mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a shelf stable ready-to-drink beverage product, comprising the steps of: providing an ingredient composition comprising micellar caseins and whey protein, having a total protein concentration of 1.5 - 8 wt. %, and wherein the composition has a casein to whey protein ratio of 90/10 - 60/40, adding divalent cations to provide a concentration of 3 - 20 mM free divalent cations in the ingredient composition, and 0.025 - 0.3 wt % of high acyl gellan gum with a level of acylation of 50 - 99 %, and subsequently heat treating the ingredient composition at ultra high temperature at 135 -150°C for 3 - 30 s to form agglomerated proteins comprising casein and beta-lactoglobulin from the whey protein, the agglomerates having a size of 5 - 30 microns mean diameter D(4,3) as measured by laser diffraction; wherein the divalent cation is calcium from a source selected from the group consisting of calcium chloride, calcium lactate, calcium gluconate, calcium acetate, calcium fumarate, calcium malate, calcium phosphate, fractionated calcium from milk source, or a combination thereof. providing an ingredient composition comprising micellar caseins and whey protein, having a total protein concentration of 1.5 - 8 wt. %, and wherein the composition has a casein to whey protein ratio of 90/10 - 60/40, adding divalent cations to provide a concentration of 3 - 20 mM free divalent cations in the ingredient composition, and 0.025 - 0.3 wt % of high acyl gellan gum with a level of acylation of 50 - 99 %, and subsequently heat treating the ingredient composition at ultra high temperature at 135 -150°C for 3 - 30 s to form agglomerated proteins comprising casein and beta-lactoglobulin from the whey protein, the agglomerates having a size of 5 - 30 microns mean diameter D(4,3) as measured by laser diffraction;
A system for joining parts (102,104) of a gas turbine engine comprising a first part, a second part and a tie bolt, the tie bolt for joining the two parts (102,104) together and comprising: a shaft; and said shaft having a primary thread for engaging the first part and a secondary thread for engaging the second part, wherein said primary thread and said secondary thread have different pitches; characterised in that: said second part has a tab attached thereto with a slot in said tab, and one end of said shaft engages said slot. a shaft; and said shaft having a primary thread for engaging the first part and a secondary thread for engaging the second part, wherein said primary thread and said secondary thread have different pitches; characterised in that: said second part has a tab attached thereto with a slot in said tab, and one end of said shaft engages said slot.
A cosmetic composition comprising (a) a ceramide, (b) a surfactant, and (c) water, wherein the cosmetic composition comprises (a) in an amount of 0.001 to 0.3% by weight based on the total weight of the cosmetic composition, a polyglycerin aliphatic ether as (b) in an amount of 0.1 to 3.0% by weight based on the total weight of the cosmetic composition, and (c) in an amount of 50.0% by weight or more based on the total weight of the cosmetic composition, and wherein the content of the polyglycerin aliphatic ether is 10 to 100 parts by weight per part by weight (a) the ceramide contained in the cosmetic composition. wherein the cosmetic composition comprises (a) in an amount of 0.001 to 0.3% by weight based on the total weight of the cosmetic composition, a polyglycerin aliphatic ether as (b) in an amount of 0.1 to 3.0% by weight based on the total weight of the cosmetic composition, and (c) in an amount of 50.0% by weight or more based on the total weight of the cosmetic composition, and wherein the content of the polyglycerin aliphatic ether is 10 to 100 parts by weight per part by weight (a) the ceramide contained in the cosmetic composition.
A turbomachine blade made of composite material comprising a fibrous reinforcement densified by a matrix and formed by a fibrous texture, the texture being in one piece and having a three-dimensional weaving between a plurality of warp yarns or strands made of first fibers extending along a longitudinal direction and a plurality of weft yarns or strands made of first fibers extending along a transverse direction, the texture comprising a portion corresponding to a fibrous reinforcement of a root of the blade and a portion corresponding to a fibrous reinforcement of a airfoil of the blade extending between the portion corresponding to the fibrous reinforcement of the root of the blade and a free end of the fibrous texture, the texture extending along the transverse direction between a first edge corresponding to a leading edge of the blade and a second edge corresponding to a trailing edge of the blade, characterized in that the portion corresponding to the fibrous reinforcement of the airfoil of the blade has a reinforced area extending along the longitudinal direction from the free end of the fibrous texture over a first length less than or equal to 20% of the length of the fibrous texture measured in the longitudinal direction, and along the transverse direction from the second edge over a second length less than or equal to 75% of the width of the fibrous texture measured in the transverse direction at the level of the free end of the texture, the reinforced area comprising weft yarns or strands made of second fibers (T1-T4) different from the first fibers, the second fibers having an elongation at break greater than that of the first fibers, and in that a first volume rate of second fibers in the reinforced area is greater than a second volume rate of second fibers in the rest of the portion corresponding to the fibrous reinforcement of the airfoil of the blade.
