mhurhangee/ep-ind-claims huggingface dataset:
An edge server (130, 700) of a 4G/LTE network, the edge server comprising: a satellite-based content delivery network, S-CDN, device configured to receive content via multicast from an S-CDN and to cache the content from the S-CDN, the content comprising live and non-live video content; and a virtual evolved packet core, vEPC, local serving gateway, LS-GW, that is connected to the S-CDN device and is configured to connect to a base band unit, wherein the base band unit is in an eNodeB, wherein the LS-GW is configured to receive a request for content from a user equipment, UE, (20, 110) being served by the eNodeB and create a tunnel from the LS-GW to the eNodeB, and is configured to determine whether the content is already cached in the S-CDN device, and, when the content is already cached in the S-CDN device, convert the content cached in the S-CDN device from multicast to unicast and stream the content from the S-CDN device via unicast through the tunnel to the UE (20, 110). a satellite-based content delivery network, S-CDN, device configured to receive content via multicast from an S-CDN and to cache the content from the S-CDN, the content comprising live and non-live video content; and a virtual evolved packet core, vEPC, local serving gateway, LS-GW, that is connected to the S-CDN device and is configured to connect to a base band unit, wherein the base band unit is in an eNodeB, wherein the LS-GW is configured to receive a request for content from a user equipment, UE, (20, 110) being served by the eNodeB and create a tunnel from the LS-GW to the eNodeB, and is configured to determine whether the content is already cached in the S-CDN device, and, when the content is already cached in the S-CDN device, convert the content cached in the S-CDN device from multicast to unicast and stream the content from the S-CDN device via unicast through the tunnel to the UE (20, 110).
A method of adapting a molded seat cushion for receiving a seat cover, the method comprising providing an adhesive on either or both of a flexible fastener sheet and a selected area of a molded foam cushion surface, wherein a ratio of minimum to maximum lateral orthogonal dimensions of the flexible fastener sheet is between 0.3 and 1.0; positioning the flexible fastener sheet to cover the selected area; and allowing the adhesive to set to permanently bond the flexible fastener sheet over the selected area of the molded foam cushion surface; wherein the selected area features a three-dimensional contour that the flexible fastener sheet follows as bonded. providing an adhesive on either or both of a flexible fastener sheet and a selected area of a molded foam cushion surface, wherein a ratio of minimum to maximum lateral orthogonal dimensions of the flexible fastener sheet is between 0.3 and 1.0; positioning the flexible fastener sheet to cover the selected area; and allowing the adhesive to set to permanently bond the flexible fastener sheet over the selected area of the molded foam cushion surface; wherein the selected area features a three-dimensional contour that the flexible fastener sheet follows as bonded.
A flow control valve apparatus comprising: a housing having a plurality of flow ports and an opening tc which a plurality of flow paths is connected, the plurality of flow paths configured to flow cooling medium; a valve configured to: rotate inside the housing, allow the cooling medium to flow through the plurality of flow paths, and control a flow of the cooling medium flowing through each flow path of the plurality of flow paths based on a rotated position of the valve; a support mounted to the opening of the housing, and having a plurality of open holes, which are open while being matched with the plurality of flow paths so that the cooling medium flows into the housing; characterized in that the flow control valve apparatus further comprises: a disc arranged between the valve and the support and coupled tc the valve, wherein the disc is provided with an opening hole, which is matched with an open hole of the plurality of open holes of the support, and configured to control a flow rate of the cooling medium that flows into the housing along the plurality of flow paths based on the rotated position of the valve; and an elastic body provided at the valve or the support and configured to elastically support the disc in a direction opposite to a direction in which the cooling medium flows through the plurality of flow paths. a housing having a plurality of flow ports and an opening tc which a plurality of flow paths is connected, the plurality of flow paths configured to flow cooling medium; a valve configured to: rotate inside the housing, allow the cooling medium to flow through the plurality of flow paths, and control a flow of the cooling medium flowing through each flow path of the plurality of flow paths based on a rotated position of the valve; rotate inside the housing, allow the cooling medium to flow through the plurality of flow paths, and control a flow of the cooling medium flowing through each flow path of the plurality of flow paths based on a rotated position of the valve; a support mounted to the opening of the housing, and having a plurality of open holes, which are open while being matched with the plurality of flow paths so that the cooling medium flows into the housing; a disc arranged between the valve and the support and coupled tc the valve, wherein the disc is provided with an opening hole, which is matched with an open hole of the plurality of open holes of the support, and configured to control a flow rate of the cooling medium that flows into the housing along the plurality of flow paths based on the rotated position of the valve; and an elastic body provided at the valve or the support and configured to elastically support the disc in a direction opposite to a direction in which the cooling medium flows through the plurality of flow paths.
