mhurhangee/ep-ind-claims huggingface dataset:
An encoder (200, 300) comprising: a periodic-combined-envelope generating part which is adapted to generate a periodic combined envelope sequence which is a frequency-domain sequence based on a spectral envelope sequence which is a frequency-domain sequence corresponding to a linear predictive coefficient code obtained from an input audio signal in a predetermined time segment and on a frequency-domain period corresponding to a period code obtained from the input audio signal; a variable-length-coding-parameter calculating part which is adapted to calculate a variable-length coding parameter dependent on an amplitude value from the periodic combined envelope sequence; and a variable-length coding part (270, 370) which is adapted to use a variable-length coding parameter to encode a frequency-domain sequence derived from the input audio signal by variable-length coding dependent on an amplitude value. a periodic-combined-envelope generating part which is adapted to generate a periodic combined envelope sequence which is a frequency-domain sequence based on a spectral envelope sequence which is a frequency-domain sequence corresponding to a linear predictive coefficient code obtained from an input audio signal in a predetermined time segment and on a frequency-domain period corresponding to a period code obtained from the input audio signal; a variable-length-coding-parameter calculating part which is adapted to calculate a variable-length coding parameter dependent on an amplitude value from the periodic combined envelope sequence; and a variable-length coding part (270, 370) which is adapted to use a variable-length coding parameter to encode a frequency-domain sequence derived from the input audio signal by variable-length coding dependent on an amplitude value.
A method performed on an aircraft, the method comprising: at a processor on the aircraft, receiving a bug altitude setting, the bug altitude setting comprising an altitude that is set by a pilot of the aircraft; generating a landing gear alert altitude value that is equal to the received bug altitude setting plus a predefined additive; receiving an altitude value for the aircraft; and generating a landing gear alert if the altitude value is less than the landing gear alert altitude value and the landing gear is not in a landing position; and at an output device (52, 54, 80), outputting the generated landing gear alert. at a processor on the aircraft, receiving a bug altitude setting, the bug altitude setting comprising an altitude that is set by a pilot of the aircraft; generating a landing gear alert altitude value that is equal to the received bug altitude setting plus a predefined additive; receiving an altitude value for the aircraft; and generating a landing gear alert if the altitude value is less than the landing gear alert altitude value and the landing gear is not in a landing position; and at an output device (52, 54, 80), outputting the generated landing gear alert.
A movement track recording method, wherein the method comprises: determining a positioning trigger condition according to positioning precision; and positioning a terminal device when the positioning trigger condition is met, and recording a location of the terminal device, wherein the positioning trigger condition is a positioning time interval, and the positioning time interval is dynamically adjustable, wherein the determining a positioning trigger condition according to positioning precision comprises: when the terminal device moves, determining, according to the positioning precision and a current moving speed of the terminal device, a positioning time interval for a next time of positioning as T i = D / Vi, wherein wherein i≥1, i is a positive integer, T i is the positioning time interval between an i th time of positioning and an (i+1) th time of positioning, D is the positioning precision, and V i is the moving speed of the terminal device during the i th time of positioning, and the positioning a terminal device when the positioning trigger condition is met, and recording location information of the terminal device comprises: starting timing, positioning the terminal device when the timing reaches the positioning time interval for the next time of positioning, and recording a current location of the terminal device. determining a positioning trigger condition according to positioning precision; and positioning a terminal device when the positioning trigger condition is met, and recording a location of the terminal device, wherein the positioning trigger condition is a positioning time interval, and the positioning time interval is dynamically adjustable, wherein the determining a positioning trigger condition according to positioning precision comprises: when the terminal device moves, determining, according to the positioning precision and a current moving speed of the terminal device, a positioning time interval for a next time of positioning as T i = D / Vi, wherein wherein i≥1, i is a positive integer, T i is the positioning time interval between an i th time of positioning and an (i+1) th time of positioning, D is the positioning precision, and V i is the moving speed of the terminal device during the i th time of positioning, and when the terminal device moves, determining, according to the positioning precision and a current moving speed of the terminal device, a positioning time interval for a next time of positioning as T i = D / Vi, wherein wherein i≥1, i is a positive integer, T i is the positioning time interval between an i th time of positioning and an (i+1) th time of positioning, D is the positioning precision, and V i is the moving speed of the terminal device during the i th time of positioning, the positioning a terminal device when the positioning trigger condition is met, and recording location information of the terminal device comprises: starting timing, positioning the terminal device when the timing reaches the positioning time interval for the next time of positioning, and recording a current location of the terminal device.
