mhurhangee/ep-ind-claims huggingface dataset:
A luggage storage system for commercial aircraft, the system comprising: a. a bin housing comprising: i. an aircraft frame attachment device, ii. a first bin end-wall on one longitudinal end of the bin housing, iii. a second end-wall on the longitudinally opposite end of the bin housing from the first bin end-wall, iv. an end-wall pivot on facing sides of the first and the second end-wall, v. a bin divider substantially parallel to each end-wall, vi. wherein the distance between the first bin end-wall and the bin divider is substantially less than the distance between the second bin end-wall and the bin divider, vii. a divider pivot on both longitudinal sides of the bin divider; b. a first luggage bucket extending from the first bin end-wall to the bin divider the first luggage bucket attached to corresponding end-wall pivot and corresponding divider pivot; and c. a second luggage bucket extending from the second bin end-wall to the bin divider, the second luggage bucket attached to corresponding end-wall pivot and corresponding divider pivot. a. a bin housing comprising: i. an aircraft frame attachment device, ii. a first bin end-wall on one longitudinal end of the bin housing, iii. a second end-wall on the longitudinally opposite end of the bin housing from the first bin end-wall, iv. an end-wall pivot on facing sides of the first and the second end-wall, v. a bin divider substantially parallel to each end-wall, vi. wherein the distance between the first bin end-wall and the bin divider is substantially less than the distance between the second bin end-wall and the bin divider, vii. a divider pivot on both longitudinal sides of the bin divider; i. an aircraft frame attachment device, ii. a first bin end-wall on one longitudinal end of the bin housing, iii. a second end-wall on the longitudinally opposite end of the bin housing from the first bin end-wall, iv. an end-wall pivot on facing sides of the first and the second end-wall, v. a bin divider substantially parallel to each end-wall, vi. wherein the distance between the first bin end-wall and the bin divider is substantially less than the distance between the second bin end-wall and the bin divider, vii. a divider pivot on both longitudinal sides of the bin divider; b. a first luggage bucket extending from the first bin end-wall to the bin divider the first luggage bucket attached to corresponding end-wall pivot and corresponding divider pivot; and c. a second luggage bucket extending from the second bin end-wall to the bin divider, the second luggage bucket attached to corresponding end-wall pivot and corresponding divider pivot.
A method of operating an apparatus to obtain ion energy distribution measurements in a plasma processing system comprising: providing a substrate for placement in the plasma processing system and exposure to the plasma, the substrate having an ion energy analyser disposed therein for measuring the ion energy distribution at the substrate surface during plasma processing, the analyser comprising a plurality of conductive grids, and a collection electrode, each grid separated by an insulating layer; providing a high voltage generating circuit (400, 500) within the substrate and configured to take the output voltage of a battery to power the high voltage generating circuit (400, 500) and apply a voltage to a first grid of the plurality of conductive grids; providing a high voltage switch configured to discharge the first grid to a floating ground of the apparatus, and a resistor in parallel with the high voltage switch; sampling ion current during a first stage while a first voltage is being charged on the first grid from the floating ground potential to a plateau voltage; and sampling ion current during a second stage while a second voltage applied to the first grid is discharging through the resistor from a predetermined voltage generated by the high voltage generating circuit (400, 500) to the plateau voltage. providing a substrate for placement in the plasma processing system and exposure to the plasma, the substrate having an ion energy analyser disposed therein for measuring the ion energy distribution at the substrate surface during plasma processing, the analyser comprising a plurality of conductive grids, and a collection electrode, each grid separated by an insulating layer; providing a high voltage generating circuit (400, 500) within the substrate and configured to take the output voltage of a battery to power the high voltage generating circuit (400, 500) and apply a voltage to a first grid of the plurality of conductive grids; providing a high voltage switch configured to discharge the first grid to a floating ground of the apparatus, and a resistor in parallel with the high voltage switch; sampling ion current during a first stage while a first voltage is being charged on the first grid from the floating ground potential to a plateau voltage; and sampling ion current during a second stage while a second voltage applied to the first grid is discharging through the resistor from a predetermined voltage generated by the high voltage generating circuit (400, 500) to the plateau voltage.
