mhurhangee/ep-ind-claims huggingface dataset:
A method for providing a satellite correction signal, the method comprising: receiving a series of raw satellite signal measurements; storing the received raw satellite signal measurements for a series of time windows prior to a current time, each one of the satellite signal measurements associated with a respective stored measurement time tag; during a warm-start mode, estimating a satellite correction signal based on satellite orbit data, satellite clock data, and satellite bias correction data, the satellite orbit data, satellite clock data, and satellite bias correction data being derived from stored received raw satellite signal measurements; determining when the satellite orbit data, the satellite clock data, and the satellite bias data have converged to reliable satellite correction data with ambiguity resolution and seamlessly switching a measurement data source from the stored received raw satellite signal measurements to live, real-time raw satellite signal measurements in a normal mode, where the satellite correction signal is estimated with satellite orbit data, satellite clock bias data, and satellite bias data based on real-time live received raw measurements, if the respective measurement time tag of a last-processed one of the stored received satellite signal measurements approaches or reaches the current time, where a difference between the respective measurement time tag of the corresponding last-processed, stored received raw satellite measurement and the current time is less than a threshold time range. receiving a series of raw satellite signal measurements; storing the received raw satellite signal measurements for a series of time windows prior to a current time, each one of the satellite signal measurements associated with a respective stored measurement time tag; during a warm-start mode, estimating a satellite correction signal based on satellite orbit data, satellite clock data, and satellite bias correction data, the satellite orbit data, satellite clock data, and satellite bias correction data being derived from stored received raw satellite signal measurements; determining when the satellite orbit data, the satellite clock data, and the satellite bias data have converged to reliable satellite correction data with ambiguity resolution and seamlessly switching a measurement data source from the stored received raw satellite signal measurements to live, real-time raw satellite signal measurements in a normal mode, where the satellite correction signal is estimated with satellite orbit data, satellite clock bias data, and satellite bias data based on real-time live received raw measurements, if the respective measurement time tag of a last-processed one of the stored received satellite signal measurements approaches or reaches the current time, where a difference between the respective measurement time tag of the corresponding last-processed, stored received raw satellite measurement and the current time is less than a threshold time range.
A sensor, comprising: a set of coils, the set of coils include a first coil and a second coil, wherein the first coil upon receiving energy, generates an electromagnetic near-field, such that the electromagnetic near-field provides at least a portion of the energy to the second coil through inductive coupling, inducing a current to pass through the set of coils; a detector for measuring each voltage across both the first coil and the second coil; and a processor for detecting a presence of a target structure in proximity to the set of coils upon detecting a change in a value of the voltage; characterized in that both the first coil and the second coil are in communication with the detector, the detector includes a voltmeter that detects each voltage across both the first coil and the second coil, such that the value of the voltage measured by the voltmeter represents both the first voltage across the first coil and the second voltage across the second coil, and wherein the processor determines a relative position of the target structure with respect to the first coil based on the change in the value of the first voltage, and a relative position of the target structure with respect to the second coil based on the change in the value of the second voltage. a set of coils, the set of coils include a first coil and a second coil, wherein the first coil upon receiving energy, generates an electromagnetic near-field, such that the electromagnetic near-field provides at least a portion of the energy to the second coil through inductive coupling, inducing a current to pass through the set of coils; a detector for measuring each voltage across both the first coil and the second coil; and a processor for detecting a presence of a target structure in proximity to the set of coils upon detecting a change in a value of the voltage; characterized in that both the first coil and the second coil are in communication with the detector, the detector includes a voltmeter that detects each voltage across both the first coil and the second coil, such that the value of the voltage measured by the voltmeter represents both the first voltage across the first coil and the second voltage across the second coil, and wherein the processor determines a relative position of the target structure with respect to the first coil based on the change in the value of the first voltage, and a relative position of the target structure with respect to the second coil based on the change in the value of the second voltage.
A method of processing data using an A/V decoder comprising: receiving data from a data stream; recovering a system time reference from the received data; processing said received data using a clock asynchronous to said system time reference; pulling the processed data into an output device; and outputting said processed data from said output device using a time reference locked to said system time reference. receiving data from a data stream; recovering a system time reference from the received data; processing said received data using a clock asynchronous to said system time reference; pulling the processed data into an output device; and outputting said processed data from said output device using a time reference locked to said system time reference.
