The disclosure relates to a method for automatic longitudinal control of a motor vehicle and to a corresponding assistance system and a motor vehicle equipped therewith or, alternatively, configured accordingly. In the method, within the scope of user-side setting of a gap for the longitudinal control, a display position for displaying a relevant gap marker by means of a head-up display is determined proceeding from the position of a vehicle in front. In response to a user input for setting a changed new gap, the previous gap marker and the new gap marker are then initially displayed simultaneously by means of the head-up display at the corresponding display positions. When the longitudinal control has achieved the new gap, the head-up display is actuated to only display the new gap marker and not the previous gap marker anymore.

An augmented reality display system included in a vehicle generates an augmented reality display, on one or more transparent surfaces of the vehicle. The augmented reality display can include an indicator of the vehicle speed which is spatially positioned according to the speed of the vehicle relative to the local speed limit. The augmented reality display can include display elements which conform to environmental objects and can obscure and replace content displayed on the objects. The augmented reality display can include display elements which indicate a position of environmental objects which are obscured from direct perception through the transparent surface. The augmented reality display can include display elements which simulate one or more particular environmental objects in the environment, based on monitoring manual driving performance of the vehicle by a driver. The augmented reality display can include display elements which identify environmental objects and particular zones in the environment.

Provided is a display device capable of adequately displaying in accordance with a condition. In a HUD device including a projector projecting an image that is to be a virtual image, a screen to which an image from the projector is projected, a magnifying optic magnifying the image projected on the screen, the screen is moved by an actuator in a direction parallel to an optical axis of the projector.

A display device includes: a display means that displays a virtual image of a picture by projecting display light representing the picture on a windshield; an identification means that identifies a target outside the vehicle; a control means that causes a first captured image, visually recognized as being superposed on at least a part of the target, to be displayed in the picture; and a vibration detection means that detects the amount of vibration of the vehicle. The control means, when the amount of vibration detected by the vibration detection means exceeds a threshold value, causes a second captured image to be displayed instead of the first captured image. The second captured image is an image of which a color shade difference between pixels configuring an image end and a region outside the image and adjacent to the image end is decreased compared with the first captured image.

A method for displaying vehicle information includes: setting a driving velocity and an inter-vehicle distance after activating a smart cruise control function; performing a smart cruise control according to the set driving velocity and the set inter-vehicle distance and displaying smart cruise control-related information in an augmented reality display region located in a front portion of a driver's own vehicle; comparing an actual inter-vehicle distance between the driver's own vehicle and a nearby vehicle to the set inter-vehicle distance during performance of the smart cruise control; determining an information displayable region in the augmented reality display region when the actual inter-vehicle distance is less than the set inter-vehicle distance; and displaying display information corresponding to the set inter-vehicle distance in the information displayable region.

The rendering control unit controls the laser light source unit in such a way that a display image is rendered in a range smaller than a scan range of the scan mirror unit based on input display image data. The detection unit detects a range to be a reference for setting a laser beam output position for adjusting an output of the laser beams based on the display image data. The output adjusting control unit controls the laser light source unit in such a way that the laser beams for adjusting an output of the laser beams are output at a position outside the range where the display image is rendered in the scan range of the scan mirror unit, and the position is based on the range detected by the detecting unit.

The present invention relates to a vehicle control device mounted on a vehicle, and a method for controlling the vehicle. The vehicle control device includes a communication module configured to receive driving information regarding the vehicle, a display module configured to output visual information on a display region formed on a windshield of the vehicle, and a controller configured to control the display module based on the driving information to output graphic objects guiding a path of driving of the vehicle on a first region of the display region, the display region divided into the first region and a second region. The controller controls the display module based on the driving information to output on the second region at least one of the graphic objects output on the first region.

A method for displaying vehicle information includes: setting a driving velocity and an inter-vehicle distance after activating a smart cruise control function; performing a smart cruise control according to the set driving velocity and the set inter-vehicle distance and displaying smart cruise control-related information in an augmented reality display region located in a front portion of a driver's own vehicle; comparing an actual inter-vehicle distance between the driver's own vehicle and a nearby vehicle to the set inter-vehicle distance during performance of the smart cruise control; determining an information displayable region in the augmented reality display region when the actual inter-vehicle distance is less than the set inter-vehicle distance; and displaying display information corresponding to the set inter-vehicle distance in the information displayable region.

Various embodiments of an augmented reality alignment system and method are disclosed. An exemplary alignment system and method therefor may correct for image misalignment, distortion, and image deflection of graphic images that are projected within an operator's field of view. The alignment system may be configured to consider a number of dynamic and static error factor inputs in real time such that when a graphic image is projected, the graphic image is substantially aligned with the real-world target it is intended to overlay and the graphic image is displayed substantially free of distortion.

The exemplary embodiment of the present invention discloses a vehicle-mounted projection method and system. The vehicle-mounted projection system comprises: a transmission module, a processing module and laser display means, wherein the transmission module is used for receiving navigation data; the processing module is used for processing the navigation data to obtain a navigation image; and the laser display means is used for projecting the navigation image onto a specified position on the road surface in front of a vehicle. The vehicle-mounted projection method comprises: receiving navigation data; processing the navigation data to obtain a navigation image; projecting the navigation image onto a specified position on the road surface in front of the vehicle. According to the exemplary embodiment of the present invention, the navigation image of the vehicle is projected onto the road surface in front of the vehicle, thereby improving visibility and ensuring the projection effect.