mhurhangee/patent-ind-claim-en huggingface dataset:
A method of providing alternate query suggestions for time bound results, comprising: receiving , by a query suggestion server , a query comprising one or more dimensions and a target time for executing the query from a user device associated to a user; the method being characterized by , determining , in real time, by the query suggestion server , execution time for the received query; if the execution time for the received query is less than the target time executing the query and the query result is provided to the user, or if the execution time for the received query is more than the target time identifying , by the query suggestion server , one or more alternate query suggestions; and providing , by the query suggestion server , the one or more alternate query suggestions to the user device for modifying the query. receiving , by a query suggestion server , a query comprising one or more dimensions and a target time for executing the query from a user device associated to a user; the method being characterized by , determining , in real time, by the query suggestion server , execution time for the received query; if the execution time for the received query is less than the target time executing the query and the query result is provided to the user, or if the execution time for the received query is more than the target time identifying , by the query suggestion server , one or more alternate query suggestions; and providing , by the query suggestion server , the one or more alternate query suggestions to the user device for modifying the query.
A multi-cell battery apparatus comprising: - a plurality of voltage-stacked battery cell circuits , each including - a battery cell (102a or 102b, 202a, 202b) having an upper voltage terminal and a lower voltage terminal, and - a switchable resistive-divider circuit , having an input node disposed between the upper voltage terminal and the lower voltage terminal, configured to output a controlled-load voltage drop relative to the upper voltage terminal and the lower voltage terminal; and - a control circuit configured to selectively activate the switchable resistive-divider circuit and, in response to the respective switchable resistive-divider circuit being selectively activated, configured to measure the controlled-load voltage drop, characterized in that the switchable resistive-divider circuit includes a pair of resistive-dividers interconnected via a selectively activated switch and are cooperatively arranged to provide the controlled-load voltage drop relative to the upper voltage terminal and the lower voltage terminal upon activation of the switchable resistive-divider circuit . - a plurality of voltage-stacked battery cell circuits , each including - a battery cell (102a or 102b, 202a, 202b) having an upper voltage terminal and a lower voltage terminal, and - a switchable resistive-divider circuit , having an input node disposed between the upper voltage terminal and the lower voltage terminal, configured to output a controlled-load voltage drop relative to the upper voltage terminal and the lower voltage terminal; and - a control circuit configured to selectively activate the switchable resistive-divider circuit and, in response to the respective switchable resistive-divider circuit being selectively activated, configured to measure the controlled-load voltage drop,
Sterilization and anti-bacterialization equipment for creating active oxygen species, comprising an anode electrode , a cathode electrode , wherein the capability of creating active oxygen species is provided to the cathode electrode by means that polyaniline is in contact with the surface of the cathode electrode ; water to be treated intervening between said both electrodes, the water between said both electrodes being electrically energized to create active oxygen species, wherein: said anode electrode is made of a polymeric material without electrical conductivity and an electrically conductive carbon filler,wherein said anode electrode and said cathode electrode are disposed such that a part of said anode electrode and a part of said cathode electrode are immersed in water and other part of said anode electrode and other part of said cathode electrode are projected to air from the surface of the water .
A master piston for a hydraulic vehicle brake which can be arranged in a master cylinder of the hydraulic vehicle brake so as to be movable in a reciprocal manner along the master piston longitudinal axis (L), wherein the master piston comprises a piston element with at least one seal and wherein the seal is injection molded onto the piston element , wherein the master piston has at least one guide portion for guiding the master piston in the master cylinder, wherein the guide portion is elastically deformable at least in some portions in a radial direction to the longitudinal axis (L), wherein the guide portion is formed at least partially from a different material than the piston element , characterized in that the piston element , the at least one seal and the at least one guide portion are produced together by a multi-component injection molding method.
