mhurhangee/ep-ind-claims huggingface dataset:
A component of a gas turbine system having a coolant delivery system for selectively delivering cooling fluid to the component, wherein the coolant delivery system comprises: a plurality of independent circuits (100, 200) of cooling channels (210, 216) embedded within an exterior wall of the component, each independent circuit (100, 200) of cooling channels (210, 216) including a plurality of headers (206, 212) and a plurality of feed tubes (208, 214) fluidly coupling the plurality of headers (206, 212) to a supply of cooling fluid; characterized by an impingement plate connected to the exterior wall of the component by the plurality of feed tubes (208, 214) of the plurality of independent circuits (100, 200) of cooling channels (210, 216), and an impingement cavity separating the exterior wall of the component from the impingement plate, the plurality of feed tubes (208, 214) of each independent circuit (100, 200) of cooling channels (210, 216) extending through the impingement cavity; wherein, in each of the plurality of independent circuits (100, 200) of cooling channels (210, 216), the cooling fluid flows through the plurality of feed tubes (208, 214) and the plurality of headers (206, 212) into the circuit of cooling channels (210, 214) only in response to a formation of a breach in the exterior wall of the component that exposes at least one of the cooling channels (210, 214) of the circuit (100, 200) of cooling channels (210, 214). a plurality of independent circuits (100, 200) of cooling channels (210, 216) embedded within an exterior wall of the component, each independent circuit (100, 200) of cooling channels (210, 216) including a plurality of headers (206, 212) and a plurality of feed tubes (208, 214) fluidly coupling the plurality of headers (206, 212) to a supply of cooling fluid; characterized by an impingement plate connected to the exterior wall of the component by the plurality of feed tubes (208, 214) of the plurality of independent circuits (100, 200) of cooling channels (210, 216), and an impingement cavity separating the exterior wall of the component from the impingement plate, the plurality of feed tubes (208, 214) of each independent circuit (100, 200) of cooling channels (210, 216) extending through the impingement cavity; wherein, in each of the plurality of independent circuits (100, 200) of cooling channels (210, 216), the cooling fluid flows through the plurality of feed tubes (208, 214) and the plurality of headers (206, 212) into the circuit of cooling channels (210, 214) only in response to a formation of a breach in the exterior wall of the component that exposes at least one of the cooling channels (210, 214) of the circuit (100, 200) of cooling channels (210, 214).
A particle characterization method, comprising: illuminating a heterogeneous fluid sample comprising particles; causing the heterogeneous fluid sample to flow past a two-dimensional array detector; acquiring at least one image of the illuminated heterogeneous fluid sample; and extracting a summarizing metric from the images; wherein extracting the summarizing metric includes extracting a dispersion metric from the images; the step of extracting a summarizing metric includes extracting information about particle size; characterised in that the step of extracting a dispersion metric from the images applies an entropy function to the images. illuminating a heterogeneous fluid sample comprising particles; causing the heterogeneous fluid sample to flow past a two-dimensional array detector; acquiring at least one image of the illuminated heterogeneous fluid sample; and extracting a summarizing metric from the images; wherein extracting the summarizing metric includes extracting a dispersion metric from the images; the step of extracting a summarizing metric includes extracting information about particle size; characterised in that the step of extracting a dispersion metric from the images applies an entropy function to the images.
Separating module for a separating device for separating contaminants from a raw gas stream, the separating module comprising the following: a housing which surrounds an interior through which the raw gas stream can flow for the separation of contaminants from the raw gas stream, a plurality of cyclone separating elements being arranged in the interior, the cyclone separating elements each comprising a cyclone body which surrounds a cyclone separating chamber, both an inner side of the cyclone body that faces the cyclone separating chamber and an outer side of the cyclone body that faces away from the cyclone separating chamber forming separating surfaces for separating contaminants from the raw gas stream, the cyclone bodies being arranged in an inflow portion of the interior and forming impact separating elements for separating contaminants from the raw gas stream, the cyclone separating elements each comprising one or more inlet openings for introducing the raw gas stream into the cyclone separating elements, each inlet opening fluidically connecting an environment of the relevant cyclone separating element to the cyclone separating chamber, characterized in that the separating module comprises a plurality of separating planes, each comprising a plurality of cyclone separating elements arranged adjacent to one another in a plane. a housing which surrounds an interior through which the raw gas stream can flow for the separation of contaminants from the raw gas stream, a plurality of cyclone separating elements being arranged in the interior, the cyclone separating elements each comprising a cyclone body which surrounds a cyclone separating chamber, both an inner side of the cyclone body that faces the cyclone separating chamber and an outer side of the cyclone body that faces away from the cyclone separating chamber forming separating surfaces for separating contaminants from the raw gas stream, the cyclone bodies being arranged in an inflow portion of the interior and forming impact separating elements for separating contaminants from the raw gas stream, the cyclone separating elements each comprising one or more inlet openings for introducing the raw gas stream into the cyclone separating elements, each inlet opening fluidically connecting an environment of the relevant cyclone separating element to the cyclone separating chamber, characterized in that the separating module comprises a plurality of separating planes, each comprising a plurality of cyclone separating elements arranged adjacent to one another in a plane.
