mhurhangee/ep-ind-claims huggingface dataset:
Pressure medium tank for a hydraulic brake system with a hydraulic interface for the connection of the pressure medium tank to another component, the pressure medium tank having a tank housing, the interface comprising at least one connection piece which is arranged on the tank housing and is received into a receiving seat of the other component, the connection piece having a channel which ensures a hydraulic connection between an interior space of the tank housing and the other component, a shut-off apparatus for shutting off the hydraulic connection being provided, which shut-off apparatus is open when the connection piece is received in the receiving seat, the shut-off apparatus having a displaceable valve piston and a sealing element, the sealing element being configured for positional securing of the valve piston, characterized in that at least one region of the valve piston is subjected to a tensile load in an axial direction of the valve piston in the closed state of the shut-off apparatus.
A powered device for augmenting a joint function of a human during a gait cycle, the device comprising: a powered actuator for supplying at least one of an augmentation torque and an impedance to a joint; and a controller configured to modulate the augmentation torque, the impedance, and a joint equilibrium according to a phase of the gait cycle to provide at least a biomimetic response, characterized in that the powered actuator comprises a series-elastic actuator comprising a transverse-flux motor. a powered actuator for supplying at least one of an augmentation torque and an impedance to a joint; and a controller configured to modulate the augmentation torque, the impedance, and a joint equilibrium according to a phase of the gait cycle to provide at least a biomimetic response, characterized in that the powered actuator comprises a series-elastic actuator comprising a transverse-flux motor.
Method for safely controlling an elevator system comprising a drive unit which allows an elevator car located in an elevator shaft to move and which is controlled in a safe manner by a control device such that a) in the normal mode of operation, the elevator car can be moved to at least two accesses to the elevator shaft at which doors (30A, 30B) controlled by the control device are provided, a door lock (31A, 31B) being associated with at least one thereof, by means of which door lock the associated door (30A; 30B) can be unlocked and opened even in the case of a power failure; and b) the elevator car does not move or moves only to a limited extent if an individual is in the elevator shaft; wherein a monitoring unit (10A; 10B) and a monitoring sensor (11A; 11B) are associated respectively with at least one of the doors (30A, 30B), by means of which state changes such as unlocking or opening of the door (30A; 30B) are detected, the monitoring unit (10A; 10B) a) is equipped with a battery and is switched to an autonomous mode when the elevator system is entirely or partially disabled; b) is connected to the monitoring sensor (11A; 11B), monitors the state of the monitoring sensor (11A; 11B) at least during the autonomous mode, and records corresponding state data; and c) is connected to a safeguard unit which reads the recorded state data from all of the connected monitoring units (10A; 10B), evaluates said state data, and prevents the elevator system from being put into the normal mode of operation if a change in the state of one of the monitored doors (30A; 30B) has been detected, and the monitoring sensor (11A; 11B) is a switching contact coupled to the associated door lock (31A; 31B, via which a monitoring signal is transmitted from an output to an input of the monitoring unit (10A; 10B), and the transmitted monitoring signal is monitored with respect to state changes which occur upon actuation of the door lock (31A; 31B), characterized in that the monitoring signal is in the form of a sequence of pulses. a) in the normal mode of operation, the elevator car can be moved to at least two accesses to the elevator shaft at which doors (30A, 30B) controlled by the control device are provided, a door lock (31A, 31B) being associated with at least one thereof, by means of which door lock the associated door (30A; 30B) can be unlocked and opened even in the case of a power failure; and b) the elevator car does not move or moves only to a limited extent if an individual is in the elevator shaft; a) is equipped with a battery and is switched to an autonomous mode when the elevator system is entirely or partially disabled; b) is connected to the monitoring sensor (11A; 11B), monitors the state of the monitoring sensor (11A; 11B) at least during the autonomous mode, and records corresponding state data; and c) is connected to a safeguard unit which reads the recorded state data from all of the connected monitoring units (10A; 10B), evaluates said state data, and prevents the elevator system from being put into the normal mode of operation if a change in the state of one of the monitored doors (30A; 30B) has been detected,
A wireless power transmission apparatus for high efficiency energy charging, the apparatus comprising: a resonator (430, 454, 540, 640, 750) configured to transmit power; a power supply unit (410, 451, 510, 610, 710) configured to supply power to the resonator; a first switching unit (420, 453, 530, 564, 630, 662, 740) configured to connect the resonator to the power supply unit, and disconnect the resonator from the power supply unit; and a controller (440, 460, 520, 566, 620, 664, 720, 730, 760) comprising a current sensor (441, 461) configured to sense an amount of current flowing into the resonator, and configured to control the first switching unit based on an amount of current flowing into the resonator, or to control current flowing into the resonator based on an operation of the first switching unit, characterised in that the current sensor comprises a second switching unit configured to control a flow of current mirrored from the current flowing into the resonator, and a comparator (481, 494) configured to compare voltage corresponding to the mirrored current to predetermined voltage corresponding to an amount of predetermined current; and the controller is configured to control a turning on and off of the first switching unit based on a result of the comparing. a resonator (430, 454, 540, 640, 750) configured to transmit power; a power supply unit (410, 451, 510, 610, 710) configured to supply power to the resonator; a first switching unit (420, 453, 530, 564, 630, 662, 740) configured to connect the resonator to the power supply unit, and disconnect the resonator from the power supply unit; and a controller (440, 460, 520, 566, 620, 664, 720, 730, 760) comprising a current sensor (441, 461) configured to sense an amount of current flowing into the resonator, and configured to control the first switching unit based on an amount of current flowing into the resonator, or to control current flowing into the resonator based on an operation of the first switching unit, characterised in that the current sensor comprises a second switching unit configured to control a flow of current mirrored from the current flowing into the resonator, and a comparator (481, 494) configured to compare voltage corresponding to the mirrored current to predetermined voltage corresponding to an amount of predetermined current; and the controller is configured to control a turning on and off of the first switching unit based on a result of the comparing.
