mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a sintered magnet comprising: a first step of forming a sintered body by sintering a raw material alloy for an R-T-B based rare earth magnet; a second step of attaching, to the sintered body, a heavy rare earth compound containing a heavy rare earth element; a third step of heat-treating the sintered body to which the heavy rare earth compound has been attached; a fourth step of heat-treating the sintered body heat-treated in the third step, at a higher temperature than a heat treatment temperature in the third step; and a fifth step of cooling the sintered body heat-treated in the fourth step, at a cooling rate of 20°C/min or more. a first step of forming a sintered body by sintering a raw material alloy for an R-T-B based rare earth magnet; a second step of attaching, to the sintered body, a heavy rare earth compound containing a heavy rare earth element; a third step of heat-treating the sintered body to which the heavy rare earth compound has been attached; a fourth step of heat-treating the sintered body heat-treated in the third step, at a higher temperature than a heat treatment temperature in the third step; and a fifth step of cooling the sintered body heat-treated in the fourth step, at a cooling rate of 20°C/min or more.
A method for manufacturing sliced frozen onion, shallot or garlic, comprising cleaning , slicing and freezing of a raw material, characterized in that unnecessary organic components are removed , at least partly mechanically, from the raw material which was first sliced and then frozen.
An aircraft comprising a lightning current controlling device comprising: - a first charged part that is configured to be positively charged to have a higher probability of being a location struck by negative lightning; - a second charged part that is configured to be negatively charged to have a higher probability of being a location struck by positive lightning; and - an electrostatic generator that is configured to positively charge the first charged part , wherein the second charged part is configured to be negatively charged by the electrostatic generator or by friction with air, and wherein the first charged part and the second charged part each include a dielectric and are provided in an air-exposed state; and - wherein the second charged part includes polytetrafluoroethylene, acrylic resin, or both. - a first charged part that is configured to be positively charged to have a higher probability of being a location struck by negative lightning; - a second charged part that is configured to be negatively charged to have a higher probability of being a location struck by positive lightning; and - an electrostatic generator that is configured to positively charge the first charged part , wherein the second charged part is configured to be negatively charged by the electrostatic generator or by friction with air, and wherein the first charged part and the second charged part each include a dielectric and are provided in an air-exposed state; and wherein the second charged part is configured to be negatively charged by the electrostatic generator or by friction with air, and wherein the first charged part and the second charged part each include a dielectric and are provided in an air-exposed state; and - wherein the second charged part includes polytetrafluoroethylene, acrylic resin, or both.
A disc brake assembly comprising: a brake rotor , the brake rotor having an internal wall forming a circular pocket , an anti-lock brake sensing ring , the brake rotor having a plurality of locating tabs , each locating tab extending radially inward into the brake rotor circular pocket from the internal wall of the brake rotor , the anti-lock brake sensing ring having a plurality of retaining tabs , each retaining tab being positioned between two adjacent locating tabs of the brake rotor , and a retaining ring , the disc brake assembly characterised in that : each locating tab has a sloped surface as part of a retaining groove, and in that the retaining ring is positioned against at least two of the sloped surfaces of the retaining groove of the brake rotor , with the retaining ring also positioned against at least two of the retaining tabs of the anti-lock brake sensing ring . a brake rotor , the brake rotor having an internal wall forming a circular pocket , an anti-lock brake sensing ring , the brake rotor having a plurality of locating tabs , each locating tab extending radially inward into the brake rotor circular pocket from the internal wall of the brake rotor , the anti-lock brake sensing ring having a plurality of retaining tabs , each retaining tab being positioned between two adjacent locating tabs of the brake rotor , and a retaining ring , the disc brake assembly characterised in that : each locating tab has a sloped surface as part of a retaining groove, and in that the retaining ring is positioned against at least two of the sloped surfaces of the retaining groove of the brake rotor , with the retaining ring also positioned against at least two of the retaining tabs of the anti-lock brake sensing ring . each locating tab has a sloped surface as part of a retaining groove, and in that the retaining ring is positioned against at least two of the sloped surfaces of the retaining groove of the brake rotor , with the retaining ring also positioned against at least two of the retaining tabs of the anti-lock brake sensing ring .
