mhurhangee/patent-ind-claim-en huggingface dataset:
A battery anode electrode comprising: one or more silicon-comprising nanostructures grown on and attached to a carbon-based powder comprising graphite particles of 5 μm to 50 μm in size, wherein the nanostructures are nanowires having a core-shell structure, and wherein the nanowires have a diameter of 20 nm to 200 nm and a length of 0.1 μm to 50 μm, a carbon-based material, and a polymer binder that is disposed on the nanostructures, wherein the electrode comprises 1 weight % to 80 weight % of the nanostructures disposed on the carbon-based powder. one or more silicon-comprising nanostructures grown on and attached to a carbon-based powder comprising graphite particles of 5 μm to 50 μm in size, wherein the nanostructures are nanowires having a core-shell structure, and wherein the nanowires have a diameter of 20 nm to 200 nm and a length of 0.1 μm to 50 μm, a carbon-based material, and a polymer binder that is disposed on the nanostructures,
Pretwisting spindle segment for a two-stage twisting or cabling machine , comprising a support frame with a plurality of pretwisting spindles , which are each provided for holding a feed package, from which a thread can be pulled off to a final-twisting spindle position of a final-twisting spindle unit of the twisting or cabling machine , wherein at least one controllable drive device is assigned to the pretwisting spindles for defined drive, which drive device is coupled to an electronic unit assigned to the pretwisting spindle segment with at least one interface for controlling the at least one drive device , characterised in that the pretwisting spindle segment is designed for the modular coupling, arranging and/or fastening of at least one spindle expansion segment , which has an additional support frame with at least one additional motor-drivable pretwisting spindle for holding an additional feed package, from which an additional thread can be pulled off to the or an additional final-twisting spindle position of the final-twisting spindle unit ; and at least one additional controllable drive device , which can drive the at least one additional pretwisting spindle , the electronic unit being designed to control the at least one additional drive device .
Method for forming a container by stretch-blow-moulding of a preform , the axisymmetric preform having a tubular body that is open at the top via a neck of vertical axis (X1), and that is closed at the bottom by a base , the body of the preform having been previously rendered malleable by heating, the method comprising: - a stretching step (E1) during which a free end of a stretching rod is inserted coaxially into the body of the preform via its neck as far as the base of the preform in order to axially stretch the body of the preform ; - a moulding step (E2) during which a pressurized blowing fluid is injected, at a moulding pressure (P2), into the preform ; characterized in that it comprises a step (E0) of centring the base of the preform, this step being triggered before the free end of the stretching rod is in contact with the base of the preform , and during which a pressurized moulding fluid, at a stiffening pressure (P0), is injected into the preform in order to centre the base of the preform with respect to the axis "X1" of the neck , the stiffening pressure (P0) being maintained at least until the free end of the stretching rod is in contact with the base of the preform . - a stretching step (E1) during which a free end of a stretching rod is inserted coaxially into the body of the preform via its neck as far as the base of the preform in order to axially stretch the body of the preform ; - a moulding step (E2) during which a pressurized blowing fluid is injected, at a moulding pressure (P2), into the preform ;
A flexible carbon nanotube film self-heating platform for assisting automatic laying, wherein the self-heating platform comprises an automatic laying mould , a carbon nanotube film and a vacuum bag which are sequentially laid from bottom to top; the carbon nanotube film is connected with a power source by a conducting wire ; and the vacuum bag is connected with a vacuumizing device by a pipeline , wherein the carbon nanotube film has an arbitrary area and covers a laying region of the automatic laying mould , wherein in that the carbon nanotube film has a thickness of 10 μm-1 mm and a density of lower than 1g/cm 3 . wherein the carbon nanotube film has an arbitrary area and covers a laying region of the automatic laying mould , wherein in that the carbon nanotube film has a thickness of 10 μm-1 mm and a density of lower than 1g/cm 3 .