A gas analysis system comprising a plurality of gas analysis units (20, 30, 40) and a computer system, wherein the plurality of gas analysis units (20, 30, 40) are in fluid contact with a single gas sample, wherein the plurality of gas analysis units comprises a photoionisation device, PID, a chemical sensor array, and one or more ion mobility spectrometers, wherein the system is configured to: analyse, individually and in parallel, data produced by each of the gas analysis units (20, 30, 40), wherein the data is characteristic of an analyte, and combine, to identify the analyte, data from each of the gas analysis units (20, 30, 40), wherein combining the data comprises calculating a probability for fit of a response of the chemical sensor array with a library response corresponding to each of a plurality of candidate analytes, and at least one of: (i) predicting a PID response for said candidate analytes based on the response of the chemical sensor array, and calculating a probability for fit of each of the plurality of candidate analytes based on the predicted PID response and a measured PID response; (ii) predicting a response of the one or more ion mobility spectrometers for said candidate analytes based on the response of the chemical sensor array, and calculating a probability for fit of each of the plurality of candidate analytes based on the predicted response of the one or more ion mobility spectrometers and a measured response of the one or more ion mobility spectrometers. analyse, individually and in parallel, data produced by each of the gas analysis units (20, 30, 40), wherein the data is characteristic of an analyte, and combine, to identify the analyte, data from each of the gas analysis units (20, 30, 40), wherein combining the data comprises calculating a probability for fit of a response of the chemical sensor array with a library response corresponding to each of a plurality of candidate analytes, and at least one of: (i) predicting a PID response for said candidate analytes based on the response of the chemical sensor array, and calculating a probability for fit of each of the plurality of candidate analytes based on the predicted PID response and a measured PID response; (ii) predicting a response of the one or more ion mobility spectrometers for said candidate analytes based on the response of the chemical sensor array, and (i) predicting a PID response for said candidate analytes based on the response of the chemical sensor array, and calculating a probability for fit of each of the plurality of candidate analytes based on the predicted PID response and a measured PID response; (ii) predicting a response of the one or more ion mobility spectrometers for said candidate analytes based on the response of the chemical sensor array, and calculating a probability for fit of each of the plurality of candidate analytes based on the predicted response of the one or more ion mobility spectrometers and a measured response of the one or more ion mobility spectrometers.
A slide device, comprising: an upper rail to which a slide seat for a vehicle is attached; a slide rail to which the upper rail is slidably attached; a light emitter; and an attachment portion that attaches the light emitter to the upper rail, characterized in that the attachment portion is attached to the upper rail such that the light emitter is arranged outside the slide rail. an upper rail to which a slide seat for a vehicle is attached; a slide rail to which the upper rail is slidably attached; a light emitter; and an attachment portion that attaches the light emitter to the upper rail, characterized in that
A method for supplying inert gas into a poppet valve intermediate in which an object to be supplied with inert gas is a poppet valve intermediate having an internal space (Win) with an opening (W2o) on one axial end side, the poppet valve intermediate being arranged with the opening (W2o) on one axial end side facing upward, the inert gas being supplied from the opening (W2o) on one axial end side of the poppet valve intermediate before supplying a cooling medium metal into the internal space (Win) of the poppet valve intermediate, characterized in that after a negative pressure is achieved by suction in the internal space (Win) of the poppet valve intermediate as compared to an ambient pressure (Pa) of the poppet valve intermediate, the inert gas is supplied to the internal space (Win) until a pressure of the internal space (Win) reaches the ambient pressure (Pa) of the poppet valve intermediate.
A method for identifying an echo source on a voice transmission path of a telephone network on which voice communication data is transmitted, comprising: measuring a respective transmission delay amount required for a transmitted signal to come back from each portion of a plurality of portions (310A to 310D) of the voice transmission path, estimating a delay amount of an echo on the basis of monitoring transmission data transmitted to the voice transmission path and reception data received from the voice transmission path; and comparing the transmission delay amount of each of the plurality of portions (310A to 310D) with the delay amount of the echo to identify a portion of the voice transmission path in which an echo occurs. measuring a respective transmission delay amount required for a transmitted signal to come back from each portion of a plurality of portions (310A to 310D) of the voice transmission path, estimating a delay amount of an echo on the basis of monitoring transmission data transmitted to the voice transmission path and reception data received from the voice transmission path; and comparing the transmission delay amount of each of the plurality of portions (310A to 310D) with the delay amount of the echo to identify a portion of the voice transmission path in which an echo occurs.
