mhurhangee/ep-ind-claims huggingface dataset:
A method for storing a medium, in particular a gas, into a pressure storage device, in which the operating pressure, up to which the medium may be stored in the pressure storage device, is determined in the form of a dynamic operating pressure (P dyn) dependent on the temperature, wherein the dynamic operating pressure (P dyn) is a variable operating pressure, characterized in that the dynamic operating pressure (P dyn) is determined on the basis of specified defined dynamic reference temperature values (T ref), which are assigned to determined points of time, which change in their height at the determined points of time and to which suitable operating pressure values are associated, that the dynamic operating pressure (P dyn) is changed and/or adjusted and/or adapted at the determined points of time on the basis of the dynamic reference temperature values (T ref), and that, after the dynamic operating pressure (P dyn) has been determined, the medium is stored in the pressure storage device maximally up to the dynamic operating pressure (P dyn).
An earphone device (1; 44; 45) to be worn in the ear, which earphone device comprising a main body to be arranged in the concha of the outer ear of a user and an optical sensor, which optical sensor comprises a light emitter and a light detector, and wherein the earphone device comprises window means (8, 9) through which light emitted by the light emitter can be transmitted, which window means (8, 9) comprises an end face adapted to abut a conchal wall at a sensing position, wherein the earphone device is adapted to be positioned in the outer ear, so that the end face is abutting the conchal wall in the lower end of the concha adjacent the antitragus, wherein the main body comprises a speaker protrusion to be inserted into to ear canal and characterised in that the distance between the speaker protrusion and the end face is adjustable.
A method for producing a mesenchymal cell line derived from a vertebrate adipose tissue, comprising the following steps and: inducing differentiation of a cell population comprising at least a mesenchymal stem cell, an adipose progenitor cell, and a stromal cell of an adipose tissue among a vertebrate stromal vascular fraction into a mature adipocyte; and inducing dedifferentiation of the mature adipocyte obtained in step to obtain a mesenchymal cell line derived from the vertebrate adipose tissue. inducing differentiation of a cell population comprising at least a mesenchymal stem cell, an adipose progenitor cell, and a stromal cell of an adipose tissue among a vertebrate stromal vascular fraction into a mature adipocyte; and inducing dedifferentiation of the mature adipocyte obtained in step to obtain a mesenchymal cell line derived from the vertebrate adipose tissue.
A sunscreen composition, consisting of: organic pigment particulates; methylcellulose water; and optionally an additional sunscreen agent selected from octyl methoxycinnamate, avobenzone, para aminobenzoic acid, homosalate, benzophenones, benzylidenes or salicylates; and at least one of cosmetically acceptable emollients, vitamins, moisturisers, conditioners, oils, silicones, suspending agents, opacifiers/pearlisers, surfactants, emulsifiers, preservatives, rheology modifiers, colorants, pH adjustors, propellants, reducing agents, anti-oxidants, fragrances, foaming or de-foaming agents, tanning agents, insect repellants, or biocides wherein the organic pigment particulates are bisoctrizole. organic pigment particulates; methylcellulose water; and an additional sunscreen agent selected from octyl methoxycinnamate, avobenzone, para aminobenzoic acid, homosalate, benzophenones, benzylidenes or salicylates; and at least one of cosmetically acceptable emollients, vitamins, moisturisers, conditioners, oils, silicones, suspending agents, opacifiers/pearlisers, surfactants, emulsifiers, preservatives, rheology modifiers, colorants, pH adjustors, propellants, reducing agents, anti-oxidants, fragrances, foaming or de-foaming agents, tanning agents, insect repellants, or biocides
A process for treating a composition comprising 2,3,3,3-tetrafluoropropene in an amount of at least 10wt% of the composition and 1,1,1,2-tetrafluoroethane, so as to reduce the concentration of 134a, the process comprising contacting the composition with a molecular sieve comprising pores having openings which have a size across their largest dimension of 5 Å such that the 134a is retained by the adsorbent.
