mhurhangee/ep-ind-claims huggingface dataset:
An electric energy storage device comprising: an anode (100, 200, 804) comprising an active material including nanosilicon particles (204, 806), wherein the nanosilicon particles (204, 806) are coated in cyclized polyacrylonitrile; an ionic liquid electrolyte including a bis(fluorosulfonyl)imide (FSI -) anion; a film (102, 812) formed on all exposed surfaces of the anode (100, 200, 804), the film (102, 812) including fluorine, oxygen, sulfur, carbon, and lithium; and a cathode. an anode (100, 200, 804) comprising an active material including nanosilicon particles (204, 806), wherein the nanosilicon particles (204, 806) are coated in cyclized polyacrylonitrile; an ionic liquid electrolyte including a bis(fluorosulfonyl)imide (FSI -) anion; a film (102, 812) formed on all exposed surfaces of the anode (100, 200, 804), the film (102, 812) including fluorine, oxygen, sulfur, carbon, and lithium; and a cathode.
A method comprising: establishing a communications interface between a unified extensible firmware interface and a wireless transceiver of a computing device during a pre-boot phase of an inband processor of the computing device using an out-of-band, OOB, processor of the computing device; and processing data communications between the unified extensible firmware interface and the wireless transceiver during the pre-boot phase using the OOB processor; characterised in that processing data communications comprises receiving, by the OOB processor data communications from the unified extensible firmware interface with a serial hardware interface of the OOB processor, said data communications formatted according to a wired communication standard from the unified extensible firmware interface; reformatting, by the OOB processor the data communications according to a wireless communication standard; and providing, by the OOB processor the data communications formatted in the wireless communication standard to the wireless transceiver; and wherein processing data communications comprises: receiving, by the OOB processor data communications formatted according to a wireless communication standard from the wireless transceiver; reformatting, by the OOB processor the data communications according to a wired communication standard; and providing, by the OOB processor the data communications formatted in the wired communication standard to the unified extensible firmware interface. establishing a communications interface between a unified extensible firmware interface and a wireless transceiver of a computing device during a pre-boot phase of an inband processor of the computing device using an out-of-band, OOB, processor of the computing device; and processing data communications between the unified extensible firmware interface and the wireless transceiver during the pre-boot phase using the OOB processor; characterised in that processing data communications comprises receiving, by the OOB processor data communications from the unified extensible firmware interface with a serial hardware interface of the OOB processor, said data communications formatted according to a wired communication standard from the unified extensible firmware interface; reformatting, by the OOB processor the data communications according to a wireless communication standard; and providing, by the OOB processor the data communications formatted in the wireless communication standard to the wireless transceiver; and wherein processing data communications comprises: receiving, by the OOB processor data communications formatted according to a wireless communication standard from the wireless transceiver; reformatting, by the OOB processor the data communications according to a wired communication standard; and providing, by the OOB processor the data communications formatted in the wired communication standard to the unified extensible firmware interface.
A method for diagnosing an engine or an aircraft, the method comprising: obtaining flight data of at least one of the engine and the aircraft during operation of the engine on the aircraft; characterised in that the method further comprises: obtaining a graph-based representation modeling a mathematical relationship between parameters of at least one of the engine and the aircraft, the graph-based representation having a plurality of permutations (300 1, 300 2, 300 3, 300 4); generating output data from the plurality of permutations (300 1, 300 2, 300 3, 300 4) based on the flight data; comparing the output data generated from the plurality of permutations (300 1, 300 2, 300 3, 300 4) to each other and from said comparing the output data detecting a fault based on a discrepancy in the output data; and outputting a signal indicative of the fault in response to detecting the fault. obtaining flight data of at least one of the engine and the aircraft during operation of the engine on the aircraft; characterised in that the method further comprises: obtaining a graph-based representation modeling a mathematical relationship between parameters of at least one of the engine and the aircraft, the graph-based representation having a plurality of permutations (300 1, 300 2, 300 3, 300 4); generating output data from the plurality of permutations (300 1, 300 2, 300 3, 300 4) based on the flight data; comparing the output data generated from the plurality of permutations (300 1, 300 2, 300 3, 300 4) to each other and from said comparing the output data detecting a fault based on a discrepancy in the output data; and outputting a signal indicative of the fault in response to detecting the fault. obtaining a graph-based representation modeling a mathematical relationship between parameters of at least one of the engine and the aircraft, the graph-based representation having a plurality of permutations (300 1, 300 2, 300 3, 300 4); generating output data from the plurality of permutations (300 1, 300 2, 300 3, 300 4) based on the flight data; comparing the output data generated from the plurality of permutations (300 1, 300 2, 300 3, 300 4) to each other and from said comparing the output data detecting a fault based on a discrepancy in the output data; and outputting a signal indicative of the fault in response to detecting the fault.
