mhurhangee/ep-ind-claims huggingface dataset:
A method for verifying certificates, the method comprising: obtaining a certificate image of a certificate to be verified; verifying the certificate image and a first background image that is collected on site in advance to obtain a probability that the certificate image comes from a same shooting scene as the first background image, wherein verifying comprises comparing a background area in the certificate image with the first background image that is collected on site in advance, to obtain a degree of overlap between the certificate image and the first background image to obtain a comparison result, wherein the background area is an area other than the area occupied by the certificate to be verified in the certificate image, and determining, based on the comparison result, the probability that the certificate image comes from the same shooting scene as the first background image; and determining a verification result of the certificate to be verified, using the probability that the certificate image comes from the same shooting scene as the first background image. obtaining a certificate image of a certificate to be verified; verifying the certificate image and a first background image that is collected on site in advance to obtain a probability that the certificate image comes from a same shooting scene as the first background image, wherein verifying comprises comparing a background area in the certificate image with the first background image that is collected on site in advance, to obtain a degree of overlap between the certificate image and the first background image to obtain a comparison result, wherein the background area is an area other than the area occupied by the certificate to be verified in the certificate image, and determining, based on the comparison result, the probability that the certificate image comes from the same shooting scene as the first background image; and comparing a background area in the certificate image with the first background image that is collected on site in advance, to obtain a degree of overlap between the certificate image and the first background image to obtain a comparison result, wherein the background area is an area other than the area occupied by the certificate to be verified in the certificate image, and determining, based on the comparison result, the probability that the certificate image comes from the same shooting scene as the first background image; and determining a verification result of the certificate to be verified, using the probability that the certificate image comes from the same shooting scene as the first background image.
Handgun having an aiming device, comprising a housing and at least one active aiming means and also at least one passive aiming means, wherein the active aiming means has at least one tactical laser, wherein the passive aiming means is a reflecting gunsight, which is formed by a display together with a collimating mirror, wherein the mirror reflects a light emitted by the display, characterized in that the active and the passive aiming means (3, 50) are adjusted in relation to the handgun by a common adjusting device, wherein the common adjusting device is of a purely mechanical design, wherein the adjusting device is mechanically connected to the active aiming means and the display of the passive aiming means, wherein the adjusting device consists of an adjustment (4.1) and a bearing (4.2), wherein the adjustment (4.1) is located ahead of the bearing (4.2) and wherein the lever arm by which the display is displaced corresponds to the focal length of the mirror.
Hot-air cooking appliance comprising: - a cooking vessel, - removable stirring means arranged for stirring food presents in the cooking vessel, - means for driving the stirring means when the latter are mounted on the cooking appliance, characterised in that the cooking appliance comprises engagement means, that are movable and designed to take up: - a first position, when the stirring means are removed from the cooking appliance, in which the engagement means engage the driving means with the cooking vessel to drive it in rotation, - a second position, when the stirring means are mounted on the cooking appliance, in which the cooking vessel is disconnected from the driving means. - a cooking vessel, - removable stirring means arranged for stirring food presents in the cooking vessel, - means for driving the stirring means when the latter are mounted on the cooking appliance, - a first position, when the stirring means are removed from the cooking appliance, in which the engagement means engage the driving means with the cooking vessel to drive it in rotation, - a second position, when the stirring means are mounted on the cooking appliance, in which the cooking vessel is disconnected from the driving means.
