mhurhangee/ep-ind-claims huggingface dataset:
A melt spinning device comprising: a spinning unit which includes spinnerets, and is configured to spin out filaments (f) from the spinnerets; cooling cylinders which are respectively disposed below the spinnerets; a cooling unit which is configured to cool the filaments (f) spun out from the spinnerets; and an exhaust unit which is disposed between the spinning unit and cooling unit in a traveling direction of the filaments (f), and is configured to suck and discharge gas which is generated from the spun out filaments (f), the exhaust unit including: a suction device which is configured to suck the gas; exhaust rings which are respectively arranged between the spinnerets and the cooling cylinders, and which are provided so as to surround the filaments (f) that are spun out from the spinnerets; and an enclosure member which is connected to the suction device, and disposed so as to surround the exhaust rings, and in the member, an internal space, where the gas which was spun out from inside of the exhaust rings flow, is formed, exhaust holes to suck and discharge the gas being formed in a peripheral wall of each exhaust ring, the area of each of the exhaust holes of each of the exhaust rings being 30 mm 2 or less, the percentage of the sum of the area of the exhaust holes relative to the internal area of each of the exhaust rings being 2.5 % or less. a suction device which is configured to suck the gas; exhaust rings which are respectively arranged between the spinnerets and the cooling cylinders, and which are provided so as to surround the filaments (f) that are spun out from the spinnerets; and an enclosure member which is connected to the suction device, and disposed so as to surround the exhaust rings, and in the member, an internal space, where the gas which was spun out from inside of the exhaust rings flow, is formed, exhaust holes to suck and discharge the gas being formed in a peripheral wall of each exhaust ring, the area of each of the exhaust holes of each of the exhaust rings being 30 mm 2 or less, the percentage of the sum of the area of the exhaust holes relative to the internal area of each of the exhaust rings being 2.5 % or less.
An apparatus comprising: means for storing energy; means for supplying some of the energy to an apparatus; means for discharging the energy in response to the some of the energy being supplied to the apparatus; means for retaining a non-zero residual energy; means for recharging the means for storing energy; and means for selecting an amount of the non-zero residual energy from at least two values, characterised in that: the means for discharging is adapted to vary the amount of the non-zero residual energy by selectively activating or deactivating elements in the means for discharging. means for storing energy; means for supplying some of the energy to an apparatus; means for discharging the energy in response to the some of the energy being supplied to the apparatus; means for retaining a non-zero residual energy; means for recharging the means for storing energy; and means for selecting an amount of the non-zero residual energy from at least two values, characterised in that: the means for discharging is adapted to vary the amount of the non-zero residual energy by selectively activating or deactivating elements in the means for discharging.
Lock device comprising a lock housing (10, 210), in which there is arranged: - a lock bolt (30, 230), which is movable between an unlocked position and a locked position, - a first follower (50, 250), - a driver (60, 260), which is coupled to the first follower (50, 250) and is arranged to, by means of the first follower (50, 250), manoeuvre the lock bolt (30, 230) between its unlocked and locked position, as well as, in the locked position of the lock bolt (30, 230), to latch the lock bolt (30, 230) by contact against the lock bolt (30, 230), - a second follower (70, 270), which is arranged to, by rotation, influence the functioning of the lock device, and - a blocking mechanism (100, 300), which is switchable between a blocking state, in which rotation of the second follower (70, 270) is barred, and a non-blocking state, in which rotation of the second follower (70, 270) is allowed, characterized in that the blocking mechanism (100, 300) is arranged to, when the lock bolt (30, 230) is in its locked, dead locked position and the blocking mechanism (100, 300) has assumed its blocking state, by mechanical interaction with the driver (60, 260), bar the blocking mechanism (100, 300) from being switched from its blocking state to its non-blocking state. - a lock bolt (30, 230), which is movable between an unlocked position and a locked position, - a first follower (50, 250), - a driver (60, 260), which is coupled to the first follower (50, 250) and is arranged to, by means of the first follower (50, 250), manoeuvre the lock bolt (30, 230) between its unlocked and locked position, as well as, in the locked position of the lock bolt (30, 230), to latch the lock bolt (30, 230) by contact against the lock bolt (30, 230), - a second follower (70, 270), which is arranged to, by rotation, influence the functioning of the lock device, and - a blocking mechanism (100, 300), which is switchable between a blocking state, in which rotation of the second follower (70, 270) is barred, and a non-blocking state, in which rotation of the second follower (70, 270) is allowed,
A cell package for electrodialysis, comprising a membrane stack consisting of a number n of membranes (400a, 400b) and n+1 flat membrane spacers (200, 300) which each have a frame (203, 303) that delimits an interior (204, 304) through which fluid can flow orthogonally to the stacking direction, the n+1 membrane spacers (200, 300) and the n membranes (400a, 400b) being arranged alternately in the stacking direction, all of the membranes (400a, 400b) being cation exchangers or all of the membranes (400a, 400b) being anion exchangers, characterized in that at least some of the membrane spacers (200, 300) that are not outer spacers of the stack are selected from membrane spacers for laminar flow that are designed such that they have, in the interior thereof through which fluid can flow, a plurality of mutually spaced linear contact regions with each of the respective immediately adjacent membranes, the linear contact regions formed with at least one of the immediately adjacent membranes extending in the same direction as one another and not crossing, and the average distance between said linear contact regions being no less than the spacing of the membranes that are mutually separated by said membrane spacers in the direction of the surface normals thereof.
