mhurhangee/ep-ind-claims huggingface dataset:
Method for the setting of ornamental stones in jewelry products (O, O'), costume jewelry and the like, which comprises the following steps: - introduction of the stone in a first seat formed on said product (O, O'), said seat having an opening and a plurality of abutment seats (13, 14); - insertion of locking means through a respective second through seat, and until said locking means abut on said stone; and - locking of said locking means within said second seat realizing the locking of said stone within said seat, wherein said locking means are a pin and wherein said first seat inside has an asymmetrical shape and it has at least one second seat hole in communication with the outside of the product and ending at a lower region of the seat, and the pin abuts on said stone with the inserting end and wherein following the insertion of said locking means up to abutment with said stone said means move said stone until abutment into said abutment seats (13, 14) within said first seat and the locking of said locking means within said second seat prevents the removal of said stone from said first seat both in the direction of insertion of the former in the latter and in the opposite direction. - introduction of the stone in a first seat formed on said product (O, O'), said seat having an opening and a plurality of abutment seats (13, 14); - insertion of locking means through a respective second through seat, and until said locking means abut on said stone; and - locking of said locking means within said second seat realizing the locking of said stone within said seat,
An aluminum alloy brazing sheet used for brazing aluminum or aluminum alloy, without using a flux, in an inert gas atmosphere or vacuum, the brazing sheet being formed by arranging a brazing material on one side or both sides of a core material made of pure aluminum or aluminum alloy, the brazing material including 6% by mass to 13% by mass of Si and the balance being Al and inevitable impurities, and performing cladding with an intermediate material interposed between the core material and the brazing material, the intermediate material including 0.01% by mass to 1.5% by mass of Bi, 1.5% by mass to 13% by mass of Si, optionally one or two of 6% by mass or less of Cu and 6% by mass or less of Zn, and the balance being Al and inevitable impurities, the intermediate material having a thickness of 2% to 35% of a thickness of the brazing material, wherein one or both of the intermediate material and the core material includes 0.4% by mass to 6% by mass of Mg.
A portable multi-stage filter system for remediation of water from a contaminated water source to provide a purified water product, the system comprising: - a first filter stage configured to remove coarse solid contaminants, the first filter stage comprising: an intake port for placement into the contaminated water source; at least one strainer element; and a pump configured to draw water from the contaminated water source into the intake port and through the strainer element to provide a first filtrate; - a second filter stage configured to remove contaminants larger than about 20 nm to about 40 nm to provide a second filtrate; - a third filter stage configured to remove dissolved chemical contaminants from the second filtrate to provide a third filtrate, the third filter stage comprising at least one graphene-based filter containing at least one graphene-based material; - a fourth filter stage configured to remove residual nanoparticle contaminants from the third filtrate to provide the purified water product; - an outflow structure configured to convey the purified water product from the fourth filter stage for discharge; and a portable system housing, wherein the first filter stage, the second filter stage, the third filter stage and fourth filter stage are contained within the portable system housing. - a first filter stage configured to remove coarse solid contaminants, the first filter stage comprising: an intake port for placement into the contaminated water source; at least one strainer element; and a pump configured to draw water from the contaminated water source into the intake port and through the strainer element to provide a first filtrate; an intake port for placement into the contaminated water source; at least one strainer element; and a pump configured to draw water from the contaminated water source into the intake port and through the strainer element to provide a first filtrate; - a second filter stage configured to remove contaminants larger than about 20 nm to about 40 nm to provide a second filtrate; - a third filter stage configured to remove dissolved chemical contaminants from the second filtrate to provide a third filtrate, the third filter stage comprising at least one graphene-based filter containing at least one graphene-based material; - a fourth filter stage configured to remove residual nanoparticle contaminants from the third filtrate to provide the purified water product; - an outflow structure configured to convey the purified water product from the fourth filter stage for discharge; and
An apparatus for forming a three-dimensional object from a solidifiable material, comprising: a linear solidification device comprising a solidification energy source (90; 90a; 90b), a linear scanning device, and a housing, wherein the solidification energy source (90; 90a; 90b) is in optical communication with the linear scanning device, the linear scanning device is configured to scan solidification energy received from the solidification energy source in a plurality of linear patterns along a source of the solidifiable material while the linear solidification device moves in a first direction, and each linear pattern has a length along a second direction; characterized by at least one F-Theta lens (328; 330) between the linear scanning device and the source of the solidifiable material; a cylindrical lens between the solidification energy source and the linear scanning device; and a collimating lens between the solidification energy source and the cylindrical lens, wherein the collimating lens is coated with an anti-reflective coating such that the coated collimating lens transmits at least 90% of the incident light having a wavelength ranging from about 380nm to about 420nm. a linear solidification device comprising a solidification energy source (90; 90a; 90b), a linear scanning device, and a housing, wherein the solidification energy source (90; 90a; 90b) is in optical communication with the linear scanning device, the linear scanning device is configured to scan solidification energy received from the solidification energy source in a plurality of linear patterns along a source of the solidifiable material while the linear solidification device moves in a first direction, and each linear pattern has a length along a second direction; characterized by at least one F-Theta lens (328; 330) between the linear scanning device and the source of the solidifiable material; a cylindrical lens between the solidification energy source and the linear scanning device; and a collimating lens between the solidification energy source and the cylindrical lens, wherein the collimating lens is coated with an anti-reflective coating such that the coated collimating lens transmits at least 90% of the incident light having a wavelength ranging from about 380nm to about 420nm.
