mhurhangee/ep-ind-claims huggingface dataset:
A signal processing method for suppressing a sound source, the method comprising: multiplying at least one of M signals output from M microphones (20a, 20b) by a gain so as to equalize sound pressure levels of the M signals, the M signals representing sounds that arrive at the M microphones (20a, 20b) from the sound source, M being an integer equal to or greater than two; delaying at least one of the M signals so as to resolve time discrepancies between the M signals, the time discrepancies being caused by differences in arrival time between sounds that arrive at the M microphones (20a, 20b) from the sound source; and applying a filter to the M signals that are obtained through the multiplying and the delaying, so as to generate a signal in which a sound output from the sound source is suppressed, wherein the sound source is located within a predetermined distance from a microphone included in the M microphones which is located closest to the sound source, characterized in that the predetermined distance to the sound source from a microphone included in the M microphones (20a, 20b) which is located closest to the sound source is at most three times a longest spatial interval of spatial intervals between the M microphones (20a, 20b). multiplying at least one of M signals output from M microphones (20a, 20b) by a gain so as to equalize sound pressure levels of the M signals, the M signals representing sounds that arrive at the M microphones (20a, 20b) from the sound source, M being an integer equal to or greater than two; delaying at least one of the M signals so as to resolve time discrepancies between the M signals, the time discrepancies being caused by differences in arrival time between sounds that arrive at the M microphones (20a, 20b) from the sound source; and applying a filter to the M signals that are obtained through the multiplying and the delaying, so as to generate a signal in which a sound output from the sound source is suppressed, wherein the sound source is located within a predetermined distance from a microphone included in the M microphones which is located closest to the sound source, characterized in that the predetermined distance to the sound source from a microphone included in the M microphones (20a, 20b) which is located closest to the sound source is at most three times a longest spatial interval of spatial intervals between the M microphones (20a, 20b).
A method for isomerizing a compound comprising: contacting a composition comprising 1,1,3,3-tetrafluoropropene with at least one isomerization catalyst selected from the group consisting of metal halides, halogenated metal oxides, and zero-valent metals or metal alloys, wherein said contacting occurs at a reaction temperature of from 50 to 400 °C such that at least a portion of said 1,1,3,3-tetrafluoropropene is isomerized into 1,3,3,3-tetrafluoropropene. contacting a composition comprising 1,1,3,3-tetrafluoropropene with at least one isomerization catalyst selected from the group consisting of metal halides, halogenated metal oxides, and zero-valent metals or metal alloys, wherein said contacting occurs at a reaction temperature of from 50 to 400 °C such that at least a portion of said 1,1,3,3-tetrafluoropropene is isomerized into 1,3,3,3-tetrafluoropropene.
Method for machining a blank, wherein the blank can be densely sintered with shrinkage following machining and wherein the machining of the blank is carried out in a machining device while taking into consideration an individual scale-up factor relevant to the blank, in order to compensate for the shrinkage during dense sintering, characterized in that in order to determine the individual scale-up factor, a linear length measurement of the blank is carried out in one or more of the dimensions: length, width, and height, wherein the individual scale-up factor is computed from the measured longitudinal dimension (l 0, b 0, h 0 and a pre-known relationship between the longitudinal dimension and the scale-up factor, wherein the type of blank is known, wherein the linear length measurement of the blank is carried out in the machining device by a touch probing operation on the blank by means of a tool (8, 9) or by contactless scanning, wherein in order to determine the scale-up factor, a first longitudinal dimension (l 0 b 0, h 0) in a first dimension (y) is determined and that then if this longitudinal dimension is outside a tolerance range, at least one linear length measurement is carried out in at least one other dimension (x, z), and a scale-up factor is determined.
