mhurhangee/ep-ind-claims huggingface dataset:
A method for latency compensation in a dynamic system, comprising: receiving at least first parameter data from a first sensor and second parameter data from a second sensor wherein the first sensor corresponds to an inertial measuring system and the second sensor corresponds to a global positioning system based position measuring system; receiving additional parameter data about the dynamic system from at least one additional sensor wherein the additional parameter data includes cross-runway velocity; constructing a model of latency effects on the first parameter data and the second parameter data using the additional parameter data about the dynamic system; using the model of latency effects to compensate for latency-based differences in the first parameter data and the second parameter data by; calculating a latency compensation adjustment parameter for at least one of the first parameter data or the second parameter data wherein the latency compensation adjustment parameter is for cross-runway velocity; and applying the latency compensation adjustment parameter to at least one of the first parameter data or the second parameter data; directing the at least first parameter data and the second parameter data into a combining filter; and determining, in the combining filter, a combined parameter data from the first parameter data and the second parameter data. receiving at least first parameter data from a first sensor and second parameter data from a second sensor wherein the first sensor corresponds to an inertial measuring system and the second sensor corresponds to a global positioning system based position measuring system; receiving additional parameter data about the dynamic system from at least one additional sensor wherein the additional parameter data includes cross-runway velocity; constructing a model of latency effects on the first parameter data and the second parameter data using the additional parameter data about the dynamic system; using the model of latency effects to compensate for latency-based differences in the first parameter data and the second parameter data by; calculating a latency compensation adjustment parameter for at least one of the first parameter data or the second parameter data wherein the latency compensation adjustment parameter is for cross-runway velocity; and applying the latency compensation adjustment parameter to at least one of the first parameter data or the second parameter data; calculating a latency compensation adjustment parameter for at least one of the first parameter data or the second parameter data wherein the latency compensation adjustment parameter is for cross-runway velocity; and applying the latency compensation adjustment parameter to at least one of the first parameter data or the second parameter data; directing the at least first parameter data and the second parameter data into a combining filter; and determining, in the combining filter, a combined parameter data from the first parameter data and the second parameter data.
Hydraulic device for degassing and dewatering a hydraulic oil, comprising: a pressure source, an air source, a flow channel, a nozzle-shaped throttle point; wherein the outlet of the nozzle coincides with the centre axis of the flow channel, wherein hydraulic oil to be degassed flows from the pressure source via the throttle point, wherein the quantity of liquid flowing via the throttle point and the throughflow cross section of the throttle point are coordinated with each other such that a cavitation or supercavitation zone is formed downstream of the throttle point, wherein the device comprises an air path, one end of which is connected to the air source, and the other end of which is situated downstream of the throttle point directly in or at the cavitation or supercavitation zone, with the result that air can be introduced into the hydraulic oil from the outside via the air path.
A heat exchanger comprising: a flow passage for a first fluid; a second fluid flow through portion located at an outer periphery side of the flow passage for the first fluid and serving as a flow passage for a second fluid; and a third fluid flow through portion located at an outer periphery side of the second fluid flow through portion and serving as a flow passage for a third fluid, wherein heat is exchanged among the first fluid, the second fluid, and the third fluid without being mixed with one another, characterized in that a honeycomb structure of which main component is ceramics having a tubular circumferential wall and a partition wall defining and forming a plurality of cells serving as the flow passage for the first fluid; a part of at least one of the outer circumferential wall of the inner casing constituting the second fluid flow through portion and the outer circumferential wall of the outer casing constituting the third fluid flow through portion is in contact with an opposed surface on an inner peripheral side to form a contact portion. a flow passage for a first fluid; a second fluid flow through portion located at an outer periphery side of the flow passage for the first fluid and serving as a flow passage for a second fluid; and a third fluid flow through portion located at an outer periphery side of the second fluid flow through portion and serving as a flow passage for a third fluid, wherein heat is exchanged among the first fluid, the second fluid, and the third fluid without being mixed with one another, characterized in that a honeycomb structure of which main component is ceramics having a tubular circumferential wall and a partition wall defining and forming a plurality of cells serving as the flow passage for the first fluid; a part of at least one of the outer circumferential wall of the inner casing constituting the second fluid flow through portion and the outer circumferential wall of the outer casing constituting the third fluid flow through portion is in contact with an opposed surface on an inner peripheral side to form a contact portion.
