mhurhangee/ep-ind-claims huggingface dataset:
Household appliance with a housing, in which at least one receiving compartment for food is embodied, with at least one hinge (5, 7), which is arranged on a front of the housing, and with a door, which is arranged on the hinge (5, 7) and is thus arranged pivotably relative to the housing, wherein the hinge (5, 7) has a bearing bracket, which is fastened to an end face (8, 8a, 8b) of the front with at least one fastening element (32, 33), wherein the bearing bracket is constructed symmetrically when viewed from the front side of the household appliance, wherein the hinge (5, 7) has a cable guiding apparatus, with which at least one cable can be or is laid between the door and the housing in accordance with the intended purpose, wherein the bearing bracket has an integrated bearing pin, and the hinge (5, 7) has a separate bushing with an insertion channel, into which the bearing pin engages and wherein the bushing is a component of the cable guiding apparatus and also has a cable passage, in particular a cable channel, for at least one cable, characterised in that the insertion channel of the bushing for the bearing pin is separated from the cable passage in the bushing, so that the insertion channel and the cable passage are separate from one another and the cable is thus mounted in a different channel from the bearing pin.
A method for defining a permissible borehole curvature, comprising: determining curvature characteristics of at least one of a downhole assembly and a borehole; calculating, by a processor of a computer, an envelope (301, 302, 303) of permissible borehole curvatures from a predetermined location in the borehole based on the curvature characteristics, a direction of the borehole at the predetermined location in the borehole, and a turning angle of the borehole relative to the direction of the borehole at the predetermined location, and generating a representation of the envelope (301, 302, 303) of permissible borehole curvatures on a display element of the computer, wherein the representation of the envelope (301, 302, 303) of permissible borehole curvatures includes a plurality of concentric shapes, each representing a degree of borehole curvature. determining curvature characteristics of at least one of a downhole assembly and a borehole; calculating, by a processor of a computer, an envelope (301, 302, 303) of permissible borehole curvatures from a predetermined location in the borehole based on the curvature characteristics, a direction of the borehole at the predetermined location in the borehole, and a turning angle of the borehole relative to the direction of the borehole at the predetermined location, and generating a representation of the envelope (301, 302, 303) of permissible borehole curvatures on a display element of the computer, wherein the representation of the envelope (301, 302, 303) of permissible borehole curvatures includes a plurality of concentric shapes, each representing a degree of borehole curvature.
A device for arranging an elongated housing of a positioning drive for actuating a casement of a window on a frame or the casement of the window, having at least two fastening elements (20, 20', 40), wherein - two of the fastening elements (20, 20') are attachable fixed in place on the frame or the casement and are each pivotably connectable to an associated end cover of the housing, wherein the respective end cover is connectable to the housing; - a further support element is provided and is designed to engage in the region between the two fastening elements (20, 20') in the housing via an opening. - two of the fastening elements (20, 20') are attachable fixed in place on the frame or the casement and are each pivotably connectable to an associated end cover of the housing, wherein the respective end cover is connectable to the housing; - a further support element is provided and is designed to engage in the region between the two fastening elements (20, 20') in the housing via an opening.
A method for testing the external wiring of FPGA-driven I/O channels of an HiL simulator, a developer tool being connected to a processor model and by means thereof to an FPGA model, an internal HiL wiring being connected to the FPGA model by means of I/O ports, said wiring implementing the connection to a transfer plug, resulting in a connection to an external cable harness and to a control device, the control device being connected to a diagnostic tester by means of a diagnostic plug, the method comprising creating an FPGA code for the FPGA model, and the creating of an FPGA code comprising the steps: Drafting the FPGA model as an FPGA program having at least two components and at least one signal path between the at least two components, Setting a marker in at least one signal path in the FPGA program and generating the FPGA model as FPGA code based on at least one part of the model, the step of generating the FPGA model as FPGA code comprising automatically inserting an influencing structure for reading out and/or modifying signal values on the signal path in the signal path having a marker and generating the FPGA model having the influencing structure, the step of automatically inserting an influencing structure comprising inserting a multiplexer for being switched over during runtime for providing different input signals present at the multiplexer on the marked signal path, the method further comprising specifying fixed values for the signals present at the I/O port of an FPGA-driven I/O channel by means of the influencing structures in the FPGA model and testing the correctness of the signal connection up to the diagnostic tester. Drafting the FPGA model as an FPGA program having at least two components and at least one signal path between the at least two components, Setting a marker in at least one signal path in the FPGA program and generating the FPGA model as FPGA code based on at least one part of the model, the step of generating the FPGA model as FPGA code comprising automatically inserting an influencing structure for reading out and/or modifying signal values on the signal path in the signal path having a marker and generating the FPGA model having the influencing structure, the step of automatically inserting an influencing structure comprising inserting a multiplexer for being switched over during runtime for providing different input signals present at the multiplexer on the marked signal path, the method further comprising specifying fixed values for the signals present at the I/O port of an FPGA-driven I/O channel by means of the influencing structures in the FPGA model and testing the correctness of the signal connection up to the diagnostic tester.
