mhurhangee/ep-ind-claims huggingface dataset:
A device for receiving a liquid sample to be analysed by a process involving the passing of electromagnetic radiation through the sample, the device comprising a light inlet guide for directing electromagnetic radiation into the sample, a light receiving element, situated in an opposed relationship to the guide, and spaced from the guide by a fixed distance to define a fixed length gap which is, in use, filled with the sample and across which the radiation passes from the light inlet guide to the light receiving element, the path length of radiation through the sample being defined by said gap, the device being open or openable to allow a droplet of the sample to be deposited directly in the gap, wherein the light inlet guide comprises an elongate inlet optical fibre, having an output end face through which, in use, electromagnetic radiation is emitted into said gap, the light receiving element comprises a receiving end face of a further optical fibre, the two end faces thus defining the gap, the inlet fibre and the further fibre are co-axial, at least in the region of their receiving and output end faces, the device comprises a housing having a recess into which the fibres extend, the gap being situated in the recess, characterised in that at least the portion of the inlet fibre in the region of the free output end face is encased in a rigid cladding, the cladding comprises a steel tube, the further fibre also has a rigid cladding, in the region of its receiving end face and the ends and rigid claddings of both fibres stand proud of the recess.
A cable bushing for guiding a shielded cable through a wall, comprising: a first bushing body, a first metal member arranged in the first bushing body, a second bushing body, and a second metal member arranged in the second bushing body, wherein the first bushing body and the second bushing body are made from a non-metal material, the first bushing body comprises a first main portion and a first auxiliary portion arranged on an opposite side of the first metal member with respect to the first main portion, for holding the first metal member therebetween, and the second bushing body comprises a second main portion and a second auxiliary portion arranged on an opposite side of the second metal member with respect to the second main portion, for holding the second metal member therebetween, the first metal member is suitable for establishing an electrical connection between a cable shield of the cable and the wall, and the second metal member is suitable for establishing an electrical connection between the cable shield of the cable and the wall, characterized in that the second bushing body is attachable to the first bushing body for pressing the cable against the first bushing body, and the first main portion of the first bushing body and the second main portion of the second bushing body each comprise an external thread segment (14, 24), and the cable bushing further comprises a counter nut that is engageable with the external thread segments (14, 24) in a state, in which the second bushing body is attached to the first bushing body. a first bushing body, a first metal member arranged in the first bushing body, a second bushing body, and a second metal member arranged in the second bushing body, wherein the first bushing body and the second bushing body are made from a non-metal material, the first bushing body comprises a first main portion and a first auxiliary portion arranged on an opposite side of the first metal member with respect to the first main portion, for holding the first metal member therebetween, and the second bushing body comprises a second main portion and a second auxiliary portion arranged on an opposite side of the second metal member with respect to the second main portion, for holding the second metal member therebetween, the first metal member is suitable for establishing an electrical connection between a cable shield of the cable and the wall, and the second metal member is suitable for establishing an electrical connection between the cable shield of the cable and the wall, characterized in that the second bushing body is attachable to the first bushing body for pressing the cable against the first bushing body, and the first main portion of the first bushing body and the second main portion of the second bushing body each comprise an external thread segment (14, 24), and the cable bushing further comprises a counter nut that is engageable with the external thread segments (14, 24) in a state, in which the second bushing body is attached to the first bushing body.
A smart cell, comprising: a positive terminal; a negative terminal; an energy storage device; a switching circuit which is arranged to select between a first switching state in which the energy storage device is connected between the positive terminal and the negative terminal and a second switching state which bypasses said energy storage device; and characterized in that an inductor is provided between the positive terminal and the negative terminal; and wherein said inductor is in series with said switching circuit such that either the inductor is between the switching circuit and the positive terminal or the inductor is between the switching circuit and the negative terminal; and further characterized by comprising a controller arranged to monitor the voltage across the inductor and arranged to control the switching circuit based on said inductor voltage. a positive terminal; a negative terminal; an energy storage device; a switching circuit which is arranged to select between a first switching state in which the energy storage device is connected between the positive terminal and the negative terminal and a second switching state which bypasses said energy storage device; and characterized in that an inductor is provided between the positive terminal and the negative terminal; and wherein said inductor is in series with said switching circuit such that either the inductor is between the switching circuit and the positive terminal or the inductor is between the switching circuit and the negative terminal; and further characterized by comprising a controller arranged to monitor the voltage across the inductor and arranged to control the switching circuit based on said inductor voltage.
