mhurhangee/ep-ind-claims huggingface dataset:
Floor protector for a seat having a floor assembly, having a base body, comprising an upper face and a lower face, and two sliding elements arranged in a recess or in two recesses in the base body and each having an outer surface associated with a ground surface, wherein the base body is resilient or formed with a spring element, at least in a sub-region, in such a way that a deformation of the spring element and/or of the sub-region in the vertical direction (v) can be configured in such a way that, in a loaded state, as a result of deformation of the spring element or of the sub-region, the lower face of the base body can be brought into full-area contact with the ground surface, in such a way that adhesion to the ground surface is made possible, wherein the base body, in an unloaded state, is formed convex on the lower face, the convex region forming the resilient sub-region and/or the spring element. having a base body, comprising an upper face and a lower face, and two sliding elements arranged in a recess or in two recesses in the base body and each having an outer surface associated with a ground surface, wherein the base body is resilient or formed with a spring element, at least in a sub-region, in such a way that a deformation of the spring element and/or of the sub-region in the vertical direction (v) can be configured in such a way that, in a loaded state, as a result of deformation of the spring element or of the sub-region, the lower face of the base body can be brought into full-area contact with the ground surface, in such a way that adhesion to the ground surface is made possible, wherein the base body, in an unloaded state, is formed convex on the lower face, the convex region forming the resilient sub-region and/or the spring element.
An electrostatic steering wheel hold detection device comprising: a first heater element that is located in a steering wheel, electrically connected to one of a power source and a ground; an inductor that is electrically connected to the first heater element; and a sensor circuit that is electrically connected to a connection point between the first heater element and the inductor, and detects, from a change in capacitance at the connection point, whether or not the steering wheel is held, characterized in that the first heater element has one end electrically connected to one of the power source and the ground and another end electrically connected to the inductor; and the electrostatic steering wheel hold detection device further comprises a second heater element that is located in the steering wheel, and has one end electrically connected to the other end of the first heater element via the inductor; wherein another end of the second heater element is electrically connected to another one of the power source and the ground, and the second heater element is located lower than the first heater element in the steering wheel when the steering wheel is in a neutral position. a first heater element that is located in a steering wheel, electrically connected to one of a power source and a ground; an inductor that is electrically connected to the first heater element; and a sensor circuit that is electrically connected to a connection point between the first heater element and the inductor, and detects, from a change in capacitance at the connection point, whether or not the steering wheel is held, characterized in that the first heater element has one end electrically connected to one of the power source and the ground and another end electrically connected to the inductor; and the electrostatic steering wheel hold detection device further comprises a second heater element that is located in the steering wheel, and has one end electrically connected to the other end of the first heater element via the inductor; wherein another end of the second heater element is electrically connected to another one of the power source and the ground, and the second heater element is located lower than the first heater element in the steering wheel when the steering wheel is in a neutral position.
A method of bonding a plurality of bonded members, comprising the steps in the following order: coating a bonding surface of a first bonded member with a bonding material; and characterised by the following steps in the following order: applying auxiliary calcination to the first bonded member coated with the bonding material, by heating it to a prescribed temperature; setting a second bonded member on a layer of the bonding material with which the heated first bonded member is coated; and applying full calcination to the first bonded member on which the second bonded member is set, by applying heat treatment thereto to a higher temperature than the temperature of the auxiliary calcination, to thereby form a bonding layer between the first bonded member and the second bonded member. coating a bonding surface of a first bonded member with a bonding material; and characterised by the following steps in the following order: applying auxiliary calcination to the first bonded member coated with the bonding material, by heating it to a prescribed temperature; setting a second bonded member on a layer of the bonding material with which the heated first bonded member is coated; and applying full calcination to the first bonded member on which the second bonded member is set, by applying heat treatment thereto to a higher temperature than the temperature of the auxiliary calcination, to thereby form a bonding layer between the first bonded member and the second bonded member. applying auxiliary calcination to the first bonded member coated with the bonding material, by heating it to a prescribed temperature; setting a second bonded member on a layer of the bonding material with which the heated first bonded member is coated; and applying full calcination to the first bonded member on which the second bonded member is set, by applying heat treatment thereto to a higher temperature than the temperature of the auxiliary calcination, to thereby form a bonding layer between the first bonded member and the second bonded member.
