mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle comprising a wheel axle stroke locking device, wherein the vehicle comprises at least a front fork support seat , a front fork unit having an upper end mounted to the front fork support seat , a front wheel rotatably mounted to a lower end of the front fork unit by means of a wheel axle , the front wheel being arranged in pair, comprising a left front wheel and a right front wheel respectively on left and right sides, and a wheel axle stroke locking device having an upper end coupled to the front fork support seat and a lower end coupled to the lower end of the front fork unit , wherein the wheel axle stroke locking device is located between the left front wheel and the right front wheel of the front wheels ; the wheel axle stroke locking device comprises a first connector , a second connector , and a movement constraining member , the first connector comprising a guide rod , the guide rod extending from the first connector in a direction toward the front fork support seat , the first connector having a lower end directly mounted to the wheel axle ; the second connector has an upper end that is mounted to the front fork support seat , the guide rod extending in the second connector ; the movement constraining member is coupled to the second connector , the movement constraining member receiving extension of the guide rod of the first connector therethrough and operable to constrain sliding movement of the guide rod ; the front fork unit comprises a first assembly and a second assembly and the first assembly has a lower end that is provided with a wheel axle pivotal coupling section and the wheel axle pivotal coupling section is arranged to receive the wheel axle to rotatably mount thereto; a lower end of the first connector is provided, on one side thereof, with a connection section and the connection section is directly coupled, together with the wheel axle , to the wheel axle pivotal coupling section of the first assembly of the front fork unit ; the guide rod extends from the first connector in a direction toward the front fork support seat and the guide rod is located in front of the front fork unit ; a shock reduction sleeve is arranged at connection between the first connector and the guide rod , a lower end of the guide rod being rotatably mounted, via a pivot shaft , to the first connector , the shock reduction sleeve being sleeved over the pivot shaft , the pivot shaft being located in an outer circumferential range of the hub of the front wheel ; the connection section of the first connector is provided with a positioning section , and the positioning section is made up of positioning blocks .
A method operable at a scheduling entity for wireless communication over a time division duplex, TDD, carrier, the method comprising: receiving a first uplink burst from a coupled mode user within each of a downlink-centric subframe and an uplink-centric subframe on the TDD carrier, wherein the downlink-centric subframe is a subframe where a majority of its time is used for communication in the downlink direction, and the uplink-centric subframe is a subframe where a majority of its time is used for communication in the uplink direction, and wherein the coupled mode is a mode in which a sounding reference signal, SRS, is re-used to serve the purpose of a demodulation reference signal, DM-RS; and receiving , simultaneously with the first uplink burst, a second uplink burst from a decoupled mode user within each of the downlink-centric subframe and the uplink-centric subframe on the TDD carrier, wherein the decoupled mode is a mode in which the user is enabled to opportunistically transmit uplink payload data having low latency requirements, and wherein the first uplink burst from the coupled mode user is combined with the second uplink burst from the decoupled mode user on the TDD carrier utilizing non-orthogonal multiple access. receiving a first uplink burst from a coupled mode user within each of a downlink-centric subframe and an uplink-centric subframe on the TDD carrier, wherein the downlink-centric subframe is a subframe where a majority of its time is used for communication in the downlink direction, and the uplink-centric subframe is a subframe where a majority of its time is used for communication in the uplink direction, and wherein the coupled mode is a mode in which a sounding reference signal, SRS, is re-used to serve the purpose of a demodulation reference signal, DM-RS; and receiving , simultaneously with the first uplink burst, a second uplink burst from a decoupled mode user within each of the downlink-centric subframe and the uplink-centric subframe on the TDD carrier, wherein the decoupled mode is a mode in which the user is enabled to opportunistically transmit uplink payload data having low latency requirements, and wherein the first uplink burst from the coupled mode user is combined with the second uplink burst from the decoupled mode user on the TDD carrier utilizing non-orthogonal multiple access.