A gas turbine engine disk balancing system comprising: a first cover (50, 72) coupled to a first disk (44, 46) and comprising a flange having a circumferential groove; a split ring having a profile that is complementary to the circumferential groove, the system being characterized by the split ring comprising an axial hole; and a balance weight coupled to the axial hole of the split ring. a first cover (50, 72) coupled to a first disk (44, 46) and comprising a flange having a circumferential groove; a split ring having a profile that is complementary to the circumferential groove, the system being characterized by the split ring comprising an axial hole; and a balance weight coupled to the axial hole of the split ring.
A current detection device comprising: a current path through which a current to be measured flows; a feedback coil; a magnetic detection element which faces both the current path and the feedback coil; a coil current-carrying portion adapted to control a feedback current applied to the feedback coil according to an increase or decrease in a detection output of the magnetic detection element; and a detection portion adapted to detect an amount of current flowing through the feedback coil, wherein the feedback coil is formed in a planar pattern in which a coil line is coiled into a plurality of windings, a portion of the feedback coil forms an element facing portion in which a plurality of the coil lines face the magnetic detection element, and wherein in operation, an amount of current per unit of width in the element facing portion in a direction perpendicular to the coiling direction of the coil line is higher than an amount of current per unit of width in portions other than the element facing portion. a current path through which a current to be measured flows; a feedback coil; a magnetic detection element which faces both the current path and the feedback coil; a coil current-carrying portion adapted to control a feedback current applied to the feedback coil according to an increase or decrease in a detection output of the magnetic detection element; and a detection portion adapted to detect an amount of current flowing through the feedback coil, wherein the feedback coil is formed in a planar pattern in which a coil line is coiled into a plurality of windings, a portion of the feedback coil forms an element facing portion in which a plurality of the coil lines face the magnetic detection element, and wherein in operation, an amount of current per unit of width in the element facing portion in a direction perpendicular to the coiling direction of the coil line is higher than an amount of current per unit of width in portions other than the element facing portion.
A linear drive apparatus, comprising: an outer tube and a sealing end cap provided at the end of the outer tube, a screw is provided in the outer tube, one end of the screw is connected to a drive mechanism, a drive nut is provided on the screw in a threaded fit therewith, an extension rod is provided between the outer tube and the screw, one end of the extension rod is connected to the drive nut and the other end thereof passes through the sealing end cap, a sealing assembly is provided between the extension rod and the sealing end cap, and a waterproof and oil-proof ventilation stopper is provided on the outer tube, and a sliding bearing is provided between the extension rod and the sealing end cap, characterized in that a single-row tapered roller bearing is provided correspondingly in the outer tube and at connection ends between the screw and the drive mechanism, an outer ring of said single-row tapered roller bearing is connected to an inner wall of the outer tube, and an inner ring thereof is closely fitted with the screw, and wherein the length-diameter ratio of the screw is 20 - 25, the length-diameter ratio of the drive nut is 3 - 5, and a wear-resistant rust-proof layer is provided on a surface of the extension rod.
A polymer comprising one or more repeating units, wherein at least one of the repeating units comprises one or more benzimidazolium-containing moieties of Formulas -: wherein: R 1 is independently selected from the group consisting of alkyl, perfluoroalkyl, heteroalkyl, alkoxy, perfluoroalkoxy, halo, aryl, heteroaryl group and a polymer; R 2 is independently selected from the group consisting of hydrogen, alkyl, and a polymer; R 3 is independently selected from the group consisting of alkyl, perfluoroalkyl, heteroalkyl, aryl, aralkyl, and a polymer; R 5 is independently selected from the group consisting of hydrogen, alkyl, and a polymer; wherein at least one of R 1, R 2, R 3, and R 5, is a polymer; and X is independently selected from the group consisting of alkylene, perfluoroalkylene, heteroalkylene, arylene, aralkylene, and no group. R 1 is independently selected from the group consisting of alkyl, perfluoroalkyl, heteroalkyl, alkoxy, perfluoroalkoxy, halo, aryl, heteroaryl group and a polymer; R 2 is independently selected from the group consisting of hydrogen, alkyl, and a polymer; R 3 is independently selected from the group consisting of alkyl, perfluoroalkyl, heteroalkyl, aryl, aralkyl, and a polymer; R 5 is independently selected from the group consisting of hydrogen, alkyl, and a polymer; wherein at least one of R 1, R 2, R 3, and R 5, is a polymer; and X is independently selected from the group consisting of alkylene, perfluoroalkylene, heteroalkylene, arylene, aralkylene, and no group.
