mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a turbine assembly (10, 10a), which comprises at least two aerofoils (12, 14) that are arranged adjacent towards each other and between two platforms (46, 46'), the at least two aerofoils (12, 14) and the two platforms (46, 46') are formed monolithically, characterised in at least the following steps: - processing the turbine assembly (10, 10a) with a first protection technique that provides a first protection for the at least two adjacent aerofoils (12, 14), wherein at least one region of one aerofoil of the at least two adjacent aerofoils (12, 14) remains unprocessed, - pre-processing of the at least one region of the one aerofoil of the at least two adjacent aerofoils (12, 14) that will remain unprocessed by the processing with the first protection technique or post-processing of the at least one region of the one aerofoil of the at least two adjacent aerofoils (12, 14) that remained unprocessed by the processing with the first protection technique with a second protection technique that provides a second protection for the at least one region of the one aerofoil of the at least two adjacent aerofoils (12, 14) that will remain unprocessed or that remained unprocessed, - wherein the first and the second protection techniques differ from one another with said second protection technique providing a surface alteration of the at least one region of the one aerofoil of the at least two adjacent aerofoils (12, 14) that will remain unprocessed or that remained unprocessed by coating or etching or roughing or by a chemical conversion of the surface. - processing the turbine assembly (10, 10a) with a first protection technique that provides a first protection for the at least two adjacent aerofoils (12, 14), wherein at least one region of one aerofoil of the at least two adjacent aerofoils (12, 14) remains unprocessed, - pre-processing of the at least one region of the one aerofoil of the at least two adjacent aerofoils (12, 14) that will remain unprocessed by the processing with the first protection technique or post-processing of the at least one region of the one aerofoil of the at least two adjacent aerofoils (12, 14) that remained unprocessed by the processing with the first protection technique with a second protection technique that provides a second protection for the at least one region of the one aerofoil of the at least two adjacent aerofoils (12, 14) that will remain unprocessed or that remained unprocessed, - wherein the first and the second protection techniques differ from one another with said second protection technique providing a surface alteration of the at least one region of the one aerofoil of the at least two adjacent aerofoils (12, 14) that will remain unprocessed or that remained unprocessed by coating or etching or roughing or by a chemical conversion of the surface.
A dual-band dipole antenna, comprising: a substrate; a grounding area, being disposed on the substrate; a main radiator, being disposed on the substrate and in the vicinity of the grounding area, wherein the main radiator comprises a first radiator and a second radiator; the first radiator is connected to the second radiator, and there is a groove between the first radiator and the second radiator; a shape of the main radiator is unsymmetrical to a shape of the grounding area; a grounding point, being disposed on the substrate and connected to the grounding area; and a feed-in point, being disposed on the substrate and connected to the main radiator, wherein the feed-in point is in the vicinity of the grounding point, and the groove is formed at a closed structure in the vicinity of the feed-in point and extends in a direction away from the feed-in point to form an opening structure; and the first radiator extends from the feed-in point to the direction away from the feed-in point to form a gradually-widened structure, characterized in that the second radiator extends from the feed-in point to the direction away from the feed-in point to form a gradually-narrowed structure. a substrate; a grounding area, being disposed on the substrate; a main radiator, being disposed on the substrate and in the vicinity of the grounding area, wherein the main radiator comprises a first radiator and a second radiator; the first radiator is connected to the second radiator, and there is a groove between the first radiator and the second radiator; a shape of the main radiator is unsymmetrical to a shape of the grounding area; a grounding point, being disposed on the substrate and connected to the grounding area; and a feed-in point, being disposed on the substrate and connected to the main radiator, wherein the feed-in point is in the vicinity of the grounding point, and the groove is formed at a closed structure in the vicinity of the feed-in point and extends in a direction away from the feed-in point to form an opening structure; and the first radiator extends from the feed-in point to the direction away from the feed-in point to form a gradually-widened structure, characterized in that the second radiator extends from the feed-in point to the direction away from the feed-in point to form a gradually-narrowed structure.
A hydrogen gas generating member formed with Al-X alloy formed of a texture in which Al crystal grain including unavoidable impurities is finely dispersed in a metal X matrix crystal grain, wherein X is selected from Sn: 10.1 to 99.5% (mass percent: hereinafter on the basis of mass percent), Bi: 30.1 to 99.5%, In: 10.1 to 99.5%, Sn+Bi: 20.1 to 99.5%, Sn+In: 10 to 99.5%, Bi+In: 20.1 to 99.5%, and Sn+Bi+In: 20 to 99.5%, and hydrogen gas is generated by bringing the hydrogen gas generating member into contact with water.
