mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for pre-fetching content items, said method using a first computing device including a processor in communication with an output device and a memory, said method comprising: displaying a publication to a user using the output device; identifying a break point associated with the publication; determining a pre-fetch length of a content item that is less than a total length of the content item, wherein the pre-fetch length is determined based upon historical user behavior of the user; determining, by the processor, a pre-fetch point prior to the break point; and initiating transmission of a first portion of the content item approximately equal to the pre-fetch length into the memory at the pre-fetch point. displaying a publication to a user using the output device; identifying a break point associated with the publication; determining a pre-fetch length of a content item that is less than a total length of the content item, wherein the pre-fetch length is determined based upon historical user behavior of the user; determining, by the processor, a pre-fetch point prior to the break point; and initiating transmission of a first portion of the content item approximately equal to the pre-fetch length into the memory at the pre-fetch point.
A vibration damping material comprising a composition as a main component, the composition being prepared by mixing, based on 100 parts by weight of acrylic rubber that is a polymer of at least one monomer selected from alkyl acrylate, alkoxyalkyl acrylate, alkyl methacrylate, and alkoxyalkyl methacrylate and a monomer that serves as an epoxy-based crosslinking point, in an external ratio, 0.01 to 15 parts by weight of organic peroxide that can crosslink between epoxy-based crosslinking points with each other, 1 to 100 parts by weight of tackifying resin, 1 to 20 parts by weight of plasticizer, 25 to 50 parts by weight of carbon black having a mean particle diameter of 22 to 45 nm, and 15 to 35 parts by weight of carbon black having a mean particle diameter of 70 to 85 nm; and crosslinking crosslinking points in the acrylic rubber with each other through the organic peroxide.
A process for improving the reflectivity of reflective surfaces of antennas, said reflective surfaces being made of a composite comprising a resin matrix and fibers, comprising at least one layer of composite, comprising the following steps: a) laminating a layer of plastic comprising a metallization layer on the at least one layer of composite, bonding the metallization layer to the substrate of the layer of composite in its preimpregnated state by means of the resin itself of the composite; b) cutting the assembly of the layer of composite and the layer of plastic comprising a metallization layer; c) forming strips or patterns with a determined shape from the assembly formed by the layer of composite and the layer of plastic comprising a metallization layer of step b); d) laminating the strips or patterns of step c) as a first layer on a molding jig; e) ending the lamination process, adding the rest of the layers of composite of the reflective surface to the first layer made in step d); f) preparing the vacuum and curing bag; g) introducing in the autoclave; h) performing the curing cycle, in which the resin of the composite, upon polymerizing, bonds the layer of plastic comprising the metallization layer to the rest of the substrate of the layer of composite. a) laminating a layer of plastic comprising a metallization layer on the at least one layer of composite, bonding the metallization layer to the substrate of the layer of composite in its preimpregnated state by means of the resin itself of the composite; b) cutting the assembly of the layer of composite and the layer of plastic comprising a metallization layer; c) forming strips or patterns with a determined shape from the assembly formed by the layer of composite and the layer of plastic comprising a metallization layer of step b); d) laminating the strips or patterns of step c) as a first layer on a molding jig; e) ending the lamination process, adding the rest of the layers of composite of the reflective surface to the first layer made in step d); f) preparing the vacuum and curing bag; g) introducing in the autoclave; h) performing the curing cycle, in which the resin of the composite, upon polymerizing, bonds the layer of plastic comprising the metallization layer to the rest of the substrate of the layer of composite.
Method for connecting solar cells (10, 12, 14) to manufacture a solar cell module by means of connectors (16, 54, 68) running alternatingly along front faces, having rear faces and busbars (22, 24, 26), of consecutive solar cells (10, 12, 14) and connected in electrically conducting manner to said solar cells and whose number corresponds to that of said busbars and which each have a strip-like geometry with opposite flat faces, where the flat face facing away from said solar cell and running on the front face of said solar cell is provided with a material and/or a structure (156, 148, 150) which reflects radiation and unaltered structural properties are present in the remaining sections of said connector, where solar cells with a silicon-based and p-conducting or n-conducting wafer (42, 40) are used on whose rear face is arranged a layer of passivating dielectric material having local openings (44, 46) and covered by a sintered layer covering the full surface of the rear face of said wafer and consisting of aluminium or containing aluminium, where a strip consisting of solder material is applied by means of ultrasound onto said sintered layer in the area of the connector to be contacted, where said connector (16, 54, 68) is connected to said strip in substance-to-substance manner, where said connector has solder material (144, 146) on both flat faces and where provision with the reflecting material and/or structure takes place during or after connection of said solar cell to said connector.
