mhurhangee/patent-ind-claim-en huggingface dataset:
Method of manufacturing an aluminium alloy rolled product of a heat-treatable aluminium alloy having a thickness of at least 1 mm, comprising the steps of: (a) semi-continuous casting a heat-treatable aluminium alloy into a rolling ingot having a thickness of at least 250 mm; (b) preheating and/or homogenizing of the rolling ingot to a peak metal temperature (PMT) and whereby afterwards said aluminium alloy has a specific energy associated with a differential scanning calorimetry (DSC) signal less than 2 J/g in absolute value, determined as described in the description; (c) hot rolling of the rolling ingot in multiple hot rolling steps into a hot rolled product having a final rolling gauge of at least 1 mm, whereby the hot rolled product during at least one of the last three rolling steps has a temperature less than 50°C below PMT, such as a temperature in a range of 5-50°C below the PMT; (d) quenching of the hot rolled product at final rolling gauge from hot-mill exit temperature to below 175°C; (e) optionally stress relieving of the quenched and hot rolled product at final rolling gauge; and (f) ageing of the quenched and optionally stress relieved hot rolled product, wherein the PMT is the highest soaking temperature applied in a homogenization cycle and wherein the method is free from any annealing or solution heat-treatment following the hot rolling to a final hot rolling gauge of step (c) and prior to any aging step during step (f). (a) semi-continuous casting a heat-treatable aluminium alloy into a rolling ingot having a thickness of at least 250 mm; (b) preheating and/or homogenizing of the rolling ingot to a peak metal temperature (PMT) and whereby afterwards said aluminium alloy has a specific energy associated with a differential scanning calorimetry (DSC) signal less than 2 J/g in absolute value, determined as described in the description; (c) hot rolling of the rolling ingot in multiple hot rolling steps into a hot rolled product having a final rolling gauge of at least 1 mm, whereby the hot rolled product during at least one of the last three rolling steps has a temperature less than 50°C below PMT, such as a temperature in a range of 5-50°C below the PMT; (d) quenching of the hot rolled product at final rolling gauge from hot-mill exit temperature to below 175°C; (e) optionally stress relieving of the quenched and hot rolled product at final rolling gauge; and (f) ageing of the quenched and optionally stress relieved hot rolled product, wherein the PMT is the highest soaking temperature applied in a homogenization cycle and wherein the method is free from any annealing or solution heat-treatment following the hot rolling to a final hot rolling gauge of step (c) and prior to any aging step during step (f).
Lighting device for road and/or street lighting, comprising: - a light source (300-302) for emitting light with a first light distribution (LD1) in a main light emitting direction , and - a reflector (200-203), which is positioned in front of the light source (300-302) along the main light emitting direction , with a reflector surface for directing the light from the light source (300-302) towards an illumination area (IA) with a second light distribution (LD2), wherein the reflector surface is formed such that the light is directed in a direction different from the main light emitting direction and towards at least one of the reflector's peripheral edges , wherein the light source (300-302) is configured to vary the first light distribution (LD1) for illuminating different portions of the reflector surface , and wherein the reflector (200-203) is provided with respect to the light source (300-302) such that the second light distribution (LD2) of the light illuminating the illumination area (IA) is defined differently depending on the portions of the reflector surface illuminated with the light of the first light distribution (LD1). - a light source (300-302) for emitting light with a first light distribution (LD1) in a main light emitting direction , and - a reflector (200-203), which is positioned in front of the light source (300-302) along the main light emitting direction , with a reflector surface for directing the light from the light source (300-302) towards an illumination area (IA) with a second light distribution (LD2), wherein the reflector surface is formed such that the light is directed in a direction different from the main light emitting direction and towards at least one of the reflector's peripheral edges , wherein the light source (300-302) is configured to vary the first light distribution (LD1) for illuminating different portions of the reflector surface , and wherein the reflector (200-203) is provided with respect to the light source (300-302) such that the second light distribution (LD2) of the light illuminating the illumination area (IA) is defined differently depending on the portions of the reflector surface illuminated with the light of the first light distribution (LD1).
