mhurhangee/ep-ind-claims huggingface dataset:
A turbine with flow diverter, comprising: - a support frame adapted to be anchored to a fixed or movable structure; - an impeller rotatably mounted about a rotation axis to said support frame and having a front inlet section for the flow and a plurality of blades (4, 4', 4",...) adapted to move continuously upon the rotation produced by the flow between a pushing position and an advancing position in correspondence of said front section; - a main flow diverter including a conveying duct and adapted to be anchored to said support frame and having a peripheral wall adapted to at least partially blind said front section with respect to the flow; - an auxiliary diverter extending from a first section facing one or more blades of said plurality in said advancing position to a second section facing one or more blades of said plurality in said pushing position; characterized in that said auxiliary diverter comprises a plurality of substantially curvilinear conduits in reciprocal side by side position along a substantially radial direction, each of said conduits having a first opened end facing the blades of said plurality in the advancing position and a second opened end (16", 16''') placed in correspondence of said conveying duct. - a support frame adapted to be anchored to a fixed or movable structure; - an impeller rotatably mounted about a rotation axis to said support frame and having a front inlet section for the flow and a plurality of blades (4, 4', 4",...) adapted to move continuously upon the rotation produced by the flow between a pushing position and an advancing position in correspondence of said front section; - a main flow diverter including a conveying duct and adapted to be anchored to said support frame and having a peripheral wall adapted to at least partially blind said front section with respect to the flow; - an auxiliary diverter extending from a first section facing one or more blades of said plurality in said advancing position to a second section facing one or more blades of said plurality in said pushing position;
Cooling and/or freezing apparatus, comprising a body, and a cooled interior enclosed by the body, wherein arranged in the cooled interior is a mist generator, which comprises a piezoelectric element, a horizontal partition plate is located in the cooled interior, which plate separates the cooled interior into two compartments preferably operated at different temperatures, and the mist generator is integrated into the horizontal partition plate in such a way that this does not project beyond the horizontal partition plate, characterised in that the mist generator comprises a cover, on which a deflection element is provided, which deflects the water jet encountering this and produced by the piezoelectric element in the direction of an outlet opening of the mist generator, wherein the mist generator comprises at least one nebulisation chamber, which comprises several outlet openings for the mist generated, wherein the width of the nebulisation chamber decreases as the distance from the piezoelectric element increases, wherein the mist generator comprises at least one concentrator for focusing the acoustic waves originating from the piezoelectric element and wherein the piezoelectric element and/or the concentrator is inclined towards the horizontal.
A heater plate, for a humidifier, the heater plate comprising: A) a thermally-conductive plate comprising a top surface, and a bottom surface opposite the top surface; B) a temperature sensor affixed to the bottom surface; C) a thermally-conductive layer directly affixed to the bottom surface; and D) a ceramic heating element directly affixed to the thermally-conductive layer; characterized in that the heater plate comprises a plurality of ceramic heating elements distributed on the bottom surface of the thermally-conductive plate, and each of the plurality of ceramic heating elements is in a form of strip; and wherein the bottom surface comprises a plurality of slots, and each of the plurality of ceramic heating elements is located in a respective one of the plurality of slots. characterized in that the heater plate comprises a plurality of ceramic heating elements distributed on the bottom surface of the thermally-conductive plate, and each of the plurality of ceramic heating elements is in a form of strip; and wherein the bottom surface comprises a plurality of slots, and each of the plurality of ceramic heating elements is located in a respective one of the plurality of slots.
Peristaltic pump for a household electric appliance comprising a pump body defining a chamber in which a deformable hose is located, which is intended to contain a liquid to be moved, said pump comprising an inlet connector, which is intended to receive a liquid suctioning conduit, and an outlet connector, which is intended to receive a liquid flow conduit, connected to the deformable hose, the inlet and outlet connectors each comprising a bend of substantially 90°, characterised in that the peristaltic pump comprises a sealing device (661, 662, 663) designed to contain the liquid inside the chamber in the event of rupture of the deformable hose and in that the inlet and outlet connectors are arranged in one same plane belonging to one single and same outer face of the peristaltic pump.
An apparatus, comprising: a connector plug housing member comprising a first contact pin and a second contact pin, wherein the connector plug housing member is configured to receive a connector plug contact member comprising a first contact section and a second contact section, wherein the connector plug housing member is configured to receive the connector plug contact member in a first position or in a second position and wherein the connector plug housing member is configured to provide a first contact configuration when the connector plug contact member is in the first position and a second contact configuration when the connector plug contact member is in the second position, wherein the first position corresponds to a first pin order, and wherein the second position corresponds to a second pin order.