A transverse magnetic mode dielectric resonator, comprising a housing with a top opening, wherein a cover is disposed on the opening side of the housing, a cavity body is enclosed by the cover and the housing, an inner wall of the cavity body is electrically conductive, a resonant dielectric rod is disposed in the cavity body, a cavity is disposed inside the resonant dielectric rod, a tuning part (5; 51, 52) is disposed on the cover, one end of the tuning part (5; 51, 52) stretches into the cavity and can move up and down relative to the cavity, two ends of the resonant dielectric rod are respectively soldered with the cover and a baseplate of the housing, a part that is of the cover and that is soldered with the resonant dielectric rod is made of elastic material, and a part that is of the baseplate and that is soldered with the resonant dielectric rod is made of elastic material; wherein the cover is made of insulating elastic material, a surface that is of the cover and that faces the inside of the cavity body is covered with a conductive layer, a conductive hole is opened on the cover, and the tuning part (5; 51, 52) passes through the conductive hole and stretches into the cavity of the resonant dielectric rod; wherein the cover is a printed circuit board, the conductive layer covering the cover is a metal layer, and the conductive hole is a plated through hole opened on the printed circuit board; and wherein a pad is disposed on an upper surface of the printed circuit board and encloses the plated through hole, a nut is soldered on the pad, the tuning part (5; 51, 52) is a screw rod, the screw rod is in threaded fitting with the nut, one end of the plated through hole is connected to the conductive layer, and the other end is connected to the pad. wherein the cover is made of insulating elastic material, a surface that is of the cover and that faces the inside of the cavity body is covered with a conductive layer, a conductive hole is opened on the cover, and the tuning part (5; 51, 52) passes through the conductive hole and stretches into the cavity of the resonant dielectric rod; wherein the cover is a printed circuit board, the conductive layer covering the cover is a metal layer, and the conductive hole is a plated through hole opened on the printed circuit board; and wherein a pad is disposed on an upper surface of the printed circuit board and encloses the plated through hole, a nut is soldered on the pad, the tuning part (5; 51, 52) is a screw rod, the screw rod is in threaded fitting with the nut, one end of the plated through hole is connected to the conductive layer, and the other end is connected to the pad.
An ultrasonic fluid level sensor, comprising an acoustic waveguide, at one end of which an electroacoustic transducer is arranged, and at the other end of which an acoustic resonator is arranged, characterized in that the acoustic waveguide comprising a flexible metal rod, to each end of which a cylindrical waveguide is rigidly connected via a conical acoustic concentrator, one cylindrical waveguide being connected to the electroacoustic transducer and the other cylindrical waveguide being connected to the acoustic resonator, wherein the outer surface of at least one cylindrical waveguide is adapted to be rigidly attached in a barrier through which the waveguide is to pass. the acoustic waveguide comprising a flexible metal rod, to each end of which a cylindrical waveguide is rigidly connected via a conical acoustic concentrator, one cylindrical waveguide being connected to the electroacoustic transducer and the other cylindrical waveguide being connected to the acoustic resonator, wherein the outer surface of at least one cylindrical waveguide is adapted to be rigidly attached in a barrier through which the waveguide is to pass.
A capsule holder for receiving a capsule containing tea material, the capsule holder comprising: • a sidewall having an upper rim, • means for supporting the capsule within the capsule holder, so that the capsule partially covers the area inside the upper rim, • an openable and closable passage, characterized in that it furthermore comprises a filter situated beneath the intended location of the capsule, and that said openable and closable passage is situated on the opposite side of the filter from the upper rim. • a sidewall having an upper rim, • means for supporting the capsule within the capsule holder, so that the capsule partially covers the area inside the upper rim, • an openable and closable passage, characterized in that it furthermore comprises a filter situated beneath the intended location of the capsule, and that said openable and closable passage is situated on the opposite side of the filter from the upper rim.
