mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic tire comprising: a carcass comprising a carcass ply extending between bead cores of bead portions through a tread portion and a pair of sidewall portions; each of the bead cores comprising an inner core disposed axially inward of the carcass ply and an outer core disposed axially outward of the carcass ply, wherein the carcass ply is interposed between the inner core and the outer core; each of the outer core and the inner core comprising a bead cord wound at least one time in a circumferential direction of the tire; and the bead cord comprising an outermost layer having a plurality of filaments twisted together, in at least one of the bead portions, each of the outermost layers of the bead cords of the respective inner and outer cores having a twisting direction which is such that when the carcass ply is moved radially outwardly from between the inner core and the outer core, untwisting occurs on each outermost layer of the bead cords of the respective inner core and the outer core so that the carcass ply moves easily radially outwardly, wherein in at least one of the bead portions, a winding direction of the bead cord of the inner core in the circumferential direction of the tire is opposite to a winding direction of the bead cord of the outer core in the circumferential direction of the tire, and the twisting direction of the outermost layer of the bead cord of the inner core is the same as the twisting direction of the outermost layer of the bead cord of the outer core. a carcass comprising a carcass ply extending between bead cores of bead portions through a tread portion and a pair of sidewall portions; each of the bead cores comprising an inner core disposed axially inward of the carcass ply and an outer core disposed axially outward of the carcass ply, wherein the carcass ply is interposed between the inner core and the outer core; each of the outer core and the inner core comprising a bead cord wound at least one time in a circumferential direction of the tire; and the bead cord comprising an outermost layer having a plurality of filaments twisted together, in at least one of the bead portions, each of the outermost layers of the bead cords of the respective inner and outer cores having a twisting direction which is such that when the carcass ply is moved radially outwardly from between the inner core and the outer core, untwisting occurs on each outermost layer of the bead cords of the respective inner core and the outer core so that the carcass ply moves easily radially outwardly, wherein in at least one of the bead portions, a winding direction of the bead cord of the inner core in the circumferential direction of the tire is opposite to a winding direction of the bead cord of the outer core in the circumferential direction of the tire, and the twisting direction of the outermost layer of the bead cord of the inner core is the same as the twisting direction of the outermost layer of the bead cord of the outer core.
A gas diffusion layer (7, 8) of a PEMFC, comprising at least one hydrophilic electronically-conductive thread positioned substantially perpendicularly to the surface of the gas diffusion layer.
A system for fire suppression, the system comprising: a fuel tank inerting system comprising a catalytic fuel oxidation system configured to react on board jet fuel to produce water and an inert gas mixture of nitrogen and carbon dioxide; a water source; and a low pressure misting nozzle directed into a cargo hold; wherein the low pressure misting nozzle is configured to produce a mist solution using the inert gas mixture and water. a fuel tank inerting system comprising a catalytic fuel oxidation system configured to react on board jet fuel to produce water and an inert gas mixture of nitrogen and carbon dioxide; a water source; and a low pressure misting nozzle directed into a cargo hold; wherein the low pressure misting nozzle is configured to produce a mist solution using the inert gas mixture and water.
A method, comprising: obtaining (6102, 6104, 6106, 7102, 7104, 7106, 7108, 7110, 8002a, 8002b, 8002c), by a session management function, SMF, a trigger to release a packet data unit, PDU, session; sending (6108, 7112a, 8004a), by the SMF to a user plane function, UPF, a session release request including an identifier of the PDU session to be released and requesting the UPF to drop any remaining packets of the PDU session and release a context associated with the PDU session; and receiving (6110, 7112b, 8004b), by the SMF from the UPF, a response indicating an acknowledgement of the session release request. obtaining (6102, 6104, 6106, 7102, 7104, 7106, 7108, 7110, 8002a, 8002b, 8002c), by a session management function, SMF, a trigger to release a packet data unit, PDU, session; sending (6108, 7112a, 8004a), by the SMF to a user plane function, UPF, a session release request including an identifier of the PDU session to be released and requesting the UPF to drop any remaining packets of the PDU session and release a context associated with the PDU session; and receiving (6110, 7112b, 8004b), by the SMF from the UPF, a response indicating an acknowledgement of the session release request.
