mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a gas turbine engine comprising monitoring a performance parameter at a predetermined power setting for the engine as a determinant of engine efficiency, the method characterized in that a value for the engine performance parameter is adjusted for operational deterioration in the performance parameter, the value for the change in the parameter is given by a relationship:- S = a × change in the parameter at core constant pressure ratio + b × change in the parameter at by − pass pressure ratio; whereby a and b are constants determined for a specific engine type by analysis through a computer model of the specific engine with the steps of:- a) Determination of engine performance parameter values using a computer model with deterioration assumed only in the low pressure system for the engine to provide a low data set; b) Determination of engine performance parameter values using a computer model with deterioration assumed only in the core pressure system for the engine to provide a core data set; c) Determination of engine performance parameter values using a computer model with deterioration assumed in all pressure systems for the engine to provide a combined data set; d) Scaling the low data set, the core data set and the combined data set to an equivalent of a predetermined value of deterioration in the value of S and plotting a relational variation (30, 31) for the relative changes in parameters due to the low pressure system and the core pressure system; e) Comparing the relative changes in the parameters due to the low pressure system and the core pressure system as solutions for the constants a, b in the relationship above through use of simultaneous equation analysis and solution of the respective relational variations thereby determining engine and/or aircraft deterioration and subsequently f) adjusting thrust settings of the engine. a) Determination of engine performance parameter values using a computer model with deterioration assumed only in the low pressure system for the engine to provide a low data set; b) Determination of engine performance parameter values using a computer model with deterioration assumed only in the core pressure system for the engine to provide a core data set; c) Determination of engine performance parameter values using a computer model with deterioration assumed in all pressure systems for the engine to provide a combined data set; d) Scaling the low data set, the core data set and the combined data set to an equivalent of a predetermined value of deterioration in the value of S and plotting a relational variation (30, 31) for the relative changes in parameters due to the low pressure system and the core pressure system; e) Comparing the relative changes in the parameters due to the low pressure system and the core pressure system as solutions for the constants a, b in the relationship above through use of simultaneous equation analysis and solution of the respective relational variations thereby determining engine and/or aircraft deterioration and subsequently f) adjusting thrust settings of the engine.
An aerosol-generating system, comprising: a reservoir holding an aerosol-generating substrate in condensed form; a housing comprising an air inlet, an air outlet, an airflow passage extending therebetween, and a chamber; a liquid-permeable heating element extending generally parallel to the airflow passage, one side of the heating element being in fluidic communication with the reservoir and an opposite side of the heating element being in fluidic communication with the chamber, the heating element configured to heat the aerosol-generating substrate in condensed form to generate a vapour within the chamber; and a gas-permeable element extending generally parallel to the airflow passage, one side of the gas-permeable element being in fluidic communication with the chamber and an opposite side of the gas-permeable element being in fluidic communication with the airflow passage, wherein the gas-permeable element is configured to allow transport of the vapour into the airflow passage and is configured to inhibit transport of the condensed form of the aerosol-generating substrate into the airflow passage, wherein the vapour at least partially condenses into an aerosol within the airflow passage. a reservoir holding an aerosol-generating substrate in condensed form; a housing comprising an air inlet, an air outlet, an airflow passage extending therebetween, and a chamber; a liquid-permeable heating element extending generally parallel to the airflow passage, one side of the heating element being in fluidic communication with the reservoir and an opposite side of the heating element being in fluidic communication with the chamber, the heating element configured to heat the aerosol-generating substrate in condensed form to generate a vapour within the chamber; and a gas-permeable element extending generally parallel to the airflow passage, one side of the gas-permeable element being in fluidic communication with the chamber and an opposite side of the gas-permeable element being in fluidic communication with the airflow passage, wherein the gas-permeable element is configured to allow transport of the vapour into the airflow passage and is configured to inhibit transport of the condensed form of the aerosol-generating substrate into the airflow passage, wherein the vapour at least partially condenses into an aerosol within the airflow passage.
