mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting a piezoelectric crystal in an object to be inspected by using an electric near-field probe , wherein: the electric near-field probe comprises a series resonance circuit having a predetermined resonance frequency and comprising a capacitor and an inductor connected in series, the capacitor being constructed such that a space between two metal plates (111a, b) arranged in parallel to each other is filled with a dielectric material or air, the method comprising transmitting an electric field from the capacitor , generated when an alternating voltage is applied to the series resonance circuit, to the object to be inspected so that the piezoelectric crystal is excited and, at the same time, receiving by the capacitor a piezoelectric effect signal generated from the excited piezoelectric crystal so that the piezoelectric effect signal is detected by the series resonance circuit; characterized in that : the inductor is constructed such that a lead wire is wound around a toroidal core; the object to be inspected not being inserted between the two metal plates (111a, b) of the capacitor ; and in that said electric field from the capacitor , is the electric near-field originating from a leakage electric field generated when the alternating voltage is applied to the series resonance circuit. the electric near-field probe comprises a series resonance circuit having a predetermined resonance frequency and comprising a capacitor and an inductor connected in series, the capacitor being constructed such that a space between two metal plates (111a, b) arranged in parallel to each other is filled with a dielectric material or air, the method comprising transmitting an electric field from the capacitor , generated when an alternating voltage is applied to the series resonance circuit, to the object to be inspected so that the piezoelectric crystal is excited and, at the same time, receiving by the capacitor a piezoelectric effect signal generated from the excited piezoelectric crystal so that the piezoelectric effect signal is detected by the series resonance circuit; characterized in that : the inductor is constructed such that a lead wire is wound around a toroidal core; the object to be inspected not being inserted between the two metal plates (111a, b) of the capacitor ; and in that said electric field from the capacitor , is the electric near-field originating from a leakage electric field generated when the alternating voltage is applied to the series resonance circuit. the inductor is constructed such that a lead wire is wound around a toroidal core; the object to be inspected not being inserted between the two metal plates (111a, b) of the capacitor ; and in that said electric field from the capacitor , is the electric near-field originating from a leakage electric field generated when the alternating voltage is applied to the series resonance circuit.
A smart card (100, 200, 300-500, 900), comprising a tactile sensing user interface , wherein said tactile sensing user interface is adapted to capture a stream of position data corresponding to a sequence of positions of a finger engaging with said tactile sensing user interface and representing a stream of input data for a host application running on a data processing device comprised in a host system , wherein said smart card (100, 200, 300-500, 900) is adapted to transmit said stream of position data to said host system for further processing, wherein, during an authentication of a user, the smart card is adapted to utilize data entry in handwritten format, wherein the smart card (100, 200, 300-500, 900) is adapted to decode handwritten user input data based on a tactile pattern recognition process that is implemented on the smart card, characterised in that the smart card is further adapted to store tactile reference patterns in a secure environment of a secure element provided on the smart card, wherein only reference patterns required for a PIN-code authentication are executed on the smart card and only the pattern recognition required for user authentication is executed on the smart card, and in that the smart card (100, 200, 300-500, 900) is adapted to enable the transfer of the stream of position data to the host system by successful authentication, and to send all subsequent position data for recognition or processing to the host application on the host system .
The compound 3-(3-(4-((6-fluoropyridin-2-yl)oxy)benzyl)isoxazol-5-yl)pyridin-2-amine, or a pharmaceutically acceptable salt, solvate, hydrate, tautomer, or an isotopic variant thereof.
An equalizer controlling method comprising: classifying an audio signal so as to identify the audio type of the audio signal in real time; and adjusting an equalizer in a continuous manner based on a confidence value of the audio type as identified, wherein the audio signal is classified into multiple audio types with corresponding confidence values, and the adjusting operation is configured to consider at least some of the multiple audio types through weighting the confidence values of the multiple audio types based on the importance of the multiple audio types. classifying an audio signal so as to identify the audio type of the audio signal in real time; and adjusting an equalizer in a continuous manner based on a confidence value of the audio type as identified, wherein the audio signal is classified into multiple audio types with corresponding confidence values, and the adjusting operation is configured to consider at least some of the multiple audio types through weighting the confidence values of the multiple audio types based on the importance of the multiple audio types.
