mhurhangee/ep-ind-claims huggingface dataset:
A method for location tracking of a user equipment, UE, comprising: obtaining, by a domain connectivity management, CM, component of a wireless communications network, WCN, location information of the UE, wherein the WCN comprises domains, and a domain is managed by a single network operator and includes a plurality of network nodes, NNs, which provide connectivity to UEs; allocating a first virtualized CM component for connecting the UE based on the location information; the allocating the first virtualized CM component for connecting the UE is performed by the domain CM component; the method further comprising: if the location information indicates the UE is moving from a first tracking area, TA, to a second TA in a first coverage of an anchor point, CAP, wherein an anchor point is a virtual service-specific serving gateway, v-s-SGW, or a virtual user-specific serving gateway, v-u-SGW, then migrating, by the domain CM component, the first virtualized CM component to the second TA; and updating, by the domain CM component, a CM database with the identity of the second TA that the UE has moved to. obtaining, by a domain connectivity management, CM, component of a wireless communications network, WCN, location information of the UE, wherein the WCN comprises domains, and a domain is managed by a single network operator and includes a plurality of network nodes, NNs, which provide connectivity to UEs; allocating a first virtualized CM component for connecting the UE based on the location information; the allocating the first virtualized CM component for connecting the UE is performed by the domain CM component; the method further comprising: if the location information indicates the UE is moving from a first tracking area, TA, to a second TA in a first coverage of an anchor point, CAP, wherein an anchor point is a virtual service-specific serving gateway, v-s-SGW, or a virtual user-specific serving gateway, v-u-SGW, then migrating, by the domain CM component, the first virtualized CM component to the second TA; and updating, by the domain CM component, a CM database with the identity of the second TA that the UE has moved to. if the location information indicates the UE is moving from a first tracking area, TA, to a second TA in a first coverage of an anchor point, CAP, wherein an anchor point is a virtual service-specific serving gateway, v-s-SGW, or a virtual user-specific serving gateway, v-u-SGW, then migrating, by the domain CM component, the first virtualized CM component to the second TA; and updating, by the domain CM component, a CM database with the identity of the second TA that the UE has moved to.
A method of manufacturing a component, comprising: providing a core structure; casting a component about the core structure, wherein the component comprises a structure having walls providing a cooling passage having a cooling surface, wherein the structure includes a nickel alloy; removing a first portion of the core structure from the cast component; and leaving a second portion of the core structure in the cast component to provide a reduced cross-section in the cast component, wherein the second portion provides an obstruction provided by a material that is different than the nickel alloy. providing a core structure; casting a component about the core structure, wherein the component comprises a structure having walls providing a cooling passage having a cooling surface, wherein the structure includes a nickel alloy; removing a first portion of the core structure from the cast component; and leaving a second portion of the core structure in the cast component to provide a reduced cross-section in the cast component, wherein the second portion provides an obstruction provided by a material that is different than the nickel alloy.
Collecting device for collecting fluid media, in particular rinsing agent and paint residues, which arise when rinsing an atomizer in a painting installation, with a) a collecting container, b) an insertion opening, in particular at the top of the collecting container, for inserting the atomizer into the collecting container, and c) a lateral container wall which externally bounds the collecting container and is substantially impermeable to paint in order to prevent paint from escaping from the collecting container, the lateral container wall of the collecting container being at least partially permeable to air in order to allow moist air to escape from the interior of the collecting container to the outside, d) an outlet to drain the paint and/or rinsing agent from the collecting container, and e) a paint filter which is arranged in the flow path into the outlet, so that the paint filter must be passed when flowing into the outlet, characterized in f) that the lateral container wall of the collecting container has numerous air outlet openings, wherein the moist air can escape from the interior of the collecting container to the outside through the air outlet openings. a) a collecting container, b) an insertion opening, in particular at the top of the collecting container, for inserting the atomizer into the collecting container, and c) a lateral container wall which externally bounds the collecting container and is substantially impermeable to paint in order to prevent paint from escaping from the collecting container, the lateral container wall of the collecting container being at least partially permeable to air in order to allow moist air to escape from the interior of the collecting container to the outside, d) an outlet to drain the paint and/or rinsing agent from the collecting container, and e) a paint filter which is arranged in the flow path into the outlet, so that the paint filter must be passed when flowing into the outlet, characterized in f) that the lateral container wall of the collecting container has numerous air outlet openings, wherein the moist air can escape from the interior of the collecting container to the outside through the air outlet openings.
