mhurhangee/ep-ind-claims huggingface dataset:
A multi-stage ejector for generating a vacuum from a source of pressurized fluid by passing said pressurized fluid through a series of nozzles, accelerating said pressurized fluid, and entraining air or other medium so as to form a jet flow in one or more stages and generate a vacuum across each stage, the multi-stage ejector comprising: a drive stage; a second stage; and a converging-diverging nozzle provided in said series of nozzles between said drive stage and said second stage for receiving jet flow from said drive stage and accelerating said jet flow to form a second stage fluid jet and directing said second stage fluid jet into an inlet of an outlet nozzle of the second stage, characterized in that: said converging-diverging nozzle is formed in a moulded nozzle piece mounted in said multi-stage ejector; and said moulded nozzle piece further includes one or more valve elements integrally moulded with said moulded nozzle piece and arranged to open and close one or more openings of the second stage to control a direction of flow of the air or other medium and the fluid between the second stage and a volume to be evacuated. a drive stage; a second stage; and a converging-diverging nozzle provided in said series of nozzles between said drive stage and said second stage for receiving jet flow from said drive stage and accelerating said jet flow to form a second stage fluid jet and directing said second stage fluid jet into an inlet of an outlet nozzle of the second stage, characterized in that: said converging-diverging nozzle is formed in a moulded nozzle piece mounted in said multi-stage ejector; and said moulded nozzle piece further includes one or more valve elements integrally moulded with said moulded nozzle piece and arranged to open and close one or more openings of the second stage to control a direction of flow of the air or other medium and the fluid between the second stage and a volume to be evacuated. said converging-diverging nozzle is formed in a moulded nozzle piece mounted in said multi-stage ejector; and said moulded nozzle piece further includes one or more valve elements integrally moulded with said moulded nozzle piece and arranged to open and close one or more openings of the second stage to control a direction of flow of the air or other medium and the fluid between the second stage and a volume to be evacuated.
Method for processing a request (R, R100) sent by a first device (T1, T101) registered with a first multimedia IP core network (CN1, CN101) to a public identity allocated to at least one second device (T2-1, T2-2, T2-3, T102-1, T102-2) and known to the first multimedia IP core network, said method being intended to be implemented by a server (2,102) of the first multimedia IP core network and comprising: o a step (E50, F110) of replicating said request in a first request (R1, R101) and in at least one second request (R2, R102); o a step (E60, F120) of triggering a routing of the first request within the first multimedia IP core network, characterized by o a step (E80, F130) of triggering a routing of said at least one second request along at least one predetermined route to at least one entity (9, 109) for interconnecting the first multimedia IP core network to at least one second core network distinct from the first multimedia IP core network. o a step (E50, F110) of replicating said request in a first request (R1, R101) and in at least one second request (R2, R102); o a step (E60, F120) of triggering a routing of the first request within the first multimedia IP core network, characterized by o a step (E80, F130) of triggering a routing of said at least one second request along at least one predetermined route to at least one entity (9, 109) for interconnecting the first multimedia IP core network to at least one second core network distinct from the first multimedia IP core network.
An accessory system used in a gas turbine engine, the system comprising: a gearbox driven by a shaft of the gas turbine engine; an electrical generator connected to the gearbox; a generator oil system connected to the gearbox; and one or more fluid connections between the electrical generator and the generator oil system; wherein the gearbox, the electrical generator, and the generator oil system are configured to be arranged radially outward of a main axis of the gas turbine engine and inside a nacelle; and wherein the generator oil system is offset from the electrical generator such that the generator oil system is not located radially outward of the electrical generator, characterised in that: said electrical generator is connected to an aft side of said gearbox and said generator oil system is connected to a forward side of said gear box. a gearbox driven by a shaft of the gas turbine engine; an electrical generator connected to the gearbox; a generator oil system connected to the gearbox; and one or more fluid connections between the electrical generator and the generator oil system; wherein the gearbox, the electrical generator, and the generator oil system are configured to be arranged radially outward of a main axis of the gas turbine engine and inside a nacelle; and wherein the generator oil system is offset from the electrical generator such that the generator oil system is not located radially outward of the electrical generator, characterised in that: said electrical generator is connected to an aft side of said gearbox and said generator oil system is connected to a forward side of said gear box. said electrical generator is connected to an aft side of said gearbox and said generator oil system is connected to a forward side of said gear box.
