mhurhangee/ep-ind-claims huggingface dataset:
An as-cast product or a wrought product manufactured by rolling or forging processes or combination thereof, with a gauge of at least 102 mm (4 inches), said product comprising an aluminum alloy, consisting of: from 6.2 wt. % to 6.5 wt. % Zn; from 1 wt. % to 2 wt. % Mg, wherein Mg is present in an amount from (0.2 x Zn - 0.1) wt. % to (0.2 x Zn + 0.1) wt. %; less than 0.3 wt.% copper; less than 0.1 wt.% manganese; at least one intermetallic dispersoid forming element selected from the group consisting of: Zr and Ti with an aggregate content of from 0.06 wt.% to 0.3 wt.%; and balance aluminum and inevitable impurities, said as-cast product or wrought product being obtained by a method comprising. - providing said alloy, - forming the product from the alloy, - homogenizing the product, at a temperature range of 437.8 °C to 526.7 °C (820 °F to 980 °F); - cooling the product in a manner to avoid rigorous quenching and to avoid reaching high internal residual stresses; and - artificially age hardening the product, at a temperature range of 115.6 °C to 160.0 °C (240 °F to 320°F). from 6.2 wt. % to 6.5 wt. % Zn; from 1 wt. % to 2 wt. % Mg, wherein Mg is present in an amount from (0.2 x Zn - 0.1) wt. % to (0.2 x Zn + 0.1) wt. %; less than 0.3 wt.% copper; less than 0.1 wt.% manganese; at least one intermetallic dispersoid forming element selected from the group consisting of: Zr and Ti with an aggregate content of from 0.06 wt.% to 0.3 wt.%; and balance aluminum and inevitable impurities, - providing said alloy, - forming the product from the alloy, - homogenizing the product, at a temperature range of 437.8 °C to 526.7 °C (820 °F to 980 °F); - cooling the product in a manner to avoid rigorous quenching and to avoid reaching high internal residual stresses; and - artificially age hardening the product, at a temperature range of 115.6 °C to 160.0 °C (240 °F to 320°F).
A magnetic resonance imaging system, the magnetic resonance imaging system comprising: - an infrared camera system for monitoring a subject when undergoing an examination while positioned in an examination zone of the magnetic resonance imaging system, the infrared camera system comprising an infrared camera, and - a coating on at least one wall of a room housing the magnetic resonance imaging system, and/or on an interior wall of a magnet assembly around the examination zone and/or on auxiliary equipment of the magnetic resonance system for use inside the examination zone, wherein said infrared camera is adapted to operate in an infrared wavelength range that corresponds to, or substantially overlaps with, the range over which said coating absorbs and/or diffusely reflects infrared light, characterized in that said coating is adapted to absorb and/or diffusely reflect infrared light, so as to avoid spurious reflections of infrared light into a field of view of the infrared camera and/or to provide diffuse auxiliary lighting. - an infrared camera system for monitoring a subject when undergoing an examination while positioned in an examination zone of the magnetic resonance imaging system, the infrared camera system comprising an infrared camera, and - a coating on at least one wall of a room housing the magnetic resonance imaging system, and/or on an interior wall of a magnet assembly around the examination zone and/or on auxiliary equipment of the magnetic resonance system for use inside the examination zone,
A method of producing a heterologous membrane protein comprising a transmembrane domain, comprising: providing a culture comprising a recombinant microalgal host cell comprising a heterologous nucleic acid encoding a heterologous membrane protein comprising a transmembrane domain; culturing the recombinant microalgal host cell under conditions sufficient to produce a microalgal extracellular body comprising the heterologous membrane protein comprising a transmembrane domain; and recovering the microalgal extracellular body comprising the heterologous membrane protein comprising a transmembrane domain from the culture medium in which the microalgal host cell is grown; wherein the extracellular body is discontinuous with a plasma membrane of the host cell. providing a culture comprising a recombinant microalgal host cell comprising a heterologous nucleic acid encoding a heterologous membrane protein comprising a transmembrane domain; culturing the recombinant microalgal host cell under conditions sufficient to produce a microalgal extracellular body comprising the heterologous membrane protein comprising a transmembrane domain; and recovering the microalgal extracellular body comprising the heterologous membrane protein comprising a transmembrane domain from the culture medium in which the microalgal host cell is grown; wherein the extracellular body is discontinuous with a plasma membrane of the host cell.
