mhurhangee/ep-ind-claims huggingface dataset:
A light control film, comprising: two transparent electroconductive resin substrates; and a light control layer sandwiched between the two transparent electroconductive resin substrates, the light control layer comprising: a resin matrix; and a light control suspension dispersed in the resin matrix, characterised in that at least one of the transparent electroconductive resin substrates has, on the light control layer side thereof, a primer layer, which is made of a thin film comprising a material containing a (meth)acrylate having, in the molecule thereof, is an alcoholic hydroxyl group, wherein said (meth)acrylate has a pentaerythritol skeleton.
Battery assembly provided for the traction of an electric or hybrid vehicle, comprising: - the batterys, - the bars conductives above the batterys and connected to these batteries making connections to the batteries, - a cover descending on the batteries, - a cable fixing system designed to be fixed on one of the bars conductives rigids, the system comp ren ant a retaining loop for receiving at least one cable, and a fastening device provided to be fixed to the bar which is flat, this device comprising a longitudinal direction and a bearing plane corresponding respectively to the longitudinal direction of this bar, and to a bearing surface on the flat of this bar, characterized in that the fixing system comprises at least one elastic element (20, 22) facing outwards from the fixing system, this element having elasticity in the direction perpendicular to a bearing plate and compressed by the cover, or by the top of one of the batteries, or by the cover and the top of one of the batteries. - the batterys, - the bars conductives above the batterys and connected to these batteries making connections to the batteries, - a cover descending on the batteries, - a cable fixing system designed to be fixed on one of the bars conductives rigids, the system comp ren ant a retaining loop for receiving at least one cable, and a fastening device provided to be fixed to the bar which is flat, this device comprising a longitudinal direction and a bearing plane corresponding respectively to the longitudinal direction of this bar, and to a bearing surface on the flat of this bar, characterized in that the fixing system comprises at least one elastic element (20, 22) facing outwards from the fixing system, this element having elasticity in the direction perpendicular to a bearing plate and compressed by the cover, or by the top of one of the batteries, or by the cover and the top of one of the batteries.
A catalyst component for olefin polymerization, comprising reaction products of the following components: a solid component; at least one titanium compound; and at least two internal electron donors; wherein the solid component comprises a magnesium compound represented by formula and an epoxide represented by formula and wherein the solid component is obtained by reacting a magnesium halide-alcohol adduct solution with the epoxide represented by the formula in the presence of at least one polymeric dispersion stabilizer, wherein the polymeric dispersion stabilizer is at least one chosen from polyacrylates, styrene-maleic anhydride copolymers, polystyrene sulfonates, naphthalenesulfonic acid-formaldehyde condensation products, condensed alkyl phenyl ether sulfates, condensed alkylphenol polyoxyethylene ether phosphates, oxyalkyl acrylate copolymer-modified polyethyleneimines, poly(1-dodecyl-4-vinylpyridinium bromide)s, poly(vinylbenzyl trimethyl ammonium salt)s, poly(vinyl alcohol)s, polyacrylamides, ethylene oxide-propylene oxide block copolymers, polyvinylpyrrolidones (PVPs), poly(vinylpyrrolidone-co-vinyl acetate)s, poly(ethylene glycol)s (PEGs), alkylphenyl polyoxyethylene ethers and poly(alkyl methylacrylate)s, preferably at least one of polyvinylpyrrolidone, poly(vinylpyrrolidone-co-vinyl acetate)s and poly(ethylene glycol)s, and the weight average molecular weight of the polymeric dispersion stabilizer is larger than 1000, preferably larger than 3000, and more preferably from 6,000 to 2,000,000 wherein, R I is a C 1 -C 12 linear or branched alkyl; R II and R III are identical or different, and are independently hydrogen or unsubstituted or halogen-substituted C 1 -C 5 linear or branched alkyl; X is halogen; m is in a range of from 0.1 to 1.9, n is in a range of from 0.1 to 1.9, and m + n = 2; and wherein the content of the epoxide represented by the formula is in a range of from 0.01 to 0.8 moles per mole of the magnesium compound represented by the formula. a solid component; at least one titanium compound; and at least two internal electron donors; wherein, R I is a C 1 -C 12 linear or branched alkyl; R II and R III are identical or different, and are independently hydrogen or unsubstituted or halogen-substituted C 1 -C 5 linear or branched alkyl; X is halogen; m is in a range of from 0.1 to 1.9, n is in a range of from 0.1 to 1.9, and m + n = 2; and wherein the content of the epoxide represented by the formula is in a range of from 0.01 to 0.8 moles per mole of the magnesium compound represented by the formula.