A computing apparatus configured to be clocked by signal edges from a power supply line, comprising an edge-triggered computing unit configured to be clocked to perform computing by the signal edges from the power supply line, and configured to output computing results for an LED driver; characterised in that it further comprises a charging unit configured to supply power to the edge-triggered computing unit based on the signals from the power supply line, where the charging unit is configured to be charged if the signal from the power supply line is at a high voltage and discharged if the signal from the power supply line is at a low voltage; and an initialization unit configured to initialize the edge-triggered computing unit based on the voltage of said power supplied by the charging unit , when the voltage of the power supplied by the charging unit arrives at a high voltage. an edge-triggered computing unit configured to be clocked to perform computing by the signal edges from the power supply line, and configured to output computing results for an LED driver; characterised in that it further comprises a charging unit configured to supply power to the edge-triggered computing unit based on the signals from the power supply line, where the charging unit is configured to be charged if the signal from the power supply line is at a high voltage and discharged if the signal from the power supply line is at a low voltage; and an initialization unit configured to initialize the edge-triggered computing unit based on the voltage of said power supplied by the charging unit , when the voltage of the power supplied by the charging unit arrives at a high voltage.
A method of manufacturing a fuel element configured for use in a high-temperature gas cooled reactor core, the method comprising: forming a graphite base portion of the fuel element; forming a fuel zone of the fuel element, comprising: forming a first graphite layer on the graphite base portion; depositing a first layer of particles on the first graphite layer by controlling the positioning of each particle within the first layer of particles; forming a second graphite layer on the first layer of particles; and depositing a second layer of particles on the second graphite layer by controlling the positioning of each particle within the second layer of particle; and forming a graphite cap portion of the fuel element, wherein the particles in the first layer of particles and the second layer of particles are one or more of fuel particles, burnable poison particles, and breeder particles. forming a graphite base portion of the fuel element; forming a fuel zone of the fuel element, comprising: forming a first graphite layer on the graphite base portion; depositing a first layer of particles on the first graphite layer by controlling the positioning of each particle within the first layer of particles; forming a second graphite layer on the first layer of particles; and depositing a second layer of particles on the second graphite layer by controlling the positioning of each particle within the second layer of particle; and forming a graphite cap portion of the fuel element, forming a first graphite layer on the graphite base portion; depositing a first layer of particles on the first graphite layer by controlling the positioning of each particle within the first layer of particles; forming a second graphite layer on the first layer of particles; and depositing a second layer of particles on the second graphite layer by controlling the positioning of each particle within the second layer of particle; and forming a graphite cap portion of the fuel element, wherein the particles in the first layer of particles and the second layer of particles are one or more of fuel particles, burnable poison particles, and breeder particles.
An agricultural baler , comprising: - a main bale chamber ; - a plunger reciprocally movable within the main bale chamber during a compression stroke and a return stroke; - a flywheel associated with the plunger ; and - a driveline associated with the flywheel and couplable with a power take-off (PTO) of a traction unit; - an auxiliary power system (APS) coupled with the driveline ; - an electrical processing circuit coupled with the APS , said electrical processing circuit being operable to control operation of the APS to rotate the flywheel upon start up of the baler ; characterized by: - the auxiliary power system (APS) being configured for receiving power from the driveline , storing the power, and transmitting the stored power back to the driveline ; - a PTO indicator providing an output signal representing an engagement of the PTO, and wherein the electrical processing circuit is operable to start rotation of the flywheel , dependent on the output signal from the PTO indicator . - a main bale chamber ; - a plunger reciprocally movable within the main bale chamber during a compression stroke and a return stroke; - a flywheel associated with the plunger ; and - a driveline associated with the flywheel and couplable with a power take-off (PTO) of a traction unit; - an auxiliary power system (APS) coupled with the driveline ; - an electrical processing circuit coupled with the APS , said electrical processing circuit being operable to control operation of the APS to rotate the flywheel upon start up of the baler ; - the auxiliary power system (APS) being configured for receiving power from the driveline , storing the power, and transmitting the stored power back to the driveline ; - a PTO indicator providing an output signal representing an engagement of the PTO, and wherein the electrical processing circuit is operable to start rotation of the flywheel , dependent on the output signal from the PTO indicator .