An electronic device comprising: a first non-conductive cover including a first planar portion defining a first surface of the electronic device; a second non-conductive cover including a second planar portion defining a second surface of the electronic device opposite the first surface, and a curved portion defining a first portion of a lateral surface of the electronic device between the first surface and the second surface; a conductive frame including metal materials and defining a second portion of the lateral surface of the electronic device; an antenna module including a patch antenna configured to transmit signals through at least part of the first portion of the lateral surface of the electronic device, and a non-conductive portion, as viewed cross-sectionally, disposed at least partially between the lateral surface and at least part of a radiating surface of the patch antenna facing the lateral surface, wherein an air gap (1740a1) is provided between the radiating surface and the non-conductive portion, wherein the antenna module is disposed between the first non-conductive cover and the second non-conductive cover such that the radiating surface faces the lateral surface, and wherein, when viewed from the lateral surface, at least half of the radiating surface overlaps with the first portion of the lateral surface and a remaining portion of the radiating surface overlaps with the second portion of the lateral surface. a first non-conductive cover including a first planar portion defining a first surface of the electronic device; a second non-conductive cover including a second planar portion defining a second surface of the electronic device opposite the first surface, and a curved portion defining a first portion of a lateral surface of the electronic device between the first surface and the second surface; a conductive frame including metal materials and defining a second portion of the lateral surface of the electronic device; an antenna module including a patch antenna configured to transmit signals through at least part of the first portion of the lateral surface of the electronic device, and a non-conductive portion, as viewed cross-sectionally, disposed at least partially between the lateral surface and at least part of a radiating surface of the patch antenna facing the lateral surface, wherein an air gap (1740a1) is provided between the radiating surface and the non-conductive portion, wherein the antenna module is disposed between the first non-conductive cover and the second non-conductive cover such that the radiating surface faces the lateral surface, and wherein, when viewed from the lateral surface, at least half of the radiating surface overlaps with the first portion of the lateral surface and a remaining portion of the radiating surface overlaps with the second portion of the lateral surface.
At least one peptide selected from the group consisting of: a) a peptide comprising the amino acid sequence of SEQ ID NO:2, and b) a peptide comprising the amino acid sequence of SEQ ID NO:4, for use in the treatment of a subject suffering or at risk of suffering from graft versus host disease (GVHD). a) a peptide comprising the amino acid sequence of SEQ ID NO:2, and b) a peptide comprising the amino acid sequence of SEQ ID NO:4,
A wavelength conversion member (1, 1A; 11) having a first principal surface and a second principal surface opposed to each other, the wavelength conversion member (1, 1A; 11) comprising: a glass matrix; and phosphor particles disposed in the glass matrix, wherein a concentration of the phosphor particles in the first principal surface is higher than a concentration of the phosphor particles in a portion 20 μm inward from the first principal surface, a concentration of the phosphor particles in the second principal surface is lower than a concentration of the phosphor particles in a portion 20 μm inward from the second principal surface, and the concentration of the phosphor particles in the first principal surface is higher than the concentration of the phosphor particles in the second principal surface, and the thickness of the wavelength conversion member (1, 1A; 11) is in a range of 0.05 mm to 1 mm wherein the wavelength conversion member (1, 1A; 11) includes a plurality of regions (A1-A3) each having a concentration of the phosphor particles decreasing from a side closer to the first principal surface toward a side closer to the second principal surface and the plurality of regions are continuously provided from the first principal surface toward the second principal surface. a glass matrix; and phosphor particles disposed in the glass matrix, wherein a concentration of the phosphor particles in the first principal surface is higher than a concentration of the phosphor particles in a portion 20 μm inward from the first principal surface, a concentration of the phosphor particles in the second principal surface is lower than a concentration of the phosphor particles in a portion 20 μm inward from the second principal surface, and the concentration of the phosphor particles in the first principal surface is higher than the concentration of the phosphor particles in the second principal surface, and the thickness of the wavelength conversion member (1, 1A; 11) is in a range of 0.05 mm to 1 mm wherein the wavelength conversion member (1, 1A; 11) includes a plurality of regions (A1-A3) each having a concentration of the phosphor particles decreasing from a side closer to the first principal surface toward a side closer to the second principal surface and the plurality of regions are continuously provided from the first principal surface toward the second principal surface.
A glass-metal feedthrough, consisting of an outer conductor, a glass material, and an inner conductor, wherein the inner conductor has a coefficient of expansion α Innen, the glass has a coefficient of expansion α Glas, and the outer conductor has a coefficient of expansion α auβen, wherein the coefficient of expansion of the inner conductor α innen is greater than the coefficient of expansion of the glass α Glas and the difference between the coefficient of expansion of the outer conductor α auβen and the coefficient of expansion of the glass α Glas is at least 2 ppm/K, preferably at least 4 ppm/K in the temperature range from 20°C to the glass transformation temperature and the coefficient of expansion of the outer conductor α auβen is greater than the coefficient of expansion α Glas of the glass, characterized in that the coefficient of expansion of the inner conductor α Innen is in the range 4 · α Glas to 1.5 · α Glas, wherein the coefficient of expansion α Innen of the inner conductor is preferably twice as large as the coefficient of expansion α Glas.
