mhurhangee/ep-ind-claims huggingface dataset:
A system for generating speech recognition training data, the system comprising: a speech data processing module configured to receive speech data from a user terminal (110; 120; 130; 140) and to perform data preprocessing on the received speech data, wherein the data preprocessing comprises segmenting the speech data in units of sentences to generate preprocessed speech data; an auto speech recognition, ASR, interfacing module configured to transmit the preprocessed speech data to a plurality of ASR engines and to acquire a confidence score and transcription data of the speech data from the plurality of ASR engines; an ASR result evaluating module configured to: compare the plurality of pieces of transcription data and, when the plurality of pieces of transcription data match in plurality, determine that the speech data and the transcription data match each other, and when the plurality of pieces of transcription data do not match in plurality, based on one result in which the highest confidence score is returned by the ASR interfacing module, determine that the speech data and the transcription data match each other when said confidence score is higher than a preset confidence score; and a training data managing unit configured to generate training data as a pair of the speech data and the transcription data determined to match each other. a speech data processing module configured to receive speech data from a user terminal (110; 120; 130; 140) and to perform data preprocessing on the received speech data, wherein the data preprocessing comprises segmenting the speech data in units of sentences to generate preprocessed speech data; an auto speech recognition, ASR, interfacing module configured to transmit the preprocessed speech data to a plurality of ASR engines and to acquire a confidence score and transcription data of the speech data from the plurality of ASR engines; an ASR result evaluating module configured to: compare the plurality of pieces of transcription data and, when the plurality of pieces of transcription data match in plurality, determine that the speech data and the transcription data match each other, and when the plurality of pieces of transcription data do not match in plurality, based on one result in which the highest confidence score is returned by the ASR interfacing module, determine that the speech data and the transcription data match each other when said confidence score is higher than a preset confidence score; and compare the plurality of pieces of transcription data and, when the plurality of pieces of transcription data match in plurality, determine that the speech data and the transcription data match each other, and when the plurality of pieces of transcription data do not match in plurality, based on one result in which the highest confidence score is returned by the ASR interfacing module, determine that the speech data and the transcription data match each other when said confidence score is higher than a preset confidence score; and a training data managing unit configured to generate training data as a pair of the speech data and the transcription data determined to match each other.
A leadless pacemaker device configured to provide for an intra-cardiac pacing, the leadless pacemaker device comprising: a processing circuitry configured to generate ventricular pacing signals for stimulating ventricular activity at a ventricular pacing rate, a first sensor arrangement configured to receive a first sense signal, and a second sensor arrangement configured to receive a second sense signal, wherein the processing circuitry is configured to derive, in a first sensing state, atrial events (As) from the first sense signal for controlling the ventricular pacing rate based on said atrial events (As), wherein the processing circuitry is further configured to switch, based on at least one switching criterion, from the first sensing state to a second sensing state in which the processing circuitry is configured to derive atrial events (As) from the second sense signal, wherein the processing circuitry is configured to analyze, as a switching criterion, at least one characteristic value derived from the first sense signal, wherein the processing circuitry is configured to switch to the second sensing state based on the analysis of the at least one characteristic value, wherein the analysis of said at least one characteristic value includes analyzing a trend of said at least one characteristic value over a multiplicity of heart cycles, and wherein the analysis of said at least one characteristic value includes analyzing whether said one characteristic value is within a predefined distance from a threshold value. a processing circuitry configured to generate ventricular pacing signals for stimulating ventricular activity at a ventricular pacing rate, a first sensor arrangement configured to receive a first sense signal, and a second sensor arrangement configured to receive a second sense signal, wherein the processing circuitry is configured to derive, in a first sensing state, atrial events (As) from the first sense signal for controlling the ventricular pacing rate based on said atrial events (As), wherein the processing circuitry is further configured to switch, based on at least one switching criterion, from the first sensing state to a second sensing state in which the processing circuitry is configured to derive atrial events (As) from the second sense signal, wherein the processing circuitry is configured to analyze, as a switching criterion, at least one characteristic value derived from the first sense signal, wherein the processing circuitry is configured to switch to the second sensing state based on the analysis of the at least one characteristic value, wherein the analysis of said at least one characteristic value includes analyzing a trend of said at least one characteristic value over a multiplicity of heart cycles, and wherein the analysis of said at least one characteristic value includes analyzing whether said one characteristic value is within a predefined distance from a threshold value.