A solar concentrator system, comprising: a curved reflective element oriented concave relative to a focal line; a curved first rib member carrying the reflective element and oriented concave relative to the focal line; a curved second rib member oriented convex relative to the focal line and spaced apart from the curved first rib member , the second rib member including multiple, adjoining discontinuous convex sections; and a plurality of cross members coupled between the first rib member and the second rib member . a curved reflective element oriented concave relative to a focal line; a curved first rib member carrying the reflective element and oriented concave relative to the focal line; a curved second rib member oriented convex relative to the focal line and spaced apart from the curved first rib member , the second rib member including multiple, adjoining discontinuous convex sections; and a plurality of cross members coupled between the first rib member and the second rib member .
A method at a relay station configured for wireless communication between a first station and the relay station and a second station and the relay station, comprising: estimating link quality based on a transmission received from the first station; generating first channel quality information, CQI, based on the estimating link quality; sending the first CQI for the first station, to the first station; receiving second CQI, for a relay station, from the second station, the second CQI being different from the first CQI; receiving data sent by the first station according to a first transmission schedule determined by the first station, the first transmission schedule comprising an allocation of radio resources based on the first CQI; identifying a second transmission schedule for transmissions to the second station based on the second CQI, the second transmission schedule comprising an allocation of radio resources to the second station based on the second CQI; and sending the data to the second station using the allocated radio resources based on the second transmission schedule based on the second CQI. estimating link quality based on a transmission received from the first station; generating first channel quality information, CQI, based on the estimating link quality; sending the first CQI for the first station, to the first station; receiving second CQI, for a relay station, from the second station, the second CQI being different from the first CQI; receiving data sent by the first station according to a first transmission schedule determined by the first station, the first transmission schedule comprising an allocation of radio resources based on the first CQI; identifying a second transmission schedule for transmissions to the second station based on the second CQI, the second transmission schedule comprising an allocation of radio resources to the second station based on the second CQI; and sending the data to the second station using the allocated radio resources based on the second transmission schedule based on the second CQI.
A method for handling data path creation in a quick user datagram protocol, UDP, Internet connection, QUIC, session in a wireless network system, comprising: receiving , by an electronic device , at least one request from at least one application for processing at least one object, wherein the application is running on the electronic device; determining , by the electronic device, at least one network condition based on a plurality of parameters associated with the electronic device, wherein the plurality of parameters include a network awareness parameter which is determined based on a radio condition, and the radio condition is determined based on one or more of interface connection information, Radio Access Technology, RAT, information, or a signal strength observed by the electronic device; determining a number of data paths to be created within the QUIC session based on the network awareness parameter and at least one property of the at least one object; and creating , by the electronic device, one or more data paths within the QUIC session based on the determined number of data paths, if the at least one network condition meets a network criterion , wherein the creating of the one or more data paths further comprises: estimating, by the electronic device, a buffer size for each data path of the determined number of data paths based on an interface connection; and creating, by the electronic device, the one or more data paths based on the determined number of data paths and the buffer size. receiving , by an electronic device , at least one request from at least one application for processing at least one object, wherein the application is running on the electronic device; determining , by the electronic device, at least one network condition based on a plurality of parameters associated with the electronic device, wherein the plurality of parameters include a network awareness parameter which is determined based on a radio condition, and the radio condition is determined based on one or more of interface connection information, Radio Access Technology, RAT, information, or a signal strength observed by the electronic device; determining a number of data paths to be created within the QUIC session based on the network awareness parameter and at least one property of the at least one object; and creating , by the electronic device, one or more data paths within the QUIC session based on the determined number of data paths, if the at least one network condition meets a network criterion , wherein the creating of the one or more data paths further comprises: estimating, by the electronic device, a buffer size for each data path of the determined number of data paths based on an interface connection; and creating, by the electronic device, the one or more data paths based on the determined number of data paths and the buffer size. estimating, by the electronic device, a buffer size for each data path of the determined number of data paths based on an interface connection; and creating, by the electronic device, the one or more data paths based on the determined number of data paths and the buffer size.
