A heads-up display system includes a re-positionable projector that projects an image of data to any one of a plurality of image positions on a windshield. With the image being centered in front of a vehicle operator, the image defines a predetermined aspect ratio. An electronic controller is configured to compensate for distortion of the image and maintain the predetermined aspect ratio in response to the image being moved away from the centered position.

A device for controlling a vehicle display device may include: a processor to determine a vehicle driving condition, and adjust a screen size of the vehicle display device based on the determined vehicle driving condition; and a storage to store information determined by the processor.

An automotive display device on which an image may be displayed, the automotive display device being for a vehicle interior, the automotive display device including an automotive frame, at least part of the automotive frame being bendable; and a bending controller to control bending of the automotive frame.

The present disclosure is directed to an apparatus for positioning an interactive-display device within an interior of an autonomous vehicle. In particular, an autonomous vehicle can include an interior comprising at least two different interior portions configured to accommodate one or more passengers. The autonomous vehicle can also include an interactive-display device. The autonomous vehicle can further include an apparatus for positioning the interactive-display device within the interior such that it is accessible by at least one of the passenger(s).

On an inner wall in the interior of a vehicle, a display device is subdivided into a plurality of display fields with two directly adjacent display fields connected to each other along a common axis. At least one display field can be pivoted relative to at least one bending plane to beam display content into the interior at an angle relative to the at least one bending plane. In a first operating position, a surface of this at least one display field is oriented perpendicular to the at least one bending plane. In a second operating position, this at least one display field is pivoted relative to the at least one bending plane at an angle 90- relative to the at least one bending plane to beam the display content into the interior parallel to the at least one bending plane.

A first cover part and a second cover part of a cover system adjoin one another in a first state and together form a closed surface with four corner regions. In a second state, the first edge of the first cover part is movable in a definable direction through a first definable angle about an axis which extends parallel to an imaginary straight line through the ends of the first edge of the first cover part, the first edge of the second cover part is movable in the definable direction through a second definable angle about an axis which extends parallel to an imaginary straight line through the ends of the first edge of the second cover part, and the first edge of the second cover part is movable in a definable direction by a definable distance. A housing can include the cover system.

A display device is provided and may include a light source that emits a light beam, a scanner that causes the light beam to scan, a movable screen in which an image is formed by transmitting the light beam from scanner, an optical system configured to project the image on a display medium, and a driver configured to cause the movable screen to reciprocate in moving directions. The image includes a first image and a second image. The movable screen reciprocates in a posture inclined with respect to the moving directions such that a second end of the movable screen is positioned closer to the scanner than a first end of the movable screen. The scanner forms the second image in the movable screen while the movable screen moves such that a forming direction of the second image is inclined with respect to a direction approaching the scanner.

A deployable display for use in a vehicle is provided. The deployable display can be positioned in a plurality of stowed or a plurality of deployed positions, wherein the deployable display functions as a sun visor located in front of a windshield of the vehicle when it is in a first one of the plurality of deployed positions and when the deployable display is in a second one of the plurality of deployed positions or the first one of the plurality of deployed positions the deployable display functions as a screen that provides images from a controller operatively coupled to the deployable display.

A vehicle interior layout includes a console having a support structure configured to be mounted on the floor of the vehicle and topped by an upper part, the upper part being rotatable around a substantially vertical pivot axis (A).

A multipurpose dashboard for use in a vehicle includes an instrument panel disposed within the vehicle. The multipurpose dashboard also includes driving controls mounted to the instrument panel. The driving controls are configurable into a driving position for a user driving mode and configurable into a non-driving position for a non-driving mode. The non-driving position is disposed away from the driving position. The multipurpose dashboard also includes a workstation mounted to the instrument panel. The workstation is configurable into an accessible position during the non-driving mode and configurable into a stowed position during the user driving mode.