mhurhangee/patent-ind-claim-en huggingface dataset:
A system for spraying plants, the system comprising: a location-determining receiver for estimating a position of a sprayer with respect to one or more rows of plants ; a nozzle assembly of a row unit supported by or suspended from the sprayer , the nozzle assembly comprising a first nozzle with a greater height above ground than a second nozzle ; a distance sensor configured to measure a distance between the nozzle assembly or row unit and a plant row segment that the distance sensor faces; the first nozzle directed toward a first zone with a first lateral spacing with respect to the plant row segment based on a spray pattern of the first nozzle ; the second nozzle directed toward a second zone with a second lateral spacing with respect to the plant row segment based on a spray pattern of the second nozzle ; and a nozzle control module for selecting or activating one or more of the nozzles of the nozzle assembly based to cover the first zone , the second zone , or both as a target zone for the plant row segment based on the measured distance , characterized in that the zones comprise adjacent bands or strips on the ground near a closest or nearest plant stem in a row of crop. a location-determining receiver for estimating a position of a sprayer with respect to one or more rows of plants ; a nozzle assembly of a row unit supported by or suspended from the sprayer , the nozzle assembly comprising a first nozzle with a greater height above ground than a second nozzle ; a distance sensor configured to measure a distance between the nozzle assembly or row unit and a plant row segment that the distance sensor faces; the first nozzle directed toward a first zone with a first lateral spacing with respect to the plant row segment based on a spray pattern of the first nozzle ; the second nozzle directed toward a second zone with a second lateral spacing with respect to the plant row segment based on a spray pattern of the second nozzle ; and a nozzle control module for selecting or activating one or more of the nozzles of the nozzle assembly based to cover the first zone , the second zone , or both as a target zone for the plant row segment based on the measured distance , characterized in that the zones comprise adjacent bands or strips on the ground near a closest or nearest plant stem in a row of crop.
A data sending method, performed by a terminal device, comprising: receiving first scheduling information, wherein the first scheduling information is used to indicate first resources, the first resources are resources used to send first transport blocks, the first scheduling information is further used to indicate a probability value, and the probability value is a block error rate for the first transport blocks that are received by a network device on the first resources or a probability that a network device successfully receives the first transport blocks on the first resources; determining, based on the probability value, whether some or all of the first transport blocks may be retransmitted, and if it is determined that some or all the first transports blocks may be retransmitted, performing a preparation operation for retransmitting some or all of the first transports blocks; and sending the first transport blocks on the first resources based on the first scheduling information. receiving first scheduling information, wherein the first scheduling information is used to indicate first resources, the first resources are resources used to send first transport blocks, the first scheduling information is further used to indicate a probability value, and the probability value is a block error rate for the first transport blocks that are received by a network device on the first resources or a probability that a network device successfully receives the first transport blocks on the first resources; determining, based on the probability value, whether some or all of the first transport blocks may be retransmitted, and if it is determined that some or all the first transports blocks may be retransmitted, performing a preparation operation for retransmitting some or all of the first transports blocks; and sending the first transport blocks on the first resources based on the first scheduling information.
A manifold block for a vehicle braking system, comprising a hydraulic unit body , a solenoid valve mounting hole for mounting a solenoid valve, a sensor mounting hole for mounting a liquid pressure sensor, and a simulator accommodation part for installing a pedal simulator; wherein the hydraulic unit body is provided with a solenoid valve mounting face ; characterized in that the solenoid valve mounting hole , the sensor mounting hole and the simulator accommodation part are all arranged on the solenoid valve mounting face .