A method of manufacturing a compressor, the compressor comprising: a rotating member configured to rotate about an axis (A-A'); a static member radially adjacent the rotating member with a clearance between the static member and the rotating member; a first groove disposed circumferentially about the static member and radially adjacent the rotating member; a second groove disposed circumferentially about the static member and at a first axial distance aft of the first groove; and a third groove disposed circumferentially about the static member and at a second axial distance aft of the second groove, wherein the first axial distance is different from the second axial distance; characterised in that the first groove is selectively located through a first location, wherein the first location corresponds to the location at which air flow has the greatest negative axial component in the compressor when operating at a near-stall condition; the second groove is selectively located aft of the first groove through a second location, wherein the second location corresponds to the location at which air flow has the negative axial component of greatest velocity in the compressor when operating at the near-stall condition after the first groove is selectively positioned; and the third groove is selectively located aft of the second groove through a third location, wherein the third location corresponds to the location at which air flow has the greatest negative axial velocity in the compressor when operating at a normal operating condition. a rotating member configured to rotate about an axis (A-A'); a static member radially adjacent the rotating member with a clearance between the static member and the rotating member; a first groove disposed circumferentially about the static member and radially adjacent the rotating member; a second groove disposed circumferentially about the static member and at a first axial distance aft of the first groove; and a third groove disposed circumferentially about the static member and at a second axial distance aft of the second groove, wherein the first axial distance is different from the second axial distance; characterised in that the first groove is selectively located through a first location, wherein the first location corresponds to the location at which air flow has the greatest negative axial component in the compressor when operating at a near-stall condition; the second groove is selectively located aft of the first groove through a second location, wherein the second location corresponds to the location at which air flow has the negative axial component of greatest velocity in the compressor when operating at the near-stall condition after the first groove is selectively positioned; and the third groove is selectively located aft of the second groove through a third location, wherein the third location corresponds to the location at which air flow has the greatest negative axial velocity in the compressor when operating at a normal operating condition.
An air compression device (X1; X2) comprising: a compressor unit; a housing housing the compressor unit, and having an inflow port for allowing air to flow into inside of the housing; and a fan device unit having a tubularly formed side surface, an impeller arranged inside the side surface, an inlet port being formed with an opening at one end on the side surface, and an outlet port being formed with an opening at the other end on the side surface, wherein the inlet port sucks air flowing into the housing through the inflow port and sends out the air sucked through the inlet port toward the compressor unit through the outlet port which faces the compressor unit, an inflow guide portion (122, 26) arranged between the inflow port and the inlet port, and extending into an air flow from the inflow port to the inlet port so as to change the direction of the air flow, characterized in that the inflow guide portion (122; 26) is arranged to face the side surface of the fan device unit so as to cause air to be sucked into the inlet port from the side surface. a compressor unit; a housing housing the compressor unit, and having an inflow port for allowing air to flow into inside of the housing; and a fan device unit having a tubularly formed side surface, an impeller arranged inside the side surface, an inlet port being formed with an opening at one end on the side surface, and an outlet port being formed with an opening at the other end on the side surface, wherein the inlet port sucks air flowing into the housing through the inflow port and sends out the air sucked through the inlet port toward the compressor unit through the outlet port which faces the compressor unit, an inflow guide portion (122, 26) arranged between the inflow port and the inlet port, and extending into an air flow from the inflow port to the inlet port so as to change the direction of the air flow, characterized in that the inflow guide portion (122; 26) is arranged to face the side surface of the fan device unit so as to cause air to be sucked into the inlet port from the side surface.
