mhurhangee/ep-ind-claims huggingface dataset:
A method of generating a uniform autodeposition coating on a multi-metal substrate comprising steps of: a. Cleaning a multi-metal substrate comprising surfaces of two or more of ferrous metal, zinc-coated or galvanized ferrous metal, aluminum, magnesium, zinc, aluminum alloys and zinc alloys. b. Contacting the multi-metal substrate with the autodeposition bath comprising: water, an autodepositable polymeric dispersion comprising autodepositable polymers selected from acrylic, styrene-acrylic, epoxy, epoxy-acrylic, polyurethane, and vinyl based polymers, a nitrogen compound having one to two nitrogen-oxygen bonds selected from aliphatic nitroalcohols and/or aliphatic nitroalkanes, and an activating system comprising an acid/oxidizing system, wherein the at least one nitrogen-containing compound having one to two nitrogen-oxygen bonds is maintained at an average concentration of from 0.1 grams per liter to 20 grams per liter within the bath, said contacting taking place for a sufficient amount of time to produce a coated multi-metal substrate having a final film coating thickness of from 1 to 50 microns; c. rinsing the resulting coated multi-metal substrate. a. Cleaning a multi-metal substrate comprising surfaces of two or more of ferrous metal, zinc-coated or galvanized ferrous metal, aluminum, magnesium, zinc, aluminum alloys and zinc alloys. b. Contacting the multi-metal substrate with the autodeposition bath comprising: water, an autodepositable polymeric dispersion comprising autodepositable polymers selected from acrylic, styrene-acrylic, epoxy, epoxy-acrylic, polyurethane, and vinyl based polymers, a nitrogen compound having one to two nitrogen-oxygen bonds selected from aliphatic nitroalcohols and/or aliphatic nitroalkanes, and an activating system comprising an acid/oxidizing system, wherein the at least one nitrogen-containing compound having one to two nitrogen-oxygen bonds is maintained at an average concentration of from 0.1 grams per liter to 20 grams per liter within the bath, said contacting taking place for a sufficient amount of time to produce a coated multi-metal substrate having a final film coating thickness of from 1 to 50 microns; c. rinsing the resulting coated multi-metal substrate.
A vehicle headlamp comprising: a light source unit including a plurality of semiconductor light emitting devices arranged side by side, each of the semiconductor light emitting devices being individually controllable to be turned on and off, and a lower reflector disposed below the semiconductor light emitting devices; and a projection lens configured to project light emitted by the semiconductor light emitting devices, wherein the lower reflector and the projection lens are configured and arranged such that a portion of the light emitted by the semiconductor light emitting devices is reflected by the lower reflector and projected by the projection lens to form a pattern of an upper portion of a high beam high beam light distribution pattern, and wherein auxiliary pattern forming means is provided for forming, when at least one of the semiconductor light emitting devices forming a horizontally central portion of the high beam light distribution pattern is turned off, an auxiliary pattern irradiating at least a part of a region that would otherwise be irradiated with an upper portion of the horizontally central portion of the high beam light distribution pattern formed by said at least one of the semiconductor light emitting devices; wherein the lower reflector comprises a diffusing portion to provide the auxiliary pattern forming means, the diffusing portion being configured to diffuse the portion of the light emitted by the semiconductor light emitting devices. a light source unit including a plurality of semiconductor light emitting devices arranged side by side, each of the semiconductor light emitting devices being individually controllable to be turned on and off, and a lower reflector disposed below the semiconductor light emitting devices; and a projection lens configured to project light emitted by the semiconductor light emitting devices, wherein the lower reflector and the projection lens are configured and arranged such that a portion of the light emitted by the semiconductor light emitting devices is reflected by the lower reflector and projected by the projection lens to form a pattern of an upper portion of a high beam high beam light distribution pattern, and wherein auxiliary pattern forming means is provided for forming, when at least one of the semiconductor light emitting devices forming a horizontally central portion of the high beam light distribution pattern is turned off, an auxiliary pattern irradiating at least a part of a region that would otherwise be irradiated with an upper portion of the horizontally central portion of the high beam light distribution pattern formed by said at least one of the semiconductor light emitting devices; wherein the lower reflector comprises a diffusing portion to provide the auxiliary pattern forming means, the diffusing portion being configured to diffuse the portion of the light emitted by the semiconductor light emitting devices.