Support ring arrangement for a high-pressure seal, the high-pressure seal including the support ring arrangement being provided for a container closure which can be pushed in or pivoted in axially and is mounted in a cylindrical part of a high-pressure container, the high-pressure seal sealing the cylindrical part of the high-pressure container radially with the aid of the support ring arrangement, and a maximum pressure of up to 10 000 bar being exerted by means of a fluid on the support ring arrangement and the high-pressure seal, having, as viewed from the fluid side, • an axial fixing of the arrangement, • a sealing ring (4, 5) which bears on the container closure, the sealing ring (4, 5) being prestressed radially, • at least one support ring which has an end face on its side which lies perpendicularly with respect to the axis of the container closure, characterized in that • at least one support ring arrangement is provided which consists of at least two shaped parts (2, 3) which are contoured so as to be supported against one another, • the shaped parts bearing against one another, and having conical mating faces which are parallel to one another on their sides which bear against one another, and • one of the parallel, conical mating faces beginning on the end face, • wherein a transition region is arranged between the conical mating faces which are parallel to one another. • an axial fixing of the arrangement, • a sealing ring (4, 5) which bears on the container closure, the sealing ring (4, 5) being prestressed radially, • at least one support ring which has an end face on its side which lies perpendicularly with respect to the axis of the container closure, • at least one support ring arrangement is provided which consists of at least two shaped parts (2, 3) which are contoured so as to be supported against one another, • the shaped parts bearing against one another, and having conical mating faces which are parallel to one another on their sides which bear against one another, and • one of the parallel, conical mating faces beginning on the end face, • wherein a transition region is arranged between the conical mating faces which are parallel to one another.
A method for collecting user activity information in a telecommunications system comprising: a Call Session Control Function, CSCF, node hereinafter referred as first node, handling signaling messages of the terminal of a user, and a Home Subscriber Server, HSS, node hereinafter referred as second node, handling registration information of said user, comprising the steps of: a) sending from the first node to the second node a message notifying a registration event of the user, and b) updating by the second node registration information of said user according to the content of said message; CHARACTERIZED in that the step a) comprises the step of: a1) sending in said message an information element indicating whether said user has been involved in a service provided during a registration period comprised between a previous registration event of said user and the registration event notified in the step a), and in that the step b) comprises the step of: b1) updating by the second node activity information of said user according to said information element. a) sending from the first node to the second node a message notifying a registration event of the user, and b) updating by the second node registration information of said user according to the content of said message; CHARACTERIZED in that the step a) comprises the step of: a1) sending in said message an information element indicating whether said user has been involved in a service provided during a registration period comprised between a previous registration event of said user and the registration event notified in the step a), and in that the step b) comprises the step of: b1) updating by the second node activity information of said user according to said information element. a1) sending in said message an information element indicating whether said user has been involved in a service provided during a registration period comprised between a previous registration event of said user and the registration event notified in the step a), and in that the step b) comprises the step of: b1) updating by the second node activity information of said user according to said information element. b1) updating by the second node activity information of said user according to said information element.
A multi-phase unit-dose cleaning product wherein the product is in the form of a multi-compartment water-soluble pouch and wherein the product comprises: i) an amine-containing cleaning active selected from the group consisting of aminocarboxylic complexing agent, amine oxide surfactant and mixtures thereof; and ii) an oxidizing agent wherein at least 30% of the amine-containing cleaning active is in a different phase from the oxidizing agent; and wherein one of the compartments of the multi-compartment water-soluble pouch comprises a composition in liquid form comprising an aminocarboxylic complexing agent in liquid form and wherein one of the compartments of the multi-compartment water-soluble pouch comprises a solid composition comprising an aminocarboxylic complexing agent in particulate form wherein the cleaning composition is enveloped by a water-soluble film and the enveloping material has a pin hole to allow the escape of any gases that might form during the storage of the cleaning product. i) an amine-containing cleaning active selected from the group consisting of aminocarboxylic complexing agent, amine oxide surfactant and mixtures thereof; and ii) an oxidizing agent wherein at least 30% of the amine-containing cleaning active is in a different phase from the oxidizing agent; and
Method for coating a component of a vehicle brake, wherein the component has a recess which extends in the direction of a longitudinal axis and which has an inner surface to be kept free of coating, comprising the steps of: - providing the component, - inserting a sealing plug into the recess of the component, wherein the sealing plug has at least one sealing surface (11a-11h), and the sealing surface (11a-11h) within the recess is brought into sealing abutment with the inner surface in the radial direction, relative to the longitudinal axis, and - coating the component after the sealing plug has been inserted. - providing the component, - inserting a sealing plug into the recess of the component, wherein the sealing plug has at least one sealing surface (11a-11h), and the sealing surface (11a-11h) within the recess is brought into sealing abutment with the inner surface in the radial direction, relative to the longitudinal axis, and - coating the component after the sealing plug has been inserted.
