mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a network node to provide secondary cell, sCell, selection, in a carrier aggregation scheme, the method comprising: collecting statistics indicative of correlation between one or more source cells and one or more successful and/or non-successful sCells configured to be respectively aggregated with each of the one or more source cells, for wireless devices connected to the one or more source cells; and performing the sCell selection based on the statistics without obtaining a signal quality measurement of the selected sCell, for one or more wireless devices for carrier aggregation, wherein performing the sCell selection comprises: selecting a carrier frequency from a plurality of carrier frequencies based on the statistics, the selected carrier frequency having a best possibility of successful sCell selection for a wireless device of the one or more wireless devices; selecting a candidate sCell from a plurality of candidate sCells for the selected carrier frequency based on the statistics, the selected candidate sCell having a best possibility of being a successful sCell for the wireless device; and configuring the candidate sCell as an sCell of the wireless device. collecting statistics indicative of correlation between one or more source cells and one or more successful and/or non-successful sCells configured to be respectively aggregated with each of the one or more source cells, for wireless devices connected to the one or more source cells; and performing the sCell selection based on the statistics without obtaining a signal quality measurement of the selected sCell, for one or more wireless devices for carrier aggregation, wherein performing the sCell selection comprises: selecting a carrier frequency from a plurality of carrier frequencies based on the statistics, the selected carrier frequency having a best possibility of successful sCell selection for a wireless device of the one or more wireless devices; selecting a candidate sCell from a plurality of candidate sCells for the selected carrier frequency based on the statistics, the selected candidate sCell having a best possibility of being a successful sCell for the wireless device; and configuring the candidate sCell as an sCell of the wireless device. selecting a carrier frequency from a plurality of carrier frequencies based on the statistics, the selected carrier frequency having a best possibility of successful sCell selection for a wireless device of the one or more wireless devices; selecting a candidate sCell from a plurality of candidate sCells for the selected carrier frequency based on the statistics, the selected candidate sCell having a best possibility of being a successful sCell for the wireless device; and configuring the candidate sCell as an sCell of the wireless device.
Arrangement having an engine, a gearbox, a gearbox control unit and an auxiliary consumer; wherein the engine is rotationally connected to the gearbox and the auxiliary consumer; wherein the gearbox control unit is designed to determine a torque applied to the gearbox using a parameterizable function; wherein the function maps rotational speeds of the engine to a torque applied to the auxiliary consumer at the respective rotational speed, characterized in that the arrangement has a further control unit; wherein the further control unit is designed to determine the torque applied to the auxiliary consumer and to transmit this periodically to the gearbox control unit; wherein the gearbox control unit is designed to determine the torque applied to the gearbox using the function when the transmission of the torque applied to the auxiliary consumer does not occur. the engine is rotationally connected to the gearbox and the auxiliary consumer; wherein the gearbox control unit is designed to determine a torque applied to the gearbox using a parameterizable function; wherein the function maps rotational speeds of the engine to a torque applied to the auxiliary consumer at the respective rotational speed, characterized in that the arrangement has a further control unit; wherein the further control unit is designed to determine the torque applied to the auxiliary consumer and to transmit this periodically to the gearbox control unit; wherein the gearbox control unit is designed to determine the torque applied to the gearbox using the function when the transmission of the torque applied to the auxiliary consumer does not occur.
Rim for an at least partially muscle-powered mountain bike comprising a rim body having a rim well, a rim base and two lateral rim flanks (5, 6) and a hollow space device with a hollow space, wherein the hollow space device of the rim body is radially outwardly limited by the rim well and laterally and radially inwardly, by an inner enclosing wall comprising the rim base and/or the rim flanks (5, 6), wherein a width of the rim body is larger than 30 mm, characterized in that the radially inwardly enclosing wall forms an internal wall that is substantially closed, apart from the nipple accommodations, and that the rim well comprises a plurality of recesses (10, 11) having a surface proportion of at least 10% of a surface of the rim well.
