mhurhangee/patent-ind-claim-en huggingface dataset:
A cab for a construction machine comprising: a floor plate ; an operation seat disposed on the floor plate so as to allow a position of the operation seat to be adjusted in a front-rear direction relatively to the floor plate ; a control box located on a lateral side of the operation seat , the control box including a box body extending in the front-rear direction on the lateral side of the operation seat , and an operation lever protruding upward beyond an upper surface of a front part of the box body to receive an operation by an operator sitting on the operation seat ; characterised in that the box body includes a portable communication terminal holding portion that receives insertion of a portable communication terminal at a position on a front side of the operation lever and holds the inserted portable communication terminal while exposing at least a part of the portable communication terminal above the box body ; and the control box is disposed on the floor plate so as to allow a position of the control box to be adjusted relatively to the floor plate in the front-rear direction, and the operation seat is disposed so as to allow a position of the operation seat to be adjusted in the front-rear direction relative to the control box . a floor plate ; an operation seat disposed on the floor plate so as to allow a position of the operation seat to be adjusted in a front-rear direction relatively to the floor plate ; a control box located on a lateral side of the operation seat , the control box including a box body extending in the front-rear direction on the lateral side of the operation seat , and an operation lever protruding upward beyond an upper surface of a front part of the box body to receive an operation by an operator sitting on the operation seat ; characterised in that the box body includes a portable communication terminal holding portion that receives insertion of a portable communication terminal at a position on a front side of the operation lever and holds the inserted portable communication terminal while exposing at least a part of the portable communication terminal above the box body ; and the control box is disposed on the floor plate so as to allow a position of the control box to be adjusted relatively to the floor plate in the front-rear direction, and the operation seat is disposed so as to allow a position of the operation seat to be adjusted in the front-rear direction relative to the control box .
A process for imaging a mask for creating a flexographic plate using a laser beam to ablate physical spots on the mask, the process comprising the steps of: receiving imaging data comprising a screen having a resolution defined by a base pattern of equally sized screen spots, each screen spot corresponding to a discrete imaging spot or a non-imaging spot, wherein each discrete imaging spot is surrounded by eight non-imaging spots; imaging the mask by, in at least a portion of the mask corresponding to a non-solid tonal area of the flexographic plate, selectively modulating the size of physical spots created by the laser beam on the mask corresponding to the discrete imaging spots such that each set of four neighboring physical spots on the mask has an area centered therebetween that is not ablated. receiving imaging data comprising a screen having a resolution defined by a base pattern of equally sized screen spots, each screen spot corresponding to a discrete imaging spot or a non-imaging spot, wherein each discrete imaging spot is surrounded by eight non-imaging spots; imaging the mask by, in at least a portion of the mask corresponding to a non-solid tonal area of the flexographic plate, selectively modulating the size of physical spots created by the laser beam on the mask corresponding to the discrete imaging spots such that each set of four neighboring physical spots on the mask has an area centered therebetween that is not ablated.
A solder alloy comprising: 0.001 to 0.800 % by weight copper; 0.080 to 0.120 % by weight bismuth; 0.030 to 0.050 % by weight nickel; 0.008 to 0.012 % by weight phosphorus; and balance tin, together with unavoidable impurities, optionally further comprising one or more of the following: 0.10 % by weight maximum silver; 0.05 % by weight maximum lead; 0.05 % by weight maximum antimony; 0.030 % by weight maximum arsenic; 0.001 % by weight maximum cadmium; 0.001 % maximum zinc; 0.020 % by weight maximum iron; 0.001 % by weight maximum aluminum; 0.050 % by weight maximum indium; 0.050 % by weight maximum gold; 0.10 % by weight maximum chromium; and 0.10 % by weight maximum mercury. 0.001 to 0.800 % by weight copper; 0.080 to 0.120 % by weight bismuth; 0.030 to 0.050 % by weight nickel; 0.008 to 0.012 % by weight phosphorus; and balance tin, together with unavoidable impurities, 0.10 % by weight maximum silver; 0.05 % by weight maximum lead; 0.05 % by weight maximum antimony; 0.030 % by weight maximum arsenic; 0.001 % by weight maximum cadmium; 0.001 % maximum zinc; 0.020 % by weight maximum iron; 0.001 % by weight maximum aluminum; 0.050 % by weight maximum indium; 0.050 % by weight maximum gold; 0.10 % by weight maximum chromium; and 0.10 % by weight maximum mercury.
