mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine comprising: a tail cone; a low pressure compressor; a low pressure turbine; a low speed spool interconnecting the low pressure compressor and the low pressure turbine; an electric generator located within the tail cone, the electric generator being operably connected to the low speed spool; a structural support housing at least partially enclosing the electric generator, the structural support housing being located within the tail cone; and characterized by: a mounting system located within the tail cone between the structural support housing and the tail cone, wherein the mounting system attaches the tail cone to the structural support housing, wherein the mounting system is composed of a plurality of mounts at multiple different locations along a length of the tail cone. a tail cone; a low pressure compressor; a low pressure turbine; a low speed spool interconnecting the low pressure compressor and the low pressure turbine; an electric generator located within the tail cone, the electric generator being operably connected to the low speed spool; a structural support housing at least partially enclosing the electric generator, the structural support housing being located within the tail cone; and characterized by: a mounting system located within the tail cone between the structural support housing and the tail cone, wherein the mounting system attaches the tail cone to the structural support housing, wherein the mounting system is composed of a plurality of mounts at multiple different locations along a length of the tail cone. a mounting system located within the tail cone between the structural support housing and the tail cone, wherein the mounting system attaches the tail cone to the structural support housing, wherein the mounting system is composed of a plurality of mounts at multiple different locations along a length of the tail cone.
A coating comprising a layer which is formed on the surface of a substrate or on a reflective layer formed on the surface of the substrate and the layer absorbs proportions of electromagnetic radiation from the wavelength spectrum of sunlight and the proportion of electromagnetic radiation from the wavelength spectrum of a black radiator at a temperature greater than 50°C which is emitted is smaller than 25%, wherein the layer is formed by carbon nanotubes contained in the layer and in this respect the proportion of carbon nanotubes contained per unit of area or unit of volume is kept in the range from 0.05 g/m 2 to 5 g/m 2 and/or the layer thickness of the layer is kept in the range from 10 nm to 2000 nm.
A backlight unit comprising: a bottom chassis; a light source disposed at an edge of the bottom chassis; a light-converting member disposed on the light source and including quantum dots for changing a wavelength of light emitted from the light source; and a light guide extending laterally and disposed on the bottom chassis adjacent to the light-converting member and positioned to receive light emitted from the light-converting member; characterized in that the light-converting member is disposed vertically above the light source to change a path of light emitted from the light source such that light that is upwardly emitted from the light source and introduced into the light-converting member is laterally emitted toward the light guide. a bottom chassis; a light source disposed at an edge of the bottom chassis; a light-converting member disposed on the light source and including quantum dots for changing a wavelength of light emitted from the light source; and a light guide extending laterally and disposed on the bottom chassis adjacent to the light-converting member and positioned to receive light emitted from the light-converting member; characterized in that the light-converting member is disposed vertically above the light source to change a path of light emitted from the light source such that light that is upwardly emitted from the light source and introduced into the light-converting member is laterally emitted toward the light guide.
A method of preparing a modified conjugated diene-based polymer, the method comprising: preparing an active polymer with an organic metal bonded thereto by polymerizing a conjugated diene-based monomer in a hydrocarbon solvent in the presence of an organometallic compound, mixing the active polymer prepared according to process S1 with a modifier, and reacting or coupling the active polymer and the modifier mixed in process S2, wherein the mixing of process S2 is performed at a Reynolds number of 20 or less for 1 minute or more to maintain a laminar flow behaviour thereof, wherein the Reynolds number (N Re) is calculated by Equation 1 below when the mixing of process S2 is performed in a transfer part: Reynolds number N Re = ρ ⁢ vd μ wherein, in Equation 1 above, ρ denotes the density of a fluid, v denotes a flowing rate of the fluid in the transfer part, d is an inner diameter of the transfer part, and μ denotes the viscosity of the fluid, the density ρ of the fluid ranges from 0.68 g/cm 3 to 0.8 g/cm 3, the viscosity μ of the fluid ranges from 100 cP to 10,000 cP, the inner diameter d of the transfer part ranges from 0.01 m to 1 m, and wherein the mixing of process S2 is performed at a temperature ranging from 0°C to 90°C for 1 minute or more. preparing an active polymer with an organic metal bonded thereto by polymerizing a conjugated diene-based monomer in a hydrocarbon solvent in the presence of an organometallic compound, mixing the active polymer prepared according to process S1 with a modifier, and reacting or coupling the active polymer and the modifier mixed in process S2, wherein the mixing of process S2 is performed at a Reynolds number of 20 or less for 1 minute or more to maintain a laminar flow behaviour thereof, wherein the Reynolds number (N Re) is calculated by Equation 1 below when the mixing of process S2 is performed in a transfer part: Reynolds number N Re = ρ ⁢ vd μ wherein, in Equation 1 above, ρ denotes the density of a fluid, v denotes a flowing rate of the fluid in the transfer part, d is an inner diameter of the transfer part, and μ denotes the viscosity of the fluid, the density ρ of the fluid ranges from 0.68 g/cm 3 to 0.8 g/cm 3, the viscosity μ of the fluid ranges from 100 cP to 10,000 cP, the inner diameter d of the transfer part ranges from 0.01 m to 1 m, and wherein the mixing of process S2 is performed at a temperature ranging from 0°C to 90°C for 1 minute or more. wherein, in Equation 1 above, ρ denotes the density of a fluid, v denotes a flowing rate of the fluid in the transfer part, d is an inner diameter of the transfer part, and μ denotes the viscosity of the fluid, the density ρ of the fluid ranges from 0.68 g/cm 3 to 0.8 g/cm 3, the viscosity μ of the fluid ranges from 100 cP to 10,000 cP, the inner diameter d of the transfer part ranges from 0.01 m to 1 m, and wherein the mixing of process S2 is performed at a temperature ranging from 0°C to 90°C for 1 minute or more.