An apparatus for locking a lift cord designed to lift coverings for architectural openings, comprising: a locking member having a groove and at least one opening, wherein the groove is configured to engage a guide ring attached to a covering for an architectural opening and the at least one opening is configured to receive the lift cord such that the lift cord passes through both the guide ring and the locking member; wherein the locking member is configured to engage the guide ring and the lift cord such that the locking member allows the lift cord to freely move in and out of the at least one opening in a first direction to raise or lower the covering, and the locking member moves about the guide ring when the lift cord is pulled in a second direction to pinch the lift cord between the locking member and the guide ring to prevent the lift cord from being pulled away from the covering for enough to create a loop of greater than a certain diameter. a locking member having a groove and at least one opening, wherein the groove is configured to engage a guide ring attached to a covering for an architectural opening and the at least one opening is configured to receive the lift cord such that the lift cord passes through both the guide ring and the locking member; wherein the locking member is configured to engage the guide ring and the lift cord such that the locking member allows the lift cord to freely move in and out of the at least one opening in a first direction to raise or lower the covering, and the locking member moves about the guide ring when the lift cord is pulled in a second direction to pinch the lift cord between the locking member and the guide ring to prevent the lift cord from being pulled away from the covering for enough to create a loop of greater than a certain diameter.
A process for producing nitric acid, comprising the steps of: (a) catalytically combusting a mixture of ammonia and an oxygen containing fluid, in particular air and/or oxygen, in an ammonia burner, thereby forming an ammonia combustion stream; (b) oxidizing at least partially the nitric oxide in the ammonia combustion stream of step (a) to nitrogen dioxide; (c) absorbing in an aqueous solution, by means of an absorber, the nitrogen dioxide contained in the stream of step (b), thereby forming a concentrated aqueous nitric acid solution, wherein the oxygen containing fluid is supplied to the ammonia burner via an oxygen containing fluid supply line, wherein in at least one section of the oxygen containing fluid supply line the oxygen containing fluid is a liquid; (d) increasing the pressure of the oxygen containing liquid in the oxygen containing fluid supply line thereby obtaining a pressurized oxygen containing liquid, wherein the pressurized oxygen containing liquid has a pressure of at least 10 bara, particularly at least 50 bara, more particularly at least 100 bara or at least 150 bara and even more particularly has a pressure between 150 and 250 bara; (e) evaporating or boiling the pressurized oxygen containing liquid obtained in step (d), in particular by heat recuperated downstream from the ammonia burner, thereby obtaining a pressurized oxygen containing gas; and (f) expanding the pressurized oxygen containing gas over a first turbine, which is particularly coupled to a generator for generating electricity. (a) catalytically combusting a mixture of ammonia and an oxygen containing fluid, in particular air and/or oxygen, in an ammonia burner, thereby forming an ammonia combustion stream; (b) oxidizing at least partially the nitric oxide in the ammonia combustion stream of step (a) to nitrogen dioxide; (c) absorbing in an aqueous solution, by means of an absorber, the nitrogen dioxide contained in the stream of step (b), thereby forming a concentrated aqueous nitric acid solution, wherein the oxygen containing fluid is supplied to the ammonia burner via an oxygen containing fluid supply line, wherein in at least one section of the oxygen containing fluid supply line the oxygen containing fluid is a liquid; (d) increasing the pressure of the oxygen containing liquid in the oxygen containing fluid supply line thereby obtaining a pressurized oxygen containing liquid, wherein the pressurized oxygen containing liquid has a pressure of at least 10 bara, particularly at least 50 bara, more particularly at least 100 bara or at least 150 bara and even more particularly has a pressure between 150 and 250 bara; (e) evaporating or boiling the pressurized oxygen containing liquid obtained in step (d), in particular by heat recuperated downstream from the ammonia burner, thereby obtaining a pressurized oxygen containing gas; and (f) expanding the pressurized oxygen containing gas over a first turbine, which is particularly coupled to a generator for generating electricity.