A terminal modified polybutylene terephthalate resin having a weight average molecular weight Mw of 10,000 to 100,000, a melting point of 210°C to 235°C determined as indicated in the specification, and a melt viscosity μ at 250°C of not more than 10 Pa.s determined as indicated in the specification, comprising 90 to 300 mol/ton, determined as indicated in the specification, of a compound having a (poly)oxyalkylene structure represented by the following Formula, said compound being terminally bound in said resin, wherein the weight average molecular weight Mw represents a relative weight average molecular weight with respect to the molecular weight of a standard poly(methyl methacrylate) as determined by gel permeation chromatography using hexafluoroisopropanol (supplemented with 0.005 N sodium trifluoroacetate) as a mobile phase, wherein in the Formula, R 1 represents a group selected from the group consisting of C 1 -C 30 alkyl, C 6 -C 20 cycloalkyl, C 6 -C 10 aryl, and C 7 -C 20 aralkyl; R 2 represents a group selected from the group consisting of hydroxyl, carboxyl, amino, silanol, and thiol; m represents an integer of 1 to 3; n represents an integer of 1 to 29; X represents a hydrogen atom and/or methyl; Y represents a hydrogen atom and/or methyl; and the total carbon number of the portion excluding R 1 and R 2 is 2 to 58. R 1 represents a group selected from the group consisting of C 1 -C 30 alkyl, C 6 -C 20 cycloalkyl, C 6 -C 10 aryl, and C 7 -C 20 aralkyl; R 2 represents a group selected from the group consisting of hydroxyl, carboxyl, amino, silanol, and thiol; m represents an integer of 1 to 3; n represents an integer of 1 to 29; X represents a hydrogen atom and/or methyl; Y represents a hydrogen atom and/or methyl; and the total carbon number of the portion excluding R 1 and R 2 is 2 to 58.
Method for detecting a fault state in a thermal protection system with a temperature sensor, having the following steps of: a) recording the temporal profile of the measurement signal S(t) from the temperature sensor, b) filtering the measurement signal from the temperature sensor using a low-pass filter, c) determining the volatility of the measurement signal S(t) and adapting the low-pass filter to the volatility of the measurement signal S(t), d) determining a sliding average value X G of the low-pass-filtered measurement signal S(t) from the temperature sensor, e) comparing the low-pass-filtered measurement signal S(t) with its sliding average value X G and detecting a fault state on the basis of the comparison result. a) recording the temporal profile of the measurement signal S(t) from the temperature sensor, b) filtering the measurement signal from the temperature sensor using a low-pass filter, c) determining the volatility of the measurement signal S(t) and adapting the low-pass filter to the volatility of the measurement signal S(t), d) determining a sliding average value X G of the low-pass-filtered measurement signal S(t) from the temperature sensor, e) comparing the low-pass-filtered measurement signal S(t) with its sliding average value X G and detecting a fault state on the basis of the comparison result.
Dual balance spring (1, 1') including a first hairspring (3, 3') the curve of which extends in a first plane, a second hairspring (5, 5') the curve of which extends in a second plane parallel to the first plane, an attachment member (4, 4') securing one end of the curve of the first hairspring (3, 3') to one end of the curve of the second hairspring (5, 5') so as to form a dual balance spring (1, 1') in series, the curve of the first hairspring (3, 3') and the curve of the second hairspring (5, 5') each including a continuously variable pitch, said first and second hairsprings being symmetrical relative to a straight line parallel to the first and second planes and passing through the median plane of projection of the attachment member (4, 4'), characterised in that each curve tends so that the following relation is substantially equal to zero: P → n = n + 1 L n + 1 ∫ 0 L ds ⋅ s n ⋅ x → s where: - P ( n) is the moment of the hairspring of the order n - L is the length of the balance spring; - s n represents the curvilinear abscissa along the balance spring to the power of n; - x ( s) is the parameterization of the balance spring by the curvilinear abscissa thereof and in that: P x 0 = 0 and P y 1 = 2 P y 0 in order to reduce displacements of the centre of mass thereof during contraction and expansion. - P ( n) is the moment of the hairspring of the order n - L is the length of the balance spring; - s n represents the curvilinear abscissa along the balance spring to the power of n; - x ( s) is the parameterization of the balance spring by the curvilinear abscissa thereof
A lubricating member for use on a hair removal device, said lubricating member comprising a lubricating material comprising a) from 1 % to 99% by weight of a water soluble polymer and b) from 0.1% to 70% by weight of a silicone polyether block copolymer wherein said silicone polyether block copolymer comprises from 1 to 50%, by weight of polyethylene oxide, from 20% to 90% by weight of polypropylene oxide and from 1 to 20%, more preferably 15% by weight of silicone, wherein said silicone polyether block copolymer excludes additional alkyl chains.
