mhurhangee/patent-ind-claim-en huggingface dataset:
Agricultural implement having a parking apparatus , which has at least one parking support , and having a coupling apparatus for coupling the agricultural implement to a three-point hitch of a tractor, said coupling apparatus having - a coupling element , which can be moved between a coupling position and an operating position and is intended to be coupled to an upper link of a three-point hitch of a tractor; and - a locking system with a movable locking device , by means of which, in a locking position, the movement of the coupling element located in the operating position is delimited at least in one direction, and with a movable securing device , which in a securing position, together with the locking device located in the locking position, arrests the coupling element such that it can be subjected to loading in the operating position; wherein, irrespective of a movement of the agricultural implement , the securing device can be displaced from a passive position into the securing position; characterized in that the securing device is coupled mechanically to the parking apparatus via one or more levers such that, as the parking support moves from a parking position to an operating position, the securing device is moved from the passive position into the securing position. - a coupling element , which can be moved between a coupling position and an operating position and is intended to be coupled to an upper link of a three-point hitch of a tractor; and - a locking system with a movable locking device , by means of which, in a locking position, the movement of the coupling element located in the operating position is delimited at least in one direction, and with a movable securing device , which in a securing position, together with the locking device located in the locking position, arrests the coupling element such that it can be subjected to loading in the operating position;
A hearing prosthesis comprising an electric circuit with a hearing loss processor configured to process an audio signal and compensate a hearing I1oss of a user of the hearing prosthesis and output a hearing loss compensated audio signal based on the audio signal , an output transducer configured to convert the hearing loss compensated audio signal into an auditory output signal that can be received by the human auditory system and resulting in the user hearing sound, and a near-field magnetic induction communication unit configured for wireless communication, and a magnetic field antenna operatively connected with the near-field magnetic induction communication unit , wherein the magnetic field antenna comprises a coil, and wherein at least a part of the magnetic field antenna is embedded in a multi-layer printed circuit board , characterized in that the magnetic field antenna comprises a ferrite core , and the coil includes conductive traces formed in a conductive layer of the multi-layer printed circuit board . an output transducer configured to convert the hearing loss compensated audio signal into an auditory output signal that can be received by the human auditory system and resulting in the user hearing sound, and a near-field magnetic induction communication unit configured for wireless communication, and a magnetic field antenna operatively connected with the near-field magnetic induction communication unit , wherein the magnetic field antenna comprises a coil, and wherein at least a part of the magnetic field antenna is embedded in a multi-layer printed circuit board , characterized in that the magnetic field antenna comprises a ferrite core , and the coil includes conductive traces formed in a conductive layer of the multi-layer printed circuit board .
Method for resource management in a cellular communication network, wherein said network includes at least one base station per cell for a plurality of cells that operates in TDD, Time Division Duplex, transmission mode, each base station having a respective coverage area, wherein said base stations are operated such that spatial zones exist - overlap areas - in which the coverage areas of at least two of said base stations overlap, wherein a UE within an overlap area utilizes UL and/or DL resources from the at least two base stations with overlapping coverage areas based on the UE's particular traffic demands in the UL and/or in the DL, and wherein the UE, within a single UE frame, uses UL slots from both of the at least two base stations with overlapping coverage areas, and/or uses DL slots from both of the at least two base stations with overlapping coverage areas, characterized in that the at least two base stations with overlapping coverage areas cooperate with each other in such a way that they appear as a single logical base station - super-cell - towards the UE.
Assembly for a blower of a heating, ventilation and/or air-conditioning installation , the assembly being formed from a motor support intended to receive a motor , and from a ring , characterized in that said ring is intended to receive the motor support , the motor support being provided with at least one flexible sealing lip which is able to deform when the motor support passes through the ring .
A battery pack, comprising: a case assembly comprising a case , a thermally conductive beam and a temperature control component , the thermally conductive beam being disposed in the case and connected to a bottom region of the case , and the temperature control component being disposed in the bottom region of the case ; a thermally conductive cover connected to the thermally conductive beam and located above the thermally conductive beam along a height direction of the battery pack, wherein the thermally conductive cover , the case and the thermally conductive beam enclose and form a first chamber (A); and a plurality of battery cells integrally forming a battery assembly , the battery assembly being disposed in the first chamber (A) and located above the temperature control component ; wherein the thermally conductive cover and a top surface of the battery assembly adopt thermal contact heat transfer; and at least one of the thermally conductive beam and the thermally conductive cover , and a side surface of the battery assembly away from a pole (242; 243) adopt thermal contact heat transfer. a case assembly comprising a case , a thermally conductive beam and a temperature control component , the thermally conductive beam being disposed in the case and connected to a bottom region of the case , and the temperature control component being disposed in the bottom region of the case ; a thermally conductive cover connected to the thermally conductive beam and located above the thermally conductive beam along a height direction of the battery pack, wherein the thermally conductive cover , the case and the thermally conductive beam enclose and form a first chamber (A); and a plurality of battery cells integrally forming a battery assembly , the battery assembly being disposed in the first chamber (A) and located above the temperature control component ; wherein the thermally conductive cover and a top surface of the battery assembly adopt thermal contact heat transfer; and at least one of the thermally conductive beam and the thermally conductive cover , and a side surface of the battery assembly away from a pole (242; 243) adopt thermal contact heat transfer.
