mhurhangee/ep-ind-claims huggingface dataset:
A busbar arrangement for a wind turbine generator, the wind turbine generator comprising a stator and a rotor arranged to rotate around an axis, the rotor being coupled to a hub carrying rotor blades, the arrangement comprising a plurality of busbars (110, 112, 114, 116) for transporting electric power away from the generator, wherein each busbar is arranged at an individual radial distance from the axis and at an individual axial position along the axis, wherein the plurality of busbars forms a staircase-like structure and is adapted to be located on a side of the wind turbine generator that is opposite to the rotor blades and hub. a plurality of busbars (110, 112, 114, 116) for transporting electric power away from the generator, wherein each busbar is arranged at an individual radial distance from the axis and at an individual axial position along the axis, wherein the plurality of busbars forms a staircase-like structure and is adapted to be located on a side of the wind turbine generator that is opposite to the rotor blades and hub.
A plastic container, produced either by an extrusion process, by means of a PET blow-molding process or an injection-molding process, with an associated rotary closure that can be brought into an open position from a closed position by a pivoting, characterized in that the container has a neck, which is straight or converges on its inner side conically or spherically in the direction of the container and forms on the outside in its lower half a radially protruding collar, on the lower periphery of which an attachable rotary closure can be locked in by snapping elements, so that said rotary closure is held on the neck pivotably about its axis of rotation, wherein the collar also forms radial surfaces, which act as stop surfaces for radial ribs on the inner side of the associated rotary closure for limiting the pivoting range between the closed position and the open position of the rotary closure on the neck, also in that the mouth of the neck forms an end face, into which there leads a channel that is formed on the neck inner side, bulges out from the neck in the radial direction and is open toward the inner side of the neck, and in that the rotary closure has on the inner side of its lid surface at least one outer tube portion, and also coaxially thereto an inner, longer tube portion or a conically converging or convexly outwardly curved continuation, wherein the outer tube portion lies in a sealing manner on the end face when the rotary closure is attached, and the inner, longer tube portion or the conically converging or convexly outwardly curved continuation extends into the neck interior while lying in a sealing manner against the correspondingly formed neck inner wall and has at one location an aperture, and in that between the outer tube portion and the inner tube portion, or between the outer tube portion and the conically converging or convexly outwardly curved continuation, there is at the location of the aperture a hole in the lid surface, so that the aperture can be brought over the location of the bulging channel for the open position, so that liquid can flow through the aperture and the hole to the outside, whereas in the closed position the inner tube portion or the conically converging or convexly outwardly curved continuation covers over the bulging channel in the neck in a sealing manner.
An OCT apparatus for imaging at least a portion of a sample, comprising: a first interferometric arrangement configured to provide an electro-magnetic radiation; and a second arrangement configured to receive the electro-magnetic radiation, and configured to generate a resultant electro-magnetic intensity distribution, wherein the second arrangement comprises an optical element having a configuration to provide i) a transverse resolution of the resultant electro-magnetic intensity distribution that is less than or equal to 5 μm, and ii) a depth of focus of at least 50 μm; wherein the optical element is configured to generate the resultant electro-magnetic intensity distribution as at least one of (i) an axial line focus, or (ii) a multitude of focused spots along a longitudinal dimension parallel to the optical axis. a first interferometric arrangement configured to provide an electro-magnetic radiation; and a second arrangement configured to receive the electro-magnetic radiation, and configured to generate a resultant electro-magnetic intensity distribution, wherein the second arrangement comprises an optical element having a configuration to provide i) a transverse resolution of the resultant electro-magnetic intensity distribution that is less than or equal to 5 μm, and ii) a depth of focus of at least 50 μm; i) a transverse resolution of the resultant electro-magnetic intensity distribution that is less than or equal to 5 μm, and ii) a depth of focus of at least 50 μm; wherein the optical element is configured to generate the resultant electro-magnetic intensity distribution as at least one of (i) an axial line focus, or (ii) a multitude of focused spots along a longitudinal dimension parallel to the optical axis.
