mhurhangee/patent-ind-claim-en huggingface dataset:
A nacelle for a wind turbine extending along a longitudinal axis (Y) between a front side , where a wind rotor is rotatably attachable to the nacelle for rotating about the longitudinal axis (Y) and a longitudinally opposite rear side , the nacelle comprising: an outer surface delimiting an inner volume of the nacelle , a cooling path for circulating a cooling flow in the inner volume , a pressure source for generating an overpressure inside the inner volume of the nacelle , the pressure source including an inlet at the outer surface for receiving the cooling flow and an outlet for delivering the cooling flow in the inner volume , and at least one heat exchanger provided in the outer surface of the nacelle , wherein the heat exchanger includes an inner surface toward the inner volume of the nacelle for receiving the cooling flow from the inner volume of the nacelle and an outer surface for delivering the heated cooling flow to an ambient environment surrounding the nacelle , wherein the heat exchanger further comprises a regulation valve for limiting the cooling flow from the inner volume to the ambient environment surrounding the nacelle . an outer surface delimiting an inner volume of the nacelle , a cooling path for circulating a cooling flow in the inner volume , a pressure source for generating an overpressure inside the inner volume of the nacelle , the pressure source including an inlet at the outer surface for receiving the cooling flow and an outlet for delivering the cooling flow in the inner volume , and at least one heat exchanger provided in the outer surface of the nacelle , wherein the heat exchanger includes an inner surface toward the inner volume of the nacelle for receiving the cooling flow from the inner volume of the nacelle and an outer surface for delivering the heated cooling flow to an ambient environment surrounding the nacelle , wherein the heat exchanger further comprises a regulation valve for limiting the cooling flow from the inner volume to the ambient environment surrounding the nacelle .
Closing mechanism for a power take-off shaft that automatically closes to seal the power take-off shaft found in hydraulic power units, comprising - a power take-off shaft containing a channel structure in the form of longitudinal stripes on the horizontal axis, characterized in that it further comprises - a ball bearing outer ring achieved by means of the removal of the inner ring and a sufficient number of ball bearings , - a flexible component that contains an outer ring fixed to a reference surface, preferably the power take-off casting cover, an inner ring and flexible structures that can change shape between these two components in a reciprocating manner, - a torque limiter coupling that revolves in a single direction, wherein when said power take-off shaft starts to operate, the torque that is formed as a result of the rotational motion is transmitted to the torque limiter coupling by means of the ball bearings and with this, the flexible component , by means of the flexible structures on top of it, carries out a linear movement on the axis of revolution. - a ball bearing outer ring achieved by means of the removal of the inner ring and a sufficient number of ball bearings , - a flexible component that contains an outer ring fixed to a reference surface, preferably the power take-off casting cover, an inner ring and flexible structures that can change shape between these two components in a reciprocating manner, - a torque limiter coupling that revolves in a single direction,
Method of access to a motor vehicle , comprising the following steps: - establishing contactless communication according to the NFC protocol between a badge of the motor vehicle and a smartphone , - communicating an authentication key from the badge to the smartphone , in the form of the VIN (Vehicle Identification Number) code of the vehicle, - transmitting the authentication key of the smartphone to a server by telephone communication, the server being capable of communicating with the vehicle , - recognizing the authentication key by means of the server , and transmitting a first batch of data concerning the state of the vehicle from the server to the smartphone, - communicating, by means of the server, a second batch of data concerning the operation of the vehicle after a PIN code has been entered on the smartphone , this second batch comprising data for starting the engine of the vehicle. - establishing contactless communication according to the NFC protocol between a badge of the motor vehicle and a smartphone , - communicating an authentication key from the badge to the smartphone , in the form of the VIN (Vehicle Identification Number) code of the vehicle, - transmitting the authentication key of the smartphone to a server by telephone communication, the server being capable of communicating with the vehicle , - recognizing the authentication key by means of the server , and transmitting a first batch of data concerning the state of the vehicle from the server to the smartphone, - communicating, by means of the server, a second batch of data concerning the operation of the vehicle after a PIN code has been entered on the smartphone , this second batch comprising data for starting the engine of the vehicle.
