mhurhangee/ep-ind-claims huggingface dataset:
A wind turbine blade including a protective cover, wherein the protective cover is made of a polymer material, such as a polyether based polyurethane, wherein the protective cover is attached along at least a part of a longitudinal edge of the wind turbine blade by a layer of adhesive arranged between an inside of the protective cover and a surface of the longitudinal edge of the wind turbine blade, wherein the protective cover is elongated in a longitudinal direction and has an at least substantially U-formed cross-section, wherein the protective cover includes a central cover section extending in the longitudinal direction and two peripheral cover sections extending in the longitudinal direction at either side of the central cover section and each having an outer edge, respectively, wherein the central cover section has a minimum thickness of at least 1 millimetre, and wherein each peripheral cover section has a thickness decreasing from a maximum thickness of at least 1 millimetre to a minimum thickness at its outer edge of less than 1 millimetre, whereby the adhesive is a general purpose adhesive, such as a two component epoxy adhesive, having thixotropic and UV resistant properties, characterized in that the adhesive forms a joint (21, 22) between the outer edge of each peripheral cover section and the surface of the longitudinal edge of the wind turbine blade so that the outer edge is at least substantially completely covered by the adhesive over its entire thickness and so that the joint (21, 22) forms an oblique surface from the outer edge of each peripheral cover section to the surface of the longitudinal edge of the wind turbine blade, wherein the joint (21, 22) has a first height (h 1) at the outer edge and a second height (h 2) at the position where it (21, 22) ends at the surface of the longitudinal edge of the wind turbine blade, wherein the second height (h 2) is smaller than the first height (h 1) and smaller than 0.2 millimetres, preferably smaller than 0.1 millimetres, wherein the joint (21, 22) is integrally formed with the layer of adhesive arranged between the inside of the protective cover and the surface of the longitudinal edge of the wind turbine blade.
A support for heating elements of floors and of radiating claddings, comprising a base (11; 211) from which bosses (12, 13, 14, 15; 212, 213, 214, 215) protrude which form between them interspaces (16, 17, 18, 19) for laying pipes or electric heating cables, each one of said bosses having a concave portion comprising a frustum-shaped surface, with the concavity directed outward in a laid configuration, on the surface of said concave portion there being at least one anchoring low-relief (22, 23, 24, 25) characterized in that said anchoring low-relief (22, 23, 24, 25) forms an extraction-preventing undercut adapted to be filled with material for laying an element of a cladding or a floor, for preventing an extraction of said material, said undercut being an undercut with respect to a plane parallel to said base (11,211) and passing through an upper point of an outer edge of the corresponding low-relief.
A method of receiving a synchronization signal block, SSB, by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a serving cell, a first SSB comprising a physical broadcast channel, PBCH, a primary synchronization signal, PSS, and a secondary synchronization signal, SSS; obtaining timing information based on a first SSB index of the first SSB, wherein the first SSB index of the first SSB is determined based on: ( i) determining 3 least significant bits, LSBs, of the first SSB index from a PBCH demodulation reference signal, DMRS, and (ii) determining 3 most significant bits, MSBs, of the first SSB index from the PBCH; receiving, from a neighbor cell, a second SSB; and obtaining a second SSB index of the second SSB by combining the 3 MSBs of the first SSB index and 3 LSBs obtained from a PBCH-DMRS signal of the second SSB, obtaining information from the PBCH, wherein the information is scrambled based on a 3 rd LSB and a 2 nd LSB among a plurality of bits of a system frame number, SFN, contained in the PBCH, except for the information related to the 3 rd LSB and the 2 nd LSB of the SFN. receiving, from a serving cell, a first SSB comprising a physical broadcast channel, PBCH, a primary synchronization signal, PSS, and a secondary synchronization signal, SSS; obtaining timing information based on a first SSB index of the first SSB, wherein the first SSB index of the first SSB is determined based on: ( i) determining 3 least significant bits, LSBs, of the first SSB index from a PBCH demodulation reference signal, DMRS, and (ii) determining 3 most significant bits, MSBs, of the first SSB index from the PBCH; receiving, from a neighbor cell, a second SSB; and obtaining a second SSB index of the second SSB by combining the 3 MSBs of the first SSB index and 3 LSBs obtained from a PBCH-DMRS signal of the second SSB, obtaining information from the PBCH, wherein the information is scrambled based on a 3 rd LSB and a 2 nd LSB among a plurality of bits of a system frame number, SFN, contained in the PBCH, except for the information related to the 3 rd LSB and the 2 nd LSB of the SFN.