A traffic offloading method, comprising: receiving, by a downstream node, flow table support capability information of an upstream node; determining, according to the flow table support capability information, whether the upstream node supports a downstream node flow table, wherein the downstream node flow table comprises at least one flow entry, and each flow entry corresponds to one flow; and if the upstream node supports the downstream node flow table, sending the downstream node flow table to the upstream node. receiving, by a downstream node, flow table support capability information of an upstream node; determining, according to the flow table support capability information, whether the upstream node supports a downstream node flow table, wherein the downstream node flow table comprises at least one flow entry, and each flow entry corresponds to one flow; and if the upstream node supports the downstream node flow table, sending the downstream node flow table to the upstream node.
Method for assembling a regulating valve designed to control the flow of gas in a circuit of an automotive vehicle provided with a heat engine, said valve comprising a pivot pin, a magnetic structure comprising a circular protruding edge, and a toothed sector comprising an annular groove, characterized in that it comprises the following steps: - assembling the toothed sector on the pivot pin, - fixing by welding the magnetic structure to the toothed sector which is fixed to the pivot pin, said welding being rotational welding carried out between said edge and the bottom of said groove. - assembling the toothed sector on the pivot pin, - fixing by welding the magnetic structure to the toothed sector which is fixed to the pivot pin, said welding being rotational welding carried out between said edge and the bottom of said groove.
A method of controlling a nacelle yaw system of a wind turbine within a wind farm having a plurality of wind turbines, the method comprising: determining a relative wind direction signal associated with the wind turbine, the method being characterised by determining an absolute wind direction signal associated with the plurality of wind turbines in the wind farm, determining an estimated nacelle yaw position signal based on the absolute wind direction signal and the relative wind direction signal, and using the estimated nacelle yaw position signal to control the nacelle yaw system. determining a relative wind direction signal associated with the wind turbine, the method being characterised by determining an absolute wind direction signal associated with the plurality of wind turbines in the wind farm, determining an estimated nacelle yaw position signal based on the absolute wind direction signal and the relative wind direction signal, and using the estimated nacelle yaw position signal to control the nacelle yaw system.
An aerosol-generating system comprising: a device body comprising an electrical power supply and an electrical heater, the electrical heater connected to the electrical power supply; and a consumable portion comprising a substrate container comprising a blind cavity containing an aerosol-forming substrate in the form of a gel that is solid at room temperature, the gel comprising an aerosol-former; wherein the consumable portion is configured to connect to or be received in the device body, wherein the device body comprises a device housing having a cavity for receiving the consumable portion, the cavity having a diameter substantially equal to or slightly greater than the diameter of the consumable portion; wherein the electrical heater is external to the substrate container and is configured to heat the substrate container without contacting the aerosol-forming substrate to generate a vapour from the aerosol-forming substrate; and wherein the gel is a thermoreversible gel. a device body comprising an electrical power supply and an electrical heater, the electrical heater connected to the electrical power supply; and a consumable portion comprising a substrate container comprising a blind cavity containing an aerosol-forming substrate in the form of a gel that is solid at room temperature, the gel comprising an aerosol-former; wherein the consumable portion is configured to connect to or be received in the device body, wherein the device body comprises a device housing having a cavity for receiving the consumable portion, the cavity having a diameter substantially equal to or slightly greater than the diameter of the consumable portion; wherein the electrical heater is external to the substrate container and is configured to heat the substrate container without contacting the aerosol-forming substrate to generate a vapour from the aerosol-forming substrate; and wherein the gel is a thermoreversible gel.
A system to provide negative pressure to a wound site and a periwound area surrounding the wound site comprising: a wound dressing comprising a top layer, an intermediate layer and a wound contact layer, wherein each layer is constructed from a flexible, liquid impermeable material, and wherein each of the layers comprises an upper surface and a lower surface; wherein the top layer defines a perimeter configured to be positioned over the wound site and the periwound area; the intermediate layer is positioned between the top layer and the wound contact layer, wherein the intermediate layer has a smaller footprint than the top layer and the wound contact layer; and the wound contact layer is positioned below the intermediate layer and is configured to contact the wound site and the periwound area, wherein the wound contact layer comprises a plurality of apertures; and a port configured to be secured to the upper surface of the top layer and to apply negative pressure through the top layer for the application of topical negative pressure at the wound site and the periwound area, wherein the top layer includes a hole configured to receive the port, wherein the upper surface of the top layer comprises one or more placement guides configured to aid a user in aligning the port to the hole. a wound dressing comprising a top layer, an intermediate layer and a wound contact layer, wherein each layer is constructed from a flexible, liquid impermeable material, and wherein each of the layers comprises an upper surface and a lower surface; wherein the top layer defines a perimeter configured to be positioned over the wound site and the periwound area; the intermediate layer is positioned between the top layer and the wound contact layer, wherein the intermediate layer has a smaller footprint than the top layer and the wound contact layer; and the wound contact layer is positioned below the intermediate layer and is configured to contact the wound site and the periwound area, wherein the wound contact layer comprises a plurality of apertures; and the top layer defines a perimeter configured to be positioned over the wound site and the periwound area; the intermediate layer is positioned between the top layer and the wound contact layer, wherein the intermediate layer has a smaller footprint than the top layer and the wound contact layer; and the wound contact layer is positioned below the intermediate layer and is configured to contact the wound site and the periwound area, wherein the wound contact layer comprises a plurality of apertures; and a port configured to be secured to the upper surface of the top layer and to apply negative pressure through the top layer for the application of topical negative pressure at the wound site and the periwound area, wherein the top layer includes a hole configured to receive the port, wherein the upper surface of the top layer comprises one or more placement guides configured to aid a user in aligning the port to the hole.
