Abstract: In a second mode where a first enemy object attacks a player object in a virtual space, no matter which of a switching condition that a second time elapses and a switching condition that the player object gains a second required number of target objects smaller than a first required number before the second time elapses is satisfied, a game mode is switched to a first mode where the first enemy object does not attack the player object.

Abstract: In a first mode, based on an operation input to a controller of a first player, a game system controls a first character object and controls a pointer object. In the first mode, the game system automatically controls a second character object and causes the second character object to perform a predetermined action on a position in a virtual space indicated by the pointer object. In a second mode, the game system controls the first character object based on the operation input to the controller of the first player and controls the second character object based on an operation input to a controller of a second player.

Abstract: During an attack preparation state, a starting point of a first attack is moved from a first position to a second position that is a position where the first attack is executed, and in accordance with switching of an attack execution object from the attack preparation state to an attack execution state, the attack execution object is caused to execute the first attack. On the other hand, in accordance with switching of the attack execution object from a pre-attack-preparation state to the attack preparation state, a second shadow is drawn so that when a range where the first attack of which a starting point is the second position is blocked by a blocking object, the blocked range is a shadow of the blocking object.

Abstract: During an attack preparation state, a starting point of a first attack is moved from a first position to a second position that is a position where the first attack is executed, and in accordance with switching of an attack execution object from the attack preparation state to an attack execution state, the attack execution object is caused to execute the first attack. On the other hand, in accordance with switching of the attack execution object from a pre-attack-preparation state to the attack preparation state, a second shadow is drawn so that when a range where the first attack of which a starting point is the second position is blocked by a blocking object, the blocked range is a shadow of the blocking object.

Abstract: In a second mode where a first enemy object attacks a player object in a virtual space, no matter which of a switching condition that a second time elapses and a switching condition that the player object gains a second required number of target objects smaller than a first required number before the second time elapses is satisfied, a game mode is switched to a first mode where the first enemy object does not attack the player object.

Abstract: In a first mode, based on an operation input to a controller of a first player, a game system controls a first character object and controls a pointer object. In the first mode, the game system automatically controls a second character object and causes the second character object to perform a predetermined action on a position in a virtual space indicated by the pointer object. In a second mode, the game system controls the first character object based on the operation input to the controller of the first player and controls the second character object based on an operation input to a controller of a second player.

Abstract: An information processing system includes: a game control unit configured to move a player character object in a virtual space; and a camera control unit configured to move a virtual camera together with the movement of the player character object in the virtual space. The camera control unit performs observation control of moving the virtual camera to make an object to be observed included in the visual field of the virtual camera in a case where the player character object is inside an observation performance region set to the object to be observed.

Abstract: An information processing system includes: a game control unit configured to move a player character object in a virtual space; and a camera control unit configured to move a virtual camera together with the movement of the player character object in the virtual space. The camera control unit performs observation control of moving the virtual camera to make an object to be observed included in the visual field of the virtual camera in a case where the player character object is inside an observation performance region set to the object to be observed.

Abstract: A game apparatus includes a CPU, and the CPU sets a moving direction, that is, a position and an orientation of a moving object within a game space on the basis of angular velocity data transmitted from a first controller, that is, an attitude of a gyro sensor unit (gyro sensor). Then, when a second controller is drawn toward a near side in a state that a C button and a Z button thereof are simultaneously pressed, and the C button and the Z button are simultaneously released in that state, the moving object is shot.

Abstract: A game apparatus includes a CPU, and the CPU sets a moving direction, that is, a position and an orientation of a moving object within a game space on the basis of angular velocity data transmitted from a first controller, that is, an attitude of a gyro sensor unit (gyro sensor). Then, when a second controller is drawn toward a near side in a state that a C button and a Z button thereof are simultaneously pressed, and the C button and the Z button are simultaneously released in that state, the moving object is shot.