An air filter for heavy dust conditions comprising: a housing ; a precleaner ; a permeable filter ; and a scavenger system , said scavenger system disposes of particles collected at said precleaner and on the upstream surface of said permeable filter , characterized by said scavenger system comprising: an air suction source and a three way valve , wherein said three way valve is airflow coupled to said precleaner , said permeable filter and said air suction source, said three way valve enables scavenging of said precleaner and said permeable filter alternately.
A method for feeding items of laundry to a laundry machine, such as in particular a mangle, with opposite corners of a front edge , running transversely with respect to the feeding direction , of a respective item of laundry being suspended in two loading clamps (15; 27, 28, 29) from which the item of laundry is transferred to spreading clamps, which are movable transversely with respect to the feeding direction , of a spreading device or is taken over by the spreading clamps, the spreading clamps are moved apart in order to spread out the item of laundry by stretching the front edge of same, and the spread-out item of laundry is deposited by the spreading clamps on a depositing strip or on a feed conveyor which transports the spread-out item of laundry to the mangle or to another laundry machine, characterized in that the two loading clamps (15; 27, 28, 29) holding the opposite corners of the respective item of laundry are at such a large or relatively large distance (A) from one another or can be brought to such a distance (A) from one another that, when the item of laundry is hanging down from the two loading clamps (15; 27, 28, 29), a V-like sag of the front edge is formed, an at least approximately lowest point of the V-like sag is contactlessly determined and the length of the sagging front edge of the item of laundry is derived therefrom.
Method for operating a cooking appliance , which has a cooking compartment , in which a cooked food support can be positioned in at least two different shelf levels (I, II, III), wherein a specific shelf level (I, II, III) for the cooked food support is predetermined for a preparation program, and it is detected whether, as a function of the selected preparation program, the cooked food support is arranged on the shelf level (I, II, III) provided therefor and the preparation program is changed if the cooked food support is arranged on a used shelf level (I, II, III) which differs from the provided shelf level (I, II, III), characterised in that the changed preparation program is only started after confirmation by the user or is automatically started after a predeterminable period of time has elapsed, which is determined after communication of a change to the preparation program and in which there is no change to the shelf level (I, II, III) by the user.
A power management circuit, comprising: a first inductor having a first terminal configured to couple to a first node and a second terminal configured to couple to a second node ; a first p-type metal oxide semiconductor field effect transistor MOSFET PFET having a source terminal coupled to the second node and a drain terminal coupled to a third node; a second PFET having a source terminal coupled to a ground voltage potential and a drain terminal coupled to the second node ; a third PFET having a source terminal coupled to a fourth node and a drain terminal coupled to the third node; a fourth PFET having a source terminal coupled to the ground voltage potential and a drain terminal coupled to the fourth node ; a n-type MOSFET NFET having a drain terminal coupled to a fifth node and a source terminal coupled to the third node; a second inductor having a first terminal configured to couple to the fourth node and a second terminal configured to couple to the fifth node ; and a controller coupled to a gate terminal of the first PFET , a gate terminal of the second PFET , a gate terminal of the third PFET , a gate terminal of the fourth PFET , and a gate terminal of the NFET . a first inductor having a first terminal configured to couple to a first node and a second terminal configured to couple to a second node ; a first p-type metal oxide semiconductor field effect transistor MOSFET PFET having a source terminal coupled to the second node and a drain terminal coupled to a third node; a second PFET having a source terminal coupled to a ground voltage potential and a drain terminal coupled to the second node ; a third PFET having a source terminal coupled to a fourth node and a drain terminal coupled to the third node; a fourth PFET having a source terminal coupled to the ground voltage potential and a drain terminal coupled to the fourth node ; a n-type MOSFET NFET having a drain terminal coupled to a fifth node and a source terminal coupled to the third node; a second inductor having a first terminal configured to couple to the fourth node and a second terminal configured to couple to the fifth node ; and a controller coupled to a gate terminal of the first PFET , a gate terminal of the second PFET , a gate terminal of the third PFET , a gate terminal of the fourth PFET , and a gate terminal of the NFET .