A battery box of especially a monobloc battery for receiving a battery cell comprising electrode plates, comprising a base body made of plastic which comprises two front walls located opposite each other and respectively oriented in parallel to the electrode plates of the battery cell, wherein the front walls are respectively designed in a reinforced manner, for which purpose a stiffening element is provided for each front wall, which stiffening element is U-shaped, wherein the U-legs (10, 11) respectively rest against a side wall which is connected to the associated front wall, wherein the stiffening element is completely inserted into a recess provided by the base body, and that the stiffening element is fixed in a positive-locking manner with respect to the respective front wall and the side walls connected thereto, for which purpose the stiffening element comprises breakthroughs (14, 16), characterized in that the stiffening element is partially extrusion-coated with the plastic of the base body and is embedded in the base body and that an additional reinforcement of the stiffening element is provided, for which purpose the stiffening element comprises corrugations.
Device for guided bone regeneration, intended for the reconstruction of an oral bone defect, composed of zirconium dioxide and having a shape covering said oral bone defect, said device comprising at least one window arranged in the wall thereof and intended for the insertion and condensation of a biomaterial.
A nonwoven web obtainable by using an apparatus including an extruder with a die block having a cavity, a spinnerette body and a gas passage for conveying pressurized gas to the spinnerette body having a plurality of nozzles, and a moving surface, wherein the gas passage has an inside diameter (d), an insert positioned in the gas passage and having an inside diameter (d 1) and an outside diameter (d 2), the outside diameter (d 2) being smaller than the inside diameter (d) of the gas passage and forming an air chamber therebetween, wherein the spinnerette body has a gas chamber isolated from the cavity, and connected to the gas passage via a gas passageway; wherein a plurality of stationary pins are secured to the spinnerette body; wherein a gas distribution plate is secured to the spinnerette body with a plurality of first, second, and third openings, wherein the first openings surround the nozzles, the second openings surround the stationary pins, and the third openings are located adjacent the first and second openings; wherein an exterior member is secured to the gas distribution plate with first and second enlarged openings, wherein the first enlarged opening surround the nozzles and the second enlarged openings surround the stationary pins; and constituting a dual shroud system, for carrying out a process including the steps of: forming a molten polymer and directing the molten polymer through the die block, wherein the molten polymer has a melt flow rate of from 4 g/(10 min) to 6 kg/(10 min) at 210°C and 2.16 kg according to ASTM D-1238; shrouding the extruded filaments exiting from the nozzles of the die block with pressurized gas from the gas passage to be solidified and attenuated into fibers; and collecting the fibers on the moving surface to form a non-woven web, the non-woven web comprising a plurality of fibers formed from the molten polymer having an average fiber diameter ranging from 1 μm to 10 μm, a basis weight of at least 0.5 g/m 2, and a tensile strength, measured in a machine direction, MD, ranging from 9.81 kN/[(kg/m 2)·m width of said non-woven web] to 98.1 kN/[(kg/m 2)·m width of said non-woven web], characterized by a Standard Deviation of the fiber diameter of 1.5 μm to 5 μm. forming a molten polymer and directing the molten polymer through the die block, wherein the molten polymer has a melt flow rate of from 4 g/(10 min) to 6 kg/(10 min) at 210°C and 2.16 kg according to ASTM D-1238; shrouding the extruded filaments exiting from the nozzles of the die block with pressurized gas from the gas passage to be solidified and attenuated into fibers; and collecting the fibers on the moving surface to form a non-woven web, the non-woven web comprising a plurality of fibers formed from the molten polymer having an average fiber diameter ranging from 1 μm to 10 μm, a basis weight of at least 0.5 g/m 2, and a tensile strength, measured in a machine direction, MD, ranging from 9.81 kN/[(kg/m 2)·m width of said non-woven web] to 98.1 kN/[(kg/m 2)·m width of said non-woven web], characterized by a Standard Deviation of the fiber diameter of 1.5 μm to 5 μm.
System for emergency lubrication with a lubricant pump with at least one outlet opening for applying lubricant to at least one first lubrication point of a transmission, with a first cavity and a second cavity, with a lubricant-conveying connection between the first cavity and the outlet opening, with a container, with a piston that can be displaced within the container, and with at least one means for applying a force to the piston; wherein the container forms the first cavity and the second cavity; wherein the piston separates the first cavity from the second cavity; wherein the first cavity is designed for storing the lubricant; and wherein the piston applies a pressure to the lubricant stored in the first cavity; characterized by a lubricant-conveying connection between the second cavity and a lubricant reservoir; wherein the lubricant reservoir serves for splash lubrication of at least a second lubrication point (103, 105) of the transmission; wherein the lubricant pump is designed to deliver the at least one portion of the lubricant from the lubricant reservoir into the first cavity; and wherein the lubricant can flow from the first lubrication point back into the lubricant reservoir.
