Abstract: A method of processing vehicle crash data includes the steps of receiving vehicle data obtained at a vehicle during a vehicle crash, determining the identity of the vehicle, estimating the severity of the vehicle crash using the determined vehicle identity and the received vehicle data, and providing the estimated severity to an emergency responder.

Abstract: A vehicle to pedestrian communication system includes a vehicle-based device having a transmitter and receiver for communicating global positioning of the vehicle. The transmitter broadcasts a global position of the vehicle as part of a vehicle periodic beacon message. A pedestrian-based device is carried by a pedestrian. The pedestrian-based device has a transmitter and receiver for communicating a global position of the pedestrian as part of a pedestrian periodic beacon message. A positional awareness of the vehicle in relation to the pedestrian is assessed by at least one of the vehicle-based device or the pedestrian-based device based on the positioning of the vehicle in relation to the pedestrian. An alert is provided to at least one of the vehicle or the pedestrian indicating a presence of the vehicle or pedestrian based on the respective global positions of the pedestrian and the vehicle.

Abstract: A method of processing vehicle crash data includes the steps of receiving vehicle data obtained at a vehicle during a vehicle crash, determining the identity of the vehicle, estimating the severity of the vehicle crash using the determined vehicle identity and the received vehicle data, and providing the estimated severity to an emergency responder.

Abstract: A vehicle to pedestrian communication system includes a vehicle-based device having a transmitter and receiver for communicating global positioning of the vehicle. The transmitter broadcasts a global position of the vehicle as part of a vehicle periodic beacon message. A pedestrian-based device is carried by a pedestrian. The pedestrian-based device has a transmitter and receiver for communicating a global position of the pedestrian as part of a pedestrian periodic beacon message. A positional awareness of the vehicle in relation to the pedestrian is assessed by at least one of the vehicle-based device or the pedestrian-based device based on the positioning of the vehicle in relation to the pedestrian. An alert is provided to at least one of the vehicle or the pedestrian indicating a presence of the vehicle or pedestrian based on the respective global positions of the pedestrian and the vehicle.

Abstract: Systems and methods are provided for managing an interior component of a vehicle. A system includes a device for monitoring a passenger, a vehicle speed detector, and a controller in communication the interior component, the passenger monitoring device, and the vehicle speed detector, wherein the controller is configured to disable at least one function of the interior component if the rate of speed is greater than a predetermined threshold speed and enable the disabled function(s) when the passenger attempts to actuate the function(s). One method includes the steps of determining a rate of speed the vehicle is traveling, disabling at least one function of the interior component when the rate of speed is greater than a predetermined threshold speed, and enabling the disabled function(s) when the rate of speed is greater than the threshold speed if a passenger attempts to actuate the function(s).

Abstract: Systems and methods are provided for managing an interior component of a vehicle. A system includes a device for monitoring a passenger, a vehicle speed detector, and a controller in communication the interior component, the passenger monitoring device, and the vehicle speed detector, wherein the controller is configured to disable at least one function of the interior component if the rate of speed is greater than a predetermined threshold speed and enable the disabled function(s) when the passenger attempts to actuate the function(s). One method includes the steps of determining a rate of speed the vehicle is traveling, disabling at least one function of the interior component when the rate of speed is greater than a predetermined threshold speed, and enabling the disabled function(s) when the rate of speed is greater than the threshold speed if a passenger attempts to actuate the function(s).

Abstract: Methods and apparatus are provided for detecting an object in the projected path of a vehicle. The apparatus comprises a yaw sensor configured to determine the yaw of the vehicle and an object detection sensor configured to evaluate an Actual Range Bin and to produce obstruction data if an object is sensed within the Actual Range Bin. The apparatus also comprises a controller that is configured to receive the yaw determined by the yaw sensor and determine a projected path of the vehicle based at least in part upon the yaw. The controller is also configured to determine a True Range Bin based at least in part upon the projected path of the vehicle and the Actual Range Bin. The controller is further configured to receive the obstruction data from the object detection sensor and determine if the object is within the True Range Bin.

Abstract: Methods and apparatus are provided for controlling a braking system of a vehicle that is moving toward an object. The apparatus includes a vehicle speed (VS) sensor, a steering direction (SD) sensor, at least one sensor configured to provide a distance to the object (DTO) and a processor in operable communication with the braking system and configured to receive the VS, the SD and DTO. The processor is further configured to determine a projected vehicle path (PVP) and a minimum stopping distance (MSD) for the vehicle based at least in part on the VS and the SD, determine whether the object is in the PVP and whether the DTO is less than or equal a threshold distance (TD), determine a required deceleration (RD) for the braking system to substantially reduce the vehicle speed if the object is in the PVP and the DTO is less than or equal the threshold distance (TD), and communicate the RD to the braking system.

Abstract: An unobtrusive vehicular adaptive speed control system controls vehicle traveling speed in response to sensed obstacles preceding the vehicle, to driver influenced control parameters, and to a desired travelling speed set by the vehicle driver.

Abstract: A transmitted and received beam of a forward looking sensor of a source vehicle is steered as the source vehicle travels through a curvilinear path so that the steering angle is controlled to prevent the loss of detection of a target vehicle resulting from the effective lateral shaft of the beam relative to the path as the beam is steered into the curvilinear path. The beam is steered at an angle that limits the effective lateral shift of the beam relative to the curvilinear path such that a predetermined minimum target vehicle detection criteria is achieved.