There is provided an automated valet parking server that causes an autonomous driving vehicle in a parking place to perform automated valet parking by instructing the autonomous driving vehicle. The automated valet parking server includes an illuminance information acquisition unit configured to acquire illuminance information of front lighting devices of the autonomous driving vehicle, an illuminance suppression point setting unit configured to set an illuminance suppression point which is a position in the parking place at which illuminance of the front lighting devices of the autonomous driving vehicle is suppressed based on parking place map information of the parking place and the illuminance information of the front lighting devices of the autonomous driving vehicle, and an illuminance suppression instruction unit configured to instruct the autonomous driving vehicle to perform illuminance suppression at the illuminance suppression point.

A method for operating a transportation vehicle, in particular, for driving the transportation vehicle into a predefined parking space, wherein a first trajectory for automated travel of the transportation vehicle into the predefined parking space is stored in a vehicle-side memory device, which trajectory has been detected during manual travel of the transportation vehicle into the predefined parking space and the first trajectory is assigned tolerance values for a deviation from the first trajectory, which is the maximum deviation by which the transportation vehicle deviates from the first trajectory during automated travel into the predefined parking space, wherein, in the case of at least one further instance of manual travel of the transportation vehicle into the predefined parking space, the further trajectory which is travelled along is detected automatically and the first trajectory and the further trajectory are compared with one another.

Techniques and examples pertaining to virtual reality remote valet parking are described. A processor of a control system of a vehicle may establish a wireless communication with a remote controller. The processor may provide a stream of video images captured by a camera of the vehicle to the remote controller. The processor may receive a signal from the remote controller. The processor may maneuver the vehicle from one location to another according to the signal.

A cargo detection system for detecting overhanging cargo on a motor vehicle comprises a sensor system configured to provide cargo measurement data for cargo loaded onto the motor vehicle by measuring at least one of exterior dimensions of cargo protruding over an outer edge of the motor vehicle and an opening condition of a tailgate of the motor vehicle. The system further comprises a control device configured to assess, based on the cargo measurement data of the sensor system, whether cargo is overhanging from the motor vehicle and to calculate an updated vehicle length and/or vehicle width for the motor vehicle accounting for the overhanging cargo.

The present disclosure provides a method, system, and apparatus for processing parking and a vehicle controller, and relates to the field of intelligent transportation technology, specifically to the field of automated parking technology. The method is executed by a parking system deployed on a vehicle controller, the parking system including a perception module and other modules except the perception module; the perception module being deployed on a first operating system in the vehicle controller; and the other modules being deployed on a second operating system in the vehicle controller; the method includes: processing an image collected by an image collector through the perception module to obtain perception result data; and controlling a vehicle based on the perception result data obtained from the perception module by the other modules.

A method and apparatus for positioning a vehicle. The method may include: acquiring an identification element and non-identification elements of a current vehicle. The method can further include matching the identification element of the current vehicle with position elements in a high-precision map to determine an initial position of the current vehicle. The method can further include using at least one position element in the high-precision map to perform observational constraints on the non-identification elements of the current vehicle to acquire position elements corresponding to the non-identification elements of the current vehicle. The method can further include adjusting the initial position of the current vehicle using the position elements corresponding to the non-identification elements of the current vehicle to obtain a target position of the current vehicle.

A system for assisting in aligning a vehicle for hitching with a trailer includes a steering system that adjusts a vehicle steering angle, a braking system that adjusts a vehicle speed, an imaging system that receives image data of a drawbar assembly being receivable in a hitch receiver, and a controller. The controller is configured to detect an edge of the drawbar assembly from the image data, target an endpoint at a fixed offset from the edge and a stationary point on the vehicle, and maneuver, via the steering and braking systems, the vehicle along a path to align the endpoint with the trailer.

A vehicle control device comprising: a control unit configured to control an automated parking mode based on a shift position of a transmission when an automated parking is instructed, wherein the automated parking mode includes a first automated parking mode in which steering is not executed and forward movement or rearward movement is possible and a second automated parking mode in which a parking space is detected and steering is executed automatically, and the control unit controls the automated parking mode to be in the first automated parking mode, in a case where the shift position is a first position, and selectively controls the automated parking mode to be in the first automated parking mode or the second automated parking mode, in a case where the shift position is a second position that differs from the first position.

A display device for a vehicle includes: a plurality of imaging units configured to capture images around the vehicle; an image compositing unit configured to composite the images captured by the imaging units to generate a composite image; an image display unit configured to display the composite image generated by the image compositing unit; and an acquiring unit configured to acquire information about an object around the vehicle. The imaging units are arranged such that imaging areas thereof overlap with each other. The image compositing unit is configured to set a boundary between the captured images in the composite image such that the boundary is provided in a part where the imaging areas of the imaging units overlap with each other. In a case where the acquiring unit acquires the information about the object, the image compositing unit changes the boundary.

A vehicle control system includes: a terminal configured to be carried by a user; and a control device configured to execute a remote autonomous moving process to move a vehicle from an initial position to a prescribed stop position based on an input from the terminal and to stop the vehicle at the stop position. The remote autonomous moving process proceeds on condition of continuation of a reciprocating operation on the terminal by the user, and has a plurality of modes in which a vehicle speed to move the vehicle is set to values different from each other. The control device or the terminal is configured to select one of the plurality of modes based on a speed of the reciprocating operation.