mhurhangee/ep-ind-claims huggingface dataset:
Milling tool comprising on one hand a basic body, which is rotatable on a centre axis and includes a peripheral cam, which includes two flank surfaces (5a, 5b) converging toward a common transition surface, in each one of which flank surfaces there are countersunk a plurality of tangentially spaced-apart seats, each one of which comprises a radial support surface, a tangential support surface, and an axial support surface in which a screw hole mouths that is radially spaced apart from the radial support surface, and on the other hand a plurality of replaceable milling inserts, which individually have an elongate basic shape and comprise two opposite and mutually parallel chip surfaces, two opposite and mutually parallel clearance surfaces, as well as a pair of opposite ends, and which include a through hole extending between the clearance surfaces, each one of the two chip surfaces transforming into connecting clearance surfaces via a pair of alternately usable cutting edges having identical shape, and the individual milling insert being fixed in an appurtenant seat by means of a screw that is tightened in the screw hole, characterized in that the screw hole is placed at a distance from the radial support surface that is greater than its distance to the radially outer end of the axial support surface, and that the milling insert includes two holes (21, 22), which extend continuously between the clearance surfaces and are equidistantly separated from proximal ends as well as separated from distal ends by a distance that is somewhat greater than the distance between the screw hole and the radial support surface while providing a longitudinal eccentricity between the screw hole and the individual hole (21, 22) in the milling insert, as well as also separated from the individual chip surface by a distance (W/2) that is somewhat greater than the transversal distance between the screw hole and the tangential support surface while providing a transversal eccentricity between said hole (21, 22) and the screw hole, said eccentricities upon tightening of the screw applying a clamping force to the same, which clamping force resiliently presses the milling insert against the radial support surface as well as against the tangential support surface.
A system comprising an axial-type magnetic encoder and an outer ring, wherein the axial-type magnetic encoder, comprises: an annular fixing member that has a cylindrical part attached to an outer ring serving as a rotating body and an inward flange part extended more radially inward than an end edge of the cylindrical part; and an annular plastic magnet that is attached to a sensor-opposed surface of the inward flange part and has at an inner peripheral part a wrap-around binding part wrapping around from the sensor-opposed surface to a back surface, wherein a separated inner peripheral part separated from the outer ring so as to have a step is formed at an inner diameter-side portion of the inward flange part while an outer diameter-side portion of a back surface of the inward flange part is abutted against the outer ring, the inner peripheral part of the annular plastic magnet wraps around to a back surface of the separated inner peripheral part, and the wrap-around binding part of the annular plastic magnet wrapping around to the back surface of the separated inner peripheral part does not come closer to the rotating body than the outer diameter-side portion of the back surface of the inward flange part. an annular fixing member that has a cylindrical part attached to an outer ring serving as a rotating body and an inward flange part extended more radially inward than an end edge of the cylindrical part; and an annular plastic magnet that is attached to a sensor-opposed surface of the inward flange part and has at an inner peripheral part a wrap-around binding part wrapping around from the sensor-opposed surface to a back surface, wherein a separated inner peripheral part separated from the outer ring so as to have a step is formed at an inner diameter-side portion of the inward flange part while an outer diameter-side portion of a back surface of the inward flange part is abutted against the outer ring, the inner peripheral part of the annular plastic magnet wraps around to a back surface of the separated inner peripheral part, and the wrap-around binding part of the annular plastic magnet wrapping around to the back surface of the separated inner peripheral part does not come closer to the rotating body than the outer diameter-side portion of the back surface of the inward flange part.
