mhurhangee/ep-ind-claims huggingface dataset:
A security element for securing security papers, value documents and other data carriers, having a lens grid image for the unscaled display of two or more predetermined target images (14A, 14B), - the lens grid image including a lens grid and, arranged spaced apart from the lens grid, a motif image that displays the predetermined target images when viewed with the lens grid, - the lens grid being formed from a plurality of non-cylindrical microlenses that are arranged in a grid having the symmetry of a parallelogram lattice, the parallelogram grid comprising an oblique-angled unit lattice cell having sides (s 1, s 2) of unequal length and an intermediate angle (σ), - the motif image being formed from a plurality of unit cells that are arranged offset from one another in the parallelogram grid of the lens grid, - each of the unit cells being partitioned into two or more sub-areas (30-1, 30-2, 30-3, 30-4), each of said sub-areas being allocated to exactly one of the target images (14A,14B) and each including one unscaled section of the target image to which the sub-area is allocated, and - the relative position of the microlenses and of the sub-areas (30-1, 30-2,30-3,30-4) of the unit cells each defining a viewing angle range (32-1, 32-2) from which the target image to which the sub-area is allocated is displayed unsealed when viewed. - the lens grid image including a lens grid and, arranged spaced apart from the lens grid, a motif image that displays the predetermined target images when viewed with the lens grid, - the lens grid being formed from a plurality of non-cylindrical microlenses that are arranged in a grid having the symmetry of a parallelogram lattice, the parallelogram grid comprising an oblique-angled unit lattice cell having sides (s 1, s 2) of unequal length and an intermediate angle (σ), - the motif image being formed from a plurality of unit cells that are arranged offset from one another in the parallelogram grid of the lens grid, - each of the unit cells being partitioned into two or more sub-areas (30-1, 30-2, 30-3, 30-4), each of said sub-areas being allocated to exactly one of the target images (14A,14B) and each including one unscaled section of the target image to which the sub-area is allocated, and - the relative position of the microlenses and of the sub-areas (30-1, 30-2,30-3,30-4) of the unit cells each defining a viewing angle range (32-1, 32-2) from which the target image to which the sub-area is allocated is displayed unsealed when viewed.
A floating fiber optic pin contact comprising a ceramic ferrule defining a glass fiber channel for allowing light beams to pass therethrough, the ceramic ferrule having an end portion with a first diameter and a body portion with a second diameter that is smaller than the first diameter, wherein the floating fiber optic pin contact comprises: a multi-piece body having an inner body member in physical contact with the body portion of the ceramic ferrule and an outer body member not in physical contact with the body portion of the ceramic ferrule and spaced apart from the inner body member, wherein the outer body member is concentrically positioned around the inner body member; and a washer connected between the inner body member and the outer body member and spacing apart the inner body member and the outer body member, wherein a gap between the inner body member and the outer body member allows radial and angular float of the ceramic ferrule.
A passenger protection apparatus, comprising: a vehicle seat having a seat cushion forming a seating face along with a seat back forming a backrest; and a side airbag apparatus housed in this seat, wherein: the seat back comprises a side support part which swells in the vehicle traveling direction (vehicle front) on the vehicle width direction side (end) when mounted in the vehicle, a side frame part having a frame side wall part (which extends in the vehicle traveling direction when the horizontal cross section is seen from above) is arranged inside the side support part when mounted in the vehicle, the side airbag apparatus comprises: an airbag for restraining a passenger when expanded and deployed; and an inflator for supplying expansion gas to the airbag, the airbag comprises: a first chamber which houses the inflator and is deployed outside in the vehicle width direction of the frame side wall part; and the first chamber is deployed such that at least a portion thereof, as seen from the vehicle side, overlaps the frame side wall part, characterized in that a second chamber which is deployed inside in the vehicle width direction of the frame side wall part with respect to this first chamber; and an internal expanding part which is arranged in the second chamber, and expands at least on the rear side of the vehicle in the second chamber via the gas flowing out from the first chamber when mounted in the vehicle, and and the second chamber is configured to be expandable via the gas flowing out from the internal expanding part. the seat back comprises a side support part which swells in the vehicle traveling direction (vehicle front) on the vehicle width direction side (end) when mounted in the vehicle, a side frame part having a frame side wall part (which extends in the vehicle traveling direction when the horizontal cross section is seen from above) is arranged inside the side support part when mounted in the vehicle, the side airbag apparatus comprises: an airbag for restraining a passenger when expanded and deployed; and an inflator for supplying expansion gas to the airbag, the airbag comprises: a first chamber which houses the inflator and is deployed outside in the vehicle width direction of the frame side wall part; and the first chamber is deployed such that at least a portion thereof, as seen from the vehicle side, overlaps the frame side wall part, characterized in that a second chamber which is deployed inside in the vehicle width direction of the frame side wall part with respect to this first chamber; and an internal expanding part which is arranged in the second chamber, and expands at least on the rear side of the vehicle in the second chamber via the gas flowing out from the first chamber when mounted in the vehicle, and and the second chamber is configured to be expandable via the gas flowing out from the internal expanding part.
