mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving a first image for rendering on a first image display in a combination of a stationary image display and a non-stationary image display; tracking a gaze of a viewer in real time by tracking a viewing direction of a user device that includes the non-stationary image display; identifying a visual object depicted in the first image by analyzing the tracked viewing direction to determine the visual object gazed at by the viewer, wherein identifying the visual object comprises detecting edges of the visual object to separate background from the visual object; generating a corresponding image portion in a second image depicting only the identified visual object for rendering on a second image display in the combination of the stationary image display and the non-stationary image display, wherein the corresponding image portion in the second image as rendered on the second image display overlaps in a vision field of a viewer with the visual object depicted in the second image as rendered on the first image display to perform compensated image rendering for enhancing only the identified visual object in one or more visual characteristics such as one or more of dynamic range, color gamut, spatial resolution, color saturation and color precision; causing the second image to be rendered on the second image display concurrently while the first image is being rendered on the first image display. receiving a first image for rendering on a first image display in a combination of a stationary image display and a non-stationary image display; tracking a gaze of a viewer in real time by tracking a viewing direction of a user device that includes the non-stationary image display; identifying a visual object depicted in the first image by analyzing the tracked viewing direction to determine the visual object gazed at by the viewer, wherein identifying the visual object comprises detecting edges of the visual object to separate background from the visual object; generating a corresponding image portion in a second image depicting only the identified visual object for rendering on a second image display in the combination of the stationary image display and the non-stationary image display, wherein the corresponding image portion in the second image as rendered on the second image display overlaps in a vision field of a viewer with the visual object depicted in the second image as rendered on the first image display to perform compensated image rendering for enhancing only the identified visual object in one or more visual characteristics such as one or more of dynamic range, color gamut, spatial resolution, color saturation and color precision; causing the second image to be rendered on the second image display concurrently while the first image is being rendered on the first image display.
A wearable optics device comprising: a lens; one or more projectors; a dynamic eye tracking mechanism coupled to the lens, the dynamic eye tracking mechanism including a camera mounted on the wearable optics device and directed to sense features of the wearer, the dynamic eye tracking mechanism being responsive to an iris/pupil contraction; and controlling a display on the lens, to provide shading control on the wearable optics device, wherein shading control is provided by projecting an occlusion effect on the lens, and wherein the shading control is controlled using the iris/pupil contraction. a lens; one or more projectors; a dynamic eye tracking mechanism coupled to the lens, the dynamic eye tracking mechanism including a camera mounted on the wearable optics device and directed to sense features of the wearer, the dynamic eye tracking mechanism being responsive to an iris/pupil contraction; and
An oscillator calibration circuit (200, 500), comprising: a first oscillator (211, 221, 511, 521, 531); a first frequency locking circuit, FLC, (200, 210, 400, 510, 520, 530) that is coupled to the first oscillator (211, 221, 511, 521, 531), wherein the first FLC (200, 210, 400, 510, 520, 530) is adapted to calibrate a frequency of the first oscillator (211, 221, 511, 521, 531) using an over-the-air reference signal that has been received by the oscillator calibration circuit (200, 500), wherein the first FLC (200, 210, 400, 510, 520, 530) is adapted to calibrate the first oscillator (211, 221, 511, 521, 531) immediately prior to a data transmission session; wherein the first FLC (200, 210, 400, 510, 520, 530) is adapted to be disenabled and thus being without power during said data transmission thus allowing the calibrated first oscillator (211, 221, 511, 521, 531) to be free running during the data transmission session, wherein the first oscillator (211, 221, 511, 521, 531) is a local oscillator and it is calibrated by the first FLC (200, 210, 400, 510, 520, 530) to any of: a radio frequency,RF, frequency and an intermediate frequency,IF, and wherein the oscillator calibration circuit is adapted to be employed as a portion of a Bluetooth low energy,BLE, transmitter that is adapted to transmit said data using said frequency of the first oscillator, and that employs a carrier frequency f 0 of 2.4 GHz and an offset frequency value Δ f of about 185 kHz. a first oscillator (211, 221, 511, 521, 531); a first frequency locking circuit, FLC, (200, 210, 400, 510, 520, 530) that is coupled to the first oscillator (211, 221, 511, 521, 531),
A method for Optical Transport Network OTN line side adaptation to provide sub-rate granularity and distribution, the method comprising: subsequent to receiving OTN signal, segmenting the OTN signal into N flows of cells with associated identifiers, based on a number of allocated tributary slots of the OTN signal, wherein N ≥ 0, wherein, when N>O, the cells only include allocated payload from the OTN signal, the method characterized by in that, when N=O, the cells only include overhead; and switching the cells, with a scheduler, to one or more line side modems for transmission thereof where a rate of the one or more line side modems is disassociated from a line rate of the OTN signal. subsequent to receiving OTN signal, segmenting the OTN signal into N flows of cells with associated identifiers, based on a number of allocated tributary slots of the OTN signal, wherein N ≥ 0, wherein, when N>O, the cells only include allocated payload from the OTN signal, the method characterized by in that, when N=O, the cells only include overhead; and switching the cells, with a scheduler, to one or more line side modems for transmission thereof where a rate of the one or more line side modems is disassociated from a line rate of the OTN signal.
