mhurhangee/ep-ind-claims huggingface dataset:
A method for multiple cutoff machining a rare earth sintered magnet block using a multiple blade assembly comprising a plurality of abrasive blades coaxially mounted on a rotating shaft at axially-spaced positions, each said blade comprising a core in the form of a thin disk and a peripheral cutting part on the outer periphery of the core, and said method comprising advancing the blade assembly and rotating the blades to machine the magnet block into multiple pieces, said method comprising the steps of: setting the multiple blade assembly on one side of the magnet block such that it is movable parallel to the plane of rotation of the blades, rotating the blades, starting the machining operation of the magnet block on the one side to form cutting grooves in the magnet block, interrupting the machining operation before the magnet block is cut through into pieces, moving the multiple blade assembly to the other side of the magnet block parallel to the plane of rotation of the blades, keeping the magnet block fixed, and restarting the machining operation of the magnet block on the other side to form cutting grooves in the magnet block until the cutting grooves formed from the one side and the other side meet each other, thereby cutting the magnet block into pieces. setting the multiple blade assembly on one side of the magnet block such that it is movable parallel to the plane of rotation of the blades, rotating the blades, starting the machining operation of the magnet block on the one side to form cutting grooves in the magnet block, interrupting the machining operation before the magnet block is cut through into pieces, moving the multiple blade assembly to the other side of the magnet block parallel to the plane of rotation of the blades, keeping the magnet block fixed, and restarting the machining operation of the magnet block on the other side to form cutting grooves in the magnet block until the cutting grooves formed from the one side and the other side meet each other, thereby cutting the magnet block into pieces.
A device for anticipating the deposition of ice of a thickness on a runway, comprising: - an object having a non-zero relative velocity with respect to the atmosphere surrounding the runway, this surrounding atmosphere being at a temperature, - a means for determining the thickness of ice present on said object, - a warning system enabling a warning to be communicated to a monitoring station when the thickness of ice on said object reaches a value corresponding to a significant thickness of ice on the runway, characterized in that it further comprises - a temperature sensor for measuring the temperature of the runway, - a means for regulating the temperature of said object in such a way that the temperature of said object is substantially equal to or slightly below the temperature of the runway, - an object having a non-zero relative velocity with respect to the atmosphere surrounding the runway, this surrounding atmosphere being at a temperature, - a means for determining the thickness of ice present on said object, - a warning system enabling a warning to be communicated to a monitoring station when the thickness of ice on said object reaches a value corresponding to a significant thickness of ice on the runway, - a temperature sensor for measuring the temperature of the runway, - a means for regulating the temperature of said object in such a way that the temperature of said object is substantially equal to or slightly below the temperature of the runway,
Method for establishing an Evolved Packet System Bearer for a mobile terminal (200, 400) in a telecommunications network (240, 280, 440, 480), wherein, after sending a credit control request message to a charging system (270, 470), a packet data network gateway (260, 460) receives and analyses a negative credit control response message from the charging system (270, 470), wherein when an update location procedure of the mobile terminal (200, 400) is completed in the telecommunications network (240, 280, 440, 480), the packet data network gateway (260, 460) transmits a Create Session Response message (206, 207) via a signalling gateway (230, 430) to a Mobility Management Entity (220, 420) in response to receiving the negative credit control response message, whereby the Create Session Response message comprises a bearer activation key, wherein the mobility management entity (220, 420) activates an EPS bearer between the telecommunications network and the mobile terminal by using the received bearer activation key.
A conveyor line bearing element for attachment to a conveyor frame of a roller conveyor, wherein the conveyor line bearing element has at least one bearing point for the mounting of a conveyor roller on the conveyor frame, wherein the conveyor line bearing element further has at least one carrying roller axle for the mounting of a carrying roller as well as a support roller axle for the mounting of a support roller, wherein the carrying roller axle extends in a direction such that the axis of rotation of the carrying roller to be arranged on the support roller axle extends mainly parallel to an axis of rotation of a conveyor roller to be mounted in the bearing point, wherein the support roller axle extends in a direction such that the axis of rotation of the support roller to be arranged in the support roller axle extends mainly perpendicular to a conveying plane and wherein the conveyor line bearing element, including the at least one bearing point, the at least one support roller axle and the at least one carrying roller axle, is produced as one piece as an injection-molded part.
Bracing and protection module for at least one object in a container comprising at least one piece of polyester wadding derived from at least a portion of sheet formed by superimposed veils of polyester fibres, characterised in that at least a portion of the veils of polyester wadding is positioned such that the superimposition axis of the veils of said portion is oriented in a offset manner relative to the axis of compression likely to be generated by an object and supported by the bracing module.