An optical apparatus using multi-wavelength light, the optical apparatus comprising: a substrate; a light emitting array disposed on the substrate, and comprising a plurality of light emitting devices emitting a plurality of lights having different wavelengths; and a controller configured to control the light emitting array; wherein an interval between central wavelengths of at least two among the plurality of lights emitted by at least two among the plurality of light emitting devices that are adjacent to each other in the light emitting array is greater than a wavelength bandwidth of each light from among the plurality of lights, characterized in that the controller is configured to control the light emitting array such that each light among the plurality of lights is modulated light having a different waveform and a different wavelength from each other and the plurality of lights being emitted simultaneously, and the interval is greater than or equal to 0.5 nm and less than or equal to 30 nm. a substrate; a light emitting array disposed on the substrate, and comprising a plurality of light emitting devices emitting a plurality of lights having different wavelengths; and a controller configured to control the light emitting array; wherein an interval between central wavelengths of at least two among the plurality of lights emitted by at least two among the plurality of light emitting devices that are adjacent to each other in the light emitting array is greater than a wavelength bandwidth of each light from among the plurality of lights, characterized in that the controller is configured to control the light emitting array such that each light among the plurality of lights is modulated light having a different waveform and a different wavelength from each other and the plurality of lights being emitted simultaneously, and the interval is greater than or equal to 0.5 nm and less than or equal to 30 nm.
A sliding member comprising: a base material having a resin-coated surface, the resin-coated surface comprising a surface of the base material and a resin coating applied to the surface of the base material, wherein the resin-coated surface includes a plurality of grooves and a plurality of planar protrusions, surfaces of the plurality of planar protrusions constitute a sliding surface of the base material, the plurality of grooves are discharge grooves for discharging wear particles of the resin coating, the planar protrusions having corners where two discharge grooves meet when viewed from a direction perpendicular to the sliding surface, and characterized in that each of the corners being chamfered to a rounded shape, and in that a radius of chamfer of the rounded shape is greater than 0.2 mm. a base material having a resin-coated surface, the resin-coated surface comprising a surface of the base material and a resin coating applied to the surface of the base material, wherein the resin-coated surface includes a plurality of grooves and a plurality of planar protrusions, surfaces of the plurality of planar protrusions constitute a sliding surface of the base material, the plurality of grooves are discharge grooves for discharging wear particles of the resin coating, the planar protrusions having corners where two discharge grooves meet when viewed from a direction perpendicular to the sliding surface, and characterized in that each of the corners being chamfered to a rounded shape, and in that a radius of chamfer of the rounded shape is greater than 0.2 mm.
A drug delivery composition, characterized in that the composition comprises cellulose nanofibers and/or derivatives thereof, wherein the cellulose nanofibers and/or derivatives thereof are in the form of a hydrogel and said cellulose nanofibers are obtained by mechanical disintegration, and drug or medicament.
A method for identifying a one- or two-dimensional barcode in input image data, the method comprising the steps of: - obtaining first image data of a first image of an object, said first image being acquired from said object using a first illumination wavelength; - obtaining second image data of a second image of said object, said second image being acquired from said object using a second illumination wavelength being different from said first illumination wavelength; - calculating a weighting factor based on a statistical processing of pixel values of the first image data and pixel values of the second image data; and - generating third image data by calculating a weighted combination using the pixel values of said first image data, the pixel values of said second image data, and said weighting factor. - obtaining first image data of a first image of an object, said first image being acquired from said object using a first illumination wavelength; - obtaining second image data of a second image of said object, said second image being acquired from said object using a second illumination wavelength being different from said first illumination wavelength; - calculating a weighting factor based on a statistical processing of pixel values of the first image data and pixel values of the second image data; and - generating third image data by calculating a weighted combination using the pixel values of said first image data, the pixel values of said second image data, and said weighting factor.