Abstract: A game apparatus includes a CPU, and the CPU controls a moving object within a virtual space on the basis of acceleration data and angular velocity data which are transmitted from a controller. For example, before the angular velocity data is above a predetermined magnitude, a position and an orientation of the moving object is controlled on the basis of the angular velocity data. When the angular velocity data is above the predetermined magnitude, an initial velocity of the moving object is decided on the basis of the acceleration data, and a moving direction (orientation) of the moving object is decided on the basis of the angular velocity data. Thereafter, the moving object moves within the virtual space according to a general physical behavior.

Abstract: A game apparatus comprises an operation data acquiring means for acquiring operation data from a first input device including at least a first acceleration sensor and an angular velocity sensor and a second input device including at least a second acceleration sensor, and a game processing means for performing game processing on the basis of first acceleration data output from the first acceleration sensor, second acceleration data output from the second acceleration sensor, and angular velocity data from the angular velocity sensor, in the operation data.

Abstract: A game apparatus includes a CPU, and the CPU sets a moving direction, that is, a position and an orientation of a moving object within a game space on the basis of angular velocity data transmitted from a first controller, that is, an attitude of a gyro sensor unit (gyro sensor). Then, when a second controller is drawn toward a near side in a state that a C button and a Z button thereof are simultaneously pressed, and the C button and the Z button are simultaneously released in that state, the moving object is shot.

Abstract: A game apparatus includes a CPU, and the CPU controls a moving object within a virtual space on the basis of acceleration data and angular velocity data which are transmitted from a controller. For example, before the angular velocity data is above a predetermined magnitude, a position and an orientation of the moving object is controlled on the basis of the angular velocity data. When the angular velocity data is above the predetermined magnitude, an initial velocity of the moving object is decided on the basis of the acceleration data, and a moving direction (orientation) of the moving object is decided on the basis of the angular velocity data. Thereafter, the moving object moves within the virtual space according to a general physical behavior.

Abstract: A game apparatus includes a CPU, and the CPU sets a moving direction, that is, a position and an orientation of a moving object within a game space on the basis of angular velocity data transmitted from a first controller, that is, an attitude of a gyro sensor unit (gyro sensor). Then, when a second controller is drawn toward a near side in a state that a C button and a Z button thereof are simultaneously pressed, and the C button and the Z button are simultaneously released in that state, the moving object is shot.

Abstract: A game apparatus includes a CPU, and the CPU sets a moving direction, that is, a position and an orientation of a moving object within a game space on the basis of angular velocity data transmitted from a first controller, that is, an attitude of a gyro sensor unit (gyro sensor). Then, when a second controller is drawn toward a near side in a state that a C button and a Z button thereof are simultaneously pressed, and the C button and the Z button are simultaneously released in that state, the moving object is shot.

Abstract: A game apparatus includes a CPU, and the CPU controls a moving object within a virtual space on the basis of acceleration data and angular velocity data which are transmitted from a controller. For example, before the angular velocity data is above a predetermined magnitude, a position and an orientation of the moving object is controlled on the basis of the angular velocity data. When the angular velocity data is above the predetermined magnitude, an initial velocity of the moving object is decided on the basis of the acceleration data, and a moving direction (orientation) of the moving object is decided on the basis of the angular velocity data. Thereafter, the moving object moves within the virtual space according to a general physical behavior.

Abstract: A game apparatus performs game processing on the basis of operation data output from a first input device including a first acceleration sensor and an angular velocity sensor and a second input device including a second acceleration sensor. The game apparatus calculates an orientation of an object within a game space on the basis of a first acceleration and a second acceleration, and causes the object to make a predetermined motion on the basis of the angular velocity data.

Abstract: A game apparatus performs game processing on the basis of operation data output from a first input device including a first acceleration sensor and an angular velocity sensor and a second input device including a second acceleration sensor. The game apparatus calculates an orientation of an object within a game space on the basis of a first acceleration and a second acceleration, and causes the object to make a predetermined motion on the basis of the angular velocity data.

Abstract: A game apparatus comprises an operation data acquiring means for acquiring operation data from a first input device including at least a first acceleration sensor and an angular velocity sensor and a second input device including at least a second acceleration sensor, and a game processing means for performing game processing on the basis of first acceleration data output from the first acceleration sensor, second acceleration data output from the second acceleration sensor, and angular velocity data from the angular velocity sensor, in the operation data.