mhurhangee/patent-ind-claim-en huggingface dataset:
A control system for a vehicle traveling in a first direction on a road segment , wherein the vehicle has a driver support function for autonomously manoeuvring the vehicle, wherein the driver support function is capable of operating within an operational design domain, ODD, including a road safety barrier metric and a road characteristics metric, wherein the control system comprises control circuitry configured to: obtain data comprising information about a surrounding environment of the vehicle, the information including road safety barrier data and road characteristics data; determine a fulfilment of the ODD based on the obtained data by determining a fulfilment of the road safety barrier metric and the road characteristics metric based on the road safety barrier data and the road characteristics data, wherein the road safety barrier metric comprises a required number of road safety barriers , a required location of the road safety barrier(s) relative to the road segment, and at least one required type of road safety barriers; if the ODD is fulfilled, generate a first control signal in order to control an availability of the driver support function for the road segment in order to make the driver support function available for an occupant of the vehicle. obtain data comprising information about a surrounding environment of the vehicle, the information including road safety barrier data and road characteristics data; determine a fulfilment of the ODD based on the obtained data by determining a fulfilment of the road safety barrier metric and the road characteristics metric based on the road safety barrier data and the road characteristics data, wherein the road safety barrier metric comprises a required number of road safety barriers , a required location of the road safety barrier(s) relative to the road segment, and at least one required type of road safety barriers; if the ODD is fulfilled, generate a first control signal in order to control an availability of the driver support function for the road segment in order to make the driver support function available for an occupant of the vehicle.
Method of computing a solution to a computational problem using a quantum system comprising a plurality of qubits , the method comprising: encoding the computational problem into a problem Hamiltonian of the quantum system, wherein the problem Hamiltonian is a single-body Hamiltonian comprising a plurality of adjustable parameters, wherein the plurality of adjustable parameters comprise a plurality of field strengths and/or a plurality of field directions of single-body fields acting on the plurality of qubits, and wherein the encoding comprises determining, from the computational problem, a problem-encoding configuration for the plurality of adjustable parameters; evolving the quantum system from an initial quantum state towards a ground state of a final Hamiltonian of the quantum system, wherein the final Hamiltonian is the sum of the problem Hamiltonian and a short-range Hamiltonian , wherein the plurality of adjustable parameters of the problem Hamiltonian are in the problem-encoding configuration, wherein the short-range Hamiltonian is a Hamiltonian representing interactions of a plurality of qubits, wherein no interactions occur between qubits which are distanced from each other by a distance greater than an interaction cut-off distance, and wherein the short-range Hamiltonian is a d-body Hamiltonian and d is independent of the computational problem, wherein d is 2, 3, 4, 5, 6, 7 or 8; measuring at least a portion of the plurality of qubits to obtain a read-out of the quantum system; and determining a solution to the computational problem from the read-out. encoding the computational problem into a problem Hamiltonian of the quantum system, wherein the problem Hamiltonian is a single-body Hamiltonian comprising a plurality of adjustable parameters, wherein the plurality of adjustable parameters comprise a plurality of field strengths and/or a plurality of field directions of single-body fields acting on the plurality of qubits, and wherein the encoding comprises determining, from the computational problem, a problem-encoding configuration for the plurality of adjustable parameters; evolving the quantum system from an initial quantum state towards a ground state of a final Hamiltonian of the quantum system, wherein the final Hamiltonian is the sum of the problem Hamiltonian and a short-range Hamiltonian , wherein the plurality of adjustable parameters of the problem Hamiltonian are in the problem-encoding configuration, wherein the short-range Hamiltonian is a Hamiltonian representing interactions of a plurality of qubits, wherein no interactions occur between qubits which are distanced from each other by a distance greater than an interaction cut-off distance, and wherein the short-range Hamiltonian is a d-body Hamiltonian and d is independent of the computational problem, wherein d is 2, 3, 4, 5, 6, 7 or 8; measuring at least a portion of the plurality of qubits to obtain a read-out of the quantum system; and determining a solution to the computational problem from the read-out.