A method of operating a speed control system of a vehicle, comprising: detecting an external force acting on the vehicle wherein the external force has an accelerating or decelerating effect on the vehicle; automatically adjusting a rate of change of at least one component of a net torque being applied to one or more wheels of the vehicle to compensate for the accelerating or decelerating effect of the external force on the vehicle, wherein the adjusting step comprises applying a predetermined gain to at least one component of the net torque being applied to one or more wheels of the vehicle, thereby increasing or decreasing the rate at which the at least one component of the net torque is changed, the method further comprising receiving a command to change a set-speed of the speed control system from a first set-speed to a target set-speed, and wherein the adjusting step comprises adjusting the rate of change of at least one component of the net torque being applied to accelerate or decelerate the vehicle to the target set-speed, wherein where the external force has a decelerating effect on the vehicle as a result of the vehicle ascending a gradient, and if the received command to change the set-speed would result in a rate of change of at least one component of the net torque being applied being such that the net torque would be insufficient to maintain vehicle progress up the gradient, the method further comprises decreasing the rate of change of at least one component of the net torque being applied to prevent movement down the gradient. detecting an external force acting on the vehicle wherein the external force has an accelerating or decelerating effect on the vehicle; automatically adjusting a rate of change of at least one component of a net torque being applied to one or more wheels of the vehicle to compensate for the accelerating or decelerating effect of the external force on the vehicle, wherein the adjusting step comprises applying a predetermined gain to at least one component of the net torque being applied to one or more wheels of the vehicle, thereby increasing or decreasing the rate at which the at least one component of the net torque is changed, the method further comprising receiving a command to change a set-speed of the speed control system from a first set-speed to a target set-speed, and wherein the adjusting step comprises adjusting the rate of change of at least one component of the net torque being applied to accelerate or decelerate the vehicle to the target set-speed, wherein where the external force has a decelerating effect on the vehicle as a result of the vehicle ascending a gradient, and if the received command to change the set-speed would result in a rate of change of at least one component of the net torque being applied being such that the net torque would be insufficient to maintain vehicle progress up the gradient, the method further comprises decreasing the rate of change of at least one component of the net torque being applied to prevent movement down the gradient.
A pressure-sensitive adhesive film for the temporary protection of surfaces which comprises a multilayer support coated on only one of its sides with a pressure-sensitive adhesive, said support comprising an odd number of layers, and at least one expanded polyolefin layer including the central layer, said polyolefin being selected from a radical low-density polyethylene, a linear polyethylene, polypropylene, a copolymer of ethylene and propylene, or a mixture of these compounds, said expanded layer comprising one or more additives selected from matting agents, in particular antiblocking agents; slip agents; colorants; UV stabilizers; UV barriers; antioxidants; and anti-aging agents; said film having, after application onto the surface to be protected, a xx (measured by dynamometry according to a protocol adapted from standard AFERA 5001, with a peeling speed from 10 mm/min to 30,000 mm/min) in the range from 1 to 700 cN:cm, preferably from 1 to 400 cN/cm.