An iron-based alloy comprising, in weight percent: carbon from 1 to 2 percent; manganese from 0.1 to 1 percent; silicon from 0.1 to 2.5 percent; chromium from 11.5 to 19 percent; nickel up to 8 percent; vanadium from 0.8 to 5 percent; molybdenum from 11 to 19 percent; tungsten up to 0.5 percent; niobium from 1 to 4 percent; cobalt up to 5.5 percent; boron up to 0.5 percent; nitrogen up to 0.5 percent; copper up to 1.5 percent; sulfur up to 0.3 percent; phosphorus up to 0.3 percent; up to 5 percent total of tantalum, titanium, hafnium and zirconium; balance iron from 50 to 70 percent; and incidental impurities which may include up to 1.5 weight percent other elements, such as aluminum, arsenic, bismuth, calcium, magnesium, lead, tin, yttrium and lanthanides, zinc, and selenium. carbon from 1 to 2 percent; manganese from 0.1 to 1 percent; silicon from 0.1 to 2.5 percent; chromium from 11.5 to 19 percent; nickel up to 8 percent; vanadium from 0.8 to 5 percent; molybdenum from 11 to 19 percent; tungsten up to 0.5 percent; niobium from 1 to 4 percent; cobalt up to 5.5 percent; boron up to 0.5 percent; nitrogen up to 0.5 percent; copper up to 1.5 percent; sulfur up to 0.3 percent; phosphorus up to 0.3 percent; up to 5 percent total of tantalum, titanium, hafnium and zirconium; balance iron from 50 to 70 percent; and incidental impurities which may include up to 1.5 weight percent other elements, such as aluminum, arsenic, bismuth, calcium, magnesium, lead, tin, yttrium and lanthanides, zinc, and selenium.
A seat provided with an armrest which is pivotally displaced around one end side between a stored position where it is retracted in a posture along a seat back and a deployed position where it is deployed to a position where a free end side projects forwardly from the seat back, wherein: on the one end side of the armrest, a first shaft serving a pivot center is disposed so as to pass through in a width direction of the seat, and a second shaft passes through the one end side substantially parallel to the first shaft; the first shaft is pivotably supported by a first hole (71, 81) formed in a guide member fixed to a seat back frame which is a framework of the seat back, and the second shaft is inserted into a long hole-shaped second hole (72, 82) formed along a partial circular arc locus around the first hole so as to be movable along the second hole (72, 82); and between a side surface side of the armrest and the guide member, a plate member which covers at least a part of the second hole (72, 82) is provided, the seat is characterized in that the first shaft and the second shaft pass through the plate member and are fixed, wherein a third hole and a fourth hole are formed in the plate member, one of the first shaft and the second shaft is press-fitted and fixed to the third hole, and the other of the first shaft and the second shaft passes through the fourth hole perforated so as to have a larger diameter than a shaft outer diameter of the other. on the one end side of the armrest, a first shaft serving a pivot center is disposed so as to pass through in a width direction of the seat, and a second shaft passes through the one end side substantially parallel to the first shaft; the first shaft is pivotably supported by a first hole (71, 81) formed in a guide member fixed to a seat back frame which is a framework of the seat back, and the second shaft is inserted into a long hole-shaped second hole (72, 82) formed along a partial circular arc locus around the first hole so as to be movable along the second hole (72, 82); and between a side surface side of the armrest and the guide member, a plate member which covers at least a part of the second hole (72, 82) is provided,
An indoor built-in type heat source unit comprising: a housing, a separation plate partitioning the housing into an inlet space and an outlet space, an air inlet formed in a surface of the housing for sucking air into the inlet space, an air outlet formed in a surface of the housing for blowing off air from the outlet space, at least one fan provided in the inlet space on a separation plate side for blowing off air from the inlet space into the outlet space, a fan motor coupled to the fan, a horizontal type compressor provided in the inlet space, and a heat-exchanger provided in the inlet space, characterized in that two of said fans are provided, said fans being of a centrifugal type and arranged on a rotary shaft of the fan motor with substantially the same direction as the sucking direction of air in a sucking space whereby said fan motor having opposite shaft ends is arranged between said fans, or said fan motor has one shaft end while said two fans are arranged adjacent to each other, the rotary shaft of said fan motor and the rotary shaft of said horizontal type compressor are arranged in directions which are juxtaposed, and said heat-exchanger is arranged between the centrifugal fans and the horizontal type compressor. a housing, a separation plate partitioning the housing into an inlet space and an outlet space, an air inlet formed in a surface of the housing for sucking air into the inlet space, an air outlet formed in a surface of the housing for blowing off air from the outlet space, at least one fan provided in the inlet space on a separation plate side for blowing off air from the inlet space into the outlet space, a fan motor coupled to the fan, a horizontal type compressor provided in the inlet space, and a heat-exchanger provided in the inlet space, characterized in that two of said fans are provided, said fans being of a centrifugal type and arranged on a rotary shaft of the fan motor with substantially the same direction as the sucking direction of air in a sucking space whereby said fan motor having opposite shaft ends is arranged between said fans, or said fan motor has one shaft end while said two fans are arranged adjacent to each other, the rotary shaft of said fan motor and the rotary shaft of said horizontal type compressor are arranged in directions which are juxtaposed, and said heat-exchanger is arranged between the centrifugal fans and the horizontal type compressor.