A method for recognizing a contingency in a power supply network, PSN,, the method comprising the steps of: (a) processing measurement data (MD 1,...,MD n) generated by in-field measurement devices (3-1,...,3-n) of said power supply network by a local network state estimation model (LNSM) to calculate local network state profiles (LNSP 1,...,LNSP n); (b) generating a global network state profile (GNSP) from the local network state profiles (LNSP 1,...,LNSP n); (c) processing the measurement data (MD 1,...,MD n) generated by the in-field measurement devices (3-1,...,3-n) of said power supply network to provide a relevance profile comprising for the in-field measurement devices (3-1,...,3-n) a relevance distribution indicating a probability where the origin of a contingency within the power supply network resides; and (d) computing a similarity between a candidate contingency profile being formed by the generated global network state profile (GNSP) and formed by the calculated relevance profile and reference contingency profiles (rCP) stored in a reference contingency database to identify the reference contingency profile (rCP) having the highest computed similarity as the recognized contingency. (a) processing measurement data (MD 1,...,MD n) generated by in-field measurement devices (3-1,...,3-n) of said power supply network by a local network state estimation model (LNSM) to calculate local network state profiles (LNSP 1,...,LNSP n); (b) generating a global network state profile (GNSP) from the local network state profiles (LNSP 1,...,LNSP n); (c) processing the measurement data (MD 1,...,MD n) generated by the in-field measurement devices (3-1,...,3-n) of said power supply network to provide a relevance profile comprising for the in-field measurement devices (3-1,...,3-n) a relevance distribution indicating a probability where the origin of a contingency within the power supply network resides; and (d) computing a similarity between a candidate contingency profile being formed by the generated global network state profile (GNSP) and formed by the calculated relevance profile and reference contingency profiles (rCP) stored in a reference contingency database to identify the reference contingency profile (rCP) having the highest computed similarity as the recognized contingency.
A method for producing a metallurgical coke by carbonizing a coal blend obtained by blending at least two coals or a coal blend obtained by blending at least two coals and a caking additive, the method comprising: packing, as a sample, each of the coals and the caking additive that constitute the coal blend and that are pulverized in advance so that the ratio of particles having a particle size of 3 mm or less is 70% by mass or more in a vessel, wherein the packing density is 0.7 to 0.9 g/cm 3 and the thickness of the packed layer is 5 to 20 mm, disposing a material having through-holes that connect upper and lower surfaces on the sample, heating the sample in an inert gas atmosphere while the uniformly imposed pressure on the upper surface of the material having through holes is 5 to 80 kPa or while the coal and the material having through holes are kept at a constant volume, and measuring a permeation distance of the sample that has permeated into the through-holes; and performing blending after at least part of coals and a caking additive whose permeation distance is larger than a control value is pulverized into particles having a particle size smaller than a predetermined particle size, wherein the predetermined particle size is a particle size having a particle size distribution in which a ratio of particles having a particle size of 6 mm or more to all particles is 5 mass% or less. packing, as a sample, each of the coals and the caking additive that constitute the coal blend and that are pulverized in advance so that the ratio of particles having a particle size of 3 mm or less is 70% by mass or more in a vessel, wherein the packing density is 0.7 to 0.9 g/cm 3 and the thickness of the packed layer is 5 to 20 mm, disposing a material having through-holes that connect upper and lower surfaces on the sample, heating the sample in an inert gas atmosphere while the uniformly imposed pressure on the upper surface of the material having through holes is 5 to 80 kPa or while the coal and the material having through holes are kept at a constant volume, and measuring a permeation distance of the sample that has permeated into the through-holes; and performing blending after at least part of coals and a caking additive whose permeation distance is larger than a control value is pulverized into particles having a particle size smaller than a predetermined particle size, wherein the predetermined particle size is a particle size having a particle size distribution in which a ratio of particles having a particle size of 6 mm or more to all particles is 5 mass% or less. performing blending after at least part of coals and a caking additive whose permeation distance is larger than a control value is pulverized into particles having a particle size smaller than a predetermined particle size, wherein the predetermined particle size is a particle size having a particle size distribution in which a ratio of particles having a particle size of 6 mm or more to all particles is 5 mass% or less.
