mhurhangee/patent-ind-claim-en huggingface dataset:
A compound-semiconductor photovoltaic cell comprising: a first photoelectric conversion cell made of a first compound-semiconductor material which lattice matches with gallium arsenide, GaAs, or germanium, Ge; a first tunnel junction layer (170A,170A1,170C) arranged on a deep side farther than the first photoelectric conversion cell in a light incident direction, and including a first positive type, p-type, aluminum gallium indium arsenide, (Al x1 Ga 1-x1 ) y1 In 1-y1 As, layer where 0≦x1<1 and 0<y1≦1 and a first negative type, n-type, aluminum gallium indium phosphide, (Al x2 Ga 1-x2 ) y2 In 1-y2 P, layer (171B,171B1) where 0≦x2<1 and 0<y2<1; and a second photoelectric conversion cell arranged on a deep side farther than the first tunnel junction layer in the light incident direction, and made of a second compound-semiconductor material which is a GaAs-based semiconductor material, wherein the first photoelectric conversion cell and the second photoelectric conversion cell are joined via the first tunnel junction layer, the first p-type (Al x1 Ga 1-x1 ) y1 In 1-y1 As layer lattice matches with GaAs or Ge, a lattice constant of the first n-type (Al x2 Ga 1-x2 ) y2 In 1-y2 P layer is greater than a lattice constant of the first photoelectric conversion cell, and the first tunnel junction layer further includes a second n-type aluminum gallium indium phosphide, (Al x4 Ga 1-x4 ) y4 In 1-y4 P layer which is formed on a side of the second photoelectric conversion cell of the first n-type (Al x2 Ga 1-x2 ) y2 In 1-y2 P layer (171B,171B1) and lattice matches with GaAs or Ge. a first photoelectric conversion cell made of a first compound-semiconductor material which lattice matches with gallium arsenide, GaAs, or germanium, Ge; a first tunnel junction layer (170A,170A1,170C) arranged on a deep side farther than the first photoelectric conversion cell in a light incident direction, and including a first positive type, p-type, aluminum gallium indium arsenide, (Al x1 Ga 1-x1 ) y1 In 1-y1 As, layer where 0≦x1<1 and 0<y1≦1 and a first negative type, n-type, aluminum gallium indium phosphide, (Al x2 Ga 1-x2 ) y2 In 1-y2 P, layer (171B,171B1) where 0≦x2<1 and 0<y2<1; and a second photoelectric conversion cell arranged on a deep side farther than the first tunnel junction layer in the light incident direction, and made of a second compound-semiconductor material which is a GaAs-based semiconductor material, wherein the first photoelectric conversion cell and the second photoelectric conversion cell are joined via the first tunnel junction layer, the first p-type (Al x1 Ga 1-x1 ) y1 In 1-y1 As layer lattice matches with GaAs or Ge, a lattice constant of the first n-type (Al x2 Ga 1-x2 ) y2 In 1-y2 P layer is greater than a lattice constant of the first photoelectric conversion cell, and the first tunnel junction layer further includes a second n-type aluminum gallium indium phosphide, (Al x4 Ga 1-x4 ) y4 In 1-y4 P layer which is formed on a side of the second photoelectric conversion cell of the first n-type (Al x2 Ga 1-x2 ) y2 In 1-y2 P layer (171B,171B1) and lattice matches with GaAs or Ge.
A method of receiving encoded video data, the method comprising: requesting a sequence data set using an HTTP GET request; receiving, in response to the HTTP GET request, sequence level Supplemental Enhancement Information, SEI, messages in a first file comprising an initialization segment for a media representation, the initialization segment further comprising encapsulations of at least one of a sequence parameter set, SPS, and/or picture parameter set, PPS, wherein the initialization segment does not include any media data; after receiving the encapsulated sequence level SEI messages of the first file, receiving an encapsulated sequence of coded video pictures in one or more video files separate from the first file, wherein the one or more video files separate from the first file conform to ISO base media file format or an extension thereof; and rendering the sequence of coded video pictures based on the sequence level SEI messages after the sequence of coded video pictures has been decoded. requesting a sequence data set using an HTTP GET request; receiving, in response to the HTTP GET request, sequence level Supplemental Enhancement Information, SEI, messages in a first file comprising an initialization segment for a media representation, the initialization segment further comprising encapsulations of at least one of a sequence parameter set, SPS, and/or picture parameter set, PPS, wherein the initialization segment does not include any media data; after receiving the encapsulated sequence level SEI messages of the first file, receiving an encapsulated sequence of coded video pictures in one or more video files separate from the first file, wherein the one or more video files separate from the first file conform to ISO base media file format or an extension thereof; and rendering the sequence of coded video pictures based on the sequence level SEI messages after the sequence of coded video pictures has been decoded.