An alpha-MSH derivative-Fc conjugate, wherein the alpha-MSH derivative has a structure shown in Formula X: or Formula XI: and the alpha-MSH derivative is conjugated to at least one Fc portion.
A method of inhibiting sulfidogenesis in a system, the method comprising: a) providing a system comprising one or more sulfate-reducing bacteria; and b) adding a composition comprising one or more chlorine oxyanions to the system-at a concentration sufficient to inhibit sulfate-reducing activity of the sulfate-reducing bacteria, thereby inhibiting sulfidogenesis in the system, wherein the one or more chlorine oxyanions are selected from the group consisting of chlorine dioxide, chlorite, chlorate, perchlorate, and mixtures thereof. a) providing a system comprising one or more sulfate-reducing bacteria; and b) adding a composition comprising one or more chlorine oxyanions to the system-at a concentration sufficient to inhibit sulfate-reducing activity of the sulfate-reducing bacteria,
A sealing arrangement for use in a robot joint, comprising: a circular sealing assembly arranged between a swing and a base of the robot joint in a longitudinal direction, the circular sealing assembly defining a tubular cavity in a circumferential direction and having a gas inlet and a gas outlet; and an air channel coupled to the gas inlet and operable to conduct pressured air into the cavity to maintain an air pressure inside the cavity above an air pressure outside the cavity, wherein the circular sealing assembling comprises: a sealing ring forming a first side wall and a top wall of the cavity, wherein the first side wall is oriented in the longitudinal direction and the top wall is fixed to the swing and oriented in a horizontal direction that is substantially perpendicular to the longitudinal direction. a circular sealing assembly arranged between a swing and a base of the robot joint in a longitudinal direction, the circular sealing assembly defining a tubular cavity in a circumferential direction and having a gas inlet and a gas outlet; and an air channel coupled to the gas inlet and operable to conduct pressured air into the cavity to maintain an air pressure inside the cavity above an air pressure outside the cavity, wherein the circular sealing assembling comprises: a sealing ring forming a first side wall and a top wall of the cavity, wherein the first side wall is oriented in the longitudinal direction and the top wall is fixed to the swing and oriented in a horizontal direction that is substantially perpendicular to the longitudinal direction.
A deployment apparatus comprising: a deployment object; a deployment arm with a first end coupled to the deployment object and a second end pivotable about a rotational axis; and a hinge assembly rotatably attached to the pivot of the deployment arm, the hinge assembly comprising an enclosure and a friction stop device disposed within the enclosure, the friction stop device comprising a friction portion (80, 800) disposed axially with respect to the rotational axis at the second end of the deployment arm and configured to be pressed against a lateral surface of the pivot of the deployment arm; and characterised in that: the hinge assembly further comprises a mechanical lockout comprising a projection configured to engage a notch that is configured to maintain the deployment object in a deployed position, and the friction stop device further comprises: one or more springs (83, 84) configured to maintain a compression load on the friction portion (80, 800) such that the friction portion (80, 800) provides a predetermined torque; said friction portion (80, 800) comprises a cylindrical outer surface except for one or more flat surfaces (86, 806). a deployment object; a deployment arm with a first end coupled to the deployment object and a second end pivotable about a rotational axis; and a hinge assembly rotatably attached to the pivot of the deployment arm, the hinge assembly comprising an enclosure and a friction stop device disposed within the enclosure, the friction stop device comprising a friction portion (80, 800) disposed axially with respect to the rotational axis at the second end of the deployment arm and configured to be pressed against a lateral surface of the pivot of the deployment arm; and the hinge assembly further comprises a mechanical lockout comprising a projection configured to engage a notch that is configured to maintain the deployment object in a deployed position, and the friction stop device further comprises: one or more springs (83, 84) configured to maintain a compression load on the friction portion (80, 800) such that the friction portion (80, 800) provides a predetermined torque; said friction portion (80, 800) comprises a cylindrical outer surface except for one or more flat surfaces (86, 806).
