mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic apparatus , comprising: an image sensor including a plurality of pixels which light from an optical system enters, wherein adjacent pixels are grouped to form unit regions arranged two-dimensionally over the image sensor , wherein the pixels included in one unit region each include a transfer transistor , a reset transistor , and a selection transistor , wherein the transfer transistors of the pixels included in one unit region are connected to a common control line , the reset transistors included in one unit region are connected to a common reset line , and the selection transistors included in one unit region are connected to independent selection lines , wherein the pixels included in one unit region are connected to a common output line via which signals of the pixels included in the unit region are output; a drive unit that drives the image sensor ; and a control unit that calculates a defocus amount of the optical system based on signals that are output from pixels included in a first unit region , and, based on signals that are output from pixels included in a second unit region , performs generation of an image data to be displayed on a display unit and exposure calculation, wherein the control unit sends an instruction to the drive unit so that reading out from the pixels included in the first unit region and reading out from the pixels included in the second unit region are performed at a different frame rate. an image sensor including a plurality of pixels which light from an optical system enters, wherein adjacent pixels are grouped to form unit regions arranged two-dimensionally over the image sensor , wherein the pixels included in one unit region each include a transfer transistor , a reset transistor , and a selection transistor , wherein the transfer transistors of the pixels included in one unit region are connected to a common control line , the reset transistors included in one unit region are connected to a common reset line , and the selection transistors included in one unit region are connected to independent selection lines , wherein the pixels included in one unit region are connected to a common output line via which signals of the pixels included in the unit region are output; a drive unit that drives the image sensor ; and a control unit that calculates a defocus amount of the optical system based on signals that are output from pixels included in a first unit region , and, based on signals that are output from pixels included in a second unit region , performs generation of an image data to be displayed on a display unit and exposure calculation, wherein the control unit sends an instruction to the drive unit so that reading out from the pixels included in the first unit region and reading out from the pixels included in the second unit region are performed at a different frame rate.
A media device meter to monitor media presented by a media device , the media device meter comprising: a watermark detector to detect watermarks in a media signal; and a watermark controller to: activate the watermark detector to begin a first search interval; place the watermark detector in a sleep mode upon expiration of the first search interval in response to no valid watermarks being detected during the first search interval; place the watermark detector in the sleep mode prior to expiration of the first search interval in response to detection of a first valid watermark during the first search interval; and upon expiration of a first sleep interval after the watermark detector is placed in the sleep mode, activate the watermark detector to begin a second search interval. a watermark detector to detect watermarks in a media signal; and a watermark controller to: activate the watermark detector to begin a first search interval; place the watermark detector in a sleep mode upon expiration of the first search interval in response to no valid watermarks being detected during the first search interval; place the watermark detector in the sleep mode prior to expiration of the first search interval in response to detection of a first valid watermark during the first search interval; and upon expiration of a first sleep interval after the watermark detector is placed in the sleep mode, activate the watermark detector to begin a second search interval. activate the watermark detector to begin a first search interval; place the watermark detector in a sleep mode upon expiration of the first search interval in response to no valid watermarks being detected during the first search interval; place the watermark detector in the sleep mode prior to expiration of the first search interval in response to detection of a first valid watermark during the first search interval; and upon expiration of a first sleep interval after the watermark detector is placed in the sleep mode, activate the watermark detector to begin a second search interval.
Use of (i) the mRNA encoding ROR gamma t, or the corresponding ROR gamma t protein, and (ii) the mRNA encoding at least one marker selected from IL-6, IL-17A, IL-17F, IL-21, IL-22, IL-23A, IL-26 and CCL20, or the corresponding protein, as markers for acne.
A carrier recovery system for a coherent receiver for receiving a phase-modulated signal, S(t) , by means of an N -PSK modulation of said carrier where N is an even number, characterised in that it comprises: a signal pre-conditioning circuit to provide a pre-conditioned signal having an unmodulated component at a harmonic Nf c of the carrier frequency, f c , said unmodulated component at Nf c being obtained by multiplying the phase modulated signal and K = N 2 − 1 delayed versions of this signal by respective delays k T c N , with k = 1, ..., K, each delay being defined within an integer multiple T c 2 , where T c = 1 / f c the result of said multiplication being subjected to a quadratic function; a carrier regeneration circuit to generate a sinusoidal wave signal at the carrier frequency by phase locking to said harmonic. a signal pre-conditioning circuit to provide a pre-conditioned signal having an unmodulated component at a harmonic Nf c of the carrier frequency, f c , said unmodulated component at Nf c being obtained by multiplying the phase modulated signal and K = N 2 − 1 delayed versions of this signal by respective delays k T c N , with k = 1, ..., K, each delay being defined within an integer multiple T c 2 , where T c = 1 / f c the result of said multiplication being subjected to a quadratic function; a carrier regeneration circuit to generate a sinusoidal wave signal at the carrier frequency by phase locking to said harmonic.
