The present disclosure provides a virtual object jump control method performed by a computer device. The method includes determining, in a process that a first virtual object in a virtual scene moves to a destination, a target landing point of the first virtual object according to a position of the destination when a current position of the first virtual object meets a jump condition; determining, according to the current position and the target landing point, a jump trajectory of the first virtual object jumping from the current position to the target landing point; and controlling the first virtual object to jump from the current position to the target landing point according to the jump trajectory.

The present disclosure provides a virtual object jump control method performed by a computer device. The method includes determining, in a process that a first virtual object in a virtual scene moves to a destination, a target landing point of the first virtual object according to a position of the destination when a current position of the first virtual object meets a jump condition; determining, according to the current position and the target landing point, a jump trajectory of the first virtual object jumping from the current position to the target landing point; and controlling the first virtual object to jump from the current position to the target landing point according to the jump trajectory.

An interactive control system for a game object including: a collision module, configured to assign a collision attribute to each game object; a moving module, configured to receive a moving instruction directed to a game group; an interaction module, configured to be coupled to the collision module, calculate a repulsive force of each game object, and represent an interaction form of the game object based on the repulsive force, wherein, when the game group is moved to the moving target, makes a group circle with a center of the game group as a center of the circle and a first length as a radius, when the game object is outside the group circle, it controls the collision module to impart a restoring force directing to the center of the circle to the game object, so as to control the game object to return to the game group.

A system and method for facilitating moving particles in a virtual space use depth information that reflects distances of objects in a virtual space to either a ground level or a viewpoint. The depth information may be stored in a set of information. The system detects collisions of particles and other objects based on the depth information, on a frame-by-frame basis.

A system and method for facilitating moving particles in a virtual space use depth information that reflects distances of objects in a virtual space to either a ground level or a viewpoint. The depth information may be stored in a set of information. The system detects collisions of particles and other objects based on the depth information, on a frame-by-frame basis.

In a special operation mode which receives an operation input for causing a player character that is falling, to perform a special action including a shooting action of shooting a predetermined object, an example of an information processing apparatus changes the posture of the player character that is falling, according to a component, regarding at least a pitch direction, of the direction of a virtual camera based on a camera operation input. In the special operation mode, the information processing apparatus sets a shooting direction of the predetermined object during the shooting action, according to the direction of the virtual camera based on the camera operation input. Moreover, the information processing apparatus controls the player character to perform the shooting action and control the predetermined object to move to the shooting direction, based on a shooting operation input performed by the player.

A movement direction of a moving object moving in a virtual space is changed based on at least a component in a first axial direction of a coordinate change of a user's input continuously performed and indicating a coordinate input, with reference to a first reference coordinate point determined by the user's input. A game operation different from a movement of the moving object in the virtual space is determined based on at least a component of the user's input in a second axial direction different from the first axial direction, and is executed.

In response to receiving user input command for sending a contextually aware communication, a computer system is configured to use game state data to determine a target location that a player is focusing on in a virtual environment in a video game, identify a unit that the player likely wants to communicate about based on at least priorities of unit types and proximities of units to the target location, and select a communication action for performance. Different communication actions can be performed in response to the same user input command when the game state data indicates different game states.

A user character and an ally character are arranged in a first area of a virtual space while an opponent character is arranged in a second area of the virtual space. The user character is assigned one of a plurality of roles in a predetermined order, according to a game progress. The plurality of roles include at least a role that moves a moving object in the first area and a role that moves the moving object toward the second area. The user character is automatically moved based on a predetermined role and on a moving direction of the moving object. In a case where the predetermined role is assigned to the user character and operation data satisfies a condition corresponding to the predetermined role, the moving object is moved by an action of the user character.

A system is described for weighting and evaluating potential spawn locations by sampling player position to determine a general direction and velocity of travel, thereby allowing the game to favor placing spawns along the player's projected path. In addition, techniques are provided where a game server provides a client a signature value to seed a deterministic pseudorandom number generator to spawn an object at the client. When the client wishes to communicate a player interaction to the server, it transmits the operation the player wants to perform and the identifying information it was originally given. The server uses this data and re-compute the signature using a secret key. If the signature values match, then the server knows the spawn ID and the signature value are legitimate.