mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine comprising: a fan rotor, a first compressor rotor and a second compressor rotor, said second compressor rotor compressing air to a higher pressure than said first compressor rotor; a first turbine rotor, said first turbine rotor driving said second compressor rotor, and a second turbine rotor, said second turbine rotor driving said first compressor rotor; and a fan drive turbine positioned downstream of said second turbine rotor, said fan drive turbine driving said fan rotor through a gear reduction; and said first compressor rotor and said second turbine rotor rotating as an intermediate speed spool, and said second compressor rotor and said first turbine rotor rotating together as a high speed spool, characterised in that: said high speed spool rotates in the same direction as said intermediate speed spool, and a highly cambered vane is positioned between said first turbine rotor and said second turbine rotor; and said fan drive turbine rotates in an opposed direction to said intermediate speed spool, and an air turning vane is positioned between said second turbine rotor and said fan drive turbine. a fan rotor, a first compressor rotor and a second compressor rotor, said second compressor rotor compressing air to a higher pressure than said first compressor rotor; a first turbine rotor, said first turbine rotor driving said second compressor rotor, and a second turbine rotor, said second turbine rotor driving said first compressor rotor; and a fan drive turbine positioned downstream of said second turbine rotor, said fan drive turbine driving said fan rotor through a gear reduction; and said first compressor rotor and said second turbine rotor rotating as an intermediate speed spool, and said second compressor rotor and said first turbine rotor rotating together as a high speed spool, characterised in that: said high speed spool rotates in the same direction as said intermediate speed spool, and a highly cambered vane is positioned between said first turbine rotor and said second turbine rotor; and said fan drive turbine rotates in an opposed direction to said intermediate speed spool, and an air turning vane is positioned between said second turbine rotor and said fan drive turbine. said high speed spool rotates in the same direction as said intermediate speed spool, and a highly cambered vane is positioned between said first turbine rotor and said second turbine rotor; and said fan drive turbine rotates in an opposed direction to said intermediate speed spool, and an air turning vane is positioned between said second turbine rotor and said fan drive turbine.
A method for the optical analysis of a sample liquid contained in a sample container (24a-h), wherein the sample liquid contains at least one substance in an at least partly dissolved form, comprising the steps of: providing at least one sample container (24a-h) filled with a sample liquid and wherein an identification pattern is arranged on the sample container; illuminating the at least one sample container (24a-h) and the identification pattern by means of a light source (18a-h); and capturing an image of an identification pattern (32a-h) arranged on the at least one sample container (24a-h) by means of an image recording device which generates image data, wherein the optical path is selected in such a way that the sample liquid contained in the at least one sample container (24a-h) is at least partly situated between the image recording plane of the image recording device and the respective identification pattern (32a-h)of the sample container (24a-h), wherein, after the image of the identification pattern (32a-h) has been recorded, the generated image data are evaluated and it is established whether the identification pattern (32a-h) can be identified (S05, S06) through the sample liquid, and wherein, if the identification pattern (32a-h) of the at least one sample container (24a-h) is identified, it is established how large the error correction is and derived therefrom whether the substance is partly or completely dissolved in the sample liquid. providing at least one sample container (24a-h) filled with a sample liquid and wherein an identification pattern is arranged on the sample container; illuminating the at least one sample container (24a-h) and the identification pattern by means of a light source (18a-h); and capturing an image of an identification pattern (32a-h) arranged on the at least one sample container (24a-h) by means of an image recording device which generates image data, wherein the optical path is selected in such a way that the sample liquid contained in the at least one sample container (24a-h) is at least partly situated between the image recording plane of the image recording device and the respective identification pattern (32a-h)of the sample container (24a-h), wherein, after the image of the identification pattern (32a-h) has been recorded, the generated image data are evaluated and it is established whether the identification pattern (32a-h) can be identified (S05, S06) through the sample liquid, and wherein, if the identification pattern (32a-h) of the at least one sample container (24a-h) is identified, it is established how large the error correction is and derived therefrom whether the substance is partly or completely dissolved in the sample liquid.