Gas wiping device for controlling the thickness of a metallic coating applied on a metal strip by means of hot dip coating comprising a gas feed chamber with a gas inlet and multiple gas outlets, a gas discharge nozzle with an elongated gas discharge slot and wherein the gas outlets of the gas feed chamber are in fluid connection with the gas discharge nozzle, characterised in that the gas discharge nozzle comprises a first and a second plate (20, 21) enclosing a sharp angle, is connected at the outer ends by end plates (22, 23) and is connected at spaced intervals by separator vanes dividing at least part of the gas discharge nozzle in multiple gas discharge channels, wherein the gas discharge channels are in fluid connection with the elongated gas discharge slot and wherein multiple gas feed channels are provided for the fluid connection between the multiple gas outlets of the gas feed chamber and the multiple gas discharge channels of the gas discharge nozzle, wherein each of the multiple gas outlets of the gas feed chamber is in fluid connection with a gas discharge channel of the gas discharge nozzle, and wherein a flow chamber is provided between the outer ends of the gas feed channels and the gas discharge nozzle.
An eye-safe laser sensor comprising: a detector array including at least four subsets (44A, 44B, 44C, 44D), each subset comprising a respective plurality of detector elements fabricated from InGaAs or HgCdTe for detection of eye-safe laser wavelengths; and a readout circuit to generate a first output and a second output, the first output comprising a subset signal (54A, 54B, 54C, 54D) for each subset (44A, 44B, 44C, 44D) that represents total energy received in each subset (44A, 44B, 44C, 44D), the second output comprising a detector signal for each detector element representing energy received by each individual detector element, wherein the first output indicates a region of the detector array in which a laser spot is sensed, and wherein the second output indicates a location of the sensed laser spot within the region. a detector array including at least four subsets (44A, 44B, 44C, 44D), each subset comprising a respective plurality of detector elements fabricated from InGaAs or HgCdTe for detection of eye-safe laser wavelengths; and a readout circuit to generate a first output and a second output, the first output comprising a subset signal (54A, 54B, 54C, 54D) for each subset (44A, 44B, 44C, 44D) that represents total energy received in each subset (44A, 44B, 44C, 44D), the second output comprising a detector signal for each detector element representing energy received by each individual detector element, wherein the first output indicates a region of the detector array in which a laser spot is sensed, and wherein the second output indicates a location of the sensed laser spot within the region.
A carboxylated derivative of a glycosaminoglycan characterized in that said derivative comprises the following structures: wherein R 1 is SO 3 or Ac; R 2 is SO 3 or H; and R 3 is SO 3.
A process for the production of hydrogen, comprising the following steps: (i) recovering methanol from black liquor, and (ii) subjecting the methanol to catalytic reforming to produce hydrogen, wherein the catalytic reforming is performed at a temperature in the range of 800-1300°C. (i) recovering methanol from black liquor, and (ii) subjecting the methanol to catalytic reforming to produce hydrogen,
A method, comprising: obtaining a plurality of qubit parameters and data describing dependencies of the plurality of qubit parameters on one or more other qubit parameters; identifying a qubit parameter; selecting a set of qubit parameters that includes the identified qubit parameter and one or more dependent qubit parameters; processing one or more parameters in the set of qubit parameters in sequence according to the data describing dependencies, comprising, for a parameter in the set of qubit parameters: performing a calibration test on the parameter; and performing a first calibration experiment or a diagnostic calibration algorithm on the parameter when the calibration test fails. obtaining a plurality of qubit parameters and data describing dependencies of the plurality of qubit parameters on one or more other qubit parameters; identifying a qubit parameter; selecting a set of qubit parameters that includes the identified qubit parameter and one or more dependent qubit parameters; processing one or more parameters in the set of qubit parameters in sequence according to the data describing dependencies, comprising, for a parameter in the set of qubit parameters: performing a calibration test on the parameter; and performing a first calibration experiment or a diagnostic calibration algorithm on the parameter when the calibration test fails. performing a calibration test on the parameter; and performing a first calibration experiment or a diagnostic calibration algorithm on the parameter when the calibration test fails.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, a physical downlink control channel, PDCCH, including downlink control information, DCI, for a physical sidelink shared channel, PSSCH, and associated physical sidelink control channel, PSCCH; identifying a value T proc,s associated with a PSSCH preparation time N s; and transmitting the PSSCH and associated PSCCH, in case that a first symbol of the PSSCH and associated PSCCH is no earlier than a symbol, wherein the symbol is defined based on the T proc,s after a last symbol of the PDCCH including the DCI. receiving, from a base station, a physical downlink control channel, PDCCH, including downlink control information, DCI, for a physical sidelink shared channel, PSSCH, and associated physical sidelink control channel, PSCCH; identifying a value T proc,s associated with a PSSCH preparation time N s; and transmitting the PSSCH and associated PSCCH, in case that a first symbol of the PSSCH and associated PSCCH is no earlier than a symbol, wherein the symbol is defined based on the T proc,s after a last symbol of the PDCCH including the DCI.
