mhurhangee/ep-ind-claims huggingface dataset:
Device comprising a gearbox fork, an internal fork shaft and an assisted device which, under the control of an external shift control member, axially translationally drives the gearbox fork fastened to said internal fork shaft, which comprises - a saddle on which the external control member acts to drive it translationally, which comprises two arms (22, 24) which are traversed by the fork shaft, and which is mounted so as to slide along the fork shaft over a predetermined travel, - and an assistance spring (44, 46) wound around the fork shaft and mounted so as to be compressed axially between an arm (22, 24) of the saddle and an end stop connected axially to the fork shaft, and wherein: - the saddle comprises, arranged outside the saddle, an oblong slot of axial orientation; - and the fork shaft bears a radial pin fastened to the fork shaft and extending through the oblong slot in which it is mounted so as to slide axially and in which it is received angularly without play, characterized in that the fork shaft comprises, arranged outside the saddle, a fixed stop (16, 18) for limiting, in one direction, the sliding travel of the saddle along the fork shaft by the saddle bearing axially against this fixed stop (16, 18). - a saddle on which the external control member acts to drive it translationally, which comprises two arms (22, 24) which are traversed by the fork shaft, and which is mounted so as to slide along the fork shaft over a predetermined travel, - and an assistance spring (44, 46) wound around the fork shaft and mounted so as to be compressed axially between an arm (22, 24) of the saddle and an end stop connected axially to the fork shaft, and wherein: - the saddle comprises, arranged outside the saddle, an oblong slot of axial orientation; - and the fork shaft bears a radial pin fastened to the fork shaft and extending through the oblong slot in which it is mounted so as to slide axially and in which it is received angularly without play,
Connection assembly having a plurality of receiving modules (4a, 4b, 4c, 4d), wherein each receiving module (4a, 4b, 4c, 4d) is configured for the reception of respectively one fastening element, wherein each receiving module (4a, 4b, 4c, 4d) comprises a chamber for the reception of the respective fastening element which is delimited by an inner wall and has a first opening and a second opening, wherein the two openings (12, 14) delimit a through duct within the chamber, wherein the inner wall has at least one latching module on which the respective fastening element is at least temporarily to be latched within the chamber after an introduction of the respective fastening element along a longitudinal direction of the through duct through the first opening into the chamber, wherein the latched respective fastening element is to be received completely within the chamber, wherein the receiving modules (4a, 4b, 4c, 4d) of the connection assembly are made of metal and are electrically conductive, and wherein the respective fastening element is made of metal and is electrically conductive, wherein at least one device in the form of the battery is to be fastened on the connection assembly.
A device comprising: a processor, a loudspeaker comprising a voice coil, one or more devices configured to determine loudspeaker voltage and loudspeaker current, and a memory storing a Bl product for the loudspeaker, the processor configured to: receive a plurality of loudspeaker currents I ( t) and a corresponding plurality of loudspeaker voltages V ( t) from the one or more devices as a function of time, t; derive a current-from-voltage transfer function H IV ( ω) from the plurality of loudspeaker currents l ( t) and the corresponding plurality of loudspeaker voltages V ( t), as a function of frequency, ω; determine a Fourier space excursion-from-voltage transfer function H XV (ω) using: H XV ω = 1 Bl 1 − H IV ω R vc jω − L vc H IV ω where: j denotes a square root of -1, and wherein the form of H XV (ω) is constrained by parameters H IV (ω), Bl, R vc. and L vc, where: R vc comprises a resistance of the voice coil; and L vc comprises an inductance of the voice coil; determine filter coefficients using the Fourier space excursion-from-voltage transfer function, H XV ( ω); and, apply a filter to an input signal for the loudspeaker using the filter coefficients in order to place limits on the filtered input signal, the limits based on a maximum excursion of the voice coil. receive a plurality of loudspeaker currents I ( t) and a corresponding plurality of loudspeaker voltages V ( t) from the one or more devices as a function of time, t; derive a current-from-voltage transfer function H IV ( ω) from the plurality of loudspeaker currents l ( t) and the corresponding plurality of loudspeaker voltages V ( t), as a function of frequency, ω; determine a Fourier space excursion-from-voltage transfer function H XV (ω) using: H XV ω = 1 Bl 1 − H IV ω R vc jω − L vc H IV ω where: j denotes a square root of -1, and wherein the form of H XV (ω) is constrained by parameters H IV (ω), Bl, R vc. and L vc, where: R vc comprises a resistance of the voice coil; and L vc comprises an inductance of the voice coil; where: j denotes a square root of -1, and wherein the form of H XV (ω) is constrained by parameters H IV (ω), Bl, R vc. and L vc, where: R vc comprises a resistance of the voice coil; and L vc comprises an inductance of the voice coil; determine filter coefficients using the Fourier space excursion-from-voltage transfer function, H XV ( ω); and, apply a filter to an input signal for the loudspeaker using the filter coefficients in order to place limits on the filtered input signal, the limits based on a maximum excursion of the voice coil.