Portable parking assistance system, which is suitable for being set up and dismantled at a plurality of different locations and which is designed, when set up at a particular location, to control a number of vehicles within a predetermined region of the particular location, having a number of sensors (102A - 102G) which can be arranged in the predetermined region, wherein each of the sensors (102A - 102G) is designed to detect vehicles located in a respective specific detection range (103A - 103G) of the predetermined region and to wirelessly transmit a corresponding sensor signal, and having a control device, which is designed to receive the sensor signals from the sensors (102A - 102G), to determine a respective position of the vehicles on the basis of the received sensor signals, and control each vehicle on the basis of the determined positions of the vehicles and a specified digital map of the predetermined region. a number of sensors (102A - 102G) which can be arranged in the predetermined region, wherein each of the sensors (102A - 102G) is designed to detect vehicles located in a respective specific detection range (103A - 103G) of the predetermined region and to wirelessly transmit a corresponding sensor signal, and having a control device, which is designed to receive the sensor signals from the sensors (102A - 102G), to determine a respective position of the vehicles on the basis of the received sensor signals, and control each vehicle on the basis of the determined positions of the vehicles and a specified digital map of the predetermined region.
Heat exchanger for an internal combustion engine, comprising a base tube (2, 2a), havingan embracing ring (8, 8a), tube plates being provided at the ends of the base tube, wherein the ring is made of sheet metal and in cross-section comprises legs (9, 11a) extending towards each other in a V-shaped manner, the legs (9, 11a) being connected with each other at one end via a bridge, characterized in that the ring is positioned between the tube platesprovided at the ends of the base tube,and the legs (9, 11a) comprise, at the end opposite the bridge,flanges pointing away from one another, wherein a cross-sectional shape of the ring has a contour which follows the contour of the base tube and contacts the surface of the base tube with the flanges.
A hair increasing tool, wherein two large-diameter portions (11, 12) are provided on a line-member having a predetermined length with a certain distance, thereby defining a line-member portion between said two large-diameter portions (11, 12) as a plant-area, and wherein a first false hairs are fixed to a plurality of positions of said plant-area with predetermined interval (s), and tube-members (18, 19) which can be plastically deformed are fixed to the near location of said large-diameter portions (11, 12) on the line-member, characterised in that said tool defines line-member portions located outside said large-diameter portions as assist-areas (16, 17).
A heat shield assembly (100, 100', 200, 200', 300, 300'), comprising: a skin panel; and a stiffener (112, 112', 212, 212', 312, 312'), comprising a base portion (132, 332) and a bead portion (134, 134', 234, 234', 334, 334'), protruding from said base portion (132, 332), wherein said base portion (132, 332) is connected to said skin panel to define a bead volume between said bead portion (134, 134', 234, 234', 334, 334') and said skin panel; and a plurality of frame members, wherein: said skin panel is connected to said plurality of frame members, said skin panel comprises an interior surface and an exterior surface, said plurality of frame members is connected to said interior surface, said base portion (132, 332) of said stiffener (112, 112', 212, 212', 312, 312') is connected to said interior surface, and said stiffener (112, 112', 212, 212', 312, 312') is separate from, but connected to, said skin panel. a skin panel; and a stiffener (112, 112', 212, 212', 312, 312'), comprising a base portion (132, 332) and a bead portion (134, 134', 234, 234', 334, 334'), protruding from said base portion (132, 332), wherein said base portion (132, 332) is connected to said skin panel to define a bead volume between said bead portion (134, 134', 234, 234', 334, 334') and said skin panel; and a plurality of frame members, wherein: said skin panel is connected to said plurality of frame members, said skin panel comprises an interior surface and an exterior surface, said plurality of frame members is connected to said interior surface, said base portion (132, 332) of said stiffener (112, 112', 212, 212', 312, 312') is connected to said interior surface, and said stiffener (112, 112', 212, 212', 312, 312') is separate from, but connected to, said skin panel. said skin panel is connected to said plurality of frame members, said skin panel comprises an interior surface and an exterior surface, said plurality of frame members is connected to said interior surface, said base portion (132, 332) of said stiffener (112, 112', 212, 212', 312, 312') is connected to said interior surface, and said stiffener (112, 112', 212, 212', 312, 312') is separate from, but connected to, said skin panel.