A method performed by a user agent "UA", configured to operate in an evolved packet system "EPS", comprising: generating, when operating in the EPS, in a non-access stratum "NAS" protocol layer, a NAS service request message comprising a request for a service type related to mobile terminating "MT" circuit switched "CS" fallback; and setting, in an access stratum "AS" protocol layer, a radio resource control "RRC" establishment cause "EC" of an RRC message based upon the service type identified by the NAS service request message, wherein the RRC EC is set to indicate MT access. generating, when operating in the EPS, in a non-access stratum "NAS" protocol layer, a NAS service request message comprising a request for a service type related to mobile terminating "MT" circuit switched "CS" fallback; and setting, in an access stratum "AS" protocol layer, a radio resource control "RRC" establishment cause "EC" of an RRC message based upon the service type identified by the NAS service request message, wherein the RRC EC is set to indicate MT access.
A barrier system, said system comprising: a head unit shaped to be worn over the head of the wearer; a hood positioned over the head unit and forming a chamber; characterized in that said barrier system further comprises: one or more sensors located within the chamber and configured to produce one or more sensor-output signals, the one or more sensors comprise one or more motion sensors mounted on the head unit; and a controller connected to the one or more motion sensors and configured to produce one or more controller-output signals based on the one or more motion sensor-output signals, wherein at least one or more controller-output signals are based on a predetermined head movement; a fan-speed control unit connected to the controller; and a fan connected to the fan-speed control unit; wherein the fan-speed control unit is configured to select a fan speed based on the one or more controller-output signals. a head unit shaped to be worn over the head of the wearer; a hood positioned over the head unit and forming a chamber; characterized in that said barrier system further comprises: one or more sensors located within the chamber and configured to produce one or more sensor-output signals, the one or more sensors comprise one or more motion sensors mounted on the head unit; and a controller connected to the one or more motion sensors and configured to produce one or more controller-output signals based on the one or more motion sensor-output signals, wherein at least one or more controller-output signals are based on a predetermined head movement; one or more sensors located within the chamber and configured to produce one or more sensor-output signals, the one or more sensors comprise one or more motion sensors mounted on the head unit; and a controller connected to the one or more motion sensors and configured to produce one or more controller-output signals based on the one or more motion sensor-output signals, wherein at least one or more controller-output signals are based on a predetermined head movement; a fan-speed control unit connected to the controller; and a fan connected to the fan-speed control unit; wherein the fan-speed control unit is configured to select a fan speed based on the one or more controller-output signals.
A heat insulation structure (6, 7) for a component (3a, 5) of an exhaust system of a piston engine, the heat insulation structure (6, 7) being arrangeable around the component (3a, 5) of the exhaust system in such a manner that an air space is formed between the component (3a, 5) and the heat insulation structure (6, 7), the heat insulation structure (6, 7) comprising - an outer shell layer, - a middle shell layer that is arranged inside the outer shell layer, and - a first inner shell layer that is arranged inside the middle shell layer, wherein - a first air gap is arranged between the outer shell layer and the middle shell layer, - a first insulation layer of insulation material is arranged between the middle shell layer and the first inner shell layer, - the outer shell layer is provided with venting apertures (18, 18a, 18b, 19) for natural ventilation of the first air gap, - the venting apertures (18, 18a, 18b, 19) comprise air outlets, which are arranged in an upper part of the outer shell layer for releasing venting air from the first air gap, - a cover structure that is provided with venting apertures (27, 28) is arranged above the outer shell layer to cover the air outlets of the outer shell layer, - the venting apertures (27, 28) of the cover structure comprise air outlets, which are arranged in a vertical direction above the air outlets of the outer shell layer, characterized in that the venting apertures (27, 28) of the cover structure comprise air inlets, which are arranged in a vertical direction below the air outlets of the cover structure. - an outer shell layer, - a middle shell layer that is arranged inside the outer shell layer, and - a first inner shell layer that is arranged inside the middle shell layer, - a first air gap is arranged between the outer shell layer and the middle shell layer, - a first insulation layer of insulation material is arranged between the middle shell layer and the first inner shell layer, - the outer shell layer is provided with venting apertures (18, 18a, 18b, 19) for natural ventilation of the first air gap, - the venting apertures (18, 18a, 18b, 19) comprise air outlets, which are arranged in an upper part of the outer shell layer for releasing venting air from the first air gap, - a cover structure that is provided with venting apertures (27, 28) is arranged above the outer shell layer to cover the air outlets of the outer shell layer, - the venting apertures (27, 28) of the cover structure comprise air outlets, which are arranged in a vertical direction above the air outlets of the outer shell layer,
A battery cooler for a battery mounted on a vehicle, the battery cooler comprising: a battery case configured to accommodate the battery and is to be disposed on a lower side of a floor panel of the vehicle; and a fixing bracket (30, 32) configured to fix the battery case to the floor panel, wherein the fixing bracket (30, 32) and a bottom surface of the battery case constitute a ventilation passage (40, 42), and a flow passage cross-sectional area at a front end of the ventilation passage (40, 42) is larger than a flow passage cross-sectional area of a portion behind the front end. a battery case configured to accommodate the battery and is to be disposed on a lower side of a floor panel of the vehicle; and a fixing bracket (30, 32) configured to fix the battery case to the floor panel, wherein the fixing bracket (30, 32) and a bottom surface of the battery case constitute a ventilation passage (40, 42), and a flow passage cross-sectional area at a front end of the ventilation passage (40, 42) is larger than a flow passage cross-sectional area of a portion behind the front end.