A positioning method, comprising a) obtaining GNSS data derived from multi-frequency signals received at a rover antenna, b) obtaining correction data derived from a network of reference stations (135, 140), c) at each of a plurality of epochs, using the GNSS data and the correction data to estimate values defining a rover antenna position and a set of multi-frequency ambiguities, d) estimating an ionospheric-free carrier-phase ambiguity per satellite based on a known rover antenna position, and e) using the estimated ionospheric-free carrier-phase ambiguities to assist in determining an aided rover antenna position, wherein the ionospheric-free carrier-phase ambiguity per satellite based on the known rover antenna position is computed using the known rover antenna position and observed carrier-phase measurements. a) obtaining GNSS data derived from multi-frequency signals received at a rover antenna, b) obtaining correction data derived from a network of reference stations (135, 140), c) at each of a plurality of epochs, using the GNSS data and the correction data to estimate values defining a rover antenna position and a set of multi-frequency ambiguities, d) estimating an ionospheric-free carrier-phase ambiguity per satellite based on a known rover antenna position, and e) using the estimated ionospheric-free carrier-phase ambiguities to assist in determining an aided rover antenna position,
A data processing system for scoring changes in Quantitative Interstitial Lung Disease, QILD, comprising: a processor, said processor being programmed with an executable provided for: uploading a plurality of CT images of a patient's lung; filtering the uploaded images to minimize cross-site variability within images; generating a QILD score for each image based on a training set using selected texture features from the image; by: sampling from a grid of pixels or voxels within the CT images; classifying individual pixels or voxels as a disease type within said CT images based on one or more selected texture features; said disease types comprising Quantitative Fibrotic Reticulation, QFR, Quantitative Ground Glass, QGG, and Quantitative Normal Patterns, QNL; wherein the QILD score is calculated as the quotient of a sum of the total number of pixels or voxels within a CT image that are classified as Quantitative Fibrotic Reticulation, QFR, and as Quantitative Ground Glass, QGG, by a count of the total number of grid samples within the CT image; and calculating a transition between the QILD scores within the plurality of CT images. uploading a plurality of CT images of a patient's lung; filtering the uploaded images to minimize cross-site variability within images; generating a QILD score for each image based on a training set using selected texture features from the image; by: sampling from a grid of pixels or voxels within the CT images; classifying individual pixels or voxels as a disease type within said CT images based on one or more selected texture features; said sampling from a grid of pixels or voxels within the CT images; classifying individual pixels or voxels as a disease type within said CT images based on one or more selected texture features; said disease types comprising Quantitative Fibrotic Reticulation, QFR, Quantitative Ground Glass, QGG, and Quantitative Normal Patterns, QNL; wherein the QILD score is calculated as the quotient of a sum of the total number of pixels or voxels within a CT image that are classified as Quantitative Fibrotic Reticulation, QFR, and as Quantitative Ground Glass, QGG, by a count of the total number of grid samples within the CT image; and calculating a transition between the QILD scores within the plurality of CT images.
A monitoring device, comprising: communications circuitry for communicating data using at least one wireless transmission protocol; electrocardiogram circuitry for monitoring the heart rate of a user of the monitoring device; a shared conductive element in electrical connection with the communications circuitry and the ECG circuitry, wherein the shared conductive element (206, 302) functions as an antenna for the communications circuitry and an electrode for the ECG circuitry; a first decoupling element positioned along an electrical path between the shared conductive element (206, 302) and the communications circuitry, wherein signals of a first frequency range are received from the shared conductive element (206, 302) to the communications circuitry, wherein the communications circuitry does not significantly load the ECG circuitry at a second frequency range and wherein the first decoupling element is selected such that the communications circuitry does not significantly load the ECG circuitry at a second frequency range; and a second decoupling element positioned along an electrical path between the shared conductive element (206, 302) and the ECG circuitry, wherein signals of the second frequency range are received from the shared conductive element (206, 302) to the ECG circuitry,wherein the ECG circuitry does not significantly load the communication circuitry at the first frequency range and wherein the second decoupling element is selected such that the biometric circuitry does not significantly load the communications circuitry at the first frequency range. communications circuitry for communicating data using at least one wireless transmission protocol; electrocardiogram circuitry for monitoring the heart rate of a user of the monitoring device; a shared conductive element in electrical connection with the communications circuitry and the ECG circuitry, wherein the shared conductive element (206, 302) functions as an antenna for the communications circuitry and an electrode for the ECG circuitry; a first decoupling element positioned along an electrical path between the shared conductive element (206, 302) and the communications circuitry, wherein signals of a first frequency range are received from the shared conductive element (206, 302) to the communications circuitry, wherein the communications circuitry does not significantly load the ECG circuitry at a second frequency range and wherein the first decoupling element is selected such that the communications circuitry does not significantly load the ECG circuitry at a second frequency range; and a second decoupling element positioned along an electrical path between the shared conductive element (206, 302) and the ECG circuitry, wherein signals of the second frequency range are received from the shared conductive element (206, 302) to the ECG circuitry,wherein the ECG circuitry does not significantly load the communication circuitry at the first frequency range and wherein the second decoupling element is selected such that the biometric circuitry does not significantly load the communications circuitry at the first frequency range.
Transport securing means for engaging/releasing systems of clutches, in particular of double clutches, a first engaging/releasing system having a first concentrically arranged, annular piston and a second engaging/releasing system having a second concentrically arranged, annular piston in a housing with a longitudinal bore (1.1) for receiving a transmission input shaft, the axially displaceable first piston being operatively connected to a radially outer engaging/releasing bearing, and the axially displaceable second piston being operatively connected to a radially inner engaging/releasing bearing, and a securing element being provided on/in the clutch-side end region of the housing, which securing element consists substantially of a sleeve part (10.1) which can be plugged into the longitudinal bore (1.1) of the housing and a radial flange (10.2) which extends outside the longitudinal bore (1.1), characterized in that the flange (10.2) forms an axial stop for the two engaging/releasing systems.
