mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing CI S nano particles forming a light absorption layer of solar cells, the method comprising: dissolving at least one Group VI source selected from the group consisting of compounds comprising sulfur, selenium (Se), or a combination thereof, and an indium (In) salt in a solvent to prepare a first solution; heating the first solution for 1 to 4 hours at 130 to 170°C to react the group VI source and the indium (In) salt in the solution to form first precursor particles; dissolving a copper (Cu) salt in a solvent to prepare a second solution; mixing the second solution with the first solution after the reaction in which the first precursor is formed to manufacture a mixture; maintaining the mixture of the first solution and the second solution for 2 to 5 hours at 150 to 190°C; and purifying the synthesized CI S nano particles after synthesizing the CI S nano particles by reacting the mixture, wherein the synthesized CI S nano particles comprise copper (Cu) ions migrated to channels of amorphous first precursor particles. dissolving at least one Group VI source selected from the group consisting of compounds comprising sulfur, selenium (Se), or a combination thereof, and an indium (In) salt in a solvent to prepare a first solution; heating the first solution for 1 to 4 hours at 130 to 170°C to react the group VI source and the indium (In) salt in the solution to form first precursor particles; dissolving a copper (Cu) salt in a solvent to prepare a second solution; mixing the second solution with the first solution after the reaction in which the first precursor is formed to manufacture a mixture; maintaining the mixture of the first solution and the second solution for 2 to 5 hours at 150 to 190°C; and purifying the synthesized CI S nano particles after synthesizing the CI S nano particles by reacting the mixture, wherein the synthesized CI S nano particles comprise copper (Cu) ions migrated to channels of amorphous first precursor particles.
A method for producing a decorative wall tile in-situ on a building, wherein the method includes steps as follows: coating the surface of said building with a primer coat; and embedding and impressing a decorative wall tile mould with openings and which can be demoulded twice, into said primer coat before it loses plasticity, so as to get a first compound body and to flatten said first compound body; the decorative wall tile mould with openings comprising an outer mould layer and an inside mould layer; after curing the first compound body, coating it with an intermediate-coat thereon; before the intermediate-coat loses plasticity, removing the outer layer of the decorative wall tile mould and curing thereafter; thereby achieving a second compound body; coating the second compound body with a topcoat; removing the inside layer of the decorative wall tile mould, to get said decorative wall tile mould for in-situ production; wherein the inside layer comprises a bottom film with a first combinative force set between the bottom film and the primer coat; wherein the outer layer comprises a surface film which is set on the exterior surface of the decorative wall tile mould; and a self-adhesive glue section is present between the inside layer and the outer layer, which makes a second combinative force between the outer layer and the inside layer, and the second combinative force is less than the first combinative force; characterized in that the inside layer is a double coated membranes sheet comprising a bottom coating, a sheet and an insulation coating. coating the surface of said building with a primer coat; and embedding and impressing a decorative wall tile mould with openings and which can be demoulded twice, into said primer coat before it loses plasticity, so as to get a first compound body and to flatten said first compound body; the decorative wall tile mould with openings comprising an outer mould layer and an inside mould layer; after curing the first compound body, coating it with an intermediate-coat thereon; before the intermediate-coat loses plasticity, removing the outer layer of the decorative wall tile mould and curing thereafter; thereby achieving a second compound body; coating the second compound body with a topcoat; removing the inside layer of the decorative wall tile mould, to get said decorative wall tile mould for in-situ production; wherein the inside layer comprises a bottom film with a first combinative force set between the bottom film and the primer coat; wherein the outer layer comprises a surface film which is set on the exterior surface of the decorative wall tile mould; and a self-adhesive glue section is present between the inside layer and the outer layer, which makes a second combinative force between the outer layer and the inside layer, and the second combinative force is less than the first combinative force; characterized in that the inside layer is a double coated membranes sheet comprising a bottom coating, a sheet and an insulation coating.
A method of optimizing utilization of a wireless position sensor by receiving, by a controller of a wireless position sensor, output from a magnetic-field-dependent sensor of the wireless position sensor, the magnetic-field-dependent sensor configured to register the strength of a magnetic field of a magnet attached to a mechanical component, the registered strength corresponding to a position of the mechanical component along a directional path, the method characterized by: generating, by the controller, a comparison of the output to one or more predefined movement signatures; based on the comparison, determining, by the controller, whether to change an operating state of one or more components of the wireless position sensor. generating, by the controller, a comparison of the output to one or more predefined movement signatures; based on the comparison, determining, by the controller, whether to change an operating state of one or more components of the wireless position sensor.
