mhurhangee/ep-ind-claims huggingface dataset:
Method of applying a filler material, selected from the group comprising elastomers, epoxy resins and polyurethane-based lacquers, to a substrate comprising the steps of: a) providing a substrate having a free surface in the finished state and having at least one opening defining a cavity of predefined depth, b) depositing a protective layer on at least the said free surface, c) depositing a layer of the said filler material with a maximum thickness greater than the said predefined depth, the said filler material layer extending within and in extension of the said cavity and on at least a portion of the said free surface, being superimposed on the said protective layer and forming a surplus of filler material, d) proceeding to an ablation of the said surplus of filler material covering the portions of the said protective layer located on the said finished surface, e) proceeding to the ablation of the portion of the said filler material layer opposite of the said opening, by laser treatment, until its final surface is located at the same level as the said free surface or at a lower level, and f) proceeding to the ablation of the portions of the said protective layer on the said finished surface to reveal the latter. a) providing a substrate having a free surface in the finished state and having at least one opening defining a cavity of predefined depth, b) depositing a protective layer on at least the said free surface, c) depositing a layer of the said filler material with a maximum thickness greater than the said predefined depth, the said filler material layer extending within and in extension of the said cavity and on at least a portion of the said free surface, being superimposed on the said protective layer and forming a surplus of filler material, d) proceeding to an ablation of the said surplus of filler material covering the portions of the said protective layer located on the said finished surface, e) proceeding to the ablation of the portion of the said filler material layer opposite of the said opening, by laser treatment, until its final surface is located at the same level as the said free surface or at a lower level, and f) proceeding to the ablation of the portions of the said protective layer on the said finished surface to reveal the latter.
Electrical connector for connecting a linear-array plural-contact tail of an in-body multi-contact medical electrode device, the connector including an elongate body member having proximal and distal ends and defining an elongate void extending along the length of the body member, an array of electrical conductors secured in the body member and projecting into the elongate void to facilitate electrical connection of the contacts on the tail when the plural-contact tail is in the elongate void characterized in that it further comprises a cylindrical carrier member rotatably contained in the elongate void, the carrier member itself forming a tail-receiving subvoid exposed along the outer surface of the carrier member to expose the contacts to engagement by the array of electrical conductors in the elongate void when the carrier member is rotated to bring the tail-containing subvoid into registry with the electrical conductors.
A cosmetic gel sheet, wherein the cosmetic gel sheet contains carboxy group-containing water-soluble polymer, polyalcohol, and acid as essential constituent components, and water content is 15% by weight or less, wherein the carboxy group-containing water-soluble polymer is selected from carboxy group-containing polysaccharide, polyacrylic acid and a copolymer of polyacrylic acid, wherein the carboxy group-containing polysaccharide is one or more compound selected from a group consisting of xanthan gum, gellan gum, alginic acid, hyaluronic acid, carboxymethyl cellulose and metal salt thereof, wherein the polyalcohol is one or more compounds selected from glycerin, propylene glycol, ethylene glycol, polyethylene glycol, 1,3-butylene glycol, dipropylene glycol and sorbitol, wherein the acid is selected from the group consisting of citric acid, tartaric acid, lactic acid and hydrochloric acid, wherein the content of the polyalcohol is from 10 parts by weight to 1,000 parts by weight based on 1 part by weight of the carboxy group-containing water-soluble polymer, wherein the content of the carboxy group-containing water-soluble polymer is within a range from 0.1% by weight to 10% by weight based on the gel. wherein the carboxy group-containing water-soluble polymer is selected from carboxy group-containing polysaccharide, polyacrylic acid and a copolymer of polyacrylic acid, wherein the carboxy group-containing polysaccharide is one or more compound selected from a group consisting of xanthan gum, gellan gum, alginic acid, hyaluronic acid, carboxymethyl cellulose and metal salt thereof, wherein the polyalcohol is one or more compounds selected from glycerin, propylene glycol, ethylene glycol, polyethylene glycol, 1,3-butylene glycol, dipropylene glycol and sorbitol, wherein the acid is selected from the group consisting of citric acid, tartaric acid, lactic acid and hydrochloric acid, wherein the content of the polyalcohol is from 10 parts by weight to 1,000 parts by weight based on 1 part by weight of the carboxy group-containing water-soluble polymer, wherein the content of the carboxy group-containing water-soluble polymer is within a range from 0.1% by weight to 10% by weight based on the gel.
