mhurhangee/ep-ind-claims huggingface dataset:
A spurious frequency attenuation servo, comprising: a first function generator that generates a first signal at a first frequency, the first signal including at least one spur at at least one respective spurious frequency; a second function generator that generates a second signal in-phase with the first signal and at a spurious frequency; a third function generator that generates a third signal ninety degrees out-of-phase with the first signal and at the spurious frequency; an in-phase mixer configured to input the second signal and a feedback signal; a quadrature-phase mixer configured to input the third signal and the feedback signal; an in-phase error accumulator configured to input the signal from the in-phase mixer; a quadrature-phase error accumulator configured to input the signal from the quadrature-phase mixer; an in-phase multiplier to multiply an output from the in-phase error accumulator with the second signal; a quadrature-phase multiplier to multiply an output from the quadrature-phase error accumulator with the third signal; and at least one summing node to sum the first signal, an output from the in-phase multiplier, and an output from the quadrature-phase multiplier to form an output signal that is fed back to the in-phase mixer and the quadrature-phase mixer, wherein the at least one spurious frequency (f 2) of the first signal is canceled from the first signal output from the summer. a first function generator that generates a first signal at a first frequency, the first signal including at least one spur at at least one respective spurious frequency; a second function generator that generates a second signal in-phase with the first signal and at a spurious frequency; a third function generator that generates a third signal ninety degrees out-of-phase with the first signal and at the spurious frequency; an in-phase mixer configured to input the second signal and a feedback signal; a quadrature-phase mixer configured to input the third signal and the feedback signal; an in-phase error accumulator configured to input the signal from the in-phase mixer; a quadrature-phase error accumulator configured to input the signal from the quadrature-phase mixer; an in-phase multiplier to multiply an output from the in-phase error accumulator with the second signal; a quadrature-phase multiplier to multiply an output from the quadrature-phase error accumulator with the third signal; and at least one summing node to sum the first signal, an output from the in-phase multiplier, and an output from the quadrature-phase multiplier to form an output signal that is fed back to the in-phase mixer and the quadrature-phase mixer, wherein the at least one spurious frequency (f 2) of the first signal is canceled from the first signal output from the summer.
A hydraulic construction unit with a centrifugal pump assembly which comprises an electrical drive motor (4, 6) as well as at least one impeller which is driven by this, as well as with at least one valve element which is arranged in a manner such that it is movable by way of a fluid flow which is created by the impeller, wherein at least one section (18; 78) of a wall delimiting a flow path in the hydraulic construction unit is designed in a movable manner, this movable section (18; 78; 86) of the wall is part of the valve element or is connected to the valve element for its movement, and this movable section (18; 78; 86) is movable in a manner at least partly effected by friction forces of the fluid flow running along the wall, characterised by a movable separating element (18; 78) which separates a suction chamber in the inside of a pump casing of the centrifugal pump assembly from a delivery chamber which surrounds the impeller, wherein a surface of the separating element (18; 78) which faces the delivery chamber and/or a surface of the separating element which faces the suction chamber forms the at least one movable section of the wall.
A backlight unit, comprising: a light guiding plate (100, 100'); a light source module including a substrate provided with a circuit wiring and a plurality of light emitting diode blocks each including one or more LED mounted on the substrate to be positioned vertically with respect to the substrate, the one or more LED being disposed to face a side surface of the light guiding plate (100, 100'); a bottom chassis including a base and a sidewall upwardly extending from a circumference of the base, and accommodating the light source module and the light guiding plate (100, 100') in such a manner that the one or more LED is disposed to be adjacent to the sidewall; and a driving unit controlling a current signal applied to each of the plurality of LED blocks to thereby control brightness for each LED block; wherein the one or more LED includes a body having a cavity formed therein and a heat sink penetrating the body to be outwardly exposed through the rear surface of the body, in a bottom surface of the cavity, and wherein the heat sink exposed to the rear surface of the body comes into contact with the sidewall. a light guiding plate (100, 100'); a light source module including a substrate provided with a circuit wiring and a plurality of light emitting diode blocks each including one or more LED mounted on the substrate to be positioned vertically with respect to the substrate, the one or more LED being disposed to face a side surface of the light guiding plate (100, 100'); a bottom chassis including a base and a sidewall upwardly extending from a circumference of the base, and accommodating the light source module and the light guiding plate (100, 100') in such a manner that the one or more LED is disposed to be adjacent to the sidewall; and a driving unit controlling a current signal applied to each of the plurality of LED blocks to thereby control brightness for each LED block; wherein the one or more LED includes a body having a cavity formed therein and a heat sink penetrating the body to be outwardly exposed through the rear surface of the body, in a bottom surface of the cavity, and wherein the heat sink exposed to the rear surface of the body comes into contact with the sidewall.