A method for producing a developing agent comprising the steps of: - preparing first fine particles containing at least a binder resin; and - preparing second fine particles containing a color developable compound, a color coupler, and a color eraser component including an alcohol, an ester, a ketone, an ether or an acid amide, that is used as a medium for a component obtained by coupling a leuco dye with a color coupler, capable of inhibiting the color developing reaction due to coupling of the color developable compound with the color coupler, capable of erasing the color by heating to a temperature not lower than a specific color erasing temperature Th and of maintaining the color erased state by cooling to a temperature not higher than Th, and capable of exhibiting a thermal hysteresis, and further capable of restoring the color developed state by further cooling to a temperature not higher than a specific color restoring temperature Tc; - preparing a dispersion liquid containing the first fine particles and the second fine particles in an aqueous medium; and - aggregating the first and second fine particles (101, 102) in the aqueous medium to form aggregated particles. - preparing first fine particles containing at least a binder resin; and - preparing second fine particles containing a color developable compound, a color coupler, and a color eraser component including an alcohol, an ester, a ketone, an ether or an acid amide, that is used as a medium for a component obtained by coupling a leuco dye with a color coupler, capable of inhibiting the color developing reaction due to coupling of the color developable compound with the color coupler, capable of erasing the color by heating to a temperature not lower than a specific color erasing temperature Th and of maintaining the color erased state by cooling to a temperature not higher than Th, and capable of exhibiting a thermal hysteresis, and further capable of restoring the color developed state by further cooling to a temperature not higher than a specific color restoring temperature Tc; - preparing a dispersion liquid containing the first fine particles and the second fine particles in an aqueous medium; and - aggregating the first and second fine particles (101, 102) in the aqueous medium to form aggregated particles.
A method for forming nanostructures, comprising: synthesizing a hollow shell via emulsion templating, the hollow shell having catalyst nanoparticles exposed on its interior surface; introducing the hollow shell into a reactor; and introducing a precursor into the reactor to grow nanostructures from an interior surface of the hollow shell from the catalyst nanoparticles. synthesizing a hollow shell via emulsion templating, the hollow shell having catalyst nanoparticles exposed on its interior surface; introducing the hollow shell into a reactor; and introducing a precursor into the reactor to grow nanostructures from an interior surface of the hollow shell from the catalyst nanoparticles.
A distance measuring device, comprising: a plurality of image taking parts (111, 112) which are monocular camera parts; a first distance information acquisition part that acquires distance information of an object for distance measuring from taken images that are taken by the plurality of image taking parts (111, 112); an electromagnetic wave emission part that emits an electromagnetic wave being laser light; a reflected-wave receiving part that receives a reflected wave of an electromagnetic wave emitted from the electromagnetic wave emission part; a second distance information acquisition part that acquires distance information of the object for distance measuring from a reflected wave received by the reflected-wave receiving part, and a determination part that determines presence or absence of a road marking at a position irradiated with the electromagnetic wave based on a reflected wave received by the reflected-wave receiving part, wherein the first distance information acquisition part executes parallax calculation dependent on a result of determination by the determination part to acquire the distance information, characterized in that irradiation with an electromagnetic wave emitted from the electromagnetic wave emission part is executed so that the electromagnetic wave is emitted in a downward direction with respect to an optical axis of one of the plurality of image taking parts (111, 112). a plurality of image taking parts (111, 112) which are monocular camera parts; a first distance information acquisition part that acquires distance information of an object for distance measuring from taken images that are taken by the plurality of image taking parts (111, 112); an electromagnetic wave emission part that emits an electromagnetic wave being laser light; a reflected-wave receiving part that receives a reflected wave of an electromagnetic wave emitted from the electromagnetic wave emission part; a second distance information acquisition part that acquires distance information of the object for distance measuring from a reflected wave received by the reflected-wave receiving part, and a determination part that determines presence or absence of a road marking at a position irradiated with the electromagnetic wave based on a reflected wave received by the reflected-wave receiving part, wherein the first distance information acquisition part executes parallax calculation dependent on a result of determination by the determination part to acquire the distance information, characterized in that irradiation with an electromagnetic wave emitted from the electromagnetic wave emission part is executed so that the electromagnetic wave is emitted in a downward direction with respect to an optical axis of one of the plurality of image taking parts (111, 112).
A distributor, wherein the distributor comprises at least three injection pipes, wherein each injection pipe is provided with a flow guiding inclined surface, and the flow guiding inclined surface is formed by inclining an end surface of a gas outlet section of the injection pipe to two sides; a gas mixing cavity respectively communicated with each injection pipe; a splitter disposed at the gas outlet section of the injection pipe and recessed to an interior of the gas mixing cavity to split gas to flow along two sides; and a first through hole disposed beside the injection pipe, configured for a cooling water pipe to pass through, and in close contact with the cooling water pipe, wherein the distributor comprises a top plate covering a top of each injection pipe, the top plate being provided with a plurality of fire holes; and a vertical spacing between a top of the first through hole and the top plate is less than or equal to 20 mm. at least three injection pipes, wherein each injection pipe is provided with a flow guiding inclined surface, and the flow guiding inclined surface is formed by inclining an end surface of a gas outlet section of the injection pipe to two sides; a gas mixing cavity respectively communicated with each injection pipe; a splitter disposed at the gas outlet section of the injection pipe and recessed to an interior of the gas mixing cavity to split gas to flow along two sides; and a first through hole disposed beside the injection pipe, configured for a cooling water pipe to pass through, and in close contact with the cooling water pipe, wherein the distributor comprises a top plate covering a top of each injection pipe, the top plate being provided with a plurality of fire holes; and a vertical spacing between a top of the first through hole and the top plate is less than or equal to 20 mm.