A core/shell polymer material suitable for powder-based three-dimensional printing, comprising: at least one amorphous polymer as a core particle; at least one semicrystalline polymer as a shell material surrounding the core particle; wherein the semicrystalline polymer surrounding the core particle has a higher transition glass temperature (Tg) than the at least one amorphous polymer core; wherein when the shell is heated above the Tg of the shell material, the core particle, which is already in its liquid phase, diffuses into the shell; and wherein the transition glass temperature (Tg) of the shell material will lower due to alloying with the at least one amorphous polymer core particle; wherein the at least one amorphous polymer as the core particle is selected from the group consisting at least one of acrylonitrile butadiene styrene, acrylonitrile styrene acrylate, polymethyl methacrylate (PMMA), styrene acrylonitrile resin, polyethylenimine, polycarbonate, polyphenylene oxide, polyethylene terephthalate glycol (PETG), and polyethersulfone; and wherein the at least one semicrystalline polymer as a shell material surrounding the core particle is selected from the group consisting at least one of polyetherether ketone (PEEK), Nylon 6, Nylon 6,10, Nylon 6,6, polyethylene terephthalate, and polyphenylene sulfide. at least one amorphous polymer as a core particle; at least one semicrystalline polymer as a shell material surrounding the core particle; wherein the semicrystalline polymer surrounding the core particle has a higher transition glass temperature (Tg) than the at least one amorphous polymer core; wherein when the shell is heated above the Tg of the shell material, the core particle, which is already in its liquid phase, diffuses into the shell; and wherein the transition glass temperature (Tg) of the shell material will lower due to alloying with the at least one amorphous polymer core particle; wherein the at least one amorphous polymer as the core particle is selected from the group consisting at least one of acrylonitrile butadiene styrene, acrylonitrile styrene acrylate, polymethyl methacrylate (PMMA), styrene acrylonitrile resin, polyethylenimine, polycarbonate, polyphenylene oxide, polyethylene terephthalate glycol (PETG), and polyethersulfone; and wherein the at least one semicrystalline polymer as a shell material surrounding the core particle is selected from the group consisting at least one of polyetherether ketone (PEEK), Nylon 6, Nylon 6,10, Nylon 6,6, polyethylene terephthalate, and polyphenylene sulfide.
A power generation unit comprising: a power generation module configured to generate electric power using fuel; a supply unit configured to supply fuel to the power generation module; a power converter configured to convert DC power supplied by the power generation module into AC power; and a controller configured to control the supply unit or the power converter so that an output power supplied to a load with fluctuating power consumption becomes greater than the power consumption of the load by a predetermined margin, characterized in that, the controller is configured to control the supply unit or the power converter so that when the output power supplied from the power generation unit to the load is less than a value yielded by addition of the predetermined margin to the power consumption, and an increase rate of the power consumption exceeds a constant prescribed value, the output power increases by the constant prescribed value until the output power reaches the value yielded by addition of the predetermined margin to the power consumption. a power generation module configured to generate electric power using fuel; a supply unit configured to supply fuel to the power generation module; a power converter configured to convert DC power supplied by the power generation module into AC power; and a controller configured to control the supply unit or the power converter so that an output power supplied to a load with fluctuating power consumption becomes greater than the power consumption of the load by a predetermined margin, characterized in that, the controller is configured to control the supply unit or the power converter so that when the output power supplied from the power generation unit to the load is less than a value yielded by addition of the predetermined margin to the power consumption, and an increase rate of the power consumption exceeds a constant prescribed value, the output power increases by the constant prescribed value until the output power reaches the value yielded by addition of the predetermined margin to the power consumption.
