mhurhangee/ep-ind-claims huggingface dataset:
A method of processing a network slice based congestion, applied to a user terminal, comprising: receiving a message sent by a network comprising slice congestion information; and backing off a target network slice corresponding to the slice congestion information, according to the slice congestion information; wherein the backing off the target network slice corresponding to the slice congestion information according to the slice congestion information comprises: starting a backoff timer corresponding to the target network slice or stopping a session management request to the target network slice, according to the slice congestion information; characterized in that the receiving the message sent by the network and comprising the slice congestion information comprises: receiving a session release command sent by an Access and Mobility Management Function, wherein the session release command comprises indication information indicating that the target network slice is congested and a backoff parameter. receiving a message sent by a network comprising slice congestion information; and backing off a target network slice corresponding to the slice congestion information, according to the slice congestion information; wherein the backing off the target network slice corresponding to the slice congestion information according to the slice congestion information comprises: starting a backoff timer corresponding to the target network slice or stopping a session management request to the target network slice, according to the slice congestion information; characterized in that the receiving the message sent by the network and comprising the slice congestion information comprises: receiving a session release command sent by an Access and Mobility Management Function, wherein the session release command comprises indication information indicating that the target network slice is congested and a backoff parameter. wherein the backing off the target network slice corresponding to the slice congestion information according to the slice congestion information comprises: starting a backoff timer corresponding to the target network slice or stopping a session management request to the target network slice, according to the slice congestion information; characterized in that the receiving the message sent by the network and comprising the slice congestion information comprises: receiving a session release command sent by an Access and Mobility Management Function, wherein the session release command comprises indication information indicating that the target network slice is congested and a backoff parameter.
A positive electrode active material for nonaqueous electrolyte secondary batteries, the positive electrode active material comprising lithium metal composite oxide represented by a general formula: Li 1+u Ni x CO y Mn z M t O 2+α, wherein, 0.05 ≤ u ≤ 0.95, x + y + z + t = 1, 0 ≤ x ≤ 0.5, 0 ≤ y ≤ 0.5, 0.5 ≤ z < 0.8, 0 ≤ t ≤ 0.1, 0.05 ≤ α < 0.80 and M is an additive element and is at least one element selected from Mg, Ca, Al, Ti, V, Cr, Zr, Nb, Mo, and W, and composed of hexagonal lithium-containing composite oxide having a layered structure, characterized in that the lithium metal composite oxide comprises primary particles and secondary particles composed of aggregation of the primary particles, the secondary particles having a hollow structure that has an outer shell portion with aggregated primary particles sintered and a hollow portion being inside the outer shell portion, the secondary particles further having voids that enable permeation of an electrolyte solution in a vicinity of a surface and inside of the secondary particles, and the outer shell portion having a ratio of a thickness of 5 to 45% with respect to a particle diameter of the secondary particles, wherein the positive electrode active material has an average particle diameter of 3 to 12 μm and [(d 90 -d 10) /average-particle-diameter], an index indicating a scale of particle-size distribution, of not more than 0.60.
A computer-implemented method for reconstructing a physical space, comprising: obtaining a plurality of images (1400, 1440) of the physical space using a camera (24, 113) carried by a rig while the rig moves in the physical space through a plurality of poses; determining (602, 613) an orientation and a coordinate system (1310, 1311, 1430, 1510) of each pose; partitioning the physical space into a plurality of volumes (1000-1008, 1100, 1120, 1500, 1501); for each volume of the plurality of volumes, obtaining a depth map of the physical space using a depth sensor (25, 313) carried by the rig; providing a pose graph comprising a plurality of nodes (N1-N9) and links (L(N1,N2), L(N1,N3)) between the nodes, each node being associated with one of the poses, one of the images associated with the one of the poses and one of the coordinate systems associated with the one of the poses, and the links defining correspondences between the images and transforms between the coordinate systems; for each volume, anchoring the volume to one of the nodes; updating a state of the pose graph as the plurality of images are obtained, the updating comprising updating one or more of the nodes and one or more of the links; reconstructing a surface in one or more of the volumes according to the state of the pose graph; displaying a virtual object a specified distance from the surface in an augmented reality projection system; and based on the updating of the state of the pose graph, re-anchoring one of the volumes to another of the nodes if the pose associated with said node becomes closer to the pose used to obtain said volume. obtaining a plurality of images (1400, 1440) of the physical space using a camera (24, 113) carried by a rig while the rig moves in the physical space through a plurality of poses; determining (602, 613) an orientation and a coordinate system (1310, 1311, 1430, 1510) of each pose; partitioning the physical space into a plurality of volumes (1000-1008, 1100, 1120, 1500, 1501); for each volume of the plurality of volumes, obtaining a depth map of the physical space using a depth sensor (25, 313) carried by the rig; providing a pose graph comprising a plurality of nodes (N1-N9) and links (L(N1,N2), L(N1,N3)) between the nodes, each node being associated with one of the poses, one of the images associated with the one of the poses and one of the coordinate systems associated with the one of the poses, and the links defining correspondences between the images and transforms between the coordinate systems; for each volume, anchoring the volume to one of the nodes; updating a state of the pose graph as the plurality of images are obtained, the updating comprising updating one or more of the nodes and one or more of the links; reconstructing a surface in one or more of the volumes according to the state of the pose graph; displaying a virtual object a specified distance from the surface in an augmented reality projection system; and based on the updating of the state of the pose graph, re-anchoring one of the volumes to another of the nodes if the pose associated with said node becomes closer to the pose used to obtain said volume.