Process of separation or purification of hydrocarbons present in a natural gas stream and recovery using a zeolitic material isostructural to RHO zeolite characterized in that it comprises at least the following steps: (a) contacting the natural gas stream with the zeolitic material; and (b) recovering the unadsorbed components of the natural gas stream, characterized in that the natural gas stream contains CO 2 , which is preferentially adsorbed, and either: (i) the methane and nitrogen are not preferentially adsorbed; or (ii) a mixture of nitrogen and light hydrocarbons of four or fewer carbons are not preferentially adsorbed; and, wherein the process also comprises contacting the mixture of gases that are not preferentially adsorbed with the zeolitic material, wherein the nitrogen is preferentially adsorbed. (a) contacting the natural gas stream with the zeolitic material; and (b) recovering the unadsorbed components of the natural gas stream, characterized in that the natural gas stream contains CO 2 , which is preferentially adsorbed, and either: (i) the methane and nitrogen are not preferentially adsorbed; or (ii) a mixture of nitrogen and light hydrocarbons of four or fewer carbons are not preferentially adsorbed; and, (i) the methane and nitrogen are not preferentially adsorbed; or (ii) a mixture of nitrogen and light hydrocarbons of four or fewer carbons are not preferentially adsorbed; and,
A gas turbine engine stage comprising: a rotor having a slot ; a blade having a root received in the slot , wherein the root has a firtree shape having at least one undulation and a base at a terminal end opposite the airfoil ; characterised by further comprising: a shank that extends radially outward from the root to a platform that supports an airfoil ; and a seal supported on the shank , and extending from the upper side of the topmost undulation of the blade root to the underside of the platform and in engagement circumferentially between and with the shank and the rotor within the slot . a rotor having a slot ; a blade having a root received in the slot , wherein the root has a firtree shape having at least one undulation and a base at a terminal end opposite the airfoil ; characterised by further comprising: a shank that extends radially outward from the root to a platform that supports an airfoil ; and a seal supported on the shank , and extending from the upper side of the topmost undulation of the blade root to the underside of the platform and in engagement circumferentially between and with the shank and the rotor within the slot . a shank that extends radially outward from the root to a platform that supports an airfoil ; and a seal supported on the shank , and extending from the upper side of the topmost undulation of the blade root to the underside of the platform and in engagement circumferentially between and with the shank and the rotor within the slot .
An apparatus for determining a parameter of a transformer which has a high-voltage side and a low-voltage side , the apparatus comprising terminals for detachably connecting the apparatus to the low-voltage side of the transformer , further terminals for detachably connecting the apparatus to the high-voltage side of the transformer , a controllable switching means connected to the further terminals for short-circuiting the high-voltage side , a source for generating a test signal, coupled to the terminals , for impressing the test signal on the low-voltage side of the transformer , a control device configured to automatically control the source and the controllable switching means such that the high-voltage side is short-circuited by the controllable switching means while the test signal from the source is impressed on the low-voltage side , and an evaluation device which is configured to determine the leakage reactance and/or the leakage inductance of the transformer on the basis of the test response of the transformer , which is detected while the high-voltage side is short-circuited by the controllable switching means and the test signal from the source is impressed on the low-voltage side , wherein the evaluation device is further configured to automatically identify a deviation from nominal data of the transformer on the basis of the determined leakage reactance and/or the leakage inductance of the transformer by comparing the determined leakage reactance and/or leakage inductance with the nominal data. terminals for detachably connecting the apparatus to the low-voltage side of the transformer , further terminals for detachably connecting the apparatus to the high-voltage side of the transformer , a controllable switching means connected to the further terminals for short-circuiting the high-voltage side , a source for generating a test signal, coupled to the terminals , for impressing the test signal on the low-voltage side of the transformer , a control device configured to automatically control the source and the controllable switching means such that the high-voltage side is short-circuited by the controllable switching means while the test signal from the source is impressed on the low-voltage side , and an evaluation device which is configured to determine the leakage reactance and/or the leakage inductance of the transformer on the basis of the test response of the transformer , which is detected while the high-voltage side is short-circuited by the controllable switching means and the test signal from the source is impressed on the low-voltage side , wherein the evaluation device is further configured to automatically identify a deviation from nominal data of the transformer on the basis of the determined leakage reactance and/or the leakage inductance of the transformer by comparing the determined leakage reactance and/or leakage inductance with the nominal data.
