mhurhangee/ep-ind-claims huggingface dataset:
A floor comprising concrete beams and shuttering structural floor units disposed between these beams and having its edges bearing on these beams and a compression slab cast on top of the beams and the structural floor units without stitching, each structural floor units having two shuttering portions defining with each beam cavities extending along these beams, the concrete contained in each cavity forming keying of the compression slab in order to unite this compression slab to the beam, each shuttering portion having an arcuate shape in cross-section with the concave side facing upward delimiting all of the lower face of the keying concrete, each beam having an upper face and two flanks (24, 26) at least partly enveloped by the keyings of the compression slab, characterised in that the flanks (24, 26) of each beam have parallel main faces (27, 36) and in that each flank (24, 26) includes a longitudinal rib (28, 37) forming a key projecting from its main face (27, 36), the rib (28, 37) forming a key being enveloped by the keying and the compression slab.
A method for producing a coated lithium-nickel composite oxide particle, comprising: preparing a solution of a resin for coating by dissolving a polymer or copolymer including at least one kind selected from the group consisting of a modified polyolefin resin, a polyester resin, a polyphenol resin, a polyurethane resin, an epoxy resin, a silane-modified polyether resin, a silane-modified polyester resin, a silane-modified polyphenol resin, a silane-modified polyurethane resin, a silane-modified epoxy resin, and a silane-modified polyamide resin in a good solvent dissolving the polymer or copolymer; adding a poor solvent not dissolving the polymer or copolymer and having an evaporation rate lower than that of the good solvent, into the solution of a resin for coating; adding a lithium-nickel composite oxide particle into the solution of a resin for coating to prepare a slurry; and removing the good solvent from the slurry and covering the lithium-nickel composite oxide particle with the polymer or copolymer. preparing a solution of a resin for coating by dissolving a polymer or copolymer including at least one kind selected from the group consisting of a modified polyolefin resin, a polyester resin, a polyphenol resin, a polyurethane resin, an epoxy resin, a silane-modified polyether resin, a silane-modified polyester resin, a silane-modified polyphenol resin, a silane-modified polyurethane resin, a silane-modified epoxy resin, and a silane-modified polyamide resin in a good solvent dissolving the polymer or copolymer; adding a poor solvent not dissolving the polymer or copolymer and having an evaporation rate lower than that of the good solvent, into the solution of a resin for coating; adding a lithium-nickel composite oxide particle into the solution of a resin for coating to prepare a slurry; and removing the good solvent from the slurry and covering the lithium-nickel composite oxide particle with the polymer or copolymer.
Luminous assembly, comprising - an electrical connection system for connecting at least one light source to a power supply system; - at least one light source; characterized in that said connection system comprises: - a connection grid capable of being electrically connected to a power supply system, the connection grid comprising at least one connection terminal; - at least one connection means for electrically connecting the connection terminal of the connection grid to the light source; the connection terminal and the connection means being capable of electrically connecting the light source to the connection grid by bridging, allowing the light source to be arranged remotely from the connection grid, the connection means being an electrically conductive wire, the connection grid having a first heat sink means for dissipating the heat generated by the connection grid; and in that the luminous assembly comprises a second heat sink means for dissipating the heat generated by the light source, said second heat sink means being disconnected from the connection grid, the second heat sink means being a support of the light source. - an electrical connection system for connecting at least one light source to a power supply system; - at least one light source; - a connection grid capable of being electrically connected to a power supply system, the connection grid comprising at least one connection terminal; - at least one connection means for electrically connecting the connection terminal of the connection grid to the light source;
A vehicle mirror with an image display function comprising: an image display device; and a half mirror, wherein the half mirror includes a reflection layer, and the reflection layer is inclined with respect to a surface of an image display portion of the image display device, characterized in that the reflection layer is a circular polarization reflection layer including a cholesteric liquid crystal layer, and in that the vehicle mirror with an image display function includes the image display device, a 1/4 wavelength plate, and the circular polarization reflection layer in this order. an image display device; and a half mirror, wherein the half mirror includes a reflection layer, and the reflection layer is inclined with respect to a surface of an image display portion of the image display device, the reflection layer is a circular polarization reflection layer including a cholesteric liquid crystal layer, and in that the vehicle mirror with an image display function includes the image display device, a 1/4 wavelength plate, and the circular polarization reflection layer in this order.