Motor vehicle chassis comprising two side skirt lateral flanks comprising a horizontal portion for attachment to a raised central floor situated between the two side skirt lateral flanks and comprising a horizontal main surface and horizontal lateral surfaces for fixing to said horizontal portions of the side skirt lateral flanks, at least one horizontal beam on which to mount seats and mounted on the horizontal main surface of the central floor of the vehicle, and a housing for a reserve of energy situated under said horizontal main surface of the central floor, the horizontal portions of the side skirt and the main surface of the central floor exhibiting a height difference, characterized in that it comprises connecting elements designed to connect the horizontal beams and the side skirt lateral flanks, positioned on each side of the chassis and comprising a flat portion fixed to one of said horizontal lateral surfaces of the central floor and an inclined portion fixed to one end of the horizontal beam, said inclined portion and flat portion being joined together and made as a single bent component, and the connecting element being fixed to the horizontal beam and to the central floor respectively, using welding.
Method for heating a process exhaust gas of a pyrolysis process, in which the process exhaust gas is passed through a combustion chamber, in which heat is generated by combustion of at least one fuel, characterized in that the combustion chamber is designed as an extension of an exhaust gas duct, in that multiple burners are provided, arranged uniformly around an axis defined by the direction of flow of the process exhaust gas in the combustion chamber, wherein heavy oil or heating oil, methane, ethane, butane, propane and/or natural gas and/or corresponding mixtures with an oxygen-rich gas mixture that has an oxygen content of at least 25 percent by volume are burned as the at least one fuel.
A method of mounting an LED chip to a dielectric substrate by way of a metallic bond, said method comprising steps of: forming a metal ground layer on a top surface of said dielectric substrate; forming a first metal layer of an eutectic alloy on a bottom surface of said LED chip; providing a second metal layer to the top surface of said metal ground layer, said second metal layer having the same metal components as said first metal layer; heating said dielectric substrate at its bottom surface remote from said metal ground layer to melt said second metal layer, subsequently bonding said first metal layer with said second metal layer, wherein said second metal layer is formed of an eutectic alloy having the same metal components as said first metal layer, and wherein said first metal layer has a metal composition ratio different from that of said second metal layer, and a melting point lower than said second metal layer. forming a metal ground layer on a top surface of said dielectric substrate; forming a first metal layer of an eutectic alloy on a bottom surface of said LED chip; providing a second metal layer to the top surface of said metal ground layer, said second metal layer having the same metal components as said first metal layer; heating said dielectric substrate at its bottom surface remote from said metal ground layer to melt said second metal layer, subsequently bonding said first metal layer with said second metal layer, wherein said second metal layer is formed of an eutectic alloy having the same metal components as said first metal layer, and wherein said first metal layer has a metal composition ratio different from that of said second metal layer, and a melting point lower than said second metal layer.
A method comprising: moving an aerial drone comprising a sensor device along a first path relative to a first structure, the first path being identified based on engineering data identifying a plurality of structural dimensions of the first structure; generating a first plurality of measurements along the first path, the first plurality of measurements being associated with a first plurality of measurement points along the first path, the first plurality of measurements identifying at least one structural dimension of a first surface of the first structure; identifying a position of the aerial drone at each measurement point of the plurality of measurement points via a tracking device of a base device communicatively coupled to the aerial drone; receiving at the base device the first plurality of measurements from the sensor device; generating measurement data based on the first plurality of measurements, the measurement data being generated by the base device; and determining at least one shim dimension associated with the first surface of the first structure based on the measurement data. moving an aerial drone comprising a sensor device along a first path relative to a first structure, the first path being identified based on engineering data identifying a plurality of structural dimensions of the first structure; generating a first plurality of measurements along the first path, the first plurality of measurements being associated with a first plurality of measurement points along the first path, the first plurality of measurements identifying at least one structural dimension of a first surface of the first structure; identifying a position of the aerial drone at each measurement point of the plurality of measurement points via a tracking device of a base device communicatively coupled to the aerial drone; receiving at the base device the first plurality of measurements from the sensor device; generating measurement data based on the first plurality of measurements, the measurement data being generated by the base device; and determining at least one shim dimension associated with the first surface of the first structure based on the measurement data.
