Abstract: A scheduler obtains a to-be-processed job; and controls at least one super node based on a resource requirement of the to-be-processed job to process the to-be-processed job based on a global memory pool of the super node, where the to-be-processed job is a processing request related to a distributed application. In this way, because the global memory pool is a resource that is constructed through unified addressing on storage media of nodes in the super node and that is shared by the nodes in the super node, the nodes in the super node that are coupled using a high-speed interconnection technology share and access the global memory pool to process the to-be-processed job.

Abstract: An interactive scenario implementation method includes: displaying, on a game scenario structure interface, one or more readable game scenario blocks. Each block represents one or more game scenarios that a player has played, and each block has a corresponding game scenario path data stored. The method also includes: determining, according to a scenario skipping instruction triggered by the player through the game scenario structure interface, a skip-origin block and a skip-destination block; updating, upon determining that the skip-origin block is located on a target game scenario path and that skip-origin game scenario path data of the skip-origin block and target game scenario path data of the skip-destination block have connectivity in the game logic, the target game scenario path data according to the skip-origin game scenario path data. A game scenario corresponding to the skip-destination block is entered according to the updated target game scenario path data.

Abstract: A torque-sensor strain beam structure and a torque sensor are provided. The torque-sensor strain beam structure comprises an external ring, a connecting hub and at least two strain beams. The external ring has a first joint. The connecting hub is located in the external ring and arranged coaxially with the external ring. The connecting hub has a second joint. A first end of each of the at least two strain beams is fixedly connected to an inner wall of the external ring and a second end of each of the at least two strain beams is fixedly connected to the connecting hub. A strain grid is provided on each of the at least two strain beams. A load inputting point is located at the first joint or the second joint. Arrangement of the torque-sensor strain beam structure allows the torque sensor to have smaller volume while having higher measurement sensitivity.

Abstract: A torque-sensor strain beam structure and a torque sensor are provided. The torque-sensor strain beam structure comprises an external ring, a connecting hub and at least two strain beams. The external ring has a first joint. The connecting hub is located in the external ring and arranged coaxially with the external ring. The connecting hub has a second joint. A first end of each of the at least two strain beams is fixedly connected to an inner wall of the external ring and a second end of each of the at least two strain beams is fixedly connected to the connecting hub. A strain grid is provided on each of the at least two strain beams. A load inputting point is located at the first joint or the second joint. Arrangement of the torque-sensor strain beam structure allows the torque sensor to have smaller volume while having higher measurement sensitivity.

Abstract: An interactive scenario implementation method includes: displaying, on a game scenario structure interface, one or more readable game scenario blocks, each block representing one or more game scenarios that a player has played, and each block having a corresponding game scenario path data stored; receiving a scenario skipping instruction triggered by the player through the game scenario structure interface; determining, according to the scenario skipping instruction, a skip-origin block and a skip-destination block; updating, upon determining that the skip-origin block is located on a target game scenario path and determining that skip-origin game scenario path data of the skip-origin block and target game scenario path data of the skip-destination block have connectivity in game logic, the target game scenario path data according to the skip-origin game scenario path data; and entering a game scenario corresponding to the skip-destination block according to the updated target game scenario path data.