A fire-extinguishing device for integration into an aircraft, for housing a fire-fighting material to put fire out via activation from the aircraft in flight, giving rise to this fire-fighting material falling towards the seat of the fire, the fire-extinguishing device comprising: - a container (1, 2); - at least one closed independent receptacle, housed within the container, the container including at least one collapsible outlet hatch (11, 14) for the independent receptacles and the opening of which allows the fall of these independent receptacles loaded/filled with fire-fighting material; characterised in that - the independent receptacles each have built-in fill valves that are hermetically sealed once the receptacles have been filled; - the container has built-in access hatches arranged in such a way that they correspond with the valves, in order to facilitate the filling of the independent receptacles located within the container (1, 2). - a container (1, 2); - at least one closed independent receptacle, housed within the container, the container including at least one collapsible outlet hatch (11, 14) for the independent receptacles and the opening of which allows the fall of these independent receptacles loaded/filled with fire-fighting material; - the independent receptacles each have built-in fill valves that are hermetically sealed once the receptacles have been filled; - the container has built-in access hatches arranged in such a way that they correspond with the valves, in order to facilitate the filling of the independent receptacles located within the container (1, 2).
A method for producing a flat substrate, comprising the steps of: furnishing a working tool comprising a rotatably mounted polishing plate, an expandable elastomer sheet attached to a lower surface of the polishing plate, an abrasive cloth attached to a lower surface of the elastomer sheet, and means for pressing the elastomer sheet at a plurality of positions under respective predetermined different pressures such that a lower surface of the abrasive cloth is deformed to a desired inverted convex shape in accordance with differences of pressing force applied to the elastomer sheet at the plurality of positions, bringing the inverted convexly deformed surface of the abrasive cloth into contact with a substrate, and rotating and moving the working tool to polish the substrate over a selected area. furnishing a working tool comprising a rotatably mounted polishing plate, an expandable elastomer sheet attached to a lower surface of the polishing plate, an abrasive cloth attached to a lower surface of the elastomer sheet, and means for pressing the elastomer sheet at a plurality of positions under respective predetermined different pressures such that a lower surface of the abrasive cloth is deformed to a desired inverted convex shape in accordance with differences of pressing force applied to the elastomer sheet at the plurality of positions, bringing the inverted convexly deformed surface of the abrasive cloth into contact with a substrate, and rotating and moving the working tool to polish the substrate over a selected area.
A method performed by data processing apparatus, the method comprising: determining a measure of spatial distribution of accesses to a data storage system based on multiple distinct groups of accesses to the data storage system, the measure of the spatial distribution of accesses further comprising combining the determined spatial distribution with a previously determined spatial distribution into a spatial locality metric of the storage system, wherein the spatial locality metric includes a weighted sum of the determined spatial distribution and the previously determined spatial distribution; and adjusting a caching policy used for the data storage system based on the determined measure of spatial distribution. determining a measure of spatial distribution of accesses to a data storage system based on multiple distinct groups of accesses to the data storage system, the measure of the spatial distribution of accesses further comprising combining the determined spatial distribution with a previously determined spatial distribution into a spatial locality metric of the storage system, wherein the spatial locality metric includes a weighted sum of the determined spatial distribution and the previously determined spatial distribution; and adjusting a caching policy used for the data storage system based on the determined measure of spatial distribution.
An immunogenic composition, such as a liquid or a dried composition, comprising an influenza virus hemagglutinin antigen and lipid vesicles, wherein the lipid vesicles comprise lipids that are present in the composition in an amount that achieves a lipid: antigen weight ratio of at least about 50:1, such as at least about 100:1, at least about 200:1, at least about 250:1, or at least about 350:1, and preferably within a range of about 50:1 to about 400:1, such as within about 250:1 to about 350:1, and more preferably at a weight ratio of about 300:1, and the lipids include a non-ionic surfactant.