A method for diagnosing Respiratory Distress Syndrome, the method comprising the steps of: a) providing less than 100 μL of a gastric aspirate sample obtained from a subject, b) determining in the sample of a), using a Fourier transform infrared (FTIR) spectrometer, the amount of at least a first and at least a second group of compounds, wherein the first group of compounds is different than the second group of compounds, c) obtaining a ratio between the first and the second group of compounds of b), d) correlating the ratio of c) with a control ratio, wherein a ratio differing from the control ratio is indicative of Respiratory Distress Syndrome of the subject, wherein the first compound is lecithin or saturated lecithin and the second compound is sphingomyelin, and wherein steps b) to d) of the method are performed in less than 10 minutes, such as in less than 5 minutes. a) providing less than 100 μL of a gastric aspirate sample obtained from a subject, b) determining in the sample of a), using a Fourier transform infrared (FTIR) spectrometer, the amount of at least a first and at least a second group of compounds, wherein the first group of compounds is different than the second group of compounds, c) obtaining a ratio between the first and the second group of compounds of b), d) correlating the ratio of c) with a control ratio, wherein a ratio differing from the control ratio is indicative of Respiratory Distress Syndrome of the subject,
An application method of enhancing the water repellence of a textile and/ or enhancing a textiles ability to repel water soluble dirt, comprising the steps of: a) applying an emulsified liquid composition on a textile, wherein said emulsified liquid composition consists of: - water; - alkylalkoxysilane with said alkyl chain having a length of 10-30 carbons or 13-18 carbons; - at least one emulsifier, surfactant, thickener and/ or stabilizer; - a water soluble acid catalyst; and - unavoidable impurities b) optionally adjusting amount of composition applied on the textile; c) drying the treated textile until dry; d) curing the treated textile at a temperature of between 100-200°C; and e) removing the non-reacted composition residue from the treated textile by washing with water and redrying the treated textile. a) applying an emulsified liquid composition on a textile, wherein said emulsified liquid composition consists of: - water; - alkylalkoxysilane with said alkyl chain having a length of 10-30 carbons or 13-18 carbons; - at least one emulsifier, surfactant, thickener and/ or stabilizer; - a water soluble acid catalyst; and - unavoidable impurities - water; - alkylalkoxysilane with said alkyl chain having a length of 10-30 carbons or 13-18 carbons; - at least one emulsifier, surfactant, thickener and/ or stabilizer; - a water soluble acid catalyst; and - unavoidable impurities b) optionally adjusting amount of composition applied on the textile; c) drying the treated textile until dry; d) curing the treated textile at a temperature of between 100-200°C; and e) removing the non-reacted composition residue from the treated textile by washing with water and redrying the treated textile.
A wheel for supporting tires for vehicles which is made of composite material based on carbon fiber, wherein the wheel comprises an insert which is made of metallic material at its central region designed to be fixed to the hub of the respective vehicle, said insert being coupled between external contoured laminated shells made of composite material, with the interposition of at least one interface film having a thickness that can vary between 0.05 mm and 1.0 mm, said interface film being made of a material chosen from among epoxy polymers, polyurethane polymers, acrylic polymers, silicone polymers, polyamide polymers, glass fibers and combinations thereof characterized in that said interface film covers said insert completely, defining a protective layer against oxidative, galvanic and chemical corrosion.
A method of manufacturing a conductor, the method comprising: preparing a conductive film comprising a plurality of metal nanostructures each surrounded by an organic material; and selectively removing at least a portion of the organic material surrounding the metal nanostructures using cluster ion beam sputtering. preparing a conductive film comprising a plurality of metal nanostructures each surrounded by an organic material; and selectively removing at least a portion of the organic material surrounding the metal nanostructures using cluster ion beam sputtering.
A device for determining the composition of a mixture of fluids by spectral absorption, which comprises: - a radiation source for illuminating the mixture with radiation having a range of wavelengths that extends over a predefined absorption band of each one of said fluids and over at least one predefined reference band outside, but adjacent to, each and every one of said absorption bands; - a detector for detecting radiation that has been attenuated by the mixture; - a separating device configured for separating the attenuated radiation; wherein said separating device comprises: - a first radiation divider configured for separating said attenuated radiation into beams with corresponding different wavelength bands, each one of which extending over the absorption band of a corresponding one of said fluids and over at least one of said reference bands adjacent to said absorption band; and - a second radiation divider configured for receiving from said first radiation divider the radiation beams (33,34,36,38,40) corresponding to each one of said different wavelength bands and for further separating each beam into beams with two corresponding wavelength bands, one of which corresponding to the respective absorption band and the other one corresponding to at least one of the respective reference bands adjacent to said absorption band. - a radiation source for illuminating the mixture with radiation having a range of wavelengths that extends over a predefined absorption band of each one of said fluids and over at least one predefined reference band outside, but adjacent to, each and every one of said absorption bands; - a detector for detecting radiation that has been attenuated by the mixture; - a separating device configured for separating the attenuated radiation; wherein said separating device comprises: - a first radiation divider configured for separating said attenuated radiation into beams with corresponding different wavelength bands, each one of which extending over the absorption band of a corresponding one of said fluids and over at least one of said reference bands adjacent to said absorption band; and - a second radiation divider configured for receiving from said first radiation divider the radiation beams (33,34,36,38,40) corresponding to each one of said different wavelength bands and for further separating each beam into beams with two corresponding wavelength bands, one of which corresponding to the respective absorption band and the other one corresponding to at least one of the respective reference bands adjacent to said absorption band.
