Abstract: A method for performing automated GUI-driven OpROM validation starts with a processor executing an automated test script; and in response to executing the automated test script, the processor is caused to remotely accessing a memory sub-system using a web driver and an interface. The processor causes a BIOS terminal window of the memory sub-system to be displayed on a display screen. The processor captures a screenshot of the BIOS terminal window and generating an image based on the screenshot. The processor converts the image to text using OCR and generates an output comprising BIOS configuration details based on the text using a machine-learning algorithm. The processor then analyzes the output to validate the memory sub-system when no errors are detected in the output or to flag the memory sub-system when errors are detected in the output. Other embodiments are described herein.

Abstract: A fluid control device includes a first conduit having a first end and a second end, and a first fluid that moves within the first conduit between the first end and the second end. The first conduit includes an interior surface defining a cavity of the first conduit. The fluid control device includes a second conduit having a third end and a fourth end, and a second fluid that moves within the second conduit between the third and fourth ends. At least a portion of the second conduit extends within the cavity of the first conduit. The first fluid is separate from the second fluid as the first fluid moves within the first conduit and the second fluid moves within the second conduit.

Abstract: A device includes at least one processor configured to determine, based on (i) a first plurality of time-varying electrical measurements corresponding to a feeder head of a power distribution network having a plurality of phases and (ii) a second plurality of time-varying electrical measurements corresponding to a node in the power distribution network, and using statistical analysis, a predicted phase, from the plurality of phases, that corresponds to the node. The processor may be configured to use ranked correlation coefficients (such as the Kendall rank correlation coefficient) to determine the predicted phase and may use principle component analysis. The processor is also configured to cause at least one device of the power distribution network to modify operation based at least on part on the predicted phase.

Abstract: A device includes at least one processor configured to determine, based on (i) a first plurality of time-varying electrical measurements corresponding to a feeder head of a power distribution network having a plurality of phases and (ii) a second plurality of time-varying electrical measurements corresponding to a node in the power distribution network, and using statistical analysis, a predicted phase, from the plurality of phases, that corresponds to the node. The processor may be configured to use ranked correlation coefficients (such as the Kendall rank correlation coefficient) to determine the predicted phase and may use principle component analysis. The processor is also configured to cause at least one device of the power distribution network to modify operation based at least on part on the predicted phase.

Abstract: Various methods and systems are provided for calibrating one or more exhaust valves. In one example, a system comprises an exhaust valve configured to control flow of exhaust gas exiting an engine and a controller configured to calibrate the exhaust valve by commanding the exhaust valve to a fully closed position with a first driving current and measuring a first position of the exhaust valve at the first driving current, commanding the exhaust valve to a fully open position with a second driving current and measuring a second position of the exhaust valve at the second driving current, and generating a map based on a linear function determined from the first driving current, the second driving current, the measured first position, and the measured second position. The controller is further configured to adjust a position of the exhaust valve based on the map.

Abstract: A device may receive a request for a mobile device to obtain an application. The request may include a mobile device identifier for the mobile device. The device may send, to the mobile device, a link to a web page. The device may receive, from the mobile device, a request for the web page. The device may send, to the mobile device, a redirect to a software distribution platform to obtain the application from the software distribution platform. The device may receive a registration identifier for the mobile device after the mobile device obtains the application from the software distribution platform. The device may send, to a message server, a request for a message to be sent to the mobile device. The request may be based on the registration identifier and the application.

Abstract: A device may receive a request for a mobile device to obtain an application. The request may include a mobile device identifier for the mobile device. The device may send, to the mobile device, a link to a web page. The device may receive, from the mobile device, a request for the web page. The device may send, to the mobile device, a redirect to a software distribution platform to obtain the application from the software distribution platform. The device may receive a registration identifier for the mobile device after the mobile device obtains the application from the software distribution platform. The device may send, to a message server, a request for a message to be sent to the mobile device. The request may be based on the registration identifier and the application.

