mhurhangee/ep-ind-claims huggingface dataset:
Floor panel assembly comprising sheet-shaped floor panels, which floor panels are provided with a plurality of edges, wherein an edge of a first panel and another edge of a second panel are equipped with joining members (13, 14) which allow a joining of the first and second edges of the two panels (1, 2) by bringing these into engagement with each other, so as to bring the upper sides of both panels substantially in alignment with each other and have them meet at a vertical plane VP, the first edge being provided with a male joining member and the second edge with a female joining member adapted to receive the male joining member therein so as to lock the panels at the adjacent edges at least in a direction perpendicular to the upper side and in a direction parallel to the upper side but perpendicular to the adjacent first and second edges in their joined position, characterized in that the male and female joining members (17, 18) are so adapted to each other that a surface of the male joining member is urged against a surface of the female joining member in a contact area, said contact area has a horizontal component and is the first of this kind, namely the first between substantially horizontal surfaces, or surfaces having a horizontal component, that water meets when it enters between the joining members from the vertical plane VP.
Process for the production of a panel for floor or wall coverings comprising the steps of (i) mixing and homogenising raw materials, thereby obtaining a dryblend, (ii) extruding said dryblend, thereby obtaining one or more thermoplastic layers, (iii) laminating the afore-mentioned thermoplastic layers, thereby obtaining a laminate, and (iv) profiling said laminate, thereby obtaining a panel for floor or wall coverings, whereby at least one thermoplastic layer is extruded by means of a co-rotating twin-screw extruder with pressure element characterized in that said dryblend, after homogenisation, is stored in an insulated buffer tank and by means of feeders, is fed to said twin-screw extruder at a temperature higher than 40°C.
Use of a composition comprising a therapeutically effective amount of a mixture of GTX-2 and GTX-3 for the manufacture of a medicament adapted for topical or transdermal delivery to a patient for treatment of joint flare or peripheral nerve dysfunction.
Antimicrobial liquid concentrate, which comprises: a) - From 5 weight% to 20 weight% of one or a plurality of diols selected from alkanediols having from six to twenty carbon atoms, and monoalkyl glycerol ethers having from four to eighteen carbon atoms; b) - From 20 weight% to 60 weight% of one or a plurality of salts of one or a plurality of organic acids selected from the group composed of sorbic acid, benzoic acid, anisic acid, salicylic acid, 4-hydroxy benzoic acid, cinnamic acid, succinic acid, and levulinic acid, and optionally one or a plurality of the above-mentioned free acids, and, c) - From 30 weight% to 70 weight% of water, wherein the content of aromatic alcohol is a maximum of 5 weight% relative to the weight of the liquid concentrate. a) - From 5 weight% to 20 weight% of one or a plurality of diols selected from alkanediols having from six to twenty carbon atoms, and monoalkyl glycerol ethers having from four to eighteen carbon atoms; b) - From 20 weight% to 60 weight% of one or a plurality of salts of one or a plurality of organic acids selected from the group composed of sorbic acid, benzoic acid, anisic acid, salicylic acid, 4-hydroxy benzoic acid, cinnamic acid, succinic acid, and levulinic acid, and optionally one or a plurality of the above-mentioned free acids, and, c) - From 30 weight% to 70 weight% of water,
An enhanced LOng-RAnge Navigation, eLORAN, receiver comprising: an antenna and eLORAN receiver circuitry coupled thereto, the antenna comprising - a ferromagnetic core comprising a ferromagnetic medial portion and a plurality of ferromagnetic arms (22a-22d) extending outwardly therefrom, - a respective electrically conductive winding (23a-23d) surrounding each of the plurality of ferromagnetic arms, and - an electrically conductive patch element adjacent said ferromagnetic core, wherein said ferromagnetic core and respective electrically conductive windings (23a-23d) are configured to respond to a plurality of H-field signals; and wherein said electrically conductive patch element is configured to respond to an E-field signal, and wherein the eLORAN receiver circuitry is configured to correct a position based upon the plurality of H-field signals and the E-field signal, wherein the eLORAN receiver circuitry is further configured to calculate an E-field to H-field amplitude ratio, an E-field to H-field phase difference, and an E-field to H-field pulse arrival time difference, and wherein said eLORAN receiver circuitry is further configured to correct the position based upon the E-field to H-field amplitude ratio, the E-field to H-field phase difference, and the E-field to H-field pulse arrival time difference. an antenna and eLORAN receiver circuitry coupled thereto, the antenna comprising - a ferromagnetic core comprising a ferromagnetic medial portion and a plurality of ferromagnetic arms (22a-22d) extending outwardly therefrom, - a respective electrically conductive winding (23a-23d) surrounding each of the plurality of ferromagnetic arms, and - an electrically conductive patch element adjacent said ferromagnetic core, - a ferromagnetic core comprising a ferromagnetic medial portion and a plurality of ferromagnetic arms (22a-22d) extending outwardly therefrom, - a respective electrically conductive winding (23a-23d) surrounding each of the plurality of ferromagnetic arms, and - an electrically conductive patch element adjacent said ferromagnetic core, wherein said ferromagnetic core and respective electrically conductive windings (23a-23d) are configured to respond to a plurality of H-field signals; and wherein said electrically conductive patch element is configured to respond to an E-field signal, and wherein the eLORAN receiver circuitry is configured to correct a position based upon the plurality of H-field signals and the E-field signal, wherein the eLORAN receiver circuitry is further configured to calculate an E-field to H-field amplitude ratio, an E-field to H-field phase difference, and an E-field to H-field pulse arrival time difference, and wherein said eLORAN receiver circuitry is further configured to correct the position based upon the E-field to H-field amplitude ratio, the E-field to H-field phase difference, and the E-field to H-field pulse arrival time difference.