A manual service disconnect for a battery system, comprising: a service plug unit; a disconnection header unit which is attachably and detachably coupled to the service plug unit and is configured to be mounted in the battery system; and a flexible bus line having one end coupled to one surface of an insertion part of the disconnection header unit, which is configured to be inserted inside the battery system, and the other end configured to be coupled to a bus line coupling terminal inside the battery system so as to electrically connect the MSD with the battery system, and the flexible bus line having flexibility to be bendable, wherein the flexible bus line is bent at a portion between one end and an other end at least one time, so that the one end and the other end face each other while being spaced apart from each other. a service plug unit; a disconnection header unit which is attachably and detachably coupled to the service plug unit and is configured to be mounted in the battery system; and a flexible bus line having one end coupled to one surface of an insertion part of the disconnection header unit, which is configured to be inserted inside the battery system, and the other end configured to be coupled to a bus line coupling terminal inside the battery system so as to electrically connect the MSD with the battery system, and the flexible bus line having flexibility to be bendable, wherein the flexible bus line is bent at a portion between one end and an other end at least one time, so that the one end and the other end face each other while being spaced apart from each other.
Use of a compound represented by general formula for improving a storage stability of a lubricating oil additive composition comprising a combination of a compound represented by general formula below and a compound represented by general formula below by adjusting an acid value of the lubricating oil additive composition to 0.01 to 0.4 mgKOH/g R 1 and R 4 each independently represent a hydrocarbon group having 6 to 18 carbon atoms and R 2 and R 3 each independently represent an alkylene group having 1 to 4 carbon atoms R 5 represents a hydrocarbon group having 6 to 18 carbon atoms and R 6 and R 7 each independently represent an alkylene group having 1 to 4 carbon atoms.
A method comprising: at a mobile device comprising a processing unit coupled to a memory, electronically detecting an arrival of said mobile device at a location by determining an estimate of a location of said mobile device and detecting that said estimated location is within a pre-defined geo-fenced area; and pre-fetching, from said memory and in response to said detection of said arrival, one or more electrical digital signals representative of information for use by or in connection with executing one or more applications and/or functions on said mobile device. at a mobile device comprising a processing unit coupled to a memory, electronically detecting an arrival of said mobile device at a location by determining an estimate of a location of said mobile device and detecting that said estimated location is within a pre-defined geo-fenced area; and pre-fetching, from said memory and in response to said detection of said arrival, one or more electrical digital signals representative of information for use by or in connection with executing one or more applications and/or functions on said mobile device.
A dental implant for insertion into bone within a patient's mouth, comprising: a body having a bone-engaging exterior surface, an anti-rotational feature for non-rotationally mating with a healing abutment during a gingival-healing period, and an upper region, the upper region including an upper surface for engaging the healing abutment; and a scannable code (22a-c,24a-c,26) on the upper surface for providing information of at least two features of the dental implant, the scannable code including: a circumferentially extending marker (24a-c) having a radius of curvature that is centred around a central axis of the dental implant, wherein the radius of curvature provides a position of the central axis, and wherein the scannable code is scannable in response to the healing abutment being removed from the dental implant. a body having a bone-engaging exterior surface, an anti-rotational feature for non-rotationally mating with a healing abutment during a gingival-healing period, and an upper region, the upper region including an upper surface for engaging the healing abutment; and a scannable code (22a-c,24a-c,26) on the upper surface for providing information of at least two features of the dental implant, the scannable code including: a circumferentially extending marker (24a-c) having a radius of curvature that is centred around a central axis of the dental implant, wherein the radius of curvature provides a position of the central axis, and wherein the scannable code is scannable in response to the healing abutment being removed from the dental implant. a circumferentially extending marker (24a-c) having a radius of curvature that is centred around a central axis of the dental implant, wherein the radius of curvature provides a position of the central axis, and wherein the scannable code is scannable in response to the healing abutment being removed from the dental implant.
Composition comprising (i) at least one compound selected from the group consisting of triallyl isocyanurate, triallyl cyanurate; and (ii) at least one compound selected from the group consisting of N, N- diallylethanolamine, diallyl carbamate; where at least one compound encompassed by the composition is present in a proportion of at least 0.5% by weight based on the total weight of all the compounds encompassed by the composition. (i) at least one compound selected from the group consisting of triallyl isocyanurate, triallyl cyanurate; and (ii) at least one compound selected from the group consisting of N, N- diallylethanolamine, diallyl carbamate;
Estetrol for use in the treatment of prostate cancer in a patient, wherein said treatment comprises androgen deprivation therapy comprising administration of a GnRH agonist or a GnRH antagonist, and oral co-administration of estetrol in a daily dose of 20 mg to 80 mg for at least 4 weeks.
