mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine comprising: a compressor section; and an air-to-air heat exchanger (10; 400; 900) in fluid communication with the compressor section, comprising: a central manifold comprising an inlet portion (412; 912), a first outlet portion (414; 914), and a second outlet portion (416; 916); a plurality of tubes (20; 430) configured to receive air from the compressor section coupled to the central manifold; a shroud at least partially encasing said plurality of tubes (20; 430); and a cooling air flow path defined by at least one of the shroud, the plurality of tubes (20; 430), and an outer surface of the central manifold, wherein the cooling air flow path is orthogonal to said plurality of tubes (20; 430), wherein, the air-to-air heat exchanger (10; 400; 900) is coupled to the gas turbine engine via an adjustable damper comprising: a first tube; a second tube located at least partially within the first tube; an adjusting member; a moveable member; and a spring member located between the adjusting member and the moveable member. a compressor section; and an air-to-air heat exchanger (10; 400; 900) in fluid communication with the compressor section, comprising: a central manifold comprising an inlet portion (412; 912), a first outlet portion (414; 914), and a second outlet portion (416; 916); a plurality of tubes (20; 430) configured to receive air from the compressor section coupled to the central manifold; a shroud at least partially encasing said plurality of tubes (20; 430); and a cooling air flow path defined by at least one of the shroud, the plurality of tubes (20; 430), and an outer surface of the central manifold, wherein the cooling air flow path is orthogonal to said plurality of tubes (20; 430), wherein, the air-to-air heat exchanger (10; 400; 900) is coupled to the gas turbine engine via an adjustable damper comprising: a first tube; a second tube located at least partially within the first tube; an adjusting member; a moveable member; and a spring member located between the adjusting member and the moveable member. a central manifold comprising an inlet portion (412; 912), a first outlet portion (414; 914), and a second outlet portion (416; 916); a plurality of tubes (20; 430) configured to receive air from the compressor section coupled to the central manifold; a shroud at least partially encasing said plurality of tubes (20; 430); and a cooling air flow path defined by at least one of the shroud, the plurality of tubes (20; 430), and an outer surface of the central manifold, wherein the cooling air flow path is orthogonal to said plurality of tubes (20; 430), wherein, the air-to-air heat exchanger (10; 400; 900) is coupled to the gas turbine engine via an adjustable damper comprising: a first tube; a second tube located at least partially within the first tube; an adjusting member; a moveable member; and a spring member located between the adjusting member and the moveable member. a first tube; a second tube located at least partially within the first tube; an adjusting member; a moveable member; and a spring member located between the adjusting member and the moveable member.
A method implemented in an embedded computing environment of a programmable logic controller in a control-layer of an industrial automation system, for diagnostic reasoning of faults and events within the industrial automation system, the method comprising: receiving or retrieving sensor data from a plurality of sensors associated with the industrial automation system; constructing a hierarchical failure model of the industrial automation system using (i) the sensor data, (ii) a library of statistical models comprising event and abnormality detectors detecting event and normality variables and (iii) directed graphical models for evidential reasoning with uncertainty, the directed graphical models defining relationships between a plurality of diagnostic variables and industrial automation system failure status information, the failure model being structured using a hierarchy of fault classes and subclasses, wherein the failure model comprises the plurality of diagnostic variables related to the industrial automation system and their relationships; and performing, by a dynamic belief network, probabilistic reasoning for diagnostic analytics on the industrial automation system using propagation of uncertainties in the hierarchical failure model to derive knowledge related to potential or actual industrial automation system failures; wherein the derived knowledge related to potential or actual system failures comprises a list of industrial automation system components ranked according to likelihood of causing the potential or actual industrial automation system failures. receiving or retrieving sensor data from a plurality of sensors associated with the industrial automation system; constructing a hierarchical failure model of the industrial automation system using (i) the sensor data, (ii) a library of statistical models comprising event and abnormality detectors detecting event and normality variables and (iii) directed graphical models for evidential reasoning with uncertainty, the directed graphical models defining relationships between a plurality of diagnostic variables and industrial automation system failure status information, the failure model being structured using a hierarchy of fault classes and subclasses, wherein the failure model comprises the plurality of diagnostic variables related to the industrial automation system and their relationships; and performing, by a dynamic belief network, probabilistic reasoning for diagnostic analytics on the industrial automation system using propagation of uncertainties in the hierarchical failure model to derive knowledge related to potential or actual industrial automation system failures; wherein the derived knowledge related to potential or actual system failures comprises a list of industrial automation system components ranked according to likelihood of causing the potential or actual industrial automation system failures.