Calibration device for calibrating motor vehicle surround sensors , wherein the calibration device has: at least one target , which is embodied for interaction with at least one motor vehicle surround sensor to be calibrated; and at least one camera , which is embodied for optically capturing a surrounding area of the calibration device ; at least one measurement feature , which is able to be applied on at least one of the wheels of a vehicle arranged in front of the calibration device, wherein the measurement feature is located on an instrument panel that is fittable to the wheel; wherein the camera is embodied and aligned for recording images of the at least one measurement feature , wherein the position and the alignment of the at least one camera relative to the at least one target are known, wherein the at least one measurement feature is designed as a sphere in a manner such that it is captured by the camera independently of the rotational angle of the wheel. at least one target , which is embodied for interaction with at least one motor vehicle surround sensor to be calibrated; and at least one camera , which is embodied for optically capturing a surrounding area of the calibration device ; at least one measurement feature , which is able to be applied on at least one of the wheels of a vehicle arranged in front of the calibration device, wherein the measurement feature is located on an instrument panel that is fittable to the wheel; wherein the camera is embodied and aligned for recording images of the at least one measurement feature , wherein the position and the alignment of the at least one camera relative to the at least one target are known, wherein the at least one measurement feature is designed as a sphere in a manner such that it is captured by the camera independently of the rotational angle of the wheel.
A vehicle glove box latch for a vehicle glove box , the vehicle glove box latch comprising: a housing that is configured to be connected to a vehicle glove box; a user operated paddle that is pivotably connected to a paddle mounting portion of the housing , the paddle configured for movement between a home position and a deployed position; a rotor that is pivotably connected to a rotor mounting portion of the housing ; at least one pawl coupled to the rotor and having an end that is configured to be engaged with an opening in the vehicle to which the vehicle glove box is mounted; and a lock barrel mounted to the housing for locking and unlocking the vehicle glove box latch , wherein, in a locked state of the lock barrel the at least one pawl cannot be disengaged from the opening in the vehicle, and in an unlocked state of the lock barrel , the at least one pawl can be disengaged from the opening in the vehicle using the paddle for opening the vehicle glove box; wherein the lock barrel , the rotor and the rotor mounting portion of the housing are concentrically aligned along an axis. a housing that is configured to be connected to a vehicle glove box; a user operated paddle that is pivotably connected to a paddle mounting portion of the housing , the paddle configured for movement between a home position and a deployed position; a rotor that is pivotably connected to a rotor mounting portion of the housing ; at least one pawl coupled to the rotor and having an end that is configured to be engaged with an opening in the vehicle to which the vehicle glove box is mounted; and a lock barrel mounted to the housing for locking and unlocking the vehicle glove box latch , wherein, in a locked state of the lock barrel the at least one pawl cannot be disengaged from the opening in the vehicle, and in an unlocked state of the lock barrel , the at least one pawl can be disengaged from the opening in the vehicle using the paddle for opening the vehicle glove box; wherein the lock barrel , the rotor and the rotor mounting portion of the housing are concentrically aligned along an axis.
Electrode unit for a medical resectoscope for electrosurgical resection of tissue in a liquidfilled cavity of a patient, comprising an elongate rodshaped electrode shaft , the distal end of which has an electrode mount and a cutting electrode , which is fastened to the electrode mount and to which alternating current is able to be applied, wherein a spatula element which protrudes distally beyond the cutting electrode and is designed to support tissue is arranged on the electrode mount , characterized in that the spatula element has two support flanks which extend distally on both sides of the cutting electrode and form outer edges of the spatula element , at least one of said support flanks forming an inwardly shaped recess for the purposes of forming a waist in the region of the cutting electrode .