A hearing aid comprising: - a speaker unit; - a speaker snout comprising ∘ a sound canal having a longitudinal axis, a lateral axis extending perpendicular to the longitudinal axis, and ∘ a sound canal opening, - an earpiece configured to be attached to the speaker snout and - an ear wax filter, wherein said sound canal being configured to guide sound generated by the speaker unit through the sound canal, out through the sound canal opening and into the earpiece, wherein the ear wax filter is slidably arranged in the speaker snout through a first opening of the speaker snout allowing the ear wax filter to be radially inserted into the sound canal of the speaker snout in the direction of the lateral axis (y) of the sound canal. - a speaker unit; - a speaker snout comprising ∘ a sound canal having a longitudinal axis, a lateral axis extending perpendicular to the longitudinal axis, and ∘ a sound canal opening, ∘ a sound canal having a longitudinal axis, a lateral axis extending perpendicular to the longitudinal axis, and ∘ a sound canal opening, - an earpiece configured to be attached to the speaker snout and - an ear wax filter, wherein said sound canal being configured to guide sound generated by the speaker unit through the sound canal, out through the sound canal opening and into the earpiece, wherein the ear wax filter is slidably arranged in the speaker snout through a first opening of the speaker snout allowing the ear wax filter to be radially inserted into the sound canal of the speaker snout in the direction of the lateral axis (y) of the sound canal.
A conditioner unit for conditioning crop material, the conditioner unit comprising a rotor having a shaft that carries a plurality of conditioning elements, a drive mechanism for driving rotation of the rotor about an axis, a deflector element having a working surface that surrounds at least part of the circumference of the rotor to define a conditioning passage through which crop material is transported by rotation of the rotor, and an adjusting mechanism for adjusting the position of the deflector element relative to the rotor, wherein the adjusting mechanism includes an actuator for adjusting the position of the deflector element, a sensor (52, 54) for sensing an operational condition of the conditioning unit and a control system that is configured to receive a sensor signal from the sensor (52, 54) and controls actuation of the actuator in response to said sensor signal to provide a desired level of conditioning during operation of the conditioner unit, characterised in that the control system is programmed to receive geographical position data and is configured to use mapping information from a database to adjust the position of the deflector element according to known variations in growing conditions within a particular geographical area.
Method for the radio-oriented optimization of wheel monitoring in a vehicle equipped with vehicle wheels (W1-W4), wherein the monitoring of at least one of the vehicle wheels (W1-W4) is prompted by an electronic wheel unit (10-1 to 10-4) arranged on the relevant vehicle wheel (W1-W4) capturing at least one wheel operating parameter of the vehicle wheel (W1-W4), and radio signals (R1-R4) containing information about the at least one captured wheel operating parameter being transmitted for a respective wheel rotational position of the vehicle wheel (W1-W4), stipulated by the electronic wheel unit (10-1 to 10-4), wherein the radio signals (R1-R4) are received and evaluated by a control device of the vehicle, characterized in that the radio-oriented optimization of the wheel monitoring is prompted during operation of the vehicle by the electronic wheel unit (10-1 to 10-4) being used to transmit multiple radio signals for different wheel rotational positions of the vehicle wheel (W1-W4), wherein the multiple radio signals are received by means of the control device and rated in respect of their respective radio signal strength, wherein the control device is used to transmit an optimization radio signal (D1-D4) to the electronic wheel unit (10-1 to 10-4), wherein the optimization radio signal (D1-D4) contains optimization information formed on the basis of the rating of the multiple radio signals, and wherein the electronic wheel unit (10-1 to 10-4) is used to receive the optimization radio signal (D1-D4), and the optimization information contained therein is taken into consideration for the stipulation of the wheel rotational position of the vehicle wheel (W1-W4) for radio signals (R1-R4) that are subsequently to be transmitted.