A method for video decoding comprising: - obtaining a first value of a first high level syntax element, the first high level syntax element indicating whether a group-of-blocks level weighted prediction applies for predicting blocks, wherein a same weight is defined for weighting blocks of a group of reference blocks; - obtaining a second value of a second high level syntax element, the second high level syntax element indicating whether a block-level generalized bi-prediction applies for predicting blocks, wherein a weight is defined for weighting a single reference block independently of any other block; - decoding a current block by applying the block-level generalized bi-prediction responsive to the first value indicating the group-of-blocks-level weighted prediction applies and the second value indicating the block-level generalized bi-prediction applies. - obtaining a first value of a first high level syntax element, the first high level syntax element indicating whether a group-of-blocks level weighted prediction applies for predicting blocks, wherein a same weight is defined for weighting blocks of a group of reference blocks; - obtaining a second value of a second high level syntax element, the second high level syntax element indicating whether a block-level generalized bi-prediction applies for predicting blocks, wherein a weight is defined for weighting a single reference block independently of any other block; - decoding a current block by applying the block-level generalized bi-prediction responsive to the first value indicating the group-of-blocks-level weighted prediction applies and the second value indicating the block-level generalized bi-prediction applies.
A microemulsion comprising: - an oil phase comprising a hydrophobic active ingredient, preferably a perfume; - an aqueous phase; and - a surfactant system comprising: ▪ a non-ionic primary surfactant system; ▪ a first non-ionic co-surfactant system, and ▪ a second non-ionic co-surfactant system; characterized in that: - the non-ionic primary surfactant system comprises at least one ethoxylated alcohol having between 5 and 19 PEG units; - the first non-ionic co-surfactant system comprises a PEG-modified hydrogenated castor oil having more than 19 PEG units and a polypropoxylated-polyethoxylated alcohol; and - the second non-ionic co-surfactant system is selected from the group consisting of ethoxylated alcohols having more than 19 PEG units, a PEG-modified hydrogenated castor oil having more than 19 PEG and mixtures thereof, and - wherein the surfactant system is free from a cationic surfactant and anionic surfactant. - an oil phase comprising a hydrophobic active ingredient, preferably a perfume; - an aqueous phase; and - a surfactant system comprising: ▪ a non-ionic primary surfactant system; ▪ a first non-ionic co-surfactant system, and ▪ a second non-ionic co-surfactant system; characterized in that: - the non-ionic primary surfactant system comprises at least one ethoxylated alcohol having between 5 and 19 PEG units; - the first non-ionic co-surfactant system comprises a PEG-modified hydrogenated castor oil having more than 19 PEG units and a polypropoxylated-polyethoxylated alcohol; and - the second non-ionic co-surfactant system is selected from the group consisting of ethoxylated alcohols having more than 19 PEG units, a PEG-modified hydrogenated castor oil having more than 19 PEG and mixtures thereof, and - wherein the surfactant system is free from a cationic surfactant and anionic surfactant. ▪ a non-ionic primary surfactant system; ▪ a first non-ionic co-surfactant system, and ▪ a second non-ionic co-surfactant system; - the non-ionic primary surfactant system comprises at least one ethoxylated alcohol having between 5 and 19 PEG units; - the first non-ionic co-surfactant system comprises a PEG-modified hydrogenated castor oil having more than 19 PEG units and a polypropoxylated-polyethoxylated alcohol; and - the second non-ionic co-surfactant system is selected from the group consisting of ethoxylated alcohols having more than 19 PEG units, a PEG-modified hydrogenated castor oil having more than 19 PEG and mixtures thereof, and - wherein the surfactant system is free from a cationic surfactant and anionic surfactant.
