mhurhangee/ep-ind-claims huggingface dataset:
A method for the manufacture of an absorbent article comprising the steps of: • providing a front panel; • providing a back panel; • providing an absorbent insert comprising front and back transversal edges and left and right longitudinal edges connecting the front and back transversal edges to form a perimeter thereof; • folding a portion of said absorbent insert proximal to the front and/or back transversal edges thereof onto itself, preferably in the shape of a substantially U-fold, to form transversal waist barrier(s); • joining said insert to said front and back panels (2, 3); and • joining said front and back panels (2, 3) together along a pair of oppositely disposed side seams. • providing a front panel; • providing a back panel; • providing an absorbent insert comprising front and back transversal edges and left and right longitudinal edges connecting the front and back transversal edges to form a perimeter thereof; • folding a portion of said absorbent insert proximal to the front and/or back transversal edges thereof onto itself, preferably in the shape of a substantially U-fold, to form transversal waist barrier(s); • joining said insert to said front and back panels (2, 3); and • joining said front and back panels (2, 3) together along a pair of oppositely disposed side seams.
A valve actuator device, comprising: - a supporting body; - a driving shaft for actuating the valve, rotatably mounted on the supporting body around a main axis; and - a fluid cylinder for controlling rotation of said driving shaft, including: - a cylinder body (6A, 6B, 6C), connected to said supporting body, on one side thereof, and having an axis directed transversely to said main axis, said axes (6X, 4) being arranged in mutually perpendicular planes; - a piston slidably mounted within the cylinder body (6A, 6B, 6C); and - a rod connected to the piston and carrying a cam-follower member, - said valve actuator device further comprising: - a driving arm, connected to said driving shaft, having a body and a cam track in form of a slot, cooperating with said cam-follower member in such a way that a displacement of the piston of said fluid cylinder between two end operating positions causes a rotation of said driving arm between two end operating positions, said valve actuator device being characterized in that said slot is formed in an insert constituting a separate element from the body of said driving arm and adapted to be received and held in a seat of the body of the driving arm. - a supporting body; - a driving shaft for actuating the valve, rotatably mounted on the supporting body around a main axis; and - a fluid cylinder for controlling rotation of said driving shaft, including: - a cylinder body (6A, 6B, 6C), connected to said supporting body, on one side thereof, and having an axis directed transversely to said main axis, said axes (6X, 4) being arranged in mutually perpendicular planes; - a piston slidably mounted within the cylinder body (6A, 6B, 6C); and - a rod connected to the piston and carrying a cam-follower member, - said valve actuator device further comprising: - a driving arm, connected to said driving shaft, having a body and a cam track in form of a slot, cooperating with said cam-follower member in such a way that a displacement of the piston of said fluid cylinder between two end operating positions causes a rotation of said driving arm between two end operating positions, - a driving arm, connected to said driving shaft, having a body and a cam track in form of a slot, cooperating with said cam-follower member in such a way that a displacement of the piston of said fluid cylinder between two end operating positions causes a rotation of said driving arm between two end operating positions,
A corrosion resistant permanent magnet comprising - a magnet body, and - a composite coating provided on and covering surfaces of the magnet body, the composite coating comprising (a) a metal layer on the magnet body, (b) optionally a metal oxide layer on the metal layer at the surface facing away from the magnet body, (c) a linker layer on the metal layer or the metal oxide layer, wherein the linker forming the linker layer is a bifunctional compound, and (d) a layer formed from poly(2-chloro-p-xylylene) on the linker layer. - a magnet body, and - a composite coating provided on and covering surfaces of the magnet body, the composite coating comprising (a) a metal layer on the magnet body, (b) optionally a metal oxide layer on the metal layer at the surface facing away from the magnet body, (c) a linker layer on the metal layer or the metal oxide layer, wherein the linker forming the linker layer is a bifunctional compound, and (d) a layer formed from poly(2-chloro-p-xylylene) on the linker layer. (a) a metal layer on the magnet body, (b) optionally a metal oxide layer on the metal layer at the surface facing away from the magnet body, (c) a linker layer on the metal layer or the metal oxide layer, wherein the linker forming the linker layer is a bifunctional compound, and (d) a layer formed from poly(2-chloro-p-xylylene) on the linker layer.
Use of a concentrated steeping liquor, referred to as "corn steep", from the starch industry, diluted with water and mixed with inflammable organic materials from the extractive industry, as means for combating the fire risks caused by self-heating and dust explosion risks induced by particles and microparticles contained in said organic materials and the explosive gases released during self-heating processes, during the storage, transport or handling of said organic materials.
