mhurhangee/ep-ind-claims huggingface dataset:
A blade outer air seal assembly, comprising: a blade outer air seal having a main body portion, an outwardly facing surface and an inwardly facing surface; an impingement plate secured to the outwardly facing surface; a plurality of warts disposed between the impingement plate and the main body portion; a plurality of elongated ribs disposed between the impingement plate and the main body portion; characterized in that: the plurality of warts are positioned axially closer to a trailing edge portion of the blade outer air seal than the plurality of elongated ribs; and: the elongated ribs are located on a floor of a forward cavity and the warts are provided on a floor of an aft cavity, the forward cavity being positioned axially closer to the leading edge of the blade outer air seal than the aft cavity, the forward cavity and the aft cavity being separated by a dividing rib, wherein the impingement plate includes a multiple of apertures (86,88) configured to direct a flow of air toward the plurality of elongated ribs and the warts, the multiple of apertures (86,88) configured to direct more air toward the elongated ribs than toward the warts. a blade outer air seal having a main body portion, an outwardly facing surface and an inwardly facing surface; an impingement plate secured to the outwardly facing surface; a plurality of warts disposed between the impingement plate and the main body portion; a plurality of elongated ribs disposed between the impingement plate and the main body portion; characterized in that: the plurality of warts are positioned axially closer to a trailing edge portion of the blade outer air seal than the plurality of elongated ribs; and: the elongated ribs are located on a floor of a forward cavity and the warts are provided on a floor of an aft cavity, the forward cavity being positioned axially closer to the leading edge of the blade outer air seal than the aft cavity, the forward cavity and the aft cavity being separated by a dividing rib, wherein the impingement plate includes a multiple of apertures (86,88) configured to direct a flow of air toward the plurality of elongated ribs and the warts, the multiple of apertures (86,88) configured to direct more air toward the elongated ribs than toward the warts. the plurality of warts are positioned axially closer to a trailing edge portion of the blade outer air seal than the plurality of elongated ribs; and: the elongated ribs are located on a floor of a forward cavity and the warts are provided on a floor of an aft cavity, the forward cavity being positioned axially closer to the leading edge of the blade outer air seal than the aft cavity, the forward cavity and the aft cavity being separated by a dividing rib, wherein the impingement plate includes a multiple of apertures (86,88) configured to direct a flow of air toward the plurality of elongated ribs and the warts, the multiple of apertures (86,88) configured to direct more air toward the elongated ribs than toward the warts.
A method for call selection and migration in an next generation central unit, NG-CU, of a next generation radio access network, NGRAN, the method comprising: assigning, by a control plane virtual network function component, CP VNFC of the NG-CU, a call initiated by a user to a source user plane VNFC of a plurality of CU user plane VNFCs present in the NG-CU; detecting, by a management VNFC of the NG-CU, whether there is an overload traffic condition in the assigned call; in case that the traffic overload condition is detected, performing, by the source user plane VNFC, a call selection, wherein a call selected to be migrated to another VNFC in the NG-CU has a higher migration preference value than another call; migrating, by the CP VNFC, the selected call to a target user plane VNFC in the NG-CU; and forwarding, by the source user plane VNFC, a request to handle the migrated call to the target user plane VNFC. assigning, by a control plane virtual network function component, CP VNFC of the NG-CU, a call initiated by a user to a source user plane VNFC of a plurality of CU user plane VNFCs present in the NG-CU; detecting, by a management VNFC of the NG-CU, whether there is an overload traffic condition in the assigned call; in case that the traffic overload condition is detected, performing, by the source user plane VNFC, a call selection, wherein a call selected to be migrated to another VNFC in the NG-CU has a higher migration preference value than another call; migrating, by the CP VNFC, the selected call to a target user plane VNFC in the NG-CU; and forwarding, by the source user plane VNFC, a request to handle the migrated call to the target user plane VNFC.
A process for separating a phase comprising at least one ionic liquid from a phase, where the phase has a higher viscosity than the phase, which comprises the following steps: a) provision of a stream comprising a dispersion in which the phase is dispersed in the phase, b) introduction of the stream into a coalescing device, where the inflow rate of the stream is from 0.05 to 150 kg/ (cm 2 * h) based on the average cross-sectional area of the coalescing device, where the packing density of the coalescing device is from 50 to 500 kg/m 3, where the coalescing device is a coalescing filter and the filter material of the coalescing filter comprises at least 50% by weight of acrylphenol resin, c) separation of the disperse phase from the phase in the coalescing device, d) discharge of a stream comprising at least 70% by weight, preferably at least 90% by weight, of phase from the coalescing device and e) discharge of a stream comprising at least 70% by weight, preferably at least 90% by weight, of phase from the coalescing device. a) provision of a stream comprising a dispersion in which the phase is dispersed in the phase, b) introduction of the stream into a coalescing device, where the inflow rate of the stream is from 0.05 to 150 kg/ (cm 2 * h) based on the average cross-sectional area of the coalescing device, where the packing density of the coalescing device is from 50 to 500 kg/m 3, where the coalescing device is a coalescing filter and the filter material of the coalescing filter comprises at least 50% by weight of acrylphenol resin, c) separation of the disperse phase from the phase in the coalescing device, d) discharge of a stream comprising at least 70% by weight, preferably at least 90% by weight, of phase from the coalescing device and e) discharge of a stream comprising at least 70% by weight, preferably at least 90% by weight, of phase from the coalescing device.