A method performed by a wireless communication device for controlling power in bidirectional Sidelink, SL, communications, the method comprising: - determining a Path Loss, PL, based transmit power for a Physical SL Feedback Channel, PSFCH based on an estimated PL to a Base Station, BS ; and - setting an initial PSFCH transmit power as a lesser of the PL-based transmit power for the PSFCH and a Physical SL Shared Channel, PSSCH, transmit power level. - determining a Path Loss, PL, based transmit power for a Physical SL Feedback Channel, PSFCH based on an estimated PL to a Base Station, BS ; and - setting an initial PSFCH transmit power as a lesser of the PL-based transmit power for the PSFCH and a Physical SL Shared Channel, PSSCH, transmit power level.
A method comprising: receiving, at a source cell , an indication that a handover of a mobile terminal is to be conducted from the source cell to a target cell ; causing, at the source cell , provision of information indicative of a measurement configuration employed by the mobile terminal with respect to the source cell to the target cell , the measurement configuration being descriptive of reports for communication parameters measured at the mobile terminal based on transmissions associated with the source cell ; and directing, at the source cell , communication of a continuity indicator to the mobile terminal to indicate to the mobile terminal whether to continue providing measurement information to the target cell based on the measurement configuration, characterized in that the continuity indicator is generated by the source cell . receiving, at a source cell , an indication that a handover of a mobile terminal is to be conducted from the source cell to a target cell ; causing, at the source cell , provision of information indicative of a measurement configuration employed by the mobile terminal with respect to the source cell to the target cell , the measurement configuration being descriptive of reports for communication parameters measured at the mobile terminal based on transmissions associated with the source cell ; and directing, at the source cell , communication of a continuity indicator to the mobile terminal to indicate to the mobile terminal whether to continue providing measurement information to the target cell based on the measurement configuration, characterized in that the continuity indicator is generated by the source cell .
An actuating drive for a motor vehicle, in particular for a vehicle seat, - comprising an electric motor which drives a drive shaft , - comprising a transmission which has a) a housing, b) a gear wheel that is meshed with the drive shaft and has a rotation axis , and c) a bearing part which is located between the gear wheel and housing, and - comprising a spindle which has a spindle axis running parallel to the rotation axis , runs through an internal thread of the gear wheel and through apertures in the housing, and is in engagement with said internal thread , wherein the housing has a cylinder bore which receives the bearing part and which defines a cylinder axis , the bearing part is delimited by a three-dimensional area that, viewed in the direction of the cylinder axis , has its largest cross-sectional area at a right angle to the cylinder axis at the intersection point of the cylinder axis with the rotation axis , wherein said largest cross-sectional area is a circular area, and wherein the bearing part has two bearing shells , each of which has a bearing opening centred relative to the rotation axis , through which bearing openings the spindle passes and in which bearing openings the gear wheel is mounted rotatably, characterised in that , with increasing distance from the intersection point in both directions along the cylinder axis , the size of the cross-sectional area decreases, in particular decreases continuously, and in that the housing is rigidly connected to the electric motor . - comprising an electric motor which drives a drive shaft , - comprising a transmission which has a) a housing, b) a gear wheel that is meshed with the drive shaft and has a rotation axis , and c) a bearing part which is located between the gear wheel and housing, and - comprising a spindle which has a spindle axis running parallel to the rotation axis , runs through an internal thread of the gear wheel and through apertures in the housing, and is in engagement with said internal thread , wherein the housing has a cylinder bore which receives the bearing part and which defines a cylinder axis , the bearing part is delimited by a three-dimensional area that, viewed in the direction of the cylinder axis , has its largest cross-sectional area at a right angle to the cylinder axis at the intersection point of the cylinder axis with the rotation axis , wherein said largest cross-sectional area is a circular area, and wherein the bearing part has two bearing shells , each of which has a bearing opening centred relative to the rotation axis , through which bearing openings the spindle passes and in which bearing openings the gear wheel is mounted rotatably, characterised in that , with increasing distance from the intersection point in both directions along the cylinder axis , the size of the cross-sectional area decreases, in particular decreases continuously, and in that the housing is rigidly connected to the electric motor .
