Willand (Beijing) Technology Co., Ltd.

A method for generating a working map, an operation method, a control method, and a related apparatus are provided. The method includes the following operations. The automatic operation apparatus is controlled to move, to record position information of multiple path points on a movement path of the automatic operation apparatus. Boundary attribute configuration information is received, and boundary attributes of at least a part of the path points are determined according to the boundary attribute configuration information. A working map including position information of multiple boundary points and boundary attributes of at least a part of the boundary points is generated. Multiple boundary points are configured to indicate a virtual boundary surrounding a preset area, and when the automatic operation apparatus performs operations along the virtual boundary, working modes when the automatic operation apparatus moves to boundary points corresponding to different boundary attributes are different.

A method for controlling an autonomous mobile device, an autonomous mobile device, and a computer storage medium are provided. The method includes: determining a plurality of candidate positions based on a first coordinate set; determining one of the candidate positions satisfying a safety condition for rotating the autonomous device as a first position; controlling the autonomous mobile device to turn at the first position so that the autonomous mobile device is perpendicular to a first boundary corresponding to the first coordinate set, and a tail of the autonomous mobile device is closer to the first boundary than a head of the autonomous mobile device; controlling the autonomous mobile device to move backward to a second position; and controlling the autonomous mobile device to turn at the second position so that the autonomous mobile device is parallel to the first boundary.

Embodiments of the present disclosure provide a method for calibrating a lawnmower, including: collecting a preset number of position data of the lawnmower moving relative to a charging station; performing straight line fitting using the preset number of position data; and determining, if the preset number of position data fits a straight line, an orientation of the charging station based on a slope of the fitted straight line. Accordingly, embodiments of the present disclosure may accurately determine the orientation of the charging station and has the advantages of high calibration accuracy and low calibration cost.

A method for path planning, an automatic gardening device, and a computer program product are provided. The method includes: receiving a preset travel direction in a work region; dividing the work region into a plurality of subregions; determining, for each of the subregions, an actual planned direction in the subregion from the preset travel direction and a recommended planned direction in the subregion, and determining a local planned path corresponding to the subregion based on the actual planned direction, wherein a path of traversing the subregion along the recommended planned direction has a shortest length; acquiring a moving sequence between the subregions; and determining a global planned path of the work region based on the local planned path of each of the subregions and the moving sequence between the subregions.

Embodiments of the application provide a method for generating a working map, an operation method, a control method, and a related apparatus. The method for generating a working map includes the following operations. The automatic operation apparatus is controlled to move, to record position information of multiple path points on a movement path of the automatic operation apparatus. Boundary attribute configuration information is received, and boundary attributes of at least a part of the path points are determined according to the boundary attribute configuration information. A working map including position information of multiple boundary points and boundary attributes of at least a part of the boundary points is generated. The position information of multiple boundary points are determined according to the position information of multiple path points, the boundary attribute of the boundary point is determined according to the boundary attribute of the path point, multiple boundary points are configured to indicate a virtual boundary surrounding a preset area, and when the automatic operation apparatus performs operations along the virtual boundary, working modes when the automatic operation apparatus moves to boundary points corresponding to different boundary attributes are different. This solution may improve work efficiency of the automatic operation apparatus.

An image acquisition apparatus and a self-moving device. The image acquisition apparatus includes a base; an upper box body, the upper box body is detachably disposed on the base, a cavity is formed between the upper box body and the base, and a front end face of the upper box body is provided with a window; a camera assembly, the camera assembly is fixedly disposed on the base and is placed in the cavity, and the camera assembly and the window are correspondingly provided; a sunshading part, the sunshading part is disposed at a side of the upper box body away from the base, and the sunshading part is disposed spaced from the upper box body.

A method for recommending an installation position of a base station, a storage medium, a mower, and a mobile electronic device are provided. The method acquires satellite observation data at a plurality of sampling points along a boundary of a target map; determining target sampling points satisfying a preset condition according to satellite observation data at each sampling point; determining common satellite observation frequency bands according to satellite observation data at the target sampling points; determining the number of the common satellite observation frequency bands at each sampling point according to the common satellite observation frequency bands and the satellite observation data at each sampling point; and determining recommendation information of the installation position of the base station according to the number of the common satellite observation frequency bands at each sampling point.

Embodiments of the application provide a method for generating a working map, an operation method, a control method, and a related apparatus. The method for generating a working map includes the following operations. The automatic operation apparatus is controlled to move, to record position information of multiple path points on a movement path of the automatic operation apparatus. Boundary attribute configuration information is received, and boundary attributes of at least a part of the path points are determined according to the boundary attribute configuration information. A working map including position information of multiple boundary points and boundary attributes of at least a part of the boundary points is generated. The position information of multiple boundary points are determined according to the position information of multiple path points, the boundary attribute of the boundary point is determined according to the boundary attribute of the path point, multiple boundary points are configured to indicate a virtual boundary surrounding a preset area, and when the automatic operation apparatus performs operations along the virtual boundary, working modes when the automatic operation apparatus moves to boundary points corresponding to different boundary attributes are different. This solution may improve work efficiency of the automatic operation apparatus.

The present disclosure discloses an electric mobile apparatus, a charging station and a method for controlling an electric mobile apparatus. The An electric mobile apparatus includes an apparatus body; a first sensing module arranged on the apparatus body for sensing an electromagnetic signal transmitted from a positioning coil and outputting a first electromagnetic sensing signal; a second sensing module arranged on the apparatus body for sensing the electromagnetic signal transmitted from the positioning coil and outputting a second electromagnetic sensing signal; and a control module connected to the first sensing module and the second sensing module respectively for determining a relative position between the apparatus body and the positioning coil based on the first electromagnetic sensing signal and the second electromagnetic sensing signal, and controlling the apparatus body to move based on the relative position until the apparatus body moves to a target position.