mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for determining an inaccurate response to a speech query, the method comprising: receiving first audio data comprising a first speech query from a user; determining a first transcription of the first speech query; providing a response to the first transcription of the first speech query; receiving a second query from the user after initiation of the response to the first transcription of the first speech query; determining a second transcription of the second query; comparing the second transcription to the first transcription to determine a similarity between the first transcription and the second transcription; determining whether the first transcription is inaccurate based on the comparing of the second transcription to the first transcription; labeling the first transcription according to the determined similarity being above or below one or more thresholds, wherein: if the determined similarity is below a lower threshold, the first transcription is labelled as being unrelated to the second transcription; if the determined similarity is above a higher threshold, the first transcription is labelled as an incorrect transcription; and if the determined similarity is above the lower threshold and below the higher threshold, the first transcription is labeled as a misinterpretation; and training a statistical natural language model using the labeled first transcription. receiving first audio data comprising a first speech query from a user; determining a first transcription of the first speech query; providing a response to the first transcription of the first speech query; receiving a second query from the user after initiation of the response to the first transcription of the first speech query; determining a second transcription of the second query; comparing the second transcription to the first transcription to determine a similarity between the first transcription and the second transcription; determining whether the first transcription is inaccurate based on the comparing of the second transcription to the first transcription; labeling the first transcription according to the determined similarity being above or below one or more thresholds, wherein: if the determined similarity is below a lower threshold, the first transcription is labelled as being unrelated to the second transcription; if the determined similarity is above a higher threshold, the first transcription is labelled as an incorrect transcription; and if the determined similarity is above the lower threshold and below the higher threshold, the first transcription is labeled as a misinterpretation; and if the determined similarity is below a lower threshold, the first transcription is labelled as being unrelated to the second transcription; if the determined similarity is above a higher threshold, the first transcription is labelled as an incorrect transcription; and if the determined similarity is above the lower threshold and below the higher threshold, the first transcription is labeled as a misinterpretation; and training a statistical natural language model using the labeled first transcription.
A surgical laser system , comprising: a first laser source configured to emit a first laser beam with a first wavelength; a second laser source configured to emit a second laser beam with a second wavelength; a first diffraction optical element, DOE, tuned to the first wavelength, wherein the first DOE is configured to diffract the first laser beam into one or more first diffracted beams at a diffraction angle; a second DOE tuned to the second wavelength, wherein the second DOE is configured to diffract the second laser beam into one or more second diffracted beams at the diffraction angle; a first beam splitter configured to reflect the one or more first diffracted beams onto a lens and a second beam splitter configured to reflect the one or more second diffracted beams onto the lens ; and the lens configured to focus the one or more first diffracted beams and the one or more second diffracted beams onto an interface plane of a proximal end of a cable coupled to the surgical laser system, wherein a distal end of the cable is configured to project the one or more first diffracted beams and the one or more second diffracted beams onto a target surface; and further comprising a light source configured to emit an illumination beam onto the lens , wherein once emitted by the light source the illumination beam passes through the first beam splitter and the second beam splitter ; and wherein the lens is configured to focus the illumination beam onto the interface plane. a first laser source configured to emit a first laser beam with a first wavelength; a second laser source configured to emit a second laser beam with a second wavelength; a first diffraction optical element, DOE, tuned to the first wavelength, wherein the first DOE is configured to diffract the first laser beam into one or more first diffracted beams at a diffraction angle; a second DOE tuned to the second wavelength, wherein the second DOE is configured to diffract the second laser beam into one or more second diffracted beams at the diffraction angle; a first beam splitter configured to reflect the one or more first diffracted beams onto a lens and a second beam splitter configured to reflect the one or more second diffracted beams onto the lens ; and the lens configured to focus the one or more first diffracted beams and the one or more second diffracted beams onto an interface plane of a proximal end of a cable coupled to the surgical laser system, wherein a distal end of the cable is configured to project the one or more first diffracted beams and the one or more second diffracted beams onto a target surface; and further comprising a light source configured to emit an illumination beam onto the lens , wherein once emitted by the light source the illumination beam passes through the first beam splitter and the second beam splitter ; and wherein the lens is configured to focus the illumination beam onto the interface plane.
