mhurhangee/patent-ind-claim-en huggingface dataset:
A method of sending control information, the method being carried out by a base station and comprising: acquiring an index, in a preset Demodulation Reference Signal, DMRS, configuration table, of DMRS configuration information of a physical downlink shared channel; and sending the index to a terminal through downlink control information, characterized in that , the method further comprises: sending indication information to the terminal through the downlink control information, wherein the indication information is configured to indicate a Transmission Reception Point, TRP, type of a TRP corresponding to the index, and the TRP type is single-point transmission or multi-point transmission, wherein the index comprises a first-level index and a second-level index corresponding to the first-level index; the first-level index is an index associated with the total number of ports in the DMRS configuration table; the second-level index is an index associated with a port number in the DMRS configuration table. acquiring an index, in a preset Demodulation Reference Signal, DMRS, configuration table, of DMRS configuration information of a physical downlink shared channel; and sending the index to a terminal through downlink control information, characterized in that , the method further comprises: sending indication information to the terminal through the downlink control information, wherein the indication information is configured to indicate a Transmission Reception Point, TRP, sending indication information to the terminal through the downlink control information, wherein the indication information is configured to indicate a Transmission Reception Point, TRP, type of a TRP corresponding to the index, and the TRP type is single-point transmission or multi-point transmission, wherein the index comprises a first-level index and a second-level index corresponding to the first-level index; the first-level index is an index associated with the total number of ports in the DMRS configuration table; the second-level index is an index associated with a port number in the DMRS configuration table.
A method of generating a media file, the method comprising the steps of: obtaining video data; generating one or more video tracks based on the obtained video data; generating a TileRegionGroupEntry descriptor which is derived from the standard VisualSampleGroupEntry descriptor according to MPEG-4, including: (i) a descriptive parameter which is associated with a spatial region corresponding to at least one of the one or more video tracks and is indicating, when set to 1, that each spatial region associated with said TileRegionGroupEntry descriptor is a complete frame, and (ii) only if said descriptive parameter is not set to 1, further including horizontal and vertical offset parameters for a spatial region for which the descriptive parameter is not set, wherein the horizontal and vertical offset parameters represent a offset of the top-left pixel of a rectangular region represented by the spatial region relative to the top-left pixel of a base region, wherein the base region is a region to which a spatial region associated with said TileRegionGroupEntry descriptor belongs, and generating one or more media files based on the generated video tracks and the generated TileRegionGroupEntry descriptor. obtaining video data; generating one or more video tracks based on the obtained video data; generating a TileRegionGroupEntry descriptor which is derived from the standard VisualSampleGroupEntry descriptor according to MPEG-4, including: (i) a descriptive parameter which is associated with a spatial region corresponding to at least one of the one or more video tracks and is indicating, when set to 1, that each spatial region associated with said TileRegionGroupEntry descriptor is a complete frame, and (ii) only if said descriptive parameter is not set to 1, further including horizontal and vertical offset parameters for a spatial region for which the descriptive parameter is not set, wherein the horizontal and vertical offset parameters represent a offset of the top-left pixel of a rectangular region represented by the spatial region relative to the top-left pixel of a base region, wherein the base region is a region to which a spatial region associated with said TileRegionGroupEntry descriptor belongs, and (i) a descriptive parameter which is associated with a spatial region corresponding to at least one of the one or more video tracks and is indicating, when set to 1, that each spatial region associated with said TileRegionGroupEntry descriptor is a complete frame, and (ii) only if said descriptive parameter is not set to 1, further including horizontal and vertical offset parameters for a spatial region for which the descriptive parameter is not set, wherein the horizontal and vertical offset parameters represent a offset of the top-left pixel of a rectangular region represented by the spatial region relative to the top-left pixel of a base region, wherein the base region is a region to which a spatial region associated with said TileRegionGroupEntry descriptor belongs, and generating one or more media files based on the generated video tracks and the generated TileRegionGroupEntry descriptor.
A control apparatus for a vehicle provided with drive wheels , an automatic transmission , and a manual shifting device for shifting the automatic transmission, the control apparatus including an automatic parking control portion configured to implement an automatic parking control for automatically parking the vehicle in a predetermined parking space, and controlling the automatic transmission to be shifted according to a shifting control signal (Psh, Pon) corresponding to an operation of the manual shifting device, the automatic parking control portion characterized by comprising: a shifting control portion configured to place the automatic transmission in a power-cutoff state (N) in which a vehicle drive force is not transmitted to the drive wheels , when the manual shifting device is operated to a position in which a running direction is different from a running direction of the vehicle when the automatic parking control is being performed, wherein the shifting control portion is configured to command the automatic transmission to be placed in a running position or a parking position according to the shifting control signal (Psh, Pon) corresponding to the operation of the manual shifting device , after the automatic transmission has been placed in the power-cutoff state.