Method for reconditioning a damaged thread of a transmission of a hover-capable aircraft; said damaged thread being arranged inside a first hole of said transmission; said method comprising the following steps: i) centering a tool on said first hole; ii) inserting a first tool inside said tool centred on said first hole and removing the damaged thread by means of said first tool; iii) inserting a second tool inside said tool and creating a new thread inside said first hole having a diameter larger than the one of said damaged thread; and iv) screwing an insert having a thread inside said new thread, so that said insert engages said first hole and defines a reconditioned thread; said step i) comprising the following steps: v) inserting a pin inside said tool and inside said first hole; and viii) removing the pin; characterized in that said step i) comprises the steps of: vi) screwing said pin onto a further thread of said tool; and vii) arranging said pin in abutment against an abutment surface of said tool; said method being further characterized by comprising the step of: ix) keeping said transmission mounted on the hover-capable aircraft during said steps i), ii), iii), iv). i) centering a tool on said first hole; ii) inserting a first tool inside said tool centred on said first hole and removing the damaged thread by means of said first tool; iii) inserting a second tool inside said tool and creating a new thread inside said first hole having a diameter larger than the one of said damaged thread; and iv) screwing an insert having a thread inside said new thread, so that said insert engages said first hole and defines a reconditioned thread; said step i) comprising the following steps: v) inserting a pin inside said tool and inside said first hole; and viii) removing the pin; vi) screwing said pin onto a further thread of said tool; and vii) arranging said pin in abutment against an abutment surface of said tool;
A device comprising a processing unit (150, 1150, 1250) for measuring and controlling a rotary-driven tool, and a light barrier arrangement connected to the processing unit, which comprises a light-transmitting unit and a light-receiving unit, wherein the processing unit is configured to receive signals that are at least approximately proportional to shading generated by the rotary-driven tool and/or by at least one cutting edge of the rotary-driven tool at a first measuring position; wherein the processing unit (150, 1150, 1250) is configured to evaluate the received signals and to transmit control signals to the light barrier arrangement, wherein the processing unit (150, 1150, 1250) is arranged for evaluating the received signals to perform the following steps: - repeatedly determining a useful signal component of the received signal; - superimposing the repeatedly determined useful signal components; - applying a block filter to the superimposed useful signal components and determining a representative value for the useful signal components based on the superimposed useful signal components; - providing information about the previously determined representative value for useful signal components to a numerical control of a machine tool; - determining a shape and/or a length and/or a number of cutting edges of the rotary-driven tool based on the representative value for the useful signal components and/or determining a shape and/or a length of the at least one cutting edge based on the representative value for the useful signal components; - providing information about the previously determined shape and/or length and/or the number of cutting edges of the rotary-driven tool to the numerical control of the machine tool and/or provision of information about the previously determined shape and/or length of the at least one cutting edge to the numerical control of the machine tool. - repeatedly determining a useful signal component of the received signal; - superimposing the repeatedly determined useful signal components; - applying a block filter to the superimposed useful signal components and determining a representative value for the useful signal components based on the superimposed useful signal components; - providing information about the previously determined representative value for useful signal components to a numerical control of a machine tool; - determining a shape and/or a length and/or a number of cutting edges of the rotary-driven tool based on the representative value for the useful signal components and/or determining a shape and/or a length of the at least one cutting edge based on the representative value for the useful signal components; - providing information about the previously determined shape and/or length and/or the number of cutting edges of the rotary-driven tool to the numerical control of the machine tool and/or provision of information about the previously determined shape and/or length of the at least one cutting edge to the numerical control of the machine tool.
An earth working machine, for example a road milling machine or a surface miner, having - a machine frame; - a milling unit that is carried on the machine frame and encompasses a milling tool and a milling tool housing that shields the milling tool with respect to the external environment of the earth working machine; and - a receiving conveying device that is operationally embodied to convey earth material, removed by the milling tool, away from the milling unit; wherein the receiving conveying device, both in an operationally ready operating state and in a non-operationally-ready installation state, is supported on the earth working machine movably relative to the machine frame; wherein in the operating state of the receiving conveying device, a portion of the receiving conveying device which is located closer to the milling tool is coupled by means of a first motion coupling for motion together with a part of the milling tool housing which is movable relative to the machine frame; wherein, in order to establish the installation state: i) the first motion coupling is disengageable, and ii) the earth working machine comprises a suspension means, by which the portion of the receiving conveying device which is located closer to the milling tool is swingably suspendable on the machine frame, characterized in that the earth working machine comprises a second motion coupling, being different from the first one, said second motion coupling comprising pulling means and/or pushing means couplable to the receiving conveying device as well as to a component arrangement (24, 46) of the earth working machine, which is drivable to move relative to the machine frame, by which the receiving conveying device, in addition to the swingable suspension at the machine frame is couplable to the component arrangement (24, 46) in such a way that a driven motion of the component arrangement (24, 46), from an initial position into a final position different therefrom, brings about a displacement of the swingably suspended receiving conveying device away from the milling unit. - a machine frame; - a milling unit that is carried on the machine frame and encompasses a milling tool and a milling tool housing that shields the milling tool with respect to the external environment of the earth working machine; and - a receiving conveying device that is operationally embodied to convey earth material, removed by the milling tool, away from the milling unit; i) the first motion coupling is disengageable, and ii) the earth working machine comprises a suspension means, by which the portion of the receiving conveying device which is located closer to the milling tool is swingably suspendable on the machine frame,