Method for manufacturing a bioresorbable prosthetic porous knit comprising an arrangement of yarns of bioresorbable biocompatible material defining at least two sides for said knit, said knit being provided, on one of its sides, with barbs protruding outwards from said one side, said process comprising the following steps: - i) providing a warp knitting machine comprising one needle-bed comprising four guide-bars, namely guide-bar B1, guide-bar B2, guide-bar B3 and guide-bar B4, ii) knitting on said machine yarns of bioresorbable biocompatible material as follows: - Guide-bar B1 is unthreaded, - Guide-bars B2 and B3 are double threaded with yarns of bioresorbable biocompatible material, the knitting patterns followed by guide-bars B2 and B3 involving at least two needles and producing said arrangement of yarns defining said two sides of said knit, - Guide-bar B4 is threaded with a hot-melt monofilament yarn of bioresorbable biocompatible material, the knitting pattern followed by guide-bar B4 making stitches generating loops protruding outwards from said one side of said knit, iii) heat-setting the knit obtained at ii), iv) forming barbs by cutting the loops via melting. - i) providing a warp knitting machine comprising one needle-bed comprising four guide-bars, namely guide-bar B1, guide-bar B2, guide-bar B3 and guide-bar B4, ii) knitting on said machine yarns of bioresorbable biocompatible material as follows: - Guide-bar B1 is unthreaded, - Guide-bars B2 and B3 are double threaded with yarns of bioresorbable biocompatible material, the knitting patterns followed by guide-bars B2 and B3 involving at least two needles and producing said arrangement of yarns defining said two sides of said knit, - Guide-bar B4 is threaded with a hot-melt monofilament yarn of bioresorbable biocompatible material, the knitting pattern followed by guide-bar B4 making stitches generating loops protruding outwards from said one side of said knit, - Guide-bar B1 is unthreaded, - Guide-bars B2 and B3 are double threaded with yarns of bioresorbable biocompatible material, the knitting patterns followed by guide-bars B2 and B3 involving at least two needles and producing said arrangement of yarns defining said two sides of said knit, - Guide-bar B4 is threaded with a hot-melt monofilament yarn of bioresorbable biocompatible material, the knitting pattern followed by guide-bar B4 making stitches generating loops protruding outwards from said one side of said knit, iii) heat-setting the knit obtained at ii), iv) forming barbs by cutting the loops via melting.
A composition for oral consumption comprising a dispersion of lycopene in a plant matrix, which is obtainable according to process comprising the extraction of a plant-derived solid material containing lycopene with water at a pH from 1.5 to 4 to yield water insoluble residue containing hydrophilic compounds dispersed in a water-insoluble plant matrix.
A pulse wave measurement device comprising: a pressure pulse wave sensor which includes: a semiconductor substrate on which a pressure-sensitive element and a first terminal portion (10B, 10C) that is electrically connected to the pressure-sensitive element are formed; and a rigid substrate which includes a second terminal portion (11B, 11C) that is electrically connected to the first terminal portion (10B, 10C), and to which the semiconductor substrate is fixed; a flexible substrate which includes a wiring (16a, 16c) that is electrically connected to the second terminal portion (11B, 11C), and to which the rigid substrate of the pressure pulse wave sensor is fixed; and a protective layer which is made from an insulating material, and which covers and protects the semiconductor substrate of the pressure pulse wave sensor, wherein the flexible substrate includes: a connector which is connected to the wiring (16a, 16c); and a terminal (G1, G2) which is held at a potential equal to a potential of the semiconductor substrate, and which is outwardly exposed in a position different from the connector, the outwardly exposed terminal (G1, G2) is in contact with the protective layer, and a pressure-sensitive surface of the semiconductor substrate on which the pressure-sensitive element is formed is arranged to be pressed through the protective layer against a body surface of a living body, characterized in that the outwardly exposed terminal (G1, G2) is a portion of an exposed part of the wiring (16a, 16c) connected to the connector. a pressure pulse wave sensor which includes: a semiconductor substrate on which a pressure-sensitive element and a first terminal portion (10B, 10C) that is electrically connected to the pressure-sensitive element are formed; and a rigid substrate which includes a second terminal portion (11B, 11C) that is electrically connected to the first terminal portion (10B, 10C), and to which the semiconductor substrate is fixed; a flexible substrate which includes a wiring (16a, 16c) that is electrically connected to the second terminal portion (11B, 11C), and to which the rigid substrate of the pressure pulse wave sensor is fixed; and a protective layer which is made from an insulating material, and which covers and protects the semiconductor substrate of the pressure pulse wave sensor, wherein the flexible substrate includes: a connector which is connected to the wiring (16a, 16c); and a terminal (G1, G2) which is held at a potential equal to a potential of the semiconductor substrate, and which is outwardly exposed in a position different from the connector, the outwardly exposed terminal (G1, G2) is in contact with the protective layer, and a pressure-sensitive surface of the semiconductor substrate on which the pressure-sensitive element is formed is arranged to be pressed through the protective layer against a body surface of a living body, characterized in that the outwardly exposed terminal (G1, G2) is a portion of an exposed part of the wiring (16a, 16c) connected to the connector.
