Abstract: Embodiments of the present application provide a battery pressing device, including: a first pressing mechanism for pressing a battery in a first direction; and a second pressing mechanism for pressing the battery in a second direction perpendicular to the first direction. With the battery pressing device of the present application, the battery can be pressed in the first direction by using the first pressing mechanism while pressing the battery in the second direction by using the second pressing mechanism, thereby reducing or suppressing the undesired deformation of the battery in the second direction and improving the flatness of the battery in the second direction.

Abstract: The present application discloses a gripping mechanism, a loading device and a loading control method. The gripping mechanism includes a base body and a first gripping assembly. A clamping zone is configured on one side of the base body. The first gripping assembly includes a first jaw and a second jaw, with the first jaw being arranged on one of two opposite sides of the clamping zone, and the second jaw being arranged on the other side; wherein at least one of the first jaw and the second jaw is movably connected to the base body, such that a spacing between the first jaw and the second jaw is adjustable, so that the requirements for gripping plates of different specifications and sizes can be met. That is, the gripping mechanism according to embodiments of the present application can be compatible with plates of different specifications and sizes.

Abstract: A docking apparatus includes a first docking mechanism. The first docking mechanism includes a first base, a first flipping assembly, and a first gripper assembly, where the first flipping assembly is configured to be capable of driving the first gripper assembly to flip over to a first attitude or a second attitude.

Abstract: A system is provided that includes a host processor coupled to a programmable acceleration coprocessor. The coprocessor may include logic for implementing a physical function and multiple associated virtual functions. The coprocessor may include a static programmable resource interface circuit (PIC) configured to perform management functions and one or more partial reconfiguration regions, each of which can be loaded with an accelerator function unit (AFU). An AFU may further be partitioned into AFU contexts (AFCs), each of which can be mapped to one of the virtual functions. The PIC enables hardware discovery/enumeration and loading of device drivers such that security isolation and interface performance are maintained.