Abstract: Systems and methods for outputting to a vehicle dashboard screen from multiple operating systems are described in this disclosure. The systems and methods use a computing device to host different types of applications in the operating systems. A first of the operating systems runs driving-critical applications, and a second of the operating systems can run non-driving-critical applications. The first operating system has direct access to display hardware on the computing device, and can include security features to prevent it from being compromised. Outputs generated by the non-driving-critical applications in the second operating system are sent to the first operating system, where the outputs are combined with outputs from the driving-critical applications, to create a series of composite images for display on the dashboard screen. Either the first operating system or the second operating system can control the whole dashboard screen based on predetermined configurations.

Abstract: Systems and methods for using multiple control displays to control displaying applications on a dashboard screen in a vehicle are described. The applications can be non-driving-critical applications running in an operating system installed on a computing device embedded in the vehicle. The computing device is connected to the dashboard screen, a first control display and a second control display. A controlling application in the operating system can populate the first control display and the second control display with different menus, and display one or more of the non-driving-critical applications in a single display area or multiple display areas depending on user inputs from the first control display and the second control display. In an embodiment, the first control display is positioned within a driving wheel of the vehicle and the second control display is positioned between two front seats in the vehicle.

Abstract: Systems and methods for outputting to a vehicle dashboard screen from multiple operating systems are described in this disclosure. The systems and methods use a computing device to host different types of applications in the operating systems. A first of the operating systems runs driving-critical applications, and a second of the operating systems can run non-driving-critical applications. The first operating system has direct access to display hardware on the computing device, and can include security features to prevent it from being compromised. Outputs generated by the non-driving-critical applications in the second operating system are sent to the first operating system, where the outputs are combined with outputs from the driving-critical applications, to create a series of composite images for display on the dashboard screen. Either the first operating system or the second operating system can control the whole dashboard screen based on predetermined configurations.

Abstract: Systems and methods for using multiple control displays to control displaying applications on a dashboard screen in a vehicle are described. The applications can be non-driving-critical applications running in an operating system installed on a computing device embedded in the vehicle. The computing device is connected to the dashboard screen, a first control display and a second control display. A controlling application in the operating system can populate the first control display and the second control display with different menus, and display one or more of the non-driving-critical applications in a single display area or multiple display areas depending on user inputs from the first control display and the second control display. In an embodiment, the first control display is positioned within a driving wheel of the vehicle and the second control display is positioned between two front seats in the vehicle.

Abstract: A device may receive an indication to perform a reboot associated with a network service being provided using a first virtual machine (VM) running on the device. The device may launch, based on receiving the indication, a second VM on the device. The device may shut down, based on launching the second VM, the first VM. The device may configure the second VM for forwarding control plane traffic associated with the network service. The device may configure, based on configuring the second VM for forwarding the control plane traffic, the second VM for forwarding data plane traffic associated with the network service. The device may provide, based on configuring the second VM for forwarding the data plane traffic, the network service using the second VM.

Abstract: Systems and methods of detecting and identifying a leak from a container or building. Acoustic pressure and velocity are measured. Acoustic properties are acquired from the measured values. The acoustic properties are converted to infiltration/leakage information. Nearfield Acoustic Holography (NAH) may be one method to detect the leakages from a container by locating the noise sources.

Abstract: Systems and methods of detecting and identifying a leak from a container or building. Acoustic pressure and velocity are measured. Acoustic properties are acquired from the measured values. The acoustic properties are converted to infiltration/leakage information. Nearfield Acoustic Holography (NAH) may be one method to detect the leakages from a container by locating the noise sources.

Abstract: An active noise suppression apparatus and method for reducing jet engine noise and buffeting. A plurality of resonant cavities are formed in a structural member disposed on or adjacent to a jet engine exhaust nozzle. Each resonant cavity opens toward an output slot. A compressed air chamber is used to supply a pressurized, supersonic jetstream airflow through the inlet port into the interior area of the resonant cavity. This causes a high frequency, pulsed, excitation airstream to be generated outwardly from the cavity, out of the output slot and into the developing shear layer of the exhaust airflow. This high frequency, pulsed, excitation airstream induces modifications in the shear layer, which leads to a major reduction in the noise and buffeting generated by the developing shear layer. In an alternative embodiment, the resonant cavities are formed within one wall of a slot, where the slot is disposed along the leading edge of a cavity of the aircraft.