A transceiver (1, 101, 201) for a phased array antenna, comprising: a laser light source arranged to provide an optical spectrum comprising a plurality of spaced wavelengths, a dispersion unit (8, 108a, 108b) arranged to introduce a delay to a plurality of spectral components of the optical spectrum associated with the spaced wavelengths, wherein the delay is dependent on the wavelength of the spectral components of the optical spectrum, a first optical filter (32, 132a, 132b, 232) configured to select a plurality of spectral components received from the dispersion unit (8, 108a, 108b), a first heterodyning device configured to generate a signal for transmission by the phased array antenna by heterodyning the selected spectral components associated with different ones of the spaced wavelengths of the laser light source, wherein the transceiver (1, 101, 201) is configured to receive signals from the phased array antenna, the transceiver (1, 101, 201) comprising a modulator configured to modulate spaced wavelengths from the said laser light source with the received signals, wherein the spaced wavelengths are associated with the spectral components used to generate the signal for transmission, and a second heterodyning device configured to heterodyne spectral components associated with different ones of the spaced wavelengths of the laser light source. a laser light source arranged to provide an optical spectrum comprising a plurality of spaced wavelengths, a dispersion unit (8, 108a, 108b) arranged to introduce a delay to a plurality of spectral components of the optical spectrum associated with the spaced wavelengths, wherein the delay is dependent on the wavelength of the spectral components of the optical spectrum, a first optical filter (32, 132a, 132b, 232) configured to select a plurality of spectral components received from the dispersion unit (8, 108a, 108b), a first heterodyning device configured to generate a signal for transmission by the phased array antenna by heterodyning the selected spectral components associated with different ones of the spaced wavelengths of the laser light source, wherein the transceiver (1, 101, 201) is configured to receive signals from the phased array antenna, the transceiver (1, 101, 201) comprising a modulator configured to modulate spaced wavelengths from the said laser light source with the received signals, wherein the spaced wavelengths are associated with the spectral components used to generate the signal for transmission, and a second heterodyning device configured to heterodyne spectral components associated with different ones of the spaced wavelengths of the laser light source.
A method for ascertaining and representing the positions of storage bins in a warehouse having a number of predetermined storage bins, employing an industrial truck which has a location system and at least one lateral camera which has its viewing direction oriented transversely to a main direction of travel, said method comprising the following automatically executed steps: • Obtaining image data with the at least one lateral camera; • Obtaining position information about the industrial truck, with the location system; • Determining the positions of individual storage bins in a coordinate system which is fixed in the warehouse, said determinations being based on the image data and the position information; and • Storing the positions which have been determined, in a database, characterized in that the at least one lateral camera is a 3D camera and in that the method comprises the following step: • Performing a first optimization step in which, during a storage or retrieval operation, image data of a storage bin are obtained by a front 3D camera which is directed in the main direction of travel, and, based on these image data, associated position data about the storage bin are determined, wherein the position data about said storage bin which have been previously stored in the database are adjusted or are replaced. • Obtaining image data with the at least one lateral camera; • Obtaining position information about the industrial truck, with the location system; • Determining the positions of individual storage bins in a coordinate system which is fixed in the warehouse, said determinations being based on the image data and the position information; and • Storing the positions which have been determined, in a database, characterized in that the at least one lateral camera is a 3D camera and in that the method comprises the following step: • Performing a first optimization step in which, during a storage or retrieval operation, image data of a storage bin are obtained by a front 3D camera which is directed in the main direction of travel, and, based on these image data, associated position data about the storage bin are determined, wherein the position data about said storage bin which have been previously stored in the database are adjusted or are replaced.
A dielectric material for a capacitor comprising a polymer and particles, and electrons having a debroglie wavelength, said polymer having a crystalline morphology, said particles having a relative permittivity higher than that of the polymer and the diameter of said particles being in the nanometre range, characterised in that said particles are homogenously dispersed within the polymer, and the diameter of each of the particles is below the de Broglie wavelength of the electrons in the polymer corresponding to a field strength of 1.00×10 8 V/m at a temperature of 20 degrees Celsius.
A device for collecting a target analyte from a body of liquid, the device comprising - an inlet for introducing liquid from the body of liquid into the device and an outlet for removing liquid from the device, - a diffusion module connected to the inlet and to the outlet and further comprising at least one cell for collecting the target analyte from liquid flowing between the inlet and the outlet, and - a flow meter adapted to measure the flux of liquid within the device, wherein the device further comprises a communication module comprising an input for receiving signals from the flow meter and a transmitter for transmitting the signals received from the input to an external unit, for monitoring the flux of liquid through the diffusion module, further comprising at least one further sensor for measuring physicochemical parameters of the liquid, characterized in that the device is further adapted for changing the flow rate data acquisition for optimizing flow data per unit of time as a response to the measurement of the at least one further sensor. - an inlet for introducing liquid from the body of liquid into the device and an outlet for removing liquid from the device, - a diffusion module connected to the inlet and to the outlet and further comprising at least one cell for collecting the target analyte from liquid flowing between the inlet and the outlet, and - a flow meter adapted to measure the flux of liquid within the device, wherein the device further comprises a communication module comprising an input for receiving signals from the flow meter and a transmitter for transmitting the signals received from the input to an external unit, for monitoring the flux of liquid through the diffusion module, further comprising at least one further sensor for measuring physicochemical parameters of the liquid, characterized in that the device is further adapted for changing the flow rate data acquisition for optimizing flow data per unit of time as a response to the measurement of the at least one further sensor.
