mhurhangee/ep-ind-claims huggingface dataset:
A device for estimating a state of health of a battery, comprising: an SOH estimation unit that estimates state of health estimation values for estimating an aged degree of the battery periodically or by a request signal for each time; a data storage unit that aligns in an ascending or a descending order the SOH estimation values estimated for each time and stores the SOH estimation values to create a history table; and a processing unit that extracts candidate values from the stored SOH estimation values aligned in the history table other than the SOH estimation values that are stored in the upper and lower portions among the SOH estimation values stored in the history table to determine an average values of the extracted candidates values to estimate the SOH of the battery based on the candidate values. an SOH estimation unit that estimates state of health estimation values for estimating an aged degree of the battery periodically or by a request signal for each time; a data storage unit that aligns in an ascending or a descending order the SOH estimation values estimated for each time and stores the SOH estimation values to create a history table; and a processing unit that extracts candidate values from the stored SOH estimation values aligned in the history table other than the SOH estimation values that are stored in the upper and lower portions among the SOH estimation values stored in the history table to determine an average values of the extracted candidates values to estimate the SOH of the battery based on the candidate values.
A method for wireless communications with improved Hybrid Automatic Repeat Request, HARQ, feedback indication, the method comprising: establishing communications by a device within a wireless network, NW; indicating to the NW via signaling that the device is a constrained device that cannot reliably detect a Physical Hybrid Automatic Repeat Request Indicator Channel, PHICH, responsive to uplink data transmissions of the device; interpreting Downlink Control Information, DCI, received from the NW as a negative acknowledgement, NACK, HARQ feedback indication corresponding to an uplink data transmission by the device; and performing an uplink data retransmission to the NW according to the interpreted DCI. establishing communications by a device within a wireless network, NW; indicating to the NW via signaling that the device is a constrained device that cannot reliably detect a Physical Hybrid Automatic Repeat Request Indicator Channel, PHICH, responsive to uplink data transmissions of the device; interpreting Downlink Control Information, DCI, received from the NW as a negative acknowledgement, NACK, HARQ feedback indication corresponding to an uplink data transmission by the device; and
A method for producing fibre-reinforced shaped bodies with an organic matrix on the basis of thermoplastic cellulose esters, characterised in that reinforcing fibres in the form of filaments with fusible fibres in the form of filaments on the basis of thermoplastic cellulose esters are converted into a textile fabric, wherein the thermoplastic cellulose ester of the fusible fibres has a melt flow index MFI according to DIN ISO 1133 of 1.0 to 50 g/min at 245°C and the fusible fibres have an individual-filament titre according to DIN 53812 of 0.3 to 40.0 dtex, a tensile strength in the dry state according to DIN 53816 of 2 to 40 cN/tex and an elongation at break in the dry state according to DIN 53816 of 2 to 40%, and the resulting textile fabric is heated to melt the fusible fibres, forming a fibre-reinforced shaped body.
Method for dynamic compensation for the offset error of an acquisition system comprising a current sensor arranged to measure or estimate a current passing through an actuator of an electrical apparatus that is electrically powered by an AC voltage, said acquisition system having a predetermined offset value, and said method comprising the following steps: - determining a plurality of periodic temporal operating ranges of the actuator to dynamically apply a compensation sequence for the offset error of the acquisition system, - executing the compensation sequence during any one of the plurality of determined temporal operating ranges, the synchronization between the any one of the determined temporal operating ranges of the actuator and the execution of the compensation sequence being performed using synchronization means comprising a synchronization module arranged to identify reference times (Ref) from the mains AC supply voltage, said compensation sequence comprising the following steps: (i) shutting off the electrical power supply to the actuator so as to interrupt the passage of current in the current sensor, (ii) waiting for a predetermined period at the end of which it is considered or expected that current is no longer passing through the current sensor, (iii) measuring an actual offset value of the acquisition system, (iv) considering the actual offset value as the new offset value of the acquisition system, (v) electrically powering the actuator so as to ensure the passage of current in the current sensor, (vi) using the new offset value of the acquisition system to control the actuator. - determining a plurality of periodic temporal operating ranges of the actuator to dynamically apply a compensation sequence for the offset error of the acquisition system, - executing the compensation sequence during any one of the plurality of determined temporal operating ranges, (i) shutting off the electrical power supply to the actuator so as to interrupt the passage of current in the current sensor, (ii) waiting for a predetermined period at the end of which it is considered or expected that current is no longer passing through the current sensor, (iii) measuring an actual offset value of the acquisition system, (iv) considering the actual offset value as the new offset value of the acquisition system, (v) electrically powering the actuator so as to ensure the passage of current in the current sensor, (vi) using the new offset value of the acquisition system to control the actuator.