Fuel injection valve for fuel injection systems of internal combustion engines, in particular for the direct injection of fuel into the combustion chamber of an internal combustion engine, having an actuator (9, 10, 13, 20), by way of the excitation of which a stroke movement of a valve needle can be realized, thus permitting an actuation of a valve closing body which, together with a valve seat surface, forms a sealing seat, and having an inflow-side fuel feed, wherein, in the fuel inflow, there is arranged a setting element for setting the spring force of a restoring spring, characterized in that the setting element is equipped with a securing means for the restoring spring, such that the restoring spring can be captively premounted on the setting element before the installation of said setting element in the fuel injection valve, wherein the securing means is integrally formed on a sleeve which closes off the setting element to the outside, and the sleeve is a thin-walled, deep-drawn component.
A method comprising: assigning, by a networking device, a unique Provider Virtual Local Area Network tag, S-TAG, to a group of ports and a unique IEEE 802. IQ tag header, C-TAG, to each port in the group of ports to implement a N:1 Virtual Local Area Network, VLAN, allocation scheme, wherein the S-TAG is configured to identify a type of frame in the VLAN allocation scheme, wherein the group of ports is included in the networking device that communicatively connects a Customer Edge, CE, device to a Provider Edge, PE, device; and receiving, by the networking device, a frame from the PE device, the frame including the S-TAG assigned to the group of ports and a C-TAG assigned to a particular port in the group of ports; and forwarding, by the networking device, the frame from the particular port to the CE device based upon both the S-TAG and the C-TAG in the frame. assigning, by a networking device, a unique Provider Virtual Local Area Network tag, S-TAG, to a group of ports and a unique IEEE 802. IQ tag header, C-TAG, to each port in the group of ports to implement a N:1 Virtual Local Area Network, VLAN, allocation scheme, wherein the S-TAG is configured to identify a type of frame in the VLAN allocation scheme, wherein the group of ports is included in the networking device that communicatively connects a Customer Edge, CE, device to a Provider Edge, PE, device; and receiving, by the networking device, a frame from the PE device, the frame including the S-TAG assigned to the group of ports and a C-TAG assigned to a particular port in the group of ports; and forwarding, by the networking device, the frame from the particular port to the CE device based upon both the S-TAG and the C-TAG in the frame.
A transmitter device (200,300,400,500,600) comprising: a neutron detector (210,610) structured to detect neutron flux; a capacitor (212,612) electrically connected in parallel with said neutron detector (210,610); a gas discharge tube (214,614) comprising an input end and an output end, said input end being electrically connected with said capacitor (212,612); and an antenna (220,320,420,520,620) electrically connected to said output end, said antenna (220,320,420,520,620) being structured to emit a signal corresponding to the neutron flux. a neutron detector (210,610) structured to detect neutron flux; a capacitor (212,612) electrically connected in parallel with said neutron detector (210,610); a gas discharge tube (214,614) comprising an input end and an output end, said input end being electrically connected with said capacitor (212,612); and an antenna (220,320,420,520,620) electrically connected to said output end, said antenna (220,320,420,520,620) being structured to emit a signal corresponding to the neutron flux.
Blade for a wind turbine comprising a trailing edge and a leading edge longitudinally extending from the blade tip to the blade root, a lightning protection system with at least one lightning receptor arranged on the blade tip for receiving lightning and at least one lightning down conductor for conducting a lightning current received by the lightning receptor to the blade root, and an ice formation prevention system with a conductive layer arranged along the leading edge having a first end oriented to the blade tip and a second end oriented to the blade root, and a first connection terminal placed on the first end of the conductive layer and a second connection terminal placed on the second end of the conductive layer for electrically connecting the conductive layer with a power supply unit, the first connection terminal of the conductive layer is electrically connected with the lightning down conductor, characterized in that the first connection terminal partially contacts the conductive layer and has a rear section connected to the conductive layer and a front section that longitudinally extends towards the blade tip.