An aliphatic-aromatic copolyester, comprising a reacted product of: (a) a dihydric alcohol selected from the group consisting of an ethylene glycol, 1,2-propylene glycol, 1,3-propylene glycol, 1,2-butanediol, 2,3-butanediol, 1,4-butanediol, tetramethyl cyclobutanediol, isosorbide, 1,3-cyclohexanedimethanol, 1,4-cyclohexanedimethanol, hexylene glycol, bio-derived diol, and combinations thereof; (b) an aromatic dicarboxylic acid derived from a depolymerized aromatic polyester component selected from poly(ethylene terephthalate) homopolymers and copolymers, poly(butylene terephthalate) homopolymers and copolymers, poly(trimethylene terephthalate) homopolymers and copolymers, and combinations thereof, (c) from 23 to less than 43 mole percent, based on the starting materials, of bio-based succinic acid; wherein the aliphatic-aromatic copolyester comprises a titanium catalyst and an aromatic polyester residue selected from the group consisting of an isophtalic acid group, antimony-containing compounds, germanium-containing compounds, cobalt-containing compounds, tin, tin containing compounds, titanium, titanium containing compounds, aluminium, aluminium-containing compounds, alkaline salts, alkaline earth metal salts, phosphorous-containing compounds, sulphur-containing compounds, naphthalene dicarboxylic acid groups, epoxies, and combinations thereof, wherein the aliphatic-aromatic copolyester has a bio-based carbon content from 17 to less than 41 weight percent, based on total carbon according to ASTM D6866; a Tg from -32 to 0 °C, a Tm from 80 to 120°C, and a storage modulus at 25°C from 30 MPa to 116 MPa. (a) a dihydric alcohol selected from the group consisting of an ethylene glycol, 1,2-propylene glycol, 1,3-propylene glycol, 1,2-butanediol, 2,3-butanediol, 1,4-butanediol, tetramethyl cyclobutanediol, isosorbide, 1,3-cyclohexanedimethanol, 1,4-cyclohexanedimethanol, hexylene glycol, bio-derived diol, and combinations thereof; (b) an aromatic dicarboxylic acid derived from a depolymerized aromatic polyester component selected from poly(ethylene terephthalate) homopolymers and copolymers, poly(butylene terephthalate) homopolymers and copolymers, poly(trimethylene terephthalate) homopolymers and copolymers, and combinations thereof, (c) from 23 to less than 43 mole percent, based on the starting materials, of bio-based succinic acid;
A method for controlling a cooking process in an oven cavity of a cooking oven, comprising - placing food stuff inside the oven cavity, - setting at least one cooking parameter, - setting a maximum heating energy to be transferred into the oven cavity and/or the food stuff, - determining a heating power profile of the heating power as a function of time during a cooking time depending on said at least one cooking parameter, - wherein the total heating energy obtained by summing up or integrating the heating power of the heating profile over time for the cooking time is less than or equal to the maximum heating energy, - heating the oven cavity and/or the food stuff by transferring heating power during said cooking time according to the determined heating profile in a time control mode, - characterized in that the time control mode defines the transmission of heating energy to the oven cavity as function of the time (t) during said time control mode, - wherein the time control mode comprises a heating up phase and a thermal inertia phase, wherein during the heating up phase the oven cavity is heated up by activating at least one heating element of said oven cavity, - wherein the activation and deactivation of the at least one heating element are predetermined and based on empiric and/or calculated data, and independent of any detected cooking parameters. - placing food stuff inside the oven cavity, - setting at least one cooking parameter, - setting a maximum heating energy to be transferred into the oven cavity and/or the food stuff, - determining a heating power profile of the heating power as a function of time during a cooking time depending on said at least one cooking parameter, - wherein the total heating energy obtained by summing up or integrating the heating power of the heating profile over time for the cooking time is less than or equal to the maximum heating energy, - heating the oven cavity and/or the food stuff by transferring heating power during said cooking time according to the determined heating profile in a time control mode, - characterized in that the time control mode defines the transmission of heating energy to the oven cavity as function of the time (t) during said time control mode, - wherein the time control mode comprises a heating up phase and a thermal inertia phase, wherein during the heating up phase the oven cavity is heated up by activating at least one heating element of said oven cavity, - wherein the activation and deactivation of the at least one heating element are predetermined and based on empiric and/or calculated data, and independent of any detected cooking parameters.