mhurhangee/ep-ind-claims huggingface dataset:
A gypsum-based construction panel, in which at least one of the main surfaces is covered by a metal foil, and said metal foil is perforated, characterized in that said construction panel has an SD value of from 0.7 to 4.5 m.
A roof box for a public transport vehicle, especially a railway vehicle, the box delimiting an inner volume and including: - a case including a set of side walls (40, 41) each extending along a respective extension plane, and - a cover at least partly closing the case, characterised in that the cover includes at least one peripheral skirt located outside the case and defining with at least one said side wall (40, 41) a gutter, the box further comprising a sealant disposed in the gutter. - a case including a set of side walls (40, 41) each extending along a respective extension plane, and - a cover at least partly closing the case, characterised in that the cover includes at least one peripheral skirt located outside the case and defining with at least one said side wall (40, 41) a gutter, the box further comprising a sealant disposed in the gutter.
Apparatus comprising: adapted a transaction response receiver to receive a transaction response for a transaction from one of one or more transaction slaves via interconnect circuitry, said transaction response including payload data and control check data; and control checking circuitry (18, 20) adapted (i) to hold, prior to receipt of said transaction response, expected data corresponding to correct control of transmission of a transaction associated with said transaction response; (ii) to check, following receipt of said transaction response, if said control check data matches said expected data; and (iii) if said control check data does not match said expected data, then to trigger reporting of and action upon a detected error, characterized in that said transaction results in a response sequence comprising a plurality of transaction responses, and said control check data is sequence check data and said control check data matching said expected data corresponds to receipt of an expected next transaction response within said response sequence. adapted a transaction response receiver to receive a transaction response for a transaction from one of one or more transaction slaves via interconnect circuitry, said transaction response including payload data and control check data; and control checking circuitry (18, 20) adapted (i) to hold, prior to receipt of said transaction response, expected data corresponding to correct control of transmission of a transaction associated with said transaction response; (ii) to check, following receipt of said transaction response, if said control check data matches said expected data; and (iii) if said control check data does not match said expected data, then to trigger reporting of and action upon a detected error, characterized in that said transaction results in a response sequence comprising a plurality of transaction responses, and said control check data is sequence check data and said control check data matching said expected data corresponds to receipt of an expected next transaction response within said response sequence. (i) to hold, prior to receipt of said transaction response, expected data corresponding to correct control of transmission of a transaction associated with said transaction response; (ii) to check, following receipt of said transaction response, if said control check data matches said expected data; and (iii) if said control check data does not match said expected data, then to trigger reporting of and action upon a detected error, characterized in that
A device comprising an input configured to receive a sound signal captured from an acoustic environment in which the device is located; a signal processor configured to obtain a reverberation signature from the sound signal and classify the acoustic environment as being of a particular type in dependence on that reverberation signature; and a controller configured to control an operation of the device in dependence on the classification of the acoustic environment characterized in that the signal processor is configured to: transform the sound signal into the frequency domain to obtain a signal spectrum that represents the sound signal as a plurality of spectral components that are each comprised in a respective frequency band of a plurality of frequency bands of the sound signal; identify one or more peaks in the spectral component of each frequency band; calculate a decay rate associated with each identified peak; and obtain the reverberation signature based on the calculated decay rate or decay rates. transform the sound signal into the frequency domain to obtain a signal spectrum that represents the sound signal as a plurality of spectral components that are each comprised in a respective frequency band of a plurality of frequency bands of the sound signal; identify one or more peaks in the spectral component of each frequency band; calculate a decay rate associated with each identified peak; and obtain the reverberation signature based on the calculated decay rate or decay rates.
A method for controlling an uplink signal transmit power at a user equipment UE, the method comprising: receiving, by the UE, a downlink reference signal transmit power associated with a first resource indicator, a downlink reference signal transmit beamforming gain associated with a second resource indicator, an uplink signal receive beamforming gain associated with a third resource indicator, and an uplink signal target receive power associated with a fourth resource indicator; and transmitting, by the UE, an uplink signal associated with a fifth resource indicator to a transmission point TRP with a transmit power calculated based on a combination of power and gain information signaled to the UE by the TRP, wherein the downlink reference signal transmit power associated with the first resource indicator and the downlink reference signal transmit beamforming gain associated with the second resource indicator are signaled together as a single metric associated with a sixth resource indicator. receiving, by the UE, a downlink reference signal transmit power associated with a first resource indicator, a downlink reference signal transmit beamforming gain associated with a second resource indicator, an uplink signal receive beamforming gain associated with a third resource indicator, and an uplink signal target receive power associated with a fourth resource indicator; and transmitting, by the UE, an uplink signal associated with a fifth resource indicator to a transmission point TRP with a transmit power calculated based on a combination of power and gain information signaled to the UE by the TRP, wherein the downlink reference signal transmit power associated with the first resource indicator and the downlink reference signal transmit beamforming gain associated with the second resource indicator are signaled together as a single metric associated with a sixth resource indicator.
