mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a rare earth-Mg-Ni based hydrogen storage alloy comprising element A, Mg, and element B, wherein said element A consists of at least one element R selected from rare earth elements including Sc and Y, and optionally at least one element selected from Zr, Hf, and Ca, and said element B consists of Ni and optionally at least one element selected from elements other than element A and Mg, and selected from Al, Ti, V, Nb, Ta, Cr, Mo, W, Mn, Fe, Co, Cu, Zn, B, Ga, Sn, Sb, In, Si, C, and P, said method comprising: first step of mixing an alloy consisting of elements A and B and Mg metal and/or a Mg-containing alloy having a melting point not higher than the melting point of Mg metal, and second step of heat-treating a mixture obtained from said first step for 0.5 to 240 hours at a temperature 5 to 250 °C lower than a melting point of said rare earth-Mg-Ni based hydrogen storage alloy to be obtained. first step of mixing an alloy consisting of elements A and B and Mg metal and/or a Mg-containing alloy having a melting point not higher than the melting point of Mg metal, and second step of heat-treating a mixture obtained from said first step for 0.5 to 240 hours at a temperature 5 to 250 °C lower than a melting point of said rare earth-Mg-Ni based hydrogen storage alloy to be obtained.
A steam heating tool comprising: a cover member that has a cover portion covering a mouth and a nose of a user; and a steam generator that is held on a surface of the cover portion on a side of the user, wherein a space interposed between the cover portion and a face of the user is formed at a time of use, and characterized in that the steam heating tool satisfies following formulae to. 300 ≤ VG ≤ 1,500 40 ≤ MV ≤ 150 5 ≤ VG / MV ≤ 25 In the formulae to, VG represents a cumulative steam generation amount [mg] released into the space for 10 minutes from a start of steam generation of the steam generator, and MV represents a volume [mL] of the space. a cover member that has a cover portion covering a mouth and a nose of a user; and a steam generator that is held on a surface of the cover portion on a side of the user, wherein a space interposed between the cover portion and a face of the user is formed at a time of use, and characterized in that the steam heating tool satisfies following formulae to. 300 ≤ VG ≤ 1,500 40 ≤ MV ≤ 150 5 ≤ VG / MV ≤ 25 In the formulae to, VG represents a cumulative steam generation amount [mg] released into the space for 10 minutes from a start of steam generation of the steam generator, and MV represents a volume [mL] of the space.
A computer implemented method of identifying an encryption algorithm used by a ransomware algorithm, the ransomware algorithm encrypting a data store of a target computer system using a searchable encryption algorithm, the method comprising: intercepting an ordered plurality of messages communicated from the target computer system to a ransomware server computer system, each message including a payload storing an encrypted unit of data from the target computer system; inspecting a final byte in the encrypted unit of data in each message to identify a byte value used by an encryption algorithm of the ransomware as a padding byte to pad messages to the size of an integral multiple of units of encryption for the encryption algorithm; training an autoencoder based on a position of a message in the ordered plurality of messages and the padding byte to provide a trained autoencoder adapted to differentiate the encryption algorithm used by the ransomware from other different encryption algorithms. intercepting an ordered plurality of messages communicated from the target computer system to a ransomware server computer system, each message including a payload storing an encrypted unit of data from the target computer system; inspecting a final byte in the encrypted unit of data in each message to identify a byte value used by an encryption algorithm of the ransomware as a padding byte to pad messages to the size of an integral multiple of units of encryption for the encryption algorithm; training an autoencoder based on a position of a message in the ordered plurality of messages and the padding byte to provide a trained autoencoder adapted to differentiate the encryption algorithm used by the ransomware from other different encryption algorithms.
Thermo roll for a fiber web machine, which thermo roll includes - a hollow roll body having a plurality of grooves on its outer surface, each groove extending from one end of the roll body to another, and in the roll body there are axial bores opening to the grooves, - an axle stub, having conducts extending to said axial bores, fixed to both end of the roll body by a plurality of bolts, and - an outer jacket friction fitted on the roll body and the axle stubs closing the grooves as a plurality of channels for heat transfer medium, characterized in that each axial bore has an offset opening to two adjacent grooves. - a hollow roll body having a plurality of grooves on its outer surface, each groove extending from one end of the roll body to another, and in the roll body there are axial bores opening to the grooves, - an axle stub, having conducts extending to said axial bores, fixed to both end of the roll body by a plurality of bolts, and - an outer jacket friction fitted on the roll body and the axle stubs closing the grooves as a plurality of channels for heat transfer medium,
A carbon material, which has a specific surface area of 0.010 m 2 /g or more and 200 m 2 /g or less and exhibits a hydrogen storage capacity of 1.5×10 -5 g/m 2 or more at a hydrogen pressure of 10 MPa, wherein the carbon material has a total pore volume of 0.001 cm 3 /g or more and 0.400 cm 3 /g or less.