Method for unlocking a vehicle locking assembly of a vehicle using an electronically readable identification document, wherein the electronically readable identification document comprises an optically detectable identification code, comprising: optically detecting the optically detectable identification code of the electronically readable identification document; establishing a first communication connection between the electronically readable identification document and the vehicle locking assembly on the basis of the optically detected identification code; establishing a second communication connection between the vehicle locking assembly and an identification server; reading out an electronic identification from the identification document by the identification server via the first communication connection and the second communication connection; and unlocking the vehicle locking assembly upon matching between the readout electronic identification and a prestored electronic identification. optically detecting the optically detectable identification code of the electronically readable identification document; establishing a first communication connection between the electronically readable identification document and the vehicle locking assembly on the basis of the optically detected identification code; establishing a second communication connection between the vehicle locking assembly and an identification server; reading out an electronic identification from the identification document by the identification server via the first communication connection and the second communication connection; and unlocking the vehicle locking assembly upon matching between the readout electronic identification and a prestored electronic identification.
A tool for safely disassembling and reassembling blades for slicing machines, comprising a protective body that is extended around a main axis and has a perimetric profile adapted to be superimposed, with one of its sides, on a peripheral band of the blade, said protective body supporting rotatably, about said main axis, an actuation element that can engage a rotatable locking element of the blade which is provided on the blade and can engage the slicing machine, said protective body supporting, on its opposite side with respect to the side to be directed toward the blade, an actuation handle which is connected to said actuation element and can be maneuvered to turn said actuation element with respect to said protective body about said main axis, characterized in that said actuation handle is supported rotatably by said protective body about a secondary axis, which is parallel and spaced with respect to said main axis and is connected to said actuation element through a kinematic transmission, which is adapted to increase the torque transmitted by said actuation handle to said actuation element.
A system comprising an adaptor and a plurality of different inserts for use with the adaptor, wherein the adaptor is adapted to fit onto and/or around an element (4, 4a, 4b) on or for a coordinate positioning machine, the element (4, 4a, 4b) having a point of interest, wherein the adaptor comprises an at least part-spherical bearing surface having a centre point which, when fitted onto and/or around the element (4, 4a, 4b), substantially coincides with the point of interest, and wherein the adaptor is adapted to receive the plurality of different inserts (26, 26a, 26b) in a generic manner, with the inserts (26, 26a, 26b) being adapted to receive different respective elements (4, 4a, 4b) or types of element (4, 4a, 4b), thereby enabling the adaptor to be used with a variety of different elements (4, 4a, 4b) or types of element (4, 4a, 4b).
A method for circumferentially aligning samples within a magazine to optimize a reflected light signal of the samples, said magazine including a carousel base assembly, said method comprising applying light to a sample, providing a member to measure the light reflectance from the sample, and rotating the carousel base assembly back and forth along an arc that approximates a 9° offset for each sample until the light reflectance signal is maximized, wherein the method includes providing a light source for applying the light to the sample and providing the receiver for receiving the reflected light and measuring the light reflectance from the sample characterised in that both the light source and the receiver are located above the sample, emitting light at a first wavelength to the sample at the fine-tuned position, and measuring reflected fluorescence light emitted from the sample at a second wavelength.
An M240 machine gun (110; 310) comprising: an M240 machine gun having a receiver (18; 318) with a floor, top, proximal end and distal end, wherein the floor of the receiver comprises an ejection port (130; 330), trigger opening and receiver floor wall (134; 334); a buttstock connected to the proximal end of the receiver (18; 318); a barrel connected to said distal end of the receiver; and a trigger housing assembly with a grip, the trigger housing assembly being attached to the floor of the receiver (18; 318), characterized in that the receiver floor wall (134; 334) is positioned between the proximal end of the receiver (18; 318) and the trigger opening, the trigger opening is positioned between the receiver floor wall (134; 334) and the ejection port (130; 330), the trigger housing assembly is attached to the floor so as to be positioned in a forward position between the receiver floor wall (134; 334) and the ejection port (130; 330) and at least two inches (approximately 50.8 mm) from the proximal end of the receiver (18;318) with the grip spaced distally from the proximal end of the receiver (18; 318). an M240 machine gun having a receiver (18; 318) with a floor, top, proximal end and distal end, wherein the floor of the receiver comprises an ejection port (130; 330), trigger opening and receiver floor wall (134; 334); a buttstock connected to the proximal end of the receiver (18; 318); a barrel connected to said distal end of the receiver; and a trigger housing assembly with a grip, the trigger housing assembly being attached to the floor of the receiver (18; 318), characterized in that the receiver floor wall (134; 334) is positioned between the proximal end of the receiver (18; 318) and the trigger opening, the trigger opening is positioned between the receiver floor wall (134; 334) and the ejection port (130; 330), the trigger housing assembly is attached to the floor so as to be positioned in a forward position between the receiver floor wall (134; 334) and the ejection port (130; 330) and at least two inches (approximately 50.8 mm) from the proximal end of the receiver (18;318) with the grip spaced distally from the proximal end of the receiver (18; 318).