A masterbatch obtained by coagulating, by an acid, a resin dispersion containing cellulose xanthate fine fibers having a crystalline structure of cellulose I.
Method for operating a washing machine comprising a suds container for receiving washing liquid, a drum for receiving laundry , a loading opening for loading the drum with the laundry and a door for closing the loading opening, having a washing phase comprising the steps of - supplying the washing liquid into the suds container up to a first washing liquid level and washing the laundry in a first partial washing phase having a first partial washing phase duration, - performing a first wash stop during which the door of the washing machine is unlocked, which door closes the loading opening during the first partial washing phase , and - when adding laundry to the drum while the first wash stop is activated, supplying washing liquid to the suds container up to a second washing liquid level which is higher than the first washing liquid level and washing the laundry in a second partial washing phase having a second partial washing phase duration, characterised in that the washing phase comprises a third partial washing phase , and - in that a washing temperature during the first, second and/or third partial washing phase lowers with an increasing number of partial washing phases . - supplying the washing liquid into the suds container up to a first washing liquid level and washing the laundry in a first partial washing phase having a first partial washing phase duration, - performing a first wash stop during which the door of the washing machine is unlocked, which door closes the loading opening during the first partial washing phase , and - when adding laundry to the drum while the first wash stop is activated, supplying washing liquid to the suds container up to a second washing liquid level which is higher than the first washing liquid level and washing the laundry in a second partial washing phase having a second partial washing phase duration, characterised in that the washing phase comprises a third partial washing phase , and - in that a washing temperature during the first, second and/or third partial washing phase lowers with an increasing number of partial washing phases .
A method for controlling a manipulator system (1; 2), wherein the manipulator system (1; 2) comprises multiple drives, and wherein the manipulator system (1; 2) further comprises a first inverter for controlling at least two drives , wherein the inverter generates only one control signal, and wherein the method comprises the following method steps: a) Determining the drives that must be used for executing a planned movement path of the manipulator system (1; 2); b) Checking whether a determined drive to be used in the planned movement path of the manipulator system (1; 2) is energized by the first inverter , and connecting the first inverter to the drive to be used if it is not energized; and c) Controlling the drive or drives connected to the first inverter by means of the first inverter in order to run the planned movement path of the manipulator system (1; 2), wherein in a first case, the at least two drives are controlled alternately, and wherein in a second case, the at least two drives are moved simultaneously, in which second case the drives are moved in dependence on one another, in which second case each of the n drives is operated with at most 1/n of the power of the inverter . a) Determining the drives that must be used for executing a planned movement path of the manipulator system (1; 2); b) Checking whether a determined drive to be used in the planned movement path of the manipulator system (1; 2) is energized by the first inverter , and connecting the first inverter to the drive to be used if it is not energized; and c) Controlling the drive or drives connected to the first inverter by means of the first inverter in order to run the planned movement path of the manipulator system (1; 2), wherein in a first case, the at least two drives are controlled alternately, and wherein in a second case, the at least two drives are moved simultaneously, in which second case the drives are moved in dependence on one another, in which second case each of the n drives is operated with at most 1/n of the power of the inverter . in a first case, the at least two drives are controlled alternately, and wherein in a second case, the at least two drives are moved simultaneously, in which second case the drives are moved in dependence on one another, in which second case each of the n drives is operated with at most 1/n of the power of the inverter .
