mhurhangee/ep-ind-claims huggingface dataset:
A control device for a turbocharger for supplying compressed intake air to an internal combustion engine, comprising: a storage part configured to pre-store a map which defines a relationship between at least one characteristic parameter and an efficiency of the turbocharger; a detection part configured to detect the at least one characteristic parameter of the turbocharger; a calculation part configured to obtain the efficiency of the turbocharger on the basis of the detected at least one characteristic parameter; a determination part configured to determine presence of deterioration of the turbocharger by comparing the detected at least one characteristic parameter and the obtained efficiency with the map; and an informing part configured to inform a user of a maintenance request if the determination part determines that the deterioration is present, wherein the detection part is configured to detect the at least one characteristic parameter at a predetermined interval, wherein the calculation part is configured to calculate a mean value of the efficiency corresponding to the at least one characteristic parameter having a frequency greater than a predetermined value among the detected at least one characteristic parameter, and accumulate the mean value of the efficiency in the storage part as actual-measurement data associated with the corresponding at least one characteristic parameter, and wherein the determination part is configured to determine presence of deterioration of the turbocharger by comparing an approximate curve obtained from the accumulated actual measurement data and a reference curve obtained from the map. a storage part configured to pre-store a map which defines a relationship between at least one characteristic parameter and an efficiency of the turbocharger; a detection part configured to detect the at least one characteristic parameter of the turbocharger; a calculation part configured to obtain the efficiency of the turbocharger on the basis of the detected at least one characteristic parameter; a determination part configured to determine presence of deterioration of the turbocharger by comparing the detected at least one characteristic parameter and the obtained efficiency with the map; and
An apparatus for electromagnetic imaging of a subsurface hydrocarbon reservoir, comprising: an electromagnetic energy source emitting pulses of electromagnetic energy to travel through the subsurface hydrocarbon reservoir; wherein the emitted pulses of electromagnetic energy have the properties of: high-power or high-energy and; comprise of a broad range of frequency components and; having dynamically selectable length and rise-time; a plurality of electromagnetic sensors forming a measure of the arrival time of the emitted pulses from the electromagnetic energy source; a processor for analyzing the measure of arrival time data from the plurality of electromagnetic sensors to form a representation of subsurface features of the subsurface hydrocarbon reservoir; and a display forming an image of the representation of subsurface features of the subsurface hydrocarbon reservoir, wherein the formed image is based on the velocity of the measured pulses of electromagnetic energy. an electromagnetic energy source emitting pulses of electromagnetic energy to travel through the subsurface hydrocarbon reservoir; wherein the emitted pulses of electromagnetic energy have the properties of: high-power or high-energy and; comprise of a broad range of frequency components and; having dynamically selectable length and rise-time; a plurality of electromagnetic sensors forming a measure of the arrival time of the emitted pulses from the electromagnetic energy source; a processor for analyzing the measure of arrival time data from the plurality of electromagnetic sensors to form a representation of subsurface features of the subsurface hydrocarbon reservoir; and a display forming an image of the representation of subsurface features of the subsurface hydrocarbon reservoir, wherein the formed image is based on the velocity of the measured pulses of electromagnetic energy. high-power or high-energy and; comprise of a broad range of frequency components and; having dynamically selectable length and rise-time; a plurality of electromagnetic sensors forming a measure of the arrival time of the emitted pulses from the electromagnetic energy source; a processor for analyzing the measure of arrival time data from the plurality of electromagnetic sensors to form a representation of subsurface features of the subsurface hydrocarbon reservoir; and a display forming an image of the representation of subsurface features of the subsurface hydrocarbon reservoir, wherein the formed image is based on the velocity of the measured pulses of electromagnetic energy.
A ram air turbine restow system and a ram air turbine, "RAT", said RAT restow system being configured to restow said RAT, said system comprising: an actuator assembly including a piston interposed between an upper fluid compartment and a lower fluid compartment, the actuator assembly configured to selectively move the piston between a deployed position and a stowed position; and a hydraulic restow circuit interposed between the actuator assembly and a hydraulic fluid system configured to output fluid, the hydraulic restow circuit including a manually actuated restow valve configured to rotate between a first position and a second position wherein the first position establishes a first fluid path to deliver the fluid to the upper fluid compartment and the second position establishes a second fluid path to deliver the fluid to the lower fluid compartment, and wherein the manually actuated restow valve includes a valve spring that is elastically biased according to the first position, wherein the valve spring is elastically loaded in response to transitioning the manually actuated restow valve from the first position to the second position, and the valve spring automatically returns the manually actuated restow valve to the first operating position in response to releasing the manually actuated restow valve from the second position. an actuator assembly including a piston interposed between an upper fluid compartment and a lower fluid compartment, the actuator assembly configured to selectively move the piston between a deployed position and a stowed position; and a hydraulic restow circuit interposed between the actuator assembly and a hydraulic fluid system configured to output fluid, the hydraulic restow circuit including a manually actuated restow valve configured to rotate between a first position and a second position wherein the first position establishes a first fluid path to deliver the fluid to the upper fluid compartment and the second position establishes a second fluid path to deliver the fluid to the lower fluid compartment, and wherein the manually actuated restow valve includes a valve spring that is elastically biased according to the first position, wherein the valve spring is elastically loaded in response to transitioning the manually actuated restow valve from the first position to the second position, and the valve spring automatically returns the manually actuated restow valve to the first operating position in response to releasing the manually actuated restow valve from the second position.