An embolic material delivery assembly (10; 110; 210; 310; 410), comprising: an outer member having a lumen extending therein and a distal end region; an inner member (22; 322; 422) disposed within the lumen of the outer member , wherein the inner member (22; 322; 422) includes a first lumen (26; 326) extending therein; a first embolic material extending within the first lumen (26; 326) of the inner member (22; 322; 422), the embolic material having a first distal end region; and an anchor (36; 136; 236; 336; 446) disposed within the lumen of the outer member , the anchor (36; 136; 236; 336; 446) having a first attachment region; wherein the first distal end region of the first embolic material is coupled to the first attachment region of the anchor (36; 136; 236; 336; 446); and a second embolic material ; characterised in that the inner member (22; 322; 422) includes a second lumen (28; 328) extending therein, and wherein the second embolic material extends within the second lumen (28; 328) of the inner member (22; 322; 422). an outer member having a lumen extending therein and a distal end region; an inner member (22; 322; 422) disposed within the lumen of the outer member , wherein the inner member (22; 322; 422) includes a first lumen (26; 326) extending therein; a first embolic material extending within the first lumen (26; 326) of the inner member (22; 322; 422), the embolic material having a first distal end region; and an anchor (36; 136; 236; 336; 446) disposed within the lumen of the outer member , the anchor (36; 136; 236; 336; 446) having a first attachment region; wherein the first distal end region of the first embolic material is coupled to the first attachment region of the anchor (36; 136; 236; 336; 446); and a second embolic material ; characterised in that the inner member (22; 322; 422) includes a second lumen (28; 328) extending therein, and wherein the second embolic material extends within the second lumen (28; 328) of the inner member (22; 322; 422).
A magnetron comprising: an anode cylinder which has a cylindrical shape with both ends opened and which comprises a plurality of vanes radially provided on an inner wall surface thereof; a pair of pole pieces positioned in openings of the both ends of the anode cylinder ; and metal sleeves which are positioned outside the pair of pole pieces and configured to air-tightly seal the anode cylinder , and each of which comprises a cylinder part , a flange part continuous with the cylinder part , and a plurality of protrusions ; characterized in that : the plurality of protrusions are provided on an edge portion located, where the cylinder part continues with the flange part ; and the plurality of protrusions are not extending to a surface of contact between the flange part and each pole piece , whereby the cylinder part is prevented from sinking in a falling part of the pole piece. an anode cylinder which has a cylindrical shape with both ends opened and which comprises a plurality of vanes radially provided on an inner wall surface thereof; a pair of pole pieces positioned in openings of the both ends of the anode cylinder ; and metal sleeves which are positioned outside the pair of pole pieces and configured to air-tightly seal the anode cylinder , and each of which comprises a cylinder part , a flange part continuous with the cylinder part , and a plurality of protrusions ; characterized in that : the plurality of protrusions are provided on an edge portion located, where the cylinder part continues with the flange part ; and the plurality of protrusions are not extending to a surface of contact between the flange part and each pole piece , whereby the cylinder part is prevented from sinking in a falling part of the pole piece. the plurality of protrusions are provided on an edge portion located, where the cylinder part continues with the flange part ; and the plurality of protrusions are not extending to a surface of contact between the flange part and each pole piece , whereby the cylinder part is prevented from sinking in a falling part of the pole piece.
A method of forming a soft magnetic bulk material of a predetermined shape from a magnetic material and a non-magnetic material, wherein the magnetic material comprises coated iron particles, the method comprising: providing a reservoir adapted to contain the soft magnetic bulk material of the predetermined shape; providing a heat source; and heating the magnetic material and the non-magnetic material in the reservoir to an ignition temperature of a thermite reaction thus forming the soft magnetic bulk material of a predetermined shape wherein the soft magnetic bulk material of a predetermined shape has domains formed from the magnetic material with insulating boundaries formed from the reaction. providing a heat source; and heating the magnetic material and the non-magnetic material in the reservoir to an ignition temperature of a thermite reaction thus forming the soft magnetic bulk material of a predetermined shape wherein the soft magnetic bulk material of a predetermined shape has domains formed from the magnetic material with insulating boundaries formed from the reaction.
Apparatus for monitoring foaming having a foam riser column and a foam collecting column , wherein upper ends of the foam riser column and the foam collecting column are in fluid communication via a conduit , wherein the foam riser column has a solvent inlet and a gas inlet which is arranged below the solvent inlet and is connected to a gas diffuser , wherein a transparent level indicator is provided at least along the foam riser column , and wherein the conduit has a U-shape, characterized in that the foam riser column has at least one side foam sampling point arranged above the solvent inlet, and the foam riser column and the foam collecting column have a different height, wherein the height of the foam riser column is higher than the height of the foam collecting column . the foam riser column has at least one side foam sampling point arranged above the solvent inlet, and the foam riser column and the foam collecting column have a different height, wherein the height of the foam riser column is higher than the height of the foam collecting column .