A coating apparatus configured to apply to a receiving surface a layer of particles that have a greater tendency to adhere to the receiving surface than to one another, the apparatus comprising: a) a source of pressurized air, b) an application chamber partially bounded by the receiving surface into which an air stream is delivered by the air source through a nozzle, c) an air return path for returning air from the application chamber to an intake of the air source to form an air circulation loop, and d) a dosing device for introducing particles to be coated onto the receiving surface into the air circulation loop, characterized in that a particle deflector is positioned in the path of the air stream delivered through a nozzle, the deflector serving to break up agglomerated particles carried by the air stream prior to coating the receiving surface with the particles, and brushes are provided in the application chamber for brushing the receiving surface to leave only a single layer of particles adhering to the receiving surface, each of the brushes and the receiving surface being in relative movement one with the other. a) a source of pressurized air, b) an application chamber partially bounded by the receiving surface into which an air stream is delivered by the air source through a nozzle, c) an air return path for returning air from the application chamber to an intake of the air source to form an air circulation loop, and d) a dosing device for introducing particles to be coated onto the receiving surface into the air circulation loop, a particle deflector is positioned in the path of the air stream delivered through a nozzle, the deflector serving to break up agglomerated particles carried by the air stream prior to coating the receiving surface with the particles, and brushes are provided in the application chamber for brushing the receiving surface to leave only a single layer of particles adhering to the receiving surface, each of the brushes and the receiving surface being in relative movement one with the other.
At least one reduced caloric intake cycle and at least one anticancer agent for use in the treatment of cancer wherein said at least one reduced caloric intake cycle provides at most 2100 Kcal per day and consists of a first and a second part, wherein the first part has a regular caloric intake reduced by 30% to 70% and the second part has a regular caloric intake reduced by 40 to 97%; and wherein said at least one anticancer agent is the AKT inhibitor Ipatasertib.
A method for use with a see-through display system having an electronically controlled diverging optic and an electronically controlled adaptive converging optic to present a display image and an external image to a viewer, wherein the external image is an image of a scene opposite the viewer and includes a background subject, the method comprising: forming the display image by an image former, wherein the image former is disposed between the adaptive converging optic and the adaptive diverging optic; guiding the display image and the external image along an axis that passes through the adaptive diverging optic and leads to a pupil of the viewer; determining a distance to the background subject; receiving data responsive to the distance to the background subject; calculating a target focal plane for the display image based on the data responsive to the distance to the background subject; adjustably converging the external image at the adaptive converging optic; and adjustably diverging the display image and the external image at the adaptive diverging optic to bring the display image into focus at the target focal plane. forming the display image by an image former, wherein the image former is disposed between the adaptive converging optic and the adaptive diverging optic; guiding the display image and the external image along an axis that passes through the adaptive diverging optic and leads to a pupil of the viewer; determining a distance to the background subject; receiving data responsive to the distance to the background subject; calculating a target focal plane for the display image based on the data responsive to the distance to the background subject; adjustably converging the external image at the adaptive converging optic; and adjustably diverging the display image and the external image at the adaptive diverging optic to bring the display image into focus at the target focal plane.