A system for ready-to-eat preparation of a pineapple fruit in stationary retail, comprising - a housing delimiting a processing space; - an apparatus for processing the pineapple fruit in the processing space; and - a fan for generating an airflow in the processing space, - wherein the fan is configured to generate a substantially constant airflow over a large area of at least 60% of the processing space; - and - wherein the airflow flows around the apparatus for processing the pineapple fruit. - a housing delimiting a processing space; - an apparatus for processing the pineapple fruit in the processing space; and - a fan for generating an airflow in the processing space, - wherein the fan is configured to generate a substantially constant airflow over a large area of at least 60% of the processing space; - and - wherein the airflow flows around the apparatus for processing the pineapple fruit.
A membrane and lens assembly, comprising: a flexible membrane (120, 220, 320, 420, 520, 620, 720) mounted with a supporting structure; a first lens (110, 210, 310, 410, 510, 610, 710) mounted on a first side of the membrane and having a surface on the first side of the membrane; a second lens separated from the first lens by the membrane, mounted on a second side of the membrane and having a surface on the second side of the membrane, opposite the first side and first lens; the first and second lenses constituting a lens group; and at least one actuator operable to vary a characteristic of the membrane, to reposition the lens group. a flexible membrane (120, 220, 320, 420, 520, 620, 720) mounted with a supporting structure; a first lens (110, 210, 310, 410, 510, 610, 710) mounted on a first side of the membrane and having a surface on the first side of the membrane; a second lens separated from the first lens by the membrane, mounted on a second side of the membrane and having a surface on the second side of the membrane, opposite the first side and first lens; the first and second lenses constituting a lens group; and at least one actuator operable to vary a characteristic of the membrane, to reposition the lens group.
A process chamber, comprising: a chamber body; a substrate support disposed in the chamber body; a sputtering target disposed in the chamber body, the sputtering target having a surface facing the substrate support; and a magnetron disposed over the sputtering target, the magnetron comprising magnets (52, 54) having ends facing the sputtering target that define a plane that is tilted at an acute angle with respect to the surface of the sputtering target, the acute angle ranging from about 0.3 degrees to about 2 degrees. a chamber body; a substrate support disposed in the chamber body; a sputtering target disposed in the chamber body, the sputtering target having a surface facing the substrate support; and a magnetron disposed over the sputtering target, the magnetron comprising magnets (52, 54) having ends facing the sputtering target that define a plane that is tilted at an acute angle with respect to the surface of the sputtering target, the acute angle ranging from about 0.3 degrees to about 2 degrees.
The icebreaker intended for operation preferably in shallow freezing water comprising a hull with sled-like stern overhang and having flat bottom and ice protection shield along the perimeter of the overhang, and steering/propulsion system disposed in the overhang and comprising two side propulsors mounted on the shafts symmetrically to the ship's CL, and arranged with regard to hull height so that the propulsor's tip edges do not protrude beyond the ship's base plane and design waterline at the propellers' location, characterized in that it is fitted with two 360-degree azimuth thrusters equipped with pulling propellers mounted on the AZT shafts in front of their pods with blade tip edges not protruding beyond the base plane and arranged symmetrically to the ship's CL displaced sternward, in such a way that the distance between the disks of AZT propellers and disks of side propulsors is not greater than the diameter of these propulsors and the 360-degree turn of azimuth thruster about its axes with no contact to ship's propulsors is provided, while the ship's stern overhang in DWL area is of wedge-type icebreaking shape with 90° - 180° wedge angle along the DWL and with its surface being inclined at no less than 30° to the vertical, and the ice protection shield with wedge-shape cross section does not protrude beyond the ship's hull and is formed so as to extend in the bow direction beyond the disks plane of ship's side propulsors by the distance not greater than two diameters of the above-mentioned propulsors, and it has height (h) at which the lower edge of the shield in the stern protrudes upwards from the rotation axes of AZT propellers at least by half the radius of these propellers.
