mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving , by a Policy and Charging Rules Function, PCRF, , a request from a user equipment, UE, to access a wireless local area network , wherein the UE is currently accessing one or more 3GPP access networks, the request being for a 3GPP Authentication, Authorization and Accounting, AAA, element and the PCRF serving as a proxy for the request; receiving , by the PCRF from the 3GPP AAA element , an Access Accept message comprising an International Mobile Subscriber Identity, IMSI, for the subscriber associated with the UE; determining , by the PCRF , whether the subscriber associated with the UE is authorized to access the wireless local area network based, at least in part, on looking up a wireless/cellular access policy for the received IMSI, the policy indicating whether the subscriber is allowed to access the wireless local area network; and communicating , by the PCRF, one of a wireless access rejection and a wireless access acceptance to the UE based on the determination. receiving , by a Policy and Charging Rules Function, PCRF, , a request from a user equipment, UE, to access a wireless local area network , wherein the UE is currently accessing one or more 3GPP access networks, the request being for a 3GPP Authentication, Authorization and Accounting, AAA, element and the PCRF serving as a proxy for the request; receiving , by the PCRF from the 3GPP AAA element , an Access Accept message comprising an International Mobile Subscriber Identity, IMSI, for the subscriber associated with the UE; determining , by the PCRF , whether the subscriber associated with the UE is authorized to access the wireless local area network based, at least in part, on looking up a wireless/cellular access policy for the received IMSI, the policy indicating whether the subscriber is allowed to access the wireless local area network; and communicating , by the PCRF, one of a wireless access rejection and a wireless access acceptance to the UE based on the determination.
Leaktight electrochemical system, comprising: - a packaging; - a porous electrically conductive substrate , forming a current collector and supporting, on at least one of its main faces, at least one continuous pattern of active material of an electrode ; the porous substrate being preferably based on carbon fibers; - at least one dense electrically conductive tab , connected to the substrate at at least one electrically conductive junction obtained by sewing using at least one electrically conductive thread, the tab supporting, on each of its main faces, at least one sealing tape sealed to the packaging to ensure the leaktight closure thereof. - a packaging; - a porous electrically conductive substrate , forming a current collector and supporting, on at least one of its main faces, at least one continuous pattern of active material of an electrode ; the porous substrate being preferably based on carbon fibers; - at least one dense electrically conductive tab , connected to the substrate at at least one electrically conductive junction obtained by sewing using at least one electrically conductive thread, the tab supporting, on each of its main faces, at least one sealing tape sealed to the packaging to ensure the leaktight closure thereof.
An airfoil for a gas turbine engine comprising: an airfoil wall defining a leading end , a trailing end , a first side , and a second side , the airfoil wall circumscribing an interior cavity; and radially-extending ribs that partition the interior cavity into first and second cooling channels and a radial cooling passage situated between the first and second cooling channels, the first and second cooling channels each extending from a first channel end to a second channel end ; and a turn channel connecting the first channel end of the first cooling channel to the first channel end of the second cooling channel, characterised by the turn channel splitting at the first channel end of the first cooling channel into first and second channel legs (80; 82) such that there is a region between the first and second channel legs, the first and second channel legs merging at the first channel end of the second cooling channel, the radial cooling passage extending through the region between the first and second channel legs. an airfoil wall defining a leading end , a trailing end , a first side , and a second side , the airfoil wall circumscribing an interior cavity; and radially-extending ribs that partition the interior cavity into first and second cooling channels and a radial cooling passage situated between the first and second cooling channels, the first and second cooling channels each extending from a first channel end to a second channel end ; and a turn channel connecting the first channel end of the first cooling channel to the first channel end of the second cooling channel, characterised by the turn channel splitting at the first channel end of the first cooling channel into first and second channel legs (80; 82) such that there is a region between the first and second channel legs, the first and second channel legs merging at the first channel end of the second cooling channel, the radial cooling passage extending through the region between the first and second channel legs.
