mhurhangee/ep-ind-claims huggingface dataset:
A transfer decorating machine that utilises powdered material or granules comprising: - a rest surface that is mobile in a predetermined direction; - a device for the application of a decoration, operating above said rest surface and provided with a mobile transfer belt, which is a closed loop between movement rollers (2, 20), and serves the function of receiving a decoration realised with powdered material or granules and transferring it towards said rest surface, said device comprising a first unit suitable for composing said decoration on the transfer belt and a second unit suitable for carrying out the transfer of said decoration from said transfer belt, said mobile transfer belt being commanded to move in an advancement direction, said second unit comprising a lower section of said transfer belt that has the external side thereof facing downwards and facing said mobile rest surface; said section extending between a first abutment (2, 17, 30) arranged upstream and a second abutment (S, 19, 20, 30) arranged downstream; there being provided actuator means (12, 13, 14, 18, 22, 23) operating on the internal side of said section and characterized in that they are suitable for rapidly moving the gas present in the proximity of said section and for transmitting a vibration to said section by means of said gas; wherein characterised in that said actuator means (12, 13, 14, 18, 22, 23) are jets of gas arranged according to an array transversal to the transfer surface of said mobile belt and suitable for generating a situation of turbulent motion. - a rest surface that is mobile in a predetermined direction; - a device for the application of a decoration, operating above said rest surface and provided with a mobile transfer belt, which is a closed loop between movement rollers (2, 20), and serves the function of receiving a decoration realised with powdered material or granules and transferring it towards said rest surface, said device comprising a first unit suitable for composing said decoration on the transfer belt and a second unit suitable for carrying out the transfer of said decoration from said transfer belt, said mobile transfer belt being commanded to move in an advancement direction, said second unit comprising a lower section of said transfer belt that has the external side thereof facing downwards and facing said mobile rest surface; said section extending between a first abutment (2, 17, 30) arranged upstream and a second abutment (S, 19, 20, 30) arranged downstream; there being provided actuator means (12, 13, 14, 18, 22, 23) operating on the internal side of said section and characterized in that they are suitable for rapidly moving the gas present in the proximity of said section and for transmitting a vibration to said section by means of said gas; wherein characterised in that said actuator means (12, 13, 14, 18, 22, 23) are jets of gas arranged according to an array transversal to the transfer surface of said mobile belt and suitable for generating a situation of turbulent motion.
A method for reconstructing a relief print master having a relief layer defining image features by means of a stereolithographic apparatus, the method comprising the steps of: a) calculating a three-dimensional representation of the print-relief master having voxels of which the value indicates where the stereolithographic apparatus has to print material and where not; b) printing the relief print master with the stereolithographic apparatus in response to the three-dimensional representation by: - supplying a photocurable liquid; - imagewise exposing a layer of the photocurable liquid to selectively polymerize said layer; - repeating the two aforementioned steps until the relief print master is completed; the method characterized in that it additionally comprises the steps of: c) selecting (1301, 1302, 1303, 1304, 1305) a set of positions inside the three-dimensional representation of the relief print master as a function of the image features in the relief layer for introducing cavities, whereby cavities are defined as volumetric entities in the flexographic printing plate in which the degree of polymerization of the monomeric units in that volumetric entity is less than 25 percent; d) changing the values of the voxels at or nearby said selected positions to introduce the cavities inside the relief print master. a) calculating a three-dimensional representation of the print-relief master having voxels of which the value indicates where the stereolithographic apparatus has to print material and where not; b) printing the relief print master with the stereolithographic apparatus in response to the three-dimensional representation by: - supplying a photocurable liquid; - imagewise exposing a layer of the photocurable liquid to selectively polymerize said layer; - repeating the two aforementioned steps until the relief print master is completed; - supplying a photocurable liquid; - imagewise exposing a layer of the photocurable liquid to selectively polymerize said layer; - repeating the two aforementioned steps until the relief print master is completed; c) selecting (1301, 1302, 1303, 1304, 1305) a set of positions inside the three-dimensional representation of the relief print master as a function of the image features in the relief layer for introducing cavities, whereby cavities are defined as volumetric entities in the flexographic printing plate in which the degree of polymerization of the monomeric units in that volumetric entity is less than 25 percent; d) changing the values of the voxels at or nearby said selected positions to introduce the cavities inside the relief print master.