A process comprising the steps: a) contacting a mixture comprising furandicarboxylic acid dialkyl ester, a diol comprising ethylene glycol, 1,3-propanediol, 1,4-butanediol, 1,4-cyclohexanedimethanol, or mixtures thereof, and a metal catalyst at a temperature in the range of from about 140°C to about 220°C to form prepolymer, wherein the mole ratio of the furandicarboxylic acid dialkyl ester to the diol is in the range of from 1:1.3 to 1:2.2; b) performing polycondensation by heating the prepolymer under reduced pressure to a temperature in the range of from about 220°C to about 260°C to form poly(alkylene furandicarboxylate) polymer; c) independently adding to step a) and/or step b) at least one anthraquinone compound represented by Structure A wherein each R is independently selected from the group consisting of H, OH, C 1 -C 6 alkyl, NHCOCH 3, SO 2 NHC 6 H 11, and each Q, Y, and Z is independently selected from H, OH, NH 2, and NHR', wherein R' is cyclohexyl or substituted aryl wherein the rate of polycondensation in step c) is faster with the anthraquinone compound present than without. a) contacting a mixture comprising furandicarboxylic acid dialkyl ester, a diol comprising ethylene glycol, 1,3-propanediol, 1,4-butanediol, 1,4-cyclohexanedimethanol, or mixtures thereof, and a metal catalyst at a temperature in the range of from about 140°C to about 220°C to form prepolymer, wherein the mole ratio of the furandicarboxylic acid dialkyl ester to the diol is in the range of from 1:1.3 to 1:2.2; b) performing polycondensation by heating the prepolymer under reduced pressure to a temperature in the range of from about 220°C to about 260°C to form poly(alkylene furandicarboxylate) polymer; c) independently adding to step a) and/or step b) at least one anthraquinone compound represented by Structure A wherein each R is independently selected from the group consisting of H, OH, C 1 -C 6 alkyl, NHCOCH 3, SO 2 NHC 6 H 11, and each Q, Y, and Z is independently selected from H, OH, NH 2, and NHR', wherein R' is cyclohexyl or substituted aryl wherein the rate of polycondensation in step c) is faster with the anthraquinone compound present than without.
A method of dissipating an electrical current in a composite structure, comprising: providing carbon fiber tow layers along X and Y axes; weaving a plurality of electrically conductive filaments among said carbon fiber tow layers; pre-impregnating said carbon fiber tow layers with resin; completing said composite structure by curing said resin; and dissipating electrical current throughout said composite structure along said carbon fiber tow layers and said plurality of electrically conductive filaments, characterized in that the plurality of electrically conductive filaments is woven along the Z axis only part of the way through two to four layers of the structure. providing carbon fiber tow layers along X and Y axes; weaving a plurality of electrically conductive filaments among said carbon fiber tow layers; pre-impregnating said carbon fiber tow layers with resin; completing said composite structure by curing said resin; and dissipating electrical current throughout said composite structure along said carbon fiber tow layers and said plurality of electrically conductive filaments, characterized in that the plurality of electrically conductive filaments is woven along the Z axis only part of the way through two to four layers of the structure.