Sliding patio doors comprising a bottom sill having parallel rails and a first sliding door and a second sliding door that can be moved over the rails in order to open and close the sliding patio doors, wherein the first sliding door has been provided with a first base profile at the bottom side, to which base profile a first running carriage has been attached and the second sliding door has been provided with a second base profile at the bottom side, to which base profile a second running carriage has been attached with which the sliding doors travel alongside each other over their individual rail, wherein the first running carriage has been provided with a first running wheel and a first flight and the second running carriage has been provided with a second running wheel and a second flight , wherein the first flight and the second flight have been positioned for in travel direction (A) contacting each other as a result of which the one sliding door takes along the other sliding door, wherein the first running carriage has been provided with a first adjusting foot to which the first running wheel has been bearing mounted, wherein the first adjusting foot is adjustable relative to the first base profile in order to adjust the height of the first sliding door relative to its rail at the location of the first running carriage, characterized in that the first flight has been attached to the first adjusting foot .
A computer-implemented method for managing a blockchain-based centralized ledger system, the method comprising: receiving timestamps and associated signatures from a trust time server by a centralized ledger server in the blockchain-based centralized ledger system, the trust time server being associated with a trust time authority and independent from the blockchain-based centralized ledger system; storing the timestamps and the associated signatures of the trust time server in a centralized trust timestamp blockchain by the centralized ledger server, the centralized trust timestamp blockchain comprising a plurality of timestamp blocks storing trust timestamp information of the trust time server for the blockchain-based centralized ledger system that stores data in a plurality of blockchains, each of the plurality of blockchains comprising a plurality of blocks storing transaction data; receiving a first timestamp request for a first block of a first blockchain from a first ledger server associated with the first blockchain by the centralized ledger server; and transmitting a first timestamp and associated signature that is stored in the timestamp blockchain and corresponds to the first timestamp request to the first ledger server by the centralized ledger server. receiving timestamps and associated signatures from a trust time server by a centralized ledger server in the blockchain-based centralized ledger system, the trust time server being associated with a trust time authority and independent from the blockchain-based centralized ledger system; storing the timestamps and the associated signatures of the trust time server in a centralized trust timestamp blockchain by the centralized ledger server, the centralized trust timestamp blockchain comprising a plurality of timestamp blocks storing trust timestamp information of the trust time server for the blockchain-based centralized ledger system that stores data in a plurality of blockchains, each of the plurality of blockchains comprising a plurality of blocks storing transaction data; receiving a first timestamp request for a first block of a first blockchain from a first ledger server associated with the first blockchain by the centralized ledger server; and transmitting a first timestamp and associated signature that is stored in the timestamp blockchain and corresponds to the first timestamp request to the first ledger server by the centralized ledger server.
A processor-based method for flash-friendly caching, comprising: reading requested data from a first memory, responsive to determining that the requested read data is not available in a cache; writing the read data to a second memory, in the cache , responsive to reading the read data from the first memory; characterised by performing an aligned block write of data from the second memory in the cache to a flash memory in the cache, responsive to accumulating sufficient data for the aligned block write, wherein the aligned block write is a write that is aligned to block boundaries in an address space; and switching alternating sections of the second memory, responsive to the accumulating the sufficient data for the aligned block write, so that a second section of the second memory accumulates further data for a subsequent aligned block write while a first section of the second memory performs the aligned block write with accumulated data. reading requested data from a first memory, responsive to determining that the requested read data is not available in a cache; writing the read data to a second memory, in the cache , responsive to reading the read data from the first memory; characterised by performing an aligned block write of data from the second memory in the cache to a flash memory in the cache, responsive to accumulating sufficient data for the aligned block write, wherein the aligned block write is a write that is aligned to block boundaries in an address space; and switching alternating sections of the second memory, responsive to the accumulating the sufficient data for the aligned block write, so that a second section of the second memory accumulates further data for a subsequent aligned block write while a first section of the second memory performs the aligned block write with accumulated data.
