensor for identifying an object approaching said vehicle and determining a closing velocity between said vehicle and said identified object; detecting an onset of a crash event based on a longitudinal acceleration of said vehicle, and storing a closing velocity determined by said sensor when said onset is detected (40, 44); determining a classification of said crash event based on the stored closing velocity; and executing a classification-specific deployment algorithm (56/60-74/90-122) during said crash event to determine if and when deployment of said restraint is warranted based on measures of actual crash severity (72/104); characterized by the steps of: calculating a change in velocity of said vehicle due to said crash event; and disabling deployment of said restraint after the calculated change in velocity of said vehicle exceeds said stored closing velocity (64-65/94-95). calculating a change in velocity of said vehicle due to said crash event; and disabling deployment of said restraint after the calculated change in velocity of said vehicle exceeds said stored closing velocity (64-65/94-95).
A method for manufacturing an SOI wafer comprising the steps of: forming an insulating layer on at least one wafer of two starting wafers (52a, 56a); and adhering the one wafer to the other wafer without an adhesive, characterised in that there is used as the starting wafer a wafer having an outer peripheral configuration with a change in thickness being controlled to be 0.1 μm or less in a region of between 10 mm and 3 mm away from the outer periphery of the starting wafers, wherein the outer periphery corresponds to the perimeter of the starting wafers. forming an insulating layer on at least one wafer of two starting wafers (52a, 56a); and adhering the one wafer to the other wafer without an adhesive, characterised in that there is used as the starting wafer a wafer having an outer peripheral configuration with a change in thickness being controlled to be 0.1 μm or less in a region of between 10 mm and 3 mm away from the outer periphery of the starting wafers, wherein the outer periphery corresponds to the perimeter of the starting wafers.
Household refrigeration appliance with an interior compartment for accommodating foodstuffs which is bounded by walls of an interior container and with a keep-fresh container for foodstuffs in which an ambient humidity different from that of the interior compartment can be set and the ambient humidity can be set independently of the rest of the interior compartment, wherein the keep-fresh container is arranged displaceably in a housing of the household refrigeration appliance, wherein a front wall of the keep-fresh container forms an outer wall of the household refrigeration appliance, wherein the keep-fresh container comprises a carrier tray on which the front wall is arranged, wherein the carrier tray comprises a side wall on an upper edge of which a setting element (21, 25) for setting the ambient humidity in the keep-fresh container is arranged, wherein the keep-fresh container has a receiving tray (17, 18) for foodstuffs and a cover (32, 35) separate thereto positioned in a raisable and lowerable manner above the receiving tray (17, 18), wherein an actuating element for the actuation of the cover (32, 35) is arranged on the upper edge, said element being coupled to a coupling element on the cover (17, 18), and wherein the setting element (21, 25) and the actuating element are arranged in a setting unit and the setting element (21, 25) is coupled to the actuating element by a coupling device.
A respiratory humidification system comprising: an inspiratory limb comprising a first segment with a first heater wire, a second segment with a second heater wire, the first and second heater wires being configured to heat respiratory gases flowing through the inspiratory limb, and a temperature sensor positioned at or near a patient end of the second segment, wherein the first and second heater wires are electrically coupled, the first heater wire forming a first heater circuit and the first and second heater wires together forming a second heater circuit; a control module comprising a hardware processor configured to be in electrical communication with the temperature sensor and the first and second heater wires, the hardware processor configured to execute software instructions which cause the processor to selectively control power provided to the first and second heater circuits, wherein the processor is configured to control heating of the respiratory gases using: the first heater circuit to meet a power demand for the first heater circuit needed to maintain a temperature profile in the inspiratory limb; and the second heater circuit to meet a power demand for the second heater circuit needed to reduce or eliminate a difference between a set point temperature and a patient end temperature measured by the temperature sensor. an inspiratory limb comprising a first segment with a first heater wire, a second segment with a second heater wire, the first and second heater wires being configured to heat respiratory gases flowing through the inspiratory limb, and a temperature sensor positioned at or near a patient end of the second segment, wherein the first and second heater wires are electrically coupled, the first heater wire forming a first heater circuit and the first and second heater wires together forming a second heater circuit; a control module comprising a hardware processor configured to be in electrical communication with the temperature sensor and the first and second heater wires, the hardware processor configured to execute software instructions which cause the processor to selectively control power provided to the first and second heater circuits, wherein the processor is configured to control heating of the respiratory gases using: the first heater circuit to meet a power demand for the first heater circuit needed to maintain a temperature profile in the inspiratory limb; and the second heater circuit to meet a power demand for the second heater circuit needed to reduce or eliminate a difference between a set point temperature and a patient end temperature measured by the temperature sensor. the first heater circuit to meet a power demand for the first heater circuit needed to maintain a temperature profile in the inspiratory limb; and the second heater circuit to meet a power demand for the second heater circuit needed to reduce or eliminate a difference between a set point temperature and a patient end temperature measured by the temperature sensor.