An orientation and feeding system for feeding cigarettes and providing longitudinal orientation to cigarettes for a tobacco recovery device, the system comprising a belt conveyor, a feeder for feeding cigarettes onto the belt conveyor, at least one transport channel for receiving, orienting and transporting cigarettes, wherein the transport channel comprises side walls located above the belt conveyor in the direction of movement of the belt conveyor and a bottom constituted by a belt surface of the belt conveyor wherein the system comprises further a chute arranged between the feeder and the transport channel, wherein the chute comprises at least one chute channel for feeding the cigarettes to the transport channel, characterized in that the width of the transport channel decreases towards the bottom, the feeder is a vibration feeder.
Power transistor arrangement, comprising a power transistor and a current measuring circuit which is connected to the power transistor and is intended to determine a forward current through the power transistor, wherein the forward current is guided from the source terminal of the power transistor via at least one source bonding wire, and wherein a first measuring bonding wire is connected between a first end of the source bonding wire facing the source terminal and the source terminal, and wherein a second measuring bonding wire is connected downstream of a second end of the source bonding wire facing away from the source terminal, and wherein both measuring bonding wires (16, 18) are connected to the current measuring circuit, wherein, in addition to the first and second measuring bonding wires (16, 18), a third measuring bonding wire is connected upstream of the first end of the source bonding wire, wherein the third measuring bonding wire is connected to a reference earth of the current measuring circuit, characterized in that the current measuring circuit comprises a differential amplifier in order to determine a voltage difference between both ends (17, 19) of the source bonding wire from the voltages obtained by the measuring bonding wires (16, 18, 21) and thereby to determine the forward current through the power transistor, and wherein a first voltage path of the first bonding measuring wire is connected between the first end of the source bonding wire and the current measuring circuit and a second voltage path of the second bonding measuring wire is connected between the second end of the source bonding wire and the current measuring circuit via an integrator, wherein the first voltage path is merged upstream of the differential amplifier with a third voltage path of the third bonding measuring wire, the third voltage path running between the second end of the source bonding wire and the current measuring circuit, in order to provide a common first signal input for the differential amplifier, and wherein the second voltage path provides a second signal input for the differential amplifier, such that the current measuring circuit is configured, through the combination of the two signals from the three voltage paths (23, 24, 26) of the three measuring bonding wires (16, 18, 21), to determine both the forward current through the power transistor and the gate charge during a switching process of the power transistor.
Solution comprising a sulfone polymer, a water-soluble polymer and a N-acyl-morpholine of formula I wherein R 1 is a hydrogen atom or a C1- to C3 alkyl group.
A method for switching at least a component or a function of a wireless communication device from a sleep mode to an active mode, said device comprising at least a low power low precision clock called first clock, a counter for counting the number of pulses of the first clock, and a high frequency clock, called second clock, synchronized with a third clock external to the device during paging listening intervals, said method comprising at least the steps of: - step A: at a first occurrence of a first pulse edge of the first clock, storing a corresponding first pulses number (C 1) of the first clock and a corresponding first date (D 1) delivered by the second clock, the second clock being synchronized with a first reference date (B 1) of the third clock; - step B: at a second occurrence of a second pulse edge of the first clock, storing a corresponding second pulses number (C 2) of the first clock and a corresponding second date (D 2) delivered by the second clock, the second clock being synchronized with a second reference date (B 2) of the third clock; - step C: computing a frequency error (E') of the first clock by using at least the frequency (F L) of the first clock, the first and second pulses numbers (C 1, C 2), and the first and second dates (D 1, D 2); - step D: according to at least said frequency error (E'), computing a third pulses number (C 3) of the first clock corresponding to a third date (D 3) at which the component or function is to be switched to active mode; and - step E: switching the component or the function to active mode at the occurrence of said third pulses number. - step A: at a first occurrence of a first pulse edge of the first clock, storing a corresponding first pulses number (C 1) of the first clock and a corresponding first date (D 1) delivered by the second clock, the second clock being synchronized with a first reference date (B 1) of the third clock; - step B: at a second occurrence of a second pulse edge of the first clock, storing a corresponding second pulses number (C 2) of the first clock and a corresponding second date (D 2) delivered by the second clock, the second clock being synchronized with a second reference date (B 2) of the third clock; - step C: computing a frequency error (E') of the first clock by using at least the frequency (F L) of the first clock, the first and second pulses numbers (C 1, C 2), and the first and second dates (D 1, D 2); - step D: according to at least said frequency error (E'), computing a third pulses number (C 3) of the first clock corresponding to a third date (D 3) at which the component or function is to be switched to active mode; and - step E: switching the component or the function to active mode at the occurrence of said third pulses number.
