mhurhangee/patent-ind-claim-en huggingface dataset:
A non-pneumatic tire comprising a tread part with a cylindrical shape that is in contact with a ground surface, a wheel part disposed inside the tread part in a radial direction, and a spoke part interposed between the tread part and the wheel part , wherein: the wheel part includes a disk part to which an axle is connected, and a rim part whose inner circumferential side is continuously connected to the disk part and outer circumferential side is joined to the spoke part ; and an average thickness (T1) of the disk part is larger than an average thickness (T2) of the rim part , wherein the disk part and the rim part are provided as separate members and are joined to each other characterized in that the disk part and the rim part each have a constant thickness in which the thickness (T1) of the disk part is larger than the thickness (T2) of the rim part . the wheel part includes a disk part to which an axle is connected, and a rim part whose inner circumferential side is continuously connected to the disk part and outer circumferential side is joined to the spoke part ; and an average thickness (T1) of the disk part is larger than an average thickness (T2) of the rim part , wherein the disk part and the rim part are provided as separate members and are joined to each other characterized in that the disk part and the rim part each have a constant thickness in which the thickness (T1) of the disk part is larger than the thickness (T2) of the rim part .
Method for manufacturing at least one flow guide for an electrochemical reactor, comprising the following steps: - Providing a substrate , - Providing a first mesh screen comprising first openings configured to form at least one negative of a first pattern of ridges of a first flow guide , - Printing, on a first face of the substrate , a first sacrificial layer with the basis of a first elastomer by screen printing using a first mesh screen , - Depositing, on the first face of the substrate , a first non-sacrificial layer with the basis of a first printing ink to form the ridges of the first flow guide , - Manufacturing, on the second face of the substrate , a second flow guide comprising ridges , and - Calendering at least the ridges of the second flow guide , then - Removing the first sacrificial layer . - Providing a substrate , - Providing a first mesh screen comprising first openings configured to form at least one negative of a first pattern of ridges of a first flow guide , - Printing, on a first face of the substrate , a first sacrificial layer with the basis of a first elastomer by screen printing using a first mesh screen , - Depositing, on the first face of the substrate , a first non-sacrificial layer with the basis of a first printing ink to form the ridges of the first flow guide , - Manufacturing, on the second face of the substrate , a second flow guide comprising ridges , and - Calendering at least the ridges of the second flow guide , then - Removing the first sacrificial layer .
A computing machine implemented method for sleep apnea detection, the method comprising: utilizing a detection algorithm to automatically determine at least one sleep apnea event from at least one detected respiratory signal, the utilizing comprising: extracting a plurality of features from the at least one detected respiratory signal, the plurality of features including a low-pass filtered envelope width; determining at least one candidate sleep apnea event using the plurality of features; characterised in confirming the at least one sleep apnea event using the at least one determined candidate sleep apnea event, wherein the at least one sleep apnea event is confirmed if both a mean of the low-pass filtered envelope width during an apnea event is less than a mean threshold times a mean of the low-pass filtered envelope width during baseline and the mean of the low-pass filtered envelope width during the apnea event is less than a variable times a mean dispersion metric wherein the at least one detected respiratory signal is a nasal airflow respiratory, NAR, signal. extracting a plurality of features from the at least one detected respiratory signal, the plurality of features including a low-pass filtered envelope width; determining at least one candidate sleep apnea event using the plurality of features; characterised in confirming the at least one sleep apnea event using the at least one determined candidate sleep apnea event, wherein the at least one sleep apnea event is confirmed if both a mean of the low-pass filtered envelope width during an apnea event is less than a mean threshold times a mean of the low-pass filtered envelope width during baseline and the mean of the low-pass filtered envelope width during the apnea event is less than a variable times a mean dispersion metric wherein the at least one detected respiratory signal is a nasal airflow respiratory, NAR, signal.