A hetero-cyclic compound represented by the following Chemical Formula 1: wherein in Chemical Formula 1, X1 to X6 are the same as or different from each other, and are each independently a trivalent hetero atom or CH, at least one of X1 to X3 is CH or at least one of X4 to X6 is CH, at least one of X1 to X3 is N or at least one of X4 to X6 is N, L1 and L2 are the same as each other, and are a direct bond; or a substituted or unsubstituted arylene group having 6 to 9 carbon atoms, Ar1 to Ar4 are the same as or different from each other, and are each independently a phenyl group which is unsubstituted or substituted with a nitrile group; a biphenyl group; a terphenyl group; a fluorenyl group which is substituted with an alkyl group or an aryl group; a phenanthryl group; a naphthyl group; a pyridine group; or a thiophene group, and are the same as each other. X1 to X6 are the same as or different from each other, and are each independently a trivalent hetero atom or CH, at least one of X1 to X3 is CH or at least one of X4 to X6 is CH, at least one of X1 to X3 is N or at least one of X4 to X6 is N, L1 and L2 are the same as each other, and are a direct bond; or a substituted or unsubstituted arylene group having 6 to 9 carbon atoms, Ar1 to Ar4 are the same as or different from each other, and are each independently a phenyl group which is unsubstituted or substituted with a nitrile group; a biphenyl group; a terphenyl group; a fluorenyl group which is substituted with an alkyl group or an aryl group; a phenanthryl group; a naphthyl group; a pyridine group; or a thiophene group, and are the same as each other.
A vehicle headlamp comprising: - A reflector; - A headlamp assembly operatively located in said reflector and comprising a socket having a first light source positioned therein, said assembly having a longitudinal axis; - A flange extending peripherally away from said socket; and - A plurality of second light sources positioned on said flange and arrayed about said longitudinal axis and emitting light via an optic; and wherein said second light sources are light emitting diodes; Characterized in that - Each of said light emitting diodes is fitted with said optic; and - said optic being designed as asymmetrical optic which directs some of the emitted light in a forward direction and some of the emitted light toward the reflector. - A reflector; - A headlamp assembly operatively located in said reflector and comprising a socket having a first light source positioned therein, said assembly having a longitudinal axis; - A flange extending peripherally away from said socket; and - A plurality of second light sources positioned on said flange and arrayed about said longitudinal axis and emitting light via an optic; and wherein said second light sources are light emitting diodes; - Each of said light emitting diodes is fitted with said optic; and - said optic being designed as asymmetrical optic which directs some of the emitted light in a forward direction and some of the emitted light toward the reflector.
A computer-implemented method of determining a fall risk of a subject, the method comprising: receiving a first data set containing measurements of movements of the subject over a period of time; receiving a second data set indicative of context information of the subject, wherein the second data set contains measurements that cover the same period of time as is covered by the first data set; selecting a part of the first data set based on the second data set; and determining a fall risk based on movement measurements in the selected part of the first data set. receiving a first data set containing measurements of movements of the subject over a period of time; receiving a second data set indicative of context information of the subject, wherein the second data set contains measurements that cover the same period of time as is covered by the first data set; selecting a part of the first data set based on the second data set; and determining a fall risk based on movement measurements in the selected part of the first data set.
A textile machine with a drum inter-storage of yarn, which comprises a driven rotary drum with a compensatory rotary arm, wherein the driven rotary drum is coupled with a first drive formed by an electric motor and the compensatory rotary arm is coupled with a second drive formed by an electric motor, whereby both the motors are connected to a control system of the textile machine, characterized in that the drum is pivotably mounted on a non-rotary central shaft, at the back end of which is placed a stator of the motor of an independently rotatable shaft with the movable arm, which is pivotably seated in the non-rotary central shaft and which carries a rotor of the motor of the moving arm, whereby on the non-rotary central shaft is further arranged the motor of the drum, whose rotor is firmly mounted on the drum.