An igniter base, comprising an electrically conductive base body, a first contact pin and a second contact pin, wherein the first contact pin is connected in an electrically conductive manner to the base body, and wherein the second contact pin, which is electrically insulated from the base body and gas-tight, is guided through the base body, wherein the first contact pin is connected to the base body by means of a solder connection, wherein a first depression is arranged in a first surface of the base body, wherein a solder material is arranged in an intermediate space between a first jacket surface of the first depression and the first pin, wherein the solder material is arranged at least in some sections both on the first pin and also on the first jacket surface, characterized in that a rounded or pointed end of the first pin is arranged in the first depression.
A gas turbine engine comprising: a nacelle structure including a thrust reverser including a plurality of air diverter openings and a plurality of blocker doors moveable between a deployed position and a stowed position, wherein each of the plurality of blocker doors includes a front and two sides, wherein the plurality of air diverter openings in the nacelle structure are exposed when the blocker doors are in the deployed position, wherein the plurality of air diverter openings in the nacelle structure are covered when the blocker doors are in the stowed position and define a gap between adjacent blocker doors; a plurality of divots mounted forward of the plurality of blocker doors to substantially cover the gap between the adjacent blocker doors when in the stowed position, wherein the plurality of divots are substantially triangular, and a bull nose; characterised in that: the plurality of divots are secured to the bull nose; and each of the plurality of blocker doors includes a leading edge contour which is oblique to the front and the two sides (82,80); wherein when the blocker doors are in the stowed position, the divots fill the gaps between opposed edge contours of adjacent blocker doors and the bull nose. a nacelle structure including a thrust reverser including a plurality of air diverter openings and a plurality of blocker doors moveable between a deployed position and a stowed position, wherein each of the plurality of blocker doors includes a front and two sides, wherein the plurality of air diverter openings in the nacelle structure are exposed when the blocker doors are in the deployed position, wherein the plurality of air diverter openings in the nacelle structure are covered when the blocker doors are in the stowed position and define a gap between adjacent blocker doors; wherein the plurality of air diverter openings in the nacelle structure are exposed when the blocker doors are in the deployed position, wherein the plurality of air diverter openings in the nacelle structure are covered when the blocker doors are in the stowed position and define a gap between adjacent blocker doors; a plurality of divots mounted forward of the plurality of blocker doors to substantially cover the gap between the adjacent blocker doors when in the stowed position, wherein the plurality of divots are substantially triangular, and a bull nose; characterised in that: the plurality of divots are secured to the bull nose; and each of the plurality of blocker doors includes a leading edge contour which is oblique to the front and the two sides (82,80); the plurality of divots are secured to the bull nose; and each of the plurality of blocker doors includes a leading edge contour which is oblique to the front and the two sides (82,80); wherein when the blocker doors are in the stowed position, the divots fill the gaps between opposed edge contours of adjacent blocker doors and the bull nose.
A bearing arrangement connectable to a shaft, the bearing arrangement comprising: - a bearing (105, 105') comprising a plurality of rolling elements as rollers arranged to rotate relative to an inner raceway of said bearing arrangement; and - a ring shaped contact element (114, 114') having an extension in an axial direction thereof, said ring shaped contact element (114, 114') further comprising a first contact surface adapted to face the plurality of rolling elements, wherein the first contact surface of the ring shaped contact element is arranged to be in contact with the at least one of the plurality of rolling elements when the bearing is exposed to axial loading, wherein an inner diameter of the ring shaped contact element (114, 114') at the axial position of the first contact surface has a larger diameter in comparison to a diameter of said inner raceway, such that a continuous radial gap is provided in the circumferential direction between the ring shaped contact element (114, 114') and the inner raceway when said bearing arrangement is connected to said shaft, wherein said radial gap is arranged to be provided in fluid communication with a lubricating flow channel of the shaft when said bearing arrangement is connected to said shaft, characterised in that shaft connecting portion of the ring shaped contact element (114, 114') is connected to the shaft when the bearing arrangement is connected to the shaft, the shaft connecting portion of the ring shaped contact element (114, 114') is configured to be press fitted to the shaft. - a bearing (105, 105') comprising a plurality of rolling elements as rollers arranged to rotate relative to an inner raceway of said bearing arrangement; and - a ring shaped contact element (114, 114') having an extension in an axial direction thereof, said ring shaped contact element (114, 114') further comprising a first contact surface adapted to face the plurality of rolling elements,
Drive system of a rail vehicle with a plurality of drive trains which in each case have an electric drive machine (2, 22) and a shifting transmission (3, 23) with at least one positively locking shifting clutch (9, 29) for realising a plurality of transmission ratios, the electric drive machines being fed via a common AC converter, characterized in that at least one drive train of the drive system has a partially power-shifting element, for the synchronization of an input rotational speed with an output rotational speed at the positively locking shifting clutch, and in that the partially power-shifting element (13, 14, 33, 34) is arranged in an output region of the drive train, that is to say between the positively locking shifting clutch of the shifting transmission and at least one rail wheel.