A rolled copper foil comprising crystal particles of copper or a copper alloy, the rolled copper foil comprising: an average particle size of the crystal particles composing the outermost surface of not less than 0.2 μm and not greater than 6 μm; a ratio of the average particle size of the crystal particles composing the outermost surface to a thickness of the rolled copper foil of not less than 1% and not greater than 6%; and an intragranular distortion rate, found by the following formula when a cross-section perpendicular to a length direction of the rolled copper foil is analyzed by electron backscatter diffraction (EBSD), of not less than 0.5% and not greater than 10% Intrangranular distortion rate % = A / B × 100 (provided that in the formula, represents an area of a region identified through image analysis to have an orientation difference of not less than 1 degree and not greater than 15 degrees, and represents an area of a region identified through image analysis to have an orientation difference of not less than 0 degrees and not greater than 15 degrees), wherein the rolled copper foil is made by rolling a round wire type copper material into a foil shape. an average particle size of the crystal particles composing the outermost surface of not less than 0.2 μm and not greater than 6 μm; a ratio of the average particle size of the crystal particles composing the outermost surface to a thickness of the rolled copper foil of not less than 1% and not greater than 6%; and an intragranular distortion rate, found by the following formula when a cross-section perpendicular to a length direction of the rolled copper foil is analyzed by electron backscatter diffraction (EBSD), of not less than 0.5% and not greater than 10% Intrangranular distortion rate % = A / B × 100 (provided that in the formula, represents an area of a region identified through image analysis to have an orientation difference of not less than 1 degree and not greater than 15 degrees, and represents an area of a region identified through image analysis to have an orientation difference of not less than 0 degrees and not greater than 15 degrees), wherein the rolled copper foil is made by rolling a round wire type copper material into a foil shape.
A method of manufacturing an optical filter, comprising: forming, on a substrate, a first mirror and a second mirror, wherein the first mirror and the second mirror do not overlap each other; forming, on the first mirror and the second mirror, a monolithic spacer; forming a multilevel etch mask on the monolithic spacer; etching the multilevel etch mask and the monolithic spacer, wherein: etching the multilevel etch mask eliminates the multilevel etch mask, and etching the monolithic spacer causes a first portion of the monolithic spacer disposed on the first mirror to have a first thickness and a second portion of the monolithic spacer disposed on the second mirror to have a second thickness that is different than the first thickness; forming, on the first portion of the monolithic spacer, a third mirror, wherein the first mirror and the third mirror are configured to reflect one or more ranges of an electromagnetic spectrum; and forming, on the second portion of the monolithic spacer, a fourth mirror, wherein the second mirror and the fourth mirror are configured to reflect one or more ranges of the electromagnetic spectrum. forming, on a substrate, a first mirror and a second mirror, wherein the first mirror and the second mirror do not overlap each other; forming, on the first mirror and the second mirror, a monolithic spacer; forming a multilevel etch mask on the monolithic spacer; etching the multilevel etch mask and the monolithic spacer, wherein: etching the multilevel etch mask eliminates the multilevel etch mask, and etching the monolithic spacer causes a first portion of the monolithic spacer disposed on the first mirror to have a first thickness and a second portion of the monolithic spacer disposed on the second mirror to have a second thickness that is different than the first thickness; etching the multilevel etch mask eliminates the multilevel etch mask, and etching the monolithic spacer causes a first portion of the monolithic spacer disposed on the first mirror to have a first thickness and a second portion of the monolithic spacer disposed on the second mirror to have a second thickness that is different than the first thickness; forming, on the first portion of the monolithic spacer, a third mirror, wherein the first mirror and the third mirror are configured to reflect one or more ranges of an electromagnetic spectrum; and forming, on the second portion of the monolithic spacer, a fourth mirror, wherein the second mirror and the fourth mirror are configured to reflect one or more ranges of the electromagnetic spectrum.
Method for protecting an optical sensor of a vehicle, wherein the sensor is protected from environmental pollutants which adhere to an optical surface of the sensor if the sensor is exposed to them, and wherein the environmental pollutants are kept away from the sensor by an ultrasonic cleaning of the sensor surface using an ultrasonic field, wherein the ultrasonic field of the ultrasonic cleaning is emitted by a protection device into the air to provide a protection zone in front of the optical surface of the sensor such that a contact of the optical surface with the environmental pollutants is avoided, wherein an ultrasonic wave of a predefined and/or configurable frequency and/or sound pressure level is generated into the air volume in front of the optical surface of the sensor such that a cavitation is caused in the environmental pollutants in the air and/or the pollutants from the outside environment are prevented from reaching the optical surface of the sensor, wherein the protection zone is a spatial volume in the air in front of the optical surface which consists of the ultrasonic field emitted from the protection device and/or which provides a mask to the optical surface against the pollutants, wherein the environmental pollutants are destroyed in the air and/or moved away from the sensor by the ultrasonic field if they enter the protection zone, such that the protection zone provides a contactless cleaning of the sensor.