A communication security processing method, comprising: receiving, by a terminal, a handover command from a radio access network, RAN, node, wherein the handover command indicates an handover of the terminal from a source cell to a target cell, wherein the source cell is served by the RAN node, and when the source cell and the target cell of the handover are located at a same RAN node being said RAN node, the handover command does not include a next hop chaining count, NCC; continuing to use, by the terminal in the target cell, when the handover command does not include the NCC, an access stratum, AS, root key or an AS security key that is used in the source cell. receiving, by a terminal, a handover command from a radio access network, RAN, node, wherein the handover command indicates an handover of the terminal from a source cell to a target cell, wherein the source cell is served by the RAN node, and when the source cell and the target cell of the handover are located at a same RAN node being said RAN node, the handover command does not include a next hop chaining count, NCC; continuing to use, by the terminal in the target cell, when the handover command does not include the NCC, an access stratum, AS, root key or an AS security key that is used in the source cell.
A rotary assembly for a turbomachine, comprising: - a disc having an external periphery having an alternation of slots and teeth, - blades extending radially from the disc, and roots of which are engaged axially and held radially in the slots of the disc, the blades having an upstream side and a downstream side, - platforms extending circumferentially from the blades and which are arranged circumferentially end to end, opposite each other, - axial sealing means for at least one of an upstream and downstream sealing of an annular zone extending radially between the platforms and the disc, characterised in that said sealing means comprise radially an internal annular part and an external annular part structurally separate from each other, the external part of the sealing means comprising a frustoconical wall extending inwards from its external end, and the internal part of the sealing means comprising at its external end an annular rim having a step and which is in axial abutment against the internal end of the frustoconical wall, which can slide radially along the stepped rim of the internal part, an annular seal being interposed axially between the axial ends of the blades and the frustoconical wall of the external part, the internal end of the frustoconical wall being arranged in contact with the upstream face of the external stepped rim of the internal wall, so that the annular seal can push the frustoconical wall downstream, which makes it possible to axially force the internal end of the frustoconical wall against the stepped rim of the internal part. - a disc having an external periphery having an alternation of slots and teeth, - blades extending radially from the disc, and roots of which are engaged axially and held radially in the slots of the disc, the blades having an upstream side and a downstream side, - platforms extending circumferentially from the blades and which are arranged circumferentially end to end, opposite each other, - axial sealing means for at least one of an upstream and downstream sealing of an annular zone extending radially between the platforms and the disc,
A method of refilling a used developing device with developing agent for developing electrostatic latent images, the developing device including a holding chamber for holding developing agent, a port for accessing the holding chamber from outside the used developing device, and a developing agent bearing member that bears developing agent from the holding chamber to an image developing position for developing electrostatic latent images, the method comprising the steps of: opening the port to access the holding chamber; determining a type of previously-used developing agent that remains in the holding chamber from a preceding developing operation usage; designating a type of developing agent that has a lower fluidity characteristic than the previously-used developing agent, the fluidity characteristic representing fluidity of the developing agent; refilling the holding chamber with the type of developing agent that has the lower fluidity characteristic; and closing the port. opening the port to access the holding chamber; determining a type of previously-used developing agent that remains in the holding chamber from a preceding developing operation usage; designating a type of developing agent that has a lower fluidity characteristic than the previously-used developing agent, the fluidity characteristic representing fluidity of the developing agent; refilling the holding chamber with the type of developing agent that has the lower fluidity characteristic; and closing the port.
An offset nose assembly for a fastener installation tool, comprising: - an anvil; - a collet disposed within the anvil, the collet including jaws; - a drawbar supported by the anvil and the collet, the drawbar having a first end, a second end opposite the first end, and a primary bearing located at the first end; - wherein the collet includes an aperture having internal threads and the drawbar includes external threads that engage threadedly the internal threads of the aperture of the collet, and wherein the primary bearing bears on the anvil, characterised in that: - a secondary bearing is positioned within the collet and is located intermediate the primary bearing of the drawbar and the jaws of the collet, the secondary bearing being attached to the collet and engaged with the anvil, and the secondary bearing being configured to bear on a work surface; - the secondary bearing is offset by a first distance from the fastener centerline (X-X), and is offset by a second distance from a pulling tool centerline (Y-Y) defined by a longitudinal axis of the drawbar, wherein the first distance is less than the second distance, - the offset nose assembly is adapted to be activated in a pull position, such that the primary bearing remains engaged with the anvil during a loaded stroke and limits anvil deflection relative to the fastener centerline (X-X) and supports an installation load, while the secondary bearing remains engaged with the collet during the loaded stroke and limits deflection of the collet relative to the fastener centerline (X-X), said dual bearing approach enabling to reduce stresses in the nose assembly. - an anvil; - a collet disposed within the anvil, the collet including jaws; - a drawbar supported by the anvil and the collet, the drawbar having a first end, a second end opposite the first end, and a primary bearing located at the first end; - wherein the collet includes an aperture having internal threads and the drawbar includes external threads that engage threadedly the internal threads of the aperture of the collet, and wherein the primary bearing bears on the anvil, - a secondary bearing is positioned within the collet and is located intermediate the primary bearing of the drawbar and the jaws of the collet, the secondary bearing being attached to the collet and engaged with the anvil, and the secondary bearing being configured to bear on a work surface; - the secondary bearing is offset by a first distance from the fastener centerline (X-X), and is offset by a second distance from a pulling tool centerline (Y-Y) defined by a longitudinal axis of the drawbar, wherein the first distance is less than the second distance, - the offset nose assembly is adapted to be activated in a pull position, such that the primary bearing remains engaged with the anvil during a loaded stroke and limits anvil deflection relative to the fastener centerline (X-X) and supports an installation load, while the secondary bearing remains engaged with the collet during the loaded stroke and limits deflection of the collet relative to the fastener centerline (X-X), said dual bearing approach enabling to reduce stresses in the nose assembly.