A method of estimating rock properties, said method comprising: a) obtaining a plurality of rock cutting samples from a reservoir at a depth D1-Dn, wherein n is the number of cutting samples, and D is the depth of each cutting sample; b) measuring a percentage content of silica, clay and carbonate of each of said cutting samples; c) comparing against a database of rock mechanical properties obtained by measuring a plurality of core samples, said database organized by depth and by percentage content of silica, clay and carbonate; and d) estimating rock mechanical properties of said cutting samples from said database by selecting core samples having a similar depth and a similar percentage content of silica, clay and carbonate and assigning rock mechanical properties from said selected core samples to said cutting samples. a) obtaining a plurality of rock cutting samples from a reservoir at a depth D1-Dn, wherein n is the number of cutting samples, and D is the depth of each cutting sample; b) measuring a percentage content of silica, clay and carbonate of each of said cutting samples; c) comparing against a database of rock mechanical properties obtained by measuring a plurality of core samples, said database organized by depth and by percentage content of silica, clay and carbonate; and d) estimating rock mechanical properties of said cutting samples from said database by selecting core samples having a similar depth and a similar percentage content of silica, clay and carbonate and assigning rock mechanical properties from said selected core samples to said cutting samples.
A dispensing device for a liquid comprising at least: - one main body having at least one inlet conduit for receiving at least one portion of the liquid and at least one outlet conduit to allow the discharge of the liquid; - a control body inserted in a housing seat of the main body and being at least configured to selectively control a fluidic connection between the inlet conduit and the outlet conduit ; - an inlet tube (10; 11) fixed to the main body and fluidically connected to the inlet conduit and configured to be connected to a feeding system for providing at least said portion of the liquid; - a spout having at least one outlet passage being controllable or being in fluidic connection with the outlet conduit ; and - a decorative sleeve ; wherein at least one connection portion of the spout is mechanically connected to a coupling portion of the main body ; wherein at least the coupling portion of the main body is arranged within the decorative sleeve ; wherein at least one portion of the inlet tube (10; 11) is arranged within the decorative sleeve ; and wherein at least the connection portion of the spout is arranged within the decorative sleeve ; the dispensing device further comprising a support structure comprising a support sleeve and at least partially surrounded and/or covered by the decorative sleeve and being configured to support the main body . - one main body having at least one inlet conduit for receiving at least one portion of the liquid and at least one outlet conduit to allow the discharge of the liquid; - a control body inserted in a housing seat of the main body and being at least configured to selectively control a fluidic connection between the inlet conduit and the outlet conduit ; - an inlet tube (10; 11) fixed to the main body and fluidically connected to the inlet conduit and configured to be connected to a feeding system for providing at least said portion of the liquid; - a spout having at least one outlet passage being controllable or being in fluidic connection with the outlet conduit ; and - a decorative sleeve ;
A method of colorizing a medical image, comprising: receiving, in an image processing unit, digital image data obtained by a digital image capture device, wherein the digital image data comprises at least one medical image; analyzing the digital image data with the image processing unit to identify a region of interest of the medical image represented by the digital image data; obtaining a first pixel value for each of at least two pixels contained in the region of interest; defining a second pixel value as the arithmetic mean of the first pixel values; providing a plurality of color spectra, the color spectra each comprising at least two colors and relating the at least two colors to at least two pixel values; selecting a color spectrum from the plurality of color spectra comprising at least one corresponding to the second pixel value; and colorizing the region of interest with the selected color spectrum. receiving, in an image processing unit, digital image data obtained by a digital image capture device, wherein the digital image data comprises at least one medical image; analyzing the digital image data with the image processing unit to identify a region of interest of the medical image represented by the digital image data; obtaining a first pixel value for each of at least two pixels contained in the region of interest; defining a second pixel value as the arithmetic mean of the first pixel values; providing a plurality of color spectra, the color spectra each comprising at least two colors and relating the at least two colors to at least two pixel values; selecting a color spectrum from the plurality of color spectra comprising at least one corresponding to the second pixel value; and colorizing the region of interest with the selected color spectrum.