A dialysis system comprising: a dialysis machine with a variable fluid demand including at least a lower demand and a higher demand; a fluid source in fluid communication with the dialysis machine and providing fluid to the dialysis machine at a fluid flow rate; and a flow regulation device (40, 50) comprising a fluid inlet (42, 52) in fluid communication with the fluid source, a fluid outlet (44, 54) in fluid communication with the dialysis machine, a first wall (46, 56) and a second wall (48, 58) disposed opposite each other between the fluid inlet and the fluid outlet to define in part an internal volume, characterised in that at least one of the walls includes a compliant material that is operable to expand and contract to provide the variable internal volume, and wherein the first and second walls of the flow regulation device (40, 50) expand when the dialysis machine has the lower demand and contract when the dialysis machine has the higher demand. a dialysis machine with a variable fluid demand including at least a lower demand and a higher demand; a fluid source in fluid communication with the dialysis machine and providing fluid to the dialysis machine at a fluid flow rate; and a flow regulation device (40, 50) comprising a fluid inlet (42, 52) in fluid communication with the fluid source, a fluid outlet (44, 54) in fluid communication with the dialysis machine, a first wall (46, 56) and a second wall (48, 58) disposed opposite each other between the fluid inlet and the fluid outlet to define in part an internal volume, characterised in that at least one of the walls includes a compliant material that is operable to expand and contract to provide the variable internal volume, and wherein the first and second walls of the flow regulation device (40, 50) expand when the dialysis machine has the lower demand and contract when the dialysis machine has the higher demand.
Medical device comprising a socket unit for connecting a plug unit of a device for providing medical fluids, the socket unit comprising at least one connection piece (26, 27) for connecting at least one connector of the plug unit so that a flow connection can be produced for supplying or removing a fluid when the connector is connected to the connection piece, and the at least one connection piece (26, 27) being surrounded concentrically by a connection part (23, 24) thus forming a rinsing chamber (28, 49), and the socket unit comprising a closure body having at least one closure piece (51, 52) for closing the at least one rinsing chamber, characterised in that the closure body is rotatably mounted about an axis of rotation, the at least one closure piece (51, 52) being arranged on the closure body at a distance from the axis of rotation, and, in a first rotational position, the at least one closure piece (51, 52) and the at least one connection part (23, 24) lie on a common axis so that a connection between the closure piece and the connection part for closing the rinsing chamber can be produced by a relative movement of the plug unit and the socket unit, and, in a second rotational position, the at least one closure piece (51, 52) and the least one connection piece (23, 24) are arranged so as to be offset from one another so that a connection between the at least one connector (29, 30) of the plug unit and the least one connection piece (26, 27) of the socket unit can be produced when the plug unit is inserted into the socket unit.
A method operable by a first entity (108, 208, 408) for controlling wireless charging, comprising: receiving a current wirelessly from a second entity (104, 204, 404) via electromagnetic induction during the charging of the first entity; and characterised by: determining an operating frequency of the received current induced by the electromagnetic induction; determining a first error value between the operating frequency and a target frequency; and adjusting an operation of the charging based on the comparison via continuing the charging in response to the first error value being less than or equal to a first tolerance level, and via stopping the charging in response to the first error value being greater than the first tolerance level. determining an operating frequency of the received current induced by the electromagnetic induction; determining a first error value between the operating frequency and a target frequency; and adjusting an operation of the charging based on the comparison via continuing the charging in response to the first error value being less than or equal to a first tolerance level, and via stopping the charging in response to the first error value being greater than the first tolerance level.
