mhurhangee/ep-ind-claims huggingface dataset:
Exhaust system, comprising a) a catalytic converter for removing nitrogen oxides from the exhaust gas of diesel engines, made up of a supporting body of length L and a catalytically-active coating composed of one or more material zones, containing: • a zeolite or a zeolite-like compound containing 1 - 10 wt% copper relative to the total weight of the zeolite or the zeolite-like compound, wherein the zeolite or the zeolite-like compound is selected from the group consisting of chabazite, SAPO-34, ALPO-34, and zeolite β; and • at least one compound selected from the group consisting of barium oxide, barium hydroxide, barium carbonate, strontium oxide, strontium hydroxide, strontium carbonate, praseodymium oxide, lanthanum oxide, magnesium oxide, magnesium/aluminum mixed oxide, alkali metal oxide, alkali metal hydroxide, alkali metal carbonate, and mixtures thereof, b) a diesel oxidation catalyst and/or diesel particulate filter, as well as c) a further denitrification catalyst. a) a catalytic converter for removing nitrogen oxides from the exhaust gas of diesel engines, made up of a supporting body of length L and a catalytically-active coating composed of one or more material zones, containing: • a zeolite or a zeolite-like compound containing 1 - 10 wt% copper relative to the total weight of the zeolite or the zeolite-like compound, wherein the zeolite or the zeolite-like compound is selected from the group consisting of chabazite, SAPO-34, ALPO-34, and zeolite β; and • at least one compound selected from the group consisting of barium oxide, barium hydroxide, barium carbonate, strontium oxide, strontium hydroxide, strontium carbonate, praseodymium oxide, lanthanum oxide, magnesium oxide, magnesium/aluminum mixed oxide, alkali metal oxide, alkali metal hydroxide, alkali metal carbonate, and mixtures thereof, • a zeolite or a zeolite-like compound containing 1 - 10 wt% copper relative to the total weight of the zeolite or the zeolite-like compound, wherein the zeolite or the zeolite-like compound is selected from the group consisting of chabazite, SAPO-34, ALPO-34, and zeolite β; and • at least one compound selected from the group consisting of barium oxide, barium hydroxide, barium carbonate, strontium oxide, strontium hydroxide, strontium carbonate, praseodymium oxide, lanthanum oxide, magnesium oxide, magnesium/aluminum mixed oxide, alkali metal oxide, alkali metal hydroxide, alkali metal carbonate, and mixtures thereof, b) a diesel oxidation catalyst and/or diesel particulate filter, as well as c) a further denitrification catalyst.
A method for use in delivering content in a communications network, the method being performed by a customer premise equipment device, CPE, comprising the steps of: identifying one or more user inputs related to an asset skip event during real-time broadcast of content and assets by a headend device, the assets being within the content, using said user inputs for determining a consumption status with respect to a particular asset, said consumption status indicating that the asset was only partially consumed with respect to time other than that the asset was played in full or was not played in full; associating the input with one or more asset delivery times; recording skip information including the consumption status corresponding to the asset skip event with respect to the one or more asset delivery times; and reporting the skip information to a platform within the communications network. identifying one or more user inputs related to an asset skip event during real-time broadcast of content and assets by a headend device, the assets being within the content, using said user inputs for determining a consumption status with respect to a particular asset, said consumption status indicating that the asset was only partially consumed with respect to time other than that the asset was played in full or was not played in full; associating the input with one or more asset delivery times; recording skip information including the consumption status corresponding to the asset skip event with respect to the one or more asset delivery times; and reporting the skip information to a platform within the communications network.
A cyanate ester compound having one or more structures selected from the group consisting of structures represented by the following formula, formula, and formula: wherein k represents an integer of 1 or larger, and I represents an integer of 0 or larger; the compound may be a mixture of compounds differing from each other in k and I; and arrangement of repeating units is arbitrary; wherein m and n represent an integer of 0 or larger, and at least one is 1 or larger; the compound may be a mixture of compounds differing from each other in m and n; and arrangement of repeating units is arbitrary; and wherein m represents an integer of 0 or larger; and the compound is a mixture of compounds differing from each other in m.