A method of preparing a pharmaceutical composition comprising acetaminophen and nefopam, wherein said method comprises a. in a first process step, providing a wet granulated powder by mixing acetaminophen, one or more excipients and water; b. in a second process step, mixing the wet granulated powder with nefopam and a lubricant, and c. in a third process step, forming the pharmaceutical composition, wherein the first process step further comprises drying the wet granulated powder to a water content of between 2 and 5 wt%. a. in a first process step, providing a wet granulated powder by mixing acetaminophen, one or more excipients and water; b. in a second process step, mixing the wet granulated powder with nefopam and a lubricant, and c. in a third process step, forming the pharmaceutical composition,
Tire comprising at least one layer comprising a composition based on a diene elastomer and on a crosslinking system comprising a peroxide, said composition further comprising at least 5 parts by weight per hundred parts by weight of elastomer, phr, of an unsaturated carboxylic acid and/or a salt thereof, and a metal oxide, the unsaturated carboxylic acid being sorbic acid.
An endoscope comprising: an operation section provided with an operating member; an insertion section that is provided on a distal end side of the operation section and that is inserted into a subject; a treatment tool erecting base provided at a distal end part of the insertion section ; a movable member that is formed in a U-like shape and arranged to be exposed to outside of the operation section and that moves in association with an operation of the operating member; an erecting operation wire that is coupled to the treatment tool erecting base at a distal end side thereof, that is coupled to the movable member at a proximal end side thereof, and that is pushed/pulled in accordance with a movement of the movable member to move the treatment tool erecting base ; and an attachment member that is provided at a proximal end of the erecting operation wire and that is engaged with the movable member in an attachable/detachable manner by a one-touch operation; wherein the movable member is provided rotatably around an axis perpendicular to an axial direction of the erecting operation wire and includes a flat-plate-shaped beam portion and two leg portions , each leg portion being provided at a respective end of the beam portion ; wherein an engagement hole is formed along the longitudinal direction of the beam portion ; and wherein a pair of engagement portions of the attachment member are engaged with the engagement hole in an attachable/detachable manner by a one-touch operation. an operation section provided with an operating member; an insertion section that is provided on a distal end side of the operation section and that is inserted into a subject; a treatment tool erecting base provided at a distal end part of the insertion section ; a movable member that is formed in a U-like shape and arranged to be exposed to outside of the operation section and that moves in association with an operation of the operating member; an erecting operation wire that is coupled to the treatment tool erecting base at a distal end side thereof, that is coupled to the movable member at a proximal end side thereof, and that is pushed/pulled in accordance with a movement of the movable member to move the treatment tool erecting base ; and an attachment member that is provided at a proximal end of the erecting operation wire and that is engaged with the movable member in an attachable/detachable manner by a one-touch operation; wherein the movable member is provided rotatably around an axis perpendicular to an axial direction of the erecting operation wire and includes a flat-plate-shaped beam portion and two leg portions , each leg portion being provided at a respective end of the beam portion ; wherein an engagement hole is formed along the longitudinal direction of the beam portion ; and wherein a pair of engagement portions of the attachment member are engaged with the engagement hole in an attachable/detachable manner by a one-touch operation.
A humidification and air cleaning apparatus comprising: a lower water tank to store water; an upper water tank disposed over the lower water tank ; an air wash inlet disposed between the upper water tank and the lower water tank , through which air flows; characterized by a bridge disposed across the air wash inlet to connect the lower water tank and the upper water tank, wherein the bridge is opened toward the lower water tank and adapted to guide the water flowing down from the upper water tank to the inner of the lower water tank . a lower water tank to store water; an upper water tank disposed over the lower water tank ; an air wash inlet disposed between the upper water tank and the lower water tank , through which air flows; characterized by a bridge disposed across the air wash inlet to connect the lower water tank and the upper water tank, wherein the bridge is opened toward the lower water tank and adapted to guide the water flowing down from the upper water tank to the inner of the lower water tank .