A product comprising a composition and a dispenser therefor, the composition being a gel, cream or soft solid of viscosity from 3000 mPa.s to 5200 mPa.s at a shear rate of 16 /s comprising a non-pore blocking inhibitor of perspiration and the dispenser comprising a dome-shaped applicator surface of radius of curvature decreasing from a maximum of from 25 to 60 mm at its top/centre to a value of from 75 to 95% of its maximum value at a distance of 1 cm from its top/centre.
A method for smart load shedding of climate control loads of a transport climate control system that provides climate control to a vehicle, the method comprises: obtaining vehicle status data indicative of conditions at the vehicle that affect energy storage and consumption during a route, wherein the vehicle status data includes a stored energy amount; obtaining route condition data indicative of conditions along the route; determining a predicted energy consumption to complete the route based on the vehicle status data and the route condition data; comparing the predicted energy consumption to the stored energy amount; and when the predicted energy consumption exceeds the stored energy amount, performing a load shedding operation of the climate control loads of the transport climate control system, wherein performing the load shedding operation includes: changing a desired climate setpoint of the transport climate control system; and/or increasing a dead band of a compressor included in the transport climate control system; and/or increasing cooling provided to a battery of the vehicle. obtaining vehicle status data indicative of conditions at the vehicle that affect energy storage and consumption during a route, wherein the vehicle status data includes a stored energy amount; obtaining route condition data indicative of conditions along the route; determining a predicted energy consumption to complete the route based on the vehicle status data and the route condition data; comparing the predicted energy consumption to the stored energy amount; and when the predicted energy consumption exceeds the stored energy amount, performing a load shedding operation of the climate control loads of the transport climate control system, wherein performing the load shedding operation includes: changing a desired climate setpoint of the transport climate control system; and/or increasing a dead band of a compressor included in the transport climate control system; and/or increasing cooling provided to a battery of the vehicle. changing a desired climate setpoint of the transport climate control system; and/or increasing a dead band of a compressor included in the transport climate control system; and/or increasing cooling provided to a battery of the vehicle.
A method for calibrating a serial interconnection system (1, 1a, 1b, 1c, 1d) having a first node, a second node, a plurality of calibration nodes (A, B; A', B'; A'-A", B'-B"; A", B") that are electrically connected in series by the serial interconnection system, and a plurality of connection nodes (A, B) corresponding to the plurality of serially connected calibration nodes, said plurality of connection nodes electrically connected in series by the serial interconnection system, said calibration method comprising: for each of the plurality of calibration nodes performing a measurement procedure involving: injecting a corresponding reference signal into that calibration node; and while the corresponding reference signal is being injected into that calibration node, measuring the phase difference of signals appearing at the first and second nodes; from the measured phase differences for the plurality of calibration nodes, computing phase corrections for each of the plurality of calibration nodes; and applying the phase corrections computed for each of the plurality of calibration nodes to the corresponding plurality of connection nodes. for each of the plurality of calibration nodes performing a measurement procedure involving: injecting a corresponding reference signal into that calibration node; and while the corresponding reference signal is being injected into that calibration node, measuring the phase difference of signals appearing at the first and second nodes; injecting a corresponding reference signal into that calibration node; and while the corresponding reference signal is being injected into that calibration node, measuring the phase difference of signals appearing at the first and second nodes; from the measured phase differences for the plurality of calibration nodes, computing phase corrections for each of the plurality of calibration nodes; and applying the phase corrections computed for each of the plurality of calibration nodes to the corresponding plurality of connection nodes.