Use of a fertilizer comprising a naturally occurring L-amino acid as a nitrogen source for increasing the root mass fraction of a plant, wherein the amino acid is selected from the group consisting of of L-glutamine, L-asparagine and L-arginine.
A synthetic nutritional composition comprising at least one N-acetyl-lactosamine, at least one sialylated oligosaccharide and at least one fucosylated oligosaccharide, for use in the prevention and/or treatment of skin diseases, preferably atopic dermatitis, wherein the N-acetyl-lactosamine is selected from the group consisting of lacto-N- tetraose and lacto-N-neotetraose, and wherein the sialylated oligosaccharide is selected from the group consisting of 3'-sialyllactose and 6'-sialyllactose, and preferably said composition comprises both 3'-sialyllactose and 6'-sialyllactose, the ratio between 3'-sialyllactose and 6'-sialyllactose lying preferably in the range between 5:1 and 1:2, and wherein the fucosylated oligosaccharide is selected from the group consisting of 2'-fucosyllactose, 3-fucosyllactose, difucosyllactose, lacto-N-fucopentaose I, lacto-N-fucopentaose II, lacto-N-fucopentaose III and lacto-N-fucopentaose V, lacto-N-difucohexaose I, fucosyllacto-N-hexaose, Difucosyllacto-N-hexaose I and Difucosyllacto-N-neohexaose II, and preferably the fucosylated oligosaccharide is 2'-fucosyllactose (2-FL).
Microcircuit module which is to be mounted on a cavity of the body of a portable or pocket electronic device, such as a microcircuit card, this module comprising a substrate delimiting first and second opposite external faces, the first external face being designed to be oriented towards the outside of the electronic device so that it is visible, the second external face being designed to be oriented towards the bottom of the cavity, this module including a light source borne by the second external face and so that it lights the first external face of the substrate through the substrate.
A metal sampling vessel (1, 10, 20) for sampling powder, comprising: a cylindrical body (2, 12, 22) having a closed first end (2a, 12a), an opposite second end (2b, 12b) including an opening, a cavity (3, 13, 23) communicating with the opening, and a weight part (4, 14, 24) extending between a bottom (3c, 13c, 23c) of the cavity and the first end (2a, 12a) and a connector (6a, 6b, 16a, 16b, 26a, 26b) for connecting the cylindrical body to a hanging line, wherein the cylindrical body satisfies a relationship M1>M2, wherein M1 represents a mass of the weight part extending between the bottom of the cavity and the first end and M2 represents a mass of the cylindrical body (2, 12, 22) extending between the opening (5, 15, 25) at the second end (2b, 12b) and the bottom (3c, 13c, 23c) of the cavity (3, 13, 23). a cylindrical body (2, 12, 22) having a closed first end (2a, 12a), an opposite second end (2b, 12b) including an opening, a cavity (3, 13, 23) communicating with the opening, and a weight part (4, 14, 24) extending between a bottom (3c, 13c, 23c) of the cavity and the first end (2a, 12a) and a connector (6a, 6b, 16a, 16b, 26a, 26b) for connecting the cylindrical body to a hanging line, wherein the cylindrical body satisfies a relationship M1>M2, wherein M1 represents a mass of the weight part extending between the bottom of the cavity and the first end and M2 represents a mass of the cylindrical body (2, 12, 22) extending between the opening (5, 15, 25) at the second end (2b, 12b) and the bottom (3c, 13c, 23c) of the cavity (3, 13, 23).
An electrode catalyst for a fuel cell, the electrode catalyst comprising a first catalyst that exhibits hydrophilicity and a second catalyst that exhibits hydrophobicity, the first catalyst comprising: pores, wherein at least 50 volume% of the pores of the first catalyst have an average diameter of 100 nanometers or less in a pore distribution; wherein the first catalyst comprises a carbonaceous support and a Group 8, Group 9, or Group 10 metal catalyst disposed on the carbonaceous support; the second catalyst comprising pores, wherein at least 50 volume% of the pores of the second catalyst have an average diameter of 100 nanometers or greater, and wherein the second catalyst comprises a carbonaceous support and a Group 8, Group 9, or Group 10 metal catalyst disposed on the carbonaceous support; and wherein an amount of the first catalyst is in a range of 20 to 90 weight% based on the total weight of the electrode catalyst and wherein an amount of the second catalyst is in a range of 10 to 80 weight% based on the total weight of the electrode catalyst. pores, wherein at least 50 volume% of the pores of the first catalyst have an average diameter of 100 nanometers or less in a pore distribution; wherein the first catalyst comprises a carbonaceous support and a Group 8, Group 9, or Group 10 metal catalyst disposed on the carbonaceous support; the second catalyst comprising pores, wherein at least 50 volume% of the pores of the second catalyst have an average diameter of 100 nanometers or greater, and wherein the second catalyst comprises a carbonaceous support and a Group 8, Group 9, or Group 10 metal catalyst disposed on the carbonaceous support; and wherein an amount of the first catalyst is in a range of 20 to 90 weight% based on the total weight of the electrode catalyst and wherein an amount of the second catalyst is in a range of 10 to 80 weight% based on the total weight of the electrode catalyst.
