mhurhangee/ep-ind-claims huggingface dataset:
Method for assessing the quality of a component produced by means of a generative laser sintering and/or laser melting process, in particular a component for an aircraft engine, comprising the following steps: - providing a first data set comprising spatially resolved color values, each of which characterizes the temperature of the component at an associated component location during the laser sintering and/or laser melting of the component; - providing a second data set comprising spatially resolved color values that correspond to the first data set and each of which characterizes the temperature of a reference component at an associated reference component location during the laser sintering and/or laser melting of the reference component; - determining a difference between the first data set and the second data set; and - assessing the quality of the component on the basis of the difference between the first data set and the second data set. - providing a first data set comprising spatially resolved color values, each of which characterizes the temperature of the component at an associated component location during the laser sintering and/or laser melting of the component; - providing a second data set comprising spatially resolved color values that correspond to the first data set and each of which characterizes the temperature of a reference component at an associated reference component location during the laser sintering and/or laser melting of the reference component; - determining a difference between the first data set and the second data set; and - assessing the quality of the component on the basis of the difference between the first data set and the second data set.
A light source, comprising: a first LED (2u, 2w) and a second LED (2u, 2w) that are disposed in parallel, one of the first LED (2u, 2w) and the second LED (2u, 2w) emitting ultraviolet light, the second LED (2u, 2w) having a light emission spectrum different from that of the first LED (2u, 2w); a reflection surface that is opposite to the first LED (2u, 2w), and reflects light of the first LED (2u, 2w); a dichroic surface that is opposite to the second LED (2u,2w), reflects light of the first LED (2u, 2w), and allows light of the second LED (2u, 2w) to penetrate; characterized by a light shielding unit that is disposed on a side of the first LED (2u, 2w) or the second LED (2u, 2w) of the reflection surface and the dichroic surface and shields the ultraviolet light emitted from the one of the first LED (2u, 2w) and the second LED (2u, 2w) from reaching the other LED (2u, 2w) having a light emission spectrum different from ultraviolet light, wherein the light shielding unit is opposite to a light emission surface (2wpu,2ucu) of the first LED (2u, 2w) or the second LED (2u, 2w). a first LED (2u, 2w) and a second LED (2u, 2w) that are disposed in parallel, one of the first LED (2u, 2w) and the second LED (2u, 2w) emitting ultraviolet light, the second LED (2u, 2w) having a light emission spectrum different from that of the first LED (2u, 2w); a reflection surface that is opposite to the first LED (2u, 2w), and reflects light of the first LED (2u, 2w); a dichroic surface that is opposite to the second LED (2u,2w), reflects light of the first LED (2u, 2w), and allows light of the second LED (2u, 2w) to penetrate; characterized by a light shielding unit that is disposed on a side of the first LED (2u, 2w) or the second LED (2u, 2w) of the reflection surface and the dichroic surface and shields the ultraviolet light emitted from the one of the first LED (2u, 2w) and the second LED (2u, 2w) from reaching the other LED (2u, 2w) having a light emission spectrum different from ultraviolet light, wherein the light shielding unit is opposite to a light emission surface (2wpu,2ucu) of the first LED (2u, 2w) or the second LED (2u, 2w).
A battery pack comprising: at least one battery module comprising a battery cell stack mounted in a module case and constituted by two or more stacked battery cells that can be charged and discharged; and a pack case for surrounding an outside of the battery module, wherein a refrigerant channel, along which a liquid refrigerant isolated from an inner space of the pack case can flow, is provided in a hollow space of the pack case, a cooling fin is interposed between the battery cells of the battery cell stack, and the cooling fin extends through the module case for heat conduction to the pack case, the cooling fin comprises a first fin member interposed between the battery cells and a second fin member extending from the first fin member, and characterized in that the pack case is provided with a first heat dissipation plate having a radiator structure formed at a contact surface of the pack case on which the second fin member thermally contacts the pack case, a second heat dissipation plate having a radiator structure for accelerating heat dissipation disposed at a portion of the outer surface of the pack case opposite to the contact surface of the pack case which the second fin member contacts, and a third heat dissipation plate having a radiator structure for accelerating heat exchange with a refrigerant disposed in the pack case. at least one battery module comprising a battery cell stack mounted in a module case and constituted by two or more stacked battery cells that can be charged and discharged; and a pack case for surrounding an outside of the battery module, a refrigerant channel, along which a liquid refrigerant isolated from an inner space of the pack case can flow, is provided in a hollow space of the pack case, a cooling fin is interposed between the battery cells of the battery cell stack, and the cooling fin extends through the module case for heat conduction to the pack case, the cooling fin comprises a first fin member interposed between the battery cells and a second fin member extending from the first fin member, and characterized in that the pack case is provided with a first heat dissipation plate having a radiator structure formed at a contact surface of the pack case on which the second fin member thermally contacts the pack case, a second heat dissipation plate having a radiator structure for accelerating heat dissipation disposed at a portion of the outer surface of the pack case opposite to the contact surface of the pack case which the second fin member contacts, and a third heat dissipation plate having a radiator structure for accelerating heat exchange with a refrigerant disposed in the pack case.