A pilot arrangement method in a mobile communication system in which a working band is divided into a plurality of frequency bands in the frequency axis direction, each of which having a predetermined frequency bandwidth, and time division multiplexing is performed by dividing the working band into sub-frames in the time axis direction, the method comprising: inserting a known pilot symbol into some of the plurality of predetermined frequency bands at a predetermined reference frequency interval; and arranging the known pilot symbol into at least one other of the plurality of predetermined frequency bands at a smaller interval than the predetermined reference frequency interval, wherein said at least one other of the plurality of predetermined frequency bands is to be changed between subframes in accordance with a known time cycle. inserting a known pilot symbol into some of the plurality of predetermined frequency bands at a predetermined reference frequency interval; and arranging the known pilot symbol into at least one other of the plurality of predetermined frequency bands at a smaller interval than the predetermined reference frequency interval, wherein said at least one other of the plurality of predetermined frequency bands is to be changed between subframes in accordance with a known time cycle.
A pesticidal composition comprising: (a) a pesticidal effective amount of at least one compound of formula, wherein the compound of formula is selected from: and or an agrochemically acceptable salt thereof; and (b) a plant growth regulator selected from trinexapac ethyl and chlormequat chloride; wherein the ratio of the compound of formula to the plant growth regulator is from 1:10 to 1:20. (a) a pesticidal effective amount of at least one compound of formula, wherein the compound of formula is selected from: and or an agrochemically acceptable salt thereof; and (b) a plant growth regulator selected from trinexapac ethyl and chlormequat chloride;
A method of forming a digital print on a panel comprising a surface, the surface being part of a building panel, such as a floor panel, wherein the method comprises: • displacing the panel under a digital drop application head; • applying a liquid binder with the digital drop application head on the surface; • applying colourants on the liquid binder and the surface, wherein the colourants are macro colourant particles larger than 20 microns; • bonding a part of the colourants to the surface with the liquid binder; • removing non-bonded colourants from the surface such that a digital print is formed by the bonded colourants; and • applying heat and pressure on the panel, the surface and the bonded colorants such that the colourants are permanently bonded to the surface, wherein the colourants are pressed into the surface when heat and pressure are applied on the panel. • displacing the panel under a digital drop application head; • applying a liquid binder with the digital drop application head on the surface; • applying colourants on the liquid binder and the surface, wherein the colourants are macro colourant particles larger than 20 microns; • bonding a part of the colourants to the surface with the liquid binder; • removing non-bonded colourants from the surface such that a digital print is formed by the bonded colourants; and • applying heat and pressure on the panel, the surface and the bonded colorants such that the colourants are permanently bonded to the surface,
A composition comprising (a) an alkenyl silicone, (b) a hydrogen siloxane, (c) optionally a cure inhibitor, and (d) a catalyst, optionally in the presence of a solvent, wherein the catalyst comprises a compound of the formula: wherein R 1 -X 2 - R 2 is a diene that is bonded to platinum in an η 4 -mode and is a branched chain, an unbranched chain, a cyclic system, or a bicyclic system having 4 to 30 carbon atoms; E 1 -X 1 -E 2 is chosen from amidophenolate, phenylenediamide, benzenedithiolate, mercaptophenolate, mercaptoethanolate, pinacolate, ethanediolate, propanediolate, catecholate, substituted catecholate, salicylate, oxalate, or malonate; X 2 is a divalent hydrocarbyl such as substituted or unsubstituted alkylene, arylene, or cycloalkylene group, whereby the bonding olefin moieties are terminal and/or internal and X 2 represents bridges between the olefinic groups; and n is 0, 1, 2, 3, or 4. wherein R 1 -X 2 - R 2 is a diene that is bonded to platinum in an η 4 -mode and is a branched chain, an unbranched chain, a cyclic system, or a bicyclic system having 4 to 30 carbon atoms; E 1 -X 1 -E 2 is chosen from amidophenolate, phenylenediamide, benzenedithiolate, mercaptophenolate, mercaptoethanolate, pinacolate, ethanediolate, propanediolate, catecholate, substituted catecholate, salicylate, oxalate, or malonate; X 2 is a divalent hydrocarbyl such as substituted or unsubstituted alkylene, arylene, or cycloalkylene group, whereby the bonding olefin moieties are terminal and/or internal and X 2 represents bridges between the olefinic groups; and n is 0, 1, 2, 3, or 4.
