mhurhangee/ep-ind-claims huggingface dataset:
A method of determining standby time for a mobile station, the method comprising: generating a simulated battery voltage for the mobile station; measuring current consumption of the mobile station in a standby mode using the simulated battery voltage, wherein the measuring includes measuring current activities as the mobile station periodically activates its receiver to monitor for a communication signal; determining an available battery capacity of a battery for the mobile station; and determining a standby time for the mobile station based on the current consumption and the available battery capacity, wherein the measuring of the current consumption is performed for a time period less than the standby time of the mobile station. generating a simulated battery voltage for the mobile station; measuring current consumption of the mobile station in a standby mode using the simulated battery voltage, wherein the measuring includes measuring current activities as the mobile station periodically activates its receiver to monitor for a communication signal; determining an available battery capacity of a battery for the mobile station; and determining a standby time for the mobile station based on the current consumption and the available battery capacity, wherein the measuring of the current consumption is performed for a time period less than the standby time of the mobile station.
Assembly for circulation of a pressurizing medium in a pressurizing-medium space, wherein the assembly comprises an output terminal and an input terminal which are fluidically connectable to the pressurizing-medium space, and with a tank connection, wherein a first hydraulic pump is provided, which is connected to the input terminal on the input side and to the output terminal on the output side, and wherein a second hydraulic pump is provided, which is connected to the tank connection to on the input side and to the output terminal on the output side, wherein pressurizing medium can flow from the tank connection to the input side of the second hydraulic pump via a device and flow of the pressurizing medium is sealed in the opposite direction, and wherein a preloadable hydraulic accumulator is fluidically connected to the output terminal, characterized in that a control valve is provided which is mechanically in operative connection with the hydraulic accumulator in such a way that the control valve controls a fluidic connection between input sides (12, 26) of the hydraulic pumps (10, 20) in dependence on a load volume of the hydraulic accumulator.
A cell module assembly comprising: a plurality of cell modules (100a, 100b, 100c) arranged at a predetermined interval; a pack structure comprising a pack tray that supports the plurality of cell modules and in which a passage is formed, at least one first venting hole is formed in each of the plurality of cell modules (100a, 100b, 100c), and a second venting hole matched to the at least one first venting hole and communicating with the passage is formed in the pack tray, further comprising a heat sink located between the plurality of cell modules (100a, 100b, 100c) and the pack tray and contacting the plurality of cell modules (100a, 100b, 100c), wherein a third venting hole matched to the at least one first venting hole and the second venting hole is formed in the heat sink, wherein the pack tray comprises a first plate contacting the heat sink and a second plate located under the first plate, wherein the passage is formed due to a gap between the first plate and the second plate, and wherein the second venting hole is formed in the first plate. a plurality of cell modules (100a, 100b, 100c) arranged at a predetermined interval; a pack structure comprising a pack tray that supports the plurality of cell modules and in which a passage is formed, at least one first venting hole is formed in each of the plurality of cell modules (100a, 100b, 100c), and a second venting hole matched to the at least one first venting hole and communicating with the passage is formed in the pack tray, further comprising a heat sink located between the plurality of cell modules (100a, 100b, 100c) and the pack tray and contacting the plurality of cell modules (100a, 100b, 100c), wherein a third venting hole matched to the at least one first venting hole and the second venting hole is formed in the heat sink, wherein the pack tray comprises a first plate contacting the heat sink and a second plate located under the first plate, wherein the passage is formed due to a gap between the first plate and the second plate, and wherein the second venting hole is formed in the first plate.
A sclerostin-binding antibody comprising the following CDR sequences: CDR-H1: DYIMH (SEQ ID NO:269); CDR-H2: YINPYNDDTEYNEKFKG (SEQ ID NO:270); CDR-H3: SIYYYDAPFAY (SEQ ID NO:271); CDR-L1: RASQDISSYLN (SEQ ID NO:239); CDR-L2: STSRLNS (SEQ ID NO:240); and CDR-L3: QQDIKHPT (SEQ ID NO:241). CDR-H1: DYIMH (SEQ ID NO:269); CDR-H2: YINPYNDDTEYNEKFKG (SEQ ID NO:270); CDR-H3: SIYYYDAPFAY (SEQ ID NO:271); CDR-L1: RASQDISSYLN (SEQ ID NO:239); CDR-L2: STSRLNS (SEQ ID NO:240); and CDR-L3: QQDIKHPT (SEQ ID NO:241).