A heterogeneous imaging sensor system, comprising: a multiple-pattern fiducial mark comprising a plurality of patterns detectable by a corresponding number of wavelengths of electromagnetic energy; a first imaging device to sense a first of the plurality of patterns, the first imaging device detecting a first of the number of wavelengths of electromagnetic energy; a second imaging device to sense a second of the plurality of patterns, the second imaging device detecting a second of the number of wavelengths of electromagnetic energy, wherein the first pattern and the second pattern are detected at different wavelengths of electromagnetic energy; characterised in that the system further comprises a weighting module executable by a processing device of the heterogeneous imaging sensor system to weight the influence of the first imaging device and the influence of the second imaging device in detecting the multiple-pattern fiducial mark based on signal strength, positions of the first and second imaging devices, the angles of the first and second imaging devices, a size of detected features, a quantity of detected features, or combinations thereof. a multiple-pattern fiducial mark comprising a plurality of patterns detectable by a corresponding number of wavelengths of electromagnetic energy; a first imaging device to sense a first of the plurality of patterns, the first imaging device detecting a first of the number of wavelengths of electromagnetic energy; a second imaging device to sense a second of the plurality of patterns, the second imaging device detecting a second of the number of wavelengths of electromagnetic energy, wherein the first pattern and the second pattern are detected at different wavelengths of electromagnetic energy; characterised in that the system further comprises a weighting module executable by a processing device of the heterogeneous imaging sensor system to weight the influence of the first imaging device and the influence of the second imaging device in detecting the multiple-pattern fiducial mark based on signal strength, positions of the first and second imaging devices, the angles of the first and second imaging devices, a size of detected features, a quantity of detected features, or combinations thereof.
Delivery system adapted to be fixed on a vial, said system comprising parts facing one another (9, 11; 109, 111; 13, 19a; 113, 119a; 7, 19b; 107, 119b) having surfaces facing one another, said system comprising a material permitting at least one portion of at least one of said surfaces facing one another to have an adhesive effect for the fastening of said parts facing one another, characterised in that said material comprises an adhesive agent which is comprised in the mass of the or said parts facing one another.
A syringe pump with a syringe holder for holding a syringe cylinder (3.1) of an inserted syringe, a drive unit for axial displacement of a piston rod (3.2) of the syringe, and a brake element which can be moved transversely to the longitudinal direction of the syringe via a brake actuator from a release position (p F) into a brake position (p B) and back and which contacts the piston rod (3.2) in the brake position (p B), characterized in that the brake actuator has a piezo element for moving the brake element.
An expression cassette comprising a promoter operably linked to a heterologous nucleic acid molecule comprising: (a) a nucleotide sequence of any one of SEQ ID NOs: 1 to 3; (b) a nucleotide sequence that is at least 80% identical to the nucleotide sequence of any one of SEQ ID NOs: 1 to 3; (c) a nucleotide sequence that encodes a polypeptide, wherein the amino acid sequence of the polypeptide comprises SEQ ID NO: 4; (d) a nucleotide sequence that encodes a polypeptide, wherein the amino acid sequence of the polypeptide is at least 80% identical to the amino acid sequence of SEQ ID NO: 4; (e) a nucleotide sequence that is complementary to the nucleotide sequence of any one of (a) to (d) above. (a) a nucleotide sequence of any one of SEQ ID NOs: 1 to 3; (b) a nucleotide sequence that is at least 80% identical to the nucleotide sequence of any one of SEQ ID NOs: 1 to 3; (c) a nucleotide sequence that encodes a polypeptide, wherein the amino acid sequence of the polypeptide comprises SEQ ID NO: 4; (d) a nucleotide sequence that encodes a polypeptide, wherein the amino acid sequence of the polypeptide is at least 80% identical to the amino acid sequence of SEQ ID NO: 4; (e) a nucleotide sequence that is complementary to the nucleotide sequence of any one of (a) to (d) above.