A door opening device, comprising: a plurality of electromagnetic push rod structures, wherein each of the plurality of electromagnetic push rod structures comprises a push rod; and a controller, electrically connected to the plurality of electromagnetic push rod structures and configured to drive push rods of the plurality of electromagnetic push rod structures to act synchronously; characterised by further comprising: an output joint, wherein each of the push rods is connected to the output j oint; and wherein the output joint comprises: a connecting rod, connected to the plurality of push rods; and an output rod, connected to the connecting rod, and at least portion of the output rod protrudes towards a direction away from the push rods relative to the connecting rod. a plurality of electromagnetic push rod structures, wherein each of the plurality of electromagnetic push rod structures comprises a push rod; and a controller, electrically connected to the plurality of electromagnetic push rod structures and configured to drive push rods of the plurality of electromagnetic push rod structures to act synchronously; characterised by further comprising: an output joint, wherein each of the push rods is connected to the output j oint; and wherein the output joint comprises: a connecting rod, connected to the plurality of push rods; and an output rod, connected to the connecting rod, and at least portion of the output rod protrudes towards a direction away from the push rods relative to the connecting rod. an output joint, wherein each of the push rods is connected to the output j oint; and wherein the output joint comprises: a connecting rod, connected to the plurality of push rods; and an output rod, connected to the connecting rod, and at least portion of the output rod protrudes towards a direction away from the push rods relative to the connecting rod. a connecting rod, connected to the plurality of push rods; and an output rod, connected to the connecting rod, and at least portion of the output rod protrudes towards a direction away from the push rods relative to the connecting rod.
Albumin Binding Domain binding polypeptide, comprising an Albumin Binding Domain binding motif BM, which motif consists of an amino acid sequence selected from: i) EX 2 X 3 X 4 AX 6 X 7 EIX 10 X 11 LPNLX 16 X 17 X 18 QX 20 X 21 AFIX 25 X 26 LX 28 D wherein, independently from each other, X 2 is selected from F, I and L; X 3 is selected from H, K, N, Q, R, S, T and V; X 4 is selected from A, D, F, G, H, I, K, L, M, N, Q, R, S, T, V, W and Y; X 6 is selected from F, I, L and Y; X 7 is selected from A, H, I, K, L, N, Q, R, S, T and V; X 10 is selected from G, H, K, N, Q, R and S; X 11 is selected from A, D, F, G, I, K, L, N, Q, R, S, T, V and Y; X 16 is selected from N and T; X 17 is selected from F, H, L, S and T; X 18 is selected from D, E, H, I, K, L, M, N, Q, R, S, T and V; X 20 is selected from H, K and R; X 21 is selected from I, L and V; X 25 is selected from F, I, L, V and Y; X 26 is selected from K and S; X 28 is selected from D and E; and ii) an amino acid sequence which has at least 89 % identity to the sequence defined in i), the polypeptide binding to an Albumin Binding Domain which comprises an amino acid sequence selected from SEQ ID NO:161 and 162. i) EX 2 X 3 X 4 AX 6 X 7 EIX 10 X 11 LPNLX 16 X 17 X 18 QX 20 X 21 AFIX 25 X 26 LX 28 D wherein, independently from each other, X 2 is selected from F, I and L; X 3 is selected from H, K, N, Q, R, S, T and V; X 4 is selected from A, D, F, G, H, I, K, L, M, N, Q, R, S, T, V, W and Y; X 6 is selected from F, I, L and Y; X 7 is selected from A, H, I, K, L, N, Q, R, S, T and V; X 10 is selected from G, H, K, N, Q, R and S; X 11 is selected from A, D, F, G, I, K, L, N, Q, R, S, T, V and Y; X 16 is selected from N and T; X 17 is selected from F, H, L, S and T; X 18 is selected from D, E, H, I, K, L, M, N, Q, R, S, T and V; X 20 is selected from H, K and R; X 21 is selected from I, L and V; X 25 is selected from F, I, L, V and Y; X 26 is selected from K and S; X 28 is selected from D and E; and X 2 is selected from F, I and L; X 3 is selected from H, K, N, Q, R, S, T and V; X 4 is selected from A, D, F, G, H, I, K, L, M, N, Q, R, S, T, V, W and Y; X 6 is selected from F, I, L and Y; X 7 is selected from A, H, I, K, L, N, Q, R, S, T and V; X 10 is selected from G, H, K, N, Q, R and S; X 11 is selected from A, D, F, G, I, K, L, N, Q, R, S, T, V and Y; X 16 is selected from N and T; X 17 is selected from F, H, L, S and T; X 18 is selected from D, E, H, I, K, L, M, N, Q, R, S, T and V; X 20 is selected from H, K and R; X 21 is selected from I, L and V; X 25 is selected from F, I, L, V and Y; X 26 is selected from K and S; X 28 is selected from D and E; ii) an amino acid sequence which has at least 89 % identity to the sequence defined in i),
