mhurhangee/ep-ind-claims huggingface dataset:
A method for generating environment information in a wireless communication system, comprising: determining whether a misalignment between first information of a building and second information of the building occurs based on at least one of: an area of a nonoverlapping portion in a location of the building indicated by the first information and the location of the building indicated by the second information, or a ratio of an overlapping portion and the nonoverlapping portion, determining a difference value between the location of the building determined based on the first information and the location of the building determined based on the second information; correcting a location of an obstacle determined using the first information based on the difference value, if the misalignment occurs, wherein the first information is associated with an image of the building obtained based on a photographing, and wherein the second information is associated with a measurement of the building obtained based on at least one of reflected waves of light or electromagnetic signals. determining whether a misalignment between first information of a building and second information of the building occurs based on at least one of: an area of a nonoverlapping portion in a location of the building indicated by the first information and the location of the building indicated by the second information, or a ratio of an overlapping portion and the nonoverlapping portion, an area of a nonoverlapping portion in a location of the building indicated by the first information and the location of the building indicated by the second information, or a ratio of an overlapping portion and the nonoverlapping portion, determining a difference value between the location of the building determined based on the first information and the location of the building determined based on the second information; correcting a location of an obstacle determined using the first information based on the difference value, if the misalignment occurs, wherein the first information is associated with an image of the building obtained based on a photographing, and wherein the second information is associated with a measurement of the building obtained based on at least one of reflected waves of light or electromagnetic signals.
A chocolate product prepared by moulding a vegan chocolate mass, the vegan chocolate mass comprising at least one ingredient of cocoa beans selected from the group consisting of cocoa butter and cocoa mass, at least one sweetener and at least 1% by weight, based on the total weight of the chocolate mass, of hydrolysed oat flour.
An artificial knee ligament comprising an elongate body and two ends, wherein a loop (22, 24) is provided at at least one of the ends; and wherein: the loop (22, 24) is configured to couple to a fixing (26, 28) provided on either a femoral or tibial (4, 604) component of a prosthetic knee joint; and, a loop liner is provided within the loop (22, 24) characterized in that the loop liner is moulded onto the loop (22, 24) of the ligament; and, the loop liner is resilient and can be deformed elastically to allow the ligament loop (22, 24) to be pushed over an enlarged head of the fixing of the prosthetic (26, 28) component. the loop (22, 24) is configured to couple to a fixing (26, 28) provided on either a femoral or tibial (4, 604) component of a prosthetic knee joint; and, a loop liner is provided within the loop (22, 24) characterized in that the loop liner is moulded onto the loop (22, 24) of the ligament; and, the loop liner is resilient and can be deformed elastically to allow the ligament loop (22, 24) to be pushed over an enlarged head of the fixing of the prosthetic (26, 28) component. the loop liner is moulded onto the loop (22, 24) of the ligament; and, the loop liner is resilient and can be deformed elastically to allow the ligament loop (22, 24) to be pushed over an enlarged head of the fixing of the prosthetic (26, 28) component.
A two-agent hair dye comprising a first agent comprising an alkali agent, a second agent comprising hydrogen peroxide, and a non-aerosol foamer vessel to discharge in the form of foam a liquid mixture of the first agent and the second agent, wherein at least one of the first agent and the second agent comprises a surfactant, and wherein 90% by mass or more of the total amount of surfactant contained in the liquid mixture of the first and second agents is a non-ionic surfactant.
A propeller fan (1, 201, 301, 401), comprising: a boss; and a plurality of blades (5, 205, 305, 405) arranged on an outer periphery of the boss, wherein a protruding portion (17, 217, 317, 417) is formed on a suction surface of at least one of the blades (5, 205, 305, 405), wherein the protruding portion (17, 217, 317, 417) extends in a rotating direction at a position separated away from an outer peripheral edge of the blade (5, 205, 305, 405), wherein the protruding portion (17, 217, 317, 417) comprises a radially-inner skirt portion and a radially-outer skirt portion respectively on a radially inner side and a radially outer side with an apex of the protruding portion being a boundary, wherein the radially-inner skirt portion and the radially-outer skirt portion each comprise a portion reduced in height as the portion is separated away from the apex in a radial direction, and wherein an inclination of the radially-inner skirt portion of the protruding portion (17, 217, 317, 417) is gentler than an inclination of the radially-outer skirt portion of the protruding portion (17, 217, 317, 417), characterized in that a height of a portion closer to a trailing edge of the protruding portion reduces as it approaches from a forward side to a backward side in the rotating direction such that the protruding portion ends without reaching the trailing edge of the blade. a boss; and a plurality of blades (5, 205, 305, 405) arranged on an outer periphery of the boss, wherein a protruding portion (17, 217, 317, 417) is formed on a suction surface of at least one of the blades (5, 205, 305, 405), wherein the protruding portion (17, 217, 317, 417) extends in a rotating direction at a position separated away from an outer peripheral edge of the blade (5, 205, 305, 405), wherein the protruding portion (17, 217, 317, 417) comprises a radially-inner skirt portion and a radially-outer skirt portion respectively on a radially inner side and a radially outer side with an apex of the protruding portion being a boundary, wherein the radially-inner skirt portion and the radially-outer skirt portion each comprise a portion reduced in height as the portion is separated away from the apex in a radial direction, and wherein an inclination of the radially-inner skirt portion of the protruding portion (17, 217, 317, 417) is gentler than an inclination of the radially-outer skirt portion of the protruding portion (17, 217, 317, 417), characterized in that a height of a portion closer to a trailing edge of the protruding portion reduces as it approaches from a forward side to a backward side in the rotating direction such that the protruding portion ends without reaching the trailing edge of the blade.
