mhurhangee/ep-ind-claims huggingface dataset:
Solid fuel burner for a combustion chamber with an exhaust opening for the combustion of powdered, solid fuels with a primary air supply device and a fuel supply device for producing an air/fuel mixture of primary air and fuel, and at least one lance transporting the flow of air/fuel mixture to an opening, wherein a control device is provided upstream of the opening, which control device by means of pulsating operation over time of the fuel contained in the air/fuel mixture reduces NO x emissions at the exhaust opening, characterised in that the control device (23, 23a) enriches and reduces in a pulsating manner the content of fuel which is constantly introduced into the air/fuel mixture and the control device is formed by a baffle plate provided on the lance which takes up and releases fuel from the air/fuel mixture in a pulsating manner.
Spacecraft provided with an estimating device for estimating a velocity vector d X → RL dt | RI of the spacecraft relative to an inertial reference frame, the estimating device comprising at least one gyrometer on board the spacecraft and capable of measuring an instantaneous rotational velocity vector Ω → RL / RI RL of the spacecraft relative to the inertial reference frame, characterised in that the estimating device further comprises a system of spatially spaced magnetometers which are associated with the spacecraft and are capable of measuring, in a reference frame associated with the spacecraft, a magnetic field vector ( B RL) produced by a celestial body, the magnetic field vector ( B RL) produced by the celestial body being stationary in a reference frame associated with the celestial body, and a computer configured to estimate the velocity vector d X → RL dt | RI of the spacecraft relative to the inertial reference frame, the computer receiving as input data which allows it to estimate a position vector of the spacecraft relative to the inertial reference frame and being configured to estimate the velocity vector by solving an equation relating the velocity vector d X → RL dt | RI of the spacecraft relative to the inertial reference frame to the instantaneous rotational velocity vector Ω → RL / RI RL of the spacecraft relative to the inertial reference frame, to the magnetic field vector ( B RL) produced by the celestial body, to the time derivative d B → RL dt | RL and to the spatial gradient ∂ B ∂ X RL of the magnetic field vector ( B RL) produced by the celestial body, to a position vector X → RI RL of the spacecraft relative to the centre of the inertial reference frame and to a rotational velocity vector of the reference frame associated with the celestial body relative to the inertial reference frame.
A method of providing a wavelength tunable photon source, the method comprising - providing a first element, such as the first element being a solid element, comprising a first mirror, - providing a second element, such as the second element being a solid element, comprising a second mirror, - providing a third element, such as the third element being a solid element, comprising a photon emitter, - placing the first element and the second element and the third element in relation to each other, so that i. the first mirror and the second mirror define at least a part of an optical cavity, and so that ii. the photon emitter is placed inside the optical cavity, - joining at least the first element and the second element and the third element together in a coherent structure enclosing an inner volume being a sealed volume, and - forming a bonding interface adjacent to the inner volume, which bonding interface is gas-tight, abutting on a first side the first element and on a second side the third element, wherein the first mirror is placed in the inner volume so that the first mirror may move within the inner volume and where at least a portion of the inner volume is placed on a side of the first mirror facing the optical cavity and where at least a portion of the inner volume, such as another portion of the inner volume, is placed on an opposite side of the first mirror, such as a side of the first mirror being opposite of the side of the first mirror facing the optical cavity, and wherein the method further comprises - providing means (418C, 418D) for enabling moving the first mirror within the inner volume. - providing a first element, such as the first element being a solid element, comprising a first mirror, - providing a second element, such as the second element being a solid element, comprising a second mirror, - providing a third element, such as the third element being a solid element, comprising a photon emitter, - placing the first element and the second element and the third element in relation to each other, so that i. the first mirror and the second mirror define at least a part of an optical cavity, and so that ii. the photon emitter is placed inside the optical cavity, i. the first mirror and the second mirror define at least a part of an optical cavity, and so that ii. the photon emitter is placed inside the optical cavity, - joining at least the first element and the second element and the third element together in a coherent structure enclosing an inner volume being a sealed volume, and - forming a bonding interface adjacent to the inner volume, which bonding interface is gas-tight, abutting on a first side the first element and on a second side the third element, - providing means (418C, 418D) for enabling moving the first mirror within the inner volume.
Precursor suitable for the production of an electrode for gas evolution in electrolytic processes, comprising a ruthenium nitrate dissolved in a chloride-free aqueous solution containing acetic acid at a concentration higher than 30% by weight.