An evacuation slide , comprising: a first side tube extending longitudinally between a head end and a toe end of the evacuation slide ; a second side tube extending longitudinally between the head end and the toe end of the evacuation slide; a center tube extending longitudinally between the head end and the toe end of the evacuation slide ; an arched tube configured to extend between the first side tube and the second side tube of the evacuation slide , the arched tube extends substantially orthogonal to the center tube , the arched tube comprising a concave surface , wherein first and second load paths are formed from the first and second side tubes to the arched tube ; and a strap coupled between the arched tube and the center tube of the evacuation slide , wherein the arched tube is configured to provide vertical support to the first side tube and to the second side tube in response to a tension in the strap , and a third load path is formed between the arched tube and the center tube at a point of contact between the arched tube and the center tube wherein the load is transferred via the arched tube , in response to the arched tube contacting the center tube at concave surface , and a fourth load path is formed between the arched tube and the center tube via the strap. a first side tube extending longitudinally between a head end and a toe end of the evacuation slide ; a second side tube extending longitudinally between the head end and the toe end of the evacuation slide; a center tube extending longitudinally between the head end and the toe end of the evacuation slide ; an arched tube configured to extend between the first side tube and the second side tube of the evacuation slide , the arched tube extends substantially orthogonal to the center tube , the arched tube comprising a concave surface , wherein first and second load paths are formed from the first and second side tubes to the arched tube ; and a strap coupled between the arched tube and the center tube of the evacuation slide , wherein the arched tube is configured to provide vertical support to the first side tube and to the second side tube in response to a tension in the strap , and a third load path is formed between the arched tube and the center tube at a point of contact between the arched tube and the center tube wherein the load is transferred via the arched tube , in response to the arched tube contacting the center tube at concave surface , and a fourth load path is formed between the arched tube and the center tube via the strap.
A control system for assisting an operator of a working machine, the working machine comprising a bucket arranged to receive a load to be unloaded to a load receiving vessel, the control system comprising processing circuitry arranged in communication with an operator interface, wherein the processing circuitry is adapted to: - estimate a difference between a desired payload for the load receiving vessel and an accumulated weight of buckets of loads already unloaded to the load receiving vessel using the bucket, - determine if the difference corresponds to an estimated weight for a fully loaded bucket or to an estimated weight for a half-loaded bucket, and - instruct, using the operator interface and based on the determination, an operator of the working machine to unload a fully loaded bucket or a half-loaded bucket to the load receiving vessel, characterized in that : - the estimated weight for a fully loaded bucket corresponds to the heaviest bucket load of a plurality of consecutive bucket loads, or - the estimated weight for a fully loaded bucket corresponds to an average of a plurality of consecutive bucket loads. - estimate a difference between a desired payload for the load receiving vessel and an accumulated weight of buckets of loads already unloaded to the load receiving vessel using the bucket, - determine if the difference corresponds to an estimated weight for a fully loaded bucket or to an estimated weight for a half-loaded bucket, and - instruct, using the operator interface and based on the determination, an operator of the working machine to unload a fully loaded bucket or a half-loaded bucket to the load receiving vessel, - the estimated weight for a fully loaded bucket corresponds to the heaviest bucket load of a plurality of consecutive bucket loads, or - the estimated weight for a fully loaded bucket corresponds to an average of a plurality of consecutive bucket loads.
An electron beam apparatus comprising an electron source for producing a primary beam of electrons, a condenser lens for shaping said primary beam of electrons, scanning means for deflecting said primary beam of electrons, an objective lens for focusing said primary beam, further comprising beam shaping means being aperture means for collimating said primary beam of electrons, wherein said aperture means is adapted to switch between a collimation of said primary beam to a width appropriate for serial imaging and a collimation of said primary beam to a width appropriate for parallel imaging, and a sectorized detector configured to detect secondary electrons emitted from a surface of a sample . beam shaping means being aperture means for collimating said primary beam of electrons, wherein said aperture means is adapted to switch between a collimation of said primary beam to a width appropriate for serial imaging and a collimation of said primary beam to a width appropriate for parallel imaging, and a sectorized detector configured to detect secondary electrons emitted from a surface of a sample .
A system for processing an agricultural waste biomass product into a grinded product, comprising: - a cutting and mixing unit configured for cutting and mixing harvested biomass to a first uniform size and blend, - a grinder unit configured for cutting biomass to a second uniform size, wherein the cutting and mixing unit is in fluid communication with the grinder unit through a first transport unit configured for transporting the biomass from the cutting and mixing unit to the grinder unit, and characterized in that the grinder unit comprises two or more rotating wheels, said rotating wheels having rotation axes with an angular displacement. - a cutting and mixing unit configured for cutting and mixing harvested biomass to a first uniform size and blend, - a grinder unit configured for cutting biomass to a second uniform size, wherein the cutting and mixing unit is in fluid communication with the grinder unit through a first transport unit configured for transporting the biomass from the cutting and mixing unit to the grinder unit, and
A Ni sintered ferrite body, characterized in that said Ni sintered ferrite body has a composition comprising, calculated as oxide, 47.0 to 48.3% by mol of Fe 2 O 3 , 14.5% or more and less than 25% by mol of ZnO, 8.2 to 10.0% by mol of CuO, and more than 0.6% and 2.5% or less by mol of CoO, the balance being NiO and inevitable impurities, and having an average crystal grain size of more than 2.5 μm and less than 5.5 μm, optionally containing less than 4 parts by mass of Sn calculated as SnO 2 , based on 100 parts by mass of the total amount of Fe 2 O 3 , ZnO, CuO, CoO and NiO.
