mhurhangee/ep-ind-claims huggingface dataset:
Method for managing a quick stop situation of an elevator, in which method: - an activation process of a machinery brake is started; - a disconnection process of the current supply is started for disconnecting the current supply occurring from the power source to the elevator motor; - the disconnection process of the current supply is started separately after the starting of the activation process of the machinery brake; - characterized in that the start of the disconnection process of the current supply is delayed by an amount of the starting delay from the starting moment of the activation process of the brake, wherein the starting delay of the disconnection process of the current supply is determined, in addition to being determined on the basis of an activation delay of the machinery brake, on the basis of a disconnection delay of the current supply of the elevator motor, wherein, when the starting delay of the disconnection process includes the disconnection delay of the current supply of the elevator motor, the starting delay of the disconnection process and a duration for adjusting the current with a ramp to zero are longer than the activation delay of the machinery brake. - an activation process of a machinery brake is started; - a disconnection process of the current supply is started for disconnecting the current supply occurring from the power source to the elevator motor; - the disconnection process of the current supply is started separately after the starting of the activation process of the machinery brake; - characterized in that the start of the disconnection process of the current supply is delayed by an amount of the starting delay from the starting moment of the activation process of the brake, wherein the starting delay of the disconnection process of the current supply is determined, in addition to being determined on the basis of an activation delay of the machinery brake, on the basis of a disconnection delay of the current supply of the elevator motor, wherein, when the starting delay of the disconnection process includes the disconnection delay of the current supply of the elevator motor, the starting delay of the disconnection process and a duration for adjusting the current with a ramp to zero are longer than the activation delay of the machinery brake.
Method of structuring a silicon wafer, the method comprising: • Placing the silicon wafer in an etching solution, wherein the silicon wafer comprises an exposed -oriented surface; • Generating a flow of the etching solution relative to the exposed -oriented surface of the silicon wafer such that a surface structure of a plurality of randomly distributed recesses is etched, wherein the recesses are polyhedral-shaped, wherein the etching solution contains hydrofluoric acid and hydrochloric acid as well as an oxidizing agent. • Placing the silicon wafer in an etching solution, wherein the silicon wafer comprises an exposed -oriented surface; • Generating a flow of the etching solution relative to the exposed -oriented surface of the silicon wafer such that a surface structure of a plurality of randomly distributed recesses is etched, wherein the recesses are polyhedral-shaped, wherein the etching solution contains hydrofluoric acid and hydrochloric acid as well as an oxidizing agent.
An ink jet print head having a plurality of ejection openings (22, 23, 24) formed therein to eject yellow, magenta and cyan inks (Y, M, C), the ink jet print head being characterized in that: at least one of a first ejection opening array (LG(y)), along which the plurality of ejection openings for ejecting one of the yellow, magenta and cyan inks are arrayed, is provided; at least one of a second ejection opening arrays (LG), along which the plurality of ejection openings (22, 23, 24) for ejecting one of the remaining two inks (M, C) are arrayed, is provided; at least one of a third ejection opening arrays (LG), along which the plurality of ejection openings (22, 23, 24) for ejecting the remaining ink are arrayed, is provided, wherein the first, second and third ejection opening arrays (LG, LG, LG) are arranged in parallel so as to align with each other in a predetermined direction, wherein the number of the first ejection opening arrays (LG) is less than the number of the second ejection opening arrays (LG) and the third ejection opening arrays (LG), and wherein a fourth ejection opening array (LG, LG(Bk), LG, LG), along which a plurality of ejection openings (22, 23, 24) for ejecting a fourth ink (G, Bk, R, LG) different from the yellow, magenta and cyan inks (Y, M, C), are provided arrayed, a fourth ejection opening array (LG, LG(Bk), LG, LG) being disposed between the first ejection opening array (LG) and the second or third ejection opening array (LG, LG) or when there are two second and third ejection opening arrays (LG, LG) between the first ejection opening array (LG) and each of the second or each of the third ejection opening arrays (LG, LG). at least one of a first ejection opening array (LG(y)), along which the plurality of ejection openings for ejecting one of the yellow, magenta and cyan inks are arrayed, is provided; at least one of a second ejection opening arrays (LG), along which the plurality of ejection openings (22, 23, 24) for ejecting one of the remaining two inks (M, C) are arrayed, is provided; at least one of a third ejection opening arrays (LG), along which the plurality of ejection openings (22, 23, 24) for ejecting the remaining ink are arrayed, is provided, wherein the first, second and third ejection opening arrays (LG, LG, LG) are arranged in parallel so as to align with each other in a predetermined direction, wherein the number of the first ejection opening arrays (LG) is less than the number of the second ejection opening arrays (LG) and the third ejection opening arrays (LG), and wherein a fourth ejection opening array (LG, LG(Bk), LG, LG), along which a plurality of ejection openings (22, 23, 24) for ejecting a fourth ink (G, Bk, R, LG) different from the yellow, magenta and cyan inks (Y, M, C), are provided arrayed, a fourth ejection opening array (LG, LG(Bk), LG, LG) being disposed between the first ejection opening array (LG) and the second or third ejection opening array (LG, LG) or when there are two second and third ejection opening arrays (LG, LG) between the first ejection opening array (LG) and each of the second or each of the third ejection opening arrays (LG, LG).