A pharmaceutical composition comprising a compound selected from the group consisting of: (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(2-ethyl-3-methoxybenzoyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N'-benzoyl-N-(1-tert-butyl-butyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(2-methyl-benzoyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(2-fluoro-benzoyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N'-(2-bromo-benzoyl)-N-(1-tert-butyl-butyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(3-methyl-benzoyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(4-methyl-benzoyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(2-chloro-pyridine-3-carbonyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(6-chloro-pyridine-3-carbonyl)-hydrazide; and (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(3-methoxy-2-methylbenzoyl)-hydrazide; and a triglyceride, wherein the compound has an enantiomeric excess of at least 95%. (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(2-ethyl-3-methoxybenzoyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N'-benzoyl-N-(1-tert-butyl-butyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(2-methyl-benzoyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(2-fluoro-benzoyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N'-(2-bromo-benzoyl)-N-(1-tert-butyl-butyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(3-methyl-benzoyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(4-methyl-benzoyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(2-chloro-pyridine-3-carbonyl)-hydrazide; (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(6-chloro-pyridine-3-carbonyl)-hydrazide; and (R)-3,5-Dimethyl-benzoic acid N-(1-tert-butyl-butyl)-N'-(3-methoxy-2-methylbenzoyl)-hydrazide; and a triglyceride, wherein the compound has an enantiomeric excess of at least 95%.
A component for a gas turbine engine , comprising: a platform having an outer surface and an inner surface ; a cover plate (80; 180) positioned adjacent to said outer surface of said platform , wherein said outer surface of said platform includes a pocket and said cover plate (80; 180) is positioned relative to said pocket to establish a platform cooling channel therebetween; a pocket wall which extends between said pocket and a slot of a mate face of said platform and includes a circumferential wall and a floor ; and a seal received within said slot of said mate face , wherein the seal abuts a flat surface of said pocket wall , wherein at least a portion of said pocket is exposed to establish said platform cooling channel , said platform cooling channel is bounded by said cover plate (80; 180) and said pocket on all but a single side, the pocket includes a leading edge axial wall and a trailing edge axial wall , the portion of the pocket opposite from the circumferential wall is the exposed portion of the pocket , the cooling channel axially extends between the leading edge axial wall and the trailing edge axial wall , and the circumferential wall faces the circumferential direction. a platform having an outer surface and an inner surface ; a cover plate (80; 180) positioned adjacent to said outer surface of said platform , wherein said outer surface of said platform includes a pocket and said cover plate (80; 180) is positioned relative to said pocket to establish a platform cooling channel therebetween; a pocket wall which extends between said pocket and a slot of a mate face of said platform and includes a circumferential wall and a floor ; and a seal received within said slot of said mate face , wherein the seal abuts a flat surface of said pocket wall , wherein at least a portion of said pocket is exposed to establish said platform cooling channel , said platform cooling channel is bounded by said cover plate (80; 180) and said pocket on all but a single side, the pocket includes a leading edge axial wall and a trailing edge axial wall , the portion of the pocket opposite from the circumferential wall is the exposed portion of the pocket , the cooling channel axially extends between the leading edge axial wall and the trailing edge axial wall , and the circumferential wall faces the circumferential direction.
A method in a first unmanned aerial vehicle application server, UAV-AS, for determining a flight policy to be applied to an unmanned aerial vehicle, UAV, wherein the UAV is associated with the first UAV-AS and the first UAV-AS is maintaining a flight policy applicable for the geographical service area where the UAV is located, wherein the UAV is residing in a cellular network comprising a plurality of radio coverage areas and the geographical service area is composed of one or more radio coverage areas used in the cellular network, the method comprising: • determining, by the first UAV-AS , whether the UAV is going to leave the geographical service area towards a second geographical service area , wherein the second geographical service area is associated with a second UAV-AS ; • querying, by the first UAV-AS , a flight policy applicable for the second geographical service area from the second UAV-AS ; and • instructing, by the first UAV-AS , the flight policy applicable for the second geographical service to the UAV , before the UAV has entered the second geographical service area . • determining, by the first UAV-AS , whether the UAV is going to leave the geographical service area towards a second geographical service area , wherein the second geographical service area is associated with a second UAV-AS ; • querying, by the first UAV-AS , a flight policy applicable for the second geographical service area from the second UAV-AS ; and • instructing, by the first UAV-AS , the flight policy applicable for the second geographical service to the UAV , before the UAV has entered the second geographical service area .