A rotor assembly for a gas turbine engine, comprising: a first rotor disk configured to rotate about a rotational axis ; a second rotor disk configured to rotate about the rotational axis ; a plurality of rotor blades arranged circumferentially around the rotational axis , each of the plurality of rotor blades mounted to the first rotor disk and to the second rotor disk , and the plurality of rotor blades comprising a first rotor blade ; and a plurality of disk mounts , each of the plurality of disk mounts connecting the first rotor disk and the second rotor disk together, and the plurality of disk mounts comprising a first disk mount that further supports the first rotor blade ; characterised in that the first rotor blade comprises ceramic. a first rotor disk configured to rotate about a rotational axis ; a second rotor disk configured to rotate about the rotational axis ; a plurality of rotor blades arranged circumferentially around the rotational axis , each of the plurality of rotor blades mounted to the first rotor disk and to the second rotor disk , and the plurality of rotor blades comprising a first rotor blade ; and a plurality of disk mounts , each of the plurality of disk mounts connecting the first rotor disk and the second rotor disk together, and the plurality of disk mounts comprising a first disk mount that further supports the first rotor blade ; characterised in that the first rotor blade comprises ceramic.
A flame retardant polymer composition comprising: a) one or more copolyetherester thermoplastic elastomers; b) melamine cyanurate; c) at least one epoxy-containing compound which is selected from the group consisting of 2,2-bis(4-hydroxyphenyl)propane-epichlorohydrin copolymer and tetraglycidyl ether of tetraphenol ethane and combinations thereof; and d) optionally at least one compound selected from the group consisting of phosphites and aromatic phosphate ester flame retardants and mixtures thereof; with the proviso that i) when the flame retardant polymer composition comprises an aromatic phosphate ester flame retardant and a phosphite, the amount of epoxy-containing compound present is such that the total epoxy functional group equivalent weight is at least 32 milliequivalents per kg of the combined weight of the one or more copolyetherester thermoplastic elastomers and the aromatic phosphate ester flame retardant and ii) when the flame retardant polymer composition comprises an aromatic phosphate ester flame retardant in the absence of phosphite, the amount of epoxy-containing compound present is such that the total epoxy functional group equivalent weight is at least 56 milliequivalents per kg of the combined weight of the one or more copolyetherester thermoplastic elastomers and the aromatic phosphate ester flame retardant, wherein the epoxy functional group equivalent weight is the weight of the epoxy-containing compound divided by the number of epoxy functional groups in the molecule. a) one or more copolyetherester thermoplastic elastomers; b) melamine cyanurate; c) at least one epoxy-containing compound which is selected from the group consisting of 2,2-bis(4-hydroxyphenyl)propane-epichlorohydrin copolymer and tetraglycidyl ether of tetraphenol ethane and combinations thereof; and d) optionally at least one compound selected from the group consisting of phosphites and aromatic phosphate ester flame retardants and mixtures thereof;
Laminated pane comprising a substrate having a functional element, • the substrate comprising an electrical line connection having a cross-sectional transition region from a flat conductor comprising a carrier substrate and at least one conductor track (1.2) to a cable comprising at least one electrical conductor (2.1), • at least one electrical connection being provided between the at least one conductor track (1.2) and the cable in the cross-sectional transition region , • the cross-sectional transition region having a plug connection for establishing an electrical connection between the flat conductor and the cable , • the plug connection comprising two connecting elements (1.4 A, 1.4 B, 2.2, 2.3 A, 2.3B, 2.4), • a conductor track (1.2) of the flat conductor being provided for connection to a conductor (2.1) of a cable via the plug connection, characterized in that • the cable has a second connecting element (2.2, 2.3 A, 2.3B, 2.4), which in particular has a receptacle for connection to a first connecting element (1.4 A, 1.4 B) in the form of a socket (2.3 B) or a plug contact (2.3 A), and in that the substrate is designed as a first pane and the laminated pane has a second pane and two intermediate layers between the first pane and the second pane, the functional element being arranged between the two intermediate layers and the flat conductor being electrically conductively connected at one end to at least one planar electrode of the functional element and being provided with another end via the cable for connection to a supply voltage of a vehicle. • the substrate comprising an electrical line connection having a cross-sectional transition region from a flat conductor comprising a carrier substrate and at least one conductor track (1.2) to a cable comprising at least one electrical conductor (2.1), • at least one electrical connection being provided between the at least one conductor track (1.2) and the cable in the cross-sectional transition region , • the cross-sectional transition region having a plug connection for establishing an electrical connection between the flat conductor and the cable , • the plug connection comprising two connecting elements (1.4 A, 1.4 B, 2.2, 2.3 A, 2.3B, 2.4), • a conductor track (1.2) of the flat conductor being provided for connection to a conductor (2.1) of a cable via the plug connection, characterized in that • the cable has a second connecting element (2.2, 2.3 A, 2.3B, 2.4), which in particular has a receptacle for connection to a first connecting element (1.4 A, 1.4 B) in the form of a socket (2.3 B) or a plug contact (2.3 A), and in that the substrate is designed as a first pane and the laminated pane has a second pane and two intermediate layers between the first pane and the second pane, the functional element being arranged between the two intermediate layers and the flat conductor being electrically conductively connected at one end to at least one planar electrode of the functional element and being provided with another end via the cable for connection to a supply voltage of a vehicle.