A method of compressing insects, comprising: loading an insect container into a retainer; adding a population of insects to an interior volume of a compression device; adding a foam section to the interior volume of the compression device; and compressing the interior volume of the compression device and transferring the population of insects and the foam section from the interior volume of the compression device to the insect container, wherein the compression device and the retainer include alignment features (536a, 536b, 540a, 540b) for aligning the compression device with respect to the retainer. loading an insect container into a retainer; adding a population of insects to an interior volume of a compression device; adding a foam section to the interior volume of the compression device; and compressing the interior volume of the compression device and transferring the population of insects and the foam section from the interior volume of the compression device to the insect container, wherein the compression device and the retainer include alignment features (536a, 536b, 540a, 540b) for aligning the compression device with respect to the retainer.
A method for determining if a turbine blade component in a turbine engine having a coating thereon has been compromised, the method comprising the steps of: a) applying the coating to the component; b) visually inspecting the coating; and c) determining that the component has been operated above the predetermined temperature if the coating is displaced, characterized in that: the displaced coating is indicative of one or more plugged cooling passages of the component, wherein the coating comprises: a metallic coating layer; and a thermal barrier coating applied over the metallic layer, wherein the metallic coating layer is applied in a pattern of letters forming a message, and wherein visual indication of the message as viewed via borescope visual inspection of the component is indicative of the exceeding of a predetermined temperature. a) applying the coating to the component; b) visually inspecting the coating; and c) determining that the component has been operated above the predetermined temperature if the coating is displaced, wherein the coating comprises: a metallic coating layer; and a thermal barrier coating applied over the metallic layer, a metallic coating layer; and a thermal barrier coating applied over the metallic layer, wherein the metallic coating layer is applied in a pattern of letters forming a message, and wherein visual indication of the message as viewed via borescope visual inspection of the component is indicative of the exceeding of a predetermined temperature.
A branching device characterised by: a plurality of interlocking relays (132a, 132b, 132c) individually associated with a plurality of high-voltage relays (131a, 131b, 131c) which switch a feeding path; drive means for supplying drive electric current supplied to the plurality of high-voltage relays (131a, 131b, 131c) to the plurality of associated interlocking relays (132a, 132b, 132c); state detection means for detecting each of the plurality of interlocking relays (132a, 132b, 132c) being high or low as an operation state of each of the plurality of high-voltage relays (131a, 131b, 131c); and response means for transmitting, based on a result of detecting an operation state of each of the plurality of interlocking relays (132a, 132b, 132c), an operation state of each of the plurality of high-voltage relays (131a, 131b, 131c). a plurality of interlocking relays (132a, 132b, 132c) individually associated with a plurality of high-voltage relays (131a, 131b, 131c) which switch a feeding path; drive means for supplying drive electric current supplied to the plurality of high-voltage relays (131a, 131b, 131c) to the plurality of associated interlocking relays (132a, 132b, 132c); state detection means for detecting each of the plurality of interlocking relays (132a, 132b, 132c) being high or low as an operation state of each of the plurality of high-voltage relays (131a, 131b, 131c); and response means for transmitting, based on a result of detecting an operation state of each of the plurality of interlocking relays (132a, 132b, 132c), an operation state of each of the plurality of high-voltage relays (131a, 131b, 131c).
An ink jet textile printing penetrant comprising: a water-soluble organic solvent; a surfactant; a chelating agent; and an aromatic compound. wherein the chelating agent is one type or two or more types selected from the group consisting of disodium ethylenediaminetetraacetate, diammoniumethylenediaminetetraacetate, trisodiumethylenediaminesuccinate, tetrasodium iminodisulfosuccinate, tetrasodium dicarboxymethylglutamate, and disodium nitrilotriacetate; and the chelating agent is present in a range of 0.001 mass% to 0.1 mass% with respect to a total amount of the ink jet textile printing penetrant; and wherein the aromatic compound is one type or two or more types selected from the group consisting of a compound which is represented by Formula below and a compound which is represented a compound which is represented by Formula below: (in Formula, X's each independently represent SO 3 R, COOR, or OPO 2, R's each independently represent H, Li, Na, or K, and m is an integer of 1 or 2 and when X is SO 3 R, the aromatic ring may be substitututed with an amino and/or a hydroxyl group), (in Formula, X's each independently represent SO 3 R, COOR, or OPO 2, R's each independently represent H, Li, Na, or K, and n is an integer of 1 to 3 and when X is SO 3 R, the aromatic ring may be substitututed with an amino and/or a hydroxyl group). a water-soluble organic solvent; a surfactant; a chelating agent; and an aromatic compound. wherein the chelating agent is one type or two or more types selected from the group consisting of disodium ethylenediaminetetraacetate, diammoniumethylenediaminetetraacetate, trisodiumethylenediaminesuccinate, tetrasodium iminodisulfosuccinate, tetrasodium dicarboxymethylglutamate, and disodium nitrilotriacetate; and
A multilayer tube (10, 110), particularly for fluids, provided with an internally hollow shape, comprising a seath (11, 111) made of fluorinated polymers, located in the innermost layer of said multilayer tube (10, 110), said sheath (11, 111) being constituted by an internal substrate (14, 114) made of non pigmented virgin material and by an external substrate (15, 115) made of pigmented material characterized in that the sheath (11, 111) is co-extruded.
