mhurhangee/ep-ind-claims huggingface dataset:
A vehicle suspension comprising: an active air suspension including at least one air spring assembly including a piston airbag and a primary airbag mounted around said piston airbag, said at least one air spring assembly having a spring characteristic comprising a variable spring stiffness; and an adaptive damping system including at least one damper associated with said at least one air spring assembly, said at least one damper having a damping characteristic comprising a variable damper coefficient, and wherein said adaptive damping system works in conjunction with said active air suspension to provide a desired vehicle ride and handling output; and a controller that generates electric control signals to control the active air suspension and generates separate control signals to control the adaptive damping system to actively vary said damping characteristic and said spring characteristic respectively to provide the desired vehicle ride and handling output, and wherein said controller indirectly determines changing spring stiffness based on known pressures monitored by the controller within said piston and primary air bags (28, 20) and pressure data that links spring stiffness with pressure levels, identifies undesirable oscillations generated by variations in said spring stiffness by measuring and monitoring wheel and body oscillations, determines a real-time force required to damp the identified oscillations, and changes said damping coefficient to provide said force required to damp said identified undesirable oscillations. an active air suspension including at least one air spring assembly including a piston airbag and a primary airbag mounted around said piston airbag, said at least one air spring assembly having a spring characteristic comprising a variable spring stiffness; and an adaptive damping system including at least one damper associated with said at least one air spring assembly, said at least one damper having a damping characteristic comprising a variable damper coefficient, and wherein said adaptive damping system works in conjunction with said active air suspension to provide a desired vehicle ride and handling output; and a controller that generates electric control signals to control the active air suspension and generates separate control signals to control the adaptive damping system to actively vary said damping characteristic and said spring characteristic respectively to provide the desired vehicle ride and handling output, and wherein said controller indirectly determines changing spring stiffness based on known pressures monitored by the controller within said piston and primary air bags (28, 20) and pressure data that links spring stiffness with pressure levels, identifies undesirable oscillations generated by variations in said spring stiffness by measuring and monitoring wheel and body oscillations, determines a real-time force required to damp the identified oscillations, and changes said damping coefficient to provide said force required to damp said identified undesirable oscillations.
Vehicle door for a vehicle, in particular for a passenger vehicle and/or truck, comprising a door body having an outer and an inner wall, wherein said door body is pivotably connectable to the vehicle body of the vehicle, wherein the outer wall comprises a first outer wall element and a second outer wall element, which are pivotably connected to each other, wherein the first outer wall element is arranged above the second outer wall element in the installation position, and comprising a pivoting device pivotably connecting the first outer wall element and the second outer wall element, characterized in that the pivoting device comprises a first gear element, which is designed as a bevel pinion, and a corresponding second gear element of the vehicle, which is designed as a bevel pinion and can be brought into operative connection in such a way that a pivoting of the door body in the direction of the outer side of the vehicle door relative to the body causes a pivoting of the second outer wall element in the direction of the outer side of the vehicle door relative to the first outer wall element.
