Abstract: A vehicle includes at least one autonomous driving sensor configured to monitor at least one condition while operating in an autonomous mode. The vehicle further includes a processing device configured to identify at least one occupant, select a profile associated with the occupant, and autonomously operate at least one subsystem according to the selected profile and the at least condition monitored by the at least one autonomous driving sensor.

Abstract: A vehicle is operated at least partially autonomously. A predicted path of the vehicle is monitored to identify an object with which the vehicle is likely to collide. A graphical user interface (GUI) is provided that includes the predicted path, a proposed path for the vehicle to avoid a collision with an object, and the vehicle. A selection is made to follow one of the predicted path and the proposed path. The GUI is updated to include the selected one of the predicted path and the proposed path, along with a location of the vehicle on the selected one of the predicted path and the proposed path.

Abstract: A vehicle includes a steering wheel located in a passenger compartment. The steering wheel is configured to be moved from an operational position to a stowed position. In the event of a collision, a first airbag is configured to deploy when the steering wheel is in the operational position and a second airbag is configured to deploy when the steering wheel is in the stowed position.

Abstract: Keypad indicia are integral with a window of a vehicle. The keypad indicia are formed using a ultra-violet (UV) fluorescent dye that is nearly invisible to a human eye until exposed to UV light. A UV light emitting device of the vehicle is configured for outputting UV light. The light emitting device is mounted for enabling the keypad indicia to be exposed to the outputted UV light thereby causing the keypad indicia to become readily visible by the human eye. An imaging device of the vehicle captures user interaction with the keypad indicia while the keypad indicia is exposed to the outputted UV light. The keypad interaction processor determines if a sequence of body part movements with respect to the keypad indicia that is captured by the imaging device during exposure of the keypad indicia to the outputted light corresponds to an access code of the vehicle.

Abstract: A vehicle system having a controller configured to receive a sensor input. The controller may generate a feature score based at least in part on the sensor input and a location data within a database. The controller may associate the feature score to a selectable option. The controller may instruct a user interface device to display the selectable option in response to the feature score.

Abstract: A vehicle controller having at least one contextual module configured to receive a sensor input and generate an output representing a driving context. The vehicle controller may have a processor configured to receive the output from the one or more contextual modules. The processor may generate a feature score based on the output and associate the feature score with a selectable option. The processor may select the selectable option with the highest feature score to promote to a user interface device.

Abstract: A visual feedback system for a vehicle including an engine, includes an operating control for varying the engine's speed. Connected to the engine, an engine acceleration reporter reports an amount of acceleration of the engine. A creation control being linked to both the engine acceleration reporter and the operating control enables the creation of images on a visual display according to a variation in the engine speed. Accordingly, the creation control creates a pendulum image within a sector of a circle, with the pendulum image swinging in response to the amount of acceleration being reported by the engine acceleration reporter.

Abstract: Keypad indicia are integral with a window of a vehicle. The keypad indicia are formed using a ultra-violet (UV) fluorescent dye that is nearly invisible to a human eye until exposed to UV light. A UV light emitting device of the vehicle is configured for outputting UV light. The light emitting device is mounted for enabling the keypad indicia to be exposed to the outputted UV light thereby causing the keypad indicia to become readily visible by the human eye. An imaging device of the vehicle captures user interaction with the keypad indicia while the keypad indicia is exposed to the outputted UV light. The keypad interaction processor determines if a sequence of body part movements with respect to the keypad indicia that is captured by the imaging device during exposure of the keypad indicia to the outputted light corresponds to an access code of the vehicle.

Abstract: A gesture-based recognition system obtains a vehicle occupant's desired command inputs through recognition and interpretation of his gestures. An image of the vehicle's interior section is captured and the occupant's image is separated from the background, in the captured image. The separated image is analyzed and a gesture recognition processor interprets the occupant's gesture from the image. A command actuator renders the interpreted desired command to the occupant along with a confirmation message, before actuating the command. When the occupant confirms, the command actuator actuates the interpreted command. Further, an inference engine processor assesses the occupant's state of attentiveness and conveys signals to a drive assist system if the occupant in inattentive. The drive-assist system provides warning signals to the inattentive occupant if any potential threats are identified.

Abstract: The present disclosure discloses a method for teaching fuel economy in a vehicle. The method includes activating an in-vehicle training mode and sending an instruction set for an initial vehicle maneuver. By calculating the fuel economy during the initial vehicle maneuver, an optimized speed/acceleration profile is computed. Subsequent vehicle maneuvers are initiated, and the speed/acceleration profiles computed during subsequent vehicle maneuvers are compared to the optimized speed/acceleration profile. Corrective feedback is generated during subsequent vehicular maneuvers upon deviations from the optimized speed/acceleration profile.

Abstract: A visual feedback system for a vehicle including an engine, includes an operating control for varying the engine's speed. Connected to the engine, an engine acceleration reporter reports an amount of acceleration of the engine. A creation control being linked to both the engine acceleration reporter and the operating control enables the creation of images on a visual display according to a variation in the engine speed. Accordingly, the creation control creates a pendulum image within a sector of a circle, with the pendulum image swinging in response to the amount of acceleration being reported by the engine acceleration reporter.