A gas turbine engine component (60A; 60B; 85), comprising: a body (62; 71; 87); a wall extending inside of said body (62; 71; 87) wherein said wall circumscribes a cavity formed through said body (62; 71; 87); and a plurality of vortex promoting features arranged in a helical pattern along said wall wherein said helical pattern extends along a direction of flow through said cavity; characterised in that: the vortex promoting features are pedestals or hemispherical protrusions. a body (62; 71; 87); a wall extending inside of said body (62; 71; 87) wherein said wall circumscribes a cavity formed through said body (62; 71; 87); and a plurality of vortex promoting features arranged in a helical pattern along said wall wherein said helical pattern extends along a direction of flow through said cavity; characterised in that: the vortex promoting features are pedestals or hemispherical protrusions.
A method for an imaging system, comprising: prior to a diagnostic scan, performing a warmup procedure for an x-ray tube of a radiation source, the warmup procedure comprising generating x-ray in the x-ray tube to condition the x-ray tube, wherein said conditioning is based on an initial temperature of the x-ray tube, a desired temperature of the x-ray tube for the diagnostic scan, and a predicted decrease in temperature in a time frame between the end of the conditioning and the start of the diagnostic scan, the predicted decrease in temperature estimated using a thermal model of the x-ray tube. prior to a diagnostic scan, performing a warmup procedure for an x-ray tube of a radiation source, the warmup procedure comprising generating x-ray in the x-ray tube to condition the x-ray tube, wherein said conditioning is based on an initial temperature of the x-ray tube, a desired temperature of the x-ray tube for the diagnostic scan, and a predicted decrease in temperature in a time frame between the end of the conditioning and the start of the diagnostic scan, the predicted decrease in temperature estimated using a thermal model of the x-ray tube.
A three-dimensional scanning system, being configured to acquire three-dimensional fringe point cloud data of a tested object and comprising: a light source, configured to alternately project multiple speckle patterns and fringe patterns on the tested object in sequence; left and right cameras, configured to synchronously acquire left and right speckle images and left and right fringe images of the tested object, wherein the left and right speckle images are acquired according to the speckle patterns and the left and right fringe images are acquired according to the fringe patterns; characterized by a speckle data and mark point data reconstruction module, configured to obtain three-dimensional speckle data and three-dimensional mark point data according to the left and right speckle images; a fringe matching module, configured to back project the three-dimensional speckle data and the three-dimensional mark point data onto the left and right fringe images and thereby guide matching of fringes of the left and right fringe images; and a three-dimensional reconstruction module, configured to reconstruct corresponding matched fringes in the left and right fringe images into the three-dimensional fringe point cloud data. a light source, configured to alternately project multiple speckle patterns and fringe patterns on the tested object in sequence; left and right cameras, configured to synchronously acquire left and right speckle images and left and right fringe images of the tested object, wherein the left and right speckle images are acquired according to the speckle patterns and the left and right fringe images are acquired according to the fringe patterns; characterized by a speckle data and mark point data reconstruction module, configured to obtain three-dimensional speckle data and three-dimensional mark point data according to the left and right speckle images; a fringe matching module, configured to back project the three-dimensional speckle data and the three-dimensional mark point data onto the left and right fringe images and thereby guide matching of fringes of the left and right fringe images; and a three-dimensional reconstruction module, configured to reconstruct corresponding matched fringes in the left and right fringe images into the three-dimensional fringe point cloud data.
Aqueous coating composition comprising at least one aqueous dispersion or solution of at least one electrophoretically depositable binder and optionally of at least one crosslinking agent, and at least one aqueous sol-gel composition, for at least partly coating an electrically conductive substrate with an electrocoat material, the electrophoretically depositable binder being cathodically depositable and being a polymeric resin which has reactive functional groups which permit a crosslinking reaction with the crosslinking agent optionally present, and the aqueous sol-gel composition being obtainable by reaction of at least one starting compound suitable for preparing the sol-gel composition with water, with hydrolysis and condensation of the at least one starting compound, the at least one starting compound having at least one metal atom and/or semimetal atom and at least two hydrolyzable groups, and at least one nonhydrolyzable organic radical. at least one aqueous dispersion or solution of at least one electrophoretically depositable binder and optionally of at least one crosslinking agent, and at least one aqueous sol-gel composition, the electrophoretically depositable binder being cathodically depositable and being a polymeric resin which has reactive functional groups which permit a crosslinking reaction with the crosslinking agent optionally present, and the aqueous sol-gel composition being obtainable by reaction of at least one starting compound suitable for preparing the sol-gel composition with water, with hydrolysis and condensation of the at least one starting compound, the at least one starting compound having at least one metal atom and/or semimetal atom and at least two hydrolyzable groups, and at least one nonhydrolyzable organic radical. the at least one starting compound having at least one metal atom and/or semimetal atom and at least two hydrolyzable groups, and at least one nonhydrolyzable organic radical.