A secondary battery, comprising: an aqueous electrolyte comprising a surfactant, wherein the surfactant comprises one or more selected from the group consisting of polyoxyalkylene alkyl ether, polyetheylene glycol, polyvinyl alcohol, nonylphenyl eicosaethylene glycol ether, thiourea, disodium 3,3'-dithio bis (1-propanesulfonate), dimercaptothiadiazole, boric acid, oxalic acid, and malonic acid; a positive electrode; and a negative electrode comprising a negative electrode active material, wherein the negative electrode active material comprises at least one selected from the group consisting of an oxide of titanium, lithium titanium oxide, and lithium titanium composite oxide, a compound comprising an element A being present on at least a part of a surface of the negative electrode, the element A being at least one selected from the group consisting of Hg, Pb, Zn, and Bi, wherein the compound containing the element A covers the surface of the negative electrode with a proportion of 50% or more of the surface of the negative electrode, the proportion of the compound containing element A present on the surface of the negative electrode being measured by image analysis of a SEM image of the surface of the negative electrode using the method described in the specification. an aqueous electrolyte comprising a surfactant, wherein the surfactant comprises one or more selected from the group consisting of polyoxyalkylene alkyl ether, polyetheylene glycol, polyvinyl alcohol, nonylphenyl eicosaethylene glycol ether, thiourea, disodium 3,3'-dithio bis (1-propanesulfonate), dimercaptothiadiazole, boric acid, oxalic acid, and malonic acid; a positive electrode; and a negative electrode comprising a negative electrode active material, wherein the negative electrode active material comprises at least one selected from the group consisting of an oxide of titanium, lithium titanium oxide, and lithium titanium composite oxide, a compound comprising an element A being present on at least a part of a surface of the negative electrode, the element A being at least one selected from the group consisting of Hg, Pb, Zn, and Bi, wherein the compound containing the element A covers the surface of the negative electrode with a proportion of 50% or more of the surface of the negative electrode, the proportion of the compound containing element A present on the surface of the negative electrode being measured by image analysis of a SEM image of the surface of the negative electrode using the method described in the specification.
A blotter assembly for use in electrophoresis characterized in that the blotter assembly comprises a block and a closed-cell silicone blotter pad adhesively attached thereto and restricted against accidental movement relative thereto.
Intramedullary nail, comprising a driving end portion, and a non-driving end portion having a longitudinal axis, wherein the non-driving end portion comprises a locking hole arrangement with a first hole, a second hole, a third hole and a fourth hole, wherein the first hole is arranged closest to a non-driving end of the intramedullary nail than the second hole, the second hole is arranged closer to the non-driving end than the third hole, and the third hole is arranged closer to the non-driving end than the fourth hole, wherein the first hole and the fourth hole have a corresponding first orientation characterised in that the second hole and the third hole have a corresponding second orientation, wherein a distance between a centre axis of the first hole and a centre axis of the second hole corresponds to a distance between a centre axis of the third hole and a centre axis of the fourth hole.
A method of removing one or more mixed copper and dielectric layers from an area of a target, the method comprising: defining a target area to be removed, the target area including at least a portion of a mixed copper and dielectric layer of a semiconductor device; directing a precursor gas toward the target area; and directing a focused ion beam toward the target area in the presence of the precursor gas; characterized in that at least a portion of a first mixed copper and dielectric layer is removed and a uniformly smooth floor in the milled target area is produced; in which the precursor gas is selected from a group comprising: methyl acetate, methyl nitroacetate, ethyl acetate, ethyl nitroacetate, propyl acetate, propyl nitroacetate, nitro ethyl acetate, methyl methoxyacetate, and methoxy acetylchloride; and the precursor gas causes the focused ion beam to mill the copper at substantially the same rate as the dielectric. defining a target area to be removed, the target area including at least a portion of a mixed copper and dielectric layer of a semiconductor device; directing a precursor gas toward the target area; and directing a focused ion beam toward the target area in the presence of the precursor gas; characterized in that at least a portion of a first mixed copper and dielectric layer is removed and a uniformly smooth floor in the milled target area is produced; in which the precursor gas is selected from a group comprising: methyl acetate, methyl nitroacetate, ethyl acetate, ethyl nitroacetate, propyl acetate, propyl nitroacetate, nitro ethyl acetate, methyl methoxyacetate, and methoxy acetylchloride; and the precursor gas causes the focused ion beam to mill the copper at substantially the same rate as the dielectric.