Device for processing a rope formed in a pulper, by a conveyor, in particular a winch, for pulling the rope with its front end ahead out of the pulper and a shredder characterized in that the conveyor is arranged and designed such that the rope with its front end ahead is directly introducible into the shredder by means of the conveyor, wherein said shredder is a two-shaft shredder.
A catalyst composition comprising a support having deposited thereon catalytically active metals comprising from 2 up to 8% by wt. of copper, zero up to 0.6 moles/kg of one or more alkali metals, from 0.08 up to 0.85 moles/kg of one or more alkaline earth metals and from 0.09 up to 0.9 moles/kg of a transition metal comprising Mn, all based upon the total weight of the final catalyst composition, where all of the metals are impregnated in forms of their chlorides or other water soluble salts on a fluidizable support with BET surface of from 80 up to 220 m 2 /g, wherein the composition is substantially free of rare earth metals.
A personal survival system for use in water, including: an inflatable chamber, an inflation system operable to inflate the inflatable chamber, and wherein the inflation system and the inflatable chamber are mountable on a wearer's body and the inflation system is mountable separately from and remotely from the inflatable chamber, a tube providing a fluid connection between the inflation system and the inflatable chamber, a one-way check valve provided to prevent back-flow out of the inflatable chamber, a mounting system configured to locate the inflation system separately from and remotely from the inflatable chamber so that they are spaced apart on a wearer's body at substantially the same positions prior to and after inflation of the inflatable chamber, characterised in that the inflation system is manually operable and comprises a housing (20, 25) that is coupled to the tube, the housing (20, 25) being fixed to a mounting plate. an inflatable chamber, an inflation system operable to inflate the inflatable chamber, and wherein the inflation system and the inflatable chamber are mountable on a wearer's body and the inflation system is mountable separately from and remotely from the inflatable chamber, a tube providing a fluid connection between the inflation system and the inflatable chamber, a one-way check valve provided to prevent back-flow out of the inflatable chamber, a mounting system configured to locate the inflation system separately from and remotely from the inflatable chamber so that they are spaced apart on a wearer's body at substantially the same positions prior to and after inflation of the inflatable chamber, characterised in that the inflation system is manually operable and comprises a housing (20, 25) that is coupled to the tube, the housing (20, 25) being fixed to a mounting plate.
Electric housing comprising a side wall (11, 12, 13, 14), a base on which is placed an attachment frame for an electric unit or an attachment plate for an electric unit, and shafts located at the four corners of the housing and designed to each receive one attachment screw, said frame comprising: - two parallel fixed rails (20a, 20b) mounted on the base of the housing and each extending parallel to a side face of the housing, - two transverse rails (21a, 21b), each extending along their length between the two fixed rails (20a, 20b), characterized in that - the transverse rails (21a, 21b) and the fixed rails are made of a synthetic material, - the fixed rails (20a, 20b) have, at all points along their length, receiving means for attaching the transverse rail (21a, 21b), the electric unit or the attachment plate, - each transverse rail (21a, 21b) has, at all points along its length extending between the two fixed rails (20a, 20b), receiving means for attaching the electric unit or the attachment plate, - each transverse rail (21a, 21b) is symmetric and has a general omega shape extending in a plane parallel to the base of the housing, said general omega shape comprising a central portion arranged so as to run as close as possible to a side face of the housing and two end flanges in order to wrap around two shafts of this side wall, - the two transverse rails (21a, 21b) are arranged such that the separation distance (d) between them is not limited by the presence of the shafts at the corners of the housing. - two parallel fixed rails (20a, 20b) mounted on the base of the housing and each extending parallel to a side face of the housing, - two transverse rails (21a, 21b), each extending along their length between the two fixed rails (20a, 20b), - the transverse rails (21a, 21b) and the fixed rails are made of a synthetic material, - the fixed rails (20a, 20b) have, at all points along their length, receiving means for attaching the transverse rail (21a, 21b), the electric unit or the attachment plate, - each transverse rail (21a, 21b) has, at all points along its length extending between the two fixed rails (20a, 20b), receiving means for attaching the electric unit or the attachment plate, - each transverse rail (21a, 21b) is symmetric and has a general omega shape extending in a plane parallel to the base of the housing, said general omega shape comprising a central portion arranged so as to run as close as possible to a side face of the housing and two end flanges in order to wrap around two shafts of this side wall, - the two transverse rails (21a, 21b) are arranged such that the separation distance (d) between them is not limited by the presence of the shafts at the corners of the housing.
