mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device comprising: a substrate; a plurality of light emitting elements mounted on the substrate; a plurality of wavelength conversion members, each containing phosphor particles and being disposed on a respective one of the light emitting elements; and a plurality of light reflecting members disposed between adjacent ones of the wavelength conversion members to reflect light emitted from the light emitting elements; wherein the wavelength conversion members and the light reflecting members are included in a collective body, wherein the collective body has an upper surface, characterized in that: the upper surface is configured with the phosphor members and the light reflective members and is a curved surface having a concave shape, wherein the distance between the upper surface of the substrate and the upper surface of the collective body becomes shorter towards the central portion in one direction of the light emitting device and longer towards both end portions in the same direction. a substrate; a plurality of light emitting elements mounted on the substrate; a plurality of wavelength conversion members, each containing phosphor particles and being disposed on a respective one of the light emitting elements; and a plurality of light reflecting members disposed between adjacent ones of the wavelength conversion members to reflect light emitted from the light emitting elements; wherein the wavelength conversion members and the light reflecting members are included in a collective body, wherein the collective body has an upper surface, characterized in that: the upper surface is configured with the phosphor members and the light reflective members and is a curved surface having a concave shape, wherein the distance between the upper surface of the substrate and the upper surface of the collective body becomes shorter towards the central portion in one direction of the light emitting device and longer towards both end portions in the same direction.
A computer-executable method, comprising: displaying, by a client device, a user interface, wherein the user interface includes a menu item associated with forced reminders; in response to a user selecting the menu item, displaying a forced-reminder user interface, wherein the forced-reminder user interface includes a content display area configured to display one or more forced-reminder messages; and in response to the user entering a command in the forced-reminder user interface, displaying a forced-reminder-message-generation user interface, wherein the forced-reminder-message-generation user interface includes an input control area, wherein the input control area includes a communication-channel input control for allowing the user to specify a communication channel for delivering the generated forced-reminder message associated with a sent message sent via a first communication channel, and wherein the specified communication channel is different from the first communication channel. displaying, by a client device, a user interface, wherein the user interface includes a menu item associated with forced reminders; in response to a user selecting the menu item, displaying a forced-reminder user interface, wherein the forced-reminder user interface includes a content display area configured to display one or more forced-reminder messages; and in response to the user entering a command in the forced-reminder user interface, displaying a forced-reminder-message-generation user interface, wherein the forced-reminder-message-generation user interface includes an input control area, wherein the input control area includes a communication-channel input control for allowing the user to specify a communication channel for delivering the generated forced-reminder message associated with a sent message sent via a first communication channel, and wherein the specified communication channel is different from the first communication channel.
A method of producing a modified non-ribosomal peptide from cyanobacteria, comprising the steps of: a) growing a non-ribosomal peptide producing cyanobacteria strain in culture media, b) adding one or more modified substrates to said culture, and c) growing the strain in the presence of said modified substrates, d) wherein the modified substrate is a modified amino acid, which comprises an anchor group directly accessible or transformable for use in conjugation chemistry incl. click chemistry, for the attachment of a targeting moiety or a label. a) growing a non-ribosomal peptide producing cyanobacteria strain in culture media, b) adding one or more modified substrates to said culture, and c) growing the strain in the presence of said modified substrates, d) wherein the modified substrate is a modified amino acid, which comprises an anchor group directly accessible or transformable for use in conjugation chemistry incl. click chemistry, for the attachment of a targeting moiety or a label.
Support bar for handicapped persons for use in sanitary modules, having a swivel joint which is movable between two end positions thereof, said joint having a curved guide which extends over 90° and a stop (25, 26) which delimits the swivelled-out operative position of, and acts as a support for, the support bar which can be moved from a vertical rest position into a horizontal operative position thereof and vice versa, with a force acting on said support bar that is applied by a mechanical energy storing device, said force being approximately uniform between the rest and active positions of the support bar and acting in the direction of the active position of the support bar, with the swivel joint being mounted between two support plates (18, 19) that are attached to a base plate, and being spaced from said base plate, which swivel joint features a circular opening that extends over 90° and forms part of the curved guide, and is mounted so as to be movable about a load-bearing shaft, with a bolt extending through said opening as part of the curved guide for limiting swivel movements characterized in that the swivel joint is in the form of a circular disk, and that the shaft on which the disk is mounted, the bolt which forms part of the curved guide as well as ball catches (18, 19) which audibly and perceptibly define the rest and active positions of the circular disk of the swivel joint are mounted on said support plates (18, 19).
