mhurhangee/ep-ind-claims huggingface dataset:
A method of determining whether a light control sheet is functioning normally, wherein the light control sheet includes a light control layer and two transparent electrode layers (12A, 12B) sandwiching the light control layer, and has a configuration capable of changing a light-shielding ratio prescribed by JIS L 1055:2009, method A, determining how much light passes through the light control sheet from a first space to illuminate a second space, without distinguishing between parallel light and diffused light, by applying a voltage to the two transparent electrode layers, the method comprising: determining whether the light control sheet is functioning normally, wherein a requirement for determining the light control sheet to be functioning normally is that, under conditions in which an applied voltage applied to the transparent electrode layers is changed, absolute values of one or more target change ratios have a maximum value of 0.7 [%/V] or more, each target change ratio being a change ratio of a light-shielding ratio [%] with respect to the applied voltage in a target range, the target range being a range of the applied voltage in which the light-shielding ratio of the light control sheet changes by 10%. determining whether the light control sheet is functioning normally, wherein a requirement for determining the light control sheet to be functioning normally is that, under conditions in which an applied voltage applied to the transparent electrode layers is changed, absolute values of one or more target change ratios have a maximum value of 0.7 [%/V] or more, each target change ratio being a change ratio of a light-shielding ratio [%] with respect to the applied voltage in a target range, the target range being a range of the applied voltage in which the light-shielding ratio of the light control sheet changes by 10%.
A light emitting element comprising, in sequence: an anode; a first electroluminescent layer over the anode; a first layer over the first electroluminescent layer; a second layer including a material having an electron-transporting property over and in contact with the first layer; a region including a material having a hole-transporting property and an electron acceptor material over and in contact with the second layer; a second electroluminescent layer over the region; and a cathode over the second electroluminescent layer, wherein the first layer includes at least one selected from the group consisting of an alkali metal, an alkaline earth metal, a rare earth metal, an alkali metal compound, an alkaline earth metal compound, and a rare earth metal compound, wherein the material having the electron-transporting property is a nitrogen-containing condensed aromatic compound or a perylene derivative, wherein the material having the hole-transporting property is an aromatic amine compound or a carbazole derivative, and wherein an emission spectrum of the first electroluminescent layer is different from an emission spectrum of the second electroluminescent layer. an anode; a first electroluminescent layer over the anode; a first layer over the first electroluminescent layer; a second layer including a material having an electron-transporting property over and in contact with the first layer; a region including a material having a hole-transporting property and an electron acceptor material over and in contact with the second layer; a second electroluminescent layer over the region; and a cathode over the second electroluminescent layer, wherein the first layer includes at least one selected from the group consisting of an alkali metal, an alkaline earth metal, a rare earth metal, an alkali metal compound, an alkaline earth metal compound, and a rare earth metal compound, wherein the material having the electron-transporting property is a nitrogen-containing condensed aromatic compound or a perylene derivative, wherein the material having the hole-transporting property is an aromatic amine compound or a carbazole derivative, and wherein an emission spectrum of the first electroluminescent layer is different from an emission spectrum of the second electroluminescent layer.
The compound 3-[4-(4-amino-piperidin-1-yl)-3-(3,5-difluoro-phenyl)-quinolin-6-yl]-2-hydroxy-benzonitrile monohydrochloride, or solvate thereof, having the following structure:
A method of forming a material structure from structural units contained within a liquid solution in a spray head, the liquid solution including a solvent and a solute, the solute comprising a plurality of the structural units, the structural units including monomer units, oligomer units, or combinations thereof, wherein the pH of the solution in the spray head is in a range that causes the structural units within the spray head to be in a non-reactive state or in a state of low reactivity, the method comprising: forming electrically charged droplets of the liquid solution including the structural units, and spraying the droplets on a substrate; wherein the net electrical charge of the droplets increases the reactivity of the structural units within the droplets relative to the structural units within the liquid solution in the spray head as the droplets evaporate, thereby enabling the structural units to covalently bond with one another or with the substrate at a higher rate than before the increase in the reactivity and causing the material structure to be directly formed on the substrate from the structural units within the droplets. forming electrically charged droplets of the liquid solution including the structural units, and spraying the droplets on a substrate; wherein the net electrical charge of the droplets increases the reactivity of the structural units within the droplets relative to the structural units within the liquid solution in the spray head as the droplets evaporate, thereby enabling the structural units to covalently bond with one another or with the substrate at a higher rate than before the increase in the reactivity and causing the material structure to be directly formed on the substrate from the structural units within the droplets.