A burner assembly for burning pulverised fuel including: • a primary duct extending along a longitudinal axis (A) wherein a flow of air and pulverised fuel flows in one advancing direction (D); the primary duct being provided with an inlet and an outlet ; • a homogeniser device housed inside the primary duct and comprising a hollow body substantially centred on the longitudinal axis (A) and provided with an outer surface and an inner surface ; the burner assembly being characterised in that the homogeniser device comprises at least one swirler (40; 41) arranged on the outer surface and/or on the inner surface so as to create a gradient between the tangential components of the velocities of the air and pulverised fuel flow flowing outside the hollow body and inside the hollow body . • a primary duct extending along a longitudinal axis (A) wherein a flow of air and pulverised fuel flows in one advancing direction (D); the primary duct being provided with an inlet and an outlet ; • a homogeniser device housed inside the primary duct and comprising a hollow body substantially centred on the longitudinal axis (A) and provided with an outer surface and an inner surface ;
A method, performed by a Body Area Network, BAN, enabled communication device , for grouping of at least one BAN enabled object , the method comprising the steps of: • establishing a connection (S1) between said at least one BAN enabled object and said BAN enabled communication device by using a BAN; • receiving a requested (S3) object ID of said at least one BAN enabled object by using the BAN; • initiating grouping (S4) of said at least one BAN enabled object by creating group identification data, group ID, based on said received object ID of said at least one BAN enabled object; • wherein receiving said object ID further comprises receiving and adding further data associated with the at least one BAN enabled object within the group, which further data includes location data comprising information on an area of belonging of the at least one BAN enabled object; • confirming (S5) said grouping of said at least one BAN enabled object by sending said created group ID data to said at least one BAN enabled object. • establishing a connection (S1) between said at least one BAN enabled object and said BAN enabled communication device by using a BAN; • receiving a requested (S3) object ID of said at least one BAN enabled object by using the BAN; • initiating grouping (S4) of said at least one BAN enabled object by creating group identification data, group ID, based on said received object ID of said at least one BAN enabled object; • wherein receiving said object ID further comprises receiving and adding further data associated with the at least one BAN enabled object within the group, which further data includes location data comprising information on an area of belonging of the at least one BAN enabled object; • confirming (S5) said grouping of said at least one BAN enabled object by sending said created group ID data to said at least one BAN enabled object.
A measuring geometry for a toothed tool with geometrically defined cutting edges configured for machining through a rolling engagement, in particular power skiving, of teeth on a workpiece, said measing geometry being designed for determining at least one measured variable which can be used for a machining process to be carried out by the tool, in particular a skiving process, wherein during a phase of said machining process the toothed profile to be generated on the workpiece is formed in a meshing engagement with the teeth of the tool, said measuring geometry having a toothed section with which, for determining the measured variable, the teeth of the tool are brought into a meshing engagement that is representative of the engagement between the teeth of the tool and workpiece during the profile-forming phase, characterised by an in particular post-like positioning element protruding on the side of the toothed section with its main dimension oriented in the direction (XI) of the tooth height, said positioning element being designed to make contact with the cutting edge of the tooth tip of the tool, in particular at its outside diameter.
A method for applying increased temperature and/or elevated pressure to parts in an autoclave, wherein volatile components escaping into the atmosphere in the autoclave are formed in the form of plasticizers, having the following steps: Operating a closed atmospheric circulating system for guiding the atmosphere containing the volatile components out of the autoclave ; Cooling the atmosphere that has been fed out for condensing the volatile components by guiding the atmosphere through an inclined cooling section formed by a double pipe; Re-inserting the atmosphere cleaned of the volatile components into the autoclave ; and Discharging the condensed volatile components out of the circulating system. Operating a closed atmospheric circulating system for guiding the atmosphere containing the volatile components out of the autoclave ; Cooling the atmosphere that has been fed out for condensing the volatile components by guiding the atmosphere through an inclined cooling section formed by a double pipe; Re-inserting the atmosphere cleaned of the volatile components into the autoclave ; and Discharging the condensed volatile components out of the circulating system.