A reciprocating pump comprising: a motor including a motor shaft; four cylinders that are disposed at positions that are offset 90 degrees from each other about the motor shaft, cylinder shaft directions of the cylinders being perpendicular to the motor shaft direction; four pistons disposed in the cylinders, respectively, which are configured to be reciprocated by the motor shaft; a casing that accommodates therein the motor shaft; and eight ducts (24pi, 24pe, 24vi, 24ve) including four intake ducts (24pi, 24vi) through which gas is introduced to the four cylinders and four exhaust ducts (24pe, 24ve) through which gas is discharged from the four cylinders, which are disposed in a region surrounded by the four cylinders when viewed in the motor shaft direction, wherein the four cylinders are disposed outside four sidewalls (20A, 20B, 20C,20D) of the casing, wherein each two of the eight ducts are disposed between the cylinders adjacent to each other about the motor shaft, characterised in that the two ducts disposed between the cylinders adjacent to each other about the motor shaft are spaced apart from each other in the motor shaft direction, wherein each of the eight ducts includes a first duct part (25pi, 25pe, 25vi, 24ve) that is formed in a sidewall of the casing and extends towards the motor shaft from an outside of the region surrounded by the four cylinders when viewed in the motor shaft direction, and each of at least four ducts of the eight ducts includes a second duct part (26pi, 26pe, 26vi) extending in the motor shaft direction. a motor including a motor shaft; four cylinders that are disposed at positions that are offset 90 degrees from each other about the motor shaft, cylinder shaft directions of the cylinders being perpendicular to the motor shaft direction; four pistons disposed in the cylinders, respectively, which are configured to be reciprocated by the motor shaft; a casing that accommodates therein the motor shaft; and eight ducts (24pi, 24pe, 24vi, 24ve) including four intake ducts (24pi, 24vi) through which gas is introduced to the four cylinders and four exhaust ducts (24pe, 24ve) through which gas is discharged from the four cylinders, which are disposed in a region surrounded by the four cylinders when viewed in the motor shaft direction, wherein the four cylinders are disposed outside four sidewalls (20A, 20B, 20C,20D) of the casing, wherein each two of the eight ducts are disposed between the cylinders adjacent to each other about the motor shaft, characterised in that the two ducts disposed between the cylinders adjacent to each other about the motor shaft are spaced apart from each other in the motor shaft direction, wherein each of the eight ducts includes a first duct part (25pi, 25pe, 25vi, 24ve) that is formed in a sidewall of the casing and extends towards the motor shaft from an outside of the region surrounded by the four cylinders when viewed in the motor shaft direction, and each of at least four ducts of the eight ducts includes a second duct part (26pi, 26pe, 26vi) extending in the motor shaft direction.
An antenna system (1, 31, 41, 52) to be mounted on a portable radio device, comprising: a substrate; a first antenna element (2,32,42,53) having a first length; and a second antenna element (3,33,43,54) having a second length longer than the first antenna element (2, 32, 42, 53); wherein the first antenna element (2,32,42,53) is set so that the direction of the antenna current in the direction of the first length of the first antenna element (2, 32, 42, 53) is perpendicular to one side of the substrate of the portable radio device, and the second antenna element (3, 33, 43, 54) is set so that the direction of the antenna current in the direction of the second length of the second antenna element (3, 33, 43, 54) is parallel with said one side, wherein the first antenna element (2,32,42,53) and the second antenna element (3,33,43,54) are orthogonally arranged in a small space along the one side of the substrate at positions which are not overlapped with the substrate; characterised in that the first antenna element (2,32,42,53) and the second antenna element (3,33,43,54) are joined at a joining portion and the joining portion is electrically connected with a feeding point. a substrate; a first antenna element (2,32,42,53) having a first length; and a second antenna element (3,33,43,54) having a second length longer than the first antenna element (2, 32, 42, 53); wherein the first antenna element (2,32,42,53) is set so that the direction of the antenna current in the direction of the first length of the first antenna element (2, 32, 42, 53) is perpendicular to one side of the substrate of the portable radio device, and the second antenna element (3, 33, 43, 54) is set so that the direction of the antenna current in the direction of the second length of the second antenna element (3, 33, 43, 54) is parallel with said one side, wherein the first antenna element (2,32,42,53) and the second antenna element (3,33,43,54) are orthogonally arranged in a small space along the one side of the substrate at positions which are not overlapped with the substrate; characterised in that the first antenna element (2,32,42,53) and the second antenna element (3,33,43,54) are joined at a joining portion and the joining portion is electrically connected with a feeding point.
