mhurhangee/ep-ind-claims huggingface dataset:
A network system comprising: at least one component selected from an energy receiving unit receiving energy and an energy management unit managing the energy receiving unit, wherein an energy usage amount or an energy usage rate of the energy receiving unit is adjusted; an energy usage amount or a usage rate of when the component is controlled on the basis of at least information related to energy cost is less than that of when the component is controlled without the basis of at least information related to energy cost; the energy receiving unit comprises an energy consumption unit having a normal mode and power saving mode for an operation; and when high price information is received in relation to the energy cost, it is determined whether to perform driving according to the power saving mode of the energy consumption unit; characterized in that when the energy consumption unit performs the power saving mode and it is determined that a function maintenance of the energy consumption unit is limited, driving according to the power saving mode of the energy consumption unit is not performed; wherein whether to limit the function maintenance of the energy consumption unit is determined based on whether an overlapping size of a driving period of the energy consumption unit and a time interval at which the high price information is recognized, is within a minimum limit range for maintaining a function of the energy consumption unit. at least one component selected from an energy receiving unit receiving energy and an energy management unit managing the energy receiving unit, wherein an energy usage amount or an energy usage rate of the energy receiving unit is adjusted; an energy usage amount or a usage rate of when the component is controlled on the basis of at least information related to energy cost is less than that of when the component is controlled without the basis of at least information related to energy cost; the energy receiving unit comprises an energy consumption unit having a normal mode and power saving mode for an operation; and when high price information is received in relation to the energy cost, it is determined whether to perform driving according to the power saving mode of the energy consumption unit; characterized in that when the energy consumption unit performs the power saving mode and it is determined that a function maintenance of the energy consumption unit is limited, driving according to the power saving mode of the energy consumption unit is not performed; wherein whether to limit the function maintenance of the energy consumption unit is determined based on whether an overlapping size of a driving period of the energy consumption unit and a time interval at which the high price information is recognized, is within a minimum limit range for maintaining a function of the energy consumption unit.
A fuel cell system comprising: a fuel cell configured to generate electric power using a fuel gas and an oxidizing gas; an anode off gas channel through which an anode off gas discharged from an anode of the fuel cell flows; a gas-liquid separator disposed on the anode off gas channel to separate moisture from the anode off gas, and including a water reservoir configured to store the separated moisture as water; a temperature detector configured to detect a temperature of the water in the water reservoir; and an operation allowing device configured not to allow an operation of the fuel cell system in a case where the temperature detected by the temperature detector is equal to or higher than a first threshold that is higher than a standard ambient temperature. a fuel cell configured to generate electric power using a fuel gas and an oxidizing gas; an anode off gas channel through which an anode off gas discharged from an anode of the fuel cell flows; a gas-liquid separator disposed on the anode off gas channel to separate moisture from the anode off gas, and including a water reservoir configured to store the separated moisture as water; a temperature detector configured to detect a temperature of the water in the water reservoir; and an operation allowing device configured not to allow an operation of the fuel cell system in a case where the temperature detected by the temperature detector is equal to or higher than a first threshold that is higher than a standard ambient temperature.
An assembly comprising a reusable launch vehicle and a landing apparatus, the landing apparatus comprising: a landing leg pivotably mounted at one end to the reusable launch vehicle; a cover mounted to an outside of the landing leg along a longitudinal direction of the landing leg; and a leg landing plate mounted to a distal end of the landing leg; characterised in that the landing leg is selectively detachably mounted at the other end to the reusable launch vehicle; and in that the leg landing plate is relatively pivotable with respect to the landing leg by its own weight when the other end of the landing leg is separated from the reusable launch vehicle. a landing leg pivotably mounted at one end to the reusable launch vehicle; a cover mounted to an outside of the landing leg along a longitudinal direction of the landing leg; and a leg landing plate mounted to a distal end of the landing leg; characterised in that the landing leg is selectively detachably mounted at the other end to the reusable launch vehicle; and in that the leg landing plate is relatively pivotable with respect to the landing leg by its own weight when the other end of the landing leg is separated from the reusable launch vehicle.