Manifold device for an injection moulding nozzle for an injection moulding tool, having a main distribution channel extending from an inlet opening in the manifold device to at least two delivery openings for an injection moulding compound and at least two distribution channels each extending from a delivery opening to an outlet opening, which are each fluidly connected to a delivery opening to the main distribution channel, - wherein the delivery openings open into the main distribution channel in a longitudinal direction to the main distribution channel at at least two different heights and - wherein the delivery openings open into the main distribution channel in two planes (66a, 66b) spaced apart from each other in a longitudinal direction to the main distribution channel, characterised in that the outlet openings in a longitudinal direction to the main distribution channel are located between the planes (66a, 66b) of the delivery openings. - wherein the delivery openings open into the main distribution channel in a longitudinal direction to the main distribution channel at at least two different heights and - wherein the delivery openings open into the main distribution channel in two planes (66a, 66b) spaced apart from each other in a longitudinal direction to the main distribution channel,
A method in a user equipment, UE, the method comprising: while the UE is participating in an ongoing voice or multi-media session using packet switched, PS, bearers, the ongoing voice or multi-media session comprising an Internet Protocol multimedia subsystem, IMS, voice over packet switched, VoPS, session, performing mobility management procedures in response to the UE being handed over to or entering a new tracking area, TA, and receiving acceptance of a request to update a registration with a result indication of a particular type dictating that IMS VoPS sessions are not supported; and in response to receiving the acceptance of the request, postponing release of the ongoing voice or multi-media session until after the PS bearers are released normally, abnormally or otherwise subsequently. while the UE is participating in an ongoing voice or multi-media session using packet switched, PS, bearers, the ongoing voice or multi-media session comprising an Internet Protocol multimedia subsystem, IMS, voice over packet switched, VoPS, session, performing mobility management procedures in response to the UE being handed over to or entering a new tracking area, TA, and receiving acceptance of a request to update a registration with a result indication of a particular type dictating that IMS VoPS sessions are not supported; and performing mobility management procedures in response to the UE being handed over to or entering a new tracking area, TA, and receiving acceptance of a request to update a registration with a result indication of a particular type dictating that IMS VoPS sessions are not supported; and in response to receiving the acceptance of the request, postponing release of the ongoing voice or multi-media session until after the PS bearers are released normally, abnormally or otherwise subsequently.
An arrangement (100;100A;100B;100C;100D;100E;100F;100G) for interconnection of waveguide structures or components (10,20;10A,20A;10B,20B;10C,20C;10D,20D; 10E,20E;10F,20F;20G) comprising a waveguide flange adapter element (100;100A;100B1,100B2;100C;100F;100G) comprising a surface of a conductive material with a waveguide opening and a periodic or quasi-periodic structure (15;15A;15B;15C;15D;15E;15F15G) formed by a number of protruding elements (115;115A;115B1,115B2;115C;115D;115E;115F;115G) arranged around said waveguide opening, the protruding elements arranged or designed to allow waves to pass through said waveguide opening in a desired direction or waveguide path, at least in an intended frequency band of operation, and to stop propagation of waves in other directions, wherein it comprises interconnecting means allowing interconnection with a waveguide flange or another waveguide flange adapter element without requiring electrical or conductive contact, wherein the interconnecting means comprise a rim or ridge (105;105A;105C;105G) at least partly surrounding the surface (15;15A;15B1,15B2;15C;15D;15E;15F;15G) formed by the periodically or quasi-periodically arranged protruding elements (115;115A; 115B1;115B2;115C;115D;115E;115F;115G), characterized in that the rim or ridge is arranged to protrude beyond outer ends of the protruding elements, hence assuring that the surface (15;15A;15B1;15C;15D;15E;15F;15G) formed by the periodically or quasi-periodically arranged protruding elements (115;115A;115B 1; 115B2;115C;115D;115E;115F;115G) do not come in direct mechanical contact with an opposite, interconnecting, waveguide flange (20;20A;20C) or waveguide flange adapter element (10B 2). wherein it comprises interconnecting means allowing interconnection with a waveguide flange or another waveguide flange adapter element without requiring electrical or conductive contact, wherein the interconnecting means comprise a rim or ridge (105;105A;105C;105G) at least partly surrounding the surface (15;15A;15B1,15B2;15C;15D;15E;15F;15G) formed by the periodically or quasi-periodically arranged protruding elements (115;115A; 115B1;115B2;115C;115D;115E;115F;115G), characterized in that the rim or ridge is arranged to protrude beyond outer ends of the protruding elements, hence assuring that the surface (15;15A;15B1;15C;15D;15E;15F;15G) formed by the periodically or quasi-periodically arranged protruding elements (115;115A;115B 1; 115B2;115C;115D;115E;115F;115G) do not come in direct mechanical contact with an opposite, interconnecting, waveguide flange (20;20A;20C) or waveguide flange adapter element (10B 2).
