mhurhangee/ep-ind-claims huggingface dataset:
A method for performing a context transfer from a first session management entity to a second session management entity in a mobile communication system, the context transfer concerning a data session associated with a User Equipment, UE, wherein the data session is handled by the first session management entity via a first gateway entity and wherein, after the context transfer, the data session is to be handled by the second session management entity via a second gateway entity, the method being performed by the second session management entity and comprising: - while the UE is in an inactive state: triggering sending, to the second gateway entity, a session establishment request to establish a new session handling the data session via the second gateway entity; and triggering providing, to the second gateway entity, an old Internet Protocol, IP, address assigned to the UE as part of an old session handling the data session via the first gateway entity, requesting the second gateway entity to assign the old IP address to the UE as part of the new session, besides a new IP address assigned to the UE as part of the new session; and - when the UE enters an active state from the inactive state: triggering providing the new IP address to the UE. - while the UE is in an inactive state: triggering sending, to the second gateway entity, a session establishment request to establish a new session handling the data session via the second gateway entity; and triggering providing, to the second gateway entity, an old Internet Protocol, IP, address assigned to the UE as part of an old session handling the data session via the first gateway entity, requesting the second gateway entity to assign the old IP address to the UE as part of the new session, besides a new IP address assigned to the UE as part of the new session; and triggering sending, to the second gateway entity, a session establishment request to establish a new session handling the data session via the second gateway entity; and triggering providing, to the second gateway entity, an old Internet Protocol, IP, address assigned to the UE as part of an old session handling the data session via the first gateway entity, requesting the second gateway entity to assign the old IP address to the UE as part of the new session, besides a new IP address assigned to the UE as part of the new session; and - when the UE enters an active state from the inactive state: triggering providing the new IP address to the UE.
A sliding spline shaft device for an automobile comprising a male spline and a female spline that is fitted to the male spline in an axially slidable manner, wherein at least one of the splines has a surface processed layer; the surface processed layer includes, an undercoat layer formed by nitriding, an intermediate layer containing a phosphate, and a topcoat layer containing a solid lubricant and a binder resin, in this order; characterised in that the undercoat layer includes a diffusion layer in which nitrogen is diffused in the base material and a compound layer containing an iron nitride in this order from the base material side, the compound layer is columnar crystals containing Fe 2-3 N and Fe 4 N, the compound layer is formed by a salt-bath nitrocarburizing method, and the compound layer is porous. a female spline that is fitted to the male spline in an axially slidable manner, wherein at least one of the splines has a surface processed layer; the surface processed layer includes, an undercoat layer formed by nitriding, an intermediate layer containing a phosphate, and a topcoat layer containing a solid lubricant and a binder resin, in this order; characterised in that the undercoat layer includes a diffusion layer in which nitrogen is diffused in the base material and a compound layer containing an iron nitride in this order from the base material side, the compound layer is columnar crystals containing Fe 2-3 N and Fe 4 N, the compound layer is formed by a salt-bath nitrocarburizing method, and the compound layer is porous.
A particulate build material, comprising a plurality of particulates, wherein individual particulates comprise a particulate core I having a photosensitive coating applied to a surface of the particulate core, the particulate core comprises a metal, a ceramic, or both a metal and a ceramic, wherein the photosensitive coating comprises a polymer having a photosensitive agent suspended or attached therein, and wherein the photosensitive agent can absorb energy corresponding to a frequency of the photo energy such that the photosensitive agent causes the polymer to soften and adhere to adjacent particulates; wherein the photosensitive coating comprises from about 0.1 wt% to about 20 wt% of the photosensitive agent and the photosensitive agent is selected from the group consisting of aluminum quinoline complexes, porphyrins, porphins, indocyanine dyes, phenoxazine derivatives, phthalocyanine dyes, napthalocyanines, polymethyl indolium dyes, polymethine dyes, guaiazulenyl dyes, croconium dyes, polymethine indolium dyes, metal complex IR dyes, cyanine dyes, squarylium dyes, chalcogeno-pyryloarylidene dyes, indolizine dyes, pyrylium dyes, quinoid dyes, quinone dyes, azo dyes, or combinations thereof.