A method (200, 300) of determining a drive signal duration, T dr, for a laser drive signal, to minimise post-peak response in a temporal response of a laser diode driven by the laser drive signal, the temporal response of the laser diode being indicative of the optical power of the laser diode when driven by the laser drive signal, the method comprising: iteratively: applying a test laser drive signal having a test duration, T t, to the laser diode (201, 301); and monitoring an output of a photodetector (202, 205, 302), wherein the output is indicative of an energy of a light pulse output by the laser diode in response to the application of the test drive signal; varying the test duration, T t, of the test drive signal with successive iterations (203, 206, 303); and determining the duration, T dr, based on the monitoring of the output of the photodetector in successive iterations; said method characterized by determining the duration, T dr, based on the monitoring of the output of the photodetector in successive iterations comprises: identifying, from the monitored output of the photodetector, a first post-peak minimum in the said temporal response of the laser diode (207, 305); and setting the duration, T dr, based on the test duration, T t, corresponding to the identified first post-peak minimum. iteratively: applying a test laser drive signal having a test duration, T t, to the laser diode (201, 301); and monitoring an output of a photodetector (202, 205, 302), wherein the output is indicative of an energy of a light pulse output by the laser diode in response to the application of the test drive signal; applying a test laser drive signal having a test duration, T t, to the laser diode (201, 301); and monitoring an output of a photodetector (202, 205, 302), wherein the output is indicative of an energy of a light pulse output by the laser diode in response to the application of the test drive signal; varying the test duration, T t, of the test drive signal with successive iterations (203, 206, 303); and determining the duration, T dr, based on the monitoring of the output of the photodetector in successive iterations; said method characterized by determining the duration, T dr, based on the monitoring of the output of the photodetector in successive iterations comprises: identifying, from the monitored output of the photodetector, a first post-peak minimum in the said temporal response of the laser diode (207, 305); and setting the duration, T dr, based on the test duration, T t, corresponding to the identified first post-peak minimum. identifying, from the monitored output of the photodetector, a first post-peak minimum in the said temporal response of the laser diode (207, 305); and setting the duration, T dr, based on the test duration, T t, corresponding to the identified first post-peak minimum.
A method of separating a first material from a second material, the method comprising: mixing the first material and the second material in a slurry with a beneficiation composition, wherein the beneficiation composition comprises at least one green collector and at least one fatty acid by-product derived from a biodiesel manufacturing process; providing air bubbles in the slurry to form bubble-particle aggregates with the first material; and allowing the bubble-particle aggregates to be separated from the second material, wherein the green collector is selected from the group consisting of nonionic surfactants of low HLB numbers, naturally occurring lipids, and combinations thereof, wherein the beneficiation composition further comprises 4-methyl cyclohexane methanol, and wherein the fatty acid by-product is derived from the acidulation of at least one biodiesel manufacturing process stream containing at least one fatty acid salts component. mixing the first material and the second material in a slurry with a beneficiation composition, wherein the beneficiation composition comprises at least one green collector and at least one fatty acid by-product derived from a biodiesel manufacturing process; providing air bubbles in the slurry to form bubble-particle aggregates with the first material; and allowing the bubble-particle aggregates to be separated from the second material, wherein the green collector is selected from the group consisting of nonionic surfactants of low HLB numbers, naturally occurring lipids, and combinations thereof, wherein the beneficiation composition further comprises 4-methyl cyclohexane methanol, and wherein the fatty acid by-product is derived from the acidulation of at least one biodiesel manufacturing process stream containing at least one fatty acid salts component.
A multi-selective micromanipulator for driving a plurality of electrodes for detecting electrical signals comprising: a driving means which includes an actuator having a shaft, a main mover which is clamped on the shaft and moves linearly or rotationally with respect to the shaft by the driving means; a lever which is formed on the main mover; and a plurality of submovers (31, 32, 33, 34, 35, 36) which are aligned radially around the shaft and include the plurality of electrodes characterized in that the main mover has a cylindrical shape, the driving means includes a guide groove formed at a surface of the main mover, and a first guide pin which may be engaged with the guide groove, the guide groove comprises a plurality of first inclined grooves formed to be inclined right downwardly with respect to a length direction of the shaft, and a plurality of second inclined grooves formed to be inclined left downwardly with respect to the length direction of the shaft, the first inclined grooves and the second inclined grooves are alternately aligned at the side surface of the main mover, and a first inclined groove and a second inclined groove adjacent to each other are connected to each other to form a sawtooth-shaped guide pin path, wherein the lever selectively contacts with the plurality of submovers (31, 32, 33, 34, 35, 36) depending on the movement of the main mover, wherein a selected submover (31, 32, 33, 34, 35, 36) is linearly moved by the lever in a direction parallel to the direction of the main mover.
