mhurhangee/ep-ind-claims huggingface dataset:
An atomization device, characterized by comprising: a body portion, comprising a shell and a heating assembly, wherein the heating assembly is detachably connected with the shell to heat a tobacco product to volatilize an ingredient of the tobacco product; a cover, arranged to slidably sleeve an outer side of an end of the shell connected with the heating assembly; and a protective holder, arranged to be slidably connected with the shell along a first direction and sleeve an outer side of the heating assembly. a body portion, comprising a shell and a heating assembly, wherein the heating assembly is detachably connected with the shell to heat a tobacco product to volatilize an ingredient of the tobacco product; a cover, arranged to slidably sleeve an outer side of an end of the shell connected with the heating assembly; and a protective holder, arranged to be slidably connected with the shell along a first direction and sleeve an outer side of the heating assembly.
An article comprising: a substrate, wherein the substrate is a tip of an airfoil; an abrasive coating disposed on the substrate; where the abrasive coating comprises a matrix having abrasive grit particles dispersed therein; and a layer of material disposed on the abrasive coating; characterised in that the layer of material is a titanium nitride (TiN), boron nitride, titanium-aluminum-nitrides [(TiAl)N], titanium-aluminum-silicon-nitrides [(TiAlSi)N], chromium nitrides (CrN), aluminum oxide (Al 2 O 3), titanium oxide (TiO 2), silicon carbo-nitride (SiCN), titanium carbo-nitride (TiCN), or a combination thereof, a substrate, wherein the substrate is a tip of an airfoil; an abrasive coating disposed on the substrate; where the abrasive coating comprises a matrix having abrasive grit particles dispersed therein; and a layer of material disposed on the abrasive coating; characterised in that the layer of material is a titanium nitride (TiN), boron nitride, titanium-aluminum-nitrides [(TiAl)N], titanium-aluminum-silicon-nitrides [(TiAlSi)N], chromium nitrides (CrN), aluminum oxide (Al 2 O 3), titanium oxide (TiO 2), silicon carbo-nitride (SiCN), titanium carbo-nitride (TiCN), or a combination thereof,
A method for landmark detection in a medical image comprising: for each of a plurality of image patches centered at a respective one of a plurality of voxels in the medical image, inputting a subset of voxels within the image patch to a trained deep neural network based on a predetermined sampling pattern; and detecting a location of a target landmark in the medical image using the trained deep neural network based on the subset of voxels input to the trained deep neural network from each of the plurality of image patches, wherein the predetermined sampling pattern is a log-polar sampling pattern that selects a higher density of voxels to be input to the trained deep neural network near the center of the image patch and a lower density of voxels to be input to the trained deep neural network farther away from the center of the image patch, wherein the deep neural network is trained directly on voxels sampled from training image patches based on the predetermined sampling pattern. for each of a plurality of image patches centered at a respective one of a plurality of voxels in the medical image, inputting a subset of voxels within the image patch to a trained deep neural network based on a predetermined sampling pattern; and detecting a location of a target landmark in the medical image using the trained deep neural network based on the subset of voxels input to the trained deep neural network from each of the plurality of image patches, wherein the predetermined sampling pattern is a log-polar sampling pattern that selects a higher density of voxels to be input to the trained deep neural network near the center of the image patch and a lower density of voxels to be input to the trained deep neural network farther away from the center of the image patch, wherein the deep neural network is trained directly on voxels sampled from training image patches based on the predetermined sampling pattern.