A vine post with a system for supporting the iron wires, which, being of the type of post being structured in an elongated metal body that defines a plurality of hooks obtained by cutting and deforming the portions projecting relative to the body of the post and creating corresponding windows wherein each of the portions/hooks is arranged in front of the cutting area of these windows; wherein the post has means for retaining the iron wire preventing it from becoming unintentionally/accidentally detached; wherein each of the portions/hooks defines in successive continuity a support that offers, along with the body of the post, a recess for housing the iron wire; an intermediate wall tilted towards the body of the post with a negative tilt angle (α); and an end wall tilted away from the body of the post with a positive tilt angle (β); defining a rounded inner generatrix where the two walls, meet; wherein the post is characterised in that, in the area where the two walls, meet, a press-fitting has been carried out, which projects from said rounded generatrix towards the body of the post.
A sectional shelving with modular shelf elements, comprising at least two pairs of substantially vertical uprights (2, 3) in longitudinally and transversely staggered positions, at least one pair of substantially horizontal crossbars (4, 5), each adapted to connect a respective pair of uprights (2, 3) together in the transverse direction, at least one pair of substantially horizontal shelves (13, 14) located at different heights to define vertically staggered support surfaces, wherein each of said shelves (13, 14) consists of at least one modular element having transverse end appendages with a substantially vertical portion, a flat top portion and longitudinal lateral portions, that are folded downwards relative to said flat top portion, wherein said longitudinal lateral portions are further folded through 90° to form substantially horizontal and mutually opposed lateral longitudinal tabs, wherein each crossbar (4, 5) is adapted to be secured to said uprights (2, 3) by respective first connection means and has a substantially vertical wall (9, 10) with an upper edge (11, 12) having a substantially vertical stiffening member (23, 24) which defines a substantially continuous aperture free joining element (25,26), for supporting the shelves (13, 14), wherein said joining element (25, 26) is substantially U-shaped, to define a slit (35, 36), said substantially vertical portion of each of said appendages being adapted to fit into a respective slit (35, 36) to prevent any longitudinal or transverse deformation of the shelving, said crossbars (4, 5) having substantially flat and seamless lower end edges (45, 46), which are folded once through 90° relative to said vertical wall (9, 10), said lower end edges (45, 46) being located below said first connection means and being adapted to form stiffening walls (47, 48) and to support said longitudinal lateral tabs by a simple resting arrangement and with no interlocking arrangement; characterized in that said joining element (25, 26) is integral with or connected by welding or seaming to said vertical wall (9, 10) of each of said crossbars and obtained by double folding of said upper edge (11, 12) to define said substantially U-shaped slit (35, 36).
A method of producing a composite oxide catalyst, wherein the composite oxide catalyst is used for oxidation, wherein the composite oxide catalyst is used for any of a vapor phase catalytic oxidation reaction for producing acrolein or methacrolein from propylene, and a vapor phase catalytic ammo-oxidation reaction for producing acrylonitrile or methacrylonitrile from propylene, and containing Mo and Bi as component elements, wherein the composite oxide catalyst is expressed by the following general formula: Mo a Bi b Co c Ni d Fe e X f Y g Z h Si i O j wherein X is at least one kind of element selected from the group consisting of magnesium (Mg), calcium (Ca), zinc (Zn), cerium (Ce) and samarium (Sm), Y is at least one of element selected from the group consisting of sodium (Na), potassium, rubidium (Rb), cesium (Cs) and thallium (Tl), Z is at least one kind of element selected from the group consisting of boron, phosphorus, arsenic (As) and tungsten, the letters a to j are atomic ratios of the respective elements, wherein a=12, b=0.5-7, c=0-10, d=0-10 where c+d=1-10, e=0.05-3, f=0-2, g=0.04-2, h=0-3 and i=5-48, wherein j is a numeral which satisfies the oxidation state of the other elements, wherein the method comprises incorporating supply source compounds of the respective elements into a composite in an aqueous solution, and subjecting the composite to heat treatment, wherein the method comprises the step of producing a catalyst precursor in which a dried product is obtained by drying a raw material salt solution containing molybdenum, iron, at least one of nickel and cobalt, and a silicon-containing compound, and the dried product is subjected to heat treatment, and the step of producing said catalyst in which said catalyst precursor and a bismuth compound are incorporated in an aqueous solution and dried and calcined, wherein, as the supply source compound for the silicon-containing compound, fumed silica is used, and wherein the supply source compound for the bismuth compound is selected among one of bismuth oxide and bismuth subcarbonate, bismuth subcarbonate containing at least part of predetermined Na in the form of a solid solution, a composite carbonate compound of Bi and X which contains at least part of the components, or a composite carbonate compound of Bi, Na and X which contains at least part of predetermined Na and X components.