A device for the mixing and discharging of a product, comprising: a housing which delimits a reservoir for the product; a mixing element which is movable in the reservoir in order to mix a product accommodated therein; a piston which delimits the reservoir to a proximal end and is displaceable into a distal direction relative to the housing in order to discharge the product from the reservoir; and a spring element which is adapted to load the piston relative to the housing in the distal direction with a spring force, characterized in that the device comprises at least one ventilation opening in order to allow gases to escape from the reservoir. a housing which delimits a reservoir for the product; a mixing element which is movable in the reservoir in order to mix a product accommodated therein; a piston which delimits the reservoir to a proximal end and is displaceable into a distal direction relative to the housing in order to discharge the product from the reservoir; and a spring element which is adapted to load the piston relative to the housing in the distal direction with a spring force, characterized in that the device comprises at least one ventilation opening in order to allow gases to escape from the reservoir.
A method of operating an internal combustion engine of an agricultural harvester having wheels or a ground engaging track driven by an output crankshaft of the engine via a hydrostatic or hydromechanical transmission comprising a hydraulic module, a mechanical drivetrain module and a downstream drive train component, comprising the steps of: operating said engine in a normal mode with a base torque curve as a function of engine operating speed and engine power output, said base torque curve being generally isochronous at a rated operating speed over a power output range terminating at a rated power output, wherein said base torque curve has a peak power output at an engine operating speed lesser than said rated operating speed, and said base torque curve is generally linear between said rated power output at said rated operating speed and said peak power output at said lesser operating speed, and operating said engine in a boost mode with a boost torque curve when a power boost is required above said rated power output, said boost torque curve having a power output which is above said base torque curve over a predefined range of said operating speed, characterized in that when said engine is operating in said boost mode, said output power rises generally isochronously between said rated power output and said boost torque curve to a rated boost power output. operating said engine in a normal mode with a base torque curve as a function of engine operating speed and engine power output, said base torque curve being generally isochronous at a rated operating speed over a power output range terminating at a rated power output, wherein said base torque curve has a peak power output at an engine operating speed lesser than said rated operating speed, and said base torque curve is generally linear between said rated power output at said rated operating speed and said peak power output at said lesser operating speed, and operating said engine in a boost mode with a boost torque curve when a power boost is required above said rated power output, said boost torque curve having a power output which is above said base torque curve over a predefined range of said operating speed, characterized in that when said engine is operating in said boost mode, said output power rises generally isochronously between said rated power output and said boost torque curve to a rated boost power output.
A set of points, having a slide chair, a fixed rail, a point blade lying inward of the fixed rail, and, underneath in the installed condition, a sleeper or ballastless track, wherein the slide chair has a baseplate that, in the installed condition, lies on the sleeper or ballastless track and, in the moved-away position, extends under the fixed rail from outward of the fixed rail to inward of the point blade, the fixed rail is held on the outside by a guide fin that projects from the baseplate, and the slide chair has a slide plate, which is inward of the fixed rail and on the upper side whereof, as the sliding face, the point blade lies such that it can be displaced, characterised in that the guide fin is provided on a fin part that is detachably secured to the baseplate such that, for the purpose of replacement where necessary, once the fin part has been detached the slide chair can be displaced, together with its baseplate, inwards towards the track centre on the sleeper or ballastless track underneath and can be removed.
A filament for use in 3D printing comprising thermoplastic polymer in an amount ranging 80 wt% to 99.99 wt% and detonation nanodiamonds in an amount ranging 0.005 wt% to 10 wt%, wherein the filament has at least 15% higher tensile strength measured according to ISO 527 compared to said filament without detonation nanodiamonds wherein the detonation nanodiamonds exhibit zeta potential higher than + 30 mV, preferably higher than + 40 mV and more preferably higher than + 50 mV or the detonation nanodiamonds exhibit zeta potential value more negative than - 30 mV, preferably more negative than - 40 mV and more preferably more negative than - 50 mV, wherein the zeta potential is measured as indicated in the description.
Holding system for holding blades for a wind turbine, the holding system comprises a base frame, a support frame (112; 113) having a first holding section for holding a first blade of the wind turbine and a second holding section for holding a second blade of the wind turbine, wherein the support frame (112; 113) is mounted to the base frame, a wheel arrangement which is mounted to the base frame such that the base frame is movable on a ground, and the first holding section is located above the second holding section, characterized in that a first elevator device which is coupled to the support frame (112; 113) such that the second blade is movable between the first holding section and the second holding section.