An imaging device including an imaging means that images a subject, a detection means that detects shake of the imaging means, and a pan and tilt driving means (1005, 1006) that rotates the imaging means in a panning direction and a tilting direction, the imaging device comprising: an imaging direction changing means configured to control the pan and tilt driving means (1005, 1006) such that an imaging direction of the imaging means is changed; and to control the pan and tilt driving means (1005, 1006) in accordance with a detection result of the detection means such that the detected shake is corrected; and an image processing means configured to perform image processing on a predetermined region of an image captured by the imaging means, characterized in that the image processing means determines a position of the predetermined region based on a first angle which is a rotational angle of the imaging means used to change the imaging direction and a second angle which is a shake correction rotational angle used to correct the detected shake. an imaging direction changing means configured to control the pan and tilt driving means (1005, 1006) such that an imaging direction of the imaging means is changed; and to control the pan and tilt driving means (1005, 1006) in accordance with a detection result of the detection means such that the detected shake is corrected; and control the pan and tilt driving means (1005, 1006) such that an imaging direction of the imaging means is changed; and to control the pan and tilt driving means (1005, 1006) in accordance with a detection result of the detection means such that the detected shake is corrected; and an image processing means configured to perform image processing on a predetermined region of an image captured by the imaging means, characterized in that the image processing means determines a position of the predetermined region based on a first angle which is a rotational angle of the imaging means used to change the imaging direction and a second angle which is a shake correction rotational angle used to correct the detected shake.
A method of nanostructuring a surface of a polymer material, the method comprising the steps of: (a) providing a solution comprising a polymer material, such as a polymer material comprising a polymer selected from the group consisting of poly-lactic co-glycolic acid (PLGA), polyurethane, polycaprolactone, poly-ether-ether-ketone (PEEK), polyethylene, polypropylene, polypyrrole, and polystyrene, wherein the polymer material is dissolved in an organic solvent; and (b) evaporating the solvent under vacuum, whereby the polymer material solidifies into a solid form comprising the polymer material, wherein a surface of the polymer material is nanostructured. (a) providing a solution comprising a polymer material, such as a polymer material comprising a polymer selected from the group consisting of poly-lactic co-glycolic acid (PLGA), polyurethane, polycaprolactone, poly-ether-ether-ketone (PEEK), polyethylene, polypropylene, polypyrrole, and polystyrene, wherein the polymer material is dissolved in an organic solvent; and (b) evaporating the solvent under vacuum, whereby the polymer material solidifies into a solid form comprising the polymer material, wherein a surface of the polymer material is nanostructured.
A method, in a network node, for security key generation for secured communications between a wireless terminal and an anchor base station and between the wireless terminal and an assisting base station, wherein the wireless terminal is or is about to be dually connected to the anchor base station and the assisting base station, the method comprising: generating an assisting security key for the assisting base station, based, at least in part, on an anchor base station key; sending, to the assisting base station, the generated assisting security key, for use by the assisting base station in encrypting data traffic sent to the wireless terminal or in generating one or more additional assisting security keys for encrypting data traffic sent to the wireless terminal by the assisting base station, wherein the data traffic is sent while the wireless terminal is dually connected to the anchor base station and the assisting base station; and using the anchor base station key, or a key derived from the anchor base station key, for encrypting data sent to the wireless terminal by the anchor base station while the wireless terminal is dually connected to the anchor base station and the assisting base station. generating an assisting security key for the assisting base station, based, at least in part, on an anchor base station key; sending, to the assisting base station, the generated assisting security key, for use by the assisting base station in encrypting data traffic sent to the wireless terminal or in generating one or more additional assisting security keys for encrypting data traffic sent to the wireless terminal by the assisting base station, wherein the data traffic is sent while the wireless terminal is dually connected to the anchor base station and the assisting base station; and using the anchor base station key, or a key derived from the anchor base station key, for encrypting data sent to the wireless terminal by the anchor base station while the wireless terminal is dually connected to the anchor base station and the assisting base station.
