mhurhangee/ep-ind-claims huggingface dataset:
A method for connecting electrodes of a same polarity of a secondary cell to a current output terminal (6, 7), said secondary cell comprising: - two current output terminals (6, 7), - a container containing an electrode plate group comprising alternating positive and negative electrodes, the ends of the current collectors of the positive and negative electrodes defining a first and second surface respectively, said method being characterized in that it comprises a step of additive manufacturing of an internal connecting part (11, 13) electrically connecting the first and/or the second surface to the corresponding current output terminal, wherein the additive manufacturing step is carried out by means of a technique selected from the list constituted by selective laser melting, selective laser sintering and fused deposition modeling. - two current output terminals (6, 7), - a container containing an electrode plate group comprising alternating positive and negative electrodes, the ends of the current collectors of the positive and negative electrodes defining a first and second surface respectively,
Aluminium alloy for wire production for cold forming, in particular for the production of connecting elements, having an alloy content of aluminium greater than 88% and copper greater than or equal to 5% as main alloy elements, characterized in that the aluminium alloy consists of: - 5.0% to 6.1% copper - 0.15% to 1.0% nickel, - 0.4% to 1.0% silicon, - 0% to 0.2% iron, - 0% to 0.2% manganese, - 1.5% to 2.2% magnesium, - 0% to 0.2% chromium, - 0% to 0.3% zinc, - 0% to 0.25% titanium, - 0% to 0.15% addition and - aluminium as the balance. - 5.0% to 6.1% copper - 0.15% to 1.0% nickel, - 0.4% to 1.0% silicon, - 0% to 0.2% iron, - 0% to 0.2% manganese, - 1.5% to 2.2% magnesium, - 0% to 0.2% chromium, - 0% to 0.3% zinc, - 0% to 0.25% titanium, - 0% to 0.15% addition and - aluminium as the balance.
Stiffening insert for a vehicle body, configured to follow the shape of a portion of a front foot forming an elbow of a front inner spar of a vehicle body, said front inner spar having a longitudinal axis upstream of the front foot, said elbow extending the front inner spar in a management orthogonal to the longitudinal axis of the front inner spar and orthogonal to the road, said stiffening insert being intended to be securely fastened to said front inner spar so as to cover said elbow, so as to lock any mobility of said front inner spar in rotation of the front foot, on a portion corresponding to said elbow, in a management orientated towards the inside of the elbow, so as to block the rotation of the front foot in the event of an impact at the front of the vehicle, characterised in that said stiffening insert is fixed to said front inner spar both on a portion of the bottom of said front inner spar, corresponding to a surface extending laterally, on one side of the front inner spar, in a drawing orthogonal to the road, and on a portion of a wall door entrance, corresponding to a surface extending longitudinally, on a top of the front inner spar, in a drawing parallel to the road.
A method comprising: receiving (811, 901) beam failure recovery configuration from a base station by a user equipment, in the following also referred to as UE, over an established data connection using a serving beam pair link in a beamforming communication network; monitoring a plurality of reference signals associated with different downlink beams based on the beam failure recovery configuration; transmitting (812, 903) a beam failure recovery request, BFRQ, message to the base station when a triggering condition for beam failure recovery is satisfied; and monitoring (813, 904) a response from the base station, characterized in that the BFRQ message indicates a UE-identified candidate beam pair link and the response from the base station is associated with the UE-identified candidate beam pair link, the triggering condition comprises detecting a beam failure of the serving beam pair link(s) and identifying a new candidate beam pair link, and the beam failure is detected when a block error ratio, BLER, of the serving beam pair link(s) is worse than a first threshold, and the new candidate beam pair link is identified when a reference signal received power, RSRP, of the candidate beam pair link is above a second threshold. receiving (811, 901) beam failure recovery configuration from a base station by a user equipment, in the following also referred to as UE, over an established data connection using a serving beam pair link in a beamforming communication network; monitoring a plurality of reference signals associated with different downlink beams based on the beam failure recovery configuration; transmitting (812, 903) a beam failure recovery request, BFRQ, message to the base station when a triggering condition for beam failure recovery is satisfied; and monitoring (813, 904) a response from the base station, characterized in that the BFRQ message indicates a UE-identified candidate beam pair link and the response from the base station is associated with the UE-identified candidate beam pair link, the triggering condition comprises detecting a beam failure of the serving beam pair link(s) and identifying a new candidate beam pair link, and the beam failure is detected when a block error ratio, BLER, of the serving beam pair link(s) is worse than a first threshold, and the new candidate beam pair link is identified when a reference signal received power, RSRP, of the candidate beam pair link is above a second threshold.