A device for detecting and/or quantifying functional C1-esterase inhibitor (fC1-INH), the device comprising: (i) a conjugate pad comprising a first zone and a second zone, on which a first agent and a second agent are immobilized, respectively, and (ii) a membrane, which is in communication with the conjugate pad, wherein the membrane comprises a third zone, on which a third agent is immobilized, wherein the first agent is a functional C1 inhibitor (fC1-INH) binding agent or a C1 inhibitor (C1-INH) binding agent; wherein the second agent and the third agent are each selected from the group consisting of a functional C1 inhibitor (fC1-INH) binding agent, a C1 inhibitor (C1-INH) binding agent, and a capture agent, the first agent, the second agent, and the third agents being different from each other; wherein one of the C1-INH binding agent and the capture agent is conjugated to a detectable label, and the fC1-INH binding agent is conjugated to a docking agent, wherein the docking agent is capable of binding to the capture agent and/or the capture agent is capable of binding to the docking agent; and wherein the conjugate pad further comprises a fourth zone for placing a biological sample, which flows through the device in the order of the first zone, the second zone, and the third zone; and wherein the fC1-INH binding agent specifically binds fC1-INH and does not specifically bind C1-INH. (i) a conjugate pad comprising a first zone and a second zone, on which a first agent and a second agent are immobilized, respectively, and (ii) a membrane, which is in communication with the conjugate pad, wherein the membrane comprises a third zone, on which a third agent is immobilized, wherein the first agent is a functional C1 inhibitor (fC1-INH) binding agent or a C1 inhibitor (C1-INH) binding agent; wherein the second agent and the third agent are each selected from the group consisting of a functional C1 inhibitor (fC1-INH) binding agent, a C1 inhibitor (C1-INH) binding agent, and a capture agent, the first agent, the second agent, and the third agents being different from each other; wherein one of the C1-INH binding agent and the capture agent is conjugated to a detectable label, and the fC1-INH binding agent is conjugated to a docking agent, wherein the docking agent is capable of binding to the capture agent and/or the capture agent is capable of binding to the docking agent; and wherein the conjugate pad further comprises a fourth zone for placing a biological sample, which flows through the device in the order of the first zone, the second zone, and the third zone; and wherein the fC1-INH binding agent specifically binds fC1-INH and does not specifically bind C1-INH.
A method of encapsulating an electronic component, the method comprising: applying a first layer of an encapsulating composition onto an electronic component from an applicator roll, the electronic component being disposed on a substrate, the applicator roll comprising an outer surface and being spaced apart from the electronic component such that a gap exists between the applicator roll and the electronic component, the gap controlling the thickness of the first layer of encapsulating composition, the first layer of encapsulating composition encapsulating the electronic component on the substrate, and an interface between the surface of the electronic component and the encapsulating composition being substantially free of voids, wherein the term "void" means a space occupied by a gas, and the phrase "substantially free of voids" means that no voids having a cross sectional dimension greater than 0.1 mm are present and that on average from 0 to no greater than 20 voids are present for each square millimeter of encapsulation composition; wherein applying the first layer includes: (i) passing the substrate past the applicator roll and turning the applicator roll in the same direction as a direction of travel of the substrate, wherein a tangential speed of the applicator roll is greater than or less than a linear speed of the substrate, or (ii) passing the substrate past the applicator roll in a first direction and turning the applicator roll in a direction opposite the first direction. the applicator roll comprising an outer surface and being spaced apart from the electronic component such that a gap exists between the applicator roll and the electronic component, the gap controlling the thickness of the first layer of encapsulating composition, the first layer of encapsulating composition encapsulating the electronic component on the substrate, and an interface between the surface of the electronic component and the encapsulating composition being substantially free of voids, wherein the term "void" means a space occupied by a gas, and the phrase "substantially free of voids" means that no voids having a cross sectional dimension greater than 0.1 mm are present and that on average from 0 to no greater than 20 voids are present for each square millimeter of encapsulation composition; wherein applying the first layer includes: (i) passing the substrate past the applicator roll and turning the applicator roll in the same direction as a direction of travel of the substrate, wherein a tangential speed of the applicator roll is greater than or less than a linear speed of the substrate, or (ii) passing the substrate past the applicator roll in a first direction and turning the applicator roll in a direction opposite the first direction. (i) passing the substrate past the applicator roll and turning the applicator roll in the same direction as a direction of travel of the substrate, wherein a tangential speed of the applicator roll is greater than or less than a linear speed of the substrate, or (ii) passing the substrate past the applicator roll in a first direction and turning the applicator roll in a direction opposite the first direction.
A wired-on tyre rim for a bicycle, comprising an inner sleeve made of at least one thread, the at least one thread being arranged to form a coil, the inner sleeve having a joint at which the ends are joined, characterized in that the inner sleeve is surrounded by an outer sleeve made of a woven layer in the region of two rim flanges and brake flank regions facing radially inward therefrom and a support region connecting them.