A composition comprising a xanthohumol and a cyclodextrin, wherein the xanthohumol and the cyclodextrin form a complex, wherein the cyclodextrin is beta-cyclodextrin and the xanthohumol is 3'-[3,3-dimethyl allyl]-2',4',4-trihydroxy-6'-methoxychalcone).
A medical device having a compressible and expandable circular cylindrical mesh structure, comprising circumferential segments made of closed cells, wherein the cells are each bordered by four webs (11, 12, 13, 14), which are coupled to one another at the connecting points (21, 22, 23, 24), and of which - two webs (11, 12, 13, 14) that are neighboring one another in the circumferential direction UR of the mesh structure and are coupled to one another at a connecting point (21, 22) are flexible to different extents, such that the web (11, 13) having the greater flexibility can be deformed in the transition of the mesh structure from the expanded state to the compressed state to a greater extent than the web (12, 13) having a lower flexibility, and of which - the webs (11, 13) having the greater flexibility and the webs (12, 14) having the lower flexibility are each arranged diagonally opposite one another, in such a way that two connecting points (23, 24) of the cell arranged opposite one another in the longitudinal direction LR of the mesh structure are dislocated in opposed directions from one another in the circumferential direction UR in the transition of the mesh structure from the expanded state to the compressed state, wherein all the cells of a circumferential segment are designed similarly, such that the entire mesh structure is twisted in at least some sections in the transition from the expanded state to the compressed state, and at least two neighboring circumferential segments are designed similarly, characterized in that connecting points (23, 24) of a circumferential segment arranged next to one another in the circumferential direction UR span a common cross-sectional plane Q of the mesh structure arranged orthogonally to the longitudinal axis of the mesh structure, wherein the connecting points (23, 24) arranged next to one another in the circumferential direction UR move in the cross-sectional plane Q in the transition of the mesh structure from the expanded state to the compressed state. - two webs (11, 12, 13, 14) that are neighboring one another in the circumferential direction UR of the mesh structure and are coupled to one another at a connecting point (21, 22) are flexible to different extents, such that the web (11, 13) having the greater flexibility can be deformed in the transition of the mesh structure from the expanded state to the compressed state to a greater extent than the web (12, 13) having a lower flexibility, and of which - the webs (11, 13) having the greater flexibility and the webs (12, 14) having the lower flexibility are each arranged diagonally opposite one another, in such a way that two connecting points (23, 24) of the cell arranged opposite one another in the longitudinal direction LR of the mesh structure are dislocated in opposed directions from one another in the circumferential direction UR in the transition of the mesh structure from the expanded state to the compressed state,
A control system for an electric motor, the system comprising: a current sensing means arranged to produce a current sensing output indicative of electric current in the motor, current control means arranged to receive the current sensing output and to output a voltage demand indicative of voltages to be applied to the motor, and voltage demand correction means arranged to generate a correction signal and to use the correction signal and the voltage demand to produce a corrected voltage demand, characterized in that the voltage demand correction means is arranged to receive parameters corresponding to the phase and magnitude of a motor torque harmonic that is inherent in the design of the motor and to produce therefrom the correction signal such that the correction signal actively cancels out the motor torque harmonic of the motor speed, the correction signal corresponding to the motor torque harmonic in anti-phase. a current sensing means arranged to produce a current sensing output indicative of electric current in the motor, current control means arranged to receive the current sensing output and to output a voltage demand indicative of voltages to be applied to the motor, and voltage demand correction means arranged to generate a correction signal and to use the correction signal and the voltage demand to produce a corrected voltage demand, characterized in that the voltage demand correction means is arranged to receive parameters corresponding to the phase and magnitude of a motor torque harmonic that is inherent in the design of the motor and to produce therefrom the correction signal such that the correction signal actively cancels out the motor torque harmonic of the motor speed, the correction signal corresponding to the motor torque harmonic in anti-phase.
A line marking device comprising: a cart with at least one steerable wheel and at least two moving elements (4, 5), wherein the steerable wheel is rotatable around its axle such that the cart is rollable over a surface and pivotable such that the cart is steered in a direction a GNSS receiver or a reflector for a robotic total station mounted on the cart at least one marking unit, preferably a spray nozzle, for depositing a material to mark a line mounted on the cart, wherein the marking unit is directed towards a ground below the line marking device and an interface mounted on the cart for a comparator adapted to compare a detected location by the GNSS receiver to a predetermined pattern characterized in that the cart comprises only one steerable wheel and a steering unit for autonomously pivoting the steerable wheel. a cart with at least one steerable wheel and at least two moving elements (4, 5), wherein the steerable wheel is rotatable around its axle such that the cart is rollable over a surface and pivotable such that the cart is steered in a direction a GNSS receiver or a reflector for a robotic total station mounted on the cart at least one marking unit, preferably a spray nozzle, for depositing a material to mark a line mounted on the cart, wherein the marking unit is directed towards a ground below the line marking device and an interface mounted on the cart for a comparator adapted to compare a detected location by the GNSS receiver to a predetermined pattern characterized in that the cart comprises only one steerable wheel and a steering unit for autonomously pivoting the steerable wheel.