A method in a User Equipment, UE, device of a user for automatically determining an intended partner device that the user desires to interact with, the method comprising: determining a UE orientation value; determining a UE elevation value; receiving a beacon signal from a candidate partner device, wherein the beacon signal includes: a device identifier of the candidate partner device, a device elevation value that indicates an elevation of the candidate partner device, and a device orientation value that indicates an orientation of the candidate partner device; determining a signal strength value for the beacon signal; selecting the candidate partner device as the intended partner device based on at least: the signal strength value, the UE elevation value, the device elevation value that indicates the elevation of the candidate partner device, the device orientation value that indicates the orientation of the candidate partner device, and the UE orientation value; and transmitting a message to the intended partner device using the device identifier of the candidate partner device. determining a UE orientation value; determining a UE elevation value; receiving a beacon signal from a candidate partner device, wherein the beacon signal includes: a device identifier of the candidate partner device, a device elevation value that indicates an elevation of the candidate partner device, and a device orientation value that indicates an orientation of the candidate partner device; a device identifier of the candidate partner device, a device elevation value that indicates an elevation of the candidate partner device, and a device orientation value that indicates an orientation of the candidate partner device; determining a signal strength value for the beacon signal; selecting the candidate partner device as the intended partner device based on at least: the signal strength value, the UE elevation value, the device elevation value that indicates the elevation of the candidate partner device, the device orientation value that indicates the orientation of the candidate partner device, and the UE orientation value; and the signal strength value, the UE elevation value, the device elevation value that indicates the elevation of the candidate partner device, the device orientation value that indicates the orientation of the candidate partner device, and the UE orientation value; and transmitting a message to the intended partner device using the device identifier of the candidate partner device.
A method for producing a second recombinant protein said method comprising the steps of: - providing an eukaryotic host cell expressing a mutant RPL10 protein, wherein wild type RPL10 is not expressed or its expression is silenced within said eukaryotic cell, wherein the mutant RPL10 protein comprises one or more amino acids substitutions at positions 33, 66, 70, 98, 123; and - introducing a nucleic acid encoding a recombinant protein under conditions that allow expression of the recombinant polypeptide. - providing an eukaryotic host cell expressing a mutant RPL10 protein, wherein wild type RPL10 is not expressed or its expression is silenced within said eukaryotic cell, wherein the mutant RPL10 protein comprises one or more amino acids substitutions at positions 33, 66, 70, 98, 123; and - introducing a nucleic acid encoding a recombinant protein under conditions that allow expression of the recombinant polypeptide.
A method for the manufacture of a composite fragmenting material having exothermic properties, comprising the steps of packing a mold with preformed metal fragments, characterised by: filling interstitial spaces surrounding said metal fragments with a reactive metal powder to form a mixture; and sintering under a vacuum or an inert atmosphere said mixture at a temperature of between 1200°C and 1500°C whereby the reactive material coats the fragments and bonds them together, wherein said reactive metal powder is selected from the group consisting of zirconium, niobium, hafnium, aluminum, titanium, magnesium and alloys of those metals containing more than 50%, by weight, of those metals. filling interstitial spaces surrounding said metal fragments with a reactive metal powder to form a mixture; and sintering under a vacuum or an inert atmosphere said mixture at a temperature of between 1200°C and 1500°C whereby the reactive material coats the fragments and bonds them together, wherein said reactive metal powder is selected from the group consisting of zirconium, niobium, hafnium, aluminum, titanium, magnesium and alloys of those metals containing more than 50%, by weight, of those metals.