A computer-implemented method comprising: recognizing, using a trained machine learning model, at least one object in a digital image loaded on a user device; assigning a shine index to the recognized at least one object; determining, based on a plurality of pixel values corresponding to the recognized at least one object, a direction of light relative to the recognized at least one object; tracking a position of a user's eyes viewing the digital image on the user device; in response to detecting a movement in the position of the user's eyes, applying, in real-time, at least one filter to the recognized at least one object to simulate a shining effect of the recognized at least one object in the digital image; in response to the assigned shine index associated with the recognized at least one object meeting a threshold shine index, further processing the recognized at least one object for simulating the shining effect of the recognized at least one object in the digital image; and in response to the assigned shine index associated with the recognized at least one object falling below a threshold shine index, displaying an original version of the recognized at least one object in the digital image. recognizing, using a trained machine learning model, at least one object in a digital image loaded on a user device; assigning a shine index to the recognized at least one object; determining, based on a plurality of pixel values corresponding to the recognized at least one object, a direction of light relative to the recognized at least one object; tracking a position of a user's eyes viewing the digital image on the user device; in response to detecting a movement in the position of the user's eyes, applying, in real-time, at least one filter to the recognized at least one object to simulate a shining effect of the recognized at least one object in the digital image; in response to the assigned shine index associated with the recognized at least one object meeting a threshold shine index, further processing the recognized at least one object for simulating the shining effect of the recognized at least one object in the digital image; and in response to the assigned shine index associated with the recognized at least one object falling below a threshold shine index, displaying an original version of the recognized at least one object in the digital image.
Box for cosmetic product comprising at least one base and one lid that are movably mounted in relation to each other between at least one closed position and one open position of the box in which the means of support of at least one cosmetic product are accessible, the lid being configured to receive at least display means, the base comprising at least one compartment intended to contain said means of support and the box comprising a data processing device, of a contactless type, that is at least capable of reading one or more data contained in at least one data medium connected to said means of support when said means of support are mounted in said at least one compartment, said box being characterised in that the data processing device comprises at least one first part that is fitted in the base, and one second part that is fitted in the lid, said first and second parts (72, 74) being electrically connected by at least one flat cable.
A method of determining, by a user equipment, UE, whether a specific cell belongs to a radio access network, RAN, based notification area in a wireless communication system, the method comprising: receiving, from a network, a configuration for a RAN based notification area, wherein the configuration includes a plurality of identifiers, IDs, for each of a plurality of areas included in the RAN based notification area and a plurality of cell IDs for each of a plurality of cells included in the RAN based notification area, and wherein the each of the plurality of areas includes one or more cells; receiving, from the specific cell, system information including a cell ID of the specific cell and an ID of an area including the specific cell; determining the specific cell does not belong to the RAN based notification area, based on that the cell ID and the ID of the area are not included in the configuration including the plurality of cell IDs and the plurality of IDs for each of the plurality of areas; initiating a RAN based notification area update procedure; and informing the network of getting out of the RAN based notification area, wherein the UE is in an RRC_INACTIVE state. receiving, from a network, a configuration for a RAN based notification area, wherein the configuration includes a plurality of identifiers, IDs, for each of a plurality of areas included in the RAN based notification area and a plurality of cell IDs for each of a plurality of cells included in the RAN based notification area, and wherein the each of the plurality of areas includes one or more cells; receiving, from the specific cell, system information including a cell ID of the specific cell and an ID of an area including the specific cell; determining the specific cell does not belong to the RAN based notification area, based on that the cell ID and the ID of the area are not included in the configuration including the plurality of cell IDs and the plurality of IDs for each of the plurality of areas; initiating a RAN based notification area update procedure; and informing the network of getting out of the RAN based notification area, wherein the UE is in an RRC_INACTIVE state.