Device for preferably winding a cylindrical body, in particular a limb of a transformer, with at least one strap, such as a carbon fibre strap, comprising a carrier element which is movable in the axial direction of the cylindrical body, with a ring surrounding the body and rotatable in a plane running essentially perpendicular to a longitudinal axis of the body, wherein, arranged at the ring, is a supply roller for the at least one strap as well as one or more brake and deflection rollers (26, 29) as part of the device, wherein the at least one brake roller, in order to apply a tensile force, is mechanically coupled to a hydraulic pump, and drives a hydraulic circuit of the hydraulic pump, characterised in that the hydraulic pump is integrated in the brake roller.
A drive coupling for transferring a torque, comprising: a first member (100; 200) having an end portion; a second member (110; 210) having an end portion that is engageable with the first member; a helical recess (105; 205; 105') disposed in the end portion of the first member, the recess having a recess axis and including a plurality of interconnected recess portions about the axis, each recess portion including sides (105a, 105b, 105c; 205a, 205b, 205c) interconnecting at a recess tip (106a, 106b, 106c; 206a, 206b, 206c) with the sides of adjacent recess portions meeting at a common edge; a helical projection disposed on the end portion of the second member that is configured to be coaxially and rotationally engaged with the recess, characterised by the projection comprising a plurality of helical, symmetrical involute teeth (116a, 116b, 116c; 216a, 216b, 216c) extending radially about a projection axis, wherein the teeth include a tip (117a, 117b, 117c) having flattened edges; wherein one of the first or second members is a driving member and the other is a driven member such that rotation of the driving member causes engagement between each tooth and a respective side whereby the recess axis and the projection axis become coaxial and the driven member is driven. a first member (100; 200) having an end portion; a second member (110; 210) having an end portion that is engageable with the first member; a helical recess (105; 205; 105') disposed in the end portion of the first member, the recess having a recess axis and including a plurality of interconnected recess portions about the axis, each recess portion including sides (105a, 105b, 105c; 205a, 205b, 205c) interconnecting at a recess tip (106a, 106b, 106c; 206a, 206b, 206c) with the sides of adjacent recess portions meeting at a common edge; a helical projection disposed on the end portion of the second member that is configured to be coaxially and rotationally engaged with the recess, characterised by the projection comprising a plurality of helical, symmetrical involute teeth (116a, 116b, 116c; 216a, 216b, 216c) extending radially about a projection axis, wherein the teeth include a tip (117a, 117b, 117c) having flattened edges; wherein one of the first or second members is a driving member and the other is a driven member such that rotation of the driving member causes engagement between each tooth and a respective side whereby the recess axis and the projection axis become coaxial and the driven member is driven.
Electro-absorption modulator, comprising a first conductivity type silicon, Si, layer, and a second conductivity type Si layer adjacent to the first conductivity type Si layer, and a germanium, Ge, layer provided on top of partly the first conductivity type Si layer and partly the second conductivity type Si layer, wherein the Ge layer includes an intrinsic lower region and a second conductivity type upper region, and wherein the Ge layer further includes a second conductivity type sidewall region that is in contact with the second conductivity type upper region of the Ge layer and with the second conductivity type Si layer below the Ge layer. a first conductivity type silicon, Si, layer, and a second conductivity type Si layer adjacent to the first conductivity type Si layer, and a germanium, Ge, layer provided on top of partly the first conductivity type Si layer and partly the second conductivity type Si layer, wherein the Ge layer includes an intrinsic lower region and a second conductivity type upper region, and wherein the Ge layer further includes a second conductivity type sidewall region that is in contact with the second conductivity type upper region of the Ge layer and with the second conductivity type Si layer below the Ge layer.
A rope or belt sway detection system of an elevator system, comprising: a magnetic pickup disposed adjacent to a rope or belt (16, 26) of an elevator system, the magnetic pickup configured to detect a movement of the rope or belt (16, 26) via a change in a magnetic field at the magnetic pickup; and a signal processing unit operably connected to the magnetic pickup, wherein the signal processing unit is configured to: determine a maximum amplitude of a sway of the rope or belt (16, 26) based on the change in the magnetic field; compare the maximum amplitude to a preselected threshold; and signal a change in operation of the elevator system based on an actual or predicted exceedance of the threshold. a magnetic pickup disposed adjacent to a rope or belt (16, 26) of an elevator system, the magnetic pickup configured to detect a movement of the rope or belt (16, 26) via a change in a magnetic field at the magnetic pickup; and a signal processing unit operably connected to the magnetic pickup, wherein the signal processing unit is configured to: determine a maximum amplitude of a sway of the rope or belt (16, 26) based on the change in the magnetic field; compare the maximum amplitude to a preselected threshold; and signal a change in operation of the elevator system based on an actual or predicted exceedance of the threshold. determine a maximum amplitude of a sway of the rope or belt (16, 26) based on the change in the magnetic field; compare the maximum amplitude to a preselected threshold; and signal a change in operation of the elevator system based on an actual or predicted exceedance of the threshold.
