mhurhangee/patent-ind-claim-en huggingface dataset:
Wind power plant for power generation by way of head-on incident flow having a stator and at least one generator which is driven by way of a vertical rotor , the vertical rotor being connected to the stator such that it can be rotated about a vertical rotational axis (X), at least three rotor blades which are fastened by means of a connecting apparatus being arranged on the vertical rotor , the rotor blades being oriented on the connecting apparatus for an identical rotational direction (D), and the stator having an inlet surface construction with at least four inner faces which frame the vertical rotor , the rotor blades being of wing-like configuration in horizontal cross section, and the inlet surface construction having two vertically arranged stator blades which lie opposite one another and are wing-like in horizontal cross section, and two horizontally arranged stator blades which lie opposite one another, the stator blades being configured and arranged in such a way that they accelerate an air flow which is produced by way of the head-on incident flow and flows through the inlet surface construction of the stator at least in an edge region which runs along the inner faces of the vertically arranged stator blades , the edge region having a width which runs horizontally and perpendicularly with respect to the head-on incident flow and is less than or equal to a magnitude of a section of the vertically arranged stator blades which is widest horizontally and perpendicularly with respect to the head-on incident flow , the rotor blades being arranged and configured on an outer edge of the vertical rotor in such a way that the rotor blades dip completely into the respective edge region of the stator during a rotation of the vertical rotor , characterized in that the stator blades of the inlet surface construction in each case have, in a basic state, a wing side which lies radially on the outside with respect to the rotational axis (X) and the inner face which lies radially on the inside with respect to the rotational axis (X) and is configured as a wing side, the inner faces which lie radially on the inside with respect to the rotational axis (X) being fixed, and the wing sides of the stator blades , which wing sides in each case lie radially on the outside with respect to the rotational axis (X), are pivotable in a pivoting state in each case about a longitudinal edge of the respective stator blades in the inlet region of the head-on incident flow , in order to form a funnel .
A composite monocrystalline film, comprising: a substrate ; a first isolation layer disposed on the substrate; a first film layer ( disposed on the first isolation layer; and a second film layer disposed on the first film layer, wherein the first film layer is a lithium niobate or lithium tantalate monocrystalline film layer, and the second film layer is a silicon monocrystalline film layer, wherein a first transition layer is formed between the substrate and the first isolation layer, a second transition layer is formed between the first isolation layer and the first film layer and a third transition layer is formed between the first film layer and the second film layer, wherein, the first transition layer, second transition layer and third transition layer include elements H and Ar, the Ar element in the second transition layer and third transition layer is derived from a plasma used in the plasma bonding between the first isolation layer and the first film layer or between the first film layer and the second film layer 140, the element H in the first transition layer is derived from the diffusion of the element H in the second transition layer and third transition layer ; wherein the concentration of H in the first transition layer, second transition layer and third transition layer ranges from 1 × 10 19 to 1 × 10 22 atoms/cc. a substrate ; a first isolation layer disposed on the substrate; a first film layer ( disposed on the first isolation layer; and a second film layer disposed on the first film layer, wherein the first film layer is a lithium niobate or lithium tantalate monocrystalline film layer, and the second film layer is a silicon monocrystalline film layer, wherein a first transition layer is formed between the substrate and the first isolation layer, a second transition layer is formed between the first isolation layer and the first film layer and a third transition layer is formed between the first film layer and the second film layer, wherein, the first transition layer, second transition layer and third transition layer include elements H and Ar, the Ar element in the second transition layer and third transition layer is derived from a plasma used in the plasma bonding between the first isolation layer and the first film layer or between the first film layer and the second film layer 140, the element H in the first transition layer is derived from the diffusion of the element H in the second transition layer and third transition layer ; wherein the concentration of H in the first transition layer, second transition layer and third transition layer ranges from 1 × 10 19 to 1 × 10 22 atoms/cc.