A multi-die isolated controller integrated circuit package (560, 660) with a magnetically coupled communication link between the isolated controller dice (350, 360, 535, 565, 665, 635, 665) in the integrated circuit package, wherein the multi-die isolated controller integrated circuit package is configured to be utilized in a switch mode power converter (500, 600) and includes a primary control circuit and a secondary control circuit, wherein the multi-die isolated controller integrated circuit package comprises: a lead frame, the lead frame including: a first conductor having a first conductive loop (335, 337, 435, 437); a second conductor galvanically isolated from the first conductor, wherein the second conductor includes a second conductive loop (335, 337, 435, 437) proximate to and magnetically coupled to the first conductive loop to provide a communication link (540, 640) between the first and second conductors, wherein the magnetically coupled communication link is formed by the magnetically coupled first and second conductive loops inside an encapsulated portion of the multi-die isolated controller integrated circuit package. a lead frame, the lead frame including: a first conductor having a first conductive loop (335, 337, 435, 437); a second conductor galvanically isolated from the first conductor, wherein the second conductor includes a second conductive loop (335, 337, 435, 437) proximate to and magnetically coupled to the first conductive loop to provide a communication link (540, 640) between the first and second conductors, a first conductor having a first conductive loop (335, 337, 435, 437); a second conductor galvanically isolated from the first conductor, wherein the second conductor includes a second conductive loop (335, 337, 435, 437) proximate to and magnetically coupled to the first conductive loop to provide a communication link (540, 640) between the first and second conductors, wherein the magnetically coupled communication link is formed by the magnetically coupled first and second conductive loops inside an encapsulated portion of the multi-die isolated controller integrated circuit package.
A door fitting particularly having an integrated electronic access control unit and two door plates, wherein at least one door plate comprises a receipt for a latch pin and/or a latch pin; and one or multiple biasing element(s) for biasing the two door plates against each other under tension; wherein the one biasing element lies in the insertion opening of the door leaf or the mortise lock provided for the locking cylinder, when the door fitting is fixed to a door leaf, characterized in that, when fixing the door fitting to a door leaf, the one or multiple biasing elements are in positions lying within a line between the latch pin and an opening provided for a locking cylinder. two door plates, wherein at least one door plate comprises a receipt for a latch pin and/or a latch pin; and one or multiple biasing element(s) for biasing the two door plates against each other under tension; wherein the one biasing element lies in the insertion opening of the door leaf or the mortise lock provided for the locking cylinder, when the door fitting is fixed to a door leaf, characterized in that, when fixing the door fitting to a door leaf, the one or multiple biasing elements are in positions lying within a line between the latch pin and an opening provided for a locking cylinder.
A method for transferring exclusive ownership of data units comprising: inputting a request from a transferor to transfer to a transferee at least a designated one of the data units, said request including an identifier (ID OR) of the transferor, a unique identifier (ID U) of the designated data unit, and an identifier (ID EE) of the transferee; the request to transfer being directed to a respective one of a plurality of gateways (GW 1,..., GW l), the respective gateway including at least one of a plurality of disjoint sub-ledgers (L 1,..., L l), each data unit being uniquely associated with a respect one of the sub-ledgers according to a function of the designated data unit's unique identifier, each subledger comprising a ledger data structure having elements indicating the ownership of each of a respective subset of the data units; based on the data unit's unique identifier, uniquely associating the data unit with a respective bill ledger ( BL 1, BL 2,..., BL k) within the subledger with which the data unit is uniquely associated; verifying the identifier of the transferor; confirming the absence of any other request to transfer the designated data unit during an update period; in the respective bill ledger, changing a designation of ownership of the designated data unit from the transferor to the transferee. inputting a request from a transferor to transfer to a transferee at least a designated one of the data units, said request including an identifier (ID OR) of the transferor, a unique identifier (ID U) of the designated data unit, and an identifier (ID EE) of the transferee; the request to transfer being directed to a respective one of a plurality of gateways (GW 1,..., GW l), the respective gateway including at least one of a plurality of disjoint sub-ledgers (L 1,..., L l), each data unit being uniquely associated with a respect one of the sub-ledgers according to a function of the designated data unit's unique identifier, each subledger comprising a ledger data structure having elements indicating the ownership of each of a respective subset of the data units; based on the data unit's unique identifier, uniquely associating the data unit with a respective bill ledger ( BL 1, BL 2,..., BL k) within the subledger with which the data unit is uniquely associated; verifying the identifier of the transferor; confirming the absence of any other request to transfer the designated data unit during an update period; in the respective bill ledger, changing a designation of ownership of the designated data unit from the transferor to the transferee.