A multirotor aircraft that is adapted for vertical take-off and landing, comprising a fuselage, a tail boom that is provided with a vertical fin, a thrust producing units assembly that is provided for producing thrust in operation, at least one lower wing which comprises a lower wing inboard section that is connected to the fuselage and a lower wing outboard section that forms a lower wing tip, and at least one upper wing which is connected to the vertical fin and which forms an upper wing tip, wherein the at least one upper wing is joined to the at least one lower wing in a joined-wing configuration, wherein a first thrust producing unit of the thrust producing units assembly is non-tiltably mounted to the at least one upper wing and provided for generating lift at least during vertical taking-off and landing, the first thrust producing unit being arranged near a leading edge of the at least one upper wing, and wherein a second thrust producing unit of the thrust producing units assembly is non-tiltably mounted to the at least one lower wing and provided for generating lift at least during vertical taking-off and landing, the second thrust producing unit being arranged near a trailing edge of the at least one lower wing.
A method of controlling a system onboard an aircraft, the system comprising a controller, a component to be controlled, a plurality of sensors and a computer system external to the controller, the method comprising generating, by the computer system, a reduced order model based on a simulated parameter output of a high-fidelity physics-based model that receives inputs representative of data from the plurality of sensors onboard the aircraft, wherein the reduced order model is configured to generate an active parameter output based on sensor input from the plurality of sensors onboard the aircraft, and random perturbations are introduced into the inputs representative of data from a plurality of sensors to account for tolerances of the plurality of sensors, and the simulated parameter output of the high-fidelity physics-based model is curve fit to generate the reduced order model; loading the reduced order model into the controller of the system; providing, from the plurality of sensors, sensor data to the reduced order model; generating, by the reduced order model, the active parameter output using the sensor data; and controlling, using the controller, a component of the system based on the active parameter output. generating, by the computer system, a reduced order model based on a simulated parameter output of a high-fidelity physics-based model that receives inputs representative of data from the plurality of sensors onboard the aircraft, wherein the reduced order model is configured to generate an active parameter output based on sensor input from the plurality of sensors onboard the aircraft, and random perturbations are introduced into the inputs representative of data from a plurality of sensors to account for tolerances of the plurality of sensors, and the simulated parameter output of the high-fidelity physics-based model is curve fit to generate the reduced order model; loading the reduced order model into the controller of the system; providing, from the plurality of sensors, sensor data to the reduced order model; generating, by the reduced order model, the active parameter output using the sensor data; and controlling, using the controller, a component of the system based on the active parameter output.
A method of detecting nucleic acids, comprising (a) providing a solid support and a library of nucleic acids, the solid support comprising a substrate and a patterned sol-gel layer disposed on the substrate, the patterned sol gel-layer forming a plurality of wells separated from each other by interstitial regions, the wells containing a gel material wherein the gel material conforms to the shape of the wells,, the interstitial regions segregating the gel material in each of the wells from the gel material in other wells of the plurality, a single species of the target nucleic acids of the library being attached to the gel material in each of the wells; (b) contacting the solid support with at least one probe that binds to the target nucleic acids; and (c) detecting the solid support to distinguish the wells having a target nucleic acid species that binds to the at least one probe. (a) providing a solid support and a library of nucleic acids, the solid support comprising a substrate and a patterned sol-gel layer disposed on the substrate, the patterned sol gel-layer forming a plurality of wells separated from each other by interstitial regions, the wells containing a gel material wherein the gel material conforms to the shape of the wells,, the interstitial regions segregating the gel material in each of the wells from the gel material in other wells of the plurality, a single species of the target nucleic acids of the library being attached to the gel material in each of the wells; (b) contacting the solid support with at least one probe that binds to the target nucleic acids; and (c) detecting the solid support to distinguish the wells having a target nucleic acid species that binds to the at least one probe.