A method of analyzing a laminated object, comprising: exposing a surface area of the laminated object to a coherent electromagnetic radiation; detecting an interference pattern induced by the coherent electromagnetic radiation reflected by the surface area; determining topographical data of the surface area based on the interference pattern; characterized by further processing the topographical data by taking the absolute value of the topographical data to obtain absolute displacement data and raising the absolute displacement data to the power of q, wherein q is a rational number and q>1, or subjecting the topographical data to a squaring operation to obtain energy data. exposing a surface area of the laminated object to a coherent electromagnetic radiation; detecting an interference pattern induced by the coherent electromagnetic radiation reflected by the surface area; determining topographical data of the surface area based on the interference pattern; characterized by further processing the topographical data by taking the absolute value of the topographical data to obtain absolute displacement data and raising the absolute displacement data to the power of q, wherein q is a rational number and q>1, or subjecting the topographical data to a squaring operation to obtain energy data. taking the absolute value of the topographical data to obtain absolute displacement data and raising the absolute displacement data to the power of q, wherein q is a rational number and q>1, or subjecting the topographical data to a squaring operation to obtain energy data.
A computer-implemented decentralized digital asset storage and transfer system, comprising a first access gateway communicably coupled to a platform comprising at least three dedicated and computationally independent computing nodes, wherein said platform is configured to, upon receipt of a digital asset storage or transfer instruction via said first access gateway, perform a method comprising: • defining a said node as an originating node and others of said nodes as verifying nodes; • performing, by said originating node, a verification process in respect of said instruction to determine a verification result, and broadcasting said verification result to said verifying nodes; • performing, by each verifying node independently, a verification process in respect of said instruction to determine a verification result, and comparing said verification result with the verification result received from the originating node; • determining a consensus between verification results determined by said nodes; • in the event of a consensus, each node processing said instruction, independently of said other nodes; and • in the event of no consensus, penalizing said originating node according to a preset penalty policy and selecting an alternative one of said nodes as an originating node, and repeating the said method with the other nodes as verifying nodes. • defining a said node as an originating node and others of said nodes as verifying nodes; • performing, by said originating node, a verification process in respect of said instruction to determine a verification result, and broadcasting said verification result to said verifying nodes; • performing, by each verifying node independently, a verification process in respect of said instruction to determine a verification result, and comparing said verification result with the verification result received from the originating node; • determining a consensus between verification results determined by said nodes; • in the event of a consensus, each node processing said instruction, independently of said other nodes; and • in the event of no consensus, penalizing said originating node according to a preset penalty policy and selecting an alternative one of said nodes as an originating node, and repeating the said method with the other nodes as verifying nodes.
A method of cleaning fouled process equipment which includes a process vessel fouled by an organic foulant, the method including spraying a hydrocarbon stream at a pressure of at least 69 bar(g) at fouled surfaces inside the process vessel thereby to dislodge the organic foulant from said fouled surfaces, the hydrocarbon stream being sprayed from at least one nozzle located inside the process vessel and the hydrocarbon stream being at a temperature below the melting point of the organic foulant or below the melting point of a major component of the organic foulant when the organic foulant is a multi-component organic foulant; and removing the dislodged foulant from the process vessel.
A magnetic circuit for applying a magnetic effect to an object comprising: - a plurality of magnets (1a, 1b) that are arranged in an array; and - a yoke (2a, 2b, 2c) that is provided so as to come in contact across all of the plurality of magnets (1a, 1b); and - a ferrous-based metal plate that is arranged parallel to the arrangement direction of the plurality of magnets (1a, 1b); wherein the plurality of magnets (1a, 1b) are arranged respectively with a gap which is less than or equal to a predetermined space between the adjacent magnets in the arrangement direction of the array, and have one magnetic pole in the direction where the yoke (2a, 2b, 2c) is located, and wherein the predetermined space between magnets is up to 3 mm, and the metal plate is located in a position that is separated from the yoke (2a, 2b, 2c) so that the object to which a magnetic effect is to be applied is positioned between the yoke (2a, 2b, 2c) and the metal plate. - a plurality of magnets (1a, 1b) that are arranged in an array; and - a yoke (2a, 2b, 2c) that is provided so as to come in contact across all of the plurality of magnets (1a, 1b); and - a ferrous-based metal plate that is arranged parallel to the arrangement direction of the plurality of magnets (1a, 1b); wherein the plurality of magnets (1a, 1b) are arranged respectively with a gap which is less than or equal to a predetermined space between the adjacent magnets in the arrangement direction of the array, and have one magnetic pole in the direction where the yoke (2a, 2b, 2c) is located, and
A solar energy module for a building for using incident solar energy, having an elongated module body, wherein on an outer surface thereof at least one functional area is formed for absorption of solar rays, wherein a photovoltaic unit is arranged on the functional area (16, 18, 20, 34), wherein the module body has a cross section with a polygonal or a rounded external profile, but different from a circular form, and wherein at the outer surface at least one further functional area (16, 20, 34) is formed on the module body for reflection and/or partial transmission of solar rays, wherein at least one fluid line is formed in the module body, which fluid line is in thermal contact with the functional area (16, 18, 20, 34) and is used to accommodate a heat transport medium, wherein the module body has at least one inlet opening in order to supply the heat transport medium to the fluid line, and has at least one outlet opening in order to carry the heat transport medium out of the fluid line, characterized in that the functional area and the further functional area are arranged at an obtuse angle to one another and the further functional area has a cross section with concave curvature such that if the directly incident solar rays strike the photovoltaic unit orthogonally directly incident solar rays are at the same time reflected at different acute angles (38, 40, 42).
