Abstract: A method of verifying audio notifications generated within a vehicle includes generating an audio notification using an audio generation path that includes at least a controller, an audio notification generator and a speaker, wherein the controller generates an audio notification request utilized by the audio notification generator to generate an audio signal, and wherein the speaker converts the audio signal into the audio notification. The method further includes monitoring sounds within the vehicle using a microphone separate from the audio generation path and analyzing the monitored sounds using an audio analyzer, wherein the audio analyzer verifies whether the audio notification was generated. Feedback is provided to the audio generation path regarding whether generation of the audio notification was verified.

Abstract: A method of verifying audio notifications generated within a vehicle includes generating an audio notification using an audio generation path that includes at least a controller, an audio notification generator and a speaker, wherein the controller generates an audio notification request utilized by the audio notification generator to generate an audio signal, and wherein the speaker converts the audio signal into the audio notification. The method further includes monitoring sounds within the vehicle using a microphone separate from the audio generation path and analyzing the monitored sounds using an audio analyzer, wherein the audio analyzer verifies whether the audio notification was generated. Feedback is provided to the audio generation path regarding whether generation of the audio notification was verified.

Abstract: A method of verifying audio notifications generated within a vehicle includes generating an audio notification using an audio generation path that includes at least a controller, an audio notification generator and a speaker, wherein the controller generates an audio notification request utilized by the audio notification generator to generate an audio signal, and wherein the speaker converts the audio signal into the audio notification. The method further includes monitoring sounds within the vehicle using a microphone separate from the audio generation path and analyzing the monitored sounds using an audio analyzer, wherein the audio analyzer verifies whether the audio notification was generated. Feedback is provided to the audio generation path regarding whether generation of the audio notification was verified.

Abstract: A method of verifying audio notifications generated within a vehicle includes generating an audio notification using an audio generation path that includes at least a controller, an audio notification generator and a speaker, wherein the controller generates an audio notification request utilized by the audio notification generator to generate an audio signal, and wherein the speaker converts the audio signal into the audio notification. The method further includes monitoring sounds within the vehicle using a microphone separate from the audio generation path and analyzing the monitored sounds using an audio analyzer, wherein the audio analyzer verifies whether the audio notification was generated. Feedback is provided to the audio generation path regarding whether generation of the audio notification was verified.

Abstract: An automated-vehicle resource management system includes a memory and a controller. The memory is used to store a program-and-data and is characterized by a capacity. The controller is in communication with the memory and is configured to determine when a vehicle is not-in-use, determine a percentage of the capacity that is used by the program-and-data, suspend the operation of the system when the vehicle is not-in-use and the percentage is not greater than a threshold, and re-boot the system when the vehicle is not-in-use and the percentage is greater than the threshold.

Abstract: Binary files in an executable file system can be directly executed by the central processing unit at the location in which the binary files are stored. A pre-runtime tool can traverse a replica directory hierarchy in a host/loading computer to fill an internal data structure which can be used to generate a binary file that can be loaded directly into the embedded computer. The central processing unit (CPU) and its components such as the address bus, data bus, and program counter, can directly interact with unit of storage interface mechanisms, such as read/write means, identifying location means, and concatenation means. In some embodiments, the page size in the memory management unit (MMU) of the CPU is set to the same size as the unit of storage.

Abstract: Binary files in an executable file system can be directly executed by the central processing unit at the location in which the binary files are stored. A pre-runtime tool can traverse a replica directory hierarchy in a host/loading computer to fill an internal data structure which can be used to generate a binary file that can be loaded directly into the embedded computer. The central processing unit (CPU) and its components such as the address bus, data bus, and program counter, can directly interact with unit of storage interface mechanisms, such as read/write means, identifying location means, and concatenation means. In some embodiments, the page size in the memory management unit (MMU) of the CPU is set to the same size as the unit of storage.

Abstract: A communication method provides for an exchange of a multiple byte message between two processors. Interrupt suppression associated with the message transfer is minimized by alternating the processors between master and slave operating modes with each byte exchanged.