An elevated roadway for autonomous vehicles, comprising: a pylon (102, 500, 900) extending vertically from a ground anchor and comprising: a metal tube defining a central cavity; and a concrete column within the central cavity; a bracket (104, 512) coupled to the pylon (102, 500, 900) and comprising: a mounting plate secured to the pylon (102, 500, 900); and a cantilevered road support member extending from the mounting plate; and a cantilevered road section (106, 502, 902) coupled to the pylon (102, 500, 900) via the cantilevered road support member such that the cantilevered road section is only supported along one side, wherein the cantilevered road section comprises: a joist structure (202, 406, 416) structurally coupled to the cantilevered road support member; a road member (204, 401) above the joist structure (202, 406, 416) and supported by the joist structure (202, 406, 416); and first and second side barriers (206, 208) along first and second sides of the road member (204, 401), respectively. a pylon (102, 500, 900) extending vertically from a ground anchor and comprising: a metal tube defining a central cavity; and a concrete column within the central cavity; a metal tube defining a central cavity; and a concrete column within the central cavity; a bracket (104, 512) coupled to the pylon (102, 500, 900) and comprising: a mounting plate secured to the pylon (102, 500, 900); and a cantilevered road support member extending from the mounting plate; and a mounting plate secured to the pylon (102, 500, 900); and a cantilevered road support member extending from the mounting plate; and a cantilevered road section (106, 502, 902) coupled to the pylon (102, 500, 900) via the cantilevered road support member such that the cantilevered road section is only supported along one side, wherein the cantilevered road section comprises: a joist structure (202, 406, 416) structurally coupled to the cantilevered road support member; a road member (204, 401) above the joist structure (202, 406, 416) and supported by the joist structure (202, 406, 416); and first and second side barriers (206, 208) along first and second sides of the road member (204, 401), respectively. a joist structure (202, 406, 416) structurally coupled to the cantilevered road support member; a road member (204, 401) above the joist structure (202, 406, 416) and supported by the joist structure (202, 406, 416); and first and second side barriers (206, 208) along first and second sides of the road member (204, 401), respectively.
A formulation comprising at least one compound selected from methylglycine diacetate (MGDA) and glutamic acid diacetate (GLDA), and salts thereof, at least one graft copolymer composed of (a) at least one graft base selected from monosaccharides, disaccharides, oligosaccharides and polysaccharides, and side chains obtainable by grafting on of (b) at least one ethylenically unsaturated mono- or dicarboxylic acid and (c) at least one ethylenically unsaturated N-containing monomer with a permanent cationic charge, and at least one inorganic peroxide compound selected from sodium peroxodisulfate, sodium perborate and sodium percarbonate. at least one compound selected from methylglycine diacetate (MGDA) and glutamic acid diacetate (GLDA), and salts thereof, at least one graft copolymer composed of (a) at least one graft base selected from monosaccharides, disaccharides, oligosaccharides and polysaccharides, and side chains obtainable by grafting on of (b) at least one ethylenically unsaturated mono- or dicarboxylic acid and (c) at least one ethylenically unsaturated N-containing monomer with a permanent cationic charge, and (a) at least one graft base selected from monosaccharides, disaccharides, oligosaccharides and polysaccharides, and side chains obtainable by grafting on of (b) at least one ethylenically unsaturated mono- or dicarboxylic acid and (c) at least one ethylenically unsaturated N-containing monomer with a permanent cationic charge, and at least one inorganic peroxide compound selected from sodium peroxodisulfate, sodium perborate and sodium percarbonate.
A method for receiving data in a user equipment, UE, in a mobile content network, the method comprising: transmitting a request message, which requests a content, to a first digital unit, DU; receiving an Internet Protocol, IP_ADD message, including information of a second DU which caches the requested content, from the first DU; updating a stream control transmission protocol, SCTP, connection based on the information of the second DU included in the IP_ADD message; and receiving data from the second DU using the updated SCTP connection. transmitting a request message, which requests a content, to a first digital unit, DU; receiving an Internet Protocol, IP_ADD message, including information of a second DU which caches the requested content, from the first DU; updating a stream control transmission protocol, SCTP, connection based on the information of the second DU included in the IP_ADD message; and receiving data from the second DU using the updated SCTP connection.
A skin protection device comprising: a flexible cover having a first end and a second end with two sides extending therebetween, wherein said sides comprise seal sections (12,13), wherein each of said seal section is capable of mutual engagement with itself to form a seal, wherein each seal section includes a surface (2,3) that is longitudinally serrated or undulating, wherein serration or undulation is provided on both side surfaces of the seal section, a first female serrated or undulating side and a second male serrated or undulating side which when placed together form a mating pair and the seal, wherein the skin protection device is configured such that when it is wrapped around a part of a user's body, one of the first female serrated or undulating side and the second male serrated or undulating side of each seal section contacts the user's skin in order to form a seal with the user's skin, and wherein the skin protection device can overlap itself by any length whilst still being capable of forming a seal.