A CO 2 turbine power generation system comprising: a combustor; a CO 2 turbine driven by a supercritical medium supplied from the combustor; a power generator caused to generate power by the driving of the CO 2 turbine; a regenerative heat exchanger into which the medium discharged from the CO 2 turbine flows; a cooler for cooling the medium flowing into the cooler from the CO 2 turbine through the regenerative heat exchanger; a moisture separator for separating water from the medium discharged from the cooler; and a CO 2 pump for boosting a pressure of the medium from which the water has been separated by the moisture separator, wherein the medium whose pressure has been boosted to the supercritical pressure by the CO 2 pump flows into the combustor after heated in the regenerative heat exchanger by heat of a medium discharged from the CO 2 turbine, the CO 2 turbine power generation system is characterized by a CO 2 medium shutoff valve installed in a medium flow path between the regenerative heat exchanger and the combustor, wherein, when load rejection is to be performed, the CO 2 medium shutoff valve is configured to close to shut off the supply of the medium from the regenerative heat exchanger to the combustor. a combustor; a CO 2 turbine driven by a supercritical medium supplied from the combustor; a power generator caused to generate power by the driving of the CO 2 turbine; a regenerative heat exchanger into which the medium discharged from the CO 2 turbine flows; a cooler for cooling the medium flowing into the cooler from the CO 2 turbine through the regenerative heat exchanger; a moisture separator for separating water from the medium discharged from the cooler; and a CO 2 pump for boosting a pressure of the medium from which the water has been separated by the moisture separator, wherein the medium whose pressure has been boosted to the supercritical pressure by the CO 2 pump flows into the combustor after heated in the regenerative heat exchanger by heat of a medium discharged from the CO 2 turbine, the CO 2 turbine power generation system is characterized by a CO 2 medium shutoff valve installed in a medium flow path between the regenerative heat exchanger and the combustor, wherein, when load rejection is to be performed, the CO 2 medium shutoff valve is configured to close to shut off the supply of the medium from the regenerative heat exchanger to the combustor.
A controller for a driverless vehicle, comprising: a security micro control unit; and a processor module, wherein the processor module is coupled to the security micro control unit, and the security micro control unit is configured to monitor a running state of the processor module; characterized in that, the controller further comprises: a power management module, coupled to the security micro control unit, and configured to monitor a running state of the security micro control unit; wherein the security micro control unit is configured to monitor a running state of the power management module. a security micro control unit; and a processor module, wherein the processor module is coupled to the security micro control unit, and the security micro control unit is configured to monitor a running state of the processor module; characterized in that, the controller further comprises: a power management module, coupled to the security micro control unit, and configured to monitor a running state of the security micro control unit; wherein the security micro control unit is configured to monitor a running state of the power management module. a power management module, coupled to the security micro control unit, and configured to monitor a running state of the security micro control unit; wherein the security micro control unit is configured to monitor a running state of the power management module.
A subsea control bundle umbilical, comprising: a carrier pipe; a bundle of two or more elongate functional elements (12, 14) being tubes and/or cables that extend longitudinally within the carrier pipe; and spacers spaced apart longitudinally along the bundle, the spacers supporting the functional elements (12, 14) of the bundle and being movable longitudinally relative to the carrier pipe; wherein the carrier pipe contains no tubes with an inner diameter of greater than 70mm. a carrier pipe; a bundle of two or more elongate functional elements (12, 14) being tubes and/or cables that extend longitudinally within the carrier pipe; and spacers spaced apart longitudinally along the bundle, the spacers supporting the functional elements (12, 14) of the bundle and being movable longitudinally relative to the carrier pipe; wherein the carrier pipe contains no tubes with an inner diameter of greater than 70mm.