An electrolytic capacitor comprising a lead terminal including: an aluminum wire that connects to an anode or cathode foil, a connection part formed at the end of the aluminum wire, and a lead wire that connects to the connection part, wherein a liquid curing resin containing a flaky filler at 1 wt% or more and 50 wt% or less is applied to or filled in the surface of the connection part of the lead terminal to form a cured resin layer.
A process for the preparation of a solid form of sugammadex comprising: a. Suspending sugammadex in a solvent mixture comprising an aliphatic alcohol, 10-30% (vol%) water and an alkylacetate; b. Isolating the solid form of sugammadex. a. Suspending sugammadex in a solvent mixture comprising an aliphatic alcohol, 10-30% (vol%) water and an alkylacetate; b. Isolating the solid form of sugammadex.
A method comprising; transmitting, by a wireless device, a message comprising semi persistent scheduling, SPS, assistance information comprising: a logical channel identity associated with an SPS traffic; and a message size associated with the SPS traffic; and receiving, in response to the SPS assistance information, an activation command indicating an activation of an SPS grant, wherein one or more parameters in the SPS grant are based on the SPS assistance information. transmitting, by a wireless device, a message comprising semi persistent scheduling, SPS, assistance information comprising: a logical channel identity associated with an SPS traffic; and a message size associated with the SPS traffic; and a logical channel identity associated with an SPS traffic; and a message size associated with the SPS traffic; and receiving, in response to the SPS assistance information, an activation command indicating an activation of an SPS grant, wherein one or more parameters in the SPS grant are based on the SPS assistance information.
Speed transmission for motor vehicles, with an integrated differential, with a device for mounting a pinion shaft of the differential, wherein the pinion shaft driving the differential and comprising a bevel pinion is rotatingly mounted via two tapered roller bearings (20, 22) which are inserted into a housing of the differential and axially spaced apart from each other, wherein a first inner tapered roller bearing is placed closer to the bevel pinion than a second outer tapered roller bearing, wherein the tapered roller bearings (20, 22) are disposed in O-configuration, and wherein the pinion shaft is further part of the speed transmission, and a driving gear of the speed transmission is arranged on the pinion shaft, in the area between the two tapered roller bearings (20, 22), which is pushed onto the pinion shaft by a sliding connection and held on the pinion shaft in circumferential direction in fixed rotative engagement and formfitting engagement, wherein the inner ring of the inner tapered roller bearing rests against a first annular collar formed on the bevel pinion, characterised in that the driving gear is preloaded against a second annular collar of the pinion shaft via an intermediate ring placed adjacent the driving gear and pushed onto the pinion shaft as well as via an inner ring of the outer tapered roller bearing placed adjacent the intermediate ring, and the driving gear is preloaded against the second annular collar via the intermediate ring as well as the inner ring of the outer tapered roller bearing by means of a spring element, wherein the spring element is loaded between the inner ring of the outer tapered roller bearing and a locking ring clamped into a ring groove of the pinion shaft, wherein adjacent end walls (24a, 26a) of a common transmission housing (24, 26) for the speed transmission and the differential each receive one of the tapered roller bearings (20, 22), and wherein between the end walls (24a, 26a) on the pinion shaft the driving gear of the transmission is slid on via a serration as sliding connection in the circumferential direction.
