mhurhangee/patent-ind-claim-en huggingface dataset:
A grinding device for rolling bodies , comprising at least one grinding wheel , which is designed for grinding rolling bodies which are guided in at least one track of the grinding wheel , characterised by an evaluation system , which is designed for acoustically detecting individual rolling bodies , which are guided by way of the track and, thereby, for determining the degree of filling (FG) of the track .
A device for the positioning and retention of a tension member within a profile of a formwork panel, the device comprising a first tubular body adapted to be inserted within a through hole provided on said profile of said formwork panel, said first body having a wider abutment portion arranged at one of its ends, said wider portion being adapted to be in contact with the surface of said formwork panel that is directed toward the outside of said formwork wherein said wider portion has a D-shaped profile of the perimetric edge characterized in that the device comprises a second tubular body having a through hole , adapted to be inserted at least partially in said first body .
An assembly for an anti-icing system for a nacelle for an aircraft propulsion system , comprising: a nozzle including a distribution conduit , a first nozzle port and a second nozzle port ; the distribution conduit comprising a plurality of conduit sections arranged longitudinally along a conduit centerline , the plurality of conduit sections comprising a first conduit section and a second conduit section ; the first nozzle port connected to the first conduit section ; and the second nozzle port connected to the second conduit section , characterized in that : the second conduit section is angularly offset from the first conduit section ; and the first nozzle port and the second nozzle port are each tapered so as to increase flow uniformity to the first nozzle port and the second nozzle port . a nozzle including a distribution conduit , a first nozzle port and a second nozzle port ; the distribution conduit comprising a plurality of conduit sections arranged longitudinally along a conduit centerline , the plurality of conduit sections comprising a first conduit section and a second conduit section ; the first nozzle port connected to the first conduit section ; and the second nozzle port connected to the second conduit section , characterized in that : the second conduit section is angularly offset from the first conduit section ; and the first nozzle port and the second nozzle port are each tapered so as to increase flow uniformity to the first nozzle port and the second nozzle port . the second conduit section is angularly offset from the first conduit section ; and the first nozzle port and the second nozzle port are each tapered so as to increase flow uniformity to the first nozzle port and the second nozzle port .
A sample dilution method, comprising steps of: moving a ferrying unit bearing a first reactor already containing a sample from an initial workstation to a first workstation ; dispensing a diluent into the first reactor located at the first workstation ; uniformly mixing the sample and the diluent in the first reactor so as to form a diluted sample; moving the ferrying unit bearing the first reactor containing the diluted sample to a second workstation , and characterized by comprising steps of: dispensing the diluted sample in the first reactor located at the second workstation into at least two empty second reactors; moving the ferrying unit bearing the second reactors containing the diluted sample to the first workstation , and dispensing a reagent into the second reactors located at the first workstation ; and uniformly mixing the diluted sample and the reagent in the second reactors. moving a ferrying unit bearing a first reactor already containing a sample from an initial workstation to a first workstation ; dispensing a diluent into the first reactor located at the first workstation ; uniformly mixing the sample and the diluent in the first reactor so as to form a diluted sample; moving the ferrying unit bearing the first reactor containing the diluted sample to a second workstation , and characterized by comprising steps of: dispensing the diluted sample in the first reactor located at the second workstation into at least two empty second reactors; moving the ferrying unit bearing the second reactors containing the diluted sample to the first workstation , and dispensing a reagent into the second reactors located at the first workstation ; and uniformly mixing the diluted sample and the reagent in the second reactors. dispensing the diluted sample in the first reactor located at the second workstation into at least two empty second reactors; moving the ferrying unit bearing the second reactors containing the diluted sample to the first workstation , and dispensing a reagent into the second reactors located at the first workstation ; and uniformly mixing the diluted sample and the reagent in the second reactors.
