mhurhangee/ep-ind-claims huggingface dataset:
A method for supporting time shift playback in an adaptive HTTP streaming transmission solution, comprising: sending, by a client, a live media presentation description, MPD, request message to a media server; returning, by the media server, a response message that comprises a current MPD for a current time period, wherein the current MPD comprises media presentation information for previous time periods, and the media presentation information for each previous time period comprises the previous time period and an address of previous MPD for the previous time period; determining, by the client, that a moment of a media segment to be requested currently exceeds a time range corresponding to the current MPD, and determining, according to the media presentation information for previous time periods, an address of previous MPD corresponding to the media segment to be requested currently; requesting, by the client, a MPD according to the address of previous MPD corresponding to the media segment to be requested currently; returning, by the media server, the corresponding previous MPD according to the address of previous MPD; requesting, by the client, the media segment to be requested currently according to the acquired previous MPD; and returning, by the media server, the corresponding media segment to be requested currently to the client. sending, by a client, a live media presentation description, MPD, request message to a media server; returning, by the media server, a response message that comprises a current MPD for a current time period, wherein the current MPD comprises media presentation information for previous time periods, and the media presentation information for each previous time period comprises the previous time period and an address of previous MPD for the previous time period; determining, by the client, that a moment of a media segment to be requested currently exceeds a time range corresponding to the current MPD, and determining, according to the media presentation information for previous time periods, an address of previous MPD corresponding to the media segment to be requested currently; requesting, by the client, a MPD according to the address of previous MPD corresponding to the media segment to be requested currently; returning, by the media server, the corresponding previous MPD according to the address of previous MPD; requesting, by the client, the media segment to be requested currently according to the acquired previous MPD; and returning, by the media server, the corresponding media segment to be requested currently to the client.
A razor comprising an assembly having one or more movable portions; a loop shaped spring member (10, 30, 40, 50, 60) disposed in said assembly to eject a cartridge from a razor handle, characterized in that said one or more movable portions capable of a travel distance of about 2.5 mm or greater, and the loop shaped spring member (10, 30, 40, 50, 60) includes free distal ends (12, 32, 42, 96). an assembly having one or more movable portions; a loop shaped spring member (10, 30, 40, 50, 60) disposed in said assembly to eject a cartridge from a razor handle, characterized in that said one or more movable portions capable of a travel distance of about 2.5 mm or greater, and the loop shaped spring member (10, 30, 40, 50, 60) includes free distal ends (12, 32, 42, 96).
A magnetic toner comprising magnetic toner particles, each of the magnetic toner particles comprises magnetic toner base particle containing a binder resin and a magnetic material, which is a magnetic iron oxide having been subjected to hydrophobic treatment, and an inorganic fine powder; (a) the magnetic toner having, at a frequency of 100 kHz and a temperature of 30°C, a dielectric loss factor (ε"), measured as indicated in the description, of from 2.5×10 -1 pF/m or more to 7.0×10 -1 pF/m or less and a dielectric dissipation factor (tanδ L), measured as indicated in the description, of 3.0×10 -2 or less; (b) the magnetic toner having, in a dielectric dissipation factor (tanδ) thereof at a frequency of 100 kHz, measured as indicated in the description, a maximum value (tanδ H) within the temperature range of from 60°C to 140°C; and the tan δ H and the tan δ L satisfying tan δ H − tan δ L ≤ 3.0 × 10 − 2. (a) the magnetic toner having, at a frequency of 100 kHz and a temperature of 30°C, a dielectric loss factor (ε"), measured as indicated in the description, of from 2.5×10 -1 pF/m or more to 7.0×10 -1 pF/m or less and a dielectric dissipation factor (tanδ L), measured as indicated in the description, of 3.0×10 -2 or less; (b) the magnetic toner having, in a dielectric dissipation factor (tanδ) thereof at a frequency of 100 kHz, measured as indicated in the description, a maximum value (tanδ H) within the temperature range of from 60°C to 140°C; and the tan δ H and the tan δ L satisfying tan δ H − tan δ L ≤ 3.0 × 10 − 2.