A plasma reactor for removal of contaminants, for being positioned between a process chamber and a vacuum pump, and arranged to generate low-pressure plasma to remove contaminants emitted from the process chamber, the plasma reactor (300, 310, 320, 330, 340, 350, 360) comprising: an AC power supply unit (60, 61, 62, 63, 64); at least one dielectric body arranged to form a plasma generation space therein; the dielectric body being disposed at the center of the plasma reactor; a ground electrode comprising a first ground electrode (41, 71, 81) which is fixed to the front end of the dielectric body and is arranged to have the same diameter as the dielectric body; and a second ground electrode (42, 72, 82) connected to the rear end of the dielectric body towards the vacuum pump; the at least one driving electrode fixed to an outer peripheral surface of the dielectric body, and connected to the AC power supply unit (60, 61, 62, 63, 64) to receive an AC driving voltage, the dielectric body and the driving electrode being formed in the shape of a cylinder or ring having a constant diameter, wherein the ground electrode is arranged to have a non-uniform diameter along the lengthwise direction of the plasma reactor, and wherein the first ground electrode (41, 71, 81) is a connecting tube arranged to connect the process chamber and the dielectric body, and the second ground electrode (42, 72, 82) is a connecting tube arranged to connect the dielectric body and the vacuum pump, and wherein the second ground electrode, comprises: a variable diameter portion, which is fixed to the rear end of the dielectric body, and which is arranged such that its diameter gradually decreases along the flow direction of contaminants, and a uniform diameter portion connected to the variable diameter portion and arranged to have a smaller diameter than the dielectric body.
A device, comprising: a first body and a second body, the bodies being configured to be displaceable when using the device, wherein at least one of: the device being foldable and further comprising a hinge so that the first and the second bodies are attached by the hinge, and the first and the second bodies being detachable; and a first cover of the first body and a second cover of the second body; wherein the first body comprises: a first conductive portion of the first cover of the device configured as an antenna of the device; a second conductive portion of the first cover configured as a ground of the antenna; and a dielectric slot in the first cover, which is configured between the first and the second portions to disconnect the first and second conductive portions of the first body; wherein the second body comprises: a first conductive portion of the second cover of the device; a second conductive portion of the second cover; and a dielectric slot in the second cover, which is configured between the first and the second portions to disconnect the first and second conductive portions of the second body; and wherein a shape of the first and the second conductive portion of the first body and the dielectric slot of the first body is aligned with a shape of the first and the second conductive portion of the second body and the dielectric slot of the second body, when the bodies are on one another, wherein the device being at least one of: folded, and the first and second bodies being attached. a first body and a second body, the bodies being configured to be displaceable when using the device, wherein at least one of: the device being foldable and further comprising a hinge so that the first and the second bodies are attached by the hinge, and the first and the second bodies being detachable; and a first cover of the first body and a second cover of the second body; wherein the first body comprises: a first conductive portion of the first cover of the device configured as an antenna of the device; a second conductive portion of the first cover configured as a ground of the antenna; and a dielectric slot in the first cover, which is configured between the first and the second portions to disconnect the first and second conductive portions of the first body; wherein the second body comprises: a first conductive portion of the second cover of the device; a second conductive portion of the second cover; and a dielectric slot in the second cover, which is configured between the first and the second portions to disconnect the first and second conductive portions of the second body; and wherein a shape of the first and the second conductive portion of the first body and the dielectric slot of the first body is aligned with a shape of the first and the second conductive portion of the second body and the dielectric slot of the second body, when the bodies are on one another, wherein the device being at least one of: folded, and the first and second bodies being attached.