A proximity service authorization method, comprising: receiving, by a first network-side entity, a first request message sent by first user equipment, wherein the first request message comprises identity information of the first user equipment and an application identifier; acquiring proximity service configuration data of the first user equipment; and determining, at least according to acquired proximity service configuration data of the first user equipment, that the first user equipment can perform a proximity service corresponding to the application identifier; wherein the acquiring proximity service configuration data of the first user equipment comprises: receiving, by the first network-side entity, second information of the first user equipment sent by a second network-side entity, wherein the second information comprises one or more of the following: whether the first user equipment is allowed to discover, be discovered, perform proximity service communication, a range of proximity service communication of the first user equipment, whether the first user equipment is allowed to perform a proximity service across a public land mobile network, whether the first user equipment is allowed to perform a proximity service in a visited public land mobile network,VPLMN, and whether the first user equipment is allowed to perform a public safety proximity service. receiving, by a first network-side entity, a first request message sent by first user equipment, wherein the first request message comprises identity information of the first user equipment and an application identifier; acquiring proximity service configuration data of the first user equipment; and determining, at least according to acquired proximity service configuration data of the first user equipment, that the first user equipment can perform a proximity service corresponding to the application identifier; wherein the acquiring proximity service configuration data of the first user equipment comprises: receiving, by the first network-side entity, second information of the first user equipment sent by a second network-side entity, wherein the second information comprises one or more of the following: whether the first user equipment is allowed to discover, be discovered, perform proximity service communication, a range of proximity service communication of the first user equipment, whether the first user equipment is allowed to perform a proximity service across a public land mobile network, whether the first user equipment is allowed to perform a proximity service in a visited public land mobile network,VPLMN, and whether the first user equipment is allowed to perform a public safety proximity service.
A mixer sheath for a vascular catheter, the mixer sheath comprising a tube having a wall patterned with a line of weakness which is configured to cause buckling of a portion of the tube wall when a longitudinal compression force is applied to the tube to form a blood mixing element which extends radially outwards with respect to a location of the portion of the tube wall prior to buckling, characterized in that, in an unbuckled state, the line of weakness extends for at least some of its length in a direction with a non-zero longitudinal component with respect to an axis of the tube.
An in-mold solvent-free coating composition adapted for use in an in-situ coating process for coating an optical surface for ophthalmic application comprising isobornyl acrylate, a surfactant and a multifunctional (meth)acrylate compound, wherein said coating composition has a viscosity of at least 1 Pa.s (1000 cps) at 25°C, and can remain in liquid form to flow along a heated mold insert to a uniform thickness and then thermally cure.
Inerting device for a pressurised aircraft fuel tank, i.e. for a tank provided with a main vessel and a separate overflow space, the device including a generator of nitrogen-enriched gas, a circuit (4, 5) for transferring the nitrogen-enriched gas produced by the generator, the transfer circuit (4, 5) including an upstream end connected to the generator, a first downstream end which can be coupled to the main vessel and a second downstream end which can be coupled to the overflow space, the device including a sensor array (6, 7) for measuring information representative of the pressure differential (P3-Pa) between, on the one hand the interior of the overflow space and on the other hand the exterior of the tank, the device further including an electronic logic unit receiving the measurements from the sensor array (6, 7), the electronic logic unit being connected to the generator and/or to the transfer circuit (4, 5), and being designed to control the supply of a nitrogen-enriched gas flow to the second downstream end when the pressure differential (P3-Pa) between, on the one hand the interior of the overflow space and on the other hand the exterior drops below a predetermined threshold S.
An aircraft comprising: an antenna (36,38) arranged to convert a plurality of radiofrequency signals received from a plurality of satellites (12,14) remote from the aircraft along a plurality of paths into electronic data representing the received signals; a receiver coupled to receive said electronic data representing the received signals from said antenna and programmed with software that measures characteristics of the received signals, wherein said receiver is arranged to output electronic data representing measured values of said characteristics of the received signals; a computer coupled to receive said electronic data representing measured values of said characteristics of the received signals from said receiver and programmed with software that processes said electronic data representing measured values of said characteristics of the received signals and issues an activation signal when the results of said processing are indicative of the presence of a volcanic plume; and an alarm device arranged to generate a perceptible alarm in response to receipt of said activation signal; wherein the software further compares said electronic data representing measured values of said characteristics of the received signals to electronic data representing expected reference values of said characteristics of the received signals and stores any anomalies indicative of a volcanic plume and identified during said comparing step. an antenna (36,38) arranged to convert a plurality of radiofrequency signals received from a plurality of satellites (12,14) remote from the aircraft along a plurality of paths into electronic data representing the received signals; a receiver coupled to receive said electronic data representing the received signals from said antenna and programmed with software that measures characteristics of the received signals, wherein said receiver is arranged to output electronic data representing measured values of said characteristics of the received signals; a computer coupled to receive said electronic data representing measured values of said characteristics of the received signals from said receiver and programmed with software that processes said electronic data representing measured values of said characteristics of the received signals and issues an activation signal when the results of said processing are indicative of the presence of a volcanic plume; and an alarm device arranged to generate a perceptible alarm in response to receipt of said activation signal; wherein the software further compares said electronic data representing measured values of said characteristics of the received signals to electronic data representing expected reference values of said characteristics of the received signals and stores any anomalies indicative of a volcanic plume and identified during said comparing step.