A catalyst coated membrane comprising a proton exchange membrane and an electrocatalyst layer applied to at least one face of the proton exchange membrane, wherein the proton exchange membrane comprises an ion-conducting layer which comprises an ion-conducting polymer and a supported recombination catalyst, wherein the recombination catalyst is supported on graphene, and the supported recombination catalyst has a D 50 particle size in the range of and including 0.1 to 20 μm as measured by dynamic light scattering.
A neuromodulation catheter , comprising: an elongate shaft ; and a neuromodulation element operably connected to the shaft via a distal end portion of the shaft, the neuromodulation element being movable from a low-profile delivery state to a radially expanded deployed state, the neuromodulation element including a segment having a first shape when the neuromodulation element is in the delivery state and a second shape when the neuromodulation element is in the deployed state, the second shape being more helical than the first shape, and a tubular jacket disposed around at least a portion of an outer surface of the segment, wherein: the segment includes a distal skive ; and the tubular jacket is disposed on at least a portion of the outer surface of the segment at the distal skive. an elongate shaft ; and a neuromodulation element operably connected to the shaft via a distal end portion of the shaft, the neuromodulation element being movable from a low-profile delivery state to a radially expanded deployed state, the neuromodulation element including a segment having a first shape when the neuromodulation element is in the delivery state and a second shape when the neuromodulation element is in the deployed state, the second shape being more helical than the first shape, and a tubular jacket disposed around at least a portion of an outer surface of the segment, wherein: the segment includes a distal skive ; and the tubular jacket is disposed on at least a portion of the outer surface of the segment at the distal skive. the segment includes a distal skive ; and the tubular jacket is disposed on at least a portion of the outer surface of the segment at the distal skive.
An assembly for receiving a medicament container , the assembly comprising: - a container carrier extending along a longitudinal axis , the container carrier comprising a carrier body , and a flexible carrier arm extending from the carrier body substantially parallel with the longitudinal axis ; and - a rotator comprising a hollow rotator body and at least one through hole which extends substantially parallel with the longitudinal axis ; wherein the through hole is arranged radially with respect to the longitudinal axis outside the rotator body ; wherein the container carrier is arranged to receive the rotator such that the carrier arm extends through the through hole ; and wherein the rotator is arranged to rotate about the longitudinal axis and relative to the container carrier . - a container carrier extending along a longitudinal axis , the container carrier comprising a carrier body , and a flexible carrier arm extending from the carrier body substantially parallel with the longitudinal axis ; and - a rotator comprising a hollow rotator body and at least one through hole which extends substantially parallel with the longitudinal axis ; wherein the through hole is arranged radially with respect to the longitudinal axis outside the rotator body ; wherein the container carrier is arranged to receive the rotator such that the carrier arm extends through the through hole ; and wherein the rotator is arranged to rotate about the longitudinal axis and relative to the container carrier .
A two-component-type primer comprising an epoxy resin, an MXDA (meta-xylenediamine) Mannich modified curing agent, a gypsum excluding crystal gypsum, and a pigment excluding gypsum, wherein the volume concentration of a gypsum and a pigment in a dry coating film formed with the primer is 40 to 50%.