A method for separating a synthetic material in granular form from a loose mass of various synthetic materials identified in a triboelectric series, comprising following operations: - conveying the granular mass along a trajectory comprising a rubbing surface (503,901), wherein the rubbing surface is clad with, or made of,: a) a material chosen in the triboelectric series having triboelectric properties which are intermediate with respect to triboelectric properties of the granular mass; or b) a same material as a material which it is intended to separate from the granular mass; - subjecting the granular mass falling down from the rubbing surface (503,901) to an electrical field, - collecting at least one of the granular masses separated by the electrical field; characterized in that the activity of conveying the granular mass along a trajectory comprising the rubbing surface (503,901) comprises: - arranging the particles of the granular mass in a single layer into contact with the rubbing surface, while maintaining the single layer into contact with the rubbing surface; and - subjecting the rubbing surface (503,901) to repeated acceleration in opposite directions contained in the plane of the rubbing surface or tangential thereto, to move the granular mass on the rubbing surface in order to improve the electrostatic charge of the granular mass. - conveying the granular mass along a trajectory comprising a rubbing surface (503,901), wherein the rubbing surface is clad with, or made of,: a) a material chosen in the triboelectric series having triboelectric properties which are intermediate with respect to triboelectric properties of the granular mass; or b) a same material as a material which it is intended to separate from the granular mass; a) a material chosen in the triboelectric series having triboelectric properties which are intermediate with respect to triboelectric properties of the granular mass; or b) a same material as a material which it is intended to separate from the granular mass; - subjecting the granular mass falling down from the rubbing surface (503,901) to an electrical field, - collecting at least one of the granular masses separated by the electrical field; - arranging the particles of the granular mass in a single layer into contact with the rubbing surface, while maintaining the single layer into contact with the rubbing surface; and - subjecting the rubbing surface (503,901) to repeated acceleration in opposite directions contained in the plane of the rubbing surface or tangential thereto, to move the granular mass on the rubbing surface in order to improve the electrostatic charge of the granular mass.
An image processing apparatus comprising: an input unit for inputting an input signal; a frame memory for frame-delaying the input signal input by the input unit and outputting the input signal as a delayed input signal; a motion vector detector for detecting a motion vector between frames based on the input signal input by the input unit and the delayed input signal; a screen edge detector for detecting a pixel corresponding to a screen edge in the input signal input by the input unit; an interpolation frame generator for generating an interpolation frame from the input signal input by the input unit and the delayed input signal, based on motion vectors detected by the motion vector detector and pixels corresponding to the screen edge detected by the screen edge detector, and a black region detector for detecting a black region within an effective pixel region in the input signal input by the input unit, wherein when the black region detector detects a black region, the screen edge detector detects, as a pixel corresponding to a screen edge, a pixel located at an outermost edge of the screen inside with respect to the black region, and wherein when the motion vector detected by the motion vector detector points a pixel located outside with respect to the pixel corresponding to the screen edge detected by the screen edge detector, the interpolation frame generator generates the interpolation frame using the pixel corresponding to the screen edge. an input unit for inputting an input signal; a frame memory for frame-delaying the input signal input by the input unit and outputting the input signal as a delayed input signal; a motion vector detector for detecting a motion vector between frames based on the input signal input by the input unit and the delayed input signal; a screen edge detector for detecting a pixel corresponding to a screen edge in the input signal input by the input unit; an interpolation frame generator for generating an interpolation frame from the input signal input by the input unit and the delayed input signal, based on motion vectors detected by the motion vector detector and pixels corresponding to the screen edge detected by the screen edge detector, and a black region detector for detecting a black region within an effective pixel region in the input signal input by the input unit, wherein when the black region detector detects a black region, the screen edge detector detects, as a pixel corresponding to a screen edge, a pixel located at an outermost edge of the screen inside with respect to the black region, and wherein when the motion vector detected by the motion vector detector points a pixel located outside with respect to the pixel corresponding to the screen edge detected by the screen edge detector, the interpolation frame generator generates the interpolation frame using the pixel corresponding to the screen edge.
A use of accelerated electrons from at least one source for generating electron beams, characterized in that accelerated electrons of at least one tube emitter for generating an electron curtain are used as a source for generating electron beams for removing and/or damaging coating on and/or of fibres and/or filaments of two-dimensional textile structures or three-dimensional textile structures for better adhesion in reinforcing a composite material and a matrix of the composite material, wherein the tube emitter is arranged at a distance from the two-dimensional textile structure or the three-dimensional textile structure in such a way that accelerated electrons from the source for generating electron beams reach the surface of the two-dimensional textile structure or three-dimensional textile structure.