Indicator lamp for electrical equipment, comprising a plate of which the front face , which is elongate along a longitudinal axis (X), supports at least one light-emitting element , and a cover covering said light-emitting element , this cover having a front face forming the front face of the indicator , wherein the cover comprises, above said light-emitting element , a blister that forms a projection on the front face of said cover and the external face of which is convex, characterised in that said light-emitting element is placed in the immediate vicinity of an end lateral edge of said plate and in that this blister is suitable for directing the light flux emitted by said light-emitting element through said cover in a main output direction (X1) forming an angle (A) with said longitudinal axis (X) of a value less than 60°.
A cable management arm assembly for holding cables for an equipment rack having a first chassis slot and a second chassis slot , the first chassis slot and the second chassis slot arranged vertically between two side rails , the cable management arm assembly comprising: two mounting tabs having a vertical slot attached to the rails ; two mounting brackets attached to the two mounting tabs ; a bottom support bracket coupled to the mounting brackets , the bottom support bracket being substantially perpendicular to the side rails ; the mounting brackets operable to be positioned between two vertical positions on the mounting tabs relative to the first chassis slot and the second chassis slot ; a slide bracket attached to one of the mounting tabs ; a cable management arm attached to the slide bracket ; and a slide bracket operable to be positioned between the two vertical positions on the mounting tab relative to the first chassis slot and the second chassis slot ; wherein the slide bracket is capable of being adjusted relative to one of the side rails , wherein the equipment rack comprises a locking mechanism on the cable management arm assembly, the locking mechanism being disposed between the bottom support bracket and one of the first chassis slot and the second chassis slot locking the cable management arm assembly to the mounting tabs to fix the cable management arm assembly in either of the two vertical positions, and actuating the locking mechanism to a release position allows the slide bracket and the mounting bracket to be articulated linearly allowing vertical movement of the cable management arm assembly. two mounting tabs having a vertical slot attached to the rails ; two mounting brackets attached to the two mounting tabs ; a bottom support bracket coupled to the mounting brackets , the bottom support bracket being substantially perpendicular to the side rails ; the mounting brackets operable to be positioned between two vertical positions on the mounting tabs relative to the first chassis slot and the second chassis slot ; a slide bracket attached to one of the mounting tabs ; a cable management arm attached to the slide bracket ; and a slide bracket operable to be positioned between the two vertical positions on the mounting tab relative to the first chassis slot and the second chassis slot ; wherein the slide bracket is capable of being adjusted relative to one of the side rails , wherein the equipment rack comprises a locking mechanism on the cable management arm assembly, the locking mechanism being disposed between the bottom support bracket and one of the first chassis slot and the second chassis slot locking the cable management arm assembly to the mounting tabs to fix the cable management arm assembly in either of the two vertical positions, and actuating the locking mechanism to a release position allows the slide bracket and the mounting bracket to be articulated linearly allowing vertical movement of the cable management arm assembly.
A strength enhancing admixture for cementitious and/or pozzolanic compositions comprising, based on the total dry weight of the admixture, calcium silicate hydrate in an amount of from 0.5 to 94 weight percent, and: i) at least one alkanolamine in an amount of from 0.5 to 55 weight percent; ii) at least one inorganic accelerator in an amount of from 0.5 to 85 weight percent, wherein the inorganic accelerator comprises at least one thiocyanate-based compound, sulfate-based compound, aluminate-based compound, nitrate-based compound, nitrite-based compound, or colloidal silica.; and iii) at least one carbohydrate in an amount of from 0.5 to 50 weight percent; wherein the calcium silicate hydrate comprises a product of a reaction of a water-soluble calcium compound with a water-soluble silicate compound in presence of a water-soluble dispersant; and wherein the at least one inorganic accelerator comprises any inorganic accelerator(s) other than calcium silicate hydrate.
