mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling an air conditioner comprising at least one outdoor unit (ODU); and a plurality of indoor units (IDU) disposed in at least one indoor space (S1, S2), connected to the outdoor unit (ODU) and provided with a vane for adjusting a wind direction, the method comprising: classifying indoor units (IDU) for each indoor space of the at least one indoor space by comparing an air temperature distribution for each time of each indoor unit (IDU) detected by a first temperature sensor that detects an air temperature around indoor units (IDU), characterized by : determining a relative position between indoor units (IDU) disposed in a same indoor space by comparing a floor temperature distribution for each area of each indoor unit detected by a second temperature sensor that detects a floor temperature around the indoor units (IDU) (S200), wherein an indoor floor temperature around the indoor unit (IDU) is a temperature (Tb) of a floor area corresponding to an indoor space in which the indoor unit (IDU) is disposed. classifying indoor units (IDU) for each indoor space of the at least one indoor space by comparing an air temperature distribution for each time of each indoor unit (IDU) detected by a first temperature sensor that detects an air temperature around indoor units (IDU), characterized by : determining a relative position between indoor units (IDU) disposed in a same indoor space by comparing a floor temperature distribution for each area of each indoor unit detected by a second temperature sensor that detects a floor temperature around the indoor units (IDU) (S200), wherein an indoor floor temperature around the indoor unit (IDU) is a temperature (Tb) of a floor area corresponding to an indoor space in which the indoor unit (IDU) is disposed. determining a relative position between indoor units (IDU) disposed in a same indoor space by comparing a floor temperature distribution for each area of each indoor unit detected by a second temperature sensor that detects a floor temperature around the indoor units (IDU) (S200), wherein an indoor floor temperature around the indoor unit (IDU) is a temperature (Tb) of a floor area corresponding to an indoor space in which the indoor unit (IDU) is disposed.
5-(2,5-bis(4-chloro-2-isopropylphenyl)thiophen-3-yl)-1H-tetrazole or a pharmaceutically acceptable salt thereof.
A device for applying a thread loop around a skin tag , the device comprising a thread cartridge arranged to be connected to a tool having a hollow cylindrical handle with a piston runningly arranged inside the handle, the piston having a first end which in a base position of the piston abuts to an opening in a front end of the handle, where the device comprises - a thumb grip is attached to the piston and arranged accessible from the outside of the handle via a slot in the handle whereby the piston is displaceable from its base position along the interior of the handle , - the piston has at its first end a carrier to which an inner end of said thread cartridge is arranged to be connected, - a thread loop at an outer end of the thread cartridge is arranged to be laid around the skin tag , - wherein the piston is configured to be displaced from the base position by means of the thumb grip to pull together the thread loop around the skin tag , - the thread cartridge is arranged to be detached from the carrier by releasing the thumb grip whereby the thread of the thread cartridge can be detached from the carrier . - a thumb grip is attached to the piston and arranged accessible from the outside of the handle via a slot in the handle whereby the piston is displaceable from its base position along the interior of the handle , - the piston has at its first end a carrier to which an inner end of said thread cartridge is arranged to be connected, - a thread loop at an outer end of the thread cartridge is arranged to be laid around the skin tag , - wherein the piston is configured to be displaced from the base position by means of the thumb grip to pull together the thread loop around the skin tag , - the thread cartridge is arranged to be detached from the carrier by releasing the thumb grip whereby the thread of the thread cartridge can be detached from the carrier .
Method for generating a current target value for a charging device comprising an AC-to-DC converter connected to an electricity grid, the method comprising: - a step of measuring at least one voltage (V mes ) of the electricity grid; - a filtering step for extracting a frequency component, in which at least one filtered voltage (V ftr ) is calculated on the basis of said at least one measured voltage (V mes ) and a value of the electrical angular frequency (ω G ) of the electricity grid; - a step of estimating a frequency (f G ) and the amplitude (V G ) of said at least one measured voltage on the basis of said at least one measured voltage and said at least one filtered voltage (V ftr ) ; - a consolidation step comprising calculating a consolidated voltage (V cs ) on the basis of said at least one measured voltage (V mes ) and said at least one filtered voltage (V ftr ), said calculation providing a consolidated voltage that is equal to the measured voltage (V mes ) when the measured voltage is below a min threshold (Vth_min) and that is equal to the filtered voltage (V ftr ) when the measured voltage is beyond a max threshold (Vth max) and that, between these two thresholds, is equal to a linear combination of the filtered voltage (V ftr ) and measured voltage (V mes ); and - a step of generating a current target value (i req ) on the basis of said consolidated voltage (V cs ) and the estimated amplitude (V G ). - a step of measuring at least one voltage (V mes ) of the electricity grid; - a filtering step for extracting a frequency component, in which at least one filtered voltage (V ftr ) is calculated on the basis of said at least one measured voltage (V mes ) and a value of the electrical angular frequency (ω G ) of the electricity grid; - a step of estimating a frequency (f G ) and the amplitude (V G ) of said at least one measured voltage on the basis of said at least one measured voltage and said at least one filtered voltage (V ftr ) ; - a consolidation step comprising calculating a consolidated voltage (V cs ) on the basis of said at least one measured voltage (V mes ) and said at least one filtered voltage (V ftr ), said calculation providing a consolidated voltage that is equal to the measured voltage (V mes ) when the measured voltage is below a min threshold (Vth_min) and that is equal to the filtered voltage (V ftr ) when the measured voltage is beyond a max threshold (Vth max) and that, between these two thresholds, is equal to a linear combination of the filtered voltage (V ftr ) and measured voltage (V mes ); and - a step of generating a current target value (i req ) on the basis of said consolidated voltage (V cs ) and the estimated amplitude (V G ).