A method of preparing an additive concentrate for a marine engine lubricating oil composition: comprising the steps of providing as separate additive components: (A) at least one overbased metal detergent, and (B) an oil-soluble alkoxylated alcohol, having a hydrophile-lipophile balance (HLB) in the range 7-9.5, such as 9-9.5, represented by the formula R-[O-(CH 2 ) x ] y -OH where R is a linear alkyl group having from 12 to 20 carbon atoms, wherein HLB is calculated by multiplying by 20, the ratio of molecular weight of polyethylene oxide content of the oil-soluble alkoxylated alcohol to the total molecular weight of the oil-soluble alkoxylated alcohol, x is 2, and y is an integer from 2 to 10, such as 2-8, 2-6, or 2-4, the ratio of x to y being such as to provide an HLB in the above range, and admixing an oil of lubricating viscosity in a concentrate-forming amount with additive compound comprising (A) and (B); and wherein the additive concentrate contains from 0.25 to 5 mass % of additive (B). comprising the steps of providing as separate additive components: (A) at least one overbased metal detergent, and (B) an oil-soluble alkoxylated alcohol, having a hydrophile-lipophile balance (HLB) in the range 7-9.5, such as 9-9.5, represented by the formula R-[O-(CH 2 ) x ] y -OH where R is a linear alkyl group having from 12 to 20 carbon atoms, wherein HLB is calculated by multiplying by 20, the ratio of molecular weight of polyethylene oxide content of the oil-soluble alkoxylated alcohol to the total molecular weight of the oil-soluble alkoxylated alcohol, x is 2, and y is an integer from 2 to 10, such as 2-8, 2-6, or 2-4, the ratio of x to y being such as to provide an HLB in the above range, and (A) at least one overbased metal detergent, and (B) an oil-soluble alkoxylated alcohol, having a hydrophile-lipophile balance (HLB) in the range 7-9.5, such as 9-9.5, represented by the formula R-[O-(CH 2 ) x ] y -OH where R is a linear alkyl group having from 12 to 20 carbon atoms, wherein HLB is calculated by multiplying by 20, the ratio of molecular weight of polyethylene oxide content of the oil-soluble alkoxylated alcohol to the total molecular weight of the oil-soluble alkoxylated alcohol, x is 2, and y is an integer from 2 to 10, such as 2-8, 2-6, or 2-4, the ratio of x to y being such as to provide an HLB in the above range, and where R is a linear alkyl group having from 12 to 20 carbon atoms, wherein HLB is calculated by multiplying by 20, the ratio of molecular weight of polyethylene oxide content of the oil-soluble alkoxylated alcohol to the total molecular weight of the oil-soluble alkoxylated alcohol, x is 2, and y is an integer from 2 to 10, such as 2-8, 2-6, or 2-4, the ratio of x to y being such as to provide an HLB in the above range, and admixing an oil of lubricating viscosity in a concentrate-forming amount with additive compound comprising (A) and (B); and wherein the additive concentrate contains from 0.25 to 5 mass % of additive (B).
A method for displaying a virtual object in three-dimensional space at a desired position with respect to a user, comprising: displaying (S802) a first 3D object at a first position through displaying a first left eye image and a first right eye image on a display screen, wherein the first position is within a reachable distance to the user; receiving (S804) a user interaction with the first 3D object, wherein the user interaction includes identifying a position of the first 3D object by the user; determining (S806) actual coordinate values of the first 3D object with respect to the user based on the user interaction with the first 3D object; calculating (S808) positions of the user's left eye and right eye based on positions of the first left eye image and the first right eye image, the actual coordinate values of the first 3D object, and a distance between the user's left eye and right eye; and displaying the virtual object at the desired position through displaying a virtual object's left image and a virtual object's right image on the display screen which are deduced based on the positions of the user's left eye and right eye and the desired position of the virtual object. displaying (S802) a first 3D object at a first position through displaying a first left eye image and a first right eye image on a display screen, wherein the first position is within a reachable distance to the user; receiving (S804) a user interaction with the first 3D object, wherein the user interaction includes identifying a position of the first 3D object by the user; determining (S806) actual coordinate values of the first 3D object with respect to the user based on the user interaction with the first 3D object; calculating (S808) positions of the user's left eye and right eye based on positions of the first left eye image and the first right eye image, the actual coordinate values of the first 3D object, and a distance between the user's left eye and right eye; and displaying the virtual object at the desired position through displaying a virtual object's left image and a virtual object's right image on the display screen which are deduced based on the positions of the user's left eye and right eye and the desired position of the virtual object.