Screw dowel to be screwed into an elastic material, which dowel has a head and an adjacent shank, which shank is furthermore provided with a thread that has two flank surfaces (20, 22), wherein the region of said shank which faces the head is provided with a screw receiving portion for receiving a screw to be inserted into the screw receiving portion, characterized in that part of the thread is provided with a retaining structure (26, 28) which rises from the flank surface in the axial direction of the screw dowel in contrast to at least one flank surface, which thread furthermore has at least one recess that extends radially from the crest of the thread toward the shank - recess depth - and that is associated with the retaining structure (26, 28) and limits the latter at least partially in an anti-reversing surface against the direction of rotation of the thread.
A trigger switch including two contacts (25a, 25b) that are used to supply power to a load, an anti-conduction portion arranged between the two contacts when the trigger switch is deactivated, wherein the anti-conduction portion is moved away from between the two contacts (25a, 25b) when the trigger switch is activated;the trigger switch is characterized by further comprising a trigger adapted to be pulled by a user, wherein the anti-conduction portion is moved away from between the two contacts (25a, 25b) when the trigger is pulled, wherein the anti-conduction portion is moved away from between the two contacts (25a, 25b) in the same direction as the pulling direction of the trigger.
A pincer for a stamping press with a transfer system, which comprises fastening arms (3a,3b) of a workpiece to be stamped and a support body equipped with an inner cavity that houses a fluid-dynamic cylinder, said cylinder being capable of actuating a first fastening arm of the pincer, which is attached articulated with said support body, wherein said first fastening arm is configured in such a way that it comprises one end equipped with at least one through-hole for a fastening tip for the workpiece and a nut-and-bolt set designed to affix said fastening tip at the top in the interior of the hole, the end opposite the first articulated arm comprising a slot which acts as a guide for an actuator bearing integrally attached with the rod of the cylinder that actuates said arm, characterized in that a portion of said support body defines a second fastening arm, such that said second fastening arm is built into the support body of the pincer.
A parking device for utility vehicles, referred to in short hereinafter as trucks, comprising a framework, preferably produced from steel girders, having horizontal framework girders and having multiple parking levels arranged one over another, which each have at least two parking spaces arranged adjacent to one another for one truck in each case, the parking places are suspended as horizontally and vertically movable trays within the framework, wherein the parking places are suspended via at least two traction chains, which are guided over deflection shafts arranged in the upper-side region of the parking device and are preferably designed as double-stranded, so that each of the trays is mounted so it is vertically adjustable via an electromotive and/or hydraulic drive in each case, and the trays are each provided at the two end faces thereof with support rollers protruding in the direction of the respective adjoining horizontal framework girder, which each rest on a horizontal rail guide of the horizontal framework girder in such a way that these trays are supported in a horizontally movable manner, characterized in that the trays are suspended within the framework so that the trays each rest on multiple, preferably on three horizontally pivotable lifting forks, so that each of the lifting forks is suspended via a traction chain, which is guided via one of the least two deflection shafts arranged in the upper-side region of the parking device and preferably designed as double-stranded, so that each of the trays is mounted so it is vertically adjustable preferably with at least one hydraulic cylinder interconnected in each case and a support roller drive mounted on an adjoining horizontal framework girder is associated with the trays for the horizontal movement of the trays with a coupling interconnected.
A light emitter, comprising: at least a first monolithic n-type layer; at least a first monolithic p-type layer; and at least a first electrically conductive via comprising insulating sidewalls defining a first isolation region, the monolithic n-type layer comprising at least a first n-type region, a second n-type region and a third n-type region, the monolithic p-type layer comprising at least a first p-type region, a second p-type region and a third p-type region, the first n-type region and the first p-type region together comprising a first light emitting device, the second n-type region and the second p-type region together comprising a second light emitting device, the third n-type region and the third p-type region together comprising a third light emitting device wherein: at least a first part of the first isolation region is both between the first n-type region and the second n-type region, and between the first p-type region and the second p-type region, the first electrically conductive via extends through the n-type layer and the p-type layer, the first electrically conductive via is electrically connected to the first monolithic p-type layer, and the first electrically conductive via is electrically connected to the first monolithic n-type layer through the p-type layer. at least a first monolithic n-type layer; at least a first monolithic p-type layer; and at least a first electrically conductive via comprising insulating sidewalls defining a first isolation region, the monolithic n-type layer comprising at least a first n-type region, a second n-type region and a third n-type region, the monolithic p-type layer comprising at least a first p-type region, a second p-type region and a third p-type region, the first n-type region and the first p-type region together comprising a first light emitting device, the second n-type region and the second p-type region together comprising a second light emitting device, the third n-type region and the third p-type region together comprising a third light emitting device wherein: at least a first part of the first isolation region is both between the first n-type region and the second n-type region, and between the first p-type region and the second p-type region, the first electrically conductive via extends through the n-type layer and the p-type layer, the first electrically conductive via is electrically connected to the first monolithic p-type layer, and the first electrically conductive via is electrically connected to the first monolithic n-type layer through the p-type layer. at least a first part of the first isolation region is both between the first n-type region and the second n-type region, and between the first p-type region and the second p-type region, the first electrically conductive via extends through the n-type layer and the p-type layer, the first electrically conductive via is electrically connected to the first monolithic p-type layer, and the first electrically conductive via is electrically connected to the first monolithic n-type layer through the p-type layer.