A method for performing access control by a user equipment, UE, comprising: obtaining access barring parameters, wherein the access barring parameters include different access attempt factors, per access category, for the UE to apply when performing access barring checks in different states, wherein the states comprise a connected mode, an idle mode and an inactive mode, wherein the access barring parameters provide: a first mapping of an access attempt to an access category for the UE to use in performing the access barring checks for the access attempt when transitioning to the connected mode from the idle mode or the inactive mode, wherein the first mapping is based on an application type; and a second mapping of the access attempt to an access category for the UE to use in performing the access barring checks for the access attempt when in the connected mode, wherein the second mapping, is based on at least one of a bearer ID, a quality of service, QoS flow ID, QFI, or a QoS Indicator; and performing the access barring checks for the access attempt, based on the first mapping or the second mapping depending on the access attempt factors for a current state of the UE. obtaining access barring parameters, wherein the access barring parameters include different access attempt factors, per access category, for the UE to apply when performing access barring checks in different states, wherein the states comprise a connected mode, an idle mode and an inactive mode, wherein the access barring parameters provide: a first mapping of an access attempt to an access category for the UE to use in performing the access barring checks for the access attempt when transitioning to the connected mode from the idle mode or the inactive mode, wherein the first mapping is based on an application type; and a second mapping of the access attempt to an access category for the UE to use in performing the access barring checks for the access attempt when in the connected mode, wherein the second mapping, is based on at least one of a bearer ID, a quality of service, QoS flow ID, QFI, or a QoS Indicator; and a first mapping of an access attempt to an access category for the UE to use in performing the access barring checks for the access attempt when transitioning to the connected mode from the idle mode or the inactive mode, wherein the first mapping is based on an application type; and a second mapping of the access attempt to an access category for the UE to use in performing the access barring checks for the access attempt when in the connected mode, wherein the second mapping, is based on at least one of a bearer ID, a quality of service, QoS flow ID, QFI, or a QoS Indicator; and performing the access barring checks for the access attempt, based on the first mapping or the second mapping depending on the access attempt factors for a current state of the UE.
A computer implemented method for executing a run-time-instrumentation controls emit, RIEMIT, instruction, the RIEMIT instruction executable in either a supervisor state or a lesser-privileged state, the RIEMIT instruction comprising an address of a register location that contains run-time-instrumentation information, the method comprising: configuring a processor (1, 106) to capture run-time-instrumentation information of a stream of instructions, the stream of instructions comprising the RIEMIT instruction; fetching the RIEMIT instruction; characterised by: executing, by the processor, the RIEMIT instruction, the executing comprising: determining if current run-time-instrumentation controls are configured to permit capturing of run-time-instrumentation information; responsive to current run-time-instrumentation controls being configured, copying run-time-instrumentation records to a collection buffer area and storing an RIEMIT instruction specified value as a record of a reporting group in the run-time-instrumentation program buffer, wherein the RIEMIT instruction specified value is obtained from the register location, wherein a reporting group comprises each unit of information stored and the contents of each record comprises events recognized by the processor during program execution. configuring a processor (1, 106) to capture run-time-instrumentation information of a stream of instructions, the stream of instructions comprising the RIEMIT instruction; fetching the RIEMIT instruction; characterised by: executing, by the processor, the RIEMIT instruction, the executing comprising: determining if current run-time-instrumentation controls are configured to permit capturing of run-time-instrumentation information; responsive to current run-time-instrumentation controls being configured, copying run-time-instrumentation records to a collection buffer area and storing an RIEMIT instruction specified value as a record of a reporting group in the run-time-instrumentation program buffer, wherein the RIEMIT instruction specified value is obtained from the register location, wherein a reporting group comprises each unit of information stored and the contents of each record comprises events recognized by the processor during program execution. executing, by the processor, the RIEMIT instruction, the executing comprising: determining if current run-time-instrumentation controls are configured to permit capturing of run-time-instrumentation information; responsive to current run-time-instrumentation controls being configured, copying run-time-instrumentation records to a collection buffer area and storing an RIEMIT instruction specified value as a record of a reporting group in the run-time-instrumentation program buffer, wherein the RIEMIT instruction specified value is obtained from the register location, wherein a reporting group comprises each unit of information stored and the contents of each record comprises events recognized by the processor during program execution.
A multi-band antenna, comprising at least one low-band sub-antenna; and at least one high-band sub-antenna (200; 200a, 200b, 200c, 200d) comprising at least one high-band dipole and a reflector; wherein the high-band dipole and/or the reflector are/is structured and positioned so that current induced in the high-band sub-antenna (200; 200a, 200b, 200c, 200d) by the low-band sub-antenna is directed to the reflector over an extended effective distance in proportion to wavelength of the low-band sub-antenna, wherein the high-band dipole is spaced from the reflector, and is coupled to the reflector via a metal line, characterised in that the multi-band antenna further comprises a PCB board on which the metal line is located; the PCB board being arranged to be substantially parallel to the reflector and to space the high-band dipole from the reflector.
An apparatus for wirelessly receiving power, the apparatus comprising a first means (1502, 1702) for wirelessly receiving power via a magnetic field generated by a means for generating the magnetic field (1501, 1701) the generating means having a length greater than a width, the first receiving means having a length greater than a width, the first receiving means comprising a first loop (1505a, 1705a) and a second loop (1505b, 1705b) enclosing a first area and a second area, respectively, the first loop having a first lower surface and the second loop having a second lower surface that are substantially coplanar, the first receiving means having a first edge and a second edge each intersecting a first geometric line running along the length of the first receiving means; and a second means (1506, 1706) configured to wirelessly receive power via the magnetic field, the second receiving means enclosing a third area and having a length greater than a width, the first geometric line running along the length of the second receiving means, the first geometric line being substantially perpendicular to a second geometric line running along the length of the generating means.