A heat exchanger comprising: a plurality of stacked, alternating first and second heat exchange plates (114, 116) of inverted U-shaped cross-section, said first and second plates (114, 116) having closed peripheral side walls (142, 154) and open ends (144, 156); the open ends of said first plates being oriented at 90° to the open ends of said second plates; the sidewalls (142, 154) of said first and second plates (114, 116) having end portions (146, 158), the end portions (146, 158) in adjacent first and second plates (114, 116) being aligned to form corners of the heat exchanger; opposed U-shaped bodies having open ends and lateral walls, wherein the lateral walls are joined in a fluid tight manner to the aligned first and second plate sidewall end portions (146, 158); end plates closing the open ends of said U-shaped bodies to form manifolds for the flow of fluid through the plate open ends of said second plates; and said manifolds defining inlet and outlet openings for the flow of fluid into and out of the heat exchanger; wherein said first and second heat exchange plates (114, 116) each have a length corresponding to the distance between the open ends (144, 156) thereof, and a width corresponding to the distance between the closed peripheral side walls (142, 154), characterized by the length of said first plates being greater than the width of said second plates and the length of said second plates being greater than the width of said first plates; and wherein the end portions (146, 158) of said first and second plates (114, 116) form substantially 90° recessed corners of the heat exchanger for receiving said U-shaped bodies, wherein the side walls of said first plates include an offset portion for abutting with the adjacent second plate, the first plates therefore being self-fixturing. a plurality of stacked, alternating first and second heat exchange plates (114, 116) of inverted U-shaped cross-section, said first and second plates (114, 116) having closed peripheral side walls (142, 154) and open ends (144, 156); the open ends of said first plates being oriented at 90° to the open ends of said second plates; the sidewalls (142, 154) of said first and second plates (114, 116) having end portions (146, 158), the end portions (146, 158) in adjacent first and second plates (114, 116) being aligned to form corners of the heat exchanger; opposed U-shaped bodies having open ends and lateral walls, wherein the lateral walls are joined in a fluid tight manner to the aligned first and second plate sidewall end portions (146, 158); end plates closing the open ends of said U-shaped bodies to form manifolds for the flow of fluid through the plate open ends of said second plates; and said manifolds defining inlet and outlet openings for the flow of fluid into and out of the heat exchanger;
A booklet binding machine where each booklet includes a cover that has a front side, a rear side a spine disposed between said front and rear sides (2, 3) and a number of sheets such as sheets of paper enclosed in the cover and glued to the spine thereof, wherein the machine includes - a cassette receiving element (202, 203) which is adapted to receive a cassette pack (1, 101) comprising a cassette and a bundle of booklet covers disposed in the cassette where each booklet cover is provided with fold lines (6, 7) and an activatable adhesive; - an infeed mechanism (204, 206) adapted to feed booklet covers from the cassette to the machine one at a time; - a combining unit adapted to combine a plurality of sheets with an infeed booklet cover; - and an activating unit for activating the adhesive and therewith fastening the sheets to the booklet cover; the cassette receiving element (202,206) is adapted to receive a cassette pack in which the booklet covers are disposed in a bundle of non-folded state in the cassette; and the machine also includes a folding device (211, 212, 213) for folding the booklet covers along two of said fold lines (6, 7), and the folding means (211, 212, 213) is adapted to fold a booklet cover prior to the sheets being combined with the booklet cover such that combination of the sheets with the booklet cover implies that the sheets are inserted into said cover. - a cassette receiving element (202, 203) which is adapted to receive a cassette pack (1, 101) comprising a cassette and a bundle of booklet covers disposed in the cassette where each booklet cover is provided with fold lines (6, 7) and an activatable adhesive; - an infeed mechanism (204, 206) adapted to feed booklet covers from the cassette to the machine one at a time; - a combining unit adapted to combine a plurality of sheets with an infeed booklet cover; - and an activating unit for activating the adhesive and therewith fastening the sheets to the booklet cover; the cassette receiving element (202,206) is adapted to receive a cassette pack in which the booklet covers are disposed in a bundle of non-folded state in the cassette; and the machine also includes a folding device (211, 212, 213) for folding the booklet covers along two of said fold lines (6, 7), and the folding means (211, 212, 213) is adapted to fold a booklet cover prior to the sheets being combined with the booklet cover such that combination of the sheets with the booklet cover implies that the sheets are inserted into said cover.
