mhurhangee/patent-ind-claim-en huggingface dataset:
A method for automatically adjusting the position of an implement of a lift assembly of a work vehicle , the lift assembly comprising a boom coupled to the implement , the method being characterized by : determining, with the computing system , a tilt transition boom angle for the lift assembly that corresponds to a position within a boom travel range of the boom at which a direction of movement of the implement must be reversed to maintain the implement at a target implement angle as the boom is being moved across such position; determining, with the computing system , a closed-loop control signal associated with controlling movement of the implement based at least in part on the tilt transition boom angle; generating, with the computing system , a valve command signal based at least in part on the closed-loop control signal; and controlling, with computing system , an operation of at least one valve associated with the implement based at least in part on the valve command signal to maintain the implement at the target implement angle as the boom is being moved across the boom travel range. determining, with the computing system , a tilt transition boom angle for the lift assembly that corresponds to a position within a boom travel range of the boom at which a direction of movement of the implement must be reversed to maintain the implement at a target implement angle as the boom is being moved across such position; determining, with the computing system , a closed-loop control signal associated with controlling movement of the implement based at least in part on the tilt transition boom angle; generating, with the computing system , a valve command signal based at least in part on the closed-loop control signal; and controlling, with computing system , an operation of at least one valve associated with the implement based at least in part on the valve command signal to maintain the implement at the target implement angle as the boom is being moved across the boom travel range.
Ultrasonic flowmeter for determining the flow velocity or the volume flow of a fluid according to the transit time difference principle, particularly of a gas or a liquid, said flowmeter comprising a measuring tube with a straight measuring tube axis, at least a first converter to transmit an acoustic signal , at least a second converter to receive the acoustic signal and at least one reflection surface (4a, 12-16) to reflect the acoustic signal, wherein the first converter and the second converter are arranged on the measuring tube wall in such a way that they transmit or receive the acoustic signal at an angle or perpendicularly to the flow direction (A) of the fluid, wherein the acoustic signal runs between the first converter and the second converter along a signal path, which comprises a reflection at the at least one reflection surface (4a, 12-16), characterized in that the at least one reflection surface (4a, 12-16) is designed in a concave manner in at least one preferential direction in the measuring tube, wherein at least one reflection surface (4a, 12-16) designed in a concave manner is designed as a component , said component being inserted in a detachable manner in the measuring tube , and wherein the converters are positioned in a first and a second opening of the measuring tube, and wherein the component is positioned in a third opening, which is physically separated from the first and second opening.
A video decoding apparatus, comprising: a decoding module for decoding a first picture; a parsing module for parsing a slice header of a second picture which is a next picture of the decoded first picture; and a Decoded Picture Buffer (DPB) for storing the decoded first picture, wherein the slice header of the second picture includes reference picture information indicating whether the decoded first picture is a reference picture, wherein the decoded first picture is marked as a reference picture in the DPB, and then whether the decoded first picture marked as a reference picture is a reference picture or a non-reference picture is determined based on the reference picture information, and the decoded first picture marked as a reference picture is marked as a non-reference picture in a case that it is determined that the decoded first picture is a non-reference picture based on the reference picture information included in the slice header of the second picture, wherein the parsing module parses a network abstraction layer (NAL) unit header of an NAL unit for the first picture, and the NAL unit header does not comprise flag information indicating whether the NAL unit is a non-reference picture or a reference picture. a decoding module for decoding a first picture; a parsing module for parsing a slice header of a second picture which is a next picture of the decoded first picture; and a Decoded Picture Buffer (DPB) for storing the decoded first picture, wherein the slice header of the second picture includes reference picture information indicating whether the decoded first picture is a reference picture, wherein the decoded first picture is marked as a reference picture in the DPB, and then whether the decoded first picture marked as a reference picture is a reference picture or a non-reference picture is determined based on the reference picture information, and the decoded first picture marked as a reference picture is marked as a non-reference picture in a case that it is determined that the decoded first picture is a non-reference picture based on the reference picture information included in the slice header of the second picture, wherein the parsing module parses a network abstraction layer (NAL) unit header of an NAL unit for the first picture, and the NAL unit header does not comprise flag information indicating whether the NAL unit is a non-reference picture or a reference picture.