An actuator for rotating an optical path folding element, OPFE, over a scanning range, comprising: a) an actuated sub-assembly including an optical element holder rigidly coupled to the OPFE at a top side of the optical element holder and having two hinges (114a, 114b) positioned inside and concentric with two respective ball bearings (602a, 602b), the two hinges (114a, 114b) and the two ball-bearings (602a, 602b) lying on a rotation axis that is positioned through a center-of-mass of the actuated sub-assembly; and b) a stationary sub-assembly having a base and two housings (120a, 120b), wherein each housing (120a, 120b) is nested in a respective hinge (114a, 114b), c) a voice coil motor, VCM, including a coil fixedly attached to the base and a permanent magnet fixedly attached to the optical element holder at a bottom side of the optical element holder, wherein the VCM is configured to rotate the OPFE in a scanning range of at least ±8 degrees from an original position of the OPFE with a resolution of at least 0.002 degrees. a) an actuated sub-assembly including an optical element holder rigidly coupled to the OPFE at a top side of the optical element holder and having two hinges (114a, 114b) positioned inside and concentric with two respective ball bearings (602a, 602b), the two hinges (114a, 114b) and the two ball-bearings (602a, 602b) lying on a rotation axis that is positioned through a center-of-mass of the actuated sub-assembly; and b) a stationary sub-assembly having a base and two housings (120a, 120b), wherein each housing (120a, 120b) is nested in a respective hinge (114a, 114b), c) a voice coil motor, VCM, including a coil fixedly attached to the base and a permanent magnet fixedly attached to the optical element holder at a bottom side of the optical element holder,
A self-moving robot system, comprising: a self-moving robot, configured to automatically move and automatically work in a working area; a signal line (60, 1112), comprising an antenna, defining a border of the working area or/and defining a returning path of the self-moving robot; a signal generating device (40, 1111), configured to generate a preset signal suitable to be radiated to a free space in a radio wave manner, the preset signal comprising a modulated signal having a characteristic frequency and a carrier signal having a carrier frequency; a signal detecting device, configured to detect the preset signal existing in the free space in the radio wave manner and recognize the modulated signal by the characteristic frequency, thereby generating a detection result; and a control unit, disposed in the self-moving robot, configured to receive the detection result and to judge a distance between the self-moving robot and the signal line according to the detection result and to control the self-moving robot to move according to the detection result, wherein the signal generating device comprises an electric loop per se, and this electric loop is configured to generate the modulated signal and the carrier signal, one end of the signal line is connected to the signal generating device and the signal line is configured to radiate the preset signal to the free space in the radio wave manner; and the signal line unidirectionally extends from the one end to constitute an open circuit. a self-moving robot, configured to automatically move and automatically work in a working area; a signal line (60, 1112), comprising an antenna, defining a border of the working area or/and defining a returning path of the self-moving robot; a signal generating device (40, 1111), configured to generate a preset signal suitable to be radiated to a free space in a radio wave manner, the preset signal comprising a modulated signal having a characteristic frequency and a carrier signal having a carrier frequency; a signal detecting device, configured to detect the preset signal existing in the free space in the radio wave manner and recognize the modulated signal by the characteristic frequency, thereby generating a detection result; and a control unit, disposed in the self-moving robot, configured to receive the detection result and to judge a distance between the self-moving robot and the signal line according to the detection result and to control the self-moving robot to move according to the detection result, wherein the signal generating device comprises an electric loop per se, and this electric loop is configured to generate the modulated signal and the carrier signal, one end of the signal line is connected to the signal generating device and the signal line is configured to radiate the preset signal to the free space in the radio wave manner; and the signal line unidirectionally extends from the one end to constitute an open circuit.