A method for changing the data rate pointer in a user equipment device , comprising: the data rate pointer indicating which of a list of data items is selected; each data item in the list indicating a maximum allowed uplink data rate available to the user equipment device for uplink transmission of data to the node ; the list of data items arranged according to a maximum allowed data rate in ascending order; the user equipment device transmitting a request to change the data rate pointer to the network node ; receiving at the user equipment device from the node a change command for changing the data rate pointer in response to the change request, characterized in that the change command is interpreted by selecting a predetermined rule, the selection being based on a comparison of the current value of the data rate pointer in the user equipment device with a threshold, a first predetermined rule is selected where the current value of the data rate pointer is less than the threshold; a second predetermined rule is selected where the current value of the data rate pointer is greater than the threshold; the first and second predetermined rules differ and define the number of steps the data rate pointer is to be incremented, or a specific value for the data rate pointer . the data rate pointer indicating which of a list of data items is selected; each data item in the list indicating a maximum allowed uplink data rate available to the user equipment device for uplink transmission of data to the node ; the list of data items arranged according to a maximum allowed data rate in ascending order; the user equipment device transmitting a request to change the data rate pointer to the network node ; receiving at the user equipment device from the node a change command for changing the data rate pointer in response to the change request, characterized in that the change command is interpreted by selecting a predetermined rule, the selection being based on a comparison of the current value of the data rate pointer in the user equipment device with a threshold, a first predetermined rule is selected where the current value of the data rate pointer is less than the threshold; a second predetermined rule is selected where the current value of the data rate pointer is greater than the threshold; the first and second predetermined rules differ and define the number of steps the data rate pointer is to be incremented, or a specific value for the data rate pointer .
A vehicle drive control system for directing power to at least one drivable element, comprising: a differential gear assembly coupled to a main drive shaft such that the main drive shaft can drive the differential gear assembly; a first half shaft and a second half shaft ; characterized in that : the first half shaft and the second half shaft extend from the differential gear assembly, the first half shaft coupled to a first drivable element and the second half shaft coupled to a second drivable element , the first half shaft being decouplable from the first drivable element such that the first drivable element can rotate independently of the first half shaft ; and a rotation-prevention mechanism is configured to prevent rotation of the first half shaft when the first half shaft is decoupled from the first drivable element such that power from the main drive shaft can be directed through the differential gear assembly to drive the second drivable element without also driving the first half shaft . a differential gear assembly coupled to a main drive shaft such that the main drive shaft can drive the differential gear assembly; a first half shaft and a second half shaft ; characterized in that : the first half shaft and the second half shaft extend from the differential gear assembly, the first half shaft coupled to a first drivable element and the second half shaft coupled to a second drivable element , the first half shaft being decouplable from the first drivable element such that the first drivable element can rotate independently of the first half shaft ; and a rotation-prevention mechanism is configured to prevent rotation of the first half shaft when the first half shaft is decoupled from the first drivable element such that power from the main drive shaft can be directed through the differential gear assembly to drive the second drivable element without also driving the first half shaft . the first half shaft and the second half shaft extend from the differential gear assembly, the first half shaft coupled to a first drivable element and the second half shaft coupled to a second drivable element , the first half shaft being decouplable from the first drivable element such that the first drivable element can rotate independently of the first half shaft ; and a rotation-prevention mechanism is configured to prevent rotation of the first half shaft when the first half shaft is decoupled from the first drivable element such that power from the main drive shaft can be directed through the differential gear assembly to drive the second drivable element without also driving the first half shaft .
A method for controlling and recovering the adhesion of wheels (Wi) belonging to at least two controlled axles (A i ) of a railway vehicle, during a wheel skidding phase, comprising the steps of: generating speed signals indicative of the angular speed (ω i ) of said wheels (Wi); estimating the value of the instantaneous adhesion (μ(T j )) at the point of contact of said wheels (Wi) and the rails, using an adhesion observer (701; 1001; 1201); generating a target-slip value (δ) for the wheels (Wi) of said at least two axles (A i ) by means of an optimization algorithm which processes the estimated adhesion values (μ i (T j )) and modifies said target-slip value continuously in time, with a predetermined sampling period (T), to maximize the average value of the adhesion of the wheels of the vehicle. generating speed signals indicative of the angular speed (ω i ) of said wheels (Wi); estimating the value of the instantaneous adhesion (μ(T j )) at the point of contact of said wheels (Wi) and the rails, using an adhesion observer (701; 1001; 1201); generating a target-slip value (δ) for the wheels (Wi) of said at least two axles (A i ) by means of an optimization algorithm which processes the estimated adhesion values (μ i (T j )) and modifies said target-slip value continuously in time, with a predetermined sampling period (T), to maximize the average value of the adhesion of the wheels of the vehicle.