A textile fabric consolidated with a binder system comprising: a) 0.1 to up to 30% by weight of polymers based on polyvinyl alcohol, and b) at least 70% by weight of a mixture comprising: (i) at least one carbohydrate; and (ii) α-carbon nucleophile crosslinking agent that is an organic compound comprising: - a first carbon moiety comprising an electron withdrawing group; and - an α-carbon atom directly bonded to the first carbon moiety, the α-carbon atom has at least one acidic hydrogen atom and the α-carbon atom forms a nucleophile that reacts with a carbonyl carbon on the carbohydrate during polymerization of the binder composition to form the cured binder, wherein the mixture has a minimum of 50% by weight of reducing sugars, c) 0 to 10% by weight of crosslinker, said crosslinker being different from the crosslinking agent (ii) above, d) 0 to 10% by weight of fillers, said fillers being different from the polymers based on polyvinyl alcohol a) above and from the materials contained in the mixture b) above, e) 0 to 10% by weight of additives, wherein the specifications regarding the proportions by weight are based on the dry mass of the binder system, i.e., without water, and the sum of the components a) to e) is 100% by weight. a) 0.1 to up to 30% by weight of polymers based on polyvinyl alcohol, and b) at least 70% by weight of a mixture comprising: (i) at least one carbohydrate; and (ii) α-carbon nucleophile crosslinking agent that is an organic compound comprising: - a first carbon moiety comprising an electron withdrawing group; and - an α-carbon atom directly bonded to the first carbon moiety, the α-carbon atom has at least one acidic hydrogen atom and the α-carbon atom forms a nucleophile that reacts with a carbonyl carbon on the carbohydrate during polymerization of the binder composition to form the cured binder, wherein the mixture has a minimum of 50% by weight of reducing sugars, (i) at least one carbohydrate; and (ii) α-carbon nucleophile crosslinking agent that is an organic compound comprising: - a first carbon moiety comprising an electron withdrawing group; and - an α-carbon atom directly bonded to the first carbon moiety, the α-carbon atom has at least one acidic hydrogen atom and the α-carbon atom forms a nucleophile that reacts with a carbonyl carbon on the carbohydrate during polymerization of the binder composition to form the cured binder, - a first carbon moiety comprising an electron withdrawing group; and - an α-carbon atom directly bonded to the first carbon moiety, the α-carbon atom has at least one acidic hydrogen atom and the α-carbon atom forms a nucleophile that reacts with a carbonyl carbon on the carbohydrate during polymerization of the binder composition to form the cured binder, c) 0 to 10% by weight of crosslinker, said crosslinker being different from the crosslinking agent (ii) above, d) 0 to 10% by weight of fillers, said fillers being different from the polymers based on polyvinyl alcohol a) above and from the materials contained in the mixture b) above, e) 0 to 10% by weight of additives,
Method of streaming HEVC-tiled video data to a client device comprising: providing said client device with a spatial manifest file comprising one or more spatial segments identifiers (414, 624) for locating one or more delivery nodes configured for delivering video data associated with a spatial segment (108, 302, 410, 606) identified by at least one of said one or more spatial segments identifiers to said client device, said spatial segment being associated with HEVC-tiled video data comprising a subset, said subset comprising a plurality of HEVC tiles (304, 406) of a HEVC-tiled video stream having a tiled image area, said spatial manifest file further comprising information for determining the position of said spatial segment and/or the position of said HEVC tiles of said spatial segment within the tiled image area of said HEVC-tiled video stream; and, selecting a spatial segment identifier of said spatial manifest file for requesting a delivery node to deliver at least part of the video data of said spatial segment as a HEVC-tiled video stream to said client device, wherein video data of HEVC tiles in said spatial segment do not have spatial and/or temporal decoding dependency with video data of HEVC tiles in said HEVC-tiled video stream that are not part of the spatial segment, said spatial manifest file further comprising metadata associated with said spatial segment, said metadata including information for determining whether the video data of a HEVC tile of said spatial segment have one or more spatial decoding dependencies on other HEVC tiles in said spatial segment. providing said client device with a spatial manifest file comprising one or more spatial segments identifiers (414, 624) for locating one or more delivery nodes configured for delivering video data associated with a spatial segment (108, 302, 410, 606) identified by at least one of said one or more spatial segments identifiers to said client device, said spatial segment being associated with HEVC-tiled video data comprising a subset, said subset comprising a plurality of HEVC tiles (304, 406) of a HEVC-tiled video stream having a tiled image area, said spatial manifest file further comprising information for determining the position of said spatial segment and/or the position of said HEVC tiles of said spatial segment within the tiled image area of said HEVC-tiled video stream; and, selecting a spatial segment identifier of said spatial manifest file for requesting a delivery node to deliver at least part of the video data of said spatial segment as a HEVC-tiled video stream to said client device, wherein video data of HEVC tiles in said spatial segment do not have spatial and/or temporal decoding dependency with video data of HEVC tiles in said HEVC-tiled video stream that are not part of the spatial segment, said spatial manifest file further comprising metadata associated with said spatial segment, said metadata including information for determining whether the video data of a HEVC tile of said spatial segment have one or more spatial decoding dependencies on other HEVC tiles in said spatial segment.