Fifth wheel coupling for reversible coupling of a trailer to a tractor, comprising: - a coupling plate for receiving a pin element of the trailer and - a bearing block for pivotably mounting the coupling plate about a pivot axis, in particular about a horizontally extending pivot axis, characterized in that at least one distance sensor is provided, which determines a distance in relation to a reference surface, wherein a load condition and/or a wear condition of the fifth wheel coupling is determined via the distance and taking into account a correspondingly selected stiffness model for the bearing block, wherein the at least one distance sensor and/or the reference surface is part of the bearing block or is arranged on the bearing block. - a coupling plate for receiving a pin element of the trailer and - a bearing block for pivotably mounting the coupling plate about a pivot axis, in particular about a horizontally extending pivot axis, characterized in that at least one distance sensor is provided, which determines a distance in relation to a reference surface, wherein a load condition and/or a wear condition of the fifth wheel coupling is determined via the distance and taking into account a correspondingly selected stiffness model for the bearing block, wherein the at least one distance sensor and/or the reference surface is part of the bearing block or is arranged on the bearing block.
A travel control method for a vehicle, comprising: specifying a pedestrian crosswalk through which a subject vehicle is expected to pass as a target pedestrian crosswalk; detecting a road configuration close to the target pedestrian crosswalk; estimating a traffic line (S1-S8, S21-S23, S31-S33) of a moving object crossing the target pedestrian crosswalk on a basis of the road configuration; setting an area including the estimated traffic line as a detection area of a detector detecting an object around the subject vehicle; detecting the moving object in the detection area using the detector; and controlling travel of the subject vehicle on a basis of a detection result of the detector, characterized by further comprising: calculating a moving distance (LX1, LX2) in which the moving object moves until the subject vehicle reaches the target pedestrian crosswalk, on a basis of a moving speed of the moving object; and setting a specific area in the area of the estimated traffic line (S1-S8, S21-S23, S31-S33) on the road configuration as the detection area, the specific area being an area in which a distance from the target pedestrian crosswalk is the moving distance (LX1, LX2) or less along the traffic line and has a predetermined width. specifying a pedestrian crosswalk through which a subject vehicle is expected to pass as a target pedestrian crosswalk; detecting a road configuration close to the target pedestrian crosswalk; estimating a traffic line (S1-S8, S21-S23, S31-S33) of a moving object crossing the target pedestrian crosswalk on a basis of the road configuration; setting an area including the estimated traffic line as a detection area of a detector detecting an object around the subject vehicle; detecting the moving object in the detection area using the detector; and controlling travel of the subject vehicle on a basis of a detection result of the detector, characterized by further comprising: calculating a moving distance (LX1, LX2) in which the moving object moves until the subject vehicle reaches the target pedestrian crosswalk, on a basis of a moving speed of the moving object; and setting a specific area in the area of the estimated traffic line (S1-S8, S21-S23, S31-S33) on the road configuration as the detection area, the specific area being an area in which a distance from the target pedestrian crosswalk is the moving distance (LX1, LX2) or less along the traffic line and has a predetermined width. calculating a moving distance (LX1, LX2) in which the moving object moves until the subject vehicle reaches the target pedestrian crosswalk, on a basis of a moving speed of the moving object; and setting a specific area in the area of the estimated traffic line (S1-S8, S21-S23, S31-S33) on the road configuration as the detection area, the specific area being an area in which a distance from the target pedestrian crosswalk is the moving distance (LX1, LX2) or less along the traffic line and has a predetermined width.
A coated film comprising: (a) a multilayer polymeric film having opposing facial surfaces, wherein a first facial surface has a root mean square surface roughness of at least 80 nm when measured using image analysis with an atomic force microscope and as described in the description and wherein a second facial surface has a root mean square surface roughness of less than 80 nm when measured using image analysis with an atomic force microscope and as described in the description; and (b) a coating on at least a portion of the first facial surface, wherein the coating comprises polyurethane, wherein the film comprises at least one of polyethylene, polypropylene, polyethylene terephthalate, or polyamide, and wherein the coated film has a Zebedee clarity of at least 2% when measured according to ASTM D1746/15 in the coated portion of the first facial surface wherein the coating is on less than 50% of the first facial surface based on the surface area of the first facial surface, wherein the coated film exhibits a gloss of less than 28 gloss units in the region of the first facial surface where the coating is absent when measured according to ASTM D2457. (a) a multilayer polymeric film having opposing facial surfaces, wherein a first facial surface has a root mean square surface roughness of at least 80 nm when measured using image analysis with an atomic force microscope and as described in the description and wherein a second facial surface has a root mean square surface roughness of less than 80 nm when measured using image analysis with an atomic force microscope and as described in the description; and (b) a coating on at least a portion of the first facial surface, wherein the coating comprises polyurethane,
A gas injection nozzle refractory with one or more gas injection small metal tubes buried in a carbon-containing refractory, comprising: a central refractory with the small metal tubes buried therein; and a peripheral refractory surrounding the central refractory, wherein the central refractory on a plane of the gas injection nozzle refractory has an external shape of a circle with a radius in the range of R + 10 to R + 150 mm concentric with a virtual circle with a minimum radius surrounding all the buried small metal tubes, R mm being a radius of the virtual circle, the central refractory is a MgO-C refractory with a carbon content in the range of 40% to 80% by mass, a metal Al content in the range of 3% to 8% by mass, and a mass ratio of a metal Si content to the metal Al content in the range of 0.30 to 1.0, and the peripheral refractory is a MgO-C refractory with a carbon content in the range of 10% to 25% by mass. a central refractory with the small metal tubes buried therein; and a peripheral refractory surrounding the central refractory, wherein the central refractory on a plane of the gas injection nozzle refractory has an external shape of a circle with a radius in the range of R + 10 to R + 150 mm concentric with a virtual circle with a minimum radius surrounding all the buried small metal tubes, R mm being a radius of the virtual circle, the central refractory is a MgO-C refractory with a carbon content in the range of 40% to 80% by mass, a metal Al content in the range of 3% to 8% by mass, and a mass ratio of a metal Si content to the metal Al content in the range of 0.30 to 1.0, and the peripheral refractory is a MgO-C refractory with a carbon content in the range of 10% to 25% by mass.