A method for producing a particle containing porous silica comprising the following steps: (a) producing porous silica by hydrolysis of alkoxy silane comprising the following steps: (a1) mixing a surfactant and alkoxy silane to form mixed solution; (a2) hydrolyzing the alkoxy silane by adding water to the mixed solution; and (a3) removing the surfactant by heat treatment after the (a2) process; and (b) synthesizing the particle in the pores of porous silica produced in the step (a), wherein the step (b) is contacting the porous silica with solution or gas containing a particle material or a compound comprising the particle material as a component element to introduce pores of the porous silica with the solution or gas and thereby, forming the particle containing the particle material or the particle material compound in the pores of the porous silica, wherein in the step (a2), silica is formed by the hydrolysis with micelle of the surfactant used as a template under a condition of a stoichiometric ratio of alkoxy silane : water = 1 : n, the amount of water is an amount in which n is 20 or less; and, pH value of the water is 0 to 2, and wherein the silica is tetraethoxy silane (TEOS) and the surfactant is butyltrimethyl ammonium chloride (C4TAC). (a) producing porous silica by hydrolysis of alkoxy silane comprising the following steps: (a1) mixing a surfactant and alkoxy silane to form mixed solution; (a2) hydrolyzing the alkoxy silane by adding water to the mixed solution; and (a3) removing the surfactant by heat treatment after the (a2) process; and (a1) mixing a surfactant and alkoxy silane to form mixed solution; (a2) hydrolyzing the alkoxy silane by adding water to the mixed solution; and (a3) removing the surfactant by heat treatment after the (a2) process; and (b) synthesizing the particle in the pores of porous silica produced in the step (a), wherein the step (b) is contacting the porous silica with solution or gas containing a particle material or a compound comprising the particle material as a component element to introduce pores of the porous silica with the solution or gas and thereby, forming the particle containing the particle material or the particle material compound in the pores of the porous silica, wherein in the step (a2), silica is formed by the hydrolysis with micelle of the surfactant used as a template under a condition of a stoichiometric ratio of alkoxy silane : water = 1 : n, the amount of water is an amount in which n is 20 or less; and, pH value of the water is 0 to 2, and wherein the silica is tetraethoxy silane (TEOS) and the surfactant is butyltrimethyl ammonium chloride (C4TAC).
Cleaning machine station for a cleaning machine , which cleaning machine comprises a cleaning head having at least one rotatably driven cleaning roller unit , a tank device for cleaning liquid and a dirty fluid tank device , characterized in that the cleaning machine station comprises a receiving chamber for the cleaning head and a discharge device for dirty fluid having a port via which dirty fluid is dischargeable from the dirty fluid tank device , wherein the discharge device for dirty fluid comprises a suction pump and/or wherein the at least one port of the discharge device for operative connection to and fluid communication with the dirty fluid tank device of the cleaning machine is at a lower gravitational potential than an associated drain port of the dirty fluid tank device when, with the cleaning machine station in its proper position, the cleaning machine is held in place to the cleaning machine station, and characterized in that the discharge device for dirty fluid comprises at least one port for discharging dirty fluid from the cleaning machine station and/or comprises a station dirty fluid tank device , and wherein a holding capacity of the station dirty fluid tank device is larger than a holding capacity of the dirty fluid tank device of the cleaning machine , and is twice as large in particular.
Pneumatic vehicle tyre with a tread , which has profile positives , which are formed by at least one circumferential groove and grooves merging into the latter, which in each case have a groove base and groove flanks , the profile positives being provided with acute-angled corner regions at which the circumferential groove and the merging-in grooves form an angle (α) with one another of 20° to 45° and which in each case have running around them in the manner of a bow fender a projection , which is arranged on the groove bases and the greatest height (h max ) of which, determined in the radial direction, is 30% to 100% of the profile depth (T 1 ), characterized in that the projection has a plane of symmetry (E 1 ), which runs in the radial direction and bisects the angle (α) between the circumferential groove and the merging-in groove , wherein the projection has its greatest height (h max ) at the line of intersection (I) of the plane of symmetry (E 1 ) with the acute-angled corner region and is delimited by a single, continuously curved surface , which descends from the point of the greatest height (h max ) in the direction of the groove bases , wherein at the acute-angled corner region there is formed a triangular corner bevel , which extends from the periphery of the tread, reaches as far as the projection and runs at a constant angle (γ) of 20° to 45° to the radial direction.
