mhurhangee/ep-ind-claims huggingface dataset:
A method of extraction of high purity carotenoids from fungal biomass, the said method comprising the steps of: a) Treatment of carotenoid containing biomass by acidic acid acidified alcohol, wherein the acidified alcohol comprises less than 4.5% (w/w) acetic acid, to increase the cellular porosity. b) separating mechanically the treated biomass from step a) to obtain solid biomass and storing the filtrate for further processing. c) extracting of the treated biomass (the Beta-carotene or Lycopene) with an organic solvent. d) filtering the extracted mixture obtained from the above step to recover mother liquor containing carotenoids crystals and the spent biomass. e) repeating the extraction of the spent biomass again with the same solvent. f) filtering the second extracted mixture obtained from the above step to recover mother liquor and the spent biomass. g) recovering the pure crystals from the pooled mother liquor obtained from step d) and step f) under chilling conditions by chilling crystallization method. h) filtering the chilled suspension using high efficient mechanical filter under vacuum and vacuum drying to get high purity beta carotene or lycopene crystals. j) concentrating further the spent mother liquor from step g) with traces of carotenoid to produce oleoresin with 1 - 5% beta carotene or lycopene, preferably 1.5 - 4.5%, more preferable 1.6 to 4.0% and most preferably 1.7 to 3.9%. a) Treatment of carotenoid containing biomass by acidic acid acidified alcohol, wherein the acidified alcohol comprises less than 4.5% (w/w) acetic acid, to increase the cellular porosity. b) separating mechanically the treated biomass from step a) to obtain solid biomass and storing the filtrate for further processing. c) extracting of the treated biomass (the Beta-carotene or Lycopene) with an organic solvent. d) filtering the extracted mixture obtained from the above step to recover mother liquor containing carotenoids crystals and the spent biomass. e) repeating the extraction of the spent biomass again with the same solvent. f) filtering the second extracted mixture obtained from the above step to recover mother liquor and the spent biomass. g) recovering the pure crystals from the pooled mother liquor obtained from step d) and step f) under chilling conditions by chilling crystallization method. h) filtering the chilled suspension using high efficient mechanical filter under vacuum and vacuum drying to get high purity beta carotene or lycopene crystals. j) concentrating further the spent mother liquor from step g) with traces of carotenoid to produce oleoresin with 1 - 5% beta carotene or lycopene, preferably 1.5 - 4.5%, more preferable 1.6 to 4.0% and most preferably 1.7 to 3.9%.
An embryonic development analysis device, comprising: circuitry configured to: determine, for each image of a plurality of embryonic development images captured in a time series depicting a plurality of cell stages, a region-of-interest corresponding to an inside portion of an embryo in the image; analyze the plurality of embryonic development images to detect, for each image, a movement within the region-of-interest and a movement of the entire embryo; and control output of at least one movement feature value based on a motion-compensated movement within the region-of-interest for images acquired during a period corresponding to at least two cell stages among the plurality of cell stages, characterized in that the motion-compensated movement is determined based, at least in part, on the detected movement of the entire embryo and the detected movement within the region-of-interest, the motion-compensated movement being determined by deducting movement of the entire embryo in the acquired images. determine, for each image of a plurality of embryonic development images captured in a time series depicting a plurality of cell stages, a region-of-interest corresponding to an inside portion of an embryo in the image; analyze the plurality of embryonic development images to detect, for each image, a movement within the region-of-interest and a movement of the entire embryo; and control output of at least one movement feature value based on a motion-compensated movement within the region-of-interest for images acquired during a period corresponding to at least two cell stages among the plurality of cell stages, characterized in that the motion-compensated movement is determined based, at least in part, on the detected movement of the entire embryo and the detected movement within the region-of-interest, the motion-compensated movement being determined by deducting movement of the entire embryo in the acquired images.