Piece of jewellery, having an outer part and an inner part, which is movably received in the interior of the outer part, wherein the outer part comprises a rotational bearing having at least one bearing element (14a. 14b; 15a, 15b) for the inner part, by which the inner part is mounted rotationally in the outer part, so that a relative movement between the inner part and the outer part running in a direction of movement is facilitated, wherein the outer part surrounding the inner part comprising at least one opening (13, 13') through which at least a partial area of the surface of the inner part is visible, wherein the inner part can be fixed in a first index position, in which a first partial area of the inner part is visible through the opening (13; 13') and in at least one second index position, in which a second partial area of the inner part is visible through said opening (13; 13'), relatively to the outer part, characterized in that the inner part is mounted in such a way in the outer part and/or the one or at least one of the openings (13, 13') is dimensioned in such a way that the inner part protrudes the at least one opening (13, 13') or can at least be impacted by the wearer of the piece of jewellery through it, so that the afore-mentioned relative movement of the inner part received in the outer part around said at least one bearing element (14a, 14b; 15a, 15b) can be effected, such that by means of said relative movement between the inner part and the outer part the inner part can be moved at least from said first index position, in which said first area of the inner part is visible through the opening (13; 13'), in said second index position, in which said second partial area of the inner part is visible through said opening (13; 13'), that the outer part comprises at least one magnet element (18a, 18b) and the inner part comprises at least one complementary magnet element (28a, 28b; 28a-28c; 28a-28d), that the magnet element (18a, 18b) or the magnet elements (18a, 18b) of the outer part are arranged in it in a defined position, that the magnet element or at least one magnet element (28a, 28b; 28a-28c; 28a-28d) of the inner part is provided in or on the inner part in such a way that the magnet element or at least one magnet element (28a, 28b; 28a-28c; 28a-28d) can be moved by a relative movement of the inner part towards at least one magnet element (18a, 18b) of the outer part and through a further relative movement away from it, so that in a first index position and at least in the second index position at least one magnet element (18a, 18b) of the outer part is in magnetic engagement with at least one magnet element (28a, 28b; 28a-28d) of the inner part.
Method for cleaning an extrusion die from the residual metal that remains therein as result of one or more extrusion processes at a temperature below 600 °C and for the recovery of the residual metal thereof, the material being in particular aluminium, the extrusion die being formed by at least two parts (M1, M2) separable from each other, the method comprising the steps of: - providing a thrust member in correspondence of the extrusion die, said thrust member comprising at least one portion faced to said extrusion die made of a polymeric material, possibly a recycled polymeric material; - reciprocally moving of said thrust member and said extrusion die so as the thrusting action of the thrust member on the residual metal promotes the at least partial flowing out of the latter from the extrusion die; - recovery of the residual metal flowed out from the extrusion die; - removing of the polymeric material not flowed out from the extrusion die during said moving step; - mechanic and/or by chemical agent removing of the residual metal not flowed out from the extrusion die during said moving step; - opening of the extrusion die; wherein said polymeric material upon said reciprocally moving of said thrust member and said extrusion die has a water content lower than 7% by weight with respect to the total weight of the polymeric material, preferably lower than 5% by weight, and more preferably lower than 2% by weight with respect to the total weight of the polymeric material; wherein during said moving step said at least one portion is at least partially in a plastic deformation condition or melted so as the latter occupies the volume of the residual metal flowed out from the extrusion die. - providing a thrust member in correspondence of the extrusion die, said thrust member comprising at least one portion faced to said extrusion die made of a polymeric material, possibly a recycled polymeric material; - reciprocally moving of said thrust member and said extrusion die so as the thrusting action of the thrust member on the residual metal promotes the at least partial flowing out of the latter from the extrusion die; - recovery of the residual metal flowed out from the extrusion die; - removing of the polymeric material not flowed out from the extrusion die during said moving step; - mechanic and/or by chemical agent removing of the residual metal not flowed out from the extrusion die during said moving step; - opening of the extrusion die; wherein said polymeric material upon said reciprocally moving of said thrust member and said extrusion die has a water content lower than 7% by weight with respect to the total weight of the polymeric material, preferably lower than 5% by weight, and more preferably lower than 2% by weight with respect to the total weight of the polymeric material; wherein during said moving step said at least one portion is at least partially in a plastic deformation condition or melted so as the latter occupies the volume of the residual metal flowed out from the extrusion die.