Use of a composite material comprising a) a barrier ply, b) a support ply which comprises a spunbonded web and which is arranged on at least one side of the barrier ply and bonded to the barrier ply by heat and pressure, the barrier ply comprising a nonwoven web which contains 1% to 70% by weight of meltblown fibres and 30% to 99% by weight of staple fibres, based in each case on the total weight of the nonwoven web, as packaging material, in particular for sterile packaging applications, characterized in that the barrier ply is produced by jointly laying down the staple fibres with the meltblown fibres. a) a barrier ply, b) a support ply which comprises a spunbonded web and which is arranged on at least one side of the barrier ply and bonded to the barrier ply by heat and pressure,
A method of reducing device variability and increasing the average capacity within a population of two-layer filtration devices through selective layering of membranes, wherein the devices comprise a housing having an inlet and an outlet spaced from said inlet, and a plurality of membranes, including at least an upstream membrane and at least a downstream membrane, wherein the upstream membrane is closest to the inlet and the downstream membrane is closest to the outlet, wherein said method comprises: (a) providing a plurality of batches of performance rated membranes, each qualified as a single product under a single standard of permeability, retention and capacity as meeting all specifications with regard to form, function and performance, including pore size rating, wherein a batch is defined as a manufactured roll of membrane; (b) characterizing each batch by its capacity determined by testing; (c) sorting the batches according to capacity; (d) matching the batches based upon capacity by pairing batches by first matching those with the highest capacity to those with the lowest capacity, then by matching those with the highest capacity of the available membranes remaining to those with the lowest capacity of the available membranes remaining; and (e) assembling each device by selecting membranes from a matched pair of the said batches, wherein the higher capacity membrane is designated as the upstream membrane of the device. (a) providing a plurality of batches of performance rated membranes, each qualified as a single product under a single standard of permeability, retention and capacity as meeting all specifications with regard to form, function and performance, including pore size rating, wherein a batch is defined as a manufactured roll of membrane; (b) characterizing each batch by its capacity determined by testing; (c) sorting the batches according to capacity; (d) matching the batches based upon capacity by pairing batches by first matching those with the highest capacity to those with the lowest capacity, then by matching those with the highest capacity of the available membranes remaining to those with the lowest capacity of the available membranes remaining; and (e) assembling each device by selecting membranes from a matched pair of the said batches, wherein the higher capacity membrane is designated as the upstream membrane of the device.
An electronic device comprising: a cover including a first section , a second section connected to the first section by a first connection mechanism , and a third section connected to the second section by a second connection mechanism ; a flexible display attached to at least a portion of the first section and a portion of the third section , the flexible display being in a first position when the first and the third sections are aligned in a plane and in a second position when the first and the third sections are in different planes; a battery embedded in a section of the cover ; a communication port embedded in the second section between the first connection mechanism and the second connection mechanism at one of two side surfaces ; a printed circuit board extending through the first, second and third sections of the cover ; and a camera positioned in the second section between the first connection mechanism and the second connection mechanism . a cover including a first section , a second section connected to the first section by a first connection mechanism , and a third section connected to the second section by a second connection mechanism ; a first section , a second section connected to the first section by a first connection mechanism , and a third section connected to the second section by a second connection mechanism ; a flexible display attached to at least a portion of the first section and a portion of the third section , the flexible display being in a first position when the first and the third sections are aligned in a plane and in a second position when the first and the third sections are in different planes; a battery embedded in a section of the cover ; a communication port embedded in the second section between the first connection mechanism and the second connection mechanism at one of two side surfaces ; a printed circuit board extending through the first, second and third sections of the cover ; and a camera positioned in the second section between the first connection mechanism and the second connection mechanism .
A method for forming chromatographic material, said method comprising: reacting support material with one or more first reactants comprising a) 3-(mercaptopropyl)trimethoxysilane or b) a combination of at least one epoxy silane, in particular (3-glycidoxypropyl)trimethoxysilane, and 1,2-ethanedithiol so as to form an intermediate product having thiol groups thereon, and polymerizing one or more monomers onto the intermediate product via the thiol groups so as to form polymer chains covalently bonded to the thiol groups, wherein said polymerizing step comprises utilizing a reaction mixture consisting of (i) the intermediate product having thiol groups thereon, (ii) the one or more monomers, (iii) a single oxidizing agent consisting of a bromate ion-containing salt, and (iv) deionized water, and wherein said monomers for forming the polymer chains extending from a surface of the support material are selected from 2-acrylamido-2-methyl-1-propanesulfonic acid, acrylic acid, methacrylic acid, N,N-diethylaminoethyl acrylate, (3-acrylamidopropyl)trimethylammonium chloride, diallyldimethylammonium chloride, or any combination thereof. reacting support material with one or more first reactants comprising a) 3-(mercaptopropyl)trimethoxysilane or b) a combination of at least one epoxy silane, in particular (3-glycidoxypropyl)trimethoxysilane, and 1,2-ethanedithiol so as to form an intermediate product having thiol groups thereon, and polymerizing one or more monomers onto the intermediate product via the thiol groups so as to form polymer chains covalently bonded to the thiol groups, wherein said polymerizing step comprises utilizing a reaction mixture consisting of (i) the intermediate product having thiol groups thereon, (ii) the one or more monomers, (iii) a single oxidizing agent consisting of a bromate ion-containing salt, and (iv) deionized water, and wherein said monomers for forming the polymer chains extending from a surface of the support material are selected from 2-acrylamido-2-methyl-1-propanesulfonic acid, acrylic acid, methacrylic acid, N,N-diethylaminoethyl acrylate, (3-acrylamidopropyl)trimethylammonium chloride, diallyldimethylammonium chloride, or any combination thereof.