An antenna structure comprising: a multi-layer printed circuit board having first and second inner layers separated by a first material region and third and fourth outer layers separated from the first and second inner layers respectively by second and third material regions; a first set of conductive elements that form a first portion of the antenna structure, being formed on the first inner layer and comprising a first radiator arm , a first shorting arm and a feeder arm ; a second set of conductive elements that form a second portion of the antenna structure, being formed in parallel to the first set of conductive elements on the second inner layer, and comprising a second radiator arm and a second shorting arm , the first set of conductive elements and the second set of conductive elements being configured to act as an inverted f antenna, wherein the first radiator arm and the second radiator arm are connected together using a plurality of vias (330a-n, 530a-n) and wherein the first shorting arm and the second shorting arm are connected together using a second plurality of vias (330a-n, 530a-n); a first conductive ground plane that is formed on the first layer of the multi-layer printed circuit board; and a second conductive ground plane that is formed in parallel with the first conductive ground plane on the second layer of the multi-layer printed circuit board, the second conductive ground plane and the first conductive ground plane being connected together using conductive vias (325a-n, 535an). a multi-layer printed circuit board having first and second inner layers separated by a first material region and third and fourth outer layers separated from the first and second inner layers respectively by second and third material regions; a first set of conductive elements that form a first portion of the antenna structure, being formed on the first inner layer and comprising a first radiator arm , a first shorting arm and a feeder arm ; a second set of conductive elements that form a second portion of the antenna structure, being formed in parallel to the first set of conductive elements on the second inner layer, and comprising a second radiator arm and a second shorting arm , the first set of conductive elements and the second set of conductive elements being configured to act as an inverted f antenna, wherein the first radiator arm and the second radiator arm are connected together using a plurality of vias (330a-n, 530a-n) and wherein the first shorting arm and the second shorting arm are connected together using a second plurality of vias (330a-n, 530a-n); a first conductive ground plane that is formed on the first layer of the multi-layer printed circuit board; and a second conductive ground plane that is formed in parallel with the first conductive ground plane on the second layer of the multi-layer printed circuit board, the second conductive ground plane and the first conductive ground plane being connected together using conductive vias (325a-n, 535an).
A connection device for a lower limb prosthesis, comprising a first prosthesis component and a second prosthesis component, wherein the connection device has at least one locking element and one holding device, wherein the at least one locking element is configured to lock the first prosthesis component relative to the second prosthesis component and wherein the holding device is configured to releasably retain the first prosthesis component to the second prosthesis component, wherein the holding device has a first holding element and a second holding element , wherein the first holding element can be arranged on the first prosthesis component and features a projection , and the second holding element can be arranged on the second prosthesis component and provides a base body with a bore , wherein the projection can be inserted in a recess of the second holding element, characterized in that the projection of the first holding element provides a bore and the bores can be moved so that they overlap with one another in such a way that the locking element can be inserted into the bores.
A process of recovering multiple products from biomass of a species from the duckweed family comprising the steps of: providing the biomass; lysing the biomass to generate a lysed biomass; separating the lysed biomass to generate a juice and a first solid phase; filtering the juice to generate a filtered juice and a second solid phase; clarifying the filtered juice to generate a clarified juice and a third solid phase; coagulating protein from the clarified juice to generate a broth comprising a wet protein concentrate; separating the wet protein concentrate from the broth; drying the wet protein concentrate to generate a dry protein concentrate; producing a wet bio-crude using the first solid phase, drying the wet bio-crude to generate at least one product selected from a dry bio-crude and a carbohydrate-rich meal, wherein the multiple products comprise products selected from the dry protein concentrate, dry bio-crude, and carbohydrate-rich meal, and wherein at least 50% of the protein in the multiple products is in the dry protein concentrate. providing the biomass; lysing the biomass to generate a lysed biomass; separating the lysed biomass to generate a juice and a first solid phase; filtering the juice to generate a filtered juice and a second solid phase; clarifying the filtered juice to generate a clarified juice and a third solid phase; coagulating protein from the clarified juice to generate a broth comprising a wet protein concentrate; separating the wet protein concentrate from the broth; drying the wet protein concentrate to generate a dry protein concentrate; producing a wet bio-crude using the first solid phase, drying the wet bio-crude to generate at least one product selected from a dry bio-crude and a carbohydrate-rich meal, wherein the multiple products comprise products selected from the dry protein concentrate, dry bio-crude, and carbohydrate-rich meal, and wherein at least 50% of the protein in the multiple products is in the dry protein concentrate.