An electronic device, comprising: a shell forming an exterior surface of the electronic device; characterised by: a chassis formed on an interior of the shell and defining a machined shelf, the chassis formed from a chassis material having a lower hardness than a hardness of the shell; a display positioned at least partially within the shell; and a transparent cover positioned over the display and coupled to the machined shelf; wherein the transparent cover and the machined shelf cooperate to form a seal. a chassis formed on an interior of the shell and defining a machined shelf, the chassis formed from a chassis material having a lower hardness than a hardness of the shell; a display positioned at least partially within the shell; and a transparent cover positioned over the display and coupled to the machined shelf; wherein the transparent cover and the machined shelf cooperate to form a seal.
Self-sealing tyre sealant, characterized in that it contains fragments and/or residues of expanded solids, wherein the solids are selected from the group containing expanded graphite and microspheres, wherein the microspheres have a casing made of at least one polymer.
A high throughput method for generating and screening of probes comprising the steps of: generating polynucleotides encoding a protein library comprising an assortment of proteins which are mutations of a template protein capable of binding to an unbound metabolite of interest participating in a binding reaction selected from bile salts, heme and heme metabolites; expressing the proteins; purifying the proteins by binding to a solid matrix; associating the matrix bound proteins with fluorophores to produce probes; retrieving the probes from the solid matrix; and screening the probes in a fluorimeter in the presence and absence of the unbound metabolite of interest, wherein the template protein is an intracellular Lipid Binding Protein (iLBP). generating polynucleotides encoding a protein library comprising an assortment of proteins which are mutations of a template protein capable of binding to an unbound metabolite of interest participating in a binding reaction selected from bile salts, heme and heme metabolites; expressing the proteins; purifying the proteins by binding to a solid matrix; associating the matrix bound proteins with fluorophores to produce probes; retrieving the probes from the solid matrix; and screening the probes in a fluorimeter in the presence and absence of the unbound metabolite of interest,
An engine comprising: a cylinder head; an exhaust valve housed inside the cylinder head; a valve mechanism for opening and closing the exhaust valve; a cam shaft for driving the valve mechanism by coming into contact with the valve mechanism; a bearing supporting the cam shaft in a rotatable manner on the cylinder head; and a decompression mechanism disposed between both ends of the cam shaft in an axial direction of the cam shaft; wherein the decompression mechanism includes: a flange that is a body separate from the cam shaft and that is press-fitted onto the cam shaft; a pivot pin attached to the flange; a weight supported on the flange via the pivot pin in a rotatable manner between a closed state and an open state; and a decompression cam configured to switch between a state of coming into contact with the valve mechanism and a state of not coming into contact with the valve mechanism in response to a rotation of the weight, characterized in that a portion of the weight overlaps the flange as seen from a radial direction of the cam shaft. a cylinder head; an exhaust valve housed inside the cylinder head; a valve mechanism for opening and closing the exhaust valve; a cam shaft for driving the valve mechanism by coming into contact with the valve mechanism; a bearing supporting the cam shaft in a rotatable manner on the cylinder head; and a decompression mechanism disposed between both ends of the cam shaft in an axial direction of the cam shaft; wherein the decompression mechanism includes: a flange that is a body separate from the cam shaft and that is press-fitted onto the cam shaft; a pivot pin attached to the flange; a weight supported on the flange via the pivot pin in a rotatable manner between a closed state and an open state; and a decompression cam configured to switch between a state of coming into contact with the valve mechanism and a state of not coming into contact with the valve mechanism in response to a rotation of the weight, characterized in that a portion of the weight overlaps the flange as seen from a radial direction of the cam shaft. a flange that is a body separate from the cam shaft and that is press-fitted onto the cam shaft; a pivot pin attached to the flange; a weight supported on the flange via the pivot pin in a rotatable manner between a closed state and an open state; and a decompression cam configured to switch between a state of coming into contact with the valve mechanism and a state of not coming into contact with the valve mechanism in response to a rotation of the weight, characterized in that a portion of the weight overlaps the flange as seen from a radial direction of the cam shaft.