mhurhangee/ep-ind-claims huggingface dataset:
A system for decoding an audio signal, the system comprising: a core decoder for decoding a low frequency component of the audio signal; an analysis filter bank for providing a plurality of analysis subband signals of the low frequency component of the audio signal; a subband selection reception unit for receiving information associated with a fundamental frequency Ω of the audio signal, and for selecting, in response to the information, a first and a second analysis subband signal from the plurality of analysis subband signals, from which a synthesis subband signal is generated; a non-linear processing unit to generate the synthesis subband signal with a synthesis frequency, a magnitude and a phase by: determining the magnitude of the synthesis subband signal from a geometric mean value of the magnitudes of the first and the second analysis subband signals modified by a gain parameter, and determining the phase of the synthesis subband signal from a weighted sum of the phases of the first and the second analysis subband signals; and a synthesis filter bank for generating a high frequency component of the audio signal from the synthesis subband signal; wherein the information associated with a fundamental frequency Ω of the audio signal is received in an encoded bit stream. a core decoder for decoding a low frequency component of the audio signal; an analysis filter bank for providing a plurality of analysis subband signals of the low frequency component of the audio signal; a subband selection reception unit for receiving information associated with a fundamental frequency Ω of the audio signal, and for selecting, in response to the information, a first and a second analysis subband signal from the plurality of analysis subband signals, from which a synthesis subband signal is generated; a non-linear processing unit to generate the synthesis subband signal with a synthesis frequency, a magnitude and a phase by: determining the magnitude of the synthesis subband signal from a geometric mean value of the magnitudes of the first and the second analysis subband signals modified by a gain parameter, and determining the phase of the synthesis subband signal from a weighted sum of the phases of the first and the second analysis subband signals; and determining the magnitude of the synthesis subband signal from a geometric mean value of the magnitudes of the first and the second analysis subband signals modified by a gain parameter, and determining the phase of the synthesis subband signal from a weighted sum of the phases of the first and the second analysis subband signals; and a synthesis filter bank for generating a high frequency component of the audio signal from the synthesis subband signal; wherein the information associated with a fundamental frequency Ω of the audio signal is received in an encoded bit stream.
A method for risk assessment, diagnosis, early diagnosis or pathological staging of coronary heart disease, comprising a step of determining content of each biomarker of a biomarker composition in a urine sample of a subject; wherein, the biomarker composition comprises at least Biomarkers 1 to 3 of the following Biomarkers 1 to 8: Biomarker 1, which has a mass-to-charge ratio of 356.07 ± 0.4amu, and a retention time of 606.57 ± 60s; Biomarker 2, which has a mass-to-charge ratio of 284.18 ± 0.4amu, and a retention time of 538.89 ± 60s; Biomarker 3, which has a mass-to-charge ratio of 445.06 ± 0.4amu, and a retention time of 494.89 ± 60s; Biomarker 4, which has a mass-to-charge ratio of 268.19 ± 0.4amu, and a retention time of 589.52 ± 60s; Biomarker 5, which has a mass-to-charge ratio of 342.03 ± 0.4amu, and a retention time of 625.52 ± 60s; Biomarker 6, which has a mass-to-charge ratio of 324.0459 ± 0.4amu, and a retention time of 612.39 ± 60s; Biomarker 7, which has a mass-to-charge ratio of 324.0457 ± 0.4amu, and a retention time of 652.06 ± 60s; and Biomarker 8, which has a mass-to-charge ratio of 307.02 ± 0.4amu, and a retention time of 607.78 ± 60s; wherein a liquid chromatography-mass spectrometry method is used for determining content of each biomarker of the biomarker composition in a urine sample of a subject; wherein a C18 column and an elution solvent of 0.1% (v/v) formic acid in acetonitrile solution s used in the liquid chromatography-mass spectrometry method; wherein chromatographic conditions are as follows: Column: C18 column; mobile phase A: 0.1% formic acid aqueous solution, mobile phase B: 0.1% formic acid in acetonitrile solution; gradient elution program: 0 ∼ 3 min, 5% B, 3 ∼ 36 min, 5% ∼ 80% B, 36 ∼ 40 min, 80% ∼ 100% B, 40 ∼ 45 min, 100% B, 45 ∼ 50 min, 100% ∼ 5% B, 50 ∼ 60 min, 5% B; flow rate: 0.2 mL / min; injection volume: 20 μL. Biomarker 1, which has a mass-to-charge ratio of 356.07 ± 0.4amu, and a retention time of 606.57 ± 60s; Biomarker 2, which has a mass-to-charge ratio of 284.18 ± 0.4amu, and a retention time of 538.89 ± 60s; Biomarker 3, which has a mass-to-charge ratio of 445.06 ± 0.4amu, and a retention time of 494.89 ± 60s; Biomarker 4, which has a mass-to-charge ratio of 268.19 ± 0.4amu, and a retention time of 589.52 ± 60s; Biomarker 5, which has a mass-to-charge ratio of 342.03 ± 0.4amu, and a retention time of 625.52 ± 60s; Biomarker 6, which has a mass-to-charge ratio of 324.0459 ± 0.4amu, and a retention time of 612.39 ± 60s; Biomarker 7, which has a mass-to-charge ratio of 324.0457 ± 0.4amu, and a retention time of 652.06 ± 60s; and Biomarker 8, which has a mass-to-charge ratio of 307.02 ± 0.4amu, and a retention time of 607.78 ± 60s;