A method performed at a network node comprising: receiving an indication of channel conditions from each of a plurality of user equipment; encoding a plurality of signals destined for a plurality of user equipment using a plurality of finite field linear encoders to form a plurality of lattice code signals; weighting each of said plurality of lattice codes by multiplying said lattice code signals by respective weighting coefficients, each weighting coefficient being formed from a product of distinct primes, each weighting coefficient being formed by excluding a different one of said distinct primes from said product, said weighting coefficients being selected in dependence upon said detected channel conditions, signals to be transmitted to said user equipment with poorer channel conditions being multiplied by higher value weighting coefficients; and combining said plurality of weighted lattice code signals to form a signal having a lattice code construction and outputting said signal. receiving an indication of channel conditions from each of a plurality of user equipment; encoding a plurality of signals destined for a plurality of user equipment using a plurality of finite field linear encoders to form a plurality of lattice code signals; weighting each of said plurality of lattice codes by multiplying said lattice code signals by respective weighting coefficients, each weighting coefficient being formed from a product of distinct primes, each weighting coefficient being formed by excluding a different one of said distinct primes from said product, said weighting coefficients being selected in dependence upon said detected channel conditions, signals to be transmitted to said user equipment with poorer channel conditions being multiplied by higher value weighting coefficients; and combining said plurality of weighted lattice code signals to form a signal having a lattice code construction and outputting said signal.
RFID system comprising at least one RFID reader unit and a device (1, 11, 102), in which the at least one RFID reader unit has an unbalanced antenna output, - the at least one RFID reader unit being arrangeable on the device (1, 11, 102) for arrangement on a hand, - and the device (1, 11, 102) for arrangement on a hand being in the form of a glove (1, 11) with or without fingers or in the form of a strap, characterised in that - the RFID system comprises a capacitive near-field coupling unit, which has a balun for balancing an unbalanced signal, and comprises at least one electrically conductive line (4, 5) of the near-field coupling unit in order to create a field for coupling to a transponder, - and in that the at least one electrically conductive line (4, 5) of the near-field coupling unit is in the form of a non-performance-adapted electrically conductive line (4, 5), - and in that the at least one electrically conductive line (4, 5) is arranged in or on the glove (1, 11) or in or on the strap. - the at least one RFID reader unit being arrangeable on the device (1, 11, 102) for arrangement on a hand, - and the device (1, 11, 102) for arrangement on a hand being in the form of a glove (1, 11) with or without fingers or in the form of a strap, - the RFID system comprises a capacitive near-field coupling unit, which has a balun for balancing an unbalanced signal, and comprises at least one electrically conductive line (4, 5) of the near-field coupling unit in order to create a field for coupling to a transponder, - and in that the at least one electrically conductive line (4, 5) of the near-field coupling unit is in the form of a non-performance-adapted electrically conductive line (4, 5), - and in that the at least one electrically conductive line (4, 5) is arranged in or on the glove (1, 11) or in or on the strap.
A method of producing a moulded product including the steps of supplying fibre to a robot delivery head, cutting/shearing the supplied fibres in lengths, delivering the pre-defined shortened lengths of fibre to a moulding tool using air jets emanating from four air jet apertures (20, 21) extending through a wall of a housing, the four air jet apertures being arranged into two pairs disposed respectively in upper and lower parts of the housing, wherein the second pair is disposed at a lower level in the housing than the first pair, to rotate and align the lengths of fibre to the direction of and within an outlet slot defined between parallel walls (2,3) of the delivery head such that the lengths of fibre are delivered aligned in a desired direction to the moulding tool to form each of a required number of layers to establish the designed thickness and strength, applying resin to the lengths of fibre and curing the resin to form the product.
A computer implemented method of visualizing intravascular information obtained using an intravascular data collection probe, the method comprising the steps of: receiving intravascular data for a blood vessel, the data comprising a plurality of image frames; storing the intravascular data in a memory device of an intravascular data collection system; detecting one or more side branches on a per image frame basis; detecting a lumen boundary on a per image frame basis; estimating side branch orientation by fitting a model constrained by a side branch arc; determining a first viewing angle for display of at least one of the side branch or lumen based on the estimated side branch orientation; and displaying a three-dimensional visualization for at least one of the side branch or lumen, wherein the three-dimensional visualization is oriented based on the first viewing angle. receiving intravascular data for a blood vessel, the data comprising a plurality of image frames; storing the intravascular data in a memory device of an intravascular data collection system; detecting one or more side branches on a per image frame basis; detecting a lumen boundary on a per image frame basis; estimating side branch orientation by fitting a model constrained by a side branch arc; determining a first viewing angle for display of at least one of the side branch or lumen based on the estimated side branch orientation; and displaying a three-dimensional visualization for at least one of the side branch or lumen, wherein the three-dimensional visualization is oriented based on the first viewing angle.