A method for manufacturing an acoustic attenuation panel made of a ceramic matrix composite material comprising the following steps of: A. drape-molding in a mold a plurality of plies constituted by fibrous reinforcements comprising fibers of a ceramic material defining a first skin of the acoustic attenuation panel, B. depositing on the first skin a plurality of blocks (21; 21a, 21b) of a first material, called fugitive material, so as to define at least one space between two of said blocks, the corners of said blocks (21; 21a, 21b) being rounded, C. drape-molding on the surface constituted by the blocks a plurality of plies constituted by fibrous reinforcements comprising fibers of a ceramic material so as to define a second skin of the acoustic attenuation panel, so as to define, via the corners of said blocks (21; 21a; 21b), radii for connecting said first and second skins with walls of a cellular core of the acoustic panel, D. infiltrating, by means of a liquid medium, the precursor of the ceramic phase through said skins (19, 27) and in said at least one space separating said blocks of fugitive material, E. proceeding with the elimination of the liquid medium by evaporation or polymerization, F. proceeding with the sintering of the whole, at a temperature enabling the consolidation of the oxide ceramic material and the elimination of the fugitive material. A. drape-molding in a mold a plurality of plies constituted by fibrous reinforcements comprising fibers of a ceramic material defining a first skin of the acoustic attenuation panel, B. depositing on the first skin a plurality of blocks (21; 21a, 21b) of a first material, called fugitive material, so as to define at least one space between two of said blocks, the corners of said blocks (21; 21a, 21b) being rounded, C. drape-molding on the surface constituted by the blocks a plurality of plies constituted by fibrous reinforcements comprising fibers of a ceramic material so as to define a second skin of the acoustic attenuation panel, so as to define, via the corners of said blocks (21; 21a; 21b), radii for connecting said first and second skins with walls of a cellular core of the acoustic panel, D. infiltrating, by means of a liquid medium, the precursor of the ceramic phase through said skins (19, 27) and in said at least one space separating said blocks of fugitive material, E. proceeding with the elimination of the liquid medium by evaporation or polymerization, F. proceeding with the sintering of the whole, at a temperature enabling the consolidation of the oxide ceramic material and the elimination of the fugitive material.
A lithium electrochemical accumulator including: - at least one electrochemical cell made up of a least an anode and a cathode on either side of a separator impregnated with an electrolyte impregnated, the cell(s) defining an electrochemical assembly having an elongated shape along a longitudinal axis with, at one of the lateral ends thereof, uncoated strips of the anode and, at the other of the lateral ends thereof, uncoated strips of the cathode; at least some of the uncoated strips of the anode or of the cathode of the electrochemical assembly being packed together while forming a base; - a housing arranged to contain, in a sealed manner, the electrochemical assembly, - two current output terminals (2, 4) each connected to either of the at least one anode or of the at least one cathode, one of the terminals called the first terminal passing through a wall of the housing and being electrically insulated therefrom, characterized in that the first terminal includes a first conducting piece passing through the housing and including a portion, at least one area of which is directly welded on the base. - at least one electrochemical cell made up of a least an anode and a cathode on either side of a separator impregnated with an electrolyte impregnated, the cell(s) defining an electrochemical assembly having an elongated shape along a longitudinal axis with, at one of the lateral ends thereof, uncoated strips of the anode and, at the other of the lateral ends thereof, uncoated strips of the cathode; at least some of the uncoated strips of the anode or of the cathode of the electrochemical assembly being packed together while forming a base; - a housing arranged to contain, in a sealed manner, the electrochemical assembly, - two current output terminals (2, 4) each connected to either of the at least one anode or of the at least one cathode, one of the terminals called the first terminal passing through a wall of the housing and being electrically insulated therefrom,
An apparatus for visually indicating a loose wheel nut on a wheel of a motor vehicle, comprising a plurality of wheel nut engaging members (12, 14, 16, 18, 20), each engaging member (12, 14, 16, 18, 20) being rotatable with a respective wheel nut (22, 57 - 59, 61, 80) to which it is engaged and having a pointer for indicating a start position of the engaging member (12, 14, 16, 18, 20), any two adjacent engaging members (12, 14, 16, 18, 20) of the plurality being interconnected by an elongate member which is resiliently flexible so as to define an endless configuration of spaced apart but interconnected engaging members (12, 14, 16, 18, 20), wherein, in use, any loosening rotation of a first wheel nut will cause the engaging member (12, 14, 16, 18, 20) which engages that wheel nut and its pointer to rotate therewith, thereby providing a visual indication of a loosening of that wheel nut (22, 57 - 59, 61, 80), characterized in that the plurality of wheel nut engaging members (12, 14, 16, 18, 20) defining the endless configuration are integrally formed with the pointers and interconnecting elongate members.
Apparatus for treating a cavity in a human body, the apparatus comprising: a delivery tube; a barrier device having a collapsed configuration and an expanded configuration, the barrier device moving from the collapsed configuration to the expanded configuration upon being deployed from the delivery tube; a pushing element, slidably disposed within a lumen of the delivery tube, configured to deploy the barrier device from the delivery tube by pushing the barrier device; and one or more barrier-deployment elements coupled to the barrier device and to the pushing element, the barrier-deployment elements being configured to conformingly contact the barrier device with tissue surrounding the cavity, characterized in that the barrier device is planar when in the expanded configuration. a delivery tube; a barrier device having a collapsed configuration and an expanded configuration, the barrier device moving from the collapsed configuration to the expanded configuration upon being deployed from the delivery tube; a pushing element, slidably disposed within a lumen of the delivery tube, configured to deploy the barrier device from the delivery tube by pushing the barrier device; and one or more barrier-deployment elements coupled to the barrier device and to the pushing element, the barrier-deployment elements being configured to conformingly contact the barrier device with tissue surrounding the cavity,