Operating device for a household appliance , which operating device has an operating element comprising a rotary ring that can be used to set operating conditions of the household appliance according to a rotary movement, and which operating element comprises an electronic display area , which is enclosed by the rotary ring , wherein an optical light strip in the form of a circumferential ring is formed adjacent to the rotary ring and separate therefrom, which light strip is used to indicate visually as a light line the length of a rotary path travelled by the rotary ring in a rotary movement, wherein the light line is positioned graphically directly against the rotary ring but separate therefrom, and runs immediately adjacent thereto, wherein the light strip is formed adjacent to an outer edge of the rotary ring that faces away from the display area .
Method for measuring distance in order to focus at least one camera lens of a camera , wherein a wide-distance measuring system, which is suitable for measuring greater distances, of the distance-measuring unit measures the distance of the object and provides at least one wide-distance measured value, and the wide-distance measuring system comprises at least one microwave measuring system and wherein at least one further measuring system is provided, which comprises at least one short-distance measuring system suitable for measuring short distances and measures the distance (D) of the object to the camera and provides at least one near measured value as a further measured value, characterised in that the wide-distance measured value and the further measured value are used for focusing the camera lens and wherein the further measured value and the wide-distance measured value are displayed to the user of the camera or wherein a distance parameter (F) is calculated from the further measured value and the wide-distance measured value via a transfer function .
An apparatus of an advanced wireless system, the apparatus comprising: a radar circuit including a set of antennas for transmission and reception, a transmitter, a receiver, and a medium access control, MAC, controller; and a controller operably connected to the radar circuit, the controller configured to: identify a discrete Fourier transform, DFT, of a long constant amplitude zero autocorrelation, CAZAC, sequence including multiple segments, identify, via the MAC controller, time-frequency resources for the multiple segments, identify a set of time-frequency sub-channels in the time-frequency resources, and sequentially map each of the multiple segments to each of the set of time-frequency sub-channels, wherein the radar circuit is configured to transmit, via the transmitter, a first signal based on the set of time-frequency sub-channels. a radar circuit including a set of antennas for transmission and reception, a transmitter, a receiver, and a medium access control, MAC, controller; and a controller operably connected to the radar circuit, the controller configured to: identify a discrete Fourier transform, DFT, of a long constant amplitude zero autocorrelation, CAZAC, sequence including multiple segments, identify, via the MAC controller, time-frequency resources for the multiple segments, identify a set of time-frequency sub-channels in the time-frequency resources, and sequentially map each of the multiple segments to each of the set of time-frequency sub-channels, identify a discrete Fourier transform, DFT, of a long constant amplitude zero autocorrelation, CAZAC, sequence including multiple segments, identify, via the MAC controller, time-frequency resources for the multiple segments, identify a set of time-frequency sub-channels in the time-frequency resources, and sequentially map each of the multiple segments to each of the set of time-frequency sub-channels, wherein the radar circuit is configured to transmit, via the transmitter, a first signal based on the set of time-frequency sub-channels.
A thread-forming screw having a shaft (1.1) at least partially provided with a thread and a screw tip (1.2) at one end of the shaft (1.1), wherein the shaft (1.1) has a thread-forming thread portion extending away from the screw tip (1.2) and an adjoining supporting thread portion , wherein the supporting thread portion has a circular cross-section, characterized in that the supporting thread portion , in the direction away from the screw tip (1.2), has an increase d of a pitch diameter DF and/or of an outside diameter DA of the thread at a ratio of 1:100 to 1:500 relative to a length LG of the supporting thread portion , preferably at a ratio DA or DF to LG up to 1:400, wherein the increase d of the pitch diameter DF and/or of the outside diameter DA is constant over the length LG of the supporting section.