An apparatus (100, 200, 300, 400, 500) for sharing a function logic (140, 240, 340, 440a, 440b, 540, 65), the apparatus (100, 200, 300, 400, 500) comprising: a storage unit (110, 210, 310, 410, 510, 62) which is configured to store data which is received from at least two functional units, included in at least one reconfigurable processor (20, 31, 32, 50, 60), in order to share at least one function logic (140, 240, 340, 440a, 440b, 540, 65) configured to perform a predetermined operation; and an arbitrator unit (120, 220, 320, 420, 520, 63) which is configured to transmit the stored data to each of the at least one function logic (140, 240, 340, 440a, 440b, 540, 65), based on a scheduling rule. a storage unit (110, 210, 310, 410, 510, 62) which is configured to store data which is received from at least two functional units, included in at least one reconfigurable processor (20, 31, 32, 50, 60), in order to share at least one function logic (140, 240, 340, 440a, 440b, 540, 65) configured to perform a predetermined operation; and an arbitrator unit (120, 220, 320, 420, 520, 63) which is configured to transmit the stored data to each of the at least one function logic (140, 240, 340, 440a, 440b, 540, 65), based on a scheduling rule.
A method performed by an input device, the method comprising: receiving, by an input module of the input device (130, 140), data indicating a selection of a host computing device (110, 150, 160); initiating, by a communications module of the input device, a wireless pairing process with the selected host computing device through a wireless data communications connection; receiving data indicating the selection of a first operating system; performing a first process to associate the first operating system with the selected host computing device; receiving data indicating the selection of a second operating system; and while maintaining the data communications connection between the input device and the host computing device, performing a second process to associate the second operating system with the selected host computing device. receiving, by an input module of the input device (130, 140), data indicating a selection of a host computing device (110, 150, 160); initiating, by a communications module of the input device, a wireless pairing process with the selected host computing device through a wireless data communications connection; receiving data indicating the selection of a first operating system; performing a first process to associate the first operating system with the selected host computing device; receiving data indicating the selection of a second operating system; and while maintaining the data communications connection between the input device and the host computing device, performing a second process to associate the second operating system with the selected host computing device.
An endoscopic injection apparatus comprising: a body; a needle; a pair of holding forceps which surrounds the needle and operable between a spread and closed arrangement; a needle operation button on one end of the body and operable to move the needle; an injection hole; a forceps operation unit surrounding the body exterior is configured to operate the holding forceps according to a sliding movement; characterised in further comprising a sensor configured to sense a spread angle of the holding forceps; a notification unit configured to display a sensing result of the sensor; and wherein the needle operation button is configured not to operate when the holding forceps are spread. a body; a needle; a pair of holding forceps which surrounds the needle and operable between a spread and closed arrangement; a needle operation button on one end of the body and operable to move the needle; an injection hole; a forceps operation unit surrounding the body exterior is configured to operate the holding forceps according to a sliding movement; characterised in further comprising a sensor configured to sense a spread angle of the holding forceps; a notification unit configured to display a sensing result of the sensor; and wherein the needle operation button is configured not to operate when the holding forceps are spread.
An orifice valve for reducing the pressure of a fluid flowing from an oil well, the valve comprising: a valve body including a body centerline and a flow path passing through the valve body, the flow path comprising: an inlet section; a plurality of elongate flow ports disposed within the valve body, each port including a port inlet and a port exit and extending from the inlet section, the ports configured with fixed dimensions; a downstream flow channel located beyond the ports in the direction of fluid flow and having an inner surface and a straight section with a straight section diameter; wherein the port exits are arranged within a diametral extent that is less than the straight section diameter; characterized in that each of the flow ports includes a port centerline, wherein the inlets of the ports are more widely spaced apart than are the exits thereof so that each port and the corresponding port centerline is oriented at a port angle (α) with respect to the body centerline, the port angle (α) being acute. a valve body including a body centerline and a flow path passing through the valve body, the flow path comprising: an inlet section; a plurality of elongate flow ports disposed within the valve body, each port including a port inlet and a port exit and extending from the inlet section, the ports configured with fixed dimensions; a downstream flow channel located beyond the ports in the direction of fluid flow and having an inner surface and a straight section with a straight section diameter; wherein the port exits are arranged within a diametral extent that is less than the straight section diameter; an inlet section; a plurality of elongate flow ports disposed within the valve body, each port including a port inlet and a port exit and extending from the inlet section, the ports configured with fixed dimensions; a downstream flow channel located beyond the ports in the direction of fluid flow and having an inner surface and a straight section with a straight section diameter; wherein the port exits are arranged within a diametral extent that is less than the straight section diameter;