A cyclotronic actuator comprising: - a ring magnet having an inner diameter and defined to have an inner circumference and an outer circumference; - a first electrode positioned within the inner diameter of the ring magnet ; - a 3-dimensionally shaped dielectric material having a top surface surrounding the first electrode and positioned within the inner circumference of the ring magnet ; wherein the actuator further comprises: - a high-voltage plasma driver , connected to the first electrode ; - a second electrode being grounded and positioned away from the first electrode between the ring magnet and the dielectric material , such that, in use, a plasma arc is formed between the pair of electrodes when the high-voltage plasma driver is activated; wherein the ring magnet being positioned to introduce a local magnetic field to the plasma arc, such that, in use the plasma arc discharges in a radial direction and the local magnetic field is oriented vertically in a direction parallel to the axisymmetric orientation of the first and second electrodes to create Lorentz Force to cause the plasma arc to move in a tangential direction and to cause the plasma arc to discharge out in a circular pattern, whereby three dimensional, vortical structures are produced by the moving plasma arc. - a ring magnet having an inner diameter and defined to have an inner circumference and an outer circumference; - a first electrode positioned within the inner diameter of the ring magnet ; - a 3-dimensionally shaped dielectric material having a top surface surrounding the first electrode and positioned within the inner circumference of the ring magnet ; wherein the actuator further comprises: - a high-voltage plasma driver , connected to the first electrode ; - a second electrode being grounded and positioned away from the first electrode between the ring magnet and the dielectric material , such that, in use, a plasma arc is formed between the pair of electrodes when the high-voltage plasma driver is activated; wherein the ring magnet being positioned to introduce a local magnetic field to the plasma arc, such that, in use the plasma arc discharges in a radial direction and the local magnetic field is oriented vertically in a direction parallel to the axisymmetric orientation of the first and second electrodes to create Lorentz Force to cause the plasma arc to move in a tangential direction and to cause the plasma arc to discharge out in a circular pattern, whereby three dimensional, vortical structures are produced by the moving plasma arc.
An electronic device comprising: a first camera; a second camera; memory storing instructions; and at least one processor , wherein the at least one processor is, when the instructions are executed, configured to: enable an image capture application of the electronic device ; display a first preview image based on a first sensor data from the first camera; obtain a lux value based on at least one of the first sensor data from the first camera or a second sensor data from the second camera; based on the obtained lux value being smaller than a first threshold, switch from displaying the first preview image to displaying a second preview image based on the second sensor data from the second camera, wherein the second preview image is displayed after a stabilization time which is a time interval for adjusting a default value of a camera setting of the second camera, wherein the first camera comprises a first image sensor for a first sensitivity, and the second camera comprises a second image sensor for a second sensitivity, and wherein the second sensitivity is higher than the first sensitivity. a first camera; a second camera; memory storing instructions; and at least one processor , wherein the at least one processor is, when the instructions are executed, configured to: enable an image capture application of the electronic device ; display a first preview image based on a first sensor data from the first camera; obtain a lux value based on at least one of the first sensor data from the first camera or a second sensor data from the second camera; based on the obtained lux value being smaller than a first threshold, switch from displaying the first preview image to displaying a second preview image based on the second sensor data from the second camera, wherein the second preview image is displayed after a stabilization time which is a time interval for adjusting a default value of a camera setting of the second camera, wherein the first camera comprises a first image sensor for a first sensitivity, and the second camera comprises a second image sensor for a second sensitivity, and wherein the second sensitivity is higher than the first sensitivity. enable an image capture application of the electronic device ; display a first preview image based on a first sensor data from the first camera; obtain a lux value based on at least one of the first sensor data from the first camera or a second sensor data from the second camera; based on the obtained lux value being smaller than a first threshold, switch from displaying the first preview image to displaying a second preview image based on the second sensor data from the second camera, wherein the second preview image is displayed after a stabilization time which is a time interval for adjusting a default value of a camera setting of the second camera, wherein the first camera comprises a first image sensor for a first sensitivity, and the second camera comprises a second image sensor for a second sensitivity, and wherein the second sensitivity is higher than the first sensitivity.