Optical component for generating laser pulses with time offset, comprising - a fiber-optic distribution element which distributes a laser pulse supplied to the distribution element via an input fiber between at least two fiber arms (5, 6), and - a fiber-optic combining element which superimposes the laser pulses supplied to the combining element via the at least two fiber arms (5, 6), in an output fiber, wherein the at least two fiber arms (5, 6) have a difference in length such that the laser pulses are superimposed, in the output fiber, by the fiber-optic combination element with a time offset in a burst, wherein the fiber arms (5, 6) are formed by optical fibers that have different dispersion, characterized in that the optical fibers of the fiber arms (5, 6) are adapted to one another in terms of dispersion and length so that the laser pulses supplied to the combining element via the fiber arms (5, 6) differ from one another in the chirps generated by the respective dispersion by less than 4 fs, preferably less than 1 fs, per 1 nm of spectral bandwidth of the laser pulses normalized to one meter difference in length of the fiber arms (5, 6). - a fiber-optic distribution element which distributes a laser pulse supplied to the distribution element via an input fiber between at least two fiber arms (5, 6), and - a fiber-optic combining element which superimposes the laser pulses supplied to the combining element via the at least two fiber arms (5, 6), in an output fiber, wherein the at least two fiber arms (5, 6) have a difference in length such that the laser pulses are superimposed, in the output fiber, by the fiber-optic combination element with a time offset in a burst, wherein the fiber arms (5, 6) are formed by optical fibers that have different dispersion, characterized in that the optical fibers of the fiber arms (5, 6) are adapted to one another in terms of dispersion and length so that the laser pulses supplied to the combining element via the fiber arms (5, 6) differ from one another in the chirps generated by the respective dispersion by less than 4 fs, preferably less than 1 fs, per 1 nm of spectral bandwidth of the laser pulses normalized to one meter difference in length of the fiber arms (5, 6).
A method of reducing an amount of an organic acid in a hydrocarbon oil fraction, comprising hydrogenating the hydrocarbon oil fraction using hydrogen gas supplied at a H 2 /oil ratio of 1 ~ 100 (NL/L) in presence of a hydrogenation catalyst under conditions of a temperature of 300 ~ 400°C and a pressure of 10 ~ 15 kg·f/cm 2, wherein the hydrogen gas is a gas mixture comprising 20 ~ 80 wt% of hydrogen, and wherein the hydrocarbon oil fraction treated is a high acidity hydrocarbon fraction having a TAN of superior to 0.5 mg/KOH as measured by ASTM D664, and wherein the hydrocarbon oil fraction is atmospheric residual oil obtained after refining crude oil using atmospheric distillation. wherein the hydrogen gas is a gas mixture comprising 20 ~ 80 wt% of hydrogen, and wherein the hydrocarbon oil fraction treated is a high acidity hydrocarbon fraction having a TAN of superior to 0.5 mg/KOH as measured by ASTM D664, and wherein the hydrocarbon oil fraction is atmospheric residual oil obtained after refining crude oil using atmospheric distillation.
A method comprising: providing a layer of woven electronic fabric, the woven electronic fabric comprising a plurality of conductive strands and a plurality of non conductive strands; transferring a layer of two dimensional material from a liquid surface onto the layer of woven electronic fabric so that different conductive strands contact the two dimensional material at different contact points to provide current paths between the conductive strands and the two dimensional material; wherein the two dimensional material provides current paths between the different contact points and is configured so that its electrical properties are dependent on a parameter that is to be sensed such that the layer of two dimensional material and woven electronic fabric form a sensor. providing a layer of woven electronic fabric, the woven electronic fabric comprising a plurality of conductive strands and a plurality of non conductive strands; transferring a layer of two dimensional material from a liquid surface onto the layer of woven electronic fabric so that different conductive strands contact the two dimensional material at different contact points to provide current paths between the conductive strands and the two dimensional material; wherein the two dimensional material provides current paths between the different contact points and is configured so that its electrical properties are dependent on a parameter that is to be sensed such that the layer of two dimensional material and woven electronic fabric form a sensor.