A sealed and thermally insulating tank intended for the storage of a fluid, said tank comprising a tank wall fixed to a carrying structure, the wall comprising successively, in the direction of the thickness, from the exterior to the interior of the tank, a secondary thermally insulating barrier retained against the carrying structure, a secondary sealing membrane carried by the secondary thermally insulating barrier, a primary thermally insulating barrier resting against the secondary sealing membrane, and a primary sealing membrane carried by the primary thermally insulating barrier and designed to be in contact with the fluid contained in the tank; the secondary thermally insulating barrier comprising juxtaposed secondary insulating panels (2, 2a, 2b, 2c, 2d, 2e), retained against the carrying structure and having a rectangular parallelepipedal form having a longitudinal direction, each secondary insulating panel (2, 2a, 2b, 2c, 2d, 2e) having an internal face, opposite the carrying wall, equipped with at least one anchoring member; the primary thermally insulating barrier comprising juxtaposed primary insulating panels (6, 6a, 6b, 6c), having a rectangular parallelepipedal form having a longitudinal direction, the sealed tank being equipped with a through-element (42, 68) passing through a specific zone of the wall; the primary thermally insulating barrier comprising, in the specific zone of the tank wall, a primary series of primary insulating panels (6a, 6b, 6c) having mutually parallel longitudinal directions; the secondary thermally insulating barrier comprising, in the specific zone of the wall, a secondary series of secondary insulating panels (2a, 2b, 2c, 2d, 2e) having mutually parallel longitudinal directions; the through-element (42, 68) extending in the direction of the thickness of the specific zone of the wall and passing successively through an opening made in one of the secondary insulating panels of the secondary series, through an opening made in the secondary sealing membrane, the tank being characterized in that each primary insulating panel (6, 6a, 6b, 6c) being arranged straddling at least four secondary insulating panels (2, 2a, 2b, 2c, 2d, 2e) and anchored to said anchoring member of each of the secondary insulating panels that said primary insulating panel straddles; in that the primary series and the secondary series being arranged one relative to the other such that the longitudinal directions of the primary insulating panels (6a, 6b, 6c) of the primary series are perpendicular to the longitudinal directions of the secondary insulating panels (2a, 2b, 2c, 2d, 2e) of the secondary series; and in that the through-element (42, 68) also extends through an opening made in one of the primary insulating panels of the first series, and through an opening made in the primary sealing membrane.
Snow tyre, the tread of which comprises a rubber composition, said rubber composition comprising at least: - 20 to 100 phr of a first diene elastomer bearing at least one SiOR function, R being hydrogen or a hydrocarbon radical; - optionally 0 to 80 phr of a second diene elastomer; - 100 to 160 phr of a reinforcing inorganic filler; - a plasticizing system comprising: - in a content A of between 10 and 60 phr, a hydrocarbon resin having a Tg above 20°C; - in a content B of between 10 and 60 phr, a liquid plasticizing agent; - it being understood that the total content A+B is greater than 50 phr. - 20 to 100 phr of a first diene elastomer bearing at least one SiOR function, R being hydrogen or a hydrocarbon radical; - optionally 0 to 80 phr of a second diene elastomer; - 100 to 160 phr of a reinforcing inorganic filler; - a plasticizing system comprising: - in a content A of between 10 and 60 phr, a hydrocarbon resin having a Tg above 20°C; - in a content B of between 10 and 60 phr, a liquid plasticizing agent; - it being understood that the total content A+B is greater than 50 phr. - in a content A of between 10 and 60 phr, a hydrocarbon resin having a Tg above 20°C; - in a content B of between 10 and 60 phr, a liquid plasticizing agent; - it being understood that the total content A+B is greater than 50 phr.