A loading apparatus for loading a glass plate comprising a flexible support plate; a plurality of suction cups arranged on a surface of the flexible support plate; and actuating means arranged to exert a force on the flexible support plate such that the surface moves between a substantially flat position wherein the plurality of suction cups are substantially aligned with respect to each other and a curved position wherein at least one of the plurality of suction cups is misaligned with respect to the other suction cups of the plurality of suction cups. a flexible support plate; a plurality of suction cups arranged on a surface of the flexible support plate; and actuating means arranged to exert a force on the flexible support plate such that the surface moves between a substantially flat position wherein the plurality of suction cups are substantially aligned with respect to each other and a curved position wherein at least one of the plurality of suction cups is misaligned with respect to the other suction cups of the plurality of suction cups.
Expansion anchor comprising - an anchor bolt, - an expansion sleeve which surrounds the anchor bolt, the anchor bolt having an expansion-sleeve expansion region for radial displacement of the expansion sleeve, and - at least one additional expansion body which is arranged on the expansion sleeve, - the anchor bolt having an additional-expansion-body expansion region for radial displacement of the additional expansion body, and - the additional expansion body being arranged on the expansion sleeve on the side of the expansion sleeve that radially faces the anchor bolt, - the additional expansion body being arranged in a recess formed in the expansion sleeve, characterized in that the expansion sleeve has a tongue which radially covers the additional expansion body at least in regions, and the tongue radially covers the recess at least in regions. - an anchor bolt, - an expansion sleeve which surrounds the anchor bolt, the anchor bolt having an expansion-sleeve expansion region for radial displacement of the expansion sleeve, and - at least one additional expansion body which is arranged on the expansion sleeve, - the anchor bolt having an additional-expansion-body expansion region for radial displacement of the additional expansion body, and - the additional expansion body being arranged on the expansion sleeve on the side of the expansion sleeve that radially faces the anchor bolt, - the additional expansion body being arranged in a recess formed in the expansion sleeve, the expansion sleeve has a tongue which radially covers the additional expansion body at least in regions, and the tongue radially covers the recess at least in regions.
A lubricant supply system for a gas turbine engine comprising: a lubricant pump delivering lubricant to an outlet line, said outlet line splitting into at least a hot line and a cool line, said hot line being directed primarily to locations associated with an engine that are not intended to receive cooler lubricant, and said cool line being directed through one or more heat exchangers (68, 144, 164) at which lubricant is cooled, and said cool line then being routed to a fan drive gear for an associated gas turbine engine, characterised in that: a valve is positioned on said cool line and splits said cool line into two lines (78, 80), with a first line being directed through a fuel/oil cooler at which the lubricant will be cooled by fuel leading to a combustion section for the gas turbine engine.