An in vitro method for detecting embryotoxic factors in samples of material taken from a human subject or an animal, comprising the following steps: - preparing a sample of a substance, said sample of a substance preferably comprising organic fluids and/or portions of tissues coming from a donor organism; and - associating with said sample of a substance a control element suitable for verifying a presence of at least one active agent in said sample of a substance; and - verifying a presence or absence of said active agent based on a change in state in said control element, said control element compriseing at least one living organism having the ability to nourish itself autonomously through temporary organs associated with the living organism itself and able to supply nutritive substances to the latter without taking said nutritive substances from an outside environment, characterized in that said step of verifying the presence or absence of said active agent is designed to verify an absence or presence of embryotoxic factors (ETFs) and comprises the follow sub-steps: - maintaining an environmental interaction, preferably in a verification containers of a culture plate, between the embryos and the sample of a substance for a defined period of interaction ranging from twelve hours or, preferably, multiples of twelve hours, up to a maximum of 48 hours; - counting a number of deceased embryos after said period of interaction have elapsed; and - attributing to the sample of a substance a toxicity level that is proportional and quantitatively correlated to a quantitative presence or a level of chemical activity of said embryotoxic factors (EFTs). - preparing a sample of a substance, said sample of a substance preferably comprising organic fluids and/or portions of tissues coming from a donor organism; and - associating with said sample of a substance a control element suitable for verifying a presence of at least one active agent in said sample of a substance; and - verifying a presence or absence of said active agent based on a change in state in said control element, - maintaining an environmental interaction, preferably in a verification containers of a culture plate, between the embryos and the sample of a substance for a defined period of interaction ranging from twelve hours or, preferably, multiples of twelve hours, up to a maximum of 48 hours; - counting a number of deceased embryos after said period of interaction have elapsed; and - attributing to the sample of a substance a toxicity level that is proportional and quantitatively correlated to a quantitative presence or a level of chemical activity of said embryotoxic factors (EFTs).
A resin composition comprising: (i) a an aromatic polyether ketone resin and, dispersed therein as particles (ii) a fluororesin which - is a copolymer of tetrafluoroethylene and a compound of the formula CF 2 =CF-Rf 1 wherein Rf 1 is -CF 3 or -ORf 2 with Rf 2 being C 1-5 -perfluoroalkyl, and - has an average dispersed particle size of ≤ 10 μm, measured by microscopically observing the fluororesin using a confocal laser microscope, and then binarizing the obtained image using an optical analysis device, wherein the resin composition satisfies - a mass ratio of resin:fluororesin of 50:50 to 10:90, and - a melt viscosity ratio of resin:fluororesin of 0.01 to 0.20, determined by measuring the melt viscosities of resin and fluororesin at 60 sec -1 and 390°C in conformity with ASTM D3835. (i) a an aromatic polyether ketone resin and, dispersed therein as particles (ii) a fluororesin which - is a copolymer of tetrafluoroethylene and a compound of the formula CF 2 =CF-Rf 1 wherein Rf 1 is -CF 3 or -ORf 2 with Rf 2 being C 1-5 -perfluoroalkyl, and - has an average dispersed particle size of ≤ 10 μm, measured by microscopically observing the fluororesin using a confocal laser microscope, and then binarizing the obtained image using an optical analysis device, - is a copolymer of tetrafluoroethylene and a compound of the formula CF 2 =CF-Rf 1 wherein Rf 1 is -CF 3 or -ORf 2 with Rf 2 being C 1-5 -perfluoroalkyl, and - has an average dispersed particle size of ≤ 10 μm, measured by microscopically observing the fluororesin using a confocal laser microscope, and then binarizing the obtained image using an optical analysis device, - a mass ratio of resin:fluororesin of 50:50 to 10:90, and - a melt viscosity ratio of resin:fluororesin of 0.01 to 0.20, determined by measuring the melt viscosities of resin and fluororesin at 60 sec -1 and 390°C in conformity with ASTM D3835.
A broadcast receiver, comprising: an interface connectable to an information processing apparatus; a storage; and a first controller configured to - acquire application data transmitted using a download data block, DDB, message, - store the acquired application data in the storage, - acquire a command transmitted using an event message, - transfer, if the acquired command is a first command for causing the information processing apparatus connected through the interface to acquire the acquired application data, the first command to the information processing apparatus, and - send the application data stored in the storage to the information processing apparatus in response to an acquisition request from the connected information processing apparatus. an interface connectable to an information processing apparatus; a storage; and a first controller configured to - acquire application data transmitted using a download data block, DDB, message, - store the acquired application data in the storage, - acquire a command transmitted using an event message, - transfer, if the acquired command is a first command for causing the information processing apparatus connected through the interface to acquire the acquired application data, the first command to the information processing apparatus, and - send the application data stored in the storage to the information processing apparatus in response to an acquisition request from the connected information processing apparatus. - acquire application data transmitted using a download data block, DDB, message, - store the acquired application data in the storage, - acquire a command transmitted using an event message, - transfer, if the acquired command is a first command for causing the information processing apparatus connected through the interface to acquire the acquired application data, the first command to the information processing apparatus, and - send the application data stored in the storage to the information processing apparatus in response to an acquisition request from the connected information processing apparatus.