Process box for processing a coated substrate, with the following features: - a gas-tightly sealable housing, which encloses a hollow space, - the housing has at least one first housing section (7, 9; 28) coupleable to a cooling device for its cooling - the housing comprises at least one second housing section (5, 6; 27, 29), which is implemented such that the substrate is heat treatable by incident electromagnetic thermal radiation, wherein the at least one second housing section (5, 6; 27, 29) is different from the at least one first housing section (7, 9, 28), - the housing is provided with at least one sealable gas passage opening into the hollow space for evacuating and introducing process gas into the hollow space, - the hollow space is divided by at least one separating wall into a process space for accommodating the substrate and an intermediate space, wherein the separating wall has one or a plurality of openings (23, 24, 37), characterized in that the separating wall is arranged between the substrate and the first housing section (7, 9; 28) coupleable to the cooling device, wherein the separating wall is implemented such that during the heat treatment a mass loss of a gaseous substance generated by the heat treatment of the coated substrate out of the process space is less than 50%, preferably less than 20%, more preferably less than 10%, wherein the separating wall is implemented such that an area ratio, formed from a total opening area of the one or a plurality of openings (23, 24, 37) divided by an inner surface of the process space, is in the range from 5 x 10 -5 to 5 x 10 -4. - a gas-tightly sealable housing, which encloses a hollow space, - the housing has at least one first housing section (7, 9; 28) coupleable to a cooling device for its cooling - the housing comprises at least one second housing section (5, 6; 27, 29), which is implemented such that the substrate is heat treatable by incident electromagnetic thermal radiation, wherein the at least one second housing section (5, 6; 27, 29) is different from the at least one first housing section (7, 9, 28), - the housing is provided with at least one sealable gas passage opening into the hollow space for evacuating and introducing process gas into the hollow space, - the hollow space is divided by at least one separating wall into a process space for accommodating the substrate and an intermediate space, wherein the separating wall has one or a plurality of openings (23, 24, 37), characterized in that the separating wall is arranged between the substrate and the first housing section (7, 9; 28) coupleable to the cooling device,
A rubber article comprising an elastomeric body, said body comprising a rubber composition comprising an ionomeric polymer additive; wherein either (i) said ionomeric polymer additive comprises butyl ionomer; or (ii) said rubber composition comprises an ethylene alpha olefin, polychloroprene rubber, and/or hydrogenated nitrile butadiene rubber, and wherein said polymer additive comprises polyethylene-methacrylic acid copolymer, wherein said polyethylene-methacrylic acid copolymer has at least a portion of its acid groups neutralized; and wherein the ionomeric polymer additive is present in the rubber compositions of (i) and (ii) at a concentration of from 4 phr to 50 phr. (i) said ionomeric polymer additive comprises butyl ionomer; or (ii) said rubber composition comprises an ethylene alpha olefin, polychloroprene rubber, and/or hydrogenated nitrile butadiene rubber, and wherein said polymer additive comprises polyethylene-methacrylic acid copolymer, wherein said polyethylene-methacrylic acid copolymer has at least a portion of its acid groups neutralized;
Use of imidacloprid (=1-[(6-chloro-3-pyridinyl)méthyl]-N-nitro-2-imidazolidinimine) for preparing compositions for nonsystemic control of parasitic insects from the group of fleas, lice and flies on humans and animals in mixture with the synthetic pyrethroids flumethrin or permethrin.