A bonding wire for a semiconductor device comprising: a core material containing one or more of Ga, In, and Sn for a total of 0.2 to 3.0 at%, optionally further containing one or more of Cu, Pd, Pt, and Au for a total of 0.1 to 0.7 at.%, and a balance being made up of Ag and incidental impurities; and a coating layer formed over a surface of the core material, containing one or more of Pd and Pt, and a balance being made up of incidental impurities, wherein the coating layer is 0.005 to 0.070 μm in thickness, wherein the wire as a whole optionally contains one or more of B, P, Ca, La, and Se for a total of 80 to 500 at. ppm. a core material containing one or more of Ga, In, and Sn for a total of 0.2 to 3.0 at%, optionally further containing one or more of Cu, Pd, Pt, and Au for a total of 0.1 to 0.7 at.%, and a balance being made up of Ag and incidental impurities; and a coating layer formed over a surface of the core material, containing one or more of Pd and Pt, and a balance being made up of incidental impurities, wherein the coating layer is 0.005 to 0.070 μm in thickness, wherein the wire as a whole optionally contains one or more of B, P, Ca, La, and Se for a total of 80 to 500 at. ppm.
An actuator drive system, comprising: a pump comprising valves; a pump actuator (212, 214); a plurality of valve actuators; a dedicated half-bridge driving circuit for each of said pump actuator (212, 214) and plurality of valve actuators; and a common half-bridge driving circuit (202, 204, 206, 208) for all of said pump actuator (212, 214) and plurality of valve actuators, wherein said common half-bridge driving circuit (202, 204, 206, 208) for all of said pump actuator (212, 214) and plurality of valve actuators is adapted to drive one of said pump actuator (212, 214) and plurality of valve actuators in cooperation with said dedicated half-bridge driving circuits for each of said pump actuator (212, 214) and plurality of valve actuators. a pump comprising valves; a pump actuator (212, 214); a plurality of valve actuators; a dedicated half-bridge driving circuit for each of said pump actuator (212, 214) and plurality of valve actuators; and a common half-bridge driving circuit (202, 204, 206, 208) for all of said pump actuator (212, 214) and plurality of valve actuators, wherein said common half-bridge driving circuit (202, 204, 206, 208) for all of said pump actuator (212, 214) and plurality of valve actuators is adapted to drive one of said pump actuator (212, 214) and plurality of valve actuators in cooperation with said dedicated half-bridge driving circuits for each of said pump actuator (212, 214) and plurality of valve actuators.
A locking mechanism for locking a knob relative to a grip, the locking mechanism including a sleeve non-movably connected to the grip and formed with teeth characterised in that the locking mechanism further includes a body non-movably connected to the knob, partially inserted in the sleeve, and formed with at least one recess and a cavity in communication with the recess; at least one pawl movably inserted in the recess and formed with teeth; and a lever formed with an end for abutment against the pawl and movable in the cavity of the body between a first position to press a first portion of the pawl to engage the teeth of the pawl with the teeth of the sleeve and a second position to press a second portion of the pawl to disengage the teeth of the pawl from the teeth of the sleeve.