A fuel pick-up device, mountable to a fuel tank, the device having a head fittable to a wall of the tank, an elongate body which, in use, is configured to extend from the head into the tank and a separator disposed in the elongate body, the separator comprising an axially extending separation chamber, means for creating a helical flow of fuel through the device between an inlet and an outlet and within the separation chamber, wherein the inlet is disposed at a distal end of the separation chamber and the outlet is disposed at a proximal end of the separation chamber and centrally of the separation chamber, about the rotational axis of the helical flow of fuel, and wherein the outlet has a width which is substantially less than the width of the separation chamber, wherein any denser contaminants in the fuel entering the separation chamber through said inlet move radially outwardly in the helical flow away from the outlet, the outlet being arranged such that fuel drawn from the separation chamber is substantially free of any denser contaminants, means being provided in the elongate body for collecting any denser contaminants separated from the fuel, characterised in that the means for creating a helical flow of fuel comprises at least one helical guide vane disposed in the separation chamber, the at least one helical guide vane extending longitudinally of the separation chamber, wherein the separation chamber comprises an inner tubular sidewall which constrains the helical flow of fuel and the elongate body comprises an outer sidewall, the outlet extending axially inside the inner tubular sidewall from the proximal end thereof, the inner tubular sidewall comprising apertures through which the separated water can pass into a collection chamber disposed between the inner tubular sidewall of the separation chamber and the outer sidewall of the elongate body.
A marker device to be tracked, wherein the marker device (1; 101; 201; 301; 401) comprises: - a casing, - a magnetic object (3; 303) being arranged within the casing such that it is rotatable out of an equilibrium orientation if an external magnetic torque is acting on the magnetic object (3; 303), - a restoring torque unit (4; 104; 204; 304; 404, 405) being adapted to provide a restoring torque to force the magnetic object (3; 303) back into the equilibrium orientation if an external magnetic torque has rotated the magnetic object (3; 303) out of the equilibrium orientation, in order to allow for a rotational oscillation of the magnetic object (3; 303) excited by the external magnetic torque, wherein the restoring torque unit (204; 304; 404, 405) comprises a further magnetic object (4; 104; 405) for providing the restoring torque, wherein the magnetic object (3; 303) and the further magnetic object (4; 104; 405) are permanent magnets each having a respective magnetic dipole, wherein the magnetic object (3; 303) and the further magnetic object (4; 104; 405) are arranged such that in the equilibrium orientation the magnetic dipoles of the magnetic object (3; 303) and the further magnetic object (4; 104; 405) point in opposite directions, wherein a north pole of the magnetic object (3; 303) faces a south pole of the further magnetic object (4; 104; 405) and vice versa. - a casing, - a magnetic object (3; 303) being arranged within the casing such that it is rotatable out of an equilibrium orientation if an external magnetic torque is acting on the magnetic object (3; 303), - a restoring torque unit (4; 104; 204; 304; 404, 405) being adapted to provide a restoring torque to force the magnetic object (3; 303) back into the equilibrium orientation if an external magnetic torque has rotated the magnetic object (3; 303) out of the equilibrium orientation, in order to allow for a rotational oscillation of the magnetic object (3; 303) excited by the external magnetic torque, wherein the restoring torque unit (204; 304; 404, 405) comprises a further magnetic object (4; 104; 405) for providing the restoring torque, wherein the magnetic object (3; 303) and the further magnetic object (4; 104; 405) are permanent magnets each having a respective magnetic dipole, wherein the magnetic object (3; 303) and the further magnetic object (4; 104; 405) are arranged such that in the equilibrium orientation the magnetic dipoles of the magnetic object (3; 303) and the further magnetic object (4; 104; 405) point in opposite directions, wherein a north pole of the magnetic object (3; 303) faces a south pole of the further magnetic object (4; 104; 405) and vice versa.