A method of mass spectrometry comprising: subjecting biomolecular ions to Hydrogen-Deuterium exchange to form first ions; and then causing said first ions to at least partially unfold or alter their conformation to form second ions by either: (i) subjecting said first ions or ions derived from said first ions to IR, visible or UV photo-activation; and/or (ii) exposing said first ions or ions derived from said first ions to acidic vapours or supercharging said ions; and mass analysing said second ions. subjecting biomolecular ions to Hydrogen-Deuterium exchange to form first ions; and then causing said first ions to at least partially unfold or alter their conformation to form second ions by either: (i) subjecting said first ions or ions derived from said first ions to IR, visible or UV photo-activation; and/or (ii) exposing said first ions or ions derived from said first ions to acidic vapours or supercharging said ions; and (i) subjecting said first ions or ions derived from said first ions to IR, visible or UV photo-activation; and/or (ii) exposing said first ions or ions derived from said first ions to acidic vapours or supercharging said ions; and mass analysing said second ions.
A compound for use in a method of treating head and neck squamous cell carcinoma (HNSCC) in a patient, wherein the patient has a H-Ras mutation, wherein the H-Ras mutation results in the activation of the H-Ras protein, wherein the compound is tipifarnib, and wherein said HNSCC is metastatic, recurrent or refractory.
A health monitoring method for a permanent magnet electric machine, where the electric machine comprises a rotor with a number of permanent magnets, and a stator with stator teeth, and where at least a first search coil is arranged on a first of the stator teeth, where the method comprises the following steps: I) Initial steps: - establishing a state baseline based on one of the following: i) a predefined state baseline, and ii) a current state for the PM electric machine in faultless operation, where the current state is established by the steps below of preprocessing, filtering, extracting, and establishing the current state; II) Operational steps: - preprocessing an analogue search coil signal from each search coil by applying an anti-aliasing filter providing an anti-aliased search coil signal, and converting the anti-aliased search coil signal to a digital search coil signal; - filtering the digital search coil signal by a band-pass analytic Hilbert filter, providing an analytic search coil signal; - extracting features from the analytic search coil signal; - establishing a current state based on the extracted features; - monitoring the health of the permanent magnet electric machine based on the current state and the state baseline. I) Initial steps: - establishing a state baseline based on one of the following: i) a predefined state baseline, and ii) a current state for the PM electric machine in faultless operation, where the current state is established by the steps below of preprocessing, filtering, extracting, and establishing the current state; - establishing a state baseline based on one of the following: i) a predefined state baseline, and ii) a current state for the PM electric machine in faultless operation, where the current state is established by the steps below of preprocessing, filtering, extracting, and establishing the current state; II) Operational steps: - preprocessing an analogue search coil signal from each search coil by applying an anti-aliasing filter providing an anti-aliased search coil signal, and converting the anti-aliased search coil signal to a digital search coil signal; - filtering the digital search coil signal by a band-pass analytic Hilbert filter, providing an analytic search coil signal; - extracting features from the analytic search coil signal; - establishing a current state based on the extracted features; - monitoring the health of the permanent magnet electric machine based on the current state and the state baseline. - preprocessing an analogue search coil signal from each search coil by applying an anti-aliasing filter providing an anti-aliased search coil signal, and converting the anti-aliased search coil signal to a digital search coil signal; - filtering the digital search coil signal by a band-pass analytic Hilbert filter, providing an analytic search coil signal; - extracting features from the analytic search coil signal; - establishing a current state based on the extracted features; - monitoring the health of the permanent magnet electric machine based on the current state and the state baseline.
A method of manufacturing a wrapped object comprising a first tubular segment having a radius of curvature R, and a second end segment a having a central portion which has a radius of curvature R" larger than R, the first and second segments being connected to each other by a curved transition segment having a radius of curvature smaller than R, the curved transition segment having a common tangent with the first segment and a common tangent with the second segment, respectively, e.g. a fillet joint, wherein the method comprises a step of providing a mandrel with a surface structure to define at least part of the shape of the first segment , of the shape of the second segment and of the shape of the transition segment in between, e.g. corresponding to those respective shapes, wherein the mandrel comprises an inflatable portion and/or a dissolvable portion, such as, respectively, an inflatable bladder , a dissolvable foam and/or a combination thereof, and a step of wrapping, e.g. winding, one or more elongate elements , such as filaments and/or tapes, over the mandrel and bonding the one or more elongate elements to itself and/or each other so as to provide the first segment , the second segment and the transition segment as a continuous structure, characterised in that the mandrel is provided with a fortification at least at the position of the transition segment, the fortification being configured to support the one or more elongate elements forming the transition segment against inward-directed forces, with respect to the direction of curvature of the transition segment, while wrapping and/or bonding the one or more elongate elements to form the transition segment.