A silicone grease composition comprising 10 to 60% by volume of organopolysiloxane of the average compositional formula: R 1 a SiO (4-a)/2 wherein R 1 is independently a monovalent C 1 -C 18 hydrocarbon group, and "a" is a positive number from 1.8 to 2.2, having a kinematic viscosity of 50 to 100,000 mm 2 /s at 25°C, and (C-1) 40 to 90% by volume of a copper powder having a cumulative average particle size, that is to say a median diameter, of 5.0 to 15.0 μm and containing not more than 0.1% by weight of oxygen as measured according to JIS Z2613, wherein a fraction of coarse particles on 500 mesh, sieve opening 25 μm, is not more than 50 ppm based on said composition and a fraction of coarse particles on 325 mesh, sieve opening 45 μm, is zero. 10 to 60% by volume of organopolysiloxane of the average compositional formula: R 1 a SiO (4-a)/2 wherein R 1 is independently a monovalent C 1 -C 18 hydrocarbon group, and "a" is a positive number from 1.8 to 2.2, having a kinematic viscosity of 50 to 100,000 mm 2 /s at 25°C, and (C-1) 40 to 90% by volume of a copper powder having a cumulative average particle size, that is to say a median diameter, of 5.0 to 15.0 μm and containing not more than 0.1% by weight of oxygen as measured according to JIS Z2613, wherein a fraction of coarse particles on 500 mesh, sieve opening 25 μm, is not more than 50 ppm based on said composition and a fraction of coarse particles on 325 mesh, sieve opening 45 μm, is zero.
A beamforming-based transmission method, comprising: obtaining, by a terminal, a quantity M of beamforming vectors needing to be reported by the terminal and a first reference signal that are sent by a base station, wherein the first reference signal is sent by the base station on N dual-polarized antenna ports, and M and N each are an integer greater than 0; estimating, by the terminal, downlink channel states on the N dual-polarized antenna ports based on the first reference signal; selecting, by the terminal, m first beamforming codewords based on the downlink channel states and the quantity M of beamforming vectors needing to be reported that is sent by the base station, wherein m≤M, wherein the selecting, by the terminal, m first beamforming codewords includes: estimating, by the terminal, a radiation angle of an antenna of the base station, to determine m beamforming directions with optimal channel quality; and determining, by the terminal, directional angle values of the m beamforming directions with optimal channel quality, where a directional angle value is a directional angle or a trigonometric function value of a directional angle; and feeding back, by the terminal, the m selected first beamforming codewords and ranks of the downlink channel states to the base station; wherein the terminal determines the quantity m of the selected first beamforming codewords by using the following step: determining, by the terminal, the quantity M of beamforming vectors needing to be reported that is sent by the base station, as the quantity m of the selected first beamforming codewords. obtaining, by a terminal, a quantity M of beamforming vectors needing to be reported by the terminal and a first reference signal that are sent by a base station, wherein the first reference signal is sent by the base station on N dual-polarized antenna ports, and M and N each are an integer greater than 0; estimating, by the terminal, downlink channel states on the N dual-polarized antenna ports based on the first reference signal; selecting, by the terminal, m first beamforming codewords based on the downlink channel states and the quantity M of beamforming vectors needing to be reported that is sent by the base station, wherein m≤M, wherein the selecting, by the terminal, m first beamforming codewords includes: estimating, by the terminal, a radiation angle of an antenna of the base station, to determine m beamforming directions with optimal channel quality; and determining, by the terminal, directional angle values of the m beamforming directions with optimal channel quality, where a directional angle value is a directional angle or a trigonometric function value of a directional angle; and feeding back, by the terminal, the m selected first beamforming codewords and ranks of the downlink channel states to the base station; wherein the terminal determines the quantity m of the selected first beamforming codewords by using the following step: determining, by the terminal, the quantity M of beamforming vectors needing to be reported that is sent by the base station, as the quantity m of the selected first beamforming codewords.