An appliance for draining body waste from the rectum or urinary tract, the appliance comprising a distal portion configured for insertion into the rectum, intestinal or urinary tract, and the appliance further comprising: (a) a cuff at the distal portion for engaging body tissue; (b) a resiliently deformable device for urging distension of the cuff, the resiliently deformable device being configured to deform resiliently when the cuff is compressed, the resilient deformation generating a return force to counter the compression and urge distension; (c) a fluid-containing chamber of variable volume depending on at least one selected from: degree of distension of the cuff; degree of deformation of the resiliently deformable device; characterized by a fluid-transfer damper for restricting fluid flow with respect to the fluid-containing chamber when the chamber changes size, at least when the change corresponds to compression of the cuff, wherein the fluid transfer damper is disposed in a port having one side communicating with the fluid-containing chamber and another side communicating with ambient atmosphere. (a) a cuff at the distal portion for engaging body tissue; (b) a resiliently deformable device for urging distension of the cuff, the resiliently deformable device being configured to deform resiliently when the cuff is compressed, the resilient deformation generating a return force to counter the compression and urge distension; (c) a fluid-containing chamber of variable volume depending on at least one selected from: degree of distension of the cuff; degree of deformation of the resiliently deformable device;
Induction generator for a radio-controlled switch comprising a magnet element having two magnet pole contact sections (25, 27) or having a third magnet pole contact section (25, 27), which is surrounded by two magnet pole contact sections (25, 27), wherein one magnet pole contact section forms a north pole contact section and a magnet pole contact section adjacent thereto forms a south pole contact section, and a coil core, which has pole contact sections which can be brought into contact with the magnet pole contact sections (25, 27), wherein the number of pole contact sections is unequal to the number of magnet pole contact sections (25, 27), wherein the magnet element and the coil core are arranged so as to be movable relative to one another in such a way that a magnetic flux direction reversal can be generated in the coil core in the event of a change between a first rest position and a second rest position, which each define a movement direction (X; Y) for the relative movement, wherein, in each of the rest positions (Y1, Y3) a north pole contact section and a south pole contact section make contact with respectively assigned pole contact sections in such a way that, in the first rest position, a magnetic flux with a first direction can be generated in the coil core, which magnetic flux is opposite to a second direction of a magnetic flux which can be generated in the coil core in the second rest position, characterized in that the coil core has two or three pole contact sections, and the induction generator has a magnetisable sliding contact section, which extends parallel to the movement direction (X; Y), for the sliding guidance of the relative movement between the coil core and the magnet element while maintaining a magnetic contact existing between the coil core and the magnet element.
A cooling flow circuit for a gas turbine engine actuator, comprising: a main line having first and second sections for being ported to piston extend and return sides of the gas turbine engine actuator, respectively; an orifice disposed along the main line between the first and second sections; a bypass line fluidly coupled to the first and second sections at opposite ends thereof, respectively; and a bypass valve disposed along the bypass line between the opposite ends thereof and having a variable flow area which is responsive to a pressure differential between the first and second sections; wherein the bypass valve comprises: a first valve opening which is fluidly coupled to one end of the bypass line; a second valve opening which is fluidly coupled to the other end of the bypass line; a valve element which is elastically biased to move between open and closed positions relative to the first and second valve openings in response to the pressure differential, characterized by springs by which the valve element is anchored to the first and second valve openings and by which the valve element is elastically biased. a main line having first and second sections for being ported to piston extend and return sides of the gas turbine engine actuator, respectively; an orifice disposed along the main line between the first and second sections; a bypass line fluidly coupled to the first and second sections at opposite ends thereof, respectively; and a bypass valve disposed along the bypass line between the opposite ends thereof and having a variable flow area which is responsive to a pressure differential between the first and second sections; a first valve opening which is fluidly coupled to one end of the bypass line; a second valve opening which is fluidly coupled to the other end of the bypass line; a valve element which is elastically biased to move between open and closed positions relative to the first and second valve openings in response to the pressure differential, characterized by springs by which the valve element is anchored to the first and second valve openings and by which the valve element is elastically biased.
An electrical or electronic device having a polymeric coating, formed by exposing said device to pulsed plasma comprising a compound of formula where R 1, R 2 and R 3 are independently selected from hydrogen, alkyl, haloalkyl or aryl optionally substituted by halo; andR 4 is a group X-R 5 where R 5 is an alkyl or haloalkyl group and X is a bond; a group of formula -C O(CH 2) n Y- where n is an integer of from 1 to 10 and Y is a bond or a sulphonamide group; or a group - P R 6 q (CH 2) t - where R 6 is aryl optionally substituted by halo, p is 0 or 1, q is 0 or 1 and t is 0 or an integer of from 1 to 10, provided that where q is 1, t is other than 0, for a sufficient period of time to allow a protective polymeric layer to form on the surface of the electrical or electronic device.
An anchoring unit designed for fixation of building structure to ground, provided with a mounting socket and support brackets (5A, 5B) provided with holes (6', 6") for anchoring rods, where the adjacent support brackets (5A, 5B) that make up a twin pair are provided with an inlet hole made in one bracket and an outlet hole (6") made in the other bracket and these holes define the guiding for an anchoring rod with the longitudinal axis of said guiding tilted at an acute angle to a plane that is perpendicular to the longitudinal axis of the mounting socket, characterized in that it comprises a first pair of parallel plates with two longitudinal cutouts each and a second pair of parallel plates with two longitudinal cutouts each, and individual pairs of these plates (2A, 2B) are arranged crosswise one to another and mutually connected by interference fit with the use of the said cutouts, so that the arranged spatial structure defines a space in between of the plates where the mounting socket with closed cross section is formed, whilst the plate edges protruding outside to form four pairs of said support brackets (5A, 5B) and in selected pairs of support brackets (5A, 5B) at least one additional pair of holes (7', 7") is made for anchoring rods, and where directions of anchoring rods going through a specific pair of support brackets (5A, 5B) visible on a projection onto a plane perpendicular to the longitudinal axis of the mounting socket are opposite one to another.