Method for 3D printing mineral wool fiber-containing products of predetermined three-dimensional geometry by successive addition of material according to the additive shaping principle from 3D model data, involving performing each of the following method steps: • forming a shapeable mixture comprising mineral wool fibers and at least one binder mixed in a shapeable foam comprising water as a base, at least one foaming agent and gas as its components; • applying the shapeable mixture comprising mineral wool fibers and at least one binder mixed in said shapeable foam via a nozzle into the application region layer-by-layer; • curing or drying at least one of the layers to form a mineral wool fiber-containing intermediate product of predetermined shape by curing or drying the at least one binder of said shapeable mixture, wherein the method further comprises the step of causing the shapeable foam to at least partly, preferably by at least 80 %, more preferably by at least 90 %, and most preferably by at least 98 % by weight thereof disappear from the mineral wool fiber-containing intermediate product, the step being performed thermally by heating the mineral wool fiber-containing intermediate product to a temperature high enough for eliminating the foam and its components by vaporization, burning, and/or decomposition or any combinations thereof, but low enough to avoid decomposition of the at least one binder. • forming a shapeable mixture comprising mineral wool fibers and at least one binder mixed in a shapeable foam comprising water as a base, at least one foaming agent and gas as its components; • applying the shapeable mixture comprising mineral wool fibers and at least one binder mixed in said shapeable foam via a nozzle into the application region layer-by-layer; • curing or drying at least one of the layers to form a mineral wool fiber-containing intermediate product of predetermined shape by curing or drying the at least one binder of said shapeable mixture,
Manifold for use in a fluid treatment unit for a fabric, cellulosic or other fibrous material, having at least one manifold (38, 40) for blowing the fluid onto the fabric, cellulosic or other fibrous material which is continuously guided past at least one manifold (38, 40), comprising a manifold housing; a port which is provided on one side of the manifold (38, 40); a nozzle plate having at least one outlet opening through which the fluid is blown onto the said fabric or cellulosic material; and a duct for guiding the fluid from the said port to the said nozzle plate, characterised by the fact that the said duct has a central feed channel which guides the fluid from the said port to a central area of the manifold (38, 40) as well as two distribution channels (48, 50) and at least one flow guide in the said central area to uniformly distribute the fluid across the said nozzle plate that extends on both sides of the central area and that are fed from the said central feed channel.
A method comprising: building a location profile, for a target mobile device, by collecting location information at the same time interval within each of a plurality of time cycles (220, 230), wherein building the location profile comprises comparing the collected location information for each of the time intervals with the collected location information for others of the time intervals within the plurality of time cycles (220, 230) and wherein the location profile is created during a learning phase (210, 230) and includes an expected location and an error range for each time interval of the collected location information; maintaining, in a storage module, the location profile of the target mobile device; receiving the current location of the target mobile device; verifying whether the current location deviates from the location profile; and if the current location deviates from the location profile, triggering a notification to an observer device, the notification including a distance value from the location profile. building a location profile, for a target mobile device, by collecting location information at the same time interval within each of a plurality of time cycles (220, 230), wherein building the location profile comprises comparing the collected location information for each of the time intervals with the collected location information for others of the time intervals within the plurality of time cycles (220, 230) and wherein the location profile is created during a learning phase (210, 230) and includes an expected location and an error range for each time interval of the collected location information; maintaining, in a storage module, the location profile of the target mobile device; receiving the current location of the target mobile device; verifying whether the current location deviates from the location profile; and if the current location deviates from the location profile, triggering a notification to an observer device, the notification including a distance value from the location profile.
A method of configuring a multi-cell precoding matrix for a multiple input multiple output, MIMO, operation in a wireless communication system in which a plurality of base stations participate in cooperative communication, the method comprising: generating, by cooperation of the plurality of base stations, the multi-cell precoding matrix using one or more single-cell precoding matrices, and using, by the plurality of base stations, the multi-cell precoding matrix, wherein coefficients to be multiplied by the single-cell precoding matrices satisfy a condition in which the product between a Hermitian transpose of a matrix of the multi-cell precoding matrix and the multi-cell precoding matrix is a unitary matrix. generating, by cooperation of the plurality of base stations, the multi-cell precoding matrix using one or more single-cell precoding matrices, and using, by the plurality of base stations, the multi-cell precoding matrix, wherein coefficients to be multiplied by the single-cell precoding matrices satisfy a condition in which the product between a Hermitian transpose of a matrix of the multi-cell precoding matrix and the multi-cell precoding matrix is a unitary matrix.