A computer-implemented method for simulating an output of a downhole inertial measurement unit, IMU, as a means for verifying and validating the downhole IMU's sensors are working properly and to further improve implemented algorithms, the downhole IMU being composed of sensor packages that include accelerometers, gyroscopes, magnetometers and pressure sensors for providing information in real-time to enable Autonomous Guidance While Drilling, an Autonomous Guidance While Drilling system being a system that estimates the trajectory of a borehole in real-time and provides real-time autonomous navigation and guidance for a bottom hole assembly, the implemented algorithms being navigation algorithms for controlling the autonomous guidance while drilling system, the method comprising generating a trajectory between a plurality of survey points of a planned well data as a function of time, the planned well data comprising a plurality of three-dimensional coordinates corresponding to the survey points of an underground planned well, the trajectory comprising a plurality of trajectory coordinates between consecutive ones of the survey points; generating, by simulating, sensor data for each of the trajectory coordinates as a function of time based on geodetic reference parameters, the generated sensor data comprising: generated accelerometer output; generated gyroscopic output; and generated magnetometer output; receiving, sensor noise parameters; adding, sensor noise to the generated three axis accelerometer output, the generated gyroscopic output, and the generated magnetometer output; and outputting, subsequently to the step of adding sensor noise, the generated accelerometer output; the generated gyroscopic output; and the generated magnetometer output as a function of time as a simulated output of the downhole IMU. generating a trajectory between a plurality of survey points of a planned well data as a function of time, the planned well data comprising a plurality of three-dimensional coordinates corresponding to the survey points of an underground planned well, the trajectory comprising a plurality of trajectory coordinates between consecutive ones of the survey points; generating, by simulating, sensor data for each of the trajectory coordinates as a function of time based on geodetic reference parameters, the generated sensor data comprising: generated accelerometer output; generated gyroscopic output; and generated magnetometer output; receiving, sensor noise parameters; adding, sensor noise to the generated three axis accelerometer output, the generated gyroscopic output, and the generated magnetometer output; and outputting, subsequently to the step of adding sensor noise, the generated accelerometer output; the generated gyroscopic output; and the generated magnetometer output as a function of time as a simulated output of the downhole IMU.
Passenger rail vehicle using differential construction with active thermal insulation, comprising at least one each of a heat exchanger, an extraction system and an exhaust air device, wherein the extraction system removes interior air from the passenger compartment and feeds it to the heat exchanger, and the heat exchanger feeds said interior air to the exhaust air device and the exhaust air device discharges the interior air as exhaust air into the atmosphere, wherein the heat exchanger is arranged in an outer wall of the passenger rail vehicle such that thermal conductivity between the interior of the outer wall and the air flowing in the heat exchanger is ensured, characterised in that the heat exchanger is constructed of pipes conductively connected to the interior of the outer wall, and wherein said pipes are arranged in the spaces between ribs and hoops of the outer wall.
A press-molded product of a metal plate which is formed by a steel plate having a tensile strength of 340 MPa or more and includes a ridge portion (112a, 112b) extending in a predetermined direction and first and second surface portions (113a, 113b, 114) respectively extending from both sides of a ridge line formed by the ridge portion (112a, 112b), the press-molded product comprising: an inward continuous flange in at least one end portion in the predetermined direction, wherein the inward continuous flange is obtained by continuously forming a ridge-portion flange (115a, 115b) formed inward in the end portion of the ridge portion (112a, 112b), a first flange (116a, 116b) formed inward in at least a part of an area of the end portion of the first surface portion (113a, 113b), and a second flange formed inward in at least a part of an area of the end portion of the second surface portion, and wherein a flange width (Lf) of the ridge-portion flange (115a, 115b) measured in mm, a curvature radius (rf) of the ridge portion (112a, 112b) measured in mm, and an angle (θ) formed by the first surface portion (113a, 113b) and the second surface portion measured in ° satisfy Equation below: Lf ≤ 0.22 × rf + 0.13 × θ − 5.9 where 0 ≤ rf ≤ 35 and 90 ≤ θ ≤ 145. an inward continuous flange in at least one end portion in the predetermined direction, wherein the inward continuous flange is obtained by continuously forming a ridge-portion flange (115a, 115b) formed inward in the end portion of the ridge portion (112a, 112b), a first flange (116a, 116b) formed inward in at least a part of an area of the end portion of the first surface portion (113a, 113b), and a second flange formed inward in at least a part of an area of the end portion of the second surface portion, and wherein a flange width (Lf) of the ridge-portion flange (115a, 115b) measured in mm, a curvature radius (rf) of the ridge portion (112a, 112b) measured in mm, and an angle (θ) formed by the first surface portion (113a, 113b) and the second surface portion measured in ° satisfy Equation below: Lf ≤ 0.22 × rf + 0.13 × θ − 5.9 where 0 ≤ rf ≤ 35 and 90 ≤ θ ≤ 145.