A developer storage container comprising: a first storage member storing a developer; a second storage member fitted to the first storage member ; and a sealing member that seals between the first storage member and the second storage member for preventing leakage of the developer, wherein the first storage member includes a first fitting portion ; wherein the second storage member includes a fitting surface to which the first fitting portion is fitted; wherein the first fitting portion includes a pressing portion pressing the sealing member ; the pressing portion having an inclined portion facing the fitting surface , wherein the first fitting portion further includes an outer wall formed continuously with the inclined portion of the pressing portion , the outer wall and the fitting surface facing each other and being parallel to each other. a first storage member storing a developer; a second storage member fitted to the first storage member ; and a sealing member that seals between the first storage member and the second storage member for preventing leakage of the developer, wherein the first storage member includes a first fitting portion ; wherein the second storage member includes a fitting surface to which the first fitting portion is fitted; wherein the first fitting portion includes a pressing portion pressing the sealing member ; the pressing portion having an inclined portion facing the fitting surface , wherein the first fitting portion further includes an outer wall formed continuously with the inclined portion of the pressing portion , the outer wall and the fitting surface facing each other and being parallel to each other.
A battery pack in which a plurality of battery modules are stacked, wherein at least one battery module of the plurality of battery modules comprises at least one battery cell which includes a cell lead ; a cartridge on which the battery cell is mounted; and a cooling cover which is coupled to the cartridge and covers the battery cell , wherein the cartridge comprises a seating portion on which the battery cell is seated; wherein the cartridge further comprises a pressing portion which is formed on the seating portion and, which, when an external force is applied to the seating portion , presses one end of the cooling cover of the other neighboring battery modules; a supporting portion which is formed on the seating portion to be spaced apart the pressing portion and supports the other end of the cooling cover of the other neighboring battery modules, wherein the cooling cover comprises a heat conductive plate which faces the battery cell ; and at least one fastening plate which is bent at the heat conductive plate and is detachably coupled with the cartridge , wherein the heat conductive plate is positioned between the pressing portion and the supporting portion , wherein the pressing portion faces one end of the heat conductive plate , wherein the supporting portion faces the other end of the heat conductive plate , wherein the cooling cover of the other neighboring battery modules is restricted in the longitudinal direction of the cooling cover due to the pressing portion and the supporting portion , characterized in that the cooling cover includes at least one hole; the hole is formed to be lengthened in the perpendicular direction to the longitudinal direction of the cooling cover ; and a plurality of holes , formed in at least one of the fastening plates and in the heat conductive plate , is spaced apart in the perpendicular direction to the longitudinal direction of the cooling cover .
A network entity for managing mobility for a wireless communication system, the network entity comprising: a transceiver (282a-282n) ; and a processor operably coupled to the transceiver (282a-282n), wherein the processor is configured to: determine an initial mobility management configuration for a user equipment, UE , in a serving cell based on cell configuration information; identify a current contextual information associated with the UE based on reports received from the UE ; determine an updated mobility management configuration for the UE based on the current contextual information associated with the UE ; transmit a configuration message to update the UE with the updated mobility management configuration; determine whether to trigger a handover of the UE based on comparison of the serving cell and neighbor cell measurements with thresholds; and trigger the handover based on the updated mobility management configuration, wherein the initial mobility management configuration for the UE includes a white list of cells for performing the handover to, and wherein the updated mobility management configuration includes a modification to the white list. a transceiver (282a-282n) ; and a processor operably coupled to the transceiver (282a-282n), wherein the processor is configured to: determine an initial mobility management configuration for a user equipment, UE , in a serving cell based on cell configuration information; identify a current contextual information associated with the UE based on reports received from the UE ; determine an updated mobility management configuration for the UE based on the current contextual information associated with the UE ; transmit a configuration message to update the UE with the updated mobility management configuration; determine whether to trigger a handover of the UE based on comparison of the serving cell and neighbor cell measurements with thresholds; and trigger the handover based on the updated mobility management configuration, wherein the initial mobility management configuration for the UE includes a white list of cells for performing the handover to, and wherein the updated mobility management configuration includes a modification to the white list. determine an initial mobility management configuration for a user equipment, UE , in a serving cell based on cell configuration information; identify a current contextual information associated with the UE based on reports received from the UE ; determine an updated mobility management configuration for the UE based on the current contextual information associated with the UE ; transmit a configuration message to update the UE with the updated mobility management configuration; determine whether to trigger a handover of the UE based on comparison of the serving cell and neighbor cell measurements with thresholds; and trigger the handover based on the updated mobility management configuration, wherein the initial mobility management configuration for the UE includes a white list of cells for performing the handover to, and wherein the updated mobility management configuration includes a modification to the white list.