mhurhangee/ep-ind-claims huggingface dataset:
Tyre comprising: - two beads intended to come into contact with a wheelrim, - a carcass reinforcement anchored in each bead to a bead reinforcing circumferential element, - each bead comprising at least one internal annular insert, characterized in that this internal annular insert consists of a rubber composition comprising: o an elastomer matrix based on at least one polyisoprene having a majority of cis-1,4- enchainments, o between 45 and 60 parts per hundred parts by weight of elastomer, phr, of a reinforcing filler comprising from 43 to 55 phr of a reinforcing inorganic filler with a BET specific surface of between 155 and 185 m 2 /g, the BET specific surface being determined according to Standard ISO 4652, o a coupling agent for bonding the reinforcing inorganic filler to the elastomer and o a vulcanization system. - two beads intended to come into contact with a wheelrim, - a carcass reinforcement anchored in each bead to a bead reinforcing circumferential element, - each bead comprising at least one internal annular insert, characterized in that this internal annular insert consists of a rubber composition comprising: o an elastomer matrix based on at least one polyisoprene having a majority of cis-1,4- enchainments, o between 45 and 60 parts per hundred parts by weight of elastomer, phr, of a reinforcing filler comprising from 43 to 55 phr of a reinforcing inorganic filler with a BET specific surface of between 155 and 185 m 2 /g, the BET specific surface being determined according to Standard ISO 4652, o a coupling agent for bonding the reinforcing inorganic filler to the elastomer and o a vulcanization system. o an elastomer matrix based on at least one polyisoprene having a majority of cis-1,4- enchainments, o between 45 and 60 parts per hundred parts by weight of elastomer, phr, of a reinforcing filler comprising from 43 to 55 phr of a reinforcing inorganic filler with a BET specific surface of between 155 and 185 m 2 /g, the BET specific surface being determined according to Standard ISO 4652, o a coupling agent for bonding the reinforcing inorganic filler to the elastomer and o a vulcanization system.
A premix for producing an absorption medium for removing acid gases from fluid streams comprising at least one alkanolamine, piperazine and water, in which the premix has a total amine content of more than 65% by weight, wherein the molar ratio of water to piperazine in the premix is 1.6 to 4.8 and the premix has a solidification point of below 35°C.
A heat recovery system comprising: a heat recovery steam generation (HRSG) chamber arranged for fluid communication with an exhaust stream from a turbine; a plurality of tubes (46, 48) disposed in the HRSG chamber, the plurality of tubes comprising front tubes, wherein said front tubes are the tubes that are disposed furthest upstream relative to a direction of the exhaust stream; and a grate-like structural array disposed in the HSRG chamber upstream of the tubes (46, 48) wherein the grate-like structural array is arranged to diffuse the exhaust stream into multiple smaller jets before the exhaust stream passes through the plurality of tubes (46, 48); and wherein the grate-like structural array is arranged to provide resistance to redirect part of the exhaust stream to sections of the front row tubes that would otherwise have little or no gas flow, so as to improve a distribution of gas flow relative to a system without grate-like structural array, characterized in that the grate-like structural array is positioned a distance away from the tubes and employs an attachment structure that allows the distance to be adjusted. a heat recovery steam generation (HRSG) chamber arranged for fluid communication with an exhaust stream from a turbine; a plurality of tubes (46, 48) disposed in the HRSG chamber, the plurality of tubes comprising front tubes, wherein said front tubes are the tubes that are disposed furthest upstream relative to a direction of the exhaust stream; and a grate-like structural array disposed in the HSRG chamber upstream of the tubes (46, 48) wherein the grate-like structural array is arranged to diffuse the exhaust stream into multiple smaller jets before the exhaust stream passes through the plurality of tubes (46, 48); and wherein the grate-like structural array is arranged to provide resistance to redirect part of the exhaust stream to sections of the front row tubes that would otherwise have little or no gas flow, so as to improve a distribution of gas flow relative to a system without grate-like structural array, characterized in that the grate-like structural array is positioned a distance away from the tubes and employs an attachment structure that allows the distance to be adjusted.
