mhurhangee/patent-ind-claim-en huggingface dataset:
A converter monitoring unit for monitoring at least a voltage over one of at least two semiconductor switches of a power converter of a wind turbine, the power converter comprising electronic converter components including semiconductor switches configured to be controlled by an external controller , the converter monitoring unit comprising: - electric connection means configured for connecting the converter monitoring unit to one or more of the electric converter components, wherein the converter monitoring unit is characterized in that it further comprising - an area defined as a cold area comprising a data communication interface , and - one or more areas defined as hot areas dedicated to obtain measurements from the semiconductor switches , wherein the cold area is galvanic isolated from each of the one or more hot areas , and wherein the cold area is communicating with an external data processor, and wherein the one or more hot areas is having an electric potential of the electric potential of the semiconductor switches which are measured. - electric connection means configured for connecting the converter monitoring unit to one or more of the electric converter components, - an area defined as a cold area comprising a data communication interface , and - one or more areas defined as hot areas dedicated to obtain measurements from the semiconductor switches , wherein the cold area is galvanic isolated from each of the one or more hot areas , and wherein the cold area is communicating with an external data processor, and wherein the one or more hot areas is having an electric potential of the electric potential of the semiconductor switches which are measured.
A positive electrode active material for a non-aqueous electrolyte secondary battery , comprising: a first lithium transition metal composite oxide represented by a general formula Li a Ni b M1 1-b O 2 wherein in the formula, 1.5 ≤ a ≤ 2.5, 0.95 ≤ b ≤ 1.00, and M1 is at least one metal element excluding Li and Ni; and a second lithium transition metal composite oxide represented by a general formula Li c Ni 2-c-d M2 d O 2 wherein in the formula, 0 < c ≤ 0.5, 0 ≤ d ≤ 0.5, and M2 is at least one metal element excluding Li and Ni. a first lithium transition metal composite oxide represented by a general formula Li a Ni b M1 1-b O 2 wherein in the formula, 1.5 ≤ a ≤ 2.5, 0.95 ≤ b ≤ 1.00, and M1 is at least one metal element excluding Li and Ni; and a second lithium transition metal composite oxide represented by a general formula Li c Ni 2-c-d M2 d O 2 wherein in the formula, 0 < c ≤ 0.5, 0 ≤ d ≤ 0.5, and M2 is at least one metal element excluding Li and Ni.
A method of suppressing bio-film formation on a structure in seawater, comprising irradiating light comprising the spectrum of 409 to 412 nm to the structure, wherein the light has a spectral irradiance at the structure of 1.4 μWcm -2 nm -1 or higher and a peak wavelength in the range between 409 nm and 412 nm.
Method for configuring a network that comprises at least a first and a second switch , comprising the following steps: - providing first configuration information for the first switch and second configuration information for the second switch in a common syntax, - converting the first configuration information into first control information and the second configuration information into second control information by way of a respective processing module , wherein a syntax of the first control information differs from a syntax of the second control information, - actuating the first switch in accordance with the first control information and the second switch in accordance with the second control information, characterized in that the first and/or second processing module is used respectively to check whether a respective target function described by the first and/or second configuration information is respectively able to be implemented by the first and/or second switch on its own and, otherwise, at least one further device (5-9, 17) of the network is additionally actuated in order to implement the target function together with the first and/or second switch . - providing first configuration information for the first switch and second configuration information for the second switch in a common syntax, - converting the first configuration information into first control information and the second configuration information into second control information by way of a respective processing module , wherein a syntax of the first control information differs from a syntax of the second control information, - actuating the first switch in accordance with the first control information and the second switch in accordance with the second control information,
A method for operating a terminal in a wireless communication system, the method comprising: receiving, from a first base station , an adjustment message including a first timing advance, TA, value, and an uplink transmission command message including information on a first difference between transmission timings of downlink symbols from the first base station and a second base station , and a beam training parameter for transmitting an uplink signal; and transmitting, to the second base station , the uplink signal including a beam training signal based on the beam training parameter and a second TA value for the second base station , wherein the second TA value is determined by the terminal based on the first TA value, the first difference between the transmission timings and a second difference between reception timings of downlink signals received from the first base station and the second base station , wherein the beam training parameter includes at least one of information on a sequence for the beam training signal or information of a resource of the beam training signal. receiving, from a first base station , an adjustment message including a first timing advance, TA, value, and an uplink transmission command message including information on a first difference between transmission timings of downlink symbols from the first base station and a second base station , and a beam training parameter for transmitting an uplink signal; and transmitting, to the second base station , the uplink signal including a beam training signal based on the beam training parameter and a second TA value for the second base station , wherein the second TA value is determined by the terminal based on the first TA value, the first difference between the transmission timings and a second difference between reception timings of downlink signals received from the first base station and the second base station , wherein the beam training parameter includes at least one of information on a sequence for the beam training signal or information of a resource of the beam training signal.