A low voltage power assembly comprising: a track having a first end and a second end opposite the first end , wherein the track is powered from a low voltage power source; and a first power connector assembly , wherein the first power connector assembly is configured to provide low voltage power through the track to a low voltage power device; characterised in that : the track comprises one or more mechanical connection surfaces and one or more conductive plates adjacent to one another; the first power connector assembly comprises a mechanical connector that connects to the track both through a mechanical connection and a low voltage power connection, wherein the mechanical connector of the first power connector assembly engages with the one or more mechanical connection surfaces on the track to form a snap-fit connection; the first power connector assembly further comprises one or more power connector contacts that are electrically connected to one or more power connector jacks ; the mechanical connection allows the first power connector assembly to be moved along the entire length of the track while the low voltage power connection is maintained; and wherein the snap-fit connection is a cylindrical-type snap-fit connection. a track having a first end and a second end opposite the first end , wherein the track is powered from a low voltage power source; and a first power connector assembly , wherein the first power connector assembly is configured to provide low voltage power through the track to a low voltage power device; the track comprises one or more mechanical connection surfaces and one or more conductive plates adjacent to one another; the first power connector assembly comprises a mechanical connector that connects to the track both through a mechanical connection and a low voltage power connection, wherein the mechanical connector of the first power connector assembly engages with the one or more mechanical connection surfaces on the track to form a snap-fit connection; the first power connector assembly further comprises one or more power connector contacts that are electrically connected to one or more power connector jacks ; the mechanical connection allows the first power connector assembly to be moved along the entire length of the track while the low voltage power connection is maintained; and wherein the snap-fit connection is a cylindrical-type snap-fit connection.
A method for producing a highly soluble steviol glycoside composition comprising the steps of: A) providing a powder composition comprising at least one steviol glycoside and having 0.1% or less solubility in water; B) providing water; C) mixing the water and powder composition comprising at least one steviol glycoside to make a mixture; D) increasing the temperature of the mixture to 50-110°C to make a solution; E) decreasing the temperature of the solution to -1°C to -200°C to obtain solidified solution; and F) freeze drying the solidified solution, to provide highly soluble steviol glycoside composition having at least 0.5% solubility in water, wherein the solubility is determined in water at room temperature (25°C), where the solubility is expressed as "%" and is to be understood as number of grams of material soluble in 100 grams of solvent. A) providing a powder composition comprising at least one steviol glycoside and having 0.1% or less solubility in water; B) providing water; C) mixing the water and powder composition comprising at least one steviol glycoside to make a mixture; D) increasing the temperature of the mixture to 50-110°C to make a solution; E) decreasing the temperature of the solution to -1°C to -200°C to obtain solidified solution; and F) freeze drying the solidified solution, to provide highly soluble steviol glycoside composition having at least 0.5% solubility in water, wherein the solubility is determined in water at room temperature (25°C), where the solubility is expressed as "%" and is to be understood as number of grams of material soluble in 100 grams of solvent.
A cleaner comprising: a suction unit configured to guide air into the cleaner; a suction motor configured to generate a suction force that suctions air into the cleaner through suction unit ; a dust separation unit comprising: a first cyclone unit configured to separate dust from air that is suctioned into the cleaner through the suction unit ; and a second cyclone unit disposed in a vertical direction with the suction motor at a lower side of the suction motor and configured to separate dust from air that is discharged from the first cyclone unit , wherein in use, air discharged from the second cyclone unit flows upward to pass through a passage formed around the suction motor ; a discharge cover positioned on an opposite side of the second cyclone unit based on the suction motor and configured to form the appearance of the cleaner; and an impeller located between the discharge cover and the suction motor , wherein the discharge cover is located on an upper side of the impeller , and one surface of the discharge cover is disposed to surround an extension line from a rotational axis (A1) of the impeller . a suction unit configured to guide air into the cleaner; a suction motor configured to generate a suction force that suctions air into the cleaner through suction unit ; a dust separation unit comprising: a first cyclone unit configured to separate dust from air that is suctioned into the cleaner through the suction unit ; and a second cyclone unit disposed in a vertical direction with the suction motor at a lower side of the suction motor and configured to separate dust from air that is discharged from the first cyclone unit , wherein in use, air discharged from the second cyclone unit flows upward to pass through a passage formed around the suction motor ; a first cyclone unit configured to separate dust from air that is suctioned into the cleaner through the suction unit ; and a second cyclone unit disposed in a vertical direction with the suction motor at a lower side of the suction motor and configured to separate dust from air that is discharged from the first cyclone unit , wherein in use, air discharged from the second cyclone unit flows upward to pass through a passage formed around the suction motor ; a discharge cover positioned on an opposite side of the second cyclone unit based on the suction motor and configured to form the appearance of the cleaner; and an impeller located between the discharge cover and the suction motor , wherein the discharge cover is located on an upper side of the impeller , and one surface of the discharge cover is disposed to surround an extension line from a rotational axis (A1) of the impeller .