A system (200; 300) for removing energy from a semiconductor, characterized by comprising: a spring-arm device (210; 310) operable to be coupled to a substrate, the spring-arm device comprising at least one aperture (220; 320) operable to allow at least one package mounted on a substrate to pass through when the spring-arm device is coupled to the substrate; a heat sink operable to remove heat from the at least one package, the heat sink comprising at least one heat sink post, the heat sink post comprising a recessed portion operable to receive a heat-sink clip (226; 326); and at least one spring-arm (224; 324) extending from an inside edge of the aperture (220; 320), the spring-arm comprising the at least one heat-sink clip (226; 326) at the distal end of the spring- arm (224; 324) and operable to retain a heat-sink post, the retention of the heat sink post operable to couple the heat sink to the at least one package. a spring-arm device (210; 310) operable to be coupled to a substrate, the spring-arm device comprising at least one aperture (220; 320) operable to allow at least one package mounted on a substrate to pass through when the spring-arm device is coupled to the substrate; a heat sink operable to remove heat from the at least one package, the heat sink comprising at least one heat sink post, the heat sink post comprising a recessed portion operable to receive a heat-sink clip (226; 326); and at least one spring-arm (224; 324) extending from an inside edge of the aperture (220; 320), the spring-arm comprising the at least one heat-sink clip (226; 326) at the distal end of the spring- arm (224; 324) and operable to retain a heat-sink post, the retention of the heat sink post operable to couple the heat sink to the at least one package.
A surgical instrument comprising: a force sensor apparatus (303, 403) comprising: a sensor capsule (310, 410), the sensor capsule (310, 410) being part of a Faraday cage, the sensor capsule (310, 410) being mounted in the force sensor apparatus (303, 403) as a cantilever beam and wherein either: a strain gauge is mounted within the sensor capsule to a flat surface of a bottom portion of the sensor capsule or; the sensor capsule is a cylindrical tube, and a first plurality of strain gauges and a second plurality of strain gauges are mounted on an interior surface of a cylindrical wall of the sensor capsule at a first and a second location respectively, along a longitudinal axis of the sensor capsule; wherein the strain gauge or the first plurality of strain gauges and the second plurality of strain gauges are enclosed in the Faraday cage. a strain gauge is mounted within the sensor capsule to a flat surface of a bottom portion of the sensor capsule or; the sensor capsule is a cylindrical tube, and a first plurality of strain gauges and a second plurality of strain gauges are mounted on an interior surface of a cylindrical wall of the sensor capsule at a first and a second location respectively, along a longitudinal axis of the sensor capsule;
An internal-combustion-engine fuel injection control device comprising: - a booster circuit configured to generate voltage for opening a fuel injection valve configured to directly supply fuel into a combustion chamber; and - a voltage detection unit configured to detect a boosted voltage in the booster circuit, - a boosting operation being started when voltage detected by the voltage detection unit reaches a threshold voltage for starting boosting, and the boosting operation being stopped when the detected voltage reaches a threshold voltage for stopping boosting, wherein the fuel injection control device includes a boosting operation control unit configured to start the boosting operation at predetermined timing even when the boosted voltage does not become lower than the threshold voltage for starting boosting and is lower than the threshold voltage for stopping boosting, wherein the boosting operation control unit includes a circuit configured to temporarily make the detected voltage lower than the threshold voltage for starting boosting, wherein the circuit includes a first resistor and a switching element that are connected to GND at a connection point of a second and third resistor configured to divide the boosted voltage, and wherein the circuit is configured to perform on/off control of the switching element and to temporarily make the detected voltage lower than the threshold voltage for starting boosting. - a booster circuit configured to generate voltage for opening a fuel injection valve configured to directly supply fuel into a combustion chamber; and - a voltage detection unit configured to detect a boosted voltage in the booster circuit, - a boosting operation being started when voltage detected by the voltage detection unit reaches a threshold voltage for starting boosting, and the boosting operation being stopped when the detected voltage reaches a threshold voltage for stopping boosting, wherein
An imaging apparatus comprising: an imaging unit having a plurality of operation modes including a first operation mode configured to generate a low-resolution image, a second operation mode configured to generate a first high-resolution image, and a third operation mode configured to generate a second high-resolution image, wherein the second high-resolution image differs from the first high-resolution image; an operation mode setting section that selects one of the plurality of operation modes; a detection processing section that performs moving object detection processing, wherein the detection processing section performs the moving object detection processing on a basis of the low-resolution image in the first operation mode, and the operation mode setting section selects the second operation mode when a moving object is detected to selectively operate one or a plurality of regions out of an imaging region in which the moving object has been detected to acquire the first high-resolution image; an authentication processing section that performs authentication processing on a basis of the first high-resolution image, wherein the operation mode setting section selects the third operation mode to operate all regions of the imaging region to acquire the second high-resolution image in a case where the authentication processing fails; and a communication unit that supplies the second high-resolution image to a server in the case where the authentication processing fails. an imaging unit having a plurality of operation modes including a first operation mode configured to generate a low-resolution image, a second operation mode configured to generate a first high-resolution image, and a third operation mode configured to generate a second high-resolution image, wherein the second high-resolution image differs from the first high-resolution image; an operation mode setting section that selects one of the plurality of operation modes; a detection processing section that performs moving object detection processing, wherein the detection processing section performs the moving object detection processing on a basis of the low-resolution image in the first operation mode, and the operation mode setting section selects the second operation mode when a moving object is detected to selectively operate one or a plurality of regions out of an imaging region in which the moving object has been detected to acquire the first high-resolution image; an authentication processing section that performs authentication processing on a basis of the first high-resolution image, wherein the operation mode setting section selects the third operation mode to operate all regions of the imaging region to acquire the second high-resolution image in a case where the authentication processing fails; and a communication unit that supplies the second high-resolution image to a server in the case where the authentication processing fails.