An outboard motor comprising an engine, a crankshaft, a first propeller, a second propeller and a power transmission device, wherein the power transmission device comprises a first drive shaft, a second drive shaft, a first endless loop flexible drive coupling, a second endless loop flexible drive coupling, a first propeller shaft and a second propeller shaft, wherein the first propeller shaft is connected to the first drive shaft through the first endless loop flexible drive coupling to rotate the first propeller shaft in a first direction, and wherein the second propeller shaft is connected to the second drive shaft through the second endless loop flexible drive coupling to rotate the second propeller shaft in a second direction opposite to the first direction, and wherein a power transfer device connects the crankshaft to the first drive shaft for transferring output power from the crankshaft to the first drive shaft, so that output power from the crankshaft is transferred to the first and second propeller shafts though the first and second endless loop flexible drive couplings, the first and second drive shafts and the power transfer device, wherein the drive shafts (27a, 27b) are arranged in parallel to the crankshaft and the propeller shafts (29a, 29b), and wherein the crankshaft, the drive shafts (27a, 27b) and the propeller shafts (29a, 29b) are arranged in a fixed configuration in relation to each other, the first and second endless loop flexible drive couplings (28a, 28b) are arranged as toothed belts, and the outboard motor includes a gearbox with a transmission drive shaft and a forward gear and a reverse gear, wherein the first and second drive shafts (27a, 27b) are operable by means of power from the crankshaft in forward gear and in reverse gear, and wherein the transmission drive shaft is arranged below and in parallel to the crankshaft when the outboard motor is in the operative position.
A device for monitoring motion, comprising: a) an optoelectronic sensor, b) a plurality of lights (403, 404, 405), configured for simultaneous emission with each other, wherein each of said plurality of lights is configured for emitting a light beam of adjustable power output in a wavelength different from other lights of said plurality; and c) a lighting control circuit configured to receive output from said optoelectronic sensor and to use said output to independently adjust the power of each said light beam; wherein said optoelectronic sensor is formed by a plurality of pixels, wherein each pixel of said plurality of pixels is made sensitive to a different wavelength capable of being emitted by said plurality of lights or of being reflected by a target illuminated by said plurality of lights; wherein said sensitivity is produced by placement over said plurality of pixels a filter array capable of selectively passing only designated light frequencies to said pixels or by manipulating a doping profile of said pixel array elements or by engineering the band-gap structure of pixel array elements or by optimizing the array geometry for sensitivity to selected wavelengths; and wherein said device is configured to evaluate a variation in a signal derived from different colored sub-images produced by said plurality of pixels when a power output from at least one light beam is independently adjusted by said lighting control circuit such that at least one of said different colored sub-images has an enhanced dynamic range; and a relative movement between said device and a surface being simultaneously illuminated by said plurality of lights is determined by evaluation of variations of signals from said pixels produced by the combined effects of said surface on said adjusted combinations of individual wavelengths of light that are reflected from the surface and impinge on said pixels. a) an optoelectronic sensor, b) a plurality of lights (403, 404, 405), configured for simultaneous emission with each other, wherein each of said plurality of lights is configured for emitting a light beam of adjustable power output in a wavelength different from other lights of said plurality; and c) a lighting control circuit configured to receive output from said optoelectronic sensor and to use said output to independently adjust the power of each said light beam; wherein
High-pressure cleaner comprising a support frame and a housing part, wherein a switch is fastened so as to be non-displaceable on the support frame, wherein the high-pressure cleaner has at least two elements (12, 13), specifically at least one second element and one third element, wherein the housing part has a first opening for the switch, a second opening for the second element, and a third opening for the third element, wherein the second element and the third element are disposed so as to be non-displaceable on a common support, wherein the support is disposed between the support frame and the housing part, characterized in that the high-pressure cleaner has a positioning device for positioning the support relative to the switch.
A method for providing a search service in a display apparatus, the method, comprising: displaying a content including at least one object on a screen of the display apparatus; receiving a user input to select the at least one object in the content displayed on the screen; displaying information on the selected object on a portion of the screen; receiving information on a moving path of a user terminal from the user terminal; wherein the information on the moving path is generated by a location information unit included in the user terminal; and providing location information for a location among a plurality of locations corresponding to the selected object, the location being nearest to the moving path of the user terminal, to the user terminal wherein the path information includes at least one of information regarding a path used by the user terminal for a time period and information regarding a path used by the user terminal more than a number of times. displaying a content including at least one object on a screen of the display apparatus; receiving a user input to select the at least one object in the content displayed on the screen; displaying information on the selected object on a portion of the screen; receiving information on a moving path of a user terminal from the user terminal; wherein the information on the moving path is generated by a location information unit included in the user terminal; and providing location information for a location among a plurality of locations corresponding to the selected object, the location being nearest to the moving path of the user terminal, to the user terminal wherein the path information includes at least one of information regarding a path used by the user terminal for a time period and information regarding a path used by the user terminal more than a number of times.