A lubricating composition comprising a white oil in an amount of from 85.0 wt% to 99.9 wt%, based on the total weight of the lubricating composition, the white oil having a kinematic viscosity of: 190 mm 2 /sec to 240 mm 2 /sec at 40°C; and 19 mm 2 /sec to 22 mm 2 /sec at 100°C; wherein the lubricating composition is free of polybutene. 190 mm 2 /sec to 240 mm 2 /sec at 40°C; and 19 mm 2 /sec to 22 mm 2 /sec at 100°C;
Gas-operated rifle having a lock housing, a guide rod projecting forwards from the lock housing seen in shooting direction, a closure-actuation device arranged to be displaceable on the guide rod and which contains a support guided on the guide rod and two connecting rods attached to the support and cooperates with a closure body for movement thereof between a locking position and an unlocking position, and a barrel attached to the lock housing and which contains a front part freely projecting from the lock housing without firm connection with the guide rod and a gas-removal block having at least one gas-removal bore emerging into the barrel and a pressure piston guided to be displaceable in the gas-removal block to displace the closure-actuation device counter to the force of a closure spring, characterised in that the barrel contains a rear part which can be placed on the lock housing and can be firmly connected thereto and in that the support of the closure-actuation device has an upwardly open receiver for the gas-removal block.
Method for treating tools used for collecting, sampling, storing, transporting and isolating of microvesicles, nanovesicles and exosomes from mammal blood, said method comprising the steps of: - Selecting a tool from a plurality of tools comprising needles, blood tubing, blood bags, catheters, Eppendorf tubes, pipettes, or blood bags; - Providing said tool from said plurality of tools, wherein said tool is made from a polymeric material; - Providing a source of highly ionized gas of positively and negatively charged particles of high density; - Treating a polymeric surface of said tool by applying short pulses of said source of particles next to or on said surface of said tool to assure surface modification of said surface by said positively and negatively charged particles of high density by guiding the source of particles along the surface of the tool to be treated in order to increase roughness of the surface; - wherein said treating step is performed in a dry state under atmospheric pressure; - wherein said source provides a density of charged particles next to or on the surface between 10 16 m -3 and 10 20 m -3, or between 1x10 17 m -3 and 1x10 19 m -3, or between 3x10 17 m -3 and 3x10 18 m -3; and - wherein said source provides short pulses of time span between 1 and 1000 ns, or between 10 and 100 ns, or 30 ns. - Selecting a tool from a plurality of tools comprising needles, blood tubing, blood bags, catheters, Eppendorf tubes, pipettes, or blood bags; - Providing said tool from said plurality of tools, wherein said tool is made from a polymeric material; - Providing a source of highly ionized gas of positively and negatively charged particles of high density; - Treating a polymeric surface of said tool by applying short pulses of said source of particles next to or on said surface of said tool to assure surface modification of said surface by said positively and negatively charged particles of high density by guiding the source of particles along the surface of the tool to be treated in order to increase roughness of the surface; - wherein said treating step is performed in a dry state under atmospheric pressure; - wherein said source provides a density of charged particles next to or on the surface between 10 16 m -3 and 10 20 m -3, or between 1x10 17 m -3 and 1x10 19 m -3, or between 3x10 17 m -3 and 3x10 18 m -3; and - wherein said source provides short pulses of time span between 1 and 1000 ns, or between 10 and 100 ns, or 30 ns. - wherein said treating step is performed in a dry state under atmospheric pressure; - wherein said source provides a density of charged particles next to or on the surface between 10 16 m -3 and 10 20 m -3, or between 1x10 17 m -3 and 1x10 19 m -3, or between 3x10 17 m -3 and 3x10 18 m -3; and - wherein said source provides short pulses of time span between 1 and 1000 ns, or between 10 and 100 ns, or 30 ns.