A speech processing method, performed by a mobile terminal, characterized in that the method comprises: receiving (101, 501) a speech input; determining, based on whether an interface displayed by the mobile terminal comprises an input control, that the interface displayed by the mobile terminal meets a first preset condition or a second preset condition; displaying (102, 502), if the interface displayed by the mobile terminal meets the first preset condition, text content corresponding to the speech input on the interface displayed by the mobile terminal; and controlling (103, 503), if the interface displayed by the mobile terminal meets the second preset condition, the mobile terminal to execute an instruction corresponding to the speech input. receiving (101, 501) a speech input; determining, based on whether an interface displayed by the mobile terminal comprises an input control, that the interface displayed by the mobile terminal meets a first preset condition or a second preset condition; displaying (102, 502), if the interface displayed by the mobile terminal meets the first preset condition, text content corresponding to the speech input on the interface displayed by the mobile terminal; and controlling (103, 503), if the interface displayed by the mobile terminal meets the second preset condition, the mobile terminal to execute an instruction corresponding to the speech input.
A centring element for holding a lighting means in a centring manner in a jacket tube, wherein the centring element has an axially central bore and at least one elastic spring element (3, 3', 3"), which extends at least in some sections on an outer circumference of the centring element and provides a radial restoring force, characterised in that the centring element has a base disk body, in which the axially central bore is present and the diameter of which is smaller than an inner diameter of the jacket tube, wherein the spring element (3, 3', 3") is provided - by a spring body or a resilient winding made of wire, which is guided through a plurality of axially parallel openings at the edge of the base disk body, or - by a layer (3") made of a foam material, which is light-/UV-, and/or heat-resistant as a function of a type of the lighting means to be centred. - by a spring body or a resilient winding made of wire, which is guided through a plurality of axially parallel openings at the edge of the base disk body, or - by a layer (3") made of a foam material, which is light-/UV-, and/or heat-resistant as a function of a type of the lighting means to be centred.
A washing machine comprising a body; a tub which is disposed in the body and wherein the washing process is performed; a circulation line wherein the water taken from the tub is circulated by means of a circulation pump; and a filtering member having at least one filter which filters the circulation water taken from the circulation line, a receptacle wherein the filter is disposed, a water inlet through which the water coming from the circulation line is taken, and a water outlet which is arranged on the receptacle and which enables the water passing through the filter to be discharged out of the receptacle, wherein an overflow outlet which is arranged on the receptacle so as to be positioned before the water outlet in the flow direction of the water and which enables some of the water in the receptacle to be discharged out of the receptacle; a compartment wherein the water coming through the overflow outlet fills; a level sensor which detects the level of the water in the compartment; and a control unit which determines the fullness status of the filter, characterized in that the control unit determines the fullness status of the filter by calculating a filling rate related to the change of the level of the water in the compartment with respect to time by means of the data received from the level sensor.
A method for creating a compound file in an electronic device, the method comprising: receiving image data and additional data; and creating a compound file by using the received image data and the additional data, wherein the compound file comprises: the image data; a header corresponding to the image data; the additional data; and a marker indicating that the compound file is an image file having the additional data inserted therein, wherein the marker is recorded in a tail of the compound file separated from the header. receiving image data and additional data; and creating a compound file by using the received image data and the additional data, wherein the compound file comprises: the image data; a header corresponding to the image data; the additional data; and a marker indicating that the compound file is an image file having the additional data inserted therein, wherein the marker is recorded in a tail of the compound file separated from the header. the image data; a header corresponding to the image data; the additional data; and a marker indicating that the compound file is an image file having the additional data inserted therein, wherein the marker is recorded in a tail of the compound file separated from the header.
A glass atomizer, comprising a member for e-liquid injection and vapor discharge, wherein the member for e-liquid injection and vapor discharge comprises an outer glass tube and an inner glass tube disposed in the outer glass tube; the outer glass tube comprises an air inlet; the inner glass tube comprises a top end; characterised in that an outer edge of the top end comprises a plurality of grooves; and the top end is integrated with an inner wall of the outer glass tube.
A computer-implemented method for automating packet handling on a network device, the method comprising: receiving a packet; detecting for the packet a protocol that is unknown to the network device; performing a lookup of the protocol to identify a matching protocol handler for the unknown protocol; and upon determining a matching protocol is available, dynamically loading a protocol handler corresponding to the matching protocol into memory of the network device. receiving a packet; detecting for the packet a protocol that is unknown to the network device; performing a lookup of the protocol to identify a matching protocol handler for the unknown protocol; and upon determining a matching protocol is available, dynamically loading a protocol handler corresponding to the matching protocol into memory of the network device.