A wear plate for a grinding mill comprising: a body having a mill wall confronting surface; and a fastening arrangement comprising a nut retained within an open ended cavity disposed in the mill wall confronting surface and being arranged to threadingly receive a threaded end portion of an elongate coupling member which is in turn arranged to secure to the mill wall, wherein the nut has an adjustable pivotable orientation within the cavity for facilitating the threaded reception of the first threaded end of the elongate coupling member wherein when the nut is secured to the first threaded end of the elongate coupling member, the elongate coupling member is arranged to pivot by at least +/- 5 angle degrees with respect to the mill wall confronting surface. a body having a mill wall confronting surface; and a fastening arrangement comprising a nut retained within an open ended cavity disposed in the mill wall confronting surface and being arranged to threadingly receive a threaded end portion of an elongate coupling member which is in turn arranged to secure to the mill wall, wherein the nut has an adjustable pivotable orientation within the cavity for facilitating the threaded reception of the first threaded end of the elongate coupling member wherein when the nut is secured to the first threaded end of the elongate coupling member, the elongate coupling member is arranged to pivot by at least +/- 5 angle degrees with respect to the mill wall confronting surface.
A method of encoding video data, the method comprising: encoding, into a video bitstream, a syntax element for a unit of video data that indicates a number of padding bits, wherein the number of bits with which the syntax element is encoded into the video bitstream is different from the number of padding bits that is indicated by the syntax element; and encoding the unit of video data to the video bitstream without including the padding bits in the video bitstream. encoding, into a video bitstream, a syntax element for a unit of video data that indicates a number of padding bits, wherein the number of bits with which the syntax element is encoded into the video bitstream is different from the number of padding bits that is indicated by the syntax element; and encoding the unit of video data to the video bitstream without including the padding bits in the video bitstream.
A ventilation system intended to extract air from the inside of a building and to discharge it towards the outside thereof, said system comprising a joinery of the type including - an opening preferably including a transparent or translucent surface, - a frame formed by one or more uprights and/or crosspieces (4a, b), said frame including a through air passage extending from at least one air inlet area, closed by a grid, located on the inner face of the frame, to an air outlet area located on the outer face of the frame, the air inlet area corresponding to the place where the through air passage leads to the inner face of the extraction device, that is to say the face of the system which is in contact with the inside of the building, and - at least one air extraction axial turbine equipped with an electric motor, located in the air outlet area or in the through air passage, at a certain distance from the air inlet area, characterised by the fact that the rotation axis of the air extraction axial turbine, while being comprised in a plane substantially perpendicular to the plane of the window, is parallel to the plane of the air inlet area and does not cut the air inlet area, and by the fact that the minimum distance between the rotation centre of the air extraction axial turbine and the air inlet area is at least equal to the diameter of the air extraction axial turbine. - an opening preferably including a transparent or translucent surface, - a frame formed by one or more uprights and/or crosspieces (4a, b), said frame including a through air passage extending from at least one air inlet area, closed by a grid, located on the inner face of the frame, to an air outlet area located on the outer face of the frame, the air inlet area corresponding to the place where the through air passage leads to the inner face of the extraction device, that is to say the face of the system which is in contact with the inside of the building, and - at least one air extraction axial turbine equipped with an electric motor, located in the air outlet area or in the through air passage, at a certain distance from the air inlet area,
An equipment for ultrafast food freezing by liquid nitrogen comprising: a. a phases separator, b. a cryogenic valve to feed liquid nitrogen to the phases separator, c. a dispensing zone for liquid nitrogen, d. dispensing control means e. a transporter to carry the material to be frozen towards and from the dispensing zone of the equipment, f. a cold chamber comprising a first end at which the product to be frozen enters, and a second end at which the frozen product exits, and g. a vent for nitrogen gas to the atmosphere, wherein the liquid nitrogen is fed from a tank to the phases separator at atmospheric pressure trough the cryogenic valve, creating a liquid phase and a gas phase from the fed liquid nitrogen; the gas phase is vented to atmosphere; the transporter transporting the product to be frozen outside the dispensing zone and further into the cold chamber in which the remaining nitrogen around the product is vaporized to produce