A thrust reverser of a turbojet engine nacelle for an aircraft, said thrust reverser including a fixed structure and a movable structure together delimiting an airflow path, at least one thrust reverser flap comprising a single wall, this wall being pierced on its surface so as to allow the passage through the flap of a portion of an air stream diverted by the flap, said wall comprising a structure stiffening the flap and having an acoustic function, the flap being articulated between the fixed structure and the movable structure to allow: - in a direct jet position, arranging said wall of the flap along an acoustic section of the movable structure so as to allow the flow of an air stream through the air flow path, said acoustic section forming with the structure of said wall an acoustic resonator and, - in a reverse jet position, arranging said wall of the flap to divert an air stream passing through the air flow path and to allow the passage, through the wall of the flap and through the air flow path, of a portion of the air stream diverted by the flap. - in a direct jet position, arranging said wall of the flap along an acoustic section of the movable structure so as to allow the flow of an air stream through the air flow path, said acoustic section forming with the structure of said wall an acoustic resonator and, - in a reverse jet position, arranging said wall of the flap to divert an air stream passing through the air flow path and to allow the passage, through the wall of the flap and through the air flow path, of a portion of the air stream diverted by the flap.
Nozzle for turbine (8, 9) of a turbine engine extending about a longitudinal central axis, this nozzle comprising a radially outer ring shell made of metallic material extending about said longitudinal central axis, a radially inner ring shell made of metallic material concentric with the radially outer ring shell, and a plurality of vanes made of ceramic matrix composite material in succession circumferentially about the longitudinal central axis, each vane extending radially between the radially inner ring shell and the radially outer ring shell, each vane having a hollow profile forming an inner recess opening at a radially inner end and at a radially outer end of this vane, this nozzle comprises at least one liner made of metallic material forming a radial channel for conveying ventilation air passing through the inner recess of respectively one of the vanes, this liner comprising a radially outer end attached to the radially outer ring shell and a radially inner end which engages with the radially inner ring shell such that the radial channel is facing a respective opening of the radially inner ring shell to convey the ventilation air through this opening, the nozzle being characterised in that it comprises at least one seal disposed between the radially inner ring shell and the liner so as to ensure the tightness between the radial channel and said opening of the radially inner ring shell, the liner comprising a shoulder forming a support surface radially facing a corresponding support surface of the radially inner ring shell such that the seal can be compressed radially between these support surfaces (76, 84).
An apparatus for compacting thermoplastic feedstock, comprising a rotary unit disposed between first and second stationary panels (1, 5), said rotary unit comprises a number of hollow, tubular chambers (10, 11, 12, 13), in which compaction of feedstock occurs, symmetrically arranged around a rotation axis and horizontally disposed between rotary disks (8, 9) such that end portions of each tubular chamber traverse said disks (8, 9) and protrude outward from exterior surfaces thereof, said rotary unit further comprises a number of heating elements (22, 23, 24, 25), disposed between rotary disks (8, 9) such that each heating element encloses a corresponding tubular chamber; wherein the first stationary panel is a front panel and comprises a first aperture and a second aperture, arranged to conform to end openings of any two adjacent tubular chambers (10, 11, 12, 13), and wherein the second stationary panel is a back panel and comprises an aperture arranged to conform to an end opening of any of the tubular chambers (10, 11, 12, 13) and to align in horizontal plane with the second aperture of the front panel.
A chemical gel cleaning formulation for cleaning vertical fill surfaces of cooling towers, comprising: glycerine; at least one polysaccharide; at least one corrosion inhibitor; at least one surfactant; and citric acid, phosphoric acid, and hydrochloric acid. glycerine; at least one polysaccharide; at least one corrosion inhibitor; at least one surfactant; and citric acid, phosphoric acid, and hydrochloric acid.
A masking arrangement for masking a substrate during layer deposition; the masking arrangement comprising: a mask structure forming an aperture for exposing the substrate during a layer deposition; and a protection shield, which is provided adjacent to the masking structure, wherein the protection shield protects one or more portions of the masking arrangement from being coated during layer deposition, and wherein an interface is formed between the protection shield and the masking structure; wherein the mask structure comprises a roof portion extending over the interface, and wherein the roof portion forms a gap with a portion of the protection shield. a mask structure forming an aperture for exposing the substrate during a layer deposition; and a protection shield, which is provided adjacent to the masking structure, wherein the protection shield protects one or more portions of the masking arrangement from being coated during layer deposition, and wherein an interface is formed between the protection shield and the masking structure; wherein the mask structure comprises a roof portion extending over the interface, and wherein the roof portion forms a gap with a portion of the protection shield.
