mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting defects during additive manufacturing comprising: pausing additive manufacturing of an object within a build chamber at a time T 1 , wherein T 1 is subsequent to a time T 0 and prior to a time T F , wherein time T 0 is a start of additive manufacturing of the object being formed and time T F is a completion of additive manufacturing of the object being formed in the build chamber ; moving linearly or rotating the object in the build chamber in a direction perpendicular to the length dimension of a linear x-ray detector and a linear aperture , wherein the linear aperture and the linear x-ray detector are disposed outside of the build chamber ; directing an x-ray pulse from an x-ray tube through the linear aperture towards the object being formed and rotated or moved inside of the build chamber to scan the object being formed; detecting the x-ray pulse, by the linear x-ray detector array , subsequent to interaction of the x-ray pulse and the object being formed and rotated; and creating an x-ray image of the object being formed based on the x-ray pulse that was detected, wherein the rotation or movement of the object is such that the entire volume of the object is scanned by the x-ray pulse. pausing additive manufacturing of an object within a build chamber at a time T 1 , wherein T 1 is subsequent to a time T 0 and prior to a time T F , wherein time T 0 is a start of additive manufacturing of the object being formed and time T F is a completion of additive manufacturing of the object being formed in the build chamber ; moving linearly or rotating the object in the build chamber in a direction perpendicular to the length dimension of a linear x-ray detector and a linear aperture , wherein the linear aperture and the linear x-ray detector are disposed outside of the build chamber ; directing an x-ray pulse from an x-ray tube through the linear aperture towards the object being formed and rotated or moved inside of the build chamber to scan the object being formed; detecting the x-ray pulse, by the linear x-ray detector array , subsequent to interaction of the x-ray pulse and the object being formed and rotated; and creating an x-ray image of the object being formed based on the x-ray pulse that was detected, wherein the rotation or movement of the object is such that the entire volume of the object is scanned by the x-ray pulse.
A bit for drilling tool , said bit comprising a bit body having a drilling face and a face for attaching the bit to a rotor assembly of the drilling tool , said bit body delimiting a through channel for passing the fluid flow connecting the attachment face to the drilling face by opening at a circular central face opening (231A1) of the drilling face , the drilling face comprising an outer surface connecting the central face opening (231A1) to the attachment face and from which a plurality of drilling members evenly distributed on said outer surface extend, each drilling member comprising a fin , extending radially from the outer surface from the attachment face into the central face opening (231A1), and a plurality of drilling teeth extending from said fin by being disposed side-by-side between a first drilling tooth located at the end of the drilling face and a last drilling tooth located on the side of the attachment face , and each comprising a base (233B1) and a cutting element (233B2) disposed at the end of said base (233B1), the bit comprising a high-voltage electrode disposed in the through channel , in the center of the central face opening (231A1) recessed from the first drilling tooth of each drilling member , each drilling member comprising a ground electrode placed at the end of the fin , at said high-voltage electrode , so as to extend at least partially in line with the central face opening (231A1) recessed from the first drilling tooth of said drilling member .