a cold atmosphere in the cold chamber; at the second end of the cold chamber, nitrogen gas is vented to atmosphere through the vent and the product exits from the equipment, characterized in that the liquid nitrogen is fed to and maintained in a vacuum isolated walls container under atmospheric pressure in the dispensing zone before it is dispensed on the product to be frozen; flow of liquid nitrogen from the vacuum isolated walls container to the product to be frozen is carried out through a plurality of nozzles by simple gravity effect and controlled by control means allowing dosing of a predetermined amount of liquid nitrogen to be dispensed; the nozzles located near the first end of the cold chamber to dispense liquid nitrogen directly on the product to be frozen, confined in its final packing, soon after the product enters the cold chambers. a. a phases separator, b. a cryogenic valve to feed liquid nitrogen to the phases separator, c. a dispensing zone for liquid nitrogen, d. dispensing control means e. a transporter to carry the material to be frozen towards and from the dispensing zone of the equipment, f. a cold chamber comprising a first end at which the product to be frozen enters, and a second end at which the frozen product exits, and g. a vent for nitrogen gas to the atmosphere,
A method of recovering acetone comprising: reacting phenol and acetone in the presence of a catalyst in a bisphenol A reactor to produce a bisphenol A stream comprising bisphenol A; separating the bisphenol A stream into a product bisphenol A stream and an extraction stream comprising an unreacted acetone; separating the extraction stream into an extraction top outlet stream and an extraction bottom outlet stream in an acetone extraction column; separating the extraction bottom outlet stream in an acetone stripper column in the presence of steam to form a stripper top outlet stream and a stripper bottom outlet stream comprising water; separating the extraction top outlet stream in a solvent recovery column to form a recovery top outlet stream and a recovery bottom outlet stream; separating one or both of the recovery top outlet stream and the stripper top outlet stream in a decanter to form an organic decanter stream and an aqueous decanter stream; forming a bisphenol A plant acetone recovery stream comprising at least a portion of one or more of the extraction top outlet stream, the stripper top outlet stream, the aqueous decanter stream, and the recovery top outlet stream; introducing the bisphenol A plant acetone recovery stream to a phenol purification plant, wherein the bisphenol A plant acetone recovery stream comprises methanol and a recovered acetone; and purifying the bisphenol A plant acetone recovery stream to form an acetone product stream. reacting phenol and acetone in the presence of a catalyst in a bisphenol A reactor to produce a bisphenol A stream comprising bisphenol A; separating the bisphenol A stream into a product bisphenol A stream and an extraction stream comprising an unreacted acetone; separating the extraction stream into an extraction top outlet stream and an extraction bottom outlet stream in an acetone extraction column; separating the extraction bottom outlet stream in an acetone stripper column in the presence of steam to form a stripper top outlet stream and a stripper bottom outlet stream comprising water; separating the extraction top outlet stream in a solvent recovery column to form a recovery top outlet stream and a recovery bottom outlet stream; separating one or both of the recovery top outlet stream and the stripper top outlet stream in a decanter to form an organic decanter stream and an aqueous decanter stream; forming a bisphenol A plant acetone recovery stream comprising at least a portion of one or more of the extraction top outlet stream, the stripper top outlet stream, the aqueous decanter stream, and the recovery top outlet stream; introducing the bisphenol A plant acetone recovery stream to a phenol purification plant, wherein the bisphenol A plant acetone recovery stream comprises methanol and a recovered acetone; and purifying the bisphenol A plant acetone recovery stream to form an acetone product stream.
High-strength tin-containing copper alloy with excellent hot-formability and cold-formability, high resistance with respect to abrasive wear, adhesive wear and fretting wear and improved corrosion-resistance and ageing relaxation resistance, comprising (in % by weight): from 4.0 to 23.0% Sn, from 0.5 to 1.5% Si, from 0.005 to 0.6% B, from 0.001 to 0.08% P, optionally also up to a maximum of 2.0% Zn, optionally also up to a maximum of 0.6% Fe, optionally also up to a maximum of 0.5% Mg, optionally also up to a maximum of 0.25% Pb, the balance being copper and inevitable impurities, characterised in that - the ratio Si/B of the element contents of the elements silicon and boron is between 0.3 and 10. from 4.0 to 23.0% Sn, from 0.5 to 1.5% Si, from 0.005 to 0.6% B, from 0.001 to 0.08% P, optionally also up to a maximum of 2.0% Zn, optionally also up to a maximum of 0.6% Fe, optionally also up to a maximum of 0.5% Mg, optionally also up to a maximum of 0.25% Pb, the balance being copper and inevitable impurities, characterised in that - the ratio Si/B of the element contents of the elements silicon and boron is between 0.3 and 10. - the ratio Si/B of the element contents of the elements silicon and boron is between 0.3 and 10.