A battery module housing assembly, comprising: - a housing comprising an electronics compartment and a cell receptacle region and further comprising a first protruding shelf disposed along a first perimeter of the housing and a second protruding shelf disposed along a second perimeter of the housing , wherein the first protruding shelf and the second protruding shelf each comprise an absorptive material configured to absorb a first laser emission; - an electronics compartment cover configured to cover the electronics compartment , wherein the electronics compartment cover is coupled to the housing via a first laser weld, wherein the electronics compartment cover comprises a first transparent material configured to transmit the first laser emission through the electronics compartment cover and toward the first protruding shelf ; and - a cell receptacle region cover configured to cover the cell receptacle region , wherein the cell receptacle region cover is coupled to the housing via a second laser weld, wherein the cell receptacle region cover comprises a second transparent material configured to transmit the first laser emission or a second laser emission through the cell receptacle region cover and toward the second protruding shelf . - a housing comprising an electronics compartment and a cell receptacle region and further comprising a first protruding shelf disposed along a first perimeter of the housing and a second protruding shelf disposed along a second perimeter of the housing , wherein the first protruding shelf and the second protruding shelf each comprise an absorptive material configured to absorb a first laser emission; - an electronics compartment cover configured to cover the electronics compartment , wherein the electronics compartment cover is coupled to the housing via a first laser weld, wherein the electronics compartment cover comprises a first transparent material configured to transmit the first laser emission through the electronics compartment cover and toward the first protruding shelf ; and - a cell receptacle region cover configured to cover the cell receptacle region , wherein the cell receptacle region cover is coupled to the housing via a second laser weld, wherein the cell receptacle region cover comprises a second transparent material configured to transmit the first laser emission or a second laser emission through the cell receptacle region cover and toward the second protruding shelf .
A method for inspecting a short circuit, the method comprising: a step of pre-aging a plurality of battery cells each one being prepared by accommodating an electrode assembly in which a positive electrode and a negative electrode are stacked with a separator interposed therebetween in a battery container, then injecting an electrolyte, and sealing the battery container (S100); a step of accommodating the plurality of battery cells in an activation jig (S200); a step of pressing the activation jig (S300); and a step of inspecting current of the battery cells (S400), wherein the method is performed before a first formation process, and wherein the step of inspecting the battery cells (S400) comprises: applying a constant voltage to the battery cell (S410); and detecting a separator defect by measuring a leakage current (S420) . a step of pre-aging a plurality of battery cells each one being prepared by accommodating an electrode assembly in which a positive electrode and a negative electrode are stacked with a separator interposed therebetween in a battery container, then injecting an electrolyte, and sealing the battery container (S100); a step of accommodating the plurality of battery cells in an activation jig (S200); a step of pressing the activation jig (S300); and a step of inspecting current of the battery cells (S400), wherein the method is performed before a first formation process, and wherein the step of inspecting the battery cells (S400) comprises: applying a constant voltage to the battery cell (S410); and detecting a separator defect by measuring a leakage current (S420) . applying a constant voltage to the battery cell (S410); and detecting a separator defect by measuring a leakage current (S420) .
A sprayable oil-in-water quick break emulsion composition, for application to a plant to control plant pests, the oil-in-water quick break emulsion composition comprising: a paraffinic oil; an emulsifier comprising a block copolymer emulsifier, an alkyl polysaccharide emulsifier, a blend of a random polymeric emulsifier and a block copolymer emulsifier, a blend of a polyoxyethylene quaternary amine emulsifier and an alkyl glyceride emulsifier or a blend of an alcohol ethoxylate emulsifier and an alkyl glyceride emulsifier; 0.01% to 0.1% by weight of a stabilizer selected from the group consisting of a benzoic acid, a benzoic acid salt, 2-aminobenzoate, 3-aminobenzoate, 4-aminobenzoate, a paraben, and mixtures of two or more thereof; and water. a paraffinic oil; an emulsifier comprising a block copolymer emulsifier, an alkyl polysaccharide emulsifier, a blend of a random polymeric emulsifier and a block copolymer emulsifier, a blend of a polyoxyethylene quaternary amine emulsifier and an alkyl glyceride emulsifier or a blend of an alcohol ethoxylate emulsifier and an alkyl glyceride emulsifier; 0.01% to 0.1% by weight of a stabilizer selected from the group consisting of a benzoic acid, a benzoic acid salt, 2-aminobenzoate, 3-aminobenzoate, 4-aminobenzoate, a paraben, and mixtures of two or more thereof; and water.