A method for producing a metal M or metal alloy M x N y, of interest, by molten salt electrolysis carried out in an electrolytic cell provided both with an anode and a cathode, characterized by: providing an electrolysis cell having a molten salt electrolyte of an alkali-metal or alkaline-earth metal halide AX or AX 2, an anode formed of an oxide of the metal of interest and carbon, and a cathode; electrolyzing the molten salt electrolytic in the electrolysis cell to discharge the alkali or alkaline-earth metal A, at the cathode, and to discharge nascent chlorine gas at the anode; wherein the nascent chlorine discharged at the anode is reacted with a composite of an oxide of the metal of interest and carbon to produce a halide of the metal of interest MX n and/or NX n; and metallothermically reducing the metal halide MX n and/or NX n either separately or combined, with the alkali or alkaline-earth metal A, obtained cathodically to produce the metal M, or metal alloy M x N y of interest, in particulate form. providing an electrolysis cell having a molten salt electrolyte of an alkali-metal or alkaline-earth metal halide AX or AX 2, an anode formed of an oxide of the metal of interest and carbon, and a cathode; electrolyzing the molten salt electrolytic in the electrolysis cell to discharge the alkali or alkaline-earth metal A, at the cathode, and to discharge nascent chlorine gas at the anode; wherein the nascent chlorine discharged at the anode is reacted with a composite of an oxide of the metal of interest and carbon to produce a halide of the metal of interest MX n and/or NX n; and metallothermically reducing the metal halide MX n and/or NX n either separately or combined, with the alkali or alkaline-earth metal A, obtained cathodically to produce the metal M, or metal alloy M x N y of interest, in particulate form.
A resin composition containing an olefin-based resin and a copolymer of a conjugated diene compound and a non-conjugated olefin, wherein the copolymer is a block copolymer, wherein in the copolymer, the proportion of the conjugated diene is from 30 % by mole to 80 % by mole, and wherein the content of the copolymer is from 5 to 80 parts by mass based on 100 parts by mass of the olefin-based resin.
A body movement detecting apparatus (10, 20) comprising: a time-frequency converting unit configured to convert an input acoustic signal to frequency component spectra; an electric power difference computing unit (103, 203) configured to compute an electric power difference value, between frequency component spectra taken at different times, for each of a plurality of predetermined frequency bandwidths; a duration computing unit; a similarity value computing unit (106, 201); and a body movement detecting unit (107, 202), characterized in that the duration computing unit is configured to compute a duration in which a number of the predetermined frequency bandwidths each exhibiting the electric power difference value less than a first threshold; the similarity value computing unlit (106, 201) is configured to compute a similarity value indicating similarity of the electric power difference value of each of the predetermined frequency bandwidths; the body movement detecting unit (107, 202) is configured to detect that a body movement is present when the computed duration is equal to or greater than a second threshold and the computed similarity value is equal to or greater than a third threshold. a time-frequency converting unit configured to convert an input acoustic signal to frequency component spectra; an electric power difference computing unit (103, 203) configured to compute an electric power difference value, between frequency component spectra taken at different times, for each of a plurality of predetermined frequency bandwidths; a duration computing unit; a similarity value computing unit (106, 201); and a body movement detecting unit (107, 202), characterized in that the duration computing unit is configured to compute a duration in which a number of the predetermined frequency bandwidths each exhibiting the electric power difference value less than a first threshold; the similarity value computing unlit (106, 201) is configured to compute a similarity value indicating similarity of the electric power difference value of each of the predetermined frequency bandwidths; the body movement detecting unit (107, 202) is configured to detect that a body movement is present when the computed duration is equal to or greater than a second threshold and the computed similarity value is equal to or greater than a third threshold.