A method for preparing a semiconductor nanocrystal, comprising: preparing a semiconductor nanocrystal solution comprising an organic solvent and a bare semiconductor nanocrystal and adding water to the semiconductor nanocrystal solution, wherein the bare semiconductor nanocrystal comprises a Group III-V semiconductor material and has an organic ligand bound thereto, wherein the organic solvent comprises an aromatic solvent, an alkane solvent, a non-polar solvent, a polar solvent, or a combination thereof, and wherein the water is added in an amount of 0.01 parts by volume to 100 parts by volume per 100 parts by volume of the semiconductor nanocrystal solution. preparing a semiconductor nanocrystal solution comprising an organic solvent and a bare semiconductor nanocrystal and adding water to the semiconductor nanocrystal solution, wherein the bare semiconductor nanocrystal comprises a Group III-V semiconductor material and has an organic ligand bound thereto, wherein the organic solvent comprises an aromatic solvent, an alkane solvent, a non-polar solvent, a polar solvent, or a combination thereof, and wherein the water is added in an amount of 0.01 parts by volume to 100 parts by volume per 100 parts by volume of the semiconductor nanocrystal solution.
A driving force adjustment apparatus that includes a differential apparatus that interposes a differential gear supported by a differential case between a left shaft and a right shaft of driving wheels, a driving source that drives the driving wheels, an adjusting motor that adjusts a driving force difference between the left shaft and the right shaft , and a planetary gear mechanism of three elements and two degree-of-freedom, the driving force adjustment apparatus further comprising: a driving shaft that is coupled to a first element of the planetary gear mechanism and that is coaxially arranged with the planetary gear mechanism ; a first gear train that adjusts a reduction ratio between a second element of the planetary gear mechanism and one of the left shaft and the right shaft and that couples the second element to the one of the left shaft and the right shaft ; a second gear train that adjusts a reduction ratio between the driving shaft and the differential case of the differential apparatus and that couples the driving shaft to the differential case ; a third gear train that adjusts a reduction ratio between the driving source and the driving shaft and that couples the driving source to the driving shaft ; and a fourth gear train that adjusts a reduction ratio between a third element of the planetary gear mechanism and the adjusting motor and that couples the third element to the adjusting motor . a driving shaft that is coupled to a first element of the planetary gear mechanism and that is coaxially arranged with the planetary gear mechanism ; a first gear train that adjusts a reduction ratio between a second element of the planetary gear mechanism and one of the left shaft and the right shaft and that couples the second element to the one of the left shaft and the right shaft ; a second gear train that adjusts a reduction ratio between the driving shaft and the differential case of the differential apparatus and that couples the driving shaft to the differential case ; a third gear train that adjusts a reduction ratio between the driving source and the driving shaft and that couples the driving source to the driving shaft ; and a fourth gear train that adjusts a reduction ratio between a third element of the planetary gear mechanism and the adjusting motor and that couples the third element to the adjusting motor .
A liquid ejection method comprising: ejecting liquid from an ejection opening; and using a liquid ejection head including a heating surface for heating the liquid and the ejection opening corresponding to the heating surface, by heating the liquid with the heating surface to produce a bubble communicating with air through the ejection opening such that at least a part of the heating surface is exposed to the air through the ejection opening, the liquid is heated with the heating surface for 0.5 microseconds or shorter to produce a bubble communicating with the air through the ejection opening such that at least a part of the heating surface is exposed to the air through the ejection opening, in order to eject the liquid from the ejection opening, characterized in that the liquid is heated with the heating surface at a heat flux of 8 × 10 8 W/m 2 or higher, in order to eject the liquid from the ejection opening. ejecting liquid from an ejection opening; and using a liquid ejection head including a heating surface for heating the liquid and the ejection opening corresponding to the heating surface, by heating the liquid with the heating surface to produce a bubble communicating with air through the ejection opening such that at least a part of the heating surface is exposed to the air through the ejection opening, the liquid is heated with the heating surface for 0.5 microseconds or shorter to produce a bubble communicating with the air through the ejection opening such that at least a part of the heating surface is exposed to the air through the ejection opening, in order to eject the liquid from the ejection opening, characterized in that the liquid is heated with the heating surface at a heat flux of 8 × 10 8 W/m 2 or higher, in order to eject the liquid from the ejection opening.
