Abstract: A method for enabling an interoperable vehicle safety network using wireless communication makes use of multiple traffic-monitoring devices that wirelessly communicate with each other. Each traffic-monitoring device records time-dependent inertial (TDI) data to determine a current trajectory. The TDI data includes current location, current velocity, and current orientation information. This information is used to monitor the current trajectory of each traffic-monitoring device and to predict the future position of each traffic-monitoring device. The trajectory of traffic-monitoring devices that are nearby to each other are analyzed to determine if there is a possibility of the devices colliding. If there is a possibility of the traffic-monitoring devices colliding, an alert is generated to prevent the collision. Additionally, the traffic-monitoring device sends out an emergency message if an accident actually occurs.

Abstract: A method for enabling an interoperable vehicle safety network using wireless communication makes use of multiple traffic-monitoring devices that wirelessly communicate with each other. Each traffic-monitoring device records time-dependent inertial (TDI) data to determine a current trajectory. The TDI data includes current location, current velocity, and current orientation information. This information is used to monitor the current trajectory of each traffic-monitoring device and to predict the future position of each traffic-monitoring device. The trajectory of traffic-monitoring devices that are nearby to each other are analyzed to determine if there is a possibility of the devices colliding. If there is a possibility of the traffic-monitoring devices colliding, an alert is generated to prevent the collision. Additionally, the traffic-monitoring device sends out an emergency message if an accident actually occurs.

Abstract: Full motion live video can be provided in tactical and other environments utilizing various apparatuses and methods. An apparatus can include live source video inputs configured to receive live source video streams, video outputs configured to provide live output video streams configured according to a channel template design; and a processor configured to control multiplexing of the live source video streams to provide master control of the live source video inputs and video outputs. Another apparatus can include an input configured to receive video streams from the prior apparatus, a processor configured to fuse the video streams, and a user interface configured to present the video streams to the user in multiple independent frames, wherein the multiple independent frames include a relatively larger live video of interest and relatively smaller live thumbnail videos.

Abstract: Full motion live video can be provided in tactical and other environments utilizing various apparatuses and methods. An apparatus can include live source video inputs configured to receive live source video streams, video outputs configured to provide live output video streams configured according to a channel template design; and a processor configured to control multiplexing of the live source video streams to provide master control of the live source video inputs and video outputs. Another apparatus can include an input configured to receive video streams from the prior apparatus, a processor configured to fuse the video streams, and a user interface configured to present the video streams to the user in multiple independent frames, wherein the multiple independent frames include a relatively larger live video of interest and relatively smaller live thumbnail videos.