Filter device, especially intended for use with diesel fuels, having an exchangeable filter element that can be mounted in a filter housing, wherein a fluid pump device with two pump chambers (45, 49) is provided as part of the filter device, said pump chambers being separated from one another in a fluid-tight manner by means of a pump piston mounted such that it can be displaced longitudinally in these chambers at least in one of its two directions of travel, characterised in that each pump chamber (45, 49) is provided with an assigned valve (39, 63), which opens or closes in the opposite direction to the respective other valve (39, 63) when the pump device is actuated, and in that at least the one valve is part of the filter element and conveys fluid into its assigned pump chamber in its open position and blocks this route in its closed position.
An antibody, comprising a heavy chain and a light chain, wherein the heavy chain comprises the variable region and the constant region of SEQ ID NO:2 having one, but not more than one amino acid deletion, addition, or substitution; wherein the light chain comprises the variable region and the constant region of SEQ ID NO:4; and wherein the antibody binds to an osteoprotegerin ligand (OPGL) and inhibits binding of OPGL to an osteoclast differentiation and activation receptor (ODAR) wherein an excess of antibody reduces the binding by at least 20% as measured in an in vitro competitive binding assay.
A packaging comprising: (a) an outer card having: one or more cavities, a shell forming the one or more cavities, a backing secured to said shell and at least one access door located on the backing of the outer card, the at least one access door comprising one or more perforations; and (b) one or more blister cards housed within the one or more cavities, the one or more blister cards being removable from the one or more cavities, through said at least one access door, so that the one or more blister cards are disposable separate from the outer card, characterized by the at least one access door including punch outs that align with corresponding apertures of the one or more blister cards secured within the one or more cavities whereby one or more items secured within the apertures are removable without opening the access doors, the punch outs being configured such that a first force applied to the outer card is sufficient for forcing the one or more items out of the one or more blister cards, through the punch outs and through the outer card; and characterized by the one or more perforations being configured such that a second force for breaking said perforations is greater than said first force and is sufficiently high that said one or more items may be removed from the one or more blister cards without breaking the perforations of the at least one access door. (a) an outer card having: one or more cavities, a shell forming the one or more cavities, a backing secured to said shell and at least one access door located on the backing of the outer card, the at least one access door comprising one or more perforations; and (b) one or more blister cards housed within the one or more cavities, the one or more blister cards being removable from the one or more cavities, through said at least one access door, so that the one or more blister cards are disposable separate from the outer card, characterized by the at least one access door including punch outs that align with corresponding apertures of the one or more blister cards secured within the one or more cavities whereby one or more items secured within the apertures are removable without opening the access doors, the punch outs being configured such that a first force applied to the outer card is sufficient for forcing the one or more items out of the one or more blister cards, through the punch outs and through the outer card; and characterized by the one or more perforations being configured such that a second force for breaking said perforations is greater than said first force and is sufficiently high that said one or more items may be removed from the one or more blister cards without breaking the perforations of the at least one access door.
An aircraft refuelling system (100, 200) configured to be located, in use, on an aircraft to refuel a fuel tank (50, 60, 90) of the aircraft, the system comprising: a fuel conduit (101a, 101b); a variable-position valve (102, 202) for controlling a rate of flow of fuel leaving the conduit (101a, 101b); a sensor arrangement (103, 203a, 203b), configured to measure an electrostatic condition of a fuel tank being fuelled by the system; and a controller; wherein the controller is configured to receive from the sensor arrangement (103, 203a, 203b) the measurement of the electrostatic condition of the fuel tank (50, 60, 90) being fuelled by the system (100, 200) and the controller is configured to control the variable-position valve to control the rate of flow of fuel based at least in part on the measurement received from the sensor arrangement (103, 203a, 203b). a fuel conduit (101a, 101b); a variable-position valve (102, 202) for controlling a rate of flow of fuel leaving the conduit (101a, 101b); a sensor arrangement (103, 203a, 203b), configured to measure an electrostatic condition of a fuel tank being fuelled by the system; and a controller; wherein the controller is configured to receive from the sensor arrangement (103, 203a, 203b) the measurement of the electrostatic condition of the fuel tank (50, 60, 90) being fuelled by the system (100, 200) and the controller is configured to control the variable-position valve to control the rate of flow of fuel based at least in part on the measurement received from the sensor arrangement (103, 203a, 203b).