A spray gun comprising: a spray gun body ; an air cap ; a fluid spray nozzle having a fluid tip ; a hollow needle ; at least one air distribution channel for atomizing air ; and at least one air distribution channel for fan air , wherein the fluid spray nozzle and the air cap are configured to direct an atomization air flow at an angle of 10 to 75 degrees relative to a pre-atomized coating composition jet , into the pre-atomized coating composition jet , wherein the hollow needle is coupled via a duct to an atomizing air channel and transports 50-150 l/min of the atomizing air into the fluid spray nozzle to generate an area of low pressure in front of the fluid tip and a pre-atomization in the fluid spray nozzle. a spray gun body ; an air cap ; a fluid spray nozzle having a fluid tip ; a hollow needle ; at least one air distribution channel for atomizing air ; and at least one air distribution channel for fan air , wherein the fluid spray nozzle and the air cap are configured to direct an atomization air flow at an angle of 10 to 75 degrees relative to a pre-atomized coating composition jet , into the pre-atomized coating composition jet , wherein the hollow needle is coupled via a duct to an atomizing air channel and transports 50-150 l/min of the atomizing air into the fluid spray nozzle to generate an area of low pressure in front of the fluid tip and a pre-atomization in the fluid spray nozzle.
A method for producing a conjugated-diene-based copolymer latex, comprising: a step of emulsion-polymerizing monomer components including 10 to 80 mass% of an aliphatic conjugated-diene-based monomer, 2 to 15 mass% of an ethylenically unsaturated carboxylic acid monomer, and 5 to 88 mass% of another copolymerizable monomer, wherein the ethylenically unsaturated carboxylic acid monomer includes an itaconic acid having no peak detected at a detection time between 12 minutes and 14 minutes in a chromatogram measured under the following measurement conditions: <Measurement conditions> With use of a liquid chromatograph-corona charged particle detector, measurement is performed with a sample concentration of 1 mass%, pure water as a solvent, a column temperature of 40°C, a formic acid aqueous solution/acetonitrile as a mobile phase, and a liquid feed rate of 0.2 ml/min, and wherein the monomer components contain 2 to 10 mass% of the itaconic acid. a step of emulsion-polymerizing monomer components including 10 to 80 mass% of an aliphatic conjugated-diene-based monomer, 2 to 15 mass% of an ethylenically unsaturated carboxylic acid monomer, and 5 to 88 mass% of another copolymerizable monomer, wherein the ethylenically unsaturated carboxylic acid monomer includes an itaconic acid having no peak detected at a detection time between 12 minutes and 14 minutes in a chromatogram measured under the following measurement conditions: <Measurement conditions> With use of a liquid chromatograph-corona charged particle detector, measurement is performed with a sample concentration of 1 mass%, pure water as a solvent, a column temperature of 40°C, a formic acid aqueous solution/acetonitrile as a mobile phase, and a liquid feed rate of 0.2 ml/min, and wherein the monomer components contain 2 to 10 mass% of the itaconic acid. With use of a liquid chromatograph-corona charged particle detector, measurement is performed with a sample concentration of 1 mass%, pure water as a solvent, a column temperature of 40°C, a formic acid aqueous solution/acetonitrile as a mobile phase, and a liquid feed rate of 0.2 ml/min, and wherein the monomer components contain 2 to 10 mass% of the itaconic acid.