Method for distributing electrical energy in a network divided into subnetworks, in which network n generators, n greater than or equal to three, power the network when said generators are available, said method including the following steps: - combinations, from the possible combinations, each defining a different order for the use of the plurality of generators according to their availabilities, are established; - each subnetwork is characterised by one of said combinations; - several means of selection respectively associated with each subnetwork, assign the available generators to each subnetwork, under the control of a control and management means acting on the means of selection to select the generator; - each subnetwork is finally powered by the first available generator according to the order of the combination that characterises the subnetwork considered; in such a way that when a generator becomes unavailable, the subnetworks powered by said generator before the unavailability thereof are distributed in an equal manner among the generators that are still available. - combinations, from the possible combinations, each defining a different order for the use of the plurality of generators according to their availabilities, are established; - each subnetwork is characterised by one of said combinations; - several means of selection respectively associated with each subnetwork, assign the available generators to each subnetwork, under the control of a control and management means acting on the means of selection to select the generator; - each subnetwork is finally powered by the first available generator according to the order of the combination that characterises the subnetwork considered; in such a way that when a generator becomes unavailable, the subnetworks powered by said generator before the unavailability thereof are distributed in an equal manner among the generators that are still available.
A method of wireless communication executed by a user equipment, UE, comprising: receiving, from a base station, a request for structured minimization of driving test, MDT, data, the requested data corresponding to at least one type of MDT measurement specified by the base station from a larger plurality of available MDT measurement types that can be performed by the UE, wherein the request for the structured MDT data comprises an indication that the base station supports non-real time streaming MDT data; and sending the data including results corresponding to the specified at least one type of MDT measurement to the base station. receiving, from a base station, a request for structured minimization of driving test, MDT, data, the requested data corresponding to at least one type of MDT measurement specified by the base station from a larger plurality of available MDT measurement types that can be performed by the UE, wherein the request for the structured MDT data comprises an indication that the base station supports non-real time streaming MDT data; and sending the data including results corresponding to the specified at least one type of MDT measurement to the base station.
Guide wheel intended for laying a layer of carbon armor filaments around a tubular core to manufacture a flexible tubular pipe suitable for the transport of hydrocarbons, the said guide wheel having both a central recess and an inner circular edge bordering the said central recess and also a peripheral circular edge which extends coaxially at a distance from the said inner circular border, the said guide wheel comprising a plurality of guide assemblies capable of guiding a plurality of carbon armor filaments respectively in translation through the said peripheral circular edge, the guide assemblies being mounted around the said central recess to guide the carbon armor filaments when the said tubular core is driven in translation through the said central recess, while the said guide wheel is driven in rotation in such a way that the said carbon armor filaments can be simultaneously helically wound around the said tubular core, each of the said guide assemblies comprising a peripheral return member mounted in the said peripheral circular edge to guide the carbon armor filaments towards the said inner circular edge along a first curved passageway and also a central return member mounted in the said inner circular edge to guide the said carbon armor filaments along a second curved passageway opposite to the said wheel; characterized in that the said peripheral return member and the said central return member are connected together by means of a straight guide member.
Device for odor reduction of tanned leather, comprising a treatment space, which is set up for drying tanned leather and/or for treating dry leather, and at least one odor-reduction reservoir, wherein the at least one odor-reduction reservoir has at least one odor-neutralizing substance, wherein a gas-exchange compound is set up between the treatment space and the odor-reduction reservoir, characterized in that the at least one odor-reduction reservoir is arranged in a chamber separated from the treatment space, which is connected via at least one gas exchange line to the treatment space, in such a way that a closed or closable system of treatment space, gas exchange line and chamber is configured, in which a circulating gas stream can be produced, wherein in operation, i.e. with movement of the treatment space, the chamber does not also move, but remains stationary.
A method of manufacturing a container consisting of a stiff outer container and a deformable inner bag wherein a first screw conveyor supplies a first thermoplastic plastic material for the outer container and at least one second and one third screw conveyor supply at least one second and third thermoplastic plastic materials for the inner bag to an extruder, which coextrudes a preform consisting of at least the first, second and third layers, which is arranged between the open halves of a blow mould, wherein the blow mould is closed when the preform has the length necessary for the manufacture of the container, wherein excess material is squeezed out in the base region of the container to be manufactured and a web is formed from material of the outer container, in which the welded base seam of the inner bag is clamped, and wherein the preform is inflated by a pressure medium into engagement with the wall of the blow mould, the excess material below the weld seam is severed and the container is removed from the blow mould, characterised in that the second thermoplastic plastic material, which forms the outer layer of the inner bag, which engages the outer container, consists of a mixture of EVOH and a plastic material with elastic properties, which has the property that, in the hardened state, it has a rough surface with microscopically small protuberances and recesses so that the adhesive forces between the outer container and the inner bag are minimised.