A hair conditioning composition comprising: (a) from 0.1 to 10% by weight of a silicone compound; (b) from 0.1 to 5% by weight of a cationic surfactant; (c) from 0.01 to 5% by weight of a zinc based anti dandruff agent; (d) from 0 to 1% of a cyclomethicone compound; and (e) a stabilizing polymer selected from a poloxamer wherein the silicone compound is a non-volatile silicone: and wherein the poloxamer is a compound of the structure where a has a value from 2 to 130 and b has a value from 15 to 67. (a) from 0.1 to 10% by weight of a silicone compound; (b) from 0.1 to 5% by weight of a cationic surfactant; (c) from 0.01 to 5% by weight of a zinc based anti dandruff agent; (d) from 0 to 1% of a cyclomethicone compound; and (e) a stabilizing polymer selected from a poloxamer
Process for manufacturing a porous component to be used as a flow restrictor in aerostatic bearing applied to hermetic compressors, characterized in that a dual-porosity porous component is obtained through powder injection molding of multi-material parts comprising the following steps: step i): homogenization of two different preparations comprising (a) first portion of metallic powder and (b) an organic binder, comprising a mixture of thermoplastic polymers and waxes; step ii): granulation, in separate stages, of at least two different preparations obtained in step i); step iii): heating of the granulated preparations obtained in step ii) up to the temperature of initial melting of the binder; step iv) injection molding the first preparation to form an inner portion of the component, step v) injection molding the second preparation to form an outer portion of the component covering the inner portion of the component step vi) removal of the organic binder in at least one step by using at least one of the thermal and chemical processes; step vii): pre-sintering of the material obtained in step vi), at a temperature that promotes mechanical resistance sufficient to handle the material for the subsequent steps; and step viii): controlled sintering of the molded material obtained in step vii) at a temperature that promotes densification through sintering up to a residual porosity lower than 5% on the outer portion of the porous component forming an outer portion that do not have open pore and, at the same time, that keeps a volume percent of open pores substantially higher than 5% on the inner portion of the porous component, wherein step viii) may occur simultaneously with the earlier step.
A folding and unfolding mechanism for front and rear leg assemblies of a frame, comprising a folding and unfolding control assembly and a front-rear leg rotating assembly, wherein the front-rear leg rotating assembly comprises: a rotating shaft adapted to be arranged on a seat body and used for rotatably connecting a front leg assembly to the seat body; a rear leg assembly supporting rod adapted to be used for connecting a rear leg assembly to the seat body; and a rear leg assembly rotating rod arranged on the front leg assembly and used for connecting the rear leg assembly to the front leg assembly, so that the rear leg assembly is driven to rotate reversely when the front leg assembly rotates around the rotating shaft; characterized in that the folding and unfolding control assembly comprises: a bolt adapted to be movably arranged on the seat body and capable of penetrating through the front leg assembly and the rear leg assembly to fulfill limiting; and a folding handle connected to the bolt through a folding steel wire to control a movement of the bolt. a rotating shaft adapted to be arranged on a seat body and used for rotatably connecting a front leg assembly to the seat body; a rear leg assembly supporting rod adapted to be used for connecting a rear leg assembly to the seat body; and a rear leg assembly rotating rod arranged on the front leg assembly and used for connecting the rear leg assembly to the front leg assembly, so that the rear leg assembly is driven to rotate reversely when the front leg assembly rotates around the rotating shaft; characterized in that the folding and unfolding control assembly comprises: a bolt adapted to be movably arranged on the seat body and capable of penetrating through the front leg assembly and the rear leg assembly to fulfill limiting; and a folding handle connected to the bolt through a folding steel wire to control a movement of the bolt. a bolt adapted to be movably arranged on the seat body and capable of penetrating through the front leg assembly and the rear leg assembly to fulfill limiting; and a folding handle connected to the bolt through a folding steel wire to control a movement of the bolt.