A valve including a first port , a second port , and a flexure assembly including a flexure , wherein at least a part of the flexure is magnetisable, to provide a first magnet , a second magnet is associated with the first port and a third magnet is associated with the second port ; characterized in that the valve includes a third port , and the flexure assembly includes a pair of moveable members which are located towards a distal end of the flexure , each of the moveable members being carried by the flexure , the flexure being moveable between a first position in which the first moveable member acts upon a first valve member , to move the first valve member against the biasing force of a first biasing member , away from a first valve seat , which causes the first port to open, a second position in which the second moveable member acts upon a second valve member , to move the second valve member against the biasing force of a second biasing member , away from a second valve seat , which causes the second port to open, and a third position which causes the first and second ports to close.
A data management device for managing timings at which a plurality of communication terminals , which transmit a plurality of pieces of device data output by a plurality of communication devices to a base station via a wireless communication circuit, transmit the plurality of pieces of device data, the data management device comprising: a timing determination unit configured to determine a timing at which each of the plurality of communication terminals transmits, to the data management device , the plurality of pieces of device data corresponding to a plurality of types of applications executed on the plurality of communication devices and output by the plurality of communication devices that include a sensor respectively; and a communication control unit configured to transmit timing information indicating the timing acquired by the timing determination unit to the each of the plurality of communication terminals and receive, from the plurality of communication terminals , the plurality of pieces of device data that is transmitted based on the timing information, characterized in that the communication control unit is configured to acquire a priority of device data scheduled to be transmitted by each of the plurality of communication terminals and transmit the timing information during a time period when a proportion of device data, which have the priority higher than a prescribed priority and are scheduled to be transmitted during the time period, to the device data which are scheduled to be transmitted during the time period, is greater than a prescribed value. a timing determination unit configured to determine a timing at which each of the plurality of communication terminals transmits, to the data management device , the plurality of pieces of device data corresponding to a plurality of types of applications executed on the plurality of communication devices and output by the plurality of communication devices that include a sensor respectively; and a communication control unit configured to transmit timing information indicating the timing acquired by the timing determination unit to the each of the plurality of communication terminals and receive, from the plurality of communication terminals , the plurality of pieces of device data that is transmitted based on the timing information, characterized in that the communication control unit is configured to acquire a priority of device data scheduled to be transmitted by each of the plurality of communication terminals and transmit the timing information during a time period when a proportion of device data, which have the priority higher than a prescribed priority and are scheduled to be transmitted during the time period, to the device data which are scheduled to be transmitted during the time period, is greater than a prescribed value.
A process monitoring system for monitoring an industrial process, said process monitoring system comprising a main sensor and at least one additional sensor separate from the main sensor , wherein the process monitoring system furthermore comprises a data evaluation unit separate from the sensors, wherein the main sensor and the additional sensor are each configured to acquire measurement data, wherein the main sensor is coupled to the additional sensor via a first data link and is configured to receive the measurement data of the additional sensor via the first data link , wherein the main sensor is coupled to the data evaluation unit via a second data link and is configured to transmit its own measurement data and the measurement data of the additional sensor to the data evaluation unit via the second data link , characterized in that the first data link is configured to transmit measurement data by means of pulse sequences and the first data link comprises an S0 pulse interface and a data transmission by means of M-Bus and/or by means of Smart Message Language. wherein the main sensor and the additional sensor are each configured to acquire measurement data, wherein the main sensor is coupled to the additional sensor via a first data link and is configured to receive the measurement data of the additional sensor via the first data link , wherein the main sensor is coupled to the data evaluation unit via a second data link and is configured to transmit its own measurement data and the measurement data of the additional sensor to the data evaluation unit via the second data link , characterized in that the first data link is configured to transmit measurement data by means of pulse sequences and the first data link comprises an S0 pulse interface and a data transmission by means of M-Bus and/or by means of Smart Message Language.
