A vehicular camera monitoring system a driver-side camera, a driver-side video display screen disposed at a driver-side cabin region of an interior cabin of the vehicle, a passenger-side camera and a passenger-side video display screen disposed at a passenger-side cabin region of the interior cabin of the vehicle. During a parking maneuver or parking-space exit maneuver of the vehicle, the driver-side video display screen displays parking assist images derived from image data captured by the driver-side camera and the passenger-side video display screen displays parking assist images derived from image data captured by the passenger-side camera. Upon completion of the parking-space exit maneuver where the vehicle exits a parking space, the driver-side and passenger-side video display screens automatically operate to display driving assist video images derived from image data captured by the respective side camera, with the displayed driving assist video images being different from the displayed parking assist images.

The disclosure relates to systems and methods for operating a motor vehicle at an event venue, in particular in a drive-in cinema, which may include the steps of reading vehicle data (FD) indicative of a current position of the motor vehicle at a venue, and changing to an event operating mode to operate the motor vehicle (6) during an event at the venue if the vehicle data (FD) are indicative of a current position of the motor vehicle (6) at the venue.

A method for operating a digital assistant of a vehicle includes receiving a status of the digital assistant, and determining a display device for displaying the status of the digital assistant. The method further includes determining at least one display parameter of the display device. The method also includes generating an animated visual control object depending on the status of the digital assistant, the display device, and the at least one display parameter. The animated visual control object is deployed on the display device. A corresponding system performs the method.

It is possible to display a frame that is comfortable for an occupant. An image processing apparatus (10) according to the present disclosure includes: an image/sound creation unit (142) that: creates a frame belonging to one of a plurality of modes as a frame of an application to be displayed on a screen provided in a vehicle; and moves before-switching and after-switching frames in a first direction parallel to or perpendicular to a vehicle travel direction in a case where an operation for switching from a frame that is being displayed to another frame in the same mode for the application is input, and moves before-switching and after-switching frames in a second direction perpendicular to the first direction in a case where an operation for switching from a frame that is being displayed to another frame in a different mode for the application is input.

A guidance device according to the present invention is installed in a movable body, the guidance device includes: an output device including a display device; an input device that receives an operation performed by an occupant of the movable body for starting each of a plurality of driving assistance functions installed in the movable body; and a guidance control device that determines whether the movable body is in a stopping period or in a traveling period, and allows the display device to display a video for explaining any one of the plurality of driving assistance functions when the movable body is in the stopping period.

A control system of a smart glass for a vehicle, which changes a transmittance and displays an image, includes the smart glass provided on a glass of the vehicle and having a changed transmittance or an image displayed thereon; an operation member into which a mode of the smart glass is input; and a control unit electrically connected to the smart glass and the operation member and configured to adjust the transmittance of the smart glass according to the mode input into the operation member, or to control the smart glass so that the image is displayed through the smart glass.

A system for controlling a vehicle includes: an occupant gaze recognition unit to recognize a gaze of an occupant in the vehicle; a point of interest determination unit to determine the point of interest among an external object visible through a side window of the vehicle based on the gaze of the occupant; and a seat position control unit to change a seat position of the occupant to enable a continuous stare at the point of interest according to a movement of the vehicle.

Disclosed is a system for controlling a vehicle display. The system includes a vehicle display, processors that recognize behavioral information related to an occupant in a vehicle viewing a display screen of the vehicle display, and a display controller that controls the vehicle display using the behavior information related to viewing the display screen. The display controller analyzes the behavior information related to viewing the display screen, determines when a gaze of the occupant deviates from an area of the display screen, and controls the vehicle display based on the gaze.

Systems and methods are disclosed preventing accidents by altering user interfaces of self-driving vehicles based on movements of passengers in the self-driving vehicles. The system and methods generate for display media content on a user interface for a self-driving vehicle and determine whether a value of movement from a wearable user device of a user within the self-driving vehicle exceeds a threshold value (indicating the maximum value at which the self-driving vehicle removes the media content on the user interface). Responsive to a determination that the value of the movement from the wearable user device exceeds the threshold value, the system and methods remove the media content on the user interface for the self-driving vehicle.

An indoor display apparatus of a vehicle may include a vehicle state inputter configured to receive a vehicle state, a front detector configured to detect an object ahead of a vehicle, a flip-dot display installed at a top of a cockpit module, and being configured to implement a pixel by rotating a flip disk, an illuminator installed around the flip-dot display, and being configured to illuminate the surface of the flip-dot display, and a controller configured to receive an operation mode of the vehicle from the vehicle state inputter, to receive a distance to the object and a direction of the object from the front detector, and to operate the flip-dot display and the illuminator.