A composition comprising: a lipidaceous carrier; and a peptide complex of poly-L-lysine or a pharmaceutically acceptable salt thereof; and poly-L-glutamic acid or poly-L-aspartic acid or a pharmaceutically acceptable salt thereof, wherein the peptide complex has a charge-neutralised region and a positively-charged region. a lipidaceous carrier; and a peptide complex of poly-L-lysine or a pharmaceutically acceptable salt thereof; and poly-L-glutamic acid or poly-L-aspartic acid or a pharmaceutically acceptable salt thereof, wherein the peptide complex has a charge-neutralised region and a positively-charged region.
Torque-transmitting device in a drivetrain of a motor vehicle, which torque-transmitting device is formed as a torsional vibration damper and is arranged in a hydrodynamic torque converter, having a rotary component which is rotatable about an axis of rotation and which has a first annular-disc-shaped extent section and, spaced apart axially therefrom, a second annular-disc-shaped extent section, wherein the first and second annular-disc-shaped extent sections are fastened to one another by means of a connecting section, characterized in that the connecting section is of elastic form, wherein, on the rotary component, in the region of the first annular-disc-shaped extent section, there is arranged an additional mass which is formed as at least one pendulum mass of a centrifugal pendulum, wherein the first annular-disc-shaped extent section forms the pendulum mass carrier, and wherein the pendulum mass is pivotable to a limited extent relative to the pendulum mass carrier along a pendulum path.
A bundled tube fuel nozzle assembly, comprising; a fuel injector; and a tube bundle comprising a plurality of tubes that provide for fluid communication through a forward plate, a fuel plenum and an aft plate of the bundled tube fuel nozzle assembly, each tube having an inlet defined at an upstream end of the tube and an outlet defined at a downstream end of the tube, wherein the fuel injector is disposed upstream from the inlets of each of the tubes; wherein the upstream ends of two or more adjacent tubes of the plurality of tubes are noncircular and include at least one side portion that is shared between the two or more adjacent tubes; wherein the downstream end of each tube is circular and spaced apart from the downstream ends of immediately adjacent tubes of the plurality of tubes; characterized in that the fuel nozzle assembly further comprises a duct coupled to the forward plate, wherein the duct is in fluid communication with the fuel injector and defines a flow path to the inlets of the plurality of tubes. a fuel injector; and a tube bundle comprising a plurality of tubes that provide for fluid communication through a forward plate, a fuel plenum and an aft plate of the bundled tube fuel nozzle assembly, each tube having an inlet defined at an upstream end of the tube and an outlet defined at a downstream end of the tube, wherein the fuel injector is disposed upstream from the inlets of each of the tubes; wherein the upstream ends of two or more adjacent tubes of the plurality of tubes are noncircular and include at least one side portion that is shared between the two or more adjacent tubes; wherein the downstream end of each tube is circular and spaced apart from the downstream ends of immediately adjacent tubes of the plurality of tubes; characterized in that the fuel nozzle assembly further comprises a duct coupled to the forward plate, wherein the duct is in fluid communication with the fuel injector and defines a flow path to the inlets of the plurality of tubes.
An energy storage device, including: a first heat exchanger having a bottom surface where a distributor with a gas supply port is arranged, to be supplied with gas from the gas supply port, and to be supplied with solid particles from above the gas supply port, the first heat exchanger being configured to exchange heat between the gas and the solid particles; a box member having an upper surface where the distributor is arranged, wherein the box member is arranged below the first heat exchanger; a gas supplier configured to supply gas to the box member; a heater being arranged inside the box member and configured to consume power to heat gas fed from the gas supplier to be supplied to the first heat exchanger; a solid-gas separator configured to separate gas and solid in a solid-gas mixture discharged from the first heat exchanger; a high-temperature tank and a low-temperature tank each configured to store the solid particles separated by the solid-gas separator; a first heat utilization device configured to use thermal energy of the gas separated by the solid-gas separator; a high-temperature particle supplier configured to supply the solid particles stored in the high-temperature tank to the first heat exchanger; and a low-temperature particle supplier configured to supply the solid particles stored in the low-temperature tank to the first heat exchanger. a first heat exchanger having a bottom surface where a distributor with a gas supply port is arranged, to be supplied with gas from the gas supply port, and to be supplied with solid particles from above the gas supply port, the first heat exchanger being configured to exchange heat between the gas and the solid particles; a box member having an upper surface where the distributor is arranged, wherein the box member is arranged below the first heat exchanger; a gas supplier configured to supply gas to the box member; a heater being arranged inside the box member and configured to consume power to heat gas fed from the gas supplier to be supplied to the first heat exchanger; a solid-gas separator configured to separate gas and solid in a solid-gas mixture discharged from the first heat exchanger; a high-temperature tank and a low-temperature tank each configured to store the solid particles separated by the solid-gas separator; a first heat utilization device configured to use thermal energy of the gas separated by the solid-gas separator; a high-temperature particle supplier configured to supply the solid particles stored in the high-temperature tank to the first heat exchanger; and a low-temperature particle supplier configured to supply the solid particles stored in the low-temperature tank to the first heat exchanger.