A marine antifouling coating composition comprising: a binder comprising a silyl ester copolymer and a rosin or a derivative thereof; tralopyril or a salt thereof; and a stabilizer selected from at least one of a carbodiimide or a silane formula: SiR n 4-n in which n = 0, 1, 2 or 3, and each R is independently a C1-20 hydrocarbyl group in which each R is optionally interrupted by an O group; wherein the marine antifouling coating composition contains less than 0.2 wt% (dry solids) cuprous oxide. a binder comprising a silyl ester copolymer and a rosin or a derivative thereof; tralopyril or a salt thereof; and a stabilizer selected from at least one of a carbodiimide or a silane formula: SiR n 4-n in which n = 0, 1, 2 or 3, and each R is independently a C1-20 hydrocarbyl group in which each R is optionally interrupted by an O group;
A compoundof formula I, wherein: R 1 is selected from -CN and -OCF 3; R 2 is Cl; R 3 is H or F; R 4 and R 5 together with the carbon atom they are bonded to constitute a saturated hydrocarbon ring of 3 carbon atoms; R 6 and R 7 together with the carbon atom they are bonded to constitute a saturated hydrocarbon ring of 3 carbon atoms; Y is a pyridyl group; R 8 is -C NR 9 R 10 and is connected to the 4-, 5-, or 6-position of Y; R 9 is selected from H; C 1-4 alkyl, optionally substituted with one or two groups selected from: a) -OH, b) -C NH 2, c) -NHC CH 3, d) -COOH, e) -OCH 3, f) pyridyl, g) furanyl, h) imidazolyl, i) phenyl, j) cyclopropyl, and k) -NR 11 R 12, and C 3-5 cycloalkyl; R 10 is H, -CH 3, or -CH 2 CH 3, or R 9 and R 10 constitute a saturated hydrocarbon bridge of 3 to 5 carbon atoms which together with the N they are bonded to, form a heterocyclic ring, and wherein: a) one carbon atom in said heterocyclic ring may be optionally substituted with -OH, -CH 2 OH, -C NH 2, -N(CH 3) 2, -NHC CH 3 or -NCH 3 C CH 3, or b) wherein one carbon atom in said heterocyclic ring may be optionally replaced by -O-, or - NH-, -NCH 3 -, -NSO 2 CH 3 -or -NC CH 3 -; R 11 is H or-CH 3; R 12 is H or -CH 3; or a pharmaceutically acceptable salt thereof R 1 is selected from -CN and -OCF 3; R 2 is Cl; R 3 is H or F; R 4 and R 5 together with the carbon atom they are bonded to constitute a saturated hydrocarbon ring of 3 carbon atoms; R 6 and R 7 together with the carbon atom they are bonded to constitute a saturated hydrocarbon ring of 3 carbon atoms; Y is a pyridyl group; R 8 is -C NR 9 R 10 and is connected to the 4-, 5-, or 6-position of Y; R 9 is selected from H; C 1-4 alkyl, optionally substituted with one or two groups selected from: a) -OH, b) -C NH 2, c) -NHC CH 3, d) -COOH, e) -OCH 3, f) pyridyl, g) furanyl, h) imidazolyl, i) phenyl, j) cyclopropyl, and k) -NR 11 R 12, and C 3-5 cycloalkyl; H; C 1-4 alkyl, optionally substituted with one or two groups selected from: a) -OH, b) -C NH 2, c) -NHC CH 3, d) -COOH, e) -OCH 3, f) pyridyl, g) furanyl, h) imidazolyl, i) phenyl, j) cyclopropyl, and k) -NR 11 R 12, and a) -OH, b) -C NH 2, c) -NHC CH 3, d) -COOH, e) -OCH 3, f) pyridyl, g) furanyl, h) imidazolyl, i) phenyl, j) cyclopropyl, and k) -NR 11 R 12, and C 3-5 cycloalkyl; R 10 is H, -CH 3, or -CH 2 CH 3, or R 9 and R 10 constitute a saturated hydrocarbon bridge of 3 to 5 carbon atoms which together with the N they are bonded to, form a heterocyclic ring, and wherein: a) one carbon atom in said heterocyclic ring may be optionally substituted with -OH, -CH 2 OH, -C NH 2, -N(CH 3) 2, -NHC CH 3 or -NCH 3 C CH 3, or b) wherein one carbon atom in said heterocyclic ring may be optionally replaced by -O-, or - NH-, -NCH 3 -, -NSO 2 CH 3 -or -NC CH 3 -; a) one carbon atom in said heterocyclic ring may be optionally substituted with -OH, -CH 2 OH, -C NH 2, -N(CH 3) 2, -NHC CH 3 or -NCH 3 C CH 3, or b) wherein one carbon atom in said heterocyclic ring may be optionally replaced by -O-, or - NH-, -NCH 3 -, -NSO 2 CH 3 -or -NC CH 3 -; R 11 is H or-CH 3; R 12 is H or -CH 3; or a pharmaceutically acceptable salt thereof
A method in a user equipment, the method comprising: acquiring configuration information regarding a downlink control information message for a physical uplink shared channel transmission; receiving the downlink control information message on a physical downlink control channel in a first subframe, the downlink control information message indicating a plurality of resource assignments in a second subframe for an uplink carrier from which the user equipment selects one resource assignment for transmission on the uplink carrier, where the downlink control information message is cyclic redundancy check scrambled by a radio network temporary identifier that is indicated via higher layers that are higher than a physical layer; selecting a