An unmanned aerial vehicles (UAVs) aerial traffic monitoring system comprising: one or more UAVs comprising a transponder and at least one of a transmitter , a localization module and/or a communication module ; and a cloud software stored in a non-transitory memory and configured to be executed by a processor , that stores records of operating UAVs ; characterized in that the unmanned aerial vehicles aerial traffic monitoring system further comprises a plurality of radar systems connected to one another so as to operate in a grid that is connected to the cloud, positioned on buildings and on a ground surface , each of the plurality of radar systems comprising an antenna system , including a first omnidirectional antenna, and a second omnidirectional antenna located coaxially above or below the first omnidirectional antenna and separated therefrom at a predefined distance, at least one of which is configured so as to transmit and receive radio frequency (RF) signals from which a direction-of-arrival (DOA) of reflected signals is inferred so as to cover and locate objects including the UAVs from 0° to 360° in azimuth and within a range of from -45° to 45° in elevations below and above the horizon; the processor storing records of operating UAVs monitored by the plurality of radar systems so as to allow online and real time situational awareness of UAV aerial traffic, aerial traffic load, and aerial collision predictions. one or more UAVs comprising a transponder and at least one of a transmitter , a localization module and/or a communication module ; and a cloud software stored in a non-transitory memory and configured to be executed by a processor , that stores records of operating UAVs ; characterized in that the unmanned aerial vehicles aerial traffic monitoring system further comprises a plurality of radar systems connected to one another so as to operate in a grid that is connected to the cloud, positioned on buildings and on a ground surface , each of the plurality of radar systems comprising an antenna system , including a first omnidirectional antenna, and a second omnidirectional antenna located coaxially above or below the first omnidirectional antenna and separated therefrom at a predefined distance, at least one of which is configured so as to transmit and receive radio frequency (RF) signals from which a direction-of-arrival (DOA) of reflected signals is inferred so as to cover and locate objects including the UAVs from 0° to 360° in azimuth and within a range of from -45° to 45° in elevations below and above the horizon; the processor storing records of operating UAVs monitored by the plurality of radar systems so as to allow online and real time situational awareness of UAV aerial traffic, aerial traffic load, and aerial collision predictions.
A communication system of an electronic wearable device comprising: a radio receiver arranged within an electrically conductive enclosure and configured to receive a communication signal at a predetermined target frequency; electrically coupled to the radio receiver via a coaxial cable, an over-resonant antenna conductor arranged outside of the enclosure, in a band of the wearable device, configured to resonate at a native frequency above an associated target frequency, wherein the antenna conductor is arranged in an inverted-L or meandered configuration, wherein the radio receiver is housed in an enclosure formed of conductive material, and wherein the coaxial cable is configured to traverse a pass-through structure pressed into an opening in an outer wall of the enclosure, and further wherein the coaxial cable is grounded at the pass-through structure; and a capacitor electrically coupled to the over-resonant antenna conductor, the capacitor being of such capacitance as to bring the antenna conductor into resonance at the predetermined target frequency. a radio receiver arranged within an electrically conductive enclosure and configured to receive a communication signal at a predetermined target frequency; electrically coupled to the radio receiver via a coaxial cable, an over-resonant antenna conductor arranged outside of the enclosure, in a band of the wearable device, configured to resonate at a native frequency above an associated target frequency, wherein the antenna conductor is arranged in an inverted-L or meandered configuration, wherein the radio receiver is housed in an enclosure formed of conductive material, and wherein the coaxial cable is configured to traverse a pass-through structure pressed into an opening in an outer wall of the enclosure, and further wherein the coaxial cable is grounded at the pass-through structure; and a capacitor electrically coupled to the over-resonant antenna conductor, the capacitor being of such capacitance as to bring the antenna conductor into resonance at the predetermined target frequency.