Method for operating a drop shears for a feed device of a glass machine, in which at least two scissor blades (4, 5) of the drop shears are movable toward and away from one another within a plane, wherein each scissor blade (4, 5) is moved on the respective other scissor blade (5, 4) toward and away from the same by means of a servo-linear drive unit (6, 7) assigned thereto, and wherein servo-linear drive unit (6, 7) is separately driven, characterized in that each servo-linear drive unit (6, 7) controls the scissor blade (4, 5) assigned to it by selecting the point or the line at which the two scissor blades (4, 5) meet one another within their cutting plane and by different speed or acceleration profiles for the two scissor blades (4, 5), such that a glass drop, separated from the glass strand, is supplied to downstream device parts of the feed device without any components for drop guiding.
A lock device comprising: - a housing which includes an opening; - a core which is rotatably mounted in the opening about a longitudinal axis of the core and which includes a key way for reception of a key; - a latching element (20; 120) which co-acts between the housing and the core and which is movable between a release position in which the core is rotatable relative to the housing, and a latching position in which rotation of the core relative to the housing is blocked; - an electronically controllable actuator (30;130) which is mounted in the core and which is movable by means of a motor between an opening-registering position in which movement of the latching element (20; 120) to the release position is permitted, and a latching position in which movement of the latching element to said release position is blocked; - wherein the motor (40; 140) is provided in a recess in the barrel surface of the core at a distance from the end surfaces of the core; characterized in that - the recess turns into a bore having a cross-section that essentially correspond to the cross-section of the actuator, which bore extends parallel to the longitudinal axis of the core and in which the actuator is provided; and in that - the latching element (20; 120) is provided in a slit provided between the bore and the barrel surface of the core. - a housing which includes an opening; - a core which is rotatably mounted in the opening about a longitudinal axis of the core and which includes a key way for reception of a key; - a latching element (20; 120) which co-acts between the housing and the core and which is movable between a release position in which the core is rotatable relative to the housing, and a latching position in which rotation of the core relative to the housing is blocked; - an electronically controllable actuator (30;130) which is mounted in the core and which is movable by means of a motor between an opening-registering position in which movement of the latching element (20; 120) to the release position is permitted, and a latching position in which movement of the latching element to said release position is blocked; - wherein the motor (40; 140) is provided in a recess in the barrel surface of the core at a distance from the end surfaces of the core; characterized in that - the recess turns into a bore having a cross-section that essentially correspond to the cross-section of the actuator, which bore extends parallel to the longitudinal axis of the core and in which the actuator is provided; and in that - the latching element (20; 120) is provided in a slit provided between the bore and the barrel surface of the core.
A method for the production of oxygen comprising (a) heating an oxygen-containing gas to form a hot oxygen-containing gas; (b) contacting the hot oxygen-containing gas comprising one or more contaminant compounds selected from the group consisting of CrO 2 2, Si 4 WO 2 2, CrO 3, and oxy-hydroxides of molybdenum with a reactive solid material in a guard bed (1701, 1703; 1801, 1803) and withdrawing therefrom a purified hot oxygen-containing gas in which the concentration of the contaminant compounds has been reduced; and (c) contacting the purified hot oxygen-containing gas with a first surface of a membrane comprising mixed metal oxide ceramic material, permeating oxygen through the membrane to a second surface of the membrane, and withdrawing therefrom a high purity oxygen product; wherein the hot oxygen-containing gas is obtained by the direct combustion of a gaseous fuel with air and comprises oxygen, nitrogen, carbon dioxide, and water; and wherein the reactive solid material comprises one or more compounds selected from the group consisting of magnesium oxide, calcium oxide, copper oxide, calcium carbonate, sodium carbonate, strontium carbonate, zinc oxide, strontium oxide, and alkaline-earth-containing perovskites. (a) heating an oxygen-containing gas to form a hot oxygen-containing gas; (b) contacting the hot oxygen-containing gas comprising one or more contaminant compounds selected from the group consisting of CrO 2 2, Si 4 WO 2 2, CrO 3, and oxy-hydroxides of molybdenum with a reactive solid material in a guard bed (1701, 1703; 1801, 1803) and withdrawing therefrom a purified hot oxygen-containing gas in which the concentration of the contaminant compounds has been reduced; and (c) contacting the purified hot oxygen-containing gas with a first surface of a membrane comprising mixed metal oxide ceramic material, permeating oxygen through the membrane to a second surface of the membrane, and withdrawing therefrom a high purity oxygen product;
A security print medium for forming security documents therefrom comprising: a transparent or translucent polymer substrate having first and second opposing surfaces (2a, 2b); one or more opacifying layers disposed on the first and/or second surfaces of the polymer substrate, the or each opacifying layer being arranged across substantially the whole area of the polymer substrate, optionally excluding any window region(s) (4a, 4b) thereof, and comprising a semi-opaque material; and a first anti-static layer disposed on the first or second surface of the polymer substrate and arranged across substantially the whole area of the polymer substrate, optionally excluding any window region(s) thereof, so as to overlap the one or more opacifying layers, the first anti-static layer comprising an anti-static material; wherein, across at least a first section of the area of the polymer substrate, the first anti-static layer is arranged according to a first pattern, P 1, defining a two-dimensional array of gaps in which the anti-static material of the first anti-static layer is absent, spaced by portions in which the anti-static material of the first anti-static layer is present, at least some of the portions being connected to one another so as to form a conductive network across the polymer substrate. a transparent or translucent polymer substrate having first and second opposing surfaces (2a, 2b); one or more opacifying layers disposed on the first and/or second surfaces of the polymer substrate, the or each opacifying layer being arranged across substantially the whole area of the polymer substrate, optionally excluding any window region(s) (4a, 4b) thereof, and comprising a semi-opaque material; and a first anti-static layer disposed on the first or second surface of the polymer substrate and arranged across substantially the whole area of the polymer substrate, optionally excluding any window region(s) thereof, so as to overlap the one or more opacifying layers, the first anti-static layer comprising an anti-static material; wherein, across at least a first section of the area of the polymer substrate, the first anti-static layer is arranged according to a first pattern, P 1, defining a two-dimensional array of gaps in which the anti-static material of the first anti-static layer is absent, spaced by portions in which the anti-static material of the first anti-static layer is present, at least some of the portions being connected to one another so as to form a conductive network across the polymer substrate.