An exhaust gas purifying facility of a combustion engine, comprising: a combustion engine; a reducing device for feeding a reducing agent solution into an exhaust gas in an exhaust gas line of the combustion engine; and a generation device for generating the reducing agent solution from reducing agent powder, wherein the generation device includes: a storage-generation tank device having a storage-generation tank for storing the reducing agent powder and feeding a solvent to the reducing agent powder for dissolution, characterized in that the storage-generation tank device includes a densifying device for densifying the reducing agent solution generated in the storage-generation tank, and the densifying device includes: a generation density meter for measuring the density of the reducing agent solution; and a densifying line for returning the reducing agent solution generated in the storage-generation tank to the storage-generation tank to dissolve the reducing agent powder again. a combustion engine; a reducing device for feeding a reducing agent solution into an exhaust gas in an exhaust gas line of the combustion engine; and a generation device for generating the reducing agent solution from reducing agent powder, wherein the generation device includes: a storage-generation tank device having a storage-generation tank for storing the reducing agent powder and feeding a solvent to the reducing agent powder for dissolution, characterized in that the storage-generation tank device includes a densifying device for densifying the reducing agent solution generated in the storage-generation tank, and the densifying device includes: a generation density meter for measuring the density of the reducing agent solution; and a densifying line for returning the reducing agent solution generated in the storage-generation tank to the storage-generation tank to dissolve the reducing agent powder again. a generation density meter for measuring the density of the reducing agent solution; and a densifying line for returning the reducing agent solution generated in the storage-generation tank to the storage-generation tank to dissolve the reducing agent powder again.
An information processing device comprising: a data processing unit configured to read high dynamic range image data from an MP4 file that stores data according to an MP4 format and output the HDR image data to a display unit, wherein the data processing unit acquires HDR image metadata as metadata regarding the HDR image data stored in the MP4 file, wherein the HDR image metadata comprises a maximum luminance level of the stored HDR image data and a maximum value of the frame average luminance of the stored HDR image data; determines whether executing a conversion process of an HDR image read from the MP4 file according to the acquired HDR image metadata and display function information of the display unit, and executes an output image generation process according to a determination result. a data processing unit configured to read high dynamic range image data from an MP4 file that stores data according to an MP4 format and output the HDR image data to a display unit, wherein the data processing unit acquires HDR image metadata as metadata regarding the HDR image data stored in the MP4 file, wherein the HDR image metadata comprises a maximum luminance level of the stored HDR image data and a maximum value of the frame average luminance of the stored HDR image data; determines whether executing a conversion process of an HDR image read from the MP4 file according to the acquired HDR image metadata and display function information of the display unit, and executes an output image generation process according to a determination result.
A package comprising at least one container unitized with a flexible carrier, the carrier comprising a flexible sheet of polymer material and an array of container receiving apertures arranged in transverse pairs formed in and extending across the flexible sheet, each container receiving aperture for receiving a container; wherein each container receiving aperture at rest is substantially rectangular; characterised in that the entire flexible sheet is formed of an extrusion of the polymer material, comprising a high pressure low density polyethylene polymer and a single-site catalyzed ethylene-alpha olefin plastomer; wherein at least one container receiving aperture, following application to the container, includes an aperture perimeter more than 50% greater than the aperture perimeter of the container receiving aperture at rest, such that the material approaches yield while maintaining a tight engagement with the container to provide a snug fit around the container, and wherein the container receiving apertures at rest comprise: a straight perimeter section extending longitudinally along an outer edge of each container receiving aperture; and an arcuate perimeter section extending longitudinally along an inner edge of each container receiving aperture; and further wherein each corner of each container receiving aperture includes a radiused transition between adjoining perimeter sections. a straight perimeter section extending longitudinally along an outer edge of each container receiving aperture; and an arcuate perimeter section extending longitudinally along an inner edge of each container receiving aperture; and further wherein each corner of each container receiving aperture includes a radiused transition between adjoining perimeter sections.
A tire comprising a rubber composition comprising at least: - more than 50 phr and up to 100 phr of a copolymer based on styrene and butadiene as a first diene elastomer; - 0 to less than 50 phr of a second diene elastomer which is different from the first diene elastomer; - between 20 and 120 phr, preferably between 25 and 105 phr, of a liquid plasticizer; - between 200 and 600 phr of metal particles having a density of between 4 and 20 g/cm 3 and a BET surface area of between 0.1 and 4.5 m 2 /g; and - less than 20 phr of a reinforcing filler having a density of less than 3 g/cm 3. - more than 50 phr and up to 100 phr of a copolymer based on styrene and butadiene as a first diene elastomer; - 0 to less than 50 phr of a second diene elastomer which is different from the first diene elastomer; - between 20 and 120 phr, preferably between 25 and 105 phr, of a liquid plasticizer; - between 200 and 600 phr of metal particles having a density of between 4 and 20 g/cm 3 and a BET surface area of between 0.1 and 4.5 m 2 /g; and - less than 20 phr of a reinforcing filler having a density of less than 3 g/cm 3.