Method for operating a valve actuated by means of an actuator (102, 104), in particular an injection valve of an internal combusting engine of a motor vehicle, in which the actuator (102, 104) is actuated with an actuation variable having a first actuation period, wherein the actuation period is formed as a function of a setpoint value (T ovsoll) for a valve opening period (T ov) wherein the actuation period is formed as a function of the correction variable (t korr [n-1], t korr), wherein the correction variable (t Korr [n-1], t Korr) is formed as a function of a control difference (ΔT ov) between the setpoint value (T ovsoll) for the valve opening period (T ov) and an actual value (T ovist) of the valve opening period (T ov), wherein the setpoint value (T ovsoll) for the valve opening period (T ov) and/or the actuation period are/is modified as a function of an estimated closing delay time (t 2 *) and/or an estimated opening delay time, wherein the estimated closing delay time (t 2 *) is determined as a function of a setpoint quantity (Q soll) to be injected by the valve and/or a fuel pressure (p ist) by means of a characteristic diagram, characterized in that the characteristic diagram which is used to determine the estimated closing delay time (t 2 *) is adapted if predefinable peripheral conditions are satisfied, in particular if a control loop which forms the actuation period has reached a steady state.
A method of calibrating a phased array including an array of antenna elements, a plurality of RF communication circuits each of which is electrically coupled to a different corresponding antenna element within the array of antenna elements, and a signal feed network (6, 6a, 6b) that electrically couples a first signal line to a plurality of second signal lines, wherein each second signal line of the plurality of second signal lines is electrically coupled to a different corresponding RF communication circuit among the plurality of RF communication circuits, said method comprising: performing a first phase of a calibration operation, said first phase of the calibration operation involving calibrating the signal feed network independent of the plurality of RF communication circuits; and performing a second phase of the calibration operation, said second phase of the calibration operation involving calibrating, independent of the signal feed network, each of the plurality of the RF communication circuits until all RF communication circuits among the plurality of RF communication circuits are calibrated. performing a first phase of a calibration operation, said first phase of the calibration operation involving calibrating the signal feed network independent of the plurality of RF communication circuits; and performing a second phase of the calibration operation, said second phase of the calibration operation involving calibrating, independent of the signal feed network, each of the plurality of the RF communication circuits until all RF communication circuits among the plurality of RF communication circuits are calibrated.
An inorganic fiber catalyst for oxidizing particulate matter contained in an exhaust gas, comprising: an alumina-silica fiber base material; and a plurality of catalyst component particles contained in the alumina-silica fiber base material and surrounded by the alumina-silica fiber base material, wherein the catalyst component particles are oxide catalyst component particles, and the catalyst component particles comprise ceria, wherein the fiber catalyst is prepared by using an oxide sol, wherein the catalyst component particles are contained in at least a surface portion of the alumina-silica fiber base material, wherein a mean particle diameter of the catalyst component particles contained in at least the surface portion of the alumina-silica fiber base material is 10 nm to 50 nm, wherein the catalyst component particles have a mean particle diameter of 10 nm to 50 nm, and a standard deviation of particle diameters of the catalyst component particles is 30 nm or less. an alumina-silica fiber base material; and a plurality of catalyst component particles contained in the alumina-silica fiber base material and surrounded by the alumina-silica fiber base material, wherein the catalyst component particles are oxide catalyst component particles, and the catalyst component particles comprise ceria, wherein the fiber catalyst is prepared by using an oxide sol, wherein the catalyst component particles are contained in at least a surface portion of the alumina-silica fiber base material, wherein a mean particle diameter of the catalyst component particles contained in at least the surface portion of the alumina-silica fiber base material is 10 nm to 50 nm, wherein the catalyst component particles have a mean particle diameter of 10 nm to 50 nm, and a standard deviation of particle diameters of the catalyst component particles is 30 nm or less.
A wiper (50, 55, 150, 250, 350) for a container of cosmetic product, said wiper comprising a substantially tubular body comprising at least one wiping portion (51, 151, 251, 351) of which a free interior surface defines a wiping passage through which an application member can pass in a wiping direction, said wiper being characterized in that the wiping portion is made of a thermoplastic elastomer having a hardness less than 45 or 50 Shore 00.
A docking device (100; 200) for docking a prosthetic valve at a native heart valve, the docking device (100; 200) comprising: a first coil (122; 210) comprising a proximal end, a distal end, and a plurality of turns that extend between the proximal end and the distal end, wherein the plurality of turns defines an inner space; a second coil (124; 220) comprising at least one turn; and wherein a portion of the first coil (122; 210) is in contact with a portion of the second coil (124; 220), wherein the second coil (124; 220) is connected to the first coil (122; 210) at or near the distal end of the first coil, wherein the second coil (124; 220) extends alongside in contact with the first coil (122; 210) in a distal region of the docking device (100; 200), and further wherein the second coil (124; 220) splits away from the first coil (122; 210) towards the proximal end of the first coil (122; 210). a first coil (122; 210) comprising a proximal end, a distal end, and a plurality of turns that extend between the proximal end and the distal end, wherein the plurality of turns defines an inner space; a second coil (124; 220) comprising at least one turn; and wherein a portion of the first coil (122; 210) is in contact with a portion of the second coil (124; 220), wherein the second coil (124; 220) is connected to the first coil (122; 210) at or near the distal end of the first coil, wherein the second coil (124; 220) extends alongside in contact with the first coil (122; 210) in a distal region of the docking device (100; 200), and further wherein the second coil (124; 220) splits away from the first coil (122; 210) towards the proximal end of the first coil (122; 210).