Cogeneration plant comprising - a combustion chamber for combusting an energy carrier, - electrical energy generation means for generating electrical energy from heat energy generated by combusting the energy carrier, - a waste heat recovery system which is configured to convert waste heat in electrical energy, wherein the waste heat recovery system comprises at least one rotary engine and one generator, wherein the rotary engine can be driven with the help of waste heat and is coupled with the generator for generating electrical energy with the generator upon rotation of the rotary engine, - wherein the rotary engine comprises a housing forming an inner room in which at least two rotary pistons (20, 30) are arranged such that they rotate jointly when a fluid flows through the inner room, - wherein each rotary piston (20, 30) comprises at least two sealing strips (25, 26, 35, 36) and at least two recesses (27, 28, 37, 38) at its outer circumference, wherein the shapes of the recesses (27, 28, 37, 38) and the sealing strips (25, 26, 35, 36) are chosen for engagement of the sealing strips (25, 26, 35, 36) of each one of the rotary pistons (20, 30) with the recesses (27, 28, 37, 38) of the respectively other rotary piston (20, 30), - wherein the sealing strips (25, 26, 35, 36) are sized in radial direction for sealingly contacting a housing inner surface, - wherein the sealing strips (25, 26, 35, 36) comprise a deformable material so that the sealing strips (25, 26, 35, 36) can be sealingly pressed against the housing inner surface by the fluid. - a combustion chamber for combusting an energy carrier, - electrical energy generation means for generating electrical energy from heat energy generated by combusting the energy carrier, - a waste heat recovery system which is configured to convert waste heat in electrical energy, wherein the waste heat recovery system comprises at least one rotary engine and one generator, wherein the rotary engine can be driven with the help of waste heat and is coupled with the generator for generating electrical energy with the generator upon rotation of the rotary engine, - wherein the rotary engine comprises a housing forming an inner room in which at least two rotary pistons (20, 30) are arranged such that they rotate jointly when a fluid flows through the inner room, - wherein each rotary piston (20, 30) comprises at least two sealing strips (25, 26, 35, 36) and at least two recesses (27, 28, 37, 38) at its outer circumference, wherein the shapes of the recesses (27, 28, 37, 38) and the sealing strips (25, 26, 35, 36) are chosen for engagement of the sealing strips (25, 26, 35, 36) of each one of the rotary pistons (20, 30) with the recesses (27, 28, 37, 38) of the respectively other rotary piston (20, 30), - wherein the sealing strips (25, 26, 35, 36) are sized in radial direction for sealingly contacting a housing inner surface, - wherein the sealing strips (25, 26, 35, 36) comprise a deformable material so that the sealing strips (25, 26, 35, 36) can be sealingly pressed against the housing inner surface by the fluid.
A ferritic stainless steel alloy, consisting of, by weight: 20% to 22% chromium; 0.5% to 1.0% manganese; 1.0% to 2.5% silicon; 1.5% to 2.2% tungsten; 1.3% to 1.8% niobium; 0.35% to 0.45% carbon; phosphorus at no more than 0.04%; sulfur at not more than 0.03%; and a balance of iron and unavoidable / inevitable impurities.