Tank installation for a motor vehicle, comprising a tank, a vent inlet line connected to the tank, a filler pipe for refuelling the tank, a vent outlet line connected to a fuel vapour filter, and a separation nipple for separating liquid from the vent inlet line into the filler pipe, the separation nipple comprising an inlet, which can be connected to the vent inlet line, an outlet, which can be connected to the vent outlet line, an opening, which can be connected to the interior of the filler pipe, and a flap, wherein the opening can be closed by means of the flap, wherein the inlet of the separation nipple is connected to the vent inlet line, the outlet of the separation nipple is connected to the vent outlet line, wherein the opening of the separation nipple is connected to the interior of the filler pipe, wherein the flap comprises a main surface and a reflector surface, which slopes relative to the main surface, wherein the opening is closed by the main surface when the flap is closed, and the reflector surface forms a reflector together with the main surface when the flap is open, which reflector deflects liquid passing through the opening in the direction of the tank end of the filler pipe, characterized in that the reflector surface blocks a flow path to the outlet for liquid passing through the opening when the flap is open.
A lens barrel retaining lenses while allowing movement along an optical axis, the lens barrel comprising: a first frame; a second frame positioned inside the first frame; and n linear guide structures configured to allow movement of the second frame relative to the first frame only along the optical axis, wherein the n linear guide structures comprise: n linear guide concave parts (25, 33) spaced apart from each other in a circumferential direction around the optical axis and extending only along the optical axis; and n linear guide convex parts (27, 31, 41) engaging with the n linear guide concave parts (25, 33) in a relatively movable manner, wherein some of the n linear guide concave parts (25, 33) are provided on the first frame or on the second frame such that not all of n linear guide concave parts (25, 33) are provided on the first frame or on the second frame, and n is an integer equal to or greater than 2. a first frame; a second frame positioned inside the first frame; and n linear guide structures configured to allow movement of the second frame relative to the first frame only along the optical axis, n linear guide concave parts (25, 33) spaced apart from each other in a circumferential direction around the optical axis and extending only along the optical axis; and n linear guide convex parts (27, 31, 41) engaging with the n linear guide concave parts (25, 33) in a relatively movable manner, wherein some of the n linear guide concave parts (25, 33) are provided on the first frame or on the second frame such that not all of n linear guide concave parts (25, 33) are provided on the first frame or on the second frame, and n is an integer equal to or greater than 2.
A method for the automated detection and identification of micro-objects disposed within a microfluidic device, the method comprising: capturing a first image of a region in the microfluidic device that may contain a micro-object of interest; inducing movement of fluid within said region; capturing a second image of said region; determining a first set of light intensity values for one or more pixels corresponding to the first image and a second set of light intensity value for one or more pixels corresponding to the second image; and subtracting the first set of light intensity values from the second set of light intensity values, or vice versa, to generate a set of positive-value pixels and a set of negative-value pixels;generating a differential image from the first and second images, wherein said differential image is generated by subtracting said first image from said second image, or vice versa; and identifying a micro-object of interest based on the differential image, characterised in that identifying a micro-object of interest based on the differential image comprises determining that the differential image contains a pair of positive-value and negative-value pixels, and that the difference in the relative positions of the positive-value and negative-value pixels of the pair is consistent with the magnitude of movement of fluid induced in the region. capturing a first image of a region in the microfluidic device that may contain a micro-object of interest; inducing movement of fluid within said region; capturing a second image of said region; determining a first set of light intensity values for one or more pixels corresponding to the first image and a second set of light intensity value for one or more pixels corresponding to the second image; and subtracting the first set of light intensity values from the second set of light intensity values, or vice versa, to generate a set of positive-value pixels and a set of negative-value pixels;generating a differential image from the first and second images, wherein said differential image is generated by subtracting said first image from said second image, or vice versa; and identifying a micro-object of interest based on the differential image, characterised in that identifying a micro-object of interest based on the differential image comprises determining that the differential image contains a pair of positive-value and negative-value pixels, and that the difference in the relative positions of the positive-value and negative-value pixels of the pair is consistent with the magnitude of movement of fluid induced in the region.