A body comprising the following elements in atomic percent (at%): Boron 21 - 41; Iron 25 - 35; Chromium 2-4; Carbon 3-10; and remainder at% tungsten; wherein the body comprises trace amounts of FeCr metallic binder phase being less than 5 at%; wherein at least 95 at% of Fe is in the form of a boride, an intermetallic boride or an intermetallic carbide. wherein at least 95 at% of Cr is the form of a boride, an intermetallic boride or an intermetallic carbide. Boron 21 - 41; Iron 25 - 35; Chromium 2-4; Carbon 3-10; and remainder at% tungsten; wherein the body comprises trace amounts of FeCr metallic binder phase being less than 5 at%; wherein at least 95 at% of Fe is in the form of a boride, an intermetallic boride or an intermetallic carbide. wherein at least 95 at% of Cr is the form of a boride, an intermetallic boride or an intermetallic carbide.
Method for producing a security foil from an original foil comprising at least a carrier layer, a protection layer and a functional layer, the method comprising the steps of: selectively removing parts of the functional layer in the original foil to produce a clearance in the functional layer; and printing a marking within the clearance to produce a printed layer adjacent to and non-overlapping with the functional layer. selectively removing parts of the functional layer in the original foil to produce a clearance in the functional layer; and printing a marking within the clearance to produce a printed layer adjacent to and non-overlapping with the functional layer.
A compound or salt thereof, wherein the compound is [6-(5-Ethoxymethoxy-benzofuran-2-yl)-2-nitro-pyridin-3-yl]-methyl-carbamic acid tert-butyl ester.
A compound of formula I: or a pharmaceutically acceptable salt or solvate thereof, wherein: A 1 is optionally substituted heterocycle; each R 1 is independently halogen, hydrogen, C R A, OR A, NR B R C, S(O 2)R A, or C 1-4 -alkyl; R 2 is independently halogen, hydrogen, C R A, OR A, NR B R C, S(O 2)R A, or C 1-4 -alkyl; R 3 is hydrogen, C R A, C OR A, or C 1-4 -alkyl; R 4 is hydrogen or C 1-4 -alkyl; each R A is independently hydrogen or C 1-4 -alkyl; each R B is independently hydrogen or C 1-4 -alkyl; each R C is independently hydrogen or C 1-4 -alkyl; and m is 1-4. A 1 is optionally substituted heterocycle; each R 1 is independently halogen, hydrogen, C R A, OR A, NR B R C, S(O 2)R A, or C 1-4 -alkyl; R 2 is independently halogen, hydrogen, C R A, OR A, NR B R C, S(O 2)R A, or C 1-4 -alkyl; R 3 is hydrogen, C R A, C OR A, or C 1-4 -alkyl; R 4 is hydrogen or C 1-4 -alkyl; each R A is independently hydrogen or C 1-4 -alkyl; each R B is independently hydrogen or C 1-4 -alkyl; each R C is independently hydrogen or C 1-4 -alkyl; and m is 1-4.