A personal care device comprising: a hollow housing having at least a first transparent or translucent portion extending between an outer surface of the housing and an inner surface of the housing ; a carrier mounted inside the hollow housing in a fixed position relative to the hollow housing ; at least a first light source mounted on the carrier ; a light barrier element mounted on the carrier , wherein the light barrier element has at least a first spring element arranged to bias a light barrier plate of the light barrier element against the inner surface of the hollow housing ; the light barrier plate having at least a first light transmission portion that is in positional alignment with the first light source and in positional alignment with the first transparent or translucent portion of the hollow housing so that light emitted by the first light source is visible at the outer surface of the first transparent or translucent portion . a hollow housing having at least a first transparent or translucent portion extending between an outer surface of the housing and an inner surface of the housing ; a carrier mounted inside the hollow housing in a fixed position relative to the hollow housing ; at least a first light source mounted on the carrier ; a light barrier element mounted on the carrier , wherein the light barrier element has at least a first spring element arranged to bias a light barrier plate of the light barrier element against the inner surface of the hollow housing ; the light barrier plate having at least a first light transmission portion that is in positional alignment with the first light source and in positional alignment with the first transparent or translucent portion of the hollow housing so that light emitted by the first light source is visible at the outer surface of the first transparent or translucent portion .
A hydraulic damper , in particular a motor vehicle suspension damper, comprising a tube filed with working liquid inside of which a slidable piston body attached to a piston rod led outside the damper is disposed, wherein the flow of the working liquid is controlled within said tube during the rebound and the compression stroke of the piston body by at least one spring valve assembly provided with an axial member and rebound and compression valve assemblies (28b, 29; 27, 28c) surrounding the axial member, wherein said at least one spring valve assembly comprises a body provided with through flow channels , at least one deflectable disc covering these through flow channels , a supporting member fixed to said axial member for clamping said at least one disc at the inner circumferential part thereof, a spring seat disposed around said supporting member and abutting said at least one disc in at least one radial position at the outer circumferential part thereof, and a spring preloaded between the spring seat and the supporting member , characterised in that said spring seat comprises at least one axial projection perimetrically engaging said at least one disc , wherein axially outer diameter of said at least one axial projection is larger than its axially inner diameter to ensure axial guidance of the spring seat over said at least one disc during assembly of the hydraulic damper , a circular gap is provided between said spring seat and said supporting member , and wherein said spring seat comprises one axial projection over the outer perimeter thereof or said spring seat comprises a number of axial projections distributed, preferably equiangularly, over the outer perimeter thereof.
An X-ray diffraction apparatus comprising: an X-ray source configured to generate an X-ray beam; a first incident path configured to let the generated X-ray beam (R1) pass therethrough with a predetermined divergence angle; a second incident path configured to let the generated X-ray beam (R2) be reflected by a multilayer film mirror and let the reflected X-ray beam (R2) pass therethrough in parallel with the X-ray beam (R1) having passed through the first incident path; a movement mechanism configured to move the X-ray source , the first incident path, and the second incident path in a predetermined direction while preserving respective relative positions thereof; an incident slit configured to let an X-ray beam to be incident on a sample (S) pass therethrough; and a sample support stage configured to support the sample at a position fixed relative to the incident slit, wherein the movement mechanism switches an X-ray beam to be passed through the incident slit between the X-ray beams having passed through the first incident path or the second incident path. an X-ray source configured to generate an X-ray beam; a first incident path configured to let the generated X-ray beam (R1) pass therethrough with a predetermined divergence angle; a second incident path configured to let the generated X-ray beam (R2) be reflected by a multilayer film mirror and let the reflected X-ray beam (R2) pass therethrough in parallel with the X-ray beam (R1) having passed through the first incident path; a movement mechanism configured to move the X-ray source , the first incident path, and the second incident path in a predetermined direction while preserving respective relative positions thereof; an incident slit configured to let an X-ray beam to be incident on a sample (S) pass therethrough; and a sample support stage configured to support the sample at a position fixed relative to the incident slit, wherein the movement mechanism switches an X-ray beam to be passed through the incident slit between the X-ray beams having passed through the first incident path or the second incident path.