A substrate holder for use in a lithographic apparatus and configured to support a substrate, the substrate holder comprising: a main body having a main body surface; and a plurality of burls projecting from the main body surface; wherein each burl has a distal end configured to engage with the substrate; the distal ends of the burls substantially conform to a support plane and are configured for supporting the substrate; a frictional force between the distal end of each burl and the substrate engaged therewith arises in a direction parallel to the support plane; and distal end surfaces of the burls are provided with a release structure configured so that the frictional force is less than would arise in the absence of the release structure, characterised in that the release structure comprises both a layer of diamond-like carbon and a recess in the distal end surface of each burl, wherein the layer of diamond-like carbon comprises at least one additive selected from the group consisting of silicon, nitrogen, molybdenum and fluorine. a main body having a main body surface; and a plurality of burls projecting from the main body surface; wherein each burl has a distal end configured to engage with the substrate; the distal ends of the burls substantially conform to a support plane and are configured for supporting the substrate; a frictional force between the distal end of each burl and the substrate engaged therewith arises in a direction parallel to the support plane; and distal end surfaces of the burls are provided with a release structure configured so that the frictional force is less than would arise in the absence of the release structure, each burl has a distal end configured to engage with the substrate; the distal ends of the burls substantially conform to a support plane and are configured for supporting the substrate; a frictional force between the distal end of each burl and the substrate engaged therewith arises in a direction parallel to the support plane; and distal end surfaces of the burls are provided with a release structure configured so that the frictional force is less than would arise in the absence of the release structure, characterised in that the release structure comprises both a layer of diamond-like carbon and a recess in the distal end surface of each burl, wherein the layer of diamond-like carbon comprises at least one additive selected from the group consisting of silicon, nitrogen, molybdenum and fluorine.
A spray gun comprising: a gun main body; a coating material nozzle (30, 40, 50, 60, 60', 70, 80, 90) attached to a gun barrel part of the gun main body and formed with at least one groove portion on a tip end portion having a coating material ejection opening; and an air cap disposed surrounding the coating material ejection opening of the coating material nozzle, and having a side air hole for ejecting air to intersect with coating material ejected from the coating material ejection opening of the coating material nozzle, characterized in that the coating material nozzle is configured to adjust a position of the at least one groove portion around a central axis of the coating material nozzle at least at the tip end portion of the coating material nozzle. a gun main body; a coating material nozzle (30, 40, 50, 60, 60', 70, 80, 90) attached to a gun barrel part of the gun main body and formed with at least one groove portion on a tip end portion having a coating material ejection opening; and an air cap disposed surrounding the coating material ejection opening of the coating material nozzle, and having a side air hole for ejecting air to intersect with coating material ejected from the coating material ejection opening of the coating material nozzle, characterized in that the coating material nozzle is configured to adjust a position of the at least one groove portion around a central axis of the coating material nozzle at least at the tip end portion of the coating material nozzle.
A compensated microelectromechanical oscillator, comprising: a microelectromechanical resonator to generate an output signal wherein the output signal includes a first frequency; frequency adjustment circuitry, coupled to the microelectromechanical resonator, to generate an output signal having a second frequency using the output signal of the microelectromechanical resonator and a set of values, wherein: i) the frequency adjustment circuitry includes first frequency multiplier circuitry, and ii) the second frequency is greater than the first frequency; and wherein the set of values is determined using the frequency of the output signal of the microelectromechanical resonator. a microelectromechanical resonator to generate an output signal wherein the output signal includes a first frequency; frequency adjustment circuitry, coupled to the microelectromechanical resonator, to generate an output signal having a second frequency using the output signal of the microelectromechanical resonator and a set of values, wherein: i) the frequency adjustment circuitry includes first frequency multiplier circuitry, and ii) the second frequency is greater than the first frequency; and i) the frequency adjustment circuitry includes first frequency multiplier circuitry, and ii) the second frequency is greater than the first frequency; and wherein the set of values is determined using the frequency of the output signal of the microelectromechanical resonator.