An image-based motion detection method, characterized by comprising: acquiring a reference image of a detecting object, determining several first detecting points in the reference image, extracting basic markings centered on the first detecting points in the reference image and classifying all the basic markings into several categories, wherein each category comprises at least one basic marking; acquiring a detecting image of the detecting object, wherein the detecting image and the reference image include the same image parameters and the image parameters include position, direction, size and resolution; matching the basic markings in the detecting image with the basic markings in the reference image, obtaining an offset vector of each basic marking between the reference image and the detecting image, and determining whether a norm of the offset vector of each basic marking is greater than a second threshold, if yes, determining that the basic marking has moved; and if no, determining that the basic marking has not moved; determining whether the number of the basic markings that have moved in each category is greater than a third threshold, if yes, determining that the category has moved; and if no, determining that the category has not moved; and determining a whole moving state and a part moving state of the detecting object according to a moving state of each category. acquiring a reference image of a detecting object, determining several first detecting points in the reference image, extracting basic markings centered on the first detecting points in the reference image and classifying all the basic markings into several categories, wherein each category comprises at least one basic marking; acquiring a detecting image of the detecting object, wherein the detecting image and the reference image include the same image parameters and the image parameters include position, direction, size and resolution; matching the basic markings in the detecting image with the basic markings in the reference image, obtaining an offset vector of each basic marking between the reference image and the detecting image, and determining whether a norm of the offset vector of each basic marking is greater than a second threshold, if yes, determining that the basic marking has moved; and if no, determining that the basic marking has not moved; determining whether the number of the basic markings that have moved in each category is greater than a third threshold, if yes, determining that the category has moved; and if no, determining that the category has not moved; and determining a whole moving state and a part moving state of the detecting object according to a moving state of each category.
A water-treatment separating membrane comprising: a polyamide active layer formed on a porous support; wherein forming the polyamide active layer is by dropping droplets of an organic solution including an acyl halide compound onto an aqueous amine solution layer formed on the porous support, characterised in that the polyamide active layer has center portions and critical areas corresponding to the center portions and peripheral portions of the droplets formed during planarization of the droplets, respectively, where the degree of interface polymerization with an amine compound at the center portions is higher than the degree of interface polymerization with the amine compound at the critical areas, the thickness of a polyamide active laver decreases from the center portions to the critical areas, wherein at least a curve pattern formed by connecting two or more arcs is formed in the critical areas of the polyamide active layer when the polyamide active layer is dyed using a 0,5% aqueous solution of Rhodamine B, wherein the arc is a portion of a closed circular curve and the distance between centers of the circular closed curves is from 1 mm to 50 mm. a polyamide active layer formed on a porous support; wherein forming the polyamide active layer is by dropping droplets of an organic solution including an acyl halide compound onto an aqueous amine solution layer formed on the porous support, characterised in that the polyamide active layer has center portions and critical areas corresponding to the center portions and peripheral portions of the droplets formed during planarization of the droplets, respectively, where the degree of interface polymerization with an amine compound at the center portions is higher than the degree of interface polymerization with the amine compound at the critical areas, the thickness of a polyamide active laver decreases from the center portions to the critical areas, wherein at least a curve pattern formed by connecting two or more arcs is formed in the critical areas of the polyamide active layer when the polyamide active layer is dyed using a 0,5% aqueous solution of Rhodamine B, wherein the arc is a portion of a closed circular curve and the distance between centers of the circular closed curves is from 1 mm to 50 mm.