A bioreactor for the cultivation of mammalian cells characterised in that said bioreactor has a volume of at least 4000 l and one top impeller and one bottom impeller, wherein the top impeller is a three bladed hydrofoil design impeller and wherein the bottom impeller is a four pitched-bladed high solidity hydrofoil impeller, and wherein the hydrofoil impellers are down-flowing axial hydrofoil impellers, the impeller (60,70) to tank diameter ratio is at least 0,44 and at most 0,46, the top impeller power number (N p) is at least 0,1 and at most 0,9, the top impeller flow number (N q) is at least 0,4 and at most 0,9, the bottom impeller power number (N p) is at least 0,5 and at most 0,9, the bottom impeller flow number (N q) is at least 0,50 and at most 0,85, the impeller spacing (D s) is 1,229 x the diameter of the bottom impeller (D bottom), the liquid height above the upper impeller (D o) is at least 0,5 x the diameter of the top impeller (D top) and at most 2,0 x D top, and the bottom clearance (D c) is at least 0,35 x D bottom.
A flexible prosthetic component (100, 200, 300, 400, 500) comprising: an articular surface (104, 204, 304, 404, 504); and a bone contacting surface (105, 205, 305, 405, 505) opposing the articular surface, the bone contacting surface having an anterior surface (122, 222, 322, 422) and an opposing posterior surface (118, 224), each of the anterior and posterior surfaces having one or more protrusions (102, 126, 202, 226, 302, 326, 402, 502, 526) extending outwardly therefrom, characterised in that the flexible prosthesis is adapted to be elastically deformed by the application of an external force whereby the anterior and posterior surfaces flex toward and away from one another such that the one or more protrusions are configured to snap-fit into corresponding recesses made in resected bone. an articular surface (104, 204, 304, 404, 504); and a bone contacting surface (105, 205, 305, 405, 505) opposing the articular surface, the bone contacting surface having an anterior surface (122, 222, 322, 422) and an opposing posterior surface (118, 224), each of the anterior and posterior surfaces having one or more protrusions (102, 126, 202, 226, 302, 326, 402, 502, 526) extending outwardly therefrom, characterised in that the flexible prosthesis is adapted to be elastically deformed by the application of an external force whereby the anterior and posterior surfaces flex toward and away from one another such that the one or more protrusions are configured to snap-fit into corresponding recesses made in resected bone.
A motor vehicle chassis comprising a base structure and a plurality of wheels connected to said structure via respective wheel suspensions, wherein at least one first wheel suspension has a spring which is designed as a coil spring and which is associated with the respective wheel, wherein the first wheel suspension furthermore is associated with a hydraulic height adjustment device having a cylinder-piston arrangement comprising a hydraulic working space and acting upon a base point of the coil spring, which cylinder-piston arrangement can be supplied by a decentralized hydraulic aggregate associated with the respective wheel and comprising a storage container for hydraulic fluid and a hydraulic pump driven by an electric motor, wherein at least the electric motor of the hydraulic aggregate is arranged within the coil spring, characterized by the following characteristics: the first wheel suspension has a shock absorber which is associated with the respective wheel and which is arranged outside of the coil; the hydraulic working space of the hydraulic cylinder-piston arrangement is ring-shaped and surrounds the electric motor of the hydraulic aggregate and/or its hydraulic pump; the hydraulic fluid storage container is designed ring-shaped, surrounds the electric motor of the hydraulic aggregate and/or its hydraulic pump, and has a volume which can be modified inversely to the volume of the hydraulic working space of the hydraulic cylinder-piston arrangement. the first wheel suspension has a shock absorber which is associated with the respective wheel and which is arranged outside of the coil; the hydraulic working space of the hydraulic cylinder-piston arrangement is ring-shaped and surrounds the electric motor of the hydraulic aggregate and/or its hydraulic pump; the hydraulic fluid storage container is designed ring-shaped, surrounds the electric motor of the hydraulic aggregate and/or its hydraulic pump, and has a volume which can be modified inversely to the volume of the hydraulic working space of the hydraulic cylinder-piston arrangement.