Process for the treatment of run-down batteries of the zinc/manganese type comprising, in a relationship of cooperation, the following stages: (i) pre-treatment comprising a first crushing operation, subsequent riddling to a size of approximately 12-1.6 mm to obtain a coarse fraction and a fine fraction, the fine fraction undergoing washing with water and being sent to the subsequent leaching stage; (ii) leaching, to be performed by placing the washed fine fraction as per stage (i) in contact with an acid solution in the presence of a reducing agent in order to obtain manganese and zinc in an ionic form in the acid solution and a solid material consisting substantially of carbon residue, the reducing agent being chosen from the group of monosaccharides, oligosaccharides, polysaccharides and corresponding mixtures; (iii) purification, if necessary, of said acid solution containing zinc and manganese by means of cementation and conveying of said purified acid solution to the subsequent separation stage; (iv) separation of zinc and manganese by liquid-liquid extraction process performed on the (purified) acid solution, the extraction being performed with an aprotic apolar organic solvent containing an agent able to coordinate the zinc and transfer it from the aqueous phase to the organic phase, separating it from the manganese which remains in the aqueous phase, said organic phase being further treated with an acid aqueous solution to re-extract the zinc in the aqueous phase, the aqueous solutions thus obtained and containing separately zinc and manganese being then treated electrolytically to obtain metallic Zn, MnO 2 and free acid. (i) pre-treatment comprising a first crushing operation, subsequent riddling to a size of approximately 12-1.6 mm to obtain a coarse fraction and a fine fraction, the fine fraction undergoing washing with water and being sent to the subsequent leaching stage; (ii) leaching, to be performed by placing the washed fine fraction as per stage (i) in contact with an acid solution in the presence of a reducing agent in order to obtain manganese and zinc in an ionic form in the acid solution and a solid material consisting substantially of carbon residue, the reducing agent being chosen from the group of monosaccharides, oligosaccharides, polysaccharides and corresponding mixtures; (iii) purification, if necessary, of said acid solution containing zinc and manganese by means of cementation and conveying of said purified acid solution to the subsequent separation stage; (iv) separation of zinc and manganese by liquid-liquid extraction process performed on the (purified) acid solution, the extraction being performed with an aprotic apolar organic solvent containing an agent able to coordinate the zinc and transfer it from the aqueous phase to the organic phase, separating it from the manganese which remains in the aqueous phase, said organic phase being further treated with an acid aqueous solution to re-extract the zinc in the aqueous phase, the aqueous solutions thus obtained and containing separately zinc and manganese being then treated electrolytically to obtain metallic Zn, MnO 2 and free acid.
A fuel cell vehicle (300: 300B), comprising: a front fuel cell mounted in a first space; a rear fuel cell mounted in a second space (S21 or S22) located at a rear side of the first space based on a first direction in which the fuel cell vehicle travels; first and second body frames (322, 324) extending in the first direction and being opposite to each other in a second direction that intersects the first direction, wherein a space between the first body frame and the second body frame, spaced apart from each other in the second direction, comprises the first space and the second space; a cab; and a loading part located at a rear side of the cab, wherein the cab and the loading part are each supported by the first and second body frames, wherein the rear fuel cell comprises a top surface that is lower than a top surface of the front fuel cell relative a ground, characterized in that the rear fuel cell is mounted below the loading part, and a height difference between the top surface of the front fuel cell and the top surface of the rear fuel cell is greater than a height difference between the top surface of the rear fuel cell and a bottom surface of the loading part. a front fuel cell mounted in a first space; a rear fuel cell mounted in a second space (S21 or S22) located at a rear side of the first space based on a first direction in which the fuel cell vehicle travels; first and second body frames (322, 324) extending in the first direction and being opposite to each other in a second direction that intersects the first direction, wherein a space between the first body frame and the second body frame, spaced apart from each other in the second direction, comprises the first space and the second space; a cab; and a loading part located at a rear side of the cab, wherein the cab and the loading part are each supported by the first and second body frames, wherein the rear fuel cell comprises a top surface that is lower than a top surface of the front fuel cell relative a ground, characterized in that the rear fuel cell is mounted below the loading part, and a height difference between the top surface of the front fuel cell and the top surface of the rear fuel cell is greater than a height difference between the top surface of the rear fuel cell and a bottom surface of the loading part.