An ultrasonic surgical instrument, comprising: (a) a housing configured to removably connect to a shaft assembly; (b) an ultrasonic transducer supported by the housing and having a transducer connector configured to connect to a waveguide for acoustically connecting the ultrasonic transducer to the waveguide, wherein the ultrasonic transducer is configured to be operated up to a predetermined number of use cycles; and (c) an integrated usage indicator operatively connected to the housing and including a used state indicator, wherein the used state indicator is configured to indicate to a clinician in a used state when the ultrasonic transducer has been operated at least the predetermined number of use cycles for limiting usage of the ultrasonic transducer to the predetermined number of use cycles; characterised in that the integrated usage indicator further includes a ratchet having the used state indicator thereon, wherein the ratchet is configured to be directed in a first direction toward the used state upon acoustic connection of the waveguide to the ultrasonic transducer, wherein the ratchet is ratcheted to inhibit the ratchet from moving in a second direction opposite from the first direction, and wherein the ultrasonic transducer has an actuator configured to urge the ratchet in the first direction upon acoustically connecting the wave guide to the ultrasonic transducer. (a) a housing configured to removably connect to a shaft assembly; (b) an ultrasonic transducer supported by the housing and having a transducer connector configured to connect to a waveguide for acoustically connecting the ultrasonic transducer to the waveguide, wherein the ultrasonic transducer is configured to be operated up to a predetermined number of use cycles; and (c) an integrated usage indicator operatively connected to the housing and including a used state indicator, wherein the used state indicator is configured to indicate to a clinician in a used state when the ultrasonic transducer has been operated at least the predetermined number of use cycles for limiting usage of the ultrasonic transducer to the predetermined number of use cycles; characterised in that the integrated usage indicator further includes a ratchet having the used state indicator thereon, wherein the ratchet is configured to be directed in a first direction toward the used state upon acoustic connection of the waveguide to the ultrasonic transducer, wherein the ratchet is ratcheted to inhibit the ratchet from moving in a second direction opposite from the first direction, and wherein the ultrasonic transducer has an actuator configured to urge the ratchet in the first direction upon acoustically connecting the wave guide to the ultrasonic transducer.
A device for determining the gas proportion in a flowing liquid in a measuring chamber, which is surrounded by a measuring chamber wall constituted at least in sections as a measuring tube, by measuring the conductivity of the liquid, comprising - the measuring chamber wall surrounding the measuring chamber, wherein two openings (40, 41) for conveying the liquid through the measuring chamber are constituted in the measuring chamber wall, and - at least two planar electrodes (31, 32) for a contact with the liquid in the measuring chamber, said electrodes being disposed in the measuring chamber lying opposite one another in the region of the measuring chamber wall, wherein - the measuring chamber wall is constituted tubular in the flow direction (v) of the liquid at least in the region of the electrodes (31, 32) and the electrodes (31, 32) have at least approximately the same height (h) as the measuring chamber, characterised in that - the measuring chamber wall is constituted electrically insulating in insulation regions which adjoin the two electrodes (31, 32) and surrounded the latter in a planar manner, wherein the insulation regions are disposed on both sides of the electrodes (31, 32) in the flow direction (v) of the liquid and, in the flow direction (v) of the liquid, are at least twice as wide as the electrodes (31, 32) in each case surrounded by the latter, and - that the insulation regions are disposed between the electrodes (31, 32) at least in sections in the cross-section of the measuring chamber, so that the insulation regions of the individual electrodes (31, 32) verge into one another thereby forming a common insulation region. - the measuring chamber wall surrounding the measuring chamber, wherein two openings (40, 41) for conveying the liquid through the measuring chamber are constituted in the measuring chamber wall, and - at least two planar electrodes (31, 32) for a contact with the liquid in the measuring chamber, said electrodes being disposed in the measuring chamber lying opposite one another in the region of the measuring chamber wall, wherein - the measuring chamber wall is constituted tubular in the flow direction (v) of the liquid at least in the region of the electrodes (31, 32) and the electrodes (31, 32) have at least approximately the same height (h) as the measuring chamber, - the measuring chamber wall is constituted electrically insulating in insulation regions which adjoin the two electrodes (31, 32) and surrounded the latter in a planar manner, wherein the insulation regions are disposed on both sides of the electrodes (31, 32) in the flow direction (v) of the liquid and, in the flow direction (v) of the liquid, are at least twice as wide as the electrodes (31, 32) in each case surrounded by the latter, and - that the insulation regions are disposed between the electrodes (31, 32) at least in sections in the cross-section of the measuring chamber, so that the insulation regions of the individual electrodes (31, 32) verge into one another thereby forming a common insulation region.