Surgical cutting instrument for passing occlusions, comprising a sleeve-shaped part having a proximal part and a distal part and a cutting wire, wherein said sleeve-shaped part is provided with a lumen for guiding said cutting wire, which cutting wire extends in the form of a loop of adjustable size from the free end of said distal part of said sleeve, wherein the other end of said cutting wire extends outside said sleeve and is in contact with the distal part at a distance from the free end of the distal part of the sleeve, wherein the distal part of the sleeve, from the free end thereof across a distance of at least 2 mm and at most 10 cm, is substantially more flexible than the remaining part of the sleeve and wherein said cutting wire is fitted in such a manner that when a force is exerted thereon, said cutting wire changes the curvature of said distal part.
A device for feeding one or more lines through an opening in a wall or a floor, having a frame arranged in the opening, wherein the frame forms one or more feed-through openings that are sealable by one or more covers, the frame is countersunk in the opening in the wall or the floor, the frame is strengthened by transverse and/or longitudinal struts, the brush bristles and/or a brush bristle strip are reversibly fixed to an inner wall having recesses or at least one brush bristle duct, which forms an inner rim of the feed-through opening, by fixing means, wherein the brush bristles are arranged such that they cover the feed-through opening, wherein the inner wall of the feed-through opening has a ledge on which the cover is arranged, wherein the one or more covers closes off the one or more feed-through openings such that they are gas-tight, characterised in that the cover has at least one gripping opening and there is mounted on one side of the cover a housing that prevents gas exchange through the gripping openings, the fixing means are screws, and the upper region of the brush bristle duct or the ledge has a thread for fixing the screws, or the fixing means are bolts or pins, and the brush bristle strip has a bore for pushing a bolt or a pin through the bore; wherein the brush bristle strip is lockable by a bolt or a pin.
Method for forming a laser-welded connection, in which two joining partners (11; 11a, 12; 12a) are connected to each other by action of a laser beam in a joining region (30; 30a), forming a weld seam, wherein the one joining partner (11; 11a) consists of a material which is transparent to laser radiation and the other joining partner (12; 12a) consists of a material which is absorbent to laser radiation, and wherein a receptacle (25; 25a; 25b) for a component (13; 13a; 13b; 14) which is separate from the joining partners (11; 11a, 12; 12a) is formed by the two joining partners (11; 11a, 12; 12a), characterized in that the receptacle (25; 25a; 25b) is designed as a through-opening, in that the separate component (13; 13a; 13b; 14), which is designed as a current-conducting component and has a sheath (24; 24a; 24b) which is absorbent to laser radiation, consists at least partially of a material which is absorbent to laser radiation, in that the material of the separate component (13; 13a; 13b; 14), which material is absorbent to laser radiation, is arranged in a functionally communicating manner with the joining partner (11; 11a) which consists of the material which is transparent to laser radiation, and in that the laser beam acts upon the material of the separate component (13; 13a; 13b; 14), which material is absorbent to laser radiation, so that by means of heat transfer from the separate component (13; 13a; 13b; 14) the material of the one joining partner (11; 11a), which material is transparent to laser radiation, is melted and closes off the through-opening.
A self-standing electrode comprising: a composite of an electrode active material, and carbon nanotubes; and a battery tab attachment structure embedded in the composite, wherein the composite is co-deposited below and above the battery tab attachment structure, wherein the electrode has an overall length, an overall width, and an overall thickness, and the battery tab attachment structure has a width that is 1% to 100% of the overall width of the electrode, wherein the battery tab attachment structure protrudes outside of the electrode providing an electric tab attachment spot. a composite of an electrode active material, and carbon nanotubes; and an electrode active material, and carbon nanotubes; and a battery tab attachment structure embedded in the composite, wherein the composite is co-deposited below and above the battery tab attachment structure, wherein the electrode has an overall length, an overall width, and an overall thickness, and the battery tab attachment structure has a width that is 1% to 100% of the overall width of the electrode, wherein the battery tab attachment structure protrudes outside of the electrode providing an electric tab attachment spot.
An ignition system for a liquid propellant chemical rocket engine (1, 2, 3) comprising: an injector for injection of a liquid propellant; a catalytic element for initiating decomposition of the liquid propellant; and a resistive electrical heater for electrically preheating the catalytic element, characterized in that the catalytic element is thermally connected to said resistive electrical heater, so as to form a combination of said heater and said catalytic element, wherein said combination is referred to as an igniter and said heater comprises a heating element in the form of a cable, said cable having a heat resistant sheath, and in that said catalytic element and heater are located in a flow path of the propellant. an injector for injection of a liquid propellant; a catalytic element for initiating decomposition of the liquid propellant; and a resistive electrical heater for electrically preheating the catalytic element, characterized in that the catalytic element is thermally connected to said resistive electrical heater, so as to form a combination of said heater and said catalytic element, wherein said combination is referred to as an igniter and said heater comprises a heating element in the form of a cable, said cable having a heat resistant sheath, and in that said catalytic element and heater are located in a flow path of the propellant.