Antenna device comprising at least one inductor provided with means for adjusting its impedance, characterised in that said inductor comprises at least one coil printed on a printed circuit board and which is mounted between an electronic circuit and a radiating element, wherein said printed coil of the inductor (7, 8) comprises two separate portions (20, 21) formed by parallel branches (22, 23) in the form of combs and is equipped, in at least one location, with an applied means (24, 29, 34) connecting said separated portions, for adjusting or controlling its impedance with a view to providing at least one resonance frequency of the antenna at a desired value, said applied means comprising a connecting link the ends of which are welded to certain fingers (30, 31) of said combs, the position of the ends of said connecting clip along said parallel branches making it possible to adjust the length of said inductor.
A fixture (10, 210, 310, 510, 610, 710, 810, 910) for insertion into a human bone, comprising an apical end and a coronal end, and a surface structure projecting from a core of the fixture and having alternating tops (40, 440) and bottoms (38, 438), said surface structure comprising an external thread (22, 24) having a thread profile, and at least one channel (30, 230a-b, 330a-b, 430, 530a-c, 630, 730, 830a-b, 930a-b) provided in the surface of the thread, the channel having a channel bottom, wherein the channel bottom extends along a path extending from the core of the fixture towards a thread top, wherein the channel continues over and past the thread top and then extends down towards the core again, wherein the depth of the channel is smaller than the height of the thread, wherein the profile of the thread comprises coronally facing flanks (34, 234) and apically facing flanks (36, 236), and wherein the channel (30, 230a-b) extends on at least an apically facing thread flank, wherein the fixture has a longitudinal axis, and wherein the channel bottom substantially follows the variation of the thread profile relative to said core of the fixture in such a way that when a radial distance from the longitudinal axis of the fixture to the thread profile increases, the radial distance from said longitudinal axis to the channel bottom also increases, characterised in that the depth of said at least one channel (30, 230a-b, 330a-b, 430, 530a-c, 630, 730, 830a-b, 930a-b) is 0.05-0.15 mm.
A decorative film for sticking on a resin molded body by thermoforming, comprising: a sealing layer containing a polypropylene-based resin; and a layer containing a polypropylene-based resin, wherein the polypropylene-based resin satisfies the following requirement and the polypropylene-based resin satisfies the following requirement: the melt flow rate (measured at 230°C under a load of 2.16 kg in accordance with ISO 1133:1997 conditions M) (MFR) is more than 0.5 g/10 minutes, the melt flow rate (measured at 230°C under a load of 2.16 kg in accordance with ISO 1133:1997 conditions M) (MFR) and MFR satisfy a relational expression (b-1); MFR B < MFR A wherein the polypropylene-based resin further satisfies the following requirement, and the polypropylene-based resin further satisfies the following requirement: the crystallization temperature (measured as stated in the description) (Tc) is lower than 100°C, the crystallization temperature (measured as stated in the description) (Tc) and Tc satisfy a relational expression (b-3); Tc B > Tc A a sealing layer containing a polypropylene-based resin; and a layer containing a polypropylene-based resin, wherein the polypropylene-based resin satisfies the following requirement and the polypropylene-based resin satisfies the following requirement: the melt flow rate (measured at 230°C under a load of 2.16 kg in accordance with ISO 1133:1997 conditions M) (MFR) is more than 0.5 g/10 minutes, the melt flow rate (measured at 230°C under a load of 2.16 kg in accordance with ISO 1133:1997 conditions M) (MFR) and MFR satisfy a relational expression (b-1); MFR B < MFR A wherein the polypropylene-based resin further satisfies the following requirement, and the polypropylene-based resin further satisfies the following requirement: the crystallization temperature (measured as stated in the description) (Tc) is lower than 100°C, the crystallization temperature (measured as stated in the description) (Tc) and Tc satisfy a relational expression (b-3); Tc B > Tc A the melt flow rate (measured at 230°C under a load of 2.16 kg in accordance with ISO 1133:1997 conditions M) (MFR) is more than 0.5 g/10 minutes, the melt flow rate (measured at 230°C under a load of 2.16 kg in accordance with ISO 1133:1997 conditions M) (MFR) and MFR satisfy a relational expression (b-1); MFR B < MFR A wherein the polypropylene-based resin further satisfies the following requirement, and the polypropylene-based resin further satisfies the following requirement: the crystallization temperature (measured as stated in the description) (Tc) is lower than 100°C, the crystallization temperature (measured as stated in the description) (Tc) and Tc satisfy a relational expression (b-3); Tc B > Tc A the crystallization temperature (measured as stated in the description) (Tc) is lower than 100°C, the crystallization temperature (measured as stated in the description) (Tc) and Tc satisfy a relational expression (b-3); Tc B > Tc A