A method for making a wired pipe joint, comprising: forming an electrically conductive material into a structure that is radially expandable to conform to an interior of the pipe joint substantially without plastic deformation of the electrically conductive material; coupling an electrical connector (20, 22) to each longitudinal end of the formed electrically conductive material to form an electrical conductor assembly; coating an interior surface of the pipe joint with an electrically insulating, bonding material; inserting the electrical conductor assembly into the pipe joint; and radially expanding the electrically conductive material to conform to the interior surface of the pipe joint; wherein the formed electrically conductive material contracts longitudinally as it is expanded radially. forming an electrically conductive material into a structure that is radially expandable to conform to an interior of the pipe joint substantially without plastic deformation of the electrically conductive material; coupling an electrical connector (20, 22) to each longitudinal end of the formed electrically conductive material to form an electrical conductor assembly; coating an interior surface of the pipe joint with an electrically insulating, bonding material; inserting the electrical conductor assembly into the pipe joint; and radially expanding the electrically conductive material to conform to the interior surface of the pipe joint; wherein the formed electrically conductive material contracts longitudinally as it is expanded radially.
Device for growth assistance and for protecting individual shoots on trees, which device has a clamping means with which the device is fastenable to a tree, characterized in that the clamping means has a first clamping element and a second clamping element which is connected thereto via an elastic flexible web, wherein the two clamping elements (2, 4) are arranged at opposite ends of the web, and the first clamping element has two arms (11, 12) which are designed to act on a shoot on a tree on opposite sides of the shoot with a clamping action being realized, and the second clamping element is provided with a bow with which a shoot on a tree clamped by the other clamping element of the clamping means can be encompassed.
A system for closed transfer of fluids comprising: a syringe adapter having a proximal end, a distal end, and a wall defining an elongate opening between the proximal end and the distal end, the syringe adapter comprising a cannula and a translating housing having a first seal membrane, the translating housing movable within the elongate opening of the syringe adapter; a vial access device including a lock portion, the translating housing transitionable between an initial position in which the syringe adapter is not in fluid communication with the vial access device and an activated position in which the syringe adapter is in fluid communication with the vial access device via the cannula; and a locking member engaged with the syringe adapter, the locking member transitionable between an unlocked position where the lock portion of the vial access device is movable within the elongate opening of the syringe adapter and a locked position where the locking member is configured to engage the lock portion of the vial access device to lock the syringe adapter to the vial access device in the activated position, wherein the locking member comprises an annular spring body received by the elongate opening of the syringe adapter, wherein the syringe adapter defines a viewing window and with the translating housing in the initial position, a first indicator is displayed in the viewing window. a syringe adapter having a proximal end, a distal end, and a wall defining an elongate opening between the proximal end and the distal end, the syringe adapter comprising a cannula and a translating housing having a first seal membrane, the translating housing movable within the elongate opening of the syringe adapter; a vial access device including a lock portion, the translating housing transitionable between an initial position in which the syringe adapter is not in fluid communication with the vial access device and an activated position in which the syringe adapter is in fluid communication with the vial access device via the cannula; and a locking member engaged with the syringe adapter, the locking member transitionable between an unlocked position where the lock portion of the vial access device is movable within the elongate opening of the syringe adapter and a locked position where the locking member is configured to engage the lock portion of the vial access device to lock the syringe adapter to the vial access device in the activated position, wherein the locking member comprises an annular spring body received by the elongate opening of the syringe adapter, wherein the syringe adapter defines a viewing window and with the translating housing in the initial position, a first indicator is displayed in the viewing window.
Electrical circuit, in particular for generating electrical energy, with an n-phase generator and a converter, wherein the converter comprises m partial converters (171, 172, 173), wherein each partial converter (171, 172, 173) comprises p blocks (161,..., 169), wherein each of the blocks comprises n/m switching devices, and wherein the switching devices of the individual blocks (161,..., 169) are connected symmetrically to the generator, characterised in that the windings of the generator form m series circuits (33, 34, 35) which are switched in parallel with each other, and that a transformer which has a primary winding and a secondary winding is connected with the secondary winding to the converter, and that a p-phase load is connected to the transformer.