A microneedle patch container (30, 50, 70, 80) comprising: one or plural bottom surfaces (32, 52, 72, 82) recessed from a peripheral portion (31, 51, 71, 81); a side surface (33, 53) continuously connecting the bottom surfaces (32, 52, 72, 82) with the peripheral portion (31, 51,71, 81); and a bottom-surface protruding portion (34, 54, 74, 84) projecting from the bottom surfaces (32, 52, 72, 82), characterized in that a release sheet portion of a flexible microneedle patch is held with the bottom-surface protruding portion (34, 54, 74, 84) of each of the bottom surfaces (32, 52, 72, 82). one or plural bottom surfaces (32, 52, 72, 82) recessed from a peripheral portion (31, 51, 71, 81); a side surface (33, 53) continuously connecting the bottom surfaces (32, 52, 72, 82) with the peripheral portion (31, 51,71, 81); and a bottom-surface protruding portion (34, 54, 74, 84) projecting from the bottom surfaces (32, 52, 72, 82),
Process for obtaining a native potato protein isolate comprising - subjecting potato fruit juice to a flocculation by a divalent metal cation at a pH of 7-9; - centrifuging the flocculated potato fruit juice, thereby forming a supernatant; - subjecting the supernatant to expanded bed adsorption chromatography operated at a pH of less than 11 and a temperature of 5-35 °C using a mixed-mode adsorbent capable of binding potato protein, thereby adsorbing the native potato protein to the adsorbent; and - eluting the native potato protein isolate from the absorbent with an eluent; wherein said native potato protein isolate is eluted at a pH of 5.7 - 8.7 if the native potato protein isolate is a native potato protein patatin isolate, wherein said native potato protein isolate is eluted at a pH of 5.8 - 12.0 if the native potato protein isolate is a native potato protease inhibitor isolate, and wherein said native potato protein isolate is eluted at a pH of 4-12 if the native potato protein isolate is a total native potato protein isolate. - subjecting potato fruit juice to a flocculation by a divalent metal cation at a pH of 7-9; - centrifuging the flocculated potato fruit juice, thereby forming a supernatant; - subjecting the supernatant to expanded bed adsorption chromatography operated at a pH of less than 11 and a temperature of 5-35 °C using a mixed-mode adsorbent capable of binding potato protein, thereby adsorbing the native potato protein to the adsorbent; and - eluting the native potato protein isolate from the absorbent with an eluent; wherein said native potato protein isolate is eluted at a pH of 5.7 - 8.7 if the native potato protein isolate is a native potato protein patatin isolate, wherein said native potato protein isolate is eluted at a pH of 5.8 - 12.0 if the native potato protein isolate is a native potato protease inhibitor isolate, and wherein said native potato protein isolate is eluted at a pH of 4-12 if the native potato protein isolate is a total native potato protein isolate.
A data carrier with an optically variable structure verifying the authenticity of the data carrier, comprising a coating made in the form of a printed screen, the printed screen consists of lines (1a, 1b) which are positioned adjacent each other, and a three-dimensional screen, wherein the width of lines and the distance between lines of the printed and three-dimensional screens and the mutual orientation of the screens are selected to create a moire image in the form of color stripes; characterized in that the printed screen consists of lines of different colors and in that three-dimensional screen consists of uncolored areas and colored areas; when the carrier is viewed perpendicular to the surface of the carrier the moire image is recognizable on the colored areas of the three-dimensional screen and the moire image is unrecognizable on the uncolored areas of the three-dimensional screen; and when the carrier is inclined, the parts of the printed screen which are disposed on the faces of the three-dimensional screen facing the viewer and not occluded for the viewer by elements of the three-dimensional screen are visible, whereby the moire image becomes visible on the uncolored areas of the three-dimensional screen; the moire stripes on the colored areas of the three-dimensional screen blend without shifting into stripes of the moire image on the uncolored areas of the three-dimensional screen; when the inclination angle of the carrier is changed, the borders of color stripes of moire image appear to move on the colored areas of the three-dimensional screen on the carrier.