An electric actuator for imparting steering movement to a propulsion unit of a marine vessel, the electric actuator comprising: a housing; an output shaft reciprocatingly received by the housing; a motor disposed within the housing, the motor including a rotor assembly and a stator, rotation of the rotor assembly causing the output shaft to translate axially relative to the rotor assembly and causing the output shaft to reciprocate relative to the housing; a coupling assembly mounted to the housing, the coupling assembly coupling the electric actuator to the propulsion unit of the marine vessel; a steering control unit mounted to the housing, the steering control unit driving the motor in use to cause the rotor assembly to rotate and cause the output shaft to reciprocate relative to the housing; a magnetic position target mounted on the coupling assembly; and a position sensor (212a, 212b) mounted on the actuator, the position sensor (212a, 212b) sensing, in use, a position of the electric actuator based on a position of the magnetic position target; wherein the coupling assembly has a curved surface and the magnetic position target has a curved surface which is driven by the curved surface of the coupling assembly when the coupling assembly rotates. a housing; an output shaft reciprocatingly received by the housing; a motor disposed within the housing, the motor including a rotor assembly and a stator, rotation of the rotor assembly causing the output shaft to translate axially relative to the rotor assembly and causing the output shaft to reciprocate relative to the housing; a coupling assembly mounted to the housing, the coupling assembly coupling the electric actuator to the propulsion unit of the marine vessel; a steering control unit mounted to the housing, the steering control unit driving the motor in use to cause the rotor assembly to rotate and cause the output shaft to reciprocate relative to the housing; a magnetic position target mounted on the coupling assembly; and a position sensor (212a, 212b) mounted on the actuator, the position sensor (212a, 212b) sensing, in use, a position of the electric actuator based on a position of the magnetic position target; wherein the coupling assembly has a curved surface and the magnetic position target has a curved surface which is driven by the curved surface of the coupling assembly when the coupling assembly rotates.
Tracheal ventilation device, in particular a tracheostomy cannula, with an outer cannula and an inner cannula, wherein the inner cross section of the outer cannula and the outer cross section of the inner cannula are matched to each other in such a way that the inner cannula is movable with play in the outer cannula, wherein the outer cannula has a cuff for sealing and fixing the outer cannula in the trachea, wherein a radially deformable tube section is provided whose ends (5a, 5b) are connected sealingly to the outer cannula, wherein a region of the tube section between the ends (5a, 5b) of the latter is radially movable from a first state to a second state, and vice versa, and wherein, in the second state, the tube section seals off the inner cannula inserted into the outer cannula, characterized in that the radially movable tube section lies axially between the distal and proximal ends (3a, 3b) of the cuff, which are connected to the outer cannula, wherein the tube section is subjected to the pressure of the cuff.
A method for controlling a chain-link power converter, said converter comprising three phase legs, each of which phase legs comprising a plurality of series-connected converter cells, each of the cells comprising a DC capacitor, the phase legs being connected in a delta configuration, the method comprising: detecting an unsymmetrical voltage condition at a terminal of the converter; determining a ratio between a zero sequence and a negative sequence component of a compound current to be injected into the converter, based on the detected unsymmetrical voltage condition; calculating the compound current comprising the zero sequence component and the negative sequence component in accordance with the determined ratio; and injecting the compound current into the converter to control the converter in view of the detected unsymmetrical voltage condition. detecting an unsymmetrical voltage condition at a terminal of the converter; determining a ratio between a zero sequence and a negative sequence component of a compound current to be injected into the converter, based on the detected unsymmetrical voltage condition; calculating the compound current comprising the zero sequence component and the negative sequence component in accordance with the determined ratio; and injecting the compound current into the converter to control the converter in view of the detected unsymmetrical voltage condition.