A reciprocating cutting tool comprising: a motion converting mechanism (3; 41; 50) configured to convert rotation of a rotary member into a reciprocating motion of a slider coupled to a rod capable of mounting a blade thereon, and a slider support mechanism comprising a first support mechanism (20, 26; 20; 45; 20; 51) and a second support mechanism disposed at different positions along a reciprocating direction of the slider and each supporting the slider such that the slider can move in the reciprocating direction characterized in that the first support mechanism (20, 26; 20; 45; 20; 51) includes a first member (26; 45; 51) and a second member disposed on opposite sides of the slider in a holding direction perpendicular to the reciprocating direction and each slidably contracting the slider, and the second member is a guide member coupled to the rotary member and making an orbital motion as the rotary member rotates. a motion converting mechanism (3; 41; 50) configured to convert rotation of a rotary member into a reciprocating motion of a slider coupled to a rod capable of mounting a blade thereon, and a slider support mechanism comprising a first support mechanism (20, 26; 20; 45; 20; 51) and a second support mechanism disposed at different positions along a reciprocating direction of the slider and each supporting the slider such that the slider can move in the reciprocating direction characterized in that the first support mechanism (20, 26; 20; 45; 20; 51) includes a first member (26; 45; 51) and a second member disposed on opposite sides of the slider in a holding direction perpendicular to the reciprocating direction and each slidably contracting the slider, and the second member is a guide member coupled to the rotary member and making an orbital motion as the rotary member rotates.
A uniflow, internal combustion engine, comprising: a cylinder having a cylinder wall; an exhaust gallery having an exhaust gallery wall; at least one exhaust port extending between the cylinder wall and the exhaust gallery wall; an exhaust channel extending from the exhaust gallery and leading to an exhaust manifold; an exhaust valve configured to open and close the exhaust channel and disposed relative to the cylinder wall to provide a sufficient volume for exhaust gas to expand into the exhaust gallery after a piston moves toward bottom dead center to expose the at least one exhaust port in the cylinder but before the exhaust valve is opened; at least one second exhaust port extending between the cylinder wall and the exhaust gallery wall, a second exhaust channel extending from the exhaust gallery, and a second exhaust valve configured to open and close the second exhaust channel. a cylinder having a cylinder wall; an exhaust gallery having an exhaust gallery wall; at least one exhaust port extending between the cylinder wall and the exhaust gallery wall; an exhaust channel extending from the exhaust gallery and leading to an exhaust manifold; an exhaust valve configured to open and close the exhaust channel and disposed relative to the cylinder wall to provide a sufficient volume for exhaust gas to expand into the exhaust gallery after a piston moves toward bottom dead center to expose the at least one exhaust port in the cylinder but before the exhaust valve is opened; at least one second exhaust port extending between the cylinder wall and the exhaust gallery wall, a second exhaust channel extending from the exhaust gallery, and a second exhaust valve configured to open and close the second exhaust channel.
A composition for use in treating one or more inflammatory and/or angiogenic eye diseases and disorders comprising a) dendrimer nanoparticles, and b) a biologically active agent, wherein the dendrimer nanoparticles comprise hydroxyl-terminated poly(amidoamine) (PAMAM) dendrimers, wherein the dendrimer nanoparticles are covalently linked to the biologically active agent, and wherein the composition is administered systemically in an amount effective to suppress or inhibit the one or more eye diseases and disorders.
A data processing apparatus, comprising: input circuitry to receive audio data for a plurality of respective dialogue recordings for a video game; classification circuitry comprising one or more machine learning models to receive at least a portion of the audio data for each dialogue recording and trained to output classification data indicative of a quality classification of a dialogue recording in dependence upon one or more properties of the audio data for the dialogue recording; and storage circuitry to selectively store identification data for one or more of the plurality of dialogue recordings in dependence upon the classification data, in which the storage circuitry is configured to store identification data for a respective dialogue recording when a quality classification indicated by the classification data output for the respective dialogue recording is less than a threshold quality level. input circuitry to receive audio data for a plurality of respective dialogue recordings for a video game; classification circuitry comprising one or more machine learning models to receive at least a portion of the audio data for each dialogue recording and trained to output classification data indicative of a quality classification of a dialogue recording in dependence upon one or more properties of the audio data for the dialogue recording; and storage circuitry to selectively store identification data for one or more of the plurality of dialogue recordings in dependence upon the classification data, in which the storage circuitry is configured to store identification data for a respective dialogue recording when a quality classification indicated by the classification data output for the respective dialogue recording is less than a threshold quality level.