A propeller gas turbine engine having an axial flow direction therethrough in use, the gas turbine engine comprising: one or more propeller rotor stages each comprising at least one rotor blade, each rotor blade having a root portion; a shroud located upstream of one or more of the rotor stages relative to the axial flow direction; the shroud defining a through passageway extending between an inlet and an outlet, the shroud being configured to reduce the axial velocity of air exiting the outlet relative to air entering the inlet in use, wherein the outlet is configured to direct air exiting the outlet substantially towards the root portion of the rotor blades. one or more propeller rotor stages each comprising at least one rotor blade, each rotor blade having a root portion; a shroud located upstream of one or more of the rotor stages relative to the axial flow direction; the shroud defining a through passageway extending between an inlet and an outlet, the shroud being configured to reduce the axial velocity of air exiting the outlet relative to air entering the inlet in use, wherein the outlet is configured to direct air exiting the outlet substantially towards the root portion of the rotor blades.
Vehicle lamp, having at least three light sources arranged at different positions (S1, S2, S3), an optics element comprising a multiplicity of facet surfaces, wherein the directions of light beams that are emittable by the light sources in the direction of the facet surfaces are changeable by the facet surfaces, and a control unit for controlling the light sources, wherein the positions and/or orientations of the facet surfaces relative to the positions of the light sources are arranged such that, viewed from a specific observation position that is remote from the vehicle lamp, at least a light beam (L1-1) that has been emitted by a first light source and the direction of which has been changed by a first facet surface at a first facet position is visible, a light beam (L2-2) that has been emitted by a second light source and the direction of which has been changed by a second facet surface at a second facet position is visible, and a light beam (L3-3) that has been emitted by a third light source and the direction of which has been changed by a third facet surface at a third facet position is visible, wherein the first, second and third facet positions (F1, F2, F3) are arranged in each case at a distance from one another, characterized in that the light sources are controllable such that a sparkling effect is obtained at the observation position, in which one or more facet surfaces flash successively at different positions due to reflected light beams, wherein the light sources emit light successively or in any desired order.
A gel composition comprising: 0.5 to 1.5 % by mass of a neutralized product of an alkyl-modified carboxyl group-containing polymer, which is a copolymer of monomers comprising 100 parts by mass of (meth)acrylic acid (a), 2.5 to 5 parts by mass of a (meth)acrylic acid alkyl ester (b) in which the alkyl group has 18 to 24 carbon atoms, and 0.0001 to 0.1 part by mass of a compound (c) having two or more ethylenically unsaturated groups; and an anionic emulsifier or a nonionic emulsifier, wherein the anionic emulsifier is an alkyl sulfate, and the nonionic emulsifier is a polyoxyethylene alkyl ether, and wherein when the gel composition comprises the anionic emulsifier, the content of the anionic emulsifier is 0.05 to 1% by mass (solids content), and the pH of the composition is 4 to 5.6, and when the gel composition comprises the nonionic emulsifier, the content of the nonionic emulsifier is 0.05 to 1% by mass (solids content), and the pH of the composition is 4 to 13. 0.5 to 1.5 % by mass of a neutralized product of an alkyl-modified carboxyl group-containing polymer, which is a copolymer of monomers comprising 100 parts by mass of (meth)acrylic acid (a), 2.5 to 5 parts by mass of a (meth)acrylic acid alkyl ester (b) in which the alkyl group has 18 to 24 carbon atoms, and 0.0001 to 0.1 part by mass of a compound (c) having two or more ethylenically unsaturated groups; and an anionic emulsifier or a nonionic emulsifier, wherein the anionic emulsifier is an alkyl sulfate, and the nonionic emulsifier is a polyoxyethylene alkyl ether, and wherein when the gel composition comprises the anionic emulsifier, the content of the anionic emulsifier is 0.05 to 1% by mass (solids content), and the pH of the composition is 4 to 5.6, and when the gel composition comprises the nonionic emulsifier, the content of the nonionic emulsifier is 0.05 to 1% by mass (solids content), and the pH of the composition is 4 to 13.