In vitro method for determining the risk of late onset preeclampsia in a pregnant individual, comprising: determining the levels of biochemical markers including proteins PIGF, Activin A and P-selectin in at least one blood sample from the individual; and determining the risk of late onset preeclampsia using the determined levels of biochemical markers.
Vehicle seat with a seat component and a backrest having a backrest structure, in particular a motor vehicle seat, the backrest having a shell structure which is provided on the occupant side with an upholstered element, wherein the shell structure has at least one depression (17, 19) for accommodating a thickening of the upholstered element, wherein the shell structure comprises a central part and side wings, which are arranged in an elastically resilient manner on the central part, characterized in that between the central part and the side wings a slot is arranged in each case and the central part comprises reinforcing means, wherein the central part of the shell structure in its lower region is movably mounted by a lower bearing arrangement on the backrest structure.
A grain mass flow sensor assembly for an agricultural harvester having a threshing and separating system, a cleaning system, and a grain elevator, the grain mass flow sensor assembly comprising: a continuously curved sensor plate for receiving a grain flow from an exit of the grain elevator and configured to change the direction of the grain flow in order to generate a reaction force for measuring the grain mass flow rate of the grain flow; wherein the continuously curved sensor plate is attached to a sensor plate to load cell mounting bracket; the grain mass flow sensor assembly being characterized in that said sensor plate to load cell mounting bracket is attached to a single point load cell torque or moment compensated force transducer at a single mounting point, said single point load cell torque or moment compensated force transducer producing a mass flow sensor signal that is proportionate to said grain mass flow rate a continuously curved sensor plate for receiving a grain flow from an exit of the grain elevator and configured to change the direction of the grain flow in order to generate a reaction force for measuring the grain mass flow rate of the grain flow; wherein the continuously curved sensor plate is attached to a sensor plate to load cell mounting bracket; the grain mass flow sensor assembly being characterized in that said sensor plate to load cell mounting bracket is attached to a single point load cell torque or moment compensated force transducer at a single mounting point, said single point load cell torque or moment compensated force transducer producing a mass flow sensor signal that is proportionate to said grain mass flow rate
Assembly for a turbomachine including an exhaust cone and an exhaust case including an annular inner shell, the exhaust cone and the exhaust case extending about an axis, the exhaust cone including a radially outer skin extending in the projection of said inner shell and a radially inner skin defining a chamber with the outer skin, the upstream end of the cone being fastened to the inner shell via connecting lugs, the assembly including an annular fairing located radially outside said lugs and extending axially between the inner shell of the exhaust case and the outer skin of the exhaust cone, said fairing extending in the projection of said inner shell and of the outer skin, characterized in that the fairing is segmented and consists of several angular segments arranged circumferentially end to end, and in that it includes an annular seal extending radially between the downstream end of the fairing and the cone..
A humanized monoclonal IgG antibody which comprises a combination of a V HH -domain derived from an animal from the Camelidae family and a light chain variable domain V L, wherein said antibody specifically binds to human IL-17A and comprises: a) a heavy chain variable domain comprising 3 hypervariable regions HCDR1, HCDR2 and HCDR3, wherein: HCDR1 comprises the amino acid sequence of G-T-F-A-T-S-P-M-G (SEQ ID NO: 4); HCDR2 comprises the amino acid sequence of A-I-S-P-S-G-G-D-R-I-Y-A-D-S-V-K-G (SEQ ID NO: 5); and HCDR3 comprises the amino acid sequence of C-A-V-R-R-R-F-D-G-T-S-Y-Y-T-G-D-Y-D-S (SEQ ID NO: 6); and b) a variable domain of the light chain (V L) of a human antibody or a variable domain of the light chain of a humanized antibody. a) a heavy chain variable domain comprising 3 hypervariable regions HCDR1, HCDR2 and HCDR3, wherein: HCDR1 comprises the amino acid sequence of G-T-F-A-T-S-P-M-G (SEQ ID NO: 4); HCDR2 comprises the amino acid sequence of A-I-S-P-S-G-G-D-R-I-Y-A-D-S-V-K-G (SEQ ID NO: 5); and HCDR3 comprises the amino acid sequence of C-A-V-R-R-R-F-D-G-T-S-Y-Y-T-G-D-Y-D-S (SEQ ID NO: 6); and HCDR1 comprises the amino acid sequence of G-T-F-A-T-S-P-M-G (SEQ ID NO: 4); HCDR2 comprises the amino acid sequence of A-I-S-P-S-G-G-D-R-I-Y-A-D-S-V-K-G (SEQ ID NO: 5); and HCDR3 comprises the amino acid sequence of C-A-V-R-R-R-F-D-G-T-S-Y-Y-T-G-D-Y-D-S (SEQ ID NO: 6); and b) a variable domain of the light chain (V L) of a human antibody or a variable domain of the light chain of a humanized antibody.
