mhurhangee/ep-ind-claims huggingface dataset:
A test and measurement instrument comprising: an input port configured to receive measurement data; a processor coupled to the input port and configured to: apply a plurality of classifiers to the measurement data to determine a classification for the measurement data, whereby a machine learning module (216, 333) is employed to train the plurality of classifiers; select a model corresponding to the classification, the model corresponding to one or more suggested actions; and recommend the suggested actions to a user; and a user control coupled to the processor, the user control configured to receive a selection from the user; wherein the processor is further configured to, in response to the selection from the user, configure the test and measurement instrument to employ the suggested actions corresponding to the selected model when capturing a waveform received over the input port. an input port configured to receive measurement data; a processor coupled to the input port and configured to: apply a plurality of classifiers to the measurement data to determine a classification for the measurement data, whereby a machine learning module (216, 333) is employed to train the plurality of classifiers; select a model corresponding to the classification, the model corresponding to one or more suggested actions; and recommend the suggested actions to a user; and apply a plurality of classifiers to the measurement data to determine a classification for the measurement data, whereby a machine learning module (216, 333) is employed to train the plurality of classifiers; select a model corresponding to the classification, the model corresponding to one or more suggested actions; and recommend the suggested actions to a user; and a user control coupled to the processor, the user control configured to receive a selection from the user; wherein the processor is further configured to, in response to the selection from the user, configure the test and measurement instrument to employ the suggested actions corresponding to the selected model when capturing a waveform received over the input port.
A self-aligning driveshaft coupler, comprising: an output shaft; a receiving clutch mounted to the output shaft and having a neck with a retaining groove; a locking clutch assembly mountable to an implement and having a collar and a yoke that rotate together, and a spring between the collar and the yoke; characterized by a locking pin inwardly extending and pivotably attached to the yoke to move a projection on the locking pin in and out of the retaining groove; and by a plurality of drive pins extending axially from the collar, the spring biasing the drive pins into engagement with the receiving clutch when the locking pin projection is in the retaining groove and the output shaft and receiving clutch are rotated. an output shaft; a receiving clutch mounted to the output shaft and having a neck with a retaining groove; a locking clutch assembly mountable to an implement and having a collar and a yoke that rotate together, and a spring between the collar and the yoke; characterized by a locking pin inwardly extending and pivotably attached to the yoke to move a projection on the locking pin in and out of the retaining groove; and by a plurality of drive pins extending axially from the collar, the spring biasing the drive pins into engagement with the receiving clutch when the locking pin projection is in the retaining groove and the output shaft and receiving clutch are rotated.
A process for brazing of parts of aluminum alloy comprising equal to or more than 0.5 by weight of magnesium in the interface, comprising a step of applying a brazing flux to at least one of parts to be joined, a step of assembling the parts to be joined and a step of heating the parts to be joined to a temperature of equal to or higher than 450°C to provide brazed joint parts, wherein the brazing flux comprises equal to or more than 80 % by weight, relative to the total weight of the brazing flux, of a first component and equal to or more than 3 % by weight of a second component, relative to the total weight of the brazing flux, wherein the content of free KF is lower than 0.1 % by weight, relative to the total weight of the brazing flux if at least one compound selected from the group consisting of LiF, NaF and CaF 2 is comprised in the flux with the proviso that the first component and the second component are not identical, and wherein the first component is selected from monoalkali tetrafluoroaluminates selected from KAlF 4, CsAlF 4 and mixtures thereof, and the second component is at least one alkaline or alkaline earth metal compound selected from the group consisting of KAlF 4, CsAlF 4, Li 3 AlF 6, CaF 2, CaCO 3, MgF 2, MgCO 3, SrF 2, SrCO 3, BaF 2, BaCO 3, and mixtures of two or more thereof.