The module arrangement, wherein the module arrangement comprises at least an antenna layer, a shielding layer, a distribution layer and a component layer, wherein the antenna layer supports an integrated antenna device, wherein the shielding layer is implemented so as to be of a shielding effect relative to electromagnetic signals, wherein the distribution layer comprises structures for distributing signals and/or electrical energy, wherein the component layer supports embedded electronic components (9, 9', 9"), characterized in that holes are arranged in the antenna layer, and wherein the holes are implemented and arranged such that the result is a photonic bandgap structure for filtering surface waves.
A material arrangement for insulating a building structure in an installed condition, the material arrangement including first and second flexible polymer foam layers and a flexible phase change material layer between the first and second flexible polymer foam layers, and at least one flexible reflective layer extending over at least one of the first and second flexible polymer foam layers, characterised in that the phase change material layer includes a fire-retardant flexible silicone foamed polymer material which is impregnated with an encapsulated solid to liquid phase change material.
Method for the preparation of a food grade colouring agent, said method consisting of chopping and drying red cabbage, and optionally grinding the dried red cabbage after the drying.
A variable magnetization machine controller comprising: a hysteresis control component (100, 200, 300, 400, 500) of a controller, characterized in that the hysteresis control component is configured to receive an ideal magnetization state signal, output an actual magnetization signal based on the ideal magnetization state signal for control of a variable magnetization machine, and modify the actual magnetization state signal in accordance with an error value between the ideal magnetization state signal and the actual magnetization state signal, wherein the hysteresis control component comprises a sample and hold component that is configured to output the actual magnetization state signal and to modify the actual magnetization state signal in accordance with the error value, and characterized in that the hysteresis control component (100, 200, 300, 400, 500) comprises a proportional-integral compensator that is configured to receive an error signal representing the error value and remove a steady state error from the error signal so that the hysteresis control component (100, 200, 300, 400, 500) modifies the actual magnetization state signal in accordance with the error value from which the steady state error has been removed. a hysteresis control component (100, 200, 300, 400, 500) of a controller, characterized in that the hysteresis control component is configured to receive an ideal magnetization state signal, output an actual magnetization signal based on the ideal magnetization state signal for control of a variable magnetization machine, and modify the actual magnetization state signal in accordance with an error value between the ideal magnetization state signal and the actual magnetization state signal, wherein the hysteresis control component comprises a sample and hold component that is configured to output the actual magnetization state signal and to modify the actual magnetization state signal in accordance with the error value, and characterized in that the hysteresis control component (100, 200, 300, 400, 500) comprises a proportional-integral compensator that is configured to receive an error signal representing the error value and remove a steady state error from the error signal so that the hysteresis control component (100, 200, 300, 400, 500) modifies the actual magnetization state signal in accordance with the error value from which the steady state error has been removed.
Method for acquiring and displaying at least one video enriched with at least one piece of contextual information, said method comprising a step of acquiring a video by means of one acquisition system among a network of acquisition systems distributed over an external wall of an aeroplane, so as to generate a native video signal, the method comprising: - a step of delivering at least one piece of contextual information by means of a module for delivering at least one piece of contextual information of the acquisition system, or, if the module for delivering at least one piece of contextual information of the acquisition system loses geolocation signals from geolocation satellites or no longer picks up signals from a terrestrial telecommunication network, by means of the module for delivering at least one piece of contextual information of another acquisition system of the network of acquisition systems through a step of exchanging, between the acquisition systems of the network, pieces of contextual information acquired by each thereof, - a step of embedding the contextual information into the video, before any compressing step, so as to obtain an enriched video, - a step of compressing the enriched video so as to generate an enriched video signal, - a step of transmitting the enriched video signal to at least one screen, and - a step of displaying the enriched video on the screen. - a step of delivering at least one piece of contextual information by means of a module for delivering at least one piece of contextual information of the acquisition system, or, if the module for delivering at least one piece of contextual information of the acquisition system loses geolocation signals from geolocation satellites or no longer picks up signals from a terrestrial telecommunication network, by means of the module for delivering at least one piece of contextual information of another acquisition system of the network of acquisition systems through a step of exchanging, between the acquisition systems of the network, pieces of contextual information acquired by each thereof, - a step of embedding the contextual information into the video, before any compressing step, so as to obtain an enriched video, - a step of compressing the enriched video so as to generate an enriched video signal, - a step of transmitting the enriched video signal to at least one screen, and - a step of displaying the enriched video on the screen.