An engine device comprising: a urea mixing pipe which injects urea water into exhaust gas of an engine; an SCR case which removes nitrogen oxides in the exhaust gas of the engine; and an inlet side of the SCR case being connected to an outlet side of the urea mixing pipe, wherein an exhaust gas outlet side of the SCR case is connected to an exhaust gas inlet side of the urea mixing pipe where a urea water injection means is arranged, and the exhaust gas inlet side of the urea mixing pipe is supported to the exhaust gas outlet side of the SCR case, characterized in that a urea water injection body is arranged in the exhaust gas inlet side of the urea mixing pipe which is connected to the exhaust gas outlet side of the SCR case by a support member (142, 143), and a urea water supply hose connected to the urea water injection body is firmly fixed to the support member (142, 143) by a clamp member. a urea mixing pipe which injects urea water into exhaust gas of an engine; an SCR case which removes nitrogen oxides in the exhaust gas of the engine; and an inlet side of the SCR case being connected to an outlet side of the urea mixing pipe, wherein an exhaust gas outlet side of the SCR case is connected to an exhaust gas inlet side of the urea mixing pipe where a urea water injection means is arranged, and the exhaust gas inlet side of the urea mixing pipe is supported to the exhaust gas outlet side of the SCR case,
An illumination unit for a motor-vehicle headlamp for creating a light bundle with cut-off line, wherein the illumination unit comprises: - at least one light source, - at least one collimator, - one light source in each case for each collimator, - an exit lens with an outer surface, - a focal-line region, which is arranged between the at least one collimator and the exit lens, wherein the at least one collimator aligns the light beams fed into the collimator by the light source assigned to the collimator to form a light bundle of light beams, and wherein light beams of the light bundle exiting from the at least one collimator make it into the focal-line region, and wherein the light beams exiting from the at least one collimator are deflected at least in the vertical direction by the exit lens in such a manner that the light beams exiting from the exit lens form a light distribution with a cut-off line, wherein the cut-off line is created as an image of the focal line or the focal-line region by the exit lens, and wherein the at least one collimator, the exit lens and the focal-line region are formed in one piece from a transparent body, and wherein the light beams (S1, S2) propagating in the transparent body are totally internally reflected at least at one boundary surface of the at least one collimator, wherein the at least one collimator is constructed and arranged in such a manner that light beams exiting from the at least one collimator are bundled in the vertical direction onto a focal line, which lies in the focal-line region and runs in a straight line, characterized in that the outer surface of the exit lens is formed by a groove-like structure in a smooth base surface, wherein the grooves forming the groove-like structure run in a substantially vertical direction, and wherein in each case two grooves lying next to one another in the horizontal direction are separated by an elevation, which in particular runs substantially vertically and extends over the entire vertical extent of the grooves, wherein the groove depth changes, linearly in particular, from a certain initial value A 0 at an upper edge of the exit lens to a value of zero at a lower edge of the exit lens, wherein the at least one collimator, in particular at least one boundary surface and/or a central coupling region of the at least one collimator, is or are constructed in such a manner that the light beams exiting from the at least one collimator run parallel to one another in the horizontal direction. - at least one light source, - at least one collimator, - one light source in each case for each collimator, - an exit lens with an outer surface, - a focal-line region, which is arranged between the at least one collimator and the exit lens,
A method of artificial selection comprising: (i) genotyping an individual in a current population for the presence or absence of one or more informative markers in a plurality of chromosome segments, wherein the population is a population of plants or animals having a small effective population size of less than 1000 individuals, (ii) tracing the lineages of the plurality of chromosome segments back to one or more ancestors and/or founders from which they are derived, (iii) inferring genotypes of each chromosome segment to be the same as for one or more ancestors and/or founders from which the chromosome segments are derived, (iv) estimating the breeding value of the individual based on the inferred genotypes, wherein each ancestor or founder is an ancestor or founder providing at least 0.1% of the total genetic variance to the current population and wherein the genotypes of the one or more ancestors and/or founders for one or more informative markers are known, and (v) selecting an individual having a high estimated breeding value,. and wherein the population or individual is non-human. (i) genotyping an individual in a current population for the presence or absence of one or more informative markers in a plurality of chromosome segments, wherein the population is a population of plants or animals having a small effective population size of less than 1000 individuals, (ii) tracing the lineages of the plurality of chromosome segments back to one or more ancestors and/or founders from which they are derived, (iii) inferring genotypes of each chromosome segment to be the same as for one or more ancestors and/or founders from which the chromosome segments are derived, (iv) estimating the breeding value of the individual based on the inferred genotypes, wherein each ancestor or founder is an ancestor or founder providing at least 0.1% of the total genetic variance to the current population and wherein the genotypes of the one or more ancestors and/or founders for one or more informative markers are known, and (v) selecting an individual having a high estimated breeding value,. and wherein the population or individual is non-human.