A lubricant composition comprising: a base oil; an alkyl benzene sulfonate metal salt; and an alkyl naphthalene sulfonate metal salt, wherein a total content of the alkyl benzene sulfonate metal salt and the alkyl naphthalene sulfonate metal salt is 1 to 2.2% by mass, and a mass fraction of the alkyl benzene sulfonate metal salt to a total mass of the alkyl benzene sulfonate metal salt and the alkyl naphthalene sulfonate metal salt is 0.3 or more. a base oil; an alkyl benzene sulfonate metal salt; and an alkyl naphthalene sulfonate metal salt, wherein a total content of the alkyl benzene sulfonate metal salt and the alkyl naphthalene sulfonate metal salt is 1 to 2.2% by mass, and a mass fraction of the alkyl benzene sulfonate metal salt to a total mass of the alkyl benzene sulfonate metal salt and the alkyl naphthalene sulfonate metal salt is 0.3 or more.
A method of producing hemp fiber for spinning, comprising: immersing raw hemp fiber in a treatment liquid containing an alkaline agent, water, and at least one enzyme selected from the group consisting of cellulolytic enzymes and enzymes that hydrolyse a glycosidic bond, for from 30 minutes to 60 minutes at a temperature of from 60°C to 100°C, wherein the treatment liquid has a pH of from 11 to 13; washing the immersion treated hemp fiber with water; and drying the washed hemp fiber. immersing raw hemp fiber in a treatment liquid containing an alkaline agent, water, and at least one enzyme selected from the group consisting of cellulolytic enzymes and enzymes that hydrolyse a glycosidic bond, for from 30 minutes to 60 minutes at a temperature of from 60°C to 100°C, wherein the treatment liquid has a pH of from 11 to 13; washing the immersion treated hemp fiber with water; and drying the washed hemp fiber.
A falling film evaporator comprising: a plurality of evaporator tubes through which a volume of thermal energy transfer medium is flowed; a distributor to distribute a flow of liquid refrigerant over the plurality of evaporator tubes, the distributor including: a distributor box; and a distribution sheet disposed at a bottom surface of the distributor box having a plurality of peaks and valleys, with sidewalls extending between each peak and each valley, a plurality of ports disposed in the sidewalls to distribute the flow of liquid refrigerant downwardly over the plurality of evaporator tubes, and a valley portion between adjacent sidewalls free of ports for collection of contaminants; characterized in that the valley portion is horizontal. a plurality of evaporator tubes through which a volume of thermal energy transfer medium is flowed; a distributor to distribute a flow of liquid refrigerant over the plurality of evaporator tubes, the distributor including: a distributor box; and a distribution sheet disposed at a bottom surface of the distributor box having a plurality of peaks and valleys, with sidewalls extending between each peak and each valley, a plurality of ports disposed in the sidewalls to distribute the flow of liquid refrigerant downwardly over the plurality of evaporator tubes, and a valley portion between adjacent sidewalls free of ports for collection of contaminants; a distributor box; and a distribution sheet disposed at a bottom surface of the distributor box having a plurality of peaks and valleys, with sidewalls extending between each peak and each valley, a plurality of ports disposed in the sidewalls to distribute the flow of liquid refrigerant downwardly over the plurality of evaporator tubes, and a valley portion between adjacent sidewalls free of ports for collection of contaminants; characterized in that the valley portion is horizontal.
An electrode assembly for use with a subject, the assembly including: a substrate including at least one moveable substrate portion (121, 122); and, first and second terminals (131, 132), each terminal (131, 132) being electrically coupled to a respective conductive element (141, 142), and at least part of each terminal (131, 132) being provided on the at least one moveable substrate portion (121, 122), such that movement of the substrate portion (121, 122) allows at least part of the terminal (131, 132) to extend away from the substrate to thereby facilitate connection of the terminal to a respective connector, each substrate portion (121, 122) being arranged so that the terminals (131, 132) are mounted on a same side of the substrate portions (121, 122), characterised in that each substrate portion (121, 122) is arranged so that the terminals (131, 132) face in the same direction when extending away from the substrate, wherein the respective conductive element (141,142) are first and second conductive elements (141,142) provided on the substrate, the first and second conductive elements (141,142) being spaced apart, and being adapted to provide an electrical connection to the subject. a substrate including at least one moveable substrate portion (121, 122); and, first and second terminals (131, 132), each terminal (131, 132) being electrically coupled to a respective conductive element (141, 142), and at least part of each terminal (131, 132) being provided on the at least one moveable substrate portion (121, 122), such that movement of the substrate portion (121, 122) allows at least part of the terminal (131, 132) to extend away from the substrate to thereby facilitate connection of the terminal to a respective connector, each substrate portion (121, 122) being arranged so that the terminals (131, 132) are mounted on a same side of the substrate portions (121, 122),
A tubular solid state lighting device for receiving a high frequency signal, comprising: a tubular housing having an elongate axis and first and second opposite ends, each end comprising two projecting electrical connection pins; a safety circuit electrically coupled between connection pins of the first end and connection pins of the second end, wherein the safety circuit comprises: - an electrically or mechanically controlled isolation switch providing a clearance distance; characterized in that the tubular solid state lighting device further comprises: - a triac connected in series with the switch; and - a triac gate control circuit, wherein the triac control circuit comprises a high frequency detection startup circuit and wherein the high frequency detection startup circuit comprises an RC filter circuit for closing the triac when a high frequency voltage is present across terminals of the triac. a tubular housing having an elongate axis and first and second opposite ends, each end comprising two projecting electrical connection pins; a safety circuit electrically coupled between connection pins of the first end and connection pins of the second end, wherein the safety circuit comprises: - an electrically or mechanically controlled isolation switch providing a clearance distance; - an electrically or mechanically controlled isolation switch providing a clearance distance; - a triac connected in series with the switch; and - a triac gate control circuit, wherein the triac control circuit comprises a high frequency detection startup circuit and wherein the high frequency detection startup circuit comprises an RC filter circuit for closing the triac when a high frequency voltage is present across terminals of the triac.