Arrangement for measuring a hydrocarbon concentration of a gas flow in a line, comprising: - at least one sensor (101; 200) for measuring a hydrocarbon concentration, wherein the sensor (101; 200) has at least one heating element for heating a gas flow and at least one temperature sensor and at least one further temperature sensor, and in which arrangement the at least one heating element is arranged between the temperature sensor and the further temperature sensor, wherein the at least one sensor (101; 200) comprises an evaluating circuit, which is set up for determining the sum of the temperatures of the at least one temperature sensor and the at least one further temperature sensor, characterized in that the at least one sensor is set back with respect to the line, wherein the sensor is arranged in a sensor chamber (103, 207), and wherein the gas in the sensor chamber (103, 207) has as far as possible no flow velocity, and in that the evaluating circuit is set up for determining the hydrocarbon concentration in dependence on the heating capacity of the at least one heating element and the sum determined. - at least one sensor (101; 200) for measuring a hydrocarbon concentration, wherein the sensor (101; 200) has at least one heating element for heating a gas flow and at least one temperature sensor and at least one further temperature sensor, and in which arrangement the at least one heating element is arranged between the temperature sensor and the further temperature sensor, wherein the at least one sensor (101; 200) comprises an evaluating circuit, which is set up for determining the sum of the temperatures of the at least one temperature sensor and the at least one further temperature sensor, characterized in that the at least one sensor is set back with respect to the line, wherein the sensor is arranged in a sensor chamber (103, 207), and wherein the gas in the sensor chamber (103, 207) has as far as possible no flow velocity, and in that the evaluating circuit is set up for determining the hydrocarbon concentration in dependence on the heating capacity of the at least one heating element and the sum determined.
A container mounting assembly comprising: a first mounting plate and a second mounting plate, wherein each mounting plate comprises a track engagement surface and a container mounting surface opposite the track engagement surface, and wherein the first mounting plate is coupled to the second mounting plate, a plurality of track engagement members outwardly extending from the track engagement surface, the track engagement members being configured to engage one or more track slots (106, 108) of a track member; a plurality of mounting receptacles (20, 20') spaced and outwardly extending from the container mounting surface, each mounting receptacle (20, 20') comprising at least one vertical slot for receiving an insert of a container; and a retention locking member proximate at least one of the mounting receptacles (20, 20') and configured to secure the container to the container mounting surface. a first mounting plate and a second mounting plate, wherein each mounting plate comprises a track engagement surface and a container mounting surface opposite the track engagement surface, and wherein the first mounting plate is coupled to the second mounting plate, a plurality of track engagement members outwardly extending from the track engagement surface, the track engagement members being configured to engage one or more track slots (106, 108) of a track member; a plurality of mounting receptacles (20, 20') spaced and outwardly extending from the container mounting surface, each mounting receptacle (20, 20') comprising at least one vertical slot for receiving an insert of a container; and a retention locking member proximate at least one of the mounting receptacles (20, 20') and configured to secure the container to the container mounting surface.
A method for the pre-emphasis of an optical multiplex signal OS, which comprises a plurality of signals with different wavelengths, which are transmitted by a transmitter to a receiver, wherein powers of the signals are adjusted at the transmitter and measured at the receiver, wherein new signal values are adjusted at the transmitter end, so that signal-to-noise ratios of all the signals are approximately equaled out at the receiver, characterized in that - an average power is ascertained for the transmitter-end signals, and - the new signal values are ascertained from the current powers of the signals at the transmitter and at the receiver and the average power and are adjusted at the transmitter end, wherein newly adjusted power P IN (λ)_new of one of the signals at the transmitter is calculated as follows: P IN λ _ new: = < P IN > ⋅ Q λ < Q λ > in mW wherein <P IN > denotes the average power of a signal at the transmitter and Q λ < Q λ > is a normalized function, the calculation whereof is based on the currently ascertained powers P IN (λ) of a signal at the transmitter and the currently measured powers P OUT (λ) of a signal at the receiver, or a magnitude derived therefrom, in particular the total gain G LINK of a channel, but not on measurements of signal-to-noise ratios or noise powers. - an average power is ascertained for the transmitter-end signals, and - the new signal values are ascertained from the current powers of the signals at the transmitter and at the receiver and the average power and are adjusted at the transmitter end, wherein newly adjusted power P IN (λ)_new of one of the signals at the transmitter is calculated as follows: P IN λ _ new: = < P IN > ⋅ Q λ < Q λ > in mW wherein <P IN > denotes the average power of a signal at the transmitter and Q λ < Q λ > is a normalized function, the calculation whereof is based on the currently ascertained powers P IN (λ) of a signal at the transmitter and the currently measured powers P OUT (λ) of a signal at the receiver, or a magnitude derived therefrom, in particular the total gain G LINK of a channel, but not on measurements of signal-to-noise ratios or noise powers.