A system comprising: - welding equipment providing power for forming a weld ; - welding headwear - one or more image sensors , processing circuitry , and communication interface circuitry , wherein: - said one or more image sensors are operable to capture an image of a weld in progress; - said processing circuitry is operable to perform an analysis of pixel data of said image to determine a brightness of a welding arc of said weld in progress; characterized in that said processing circuitry is further operable to - generate, while said weld is in progress, a welding equipment control signal to cause a welding equipment to change at least one of a welding voltage, or a welding current based on said brightness of said welding arc ; and - output, while said weld is in progress, said welding equipment control signal via said communication interface circuitry , wherein said one or more image sensors , said processing circuitry , and said communication interface circuitry are integrated into said welding headwear . - welding equipment providing power for forming a weld ; - welding headwear - one or more image sensors , processing circuitry , and communication interface circuitry , wherein: - said one or more image sensors are operable to capture an image of a weld in progress; - said processing circuitry is operable to perform an analysis of pixel data of said image to determine a brightness of a welding arc of said weld in progress; characterized in that said processing circuitry is further operable to - said one or more image sensors are operable to capture an image of a weld in progress; - said processing circuitry is operable to perform an analysis of pixel data of said image to determine a brightness of a welding arc of said weld in progress; - generate, while said weld is in progress, a welding equipment control signal to cause a welding equipment to change at least one of a welding voltage, or a welding current based on said brightness of said welding arc ; and - output, while said weld is in progress, said welding equipment control signal via said communication interface circuitry ,
A beamforming controller for a beamforming transmitter device , the beamforming controller comprising a control element configured to: activate a first configuration state of a plurality of configuration states for a control channel, each configuration state indicating a beam direction of the control channel; control a beam switching of the control channel from the first configuration state to a second configuration state based on a beam direction of the control channel according to the first configuration state; characterized by retransmit signaling of the beam switching based on a beam direction of the control channel according to both, the first and the second configuration state if an acknowledgement to the beam switching is null, not received, missing or received in error, wherein the control element is configured to retransmit the signaling of the beam switching based on a beam direction of the control channel according to the first configuration state before, in the case that an acknowledgement to the beam switching that is expected to be received at a time earlier than a predefined time has not been received until the predefined time, retransmitting the signaling of the beam switching based on a beam direction of the control channel according to the second configuration state. activate a first configuration state of a plurality of configuration states for a control channel, each configuration state indicating a beam direction of the control channel; control a beam switching of the control channel from the first configuration state to a second configuration state based on a beam direction of the control channel according to the first configuration state;
A method, performed by a wireless device operating in a wireless network, for reporting measurements of interference affecting one or more critical wireless services provided by the wireless network, wherein 1 each of the one or more critical wireless services is an Ultra-Reliable and Low Latency Communications, URLLC, service, and wherein the measurements are for monitoring a reliability of the one or more critical wireless services, the method comprising: receiving , from the wireless network, configuration information instructing the wireless device to perform measurements on one or more radio resources or signals, the one or more radio resources or signals being solely associated with the one or more critical wireless services that the wireless device is at least currently not using; performing one or more measurements on the radio resources or signals, in accordance with the received configuration information; and selectively reporting results of the measurements, based on the configuration information. receiving , from the wireless network, configuration information instructing the wireless device to perform measurements on one or more radio resources or signals, the one or more radio resources or signals being solely associated with the one or more critical wireless services that the wireless device is at least currently not using; performing one or more measurements on the radio resources or signals, in accordance with the received configuration information; and selectively reporting results of the measurements, based on the configuration information.
A composition for use in treating fatty liver disease in a patient in need thereof, wherein the composition comprises an anti-ActRIIB antibody.
A method of determining the relative positions of components of a munitions system, the munitions system comprising a first component and at least one second component , the method comprising: providing a signal having an oscillation frequency to a resonant circuit , wherein the oscillation frequency is a frequency of less than 1 MHz; monitoring the output of a resonant circuit provided on the first component , the resonant circuit having a resonant frequency; detecting a change in the output due to a change in the resonant frequency caused by a change in the relative positions of the first component and the at least one second component ; and using the detected change to determine that the at least one second component has moved relative to the first component; wherein the method further comprises: monitoring the resonant frequency of the resonant circuit over a period of time, and using detected changes in the resonant frequency to determine movement of the at least one second component relative to the first component , wherein using the detected changes to determine whether the at least one second component has moved relative to the first component comprises determining the separation distance and/or angle of separation between the first component and the at least one second component. providing a signal having an oscillation frequency to a resonant circuit , wherein the oscillation frequency is a frequency of less than 1 MHz; monitoring the output of a resonant circuit provided on the first component , the resonant circuit having a resonant frequency; detecting a change in the output due to a change in the resonant frequency caused by a change in the relative positions of the first component and the at least one second component ; and using the detected change to determine that the at least one second component has moved relative to the first component;