A method of testing the accuracy of a sensor, the method comprising the steps of: a) determining an actual distance (di) between a first and a second feature (1, 2) of a precision measurement object; b) aligning the sensor for detecting the precision measurement object in a detection position; c) detecting the position (x1, y1, z1) of the first feature of the precision measurement object by means of the sensor aligned in the detection position; d) detecting the position (x2, y2, z2) of the second feature of the precision measurement object by means of the sensor aligned in the same detection position without changing the position of the sensor relative to the precision measurement object; e) determining a measurement distance (dm) between the first and the second feature (1, 2) from the detected positions (x1, y1, z1, x2, y2, z2) of the first and the second feature (1, 2); and f) determining an accuracy of the sensor on the basis of a difference between the actual distance and the measurement distance, wherein the sensor is a camera, and the position of a feature of the precision measurement object is detected in step c) and/or d) by means of an image processing method which comprises the input of a type of feature and/or of a region for the position of the feature (S22, S24, S32, S34). a) determining an actual distance (di) between a first and a second feature (1, 2) of a precision measurement object; b) aligning the sensor for detecting the precision measurement object in a detection position; c) detecting the position (x1, y1, z1) of the first feature of the precision measurement object by means of the sensor aligned in the detection position; d) detecting the position (x2, y2, z2) of the second feature of the precision measurement object by means of the sensor aligned in the same detection position without changing the position of the sensor relative to the precision measurement object; e) determining a measurement distance (dm) between the first and the second feature (1, 2) from the detected positions (x1, y1, z1, x2, y2, z2) of the first and the second feature (1, 2); and f) determining an accuracy of the sensor on the basis of a difference between the actual distance and the measurement distance,
A deuterium-enriched compound of Formula I-A: and pharmaceutically acceptable salts and stereoisomers thereof, wherein: Z is H or D, provided that the abundance of deuterium in Z is at least 30%; R 1-A and R 2-A are H. Z is H or D, provided that the abundance of deuterium in Z is at least 30%; R 1-A and R 2-A are H.
An alarm processing method, comprising: detecting, at an Network Functions Virtualization Infrastructure, NFVI, layer, that the NFVI layer has a virtual resource pool failure; when determining, at the NFVI layer, that the virtual resource pool failure is correlated to a Virtualized Network Function, VNF, instance, generating, at the NFVI layer, the NFVI layer alarm, wherein the NFVI layer alarm comprises identification information identifying that an alarm type of the NFVI layer alarm is a virtual resource pool alarm; sending, at the NFVI layer, the generated NFVI layer alarm to a Virtualized Infrastructure Manager entity, VIM; sending, by the VIM, the NFVI layer alarm to a Virtualized Network Function Manager entity, VNFM; and reporting, by the VNFM, the NFVI layer alarm to an Element Management System, EMS; and receiving, by the EMS, the NFVI layer alarm reported by the VNFM. detecting, at an Network Functions Virtualization Infrastructure, NFVI, layer, that the NFVI layer has a virtual resource pool failure; when determining, at the NFVI layer, that the virtual resource pool failure is correlated to a Virtualized Network Function, VNF, instance, generating, at the NFVI layer, the NFVI layer alarm, wherein the NFVI layer alarm comprises identification information identifying that an alarm type of the NFVI layer alarm is a virtual resource pool alarm; sending, at the NFVI layer, the generated NFVI layer alarm to a Virtualized Infrastructure Manager entity, VIM; sending, by the VIM, the NFVI layer alarm to a Virtualized Network Function Manager entity, VNFM; and reporting, by the VNFM, the NFVI layer alarm to an Element Management System, EMS; and receiving, by the EMS, the NFVI layer alarm reported by the VNFM.
A component for a vehicle, particularly a passenger car, the component comprising at least one carrier element and at least one cover element connected to the carrier element and having a viewing side, the component further comprising at least one connecting profile element connecting the carrier element and the cover element to each other, and the connecting profile element comprising at least two connecting regions, characterized in that the at least two connecting regions are preferably disposed opposite each other and preferably extend over the entire length of the connecting profile element, wherein the connecting regions each engage in at least one connecting region of the at least one carrier element corresponding thereto and at least one connecting region of the at least one cover element corresponding thereto, and that the at least one connecting profile element extends between the carrier element and the cover element at least over a portion of the length thereof to the outer side of the component or beyond, and forms part of the surface of the component between the carrier element and the cover element, and that the at least one connecting profile element is self-supporting and forms a core reinforcing the component.
Valve arrangement for controlling the air suspension level of a rail vehicle, comprising a proportional directional control valve, a sensor means for continuously detecting a distance variable representing the distance between a car body and a chassis or bogie of the rail vehicle, and a digital control device, characterized in that the control device is programmed to determine a control deviation on the basis of the actual distance detected by the sensor means and a comparison with a specifiable target distance, and to continuously generate manipulated variables as a linear function of the determined control deviation and the car body travel speed.