A method for the production in an electrochemical cell of one or more of graphene, graphite nanoplatelet structures having a thickness of less than 100 nm, and graphane, wherein the cell comprises: (a) a negative electrode which is graphitic; (b) a positive electrode which may be graphitic or another material; and (c) an electrolyte comprising a deep eutectic solvent, said deep eutectic solvent having a melting point at least 10 °C lower than one of its constituent components, and optionally one or more further ionic species; wherein the amount of deep eutectic solvent and further ionic species, if present, is greater than 90wt% based on the total weight of electrolyte; and wherein the electrolyte includes a mixture of different cations; and wherein the method comprises the step of passing a current through the cell to intercalate ions into the graphitic negative electrode so as to exfoliate the graphitic negative electrode. (a) a negative electrode which is graphitic; (b) a positive electrode which may be graphitic or another material; and (c) an electrolyte comprising a deep eutectic solvent, said deep eutectic solvent having a melting point at least 10 °C lower than one of its constituent components, and optionally one or more further ionic species;
A method comprising: providing an input audio signal in a first path and applying an interpolated head-related transfer function (HRTF) pair based upon a direction to generate direction dependent first left and right signals in the first path; providing the input audio signal in a second path, where the second path comprises a plurality of filters and a respective adjustable amplifier (g i )for each filter, where each of the plurality of filters is at least one of: a decorrelator and a filter configured to provide a decorrelator functionality, where the amplifiers are configured to be adjusted based upon the direction, and applying to an output from each of the filters a respective head-related transfer function (HRTF) pair to generate direction dependent second left and right signals in the second path; and combining the generated left signals from the first and second paths to form a left output signal for a sound reproduction, and combining the generated right signals from the first and second paths to form a right output signal for the sound reproduction. providing an input audio signal in a first path and applying an interpolated head-related transfer function (HRTF) pair based upon a direction to generate direction dependent first left and right signals in the first path; providing the input audio signal in a second path, where the second path comprises a plurality of filters and a respective adjustable amplifier (g i )for each filter, where each of the plurality of filters is at least one of: a decorrelator and a filter configured to provide a decorrelator functionality, where the amplifiers are configured to be adjusted based upon the direction, and applying to an output from each of the filters a respective head-related transfer function (HRTF) pair to generate direction dependent second left and right signals in the second path; and combining the generated left signals from the first and second paths to form a left output signal for a sound reproduction, and combining the generated right signals from the first and second paths to form a right output signal for the sound reproduction.
A portable gas cylinder assembly comprising: a) a gas cylinder having a central axis; and b) a protective shroud configured to encase the gas cylinder and including opposed half-sections mechanically connected to one other along a vertical plane intersecting the central axis of the gas cylinder , wherein the opposed half-sections of the shroud are mechanical connected to one another through intimate engagement of a plurality of tang sets within corresponding reception grooves that are each formed integral with the opposed half-sections , characterized in that the opposed half-sections of the shroud are further mechanically connected to one another by a plurality of horizontal clamps separate from the shroud that are configured for locking engagement in corresponding horizontal recessed channels formed in the opposed half sections , wherein each of the plurality of tang sets includes a pair of deflectable parallel legs each having a tapered head with an angled cam surface (30a. 30b) at a distal end thereof. a) a gas cylinder having a central axis; and b) a protective shroud configured to encase the gas cylinder and including opposed half-sections mechanically connected to one other along a vertical plane intersecting the central axis of the gas cylinder ,
A method comprising: determining , by a console, an expected transmission end time of a first session for wireless transmission of image data indicating an image of artificial reality to a head wearable display; determining , by the console, an expected process end time of generating additional data associated with the image of the artificial reality; comparing, by the console, the expected transmission end time and the expected process end time; and transmitting , by the console to the head wearable display in the first session, the additional data together with the image data, in response to the expected process end time being less than the expected transmission end time; transmitting , by the console to the head wearable display in the first session, timing information indicating the expected process end time, in response to the expected process end time being larger than the expected transmission end time; configuring, by the console, a wireless communication interface in a steep mode after the first session until the expected process end time to disable wireless communication between the console and the head wearable display, in response to the expected process end time being larger than the expected transmission end time; and transmitting , by the console to the head wearable display through a second session after the expected process end time, the additional data, in response to the expected process end time being larger than the expected transmission end time. determining , by a console, an expected transmission end time of a first session for wireless transmission of image data indicating an image of artificial reality to a head wearable display; determining , by the console, an expected process end time of generating additional data associated with the image of the artificial reality; comparing, by the console, the expected transmission end time and the expected process end time; and transmitting , by the console to the head wearable display in the first session, the additional data together with the image data, in response to the expected process end time being less than the expected transmission end time; transmitting , by the console to the head wearable display in the first session, timing information indicating the expected process end time, in response to the expected process end time being larger than the expected transmission end time; configuring, by the console, a wireless communication interface in a steep mode after the first session until the expected process end time to disable wireless communication between the console and the head wearable display, in response to the expected process end time being larger than the expected transmission end time; and transmitting , by the console to the head wearable display through a second session after the expected process end time, the additional data, in response to the expected process end time being larger than the expected transmission end time.