A method for characterising a hydraulic fluid by applying an analysis technique to a spectrum of a sample of the fluid to be characterized to determine a plurality of physicochemical quantities of said fluid, said method comprising the following step a): a) acquiring a spectrum of a sample of the fluid to be characterized, said fluid being of the phosphate ester type and said spectrum comprising an infrared absorption spectrum; said method being characterized in that step a) is followed by the following steps b) and c): b) calculating, by the analysis technique which is a functional statistical analysis technique, a vector of parameters representative of said spectrum using the entire spectrum in one or more spectral regions, said functional statistical analysis technique being a preferably regularized functional principal component analysis; and c) determining the plurality of physicochemical quantities of the fluid to characterize said fluid from said vector of parameters representative of said spectrum. a) acquiring a spectrum of a sample of the fluid to be characterized, said fluid being of the phosphate ester type and said spectrum comprising an infrared absorption spectrum; b) calculating, by the analysis technique which is a functional statistical analysis technique, a vector of parameters representative of said spectrum using the entire spectrum in one or more spectral regions, said functional statistical analysis technique being a preferably regularized functional principal component analysis; and c) determining the plurality of physicochemical quantities of the fluid to characterize said fluid from said vector of parameters representative of said spectrum.
A method for assembling a seal assembly, comprising: providing a seal, a biasing member in a shape of a spring structure, and a core material, the seal including a plurality of material layers; molding a core, the core including the spring structure and the core material, the core material being configured for temporarily retaining the spring structure; applying the plurality of material layers onto the core for forming the seal onto the core; and removing the core material such that only the spring structure is housed within the seal. providing a seal, a biasing member in a shape of a spring structure, and a core material, the seal including a plurality of material layers; molding a core, the core including the spring structure and the core material, the core material being configured for temporarily retaining the spring structure; applying the plurality of material layers onto the core for forming the seal onto the core; and removing the core material such that only the spring structure is housed within the seal.
A container closure assembly comprising: a container neck ; a cap adapted to removably engage with the container neck , the cap arranged to close an opening of the container neck when engaged therewith; one or more movable elements , the movable elements arranged to provide a selective engagement between the container neck and the cap , wherein: the one or more movable elements have one or more graphical indicia thereon to form at least part of at least one decoy pattern, the one or more movable elements have a locked configuration in which the cap is engaged with the container neck and the decoy pattern is complete, and the one or more movable elements have an unlocked configuration in which the cap is disengaged from the container neck and the decoy pattern is not complete, wherein the one or more movable elements have further locked configurations in which the cap is engaged with the container neck and the decoy pattern is not complete. a container neck ; a cap adapted to removably engage with the container neck , the cap arranged to close an opening of the container neck when engaged therewith; one or more movable elements , the movable elements arranged to provide a selective engagement between the container neck and the cap , wherein: the one or more movable elements have one or more graphical indicia thereon to form at least part of at least one decoy pattern, the one or more movable elements have a locked configuration in which the cap is engaged with the container neck and the decoy pattern is complete, and the one or more movable elements have an unlocked configuration in which the cap is disengaged from the container neck and the decoy pattern is not complete, wherein the one or more movable elements have further locked configurations in which the cap is engaged with the container neck and the decoy pattern is not complete. the one or more movable elements have one or more graphical indicia thereon to form at least part of at least one decoy pattern, the one or more movable elements have a locked configuration in which the cap is engaged with the container neck and the decoy pattern is complete, and the one or more movable elements have an unlocked configuration in which the cap is disengaged from the container neck and the decoy pattern is not complete, wherein the one or more movable elements have further locked configurations in which the cap is engaged with the container neck and the decoy pattern is not complete.
A fitting comprising a metal tube wall that forms both a cylindrical tube portion and an annular O-ring channel portion , the tube wall having a first wall thickness along the entire cylindrical tube portion and a second wall thickness along the O-ring channel portion , the second wall thickness being less than the first wall thickness, the cylindrical tube portion and O-ring channel portion being adjacent one another and being configured and adapted to encircle a cylindrical end portion of a tube when such end portion of the tube is inserted into the fitting, the tube wall also forming a flared portion , the flared portion being adjacent to the cylindrical tube portion opposite the O-ring channel portion, having interior and exterior surfaces that diverge radially outward relative to the cylindrical tube portion as the flared portion extends axially outward, the exterior of the tube wall protruding radially outward at the O-ring channel portion relative to the cylindrical tube portion, the flared portion and O-ring channel portion of the tube wall forming an exterior locating surface that is configured to receive a crimping tool around the cylindrical tube portion of the fitting.