A decorative sheet comprising: in order from a side to which a transparent substrate is bonded, a transparent pressure-sensitive adhesive layer (A); a transparent resin film layer (B); a printed layer (C); and a resin film layer (D), wherein the entire transparent resin film layer (B) has an embossed shape, the printed layer (C) contains a high-brightness pigment, the entire printed layer (C) has an embossed shape, and the resin film layer (D) has an embossed shape on a surface thereof on the side facing the printed layer (C).
A method for wireless communications by an access and mobility management function (AMF), comprising: processing group information associated with a multicast/broadcast (MB) session context received from an application function (AF), at least a portion of the group information comprising a temporary mobile group identity (TMGI); processing a plurality of MB session join requests received from a plurality of user equipment (UEs), each of the plurality of MB session join requests including the TMGI and being associated with the MB session context; in response to processing the plurality of UE MB session join requests, encoding an MB session request associated with the MB session context for transmission to an MB-session management function (MB-SMF); processing an MB session response associated with the MB session context received from the MB-SMF, the MB session response including a key derived for each of a portion of the plurality of UEs using a UE ID associated with each of the plurality of UEs and the TMGI; and encoding a downlink (DL) non-access stratum (NAS) message for transmitting to each of the plurality of UEs and an N2 message for transmitting to a base station, both the DL NAS message and the N2 message including the derived key. processing group information associated with a multicast/broadcast (MB) session context received from an application function (AF), at least a portion of the group information comprising a temporary mobile group identity (TMGI); processing a plurality of MB session join requests received from a plurality of user equipment (UEs), each of the plurality of MB session join requests including the TMGI and being associated with the MB session context; in response to processing the plurality of UE MB session join requests, encoding an MB session request associated with the MB session context for transmission to an MB-session management function (MB-SMF); processing an MB session response associated with the MB session context received from the MB-SMF, the MB session response including a key derived for each of a portion of the plurality of UEs using a UE ID associated with each of the plurality of UEs and the TMGI; and encoding a downlink (DL) non-access stratum (NAS) message for transmitting to each of the plurality of UEs and an N2 message for transmitting to a base station, both the DL NAS message and the N2 message including the derived key.
A moulding device adapted for use in a reaction injection mould for production of a flashless window sash or frame for a building by processing reaction injection mould-processable material, comprising a first mould part , and a second mould part adapted for defining a mould cavity and a parting line with said first mould part , wherein at least one of said mould parts has at least one recess adapted for receiving at least one pressure absorbing insert arranged externally to the mould cavity and adjacent to the parting line , said insert having at least a proximal edge, which is closest to the moulding device parting line, and a distal edge, which is farthest away from the moulding device parting line, said insert thereby sealing said mould cavity along the parting line, characterised in that the thickness dimension of said pressure absorbing insert is smaller at a parting line distal edge than at a parting line proximal edge, and wherein the at least one pressure absorbing insert comprises a heat-deformable synthetic fluoropolymer, such as polytetrafluoroethylene (PTFE).