A radius filler for a composite assembly, comprising: a pair of vertical ply stacks positioned in back-to-back relation to one another, each one of the vertical ply stacks being formed of one or more thick plies of composite material formed in an L-shaped cross-section having a vertical leg and a lateral leg interconnected by a stack radius and defining a crescent region; at least one of the crescent regions including one or more thin plies of composite material positioned adjacent to a stack radius inner surface; and each one of the thin plies having a ply thickness less than the ply thickness of the thick plies. a pair of vertical ply stacks positioned in back-to-back relation to one another, each one of the vertical ply stacks being formed of one or more thick plies of composite material formed in an L-shaped cross-section having a vertical leg and a lateral leg interconnected by a stack radius and defining a crescent region; at least one of the crescent regions including one or more thin plies of composite material positioned adjacent to a stack radius inner surface; and each one of the thin plies having a ply thickness less than the ply thickness of the thick plies.
Method for detecting a wear-relevant load on a vehicle wheel by means of a tyre pressure monitoring unit mounted on the vehicle wheel and containing at least one acceleration sensor, wherein a rotational frequency of the vehicle wheel is determined for a time interval from a series of measured values of the acceleration sensor at first time intervals, a centrifugal acceleration value is determined for the time interval, a proportionality factor is determined from the rotational frequency and centrifugal acceleration value, linking the square of the rotational frequency with the centrifugal acceleration, characterized in that a rotational frequency of the wheel is then continuously calculated from measured values of the centrifugal acceleration, which have been determined at second time intervals that are greater than the first time intervals, and from the proportionality factor, and a load value is respectively calculated from the rotational frequency and the second time intervals and these load values are continuously added up to an overall load. a rotational frequency of the vehicle wheel is determined for a time interval from a series of measured values of the acceleration sensor at first time intervals, a centrifugal acceleration value is determined for the time interval, a proportionality factor is determined from the rotational frequency and centrifugal acceleration value, linking the square of the rotational frequency with the centrifugal acceleration, characterized in that a rotational frequency of the wheel is then continuously calculated from measured values of the centrifugal acceleration, which have been determined at second time intervals that are greater than the first time intervals, and from the proportionality factor, and a load value is respectively calculated from the rotational frequency and the second time intervals and these load values are continuously added up to an overall load.
A gangway between two articulately connected vehicle parts (3, 4), wherein a guide assembly for supply lines extending in the roof area is provided in the roof area of the vehicle parts (3, 4), wherein the guide assembly comprises a spring assembly for guiding the supply lines, wherein line supports (27a-27g) are arranged on the spring assembly, characterized in that the spring assembly comprises at least two leaf spring segments (21, 22), which are respectively fastened with their one end to the front side of the corresponding vehicle part (3, 4), wherein the leaf spring segments (21, 22) are connected to each other with their other free ends through at least one hinge joint device with a vertical pivot axis, wherein the leaf spring segments (21, 22) have substantially the same length, with the consequence that the hinge joint device is located at the zenith of the spring assembly.