A method for increasing transceiver loopback calibration accuracy, comprising: receiving a radio frequency signal via a receive path of a transceiver from a transmit path of the transceiver which is coupled to the receive path via a loopback path; calculating a propagation time of the radio frequency signal in the loopback path based on a first digital baseband signal on which the transmitted radio frequency signal is based, and a second digital baseband signal derived from the received radio frequency signal; correlating , taking into account the propagation time, the first digital baseband signal and the second digital baseband signal for different time differences between the use of an oscillation signal by a first mixing circuit within the transmit path and the use of the oscillation signal by a second mixing circuit within the receive path; delaying , using the time difference related to the best correlation result, the oscillation signal for the first mixing circuit or for the second mixing circuit; and performing a loopback calibration of the transceiver using the delayed oscillation signal. receiving a radio frequency signal via a receive path of a transceiver from a transmit path of the transceiver which is coupled to the receive path via a loopback path; calculating a propagation time of the radio frequency signal in the loopback path based on a first digital baseband signal on which the transmitted radio frequency signal is based, and a second digital baseband signal derived from the received radio frequency signal; correlating , taking into account the propagation time, the first digital baseband signal and the second digital baseband signal for different time differences between the use of an oscillation signal by a first mixing circuit within the transmit path and the use of the oscillation signal by a second mixing circuit within the receive path; delaying , using the time difference related to the best correlation result, the oscillation signal for the first mixing circuit or for the second mixing circuit; and performing a loopback calibration of the transceiver using the delayed oscillation signal.
A method of carrying out a demand response, DR, event via an intelligent, network-connected thermostat associated with a structure , the method comprising: identifying, by the thermostat , a DR event that defines a DR event period; generating a plurality of candidate parameter sets, each parameter set characterizing an associated candidate setpoint schedule during the DR event; simulating each of the candidate setpoint schedules using a model of a heating, ventilation, and air conditioning, HVAC, system that is operable to predict a thermodynamic behavior of the structure ; generating predicted indoor temperature profiles and/or HVAC duty cycle schedules for each of the simulated candidate setpoint schedules; applying each of the predicted indoor temperature profiles and/or HVAC duty cycle schedules to a cost function, the cost function comprising a combination of: a first factor representative of a total energy consumption of the HVAC system during the DR event period; a second factor representative of a metric of occupant discomfort in the structure ; and a third factor representative of deviations of a rate of energy consumption of the HVAC system over the DR event period; selecting an optimal predicted indoor temperature profile and/or HVAC duty cycle schedule that minimizes the cost function; and controlling, by the thermostat , the HVAC system in accordance with the optimal predicted indoor temperature profile and/or HVAC duty cycle schedule. identifying, by the thermostat , a DR event that defines a DR event period; generating a plurality of candidate parameter sets, each parameter set characterizing an associated candidate setpoint schedule during the DR event; simulating each of the candidate setpoint schedules using a model of a heating, ventilation, and air conditioning, HVAC, system that is operable to predict a thermodynamic behavior of the structure ; generating predicted indoor temperature profiles and/or HVAC duty cycle schedules for each of the simulated candidate setpoint schedules; applying each of the predicted indoor temperature profiles and/or HVAC duty cycle schedules to a cost function, the cost function comprising a combination of: a first factor representative of a total energy consumption of the HVAC system during the DR event period; a second factor representative of a metric of occupant discomfort in the structure ; and a third factor representative of deviations of a rate of energy consumption of the HVAC system over the DR event period; a first factor representative of a total energy consumption of the HVAC system during the DR event period; a second factor representative of a metric of occupant discomfort in the structure ; and a third factor representative of deviations of a rate of energy consumption of the HVAC system over the DR event period; selecting an optimal predicted indoor temperature profile and/or HVAC duty cycle schedule that minimizes the cost function; and controlling, by the thermostat , the HVAC system in accordance with the optimal predicted indoor temperature profile and/or HVAC duty cycle schedule.