A wireless charger for charging a plurality of chargeable devices, the wireless charger comprising: means for receiving a charging request from a chargeable device of the plurality of chargeable devices positioned within a charging region of the wireless charger, said charging request being sent from the chargeable device in accordance with a charging parameter determined at the chargeable device according to attributes associated therewith, wherein the attributes comprise a first attribute, which is a static attribute, identifying a type of the chargeable device; means for determining a charging schedule in response to the received charging request for the plurality of chargeable devices based on: the first attribute associated with at least one of the wireless charger and at least one chargeable device of the plurality of chargeable devices positioned within a charging region of a wireless charger, and a second attribute, wherein the second attribute is an environmental attribute which depends on the location and/or orientation of the chargeable devices; and means for conveying wireless power to the plurality of chargeable devices according to the charging schedule; wherein static attributes, dynamic attributes, configurable attributes, and environmental attributes may be utilized in determining the charging schedule. means for receiving a charging request from a chargeable device of the plurality of chargeable devices positioned within a charging region of the wireless charger, said charging request being sent from the chargeable device in accordance with a charging parameter determined at the chargeable device according to attributes associated therewith, wherein the attributes comprise a first attribute, which is a static attribute, identifying a type of the chargeable device; means for determining a charging schedule in response to the received charging request for the plurality of chargeable devices based on: the first attribute associated with at least one of the wireless charger and at least one chargeable device of the plurality of chargeable devices positioned within a charging region of a wireless charger, and a second attribute, wherein the second attribute is an environmental attribute which depends on the location and/or orientation of the chargeable devices; and means for conveying wireless power to the plurality of chargeable devices according to the charging schedule; wherein static attributes, dynamic attributes, configurable attributes, and environmental attributes may be utilized in determining the charging schedule. the first attribute associated with at least one of the wireless charger and at least one chargeable device of the plurality of chargeable devices positioned within a charging region of a wireless charger, and a second attribute, wherein the second attribute is an environmental attribute which depends on the location and/or orientation of the chargeable devices; and means for conveying wireless power to the plurality of chargeable devices according to the charging schedule;
An electroluminescent organic semiconductor element comprising: - a substrate; - a first electrode arranged above the substrate; - a second electrode; - at least one organic layer arranged between the first electrode and the second electrode and comprising a layer generating light by carrier recombination; the first and second electrodes (2, 3) each comprising a highly conductive organic sublayer (21, 31), the highly conductive organic sublayer (21, 31) of the at least one electrode having a conductivity greater than 0.1 S/cm, at least one of the electrodes further comprising a second conductive sublayer (34, 32, 22) which has a different conductivity with respect to the highly conductive organic sublayer (21, 31), wherein the second conductive sublayer (34, 32) comprises a doped organic material or an inorganic material. - a substrate; - a first electrode arranged above the substrate; - a second electrode; - at least one organic layer arranged between the first electrode and the second electrode and comprising a layer generating light by carrier recombination;
A gas-turbine arrangement for a locomotive, comprising three pressure shafts, wherein a high-pressure shaft is arranged above low-pressure and medium-pressure shafts; a low-pressure shaft is provided with a low-pressure compressor having the inlet fitting and being connected by a shaft to a low-pressure turbine and by a gas connection to a medium-pressure turbine; a medium-pressure shaft is provided with a medium-pressure turbine connected by a shaft to a first synchronous traction generator and by a channel to a intermediate combustion chamber; the high-pressure shaft is provided with a high-pressure compressor connected by a shaft to a high-pressure turbine and by a channel to a main combustion chamber; an intermediate cooler is arranged between the low-pressure and high-pressure compressors and connected by channels (26,27) to these compressors; a regenerative heat exchanger is arranged between the high-pressure compressor and the high-pressure turbine and is provided with an exhaust fitting and connected by channels (32,35) to a low-pressure turbine and the high-pressure compressor, the said heat exchanger being provided with a heat exchanger for heating fuel, characterized in that the low-pressure compressor is provided with a rotating inlet guiding apparatus driven by a block; a bypass valve is installed on an intermediate cooler; the main combustion chambers is arranged in the regenerative heat exchanger that is connected to the high-pressure turbine by a channel; the high-pressure compressor is connected to a starter through a shaft and a reduction gear; and the high-pressure turbine is connected to the second synchronous traction generator by a shaft in order to enable the gas-turbine arrangement to be operated at no load and at low loads from the high-pressure shaft only.