A clamp assembly for clamping an outer peripheral portion of a substrate to a support in a plasma processing chamber of the type in which an RF bias power is applied to the support during the plasma processing of the substrate , the clamp assembly comprising: an outer clamp member ; and an inner clamp member which is received by the outer clamp member , the inner clamp member defining an aperture which exposes the substrate to the plasma processing; in which the outer clamp member has an inner portion terminating in an inner edge , wherein the inner portion is spaced apart from the inner clamp member , and wherein the outer clamp member is configured to provide most of or even all of the clamping force for the substrate associated with the inner and outer clamp members . an outer clamp member ; and an inner clamp member which is received by the outer clamp member , the inner clamp member defining an aperture which exposes the substrate to the plasma processing; in which the outer clamp member has an inner portion terminating in an inner edge , wherein the inner portion is spaced apart from the inner clamp member , and wherein the outer clamp member is configured to provide most of or even all of the clamping force for the substrate associated with the inner and outer clamp members .
An enclosure for a portable electronic device, comprising: a metal part including a metal substrate ; a first metal oxide layer overlaying a first portion of the metal substrate, the first metal oxide layer having an external surface and an opening at the external surface, a second metal oxide layer overlaying a second portion of the metal substrate, the second metal oxide layer defining an undercut region in communication with the opening, the opening having a first width, and the undercut region having a second width that is greater than the first width; and a non-metallic bulk layer overlaying the first and second metal oxide layers, the non-metallic bulk layer including a protruding portion that extends into the undercut regions to interlock the non-metallic bulk layer with the metal part. a metal part including a metal substrate ; a first metal oxide layer overlaying a first portion of the metal substrate, the first metal oxide layer having an external surface and an opening at the external surface, a second metal oxide layer overlaying a second portion of the metal substrate, the second metal oxide layer defining an undercut region in communication with the opening, the opening having a first width, and the undercut region having a second width that is greater than the first width; and a non-metallic bulk layer overlaying the first and second metal oxide layers, the non-metallic bulk layer including a protruding portion that extends into the undercut regions to interlock the non-metallic bulk layer with the metal part.
Composition suitable for forming an in situ intramuscular implant comprising a biodegradable thermoplastic polymer of polylactic acid (PLA), DMSO and an aromatase inhibitor compound that is letrozole or anastrozole, either alone or in combination, characterised in that the aromatase inhibitor compound is in suspension in a solution containing DMSO and PLA and represents between 20-30% by weight of the total composition, with the composition being able to solidify, to form a solid or gel-type in situ implant on contact with an aqueous fluid or that of the body, with therapeutic values after in vivo administration of at least 100 nmol/mL for more than 60 days, wherein the solution containing DMSO and PLA is 40-43% by weight of 100% lactic PLA and 57-60% by weight of DMSO.
A vehicle high-beam lamp control apparatus comprising: a passing switch configured to be turned off after having been turned on by means of a physical force from a user; a high-beam switch configured to turn on and off a high-beam lamp ; and a control unit configured to switch on and off the high-beam lamp in accordance with an on/off state of the passing switch and the high-beam switch , characterised in that the control unit is configured to switch off the high-beam lamp if, after the passing switch has been turned on, the passing switch is not turned off such that a first set time is exceeded, and to switch off the high-beam lamp if the passing switch is turned on when the high-beam switch is in the turned on state. a passing switch configured to be turned off after having been turned on by means of a physical force from a user; a high-beam switch configured to turn on and off a high-beam lamp ; and a control unit configured to switch on and off the high-beam lamp in accordance with an on/off state of the passing switch and the high-beam switch , characterised in that the control unit is configured to switch off the high-beam lamp if, after the passing switch has been turned on, the passing switch is not turned off such that a first set time is exceeded, and to switch off the high-beam lamp if the passing switch is turned on when the high-beam switch is in the turned on state.