resource assignment from the plurality of resource assignments using a selection criterion, the selection criterion based on at least one parameter measured by the user equipment; and transmitting a data packet on the physical uplink shared channel in a resource of the selected resource assignment in the second subframe on the uplink carrier. acquiring configuration information regarding a downlink control information message for a physical uplink shared channel transmission; receiving the downlink control information message on a physical downlink control channel in a first subframe, the downlink control information message indicating a plurality of resource assignments in a second subframe for an uplink carrier from which the user equipment selects one resource assignment for transmission on the uplink carrier, where the downlink control information message is cyclic redundancy check scrambled by a radio network temporary identifier that is indicated via higher layers that are higher than a physical layer; selecting a resource assignment from the plurality of resource assignments using a selection criterion, the selection criterion based on at least one parameter measured by the user equipment; and transmitting a data packet on the physical uplink shared channel in a resource of the selected resource assignment in the second subframe on the uplink carrier.
A method of forming a patterned structure, the method comprising: introducing a vapor of an iodine-containing etching compound into a reaction chamber containing a silicon-containing film on a substrate, wherein the iodine-containing etching compound is selected from the group consisting of C 2 H 2 FI, C 2 H 3 F 2 I, C 2 H 4 FI, C 3 HF 4 I, C 3 H 2 F 3 I, C 3 HF 6 I, C 3 H 2 F 5 I, C 3 H 3 F 4 I, and C 3 H 4 F 3 I; introducing an inert gas into the reaction chamber; and activating a plasma to produce an activated iodine-containing etching compound and etching the silicon-containing film from the substrate to form the patterned structure; and removing volatile by-products from the reaction chamber, wherein the activated iodine-containing etching compound reacts with the silicon-containing film to form the volatile by-products. introducing a vapor of an iodine-containing etching compound into a reaction chamber containing a silicon-containing film on a substrate, wherein the iodine-containing etching compound is selected from the group consisting of C 2 H 2 FI, C 2 H 3 F 2 I, C 2 H 4 FI, C 3 HF 4 I, C 3 H 2 F 3 I, C 3 HF 6 I, C 3 H 2 F 5 I, C 3 H 3 F 4 I, and C 3 H 4 F 3 I; introducing an inert gas into the reaction chamber; and activating a plasma to produce an activated iodine-containing etching compound and etching the silicon-containing film from the substrate to form the patterned structure; and removing volatile by-products from the reaction chamber, wherein the activated iodine-containing etching compound reacts with the silicon-containing film to form the volatile by-products.
A wall outlet for guiding air, insertable into an opening of a building wall, consisting of at least two parts: - a first fluid guiding body with an inside opening for connection of a fluid line of a building services appliance, and - a second fluid guiding body with an outside opening having a connection to the outdoor air, wherein the first fluid guiding body and the second fluid guiding body are configured to be at least partially overlapping in the installed state, and the first fluid guiding body has a flow cross-section (A1-A4) increasing from the inside opening towards the outside opening, characterised in that the flow cross-section at the inside opening is smaller than the flow cross-section at a guide end of the first fluid guiding body, wherein the first fluid guiding body is configured to be at least partially double-walled and has a guide space, into which the second fluid guiding body is introducible. - a first fluid guiding body with an inside opening for connection of a fluid line of a building services appliance, and - a second fluid guiding body with an outside opening having a connection to the outdoor air, wherein the first fluid guiding body and the second fluid guiding body are configured to be at least partially overlapping in the installed state, and the first fluid guiding body has a flow cross-section (A1-A4) increasing from the inside opening towards the outside opening, characterised in that the flow cross-section at the inside opening is smaller than the flow cross-section at a guide end of the first fluid guiding body, wherein the first fluid guiding body is configured to be at least partially double-walled and has a guide space, into which the second fluid guiding body is introducible.
