Abstract: Embodiments herein are directed to a transparent steering wheel system for a vehicle that includes a sensor system, a projection system, and an electronic control unit. The electronic control unit is configured to determine when a plurality of display data displayed on a display device behind a steering wheel is blocked by the steering wheel from a field of view of a driver, determine when a desirable notification is included in the plurality of display data, and when the desirable notification is included and the field of view of the desirable notification for the driver is blocked by the steering wheel, control the projection system to project the desirable notification onto the projection surface of the steering wheel that fully covers the steering wheel such that the steering wheel appears to be transparent when the desirable notification is displayed onto the projection surface.

Abstract: Certain embodiments of the present disclosure provide techniques for eliminating an appearance of one or more objects in an environment surrounding a vehicle during operation of the vehicle. A method generally includes detecting the one or more objects in first sensor data collected from first sensors onboard the vehicle, wherein the first sensor data is representative of the environment surrounding the vehicle; receiving, from other vehicles, second sensor data collected from second sensors onboard the other vehicles, wherein the second sensor data is representative of the environment surrounding each of the one or more other vehicles; generating one or more augmented reality images depicting portions of the environment obstructed by the one or more objects in the first sensor data; displaying the one or more augmented reality images in an augmented reality display such that the augmented reality images are positioned to overlay the one or more objects.

Abstract: A driver monitor system and method of optimizing use of cognitive resources of a user in a vehicle is disclosed. The system includes in-cabin video cameras, a display device, and processing circuitry. The method performed by the processing circuitry includes monitoring eye gaze direction using images from the in-cabin video cameras, gradually softening image regions and lines displayed in the display device that are outside a first vision area of the user of the vehicle, and using the eye gaze direction to predict whether the user is transitioning into a new focus vision area that had been outside the first vision area. When the user's eyes begin to move, begin sharpening softened image regions and lines such that by the time eyes have shifted into the new focus vision area, the image regions and lines in the new focus vision area reach full sharpness.

Abstract: A system and method for adjusting the transparency of a digital needle of a digital gauge are disclosed herein. The system and method adjust a transparency of a digital needle based on an operating state of an engine of a vehicle.

Abstract: A system and method for adjusting the intensity of light provided to an analog needle are disclosed herein. The system and method adjust the intensity of light provided to the analog needle based on an operating state of an engine of a vehicle.

Abstract: A system and method for adjusting the transparency of a digital needle of a digital gauge are disclosed herein. The system and method adjust a transparency of a digital needle based on an operating state of an engine of a vehicle.

Abstract: A driver monitor system and method of optimizing use of cognitive resources of a user in a vehicle is disclosed. The system includes in-cabin video cameras, a display device, and processing circuitry. The method performed by the processing circuitry includes monitoring eye gaze direction using images from the in-cabin video cameras, gradually softening image regions and lines displayed in the display device that are outside a first vision area of the user of the vehicle, and using the eye gaze direction to predict whether the user is transitioning into a new focus vision area that had been outside the first vision area. When the user's eyes begin to move, begin sharpening softened image regions and lines such that by the time eyes have shifted into the new focus vision area, the image regions and lines in the new focus vision area reach full sharpness.