Finishing tool (100, 300, 400) for the finish-machining of a rotationally symmetrical workpiece portion of a workpiece which rotates about an axis of rotation of the workpiece during the finish-machining, having: an abrasive carrier (110, 310, 410), a cutting layer (120, 320, 420), which is fastened on the abrasive carrier and has a cutting surface (125, 325, 425), which is provided in order to be pressed onto the workpiece portion, with surface contact, during finish-machining, wherein the cutting layer defines a longitudinal direction, which is to be oriented essentially parallel to the axis of rotation of the workpiece, and a transverse direction, which runs perpendicularly to the longitudinal direction, and the cutting surface (125, 325, 425) is of a shape which is concave in the transverse direction, and wherein an effective width of the cutting surface, as measured in the transverse direction, varies in the longitudinal direction of the cutting surface, characterized in that the cutting layer has a single aperture (160, 360, 460, 560) which opens out into the cutting surface (125, 325, 425) such that the effective width of the cutting surface in the region of the aperture is reduced in relation to a cutting surface without any aperture, wherein the shape of the aperture is selected such that the desired axial distribution of the effective width of the cutting surface is obtained. an abrasive carrier (110, 310, 410), a cutting layer (120, 320, 420), which is fastened on the abrasive carrier and has a cutting surface (125, 325, 425), which is provided in order to be pressed onto the workpiece portion, with surface contact, during finish-machining, wherein the cutting layer defines a longitudinal direction, which is to be oriented essentially parallel to the axis of rotation of the workpiece, and a transverse direction, which runs perpendicularly to the longitudinal direction, and the cutting surface (125, 325, 425) is of a shape which is concave in the transverse direction, and wherein an effective width of the cutting surface, as measured in the transverse direction, varies in the longitudinal direction of the cutting surface, characterized in that the cutting layer has a single aperture (160, 360, 460, 560) which opens out into the cutting surface (125, 325, 425) such that the effective width of the cutting surface in the region of the aperture is reduced in relation to a cutting surface without any aperture, wherein the shape of the aperture is selected such that the desired axial distribution of the effective width of the cutting surface is obtained.
Method for linking electrical connections (31, 33) between an apparatus and a plurality of devices (21, 22) to communication connections (32, 34) between the apparatus and the plurality of devices (21, 22), having the following steps: - the apparatus announces a token by transmitting a broadcast message via the electrical connections (31, 33); - the apparatus transmits the token via one of the electrical connections (31, 33); - the apparatus receives the token returned via one of the communication connections (32, 34); and - a link is created between the electrical connection (31, 33), via which the token is transmitted, and the communication connection (32, 34), via which the token is received. - the apparatus announces a token by transmitting a broadcast message via the electrical connections (31, 33); - the apparatus transmits the token via one of the electrical connections (31, 33); - the apparatus receives the token returned via one of the communication connections (32, 34); and - a link is created between the electrical connection (31, 33), via which the token is transmitted, and the communication connection (32, 34), via which the token is received.
A sealing gasket for a telescopic extension of a household appliance, said sealing gasket comprising: - a body having substantially the form of a cylinder, and - a collar comprising a first projecting lip and a second projecting lip, said collar being connected to one end of said body, wherein said first projecting lip extends in the axial direction towards the outside of said body and in the radial direction towards the outside of said body, said second projecting lip extends in the axial direction towards the inside of said body and in the radial direction towards the outside of said body so as to form a circumferential concavity together with the first projecting lip, and wherein said body and said second projecting lip form an annular recess having a bottom, characterised in that said body comprises a depression projecting in the radial direction towards the inside of said body and extending in the axial direction substantially along the whole length of said body. - a body having substantially the form of a cylinder, and - a collar comprising a first projecting lip and a second projecting lip, said collar being connected to one end of said body,