A method to be performed by at least one data processor forming at least part of a computing system, the method comprising: receiving, by the at least one data processor, a first data corresponding to the spatial position of one or more volume elements of a patient; receiving, by the at least one data processor, a second data corresponding to a set-up of a radiation therapy delivery system for delivering one or more radiation fields to the patient, the set-up of the radiation therapy delivery system including field angles, field strengths, and/or field widths of the one or more radiation fields delivered to the patient; determining a number of radiation fields delivered by the radiation therapy delivery system that will intersect with individual volume elements of the one or more volume elements of the patient; and generating, by the at least one data processor using a predictive model trained using a neural network, a three-dimensional radiation dose matrix for the patient based on the first data, the second data, and the determined number of radiation fields. receiving, by the at least one data processor, a first data corresponding to the spatial position of one or more volume elements of a patient; receiving, by the at least one data processor, a second data corresponding to a set-up of a radiation therapy delivery system for delivering one or more radiation fields to the patient, the set-up of the radiation therapy delivery system including field angles, field strengths, and/or field widths of the one or more radiation fields delivered to the patient; determining a number of radiation fields delivered by the radiation therapy delivery system that will intersect with individual volume elements of the one or more volume elements of the patient; and generating, by the at least one data processor using a predictive model trained using a neural network, a three-dimensional radiation dose matrix for the patient based on the first data, the second data, and the determined number of radiation fields.
A highly corrosion-resistant hot-dip galvanized steel sheet product excellent in surface smoothness and formability, having on the steel product surface a 10 to 350g/m 2 zinc alloy plating layer composed of 4 to 10% by mass of Al, 1 to 5% by mass of Mg, up to 0.1% by mass of Ti and the balance of Zn and unavoidable impurities, the plating layer having a metal structure in which an [Al phase] and one or more of [Zn 2 Mg phase] and [Zn phase] are present in a mixture in the matrix of an [Al/Zn/Zn 2 Mg ternary eutectic structure], and the plating layer containing 10 mass % or more of a Ti-Al base intermetallic compound of 10μm or smaller composed of TiAl 3 in the [Al phase] and one or more of [Zn 2 Mg phase] and [Zn phase], wherein the Ti-Al base intermetallic compound contained in the [Al phase] in the plating layer is present in a Zn-Al eutectoid reaction structure in which Zn phases are condensed, and the size of a dendrite in the [Al phase] in the plating layer is up to 500μm.
A gas turbine engine (20; 100) comprising: a primary flowpath fluidly connecting a compressor section (24; 110), a combustor section (26; 120), and a turbine section (28; 130); and a heat exchanger disposed in the primary flowpath, aft of and downstream of the turbine section (28; 130), the heat exchanger including a first inlet for receiving fluid from the primary flowpath and a first outlet for expelling fluid received at the first inlet, the heat exchanger further including a second inlet fluidly connected to a supercritical CO2 bottoming cycle and a second outlet connected to the sCO2 bottoming cycle, wherein the sCO2 bottoming cycle is an overexpanded, recuperated Brayton cycle, characterised in that the heat exchanger is disposed within an exhaust casing, and wherein the heat exchanger is a plate/fin style heat exchanger disposed on one or more internal surface of the exhaust casing. a primary flowpath fluidly connecting a compressor section (24; 110), a combustor section (26; 120), and a turbine section (28; 130); and a heat exchanger disposed in the primary flowpath, aft of and downstream of the turbine section (28; 130), the heat exchanger including a first inlet for receiving fluid from the primary flowpath and a first outlet for expelling fluid received at the first inlet, the heat exchanger further including a second inlet fluidly connected to a supercritical CO2 bottoming cycle and a second outlet connected to the sCO2 bottoming cycle, wherein the sCO2 bottoming cycle is an overexpanded, recuperated Brayton cycle, characterised in that the heat exchanger is disposed within an exhaust casing, and wherein the heat exchanger is a plate/fin style heat exchanger disposed on one or more internal surface of the exhaust casing.