A filter system having a filter housing and a filter element with a filter medium, a first end disc connected to the filter medium and a second end disc connected to the filter medium, wherein the filter medium is disposed between the first end disc and the second end disc, wherein the first end disc, facing away from the filter medium, comprises a positioning and sealing section, wherein the positioning and sealing section comprises positioning recesses on the exterior side, which are set up so that interfering geometries of a filter housing of the filter system engage positively in the positioning recesses in order to position the filter element circumferentially with respect to the filter housing, wherein the positioning and sealing section comprises an interface on the inner side, which is set up to seal the filter element radially with respect to the filter housing and to position it axially with respect to the filter housing, wherein the interface, when viewed along a longitudinal direction of the filter element, which is oriented from the first end disc towards the second end disc, extends further into the positioning and sealing section than the positioning recesses, wherein the interface comprises a sealing groove in the shape of an annular groove, which completely extends around a symmetry axis of the filter element, wherein the sealing groove is set up so that a sealing rib of the filter housing engages positively in the sealing groove in order to position the filter element axially with respect to the filter housing, wherein the filter housing comprises interfering geometries, which engage positively in the positioning recesses of the filter element, wherein the filter housing comprises a sealing surface with which the interface of the filter element is radially compressed at least section-wise, and wherein a respective end face of the interfering geometries, when viewed along the longitudinal direction, is disposed downstream of the sealing surface of the filter housing.
A display screen assembly, comprising: a cover plate; a connector comprising a first joining portion, a second joining portion bending from an edge of the first joining portion, and a third joining portion bending from the second joining portion, the first joining portion being coupled to a lower surface of the cover plate; a display screen comprising a display area and a non-display area surrounding the display area, the display screen having a top surface joined to the lower surface of the cover plate, the first joining portion being supported on the top surface of the display screen and corresponding to the non-display area, the display area being exposed out of the first joining portion, and the second joining portion being opposite to a side wall of the display screen; and characterized in that the display screen assembly further comprises: a bracket comprising a top portion, a bottom portion opposite to the top portion and a hole running through the top portion and the bottom portion, the top portion being joined to a bottom surface of the display screen, the second joining portion passing through the hole, and the third joining portion abutting against the bottom portion. a cover plate; a connector comprising a first joining portion, a second joining portion bending from an edge of the first joining portion, and a third joining portion bending from the second joining portion, the first joining portion being coupled to a lower surface of the cover plate; a display screen comprising a display area and a non-display area surrounding the display area, the display screen having a top surface joined to the lower surface of the cover plate, the first joining portion being supported on the top surface of the display screen and corresponding to the non-display area, the display area being exposed out of the first joining portion, and the second joining portion being opposite to a side wall of the display screen; and characterized in that the display screen assembly further comprises: a bracket comprising a top portion, a bottom portion opposite to the top portion and a hole running through the top portion and the bottom portion, the top portion being joined to a bottom surface of the display screen, the second joining portion passing through the hole, and the third joining portion abutting against the bottom portion.
Plastic injection-moulded brake fluid reservoir formed from the assembly of a lower section and of an upper section having a filler neck moulded in one piece and equipped with a basket-shaped filter (30, 30A, 30B) which descends into the reservoir below the filling level and is made in one piece with the neck (20, 20A, 20B), which reservoir is characterized in that - the lateral wall (31, 31A, 31B) of the basket is formed from inner lateral lamellae (311, 311A, 311B) delimiting inner slots (312, 312A, 312B) and from outer peripheral hoops (313, 313A, 313B) leaving peripheral slots (314, 314A, 314B), the hoops crossing the inner lamellae while being connected thereto by material bonding and forming passages at the intersection of the inner slots and the peripheral slots. - the lateral wall (31, 31A, 31B) of the basket is formed from inner lateral lamellae (311, 311A, 311B) delimiting inner slots (312, 312A, 312B) and from outer peripheral hoops (313, 313A, 313B) leaving peripheral slots (314, 314A, 314B), the hoops crossing the inner lamellae while being connected thereto by material bonding and forming passages at the intersection of the inner slots and the peripheral slots.
A multiuser multi-input multi-output scheduling method, comprising steps of: a multiuser scheduling step of performing multiuser scheduling by using mean channel matrixes of respective user equipments; and a multiuser precoding step of performing multiuser precoding by using instantaneous channel matrixes of respective user equipments selected in the multiuser scheduling.