A spacecraft, comprising: a spacecraft bus including an additive manufacturing system, wherein the additive manufacturing system includes at least one extruder (110A, 110B) for delivering feedstock to print an object outside of the spacecraft bus wherein when the object is printed, the feedstock is exposed to extreme high level light and radiation along with extreme high and low temperatures; a sensor (1020, 1030) comprised by the spacecraft bus and configured to determine a pose of the spacecraft bus relative to an astronomical body; and at least one processor in communication with the additive manufacturing system and the sensor (1020, 1030), characterized in that the at least one processor is configured to control an operation of the additive manufacturing system as a function of the pose of the spacecraft bus by controlling a rate of change of light and radiation from movement of the spacecraft bus as well as the extreme high and low temperatures, to manufacture the object outside of the spacecraft bus. a spacecraft bus including an additive manufacturing system, wherein the additive manufacturing system includes at least one extruder (110A, 110B) for delivering feedstock to print an object outside of the spacecraft bus wherein when the object is printed, the feedstock is exposed to extreme high level light and radiation along with extreme high and low temperatures; a sensor (1020, 1030) comprised by the spacecraft bus and configured to determine a pose of the spacecraft bus relative to an astronomical body; and at least one processor in communication with the additive manufacturing system and the sensor (1020, 1030), characterized in that the at least one processor is configured to control an operation of the additive manufacturing system as a function of the pose of the spacecraft bus by controlling a rate of change of light and radiation from movement of the spacecraft bus as well as the extreme high and low temperatures, to manufacture the object outside of the spacecraft bus.
The use of compositions which comprise at least one alkylphenol-aldehyde resin (constituent I) which contains a structural element of the formula in which R 5 is C 1 -C 200 -alkyl or C 2 -C 200 -alkenyl, O-R 6 or O-C -R 6, R 6 is C 1 -C 200 -alkyl or C 2 -C 200 -alkenyl, and n is from 2 to 100, and, based on the alkylphenol-aldehyde resin or the alkylphenol-aldehyde resins, from 0.1 to 10 parts by weight of at least one polar oil-soluble nitrogen compound (constituent II), for improving the electrical conductivity of mineral oil distillates having a water content of less than 150 ppm, in such an amount that the mineral oil distillates have a conductivity of at least 50 pS/m, measured according to DIN 51412-T02-79.
A wearable medical monitoring device, comprising: a monitor configured to monitor a physiological parameter of a subject, the monitor comprising at least one processor configured to execute a plurality of instructions according to at least one software module; and an update manager operably connected to the monitor and configured to: receive a software update corresponding to the at least one software module for the monitor, cause an installation of the software update such that the at least one software module is updated during a time period, calculate, for the time period, an event estimation of risk score associated with a potential medical event for the subject occurring within the time period based on the physiological parameter of the subject, determine an operational state of the wearable medical monitoring device, and determine the time period to install the software update based on the operational state of the wearable medical monitoring device and the event estimation of risk score. a monitor configured to monitor a physiological parameter of a subject, the monitor comprising at least one processor configured to execute a plurality of instructions according to at least one software module; and an update manager operably connected to the monitor and configured to: receive a software update corresponding to the at least one software module for the monitor, cause an installation of the software update such that the at least one software module is updated during a time period, calculate, for the time period, an event estimation of risk score associated with a potential medical event for the subject occurring within the time period based on the physiological parameter of the subject, determine an operational state of the wearable medical monitoring device, and determine the time period to install the software update based on the operational state of the wearable medical monitoring device and the event estimation of risk score. receive a software update corresponding to the at least one software module for the monitor, cause an installation of the software update such that the at least one software module is updated during a time period, calculate, for the time period, an event estimation of risk score associated with a potential medical event for the subject occurring within the time period based on the physiological parameter of the subject, determine an operational state of the wearable medical monitoring device, and determine the time period to install the software update based on the operational state of the wearable medical monitoring device and the event estimation of risk score.
Process for production of activated porous carbon, said process comprising the steps of: a) producing a mixture from a green coke, a base and a hydrophilic polymer that is chemically inert to said base, wherein the mixture contains 20 to 50 wt% of green coke, 1 to 15 wt% of hydrophilic polymer and 35 to 79 wt% of base, b) pressing the mixture obtained in step a) to form a compact, c) activating the compact obtained in step b), and d) washing the compact with a solution of citric acid, more preferably dilute citric acid. a) producing a mixture from a green coke, a base and a hydrophilic polymer that is chemically inert to said base, wherein the mixture contains 20 to 50 wt% of green coke, 1 to 15 wt% of hydrophilic polymer and 35 to 79 wt% of base, b) pressing the mixture obtained in step a) to form a compact, c) activating the compact obtained in step b), and d) washing the compact with a solution of citric acid, more preferably dilute citric acid.