A circular fixator, comprising: a plurality of rings (102, 130, 142), each ring having a first face, a second face, and at least one slot defined by first and second interior edges of the ring on opposing sides of the slot, the at least one slot penetrating from the first face to the second face, the first face of each ring (102, 130, 142) having a first recess adjacent the slot on the first edge and a second recess adjacent the slot on the second edge, wherein each recess comprises a plurality of receptacles; each one of the plurality of rings being joined to an adjacent one of the plurality of rings by a plurality of members; and a fixation device comprising a bolt, a nut and a washer, the bolt having a threaded portion sized to fit through the slot, the washer shaped to fit the respective one of the receptacles on the recess on each side of the slot such that the slot terminates at an opening at each end of the slot, the opening having a dimension that is substantially greater than a width of the slot, the device further comprising a plurality of plugs, each plug having a shape and size adapted to be detachably retained in a respective one of the openings, for retaining the bolt in the slot prior to tightening the nut and bolt. a plurality of rings (102, 130, 142), each ring having a first face, a second face, and at least one slot defined by first and second interior edges of the ring on opposing sides of the slot, the at least one slot penetrating from the first face to the second face, the first face of each ring (102, 130, 142) having a first recess adjacent the slot on the first edge and a second recess adjacent the slot on the second edge, wherein each recess comprises a plurality of receptacles; each one of the plurality of rings being joined to an adjacent one of the plurality of rings by a plurality of members; and a fixation device comprising a bolt, a nut and a washer, the bolt having a threaded portion sized to fit through the slot, the washer shaped to fit the respective one of the receptacles on the recess on each side of the slot such that the slot terminates at an opening at each end of the slot, the opening having a dimension that is substantially greater than a width of the slot, the device further comprising a plurality of plugs, each plug having a shape and size adapted to be detachably retained in a respective one of the openings, for retaining the bolt in the slot prior to tightening the nut and bolt.
Electronic cam switching device (40, 50) having a rotary encoder (41, 51), having a programmable logic controller, input/output devices (54.1 to 54.x) and decentralized electronic cam switching mechanisms (42.1 to 42.x, 52.1 to 52.x), wherein a real-time Ethernet bus system (43, 53) is arranged for the purpose of transmitting signals between the rotary encoder (41, 51) and the decentralized electronic cam switching mechanisms (42.1 to 42.x, 52.1 to 52.x), the electronic cam switching mechanisms (42.1 to 42.x, 52.1 to 52.x) are connected to one another and the rotary encoder is connected to the programmable logic controller by means of the real-time Ethernet bus system (43, 53) and a real-time Ethernet communication interface is integrated in the speed encoder (41, 51) for this purpose, characterized in that the cam switching mechanisms (42.1 to 42.x, 52.1 to 52.x) are integrated in the input/output devices (54.1 to 54.x), and the programmable logic controller is set up to make it possible to centrally program the switching times stored in the input/output devices (54.1 to 54.x) in the integrated cam switching mechanisms (52.1 to 52.x).