A method for calculating visibility functions for an interferometric synthetic aperture radiometer including an antenna array and several receiver chains , each receiver chain being respectively associated with an antenna of the antenna array, said method including, for each receiver chain , digitising , over a frequency band of interest, a signal received by the antenna of said receiver chain with a sampling frequency at least equal to the width of said frequency band of interest, said method further including: - for each receiver chain , filtering the digitised signal in several frequency sub-bands, all of said frequency sub-bands covering the band of interest, in order to obtain, in each frequency sub-band, several filtered samples, each filtered sample corresponding with a filtering period having a predetermined duration (δt), - calculating , for each frequency sub-band, an intercorrelation matrix , an element of an intercorrelation matrix being associated with a pair of two antennas of the antenna array and taking a value calculating as a function of the filtered samples associated with said antennas during an accumulation period having a predetermined duration (Δt), - detecting invalid intercorrelation matrices from a set of intercorrelation matrices respectively obtained for the different frequency sub-bands and for different accumulation periods, - calculating visibility functions from the intercorrelation matrices which have not been detected as invalid. - for each receiver chain , filtering the digitised signal in several frequency sub-bands, all of said frequency sub-bands covering the band of interest, in order to obtain, in each frequency sub-band, several filtered samples, each filtered sample corresponding with a filtering period having a predetermined duration (δt), - calculating , for each frequency sub-band, an intercorrelation matrix , an element of an intercorrelation matrix being associated with a pair of two antennas of the antenna array and taking a value calculating as a function of the filtered samples associated with said antennas during an accumulation period having a predetermined duration (Δt), - detecting invalid intercorrelation matrices from a set of intercorrelation matrices respectively obtained for the different frequency sub-bands and for different accumulation periods, - calculating visibility functions from the intercorrelation matrices which have not been detected as invalid.
An aircraft lavatory complex , comprising: a forward wall configured for facing a passenger cabin of an aircraft; a left-side door and a right-side door set into the forward wall, the left-side door adjacent to the right-side door, the left-side door and the right-side door configured to open in opposing directions; a left-side lavatory unit accessible via the left-side door and a right-side lavatory unit accessible via the right-side door; and a partition repositionable between a default position and at least one deployed position and held in the default position by at least one left-side latch and at least one right-side latch coupling the partition to the lavatory complex, the partition configured for: separating the left-side lavatory unit and the right-side lavatory unit when in the default position; and enlarging one of the left-side lavatory unit and the right-side lavatory unit when in the deployed position; the at least one left-side latch configured to be operated from the left-side lavatory unit and and the at least one right-side latch configured to be operated from the right-side lavatory reposition the partition between the default position and the deployed position, wherein the partition is not repositionable without the use of specialized tools available to cabin crewmembers. a forward wall configured for facing a passenger cabin of an aircraft; a left-side door and a right-side door set into the forward wall, the left-side door adjacent to the right-side door, the left-side door and the right-side door configured to open in opposing directions; a left-side lavatory unit accessible via the left-side door and a right-side lavatory unit accessible via the right-side door; and a partition repositionable between a default position and at least one deployed position and held in the default position by at least one left-side latch and at least one right-side latch coupling the partition to the lavatory complex, the partition configured for: separating the left-side lavatory unit and the right-side lavatory unit when in the default position; and enlarging one of the left-side lavatory unit and the right-side lavatory unit when in the deployed position; the at least one left-side latch configured to be operated from the left-side lavatory unit and and the at least one right-side latch configured to be operated from the right-side lavatory reposition the partition between the default position and the deployed position, wherein the partition is not repositionable without the use of specialized tools available to cabin crewmembers. separating the left-side lavatory unit and the right-side lavatory unit when in the default position; and enlarging one of the left-side lavatory unit and the right-side lavatory unit when in the deployed position; the at least one left-side latch configured to be operated from the left-side lavatory unit and and the at least one right-side latch configured to be operated from the right-side lavatory reposition the partition between the default position and the deployed position, wherein the partition is not repositionable without the use of specialized tools available to cabin crewmembers.