A readily fibrillative polyvinyl alcohol fiber comprising a polyalkylene oxide, wherein a mass ratio of the polyalkylene oxide is 3 to 35% by mass relative to a total amount of a polyvinyl alcohol and the polyalkylene oxide, and wherein an acetalization degree of the polyvinyl alcohol is 3 to 40% by mol, determined according to the method disclosed in the description.
A casing for a steam turbine, the casing comprising: - a plurality of chambers (C1-C5) inside the casing capable of controlling a fluid flowing through the steam turbine in communication with a valve arrangement (400, 500); and characterized by: - machineable elements (301, 302, 303, 304, 305) configured to be removed, for enabling the accommodation of single valve and multi-valve arrangements, said machineable elements (301, 302, 303, 304, 305) when selectively machined from the casing decrease the number of the plurality of chambers (C1-C6) inside said casing, wherein after removing the machinable elements(301, 302, 303, 304, 305), the plurality of chambers (C1-C5) each accommodate a valve of the single valve or multi-valve arrangement for controlling the load points during operation of the steam turbine. - a plurality of chambers (C1-C5) inside the casing capable of controlling a fluid flowing through the steam turbine in communication with a valve arrangement (400, 500); and characterized by: - machineable elements (301, 302, 303, 304, 305) configured to be removed, for enabling the accommodation of single valve and multi-valve arrangements, said machineable elements (301, 302, 303, 304, 305) when selectively machined from the casing decrease the number of the plurality of chambers (C1-C6) inside said casing,
A method for producing H-shaped steel, the method comprising: a rough rolling step; an intermediate rolling step; and a finish rolling step, wherein a slab material whose slab width/slab thickness is equal to or more than 6.0 and equal to or less than 7.7 is used as a material to be rolled, in a rolling mill (3, 4) that performs the rough rolling step, a plurality of calibers K1, K2, K3, K4 to shape the material to be rolled are engraved, the number of the plurality of calibers being four or more, shaping of one or a plurality of passes is performed on the material to be rolled in the plurality of calibers, in a first caliber K1 and a second caliber K2 among the plurality of calibers, projections (25, 26, 35, 36) to create splits (28, 29, 38, 39) vertically with respect to a width direction of the material to be rolled are formed, the method characterised in that: the projections formed in the first caliber are designed to have a height of 100 mm or more, and the projections formed in the first caliber and the second caliber have a tip angle of 40° or less. a rough rolling step; an intermediate rolling step; and a finish rolling step, wherein a slab material whose slab width/slab thickness is equal to or more than 6.0 and equal to or less than 7.7 is used as a material to be rolled, in a rolling mill (3, 4) that performs the rough rolling step, a plurality of calibers K1, K2, K3, K4 to shape the material to be rolled are engraved, the number of the plurality of calibers being four or more, shaping of one or a plurality of passes is performed on the material to be rolled in the plurality of calibers, in a first caliber K1 and a second caliber K2 among the plurality of calibers, projections (25, 26, 35, 36) to create splits (28, 29, 38, 39) vertically with respect to a width direction of the material to be rolled are formed, the method characterised in that: the projections formed in the first caliber are designed to have a height of 100 mm or more, and the projections formed in the first caliber and the second caliber have a tip angle of 40° or less.
In vitro use of a recombinant polypeptide consisting of a sequence that is identical to the sequence of SEQ ID NO: 1 or consisting of a sequence that is identical to the sequence of SEQ ID NO: 1 and additionally having an affinity tag attached for the detection of the presence of Brachyspira hyodysenteriae.