A process for the treatment, by pyrolysis, of solid waste made up at least in part of municipal solid waste, wherein the waste to be treated undergoes a pyrolysis stage inside one or more rotary drum reactors, with the production of a pyrolysis gas stream and a carbonaceous solid residue essentially composed of pyrolysis coke, characterised by the fact that the said waste to be treated is preliminarily separated into at least two fractions, the first one of which, of smaller particle size and greater moisture contents, is subjected to a preliminary drying step in one or more rotary drum driers before being fed - together with the other waste fractions - to the said pyrolysis stage, and by the fact that the said carbonaceous solid waste obtained from the pyrolysis stage is further subjected to a gasification step to recover a further synthesis gas fraction, which is subsequently added to the said pyrolysis gas stream to be fed to an energy recovery stage with the production of thermal energy, the solid residue of the said gasification step substantially representing the final waste matter of the entire process.
A formulation comprising, consisting essentially of, or consisting of i) virgin salmon oil, honokiol, and magnolol, ii) VSO, honokiol, magnolol, and vitamin A, iii) VSO, honokiol, magnolol, vitamin A, and phosphatidylserine, iv) VSO, honokiol, magnolol, vitamin A, phosphatidylserine, and hydroxytyrosol, or v) VSO, honokiol, magnolol, vitamin A, phosphatidylserine, olive oil, and hydroxytyrosol, optionally wherein the pH of the formulation is from about 6 to about 8. i) virgin salmon oil, honokiol, and magnolol, ii) VSO, honokiol, magnolol, and vitamin A, iii) VSO, honokiol, magnolol, vitamin A, and phosphatidylserine, iv) VSO, honokiol, magnolol, vitamin A, phosphatidylserine, and hydroxytyrosol, or v) VSO, honokiol, magnolol, vitamin A, phosphatidylserine, olive oil, and hydroxytyrosol,
A foot stabilizer comprising: a spine; and a plurality of ribs (30 - 37) including a first set of ribs and a second set of ribs wherein the first set is disposed on and extending from a lateral side of the spine and the second set disposed on and extending from a medial side of the spine, the plurality of ribs being contoured to substantially enclose and provide lateral support to a foot, and terminate at a distal end which is substantially over a top portion of the foot, and a plurality of slots (100 - 109, 111, 113) which extend into the spine and wherein the slots are positioned between the ribs so as to separate the individual ribs from each other, wherein each of the ribs includes an individual stiffening member, integrally formed on the outer surface of the rib and providing an amount of stiffening that is varied along the length of the rib, wherein each of the ribs further includes an eyelet opening at its distal end, and wherein the foot stabilizer includes a forefoot portion, a midfoot portion, and a rearfoot portion, wherein the forefoot portion includes an upwardly curved toe portion, the rearfoot portion includes an upwardly extending heel counter and the plurality of ribs is positioned at least partially at the midfoot portion. a spine; and a plurality of ribs (30 - 37) including a first set of ribs and a second set of ribs wherein the first set is disposed on and extending from a lateral side of the spine and the second set disposed on and extending from a medial side of the spine, the plurality of ribs being contoured to substantially enclose and provide lateral support to a foot, and terminate at a distal end which is substantially over a top portion of the foot, and a plurality of slots (100 - 109, 111, 113) which extend into the spine and wherein the slots are positioned between the ribs so as to separate the individual ribs from each other, wherein each of the ribs includes an individual stiffening member, integrally formed on the outer surface of the rib and providing an amount of stiffening that is varied along the length of the rib, wherein each of the ribs further includes an eyelet opening at its distal end, and wherein the foot stabilizer includes a forefoot portion, a midfoot portion, and a rearfoot portion, wherein the forefoot portion includes an upwardly curved toe portion, the rearfoot portion includes an upwardly extending heel counter and the plurality of ribs is positioned at least partially at the midfoot portion.