A method of generating at least one derived identity of an individual which can be associated by a service supplier to personal data of the individual, the method comprising the following steps: • generating a first identifier (id1) from biometric data of the individual; • defining a serial number (ns) associated with the individual; • generating first check data (ctrl1) for verifying consistency between the first identifier (id1) and the serial number (ns); and • concatenating the serial number (ns), the first identifier (id1), and the first check data (ctrll) in such a manner as to form a first derived identity (ident1) of the individual, wherein, when the service supplier facilitates that the individual gaining access to a service using the first derived identity, it is not possible for the service supplier to identify the individual from personal data of the individual stored in storage means of the service supplier adapted to cooperate with the processing means of the service supplier. • generating a first identifier (id1) from biometric data of the individual; • defining a serial number (ns) associated with the individual; • generating first check data (ctrl1) for verifying consistency between the first identifier (id1) and the serial number (ns); and • concatenating the serial number (ns), the first identifier (id1), and the first check data (ctrll) in such a manner as to form a first derived identity (ident1) of the individual,
Use of a duplex stainless steel in a urea production plant and/or in a urea production process, wherein the duplex stainless steel is used in a urea environment and in contact with a fluid comprising ammonium carbamate, and wherein the duplex stainless steel contains in weight percentage (%w): C 0,03 or less Si 0,5 or less Mn 2,5 or less Cr from more than 30,0 to 35,0 Ni from 5,5 to 8,0 Co from 0,01 to 0,8 Mo from 2,0 to 2,5 W 2,5 or less N from 0,3 to 0,6 Cu 1,0 or less having one or more of the following: Ca 0,0040 or less Mg 0,0040 or less one or more rare-earth elements in a total amount of 0,1 or less; the balance being Fe and impurities; wherein the duplex stainless steel has a composition parameter (Z), representative of the combined contents of Ni, Co, Mo and defined by formula (I): Z = 1,062 Ni + Co + 4,185 Mo where Ni, Co, Mo indicate the weight percentage of Ni, Co, Mo respectively; said composition parameter (Z) ranging between 14,95 and 19,80. C 0,03 or less Si 0,5 or less Mn 2,5 or less Cr from more than 30,0 to 35,0 Ni from 5,5 to 8,0 Co from 0,01 to 0,8 Mo from 2,0 to 2,5 W 2,5 or less N from 0,3 to 0,6 Cu 1,0 or less Ca 0,0040 or less Mg 0,0040 or less one or more rare-earth elements in a total amount of 0,1 or less;
A dismountable table comprising a tabletop fastened by fasteners on a structure forming a frame, the structure including a flange coming flat under the tabletop, each fastener comprising a latch , rotatable along an axis of rotation which is vertical, having at least one boss projecting laterally, and comprising a recess , formed across the thickness of the tabletop and emerging in the lower face of the tabletop, having at least one protrusion formed across the thickness of the tabletop and oriented towards the axis of rotation, in a mounting position the at least one boss of each latch fitting into the respective recess next to the respective at least one protrusion , and in a blocking position after rotation the at least one boss of each latch fitting above the respective at least one protrusion , a lower bearing plane of each latch coming under the flange of the structure .