A pneumatic tire comprising two annular bead portions each having a bead core, a carcass extending between the bead portions through sidewall portions and a tread portion, wherein the carcass includes at least two axially inner plies (1, 2) which extend down from the tread and axially inward of the bead core, said at least two axially inner plies being wound around the bead core forming respective turn-ups (1A, 2A), each turn-up (1A, 2A) being located axially outward of the bead core, and wherein said carcass further includes at least one axially outer ply (5, 6) which extends down from the tread towards the bead core and axially outward of the bead core; wherein (i) at least one of the axially inner plies (1, 2) is formed using reinforcements having a higher break strength than the reinforcements of the other plies or the at least one axially outer ply; and/or (ii) at least one of the axially inner plies (1, 2) is formed using reinforcements having a lower % elongation at break than the reinforcements of the other plies or the at least one axially outer ply; characterized in that the tire has a first axially outer ply which extends down from the tread towards the bead core and which is positioned axially outward of the bead core, and a second axially outer ply which extends down from the tread towards the bead core and which is positioned axially outward of the bead core, and wherein the reinforcements of the at least two of the axially inner plies (1, 2) have a higher break strength than the reinforcements of the two axially outer plies (5, 6). (i) at least one of the axially inner plies (1, 2) is formed using reinforcements having a higher break strength than the reinforcements of the other plies or the at least one axially outer ply; and/or (ii) at least one of the axially inner plies (1, 2) is formed using reinforcements having a lower % elongation at break than the reinforcements of the other plies or the at least one axially outer ply;
Vibrating ram arrangement comprising a hydraulic assembly, a vibrator, which is spatially separated from the hydraulic assembly and is connected to the hydraulic assembly via hydraulic hoses, and a controller which is assigned to the hydraulic assembly, wherein the hydraulic assembly has an internal combustion engine and a hydraulic pump which is driven by the internal combustion engine, wherein the vibrator has rotatably mounted imbalances and at least one adjustable hydraulic motor with a variable displacement volume as a drive of the imbalances, and wherein a hydraulic fluid is conducted in a circuit through the hydraulic assembly, the hydraulic hoses and the at least one hydraulic motor, wherein a frequency sensor for determining the frequency of the vibrator is connected to the controller, wherein the controller is configured to control the volume flow, conducted through the circuit, as a function of the signal of the frequency sensor, characterized in that the vibrator has a device which is independent of the controller and has the purpose of adjusting the displacement volume of the hydraulic motor as a function of a pressure within the circuit.
A method comprising: inverting magnetic resonance spins by applying an inversion recovery radio frequency pulse to a subject disposed in a static (B 0) magnetic field; acquiring magnetic resonance signals from the subject at an inversion time after the IR radio frequency pulse wherein the inversion time is selected such that blood of the subject exhibits negative magnetization excited by the IR radio frequency pulse and an intraplaque hemorrhage tissue of the subject exhibits positive magnetization excited by the IR radio frequency pulse, wherein the acquiring of magnetic resonance signals employs a gradient echo readout sequence; performing a blood flow labeling sequence after the inverting and before the acquiring; reconstructing the acquired magnetic resonance signals to generate spatial pixels or voxels wherein a positive value for a spatial pixel or voxel indicates a spatial location of positive magnetization and a negative value for a pixel or voxel indicates a spatial location of negative magnetization, wherein the reconstructing comprises phase-sensitive reconstruction; generating a first image representative of the blood comprising the generated spatial pixels or voxels having negative signal intensities; and generating a second image representative of the intraplaque hemorrhage tissue comprising the generated spatial pixels or voxels having positive signal intensities. inverting magnetic resonance spins by applying an inversion recovery radio frequency pulse to a subject disposed in a static (B 0) magnetic field; acquiring magnetic resonance signals from the subject at an inversion time after the IR radio frequency pulse wherein the inversion time is selected such that blood of the subject exhibits negative magnetization excited by the IR radio frequency pulse and an intraplaque hemorrhage tissue of the subject exhibits positive magnetization excited by the IR radio frequency pulse, wherein the acquiring of magnetic resonance signals employs a gradient echo readout sequence; performing a blood flow labeling sequence after the inverting and before the acquiring; reconstructing the acquired magnetic resonance signals to generate spatial pixels or voxels wherein a positive value for a spatial pixel or voxel indicates a spatial location of positive magnetization and a negative value for a pixel or voxel indicates a spatial location of negative magnetization, wherein the reconstructing comprises phase-sensitive reconstruction; generating a first image representative of the blood comprising the generated spatial pixels or voxels having negative signal intensities; and generating a second image representative of the intraplaque hemorrhage tissue comprising the generated spatial pixels or voxels having positive signal intensities.