A CT scanning method, comprising: determining , according to dual-camera images of a part to be scanned, a first coordinate of a mark point of the part to be imaged in a dual-camera coordinate system; converting the first coordinate into a second coordinate of the mark point in a CT coordinate system according to coordinate system transformation parameters; generating first locating information according to the second coordinate to drive a scanning table to move to a first location designated by the first locating information; obtaining projection images of the part to be scanned, wherein the projection images comprises a front-back direction projection image and a side-side direction projection image for the part to be scanned; determining second locating information and scanning information of the part to be scanned according to the projection images, wherein the scanning information comprises scanning region information and exposure parameter information; and driving the scanning table to move to a second location designated by the second locating information according to the second locating information and performing CT scanning according to the scanning information. determining , according to dual-camera images of a part to be scanned, a first coordinate of a mark point of the part to be imaged in a dual-camera coordinate system; converting the first coordinate into a second coordinate of the mark point in a CT coordinate system according to coordinate system transformation parameters; generating first locating information according to the second coordinate to drive a scanning table to move to a first location designated by the first locating information; obtaining projection images of the part to be scanned, wherein the projection images comprises a front-back direction projection image and a side-side direction projection image for the part to be scanned; determining second locating information and scanning information of the part to be scanned according to the projection images, wherein the scanning information comprises scanning region information and exposure parameter information; and driving the scanning table to move to a second location designated by the second locating information according to the second locating information and performing CT scanning according to the scanning information.
Support for mounting an audible alarm device of an acoustic warning system signalling the approach of a silent vehicle (AVAS) to the body of a silent motor vehicle, the support comprising a plate extending longitudinally (L1) and transversely (T1) in its extension plane, the plate providing in its plane a base for receiving the audible alarm device and being provided with at least one lug for fixing the support to the body of the vehicle which extends vertically (V 1) perpendicular to the plane of the plate , the base extending at a first of the longitudinal ends (4 a) of the plate and is provided with a first said fixing lug (5 a) of vertical (V1) and transverse extension (T 1) which is arranged at a longitudinal overhang (L 1) of the base , a second said fixing lug (5 b) of vertical (V 1) and longitudinal extension (L 1) being arranged at the other second longitudinal end (4 b) of the plate while being arranged at a longitudinal distance (L 1) from the base 6), the base being bordered by wings extending vertically (V1) perpendicular to the plane of the plate , said wings delimiting a housing for receiving the audible alarm device on the base and comprising at least two longitudinal wings arranged facing respectively one and the other of the transverse longitudinal edges (T1) opposite the base , and at least one transverse wing arranged at the transverse edge of the first longitudinal end of the base . the plate , the support being characterized in that said transverse wing comprises, at one of its transverse edges extending overhanging the base , a return oriented towards the outside of the base substantially parallel to the plane of extension of the plate , said return itself being extended at its longitudinal end projecting from the base by the first fixing lug .
An anode for generating ozone by electrolysis of water, comprising a titanium substrate and a composite oxide layer attached to a surface of the titanium substrate, wherein the composite oxide layer is made of a metal oxide, metal elements in the metal oxide comprise tin, ruthenium, manganese, titanium, and nickel, and a molar ratio of tin, ruthenium, manganese, titanium, and nickel is (200-500): (2.5-20): 1: (1.5-7): (5-15).
A wavelength conversion device comprising: a light source that emits light having a predetermined wavelength in a wavelength region from ultraviolet light to visible light; a phosphor layer that performs wavelength conversion on light which is emitted from the light source and incident on an incidence face; and an optical member that is arranged between the light source and the phosphor layer , splits and separates light emitted from the light source , and projects beams of the light onto the incidence face of the phosphor layer , wherein the optical member is a microlens array, wherein a cross-sectional shape of the microlens array taken along a plane perpendicular to the incidence face is a sawtooth shape, characterized in that the microlens array has a plurality of areas in which an arrangement direction of saw teeth is identical in a same area and different between different areas. a light source that emits light having a predetermined wavelength in a wavelength region from ultraviolet light to visible light; a phosphor layer that performs wavelength conversion on light which is emitted from the light source and incident on an incidence face; and an optical member that is arranged between the light source and the phosphor layer , splits and separates light emitted from the light source , and projects beams of the light onto the incidence face of the phosphor layer ,
A system for monitoring a first wire rope (12; 14; 16; 18) and a second wire rope (12; 14; 16; 18), the first and second wire ropes(12; 14; 16; 18) each including a contact portion that contacts a sheave , a first end portion , and a monitored portion that extends between the contact portion and the first end portion , the sheave electrically connecting the contact portions of the first and second wire ropes (12; 14; 16; 18), the system comprising: a controller that is electrically connected to each of the first and second wire ropes (12; 14; 16; 18) to form a circuit with the monitored portions of the first and second wire ropes (12; 14; 16; 18); wherein the controller selectively applies a signal to the monitored portions of the first and second wire ropes (12; 14; 16; 18) and determines an electrical resistance thereof; wherein the controller uses the determined electrical resistance to determine a condition of the first and second wire ropes (12; 14; 16; 18). a controller that is electrically connected to each of the first and second wire ropes (12; 14; 16; 18) to form a circuit with the monitored portions of the first and second wire ropes (12; 14; 16; 18); wherein the controller selectively applies a signal to the monitored portions of the first and second wire ropes (12; 14; 16; 18) and determines an electrical resistance thereof; wherein the controller uses the determined electrical resistance to determine a condition of the first and second wire ropes (12; 14; 16; 18).