A method of repairing an airfoil, comprising the steps of: inserting a tip portion of a worn airfoil into an aperture (76a; 76b) within a guide (72a; 72b) wherein the guide (72a, 72b) is a plate; using a fixture to secure the guide relative to the tip end portion of the worn airfoil such that the blade surface is substantially flush with a surface of the guide; applying additional material to the said tip portion of the worn airfoil by moving a welder in a single direction; limiting movement of the additional material with the guide (72a; 72b); and altering some of the additional material to form a desired airfoil contour; characterised in that: said additional material is exclusively received on said tip portion and said guide (72a;72b), movement of said applied additional material away from said airfoil tip portion being limited exclusively by said guide (72a, 72b). inserting a tip portion of a worn airfoil into an aperture (76a; 76b) within a guide (72a; 72b) wherein the guide (72a, 72b) is a plate; using a fixture to secure the guide relative to the tip end portion of the worn airfoil such that the blade surface is substantially flush with a surface of the guide; applying additional material to the said tip portion of the worn airfoil by moving a welder in a single direction; limiting movement of the additional material with the guide (72a; 72b); and altering some of the additional material to form a desired airfoil contour; characterised in that: said additional material is exclusively received on said tip portion and said guide (72a;72b), movement of said applied additional material away from said airfoil tip portion being limited exclusively by said guide (72a, 72b).
Method for calibrating an environment sensor arranged on a rail vehicle, which is embodied to capture image data sets (c), which each represent an environment segment lying in the field of view thereof, - wherein, in the region of a track with a track section running in a straight line, a calibration marking is arranged at a defined lateral position in relation to a track centre of the track section, - wherein, during a calibration journey of the rail vehicle on the track section, a series of image data sets (c) containing the calibration marking is captured by the environment sensor, - wherein a series of positions of the environment sensor relative to the calibration marking is ascertained from the captured image data sets (c), - wherein the relative position of the environment sensor in relation to the track centre is ascertained by resolving an optimisation task, with the side condition that the ascertained series of positions of the environment sensor lies on a straight line (g) relative to the calibration marking. - wherein, in the region of a track with a track section running in a straight line, a calibration marking is arranged at a defined lateral position in relation to a track centre of the track section, - wherein, during a calibration journey of the rail vehicle on the track section, a series of image data sets (c) containing the calibration marking is captured by the environment sensor, - wherein a series of positions of the environment sensor relative to the calibration marking is ascertained from the captured image data sets (c), - wherein the relative position of the environment sensor in relation to the track centre is ascertained by resolving an optimisation task, with the side condition that the ascertained series of positions of the environment sensor lies on a straight line (g) relative to the calibration marking.
A method for measuring a temperature, comprising following steps: positioning a contactless infrared thermometer at a predetermined distance from a target area of a patient, when it is desired to know the patient's internal body temperature; pointing at the target area such that an infrared radiation sensor of the thermometer can receive infrared radiations coming from the target area; activating the contactless infrared thermometer in order to measure the internal temperature of the patient; detecting, using the contactless infrared thermometer and for a determined time interval, an intensity of an infrared radiation coming at least from the target area of the subject; characterised in that the target area is a closed upper eyelid of the body of the human patient; the method including the step of closing at least an eye and detecting an intensity of an infrared radiation coming from the closed upper eyelid. positioning a contactless infrared thermometer at a predetermined distance from a target area of a patient, when it is desired to know the patient's internal body temperature; pointing at the target area such that an infrared radiation sensor of the thermometer can receive infrared radiations coming from the target area; activating the contactless infrared thermometer in order to measure the internal temperature of the patient; detecting, using the contactless infrared thermometer and for a determined time interval, an intensity of an infrared radiation coming at least from the target area of the subject; characterised in that the target area is a closed upper eyelid of the body of the human patient; the method including the step of closing at least an eye and detecting an intensity of an infrared radiation coming from the closed upper eyelid.
A process for the preparation of a compound represented by formula wherein X is selected from the group consisting of -H, a halogen, linear or branched C1-C7alkyl group, linear or branched C1-C5 alkoxy group, - NO 2 and -CN and Y is a linear or branched C1-C7 alkyl group, the process comprises the steps of: a) reacting a compound represented by formula with a compound represented by to obtain an intermediate product, wherein X is as defined with respect to formula, wherein Z is H, CH3 or C2H5, wherein after completion of the reaction no purification step is carried out before step b) b) reacting the intermediate product of step a) with a compound represented by Y 2 SO 4 wherein Y is as defined with respect to formula to obtain a salt, wherein after completion of the reaction no purification step is carried out before step c) and c) hydrolyzing the salt of step b) to obtain the compound of formula. X is selected from the group consisting of -H, a halogen, linear or branched C1-C7alkyl group, linear or branched C1-C5 alkoxy group, - NO 2 and -CN and Y is a linear or branched C1-C7 alkyl group, the process comprises the steps of: a) reacting a compound represented by formula with a compound represented by to obtain an intermediate product, wherein X is as defined with respect to formula, wherein Z is H, CH3 or C2H5, wherein after completion of the reaction no purification step is carried out before step b) b) reacting the intermediate product of step a) with a compound represented by Y 2 SO 4 wherein Y is as defined with respect to formula to obtain a salt, wherein after completion of the reaction no purification step is carried out before step c) and c) hydrolyzing the salt of step b) to obtain the compound of formula. a) reacting a compound represented by formula with a compound represented by to obtain an intermediate product, wherein X is as defined with respect to formula, wherein Z is H, CH3 or C2H5, wherein after completion of the reaction no purification step is carried out before step b) wherein X is as defined with respect to formula, wherein Z is H, CH3 or C2H5, wherein after completion of the reaction no purification step is carried out before step b) b) reacting the intermediate product of step a) with a compound represented by Y 2 SO 4 wherein Y is as defined with respect to formula to obtain a salt, wherein after completion of the reaction no purification step is carried out before step c) and c) hydrolyzing the salt of step b) to obtain the compound of formula.