System for merging at least two line sections (4, 6) in a vacuum wound treatment system, comprising the both line sections (4, 6) and a connection device wherein the both line sections (4, 6) are arranged wound side in relation to the connection device, and wherein the connection device is connectable on its side which faces away from the wound with a third multi-lumen line section which leads to a vacuum generating device, characterized in that the at least two line sections (4, 6) are configured multi-lumen and these line sections (4, 6) each are coupled with a multi-lumen attachment device (16, 18) which is in flow communication with the connection device and in that lumens (8, 10; 12, 14) of the both wound side line sections (4, 6) which are separated from one another, also remain separated from one another within the connection device, wherein in the interior of the connection device respectively at least two wound-side lumens (8 and 12; 10 and 14) are merged into one lumen (24, 26) which faces away from the wound.
A process for the manufacture of a 1,2-epoxide by catalytic oxidation of a terminal olefin is selected from halogenated olefins having from 3 to 8 carbon atoms in the molecule, alkoxy-substituted olefins having 3 to 8 carbon atoms in the molecule, alkenoic acids having 7 to 8 carbon atoms and esters of alkenoic acids having in total 4 to 8 carbon atoms, allyl esters of alkanoic acids having 3 to 8 carbon atoms, with hydrogen peroxide wherein the catalytic oxidation is performed in a biphasic system comprising an organic phase and an aqueous reaction medium without organic solvent, wherein the aqueous reaction medium comprises a buffer system so as to stabilize the pH, in the range of from 3.5 to 6.5, wherein a water-soluble binuclear manganese complex is used as oxidation catalyst, wherein a terminal olefin is used with a solubility at 20°C in the range of from 0,01 to 100 g/L, more preferably from 0,1 to 50 g/L, most preferably from 0.5 to 20 g/L, and wherein the molar ratio of terminal olefin to hydrogen peroxide is in the range of from 1:0.1 to 1:2, and wherein the stirring speed is fixed to leave the organic phase in the bottom layer substantially undisturbed.
Vehicle, in particular motor vehicle, which has a plurality of wheels, which form unsprung components (2, 3) and can rotate about wheel axles, and a vehicle structure which forms a sprung component, having an energy generation device which is arranged in the vehicle structure and by means of which a movement of the vehicle structure or parts of the vehicle structure can be converted into electrical energy which can be supplied to a rechargeable battery, wherein the energy generation device is an energy absorption converter and has a cylindrical coil winding which surrounds an interior space in which an axially magnetized permanent magnet is arranged such that it can be driven in a coaxially movable manner by the movement of the vehicle structure or a part of the vehicle structure, characterized in that the permanent magnet or permanent magnets in the coil winding or coil windings or coil winding stacks can be driven in a coaxially movable manner by vertical movements of sprung and unsprung parts of the vehicle relative to one another and the vertical movements of sprung and unsprung parts of the vehicle relative to one another can be transmitted from the unsprung part or unsprung parts to the permanent magnet or permanent magnets by means of one or more gear mechanisms (6, 7, 8), and the permanent magnet or permanent magnets can be driven in a movable manner coaxially to the coil winding or to the coil winding stack by means of an axially sprung spring element.
A method of enhancing the connection between a shower rod and a pair of facing walls (11, 12) between which said rod is mounted and with which first connections (15, 16) of said rod are engaged, said method being characterised by providing a pair of additional separate supports between said rod and said walls, said additional supports engaging said rod, and fixing said additional supports to said walls (11, 12) using an adhesive.
A light module, the module having a light fixture comprising: a thermally conductive stepped formation comprising a plurality of steps; and a plurality of light sources mounted to respective steps on the stepped formation; characterised in that a plurality of lenses adjustable through an angle in the range 0 to 60 degrees are adapted to focus the light emitted from respective light sources, the light module having a thermally conductive mount adapted to mount the light fixture to a surface of a hull of a boat. a thermally conductive stepped formation comprising a plurality of steps; and a plurality of light sources mounted to respective steps on the stepped formation; characterised in that a plurality of lenses adjustable through an angle in the range 0 to 60 degrees are adapted to focus the light emitted from respective light sources, the light module having a thermally conductive mount adapted to mount the light fixture to a surface of a hull of a boat.
A method for forming a structured panel, comprising: forming a cellular core that comprises a corrugated ribbon configured with a plurality of baffles and a plurality of septums, each of the septums extending longitudinally between and connected to a respective adjacent pair of the baffles, at least one element of the corrugated ribbon comprising a structural reinforcement, wherein the element comprises one of the baffles or one of the septums; the forming comprising feeding a ribbon of material between a first roller and a second roller, corrugating the ribbon of material with the first roller and the second roller to provide the baffles and the septums, and stamping the structural reinforcement into the element with the first roller and the second roller; bonding the cellular core to a first skin; and bonding the cellular core to a second skin; wherein the cellular core is vertically between the first skin and the second skin, and the first skin is configured with a plurality of perforations. forming a cellular core that comprises a corrugated ribbon configured with a plurality of baffles and a plurality of septums, each of the septums extending longitudinally between and connected to a respective adjacent pair of the baffles, at least one element of the corrugated ribbon comprising a structural reinforcement, wherein the element comprises one of the baffles or one of the septums; the forming comprising feeding a ribbon of material between a first roller and a second roller, corrugating the ribbon of material with the first roller and the second roller to provide the baffles and the septums, and stamping the structural reinforcement into the element with the first roller and the second roller; bonding the cellular core to a first skin; and bonding the cellular core to a second skin; wherein the cellular core is vertically between the first skin and the second skin, and the first skin is configured with a plurality of perforations.