A silicone adhesive tape comprising: a flexible substrate defining a first face and an oppositely directed second face; a catalyst free silicone pressure sensitive adhesive disposed on at least one of the first face and the second face of the substrate, wherein the silicone pressure sensitive adhesive includes at least one silicone gum and at least one siloxane resin, and; wherein the tape exhibits (i) a static shear from 5 to 5,000 minutes, as measured in accordance with the method provided in the description, (ii) a 180-degree peel adhesion greater than 8.0 N/25 mm, as measured in accordance with the method provided in the description, (iii) a low, stable liner release force of less than 60g/50.8 mm, as measured in accordance with the method provided in the description, and (iv) a visible light transmittance of at least 90%, as measured in accordance with the method provided in the description. a flexible substrate defining a first face and an oppositely directed second face; a catalyst free silicone pressure sensitive adhesive disposed on at least one of the first face and the second face of the substrate, wherein the silicone pressure sensitive adhesive includes at least one silicone gum and at least one siloxane resin, and; wherein the tape exhibits (i) a static shear from 5 to 5,000 minutes, as measured in accordance with the method provided in the description, (ii) a 180-degree peel adhesion greater than 8.0 N/25 mm, as measured in accordance with the method provided in the description, (iii) a low, stable liner release force of less than 60g/50.8 mm, as measured in accordance with the method provided in the description, and (iv) a visible light transmittance of at least 90%, as measured in accordance with the method provided in the description. (i) a static shear from 5 to 5,000 minutes, as measured in accordance with the method provided in the description, (ii) a 180-degree peel adhesion greater than 8.0 N/25 mm, as measured in accordance with the method provided in the description, (iii) a low, stable liner release force of less than 60g/50.8 mm, as measured in accordance with the method provided in the description, and (iv) a visible light transmittance of at least 90%, as measured in accordance with the method provided in the description.
A beverage dispensing machine for dispensing a beverage into a vessel, wherein the beverage dispensing machine comprises: an upper engaging member movable to a deployed position for engaging an upper portion of the vessel; characterized in that the beverage dispensing machine comprises opposing first and second side engaging members (68-1, 68-2) movable to a deployed position for engaging a side of the vessel; and an actuating mechanism for deploying the upper engaging member in conjunction with the first and second side engaging members (68-1, 68-2) to retain the vessel in the beverage dispensing machine. an upper engaging member movable to a deployed position for engaging an upper portion of the vessel; characterized in that the beverage dispensing machine comprises opposing first and second side engaging members (68-1, 68-2) movable to a deployed position for engaging a side of the vessel; and an actuating mechanism for deploying the upper engaging member in conjunction with the first and second side engaging members (68-1, 68-2) to retain the vessel in the beverage dispensing machine.
A drip chamber insert, comprising: an elongate body portion comprising an upper surface, and a base portion positioned downstream of the elongate body portion for coupling to a drip chamber, the base portion having an upper surface, and a lower surface defining an outlet orifice of the drip chamber insert; a first chamber disposed in the elongate body portion and fluidly coupled to the upper surface of the elongate body portion via an inlet orifice and to the outlet orifice via the base portion; an anti-run-dry membrane disposed on the upper surface of the elongate body portion extending over the inlet orifice, and configured to allow a liquid to pass therethrough; a second chamber disposed in the elongate body portion and extending through the upper surface of the elongate body portion to the base portion, the second chamber having an open proximal end configured to receive at least a portion of the liquid into the second chamber; and a low flowrate orifice extending from a base of the second chamber into the base portion for fluidly coupling the second chamber with the outlet orifice. an elongate body portion comprising an upper surface, and a base portion positioned downstream of the elongate body portion for coupling to a drip chamber, the base portion having an upper surface, and a lower surface defining an outlet orifice of the drip chamber insert; a first chamber disposed in the elongate body portion and fluidly coupled to the upper surface of the elongate body portion via an inlet orifice and to the outlet orifice via the base portion; an anti-run-dry membrane disposed on the upper surface of the elongate body portion extending over the inlet orifice, and configured to allow a liquid to pass therethrough; a second chamber disposed in the elongate body portion and extending through the upper surface of the elongate body portion to the base portion, the second chamber having an open proximal end configured to receive at least a portion of the liquid into the second chamber; and a low flowrate orifice extending from a base of the second chamber into the base portion for fluidly coupling the second chamber with the outlet orifice.