A method for managing network slice enabled traffic on a communications network, wherein the method is carried out by a network controller, the network slice instantiated on the communications network for providing connectivity resources to a network operator using the communications network, the method comprising: receiving a traffic level from the communications network indicative of the traffic corresponding to a user equipment, and parameters from the network operator for adjusting the traffic on the communications network in accordance with the traffic level; and transmitting an instruction to a network operator accessible function associated with the network slice to modify traffic management parameters to adjust a traffic profile within the slice in accordance with a determination that the received traffic level measurement is indicative of an unwanted traffic profile, wherein the traffic carried within the network slice comprises a plurality of flows, and the step of transmitting an instruction includes transmitting modified traffic management parameters to prioritize at least one of the plurality of flows, wherein the traffic carried within the network slice is generated by at least the user equipment communicatively coupled to the communications network and the transmitting an instruction further includes transmitting an instruction to the at least one user equipment to move into another geographical area not served by the network slice. receiving a traffic level from the communications network indicative of the traffic corresponding to a user equipment, and parameters from the network operator for adjusting the traffic on the communications network in accordance with the traffic level; and transmitting an instruction to a network operator accessible function associated with the network slice to modify traffic management parameters to adjust a traffic profile within the slice in accordance with a determination that the received traffic level measurement is indicative of an unwanted traffic profile,
An operating device (1, 101, 201) comprising: left and right hold sections to be held by a user, the left and right hold sections each having an upper surface provided with a first operating member, the left and right hold sections located to be spaced from each other in a left-right direction; a central section interconnecting the left and right hold sections; and a plate-shaped second operating member (22, 122, 222) forming an upper surface of the central section, the second operating member (22, 122, 222) including a touch sensor (23, 123, 223) located between the first operating members of the left and right hold sections, the second operating member (22, 122, 222) so supported as to be capable of vertical movement in response to a user's pressing-down operation and so adapted to function also as a button capable of on-off operations, wherein the second operating member (22, 122, 222) includes a portion which forms the upper surface of the central section and a portion which forms a front surface of the central section, a front edge of the second operating member (22, 122, 222) forming a front edge of the upper surface of the central section with a front surface portion extending downward. left and right hold sections to be held by a user, the left and right hold sections each having an upper surface provided with a first operating member, the left and right hold sections located to be spaced from each other in a left-right direction; a central section interconnecting the left and right hold sections; and a plate-shaped second operating member (22, 122, 222) forming an upper surface of the central section, the second operating member (22, 122, 222) including a touch sensor (23, 123, 223) located between the first operating members of the left and right hold sections, the second operating member (22, 122, 222) so supported as to be capable of vertical movement in response to a user's pressing-down operation and so adapted to function also as a button capable of on-off operations, wherein the second operating member (22, 122, 222) includes a portion which forms the upper surface of the central section and a portion which forms a front surface of the central section, a front edge of the second operating member (22, 122, 222) forming a front edge of the upper surface of the central section with a front surface portion extending downward.
A method for binding a registered user account with a device, comprising: judging whether the to-be-bound device has been properly connected to a designated wireless network; and when the to-be-bound device has been properly connected to the designated wireless network, sending to a server a binding request for binding a registered user account with the to-be-bound device; wherein the binding request carries a registered user account and is configured to trigger the server to start a binding process between the registered user account and the to-be-bound device within a preset time period, said binding process comprising: (i) receiving a binding confirmation message sent by the to-be-bound device within the preset time period and (ii) establishing a binding relationship between the registered user account and the to-be-bound device, wherein the binding relationship means that only the registered user account has operation and control permission to the device. judging whether the to-be-bound device has been properly connected to a designated wireless network; and when the to-be-bound device has been properly connected to the designated wireless network, sending to a server a binding request for binding a registered user account with the to-be-bound device; wherein the binding request carries a registered user account and is configured to trigger the server to start a binding process between the registered user account and the to-be-bound device within a preset time period, said binding process comprising: (i) receiving a binding confirmation message sent by the to-be-bound device within the preset time period and (ii) establishing a binding relationship between the registered user account and the to-be-bound device, wherein the binding relationship means that only the registered user account has operation and control permission to the device.
A method of producing a lithium ion secondary battery comprising: preparing an aqueous positive electrode mixture paste that includes a positive electrode active material containing a lithium manganese composite oxide, an aqueous solvent, and Li 5 FeO 4 as an additive; fabricating a positive electrode by forming a positive electrode mixture layer on a positive electrode current collector using the aqueous positive electrode mixture paste; fabricating an electrode body using the positive electrode and a negative electrode, wherein the negative electrode includes a negative electrode mixture layer on a negative electrode current collector, the negative electrode mixture layer includes a negative electrode active material; constructing a battery assembly by accommodating the electrode body and a nonaqueous electrolytic solution including a lithium salt in a battery case; and performing an initial charging process on the battery assembly; wherein an amount of Li 5 FeO 4 added is within a range of 0.3 wt% to 2.0 wt% with respect to a total solid content of 100 wt% in the positive electrode mixture paste. preparing an aqueous positive electrode mixture paste that includes a positive electrode active material containing a lithium manganese composite oxide, an aqueous solvent, and Li 5 FeO 4 as an additive; fabricating a positive electrode by forming a positive electrode mixture layer on a positive electrode current collector using the aqueous positive electrode mixture paste; fabricating an electrode body using the positive electrode and a negative electrode, wherein the negative electrode includes a negative electrode mixture layer on a negative electrode current collector, the negative electrode mixture layer includes a negative electrode active material; constructing a battery assembly by accommodating the electrode body and a nonaqueous electrolytic solution including a lithium salt in a battery case; and performing an initial charging process on the battery assembly; wherein an amount of Li 5 FeO 4 added is within a range of 0.3 wt% to 2.0 wt% with respect to a total solid content of 100 wt% in the positive electrode mixture paste.