An attritable engine comprising: an engine case comprising: an outer wall ; a fuel rail integral with the outer wall , the fuel rail comprising: a fuel line integral with the outer wall ; a fuel ring configured to receive fuel from the fuel line ; and an injector throat configured to receive fuel from the fuel ring ; a counter distortion webbing defining the injector throat and integral with the fuel rail and the outer wall ; and a combustion chamber configured to receive fuel from the injector throat . an outer wall ; a fuel rail integral with the outer wall , the fuel rail comprising: a fuel line integral with the outer wall ; a fuel ring configured to receive fuel from the fuel line ; and an injector throat configured to receive fuel from the fuel ring ; a counter distortion webbing defining the injector throat and integral with the fuel rail and the outer wall ; and a combustion chamber configured to receive fuel from the injector throat . a fuel line integral with the outer wall ; a fuel ring configured to receive fuel from the fuel line ; and an injector throat configured to receive fuel from the fuel ring ; a counter distortion webbing defining the injector throat and integral with the fuel rail and the outer wall ; and a combustion chamber configured to receive fuel from the injector throat .
An electronic device , comprising: a display ; an inner structure including a front surface and a rear surface , wherein the front surface includes a first region configured to receive the display and a second region , which is a remaining area of the front surface of the inner structure ; and a receiver disposed in a receiver receiving space corresponding to a part of the rear surface of the inner structure , characterized by a receiver hole connected to the receiver receiving space and configured to penetrate the second region ; a first through-hole configured to penetrate the first region and to connect the receiver receiving space and the front surface of the inner structure ; a second through-hole spaced apart from the first through-hole to penetrate the first region and configured to connect the rear surface of the inner structure ; and a flow path configured to connect the first through-hole and the second through-hole at the front surface of the inner structure . a display ; an inner structure including a front surface and a rear surface , wherein the front surface includes a first region configured to receive the display and a second region , which is a remaining area of the front surface of the inner structure ; and a receiver disposed in a receiver receiving space corresponding to a part of the rear surface of the inner structure , characterized by a receiver hole connected to the receiver receiving space and configured to penetrate the second region ; a first through-hole configured to penetrate the first region and to connect the receiver receiving space and the front surface of the inner structure ; a second through-hole spaced apart from the first through-hole to penetrate the first region and configured to connect the rear surface of the inner structure ; and a flow path configured to connect the first through-hole and the second through-hole at the front surface of the inner structure .
A method, comprising: directing a first light beam to intersect with a charged particle beam at a first location in a first region to produce a first x-ray beam; detecting a position on a detector where at least a portion of the first x-ray beam impinges; and determining a timing synchronization of the charged particle beam relative to the first light beam based on the position. directing a first light beam to intersect with a charged particle beam at a first location in a first region to produce a first x-ray beam; detecting a position on a detector where at least a portion of the first x-ray beam impinges; and determining a timing synchronization of the charged particle beam relative to the first light beam based on the position.
A method for a blockchain transaction in a distributed blockchain network of blockchain nodes having proxy agents and proxy ledgers co-located at each blockchain node, comprising: identifying a blockchain transaction requiring processing at a first blockchain node and requiring consensus or endorsement from one or more other blockchain nodes on the distributed blockchain network; executing a smart contract associated with the blockchain transaction by the first blockchain node and by the one or more proxy agents co-located with the first blockchain node, wherein the one or more proxy agents are associated with the one or more other blockchain nodes from which consensus or endorsement is required for the transaction; receiving the required consensus or endorsement at the first blockchain node from the one or more proxy agents; determining to commit the blockchain transaction once the required consensus or endorsement is received and storing the committed blockchain transaction in a ledger maintained by the first blockchain node and in proxy ledgers associated with the one or more proxy agents; and transmitting updates from the one or more proxy agents to the other blockchain nodes to update copies of ledgers at the other blockchain nodes. identifying a blockchain transaction requiring processing at a first blockchain node and requiring consensus or endorsement from one or more other blockchain nodes on the distributed blockchain network; executing a smart contract associated with the blockchain transaction by the first blockchain node and by the one or more proxy agents co-located with the first blockchain node, wherein the one or more proxy agents are associated with the one or more other blockchain nodes from which consensus or endorsement is required for the transaction; receiving the required consensus or endorsement at the first blockchain node from the one or more proxy agents; determining to commit the blockchain transaction once the required consensus or endorsement is received and storing the committed blockchain transaction in a ledger maintained by the first blockchain node and in proxy ledgers associated with the one or more proxy agents; and transmitting updates from the one or more proxy agents to the other blockchain nodes to update copies of ledgers at the other blockchain nodes.