A method for producing a metallic coating layer comprising nickel and molybdenum on an electrically conductive substrate by electrodeposition from an aqueous solution comprising nickel salts, gluconate anions and citrate anions wherein the substrate acts as the cathode and wherein molybdate is added and wherein the pH of the aqueous solution is adjusted between 5.0 and 8.5, wherein the aqueous solution comprises - 0.53 to 1.06 mol/l NiSO 4 - 0.028 to 0.68 mol/l NiCl 2 - 0.008 to 0.10 mol/l ammonium molybdate or an alkali metal molybdate - 0.45 to 0.54 mol/l sodium citrate - 0.023 to 0.207 mol/l sodium gluconate - 0.055 to 1.33 mol/l ammonium from a suitable ammonium salt such as ammonium sulphate; wherein the aqueous solution is maintained at a temperature between 30 and 80 °C; and wherein the cathodic current density is at least 10 A/dm 2 and at most 60 A/dm 2. wherein ammonium is added to the aqueous solution as a stress reliever to relieve or prevent internal stresses in the coating. - 0.53 to 1.06 mol/l NiSO 4 - 0.028 to 0.68 mol/l NiCl 2 - 0.008 to 0.10 mol/l ammonium molybdate or an alkali metal molybdate - 0.45 to 0.54 mol/l sodium citrate - 0.023 to 0.207 mol/l sodium gluconate - 0.055 to 1.33 mol/l ammonium from a suitable ammonium salt such as ammonium sulphate;
Method for assembling a roller bearing, said bearing comprising an outer member and an inner member, each provided with two annular roller tracks (1a, 1b; 2a, 2b) which are axially spaced apart so as to form between said members two roller tracks wherein is arranged respectively a row (3a, 3b) of tapered rollers to make it possible for the relative rotation of said members around an axis, the rollers of each of the rows (3a, 3b) being retained respectively in a housing of a retention cage (8a, 8b) by being able to rotate around their own axis, each one of said tracks having a truncated geometry extending between an outer edge and an inner edge and on which the tapered rollers are born by way of the truncated periphery thereof, the inner edge of each of the tracks (1a, 1b; 2a, 2b) having a diameter which is less than the diameter of the outer edge thereof such that the rows (3a, 3b) of tapered rollers are in oblique contact in the roller tracks according to an O-shaped assembly, the outer member having two collars (4a, 4b) formed respectively on the outer edge of an outer track (1a, 1b) by extending radially on the outer diameter of said edge and a collar diameter which is less than said outer diameter, the inner edge of at least one outer track (1a, 1b) being provided with a holding element which extends radially between the outer tracks (1a, 1b), said element being arranged to form a stop for axially retaining the row (3a, 3b) of rollers inside said outer track, said method being characterised in that it provides for each row (3a, 3b), to have rollers inside the outer roller track (1a, 1b) before raising the retention cage (8a, 8b) over said row, then to raise the inner member in the outer member by arranging the rollers retained by the cages (8a, 8b) on the respective inner roller tracks (2a, 2b), said method further providing to retain the rollers of at least one row (3a, 3b) axially stopped on the holding element during the mounting of the cage (8a, 8b) on said row.