A method of preparing a physiologically active polypeptide conjugate, comprising: 1) selectively precipitating from a reaction mixture a physiologically active polypeptide unconjugated to a non-peptidyl polymer using an organic solvent, said reaction conjugating the non-peptidyl polymer to an amino acid residue of the physiologically active polypeptide; and 2) reacting the physiologically active polypeptide recovered from the precipitate with the non-peptidyl polymer under the conjugation reaction of step 1), wherein the non-peptidyl polymer is selected from the group consisting of polyethylene glycol, polypropylene glycol, an ethylene glycol-propylene glycol copolymer, polyoxyethylated polyol, polyvinyl alcohol, polyvinyl ethyl ether, and a combination thereof; wherein the non-peptidyl polymer has a molecular weight from 0.5 kDa to 20 kDa; wherein the physiologically active polypeptide is an exendin derivative, insulin, or a combination thereof, wherein the exendin derivative is selected from the group consisting of des-amino-histidyl(DA)-exendin-4, beta-hydroxy-imidazo-propionyl(HY)-exendin-4, imidazo-acetyl(CA)-exendin-4, and dimethyl-histidyl(DM)-exendin-4; and wherein the organic solvent is isopropanol, ethanol, 1-propanol, 1-butanol, acetone, acetonitrile, or a combination thereof. 1) selectively precipitating from a reaction mixture a physiologically active polypeptide unconjugated to a non-peptidyl polymer using an organic solvent, said reaction conjugating the non-peptidyl polymer to an amino acid residue of the physiologically active polypeptide; and 2) reacting the physiologically active polypeptide recovered from the precipitate with the non-peptidyl polymer under the conjugation reaction of step 1), wherein the non-peptidyl polymer is selected from the group consisting of polyethylene glycol, polypropylene glycol, an ethylene glycol-propylene glycol copolymer, polyoxyethylated polyol, polyvinyl alcohol, polyvinyl ethyl ether, and a combination thereof; wherein the non-peptidyl polymer has a molecular weight from 0.5 kDa to 20 kDa; wherein the physiologically active polypeptide is an exendin derivative, insulin, or a combination thereof, wherein the exendin derivative is selected from the group consisting of des-amino-histidyl(DA)-exendin-4, beta-hydroxy-imidazo-propionyl(HY)-exendin-4, imidazo-acetyl(CA)-exendin-4, and dimethyl-histidyl(DM)-exendin-4; and wherein the organic solvent is isopropanol, ethanol, 1-propanol, 1-butanol, acetone, acetonitrile, or a combination thereof.
An orthopedic belt for a user, comprising a first side panel and a second side panel , each of the first side panel and the second side panel having a dorsal end and a distal end , the first and second side panels being designed to jointly surround at least one portion of the user's body, the belt defining a central line (D) adapted to be placed against the user's spine, the central line (D) defining a primary direction, the dorsal ends of the first and second side panels being connected to each other, the distal ends of the first and second side panels being adapted to be reversibly attached to each other, the first side panel and the second side panel each being provided with a user gripping element for positioning the belt around the user, the gripping elements being arranged symmetrically on the belt with respect to the central line (D), characterized in that the first and second side panels are asymmetrical in relation to one another with respect to the central line (D), such that the distal ends are configured to be placed asymmetrically around the user. the dorsal ends of the first and second side panels being connected to each other, the distal ends of the first and second side panels being adapted to be reversibly attached to each other, the first side panel and the second side panel each being provided with a user gripping element for positioning the belt around the user, the gripping elements being arranged symmetrically on the belt with respect to the central line (D), characterized in that the first and second side panels are asymmetrical in relation to one another with respect to the central line (D), such that the distal ends are configured to be placed asymmetrically around the user.