A system comprising a first network device and a second network device, the first network device comprising: one or more memories; and one or more processors, configured to: receive packets as part of a traffic flow of an internet protocol, IP, session; select a packet that is part of the traffic flow based on a rule; generate a packet replica of the packet that has been selected; add, to the packet replica, routing information that is capable of being used to generate network performance indicators associated with the IP session; modify a portion of the packet replica to include one or more values that will cause the packet replica to fail to reach a destination device associated with the IP session; and provide the packet replica to one or more other network devices, wherein the one or more other network devices includes the second device; the second network device, in response to receiving the packet replica, is configured to: perform a validation procedure to determine that the packet replica fails the validation procedure based on the one or more values included in the packet replica, generate the network performance indicators using the routing information for the packet replica, and provide the network performance indicators to a particular device. one or more memories; and one or more processors, configured to: receive packets as part of a traffic flow of an internet protocol, IP, session; select a packet that is part of the traffic flow based on a rule; generate a packet replica of the packet that has been selected; add, to the packet replica, routing information that is capable of being used to generate network performance indicators associated with the IP session; modify a portion of the packet replica to include one or more values that will cause the packet replica to fail to reach a destination device associated with the IP session; and provide the packet replica to one or more other network devices, wherein receive packets as part of a traffic flow of an internet protocol, IP, session; select a packet that is part of the traffic flow based on a rule; generate a packet replica of the packet that has been selected; add, to the packet replica, routing information that is capable of being used to generate network performance indicators associated with the IP session; modify a portion of the packet replica to include one or more values that will cause the packet replica to fail to reach a destination device associated with the IP session; and provide the packet replica to one or more other network devices, wherein the one or more other network devices includes the second device; perform a validation procedure to determine that the packet replica fails the validation procedure based on the one or more values included in the packet replica, generate the network performance indicators using the routing information for the packet replica, and provide the network performance indicators to a particular device.
An apparatus (100; 200), comprising: a filter comprising a conductor and a plurality of cavity resonators that are implemented as TE101 resonators; wherein the plurality of cavity resonators comprises a first cavity resonator (102; 210) and a second cavity resonator (105; 215); wherein the conductor (135; 245; 400) is coupled between the first cavity resonator (101; 210) and the second cavity resonator (102; 215), wherein a first portion of the conductor (245; 400) defines a first area in a plane that is substantially perpendicular to a first magnetic field direction in the first cavity resonator and a second portion of the conductor (245; 400) defines a second area in a plane that is substantially perpendicular to a second magnetic field direction in the second cavity resonator such that inductive current generated in the first portion flows in substantially the same direction as current in the second portion of the conductor; wherein the first area and the second area determine a coupling constant between electromagnetic fields in the first cavity resonator and the second cavity resonator; wherein the conductor (135; 245; 400) is rotatably adjustable about an axis (250; 415); wherein the conductor forms a coupling loop that consists of an upper portion and a lower portion, wherein the upper portion protrudes into the first cavity resonator and defines the first area and wherein the lower portion protrudes into the second cavity resonator and defines the second area. a filter comprising a conductor and a plurality of cavity resonators that are implemented as TE101 resonators; wherein the plurality of cavity resonators comprises a first cavity resonator (102; 210) and a second cavity resonator (105; 215); wherein the conductor (135; 245; 400) is coupled between the first cavity resonator (101; 210) and the second cavity resonator (102; 215), wherein a first portion of the conductor (245; 400) defines a first area in a plane that is substantially perpendicular to a first magnetic field direction in the first cavity resonator and a second portion of the conductor (245; 400) defines a second area in a plane that is substantially perpendicular to a second magnetic field direction in the second cavity resonator such that inductive current generated in the first portion flows in substantially the same direction as current in the second portion of the conductor; wherein the first area and the second area determine a coupling constant between electromagnetic fields in the first cavity resonator and the second cavity resonator; wherein the conductor (135; 245; 400) is rotatably adjustable about an axis (250; 415); wherein the conductor forms a coupling loop that consists of an upper portion and a lower portion, wherein the upper portion protrudes into the first cavity resonator and defines the first area and wherein the lower portion protrudes into the second cavity resonator and defines the second area.