Motor vehicle, comprising: - a device for detecting a distance from an obstacle located in the vicinity of the vehicle and for delivering warning information when a defined minimum distance from the obstacle is reached, - light devices (2, 3, 4, 5, 6), which respectively have a normal operation with a particular luminous intensity, wherein a light signal, which is visible at least outside the vehicle, can be emitted by means of at least one of the light devices (2, 3, 4, 5, 6) as a warning information, wherein the device is configured for spatially resolved detection of an obstacle, wherein, only after a minimum distance from an obstacle has been detected, the light device (2, 3, 4, 5, 6) which is closest to the obstacle is selected, characterised in that the light signal is emitted with an increased luminous intensity compared with the normal operation of the light device (2, 3, 4, 5, 6). - a device for detecting a distance from an obstacle located in the vicinity of the vehicle and for delivering warning information when a defined minimum distance from the obstacle is reached, - light devices (2, 3, 4, 5, 6), which respectively have a normal operation with a particular luminous intensity,
A method, for a user equipment, UE, for performing an unscheduled uplink transmission in an unlicensed portion of a radio spectrum, the method comprising: - receiving, from a base station (20, 902) serving the UE, a backoff offset defining an amount of time in which the starting time of the uplink transmission is delayed, wherein the backoff offset indicates an exact starting position of the uplink transmission in an unscheduled mode of operation; - performing, by the UE, a listen before talk, LBT, operation in the unlicensed portion of the radio spectrum, wherein the LBT operation comprises sensing the portion of the radio spectrum for a pre-determined minimum amount of time for traffic; and, if no traffic was sensed, - performing the unscheduled uplink transmission, by the UE, of data in the unscheduled mode of operation for at least one transmission burst at the starting position indicated by the backoff offset. - receiving, from a base station (20, 902) serving the UE, a backoff offset defining an amount of time in which the starting time of the uplink transmission is delayed, wherein the backoff offset indicates an exact starting position of the uplink transmission in an unscheduled mode of operation; - performing, by the UE, a listen before talk, LBT, operation in the unlicensed portion of the radio spectrum, wherein the LBT operation comprises sensing the portion of the radio spectrum for a pre-determined minimum amount of time for traffic; and, if no traffic was sensed, - performing the unscheduled uplink transmission, by the UE, of data in the unscheduled mode of operation for at least one transmission burst at the starting position indicated by the backoff offset.
A closing cap (1; 1a; 1b; 1c) for a container, comprising a lateral wall extending around an axis and a transversal wall positioned at one end of the lateral wall, a separating line being provided on the lateral wall to define a retaining ring, which comprises a retaining portion which extends as far as a free edge of the retaining ring and is configured to internally engage with a locking ring of a neck of the container in such a way as to remain anchored to the neck, and a closing element removably engageable with the neck, so as to open or close the container; the cap additionally comprising an incision line (7; 7'), which is also provided on the lateral wall to define, together with the separating line at least one connecting band (306; 307) for connecting the closing element and the retaining portion to each other; wherein the cap (1; 1a; 1b; 1c) comprises: a coupling structure (2; 2a; 2c) positioned inside the lateral wall for removably coupling the closing element to the neck of the container, the lateral wall having a first portion, without the coupling structure (2; 2a; 2c) and on which the separating line and the incision line (7; 7') are made, which has a first height measured along an axis parallel to the axis starting from the free edge, and a second portion provided with the coupling structure (2; 2a; 2c), which has a second height measured along an axis parallel to the axis starting from the transversal wall; wherein the ratio between the second height and the first height is greater than or equal to 1.0 and is less than or equal to 2.00 so that the connecting band (306, 307) can be made in the first portion with suitable dimensions; and characterized in that at a distance from the free edge equal to the first height there is a transition from the first portion to the second portion, the separating line, or the incision line, being positioned at a distance less than or equal to 1.00 mm from said transition, the transition being where the coupling structure (2; 2a; 2c) begins.
An earphone comprising: a speaker unit configured to electroacoustically transduce an audio signal into a sound wave; and a housing configured to define an acoustic space on at least one side of a diaphragm of the speaker unit, the speaker unit being attached to an inside of the housing, wherein the housing includes a nozzle portion forming an acoustic path communicating with the acoustic space to guide the sound wave to an ear canal of a user, and the nozzle portion includes a base member defining an outer shell of the nozzle portion, and a tubular member of which outer wall surface is fixed to an inner wall surface of the base member to form the acoustic path on the inside and which is made of metal, characterized in that the base member of the nozzle portion is made of a first metal material and the tubular member is made of a second metal material different from the first metal material, and in that the inner wall surface of the base member and the outer wall surface of the tubular member are fixed together through an adhesive layer. a speaker unit configured to electroacoustically transduce an audio signal into a sound wave; and a housing configured to define an acoustic space on at least one side of a diaphragm of the speaker unit, the speaker unit being attached to an inside of the housing, wherein the housing includes a nozzle portion forming an acoustic path communicating with the acoustic space to guide the sound wave to an ear canal of a user, and the nozzle portion includes a base member defining an outer shell of the nozzle portion, and a tubular member of which outer wall surface is fixed to an inner wall surface of the base member to form the acoustic path on the inside and which is made of metal, a base member defining an outer shell of the nozzle portion, and a tubular member of which outer wall surface is fixed to an inner wall surface of the base member to form the acoustic path on the inside and which is made of metal, characterized in that the base member of the nozzle portion is made of a first metal material and the tubular member is made of a second metal material different from the first metal material, and in that the inner wall surface of the base member and the outer wall surface of the tubular member are fixed together through an adhesive layer.