Aerodynamic air bearing with a bearing housing for mounting a shaft, at least one corrugated foil fixed in the bearing housing and a cover foil lying between the at least one corrugated foil and the shaft, wherein a surface of the cover foil that is facing the shaft bears a coating and forms the running surface for the shaft, wherein a structuring is formed by a partial coating of the cover foil, wherein the structuring has a depth, which is equal to the thickness of the coating, wherein the coating of the cover foil is formed from hard material, wherein the coating is a carbon-based, nitridic, carbidic, carbononitridic or oxidic hard material layer or a hard material layer formed from any desired combination of two or more of the hard material layers mentioned, and wherein the coating is formed by means of a PVD/PACVD process.
A crane, in particular a tower slewing crane, having at least one lattice boom that comprises a plurality of longitudinal beams (8, 9) that are connected to one another by transverse and/or diagonal struts, wherein at least one of the longitudinal beams has a beam cross-section varying over the beam length and/or has different beam cross-sections in different lattice fields (11, 12, 13), with the at least one longitudinal beam having transitions free of weld seams between beam sections of different beam cross-sections, characterized in that the at least one longitudinal beam has an at least simply edged and/or bent longitudinal axis, with a transition free of weld seams being provided between the mutually edged or bent beam sections
An elongated nondestructive sensor inspection probe having a central axis running along the elongated dimension of the probe, for nondestructively examining the walls of tubing comprising: a nose section having at least three sets of rollers substantially equidistantly spaced around a circumference of the nose section, the sets of rollers being biased in a radially outward direction to contact an interior wall of the tubing, wherein the nose section includes a plunger reciprocally moveable in the axial direction, a plurality of cams, with at least one of the cams coupled between a corresponding one of the sets of rollers and the plunger, with each cam respectively rotatable about a corresponding pin and means for biasing the plunger in one direction that rotates each cam in a direction to bias the rollers radially outward with substantially equal force; a nondestructive sensor section suspended at one axial end from the nose section and coupled to the nose section with a pivot coupling that enables the nondestructive sensor section a limited degree of rotation relative to the nose section; and a tail section coupled to the nondestructive sensor section at another axial end with a pivot coupling that enables the nondestructive sensor section a limited degree of rotation relative to the tail section, the tail section having a centering device biased radially outward from a central body of the tail section, the centering device having a plurality of contact points with the interior wall of the tubing with each of the contact points being biased outward around a circumference of the tail section, with substantially equal pressure. a nose section having at least three sets of rollers substantially equidistantly spaced around a circumference of the nose section, the sets of rollers being biased in a radially outward direction to contact an interior wall of the tubing, wherein the nose section includes a plunger reciprocally moveable in the axial direction, a plurality of cams, with at least one of the cams coupled between a corresponding one of the sets of rollers and the plunger, with each cam respectively rotatable about a corresponding pin and means for biasing the plunger in one direction that rotates each cam in a direction to bias the rollers radially outward with substantially equal force; a nondestructive sensor section suspended at one axial end from the nose section and coupled to the nose section with a pivot coupling that enables the nondestructive sensor section a limited degree of rotation relative to the nose section; and a tail section coupled to the nondestructive sensor section at another axial end with a pivot coupling that enables the nondestructive sensor section a limited degree of rotation relative to the tail section, the tail section having a centering device biased radially outward from a central body of the tail section, the centering device having a plurality of contact points with the interior wall of the tubing with each of the contact points being biased outward around a circumference of the tail section, with substantially equal pressure.