An inductive power transfer pad, in particular a transfer pad of a system for inductive power transfer to a vehicle, comprising a stationary part and a movable part, wherein the movable part comprises a primary winding structure, wherein the inductive power transfer pad comprises at least one actuating means, wherein the movable part is movable at least in a first direction (z) by the at least one actuating means, wherein the inductive power transfer pad comprises a scissor lift means, wherein the movable part and the stationary part are coupled by the scissor lift means, wherein a scissor arrangement (7a, 7b) of the scissor lift means is coupled to the stationary part by at least one fixed bearing, wherein the scissor arrangement (7a, 7b) is coupled to the movable part by at least one floating bearing, wherein the actuating means is designed as a self-locking actuating means, characterized in that the inductive power transfer pad comprises at least one spring element (16, 16a, 16b), wherein the at least one spring element (16, 16a, 16b) is part of the coupling between the movable part and the stationary part, wherein the at least one spring element is designed and/or arranged such that a driving force or torque for moving the movable part is reduced.
A method for manufacturing a value document substrate suitable for a bank note (14,18), namely a polymer bank note or foil composite bank note, comprising a) the supplying of a substrate, namely a plastic substrate or a foil/paper/foil composite substrate; b1) the printing of the substrate with platelet-shaped metal pigments suitable for the forming of a reflective layer (4, 5) in a first substrate region, and the printing of the substrate with effect pigments, which adopt a different hue depending on the viewing angle, in a second substrate region; b2) the step of embossing the first substrate region and the second substrate region such that (i) the substrate in the first substrate region has a relief structure which forms a diffractive structure, and the substrate in the second substrate region has a relief structure which forms a micro-mirror arrangement, or (ii) the substrate in the first substrate region has a relief structure which forms a micro-mirror arrangement, and the substrate in the second substrate region has a relief structure which forms a diffractive structure. a) the supplying of a substrate, namely a plastic substrate or a foil/paper/foil composite substrate; b1) the printing of the substrate with platelet-shaped metal pigments suitable for the forming of a reflective layer (4, 5) in a first substrate region, and the printing of the substrate with effect pigments, which adopt a different hue depending on the viewing angle, in a second substrate region; b2) the step of embossing the first substrate region and the second substrate region such that (i) the substrate in the first substrate region has a relief structure which forms a diffractive structure, and the substrate in the second substrate region has a relief structure which forms a micro-mirror arrangement, or (ii) the substrate in the first substrate region has a relief structure which forms a micro-mirror arrangement, and the substrate in the second substrate region has a relief structure which forms a diffractive structure. b1) the printing of the substrate with platelet-shaped metal pigments suitable for the forming of a reflective layer (4, 5) in a first substrate region, and the printing of the substrate with effect pigments, which adopt a different hue depending on the viewing angle, in a second substrate region; b2) the step of embossing the first substrate region and the second substrate region such that (i) the substrate in the first substrate region has a relief structure which forms a diffractive structure, and the substrate in the second substrate region has a relief structure which forms a micro-mirror arrangement, or (ii) the substrate in the first substrate region has a relief structure which forms a micro-mirror arrangement, and the substrate in the second substrate region has a relief structure which forms a diffractive structure.
An article of apparel (1200, 1300) having a predistorted three-dimensional pattern printed thereon, appearing distorted in an unworn and approximately two-dimensional and relaxed state of its material, wherein distortion of the predistorted three-dimensional pattern takes into account length and curvature measurements gathered from a wearer's leg and corresponding dimensional measurements from the article of apparel (1200, 1300), wherein the printed pattern (1340, 1840) manifests itself in an undistorted manner on the article of apparel (1200, 1300) when worn on an irregular three-dimensional shape of the wearer. wherein distortion of the predistorted three-dimensional pattern takes into account length and curvature measurements gathered from a wearer's leg and corresponding dimensional measurements from the article of apparel (1200, 1300), wherein the printed pattern (1340, 1840) manifests itself in an undistorted manner on the article of apparel (1200, 1300) when worn on an irregular three-dimensional shape of the wearer.
A process for the bonding of solid bodies via a thermoplastic elastomer preparation, which comprises heating the preparation by means of electromagnetic radiation until it melts and thus the solid bodies are bonded to one another, where the frequency of the electromagnetic radiation is from 0.01 GHz to 300 GHz, the elastomer comprises an additive that absorbs the electromagnetic radiation, the additive is liquid at 18°C and is selected from the group comprising glycerol triacetate, triethylene glycol, tripropylene glycol and citric ester.
A control method for a refrigerator comprising the steps of: (a) quickly making ice from water by turning on a cooling fan regardless of the load of a freezing compartment, when quick ice-making instructions are inputted through a control panel, characterized in that the cooling fan and a compressor are controlled according to a load of the freezing compartment, wherein the cooling fan in the step (a) is rotated at a rotary frequency having a predetermined rpm higher than those in other steps. (a) quickly making ice from water by turning on a cooling fan regardless of the load of a freezing compartment, when quick ice-making instructions are inputted through a control panel,