An apparatus for distributing articles within a flow of articles in a transport apparatus, wherein the apparatus comprises an incoming conveyor belt, a first outgoing conveyor belt and a second outgoing conveyor belt, wherein the incoming conveyor belt and the first and second outgoing conveyor belt (21, 22) are arranged with respect to each other in the transport direction in such a way that an overlapping region is formed, characterized in that the incoming conveyor belt comprises several transport tracks (2 1, 2 2,..., 2 n), and the first and second outgoing conveyor belt (21, 22) respectively comprise several transport tracks (21 1, 21 2,..., 21 n; 22 1, 22 2,..., 22 n), and wherein a movable distribution element is formed substantially transversely to the transport direction, which distribution element consists of a first guide railing and a second guide railing, which are both connected to each other under an acute angle, and thus form a tip which is directed against the transport direction, so that the flow of articles arriving in the transport direction can be distributed to the first outgoing transport belt and/or the second outgoing transport belt.
A symmetric load circuit comprising: a supply voltage node; a current source-connected transistor having a gate, a source, and a drain, wherein the source of the current source-connected transistor is coupled to the supply voltage node; a diode-connected transistor having a gate, a source coupled to the source of the current source-connected transistor, and a drain coupled to the drain of the current source-connected transistor; and a level shift circuit that is adapted to adjust a gate-to-source voltage of the diode-connected transistor; wherein the level shift circuit includes a transistor having a gate, a source, and a drain, wherein the gate of the transistor of the level shift circuit is coupled to the drain of the current source-connected transistor and to the drain of the diode-connected transistor, and wherein the source of the transistor of the level shift circuit is coupled to the gate of the diode-connected transistor. a supply voltage node; a current source-connected transistor having a gate, a source, and a drain, wherein the source of the current source-connected transistor is coupled to the supply voltage node; a diode-connected transistor having a gate, a source coupled to the source of the current source-connected transistor, and a drain coupled to the drain of the current source-connected transistor; and a level shift circuit that is adapted to adjust a gate-to-source voltage of the diode-connected transistor; wherein the level shift circuit includes a transistor having a gate, a source, and a drain, wherein the gate of the transistor of the level shift circuit is coupled to the drain of the current source-connected transistor and to the drain of the diode-connected transistor, and wherein the source of the transistor of the level shift circuit is coupled to the gate of the diode-connected transistor.
A transmission system for an orthogonal frequency division multiplex modem which uses a plurality of subcarriers for communication comprising a transmitter which transmits a plurality of communication channels, and a parallel/serial converter which is adapted to judge the bit rate, Quality of Service, QoS, and/or priority of the communication channel and assigns a number of the subcarriers to each of said plurality of the communication channels according to the judged bit rate, QoS and/or priority of the communication channel, characterized in that said transmission system comprises a randomizer which randomly changes the order of the sequence of the alignment of subcarriers on a frequency axis, and the transmitter is adapted to transmit signals whose mean signal power of subcarriers is made uniform.