A communication method of a network entity for a network equipment , comprising: receiving a request message of entering a mobile initiated connection only, abbreviated to MICO, mode from a user equipment , abbreviated to LTE ; determining a time length of a delay timer of the MICO mode according to the request message ; and paging the UE when the delay timer of the MICO expires ; characterised by the time length of the delay timer is indicated by a mobile initiated connection only indication and the mobile initiated connection only indication includes at least a spare bit to indicate the time length of the delay timer. receiving a request message of entering a mobile initiated connection only, abbreviated to MICO, mode from a user equipment , abbreviated to LTE ; determining a time length of a delay timer of the MICO mode according to the request message ; and paging the UE when the delay timer of the MICO expires ; characterised by the time length of the delay timer is indicated by a mobile initiated connection only indication and the mobile initiated connection only indication includes at least a spare bit to indicate the time length of the delay timer.
A drive device, having an electric motor, wherein the electric motor has a laminated stator core with stator windings which is received in a stator housing , wherein the stator housing has cutouts which are continuous axially, i.e. in the axial direction of the rotor shaft, wherein the stator housing is surrounded, in particular is radially surrounded, by a housing , in particular tubular housing and/or pot-shaped housing, of the drive device, wherein the housing is spaced apart from the stator housing , in particular such that an in particular circulating air stream can be formed within the housing , in particular wherein the cutouts lead the air stream through in the axial direction and the air stream is returned in the opposite direction in the spaced-apart region between the stator housing and housing , characterised in that the drive device has a gear unit driven by the electric motor, the stator housing is manufactured from a second material and the housing from a first material, with the first material having a greater thermal conductivity than the second material.
Drive train assembly for driving a working unit with fluctuating power consumption from a drive source , comprising a flywheel accumulator for mitigating load impacts and/or power consumption fluctuations, and a starting aid for easier starting up of the flywheel accumulator into a desired speed range, wherein the starting aid comprises a planetary transmission which comprises at least one planetary transmission stage , which is connected in terms of drive to the flywheel accumulator , characterized in that the planetary transmission comprises a fixed drive, which, bypassing the planetary transmission stage , leads from the planetary transmission input side to an output shaft , which leads from the planetary transmission to the working unit , wherein said flywheel accumulator is branched with respect to said fix drive via the planetary transmission stage , and is variable in speed with respect to the drive speed of the output shaft , which leads to the working unit , wherein the planetary transmission comprises a drive and/or brake actuator for braking and/or accelerating a planetary transmission element in order to adjust the step-up/step-down ratio of the at least one planetary transmission stage when starting up the flywheel accumulator into its desired speed range.
A method of controlling radio transmission in a cellular network, the method comprising: a radio device configuring a radio connection between the radio device and the cellular network, the radio connection being registered for a cell area comprising at least a first cell (20-A, 20-B, 20-C, 20-D) and a second cell (20-A, 20-B, 20-C, 20-D) of the cellular network; before a decision of the radio device to perform a change from the first cell (20-A, 20-B, 20C, 20-D) to the second cell (20-A, 20-B, 20C, 20-D), the radio device determining a configuration of scheduling request opportunities for the radio device on a control channel of the second cell (20-A, 20-B, 20-C, 20-D); after the change of the radio device from the first cell (20-A, 20-B, 20C, 20-D) to the second cell (20-A, 20-B, 20C, 20-D), the radio device resuming transmission on the radio connection by sending a scheduling request on one of the scheduling request opportunities to request allocation of radio resources of second cell (20-A, 20-B, 20-C, 20-D). a radio device configuring a radio connection between the radio device and the cellular network, the radio connection being registered for a cell area comprising at least a first cell (20-A, 20-B, 20-C, 20-D) and a second cell (20-A, 20-B, 20-C, 20-D) of the cellular network; before a decision of the radio device to perform a change from the first cell (20-A, 20-B, 20C, 20-D) to the second cell (20-A, 20-B, 20C, 20-D), the radio device determining a configuration of scheduling request opportunities for the radio device on a control channel of the second cell (20-A, 20-B, 20-C, 20-D); after the change of the radio device from the first cell (20-A, 20-B, 20C, 20-D) to the second cell (20-A, 20-B, 20C, 20-D), the radio device resuming transmission on the radio connection by sending a scheduling request on one of the scheduling request opportunities to request allocation of radio resources of second cell (20-A, 20-B, 20-C, 20-D).