Axle device for a vehicle, in particular for a road vehicle, with at least one axle (14a, 16a; 14b) comprising at least two longitudal controls (18a, 20a, 22a, 24a; 18b, 20b), which are respectively configured to bear a running wheel (70a, 72a, 74a, 76a), and at least two axle elements (26a, 28a, 30a, 32a; 26b, 28b), which are respectively connected to one of the longitudinal controls (18a, 20a, 22a, 24a; 18b, 20b) in a rotationally fixed manner, the axle (14a, 16a; 14b) comprising at least one bearing unit (34a, 36a; 34b), which is arranged axially between the axle elements (26a, 28a, 30a, 32a; 26b, 28b), the bearing unit (34c, 36c) comprising a tensioning unit that is configured for tensioning the axle elements (26c, 28c, 30c, 32c) and/or bearings (40c, 42c) of the bearing unit (34c, 36c), characterised in that the tensioning unit comprises an inner bolt and the inner bolt has a thread, which is arranged in the coupling region of the axle elements (30c, 32c) and via which at least one bearing (40c, 42c) of the bearing unit and/or the axle elements (30c, 32c) are/is tensionable, wherein at least one bearing (40c, 42c) of the bearing unit is arranged at least partly on the inner bolt.
Clasp of the folding type for a watch bracelet, consisting of an articulated assembly of three elements (6, 7, 8), namely a bottom clasp element, an intermediate clasp element and a top clasp element, the clasp comprising means enabling its user to adjust the length of the bracelet with the clasp closed, the top clasp element being in the form of a housing in which a slide is mounted, able to move in longitudinal movement, said slide comprising two coaxial lateral movable bolts (15a, 15b), the housing comprising a succession of locking holes (16a, 16b) intended to cooperate with the corresponding bolts (15a, 15b) of the slide, whilst, in order to facilitate the engagement of the bolts (15a, 15b) in one of the corresponding locking holes (16a, 16b), the top clasp element comprises location means, characterised in that the location means consists of a locating piston (23a, 23b) acted on by a spring (24a, 24b), each of the locating pistons being intended to cooperate with one of the locking holes (16a, 16b) other than the one intended to provide locking in the chosen position of the slide.
An underwater training device, which comprises pedals (104r; 1041) to be moved with the feet, and arm rods (106r; 1061) to be moved with the arms, for operation by a person who is in a predominantly seated position, wherein at least one control device is provided for measuring and/or regulating the training power, wherein the pedals (104r; 1041) and/or the arm rods (106r; 1061) are mechanically connected to at least one electric motor and to at least one braking device, characterised in that at least one floating element is provided, by means of which the underwater training device is partially held above the surface of the water, wherein the at least one floating element is designed in such a way that the arm rods are located below the water surface at least in sections and the pedals at all times, wherein this electric motor and this braking device are designed in such a way and controlled by the control device in such a way that defined via the pedals (104r; 1041) and/or the arm rods (106r; 1061) a power produced by the person can be taken up and a power can also be assigned to this person.
A system for assembling and disassembling wood-blocks of a wood flooring, said system comprising wood-blocks, frames supporting said wood-blocks and supports, said supports are formed by a T-shaped head providing a rectangular flange, with rounded lower sides and a peduncle with knurled side surface, said supports are able to rotate, are fastened along said frames and are spaced apart along said frames according to a predetermined pitch, said supports being movable by a key tool to rotate and to engage two adjacent wood-blocks in the space formed between the milled longitudinal side surface of two of said wood-blocks, said system being characterized in that the supports are fastened inside through holes (7, 8) formed in said frames and come out of said through holes (7, 8) only by said T_ shaped head having such a thickness as to be received in the cavity formed in the milled longitudinal side surface of the wood-blocks, and that said supports are butterfly supports having in the center of the flange an opening formed with the shape of a butterfly in which said key tool can be inserted to be rotated in such a direction as to abut against the inside walls of the opening, thus allowing the supports to rotate with respect to the frames, a rotation in the opposite direction causing only the disengaging of the key tool owing to the inside shape of the opening.