An aqueous composition for use in the treatment of cluster headache, wherein the aqueous composition comprises ketamine in a range of from 50 mg/mL to 200 mg/mL based on the total volume of the composition, and the treatment comprises intranasal administration of the aqueous composition in the form of a nasal spray.
A biodegradable polymer composite produced from: - a biodegradable resin; - an acrylonitrile-butadiene-styrene resin; - a reactive compatibilizer prepared by bonding reactive groups to a non-reactive compatibilizer, which non-reactive compatibilizer is a random copolymer or block copolymer and which reactive groups are maleic anhydride, and the compatibilizer being an ethylene-octene-rubber-maleic anhydride (EOR-MAH), wherein - the biodegradable resin is present in an amount of 10 to 40% by weight based on the total weight of the composite and the biodegradable resin is polylactic acid including 95-100% by weight of a repeating unit derived from the L-isomer of lactic acid and 0-5% by weight of a repeting unit derived from the D-isomer of lactic acid, - the compatibilizer is present in an amount of 1 to 20% by weight based on the total weight of the composite and the composite has a phase separation structure in which the biodegradable resin particles form dispersed phases in the acrylonitrile-butadiene-styrene resin matrix and the dispersed phases of the biodegradable resin particles in the composite have a diameter of 0.1 μm to 20 μm. - a biodegradable resin; - an acrylonitrile-butadiene-styrene resin; - a reactive compatibilizer prepared by bonding reactive groups to a non-reactive compatibilizer, which non-reactive compatibilizer is a random copolymer or block copolymer and which reactive groups are maleic anhydride, and the compatibilizer being an ethylene-octene-rubber-maleic anhydride (EOR-MAH), wherein - the biodegradable resin is present in an amount of 10 to 40% by weight based on the total weight of the composite and the biodegradable resin is polylactic acid including 95-100% by weight of a repeating unit derived from the L-isomer of lactic acid and 0-5% by weight of a repeting unit derived from the D-isomer of lactic acid, - the compatibilizer is present in an amount of 1 to 20% by weight based on the total weight of the composite and the composite has a phase separation structure in which the biodegradable resin particles form dispersed phases in the acrylonitrile-butadiene-styrene resin matrix and the dispersed phases of the biodegradable resin particles in the composite have a diameter of 0.1 μm to 20 μm. - the biodegradable resin is present in an amount of 10 to 40% by weight based on the total weight of the composite and the biodegradable resin is polylactic acid including 95-100% by weight of a repeating unit derived from the L-isomer of lactic acid and 0-5% by weight of a repeting unit derived from the D-isomer of lactic acid, - the compatibilizer is present in an amount of 1 to 20% by weight based on the total weight of the composite and the composite has a phase separation structure in which the biodegradable resin particles form dispersed phases in the acrylonitrile-butadiene-styrene resin matrix and the dispersed phases of the biodegradable resin particles in the composite have a diameter of 0.1 μm to 20 μm.
A method for making a rotor structure of a synchronous reluctance electric machine, wherein the rotor structure has an annular arrangement about a central opening, having a centre and designed to be engaged by a rotation shaft, and comprises a plurality of magnetic portions and a plurality of electromagnetic flux barriers interposed between the magnetic portions, said electromagnetic flux barriers defining at least one maximum magnetic reluctance path along a maximum reluctance axis (q) and a minimum reluctance path along a minimum reluctance axis (d), wherein said rotor structure further comprises radial connecting elements passing through the flux barriers for mechanical connection between radially-adjacent magnetic portions, characterized by comprising the step of forming said electromagnetic flux barriers so as to have a centreline profile (A'), which is arranged equidistant between an upper and a lower edge thereof and has side portions, which have a convex shape so that they are arranged towards said outer side surface of said rotor structure, and a central portion,; which crosses said maximum reluctance axis (q) and has a strictly concave shape with respect to the centre of said central opening.