An amorphous copolyester comprising: a) residues of 2,2,4,4-tetraalkyl-1,3-cyclobutanediol (TACD); b) residues of neopentyl glycol; c) alkali metal atoms or alkaline earth metal atoms; d) aluminum atoms; e) tin atoms; f) an intrinsic viscosity (It.V.) of at least 0.55 dL/g; and g) a glass transition temperature (Tg) of at least 90 °C; wherein said intrinsic viscosity is calculated from the inherent viscosity measured at 25 °C in 60/40 wt/wt phenol/tetrachloroethane at a concentration of 0.25 g/50 ml according to ASTM D4603, with the exception that the solution is prepared and measured at 25 °C instead of 30 °C; and said glass transition temperature is measured using differential scanning calorimetry at a scan rate of 20 °C/min. a) residues of 2,2,4,4-tetraalkyl-1,3-cyclobutanediol (TACD); b) residues of neopentyl glycol; c) alkali metal atoms or alkaline earth metal atoms; d) aluminum atoms; e) tin atoms; f) an intrinsic viscosity (It.V.) of at least 0.55 dL/g; and g) a glass transition temperature (Tg) of at least 90 °C;
An apparatus comprising: a panel, the panel having a core layer; a barrier layer coupled to a surface of the panel; an adhesive layer; and a decorative layer coupled to the barrier layer via the adhesive layer, wherein the barrier layer is disposed between the core layer and the decorative layer, wherein the barrier layer is composed of an impermeable and/or non-porous material and is configured to impede at least one of gas or vapor from escaping from the core layer to the decorative layer to deter the at least one of gas or vapor from exerting a pressure on the decorative layer to deter a portion of the decorative layer from separating from the panel, and wherein the barrier layer is a plastic film that is configured to impede the at least one of gas or vapor from traversing therethrough. a panel, the panel having a core layer; a barrier layer coupled to a surface of the panel; an adhesive layer; and a decorative layer coupled to the barrier layer via the adhesive layer, wherein the barrier layer is disposed between the core layer and the decorative layer, wherein the barrier layer is composed of an impermeable and/or non-porous material and is configured to impede at least one of gas or vapor from escaping from the core layer to the decorative layer to deter the at least one of gas or vapor from exerting a pressure on the decorative layer to deter a portion of the decorative layer from separating from the panel, and wherein the barrier layer is a plastic film that is configured to impede the at least one of gas or vapor from traversing therethrough.
Aerosol-generating device comprising: an air inlet; an air outlet; a heating element, wherein the heating element comprises a mesh heater in fluid communication with the air inlet; a first airflow channel extending from the heating element in a first direction along the longitudinal axis of the aerosol-generating device; a second airflow channel arranged downstream of the first airflow channel and extending from the first airflow channel to the air outlet in a second direction; and wherein the first direction and the second direction are different from each other; characterised in that a cross-sectional area of the second airflow channel increases in a downstream direction. an air inlet; an air outlet; a heating element, wherein the heating element comprises a mesh heater in fluid communication with the air inlet; a first airflow channel extending from the heating element in a first direction along the longitudinal axis of the aerosol-generating device; a second airflow channel arranged downstream of the first airflow channel and extending from the first airflow channel to the air outlet in a second direction; and wherein the first direction and the second direction are different from each other; characterised in that a cross-sectional area of the second airflow channel increases in a downstream direction.