Use of a casting roller or belt for a revolving chill mould of a strip casting system for manufacturing an aluminium alloy strip , characterised in that the surface of the casting roller or belt has a roughness value Sa of more than 5 μm measured according to DIN-EN-ISO 25178-2:2012 and an average peak count RPc(0.5 μm) of less than 42 cm -1 measured according to DIN EN 10049:2005 (application group 1 - without further removal of the ripple and fine roughness proportions).
A computer-implemented method for mapping spatial attention, comprising the steps of: - providing a three-dimensional scenery on a display to a person; - generating stimuli at respective locations in said scenery; - measuring , when generating a stimulus of said stimuli, a reaction time between the generating of said stimulus and a spotting by the person of said stimulus; - representing said reaction times in function of the locations, thereby visually representing spatial attention of the person; characterized in that the method further includes the steps of - feeding said measured reaction times into a statistical model modelling the probability that the stimuli at respective locations are spotted after a predetermined time interval; - obtaining from the statistical model estimated reaction times for further locations in said scenery. - providing a three-dimensional scenery on a display to a person; - generating stimuli at respective locations in said scenery; - measuring , when generating a stimulus of said stimuli, a reaction time between the generating of said stimulus and a spotting by the person of said stimulus; - representing said reaction times in function of the locations, thereby visually representing spatial attention of the person; - feeding said measured reaction times into a statistical model modelling the probability that the stimuli at respective locations are spotted after a predetermined time interval; - obtaining from the statistical model estimated reaction times for further locations in said scenery.
A tyre comprising a sidewall portion provided with a mark indicating portion having one or more marks , wherein the mark indicating portion comprises a reference surface (x) provided on a surface of the sidewall portion and the one or more marks formed on the reference surface (x), and a surface of each mark includes a first inclined surface portion having a height (H) from the reference surface (x) increasing outwardly in a tyre radial direction from an inner end (E1) thereof in the tyre radial direction, and a second inclined surface portion having a height (H) from the reference surface (x) increasing inwardly in the tyre radial direction from an outer end (E2) thereof in the tyre radial direction, characterized in that in the mark indicating portion , either the reference surface (x) or the surface of each mark is provided with a plurality of small protruding portions , wherein each of the small protruding portions is a truncated conical protrusion having a smaller diameter on a side of an upper end thereof.
A camera device calibration method comprising: acquiring (S201) first data indicating a relationship between location values of a zoom lens and location values of a focus lens; setting a sampling interval between sampling points of the zoom lens; setting (S202) at least two location values of the zoom lens as sampling points based on the sampling interval; acquiring (S203) sampling data including a location value of the zoom lens (§0239) and a location value of the focus lens for each of the sampling points based on the first data; acquiring (S204) interpolated data for location values of the zoom lens other than the sampling points by applying at least one interpolation method to the sampling data; storing (S208) the sampling data in a storage unit of a camera including the zoom lens and the focus lens when a difference value obtained by comparing (S205) the first data with the interpolated data, is within a preset threshold range; and changing (S206) the location and the number of the sampling points by resetting the sampling interval at an interval smaller than a previously set sampling interval when the difference value is out of the threshold range (S207), and performing again the loop from the step of acquiring sampling data. acquiring (S201) first data indicating a relationship between location values of a zoom lens and location values of a focus lens; setting a sampling interval between sampling points of the zoom lens; setting (S202) at least two location values of the zoom lens as sampling points based on the sampling interval; acquiring (S203) sampling data including a location value of the zoom lens (§0239) and a location value of the focus lens for each of the sampling points based on the first data; acquiring (S204) interpolated data for location values of the zoom lens other than the sampling points by applying at least one interpolation method to the sampling data; storing (S208) the sampling data in a storage unit of a camera including the zoom lens and the focus lens when a difference value obtained by comparing (S205) the first data with the interpolated data, is within a preset threshold range; and changing (S206) the location and the number of the sampling points by resetting the sampling interval at an interval smaller than a previously set sampling interval when the difference value is out of the threshold range (S207), and performing again the loop from the step of acquiring sampling data.