A screening method which comprises selecting a test substance having an activity of binding to insulin secretion regulation factor, based on the activity of the test substance to bind to the insulin secretion regulation factor, as a candidate substance for use in a drug for treating or preventing diabetes mellitus, said method comprising the steps of: (a) preparing, as a factor that negatively regulates insulin secretion, the following protein: (i) a protein comprising an amino acid sequence represented by SEQ ID NO: 2 or SEQ ID NO: 4; or (ii) a protein comprising an amino acid sequence having at least 90% sequence identity with the amino acid sequence represented by SEQ ID NO: 2 or SEQ ID NO: 4; (b) culturing cells which forcibly express the protein prepared in step (a); (c) bringing the test substance into contact with the protein prepared in step (a), in the cultured cells of step (b); and (d) selecting the test substance that bound to the protein as a candidate substance for use in a drug for treating or preventing diabetes mellitus. (a) preparing, as a factor that negatively regulates insulin secretion, the following protein: (i) a protein comprising an amino acid sequence represented by SEQ ID NO: 2 or SEQ ID NO: 4; or (ii) a protein comprising an amino acid sequence having at least 90% sequence identity with the amino acid sequence represented by SEQ ID NO: 2 or SEQ ID NO: 4; (i) a protein comprising an amino acid sequence represented by SEQ ID NO: 2 or SEQ ID NO: 4; or (ii) a protein comprising an amino acid sequence having at least 90% sequence identity with the amino acid sequence represented by SEQ ID NO: 2 or SEQ ID NO: 4; (b) culturing cells which forcibly express the protein prepared in step (a); (c) bringing the test substance into contact with the protein prepared in step (a), in the cultured cells of step (b); and (d) selecting the test substance that bound to the protein as a candidate substance for use in a drug for treating or preventing diabetes mellitus.
A method, comprising: when a terminal and a network device need cross-carrier scheduling, receiving, by the terminal, downlink control information from the network device in a first transmission time interval of a scheduling cell, wherein the downlink control information indicates radio resource allocation information in K consecutive second transmission time intervals of a scheduled cell, and K is an integer greater than or equal to 2; performing, by the terminal, communication with the network device according to the downlink control information wherein the first transmission time interval is K times as large as the second transmission time interval. when a terminal and a network device need cross-carrier scheduling, receiving, by the terminal, downlink control information from the network device in a first transmission time interval of a scheduling cell, wherein the downlink control information indicates radio resource allocation information in K consecutive second transmission time intervals of a scheduled cell, and K is an integer greater than or equal to 2; performing, by the terminal, communication with the network device according to the downlink control information wherein the first transmission time interval is K times as large as the second transmission time interval.
A layered-double-hydroxide-containing composite material comprising: a porous substrate; and a functional layer on and/or in the porous substrate, the functional layer containing a double hydroxide represented by general formula M 2+ 1-x M 3+ x 2 A n- x/n ·mH 2 O, where M 2+ represents a divalent cation, M 3+ represents a trivalent cation, A n- represents an n-valent anion, n represents an integer not less than 1, x represents a value of 0.1 to 0.4, and m represents any real number, and the functional layer further containing sulfur at the interface between the functional layer and the porous substrate and in the vicinity of the interface, wherein the sulfur content at the interface between the functional layer and the porous substrate and in the vicinity of the interface is 0.01 atom% or more. a porous substrate; and a functional layer on and/or in the porous substrate, the functional layer containing a double hydroxide represented by general formula M 2+ 1-x M 3+ x 2 A n- x/n ·mH 2 O, where M 2+ represents a divalent cation, M 3+ represents a trivalent cation, A n- represents an n-valent anion, n represents an integer not less than 1, x represents a value of 0.1 to 0.4, and m represents any real number, and the functional layer further containing sulfur at the interface between the functional layer and the porous substrate and in the vicinity of the interface, wherein the sulfur content at the interface between the functional layer and the porous substrate and in the vicinity of the interface is 0.01 atom% or more.
