Abstract: Provided is a graphical user interface for programming an embedded device and systems and methods of use thereof. The system for programming an embedded device using a graphical user interface (GUI) comprises the GUI, a processor, and a database. The embedded device includes one or more light sources. The GUI provides control elements associated with the light sources. The processor is configured to receive settings associated with the light sources via the control elements, the settings defining a lighting pattern of the light sources. The control elements include at least actuation, color, and brightness control elements. The processor can convert the settings into configuration data, which is transmitted to the embedded device and decoded by the embedded device. As a result of the decoding, the embedded device is set to generate the lighting pattern based on the configuration data.

Abstract: Provided are systems and methods for real time sound effect modulation based on attitude variations. The system may include one or more position sensors installed on a moving object, with the position sensors reporting positional data associated with the moving object. A memory may contain predetermined criteria for altering characteristics of a sound associated with the moving object, and a database may contain sound examples. A processor may receive the positional data from the position sensors and determine positional changes based on the data. The processor may fetch sound examples from the database and fetch predetermined criteria from the memory. The processor may modulate the sound examples based on positional changes according to the predefined criteria to produce modulated sound examples. The processor may aggregate the modulated sound examples to produce an aggregated modulated sound example. Speakers on the moving object may emit the aggregated modulated sound example.

Abstract: Provided is a graphical user interface for programming an embedded device and systems and methods of use thereof. The system for programming an embedded device using a graphical user interface (GUI) comprises the GUI, a processor, and a database. The embedded device includes one or more light sources. The GUI provides control elements associated with the light sources. The processor is configured to receive settings associated with the light sources via the control elements, the settings defining a lighting pattern of the light sources. The control elements include at least actuation, color, and brightness control elements. The processor can convert the settings into configuration data, which is transmitted to the embedded device and decoded by the embedded device. As a result of the decoding, the embedded device is set to generate the lighting pattern based on the configuration data.

Abstract: Provided are systems and methods for real time sound effect modulation based on attitude variations. The system may include one or more position sensors installed on a moving object, with the position sensors reporting positional data associated with the moving object. A memory may contain predetermined criteria for altering characteristics of a sound associated with the moving object, and a database may contain sound examples. A processor may receive the positional data from the position sensors and determine positional changes based on the data. The processor may fetch sound examples from the database and fetch predetermined criteria from the memory. The processor may modulate the sound examples based on positional changes according to the predefined criteria to produce modulated sound examples. The processor may aggregate the modulated sound examples to produce an aggregated modulated sound example. Speakers on the moving object may emit the aggregated modulated sound example.

Abstract: A method and system for providing communications to a network access device. The network access device has a processor, a memory, and an output. The memory stores application code. An application specific message has a network header and message content. The message content includes an application header and application content. The application specific message is sent to the network access device as a text message over a channel of a communications network. The network access device is capable of identifying the application specific message as a text-based message, as indicated by the network header. The network access device detects the application header of the application specific message, and selects the application as associated with the application specific message. The application content of the application specific message is then provided to the application.

Abstract: A method and system for debugging a digital signal processor includes a high-level code that reads processor data stored on a storage device on the processor, converts the processor data into a predetermined format and then compares the processor data to certain compare data to locate differences in the data.