A rotary compressor comprising a sealed container , a drive motor , a first stage rotary compression mechanism having a first roller and a first vane , and a second stage rotary compression mechanism having a second roller and a second vane , that are rotated and driven by rotation of the drive motor, and an intermediate partition plate provided between the first stage rotary compression mechanism and the second stage rotary compression mechanism, wherein in the intermediate partition plate, an oil supply passage that extends from a center of the sealed container toward outside is provided, an oil supply hole that communicates between the oil supply passage and a second compression chamber of the second stage rotary compression mechanism is formed, the oil supply hole is formed at a position to be opened where the second roller of the second stage rotary compression mechanism is at a position other than a compression stroke, characterized in that the oil supply hole is provided at a position of 120° on a suction passage side from a position of the second vane of the second stage rotary compression mechanism so that the oil supply hole communicates at a crank angle of the second roller in a range from 245° to 350°. a sealed container , a drive motor , a first stage rotary compression mechanism having a first roller and a first vane , and a second stage rotary compression mechanism having a second roller and a second vane , that are rotated and driven by rotation of the drive motor, and an intermediate partition plate provided between the first stage rotary compression mechanism and the second stage rotary compression mechanism, wherein in the intermediate partition plate, an oil supply passage that extends from a center of the sealed container toward outside is provided, an oil supply hole that communicates between the oil supply passage and a second compression chamber of the second stage rotary compression mechanism is formed, the oil supply hole is formed at a position to be opened where the second roller of the second stage rotary compression mechanism is at a position other than a compression stroke,
A fan-shaped icon arrangement method of a mobile terminal , said mobile terminal comprising a memory , a display unit and a controller , the method comprising: storing (S10), by said memory , registered icons being registered by the user to be displayed in an icon display unit , the icon display unit having a fan-shape, and configuration information being designated by the user; wherein the display unit is configured to display a plurality of registered icons on an idle screen; displaying (S12), by the controller , the icon display unit having a predetermined shape within a movement range of a user's thumb according to the configuration information; displaying, by the controller , one or more registered icons the user frequently uses on the icon display unit , wherein these one or more displayed registered icons are duplicated from the idle screen; and wherein more frequently used icons are disposed at an outer side of the icon display unit and wherein normally used icons are disposed at an inner side of the icon display unit ; and executing (S13), by the controller , a particular icon of the icon display unit according to a touch input, wherein the icon display unit is automatically divided into a rotational region , which is rotatable in a clockwise direction or counterclockwise direction according to a user touch, and a fixed region , which is not rotatable, when the number of registered icons in the icon display unit exceeds a predetermined number. storing (S10), by said memory , registered icons being registered by the user to be displayed in an icon display unit , the icon display unit having a fan-shape, and configuration information being designated by the user; wherein the display unit is configured to display a plurality of registered icons on an idle screen; displaying (S12), by the controller , the icon display unit having a predetermined shape within a movement range of a user's thumb according to the configuration information; displaying, by the controller , one or more registered icons the user frequently uses on the icon display unit , wherein these one or more displayed registered icons are duplicated from the idle screen; and wherein more frequently used icons are disposed at an outer side of the icon display unit and wherein normally used icons are disposed at an inner side of the icon display unit ; and executing (S13), by the controller , a particular icon of the icon display unit according to a touch input, wherein the icon display unit is automatically divided into a rotational region , which is rotatable in a clockwise direction or counterclockwise direction according to a user touch, and a fixed region , which is not rotatable, when the number of registered icons in the icon display unit exceeds a predetermined number.
A sensor unit for an image recording device , said sensor unit comprising an optoelectronic image sensor and a cover unit arranged in front of the optoelectronic image sensor , wherein the cover unit comprises a first absorption glass and a second absorption glass , and wherein the first absorption glass is configured as a UV absorption glass and the second absorption glass is configured as an IR absorption glass. wherein the cover unit comprises a first absorption glass and a second absorption glass , and wherein the first absorption glass is configured as a UV absorption glass and the second absorption glass is configured as an IR absorption glass.