Laminated wooden panel, wherein at least one section of the laminated wooden panel (1, 31, 51) comprises at least one middle layer (4, 34, 54), at least one first blocking layer (3, 33, 53) and at least one second blocking layer (5, 35, 55), wherein the first blocking layer (3, 33, 53) is arranged at a side of the middle layer (4, 34, 54) and the second blocking layer (5, 35, 55) is arranged at the opposite side of the middle layer (4, 34, 54), and wherein the grain of the wood in the middle layer (4, 34, 54) extends in a longitudinal direction of the laminated wooden panel (1, 31, 51), characterised in that the first blocking layer (3, 33, 53) comprises at least one wood layer element, in which the grain of the wood extends in a first transverse direction, which is at a first angle (α), of from +30° to +60°, relative to the longitudinal direction, and that the second blocking layer (5, 35, 55) comprises at least one wood layer element, in which the grain of the wood extends in a second transverse direction, which is at a second angle (β), of from -30° to -60°, relative to the longitudinal direction.
A method for preparing a patterned substrate comprising a step of selectively etching, from a laminate having a substrate and a block copolymer membrane formed on the substrate and containing a self-assembled block copolymer, any one segment block of the block copolymer, wherein the etching is performed using a reaction gas containing fluorocarbon and oxygen, and the etching is performed while maintaining a ratio (A/B) of a flow rate of the fluorocarbon to a flow rate of the oxygen in the range of 0.5 to 7.5, characterised in that the block copolymer comprises a polymer segment A block comprising a ring structure comprising no halogen atom substituted with a chain having 8 or more chain-forming atoms, and a polymer segment B block whose structure is different from that of the polymer segment A block and which comprises a ring structure including a halogen atom. wherein the etching is performed using a reaction gas containing fluorocarbon and oxygen, and the etching is performed while maintaining a ratio (A/B) of a flow rate of the fluorocarbon to a flow rate of the oxygen in the range of 0.5 to 7.5, characterised in that the block copolymer comprises a polymer segment A block comprising a ring structure comprising no halogen atom substituted with a chain having 8 or more chain-forming atoms, and a polymer segment B block whose structure is different from that of the polymer segment A block and which comprises a ring structure including a halogen atom.
A nail care device comprising a body provided with a reservoir for a nail care fluid, an applicator for applying the nail care fluid to a nail region, a chamber in the body and a plurality of nail files located in the chamber and removable one at a time therefrom through an outlet opening wherein the reservoir is formed by a housing, detachably connected to the body.
A cartridge to be installed in a tape printing device including a cartridge installation part for installing the cartridge and a contact terminal part that is provided in the cartridge installation part and that comes in contact with an electrode part provided on a peripheral wall part of the cartridge and is elastically displaceable when the cartridge is installed in the cartridge installation part, the cartridge comprising: a first peripheral wall part; and characterised in that the cartridge further comprises a second peripheral wall part bent with an internal angle (α) thereof exceeding 180° with respect to the first peripheral wall part when seen from an installation direction of the cartridge, and in that the electrode part is provided on the first peripheral wall part or the second peripheral wall part. a first peripheral wall part; and characterised in that the cartridge further comprises a second peripheral wall part bent with an internal angle (α) thereof exceeding 180° with respect to the first peripheral wall part when seen from an installation direction of the cartridge, and in that the electrode part is provided on the first peripheral wall part or the second peripheral wall part.
A method of manufacturing biometric RFID devices (202, 302, 402), the method comprising: producing a plurality of biometric identification devices (202, 302, 402) that are each adapted to receive an RFID module (240, 340, 440) comprising an RFID chip and a tuning capacitor (210, 310, 410), each biometric identification device comprising: a biometric authentication engine (220, 320); an antenna (209, 309, 409); and a socket (234, 334, 434) arranged to receive an RFID module (240, 340, 440); the method further comprising, for each biometric identification device: selecting an RFID protocol from a plurality of different RFID protocols; and installing, in the socket of the biometric identification device, an RFID module corresponding to the selected RFID protocol. producing a plurality of biometric identification devices (202, 302, 402) that are each adapted to receive an RFID module (240, 340, 440) comprising an RFID chip and a tuning capacitor (210, 310, 410), each biometric identification device comprising: a biometric authentication engine (220, 320); an antenna (209, 309, 409); and a socket (234, 334, 434) arranged to receive an RFID module (240, 340, 440); a biometric authentication engine (220, 320); an antenna (209, 309, 409); and a socket (234, 334, 434) arranged to receive an RFID module (240, 340, 440); the method further comprising, for each biometric identification device: selecting an RFID protocol from a plurality of different RFID protocols; and installing, in the socket of the biometric identification device, an RFID module corresponding to the selected RFID protocol. selecting an RFID protocol from a plurality of different RFID protocols; and installing, in the socket of the biometric identification device, an RFID module corresponding to the selected RFID protocol.