An NFC-enabled device comprising a host, an NFC interface and an RF transceiver configured to emit a first RF field to power-up one or more in-range RF barcodes (16, 60), which is a tag adapted to repeatedly transmit its unique identification data at a specific interval, as soon as it receives enough power from the reader's field to operate, and continues to do so as long as it is powered, the NFC-enabled device being configured to detect the presence of an RF barcode (16, 60) upon powering it up and being configured to read data (48, 62) from the one or more detected, in-range RF barcodes (16, 60), characterised by the NFC-enabled device being adapted to periodically emit the first RF field and being configured to transmit only changes in the read data (48, 62) from the or each RF barcode (16, 60) to the host.
A modified resin system for liquid resin infusion, comprising: at least one base resin; an amount of particles within a predetermined range in a carrier resin; and a thermoplastic material, wherein the base resin, the particles and the thermoplastic material are combined to form a modified resin system, the thermoplastic material is present in a net weight of less than 7 % of the total weight of the modified resin system, and the modified resin has an average viscosity of less than 500 mPa·s [5 Poise] at a temperature of less than 180 °C, and wherein, the particle size is between 50 nm and 800 nm. at least one base resin; an amount of particles within a predetermined range in a carrier resin; and a thermoplastic material, wherein the base resin, the particles and the thermoplastic material are combined to form a modified resin system, the thermoplastic material is present in a net weight of less than 7 % of the total weight of the modified resin system, and the modified resin has an average viscosity of less than 500 mPa·s [5 Poise] at a temperature of less than 180 °C, and wherein, the particle size is between 50 nm and 800 nm.
Process for the production of granulated seed comprising seed kernels coated with a coating layer, the process comprising the following steps: a) providing seed kernels, b) applying a binder to the seed kernels, giving rise to seed kernels coated with a binder, c) applying a coating composition comprising silica to the seed kernels coated with binder, giving rise to seed kernels coated with a coating layer, characterized in that the silica is a fumed or precipitated silica and has a BET surface area in accordance with ISO 9277 of from 20 to 400 m 2 /g and a d50 particle size according to ISO 13302-1 of from 5 to 130 μm and a pore maximum according to DIN 66134 of from 30 to 60 nm, and such an amount of silica is added to the coating composition(s) to be applied that the coating layer comprises 10 to 70% by weight of silica. a) providing seed kernels, b) applying a binder to the seed kernels, giving rise to seed kernels coated with a binder, c) applying a coating composition comprising silica to the seed kernels coated with binder, giving rise to seed kernels coated with a coating layer, characterized in that the silica is a fumed or precipitated silica and has a BET surface area in accordance with ISO 9277 of from 20 to 400 m 2 /g and a d50 particle size according to ISO 13302-1 of from 5 to 130 μm and a pore maximum according to DIN 66134 of from 30 to 60 nm, and such an amount of silica is added to the coating composition(s) to be applied that the coating layer comprises 10 to 70% by weight of silica.
A method for measuring and controlling a magnetic signature of a ship using at least one drone provided with at least one magnetic sensor, this method being characterized in that it comprises the following steps, - obtaining a plurality of magnetic measurements and associated positions, the obtained magnetic measurements further being associated with a heading of the ship; - modelling magnetization of the ship as a function of the obtained magnetic measurements, associated positions and at least one heading of the ship; - estimating at least one magnetic field according to the modelling of the magnetization of the ship and of at least one navigation parameter of the ship; and - controlling a magnetic signature reduction system of the ship as a function of said at least one estimated magnetic field, wherein the at least one drone is an aerial drone. - obtaining a plurality of magnetic measurements and associated positions, the obtained magnetic measurements further being associated with a heading of the ship; - modelling magnetization of the ship as a function of the obtained magnetic measurements, associated positions and at least one heading of the ship; - estimating at least one magnetic field according to the modelling of the magnetization of the ship and of at least one navigation parameter of the ship; and - controlling a magnetic signature reduction system of the ship as a function of said at least one estimated magnetic field, wherein the at least one drone is an aerial drone.