A fluid control device , comprising: a piezoelectric actuator comprising a piezoelectric element and a vibration plate having a first surface and an opposing second surface , wherein the piezoelectric element is attached on the first surface of the vibration plate and is subjected to deformation in response to an applied voltage, and the vibration plate is subjected to a curvy vibration in response to the deformation of the piezoelectric element , wherein a bulge is formed on the second surface of the vibration plate ; and a deformable substrate comprising a flexible plate and a communication plate , wherein the flexible plate and the communication plate are stacked on each other, wherein the deformable substrate is combined with and positioned on the vibration plate of the piezoelectric actuator , characterized in that the flexible plate and the communication plate are subjected to a synchronous deformation to form a synchronously-deformed structure collaboratively, further in that a specified depth (δ) is defined between the flexible plate of the deformable substrate and the bulge of the vibration plate , wherein the flexible plate comprises a movable part corresponding to the bulge . a piezoelectric actuator comprising a piezoelectric element and a vibration plate having a first surface and an opposing second surface , wherein the piezoelectric element is attached on the first surface of the vibration plate and is subjected to deformation in response to an applied voltage, and the vibration plate is subjected to a curvy vibration in response to the deformation of the piezoelectric element , wherein a bulge is formed on the second surface of the vibration plate ; and a deformable substrate comprising a flexible plate and a communication plate , wherein the flexible plate and the communication plate are stacked on each other, wherein the deformable substrate is combined with and positioned on the vibration plate of the piezoelectric actuator , characterized in that the flexible plate and the communication plate are subjected to a synchronous deformation to form a synchronously-deformed structure collaboratively, further in that a specified depth (δ) is defined between the flexible plate of the deformable substrate and the bulge of the vibration plate , wherein the flexible plate comprises a movable part corresponding to the bulge .
Ball joint for a vehicle, in particular for an off-road vehicle, the ball joint having a housing and a ball pivot which is mounted in the housing in a rotationally and pivotably movable manner and extends with a shank out of an opening of the housing , the housing opening being protected by way of a sealing boot against an undesired penetration of dirt and/or moisture, characterized in that the sealing boot is enclosed in regions by a boot protector in order to avoid damage of the said sealing boot as a result of mechanical action, in such a way that the boot protector bears with its inner circumferential face at least substantially against an outer circumferential face of the sealing boot , the inner circumferential face of the boot protector being smaller than the outer circumferential face of the sealing boot .
A sole assembly for an article of footwear , the sole assembly comprising: a central support structure located on a bottom surface of the sole assembly , extending away from the bottom surface of the sole assembly , and extending in a longitudinal direction of the sole assembly ; and a plurality of stability rib portions located in a midfoot region of the sole assembly and extending from the bottom surface of the sole assembly and away from the central support structure , characterized by the plurality of stability rib portions each including a generally elongated trapezoidal shape and increasing in width as the rib portions extend in a direction away from the central support structure from a proximal end to a distal end . a central support structure located on a bottom surface of the sole assembly , extending away from the bottom surface of the sole assembly , and extending in a longitudinal direction of the sole assembly ; and a plurality of stability rib portions located in a midfoot region of the sole assembly and extending from the bottom surface of the sole assembly and away from the central support structure , characterized by the plurality of stability rib portions each including a generally elongated trapezoidal shape and increasing in width as the rib portions extend in a direction away from the central support structure from a proximal end to a distal end .