A thermal spraying process for producing a protective layer in the plasma powder spraying process on metallic walls exposed to hot gases, in particular flue gases, wherein a plasma powder spraying device is provided with a cathode and with an anode and a laser jet system, wherein coating material impacting on the metallic wall is bonded by means of laser jets (11, 12) of the laser jet system, thereby forming a diffusive bond of the coating material with the base material of the metallic wall, characterised by at least the steps cleaning of the metallic walls; causing a plasma gas inside the plasma powder spraying device to rotate about the central longitudinal axis of the plasma powder spraying device, whereby a plasma gas jet of the plasma powder spraying device comprises at least one combined bore, which is formed from two partial bores (16, 17) introduced into one another, which partial bores have, at an outer circumference of the plasma gas nozzle, a common starting point, from which a partial bore is arranged with its central axis (y) at an angle to the central axis (x) of the other partial bore, so that plasma gas is introduced tangentially to the central longitudinal axis of the plasma powder spraying device into the anode of the plasma powder spraying device, wherein the plasma gas reaches an electric arc rotating about the central longitudinal axis of the plasma powder spraying device, wherein the electric arc is caused to rotate with its electric arc roots on the one hand at the anode and on the other hand at on the cathode corresponding to the rotation of the plasma gas; Internal feeding of the coating material as a powder simultaneously through two inner feed openings (24, 26) introduced into the anode, which inner feed openings (24, 26) are arranged with their mouth openings lying opposite one another, wherein two powder jets (4, 6) are generated; and heating of the coating material in the respective plasma jet, wherein however the powder is not molten; wherein each powder jet (4, 6) is formed from a different coating material and is processed with a respectively assigned laser jet (11, 12) for forming the diffusive bond, wherein one of the powder jets (4, 6) leaves the plasma powder spraying device concentrically relative to its central axis, wherein the other powder jet (4, 6) leaves the plasma spraying device deflected with respect to the central axis of the plasma spraying device.
Telescopic spring fork stanchion (1, 43), having an inner tube and an outer tube and a damping assembly as well as a spring assembly, which is arranged inside a first chamber formed in the inner tube or outer tube and is supported by a second chamber formed by the damping assembly, and the telescopic spring fork stanchion (1, 43) is formed to receive a damping fluid, wherein the damping assembly includes a piston with an upper and a lower piston surface (10; 11) that is supported on a piston rod and the piston is moveable inside a damping tube that is arranged largely concentrically to the inner tube and the damping tube is surrounded by a ring-shaped chamber that is arranged largely concentrically to the damping tube and, between the inner tube and the outer tube, a gap space is formed and a sliding sleeve that radially surrounds the inner tube is provided, and the telescopic spring fork stanchion (1, 43) has a sealing arrangement that radially surrounds the inner tube and that has at least one sealing means that is supported on an outer peripheral surface of the inner tube, and a receiving chamber for receiving damping fluid is provided between the sealing arrangement and the sliding sleeve, and the telescopic spring fork stanchion (1, 43) has at least one fluid duct between the receiving chamber and a receiving space that is provided on the telescopic spring fork stanchion and the fluid duct is formed for the outflow of damping fluid out of the receiving chamber into the receiving space, characterised in that the at least one fluid duct is formed in the shape of a groove that extends between the receiving chamber and the receiving space and that is formed in the shape of a coil that extends spirally around a section of a longitudinal central axis of the telescopic spring fork stanchion on an inner peripheral surface of the outer tube and/or an outer peripheral surface of the sliding sleeve.
An optical lens comprising: an object-side surface including an atoric surface element; and an eyeball-side surface including an element that cancels a surface power shift produced by the atoric surface element, a surface power shift being the difference in surface power caused by the different power factors along the horizontal and vertical directions due to the atoric surface element, wherein the atoric surface elements of the object-side and eyeball-side surfaces are not intended to correct astigmatism, characterized in that the atoric surface element causes horizontal surface power at a fitting point to be greater than vertical surface power at the fitting point and causes a difference between the horizontal surface power and the vertical surface power to decrease along a horizontal reference line passing through the fitting point in a direction from the fitting point toward a periphery of the optical lens or causes a sign of the difference between the horizontal surface power and the vertical surface power to change along the horizontal reference line, the surface power of the object-side surface along the horizontal reference line being bilaterally symmetrical with respect to the fitting point. an object-side surface including an atoric surface element; and an eyeball-side surface including an element that cancels a surface power shift produced by the atoric surface element, a surface power shift being the difference in surface power caused by the different power factors along the horizontal and vertical directions due to the atoric surface element, wherein the atoric surface elements of the object-side and eyeball-side surfaces are not intended to correct astigmatism, characterized in that the atoric surface element causes horizontal surface power at a fitting point to be greater than vertical surface power at the fitting point and causes a difference between the horizontal surface power and the vertical surface power to decrease along a horizontal reference line passing through the fitting point in a direction from the fitting point toward a periphery of the optical lens or causes a sign of the difference between the horizontal surface power and the vertical surface power to change along the horizontal reference line, the surface power of the object-side surface along the horizontal reference line being bilaterally symmetrical with respect to the fitting point.