An elutriation chamber for an elutriator system for washing and/or isolating cells, in particular thrombocytes, which elutriation chamber comprises a feed line for an aqueous medium containing the cells to be washed and/or to be isolated in suspended form, and a discharge line for the washed and/or isolated cells, the chamber preferably being rotationally symmetrical to the axis (a), characterized in that the ratio of the area of the section through the lumen of the chamber perpendicular to the axis (a) at the widest point (5a-5b) to the area of the section through the feed line is in the range of 1,000 to 250,000.
A health monitoring device, comprising: a single-use structure having: a set of sensors configured to generate a set of health sensor data based on a body surface; a communications circuit configured to receive the set of health sensor data based on the body surface; and a second near-field antenna , coupled to the circuit, and configured to be conformally coupled to the body surface; wherein the single-use structure includes only externally powered passive circuits;. a re-useable structure , wherein the re-useable structure is wearable and has a near-field reader configured to process the set of health sensor data based on the body surface; wherein a first near-field antenna in the re-useable structure is configured to be conformally coupled to the body surface and is configured to communicate with the second near-field antenna in the single-use structure ; wherein the single-use structure is wholly powered by a near-field signal from the re-useable structure ; and wherein the first near-field antenna is spatially positioned with respect to the second near-field antenna so as to maximize a coupling factor between the first and second near-field antennas. a single-use structure having: a set of sensors configured to generate a set of health sensor data based on a body surface; a communications circuit configured to receive the set of health sensor data based on the body surface; and a second near-field antenna , coupled to the circuit, and configured to be conformally coupled to the body surface; wherein the single-use structure includes only externally powered passive circuits;. a set of sensors configured to generate a set of health sensor data based on a body surface; a communications circuit configured to receive the set of health sensor data based on the body surface; and a second near-field antenna , coupled to the circuit, and configured to be conformally coupled to the body surface; wherein the single-use structure includes only externally powered passive circuits;. a re-useable structure , wherein the re-useable structure is wearable and has a near-field reader configured to process the set of health sensor data based on the body surface; wherein a first near-field antenna in the re-useable structure is configured to be conformally coupled to the body surface and is configured to communicate with the second near-field antenna in the single-use structure ; wherein the single-use structure is wholly powered by a near-field signal from the re-useable structure ; and wherein the first near-field antenna is spatially positioned with respect to the second near-field antenna so as to maximize a coupling factor between the first and second near-field antennas.
A hair styling apparatus , comprising: a heated barrel connected to a handle , the heated barrel defining a hair styling surface; a rotating member disposed at an end of the hair styling surface, the rotating member being configured to (i) rotate relative to the handle , (ii) gather hair of a user and (iii) wind the hair around the hair styling surface; a hair holding tab included in the rotating member (106; 206) and (i) extending from an end of the rotating member along the hair styling surface, and (ii) being spaced apart from the hair styling surface by a second radial spacing, the hair holding tab being configured to depress the hair onto the hair styling surface, wherein the hair holding tab extends generally longitudinally along the hair styling surface of the heated barrel , a heating element configured to heat the heated barrel and/or the hair styling surface. a heated barrel connected to a handle , the heated barrel defining a hair styling surface; a rotating member disposed at an end of the hair styling surface, the rotating member being configured to (i) rotate relative to the handle , (ii) gather hair of a user and (iii) wind the hair around the hair styling surface; a hair holding tab included in the rotating member (106; 206) and (i) extending from an end of the rotating member along the hair styling surface, and (ii) being spaced apart from the hair styling surface by a second radial spacing, the hair holding tab being configured to depress the hair onto the hair styling surface, wherein the hair holding tab extends generally longitudinally along the hair styling surface of the heated barrel , a heating element configured to heat the heated barrel and/or the hair styling surface.