Commercial vehicle (1 1'), in particular heavy goods vehicle, trailer or semi-trailer, having a body in the form of a tarpaulin body or box body, wherein the body has an electrical illumination device (7, 7', 7", 18, 18', 18") comprising a plurality of lamps arranged in a row for active contour marking of the commercial vehicle and wherein the lamps are arranged on a side wall (3, 3'), a rear wall (5, 5') and/or a front wall of the body of the commercial vehicle (1, 1'), characterised in that at least one flat, retroreflective means allocated to the plurality of lamps arranged in a row is provided on the side wall (3, 3'), the rear wall (5, 5') and/or the front wall of the body for passive contour marking of the commercial vehicle (1, 1'), wherein the retroreflective means is formed in strips and to be partially transparent and wherein the retroreflective means is arranged to at least partially cover the plurality of lamps arranged in a row respectively for backlighting.
A method of allocating resources for transmitting content from a network element in a communications network to one or more mobile devices (110∼125) each in communication with the network element, the method comprising: receiving, at the network element, characteristic information corresponding to each of the one or more mobile devices (110∼125); generating one or more adaptive guaranteed bit rate (AGBR) values at the network element corresponding to each of the one or more mobile devices (110∼125), respectively, the AGBR values being GBR values generated for each of the one or more mobile devices (110∼125) based on the corresponding characteristic information; executing at the network element a first scheduling algorithm based on the one or more AGBR values; and allocating resources at the network element to each of the one or more mobile devices (110∼125) based on an output of the scheduling algorithm. receiving, at the network element, characteristic information corresponding to each of the one or more mobile devices (110∼125); generating one or more adaptive guaranteed bit rate (AGBR) values at the network element corresponding to each of the one or more mobile devices (110∼125), respectively, the AGBR values being GBR values generated for each of the one or more mobile devices (110∼125) based on the corresponding characteristic information; executing at the network element a first scheduling algorithm based on the one or more AGBR values; and allocating resources at the network element to each of the one or more mobile devices (110∼125) based on an output of the scheduling algorithm.
An IO-link device configured as slave for transmitting/receiving signal data with a master module, the IO-link device comprising: - a sensor or actuator configured to output measurement signals; - a first microcontroller operatively coupled to the sensor or actuator and configured to receive the measurement signals and to generate data based on the measurement signals, and - a transceiving module comprising a physical layer transceiver configured to receive/transmit signal data from/to the master module, characterised in that the IO-link device comprises a second microcontroller operatively coupled to, and in bidirectional communication with the physical layer transceiver, wherein the physical layer transceiver is configured to receive signal data associated with a request from the master module and to transmit signal data associated with the request to the second microcontroller; the second microcontroller is configured to receive the signal data from the physical layer transceiver and to execute a device IO-Link protocol stack, the second microcontroller being operatively coupled to, and in bidirectional communication with the first microcontroller for the transmission of the signal data associated with the request to the first microcontroller and for the reception of data based on the measurement signals from the first controller in response to the signal data associated with the request. - a sensor or actuator configured to output measurement signals; - a first microcontroller operatively coupled to the sensor or actuator and configured to receive the measurement signals and to generate data based on the measurement signals, and - a transceiving module comprising a physical layer transceiver configured to receive/transmit signal data from/to the master module, characterised in that the IO-link device comprises a second microcontroller operatively coupled to, and in bidirectional communication with the physical layer transceiver, wherein the physical layer transceiver is configured to receive signal data associated with a request from the master module and to transmit signal data associated with the request to the second microcontroller; the second microcontroller is configured to receive the signal data from the physical layer transceiver and to execute a device IO-Link protocol stack, the second microcontroller being operatively coupled to, and in bidirectional communication with the first microcontroller for the transmission of the signal data associated with the request to the first microcontroller and for the reception of data based on the measurement signals from the first controller in response to the signal data associated with the request.