Method for producing an electrical line that extends in a longitudinal direction and has a core, onto which an insulation sheath is extruded, wherein, downstream of the extrusion of the insulation sheath, a structured surface (10A, 10B) having a plurality of structural elements (12A, 12B) is stamped into the still soft insulation sheath, characterised in that, a cooling bath is arranged downstream of an extrusion head, through which cooling bath the line is guided, wherein the stamping of the structural elements (12A, 12B) takes place in the cooling bath.
A blade for a wind turbine, comprising - a substantially hollow shell which comprises an opening which extends along at least part of the length of the blade, and - a servicing unit displaceable along the blade shell, at least partly arranged inside the shell and comprising an arm adapted to project out of the shell through the opening. characterized in that the blade further comprises - a closing gate which can move at least between a closed position in which it substantially overlaps the opening, and an open position in which it exposes the opening and allows the passage of the arm therethrough. - a substantially hollow shell which comprises an opening which extends along at least part of the length of the blade, and - a servicing unit displaceable along the blade shell, at least partly arranged inside the shell and comprising an arm adapted to project out of the shell through the opening. - a closing gate which can move at least between a closed position in which it substantially overlaps the opening, and an open position in which it exposes the opening and allows the passage of the arm therethrough.
Method for producing a pneumatic tyre with a tyre carcass and at least one tyre bead having a flipper strip, comprising the following method steps: - a first positioning step, comprising positioning a carcass fabric blank on a carcass drum having a drum contour (8, 12, 14), - a second positioning step, following the first positioning step and comprising positioning the flipper strip on the carcass fabric blank, - a ply turning-up step, following the second positioning step and comprising turning up a turn-up portion of the carcass fabric blank around the flipper strip, wherein, after the second positioning step and before the ply turning-up step, a forming step is carried out, in which the flipper strip is pressed by means of a forming force of at least one fluidically actuable forming device (36, 38, 40) against the carcass fabric blank positioned on the carcass drum, and is thereby formed to the shape of the drum contour (8, 12, 14), characterized in that the fluidically actuable forming device (36, 38, 40) has a first pressurizable and expandable bladder, which in the forming step forms the flipper strip onto the carcass fabric blank with a first component of the forming force as pressure in the axial direction of the carcass drum, and has a second pressurizable and expandable bladder, which in the forming step forms the flipper strip onto the carcass fabric blank with a second component of the forming force as pressure in the radial direction of the carcass drum. - a first positioning step, comprising positioning a carcass fabric blank on a carcass drum having a drum contour (8, 12, 14), - a second positioning step, following the first positioning step and comprising positioning the flipper strip on the carcass fabric blank, - a ply turning-up step, following the second positioning step and comprising turning up a turn-up portion of the carcass fabric blank around the flipper strip, wherein, after the second positioning step and before the ply turning-up step, a forming step is carried out, in which the flipper strip is pressed by means of a forming force of at least one fluidically actuable forming device (36, 38, 40) against the carcass fabric blank positioned on the carcass drum, and is thereby formed to the shape of the drum contour (8, 12, 14), characterized in that the fluidically actuable forming device (36, 38, 40) has a first pressurizable and expandable bladder, which in the forming step forms the flipper strip onto the carcass fabric blank with a first component of the forming force as pressure in the axial direction of the carcass drum, and has a second pressurizable and expandable bladder, which in the forming step forms the flipper strip onto the carcass fabric blank with a second component of the forming force as pressure in the radial direction of the carcass drum.