A composition comprising: 1) 50 to 90% by wt. glycerin; 2) a surfactant system comprising a) 3 to 25% by wt. of total composition of glutamate or taurate or mixtures thereof, wherein the amount of surfactant selected from the group consisting of salts of N-acyl derivatives of dicarboxylic amino acid (e.g., aspartic acid, glutamic acid), salts of N-acyl monocarboxylic acids (glycine, alanine) and mixtures thereof is 3 to 25% by wt. of total composition is; and b) 1 to 10% by wt. of total composition of a co-surfactant being betaine, said betaine comprising less than 50% of the surfactant system, wherein the amount of co-surfactant selected from the group consisting of nonionic surfactant; amphoteric and/or zwitterionic surfactant; cationic surfactant and mixtures thereof, is from 1 to 10% by wt. of total composition, 3) 5 to 55% by wt. water. 1) 50 to 90% by wt. glycerin; 2) a surfactant system comprising a) 3 to 25% by wt. of total composition of glutamate or taurate or mixtures thereof, wherein the amount of surfactant selected from the group consisting of salts of N-acyl derivatives of dicarboxylic amino acid (e.g., aspartic acid, glutamic acid), salts of N-acyl monocarboxylic acids (glycine, alanine) and mixtures thereof is 3 to 25% by wt. of total composition is; and b) 1 to 10% by wt. of total composition of a co-surfactant being betaine, said betaine comprising less than 50% of the surfactant system, wherein the amount of co-surfactant selected from the group consisting of nonionic surfactant; amphoteric and/or zwitterionic surfactant; cationic surfactant and mixtures thereof, is from 1 to 10% by wt. of total composition, a) 3 to 25% by wt. of total composition of glutamate or taurate or mixtures thereof, wherein the amount of surfactant selected from the group consisting of salts of N-acyl derivatives of dicarboxylic amino acid (e.g., aspartic acid, glutamic acid), salts of N-acyl monocarboxylic acids (glycine, alanine) and mixtures thereof is 3 to 25% by wt. of total composition is; and b) 1 to 10% by wt. of total composition of a co-surfactant being betaine, said betaine comprising less than 50% of the surfactant system, wherein the amount of co-surfactant selected from the group consisting of nonionic surfactant; amphoteric and/or zwitterionic surfactant; cationic surfactant and mixtures thereof, is from 1 to 10% by wt. of total composition, 3) 5 to 55% by wt. water.
A computer-implemented method of processing an image having a first set of pixels , the method comprising: generating a depth map of the image , the depth map including a second set of pixel values representative of distances of objects in the image ;identifying a plurality of different depths at which objects are located in the image based on the depth map ; using the depth map to determine a relative distance between one identified depth in the plurality of different depths and each of the other identified depths in the plurality of different depths; ordering the second set of pixel values associated with the determined relative distance for each depth in a descending order from a farthest relative distance to a closest relative distance as measured from the identified depth; and blurring pixels in the first set of pixels based on each determined relative distance, wherein the pixels in the first set of pixels are iteratively blurred in the descending order from a farthest relative distance to a closest relative distance, wherein, for each iteration, blurring the pixels in the first set of pixels occurs in pixels associated with one determined relative distance and in pixels having a farther relative distance to the one determined relative distance. generating a depth map of the image , the depth map including a second set of pixel values representative of distances of objects in the image ;identifying a plurality of different depths at which objects are located in the image based on the depth map ; using the depth map to determine a relative distance between one identified depth in the plurality of different depths and each of the other identified depths in the plurality of different depths; ordering the second set of pixel values associated with the determined relative distance for each depth in a descending order from a farthest relative distance to a closest relative distance as measured from the identified depth; and blurring pixels in the first set of pixels based on each determined relative distance, wherein the pixels in the first set of pixels are iteratively blurred in the descending order from a farthest relative distance to a closest relative distance, wherein, for each iteration, blurring the pixels in the first set of pixels occurs in pixels associated with one determined relative distance and in pixels having a farther relative distance to the one determined relative distance.
A gasket for prefilled syringes, the gasket comprising a plurality of circular ribs that are to be in sliding contact with an inner wall of a syringe, the gasket being laminated with an inert film, the plurality of circular ribs including a front circular rib having a front corner with a radius of curvature R1 and a rear corner with a radius of curvature R2, characterized in that a ratio of the radius of curvature R2 to the radius of curvature R1 is more than 1.