A shift device comprising: an operation knob; an operation lever; and a lock mechanism configured to restrict a movement operation of the operation lever at a home position, wherein the lock mechanism includes a cylindrical slide member assembled to be movable in an axial direction along an outer periphery of the operation lever, and wherein the movement operation of the operation lever is restricted or its restriction is released, by a movement operation of the slide member; wherein a locking portion (51A, 52A), which is configured to restrict the movement operation of the operation lever at the home position, and a guide portion (51B, 52B), which is configured to guide an operation of the operation lever after the restriction of the movement operation of the operation lever is released, are integrally formed on the slide member; characterized in that the operation lever is configured to be operated to be moved to a plurality of positions by the operation knob to select a driving state. an operation knob; an operation lever; and a lock mechanism configured to restrict a movement operation of the operation lever at a home position, wherein the lock mechanism includes a cylindrical slide member assembled to be movable in an axial direction along an outer periphery of the operation lever, and wherein the movement operation of the operation lever is restricted or its restriction is released, by a movement operation of the slide member; wherein a locking portion (51A, 52A), which is configured to restrict the movement operation of the operation lever at the home position, and a guide portion (51B, 52B), which is configured to guide an operation of the operation lever after the restriction of the movement operation of the operation lever is released, are integrally formed on the slide member; characterized in that the operation lever is configured to be operated to be moved to a plurality of positions by the operation knob to select a driving state.
Cargo bay construction with a floor and a slideable wall along the floor, whereby below the wall facing surfaces of the floor a drive slide is arranged that over a developed guide opening in the floor is connected with the back wall, characterized in that the guide opening is covered by means of an elastic deformable cover overlying the floor, whereby the cover in the area of the drive slide under elastic deformation is lifted from the floor.
Valve device for shutting off or controlling a throughflow of flowing fluids, the valve device comprising an actuating stem and a diaphragm assembly, with the diaphragm assembly comprising a first diaphragm element and a second diaphragm element, the two diaphragm elements (4, 6) being able to be connected together in a first region for fastening, the first region for fastening being adapted to be held fixed in position relative to the valve, the two diaphragm elements (4, 6) being able to be connected together in a second region for fastening which is situated radially inside the first region for fastening, and the first diaphragm element and the second diaphragm element resting against one another, in a portion for contact which is situated between the first region for fastening and the second region for fastening, in such a way that the first diaphragm element and the second diaphragm element can be moved relative to one another in the portion for contact, the actuating stem being guided by a passage through the second diaphragm element, and the actuating stem being received and held fixed in an opening in the first diaphragm element, characterised in that, in a portion which corresponds to the second region for fastening, the actuating stem is of a diameter which corresponds both to a cylindrical inner surface of the second diaphragm element and also to a cylindrical inner surface of the first diaphragm element.