4-Methylpyrazole (4-MP) or a physiologically acceptable salt thereof for use in a method for prevention or amelioration of a symptom of ethanol intolerance or acetaldehyde accumulation accompanying ethanol consumption, or a method of reducing the risk of a disease caused by consumption of ethanol in a subject, wherein the method comprises oral administration of 4-MP or a physiologically acceptable salt thereof in a dosage of about 0.5 milligram to about 2 milligrams 4-MP or the equivalent mass of 4-MP in a physiologically acceptable salt form, per kilogram of the subject's body mass; and wherein the subject has the following genotype: i) ADH2*1/ADH2*1 and ALDH2*1/ALDH2*2; ii) ADH2*1/ADH2*2 and ALDH2*1/ALDH2*2; or iii) ADH2*1/ADH2*2 and ALDH2*1/ALDH2*1. i) ADH2*1/ADH2*1 and ALDH2*1/ALDH2*2; ii) ADH2*1/ADH2*2 and ALDH2*1/ALDH2*2; or iii) ADH2*1/ADH2*2 and ALDH2*1/ALDH2*1.
A fluid damper (10; 2001) comprising: a damper housing (20; 2002) having a first fluid volume (108; 2003) and a second fluid volume (109; 2005); a damping piston (120; 2006) reciprocatingly disposed within said damper housing and separating said first fluid volume from said second fluid volume; a piston fluid pathway between said first fluid volume and said second fluid volume through said damping piston; a fluid accumulator (30; 2012) having an accumulator fluid volume; a first fluid pathway extending between said first fluid volume and said accumulator fluid volume, the first fluid pathway providing compression characteristics; a second fluid pathway extending between said second fluid volume and said accumulator fluid volume; a first adjustable valve to adjust a compression characteristic of said fluid damper, the first adjustable valve controlling a compression fluid flow through said first fluid pathway; and a second adjustable valve disposed in said second fluid pathway, said second adjustable valve for controlling flow of a damping fluid in a first direction along said second fluid pathway from said fluid accumulator volume to said second fluid volume of said damper housing, characterized in that said second adjustable valve is selectably adjustable either to not block or at least partially block said flow of a damping fluid along said second fluid pathway in said first direction, and wherein said at least partial block comprises a complete block of said flow of a damping fluid along said second fluid pathway in said first direction. a damper housing (20; 2002) having a first fluid volume (108; 2003) and a second fluid volume (109; 2005); a damping piston (120; 2006) reciprocatingly disposed within said damper housing and separating said first fluid volume from said second fluid volume; a piston fluid pathway between said first fluid volume and said second fluid volume through said damping piston; a fluid accumulator (30; 2012) having an accumulator fluid volume; a first fluid pathway extending between said first fluid volume and said accumulator fluid volume, the first fluid pathway providing compression characteristics; a second fluid pathway extending between said second fluid volume and said accumulator fluid volume; a first adjustable valve to adjust a compression characteristic of said fluid damper, the first adjustable valve controlling a compression fluid flow through said first fluid pathway; and a second adjustable valve disposed in said second fluid pathway, said second adjustable valve for controlling flow of a damping fluid in a first direction along said second fluid pathway from said fluid accumulator volume to said second fluid volume of said damper housing, characterized in that said second adjustable valve is selectably adjustable either to not block or at least partially block said flow of a damping fluid along said second fluid pathway in said first direction, and wherein said at least partial block comprises a complete block of said flow of a damping fluid along said second fluid pathway in said first direction.
Device for a valve drive for switching the lift of gas exchange valves (15, 16) of an internal combustion engine, having a camshaft which is mounted rotatably in a housing and which is constructed from a coaxial arrangement, in the stated sequence from the inside to the outside, of at least one thrust rod, at least one carrier shaft and at least one cam unit equipped with at least two different cams (6, 7, 8, 9) and with at least one sliding pin, wherein thrust rod, carrier shaft and cam unit are mounted so as to be axially displaceable and rotationally conjoint relative to one another, and the camshaft is at least partially surrounded by at least one switching slotted guide which is mounted in rotationally fixed and axially displaceable fashion in a housing, characterized in that at least one switching pin and at least one support pin are connected in positionally fixed fashion to the thrust rod, wherein the switching pin and the support pin extend in cutouts (20, 21, 22, 23) at least through the carrier shaft, and the switching pin can be placed in operative contact with at least one switching contour (11, 12) on the switching slotted guide, and the support pin can be placed in operative contact with at least one support contour (13, 14) on the switching slotted guide.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a first message requesting a radio access capability of the terminal; identifying first capability information based on a frequency division duplex, FDD, capability of the terminal and a time division duplex, TDD, capability of the terminal, wherein the first capability information is applicable for both of an FDD mode and a TDD mode; identifying, in addition to the first capability information, second capability information based on the FDD capability of the terminal or the TDD capability of the terminal, wherein the second capability information is applicable for either the FDD mode or the TDD mode respectively; and characterised in transmitting, to the base station, a second message including either the first capability information or the first capability information and the second capability information based on whether the first capability information and the second capability information are different, wherein the first capability information is included in an extension field of the second message, and the second capability information is included in a legacy field of the second message which is different from the first field. receiving, from a base station, a first message requesting a radio access capability of the terminal; identifying first capability information based on a frequency division duplex, FDD, capability of the terminal and a time division duplex, TDD, capability of the terminal, wherein the first capability information is applicable for both of an FDD mode and a TDD mode; identifying, in addition to the first capability information, second capability information based on the FDD capability of the terminal or the TDD capability of the terminal, wherein the second capability information is applicable for either the FDD mode or the TDD mode respectively; and characterised in transmitting, to the base station, a second message including either the first capability information or the first capability information and the second capability information based on whether the first capability information and the second capability information are different, wherein the first capability information is included in an extension field of the second message, and the second capability information is included in a legacy field of the second message which is different from the first field.