Abstract: A device may receive a request for a mobile device to obtain an application. The request may include a mobile device identifier for the mobile device. The device may send, to the mobile device, a link to a web page. The device may receive, from the mobile device, a request for the web page. The device may send, to the mobile device, a redirect to a software distribution platform to obtain the application from the software distribution platform. The device may receive a registration identifier for the mobile device after the mobile device obtains the application from the software distribution platform. The device may send, to a message server, a request for a message to be sent to the mobile device. The request may be based on the registration identifier and the application.

Abstract: A device may receive a request for a mobile device to obtain an application. The request may include a mobile device identifier for the mobile device. The device may send, to the mobile device, a link to a web page. The device may receive, from the mobile device, a request for the web page. The device may send, to the mobile device, a redirect to a software distribution platform to obtain the application from the software distribution platform. The device may receive a registration identifier for the mobile device after the mobile device obtains the application from the software distribution platform. The device may send, to a message server, a request for a message to be sent to the mobile device. The request may be based on the registration identifier and the application.

Abstract: A device may receive a request for a mobile device to obtain an application. The request may include a mobile device identifier for the mobile device. The device may send, to the mobile device, a link to a web page. The device may receive, from the mobile device, a request for the web page. The device may send, to the mobile device, a redirect to a software distribution platform to obtain the application from the software distribution platform. The device may receive a registration identifier for the mobile device after the mobile device obtains the application from the software distribution platform. The device may send, to a message server, a request for a message to be sent to the mobile device. The request may be based on the registration identifier and the application.

Abstract: A device may receive a request for a mobile device to obtain an application. The request may include a mobile device identifier for the mobile device. The device may send, to the mobile device, a link to a web page. The device may receive, from the mobile device, a request for the web page. The device may send, to the mobile device, a redirect to a software distribution platform to obtain the application from the software distribution platform. The device may receive a registration identifier for the mobile device after the mobile device obtains the application from the software distribution platform. The device may send, to a message server, a request for a message to be sent to the mobile device. The request may be based on the registration identifier and the application.

Abstract: Various methods and systems are provided for calibrating one or more exhaust valves. In one example, a system comprises an exhaust valve configured to control flow of exhaust gas exiting an engine and a controller configured to calibrate the exhaust valve by commanding the exhaust valve to a fully closed position with a first driving current and measuring a first position of the exhaust valve at the first driving current, commanding the exhaust valve to a fully open position with a second driving current and measuring a second position of the exhaust valve at the second driving current, and generating a map based on a linear function determined from the first driving current, the second driving current, the measured first position, and the measured second position. The controller is further configured to adjust a position of the exhaust valve based on the map.

Abstract: Various methods and systems are provided for flowing fluid through a passageway block. In one embodiment, a passageway block comprises a first passage and a second passage, each of the first passage and the second passage including inlets and outlets to the passageway block, none of the inlets and outlets being concentric with one another; but within the passageway block, for at least a portion, a third passage concentrically surrounds the second passage.

Abstract: Various methods and systems are provided for a turbocharger comprising a turbine disc rotatable about a rotational axis of the turbocharger, a compressor wheel mechanically coupled to the turbine disc via a shaft, a compressor casing including an air inlet and a blower casing formed as one piece, the air inlet configured to admit air to the compressor wheel, and a turbine casing housing the turbine disc, the turbine casing including a shroud surrounding the turbine disc.

Abstract: Various methods and systems are provided for flowing fluid through a passageway block. In one embodiment, a passageway block comprises a first passage and a second passage, each of the first passage and the second passage including inlets and outlets to the passageway block, none of the inlets and outlets being concentric with one another; but within the passageway block, for at least a portion, a third passage concentrically surrounds the second passage.

Abstract: Various methods and systems are provided for removing fluid from a turbocharger turbine. In one example, a turbocharger comprises a turbine including a casing housing a rotor, a drain passage coupled to the casing, and an air jet coupled to the drain passage, the air jet supplying intake air from a high-pressure compressor outlet to the drain passage.