A method of providing at least one diastereoisomer of gemcitabine-[phenyl-benzoxy-L-alaninyl)]-phosphate in a diastereoisomeric purity of greater than 85%, the method comprising the steps of: suspending a mixture of gemcitabine-[phenyl-benzoxy-L-alaninyl)]- -phosphate and gemcitabine-[phenyl-benzoxy-L-alaninyl)]- -phosphate in a solvent or a mixture of solvents to form a slurry; and filtering the slurry to provide solid gemcitabine-[phenyl-benzoxy-L-alaninyl)]-phosphate and a filtrate comprising gemcitabine-[phenyl-benzoxy-L-alaninyl)]-phosphate dissolved in the solvent or mixture of solvents; wherein the solid gemcitabine-[phenyl-benzoxy-L-alaninyl)]-phosphate is gemcitabine-[phenyl-benzoxy-L-alaninyl)]- -phosphate in a diastereoisomeric purity of greater than 85% and/or the filtrate comprises gemcitabine-[phenyl-benzoxy-L-alaninyl)]- -phosphate in a diastereoisomeric purity of greater than 85%. suspending a mixture of gemcitabine-[phenyl-benzoxy-L-alaninyl)]- -phosphate and gemcitabine-[phenyl-benzoxy-L-alaninyl)]- -phosphate in a solvent or a mixture of solvents to form a slurry; and filtering the slurry to provide solid gemcitabine-[phenyl-benzoxy-L-alaninyl)]-phosphate and a filtrate comprising gemcitabine-[phenyl-benzoxy-L-alaninyl)]-phosphate dissolved in the solvent or mixture of solvents;
A gas processing plant, comprising: a Claus reactor system having a thermal stage comprising a burner and a reaction furnace, a catalytic stage comprising a first catalytic reactor, a first sulfur condenser fluidly coupled between the thermal stage and the catalytic stage, and an oxygen source configured to provide an oxygen stream; wherein the thermal stage is configured to receive an acid gas stream, an air stream, a recycle stream, and a first portion of the oxygen stream; wherein the first catalytic reactor is configured to receive a first gaseous effluent from the first sulfur condenser and a second portion of the oxygen stream, and to produce a first catalytic reactor effluent; wherein the recycle stream is a portion of the first gaseous effluent from the first sulfur condenser; wherein the plant is further configured such that the thermal stage temperature in controllable by the recycle stream; wherein the plant is configured such that a flow of the recycle stream is reducible by use of the second portion of the oxygen stream; and wherein the plant is further configured such that the flow of the acid gas stream is increasable by use of the second portion of the oxygen stream; and a second sulfur condenser fluidly coupled to the first catalytic reactor and configured to receive the first catalytic reactor effluent and to produce a second gaseous effluent. a Claus reactor system having a thermal stage comprising a burner and a reaction furnace, a catalytic stage comprising a first catalytic reactor, a first sulfur condenser fluidly coupled between the thermal stage and the catalytic stage, and an oxygen source configured to provide an oxygen stream; wherein the thermal stage is configured to receive an acid gas stream, an air stream, a recycle stream, and a first portion of the oxygen stream; wherein the first catalytic reactor is configured to receive a first gaseous effluent from the first sulfur condenser and a second portion of the oxygen stream, and to produce a first catalytic reactor effluent; wherein the recycle stream is a portion of the first gaseous effluent from the first sulfur condenser; wherein the plant is further configured such that the thermal stage temperature in controllable by the recycle stream; wherein the plant is configured such that a flow of the recycle stream is reducible by use of the second portion of the oxygen stream; and wherein the plant is further configured such that the flow of the acid gas stream is increasable by use of the second portion of the oxygen stream; and a second sulfur condenser fluidly coupled to the first catalytic reactor and configured to receive the first catalytic reactor effluent and to produce a second gaseous effluent.
A glucose sensing complex wherein the reference fluorophore and quencher dye form a Forster Resonance Energy Transfer (FRET) pair comprising: a glucose binding agent conjugated to an assay fluorophore; and a glucose analog which is dextran and conjugated to a reference fluorophore; wherein the reference fluorophore is blue shifted relative to the assay fluorophore, and wherein the glucose analog is further conjugated to a quenching agent. a glucose binding agent conjugated to an assay fluorophore; and a glucose analog which is dextran and conjugated to a reference fluorophore; wherein the reference fluorophore is blue shifted relative to the assay fluorophore, and wherein the glucose analog is further conjugated to a quenching agent.
An air inlet lip of a nacelle for an aircraft turbojet engine, including a cavity delimited, on the one hand, by a leading edge of the nacelle and, on the other hand, by an annular partition, said air inlet lip including; - an inner wall; - an acoustic treatment device and - a pneumatic de-icing device including a de-icing fluid supply device, the inner wall of the air inlet lip including a plurality of acoustic bores and in that the pneumatic de-icing device including at least one cellular de-icing base plate, mounted inside said cavity on said inner wall of the air inlet lip, said cellular de-icing base plate including a plurality of conduits for circulating a de-icing fluid from the de-icing fluid supply device and a plurality of acoustic wells communicating with said acoustic bores of the inner wall of the air inlet lip, said acoustic treatment device being fastened on a top wall of said cellular de-icing base plate and being superimposed on said cellular de-icing base plate, the acoustic wells of the cellular de-icing base plate opening at the bottom and top walls of the cellular de-icing base plate, the area of the top wall of the cellular de-icing base plate being substantially equal to the area of a bottom wall of the acoustic treatment device. - an inner wall; - an acoustic treatment device and - a pneumatic de-icing device including a de-icing fluid supply device,