A printing device capable of printing on a card-shaped printing medium, comprising: a horizontal linear transport path to transport the printing medium; a card rotating section provided at one end of the transport path to change a transport direction of the printing medium; a supply stacker provided above the transport path and the card rotating section, configured to store the printing media prior to processing to be placed parallel in a laminate manner, i.e. so that the thickness direction is aligned along the approximately horizontal direction; a printing section provided below the transport path to perform printing processing on the printing medium from below the transport path; and a discharge stacker provided at the other end of the transport path to store printing media subjected to the printing processing to overlap in a laminate manner, characterized by further comprising an openable/closable top cover to cover the transport path as part of a device housing, wherein the top cover is arranged in the position for covering that transport path and a part of the card rotating section, the supply stacker is provided above the top cover, and is configured to be detachable and attachable to the top cover, and the top cover is openable and closable when the supply stacker is not attached thereto. a horizontal linear transport path to transport the printing medium; a card rotating section provided at one end of the transport path to change a transport direction of the printing medium; a supply stacker provided above the transport path and the card rotating section, configured to store the printing media prior to processing to be placed parallel in a laminate manner, i.e. so that the thickness direction is aligned along the approximately horizontal direction; a printing section provided below the transport path to perform printing processing on the printing medium from below the transport path; and a discharge stacker provided at the other end of the transport path to store printing media subjected to the printing processing to overlap in a laminate manner, characterized by further comprising an openable/closable top cover to cover the transport path as part of a device housing, wherein the top cover is arranged in the position for covering that transport path and a part of the card rotating section, the supply stacker is provided above the top cover, and is configured to be detachable and attachable to the top cover, and the top cover is openable and closable when the supply stacker is not attached thereto.
A metrology system comprising: a controller, the controller including one or more processors configured to execute program instructions configured to cause the one or more processors to: generate optical tool error adjustments for a hybrid overlay target including optically-resolvable features and device-scale features by determining a difference between an optical overlay measurement based on the optically-resolvable features and a device-scale overlay measurement based on the device-scale features; generate target-to-device adjustments for the hybrid overlay target based on positions of features within a device area; determine device-relevant overlay measurements for one or more locations in the device area based on at least one of the optical overlay measurement, the optical tool error adjustments, and the target-to-device adjustments; and provide overlay correctables for the device area to a lithography tool to modify exposure conditions for at least one subsequent exposure based on the device-relevant overlay measurements. generate optical tool error adjustments for a hybrid overlay target including optically-resolvable features and device-scale features by determining a difference between an optical overlay measurement based on the optically-resolvable features and a device-scale overlay measurement based on the device-scale features; generate target-to-device adjustments for the hybrid overlay target based on positions of features within a device area; determine device-relevant overlay measurements for one or more locations in the device area based on at least one of the optical overlay measurement, the optical tool error adjustments, and the target-to-device adjustments; and provide overlay correctables for the device area to a lithography tool to modify exposure conditions for at least one subsequent exposure based on the device-relevant overlay measurements.
A laminated body comprising a thermoplastic resin sheet layer, the thermoplastic resin being polyethylene terephthalate resin, polyethylene naphthalate resin or polyphenylene sulfide resin and having a heat of crystallization of 10 J/g or more as measured with a differential scanning calorimeter and a wet-laid nonwoven layer comprising polyphenylene sulfide fibers and having a heat of crystallization of 10 J/g or more as measured with a differential scanning calorimeter, the wet-laid nonwoven layer being stacked on at least one surface of the thermoplastic resin sheet layer without an adhesive therebetween.
A use of a heat source device utilizing heat of a reaction of hydrogen and oxygen in and catalyzed by silver zeolite, the heat source device comprising an accommodation container for accommodating the silver zeolite while ensuring air permeability, wherein the accommodation container is configured to be ventilated with a mixed gas containing hydrogen, steam, and air for utilizing said heat, wherein a temperature of the silver zeolite accommodated in the accommodation container becomes 400°C or higher after one minute has elapsed from the ventilation of the accommodation container with the mixed gas.