A method comprising: determining a potential energy in a loudspeaker, a kinetic energy in the loudspeaker, and an electrical energy in the loudspeaker based on a physical model of the loudspeaker; determining a total energy stored in the loudspeaker based on the potential energy, the kinetic energy, and the electrical energy; determining a maximum potential displacement of a diaphragm of a speaker driver of the loudspeaker based on the total energy; and limiting the total energy stored in the loudspeaker by attenuating a source signal for reproduction via the loudspeaker, wherein an actual displacement of the diaphragm during the reproduction of the source signal is controlled based on the attenuated source signal, thereby limiting the actual displacement of the diaphragm within a predetermined range of safe displacement which includes the determined range of maximum potential displacement. determining a potential energy in a loudspeaker, a kinetic energy in the loudspeaker, and an electrical energy in the loudspeaker based on a physical model of the loudspeaker; determining a total energy stored in the loudspeaker based on the potential energy, the kinetic energy, and the electrical energy; determining a maximum potential displacement of a diaphragm of a speaker driver of the loudspeaker based on the total energy; and limiting the total energy stored in the loudspeaker by attenuating a source signal for reproduction via the loudspeaker, wherein an actual displacement of the diaphragm during the reproduction of the source signal is controlled based on the attenuated source signal, thereby limiting the actual displacement of the diaphragm within a predetermined range of safe displacement which includes the determined range of maximum potential displacement.
A vehicle tire, comprising: a textile carcass assembly comprising: a circular band of carcass textile having at least one set of primary yarns ; left and right circular cords applied as bead cores to the textile carcass proximal to left and right edges thereof; and a tread layer applied to the carcass assembly, characterized by a first layer of thermoplastic applied to left and right sides of the textile carcass, the left and right sides of the carcass being folded over the bead cores and adhered to the underlying carcass textile by the first layer of thermoplastic. a textile carcass assembly comprising: a circular band of carcass textile having at least one set of primary yarns ; left and right circular cords applied as bead cores to the textile carcass proximal to left and right edges thereof; and a circular band of carcass textile having at least one set of primary yarns ; left and right circular cords applied as bead cores to the textile carcass proximal to left and right edges thereof; and a tread layer applied to the carcass assembly, characterized by a first layer of thermoplastic applied to left and right sides of the textile carcass, the left and right sides of the carcass being folded over the bead cores and adhered to the underlying carcass textile by the first layer of thermoplastic.
A processing apparatus for processing a physiological signal using model subtraction, notch filtering and gating, the processing apparatus comprising: - a model subtraction unit configured to receive the physiological signal and to reduce a first unwanted signal component in the physiological signal by subtracting from the physiological signal a model of the first unwanted signal component to obtain a residual signal ; - a filter unit configured to receive the residual signal and to reduce a second unwanted signal component in the residual signal by applying a notch filter to obtain a filtered signal ; and - a gating unit configured to receive the filtered signal and to apply gating to the filtered signal to obtain a gated signal ; wherein the gating unit is configured to selectively pass the received filtered signal on to its output; wherein the processing apparatus is configured to process an electromyography (EMG) signal as the physiological signal : wherein the model subtraction unit is configured to reduce, as the first unwanted signal component, an electrocardiography (ECG) signal component comprised in the physiological signal . wherein the filter unit is configured to reduce, as the second unwanted signal component, a power line signal component comprised in the physiological signal . - a model subtraction unit configured to receive the physiological signal and to reduce a first unwanted signal component in the physiological signal by subtracting from the physiological signal a model of the first unwanted signal component to obtain a residual signal ; - a filter unit configured to receive the residual signal and to reduce a second unwanted signal component in the residual signal by applying a notch filter to obtain a filtered signal ; and - a gating unit configured to receive the filtered signal and to apply gating to the filtered signal to obtain a gated signal ; wherein the gating unit is configured to selectively pass the received filtered signal on to its output; wherein the model subtraction unit is configured to reduce, as the first unwanted signal component, an electrocardiography (ECG) signal component comprised in the physiological signal . wherein the filter unit is configured to reduce, as the second unwanted signal component, a power line signal component comprised in the physiological signal .