A process for producing foam particles comprising at least one polyolefin, which comprises at least the steps production of a suspension comprising a pelletized material comprising at least one polyolefin in a suspension medium, impregnation of the pelletized material comprised in the suspension from step with at least one blowing agent in order to obtain a pelletized material loaded with blowing agent in suspension, and depressurization and cooling of the suspension obtained in step by bringing it into contact with a suitable liquid coolant in order to obtain foam particles, wherein the ratio C of coolant to suspension medium is at least 0.3. production of a suspension comprising a pelletized material comprising at least one polyolefin in a suspension medium, impregnation of the pelletized material comprised in the suspension from step with at least one blowing agent in order to obtain a pelletized material loaded with blowing agent in suspension, and depressurization and cooling of the suspension obtained in step by bringing it into contact with a suitable liquid coolant in order to obtain foam particles,
A composition, comprising: (a) a mixture of (i) mammalian genomic DNA and (ii) bacterial genomic DNA or microbiome DNA, having a size in the range of 10-100kb; (b) a matrix coated with a protein or a polypeptide domain to form an affinity matrix that is capable of selectively binding the mammalian genomic DNA but not the bacterial genomic DNA or microbiome DNA; and (c) a buffer containing 10mM-800mM of a salt and a non-ionic detergent. (a) a mixture of (i) mammalian genomic DNA and (ii) bacterial genomic DNA or microbiome DNA, having a size in the range of 10-100kb; (b) a matrix coated with a protein or a polypeptide domain to form an affinity matrix that is capable of selectively binding the mammalian genomic DNA but not the bacterial genomic DNA or microbiome DNA; and (c) a buffer containing 10mM-800mM of a salt and a non-ionic detergent.
A method for encoding, comprising: encoding a first texture picture into a bitstream, said first texture picture comprising a first projection of texture data of a first source volume of a scene model, said scene model comprising a number of further source volumes (SV2, SV3, SV4), said first projection being from said first source volume to a first projection surface; encoding a second texture picture into a bitstream, said second texture picture comprising a second projection of texture data of a second source volume of said scene model, said second projection being from said second source volume to a second projection surface; encoding a first geometry picture into said bitstream, said first geometry picture comprising a mapping of said first projection surface to said first source volume; encoding a second geometry picture into said bitstream, said second geometry picture comprising a mapping of said second projection surface to said second source volume; encoding a first projection geometry information of said first projection into said bitstream, said first projection geometry information comprising information of a position of said first projection surface in said scene model; and encoding a second projection geometry information of said second projection into said bitstream, said second projection geometry information comprising information of a position of said second projection surface in said scene model. encoding a first texture picture into a bitstream, said first texture picture comprising a first projection of texture data of a first source volume of a scene model, said scene model comprising a number of further source volumes (SV2, SV3, SV4), said first projection being from said first source volume to a first projection surface; encoding a second texture picture into a bitstream, said second texture picture comprising a second projection of texture data of a second source volume of said scene model, said second projection being from said second source volume to a second projection surface; encoding a first geometry picture into said bitstream, said first geometry picture comprising a mapping of said first projection surface to said first source volume; encoding a second geometry picture into said bitstream, said second geometry picture comprising a mapping of said second projection surface to said second source volume; encoding a first projection geometry information of said first projection into said bitstream, said first projection geometry information comprising information of a position of said first projection surface in said scene model; and encoding a second projection geometry information of said second projection into said bitstream, said second projection geometry information comprising information of a position of said second projection surface in said scene model.