A method maximizing mixing and melting in an SCM, the method comprising: (a) melting an inorganic feedstock in an SCM using an arrangement of two or more SC burners (R1N, R1C, R1S, R2N, R2C, R2S, R3N, R3C, R3S), the SCM having a length (L) and a width (W), a centerline (C), a north side (N) and a south side (S); and (b) operating the arrangement of SC burners (R1N, R1C, R1S, R2N, R2C, R2S, R3N, R3C, R3S) such that a progressively higher percentage of a total combustion flow from the SC burners (R1N, R1C, R1S, R2N, R2C, R2S, R3N, R3C, R3S) occurs from SC burners at progressively downstream positions, wherein the melting using an arrangement of two or more SC burners (R1N, R1C, R1S, R2N, R2C, R2S, R3N, R3C, R3S) comprises melting with a matrix of at least two rows (R1, R2, R3) and at least three columns of SC burners (R1N, R1C, R1S, R2N, R2C, R2S, R3N, R3C, R3S) wherein a row (R1, R2, R3) spans a majority of the width (W) and a column spans a majority of the length (L) of the SCM, and wherein the operating consisting of: (d) operating the SC burners (R1N, R1S) on the north side (N) and the south side (S) in the first row (R1) at a rate r 3 , and the SC burner (R1C) in the center (C) of the first row (R1) at a rate r 4 , where r 3 > r 4 , and SC burners (R2N, R2S) on the north side (N) and the south side (S) in a second row (R2) at a rate r 5 and SC burners (R2C) in the center (C) at a rate r 6 , where r 5 > r 6 ≥ r 4 , and r 5 > r 3 . (a) melting an inorganic feedstock in an SCM using an arrangement of two or more SC burners (R1N, R1C, R1S, R2N, R2C, R2S, R3N, R3C, R3S), the SCM having a length (L) and a width (W), a centerline (C), a north side (N) and a south side (S); and (b) operating the arrangement of SC burners (R1N, R1C, R1S, R2N, R2C, R2S, R3N, R3C, R3S) such that a progressively higher percentage of a total combustion flow from the SC burners (R1N, R1C, R1S, R2N, R2C, R2S, R3N, R3C, R3S) occurs from SC burners at progressively downstream positions, wherein the melting using an arrangement of two or more SC burners (R1N, R1C, R1S, R2N, R2C, R2S, R3N, R3C, R3S) comprises melting with a matrix of at least two rows (R1, R2, R3) and at least three columns of SC burners (R1N, R1C, R1S, R2N, R2C, R2S, R3N, R3C, R3S) wherein a row (R1, R2, R3) spans a majority of the width (W) and a column spans a majority of the length (L) of the SCM, and wherein the operating consisting of: (d) operating the SC burners (R1N, R1S) on the north side (N) and the south side (S) in the first row (R1) at a rate r 3 , and the SC burner (R1C) in the center (C) of the first row (R1) at a rate r 4 , where r 3 > r 4 , and SC burners (R2N, R2S) on the north side (N) and the south side (S) in a second row (R2) at a rate r 5 and SC burners (R2C) in the center (C) at a rate r 6 , where r 5 > r 6 ≥ r 4 , and r 5 > r 3 .
A method for predicting the cardiovascular risk within 2,5 years in a subject comprising: ▪ determining the fasting level of growth hormone (hGH), and/or its isoforms in a bodily fluid obtained from said subject; and ▪ correlating said fasting level of growth hormone (hGH), and/or its isoforms with a cardiovascular risk, wherein an enhanced level is predictive for an enhanced risk, wherein the cardiovascular risk is defined as an adverse event and wherein the risk of said adverse event is predicted within 2,5 years and wherein the cardiovascular risk is defined as an adverse event selected from the group comprising stroke, CVD (cardiovascular disease)-mortality and Coronary artery disease (CAD) wherein the latter comprises fatal or nonfatal myocardial infarction, death due to ischemic heart disease, percutaneous coronary intervention (PCI) or coronary artery by-pass grafting (CABG). ▪ determining the fasting level of growth hormone (hGH), and/or its isoforms in a bodily fluid obtained from said subject; and ▪ correlating said fasting level of growth hormone (hGH), and/or its isoforms with a cardiovascular risk, wherein an enhanced level is predictive for an enhanced risk,