A receiving system for waste, in particular for compressible waste, in particular for paper waste, comprising a receiving container with side walls (21, 22, 23, 24) and a bottom part, and at least one compression element, wherein the receiving container and the compression element have holding elements (210a-210h; 31-34) for holding the compression element at side walls (21, 22, 23, 24) of the receiving container at a certain height (H1, H2, H3, H4) in such a way that the compression element can be fixed against the upwardly directed force exerted by the container contents compressed below the compression element, characterized in that the receiving container and/or the compression element are made of cardboard or paperboard. the receiving container and the compression element have holding elements (210a-210h; 31-34) for holding the compression element at side walls (21, 22, 23, 24) of the receiving container at a certain height (H1, H2, H3, H4) in such a way that the compression element can be fixed against the upwardly directed force exerted by the container contents compressed below the compression element, characterized in that the receiving container and/or the compression element are made of cardboard or paperboard.
A decorative plate for a washing machine, comprising a plate body provided with fasteners on its back surface opposite to its decorative surface, wherein, each of the fasteners comprises a double-side fastener including a fastening stub that projects outwardly from the back surface and has opposite protruding hooks that are formed on opposite sides of the fastening stub and protrude outwardly from the respective sides; characterized by comprising: the front side surfaces of the protruding hooks each form a slope surface, so that two opposite front side surfaces on the two sides form a splayed shape; a rear side surface of the protruding hook forms a slope surface, so that two opposite rear side surfaces on the two sides form an inverted splayed shape; the opposite protruding hooks are formed on a front end of the fastening stub; the front side surface and the rear side surface of each protruding hook are connected via a convex arc surface; and a front end face of the fastening stub forms a convex arc surface and connects the two opposite front side surfaces on the two sides in an arc form. the front side surfaces of the protruding hooks each form a slope surface, so that two opposite front side surfaces on the two sides form a splayed shape; a rear side surface of the protruding hook forms a slope surface, so that two opposite rear side surfaces on the two sides form an inverted splayed shape; the opposite protruding hooks are formed on a front end of the fastening stub; the front side surface and the rear side surface of each protruding hook are connected via a convex arc surface; and a front end face of the fastening stub forms a convex arc surface and connects the two opposite front side surfaces on the two sides in an arc form.
An integrated laser wire additive deposition head, the deposition head comprising: a structural frame; a laser process sub-system, including a laser focusing device, mounted within the frame and configured to deliver a single beam path laser beam in a longitudinally-oriented direction toward a substrate or a part to be additively manufactured; and a wire feeding device mounted within the frame and configured to feed a consumable filler wire toward the substrate or the part, wherein the deposition head is configured to be moved omni-directionally with respect to the substrate or part under guidance of a motion control system, to additively manufacture the part, without having to: angularly change an orientation of the single beam path laser beam from the longitudinally-oriented direction, or rotate the deposition head; characterized in that the integrated laser wire additive deposition head is an integrated laser hotwire additive deposition head and comprises a contact tube for resistance heating the consumable filler wire; and in that the wire feeding device and the contact tube are configured to feed the consumable filler wire towards the substrate or the part at an angle of between 1° and 30° with respect to the longitudinally-oriented direction. a structural frame; a laser process sub-system, including a laser focusing device, mounted within the frame and configured to deliver a single beam path laser beam in a longitudinally-oriented direction toward a substrate or a part to be additively manufactured; and a wire feeding device mounted within the frame and configured to feed a consumable filler wire toward the substrate or the part, wherein the deposition head is configured to be moved omni-directionally with respect to the substrate or part under guidance of a motion control system, to additively manufacture the part, without having to: angularly change an orientation of the single beam path laser beam from the longitudinally-oriented direction, or rotate the deposition head; characterized in that the integrated laser wire additive deposition head is an integrated laser hotwire additive deposition head and comprises a contact tube for resistance heating the consumable filler wire; and in that the wire feeding device and the contact tube are configured to feed the consumable filler wire towards the substrate or the part at an angle of between 1° and 30° with respect to the longitudinally-oriented direction. angularly change an orientation of the single beam path laser beam from the longitudinally-oriented direction, or rotate the deposition head; characterized in that the integrated laser wire additive deposition head is an integrated laser hotwire additive deposition head and comprises a contact tube for resistance heating the consumable filler wire; and