A system, comprising: a hearing protection device; a portable electronic device wirelessly coupled to the hearing protection device; and a server wirelessly coupled to the portable electronic device, wherein the hearing protection device comprises a processor, at least one externally facing microphone and a transceiver, wherein the at least one microphone is configured to receive sound generated by at least one equipment (115, 116), wherein the transceiver is configured to transmit acoustic signatures to the portable electronic device, wherein the acoustic signatures corresponds to the sound generated by the at least one equipment (115, 116); wherein the portable electronic device is configured to transmit the acoustic signatures to the server, and wherein the server is configured to: correlate the acoustic signatures with information in a database, and transmit a message to the portable electronic device indicating the correlation, and wherein the electronic processing device is further configured to: generate a suggestion based on the correlation, wherein the suggestion indicates a time duration for each equipment for working in an environment, and transmit the generated suggestion to the hearing protection device. a hearing protection device; a portable electronic device wirelessly coupled to the hearing protection device; and a server wirelessly coupled to the portable electronic device, wherein the hearing protection device comprises a processor, at least one externally facing microphone and a transceiver, wherein the at least one microphone is configured to receive sound generated by at least one equipment (115, 116), wherein the transceiver is configured to transmit acoustic signatures to the portable electronic device, wherein the acoustic signatures corresponds to the sound generated by the at least one equipment (115, 116); wherein the portable electronic device is configured to transmit the acoustic signatures to the server, and wherein the server is configured to: correlate the acoustic signatures with information in a database, and transmit a message to the portable electronic device indicating the correlation, and correlate the acoustic signatures with information in a database, and transmit a message to the portable electronic device indicating the correlation, and wherein the electronic processing device is further configured to: generate a suggestion based on the correlation, wherein the suggestion indicates a time duration for each equipment for working in an environment, and transmit the generated suggestion to the hearing protection device. generate a suggestion based on the correlation, wherein the suggestion indicates a time duration for each equipment for working in an environment, and transmit the generated suggestion to the hearing protection device.
A displacement sensor for sensing the displacement of a movable component (12, 22) of a device, comprising: - a displacement transmission mechanism adapted to reduce a larger displacement provided at its input into a smaller displacement at its output, wherein the input of the displacement transmission mechanism is coupleable to the movable component (12, 22) of the device, and wherein the displacement transmission mechanism has a predefined reduction ratio, and - a fiber optic displacement sensor, wherein the output of the displacement transmission mechanism is coupled to the fiber optic displacement sensor. - a displacement transmission mechanism adapted to reduce a larger displacement provided at its input into a smaller displacement at its output, wherein the input of the displacement transmission mechanism is coupleable to the movable component (12, 22) of the device, and wherein the displacement transmission mechanism has a predefined reduction ratio, and - a fiber optic displacement sensor, wherein the output of the displacement transmission mechanism is coupled to the fiber optic displacement sensor.
A wireless charger for a mobile terminal, comprising: a housing; a power transmitting coil provided within the housing in a manner of being spirally wound plural times; a power supply module configured to externally supply a power to the power transmitting coil; a driving unit connected to a spiral center of the power transmitting coil; a sensing unit configured to sense a location of the mobile terminal mounted on a topside of the housing; and a control unit adapted to control the driving unit to shift the spiral center of the power transmitting coil to the location of the mobile terminal sensed by the sensing unit, characterised in that: the driving unit is adapted to rotate to change a wound count of the power transmitting coil. a housing; a power transmitting coil provided within the housing in a manner of being spirally wound plural times; a power supply module configured to externally supply a power to the power transmitting coil; a driving unit connected to a spiral center of the power transmitting coil; a sensing unit configured to sense a location of the mobile terminal mounted on a topside of the housing; and a control unit adapted to control the driving unit to shift the spiral center of the power transmitting coil to the location of the mobile terminal sensed by the sensing unit, characterised in that: the driving unit is adapted to rotate to change a wound count of the power transmitting coil.