An electromagnetic feedback actuator for an operating element with at least one actuating element , where the feedback actuator has at least one electromagnet made up of a magnetic coil and a magnetic core , as well as an armature which moves across the electromagnet and in which the magnet armature can be coupled mechanically to the operating element so that, if an actuator element is touched or pressed, at least one force impulse is issued to the operating element , characterised by the fact that the electromagnet is attached to a one-piece metal body which forms the magnet armature , a magnet yoke and a retainer for the electromagnet .
Non-therapeutic use of resveratrol for improving aging-induced reduction of energy metabolism in a human or animal.
A biological nanoparticle detection method with high-sensitivity, comprising the following steps: Step S1: reacting a copper compound nanoparticle with a surface membrane protein aptamer having a sulfhydryl group to obtain a copper compound-membrane protein aptamer conjugate, characterized in that : wherein the copper compound nanoparticle is one or more selected from a group consisting of: cupric sulfide, cuprous oxide, and cuprous sulfide; Step S2: filtering a biological nanoparticle solution containing the biological nanoparticle through a first filter membrane, and adding the copper compound-membrane protein aptamer conjugate to the filtered solution, to obtain a biological nanoparticle-copper compound conjugate after reaction; Step S3: adding a surfactant to the reaction solution obtained in Step S2, filtering through a second filter membrane, and washing the second filter membrane with PBS to obtain a filter membrane containing the biological nanoparticle-copper compound conjugate, wherein a pore size of the second filter membrane is 50 nm; and Step S4: adding a AgNO 3 solution to the filter membrane obtained in Step S3 and reacting: and then adding a mixed solution of triethylamine hydrochloride, hydrogen peroxide and 3,3',5,5'-tetramethylbenzidine, reacting for development, and observing the color change of the filter membrane visually by naked eyes or by means of a camera. Step S1: reacting a copper compound nanoparticle with a surface membrane protein aptamer having a sulfhydryl group to obtain a copper compound-membrane protein aptamer conjugate, characterized in that : wherein the copper compound nanoparticle is one or more selected from a group consisting of: cupric sulfide, cuprous oxide, and cuprous sulfide; Step S2: filtering a biological nanoparticle solution containing the biological nanoparticle through a first filter membrane, and adding the copper compound-membrane protein aptamer conjugate to the filtered solution, to obtain a biological nanoparticle-copper compound conjugate after reaction; Step S3: adding a surfactant to the reaction solution obtained in Step S2, filtering through a second filter membrane, and washing the second filter membrane with PBS to obtain a filter membrane containing the biological nanoparticle-copper compound conjugate, wherein a pore size of the second filter membrane is 50 nm; and Step S4: adding a AgNO 3 solution to the filter membrane obtained in Step S3 and reacting: and then adding a mixed solution of triethylamine hydrochloride, hydrogen peroxide and 3,3',5,5'-tetramethylbenzidine, reacting for development, and observing the color change of the filter membrane visually by naked eyes or by means of a camera.
A process device for use in a control or monitoring system associated with an industrial process, the process device comprising: a transmitter housing coupled to a pipe carrying a process fluid that is associated with an industrial process; a fluid disruption generating element adapted to cause fluid disruption within the process fluid flowing through the pipe; a process variable sensor coupled to the fluid disruption generating element and adapted to measure a process variable associated with the process fluid ; a power generation element coupled to the process fluid , the power generation element adapted to generate an electrical output signal in response to the fluid disruption of the process fluid flowing within the pipe ; a power storage component coupled to the power generation element and adapted to store a charge based on the electrical output; and circuitry coupled to the power storage component and to the process variable sensor, the circuitry adapted to receive a power supply from the power storage component and to provide an output signal related to the process variable. a transmitter housing coupled to a pipe carrying a process fluid that is associated with an industrial process; a fluid disruption generating element adapted to cause fluid disruption within the process fluid flowing through the pipe; a process variable sensor coupled to the fluid disruption generating element and adapted to measure a process variable associated with the process fluid ; a power generation element coupled to the process fluid , the power generation element adapted to generate an electrical output signal in response to the fluid disruption of the process fluid flowing within the pipe ; a power storage component coupled to the power generation element and adapted to store a charge based on the electrical output; and circuitry coupled to the power storage component and to the process variable sensor, the circuitry adapted to receive a power supply from the power storage component and to provide an output signal related to the process variable.