Closing device for bottles comprising: - a cap group (11, 12), operable in rotation by the user to open and close the device, said cap group (11, 12) comprising anti-tampering means (15, 17, 29, 30) configured to make the fact that the first opening of said device has occurred visually evident; - a diffuser arranged to be coupled at the top with said cap group (11, 12) and at the bottom with the neck of a bottle; wherein said cap group (11, 12) comprises an inner cap, rotatably associated with said diffuser, and an outer cap, fitted and associated with said inner cap, and wherein said anti-tampering means (15, 17, 29, 30) are configured for limiting the re-screwing stroke of said outer cap on said inner cap and comprise on one side a plurality of teeth of a ratchet mechanism, projecting from the outer side surface of said inner cap, and on the other side a plurality of first rigid barrier projections, arranged on the inner side surface of said outer cap, the closing device being characterized in that said anti-tampering means (15, 17, 29, 30) further comprise, on one side, a plurality of side flaps manufactured with a deformable elastic material, arranged at an angle in a radial pattern starting from the outer side surface of said inner cap, and on the other side a plurality of second rigid barrier projections, arranged on the inner side surface of said outer cap, wherein each elastic side flap projects radially from the outer side surface of the inner cap by a greater length with respect to the length of each tooth, so that during opening both said first rigid barrier projections, and said second rigid barrier projections can respectively pass beyond said teeth and said elastic side flaps and, during closing, both said first rigid barrier projections, and said second rigid barrier projections are respectively locked by said teeth and by said elastic side flaps, limiting the re-screwing stroke of said outer cap on said inner cap. - a cap group (11, 12), operable in rotation by the user to open and close the device, said cap group (11, 12) comprising anti-tampering means (15, 17, 29, 30) configured to make the fact that the first opening of said device has occurred visually evident; - a diffuser arranged to be coupled at the top with said cap group (11, 12) and at the bottom with the neck of a bottle;
A display panel comprising: an array of pixels, wherein at least one pixel comprises: a switching transistor; and a driving transistor coupled to the switching transistor, wherein the driving transistor comprising a gate dielectric layer is configured to emit light responsive to activation by the switching transistor, wherein the driving transistor is a dilute source enabled vertical organic light emitting transistor, DS-VOLET, coupled to the switching transistor, and comprises: a source layer formed on the gate dielectric layer, said source layer comprising a dilute source material, wherein the said dilute source material is a thin-film or a network included in the source layer having perforations with substantial regions of the gate dielectric layer not covered by the thin-film or network; and at least one organic semiconductor layer positioned on the source layer, wherein the at least one organic semiconductor layer includes an amorphous, solution-processable organic semiconducting layer as a planarization layer. an array of pixels, wherein at least one pixel comprises: a switching transistor; and a driving transistor coupled to the switching transistor, wherein the driving transistor comprising a gate dielectric layer is configured to emit light responsive to activation by the switching transistor, wherein the driving transistor is a dilute source enabled vertical organic light emitting transistor, DS-VOLET, coupled to the switching transistor, and comprises: a switching transistor; and a driving transistor coupled to the switching transistor, wherein the driving transistor comprising a gate dielectric layer is configured to emit light responsive to activation by the switching transistor, wherein the driving transistor is a dilute source enabled vertical organic light emitting transistor, DS-VOLET, coupled to the switching transistor, and comprises: a source layer formed on the gate dielectric layer, said source layer comprising a dilute source material, wherein the said dilute source material is a thin-film or a network included in the source layer having perforations with substantial regions of the gate dielectric layer not covered by the thin-film or network; and at least one organic semiconductor layer positioned on the source layer, wherein the at least one organic semiconductor layer includes an amorphous, solution-processable organic semiconducting layer as a planarization layer.
Method for switching on an n-phase electric machine in a motor vehicle, wherein the n-phase electric machine - has a rotor comprising a rotor winding and - has a stator comprising an n-phase stator winding, wherein - a field current (If) can be applied to the rotor and - an n-phase phase voltage can be applied to the stator, wherein - the field current (If) is switched on, - a parameter that influences a rotor voltage (Up) is determined and - the phase voltage (U S) is switched on when the parameter that influences the rotor voltage (U p) reaches a determined threshold value. - has a rotor comprising a rotor winding and - has a stator comprising an n-phase stator winding, wherein - a field current (If) can be applied to the rotor and - an n-phase phase voltage can be applied to the stator, wherein - the field current (If) is switched on, - a parameter that influences a rotor voltage (Up) is determined and - the phase voltage (U S) is switched on when the parameter that influences the rotor voltage (U p) reaches a determined threshold value.