mhurhangee/ep-ind-claims huggingface dataset:
An exhaust gas purification device comprising a filter (2, 3) for purifying exhaust gas discharged from an engine, inner cases (4, 20, 31) incorporating the filter (2, 3), and outer cases (5, 21, 32) incorporating the inner cases (4, 20, 31), and characterized in that the inner cases (4, 20, 31) are connected to the outer cases (5, 21, 32) through two pairs of joining flanges (25, 26, 40, 41) which protrude toward outer peripheries of the outer cases (5, 21, 32), the exhaust gas purification device includes a diesel oxidation catalyst and a soot filter, the inner cases (4, 20, 31), and the outer cases (5, 21, 32), and the joining flanges (25, 26, 40, 41) are sandwiched and fixed between two pairs of sandwiching flanges (51, 52, 53, 54), thereby connecting the plurality of outer cases (5, 21, 32) to each other.
A truck, comprising a steering shaft mounted between a cabin and a steering system of the truck, and extending through an opening in a cabin floor of the cabin, wherein the cabin is tiltable relative to the steering system between a drive position (P D), in which the steering shaft is substantially perpendicular to a driving direction of the truck, and a service position (P S), in which the steering shaft is substantially in the driving direction of the truck, wherein the truck comprises a moulded sealing device for sealing the opening in the cabin floor, wherein the sealing device comprises: - a cabin connector, comprising a mounting surface circumferentially connecting the sealing device to the cabin floor around the opening; - a shaft connector, comprising a cylindrical inner surface connecting with an outer surface of the steering shaft; and - an extendible sleeve, extending radially between the shaft connector and the cabin connector and folded in a fold pattern, wherein the extendible sleeve is extendible from a neutral position; wherein at least the extendible sleeve is moulded from an elastically deformable material; wherein, in the neutral position, the fold pattern comprises first fold flanks oriented substantially normal to the mounting surface, and second fold flanks oriented substantially coaxial with a centreline of the cylindrical inner surface; and wherein, in the neutral position, the centreline is at an angle to the mounting surface, thereby providing at least one of the first or second fold flanks (131, 132) with a negative draft angle for releasing from a corresponding mould, wherein, from the neutral position, the extendible sleeve is arranged for allowing a tilting movement of the shaft connector relative to the cabin connector, between the drive position (P D) and the service position (P S), while the opening in the cabin floor is sealed. - a cabin connector, comprising a mounting surface circumferentially connecting the sealing device to the cabin floor around the opening; - a shaft connector, comprising a cylindrical inner surface connecting with an outer surface of the steering shaft; and - an extendible sleeve, extending radially between the shaft connector and the cabin connector and folded in a fold pattern, wherein the extendible sleeve is extendible from a neutral position; wherein at least the extendible sleeve is moulded from an elastically deformable material; wherein, in the neutral position, the fold pattern comprises first fold flanks oriented substantially normal to the mounting surface, and second fold flanks oriented substantially coaxial with a centreline of the cylindrical inner surface; and wherein, in the neutral position, the centreline is at an angle to the mounting surface, thereby providing at least one of the first or second fold flanks (131, 132) with a negative draft angle for releasing from a corresponding mould, wherein, from the neutral position, the extendible sleeve is arranged for allowing a tilting movement of the shaft connector relative to the cabin connector, between the drive position (P D) and the service position (P S), while the opening in the cabin floor is sealed.
Method of configuring a control unit (SEi) which can be allocated different subsets of function clusters (FCi), wherein the method comprises the following steps: - transmitting a vehicle type-specific function cluster assignment (Zi) from a data source to the control unit (SEi), wherein the function cluster assignment (Zi) allocates the control unit (SEi) to a vehicle type-specific selection of function clusters (FCi), wherein the selection of function clusters (FCi) is one of the different subsets of function clusters (FCi) which can be allocated to the control unit (SEi), wherein the selection also includes the possibility that the selection simultaneously comprises a plurality of function clusters (FCi); - receiving the vehicle type-specific function cluster assignment (Zi) by the control unit (SEi); - preparing the control unit (SEi) for a use of the vehicle type-specific function cluster assignment (Zi); - validating the vehicle type-specific function cluster assignment (Zi) in the control unit (SEi), and - using the vehicle type-specific function cluster assignment (Zi) in the control unit (SEi). - transmitting a vehicle type-specific function cluster assignment (Zi) from a data source to the control unit (SEi), wherein the function cluster assignment (Zi) allocates the control unit (SEi) to a vehicle type-specific selection of function clusters (FCi), wherein the selection of function clusters (FCi) is one of the different subsets of function clusters (FCi) which can be allocated to the control unit (SEi), wherein the selection also includes the possibility that the selection simultaneously comprises a plurality of function clusters (FCi); - receiving the vehicle type-specific function cluster assignment (Zi) by the control unit (SEi); - preparing the control unit (SEi) for a use of the vehicle type-specific function cluster assignment (Zi); - validating the vehicle type-specific function cluster assignment (Zi) in the control unit (SEi), and - using the vehicle type-specific function cluster assignment (Zi) in the control unit (SEi).