Filling head with a container, in particular a large-volume container, for receiving pressurised drinks, preferably a keg, wherein the filling head comprises a first channel, e.g. a product channel, and a second channel, e.g. a gas channel, and with a pusher that can be moved inside the filling head and that defines separate flow paths of, on the one hand, a product medium and, on the other, of a gas medium in the inside of the container and, optionally, to the outside of the container, characterised in that the pusher is designed in such a manner that the flow paths are interchangeable, and is designed as a changeover pusher, with an integrated flow path change element.
A use of a metal complex as an emitter, the metal complex including a ligand L 1 having the formula: wherein R 1, R 2, R 3, and R 4 are independently selected from group consisting of alkyl, cycloalkyl, aryl, and heteroaryl; wherein at least one of R 1, R 2, R 3, and R 4 has at least two C; wherein R 5 is selected from group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein the first ligand L 1 is coordinated to a metal M having an atomic number greater than 40. wherein R 1, R 2, R 3, and R 4 are independently selected from group consisting of alkyl, cycloalkyl, aryl, and heteroaryl; wherein at least one of R 1, R 2, R 3, and R 4 has at least two C; wherein R 5 is selected from group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein the first ligand L 1 is coordinated to a metal M having an atomic number greater than 40.
A method for impressing images in a pressed powdery cosmetic material, comprising a step of pressing said powdery cosmetic material obtained by means of a male mould that pushes on said powdery cosmetic material for pressing or packing it, preferably inside a base of a container, during said pressing step an intermediate sheet being provided to be interposed between said male mould and said powdery cosmetic material characterized in that it comprises the step of arranging said intermediate sheet by providing it at least with a profile printed in relief in correspondence with at least one face intended to come into contact with said charge of powdery cosmetic material, said profile being able to impress a desired image in said powdery cosmetic material during said pressing step.
A blood flow restriction training garment comprising an integrated adjustable compression member (104,204) to compress at least one major vein in a user's limb such that blood flow through the at least one major vein is restricted while permitting blood flow through major arteries in the user's limb, wherein either: i) the garment is a top or t-shirt and the integrated compression member is located in a sleeve of the top or t-shirt such that, in use, the integrated compression member is positioned over an upper part of the user's arm proximate to the user's armpit; or ii) the garment is a pair of shorts or a pair of trousers and the integrated compression member is located in the leg of the pair of shorts or pair of trousers such that, in use, the integrated compression member is positioned over an upper part of the user's thigh proximate to the user's groin. i) the garment is a top or t-shirt and the integrated compression member is located in a sleeve of the top or t-shirt such that, in use, the integrated compression member is positioned over an upper part of the user's arm proximate to the user's armpit; or ii) the garment is a pair of shorts or a pair of trousers and the integrated compression member is located in the leg of the pair of shorts or pair of trousers such that, in use, the integrated compression member is positioned over an upper part of the user's thigh proximate to the user's groin.
A device for coupling components, comprising a first element (120,140) having at least one inclined surface; and a second element (120,140) having at least one inclined surface reciprocal to the at least one inclined surface of the first element, wherein an axial movement of at least one of the elements causes a radial force to be applied to at least one of the components, characterized by a liner disposed between the at least one inclined surface of the first element and the at least one inclined surface of the second element, wherein the liner is an anti-friction fabric. a first element (120,140) having at least one inclined surface; and a second element (120,140) having at least one inclined surface reciprocal to the at least one inclined surface of the first element, wherein an axial movement of at least one of the elements causes a radial force to be applied to at least one of the components, characterized by a liner disposed between the at least one inclined surface of the first element and the at least one inclined surface of the second element, wherein the liner is an anti-friction fabric.