A method of configuring, by a network node of a wireless communication network, a CSI-RS resource in the wireless communication network, the method comprising: obtaining a combination of one or more components to be used for a CSI-RS resource, the one or more components being contained in one or more physical resource blocks of a slot; and indicating, to one or more wireless devices, the combination of the one or more components in the one or more physical resource blocks that are to be used for the CSI-RS resource, wherein each physical resource block spans a plurality of subcarriers, characterised in that the indication includes a single bitmap, each bit in the single bitmap uniquely corresponding to a subcarrier index and indicating whether a component starting at the corresponding subcarrier index is part of the combination of one or more components used for the CSI-RS resource, wherein the combination of the one or more components defines a pattern of components that is repeated over a set of physical resource blocks. obtaining a combination of one or more components to be used for a CSI-RS resource, the one or more components being contained in one or more physical resource blocks of a slot; and indicating, to one or more wireless devices, the combination of the one or more components in the one or more physical resource blocks that are to be used for the CSI-RS resource, wherein each physical resource block spans a plurality of subcarriers, characterised in that the indication includes a single bitmap, each bit in the single bitmap uniquely corresponding to a subcarrier index and indicating whether a component starting at the corresponding subcarrier index is part of the combination of one or more components used for the CSI-RS resource, wherein the combination of the one or more components defines a pattern of components that is repeated over a set of physical resource blocks.
A gangway between two articulately connected vehicles (12, 26) with a bellows and a side wall cover on the inner side of the bellows, wherein the side wall cover is held by two holding devices (4, 20), wherein respectively one holding device (4, 20) can be disposed on the vehicle body of a vehicle (12, 26), wherein at least one first holding device comprises a rotatable rolling body, wherein the side wall cover comprises at least two sections (1a, 1b) of different rigidity along its length between the two holding devices (4, 20), characterized in that the other second holding device is formed so as to hold the side wall cover and to be fixed in such a manner that the one section is not rolled up, wherein the one section of the side wall cover, which is located on the side of the fixed second holding device, has a greater rigidity than the other section, which is directly adjacent to the first holding device with the rotatable rolling body.
A process for the preparation of the compound of formula wherein R 1 is C 1 -C 4 -Alkyl; comprising the following step: (i) reacting a compound of formula with an aqueous solution of an inorganic base selected from hydroxides, carbonates or phosphates of alkali or earth alkali metals, or aluminium hydroxide or any mixtures thereof in the presence of an organic base selected from amidine and guanidine bases, in an inert organic solvent, wherein the reaction is heterophase and the organic base is used in an amount of 0.001 to 0.3 mol equivalents per 1 mol of compound. wherein R 1 is C 1 -C 4 -Alkyl; comprising the following step: (i) reacting a compound of formula with an aqueous solution of an inorganic base selected from hydroxides, carbonates or phosphates of alkali or earth alkali metals, or aluminium hydroxide or any mixtures thereof in the presence of an organic base selected from amidine and guanidine bases, in an inert organic solvent, wherein the reaction is heterophase and the organic base is used in an amount of 0.001 to 0.3 mol equivalents per 1 mol of compound. (i) reacting a compound of formula with an aqueous solution of an inorganic base selected from hydroxides, carbonates or phosphates of alkali or earth alkali metals, or aluminium hydroxide or any mixtures thereof in the presence of an organic base selected from amidine and guanidine bases, in an inert organic solvent, wherein the reaction is heterophase and the organic base is used in an amount of 0.001 to 0.3 mol equivalents per 1 mol of compound.