Method for manufacturing preforms for a wind turbine blade, with the steps: - Providing a mould and arranging a preform building material on a transferable mould element removably arranged on a mould carrier , - Fixating the preform building material on the mould element , - Removing the mould element with the fixated preform building material from the mould carrier and transferring it into a heating means , - Heating the preform building material for producing the preform, - Removing the mould element with the preform from the heating means and cooling the preform. - Providing a mould and arranging a preform building material on a transferable mould element removably arranged on a mould carrier , - Fixating the preform building material on the mould element , - Removing the mould element with the fixated preform building material from the mould carrier and transferring it into a heating means , - Heating the preform building material for producing the preform, - Removing the mould element with the preform from the heating means and cooling the preform.
A high-strength austenitic stainless steel having excellent hydrogen embrittlement resistance characteristics consisting of, in terms of % by mass: C: 0.2% or less; Si: 0.3% to 1.5%; Mn: 7.0% to 11.0%; P: 0.06% or less; S: 0.008% or less; Ni: 5.0% to 10.0%; Cr: 14.0% to 20.0%; Cu: 1.0% to 5.0%; N: 0.03% to 0.4%; and O: 0.015% or less, optionally, further comprising, in terms of % by mass, Mo: 0.5% or less, and/or optionally further comprising, in terms of % by mass, one or more selected from Al: 0.3% or less, Mg: 0.01% or less, Ca: 0.01% or less, REM: 0.10% or less, and B: 0.005% or less, and/or optionally further comprising, in terms of % by mass, one or more selected from Ti: 0.5% or less, Nb: 0.5% or less, and V: 0.5% or less, and the balance of Fe and unavoidable impurities, wherein an average size of Cr-based carbonitrides is 100 nm or less, and an amount of the Cr-based carbonitrides is 0.001% to 0.5% in terms of % by mass. C: 0.2% or less; Si: 0.3% to 1.5%; Mn: 7.0% to 11.0%; P: 0.06% or less; S: 0.008% or less; Ni: 5.0% to 10.0%; Cr: 14.0% to 20.0%; Cu: 1.0% to 5.0%; N: 0.03% to 0.4%; and O: 0.015% or less, optionally, further comprising, in terms of % by mass, Mo: 0.5% or less, and/or optionally further comprising, in terms of % by mass, one or more selected from Al: 0.3% or less, Mg: 0.01% or less, Ca: 0.01% or less, REM: 0.10% or less, and B: 0.005% or less, and/or optionally further comprising, in terms of % by mass, one or more selected from Ti: 0.5% or less, Nb: 0.5% or less, and V: 0.5% or less, and the balance of Fe and unavoidable impurities, wherein an average size of Cr-based carbonitrides is 100 nm or less, and an amount of the Cr-based carbonitrides is 0.001% to 0.5% in terms of % by mass.
A video stream redirecting method for the UIWebView widget of the operating system of an electronic apparatus , comprising: constructing, by a function construction module , a new initialization function, hookInitWithURL, of a video URL, wherein new URL parameters and a returned value of the new initialization function of the video URL are the same as original URL parameters and a returned value of an original initialization function, InitWithURL, of the video URL, and the new URL parameters and the original URL parameters both comprise accessing mode, host name and path; and hijacking, by a stream redirecting module , the original initialization function, such that when the operating system calls the original initialization function to request a corresponding video, the new initialization function of the video URL is executed, changing a target address in the video URL to an address of a designated proxy server , to redirect the video stream request of the corresponding video to the designated proxy server and obtaining, by the electronic apparatus , the corresponding video from the designated proxy server. constructing, by a function construction module , a new initialization function, hookInitWithURL, of a video URL, wherein new URL parameters and a returned value of the new initialization function of the video URL are the same as original URL parameters and a returned value of an original initialization function, InitWithURL, of the video URL, and the new URL parameters and the original URL parameters both comprise accessing mode, host name and path; and hijacking, by a stream redirecting module , the original initialization function, such that when the operating system calls the original initialization function to request a corresponding video, the new initialization function of the video URL is executed, changing a target address in the video URL to an address of a designated proxy server , to redirect the video stream request of the corresponding video to the designated proxy server and obtaining, by the electronic apparatus , the corresponding video from the designated proxy server.