A high temperature memory logging device for evaluating the hydrocarbon and water contents of a borehole, the device having the form of a tube-like container comprising a head section, a neutron source section , two neutron detectors , an electronics section with memory modules and a power supply in the form of a battery , wherein the container is an insulating flask and comprises at least one heat sink, characterized in that the insulating flask is designed to withstand a temperature of up to 260°C (500°F) for up to 5 hrs, and comprises two heat sinks , a first heat sink separating the electronics section from the battery and a second heat sink being located at the up-hole tail and of the battery , the first and second heat sinks flanking the battery .
A method for receiving data by a user equipment , UE, in a wireless communication system, comprising: receiving channel state information reference signal, CSI-RS configuration information that inform about resource elements, REs, for CSI-RS in a configured subframe; receiving (S1402) repeated physical downlink control channels, PDCCHs, on REs in a set of subframes, wherein each of the repeated PDCCHs has a same control information; and receiving (S1404) a physical downlink shared channel, PDSCH, corresponding to the repeated PDCCHs, wherein, as for a repeated PDCCH in the configured subframe, the same control information is punctured in consideration of the REs for CSI-RS. receiving channel state information reference signal, CSI-RS configuration information that inform about resource elements, REs, for CSI-RS in a configured subframe; receiving (S1402) repeated physical downlink control channels, PDCCHs, on REs in a set of subframes, wherein each of the repeated PDCCHs has a same control information; and receiving (S1404) a physical downlink shared channel, PDSCH, corresponding to the repeated PDCCHs, wherein, as for a repeated PDCCH in the configured subframe, the same control information is punctured in consideration of the REs for CSI-RS.
A computer-implemented method, comprising: receiving, at a computing system: (i) audio data that indicates a voice input , and (ii) data that indicates a context associated with the voice input , comprising data that characterizes a display of a user interface at a computing device at which the voice input was received at a time that the voice input was received; determining a particular dialog state, from among a plurality of dialog states, that corresponds to the voice input , including identifying the particular dialog state based on the data that characterizes a display of a user interface at a computing device at which the voice input was received at a time that the voice input was received ; identifying a set of n-grams that are associated with the particular dialog state that corresponds to the voice input , wherein the set of n-grams are associated with the particular dialog state based at least on n-grams in the set of n-grams occurring frequently in historical voice inputs that correspond to the dialog state; in response to identifying the set of n-grams that are associated with the particular dialog state that corresponds to the voice input, biasing a language mode by adjusting probability scores that the language model indicates for n-grams in the set of n-grams; and transcribing the voice input using the adjusted language model . receiving, at a computing system: (i) audio data that indicates a voice input , and (ii) data that indicates a context associated with the voice input , comprising data that characterizes a display of a user interface at a computing device at which the voice input was received at a time that the voice input was received; (i) audio data that indicates a voice input , and (ii) data that indicates a context associated with the voice input , comprising data that characterizes a display of a user interface at a computing device at which the voice input was received at a time that the voice input was received; determining a particular dialog state, from among a plurality of dialog states, that corresponds to the voice input , including identifying the particular dialog state based on the data that characterizes a display of a user interface at a computing device at which the voice input was received at a time that the voice input was received ; identifying a set of n-grams that are associated with the particular dialog state that corresponds to the voice input , wherein the set of n-grams are associated with the particular dialog state based at least on n-grams in the set of n-grams occurring frequently in historical voice inputs that correspond to the dialog state; in response to identifying the set of n-grams that are associated with the particular dialog state that corresponds to the voice input, biasing a language mode by adjusting probability scores that the language model indicates for n-grams in the set of n-grams; and transcribing the voice input using the adjusted language model .
A system for in-orbit propulsion via floating conductive tethers on board a spacecraft , characterised in that it comprises two sets of floating electrodynamic conductive tethers connected respectively to each of the two poles of an electrical power source , wherein each set is formed by at least one floating conductive tether, and wherein the floating tethers themselves are responsible for both the capture of electrons and their emission through thermionic or photoelectric effect.