A robot cleaner comprising: a first housing including a controller and a driving wheel of which driving is controlled by the controller; a second housing disposed at one side of the first housing, the second housing having a brush module or mop module mounted thereto; a front bumper disposed at a front portion of the second housing; at least one sensing means disposed at the inside of the front bumper to sense a movement of the front bumper to the inside of the second housing; side bumpers (223', 223") respectively disposed at left and right side portions of the second housing, characterised in that the front bumper is configured to be removable to the inside of the second housing when the front bumper is in contact with an obstacle, and in that the side bumpers (223', 223") each being configured to movable to the inside of the second housing when the side bumper (223', 223") is in contact with an obstacle; the robot cleaner comprises further a link member disposed at the inside of the side bumper (223', 223") to allow the side bumper (223', 223") and the front bumper to interlock with each other such that, when the side bumper (223', 223") is moved to the inside of the second housing, at least one portion of the front bumper is moved together with the side bumper (223', 223") to the inside of the second housing. a first housing including a controller and a driving wheel of which driving is controlled by the controller; a second housing disposed at one side of the first housing, the second housing having a brush module or mop module mounted thereto; a front bumper disposed at a front portion of the second housing; at least one sensing means disposed at the inside of the front bumper to sense a movement of the front bumper to the inside of the second housing; side bumpers (223', 223") respectively disposed at left and right side portions of the second housing, characterised in that the front bumper is configured to be removable to the inside of the second housing when the front bumper is in contact with an obstacle, and in that the side bumpers (223', 223") each being configured to movable to the inside of the second housing when the side bumper (223', 223") is in contact with an obstacle; the robot cleaner comprises further a link member disposed at the inside of the side bumper (223', 223") to allow the side bumper (223', 223") and the front bumper to interlock with each other such that, when the side bumper (223', 223") is moved to the inside of the second housing, at least one portion of the front bumper is moved together with the side bumper (223', 223") to the inside of the second housing.
A composite structure, comprising: a resin; a fiber at least partially embedded within the resin; one or more resin-rich pockets associated with the fiber wherein the resin-rich pockets are located between fibers of a unidirectional ply; and a modifier located in the one or more resin-rich pockets, the modifier having at least one modifier characteristic that is different than a resin characteristic, wherein the modifier is a modifier coating comprising a thermoset monomer coating or a thermoset prepolymer coating; and wherein the modifier coating is applied to one or more fiber filaments on an outer edge of a fiber tow. a resin; a fiber at least partially embedded within the resin; one or more resin-rich pockets associated with the fiber wherein the resin-rich pockets are located between fibers of a unidirectional ply; and a modifier located in the one or more resin-rich pockets, the modifier having at least one modifier characteristic that is different than a resin characteristic, wherein the modifier is a modifier coating comprising a thermoset monomer coating or a thermoset prepolymer coating; and wherein the modifier coating is applied to one or more fiber filaments on an outer edge of a fiber tow.