A method comprising encoding a picture including: obtaining a first coding mode, the first coding mode having a first index, wherein when a value of the first index is 0, the first index indicates that the first coding mode is disabled and when the value of the first index is not 0, the first index indicates a non-separable 2D transform in a set of non-separable 2D transforms for transforming a residual block of the picture; obtaining a second coding mode, the second coding mode having a second index indicating a separable 2D transform in a set of separable 2D transforms for transforming the residual block when the second coding mode is enabled, wherein the second index indicates an horizontal transform and a vertical transform to form the separable 2D transform, wherein enabling the second coding mode depends on the value of the first index of the first coding mode, and encoding the residual block according to either the first coding mode when the first coding mode is enabled or the second coding mode when the second coding mode is enabled. obtaining a first coding mode, the first coding mode having a first index, wherein when a value of the first index is 0, the first index indicates that the first coding mode is disabled and when the value of the first index is not 0, the first index indicates a non-separable 2D transform in a set of non-separable 2D transforms for transforming a residual block of the picture; obtaining a second coding mode, the second coding mode having a second index indicating a separable 2D transform in a set of separable 2D transforms for transforming the residual block when the second coding mode is enabled, wherein the second index indicates an horizontal transform and a vertical transform to form the separable 2D transform, wherein enabling the second coding mode depends on the value of the first index of the first coding mode, and encoding the residual block according to either the first coding mode when the first coding mode is enabled or the second coding mode when the second coding mode is enabled.
An electrophoretic display film comprising: a) first microcups each having a first shape, and b) second microcups having shapes different from the first microcups, the second microcups constituting at least 10% of the total number of microcups and being randomly interspersed among the first microcups. a) first microcups each having a first shape, and b) second microcups having shapes different from the first microcups, the second microcups constituting at least 10% of the total number of microcups and being randomly interspersed among the first microcups.
A method for configuring Impulse Noise Protection, INP, on a communication line at a physical layer, PHY, comprising the following steps: - configuring said PHY to use an RTX mode using retransmissions for INP; - monitoring (101, 401) a performance in said RTX mode; - reconfiguring said PHY to use an IFEC mode using forward error correction and interleaving for INP if said performance in said RTX mode is below a certain threshold; - monitoring (104, 404) a performance in said IFEC mode; - reconfiguring said PHY back to said RTX mode if (105, 405) said performance in said IFEC mode is below said performance in said RTX mode further characterized in that: - said performance in said RTX mode is related to a first mean time between transmission errors, first MTBE; and wherein said reconfiguring said PHY to use said IFEC mode is only performed when said first MTBE is below a predetermined threshold MTBE; said performance in said IFEC mode is related to a second MTBE; and wherein said reconfiguring said PHY back to said RTX mode is performed when said second MTBE in said IFEC mode is below said first MTBE. - configuring said PHY to use an RTX mode using retransmissions for INP; - monitoring (101, 401) a performance in said RTX mode; - reconfiguring said PHY to use an IFEC mode using forward error correction and interleaving for INP if said performance in said RTX mode is below a certain threshold; - monitoring (104, 404) a performance in said IFEC mode; - reconfiguring said PHY back to said RTX mode if (105, 405) said performance in said IFEC mode is below said performance in said RTX mode - said performance in said RTX mode is related to a first mean time between transmission errors, first MTBE; and wherein said reconfiguring said PHY to use said IFEC mode is only performed when said first MTBE is below a predetermined threshold MTBE; said performance in said IFEC mode is related to a second MTBE; and wherein said reconfiguring said PHY back to said RTX mode is performed when said second MTBE in said IFEC mode is below said first MTBE.
A composition comprising graphene quantum dots (GQDs) as an active ingredient for use in the treatment of a viral disease, wherein the viral disease is a disease caused by infection with adenovirus.