A method for indicating paging synchronization, applied to a base station, wherein the method comprises: adding indication information into a Radio Resource Control, RRC, signaling, the indication information being used for indicating whether a non-cell-defining Synchronization Signal Block, SSB, is capable of being used for establishing paging synchronization; and transmitting, to User Equipment, UE, the RRC signaling added with the indication information and paging configuration information used for configuring a paging occasion respectively, wherein the indication information and the paging configuration information jointly serve as a received information set of the UE. adding indication information into a Radio Resource Control, RRC, signaling, the indication information being used for indicating whether a non-cell-defining Synchronization Signal Block, SSB, is capable of being used for establishing paging synchronization; and transmitting, to User Equipment, UE, the RRC signaling added with the indication information and paging configuration information used for configuring a paging occasion respectively, wherein the indication information and the paging configuration information jointly serve as a received information set of the UE.
A method for the distributed calculation of calculation tasks by means of field devices (12a, 12b, 12c) of an industrial plant, wherein - a plurality of field devices (12a, 12b, 12c) are coupled to a task distribution unit by means of a data link, - the field devices (12a, 12b, 12c) effect a control of the industrial plant in an operating state in each case, characterized in that - at least one of the field devices (12a, 12b, 12c), in an idle state, receives a calculation task from the task distribution unit and changes to a calculation state in which the calculation task is processed, wherein processing power that is not required for the control of the industrial plant is used for the calculation task, wherein the task distribution unit provides an interface for receiving new calculation tasks from an external source and wherein the task distribution unit maintains a queue for new calculation tasks. - a plurality of field devices (12a, 12b, 12c) are coupled to a task distribution unit by means of a data link, - the field devices (12a, 12b, 12c) effect a control of the industrial plant in an operating state in each case, characterized in that - at least one of the field devices (12a, 12b, 12c), in an idle state, receives a calculation task from the task distribution unit and changes to a calculation state in which the calculation task is processed, wherein processing power that is not required for the control of the industrial plant is used for the calculation task,
Simplified multi-function hinge comprising a body and a connection element mutually connected by means of a hinge pin, said body and connection element being assigned to be fixed respectively to a door and to the frame or structure of an appliance or vice versa, and being rotatable with respect to each other between a closed condition of the hinge, in which the door closes an opening of the appliance frame or structure, and a maximum opening condition of the hinge, in which the door forms an angle of maximum opening with the plane defined by the edge of the opening; said hinge also comprises an elastic element connected to the body to transmit, by means of a transmission element, an elastic closing force to the connection element; the transmission element comprises: - a first extreme portion constrained to the connection element by the coupling of a first cam and a first pin, obtained or fixed respectively in the first extreme portion and on the connection element or vice versa; - a second extreme portion opposite to the first and constrained to the elastic element blocked to the body; - an intermediate portion between the first and second extreme portions constrained to the body by the coupling of a second cam and a second pin, obtained or fixed respectively in the intermediate portion and on the body or vice versa; the hinge being characterized in that said transmission element is constrained to the connection element also by the coupling of a third cam and a third pin, obtained or fixed respectively in the transmission element and on the connection element or vice versa. - a first extreme portion constrained to the connection element by the coupling of a first cam and a first pin, obtained or fixed respectively in the first extreme portion and on the connection element or vice versa; - a second extreme portion opposite to the first and constrained to the elastic element blocked to the body; - an intermediate portion between the first and second extreme portions constrained to the body by the coupling of a second cam and a second pin, obtained or fixed respectively in the intermediate portion and on the body or vice versa;
An electric motor comprising an electric motor cooling system comprising: first and second cooling sources having different pressures from one another and respectively providing first and second cooling flows, wherein the first cooling source is at a lower pressure than the second cooling source resulting in a differential pressure; a stator mounted in a housing and receiving the first cooling flow; and a rotor rotatable relative to the stator, wherein the rotor is supported for rotation relative to the stator by journal bearings mounted in the housing, the second cooling flow flowing through the journal bearing, and wherein the differential pressure moves the second cooling flow through a circumferential gap arranged between the stator and the rotor, to cool the rotor. first and second cooling sources having different pressures from one another and respectively providing first and second cooling flows, wherein the first cooling source is at a lower pressure than the second cooling source resulting in a differential pressure; a stator mounted in a housing and receiving the first cooling flow; and a rotor rotatable relative to the stator, wherein the rotor is supported for rotation relative to the stator by journal bearings mounted in the housing, the second cooling flow flowing through the journal bearing, and wherein the differential pressure moves the second cooling flow through a circumferential gap arranged between the stator and the rotor, to cool the rotor.