A filter for an inflator comprising: a rolled sheet centered on an axis wherein the sheet is rolled to form a plurality of radial layers and including a plurality of openings, a deflector being associated with each opening for directing inflation fluid in a non-radial direction relative to the axis, characterized in that each deflector defines an exit opening in fluid communication with the associated opening in the sheet, and each deflector comprises at least one sidewall. characterized in that each deflector defines an exit opening in fluid communication with the associated opening in the sheet, and each deflector comprises at least one sidewall.
A method for supporting the return of a vehicle after leaving a lane, involving the following steps: - receiving data from one or a plurality of surroundings sensors of the vehicle which detect the lane in a region in front of the vehicle, - evaluating the received data in order to recognise a transition between the lane and a lane-edge region (18; S12), wherein the evaluating includes the recognising of a height difference between the lane-edge region and the lane and/or a width of the lane-edge region, - evaluating the received data in order to recognise a free area in front of the vehicle, - testing whether the recognised transition is not critical for a return of the vehicle to the lane and emitting a corresponding first signal (22; S16), wherein the testing includes whether at least the recognised height difference or the recognised width is smaller than a predefined threshold, - testing whether the recognised free area is sufficient for a return of the vehicle and emitting a corresponding second signal (24; S18), and - generating a return signal if the first signal indicates that the recognised transition is not critical, and if the second signal indicates that the free area is sufficient. - receiving data from one or a plurality of surroundings sensors of the vehicle which detect the lane in a region in front of the vehicle, - evaluating the received data in order to recognise a transition between the lane and a lane-edge region (18; S12), wherein the evaluating includes the recognising of a height difference between the lane-edge region and the lane and/or a width of the lane-edge region, - evaluating the received data in order to recognise a free area in front of the vehicle, - testing whether the recognised transition is not critical for a return of the vehicle to the lane and emitting a corresponding first signal (22; S16), wherein the testing includes whether at least the recognised height difference or the recognised width is smaller than a predefined threshold, - testing whether the recognised free area is sufficient for a return of the vehicle and emitting a corresponding second signal (24; S18), and - generating a return signal if the first signal indicates that the recognised transition is not critical, and if the second signal indicates that the free area is sufficient.
A method for detecting and segmenting multiple foreground objects depicted in a digital image, comprising: (a) segmenting the image into superpixels using K-means clustering in the color-XY space; (b) representing the image as image adjacency graph where each vertex represents a superpixel; (c) augmenting the image adjacency graph with a background node; (d) performing a K-means clustering of the border superpixels of the image adjacency graph and then using the K-means cluster centers to represent the background node prior; (e) compute a saliency score for the image adjacency graph and a corresponding overall image saliency score; (f) iteratively performing steps (g) to (j) for a predetermined number of iterations; (g) finding a set of nodes or superpixels from the image adjacency graph for which the saliency score is greater than a specified threshold; (h) modifying the image adjacency graph by cutting out the set of nodes and storing the saliency scores of these nodes as a first set of saliency scores; (i) determining new saliency scores for a region that remains in the image adjacency graph by computing the Fiedler Vector of the modified image adjacency graph; (j) combining the new saliency scores of the region with the first set of saliency scores and compute a new overall image saliency score; (k) choosing a segmentation map with the highest overall image saliency score. (a) segmenting the image into superpixels using K-means clustering in the color-XY space; (b) representing the image as image adjacency graph where each vertex represents a superpixel; (c) augmenting the image adjacency graph with a background node; (d) performing a K-means clustering of the border superpixels of the image adjacency graph and then using the K-means cluster centers to represent the background node prior; (e) compute a saliency score for the image adjacency graph and a corresponding overall image saliency score; (f) iteratively performing steps (g) to (j) for a predetermined number of iterations; (g) finding a set of nodes or superpixels from the image adjacency graph for which the saliency score is greater than a specified threshold; (h) modifying the image adjacency graph by cutting out the set of nodes and storing the saliency scores of these nodes as a first set of saliency scores; (i) determining new saliency scores for a region that remains in the image adjacency graph by computing the Fiedler Vector of the modified image adjacency graph; (j) combining the new saliency scores of the region with the first set of saliency scores and compute a new overall image saliency score; (k) choosing a segmentation map with the highest overall image saliency score.