A watercraft, comprising a main hull (1; 1a) and at least two outriggers (2a, 2b) which are fixed to the main hull (1; 1a) in a height-adjustable manner and can be brought into a position arranged below the main hull (1; 1a) characterised in that the outriggers (2a, 2b) lie in a position below the main hull (1; 1a) directly adjacent to one another and form a common compact shell, wherein they form a boat shape on their outer sides and lie with their inner sides essentially close together.
A disposable bedpan (10, 20) with lid, comprising: A) a bedpan (10, 20) comprising a base and a sidewall having at least one lateral support (26, 28, 30), said bedpan (10, 20) further comprises a top ridge and a front ridge, said bedpan (10, 20) further comprises a front top cavity defined between said top ridge and said front ridge; B) a cover comprising a cover base and a u-shaped cover base ridge, said u-shaped cover base ridge is inserted into said front top cavity when said cover mounts upon said bedpan (10, 20), said cover is connected to said bedpan (10, 20) by a hinge; and C) a lid comprising a lid panel, said lid is connected to said bedpan (10, 20) by a lid hinge, said lid further comprises at least one panel locking protrusion that secures upon said cover when in a closed configuration, said cover and said lid seal said bedpan (10, 20) to prevent waste from coming out when in said closed configuration. A) a bedpan (10, 20) comprising a base and a sidewall having at least one lateral support (26, 28, 30), said bedpan (10, 20) further comprises a top ridge and a front ridge, said bedpan (10, 20) further comprises a front top cavity defined between said top ridge and said front ridge; B) a cover comprising a cover base and a u-shaped cover base ridge, said u-shaped cover base ridge is inserted into said front top cavity when said cover mounts upon said bedpan (10, 20), said cover is connected to said bedpan (10, 20) by a hinge; and C) a lid comprising a lid panel, said lid is connected to said bedpan (10, 20) by a lid hinge, said lid further comprises at least one panel locking protrusion that secures upon said cover when in a closed configuration, said cover and said lid seal said bedpan (10, 20) to prevent waste from coming out when in said closed configuration.
A multicomponent packaging unit (kit of parts) for oxidatively dyeing keratin fibers, comprising two preparations and that are packaged separately from one another, wherein (a) the preparation contains in a cosmetic carrier at least one oxidation dye precursor and ammonia and (b) the preparation contains in a cosmetic carrier hydrogen peroxide at least one fatty alcohol from the group arachyl alcohol (eicosan-1-ol), gadoleyl alcohol ((9 Z)-eicos-9-en-1-ol), arachidonic alcohol ((5 Z,8 Z,11 Z,14 Z)-eicosa-5,8,11,14-tetraen-1-ol), heneicosyl alcohol (heneicosan-1-ol), behenyl alcohol (docosan-1-ol), erucyl alcohol ((13 Z)-docos-13-en-1-ol) and/or brassidyl alcohol ((13 E)-docosen-1-ol), at least one hydrocarbon having 8 to 80 C atoms and at least one ethoxylated fatty alcohol of formula, where R1 represents an unbranched or branched, saturated or unsaturated C 12 -C 28 alkyl group and n represents an integer from 80 to 120. (a) the preparation contains in a cosmetic carrier at least one oxidation dye precursor and ammonia and at least one oxidation dye precursor and ammonia (b) the preparation contains in a cosmetic carrier hydrogen peroxide at least one fatty alcohol from the group arachyl alcohol (eicosan-1-ol), gadoleyl alcohol ((9 Z)-eicos-9-en-1-ol), arachidonic alcohol ((5 Z,8 Z,11 Z,14 Z)-eicosa-5,8,11,14-tetraen-1-ol), heneicosyl alcohol (heneicosan-1-ol), behenyl alcohol (docosan-1-ol), erucyl alcohol ((13 Z)-docos-13-en-1-ol) and/or brassidyl alcohol ((13 E)-docosen-1-ol), at least one hydrocarbon having 8 to 80 C atoms and at least one ethoxylated fatty alcohol of formula, where R1 represents an unbranched or branched, saturated or unsaturated C 12 -C 28 alkyl group and n represents an integer from 80 to 120. hydrogen peroxide at least one fatty alcohol from the group arachyl alcohol (eicosan-1-ol), gadoleyl alcohol ((9 Z)-eicos-9-en-1-ol), arachidonic alcohol ((5 Z,8 Z,11 Z,14 Z)-eicosa-5,8,11,14-tetraen-1-ol), heneicosyl alcohol (heneicosan-1-ol), behenyl alcohol (docosan-1-ol), erucyl alcohol ((13 Z)-docos-13-en-1-ol) and/or brassidyl alcohol ((13 E)-docosen-1-ol), at least one hydrocarbon having 8 to 80 C atoms and at least one ethoxylated fatty alcohol of formula, where R1 represents an unbranched or branched, saturated or unsaturated C 12 -C 28 alkyl group and n represents an integer from 80 to 120. R1 represents an unbranched or branched, saturated or unsaturated C 12 -C 28 alkyl group and n represents an integer from 80 to 120.