An Oxygen Storage Material consisting of oxides of zirconium, cerium, at least one rare earth metal other than cerium, and at least one transition metal with the sum of the oxides equal to 100% of the overall weight of the OSM; wherein the OSM has a cerium oxide content from 15% to 35% by weight, a zirconium oxide content from 40% to 70% by weight, a rare earth metal oxide content other than cerium oxide of 5% to 10% by weight, and a transition metal oxide content from 2% to 8% by weight relative to the overall weight of the OSM; wherein the rare earth metal is selected from lanthanum, neodymium, praseodymium, yttrium, or combination of thereof; wherein the transition metal is selected from copper, iron nickel, cobalt, manganese or combination of thereof; the OSM obtainable by (a) preparing a solution containing zirconium, cerium, rare earth and transition metal salts, (b) adding the polyvalent metal containing solution dropwise into a base solution to form a mixed hydroxide precipitate; (c) washing the precipitated mixed hydroxide with water to remove any anion and cation admixtures; (d) drying the washed mixed oxide; (e) calcining the mixed oxide in an inert or reducing atmosphere; and (f) ageing the calcined mixed oxide at 1100°C in air for 4 hours; the OSM thus having 100% CeO 2 reducibility and an oxygen storage capacity that is at least 1.5 mmol H 2 /g with bimodal TPR-H 2 profile. wherein the OSM has a cerium oxide content from 15% to 35% by weight, a zirconium oxide content from 40% to 70% by weight, a rare earth metal oxide content other than cerium oxide of 5% to 10% by weight, and a transition metal oxide content from 2% to 8% by weight relative to the overall weight of the OSM; wherein the rare earth metal is selected from lanthanum, neodymium, praseodymium, yttrium, or combination of thereof; wherein the transition metal is selected from copper, iron nickel, cobalt, manganese or combination of thereof; the OSM obtainable by (a) preparing a solution containing zirconium, cerium, rare earth and transition metal salts, (b) adding the polyvalent metal containing solution dropwise into a base solution to form a mixed hydroxide precipitate; (c) washing the precipitated mixed hydroxide with water to remove any anion and cation admixtures; (d) drying the washed mixed oxide; (e) calcining the mixed oxide in an inert or reducing atmosphere; and (f) ageing the calcined mixed oxide at 1100°C in air for 4 hours; (a) preparing a solution containing zirconium, cerium, rare earth and transition metal salts, (b) adding the polyvalent metal containing solution dropwise into a base solution to form a mixed hydroxide precipitate; (c) washing the precipitated mixed hydroxide with water to remove any anion and cation admixtures; (d) drying the washed mixed oxide; (e) calcining the mixed oxide in an inert or reducing atmosphere; and (f) ageing the calcined mixed oxide at 1100°C in air for 4 hours; the OSM thus having 100% CeO 2 reducibility and an oxygen storage capacity that is at least 1.5 mmol H 2 /g with bimodal TPR-H 2 profile.
A method of characterizing a patient sample, comprising: (a) contacting the sample with an array comprising pluralities of immobilized peptides of between 10 to 30 amino acids in length, wherein each plurality occupies a different area, wherein each area of the array comprises peptides of the same sequence, wherein an average spacing between peptides of the same sequence is less than 6 nm, and wherein a separate signal is detectable from each area; and (b) detecting binding of the pluralities of immobilized peptides in the array to component(s) of the patient sample to generate a binding profile, (c) comparing the binding profile to a reference binding profile that characterizes a disease, stage of disease or lack of disease, thereby characterizing the patient sample. (a) contacting the sample with an array comprising pluralities of immobilized peptides of between 10 to 30 amino acids in length, wherein each plurality occupies a different area, wherein each area of the array comprises peptides of the same sequence, wherein an average spacing between peptides of the same sequence is less than 6 nm, and wherein a separate signal is detectable from each area; and (b) detecting binding of the pluralities of immobilized peptides in the array to component(s) of the patient sample to generate a binding profile, (c) comparing the binding profile to a reference binding profile that characterizes a disease, stage of disease or lack of disease, thereby characterizing the patient sample.