A hearing device comprising: - a processing unit (4, 4', 4"); - a transceiver connected to the processing unit (4, 4', 4") and being configured for outputting a transceiver output signal representative of a first audio signal to form a first input signal for the processing unit (4, 4', 4"); and - a microphone connected to the processing unit (4, 4', 4") for converting a second audio signal into a microphone output signal to form a second input signal for the processing unit (4, 4', 4"); wherein the processing unit (4, 4', 4") is configured to: - estimate a time shift between the microphone output signal and the transceiver output signal ; - determine a time delay based on the time shift; - apply the time delay to the first input signal to the processing unit (4, 4', 4") to form a first summing signal ; and - combine the first summing signal and a second summing signal to generate a combined signal, the second summing signal being based on the second input signal to the processing unit (4, 4', 4"); characterized in that the time delay is determined such that, if the combined signal is presented to a user of the hearing device , said user will hear the second input signal before hearing the first input signal . - a processing unit (4, 4', 4"); - a transceiver connected to the processing unit (4, 4', 4") and being configured for outputting a transceiver output signal representative of a first audio signal to form a first input signal for the processing unit (4, 4', 4"); and - a microphone connected to the processing unit (4, 4', 4") for converting a second audio signal into a microphone output signal to form a second input signal for the processing unit (4, 4', 4"); - estimate a time shift between the microphone output signal and the transceiver output signal ; - determine a time delay based on the time shift; - apply the time delay to the first input signal to the processing unit (4, 4', 4") to form a first summing signal ; and - combine the first summing signal and a second summing signal to generate a combined signal, the second summing signal being based on the second input signal to the processing unit (4, 4', 4");
A speed sensor module comprising an insert cover, said insert cover comprising: an elongated body having a length aligned along a longitudinal axis, the elongated body including a convex top surface and a uniform width along the length ; a first portion emanating from the top surface at a first end of the elongated body ; characterised in that the insert cover further comprises: a second portion emanating from the top surface at a diametrically opposed second end of the elongated body ; and a third portion emanating from the top surface between the first portion and the second portion ; wherein each of the first , second , and third portions are orthogonal to the longitudinal axis. an elongated body having a length aligned along a longitudinal axis, the elongated body including a convex top surface and a uniform width along the length ; a first portion emanating from the top surface at a first end of the elongated body ; characterised in that the insert cover further comprises: a second portion emanating from the top surface at a diametrically opposed second end of the elongated body ; and a third portion emanating from the top surface between the first portion and the second portion ; a second portion emanating from the top surface at a diametrically opposed second end of the elongated body ; and a third portion emanating from the top surface between the first portion and the second portion ; wherein each of the first , second , and third portions are orthogonal to the longitudinal axis.
A method for establishing a communication link between a user terminal and a first satellite associated with a first satellite service, the method comprising: determining a position of the user terminal on Earth based, at least in part, on location information provided by a satellite positioning system, SPS, receiver associated with the user terminal using positioning satellites (802A - 802D) of a satellite-based location and positioning service; determining a reference azimuth of the user terminal based, at least in part, on a position of a second satellite associated with a second satellite service that is different than the first satellite service and the satellite-based location and positioning service; obtaining ephemeris data for the first satellite ; and aligning a directional antenna of the user terminal with the first satellite based, at least in part, on the position of the user terminal , the reference azimuth of the user terminal , and the obtained ephemeris data. determining a position of the user terminal on Earth based, at least in part, on location information provided by a satellite positioning system, SPS, receiver associated with the user terminal using positioning satellites (802A - 802D) of a satellite-based location and positioning service; determining a reference azimuth of the user terminal based, at least in part, on a position of a second satellite associated with a second satellite service that is different than the first satellite service and the satellite-based location and positioning service; obtaining ephemeris data for the first satellite ; and aligning a directional antenna of the user terminal with the first satellite based, at least in part, on the position of the user terminal , the reference azimuth of the user terminal , and the obtained ephemeris data.
Method for operating a system, wherein the system comprises a component , wherein the component may be subject to buildup , wherein the component is assigned a sensor and a first excitation unit , wherein the first excitation unit imparts a first vibration to the component , wherein the sensor detects the first vibration of the component and the sensor provides a sensor signal to a control device , wherein it is determined on the basis of analysis of the sensor signal whether the component has buildup , wherein it is determined on the basis of the sensor signal whether a buildup is present on the component and, if a buildup is detected, the buildup is removed by applying a second vibration.