Motor vehicle door latch with a lever chain (2 to 6) which can be acted on in a motorized manner, and with an electromotor with an associated control unit, wherein the electromotor transfers the lever chain (2 to 6) into a specified position or acts on it starting from the specified position, and whereby the control unit uses data from the electromotor for its action, and the control unit evaluates gradients from power data of the electromotor for position setting of the lever chain (2 to 6), characterized in that the control unit acts on the electromotor subsequently to an activation command at first in its counterdirection in order to verify the current position of the lever chain (2 to 6) as a starting point for the desired movement.
A peptide comprising a partial p53 peptide and a mutated Bcr coiled-coil domain, wherein the partial p53 peptide does not have a functional tetramerization domain but retains tumor suppressor activity and the mutated Bcr coiled-coil domain comprises amino acid substitutions and deletions but retains tetramerization activity, wherein the mutated Bcr coiled-coil domain comprises mutations at residues 34 and 55 of SEQ ID NO:4 and has a lysine at position 34 and a glutamic acid at position 55 of SEQ ID NO:4 or comprises the sequence of SEQ ID NO:5, wherein the mutated Bcr coiled-coil domains comprise at least 50% sequence identity to SEQ ID NO:4.
A method for forming a three-dimensional article through successive fusion of parts of at least one layer of a powder bed provided on a work table in a vacuum chamber, which parts corresponds to successive cross sections of the three-dimensional article, said method comprising the steps of: applying a layer of predetermined thickness of powder particles on said work table in said vacuum chamber; applying a coating on at least a portion of said layer of said powder particles while said powder particles are inside said vacuum chamber, wherein said coating is at least partially covering said powder particles; and fusing said powder particles on said work table with an energy beam, wherein said coating is applied by a process selected from the group consisting of: sputtering, chemical vapor deposition, physical vapor deposition, laser ablation, resistive melting of a target, laser beam melting of a target, electron beam melting of a target, and any combination thereof applying a layer of predetermined thickness of powder particles on said work table in said vacuum chamber; applying a coating on at least a portion of said layer of said powder particles while said powder particles are inside said vacuum chamber, wherein said coating is at least partially covering said powder particles; and fusing said powder particles on said work table with an energy beam, wherein said coating is applied by a process selected from the group consisting of: sputtering, chemical vapor deposition, physical vapor deposition, laser ablation, resistive melting of a target, laser beam melting of a target, electron beam melting of a target, and any combination thereof
A method for processing downlink frame synchronization in a Gigabit-capable passive optical network system, comprising the following steps: carrying out forward error correction, FEC, encoding on data in a synchronization domain of a downlink frame of the Gigabit-capable passive optical network, GPON, system, wherein the synchronization domain includes a physical synchronization, Psync, domain and an identifier, Ident, domain; filling the FEC encoded data into an FEC check domain provided in the downlink frame; and sending the downlink frame; wherein after sending the downlink frame, the method further comprises: receiving the downlink frame and checking the data in the synchronization domain in the downlink frame structure according to the FEC encoded data; and processing the frame synchronization of the downlink frame according to the check result; and characterised in that the step of checking the data in the synchronization domain in the downlink frame structure according to the FEC encoded data comprises: when a synchronization state machine of a GPON system optical network terminal detects a wrong Psync value, carrying out FEC check on the data of the Psync domain in the downlink frame structure; and comparing a Psync value obtained by carrying out the FEC check on the data of the Psync domain with a preset Psync value, if they are the same, then feeding back right information to the synchronization state machine; otherwise feeding back error information. carrying out forward error correction, FEC, encoding on data in a synchronization domain of a downlink frame of the Gigabit-capable passive optical network, GPON, system, wherein the synchronization domain includes a physical synchronization, Psync, domain and an identifier, Ident, domain; filling the FEC encoded data into an FEC check domain provided in the downlink frame; and sending the downlink frame; receiving the downlink frame and checking the data in the synchronization domain in the downlink frame structure according to the FEC encoded data; and processing the frame synchronization of the downlink frame according to the check result; when a synchronization state machine of a GPON system optical network terminal detects a wrong Psync value, carrying out FEC check on the data of the Psync domain in the downlink frame structure; and comparing a Psync value obtained by carrying out the FEC check on the data of the Psync domain with a preset Psync value, if they are the same, then feeding back right information to the synchronization state machine; otherwise feeding back error information.