A method for forming a contoured structure from a work piece, the method comprising: providing the work piece comprising a first side and a second side, the work piece having a thickness of 5,08 cm (two inches) or less; positioning the work piece on a fixture, such that the first side of the work piece is accessible to a deep rolling tool; applying a compressive force to the first side of the work piece with the deep rolling tool; moving the deep rolling tool relative to the work piece while continuing to apply the compressive force to introduce plastic deformation to a first portion of the work piece; adjusting the deep rolling tool to contact a second portion of the work piece and moving the deep rolling tool relative to the work piece to introduce plastic deformation to the second portion of the work piece; adjusting the deep rolling tool to introduce plastic deformation to one or more additional portions of the work piece to introduce a convex contour to the first side of the work piece; applying another compressive force to the second side of the work piece with a second deep rolling tool to introduce plastic deformation to a portion of the second side of the work piece; and applying the another compressive force to the second side occurs simultaneously as the compressive force is applied to the first side. providing the work piece comprising a first side and a second side, the work piece having a thickness of 5,08 cm (two inches) or less; positioning the work piece on a fixture, such that the first side of the work piece is accessible to a deep rolling tool; applying a compressive force to the first side of the work piece with the deep rolling tool; moving the deep rolling tool relative to the work piece while continuing to apply the compressive force to introduce plastic deformation to a first portion of the work piece; adjusting the deep rolling tool to contact a second portion of the work piece and moving the deep rolling tool relative to the work piece to introduce plastic deformation to the second portion of the work piece; adjusting the deep rolling tool to introduce plastic deformation to one or more additional portions of the work piece to introduce a convex contour to the first side of the work piece; applying another compressive force to the second side of the work piece with a second deep rolling tool to introduce plastic deformation to a portion of the second side of the work piece; and applying the another compressive force to the second side occurs simultaneously as the compressive force is applied to the first side.
A three-dimensional magnet structure consisting of a plurality of unitary magnets, the unitary magnets being directly adjacent to one another, each unitary magnet including a first longitudinal portion having an external contour carrying shapes set back towards the inside of the unitary magnet extending over at least one portion of a length of the first portion and/or of the setback shapes extending over at least one portion of the perimeter of the unitary magnet transversely to a longitudinal axis of the unitary magnet in the vicinity of at least one longitudinal end of the unitary magnet, characterised in that the unitary magnets are partially in contact with one another at the shapes (6, 6a) set back inwardly, the magnets are glued together by deposition of glue over at least one portion of the setback shapes (6, 6a), the plurality of unitary magnets forms a meshing of magnets without any holding elements interposed therebetween besides the glue.
Assembly of a first longitudinal reinforcement insert and of a second longitudinal reinforcement insert by a polymer material which covers them at least in part, each reinforcement insert (12, 14) having a bottom wall (12a, 14a) and two side walls (12b, 12c; 14b, 14c), each side wall (12b, 12c; 14b, 14c) being connected to a longitudinal edge of the bottom wall (12a, 14a) such that a reinforcement insert (12, 14) has a concave open cross section, especially substantially in the form of a U or Q, the longitudinal directions of said reinforcement inserts (12, 14) being substantially perpendicular and the reinforcement inserts being oriented such that the concavity thereof is directed in a same direction, - one end of the second reinforcement insert being interlocked with one end of the first reinforcement insert, the assembly being characterized in that - said ends of the first and second reinforcement inserts are rigidly connected to one another by at least two connecting elements (22, 24) in polymer material which connect outer surfaces of the first reinforcement insert to outer surfaces of the second reinforcement insert, said connecting elements (22, 24) covering said outer surfaces at least in part and being arranged in order to allow separation of the first and second inserts once said connecting elements have been cut along at least one cutting line (26, 27). - one end of the second reinforcement insert being interlocked with one end of the first reinforcement insert, the assembly being characterized in that - said ends of the first and second reinforcement inserts are rigidly connected to one another by at least two connecting elements (22, 24) in polymer material which connect outer surfaces of the first reinforcement insert to outer surfaces of the second reinforcement insert, said connecting elements (22, 24) covering said outer surfaces at least in part and being arranged in order to allow separation of the first and second inserts once said connecting elements have been cut along at least one cutting line (26, 27).