A system configured to detect malware comprising: a data collector configured to: analyze a payload of a communication packet in transit between a first digital device and a second digital device; detect, based on the analysis of the payload, at least a first hypertext transfer object in a chain of a plurality of hypertext transfer objects; analyze at least said first hypertext transfer object for one or more events; generate a list of events based on said analysis of at least said first hypertext transfer object; determine a score for said chain of a plurality of hypertext transfer objects based on at least one of a file format or a header within at least said first hypertext transfer object; determine that said chain of a plurality of hypertext transfer objects is a suspicious sequence of hypertext transfer objects based on the score satisfying a threshold; and use a virtualization environment to collect one or more of an execution log and a call trace during a browser operation when analysing said chain of a plurality of hypertext transfer objects to the browser. analyze a payload of a communication packet in transit between a first digital device and a second digital device; detect, based on the analysis of the payload, at least a first hypertext transfer object in a chain of a plurality of hypertext transfer objects; analyze at least said first hypertext transfer object for one or more events; generate a list of events based on said analysis of at least said first hypertext transfer object; determine a score for said chain of a plurality of hypertext transfer objects based on at least one of a file format or a header within at least said first hypertext transfer object; determine that said chain of a plurality of hypertext transfer objects is a suspicious sequence of hypertext transfer objects based on the score satisfying a threshold; and use a virtualization environment to collect one or more of an execution log and a call trace during a browser operation when analysing said chain of a plurality of hypertext transfer objects to the browser.
A 3-alkylated crystallized (1 R,4 S)- p -menthan-3-ol derivative, of formula A or B, in which, - when R 2 represents hydrogen, R 1 represents a hydroxy radical or a -CH 2 OH group, or - when R 2 represents a methyl radical, R 1 represents a hydroxy radical or a (CH 2)n-OH group, with n = 2 or 3, or - when R 2 represents a hydroxy radical, R 1 represents a methyl radical or a (CH 2)n-OH group, with n = 1, 2, 3. - when R 2 represents hydrogen, R 1 represents a hydroxy radical or a -CH 2 OH group, or - when R 2 represents a methyl radical, R 1 represents a hydroxy radical or a (CH 2)n-OH group, with n = 2 or 3, or - when R 2 represents a hydroxy radical, R 1 represents a methyl radical or a (CH 2)n-OH group, with n = 1, 2, 3.
An apparatus for processing information in a data flow, comprising: a client service gateway operable to receive a plurality of data flows from a plurality of end users and extract a plurality of portions of information from the plurality of data flows respectively, the client service gateway operable to generate a plurality of respective billing records based on the respective plurality of portions of the plurality of data flows, wherein the respective portions of information includes data associated with the plurality of respective end users, and wherein the client service gateway is further operable to distribute the plurality of billing records evenly amongst multiple billing mediation agents coupled to the client service gateway, wherein if a billing mediation agent becomes non-operational or dysfunctional, the billing records which would have been distributed to the non-operational or dysfunctional billing mediation agent are redistributed amongst other active or operational billing mediation agents, and wherein the plurality of billing records enable the respective billing mediation agents to generate respective results reflecting one or more parameters associated with the respective end users. a client service gateway operable to receive a plurality of data flows from a plurality of end users and extract a plurality of portions of information from the plurality of data flows respectively, the client service gateway operable to generate a plurality of respective billing records based on the respective plurality of portions of the plurality of data flows, wherein the respective portions of information includes data associated with the plurality of respective end users, and wherein the client service gateway is further operable to distribute the plurality of billing records evenly amongst multiple billing mediation agents coupled to the client service gateway, wherein if a billing mediation agent becomes non-operational or dysfunctional, the billing records which would have been distributed to the non-operational or dysfunctional billing mediation agent are redistributed amongst other active or operational billing mediation agents, and wherein the plurality of billing records enable the respective billing mediation agents to generate respective results reflecting one or more parameters associated with the respective end users.