[A vehicle for traffic guidance for traffic lanes equipped with at least one storage area for traffic cones (5; 13) comprising at least: - an automatic gripping and moving member for at least one traffic cone to lay on a traffic lane , between a storage area of the vehicle and a working space (E) delimited on a traffic lane to be defined by traffic cones, - an automatic guiding member of at least one traffic cone to take up from the traffic lane between the working space (E) and the automatic traffic cone gripping and moving member , the latter moving the traffic cone to the storage area , characterized in that the vehicle comprises a signaling panel mounted on the rear of the vehicle and movable in translation on slides , fastened laterally on the vehicle and in that in the position distant from the vehicle , the signaling panel defines with the slides , depending on the width of the vehicle, the secured working space (E) for laying and taking back the traffic cones . - an automatic gripping and moving member for at least one traffic cone to lay on a traffic lane , between a storage area of the vehicle and a working space (E) delimited on a traffic lane to be defined by traffic cones, - an automatic guiding member of at least one traffic cone to take up from the traffic lane between the working space (E) and the automatic traffic cone gripping and moving member , the latter moving the traffic cone to the storage area , characterized in that the vehicle comprises a signaling panel mounted on the rear of the vehicle and movable in translation on slides , fastened laterally on the vehicle and in that in the position distant from the vehicle , the signaling panel defines with the slides , depending on the width of the vehicle, the secured working space (E) for laying and taking back the traffic cones .
Radial fan wheel with a support plate , a ring nozzle and a plurality of radially oriented fan blades (4; 24; 34; 44; 54; 64; 74; 84); the fan blades (4; 24; 34; 44; 54; 64; 74; 84) having lower edges (10; 30; 50; 60; 70; 80; 90) which are connected at least partially to the circular shaped support plate and having upper edges (9; 29; 49; 59; 69; 79; 89) which are connected at least partially to the ring nozzle which is arranged concentrically and at a distance from the support plate , and having inner edges which are arranged radially on the inside and having outer edges which are arranged radially on the outside, wherein the lower edges (10; 49; 59; 69; 79; 89) have a first curvature in a projection plane aligned parallel to the support plate and wherein the upper edges (9; 29; 49; 59; 69; 79; 89) have a second curvature in the projection plane which second curvature differs from the first curvature, characterised in that the first curvature and the second curvature are opposite one another in the projection plane.
A fuel control device for an internal combustion engine that at least comprises: - a boost coil connected to a DC voltage source and being configured to boost a voltage of the DC voltage source; - a switching element configured to cause a boost current to flow to the boost coil ; - a boosting capacitor configured to store energy generated by the boost coil ; - a boost voltage detection unit configured to detect a boost voltage of the boosting capacitor ; and - a boost circuit configured to perform a boosting operation of storing the energy stored in the boost coil in the boosting capacitor when the boost voltage detected by the boost voltage detection unit decreases to a prescribed value or lower using a boost control unit which performs control of repeating turning on and off of the switching element until the boost voltage reaches the prescribed value, characterized in that the boost control unit is configured to execute an intermittent measurement mode in which a boost voltage value detected when no current flows to the boosting capacitor at least during the boosting operation is taken as a legitimate boost voltage value, and to compare the detected legitimate boost voltage value with the prescribed value to control the boosting operation, and in that an ambient temperature of the boosting capacitor is determined, and the boost control unit is configured to execute the intermittent measurement mode when said ambient temperature of the boosting capacitor is a predetermined value or lower, and in that the boost control unit is configured to execute a constant measurement mode when ambient temperature of the boosting capacitor is a predetermined value or higher. - a boost coil connected to a DC voltage source and being configured to boost a voltage of the DC voltage source; - a switching element configured to cause a boost current to flow to the boost coil ; - a boosting capacitor configured to store energy generated by the boost coil ; - a boost voltage detection unit configured to detect a boost voltage of the boosting capacitor ; and - a boost circuit configured to perform a boosting operation of storing the energy stored in the boost coil in the boosting capacitor when the boost voltage detected by the boost voltage detection unit decreases to a prescribed value or lower using a boost control unit which performs control of repeating turning on and off of the switching element until the boost voltage reaches the prescribed value,