A method comprising, at a media content server system configured to deliver media content to a first client device through a first application executing on the first client device: determining that communication with the first client device through the first application has been lost due to the first client device entering an idle mode; after determining that the communication with the first client device through the first application has been lost, receiving a request from a second client device , distinct from the first client device , that triggers reestablishing communication with the first client device through the first application ; in response to the request from the second client device that triggers reestablishing communication with the first client device through the first application, transmitting a request to a third-party server system with which the first client device is associated, to wake the first client device from the idle mode; receiving , from the first application on the first client device , an indication that communication has been reestablished between the media content server system and the first application; and after receiving , from the first application on the first client device, the indication that communication has been reestablished between the media content server system and the first application, transmitting , to the first application on the first client device , a playback command to cause the first client device to present the media content. determining that communication with the first client device through the first application has been lost due to the first client device entering an idle mode; after determining that the communication with the first client device through the first application has been lost, receiving a request from a second client device , distinct from the first client device , that triggers reestablishing communication with the first client device through the first application ; in response to the request from the second client device that triggers reestablishing communication with the first client device through the first application, transmitting a request to a third-party server system with which the first client device is associated, to wake the first client device from the idle mode; receiving , from the first application on the first client device , an indication that communication has been reestablished between the media content server system and the first application; and after receiving , from the first application on the first client device, the indication that communication has been reestablished between the media content server system and the first application, transmitting , to the first application on the first client device , a playback command to cause the first client device to present the media content.
Inherently stable container for storing food molded from a laminate comprising: - a carrier layer of cardboard produced from mechanically shredded pulp, from a single-ply or multi-ply paper, cellulose or secondary fibers, - at least one barrier layer from a greaseproof, water-repellent and heat-resistant material on the side turned to the foodstuff to be stored and - an adhesive for bonding the carrier layer and the barrier layer , wherein the carrier layer , the adhesive and the barrier layer are food safe, characterized in that the barrier layer comprises a cellulose hydrate foil that is provided, on the side turned to or opposed to the foodstuff to be stored, with a first vapour-barrier coating . - a carrier layer of cardboard produced from mechanically shredded pulp, from a single-ply or multi-ply paper, cellulose or secondary fibers, - at least one barrier layer from a greaseproof, water-repellent and heat-resistant material on the side turned to the foodstuff to be stored and - an adhesive for bonding the carrier layer and the barrier layer , wherein the carrier layer , the adhesive and the barrier layer are food safe, characterized in that the barrier layer comprises a cellulose hydrate foil that is provided, on the side turned to or opposed to the foodstuff to be stored, with a first vapour-barrier coating .
A device for mounting wind turbine components, to lift the components such as the segments forming the tower and the nacelle of a wind turbine, to the positions where these components are mounted to the structure of the wind turbine, characterised in that it comprises a lower portion and an upper portion coupled by means of a swivel joint , the lower portion being associated with a telescopic assembly provided with fastening means for securing to the segments of the already-mounted tower portion of the wind turbine, while a lift is movable along the whole of both portions and provided with other fastening means for securing the components of the wind turbine to be mounted, in order to lift these components of the wind turbine to be mounted to the mounting positions thereof, in movements from the lower portion of the tower, and wherein the device has a weight distribution that is greater at the lower portion than at the upper portion .
A method of a user equipment, UE , in a wireless communication system using an unlicensed band, the method comprising: receiving, from an eNodeB, eNB , information on a received signal strength indicator, RSSI, measurement timing configuration, RMTC;; performing a measurement on the unlicensed band according to the information on the RMTC; and transmitting, to the eNB , a measurement report including at least one of average RSSI information and channel occupancy information. receiving, from an eNodeB, eNB , information on a received signal strength indicator, RSSI, measurement timing configuration, RMTC;; performing a measurement on the unlicensed band according to the information on the RMTC; and transmitting, to the eNB , a measurement report including at least one of average RSSI information and channel occupancy information.