A hybrid data compression device (1810; 2510) for compressing an uncompressed data block (1805; 2505) into a compressed data block (1818; 2518) in a cache subsystem, memory subsystem or data transferring subsystem of a computer system, the uncompressed data block comprising one or a plurality of data values of one or a plurality of data types, wherein the data block is one of the following: a cache line, cache set, cache block or cache sector for storage in a cache in the computer system, and a cache line, memory row, a memory page or memory sector for storage in the memory in the computer system, or for transfer within the computer system, and wherein the data types of the data values are any of the following: integers, pointers, floating-point numbers, characters, strings, boolean values, code instructions, or data types defined by a specific format or standard, the hybrid data compression device comprising: a plurality of data compressors (1814; 2514), each compressor being configured for a respective data compression scheme (1814-1...1814-n; 2514-1...2514-n); and a predictor mechanism (1812; 2512) configured for predicting data types of data values of the uncompressed data block (1805; 2505) and for selecting an estimated best suited data compressor among said plurality of data compressors using as main criterion a dominating data type among the predicted data types, wherein the hybrid data compression device is configured to generate the compressed data block (1818; 2518) by causing the selected estimated best suited data compressor to compress the whole of the uncompressed data block. a cache line, cache set, cache block or cache sector for storage in a cache in the computer system, and a cache line, memory row, a memory page or memory sector for storage in the memory in the computer system, or for transfer within the computer system, and a plurality of data compressors (1814; 2514), each compressor being configured for a respective data compression scheme (1814-1...1814-n; 2514-1...2514-n); and a predictor mechanism (1812; 2512) configured for predicting data types of data values of the uncompressed data block (1805; 2505) and for selecting an estimated best suited data compressor among said plurality of data compressors using as main criterion a dominating data type among the predicted data types, wherein the hybrid data compression device is configured to generate the compressed data block (1818; 2518) by causing the selected estimated best suited data compressor to compress the whole of the uncompressed data block.
Laundry treatment appliance having an outer tub for receiving washing liquid, a laundry drum for receiving laundry, wherein the laundry drum is arranged in the outer tub , an oscillating system , which is embodied to mount the laundry drum and the outer tub in the laundry treatment appliance so that they can oscillate, a drum drive for rotating the laundry drum during a washing period , and a controller for controlling the drum drive , characterised in that the controller is embodied to activate the drum drive during a maximal time segment of the washing period in order to rotate the laundry drum with a maximal rotational speed , wherein the maximal rotational speed is greater than a resonance rotational speed of the laundry drum , wherein the resonance rotational speed is a rotational speed of the laundry drum at which an oscillating frequency of the oscillating system corresponds to a natural oscillating frequency of the oscillating system , that the controller is embodied to activate the drum drive , during a drum time segment of the washing period which follows on from the maximal time segment , in order to rotate the laundry drum with a drum rotational speed , wherein the drum rotational speed is lower than the resonance rotational speed of the laundry drum and greater than a detaching rotational speed of the laundry drum , in order to form and maintain a laundry tunnel within the laundry received in the laundry drum , wherein the detaching rotational speed is a maximal rotational speed of the laundry drum at which the laundry received in the laundry drum detaches from the laundry drum . the controller is embodied to activate the drum drive during a maximal time segment of the washing period in order to rotate the laundry drum with a maximal rotational speed , wherein the maximal rotational speed is greater than a resonance rotational speed of the laundry drum , wherein the resonance rotational speed is a rotational speed of the laundry drum at which an oscillating frequency of the oscillating system corresponds to a natural oscillating frequency of the oscillating system , that the controller is embodied to activate the drum drive , during a drum time segment of the washing period which follows on from the maximal time segment , in order to rotate the laundry drum with a drum rotational speed , wherein the drum rotational speed is lower than the resonance rotational speed of the laundry drum and greater than a detaching rotational speed of the laundry drum , in order to form and maintain a laundry tunnel within the laundry received in the laundry drum , wherein the detaching rotational speed is a maximal rotational speed of the laundry drum at which the laundry received in the laundry drum detaches from the laundry drum .