Caster with controllable locking comprising: • at least one wheel (10, 11), • a wheel case, • means for mounting said wheel in rotation with respect to the wheel case on a shaft defining an axis of rotation, and • means for controllably locking said wheel (10, 11) to control the locking of the wheel with respect to the wheel case, characterised in that the controllable locking means of the wheel are constituted by: • a plurality of radial notches made in said wheel (10, 11), • a finger capable of introducing in at least one notch of the plurality, • at least one first magnet with two poles of opposite signs (N/+, S/-), • means for securing said finger with said first magnet, substantially on one of the two poles of this first magnet, it all forming a magnet/finger assembly (En), • means for mounting said magnet/finger assembly (En) in translation with respect to said wheel case in a direction substantially parallel to said axis of rotation, such that, in a first position if said assembly (En), the finger is outside of the notches and that, in a second position of said assembly (En), the finger is inserted at least partially in at least one of the notches, • a second magnet and a third magnet, • a support, • means for mounting the second magnet and the third magnet head-to-tail in said support such that, on one same face of said support, two poles of opposite signs are presented, and • means for moving said support in a plane substantially perpendicular to said axis of rotation so as to bring either of the second and third magnets (22, 23) facing the first magnet. • at least one wheel (10, 11), • a wheel case, • means for mounting said wheel in rotation with respect to the wheel case on a shaft defining an axis of rotation, and • means for controllably locking said wheel (10, 11) to control the locking of the wheel with respect to the wheel case, • a plurality of radial notches made in said wheel (10, 11), • a finger capable of introducing in at least one notch of the plurality, • at least one first magnet with two poles of opposite signs (N/+, S/-), • means for securing said finger with said first magnet, substantially on one of the two poles of this first magnet, it all forming a magnet/finger assembly (En), • means for mounting said magnet/finger assembly (En) in translation with respect to said wheel case in a direction substantially parallel to said axis of rotation, such that, in a first position if said assembly (En), the finger is outside of the notches and that, in a second position of said assembly (En), the finger is inserted at least partially in at least one of the notches, • a second magnet and a third magnet, • a support, • means for mounting the second magnet and the third magnet head-to-tail in said support such that, on one same face of said support, two poles of opposite signs are presented, and • means for moving said support in a plane substantially perpendicular to said axis of rotation so as to bring either of the second and third magnets (22, 23) facing the first magnet.
A video decoding apparatus for decoding a video in various block sizes and transform sizes, the apparatus comprising: a decoder for outputting a transformed/quantized residual block and information necessary for decoding, the information necessary for decoding including information on a block type for determining a size of a current block to be decoded and information on a transform/quantization type, by decoding encoded data; an inverse quantizing/transforming unit for decoding a residual block by inverse-quantizing/transforming the transformed/quantized residual block according to transform sizes of transform blocks determined from the information on the transform/quantization type, wherein the transform sizes of the transform blocks in the current block are selected within the range of the size of the residual block, depending on the information on the transform/quantization type; a predictor for generating a predicted block by predicting the current block; an adder for reconstructing the current block by adding the decoded residual block and the predicted block; and a filtering unit for filtering a transform boundary between a transform block of the reconstructed current block and an adjacent transform block by using the information on the transform/quantization type. a decoder for outputting a transformed/quantized residual block and information necessary for decoding, the information necessary for decoding including information on a block type for determining a size of a current block to be decoded and information on a transform/quantization type, by decoding encoded data; an inverse quantizing/transforming unit for decoding a residual block by inverse-quantizing/transforming the transformed/quantized residual block according to transform sizes of transform blocks determined from the information on the transform/quantization type, wherein the transform sizes of the transform blocks in the current block are selected within the range of the size of the residual block, depending on the information on the transform/quantization type; a predictor for generating a predicted block by predicting the current block; an adder for reconstructing the current block by adding the decoded residual block and the predicted block; and a filtering unit for filtering a transform boundary between a transform block of the reconstructed current block and an adjacent transform block by using the information on the transform/quantization type.