A guide rail for blinds comprises two rail parts (5, 6), comprising a mounting rail as a base element and an insertion element, wherein the base element essentially has a groove shape having a base surface, a first leg having a first undercut, and a second leg for accommodating the insertion element and the insertion element is essentially L-shaped and is movably connectable to the second leg of the base element by the insertion element being insertable into the base element along its length from its end and being rotatable around its longitudinal axis between an open and a closed position in cooperation with the base element and forming a longitudinal opening (L, L') between the insertion element and the base element, which is wider in the open position than in the closed position, wherein the insertion element forms a second undercut on the longitudinal opening (L') of the grooved base element in the closed position, and the insertion element is lockable in the closed position with the base element, characterized in that the insertion element, inserted along its longitudinal axis into the base element, is non-detachably connected to the base element by means of a rotatable connection at the free end of the second leg of the grooved base element transversely to the longitudinal axis of the guide rail and the insertion element is rotatable outward with respect to the base element transversely to the longitudinal axis of the guide rail to close the guide rail into the closed position and the insertion element is rotatable inward into the base element transversely to the longitudinal axis of the guide rail to open the guide rail into the open position.
A modified release dosage form comprising 25-hydroxyvitamin D 2, 25-hydroxyvitamin D 3, or a combination thereof, for use in a method of treating secondary hyperparathyroidism, the method comprising orally administering to a human patient suffering from secondary hyperparathyroidism an effective amount of the dosage form, said administering being performed on a frequency in a range of every six weeks to every other day, wherein the effective amount is an amount that provides a rise in serum total 25-hydroxyvitamin D within the first 24 hours after said administering of at least 7 ng/ml and no greater than 30 ng/ml, as assayable using solid-phase extraction with high performance liquid chromatography with tandem mass spectrometry (LC-MS/MS) detection, wherein the effective amount is an amount that lowers the patient's serum intact parathyroid hormone (iPTH) level by at least 10% compared to baseline.
The use of a mixture of microcrystalline cellulose and sodium carboxymethyl cellulose as an agent for improvement of organoleptic properties of a pharmaceutical powder composition comprising sevelamer carbonate.
A production method of rare earth doped oxyhalide luminescent material containing metal particles, including the following steps: step 1: producing metal nanoparticles colloid; step 2: surface treating the metal nanoparticles by adding metal nanoparticles colloid to the polyvinylpyrrolidone solution; step 3: weighing rare earth oxide or rare earth oxalate and dissolving in dense nitric acid, heating and making superfluous nitric acid vaporized to form rare earth nitrate; step 4: adding mixed solution of water and ethanol in volume ratio of 1:3 to 8 and metal nanoparticles obtained in step 2 into step 3, stirring, adding citric acid monohydrate to make the mole ratio of citric acid to metal ion be 1 to 5:1, adding polyethylene glycol and superfluous ammonium halide successively, heating in water bath and stirring to form precursor colloid; step 5: obtaining dry colloid by drying the precursor in step 4, grinding dry colloid in powder, pre-calcinating on constant temperature, cooling, calcinating in the air or reduction atmosphere after grinding, cooling to obtain rare earth doped oxyhalide luminescent material containing metal particles. step 1: producing metal nanoparticles colloid; step 2: surface treating the metal nanoparticles by adding metal nanoparticles colloid to the polyvinylpyrrolidone solution; step 3: weighing rare earth oxide or rare earth oxalate and dissolving in dense nitric acid, heating and making superfluous nitric acid vaporized to form rare earth nitrate; step 4: adding mixed solution of water and ethanol in volume ratio of 1:3 to 8 and metal nanoparticles obtained in step 2 into step 3, stirring, adding citric acid monohydrate to make the mole ratio of citric acid to metal ion be 1 to 5:1, adding polyethylene glycol and superfluous ammonium halide successively, heating in water bath and stirring to form precursor colloid; step 5: obtaining dry colloid by drying the precursor in step 4, grinding dry colloid in powder, pre-calcinating on constant temperature, cooling, calcinating in the air or reduction atmosphere after grinding, cooling to obtain rare earth doped oxyhalide luminescent material containing metal particles.
A grooming tool for removing loose hair or fur, tangled hair or fur and/or matted hair or fur, comprising: (a) a handle; and (b) a head attached to the handle; the head having a plurality of curved blades for grooming which are adjustable in at least an extended position and a non-extended position; (i) wherein the curved blades are curved between 60-90°; and (ii) wherein a distance between the extended position and non-extended position ranges between 3-10 mm, characterized in that the curved blades can be used on hair or fur in the extended position and non-extended position. (a) a handle; and (b) a head attached to the handle; the head having a plurality of curved blades for grooming which are adjustable in at least an extended position and a non-extended position; (i) wherein the curved blades are curved between 60-90°; and (ii) wherein a distance between the extended position and non-extended position ranges between 3-10 mm, (i) wherein the curved blades are curved between 60-90°; and (ii) wherein a distance between the extended position and non-extended position ranges between 3-10 mm,