A foamable skin washing agent comprising (a) a fatty acid salt having 10 to 22 carbon atoms, (b) one or more polymers selected from a homopolymer, a dipolymer and a terpolymer derived from a cationated monomer represented by the following formula: wherein R 1 and R 2 each independently represent a hydrogen atom, or an alkyl group having from 1 to 4 carbon atoms; and Y - represents a monovalent inorganic or organic anion, (c) a polyglyceryl monoalkyl ether represented by the following formula: wherein n indicates an integer of from 6 to 22, and m indicates an integer of 3 or more, (d) one or more selected from an acylmethyltaurine salt and a hydroxy ether carboxylate salt. (c) a polyglyceryl monoalkyl ether represented by the following formula: wherein n indicates an integer of from 6 to 22, and m indicates an integer of 3 or more, (d) one or more selected from an acylmethyltaurine salt and a hydroxy ether carboxylate salt.
An illumination apparatus, comprising: light-emitting structures in which a blue light-emitting element is embedded in a transparent resin having a convex surface shape, wherein the transparent resin is formed in a convex lens shape; a substrate on which the light-emitting structures are disposed two-dimensionally; and a phosphor sheet disposed at a position spaced from the substrate and containing phosphor particles that obtain white light from blue light of the blue light-emitting element, wherein in each light-emitting structure, the blue light-emitting element is mounted on a base material, characterized by a height b of an inner wall formed at peripheral edges of the base material is equal to or greater than the thickness of the blue light-emitting element, a height d of the transparent resin is greater than the height b of the inner wall, the convex surface shape is expressed by a ratio r/a that is equal to or less than 4.0, "r" being a radius of curvature of the convex surface shape, and "a" being half of the width of the transparent resin in contact with the base material. light-emitting structures in which a blue light-emitting element is embedded in a transparent resin having a convex surface shape, wherein the transparent resin is formed in a convex lens shape; a substrate on which the light-emitting structures are disposed two-dimensionally; and a phosphor sheet disposed at a position spaced from the substrate and containing phosphor particles that obtain white light from blue light of the blue light-emitting element, wherein in each light-emitting structure, the blue light-emitting element is mounted on a base material, characterized by a height b of an inner wall formed at peripheral edges of the base material is equal to or greater than the thickness of the blue light-emitting element, a height d of the transparent resin is greater than the height b of the inner wall, the convex surface shape is expressed by a ratio r/a that is equal to or less than 4.0, "r" being a radius of curvature of the convex surface shape, and "a" being half of the width of the transparent resin in contact with the base material.
A method of operating a network device in a network comprising one or more network nodes, an authentication server, and a client (110, 111, 112, 113, 114) having an associated client identifier and credentials, the method comprising the following steps: receiving at at least one port a protocol data unit, PDU, and credentials from the client (110, 111, 112, 113, 114), said method being characterized by: maintaining a local shared admission table within said network device which is adapted to retain a client identifier of each of one or more authenticated clients (110, 111, 112, 113, 114), wherein said client identifier includes clients that directly logged into said network device hosting the shared admission table as well as clients that directly logged into other network nodes associated with the same virtual pre-authentication networks authentication group as said network device, determining by means of an authentication manager implemented within said network device from said table whether the client (110, 111, 112, 113, 114) is authenticated based on the PDU, determining whether to authenticate the client (110, 111, 112, 113, 114) from the authentication server based on the client credentials, and transmitting the client identifier to the one or more network nodes if the client (110, 111, 112, 113, 114) is authenticated by the authentication server. receiving at at least one port a protocol data unit, PDU, and credentials from the client (110, 111, 112, 113, 114), said method being characterized by: maintaining a local shared admission table within said network device which is adapted to retain a client identifier of each of one or more authenticated clients (110, 111, 112, 113, 114), wherein said client identifier includes clients that directly logged into said network device hosting the shared admission table as well as clients that directly logged into other network nodes associated with the same virtual pre-authentication networks authentication group as said network device, determining by means of an authentication manager implemented within said network device from said table whether the client (110, 111, 112, 113, 114) is authenticated based on the PDU, determining whether to authenticate the client (110, 111, 112, 113, 114) from the authentication server based on the client credentials, and transmitting the client identifier to the one or more network nodes if the client (110, 111, 112, 113, 114) is authenticated by the authentication server.