Operating method for a granulated-fuel heating device comprising at least one reservoir chamber for the granulated fuel and comprising a flame chamber adjacent to the reservoir chamber, comprising the following method steps: - preparation phase: the reservoir chamber (10, 45, 46, 52, 53, 54, 55) is filled with the granulated fuel; - combustion phase: the reserved granulated fuel is ignited in that a combustion aid for the granulated fuel is added to the reservoir chamber (10, 45, 46, 52, 53, 54, 55) while primary air is supplied to the reservoir chamber (10, 45, 46, 52, 53, 54, 55); characterised by: - first thermal exploitation phase: after the granulated fuel is ignited by means of the combustion aid, the primary air supply is interrupted, the granulated fuel being converted into a granular intermediate substance, with release of gases, as a result of process heat, and the released gases reaching the flame chamber, where they combust when secondary air is added, via a through-opening (14, 49, 51) connecting the reservoir chamber (10, 45, 46, 52,2 53, 54, 55) to the flame chamber; and - second thermal exploitation phase: after granulated fuel is converted into the granular intermediate substance, the granular intermediate substance is combusted in the reservoir chamber (10, 45, 46, 52, 53, 54, 55) while primary air is added. - preparation phase: the reservoir chamber (10, 45, 46, 52, 53, 54, 55) is filled with the granulated fuel; - combustion phase: the reserved granulated fuel is ignited in that a combustion aid for the granulated fuel is added to the reservoir chamber (10, 45, 46, 52, 53, 54, 55) while primary air is supplied to the reservoir chamber (10, 45, 46, 52, 53, 54, 55); - first thermal exploitation phase: after the granulated fuel is ignited by means of the combustion aid, the primary air supply is interrupted, the granulated fuel being converted into a granular intermediate substance, with release of gases, as a result of process heat, and the released gases reaching the flame chamber, where they combust when secondary air is added, via a through-opening (14, 49, 51) connecting the reservoir chamber (10, 45, 46, 52,2 53, 54, 55) to the flame chamber; and - second thermal exploitation phase: after granulated fuel is converted into the granular intermediate substance, the granular intermediate substance is combusted in the reservoir chamber (10, 45, 46, 52, 53, 54, 55) while primary air is added.
A method for determining the number of stitches for a knitted article when converting pattern data of the knitted article into the number of stitches to be knitted using a flat knitting machine, the method being characterized by comprising: a knitting step of knitting a plurality of samples (12, 13, 14), being different in the number of needles, by using the flat knitting machine; a measuring step of measuring the size of stitches of each sample (12, 13, 14) in at least a height direction; a step of obtaining a relationship between the number of needles of each sample (12, 13, 14) and the size of the stitches thereof in the height direction; and a stitch number determination step of determining the number of knitting courses for a target height in the pattern data, on the basis of the obtained relationship between the number of needles of each sample (12, 13, 14) and the size of the stitches thereof in the height direction, as well as a target width in the pattern data. a knitting step of knitting a plurality of samples (12, 13, 14), being different in the number of needles, by using the flat knitting machine; a measuring step of measuring the size of stitches of each sample (12, 13, 14) in at least a height direction; a step of obtaining a relationship between the number of needles of each sample (12, 13, 14) and the size of the stitches thereof in the height direction; and a stitch number determination step of determining the number of knitting courses for a target height in the pattern data, on the basis of the obtained relationship between the number of needles of each sample (12, 13, 14) and the size of the stitches thereof in the height direction, as well as a target width in the pattern data.
A spark plug comprising: a tubular metallic shell and a ground electrode resistance-welded at a proximal end portion to the metallic shell; the ground electrode being formed from a metal material which contains Ni as main component and in which precipitates containing at least one of an oxide, a carbide, a nitride, and an intermetallic compound are precipitated in grain boundaries; the spark plug being characterized in that when a portion of the ground electrode ranging within 100 μm from a weld boundary between the metallic shell and the ground electrode is defined as a heat-affected zone, and a distal end portion of the ground electrode defined as a normal zone, when the diameter of an inscribed circle of a precipitate is defined as the diameter of a circle having the same area as the sectional area of said precipitate, an area occupied by the precipitates on a section of the heat-affected zone is equal to 65% or more of an area occupied by the precipitates on a section of the normal zone, and as viewed on the section of the heat-affected zone, the diameter of an inscribed circle of a precipitate having the greatest area among the precipitates is 50 μm or less, and the shortest distance between the precipitates is 2 μm or greater. a tubular metallic shell and a ground electrode resistance-welded at a proximal end portion to the metallic shell; the ground electrode being formed from a metal material which contains Ni as main component and in which precipitates containing at least one of an oxide, a carbide, a nitride, and an intermetallic compound are precipitated in grain boundaries; the spark plug being characterized in that when a portion of the ground electrode ranging within 100 μm from a weld boundary between the metallic shell and the ground electrode is defined as a heat-affected zone, and a distal end portion of the ground electrode defined as a normal zone, when the diameter of an inscribed circle of a precipitate is defined as the diameter of a circle having the same area as the sectional area of said precipitate, an area occupied by the precipitates on a section of the heat-affected zone is equal to 65% or more of an area occupied by the precipitates on a section of the normal zone, and as viewed on the section of the heat-affected zone, the diameter of an inscribed circle of a precipitate having the greatest area among the precipitates is 50 μm or less, and the shortest distance between the precipitates is 2 μm or greater.