A contact device (10, 20, 30, 40, 50) adapted to be inserted between the two contact surfaces of two conductors (32 and 34) of an electrical connection provided with at least one bolt (37, 38, 39), said device consisting of a metal foam plate with high porosity and deformability in order to reduce the electrical resistance of the connection, the surface area of said metal foam plate is at least equal to the contacting surface area of said two conductors, said metal foam plate comprising at least one circular opening intended to contain the bolt, Characterized in that said metal foam plate comprises at least one first pre-cut (18, 28) located between said opening and an outer edge of the contact device, said pre-cut being made by cutting the foam plate over a part of its thickness so as to weaken it and make it easily frangible along said pre-cut, said pre-cut allowing the bolt to be passed through it during the installation of said contact device between the two contact surfaces of said two conductors, the said contact device comprising a gripping means (21, 31) located outside the surface of said foam plate intended to come into contact with the contact surfaces of said two conductors.
A method for producing a dialkylaminosilane, by allowing a dialkylamine to react with a chlorosilane in a mixed solvent of an aprotic polar solvent and a solvent of straight-chain or branched hydrocarbon, wherein the aprotic polar solvent is at least one selected from acetonitrile, tetrahydrofuran, dimethylformamide, acetone, dichloromethane, dimethylsulfoxide, dioxane, dimethylacetamide, and hexamethylphosphoramide, the dialkylamine is represented by a chemical formula: in which R1 and R2 are independently a straight-chain alkyl group having 1 to 6 carbons or a branched alkyl group having 3 to 6 carbons, and the chlorosilane is represented by a chemical formula: R3 n -Si-Cl (4-n) in which R3 is hydrogen, a straight-chain alkyl group having 1 to 6 carbons, a branched alkyl group having 3 to 6 carbons or a phenyl group, and n is an integer from 0 to 3.
A method for the production of olefins by the catalytic dehydrogenation of at least one hydrocarbon, comprising the steps of: a) superheating steam (11; S); b) transferring heat from the superheated steam (13; 126, 118) to a process stream (103, 106), wherein, after transferring the heat, the steam becomes spent steam (15; 128, 120); c) dividing at least some of the spent steam (15; 120) into a first portion (19; 122) and a second portion (22; 124); d) pressurizing the first portion (19; 122) of spent steam (15; 120); e) recycling the pressurized first portion (21; 116) of spent steam (15; 120) to superheating step (a); and f) introducing the second portion (22; 124) of the spent steam (15; 120) into the process stream, wherein: the at least one hydrocarbon is selected from the group comprising ethylbenzene, ethyltoluene, n-propylbenzene, ethane, propane and butane; the process stream comprises steam and the at least one hydrocarbon in a weight ratio of steam to hydrocarbon(s) of no more than 1.0; and the superheated steam (13; 126, 118) has a temperature ranging from 800° C to 920° C. a) superheating steam (11; S); b) transferring heat from the superheated steam (13; 126, 118) to a process stream (103, 106), wherein, after transferring the heat, the steam becomes spent steam (15; 128, 120); c) dividing at least some of the spent steam (15; 120) into a first portion (19; 122) and a second portion (22; 124); d) pressurizing the first portion (19; 122) of spent steam (15; 120); e) recycling the pressurized first portion (21; 116) of spent steam (15; 120) to superheating step (a); and f) introducing the second portion (22; 124) of the spent steam (15; 120) into the process stream, the at least one hydrocarbon is selected from the group comprising ethylbenzene, ethyltoluene, n-propylbenzene, ethane, propane and butane; the process stream comprises steam and the at least one hydrocarbon in a weight ratio of steam to hydrocarbon(s) of no more than 1.0; and the superheated steam (13; 126, 118) has a temperature ranging from 800° C to 920° C.
A single-layer container that contains a thermoplastic matrix with a structural function, formed by at least one semi-crystalline polymer and one amorphous polymer and at least two inorganic fillers with a light-shielding function, dispersed in the thermoplastic matrix, characterised in that: The structural thermoplastic matrix contains polyethylene terephthalate as the semi-crystalline polymer and high impact polystyrene (HIPS) as the amorphous polymer, in a ratio (PET weight) / (HIPS weight) of between 10 and 50. And in that the inorganic fillers with a light-shielding function contain titanium dioxide and aluminium (Al), in a ratio (TiO2 weight) / (Al weight) of between 50 and 150. So that the final composition of the container results from the mixing of PET with a concentrated additive that contains HIPS and inorganic light-shielding fillers. The structural thermoplastic matrix contains polyethylene terephthalate as the semi-crystalline polymer and high impact polystyrene (HIPS) as the amorphous polymer, in a ratio (PET weight) / (HIPS weight) of between 10 and 50. And in that the inorganic fillers with a light-shielding function contain titanium dioxide and aluminium (Al), in a ratio (TiO2 weight) / (Al weight) of between 50 and 150. So that the final composition of the container results from the mixing of PET with a concentrated additive that contains HIPS and inorganic light-shielding fillers.