A strip to be wound on an outer circumferential surface of a core body in a circumferential direction to form an inner liner having a shape close to a finished sectional shape of a tire, said strip being formed of one of a single layer including a first layer arranged in a tire innermost layer and composite layers of the first layer and a second layer disposed adjacently to a carcass ply and made of a thermoplastic elastomer composition, wherein the single layer or first layer of the composite layer, respectively, includes 60 to 95 mass % of the butyl rubber or natural rubber and/or 1 to 50 parts by mass of the polymer component of a tackifier selected from the group consisting of C9 petroleum resins, C5 petroleum resins, terpene resins, aromatic modified terpene resins, terpene phenol resins, cumarone resins, rosin esters, hydrogenated rosin resins and alkylphenol resins said first layer being a thermoplastic elastomer composition containing a styrene-isobutylene-styrene block copolymer and at least one kind of a tackifier, a butyl-based rubber and a natural rubber, and said strip having a strip main body having a thickness (T1) of 0.02 mm to 1.0 mm and ear portions formed on opposite sides of the strip main body, the ear portions having a thickness (T2) smaller than said thickness (T1) and a width (W2) of 0.5 mm to 5.0 mm.
A method for producing molded bodies from a hydraulically settable mixture , the method comprising the steps of: - Providing at least a mesh structure ; - Filling the mesh structure with a hydraulically settable mixture , to which an admixture is added prior to filling, the admixture comprising a setting accelerator, the hydraulically settable mixture being a concrete composition or a mortar composition, whereby during filling the hydraulically settable mixture is conveyed through a conduit , wherein the admixture is admixed with the hydraulically settable mixture at a section of said conduit, and wherein said section comprises a tubular cavity for conducting the hydraulically settable mixture along an intended flow direction ; - and overspraying the outside of the mesh structure with a sprayed concrete ; characterized in that a static flow-influencing element projects into the cavity , on which there is an opening leading into the cavity for the introduction of the admixture. - Providing at least a mesh structure ; - Filling the mesh structure with a hydraulically settable mixture , to which an admixture is added prior to filling, the admixture comprising a setting accelerator, the hydraulically settable mixture being a concrete composition or a mortar composition, whereby during filling the hydraulically settable mixture is conveyed through a conduit , wherein the admixture is admixed with the hydraulically settable mixture at a section of said conduit, and wherein said section comprises a tubular cavity for conducting the hydraulically settable mixture along an intended flow direction ; - and overspraying the outside of the mesh structure with a sprayed concrete ;
A curable clear ink composition comprising: a surfactant; a monofunctional polymerizable compound having a static surface tension of 33 mN/m or less at 25 degrees C in an amount of 10% by mass or more but 30% by mass or less; an oligomer having a weight average molecular weight (Mw) of 1,000 or more; and an acylphosphine oxide polymerization initiator in an amount of 8% by mass or more but 12% by mass or less, wherein the oligomer is a polymerizable oligomer having an ethylenically unsaturated double bond selected from the group consisting of aromatic urethane oligomers, aliphatic urethane oligomers, epoxy acrylate oligomers and polyester acrylate oligomers. a surfactant; a monofunctional polymerizable compound having a static surface tension of 33 mN/m or less at 25 degrees C in an amount of 10% by mass or more but 30% by mass or less; an oligomer having a weight average molecular weight (Mw) of 1,000 or more; and an acylphosphine oxide polymerization initiator in an amount of 8% by mass or more but 12% by mass or less, wherein the oligomer is a polymerizable oligomer having an ethylenically unsaturated double bond selected from the group consisting of aromatic urethane oligomers, aliphatic urethane oligomers, epoxy acrylate oligomers and polyester acrylate oligomers.
A method performed by a wireless device , the method being for handling transmission of data to a network node , the wireless device and the network node operating in the wireless communications network , the method comprising: - sending an indication to the network node , the indication comprising a value selected from a set of values, the selected value corresponding to a size of a buffer of the wireless device detected or expected to be had during an inactive state at a time of one or more transmissions, wherein the sending of the indication is performed with the proviso that the size of the buffer is smaller than a threshold, - receiving an uplink grant from the network node , based on the sent indication, and - sending first data to the network node during the inactive state of the wireless device , wherein the first data is user plane data, wherein the sending of the first data is performed according to the uplink grant received from the network node , and wherein the sending of the first data is performed with the proviso that the size of the buffer of the wireless device is smaller than the threshold, the buffer being a buffer for transmission, wherein the sending of the indication is performed prior to the sending of one or more data packets comprising at least a part of the first data. - sending an indication to the network node , the indication comprising a value selected from a set of values, the selected value corresponding to a size of a buffer of the wireless device detected or expected to be had during an inactive state at a time of one or more transmissions, wherein the sending of the indication is performed with the proviso that the size of the buffer is smaller than a threshold, - receiving an uplink grant from the network node , based on the sent indication, and - sending first data to the network node during the inactive state of the wireless device , wherein the first data is user plane data, wherein the sending of the first data is performed according to the uplink grant received from the network node , and wherein the sending of the first data is performed with the proviso that the size of the buffer of the wireless device is smaller than the threshold, the buffer being a buffer for transmission, wherein the sending of the indication is performed prior to the sending of one or more data packets comprising at least a part of the first data.
