A virtual object control method includes: controlling a first virtual object to move toward a target position in response to detecting a triggering operation on a first skill; while the first skill is in effect, detecting a triggering operation on a second skill; in response to detecting the triggering operation on the second skill: searching, based on the target position, for a target virtual object; and in accordance with a determination that the first virtual object reaches the target position: controlling the first virtual object to cast the second skill on the target virtual object. Searching is performed based on the target position associated with the first skill, so that a target actually attacked matches a target the user intends to attack, thereby improving the efficiency of human-machine interaction.

A virtual object control method includes: controlling a first virtual object to move toward a target position in response to detecting a triggering operation on a first skill; while the first skill is in effect, detecting a triggering operation on a second skill; in response to detecting the triggering operation on the second skill: searching, based on the target position, for a target virtual object; and in accordance with a determination that the first virtual object reaches the target position: controlling the first virtual object to cast the second skill on the target virtual object. Searching is performed based on the target position associated with the first skill, so that a target actually attacked matches a target the user intends to attack, thereby improving the efficiency of human-machine interaction.

The principal invention for solving the above-described problem is an animation production method that provides a virtual space in which a given object is placed, the method comprising: detecting an operation of a user equipped with a head mounted display; controlling a movement of an object based on the detected operation of the user; shooting the movement of the object; storing an action data relating to the movement of the shot object in a first track; and storing audio from the user in a second track.

Aspects of this disclosure provide a method where a normal map corresponding to a target water body region where a dynamic object is located in a next image frame can be acquired based on a water wave map corresponding to the target water body region where the dynamic object is located in a current image frame, and a water wave effect on the target water body region where the dynamic object is located in the next image frame is rendered according to the normal map. On the one hand, through iterative rendering frame by frame, a realistic water wave animation effect can be simulated to make the water surface interaction very natural, providing users with immersive experience. Further, because the water wave rendering is performed only on the target water body region, the complexity is lowered, and the calculation amount is reduced, to better adapt to a mobile terminal application.

Aspects of this disclosure provide a method where a normal map corresponding to a target water body region where a dynamic object is located in a next image frame can be acquired based on a water wave map corresponding to the target water body region where the dynamic object is located in a current image frame, and a water wave effect on the target water body region where the dynamic object is located in the next image frame is rendered according to the normal map. On the one hand, through iterative rendering frame by frame, a realistic water wave animation effect can be simulated to make the water surface interaction very natural, providing users with immersive experience. Further, because the water wave rendering is performed only on the target water body region, the complexity is lowered, and the calculation amount is reduced, to better adapt to a mobile terminal application.

The present disclosure describes techniques for training a model and improving game performance using the model. The disclosed techniques comprise obtaining a plurality of sets of game data from a plurality of terminal devices, the plurality of sets of game data being stored in a plurality of segment replay buffers; sampling the plurality of sets of game data based on a predetermined priority and obtaining a sampling result; inputting the sampling result into a loss function and training a model by using a calculation result of the loss function; and determining a quality (Q) value of each action performed by a virtual object in a game run on a terminal device among the plurality of terminal devices by using the model.

The present disclosure describes techniques for training a model and improving game performance using the model. The disclosed techniques comprise obtaining a plurality of sets of game data from a plurality of terminal devices, the plurality of sets of game data being stored in a plurality of segment replay buffers; sampling the plurality of sets of game data based on a predetermined priority and obtaining a sampling result; inputting the sampling result into a loss function and training a model by using a calculation result of the loss function; and determining a quality (Q) value of each action performed by a virtual object in a game run on a terminal device among the plurality of terminal devices by using the model.

In an exemplary embodiment, on the basis of a first direction input performed on an operation device, a player object is caused to perform a posturing action of holding an item object in an orientation corresponding to an input direction according to the first direction input. Further, in accordance with cancelation of the first direction input, the player object is caused to perform a swinging action of swinging the item object.

A first image related to a progress of a game is displayed on a display unit, an UI (User Interface) image receiving a first input operation related to a result of the game is displayed on the display unit in a manner of being superimposed on the first image, and the UI image is deleted by receiving a second input operation from the user even when the first input operation is not yet received.

A first image related to a progress of a game is displayed on a display unit, an UI (User Interface) image receiving a first input operation related to a result of the game is displayed on the display unit in a manner of being superimposed on the first image, and the UI image is deleted by receiving a second input operation from the user even when the first input operation is not yet received.