Process for coating surfaces containing the steps of a) applying a polyisocyanate composition A to a surface; b) applying a composition B containing at least one crosslinking catalyst B1 to the same surface; and c) curing the polyisocyanate composition A by catalytic crosslinking of the polyisocyanate composition A, wherein the molar ratio of the sum of free and reversibly blocked isocyanate groups to the sum of the isocyanate-reactive groups at commencement of the process step is at least 3 : 1; with the proviso that the process steps a) and b) are carried out in any desired sequence or else simultaneously but before the process step c) in such a way that a mixing of the polyisocyanate composition A and of the at least one catalyst B occurs only on the surface; and with the proviso that the process step a) or the process step b) is carried out at least twice. a) applying a polyisocyanate composition A to a surface; b) applying a composition B containing at least one crosslinking catalyst B1 to the same surface; and c) curing the polyisocyanate composition A by catalytic crosslinking of the polyisocyanate composition A, wherein the molar ratio of the sum of free and reversibly blocked isocyanate groups to the sum of the isocyanate-reactive groups at commencement of the process step is at least 3 : 1;
A fiber-reinforced thermoplastic resin composition comprising 0.1 to 10 mass% of a (meth)acrylic-based polymer, 1 to 70 mass% of reinforcing fiber, and 20 to 98.9 mass% of thermoplastic resin, wherein the (meth)acrylic-based polymer has, in a side chain, at least one functional group selected from a hydroxyl group, a carboxyl group, an amide group, and an urea group, characterized in that the reinforcing fiber is carbon fiber, and in that the (meth)acrylic-based polymer has a cohesive energy density (CED) of 385 to 550MPa as calculated by the following equation: CED = 1.15 × ∑ P n × CE n / ∑ P n × M n where assuming that the (meth)acrylic-based polymer contains m kinds of (meth)acrylic-based monomer units and that each of the (meth)acrylic-based monomer units is referred to as (meth)acrylic-based monomer unit (n) (n being an integer from 1 to m), CE(n) denotes the cohesive energy calculated from chemical structure CS(n) of (meth)acrylic-based monomer unit (n), M(n) denoting the molecular weight of (meth)acrylic-based monomer unit (n), and P(n) denoting the molar fraction of (meth)acrylic-based monomer unit (n) in the (meth)acrylic-based polymer so that ΣP(n) = 1, wherein the (meth)acrylic-based polymer contains 0 to 5 mass% of a (meth)acrylic-based monomer unit having a carboxyl group, 3 to 25 mass% of a (meth)acrylic-based monomer unit having a hydroxyl group, and 70 to 97 mass% of (meth)acrylic acid alkyl ester unit having an alkyl group with 1 to 4 carbon atoms, wherein the cohesive energy "CE" comprises the unit of "J/mol", the cohesive energy density "CED" comprises the unit of "MPa", the unit for the coefficient "1.15" is "g/cm 3 " and represents the specific gravity of the (meth)acrylic-based monomer unit, and M(n) denoting the molecular weight comprising the unit "g/mol".
A method performed by a network device and comprising configuring a resource pool for a plurality of user equipments configured with contention based transmission; configuring a resource allocation within the resource pool for a contention based transmission by user equipment of the plurality of user equipments configured for contention based transmissions, wherein the resource allocation is configured with more than one predefined or preconfigured sets of resource allocation granularities, wherein each of the predefined or preconfigured sets of resource allocation granularities comprises a plurality of resource allocation values, each of the plurality of resource allocation values indicating a number of physical resource units, and wherein each of the predefined or preconfigured sets of resource allocation granularities comprises a different number of resource allocation values; and sending information comprising the resource allocation towards the user equipment, wherein the information comprises an indication of a set of the predefined or preconfigured sets of the resource allocation granularities that the user equipment is to use to select one of the plurality of resource allocation values included in the indicated set for the contention based transmission. configuring a resource pool for a plurality of user equipments configured with contention based transmission; configuring a resource allocation within the resource pool for a contention based transmission by user equipment of the plurality of user equipments configured for contention based transmissions, wherein the resource allocation is configured with more than one predefined or preconfigured sets of resource allocation granularities, wherein each of the predefined or preconfigured sets of resource allocation granularities comprises a plurality of resource allocation values, each of the plurality of resource allocation values indicating a number of physical resource units, and wherein each of the predefined or preconfigured sets of resource allocation granularities comprises a different number of resource allocation values; and sending information comprising the resource allocation towards the user equipment, wherein the information comprises an indication of a set of the predefined or preconfigured sets of the resource allocation granularities that the user equipment is to use to select one of the plurality of resource allocation values included in the indicated set for the contention based transmission.