A centrifugal debris separator for removing debris from a gas turbine engine fuel system, the centrifugal debris separator comprising: a debris separator inlet; a debris separator outlet; and a separating chamber with a centreline extending in an axial direction and defined by an outer wall formed around the centreline, the separating chamber comprising: a separating chamber inlet for receiving fluid; and a first separator outlet to the separating chamber; wherein the debris separator inlet is fluidly connected to the separating chamber inlet; the debris separator outlet is fluidly connected to the first separator outlet; the separating chamber further comprises a second separator outlet to the separating chamber provided to the outer wall of the separating chamber; and a third separator outlet to the separating chamber is defined by a third separator outlet wall formed around the centreline of the separating chamber; the centrifugal debris separator being characterised in that the second separator outlet is defined by a second separator outlet wall that forms a spiral shape, in an axial plane, around the outer wall of the separating chamber. a debris separator inlet; a debris separator outlet; and a separating chamber with a centreline extending in an axial direction and defined by an outer wall formed around the centreline, the separating chamber comprising: a separating chamber inlet for receiving fluid; and a first separator outlet to the separating chamber; a separating chamber inlet for receiving fluid; and a first separator outlet to the separating chamber; wherein the debris separator inlet is fluidly connected to the separating chamber inlet; the debris separator outlet is fluidly connected to the first separator outlet; the separating chamber further comprises a second separator outlet to the separating chamber provided to the outer wall of the separating chamber; and a third separator outlet to the separating chamber is defined by a third separator outlet wall formed around the centreline of the separating chamber; the centrifugal debris separator being characterised in that the second separator outlet is defined by a second separator outlet wall that forms a spiral shape, in an axial plane, around the outer wall of the separating chamber.
Transparent layer laminate comprising a conductive transparent oxide layer, a semiconductor layer and a substrate layer, wherein the substrate layer comprises an opto-technical hybrid glass having a refractive index nd of > 1.6, wherein the opto-technical hybrid glass has a modulus of elasticity of at most 120*10 3 N/mm 2 and wherein the opto-technical hybrid glass comprises lead in amounts of less than 100 ppm.
A fibre optic cable (20; 40) for a distributed acoustic sensing system, comprising: at least one optical fibre arrangement; and at least one outer layer; the cable (20; 40) further comprising an acoustic insulating layer between the at least one optical fibre arrangement and the outer layer, wherein the acoustic insulating layer further comprises a filler (102; 203; 104), the filler (102; 203; 104) comprising an inner wall and a plurality of built up regions (202; 204a-b, 204a-c; 104) protruding radially outwardly from the inner wall and bridging the at least one optical fibre arrangement and the at least one outer layer; the fibre optic cable being characterized in that the plurality of built up regions (202; 204a-b, 204a-c; 104) are interspersed along the length of the cable (20; 40) so as to provide discrete acoustic coupling regions for transmitting acoustic energy from the outer layer to the at least one optical fibre arrangement, and in that the acoustic insulating layer between the plurality of built up regions (202; 204a-b, 204a-c; 104) has lower acoustic coupling than the plurality of built up regions (202; 204a-b, 204a-c; 104). at least one optical fibre arrangement; and at least one outer layer; the cable (20; 40) further comprising an acoustic insulating layer between the at least one optical fibre arrangement and the outer layer, wherein the acoustic insulating layer further comprises a filler (102; 203; 104), the filler (102; 203; 104) comprising an inner wall and a plurality of built up regions (202; 204a-b, 204a-c; 104) protruding radially outwardly from the inner wall and bridging the at least one optical fibre arrangement and the at least one outer layer; the fibre optic cable being characterized in that the plurality of built up regions (202; 204a-b, 204a-c; 104) are interspersed along the length of the cable (20; 40) so as to provide discrete acoustic coupling regions for transmitting acoustic energy from the outer layer to the at least one optical fibre arrangement, and in that the acoustic insulating layer between the plurality of built up regions (202; 204a-b, 204a-c; 104) has lower acoustic coupling than the plurality of built up regions (202; 204a-b, 204a-c; 104).
A staple cartridge, comprising: a plurality of staples; and a cartridge body, comprising: a tissue-contacting deck; a plurality of staple cavities, wherein each said staple cavity comprises an opening in said deck, and wherein a said staple is positioned in each said staple cavity; and a plurality of ridges (113, 114, 115) extending from said tissue-contacting deck; characterised in that some or all of said openings have perimeters being partially surrounded by a said ridge, wherein the said ridge partially defines the perimeter of the said opening. a plurality of staples; and a cartridge body, comprising: a tissue-contacting deck; a plurality of staple cavities, wherein each said staple cavity comprises an opening in said deck, and wherein a said staple is positioned in each said staple cavity; and a plurality of ridges (113, 114, 115) extending from said tissue-contacting deck; characterised in that some or all of said openings have perimeters being partially surrounded by a said ridge, wherein the said ridge partially defines the perimeter of the said opening. a tissue-contacting deck; a plurality of staple cavities, wherein each said staple cavity comprises an opening in said deck, and wherein a said staple is positioned in each said staple cavity; and a plurality of ridges (113, 114, 115) extending from said tissue-contacting deck; characterised in that some or all of said openings have perimeters being partially surrounded by a said ridge, wherein the said ridge partially defines the perimeter of the said opening.