A controller-implemented method of controlling the temperature of a liquid held within a plurality of reaction containers supported on a rotatable circular carousel rotatably mounted within a chamber of a thermal cycling apparatus for nucleic acid amplification, the apparatus comprising a fan and a vent, the method including: a) determining a sensed chamber temperature from a temperature sensor in the chamber; b) determining an air temperature in the chamber using the sensed chamber temperature; c) determining a liquid temperature using the air temperature; and, d) selectively heating or cooling air in the chamber in accordance with the liquid temperature, characterized in that the temperature sensor is provided mounted to the wall of the chamber; and the vent is covered by a vent flap. a) determining a sensed chamber temperature from a temperature sensor in the chamber; b) determining an air temperature in the chamber using the sensed chamber temperature; c) determining a liquid temperature using the air temperature; and, d) selectively heating or cooling air in the chamber in accordance with the liquid temperature,
Crossmember of a vehicle driving station, having a transverse main metal element and a central strut intended to be fastened to the floor of the vehicle, the strut being a unitary component comprising two legs substantially perpendicular to a longitudinal direction of the transverse main metal element and at least one connecting bar (6, 7) between the two legs, upper and lower fastening means being provided at the top and bottom of the strut for fastening it to the main metal element and the floor, respectively, characterized in that: - the upper fastening means comprise a pair of half-shells (9, 10) joined to each leg, at least one half-shell of each pair being part of the leg, the half-shells of each pair being secured together, entirely enclosing the transverse main metal element, in a plane perpendicular to the longitudinal direction thereof, and following the contour of the transverse main metal element. - the upper fastening means comprise a pair of half-shells (9, 10) joined to each leg, at least one half-shell of each pair being part of the leg, the half-shells of each pair being secured together, entirely enclosing the transverse main metal element, in a plane perpendicular to the longitudinal direction thereof, and following the contour of the transverse main metal element.
An electronic device comprising: a storage unit including a data region that stores data to be acquired in accordance with an operation of the electronic device performed by a user; an output unit (15, 19); and at least one processor, wherein the at least one processor executes: first boot processing which is performed at a predetermined boot time irrespective of a usage state of data in the data region, first output processing of outputting information of a first pattern to the output unit (15, 19) during execution of the first boot processing, second boot processing in which a boot time varies depending on a usage state of the data, and second output processing of outputting information of a second pattern to the output unit (15, 19) until the second boot processing is completed, wherein, in a case where the data is not stored in the data region, the at least one processor does not cause the information of the second pattern to be output from the output unit (15, 19). a storage unit including a data region that stores data to be acquired in accordance with an operation of the electronic device performed by a user; an output unit (15, 19); and at least one processor, wherein the at least one processor executes: first boot processing which is performed at a predetermined boot time irrespective of a usage state of data in the data region, first output processing of outputting information of a first pattern to the output unit (15, 19) during execution of the first boot processing, second boot processing in which a boot time varies depending on a usage state of the data, and second output processing of outputting information of a second pattern to the output unit (15, 19) until the second boot processing is completed, first boot processing which is performed at a predetermined boot time irrespective of a usage state of data in the data region, first output processing of outputting information of a first pattern to the output unit (15, 19) during execution of the first boot processing, second boot processing in which a boot time varies depending on a usage state of the data, and second output processing of outputting information of a second pattern to the output unit (15, 19) until the second boot processing is completed, wherein, in a case where the data is not stored in the data region, the at least one processor does not cause the information of the second pattern to be output from the output unit (15, 19).