A method for producing a tubular component as an article from a thermoplastic material while using an injection-molding device having a tool that forms an article cavity , having means for filling the article cavity with a thermoplastic molding compound, and having an injection device for injecting a fluid into the article cavity , wherein the injection device comprises a nozzle body , wherein the method provides that the nozzle body is used as a mold core for molding the shape of an end of the article; that the nozzle body is used as a carrier for an additional component that is to be incorporated into the article; wherein a) the nozzle body is first equipped with the additional component; b) the nozzle body is introduced into the closed article cavity , or the tool is closed around the nozzle body ; c) the article cavity in a further method step is at least partially filled with the thermoplastic molding compound; d) a pressurized fluid is then induced into the article cavity by means of the injection device , wherein part of the molding compound is displaced into a secondary cavity or another volume; and e) the article is de-molded. a) the nozzle body is first equipped with the additional component; b) the nozzle body is introduced into the closed article cavity , or the tool is closed around the nozzle body ; c) the article cavity in a further method step is at least partially filled with the thermoplastic molding compound; d) a pressurized fluid is then induced into the article cavity by means of the injection device , wherein part of the molding compound is displaced into a secondary cavity or another volume; and e) the article is de-molded.
A computer-implemented method of providing merging assistance for a first vehicle , the method comprising: capturing a vehicle speed of the first vehicle travelling in a lane of roadway; receiving adjacent vehicle data relating to an adjacent vehicle upstream of the first vehicle in an adjacent lane , wherein the adjacent vehicle data is captured by one or more sensors positioned in the first vehicle and includes a distance between the adjacent vehicle and at least one of the one or more sensors; receiving adjacent lane data relating to a speed of one or more vehicles in the adjacent lane; based on the vehicle speed, the adjacent vehicle data, and the adjacent lane data, generating merger information for the first vehicle, wherein the merger information comprises a target merge speed; and characterized by determining a safety rating for a potential merge based on t max and a mín , wherein t max is calculated as a maximum amount of time for reaching the target merge speed and complete merging while avoiding a collision with the upstream vehicle, and wherein a min is calculated as a minimum acceleration required for reaching the target merge speed and complete merging within t max . capturing a vehicle speed of the first vehicle travelling in a lane of roadway; receiving adjacent vehicle data relating to an adjacent vehicle upstream of the first vehicle in an adjacent lane , wherein the adjacent vehicle data is captured by one or more sensors positioned in the first vehicle and includes a distance between the adjacent vehicle and at least one of the one or more sensors; receiving adjacent lane data relating to a speed of one or more vehicles in the adjacent lane; based on the vehicle speed, the adjacent vehicle data, and the adjacent lane data, generating merger information for the first vehicle, wherein the merger information comprises a target merge speed; and characterized by determining a safety rating for a potential merge based on t max and a mín , wherein t max is calculated as a maximum amount of time for reaching the target merge speed and complete merging while avoiding a collision with the upstream vehicle, and wherein a min is calculated as a minimum acceleration required for reaching the target merge speed and complete merging within t max . wherein t max is calculated as a maximum amount of time for reaching the target merge speed and complete merging while avoiding a collision with the upstream vehicle, and wherein a min is calculated as a minimum acceleration required for reaching the target merge speed and complete merging within t max .
An oil distribution assembly for a gas turbine engine, comprising: an oil distributor mounted for rotation about a rotation axis of the assembly and comprising an internal volume having a plurality of channels extending along an inner radial surface of the oil distributor ; and an oil injector disposed arranged to direct a supply of oil to the plurality of channels in a direction having a component in a first direction along the rotation axis ; each of the plurality of channels is angled relative to the rotation axis such that a radial distance between each channel and the rotation axis increases along the rotation axis ; characterised in that the oil distributor is arranged to rotate around the oil injector and the oil injector is disposed within the internal volume of the oil distributor . an oil distributor mounted for rotation about a rotation axis of the assembly and comprising an internal volume having a plurality of channels extending along an inner radial surface of the oil distributor ; and an oil injector disposed arranged to direct a supply of oil to the plurality of channels in a direction having a component in a first direction along the rotation axis ; each of the plurality of channels is angled relative to the rotation axis such that a radial distance between each channel and the rotation axis increases along the rotation axis ; characterised in that the oil distributor is arranged to rotate around the oil injector and the oil injector is disposed within the internal volume of the oil distributor .
An aerosol container of plastic with a neck whose opening is closable or closed in a pressure-tight manner by way of a valve unit which can be actuated by a push button, said aerosol container being fillable or filled with a liquid or gaseous propellant and a liquid which is to be sprayed, wherein the aerosol container is designed as an injection-moulded preform with an elongate, tube-like preform body , said preform body comprising a convex, dome-shaped preform base , beyond which a standing region which is integrally formed as one piece projects in the axial direction and at its opposite axial longitudinal end comprising a neck with an opening , said neck connecting onto the preform body .