A wheel for a scooter, adapted to be assembled and fitted with a frame of the scooter, and the wheel comprising: a bearing support comprising an inner surface facing towards a rotation center of the wheel, the inner surface defining a hollow area surrounded by the inner surface; a hub; and at least one bearing, each bearing comprising an outer ring and an inner ring, the outer ring being fixedly connected to the hub, the inner ring being fixedly connected to the bearing support, and the frame being fixedly connectable to the bearing support, characterized in that, the wheel further comprises: at least one bearing end cover, wherein the bearing end cover is fixedly connected to the hub, and the bearing end cover is hermetically fitted with a side surface of the bearing; and a sealing member arranged between the bearing end cover and the bearing, wherein the sealing member is hermetically fitted with the bearing end cover and the side surface of the bearing. a bearing support comprising an inner surface facing towards a rotation center of the wheel, the inner surface defining a hollow area surrounded by the inner surface; a hub; and at least one bearing, each bearing comprising an outer ring and an inner ring, the outer ring being fixedly connected to the hub, the inner ring being fixedly connected to the bearing support, and the frame being fixedly connectable to the bearing support, characterized in that, the wheel further comprises: at least one bearing end cover, wherein the bearing end cover is fixedly connected to the hub, and the bearing end cover is hermetically fitted with a side surface of the bearing; and a sealing member arranged between the bearing end cover and the bearing, wherein the sealing member is hermetically fitted with the bearing end cover and the side surface of the bearing. at least one bearing end cover, wherein the bearing end cover is fixedly connected to the hub, and the bearing end cover is hermetically fitted with a side surface of the bearing; and a sealing member arranged between the bearing end cover and the bearing, wherein the sealing member is hermetically fitted with the bearing end cover and the side surface of the bearing.
A liquid crystal composition comprising: a polymerizable liquid crystal compound capable of expressing birefringence with inverse wavelength dispersion; a surfactant containing a fluorine atom; and a solvent, wherein the surfactant contains a fluorine atom at a ratio of 30% by weight or less in a molecule of the surfactant, the polymerizable liquid crystal compound includes a main chain mesogen and a side chain mesogen bonded to the main chain mesogen in a molecule of the polymerizable liquid crystal compound, the molecular weight of the polymerizable liquid crystal compound is 700 or more, and 1,500 or less, a polymer obtained by polymerizing the polymerizable liquid crystal compound has homogeneous orientation regularity, and the birefringence of the polymer satisfies the following equation in which Δn represents a birefringence at a measurement wavelength of 450 nm, Δn represents a birefringence at a measurement wavelength of 550 nm, and Δn represents a birefringence at a measurement wavelength of 650 nm Δ ⁢ n 450 < Δ ⁢ n 550 < Δ ⁢ n 650 a polymerizable liquid crystal compound capable of expressing birefringence with inverse wavelength dispersion; a surfactant containing a fluorine atom; and a solvent, wherein the surfactant contains a fluorine atom at a ratio of 30% by weight or less in a molecule of the surfactant, the polymerizable liquid crystal compound includes a main chain mesogen and a side chain mesogen bonded to the main chain mesogen in a molecule of the polymerizable liquid crystal compound, the molecular weight of the polymerizable liquid crystal compound is 700 or more, and 1,500 or less, a polymer obtained by polymerizing the polymerizable liquid crystal compound has homogeneous orientation regularity, and the birefringence of the polymer satisfies the following equation in which Δn represents a birefringence at a measurement wavelength of 450 nm, Δn represents a birefringence at a measurement wavelength of 550 nm, and Δn represents a birefringence at a measurement wavelength of 650 nm Δ ⁢ n 450 < Δ ⁢ n 550 < Δ ⁢ n 650
A pharmaceutical composition having anti-neoplastic activity comprising Temozolomide in a weight ratio of from 5 to 20% by weight, and high substituted polysaccharide phosphate in salt form in a ratio of 30 to 80% by weight, and the reminder up to 100% by weight of high substituted polysaccharide phosphate in acidic form, wherein said composition comprises less than 0.5% by weight of 5-aminomidazole-4-carboxamide relative to the weight of Temozolomide.