A method of virtually designing a post and core (21; 321; 721; 1006) restoration adapted for attachment in a damaged tooth (24; 301; 601; 701) of a patient, wherein the method comprises: - obtaining a 3D image comprising a first 3D scan wherein a scan pin (309; 709a, 709b; 809; 904; 905; 909; 1400; 1500) comprising an outer part and an inner part is arranged in the tooth during the 3D scanning, such that the outer part of the scan pin is located at least partly outside the tooth, and the inner part of the scan pin is located at least partly in the tooth, where the inner part of the scan pin corresponds to the post of the post and core, and where the first 3D scan comprises only at least part of the damaged tooth and the outer part of the scan pin; - providing a digital 3D shape (309'; 509') of the scan pin comprising the outer part and the inner part of the scan pin; - virtually matching the first 3D scan with the digital 3D shape of the scan pin, where the matching comprises matching the at least part of the scan pin of the first 3D scan with the at least part of the scan pin of the digital 3D shape, such that the inner part of the scan pin of the digital 3D shape is represented relative to the tooth in the first 3D scan; and - virtually designing the post and core based on the representation of the inner part of the scan pin relative to the tooth in the first 3D scan. - obtaining a 3D image comprising a first 3D scan wherein a scan pin (309; 709a, 709b; 809; 904; 905; 909; 1400; 1500) comprising an outer part and an inner part is arranged in the tooth during the 3D scanning, such that the outer part of the scan pin is located at least partly outside the tooth, and the inner part of the scan pin is located at least partly in the tooth, where the inner part of the scan pin corresponds to the post of the post and core, and where the first 3D scan comprises only at least part of the damaged tooth and the outer part of the scan pin; - providing a digital 3D shape (309'; 509') of the scan pin comprising the outer part and the inner part of the scan pin; - virtually matching the first 3D scan with the digital 3D shape of the scan pin, where the matching comprises matching the at least part of the scan pin of the first 3D scan with the at least part of the scan pin of the digital 3D shape, such that the inner part of the scan pin of the digital 3D shape is represented relative to the tooth in the first 3D scan; and - virtually designing the post and core based on the representation of the inner part of the scan pin relative to the tooth in the first 3D scan.
A lighting apparatus comprising: an LED module assembly comprising: a thermal assembly comprising a heat pipe and contact pad coupled to an exterior surface of the heat pipe; at least one light emitting diode coupled to the contact pad; the heat pipe comprising a first end and a second end, wherein the first end of the heat pipe is coupled to a heat pipe mating surface, the lighting apparatus being characterised in that it comprises: a luminaire housing, wherein an inner surface of the luminaire housing comprises a housing mating surface, and wherein the heat pipe mating surface is configured to contact and releasably mate with the housing mating surface to define a thermal junction; and a luminaire base, wherein the luminaire base is coupled to the second end of the heat pipe and coupled to the luminaire housing, wherein the first end and the second end of the heat pipe are enclosed by the coupled luminaire housing and the luminaire base. an LED module assembly comprising: a thermal assembly comprising a heat pipe and contact pad coupled to an exterior surface of the heat pipe; at least one light emitting diode coupled to the contact pad; the heat pipe comprising a first end and a second end, wherein the first end of the heat pipe is coupled to a heat pipe mating surface, a thermal assembly comprising a heat pipe and contact pad coupled to an exterior surface of the heat pipe; at least one light emitting diode coupled to the contact pad; the heat pipe comprising a first end and a second end, wherein the first end of the heat pipe is coupled to a heat pipe mating surface, the lighting apparatus being characterised in that it comprises: a luminaire housing, wherein an inner surface of the luminaire housing comprises a housing mating surface, and wherein the heat pipe mating surface is configured to contact and releasably mate with the housing mating surface to define a thermal junction; and a luminaire base, wherein the luminaire base is coupled to the second end of the heat pipe and coupled to the luminaire housing, a luminaire housing, wherein an inner surface of the luminaire housing comprises a housing mating surface, and wherein the heat pipe mating surface is configured to contact and releasably mate with the housing mating surface to define a thermal junction; and a luminaire base, wherein the luminaire base is coupled to the second end of the heat pipe and coupled to the luminaire housing,
Pre-positioner for a profiled clamp, which is designed in two parts with a first element and a second element, wherein the first element can be secured onto a line end and the second element can be secured onto the profiled clamp, characterised in that the first element is designed to be bow-shaped with a foot portion (7, 8) which can be fixed onto the line end and a holding portion offset radially outwards relative to the foot portion (7, 8), which holding portion has a recess (11, 18), wherein the second element has a pin running in radial direction which can be inserted into the recess (11, 18).