A multilayer optical film comprising an optical stack, wherein the optical stack comprises: a) a plurality of first optical layers, each first optical layer comprising a single melt-processible polymer, wherein the single melt-processible polymer is a fluoropolymer, wherein the fluoropolymer is a copolymer comprising interpolymerized monomers of tetrafluoroethylene, with the proviso that the melt-processible copolymer is not a fluorinated ethylene-propylene copolymer per ASTM D 2116-07 or a perfluoroalkoxy resin per ASTM D 3307-08; and b) a plurality of second optical layers disposed in a repeating sequence with the plurality of first optical layers, each second optical layer comprising a non-fluorinated polymeric material selected from the group consisting of: poly(methyl methacrylate); copolymers of poly(methyl methacrylate); polypropylene; copolymers of propylene; polystyrenes; copolymers of styrene; polyvinylidene chloride; thermoplastic polyurethanes; copolymers of ethylene; cyclic olefin copolymers; and combinations thereof. a) a plurality of first optical layers, each first optical layer comprising a single melt-processible polymer, wherein the single melt-processible polymer is a fluoropolymer, wherein the fluoropolymer is a copolymer comprising interpolymerized monomers of tetrafluoroethylene, with the proviso that the melt-processible copolymer is not a fluorinated ethylene-propylene copolymer per ASTM D 2116-07 or a perfluoroalkoxy resin per ASTM D 3307-08; and b) a plurality of second optical layers disposed in a repeating sequence with the plurality of first optical layers, each second optical layer comprising a non-fluorinated polymeric material selected from the group consisting of: poly(methyl methacrylate); copolymers of poly(methyl methacrylate); polypropylene; copolymers of propylene; polystyrenes; copolymers of styrene; polyvinylidene chloride; thermoplastic polyurethanes; copolymers of ethylene; cyclic olefin copolymers; and combinations thereof.
A coaxial borehole heat exchanger comprising: an innermost pipe, an intermediate pipe arranged coaxially outside the innermost pipe, an outermost pipe arranged coaxially outside the intermediate pipe, wherein the innermost pipe, the intermediate pipe and the outermost pipe are made of plastic, characterized in that: the intermediate pipe has an inner surface provided with a plurality of axial grooves, wherein the inner diameter of the intermediate pipe corresponds to the outer diameter of the innermost pipe, the outermost pipe has an inner surface provided with a plurality of axial grooves, wherein the inner diameter (di) of the outermost pipe corresponds to the outer diameter of the intermediate pipe, wherein the innermost pipe and the plurality of axial grooves of the outermost pipe define liquid flow channels, and wherein the axial grooves of the intermediate pipe define a thermal insulation layer between the axial grooves of the outermost pipe and the innermost pipe, wherein a valve is provided at an outer surface of the borehole heat exchanger in level with an end portion of an axial groove of the intermediate pipe, wherein the valve is arranged in fluid communication with the end portion of the axial groove of the intermediate pipe. an innermost pipe, an intermediate pipe arranged coaxially outside the innermost pipe, an outermost pipe arranged coaxially outside the intermediate pipe, wherein the innermost pipe, the intermediate pipe and the outermost pipe are made of plastic, the intermediate pipe has an inner surface provided with a plurality of axial grooves, wherein the inner diameter of the intermediate pipe corresponds to the outer diameter of the innermost pipe, the outermost pipe has an inner surface provided with a plurality of axial grooves, wherein the inner diameter (di) of the outermost pipe corresponds to the outer diameter of the intermediate pipe, wherein the innermost pipe and the plurality of axial grooves of the outermost pipe define liquid flow channels, and wherein the axial grooves of the intermediate pipe define a thermal insulation layer between the axial grooves of the outermost pipe and the innermost pipe, wherein a valve is provided at an outer surface of the borehole heat exchanger in level with an end portion of an axial groove of the intermediate pipe, wherein the valve is arranged in fluid communication with the end portion of the axial groove of the intermediate pipe.