A control device intended to control a function of a vehicle passenger compartment, the control device comprising: - a user interface module configured for selection by the user of a function amongst a set of functions of the passenger compartment, - a unique haptic module configured to provide a user with a haptic feedback amongst a plurality of haptic feedbacks, and - a central unit configured to communicate with the user interface module and the haptic module, comprising a library of haptic feedback patterns, each haptic feedback pattern being associated with a function, the central unit being configured to select, in the library of haptic feedback patterns, the haptic feedback pattern associated with the function selected by the user, and to control the haptic module to provide the haptic feedback having the selected haptic feedback pattern, the haptic module comprising: - a haptic button mounted movable in rotation, - a position sensor of the haptic button configured to communicate an angular position and the direction of rotation of the haptic button to the central unit, and - two resonators (11, 11') extending perpendicularly to an axis of rotation of the haptic button, having an ultrasonic resonance frequency and configured to generate vibrations in the plane of the resonator by application of a haptic feedback pattern having a frequency close or equal to the resonance frequency by the central unit in response to the information transmitted by the position sensor, so as to cause an ultrasonic lubrication of the haptic button. - a user interface module configured for selection by the user of a function amongst a set of functions of the passenger compartment, - a unique haptic module configured to provide a user with a haptic feedback amongst a plurality of haptic feedbacks, and - a central unit configured to communicate with the user interface module and the haptic module, comprising a library of haptic feedback patterns, each haptic feedback pattern being associated with a function, the central unit being configured to select, in the library of haptic feedback patterns, the haptic feedback pattern associated with the function selected by the user, and to control the haptic module to provide the haptic feedback having the selected haptic feedback pattern, - a haptic button mounted movable in rotation, - a position sensor of the haptic button configured to communicate an angular position and the direction of rotation of the haptic button to the central unit, and - two resonators (11, 11') extending perpendicularly to an axis of rotation of the haptic button, having an ultrasonic resonance frequency and configured to generate vibrations in the plane of the resonator by application of a haptic feedback pattern having a frequency close or equal to the resonance frequency by the central unit in response to the information transmitted by the position sensor, so as to cause an ultrasonic lubrication of the haptic button.
Catalytic reactor adapted to process a gas flow by sequential passage through a first catalyst and a second catalyst, said reactor comprising a catalytic bed of a hollow cylindrical shape, having a vertical axis, a base, a radial gas inlet section, an axial gas inlet section and a radial gas outlet section, arranged to determine an axial-radial flow through the catalytic bed, the axial inlet section being at an upper end of the catalytic bed characterized in that said catalytic bed comprises: a first cylindrical annular portion extending from said base of the catalytic bed to the axial inlet section, and containing only the first catalyst; a second cylindrical annular portion extending from said base of the catalytic bed to the axial inlet section, said second annular portion containing a layer of said first catalyst and a layer of said second catalyst, the layer of the first catalyst being above the layer of the second catalyst, and said first annular portion and second annular portion being arranged coaxially one around the other, wherein in the second annular portion, the layer of the second catalyst extends from the base of the catalytic bed to a predetermined boundary level, and the layer of the first catalyst extends above the layer of the second catalyst from said boundary level to the axial inlet section, wherein said gas outlet section is a cylindrical surface located entirely below said boundary level, and wherein the reactor comprises a cylindrical wall having an upper portion which is not gas-permeable and extends at least from the axial inlet section to said boundary level, and a gas-permeable lower portion which is below said boundary level and provides said radial gas outlet section. a first cylindrical annular portion extending from said base of the catalytic bed to the axial inlet section, and containing only the first catalyst; a second cylindrical annular portion extending from said base of the catalytic bed to the axial inlet section, said second annular portion containing a layer of said first catalyst and a layer of said second catalyst, the layer of the first catalyst being above the layer of the second catalyst, and said first annular portion and second annular portion being arranged coaxially one around the other, wherein in the second annular portion, the layer of the second catalyst extends from the base of the catalytic bed to a predetermined boundary level, and the layer of the first catalyst extends above the layer of the second catalyst from said boundary level to the axial inlet section, wherein said gas outlet section is a cylindrical surface located entirely below said boundary level, and wherein the reactor comprises a cylindrical wall having an upper portion which is not gas-permeable and extends at least from the axial inlet section to said boundary level, and a gas-permeable lower portion which is below said boundary level and provides said radial gas outlet section.