A method, comprising: (i) contacting an anode with an aqueous anode electrolyte wherein the aqueous anode electrolyte comprises metal halide and alkali metal or alkaline earth metal halide; contacting a cathode with a cathode electrolyte; separating the anode and the cathode by at least one ion exchange membrane; applying a voltage to the anode and the cathode and oxidizing the metal halide with metal ion in a lower oxidation state to a higher oxidation state at the anode; (ii) halogenating an unsaturated hydrocarbon or a saturated hydrocarbon with the aqueous anode electrolyte comprising the metal halide with the metal ion in the higher oxidation state and the alkali metal or alkaline earth metal halide to result in one or more organic compounds or enantiomers thereof and the metal halide with the metal ion in the lower oxidation state; and (iii) oxyhalogenating the metal halide with the metal ion in the lower oxidation state to the higher oxidation state in presence of an oxidant and the alkali metal or alkaline earth metal halide in the aqueous medium; wherein the step (iii) is in series with the step (i), or the step (i) is in series with the step (iii), wherein the oxidizing, the halogenation and the oxyhalogenating steps are carried out in the aqueous alkali metal halide. (i) contacting an anode with an aqueous anode electrolyte wherein the aqueous anode electrolyte comprises metal halide and alkali metal or alkaline earth metal halide; contacting a cathode with a cathode electrolyte; separating the anode and the cathode by at least one ion exchange membrane; applying a voltage to the anode and the cathode and oxidizing the metal halide with metal ion in a lower oxidation state to a higher oxidation state at the anode; (ii) halogenating an unsaturated hydrocarbon or a saturated hydrocarbon with the aqueous anode electrolyte comprising the metal halide with the metal ion in the higher oxidation state and the alkali metal or alkaline earth metal halide to result in one or more organic compounds or enantiomers thereof and the metal halide with the metal ion in the lower oxidation state; and (iii) oxyhalogenating the metal halide with the metal ion in the lower oxidation state to the higher oxidation state in presence of an oxidant and the alkali metal or alkaline earth metal halide in the aqueous medium; wherein the step (iii) is in series with the step (i), or the step (i) is in series with the step (iii), wherein the oxidizing, the halogenation and the oxyhalogenating steps are carried out in the aqueous alkali metal halide.
A coating material comprising: (A) 100 parts by mass of an acrylic curable resin; (B) 5-250 parts by mass of aluminum oxide particles having an average particle diameter of 1-100 μm; (C) 0.1-20 parts by mass of aluminum oxide fine particles having an average particle diameter of 1-100 nm; and (D) 1-100 parts by mass of a compound having two or more isocyanate groups per molecule, wherein the acrylic curable resin (A) comprises: (a1) a structural unit derived from a hydroxyl group-containing (meth)acrylic acid ester; and wherein the average particle diameter of the particles of component (B) or the fine particles of component (C) is a particle diameter at an accumulation from the smaller of the particles of 50 mass% in the particle diameter distribution curve measured using a laser diffraction/scattering type particle size analyzer. (A) 100 parts by mass of an acrylic curable resin; (B) 5-250 parts by mass of aluminum oxide particles having an average particle diameter of 1-100 μm; (C) 0.1-20 parts by mass of aluminum oxide fine particles having an average particle diameter of 1-100 nm; and (D) 1-100 parts by mass of a compound having two or more isocyanate groups per molecule, (a1) a structural unit derived from a hydroxyl group-containing (meth)acrylic acid ester; and wherein the average particle diameter of the particles of component (B) or the fine particles of component (C) is a particle diameter at an accumulation from the smaller of the particles of 50 mass% in the particle diameter distribution curve measured using a laser diffraction/scattering type particle size analyzer.
A charging roller comprising: an electroconductive mandrel ; and an electroconductive layer as a surface layer, the electroconductive layer including a matrix containing a cross-linked product of a first rubber and domains dispersed in the matrix , each of the domains containing a cross-linked product of a second rubber and an electroconductive particle, the domains each having a volume resistivity lower than a volume resistivity of the matrix, wherein when sampling a cubic sample of the electroconductive layer having a side of 20.0 μm from a region from an outer surface of the electroconductive layer to a depth of 20.0 μm, 50 number% or more of all the domains in the cubic sample satisfy the following condition: Assuming that a domain to be judged in the cubic sample is enveloped by an enveloping cuboid of which all the six surfaces are in contact with the domain , the enveloping cuboid having two surfaces each of which is perpendicular to a line segment L, the line segment L passing through at least one arbitrary point in the domain to be judged and being perpendicular to a surface of the mandrel , "x" is longer than "y" and "z", where "x" is a length of the enveloping cuboid in an X-axis direction, "y" is a length thereof in a Y-axis direction, and "z" is a length thereof in a Z-axis direction, and a line segment S that is perpendicular to the line segment L and is parallel to the X-axis is able to be drawn. an electroconductive mandrel ; and an electroconductive layer as a surface layer, the electroconductive layer including a matrix containing a cross-linked product of a first rubber and domains dispersed in the matrix , each of the domains containing a cross-linked product of a second rubber and an electroconductive particle, the domains each having a volume resistivity lower than a volume resistivity of the matrix, wherein when sampling a cubic sample of the electroconductive layer having a side of 20.0 μm from a region from an outer surface of the electroconductive layer to a depth of 20.0 μm, 50 number% or more of all the domains in the cubic sample satisfy the following condition: Assuming that a domain to be judged in the cubic sample is enveloped by an enveloping cuboid of which all the six surfaces are in contact with the domain , the enveloping cuboid having two surfaces each of which is perpendicular to a line segment L, the line segment L passing through at least one arbitrary point in the domain to be judged and being perpendicular to a surface of the mandrel , "x" is longer than "y" and "z", where "x" is a length of the enveloping cuboid in an X-axis direction, "y" is a length thereof in a Y-axis direction, and "z" is a length thereof in a Z-axis direction, and a line segment S that is perpendicular to the line segment L and is parallel to the X-axis is able to be drawn.