Device for supplying inert gas in order to protect the surface of a solder bath in a wave soldering installation against oxidation, said device being in the form of a cover which can be arranged above one partial region of the solder bath, <-> the wave soldering installation having a transporting device to convey parts to be soldered over solder waves, characterized in that the following measures are implemented: - said partial region is not covered by the transporting device; - the device comprises three heat exchangers (3a; 3b; 3c) which are immersed in the solder bath, and are fitted underneath the cover, and each of these heat exchangers has an inlet (4a; 4b; 4c), through which the inert gas is fed in, and an outlet (5a; 5b; 5c) above the cover; and heat-resistant, releasable connecting elements which can be used to connect the outlets (5a; 5b; 5c) above the cover to three inert gas connections of the wave soldering installation.< allowing to supply heated inert gas to the three following regions in the wave soldering installation: - the region in front of the solder waves; - the region between the solder waves; and - the region behind the solder waves, > characterized in that the following measures are implemented: - said partial region is not covered by the transporting device; - the device comprises three heat exchangers (3a; 3b; 3c) which are immersed in the solder bath, and are fitted underneath the cover, and each of these heat exchangers has an inlet (4a; 4b; 4c), through which the inert gas is fed in, and an outlet (5a; 5b; 5c) above the cover; and - said partial region is not covered by the transporting device; - the device comprises three heat exchangers (3a; 3b; 3c) which are immersed in the solder bath, and are fitted underneath the cover, and each of these heat exchangers has an inlet (4a; 4b; 4c), through which the inert gas is fed in, and an outlet (5a; 5b; 5c) above the cover; and heat-resistant, releasable connecting elements which can be used to connect the outlets (5a; 5b; 5c) above the cover to three inert gas connections of the wave soldering installation.< allowing to supply heated inert gas to the three following regions in the wave soldering installation: - the region in front of the solder waves; - the region between the solder waves; and - the region behind the solder waves, > - the region in front of the solder waves; - the region between the solder waves; and - the region behind the solder waves, >
A device for perforating a roll-off film comprising: - supply means (2a, 2b) for supplying the roll-off film, - at least one perforating element (3, 3', 3A, 3B, 3A', 3B') that has a perforating position of said roll-off film and a withdrawn position, and - receiving means (2c, 2d) for receiving said supplied perforated film, characterized in that it further comprises: - a conveyor belt having a planar surface that can be penetrated by at least one of the aforementioned perforating elements (3, 3', 3A, 3B, 3A', 3B'), having a predetermined movement speed and being arranged to receive the roll-off film on the aforementioned surface and to convey it thereon at said predetermined speed in a predetermined direction, - a reel having a rotation axis positioned parallel to said planar surface, at a distance therefrom and perpendicular to said predetermined movement direction of said film on said planar surface of the conveyor belt and around which at least one support structure (8, 8', 8A, 8B, 8A', 8B') provided with at least one aforementioned perforating element (3, 3', 3A, 3B, 3A', 3B') is driven in revolution, and - in that, in said perforating position of the roll-off film, said at least one perforating element (3, 3', 3A, 3B, 3A', 3B') perforates the film and at least partially penetrates through the planar surface of said conveyor belt. - supply means (2a, 2b) for supplying the roll-off film, - at least one perforating element (3, 3', 3A, 3B, 3A', 3B') that has a perforating position of said roll-off film and a withdrawn position, and - receiving means (2c, 2d) for receiving said supplied perforated film, - a conveyor belt having a planar surface that can be penetrated by at least one of the aforementioned perforating elements (3, 3', 3A, 3B, 3A', 3B'), having a predetermined movement speed and being arranged to receive the roll-off film on the aforementioned surface and to convey it thereon at said predetermined speed in a predetermined direction, - a reel having a rotation axis positioned parallel to said planar surface, at a distance therefrom and perpendicular to said predetermined movement direction of said film on said planar surface of the conveyor belt and around which at least one support structure (8, 8', 8A, 8B, 8A', 8B') provided with at least one aforementioned perforating element (3, 3', 3A, 3B, 3A', 3B') is driven in revolution, and - in that, in said perforating position of the roll-off film, said at least one perforating element (3, 3', 3A, 3B, 3A', 3B') perforates the film and at least partially penetrates through the planar surface of said conveyor belt.