A gearless wind turbine comprising a tower at the top of which a nacelle is arranged, in which a rotor hub is arranged, which carries rotor blades at its one end and the other end of which is assigned to a generator for power generation, wherein the rotor hub is mounted in the nacelle in a rotationally movable manner via a bearing element , - wherein further the bearing element is a sliding bearing with sliding bearing pads comprising an outer, rotationally movable ring element and an inner, stationary ring element , characterized in that - the sliding bearing comprises two plain bearings arranged at an axial distance, - the two plain bearings are arranged in two different planes, which enclose an angle together, - at least one of the two plain bearings comprises the sliding bearing pads , - the sliding bearing pads are arranged on the outer, rotationally movable ring element , wherein the outer ring element is connected to the rotor hub via a fastening arrangement , - wherein the sliding bearing pads in the sliding bearing are arranged and connected such that the exchange of individual sliding bearing pads is possible, the outer ring element having grooves on the side facing the sliding bearing pads and the sliding bearing pads being partially arranged within said grooves for this purpose, and the sliding bearing pads being fastened to the outer ring element by a releasable, common fastening element , or that the sliding bearing pads are fastened to the outer ring element by means of clamping elements. - wherein further the bearing element is a sliding bearing with sliding bearing pads comprising an outer, rotationally movable ring element and an inner, stationary ring element , - the sliding bearing comprises two plain bearings arranged at an axial distance, - the two plain bearings are arranged in two different planes, which enclose an angle together, - at least one of the two plain bearings comprises the sliding bearing pads , - the sliding bearing pads are arranged on the outer, rotationally movable ring element , wherein the outer ring element is connected to the rotor hub via a fastening arrangement , - wherein the sliding bearing pads in the sliding bearing are arranged and connected such that the exchange of individual sliding bearing pads is possible, the outer ring element having grooves on the side facing the sliding bearing pads and the sliding bearing pads being partially arranged within said grooves for this purpose,
A hollow cylindrical adsorption rotor rotating about a cylinder axis (C), the adsorption rotor comprising: a plurality of adsorption element blocks loaded with adsorption elements through which gas can pass; and a plurality of partition parts through which no gas can pass, wherein the adsorption element blocks and the partition parts are arranged alternately in a circumferential direction about the cylinder axis, and each of the adsorption element blocks comprises a housing that has an introduction opening and a discharge opening ; and an adsorption element which is loaded in the housing , and allows gas to pass through this adsorption element , wherein the housing allows all the gas introduced from the introduction opening to pass through the adsorption element and subsequently be discharged through the discharge opening , the adsorption element includes an activated-carbon-fiber nonwoven fabric , and measured in accordance with the description, the activated-carbon-fiber nonwoven fabric has a total weight per unit area of 600 to 6,000 g/m 2 , a toluene adsorption rate of 25 to 75 wt%, and a fiber diameter of 15 to 120 μm. a plurality of adsorption element blocks loaded with adsorption elements through which gas can pass; and a plurality of partition parts through which no gas can pass, wherein the adsorption element blocks and the partition parts are arranged alternately in a circumferential direction about the cylinder axis, and each of the adsorption element blocks comprises a housing that has an introduction opening and a discharge opening ; and an adsorption element which is loaded in the housing , and allows gas to pass through this adsorption element , wherein the housing allows all the gas introduced from the introduction opening to pass through the adsorption element and subsequently be discharged through the discharge opening , the adsorption element includes an activated-carbon-fiber nonwoven fabric , and measured in accordance with the description, the activated-carbon-fiber nonwoven fabric has a total weight per unit area of 600 to 6,000 g/m 2 , a toluene adsorption rate of 25 to 75 wt%, and a fiber diameter of 15 to 120 μm.
A wave guide for an array antenna , the wave guide comprising: a mounting portion configured to receive a plurality of radar antennas of the array antenna , the mounting portion comprising a respective receiving position for each radar antenna of the array antenna ; a set of elongate members spaced from the mounting portion , each elongate member including a series of apertures arranged along the elongate member , wherein each elongate member extends orthogonally to an adjacent elongate member of the set; and a plurality of guide channels , each guide channel extending between a respective one or more receiving positions of the mounting portion and a respective one or more apertures of the elongate members to connect, in use, one or more of the radar antennas to one or more of the apertures . a mounting portion configured to receive a plurality of radar antennas of the array antenna , the mounting portion comprising a respective receiving position for each radar antenna of the array antenna ; a set of elongate members spaced from the mounting portion , each elongate member including a series of apertures arranged along the elongate member , wherein each elongate member extends orthogonally to an adjacent elongate member of the set; and a plurality of guide channels , each guide channel extending between a respective one or more receiving positions of the mounting portion and a respective one or more apertures of the elongate members to connect, in use, one or more of the radar antennas to one or more of the apertures .