A method of making a hose fitting, comprising: - providing a stem (102, 202) comprising a fluid conduit there through, a first end, a second end with a raised shoulder, and a crimp region disposed between the first end and the second end; - providing and placing a swivel tube nut over the stem (102, 202), wherein the swivel tube nut is retained on the stem (102, 202)-the by the raised shoulder; - placing a ferrule over the first end of the stem (102, 201), wherein the ferrule comprises a partially or fully formed octagonal wrench surface and wherein the ferrule has an opening, which is used to accept a hose end; and, - pre-crimping the ferrule at the octagonal wrench surface onto the crimp region of the stem (102, 202), wherein the octagonal wrench surface is forged into the ferrule before the ferrule at the octagonal wrench surface is pre-crimped onto the crimp region of the stem (102, 202). - providing a stem (102, 202) comprising a fluid conduit there through, a first end, a second end with a raised shoulder, and a crimp region disposed between the first end and the second end; - providing and placing a swivel tube nut over the stem (102, 202), wherein the swivel tube nut is retained on the stem (102, 202)-the by the raised shoulder; - placing a ferrule over the first end of the stem (102, 201), wherein the ferrule comprises a partially or fully formed octagonal wrench surface and wherein the ferrule has an opening, which is used to accept a hose end; and, - pre-crimping the ferrule at the octagonal wrench surface onto the crimp region of the stem (102, 202), wherein the octagonal wrench surface is forged into the ferrule before the ferrule at the octagonal wrench surface is pre-crimped onto the crimp region of the stem (102, 202).
A buoyant composite material comprising: a substrate having a buoyancy, wherein the substrate is a thermoplastic selected from polypropylene, polyethylene, polystyrene and nylon and blends thereof, the thermoplastic having a specific gravity less than 1; an adsorbent selected from activated carbon and zeolite for adsorbing organic compounds; a photocatalyst for degradation of organic compounds, wherein the photocatalyst is selected from titanium dioxide (TiO 2), zinc oxide (ZnO), cadmium sulfide (CdS), tungsten trioxide (WO 3), silicon carbide (SiC), or any combination thereof; and one or more enhancers for facilitating mass transfer between the adsorbent and the photocatalyst, increasing the selectivity of the composite material, increasing the chemical stability of the composite material, and/or improving the photocatalytic efficiency, wherein the one or more enhancers are selected from carbon nanotubes, a precious metal salt, and SiO 2,, wherein the adsorbent, photocatalyst and enhancer are immobilized on the substrate through a melting-binding method under controlled temperatures. a substrate having a buoyancy, wherein the substrate is a thermoplastic selected from polypropylene, polyethylene, polystyrene and nylon and blends thereof, the thermoplastic having a specific gravity less than 1; an adsorbent selected from activated carbon and zeolite for adsorbing organic compounds; a photocatalyst for degradation of organic compounds, wherein the photocatalyst is selected from titanium dioxide (TiO 2), zinc oxide (ZnO), cadmium sulfide (CdS), tungsten trioxide (WO 3), silicon carbide (SiC), or any combination thereof; and one or more enhancers for facilitating mass transfer between the adsorbent and the photocatalyst, increasing the selectivity of the composite material, increasing the chemical stability of the composite material, and/or improving the photocatalytic efficiency, wherein the one or more enhancers are selected from carbon nanotubes, a precious metal salt, and SiO 2,, wherein the adsorbent, photocatalyst and enhancer are immobilized on the substrate through a melting-binding method under controlled temperatures.
Interleukin-7 (IL-7), for use in treating hepatitis C in a patient infected with hepatitis C virus, wherein the patient has been treated with an antiviral agent or a combination of antiviral agents, so as to reduce viral load, before administration with IL-7, wherein the antiviral agent or combination of antiviral agents reduces the viral load to less than 5 Log 10 IU/mL.
A T cell having tumor specificity comprising a vector, the vector comprising a sequence encoding a shRNA, wherein the shRNA comprises 15 contiguous nucleotides complementary to a nucleic acid sequence of SEQ ID NO: 604.