Mask comprising: a frame; a transparent portion supported by the frame; a seal portion mounted on the frame and adapted to be positioned on the user's face; a ventilation tube, which ventilation tube is sealingly and detachably connected to a hub which is integral to said mask and comprises passages communicating the inner compartment of the mask with said ventilation tube to supply the breathing air and discharge the expiratory air, the hub between the ventilation tube and the mask is connected to the ventilation tube by a joint having a coupling position, in which the hub and the tube are sealingly fastened to one another in an operating position, and a decoupling position of the ventilation tube from the hub wherein the ventilation tube remains connected to the hub but is free to swing around an axis transversal to the axis of the ventilation tube itself and/or the axis of the hub characterized in that the joint between the ventilation tube and the hub is of film type, wherein said film-like joint consists of a bridge of flexible material, which is fastened with the two opposite ends respectively to the ventilation tube and the hub, and wherein the said film is a separate part coupled to the external surfaces of the two opposite ends of respectively the ventilation tube and the hub. a frame; a transparent portion supported by the frame; a seal portion mounted on the frame and adapted to be positioned on the user's face; a ventilation tube, which ventilation tube is sealingly and detachably connected to a hub which is integral to said mask and comprises passages communicating the inner compartment of the mask with said ventilation tube to supply the breathing air and discharge the expiratory air, the hub between the ventilation tube and the mask is connected to the ventilation tube by a joint having a coupling position, in which the hub and the tube are sealingly fastened to one another in an operating position, and a decoupling position of the ventilation tube from the hub wherein the ventilation tube remains connected to the hub but is free to swing around an axis transversal to the axis of the ventilation tube itself and/or the axis of the hub characterized in that the joint between the ventilation tube and the hub is of film type, wherein said film-like joint consists of a bridge of flexible material, which is fastened with the two opposite ends respectively to the ventilation tube and the hub, and wherein the said film is a separate part coupled to the external surfaces of the two opposite ends of respectively the ventilation tube and the hub.
A hook mechanism, comprising: a shaft cover, wherein a plurality of first mounting parts are disposed inside the shaft cover; a base, fixedly disposed in the shaft cover; and swing arms, wherein the swing arms are disposed at two ends of the shaft cover along a first direction, and a second mounting part is disposed on each of the swing arms; wherein each of the swing arms is rotatably connected to the base, so that the swing arms rotade between an unfolded location and a folded location; and when the swing arms are in the unfolded location, the swing arms are located on two sides of the shaft cover along the first direction, and the first mounting part is separated from a corresponding second mounting part; and when the swing arms are in the folded location, the swing arms located on the two sides of the shaft cover along the first direction rotate to one side of the base away from the shaft cover, the swing arms located on the two sides of the shaft cover along the first direction are disposed opposite to each other, and the first mounting part is mounted to the corresponding second mounting part, such that the swing arms apply a tensile force to the shaft cover towards the base. a shaft cover, wherein a plurality of first mounting parts are disposed inside the shaft cover; a base, fixedly disposed in the shaft cover; and swing arms, wherein the swing arms are disposed at two ends of the shaft cover along a first direction, and a second mounting part is disposed on each of the swing arms; wherein each of the swing arms is rotatably connected to the base, so that the swing arms rotade between an unfolded location and a folded location; and when the swing arms are in the unfolded location, the swing arms are located on two sides of the shaft cover along the first direction, and the first mounting part is separated from a corresponding second mounting part; and when the swing arms are in the folded location, the swing arms located on the two sides of the shaft cover along the first direction rotate to one side of the base away from the shaft cover, the swing arms located on the two sides of the shaft cover along the first direction are disposed opposite to each other, and the first mounting part is mounted to the corresponding second mounting part, such that the swing arms apply a tensile force to the shaft cover towards the base.