A medical device having: an elastic modulus of 100 kPa or more and 2,000 kPa or less, a water content of 1% by mass or less, a tensile elongation of 50% or more and 3,000% or less, and a dynamic contact angle relative to a borate buffer of 80° or less, wherein the medical device includes a base material, and a layer made of an acidic polymer and a basic polymer formed on at least a part of a surface of the base material, wherein the base material contains, as main components, a polymer of the following component A, or a copolymer of the following components A and B: component A: a polysiloxane compound which has a plurality of polymerizable functional groups per molecule, and also has a number average molecular weight of 6,000 or more, and component B: a polymerizable monomer having a fluoroalkyl group, wherein at least one of the acidic polymer and the basic polymer, which form the layer made of an acidic polymer and a basic polymer, is a polymer having a group selected from a hydroxyl group and an amide group. an elastic modulus of 100 kPa or more and 2,000 kPa or less, a water content of 1% by mass or less, a tensile elongation of 50% or more and 3,000% or less, and a dynamic contact angle relative to a borate buffer of 80° or less, component A: a polysiloxane compound which has a plurality of polymerizable functional groups per molecule, and also has a number average molecular weight of 6,000 or more, and component B: a polymerizable monomer having a fluoroalkyl group,
An assembly for use in a fuel cell, comprising a plurality of cell stack assembly components and a manifold for providing a reactant, including at least one inlet and at least one manifold surface establishing a flow path from the inlet along a direction in the manifold ; and a baffle situated generally parallel to the direction , characterized in that the baffle having a first portion , a second portion , and a third portion , wherein the first portion is closer to the inlet than the second portion , the second portion is closer to the inlet than the third portion , the first portion has a first width (W 1 ) situated generally perpendicular to the direction , the second portion has a second width (W 2 ) situated generally perpendicular to the direction , the second width (W 2 ) is less than the first width (W 1 ), the third portion has a third width (W 3 ) situated generally perpendicular to the direction , and the third width (W 3 ) is greater than the second width (W 2 ), the various portions of the baffle establishing different fluid flow distribution regions, whereby the baffle comprises a generally planer sheet and is situated between the manifold surface and the cell stack assembly components and the first portion and the third portion establish first and third fluid supply regions that prevent fluid from moving away from the manifold surface toward the cell stack assembly components and the second portion establishes a second fluid supply region including a fluid flow path from the manifold surface toward the cell stack assembly components . a baffle situated generally parallel to the direction , characterized in that the baffle having a first portion , a second portion , and a third portion , wherein the first portion is closer to the inlet than the second portion , the second portion is closer to the inlet than the third portion , the first portion has a first width (W 1 ) situated generally perpendicular to the direction , the second portion has a second width (W 2 ) situated generally perpendicular to the direction , the second width (W 2 ) is less than the first width (W 1 ), the third portion has a third width (W 3 ) situated generally perpendicular to the direction , and the third width (W 3 ) is greater than the second width (W 2 ), the various portions of the baffle establishing different fluid flow distribution regions, whereby the baffle comprises a generally planer sheet and is situated between the manifold surface and the cell stack assembly components and the first portion and the third portion establish first and third fluid supply regions that prevent fluid from moving away from the manifold surface toward the cell stack assembly components and the second portion establishes a second fluid supply region including a fluid flow path from the manifold surface toward the cell stack assembly components .
Gas cell for optical measurements of gas content and/or concentration in a macroscopic system, the gas cell comprising a cavity , at least one aperture for gas exchange, at least one first socket for a light emitting means , at least one second socket for a light detecting means , and where the length of an optical measuring path (A) through said cavity is in the range of centimeters and is defined by a direct or indirect distance between a light emitting means positioned in said first socket and a light detecting means positioned in said second socket , characterized in that an epoxy mold compound, EMC, is used to form at least the parts of said gas cell that define said optical measuring path (A), and that said epoxy mold compound is a highly mineral filled epoxy.