A tool for simultaneous local stress relief of each of a multiple of linear friction welds , the tool comprising: a columnar track defined along an axis (W), the columnar track having a helical slot ; and a support structure engaged with the helical slot to translate and rotate a heat treat fixture portion along the axis (W), wherein the support structure comprises: an upper support structure engaged with the helical slot to translate and rotate an upper heat treat fixture portion along the axis (W); and a lower support structure engaged with the helical slot to translate and rotate a lower heat treat fixture portion along the axis (W), wherein the lower support structure translates and rotates opposite the upper support structure . a columnar track defined along an axis (W), the columnar track having a helical slot ; and a support structure engaged with the helical slot to translate and rotate a heat treat fixture portion along the axis (W), wherein the support structure comprises: an upper support structure engaged with the helical slot to translate and rotate an upper heat treat fixture portion along the axis (W); and a lower support structure engaged with the helical slot to translate and rotate a lower heat treat fixture portion along the axis (W), wherein the lower support structure translates and rotates opposite the upper support structure . an upper support structure engaged with the helical slot to translate and rotate an upper heat treat fixture portion along the axis (W); and a lower support structure engaged with the helical slot to translate and rotate a lower heat treat fixture portion along the axis (W), wherein the lower support structure translates and rotates opposite the upper support structure .
A method of producing at least one transition metal dichalcogenide layer on a substrate, the method comprising: a) obtaining a substrate having a surface; b) depositing transition metal dichalcogenide layers on the surface using atomic layer deposition, starting from a metal halide precursor and a chalcogen source, characterized in that the method further comprises functionalizing the surface with silicon-hydrogen or boron-hydrogen compounds or a combination thereof, or by sulphidizing the surface, or by means of ozone oxidation, before depositing the transition metal dichalcogenide layer, and depositing the transition metal dichalcogenide layers comprises depositing seven monolayers or less of the transition metal dichalcogenide layer. a) obtaining a substrate having a surface; b) depositing transition metal dichalcogenide layers on the surface using atomic layer deposition, starting from a metal halide precursor and a chalcogen source, characterized in that the method further comprises functionalizing the surface with silicon-hydrogen or boron-hydrogen compounds or a combination thereof, or by sulphidizing the surface, or by means of ozone oxidation, before depositing the transition metal dichalcogenide layer, and depositing the transition metal dichalcogenide layers comprises depositing seven monolayers or less of the transition metal dichalcogenide layer.
Ignition arrangement, comprising an ignition coil and a spark plug , the ignition coil having a high voltage connector and a spring for the electric connection of the high voltage connector to the spark plug , a contact section (15.3) of the spring , which contact section (15.3) is directed towards the spark plug , having a reduced external circumference in comparison with an external circumference of further sections (15.1, 15.2) of the spring , the contact section (15.3) of the spring being of tapering configuration in the direction of the end of the spring and tapering conically, the spark plug having a contact region for contacting with the spring , the contact region having a recess which is surrounded by a closed, annular wall region and with a circular bottom region for receiving a contact section (15.3) of the spring of the spark plug, and the circular bottom region and the annular wall region of the recess being set up to make contact of the spring of the ignition coil with the contact region of the spark plug, characterized in that , in the mounted state, the contact section (15.3) of the spring is arranged in full contact, and adjacent windings on the contact section (15.3) of the spring touch one another, in that the annular wall region is set up to shield the contact section (15.3) of the spring , and in that the contact section (15.3) is set up to be shielded in the radial direction in the contact region of the spark plug .
A gas injection element for a system for distributing a gas inside a chamber of a fluid catalytic cracking unit, said injection element comprising a through-passage passing all the way through it in a longitudinal direction (X), characterised in that it comprises: - a metallic internal element of which an internal surface defines a part of the through-passage passing through in the longitudinal direction (X), - a hollow metallic sleeve , receiving one end of the internal element and attached thereto, - a hollow metal support having an internal surface defining the remainder of the through-passage passing through in the longitudinal direction (X), said sleeve being further attached to one end of the support . - a metallic internal element of which an internal surface defines a part of the through-passage passing through in the longitudinal direction (X), - a hollow metallic sleeve , receiving one end of the internal element and attached thereto, - a hollow metal support having an internal surface defining the remainder of the through-passage passing through in the longitudinal direction (X), said sleeve being further attached to one end of the support .