A method of handling a wind turbine component for assembly or maintenance, the method comprising: moving a plurality of unmanned air vehicles to respective positions proximal to a wind turbine component , wherein each of the unmanned air vehicles is attached to a lifting yoke , which is in turn attached to the component by one or more support lines so that the wind turbine component can be supported by the plurality of unmanned air vehicles; controlling the plurality of unmanned air vehicles to lift the wind turbine component and manoeuvre said component with respect to a wind turbine ; the method further including guiding the component to the wind turbine using a guidance system . moving a plurality of unmanned air vehicles to respective positions proximal to a wind turbine component , wherein each of the unmanned air vehicles is attached to a lifting yoke , which is in turn attached to the component by one or more support lines so that the wind turbine component can be supported by the plurality of unmanned air vehicles; controlling the plurality of unmanned air vehicles to lift the wind turbine component and manoeuvre said component with respect to a wind turbine ; the method further including guiding the component to the wind turbine using a guidance system .
A method performed by a user equipment, UE, for receiving data, the method comprising: receiving, from a base station, a radio resource control, RRC, message including a list of a plurality of candidate configurations, each candidate configuration including information on a starting symbol and a transmission duration for downlink transmission; receiving, from the base station, downlink control information, DCI, indicating one of the plurality of candidate configurations in the list; and receiving, from the base station, data based on the indicated one candidate. receiving, from a base station, a radio resource control, RRC, message including a list of a plurality of candidate configurations, each candidate configuration including information on a starting symbol and a transmission duration for downlink transmission; receiving, from the base station, downlink control information, DCI, indicating one of the plurality of candidate configurations in the list; and receiving, from the base station, data based on the indicated one candidate.
A current sensor , comprising a flat housing of plastic having a lower side , an upper side , and four side walls, electrical terminals , and a flat conductor , through which a current to be measured flows, wherein the flat conductor includes a section having two straight side edges , wherein the current to be measured flows in the section in the direction extending straight and in parallel to the side edges , a semiconductor chip having two magnetic field sensors , wherein the two magnetic field sensors are arranged in the region above or below the side edges of the section of the conductor , where the component of the magnetic field detected by the two magnetic field sensors points in opposite directions at the locations of the two magnetic field sensors , characterized in that the two magnetic field sensors are arranged between the side edges of the section of the conductor on the side of the respective side edge facing toward the center of the conductor . a flat housing of plastic having a lower side , an upper side , and four side walls, electrical terminals , and a flat conductor , through which a current to be measured flows, wherein the flat conductor includes a section having two straight side edges , wherein the current to be measured flows in the section in the direction extending straight and in parallel to the side edges , a semiconductor chip having two magnetic field sensors , wherein the two magnetic field sensors are arranged in the region above or below the side edges of the section of the conductor , where the component of the magnetic field detected by the two magnetic field sensors points in opposite directions at the locations of the two magnetic field sensors , characterized in that the two magnetic field sensors are arranged between the side edges of the section of the conductor on the side of the respective side edge facing toward the center of the conductor .
A process for the production of ethylene by oxidative dehydrogenation of ethane, comprising: a) supplying ethane and oxygen to a first oxidative dehydrogenation zone which is formed by multiple reactor tubes containing a catalyst bed containing an oxidative dehydrogenation catalyst which is a mixed metal oxide catalyst; b) contacting the ethane and oxygen with the catalyst in the multiple reactor tubes in the first oxidative dehydrogenation zone resulting in multiple effluent streams, wherein the multiple reactor tubes are cooled by a coolant; c) mixing at least a portion of the multiple effluent streams from step b) resulting in a mixture comprising ethylene, unconverted ethane and unconverted oxygen; d) supplying at least a portion of the mixture from step c) to a second oxidative dehydrogenation zone containing a catalyst bed containing an oxidative dehydrogenation catalyst which is a mixed metal oxide catalyst; e) contacting at least a portion of the mixture from step c) with the catalyst in the second oxidative dehydrogenation zone resulting in a stream comprising ethylene and unconverted ethane. a) supplying ethane and oxygen to a first oxidative dehydrogenation zone which is formed by multiple reactor tubes containing a catalyst bed containing an oxidative dehydrogenation catalyst which is a mixed metal oxide catalyst; b) contacting the ethane and oxygen with the catalyst in the multiple reactor tubes in the first oxidative dehydrogenation zone resulting in multiple effluent streams, wherein the multiple reactor tubes are cooled by a coolant; c) mixing at least a portion of the multiple effluent streams from step b) resulting in a mixture comprising ethylene, unconverted ethane and unconverted oxygen; d) supplying at least a portion of the mixture from step c) to a second oxidative dehydrogenation zone containing a catalyst bed containing an oxidative dehydrogenation catalyst which is a mixed metal oxide catalyst; e) contacting at least a portion of the mixture from step c) with the catalyst in the second oxidative dehydrogenation zone resulting in a stream comprising ethylene and unconverted ethane.