A method for angular focusing of signals in a scanning monopulse radar system comprising at least one antenna and at least two antenna elements (P 1, P 2), the radar system being adapted to transmit radar signals forming at least one antenna beam (9, 11) and to detect reflections of said at least one antenna beam caused by an object at a point of reflection, comprising the steps of: - measuring a first radar signal ( S P 1) and a second radar signal ( S P 2) as functions of antenna angle (α), which first and second radar signals are indicative of the power of antenna beam reflections detected by the respective antenna element (P 1, P 2) at a plurality of antenna angles; - forming from said first and second measured radar signals (S P 1, S P 2) a sum signal ( S Σ) and a difference signal ( S Δ); - calculating, using a ratio of said difference signal ( S Δ) and said sum signal ( S Σ), an antenna pointing error signal (ε 1) indicative of a deviation between the antenna angle (α) and the true angle (θ) to the point of reflection for said plurality of antenna angles; characterized by the steps of: - calculating an updated radar signal (S U 1; S U 2) based on the amplitude of the sum signal ( S Σ) and a generated phase term (S 1 F Σ) carrying information about the true angle to the point from which the measured radar signals ( S P 1, S P2) emanates, for all antenna angles at which measurements are performed; - calculating a signal adapted filter ( h 1; h 2) based on any or both of the characteristics of the at least one antenna and at least one measured reference radar signal, and - calculating an angular focused radar signal (S F 1; S F 2) by filtering said updated radar signal ( S U 1; S U 2) using said signal adapted filter ( h 1; h 2). - measuring a first radar signal ( S P 1) and a second radar signal ( S P 2) as functions of antenna angle (α), which first and second radar signals are indicative of the power of antenna beam reflections detected by the respective antenna element (P 1, P 2) at a plurality of antenna angles; - forming from said first and second measured radar signals (S P 1, S P 2) a sum signal ( S Σ) and a difference signal ( S Δ); - calculating, using a ratio of said difference signal ( S Δ) and said sum signal ( S Σ), an antenna pointing error signal (ε 1) indicative of a deviation between the antenna angle (α) and the true angle (θ) to the point of reflection for said plurality of antenna angles; - calculating an updated radar signal (S U 1; S U 2) based on the amplitude of the sum signal ( S Σ) and a generated phase term (S 1 F Σ) carrying information about the true angle to the point from which the measured radar signals ( S P 1, S P2) emanates, for all antenna angles at which measurements are performed; - calculating a signal adapted filter ( h 1; h 2) based on any or both of the characteristics of the at least one antenna and at least one measured reference radar signal, and - calculating an angular focused radar signal (S F 1; S F 2) by filtering said updated radar signal ( S U 1; S U 2) using said signal adapted filter ( h 1; h 2).
A silicate luminous material which is represented by the following chemical formula: Zn 2-x SiO 4:Mn x @SiO 2 @M y, wherein @ is coating, M is inner core, SiO 2 is middle shell, Zn 2-x SiO 4:Mn x is outer shell; M is a metal selected at least one from the group consisting of Ag, Au, Pt, Pd and Cu; y is molar ratio of M to Si in the silicate luminous material; and, the scope of x is: 0<x≤0.2, the scope of y is 0<y≤1×10 -2.
A lithium-air battery, comprising: a positive electrode layer, a negative electrode layer, and an electrolyte layer, wherein the positive electrode layer, the negative electrode layer and the electrolyte layer are accommodated in a receiving space formed by a housing, the electrolyte layer is located between the positive electrode layer and the negative electrode layer, and a side of the housing adjacent to the positive electrode layer and away from the negative electrode layer is provided with a pore absorbing air from outside the housing; characterized in that the positive electrode layer comprises a positive electrode current collector and a reaction layer that is coated or hot-pressed on the positive electrode current collector and that has an oxygen reduction capability; the negative electrode layer comprises a lithium storage layer having lithium ion intercalation and deintercalation capabilities and a lithium source negative electrode active material layer coated or hot-pressed on a surface of the lithium storage layer, the lithium storage layer comprising lithium intercalation-state graphite or lithium silicon alloy or lithium tin alloy, and the electrolyte layer is sandwiched between the reaction layer of the positive electrode layer and the negative electrode layer.
An anvil assembly comprising: an anvil shaft defining a longitudinal axis, the anvil shaft supporting a first spline, a second spline and a third spline, each of the first, second, and third splines including a pair of tapered camming surfaces (42, 44) that meet at a proximal end of the respective spline to define an apex, wherein each of the first, second, and third splines defines a longitudinal axis that is parallel to the longitudinal axis of the anvil shaft, the apex of the first spline being aligned with the longitudinal axis of the first spline; and an anvil head assembly supported on a distal end portion of the anvil shaft, the anvil head assembly supporting an anvil that defines a plurality of staple deforming recesses, wherein the apex of the first spline is positioned on the anvil shaft at a location proximal of the apex of the second spline, and the apex of the second spline is positioned on the anvil shaft at a location proximal of the apex of the third spline; and the apex of the second spline is laterally offset from the longitudinal axis of the second spline by a first offset distance and the apex of the third spline is laterally offset from the longitudinal axis of the third spline by a second offset distance. an anvil shaft defining a longitudinal axis, the anvil shaft supporting a first spline, a second spline and a third spline, each of the first, second, and third splines including a pair of tapered camming surfaces (42, 44) that meet at a proximal end of the respective spline to define an apex, wherein each of the first, second, and third splines defines a longitudinal axis that is parallel to the longitudinal axis of the anvil shaft, the apex of the first spline being aligned with the longitudinal axis of the first spline; and an anvil head assembly supported on a distal end portion of the anvil shaft, the anvil head assembly supporting an anvil that defines a plurality of staple deforming recesses, wherein the apex of the first spline is positioned on the anvil shaft at a location proximal of the apex of the second spline, and the apex of the second spline is positioned on the anvil shaft at a location proximal of the apex of the third spline; and the apex of the second spline is laterally offset from the longitudinal axis of the second spline by a first offset distance and the apex of the third spline is laterally offset from the longitudinal axis of the third spline by a second offset distance.