A method of performing arc-fault sampling, ground-fault sampling, and grounded-neutral fault sampling in a circuit breaker device, characterized by: performing, by a single system controller, the arc-fault sampling during a plurality of arc-fault sampling periods, the arc-fault sampling periods occurring at regular intervals and each arc-fault sampling period lasting a fixed duration that is shorter than the time in between consecutive arc-fault sampling periods; monitoring for an occurrence of a predefined event (318, 330) in the circuit breaker device, the predefined event being timed to occur coincident with one of the plurality of arc-fault sampling periods; and performing the grounded-neutral fault sampling near the occurrence of the predefined event such that the grounded-neutral fault sampling is performed between said one of the plurality of arc-fault sampling periods and an immediately adjacent arc-fault sampling period; calculating, by the single system controller, a delay time for the predefined event and generating, by the single system controller, the predefined event after the delay time such that the predefined event occurs coincident with one of the plurality of arc-fault sampling periods; and initiating, by the single system controller, the arc-fault sampling and the ground-fault sampling upon a zero-crossing of a supply line voltage to which the circuit breaker device is connected wherein the arc-fault sampling, ground-fault sampling, and the grounded-neutral fault sampling are performed during a common detection interval. performing, by a single system controller, the arc-fault sampling during a plurality of arc-fault sampling periods, the arc-fault sampling periods occurring at regular intervals and each arc-fault sampling period lasting a fixed duration that is shorter than the time in between consecutive arc-fault sampling periods; monitoring for an occurrence of a predefined event (318, 330) in the circuit breaker device, the predefined event being timed to occur coincident with one of the plurality of arc-fault sampling periods; and performing the grounded-neutral fault sampling near the occurrence of the predefined event such that the grounded-neutral fault sampling is performed between said one of the plurality of arc-fault sampling periods and an immediately adjacent arc-fault sampling period; calculating, by the single system controller, a delay time for the predefined event and generating, by the single system controller, the predefined event after the delay time such that the predefined event occurs coincident with one of the plurality of arc-fault sampling periods; and initiating, by the single system controller, the arc-fault sampling and the ground-fault sampling upon a zero-crossing of a supply line voltage to which the circuit breaker device is connected wherein the arc-fault sampling, ground-fault sampling, and the grounded-neutral fault sampling are performed during a common detection interval.
A method for wireless communication at a base station, comprising: determining (505-b) a signal type associated with a signal; wherein a signal of a first signal type is one of a control signal, a data signal, and an overhead signal, and wherein a signal of a second signal type is one of a synchronization signal, an extended synchronization signal, a physical broadcast channel, PBCH, a random access channel, a scheduling request channel, a beam reference signal, an extended PBCH, and a beam refinement reference signal; identifying a tone spacing from a plurality of available tone spacings based at least in part on the determined signal type; wherein a tone spacing associated with the first signal type is shorter than a tone spacing associated with the second signal type; determining a number of repetitions of the signal based at least in part on the identified tone spacing; identifying signaling information indicating the determined number of repetitions; transmitting the signaling information to a user equipment via a control channel; and transmitting the signal to the user equipment based at least in part on the determined number of repetitions. determining (505-b) a signal type associated with a signal; wherein a signal of a first signal type is one of a control signal, a data signal, and an overhead signal, and wherein a signal of a second signal type is one of a synchronization signal, an extended synchronization signal, a physical broadcast channel, PBCH, a random access channel, a scheduling request channel, a beam reference signal, an extended PBCH, and a beam refinement reference signal; identifying a tone spacing from a plurality of available tone spacings based at least in part on the determined signal type; wherein a tone spacing associated with the first signal type is shorter than a tone spacing associated with the second signal type; determining a number of repetitions of the signal based at least in part on the identified tone spacing; identifying signaling information indicating the determined number of repetitions; transmitting the signaling information to a user equipment via a control channel; and transmitting the signal to the user equipment based at least in part on the determined number of repetitions.
A robotic surgical system comprising: a first image capture device (304, 306a); first and second manipulator arms respectively supporting first and second associated surgical instruments; a master control station have a display for displaying images captured by the first image capturing device, a first input device manipulatable by a first hand of an operator, and a second input device manipulatable by a second hand of the operator; an assistant control station having an assistant input device manipulatable by a hand of an assistant; and a processor (SCI, STG, CTP, CE1, CE2, SCO) configured to operate in a plurality of selectable modes including: a first mode wherein the processor operatively couples the first input device to the first manipulator arm and the second input device to the second manipulator arm so that the processor causes the first and second associated surgical instruments to move in response to movement of the first and second input devices; and a second mode wherein the processor operatively decouples the first manipulator arm from the first input device and operatively couples the decoupled first manipulator arm to the assistant input device so that the processor causes the first associated surgical instrument to move in response to movement of the assistant input device. a first image capture device (304, 306a); first and second manipulator arms respectively supporting first and second associated surgical instruments; a master control station have a display for displaying images captured by the first image capturing device, a first input device manipulatable by a first hand of an operator, and a second input device manipulatable by a second hand of the operator; an assistant control station having an assistant input device manipulatable by a hand of an assistant; and a processor (SCI, STG, CTP, CE1, CE2, SCO) configured to operate in a plurality of selectable modes including: a first mode wherein the processor operatively couples the first input device to the first manipulator arm and the second input device to the second manipulator arm so that the processor causes the first and second associated surgical instruments to move in response to movement of the first and second input devices; and a second mode wherein the processor operatively decouples the first manipulator arm from the first input device and operatively couples the decoupled first manipulator arm to the assistant input device so that the processor causes the first associated surgical instrument to move in response to movement of the assistant input device.