Cover device for the lower-sided rail of sliding doors (7,9) on cabinets provided in an in-front-of-the-front embodiment, in which the rail for the carriages (13,19) that are supporting the sliding doors, is mounted below the bottom of the cabinet, wherein means are provided at the rail for latching-in holding elements, that are provided with corresponding latching means and that hold a strip-shaped cover, characterised in that a plurality of holding elements are provided along the longitudinal direction of the cover distant from one another and separate from the cover and connectable to the cover.
A method of determining the health of a plasma system by monitoring an ignition process for igniting a plasma within a plasma confining volume, comprising: generating an ignition signal with an ignition circuit; applying the ignition signal between a biased region and a grounded region in the vicinity of the plasma confining volume; sensing a parameter related to the ignition circuit; comparing the sensed parameter values to historical values; and determining at least one corrective action for the plasma system based on the comparison of the sensed parameter values and historical values, wherein the at least one corrective action comprises providing a purge gas through the plasma confining volume to reduce an amount of contaminant in the plasma confining volume before a retry of ignition. generating an ignition signal with an ignition circuit; applying the ignition signal between a biased region and a grounded region in the vicinity of the plasma confining volume; sensing a parameter related to the ignition circuit; comparing the sensed parameter values to historical values; and determining at least one corrective action for the plasma system based on the comparison of the sensed parameter values and historical values, wherein the at least one corrective action comprises providing a purge gas through the plasma confining volume to reduce an amount of contaminant in the plasma confining volume before a retry of ignition.
A UWB token which comprises a UWB antenna for transmitting and receiving UWB signals, wherein the UWB antenna comprises a plurality of conductive antenna structures, wherein the antenna structures have a geometric coding with an individual resonance pattern identifying the UWB token, characterised in that the UWB token comprises a band, which is configured to support the UWB token, wherein the UWB antenna is integrated at least partially into the band and extends at least a part of the conductive antenna structures along the band.
A satellite receiver comprising: - a plurality of antennas (12, 14, 112, 114) immobilized in relation to each other and positioned on a movable carrier, each antenna being adapted to receive a satellite signal and output a corresponding, received signal (A, B), - first means for generating, from the received satellite signals, a sum signal (Σ), - second means for generating, from the received satellite signals, one or more difference signals (Δ), - third means (66, 166) for deriving, from the sum signal, a frequency and/or phase thereof; the receiver characterised by - fourth means (66, 166) for receiving the sum signal and the difference signal(s), and the frequency and/or phase and to use the frequency and/or phase to demodulate the difference signal, the fourth means further being configured to - determine the amplitude and phase of the demodulated difference signal with the sum signal as reference and - output information relating to an angle between a direction of the antennas and a direction of reception of the signal based on the amplitude of the sum signal, the demodulated difference signal and the sign of the demodulated difference signal. - a plurality of antennas (12, 14, 112, 114) immobilized in relation to each other and positioned on a movable carrier, each antenna being adapted to receive a satellite signal and output a corresponding, received signal (A, B), - first means for generating, from the received satellite signals, a sum signal (Σ), - second means for generating, from the received satellite signals, one or more difference signals (Δ), - third means (66, 166) for deriving, from the sum signal, a frequency and/or phase thereof; the receiver characterised by - fourth means (66, 166) for receiving the sum signal and the difference signal(s), and the frequency and/or phase and to use the frequency and/or phase to demodulate the difference signal, - determine the amplitude and phase of the demodulated difference signal with the sum signal as reference and - output information relating to an angle between a direction of the antennas and a direction of reception of the signal based on the amplitude of the sum signal, the demodulated difference signal and the sign of the demodulated difference signal.
A non-aqueous liquid electrolyte for a non-aqueous liquid electrolyte secondary battery comprising an anode electrode and a cathode electrode, capable of intercalating and deintercalating lithium ions, and the non-aqueous liquid electrolyte, wherein said non-aqueous liquid electrolyte contains, at least, a carbonate having at least either an unsaturated bond or a halogen atom, and a compound represented by the general formula (III-1) below, [Chemical Formula 12] A-N=C=O (III-1) In the above formula (III-1), A represents an element or group other than a hydrogen, wherein said compound represented by the general formula (III-1) is selected from the group consisting of: a compound represented by the Chemical Formula 22 below wherein R 1 in Chemical Formula 22 above represents an alkyl group; and a compound represented by the general formula (III-3) below In the above general formula (III-3), R represents, independently of each other, an alkyl group or aryl group that may have a substituent. a compound represented by the Chemical Formula 22 below wherein R 1 in Chemical Formula 22 above represents an alkyl group; and a compound represented by the general formula (III-3) below