An apparatus for synchronizing the clock frequencies of a first electronic unit (μC1) arranged on the primary side, and a second electronic unit (μC2) arranged on the secondary side, wherein a clock generator is assigned to the first electronic unit (μC1), said clock generator generating a clock cycle with a reference clock frequency f, wherein a transmission unit (DC/DC) is provided between the first electronic unit (μC1) and the second electronic unit (μC2), wherein a first controller is provided which actuates the transmission unit (DC/DC) with a clock frequency f/n, wherein the clock frequency f/n is a fraction of the reference clock frequency f of the first electronic unit (μC1), wherein a second controller is provided which decouples the clock frequency f/n on the secondary side and uses the decoupled clock frequency f/n to generate a clock frequency for the second electronic unit (μC2) which is synchronous with the reference clock frequency f of the first electronic unit (μC1), wherein a synchronization unit is assigned to the second electronic unit (μC2), said synchronization unit using the decoupled, synchronized clock frequency f/n to generate a second clock frequency m·f/n for the second electronic unit (μC2), said second clock frequency m·f/n being a multiple of the reference clock frequency f of the first electronic unit (μC1), and wherein the transmission unit (DC/DC) is designed to transmit energy from the first electronic unit (μC1) to the second electronic unit (μC1) in one direction, and data between the two electronic units (μC1, μC2) in one or two directions, wherein the transmission unit (DC/DC) provides galvanic isolation. wherein a transmission unit (DC/DC) is provided between the first electronic unit (μC1) and the second electronic unit (μC2), wherein a first controller is provided which actuates the transmission unit (DC/DC) with a clock frequency f/n, wherein the clock frequency f/n is a fraction of the reference clock frequency f of the first electronic unit (μC1), wherein a second controller is provided which decouples the clock frequency f/n on the secondary side and uses the decoupled clock frequency f/n to generate a clock frequency for the second electronic unit (μC2) which is synchronous with the reference clock frequency f of the first electronic unit (μC1), wherein a synchronization unit is assigned to the second electronic unit (μC2), said synchronization unit using the decoupled, synchronized clock frequency f/n to generate a second clock frequency m·f/n for the second electronic unit (μC2), said second clock frequency m·f/n being a multiple of the reference clock frequency f of the first electronic unit (μC1), and wherein the transmission unit (DC/DC) is designed to transmit energy from the first electronic unit (μC1) to the second electronic unit (μC1) in one direction, and data between the two electronic units (μC1, μC2) in one or two directions, wherein the transmission unit (DC/DC) provides galvanic isolation.
Distributor of electrical energy between connectors, comprising: - at least one containment body made of an electrically insulating material comprising at least one input portion connectable to an input connector and a plurality of output portions, each of said output portions being connectable to an output connector; - at least two input poles made of an electrically conductive material arranged at said at least one input portion; - at least two output poles made of an electrically conductive material arranged at each of said output portions; - at least one printed circuit arranged inside said containment body, associated with said input poles and with said output poles and adapted to distribute electrical energy between said input poles and said output poles; wherein said printed circuit comprises at least one electronic component adapted to modulate an input current and a voltage between said input poles and said output poles, allowing said distributor to operate both in alternating current and in direct current. - at least one containment body made of an electrically insulating material comprising at least one input portion connectable to an input connector and a plurality of output portions, each of said output portions being connectable to an output connector; - at least two input poles made of an electrically conductive material arranged at said at least one input portion; - at least two output poles made of an electrically conductive material arranged at each of said output portions; - at least one printed circuit arranged inside said containment body, associated with said input poles and with said output poles and adapted to distribute electrical energy between said input poles and said output poles;
Power management system for a dual travelling wave tube amplifier comprising at least: • two travelling wave tubes (10, 24), each comprising one Anode electrode, • an electronic power conditioner, the power management system being implemented in said electronic power conditioner, comprising two power management means, each one associated with each travelling wave tube (10, 24) and being characterized in that each power management means is configured for setting the Anode voltage of the associated travelling wave tube to a determined non-zero minimum value if a sleep mode is activated, thereby maintaining the associated travelling wave tube (10, 24) operating power at a value below its nominal working range, the Anode voltage being referred to as the electrical potential difference between the Anode electrode and a cathode of the travelling wave tube. • two travelling wave tubes (10, 24), each comprising one Anode electrode, • an electronic power conditioner,