A lip cosmetic comprising the following components (a) to (d): (a) 4.5 to 35 mass % of glyceryl monoisostearate, relative to the total amount of the cosmetic; (b) 20 to 80 mass % of one or more kinds of methyl phenyl silicones that do not separate out when mixed with (a) at 90 oC and separate out when mixed with (a) at 25 oC, relative to the total amount of the cosmetic, wherein said one or more kinds of methyl phenyl silicones comprise one or more of trimethyl pentaphenyl trisiloxane, diphenyl dimethicone, diphenylsiloxyphenyl trimethicone and phenyl trimethicone; (c) 5 mass % or more of water and/or glycerin, relative to the component (a), and 24 mass % or less, relative to the total amount of the cosmetic; and (d) 4 to 10 mass % of a wax, relative to the total amount of the cosmetic, wherein glyceryl diisostearate and glyceryl triisostearate are not contained or the sum of the blending quantities of them is 10 mass % or less relative to the total amount of the cosmetic, and wherein 50 mass % or more of trimethyl pentaphenyl trisiloxane is contained in the component (b). (a) 4.5 to 35 mass % of glyceryl monoisostearate, relative to the total amount of the cosmetic; (b) 20 to 80 mass % of one or more kinds of methyl phenyl silicones that do not separate out when mixed with (a) at 90 oC and separate out when mixed with (a) at 25 oC, relative to the total amount of the cosmetic, wherein said one or more kinds of methyl phenyl silicones comprise one or more of trimethyl pentaphenyl trisiloxane, diphenyl dimethicone, diphenylsiloxyphenyl trimethicone and phenyl trimethicone; (c) 5 mass % or more of water and/or glycerin, relative to the component (a), and 24 mass % or less, relative to the total amount of the cosmetic; and (d) 4 to 10 mass % of a wax, relative to the total amount of the cosmetic,
A device for carrying out an assay to detect a target nucleic acid in a sample, said device comprising (i) a first well in which a nucleic acid amplification reaction of said target nucleic acid may be effected; (ii) a first channel extending from said first well; (iii) a lateral flow assay device; and (iv) a diluent well containing diluent and connected to the first well, by means of a second channel, wherein the diluent well comprises a sealed flexible pouch containing diluent, the diluent well comprising piercing means arranged to open the flexible pouch when pressure is applied to the flexible pouch; wherein the first well is of smaller volume than the volume of the diluent well; the lateral flow assay device is arranged to receive sample from said first channel on a bibulous membrane thereof, wherein said membrane contains elements that are able to detect said target nucleic acid; and the second channel is arranged such that diluent when contained in the diluent well may be transferred to the first well. (i) a first well in which a nucleic acid amplification reaction of said target nucleic acid may be effected; (ii) a first channel extending from said first well; (iii) a lateral flow assay device; and (iv) a diluent well containing diluent and connected to the first well, by means of a second channel, wherein the diluent well comprises a sealed flexible pouch containing diluent, the diluent well comprising piercing means arranged to open the flexible pouch when pressure is applied to the flexible pouch;
Layered nonwoven textile containing - a first layer of filaments, which contains endless filaments containing a first carrier polymer and a first binding polymer, which forms at least a part of surface of said endless filaments and which has a melting temperature at least 5 °C lower than the first carrier polymer, wherein the first layer of filaments contains mutually spaced bonding points, which interconnect the filaments and are formed by the first binding polymer, - a second layer of filaments, which contains filaments containing a carrier material, the stiffness of which is lower than the stiffness of the first carrier polymer, when the stiffness is measured as tensile elasticity modulus CSN EN ISO 527-1 and when the stiffness is measured as the flexural elasticity modulus using norm ISO 178:2010, and a second binding polymer, which has a melting temperature at least 5 °C, preferably at least 10 °C, lower than the carrier material and the first carrier polymer, wherein the second layer of filaments contains mutually spaced bonding points, which interconnect the filaments of the second layer and are formed by the second binding polymer, wherein essentially every intersection of filaments forms a bonding point and wherein a median spacing distance between mutually adjacent bonding points in the first layer of filaments is less than or equal to 8 mm, and/or a median spacing distance between mutually adjacent bonding points in the second layer is less than or equal to 8 mm. - a first layer of filaments, which contains endless filaments containing a first carrier polymer and a first binding polymer, which forms at least a part of surface of said endless filaments and which has a melting temperature at least 5 °C lower than the first carrier polymer, wherein the first layer of filaments contains mutually spaced bonding points, which interconnect the filaments and are formed by the first binding polymer, - a second layer of filaments, which contains filaments containing a carrier material, the stiffness of which is lower than the stiffness of the first carrier polymer, when the stiffness is measured as tensile elasticity modulus CSN EN ISO 527-1 and when the stiffness is measured as the flexural elasticity modulus using norm ISO 178:2010, and a second binding polymer, which has a melting temperature at least 5 °C, preferably at least 10 °C, lower than the carrier material and the first carrier polymer, wherein the second layer of filaments contains mutually spaced bonding points, which interconnect the filaments of the second layer and are formed by the second binding polymer, wherein essentially every intersection of filaments forms a bonding point and wherein a median spacing distance between mutually adjacent bonding points in the first layer of filaments is less than or equal to 8 mm, and/or a median spacing distance between mutually adjacent bonding points in the second layer is less than or equal to 8 mm.