A method of reducing vibration in a gear cutting machine that has a vibration-reducing mechanism and is designed to perform gear cutting on a gear blank with a rotary tool attached to a main shaft made to move reciprocally by a crank mechanism and made to perform a twisting spiral motion corresponding to a helical angle to be formed in the gear blank, the vibration-reduction mechanism comprising: a first balancer shaft and a second balancer shaft which are arranged in parallel to a crank shaft of the crank mechanism, and which are arranged to rotate synchronously with the crank shaft at a same speed as a speed of the crank shaft, the first balancer shaft rotating in an opposite direction to a rotational direction of the crank shaft and the second balancer shaft rotating in a same direction as the rotational direction of the crank shaft; main balancer weights (41,42) detachably attached onto the crank shaft so as to reduce vibrations in an axial direction of the main shaft; and sub balancer weights (43,44,45,46) detachably attached onto the first and the second balancer shafts (16,17) so as to reduce vibrations in directions that are orthogonal to the axial direction of the main shaft, the method comprising selecting the main balancer weights (41,42) and the sub balancer weights (43,44,45,46) on the basis of a stroke width of the main shaft and on the basis of the helical angle to be formed in the gear blank. a first balancer shaft and a second balancer shaft which are arranged in parallel to a crank shaft of the crank mechanism, and which are arranged to rotate synchronously with the crank shaft at a same speed as a speed of the crank shaft, the first balancer shaft rotating in an opposite direction to a rotational direction of the crank shaft and the second balancer shaft rotating in a same direction as the rotational direction of the crank shaft; main balancer weights (41,42) detachably attached onto the crank shaft so as to reduce vibrations in an axial direction of the main shaft; and sub balancer weights (43,44,45,46) detachably attached onto the first and the second balancer shafts (16,17) so as to reduce vibrations in directions that are orthogonal to the axial direction of the main shaft, the method comprising selecting the main balancer weights (41,42) and the sub balancer weights (43,44,45,46) on the basis of a stroke width of the main shaft and on the basis of the helical angle to be formed in the gear blank.
Method for producing an implant intended for ingrowth into a bone by powder injection molding binder-mixed metal and/or ceramic powder, by producing first a green body by injection molding, a brown body by removing the binder and the implant by performing sintering at least once, characterized in that the method comprises a step of increasing the surface roughness of the implant, which step is carried out prior to the final sintering for producing the implant from the brown body in that the surface in the green body and/or in the brown body and/or in another precursor of the implant is roughened at least partly without mechanical load on the green body and/or the brown body and/or the other precursor of the implant, wherein the surface roughness of the implant is increased by applying sharp-edged particles onto the surface of the green body and/or the brown body and/or the other precursor of the implant, the applied particles consist of the same material as the implant and the applied particles are burnt in.
Process for producing lactose-free milk products, wherein (a) skimmed milk is subjected to an ultrafiltration or to a combination of dia- and ultrafiltration, (b) the lactose-free retentate R1 is fed to a storage container and the lactose-containing permeate P1 is fed to an enzyme reactor, (c) an amount of lactase sufficient for the enzymatic degradation of the lactose present therein is added to the permeate P1, (d) the reaction mixture obtained in this way is subjected to a nanofiltration, (e) the lactose-free permeate P2 is conveyed to the storage container and mixed with the lactose-free retentate R1, and (f) the retentate R2, which still comprises unreacted lactose and enzyme, is returned again to the enzyme reactor. (a) skimmed milk is subjected to an ultrafiltration or to a combination of dia- and ultrafiltration, (b) the lactose-free retentate R1 is fed to a storage container and the lactose-containing permeate P1 is fed to an enzyme reactor, (c) an amount of lactase sufficient for the enzymatic degradation of the lactose present therein is added to the permeate P1, (d) the reaction mixture obtained in this way is subjected to a nanofiltration, (e) the lactose-free permeate P2 is conveyed to the storage container and mixed with the lactose-free retentate R1, and (f) the retentate R2, which still comprises unreacted lactose and enzyme, is returned again to the enzyme reactor.