A coating composition comprising: at least one solvent; at least one alkyd resin; at least one drier; and an anti-skinning composition capable of preventing oxidative crosslinking of the resin to form a skin, the anti-skinning composition comprising at least 92 wt.% of an alkyl oxime based on the total weight of the anti-skinning composition, wherein the alkyl oxime is selected from 2-pentanone oxime and 3-methyl-2-butanone oxime; and wherein the at least one drier is an oxidation catalyst selected from cobalt esters and manganese esters. at least one solvent; at least one alkyd resin; at least one drier; and an anti-skinning composition capable of preventing oxidative crosslinking of the resin to form a skin, the anti-skinning composition comprising at least 92 wt.% of an alkyl oxime based on the total weight of the anti-skinning composition, wherein the alkyl oxime is selected from 2-pentanone oxime and 3-methyl-2-butanone oxime; and
Apparatus designed to determine and/or monitor at least a process variable of a medium in a vessel with at least - a unit capable of vibrating mechanically, - a drive/reception unit designed to excite the unit capable of vibrating mechanically to perform mechanical vibrations by means of an electrical excitation signal (U A), and to receive and convert the mechanical vibrations to an electrical reception signal (U E), - an electronic unit, wherein said electronic unit is designed to ∘ generate the excitation signal (U A) on the basis of the reception signal (U E), ∘ set a predefinable phase shift (ΔΦ) between the excitation signal (U A) and the reception signal (U E), and ∘ determine and/or monitor the at least one process variable from the reception signal (U E), and - a phase correction unit, wherein said phase correction unit is at least designed to ∘ determine a phase correction value (ΔΦ kor) from at least one characteristic variable, which depends on at least a process parameter, at least of a component of the apparatus, particularly the drive/reception unit, and ∘ set the predefinable phase shift (ΔΦ) in line with the phase correction value (ΔΦ kor), characterized in that the characteristic variable is defined by at least a capacitance (C AE) or an inductance, which depends on at least one process parameter, at least of a component of the drive/reception unit or by at least a time constant (T proz, T ref) which depends on at least one process parameter. - a unit capable of vibrating mechanically, - a drive/reception unit designed to excite the unit capable of vibrating mechanically to perform mechanical vibrations by means of an electrical excitation signal (U A), and to receive and convert the mechanical vibrations to an electrical reception signal (U E), - an electronic unit, wherein said electronic unit is designed to ∘ generate the excitation signal (U A) on the basis of the reception signal (U E), ∘ set a predefinable phase shift (ΔΦ) between the excitation signal (U A) and the reception signal (U E), and ∘ determine and/or monitor the at least one process variable from the reception signal (U E), and ∘ generate the excitation signal (U A) on the basis of the reception signal (U E), ∘ set a predefinable phase shift (ΔΦ) between the excitation signal (U A) and the reception signal (U E), and ∘ determine and/or monitor the at least one process variable from the reception signal (U E), - a phase correction unit, wherein said phase correction unit is at least designed to ∘ determine a phase correction value (ΔΦ kor) from at least one characteristic variable, which depends on at least a process parameter, at least of a component of the apparatus, particularly the drive/reception unit, and ∘ set the predefinable phase shift (ΔΦ) in line with the phase correction value (ΔΦ kor), ∘ determine a phase correction value (ΔΦ kor) from at least one characteristic variable, which depends on at least a process parameter, at least of a component of the apparatus, particularly the drive/reception unit, and ∘ set the predefinable phase shift (ΔΦ) in line with the phase correction value (ΔΦ kor),
A method for increasing the yield of replication-incompetent adenoviruses having at least a partial deletion in the E1-region, wherein said adenoviruses are generated in a production cell, the method comprising the steps of: (a) expressing in said production cell an adenoviral pIX polypeptide from a nucleic acid sequence encoding said adenoviral pIX polypeptide under the control of at least a minimal endogenous pIX promoter and a heterologous promoter, wherein said nucleic acid sequence encoding said adenoviral pIX polypeptide is part of the adenoviral genome; and (b) expressing in said production cell the elements necessary for the production and assembly of said adenoviruses from corresponding coding sequences, thereby increasing the yield of said adenoviruses generated in said production cell in comparison to the yield of replication-incompetent adenoviruses having at least a partial deletion in the E1-region generated in said production cell in the absence of said nucleic acid sequence encoding said adenoviral pIX polypeptide, wherein the adenovirus is a human adenovirus of subgroup D. (a) expressing in said production cell an adenoviral pIX polypeptide from a nucleic acid sequence encoding said adenoviral pIX polypeptide under the control of at least a minimal endogenous pIX promoter and a heterologous promoter, wherein said nucleic acid sequence encoding said adenoviral pIX polypeptide is part of the adenoviral genome; and (b) expressing in said production cell the elements necessary for the production and assembly of said adenoviruses from corresponding coding sequences,