A method of operating an internal combustion engine, the method comprising: combusting a mixture of a flow of fresh air and a fuel within a plurality of cylinders, wherein the fuel is injected from a fuel injection system into the plurality of cylinders; directing a first portion of exhaust gases from an exhaust manifold into a first-stage turbine and a second-stage turbine of a turbocharger for expanding the first portion of the exhaust gases; recirculating a second portion of exhaust gases from the exhaust manifold into an intake manifold after mixing with the flow of fresh air; and reducing nitrogen dioxide (NOx) and particulate matter emission levels by: reducing an engine speed while operating the internal combustion engine at a given engine power while further maintaining constant engine power level by increasing a fuel injection per cycle for increasing torque; concurrently increasing a flow rate of the second portion of exhaust gas during recirculation; and advancing a fuel injection timing. combusting a mixture of a flow of fresh air and a fuel within a plurality of cylinders, wherein the fuel is injected from a fuel injection system into the plurality of cylinders; directing a first portion of exhaust gases from an exhaust manifold into a first-stage turbine and a second-stage turbine of a turbocharger for expanding the first portion of the exhaust gases; recirculating a second portion of exhaust gases from the exhaust manifold into an intake manifold after mixing with the flow of fresh air; and reducing nitrogen dioxide (NOx) and particulate matter emission levels by: reducing an engine speed while operating the internal combustion engine at a given engine power while further maintaining constant engine power level by increasing a fuel injection per cycle for increasing torque; concurrently increasing a flow rate of the second portion of exhaust gas during recirculation; and advancing a fuel injection timing. reducing an engine speed while operating the internal combustion engine at a given engine power while further maintaining constant engine power level by increasing a fuel injection per cycle for increasing torque; concurrently increasing a flow rate of the second portion of exhaust gas during recirculation; and advancing a fuel injection timing.
A track module prefabricated at the factory, to be juxtaposed one after the other to form a track for self-guided urban transport vehicles on tires characterized in that it comprises: - an integral monobloc concrete supporting structure comprising two lateral sills with a generally planar upper surface serving as a travel surface for the tires of the urban transport vehicle, and connecting crossbars joining the lateral sills and maintaining them generally parallel, with the lower surface of the lateral sills and the lower surface of the connecting crossbars being ground bearing surfaces; - a guide rail section attached to the supporting structure for guiding the urban transport vehicle. - an integral monobloc concrete supporting structure comprising two lateral sills with a generally planar upper surface serving as a travel surface for the tires of the urban transport vehicle, and connecting crossbars joining the lateral sills and maintaining them generally parallel, with the lower surface of the lateral sills and the lower surface of the connecting crossbars being ground bearing surfaces; - a guide rail section attached to the supporting structure for guiding the urban transport vehicle.
An in vitro method for predicting whether a patient having rheumatoid arthritis would be responsive to a treatment with a TNFα inhibitor, which method comprises determining the expression level of CNTNAP3, CYP4F3, GZMB, MME, MX1, RAVER2, SERPINB10 and TNFAIP6 genes, or the expression level of CNTNAP3, CYP4F3, EPSTI1, MME, RGS1, SERPINB10 and TNFAIP6 genes, or the expression level of FCGR3A, GPAM, GZMB, IFI35, MME, PTGS2, RAVER2, RFC1 and RSAD2 genes in a blood sample of said patient.
Method for producing decorative prints with identical quality on at least two carrier materials, comprising the steps a) providing at least one printing motif; b) converting the at least one printing motif into at least one high-resolution electronic data set with a resolution of up to 1200 dpi, preferably 1000 dpi, by means of at least one piece of image-processing software, b1) adapting the high-resolution data set of the printing motif to changes relating to decoration and/or colour, markings being introduced into the decoration as processing means for the carrier materials to be printed; c) reducing the resolution of the at least one high-resolution electronic data set to up to 100 dpi, preferably 60 to 80 dpi, by means of at least one piece of image-processing software; d) creating at least one first printed decoration on at least one first carrier material by using at least one digital printer with the at least one reduced-resolution electronic data set; e) creating at least one printing roll for a gravure printing process by using at least one reduced-resolution electronic data set, and f) creating at least one second printed decoration on at least one second carrier material by using the at least one printing roll. a) providing at least one printing motif; b) converting the at least one printing motif into at least one high-resolution electronic data set with a resolution of up to 1200 dpi, preferably 1000 dpi, by means of at least one piece of image-processing software, b1) adapting the high-resolution data set of the printing motif to changes relating to decoration and/or colour, markings being introduced into the decoration as processing means for the carrier materials to be printed; c) reducing the resolution of the at least one high-resolution electronic data set to up to 100 dpi, preferably 60 to 80 dpi, by means of at least one piece of image-processing software; d) creating at least one first printed decoration on at least one first carrier material by using at least one digital printer with the at least one reduced-resolution electronic data set; e) creating at least one printing roll for a gravure printing process by using at least one reduced-resolution electronic data set, and f) creating at least one second printed decoration on at least one second carrier material by using the at least one printing roll.