A method of planarizing an image sensor substrate, an upper surface of the image sensor substrate being non-planar due to the presence of a plurality of valleys and ridges, wherein the valleys and ridges are caused by conductive structures formed atop of the substrate, the method comprising: depositing a first polymer layer over said upper surface of the image sensor substrate; patterning said first polymer layer to form pillars of said first polymer layer on said plurality of valleys and ridges of the upper surface of the image sensor substrate; depositing a second polymer layer over said pillars of said first polymer layer and said upper surface of the image sensor substrate, the upper surface of the second polymer layer being substantially planar; and forming color filters over the image sensor substrate characterized in that a color filter layer is formed over said second polymer layer. depositing a first polymer layer over said upper surface of the image sensor substrate; patterning said first polymer layer to form pillars of said first polymer layer on said plurality of valleys and ridges of the upper surface of the image sensor substrate; depositing a second polymer layer over said pillars of said first polymer layer and said upper surface of the image sensor substrate, the upper surface of the second polymer layer being substantially planar; and forming color filters over the image sensor substrate characterized in that a color filter layer is formed over said second polymer layer.
A kit for ex vivo conditioning and purification of an explanted organ, comprising: - connection means to and from said organ; - fluid connection means; - one separation means comprising at least a fractionation filter and an absorption cartridge, wherein said fractionation filter has a cut-off in the range from 80,000 to 800,000 Da and is positioned upstream of said absorption cartridge; and - a plasma filter with a pore diameter from 0.2 to 0.6 micron, said plasma filter being positioned upstream of said fractionation filter and said absorption cartridge. - connection means to and from said organ; - fluid connection means; - one separation means comprising at least a fractionation filter and an absorption cartridge, wherein said fractionation filter has a cut-off in the range from 80,000 to 800,000 Da and is positioned upstream of said absorption cartridge; and - a plasma filter with a pore diameter from 0.2 to 0.6 micron, said plasma filter being positioned upstream of said fractionation filter and said absorption cartridge.
A method for providing a corrected measurement of a target object in a sample using an oxidase wherein the sample comprises dissolved oxygen, the method comprising: obtaining separate measurement values of the target object in the sample by reacting the target object with an oxidase under two or more different types of conditions; and performing a correction based on the measurement values obtained from the two or more different types of conditions to correct for the influence of the dissolved oxygen in the sample on the accuracy of the measurement value of the target object. obtaining separate measurement values of the target object in the sample by reacting the target object with an oxidase under two or more different types of conditions; and performing a correction based on the measurement values obtained from the two or more different types of conditions to correct for the influence of the dissolved oxygen in the sample on the accuracy of the measurement value of the target object.
Rotor bearing for a wind turbine having an inner ring and an outer ring rotatable relative to the inner ring which delimit a bearing interior in which at least one row of rolling elements which can roll between the bearing rings (2, 3) is arranged, and having sealing arrangements for sealing the bearing interior on one side in each case, wherein at least one of the sealing arrangements has a first seal connected in a rotationally fixed manner to the inner ring and a seal race ring connected in a rotationally fixed manner to the outer ring, on which a first seal running surface for the first seal is formed, wherein an annular attachment is fastened to the inner ring and a second seal acting between the seal race ring and the annular attachment is provided, characterized in that the annular attachment embraces the seal race ring in the radial direction and the second seal delimits an annular space formed between a radial outer surface of the seal race ring and a radial inner surface of the annular attachment, wherein an outlet for connecting an oil return is provided in the annular attachment with a flow sectional area which is arranged at least partially further outwards in the radial direction than a sealing gap of the second seal.
A mechanical linear actuator ("MLA") comprising: an actuator drive unit ("ADU") housing (140; 240) comprising a first ADU annular track and a second ADU annular track; and a ball screw (120; 220; 300; 400) comprising: a first ball screw annular track (121; 311; 411), wherein the first ADU annular track and the first ball screw annular track (121; 311; 411) form a first annular raceway (160; 260); a second ball screw annular track (312; 412), wherein the second ADU annular track and the second ball screw annular track (312; 412) form a second annular raceway (160; 260); a first window (228; 321; 421) corresponding to the first annular raceway (160; 260); and a second window (322; 422) corresponding to the second annular raceway (160; 260); and wherein the ball screw (120; 220; 300; 400) comprises a series of cross-under tracks (222, 224, 226; 341, 342, 343). an actuator drive unit ("ADU") housing (140; 240) comprising a first ADU annular track and a second ADU annular track; and a ball screw (120; 220; 300; 400) comprising: a first ball screw annular track (121; 311; 411), wherein the first ADU annular track and the first ball screw annular track (121; 311; 411) form a first annular raceway (160; 260); a second ball screw annular track (312; 412), wherein the second ADU annular track and the second ball screw annular track (312; 412) form a second annular raceway (160; 260); a first window (228; 321; 421) corresponding to the first annular raceway (160; 260); and a second window (322; 422) corresponding to the second annular raceway (160; 260); and a first ball screw annular track (121; 311; 411), wherein the first ADU annular track and the first ball screw annular track (121; 311; 411) form a first annular raceway (160; 260); a second ball screw annular track (312; 412), wherein the second ADU annular track and the second ball screw annular track (312; 412) form a second annular raceway (160; 260); a first window (228; 321; 421) corresponding to the first annular raceway (160; 260); and a second window (322; 422) corresponding to the second annular raceway (160; 260); and wherein the ball screw (120; 220; 300; 400) comprises a series of cross-under tracks (222, 224, 226; 341, 342, 343).