A tissue section selection method of selecting a tissue section to be inspected by specifically detecting a marker, the method comprising: an embedded block-preparing step of preparing an embedded block by embedding both a biological tissue fragment and a standard substance in the same embedding agent ; an embedded tissue section preparing step of slicing the embedded block to prepare a sheet-like embedded tissue section having the tissue section and a standard substance section (41a-41e) appearing on the surface of the embedded tissue section ; and a tissue section selecting step of selecting the tissue section to be inspected, based on a light signal from the standard substance section (41a-41e), characterized in that the standard substance is a thickness standard substance that serves as a reference for the thickness of the tissue section . an embedded block-preparing step of preparing an embedded block by embedding both a biological tissue fragment and a standard substance in the same embedding agent ; an embedded tissue section preparing step of slicing the embedded block to prepare a sheet-like embedded tissue section having the tissue section and a standard substance section (41a-41e) appearing on the surface of the embedded tissue section ; and a tissue section selecting step of selecting the tissue section to be inspected, based on a light signal from the standard substance section (41a-41e), characterized in that the standard substance is a thickness standard substance that serves as a reference for the thickness of the tissue section .
A luo han guo extract, comprising: mogroside V; monosaccharides; disaccharides; and proteins, wherein the extract has less than about 3% mogroside V on a dry weight basis and less than about 20% monosaccharides on a dry weight basis, and wherein the mogroside V, monosaccharides, disaccharides, and proteins are all naturally occurring in luo han guo. mogroside V; monosaccharides; disaccharides; and proteins, wherein the extract has less than about 3% mogroside V on a dry weight basis and less than about 20% monosaccharides on a dry weight basis, and wherein the mogroside V, monosaccharides, disaccharides, and proteins are all naturally occurring in luo han guo.
A method of assessing a function of a sensor , the method comprising: installing a sensor in a sump of a fuel dispensing system, such that the sensor extends downwardly into the sump to monitor for fluid infiltration into the sump; wherein the sensor is located in a tank defining a tank chamber , the sump formed at the bottom of the tank chamber; characterized by : after installing and in absence of the presence of a threshold of fluid in the sump to actuate the sensor, assessing the function of the sensor without physically accessing the sump, determining that the sensor requires manual inspection by an operator based on assessing the function of the sensor; accessing the sump from above grade level; and retrieving the sensor without physically entering the tank chamber. after installing and in absence of the presence of a threshold of fluid in the sump to actuate the sensor, assessing the function of the sensor without physically accessing the sump, determining that the sensor requires manual inspection by an operator based on assessing the function of the sensor; accessing the sump from above grade level; and retrieving the sensor without physically entering the tank chamber.
A gas turbine engine system comprising: a gas turbine engine ; a tempering system comprising a tempering compartment comprising an interior area , an inlet, an outlet, at least one arrangement pair comprising a first pipe arrangement and a second pipe arrangement spaced a distance (W) apart, a mix area in the distance between the first pipe arrangement and the second pipe arrangement, with the first pipe arrangement comprising a first plurality of pipes , with the second pipe arrangement comprising a second plurality of pipes , and one or more openings in each pipe of the first plurality of pipes and the second plurality of pipes ; and a selective catalytic reduction system : characterized in that a first plurality of vanes , and a second plurality of vanes are configured in the shape of the letter "V", with an angle α of about 5 degrees to about 90 degrees with respect to the general flow of polluted combustion gas PG through the interior area . a gas turbine engine ; a tempering system comprising a tempering compartment comprising an interior area , an inlet, an outlet, at least one arrangement pair comprising a first pipe arrangement and a second pipe arrangement spaced a distance (W) apart, a mix area in the distance between the first pipe arrangement and the second pipe arrangement, with the first pipe arrangement comprising a first plurality of pipes , with the second pipe arrangement comprising a second plurality of pipes , and one or more openings in each pipe of the first plurality of pipes and the second plurality of pipes ; and a selective catalytic reduction system : characterized in that a first plurality of vanes , and a second plurality of vanes are configured in the shape of the letter "V", with an angle α of about 5 degrees to about 90 degrees with respect to the general flow of polluted combustion gas PG through the interior area .