An orthogonalization matrix calculation circuit comprising: a scaling coefficient calculation circuit configured to calculate a scaling coefficient for each of a plurality of candidate update operations for an orthogonalization matrix, wherein each scaling coefficient is restricted to having at least one of a zero-valued real part or a zero-valued imaginary part; an update operation selection circuit configured to select an optimum candidate update operation from the plurality of candidate operations, wherein each candidate update operation of the plurality of candidate operations involves linearly combining a candidate updatee column of the orthogonalization matrix according to a numerically scaled candidate updater column of the orthogonalization matrix to update the candidate updatee column; and a matrix update circuit configured to update the orthogonalization matrix according to the scaling coefficient of the optimum candidate update operation. a scaling coefficient calculation circuit configured to calculate a scaling coefficient for each of a plurality of candidate update operations for an orthogonalization matrix, wherein each scaling coefficient is restricted to having at least one of a zero-valued real part or a zero-valued imaginary part; an update operation selection circuit configured to select an optimum candidate update operation from the plurality of candidate operations, wherein each candidate update operation of the plurality of candidate operations involves linearly combining a candidate updatee column of the orthogonalization matrix according to a numerically scaled candidate updater column of the orthogonalization matrix to update the candidate updatee column; and a matrix update circuit configured to update the orthogonalization matrix according to the scaling coefficient of the optimum candidate update operation.
A substrate processing apparatus comprising: a rotating and holding mechanism configured to hold and rotate a substrate; a polishing head configured to press a polishing tool against a peripheral portion of the substrate to polish the peripheral portion of the substrate; and a head cleaning device configured to supply a cleaning liquid to the polishing head to clean the polishing head after polishing of the substrate, and wherein the substrate processing apparatus comprises a tilt mechanism configured to tilt the polishing head, characterized in that the head cleaning device is arranged directly above the polishing head inside a partition wall and the head cleaning device is configured to supply the cleaning liquid to the polishing head when the polishing head is arranged below the substrate by the tilt mechanism. a rotating and holding mechanism configured to hold and rotate a substrate; a polishing head configured to press a polishing tool against a peripheral portion of the substrate to polish the peripheral portion of the substrate; and a head cleaning device configured to supply a cleaning liquid to the polishing head to clean the polishing head after polishing of the substrate, and wherein the substrate processing apparatus comprises a tilt mechanism configured to tilt the polishing head, characterized in that the head cleaning device is arranged directly above the polishing head inside a partition wall and the head cleaning device is configured to supply the cleaning liquid to the polishing head when the polishing head is arranged below the substrate by the tilt mechanism.
Method for testing a motor vehicle telematics device of a mobile radio-assisted motor vehicle emergency call system, comprising the steps of: providing the mobile radio-assisted automatic motor vehicle emergency call system with the motor vehicle telematics device to be tested, which is permanently installed in the vehicle and which automatically discharges an emergency call notification comprising a minimum data set to an emergency call center when a traffic accident is detected; generating a special SMS command using a test device, wherein the special SMS command includes a request to collate and return test information comprising at least some of the minimum data set, wherein the returning of the information is performed using an SMS; establishing a radio connection from the test device to the motor vehicle telematics device to be tested; sending the generated special SMS command by SMS from the test device to the motor vehicle telematics device to be tested via the established radio connection; recording a response signal sent back by the same vehicle telematics device via the established radio connection to the SMS command; evaluating the test information contained in the recorded response signal, wherein the radio connection is a mobile radio connection via a mobile radio network, and wherein the testing of the telematics device to be tested is performed via this mobile radio connection, and wherein the testing of the on-board telematics device to be tested is performed during operation and in the installed state. providing the mobile radio-assisted automatic motor vehicle emergency call system with the motor vehicle telematics device to be tested, which is permanently installed in the vehicle and which automatically discharges an emergency call notification comprising a minimum data set to an emergency call center when a traffic accident is detected; generating a special SMS command using a test device, wherein the special SMS command includes a request to collate and return test information comprising at least some of the minimum data set, wherein the returning of the information is performed using an SMS; establishing a radio connection from the test device to the motor vehicle telematics device to be tested; sending the generated special SMS command by SMS from the test device to the motor vehicle telematics device to be tested via the established radio connection; recording a response signal sent back by the same vehicle telematics device via the established radio connection to the SMS command; evaluating the test information contained in the recorded response signal, wherein the radio connection is a mobile radio connection via a mobile radio network, and wherein the testing of the telematics device to be tested is performed via this mobile radio connection, and wherein the testing of the on-board telematics device to be tested is performed during operation and in the installed state.