A protective device applicable to the vertical part of a fork of a lift and comprising: - An external layer configured to preserve from damage by impact/pressure fragile loads; - A magnetic layer for applying the device to said fork magnetically; - A stiffening layer interposed between the external layer and the magnetic layer; Characterized in that tangential constraint means (20, 21) are foreseen configured to result co-operating with at least a part of the relative fixing systems to fix the fork to the lift in such a way as to constraint said device tangentially to the application surface. - An external layer configured to preserve from damage by impact/pressure fragile loads; - A magnetic layer for applying the device to said fork magnetically; - A stiffening layer interposed between the external layer and the magnetic layer;
An oil distribution assembly (400, 500) for a gas turbine engine, comprising: an oil distributor (404, 504) mounted for rotation about a rotation axis (407, 507) of the assembly (400, 500) and comprising an internal volume (412, 512) having a plurality of channels (403, 503) extending along an inner radial surface of the oil distributor (404, 504); and an oil injector (401, 501) disposed arranged to direct a supply of oil (402, 502) to the plurality of channels (403, 503) in a direction having a component in a first direction along the rotation axis (407, 507); each of the plurality of channels is angled relative to the rotation axis (407, 507) such that a radial distance (410, 510) between each channel (403, 503) and the rotation axis (407, 507) increases along the rotation axis (407, 507); characterised in that the oil distributor (404, 504) is arranged to rotate around the oil injector (401, 501) and the oil injector (401, 501) is disposed within the internal volume of the oil distributor (404, 504). an oil distributor (404, 504) mounted for rotation about a rotation axis (407, 507) of the assembly (400, 500) and comprising an internal volume (412, 512) having a plurality of channels (403, 503) extending along an inner radial surface of the oil distributor (404, 504); and an oil injector (401, 501) disposed arranged to direct a supply of oil (402, 502) to the plurality of channels (403, 503) in a direction having a component in a first direction along the rotation axis (407, 507); each of the plurality of channels is angled relative to the rotation axis (407, 507) such that a radial distance (410, 510) between each channel (403, 503) and the rotation axis (407, 507) increases along the rotation axis (407, 507); characterised in that the oil distributor (404, 504) is arranged to rotate around the oil injector (401, 501) and the oil injector (401, 501) is disposed within the internal volume of the oil distributor (404, 504).
A filter for gaseous media, said filter comprising an electrostatic media formed from: (a) nano alumina fibers; and (b) second fibers comprised of a combination of coarse and fine fibers and mixed with said nano alumina fibers, said second fibers arranged to define a plurality of asymmetrical pores, said pores having an average pore size that is greater than about 10 μm, wherein said filter is electrostatically charged. (a) nano alumina fibers; and (b) second fibers comprised of a combination of coarse and fine fibers and mixed with said nano alumina fibers, said second fibers arranged to define a plurality of asymmetrical pores, said pores having an average pore size that is greater than about 10 μm, wherein said filter is electrostatically charged.
A sample transport system comprising: a plurality of processing units (1, 2, 3, 501∼505) each furnished with a processing section which performs processing on a testing sample, a conveyor line (11, 507) which transports carriers each carrying a testing sample to the processing units, and a wait buffer which allows the carriers to wait therein, characterised by a management section which holds information on the status of the sample transport system as a whole and sample information for transporting and controlling a plurality of carriers as a consecutive group, and which generates group information on a group of carriers to be handled simultaneously based on sample attributes and request information, wherein the wait buffer is located at a converging point upstream of the processing section, said processing units (1,2,3, 501-505) being adapted to control received carriers at the converging point based on the group information, wherein the samples respectively carried by the carriers and to be processed as a group are allowed to wait at the converging point and transported consecutively to the downstream processing section. a plurality of processing units (1, 2, 3, 501∼505) each furnished with a processing section which performs processing on a testing sample, a conveyor line (11, 507) which transports carriers each carrying a testing sample to the processing units, and a wait buffer which allows the carriers to wait therein, characterised by a management section which holds information on the status of the sample transport system as a whole and sample information for transporting and controlling a plurality of carriers as a consecutive group, and which generates group information on a group of carriers to be handled simultaneously based on sample attributes and request information, wherein the wait buffer is located at a converging point upstream of the processing section, said processing units (1,2,3, 501-505) being adapted to control received carriers at the converging point based on the group information, wherein the samples respectively carried by the carriers and to be processed as a group are allowed to wait at the converging point and transported consecutively to the downstream processing section.