Steering shaft for a motor vehicle, with an outer shaft part, in which an inner shaft part is received in a torque-transmitting manner and such that it can be displaced axially, with at least one axial inner stop (17, 18) which projects radially to the outside from the outer side of the inner shaft part and, when the inner shaft part is pulled out of the outer shaft part, bears against at least one axial outer stop (20 to 27, 43, 44) which projects radially to the inside from the inner side of the outer shaft part, with the result that the axial displacement travel of the inner shaft part in the outer shaft part is limited in the pull-out direction, the at least one outer stop (20 to 27, 43, 44) being made in an end section of the outer shaft part by way of at least one reshaping process, the axis of the making direction forming an angle of more than 20° in each case with the radial direction of the outer shaft part, characterized in that the outer stops (20, 21) are made in the outer circumference of the outer shaft part in each case by way of two reshaping processes at two adjacent points (34, 35), the axes of the making directions lying in a plane which is orthogonal with respect to the rotational axis of the outer shaft part, and intersecting at a point which is arranged radially between the rotational axis and the outer circumference of the outer shaft part.
An adjustment device for mounting a glazing on an opening of the body of a vehicle, including at least one foot intended to be mounted on a seal, and a connecting portion connecting the foot to at least one head, the head having a face intended to rest against the opening of the body, the device being designed such that under the effect of a mechanical stress applied to the device during the mounting of the glazing, the head can pivot about a pivoting axis so as to limit the mechanical stresses exerted on the seal, the connecting portion having, at least locally, a thickness less than or equal to the smallest thickness of the head, and this adjustment device being characterized in that said thicknesses are measured in directions perpendicular to a longitudinal plane of the device and the thickness of the head increases from the connecting portion towards the face intended to rest against the opening of the body.
A foam-forming composition comprising: a) at least one polyol; b) at least one isocyanate; c) a catalyst composition comprising a copper compound dissolved in a solvent, wherein the solvent is a dialkyl sulfoxide; and d) at least one surfactant. a) at least one polyol; b) at least one isocyanate; c) a catalyst composition comprising a copper compound dissolved in a solvent, wherein the solvent is a dialkyl sulfoxide; and d) at least one surfactant.
An electronic device with a camera anti-peeping structure, comprising: a main body; a camera, disposed in the main body; and an anti-peeping structure, disposed at a side of the camera and comprising: a mounting member, disposed on the main body and comprising a groove; a sliding member, slidably disposed in the groove and movable between a first position and a second position, wherein the sliding member comprises a first magnet (321, 321a); and an anti-peeping piece, having a first end and a second end opposite to each other and comprising a second magnet (333, 333a) disposed at the first end, wherein the first end is pivotally connected to the mounting member, and the second end is adapted to pivot based on the first end as an axis to cover or expose the camera, wherein when the sliding member moves to the first position, the first magnet (321, 321a) attracts the second magnet (333, 333a) such that the second end of the anti-peeping piece pivots toward the sliding member to expose the camera, and when the sliding member moves to the second position, the first magnet (321, 321a) repels the second magnet (333, 333a) such that the second end of the anti-peeping piece pivots away from the sliding member to cover the camera. a main body; a camera, disposed in the main body; and an anti-peeping structure, disposed at a side of the camera and comprising: a mounting member, disposed on the main body and comprising a groove; a sliding member, slidably disposed in the groove and movable between a first position and a second position, wherein the sliding member comprises a first magnet (321, 321a); and an anti-peeping piece, having a first end and a second end opposite to each other and comprising a second magnet (333, 333a) disposed at the first end, wherein the first end is pivotally connected to the mounting member, and the second end is adapted to pivot based on the first end as an axis to cover or expose the camera, wherein a mounting member, disposed on the main body and comprising a groove; a sliding member, slidably disposed in the groove and movable between a first position and a second position, wherein the sliding member comprises a first magnet (321, 321a); and an anti-peeping piece, having a first end and a second end opposite to each other and comprising a second magnet (333, 333a) disposed at the first end, wherein the first end is pivotally connected to the mounting member, and the second end is adapted to pivot based on the first end as an axis to cover or expose the camera, wherein when the sliding member moves to the first position, the first magnet (321, 321a) attracts the second magnet (333, 333a) such that the second end of the anti-peeping piece pivots toward the sliding member to expose the camera, and when the sliding member moves to the second position, the first magnet (321, 321a) repels the second magnet (333, 333a) such that the second end of the anti-peeping piece pivots away from the sliding member to cover the camera.