Motor vehicle having a multifunctional strip, wherein - the multifunctional strip is formed as a strip-shaped trim element for a body of the motor vehicle, and - a first piece of information and a second piece of information, independent of the first piece of information, is able to be emitted using the multifunctional strip, and wherein - the multifunctional strip comprises at least one actuator, using which aural signals are able to be emitted, characterised in that - the motor vehicle comprises an environmental sensor to detect environmental data of the motor vehicle and/or to receive information concerning a traffic situation, road and/or weather conditions, wherein the environmental data of the motor vehicle and/or the information concerning the traffic situation, the road and/or weather conditions are able to be displayed using the multifunctional strip, and - the multifunctional strip is attached to the outer side of the body of the motor vehicle, - the first and the second pieces of information are able to be retrieved from the motor vehicle by a driver before entering the motor vehicle. - the multifunctional strip is formed as a strip-shaped trim element for a body of the motor vehicle, and - a first piece of information and a second piece of information, independent of the first piece of information, is able to be emitted using the multifunctional strip, and wherein - the multifunctional strip comprises at least one actuator, using which aural signals are able to be emitted, - the motor vehicle comprises an environmental sensor to detect environmental data of the motor vehicle and/or to receive information concerning a traffic situation, road and/or weather conditions, wherein the environmental data of the motor vehicle and/or the information concerning the traffic situation, the road and/or weather conditions are able to be displayed using the multifunctional strip, and - the multifunctional strip is attached to the outer side of the body of the motor vehicle, - the first and the second pieces of information are able to be retrieved from the motor vehicle by a driver before entering the motor vehicle.
A spectacle lens comprising: a substrate; and an antireflection film disposed on the substrate, wherein the antireflection film is a multilayer film consisting of eight alternately-laminated high refractive index and low refractive index layers; a first layer of the antireflection film deposited closest to the substrate is a high refractive index layer; λ satisfies 480 nm ≤ λ ≤ 530 nm where λ is the wavelength of light incident into the antireflection film; an optical thickness D1 of the first layer satisfies 0.02λ ≤ D1 ≤ 0.04λ; a total physical thickness da of the low refractive index layers satisfies 0.65dt ≤ da ≤ 0.80dt, dt being a total physical thickness of the entire antireflection film; characterized in that the substrate is a plastic substrate, an optical thickness Dm of a layer of the antireflection film that is located fifth from an outermost layer deposited furthest from the substrate satisfies 0.19λ ≤ Dm ≤ 0.75λ; the total physical thickness dt of the entire antireflection film satisfies 350 nm ≤ dt ≤ 480nm. a substrate; and an antireflection film disposed on the substrate, wherein the antireflection film is a multilayer film consisting of eight alternately-laminated high refractive index and low refractive index layers; a first layer of the antireflection film deposited closest to the substrate is a high refractive index layer; λ satisfies 480 nm ≤ λ ≤ 530 nm where λ is the wavelength of light incident into the antireflection film; an optical thickness D1 of the first layer satisfies 0.02λ ≤ D1 ≤ 0.04λ; a total physical thickness da of the low refractive index layers satisfies 0.65dt ≤ da ≤ 0.80dt, dt being a total physical thickness of the entire antireflection film; characterized in that the substrate is a plastic substrate, an optical thickness Dm of a layer of the antireflection film that is located fifth from an outermost layer deposited furthest from the substrate satisfies 0.19λ ≤ Dm ≤ 0.75λ; the total physical thickness dt of the entire antireflection film satisfies 350 nm ≤ dt ≤ 480nm.