A thermo spray gun comprising at least one of: at least one removable nozzle tip for spraying a coating material; at least one replaceable nozzle tip for spraying a coating material; and at least one interchangeable nozzle tip for spraying a coating material, wherein the thermo spray gun further comprises a current carrying section comprising a neutral section , an anode section , a nozzle base , a cathode which generates an electric arc , electrically insulated and water-tight seals , and a cooling water channel , wherein the anode section serves as the positive connection for the plasma arc inside a gun bore characterized in that the nozzle tip is engageable with the nozzle base , wherein said nozzle tip is removable from the thermo spray gun while the anode section remains coupled to the thermo spray gun , wherein the nozzle tip is placed, when installed, downstream of the anode section , wherein the nozzle tip determines the operating regime of the thermos spray gun , and wherein an exposed outer section of the nozzle tip is configured to be gripped by a gripping device for automatic removal or installation of the nozzle tip . at least one removable nozzle tip for spraying a coating material; at least one replaceable nozzle tip for spraying a coating material; and at least one interchangeable nozzle tip for spraying a coating material, wherein the thermo spray gun further comprises a current carrying section comprising a neutral section , an anode section , a nozzle base , a cathode which generates an electric arc , electrically insulated and water-tight seals , and a cooling water channel , wherein the anode section serves as the positive connection for the plasma arc inside a gun bore characterized in that the nozzle tip is engageable with the nozzle base , wherein said nozzle tip is removable from the thermo spray gun while the anode section remains coupled to the thermo spray gun , wherein the nozzle tip is placed, when installed, downstream of the anode section , wherein the nozzle tip determines the operating regime of the thermos spray gun , and wherein an exposed outer section of the nozzle tip is configured to be gripped by a gripping device for automatic removal or installation of the nozzle tip .
A process for the preparation of [3-[[ -2-[ -1-[3,5-bis(trifluoromethyl)phenyl]ethoxy]-3-(4-fluorophenyl)-4-morpholinyl]methyl]-2,5-dihydro-5-oxo-1H-1,2,4-triazol-1-yl]-phosphonic acid bis(phenylmethyl) ester (fosaprepitant dibenzyl ester) of formula II, comprising the steps of, (a) obtaining a solution of fosaprepitant dibenzyl ester of formula II in at least one solvent or a mixture of solvents thereof, (b) adding an inorganic acid to the solution obtained in step (a), wherein the inorganic acid is boric acid, (c) concentrating the reaction mass obtained in step (b), (d) adding at least one solvent or a mixture of solvents thereof to the reaction mass obtained in step (c), (e) filtering the reaction mass obtained in step (d) to obtain a residue, Residue-A, (f) adding at least one solvent or a mixture of solvents thereof to the residue obtained in step (e), (g) filtering the reaction mass obtained in step (f) to obtain a residue, Residue-B, (h) adding at least one solvent or a mixture of solvents thereof to the residue obtained in step (g), (i) filtering the reaction mass obtained in step (h), (j) concentrating the filtrate obtained in step (i) to yield fosaprepitant dibenzyl ester of purity > 96 %. (a) obtaining a solution of fosaprepitant dibenzyl ester of formula II in at least one solvent or a mixture of solvents thereof, (b) adding an inorganic acid to the solution obtained in step (a), wherein the inorganic acid is boric acid, (c) concentrating the reaction mass obtained in step (b), (d) adding at least one solvent or a mixture of solvents thereof to the reaction mass obtained in step (c), (e) filtering the reaction mass obtained in step (d) to obtain a residue, Residue-A, (f) adding at least one solvent or a mixture of solvents thereof to the residue obtained in step (e), (g) filtering the reaction mass obtained in step (f) to obtain a residue, Residue-B, (h) adding at least one solvent or a mixture of solvents thereof to the residue obtained in step (g), (i) filtering the reaction mass obtained in step (h), (j) concentrating the filtrate obtained in step (i) to yield fosaprepitant dibenzyl ester of purity > 96 %.