A container system comprising: a container with an opening that provides access to a storage volume; and a lid hingedly connected to the container, the lid having a closed position in which the lid covers the opening and an open position in which the lid does not cover the opening, the lid having a first portion and a second portion, wherein the first portion is non-integrally connected to the second portion, and wherein moving the first portion from a first position to a second position allows the lid to be moved from the closed position to the open position; wherein the first portion comprises a push pad (410, 411); and wherein, the first portion is rotatable relative to the second portion, characterized in that the second portion includes projections (565a, 565b) that prevent rotation of the first portion until the push pad (410, 411) is pressed. a container with an opening that provides access to a storage volume; and a lid hingedly connected to the container, the lid having a closed position in which the lid covers the opening and an open position in which the lid does not cover the opening, the lid having a first portion and a second portion, wherein the first portion is non-integrally connected to the second portion, and wherein moving the first portion from a first position to a second position allows the lid to be moved from the closed position to the open position; wherein the first portion comprises a push pad (410, 411); and wherein, the first portion is rotatable relative to the second portion, characterized in that the second portion includes projections (565a, 565b) that prevent rotation of the first portion until the push pad (410, 411) is pressed. the lid having a closed position in which the lid covers the opening and an open position in which the lid does not cover the opening, the lid having a first portion and a second portion, wherein the first portion is non-integrally connected to the second portion, and wherein moving the first portion from a first position to a second position allows the lid to be moved from the closed position to the open position; wherein the first portion comprises a push pad (410, 411); and wherein, the first portion is rotatable relative to the second portion, characterized in that the second portion includes projections (565a, 565b) that prevent rotation of the first portion until the push pad (410, 411) is pressed.
An active cardiac electrical lead, comprising a tip housing (100, 100') having a lumen, a soft tip plug (110, 110') and a marker band (120, 120'), the tip housing (100, 100') comprising a body and an extension extending from a distal end of the body, the body having an outer diameter greater than an outer diameter of the extension, the soft tip plug (110, 110') fitting over the extension and engaging the extension, the marker band (120, 120') attached to an outer surface of the body or to an inner surface of the lumen, characterized in that: the extension defines projection(s) (103, 103') at a distal end thereof and an annular groove at a proximal end thereof, the soft tip plug (110, 110') defines a radial groove at a distal end thereof and an edge portion at a proximal end thereof, the projection(s) (103, 103') is disposed in the radial groove defined in the soft tip plug (110, 110'), and the edge portion extends inward into the annular groove defined in the extension.
A modular system for heat exchange between fluids, comprising two end plates wherein at least one end plate is configured with inlets (15, 16) and outlets (17, 18) for fluids, the modular system comprising a number of heat exchanger elements and a number of guiding elements, characterized in that each heat exchanger element comprises a folded sheet material comprising a plurality of slits extending in a longitudinal direction of the folded sheet material, which longitudinal extending slits form the fluids flow paths, the folded sheet material being cast in one piece in an outer casing, wherein a central throughgoing opening of the outer casing covers an outer circumference of the folded sheet material, exposing a front side and a back side of the folded sheet material and where two through holes forming the inlets and outlets for each fluid is provided on opposite sides of the central throughgoing opening of the outer casing, each guiding element comprises two inlets (15, 16) and two outlets (17, 18) for fluids, and a bead or edge, provided on one side, forming an enclosure around the inlet and outlet for a first fluid, and a bead or edge on an opposite side, forming an enclosure around the inlet and outlet for a second fluid, which heat exchanger elements and guiding elements are arranged successively following each other, and the heat exchanger elements being arranged such that two adjacent heat exchanger elements on sides facing each other carry the same fluid.