A portion for use in textile treatment, comprising at least two chambers having walls made of water-soluble material, characterized in that a) at least one of said chambers contains a first liquid composition, said first composition containing surfactant in an amount of from 40 to 75 wt.%, based on the weight of the first composition, and b) at least one other of said chambers contains a second composition, said second composition being a solid composition for use in textile treatment, each containing a total amount of - 30 to 70 wt.%, based on the total weight of the solid composition, of at least one peroxide compound, - 10 to 20 wt.%, based on the total weight of the solid composition, of at least one organic bleach activator, comprising 10 to 20 wt.%, based on the total weight of the solid composition, of organic bleach activator selected from at least one compound of the multiply N-acylated organic amines, - 5 to 50 wt.%, based on the total weight of the solid composition, of bicarbonate, calculated as sodium bicarbonate, - 0 to 5 wt.%, based on the total weight of the solid composition, of surfactant, the total amount of organic compound in the solid composition being 20 to 35 wt.%. a) at least one of said chambers contains a first liquid composition, said first composition containing surfactant in an amount of from 40 to 75 wt.%, based on the weight of the first composition, and b) at least one other of said chambers contains a second composition, said second composition being a solid composition for use in textile treatment, each containing a total amount of - 30 to 70 wt.%, based on the total weight of the solid composition, of at least one peroxide compound, - 10 to 20 wt.%, based on the total weight of the solid composition, of at least one organic bleach activator, comprising 10 to 20 wt.%, based on the total weight of the solid composition, of organic bleach activator selected from at least one compound of the multiply N-acylated organic amines, - 5 to 50 wt.%, based on the total weight of the solid composition, of bicarbonate, calculated as sodium bicarbonate, - 0 to 5 wt.%, based on the total weight of the solid composition, of surfactant, the total amount of organic compound in the solid composition being 20 to 35 wt.%. - 30 to 70 wt.%, based on the total weight of the solid composition, of at least one peroxide compound, - 10 to 20 wt.%, based on the total weight of the solid composition, of at least one organic bleach activator, comprising 10 to 20 wt.%, based on the total weight of the solid composition, of organic bleach activator selected from at least one compound of the multiply N-acylated organic amines, - 5 to 50 wt.%, based on the total weight of the solid composition, of bicarbonate, calculated as sodium bicarbonate, - 0 to 5 wt.%, based on the total weight of the solid composition, of surfactant,
A method for producing a neutral, shelf-stable and enteral non-gel liquid composition having an energy content ranging from 110 kcal/100 g to 200 kcal/100 g and a protein content ranging from 8 g/100 g to 13 g/100 g or 90 g/L to 143 g/L, wherein the total protein content is composed of 60-100% unhydrolysed intact whey protein, said method comprises: (a) admixing at least one whey protein source with at least one carbohydrate source, lipid source and emulsifier in water at a temperature range of between 30°C -60°C to form a first mixture; (b) adding to said first mixture at least one mineral, vitamin, trace element, and thickening agent and at least one additional ingredient to form a second mixture; (c) adjusting the pH of the second mixture to between 6.5 and 7.5 by adding a food grade base or acid to obtain a neutral liquid composition that does not gel; (d) preheating said neutral, non-gel liquid composition at a temperature of between 60-80°C; (e) exposing said neutral, non-gel liquid composition under ultra-high temperature treatment using direct steam injection at a temperature range of between 140-145°C for 7 seconds holding time to obtain a neutral, shelf-stable non-gel liquid composition; (f) homogenizing said neutral, shelf-stable non-gel liquid composition at a temperature range of 60°C-80°C at a total pressure of 200 bars; (g) cooling said neutral, shelf-stable non-gel liquid composition at a temperature range of 20°C -35°C; and (h) transferring said neutral, shelf-stable non-gel liquid composition into a sterilized container for enteral use. (a) admixing at least one whey protein source with at least one carbohydrate source, lipid source and emulsifier in water at a temperature range of between 30°C -60°C to form a first mixture; (b) adding to said first mixture at least one mineral, vitamin, trace element, and thickening agent and at least one additional ingredient to form a second mixture; (c) adjusting the pH of the second mixture to between 6.5 and 7.5 by adding a food grade base or acid to obtain a neutral liquid composition that does not gel; (d) preheating said neutral, non-gel liquid composition at a temperature of between 60-80°C; (e) exposing said neutral, non-gel liquid composition under ultra-high temperature treatment using direct steam injection at a temperature range of between 140-145°C for 7 seconds holding time to obtain a neutral, shelf-stable non-gel liquid composition; (f) homogenizing said neutral, shelf-stable non-gel liquid composition at a temperature range of 60°C-80°C at a total pressure of 200 bars; (g) cooling said neutral, shelf-stable non-gel liquid composition at a temperature range of 20°C -35°C; and (h) transferring said neutral, shelf-stable non-gel liquid composition into a sterilized container for enteral use.