An actuator comprising: a ball nut; a lock housing arranged radially outwardly of the ball nut and overlapping a proximal end of the ball nut when the ball nut is in a stowed position wherein the lock housing comprises a sleeve in which is located an aperture, and wherein a locking element is retained within the aperture and can move in a radial direction through the aperture; a locking collar which is arranged radially outwardly of the lock housing and overlaps the lock housing, wherein the locking element extends between an inner periphery of the locking collar and an outer periphery of the ball nut when the ball nut is in the stowed position, wherein when the ball nut is in the stowed position, the locking element engages with a locking projection on the ball nut, to retain the ball nut in the stowed position, and wherein the locking collar is arranged to move towards a distal end of the ball nut to align a recessed portion of the locking collar with the locking element to allow the locking element to ride up over the locking projection of the ball nut, thereby disengaging the locking element from the locking projection on the ball nut, allowing movement of the ball nut, and wherein the actuator further comprises a solenoid which drives movement of the locking collar or hydraulic system which drives movement of the locking collar. a ball nut; a lock housing arranged radially outwardly of the ball nut and overlapping a proximal end of the ball nut when the ball nut is in a stowed position wherein the lock housing comprises a sleeve in which is located an aperture, and wherein a locking element is retained within the aperture and can move in a radial direction through the aperture; a locking collar which is arranged radially outwardly of the lock housing and overlaps the lock housing, wherein the locking element extends between an inner periphery of the locking collar and an outer periphery of the ball nut when the ball nut is in the stowed position, wherein when the ball nut is in the stowed position, the locking element engages with a locking projection on the ball nut, to retain the ball nut in the stowed position, and wherein the locking collar is arranged to move towards a distal end of the ball nut to align a recessed portion of the locking collar with the locking element to allow the locking element to ride up over the locking projection of the ball nut, thereby disengaging the locking element from the locking projection on the ball nut, allowing movement of the ball nut, and wherein the actuator further comprises a solenoid which drives movement of the locking collar or hydraulic system which drives movement of the locking collar.
Process for presence-depending control of the after-run time of one or several electric actuators, e.g. of one or several actuators of a lighting installation in a room (1,1.1), in which process - with switching on of the actuator/actuators a timer for the after-run time is started, in which the initial after-run time (t N) is shorter than a maximum after-run time pre-set or adjustable by the system (t Nmax), - by each presence-depending trigger signal within a running after-run time an after-run timer retrigger is effected and - the actuator/actuators is/are switched off if the currently running after-run time is up and if within this time no presence-depending trigger signal has been received, characterized by the fact that - starting with switch-on of the actuator/actuators in successive time frames, the presence-depending trigger signals noted in these time frames are counted and - if the number of trigger signals exceeds a pre-set number, the current after-run time is prolonged starting with the next or one of the next after-run timer retriggers, in which the after-run time can only be prolonged up to the maximum length of the after-run time. - with switching on of the actuator/actuators a timer for the after-run time is started, in which the initial after-run time (t N) is shorter than a maximum after-run time pre-set or adjustable by the system (t Nmax), - by each presence-depending trigger signal within a running after-run time an after-run timer retrigger is effected and - the actuator/actuators is/are switched off if the currently running after-run time is up and if within this time no presence-depending trigger signal has been received, - starting with switch-on of the actuator/actuators in successive time frames, the presence-depending trigger signals noted in these time frames are counted and - if the number of trigger signals exceeds a pre-set number, the current after-run time is prolonged starting with the next or one of the next after-run timer retriggers, in which the after-run time can only be prolonged up to the maximum length of the after-run time.