A method of balancing a rotor of a vacuum pump, in particular of a turbomolecular pump, or a rotor of a rotation unit for a vacuum pump, in particular for a turbomolecular pump, wherein the rotor is rotatably supported about an axis of rotation (30, 30') with respect to a stator of the vacuum pump or of the rotation unit by means of at least one magnetic bearing, in particular a permanent magnetic bearing, characterized in that, in the method, an imbalance of the rotor is measured in at least one plane outside the plane of the magnetic bearing and the imbalance is at least approximately eliminated in the plane outside the magnetic bearing plane by removing material from the rotor by means of laser radiation. wherein the rotor is rotatably supported about an axis of rotation (30, 30') with respect to a stator of the vacuum pump or of the rotation unit by means of at least one magnetic bearing, in particular a permanent magnetic bearing, characterized in that, in the method, an imbalance of the rotor is measured in at least one plane outside the plane of the magnetic bearing and the imbalance is at least approximately eliminated in the plane outside the magnetic bearing plane by removing material from the rotor by means of laser radiation.
Method of obtaining and separating valuable metallic elements from low-grade uranium ores and radioactive liquid wastes, characterised by the fact that a liquid-solid suspension is fed into the membrane system with the contactor with helical flow, where the solid is a known sorbent, preferably activated carbon or complexing agent, preferably soluble polymer, specifically polyacrylic acid.
A method for transmitting uplink, UL, data by a user equipment, UE, in a wireless communication system, the method comprising: based on the UE transmitting the UL data on a first UL resource of a configured grant, CG, configuration based on a Hybrid-ARQ, HARQ, process, starting a CG retransmission timer for the HARQ process and a CG timer for the HARQ process, wherein while the CG retransmission timer is running, performing retransmission of the UL data based on the HARQ process is prohibited, and wherein while the CG timer is running, performing new transmission of UL data based on the HARQ process is prohibited; based on a second UL resource of the CG configuration not being configured between an expiration time point of the CG retransmission timer and an expected expiration time point of the CG timer, stopping the CG timer upon expiration of the CG retransmission timer; and performing retransmission of the UL data based on the HARQ process after the expected expiration time point of the CG timer. based on the UE transmitting the UL data on a first UL resource of a configured grant, CG, configuration based on a Hybrid-ARQ, HARQ, process, starting a CG retransmission timer for the HARQ process and a CG timer for the HARQ process, wherein while the CG retransmission timer is running, performing retransmission of the UL data based on the HARQ process is prohibited, and wherein while the CG timer is running, performing new transmission of UL data based on the HARQ process is prohibited; based on a second UL resource of the CG configuration not being configured between an expiration time point of the CG retransmission timer and an expected expiration time point of the CG timer, stopping the CG timer upon expiration of the CG retransmission timer; and performing retransmission of the UL data based on the HARQ process after the expected expiration time point of the CG timer.
Image capture method using a virtual sensor for tracking a sportsperson or sports equipment moving at high speed along a predetermined course of a scene, implemented in an image capture system comprising a plurality of wide-field image acquisition devices (110, 120, 130, 140, 150, 160, 170, 180, 190, 195) each arranged at a different fixed position along the predetermined course, so that the images captured at a given instant by two different acquisition devices represent different viewpoints of the sportsperson or sports equipment moving over the predetermined course, the method comprising the following steps: - capturing, in real time, images representative of a zone of space substantially equivalent to the predetermined course, by each acquisition device of said plurality; - selecting (420, 430), for each instant of a plurality of successive instants, a given acquisition device and a portion of the image captured by the latter at said instant; and - reconstructing, from the selected image portions, a video sequence similar to that which would have been captured by an acquisition device moving along said course. - capturing, in real time, images representative of a zone of space substantially equivalent to the predetermined course, by each acquisition device of said plurality; - selecting (420, 430), for each instant of a plurality of successive instants, a given acquisition device and a portion of the image captured by the latter at said instant; and - reconstructing, from the selected image portions, a video sequence similar to that which would have been captured by an acquisition device moving along said course.
A ready-to-use pasty grout and/or adhesive composition comprising (a) a particulate component made of fillers and/or pigments, (b) an organic binder comprising - a first film-forming polymer that is an alkyd resin, and - a second film-forming polymer that is different from an alkyd resin, (c) water, wherein the content of the particulate component made of fillers and/or pigments is comprised between 70 and 85%, expressed in dry weight relative to the total weight of the composition. (a) a particulate component made of fillers and/or pigments, (b) an organic binder comprising - a first film-forming polymer that is an alkyd resin, and - a second film-forming polymer that is different from an alkyd resin, - a first film-forming polymer that is an alkyd resin, and - a second film-forming polymer that is different from an alkyd resin, (c) water,