A method for producing a recoated titanium dioxide scaffold, said method comprising: a) applying a first slurry comprising titanium dioxide to a combustible porous structure; b) allowing the first slurry to solidify on said combustible porous structure; c) removing said combustible porous structure from the solidified titanium dioxide slurry by a first sintering at about 400-550°C to produce a titanium dioxide scaffold structure; d) subjecting the titanium dioxide scaffold structure of step c) to a second sintering at a temperature of at least 1300°C for at least 10 hours to provide a single-coated titanium dioxide scaffold characterized in that said method further comprises a vacuum infiltration procedure, wherein said vacuum infiltration procedure comprises the steps of: e) applying a second slurry comprising titanium dioxide to said single coated titanium dioxide scaffold by vacuum infiltration and thereafter optionally subjecting said single-coated titanium dioxide scaffold to centrifugation; f) allowing the second slurry of step e) to solidify on the single-coated titanium dioxide scaffold; and g) performing a third sintering at a temperature of at least 1100°C to provide a recoated titanium dioxide scaffold. a) applying a first slurry comprising titanium dioxide to a combustible porous structure; b) allowing the first slurry to solidify on said combustible porous structure; c) removing said combustible porous structure from the solidified titanium dioxide slurry by a first sintering at about 400-550°C to produce a titanium dioxide scaffold structure; d) subjecting the titanium dioxide scaffold structure of step c) to a second sintering at a temperature of at least 1300°C for at least 10 hours to provide a single-coated titanium dioxide scaffold e) applying a second slurry comprising titanium dioxide to said single coated titanium dioxide scaffold by vacuum infiltration and thereafter optionally subjecting said single-coated titanium dioxide scaffold to centrifugation; f) allowing the second slurry of step e) to solidify on the single-coated titanium dioxide scaffold; and g) performing a third sintering at a temperature of at least 1100°C to provide a recoated titanium dioxide scaffold.
A break-stem blind rivet, having a blind rivet mandrel and a blind rivet sleeve, wherein the blind rivet mandrel has an elongate shank, a head at one end of the shank and also a predetermined breaking point, and wherein the blind rivet sleeve has a sleeve shank and a sleeve head which are designed to receive the blind rivet mandrel, wherein the shank of the blind rivet mandrel in the region of the predetermined breaking point has a radial extent which is greater than the radial extent of the elongate shank outside the region of the predetermined breaking point and which for forming clamping of the blind rivet sleeve on the shank in the region of the predetermined breaking point when the blind rivet sleeve is oriented coaxially to the shank of the blind rivet mandrel is greater than the radial extent of the bore of the blind rivet sleeve, characterised in that at least the transitions between the predetermined breaking point and the shank which face the head of the blind rivet mandrel are designed in flowing manner.
Through-pivot comprising a first ring and a second ring, the two rings having a symmetry of revolution about one and the same longitudinal axis, one of the two rings being able to rotate about the longitudinal axis with respect to the other ring, said through-pivot comprising at least one floating frame being able to rotate about the longitudinal axis, the two rings (1, 2) being connected to the floating frame by at least a first set, respectively at least a second set, of several flexible elements (7, 8) extending in a direction transverse to the two rings (1, 2), the flexible elements of the first set comprising a first end connected to the floating frame and a second end opposite to the first end connected to the first ring and the flexible elements of the second set comprising a first end connected to the floating frame and a second end opposite to the first end connected to the second ring, characterized in that, in a state of rest, the flexible elements connected to the first ring are inclined by a same angle of inclination (α) with respect to radial directions of the first ring and in that the flexible elements connected to the second ring are inclined by a same angle of inclination (α) but in a direction opposite to the inclination direction of the flexible elements.
A process for producing composite elements comprising at least one rigid foam layer a) and at least one outer layer b), at least comprising the following steps: (i) providing a flowable starting material a*) (ii) applying the flowable starting material a*) to the outer layer b) by means of a fixed application apparatus c) while the outer layer b) is moved continuously, where the starting material a*) comprises the following components: A) at least one polyisocyanate, B) at least one polyol, C) at least one blowing agent, D) catalyst composition comprising - at least one compound D1) selected from the group consisting of metal carboxylates and N,N',N"-tris(dimethylaminopropyl)hexahydrotriazine; - at least one compound D2) which catalyzes polyurethane formation and which differs from the compound D1) and comprises at least one amino group, and E) optionally auxiliaries and additives, wherein component B) is one selected from polyetherols, and the starting material a*) is free from polyesterols. (i) providing a flowable starting material a*) (ii) applying the flowable starting material a*) to the outer layer b) by means of a fixed application apparatus c) while the outer layer b) is moved continuously, A) at least one polyisocyanate, B) at least one polyol, C) at least one blowing agent, D) catalyst composition comprising - at least one compound D1) selected from the group consisting of metal carboxylates and N,N',N"-tris(dimethylaminopropyl)hexahydrotriazine; - at least one compound D2) which catalyzes polyurethane formation and which differs from the compound D1) and comprises at least one amino group, and - at least one compound D1) selected from the group consisting of metal carboxylates and N,N',N"-tris(dimethylaminopropyl)hexahydrotriazine; - at least one compound D2) which catalyzes polyurethane formation and which differs from the compound D1) and comprises at least one amino group, and E) optionally auxiliaries and additives,