A liquid electrolyte lithium secondary battery cell comprising: - a positive electrode material comprising a lithium transition metal-based oxide powder having a general formula Li 1+a ((Ni z (Ni 0.5 Mn 0.5 ) y Co x ) 1-k A k ) 1-a O 2 , wherein A is a dopant, -0.025≤a≤0.025, 0.18≤x≤0.22, 0.42≤z≤0.52, 1.075<z/y<1.625, x+y+z=1 and k≤0.01; and - an electrolyte composition comprising: a) at least one cyclic carbonate, b) at least one fluorinated acyclic carboxylic acid ester, c) at least one electrolyte salt, d) at least one lithium compound selected from lithium phosphate compounds, lithium boron compounds, lithium sulfonate compounds and mixtures thereof, e) at least one cyclic sulfur compound, and f) optionally at least one cyclic carboxylic acid anhydride. - a positive electrode material comprising a lithium transition metal-based oxide powder having a general formula Li 1+a ((Ni z (Ni 0.5 Mn 0.5 ) y Co x ) 1-k A k ) 1-a O 2 , wherein A is a dopant, -0.025≤a≤0.025, 0.18≤x≤0.22, 0.42≤z≤0.52, 1.075<z/y<1.625, x+y+z=1 and k≤0.01; and - an electrolyte composition comprising: a) at least one cyclic carbonate, b) at least one fluorinated acyclic carboxylic acid ester, c) at least one electrolyte salt, d) at least one lithium compound selected from lithium phosphate compounds, lithium boron compounds, lithium sulfonate compounds and mixtures thereof, e) at least one cyclic sulfur compound, and f) optionally at least one cyclic carboxylic acid anhydride. a) at least one cyclic carbonate, b) at least one fluorinated acyclic carboxylic acid ester, c) at least one electrolyte salt, d) at least one lithium compound selected from lithium phosphate compounds, lithium boron compounds, lithium sulfonate compounds and mixtures thereof, e) at least one cyclic sulfur compound, and f) optionally at least one cyclic carboxylic acid anhydride.
A method of molding a tire that has a container, comprising: placing an uncured tire into a mold ; providing a bladder that has a flexible portion and that has an insert , wherein the insert has a cavity configured for molding the container into the tire: inflating the bladder within the mold, wherein the bladder has a fluid within the bladder, wherein material of the uncured tire flows into the cavity of the insert; applying sufficient heat and pressure to the uncured tire to at least partially cure the tire when the uncured tire is in the mold , wherein the material in the insert forms the container such that the container is integrally formed with other portions of the tire; and opening the mold. placing an uncured tire into a mold ; providing a bladder that has a flexible portion and that has an insert , wherein the insert has a cavity configured for molding the container into the tire: inflating the bladder within the mold, wherein the bladder has a fluid within the bladder, wherein material of the uncured tire flows into the cavity of the insert; applying sufficient heat and pressure to the uncured tire to at least partially cure the tire when the uncured tire is in the mold , wherein the material in the insert forms the container such that the container is integrally formed with other portions of the tire; and opening the mold.
A computer-implemented method of initiating a search function, the method comprising: under control of one or more processors executing computer-executable instructions: monitoring movement of a cursor from within a display area to or across an edge of the display area, the cursor being controlled by an input device coupled to a client device; recognizing that the cursor moved from within the display area to or across an edge of the display area; identifying a specific edge of the display area with which the cursor made contact, towards which the cursor moved, or through which the cursor passed; at a location within a display screen view based on the specific edge of the display area with which the cursor moved to or across; presenting the search-query input area associated with a search engine within the display screen view in accordance with the determined location, wherein the display area comprises a window display area having a top edge, a right-side edge, a bottom edge and a left-side edge, within the display screen view. under control of one or more processors executing computer-executable instructions: monitoring movement of a cursor from within a display area to or across an edge of the display area, the cursor being controlled by an input device coupled to a client device; recognizing that the cursor moved from within the display area to or across an edge of the display area; identifying a specific edge of the display area with which the cursor made contact, towards which the cursor moved, or through which the cursor passed; at a location within a display screen view based on the specific edge of the display area with which the cursor moved to or across; presenting the search-query input area associated with a search engine within the display screen view in accordance with the determined location, wherein the display area comprises a window display area having a top edge, a right-side edge, a bottom edge and a left-side edge, within the display screen view.