A method for manufacturing a fiber-reinforced composite material molded article comprising: hot press molding, by using a molding die, a fiber-reinforced composite material comprising a reinforcing fiber base material impregnated with a resin composition, wherein the molding die comprises a pair of molds (112, 122) that form a cavity in a state where the molds are brought close to each other and clamped, characterized in that a portion or the entirety of the molding surface (113a, 123a) is an implanted surface into which either or both of fluorine and silicon are implanted, and a surface free energy of the portion or the entirety of a molding surface (113a, 123a) of the molding die is 25.0 mJ/m 2 or less which is measured by a three liquid method. hot press molding, by using a molding die, a fiber-reinforced composite material comprising a reinforcing fiber base material impregnated with a resin composition, wherein the molding die comprises a pair of molds (112, 122) that form a cavity in a state where the molds are brought close to each other and clamped, characterized in that a portion or the entirety of the molding surface (113a, 123a) is an implanted surface into which either or both of fluorine and silicon are implanted, and a surface free energy of the portion or the entirety of a molding surface (113a, 123a) of the molding die is 25.0 mJ/m 2 or less which is measured by a three liquid method.
A turbine engine airfoil comprising an airfoil structure including an exterior surface providing a leading edge, a first cooling passage including radially spaced legs (78, 80) extending laterally from one side of the leading edge toward another side of the leading edge and interconnecting to form a loop with one another, and a trench extending radially in the exterior surface along the leading edge, the trench intersecting only one of the first and second legs, by the other of the first and second legs being canted inwardly from the exterior surface relative to the one of the first and second legs in a generally chordwise direction, to provide at least one first cooling hole in the trench, wherein the one of the first and second legs provides a pair of first cooling holes (64a, 64b) opposite one another in the trench, and the one of the first and second legs includes an S-shaped bend, the turbine engine airfoil being characterized in that the trench intersecting the S-shaped bend and orienting the pair of first cooling holes (64a, 64b) in a non-collinear relationship to one another, the other of the first and second legs being spaced inwardly from the exterior surface.
Use of iron for the preparation of a drug intended for the prevention and/or treatment of attention deficit hyperactivity disorder (ADHD), by an iron dosage corresponding to a daily intake of ferrous sulphate of between 100 mg and 2 g per day, preferably of about 500 mg, in one or more intakes.
Heating system comprising at least one gas fired radiant heater, and a first primary heat exchanger in thermal contact with the at least one gas fired radiant heater, the heating system further comprising at least one fluid based radiant heater, wherein the first primary heat exchanger is comprised in a fluid circuit of the fluid based radiant heater, and the at least one gas fired radiant heater and the at least one fluid based radiant heater are co-located for irradiating the same space, further comprising a secondary heat exchanger, which is positioned in the fluid circuit in series with the first primary heat exchanger, characterized in that the at least one gas fired radiant heater comprises a radiant tube, and wherein the secondary heat exchanger is in thermal contact with the radiant tube.
A method for wireless communications by a mobile station in a cooperative multiple input multiple output, MIMO, system, comprising: receiving information from a base station about a first frequency band to be used for direct transmission and a second frequency band to be used for cooperation; monitoring a plurality of signals received over the second frequency band and measuring the power of the received signals; transmitting information to the base station about power values of the signals received over the second frequency band; receiving a maximum allowable power value for the second frequency band from the base station; and transmitting data on both the first and the second frequency bands, wherein the transmission power in the second frequency band is less than the maximum allowable power value for the second frequency band. receiving information from a base station about a first frequency band to be used for direct transmission and a second frequency band to be used for cooperation; monitoring a plurality of signals received over the second frequency band and measuring the power of the received signals; transmitting information to the base station about power values of the signals received over the second frequency band; receiving a maximum allowable power value for the second frequency band from the base station; and transmitting data on both the first and the second frequency bands, wherein the transmission power in the second frequency band is less than the maximum allowable power value for the second frequency band.
Device designed for determining a fill level of an operating fluid of a hydrodynamic coupling, the hydrodynamic coupling comprising an inspection window, characterized in that the device comprises a mobile device, wherein the mobile device is provided with a camera for the optical detection of the hydrodynamic coupling and with image recognition for detecting an inspection window and the outer contour of the housing of the hydrodynamic coupling and with a module for determining the position of the inspection window, wherein, in the module, the outer contour is used when determining the position of the inspection window.