A control method for air conditioning operation of a heat recovery facility that supplies outdoor air to at least one heat exchanger in the form of a hybrid humidifier and that conveys exhaust air in the opposite direction, passing at least one spraying unit, until it leaves the system as outgoing air, characterised in that the spraying unit sprays a humidifier water comprising a wetting agent directly onto heat exchanger surfaces and/or at least in the air entrance area for exhaust air of the heat exchanger and that the wetting agent concentration in the humidifier water is used as control variable.
A flexible container comprising: four individual panels (18, 20, 22, 24) of flexible film material, the four panels (18, 20, 22, 24) sealed together to form each of the following (i)-(iv) (i) a body portion; (ii) a neck portion, and a flare portion that extends from the neck portion; (iii) a tapered transition portion joining the body portion and the neck portion; (iv) the neck portion having a reduced width, the flare portion having an expanded end; and the width of the flare portion gradually increases from the neck portion to the expanded end. four individual panels (18, 20, 22, 24) of flexible film material, the four panels (18, 20, 22, 24) sealed together to form each of the following (i)-(iv) (i) a body portion; (ii) a neck portion, and a flare portion that extends from the neck portion; (iii) a tapered transition portion joining the body portion and the neck portion; (iv) the neck portion having a reduced width, the flare portion having an expanded end; and (i) a body portion; (ii) a neck portion, and a flare portion that extends from the neck portion; (iii) a tapered transition portion joining the body portion and the neck portion; (iv) the neck portion having a reduced width, the flare portion having an expanded end; and the width of the flare portion gradually increases from the neck portion to the expanded end.
Method of controlling a combined-cycle plant for production of electric energy, wherein the plant comprises at least a gas turbine assembly and a steam turbine; the method comprising: receiving a plant load set-point (SP O); determining a provisional load set-point (SP TV *) for the steam turbine on the basis of the plant load set-point (SP O) and of an actual pressure (P A) of steam supplied to the steam turbine; determining a gas turbine assembly load set-point (SP TG), indicative of a first power (W TG) to- be supplied through the gas turbine assembly, on the basis of the plant load set-point (SP O) and of the provisional load set-point (SP TV *); using the gas turbine assembly load set-point (SP TG) to control the gas turbine assembly; determining a load error (E TG) of the gas turbine assembly; determining a steam turbine load set-point (SP TV) indicative of a second power (W TV) to be supplied through the steam turbine, on the basis of the provisional load set-point (SP TV *) and of the load error (E TG) of the gas turbine assembly; and using the steam turbine load set-point (SP TV) to control the steam turbine. receiving a plant load set-point (SP O); determining a provisional load set-point (SP TV *) for the steam turbine on the basis of the plant load set-point (SP O) and of an actual pressure (P A) of steam supplied to the steam turbine; determining a gas turbine assembly load set-point (SP TG), indicative of a first power (W TG) to- be supplied through the gas turbine assembly, on the basis of the plant load set-point (SP O) and of the provisional load set-point (SP TV *); using the gas turbine assembly load set-point (SP TG) to control the gas turbine assembly; determining a load error (E TG) of the gas turbine assembly; determining a steam turbine load set-point (SP TV) indicative of a second power (W TV) to be supplied through the steam turbine, on the basis of the provisional load set-point (SP TV *) and of the load error (E TG) of the gas turbine assembly; and using the steam turbine load set-point (SP TV) to control the steam turbine.