Method for spray drying a high-viscosity fluid product using a spraying device having an outflow opening, the high-viscosity fluid product having a viscosity, determined at a spray drying temperature which in use prevails in the outflow opening and a shear rate as in use present in the outflow opening, using a capillary viscosity meter, is higher than 10 mPa·s and comprising a solvent and a dry matter dissolved and/or suspended in the solvent, wherein the method comprises: generating, by a feed pressure generating means, a fluid jet projecting from the outflow opening, by providing the fluid product to the outflow opening at a predetermined feed pressure in the interval of 15-3000 bars; and disturbing the fluid jet for breaking the fluid jet into droplets with a narrow size distribution by varying, by pressure varying means, the pressure of the fluid product upstream of the outflow opening by moving an end of a control element of the pressure varying means in a direction from or to the outflow opening at a predetermined distance of 2-1500 μm to the outflow opening for varying the pressure of the fluid product by vibrating the control element at a predetermined substantially constant frequency; wherein the spraying device is arranged to cause a pressure drop in the fluid product across the outflow opening which is larger than 15 bar; and at least partially drying the droplets in a drying medium, such as air, to become particles. generating, by a feed pressure generating means, a fluid jet projecting from the outflow opening, by providing the fluid product to the outflow opening at a predetermined feed pressure in the interval of 15-3000 bars; and disturbing the fluid jet for breaking the fluid jet into droplets with a narrow size distribution by varying, by pressure varying means, the pressure of the fluid product upstream of the outflow opening by moving an end of a control element of the pressure varying means in a direction from or to the outflow opening at a predetermined distance of 2-1500 μm to the outflow opening for varying the pressure of the fluid product by vibrating the control element at a predetermined substantially constant frequency; wherein the spraying device is arranged to cause a pressure drop in the fluid product across the outflow opening which is larger than 15 bar; and at least partially drying the droplets in a drying medium, such as air, to become particles.
A method for obtaining a range image with an unmanned aerial vehicle UAV, comprising: reading an image sequence of a predetermined scene collected by an airborne camera of the UAV, wherein the N th image and the (N+1) th image of the image sequence have an overlapping region, and a ratio of an area of the overlapping region to an area of the N th image or a ratio of the area of the overlapping region to an area of the (N+1) th image is greater than a preset ratio; for each pixel point in the overlapped region, calculating a moving distance of each pixel point in the overlapped region in a camera coordinate system of the UAV; and finding a derivative of the moving distance of each pixel point in the overlapped region in the camera coordinate system of the UAV with respect to time to obtain a pixel movement velocity of each pixel point in the overlapped region in the camera coordinate system of the UAV; obtaining an actual flying velocity of the UAV in a world coordinate system by a velocity measurement device; being characterized in that, the method further comprising: obtaining a depth value of the i th pixel point (Z i) according to a ratio between the actual flying velocity (v m) of the UAV in the world coordinate system and the pixel movement velocity (v i) of each pixel point in the overlapped region in the camera coordinate system of the UAV, and the focal length (f) of the airborne camera, obtaining a range image of each overlapped region according to the depth value of the i th pixel point (Z i), and obtaining a range image of the preset scene through integrating the range image of each overlapped region. reading an image sequence of a predetermined scene collected by an airborne camera of the UAV, wherein the N th image and the (N+1) th image of the image sequence have an overlapping region, and a ratio of an area of the overlapping region to an area of the N th image or a ratio of the area of the overlapping region to an area of the (N+1) th image is greater than a preset ratio; for each pixel point in the overlapped region, calculating a moving distance of each pixel point in the overlapped region in a camera coordinate system of the UAV; and finding a derivative of the moving distance of each pixel point in the overlapped region in the camera coordinate system of the UAV with respect to time to obtain a pixel movement velocity of each pixel point in the overlapped region in the camera coordinate system of the UAV; obtaining an actual flying velocity of the UAV in a world coordinate system by a velocity measurement device; being characterized in that, the method further comprising: obtaining a depth value of the i th pixel point (Z i) according to a ratio between the actual flying velocity (v m) of the UAV in the world coordinate system and the pixel movement velocity (v i) of each pixel point in the overlapped region in the camera coordinate system of the UAV, and the focal length (f) of the airborne camera, obtaining a range image of each overlapped region according to the depth value of the i th pixel point (Z i), and obtaining a range image of the preset scene through integrating the range image of each overlapped region.