A computer-implemented method for monitoring and/or controlling a biopharmaceutical process, the method comprising: determining, by one or more processors, a query point associated with scanning of the biopharmaceutical process by a spectroscopy system (106, 108); querying, by the one or more processors, an observation database containing a plurality of observation data sets associated with past observations of biopharmaceutical processes, wherein each of the observation data sets includes spectral data and a corresponding actual analytical measurement, and wherein querying the observation database includes selecting as training data, from among the plurality of observation data sets, observation data sets that satisfy one or more relevancy criteria with respect to the query point; calibrating, by the one or more processors and using the selected training data, a local model specific to the biopharmaceutical process, the local model being a Gaussian process machine-learning model trained to predict analytical measurements based on spectral data inputs; predicting, by the one or more processors, an analytical measurement of the biopharmaceutical process, wherein predicting the analytical measurement of the biopharmaceutical process includes using the local model to analyze spectral data that the spectroscopy system generated when scanning the biopharmaceutical process; and using the local model to determine a confidence indicator associated with the predicted analytical measurement of the biopharmaceutical process. determining, by one or more processors, a query point associated with scanning of the biopharmaceutical process by a spectroscopy system (106, 108); querying, by the one or more processors, an observation database containing a plurality of observation data sets associated with past observations of biopharmaceutical processes, wherein each of the observation data sets includes spectral data and a corresponding actual analytical measurement, and wherein querying the observation database includes selecting as training data, from among the plurality of observation data sets, observation data sets that satisfy one or more relevancy criteria with respect to the query point; calibrating, by the one or more processors and using the selected training data, a local model specific to the biopharmaceutical process, the local model being a Gaussian process machine-learning model trained to predict analytical measurements based on spectral data inputs; predicting, by the one or more processors, an analytical measurement of the biopharmaceutical process, wherein predicting the analytical measurement of the biopharmaceutical process includes using the local model to analyze spectral data that the spectroscopy system generated when scanning the biopharmaceutical process; and using the local model to determine a confidence indicator associated with the predicted analytical measurement of the biopharmaceutical process.
Method for transferring a thin film onto a carrier substrate, comprising the following steps: - preparing a carrier substrate by means of a preparation process comprising providing a base substrate having, on a main face, a charge-trapping layer and forming a dielectric layer having a thickness greater than 200 nm on the charge-trapping layer, the formation of the dielectric layer simultaneously implementing the deposition and ion sputtering of the dielectric layer; - joining, by molecular bonding and without preparing the free face of the dielectric layer by polishing, a donor substrate to the dielectric layer of the carrier substrate, the donor substrate having a fragile plane defining the thin film; - splitting the donor substrate at the fragile plane to release the thin film and transfer it to the carrier substrate. - preparing a carrier substrate by means of a preparation process comprising providing a base substrate having, on a main face, a charge-trapping layer and forming a dielectric layer having a thickness greater than 200 nm on the charge-trapping layer, the formation of the dielectric layer simultaneously implementing the deposition and ion sputtering of the dielectric layer; - joining, by molecular bonding and without preparing the free face of the dielectric layer by polishing, a donor substrate to the dielectric layer of the carrier substrate, the donor substrate having a fragile plane defining the thin film; - splitting the donor substrate at the fragile plane to release the thin film and transfer it to the carrier substrate.