Spring hinge intended to hinge together a side arm and a front piece of a frame for spectacles, comprising a swivel piece having a front pivoting end and a rear wall; said swivel piece is provided with an open cavity which receives, seated inside it, an anchoring element which has, fitted thereon, elastic means acting between a front end portion of the anchoring element and said rear wall; said spring hinge being characterized in that the anchoring element is seated inside said cavity so that a rear portion thereof projects from the swivel piece through a recess formed in the rear wall of the swivel piece; the recess being open on one of its side, wherein the front end portion of the anchoring element is intended to bear, through the action of the elastic means, against a front wall of the cavity when the hinge is in a rest condition; the front end portion of the anchoring element having a prismatic shape and being intended to be inserted slidably inside a seat formed in the front wall of the cavity.
Method of operating a hearing device system, wherein according to the method - an information characteristic of an encounter between a hearing device wearer and another person is received, - based on the information, a present or imminent encounter of the hearing device wearer with the other person is inferred, - a background information about the other person is collected from at least one social network, - the background information about the other person is converted into audio data, and - the audio data is presented acoustically to the hearing device wearer by means of the hearing device of the hearing device wearer, wherein an identifier transmitted during a logon of an electronic device, in particular of a mobile device, of the other person to a local network of the hearing device wearer is used as characteristic information for the encounter, or wherein an upcoming event stored in an electronic calendar of the hearing device wearer is used as characteristic information for the encounter. - an information characteristic of an encounter between a hearing device wearer and another person is received, - based on the information, a present or imminent encounter of the hearing device wearer with the other person is inferred, - a background information about the other person is collected from at least one social network, - the background information about the other person is converted into audio data, and - the audio data is presented acoustically to the hearing device wearer by means of the hearing device of the hearing device wearer, wherein an identifier transmitted during a logon of an electronic device, in particular of a mobile device, of the other person to a local network of the hearing device wearer is used as characteristic information for the encounter, or wherein an upcoming event stored in an electronic calendar of the hearing device wearer is used as characteristic information for the encounter. wherein an identifier transmitted during a logon of an electronic device, in particular of a mobile device, of the other person to a local network of the hearing device wearer is used as characteristic information for the encounter, or wherein an upcoming event stored in an electronic calendar of the hearing device wearer is used as characteristic information for the encounter.
Breastpump unit for expressing human breastmilk, wherein the breastpump unit has a breastshield for placing on a human mother's breast and having an interior for receiving the mother's breast, a vacuum pump for generating an underpressure, and a suction line, wherein the suction line connects the breastshield to the vacuum pump and wherein the suction line transfers to the interior of the breastshield the underpressure generated by the vacuum pump, wherein the breastpump unit also has a pressure sensor, characterized in that a measuring line is additionally present, and in that the measuring line extends from the breastshield to the pressure sensor and that it serves to determine a pressure in the interior.
An at least partially acoustically sealing element for retaining an in-the-ear device within an ear canal, characterized in that: the element has a dome-like shape and comprises at least one textile layer made out of thermoplastic fiber materials that is shaped to the dome-like shape by means of thermoforming.
A method for processing a Secondary Node Radio Resource Control, SN RRC, message, characterized by comprising: when it is determined, by User Equipment, UE, that a triggering condition is satisfied, performing, by the UE, a first Primary Secondary Cell, PSCell, change; and stopping, by the UE, receiving a first SN RRC message from a source Secondary Node, SN, during the first PSCell change. when it is determined, by User Equipment, UE, that a triggering condition is satisfied, performing, by the UE, a first Primary Secondary Cell, PSCell, change; and stopping, by the UE, receiving a first SN RRC message from a source Secondary Node, SN, during the first PSCell change.