A method comprising: detecting, based on sensor data from a sensor on a mobile device, an environmental brightness measurement, wherein the mobile device comprises a display screen configured to adjust display brightness based on environmental brightness; determining, based on image data from a camera on the mobile device, an extent to which the detected environmental brightness measurement is caused by reflected light from the display screen; and setting a rate of exposure change for the camera based on the determined extent to which the detected environmental brightness measurement is caused by reflected light from the display screen. detecting, based on sensor data from a sensor on a mobile device, an environmental brightness measurement, wherein the mobile device comprises a display screen configured to adjust display brightness based on environmental brightness; determining, based on image data from a camera on the mobile device, an extent to which the detected environmental brightness measurement is caused by reflected light from the display screen; and setting a rate of exposure change for the camera based on the determined extent to which the detected environmental brightness measurement is caused by reflected light from the display screen.
An electric resistance welded steel pipe excellent in deformability and fatigue properties after quenching characterized by containing, by mass%, C: 0.15 to 0.55%, Si: 0.01 to 0.30%, Mn: 0.5 to 1.5%, Ca: 0.0010 to 0.0030%, S: 0.0005 to 0.0050%, and O: 0.0005 to 0.0050%, restricting P: 0.020% or less, N: 0.0050% or less, and Al: 0.050% or less, and optionally Mo: 0.25% or less, Ti: 0.030% or less, B: 0.0050% or less, Ni: 1.00% or less, Cu: 1.00% or less, Cr: 1.50% or less, Mo: less than 0.05%, Nb: 0.050% or less, and V: 0.040% or less, and having a balance of Fe and impurities, having contents of Ca, O, and S satisfying 0.10 ≤ Ca 1 − 124 O / 1.25 S ≤ 2.50, having Ca-based inclusions present at a base material and electric resistance weld zone with an average particle size of 1.0 to 10 μm and density of 3 to 300/mm 2, and having a difference ΔHv of a maximum hardness of the electric resistance weld zone and average hardness of a base material part of 100 ≤ ΔHv ≤ 500. C: 0.15 to 0.55%, Si: 0.01 to 0.30%, Mn: 0.5 to 1.5%, Ca: 0.0010 to 0.0030%, S: 0.0005 to 0.0050%, and O: 0.0005 to 0.0050%, restricting P: 0.020% or less, N: 0.0050% or less, and Al: 0.050% or less, and optionally Mo: 0.25% or less, Ti: 0.030% or less, B: 0.0050% or less, Ni: 1.00% or less, Cu: 1.00% or less, Cr: 1.50% or less, Mo: less than 0.05%, Nb: 0.050% or less, and V: 0.040% or less, and having a balance of Fe and impurities, having contents of Ca, O, and S satisfying 0.10 ≤ Ca 1 − 124 O / 1.25 S ≤ 2.50, having Ca-based inclusions present at a base material and electric resistance weld zone with an average particle size of 1.0 to 10 μm and density of 3 to 300/mm 2, and having a difference ΔHv of a maximum hardness of the electric resistance weld zone and average hardness of a base material part of 100 ≤ ΔHv ≤ 500.