A positive electrode for a lithium-sulfur battery comprising an active material, a conductive material and a binder, wherein the positive electrode comprises maghemite, wherein the content of the maghemite in the positive electrode is 0.1 to 15 parts by weight based on 100 parts by weight of the base solid materials, and wherein the active material is a sulfur-carbon composite.
An AoA sensor system for an aircraft, comprising: an AoA sensor comprising an airfoil-shaped body affixed to a rotatable mount; the rotatable mount rotatably affixed to the AoA sensor; and a heating apparatus removably affixed to the AoA sensor and configured to reduce ice formation on the AoA sensor, the heating apparatus comprising a support element configured for releasable engagement with the AoA sensor, a heating element bonded to the support element to form a composite structure, and a control thermostat configured to receive a temperature input and allow current to flow through the heating element at or below a first temperature and reduce current flow through the heating element at or above a second temperature. an AoA sensor comprising an airfoil-shaped body affixed to a rotatable mount; the rotatable mount rotatably affixed to the AoA sensor; and an airfoil-shaped body affixed to a rotatable mount; the rotatable mount rotatably affixed to the AoA sensor; and a heating apparatus removably affixed to the AoA sensor and configured to reduce ice formation on the AoA sensor, the heating apparatus comprising a support element configured for releasable engagement with the AoA sensor, a heating element bonded to the support element to form a composite structure, and a control thermostat configured to receive a temperature input and allow current to flow through the heating element at or below a first temperature and reduce current flow through the heating element at or above a second temperature. a support element configured for releasable engagement with the AoA sensor, a heating element bonded to the support element to form a composite structure, and a control thermostat configured to receive a temperature input and allow current to flow through the heating element at or below a first temperature and reduce current flow through the heating element at or above a second temperature.
A composite structural component (1, 100) comprising: an elongate member (2, 102) made of a polymer matrix composite material, the elongate member (2, 102) comprising a main portion (2A, 102A) extending along an axis and an end portion (2B, 102B) with a curved inner surface (2C, 102C) extending from the main portion (2A,102A) to an open end of the member (2, 102); and an end fitting (6, 106) forming a mechanical joint with the end portion (2B, 102B), the end fitting (6, 106) comprising: an internal portion (8, 108) positioned captive within the elongate member (2, 102) in contact with the inner surface (2C, 102C) of the end portion (2B, 102B); an external portion (10, 110) positioned in contact with an outer surface of the end portion (2B, 102B); wherein the inner surface (2C, 102C) of the end portion (2B, 102B) in contact with the internal portion (8, 108) extends towards the axis at an increasing angle θ to the axis; and characterised in that: the end fitting further comprises an adjustable fastener (12, 112, 14, 114) extending axially between the internal and external portions (8, 108, 10, 110) to clamp the end portion (2B, 102B) between the internal and external portions (8, 108, 10, 110). an elongate member (2, 102) made of a polymer matrix composite material, the elongate member (2, 102) comprising a main portion (2A, 102A) extending along an axis and an end portion (2B, 102B) with a curved inner surface (2C, 102C) extending from the main portion (2A,102A) to an open end of the member (2, 102); and an end fitting (6, 106) forming a mechanical joint with the end portion (2B, 102B), the end fitting (6, 106) comprising: an internal portion (8, 108) positioned captive within the elongate member (2, 102) in contact with the inner surface (2C, 102C) of the end portion (2B, 102B); an external portion (10, 110) positioned in contact with an outer surface of the end portion (2B, 102B); wherein the inner surface (2C, 102C) of the end portion (2B, 102B) in contact with the internal portion (8, 108) extends towards the axis at an increasing angle θ to the axis; and characterised in that: the end fitting further comprises an adjustable fastener (12, 112, 14, 114) extending axially between the internal and external portions (8, 108, 10, 110) to clamp the end portion (2B, 102B) between the internal and external portions (8, 108, 10, 110).