A method of manufacturing a high-voltage electrical insulator comprising at least one metal insulator element (4, 6) cemented to a dielectric insulator element by means of a cement mortar, in which method, at least one of the following steps is performed: • preparing said cement mortar from a dry mix comprising at least aluminous cement and sand, said dry mix being mixed with at least water; • assembling said dielectric insulator element with said metal insulator element (4, 6), said cement mortar being placed between said dielectric insulator element and said metal insulator element (4, 6); and • vibrating said dielectric insulator element and said metal insulator element (4, 6) as assembled together, so as to distribute said cement mortar between said dielectric insulator element and said metal insulator element (4, 6); said method being characterized in that, in order to prepare said cement mortar, at least one active ingredient of the polymer superplasticizer type based on polyglycol methacrylic acid ester is added, and in that said vibrating is performed for a duration lying in the range 2 seconds to 20 seconds, and preferably in the range 4 seconds to 15 seconds. • preparing said cement mortar from a dry mix comprising at least aluminous cement and sand, said dry mix being mixed with at least water; • assembling said dielectric insulator element with said metal insulator element (4, 6), said cement mortar being placed between said dielectric insulator element and said metal insulator element (4, 6); and • vibrating said dielectric insulator element and said metal insulator element (4, 6) as assembled together, so as to distribute said cement mortar between said dielectric insulator element and said metal insulator element (4, 6);
A knitted component for an upper of an article of footwear having an upper and a sole structure, the knitted component comprising: a first portion formed by a first yarn; and a second portion formed by a second yarn; characterized in that the second yarn is disposed along an edge portion of the knitted component configured to be attached to the sole structure; wherein the first yarn has durable water repellant properties; wherein the second yarn is different from the first yarn; and wherein the knitted component including the first portion and the second portion is formed of unitary knit construction. a first portion formed by a first yarn; and a second portion formed by a second yarn; characterized in that the second yarn is disposed along an edge portion of the knitted component configured to be attached to the sole structure; wherein the first yarn has durable water repellant properties; wherein the second yarn is different from the first yarn; and wherein the knitted component including the first portion and the second portion is formed of unitary knit construction.
A method of producing a PZT thin film-forming composition, the method comprising: a step of allowing composition precursor raw materials, which contain PZT precursor substances at a concentration of 23 to 38 mass% in terms of oxides in 100 mass% of the composition precursor raw materials, and a high-molecular compound to react with each other to obtain a PZT thin film-forming composition precursor; and a step of aging the PZT thin film-forming composition precursor at a temperature of 0 to 10°C for at least 30 days, wherein the high-molecular compound is polyvinyl pyrrolidone or polyethylene glycol. a step of allowing composition precursor raw materials, which contain PZT precursor substances at a concentration of 23 to 38 mass% in terms of oxides in 100 mass% of the composition precursor raw materials, and a high-molecular compound to react with each other to obtain a PZT thin film-forming composition precursor; and a step of aging the PZT thin film-forming composition precursor at a temperature of 0 to 10°C for at least 30 days, wherein the high-molecular compound is polyvinyl pyrrolidone or polyethylene glycol.