A method of manufacturing a seamless steel pipe or tube with continuous process from pierce-rolling process to heat treatment, and the method comprises the steps of a pierce-rolling process, an elongation rolling process, a sizing process, a reheating process, a quenching process and a tempering process, wherein the sizing process is completed with a temperature of the seamless steel pipe or tube not less than 600 °C but not more than 790 °C, the seamless steel pipe or tube is charged into a reheating furnace with a temperature not less than 400 °C and is reheated with a temperature not less than Ac 3 transformation temperature but not greater than 1000 °C in the reheating process.
A unit-dose tablet composition comprising a surfactant, a builder, a filler and an effervescent agent selected from organic acids wherein at least 90% wt. of the effervescent agent is coated with triglyceride oil.
A diesel fuel composition comprising a major proportion of a diesel fuel and: a first additive (i) comprising one or more of: (a) the reaction product of a polycarboxylic acid having at least one tertiary amino group and a primary or secondary amine; (b) the reaction product of an α, β dicarboxylic acid or a carbonyl halide, a carboxylic ester and a carboxylic anhydride thereof and a primary amine; and (c) the reaction product of a polyamine and a fatty acid; and a second additive (ii) which is a terpolymer obtained by reacting monomers of: (x) an α-olefin; (y) an ester of an unsaturated alcohol; and (z) a third monomer different to (x) and (y) comprising an alkene functional group; wherein the diesel fuel comprises mineral diesel and at least 5 vol% renewable diesel fuel obtained by the hydrodeoxygenation of fats and oils. a first additive (i) comprising one or more of: (a) the reaction product of a polycarboxylic acid having at least one tertiary amino group and a primary or secondary amine; (b) the reaction product of an α, β dicarboxylic acid or a carbonyl halide, a carboxylic ester and a carboxylic anhydride thereof and a primary amine; and (c) the reaction product of a polyamine and a fatty acid; and (a) the reaction product of a polycarboxylic acid having at least one tertiary amino group and a primary or secondary amine; (b) the reaction product of an α, β dicarboxylic acid or a carbonyl halide, a carboxylic ester and a carboxylic anhydride thereof and a primary amine; and (c) the reaction product of a polyamine and a fatty acid; and a second additive (ii) which is a terpolymer obtained by reacting monomers of: (x) an α-olefin; (y) an ester of an unsaturated alcohol; and (z) a third monomer different to (x) and (y) comprising an alkene functional group; (x) an α-olefin; (y) an ester of an unsaturated alcohol; and (z) a third monomer different to (x) and (y) comprising an alkene functional group;
An image processing system including: two or more illumination devices positioned to selectively illuminate a face of a subject from respective illumination angles; a camera positioned to capture images of at least a portion of the subject's face including at least one eye; a controller configured to control the illumination devices and camera such that a first image is captured under a first illumination condition having first glare properties and a second image is captured under a second illumination condition having second glare properties, wherein the first and second illumination conditions are defined by the illumination devices; and a processor adapted to fit an eye model to the first and second images based on at least one detected characteristic of the at least one eye in the first and second images to obtain information on the position and shape of the at least one eye; wherein the processor is further adapted to: determine corresponding pixels from the first and second images that relate to the same region of the at least one eye; compare the brightness values of the corresponding pixels; and selectively modify brightness values of one or more of the corresponding pixels in the first image and/or the second image to reduce glare. two or more illumination devices positioned to selectively illuminate a face of a subject from respective illumination angles; a camera positioned to capture images of at least a portion of the subject's face including at least one eye; a controller configured to control the illumination devices and camera such that a first image is captured under a first illumination condition having first glare properties and a second image is captured under a second illumination condition having second glare properties, wherein the first and second illumination conditions are defined by the illumination devices; and a processor adapted to fit an eye model to the first and second images based on at least one detected characteristic of the at least one eye in the first and second images to obtain information on the position and shape of the at least one eye; wherein the processor is further adapted to: determine corresponding pixels from the first and second images that relate to the same region of the at least one eye; compare the brightness values of the corresponding pixels; and selectively modify brightness values of one or more of the corresponding pixels in the first image and/or the second image to reduce glare. determine corresponding pixels from the first and second images that relate to the same region of the at least one eye; compare the brightness values of the corresponding pixels; and selectively modify brightness values of one or more of the corresponding pixels in the first image and/or the second image to reduce glare.