Microfluidic device for analysing a sample, comprising an input channel intended to receive said sample to be analysed in liquid form, an output channel and a single mixing and analysis chamber situated between said input channel and said output channel, characterized in that said mixing and analysis chamber comprises: - a first zone in which said input channel emerges, in which there is placed a reagent to be mixed with said sample, said first zone having a flared form with respect to the input channel, - a second zone extending said first zone and configured to perform an optical measurement therein, - a third zone extending said second zone, to which said output channel is linked, said third zone having a flared form with respect to the output channel, in which, in the absence of the sample, said second zone and said third zone do not contain said reagent. - a first zone in which said input channel emerges, in which there is placed a reagent to be mixed with said sample, said first zone having a flared form with respect to the input channel, - a second zone extending said first zone and configured to perform an optical measurement therein, - a third zone extending said second zone, to which said output channel is linked, said third zone having a flared form with respect to the output channel,
A connector having a header configured to be mounted on a circuit board including: a header body formed of an insulation material and connectable with a plug groove of a socket mounted on another circuit board; and plural pairs of header posts held on both side walls of the header body; and two pairs of header reinforcing metal fittings which are embedded with the header body by insert molding in both end portions of the header body in a longitudinal direction of said header; characterized in that the header reinforcing metal fittings are formed on the same metal by punching work as the header posts and have substantially the same cross-sectional shape; the header reinforcing metal fittings and the header posts at a portion nearer to the header reinforcing metal fittings each are provided with a distance two or more pitches of the plural pairs of header posts formed at a constant pitch. a header body formed of an insulation material and connectable with a plug groove of a socket mounted on another circuit board; and plural pairs of header posts held on both side walls of the header body; and two pairs of header reinforcing metal fittings which are embedded with the header body by insert molding in both end portions of the header body in a longitudinal direction of said header; characterized in that the header reinforcing metal fittings are formed on the same metal by punching work as the header posts and have substantially the same cross-sectional shape; the header reinforcing metal fittings and the header posts at a portion nearer to the header reinforcing metal fittings each are provided with a distance two or more pitches of the plural pairs of header posts formed at a constant pitch.
A dental adhesive comprising: an asymmetric acrylamide-methacrylic acid ester compound (a); an acid group-containing (meth)acrylic polymerizable monomer (b); and a water-soluble polymerizable monomer (c), wherein the asymmetric acrylamide-methacrylic acid ester compound (a) is represented by the following general formula: where X is an optionally substituted, linear or branched C 1 to C 6 aliphatic group or an optionally substituted aromatic group, the aliphatic group is optionally interrupted by at least one linking group selected from the group consisting of -O-, -S-, -CO-, -O-CO-, -NR 1 -, -CO-NR 1 -, -NR 1 -CO-, -CO-O-NR 1 -, -OCO-NR 1 -, and -NR 1 -CO-NR 1 -, and R 1 is a hydrogen atom or an optionally substituted, linear or branched C 1 to C 6 aliphatic group. an asymmetric acrylamide-methacrylic acid ester compound (a); an acid group-containing (meth)acrylic polymerizable monomer (b); and a water-soluble polymerizable monomer (c), wherein the asymmetric acrylamide-methacrylic acid ester compound (a) is represented by the following general formula: where X is an optionally substituted, linear or branched C 1 to C 6 aliphatic group or an optionally substituted aromatic group, the aliphatic group is optionally interrupted by at least one linking group selected from the group consisting of -O-, -S-, -CO-, -O-CO-, -NR 1 -, -CO-NR 1 -, -NR 1 -CO-, -CO-O-NR 1 -, -OCO-NR 1 -, and -NR 1 -CO-NR 1 -, and R 1 is a hydrogen atom or an optionally substituted, linear or branched C 1 to C 6 aliphatic group.
A base station configured to operate a plurality of different scanning beam devices, the base station comprising: a housing comprising an interface that is configured to releasably receive a connector member of a scanning beam device, the scanning beam device comprising a scanning element; a controller that is configured to be electrically coupled to the scanning beam device through the interface; characterised by the base station further comprising: a memory coupled to the controller, the memory configured to store a plurality of code modules which when executed by the controller cause the controller to: read parametric data stored in a memory of the scanning beam device, the parametric data including a resonant frequency range of the scanning element; determine a resonant frequency of the scanning element by searching the resonant frequency range of the parametric data read from the memory of the scanning beam device; and generate or reconfigure a control routine for a drive assembly of the scanning beam device to scan the scanning element at the determined scan frequency. a housing comprising an interface that is configured to releasably receive a connector member of a scanning beam device, the scanning beam device comprising a scanning element; a controller that is configured to be electrically coupled to the scanning beam device through the interface; characterised by the base station further comprising: a memory coupled to the controller, the memory configured to store a plurality of code modules which when executed by the controller cause the controller to: read parametric data stored in a memory of the scanning beam device, the parametric data including a resonant frequency range of the scanning element; determine a resonant frequency of the scanning element by searching the resonant frequency range of the parametric data read from the memory of the scanning beam device; and generate or reconfigure a control routine for a drive assembly of the scanning beam device to scan the scanning element at the determined scan frequency. read parametric data stored in a memory of the scanning beam device, the parametric data including a resonant frequency range of the scanning element; determine a resonant frequency of the scanning element by searching the resonant frequency range of the parametric data read from the memory of the scanning beam device; and generate or reconfigure a control routine for a drive assembly of the scanning beam device to scan the scanning element at the determined scan frequency.