A method of construction of an energy-efficient building whereby a multi-layer thermal insulation material consisting of multiple layers of aluminium foil treated against oxidation, multiple layers of fire-retardant polyethylene and of a layer of fire-retardant and water-repellent polyethylene foam and a covering layer is installed on the internal face of the external wall of the building, whereby the multi-layer thermal insulation material consists of layers installed in their order of appearance: - layer of aluminium foil; - layer of fire-retardant polyethylene having gaps filled with dry air; - layer of aluminium foil; - layer of fire-retardant and water-repelling polyethylene foam; - layer of aluminium foil; - layer of fire-retardant polyethylene having gaps filled with dry air; - layer of aluminium foil; characterized in that the layers of aluminium foil are equipotentially grounded and the multi-layer thermal insulation material is bonded in a moisture resistant and airtight mannerto the whole surface of the internal face of the external wall, and the functionally necessary temperature and relative moisture of the indoor space are controlled by an air-conditioning system without respect to thermal inertia or to inertia related to the moisture content of the external wall. - layer of aluminium foil; - layer of fire-retardant polyethylene having gaps filled with dry air; - layer of aluminium foil; - layer of fire-retardant and water-repelling polyethylene foam; - layer of aluminium foil; - layer of fire-retardant polyethylene having gaps filled with dry air; - layer of aluminium foil;
A method of launching atoms in an atom interferometer, the method comprising: determining a direction of the total effective acceleration force on the atoms based on readings from a non-atomic type accelerometer that is subject to the same input motion as the atomic interferometer; adaptively controlling a direction of launch of the atoms for measurement in the atom interferometer based on the direction of the total effective acceleration force using one or both of a set of optical molasses lasers and a magneto-optical trap; and obtaining output measurements based on the readings from the atom interferometer. determining a direction of the total effective acceleration force on the atoms based on readings from a non-atomic type accelerometer that is subject to the same input motion as the atomic interferometer; adaptively controlling a direction of launch of the atoms for measurement in the atom interferometer based on the direction of the total effective acceleration force using one or both of a set of optical molasses lasers and a magneto-optical trap; and obtaining output measurements based on the readings from the atom interferometer.
An analyzer comprising: a specimen conveying device configured to convey a rack holding a specimen container via a conveyance path; a sample container transfer section comprising a movement portion which is arranged at a position higher than an upper end position of the specimen container held by the rack on the conveyance path and which is provided with a specimen holder configured to hold either of the specimen container held by the rack and a priority specimen container accommodating a priority measurement specimen to be measured in preference to a specimen accommodated in the specimen container held by the rack; and a hand portion configured to transfer the specimen container from the rack on the conveyance path to the specimen holder on the movement portion, wherein: the movement portion is configured to be moved in a horizontal direction (y) intersecting with the conveyance path, while continuing a conveying operation of the rack by the specimen conveying device, so that the specimen holder is conveyed to a specimen aspiration position from a position where either of the specimen container held by the rack and the priority specimen container is set on the specimen holder, characterised in that: the movement portion is configured to move the specimen holder so as to be orthogonal to the conveyance path in plan view. a specimen conveying device configured to convey a rack holding a specimen container via a conveyance path; a sample container transfer section comprising a movement portion which is arranged at a position higher than an upper end position of the specimen container held by the rack on the conveyance path and which is provided with a specimen holder configured to hold either of the specimen container held by the rack and a priority specimen container accommodating a priority measurement specimen to be measured in preference to a specimen accommodated in the specimen container held by the rack; and a hand portion configured to transfer the specimen container from the rack on the conveyance path to the specimen holder on the movement portion, wherein: the movement portion is configured to be moved in a horizontal direction (y) intersecting with the conveyance path, while continuing a conveying operation of the rack by the specimen conveying device, so that the specimen holder is conveyed to a specimen aspiration position from a position where either of the specimen container held by the rack and the priority specimen container is set on the specimen holder, characterised in that: the movement portion is configured to move the specimen holder so as to be orthogonal to the conveyance path in plan view.
A three-terminal device having a circuit main-unit sealed by mold material and three terminals: a power-supply terminal, a ground terminal, and an input-and-output terminal, that connect the circuit main-unit and an external circuit, the three-terminal device being characterized in that the circuit main-unit comprises: a functional circuit; a burst detecting circuit adapted to detect, from a predetermined terminal of any of the three terminals, a write activation burst of a prescribed burst signal having a length that is larger than or equal to a prescribed time; data-reception permitting means adapted to put the circuit main-unit into an input-enable state in which setting data can be input, when the write activation burst is detected; and data storing means adapted to store, in the input-enable state, setting data input from the predetermined terminal; wherein an operation state of the functional circuit is set in accordance with information of the setting data written to the data storing means. a functional circuit; a burst detecting circuit adapted to detect, from a predetermined terminal of any of the three terminals, a write activation burst of a prescribed burst signal having a length that is larger than or equal to a prescribed time; data-reception permitting means adapted to put the circuit main-unit into an input-enable state in which setting data can be input, when the write activation burst is detected; and data storing means adapted to store, in the input-enable state, setting data input from the predetermined terminal; wherein an operation state of the functional circuit is set in accordance with information of the setting data written to the data storing means.