An ornamental component (100,300) for a bracelet and / or a necklace, said ornamental component (100,300) having a through hole allowing said ornamental component (100,300) to be strung on an elongated member of a bracelet and / or necklace, said through hole defining a through hole axis (104,304); said ornamental component (100,300) comprising: • a self-supporting housing (101,301) having a through hole (150,350) comprising a first opening (151,351) at a first side of the self-supporting housing and a second opening (152,352) at a second side of the self-supporting housing; and • an insert assembly (102, 103, 370) inserted in said through hole (150,350) of said self-supporting housing (101, 301); characterized in that said insert assembly (102, 103,370) is assembled from a first tubular element (102,302) having a through hole that forms at least a part of said through hole of said ornamental component (100,300) and a gripping element (103,303) for frictionally gripping a part of said bracelet and / or necklace; wherein said first tubular element (102,302) is configured to secure said gripping element (103,303) inside said through hole of said ornamental component (100,300), said first tubular element comprises a first circumferential opening extending along the through hole axis (104, 304), said gripping element (103,303) comprises a first gripping portion for frictionally gripping said elongated member of said bracelet and / or necklace, wherein said first gripping portion extends through said first circumferential opening. • a self-supporting housing (101,301) having a through hole (150,350) comprising a first opening (151,351) at a first side of the self-supporting housing and a second opening (152,352) at a second side of the self-supporting housing; and • an insert assembly (102, 103, 370) inserted in said through hole (150,350) of said self-supporting housing (101, 301);
Device for testing a printed circuit board, the device comprising a contact plate and a plurality of contact pins which are provided to extend with their distal end through the contact plate, wherein each contact pin is spring-mounted with its proximal end relative to a mounting element (17,17a,17b), all this such that the contact pins can be pressed with their distal ends against the printed circuit board so as to set the spring-mounting at the position of the mounting element at least partially into action, wherein the contact pins are electrically connected to testing means, wherein the plurality of contact pins comprise a first set with at least one contact pin and wherein each of the at least one contact pin is placed in a corresponding sleeve, which sleeve is fixedly connected at the position of the mounting element and at the position of the contact plate, and wherein the contact pin can be moved at least partially through the sleeve, wherein the mounting element comprises drive means (12,24; 24,32,33) for pushing the contact pins, via the spring-mounting, through the contact plate; characterized in that: each of the at least one contact pin is located at the position of the contact plate on a first imaginary axis and is located at the position of the mounting element on a second imaginary axis, which differs from the first imaginary axis. wherein each contact pin is spring-mounted with its proximal end relative to a mounting element (17,17a,17b), all this such that the contact pins can be pressed with their distal ends against the printed circuit board so as to set the spring-mounting at the position of the mounting element at least partially into action, wherein the contact pins are electrically connected to testing means, wherein the plurality of contact pins comprise a first set with at least one contact pin and wherein each of the at least one contact pin is placed in a corresponding sleeve, which sleeve is fixedly connected at the position of the mounting element and at the position of the contact plate, and wherein the contact pin can be moved at least partially through the sleeve, wherein the mounting element comprises drive means (12,24; 24,32,33) for pushing the contact pins, via the spring-mounting, through the contact plate; characterized in that: each of the at least one contact pin is located at the position of the contact plate on a first imaginary axis and is located at the position of the mounting element on a second imaginary axis, which differs from the first imaginary axis.
A flow control device comprising: (a) a cap member configured and dimensioned for cooperation with a fluid container; (b) an overcap movably mounted with respect to said cap member, said overcap defining a central opening; and (c) a ball captured between said cap member and said overcap, said ball being sized to obstruct fluid passage through said central opening; wherein a variable flow clearance may be established by rotating said overcap relative to said cap member, characterized in that the cap member includes a cylindrical base portion and a cylindrical mating extension, and wherein a series of circumferentially spaced ridges are formed on the exterior of said mating extension, and that a stop is formed on the interior of said overcap, and wherein said stop is configured and dimensioned to contact said series of circumferentially spaced ridges as said overcap is rotated relative to said cap member, whereby contact of said stop with said series of circumferentially spaced ridges provides a tactile sensation as said overcap is rotated relative to said cap member. (a) a cap member configured and dimensioned for cooperation with a fluid container; (b) an overcap movably mounted with respect to said cap member, said overcap defining a central opening; and (c) a ball captured between said cap member and said overcap, said ball being sized to obstruct fluid passage through said central opening;
A process for obtaining a thermopressed composite material composed of 100% textile waste with multiple fiber composition and PP foil waste wherein the PP waste forms a matrix which is reinforced with textile waste with multiple fiber composition which comprises the following successive steps: a) the horizontal placement of textile waste with multiple fiber composition and PP foil waste on top of each other, in the form of a sandwich, in a ratio between components C1 and C2 within the range of 1:1 to 5:1, preferably 1.5:1, expressed in mass ratios relative to the total mass, in a mixing bed, and wherein C1 is said textile waste and C2 is said PP foil waste b) taking the mixing bed resulting in step a) vertically and cutting it into multiple strips and/or patches by means of a cutting unit; c) heat pressing of the cut material resulting in step b)to obtain the thermopressed composite material. a) the horizontal placement of textile waste with multiple fiber composition and PP foil waste on top of each other, in the form of a sandwich, in a ratio between components C1 and C2 within the range of 1:1 to 5:1, preferably 1.5:1, expressed in mass ratios relative to the total mass, in a mixing bed, and wherein C1 is said textile waste and C2 is said PP foil waste b) taking the mixing bed resulting in step a) vertically and cutting it into multiple strips and/or patches by means of a cutting unit; c) heat pressing of the cut material resulting in step b)to obtain the thermopressed composite material.