An optoelectronic device (50; 70) comprising: a doped semiconductor substrate of a first conductivity type; pads or a layer, on a surface of the substrate, doped with a second conductivity type opposite to the first type; wire-shaped, conical, or tapered semiconductor elements, doped with the first conductivity type, each element resting on one of the pads or on the layer; light-emitting semiconductor portions (30; 72), each portion at least partially covering one of the semiconductor elements; and a circuit for biasing the pads or the layer, wherein the substrate is made of a semiconductor material selected from the group comprising silicon, germanium, silicon carbide, a III-V compound, a II-VI compound, and a combination of these compounds, and wherein the pads or the layer are made of a material selected from the group comprising aluminum nitride, boron nitride, silicon carbide, magnesium nitride, magnesium gallium nitride, or a combination thereof and of their nitrided compounds. a doped semiconductor substrate of a first conductivity type; pads or a layer, on a surface of the substrate, doped with a second conductivity type opposite to the first type; wire-shaped, conical, or tapered semiconductor elements, doped with the first conductivity type, each element resting on one of the pads or on the layer; light-emitting semiconductor portions (30; 72), each portion at least partially covering one of the semiconductor elements; and a circuit for biasing the pads or the layer, wherein the substrate is made of a semiconductor material selected from the group comprising silicon, germanium, silicon carbide, a III-V compound, a II-VI compound, and a combination of these compounds, and wherein the pads or the layer are made of a material selected from the group comprising aluminum nitride, boron nitride, silicon carbide, magnesium nitride, magnesium gallium nitride, or a combination thereof and of their nitrided compounds.
WPC extrusion profile comprising a WPC material, in which plant fibres are embedded in a plastics matrix, wherein the WPC material comprises a proportion of naturally growing plant fibres of between 30 to 75% by weight and the WPC extrusion profile has at least one foamed hollow chamber (3, 6), characterized in that the at least one hollow chamber of the WPC extrusion profile is filled completely with a foam, in particular a closed-pore foam, and the foam consists of a plastic of the same type as the matrix of the WPC material, and in that the foaming is effected with a physically acting blowing agent, in particular CO 2, and the density of the foam is less than 0.4 g/cm 3 and the average cell size of the foam has a mean diameter of less than 0.4 mm.
A printing method comprising the steps of: dividing a to-be-printed surface of a to-be-printed object into a plurality of small to-be-printed surfaces and dividing a picture to be printed on said to-be-printed surface into small pictures to be printed on said small to-be-printed surfaces; creating a small developed picture by developing said small picture into a plane; putting ink on a small printing original plate corresponding to each of said plurality of small to-be-printed surfaces according to said small developed picture for a corresponding small to-be-printed surface of the small to-be-printed surfaces; pressing a small printing blanket corresponding to each of said plurality of small to-be-printed surfaces against the corresponding small printing original plate to transfer said ink to the small printing blanket; and printing said picture on said to-be-printed surface by pressing each of said plurality of small printing blankets against the corresponding small to-be-printed surface to print said small picture on said small to-be-printed surface, characterized in that the to-be-printed surface of the to-be-printed object is divided into the plurality of small to-be-printed surfaces so as to overlap the boundaries one another with a prescribed width and that ink is put on the small printing original plate corresponding to each of said plurality of small to-be-printed surfaces according to said small developed picture for the corresponding small to-be-printed surface of the small to-be-printed surfaces so that an amount of ink on an area between said boundaries with said prescribed width is less than an amount of ink on a range out of the area between said boundaries with said prescribed width. dividing a to-be-printed surface of a to-be-printed object into a plurality of small to-be-printed surfaces and dividing a picture to be printed on said to-be-printed surface into small pictures to be printed on said small to-be-printed surfaces; creating a small developed picture by developing said small picture into a plane; putting ink on a small printing original plate corresponding to each of said plurality of small to-be-printed surfaces according to said small developed picture for a corresponding small to-be-printed surface of the small to-be-printed surfaces; pressing a small printing blanket corresponding to each of said plurality of small to-be-printed surfaces against the corresponding small printing original plate to transfer said ink to the small printing blanket; and printing said picture on said to-be-printed surface by pressing each of said plurality of small printing blankets against the corresponding small to-be-printed surface to print said small picture on said small to-be-printed surface, characterized in that the to-be-printed surface of the to-be-printed object is divided into the plurality of small to-be-printed surfaces so as to overlap the boundaries one another with a prescribed width and that
Combine harvester with devices for conveying, threshing, separating and cleaning crop, and with a vibration pick-up unit which is assigned to the crop-residue-dispensing side of the separating or cleaning device and has a vibration pick-up and an electronic signal processing circuit which is connected in a signal-transmitting manner to the vibration pick-up and is configured so as, from the signals of the vibration pick-up, to deduce information with respect to the quantity of lost grains detected by the vibration pick-up and to output the information as a first output value for further processing and/or display, characterized in that the vibration pick-up is coupled via a holder in a vibration-conducting manner to moving parts which are to be monitored, and in that the signal processing circuit is configured to additionally investigate the signals of the vibration pick-up for vibrations, which indicate possible damage to the moving parts, and to output the result as a second output value for further processing and/or display.