An article of apparel, comprising: a structure configured to enclose a human body part; a pressure sensor array including multiple pressure sensors separately positioned at locations within the structure, wherein each pressure sensor is configured to output a signal indicative of an amount of pressure being exerted on the pressure sensor by an external mechanical force; a controller, coupled to the pressure sensor array, configured to: receive signals from the pressure sensors; convert the signals from the pressure sensors from analog signals to digital signals and, for each of the pressure sensors, separately determine a rolling weighted average of the digital signals as converted from each of the pressure sensors; and based on a sequence and a timing of the rolling weighted averages of the digital signals as converted, determine a command related to a function of a device; and an electronic display, coupled to the controller, configured to display information related to the function. a structure configured to enclose a human body part; a pressure sensor array including multiple pressure sensors separately positioned at locations within the structure, wherein each pressure sensor is configured to output a signal indicative of an amount of pressure being exerted on the pressure sensor by an external mechanical force; a controller, coupled to the pressure sensor array, configured to: receive signals from the pressure sensors; convert the signals from the pressure sensors from analog signals to digital signals and, for each of the pressure sensors, separately determine a rolling weighted average of the digital signals as converted from each of the pressure sensors; and based on a sequence and a timing of the rolling weighted averages of the digital signals as converted, determine a command related to a function of a device; and receive signals from the pressure sensors; convert the signals from the pressure sensors from analog signals to digital signals and, for each of the pressure sensors, separately determine a rolling weighted average of the digital signals as converted from each of the pressure sensors; and based on a sequence and a timing of the rolling weighted averages of the digital signals as converted, determine a command related to a function of a device; and an electronic display, coupled to the controller, configured to display information related to the function.
A method of automatic dishwashing in a dishwasher having a wash tank, comprising: in a first step, delivering a first composition to dishware in the tank in the form of a mist; and afterwards, in a second step, delivering a second composition to the dishware in the tank in the form of a jet; wherein the first and second compositions are different, the first composition comprises a bleach, and the second composition is alkaline and comprises a builder, wherein the second composition is bleach-free. in a first step, delivering a first composition to dishware in the tank in the form of a mist; and afterwards, in a second step, delivering a second composition to the dishware in the tank in the form of a jet; wherein the first and second compositions are different, the first composition comprises a bleach, and the second composition is alkaline and comprises a builder, wherein the second composition is bleach-free.
An apparatus for measuring or monitoring blood glucose level of a subject by measuring impedance of a sub-dermal body tissue, of the subject resulting from an electrical current flowing through said body tissue and determining a blood glucose level of said subject based on the measured impedance, wherein said apparatus is a four-point equipment configured to carry out a 4-point impedance analysis, that comprises: - one pair of injection electrodes adapted for injection of electrical current into the body tissue, wherein the electrical current is passed through subdermal or subcutaneous tissue of said subject; - one pair of sensing electrodes adapted to detecting the voltage caused by said current injected by the injection electrodes, after flowing through the body tissue; - a means for measuring impedance of the sub-dermal body tissue between said injection electrodes and said sensing electrodes; - a microprocessor operatively connected to the means for measuring impedance and being programmed to determine a glucose level in the blood of the subject based on a comparison of the measured impedance with a predetermined relationship between impedance of the sub-dermal body tissue and glucose level. - one pair of injection electrodes adapted for injection of electrical current into the body tissue, wherein the electrical current is passed through subdermal or subcutaneous tissue of said subject; - one pair of sensing electrodes adapted to detecting the voltage caused by said current injected by the injection electrodes, after flowing through the body tissue; - a means for measuring impedance of the sub-dermal body tissue between said injection electrodes and said sensing electrodes; - a microprocessor operatively connected to the means for measuring impedance and being programmed to determine a glucose level in the blood of the subject based on a comparison of the measured impedance with a predetermined relationship between impedance of the sub-dermal body tissue and glucose level.