A horizontal directional drilling machine comprising: a frame ; a rack having a front end supported by a ground anchor and a rear end movable to different drilling angles with respect to the ground; a carriage having a rotating assembly for engaging a drill rod, the carriage being movable along the rack to drive the drill rod into the ground; characterised by an operator lift including an operator platform provided alongside the rack and being adjustable for height with respect to the rack to provide access to a front end of the carriage for wireline operations with the carriage positioned toward the rear end of the rack, wherein the operator lift is supported by at least one frame element of the frame. a frame ; a rack having a front end supported by a ground anchor and a rear end movable to different drilling angles with respect to the ground; a carriage having a rotating assembly for engaging a drill rod, the carriage being movable along the rack to drive the drill rod into the ground; characterised by an operator lift including an operator platform provided alongside the rack and being adjustable for height with respect to the rack to provide access to a front end of the carriage for wireline operations with the carriage positioned toward the rear end of the rack, wherein the operator lift is supported by at least one frame element of the frame.
Ferritic stainless steel sheet excellent in heat resistance and workability which contains, by mass%, C: 0.02% or less, N: 0.02% or less, Si: 0.2 to 1.0%, Mn: 2% or less, Cr: 10 to 20%, Cu: 0.4 to 3%, Ti: 0.01 to 0.5%, B: 0.0002 to 0.0015%, optionally one or more of Nb: 0.01 to 0.3%, Mo: 0.01 to 0.3%, Al: 2.5% or less, V: 1% or less, Zr: 1% or less, and Sn: 1% or less, and has a balance of Fe and unavoidable impurities, wherein the total amount of Nb and Mo is less than 0.2%. C: 0.02% or less, N: 0.02% or less, Si: 0.2 to 1.0%, Mn: 2% or less, Cr: 10 to 20%, Cu: 0.4 to 3%, Ti: 0.01 to 0.5%, B: 0.0002 to 0.0015%, Nb: 0.01 to 0.3%, Mo: 0.01 to 0.3%, Al: 2.5% or less, V: 1% or less, Zr: 1% or less, and Sn: 1% or less, and
An electrical circuit arranged in a half bridge topology, comprising: a high side transistor being an enhancement mode GaN field effect transistor; a low side transistor being an enhancement mode GaN field effect transistor; a high side gate driver and level shifter having an output electrically coupled to a gate of the high side transistor ; a low side gate driver having an output electrically coupled to a gate of the low side transistor ; an output of the electrical circuit , connected to a source of the high side transistor and a drain of the low side transistor ; a bootstrap capacitor electrically coupled in parallel with the high side gate driver and level shifter , said bootstrap capacitor having a first terminal connected to an input of the high side gate driver and level shifter and a second terminal connected to the output of the electrical circuit ; a voltage source having a positive output electrically coupled to the input of the high side gate driver and level shifter and electrically connected to an input of the low side gate driver ; and, a bootstrap device electrically coupled between the positive output of the voltage source and the bootstrap capacitor ; wherein the bootstrap device is a depletion mode GaN field effect transistor having a source coupled to the positive output of the voltage source , a drain coupled to the first terminal of the bootstrap capacitor and to the input of the high side gate driver and level shifter , and a gate connected to the output of the low side gate driver , such that the bootstrap device is synchronously switched with the low side transistor . a high side transistor being an enhancement mode GaN field effect transistor; a low side transistor being an enhancement mode GaN field effect transistor; a high side gate driver and level shifter having an output electrically coupled to a gate of the high side transistor ; a low side gate driver having an output electrically coupled to a gate of the low side transistor ; an output of the electrical circuit , connected to a source of the high side transistor and a drain of the low side transistor ; a bootstrap capacitor electrically coupled in parallel with the high side gate driver and level shifter , said bootstrap capacitor having a first terminal connected to an input of the high side gate driver and level shifter and a second terminal connected to the output of the electrical circuit ; a voltage source having a positive output electrically coupled to the input of the high side gate driver and level shifter and electrically connected to an input of the low side gate driver ; and, a bootstrap device electrically coupled between the positive output of the voltage source and the bootstrap capacitor ; wherein the bootstrap device is a depletion mode GaN field effect transistor having a source coupled to the positive output of the voltage source , a drain coupled to the first terminal of the bootstrap capacitor and to the input of the high side gate driver and level shifter , and a gate connected to the output of the low side gate driver , such that the bootstrap device is synchronously switched with the low side transistor .