A system includes a processor and a memory. The memory stores instructions executable by the processor to identify a vehicle fault condition, select a vehicle component according to a location of the fault condition in the vehicle and a detected location of a user outside of the vehicle, and actuate the vehicle component.

The invention is a pedestrian safety method and system that compares characteristic acoustic and motion signatures to sound and motion signatures collected in real-time through a vehicle's monitoring system to detect and confirm that the vehicle itself presents a danger to pedestrians or others in proximity to the vehicle and autonomously stops the offending vehicle by quickly initiating disabling measures.

An external vehicle notification information system may include a projector illuminating generated information using a light source, a lens transmitting the information, a reflector reflecting partial information of the information toward the lens, and a screen displaying the partial information transmitted from the lens.

Systems and methods of automatically operating a vehicle's hazards lights are provided. The speed of vehicle can be determined. When the speed of the vehicle is compared to an expected speed of the vehicle given various operating conditions, e.g., the output of the vehicle's engine (engine RPM) or motor (motor rotation), is slower than expected, it is assumed that the vehicle is towing a load. When the vehicle is towing a load and is also traveling at a speed that is substantially slower than the flow of traffic, a current speed limit, etc., a determination can be made to automatically activate the vehicle's hazard lights. Alternatively, even if the vehicle is towing a load, but is traveling at a speed that does not warrant activation of the vehicle's hazard lights, the hazard lights may be automatically deactivated.

Systems and methods of automatically operating a vehicle's hazards lights are provided. The speed of vehicle can be determined. When the speed of the vehicle is compared to an expected speed of the vehicle given various operating conditions, e.g., the output of the vehicle's engine (engine RPM) or motor (motor rotation), is slower than expected, it is assumed that the vehicle is towing a load. When the vehicle is towing a load and is also traveling at a speed that is substantially slower than the flow of traffic, a current speed limit, etc., a determination can be made to automatically activate the vehicle's hazard lights. Alternatively, even if the vehicle is towing a load, but is traveling at a speed that does not warrant activation of the vehicle's hazard lights, the hazard lights may be automatically deactivated.

A collision avoidance system for a vehicle includes a communication device disposed at a carrier exterior and remote from the vehicle. The communication device is operable to communicate information regarding location and motion of the communication device carried by the carrier relative to the vehicle. A receiver receives a communication from the communication device, and a processor processes information communicated by the communication device. The processor, responsive to processing communicated information, determines the location and motion of the communication device relative to the vehicle. A side sensing device is disposed at a side of the vehicle and operable to capture data, which is processed to determine approach of the carrier to the vehicle from rearward of the vehicle. Data captured by the side sensing device and information communicated by the communication device are processed by the processor to determine existence of a potential collision between the carrier and the vehicle.

A system for monitoring vehicle dynamics and detecting adverse events during operation is presented. Position sensors attached to a vehicle are configured to identify a vehicle orientation (heading) as well as the vehicle's direction of travel (trajectory). A system controller connected to these position sensors can detect the difference between these two measurements. When the difference between these two measurements exceeds a safety threshold, it can be an indication of a slip event. A slip event can be caused by compromised traction or stability and may lead to a loss of vehicle control. The system controller can be configured to monitor various vehicle dynamics to detect these slip events. The system controller may be configured to track geolocations of slip events to create a database of historical slip events for determining location-based risk factors and prevention of future events.

A digital display screen device comprises an elliptical housing having an illuminated screen positionable in the rear window of a vehicle, capable of displaying information viewable through the rear window of the vehicle. The information displayed on the screen is a safety indicator or a need for roadside assistance in a critical situation.

A digital display screen device comprises an elliptical housing having an illuminated screen positionable in the rear window of a vehicle, capable of displaying information viewable through the rear window of the vehicle. The information displayed on the screen is a safety indicator or a need for roadside assistance in a critical situation.

The invention concerns a signaling device adapted to display pictograms, notably for a motor vehicle. The device is configured to implement at least one signaling function of a motor vehicle. The device includes display means including a display zone intended to be disposed on the vehicle, the display means being adapted to display pictograms in the display zone, each pictogram emitting a light beam having at least in part the statutory photometric characteristics of at least one of said at least one signaling functions.