An optical scanning device , comprising: a substrate having at least one through hole portion ; a light source and a MEMS optical deflector mounted on the substrate; an optical element generating an optical path which causes a light beam emitted from the light source to enter the MEMS optical deflector; a bottom plate arranged below the substrate; and a columnar protruding portion having a lower end larger in size than a through hole of the through hole portion and fixed to an upper surface of the bottom plate in a shape tapered toward a tip of the columnar protruding portion, and having an upper portion fitted into the through hole portion, wherein at least one of the upper portion of the columnar protruding portion and the through hole portion is plastically deformed so that the two are fitted to each other, and wherein a relative inclination angle between the substrate and the bottom plate is defined by a fitting angle between the through hole portion and the columnar protruding portion. a substrate having at least one through hole portion ; a light source and a MEMS optical deflector mounted on the substrate; an optical element generating an optical path which causes a light beam emitted from the light source to enter the MEMS optical deflector; a bottom plate arranged below the substrate; and a columnar protruding portion having a lower end larger in size than a through hole of the through hole portion and fixed to an upper surface of the bottom plate in a shape tapered toward a tip of the columnar protruding portion, and having an upper portion fitted into the through hole portion, wherein at least one of the upper portion of the columnar protruding portion and the through hole portion is plastically deformed so that the two are fitted to each other, and wherein a relative inclination angle between the substrate and the bottom plate is defined by a fitting angle between the through hole portion and the columnar protruding portion.
Use of a polyolefin-based foam comprising a mixture of (a) 40.9 to 99.9% by weight of at least one HDPE polymer with a multimodal molecular weight distribution, (b) 0.1 to 59.1% by weight of at least one ionomer selected from ionically crosslinked thermoplastic copolymers in which a proportion of 1 to 40% of repeat units bears ionic groups and optionally ionisable groups, and (c) 0 to 59% by weight of at least one component selected from LDPEs, metallocene LDPEs, LLDPEs, metallocene LLDPEs, MDPEs, polar copolymers of ethylene, thermoplastic elastomers with styrene blocks and thermoplastic elastomers containing an elastomer phase of the crosslinked silicone type, for the production of thermal insulation tubes, thermal insulation panels, separation wedges for high-temperature rooms, or gaskets resistant to temperatures of above 90°C. (a) 40.9 to 99.9% by weight of at least one HDPE polymer with a multimodal molecular weight distribution, (b) 0.1 to 59.1% by weight of at least one ionomer selected from ionically crosslinked thermoplastic copolymers in which a proportion of 1 to 40% of repeat units bears ionic groups and optionally ionisable groups, and (c) 0 to 59% by weight of at least one component selected from LDPEs, metallocene LDPEs, LLDPEs, metallocene LLDPEs, MDPEs, polar copolymers of ethylene, thermoplastic elastomers with styrene blocks and thermoplastic elastomers containing an elastomer phase of the crosslinked silicone type,